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on the afternoon of Saturday
13th June. The workshop will
focus on the EuroScan
Methods Toolkit with
presentations from members
on various aspects of early
awareness and alert systems.
When we are in Oslo we will
take time out to remember
our friend and EuroScan
member Dr Inger
Norderhaug who sadly
passed away on 25th May
2015. Inger first joined
EuroScan in May 2002 and
quickly became a valued
member of the collaboration
at a time when early
awareness and alert activity
was a relatively new discipline
in the HTA world. Inger was
the Registrar of EuroScan for
5 years, from January 2004
until December 2008,
championing EAA activities at
an international level and
internally strengthening the
collaboration.
Inger will be remembered
fondly for her friendly,
welcoming and enthusiastic
approach; her constructive
ways of finding solutions and
agreements, and her insight
into the field of new and
emerging technologies that
has been an inspiration to us
all. Our thoughts go to her
family and her colleagues at
NOKC.
EuroScan started 2015 with a
new Chair; Dr Roberta Joppi
who leads the Italian Horizon
Scanning Project (IHSP) in
Verona. Roberta took over
from Professor Brendon
Kearney who successfully lead
the network for four years.
IHSP joined EuroScan in 2008
at a EuroScan meeting in
Zurich. As well as being an
active member, Roberta was
previously the Registrar for
EuroScan (January 2013 -
December 2014). Our new
Registrar is Dr Sungkyu Lee
from NECA in South Korea.
EuroScan’s first meeting in 2015
was aptly in Zurich; hosted by
the Swiss Federal Office of
Public Health (SFOPH). The
venue, a hotel on the Üetliberg
mountain provided amazing
views over Zurich. The fresh
mountain air stimulated lots of
discussion including ideas for
EuroScan’s forward work
programme. This will be agreed
at the Autumn meeting.
Members also heard about
progress with the new
EuroScan website and database.
The current website is showing
its age (6 years old in July!) and
the database no longer meets
member requirements (and is
even older!). We apologise to
anyone who has recently visited
the website and experienced
problems but the good news is
that EuroScan will have a new
improved website in the next
few months. The database is
being designed to enable
members to easily upload
information on new and
emerging technologies, This in
turn will further address one
of EuroScan’s goals - To
improve the exchange of
information about new and
emerging health technologies
and their potential impact on
health services and existing
health technologies.
We are now almost half way
through the year. Many
EuroScan members will be
attending HTAi 2105 in Oslo
and will give presentations on
their organisations EAA
systems. EuroScan will also
hold a members meeting
followed by a collaboration
meeting with affiliated
networks . This will give us the
opportunity to discuss current
activity, needs and
expectations, and proposals
for collaboration on early
awareness and alert activities.
EuroScan is also running a pre-
conference workshop at HTAi
The year so far ….
I N S I D E T H I S
I S S U E :
Are horizon
scanning sources
useful in
identifying
possible
technologies for
disinvestment?
2
Cardiac
Contractility
Modulation
(CCM) therapy:
new results
coming.
3
New report on
artificial
pancreas device
systems in
development for
type 1 diabetes
4
What’s on the
horizon for
COPD
diagnostics and
monitoring
technologies?
5
Focus on new
and emerging
treatments for
Hepatitis C
Virus
6
HTAi Oslo 2015 8
Standardisation
of European
HTA –
Application of
the EUnetHTA
HTA Core
Model for Rapid
Relative
Effectiveness® in
Austria
9
4th HTAsiaLink
annual
conference
10
An Update from
INAHTA
11
CNESH Top 10
2015
12
J U N E 2 0 1 5 I S S U E 1 8
EuroScan Newsletter
P A G E 2
Caption describing
picture or graphic.
Are horizon scanning sources useful in identifying possible technologies for disinvestment? Leigh-Ann Topfer, CADTH
Recently, the HTAi special interest
group on disinvestment expanded to
include horizon scanning and early
awareness (Disinvestment and Early
Awareness). This makes sense as both
focus on particular, though distinct,
stages of the technological lifecycle.
But, is it possible to combine the tasks
of identifying both new and emerging
and potentially obsolete technologies?
In particular, are the sources of
information used for identifying new
and emerging technologies also helpful
for finding technologies that may be
appropriate for disinvestment?
In a 2009 study, researchers from the
Basque Office for Health Technology
Assessment (Osteba) surveyed HTA
agencies involved in disinvestment to
identify and rank the sources used to
identify potentially obsolete
technologies.1 In general, the sources
were similar to those used for health
technology assessments, for example,
The Cochrane Collaboration, other
HTA agencies and association web
sites, and key medical journals (JAMA
and the BMJ).1 Most of the sources
only indirectly identified obsolete
technologies.1 One agency relied
solely on the advice of experts to
identify possible technologies for
disinvestment.
The Osteba researchers also
conducted a pilot study to examine
the value of the EuroScan database as
a source for identifying potentially
obsolete technologies.2 Mainly, the
database was helpful as a source of
some possibly substitutive
technologies, but consultation with
clinical experts was ultimately seen as
the most useful way to identify
possibly obsolete
technologies.2 From these
studies, Osteba developed the
complementary SorTEK-ZaharTEK
databases (SorTEK for new technologies
and ZaharTEK for potentially obsolete
technologies).3
At the 2010 annual HTAi conference in
Dublin, researchers from the UK’s
National Institute for Health Research
Horizon Scanning Research &
Intelligence Centre presented a session
entitled: Out with the old, in with the new:
identifying health technologies for
disinvestment – can early awareness and
alert systems play a part?4 This work
included a literature review and survey
of health care decision makers and
providers. They also found that the
involvement of health professionals and
other relevant stakeholders was of key
importance in the identification of
potentially obsolete technologies.
