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Universidade Federal do Rio de Janeiro
Instituto de Biologia
Programa de Pós-Graduação em Ecologia
Pleistocene-Holocene extinctions: distinguishing between anthropic and
climatic causes
Bernardo Barros de Alvarenga Araujo
Supervisor: Fernando A. dos Santos Fernandez
Co-supervisor: José Alexandre F. Diniz-Filho
Rio de Janeiro, RJ, Brazil - 2013
"The beauty and genius of a work of art may be reconceived,
though its first material expression be destroyed; a vanished harmony may
yet again inspire the composer; but when the last individual of a race of
living beings breathes no more, another heaven and another earth must
pass before such a one can be again."
William Beebe, The Bird (1906).
III
ACKNOWLEDGEMENTS
Although this is one of the most enjoyable sections to write in a dissertation –
mainly because it is a space to acknowledge the importance of many people I hold dear
and because it is (hopefully) a red marker free zone – I will try to make it as quick as
possible.
First, I would like to thank my family for the infinite care offered throughout…
well, through my whole life, but particularly in the years I’ve been in college. For eight
years now I’ve had two homes filled with people who gave me nothing but love and
incentive, and I couldn’t possibly begin to explain how much their support has meant
(and will continue to mean) to me.
In the respect of support, friends are also worth mentioning, especially the ones
at the Laboratório de Ecologia e Conservação de Populações (Laboratory of Population
Ecology and Conservation; LECP) of Universidade Federal do Rio de Janeiro (UFRJ),
not only for the countless discussions and suggestions that were so valuable for the
development of the present dissertation, but also for composing a working environment
that is at the same time focused, greatly productive and so incredibly pleasant to inhabit.
I would also like to extend a good extent of my gratitude to my co-supervisor
José Alexandre F. Diniz-Filho, and to my dear colleagues Matheus Souza Lima-Ribeiro
and Joaquín Hortal, for all the brainstorms and exchanges of ideas and data that fuelled
my research. A particular acknowledgment on that respect should also go to Luiz
Gustavo Rodrigues Oliveira-Santos for the enormous help provided with the conception
and development of the models used in this work (and I still haven’t forgotten about that
beer I owe you for all that).
IV
A couple of agencies also deserve acknowledgement, namely the Conselho
Nacional de Pesquisa e Desenvolvimento (CNPq) for providing the scholarship that
aided me through the last two years, and the Programa de Pós-Graduação em Ecologia
(PPGE) of UFRJ (along with its faculty members) for the chance to execute this
somewhat audacious project.
For last, and most certainly not least, I would like to thank Fernando Fernandez
– supervisor, friend, and the very first person to open my eyes to the plight of so many
fantastical creatures that became my personal object of fascination for the best part of
four years. For me, this piece of (hard) work is as much yours as it is mine, and I
wouldn’t have it any other way. Wherever my writings (academic or otherwise) should
take me, the time spent under your tutelage will never be forgotten. And if I ever
manage to build that time machine, I’ll be sure to make it a two-seater.
V
ABSTRACT
Through the last 50,000 years, the world lost about two thirds of its genera of large terrestrial
animals, in a sequence that affected every continent except Africa. Explanations for these Quaternary
extinctions, mostly based on regional studies, have been placed anywhere in a gradient ranging from
climatic to anthropogenic causes. However, there have been few global quantitative analyses of this
phenomenon, none of which takes full advantage of the vastly improved number and reliability of
paleontological dates in recent years. Herein, we used a global approach to compare the explanatory
power of the climatic and anthropogenic hypotheses. The world was divided in 19 regions where the
extinctions took place at distinct times. Late Quaternary climatic variance expressed by 18O fluctuations
and calibrated archeological dates of human first arrival to each region were used as predictive variables.
The response variable was the last calibrated dates of occurrence of each megafaunal genus in each
region. A comparison of the observed patterns with null models obtained by simulations showed that the
extinctions were closer in time than expected by chance to climatic changes, human arrival, both or
neither in 2, 82, 10 and 32 cases respectively (n = 126 last occurrence dates). Both cases where climate
was the better explanation and most unexplained cases occurred in Eurasia, where the extinction process
was longer and megafauna had a long interaction with early hominids. In a global perspective, however,
the results provide strong support to the hypothesis that anthropogenic impacts are the best explanation
for the extensive megafaunal extinctions that ravaged the planet in the Quaternary. Such realization
should prompt us to rescue the true baselines of the world’s megafauna and ecosystem structure, and to
reevaluate how we perceive and manage our remaining biodiversity and ecological processes.
KEY-WORDS: Quaternary extinction, megafauna, anthropogenic impacts, climatic variance,
global analysis.
VI
RESUMO
Ao longo dos últimos 50.000 anos, o mundo perdeu por volta de dois terços dos seus gêneros de
grandes animais terrestres, em uma sequência que afetou todos os continentes exceto a África. As
explicações para estas extinções do Quaternário, em sua maioria baseadas em estudos regionais, têm sido
colocadas em qualquer ponto de um gradiente que vai de causas climáticas a antropogênicas. No entanto,
têm havido poucas análises quantitativas globais deste fenômeno, nenhuma das quais tira completo
proveito do vasto aperfeiçoamento no número e confiabilidade das datas paleontológicas nos anos
recentes. Aqui, nós usamos uma abordagem global para comparar o poder explicador das hipóteses
climática e antropogênica. O mundo foi dividido em 19 regiões onde as extinções aconteceram em
tempos diferentes. A variância climática do final do Quaternário expressa por flutuações em 18O e datas
arqueológicas calibradas de primeira chegada humana a cada região foram utilizadas como variáveis
preditoras. A variável resposta foi a última data calibrada de ocorrência de cada gênero de megafauna em
cada região. Uma comparação dos padrões observados com os modelos nulos obtidos por simulações
mostrou que as extinções eram mais próximas no tempo do que o esperado ao acaso de mudanças
climáticas, chegada humana, ambas ou nenhum dos dois em 2, 82, 10 e 32 casos respectivamente (n =
126 datas de última ocorrência). Ambos os casos nos quais o clima foi a melhor explicação e a maior
parte dos casos não explicados ocorreram na Eurásia, onde o processo de extinção foi mais longo e a
megafauna teve uma longa interação com hominídeos mais antigos. Numa perspectiva global, no entanto,
os resultados fornecem um forte apoio para a hipótese de que impactos antropogênicos são a melhor
explicação para as extensivas extinções da megafauna que assolaram o planeta no Quaternário. Essa
percepção deve nos impelir a recuperar as verdadeiras linhas de base da megafauna e estrutura dos
ecossistemas do mundo, e a reavaliar como nós percebemos e manejamos nossa biodiversidade e nossos
processos ecológicos remanescentes.
PALAVRAS-CHAVE: extinções do Quaternário, megafauna, impactos antropogênicos,
variância climática, análise global.
VII
TABLE OF CONTENTS
Acknowledgements III
Abstract V
Resumo VI
List of Tables VIII
List of Figures IX
Introduction 1
Methods data 5
Methods analyses 10
Results 16
Discussion 25
References 32
Appendix I supplementary data a1
Appendix I supplementary data references a82
Appendix II supplementary figure a91
VIII
LIST OF TABLES
Table 1 Mead-Meltzer Scale, as modified by Lindsey and Barnosky (2010) 7
Table 2 Scoring systems created to assess the reliability of U/Th and OSL dates 8
Table 3 Dates for extinct genera, human arrival, and summarized results from the null models 19
Table 4 Dates corrected by bootstrapping and comparisons between results 24
Table S1 Megafaunal dates from South America that ranked 11+ on the Mead-Meltzer Scale a2
Table S2 Megafaunal dates from Caribbean that ranked 11+ on the Mead-Meltzer Scale a5
Table S3 Megafaunal dates from North America that ranked 11+ on the Mead-Meltzer Scale a6
Table S4 Megafaunal dates from Eurasia that ranked 11+ on the Mead-Meltzer Scale a14
Table S5 Megafaunal dates from Japan that ranked 11+ on the Mead-Meltzer Scale a42
Table S6 Megafaunal dates from Madagascar that ranked 11+ on the Mead-Meltzer Scale a44
Table S7 Megafaunal dates from Tasmania that ranked 11+ on the Mead-Meltzer Scale a47
Table S8 Megafaunal dates from New Zealand that ranked 11+ on the Mead-Meltzer Scale a48
Table S9 Megafaunal dates from Australia that ranked 11+ on the Mead-Meltzer Scale a52
Table S10 Human dates from South America that ranked 13+ on the Mead-Meltzer Scale a60
Table S11 Human dates from North America that ranked 13+ on the Mead-Meltzer Scale a66
Table S12 Human dates from Eurasia that ranked 13+ on the Mead-Meltzer Scale a70
Table S13 Human dates from Japan that ranked 13+ on the Mead-Meltzer Scale a78
Table S14 Human dates from Tasmania that ranked 13+ on the Mead-Meltzer Scale a79
Table S15 Well ranked Rattus exulans dates from New Zealand as proxies for human arrival a80
IX
LIST OF FIGURES
Figure 1 Regions considered on the analyses 11
Figure 2 Sampled dates of Mylodon from Cueva del Milodon, replacement for 1k iterations 15
Figure 3 Null model results - effects of climatic variance over extinct megafauna genera 17
Figure 4 Null model results - effects of human arrival over extinct megafauna genera 18
Figure 5 Null model results - Geographical distribution of all extinction causes 18
Figure S1 Effects of climatic variance and human arrival time-lapse over No. of extinct genera a91
INTRODUCTION
Since the beginning of the 19th century, when science became aware of a sudden and
geologically recent disappearance of many large-bodied animals, the Pleistocene-Holocene
extinctions became a heated topic of academic debate (Grayson 2008). Starting around 50,000
years ago, the world (with the exception of Africa) lost most representatives of the megafauna
(broadly defined as animals above 44kg; Martin 1984). Some landmasses, like Australia and
the Americas, experienced the extinction of more than three quarters of their large animal
genera (Koch & Barnosky 2006).
Understanding the causes of the megafauna extinctions across the Pleistocene-
Holocene boundary remains a great unresolved scientific question. For a long time, two main
hypotheses to explain these extinctions divided the academic community interested on the
debate. The first predicts that the extinctions were caused by environmental changes triggered
by climatic shifts that followed the last glacial maximum. The other hypothesis focus on
human diaspora across the globe, arguing that anthropogenic impact – mostly overhunting –
would have caused the extinctions following the colonization of each landmass by
anatomically modern humans.
The first hypothesis originated from Agassiz’s ideas about glaciation, a disclosure that
took place still on the 19th century (Grayson 1984). Yet, Darwin himself, during his voyage
aboard the Beagle, showed that Pleistocene extinct fauna fossils also occurred on geological
stratifications more recent than the glaciation periods’ (Grayson 1984). Other scientists of that
time, like Alfred Russel Wallace, had already argued that no environmental disturbances other
than of the ones brought by the arrival of men on each continent, could have prompted such
extinctions (Martin 1967). However, that second hypothesis was only formalized by Paul S.
Martin on 1967, when he demonstrated the synchrony between human arrival and megafaunal
1
decline on North America and, later, on many regions of the globe. Martin claimed that a
strong hunting pressure over animals that were evolutionarily unprepared to deal with it
would have led to a fast wave of large mammal extinctions. This hypothesis would come to
be known as Pleistocene overkill, and it was improved over the following years, further
refining the extinction model based on anthropogenic factors (Martin 1984). Over the next
decades different theories were also raised by different authors, invoking pathogens (MacPhee
& Marx 1997), extraterrestrial impacts (Firestone et al. 2007) or instabilities caused by
intrinsic characteristics of the dynamics of the “extinct communities” (Forster 2004) as
possible causes for the extinctions. Such theories, however, failed to explain the geographical
and taxonomical width of the event, earning little attention among the scientific community.
For a long time after the publication of Martin’s works, the extinctions debate
remained polarized. On one side were the advocates of the climatic hypothesis, who initially
argued in favor of the direct effects of the glaciation over the megafauna (Grayson 1984).
After some time, however, they started to be criticized because of the lack of synchrony
between the last glacial maximum and the extinctions on several continents (Koch &
Barnosky 2006). As a result, through recent years, the environmental view of the extinctions
has been supported by climatic and floral data that suggest environmental changes particular
to each time and place where a group of species has gone extinct (Koch & Barnosky 2006).
On the other side were the advocates of the overkill, defending their view from critiques about
the apparent scarcity of direct evidences of human predation over megafauna species and of
coexistence between men and some of the extinct genera (Grayson & Meltzer 2003), arguing
that these apparent lacks are mere sampling artifacts. Over the last few years, in light of many
recent findings and improved datasets, proponents of anthropic driven extinctions abandoned
the idea of very fast decimation waves (blitzkrieg), suggesting a slower paced process
(Johnson 2006; Barnosky & Lindsey 2010).
2
In recent years, many researchers came to defend a synergy among climatic and
anthropogenic factors as a more plausible scenario for the extinctions (e.g. Barnosky 2004,
Nogués-Bravo et al. 2008, Lorenzen 2011, Prescott et al. 2012, Lima-Ribeiro & Diniz-Filho
2013), although they may diverge in respect to the balance of climate and humans as
extinction drivers (Prescott et al. 2012, Lima-Ribeiro et al. 2012). Nonetheless, many articles
are still written in favor of either side of this dichotomy. Most of the studies on the
Quaternary extinctions, however, are focused on a single continent (Alroy 2001, Diniz-Filho
2004, Jonhson 2006) and few global analyses exist in the literature (for exceptions, see Lyons
et al. 2004, Gillespie 2008, Prescott 2012). Furthermore, few of the global studies offer actual
quantitative analyses of one or both hypotheses, and the ones that do are based on crude data
(Prescott et al. 2012).
However one chooses to approach the question of past extinctions, fossil dating (i.e.
the establishment of the calendar “dates” when fossilized beings were alive) is a crucial
methodology, for it allows the establishment of synchrony between a given extinction event
and its potential causes. In the last years, a growing number of dates have been published and
revised in different parts of the world (FAUNMAP Working Group 1994, Roberts et al. 2001,
Orlova et al. 2004, Barnosky & Lindsey 2010, Crowley 2010, Lorenzen 2011, Iwase et al.
2012, Rawlence et al. 2012). Moreover, more accurate climatic models have been developed
for the last 125,000 years, a period that encompasses the end of the Pleistocene and the
beginning of the Holocene (Andersen et al. 2004). These advances made a once unfeasible
comparative global analysis of climatic changes, dates of human arrival on each landmass and
extinction of each megafauna taxa a concrete possibility, and a promising path for resolving
the extinctions debate.
This dissertation aims to answer whether the Pleistocene-Holocene extinction of the
megafauna was caused by climatic changes, anthropogenic impacts or a combination of both.
3
These extinctions were a worldwide event and a satisfactory explanation for them begs for a
global approach. Thus, a comprehensive number of all published dates of human arrival and
last appearance of megafaunal genera on each landmass, together with climatic data across the
late Pleistocene, were compiled in order to compare the power of both hypotheses to explain
the extinction dates. This is one of the first works to use a strict quantitative global approach
to this end, making use of as many recently published dates as possible.
4
METHODS
Data
The predictions of each hypothesis were compared in order to evaluate them. The
environmental hypothesis predicts that extinctions would have occurred during or following
intense climatic changes through the Pleistocene-Holocene. The human impact hypothesis, on
the other hand, predicts that extinctions would have followed human colonization of each
landmass across the globe.
First, dates corresponding to the aforementioned events were collected from scientific
literature. The last appearance dates of megafauna (MLADs) species and first appearance
dates of anatomically modern humans (HFADs) on several landmasses were gathered from all
published sources that could be assessed (see Appendix 1). These landmasses include South
America, North America, Caribbean islands, Northern Eurasia, Australia, Tasmania,
Madagascar, New Zealand and Japan. Climatic changes throughout the last millennia of the
Pleistocene and Holocene were assessed through the North Greenland Ice Core Project
(NGRIP) data on oxygen isotopic composition on ice cores (Andersen et al. 2004). This
database comprises δ18O data (a proxy of the planet’s temperature conditions) from the last
122,000 years, with mean 18O values for every 50 years.
To allow comparisons between the hypotheses’ predictions, data reliability was
assessed through a scoring system. Paleontological and archaeological dates are a frequent
matter of debate due to their sensitivity to methodological errors (Walker 2005). Sample
contamination, poor materials, stratigraphic misinterpretations, inadequate dating methods
and other problems can seriously jeopardize a date’s accuracy. To identify reliable data, many
authors have used different quantitative scales based mainly on sample material, stratigraphic
5
associations and the type of equipment and logistics used in a given method (Mead & Meltzer
1984, Burney 2004, Barnosky & Lindsey 2010, Iwase 2012). Dates from articles and books
that passed through such scrutiny were collected without further appraisal. In most cases,
however, displayed dates lacked any sort of accuracy determination, making data filtering a
necessity. For radiocarbon based dates, this filtering was achieved using the Mead-Meltzer
Scale (Mead & Meltzer 1984) modified by Lindsey and Barnosky (2010; Table 1), applying
strict criteria: for paleontological and archaeological dates to be accepted, they had to reach at
least ranks 11 (out of a maximum rank of 12) and 13 (out of a maximum rank of 17)
respectively (following Barnosky & Lindsey 2010). Still, most datings performed in Oceania
over the extinctions period are based on different methods, mainly U/Th (Uranium-Thorium
dating), OSL (Optically Stimulated Luminescence dating) and ESR (Electron Spin Resonance
dating). As there are no scoring systems capable of evaluating the accuracy of these types of
dating methods, ranked scales along the lines of the Mead-Meltzer Scale were designed to
assess the reliability of U/Th and OSL dates (Table 2). The new scales do not include ranks
associated with archaeological remains, because human dates were always based on
radiocarbon methods. ESR dating involves a more complex set of techniques, making its
dates harder to fit into a simple scoring system. So, only sources that utilized CSUS-ESR, a
much more accurate variant of the ESR method, were considered in the following analyses
(Grün et al. 2008, 2010).
6
Table 1 – Mead-Meltzer Scale, as modified by Lindsey and Barnosky (2010). Scores from each category
(Material, Stratigraphic association of specimen of interest with dated material, Association of dated
material with archaeological evidence and Dating method) were summed to establish the date’s overall
rank. Paleontological dates that ranked 11 or 12 (because the Association with archaeological evidence
category did not apply to them) and archaeological dates that ranked 13 to 17 were considered
reliable and used in the following analyses.
14C SCORE
Material
Collagen 5
Dung 5
Hide 5
Hair 5
Apatite 3
Whole bone 1
Charcoal 6
Wood (logs, twigs, leaves) 5
Peat 3
Organic mud (gyttja) 3
Soil 3
Shell 2
Terrestrial carbonate (marl) 1
Stratigraphic association of specimen of interest with dated material
Date on the specimen itself 5
Date from same stratum as the specimen 3
Date on material above the specimen 2
Date on material below the specimen 2
7
‘‘Associated’’ date 1
Association of dated material with archaeological evidence
Date from human remains 5
Living floor/assemblage 4
Clear hearth 3
Single artifact 3
Probable hearth 2
Clear butchering 2
Equivocal evidence 1
Dating method
AMS 2
Standard or unknown 1
Table 2 – Scoring systems created to assess the reliability of U/Th and OSL dates. The establishment of each
date’s overall rank followed the Mead-Meltzer system (see Table 1).
U/TH SCORE
Material
Unaltered coral 6
Speleothem 6
Volcanic rocks 6
Ferruginous concretions 4
Tufa 4
Mollusc shells 4
Phosphates 4
Diagenetically altered corals 2
8
Bone 1
Evaporites 1
Caliche 1
Stromatolites 1
Peat and wood 1
Stratigraphic association of specimen of interest with dated material
Date from same stratum as the specimen or on the specimen itself 4
Date on material above the specimen 2
Date on material below the specimen 2
‘‘Associated’’ date 1
Dating method
MC-ICP-MS / TIMS 2
alpha particles / ICP-MS 1
OSL SCORE
Material
Quartz 2
Feldspar 1
Stratigraphic association of specimen of interest with dated material
Date on sediment adjacent or attached to the specimen 5
Date from same stratum as the specimen 3
Date on material above the specimen 2
Date on material below the specimen 2
‘‘Associated’’ date 1
Dating method (measurement)
IRSL (feldspar only) / LED 3
9
Halogen lamp 2
Argon-Ion 1
Dating method (analysis)
Single aliquot 2
Multiple aliquot 1
After the data filtering, date calibration was performed. Radiocarbon datings are based
on the 14C/12C ratio of tested samples, and, as base concentrations of both isotopes fluctuate
through time in the atmosphere, calibration is necessary to transform ‘radiocarbon years’ on
actual ‘years before present’. Dates were calibrated using the software Calib 6.0, using the
IntCal09 curve for every sample. Even though this calibration curve was originally designed
for the northern hemisphere, it is the only one that encompasses the whole span of the
extinction event.
Analyses
Calibrated dates and climatic data were then used to develop mathematical models to
assess each hypothesis individually and combined. Before any analysis could be performed,
as both megafauna extinctions and human colonization times vary considerably within large
landmasses, MLADs and HFADs on continents had to be divided geographically. The
divisions were based mainly on great geographical barriers and temporal gaps on human
arrival. A total of 19 regions, including islands and portions of continents, were used to pair
up human arrival and genera disappearances (Figure 1). In the following models, each extinct
genus in a given region was treated as an individual sampling unit. Genera were considered
10
rather than species to avoid taxonomical confusion, once fossil samples are not always
identified to the specific level, and when they are, the identifications are often controversial.
This procedure allows genera with well ranked dates (see above) in more than one region to
appear multiple times, which makes biological sense as the extinction of species of a genus in
different regions can be independent events, regardless of their cause.
Figure 1 – Regions considered on the analysis: Australia, Caribbean, Japan, Madagascar, New Zealand,
Tasmania, Wrangel, Bering (northwesternmost North America and northeasternmost Eurasia), Central North
America, Eastern North America, Western North America, Northern Europe, Southern Europe, West Siberia,
Central Russia, Northern South America, Central South America, Patagonia and Andean region (the Andes
and South America’s western coast).
With the sampling units established, a generalized mixed model was used to test the
effects of the human arrival time-lapse and 18O variation (fixed effects) on the number of
extinct megafaunal genera through the late Quaternary in the 19 aforementioned regions
around the world. For such test, the last 60 thousand years of data were divided into 20
categories of 3 thousand years each. The dependent variable, the megafauna, was quantified
as the number of extinct genera on each time category. Human arrival time-lapse (first
independent variable) was quantified as the amount of years from each time category to the
11
category where human colonization took place on each region. Climatic variation (the second
independent variable) was quantified simply as 18O variance within each time category. The
model was fit using a Poisson distribution because the number of extinct genera is a typical
discrete count variable. The regions’ identities were included in the model as random effects
(allowing random intercept estimation) and temporal autocorrelation was controlled between
successive time windows within each province using a first-order autoregressive correlation
structure. The model was validated through the checking of both normality and absence of
temporal autocorrelation of the residuals. The analysis was performed in R using the
glmmPQL() function from the MASS package.
After the initial analysis, null models were designed to further investigate the
chronological association of periods of intense climatic change and of HFADs with the
MLADs. For the first hypothesis, a thousand dates were randomly drawn from the 122
thousand years of climatic data available for each extinct genus on each region. Each true last
appearance date, as well as its thousand random associated dates, had the 18O variance of their
dating error timespan plus another thousand years into the past calculated. This step assumes
that the effects of climatic changes on regional megafauna extinctions would be apparent
within 1,000 years interval; this is regarded as a conservative approach to accommodate a
delay in response by the extinct genera. That measure of climatic instability was chosen as an
environmental variable rather than extreme values because there is a single apex to the last
glaciation (or two, if the Younger Dryas is considered), thus climatic variance would be a
better candidate than climatic extremes for providing a global explanation for the extinction
event. These lists of 1001 variances for each sampling unit were then used to create one-tailed
probability distributions, and p-values were extracted based on the position of the true last
appearance date in relation to the intensity of climate changes, among all possible (random)
dates.
12
A similar method was employed to assess the second hypothesis. Again, a thousand
dates were randomly drawn from a 122,000 years timespan into the past for each MLAD on
each region, but this time the chronological distance between each date (random and true) and
the corresponding regional HFAD was measured. These chronological distance lists were then
ranked and p-values were extracted, in a way that they expressed the proportion of random
dates (number of dates divided by a thousand) that were closer to human arrival than the true
MLAD.
Both models were generated in R, and their results tabulated and compared. On every
occasion where the test of significance of a given model provided a p-value of up to 0.06 (to
better encompass the temporal lag between human colonization and megafaunal demise) –
that is, when extinctions were more closely related to climatic changes or to human arrival
than expected by chance – the cause it expressed was considered responsible for that genus
extinction. When both hypotheses showed significant p-values, the result was considered
“entangled”, meaning that the models could not discern between causes for that particular
extinction event.
Due to the natural paucity of the fossil record and its consequent vulnerability to
sampling biases (Signor & Lipps 1982), a second round of analyses was carried out to assess
the influence of poorly represented taxa over the overall results of the two previous models. It
is highly unlikely that any single dated fossil will represent the actual extinction date of a
given taxon (i.e. the moment when its last individual perished), but well sampled taxa have a
good chance of having a MLAD closely related to their true time of demise (Barnosky &
Lindsey 2010). The same is not true for poorly represented taxa. With the help of
bootstrapping simulations (Gotelli & Ellison 2004), however, one can evaluate and even
attempt to correct some of this distortion, using dates of genera that are very well represented
on single fossiliferous sites to estimate the bias for poorly represented genera from the same
13
region (Barnosky & Lindsey 2010). Ideally, such corrections should have been exercised over
this work’s complete dataset, but that was impossible because many regions failed to present
even a single well represented genus. So, only data from South America was corrected in this
manner, sampling dates of Mylodon from Cueva del Milodon (Patagonia) with replacement
for 1000 iterations (Figure 2), and the previous models were run for a second time, using the
new corrected dates. This continent was chosen because Mylodon at Cueva del Milodon was
the second best sampled genus in a single site in the whole dataset, and the extinction
timespan in South America was small enough to allow dates from a single region to be used
to correct for all four of them. The best sampled site in all dataset was located in Wrangel, an
island inhabited by a single genus of megafauna (Mammuthus), and thus unfit to serve the
correction’s purpose. Finally, the results of this new round of null models were compared
with the initial ones, and the effects of sampling bias appraised.
It is important to note that the antiquity of human arrival on every region would also
be subject to such biases. However, archeological findings tend to outnumber single genera
records over most of the globe. That way, Homo sapiens was considered a well sampled
species throughout the world, and no bootstrapping corrections were run over anthropological
dates.
14
Figure 2 - Sampled dates of Mylodon from Cueva del Milodon (Patagonia) with replacement for 1000 iterations.
15
RESULTS
All dates gathered from literature that were ranked satisfactorily according to the
modified versions of the Mead-Meltzer scale (Tables 1 and 2, see Methods), along with their
results from calibration procedures, are compiled in Appendix 1. Two thousand and eighty
eight dates for a total of 67 genera of extinct megafauna (58 mammals, 8 birds and 1 reptile)
fulfilled the filtering requirements and were used in the analysis and null models, totalizing
126 sampling units across the 19 regions due to repeated genera. Similarly, 762 human dates
fulfilled the same requirements, and were considered in the following analysis and models.
As many regions have genera that survived several millennia after most of their
concurrent taxa, to avoid effects of time-lag between the onset of a given variable (human
arrival or climatic instability) and total megafaunal demise within a region, 25% of the most
recent extinction dates from every region were removed from the constructed mixed models.
The analysis with the remaining 97 genera found both effects of the human arrival time-lapse
(t = -4.69, p < 0.001) and climatic variation (t = 2.42, p < 0.02) on the number of extinct
genera through time (model; Number of extinct genus = -0.45 - 0.12*Time-lapse from human
arrival + 0.29*Climatic variation). However, the main effect of climatic variation was to
magnify the effects of the human arrival (Appendix 2, Figure S1). At times far (> 10 thousand
years) from the dates of human arrival, increases in climate variation did not increase the
number of extinct genera (Appendix 2, Figure S1). On the other hand, at times close (<5
thousand years) to human arrival, increases in climate variation yielded even higher numbers
of extinct genera. The random effect suggested low variance among regions in the intercepts
of their respective regressions (sd = 10-4), and the autoregressive structure estimated a
correlation of only 0.17 between successive time windows within each region, suggesting that
these results are robust.
16
The results for each analyzed genus for the two null models are summarized in Table
3. For the climatic hypothesis, 12 (around 9.5%) out of the 126 genera were found to become
extinct during a period of intense climatic instability (Figure 3). The anthropogenic models,
on the other hand, showed that 92 (around 73%) out of the 126 genera became extinct on their
respective regions nearer human arrival than expected by chance (Figure 4). In ten of the
cases above the effects of both factors were entangled. Thus, in the models 2 genera were
considered extinct by climatic factors alone, 82 due to human impact alone, 10 by a synergy
of both factors, and for the remaining 32 cases no evidence could be found of the effect of
either variable (Figure 5).
Figure 3 – Geographical distribution of the results of the null model investigating the effects of climatic
instability over 126 genera (including repeated ones) of extinct megafauna. p values denote the proportion of
random δ18O variances that were greater than the one that encompassed the true MLAD, in a way that values <
0.06 express extinctions during a period of greater climatic instability than expected by chance.
17
Figure 4 – Geographical distribution of the results of the null model investigating the effects of human arrival
over 126 genera (including repeated ones) of extinct megafauna. p values denote the proportion of random
genera extinction dates that were closer to human arrival than the true MLAD, in a way that values < 0.06
express extinctions nearer to human arrival than expected by chance.
Figure 5 – Geographical distribution of the results regarding which process best explained the extinctions:
climatic change, anthropogenic impact, the entangled effects of both, or none of them.
18
Tab
le 3
- D
ates
for
eac
h ex
tinc
t gen
us (
MF
), h
uman
arr
ival
(H
S),
and
sum
mar
ized
res
ults
fro
m th
e nu
ll m
odel
s.
RE
GIO
NG
EN
ER
AM
F14C
MF14
C
erro
rM
F14C
(2σ)
MF14
C
erro
r (2σ)
OSL
OSL
er
ror
U-T
hU
-Th
erro
rC
SUS-
ESR
CSU
S-E
SR e
rror
HS14
CH
S14C
(2σ)
p C
limat
ep
Hum
anE
XT
INC
TIO
N
CA
USE
Aus
tral
iaD
ipro
todo
n44
000
6000
4547
048
079
0.44
90.
054
hum
anA
ustr
alia
Gen
yorn
is47
000
2000
4547
048
079
0.24
90.
015
hum
anA
ustr
alia
Mac
ropu
s52
000
8000
4547
048
079
0.58
40.
049
hum
anA
ustr
alia
Met
hast
enur
us89
000
6000
4547
048
079
0.55
71.
000
none
Aus
tral
iaP
hasc
olon
us47
000
2000
4547
048
079
0.22
90.
011
hum
anA
ustr
alia
Pro
copt
odon
4010
011
0044
013
1556
4547
048
079
0.45
50.
055
hum
anA
ustr
alia
Pro
tem
nodo
n44
900
1300
4547
048
079
0.24
90.
037
hum
anA
ustr
alia
Sim
osth
enur
us40
100
1100
4401
315
5645
470
4807
90.
416
0.05
7hu
man
Aus
tral
iaS
then
urus
4400
050
0045
470
4807
90.
431
0.05
2hu
man
Aus
tral
iaT
hyla
cole
o40
100
1100
4401
315
5645
470
4807
90.
437
0.04
5hu
man
Aus
tral
iaZ
ygom
atur
us44
900
1300
4547
048
079
0.27
40.
048
hum
anB
erin
gB
ison
1037
016
012
062
554
1322
515
986
0.43
50.
035
hum
anB
erin
gC
oelo
dont
a14
260
150
1738
043
2.5
1322
515
986
0.63
10.
009
hum
anB
erin
gE
quus
1229
044
014
721
1431
1322
515
986
0.07
80.
015
hum
anB
erin
gM
amm
uthu
s96
5060
1098
821
2.5
1322
515
986
0.08
70.
044
hum
anB
erin
gP
anth
era
1252
550
1466
043
013
225
1598
60.
024
0.01
2en
tang
led
Car
ibbe
anM
egal
ocnu
s41
9040
4713
130
5500
5500
0.96
90.
013
hum
anC
arib
bean
Par
ocnu
s49
6028
056
3666
355
0055
000.
999
0.00
1hu
man
Cen
tral
Rus
sia
Bis
on88
6040
9970
195.
543
300
4704
90.
499
0.33
0no
neC
entr
al R
ussi
aC
oelo
dont
a13
165
180
1593
675
543
300
4704
90.
568
0.31
7no
neC
entr
al R
ussi
aM
amm
uthu
s96
7060
1100
021
5.5
4330
047
049
0.07
40.
335
none
Cen
tral
Rus
sia
Meg
aloc
eros
1005
545
1157
523
643
300
4704
90.
262
0.31
0no
neC
entr
al R
ussi
aP
anth
era
1245
060
1458
043
043
300
4704
90.
018
0.31
3cl
imat
eJa
pan
Bis
on17
900
9021
318
299
3142
035
843
0.61
70.
151
none
Japa
nC
ervu
s13
970
9017
106
310
3142
035
843
0.57
00.
169
none
Japa
nM
amm
uthu
s19
530
8023
198
508
3142
035
843
0.58
00.
127
none
Japa
nP
alae
olox
odon
2360
013
028
323
357
3142
035
843
0.12
50.
092
none
19
Japa
nS
inom
egac
eros
4056
015
0044
326
2251
3142
035
843
0.32
40.
116
none
Mad
agas
car
Aep
yorn
is10
0015
096
429
123
0023
000.
897
0.00
8hu
man
Mad
agas
car
Arc
haeo
indr
is22
9155
2302
154
2300
2300
0.96
40.
000
hum
anM
adag
asca
rG
eoch
elon
e75
037
065
265
523
0023
000.
000
0.01
3en
tang
led
Mad
agas
car
Hip
popo
tam
us99
3613
313
723
0023
000.
964
0.01
2hu
man
Mad
agas
car
Meg
alad
apis
630
5060
663
2300
2300
0.93
80.
017
hum
anM
adag
asca
rM
ulle
rorn
is12
8060
1183
114
2300
2300
0.88
30.
006
hum
anN
A C
entr
alA
rcto
dus
1092
150
1279
015
511
480
1362
70.
476
0.00
6hu
man
NA
Cen
tral
Bis
on89
5035
010
185
921
1148
013
627
0.05
80.
031
enta
ngle
dN
A C
entr
alB
ooth
eriu
m10
980
8012
876
210
1148
013
627
0.44
50.
005
hum
anN
A C
entr
alC
amel
ops
1118
045
1306
117
511
480
1362
70.
395
0.00
9hu
man
NA
Cen
tral
Equ
us93
1031
010
456
857
1148
013
627
0.03
60.
015
enta
ngle
dN
A C
entr
alM
amm
uthu
s10
200
350
1173
896
011
480
1362
70.
280
0.01
2hu
man
NA
Cen
tral
Not
hrot
heri
ops
1067
014
012
510
371
1148
013
627
0.38
50.
009
hum
anN
A E
ast
Arc
todu
s11
480
6013
331
135
1269
015
181
0.34
90.
013
hum
anN
A E
ast
Bis
on99
9020
011
595
785
1269
015
181
0.21
20.
037
hum
anN
A E
ast
Cas
toro
ides
1032
025
011
948
676
1269
015
181
0.37
90.
026
hum
anN
A E
ast
Cer
valc
es11
030
150
1291
628
912
690
1518
10.
469
0.01
3hu
man
NA
Eas
tM
amm
ut89
1015
099
5941
212
690
1518
10.
498
0.04
6hu
man
NA
Eas
tM
amm
uthu
s82
6030
092
6884
512
690
1518
10.
640
0.04
9hu
man
NA
Eas
tM
egal
onyx
1143
060
1328
913
512
690
1518
10.
355
0.01
7hu
man
NA
Eas
tM
yloh
yus
1186
040
1366
918
012
690
1518
10.
145
0.01
0hu
man
NA
Eas
tP
alae
olam
a12
390
5014
515
420
1269
015
181
0.01
50.
005
enta
ngle
dN
A E
ast
Pla
tygo
nus
1079
015
012
749
335
1269
015
181
0.40
50.
024
hum
anN
A E
ast
Sm
ilod
on94
1015
510
696
433
1269
015
181
0.05
50.
039
enta
ngle
dN
A E
ast
Tap
irus
1250
010
2015
059
2651
1269
015
181
0.30
90.
002
hum
anN
A W
est
Arc
todu
s10
870
7512
764
171
1229
314
413
0.43
40.
019
hum
anN
A W
est
Bis
on11
930
210
1390
861
112
293
1441
30.
049
0.00
2en
tang
led
NA
Wes
tB
ooth
eriu
m11
690
190
1355
436
912
293
1441
30.
124
0.00
9hu
man
NA
Wes
tC
amel
ops
9955
165
1148
060
912
293
1441
30.
166
0.03
0hu
man
NA
Wes
tE
quus
1113
040
1298
417
512
293
1441
30.
412
0.01
1hu
man
NA
Wes
tE
ucer
athe
rium
1163
015
013
507
293
1229
314
413
0.24
50.
008
hum
anN
A W
est
Glo
ssot
heri
um11
030
800
1283
722
6212
293
1441
30.
081
0.01
7hu
man
20
NA
Wes
tM
amm
ut10
800
250
1264
359
712
293
1441
30.
410
0.02
1hu
man
NA
Wes
tM
amm
uthu
s88
1510
098
6930
712
293
1441
30.
491
0.03
8hu
man
NA
Wes
tN
othr
othe
riop
s10
400
275
1200
174
012
293
1441
30.
419
0.01
7hu
man
NA
Wes
tO
ream
nos
1014
051
011
629
1333
1229
314
413
0.16
70.
026
hum
anN
A W
est
Pla
tygo
nus
1134
050
1322
110
812
293
1441
30.
415
0.00
8hu
man
NA
Wes
tS
mil
odon
1113
027
513
071
530
1229
314
413
0.37
20.
009
hum
anN
ew Z
eala
ndD
inor
nis
658
3061
558
702
627
0.94
20.
000
hum
anN
ew Z
eala
ndE
meu
s10
470
130
1224
439
970
262
70.
431
0.10
1no
neN
ew Z
eala
ndE
urya
pter
yx10
7060
986
184
702
627
0.90
70.
001
hum
anN
ew Z
eala
ndM
egal
apte
ryx
646
9562
311
970
262
70.
945
0.00
0hu
man
New
Zea
land
Pac
hyor
nis
564
2658
457
702
627
0.95
20.
000
hum
anN
orth
ern
Eur
ope
Bis
on27
140
360
3157
860
2.5
4290
046
766
0.26
10.
185
none
Nor
ther
n E
urop
eC
oelo
dont
a30
220
460
3491
713
19.5
4290
046
766
0.44
50.
123
none
Nor
ther
n E
urop
eE
quus
3600
045
041
072
870
4290
046
766
0.42
40.
074
none
Nor
ther
n E
urop
eM
amm
uthu
s97
6040
1118
955
4290
046
766
0.09
10.
328
none
Nor
ther
n E
urop
eM
egal
ocer
os10
257
7512
051
335
4290
046
766
0.43
20.
319
none
Nor
ther
n E
urop
eP
anth
era
1224
866
1435
148
042
900
4676
60.
022
0.30
2cl
imat
eN
orth
ern
Eur
ope
Urs
us22
107
130
2668
267
742
900
4676
60.
217
0.20
9no
neS
A A
ndes
Cuv
iero
nius
1199
020
014
068
716
1278
015
289
0.04
70.
018
enta
ngle
dS
A A
ndes
Equ
us10
950
3512
803
148
1278
015
289
0.44
70.
022
hum
anS
A A
ndes
Glo
ssot
heri
um12
350
7014
474
447
1278
015
289
0.01
20.
006
enta
ngle
dS
A A
ndes
Hap
lom
asto
don
1667
080
1985
131
312
780
1528
90.
600
0.05
3hu
man
SA
And
esH
ippi
dion
2107
010
025
182
405
1278
015
289
0.52
90.
102
none
SA
And
esM
ylod
on13
500
6516
636
263
1278
015
289
0.51
90.
020
hum
anS
A A
ndes
Pal
eola
ma
1031
030
1217
919
712
780
1528
90.
346
0.02
1hu
man
SA
And
esS
celi
doth
eriu
m89
1020
010
014
481
1278
015
289
0.48
60.
061
none
SA
Cen
tral
Doe
dicu
rus
7010
100
7837
174
1101
012
890
0.77
40.
045
hum
anS
A C
entr
alE
quus
1029
013
011
984
572
1101
012
890
0.42
30.
012
hum
anS
A C
entr
alG
loss
othe
rium
1050
090
1235
725
011
010
1289
00.
356
0.00
4hu
man
SA
Cen
tral
Hip
pidi
on89
9090
1006
930
311
010
1289
00.
488
0.02
4hu
man
SA
Cen
tral
Meg
athe
rium
7750
250
8644
605
1101
012
890
0.84
00.
038
hum
anS
A C
entr
alS
celi
doth
eriu
m75
5060
8324
125
1101
012
890
0.80
30.
041
hum
anS
A C
entr
alT
oxod
on11
090
4012
946
172
1101
012
890
0.42
30.
002
hum
an
21
SA
Nor
thC
aton
yx99
6040
1143
017
812
440
1462
10.
196
0.03
3hu
man
SA
Nor
thE
quus
1618
070
1919
827
112
440
1462
10.
479
0.05
1hu
man
SA
Nor
thE
rem
othe
rium
1134
050
1322
110
812
440
1462
10.
408
0.01
5hu
man
SA
Nor
thG
lypt
odon
2550
060
030
202
1011
1244
014
621
0.39
10.
158
none
SA
Nor
thH
aplo
mas
todo
n15
290
7018
424
304
1244
014
621
0.65
90.
032
hum
anS
A N
orth
Hol
mes
ina
4100
013
0044
624
1992
1244
014
621
0.39
10.
369
none
SA
Nor
thN
othr
othe
rium
1220
012
014
317
545
1244
014
621
0.02
80.
001
enta
ngle
dS
A N
orth
Sm
ilod
on91
3015
010
247
456
1244
014
621
0.17
50.
045
hum
anS
A N
orth
Ste
gom
asto
don
1298
085
1572
161
312
440
1462
10.
555
0.01
1hu
man
SA
Pat
agon
iaA
rcto
ther
ium
1034
575
1217
934
611
570
1343
80.
400
0.01
7hu
man
SA
Pat
agon
iaH
ippi
dion
1031
016
011
992
585
1157
013
438
0.40
20.
015
hum
anS
A P
atag
onia
Mac
rauc
heni
a11
665
5013
528
166
1157
013
438
0.20
90.
003
hum
anS
A P
atag
onia
Myl
odon
1029
565
1210
728
311
570
1343
80.
378
0.02
3hu
man
SA
Pat
agon
iaS
mil
odon
1126
545
1318
911
411
570
1343
80.
420
0.00
1hu
man
Sou
ther
n E
urop
eE
quus
2868
039
033
225
1250
4140
044
882
0.17
60.
143
none
Sou
ther
n E
urop
eM
amm
uthu
s13
390
300
1607
191
641
400
4488
20.
619
0.28
7no
neS
outh
ern
Eur
ope
Meg
aloc
eros
2100
040
2508
535
541
400
4488
20.
577
0.18
8no
neS
outh
ern
Eur
ope
Pan
ther
a13
770
120
1689
926
6.5
4140
044
882
0.54
10.
268
none
Sou
ther
n E
urop
eU
rsus
2744
013
031
587
309
4140
044
882
0.13
60.
153
none
Tas
man
iaM
acro
pus
3423
046
040
031
1297
3479
039
883
0.45
80.
003
hum
anT
asm
ania
Met
asth
enur
us56
000
4000
3479
039
883
0.43
40.
239
none
Tas
man
iaP
alor
ches
tes
3592
029
041
276
703
3479
039
883
0.30
90.
016
hum
anT
asm
ania
Pro
tem
nodo
n30
400
270
3534
580
434
790
3988
30.
307
0.05
6hu
man
Tas
man
iaS
imos
then
urus
4450
010
0047
822
1957
3479
039
883
0.22
90.
099
none
Tas
man
iaT
hyla
cole
o56
000
4000
3479
039
883
0.43
70.
255
none
Tas
man
iaZ
ygom
atur
us33
510
210
3817
970
134
790
3988
30.
068
0.01
8hu
man
Wes
t Sib
eria
Bis
on24
600
300
2941
778
714
500
1758
70.
696
0.11
1no
neW
est S
iber
iaC
oelo
dont
a10
770
250
1260
061
514
500
1758
70.
