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NASA Contractor Report 174979
:\Evaluation of Spacecraft Technology Programs(Effects on Communication Satellite BusinessVentures)—Volume II
Joel S. Greenburg, Carole GaelickPrinceton Synergetics, Inc.Princeton, New Jersey
Marshall KaplanSpacetech Inc.State College, Pennsylvania
Janis FishmanPrinceton Synergetics, Inc.Princeton, New Jersey
and
Charles HopkinsEcon, Inc.San Jose, California
September 1985
Prepared for theLewis Research CenterUnder Contract NAS 3-23886
NASANational Aeronautics aSpace Administration
.__ -_ .-/ ^.«juu»;i-j.u« ut 5V&CECR&IT N86-16452TECHNOLOGY PBOGJBAKS (EFFECTS ONCOMMUNICATION SATELLITE BUSINESS V E N T U R E S ) ,V O L U M E 2 Final Eeport (Princeton UnclasSynergetics, Inc.) 155 p HC A08/HF A'01_1__ G3/32 04928
https://ntrs.nasa.gov/search.jsp?R=19860006982 2020-06-23T12:09:46+00:00Z
SIM&RY
Conroercial organizations as well as government agencies invest inspacecraft (S/C) technology programs that are aimed at increasingthe performance of caniiunications satellites. The value of theseprograms most be measured in terras of their impacts on thefinancial performance of the business ventures that mayultimately utilize the g-imnnications satellites. An economicevaluation and planning capability has been developed and used toassess the inject of NASA en-orbit propulsion and space powerprograms on typical fixed satellite service (FSS) and directbroadcast service (DBS) connunications satellite businessventures. The developed methodology is based upon a stochasticfinancial simulation model (i.e., DCKSflT II) that allows for theexplicit and quantitative consideration of reliability andvarious market, performance and cost uncertainties. The Modeldevelopes financial performance measures, including quantitativerisk measures, that allow the impacts of the technology programsto be determined.
Typical FSS and DBS spin and three-axis stabilized spacecraftwere configured in the absence of NASA technology programs.These spacecraft were reconfigured taking into account theanticipated results of NASA specified on-orbit and space powerprograms. Nonrecurring and unit recurring costs were estiinated(using the PRICE cost model) for all of the spacecraftconfigurations and financial analyses performed of FSS and DBSbusiness ventures utilizing these spacecraft. In general, theNASA technology programs resulted in spacecraft with increasedcapability — this was taken into account in the analysis.
This report describes the developed methodology for assessing thevalue of spacecraft technology programs in terms of their inpacton the financial performance of camtmications satellite businessventures. Results of the assessment of NASA specified on-orbitand space power technology programs are presented for typical FSSand DBS business ventures. These results are extrapolated toindicate the potential market for the developed technology andthe possible implications of the programs on spacecraft importsand exports.
This report consists of two volumes. Volume 1 describes themethodology and contains the results of the analyses performedfor the on-orbit propulsion and space power technology programs.Volume 2 contains appendices describing the DOKSAT II Model anddata base and includes user and programmer documentation.
PAGE ISOf. POOR QUALITY
The reported work was performed by MB. Carole Gaelic* and Mr.Joel S. Greenberg, Princeton Synergetics, Inc., Dr. MarshallKaplan, Consultant, Mrs. Janis Fishman, Consultant, and Mr.Charles Hopkins, BOON, Inc. Mr. Greenberg directed the teamefforts and was responsible for the Methodological development;Ms. Gaelic* was responsible for data collection, narketestimation and the analysis of results; Dr. Kaplan wasresponsible for the spacecraft configuration analysis andtechnology assessment and Mr. Hopkins was responsible for thecost analysis. Mrs. Fishnan was responsible for the softwaredevelopment. This report was also authored by the aboveindividuals.
This wort was performed under the guidance of Mr. Karl Faynon,tASA Lewis Research Center. The NASA Lewis Research Centertechnical staff provided valuable assistance with respect to theconsidered technology programs. Numerous ccnmercialorganizations including RCA toericoo, Fair child, Comsat, DirectBroadcasting Satellite Corp. and GTkE provided valuableinformation with respect to the structuring of the businessscenarios that were considered in the analysis.
^•?-&-.
Princeton Synergetics, Inc
Thomas A. Fentonvice ?resident
ECON , Inc.
TABLE OF CONTENTS
Volune 2
Smmary i
AcKnowledgeroents ii
Appendix A: The Dcrasat II Model Description (ACoranuru cations Satellite FinancialPlanning Model) 1
Appendix B: Donsat II Dser/Progranmer Docuuentaticn 42
Appendix C: FSS and CBS Base Case Data Bases andAssociated Profonna Income Projections,Cash Flow Projections, and Launch andSpacecraft Statistics 93
111
APPQDIX A: THE DQMSAT II MODEL DESCRIPTION(A COMMUNICATIONS SATELLITE FINANCIAL PLANNING MODEL)
A.I IntrtAxrtion
Based upon discussions with the carriers, a stochastic
financial simulation model was developed by Princeton
Synergetics, Inc. for NASA's LeRC. The DOMSAT II Model allows the
impact of S/C technology programs to be evaluated for a broad
range of conwurucations satellite business ventures providing a
nultiplicity of ccnnunications services.
The DOMSAT II Model is currently operational on the IBM PC
with the input data provided via a user friendly LOTUS 123
system. The mathematical computations are perform^ in FORTRAN.
The Model has been used to assess the impact of LeRC on-orbit
propulsion and spacecraft power technology programs on both FSS
and DBS business ventures using both spin and three-axis
stabilized spacecraft. Oser and programmer documentation are
provided in Appendix B.
The methodology developed will allow a broad range of fixed
satellite services and direct broadcast coninunication satellite
business scenarios to be analyzed through the use of the DOKSAT
II financial simulation model. The Model allows a broad range of
comunications satellite business ventures to be simulated
explicitly and quantitatively taking into account uncertainty,
unreliability and resulting risk. It specifically allows for the
consideration of hybrid (i.e., C- and Ku-band) satellite
configurations. The objective is to assess the impact of NASA
spacecraft technology programs (for example, on-orbit propulsion
and power programs) upon conoercial oonnunications business
ventures by planning typical business ventures utilizing
satellites without and with the technology being considered for
development. The value of the technology programs is then
related to the changes in financial or economic performance
measures which provide insights into the likelihood that the
technology will be utilized by the business ventures.
The Model provides the means for evaluating the financial
impacts of S/C technology programs, space transportation programs
and related policies, on private sector communications satellite
business ventures. This is accomplished by reconfiguring S/C
taking into account the anticipated results of S/C technology
programs. The resulting S/C configurations are cocnunicated to
the DOKSAT II Model through specific estimates of cost,
performance and reliability. These estimates are then combined
with a business scenario (i.e., number of satellites as a
function of time, number and type of transponders, demand for
transponders by type of service provided, pricing, price
elasticity, launch system scenario as a function of tijne, likely
launch time delays, transfer time fran LED to (SO, cost of
insurance, satellite control operations expense, G&A expense,
etc.) to establish annual profit (loss), annual cash flow,
cumulative cash flow, RCA, payback period, and ROI. The
financial performance measures are all described by probability
distributions (i.e., risk profiles) since cost uncertainties
(i.e., uncertainty profiles) and subsystem reliability are
considered.
The iitpact of S/C technology programs can be assessed in
terns of the differences that result in financial performance
measures which are the result of differences in S/C performance
and cost attributes resulting f ran the S/C technology programs
and new services made possible by the technology programs. Two
analyses are necessary for assessing the financial impacts; one
analysis based upon a satellite configuration in the absence of
the S/C technology program (i.e., the base case), and a second
analysis based upon a setellite configuration incorporating the
assumed results of the S/C technology program. The difference in
the financial results is therefore assumed to be directly
attributable to the S/C technology programs.
The establishment of a business scenario consists of
specifying the following information (a typical data base used in
the analysis of a FSS business venture is presented in Appendix
B):
* number of years in the business plan
* maxinun number of operational satellites
* desired launch schedule
* possible launch delays
* time to transfer from LEO to CBO
* number of narrow-band transponder groups/satellite
* number of wide-band transponder groups/satellite
* number of transponders per narrow-band group
* number of transponders per wide-band group
* number of spare transponders per narrow-band group /
* number of spare transponders per wide-band group
* transponder reliability characteristics (mean time tofailure, expected wearout life, variability of wearoutlife)
* S/C support subsystem (up to 5) reliability characteristics
* types of connunications services provided (protected, pro-tected/preemptible, unprotected, and preemptible)
* tariffs per narrow and wide-band transponders for eachtype of communications service
* annual demand for narrow- and wide-band transponders interms of type of service
* relaunch threshold in terms of number of operationaltransponders
* annual cost of S/C operations
* annual GtA expense (fixed and variable)
* annual R&D expense (fixed and variable)
* other annual expenses (fixed and variable)
* insurance cost
* S/C cost spreading
* S/C unit recurring cost
* S/C nonrecurring cost
* S/C unit recurring cost learning rate
* launch cost
* launch scenario as a function of time (described in termsof the probability of success of each of the major stepsin the launch sequence)
* depreciation lives
* interest rates
* tax related data
* discount rates
* balance sheet related data.
Many of the above variables are considered as uncertainty
variables requiring the specification of the range of uncertainty
and the fora of uncertainty.
The Model allows uncertainty and unreliability to be
considered explicitly and quantitatively. This is absolutely
necessary when considering programs which are specifically aimed
at reducing uncertainty and altering reliability both of which
effect perceived risk and hence effect investment decisions. Tt>
establish the quantitative measures of risk, the Model utilizes
Monte Carlo techniques wherein the complete business scenario is
repeated a large number of times (typically 1000 or more) each
time randomly sampling from the uncertainty profiles and the
reliability characteristics which are specified. The results of
all the business analyses are saved and appropriate statistics
developed. Financial performance measures are summarized in
terras of expected values and standard deviations. Typical
financial reports are illustrated in Figures B.13 and B.14 with
detailed launch and S/C purchase statistics illustrated in
Figures B.15 and B.16. It should be noted that the financial
documents contain expected values except for those items which
are noted with * indicating standard deviations. The particular
form of the financial statements is the result of discussions
with several carriers.
The Model develops many financial performance measures
including annual after tax profit, annual cash flow, cumulative
cash flow, return on sales, return on assets, payback period, and
net present value. Expected values and standard deviations are
established for all of these. The net present value is
established at a number of discount rates so that the internal
rate of return (or discounted return on investment - ROD can
easily be established.
The Model consists basically of two parts. The first,
utilizing the desired schedule of events, demand for
connunications services, the satellite configuration, specified
launch scenario and reliability characteristics, establishes the
specific timing and number of events and their costs. The
availability of transponders (taking into account failures,
sparing concepts and services offered) is matched against launch
decision criteria in order to establish the schedule for
replacement launches and the timing of additional capital
expenditures for replacement satellites and launches. The timing
and cost information is then passed to the second part of the
Model which performs the financial confutations and establishes
values of the economic performance measures.
The Model is implemented such that certainty conditions can
be easily analyzed as well as the uncertainty situations. For
example, the number of desired runs is an input parameter and can/
be set to one when all ranges of uncertainty are set to zero
(i.e., minimum and oaxijiun values are set equal), mean-time—to-
failure set to very large values and expected wearout time set to
desired failure time (i.e., force replacement) — this is a
useful approach for nodel verification. A user friendly system
has been developed for entering this data into the Model. The
data is entered via LOTOS 123 and the DOMSAT II Madel is in
FORTRAN. The system has been designed for operation on the IBM
PC.
A..2 2hfi Monte Cfrrlo Qancept
The simulation of ocnmunicaticns satellite business ventures
requires the explicit consideration of uncertainty and
unreliability and resulting risk. The areas of uncertainty
include performance, market, cost, and tuning. The areas of
unreliability include both transportation system and spacecraft.
The DOMSAT II Model incorporates these uncertainties and
unreliabilities into a set of financial amputations by utilizing
Monte Carlo sinitiation techniques.
Monte Carlo implies the performance of an experiment or
simulation many tines, such as rolling two dice (either actually
or through the use of a simulation model) repeatedly to determine
the chance of seven or more occurring. In the DOKSAT II Model
the experiment consists of simulating a coraainications satellite
business venture for up to 15 years. This business is simulated
for about a thousand different situations where each of the
specific situations is developed by random sampling of a set of
probability density functions, or uncertainty profiles, and
establishing from specified randan and wearout failure
characteristics specific event timing. The specific values
obtained froo the sampling of the uncertainty profiles and the
reliability characteristics then establish the parameters of the
business venture that is simulated. Results free all of the
simulations are saved and histograms developed (or summarized by
expected values and standard deviation) of pertinent financial or
other performance measures. These histograms represent the
result of combining all of the areas of uncertainty and
transportation system and S/C reliability attributes in the
business scenario.
The Monte Carlo concept is illustrated in Figure A.1 through
the use of a simplified financial model. Basic input data to
this model consists of deterministic and probabilistic data.
Bcamples of deterministic data are the nunber of time periods to
be considered, the discount rates, and tax rates. Probabilistic
data consist of "uncertainty profiles" associated with the
variables whose values cannot be predicted or known exactly in
advance. Typical uncertainty variables are sales, selling price,
expense items and capital expenditures. Dhcertainty profiles are
subjective estimates that describe the range and form (shape) of
the uncertainty. The creation of uncertainty profiles is
discussed in following paragraphs.
NDHTE CARLO SIMULATION WOEL
/vf- • *»^
s~\y ^X^v
^m ^^fc
.*-v_^^^ \
/~^
wcERTAimrPROFILE
WIT SALES f
SELL 1*6 PRICE »»
MARKET SHARE *•
tJPEwii ITEMS ^
CAPITAL DP *-
I • TIK PERIOOR • REVENUE
US • UHIT SALESSP • SELLING PRICE
ATP - Af TEH-TAX PKOFI
FINANCIAL SIMULATIONMODEL
• • IK • <P • USR, • US, 5F, «*,
• TD • •> . Tf • DBTP, • R, It, w.
»T» . fl TR> • ITP
|
T
4W
— P- PWFIT i !l S=,.
— »— IBOfJITEtWV; ^ *x*»-
— - RATE OF ftmWfl _ - an
— *- PRESDn MORTH !^«*^fc»
RIStPROTILE
MS MARKET SHARE8TP BEFORE-TAX PROFIT
E EXPENSES0 DEPRECIATION
TR TAX RATE
ORIGINAL PAGE ISOF POOR QUALITY
FIGCPE A.1 PDWC1AL.PLMKIIG KDEL: KKTE CM5X) CONCEIT
These data are input to a financial simulation model that
represents the real world situation being evaluated. The
illustrated model (Figure A.1) states that revenue at a given
time, I, is equal to the product of unit sales, selling price and
market share; before-tax profit is equal to revenue less the sum
of all expense items less the depreciation expense; after-tax
profit is the before-tax profit multiplied by one minus the tax
rate.
Risk analysis is performed by the randan sampling of the
input data (according to the weighting of the uncertainty
profiles), performing computations contained within the
simulation model, saving the results, then repeating the process.
This process is repeated many times until a reasonable set of
histograms can be developed from the saved output. These
histograms are worked into the desired form to indicate the
variability of performance measures, such as profit, cash flow,
indebtedness, rate of return and net present value. The DOKSAT
II Model sumarizes the financial performance measures in terms
of expected values and standard deviations and establishes the
probability density functions of launch and S/C purchase events.
The performance measures may be displayed, as indicated, in the
form of "risk profiles" which indicates the chance of a
performance measure exceeding specific levels (i.e., the
complementary cumulative probability distribution).
At the heart of the DCMSAT II Model is a financial model
that is driven by data obtained from "event" (i.e., launch times,
S/C failures, transponder failures, etc.) computations. The
whole process, both the events and the financial computations,
are included in a Monte Carlo model. The basic structure of the
financial confutations is illustrated in simplified form in
Figure A.2. Dhit sales is multiplied by unit selling price and
the product is in turn multiplied by market share to produce
revenue. Each of these quantities may be provided in the form of
an uncertainty profile, which are then sampled randomly to
produce a value of the revenue random variable.
ORIGINAL PAGE ISOF POOR QUALffY
FIGURE A. 2 FDWJCIAL JLAWBC MCDEL: SIMPLIFIEDCASE FLOW OOKPUTATIGN
10
Variable cost (which may be related to unit sales) is added
to fixed cost to obtain total annual operating cost. The
variable and fixed costs may also be uncertainty variables.
Capital expenditures are specified (and may be in the form of
uncertainty variables) and depreciation is computed and added to
total operating cost to yield total expenses. Revenue less
annual expenses yields before-tax profit. This, when multiplied
by one minus the tax rate and modified by carry forward losses
and tax credits, yields after-tax profit. Annual cash flow is
obtained by adding depreciation and changes in the balance sheet
items to after-tax profit and subtracting capital expenditures.V.
A. 2 tt)Cf rtfllnty and Iftisk Prof i1«»s
Uncertainty estimates are subjective. They express
quantitatively attitudes regarding uncertainties, reflecting past
experience with similar efforts, types of problems encountered in
the past, and insights into problem areas that might develop.