Clinical practice guidelines, variations in
practice and comparative effectiveness
research have also been suggested as
other potential sources of candidate
technologies for disinvestment, but
further confirmation of their value is still
lacking.5
Several studies have examined the value
of different information sources in
horizon scanning for new and emerging
health technologies.6-11 To date,
searching for technologies for
disinvestment has been largely reactive.
“Moving to a more proactive model
requires the use of horizon scanning …
known as ‘obsolescence forecasting’ in the
information technology industry…”12 An
update on the experiences of Osteba
and other agencies, in combining
horizon scanning with scanning for
disinvestment opportunities would be
useful.
References
1. Ibargoyen-Roteta N, Gutierrez-Ibarluzea I, Asua J,
Benguria-Arrate G, Galnares-Cordero L. Scanning
the horizon of obsolete technologies: possible
sources for their identification. Int J Technol Assess
Health Care 2009;25(3):249-54.
2. Ibargoyen-Roteta N, Gutierrez-Ibarluzea I,
Galnares-Cordero L, Benguria-Arrate G, Arana-
Arri E. Estudio piloto de identificacion y evaluacion de
tecnologias sanitarias obsoletas a partir de las bases
de datos de tecnologias emergentes [Informes de
Evaluacion de Tecnologias Sanitarias. Osteba].
Vitoria-Gasteiz (Spain): Servicio de Evaluacion de
Tecnologias Sanitarias del Pais Vasco (Osteba);
2014. Available: http://
www.kultura.ejgv.euskadi.eus/r46-714/es/
contenidos/informacion/biblioteca_central/
es_9528/scp/216254.pdf.
3. Ibargoyen-Roteta N, Gutierrez-Ibarluzea I,
Benguria-Arrate G. Out with the old, in with the
new? The first strategy to integrate the
identification of new and emerging health
technologies with those that could be removed
from the health care system. EuroScan Newsletter
2009;(7):7. Available: http://euroscan.org.uk/mmlib/
includes/sendfile.php?id=73.
4. Osinowo A, Simpson S. Out with the old, in with
the new: identifying health technologies for
disinvestment - can early awareness and alert
systems play a part? [abstract]. In: 7th annual
meeting of HTAi: Maximising the value of HTA; June 6-
9, 2010; Dublin, Ireland. [Edmonton (AB)]: HTAi;
2010. p.88.
5. Haas M, Hall J, Viney R, Gallego G. Breaking up is
hard to do: why disinvestment in medical
technology is harder than investment. Aust Health
Rev 2012;36(2):148-52. Available: http://
www.publish.csiro.au/index.cfm?paper=AH11032.
6. Douw K, Vondeling H. Selecting new health
technologies for evaluation: can clinical experts
predict which new anticancer drugs will impact
Danish health care? Soc Sci Med 2007;64(2):283-6.
7. Douw K, Vondeling H, Eskildsen D, Simpson S.
Use of the Internet in scanning the horizon for
new and emerging health technologies: a survey of
agencies involved in horizon scanning. J Med
Internet Res 2003;5(1):e6. 8. Stafinski T, Topfer LA, Zakariasen K, Menon D.
The role of surgeons in identifying emerging
technologies for health technology assessment.
Can J Surg 2010;53(2):86-92. Available: http://
canjsurg.ca/vol53-issue2/53-2-86/. 9. Trindade E, Topfer LA, De GM. Internet
information sources for the identification of
emerging health technologies. A starting point. Int J
Technol Assess Health Care 1998;14(4):644-51.
10. Robert G, Gabbay J, Stevens A. Which are the
best information sources for identifying emerging
health care technologies? An international Delphi
survey. Int J Technol Assess Health Care 1998;14
(4):636-43.
11. Smith J, Cook A, Packer C. Evaluation criteria to
assess the value of identification sources for
horizon scanning. Int J Technol Assess Health Care
2010;26(3):348-53.
12. Joshi NP, Stahnisch FW, Noseworthy TW.
Reassessment of health technologies: obsolescence and
waste [Discussion Paper]. Ottawa: Canadian
Agency for Drugs and Technologies in Health
(CADTH); 2009. Available: https://www.cadth.ca/
reassessment-health-technologies-obsolescence-
and-waste.
Cardiac Contractility Modulation (CCM) therapy: new results coming. Antonio Migliore and Marina Cerbo, Agenas, Agenzia nazionale per i servizi sanitari regionali, Via Puglie 23 – 00187 Rome, Italy
P A G E 3 I S S U E 1 8
In January 2015, a
retrospective analysis of 81
patients implanted with a
CCM device between 2004
and 2012 showed significant
improvement of ejection
fraction, from 23.1 ± 7.9%
to 29.4 ± 8.6% (p < 0.05),
decrease in mean NT-
proBNP levels, from 4,395
± 3,818 to 2,762 ± 3,490ng/
l (p < 0.05), and an overall
clinical responder rate (at
least one class
improvement of NYHA
within 6 months or last
follow-up) of 74.1% [2].
Two studies are currently
registered on
clinicaltrials.gov:
FIX-HF-5C
(NCT01381172): is a
prospective, multicentre,
randomised study to
evaluate the safety and
efficacy of CCM signals
delivered by the
implantable OPTIMIZER™
System in patients with
NYHA class III/IV heart
failure and an ejection
fraction 25-45%. The study
will involve the recruitment
of 230 subjects at a total of
up to 40 sites (USA, Czech
Republic, and Germany).
Estimated completion date
is August 2015.