422
0.04
7hu
man
Wes
t Sib
eria
Mam
mut
hus
1000
070
1150
626
114
500
1758
70.
202
0.05
3hu
man
Wes
t Sib
eria
Meg
aloc
eros
6816
3576
4254
.514
500
1758
70.
716
0.08
5no
neW
est S
iber
iaP
anth
era
1350
065
1663
626
2.5
1450
017
587
0.51
30.
011
hum
anW
est S
iber
iaU
rsus
3187
019
036
179
618
1450
017
587
0.17
00.
214
none
Wra
ngel
Mam
mut
hus
3685
6040
3718
743
0043
000.
950
0.00
1hu
man
22
All dates corrected by bootstrapping for the South American continent are compiled in
Table 4. The results from the bootstrapped models deviated little from the general trend
expressed above. In the main models, out of 29 South American genera, the extinction of 22
was related to human impact, 3 were considered entangled and 4 were not related to any
variable. In the corrected models, the extinction of 22 genera was also related to
anthropogenic factors, but only 2 were considered entangled and 5 were not related to any
variable. Individually, only 6 genera changed groups between these analyses, shifting from
entangled to human impacts in 3 cases, from human to entangled in 2 and from human to
unexplained in the remaining case.
23
Tab
le 4
- D
ates
fro
m S
outh
Am
eric
a co
rrec
ted
by b
oots
trap
ping
and
com
pari
sons
bet
wee
n co
rrec
ted
and
unco
rrec
ted
resu
lts.
RE
GIO
NG
EN
ER
AM
F14C
MF14
C
erro
rM
F14C
(2σ)
MF14
C
erro
r (2σ)
HS14
CH
S14C
(2σ)
p C
limat
ep
Hum
anC
ON
SEN
SUS
Cor
rect
ed
MF14
C (2σ)
Cor
rect
ed
p C
limat
eC
orre
cted
p
Hum
an
Cor
rect
ed
EX
TIN
CT
ION
C
AU
SES
A A
ndes
Cuv
iero
nius
1199
020
014
068
716
1278
015
289
0.04
70.
018
enta
ngle
d12
327
0.52
20.
026
hum
anS
A A
ndes
Equ
us10
950
3512
803
148
1278
015
289
0.44
70.
022
hum
an10
366
0.48
0.03
9hu
man
SA
And
esG
loss
othe
rium
1235
070
1447
444
712
780
1528
90.
012
0.00
6en
tang
led
1203
70.
477
0.02
9hu
man
SA
And
esH
aplo
mas
todo
n16
670
8019
851
313
1278
015
289
0.60
00.
053
hum
an17
414
0.59
10.
02hu
man
SA
And
esH
ippi
dion
2107
010
025
182
405
1278
015
289
0.52
90.
102
none
2344
10.
729
0.08
4no
neS
A A
ndes
Myl
odon
1350
065
1663
626
312
780
1528
90.
519
0.02
0hu
man
1419
90.
014
0.01
3en
tang
led
SA
And
esP
aleo
lam
a10
310
3012
179
197
1278
015
289
0.34
60.
021
hum
an97
420.
493
0.05
6hu
man
SA
And
esS
celi
doth
eriu
m89
1020
010
014
481
1278
015
289
0.48
60.
061
none
7577
0.84
90.
062
none
SA
Cen
tral
Doe
dicu
rus
7010
100
7837
174
1101
012
890
0.77
40.
045
hum
an67
430.
991
0.05
6hu
man
SA
Cen
tral
Equ
us10
290
130
1198
457
211
010
1289
00.
423
0.01
2hu
man
9547
0.56
60.
026
hum
anS
A C
entr
alG
loss
othe
rium
1050
090
1235
725
011
010
1289
00.
356
0.00
4hu
man
1061
60.
118
0.01
9hu
man
SA
Cen
tral
Hip
pidi
on89
9090
1006
930
311
010
1289
00.
488
0.02
4hu
man
7632
0.83
10.
042
hum
anS
A C
entr
alM
egat
heri
um77
5025
086
4460
511
010
1289
00.
840
0.03
8hu
man
6903
0.94
90.
054
hum
anS
A C
entr
alS
celi
doth
eriu
m75
5060
8324
125
1101
012
890
0.80
30.
041
hum
an58
870.
981
0.06
7no
neS
A C
entr
alT
oxod
on11
090
4012
946
172
1101
012
890
0.42
30.
002
hum
an11
205
0.07
60.
019
hum
anS
A N
orth
Cat
onyx
9960
4011
430
178
1244
014
621
0.19
60.
033
hum
an10
132
0.49
60.
048
hum
anS
A N
orth
Equ
us16
180
7019
198
271
1244
014
621
0.47
90.
051
hum
an17
900
0.67
80.
036
hum
anS
A N
orth
Ere
mot
heri
um11
340
5013
221
108
1244
014
621
0.40
80.
015
hum
an10
784
0.09
90.
039
hum
anS
A N
orth
Gly
ptod
on25
500
600
3020
210
1112
440
1462
10.
391
0.15
8no
ne28
461
0.46
10.
164
none
SA
Nor
thH
aplo
mas
todo
n15
290
7018
424
304
1244
014
621
0.65
90.
032
hum
an15
987
0.59
40.
021
hum
anS
A N
orth
Hol
mes
ina
4100
013
0044
624
1992
1244
014
621
0.39
10.
369
none
4288
30.
470.
368
none
SA
Nor
thN
othr
othe
rium
1220
012
014
317
545
1244
014
621
0.02
80.
001
enta
ngle
d11
880
0.39
10.
014
hum
anS
A N
orth
Sm
ilod
on91
3015
010
247
456
1244
014
621
0.17
50.
045
hum
an85
060.
873
0.05
9hu
man
SA
Nor
thS
tego
mas
todo
n12
980
8515
721
613
1244
014
621
0.55
50.
011
hum
an14
423
0.03
80.
002
enta
ngle
dS
A P
atag
onia
Arc
toth
eriu
m10
345
7512
179
346
1157
013
438
0.40
00.
017
hum
an97
420.
518
0.03
8hu
man
SA
Pat
agon
iaH
ippi
dion
1031
016
011
992
585
1157
013
438
0.40
20.
015
hum
an10
251
0.14
0.02
6hu
man
SA
Pat
agon
iaM
acra
uche
nia
1166
550
1352
816
611
570
1343
80.
209
0.00
3hu
man
1109
10.
068
0.02
1hu
man
SA
Pat
agon
iaM
ylod
on10
295
6512
107
283
1157
013
438
0.37
80.
023
hum
an96
700.
554
0.04
1hu
man
SA
Pat
agon
iaS
mil
odon
1126
545
1318
911
411
570
1343
80.
420
0.00
1hu
man
1144
80.
179
0.01
4hu
man
24
DISCUSSION
The Pleistocene-Holocene extinctions encompassed a wide variety of animals on
taxonomical, behavioral and bionomical grounds. However, when they are observed as a
single global phenomenon, clear patterns emerge. First and foremost, most extinctions (73%)
took place around the time of human arrival in each place, as it can be seen by the close
temporal gap between most MLADs and HFADs across the globe. A similar correlation of
extinction dates with times of intense climatic variance did not occur, as only 9.5% of the
MLADs followed periods of great 18O fluctuation, a figure only slightly above the value
expected by chance. The mixed model results reinforced this conclusion, demonstrating a
very strong effect of human arrival time-lapse over the extinction dates (t = -4.69, p < 0.001).
Climatic variation also showed a significant influence over the extinctions (t = 2.42, p < 0.02),
but only through the intensification of anthropogenic impacts (Appendix 2, Figure S1). So,
our results indicate that human impact was not a mere proximate cause to the Late Quaternary
extinctions, but the main factor that led to the demise of the megafauna, even if assisted by
climate on some regions.
An interesting trend is that, within this global scenario, strong regional patterns can be
observed when the Eurasian continent (with the exception of Bering) is viewed separately
from the rest of the world. In the sampling units that occur within West Siberia, Central
Russia, Japan and Europe, only 3 out of the 28 present genera can be considered extinct by
humans and 2 can be considered extinct by climatic instability (the only ones in the entire
analysis), leaving 23 sampling units unexplained. This is in sharp contrast with the patterns
for the rest of the world, where a total of 89 among the 98 genera left (90.8%) were extinct
around the time of human arrival, and 79 of those extinctions can be attributed uniquely to
anthropogenic causes. This suggests that a synergy with climatic changes is likely to have
25
been important in Eurasia, unlike the other continents, as suggested by several authors (e.g.
Nogués-Bravo et al. 2008, Lorenzen et al. 2011). It also highlights the limitations of single-
continent studies to make inferences about the causes of the planetary process of Pleistocene-
Holocene extinctions.
Observing the abovementioned patterns, it becomes clear that extinctions over the
Americas, Australia and every island included in this analysis (except for Japan) were driven
mainly by anthropogenic factors, most likely overhunting (Martin 1984). The fact that Africa
escaped the main extinction pattern reinforces this interpretation, because this is the only
continent where man was native rather than a late arrival. Thus the African megafauna
coevolved with man, gradually developing instincts to deal with human predation (Klein
1984), while such instincts are conspicuously absent in faunas which were first exposed to
man when he was already an accomplished hunter (Diamond 1984). In Eurasia, the pattern of
anthropogenic extinction was not clear-cut, but even there climatic variance did not seem to
be the fundamental cause. In the case of the Americas, many of the extinctions closely
followed the Younger Dryas stadial, but since human expansion overlapped temporally with
this event at this continent, such coincidence was expected. There is no reason to suppose that
glacial peaks would account for the megafauna’s demise as the Pleistocene accommodated
over 30 glacial events before the Last Glacial Maximum, all of them with few or no
associated extinctions (Cione et al. 2003, Barnosky 2004). On continental Eurasia, extinctions
were more spaced in time than in any other continent, encompassing genera with MLADs
from 10 thousand to over 40 thousand years before present. Therefore, most of these
extinctions also could not be explained by cold temperature peaks of the Last Glacial
Maximum or any stadials. In fact, given this temporally protracted extinction window on
Eurasia, it is possible that climate played a very different role on the extinctions.
26
The colonization of the Eurasian continent was the only moment in human dispersal
across the globe when paleolithic men – until then, a fully tropical species – was forced to
move against increasingly colder environments as it made its way toward high latitudes
(Oppenheimer 2009). While the spread of anatomically modern men was a process that took
only a few thousand years over most continents (from around 8 thousand years in Sahul to
less than 2 thousand years in the Americas), it was much longer over Eurasia. The HFADs
from Central Russia and Europe are over 45 thousand years old, about 30 thousand years
apart from Bering’s, the region of highest latitude in the continent, and almost 20 thousand
years apart from the first human dates across the arctic (Pitulko et al. 2004). This pattern
shows that traversing the Eurasian latitudinal range was a long process. It is very likely that
human numbers grew very slowly in Eurasia due to the same conditions that made its
colonization difficult, retarding the demographic impacts of men over megafauna genera. This
process would result in a greater temporal gap between FHADs and MLADs across Eurasian
regions, resulting in a false negative signal in the null models. This possibility could also be
investigated by correlating human arrival with extinctions in Eurasia on a finer spatial scale,
but additional data would likely be necessary. Thus, such analysis was not conducted in this
dissertation.
Other possible explanation for the slower pace of Eurasian extinctions, and the fact
that this continent lost a smaller proportion of its large fauna than Australia and the Americas,
is the coexistence of megafauna with hominids for several thousand years prior to the arrival
of modern men. Although the diaspora of modern humans to Eurasia was relatively recent,
early Homo – H. heidelbergensis and H. neanderthalensis – had been present in that continent
for hundreds of thousands of years (Stringer & Andrews 2005). So, as in Africa, it is possible
that coevolution granted these animals a greater resilience to the hunting pressure exerted by
Homo sapiens (Antonio Gilman, personal communication).
27
Other works have approached the Eurasian extinctions from different angles. One that
deserves attention for comparative purposes is Lorenzen’s et al. (2011) work on species-
specific responses of a few large mammals to climate and human presence. They conclude
that the extinctions of these species on Eurasia and North America were either caused by
climatic changes or a synergy between climate and anthropogenic effects. These conclusions,
however, are based on the construction of past species distribution models and the use of
ancient DNA, methods that are either based on many assumptions or plagued by
methodological uncertainties (Hofreiter et al. 2001, Barry & Elith 2006). Furthermore,
environmental hypotheses propose that climatic driven habitat changes were the direct cause
of the extinctions and, at least for North America, it has been demonstrated that such changes
occurred after the megafauna declined (Gill et al. 2009; see Rule et al. 2012 for similar results
in Australia). The advantage of the present work is that it presents strong patterns under only
two assumptions; that the dates incorporated in the models are accurate and that humans
hunted the megafauna species.
Some authors have questioned that second assumption in the past, arguing that a mere
coincidence of HFADs and MLADs is not enough to establish causality, and that there is a
lack of direct evidence of human hunting some megafauna species (Grayson & Meltzer 2003).
However, it has been demonstrated that this lack is another artifact caused by the short
coexistence of Homo sapiens and the large animal fauna in any specific locality. The length of
the evolutionary history of each megafaunal genus dwarfs the period when it coexisted with
humans in any given place, which explains the rarity of sites with direct evidences of man-
megafauna interactions (Barnosky 2004). Furthermore, the key to understanding these
extinctions lies not in the intensity of the hunting but in the vulnerability of the hunted. Large
animals, especially mammals, have very low fecundity, which makes them particularly
vulnerable even to moderate harvesting of their populations (Johnson 2002). Many
28
simulations have shown that paleolithic men were capable of exerting hunting pressures
strong enough to drive large mammal species to extinction in few thousands or even hundred
years (Alroy 2001, Diniz-Filho 2004, Johnson 2006), even when conservative estimates of
yield and human density were considered.
Even when the abovementioned results show a clear pattern of anthropogenic
extinctions over most of the globe, a final consideration about a methodological limitation of
the models generated in this work is in order. In the null model that tested human effects over
the extinct animals, the absolute chronological distances between HFADs and MLADs were
considered, regardless if the extinction occurred before or after man’s arrival. Of the 92
genera of megafauna extinct by anthropogenic causes or considered entangled, 14 show a
MLAD prior to human appearance, but in only 8 of these cases the HFAD is outside the
date’s standard error. These deviations are likely a result of fossil sampling biases (Signor &
Lipps 1982; see methods). Bootstrapping corrections would actually place the extinction of 2
out of the 5 deviated genera that occur in South America (Stegomastodon on Northern South
America and Mylodon on the Andean region) at a date that follows human arrival. The 3 other
deviated South American genera (Haplomastodon and Equus on Northern South America and
Haplomastodon on the Andean region) continue to precede human colonization, however.
The remaining 3 deviated genera elsewhere (Coelodonta on Bering, Euryapteryx on New
Zealand and Palorchestes on Tasmania) have MLADs very close to its respective regions’
HFADs (see Table 3), and would be likely corrected if bootstrapping could be exerted over
them. In any case, excluding these deviated dates from the results would do little to change
the overall patterns demonstrated across this dissertation, since the global approach shows
that these cases are but a noise within a much stronger signal.
When we place the extinction dates in chronological order (with the possible exception
of Eurasia, as mentioned before), we can see that they tell the story of human colonization of
29
each continent. The same happens with the islands that were never connected to any
continental mass during glacial periods (notably the Caribbean islands, Madagascar, New
Zealand and Wrangel), which had large animal faunas that survived until later because they
were protected by water barriers. This trend is often referred to as the Late Pleistocene
extinction wave, but when this view is broaden to encompass our modern biodiversity crisis,
the inaccuracy of this definition becomes clear. The demises of the megafauna on the last few
unexplored islands are well within historical period, and some actually post-date the first
written records of anthropogenic animal extinctions (Flannery & Shouten 2001). As history
goes, paleolithic men’s need for food led to the demise of demographically vulnerable
species. Now, after a few thousand years of technological advance, our much more efficient
exploitation of natural resources is destroying even more resilient taxa. That way, human-
induced extinctions on the late Quaternary form a single continuous wave, starting with men’s
departure from the African continent and persisting until this day.
Another consideration must be made about the ecological importance of so many
extinct megafaunal species. Large animals play a huge part on the characterization of the
habitats they live in, shaping the landscape around them and generating micro and
mesohabitats for smaller species (Janzen & Martin 1984, Dublin 1990, Zimov 2005, Doughty
et al. 2013). So, pinpointing specific ways in which today’s ecosystems are affected by the
loss of two thirds of its largest terrestrial vertebrates becomes a cumbersome task. Much of
the ecological communities’ structure, trophic relations and phytophysiognomies we see
today are the very consequence of the extirpation of so many megafaunal species that used to
roam the earth in a near past (Johnson 2009, Corlett 2013). Interestingly enough, this
perspective is not often taken into account. Ecological studies that refer to historically
defaunated and intact biotas commonly ignore the fact that most of today’s communities are
already impaired by the loss of the megafauna (Corlett 2013). Similarly, studies that
30
investigate extinction risk on threatened groups many times fail to consider species that are
already extinct, and thus can inform the most about the subject (Turvey & Fritz 2011). Our
baseline (basal state of reference) is skewed by the fact that scientific registries never actually
coexisted with truly pristine environments outside of Africa (Corlett 2013).
The results presented in this dissertation offer new quantitative support for a global
pattern that has been pointed out by many authors along the last decades (Martin 1967,
Johnson 2002, Lyons et al. 2004, Gillespie 2008); human beings were responsible for the
extinction of a great number of large animal genera through the late Pleistocene and the
Holocene. Such realization should prompt us to rescue the true baselines of our ecosystems
and communities, and to employ this knowledge in the assessment of our present day natural
world (Corlett 2013). After all, climatic changes and overhunting are still pressing
conservation problems, and understanding how these factors affected past extinctions holds
great value to our assessment of present and future extinctions, and, most importantly, on how
to avoid them.
31
REFERENCES
Andersen, K.K.; Azuma, N.; Barnola, J.-M.; Bigler, M.; Biscaye, P.; Caillon, N.;
Chappellaz, J.; Clausen, H.B.; Dahl-Jensen, D.; Fischer, H.; Flückiger, J.; Fritzsche, D.;
Fujii, Y.; Goto-Azuma, K.; Grønvold, K.; Gundestrup, N.S.; Hansson, M.; Huber, C.;
Hvidberg, C.S.; Johnsen, S.J.; Jonsell, U.; Jouzel, J.; Kipfstuhl, S.; Landais, A.;
Leuenberger, M.; Lorrain, R.; Masson-Delmotte, V.; Miller, H.; Motoyama, H.; Narita,
H.; Popp, T.; Rasmussen, S.O.; Raynaud, D.; Rothlisberger, R.; Ruth, U.; Samyn, D.;
Schwander, J.; Shoji, H.; Siggard-Andersen, M.-L.; Steffensen, J.P.; Stocker, T.;
Sveinbjörnsdóttir, A.E.; Svensson, A.; Takata, M.; Tison, J.-L.; Thorsteinsson, Th.;
Watanabe, O.; Wilhelms; F. & White, J.W.C. (2004) High-resolution record of Northern
Hemisphere climate extending into the last interglacial period. Nature 431: 147-151
Barnosky, A.D. & Lindsey, E.L. (2010) Timing of Quaternary megafaunal extinction in
South America in relation to human arrival and climate change. Quatern. Int. 217: 10-29
Barnosky, A.D. (2004) Assessing the causes of late Pleistocene extinction of late Pleistocene
extinctions on the continents. Science 306: 70-75
Barry, S. & Elith, J. (2006) Error and uncertainty in habitat models. Journal of Applied
Ecology 43: 413-423
Burney, D.A.; Burney, L.P.; Godfrey, L.R.; Jungers, W.L.; Goodman, S.M.; Wright,
H.T. & Jull, A.J.T. (2004) A chronology for late prehistoric Madagascar. Journal of Human
Evolution 47: 25-63
32
Cione, A.L.; Tonni, E.P. & Soibelzon, L. (2003) The broken zig-zag: late Cenozoic large
mammal and tortoise extinction in South America. Rev. Mus. Argentino Cienc. Nat., n.s. 5: 1-
19
Corlett, R.T. (2013) The shifted baseline: Prehistoric defaunation in the tropics and its
consequences for biodiversity conservation. Biological Conservation 163: 13-21
Crowley, B.E. (2010) A refined chronology of prehistoric Madagascar and the demise of the
megafauna. Quaternary Science Reviews 29: 2591-2603
Diamond, J.M. (1984) Historic extinction: a Rosetta stone for understanding prehistoric
extinctions. In Quaternary extinctions: a prehistoric revolution (ed. P. S. Martin & R. G.
Klein), pp. 824-862. University of Arizona Press, Tucson, Arizona, USA.
Diniz-Filho, J.A. (2004) Macroecological analyses support an overkill scenario for Late
Pleistocene extinctions. Braz. J. Biol. 64: 407-414
Doughty, C.E.; Wolf, A. & Malhi, Y. (2013) The legacy of Pleistocene megafauna
extinctions on nutrient availability in Amazonia. Nature Geoscience, Advance online
Publication.
Dublin, H.T., Sinclair, A.R.E. & McGlade, J. (1990) Elephants and fire as causes of
multiple stable states in the Serengeti–Mara woodlands. J. Anim. Ecol. 59: 1147–1164
33
FAUNMAP Working Group (1994) FAUNMAP: A database documenting late Quaternary
distributions of mammal species in the United States. Illinois State Museum Scientific Papers
25:1-690
Firestone, R.B.; West, A.; Kennett, J. P.; Becker, L.; Bunch, T.E.; Revay, Z.S.; Schultz,
P.H.; Belgya, T.; Kennett, D.J.; Erlandson, J.M.; Dickenson, O.J.; Goodyear, A.C.;
Harris, R.S.; Howard, G.A.; Kloosterman, J.B.; Lechler, P.; Mayewski, P.A.;
Montgomery, J.; Poreda, R.; Darrah, T.; Que Hee, S.S.; Smith, A.R.; Stich, A.; Topping,
W.; Wittkef, J.H. & Wolbach, W.S. (2007) Evidence for an extraterrestrial impact 12,900
years ago that contributed to the megafaunal extinctions and the Younger Dryas cooling.
PNAS 104: 16016–16021
Flannery, T. & Shouten, P. (2001) A gap in nature: Discovering the world’s extinct animals.
Atlantic monthly press, New York.
Forster M.A. (2004) Self-organised instability and megafaunal extinctions in Australia.Oikos
103: 235–239
Gill, J.L.; Williams, J.W.; Jackson, S.T.; Lininger, K.B. & Robinson, G.S. (2009)
Pleistocene megafaunal collapse, novel plant communities, and enhanced fire regimes in
North America. Science 326:1100-1103
Gillespie, R. (2008) Updating Martin’s global extinction model. Quaternary Sci. Rev. 27:
2522–2529
Gotelli, N.J., & Ellison, A.M. (2004) A Primer of Ecological Statistics. Sinauer, Sunderland.
34
Grayson, D. K. (1984) Nineteenth-century explanations of Pleistocene extinctions: A review
and analysis. In Quaternary extinctions: a prehistoric revolution (ed. P. S. Martin & R. G.
Klein), pp. 5-39. University of Arizona Press, Tucson, Arizona, USA.
Grayson, D.K. & Meltzer, D.J. (2003) A requiem for North American overkill. Journal of
Archaeological Science 30: 585-593
Grayson, D.K. (2008) Holocene underkill. PNAS 108: 4077-4078
Grün, R.; Wells, R.; Eggins, S.; Spooner, N.; Aubert, M.; Brown, L. & Rhodes, E. (2008)
Electron spin resonance dating of South Australian megafauna sites. Australian Journal of
Earth Sciences 55: 917 – 935
Hofreiter, M.; Serre, D.; Poinar, H.N.; Kuch, M. & Pääbo, S. (2001) Ancient DNA.
Nature Reviews Genetics 2: 353-359
Iwase, A.; Hashizume, J. Izuho, M.; Takahashi, K. & Sato, H. (2012) Timing of
megafaunal extinction in the Late Pleistocene on the Japanese Archipelago. Quaternary
International 255: 114-124
Janzen, D.H. & Martin, P.S. (1984) Neotropical anachronisms: The fruits the Gomphoteres
ate. Science 215: 19-27
35
Johnson, C. N. (2006) Australia’s mammal extinctions: a 50 000 year history. Cambridge
University Press, Cambridge, UK.
Johnson, C.N. (2002) Determinants of loss of mammal species during the Late Quaternary
‘megafauna’ extinctions: life history and ecology, but not body size. Proc. R. Soc. Lond. B
269: 2221-2227
Johnson, C.N. (2009) Ecological consequences of Late Quaternary extinctions of megafauna.
Proc. R. Soc. B 276: 2509-2519
Klein, R.G. (1984) Mammalian extinctions and stone age people in Africa. In Quaternary
extinctions: a prehistoric revolution (ed. P. S. Martin & R. G. Klein), pp. 553-573. University
of Arizona Press, Tucson, Arizona, USA.
Koch; P.L. & Barnosky, A.D. (2006) Late Quaternary extinctions: State of the debate. Annu.
Rev. Ecol. Evol. Syst. 2006. 37: 215–250
Lima-Ribeiro, M.S. & Diniz-Filho, J.A. (2013) Modelos Ecológicos e a Extinção da
Megafauna: Clima e Homem na América do Sul. Editora Cubo, São Carlos, SP.
Lima-Ribeiro, M.S.; Nogués-Bravo, D.; Marske, K.A.; Fernandez, F.A.S.; Araujo, B. &
Diniz-Filho, A.F. (2012) Human arrival scenarios have a strong influence on interpretations
of the Late Quaternary extinctions. PNAS 109: E2409-E2410
36
Lorenzen, E.D.; Nogués-Bravo, L.D.; Orlando, L.; Weinstock, J.; Binladen, J.; Marske,
K.A.; Ugan, A.; Borregaard, M.K.; Gilbert, M.T.P.; Nielsen, R.; Ho, S.Y.W.; Goebel, T.;
Graf, K.E.; Byers, D.; Stenderup, J.T.; Rasmussen, M.; Campos, P.F.; Leonard, J.A.;
Koepfli, K.-P.; Froese, D.; Zazula, G.; Stafford Jr.,T.W.; Aaris-Sørensen, K.; Batra, P.;
Haywood, A.M.; Singarayer, J.S.; Valdes, P.J.; Boeskorov, G.; Burns, J.A.; Davydov,
S.P.; Haile, J.; Jenkins, D.L.; Kosintsev, P.; Kuznetsova, T.; Lai, X.; Martin, L.D.;
McDonald, H.G.; Mol, D.; Meldgaard, M.; Munch, K.; Stephan, E.; Sablin, M.;
Sommer, R.S.; Sipko, T.; Scott, E.; Suchard, M.A.; Tikhonov, A.; Willerslev, R.; Wayne,
R.K.; Cooper, A.; Hofreiter, M.; Sher, A.; Shapiro, B.; Rahbek, C. & Willerslev, E.
(2011) Species-specific responses of late Quaternary megafauna to climate and humans.
Nature 479: 359-365
Lyons, S.K.; Smith, F.A. & Brown, J.H. (2004) Of mice, mastodons, and men: human
mediated extinctions on four continents. Evol. Ecol. Res. 6: 339–358
MacPhee, R.D.E. & Marx, P.A. (1997) The 40.000-year plague. Humans, hyperdisease, and
first-contact extinctions. In Natural change and human impact in Madagascar (ed. S.
Goodman & B. Patterson), pp. 169–217. Smithsonian Institution Press, Washington, DC.
Martin, P. S. (1984) Prehistoric overkill: the global model. In Quaternary extinctions: a
prehistoric revolution (ed. P. S. Martin & R. G. Klein), pp. 354-403. University of Arizona
Press, Tucson, Arizona, USA.
Martin, P.S. (1967) Prehistoric overkill. In Pleistocene extinctions: the search for a cause
(ed. P.S. Martin & H.E. Wright), pp.75-120. Yale University Press, New Haven, CT.
37
Mead, J.I. & Meltzer, D.J. (1984) North American Late Quaternary extinctions and the
radiocarbon record. In Quaternary extinctions: a prehistoric revolution (ed. P. S. Martin & R.
G. Klein), pp. 441-450. University of Arizona Press, Tucson, Arizona, USA.
Nogués-Bravo, D.; Rodríguez, J.; Hortal, J.; Batra, P. & Araújo, M.B. (2008) Climate
change, humans, and the extinction of the wolly mammoth. Plos Biology 6: e79
Oppenheimer, S. (2009) The great arc of dispersal of modern human: Africa to Australia.
Quaternary International 202: 2-13
Orlova, L.A.; Kuzmin, Y.V. & Dementiev, V.N. (2004) A review of the evidence for
extinction chronologies for five species of Upper Pleistocene megafauna in Siberia.
Radiocarbon 46: 301-314
Pitulko, V.V.; Nikolsky, P.A.; Girya, E.Yu.; Basilyan, A.E.; Tumskoy, V.E.; Koulakov,
S.A.; Astakhov, S.N.; Pavlova, E.Yu. & Anisimov, M.A. (2004) The Yana RHS Site:
Humans in the Arctic before the Last Glacial Maximum. Science 303: 52-56
Prescott, G.W.; Williams, D.R.; Balmford, A.; Green, R.E. & Manica, A. (2012)
Quantitative global analysis of the role of climate and people in explaining late Quaternary
megafaunal extinctions. PNAS 109: 4527-4531
38
Rawlence, N.J.; Metcalf, J.L.; Wood, J.R.; Worthy, T.H.; Austin, J.J. & Cooper, A.
(2012) The effect of climate and environmental change on the megafaunal moa of New
Zealand in the absence of humans. Quaternary Science Reviews 50: 141-153
Roberts, R.G.; Flannery, T.F.; Ayliffe, L.K.; Yoshida, H.; Olley, J.M.; Prideaux, G.J.;
Laslett, G.M.; Baynes, A.; Smith, M.A.; Jones, R. & Smith, B.L. (2001) New ages for the
last Australian megafauna: Continent-wide extinction about 46,000 years ago. Science 292:
1888–1892
Rule, S.; Brook, B.W.; Haberle, S.G.; Turney, C.S.M.; Kershaw, A.P. & Johnson C.N.
(2012) The aftermath of megafaunal extinction: Ecosystem transformation in Pleistocene
Australia. Science 335: 1483-1486
Signor, P.W. & Lipps, J.H. (1982) Sampling bias, gradual extinction patterns and
catastrophes in the fossil record. Geological Society of America 190: 291-296
Turvey, S.T. & Fritz, S.A. (2011) The ghost of mammals past: Biological and geographical
patterns of global mammalian extinction across the Holocene. Phil. Trans. R. Soc. B 366:
2564-2576
Walker, M. (2005) Quaternary Dating Methods. John Wiley & Sons Ltd., The Atrium,
Southern Gate, Chichester.
www.radiocarbon.org, consultado no dia 8 de novembro de 2010.
39
Zimov, S.A. (2005) Pleistocene park: Return of the mammoth’s ecosystem. Science 308: 796-
798
40
APPENDIX I
APPENDIX I
Supplementary Data
All dates gathered from literature that were ranked satisfactorily according to the
modified versions of the Mead-Meltzer scale (Tables 1 and 2, see Methods), along with
their results from calibration procedures, are compiled in the following tables (S1-S15).
Data is organized by landmass rather than geographical region (see Methods).
Human dates from the Caribbean, Madagascar and Wrangel were not tabled
because no reliable published anthropological dates were found in the consulted
literature. Thus, human arrival on each of these islands was set in accord to indirect
references (Steadman 2005 for the Caribbean, Burney 2004 for Madagascar and Guthrie
2004 for Wrangel). Human dates from Australia were also not tabled, because a broad
survey on the subject already existed in recent literature (Williams 2012), and its dates
were used as a database for anthropological dates on Australia.
a1
Tab
le S
1 - M
egaf
auna
l dat
es fr
om S
outh
Am
eric
a th
at r
anke
d 11
or
12 o
n th
e m
odifi
ed M
ead-
Mel
tzer
scal
e (s
ee M
etho
ds; T
able
1).
Gen
usSp
ecie
sL
atitu
deL
ongi
tude
14C
erro
r14
C (2σ)
erro
r (2σ)
Sour
ce r
efer
ence
Cat
onyx
cuvi
eri
-19.
58-4
3.90
9960
4011
430
178
Bar
nosk
y an
d L
inds
ey (
2010
)C
aton
yxcu
vier
i-1
9.58
-43.
9013
920
5016
990
199
Bar
nosk
y an
d L
inds
ey (
2010
)C
aton
yxcu
vier
i-1
9.58
-43.
9014
030
5017
131
290
Bar
nosk
y an
d L
inds
ey (
2010
)C
uvie
roni
ussp
.-4
1.50
-73.
4511
990
200
1406
871
6B
arno
sky
and
Lin
dsey
(20
10)
Cuv
iero
nius
sp.
-41.
50-7
3.45
1200
025
014
105
764
Bar
nosk
y an
d L
inds
ey (
2010
)D
oedi
curu
scl
avic
auda
tus
-37.
00-6
1.00
7010
100
7837
174
Bar
nosk
y an
d L
inds
ey (
2010
)D
oedi
curu
scl
avic
auda
tus
-37.
00-6
1.00
7460
8082
3318
0B
arno
sky
and
Lin
dsey
(20
10)
Doe
dicu
rus
clav
icau
datu
s-3
7.00
-61.
0075
1037
084
3581
4B
arno
sky
and
Lin
dsey
(20
10)
Doe
dicu
rus
clav
icau
datu
s-3
7.00
-61.
0072
9162
8127
157
Lim
a-R
ibei
ro (
2012
)E
quus
sp.
-31.
60-7
1.00
1095
035
1280
314
8L
ima-
Rib
eiro
(20
12)
Equ
usne
ogeu
s-3
8.18
-60.
5511
000
100
1288
322
4B
arno
sky
and
Lin
dsey
(20
10)
Equ
usne
ogeu
s-3
8.18
-60.
5511
320
110
1317
024
0B
arno
sky
and
Lin
dsey
(20
10)
Equ
usne
ogeu
s-3
8.18
-60.
5511
590
9013
473
208
Bar
nosk
y an
d L
inds
ey (
2010
)E
quus
neog
eus
-19.
58-4
3.90
1662
070
1977
330
1B
arno
sky
and
Lin
dsey
(20
10)
Ere
mot
heri
umla
uril
lard
i-3
.30
-56.
0011
340
5013
221
108
Bar
nosk
y an
d L
inds
ey (
2010
)G
loss
othe
rium
robu
stus
-38.
18-6
0.55
1224
011
014
349
529
Bar
nosk
y an
d L
inds
ey (
2010
)G
loss
othe
rium
weg
neri
0.50
-78.
0012
350
7014
474
447
Bar
nosk
y an
d L
inds
ey (
2010
)H
aplo
mas
todo
nw
arin
gi-3
.30
-56.
0015
290
7018
424
304
Bar
nosk
y an
d L
inds
ey (
2010
)H
aplo
mas
todo
nch
imbo
razi
0.70
-78.
0016
670
8019
851
313
Bar
nosk
y an
d L
inds
ey (
2010
)H
ippi
dion
sald
iasi
-51.
47-7
2.60
1071
010
012
637
217
Bar
nosk
y an
d L
inds
ey (
2010
)H
ippi
dion
sald
iasi
-51.
47-7
2.60
1086
016
012
779
344
Bar
nosk
y an
d L
inds
ey (
2010
)H
ippi
dion
sald
iasi
-51.
40-7
2.50
1031
016
011
992
585
Bar
nosk
y an
d L
inds
ey (
2010
)H
ippi
dion
sald
iasi
-51.
40-7
2.50
1078
060
1270
113
5B
arno
sky
and
Lin
dsey
(20
10)
Hip
pidi
onsa
ldia
si-4
7.90
-67.
9010
925
6512
839
217
Bar
nosk
y an
d L
inds
ey (
2010
)M
acra
uche
nia
sp.
-45.
20-7
1.50
1166
550
1352
816
6L
ima-
Rib
eiro
(20
12)
Meg
athe
rium
amer
ican
um-3
8.18
-60.
5511
770
120
1360
925
1B
arno
sky
and
Lin
dsey
(20
10)
Meg
athe
rium
amer
ican
um-3
8.18
-60.
5512
155
7014
002
209
Bar
nosk
y an
d L
inds
ey (
2010
)M
egat
heri
umam
eric
anum
-38.
18-6
0.55
1220
017
014
345
610
Bar
nosk
y an
d L
inds
ey (
2010
)M
egat
heri
umam
eric
anum
-38.
18-6
0.55
1207
357
1392
615
8L
ima-
Rib
eiro
(20
12)
Meg
athe
rium
amer
ican
um-3
7.05
-61.
1077
5025
086
4460
5B
arno
sky
and
Lin
dsey
(20
10)
Meg
athe
rium
amer
ican
um-3
7.05
-61.
1080
8020
089
7849
5B
arno
sky
and
Lin
dsey
(20
10)
Meg
athe
rium
amer
ican
um-3
8.08
-59.
0210
440
100
1231
128
3B
arno
sky
and
Lin
dsey
(20
10)
Myl
odon
sp.
-45.
20-7
1.50
1125
530
1318
395
Lim
a-R
ibei
ro (
2012
)M
ylod
onsp
.-4
5.20
-71.
5011
265
3513
187
96L
ima-
Rib
eiro
(20
12)
Myl
odon
sp.
-45.
20-7
1.50
1148
070
1332
615
4B
arno
sky
and
Lin
dsey
(20
10)
a2
Myl
odon
sp.
-45.
20-7
1.50
1251
030
1464
941
7L
ima-
Rib
eiro
(20
12)
Myl
odon
sp.
-51.
40-7
2.60
1282
511
015
435
693
Lim
a-R
ibei
ro (
2012
)M
ylod
onsp
.-3
1.60
-71.
0013
500
6516
636
263
Bar
nosk
y an
d L
inds
ey (
2010
)M
ylod
onsp
.-5
1.47
-72.
6012
720
300
1523
612
07B
arno
sky
and
Lin
dsey
(20
10)
Myl
odon
sp.
-51.
45-7
2.55
1363
050
1678
018
7L
ima-
Rib
eiro
(20
12)
Not
hrot
heri
umm
aqui
nens
e-1
1.00
-41.
0012
200
120
1431
754
5B
arno
sky
and
Lin
dsey
(20
10)
Pal
eola
ma
sp.
-31.
60-7
1.00
1031
030
1217
919
7L
ima-
Rib
eiro
(20
12)
Pan
ther
aon
cam
esem
brin
a-5
3.60
-68.
8011
085
7012
932
205
Lim
a-R
ibei
ro (
2012
)Sm
ilod
onpo
pula
tor
-19.
58-4
3.90
9260
150
1061
645
9L
ima-
Rib
eiro
(20
12)
Smil
odon
popu
lato
r-1
9.58
-43.
9091
3015
010
247
456
Bar
nosk
y an
d L
inds
ey (
2010
)Sm
ilod
onpo
pula
tor
-51.
45-7
2.55
1126
545
1318
911
4L
ima-
Rib
eiro
(20
12)
Smil
odon
popu
lato
r-5
1.45
-72.
5511
420
5013
281
125
Lim
a-R
ibei
ro (
2012
)T
oxod
onpl
aten
sis
-38.
18-6
0.55
1125
010
513
106
249
Bar
nosk
y an
d L
inds
ey (
2010
)T
oxod
onpl
aten
sis
-38.
18-6
0.55
1175
070
1359
618
1B
arno
sky
and
Lin
dsey
(20
10)
Tox
odon
plat
ensi
s-2
4.90
-48.
1011
090
4012
946
172
Bar
nosk
y an
d L
inds
ey (
2010
)T
oxod
onpl
aten
sis
-24.
90-4
8.10
1138
040
1324
811
1B
arno
sky
and
Lin
dsey
(20
10)
Glo
ssot
heri
umro
bust
us-3
8.18
-60.
5510
500
9012
357
250
Bar
nosk
y an
d L
inds
ey (
2010
)G
lypt
odon
cf.c
lavi
pes
10.5
0-7
2.15
2550
060
030
202
1011
Bar
nosk
y an
d L
inds
ey (
2010
)G
lypt
odon
cf.c
lavi
pes
10.5
0-7
2.15
2798
037
032
283
863
Bar
nosk
y an
d L
inds
ey (
2010
)H
ippi
dion
sald
iasi
-22.
36-6
8.92
2107
010
025
182
405
Bar
nosk
y an
d L
inds
ey (
2010
)H
ippi
dion
sald
iasi
-22.
36-6
8.92
2138
010
025
526
421
Bar
nosk
y an
d L
inds
ey (
2010
)H
olm
esin
aoc
cide
ntal
is10
.50
-72.
1541
000
1300
4462
419
92B
arno
sky
and
Lin
dsey
(20
10)
Hol
mes
ina
occi
dent
alis
10.5
0-7
2.15
4260
025
0046
447
3554
Bar
nosk
y an
d L
inds
ey (
2010
)A
rcto
ther
ium
sp.
-51.
60-7
1.50
1034
575
1217
934
6L
ima-
Rib
eiro
(20
12)
Equ
usne
ogeu
s-1
9.58
-43.
9016
250
6019
262
317
Bar
nosk
y an
d L
inds
ey (
2010
)E
quus
neog
eus
-19.
58-4
3.90
1618
070
1919
827
1B
arno
sky
and
Lin
dsey
(20
10)
Equ
usne
ogeu
s-3
8.20
-59.
0010
290
130
1198
457
2B
arno
sky
and
Lin
dsey
(20
10)
Glo
ssot
heri
umro
bust
us-2
8.20
-55.
5012
270
220
1441
967
9B
arno
sky
and
Lin
dsey
(20
10)
Glo
ssot
heri
umro
bust
us-2
8.20
-55.
5012
770
220
1526
610
76L
ima-
Rib
eiro
(20
12)
Hip
pidi
onsa
ldia
si-5
2.00
-69.
7011
210
5013
092
175
Lim
a-R
ibei
ro (
2012
)H
ippi
dion
sald
iasi
-52.
00-6
9.70
1199
090
1371
523
9L
ima-
Rib
eiro
(20
12)
Hip
pidi
onsp
.-5
3.60
-68.
8010
685
7012
590
159
Bar
nosk
y an
d L
inds
ey (
2010
)H
ippi
dion
sald
iasi
-53.
60-6
8.80
1254
070
1466
944
6L
ima-
Rib
eiro
(20
12)
Hip
pidi
onsp
.-3
4.75
-68.
4089
9090
1006
930
3B
arno
sky
and
Lin
dsey
(20
10)
Meg
athe
rium
amer
ican
um-3
8.00
-59.
0013
070
120
1582
866
9B
arno
sky
and
Lin
dsey
(20
10)
Myl
odon
sp.
-51.
40-7
2.60
1138
015
013
246
344
Lim
a-R
ibei
ro (
2012
)M
ylod
onsp
.-5
1.68
-70.
0310
295
6512
107
283
Lim
a-R
ibei
ro (
2012
)M
ylod
onsp
.-5
2.00
-69.
7012
165
8014
135
357
Lim
a-R
ibei
ro (
2012
)
a3
Myl
odon
darw
inii
-51.
45-7
2.55
1020
040
011
760
1076
Bar
nosk
y an
d L
inds
ey (
2010
)M
ylod
onda
rwin
ii-5
1.45
-72.
5510
400
330
1206
386
2B
arno
sky
and
Lin
dsey
(20
10)
Myl
odon
darw
inii
-51.
45-7
2.55
1057
540
012
230
997
Bar
nosk
y an
d L
inds
ey (
2010
)M
ylod
onda
rwin
ii-5
1.45
-72.
5510
832
400
1243
110
27B
arno
sky
and
Lin
dsey
(20
10)
Myl
odon
darw
inii
-51.
45-7
2.55
1088
030
012
683
698
Bar
nosk
y an
d L
inds
ey (
2010
)M
ylod
onda
rwin
ii-5
1.45
-72.
5511
775
480
1389
812
50B
arno
sky
and
Lin
dsey
(20
10)
Myl
odon
darw
inii
-51.
45-7
2.55
1181
029
913
961
875
Bar
nosk
y an
d L
inds
ey (
2010
)M
ylod
onda
rwin
ii-5
1.45
-72.
5511
905
335
1405
091
7B
arno
sky
and
Lin
dsey
(20
10)
Myl
odon
darw
inii
-51.
45-7
2.55
1202
046
014
247
1372
Bar
nosk
y an
d L
inds
ey (
2010
)M
ylod
onda
rwin
ii-5
1.45
-72.
5512
270
350
1447
811
19B
arno
sky
and
Lin
dsey
(20
10)
Myl
odon
darw
inii
-51.
45-7
2.55
1228
548
014
790
1519
Bar
nosk
y an
d L
inds
ey (
2010
)M
ylod
onda
rwin
ii-5
1.45
-72.
5512
308
288
1445
097
6B
arno
sky
and
Lin
dsey
(20
10)
Myl
odon
darw
inii
-51.