Uncertainty profiles, being subjective estimates, call for expert
opinion in each area. Ordinarily, manufacturing personnel
estimate the uncertainty surrounding manufacturing cost (both
recurring and nonrecurring); market personnel estimate
uncertainty surrounding the sales forecast and marketing costs;
and so on through each category of input.
A useful and frequently used procedure for estimating the
shape of an uncertainty profile is as follows (see Figure A. 3):
[1,2]
A. Estimate the range of uncertainty — minimum andmaximum bounds (little or no chance of falling outsidethese bounds). Divide this range into a number of
ll
equal intervals — 5 hasexperimentation, to be useful.
been found, through
B. Make a relative ranking of the likelihood of thevariables falling into each of the intervals: thisestablishes the general shape of the uncertaintyprofile (e.g., skewed left, central, etc.).
C. Set relative values for the chance of falling into eachinterval. (For the Figure A.3 case, the chance offalling into interval 1 is half that of falling intointerval 2.)
D. Having assumed the probability of falling within therange is 1.0, the chance of falling in each of the fiveintervals can be sunned and set equal to unity. Thisequation can be solved (by substituting the relativevalues as obtained in paragraph C) for theprobabilities associated with each interval.
I ' '•a? toooPOOR
MOO tooo
1000 tooot)
FIOTHE A.3 FINANCIAL HANTOC JCDEL: UNCEKDONn' PROFILES
12
This can become a tedious procedure when many uncertainty
variables and/or many intervals nust be dealt with in making
assessments. To minimize this problem, many uncertainty profiles
are stored in the data base. The evaluation then need specify
only the minimm and maximum values and the name of the
applicable uncertainty profile. If the appropriate uncertainty
profile has not been stored, it can be created by the process
described above and entered into the data base.
A.3 DOMSKT II finnprt- f iflnal Procedures
Figure A.4 presents an overview of the DCKSAT II Model. The
input data provided via LOTOS 123 (see Appendix B) is read by the
DOHSAT II FORTRAN Model. The DOKSAT II Model consists of a
number of computational procedures or sections (not to be
confused with subroutines). These include:
A. A section concerned with simulating the launch sequencewhenever a launch is required as determined by desiredlaunch dates, and launch and spacecraft failures.
B. A section concerned with the determination ofspacecraft subsystem failures.
C. A section concerned with the determination oftransponder failures that takes into account operatingas well as spare transponders.
D. A section concerned with the estimation of satellitereplacement time as determined by considerations ofspecified launch criteria and number of availabletransponders (this feeds results back to the launchsequence simulation).
E. A section concerned with establishing the demand fortransponders as a function of time. As will bediscussed, the demand is disaggregated into "narrow-band* and "wide-band" transponder demand, type ofservice (four levels considered) and satellite. Whendemand exceeds supply, this section allocatestransponders according to service.
13
INPUT DATA
CF IIS/C SUHKJKT SYSTEM II FAILURES I
OF II TOANSKK5ER II PAZLDRES I
| ESTABLISHMENT GP I•I SATELLITE I
TIME I
ANALYSIS
REVENDEANALYSIS
FINANCIALANALYSIS
REPORTDC
FIGUPE A.4 DOMSAT II KDEL:
14
F. A section concerned with revenue analysis that developstotal revenue by considering number of transpondersassigned to each service, the demand and the price pertransponder.
G. A section concerned with the overall financial analysisgiven a set of events and revenue (as determined in theother sections). The financial analysis developsproforma income projections, cash flow projections, andnet present value at a number of discount rates. Anumber of financial performance measures are developedwith both expected values and standard deviationsdetermined so that risk profiles may be developed.
B. A section concerned with report generation thatincludes the proforma income statements, cash flowprojections and statistics on launch attempts andsatellite purchases.
A more detailed computational flow is illustrated in Figure A. 5.
It should be noted that even this flow chart has been grossly
simplified in order to present a general overview of the
computional process. Actually, within the computational flow
there are many levels of disaggregation and hence many
computational loops. These may be visualized by referring to
Table A.I wherein the different indices that are utilized are
identified and their functions indicated. Pertinent details of
the Model are described below with reference to Figure A.4.
Simulation of kannch Sequence
The first step in the computational procedure is the
simulation of the launch sequence which establishes the specific
timing of satellite launches. Input data establish desired
launch dates — the Model establishes actual launch dates. A
general launch scenario (based upon the Space Shuttle) as
illustrated in Figure A.6 is included in the Model. Inputs to
the launch scenario include launch delays (i.e., the range of
uncertainty associated with the timing of a rescheduled launch
TABIZ A.1 IDENTIFICATION OF INDICES UTILIZED
INDEX FUNCTION
* Monte Carlo fcm Index * Establish the nmber of simula-tion runs to be performed
* Operational Satellite Index * Multiple satellites may be con-sidered as comprising the busi-ness system
* Replacement Satellite Index * Used to keep trade of the re-placement satellites requiredfor each of the desired opera-tional satellites (i.e.,an indexwithin the operational satelliteindex)
Primary Time Index
* Secondary Tine Index
* S/C Subsystem Index
* Transponder Group Index
* Transponder Index
* Service Index
* Capital Expenditure Index
* Used to keep track of each ofthe time periods (years) of theanalysis
* Time index within the year index(each year is subdivided toallow more accurate demand andrevenue computations)
* Identifies each of the S/C sup-port subsystems that are consid-ered in the revenue analysis
* A number of transponder groups,each with their own spares maybe considered for both thenarrow- and wide-band services
* Identifies each of the trans-ponders within each group
* Identifies each of the four (4)services that may be considered
* Used to keep track of capitalexpenditures
ORIGINAL
I READ INPUT DATA I
I SET MONTE CAFLO h-I PUN DCEX |
I SIMULATE LAUNCHI SfcUUUNCL FOR EACHI DGSIFED OPEK. S/C
I ESTABLISH YEAR OFI LAUNCH
N
<D
I INCREME27T LAUNCH II SDOCESS (I) I
IINO^EMENT SATELLITE II FURO1ASES (I) I
ESTAfi. START DATEFOR INITIAL S/C
I INCREMENT LAUNCH II FAILURES (I) I
I ESTAB. START DATE |IFOR REPLACEMENT S/CI
I ESTAB. FAILUREI TIME FOR S/C BUS
I
ESTAB. LAUNCHTIME DELAY
I
<b
FIGURE A. 5 DOMSAT II MODEL: CDKR.TATIOKAL FLOW
17
IESIAB. FAILURE TIME II FOR EACH NARROW- II BAND TRANSPONDER I
lESTAB. FAILURE TIME)IFOR EACH WIDE-BAND |I TRANSPONDER |
lESTAB. ND.OF NARROWlI BAND TRANSPONDERS |I OPERATIONAL AS A II FUNCTION OF TIME I
IESTAB. NO. OF WIDE-!I BAM) TRANSPONDERS II OPERATIONAL AS A II FUNCTION OF TIME |
I DETERMINE NO. OF II EFFECTIVE TRANS- I(PONDERS OPERATIONAL I
I N
I ESTAB. DEMAND FORI NARROW-BAM) TRANS.IFOR EACH S/C & FORI EACH SERVICE ATI YEAR END
I ESTABLISH LAUNCH II DELAY I
I ESTAB. NEW LAUNCH II DATE FOR REPLACE- II KENT SATELLITE I
FIGURE A.5 DOMSAT II MODEL: COMPUTATIONAL PLOW (CONTINUED)
18
I ESTAB. DQftND FOR IIWIDE-BAND TRANS.FOR|IEACH S/C & FOR EACH IISERVICE AT YEAR DO I
IINTERPOLATE DQftND |I WITHIN EACB YEAR I
I ALLOCATE NARROW- II BAND TRANS. TO II SERVICE t REVENUE I| GENERATION I
I ALLOCATE WIDE-BAN} |I TRANS. TO SERVICE fc|IREVENUE GENERATION I
IESTAB. NARRCW-BAND II TRANS. PRICE FOR(EACH SERVICE i YEAR)
I ADJUST PRICE FORCORRELATION
I ESTAB. WIDE-BANDI TRANS. PRICE FORIEACH SERVICE & YEAR)
I ADJUST PRICE FOR ICORRELATION I
I EFFECTS I
•I
I ADJUST DDOND TO II TAKE INTO ACCOUNT I(PRICE ELASTICITIES I
FIGURE A.5 DOMSAT II KDEL: COMPUTATIONAL FLOW (CONTINUED)
I COMPUTE REVENUE BY|I SERVICE TYPE (I) |
iCOMPUTE TOTALREVENUE (I)
IESTAB VALUES OF THE FOLLOWIN5UNCERTAINTY VARIABLES THROUGH
RANDOM SAMPLING:* LAUNCH COST* INSURANCE COST* S/C RECURRING COST* S/C NONRECURRING COST* S/C OPERATIONS COST* ENGINEERING EXPENSE ($)* ENGINEERING EXPENSE (%)* R&D EXPENSE •($)* R&D EXPENSE (%)* GfcA EXPENSE ($)* GfcA EXPENSE (%)* OTHER CAPITAL EXPENDITURES
ADJUST THE FOLLOWING FORCORRELATIONS/C OPERATIONS EXPENSEENGINEERING EXPENSE ($)ENGINEERING EXPENSE (I)R&D EXPENSER&D EXPENSEG&A EXPENSEGfcA EXPENSE
($)(%)($)(%)
OTHER CAPITAL EXPENOTTURES
I COMPUTE ANNUAL II LAUNCH COST (I) I
FIGURE A.5 DGMSAT II MODEL: COMPUTATIONAL PLOW (CONTINJED)
20
I COMPOTE TOTAL S/C II UNIT RECURRING GDSTJITAKDC DUO ACCOUNT!I LEARNING tt'FECTS |
I COMPUTE ANNUAL II LAUNCH COST (I) |
IESTAB AlWUAL DEPREC)JEXPQ6E FOR LAUNCH IIOD6T, LAONCB DBDR, I
fc OTHER ASSETS I
I ESTABLISH TOTAL IIAMOAL DEPRECIATION |
I ESTABLISH AWUAL*S/C CONIHX OPER-
ATIONS EXPENSE*EM3INEER. EXPEtCE*RtD EXPENSE*GiA EXPE26E
IESTAB. TOTALIOPERATIGNS EXPENSE
I ESTABLISH DEBT IISEFVICE EXPENSE (I) I
FIGUKE A.5 DOKSAT II MODEL: CCKEVIATICNAL FLOW (CCNTINUED)
21
I ESTABLISH BEFORE- II TAX PROFIT (I) |
| ESTABLISH INCOME II TAX (I) |
I ESTAB. INVESTMENT |I TAX CREDIT (I) I
I COMPUTE AFTER-TAX II PROFIT (I) |
ESTABLISH CHANGESIN BALANCE SHEETITEMS:* PAYABLES* RECEIVABLES* CASH
I ESTABLISH COST OF II PLACING A SPARE II S/C IN INVENTORY |
IPERFORM COSTSPREADING FOR:
* LAUNCH COST* INSURANCE COSTS* SATELLITE COSTS* S/C NCNRECURRUCICOST I
FIGURE A.5 DOMSAT II MODEL: COMPUTATIONAL FLOW (CONTINUED)
22
I ESTABLISH ANNUAL I(CAPITAL EXPBOnUFEl
iI ESTABLISH TOTAL II CASH INFLOW (I) |
I ESTABLISH TOTAL II CASE OTinXW (I) I
I ESTABLISH NET CASH]I FLOW (I) I
I ESTABLISH |I INDEBTEDNESS (I) I
I ESTABLISH BOCK I(VALUE OF ASSETS (I) I
I ESTABLISH TOTAL II ASSETS (I) |
I COMPUTE PETUIW ON II ASSETS i KETUIW II ON SALES (I) |
I COMPOTE NET II PRESENT VALOE I
I4.8^*
FIGUPE A.5 DOMSAT II MODEL: COMPUTATIONAL FLOW (CQNTIHJED)
23
I SAVE ALL II RESULTS I
N
I ESTABLISH AVERAGE |I VALUES 4 StMIAPD 1I DEVIATIONAS GP ALL I(NECESSARY VARIABLES I
I PRINT II RESULTS I
EtC
FIGURE A. 5 DOKSAT II MCDEL: COMPUTATIONAL FLOW (CONTINUED)
24
the before-tax profit multiplied by the tax rate. Investment tax
credits are considered for the launch costs, insurance costs,i
annual spacecraft recurring costs and other capital expenditures.
After-tax profit is the before-tax profit plus the tax credits
less the income tax. It is assumed that the business venture is
part of a larger corporation with other cash flows, profits and
losses. Therefore no carry forward losses are taken into account
since it is assigned that they are used to offset other corporate
profits.
Changes in annual receivables, payables, and cash are
established with receivables being a percentage of annual revenue
and cash and payables being percentages of annual expenses (not
including depreciation). The computation of annual cash flow
takes into accout these changes in balance sheet items, satellite
inventory and the expenditures made for assets as the
expenditures actually occur. Thus cost spreading is performed on
the annual launch, insurance, and satellite costs with the annual
capital expenditures consisting of these spread costs. It is
assumed that a spare satellite is acquired during the first year
of service and that a satellite is maintained as a spare to
ensure the availability of a satellite when needed. The
satellite is a ground spare.
Annual cash flow is computed as the sum of annual profit
(loss), changes in balance sheet items, capital expenditures and
inventory. Indebtedness is established as the negative of the
emulative annual cash flow. A positive indebtedness indicates
that cumulative cash outflows have exceeded cumulative cash
NOT F,LMEii
inflows. A negative indebtedness indicates that emulative cash
inflows have exceeded emulative cash outflows.
The present value of annual cash flows is established at up
to five different discount rates. The present value is computed
in two parts. The first comprises the present value contribution
resulting from cash flows during the detailed planning horizon of
the business venture. The second comprises the present value
contribution from the end of the planning horizon to infinity —
the infinite horizon contribution. The infinite horizon
computation assumes that the cash flow achieved in the final year
of the analysis will continue in all future tune periods.
The book value of assets is established as the capital
expenditures less the accumulated depreciation. Tbtal assets is
established as the book value of assets plus receivables, cash
and inventory. Return on assets is established as the annual
profit divided by assets and the return on sales is established
as the annual profit divided by annual sales.
Reporting
The financial and event results are surmarized in four
reports: a proforna income statement, a cash flow projection, and
statistics associated with annual launch attempts and satellite
purchases. Typical reports are presented in Appendix B. All
data presented in the proforna income statement and cash flow
projection are expected or average values with the exception of
those items indicated with an * — this implies that the values
are standard deviations. The expected values and standard
deviations are the result of utilizing the results obtained from
39
all' of the Monte Carlo runs (for exanple, the average profit in
year 10 is obtained as the sun of the profits obtained in year 10
from all of the Monte Carlo runs divided by the muter of Monte
Carlo runs).
Further insights into the computational details can be
obtained from a detailed review of the inputs and outputs
described in Appendix B.
40
A. 4 References
(1] Greenberg, J.S. , Risk Analysis, Astronaut ice/Novenber 1974.
[2] Greerberg, J.S. , and Hazel rigg, G.A., Methodology forReliability-Ooet-Risk Analysis of Satellite Networks,Journal of Spacecraft and |tocketfl. Vol. 11, No. 9.,Septenber 1974.
APPQDDC B: DCKSAT II USER / PROGRAMMER DOCUMENTATION
The Comunications Satellite Business Financial Planning
Model, DOMSAT II, is programed to operate on the IBM PC. To
utilize this Model the following hardware configuration is
required:
* IBM PC with two (2) floppy disk drives (360 K/disk DS/DD)
* 256K memory plus A.S.T. six pack plus (640K memory)
* Printer (OKIDftlA 92 P)
* Display (AMDEK 300 A)
* PERSYST Color Graphics Adapter
* 8087 Co-Processor (Hardware Math).
In addition the following software is required:
* MS-D06 2.1 (or higher) Operating System
* LOTOS 123 for the IBM PC.
DOMSAT II is written in FORTRAN for the IBM PC. The FORTRAN
code consists of a main routine and ten (10) subroutines (or
functions). The program flow and nodule descriptions are
sunraarized in Figure B.I. Two functions generally available in
libraries on large conputers were not available — randan nurber
function and an error function. These functions are coded and
included in the program.