FIX-HF-5
(NCT00112125): is a
prospective, multicentre,
study to evaluate the
safety and efficacy of CCM
signals delivered by the
Cardiac Contractility
Modulation (CCM) therapy
consists of the delivery of
non-excitatory electrical
signals to the heart muscle
during the absolute
refractory period. These
signals are applied to
moderate to severe heart
failure with the aim of
modifying the properties of
the heart (i.e. enhancing the
force of contraction).
The German company
Impulse Dynamics launched
this technology in 2002
with the OPTIMIZER™
System. Today, the system
is at its fourth generation,
the OPTIMIZER™ IVs. The
system is similar to a
cardiac pacemaker: it is
implanted under local
anaesthetic and is
connected to three
pacemaker leads implanted
transvenously into the right
side of the heart (one lead
senses the atrial activity, the
other two sense ventricular
activity and deliver the
signals). The new
OPTIMIZER™ IVs device
consists of: an implantable
pulse generator unit (which
has sensing and signal
delivery functions), a
charger (which allows
patients to recharge the
pulse generator at home),
and a programmer system
(which allows healthcare
professionals to customise
the CCM signal parameters
specifically for the patient)
[1].
implantable
OPTIMIZER™ System in
patients with NYHA class
III/IV heart failure. The
study will involve the
recruitment of
approximately 420
subjects at up to 50 sites
across the USA.
Estimated completion
date is July 2017.
Recently (October 2014)
the company announced
the enrolment of the first
patient in a new study, the
IMPULSE-HF study, at the
Karolinska Institute,
Stockholm (Sweden).
IMPULSE-HF is designed to
provide additional
evidence related to the
clinical benefit of CCM
therapy in symptomatic
NYHA II/III patients having
normal QRS complex and
ejection fraction in the
range 25-45% [3].
Results that will soon be
published, starting from
2015, will contribute to
define the real clinical
effectiveness of this
therapy.
References
[1] Horizon Scanning
Centre – National
Institute of Health
Research.
OPTIMIZER™ system
for chronic heart
failure http://
www.hsc.nihr.ac.uk/
files/
downloads/2476/2663.
21e67718.FinalOptimi
zer.pdf
[2] Kuschyk J, Roeger
S, Schneider R,
Streitner F, Stach K,
Rudic B, Weiß C,
Schimpf R, Papavasilliu
T, Rousso B, Burkhoff
D, Borggrefe M.
Efficacy and survival in
patients with cardiac
contractility
modulation: Long-
term single center
experience in 81
patients. International
Journal of Cardiology
183 (2015) 76–81.
[3] Impulse Dynamic
press release –
October 2014. http://
www.impulse-
dynamics.com/int/
news/impulse-
dynamics-announced-
first-enrollment-
impulse-hf-european-
randomized-efficacy-
study/ (accessed on 11
May 2015).
P A G E 4
“In addition to
providing a
technology
overview, our report
also presents a
qualitative analysis
of the views
expressed by
healthcare
professionals and
members of the
public with type 1
diabetes “
New report on artificial pancreas device systems
in development for type 1 diabetes Sara Trevitt , NIHR Horizon Scanning Research & Intelligence Centre (HSRIC)
In March the NIHR
Horizon Scanning
Research & Intelligence
Centre (NIHR HSRIC)
published a report on
artificial pancreas device
systems being developed
for the closed-loop
control of type 1
diabetes. Type 1 diabetes
is a life-long autoimmune
condition in which the
normal mechanism for
controlling blood glucose
levels does not work. It
usually begins in
childhood, and affects
over 250,000 people in
the UK. The condition
requires ongoing daily
management, either by
the person themselves
or with the help of a
carer (such as a parent).
An artificial pancreas
device (APD) system is a
small, portable medical
device that uses digital
communication
technology to carry out
the function of a healthy
pancreas in regulating
blood glucose levels. It
has three functional
components: (1) a
continuous glucose
monitor, (2) an insulin
pump, and (3) a
digital controller
that links the other
two to form a
closed-loop.
Continuous glucose
monitors and insulin
pumps are
already available
and are used by
some people with
type 1 diabetes. The
innovative feature of
closed-loop APD systems
is the addition of the
wireless digital controller
(the ‘brain’) to these
existing technologies. This
new combination could
potentially provide an
option for automated self-
management for people
with type 1 diabetes.
However, using such a
system would require the
person to wear several
devices on their bodies
which might raise issues
around user acceptability.
Our research identified 18
APD systems, all of which
are currently in the
research stage of
development (mainly in
phase I and II clinical
trials). Six of the systems
are being tested in the
home setting, whilst the
others are being studied
in clinic and outpatient
environments. Some of
the systems are fully
automated whilst others
still require a manual meal
-time bolus. Most of the
systems use insulin only,
whereas some use a bi-
hormonal approach,
delivering both insulin and
glucagon. Other key
features of the systems
are the type of algorithm
that the controller is
based on and their
strategy for glycaemic
control (treat-to-target or
treat-to-range control). It
is expected that the first
systems will appear on the
market from late 2016
onwards.
In addition to providing a
technology overview, our
report also presents a
qualitative analysis of the
views expressed by
healthcare professionals
and members of the public
with type 1 diabetes and
their carers who we
engaged with to provide
input. This included
conducting an open-access
public survey using the
social media platform
Facebook. Comments
were made about what
benefits people thought
this new form of
technology might bring,
what the key issues will be
concerning its use and
adoption into the
healthcare system, and the
important features that
they would like to see in
commercial products
when they become
available. In addition to
emphasising the
importance of safety,
reliability and accuracy,
preferences were
expressed about the
physical design,
characteristics and
functionality that these
systems should have if
they are to be acceptable
to users.