45-7
2.55
1244
015
014
568
544
Bar
nosk
y an
d L
inds
ey (
2010
)M
ylod
onda
rwin
ii-5
1.45
-72.
5512
496
148
1460
954
4B
arno
sky
and
Lin
dsey
(20
10)
Myl
odon
darw
inii
-51.
45-7
2.55
1255
212
814
661
521
Bar
nosk
y an
d L
inds
ey (
2010
)M
ylod
onda
rwin
ii-5
1.45
-72.
5512
570
160
1475
270
0B
arno
sky
and
Lin
dsey
(20
10)
Myl
odon
darw
inii
-51.
45-7
2.55
1287
010
015
551
621
Bar
nosk
y an
d L
inds
ey (
2010
)M
ylod
onda
rwin
ii-5
1.45
-72.
5512
984
7615
718
604
Bar
nosk
y an
d L
inds
ey (
2010
)M
ylod
onda
rwin
ii-5
1.45
-72.
5513
183
202
1595
577
9B
arno
sky
and
Lin
dsey
(20
10)
Myl
odon
darw
inii
-51.
45-7
2.55
1326
111
516
091
691
Bar
nosk
y an
d L
inds
ey (
2010
)M
ylod
onda
rwin
ii-5
1.45
-72.
5513
470
189
1624
972
6B
arno
sky
and
Lin
dsey
(20
10)
Myl
odon
darw
inii
-51.
45-7
2.55
1350
041
016
273
1253
Bar
nosk
y an
d L
inds
ey (
2010
)M
ylod
onda
rwin
ii-5
1.45
-72.
5513
500
470
1616
414
94B
arno
sky
and
Lin
dsey
(20
10)
Myl
odon
darw
inii
-51.
45-7
2.55
1356
019
016
350
726
Bar
nosk
y an
d L
inds
ey (
2010
)M
ylod
onsp
.-5
1.40
-72.
5011
590
100
1348
022
4L
ima-
Rib
eiro
(20
12)
Myl
odon
sp.
-51.
40-7
2.50
1105
060
1291
419
4L
ima-
Rib
eiro
(20
12)
Myl
odon
sp.
-51.
40-7
2.50
1340
090
1637
550
4L
ima-
Rib
eiro
(20
12)
Myl
odon
darw
inii
-51.
40-7
2.50
1299
049
015
452
1459
Bar
nosk
y an
d L
inds
ey (
2010
)Sc
elid
othe
rium
chil
ensi
s-7
.50
-79.
3089
1020
010
014
481
Bar
nosk
y an
d L
inds
ey (
2010
)Sc
elid
othe
rium
lept
ocep
halu
m-3
2.80
-64.
2075
5060
8324
125
Lim
a-R
ibei
ro (
2012
)St
egom
asto
don
war
ingi
11.4
0-7
3.00
1298
085
1572
161
3L
ima-
Rib
eiro
(20
12)
Steg
omas
todo
nw
arin
gi11
.40
-73.
0013
000
200
1580
283
4L
ima-
Rib
eiro
(20
12)
Steg
omas
todo
nw
arin
gi11
.40
-73.
0013
860
120
1703
633
8L
ima-
Rib
eiro
(20
12)
a4
Tab
le S
2 - M
egaf
auna
l dat
es fr
om C
arib
bean
that
ran
ked
11 o
r 12
on
the
mod
ified
Mea
d-M
eltz
er sc
ale
(see
Met
hods
; Tab
le 1
).
Gen
usSp
ecie
sL
atitu
deL
ongi
tude
14C
erro
r14
C (2σ)
erro
r (2σ)
Sour
ce r
efer
ence
Par
ocnu
sbr
owni
i22
.90
-82.
2549
6028
056
3666
3L
ima-
Rib
eiro
(20
12)
Meg
aloc
nus
rode
ns22
.89
-82.
3041
9040
4713
130
Lim
a-R
ibei
ro (
2012
)N
eocn
usco
mes
18.5
0-7
2.10
4391
4250
5720
5L
ima-
Rib
eiro
(20
12)
Neo
cnus
com
es18
.10
-74.
0044
8639
5138
160
Lim
a-R
ibei
ro (
2012
)N
eocn
usdo
usm
an19
.00
-70.
5071
4135
7946
71L
ima-
Rib
eiro
(20
12)
Par
ocnu
sbr
owni
i22
.89
-82.
2010
520
440
1209
611
96L
ima-
Rib
eiro
(20
12)
Par
ocnu
sbr
owni
i22
.89
-82.
2011
880
420
1401
311
27L
ima-
Rib
eiro
(20
12)
Neo
cnus
com
es18
.10
-72.
1061
6145
7081
150
Lim
a-R
ibei
ro (
2012
)N
eocn
usco
mes
18.1
0-7
4.00
6875
4777
1910
5L
ima-
Rib
eiro
(20
12)
Neo
cnus
com
es18
.10
-74.
0074
1151
8212
155
Lim
a-R
ibei
ro (
2012
)N
eocn
usco
mes
18.1
0-7
4.00
8326
5793
0416
7L
ima-
Rib
eiro
(20
12)
Neo
cnus
dous
man
18.1
0-7
2.10
9897
6511
404
203
Lim
a-R
ibei
ro (
2012
)P
aroc
nus
brow
nii
22.8
5-8
2.20
6250
5071
3913
2L
ima-
Rib
eiro
(20
12)
a5
Tab
le S
3 - M
egaf
auna
l dat
es fr
om N
orth
Am
eric
a th
at r
anke
d 11
or
12 o
n th
e m
odifi
ed M
ead-
Mel
tzer
scal
e (s
ee M
etho
ds; T
able
1).
Gen
usSp
ecie
sL
atitu
deL
ongi
tude
14C
erro
r14
C (2σ)
erro
r (2σ)
Sour
ce r
efer
ence
Arc
todu
ssi
mus
39.5
0-1
11.3
010
870
7512
764
171
Lim
a-R
ibei
ro (
2012
)A
rcto
dus
sim
us40
.90
-83.
2011
480
6013
331
135
Lim
a-R
ibei
ro (
2012
)A
rcto
dus
sim
us40
.90
-83.
2011
570
7013
444
175
Lim
a-R
ibei
ro (
2012
)A
rcto
dus
sim
us40
.90
-83.
2011
570
5013
432
149
Lim
a-R
ibei
ro (
2012
)A
rcto
dus
sim
us40
.90
-83.
2011
610
9013
488
209
Lim
a-R
ibei
ro (
2012
)A
rcto
dus
sim
us39
.10
-94.
9010
921
5012
790
155
Lim
a-R
ibei
ro (
2012
)A
rcto
dus
sim
us39
.10
-94.
9011
688
5013
550
164
Lim
a-R
ibei
ro (
2012
)A
rcto
dus
sim
us41
.00
-114
.10
1265
070
1486
459
9L
ima-
Rib
eiro
(20
12)
Arc
todu
ssi
mus
39.5
0-1
11.3
010
976
4012
865
199
Lim
a-R
ibei
ro (
2012
)A
rcto
dus
sim
us40
.60
-112
.00
1265
070
1486
459
9L
ima-
Rib
eiro
(20
12)
Arc
todu
ssi
mus
41.3
0-8
6.20
1150
052
013
594
1441
Lim
a-R
ibei
ro (
2012
)A
rcto
dus
sim
us40
.90
-83.
2011
566
4013
418
137
Lim
a-R
ibei
ro (
2012
)B
ison
anti
quus
38.9
0-1
01.1
010
520
7012
379
235
Lim
a-R
ibei
ro (
2012
)B
ison
anti
quus
38.6
0-9
2.20
1177
040
1360
615
8L
ima-
Rib
eiro
(20
12)
Bis
onoc
cide
ntal
is56
.10
-120
.10
1034
015
012
050
547
Lim
a-R
ibei
ro (
2012
)B
ison
occi
dent
alis
56.1
0-1
20.1
010
580
210
1234
459
2L
ima-
Rib
eiro
(20
12)
Bis
onoc
cide
ntal
is56
.10
-120
.10
1060
016
012
426
417
Lim
a-R
ibei
ro (
2012
)B
ison
anti
quus
34.1
0-1
01.6
091
1090
1025
230
6L
ima-
Rib
eiro
(20
12)
Bis
onan
tiqu
us42
.70
-106
.20
1014
017
011
816
570
Lim
a-R
ibei
ro (
2012
)B
ison
occi
dent
alis
51.2
0-1
14.5
011
100
160
1296
830
8L
ima-
Rib
eiro
(20
12)
Bis
onoc
cide
ntal
is51
.20
-114
.50
1137
017
013
237
392
Lim
a-R
ibei
ro (
2012
)B
ison
occi
dent
alis
56.1
0-1
20.1
010
230
140
1193
658
1L
ima-
Rib
eiro
(20
12)
Bis
onoc
cide
ntal
is56
.10
-120
.10
1075
018
012
617
471
Lim
a-R
ibei
ro (
2012
)B
ison
preo
ccid
enta
lis
65.1
0-1
47.3
011
735
130
1357
926
1L
ima-
Rib
eiro
(20
12)
Bis
onpr
iscu
s65
.10
-147
.20
1198
013
513
805
337
Lim
a-R
ibei
ro (
2012
)B
ison
anti
quus
51.0
0-1
14.0
011
300
290
1318
455
3L
ima-
Rib
eiro
(20
12)
Bis
onoc
cide
ntal
is51
.30
-114
.50
1076
016
012
655
436
Lim
a-R
ibei
ro (
2012
)B
ison
occi
dent
alis
39.5
0-1
05.1
089
5035
010
185
921
Lim
a-R
ibei
ro (
2012
)B
ison
cras
sico
rnis
64.1
0-1
41.9
010
370
160
1206
255
4L
ima-
Rib
eiro
(20
12)
Bis
onoc
cide
ntal
is51
.70
-113
.10
9630
300
1110
388
8L
ima-
Rib
eiro
(20
12)
Bis
onoc
cide
ntal
is51
.70
-113
.10
9670
160
1105
853
9L
ima-
Rib
eiro
(20
12)
Bis
onoc
cide
ntal
is40
.10
-99.
4011
020
635
1270
918
29L
ima-
Rib
eiro
(20
12)
Bis
onoc
cide
ntal
is40
.10
-99.
4011
363
865
1346
326
69L
ima-
Rib
eiro
(20
12)
Bis
oncr
assi
corn
is67
.80
-139
.80
1191
018
013
758
419
Lim
a-R
ibei
ro (
2012
)B
ison
cras
sico
rnis
67.8
0-1
39.8
012
275
180
1440
961
1L
ima-
Rib
eiro
(20
12)
Bis
oncr
assi
corn
is67
.80
-139
.80
1246
022
014
634
807
Lim
a-R
ibei
ro (
2012
)
a6
Bis
oncr
assi
corn
is67
.80
-139
.80
1261
070
1472
748
4L
ima-
Rib
eiro
(20
12)
Bis
onan
tiqu
us34
.10
-118
.40
1227
577
514
773
2042
Lim
a-R
ibei
ro (
2012
)B
ison
anti
quus
40.6
0-1
11.9
011
930
210
1390
861
1L
ima-
Rib
eiro
(20
12)
Bis
onal
leni
36.8
0-9
9.70
9160
160
1027
048
7L
ima-
Rib
eiro
(20
12)
Bis
onpr
eocc
iden
tali
s65
.10
-147
.30
1246
032
014
864
1192
Lim
a-R
ibei
ro (
2012
)B
ison
anti
quus
30.3
0-8
3.90
9990
200
1159
578
5L
ima-
Rib
eiro
(20
12)
Bis
onan
tiqu
us30
.30
-83.
9011
170
130
1301
028
6L
ima-
Rib
eiro
(20
12)
Bis
onan
tiqu
us49
.90
-113
.90
1113
090
1298
324
4L
ima-
Rib
eiro
(20
12)
Boo
ther
ium
bom
bifr
ons
49.9
0-1
13.9
010
980
8012
876
210
Lim
a-R
ibei
ro (
2012
)B
ooth
eriu
mbo
mbi
fron
s40
.60
-112
.00
1169
019
013
554
369
Lim
a-R
ibei
ro (
2012
)C
amel
ops
sp.
42.7
0-1
06.2
011
190
5013
073
180
Lim
a-R
ibei
ro (
2012
)C
amel
ops
sp.
41.0
0-1
09.4
011
180
4513
061
175
Lim
a-R
ibei
ro (
2012
)C
amel
ops
hest
ernu
s39
.40
-114
.50
1139
060
1325
812
9L
ima-
Rib
eiro
(20
12)
Cam
elop
ssp
.43
.30
-120
.40
9955
165
1148
060
9L
ima-
Rib
eiro
(20
12)
Cam
elop
she
ster
nus
38.9
0-1
12.4
011
075
255
1294
550
7L
ima-
Rib
eiro
(20
12)
Cas
toro
ides
ohio
ensi
s41
.30
-74.
3011
670
7013
536
189
Lim
a-R
ibei
ro (
2012
)C
asto
roid
esoh
ioen
sis
40.9
0-8
3.20
1085
060
1274
815
0L
ima-
Rib
eiro
(20
12)
Cas
toro
ides
ohio
ensi
s44
.90
-93.
1010
320
250
1194
867
6L
ima-
Rib
eiro
(20
12)
Cer
valc
essc
otti
41.4
0-8
5.30
1142
070
1328
014
3L
ima-
Rib
eiro
(20
12)
Cer
valc
essc
otti
41.4
0-8
5.30
1162
070
1348
518
6L
ima-
Rib
eiro
(20
12)
Cer
valc
essc
otti
41.5
0-8
9.70
1140
550
1326
912
3L
ima-
Rib
eiro
(20
12)
Cer
valc
essc
otti
41.3
0-7
4.10
1218
060
1401
921
6L
ima-
Rib
eiro
(20
12)
Cer
valc
essc
otti
41.3
0-7
4.50
1103
015
012
916
289
Lim
a-R
ibei
ro (
2012
)C
erva
lces
scot
ti40
.20
-82.
3011
500
130
1338
927
0L
ima-
Rib
eiro
(20
12)
Cer
valc
essc
otii
40.9
0-8
3.20
1259
045
015
148
1460
Lim
a-R
ibei
ro (
2012
)C
erva
lces
scot
ii40
.90
-83.
2012
840
100
1551
462
5L
ima-
Rib
eiro
(20
12)
Cer
valc
essc
otti
40.9
0-8
3.20
1252
017
014
616
616
Lim
a-R
ibei
ro (
2012
)E
quus
sp.
40.4
0-1
19.5
012
280
520
1481
715
95L
ima-
Rib
eiro
(20
12)
Equ
ussp
.30
.10
-99.
5011
410
6013
273
133
Lim
a-R
ibei
ro (
2012
)E
quus
sp.
49.2
0-1
12.1
011
180
150
1301
331
1L
ima-
Rib
eiro
(20
12)
Equ
ussp
.29
.90
-91.
8097
0055
011
142
1463
Lim
a-R
ibei
ro (
2012
)E
quus
sp.
67.1
0-1
40.8
012
290
440
1472
114
31L
ima-
Rib
eiro
(20
12)
Equ
usla
mbe
i67
.10
-140
.80
1290
010
015
613
628
Lim
a-R
ibei
ro (
2012
)E
quus
sp.
32.4
0-1
04.5
010
730
150
1260
345
3L
ima-
Rib
eiro
(20
12)
Equ
ussp
.30
.30
-99.
9093
1031
010
456
857
Lim
a-R
ibei
ro (
2012
)E
quus
fe
rus
64.8
0-1
48.0
012
510
130
1463
251
3L
ima-
Rib
eiro
(20
12)
Equ
us
feru
s64
.80
-148
.00
1258
014
014
755
661
Lim
a-R
ibei
ro (
2012
)E
quus
sp
.40
.40
-119
.50
1121
050
1309
217
5L
ima-
Rib
eiro
(20
12)
Equ
us
sp.
40.4
0-1
19.5
011
350
4013
225
102
Lim
a-R
ibei
ro (
2012
)E
quus
fe
rus
64.9
0-1
47.6
012
560
140
1466
055
7L
ima-
Rib
eiro
(20
12)
a7
Equ
us
sp.
42.9
0-1
20.7
011
130
4012
984
175
Lim
a-R
ibei
ro (
2012
)E
quus
co
nver
side
ns50
.00
-110
.50
1087
045
1275
714
2L
ima-
Rib
eiro
(20
12)
Equ
us
sp.
41.0
0-1
09.4
011
530
5013
379
126
Lim
a-R
ibei
ro (
2012
)E
quus
fe
rus
65.1
0-1
47.3
012
482
8014
613
451
Lim
a-R
ibei
ro (
2012
)E
quus
co
nver
side
ns49
.90
-113
.90
1133
070
1322
613
3L
ima-
Rib
eiro
(20
12)
Equ
us
sp.
50.1
0-1
10.7
011
280
200
1311
944
2L
ima-
Rib
eiro
(20
12)
Equ
us
sp.
34.1
0-1
18.4
010
940
510
1254
512
62L
ima-
Rib
eiro
(20
12)
Euc
erat
heri
umsp
.40
.20
-119
.50
1195
050
1381
315
0L
ima-
Rib
eiro
(20
12)
Euc
erat
heri
umco
llin
um37
.30
-110
.80
1163
015
013
507
293
Lim
a-R
ibei
ro (
2012
)G
loss
othe
rium
harl
ani
45.3
0-1
18.1
011
030
800
1283
722
62L
ima-
Rib
eiro
(20
12)
Mam
mut
amer
ican
um40
.00
-82.
5011
390
8013
261
148
Lim
a-R
ibei
ro (
2012
)M
amm
utam
eric
anum
43.0
0-8
9.00
1078
060
1270
113
5L
ima-
Rib
eiro
(20
12)
Mam
mut
amer
ican
um43
.00
-89.
0010
910
6012
784
167
Lim
a-R
ibei
ro (
2012
)M
amm
utam
eric
anum
43.0
0-8
9.00
1114
060
1298
720
4L
ima-
Rib
eiro
(20
12)
Mam
mut
sp.
42.9
0-7
6.90
1084
060
1274
214
8L
ima-
Rib
eiro
(20
12)
Mam
mut
sp.
42.9
0-7
6.90
1163
080
1349
919
9L
ima-
Rib
eiro
(20
12)
Mam
mut
amer
ican
um42
.80
-85.
6010
920
190
1283
739
9L
ima-
Rib
eiro
(20
12)
Mam
mut
amer
ican
um42
.10
-85.
0011
770
110
1361
123
4L
ima-
Rib
eiro
(20
12)
Mam
mut
amer
ican
um43
.00
-78.
2010
630
8012
556
165
Lim
a-R
ibei
ro (
2012
)M
amm
utam
eric
anum
43.0
0-7
8.20
1079
070
1271
614
7L
ima-
Rib
eiro
(20
12)
Mam
mut
amer
ican
um43
.00
-78.
2011
070
7012
922
203
Lim
a-R
ibei
ro (
2012
)M
amm
utam
eric
anum
43.0
0-7
8.20
1110
080
1294
522
3L
ima-
Rib
eiro
(20
12)
Mam
mut
amer
ican
um43
.00
-78.
2011
390
8013
261
148
Lim
a-R
ibei
ro (
2012
)M
amm
utam
eric
anum
43.0
0-7
8.20
1070
580
1261
218
4L
ima-
Rib
eiro
(20
12)
Mam
mut
amer
ican
um43
.00
-78.
2010
810
5012
719
137
Lim
a-R
ibei
ro (
2012
)M
amm
utam
eric
anum
43.0
0-7
8.20
1099
010
012
879
223
Lim
a-R
ibei
ro (
2012
)M
amm
utam
eric
anum
40.2
0-8
2.30
1139
080
1326
114
8L
ima-
Rib
eiro
(20
12)
Mam
mut
amer
ican
um41
.00
-86.
0098
6340
1127
773
Lim
a-R
ibei
ro (
2012
)M
amm
utam
eric
anum
41.0
0-8
6.00
1003
240
1154
121
0L
ima-
Rib
eiro
(20
12)
Mam
mut
amer
ican
um41
.00
-86.
0010
055
4011
575
229
Lim
a-R
ibei
ro (
2012
)M
amm
utam
eric
anum
41.4
0-7
4.00
1100
080
1288
520
9L
ima-
Rib
eiro
(20
12)
Mam
mut
amer
ican
um41
.50
-74.
1010
080
160
1179
158
3L
ima-
Rib
eiro
(20
12)
Mam
mut
sp.
30.1
0-8
4.00
1052
013
012
350
322
Lim
a-R
ibei
ro (
2012
)M
amm
utam
eric
anum
40.0
0-8
2.50
1086
070
1275
616
0L
ima-
Rib
eiro
(20
12)
Mam
mut
amer
ican
um42
.60
-82.
2089
1015
099
5941
2L
ima-
Rib
eiro
(20
12)
Mam
mut
amer
ican
um42
.80
-85.
6011
320
140
1315
530
9L
ima-
Rib
eiro
(20
12)
Mam
mut
sp.
40.8
0-8
0.90
1088
050
1276
414
6L
ima-
Rib
eiro
(20
12)
Mam
mut
sp.
40.8
0-8
0.90
1095
040
1280
615
8L
ima-
Rib
eiro
(20
12)
Mam
mut
amer
ican
um43
.00
-78.
2010
850
140
1282
226
9L
ima-
Rib
eiro
(20
12)
Mam
mut
amer
ican
um39
.20
-78.
1011
550
165
1344
032
1L
ima-
Rib
eiro
(20
12)
a8
Mam
mut
amer
ican
um39
.50
-111
.30
1080
025
012
643
597
Lim
a-R
ibei
ro (
2012
)M
amm
utam
eric
anum
42.0
0-7
3.50
1148
060
1333
113
5L
ima-
Rib
eiro
(20
12)
Mam
mut
amer
ican
um42
.10
-73.
3011
520
655
1352
620
18L
ima-
Rib
eiro
(20
12)
Mam
mut
amer
ican
um41
.10
-86.
5010
115
205
1185
766
0L
ima-
Rib
eiro
(20
12)
Mam
mut
amer
ican
um41
.10
-86.
5010
325
160
1199
959
0L
ima-
Rib
eiro
(20
12)
Mam
mut
amer
ican
um41
.10
-86.
5011
185
270
1309
050
9L
ima-
Rib
eiro
(20
12)
Mam
mut
amer
ican
um41
.00
-85.
8011
160
9013
016
244
Lim
a-R
ibei
ro (
2012
)M
amm
utam
eric
anum
40.2
0-8
2.30
1086
070
1275
616
0L
ima-
Rib
eiro
(20
12)
Mam
mut
amer
ican
um41
.50
-88.
6010
995
110
1288
123
4L
ima-
Rib
eiro
(20
12)
Mam
mut
amer
ican
um41
.50
-74.
5010
970
4012
861
200
Lim
a-R
ibei
ro (
2012
)M
amm
utam
eric
anum
42.0
0-8
5.90
1122
031
013
153
594
Lim
a-R
ibei
ro (
2012
)M
amm
utam
eric
anum
43.4
0-8
4.80
9990
350
1157
999
2L
ima-
Rib
eiro
(20
12)
Mam
mut
amer
ican
um42
.60
-82.
0011
380
170
1325
239
0L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
colu
mbi
19.3
0-9
9.00
1110
080
1294
522
3L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
37.3
0-1
10.8
011
870
140
1370
830
3L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
37.3
0-1
10.8
012
090
210
1417
371
0L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
51.0
0-1
10.1
010
930
100
1285
222
6L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
67.1
0-1
40.8
012
845
250
1536
611
30L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
39.1
0-9
4.90
1236
011
014
498
503
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.39
.10
-94.
9012
640
6014
839
571
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.42
.20
-71.
1010
930
315
1271
872
5L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
64.3
0-1
46.1
011
540
140
1342
928
7L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
68.9
0-1
66.2
011
910
130
1373
429
7L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
65.5
0-1
68.0
012
440
130
1456
751
5L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
65.1
0-1
47.3
012
337
108
1447
050
6L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
65.1
0-1
47.3
012
476
8114
607
451
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
sco
lum
bi43
.95
-108
.00
1079
030
1268
410
8L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
colu
mbi
43.9
5-1
08.0
010
950
3012
802
142
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.64
.00
-139
.00
1186
012
013
691
269
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.64
.00
-145
.80
1154
014
013
429
287
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.40
.00
-104
.90
1059
050
012
113
1315
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
sco
lum
bi40
.00
-104
.90
1094
060
1285
021
1L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
colu
mbi
40.0
0-1
04.9
010
940
3012
796
138
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.40
.00
-104
.90
1095
048
012
588
1194
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
sco
lum
bi40
.00
-104
.90
1096
070
1286
420
7L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
colu
mbi
40.0
0-1
04.9
011
065
3512
930
173
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.35
.30
-98.
0010
690
640
1221
016
20L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
35.3
0-9
8.00
1082
027
012
644
640
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.35
.30
-98.
0011
010
710
1279
520
38L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
35.3
0-9
8.00
1148
045
013
627
1209
Lim
a-R
ibei
ro (
2012
)
a9
Mam
mut
hus
colu
mbi
35.3
0-9
8.00
1081
042
012
404
1057
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
sco
lum
bi35
.30
-98.
0010
860
450
1248
711
33L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
colu
mbi
35.3
0-9
8.00
1096
030
1280
814
9L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
colu
mbi
35.3
0-9
8.00
1148
045
013
627
1209
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.65
.00
-147
.60
1242
917
814
549
597
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.70
.80
-155
.80
1250
814
514
621
540
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.42
.90
-76.
9010
890
5012
771
147
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.64
.80
-156
.90
1150
016
013
417
325
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.65
.00
-147
.60
1212
388
1398
423
7L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
65.0
0-1
47.6
012
576
147
1475
367
4L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
42.5
0-8
8.00
1248
060
1461
043
3L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
42.5
0-8
8.00
1252
050
1465
643
0L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
prim
igen
ius
43.0
0-7
8.20
1081
050
1271
913
7L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
colu
mbi
39.5
0-1
11.3
011
220
110
1305
626
5L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
69.9
0-1
54.8
012
190
130
1431
355
6L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
69.9
0-1
54.8
012
490
170
1459
959
2L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
colu
mbi
43.4
0-1
02.5
010
710
130
1255
337
9L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
colu
mbi
43.4
0-1
02.5
011
110
4012
962
170
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
sco
lum
bi46
.50
-106
.00
1217
540
1402
115
7L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
colu
mbi
46.5
0-1
06.0
012
330
5014
455
437
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.42
.50
-81.
7012
130
8013
985
212
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
sex
ilis
34.0
0-1
20.0
011
030
5012
904
189
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
sex
ilis
34.0
0-1
20.0
012
840
410
1537
813
55L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
exil
is34
.00
-120
.00
1284
041
015
378
1355
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.42
.60
-88.
0012
310
6014
434
455
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.64
.30
-146
.00
1206
070
1392
417
3L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
66.0
0-1
40.0
011
990
130
1381
333
1L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
39.0
0-1
09.5
012
800
370
1533
913
08L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
36.5
0-9
9.10
1199
017
013
947
546
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.37
.30
-110
.80
1167
030
013
498
732
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.37
.30
-110
.80
1185
016
013
694
336
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.37
.30
-110
.80
1262
022
014
954
965
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.37
.30
-110
.80
1290
016
015
681
808
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.37
.30
-110
.80
1232
016
014
446
580
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.37
.30
-110
.80
1239
012
014
527
509
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.37
.30
-110
.80
1239
014
014
527
538
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.37
.30
-110
.80
1240
025
014
602
860
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.37
.30
-110
.80
1243
015
014
561
545
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.37
.30
-110
.80
1243
030
014
767
1099
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.37
.30
-110
.80
1247
014
014
591
528
Lim
a-R
ibei
ro (
2012
)
a10
Mam
mut
hus
sp.
37.3
0-1
10.8
012
570
100
1468
448
3L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
37.3
0-1
10.8
012
570
130
1467
153
8L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
37.3
0-1
10.8
012
610
140
1480
567
3L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
37.3
0-1
10.8
012
620
130
1481
165
9L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
37.3
0-1
10.8
012
880
140
1565
375
6L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
37.3
0-1
10.8
013
040
280
1573
510
60L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
37.3
0-1
10.8
013
505
580
1603
817
97L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
43.9
5-1
08.0
010
864
141
1282
626
5L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
43.9
5-1
08.0
011
200
220
1304
441
0L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
63.6
0-1
56.0
012
980
250
1567
410
32L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
38.3
0-1
10.2
011
020
180
1292
532
2L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
38.3
0-1
10.2
011
810
140
1365
529
3L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
38.3
0-1
10.2
012
070
210
1415
671
4L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
38.3
0-1
10.2
012
320
160
1444
658
0L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
40.0
0-1
04.9
011
200
500
1281
514
01L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
50.0
0-1
14.1
011
170
6013
052
202
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.35
.30
-98.
0011
200
500
1281
514
01L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
35.3
0-9
8.00
1122
050
012
983
1477
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.41
.90
-88.
0013
130
350
1573
211
70L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
39.6
0-1
02.3
011
710
150
1356
628
9L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
44.5
0-6
3.60
1227
060
1438
247
1L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
colu
mbi
29.9
0-8
2.00
9840
190
1134
463
5L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
39.5
0-1
11.3
010
800
250
1264
359
7L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
51.8
0-1
14.6
010
240
325
1177
695
6L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
colu
mbi
39.4
0-1
05.0
010
200
350
1173
896
0L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
50.8
0-1
08.1
012
000
200
1408
671
7L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
39.5
0-1
05.1
011
735
9513
587
211
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.39
.50
-105
.10
1314
010
0015
825
2642
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.43
.40
-102
.50
1073
053
012
409
1317
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.40
.60
-100
.60
1209
095
1396
023
0L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
jeff
erso
nii
43.0
0-8
4.00
1148
040
013
526
979
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
sim
pera
tor
46.5
0-1
06.0
011
500
8013
368
195
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.42
.20
-80.
2012
210
120
1432
554
3L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
67.8
0-1
39.8
013
820
840
1637
322
35L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
43.0
0-1
16.5
010
920
150
1284
727
0L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
43.0
0-1
16.5
012
250
200
1439
964
7L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
56.0
0-1
20.0
011
600
1000
1393
728
34L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
41.8
0-8
6.50
8260
300
9268
845
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.38
.90
-109
.30
1035
011
012
165
394
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
spr
imig
eniu
s43
.50
-81.
0010
790
150
1274
933
5L
ima-
Rib
eiro
(20
12)
a11
Mam
mut
hus
sp.
40.5
0-1
11.9
088
1510
098
6930
7L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
exil
is34
.00
-120
.00
1180
080
014
239
2397
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.52
.20
-106
.60
1200
032
014
151
882
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.39
.50
-119
.90
1044
049
012
007
1243
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
sje
ffer
soni
i43
.60
-83.
0096
8050
011
168
1390
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.65
.80
-163
.20
1136
010
013
213
232
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
ssp
.44
.20
-84.
1011
280
7013
145
185
Lim
a-R
ibei
ro (
2012
)M
amm
uthu
sim
pera
tor
51.3
0-1
07.7
010
600
140
1241
235
0L
ima-
Rib
eiro
(20
12)
Mam
mut
hus
sp.
37.5
0-1
11.9
012
010
160
1395
853
3L
ima-
Rib
eiro
(20
12)
Meg
alon
yx je
ffer
soni
i41
.50
-89.
7011
430
6013
289
135
Lim
a-R
ibei
ro (
2012
)M
egal
onyx
jeff
erso
nii
41.5
0-8
9.70
1148
540
1334
610
3L
ima-
Rib
eiro
(20
12)
Meg
alon
yx je
ffer
soni
i41
.50
-89.
7011
530
7013
412
172
Lim
a-R
ibei
ro (
2012
)M
egal
onyx
jeff
erso
nii
41.5
0-8
9.70
1171
080
1357
019
5L
ima-
Rib
eiro
(20
12)
Myl
ohyu
sna
sutu
s40
.90
-83.
2011
860
4013
669
180
Lim
a-R
ibei
ro (
2012
)N
othr
othe
riop
ssh
aste
nse
32.0
0-1
07.0
011
606
5013
464
160
Lim
a-R
ibei
ro (
2012
)N
othr
othe
riop
ssh
aste
nse
32.0
0-1
07.0
011
080
200
1295
935
1L
ima-
Rib
eiro
(20
12)
Not
hrot
heri
ops
shas
tens
e36
.50
-112
.00
1095
070
1285
821
1L
ima-
Rib
eiro
(20
12)
Not
hrot
heri
ops
sp.
31.8
0-1
04.8
010
670
140
1251
037
1L
ima-
Rib
eiro
(20
12)
Not
hrot
heri
ops
sp.
31.8
0-1
04.8
010
750
140
1264
942
1L
ima-
Rib
eiro
(20
12)
Not
hrot
heri
ops
sp.
31.8
0-1
04.8
010
760
150
1265
643
2L
ima-
Rib
eiro
(20
12)
Not
hrot
heri
ops
sp.
31.8
0-1
04.8
011
020
180
1292
532
2L
ima-
Rib
eiro
(20
12)
Not
hrot
heri
ops
sp.
31.8
0-1
04.8
011
590
230
1345
148
6L
ima-
Rib
eiro
(20
12)
Not
hrot
heri
ops
shas
tens
e36
.20
-114
.80
1100
510
012
885
225
Lim
a-R
ibei
ro (
2012
)N
othr
othe
riop
ssh
aste
nse
36.2
0-1
14.8
011
080
9012
927
229
Lim
a-R
ibei
ro (
2012
)N
othr
othe
riop
ssh
aste
nse
36.2
0-1
14.8
011
360
260
1321
552
1L
ima-
Rib
eiro
(20
12)
Not
hrot
heri
ops
shas
tens
e36
.20
-114
.80
1169
025
013
603
527
Lim
a-R
ibei
ro (
2012
)N
othr
othe
riop
ssh
aste
nse
36.0
0-1
13.8
010
650
220
1245
863
1L
ima-
Rib
eiro
(20
12)
Not
hrot
heri
ops
shas
tens
e36
.00
-113
.80
1106
024
012
978
430
Lim
a-R
ibei
ro (
2012
)N
othr
othe
riop
ssh
aste
nse
36.0
0-1
13.8
011
140
160
1298
831
4L
ima-
Rib
eiro
(20
12)
Not
hrot
heri
ops
shas
tens
e36
.00
-113
.80
1129
017
013
099
365
Lim
a-R
ibei
ro (
2012
)N
othr
othe
riop
ssh
aste
nse
36.0
0-1
13.8
011
610
6013
472
172
Lim
a-R
ibei
ro (
2012
)N
othr
othe
riop
ssh
aste
nse
36.0
0-1
13.8
011
810
7013
634
186
Lim
a-R
ibei
ro (
2012
)N
othr
othe
riop
ssh
aste
nse
34.7
0-1
16.6
011
600
500
1376
713
32L
ima-
Rib
eiro
(20
12)
Not
hrot
heri
ops
shas
tens
e36
.10
-113
.90
1040
027
512
001
740
Lim
a-R
ibei
ro (
2012
)N
othr
othe
riop
ssh
aste
nse
36.1
0-1
13.9
010
500
180
1223
550
8L
ima-
Rib
eiro
(20
12)
Not
hrot
heri
ops
shas
tens
e36
.10
-113
.90
1078
020
012
627
486
Lim
a-R
ibei
ro (
2012
)N
othr
othe
riop
ssh
aste
nse
36.1
0-1
13.9
011
000
140
1288
727
0L
ima-
Rib
eiro
(20
12)
Not
hrot
heri
ops
shas
tens
e36
.10
-113
.90
1102
020
012
932
348
Lim
a-R
ibei
ro (
2012
)N
othr
othe
riop
ssh
aste
nse
36.1
0-1
13.9
011
370
300
1322
857
8L
ima-
Rib
eiro
(20
12)
Not
hrot
heri
ops
shas
tens
e36
.10
-113
.90
1148
020
013
350
424
Lim
a-R
ibei
ro (
2012
)
a12
Not
hrot
heri
ops
shas
tens
e36
.10
-113
.90
1205
040
014
276
1181
Lim
a-R
ibei
ro (
2012
)N
othr
othe
riop
ssh
aste
nse
36.1
0-1
13.9
012
440
300
1478
210
89L
ima-
Rib
eiro
(20
12)
Not
hrot
heri
ops
shas
tens
e36
.10
-113
.90
1247
017
014
585
584
Lim
a-R
ibei
ro (
2012
)N
othr
othe
riop
ssh
aste
nse
32.1
0-1
06.5
011
330
370
1322
279
0L
ima-
Rib
eiro
(20
12)
Not
hrot
heri
ops
shas
tens
e32
.10
-106
.50
1233
019
014
456
619
Lim
a-R
ibei
ro (
2012
)N
othr
othe
riop
ssh
aste
nse
32.1
0-1
06.5
012
430
250
1463
286
1L
ima-
Rib
eiro
(20
12)
Not
hrot
heri
ops
shas
tens
e36
.20
-114
.80
1136
026
013
215
521
Lim
a-R
ibei
ro (
2012
)N
othr
othe
riop
s sh
aste
nse
36.0
0-1
13.8
011
140
160
1298
831
4L
ima-
Rib
eiro
(20
12)
Not
hrot
heri
ops
shas
tens
e36
.00
-113
.80
1129
017
013
099
365
Lim
a-R
ibei
ro (
2012
)N
othr
othe
riop
s sh
aste
nse
36.1
0-1
13.9
011
140
250
1302
245
3L
ima-
Rib
eiro
(20
12)
Not
hrot
heri
ops
shas
tens
e32
.00
-103
.00
1075
014
012
649
421
Lim
a-R
ibei
ro (
2012
)N
othr
othe
riop
s sh
aste
nse
32.0
0-1
03.0
010
780
140
1274
332
6L
ima-
Rib
eiro
(20
12)
Not
hrot
heri
ops
shas
tens
e32
.00
-103
.00
1106
018
012
948
324
Lim
a-R
ibei
ro (
2012
)N
othr
othe
riop
s sh
aste
nse
32.0
0-1
03.0
011
590
230
1345
148
6L
ima-
Rib
eiro
(20
12)
Not
hrot
heri
ops
shas
tens
e31
.10
-102
.70
1114
032
013
067
664
Lim
a-R
ibei
ro (
2012
)N
othr
othe
riop
s sh
aste
nse
31.1
0-1
02.7
011
930
170
1377
740
2L
ima-
Rib
eiro
(20
12)
Not
hrot
heri
ops
shas
tens
e31
.10
-102
.70
1210
021
014
184
712
Lim
a-R
ibei
ro (
2012
)P
alae
olam
am
irif
ica
30.1
0-8
4.00
1239
050
1451
542
0L
ima-
Rib
eiro
(20
12)
Pla
tygo
nus
com
pres
sus
42.0
0-1
11.8
011
340
5013
221
108
Lim
a-R
ibei
ro (
2012
)P
laty
gonu
sco
mpr
essu
s41
.30
-74.
3012
160
8014
128
355
Lim
a-R
ibei
ro (
2012
)P
laty
gonu
sco
mpr
essu
s41
.30
-74.
3012
220
6014
185
336
Lim
a-R
ibei
ro (
2012
)P
laty
gonu
sco
mpr
essu
s41
.30
-74.
3012
430
7014
564
441
Lim
a-R
ibei
ro (
2012
)P
laty
gonu
sco
mpr
essu
s40
.90
-83.
2011
060
6012
920
193
Lim
a-R
ibei
ro (
2012
)P
laty
gonu
sco
mpr
essu
s40
.90
-83.
2011
130
6012
975
202
Lim
a-R
ibei
ro (
2012
)P
laty
gonu
sco
mpr
essu
s42
.30
-83.
6010
790
150
1274
933
5L
ima-
Rib
eiro
(20
12)
Smil
odon
flor
idan
us36
.10
-86.
8094
1015
510
696
433
Lim
a-R
ibei
ro (
2012
)Sm
ilod
onfa
tali
s34
.10
-118
.40
1113
027
513
071
530
Lim
a-R
ibei
ro (
2012
)Sm
ilod
onfa
tali
s34
.10
-118
.40
1164
013
513
521
267
Lim
a-R
ibei
ro (
2012
)Sm
ilod
onfa
tali
s34
.10
-118
.40
1198
026
014
089
780
Lim
a-R
ibei
ro (
2012
)Sm
ilod
onfa
tali
s34
.10
-118
.40
1200
012
513
823
330
Lim
a-R
ibei
ro (
2012
)Sm
ilod
onfa
tali
s34
.10
-118
.40
1220
020
014
354
669
Lim
a-R
ibei
ro (
2012
)T
apir
usve
roen
sis
34.4
0-7
7.80
1250
010
2015
059
2651
Lim
a-R
ibei
ro (
2012
)U
rsus
am
eric
anus
55.8
0-1
33.0
086
0060
9590
107
Lim
a-R
ibei
ro (
2012
)U
rsus
am
eric
anus
55.8
0-1
33.0
087
2570
9828
289
Lim
a-R
ibei
ro (
2012
)
a13
Tab
le S
4 - M
egaf
auna
l dat
es fr
om E
uras
ia th
at r
anke
d 11
or
12 o
n th
e m
odifi
ed M
ead-
Mel
tzer
scal
e (s
ee M
etho
ds; T
able
1).
Gen
usSp
ecie
sL
atitu
deL
ongi
tude
14C
erro
r14
C (2σ)
erro
r (2σ)
Sour
ce r
efer
ence
Bis
onpr
iscu
s54
.00
-4.0
037
300
1100
4198
219
36H
igha
m e
t al 2
006
Bis
onpr
iscu
s51
.55
-4.2
527
140
360
3157
860
3Ja
cobi
& H
igha
m 2
008
Bis
onpr
iscu
s51
.55
-4.2
531
250
230
3575
764
8Ja
cobi
& H
igha
m 2
008
Bis
onpr
iscu
s72
.83
107.
4288
6040
9970
196
Orl
ova
2004
Bis
onpr
iscu
s54
.37
81.7
093
2095
1049
724
8O
rlov
a 20
04B
ison
pris
cus
56.1
092
.90
1161
011
013
498
235
Orl
ova
2004
Bis
onpr
iscu
s70
.50
149.
5012
800
6015
368
473
Orl
ova
2004
Bis
onpr
iscu
s55
.95
92.4
013
200
110
1596
869
3O
rlov
a 20
04B
ison
pris
cus
55.8
792
.20
1448
040
017
703
835
Orl
ova
2004
Bis
onpr
iscu
s52
.83
103.
5514
720
190
1790
363
2O
rlov
a 20
04B
ison
pris
cus
68.3
015
7.70
1480
025
017
926
668
Orl
ova
2004
Bis
onpr
iscu
s73
.50
110.
0016
390
120
1964
036
6O
rlov
a 20
04B
ison
pris
cus
53.5
592
.00
1766
070
021
135
1728
Orl
ova
2004
Bis
onpr
iscu
s51
.05
82.0
017
910
265
2131
180
4O
rlov
a 20
04B
ison
pris
cus
63.1
213
3.62
1969
510
023
543
367
Orl
ova
2004
Bis
onpr
iscu
s57
.50
112.
5020
040
765
2403
519
02O
rlov
a 20
04B
ison
pris
cus
52.8
310
3.53
2160
017
025
859
736
Orl
ova
2004
Bis
onpr
iscu
s55
.33
84.5
023
050
255
2771
275
3O
rlov
a 20
04B
ison
pris
cus
55.8
310
2.83
2340
045
528
117
1161
Orl
ova
2004
Bis
onpr
iscu
s69
.50
166.
0023
590
1560
2783
732
66O
rlov
a 20
04B
ison
pris
cus
56.0
066
.00
2460
030
029
417
787
Orl
ova
2004
Bis
onpr
iscu
s57
.48
107.
7725
100
940
2965
616
05O
rlov
a 20
04B
ison
pris
cus
75.7
014
4.20
2610
030
030
763
423
Orl
ova
2004
Bis
onpr
iscu
s58
.24
115.
3127
140
330
3153
051
8O
rlov
a 20
04B
ison
pris
cus
73.2
098
.15
2760
040
032
026
825
Orl
ova
2004
Bis
onpr
iscu
s51
.38
84.6
828
700
850
3307
316
54O
rlov
a 20
04B
ison
pris
cus
69.0
014
7.50
2950
010
034
165
482
Orl
ova
2004
Bis
onpr
iscu
s75
.50
135.
8330
500
400
3540
288
0O
rlov
a 20
04B
ison
pris
cus
73.3
098
.20
3180
050
036
215
1173
Orl
ova
2004
Bis
onpr
iscu
s71
.60
87.1
031
900
500
3632
912
58O
rlov
a 20
04B
ison
pris
cus
58.2
411
5.31
3217
025
036
557
853
Orl
ova
2004
Bis
onpr
iscu
s75
.60
144.