The FORTRAN program has been compiled and confined with a
LOTOS 123 spread sheet data base on a single diskette for ease of
use. LOTUS 123 is used to prepare the input data for the DOMSAT
MAIN
CALL Subroutine SETUP
- Seed Randan Nunber
- Initialize variables to be accumulated over all runs
- Set default values
- Initialize tables of:
Launch Attempts
Spacecraft Purchases
CALL Subroutine INPUT
- Read input data
- Make up tables of failure probabilities(use function ERFC)
- Compute expected values of narrow and videusing uncertainty profiles not 0for all prices by service type(use function EV)
Start Monte Carlo Runs
Initialize variables dependent upon each Monte Carlo Run
CALL Subroutine RUNSAT
- Determine number of launch sucesses/fallures(use function RAND)
If launch failure
CALL Subroutine RDIST
Establish tin* delay for next launch
Establish new launch date
FIGURE B.I MODEL FLO* AND MCDULE DESCRIPTIONS
43
- CALL Subroutine TFAIL
Establish:
Spacecraft Bus time of failure
Narrow Band Transponder tine of failure
Wide Band Transponder tine of failure
- Establish:•
Hunter of operational narrow band transpondersas a function of tine
Hunter of operational vide band transpondersas a function of time
- Determine satellite replacement tine
- CALL Subroutine PDIST
Establish tine delay for next launch
- Establish new launch date
CALL Subroutine DEMAN)
- Establish transponder demand
CALL Subroutine OQRREL
CALL Subroutine PDIST
Generate Randan Number (use function RAM))
Sample probability distribution(use input array PPP)
Establish uncorrelated value
Establish correlated value based upon currentvalue and previous value
- Determine first year of launch over all satellites
PIGCFE B.I MODEL FLOW AND KDULE DESCRIPTIONS (CONTINUED)
44
- Establish demand within each year
- Allocate narrow band transponders to service andrevenue generation
- Allocate wide band transponders to service andrevenue generation
Establish narrow and wide band prices
CALL Subroutine CORFU,(see preceding description of CORREL) •
Adjust demand to take into account price elasticities
Confute REVENUE by service type *Confute TOTAL ANNUAL REVENUE * **
Confute: INSURANCE, S/C RECURRING, S/C NGN-RECURRING, andLAUNCH COSTS with no correlationCALL Subroutine RDIST
(see preceding description of RDIST)
Confute Annual: LAUNCH, SATELLITE, INSURANCE COSTS, andCAPITAL EXPENDITURES
Establish ANNUAL DEPRECIATION for:LAUNCH COST *INSURANCE *SPACECRAFT *OTHER ASSETS *
Accumulate TOTAL DEPRECIATION
Establish: S/C OPERATING EXPENSES *ENGINEERING EXPENSES *R fc D EXPENSES *G & A EXPENSES *in the same manner as narrow & wide band prices
Confute ANNUAL:TOTAL OPERATIONS EXPENSE * •*GROSS JWdN * **DEBT SERVICE *BEFORE TAX PROFIT *
FIGURE B.I MODEL PLOW AW) ICDULE DESCRIPTIONS (CONTINUED)
45
Cost spread S/C NON-RECOR COST *INO3C TAX *INVESTMENT TAX CREDIT *AFTER TAX PROFIT (LOSS) * **
Cost spread:LAUNCH COOTSINSURANCE COSTSSATELLITE COSTS
Confute ANNUAL:CAPITAL EXPENDITURES * •CASE FLOW *TOTAL CASE INFLOW *TOTAL CASH OUTFLOW *NET CASE FLOW * **DDEBTEONESS * **
Ccqpute:PRESENT VALOE * **TOTAL ASSETSRETURN ON ASSETS * **RETURN ON SALES * **
Fill in tables:NUMBER OF LAUNCH ATTEMPTS * **NUMBER OF SPACECRAFT FURC * **
00 Back to "Initialize variables dependent upon eachMonte Carlo Run" until all runs are ccnpleted
Setup Reports and Print
- CALL Subroutine OUTPUT
Oonpute AVERAGES of * values(• value times 1 divided by I of Monte Carlo Runs)
Confute STANDARD DEVIATIONS for ** values
Write Reports
FIGURE B.I MODEL PLOW AND MXULE DESCRIPTIONS (CONTINUED)
46
II Model. It is assured that the user of the Model is familiar
with the I/THIS 123 oconand set. The specific LOTUS macro
ccranands necessary to enter the data in the worksheet, print the
worksheet, save the worksheet, write the file for input to the
DGMSAT II Model and to run the Model are described in following
paragraphs.
Approximate execution time for the sample worksheet data
provided in the following pages is about 235 minutes — two (2)
minutes to read the input data and about 14 seconds per Monte
Carlo run (1000 runs) . Printing the results takes about 3
minutes more. Thus, the fixed or overhead time is approximately
5 minutes with a variable time of 14 seconds per run. Rin tine
is actually a function of the scenario being analyzed. For
example, increasing the ranker of satellites, and/or the nunfcer
of groups and transponders per group, and/or the number of Monte
Carlo runs will increase the running tine. Also, the more
uncertainty data the longer the run time.
B.2 I/7R3S 123 Macro ftwnands yid Iheir
In order to enter the data in the worksheet, print the
worksheet, save the worksheet, write the file for input to the
DOMSAT II Model and to run the Model, the following procedures
should be followed and the following comnands utilized:
* Insert the I0TOS 123 System Diskette in Drive A
* Insert the DOCEL (i.e., the data base and the compiledFORERAN code) Diskette in Drive B
* Type [123] (note that [ and ] do not get typed but areused to denote the specific required keystrokes) when theA> appears on the screen.
47
* Type any key to bring up a blank worksheet
* Type [/PR] to retrieve the worksheet (DO2.WKS)
The user way now use the following MACRO COMMANDS:
* Type l<alt key>L] and the worksheet is listed on theprinter. Make sure the printer is onand the forms are at the top of thepage.
* Type [<alt key>H] and the HOC (see footnote) isbrought up to be used in changing theworksheet. The MEHJ is illustratedin Figure B.2. Changing the work-sheet uses the standard set of LOTOS
* Type [/PS] and the changed worksheet is saved.f
* Type [<alt key>DJ and the input file (DCOH.FWO ismade up for the model and is writtenon Diskette B.
If an INXIM.PFN already exists onDiskette B, type [/PE P] to ERASE it.
* Type l/Ql to EXIT from LOTOS.
The following is the procedure for FUNKING THE HGDEL (i.e.,
performing the FORTRAN confutations, saving the results and
writing the results to the printer) .
* After EXITING LOTOS and A appears on the screen, FEMCVEthe LOTOS system diskette f ran DriveA.
* Type [B: ] and the MODEL is now set up to run with theinput data just provided via LOTOS.
* Type IDOMDEL] and the Model will read the input data(notice the light on Drive B) .
from the MEND the user selects an area of the worksheet thathe wishes to look at and/or change. This area will appearon the screen such like the printout of the worksheet.After any changes have been made (using standard LOTOSfgrirtandfi) to the values on the screen, the user returns tothe MENU «alt key>M] or QOTTS l/Q].
48
The screen will display the nunber ofruns as they are canfdeted — a mess-age after the first run and every10th run thereafter. This provides astatus report on progress. When allruns are conpleted the results willgo directly to the printer, takesure the printer is on and that thepaper is lined up to begin printingat the top of the page — one blanksheet will cone out before actualprinting begins.
B.3 Input Data Description
Inputting of data is acccnplifihed through the use of the
LOTOS 123 user friendly input data system. Predefined formats
(i.e., spread sheets) have been defined into which the input data
is placed. The data base for a ccranunications satellite business
venture analysis consists of up to 38 screens of data.
Individual data elements may be changed or an entire data base
nay be created using the LOTOS 123 facilities. Any screen of
data may be reached by scrolling or a particular screen may be
selected for editing by using the MEND as indicated in Figure
B.2. Typing <ALT>M brings up the MENU screen; typing a number
brings up the desired data screen (for example, typing the nunber
5 results in the display of the launch scenario data).
Figures B.3 through B.12 illustrate a typical data base for
a comnunications satellite business venture. The definitions of
the line-itens comprising the data base, consisting of the 38
screens (indicated by the numbers in I ]), are indicated below
and organized on a screen-fcy-screen basis.
49
DOMSAT MODEL. DPTA GROUPSTYPE NUMBER FOR GROUP; (ALT)M TO GET BACK TO THIS LIST. (ALT>0 TO QUIT
Cn GLOBAL DATA (SYSTEM)CE3 GLOBAL DATA (FINANCIAL)C3D TRANSPONDER DATAC43 SPACECRAFT SUPPORT SUBSYSTEM DATAC33 LAUNCH SCENARIO DATAC63 DEMAND: BY SERVICE TYPE AND SATELLITEC863 PRICE (ft/YR): BY SERVICE TYPEC3CO PRICE ELASTICITY DATAC31D CORRELATION DATAt32D COST/EXPENSE DATA S/C CONTROL UNIT COST(*>C333 " S/C CONTROL OPERATIONS COST(»)C343 N ENGINEERING EXPENSEC353 " R*D EXPENSEC363 - GftA EXPENSEC373 CAPITAL EXPENDITURE DATAC38D UNCERTAINTY PROFILE DATA
FIGUPE B.2 MEND FOR DTCRIIG DATA INTO THE DOMSAT MXEL
50
Screen til r cinh»i Data I (Refer to Figure B.3)
The Global System Data describes the broad parameters of the
business system that will be described by data in the following
sections.
1. NO. YRS ANALYZIZ).....The ranker of years to be considered inin the business plan (oust be equal to orless than 15) .
2. MAX. I OPER. SATS.... The maximum number of operational satel-lites to be considered in the businessplan (most be equal to or less than 5) .
3. LAUNCH DATES (YRS)...Tbe desired initial launch date for eachof the operational satellites (i.e., 5.5indicates that the initial launch attemptfor the second operational satellite willoccur half-way through year 5) . When anoperational satellite fails it will bereplaced. For example, with the indic-ated data the objective is to maintain 3operational satellites after year 7.5.
4. LAUNCH DELAYS.
5. LED to GBOTRANSFER TIKE.
.If a failure occurs during a launchanother launch will be attenuated. Thiswill occur after a specified period oftime—the launch delay. The launch delaymay be specified in terms of a range ofuncertainty (i.e., maxinum and minimumanticipated delays) and the form of theuncertainty (i.e., the name or number ofthe uncertainty profile that describesthe probability density function withinthe range of uncertainty—the uncertaintyprofiles are defined in figure B.13). Ifthere is no uncertainty then the max. andmin. values should be set equal to eachother and the uncertainty profile isimmaterial.
.Ihe tine to transfer from LEO to GBO mustbe specified for each year (as specifiedin (1)) of the analysis. 0.25 indicatesa quarter of a year delay—the time tocheck out the satellite in GBO isincluded (i.e., typically about 3months). -
C l DNO. tflMAX. «LAUNCH
D^TM (SYSTEM)
ODER.DATES
S«T5(YRS)
SATELLITESATELLITESflTELLlTESATELLITESflTELLlTE
LAUNCHMAX.
NO. 1NO. £NO. 3NO. 4NO. 5
DELAYSDELAY(YRS)
WIN. DELAY(YRS)L'NCERT. PROFILE
5.LEO TO GEOTRANSFER TIME -r(YRS 1 THRU 15J
6. NO. SIMUL. RUNS
7.50. 00. 0
0.8
0. if-0. £50.15
ORIGINALOR POOR FS
0. c.5 u. w'50. £5 0. i'50. c5 0. £5
(FINANCIAL)
j.A.
DEBT SVC INT RT XEFFECT TAX RATE XINVEST TAX CRDT XTAX CREDIT ONLAUNCH COS-INSURANCE CS/C RECUR.OTHER CAP.
5. PAYA&uES (X6. RCVS (X REV.7. CASH (X EXP.8. INSUR^ <0 = N/1=Y)9 S/C LEARN. RATE X10! DEPRECIATION LIFE
LAUNCH,INS.,S/COTHER CAP. EXP.
11. DISCOUNT RATE (%)
ic'. (.1Ib. 010. 0
OSTCOSTEXP.EXP. I
))
e.16.I.
11i
1.i7C_l
et.'.'
:o. o1 £. (j
10. 0 £S. 0
PIGUPE B.3 INPOT DAI* POFMM: O^OBAL DMA (SfSIEJI 4 FINANCIAL)
6. NO. SDfJL. RUNS ...... The number of simulation runs to beperformed in the Monte Carlo analysis.
121 "frfn Data (Financial) (Refer to Figure B.3)
The Global Financial Data establishes the underlying
financial parameters to be used in the planning and evaluation of
the business venture.
1. DEBT SVC INT FT %....Debt service interest rate expressed asa percentage.
2. EFFECT TAX PATE %.... Effective tax rate expressed as apercentage. It is assumed that thecoanuni cations satellite business ventureis part of a large corporation whereprofits and losses are consolidated.
3. INVEST TAX CTOT %.... Investment tax credit expressed as apercentage.
4. TAX CREDIT ON ........ The input data specifies whether or notinvestment tax credits are taken onlaunch cost, insurance cost, spacecraftrecurring cost, and other capitalexpenditures. A "1* indicates that taxcredits are taken and a "0" indicatesthat tax credits are not taken.
5. PAYABLES (% EXP.) ....Average number of weeks of outstandingpayables expressed as a percentage (forexpamle, 6 weeks of payables is equal to11.5%— 6/52 of a year).
6. RCVS (% REV.) ........ Average number of weeks of outstandingreceivables expressed as a percentage(for example, 6 weeks of receivables isequal to 11.5%).
7. CASE (% REV.) ........ Amount of cash, expressed as a percentageof annual revenue, required to meetcurrent expenses.
8. DBDR? (0»N/1-Y) ..... When launch insurance is to be taken thenenter "!', otherwise enter *0."
9. S/C LEARN. RATE %.... Spacecraft learning rate expressed as apercentage. The S/C unit recurring costis reduced by a percentage equal to 100minus the learning rate every tire thequantity dcx&les.
53
10. DEPRECIATION LIFE(YRS) The depreciation life (years) for launch,
insurance and spacecraft, and othercapital expenditures. Straight linedepreciation is utilized.
11. DISCOUNT RATE (%)...Discount rates {%) utilized in thecomputation of net present value of cashflow. The present value is establishedat each of these discount rates.
121 - Transponder Data (Refer to Figure B.4)
The spacecraft may consist of both •narrow-" and •wide-band"
transponders that may operate in two different frequency bands
(for example, C- and Ku-bands). Within each of these frequency
bands there may be a number of groups of transponders (maximum of
5) with a specified muter of active transponders per group
(maximum of 25) and a specified number of spare transponders per
group (maximum of 10). The reliability characteristics of each
of these transponders is described in terms of random and wear out
phenomena. Data for both the narrow- and wide-band transponders
is similar and consists of the following:
1. K). OF GROUPS Number of groups of transponders withinthe frequency band. It is assumed thatspare transponders within a group mayreplace any of the active transponderswithin the group.
2. NO. TBANS/GKP Number of active transponders per group.
3. SPARE TBANS/GRP Number of spare transponders providedinitially per group. As activetransponders fail these spares are thenutilized.
4. MEAN TIME FAIL-YR....Mean-time-to-failure (year) of atransponder.
5. EXP. WEARQOT-YRS Transponder expected wear-out time(year).
54
ORIGINAL PAGE ISOF POOR QUALITY
C23NARROW BANDNO. OF GROUPSNO. TRANS/GRPSPARE TRANS/GRPWEAN TME FAIL-YREXP. WEAROUT-VRSSTD WEArtOJT-YSS
WIDE BANDNO. OF GROUPSNO. TRANS/GRPSPARE TRANS/G5PmEAN TME FAIi_-fREXP. WEAROL'T-YRSSTD WEAROUT-YRS
7.UI/N BAND REL IMP.2.TRNSPNDR THRSHLD
SATELLITE NO. 1SATELLITE NO. iSATELLITE NO. 2SATELLITE NO. 4SATELLITE NO. 5
E* DftTA
1Ifc
1. •
RELAUNCH151515
O0
•J , MEAN ~tn£ F 6 i u - > *2. EXP. WEAROUT-YRS3. STD WEAROUT-YRS
i5u. i.i1 5. 01. O
SPACECRAFT SU=PCRT SJBSYSTE'SUBSYSTEM
AVC5 TT«C S'RJC'URE
8. 'j 15. 11 £:O. 00. 5 1.0 1.0
75.0iO. 01. O
FIGURE B.4 INPUT DATA FOWftT: TRANSPONDER DATA AM) SPAOXRAFTSUPPORT SOBSYSnH DATA
55
6. SH> WEAROUT-YRS The wear-out characteristics aredescribed in terns of a normaldistribution having a specified expectedvalue (previous response) and standarddeviation (current response) about the
• - expected value.
7. W/N BAND RO, IMP Relative importance of a wide-bandtransponder to a narrow-band transponder.This is used in making a relaunchdecision based upon the number of narrcw-and wide-band transponders that are stillavailable for use> The relativeimportance nay be based upon the relativerevenue production of the wide- andnarrow-band transponders.
8. TSNSROR THRSHIDRE1ADNCH Effective number of transponders (narrow-
band plus wide-band adjusted to reflectthe relative importance) that triggers arelaunch. When the effective number oftransponders falls below the specifiedvalue the particular spacecraft will bereplaced as soon as possible with anotherspacecraft. The specific tine ofreplacement will depend upon launchdelays and launch failures.
Screen 141 - S f grflf*" Support Subsystem pata (Refer to FigureB.4)«
In addition to individual transponders, the reliability
characteristics of five major subsystems (i.e., power, on-orbit
propulsion (AVCS), tracking, teleroety and conrand (TT&C),
structure, and other) nay be considered. These nay be. any
subsystems but with the general characteristics that the failure
of one of these subsystems for all practical purposes makes the
satellite inoperative and thus sets in motion the launch of a
replacement. As with the transponders, the reliability
characteristics of each subsystem are described in terms of
random and wearout phenomena as follows:
1. MEAN TIME FAIL-YR... .Mean-time-to-failure (years) of eachsubsystem.
56
2. EXP. WEAROUT-YPS Subsystem expected wear out time (years).
3. STD WEARQUT-YRS Variability, expressed as the standarddeviation, of wear out time (year) aboutthe mean or expected value.