The report is available at
http://
www.hsric.nihr.ac.uk/
outputs/other-reports/
Artificial pancreas. Source: http://
www.hcplive.com/articles/Artificial-Pancreas-
Provides-Tight-Glucose-Control-in-Youth
What’s on the horizon for COPD diagnostics and monitoring technologies? Louise Dixon and Derek Ward, NIHR Horizon Scanning Research & Intelligence Centre (HSRIC)
P A G E 5 I S S U E 1 8
Chronic Obstructive Pulmonary
Disease (COPD) poses a large and increasing burden on patients, carers
and health services. Despite being a disease with significant impact, there
remain several key issues facing its management: diagnosis is often
delayed until the disease is in its moderate to severe stages, resulting in patients missing out on appropriate
care early in the development of their disease; and the empirical treatment
of COPD exacerbations exposes some patients to inappropriate
antibiotic and corticosteroid therapy, a particular concern given the
increasing development of antibiotic resistance and the potentially
significant side effects of corticosteroids. To determine
whether technologies already in development could address these
issues, the NIHR HSRIC undertook a review of new and emerging
technologies for the diagnosis and monitoring of COPD, aiming to identify all technologies within 2 years
of launch or in the early post-launch phases, and evaluate these for
innovativeness, patient acceptability, and likelihood of health service and
patient impact.
Comprehensive searches identified a total of 80 technologies covering a
wide variety of technology areas, including telehealth, vital sign
monitoring technologies, questionnaires, imaging, biomarker
tests, spirometry and wearable technologies. Evaluation of individual
technologies was undertaken by both a panel of clinicians and a panel of patients with COPD. The clinician
panel incorporated views from across the multidisciplinary team (specialist
nurses, general practitioners and specialist respiratory physicians) and
an existing patient and public involvement group (Birmingham Lung
Improvement StudieS, BLISS) was used in order to reflect potential
users’ opinions and contrast these
against those of the clinician panel.
Biomarker tests were the largest
identified field, with tests using samples of sputum, saliva or blood
in order to diagnose, monitor or identify exacerbations of COPD.
Most innovatively, the Home Use Sputum Test (Aseptika Ltd., UK)
aims to provide advance warning of an exacerbation of COPD through a
small sputum sample at the point of care. This could enable treatment of
exacerbations to begin earlier and limit antibiotic and corticosteroid use to where it is necessary. In
addition, several novel molecular point of care tests aim to identify
the specific bacterial or viral pathogen responsible for an
exacerbation (such as RESPOC, developed by Ateknea Solutions,
Hungary), a development welcomed
by the clinician panel.
Telehealth technologies were also
frequently identified. Devices were generally aimed towards patient self-
monitoring, with the ability for one or two-way messaging between the
patient and healthcare professionals. However, evaluation by the clinician panel was generally negative,
concluding that although telehealth has been demonstrated to reduce
the odds of A&E attendance and hospitalisation, it did not improve
quality of life or mortality, and is not
currently considered cost-effective.
Wearable technology was also an
area of significant development.
Devices designed to be worn across the chest, such as the WHolter vest
-like breathing monitor (iSonea Ltd., Israel), were not favourably rated by
the patient panel, who commented that they were unwilling to wear a
“cumbersome” looking device, and were concerned about “the idea of having the restriction of a band around
[the] chest”. In contrast, wrist-based monitoring devices, such as the
BuddyWOTCH (Aseptika Ltd., UK), were praised for their compact,
wearable design and ability to record blood oxygenation,
temperature, heart rate and physical activity. Such devices aim to detect
the early signs of exacerbations, enabling early treatment and
preventing unnecessary
hospitalisation.
The most promising technologies
identified by this review were recommended as a focus of future translational and clinical research
funding, ultimately to facilitate their timely evaluation and adoption
within the NHS. These diagnostic and monitoring technologies have
the potential to meet an unmet need in COPD care through supporting
earlier diagnosis, the provision of appropriate treatment and the
timely recognition of acute exacerbations, while those with the
potential to determine the cause of an exacerbation may enable
treatment to be better targeted at the underlying pathology, potentially
avoiding inappropriate use of
antibiotics and corticosteroids.
The review report will be published on the HSRIC website in mid-June
2015 (www.hsric.nihr.ac.uk). Further information can be obtained from
Dr Derek Ward [email protected]
P A G E 6
Focus on new and emerging treatments for Hepatitis C Virus Joppi R, Pase D, Poggiani C, IHSP
Epidemiology of the disease
Hepatitis C Virus (HCV) is a single
stranded, positive sense RNA virus
first described in 1989. It infects more than 180 million people
worldwide, corresponding to about 3% of the global population, with
high prevalence (>3.5%) in central
and eastern Asia, North Africa, and
the Middle East; moderate prevalence in South and South East
Asia, sub- Saharan Africa, Central and South America, Australasia, and
Europe [1]. The prevalence of HCV in Europe is nearly 1%, but this varies
geographically along a north-south
gradient, ranging from approximately 0.5% in Northern countries to 2% in
Mediterranean areas [2].
Hepatitis C becomes chronic in 75%
of adults, and 80% of children.
Others will spontaneously clear their infection, usually within months.
Reinfection is possible in people who
spontaneously cleared HCV, or were successfully treated. Consequences
of untreated chronic HCV infection include depression, cardiovascular
and autoimmune disorders and liver scarring. After 20 years of infection,
16% of adults develop cirrhosis; this increases exponentially to 40% after
30 years. People with cirrhosis are at risk for hepatocellular carcinoma
and liver failure. Each year, 700,000
people die from HCV-related causes.
Hepatitis C genotypes
There are seven known HCV genotypes,
each with dozens of subtypes. The high
genetic variability of HCV (>30% nucleotide difference between
genotypes, 15% to 30% nucleotide difference among subtypes) has made it
difficult to develop universally effective
vaccines and treatments.