0532
200
600
3687
015
82O
rlov
a 20
04B
ison
pris
cus
51.2
583
.05
3270
028
0036
978
5343
Orl
ova
2004
Bis
onpr
iscu
s75
.65
144.
0533
100
320
3775
490
5O
rlov
a 20
04B
ison
pris
cus
73.5
098
.00
3375
012
0038
469
2824
Orl
ova
2004
Bis
onpr
iscu
s72
.00
149.
6733
800
1200
3851
328
30O
rlov
a 20
04
a14
Bis
onpr
iscu
s73
.16
102.
2035
800
800
4054
915
42O
rlov
a 20
04B
ison
pris
cus
70.5
512
2.10
3680
050
041
732
755
Orl
ova
2004
Bis
onpr
iscu
s68
.00
156.
0037
100
500
4193
373
3O
rlov
a 20
04B
ison
pris
cus
68.5
015
6.00
3840
080
042
925
1191
Orl
ova
2004
Bis
onpr
iscu
s73
.60
100.
5039
200
800
4340
711
74O
rlov
a 20
04B
ison
pris
cus
74.5
310
0.50
3976
087
043
791
1277
Orl
ova
2004
Bis
onpr
iscu
s54
.45
89.4
740
595
875
4433
812
99O
rlov
a 20
04B
ison
pris
cus
54.4
589
.47
4069
011
5044
391
1666
Orl
ova
2004
Bis
onpr
iscu
s54
.45
89.4
740
770
1075
4444
215
65O
rlov
a 20
04B
ison
pris
cus
52.8
310
3.53
4110
015
0044
841
2483
Orl
ova
2004
Bis
onpr
iscu
s70
.55
122.
1041
300
800
4485
412
10O
rlov
a 20
04B
ison
pris
cus
72.4
512
3.20
4170
015
0045
551
2705
Orl
ova
2004
Bis
onpr
iscu
s68
.75
156.
2042
800
700
4609
513
18O
rlov
a 20
04B
ison
pris
cus
75.2
014
1.00
4340
022
0046
916
3084
Orl
ova
2004
Bis
onpr
iscu
s73
.07
106.
8345
320
1740
4786
221
38O
rlov
a 20
04B
ison
pris
cus
68.4
515
0.45
4540
012
0048
180
1820
Orl
ova
2004
Bis
on
pris
cus
51.5
5-4
.25
3032
017
034
874
262
Jaco
bi &
Hig
ham
200
8B
ison
pr
iscu
s51
.55
-4.2
531
100
800
3572
617
03Ja
cobi
& H
igha
m 2
008
Coe
lodo
nta
anti
quit
atis
54.0
0-4
.00
3022
046
034
917
1320
Hig
ham
et a
l 200
6C
oelo
dont
aan
tiqu
itat
is54
.00
-4.0
034
500
800
3934
319
14H
igha
m e
t al 2
006
Coe
lodo
nta
anti
quit
atis
54.0
0-4
.00
3462
082
039
454
1920
Hig
ham
et a
l 200
6C
oelo
dont
aan
tiqu
itat
is54
.00
-4.0
035
150
330
4018
494
4H
igha
m e
t al 2
006
Coe
lodo
nta
anti
quit
atis
54.0
0-4
.00
3565
033
040
811
769
Hig
ham
et a
l 200
6C
oelo
dont
aan
tiqu
itat
is54
.00
-4.0
036
040
330
4115
765
0H
igha
m e
t al 2
006
Coe
lodo
nta
anti
quit
atis
54.0
0-4
.00
3637
032
041
468
547
Hig
ham
et a
l 200
6C
oelo
dont
aan
tiqu
itat
is54
.00
-4.0
037
200
550
4199
979
5H
igha
m e
t al 2
006
Coe
lodo
nta
anti
quit
atis
54.0
0-4
.00
4270
022
0046
575
3343
Hig
ham
et a
l 200
6C
oelo
dont
aan
tiqu
itat
is54
.00
-4.0
043
350
650
4669
114
53H
igha
m e
t al 2
006
Coe
lodo
nta
anti
quit
atis
54.0
0-4
.00
4500
075
048
189
1691
Hig
ham
et a
l 200
6C
oelo
dont
aan
tiqu
itat
is54
.00
-4.0
045
000
2200
4748
725
14H
igha
m e
t al 2
006
Coe
lodo
nta
anti
quit
atis
51.5
5-4
.25
3250
070
037
063
1715
Jaco
bi &
Hig
ham
200
8C
oelo
dont
aan
tiqu
itat
is51
.55
-4.2
535
200
1500
3963
628
68Ja
cobi
& H
igha
m 2
008
Coe
lodo
nta
anti
quit
atis
54.0
0-4
.00
3114
017
035
698
612
Jaco
bi e
t al 2
009
Coe
lodo
nta
anti
quit
atis
54.0
0-4
.00
3225
070
036
891
1676
Jaco
bi e
t al 2
009
Coe
lodo
nta
anti
quit
atis
54.0
0-4
.00
3287
020
037
599
816
Jaco
bi e
t al 2
009
Coe
lodo
nta
anti
quit
atis
54.0
0-4
.00
3380
020
038
519
729
Jaco
bi e
t al 2
009
Coe
lodo
nta
anti
quit
atis
54.0
0-4
.00
3637
032
041
468
547
Jaco
bi e
t al 2
009
Coe
lodo
nta
anti
quit
atis
54.0
0-4
.00
3754
037
042
234
570
Jaco
bi e
t al 2
009
a15
Coe
lodo
nta
anti
quit
atis
54.0
0-4
.00
4020
070
044
080
1082
Jaco
bi e
t al 2
009
Coe
lodo
nta
anti
quit
atis
54.0
0-4
.00
4055
040
044
385
726
Jaco
bi e
t al 2
009
Coe
lodo
nta
anti
quit
atis
54.0
0-4
.00
4190
090
045
370
1419
Jaco
bi e
t al 2
009
Coe
lodo
nta
anti
quit
atis
54.0
0-4
.00
4265
080
046
021
1475
Jaco
bi e
t al 2
009
Coe
lodo
nta
anti
quit
atis
54.0
0-4
.00
4370
010
0047
229
2037
Jaco
bi e
t al 2
009
Coe
lodo
nta
anti
quit
atis
54.0
0-4
.00
4580
014
0048
172
1829
Jaco
bi e
t al 2
009
Coe
lodo
nta
anti
quit
atis
60.9
768
.53
1077
025
012
600
615
Kuz
min
201
0C
oelo
dont
aan
tiqu
itat
is52
.97
55.3
212
330
120
1446
252
5K
uzm
in 2
010
Coe
lodo
nta
anti
quit
atis
54.4
081
.67
1316
518
015
936
755
Kuz
min
201
0C
oelo
dont
aan
tiqu
itat
is56
.38
57.6
214
200
400
1751
399
3K
uzm
in 2
010
Coe
lodo
nta
anti
quit
atis
54.8
357
.88
1430
011
017
407
393
Kuz
min
201
0C
oelo
dont
aan
tiqu
itat
is55
.43
65.3
514
390
150
1749
043
4K
uzm
in 2
010
Coe
lodo
nta
anti
quit
atis
54.4
081
.67
1470
021
017
888
636
Kuz
min
201
0C
oelo
dont
aan
tiqu
itat
is71
.16
153.
4515
130
9018
319
294
Lor
enze
n et
al 2
011
Coe
lodo
nta
anti
quit
atis
69.8
714
7.58
1585
080
1908
728
2L
oren
zen
et a
l 201
1C
oelo
dont
aan
tiqu
itat
is62
.00
132.
5019
500
120
2317
550
8L
oren
zen
et a
l 201
1C
oelo
dont
aan
tiqu
itat
is63
.17
133.
7526
030
200
3075
235
2L
oren
zen
et a
l 201
1C
oelo
dont
aan
tiqu
itat
is68
.20
157.
6726
900
400
3131
364
6L
oren
zen
et a
l 201
1C
oelo
dont
aan
tiqu
itat
is68
.00
162.
1727
300
300
3164
454
7L
oren
zen
et a
l 201
1C
oelo
dont
aan
tiqu
itat
is68
.00
162.
1727
300
300
3164
454
7L
oren
zen
et a
l 201
1C
oelo
dont
aan
tiqu
itat
is69
.03
156.
0037
100
1100
4159
419
92L
oren
zen
et a
l 201
1C
oelo
dont
aan
tiqu
itat
is67
.27
155.
8739
900
500
4386
781
8L
oren
zen
et a
l 201
1C
oelo
dont
aan
tiqu
itat
is67
.20
132.
9040
000
500
4393
382
7L
oren
zen
et a
l 201
1C
oelo
dont
aan
tiqu
itat
is52
.97
55.3
212
330
120
1446
252
5O
rlov
a 20
04C
oelo
dont
aan
tiqu
itat
is67
.00
157.
1714
260
150
1738
043
3O
rlov
a 20
04C
oelo
dont
aan
tiqu
itat
is62
.00
132.
5019
500
120
2317
550
8O
rlov
a 20
04C
oelo
dont
aan
tiqu
itat
is58
.15
115.
5119
610
670
2336
716
34O
rlov
a 20
04C
oelo
dont
aan
tiqu
itat
is63
.17
133.
7520
080
150
2397
143
5O
rlov
a 20
04C
oelo
dont
aan
tiqu
itat
is70
.70
143.
0020
400
200
2439
153
5O
rlov
a 20
04C
oelo
dont
aan
tiqu
itat
is55
.50
159.
5020
800
200
2486
455
6O
rlov
a 20
04C
oelo
dont
aan
tiqu
itat
is55
.38
109.
0025
880
350
3047
970
2O
rlov
a 20
04C
oelo
dont
aan
tiqu
itat
is56
.35
90.7
726
620
240
3111
730
3O
rlov
a 20
04C
oelo
dont
aan
tiqu
itat
is71
.00
179.
0029
800
340
3425
876
0O
rlov
a 20
04C
oelo
dont
aan
tiqu
itat
is61
.05
68.5
730
090
800
3466
118
03O
rlov
a 20
04C
oelo
dont
aan
tiqu
itat
is51
.62
108.
1230
600
500
3546
697
8O
rlov
a 20
04C
oelo
dont
aan
tiqu
itat
is71
.16
153.
4530
900
200
3557
969
9O
rlov
a 20
04C
oelo
dont
aan
tiqu
itat
is70
.40
133.
0031
500
300
3587
770
4O
rlov
a 20
04C
oelo
dont
aan
tiqu
itat
is55
.45
103.
0531
860
780
3666
217
46O
rlov
a 20
04
a16
Coe
lodo
nta
anti
quit
atis
66.1
715
1.67
3310
040
037
744
979
Orl
ova
2004
Coe
lodo
nta
anti
quit
atis
51.2
510
9.33
3486
021
0039
108
3918
Orl
ova
2004
Coe
lodo
nta
anti
quit
atis
67.0
215
4.30
4160
080
045
127
1185
Orl
ova
2004
Coe
lodo
nta
anti
quit
atis
69.0
315
6.00
4370
010
0047
229
2037
Orl
ova
2004
Equ
usca
ball
us g
erm
anic
us41
.97
12.4
828
680
390
3322
512
50C
roch
et e
t al 2
007
Equ
usca
ball
us g
erm
anic
us41
.97
12.4
831
450
270
3585
967
9C
roch
et e
t al 2
007
Equ
usfe
rus
54.0
0-4
.00
4430
021
0047
330
2671
Hig
ham
et a
l 200
6E
quus
feru
s54
.00
-4.0
044
900
2800
4703
629
64H
igha
m e
t al 2
006
Equ
usfe
rus
54.0
0-4
.00
3600
045
041
072
870
Jaco
bi e
t al 2
006
Mam
mut
hus
prim
igen
ius
54.0
0-4
.00
4270
021
0046
561
3281
Hig
ham
et a
l 200
6M
amm
uthu
spr
imig
eniu
s51
.55
-4.2
521
710
120
2610
755
4Ja
cobi
& H
igha
m 2
008
Mam
mut
hus
prim
igen
ius
51.5
5-4
.25
2221
016
026
870
713
Jaco
bi &
Hig
ham
200
8M
amm
uthu
spr
imig
eniu
s47
.04
18.1
813
315
3516
232
579
Kov
acs
2012
Mam
mut
hus
prim
igen
ius
46.0
018
.09
1776
020
021
024
598
Kov
acs
2012
Mam
mut
hus
prim
igen
ius
53.0
010
3.50
1201
585
1388
120
9K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
74.8
310
6.00
1205
015
013
993
526
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s54
.50
80.2
012
520
150
1462
655
6K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
59.2
513
2.67
1252
025
014
831
1012
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s69
.00
147.
3012
530
6014
663
438
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s67
.38
67.8
712
535
8014
662
455
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s69
.00
147.
3012
570
8014
693
459
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s50
.50
72.7
512
570
400
1511
113
77K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
55.0
015
9.00
1263
050
1488
534
1K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
71.0
017
9.00
1275
050
1517
740
7K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
70.5
514
9.05
1285
011
015
559
673
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s59
.00
69.0
012
860
9015
516
581
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s55
.33
92.4
712
860
175
1552
591
5K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
46.7
813
4.03
1290
041
015
430
1344
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s69
.78
168.
0012
950
130
1572
468
1K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
71.0
017
9.00
1298
080
1571
660
7K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
58.0
569
.50
1314
010
015
892
667
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s70
.55
149.
0513
205
150
1596
773
2K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
55.9
292
.33
1326
016
016
023
749
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s56
.10
92.5
013
260
250
1600
382
8K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
56.1
092
.50
1331
014
016
132
702
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s75
.30
105.
0013
340
240
1604
981
7K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
56.1
092
.50
1335
060
1626
657
8K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
61.0
368
.63
1343
010
516
388
511
Kuz
min
& O
rlov
a 20
04
a17
Mam
mut
hus
prim
igen
ius
72.8
310
6.75
1356
040
1671
120
5K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
54.5
080
.20
1360
023
016
368
824
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s73
.00
74.4
013
600
160
1653
155
4K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
56.1
092
.50
1365
070
1679
120
5K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
73.0
074
.40
1365
017
016
636
543
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s71
.00
145.
0013
700
800
1633
221
83K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
75.0
013
8.00
1370
010
016
827
240
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s44
.15
131.
7813
750
780
1637
221
48K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
56.1
092
.50
1393
080
1706
930
0K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
68.8
870
.75
1394
017
017
124
389
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s69
.78
168.
0014
000
120
1713
833
0K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
69.7
816
8.00
1412
017
017
243
416
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s54
.50
80.2
014
200
150
1730
342
1K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
54.5
080
.20
1428
028
517
420
622
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s72
.47
128.
4214
340
5017
456
332
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s66
.30
-170
.00
1438
070
1749
934
4K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
70.1
569
.00
1440
080
1751
635
0K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
58.0
768
.19
1451
019
517
753
693
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s53
.00
103.
5014
750
120
1804
646
5K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
74.5
310
0.50
1539
050
1865
413
4K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
79.9
094
.58
1927
030
023
021
722
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s53
.55
92.0
020
100
300
2406
677
0K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
55.2
092
.05
2010
010
024
038
353
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s72
.36
139.
7320
100
150
2399
443
1K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
57.7
583
.52
2014
024
024
050
657
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s55
.05
90.0
020
200
100
2413
230
4K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
53.0
010
3.50
2034
032
024
259
771
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s73
.53
105.
8220
380
140
2433
544
6K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
73.5
310
5.82
2039
016
024
360
479
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s57
.22
111.
8320
400
100
2433
741
8K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
72.0
896
.25
2040
010
024
337
418
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s55
.64
88.0
020
480
180
2444
450
4K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
45.5
012
6.33
2058
060
024
595
1588
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s74
.15
99.3
920
600
9024
633
325
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s74
.15
99.3
920
620
7024
651
300
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s59
.50
62.2
520
630
220
2454
857
3K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
53.0
010
3.50
2070
015
024
692
382
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s55
.64
88.0
020
770
560
2482
914
32K
uzm
in &
Orl
ova
2004
a18
Mam
mut
hus
prim
igen
ius
74.0
010
3.00
2080
070
2476
828
4K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
53.0
010
3.50
2080
012
024
774
343
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s53
.00
103.
5020
800
140
2477
938
3K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
53.0
010
3.50
2080
020
024
864
556
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s53
.00
103.
5020
900
200
2497
457
1K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
75.2
514
4.00
2090
010
024
865
379
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s44
.63
129.
5820
910
1000
2514
325
54K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
74.2
710
1.58
2095
019
025
017
567
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s53
.00
103.
5021
000
110
2505
045
4K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
53.0
010
3.50
2110
015
025
211
543
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s53
.00
103.
5021
100
140
2521
451
7K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
70.0
012
5.00
2126
031
025
363
840
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s53
.00
103.
5021
300
300
2539
183
5K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
53.0
010
3.50
2130
011
025
461
419
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s56
.35
161.
0021
300
400
2554
810
91K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
55.6
488
.00
2130
042
025
558
1132
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s53
.00
103.
5021
340
240
2554
665
8K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
53.0
010
3.50
2140
011
025
545
436
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s62
.42
133.
0021
500
775
2588
619
65K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
52.7
210
2.00
2152
015
525
665
529
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s53
.00
103.
5021
600
200
2586
775
5K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
59.4
515
0.55
2160
020
025
867
755
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s71
.28
129.
4221
630
240
2590
277
8K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
53.0
010
3.50
2170
016
026
073
642
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s55
.00
159.
1521
750
150
2614
658
8K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
72.4
010
6.00
2200
020
026
632
834
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s52
.72
102.
0022
090
150
2670
073
2K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
55.6
488
.00
2224
018
526
897
733
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s55
.64
88.0
022
290
125
2691
968
1K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
55.6
488
.00
2250
028
027
083
828
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s79
.52
96.9
224
910
200
2983
643
2K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
53.0
010
3.50
2570
026
030
397
652
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s43
.11
128.
9126
560
550
3110
491
9K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
71.8
315
0.00
2668
020
031
168
228
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s73
.65
143.
1326
860
290
3126
533
2K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
68.4
515
0.45
2860
030
033
152
1252
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s75
.26
144.
0028
650
350
3321
312
22K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
57.3
011
2.00
2867
060
033
108
1438
Kuz
min
& O
rlov
a 20
04
a19
Mam
mut
hus
prim
igen
ius
51.4
385
.35
2873
099
533
117
1846
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s75
.15
98.0
028
800
600
3318
414
28K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
54.3
586
.21
2887
060
033
229
1421
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s44
.76
126.
5328
880
1220
3365
325
43K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
72.4
010
6.00
2890
030
033
576
962
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s75
.30
140.
0029
020
190
3379
769
1K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
75.2
514
4.00
2910
040
033
662
1006
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s75
.25
144.
0029
100
1000
3371
323
81K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
67.1
068
.00
2930
030
033
926
713
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s72
.15
113.
3029
400
400
3392
785
6K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
72.1
296
.03
2950
030
034
040
690
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s64
.00
126.
0029
500
3000
3456
561
73K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
67.3
511
6.00
2960
050
034
037
1031
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s75
.26
144.
0029
700
250
3420
063
8K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
69.1
869
.88
2970
010
0034
096
2230
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s71
.83
150.
0029
900
300
3437
469
5K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
73.0
710
6.83
2999
028
034
534
600
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s73
.55
118.
5030
000
300
3450
665
0K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
56.0
015
9.75
3000
030
034
506
650
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s70
.30
77.3
030
250
1800
3493
636
95K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
71.0
011
7.01
3060
012
4034
980
2928
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s73
.60
100.
5030
850
200
3554
872
1K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
73.0
710
6.83
3089
029
035
565
727
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s73
.22
143.
5831
000
1000
3558
523
06K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
51.8
710
8.15
3106
053
035
642
906
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s66
.30
173.
7031
100
900
3562
020
41K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
66.3
017
3.70
3137
090
036
460
1987
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s75
.26
144.
0031
400
300
3583
269
7K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
70.0
012
5.00
3150
020
0036
122
4337
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s42
.87
133.
0031
500
980
3643
922
11K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
69.6
016
4.80
3153
042
035
886
831
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s42
.87
133.
0031
550
600
3602
612
21K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
73.5
210
5.08
3158
024
035
933
665
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s74
.00
100.
0831
580
330
3591
074
2K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
67.1
515
7.30
3175
025
0036
383
4947
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s75
.50
112.
0031
800
500
3621
511
73K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
73.0
011
2.00
3190
030
036
161
841
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s75
.30
105.
0032
000
200
3628
164
8K
uzm
in &
Orl
ova
2004
a20
Mam
mut
hus
prim
igen
ius
74.5
010
2.63
3200
050
036
465
1356
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s66
.30
173.
7032
000
3000
3666
556
33K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
73.3
014
2.00
3203
011
7037
010
2537
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s67
.38
67.8
732
090
480
3657
713
90K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
73.3
014
2.00
3210
090
036
812
1901
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s73
.60
101.
1332
200
800
3686
317
79K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
72.4
010
6.00
3230
040
036
988
1388
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s49
.35
117.
5832
430
1700
3732
136
89K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
74.5
310
0.50
3253
027
037
266
789
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s42
.87
133.
0032
570
1510
3773
332
27K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
73.6
786
.83
3260
070
037
139
1731
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s72
.50
101.
5832
600
280
3744
591
8K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
73.0
010
3.00
3275
028
037
527
878
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s66
.30
173.
7032
810
720
3733
918
18K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
74.4
310
7.58
3284
029
037
589
887
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s68
.03
166.
0032
850
900
3741
921
80K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
66.3
017
3.70
3289
012
0037
713
2669
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s42
.87
133.
0033
000
1000
3772
924
14K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
73.2
214
3.58
3310
020
0037
859
4034
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s42
.87
133.
0033
420
460
3796
611
71K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
70.3
077
.30
3350
010
0038
589
2309
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s71
.83
150.
0033
600
500
3822
413
95K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
68.4
515
0.45
3380
050
038
588
1496
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s43
.11
128.
9134
310
1850
3874
235
35K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
72.2
512
7.00
3445
025
0038
902
4746
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s70
.08
135.
3335
400
2000
3956
339
47K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
72.2
512
7.00
3580
012
0040
410
2354
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s72
.00
85.3
035
800
2700
3985
448
43K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
72.0
085
.30
3695
043
0040
946
7853
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s45
.00
127.
6038
800
3500
4287
863
13K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
54.1
286
.38
3909
024
4043
081
4456
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s75
.30
105.
0039
200
700
4341
410
53K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
56.3
016
0.00
3960
016
0043
681
2300
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s45
.00
127.
6039
600
3000
4395
054
44K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
45.0
012
7.60
4020
035
0044
272
5729
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s74
.60
101.
2040
800
2000
4503
034
12K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
50.0
312
8.27
4100
040
0044
075
5926
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s53
.00
103.
5041
100
1500
4484
124
83K
uzm
in &
Orl
ova
2004
a21
Mam
mut
hus
prim
igen
ius
72.4
798
.03
4140
020
0045
532
3412
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s72
.52
101.
5841
580
1190
4509
219
94K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
71.2
015
0.30
4175
012
9045
382
2307
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s72
.40
106.
0041
900
800
4534
211
88K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
59.0
064
.00
4190
080
045
342
1188
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s71
.16
153.
4542
400
800
4574
713
48K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
73.3
214
1.38
4270
013
0046
545
2465
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s72
.30
104.
3042
800
800
4619
815
51K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
53.0
010
3.50
4310
024
0046
681
3320
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s74
.42
107.
5843
160
1280
4687
723
97K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
73.0
011
9.00
4320
040
046
262
864
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s74
.05
93.1
043
500
1000
4706
620
41K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
74.4
210
7.58
4350
010
0047
066
2041
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s56
.78
93.5
243
580
8800
4053
094
70K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
68.4
516
1.15
4370
080
047
139
1773
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s68
.58
147.
0844
540
1900
4753
524
65K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
70.8
397
.00
4500
010
0048
171
1829
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s73
.00
119.
0045
500
1200
4820
717
93K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
69.0
014
7.30
4610
010
0048
494
1506
Kuz
min
& O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s74
.05
93.1
046
100
1200
4836
016
41K
uzm
in &
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
75.0
014
9.00
9650
6010
988
213
Kuz
min
201
0M
amm
uthu
spr
imig
eniu
s60
.45
44.4
510
000
800
1143
419
53K
uzm
in 2
010
Mam
mut
hus
prim
igen
ius
60.9
568
.53
1021
013
511
878
532
Kuz
min
201
0M
amm
uthu
spr
imig
eniu
s59
.38
62.3
311
080
160
1295
830
6K
uzm
in 2
010
Mam
mut
hus
prim
igen
ius
54.6
780
.35
1109
012
012
949
269
Kuz
min
201
0M
amm
uthu
spr
imig
eniu
s60
.95
68.5
311
310
380
1321
480
4K
uzm
in 2
010
Mam
mut
hus
prim
igen
ius
60.9
568
.53
1184
095
1366
122
7K
uzm
in 2
010
Mam
mut
hus
prim
igen
ius
72.1
210
4.00
1480
050
1809
539
8L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s54
.50
80.2
014
800
150
1807
645
0L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s44
.90
1.02
1485
035
017
934
764
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
43.0
010
4.00
1494
017
018
165
419
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
72.3
613
9.73
1500
070
1826
927
7L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s65
.00
171.
0015
100
7018
308
282
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
51.7
533
.08
1510
020
018
279
431
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
52.8
330
.97
1510
025
018
259
530
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
53.3
334
.33
1511
053
018
268
1116
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
68.4
515
0.00
1513
050
1831
928
5L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s59
.24
62.3
415
150
280
1828
358
4L
oren
zen
et a
l 201
1
a22
Mam
mut
hus
prim
igen
ius
68.4
515
0.00
1520
080
1835
331
2L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s44
.15
131.
7815
300
140
1843
639
5L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s71
.00
179.
0015
400
100
1868
419
4L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s61
.05
68.5
715
420
215
1862
961
1L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s75
.00
138.
0015
420
100
1868
817
7L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s48
.52
15.6
815
560
200
1879
258
3L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.67
33.2
815
660
180
1895
137
9L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s50
.07
8.53
1581
041
018
955
917
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
60.3
725
.43
1591
015
519
103
317
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
62.4
213
3.00
1600
030
019
220
610
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
58.5
081
.05
1600
038
519
299
763
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
55.2
959
.29
1613
031
019
326
659
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
64.4
0-1
47.0
016
168
209
1933
450
3L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s54
.10
61.4
016
300
300
1949
665
6L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s55
.92
92.3
316
300
600
1961
614
78L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s53
.33
34.3
316
300
700
1964
116
03L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s59
.24
62.3
416
320
450
1951
890
6L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s75
.30
105.
0016
330
100
1942
144
7L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s51
.70
36.0
016
565
270
1966
368
6L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s59
.24
62.3
416
700
240
1989
047
0L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s51
.70
36.0
016
960
420
2037
598
2L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s59
.38
62.3
317
050
160
2027
668
4L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.85
86.6
817
100
390
2039
792
4L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s55
.92
92.3
317
200
230
2045
281
3L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.01
86.3
217
220
245
2046
883
0L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s57
.23
112.
2517
290
100
2067
044
3L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s42
.17
2.74
1732
029
020
654
756
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
44.1
513
1.78
1740
015
020
780
487
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
57.2
211
1.83
1745
010
020
813
435
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
70.1
175
.46
1750
030
020
821
729
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
52.0
186
.32
1760
050
020
913
1306
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
57.3
011
2.00
1761
020
020
931
534
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
42.1
72.
7417
720
290
2112
080
8L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s70
.00
125.
0017
780
8021
052
470
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
54.5
080
.20
1780
010
021
056
483
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
59.2
762
.33
1781
032
021
231
869
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
54.2
569
.73
1793
010
021
395
353
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
53.2
6-3
.37
1800
014
0021
729
3195
Lor
enze
n et
al 2
011
a23
Mam
mut
hus
prim
igen
ius
49.6
331
.40
1802
060
021
593
1616
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
55.6
488
.00
1804
017
521
635
549
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
56.0
065
.92
1805
095
2163
638
0L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s49
.42
20.1
718
160
260
2171
866
2L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s73
.60
100.
4818
190
6021
758
324
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
61.0
568
.57
1825
011
0021
876
2543
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
55.2
739
.45
1830
020
021
868
464
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
65.0
257
.38
1832
028
021
855
619
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
75.2
614
4.00
1850
012
021
981
408
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
55.8
588
.05
1858
024
022
184
734
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
59.3
062
.38
1860
023
022
196
727
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
55.2
092
.05
1860
020
0022
689
4858
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
71.4
011
9.00
1868
012
022
115
500
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
52.8
533
.23
1869
077
022
252
1888
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
70.0
011
9.00
1870
010
022
302
289
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
55.1
591
.10
1893
032
022
558
901
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
57.0
763
.57
1899
034
022
650
916
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
50.5
529
.23
1900
030
022
717
831
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
51.2
939
.00
1901
012
022
792
492
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
55.6
488
.00
1919
031
022
961
742
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
56.5
827
.50
1920
020
022
913
542
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
45.8
228
.58
1920
035
022
987
840
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
49.6
331
.40
1928
060
022
961
1428
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
52.4
4-2
.83
1930
070
023
067
1678
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
44.3
88.
9819
400
230
2310
664
0L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s53
.55
92.0
019
500
200
2320
661
6L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s39
.89
-98.
0319
530
8023
198
508
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
79.9
094
.58
1964
033
023
389
870
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
53.5
592
.00
1970
020
023
410
727
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
59.3
862
.33
1971
020
523
431
744
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
52.0
033
.27
1980
035
023
529
915
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
51.2
939
.00
1986
020
023
780
565
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
53.0
010
3.50
1990
080
023
809
2015
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
73.5
310
5.82
1991
013
023
809
423
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
55.0
590
.00
1996
080
2384
837
5L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s79
.47
96.7
519
970
110
2386
340
4L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s51
.55
-4.2
419
980
220
2388
354
6L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s75
.00
138.
0019
990
110
2388
340
4L
oren
zen
et a
l 201
1
a24
Mam
mut
hus
prim
igen
ius
71.0
0-1
79.0
020
000
110
2389
340
3L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s71
.00
-179
.00
2240
030
027
022
862
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
71.0
0-1
79.0
022
400
200
2701
174
5L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s55
.64
88.0
022
410
200
2702
074
5L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s55
.64
88.0
022
450
200
2705
475
5L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s57
.30
112.
0022
480
420
2703
310
81L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s55
.64
88.0
022
500
280
2708
382
8L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s51
.55
-4.2
422
620
340
2715
892
1L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s51
.29
39.0
022
700
250
2736
972
1L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s55
.64
88.0
022
750
160
2742
656
6L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s74
.03
100.
0022
750
150
2742
855
8L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s51
.29
39.0
022
760
250
2741
471
2L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s51
.39
39.0
422
780
250
2742
971
4L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s57
.68
62.2
022
860
410
2740
410
93L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s53
.00
103.
5022
900
240
2755
673
0L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s55
.64
88.0
022
990
170
2765
771
0L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s51
.29
39.0
023
010
300
2767
580
5L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s64
.94
-147
.65
2301
544
927
491
1183
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
50.0
719
.95
2302
018
027
699
739
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
50.0
719
.95
2304
017
027
719
743
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
67.3
511
6.00
2310
020
027
754
763
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
48.3
215
.40
2318
012
028
084
381
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
64.9
4-1
47.6
523
222
453
2794
511
85L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s51
.29
39.0
023
260
420
2795
211
15L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s51
.42
39.0
023
260
680
2784
416
13L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s61
.00
77.0
023
300
500
2803
612
56L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s55
.64
88.0
023
330
110
2817
733
9L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s73
.06
102.
1623
500
300
2842
671
9L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s59
.00
101.
3023
600
200
2838
451
0L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s51
.29
39.0
023
640
320
2855
672
2L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s54
.87
70.5
023
670
410
2857
987
1L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s55
.12
84.2
423
760
245
2862
663
1L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s56
.58
27.5
023
770
1540
2801
631
96L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s51
.29
39.0
023
770
200
2862
159
0L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s74
.50
102.
0023
800
400
2866
679
9L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s43
.00
33.0
023
800
150
2863
254
1L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s64
.87
-146
.84
2380
848
728
622
1042
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
75.2
614
4.00
2394
015
028
819
475
Lor
enze
n et
al 2
011
a25
Mam
mut
hus
prim
igen
ius
50.0
719
.95
2398
028
028
812
634
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
70.5
013
4.23
2400
011
0028
557
2353
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
66.0
067
.00
2400
015
0028
171
3083
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
51.5
5-4
.24
2414
040
028
865
858
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
75.5
010
0.50
2417
011
028
961
422
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
72.2
510
9.75
2425
011
029
015
430
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
55.9
087
.95
2436
015
029
067
457
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
52.6
385
.67
2440
065
029
205
1286
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
72.4
712
8.42
2440
065
029
205
1286
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
63.8
023
.48
2445
038
529
324
869
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
51.2
939
.00
2450
045
029
345
948
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
57.2
311
2.25
2460
073
029
404
1411
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
47.6
531
.10
2460
015
029
486
567
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
50.5
072
.75
2465
030
529
452
787
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
56.3
090
.40
2465
034
029
438
819
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
74.0
310
0.00
2490
050
029
618
1051
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
79.5
296
.92
2496
021
029
861
432
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
53.3
334
.12
2496
040
029
716
893
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
52.4
512
8.11
2504
020
029
896
415
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
72.5
087
.00
2510
050
029
881
1044
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
75.2
614
4.00
2518
015
029
957
393
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
75.2
614
4.00
2520
018
029
969
420
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
70.4
513
1.00
2530
060
029
999
1112
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
56.8
553
.23
2530
040
030
165
749
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
64.4
0-1
47.0
025
362
584
3008
410
59L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s68
.92
71.0
025
400
300
3017
563
5L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s75
.26
144.
0025
540
170
3026
356
8L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s55
.90
87.9
525
660
200
3039
860
8L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s53
.00
103.
5025
700
260
3039
765
2L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s72
.83
106.
7525
800
130
3062
931
2L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s75
.26
144.
0025
800
200
3063
936
7L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s47
.14
5.57
2580
070
030
341
1110
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
70.7
213
5.42
2580
060
030
380
908
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
46.9
9-1
04.1
926
000
120
3075
430
0L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s71
.05
127.
3026
000
1600
3102
134
42L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s74
.03
100.
0026
100
170
3080
132
6L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s73
.60
100.
4826
200
150
3087
129
5L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.67
33.2
826
470
420
3092
355
6L
oren
zen
et a
l 201
1
a26
Mam
mut
hus
prim
igen
ius
43.1
112
8.91
2656
055
031
104
919
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
49.3
511
7.58
2669
513
0031
596
2821
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
53.2
6-1
.20
2670
055
031
216
958
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
73.6
010
0.48
2670
070
031
266
1476
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
75.2
614
4.00
2710
030
031
450
426
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
52.1
0-7
.50
2715
035
031
571
579
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
71.0
279
.20
2720
050
031
834
954
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
73.3
597
.00
2730
020
031
511
344
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
56.1
340
.48
2746
031
031
838
663
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
68.3
316
1.50
2747
031
031
847
667
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
73.2
897
.88
2750
030
031
862
662
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
70.4
513
1.00
2750
030
031
862
662
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
51.7
533
.08
2750
080
032
239
1674
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
53.0
010
4.40
2761
520
1532
392
4009
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
50.0
038
.00
2770
050
032
165
982
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
75.2
614
4.00
2800
020
032
208
657
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
76.0
011
3.00
2827
021
032
496
714
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
71.0
066
.50
2830
035
032
510
968
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
74.3
210
0.33
2831
017
032
555
650
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
62.4
515
0.30
2840
030
032
587
931
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
73.5
511
8.50
2840
034
032
706
1148
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
48.3
89.
7528
400
200
3263
468
9L
oren
zen
et a
l 201
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uthu
spr
imig
eniu
s50
.11
118.
0028
525
200
3275
471
9L
oren
zen
et a
l 201
1M
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uthu
spr
imig
eniu
s52
.22
-8.5
834
100
840
3891
820
11L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s43
.11
128.
9134
310
1850
3874
235
35L
oren
zen
et a
l 201
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uthu
spr
imig
eniu
s75
.00
138.
0034
400
400
3956
599
1L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s75
.26
144.
0034
500
500
3971
412
05L
oren
zen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s51
.87
-1.6
834
500
500
3971
412
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oren
zen
et a
l 201
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uthu
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imig
eniu
s70
.08
135.
3334
600
470
3974
910
98L
oren
zen
et a
l 201
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uthu
spr
imig
eniu
s68
.45
150.
4534
700
400
3978
099
5L
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zen
et a
l 201
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uthu
spr
imig
eniu
s51
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-2.6
634
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3943
228
72L
oren
zen
et a
l 201
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uthu
spr
imig
eniu
s73
.35
97.0
035
000
500
4001
211
38L
oren
zen
et a
l 201
1M
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uthu
spr
imig
eniu
s70
.45
131.
0035
000
300
4004
391
6L
oren
zen
et a
l 201
1M
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uthu
spr
imig
eniu
s51
.17
0.89
3520
016
0039
650
3017
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
75.2
614
4.00
3521
050
040
164
1160
Lor
enze
n et
al 2
011
Mam
mut
hus
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igen
ius
75.6
313
5.83
3580
070
040
603
1413
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
68.5
814
7.08
3583
063
040
677
1309
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
73.6
011
7.00
3590
050
040
841
1114
Lor
enze
n et
al 2
011
a27
Mam
mut
hus
prim
igen
ius
75.2
614
4.00
3600
050
041
031
992
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
55.0
015
9.00
3600
050
041
031
992
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
73.3
597
.00
3620
050
041
213
894
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
71.2
015
0.30
3645
042
041
474
692
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
72.1
011
1.00
3660
050
041
558
800
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
75.2
614
4.00
3670
050
041
658
776
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
75.3
010
5.00
3680
050
041
732
755
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
74.4
210
7.58
3695
045
041
829
671
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
73.3
711
0.25
3700
050
041
866
737
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
56.8
553
.23
3700
050
041
866
737
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
72.5
010
9.00
3708
046
041
920
683
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
56.8
553
.23
3730
010
0041
973
1693
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
21.3
855
.30
3760
040
042
272
602
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
72.1
610
3.00
3800
015
0042
313
2569
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
73.3
597
.00
3830
060
042
783
932
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
73.5
010
5.00
3840
070
042
911
1072
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
56.8
553
.23
3840
010
0042
908
1450
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
50.9
010
8.48
3846
011
0042
935
1590
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
73.0
610
2.16
3850
050
042
902
822
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
73.0
610
2.16
3850
060
042
952
954
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
69.6
016
4.80
3850
090
042
982
1308
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
73.0
898
.75
3880
040
043
135
723
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
75.6
310
1.80
3880
013
0043
162
1870
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
73.3
597
.00
3890
060
043
231
951
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
74.4
210
7.58
3905
058
043
329
919
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
73.3
010
5.00
3910
010
0043
351
1422
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
74.0
593
.10
3930
050
043
491
812
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
73.6
010
0.55
3930
060
043
487
929
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
53.0
012
8.68
3934
011
7043
524
1645
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
70.4
513
1.00
3940
010
0043
544
1429
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
75.5
010
0.50
3956
091
043
649
1322
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
68.4
515
8.30
3957
087
043
655
1272
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
68.4
515
8.30
3959
077
043
669
1143
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
73.0
610
2.16
3980
060
043
803
933
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
73.5
411
4.00
4010
050
044
000
837
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
73.3
597
.00
4020
060
044
076
965
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
73.5
310
0.48
4020
060
044
076
965
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
72.1
011
1.00
4030
040
044
158
734
Lor
enze
n et
al 2
011
a28
Mam
mut
hus
prim
igen
ius
71.2
015
0.30
4035
088
044
181
1299
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
75.1
011
0.30
4050
080
044
279
1209
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
74.5
310
0.50
4056
070
044
323
1095
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
68.4
515
8.30
4060
070
044
351
1096
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
55.0
015
9.00
4060
060
044
365
980
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
74.4
210
7.58
4079
097
044
457
1424
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
68.4
515
8.30
4100
090
044
598
1345
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
68.4
515
8.30
4100
011
0044
596
1631
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
73.0
610
2.16
4120
010
0044
730
1505
Lor
enze
n et
al 2
011
Mam
mut
hus
prim
igen
ius
59.0
026
.00
1010
010
011
667
379
Lou
gas
et a
l 200
2M
amm
uthu
spr
imig
eniu
s59
.00
26.0
010
200
100
1189
048
9L
ouga
s et
al 2
002
Mam
mut
hus
prim
igen
ius
59.0
026
.00
3064
083
035
042
1718
Lou
gas
et a
l 200
2M
amm
uthu
spr
imig
eniu
s52
.00
20.0
013
180
6015
962
643
Nad
acho
wsk
i et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.00
20.0
013
220
7016
054
633
Nad
acho
wsk
i et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.00
20.0
013
370
8016
262
595
Nad
acho
wsk
i et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.00
20.0
013
500
8016
611
308
Nad
acho
wsk
i et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.00
20.0
014
080
165
1721
439
8N
adac
how
ski e
t al 2
011
Mam
mut
hus
prim
igen
ius
52.0
020
.00
1414
070
1722
831
2N
adac
how
ski e
t al 2
011
Mam
mut
hus
prim
igen
ius
52.0
020
.00
1415
070
1723
631
3N
adac
how
ski e
t al 2
011
Mam
mut
hus
prim
igen
ius
52.0
020
.00
1451
070
1759
034
2N
adac
how
ski e
t al 2
011
Mam
mut
hus
prim
igen
ius
52.0
020
.00
1462
080
1789
848
5N
adac
how
ski e
t al 2
011
Mam
mut
hus
prim
igen
ius
52.0
020
.00
1870
027
022
383
863
Nad
acho
wsk
i et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.00
20.0
020
200
350
2415
585
1N
adac
how
ski e
t al 2
011
Mam
mut
hus
prim
igen
ius
52.0
020
.00
2032
012
024
194
350
Nad
acho
wsk
i et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.00
20.0
020
600
1050
2491
926
88N
adac
how
ski e
t al 2
011
Mam
mut
hus
prim
igen
ius
52.0
020
.00
2280
015
027
461
563
Nad
acho
wsk
i et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.00
20.0
023
020
180
2769
973
9N
adac
how
ski e
t al 2
011
Mam
mut
hus
prim
igen
ius
52.0
020
.00
2307
013
027
766
706
Nad
acho
wsk
i et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.00
20.0
023
540
150
2828
736
2N
adac
how
ski e
t al 2
011
Mam
mut
hus
prim
igen
ius
52.0
020
.00
2375
015
028
544
527
Nad
acho
wsk
i et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.00
20.0
023
750
150
2854
452
7N
adac
how
ski e
t al 2
011
Mam
mut
hus
prim
igen
ius
52.0
020
.00
2375
014
028
526
509
Nad
acho
wsk
i et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.00
20.0
023
770
160
2859
254
8N
adac
how
ski e
t al 2
011
Mam
mut
hus
prim
igen
ius
52.0
020
.00
2379
016
028
623
551
Nad
acho
wsk
i et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.00
20.0
024
000
300
2881
665
2N
adac
how
ski e
t al 2
011
Mam
mut
hus
prim
igen
ius
52.0
020
.00
2424
016
029
007
456
Nad
acho
wsk
i et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.00
20.0
024
460
160
2910
249
4N
adac
how
ski e
t al 2
011
Mam
mut
hus
prim
igen
ius
52.0
020
.00
2447
015
029
112
486
Nad
acho
wsk
i et a
l 201
1
a29
Mam
mut
hus
prim
igen
ius
52.0
020
.00
2460
017
029
490
631
Nad
acho
wsk
i et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.00
20.0
024
625
180
2953
663
1N
adac
how
ski e
t al 2
011
Mam
mut
hus
prim
igen
ius
52.0
020
.00
2470
018
029
682
527
Nad
acho
wsk
i et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.00
20.0
024
850
200
2979
745
4N
adac
how
ski e
t al 2
011
Mam
mut
hus
prim
igen
ius
52.0
020
.00
2498
020
029
871
418
Nad
acho
wsk
i et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.00
20.0
025
000
200
2987
941
6N
adac
how
ski e
t al 2
011
Mam
mut
hus
prim
igen
ius
52.0
020
.00
2522
020
029
985
445
Nad
acho
wsk
i et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.00
20.0
025
300
300
3009
860
6N
adac
how
ski e
t al 2
011
Mam
mut
hus
prim
igen
ius
52.0
020
.00
2565
019
030
394
600
Nad
acho
wsk
i et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.00
20.0
025
910
160
3069
333
0N
adac
how
ski e
t al 2
011
Mam
mut
hus
prim
igen
ius
52.0
020
.00
2691
013
031
267
183
Nad
acho
wsk
i et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.00
20.0
026
940
180
3128
921
5N
adac
how
ski e
t al 2
011
Mam
mut
hus
prim
igen
ius
52.0
020
.00
2744
025
031
718
534
Nad
acho
wsk
i et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.00
20.0
030
500
900
3489
719
20N
adac
how
ski e
t al 2
011
Mam
mut
hus
prim
igen
ius
52.0
020
.00
3228
022
036
887
517
Nad
acho
wsk
i et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.00
20.0
032
500
400
3742
210
37N
adac
how
ski e
t al 2
011
Mam
mut
hus
prim
igen
ius
52.0
020
.00
3250
040
037
422
1037
Nad
acho
wsk
i et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.00
20.0
032
500
700
3706
317
15N
adac
how
ski e
t al 2
011
Mam
mut
hus
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igen
ius
52.0
020
.00
3364
025
038
264
786
Nad
acho
wsk
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l 201
1M
amm
uthu
spr
imig
eniu
s52
.00
20.0
035
790
550
4069
011
91N
adac
how
ski e
t al 2
011
Mam
mut
hus
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igen
ius
52.0
020
.00
3590
070
040
692
1406
Nad
acho
wsk
i et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.00
20.0
039
000
1000
4328
814
21N
adac
how
ski e
t al 2
011
Mam
mut
hus
prim
igen
ius
52.0
020
.00
4000
010
0043
953
1441
Nad
acho
wsk
i et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.00
20.0
043
000
2000
4686
731
17N
adac
how
ski e
t al 2
011
Mam
mut
hus
prim
igen
ius
52.0
020
.00
4410
012
0047
567
2184
Nad
acho
wsk
i et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.00
20.0
045
400
1700
4790
620
94N
adac
how
ski e
t al 2
011
Mam
mut
hus
prim
igen
ius
71.0
017
9.00
3685
6040
3718
7O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s71
.00
179.