151 r launch Sppfvn'ft Data (Refer to Figure B.5)
The launch scenario is described for each of the years to be
considered in the business plan. The launch scenario contains a
statement of the estimated probability of success of each of the
major steps in the launch sequence and launch cost data. The
consideration of this data on an annual basis provides the
mechanism for utilizing different transportation systems (for
example, expendables such as Ariane and reusables such as the
Space Shuttle with either reusable or expendable upper stages).
The following data oust be provided for each year of the
analysis:
PFCBABILnY OF:
1. BOOSTER SUCCESS Booster or first-stage success.
2. OFB SUC-ND PBOPS Second stage (i.e., orbiter) successgiven a first stage or booster success.
3. P/L OF FINAL OFB Payload operating successfully whenplaced-in final orbit.
4. FRH-SN MOD GROUT LBD to GEO transfer stage checking outsuccessfully in LEO.
5. XFER LED TO GEO Successful transfer from LEO to GEO giventhat all previous steps were successful.
6. OFB RCVRY-ABOFT Recovering the second stage (i.e.,orbiter) given a second stage abort.
7. OFB RCVRY-fi FAIL Recovering the second stage (i.e.,orbiter) given that there was a boosterfailure.
8. OFB RCVRy-FLT OK Recovering the second stage given anotherwise successful flight.
57
cs: ORIGINAL PAGE ISOF POOR QUALITY >£Ar<
OF:
1. BOOSTER SUCCESS2. ORE- SUC-NO O&ORT3. O/L OK FlNftL ORBf. DRPuSN mOD CKOUT
XFER LED TO GEOORB RCVRY-ABOR7ORB RCVRY-B FfllLORB RCVRY-FLT OK
9. MQX UNCH COST M*10. WIN I.NCH COST rr$r11. LNCH CST LNCRT PF
5.6.7.8.
OF:
BOOSTER SUCCESSORB SJC-NO fiBORTD/L OK FlNfiL ORBPRPLSN MOD CKO'JTXFER LEO TO GEOORB RCVRV-fiBORTORB RCVRY-B FftlLClRB RCVRY-FLT OK
MQX LNCH IOST M*MlN LNCH COST n%LNCH CST JNCRT PF
PROBPBILI'V Or:
BOOSTER SUCCESSORB SUC-NU OBOSTP/L OK FlNftL ORBPRPuSN MOD CKuoTXFER LEO TO GEOORB RCVRr-fiBORTORB RCVRV-B FAILORB RCVRv-FuT On
MQX LNC»n COS"T M»MIN LNC^ COST fr.»LNCH CST JNCPT PF
0. 3350. 3350. 95O0. 9500. 9500. 9900. 9300. 333
£J. 738£' i . 736
1
t
0. 3350. 3550. 3500. 3500. 3500. 3300. 9300. 933£!. 796c'i. 796
1
1 1
0. 335". 335". 35"". 35"'. 55"-. 55">. 33< ''. 533
£.•1. 736£l . 796
1
0. 335O. 335O. 35 00. 3500. 3500. 3500. 330O Q 'w 1
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fc
7
0. 3350. 335n. 95Ou. 95O". 950". 930i. 93'".'(i. 399
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• i. ---5". 355". 35"<•. 55"'. 55"'. 93' '•. 33- 1v. 533
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1
0. 3350. 335i .35",i. 35<>M. 35' •<>. 35'.'o. 330". 353
£ 1. 736£1. 736
1
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0. 3350. 3350. 35< '0.35"0. 35"0. 33"0.33"0. 335
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1
B.S DMA POP»T: IAK3 9CB*RIO DA3A
58
launch cost IE treated as an uncertainty variable and most
be specified in terns of the range of uncertainty and the form of
the uncertainty (i.e., the name of the uncertainty profile as
indicated in screen [38]). The launch cost data oust be
specified for each year of the analysis thus allowing for changes
in transportation systems, pricing policies and levels of
uncertainty associated with future pricing policies. Note that
certainty is considered by setting the range of uncertainty to
zero. When this is done the uncertainty profile is immaterial.
9. MAX LNCB COST M$ The maximum estimated cost per launch (inmillions of dollars) for each year of theanalysis.
10.KIN LNCB COST K$ The minimum estimated cost per launch (inmillions of dollars) for each year of theanalysis.
11.LK2 CST UNCKT PP....The name (from screen [38]) of theuncertainty profile to be associated withthe range of uncertainty for each year ofthe analysis.
Screen 16 through 25tl - Demand Data (Refer to Figure B.6)
Demand data must be provided for each year of the analysis,
for narrow-band and wide-band transponders, for each satellite
considered and for service type. The following four specific
service types may be considered:
1. Protected Service - protection is provided throughprovision of spares and preemptible transponders.
2. Protected/Preemptible Service - protection is providedthrough available spares and preemptible transponders.This service may be preempted if protected users requiretransponders.
3. Chprotected/Non-Preemptible - replacement transpondersare not guaranteed but service may not be interrupted toprovide service for other users.
59
DEMAND: SERVICE ~>i£
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FIGUFE B.6 INWT DATA POFMAT: DQAM)
60
YEAR
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FIGUPE B.6 INPUT DAIA POR»J: DDWO DATA
61
. 10 j
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FIGURE B.6 INR7T C*TA FOF»I: DOWC DATA (CONTINUED)
62
SERVICE TYPE «£•ORIGINAL PAGE ISOF POOR QUALITY
W I D E - B A N DW A X .
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FIGUFE B.6 INPUT DATA FQWAT: DOWD DATA
63
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FIGOPE B.6 INTOT EA3A POWftT: DOWC DATA (CtNTDUID)
64
l l f e j DEmf iND: SSATELLITE
T Y P E »3
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ORIGINAL PAGE ISOF POOR QUALITY
MftX.
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65
C18D DEMAND: SERVICE TYPESATELLITE
NARROW-BAND WIDE-BAND
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FIGOPE B.6 IMEVT DATA FORMAT: DQWC DATA
66
U-03 DEMAND: SERVICE TYPE »3 ORIGINAL PAGEESATELLITENARROW-BAND
YEAR
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67
DEMAND: SERVICE TYPE »4SATELLITE N £
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FIGUFE B.6 TJOVT DMA FQF»T: DQWC DATA (OCNTDUH))
68
DEMAND: SERVICE TYPESATELLITE *
»<*ORIGINAL PAGE ISOF POOR QUALITY
NARROW-BAND WIDE-BAND
YEAR1£3*»567B9101 1lc: 2!«•1 5
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PIGUFE B.6 INPUT DATA POROT: DOWC DATA (CCNTTNUZD)
69
4. Preemptible - not protected. May be preempted ifrequired to provide service for protected users.
The demand data screens proceed across all satellites for each
service type. Thus there are 20 screens for demand data (5
satellites z 4 service types) . The data required is as follows:
WKROW-BND
1. MNC. DBAM) .......... Maxinuo estimated demand for narrow-bandtransponders for each year of theanalysis (mmber of transponders) .
2. KIN. DEMAND .......... Minimum estimated demand for narrow-bandtransponders for each year to theanalysis (number of transponders).
3. Dhuacr. PROFILE ...... The name (from screen [38]) of theuncertainty profile to be associated withthe narrow-band transponder demand.
WIBE-BMO
4. MX. DEMAK) .......... Maximum estimated demand for wide-bandtransponders for each year of theanalysis (nmber of transponders).
5. fdM. DDANX. ........ Minimum estimated demand for wide-bandtransponders for each year of theanalysis (nmfcer of transponders) .
6. ONUKT. PROFILE ...... The name (fron screen [38]) of theuncertainty profile to be associated withthe wide-band transponder demand.
121 through 221 - Price Data (Refer to Figure B.7)
Price data must be provided for both the narrow-band and
wide-band transponders for each year of the analysis and for each
of the four types of service (as designated above) . All pricing
data is to be provided in fhntis*ndg of dollars per year.
WSOW-&AK)
1. MX. PRICE ........... MtTjimti estimated price (thousands ofdollars) for narrow-band transponders peryear for each year of the analysis.
70
ORIGINAL PAGE ISOF POOR QUALITY PRICE ( * / Y R ) : SERVICE TYPE
YE3R1£.
«
4cr5£&7f
1 C1
1 1i ;•A W
1 JL «J
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MflX. WIN. UNCERT. WAX. WIN. UNCERT.PRICE PRICE PROFILE PRICE PRICE PROFILE(1) o (2) 0 (3) o (4) o (5) o (51 „
0o
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PIGDPE B.7 DOOT EftIA PCWftT: PRICE EWE*
71
PRICE <*/YR): SERVICE TYPE *3
-£•33
YEftR1
6.763
10111£121415
YEflR1
45£/
69
1011
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1 20513O51205120512051 2051 2O51 3O51205120512051 205
UNCERT.PROFILE
00o££££££££££££
FIGUPE B.7 DffOT DMA PCWW: PRICE DATA (OOKTINUED)
72
2. KIN. PRICE Minimum estimated price (thousands ofdollars) for narrow-band transponders peryear for each year of the analysis.
3. UNCEKT. PROFILE The name (front screen [38]) of theuncertainty profile to be associated withthe price for narrow-band transponders.
WIDE-BAND
4. MAX. PRICE Maximum estimated price (thousands ofdollars) for wide-band transponders peryear for each year of the analysis.
5. KIN. PRICE Mininun estimated price (thousands ofdollars) for wide-band transponders peryear for each year of the analysis.
6. DNCEPT. PROFILE......The name (from screen [38]) of theuncertainty profile to be associated withthe price for wide-band transponders.
f301 - Price Elasticity Data (Refer to Figure B.8)
Price elasticity data must be provided for both the narrow-
and wide-band services. The price elasticity is represented by
the percent demand o>crMSP resulting from a 25 percent price
increase. Thus, when it is estimated that a 25 percent price
increase will result in a 25 percent decrease in demand the price
elasticity is one (i.e., unit elasticity).
Screen J311 - Correlation Data (Refer to Figure B.8)
Because of the random sampling used to establish the value
of the uncertainty variables (i.e., demand, price, G&A Expense,
etc.) for each year of the analysis, it is possible that
unreasonable year-to-year fluctuations will occur in the values
of these variables. To smooth out unwarranted fluctuations year-
to-year correlation coefficients have been introduced. The
correlation coefficient relates the current year value of a
variable to all previous years values of the variable. A
73
PAGE ISOF. POOR QUALITY
1.C.30D* DEMAND DECREASE RE5ULTING
FROM A £5* PRICE INCREASE1. PROTECTEDc. PROTECTED/PREEMPTIBLE2. UNPROTECTED/NON-PRE£fPTIBLE<*. PREEMPTIBLE
PRICE ELASTICITY DATANARROW- WIDE-
BAND0. 00.O0. 0O. 0
£5. 0£5. O£5. 0£5. O
C31 CORRELATION DATACORRELATION COEFFICIENT
3.4.5.6.7.
TYPE C^ SERVICEDEMAND DATA
1. PROTECTED£. PROTECTED/PREEMPTIBLE3. UNPROTECTED/NON-PREEMPTIBLEA. PREEMPTIBLE
PRICE DATA1. PROTECTED£. PROTECTED/PREEMPTIBLE3. UNPROTECTED/NON-PREEMPTI&LEA. PREEMPTIBLE
S/C CONTROL OPERATIONS.ENGINEERING EXPENSER4D EXPENSEGAA EXPENSEOTHER CAPITAL EXPENDITURES
NARROW-BAND
0.0.O.0.
O.O.0.0.
0.
aee6
WIDE-BAND
0,O
&ee6
, 66
. 6, 6
0. 8
PIGUPC B.8 IKPUT DATA PCWftT:OORKEZATICN
aAsncm DMA AM)
correlation coefficient of zero inplies that there is no
dependence on previous year's values whereas a correlation
coefficient of unity iaplies that this years deviation from the
expected value (the result of a random sanple) cannot exceed the
previous year's deviation front its expected value. This is
discussed in detail in Appendix A.
TYPE OF SERVICE
1. DQftM) DATA. The correlation coefficient (in range of0. to 1.0) aust be specified for both thenarrow- and wide-band demand for the (1)Protected, (2) Protected/Preenptible, (3)Onprotected/Non-Preenptible, and (4)Preemptible Services.
2. PRICE DATA. The correlation coefficient (in the rangeof 0. to 1.0) oust be specified for boththe narrow- and wide-band pricing for the(1) Protected, (2) Protected/Preesptible,(3) Dhprotected/Non-Preemptible, and (4)Preemptible Services.
3. S/C CCNHCLOPERATIONS Correlation coefficient (in the range of
0. to 1.0) for annual spacecraft controloperations.
4. ENCHKEZRING EXPOSE. .Correlation coefficient (in the range of0. to 1.0) for annual engineeringexpenses.
5. R & D EXPENSE Correlation coefficient (in the range of0. to 1.0) for annual R&D expenses.
6. G fc A EXPENSE Correlation coefficient (in the range of0. to 1.0) for annual general andadministrative expenses.
7. OTHER CAPITALEXPQCnuKES Correlation coefficient (in the range of
0. to 1.0) for "other" capitalexpenditures.
Screen 1321 - Cost/Expense Data (Refer to Figure B.9)
This portion of the Cost/Expense data is concerned with
75
spacecraft unit cost, spacecraft nonrecurring cost and the cost
of launch insurance. The launch insurance, if taken, is the
specified percentage of launch cost and spacecraft unit cost.
1. MAX S/C UNITOD6T (K$) Maximum estimated spacecraft unit cost
(thousands of dollars). Learning effectsare taken into account when additionalsatellites are purchased.
2. MTN. S/C UNITCOST (K$) Miniraum estimated spacecraft unit cost
(thousands of dollars). Learning effectsare taken into account when additionalsatellites are purchased.
3. S/C ONIT COSTONCER1MNTY PROFILE.The name (from screen [38]) of the
uncertainty profile to be associated withthe s/c unit recurring cost.
4. MAX. S/C HONREOJFKrNGCOST (K$) Maximum estimated spacecraft nonrecurring
cost (thousands of dollars).
5. MIN. S/C NONRBCURRNGCOST (K$) Minimum estimated spacecraft nonrecurring
cost (thousands of dollars).
6. S/C NONREC. COSTUNCEPT. PROFILE The name (from screen [38]) of the
uncertainty profile to be associated withthespacecraft nonrecurring cost..
7. MAX. INSURANCE I When insurance is taken (see screen [2])this represents the maximum estimatedinsurance cost expressed as a percentageof launch cost and spacecraft unit cost.
8. MIN. INSURANCE % When insurance is taken (see screen [2])this represents the minimum estimatedinsurance cost expressed as a percentageof launch cost and spacecraft unit cost.
9. INSURANCE UNCER1MNTYPROFILE The name (free screen [38]) of the
uncertainty profile to be associated withthe cost of launch insurance.
76
ORIGINAL PAGE ISOF POOR QUALITY
1.2.3.4.5.6.7
8.9.
C3i3 COST/EXPENSE DATAWAX. S/C UNIT COST (K*)WIN. S/C UNIT COST <K»)S/C UNIT COST UNCERTAINTY PROFILEWAX. S/C NONRECURRING COST (K*>WIN. S/C NONRECURRING COST <K*>S/C NONREC. COST UNCERT. PROFILEMAX. INSURANCE %p. IN. INSURANCE %INSURANCE UNCERTAINTY PROFIuE
40900. 0364OO. 0
1£cSOOO. 013800. 0
118. 0li.O
13
C33D COST/EXPENSE DATA (CONTINUED)S/C CONTROL ODERATIONS C O S T ( % )
YEAR1£345fc789101 112131*15
MAX.COST(*)(1) 0.0
o. o0. 06. 7i. fc1. 7£'. 01. 81. 81. 9£. 1£. 3£. 5£•. e3. 5
WIN.COST (X)(2) o.o
0. O0. Oe.7£.£1. 7i. 01. 81.81.9i. 1c.. 3i.5i. 83.5
UNCERT.PROFILE(3) i
1iiiiiiiiiiiii
FIGUPE B.9 INPUT DATA FOFMKT: OD6T/DCPBCE
77
Screen f331 - s/C Control Operations Cost ft) (Refer to FigureB.9)
Annual spacecraft control operations cost is confuted as a
percentage of annual revenue. The range of uncertainty (of the
percentage amount) and the associated uncertainty profile is
provided for each year of the analysis.
1. MAX. COST (%) ........ Maximum estimated annual spacecraftcontrol operations cost expressed as a
of annual revenue.
2. MIN. COST (%) ......... Minimum estimated annual spacecraftcontrol operations cost expressed as apercentage of annual revenue.
3. ONCtKT. PROFILE ...... The name (from screen [38]) of theuncertainty profile to be associated withthe spacecraft control and operationscost.
Screen F34 through 361 - &>gineerirtgr R&D. and ftfcA Expenses(Refer to Figure B.10 and B.U)
Engineering, R&D and General and Administrative Expense data
are provided, respectively, in screens 34, 35 and 36. A cccnon
format and method for computing these annual expenses are used;
therefore, only the Engineering expense data is described in
detail. In all cases the expense is established as having both a
fixed component (a dollar amount specified for each year of the
analysis) and a variable component (a percentage of revenue where
the percentage is specified for each year of the analysis) . Both
the fixed and variable components are considered as uncertainty
variables. The annual expense is established as either the sun
of the fixed and variable components or as the larger of the two
components.