Globally, genotype 1 predominates
(46.2%, or 83.4 million cases), followed
by genotype 3 (30.1%, or 54.3 million cases), genotype 2 (9.1%, or 16.5 million
cases), genotype 4, (8.3%, or 15 million cases), genotype 6 (5.4%, or 9.8 million
cases), and genotype 5 (<1%, or 1.4 million cases); there is a single known
case of genotype 7 (Fig. 1) [3,4].
Treatments: goals and evolution
The goal of HCV treatment is cure (also
referred to as sustained virologic response [SVR]). Being cured reduces
the risk of liver-related and all-cause morbidity and mortality. The standard
of care for HCV has improved dramatically. Pegylated interferon and
ribavirin - a partially effective regimen with potentially debilitating side effects -
is being replaced by safe, tolerable oral
direct-acting antivirals (DAAs). These drugs have cured >90% of people in
clinical trials, in only 12 weeks [5].
The HCV encodes three structural and seven non-structural proteins. DAAs can
inhibit three major non-structural
proteins: the NS3/4A protease, the
NS5A protein, and the NS5B RNA
dependent RNA polymerase [1].
New and emerging drugs for
patients with Chronic HCV
Due to the predominance of HCV
genotype 1- especially in high-income
countries - it has been the focus of DAA development. All DAA classes
work against genotype 1. The most common strategy for treating HCV
genotype 1 is using DAAs from multiple classes, to shorten
treatment and increase cure rates. Although cure rates in trials
combining DAAs from 3 classes have topped 95%, those who are not
cured may be left with few options.
Currently, sofosbuvir is the optimal
drug for a first-line regimen, since it is pan-genotypic, can be used in
cirrhosis, has a low propensity for drug-drug interactions, and a high
resistance barrier. Pairing it with a pan-genotypic NS5A inhibitor
obviates pre-treatment genotypic testing, and will minimise safety and
efficacy monitoring during and after
treatment. The weakness of NS5A inhibitors is baseline or emergent
drug resistance that may limit their
effectiveness.
Candidates in phase II development
(AbbVie’s ABT-530, Achillion’s ACH-3102, and Merck’s MK-
8408) are purported to
be more potent, and active against drug
resistant virus [5].
Tables 1a and 1b summarise the new drugs
recently approved along with the combinations in
phase III of development
to be used in naïve and previously treated
patients, respectively.
Figure 1. Used from: Messina JP, Humphreys I, Flaxman A, et al. Global distribution and prevalence of hepatitis C
virus genotypes. Hepatology. 2015 Jan;61(1):77-87.
Emerging treatments for HCV continued...
P A G E 7 I S S U E 1 8
HCV Treatment Criteria
and Strategies Each year, 700,000 people die
from complications of HCV, a curable virus. HCV treatment
has individual and public
health benefits [6]. Current HCV treatment rates are low,
ranging from 1% to <5%, in part due to the high cost of
DAAs [7-10]. This has led to restrictions and prioritising
people with the most advanced liver disease; a
strategy that will reduce HCV-associated illness and death,
but won’t stop the epidemic
from spreading [11-13].
Although there are several barriers to universal HCV
treatment access, high DAA prices are the greatest
obstacle. The same steps that have led to drastic reductions
in the price of HIV antiretrovirals can be used
with DAAs. In fact, they can be mass-produced profitably,
and remain affordable [14,15].
Using a public-health
approach to HCV treatment, one regimen for everyone,
will simplify procurement and delivery of treatment,
especially if duration does not vary by genotype, subtype or
cirrhosis. Some regimens do
not require genotyping and subtyping, which are
expensive and not always
available [5].
Future research
HCV drugs have been developed primarily by
pharmaceutical companies, driven by commercial
interest, instead of collaborating with public
health authorities to identify
optimal DAA regimens with
best-in-class drugs and
therefore delayed development of, and access to
promising regimens. This leaves many questions about
DAA safety and efficacy in certain populations (although
registries will provide additional information on
DAA use and outcomes outside of clinical trials) [5].
Some of the remaining questions include: need for
ribavirin in certain
populations; treatment safety and efficacy in understudied
or excluded populations; clinical relevance of drug
resistance; treatment sequencing;
pharmacogenomics; genotypes 5 and 6; DAAs in
acute HCV infection; best treatment regimens in HCV-
HIV; and best treatment for recurrent HCV in liver
transplant recipients [1,5].
References
[1] Feeney ER, Chung RT. Antiviral
treatment of hepatitis C. BMJ. 2014 Jul
7;348:g3308. doi: 10.1136/bmj.g3308.
[2] Touzet S, Kraemer L, Colin C, et al.
Epidemiology of hepatitis C virus
infection in seven European Union
countries: a critical analysis of the
literature. HENCORE Group. (Hepatitis
C European Network for Co-operative
Research. Eur J Gastroenterol Hepatol.
2000 Jun;12(6):667-78.
[3] Messina JP, Humphreys I, Flaxman A, et al.
Global distribution and prevalence of
hepatitis C virus genotypes. Hepatology.
2015 Jan;61(1):77-87. doi: 10.1002/
hep.27259.
[4] Smith DB, Bukh J, Kuiken C, et al.
Expanded classification of hepatitis C
virus into 7 genotypes and 67 subtypes:
updated criteria and genotype
assignment web resource.
Hepatology.2014 Jan;59(1):318-27. doi:
10.1002/hep.26744.