0037
3040
4082
148
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
71.0
017
9.00
3920
3043
3790
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
71.0
017
9.00
4010
5045
4324
6O
rlov
a 20
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amm
uthu
spr
imig
eniu
s71
.00
179.
0040
4030
4602
179
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
71.0
017
9.00
4370
7050
5722
5O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s71
.00
179.
0044
0040
5062
205
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
71.0
017
9.00
4410
5050
6921
1O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s71
.00
179.
0047
4040
5456
130
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
71.0
017
9.00
4900
4056
5265
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
71.0
017
9.00
5110
4058
3892
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
71.0
017
9.00
5200
3059
5344
Orl
ova
2004
a30
Mam
mut
hus
prim
igen
ius
71.0
017
9.00
5250
4060
5012
8O
rlov
a 20
04M
amm
uthu
spr
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s71
.00
179.
0053
1090
6101
179
Orl
ova
2004
Mam
mut
hus
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igen
ius
71.0
017
9.00
5480
5062
9310
4O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s71
.00
179.
0062
6050
7147
139
Orl
ova
2004
Mam
mut
hus
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igen
ius
71.0
017
9.00
6360
6072
9612
4O
rlov
a 20
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amm
uthu
spr
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eniu
s71
.00
179.
0066
1050
7502
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rlov
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amm
uthu
spr
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179.
0067
5030
7618
45O
rlov
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uthu
spr
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179.
0067
6050
7601
84O
rlov
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amm
uthu
spr
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s71
.00
179.
0068
9050
7728
106
Orl
ova
2004
Mam
mut
hus
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igen
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71.0
017
9.00
7040
6078
5012
3O
rlov
a 20
04M
amm
uthu
spr
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s71
.00
179.
0072
5060
8071
106
Orl
ova
2004
Mam
mut
hus
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igen
ius
71.0
017
9.00
7295
9581
4018
6O
rlov
a 20
04M
amm
uthu
spr
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eniu
s71
.00
179.
0073
6050
8177
140
Orl
ova
2004
Mam
mut
hus
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igen
ius
71.0
017
9.00
7710
4084
9883
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
74.8
310
6.17
1007
060
1164
831
4O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s73
.58
101.
1310
200
4011
910
155
Orl
ova
2004
Mam
mut
hus
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igen
ius
76.8
010
4.58
1027
040
1209
727
4O
rlov
a 20
04M
amm
uthu
spr
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eniu
s75
.35
105.
5010
270
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1196
955
9O
rlov
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spr
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s70
.55
149.
0510
370
7012
257
268
Orl
ova
2004
Mam
mut
hus
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igen
ius
74.5
798
.50
1079
010
012
735
186
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
61.0
568
.57
1082
017
012
759
368
Orl
ova
2004
Mam
mut
hus
prim
igen
ius
74.4
210
7.58
1194
040
1380
313
6O
rlov
a 20
04M
amm
uthu
spr
imig
eniu
s55
.33
92.4
711
980
155
1381
440
3O
rlov
a 20
04M
amm
uthu
spr
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eniu
s71
.00
179.
0012
010
110
1387
427
7O
rlov
a 20
04M
amm
uthu
spr
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eniu
s60
.95
68.5
312
830
350
1537
012
76O
rlov
a 20
04b
Mam
mut
hus
prim
igen
ius
60.9
568
.53
1297
016
015
756
741
Orl
ova
2004
bM
amm
uthu
spr
imig
eniu
s60
.95
68.5
313
205
6016
034
623
Orl
ova
2004
bM
amm
uthu
spr
imig
eniu
s60
.95
68.5
313
450
5016
590
293
Orl
ova
2004
bM
amm
uthu
spr
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eniu
s60
.95
68.5
313
455
6016
575
315
Orl
ova
2004
bM
amm
uthu
spr
imig
eniu
s60
.95
68.5
313
465
5016
613
269
Orl
ova
2004
bM
amm
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spr
imig
eniu
s60
.95
68.5
313
490
155
1629
866
7O
rlov
a 20
04b
Mam
mut
hus
prim
igen
ius
60.9
568
.53
1372
016
016
801
408
Orl
ova
2004
bM
amm
uthu
spr
imig
eniu
s76
.07
99.8
096
7060
1100
021
6S
tuar
t et a
l 200
2M
amm
uthu
spr
imig
eniu
s59
.13
37.9
097
6040
1118
955
Stu
art e
t al 2
002
Mam
mut
hus
prim
igen
ius
72.2
711
2.37
9780
4011
207
45S
tuar
t et a
l 200
2M
amm
uthu
spr
imig
eniu
s59
.13
37.9
098
1010
011
203
411
Stu
art e
t al 2
002
Mam
mut
hus
prim
igen
ius
59.1
337
.90
9840
5011
281
100
Stu
art e
t al 2
002
Mam
mut
hus
prim
igen
ius
76.0
799
.80
9860
5011
295
98S
tuar
t et a
l 200
2
a31
Mam
mut
hus
prim
igen
ius
71.1
676
.92
1000
070
1150
626
1S
tuar
t et a
l 200
2M
amm
uthu
spr
imig
eniu
s75
.10
110.
3010
100
100
1166
737
9S
tuar
t et a
l 200
2M
amm
uthu
spr
imig
eniu
s76
.07
99.8
010
300
100
1211
740
9S
tuar
t et a
l 200
2M
amm
uthu
spr
imig
eniu
s70
.31
68.1
610
350
5012
208
198
Stu
art e
t al 2
002
Mam
mut
hus
prim
igen
ius
71.3
671
.70
1042
013
012
217
392
Stu
art e
t al 2
002
Mam
mut
hus
prim
igen
ius
71.1
676
.92
1046
012
012
302
318
Stu
art e
t al 2
002
Mam
mut
hus
prim
igen
ius
74.6
510
0.52
1068
070
1258
715
8S
tuar
t et a
l 200
2M
amm
uthu
spr
imig
eniu
s55
.00
82.6
411
090
120
1294
926
9S
tuar
t et a
l 200
2M
amm
uthu
spr
imig
eniu
s74
.15
100.
0011
140
180
1299
133
6S
tuar
t et a
l 200
2M
amm
uthu
spr
imig
eniu
s75
.15
96.0
011
450
250
1328
651
9S
tuar
t et a
l 200
2M
amm
uthu
spr
imig
eniu
s79
.44
98.0
011
500
610
1344
517
89S
tuar
t et a
l 200
2M
amm
uthu
spr
imig
eniu
s48
.65
2.48
1200
022
014
099
744
Stu
art e
t al 2
002
Mam
mut
hus
prim
igen
ius
74.1
510
0.00
1210
080
1396
319
5S
tuar
t et a
l 200
2M
amm
uthu
spr
imig
eniu
s54
.00
-4.0
012
170
130
1429
756
1S
tuar
t et a
l 200
2M
amm
uthu
spr
imig
eniu
s53
.21
34.3
212
200
300
1429
586
5S
tuar
t et a
l 200
2M
amm
uthu
spr
imig
eniu
s75
.50
112.
0012
260
120
1437
053
1S
tuar
t et a
l 200
2M
amm
uthu
spr
imig
eniu
s52
.59
13.2
712
270
210
1441
766
0S
tuar
t et a
l 200
2M
amm
uthu
spr
imig
eniu
s54
.00
-4.0
012
300
180
1443
060
8S
tuar
t et a
l 200
2M
amm
uthu
spr
imig
eniu
s54
.00
-4.0
012
320
120
1444
952
7S
tuar
t et a
l 200
2M
amm
uthu
spr
imig
eniu
s54
.00
-4.0
012
330
120
1446
252
5S
tuar
t et a
l 200
2M
amm
uthu
spr
imig
eniu
s75
.50
112.
0012
450
120
1458
050
1S
tuar
t et a
l 200
2M
amm
uthu
spr
imig
eniu
s54
.00
-4.0
012
460
160
1458
256
2S
tuar
t et a
l 200
2M
amm
uthu
spr
imig
eniu
s53
.24
34.1
912
630
360
1514
213
05S
tuar
t et a
l 200
2M
amm
uthu
spr
imig
eniu
s50
.04
31.8
912
700
200
1510
799
2S
tuar
t et a
l 200
2M
amm
uthu
spr
imig
eniu
s70
.80
106.
5012
780
8015
278
567
Stu
art e
t al 2
002
Mam
mut
hus
prim
igen
ius
49.6
231
.42
1290
020
015
576
959
Stu
art e
t al 2
002
Mam
mut
hus
prim
igen
ius
53.2
434
.19
1297
014
015
749
696
Stu
art e
t al 2
002
Mam
mut
hus
prim
igen
ius
62.0
015
.00
1309
012
015
847
674
Stu
art e
t al 2
002
Mam
mut
hus
prim
igen
ius
62.0
015
.00
1326
011
016
097
683
Stu
art e
t al 2
002
Mam
mut
hus
prim
igen
ius
62.0
015
.00
1336
095
1623
461
3S
tuar
t et a
l 200
2M
amm
uthu
spr
imig
eniu
s46
.08
5.40
1339
030
016
071
916
Stu
art e
t al 2
002
Mam
mut
hus
prim
igen
ius
47.7
48.
6913
980
110
1711
831
6S
tuar
t et a
l 200
2M
amm
uthu
spr
imig
eniu
s51
.50
10.5
014
100
100
1720
033
1S
tuar
t et a
l 200
2M
amm
uthu
spr
imig
eniu
s51
.50
10.5
014
380
100
1750
137
3S
tuar
t et a
l 200
2M
amm
uthu
spr
imig
eniu
s51
.50
10.5
014
570
9017
639
380
Stu
art e
t al 2
002
Mam
mut
hus
prim
igen
ius
64.0
026
.00
1550
020
018
692
590
Stu
art e
t al 2
002
Mam
mut
hus
prim
igen
ius
40.0
0-4
.00
1970
050
023
513
1209
Stu
art e
t al 2
002
Mam
mut
hus
prim
igen
ius
53.0
0-8
.00
2063
022
024
548
573
Stu
art e
t al 2
002
a32
Mam
mut
hus
prim
igen
ius
44.8
911
.45
3383
069
038
628
1784
Stu
art e
t al 2
002
Mam
mut
hus
prim
igen
ius
44.8
911
.45
3580
050
040
741
1105
Stu
art e
t al 2
002
Mam
mut
hus
prim
igen
ius
57.0
025
.00
1031
070
1211
729
2U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
52.0
020
.00
1258
570
1470
947
0U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
57.0
025
.00
1287
570
1551
954
1U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
62.0
015
.00
1331
060
1620
859
3U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
56.0
024
.00
1380
080
1692
019
9U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
51.5
010
.50
1447
014
017
566
419
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s56
.00
10.0
019
940
120
2383
541
3U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
52.0
020
.00
2060
010
5024
919
2688
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s56
.00
24.0
021
400
120
2554
544
7U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
56.0
010
.00
2153
043
025
739
1231
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s64
.00
26.0
022
420
315
2703
688
2U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
52.0
020
.00
2280
015
027
461
563
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s56
.00
10.0
022
900
150
2752
759
0U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
64.0
026
.00
2334
035
027
991
1021
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.00
20.0
023
750
150
2854
452
7U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
52.0
020
.00
2375
015
028
544
527
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s51
.50
10.5
023
900
130
2878
547
1U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
56.0
010
.00
2419
042
029
079
1039
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s64
.00
26.0
024
450
385
2932
486
9U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
52.0
020
.00
2462
518
029
536
631
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s52
.00
20.0
024
700
180
2968
252
7U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
62.0
015
.00
2475
020
029
720
519
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s56
.00
10.0
025
110
440
2996
593
0U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
56.0
010
.00
2548
056
0/52
030
224
942
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s59
.00
26.0
025
630
170
3038
258
3U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
56.0
010
.00
2576
084
030
101
1440
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s57
.00
25.0
025
800
170
3063
434
0U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
62.0
015
.00
2590
020
030
686
357
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s56
.00
10.0
026
060
1070
3063
421
22U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
62.0
015
.00
2615
020
030
818
343
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s56
.00
10.0
026
400
200
3096
930
4U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
51.5
010
.50
2734
016
031
504
299
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s56
.00
10.0
027
810
610
3234
212
53U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
57.0
025
.00
2785
020
032
082
619
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s51
.50
10.5
027
950
550
3238
611
92U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
56.0
010
.00
2812
076
032
843
1596
Ukk
onen
et a
l 201
1
a33
Mam
mut
hus
prim
igen
ius
51.5
010
.50
2818
018
032
386
672
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s51
.50
10.5
028
500
550
3302
614
17U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
64.0
026
.00
2874
067
033
120
1491
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s59
.00
26.0
028
780
160
3354
186
1U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
62.0
015
.00
2945
030
034
011
691
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s62
.00
15.0
029
500
250
3406
563
4U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
56.0
010
.00
2957
095
033
985
2267
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s56
.00
24.0
030
350
250
3492
038
9U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
57.0
025
.00
3042
077
034
934
1617
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s62
.00
15.0
031
050
300
3565
871
2U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
56.0
010
.00
3184
010
1036
685
2067
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s64
.00
26.0
031
970
950
3673
219
63U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
51.5
010
.50
3230
070
036
925
1676
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s56
.00
10.0
032
460
970
3708
721
38U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
56.0
010
.00
3327
035
037
864
938
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s56
.00
24.0
033
650
300
3827
692
0U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
56.0
024
.00
3374
038
038
415
1191
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s62
.00
15.0
033
850
700
3864
818
02U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
62.0
015
.00
3450
040
039
629
977
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s56
.00
10.0
034
640
1830
3901
135
91U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
59.0
026
.00
3481
034
039
849
943
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s51
.50
10.5
035
710
440
4070
010
24U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
62.0
015
.00
3600
015
5040
296
2977
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s62
.00
15.0
037
700
600
4233
485
3U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
56.0
024
.00
3805
070
042
614
1054
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s51
.50
10.5
039
080
570
4334
990
6U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
62.0
015
.00
4020
080
044
083
1200
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s56
.00
24.0
040
600
800
4434
412
11U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
57.0
025
.00
4070
080
044
409
1213
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s57
.00
25.0
040
850
750
4451
911
55U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
59.0
026
.00
4090
060
044
609
959
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s56
.00
24.0
040
900
650
4458
610
27U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
62.0
015
.00
4100
014
0044
662
2208
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s56
.00
24.0
041
350
800
4489
912
07U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
56.0
010
.00
4150
070
045
068
1013
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s59
.00
26.0
042
200
650
4551
099
1U
kkon
en e
t al 2
011
Mam
mut
hus
prim
igen
ius
56.0
024
.00
4230
010
0045
888
1810
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s51
.50
10.5
043
230
980
4680
719
97U
kkon
en e
t al 2
011
a34
Mam
mut
hus
prim
igen
ius
51.5
010
.50
4482
012
1048
011
1990
Ukk
onen
et a
l 201
1M
amm
uthu
spr
imig
eniu
s56
.00
24.0
046
300
1100
4847
815
23U
kkon
en e
t al 2
011
Meg
aloc
eros
giga
nteu
s56
.84
62.7
168
1635
7642
55S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
56.8
462
.71
6881
3877
0886
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s56
.09
64.4
969
6833
7812
112
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s56
.09
64.4
970
3434
7867
74S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
55.7
260
.07
7990
4588
3117
6S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
56.3
257
.65
9960
5511
468
227
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s55
.35
86.0
810
055
4511
575
236
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s54
.00
-4.0
010
257
7512
051
335
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s55
.15
58.4
710
260
5512
070
306
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s54
.00
-4.0
010
585
6512
454
216
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s53
.00
-8.0
010
610
495
1213
513
12S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
56.0
010
.00
1067
011
512
521
351
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s54
.25
-4.5
010
780
9512
726
175
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s57
.48
60.2
010
825
6512
735
149
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s56
.00
10.0
010
870
110
1282
324
4S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
62.0
015
.00
1090
010
012
834
234
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s53
.00
-8.0
010
920
250
1273
758
1S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
53.0
0-8
.00
1096
011
012
866
232
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s53
.00
-8.0
010
985
4512
873
196
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s53
.00
-8.0
011
110
110
1296
526
2S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
54.2
5-4
.50
1113
045
1298
217
8S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
54.2
5-4
.50
1115
964
1302
321
4S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
62.0
015
.00
1133
011
013
181
239
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s56
.00
10.0
011
340
8013
239
151
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s62
.00
15.0
011
345
6013
227
119
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s56
.00
10.0
011
350
115
1319
724
6S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
53.0
0-8
.00
1138
028
013
229
550
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s62
.00
15.0
011
490
105
1336
722
9S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
54.2
5-4
.50
1149
595
1336
921
4S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
54.2
5-4
.50
1149
565
1334
214
9S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
53.0
0-8
.00
1151
010
013
386
225
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s54
.25
-4.5
011
550
6013
422
157
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s51
.50
10.5
011
555
100
1344
223
0S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
54.2
5-4
.50
1157
560
1344
216
3S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
51.5
010
.50
1160
010
513
490
230
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s56
.00
10.0
011
630
120
1351
324
6S
tuar
t et a
l 200
4
a35
Meg
aloc
eros
giga
nteu
s54
.25
-4.5
011
650
5513
511
172
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s53
.00
-8.0
011
730
7013
582
181
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s53
.00
-8.0
011
750
9013
597
204
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s56
.00
10.0
011
800
9013
629
208
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s53
.00
-8.0
011
820
120
1365
626
0S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
56.0
010
.00
1185
070
1366
119
7S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
56.0
010
.00
1187
570
1368
320
6S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
54.0
0-4
.00
1198
570
1384
817
6S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
56.0
010
.00
1200
565
1387
315
8S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
54.2
5-4
.50
1202
065
1388
315
6S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
51.5
010
.50
1205
070
1391
317
2S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
54.2
5-4
.50
1213
060
1398
217
3S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
54.0
0-4
.00
1218
010
014
281
514
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s54
.00
-4.0
012
210
8014
299
491
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s54
.25
-4.5
012
275
5014
388
455
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s54
.25
-4.5
012
455
6514
585
435
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s54
.00
-4.0
012
850
250
1537
211
32S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
40.0
0-4
.00
2100
040
2508
535
5S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
54.0
0-4
.00
2308
026
027
732
767
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s50
.83
4.00
2384
026
028
688
640
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s44
.89
11.4
525
000
180
2987
739
9S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
51.5
010
.50
2611
031
030
765
432
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s54
.00
-4.0
030
450
750
3496
615
74S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
50.8
34.
0031
590
200
3594
964
7S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
56.0
010
.00
3172
098
036
623
2022
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s46
.62
1.48
3200
090
036
752
1893
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s53
.00
-8.0
032
060
630
3675
616
29S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
44.8
911
.45
3206
071
036
775
1680
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s47
.27
15.3
332
200
2100
3693
444
30S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
53.0
0-8
.00
3230
016
0037
195
3544
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s44
.89
11.4
533
700
350
3837
010
79S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
45.5
410
.88
3465
045
039
770
1061
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s53
.00
-8.0
037
200
2000
4128
636
19S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
50.7
319
.30
3750
045
042
206
663
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s53
.18
44.0
239
290
350
4348
965
7S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
53.1
844
.02
4135
045
044
963
686
Stu
art e
t al 2
004
Meg
aloc
eros
giga
nteu
s40
.00
-4.0
042
200
2400
4623
836
33S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
52.0
020
.00
4270
070
045
981
1269
Stu
art e
t al 2
004
a36
Meg
aloc
eros
giga
nteu
s52
.00
20.0
043
300
2700
4656
734
34S
tuar
t et a
l 200
4M
egal
ocer
osgi
gant
eus
52.0
020
.00
4390
010
0047
378
2027
Stu
art e
t al 2
004
Pan
ther
asp
elae
a48
.87
2.15
1224
866
1435
148
0S
tuar
t & L
iste
r 20
11P
anth
era
spel
aea
48.0
99.
1612
375
5014
496
422
Stu
art &
Lis
ter
2011
Pan
ther
asp
elae
a72
.00
127.
0012
450
6014
580
430
Stu
art &
Lis
ter
2011
Pan
ther
asp
elae
a62
.20
146.
7812
525
5014
660
430
Stu
art &
Lis
ter
2011
Pan
ther
asp
elae
a47
.15
5.73
1256
550
1470
245
9S
tuar
t & L
iste
r 20
11P
anth
era
spel
aea
59.3
057
.83
1350
065
1663
626
3S
tuar
t & L
iste
r 20
11P
anth
era
spel
aea
58.8
757
.60
1356
070
1668
923
7S
tuar
t & L
iste
r 20
11P
anth
era
spel
aea
59.8
057
.67
1357
070
1669
923
4S
tuar
t & L
iste
r 20
11P
anth
era
spel
aea
70.8
515
3.70
1377
055
1689
117
0S
tuar
t & L
iste
r 20
11P
anth
era
spel
aea
43.2
8-2
.32
1377
012
016
899
267
Stu
art &
Lis
ter
2011
Pan
ther
asp
elae
a54
.80
32.0
014
055
6017
155
295
Stu
art &
Lis
ter
2011
Pan
ther
asp
elae
a58
.67
57.5
714
750
7018
057
420
Stu
art &
Lis
ter
2011
Pan
ther
asp
elae
a48
.45
15.4
015
400
130
1852
337
2S
tuar
t & L
iste
r 20
11P
anth
era
spel
aea
50.5
811
5.40
1791
075
2134
524
0S
tuar
t & L
iste
r 20
11P
anth
era
spel
aea
56.1
593
.11
1791
570
2135
322
7S
tuar
t & L
iste
r 20
11P
anth
era
spel
aea
51.7
910
2.67
1835
075
2188
335
6S
tuar
t & L
iste
r 20
11P
anth
era
spel
aea
70.7
014
3.04
1972
575
2358
530
7S
tuar
t & L
iste
r 20
11P
anth
era
spel
aea
70.7
014
3.04
1975
580
2361
030
4S
tuar
t & L
iste
r 20
11P
anth
era
spel
aea
55.3
092
.47
2008
580
2402
733
2S
tuar
t & L
iste
r 20
11P
anth
era
spel
aea
52.9
010
3.60
2150
010
025
646
453
Stu
art &
Lis
ter
2011
Pan
ther
asp
elae
a53
.49
85.9
222
080
8026
524
376
Stu
art &
Lis
ter
2011
Pan
ther
asp
elae
a51
.40
39.0
023
080
100
2801
840
9S
tuar
t & L
iste
r 20
11P
anth
era
spel
aea
51.4
039
.00
2319
012
028
091
379
Stu
art &
Lis
ter
2011
Pan
ther
asp
elae
a51
.40
39.0
023
400
100
2821
632
5S
tuar
t & L
iste
r 20
11P
anth
era
spel
aea
50.8
320
.50
2519
035
030
055
677
Stu
art &
Lis
ter
2011
Pan
ther
asp
elae
a55
.15
91.5
425
700
130
3056
530
6S
tuar
t & L
iste
r 20
11P
anth
era
spel
aea
50.2
24.
9025
980
340
3070
851
2S
tuar
t & L
iste
r 20
11P
anth
era
spel
aea
70.7
213
5.08
2605
024
030
753
378
Stu
art &
Lis
ter
2011
Pan
ther
asp
elae
a70
.56
149.
7127
720
140
3189
648
2S
tuar
t & L
iste
r 20
11P
anth
era
spel
aea
68.0
015
6.00
2795
014
032
133
578
Stu
art &
Lis
ter
2011
Pan
ther
asp
elae
a42
.82
10.8
228
310
5032
550
505
Stu
art &
Lis
ter
2011
Pan
ther
asp
elae
a71
.81
129.
3528
450
140
3271
059
3S
tuar
t & L
iste
r 20
11P
anth
era
spel
aea
48.5
044
.00
2848
020
032
708
700
Stu
art &
Lis
ter
2011
Pan
ther
asp
elae
a71
.81
129.
3528
550
140
3283
858
0S
tuar
t & L
iste
r 20
11P
anth
era
spel
aea
68.0
015
6.00
2872
016
033
300
762
Stu
art &
Lis
ter
2011
Pan
ther
asp
elae
a60
.04
60.0
529
120
230
3385
068
7S
tuar
t & L
iste
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11
a37
Pan
ther
asp
elae
a60
.40
60.0
530
140
240
3482
334
9S
tuar
t & L
iste
r 20
11P
anth
era
spel
aea
43.0
523
.40
3120
033
035
737
721
Stu
art &
Lis
ter
2011
Pan
ther
asp
elae
a49
.51
6.26
3169
050
036
079
1086
Stu
art &
Lis
ter
2011
Pan
ther
asp
elae
a47
.58
12.1
731
890
300
3615
083
3S
tuar
t & L
iste
r 20
11P
anth
era
spel
aea
45.0
822
.80
3250
045
037
434
1135
Stu
art &
Lis
ter
2011
Pan
ther
asp
elae
a45
.08
22.8
033
150
500
3776
911
07S
tuar
t & L
iste
r 20
11P
anth
era
spel
aea
51.7
610
.84
3464
536
539
717
939
Stu
art &
Lis
ter
2011
Pan
ther
asp
elae
a55
.30
92.4
735
390
280
4046
581
6S
tuar
t & L
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r 20
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anth
era
spel
aea
53.2
6-1
.20
3565
045
040
619
1057
Stu
art &
Lis
ter
2011
Pan
ther
asp
elae
a55
.30
92.4
735
750
400
4086
590
0S
tuar
t & L
iste
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11P
anth
era
spel
aea
69.6
016
7.73
3655
029
041
578
481
Stu
art &
Lis
ter
2011
Pan
ther
asp
elae
a46
.55
22.5
738
600
1000
4303
814
35S
tuar
t & L
iste
r 20
11P
anth
era
spel
aea
51.1
322
.28
3865
060
043
063
958
Stu
art &
Lis
ter
2011
Pan
ther
asp
elae
a50
.07
19.7
238
800
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4316
315
64S
tuar
t & L
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anth
era
spel
aea
46.5
522
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3900
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0043
288
1421
Stu
art &
Lis
ter
2011
Pan
ther
asp
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a50
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107.
9040
210
350
4409
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8S
tuar
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anth
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54.9
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4190
012
0045
473
2172
Stu
art &
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ter
2011
Pan
ther
asp
elae
a52
.02
3.82
4223
057
045
522
882
Stu
art &
Lis
ter
2011
Pan
ther
asp
elae
a48
.67
40.8
642
400
1800
4628
531
14S
tuar
t & L
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anth
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spel
aea
50.4
7-3
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4360
036
0045
998
4003
Stu
art &
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ter
2011
Pan
ther
asp
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a51
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6.02
4485
065
048
043
1633
Stu
art &
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ter
2011
Pan
ther
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156.
0046
200
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4820
717
93S
tuar
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41.9
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031
587
309
Bon
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41.9
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2823
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Bon
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41.9
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015
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Bon
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41.9
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2012
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2012
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2012
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2012
Urs
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Kov
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2012
Urs
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531
Pac
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47.5
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Pac
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46.4
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Pac
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Pac
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47.9
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48.4
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Urs
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Pac
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Urs
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243
666
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
48.2
29.
4528
060
170
3225
363
6P
ache
r &
Stu
art 2
008
Urs
ussp
elae
us47
.57
14.0
028
130
600
3268
214
05P
ache
r &
Stu
art 2
008
Urs
ussp
elae
us48
.22
9.45
2817
018
032
372
670
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
48.2
29.
4528
170
220
3237
672
1P
ache
r &
Stu
art 2
008
Urs
ussp
elae
us48
.22
9.45
2835
022
032
578
727
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
48.4
09.
7728
780
730
3312
215
44P
ache
r &
Stu
art 2
008
Urs
ussp
elae
us44
.53
5.90
2885
017
033
634
788
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
44.5
35.
9028
930
160
3372
571
0P
ache
r &
Stu
art 2
008
Urs
ussp
elae
us46
.44
14.6
729
130
530
3347
812
77P
ache
r &
Stu
art 2
008
a39
Urs
ussp
elae
us46
.44
14.6
729
310
750
3345
916
65P
ache
r &
Stu
art 2
008
Urs
ussp
elae
us48
.40
9.77
2939
021
034
019
604
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
46.4
414
.67
2960
029
034
106
682
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
46.4
414
.67
2981
027
034
300
668
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
46.5
515
.52
3005
034
034
458
752
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
44.5
35.
9030
360
180
3489
227
4P
ache
r &
Stu
art 2
008
Urs
ussp
elae
us44
.53
5.90
3036
018
034
892
274
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
44.5
35.
9030
430
190
3492
730
9P
ache
r &
Stu
art 2
008
Urs
ussp
elae
us47
.92
14.3
830
550
260
3540
679
3P
ache
r &
Stu
art 2
008
Urs
ussp
elae
us44
.53
5.90
3069
019
035
462
746
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
46.4
414
.67
3098
031
035
617
730
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
44.5
35.
9031
020
350
3563
775
7P
ache
r &
Stu
art 2
008
Urs
ussp
elae
us48
.40
9.77
3109
020
035
675
633
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
47.6
514
.25
3114
031
035
706
710
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
46.4
414
.67
3173
020
036
051
655
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
47.2
215
.35
3180
033
0036
473
6183
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
59.0
657
.65
3187
019
036
179
618
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
46.3
216
.74
3199
030
036
331
914
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
47.6
814
.30
3201
032
036
373
976
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
47.6
814
.30
3219
033
036
628
1069
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
47.1
46.
2232
400
400
3710
813
68P
ache
r &
Stu
art 2
008
Urs
ussp
elae
us46
.30
14.5
532
550
220
3718
566
0P
ache
r &
Stu
art 2
008
Urs
ussp
elae
us47
.22
15.3
532
570
380
3746
298
4P
ache
r &
Stu
art 2
008
Urs
ussp
elae
us46
.92
6.69
3303
042
037
702
994
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
48.4
09.
7733
350
240
3801
578
1P
ache
r &
Stu
art 2
008
Urs
ussp
elae
us47
.57
14.0
033
500
240
3815
175
1P
ache
r &
Stu
art 2
008
Urs
ussp
elae
us49
.55
11.6
034
710
300
3974
487
0P
ache
r &
Stu
art 2
008
Urs
ussp
elae
us42
.68
-7.3
835
220
1440
3965
227
84P
ache
r &
Stu
art 2
008
Urs
ussp
elae
us42
.68
-7.1
335
230
1430
3966
127
71P
ache
r &
Stu
art 2
008
Urs
ussp
elae
us50
.45
5.01
3547
178
040
341
1511
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
46.6
87.
5735
570
650
4042
813
55P
ache
r &
Stu
art 2
008
Urs
ussp
elae
us45
.68
5.83
3561
030
040
787
713
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
46.4
414
.67
3572
060
040
596
1281
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
48.3
89.
7535
770
340
4092
373
1P
ache
r &
Stu
art 2
008
Urs
ussp
elae
us43
.60
22.2
635
780
320
4094
168
6P
ache
r &
Stu
art 2
008
Urs
ussp
elae
us59
.06
57.6
536
390
270
4148
547
3P
ache
r &
Stu
art 2
008
Urs
ussp
elae
us47
.78
12.5
036
610
300
4161
448
9P
ache
r &
Stu
art 2
008
Urs
ussp
elae
us47
.68
14.3
037
310
580
4207
183
0P
ache
r &
Stu
art 2
008
a40
Urs
ussp
elae
us47
.22
15.3
537
400
1500
4173
526
24P
ache
r &
Stu
art 2
008
Urs
ussp
elae
us44
.53
5.90
3741
029
042
147
487
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
48.4
09.
7738
010
550
4254
079
8P
ache
r &
Stu
art 2
008
Urs
ussp
elae
us50
.45
5.01
3877
010
3043
145
1467
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
46.3
216
.74
3877
050
043
137
847
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
47.2
315
.34
3881
068
043
170
1040
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
57.7
758
.42
3919
036
043
425
672
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
47.3
315
.38
3942
094
043
552
1355
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
47.7
812
.50
3952
041
043
631
708
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
57.7
758
.42
3958
036
043
670
656
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
57.7
758
.42
3963
036
043
701
656
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
46.1
314
.00
3990
014
0043
880
1963
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
46.1
314
.00
4030
010
0044
147
1444
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
57.7
758
.42
4034
037
044
198
696
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
46.1
314
.00
4060
010
0044
336
1453
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
47.6
814
.30
4106
092
044
638
1376
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
46.3
216
.74
4110
093
044
664
1392
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
45.0
521
.82
4209
038
845
428
658
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
47.8
314
.17
4229
087
045
710
1464
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
47.7
812
.50
4236
055
045
614
873
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
47.2
215
.35
4240
015
0046
229
2787
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
46.3
216
.74
4262
011
5046
375
2203
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
46.3
216
.74
4266
090
046
147
1711
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
45.0
521
.82
4290
015
0046
762
2705
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
46.1
314
.00
4300
030
0046
258
3743
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
48.6
715
.86
4300
070
046
332
1415
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
46.3
216
.74
4323
012
0046
908
2296
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
47.6
514
.25
4361
080
047
057
1762
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
47.6
514
.25
4370
012
7047
280
2321
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
47.6
814
.30
4416
011
9047
610
2164
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
46.6
512
.13
4426
090
047
624
1901
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
47.6
814
.30
4440
013
8047
791
2210
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
46.3
014
.55
4480
019
0047
617
2383
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
46.3
216
.74
4521
012
2048
118
1883
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
46.3
014
.55
4540
016
0047
963
2038
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
47.6
814
.30
4541
015
6047
987
2013
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
46.1
314
.00
4590
018
0047
971
2029
Pac
her
& S
tuar
t 200
8U
rsus
spel
aeus
45.0
521
.82
4595
811
6248
348
1653
Pac
her
& S
tuar
t 200
8
a41
Tab
le S
5 - M
egaf
auna
l dat
es fr
om J
apan
tha
t wer
e ac
cept
ed a
ccor
ding
to a
utho
rs' c
rite
ria
(see
Met
hods
; Tab
le 1
).
Gen
usSp
ecie
s14
Cer
ror
14C
(2σ)
erro
r (2σ)
Sour
ce r
efer
ence
Bis
onsp
.17
900
9021
318
299
Iwas
e et
al 2
012
Cer
vus
sp.
1397
090
1710
631
0Iw
ase
et a
l 201
2M
amm
uthu
spr
imig
eniu
s19
530
8023
198
508
Iwas
e et
al 2
012
Mam
mut
hus
prim
igen
ius
2024
367
024
165
1692
Iwas
e et
al 2
012
Mam
mut
hus
prim
igen
ius
2070
012
024
700
331
Iwas
e et
al 2
012
Mam
mut
hus
prim
igen
ius
2368
088
028
267
2016
Iwas
e et
al 2
012
Mam
mut
hus
prim
igen
ius
2381
688
428
355
2039
Iwas
e et
al 2
012
Mam
mut
hus
prim
igen
ius
2501
012
029
876
359
Iwas
e et
al 2
012
Mam
mut
hus
prim
igen
ius
3740
025
042
138
447
Iwas
e et
al 2
012
Mam
mut
hus
prim
igen
ius
3892
076
043
233
1126
Iwas
e et
al 2
012
Mam
mut
hus
prim
igen
ius
4285
051
045
997
926
Iwas
e et
al 2
012
Mam
mut
hus
prim
igen
ius
4511
048
048
286
1455
Iwas
e et
al 2
012
Pal
aeol
oxod
onna
uman
ni23
600
130
2832
335
7Iw
ase
et a
l 201
2P
alae
olox
odon
naum
anni
2578
012
030
614
304
Iwas
e et
al 2
012
Pal
aeol
oxod
onna
uman
ni27
580
490
3207
894
4Iw
ase
et a
l 201
2P
alae
olox
odon
naum
anni
2900
030
033
694
865
Iwas
e et
al 2
012
Pal
aeol
oxod
onna
uman
ni29
200
870
3334
718
30Iw
ase
et a
l 201
2P
alae
olox
odon
naum
anni
3052
022
035
386
770
Iwas
e et
al 2
012
Pal
aeol
oxod
onna
uman
ni31
270
160
3576
760
8Iw
ase
et a
l 201
2P
alae
olox
odon
naum
anni
3362
081
038
508
1913
Iwas
e et
al 2
012
Pal
aeol
oxod
onna
uman
ni34
010
180
3900
448
9Iw
ase
et a
l 201
2P
alae
olox
odon
naum
anni
3450
067
039
436
1678
Iwas
e et
al 2
012
Pal
aeol
oxod
onna
uman
ni35
330
200
4045
873
5Iw
ase
et a
l 201
2P
alae
olox
odon
naum
anni
3732
011
6041
902
2129
Iwas
e et
al 2
012
Pal
aeol
oxod
onna
uman
ni37
990
250
4250
946
1Iw
ase
et a
l 201
2P
alae
olox
odon
naum
anni
3828
026
042
697
475
Iwas
e et
al 2
012
Pal
aeol
oxod
onna
uman
ni38
310
1400
4274
721
84Iw
ase
et a
l 201
2P
alae
olox
odon
naum
anni
3850
060
042
952
954
Iwas
e et
al 2
012
Pal
aeol
oxod
onna
uman
ni38
820
1580
4313
023
93Iw
ase
et a
l 201
2P
alae
olox
odon
naum
anni
3968
029
043
735
588
Iwas
e et
al 2
012
Pal
aeol
oxod
onna
uman
ni40
130
1080
4403
515
42Iw
ase
et a
l 201
2P
alae
olox
odon
naum
anni
4077
012
0044
446
1754
Iwas
e et
al 2
012
Pal
aeol
oxod
onna
uman
ni41
520
1020
4497
116
02Iw
ase
et a
l 201
2P
alae
olox
odon
naum
anni
4170
012
6045
292
2216
Iwas
e et
al 2
012
Pal
aeol
oxod
onna
uman
ni41
770
1470
4560
126
70Iw
ase
et a
l 201
2
a42
Pal
aeol
oxod
onna
uman
ni42
420
1500
4625
027
86Iw
ase
et a
l 201
2P
alae
olox
odon
naum
anni
4252
099
046
107
1860
Iwas
e et
al 2
012
Pal
aeol
oxod
onna
uman
ni42
540
1420
4638
926
72Iw
ase
et a
l 201
2P
alae
olox
odon
naum
anni
4267
011
2046
392
2151
Iwas
e et
al 2
012
Pal
aeol
oxod
onna
uman
ni43
310
1200
4697
022
93Iw
ase
et a
l 201
2P
alae
olox
odon
naum
anni
4335
111
6446
994
2248
Iwas
e et
al 2
012
Pal
aeol
oxod
onna
uman
ni43
520
1340
4715
324
16Iw
ase
et a
l 201
2P
alae
olox
odon
naum
anni
4510
011
9048
103
1898
Iwas
e et
al 2
012
Pal
aeol
oxod
onna
uman
ni45
120
1350
4802
419
76Iw
ase
et a
l 201
2P
alae
olox
odon
naum
anni
4581
012
9048
236
1764
Iwas
e et
al 2
012
Pal
aeol
oxod
onna
uman
ni46
230
2430
4766
623
34Iw
ase
et a
l 201
2Si
nom
egac
eros
yabe
i40
560
1500
4432
622
51Iw
ase
et a
l 201
2Si
nom
egac
eros
yabe
i41
250
1190
4478
918
54Iw
ase
et a
l 201
2
a43
Tab
le S
6 - M
egaf
auna
l dat
es fr
om M
adag
asca
r th
at w
ere
acce
pted
acc
ordi
ng to
aut
hors
' cri
teri
a (s
ee M
etho
ds; T
able
1).
Gen
usSp
ecie
s14
Cer
ror
14C
(2σ)
erro
r (2σ)
Sour
ce r
efer
ence
Aep
yorn
issp
.39
6015
044
1142
1B
urne
y 20
04A
epyo
rnis
sp.
2375
100
2442
285
Bur
ney
2004
Aep
yorn
issp
.27
7595
2969
229
Bur
ney
2004
Aep
yorn
ism
axim
us18
3060
1751
144
Bur
ney
2004
Aep
yorn
issp
.10
0015
096
429
1B
urne
y 20
04A
epyo
rnis
sp.
1150
9011
0017
4B
urne
y 20
04A
epyo
rnis
sp.
1415
4013
3351
Bur
ney
2004
Aep
yorn
issp
.22
8540
2256
99B
urne
y 20
04A
epyo
rnis
sp.
2930
8531
0123
2B
urne
y 20
04A
epyo
rnis
sp.
5210
140
5972
310
Bur
ney
2004
Aep
yorn
issp
.44
9640
5141
161
Bur
ney
2004
Arc
haeo
indr
isfo
ntoy
nont
ii22
9155
2302
154
Bur
ney
2004
Arc
haeo
indr
isfo
ntoy
nont
ii24
0245
2521
179
Bur
ney
2004
Geo
chel
one
abru
pta
750
370
652
655
Bur
ney
2004
Geo
chel
one
sp.
1540
4514
3794
Cro
wle
y 20
10G
eoch
elon
esp
.17
4530
1642
80C
row
ley
2010
Geo
chel
one
sp.
1755
2516
4879
Cro
wle
y 20
10G
eoch
elon
esp
.25
0025
2605
118
Cro
wle
y 20
10G
eoch
elon
esp
.25
3530
2619
126
Cro
wle
y 20
10G
eoch
elon
esp
.25
3530
2619
126
Cro
wle
y 20
10G
eoch
elon
esp
.26
0530
2698
75C
row
ley
2010
Geo
chel
one
sp.
3025
3532
1313
2C
row
ley
2010
Geo
chel
one
sp.
6300
5072
2019
3C
row
ley
2010
Geo
chel
one
sp.
6450
160
7302
318
Cro
wle
y 20
10H
ippo
pota
mus
sp.
1970
5019
3511
7B
urne
y 20
04H
ippo
pota
mus
sp.
2370
5025
0719
3B
urne
y 20
04H
ippo
pota
mus
lem
erle
i25
1740
2603
143
Bur
ney
2004
Hip
popo
tam
ussp
.27
6060
2876
122
Bur
ney
2004
Hip
popo
tam
usle
mer
lei
3730
7041
1323
3B
urne
y 20
04H
ippo
pota
mus
lem
erle
i53
0060
6100
167
Bur
ney
2004
Hip
popo
tam
usle
mer
lei
1740
5016
7513
7B
urne
y 20
04H
ippo
pota
mus
sp.