1. MAX. (K$) ............ MaxiauB estimated annual expense (fixedcomponent) expressed as a dollar amount(in thffffrftnfo of dollars).
78
C3A]
YEAR1
67a3
1011la121415
7. SUM K* * % AflTS
C25J
YEAR1
£7
10
ORIGINAL PAGE ISOF POOR QUALITY
ENGINEERING EXPENSE
15SJM K* ft % AMIS
MAX.<K«>IOOO. 0 /IOOO. 0 V
IOOO. 0IOOO. 0IOOO. 0IOOO. 0IOOO. 0IOOO. 0IOOO. 0IOOO. 0IOOO. 01 OOO. 0IOOO. 0IOOO. 0IOOO. 0
o
MAX.(K*)IOOO. 01 OOO. 0IOOO. 0IOOO. 01 OOO. 0IOOO. 01000. 01 OOO. 0i OOO. ("t
1 OOO. 01000. 0: ooo. oIOOO. 0IOOO. 0IOOO. 0
0
KIN. UNCERT.<K*> PROFILE
9\ 1000. «IOOO. •IOOO. >1000. <1 OOO . <IOOO.1000. «IOOO.1000. i.IOOO.1000.1000.1000.1000.1000.
: t3) ;> i> i> ii ii i> i• i• i• i> i> i> i> i
R»DmiN. UNCERT.<K*> PROFILE1000. 0 11 I'M"'''), i
1 000.IOOO. '1 OOO .
1 000. i1 000.1 OOO.
1 000.1000.1 000.1000.IOOO.1000.IOOO.
") i> i> i• i' ii i> i) i• i• i
i> i' ' ii i
MAX.<*)
(4) ?'C.'.
£'*£.i.c. •£. •
^ •
w •
<£..it •i.c. .c.'.c.' .
MIN. UNCERT.<*> PROFILE
0 (5) t'o c:. io £ . c:0 i.i0 c . <0 i. <0 i. <<:> £ . t0 i. i.0 £'. i0 £. '0 i. •0 £ . i0 £. i
> < . \ i. is) ;> i• i» i• i
*• i) :•> ii i]l r
.' i
:> i0 i . 0 1
EXPENSEMAX.(%}
w
£.
C.
^|
C.
£;;.
*
wcc.w
£*
c.
MIN. UNCERT.<*> PROFILE
O 1'. 0 1O i . 0 . . i. 0 i . 0 iC' i . o :. 0 c.' . ''. 1. 0 i . 0 ' 1. 0 £'. v 1. 'i1 iL' . 0 1. 0 £.'. 0 1. 0 i . 0 1. 0 i. 0 1. C1 C. . 0 1. 0 ii. 0 1. C' c'. 0 i. 0 £'. C1 1
PIGOFE B.10 ZNR7T QAZA POWW:R&D DCFBSE DATA
BCINEERIMS BCPDCE MIA MO
79
G&Q EXPENSE
YEPR«*c.3A5t-7e9
101 11 £121415
% PMTS
flPX.< K » >500.0500.0500 . 050O. 050O. 0500.050O. 050O. 05OO. 05OO. 0500. 050O. O50O. 050O. 05OO. 0
1
W I N . U N C E R T .< K « > PROFILE500. 0 15OO. <500. t.500. «500. C500. <500. •500. <500. «500. (500. »500. <500. <500. <
i i
> 1> 1> 11 1> i
' 1» 1> 1> 1
•> 1' 1> 1
500. «.» 1
M P X . W I N . U N C E R T .( % ) ( X ) P R O F I L E
0. 00. O0.07. 31. 30. 80.8O. fc0.60. 70. 81. O1 . 01. 4£. 3
0. 00. 00. 07.31. 20.80.80. 60. £0. 70.61 . 01. 01. 4
£. 3
111111111111:ii
C373 CPPITPL EXPENDIOTHER CPPITPL EX
MPX. WIN.
TURE DPTPPENDITURES
UNCERT.YEflR
1•z.34e-
—i£763101 1121 w
14
15
<K«)H) o.o55OO. O10560. 0
0. OO. 0
34 1O. 0£090. 0
0. 00. 00. 00. 0o. oO. 0o. oO. 0
<K»)(2) 0.04500. O8640. O
0. 00. 0
£730. O1710. 0
0. O0. 00. 00. 00. «>0. O
0. « »0. "
PROFILE(3) 1
131311
131311111111
COST SPREADING FUNCTIONS
•3. eftUMCH COST5" INSJRPNCE6. S/C RECUR COST
7 NONRECUR COST
135. £10O. 0£0. 0
73. O
0. 048.5
£1.0
YEPR
9.8O. 0
0. 0
40. 00.00. O
0.0
0. 00. 00. 0
0. 0
FIGOPE B.1I DBOT DK» PORttT: GfcA DCPB6E LATA, CAPTTALDM*, MD OD6T SPREAD DC RUCTIONS EKT
80
2. KIM. (K$) ..... . ...... Minimum estimated annual expense (fixedcomponent) expressed as a dollar amount(in t-hmicjinrtg of dollars) .
3. ONCEKT. PROFILE ...... The name (from screen [38]) of theuncertainty profile to be associated withthe fixed component of the annualexpense.
4. MAX. (%) ............. Maximum estimated annual expense(variable component) expressed as a
of revenue.
5. MIN. (%} ..... . ....... Minimi) estimated annual expense(variable component) expressed as apercentage of revenue.
6. UNCEKT. PROFILE ...... The name (from screen [38]) of theuncertainty profile to be associated withthe variable (I) component of the annualexpense.
7. SUM K$ i % AMIS ...... When set equal to 0, the expense is thelarger of the fixed and variablecomponents. When set equal to I, theexpense is the sum of the fixed andvariable components.
Screen 1371 - Capital Expenditure Pata (Refer to Figure B.ll)
Spacecraft recurring cost, launch cost and other launch
related costs are treated as capital expenditures (i.e.,
depreciated). These costs occur as a result of satellite
purchases and launches and therefore their timing depends upon
the timing of launches which is basically demand driven. There
may be other capital expenditures that are not directly related
to satellite launches (for example, the acquisition of TTfrC
ground terminals) . These may be specified as dollar amounts
(i.e., range of uncertainty} in the year of acquisition. Cost
spreading is not ucnsed upon these expenditures which are
depreciated starting in the year of acquisition.
81
OTHER CAPITAL EXPENDITURES
1. KftX. (K$) ............ Maximum estimated 'other* capitalexpenditure each year of the analysis
of dollars) .
2. KIN. (K$) ........ ....Minimum estimated 'other* capitalexpenditure each year of the analysis
of dollars) .
3. CNCERT. PROFILE ...... The name (from screen 138]) of theuncertainty profile to be associated witheach year's •other" capital expenditures.
Cost spreading functions may be imposed upon launch cost,
insurance cost, spacecraft unit recurring cost and nonrecurring
costs. Hie cost spreading is performed in two different ways: in
relative time (i.e./ relative to when launches occur) and in
absolute time. Launch, insurance and spacecraft recurring cost
are spread backward in time relative to the year of launch.
Thus, year 1 is the year that a launch takes place, year 2 is the
year prior to launch, year 3 is two years prior to launch, etc.
Nonrecurring costs are spread in absolute time with a specified
percentage of the nonrecurring costs occurring in year 1, year 2,
etc. of the analysis.
COST SPREADING FUNCTIONS ,
4. LAUNCH COST .......... The percentage of the launch cost spenteach year relative to the year of launch.Year 1 is the year of launch, year 2 isthe year prior to launch, etc.
5. INSURANCE ............ The percfTteqf of the insurance costspent each year relative to the year oflaunch. Year 1 is the year of launch,year 2 is the year prior to launch, etc.
6. S/C RECUR Q06T ....... The percentage of the spacecraftrecurring cost spent each year relativeto the year of launch. Year 1 is theyear of launch, year 2 is the year priorto launch, etc.
7. NQNRDCUR 006T ........ The percentage of the nonrecurring cost
82
ORIGINAL PAGE fSPOOR QUALITY
UNCERTAINTY PROFILEPROFILE
I ~
1111111
11*
1
•=•
. D.1c.^*w
45£.78301£'w
4
567830
0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.
1503O3035£l£3£5161£15£O151006051O03050303
0.0.o.o.o.0.0.«>.".' '.".o.0.o.0.o.o.o.0.o.
££5-.C..J
30403£3OT="• »J
43wC
34£OC. w
-•cC -J-.e-.-j
£5£030£0£007
PROFI
0000o0000o0000000000
LE
•
•
•
•
•
•
•
•
•
•
•
•
•
•
•
*
•
•
315£02015£7£3£5£<«3£3720££3034
40403450548'.)
— '»W iW-l— W" 1 "1
INTERVAL
0.0.O.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.
<u c^ taj
O7 0. 0315 0. 1013 0.0707 i15 ^16 (10 i09 i
• £• i
£'O i
£5 i
). 03>. 05,'. 06». 05i. 0£1 . 0 T'. 0£' . £ O'. 3 5) . 1 O
£5 0. 06£5 0. 05c'O 0. 103O 0. 03£O 0. '"'5£0 0. 0207. 0. v3
FIGUFE B.12 INPUT DMA FOfWAT: ONOEFIWJfnr PROFILE DATA
83
spent each year with year 1 being thefirst year of the analysis, year 2 thesecond year of the analysis, etc.
Screen f381 - ttreertainty Profile Data (Refer to Figure B.12)
The uncertainty profiles represent the probability density
functions that may be used for one or more of the uncertainty
variables. They represent the probability distributions in the
range of uncertainty. The range of uncertainty is in turn
segmented into five equal intervals. Thus, for Uncertainty
Profile ffl there is a O.SO chance of selecting a value in the
first of the five equal intervals, 0.25 chance of selecting a
value in the second of the five equal intervals, etc. Linear
interpolation is used to select a specific value within each
interval.
All of the uncertainty profile data may be changed to create
new uncertainty profiles. caution; each iot ""«*" add tfi .unity!
In other words, the probabilities associated with each profile
Bust add to 1.00. Twenty uncertainty profiles are stored in the
data base. However a total of thirty (30) profiles are available
for use with profiles 121 to 130 being mirror images of profiles
1 through 10, respectively.
B.4 Imports
The input data is provided via LOTOS 123 and used to create
a data file which is read by the DGKSAT II financial simulation
model programmed in FORTRAN. After the FORTRAN confutations are
completed a number of reports are printed. These include a
proforma income statement (Figure B. 13), a cash flow projection
(Figure B.14), a probability distribution of annual launch
84
attempts (Figure B.15) and a probability distribution of annual
spacecraft purchases (Figure B.16).
The profonna incase statement and cash flow projections
contain a coluon for each year of the analysis. All numbers are
in thnupfllYJS of dollars except where otherwise specifically
indicated. All numbers are expected values with the exception of
those narked with an asterik (*) which designates these as
standard deviations. In addition, the first page of the cash
flow projection also contains the net present value as confuted
at each of the discount rates specified via the input data. The
present value is indicated as Net Present Value "A", Net Present
Value "B" and Net Present Value. NPV 'A* represents the present
value contribution during the specific years of the analysis, NPV
"B* represents the infinite horizon contribution (i.e., after the
specific years of the analysis) to present value, and NPV
represents the sun of NPV "A" and NPV *B". The standard
deviation is that of NPV.
The Probability of Annual Launch Attempts (Figure B.15) and
the Probability of Annual Spacecraft Purchases (Figure B.16)
indicate the launch attenxjJts and spacecraft purchase statistics
for each year of the analysis. Ihe numbers in the table
represent the probability of the specific number of events
indicated in the left-hand scale (thus the data in the tables
represent the probability density functions of annual launch
attempts and spacecraft purchases). Also indicated are the
expected or average number of annual launch attenpts and
spacecraft purchases and the associated standard deviations.
85
PROFORMA INCOME STATEMENT <• THOUSANDS)
PROTECTEDPIWTECTED/PREEHPT.UNPROTECTED/NON-PREEHPT.PREEMPTIBLE
TOTM. REVENUE
0.o.0.o.0.
0. •
0.0.0.0.0.
0.*
YEAR
3
O.0.o.0.o.
0. •
9373.O.O.
1277.10651.
•
62770.0.0.
3333.66023.
17871.•
LAUNCH OPERATIONS O. 0.LAUNCH INSURANCE O. 0.SATELLITE o. o.OTHER o. «is.
DEPRECIATION EXPENSE 0. 413.S/C CONTROL OPERATIONS 0. 0.ENGINEERING EXPENSE tooo. 1000.RESEARCH t DEVELOPMENT 1OOO. 1OOO.
TOTAL OPERATIONS EXPENSE 2OOO. 8413.o.» 20. •
0.o.0.
1228.1228.
O.1OOO.1OOO.3*28.48. •
1816.733.3220.1228.7016.714.lOOO.1000.9730.2913. •
4O43.1623.6826.1228.13720.1717.1362.I38c.18201.3124. •
6ROSS MARGIN <•> -2000.0. •
-2413.20. •
-3228.48.*
921.8130.•
47824.16009.*
S/C NONRECURRING COST6 I A EXPENSEDEiT SERVICE EXPENSE
16766.300.
O.
4437.300.
1322.
O.300.
4993.
0.1277.
13063.
0.133*.
20163.
BEFORE TAX PROFITINCOME TAXINVESTMENT TAX CREDITAFTER TAX PROFIT
-19266.-6936.
O.-12330.
386. •
-8693.-3130.
49«.-3066.196.•
-8723.-3140.
973.-4608.710. •
-13420.-4831.
3788.-2601.2230.•
26302.9469.6704.
23337.8337.«
RETURN ON ASSETS (»> -4267.O. •
-31.34. •
-3.1. •
-2.2. •
13.3. «
RETURN ON SALES <»> O. 0.0. •
0.0. •
-14.23. •
34.
12. «
STANDARD DEVIATION
FIGURE B.13 PROFOFMA LNOdC STATEMENT
86
PROFORHA INCOK STATEHEWT (• THOUSANDS)
ORIGINAL PAGE ISOF POOR QUALITY
PROTECTEDPROTECTED/PREEMPT.UNPROTECTED/NON-PRE£mPT.
TOTAL REVENUE
YEAR
t
61095.0.0.
6213.67309.
11566. •
92431.O.0.
56S«.9«269.
6694.*
1*3799.0.0.
3793.137592.15679. •
135767.0.O.
1923.137690.15522. «
1O
136973.0.0.
30*5.
147*9.•
LAUNCH OPERATIONS 4*49. 6496. 7034. 7422. 76Ofe.LAUNCH INSURANCE 1774. 25O4. 269O. 2622. 295O.SATELLITE 7432. 1O273. 1O964. 11462. 1195«.OTHER 1487. J6*«. 1646. 1646. 1646.
DEPRECIATION EXPENSE 15142. 2O923. 22357. 23374. 2«3fc3.8/C CONTROL OPERATIONS 1404. 1966. 2477. £476. 25O«.EMCINEERIMB EXPENSE 1749. i9€£. 27sa. 2754. et,*o.RESEARCH I DEVELOPMENT 1749. 1966. 27S2. 2754. 2640.
TOTAL OPERATIONS EXPENSE 2C124. 24AE2. 30337. 3136O. 32152.1953.* 3532.* 3A6t,. • 4«,0. • 5759..
8ROSS (•) 47164.11415.i
71*67.100M. •
1072*5.16690. •
106330.16196. <
99666.16533.•
S/C NONRECURRING COST0 t A EXPENSEDEBT SERVICE EXPENSE
O.1 196.
21B46.
O.1266.
21135.
O.1326.
16073.
0.1326.
1O611.
0.l*e*.ISSfc.
BEFORE TAX PROFITINCOME TAXINVESTMENT TAX CREDITAFTER TAX PROFIT
44140.15691.1474.
29724.
7l4fc.«
49046.17656.
5613.37203.6947.*
87657.
31626.1433.
57641.11949. •
94193.33909.1O17.
61301.
14406. •
9e::&.3*74fc.
969.62759.159*7. •
RETURN ON ASSETS (*> 15.4. •
17.4. •
26.6. •
32.10. • 13. •
RETURN ON SALXS <«> 33.7. «
37.6. •
41.6. •
44.
6. •47.
10. <
• STANDARD DEVIATION
PIGOPE B.13 PBGFORXA DJCOC STHQCNT (OGNTDUED)
87
PROFORNA INCOME STATEMENT (• THOUSANDS)
11
YEAR
13 14 IS
PROTECTEDPROTECTED/PREEMPT.UNPROTECTED/NON-PREEMPT.PREEMPTIBLE
TOTAL REVENUE
183060.o.o.
1693.186779.170*6. •
110119.0.0.
943.111063.80016.*
97309.0.0.
455.97965.
84366. •
103237.O.O.
SOB.1037*5.£3501. •
94713.0.0.
860.94936.