[5] Swan T. Overview of New Treatments
for Hepatitis C Virus: Moving Towards a
Public Health Agenda http://
www.who.int/selection_medicines/
committees/expert/20/reviews/overview
-new-treatments-HEP-C_13-Apr-15.pdf
(accessed 19 May 2015)
[6] Global Burden of Disease 2013
Mortality and Causes of Death
Collaborators. Global, regional, and
national age–sex specific all-cause and
cause-specific mortality for 240 causes
of death, 1990–2013: a systematic
analysis for the Global Burden of
Disease Study 2013. The Lancet, Vol.
385, No. 9963, p117–171.
[7] Helfand C. Hello, hep C pricing war
Gilead hits back at AbbVie with
exclusive CVS deal. Fierce Pharma.
January 5, 2015. http://
www.fiercepharma.com/story/gilead-hits
-back-abbvie-exclusive-cvs-hep-c-
deal/2015-01-05 (accessed 19 May 2015)
[8] Hirst EJ. AbbVie lowers price of
hepatitis C drugs to win deal with
Express Scripts. Chicago Tribune.
December 22, 2014. http://
www.chicagotribune.com/business/
breaking/ct-abbvie-hepatitis-c-drug-1223
-biz-20141222-story.html (accessed 19
May 2015)
[9] Jerzyk E. R.I. Medicaid limits supply of
hepatitis C drug due to cost. The Brown
Daily. December 4, 2014. http://
www.browndailyherald.com/2014/12/04/
r-medicaid-limits-supply-hepatitis-c-drug
due-cost/ (accessed19 May 2015)
[10]Venteicher W. Most
Illinois Medicaid Patients
Denied New Hepatitis C
Drugs. Chicago Tribune.
November 19th, 2014.
http://
kaiserhealthnews.org/
news/most-illinois-
medicaid-patients-denied
-new-hepatitis-c-drugs/
(accessed 19 May 2015)
[11]Huet N. France uses tax
to put pressure on
hepatitis C drug prices.
Reuters. September 30,
2014. http://
www.reuters.com/
article/2014/09/30/france
-deficit-gilead
idUSL6N0RV27X201409
30. (accessed 19 May
2015)
[12]Sevillano EG. Spanish
hepatitis C patients to
march for access to
expensive new drugs.
January 6, 2015. El Pais.
http://elpais.com/
elpais/2015/01/06/
inenglish/1420544396_01
7257.html (accessed 19
May 2015) [13]Whalen, J. Patients
blame cost for coverage
delay in England of
Gilead Drug. January 15,
2015. Wall Street Journal
Pharmalot. http://
blogs.wsj.com/
pharmalot/2015/01/22/
coverage-for-gileads-
sovaldi-is-delayed-in-
england-over-cost/
(accessed 19 May 2015)
[14]Hill A, Cooke G..
Medicine. Hepatitis C
can be cured globally, but
at what cost?Science.
2014 Jul 11;345
(6193):141-2. doi:
10.1126/
science.1257737.
[15]MSF. Untangling the
web of antiretroviral
price reductions. 17th
Edition. July 2014. http://
www.msfaccess.org/sites/
default/files/
MSF_UTW_17th_Editio
n_4_b.pdf (accessed 19
May 2015).
Table 1a Table 1b
P A G E 8
“With the support
of the Norwegian
Knowledge Centre
and HTA agencies
from Sweden,
Denmark and
Finland, HTAi is
preparing to
welcome delegates
from over 55
countries.”
HTAi Oslo 2015 Chris Sargent, HTAi
Over 1,000 HTA
practitioners and policy
makers will discuss
‘Global Efforts in
Knowledge Transfer:
HTA to Health Policy
and Practice’. Lancet
Editor-in-Chief Richard
Horton and Norwegian
Knowledge Centre
researcher Andrew
Oxman will share the
stage with the
Norwegian Health
Minister Bent Høie, high
profile plenary speakers,
30 panels, and hundreds
of oral and poster
sessions. On June 13-14,
HTAi will also host two-
days of pre-meeting
workshops.
With the support of the
Norwegian Knowledge
Centre and HTA
agencies from Sweden,
Denmark and Finland,
HTAi is preparing to
welcome delegates from
over 55 countries.
Behind the scenes, HTAi
Interest Groups are also
planning for delegates to
arrive. The
ten HTAi
Groups
serve as
experience-
sharing hubs
among HTA
producers
and users worldwide and
they have a powerful
role in promoting HTA
in the areas of
Conditional Coverage/
Access with Evidence
Development,
Disinvestment and Early
Awareness, Ethics,
Hospital-based HTA,
HTA-Regulatory
Interactions, HTA in
Developing Countries,
Early Career Network,
Information Resources,
Patient and Citizen
Involvement and the
Impact of Public Health
Interventions and
Nutrition.
Several of these Groups
and their members have
provided expert input
into the Annual
Meeting’s scientific
program. But the impact
of the work of the
interest groups goes
beyond this. Of special
note is HTAi’s Patient/
Citizen Involvement
group. They have
developed practical
tools for the
implementation of
Values and Quality
Standards for patient
involvement in HTA.
They are going to
present these at a panel
to discuss progress
made over the past year
in implementing these
values and standards in
both established and
emerging HTA agencies,
across various countries
HTAi also asks
members to consider
attending our Annual
General Meeting on
June 15 in Oslo. HTAi’s
President, Carole
Longson will be
presenting the HTAi
2015-20 Strategic Plan
and welcoming several
new people to the HTAi
board, including Vice
President Sean Tunis,
Treasurer Don
Juzwishin, Secretary
Americo Cicchetti and
Director David
Grainger. President-
elect Guy Maddern will
also take over as
President following this
meeting.
Finally, do not forget
about the fantastic social
events planned,
including HTAi’s
Welcome Reception,
free to all registrants, to
be held at the Oslo City
Hall or Oslo Rådhus .