2020
300
2048
677
Bur
ney
2004
Hip
popo
tam
usla
loum
ena
9936
133
137
Bur
ney
2004
Hip
popo
tam
usla
loum
ena
213
4021
021
2B
urne
y 20
04H
ippo
pota
mus
lalo
umen
a23
2740
2316
152
Bur
ney
2004
Hip
popo
tam
usle
mer
lei
1215
2511
5189
Cro
wle
y 20
10H
ippo
pota
mus
lem
erle
i12
6025
1186
93C
row
ley
2010
a44
Hip
popo
tam
usle
mer
lei
1440
3013
3943
Cro
wle
y 20
10H
ippo
pota
mus
lem
erle
i18
0035
1720
103
Cro
wle
y 20
10H
ippo
pota
mus
lem
erle
i22
7535
2254
96C
row
ley
2010
Hip
popo
tam
usle
mer
lei
2300
5023
0415
2C
row
ley
2010
Hip
popo
tam
usle
mer
lei
2470
2525
3817
3C
row
ley
2010
Hip
popo
tam
usle
mer
lei
2540
3026
2112
6C
row
ley
2010
Hip
popo
tam
usle
mer
lei
2550
3026
2412
6C
row
ley
2010
Hip
popo
tam
usle
mer
lei
2635
4027
8163
Cro
wle
y 20
10H
ippo
pota
mus
lem
erle
i26
6040
2794
55C
row
ley
2010
Hip
popo
tam
usle
mer
lei
2745
4028
5291
Cro
wle
y 20
10H
ippo
pota
mus
lem
erle
i28
5535
2972
104
Cro
wle
y 20
10H
ippo
pota
mus
lem
erle
i28
9040
3043
157
Cro
wle
y 20
10H
ippo
pota
mus
lem
erle
i29
0540
3067
140
Cro
wle
y 20
10H
ippo
pota
mus
lem
erle
i30
9530
3313
70C
row
ley
2010
Hip
popo
tam
usle
mer
lei
3455
2537
3494
Cro
wle
y 20
10H
ippo
pota
mus
lem
erle
i40
5540
4612
189
Cro
wle
y 20
10H
ippo
pota
mus
lem
erle
i48
1540
5555
87C
row
ley
2010
Hip
popo
tam
usle
mer
lei
6310
6072
2219
5C
row
ley
2010
Meg
alad
apis
sp.
1276
070
1516
445
3B
urne
y 20
04M
egal
adap
issp
.45
6635
5248
195
Bur
ney
2004
Meg
alad
apis
edw
ards
i63
050
606
63B
urne
y 20
04M
egal
adap
ised
war
dsi
1277
3511
9199
Bur
ney
2004
Meg
alad
apis
mad
agas
cari
ensi
s21
4050
2152
157
Bur
ney
2004
Meg
alad
apis
sp.
1815
6017
2615
5B
urne
y 20
04M
egal
adap
issp
.27
1344
2835
86B
urne
y 20
04M
egal
adap
issp
.15
9160
1481
133
Bur
ney
2004
Meg
alad
apis
sp.
1450
2513
4240
Cro
wle
y 20
10M
egal
adap
ism
adag
asca
rien
sis
1620
2514
8872
Cro
wle
y 20
10M
egal
adap
ism
adag
asca
rien
sis
1625
3015
0692
Cro
wle
y 20
10M
egal
adap
ised
war
dsi
1630
2515
0892
Cro
wle
y 20
10M
egal
adap
ised
war
dsi
1640
3015
1599
Cro
wle
y 20
10M
egal
adap
ism
adag
asca
rien
sis
1810
3017
2698
Cro
wle
y 20
10M
egal
adap
ism
adag
asca
rien
sis
1815
2517
3092
Cro
wle
y 20
10M
egal
adap
ism
adag
asca
rien
sis
2005
3019
6079
Cro
wle
y 20
10M
egal
adap
ised
war
dsi
2165
3021
8512
4C
row
ley
2010
Meg
alad
apis
mad
agas
cari
ensi
s22
9025
2267
84C
row
ley
2010
Meg
alad
apis
mad
agas
cari
ensi
s26
0030
2696
76C
row
ley
2010
Meg
alad
apis
mad
agas
cari
ensi
s26
4530
2788
55C
row
ley
2010
Meg
alad
apis
edw
ards
i26
7540
2799
55C
row
ley
2010
Meg
alad
apis
mad
agas
cari
ensi
s29
4530
3106
109
Cro
wle
y 20
10
a45
Meg
alad
apis
edw
ards
i30
0530
3203
125
Cro
wle
y 20
10M
egal
adap
ism
adag
asca
rien
sis
3025
4032
1613
6C
row
ley
2010
Meg
alad
apis
mad
agas
cari
ensi
s34
3030
3707
119
Cro
wle
y 20
10M
egal
adap
issp
.46
1045
5318
251
Cro
wle
y 20
10M
egal
adap
ism
adag
asca
rien
sis
5420
3062
3751
Cro
wle
y 20
10M
egal
adap
issp
.11
360
7013
241
133
Cro
wle
y 20
10M
egal
adap
is
sp.
2615
040
030
772
554
Cro
wle
y 20
10M
ulle
rorn
issp
.23
8070
2462
254
Bur
ney
2004
Mul
lero
rnis
sp.
1280
6011
8311
4B
urne
y 20
04
a46
Tab
le S
7 - M
egaf
auna
l dat
es fr
om T
asm
ania
that
ran
ked
11 o
r 12
on
the
mod
ified
Mea
d-M
eltz
er sc
ale
(see
Met
hods
; Tab
le 1
).
Gen
usSp
ecie
s14
Cer
ror
14C
(2σ)
erro
r (2σ)
OSL
OSL
err
orSo
urce
ref
eren
ceM
acro
pus
giga
nteu
s ti
tan
3621
039
040
648
936
Cos
grov
e et
al 2
010
Mac
ropu
sgi
gant
eus
tita
n35
610
360
4230
568
3C
osgr
ove
et a
l 201
0M
acro
pus
giga
nteu
s ti
tan
3765
047
039
231
1334
Cos
grov
e et
al 2
010
Mac
ropu
sgi
gant
eus
tita
n34
230
460
4003
112
97C
osgr
ove
et a
l 201
0M
acro
pus
giga
nteu
s ti
tan
3500
062
043
631
900
Cos
grov
e et
al 2
010
Mac
ropu
sgi
gant
eus
tita
n39
530
580
4661
133
89C
osgr
ove
et a
l 201
0M
etas
then
urus
new
tona
e56
000
4000
Tur
ney
et a
l 200
8P
alor
ches
tes
azae
l36
580
310
4106
761
1G
ille
spie
et a
l 201
2P
alor
ches
tes
azae
l35
920
290
4127
670
3G
ille
spie
et a
l 201
2P
alor
ches
tes
azae
l56
000
4000
Tur
ney
et a
l 200
8P
rote
mno
don
anak
3620
030
041
322
573
Tur
ney
et a
l 200
8P
rote
mno
don
anak
3278
037
037
563
951
Tur
ney
et a
l 200
8P
rote
mno
don
anak
3792
034
042
470
541
Tur
ney
et a
l 200
8P
rote
mno
don
anak
3040
027
035
345
804
Tur
ney
et a
l 200
8P
rote
mno
don
anak
3998
061
043
923
959
Tur
ney
et a
l 200
8P
rote
mno
don
anak
3635
030
041
458
522
Gil
lesp
ie e
t al 2
012
Pro
tem
nodo
nan
ak37
010
410
4186
962
1G
ille
spie
et a
l 201
2P
rote
mno
don
anak
4017
037
044
063
690
Gil
lesp
ie e
t al 2
012
Pro
tem
nodo
nan
ak39
660
680
4371
310
27G
ille
spie
et a
l 201
2P
rote
mno
don
anak
3767
036
042
316
557
Gil
lesp
ie e
t al 2
012
Pro
tem
nodo
nan
ak38
520
300
4285
752
4G
ille
spie
et a
l 201
2P
rote
mno
don
anak
4120
014
0044
868
2300
Gil
lesp
ie e
t al 2
012
Pro
tem
nodo
nan
ak56
000
4000
Tur
ney
et a
l 200
8Si
mos
then
urus
occi
dent
alis
4450
010
0047
822
1957
Gil
lesp
ie e
t al 2
012
Sim
osth
enur
usoc
cide
ntal
is44
700
3300
Cos
grov
e et
al 2
010
Sim
osth
enur
usoc
cide
ntal
is56
000
4000
Tur
ney
et a
l 200
8T
hyla
cole
osp
.56
000
4000
Tur
ney
et a
l 200
8Z
ygom
atur
ustr
ilob
us33
510
210
3817
970
1G
ille
spie
et a
l 201
2Z
ygom
atur
ustr
ilob
us36
570
460
4155
873
2G
ille
spie
et a
l 201
2Z
ygom
atur
ustr
ilob
us34
410
300
3951
181
7G
ille
spie
et a
l 201
2Z
ygom
atur
ustr
ilob
us46
810
560
4571
179
3G
ille
spie
et a
l 201
2Z
ygom
atur
ustr
ilob
us42
500
480
4159
550
1G
ille
spie
et a
l 201
2Z
ygom
atur
ustr
ilob
us56
000
4000
Tur
ney
et a
l 200
8
a47
Tab
le S
8 - M
egaf
auna
l dat
es fr
om N
ew Z
eala
nd th
at r
anke
d 11
or
12 o
n th
e m
odifi
ed M
ead-
Mel
tzer
scal
e (s
ee M
etho
ds; T
able
1).
Gen
usSp
ecie
s14
Cer
ror
14C
(2σ)
erro
r (2σ)
Sour
ce r
efer
ence
Din
orni
sro
bust
us65
830
615
58W
ood
et a
l 201
1D
inor
nis
robu
stus
680
3062
160
Woo
d et
al 2
011
Din
orni
sro
bust
us72
030
645
77W
ood
et a
l 201
1D
inor
nis
robu
stus
721
3064
677
Woo
d et
al 2
011
Din
orni
sro
bust
us84
130
789
103
Woo
d et
al 2
011
Din
orni
sro
bust
us86
230
798
104
Woo
d et
al 2
011
Din
orni
sro
bust
us86
830
801
104
Woo
d et
al 2
011
Din
orni
sro
bust
us10
0030
883
85W
ood
et a
l 201
1D
inor
nis
sp.
1968
7119
2418
8W
orth
y 19
98a
Din
orni
sno
vaez
eala
ndia
e49
2278
5686
206
Wor
thy
1998
bE
meu
scr
assu
s10
480
120
1231
931
0R
awle
nce
et a
l 201
1E
meu
scr
assu
s10
470
130
1224
439
9R
awle
nce
et a
l 201
1E
urya
pter
yxge
rano
ides
14,0
8010
017
185
327
Wor
thy
& H
olda
way
199
4E
urya
pter
yxge
rano
ides
13,8
8995
1698
524
2W
orth
y &
Hol
daw
ay 1
994
Eur
yapt
eryx
gera
noid
es13
,400
130
1624
662
9W
orth
y &
Hol
daw
ay 1
994
Eur
yapt
eryx
gera
noid
es1,
445
5013
8210
2W
orth
y &
Hol
daw
ay 1
996
Eur
yapt
eryx
gera
noid
es1,
525
6014
2011
1W
orth
y &
Hol
daw
ay 1
996
Eur
yapt
eryx
gera
noid
es10
7060
986
184
Wor
thy
1998
aM
egal
apte
ryx
didi
nus
694
3062
562
Woo
d 20
12M
egal
apte
ryx
didi
nus
975
3086
671
Woo
d 20
12M
egal
apte
ryx
didi
nus
997
2688
182
Woo
d 20
12M
egal
apte
ryx
didi
nus
1000
3088
385
Woo
d 20
12M
egal
apte
ryx
didi
nus
1060
3099
063
Woo
d 20
12M
egal
apte
ryx
didi
nus
1879
3018
0678
Woo
d 20
12M
egal
apte
ryx
didi
nus
1915
3018
4410
2W
ood
2012
Meg
alap
tery
xdi
dinu
s19
5925
1909
77W
ood
2012
Meg
alap
tery
xdi
dinu
s19
6425
1928
61W
ood
2012
Meg
alap
tery
xdi
dinu
s45
2028
5178
127
Woo
d 20
12M
egal
apte
ryx
didi
nus
6310
3172
3467
Woo
d 20
12M
egal
apte
ryx
didi
nus
6368
3173
3484
Woo
d 20
12M
egal
apte
ryx
didi
nus
719
3064
577
Woo
d et
al 2
011
Meg
alap
tery
xdi
dinu
s82
030
734
50W
ood
et a
l 201
1M
egal
apte
ryx
didi
nus
954
3086
166
Woo
d et
al 2
011
Meg
alap
tery
xdi
dinu
s24
,890
430
2960
194
6W
orth
y &
Hol
daw
ay 1
994
Meg
alap
tery
xdi
dinu
s64
695
623
119
Wor
thy
1998
aM
egal
apte
ryx
didi
nus
690
120
706
201
Wor
thy
1998
aM
egal
apte
ryx
didi
nus
2530
6025
6019
4W
orth
y 19
98a
a48
Pac
hyor
nis
aust
rali
s19
575
8023
261
526
Raw
lenc
e et
al 2
012
Pac
hyor
nis
aust
rali
s20
760
9024
743
296
Raw
lenc
e et
al 2
012
Pac
hyor
nis
aust
rali
s17
645
6020
967
422
Raw
lenc
e et
al 2
012
Pac
hyor
nis
aust
rali
s19
335
7023
025
408
Raw
lenc
e et
al 2
012
Pac
hyor
nis
aust
rali
s16
860
7519
956
361
Raw
lenc
e et
al 2
012
Pac
hyor
nis
aust
rali
s14
730
170
1799
553
5R
awle
nce
et a
l 201
2P
achy
orni
sau
stra
lis
1495
015
018
193
386
Raw
lenc
e et
al 2
012
Pac
hyor
nis
aust
rali
s28
050
300
3229
678
9R
awle
nce
et a
l 201
2P
achy
orni
sau
stra
lis
1021
045
1191
916
6R
awle
nce
et a
l 201
2P
achy
orni
sau
stra
lis
1823
580
2179
334
2R
awle
nce
et a
l 201
2P
achy
orni
sau
stra
lis
1023
545
1194
017
2R
awle
nce
et a
l 201
2P
achy
orni
sau
stra
lis
1026
545
1209
328
0R
awle
nce
et a
l 201
2P
achy
orni
sau
stra
lis
1028
045
1210
127
6R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us32
230
380
3678
612
69R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us14
145
6017
231
305
Raw
lenc
e et
al 2
012
Pac
hyor
nis
elep
hant
opus
2033
090
2420
829
8R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us30
2628
3213
129
Raw
lenc
e et
al 2
012
Pac
hyor
nis
elep
hant
opus
3700
2940
3810
8R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us46
9435
5449
130
Raw
lenc
e et
al 2
012
Pac
hyor
nis
elep
hant
opus
2277
2722
5594
Raw
lenc
e et
al 2
012
Pac
hyor
nis
elep
hant
opus
995
2488
181
Raw
lenc
e et
al 2
012
Pac
hyor
nis
elep
hant
opus
663
2461
655
Raw
lenc
e et
al 2
012
Pac
hyor
nis
elep
hant
opus
668
2461
755
Raw
lenc
e et
al 2
012
Pac
hyor
nis
elep
hant
opus
1465
523
017
859
647
Raw
lenc
e et
al 2
012
Pac
hyor
nis
elep
hant
opus
1906
090
2282
446
4R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us14
140
110
1723
635
0R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us14
150
140
1725
238
8R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us19
580
230
2326
768
0R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us22
690
400
2725
010
43R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us37
820
810
4245
412
16R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us38
200
980
4278
114
43R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us11
898
8213
711
228
Raw
lenc
e et
al 2
012
Pac
hyor
nis
elep
hant
opus
3800
6042
0120
9R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us39
7626
4466
56R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us73
9016
082
0632
9R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us96
7393
1099
124
5R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us24
4011
024
7128
8R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us94
127
858
65R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us14
8824
1364
46R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us31
090
450
3566
983
2R
awle
nce
et a
l 201
2
a49
Pac
hyor
nis
elep
hant
opus
2645
784
631
103
1639
Raw
lenc
e et
al 2
012
Pac
hyor
nis
elep
hant
opus
3520
9538
2525
9R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us37
8879
4175
241
Raw
lenc
e et
al 2
012
Pac
hyor
nis
elep
hant
opus
5503
6962
8615
9R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us25
4968
2565
200
Raw
lenc
e et
al 2
012
Pac
hyor
nis
elep
hant
opus
1045
2098
559
Raw
lenc
e et
al 2
012
Pac
hyor
nis
elep
hant
opus
1100
7010
1721
3R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us17
3163
1671
150
Raw
lenc
e et
al 2
012
Pac
hyor
nis
elep
hant
opus
2550
6425
6620
0R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us12
565
4514
705
459
Raw
lenc
e et
al 2
012
Pac
hyor
nis
elep
hant
opus
3790
6041
9721
0R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us17
1060
1617
195
Raw
lenc
e et
al 2
012
Pac
hyor
nis
elep
hant
opus
930
2785
568
Raw
lenc
e et
al 2
012
Pac
hyor
nis
elep
hant
opus
620
6060
269
Raw
lenc
e et
al 2
012
Pac
hyor
nis
elep
hant
opus
1000
8089
916
6R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us12
5825
1185
94R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us15
8624
1470
59R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us46
1329
5375
84R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us12
5925
1186
94R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us96
524
864
68R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us21
250
8025
390
374
Raw
lenc
e et
al 2
012
Pac
hyor
nis
elep
hant
opus
2157
037
2582
133
2R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us25
780
160
3062
333
3R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us24
400
110
2910
343
4R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us28
8528
3018
123
Raw
lenc
e et
al 2
012
Pac
hyor
nis
elep
hant
opus
1239
545
1452
041
4R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us10
900
200
1282
740
6R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us35
880
660
4070
213
48R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us13
3624
1243
58R
awle
nce
et a
l 201
2P
achy
orni
sel
epha
ntop
us71
070
654
110
Woo
d et
al 2
011
Pac
hyor
nis
elep
hant
opus
850
7079
611
9W
ood
et a
l 201
1P
achy
orni
sel
epha
ntop
us10
0070
901
157
Woo
d et
al 2
011
Pac
hyor
nis
elep
hant
opus
742
3069
433
Woo
d et
al 2
011
Pac
hyor
nis
elep
hant
opus
938
3085
768
Woo
d et
al 2
011
Pac
hyor
nis
elep
hant
opus
1123
021
013
059
406
Raw
lenc
e et
al 2
011
Pac
hyor
nis
elep
hant
opus
1075
080
1270
015
2R
awle
nce
et a
l 201
1P
achy
orni
sel
epha
ntop
us10
510
8012
370
237
Raw
lenc
e et
al 2
011
Pac
hyor
nis
elep
hant
opus
9070
8010
208
282
Raw
lenc
e et
al 2
011
Pac
hyor
nis
elep
hant
opus
1068
070
1258
715
8R
awle
nce
et a
l 201
1P
achy
orni
sel
epha
ntop
us11
490
8013
338
184
Raw
lenc
e et
al 2
011
a50
Pac
hyor
nis
elep
hant
opus
1118
070
1305
821
4R
awle
nce
et a
l 201
1P
achy
orni
sel
epha
ntop
us10
980
7012
875
204
Raw
lenc
e et
al 2
011
Pac
hyor
nis
elep
hant
opus
1139
013
013
249
312
Raw
lenc
e et
al 2
011
Pac
hyor
nis
elep
hant
opus
1058
090
1241
226
5R
awle
nce
et a
l 201
1P
achy
orni
sel
epha
ntop
us10
760
7012
694
139
Raw
lenc
e et
al 2
011
Pac
hyor
nis
elep
hant
opus
1061
080
1246
824
5R
awle
nce
et a
l 201
1P
achy
orni
sau
stra
lis
28,5
2029
032
868
1074
Wor
thy
& H
olda
way
199
4P
achy
orni
sel
epha
ntop
us19
,520
130
2319
652
7W
orth
y &
Hol
daw
ay 1
994
Pac
hyor
nis
aust
rali
s29
,011
312
3369
187
9W
orth
y &
Hol
daw
ay 1
994
Pac
hyor
nis
elep
hant
opus
13,4
7094
1648
942
2W
orth
y &
Hol
daw
ay 1
994
Pac
hyor
nis
elep
hant
opus
18,9
5023
022
741
622
Wor
thy
& H
olda
way
199
4P
achy
orni
s au
stra
lis
564
2658
457
Raw
lenc
e &
Coo
per
2012
Pac
hyor
nis
aust
rali
s10
2126
939
105
Raw
lenc
e &
Coo
per
2012
Pac
hyor
nis
aust
rali
s19
2827
1881
61R
awle
nce
& C
oope
r 20
12
a51
Tab
le S
9 - M
egaf
auna
l dat
es fr
om A
ustr
alia
that
ran
ked
11 o
r 12
on
the
mod
ified
Mea
d-M
eltz
er sc
ale
(see
Met
hods
; Tab
le 1
).
Gen
usSp
ecie
sO
SLO
SL e
rror
U/T
hU
/Th
erro
r C
SUS-
ESR
CSU
S-E
SR e
rror
14C
erro
r14
C (2σ)
erro
r (2σ)
Sour
ce r
efer
ence
Dip
roto
don
opta
tum
4600
060
00R
ober
ts 2
001
Dip
roto
don
opta
tum
4700
060
00R
ober
ts 2
001
Dip
roto
don
opta
tum
5300
050
00R
ober
ts 2
001
Dip
roto
don
opta
tum
5400
060
00R
ober
ts 2
001
Dip
roto
don
opta
tum
5000
060
00R
ober
ts 2
001
Dip
roto
don
opta
tum
5100
040
00R
ober
ts 2
001
Dip
roto
don
opta
tum
5300
040
00R
ober
ts 2
001
Dip
roto
don
opta
tum
5800
040
00R
ober
ts 2
001
Dip
roto
don
opta
tum
7500
090
00R
ober
ts 2
001
Dip
roto
don
sp.
1300
0010
000
Gru
n 20
08D
ipro
todo
nsp
.11
8000
9000
Gru
n 20
08D
ipro
todo
nsp
.11
4000
9000
Gru
n 20
08D
ipro
todo
nsp
.98
000
8000
Gru
n 20
08D
ipro
todo
nsp
.87
000
7000
Gru
n 20
08D
ipro
todo
nsp
.84
000
7000
Gru
n 20
08D
ipro
todo
nsp
.84
000
7000
Gru
n 20
08D
ipro
todo
nsp
.56
000
1300
0G
run
2008
Dip
roto
don
sp.
5400
011
000
Gru
n 20
08D
ipro
todo
nsp
.66
000
9000
Gru
n 20
08D
ipro
todo
nsp
.44
000
6000
Gru
n 20
08D
ipro
todo
nsp
.47
000
6000
Gru
n 20
08D
ipro
todo
nsp
.51
000
3000
Gru
n 20
08D
ipro
todo
nsp
.47
000
2000
Gru
n 20
08D
ipro
todo
nsp
.60
000
3000
Gru
n 20
08D
ipro
todo
nsp
.49
000
2000
Gru
n 20
08D
ipro
todo
nsp
.58
000
2000
Gru
n 20
08D
ipro
todo
nsp
.61
000
3000
Gru
n 20
08G
enyo
rnis
new
toni
6000
090
00R
ober
ts 2
001
Gen
yorn
isne
wto
ni75
000
9000
Rob
erts
200
1G
enyo
rnis
sp.
5600
013
000
Gru
n 20
08G
enyo
rnis
sp.
5400
011
000
Gru
n 20
08G
enyo
rnis
sp.
6600
090
00G
run
2008
Gen
yorn
issp
.51
000
3000
Gru
n 20
08G
enyo
rnis
sp.
4700
020
00G
run
2008
Gen
yorn
issp
.60
000
3000
Gru
n 20
08G
enyo
rnis
sp.
4900
020
00G
run
2008
Gen
yorn
issp
.58
000
2000
Gru
n 20
08
a52
Gen
yorn
issp
.61
000
3000
Gru
n 20
08M
acro
pus
giga
nteu
s ti
tan
4600
060
00R
ober
ts 2
001
Mac
ropu
s gi
gant
eus
tita
n47
000
6000
Rob
erts
200
1M
acro
pus
ferr
agus
5200
080
00R
ober
ts 2
001
Mac
ropu
s fe
rrag
us54
000
7000
Rob
erts
200
1M
acro
pus
giga
nteu
s ti
tan
8200
090
00R
ober
ts 2
001
Mac
ropu
s gi
gant
eus
tita
n70
000
8000
Rob
erts
200
1M
acro
pus
giga
nteu
s ti
tan
8200
010
000
Rob
erts
200
1M
acro
pus
giga
nteu
s ti
tan
7500
090
00R
ober
ts 2
001
Mac
ropu
s fu
ligi
nosu
s55
000
9000
Rob
erts
200
1M
acro
pus
fuli
gino
sus
6300
090
00R
ober
ts 2
001
Mac
ropu
s fu
ligi
nosu
s74
000
1000
0R
ober
ts 2
001
Mac
ropu
s fu
ligi
nosu
s13
1000
1400
0R
ober
ts 2
001
Mac
ropu
s sp
. nov
.15
6000
2700
Ayl
iffe
200
8M
acro
pus
sp. n
ov.
1195
0037
00A
ylif
fe 2
008
Mac
ropu
s sp
. nov
.14
2500
1100
Ayl
iffe
200
8M
acro
pus
sp. n
ov.
1368
0026
00A
ylif
fe 2
008
Met
asth
enur
usne
wto
nae
1350
0070
00P
ride
aux
2010
Met
asth
enur
usne
wto
nae
8900
060
00P
ride
aux
2010
Met
asth
enur
usne
wto
nae
9500
070
00P
ride
aux
2010
Met
asth
enur
usne
wto
nae
9800
080
00P
ride
aux
2010
Met
asth
enur
usne
wto
nae
1030
0070
00P
ride
aux
2010
Met
asth
enur
usne
wto
nae
1560
0027
00A
ylif
fe 2
008
Met
asth
enur
usne
wto
nae
1195
0037
00A
ylif
fe 2
008
Met
asth
enur
usne
wto
nae
1425
0011
00A
ylif
fe 2
008
Met
asth
enur
usne
wto
nae
1368
0026
00A
ylif
fe 2
008
Met
asth
enur
usne
wto
nae
1510
0013
000
Pri
deau
x 20
10M
etas
then
urus
new
tona
e14
6300
8400
Pri
deau
x 20
10M
etas
then
urus
new
tona
e11
2000
1100
0P
ride
aux
2010
Pha
scol
onus
giga
s52
000
8000
Rob
erts
200
1P
hasc
olon
usgi
gas
5400
070
00R
ober
ts 2
001
Pha
scol
onus
giga
s97
000
1100
0R
ober
ts 2
001
Pha
scol
onus
giga
s70
000
8000
Rob
erts
200
1P
hasc
olon
usgi
gas
7500
090
00R
ober
ts 2
001
Pha
scol
onus
sp.
5600
013
000
Gru
n 20
08P
hasc
olon
ussp
.54
000
1100
0G
run
2008
Pha
scol
onus
sp.
6600
090
00G
run
2008
Pha
scol
onus
sp.
5100
030
00G
run
2008
Pha
scol
onus
sp.
4700
020
00G
run
2008
Pha
scol
onus
sp.
6000
030
00G
run
2008
a53
Pha
scol
onus
sp.
4900
020
00G
run
2008
Pha
scol
onus
sp.
5800
020
00G
run
2008
Pha
scol
onus
sp.
6100
030
00G
run
2008
Pro
copt
odon
goli
ah67
000
6000
Rob
erts
200
1P
roco
ptod
ongo
liah
5200
080
00R
ober
ts 2
001
Pro
copt
odon
goli
ah54
000
7000
Rob
erts
200
1P
roco
ptod
ongo
liah
1710
0014
000
Rob
erts
200
1P
roco
ptod
ongo
liah
1570
0016
000
Rob
erts
200
1P
roco
ptod
onbr
owne
orum
4300
027
0046
463
3537
Ayl
iffe
200
8P
roco
ptod
onbr
owne
orum
4170
010
0045
132
1613
Ayl
iffe
200
8P
roco
ptod
onbr
owne
orum
4010
011
0044
013
1566
Ayl
iffe
200
8P
roco
ptod
onbr
owne
orum
4520
017
0047
852.
521
47.5
Ayl
iffe
200
8P
roco
ptod
onbr
owne
orum
1350
0070
00P
ride
aux
2010
Pro
copt
odon
brow
neor
um89
000
6000
Pri
deau
x 20
10P
roco
ptod
onbr
owne
orum
9500
070
00P
ride
aux
2010
Pro
copt
odon
brow
neor
um98
000
8000
Pri
deau
x 20
10P
roco
ptod
onbr
owne
orum
1030
0070
00P
ride
aux
2010
Pro
copt
odon
brow
neor
um70
000
4000
Pri
deau
x 20
10P
roco
ptod
onbr
owne
orum
5300
040
00P
ride
aux
2010
Pro
copt
odon
brow
neor
um45
000
4000
Pri
deau
x 20
10P
roco
ptod
onbr
owne
orum
4700
030
00P
ride
aux
2010
Pro
copt
odon
brow
neor
um80
800
1000
Ayl
iffe
200
8P
roco
ptod
onbr
owne
orum
4780
028
00A
ylif
fe 2
008
Pro
copt
odon
brow
neor
um15
6000
2700
Ayl
iffe
200
8P
roco
ptod
onbr
owne
orum
1195
0037
00A
ylif
fe 2
008
Pro
copt
odon
brow
neor
um14
2500
1200
Ayl
iffe
200
8P
roco
ptod
onbr
owne
orum
1368
0026
00A
ylif
fe 2
008
Pro
copt
odon
brow
neor
um15
1000
1300
0P
ride
aux
2010
Pro
copt
odon
brow
neor
um14
6300
8400
Pri
deau
x 20
10P
roco
ptod
onbr
owne
orum
1120
0011
000
Pri
deau
x 20
10P
roco
ptod
onbr
owne
orum
4870
030
00P
ride
aux
2010
Pro
copt
odon
brow
neor
um44
900
1300
Pri
deau
x 20
10P
roco
ptod
onsp
.56
000
1300
0G
run
2008
Pro
copt
odon
sp.
5400
011
000
Gru
n 20
08P
roco
ptod
onsp
.66
000
9000
Gru
n 20
08P
rote
mno
don
roec
hus
4600
060
00R
ober
ts 2
001
Pro
tem
nodo
nro
echu
s47
000
6000
Rob
erts
200
1P
rote
mno
don
sp. i
ndet
.55
000
6000
Rob
erts
200
1P
rote
mno
don
breh
us52
000
8000
Rob
erts
200
1P
rote
mno
don
breh
us54
000
7000
Rob
erts
200
1
a54
Pro
tem
nodo
nbr
ehus
6000
070
00R
ober
ts 2
001
Pro
tem
nodo
nan
ak70
000
8000
Rob
erts
200
1P
rote
mno
don
breh
us75
000
9000
Rob
erts
200
1P
rote
mno
don
sp. c
f. ro
echu
s13
5000
7000
Pri
deau
x 20
10P
rote
mno
don
sp. c
f. ro
echu
s89
000
6000
Pri
deau
x 20
10P
rote
mno
don
sp. c
f. ro
echu
s95
000
7000
Pri
deau
x 20
10P
rote
mno
don
sp. c
f. ro
echu
s98
000
8000
Pri
deau
x 20
10P
rote
mno
don
sp. c
f. ro
echu
s10
3000
7000
Pri
deau
x 20
10P
rote
mno
don
sp. c
f. ro
echu
s70
000
4000
Pri
deau
x 20
10P
rote
mno
don
sp. c
f. ro
echu
s53
000
4000
Pri
deau
x 20
10P
rote
mno
don
sp. c
f. ro
echu
s45
000
4000
Pri
deau
x 20
10P
rote
mno
don
sp. c
f. ro
echu
s47
000
3000
Pri
deau
x 20
10P
rote
mno
don
breh
us15
6000
2700
Ayl
iffe
200
8P
rote
mno
don
breh
us11
9500
3700
Ayl
iffe
200
8P
rote
mno
don
breh
us14
2500
1300
Ayl
iffe
200
8P
rote
mno
don
breh
us13
6800
2600
Ayl
iffe
200
8P
rote
mno
don
sp. c
f. ro
echu
s15
1000
1300
0P
ride
aux
2010
Pro
tem
nodo
nsp
. cf.
roec
hus
1463
0084
00P
ride
aux
2010
Pro
tem
nodo
nsp
. cf.
roec
hus
1120
0011
000
Pri
deau
x 20
10P
rote
mno
don
sp. c
f. ro
echu
s48
700
3000
Pri
deau
x 20
10P
rote
mno
don
sp. c
f. ro
echu
s44
900
1300
Pri
deau
x 20
10P
rote
mno
don
sp.
9100
013
000
Gru
n 20
08P
rote
mno
don
sp.
8400
090
00G
run
2008
Pro
tem
nodo
nsp
.56
000
1300
0G
run
2008
Pro
tem
nodo
nsp
.54
000
1100
0G
run
2008
Pro
tem
nodo
nsp
.66
000
9000
Gru
n 20
08P
rote
mno
don
sp.
5100
030
00G
run
2008
Pro
tem
nodo
nsp
.47
000
2000
Gru
n 20
08P
rote
mno
don
sp.
6000
030
00G
run
2008
Pro
tem
nodo
nsp
.49
000
2000
Gru
n 20
08P
rote
mno
don
sp.
5800
020
00G
run
2008
Pro
tem
nodo
nsp
.61
000
3000
Gru
n 20
08Si
mos
then
urus
brow
nei
1710
0014
000
Rob
erts
200
1Si
mos
then
urus
brow
nei
1570
0016
000
Rob
erts
200
1Si
mos
then
urus
gill
i17
1000
1400
0R
ober
ts 2
001
Sim
osth
enur
usgi
lli
1570
0016
000
Rob
erts
200
1Si
mos
then
urus
occi
dent
alis
1710
0014
000
Rob
erts
200
1Si
mos
then
urus
occi
dent
alis
1570
0016
000
Rob
erts
200
1Si
mos
then
urus
brow
nei
4600
020
00R
ober
ts 2
001
Sim
osth
enur
usbr
owne
i46
000
6000
Rob
erts
200
1
a55
Sim
osth
enur
usbr
owne
i55
000
9000
Rob
erts
200
1Si
mos
then
urus
brow
nei
6300
090
00R
ober
ts 2
001
Sim
osth
enur
usbr
owne
i74
000
1000
0R
ober
ts 2
001
Sim
osth
enur
usbr
owne
i13
1000
1400
0R
ober
ts 2
001
Sim
osth
enur
usoc
cide
ntal
is44
000
1200
4749
322
05A
ylif
fe 2
008
Sim
osth
enur
usoc
cide
ntal
is43
000
2700
4646
335
37A
ylif
fe 2
008
Sim
osth
enur
uspa
les
4170
010
0045
132
1613
Ayl
iffe
200
8Si
mos
then
urus
pale
s40
100
1100
4401
315
66A
ylif
fe 2
008
Sim
osth
enur
uspa
les
4520
017
0047
852.
521
47.5
Ayl
iffe
200
8Si
mos
then
urus
occi
dent
alis
1350
0070
00P
ride
aux
2010
Sim
osth
enur
uspa
les
1350
0070
00P
ride
aux
2010
Sim
osth
enur
usoc
cide
ntal
is89
000
6000
Pri
deau
x 20
10Si
mos
then
urus
pale
s89
000
6000
Pri
deau
x 20
10Si
mos
then
urus
occi
dent
alis
9500
070
00P
ride
aux
2010
Sim
osth
enur
uspa
les
9500
070
00P
ride
aux
2010
Sim
osth
enur
usoc
cide
ntal
is98
000
8000
Pri
deau
x 20
10Si
mos
then
urus
pale
s98
000
8000
Pri
deau
x 20
10Si
mos
then
urus
occi
dent
alis
1030
0070
00P
ride
aux
2010
Sim
osth
enur
uspa
les
1030
0070
00P
ride
aux
2010
Sim
osth
enur
usoc
cide
ntal
is70
000
4000
Pri
deau
x 20
10Si
mos
then
urus
pale
s70
000
4000
Pri
deau
x 20
10Si
mos
then
urus
occi
dent
alis
5300
040
00P
ride
aux
2010
Sim
osth
enur
uspa
les
5300
040
00P
ride
aux
2010
Sim
osth
enur
usoc
cide
ntal
is45
000
4000
Pri
deau
x 20
10Si
mos
then
urus
pale
s45
000
4000
Pri
deau
x 20
10Si
mos
then
urus
occi
dent
alis
4700
030
00P
ride
aux
2010
Sim
osth
enur
uspa
les
4700
030
00P
ride
aux
2010
Sim
osth
enur
usoc
cide
ntal
is46
500
800
Ayl
iffe
200
8Si
mos
then
urus
occi
dent
alis
4420
020
00A
ylif
fe 2
008
Sim
osth
enur
usoc
cide
ntal
is47
500
400
Ayl
iffe
200
8Si
mos
then
urus
occi
dent
alis
4530
010
00A
ylif
fe 2
008
Sim
osth
enur
usoc
cide
ntal
is49
600
600
Ayl
iffe
200
8Si
mos
then
urus
occi
dent
alis
4700
014
00A
ylif
fe 2
008
Sim
osth
enur
usoc
cide
ntal
is15
6000
2700
Ayl
iffe
200
8Si
mos
then
urus
pale
s15
6000
2700
Ayl
iffe
200
8Si
mos
then
urus
occi
dent
alis
1195
0037
00A
ylif
fe 2
008
Sim
osth
enur
uspa
les
1195
0037
00A
ylif
fe 2
008
Sim
osth
enur
usoc
cide
ntal
is14
2500
1000
Ayl
iffe
200
8Si
mos
then
urus
pale
s14
2500
1100
Ayl
iffe
200
8Si
mos
then
urus
occi
dent
alis
1368
0026
00A
ylif
fe 2
008
a56
Sim
osth
enur
uspa
les
1368
0026
00A
ylif
fe 2
008
Sim
osth
enur
usoc
cide
ntal
is15
1000
1300
0P
ride
aux
2010
Sim
osth
enur
uspa
les
1510
0013
000
Pri
deau
x 20
10Si
mos
then
urus
occi
dent
alis
1463
0084
00P
ride
aux
2010
Sim
osth
enur
uspa
les
1463
0084
00P
ride
aux
2010
Sim
osth
enur
usoc
cide
ntal
is11
2000
1100
0P
ride
aux
2010
Sim
osth
enur
uspa
les
1120
0011
000
Pri
deau
x 20
10Si
mos
then
urus
occi
dent
alis
4870
030
00P
ride
aux
2010
Sim
osth
enur
uspa
les
4870
030
00P
ride
aux
2010
Sim
osth
enur
usoc
cide
ntal
is44
900
1300
Pri
deau
x 20
10Si
mos
then
urus
pale
s44
900
1300
Pri
deau
x 20
10St
henu
rus
ande
rson
i75
000
9000
Rob
erts
200
1St
henu
rus
stir
ling
i75
000
9000
Rob
erts
200
1St
henu
rus
tind
alei
7500
090
00R
ober
ts 2
001
Sthe
nuru
san
ders
oni
8900
060
00P
ride
aux
2010
Sthe
nuru
san
ders
oni
9500
070
00P
ride
aux
2010
Sthe
nuru
san
ders
oni
9800
080
00P
ride
aux
2010
Sthe
nuru
san
ders
oni
1030
0070
00P
ride
aux
2010
Sthe
nuru
san
ders
oni
1463
0084
00P
ride
aux
2010
Sthe
nuru
san
ders
oni
1120
0011
000
Pri
deau
x 20
10St
henu
rus
sp.
4800
060
00G
run
2008
Sthe
nuru
ssp
.44
000
5000
Gru
n 20
08St
henu
rus
sp.
8400
070
00G
run
2008
Sthe
nuru
ssp
.68
000
7000
Gru
n 20
08St
henu
rus
sp.
7200
080
00G
run
2008
Sthe
nuru
ssp
.13
0000
1000
0G
run
2008
Sthe
nuru
ssp
.11
8000
9000
Gru
n 20
08St
henu
rus
sp.
1140
0090
00G
run
2008
Sthe
nuru
ssp
.98
000
8000
Gru
n 20
08St
henu
rus
sp.
8700
070
00G
run
2008
Sthe
nuru
ssp
.84
000
7000
Gru
n 20
08St
henu
rus
sp.
8400
070
00G
run
2008
Sthe
nuru
ssp
.56
000
1300
0G
run
2008
Sthe
nuru
ssp
.54
000
1100
0G
run
2008
Sthe
nuru
ssp
.66
000
9000
Gru
n 20
08St
henu
rus
sp.
5100
030
00G
run
2008
Sthe
nuru
ssp
.47
000
2000
Gru
n 20
08St
henu
rus
sp.
6000
030
00G
run
2008
Sthe
nuru
ssp
.49
000
2000
Gru
n 20
08St
henu
rus
sp.
5800
020
00G
run
2008
a57
Sthe
nuru
ssp
.61
000
3000
Gru
n 20
08T
hyla
cole
oca
rnif
ex17
1000
1400
0R
ober
ts 2
001
Thy
laco
leo
carn
ifex
1570
0016
000
Rob
erts
200
1T
hyla
cole
oca
rnif
ex41
700
1000
4513
216
13A
ylif
fe 2
008
Thy
laco
leo
carn
ifex
4010
011
0044
013
1566
Ayl
iffe
200
8T
hyla
cole
oca
rnif
ex45
200
1700
4785
2.5
2147
.5A
ylif
fe 2
008
Thy
laco
leo
carn
ifex
1350
0070
00P
ride
aux
2010
Thy
laco
leo
carn
ifex
8900
060
00P
ride
aux
2010
Thy
laco
leo
carn
ifex
9500
070
00P
ride
aux
2010
Thy
laco
leo
carn
ifex
9800
080
00P
ride
aux
2010
Thy
laco
leo
carn
ifex
1030
0070
00P
ride
aux
2010
Thy
laco
leo
carn
ifex
7000
040
00P
ride
aux
2010
Thy
laco
leo
carn
ifex
5300
040
00P
ride
aux
2010
Thy
laco
leo
carn
ifex
4500
040
00P
ride
aux
2010
Thy
laco
leo
carn
ifex
4700
030
00P
ride
aux
2010
Thy
laco
leo
carn
ifex
1560
0027
00A
ylif
fe 2
008
Thy
laco
leo
carn
ifex
1195
0037
00A
ylif
fe 2
008
Thy
laco
leo
carn
ifex
1425
0014
00A
ylif
fe 2
008
Thy
laco
leo
carn
ifex
1368
0026
00A
ylif
fe 2
008
Thy
laco
leo
carn
ifex
1510
0013
000
Pri
deau
x 20
10T
hyla
cole
oca
rnif
ex14
6300
8400
Pri
deau
x 20
10T
hyla
cole
oca
rnif
ex11
2000
1100
0P
ride
aux
2010
Thy
laco
leo
carn
ifex
4870
030
00P
ride
aux
2010
Thy
laco
leo
carn
ifex
4490
013
00P
ride
aux
2010
Thy
laco
leo
sp.
5000
040
00G
run
2008
Thy
laco
leo
sp.
5600
013
000
Gru
n 20
08T
hyla
cole
osp
.54
000
1100
0G
run
2008
Thy
laco
leo
sp.
6600
090
00G
run
2008
Zyg
omat
urus
tril
obus
1710
0014
000
Rob
erts
200
1Z
ygom
atur
ustr
ilob
us15
7000
1600
0R
ober
ts 2
001
Zyg
omat
urus
tril
obus
5500
090
00R
ober
ts 2
001
Zyg
omat
urus
tril
obus
6300
090
00R
ober
ts 2
001
Zyg
omat
urus
tril
obus
7400
010
000
Rob
erts
200
1Z
ygom
atur
ustr
ilob
us13
1000
1400
0R
ober
ts 2
001
Zyg
omat
urus
tril
obus
1350
0070
00P
ride
aux
2010
Zyg
omat
urus
tril
obus
8900
060
00P
ride
aux
2010
Zyg
omat
urus
tril
obus
9500
070
00P
ride
aux
2010
Zyg
omat
urus
tril
obus
9800
080
00P
ride
aux
2010
Zyg
omat
urus
tril
obus
1030
0070
00P
ride
aux
2010
Zyg
omat
urus
tril
obus
7000
040
00P
ride
aux
2010
a58
Zyg
omat
urus
tril
obus
5300
040
00P
ride
aux
2010
Zyg
omat
urus
tril
obus
4500
040
00P
ride
aux
2010
Zyg
omat
urus
tril
obus
4700
030
00P
ride
aux
2010
Zyg
omat
urus
tril
obus
1560
0027
00A
ylif
fe 2
008
Zyg
omat
urus
tril
obus
1195
0037
00A
ylif
fe 2
008
Zyg
omat
urus
tril
obus
1425
0015
00A
ylif
fe 2
008
Zyg
omat
urus
tril
obus
1368
0026
00A
ylif
fe 2
008
Zyg
omat
urus
tril
obus
1510
0013
000
Pri
deau
x 20
10Z
ygom
atur
ustr
ilob
us14
6300
8400
Pri
deau
x 20
10Z
ygom
atur
ustr
ilob
us11
2000
1100
0P
ride
aux
2010
Zyg
omat
urus
tril
obus
4870
030
00P
ride
aux
2010
Zyg
omat
urus
tril
obus
4490
013
00P
ride
aux
2010
Zyg
omat
urus
sp.