30996.*
LAUNCH OPERATIONSLAUNCH INSURANCESATELLITEOTHER
DEPRECIATION EXPENSES/C CONTROL OPERATIONSENGINEERING ElPENSERESEARCH « DEVELOPMENT
TOTAL OPERATIONS EXPENSE
•80S.3O68.18448.1646.83377.8668.8S36.8536.33111.644O. •
•988.33 IS.13893.1646.
87176.8SS4.8882.8888.34176.7539. •
10366.3761.14978.1646.30766.8449.1966.1966.37JSO.6166.*
10186.3538.13355.1833.86447.8905.8079.8079.33509.6806. <
6109.8787.10164.48O.
81440.3385.1986.1986.86617.7771.*
GROSS MARGIN (•) 93666.81097.*
76665.83364. •
60615.83686.«
66236.85837.*
66379.30976.*
6/C NONRECURRING COSTS » A EXPENSEDEBT SERVICE EXPENSE
O.1314.-7800.
0.1611.
-15669.
O.146O.
-83O94.
0.1958.
-89963.
O.3855.
-36993.
TAX PROFITINCOME TAXINVESTMENT TAX CREDITAFTER TAX PROFIT
99333.35767.
1015.646O1.
16939. •
91143.38611.
16O1.60133.
8O464. •
68489.89674.3590.
36344.81686.*
96866.34656.3668.
65492.83108. •
1081 17.36768.
510.6SSfcJ.
86668. •
RETURN ON ASSETS («> 4O.16. •
37.17.*
35.17.*
48.16. •
46.81.*
RETURN ON SALES («> 30.13. •
S3.16. •
56.84.*
68.81. •
69.40. •
• STANDARD DEVIATION
PIGUPE B.13 PROFOFHA DJOOME STMQeNT (ODNTINUH))
88
ORIGINAL PAGE rsCASH FLOW PROJECTION (• THOUSANDS I • F POOR
YEAR
1 8 3 4
AFTER TAX PROFIT 0. 0. 0. I.INCREASE IN POVABVES 1599. 1416. 32O6. 540. 13O.DECREASE IN RECEIVABLES 0. 0. 0. 0. 0.DECREASE IN CASH 0. IS. O. 22. 2OO.DEPRECIATION 0. 413. 1226. 7016. 13720.
TOTAL CASH INFLOW 1599. 1»47. 4436. 7579. 37713.
LOSS 13330. 5066. 46O8. 2»O2. 136.DECREASE IN POYABLES 0. »3. O. 123. 1107.INCREASE IN RECEIVABLES 0. O. 0. 1779. 95*6-INCREASE IN CASH 289. 236. S8O. 96. 33.CAPITAL EXPENDITURES O. £7047. 66463. 61946. 41339.
TOTBL CASH OUTFLOM 1Z619. 38433. 7167J. 66747. 5173*.
NET CASH FLOW -1102O. -3O6O6. -67233. -39168. -14019.323.* 9223.* 11278.* 125O3. • 21276.*
INDEBTEDNESS 11O2O. 41626. 1O6861. 168028. 182047.523.* 9247.* 19933.* 17476.* 195**.*
1 2 3 * 5
DISCOUNT RfiTE (*) 10. 13. 2O. 25. »C.
NET PRESENT VALUE -ft- 71793. 11266. -2O471. -3669:. -476£3.NET PRESENT VAuJE 'B- 1858*1. 6O637. 23C9*. 961*. 96-.
NET PRESENT VA^UE 257636. 72105. 2633. -37076. -46703.JO3318.* 55922.* 35»O7.• 2*38*.• 1O33!.»
• STANDARD DEVIATION
PIGDFE B.14 CASH PLOW HCJBCnOK
89
CASH FLOW PROJECTION <• THOUSANDS)
YEAR
11 18 13 1* IS
AFTER TAX PROFIT 64666. 6O3S3. 96679. 45717. 66834.INCREASE IN PAYABLES 837. 3J4. 888. It. 0.DECREASE IN RECEIVABLES 1413. JO96. 34O3. 17O9. 8779.DECREASE IN CASH 73. 63. 136. 314. 333.DEPRECIATION 83377. 27176. 3O766. 86447. 81440.
TOTAL CASH INFLOW 91792. 91826. 918O6. 96£O1. 90703.
LOSS 67. 820. 333. 884. 369.DECREASE IN PAYABLES 414. 36O. 738. 1733. 16*3.INCREASE IN RECEIVABLES 540. 473. 1816. 8674. 1316.INCREASE IN CAS* 43. 96. 40. 3. o.CAPITAL EXPENDITURES 16*71. 89666. 31437. 16477. 166£.
TOTAL CASH OUTFLOW • 19333. 31016. 336OO. 81113. 3398.
NET CASH FLOW 78836. 6021O. 57409. 75O66. 63393.82669.* 82774.* 8465O. • 21511.• 20163.*
INDEBTEDNESS -132239. -192449. -849656. -324945. -410339.115469.* 186627.* 136610.* 15O465.• 164858.*
CASH FLOW PROJECTION (• THOUSANDS)
YEAR
6 7 6 9 10
AFTER TAX PROFIT 29765. 37216. 57661. 613O2. 62792.INCREASE IN PAYABLES 871. 831. 31. 63. 1O*.DECREASE IN RECEIVABLES 69. 69. 31. 636. 146*.DECREASE IN CASn 110. 1O7. 303. 146. 131.DEPRECIATION 15142. 8O923. 82357. 83374. 2*363.
TOTAL CASH INFLOW 45357. 56567. 60362. 65764. 66655.
LOSS *1. 13. O. 1. 3*.DECREASE IN PAYABLES 610. 592. 1676. 616. 72fc.INCREASE IN RECEIVABLES 362*. 1923. 639*. 673. 517.INCREASE IN CASH 49. 42. 6. IS. 19.CAPITA^ EXPENDITURES 35111. 3O476. 11593. 1OO17. 11SOS.
TOTAc CASH OUTFLOW 3*433. 33O4&. 19669. 11723. 128O*.
NET CASH FLOW 3922. 85521. 6O514. 74O41. 76O51.19906.* 17266.* 21472.* 82369.* 219OC.<
INDEBTEDNESS 176125. 15O6O4. 9OO91. 16O49. -6OOC1.34*76.* 479O6.• 63213.* 61*60.* 9*935.<
• STANDARD DEVIATION .
FIGQPE B.14 CASE PLOW PKXTBCT1CH (OGKTINJU))
90
LAUNCHATTEMPTS
PROBABILITY or ANNUAL LAUNCH ATTEMPTS
PROBABILITY OFINDICATED QUANTITV <P£RCENT>
ORIGINAL PAGE ISOf POOR QUALITY
0967654,
3Z10
0000o00000
100
00000000o0
iOO
0000o000o0
IOO
00oo0oo00
too0
o0o0o000
166£0
o0o00000t
eo79
o0o00001
11690
o0o000o0£
Sf>Ti
YEAR
AVERAGEVALUE .00 .00 .00 J. OO 1.10 .30
DEVIATION .00 .00 .00 .00 .3* .51
PROBABILITY OF ANNUAL LAUNCH ATTEMPTS
L.AJNC*ATTEMPTS
PROBABILITY OFINDICATED QUANTITY (PERCENT)
109e7£>s4
3S1o
000o0000sIB60
0000000oe1761
OOOOOo0o1
1960
00ooo0004
3066
0OOo0oo£14
47
3«
0000000zIS49
3*
0Oooo00o1
1069
YEAR 1O 1 1 13 IS
AVERAGEVAuUE .21 .60 .65
STANDARDDEVIATION .57 .75 75 .34
FIGDPE B.15 PTCBABILm OF MHJAL LMNCB WTCKPTS
91
NUM»E« orSPACECRAFT
PROBABILITY OF ANNUAL SPACECRAFT PURCHASES
PROBABILITY OPINDICATED QUANTITY (PERCENT)
ORIGINAL PAGE ISOF POOR QUALITY
109
•765*3£1O .
000000O000
100
OO00O0O00O
100
0OO00O0000
100
0OO0OO00O94
6
00OO0OO016799
00OO00OO1
19so
00O0OOO110636
0OoOoo0o1
2574
YEAR
OVERA6E.00 .00 .00 .94 1. 11 . 21 1.05 .26
STANDARDDEVIATION .00 . OO ,OO .84 . 44 .43 .43 .49
PROBABILITY OF ANNUAL. SPACECRAFT PUMOttSCS
NUMBER OFSPACECRAFT
PROBABILITY OFINDICATED QUANTITY (PERCENT)
109&7&54
;, 321O
0O0oo0o021762
000o00o01
176c
00o00o0o1
1661
O00Ooo0p4
2666
0000000£u4542
000Oo00
-£1447
36
0O000c0o1
1090
YEAR 10 11 13 14 15
OVERAGEVALUE .20 .20 .20 .37 . 74 . 60 . 11
STANDARDDEVIATION .43 .42 .S7 .73 . 74 .33
FIGURE B.16 PRCBABILmr OP AMBAL SPACBOUtfT KJKSASES
APPENDIX C
FSS AJO DBS BASE CASE DATA BASESANDASSOCLATED FROPOWfc INCOME
FRQ7ECCTGNS, CASHFLOW PRQJECT1CNS,AN) LAONCfl AM) SPACECRAFT STATISTICS
FSS DATA AM) REPORTS(BASE CASE)
C1DNO. YRS. ANALYZEDMAX. II OPER. SPTSLAUNCH DATES (YRS)
GLOBAL DATA (SYSTEM)
SATELLITESATELLITESATELLITESATELLITESATELLITE
LAUNCHMAX.
NO. 1NO. £NO. 3NO. 4NO. 5
DELAYSDELAY(YRS)
MIN. DELAY(YRS)UNCERT. PROFILE
LEO TO GEOTRANSFER TIME -(YRS 1 THRU 15)
NO. SIMLJL. RUNS
153
5.57.50.00.0
0.80.5£
0. £5O. 25O. £51OOO
0. £5O. £50. £5
0.850. £5
0.£50.£5O. £5
0.O.0.
C2DDEBT SVC INT RT % 12.EFFECT TAX RATE * 36.INVEST TAX CRDT X 10.TAX CREDIT ON ...LAUNCH COSTINSURANCE COSTS/C RECUR. COSTOTHER CAP. EXP.PAYABLES (X EXP. ) 6.RCVS (* REV. ) 16,CASH (X EXP. ) 1.INSUR? <O*N/1=Y)S/C LEARN. RATE % 88,DEPRECIATION LIFE (YRS)LAUNCH,INS.,S/C 1OOTHER CAP. EXP. 1£
DISCOUNT RATE (X) 10.0
GLOBAL DATfi (FINANCIAL)O0O
11113751O
0, 0
£0. 0 40. 0
93
C31NARROW BAND
NO. OF GROUPSNO. TRANS/GRPSPARE TRONS/GRPMEAN TME FAIL-YREXP. WEAROUT-YRSSTD WEAROUT-YRS
WIDE BANDNO. OF GROUPSNO. TRANS/GRPSPARE TRANS/GRPMEAN TME FAIL-YREXP. WEAROUT-YRSSTD WEAROUT-YRS
W/N BAND REL IMP.TRNSPNDR THRSHLD
SATELLITE NO.SATELLITE NO.SATELLITE NO.SATELLITE NO.SATELLITE NO.
TRANSPONDER DATA
RS
RS
•
12345
000
0.00.00.0
1*16
4feO. O
15.01.0
1RELAUNCH
15151500
C43
MEAN TME FAIL-YREXP. WEAROUT-YRSSTD WEAROUT-YRS
SPACECRAFT SUPPORTSUBSYSTEM
SUBSYSTEM DATA
POWER25O. 0
15. O1.0
AVCS160.0
8. O0. 5
TT4C STRUCTURE250.0 1000.0
1.0 1.0
OTHER1000. 0
£0.01 . O
94
C53
PROBABILITY OF:
BOOSTER SUCCESSORB SUC-NO ABORTP/L OK FINAL ORBPRPLSN MOD CKOUTXFER LEO TO GEOORB RCVRY-ABORTORB RCVRY-B FAILORB RCVRY-FLT OK
MAX LNCH COST M*WIN LNCH COST M*LNCH CST UNCRT PF
LAUNCH SCENARIO DATAYEAR
2 3 4
0.9950.9950. 95O0.9500.9500.9900.9900.99921.79821.798
1
0.9950.9950. 950O. 3500.9500.9900.9300.99321. 79821.798
1
0.995O. 995O. 95OO. 950O. 9500.9900.9900.99321. 73621.738
1
0.3950.9950.95O0.9500.9500. 99O0.3900.39321.79821.798
1
0.3950. 3350.950O. 9500. 9500. 990O. 39O0.99321. 79621.738
1
C53
PROBABILITY OFi
BOOSTER SUCCESSORB SUC-NO ABORTP/L OK FINAL ORBPRPLSN MOD CKOUTXFER LEO TO GEOORB RCVRY-ABORTORB RCVRY-B FAILORB RCVRY-FLT OK
MAX LNCH COST M*WIN LNCH COST M*LNCH CST UNCRT PF
LAUNCH SCENARIO DATAYEAR
7 8 9 10
0. 9950.9950.9500.9500. 9500. 9900.9900.99921.79621.798
1
0.9950.9950.9500.9500. 950O.9900. 9900.999£1. 79821.738
1
0.9950.9950.9500.950O. 9500.9900. 9300.993
£1. 79621.796
1
0.3950.9950.95O0.3500. 95O0. 9900.9900.93321.79821.796
1
0. 9950.995O.95O0.3500. 9500. 9900. 9900. 99921. 79S£1.736
1
C53
PROBABILITY OF:
BOOSTER SUCCESSORB SUC-NO ABORTP/L OK FINAL ORBPRPLSN MOD CKOUTXFER LEO TO GEOORB RCVRY-ABORTORB RCVRY-B FAILORB RCVRY-FLT OK
MAX LNCH COST W»WIN LNCH COST M»LNCH CST UNCRT PF
11
LAUNCH SCENARIO DATAYEAR
13 1<» 15
0.9950.3950. 9500.9500. 9500.9300. 9900.99921.79621.796
1
0.9350.9950. 9500.9500. 9500.9900. 9900.99981.79621.796
1
0. 9950.9950.9500.9500.9500.9300. 9900.99921.79621.798
1
0.9350.9950. 95O0.9500. 95O0.9900. 99O0. 99921.79821.798
1
0. 9950. 9950.9500. 95O0. 950O.99O0. 9900.99321. 79821. 796
1
95
C63
C7D
YEAR1234567a9101112131415
YEAR12
7e91O1112131415
DEMAND: SERVICE TYPE tlSATELLITE
NARROW-BANDWAX.DEMAND
•
OOO0OOOOO0O00O0
MIN.DEMAND
000000000000000
DEMAND:
UNCERT.PROFILE
00000000OO00OO0
« 1WIDE-BAND
MAX.DEMAND
OOO813151617IB192020202020
MIN.DEMAND
O0O&1011121212121212121212
UNCERT.PROFILE
0o01
B143e&77777
SERVICE TYPE »1SATELLITE
NARROW-BANDMAX.
DEMAND000OOO0O00O0O00
MIN.DEMAND
000000000000000
UNCERT.PROFILE
0000000O0000000
* 2WI
MAX.DEMAND
000O7
11141617181920202020
DE-BANDMIN.
DEMANDO0O056101£1212!£'12121212
UNCERT.PROFILE
0Oc044-
ei*c
£t/777
96
183 DEMANDS SERVICE TYPE »1SATELLITE « 3
NARROW-BAND WIDE-BAND
C93
YEAR12
67e9101118131415
YEAR1234567e9101112131415
MAX.DEMAND
000000000000000
MIN.DEMAND
000000000000000
UNCERT.PROFILE
OOOOOOOOOOOOOOO
MAX.DEMAND
00000O010151617161920£0
MIN.DEMAND
0000000612121212121212
UNCERT.PROFILE
0O000OO7IS14s6677
DEMANDi SERVICE TYPE »1SATELLITE
NARROU-BANDMAX.
DEMAND0O00000000O0000
MIN.DEMAND
000000000000000
UNCERT.PROFILE
OO0OOOOOO0OOO0O
« 4WIDE-BAND
MAX.DEMAND
O000000O0O00000
MIN.DEMAND
0O0000000000000
UNCERT.PROFILE
0("•OOOO0c0O0O0O0
. 97
C 1 0 D
YEAR1
5'6769
101 112131415
DEMAND: SERVICE TYPE «1SATELLITE * 5
NARROW-BANDMAX. WIN. UNCERT.
DEMAND DEMAND PROFILE DEMAND DEMAND PROFILEMAX.
WIDE-BANDMIN. UNCERT.
o00000000000000
0o000oo000oo000
o00000000oo0oo0
000000000000000
o0000o00o00000o
0o0o0o0o0G0o0oo
DEMANDi SERVICE TYPE 112SATELLITE * 1
YEAR12
£>7e9
101 112131415
NARROW-BANDMAX.DEMAND
0000000000o0000
MIN.DEMAND
O00000000o0oo00
UNCERT.PROFILE
000000000000000
WIDE-BANDMAX.