This building is
considered the city's
"Structure of the
Century", and is best
known for hosting The
Nobel Peace Prize
Ceremony every
December.
Standardisation of European HTA – Application of the EUnetHTA HTA Core Model for Rapid Relative Effectiveness® in Austria Dr. Med. Anna Nachtnebel, MSc, LBI-HTA
P A G E 9 I S S U E 1 8
The European HTA Network,
EUnetHTA, has developed several
tools for the production of “reliable,
timely, transparent and transferable
information”. Amongst them are the
HTA Core Model for Rapid Relative
Effectiveness Assessments (REA)® and
guidelines on methodological
challenges frequently encountered by
assessors of rapid REAs [1].
The HTA Core Model for Rapid REA®
includes four different domains (see
figure 1). Within these four domains,
generic research questions have been
formulated which are usually contained
in HTAs. Authors go through these
generic research questions and select
those which are considered relevant
for the intervention under assessment.
Most other aspects usually comprised
in comprehensive HTAs such as
ethical, organisation, legal or
administrative aspects are covered
within a brief checklist. Cost
considerations were specifically
excluded based on recommendations
of the High Level Pharmaceutical
Forum.
By standardising the elements
contained in HTAs, a shared
understanding of HTA is facilitated and
the international use of results
promoted. The HTA Core Model for
Rapid REA® therefore aims at guiding
the production of joint assessments in
European collaboration. These
assessments should then serve as a
basis for local HTAs; by using the joint
assessments and by integrating context
-specific information on, for example,
data on prevalence, incidence or costs,
the fast production of local HTAs
should be facilitated and
concurrently duplications reduced.
Besides guiding collaborative
assessments within EUnetHTA,
these tools can also be used for the
production of national or local
HTAs. Applying common methods in
the local context could further
contribute to the re-use of HTA
results and thus to the reduction of
redundancies and to a more efficient
use of scarce scientific resources.
In 2015, the Austrian Ludwig
Boltzmann Institute for Health
Technology Assessment (LBI-HTA)
used the HTA Core Model for Rapid
REA® for the first time for
compiling reports on new hospital
interventions. On an annual basis,
the Ministry of Health commissions
the LBI-HTA to assess resource-
intense interventions, such as costly
surgical procedures or high-tech
based interventions, for which
inclusion in the catalogue of benefits
is sought. The application of the
HTA Core Model for Rapid REA®
led to structural changes in terms of
presentation of the results and lay-
out of the reports, and also to a
change of the publication language; to
increase the likelihood of re-use, the
reports were for the first time
written in English supplemented by a
detailed summary in German. All
reports will be publicly available on
our website starting from the 15th of
July [2].
Overall, our experiences with using
the HTA Core Model for rapid
REA® were positive, since authors
found the structured way of
producing answers to the individual
research questions very helpful.
Accordingly, a second programme
line of the LBI-HTA that is “Horizon
Scanning in Oncology” will also be
adapted to the HTA Core Model in
2015.
References
[1] EUnetHTA. 2015 [cited 12 May 2015];
Available from: http://www.eunethta.eu/
outputs [2] Ludwig Boltzmann Institute for Health
Technology Assessment. [cited 12
May 2015]; Available from: http://
hta.lbg.ac.at/page/bewertung-
medizinischer-einzelleistungen-mel-
2015
P A G E 1 0
4th HTAsiaLink annual conference Sungkyu Lee, NECA H-SIGHT
The 4th HTAsiaLink
annual conference with
the theme of “Sharing
Experiences of Health
Technology Assessment
(HTA) for Universal
Health Coverage (UHC)
in Asia” successfully took
place in Taipei, Taiwan
on 13-15 May 2015,
preceded by the pre-
conference on 12 May
2015. A welcome speech
from Dr. Ming-Neng Shiu,
Vice Minister of the
Ministry of Health and
Welfare, Taiwan
introduced the first day
of the conference.
There were four
important plenary
sessions, one of which
was the Leaders Forum,
highlighting issues from
high-level decision
makers on HTA for
UHC. Decision-makers
from Taiwan, Thailand,
Korea, and Indonesia
were invited to discuss
various issues related to
HTA including the role of
politicians, how to engage
with industries and
patient groups, and how
to ensure transparency in
the HTA process.
Dr. Ryan Li from NICE
International, United
Kingdom presented on
policymaker and
academic collaboration in
HTA based on UK
experiences and
International Decision
Support Initiative (iDSI)
activities. iDSI was
launched by NICE
International in
November 2013 in order
to support low and
middle income
governments in making
better healthcare
spending decisions. It is
an innovative global
partnership between
government institutes,
universities such as the
University of York, and
Meteos, which is a not-
for-profit think tank and
strategy company.
The HTAsiaLink
conference has a unique
format customised to
develop member agency’s
capacity from its inaugural
conference. All the
presentations except
plenary and issue panel
sessions were presented
by junior staff from each
member agency, followed
by in-depth feedback from
international expert
commentators in order to
promote the quality of
HTA projects presented.
There were
approximately 60
presentations regarding
economic evaluation or
healthcare systems.
Experts from the
University of York,
University of Toronto,
University of Glasgow,
University of Adelaide,
and Australian Safety and
Efficacy Register of New
Interventional Procedures
-Surgical (ASERNIP-S)
were invited as
commentators.
An Update from INAHTA Tara Schuller, MSc, Executive Manager, INAHTA Secretariat
P A G E 1 1 I S S U E 1 8
EuroScan focuses on emerging
technologies through the Early
Awareness and Alert Systems
(EAAS) and INAHTA focuses on
the promotion of health
technology assessment at
different points along the
technology lifecycle, including
early adoption, optimal use,
obsolescence, and disinvestment
within health systems. Many
INAHTA agencies use horizon
scanning to inform their topic
identification and prioritisation
processes.