1300
0010
000
Gru
n 20
08Z
ygom
atur
ussp
.11
8000
9000
Gru
n 20
08Z
ygom
atur
ussp
.11
4000
9000
Gru
n 20
08Z
ygom
atur
ussp
.98
000
8000
Gru
n 20
08Z
ygom
atur
ussp
.87
000
7000
Gru
n 20
08Z
ygom
atur
ussp
.84
000
7000
Gru
n 20
08Z
ygom
atur
ussp
.84
000
7000
Gru
n 20
08Z
ygom
atur
ussp
.56
000
1300
0G
run
2008
Zyg
omat
urus
sp.
5400
011
000
Gru
n 20
08Z
ygom
atur
ussp
.66
000
9000
Gru
n 20
08
a59
Tab
le S
10 -
Hum
an d
ates
from
Sou
th A
mer
ica
that
ran
ked
13 o
r hi
gher
on
the
mod
ified
Mea
d-M
eltz
er sc
ale
(see
Met
hods
; Tab
le 1
).
Lat
itude
Lon
gitu
de14
Cer
ror
14C
(2σ)
erro
r (2σ)
Sour
ce r
efer
ence
-45.
20-7
1.50
8880
5099
8020
3L
ima-
Rib
eiro
(20
12)
-45.
20-7
1.50
8945
4010
065
149
Lim
a-R
ibei
ro (
2012
)-4
5.20
-71.
5089
5060
1006
716
8L
ima-
Rib
eiro
(20
12)
-45.
20-7
1.50
8950
5010
070
156
Lim
a-R
ibei
ro (
2012
)-4
5.20
-71.
5089
7520
1009
612
8L
ima-
Rib
eiro
(20
12)
-45.
20-7
1.50
8990
3010
091
143
Lim
a-R
ibei
ro (
2012
)-4
5.20
-71.
5088
5050
9952
216
Bar
nosk
y an
d L
inds
ey (
2010
)-4
5.20
-71.
5091
168
1024
411
Lim
a-R
ibei
ro (
2012
)-3
8.40
-60.
2089
8010
010
039
334
Lim
a-R
ibei
ro (
2012
)-3
8.40
-60.
2089
9090
1006
930
3L
ima-
Rib
eiro
(20
12)
-19.
58-4
3.90
9780
7011
128
259
Lim
a-R
ibei
ro (
2012
)-3
8.40
-60.
2085
6032
095
1886
1L
ima-
Rib
eiro
(20
12)
-9.1
0-7
7.70
9980
120
1158
738
2L
ima-
Rib
eiro
(20
12)
-9.1
0-7
7.70
9930
300
1154
996
4L
ima-
Rib
eiro
(20
12)
-9.1
0-7
7.70
1018
013
011
855
529
Lim
a-R
ibei
ro (
2012
)-9
.10
-77.
7010
340
130
1211
346
6L
ima-
Rib
eiro
(20
12)
-31.
50-7
1.23
1106
080
1291
321
2B
arno
sky
and
Lin
dsey
(20
10)
-31.
50-7
1.23
1102
346
1290
118
9L
ima-
Rib
eiro
(20
12)
-37.
02-5
8.63
1072
590
1264
921
6B
arno
sky
and
Lin
dsey
(20
10)
-37.
02-5
8.63
1027
085
1203
337
5B
arno
sky
and
Lin
dsey
(20
10)
-37.
02-5
8.63
1067
511
012
549
328
Bar
nosk
y an
d L
inds
ey (
2010
)-3
7.02
-58.
6310
480
7012
356
228
Bar
nosk
y an
d L
inds
ey (
2010
)-3
7.93
-58.
5910
610
180
1237
953
4B
arno
sky
and
Lin
dsey
(20
10)
-36.
84-5
7.70
1004
595
1161
635
6B
arno
sky
and
Lin
dsey
(20
10)
-36.
84-5
7.70
1037
590
1219
935
8B
arno
sky
and
Lin
dsey
(20
10)
-37.
85-5
8.05
1046
565
1234
822
6L
ima-
Rib
eiro
(20
12)
-37.
85-5
8.05
1041
570
1230
724
0L
ima-
Rib
eiro
(20
12)
-37.
20-5
8.30
1041
030
1231
219
8L
ima-
Rib
eiro
(20
12)
-48.
05-6
8.90
1091
565
1282
821
7L
ima-
Rib
eiro
(20
12)
9.55
-69.
9610
710
6012
645
98L
ima-
Rib
eiro
(20
12)
-9.1
0-7
7.70
9600
130
1090
832
3L
ima-
Rib
eiro
(20
12)
-9.1
0-7
7.70
9430
150
1072
043
0L
ima-
Rib
eiro
(20
12)
-9.1
0-7
7.70
9520
150
1082
040
1L
ima-
Rib
eiro
(20
12)
-9.1
0-7
7.70
9280
150
1062
744
9L
ima-
Rib
eiro
(20
12)
-9.1
0-7
7.70
9340
150
1065
842
9L
ima-
Rib
eiro
(20
12)
-9.1
0-7
7.70
9400
150
1068
743
3L
ima-
Rib
eiro
(20
12)
-9.1
0-7
7.70
9350
150
1066
242
8L
ima-
Rib
eiro
(20
12)
a60
-9.1
0-7
7.70
9700
4511
021
208
Lim
a-R
ibei
ro (
2012
)-3
0.34
-57.
4691
2040
1030
597
Lim
a-R
ibei
ro (
2012
)-1
.33
-53.
6810
450
6012
338
222
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
290
8012
085
321
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
300
6012
110
283
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
280
7012
079
310
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
370
7012
257
268
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
330
7012
172
344
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
510
6012
378
230
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
480
7012
356
228
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
570
7012
444
224
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
260
7012
069
316
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
210
6011
880
250
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
250
7012
049
333
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
180
6011
798
290
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
190
6011
856
237
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
190
5011
862
214
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
330
7012
172
344
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
120
7011
711
313
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
310
7012
117
292
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
210
7011
938
433
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
360
6012
253
260
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
220
6011
887
257
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
470
7012
349
230
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
350
7012
183
338
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
390
7012
283
248
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
000
6011
506
244
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
390
6012
286
238
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
230
6012
009
361
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
470
7012
349
230
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
000
6011
506
244
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
490
8012
357
239
Bar
nosk
y an
d L
inds
ey (
2010
)-3
1.50
-71.
2311
090
8012
935
219
Bar
nosk
y an
d L
inds
ey (
2010
)-3
1.50
-71.
2310
920
8012
841
224
Bar
nosk
y an
d L
inds
ey (
2010
)-1
8.00
-70.
8010
290
200
1196
461
5B
arno
sky
and
Lin
dsey
(20
10)
-18.
00-7
0.80
1051
050
1239
421
6B
arno
sky
and
Lin
dsey
(20
10)
-18.
00-7
0.80
1075
080
1270
015
2B
arno
sky
and
Lin
dsey
(20
10)
-18.
00-7
0.80
1058
042
1252
510
4L
ima-
Rib
eiro
(20
12)
-53.
60-6
8.80
1058
050
1252
410
9B
arno
sky
and
Lin
dsey
(20
10)
-53.
60-6
8.80
1061
733
1255
311
3L
ima-
Rib
eiro
(20
12)
a61
-29.
50-5
1.50
8,29
013
092
6426
6L
ima-
Rib
eiro
(20
12)
-29.
50-5
1.50
8,02
015
089
4145
6L
ima-
Rib
eiro
(20
12)
-29.
50-5
1.50
9,43
936
010
813
1137
Lim
a-R
ibei
ro (
2012
)-3
2.57
-69.
0492
1070
1039
815
9B
arno
sky
and
Lin
dsey
(20
10)
-32.
57-6
9.04
1024
060
1204
333
1B
arno
sky
and
Lin
dsey
(20
10)
-32.
57-6
9.04
1035
022
011
992
640
Bar
nosk
y an
d L
inds
ey (
2010
)-3
2.57
-69.
0498
4090
1128
740
5B
arno
sky
and
Lin
dsey
(20
10)
-32.
57-6
9.04
9760
160
1117
756
8B
arno
sky
and
Lin
dsey
(20
10)
-32.
57-6
9.04
1095
090
1286
321
8B
arno
sky
and
Lin
dsey
(20
10)
-45.
20-7
1.50
8695
2596
2674
Lim
a-R
ibei
ro (
2012
)-4
5.20
-71.
5090
7025
1022
424
Lim
a-R
ibei
ro (
2012
)-4
5.20
-71.
5091
5525
1031
879
Lim
a-R
ibei
ro (
2012
)-4
5.20
-71.
5092
4525
1040
210
7L
ima-
Rib
eiro
(20
12)
-45.
20-7
1.50
9435
2510
660
75L
ima-
Rib
eiro
(20
12)
-45.
20-7
1.50
9530
2510
890
179
Lim
a-R
ibei
ro (
2012
)-3
7.85
-58.
1510
000
120
1159
737
8L
ima-
Rib
eiro
(20
12)
-37.
85-5
8.05
9570
150
1084
540
2L
ima-
Rib
eiro
(20
12)
-6.5
0-3
6.50
9,40
090
1068
638
7L
ima-
Rib
eiro
(20
12)
-6.5
0-3
6.50
8,28
030
9271
134
Lim
a-R
ibei
ro (
2012
)-8
.05
-36.
4284
9570
9446
139
Lim
a-R
ibei
ro (
2012
)-8
.05
-36.
4291
5070
1035
214
7L
ima-
Rib
eiro
(20
12)
-6.7
0-3
6.60
9640
100
1096
825
7L
ima-
Rib
eiro
(20
12)
-8.0
5-3
6.42
9340
5010
552
144
Lim
a-R
ibei
ro (
2012
)-4
8.05
-68.
9011
560
140
1344
728
6L
ima-
Rib
eiro
(20
12)
-48.
05-6
8.90
1085
015
012
778
332
Lim
a-R
ibei
ro (
2012
)-4
8.05
-68.
9010
260
110
1196
655
5L
ima-
Rib
eiro
(20
12)
-13.
50-4
3.90
8860
115
9912
310
Lim
a-R
ibei
ro (
2012
)-1
3.50
-43.
9091
1010
010
249
316
Lim
a-R
ibei
ro (
2012
)-1
3.50
-43.
9090
0276
1010
127
0L
ima-
Rib
eiro
(20
12)
-48.
40-6
9.10
8050
9089
4130
6L
ima-
Rib
eiro
(20
12)
-40.
60-7
1.10
9285
313
1041
185
0L
ima-
Rib
eiro
(20
12)
-14.
45-4
4.44
1000
025
511
591
823
Lim
a-R
ibei
ro (
2012
)-1
4.45
-44.
4411
000
300
1279
566
1L
ima-
Rib
eiro
(20
12)
-31.
45-6
4.80
9790
8011
098
304
Lim
a-R
ibei
ro (
2012
)-3
1.45
-64.
8011
010
8012
890
209
Lim
a-R
ibei
ro (
2012
)-3
4.75
-68.
4010
530
140
1234
234
7L
ima-
Rib
eiro
(20
12)
-34.
75-6
8.40
1044
022
012
058
654
Lim
a-R
ibei
ro (
2012
)-3
4.75
-68.
4010
195
8011
888
483
Lim
a-R
ibei
ro (
2012
)-3
4.75
-68.
4010
170
7011
751
344
Lim
a-R
ibei
ro (
2012
)-3
4.75
-68.
4010
135
9511
708
378
Lim
a-R
ibei
ro (
2012
)
a62
-34.
75-6
8.40
1021
543
1192
116
0L
ima-
Rib
eiro
(20
12)
-9.1
0-7
7.70
9660
150
1097
941
5L
ima-
Rib
eiro
(20
12)
-9.1
0-7
7.70
9790
240
1128
176
7L
ima-
Rib
eiro
(20
12)
-9.1
0-7
7.70
9140
9010
368
193
Lim
a-R
ibei
ro (
2012
)-9
.10
-77.
7094
7513
010
797
384
Lim
a-R
ibei
ro (
2012
)-9
.10
-77.
7012
560
360
1507
713
04L
ima-
Rib
eiro
(20
12)
-9.1
0-7
7.70
8175
9591
0832
6L
ima-
Rib
eiro
(20
12)
-9.1
0-7
7.70
8910
9099
6726
3L
ima-
Rib
eiro
(20
12)
-9.1
0-7
7.70
1053
529
012
213
848
Lim
a-R
ibei
ro (
2012
)-9
.10
-77.
7095
8013
510
897
338
Lim
a-R
ibei
ro (
2012
)-9
.10
-77.
7010
475
300
1209
481
5L
ima-
Rib
eiro
(20
12)
-9.1
0-7
7.70
1024
011
011
910
503
Lim
a-R
ibei
ro (
2012
)-4
1.50
-73.
4512
740
440
1527
314
14B
arno
sky
and
Lin
dsey
(20
10)
-41.
50-7
3.45
1245
015
014
575
543
Bar
nosk
y an
d L
inds
ey (
2010
)-4
1.50
-73.
4512
780
240
1528
911
11B
arno
sky
and
Lin
dsey
(20
10)
-41.
50-7
3.45
1247
065
1460
043
6L
ima-
Rib
eiro
(20
12)
-30.
34-5
7.46
9280
200
1054
861
7B
arno
sky
and
Lin
dsey
(20
10)
-30.
34-5
7.46
8570
150
9651
501
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
560
6012
438
212
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
392
7812
278
268
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
230
6012
009
361
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
260
6012
070
309
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
320
7012
122
296
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
390
7012
283
248
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
450
6012
338
222
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
330
6012
128
285
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
380
6012
280
242
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
420
7012
311
238
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
370
6012
264
254
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
110
6011
691
290
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
290
7012
088
309
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
290
7012
088
309
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
250
7012
049
333
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
410
6012
301
228
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
210
6011
880
250
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
360
5012
224
189
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
450
6012
338
222
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
315
1012
110
102
Lim
a-R
ibei
ro (
2012
)-1
8.00
-70.
8090
9011
010
235
322
Bar
nosk
y an
d L
inds
ey (
2010
)-1
8.00
-70.
8010
090
130
1167
443
3B
arno
sky
and
Lin
dsey
(20
10)
a63
-18.
00-7
0.80
1042
011
012
221
376
Bar
nosk
y an
d L
inds
ey (
2010
)-1
8.00
-70.
8010
530
140
1234
234
7B
arno
sky
and
Lin
dsey
(20
10)
-18.
00-7
0.80
1077
015
012
661
428
Bar
nosk
y an
d L
inds
ey (
2010
)2.
40-7
6.90
9530
100
1087
629
5B
arno
sky
and
Lin
dsey
(20
10)
2.40
-76.
9010
050
100
1161
835
7B
arno
sky
and
Lin
dsey
(20
10)
2.40
-76.
9097
9070
1113
325
7L
ima-
Rib
eiro
(20
12)
-8.8
0-4
2.50
8050
170
8982
439
Lim
a-R
ibei
ro (
2012
)-8
.80
-42.
5012
200
600
1473
917
72L
ima-
Rib
eiro
(20
12)
-8.8
0-4
2.50
1244
023
014
621
823
Lim
a-R
ibei
ro (
2012
)-6
.00
-50.
008,
065
360
9028
859
Lim
a-R
ibei
ro (
2012
)-6
.00
-50.
008,
140
130
9041
391
Lim
a-R
ibei
ro (
2012
)-6
.00
-50.
008,
119
5090
3922
4L
ima-
Rib
eiro
(20
12)
-6.0
0-5
0.00
8,34
050
9312
168
Lim
a-R
ibei
ro (
2012
)-6
.00
-50.
008,
520
5095
0249
Lim
a-R
ibei
ro (
2012
)-6
.00
-50.
008,
260
5092
2919
2L
ima-
Rib
eiro
(20
12)
-6.0
0-5
0.00
9,00
050
1008
616
1L
ima-
Rib
eiro
(20
12)
-6.0
0-5
0.00
8,47
050
9480
62L
ima-
Rib
eiro
(20
12)
-18.
45-5
2.00
9060
6510
173
238
Lim
a-R
ibei
ro (
2012
)-1
8.45
-52.
0090
2070
1013
923
0L
ima-
Rib
eiro
(20
12)
-18.
45-5
2.00
9510
6010
840
250
Lim
a-R
ibei
ro (
2012
)-1
8.45
-52.
0089
1511
599
3831
2L
ima-
Rib
eiro
(20
12)
-18.
45-5
2.00
8805
100
9865
304
Lim
a-R
ibei
ro (
2012
)-1
8.45
-52.
0087
4090
9845
305
Lim
a-R
ibei
ro (
2012
)-1
8.45
-52.
0091
9575
1039
416
3L
ima-
Rib
eiro
(20
12)
-18.
45-5
2.00
9765
7511
063
270
Lim
a-R
ibei
ro (
2012
)-1
8.45
-52.
0088
8090
9953
269
Lim
a-R
ibei
ro (
2012
)-1
8.45
-52.
0083
7085
9332
196
Lim
a-R
ibei
ro (
2012
)-1
8.45
-52.
0010
580
115
1240
228
9L
ima-
Rib
eiro
(20
12)
-18.
45-5
2.00
1074
085
1270
616
5L
ima-
Rib
eiro
(20
12)
-18.
45-5
2.00
1040
013
012
207
393
Lim
a-R
ibei
ro (
2012
)-1
8.45
-52.
0010
120
8011
700
344
Lim
a-R
ibei
ro (
2012
)-1
8.45
-52.
0010
440
5012
331
213
Lim
a-R
ibei
ro (
2012
)-5
3.60
-68.
8010
600
9012
429
274
Bar
nosk
y an
d L
inds
ey (
2010
)-5
3.60
-68.
8010
130
210
1186
365
9B
arno
sky
and
Lin
dsey
(20
10)
-47.
10-7
0.55
9320
9010
492
238
Lim
a-R
ibei
ro (
2012
)-4
7.10
-70.
5593
0090
1047
622
5L
ima-
Rib
eiro
(20
12)
-47.
00-7
0.50
9410
7010
745
323
Lim
a-R
ibei
ro (
2012
)-4
7.00
-70.
5086
1070
9620
146
Lim
a-R
ibei
ro (
2012
)-4
7.00
-70.
5084
1070
9401
135
Lim
a-R
ibei
ro (
2012
)-4
5.20
-71.
5085
3016
096
1051
8L
ima-
Rib
eiro
(20
12)
a64
-45.
20-7
1.50
8890
9099
6026
5L
ima-
Rib
eiro
(20
12)
-45.
20-7
1.50
9200
8010
398
168
Lim
a-R
ibei
ro (
2012
)-4
5.20
-71.
5092
6025
1042
412
7L
ima-
Rib
eiro
(20
12)
-37.
95-5
7.85
9670
120
1094
133
2L
ima-
Rib
eiro
(20
12)
-40.
40-7
0.15
9970
100
1158
137
3L
ima-
Rib
eiro
(20
12)
-51.
47-7
2.60
1086
016
012
779
344
Bar
nosk
y an
d L
inds
ey (
2010
)-5
1.47
-72.
6011
040
250
1292
349
4B
arno
sky
and
Lin
dsey
(20
10)
-51.
47-7
2.60
1043
010
012
297
288
Bar
nosk
y an
d L
inds
ey (
2010
)-5
1.47
-72.
6010
601
8012
462
241
Lim
a-R
ibei
ro (
2012
)-5
1.40
-72.
5011
570
6013
438
161
Bar
nosk
y an
d L
inds
ey (
2010
)-4
4.50
-71.
7082
5060
9224
192
Lim
a-R
ibei
ro (
2012
)-4
4.50
-71.
7010
010
6011
511
244
Lim
a-R
ibei
ro (
2012
)-5
1.68
-70.
0391
0015
010
214
446
Bar
nosk
y an
d L
inds
ey (
2010
)-5
1.68
-70.
0390
3023
010
130
591
Bar
nosk
y an
d L
inds
ey (
2010
)-5
1.68
-70.
0384
8013
594
6042
5B
arno
sky
and
Lin
dsey
(20
10)
-51.
68-7
0.03
8180
135
9098
374
Bar
nosk
y an
d L
inds
ey (
2010
)-5
1.68
-70.
0310
080
160
1179
158
3B
arno
sky
and
Lin
dsey
(20
10)
-23.
70-6
5.50
9230
7010
407
161
Lim
a-R
ibei
ro (
2012
)-2
3.70
-65.
5096
5011
010
969
275
Lim
a-R
ibei
ro (
2012
)-2
7.09
-53.
3586
4095
9790
324
Lim
a-R
ibei
ro (
2012
)-1
9.58
-43.
9095
8020
010
833
564
Lim
a-R
ibei
ro (
2012
)-4
1.50
-73.
4512
230
140
1434
955
7B
arno
sky
and
Lin
dsey
(20
10)
-41.
50-7
3.45
1265
013
014
849
660
Bar
nosk
y an
d L
inds
ey (
2010
)-4
1.50
-73.
4512
420
130
1455
151
7B
arno
sky
and
Lin
dsey
(20
10)
-1.3
3-5
3.68
1090
529
512
716
670
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6811
110
310
1304
065
1B
arno
sky
and
Lin
dsey
(20
10)
-1.3
3-5
3.68
1087
529
512
678
685
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6811
145
135
1299
428
9B
arno
sky
and
Lin
dsey
(20
10)
-1.3
3-5
3.68
1027
527
511
931
718
Bar
nosk
y an
d L
inds
ey (
2010
)-1
.33
-53.
6810
655
285
1233
282
5B
arno
sky
and
Lin
dsey
(20
10)
-1.3
3-5
3.68
1030
527
511
946
717
Bar
nosk
y an
d L
inds
ey (
2010
)-4
7.90
-67.
9010
400
8012
292
263
Bar
nosk
y an
d L
inds
ey (
2010
)-1
8.00
-70.
8797
9074
011
274
1842
Bar
nosk
y an
d L
inds
ey (
2010
)-1
8.00
-70.
8787
3070
9829
289
Bar
nosk
y an
d L
inds
ey (
2010
)-5
3.60
-68.
8010
630
7012
553
138
Bar
nosk
y an
d L
inds
ey (
2010
)-5
3.60
-68.
8010
685
7012
590
159
Bar
nosk
y an
d L
inds
ey (
2010
)
a65
Tab
le S
11 -
Hum
an d
ates
from
Nor
th A
mer
ica
that
ran
ked
13 o
r hi
gher
on
the
mod
ified
Mea
d-M
eltz
er sc
ale
(see
Met
hods
; Tab
le 1
).
Lat
itude
Lon
gitu
de14
Cer
ror
14C
(2σ)
erro
r (2σ)
Sour
ce r
efer
ence
19.3
0-9
9.00
1075
575
1269
614
4L
ima-
Rib
eiro
(20
12)
19.3
0-9
9.00
1020
065
1182
231
2L
ima-
Rib
eiro
(20
12)
46.0
0-1
10.5
010
240
120
1191
150
7L
ima-
Rib
eiro
(20
12)
46.0
0-1
10.5
010
820
100
1274
919
1L
ima-
Rib
eiro
(20
12)
46.0
0-1
10.5
010
710
100
1263
721
7L
ima-
Rib
eiro
(20
12)
46.0
0-1
10.5
010
940
9012
857
219
Lim
a-R
ibei
ro (
2012
)46
.00
-110
.50
1037
013
012
173
416
Lim
a-R
ibei
ro (
2012
)46
.00
-110
.50
1070
535
1263
174
Lim
a-R
ibei
ro (
2012
)42
.90
-120
.70
1229
325
1441
341
9L
ima-
Rib
eiro
(20
12)
34.0
0-1
20.0
010
960
8012
866
211
Lim
a-R
ibei
ro (
2012
)46
.00
-110
.50
1078
040
1268
111
1L
ima-
Rib
eiro
(20
12)
34.0
0-1
20.0
010
800
810
1252
322
81L
ima-
Rib
eiro
(20
12)
46.0
0-1
10.5
011
040
6012
908
194
Lim
a-R
ibei
ro (
2012
)46
.00
-110
.50
1104
040
1291
218
2L
ima-
Rib
eiro
(20
12)
46.0
0-1
10.5
011
040
3512
913
180
Lim
a-R
ibei
ro (
2012
)43
.40
-102
.50
1114
014
012
990
294
Lim
a-R
ibei
ro (
2012
)41
.00
-82.
5011
060
120
1292
326
1L
ima-
Rib
eiro
(20
12)
41.0
0-8
2.50
1080
018
512
643
483
Lim
a-R
ibei
ro (
2012
)41
.00
-82.
5010
980
110
1287
523
2L
ima-
Rib
eiro
(20
12)
41.0
0-8
2.50
1098
075
1287
620
7L
ima-
Rib
eiro
(20
12)
34.0
0-1
20.0
010
400
2000
1241
449
83L
ima-
Rib
eiro
(20
12)
29.5
0-8
2.90
1105
050
1291
718
6L
ima-
Rib
eiro
(20
12)
68.5
0-1
47.8
010
490
7012
363
227
Lim
a-R
ibei
ro (
2012
)68
.10
-147
.40
1036
060
1225
326
0L
ima-
Rib
eiro
(20
12)
68.1
0-1
47.4
010
415
4512
309
214
Lim
a-R
ibei
ro (
2012
)40
.15
-114
.10
1079
525
1268
610
8L
ima-
Rib
eiro
(20
12)
44.3
0-1
05.2
010
400
600
1190
814
90L
ima-
Rib
eiro
(20
12)
34.4
0-1
03.4
010
914
7212
834
223
Lim
a-R
ibei
ro (
2012
)34
.40
-103
.40
1130
024
013
154
484
Lim
a-R
ibei
ro (
2012
)34
.40
-103
.40
1094
769
1285
721
2L
ima-
Rib
eiro
(20
12)
43.9
5-1
08.0
010
790
3012
684
108
Lim
a-R
ibei
ro (
2012
)43
.95
-108
.00
1095
030
1280
214
2L
ima-
Rib
eiro
(20
12)
43.9
5-1
08.0
010
870
2012
755
131
Lim
a-R
ibei
ro (
2012
)40
.00
-104
.90
1098
090
1287
621
6L
ima-
Rib
eiro
(20
12)
40.0
0-1
04.9
010
660
170
1249
243
9L
ima-
Rib
eiro
(20
12)
40.0
0-1
04.9
010
800
110
1278
925
3L
ima-
Rib
eiro
(20
12)
40.0
0-1
04.9
010
600
9012
429
274
Lim
a-R
ibei
ro (
2012
)
a66
40.0
0-1
04.9
010
710
9012
629
204
Lim
a-R
ibei
ro (
2012
)40
.00
-104
.90
1067
012
012
515
359
Lim
a-R
ibei
ro (
2012
)40
.00
-104
.90
1106
535
1293
017
3L
ima-
Rib
eiro
(20
12)
40.0
0-1
04.9
010
940
3012
796
138
Lim
a-R
ibei
ro (
2012
)40
.00
-104
.90
1099
025
1287
019
3L
ima-
Rib
eiro
(20
12)
35.3
0-9
8.00
1081
042
012
404
1057
Lim
a-R
ibei
ro (
2012
)35
.30
-98.
0010
860
450
1248
711
33L
ima-
Rib
eiro
(20
12)
35.3
0-9
8.00
1148
045
013
627
1209
Lim
a-R
ibei
ro (
2012
)35
.30
-98.
0010
960
3012
808
149
Lim
a-R
ibei
ro (
2012
)36
.90
-99.
7010
750
4012
657
92L
ima-
Rib
eiro
(20
12)
36.9
0-9
9.70
1084
045
1273
813
9L
ima-
Rib
eiro
(20
12)
36.9
0-9
9.70
1070
045
1263
179
Lim
a-R
ibei
ro (
2012
)36
.90
-99.
7010
765
2512
662
89L
ima-
Rib
eiro
(20
12)
36.1
5-8
5.90
1269
097
015
181
2478
Lim
a-R
ibei
ro (
2012
)36
.15
-85.
9011
700
980
1400
127
54L
ima-
Rib
eiro
(20
12)
36.1
5-8
5.90
1198
011
013
801
303
Lim
a-R
ibei
ro (
2012
)43
.40
-102
.50
1071
013
012
553
379
Lim
a-R
ibei
ro (
2012
)43
.40
-102
.50
1111
040
1296
217
0L
ima-
Rib
eiro
(20
12)
43.4
0-1
02.5
011
080
4012
939
173
Lim
a-R
ibei
ro (
2012
)31
.50
-110
.00
1117
014
013
007
297
Lim
a-R
ibei
ro (
2012
)31
.50
-110
.00
1094
010
012
857
225
Lim
a-R
ibei
ro (
2012
)31
.50
-110
.00
1077
014
012
738
332
Lim
a-R
ibei
ro (
2012
)31
.50
-110
.00
1108
020
012
959
351
Lim
a-R
ibei
ro (
2012
)31
.50
-110
.00
1095
011
012
862
232
Lim
a-R
ibei
ro (
2012
)31
.50
-110
.00
1086
028
012
678
647
Lim
a-R
ibei
ro (
2012
)31
.50
-110
.00
1095
090
1286
321
8L
ima-
Rib
eiro
(20
12)
31.5
0-1
10.0
011
080
230
1297
840
2L
ima-
Rib
eiro
(20
12)
31.5
0-1
10.0
010
620
300
1226
585
8L
ima-
Rib
eiro
(20
12)
31.5
0-1
10.0
010
710
9012
629
204
Lim
a-R
ibei
ro (
2012
)31
.50
-110
.00
1117
020
013
020
369
Lim
a-R
ibei
ro (
2012
)31
.50
-110
.00
1147
011
013
351
231
Lim
a-R
ibei
ro (
2012
)31
.50
-110
.00
1098
037
1286
619
7L
ima-
Rib
eiro
(20
12)
41.0
0-1
04.5
010
500
8012
364
238
Lim
a-R
ibei
ro (
2012
)41
.00
-104
.50
1056
010
012
395
263
Lim
a-R
ibei
ro (
2012
)41
.00
-104
.50
1078
013
512
742
323
Lim
a-R
ibei
ro (
2012
)41
.00
-104
.50
1056
957
1251
912
4L
ima-
Rib
eiro
(20
12)
31.9
0-1
09.2
011
190
180
1302
734
9L
ima-
Rib
eiro
(20
12)
31.9
0-1
09.2
011
150
450
1289
311
16L
ima-
Rib
eiro
(20
12)
31.9
0-1
09.2
011
080
180
1295
932
6L
ima-
Rib
eiro
(20
12)
31.9
0-1
09.2
010
930
170
1286
530
7L
ima-
Rib
eiro
(20
12)
a67
31.9
0-1
09.2
010
890
180
1280
437
6L
ima-
Rib
eiro
(20
12)
31.9
0-1
09.2
010
840
7012
745
156
Lim
a-R
ibei
ro (
2012
)31
.90
-109
.20
1084
014
012
819
274
Lim
a-R
ibei
ro (
2012
)31
.90
-109
.20
1071
016
012
540
423
Lim
a-R
ibei
ro (
2012
)31
.90
-109
.20
1088
550
1276
714
6L
ima-
Rib
eiro
(20
12)
40.9
0-8
3.20
1068
080
1258
716
5L
ima-
Rib
eiro
(20
12)
45.0
5-7
0.90
1055
080
012
001
2085
Lim
a-R
ibei
ro (
2012
)45
.05
-70.
9010
460
325
1209
785
8L
ima-
Rib
eiro
(20
12)
45.0
5-7
0.90
1061
033
012
249
887
Lim
a-R
ibei
ro (
2012
)63
.00
-149
.90
1050
060
1237
122
7L
ima-
Rib
eiro
(20
12)
63.0
0-1
49.9
011
190
6013
074
192
Lim
a-R
ibei
ro (
2012
)63
.90
-149
.00
1101
023
012
898
459
Lim
a-R
ibei
ro (
2012
)63
.90
-149
.00
1117
018
013
012
344
Lim
a-R
ibei
ro (
2012
)63
.90
-149
.00
1130
012
013
151
264
Lim
a-R
ibei
ro (
2012
)63
.90
-149
.00
1119
950
1308
117
7L
ima-
Rib
eiro
(20
12)
64.0
0-1
44.7
010
250
380
1179
810
31L
ima-
Rib
eiro
(20
12)
64.2
0-1
46.1
010
290
7012
088
309
Lim
a-R
ibei
ro (
2012
)64
.20
-146
.10
1142
070
1328
014
3L
ima-
Rib
eiro
(20
12)
64.2
0-1
46.1
011
500
8013
368
195
Lim
a-R
ibei
ro (
2012
)64
.80
-147
.90
1182
735
1364
716
2L
ima-
Rib
eiro
(20
12)
68.0
0-1
54.0
010
050
9011
618
353
Lim
a-R
ibei
ro (
2012
)68
.00
-154
.00
1006
070
1163
832
9L
ima-
Rib
eiro
(20
12)
68.0
0-1
54.0
010
070
6011
648
314
Lim
a-R
ibei
ro (
2012
)68
.00
-154
.00
1008
050
1166
529
9L
ima-
Rib
eiro
(20
12)
68.0
0-1
54.0
010
080
6011
659
312
Lim
a-R
ibei
ro (
2012
)68
.00
-154
.00
1008
012
011
654
402
Lim
a-R
ibei
ro (
2012
)68
.00
-154
.00
1009
011
011
656
388
Lim
a-R
ibei
ro (
2012
)68
.00
-154
.00
1013
060
1171
631
1L
ima-
Rib
eiro
(20
12)
68.0
0-1
54.0
010
150
120
1182
255
1L
ima-
Rib
eiro
(20
12)
68.0
0-1
54.0
010
230
6012
009
361
Lim
a-R
ibei
ro (
2012
)68
.00
-154
.00
1024
080
1200
637
9L
ima-
Rib
eiro
(20
12)
68.0
0-1
54.0
010
260
110
1196
655
5L
ima-
Rib
eiro
(20
12)
68.0
0-1
54.0
011
190
7013
070
208
Lim
a-R
ibei
ro (
2012
)68
.00
-154
.00
1166
080
1352
620
0L
ima-
Rib
eiro
(20
12)
68.0
0-1
54.0
011
395
5313
261
124
Lim
a-R
ibei
ro (
2012
)40
.00
-106
.50
1072
268
1266
211
9L
ima-
Rib
eiro
(20
12)
40.0
0-1
06.5
010
914
5012
785
152
Lim
a-R
ibei
ro (
2012
)37
.80
-93.
8010
710
8512
624
197
Lim
a-R
ibei
ro (
2012
)37
.80
-93.
8010
832
5812
737
145
Lim
a-R
ibei
ro (
2012
)29
.90
-101
.50
1028
043
011
882
1171
Lim
a-R
ibei
ro (
2012
)
a68
29.9
0-1
01.5
010
000
8011
529
289
Lim
a-R
ibei
ro (
2012
)36
.90
-77.
2010
920
250
1273
758
1L
ima-
Rib
eiro
(20
12)
44.9
5-6
3.80
1059
050
1253
011
1L
ima-
Rib
eiro
(20
12)
36.2
0-1
14.8
710
455
340
1214
591
4L
ima-
Rib
eiro
(20
12)
42.8
0-1
04.5
011
190
5013
073
180
Lim
a-R
ibei
ro (
2012
)43
.00
-78.
2010
810
5012
719
137
Lim
a-R
ibei
ro (
2012
)43
.00
-78.
2010
990
100
1287
922
3L
ima-
Rib
eiro
(20
12)
43.0
0-7
8.20
1079
539
1269
712
2L
ima-
Rib
eiro
(20
12)
31.5
0-1
10.0
011
290
500
1316
313
84L
ima-
Rib
eiro
(20
12)
42.3
0-7
2.50
1021
060
1188
025
0L
ima-
Rib
eiro
(20
12)
41.0
5-7
5.05
1097
050
1286
420
2L
ima-
Rib
eiro
(20
12)
41.0
5-7
5.05
1091
525
1278
213
1L
ima-
Rib
eiro
(20
12)
41.0
5-7
5.05
1102
030
1289
918
2L
ima-
Rib
eiro
(20
12)
41.0
5-7
5.05
1093
515
1279
212
9L
ima-
Rib
eiro
(20
12)
40.9
0-8
3.20
1060
060
1253
612
3L
ima-
Rib
eiro
(20
12)
40.9
0-8
3.20
1055
070
1240
124
4L
ima-
Rib
eiro
(20
12)
40.9
0-8
3.20
1057
070
1244
422
4L
ima-
Rib
eiro
(20
12)
40.9
0-8
3.20
1062
070
1254
814
0L
ima-
Rib
eiro
(20
12)
40.9
0-8
3.20
1084
080
1274
916
6L
ima-
Rib
eiro
(20
12)
40.9
0-8
3.20
1096
060
1286
120
6L
ima-
Rib
eiro
(20
12)
40.9
0-8
3.20
1092
050
1279
015
5L
ima-
Rib
eiro
(20
12)
39.0
0-1
14.0
010
644
8012
563
155
Lim
a-R
ibei
ro (
2012
)45
.05
-70.
9010
120
180
1181
057
9L
ima-
Rib
eiro
(20
12)
45.0
5-7
0.90
1030
080
1209
032
2L
ima-
Rib
eiro
(20
12)
45.0
5-7
0.90
1053
010
312
370
267
Lim
a-R
ibei
ro (
2012
)42
.90
-72.
1011
400
250
1324
651
3L
ima-
Rib
eiro
(20
12)
64.2
0-1
46.1
010
270
110
1197
155
3L
ima-
Rib
eiro
(20
12)
64.2
0-1
46.1
011
510
120
1339
225
6L
ima-
Rib
eiro
(20
12)
64.8
0-1
47.9
011
310
120
1315
926
2L
ima-
Rib
eiro
(20
12)
64.8
0-1
47.9
012
220
7014
189
362
Lim
a-R
ibei
ro (
2012
)64
.80
-147
.90
1227
070
1438
348
6L
ima-
Rib
eiro
(20
12)
68.0
0-1
54.0
010
090
8511
658
345
Lim
a-R
ibei
ro (
2012
)68
.20
-161
.10
1118
080
1304
522
9L
ima-
Rib
eiro
(20
12)
68.2
0-1
61.1
011
200
4013
081
168
Lim
a-R
ibei
ro (
2012
)68
.20
-161
.10
1119
635
1307
516
4L
ima-
Rib
eiro
(20
12)
a69
Tab
le S
12 -
Hum
an d
ates
from
Eur
asia
that
ran
ked
13 o
r hi
gher
on
the
mod
ified
Mea
d-M
eltz
er sc
ale
(see
Met
hods
; Tab
le 1
).
Lat
itude
Lon
gitu
de14
Cer
ror
14C
(2σ)
erro
r (2σ)
Sour
ce r
efer
ence
51.5
5-4
.25
2584
028
030
661
482
Jaco
bi &
Hig
ham
200
851
.55
-4.2
528
400
320
3259
499
3Ja
cobi
& H
igha
m 2
008
51.5
5-4
.25
2882
034
033
402
1120
Jaco
bi &
Hig
ham
200
851
.55
-4.2
528
870
180
3365
577
3Ja
cobi
& H
igha
m 2
008
44.9
50.
9429
000
370
3359
210
21H
igha
m e
t al 2
006
51.5
5-4
.25
2949
021
034
082
594
Jaco
bi &
Hig
ham
200
855
.20
33.4
532
070
190
3635
764
7H
igha
m e
t al 2
006
44.9
50.
9433
610
340
3822
010
16H
igha
m e
t al 2
006
44.9
31.
0135
400
750
4029
714
73H
igha
m e
t al 2
006
49.7
515
.00
2737
023
031
614
438
Jöri
s et
al 2
011
49.7
515
.00
3068
038
035
463
819
Jöri
s et
al 2
011
49.7
515
.00
3150
042
035
870
822
Jöri
s et
al 2
011
45.5
723
.13
2900
070
033
252
1533
Jöri
s et
al 2
011
45.1
923
.75
3015
080
034
713
1775
Jöri
s et
al 2
011
55.2
033
.45
3260
011
0037
425
2500
Hig
ham
et a
l 200
651
.40
39.0
035
330
240
4042
976
4Jö
ris
et a
l 201
151
.40
39.0
035
870
250
4103
456
3Jö
ris
et a
l 201
151
.40
39.0
036
010
250
4116
254
9Jö
ris
et a
l 201
151
.40
39.0
036
040
250
4119
154
3Jö
ris
et a
l 201
151
.40
39.0
036
320
270
4144
248
7Jö
ris
et a
l 201
151
.40
39.0
036
540
270
4157
446
1Jö
ris
et a
l 201
151
.40
39.0
032
600
280
3744
591
8Jö
ris
et a
l 201
149
.75
15.0
035
320
320
4035
989
9Jö
ris
et a
l 201
151
.40
39.0
035
280
330
4031
592
3Jö
ris
et a
l 201
151
.40
39.0
037
240
430
4203
164
6Jö
ris
et a
l 201
145
.54
10.8
833
640
440
3824
812
86Jö
ris
et a
l 201
145
.54
10.8
834
120
460
3904
913
78Jö
ris
et a
l 201
145
.54
10.8
831
620
500
3599
210
28Jö
ris
et a
l 201
143
.96
7.66
3228
058
036
937
1593
Jöri
s et
al 2
011
45.5
410
.88
3650
060
041
414
1010
Jöri
s et
al 2
011
51.4
039
.00
3494
063
039
999
1321
Jöri
s et
al 2
011
40.0
0-4
.00
3659
064
041
479
1069
Jöri
s et
al 2
011
39.0
634
.91
3567
073
040
477
1451
Jöri
s et
al 2
011
43.9
67.
6633
400
750
3830
917
80Jö
ris
et a
l 201
140
.00
-4.0
036
300
750
4103
214
37Jö
ris
et a
l 201
147
.33
13.3
337
930
750
4252
511
22Jö
ris
et a
l 201
1
a70
43.9
67.
6634
680
760
3957
017
91Jö
ris
et a
l 201
149
.75
15.0
034
530
770
3939
118
55Jö
ris
et a
l 201
143
.96
7.66
3487
080
039
786
1799
Jöri
s et
al 2
011
45.3
511
.50
3790
080
042
523
1203
Jöri
s et
al 2
011
40.0
0-4
.00
3540
081
040
304
1562
Jöri
s et
al 2
011
49.7
515
.00
3468
082
039
517
1905
Jöri
s et
al 2
011
49.7
515
.00
3453
083
039
357
1958
Jöri
s et
al 2
011
49.7
515
.00
3508
083
039
993
1848
Jöri
s et
al 2
011
43.9
67.
6635
700
850
4047
616
04Jö
ris
et a
l 201
145
.54
10.8
834
200
900
3898
920
84Jö
ris
et a
l 201
141
.68
15.5
834
300
900
3907
320
85Jö
ris
et a
l 201
140
.00
-4.0
036
740
920
4136
216
65Jö
ris
et a
l 201
149
.75
15.0
036
570
940
4117
417
25Jö
ris
et a
l 201
149
.75
15.0
036
350
990
4093
518
18Jö
ris
et a
l 201
149
.75
15.0
037
270
990
4193
616
76Jö
ris
et a
l 201
140
.00
-4.0
037
290
990
4195
916
70Jö
ris
et a
l 201
140
.00
-4.0
037
700
1000
4243
515
82Jö
ris
et a
l 201
140
.00
-4.0
037
700
1000
4243
515
82Jö
ris
et a
l 201
140
.00
-4.0
037
900
1000
4258
615
23Jö
ris
et a
l 201
148
.15
23.1
338
500
1000
4297
214
41Jö
ris
et a
l 201
145
.54
10.8
831
900
1100
3679
823
16Jö
ris
et a
l 201
145
.54
10.8
835
400
1100
4004
522
28Jö
ris
et a
l 201
149
.75
15.0
036
000
1100
4069
220
03Jö
ris
et a
l 201
140
.00
-4.0
036
590
1100
4108
519
90Jö
ris
et a
l 201
149
.75
15.0
037
900
1100
4256
217
08Jö
ris
et a
l 201
149
.75
15.0
038
200
1100
4276
516
26Jö
ris
et a
l 201
149
.75
15.0
038
300
1100
4283
016
10Jö
ris
et a
l 201
139
.06
34.9
138
900
1100
4323
015
60Jö
ris
et a
l 201
139
.06
34.9
141
400
1100
4488
217
23Jö
ris
et a
l 201
147
.33
13.3
334
100
1200
3898
024
96Jö
ris
et a
l 201
145
.54
10.8
836
800
1200
4121
721
72Jö
ris
et a
l 201
151
.50
10.5
038
600
1200
4302
217
32Jö
ris
et a
l 201
140
.00
-4.0
038
700
1200
4309
017
21Jö
ris
et a
l 201
139
.06
34.9
139
400
1200
4356
416
83Jö
ris
et a
l 201
149
.75
15.0
040
173
1200
4405
216
98Jö
ris
et a
l 201
151
.50
10.5
037
500
1250
4201
522
42Jö
ris
et a
l 201
143
.00
25.0
036
900
1300
4131
723
53Jö
ris
et a
l 201
140
.00
-4.0
039
900
1300
4387
718
19Jö
ris
et a
l 201
1
a71
39.0
634
.91
3304
014
0037
931
2961
Jöri
s et
al 2
011
49.7
515
.00
3850
014
0042
938
2123
Jöri
s et
al 2
011
45.3
511
.50
3860
018
0042
702
2980
Jöri
s et
al 2
011
49.7
515
.00
4140
014
0045
091
2394
Jöri
s et
al 2
011
51.5
010
.50
3750
014
5041
866
2531
Jöri
s et
al 2
011
43.0
025
.00
3765
014
5042
002
2504
Jöri
s et
al 2
011
43.0
025
.00
3820
015
0042
601
2436
Jöri
s et
al 2
011
39.0
634
.91
3910
015
0043
360
2164
Jöri
s et
al 2
011
47.3
313
.33
3888
015
3043
213
2269
Jöri
s et
al 2
011
43.0
025
.00
3880
017
0043
038
2659
Jöri
s et
al 2
011
49.7
515
.00
4290
017
0046
766
2920
Jöri
s et
al 2
011
43.0
025
.00
3830
018
0042
415
3005
Jöri
s et
al 2
011
43.0
025
.00
3910
018
0043
233
2818
Jöri
s et
al 2
011
46.0
02.