DEMAND000000000000000
MIN.DEMAND
000-00O0O0000000
UNCERT.PROFILE
0(['
cccf-
C-0'C!
cC'c0C-
98
DEMAND: SERVICE TYPE »2
YEAR12345&7e9101112131415
SATELLITE •NARROW- BAND WIDE-BAND
MAX.DEMAND
00O0000000000O0
WIN.DEMAND
0O000O0O0O0O0OO
UNCERT.PROFILE
0OOOO00O00000O0
MAX.DEMAND
O0O0O00O000O0O0
MIN.DEMAND
0O0O0O00OO00OOO
UNCERT.PROFILE
0O0O000O0O0O0O0
C133 DEMANDt SERVICE TYPE »2SATELLITE * 3
YEAR12345&7e9101112131415
NARROW-BANDMAX.DEMAND
000000000000000
MIN.DEMAND
00O000000000O0O
UNCERT.PROFILE
00000000000O000
WIDE-BANDMAX.
DEMAND00000000000O000
MIN.DEMAND
000OO0000000000
UNCERT.PROFILE
0OO•:c-oct\-
0C'co0oc
99
C14J DEMANDi SERVICE TYPE ȣSATELLITE f 4-
NARROW-BAND WIDE-BOND
YEAR1234567a9
101112131415
CIS]
YEAR1234567a9
101112131415
MAX.DEMAND
O0O00
. O00O0O0000
MIN.DEMAND
O00000000000O00
UNCERT.PROFILE
O00O00000000O0O
MAX.DEMAND
0000OO0OO0O00O0
MIN.DEMAND
OOO00OOOOOOO0OO
UNCERT.PROFILE
000O0O000O0O000
DEMAND i SERVICE TYPE *2SATELLITE
NARROW-BANDMAX.
DEMANDO000O0O0OO00O0O
MIN.DEMAND
00O000OO0OO0O0O
UNCERT.PROFILE
000000000000000
* 5WIDE -BAND
MAX.DEMAND
000O00O0000OO00
MIN.DEMAND
0OOOO00O0000000
UNCERT.PROFILE
0O000O0000000O0
100
C1&]
YEAR123456789101112131415
DEMAND: SERVICE TYPE *3SATELLITE * 1
NARROW-BANDMAX. WIN. UNCERT. MAX.
WIDE-BANDMIN. UNCERT.
DEMAND DEMAND PROFILE DEMAND DEMAND PROFILE000o00o00000000
o0oo0o00oo0000o
000000000o00000
000000000000000
00000000000o000
0o0oooooooo0oo0
C173 DEMANDi SERVICE TYPE *3SATELLITE * £
YEAR1234567a91011IS131415
NARROW-BANDMAX.DEMAND
000000000000000
MIN.DEMAND
0O00o000o0o0000
UNCERT.PROFILE
000000000000000
WIDE-BANDMAX.DEMAND
000000000000000
MIN.DEMAND
00O000O00O0O0OO
UNCERT.PROFILE
OOoooooo0o0o0o0
101
CIS]
YEAR123456789101112131415
DEMAND: SERVICE TYPE »3SATELLITE • 3
NARROW-BAND WIDE-BANDMAX. MIN. UNCERT. MAX. WIN. UNCERT.
DEMAND DEMAND PROFILE DEMAND DEMAND PROFILE000000000000000
00000ooo0000o00
000000000000000
000000000o000o0
0o0o00o00o0o000
0o000o0o0o0o000
C193 DEMAND: SERVICE TYPE f3SATELLITE « A
YEAR1234567e9101112131413
NARROW-BANDMAX.
DEMAND00000000000o0oo
MIN.DEMAND
0O00o0000000000
UNCERT.PROFILE
O0000000000O0OO
WIDE-BANDMAX.
DEMAND0000o00oo00o000
MIN.DEMAND
0O0000000000000
UNCERT.PROFILE
O00o0ooo0ooo0o0
102
C203
YEAR1234567a9
1011121314IS
DEMAND: SERVICE TYPE »3SATELLITE « 5
NARROW-BAND WIDE-BANDMAX. MIN. UNCERT. MAX. MIN. UNCERT.DEMAND DEMAND PROFILE DEMAND DEMAND PROFILE
00000000o000000
000o00000o00000
000000000000000
000000000000000
0000ooooo0oo000
000o0o000o00000
can .DEMAND: SERVICE TYPE *4SATELLITE * 1
YEAR1&34
789101112131415
NARROW-BANDMAX.
DEMAND00Oo00000000o00
MIN.DEMAND
0OO000000O00000
UNCERT.PROFILE
000,0o0000000000
WIDE-BANDMAX.
DEMAND000344444444444
MIN.DEMAND
00O2222
. 22222222
UNCERT.PROFILE
0001222£2z»
22222
103
C223 DEMAND: SERVICE TYPE »4SATELLITE * 2
NARROW-BAND WIDE-BAND
C233
YEAR1234567B91O1112131415
YEAR1234567B9101112131415
MAX.DEMAND
0O000OOOOO00OOO
MIN.DEMAND
0000000O0000000
UNCERT.PROFILE
0O0000O00000000
MAX. MIN.DEMAND DEMAND
000034444444444
0OO022222222222
UNCERT.PROFILE
0O00122c'2222'222
DEMANDS SERVICE TYPE *4SATELLITE
NARROW-BANDMAX.
DEMANDOOOO00OO0OO00OO
MIN.DEMAND
000,00000000000O
UNCERT.PROFILE
O000O000000O0OO
« 3WIDE-BAND
MAX. MIN.DEMAND DEMAND
. . . . . P.000O0O34444444
OO00O0022222222
UNCERT.PROFILE
0O0O0O012222222
104
YEAR123
6789101112131415
DEMAND: SERVICE TYPE «4SATELLITE « 4
NARROW-BAND WIDE-BANDMAX. MIN. UNCERT. MAX. WIN. UNCERT.DEMAND DEMAND PROFILE DEMAND DEMAND PROFILE
0000o0000o00000
000o0oo0oo0o000
00000o0oo00o00o
0o0b0000o000000
00000000o000000
000oooooooo00o0
C253 DEMAND: SERVICE TYPE *4SATELLITE * 5
YEAR1234567a9101112131415
NARROW-BANDMAX.DEMAND
000000000000000
MIN.DEMAND
00O0000oo000000
UNCERT.PROFILE
000o0o000o00000
WIDE-BANDMAX.DEMAND
000000000000000
MIN*DEMAND
0000O000000000O
UNCERT.PROFILE
OO00ooo0000ooo0
105
C263 PRICE (S /YR) : SERVICE TYPE »1NARROW-BAND WIDE-BAND
C27J
YEAR123456789
1011121314IS
YEAR123456789
1O1112131415
MAX.PRICE
00000OO000000O0
MIN.PRICE
OO0000O000000OO
UNCERT.PROFILE
O0O0000OO0000OO
MAX.PRICE
000
370037003€>OO3500340033003200310030OO30OO30003000
PRICE <«/YR) s SERVICE TYPENARROW-BAND
MAX.PRICE
00O00000OO00O00
MIN.PRICE
00OO00OO0O00OO0
UNCERT.PROFILE
O0OO0O0OO0OOOO0
MIN.PRICE
OOO
3330333O3240315O306O297028802790270027OO27002700
«2
UNCERT.PROFILE
O00666666666666
WIDE- BANDMAX.PRICE
0OO000O0OO00OO0
MIN.PRICE
OO0OOOOO0OOOOOO
UNCERT.PROFILE
OO0O0O000O0O000
106
C£6J PRICE <»/YR): SERVICE TYPE *3
YEAR123436789101112131415
MAX.PRICE
NARROW-BANDMIN. UNCERT.PRICE PROFILE
MAX.PRICE
WIDE-BANDMIN. UNCERT.PRICE PROFILE
00000o000000000
o000000o0000000
oooooo0ooo00ooo
0ooo00o0ooo0000
ooo000oo0oo0o00
o0000000o0o0o00
PRICE <*/YR): SERVICE TYPE *4NARROW-BAND WIDE-BAND
YEAR1234567891011ia1314IS
MAX.PRICE
O000000000
MIN.PRICE
0O0000O000
UNCERT.PROFILE
0O00000000
MAX.PRICE
000
14501450145O1450145014501450
MIN.PRICE
00O
1305130513051305130513051305
UNCERT.PROFILE
000&6666&6
145O1450145O145O1450
13051305130513051305
107
C303 PRICE ELASTICITY DATA* DEMAND DECREASE RESULTING NARROW- WIDE-
FROM A 25% PRICE INCREASE BAND BAND1. PROTECTED 0.0 £5.02. PROTECTED/PREEMPTIBLE 0.0 25. O3. UNPROTECTED/NON-PREEMPTIBLE 0.0 25. O4. PREEMPTIBLE 0.0 25.0
C31] CORRELATION DATACORRELATION COEFFICIENT
TYPE OF SERVICEDEMAND DATA
1. PROTECTED2. PROTECTED/PREEMPTIBLE3. UNPROTECTED/NON-PREEMPTIBLE4. PREEMPTIBLE
PRICE DATA1. PROTECTED2. PROTECTED/PREEMPTIBLE3. UNPROTECTED/NON-PREEMPTIBLE4. PREEMPTIBLE
S/C CONTROL OPERATIONSENGINEERING EXPENSER4D EXPENSEG&A EXPENSEOTHER CAPITAL EXPENDITURES
NARROW-BAND
O0
0.00.0
0.0.0.0.0.0.0.0.
00O08&8a
WIDE-BAND
0.80.80.80.8
0.8O.80.80.8
O. 8
C32]MAX.HIN.S/CHAX.MINI.s/cMflX.HIN.
COST/EXPENSE DATAS/C UNIT COST (Kt)S/C UNIT COST (Kt>
UNIT COST UNCERTAINTY PROFILES/C NONRECURRING COST <K»)S/C NONRECURRING COST (Kt)
NONREC. COSTINSURANCE *INSURANCE %
UNCERT. PROFILE
INSURANCE UNCERTAINTY PROFILE
4090O. 03640O. O
162500O. 019800.0
118.012.0
13
108
[333 COST/EXPENSE DATA (CONTINUED)S/C CONTROL OPERATIONS COST(X)
ORIGINAL PAGE ISOF POOR QUALITY
C343
YEAR1£3456789101112131415
SUM K» 4 X AMTS
C353
YEAR1234567a9101112131415
SUM K* i * AMTS
MAX. MIN.COST(X) COST<X)
0.0 0. 0O.O O. O0.0 O.O6.7 6. 72.6 2.61.7 1.72.0 2.01.8 1.81.8 1.81.9 1.92. 1 2. 12.3 2.32.5 2.52. 8 2. 83.5 3.5
UNCERT.PROFILE
111111111111111
ENGINEERING EXPENSEMAX.(K*>1OOO. O100O. 010OO. 01000.01OOO.O1OOO. 0100O. 01OOO.O1000.010OO. 01000.0IOOO. 0100O.O1000.0100O.O
0
MAX.(Kt)10OO.O1OOO.O10OO.O10OO. 01OOO.O10OO. 010OO. 0100O.O10OO.O10OO.O100O. 01OOO.O10OO. 01000.01OOO.O
0
MIN.<K*>1OOO.O1000.01OOO. 01000.01OOO. 01OOO. 01000.0IOOO. 01000. 0IOOO. 01000.0IOOO. 0IOOO. 0IOOO. 010OO.O
MIN.<K«)IOOO. OIOOO. OIOOO. 0IOOO. O1000.010OO.O1OOO.O1000.01000.01000.OIOOO. 01OOO.OIOOO. 01000.0IOOO. 0
UNCERT.PROFILE
111111111111111
R*DUNCERT.PROFILE
111111
MAX.<*)
2.02.02.02.02.02.02.02.02.02.02.02.02.02.02.0
EXPENSEMAX.<*)
2.02.02.02.02.02.02.02.02.02.02.02.02.02.02.0
MIN.<*)
2.02.02.02.02.02.02.02.02.02.02.02.02.02.02.0
MIN.<X>
2.02.02.02.02.02.02.02.02.02.02.02.02.02.02.0
UNCERT.PROFILE
111111111111111
UNCERT.PROFILE
111111111111111
109
C363
YEPR1£34567a31011121314IS
SUM K» & % AMTS
C373
G*A EXPENSEMAX.<K»)50O.O50O. O5OO.O50O. O5OO.O500. O500.0500.0500.0500.050O.65OO. O5OO.O5OO. O50O.O
14
CAPITAL
MIN.(K«)500.0500.0500.0500.0500.0500.050O. 05OO. O50O. 050O. 0500.0500.05OO.O5OO. O500.0
UNCERT.PROFILE
111111111111111
MAX.(*>
0.00.00.07.31.30.80.80.60.60.70.81.01.01.42.9
MIN.<*)
0.00.00.07.31.3o. a0.80.60.60.70.81.01.01.42.9
UNCERT.PROFILE
111111111111111
EXPENDITURE DATAOTHER CAPITAL EXPENDITURES
YEAR1£345£7a3101112131415
COST SPREADING
LAUNCH COSTINSURANCE
MAX.(K«)
0.0550O. O10560.0
0. O0.0
341O.O209O.O
0.00.0O. OO. 0O. O0.0O. Oo.o
FUNCTIONS
135.2100.0
S/C RECUR COST 20. O
MIN.<K*>
0.04500. O8640. 0
0. 0o.o
279O. 01710. O
O.O0.00.00.0O.O0.0O.O0.0
255.0O.O48.5
UNCERT.PROFILE
1131311131311111111
YEAR3
9. ao.o31.5
- --
40.00.0o.o
50.0O.O0.0
NONRECUR COST 79.0 21.0 0.0 0.0 O.O
no
[383 UNCERTAINTY PROFILE DftTflPROFILE PROFILE INTERVAL
I.D.1£345&7a91011121314151617IB19£0
10.500.300. 3OO. 350.210. £30. £50. 160. 120. 150.£O0. 15O. 1O0.080.050. 100.030.05O. 030.03
£0. £50. £50.300. 400. 3£0. 3O0. 350. 490. 3£0.34O.£00. ££0. £50. £50. £50. £00.300. £O0. £00.07
30. 150. £00. £00. 150. £70. £30. £50. £40. 3£0.370.£O0.260.300.340. 4O0.400.340.500.540.80
40.070. 150. 130.070. 150. 160. 100.090. 170. 120.200.220. £50. £50. £5O. £O0.30O. £00. £00.07
50.030. 1O0. 07O.O30.05O.080. 050. 0£0.070. 0£0. £00. 150. 1O0.080.050. 1O0.030. O50.030.03
111
INCOME STflTEMENT (* THOUSPNDS)
YEPR
3
PROJECTEDPROTECTED/ PREEMPT.L'NPROT£CTED/NON-PREEMPT.
TO'flL. REVENUE
o.0.o.o.o.o. *
0.0.o.o.o.
o. *
0.0.0.0.0.
o. »
3889.O.O.
1352.11241.44OO. » •
6*773.O.O.
3320.68098.16029.*
•_«UNCH OPERATIONSLflUNCH INSURANCE
OTHERDEPRECIATION EXPENSES/C CONTROL OPERATIONSENGINEERING EXPENSERESEARCH & DEVELOPMENT
TOTftL. OPERftTIONS EXPENSE
0.o.o.o.o.0.
1OOO.1000.2OOO.o. •
o.0.0.
416.416.
O.1000.100O.£416.20.*
0.0.O.
1229.1229.
0.1OOO.1OOO.3229.48. »
19O3.736.3360.1229.73O8.753.1OOO.1OOO.1OO61.2610. *
4028.1630.68O2.1229.13689.1771.14O6.1406.18272.2992. «
GROSS MftRGIN («) -200O.0. »
•2416.20. *
•3229.48. *
1180.1923. *
49826.14148.<
S/C NONRECURRING COSTG & 0 EXPENSEDEBT SERVICE EXPENSE
16756.500.
O.
4454.500.1322.
O.5OO.il 17.
U.1321.13305.
1385.20225.
BEFORE TPX PROFITINCOME TftxINVESTMENT TfiX CREDITftFTER TflX PROFIT
13256.-6932.
O.12324.591. *
-8692.-3129.499.
-5O64.199. *
-6846.-3185.976.
-4686.634. »
-13445.-4640.6079.-2526.2023. »
28215.10157.6331.24433.7551. »
RETURN ON fiSSETS <*> -4267.O. •
-27.30. • 1. * 2. *
13.4. *
RETURN ON SOLES (*) o.o. •
o.o.«
o.o. • 18. •
3<*.
D E V I f t T I O N 112
PROFORMO INCOME STATEMENT <» THOUSftNDS) ORIGINAL PAGE ISOF POOR QUALfTY
PROTECTEDPROTECTED/PREEMPT.UNPROTECTED/NON-PREEMPT.PREEMPTIBLE
TQTPL REVENUE
LPUNCH OPERPTIONSLftUNCH INSURPNCESPTELLITEOTHER
DEPRECIATION EXPENSES/C CONTROL OPERATIONSENGINEERING EXPENSERESEARCH & DEVELOPMENT
TQTPL OPERATIONS EXPENSE
3ROSS MORGIN (*)
S/C NONRECURRING COSTS 4 ft EXPENSEC€BT SERVICE EXPENSE
BEFORE TPX PROFITINCOME TPXINVESTMENT TPX CREDITfiFTER TPX PROFIT
RETURN ON PSSETS <*>
RETURN ON SPuES (*>
82387.0.0.