Last year, INAHTA launched a
new strategic plan for the years
2014-2017. This plan outlines a
model tailored to support the
‘network way of working’. This
emphasises and supports the
connections between members
to produce both tangible and
intangible results. INAHTA has
defined four value networks that
span topic areas that are of
interest to their wide range of
membership:
1. Member Agency Assessment
Programs, Processes &
Methods
2. Knowledge Transfer, Uptake
and Impact of HTA Reports
3. Education and Training for
INAHTA Member Agency
Staff
4. Agency Development and
Capacity Building
Over the past year in each of
these value networks, both
tangible and intangible results
have been – and continue to be –
produced. Several internal
policies and processes (tangible
outputs) have been developed
through collaboration in task
groups, webinars, and email
exchanges, which build familiarity
and trust (intangible outputs)
amongst contributing members.
The intangible outputs are
further amplified since
supplemental information is
often shared through these
groups and activities - not about
to the project at hand, but about
separate topics and personal
exchanges about member
agencies and individuals who
work there.
For the coming year, INAHTA
will focus on supporting the
formation of communities of
practice (CoPs) amongst
members. These are groups of
peers held together by a
common sense of purpose,
where sharing knowledge and
experiences across members of
a CoP is of benefit to the daily
work of the members. There is
a very rich storehouse of tools,
expertise, and front-line
experience in INAHTA member
agencies for the production and
dissemination of HTA products,
for example, and the CoPs will
help to facilitate the circulation
and exchange of these tangible
and intangible assets in a
network way of working.
Health care decision making
requires the right evidence at the
right time. Every day there are
new health technologies available
that can improve patient
outcomes and refine health
system efficiency. Health
technology assessment (HTA) is
a multidisciplinary tool to review
technologies and provide
evidence of the value these
technologies can deliver to
patients and their families, health
system stakeholders, and to
society more broadly.
The International Network of
Agencies for Health Technology
Assessment (INAHTA) was
established in 1993, and today
connects 54 publicly-funded
HTA agencies that support
evidence based decision making
that affects the lives of nearly 1
billion people in 34 countries
around the globe.
The connection between
EuroScan and INAHTA traces
back many years, and many
EuroScan members are also
members of INAHTA. In 2010,
a formal Memoranda of
Understanding was signed
between EuroScan and INAHTA.
The work of these two
Networks is complementary:
both promote the adoption and
use of safe, effective and cost-
effective health technologies
through different approaches.
information on innovative
technologies in healthcare in order
to support decision-making and the
adoption and use of effective, useful
and safe health-related technologies.
We are also the principal global
forum for the sharing and
development of methods for the
early identification and early
assessment of new and emerging
health-related technologies and their
potential impact on health services
and existing technologies.
EuroScan International Network is
committed to work with a high level
EuroScan - the International
Information Network on New and
Emerging Health Technologies - is a
collaborative network of member
agencies for the exchange of
information on important new and
emerging health technologies.
Mission
EuroScan International Network is
the leading global collaborative
network that collects and shares
of transparency and professionalism,
and in partnership with researchers,
research centres, governments and
international organisations to
produce high quality information
and effective early awareness and
alert systems for our respective
constituencies.
We are also committed to support
the development of existing and
new not-for-profit public agencies
working in the early awareness and
alert field.
Visit http://www.euroscan.org.uk to find out more about EuroScan, its work and
how to become a member.
Views of individual authors are not necessarily the views of the editor or EuroScan members
Position Current Post Holder End of term
Chair Dr Roberta Joppi, IHSP 31/12/16
Vice Chair Dr Marianne Klemp, NOKC 31/12/15
Registrar Dr Sungkyu Lee, NECA H-SIGHT 31/12/16
Treasurer Dr Anna Nachtnebel, LBI-HTA 31/12/16
Head of Secretariat Dr Claire Packer, NIHR HSC n/a
Executive Committee
If you have any feedback, questions, would like to know more or have any articles that would be of interest
for the next edition of the newsletter please contact Louisa Hamilton, EuroScan Network Co-ordinator,
NIHR HSC, University of Birmingham, Public Health Building, Edgbaston, Birmingham, B15 2TT
[email protected] +44 121 414 7656
CNESH Top 10 for 2015 The Canadian Network for
Environmental Scanning in Health
(CNESH) has released its Top 10
New and Emerging Health
Technology Watch List for 2015
(see https://www.cadth.ca/
environmental-scanning/cnesh/top-
10-new-and-emerging-health-
technology-watch-list ).
The purpose of the list is to identify
new and emerging health
technologies that have the potential
to transform the delivery of health
care through their impact on clinical
effectiveness, patient survival, quality
of life, patient safety, or costs to the
health care system. The list includes
drugs, diagnostics, devices, and
procedures that are soon to be
launched, are recently approved, or
are in the early stages of diffusion.
The process for selecting the
CNESH's Top 10 involved inviting
stakeholders to submit
technologies , a filtration stage
carried out by of a small group to
ensure only technologies meeting
the inclusion criteria were included ,
a verification stage and prioritization
stage.
Technologies included in the 2015
Top 10 are:
andexanet alfa for bleeding
episodes,
electrically stimulated
underwear for pressure ulcers,
eravacycline antibiotic for
multidrug-resistant infections,
LCZ696 for heart failure,
nivolumab for melanoma,
molecular breast imaging system
with cadmium zinc telluride
detector,
pediatric vision scanner for
detection of strabismus
(misaligned eyes) and amblyopia
(lazy eye) in preschool children,
remote monitoring of cardiac
devices,
secukinumab for psoriasis
toraymyxin for sepsis.