0034
540
2000
3890
237
55Jö
ris
et a
l 201
147
.33
13.3
335
500
2000
3967
739
86Jö
ris
et a
l 201
156
.17
159.
9710
040
130
1163
540
4H
amil
ton
& B
ucha
nan
2010
56.1
715
9.97
1016
075
1174
434
0H
amil
ton
& B
ucha
nan
2010
56.1
715
9.97
1023
070
1200
137
5H
amil
ton
& B
ucha
nan
2010
56.1
715
9.97
1024
075
1201
236
9H
amil
ton
& B
ucha
nan
2010
56.1
715
9.97
1038
590
1226
929
4H
amil
ton
& B
ucha
nan
2010
56.1
715
9.97
1046
080
1233
624
3H
amil
ton
& B
ucha
nan
2010
56.1
715
9.97
1067
575
1258
315
8H
amil
ton
& B
ucha
nan
2010
56.1
715
9.97
1080
015
012
754
332
Ham
ilto
n &
Buc
hana
n 20
1056
.17
159.
9710
810
7512
730
154
Ham
ilto
n &
Buc
hana
n 20
1056
.17
159.
9710
850
320
1260
478
2H
amil
ton
& B
ucha
nan
2010
56.1
715
9.97
1100
511
512
885
240
Ham
ilto
n &
Buc
hana
n 20
1056
.17
159.
9711
050
7512
909
206
Ham
ilto
n &
Buc
hana
n 20
1056
.17
159.
9711
130
100
1298
625
5H
amil
ton
& B
ucha
nan
2010
56.1
715
9.97
1133
050
1321
510
6H
amil
ton
& B
ucha
nan
2010
52.9
791
.45
1170
010
013
557
219
Ham
ilto
n &
Buc
hana
n 20
1050
.30
130.
3212
010
7513
871
182
Ham
ilto
n &
Buc
hana
n 20
1050
.30
130.
3212
485
8014
615
451
Ham
ilto
n &
Buc
hana
n 20
1052
.98
91.5
213
050
9015
797
630
Ham
ilto
n &
Buc
hana
n 20
1050
.30
130.
3213
310
105
1618
163
5H
amil
ton
& B
ucha
nan
2010
50.3
013
0.32
1381
515
017
002
399
Ham
ilto
n &
Buc
hana
n 20
1056
.00
92.8
513
870
8016
969
209
Ham
ilto
n &
Buc
hana
n 20
1056
.00
92.8
513
970
8017
102
306
Ham
ilto
n &
Buc
hana
n 20
1050
.17
108.
4917
165
115
2052
551
3H
amil
ton
& B
ucha
nan
2010
a72
50.1
710
8.49
1722
511
520
608
466
Ham
ilto
n &
Buc
hana
n 20
1046
.78
142.
4317
860
120
2109
152
2H
amil
ton
& B
ucha
nan
2010
50.1
710
8.49
1788
512
021
145
561
Ham
ilto
n &
Buc
hana
n 20
1046
.78
142.
4318
920
150
2274
053
7H
amil
ton
& B
ucha
nan
2010
46.7
814
2.43
1932
014
523
002
494
Ham
ilto
n &
Buc
hana
n 20
1055
.15
91.5
521
800
200
2616
668
0H
amil
ton
& B
ucha
nan
2010
55.9
087
.95
2325
011
028
130
355
Ham
ilto
n &
Buc
hana
n 20
1055
.90
87.9
523
290
200
2813
843
2H
amil
ton
& B
ucha
nan
2010
54.5
891
.07
2566
025
030
371
644
Ham
ilto
n &
Buc
hana
n 20
1054
.58
91.0
725
960
240
3071
138
4H
amil
ton
& B
ucha
nan
2010
52.2
810
9.83
2622
055
030
599
876
Ham
ilto
n &
Buc
hana
n 20
1054
.58
91.0
726
250
250
3085
237
5H
amil
ton
& B
ucha
nan
2010
70.7
213
5.42
2730
027
031
598
476
Ham
ilto
n &
Buc
hana
n 20
1070
.72
135.
4227
400
210
3161
941
7H
amil
ton
& B
ucha
nan
2010
55.1
591
.47
2777
031
032
095
743
Ham
ilto
n &
Buc
hana
n 20
1070
.72
135.
4228
250
170
3248
365
8H
amil
ton
& B
ucha
nan
2010
50.7
285
.57
3099
046
035
614
845
Ham
ilto
n &
Buc
hana
n 20
1050
.72
85.5
733
780
570
3855
316
05H
amil
ton
& B
ucha
nan
2010
50.7
285
.57
3418
064
039
076
1726
Ham
ilto
n &
Buc
hana
n 20
1050
.72
85.5
743
200
1500
4695
826
29H
amil
ton
& B
ucha
nan
2010
50.7
285
.57
4330
016
0047
049
2694
Ham
ilto
n &
Buc
hana
n 20
1047
.33
13.3
329
500
200
3409
458
2Jö
ris
et a
l 201
147
.33
13.3
331
530
210
3591
664
1Jö
ris
et a
l 201
151
.50
10.5
030
400
240
3533
077
8Jö
ris
et a
l 201
154
.00
-4.0
031
730
250
3602
470
8Jö
ris
et a
l 201
151
.50
10.5
032
470
270
3718
374
9Jö
ris
et a
l 201
154
.00
-4.0
031
550
340
3589
474
5Jö
ris
et a
l 201
147
.33
13.3
332
010
510
3649
613
87Jö
ris
et a
l 201
158
.75
127.
1810
300
5012
110
277
Ham
ilto
n &
Buc
hana
n 20
1058
.75
127.
1810
740
100
1266
223
2H
amil
ton
& B
ucha
nan
2010
50.1
710
8.50
1075
514
012
654
417
Ham
ilto
n &
Buc
hana
n 20
1050
.17
108.
5010
975
135
1287
025
8H
amil
ton
& B
ucha
nan
2010
58.7
512
7.18
1115
015
012
994
305
Ham
ilto
n &
Buc
hana
n 20
1055
.63
115.
8711
280
8013
141
194
Ham
ilto
n &
Buc
hana
n 20
1055
.63
115.
8711
280
120
1313
327
0H
amil
ton
& B
ucha
nan
2010
50.1
710
8.50
1134
020
013
181
440
Ham
ilto
n &
Buc
hana
n 20
1050
.17
108.
5011
395
100
1327
518
1H
amil
ton
& B
ucha
nan
2010
54.0
310
5.82
1140
050
013
467
1389
Ham
ilto
n &
Buc
hana
n 20
10
a73
50.1
710
8.50
1163
050
1348
816
4H
amil
ton
& B
ucha
nan
2010
51.7
810
8.80
1163
030
013
467
688
Ham
ilto
n &
Buc
hana
n 20
1050
.17
108.
5011
660
400
1375
310
85H
amil
ton
& B
ucha
nan
2010
58.7
512
7.18
1180
020
013
667
409
Ham
ilto
n &
Buc
hana
n 20
1050
.21
108.
6211
820
120
1365
626
0H
amil
ton
& B
ucha
nan
2010
54.0
310
5.82
1186
028
013
973
845
Ham
ilto
n &
Buc
hana
n 20
1054
.03
105.
8211
950
5013
813
150
Ham
ilto
n &
Buc
hana
n 20
1057
.83
114.
0012
000
250
1410
576
4H
amil
ton
& B
ucha
nan
2010
55.9
792
.48
1204
016
013
988
535
Ham
ilto
n &
Buc
hana
n 20
1057
.83
114.
0012
050
120
1386
536
3H
amil
ton
& B
ucha
nan
2010
50.1
310
8.82
1207
030
014
200
848
Ham
ilto
n &
Buc
hana
n 20
1057
.83
114.
0012
080
220
1416
972
3H
amil
ton
& B
ucha
nan
2010
55.9
792
.48
1208
510
513
946
283
Ham
ilto
n &
Buc
hana
n 20
1052
.87
103.
4312
090
110
1406
441
1H
amil
ton
& B
ucha
nan
2010
52.9
791
.45
1211
022
014
198
727
Ham
ilto
n &
Buc
hana
n 20
1050
.17
108.
5012
110
150
1422
462
4H
amil
ton
& B
ucha
nan
2010
52.9
791
.45
1212
065
014
627
1860
Ham
ilto
n &
Buc
hana
n 20
1050
.17
108.
5012
130
150
1425
161
2H
amil
ton
& B
ucha
nan
2010
50.1
710
8.50
1214
015
014
266
603
Ham
ilto
n &
Buc
hana
n 20
1054
.60
91.0
212
180
120
1430
154
9H
amil
ton
& B
ucha
nan
2010
57.8
311
4.00
1220
080
1417
236
5H
amil
ton
& B
ucha
nan
2010
52.9
791
.45
1228
015
014
403
570
Ham
ilto
n &
Buc
hana
n 20
1050
.17
108.
5012
290
130
1441
054
5H
amil
ton
& B
ucha
nan
2010
50.1
710
8.50
1230
070
014
848
1904
Ham
ilto
n &
Buc
hana
n 20
1052
.97
91.4
512
330
150
1445
856
5H
amil
ton
& B
ucha
nan
2010
50.1
710
8.50
1233
060
1445
343
9H
amil
ton
& B
ucha
nan
2010
57.8
311
4.00
1233
025
014
448
760
Ham
ilto
n &
Buc
hana
n 20
1057
.83
114.
0012
400
150
1453
555
1H
amil
ton
& B
ucha
nan
2010
57.8
311
4.00
1253
090
1465
446
3H
amil
ton
& B
ucha
nan
2010
52.3
710
4.28
1257
018
014
767
735
Ham
ilto
n &
Buc
hana
n 20
1057
.83
114.
0012
630
230
1502
110
33H
amil
ton
& B
ucha
nan
2010
54.9
390
.94
1269
014
014
995
827
Ham
ilto
n &
Buc
hana
n 20
1057
.83
114.
0012
700
9015
059
535
Ham
ilto
n &
Buc
hana
n 20
1057
.83
114.
0012
700
140
1501
483
0H
amil
ton
& B
ucha
nan
2010
50.1
710
8.50
1280
040
015
342
1349
Ham
ilto
n &
Buc
hana
n 20
1051
.20
86.0
712
850
205
1537
811
19H
amil
ton
& B
ucha
nan
2010
52.9
791
.44
1288
060
1552
052
9H
amil
ton
& B
ucha
nan
2010
52.9
891
.52
1290
015
015
676
766
Ham
ilto
n &
Buc
hana
n 20
10
a74
57.8
311
4.09
1290
030
015
437
1198
Ham
ilto
n &
Buc
hana
n 20
1054
.93
90.9
212
940
270
1548
212
20H
amil
ton
& B
ucha
nan
2010
59.3
013
2.60
1296
012
015
729
661
Ham
ilto
n &
Buc
hana
n 20
1052
.97
91.4
412
970
120
1573
966
0H
amil
ton
& B
ucha
nan
2010
52.9
791
.45
1298
013
015
754
676
Ham
ilto
n &
Buc
hana
n 20
1052
.98
91.5
212
980
140
1575
969
4H
amil
ton
& B
ucha
nan
2010
59.3
013
2.60
1307
090
1581
663
5H
amil
ton
& B
ucha
nan
2010
55.9
592
.40
1310
041
015
566
1326
Ham
ilto
n &
Buc
hana
n 20
1059
.30
132.
6013
200
250
1597
083
7H
amil
ton
& B
ucha
nan
2010
61.6
314
9.52
1322
523
015
986
807
Ham
ilto
n &
Buc
hana
n 20
1054
.94
90.9
313
300
100
1617
363
3H
amil
ton
& B
ucha
nan
2010
50.1
710
8.50
1343
015
016
254
649
Ham
ilto
n &
Buc
hana
n 20
1055
.95
92.4
013
470
285
1612
991
5H
amil
ton
& B
ucha
nan
2010
55.0
390
.98
1348
014
016
303
648
Ham
ilto
n &
Buc
hana
n 20
1055
.95
92.5
313
540
500
1623
015
65H
amil
ton
& B
ucha
nan
2010
52.9
791
.45
1369
039
016
421
1213
Ham
ilto
n &
Buc
hana
n 20
1055
.03
90.9
813
800
140
1690
932
7H
amil
ton
& B
ucha
nan
2010
54.0
310
5.78
1390
020
017
094
464
Ham
ilto
n &
Buc
hana
n 20
1059
.30
132.
6014
000
100
1712
731
1H
amil
ton
& B
ucha
nan
2010
55.6
510
9.35
1415
096
016
712
2545
Ham
ilto
n &
Buc
hana
n 20
1050
.30
130.
3214
200
130
1729
139
3H
amil
ton
& B
ucha
nan
2010
58.3
010
0.33
1422
011
017
304
372
Ham
ilto
n &
Buc
hana
n 20
1055
.16
91.5
714
300
100
1740
238
3H
amil
ton
& B
ucha
nan
2010
54.9
390
.93
1432
033
017
634
841
Ham
ilto
n &
Buc
hana
n 20
1055
.16
91.5
714
390
100
1750
937
1H
amil
ton
& B
ucha
nan
2010
55.5
073
.43
1450
050
1758
733
0H
amil
ton
& B
ucha
nan
2010
55.1
691
.57
1460
020
017
826
672
Ham
ilto
n &
Buc
hana
n 20
1054
.58
91.0
014
700
150
1797
753
6H
amil
ton
& B
ucha
nan
2010
52.4
586
.92
1475
025
017
904
654
Ham
ilto
n &
Buc
hana
n 20
1050
.25
108.
6214
830
390
1791
482
8H
amil
ton
& B
ucha
nan
2010
50.1
710
8.50
1490
020
018
115
473
Ham
ilto
n &
Buc
hana
n 20
1057
.83
114.
0915
200
300
1829
564
5H
amil
ton
& B
ucha
nan
2010
50.2
510
8.62
1540
040
018
585
835
Ham
ilto
n &
Buc
hana
n 20
1053
.95
91.8
315
600
495
1875
910
95H
amil
ton
& B
ucha
nan
2010
57.8
311
4.00
1590
027
019
073
467
Ham
ilto
n &
Buc
hana
n 20
1060
.35
134.
4515
950
250
1909
744
3H
amil
ton
& B
ucha
nan
2010
52.9
791
.45
1654
017
019
789
378
Ham
ilto
n &
Buc
hana
n 20
1055
.95
92.4
016
640
350
1987
596
9H
amil
ton
& B
ucha
nan
2010
a75
50.2
510
8.62
1690
050
020
171
1209
Ham
ilto
n &
Buc
hana
n 20
1050
.25
108.
6216
980
150
2004
847
3H
amil
ton
& B
ucha
nan
2010
50.2
510
8.62
1719
012
020
584
488
Ham
ilto
n &
Buc
hana
n 20
1052
.08
92.3
517
200
140
2060
853
1H
amil
ton
& B
ucha
nan
2010
50.2
510
8.62
1760
025
020
911
610
Ham
ilto
n &
Buc
hana
n 20
1057
.83
114.
0017
840
290
2125
583
1H
amil
ton
& B
ucha
nan
2010
58.3
010
0.33
1803
518
021
627
571
Ham
ilto
n &
Buc
hana
n 20
1056
.48
85.0
018
300
1000
2180
623
38H
amil
ton
& B
ucha
nan
2010
50.1
710
8.49
1883
030
022
467
858
Ham
ilto
n &
Buc
hana
n 20
1051
.92
129.
3019
360
6523
040
407
Ham
ilto
n &
Buc
hana
n 20
1058
.30
100.
3319
540
9023
210
521
Ham
ilto
n &
Buc
hana
n 20
1054
.42
89.4
520
300
350
2422
183
7H
amil
ton
& B
ucha
nan
2010
52.8
310
3.53
2034
032
024
259
771
Ham
ilto
n &
Buc
hana
n 20
1051
.39
84.6
620
350
290
2429
171
4H
amil
ton
& B
ucha
nan
2010
55.9
087
.95
2049
015
024
456
474
Ham
ilto
n &
Buc
hana
n 20
1055
.90
87.9
520
800
450
2490
711
42H
amil
ton
& B
ucha
nan
2010
54.0
210
5.67
2119
017
525
392
548
Ham
ilto
n &
Buc
hana
n 20
1053
.58
103.
4221
260
240
2543
268
8H
amil
ton
& B
ucha
nan
2010
51.3
984
.66
2128
044
025
546
1178
Ham
ilto
n &
Buc
hana
n 20
1052
.83
103.
5321
340
340
2555
810
37H
amil
ton
& B
ucha
nan
2010
51.3
984
.66
2150
258
025
978
1607
Ham
ilto
n &
Buc
hana
n 20
1055
.90
87.9
521
560
100
2575
745
3H
amil
ton
& B
ucha
nan
2010
52.8
310
3.53
2170
016
026
073
642
Ham
ilto
n &
Buc
hana
n 20
1055
.90
87.9
522
340
175
2696
472
2H
amil
ton
& B
ucha
nan
2010
57.8
310
8.37
2241
548
026
940
1256
Ham
ilto
n &
Buc
hana
n 20
1051
.39
84.6
622
610
140
2732
554
8H
amil
ton
& B
ucha
nan
2010
52.9
791
.43
2283
053
027
340
1297
Ham
ilto
n &
Buc
hana
n 20
1051
.25
112.
4023
200
2000
2703
543
38H
amil
ton
& B
ucha
nan
2010
55.9
087
.95
2333
011
028
177
339
Ham
ilto
n &
Buc
hana
n 20
1051
.39
84.6
623
431
1550
2775
532
79H
amil
ton
& B
ucha
nan
2010
53.5
810
3.42
2350
025
028
328
577
Ham
ilto
n &
Buc
hana
n 20
1053
.58
103.
4223
508
250
2834
058
1H
amil
ton
& B
ucha
nan
2010
53.5
810
3.42
2376
011
0028
326
2435
Ham
ilto
n &
Buc
hana
n 20
1058
.30
100.
3323
920
310
2875
067
7H
amil
ton
& B
ucha
nan
2010
51.3
984
.66
2420
542
029
094
1030
Ham
ilto
n &
Buc
hana
n 20
1055
.90
87.9
524
360
150
2906
745
7H
amil
ton
& B
ucha
nan
2010
50.4
311
0.00
2436
027
029
062
625
Ham
ilto
n &
Buc
hana
n 20
1055
.90
87.9
524
590
110
2945
235
0H
amil
ton
& B
ucha
nan
2010
a76
51.2
210
9.33
2520
026
029
999
513
Ham
ilto
n &
Buc
hana
n 20
1051
.05
86.3
025
630
430
3032
074
7H
amil
ton
& B
ucha
nan
2010
55.9
087
.95
2566
020
030
398
608
Ham
ilto
n &
Buc
hana
n 20
1052
.83
103.
5325
760
260
3045
264
3H
amil
ton
& B
ucha
nan
2010
50.1
810
8.55
2582
529
030
486
657
Ham
ilto
n &
Buc
hana
n 20
1052
.02
113.
4326
110
150
3081
530
9H
amil
ton
& B
ucha
nan
2010
51.5
5-4
.25
2617
015
030
852
300
Jaco
bi e
t al 2
006
51.3
884
.68
2630
528
030
869
400
Ham
ilto
n &
Buc
hana
n 20
1051
.39
84.6
626
810
290
3123
733
8H
amil
ton
& B
ucha
nan
2010
51.3
884
.68
2692
031
031
304
379
Ham
ilto
n &
Buc
hana
n 20
1051
.38
84.6
827
020
435
3152
880
3H
amil
ton
& B
ucha
nan
2010
51.3
984
.66
2712
558
031
740
1125
Ham
ilto
n &
Buc
hana
n 20
1070
.72
135.
4227
400
600
3205
211
34H
amil
ton
& B
ucha
nan
2010
55.1
591
.47
2747
020
031
679
440
Ham
ilto
n &
Buc
hana
n 20
1070
.72
135.
4227
600
500
3209
996
2H
amil
ton
& B
ucha
nan
2010
70.7
213
5.42
2780
050
032
229
1008
Ham
ilto
n &
Buc
hana
n 20
1051
.39
84.6
627
930
1590
3283
133
35H
amil
ton
& B
ucha
nan
2010
58.3
010
0.33
2805
067
032
804
1602
Ham
ilto
n &
Buc
hana
n 20
1051
.22
109.
3329
200
1000
3377
323
76H
amil
ton
& B
ucha
nan
2010
55.3
292
.50
2923
094
033
777
2334
Ham
ilto
n &
Buc
hana
n 20
1054
.42
89.4
529
450
420
3395
388
6H
amil
ton
& B
ucha
nan
2010
54.5
891
.07
2955
050
033
997
1040
Ham
ilto
n &
Buc
hana
n 20
1051
.38
84.6
829
720
360
3418
178
4H
amil
ton
& B
ucha
nan
2010
51.3
884
.68
2986
035
534
298
778
Ham
ilto
n &
Buc
hana
n 20
1051
.38
84.6
829
900
2070
3469
041
97H
amil
ton
& B
ucha
nan
2010
58.3
010
0.33
3010
015
034
783
246
Ham
ilto
n &
Buc
hana
n 20
1051
.38
84.6
830
460
2035
3524
742
04H
amil
ton
& B
ucha
nan
2010
51.7
710
8.33
3106
053
035
642
906
Ham
ilto
n &
Buc
hana
n 20
1051
.38
84.6
831
410
1160
3611
825
81H
amil
ton
& B
ucha
nan
2010
55.3
292
.50
3243
015
4037
498
3388
Ham
ilto
n &
Buc
hana
n 20
1050
.42
86.5
233
350
1145
3815
127
16H
amil
ton
& B
ucha
nan
2010
51.3
884
.68
3340
012
8538
165
2843
Ham
ilto
n &
Buc
hana
n 20
1050
.72
85.5
733
800
600
3858
316
54H
amil
ton
& B
ucha
nan
2010
58.3
010
0.33
3430
090
039
073
2085
Ham
ilto
n &
Buc
hana
n 20
1051
.38
84.6
835
100
2850
3937
352
50H
amil
ton
& B
ucha
nan
2010
50.2
710
7.23
3890
033
0042
833
6046
Ham
ilto
n &
Buc
hana
n 20
1051
.77
108.
3340
500
3800
4405
359
48H
amil
ton
& B
ucha
nan
2010
51.0
586
.30
4216
541
7044
612
5388
Ham
ilto
n &
Buc
hana
n 20
10
a77
Tab
le S
13 -
Hum
an d
ates
from
Jap
an th
at r
anke
d 13
or
high
er o
n th
e m
odifi
ed M
ead-
Mel
tzer
scal
e (s
ee M
etho
ds; T
able
1).
14C
erro
r14
C (2σ)
erro
r (2σ)
Sour
ce r
efer
ence
2794
020
032
158
642
Tak
ashi
201
227
950
210
3217
265
6T
akas
hi 2
012
2823
021
032
448
715
Tak
ashi
201
228
380
240
3259
476
9T
akas
hi 2
012
2840
021
032
630
709
Tak
ashi
201
228
540
220
3276
579
7T
akas
hi 2
012
2881
029
033
467
1039
Tak
ashi
201
229
590
340
3408
074
6T
akas
hi 2
012
2964
024
034
162
621
Tak
ashi
201
229
650
340
3412
475
2T
akas
hi 2
012
2982
025
034
329
637
Tak
ashi
201
229
870
250
3442
061
6T
akas
hi 2
012
2992
032
034
370
721
Tak
ashi
201
231
420
280
3584
368
4T
akas
hi 2
012
a78
Tab
le S
14 -
Hum
an d
ates
from
Tas
man
ia th
at r
anke
d 13
or
high
er o
n th
e m
odifi
ed M
ead-
Mel
tzer
scal
e (s
ee M
etho
ds; T
able
1).
14C
erro
r14
C (2σ)
erro
r (2σ)
Sour
ce r
efer
ence
31,6
1037
035
924
792
Gil
lesp
ie e
t al 2
012
27,1
6025
031
437
352
Gil
lesp
ie e
t al 2
012
30,2
1030
034
706
617
Gil
lesp
ie e
t al 2
012
34,7
9051
039
883
1142
Gil
lesp
ie e
t al 2
012
33,1
7067
037
964
1524
Gil
lesp
ie e
t al 2
012
33,8
5045
038
684
1402
Gil
lesp
ie e
t al 2
012
33,2
6042
037
838
1023
Gil
lesp
ie e
t al 2
012
27,7
8023
032
046
640
Gil
lesp
ie e
t al 2
012
27,7
7042
032
158
886
Gil
lesp
ie e
t al 2
012
28,0
0072
032
791
1627
Gil
lesp
ie e
t al 2
012
30,4
2069
034
986
1488
Gil
lesp
ie e
t al 2
012
30,8
4048
035
542
871
Gil
lesp
ie e
t al 2
012
29,0
0052
033
379
1296
Gil
lesp
ie e
t al 2
012
28,3
3072
032
936
1536
Gil
lesp
ie e
t al 2
012
29,8
0072
034
410
1855
Gil
lesp
ie e
t al 2
012
27,2
5053
031
892
1007
Gil
lesp
ie e
t al 2
012
a79
Tab
le S
15 -
Rat
tus
exu
lan
s da
tes f
rom
New
Zea
land
that
ran
ked
13 o
r hi
gher
on
the
mod
ified
Mea
d-M
eltz
er sc
ale
(see
Met
hods
; Tab
le 1
). T
hese
dat
es
wer
e us
ed a
s a p
roxy
for
hum
an c
olon
izat
ion
(Wilm
shur
st e
t al.
2008
).
Prox
y14
Cer
ror
14C
(2σ)
erro
r (2σ)
Sour
ce r
efer
ence
Rat
tus
exul
ans
586
3059
358
Wil
msh
urst
et a
l 200
8R
attu
s ex
ulan
s41
125
424
90W
ilm
shur
st e
t al 2
008
Rat
tus
exul
ans
534
2957
159
Wil
msh
urst
et a
l 200
8R
attu
s ex
ulan
s57
025
587
56W
ilm
shur
st e
t al 2
008
Rat
tus
exul
ans
389
2641
692
Wil
msh
urst
et a
l 200
8R
attu
s ex
ulan
s36
926
410
91W
ilm
shur
st e
t al 2
008
Rat
tus
exul
ans
516
2656
557
Wil
msh
urst
et a
l 200
8R
attu
s ex
ulan
s35
426
406
90W
ilm
shur
st e
t al 2
008
Rat
tus
exul
ans
475
2651
918
Wil
msh
urst
et a
l 200
8R
attu
s ex
ulan
s54
926
576
57W
ilm
shur
st e
t al 2
008
Rat
tus
exul
ans
563
2658
357
Wil
msh
urst
et a
l 200
8R
attu
s ex
ulan
s51
826
565
56W
ilm
shur
st e
t al 2
008
Rat
tus
exul
ans
100
4513
413
8W
ilm
shur
st e
t al 2
008
Rat
tus
exul
ans
348
2640
287
Wil
msh
urst
et a
l 200
8R
attu
s ex
ulan
s15
627
141
144
Wil
msh
urst
et a
l 200
8R
attu
s ex
ulan
s20
525
150
151
Wil
msh
urst
et a
l 200
8R
attu
s ex
ulan
s39
325
419
90W
ilm
shur
st e
t al 2
008
Rat
tus
exul
ans
170
2414
314
5W
ilm
shur
st e
t al 2
008
Rat
tus
exul
ans
412
2542
590
Wil
msh
urst
et a
l 200
8R
attu
s ex
ulan
s21
324
151
152
Wil
msh
urst
et a
l 200
8R
attu
s ex
ulan
s17
527
144
146
Wil
msh
urst
et a
l 200
8R
attu
s ex
ulan
s47
925
520
18W
ilm
shur
st e
t al 2
008
Rat
tus
exul
ans
382
2841
394
Wil
msh
urst
et a
l 200
8R
attu
s ex
ulan
s45
827
511
24W
ilm
shur
st e
t al 2
008
Rat
tus
exul
ans
103
2913
213
6W
ilm
shur
st e
t al 2
008
Rat
tus
exul
ans
200
3015
115
3W
ilm
shur
st e
t al 2
008
Rat
tus
exul
ans
121
2513
313
6W
ilm
shur
st e
t al 2
008
Rat
tus
exul
ans
405
2642
391
Wil
msh
urst
et a
l 200
8R
attu
s ex
ulan
s43
425
495
30W
ilm
shur
st e
t al 2
008
Rat
tus
exul
ans
223
2615
315
4W
ilm
shur
st e
t al 2
008
Rat
tus
exul
ans
215
2815
215
3W
ilm
shur
st e
t al 2
008
Rat
tus
exul
ans
526
2756
858
Wil
msh
urst
et a
l 200
8R
attu
s ex
ulan
s22
326
153
154
Wil
msh
urst
et a
l 200
8R
attu
s ex
ulan
s23
126
155
156
Wil
msh
urst
et a
l 200
8R
attu
s ex
ulan
s24
426
211
212
Wil
msh
urst
et a
l 200
8
a80
Rat
tus
exul
ans
278
3230
515
1W
ilm
shur
st e
t al 2
008
Rat
tus
exul
ans
316
3238
582
Wil
msh
urst
et a
l 200
8R
attu
s ex
ulan
s39
534
416
97W
ilm
shur
st e
t al 2
008
Rat
tus
exul
ans
281
3430
615
2W
ilm
shur
st e
t al 2
008
Rat
tus
exul
ans
296
3237
686
Wil
msh
urst
et a
l 200
8R
attu
s ex
ulan
s29
037
311
154
Wil
msh
urst
et a
l 200
8R
attu
s ex
ulan
s15
332
141
144
Wil
msh
urst
et a
l 200
8R
attu
s ex
ulan
s38
333
413
95W
ilm
shur
st e
t al 2
008
Rat
tus
exul
ans
702
3262
764
Wil
msh
urst
et a
l 200
8R
attu
s ex
ulan
s32
431
388
82W
ilm
shur
st e
t al 2
008
a81
APPENDIX I REFERENCES
Ayliffe, L.K.; Prideaux, G.J.; Bird, M.I.; Grün, R.; Roberts, R.G.; Gully, G.A.;
Jones, R.; Fifield, L.K. & Cresswell, R.G. (2008) Age constraints on Pleistocene
megafauna at Tight Entrance Cave in southwestern Australia. Quaternary Science
Reviews 27: 1784–1788
Barnosky, A.D. & Lindsey, E.L. (2010) Timing of Quaternary megafaunal extinction
in South America in relation to human arrival and climate change. Quatern. Int. 217:
10-29
Bon, C.; Berthonaud, V.; Fosse, P.; Gély, B.; Maksud, F.; Vitalis, R.; Philippe, M.;
van der Plicht, J. & Elalouf, J.-M. (2011) Low regional diversity of late cave bears
mitochondrial DNA at the time of Chauvet Aurignacian paintings. Journal of
Archaeological Science 38: 1886-1895
Burney, D.A.; Burney, L.P.; Godfrey, L.R.; Jungers, W.L.; Goodman, S.M.;
Wright, H.T. & Jull, A.J.T. (2004) A chronology for late prehistoric Madagascar.
Journal of Human Evolution 47: 25-63
Cosgrove, R.; Field, J.; Garvey, J.; Brenner-Coltrain, J.; Goede, A.; Charles, B.;
Wroe, S.; Pike-Tay, A.; Grün, R.; Aubert, M.; Lees, W. & O’Connell, J. (2010)
Overdone overkill – the archaeological perspective on Tasmanian megafaunal
extinctions. Journal of Archaeological Science 37: 2486-2503
a82
Crochet, J.-Y.; Gence, J.; Boulbes, N.; Boutié; P.; Cretin, C.; Crégut-Bonnoure,
E.; Duzer, D.; Jolly, D.; Laudet, F.; Lefévre, D.; Mourer-Chauviré, C.;
Rousselières, F. & Thouand, E. (2007) Nouvelles données paléoenvironnementales
dans le Sud de la France vers 30000 ans 14C BP: le cas de la grotte Marie (Hérault). C.R.
Palevol 6: 241-251
Crowley, B.E. (2010) A refined chronology of prehistoric Madagascar and the demise
of the megafauna. Quaternary Science Reviews 29: 2591-2603
Gillespie, R.; Camens, A.B.; Worthy, T.H.; Rawlence, N.J.; Reid, C.; Bertuch, F.;
Levchenko, V. & Cooper, A. (2012) Man and megafauna in Tasmania: closing the
gap. Quaternary Science Reviews 37: 38-47
Grün, R.; Wells, R.; Eggins, S.; Spooner, N.; Aubert, M.; Brown, L. & Rhodes, E.
(2008) Electron spin resonance dating of South Australian megafauna sites. Australian
Journal of Earth Sciences 55: 917 – 935
Guthrie, R.D. (2004) Radiocarbon evidence of mid-Holocene mammoths stranded on
an Alaskan Bering Sea island. Nature 429: 746-749
Hamilton, M.J. & Buchanan, B. (2010) Archaeological support for the three-stage
expansion of modern humans across northeastern Eurasia and into the America. Plos
One 5: e12472
a83
Higham, T.F.G.; Jacobi, R.M. & Ramsey, C.B. (2006) AMS radiocarbon dating of
ancient bone using ultrafiltration. Radiocarbon 48: 179-195
Iwase, A.; Hashizume, J. Izuho, M.; Takahashi, K. & Sato, H. (2012) Timing of
megafaunal extinction in the Late Pleistocene on the Japanese Archipelago. Quaternary
International 255: 114-124
Jacobi, R.M. & Higham, T.F.G. (2008) The “Red Lady” ages gracefully: new
ultrafiltration AMS determinations from Paviland. Journal of Human Evolution 55:
898-907
Jacobi, R.M.; Higham, T.G.F. & Ramsey, C.B. (2006) AMS radiocarbon dating of
Middle and Upper Palaeolithic bone in the British Isles: improved reliability using
ultrafiltration. Journal of Quaternary Science 21: 557-573
Jacobi, R.M.; Rose, J.; MacLeod, A. & Higham, T.G.F. (2009) Revised radiocarbon
ages on woolly rhinoceros (Coelodonta antiquitatis) from western central Scotland:
significance for timing the extinction of woolly rhinoceros in Britain and the onset of
the LGM in central Scotland. Quaternary Science Reviews 28: 2551-2556
Jöris, O.; Street, M.; Terberger, T. & Weninger, B. (2011) Radiocarbon dating the
Middle to Upper Palaeolithic transition: the demise of the last Neanderthals and the first
appearance of anatomically modern humans in Europe. In Continuity and discontinuity
in the peopling of Europe: one hundred fifty years of Neanderthal study (ed. Condemi,
a84
S. & Weniger, G.-C.), pp. 239-298. Vertebrate Paleobiology and Paleoanthropology,
Springer Science, Marseille, France.
Kovács, J. (2012) Radiocarbon chronology of Late Pleistocene large mammal faunas
from the Pannonian basin (Hungary). Bulletin of Geosciences 87: 13-19
Kuzmin, Y.V. & Orlova, L.A. (2004) Radiocarbon chronology and environment of
woolly mammoth (Mammuthus primigenius Blum.) in northern Asia: results and
perspectives. Earth-Science Reviews 68: 133-169
Kuzmin, Y.V. (2009) Extinction of the woolly mammoth (Mammuthus primigenius)
and woolly rhinoceros (Coelodonta antiquitatis) in Eurasia: Review of chronological
and environmental issues. Boreas 39: 247-261
Lima-Ribeiro, M.S. & Diniz-Filho, J.A.F. (2012) American megafaunal extinctions
and human arrival: improved evaluation using a meta-analytical approach. Quaternary
International 299: 38-52
Lorenzen, E.D.; Nogués-Bravo, L.D.; Orlando, L.; Weinstock, J.; Binladen, J.;
Marske, K.A.; Ugan, A.; Borregaard, M.K.; Gilbert, M.T.P.; Nielsen, R.; Ho,
S.Y.W.; Goebel, T.; Graf, K.E.; Byers, D.; Stenderup, J.T.; Rasmussen, M.;
Campos, P.F.; Leonard, J.A.; Koepfli, K.-P.; Froese, D.; Zazula, G.; Stafford
Jr.,T.W.; Aaris-Sørensen, K.; Batra, P.; Haywood, A.M.; Singarayer, J.S.; Valdes,
P.J.; Boeskorov, G.; Burns, J.A.; Davydov, S.P.; Haile, J.; Jenkins, D.L.;
Kosintsev, P.; Kuznetsova, T.; Lai, X.; Martin, L.D.; McDonald, H.G.; Mol, D.;
a85
Meldgaard, M.; Munch, K.; Stephan, E.; Sablin, M.; Sommer, R.S.; Sipko, T.;
Scott, E.; Suchard, M.A.; Tikhonov, A.; Willerslev, R.; Wayne, R.K.; Cooper, A.;
Hofreiter, M.; Sher, A.; Shapiro, B.; Rahbek, C. & Willerslev, E. (2011) Species-
specific responses of late Quaternary megafauna to climate and humans. Nature 479:
359-365
Lougas, L.; Ukkonen, P. & Jungner, H. (2002) Dating the extinction of European
mammoths: new evidence from Estonia. Quaternary Science Reviews 21: 1347-1354
MacPhee, R.D.E.; Iturralde-Vinent, M.A. & Vázquez, O.J. (2007) Prehistoric sloth
extinction in Cuba: implications of a new “Last” appearance date. Caribbean Journal of
Science 43: 94-98
Orlova, L.A.; Kuzmin, Y.V. & Dementiev, V.N. (2004) A review of the evidence for
extinction chronologies for five species of Upper Pleistocene megafauna in Siberia.
Radiocarbon 46: 301-314
Orlova, L.A.; Zenin, V.N.; Stuart, A.J.; Higham, T.F.G.; Grootes, P.M.;
Leshchinsky, S.V.; Kuzmin, Y.V.; Pavlov, A.F. (2004b) Lugovskoe, western Siberia:
a possible extra-arctic mammoth refugium at the end of the late glacial. Radiocarbon
46: 363-368
Pacher, M. & Stuart, A.J. (2008) Extinction chronology and palaeobiology of the cave
bear (Ursus spelaeus). Boreas 38: 189-206
a86
Prideaux, G.J.; Gully, G.A.; Couzens, A.M.C.; Ayliffe, L.K.; Jankowski, N.R.;
Jacobs, Z.; Roberts, R.G.; Hellstrom, J.C.; Gagan, M.K. & Hatcher, L.M. (2010)
Timing and dynamics of Late Pleistocene mammal extinctions in southwestern
Australia. PNAS 107: 22157-22162
Rawlence, N.J. & Cooper, A. (2012) Youngest reported radiocarbon age of a moa
(Aves: Dinornithiformes) dated from a natural site in New Zealand. Journal of the
Royal Society of New Zealand 43: 100-107
Rawlence, N.J.; Metcalf, J.L.; Wood, J.R.; Worthy, T.H.; Austin, J.J. & Cooper,
A. (2012) The effect of climate and environmental change on the megafaunal moa of
New Zealand in the absence of humans. Quaternary Science Reviews 50: 141-153
Rawlence, N.J.; Scofield, R.P.; Wood, J.R.; Wilmshurst, J.M.; Moar, N.T. &
Worthy, T.H. (2011) New palaeontological data from the excavation of the late glacial
Glencrieff miring bone deposit, North Canterbury, South Island, New Zealand. Journal
of the Royal Society of New Zealand 41: 217-236
Roberts, R.G.; Flannery, T.F.; Ayliffe, L.K.; Yoshida, H.; Olley, J.M.; Prideaux,
G.J.; Laslett, G.M.; Baynes, A.; Smith, M.A.; Jones, R. & Smith, B.L. (2001) New
ages for the last Australian megafauna: Continent-wide extinction about 46,000 years
ago. Science 292: 1888–1892
a87
Steadman, D.W.; Martin, P.S.; MacPhee, R.D.E.; Jull, A.J.T.; McDonald, H.G.;
Woods, C.A.; Iturralde-Vinent, M. & Hodgins, G.W.L. (2005) Asynchronous
extinction of late Quaternary sloths on continents and islands. PNAS 102: 11763-11768
Stuart, A.J. & Lister, A.M. (2011) Extinction chronology of the cave lion Panthera
spelaea. Quaternary Science Reviews 30: 2329-2340
Stuart, A.J.; Kosintsev, P.A.; Higham, T.F.G. & Lister, A.M. (2004) Pleistocene to
Holocene dynamics in giant deer and woolly mammoth. Nature 431: 684-689
Stuart, A.J.; Sulerzhitsky, L.D.; Orlova, L.A.; Kuzmin, Y.V. & Lister, A.M. (2002)
The latest woolly mammoths (Mammuthus primigenius Blumenbach) in Europe: a
review of the current evidence. Quaternary Science Reviews 21: 1559-1569
Takashi, T. (2012) MIS3 edge-ground axes and the arrival of the first Homo sapiens in
the Japanese archipelago. Quaternary International 248: 70-78
Turney, C.S.M.; Flannery, T.F.; Roberts, R.G.; Reid, C.; Fifield, L.K.; Higham,
T.F.G.; Jacobs, Z.; Kemp, N.; Colhoun, E.A.; Kalin, R.M. & Ogle, N. (2008) late-
surviving megafauna in Tasmania, Australia, implicate human involvement in their
extinction. PNAS 105: 12150-12153
Ukkonen, P.; Aaris-Sørensen, K.; Arppe, L.’ Clark, P.U.; Daugnora, L.; Lister,
A.M.; Lõugas, L.; Seppä, H.; Sommer, R.S.; Stuart, A.J.; Wojtal; P. & Zupins, I.
a88
(2011) Wolly mammoth (Mammuthus primigenius Blum.) and its environment in
northern Europe during the last glaciation. Quaternary Science Reviews 30: 693-712
Williams, A.N. (2012) The use of summed radiocarbon probability distributions in
archaeology: a review of methods. Journal of Archaeological Science 39: 578-589
Wilmshurst, J.M.; Anderson, A.J.; Higham, T.F.G. & Worthy, T.H. (2008) dating
the late prehistoric dispersal of Polynesians to New Zealand using the commensal
Pacific rat. PNAS 105: 7676-7680
Wood, J.R.; Wilmshurst, J.M. & Rawlence, N.J. (2011) Radiocarbon-dated faunal
remains correlate very large rock avalanche deposit with prehistoric Alpine Fault
rupture. New Zealand Journal of Geology and Geophysics 54: 431-434
Wood, J.R.; Wilmshurst, J.M.; Wagstaff, S.J.; Worthy, T.H.; Rawlence, N.J. &
Cooper, A. (2012) High-resolution coproecology: using coprolites to reconstruct habits
and habitats of New Zealand’s extinct upland moa (Megalapteryx didinus). Plos One 7:
e40025
Worthy, T.H. & Holdaway, R.N. (1994) Quaternary fossil faunas from caves in
Takaka Valley and on Takaka Hill, northwest Nelson, South Island, New Zealand.
Journal of the Royal Society of New Zealand 24: 297-391
a89
Worthy, T.H. & Holdaway, R.N. (1994) Quaternary fossil faunas, overlapping
taphonomies, and palaeofaunal reconstruction in North Canterbury, South Island, New
Zealand. Journal of the royal society of New Zealand 26: 275-361
Worthy, T.H. (1998) Quaternary fossil faunas of Otago, South Island, New Zealand.
Journal of the Royal Society of New Zealand 28: 421-521
Worthy, T.H. (1998b) The Quaternary fossil avifauna of Southland, South Island, New
Zealand. Journal of the Royal Society of New Zealand 28: 537-589
a90
APPENDIX II
Figu
APPEND
Supplem
ure S1 - Eff
DIX II
mentary Fig
fects of clim
gure 1
matic variati
of
on and hum
extinct gene
man arrival t
era.
time-lapse oover the num
mber
a91