6334.88782.1O464.*
4375.1753.7315.1488.14336.1509.1777.1777.
20OO1.1617.*
68781.99O3. «
0.1210.
£1529.
46O41.16575.1239.30766.5926.»
.3. »
34.6. *
7
92817.0.0.
6033.98855.8386. *
6343.2467.1OO44.1649.2O503.1377.1377.1977.
26434.2962.*
72421.8871.*
0.1291.
20471.
50660.18238.5598.38021.6161. *
18.4. *
38.4. •
YEOR
8
136146.0.0.
4035.140181.13416.*
6819.2633.1O674.1649.
21774.2523.28O4.28O4.29305.2347.*
110277.13896. •
0.1341.17079.
91857.33068.1272.
6O06O.9336. »
30.6. »
*«3.S.»
9
138503.O.O.
2231.14O734.12539. »
705O.2712.
1 O97 1 .1643.
22381.2533.2815.2815.3O544.3600. *
1 1 0 1 9 1 .14304. *
O.1344.9294.
99552.35833.607.
6432O.1 1 157. •
35.8. •
«5.6. •
10
131022.£.*,' .
3350.134372.12664. *
732£.2 BOS.
1 131*.1643.23094.2553.2687.2687.
, 31022.4504.*
103350.15346. •
0.1441.
-. • =•~£ 1 -».
1O21 24.36765.
713.66072.12725.*
40.11.*
<*3.7. »
• STPNDORD DEVIPTION113
PROFORMP INCOME STPTEMENT (* THQUSPNDS)
PROTECTEDPROTECTED/PREEMPT.UNPROTECTED/NON-PREEMPT.PREEMPTIBLE
TQTPL REVENUE
LPUNCH OPERPTIONSLPUNCH INSURPNCESPTELLITEOTHER
DEPRECIPTION EXPENSES/C CONTROL OPERPTIONSENGINEERING EXPENSERESEPRCH ft DEVELOPMENT
TQTPL OPERATIONS EXPENSE
GROSS MPRGIN <*)
S/C NONRECURRING COSTG A P EXPENSEDEBT SERVICE EXPENSE
BEFORE TPX PROFITINCOME TPXINVESTMENT TPX CREDITfiFTER TPX PROFIT
RETURN ON PSSETS <X>
RETURN ON SPLES <*)
7601.8837.11647.1649.
£3794.£726.£596.£596.
31711.51O5.<
98076.17673. •
O.1538.-9977.
1O6515.38345.70O.
68870.1539£.*
44.14. •
5£.10.•
111137.0.O.
915.112052.18583. *
8155.308O.12303.1649.
251B7.2577.2241.2241.32247.6197.*
79805.2O468. *
O.1621.
-19215.
97399.35064.1393.63728.16885. *
40.15. »
56.12. •
97531.0.0.
545.98076.23226. •
9761.3611.14197.1649.23237.2452.1966.1966.
35621.6967. *
62455.£3480. »
O.1481.
-26639.
87613.. 3 1 54 : .
4O50.60122.18538. *
38.15. *
61.17. •
1O5444.0.0.
525.105963.23107. •
9417.3311.12578.1233.26539.£967.2i£3.2123.33752.7073. •
72216.2349O. •
O.1984.
-33662.
1O3895.37402.3797.70289.
1 958 1 . *
46.16. *
66.18. •
75O2.254£.3233.420.
I386c.3401.136*.1364.
27191.6700.«
69373.i8365.«
O.3318.
-42336.
103651.33474.
517.
7063<».22792.«
16.
• STPNDPRD DEVIATION 114
CASH FLOW PROJECTION (* THOUSANDS) ORIGINAL PAGE ISOF POOR QUALITY
AFTER TPX PROFITINCREASE IN PAYABLESDECREASE IN RECEIVABLESDECREASE IN CASHDEPRECIATION
TQTft|_ CASH INFLOW
LOSSDECREASE IN PAYPBLESINCREASE IN RECEIVABLESINCREASE IN CASHCAPITAL EXPENDITURES
TOTAL CASH OUTFLOW
NET CASH FLOW
INDEBTEDNESS
O.O.
283.O.
12612.
•11014.528. »
11014.528. •
0.1489.
O.12.
416.1916.
5064.64.0.
269.28148.33544.
31628.8243. »
42642.8252. *
0.3203.
0.O.
1229.4422.
4£S6.0.0.
579.67397.72661.
-68229.9908. »
110872.17582. *
O.388.O.23.
7308.77:8.
2526.126.
1877.70.
60793.65392.
-57674.1 1262. »
168545.15468. *
24540.78.2.
215.13689.38525.
101.1 183.3438.
14.38588.43330.
-10865.1811O. <
17941 1.15185. <
DISCOUNT RATE <X> 10. 15. 20. 4O.
PRESENT VALUE "A1
NET PRESENT VALUE "&'8651O.192651.
21O54.63132.
-138O1.23965. 9977.
-460O6.'; o 17.
NET PRESENT VALUE 279361.83052.«
84186.443O4.<
1O164.27649.*
-22078.18763.•
-44989.7874.<
115
CASH FLOW PROJECTION (* THOUSANDS)
AFTER TAX PROFIT 3O784. 38O21.INCREASE IN PAYABLES 251. 188.DECREASE IN RECEIVABLES 55. 103.DECREASE IN CASH 1O2. HO.DEPRECIATION 14936. 2O5O3.
TOTAL CASH INFLOW 46128. 58925.
YEAR
8
60061.24.22.
315.21774.82197.
64344.57.655.156.
22381.87593.
1O
66091.67.
1373.132.
23094.90758.
LOSSDECREASE IN PflYfi&LESINCREASE IN RECEIVABLESINCREASE IN CASHCAPITAL EXPENDITURES
TOTAL CASH OUTFLOW
is.567.3509.45.
33167.373O7.
O.6O7.1786.34.
28233.30660.
1.1744.6924.
4.
8653.17327.
24.B62.747.10.
6707.835O.
19.733.311.12.
8329.94 O4.
NET CASH FLOW 8822.17106.»
28265.1 4650. »
64870.18177.*
79243.18661.*
81354.18596.*
INDEBTEDNESS 170589.26742.*
142323.37266.*
7745A.49576.*
-1789.64336.*
-83143.78947.*
* STANDARD DEVIATION116
CASH F'.OW PROJECTION (* THOUSANDS)
AFTER TAX PROFITINCREASE IN PAYABUESDECREASE IN RECEIVfiBLESDECREASE IN COSHDEPRECIATION
rQTAL CASH INFLOW
11
68949.211.
1243.&3.
23794.94261.
63842.567.
3329.44.
25187.92969.
YEAR
13
603O4.£25.
3386.127.
29237.93277.
ORIGINAL PAGE JS
OP POOR QUALITY
7O462.16.
1545.337.
26539.98899.
O.2608.333.
198&c.93742.
LOSS 79. :i3.DECREASE IN PAYABLES 350. 242.INCREASE IN RECEIVABLES 477. 367.INCREASE IN CASH 38. 1O3.CAPITAL EXPENDITURES 16337. 3O274.
TOTAL CASH OUTFLOW 17281. 31099.
182.701.1052.41.
32776.34750.
173.1862.2864.
3.16219.21120.
246.18*2.1137.
O.1902.5l£fi.
CASH FLOW 76979.19584. <
61870.i:O523. »
58527.»2648. *
77779.•T0367. *
88615.18193.*
INDEBTEDNESS -160122.92967.*
-221992.104O69.»
-2805 H9.112061.*
-358298.121063.*
-446913.13186O.»
* STANDARD DEVIATION117
PROBABILITY OF ANNUAL LAUNCH ATTEMPTS
LPUNCHATTEMPTS
PROBABILITYINDICATED QUANTITY
10987654321O
00OOOO0OOO
100
O0oOoo00oo
100
0000000000
100
oo000o0oo
100o
0000oo0014a&o
o0oooo001
1782
oo0o00007330
o0oor>00ft£
~» «w •
77
YEAR a
AVERAGEVALUE OO 00 OO l.OO 1. 14 19 1. OS
STANDARDDEVIATION OO OO OO .00 .34 41 .27
118
PROBABILITY OP ANNUAL LAUNCH «TTEHPTS
LAUNCHATTEMPTS
PROBABILITYINDICATED QUANTITY (PERCENT)
1O987&5A321O
0O0O0OO01
1168
0OOoOo0o11386
0ooo00oo1
1386
O000OOOO3
O0Ooooo11654£3
00000001
144636
OOOOOOOO1990
YEAR 10 11 13
AVERAGEVALUE 13 15 15 . 31 .90 . 12
STANDARDDEVIATION . 35 .39 .37 .53 .70 . 75
119
PROBABILITY OP ANNUAL SPACECRAFT °URCHASES
NUMBER OFSPACECRAFT
PROBABILITY OFINDICATED QUANTITY (PERCENT)
io9a76s4321O
OOO0OOO000
100
0O0OO00O00
100
000000000O
100
OO0OOO00O94
6
OOO0OO0O12825
O0o00o001
1763
0OOOo00o6877
Ooooooo0c»
2078
YEAR 8
AVERAGEVALUE . OO .00 00 1.O7 . 18 1. OO
STANDARDDEVIATION .OO .OO OO 24 .42 .40 .38 . 48
120
PROBABILITY OF ANNUAL SPACECRAFT PURCHASES
NUMBER OFSPACECRAFT
PROBABILITY OFINDICATED QUANTITY (PERCENT)
103876543It
\O
oO0ooooo1
1189
OO0cj0OOr>1
1287
O0OOOo0o1
1387
O0O00OOO
0OO0O001
145332
00O00O01134838
OO000o001990
YEfiR 10 11 13 14 15
AVERAGEVALUE 14 . 14 29 83 77 1 1
STANDARDDEVIATION 34 38 51 68 72 34
121
enNO. YRS. ANALYZEDMAX. t OPER. SATSLAUNCH DATES (YRS)SATELLITE NO. 1SATELLITE NO. 2SATELLITE NO. 3SATELLITE NO. *SATELLITE NO. 5
LAUNCH DELAYSMAX. DELAY(YRS)MIN. DELAY(YRS)UNCERT. PROFILE
LEO TO GEOTRANSFER TIME -(YRS 1 THRU 15)
NO. SIMUL. RUNS
GLOBAL DATA (SYSTEM)152
4.55.00.00.00.0
0.80.52
0.250.250.251000
0.250.250.25
0.250.250.25
0.250.250.25
0.250.250.25
C2DDEBT SVC INT RT X 13.0EFFECT TAX RATE % 36.0INVEST TAX CRDT X 10.0TAX CREDIT ON ...LAUNCH COST 1INSURANCE COST 1S/C RECUR. COST 1OTHER CAP. EXP. 1PAYABLES (X EXP. ) 8.3RCVS (X REV.) 16.7CASH (X EXP. ) 1.5INSUR? (0*N/1«Y) 1S/C LEARN. ROTE X 88.0DEPRECIATION LIFE (YRS)LAUNCH, INS. , S/C 10. OOTHER CAP. EXP. 12.0DISCOUNT RATE (X) 10.0
GLOBAL DATA (FINANCIAL)
15.0 20.0 25. 0 40. O
122
C3DNARROW BAND
NO. OF GROUPSNO. TRANS/GRPSPARE TRANS/GRPMEAN TNE FAIL-YREXP. UEAROUT-YRSSTD WEAROUT-YRS
WIDE BANDNO. OF GROUPSNO. TRANS/GRPSPARE TRANS/GRPMEAN TME FAIL-YREXP. WEAROUT-YRSSTD WEAROUT-YRS
W/N BAND REL IMP.TRNSPNDR THRSHLD
SATELLITE NO. 1SATELLITE NO. 2SATELLITE NO. 3SATELLITE NO. 4SATELLITE NO. 5
TRANSPONDER DATA
111
31.21S.O2.0
122
31.215.02.0
1RELAUNCH
220O0
C4D
MEAN TME FAIL-YREXP. WEAROUT-YRSSTD WEAROUT-YRS
SPACECRAFT SUPPORT SUBSYSTEM DATASUBSYSTEM
POWER AVCS TT&C STRUCTURE OTHER230.0 166.0 200.0 1OOO.O 10OOO.O15.0 7.0 15.0 20.0 20.01.0 O. 5 1.0 1.0 l.O
123
C53
PROBABILITY OF:
BOOSTER SUCCESSORB SUC-NO ABORTP/L OK FINAL ORBPRPLSN MOD CKOUTXFER LEO TO 6EOORB RCVRY-ABORTORB RCVRY-B FAILORB RCVRY-FLT OK
MAX LNCH COST M»MIN LNCH COST M»LNCH CST UNCRT PF
LAUNCH SCENARIO DATAYEAR
2 3 4
0.9950.9950.9000.9500.9500.9900. 99O0.99919.44019.440
1
0.9950.9950.9000.9500.9500.9900. 99O0.99919.44019.440
1
0.9950.9950.9000.9500. 95O0.990O. 99OO. 99919. 44O19.440
1
0.9950.9950. 9OO0. 95O0.9500.9900. 99O0.99919.44019. 440
1
0.995O. 9950. 9OOO. 95O0.9500.990O. 99O0.99919.44019. 44O
1
C5D
PROBABILITY OF:
BOOSTER SUCCESSORB SUC-NO ABORTP/L OK FINAL ORBPRPLSN MOD CKOUTXFER LEO TO GEOORB RCVRY-ABORTORB RCVRY-B FAILORB RCVRY-FLT OK
MAX LNCH COST M*MIN LNCH COST M*LNCH CST UNCRT PF
LAUNCH SCENARIO DATAYEAR
7 8 9 10
0.9950.9950.90O0.9500.9500.9900. 99O0.99919. 44O19.440
1
0.9950.9950. 90O0.9500.9500.9900.9900.99919. 44019.440
1
O. 9950.9950. 90O0.950O. 95OO. 990O. 99O0.99919. 44019.440
1
0.9950.9950.9000.9500. 95O0.990O. 99OO. 99919. 44019. 440
1
0.9950.9950. 90O0.9500. 9500.9900.9900. 99919.44019. 44O
1
C5]
PROBABILITY OF:
BOOSTER SUCCESSORB SUC-NO ABORTP/L OK FINAL ORBPRPLSN MOD CKOUTXFER LEO TO GEOORB RCVRY-ABORTORB RCVRY-B FAILORB RCVRY-FLT OK
MAX LNCH COST M»KIN LNCH COST M«LNCH CST UNCRT PF
11
LAUNCH SCENARIO DATAYEAR
12 13 14 15
0.9950.9950.900O.9500. 950O.9900. 9900.99919. 44019. 440
1
0.9950.9950.9000.9500.9500.9900. 99O0.99919. 44019.440
1
0.9950.995O. 9OO0.950O. 950O.990O. 990O.99919.44019.440
1
O. 9950.9950.900O. 950O. 950O. 9900. 990O. 99919. 44019. 440
1
0.9950.9950.9000.9500. 95O0.99O0.99O0.99919.44019. 44O
1
124
CfeD DEMAND! SERVICE TYPE »1SATELLITE « 1
NARROW-BAND WIDE-BAND
YEAR123A567a
101112131*IS
C73
YEAR123
789101112131415
MAX.DEMAND
000111222222222
MIN.DEMAND
O00111111111111
UNCERT.PROFILE
000000222222222
MAX. MIN.DEMAND DEMAND
0001
' 22333333333
UNCERT.PROFILE
0 00 00 01 02 02 02 132 132 132 132 132 132 132 132 13
DEMAND: SERVICE TYPE »1SATELLITE
NARROW-BANDMAX.DEMAND
000011222222222
MIN.DEMAND
00OO11111111111
UNCERT.PROFILE
0O00O0222222222
41 2WIDE -BAND
MAX. MIN. UNCERT.DEMAND DEMAND PROFILE
000012333333333
0 00 00 00 01 02 02 132 132 132 132 132 132 13£ 132 13
125
C83 DEMAND: SERVICE TYPE »1SATELLITE * 3
NORROW-BAND WIDE-BOND
C9D
YEAR1a34567&9101112131415
YEAR123
&789101112131415
MAX.DEMAND
0O0O0000000OO00
MIN.DEMAND
000000000000000
UNCERT.PROFILE
000000000000O00
MAX.DEMAND
000000000000000
MIN. UNCERT.DEMAND PROFILE
000OO0000000OOO
00O00O00000O0O0
DEMflND: SERVICE TYPE *1SATELLITE
NARROW-BANDMAX.DEMAND
OO000O000O0O00O
MIN.DEMAND
0000000O0000000
UNCERT.PROFILE
OOO00000O0OOO0O
* 4WIDE-BAND
MAX.DEMAND
00O0000O00OO000
MIN. UNCERT,•DEMftND PROFILE
O000OO000O00O00
000O0O0O0000000
126
CIO]
YEAR12345&7a31O1112
131415
DEMAND: SERVICE TYPE «1SATELLITE * 5
NARROW-BANDMAX. WIN. UNCERT. MAX.
WIDE-BANDMIN. UNCERT.
DEMAND DEMAND PROFILE DEMAND DEMAND PROFILE00000o00o000ooo
0000000o000o0oo
o0o0oooo0oo0000
00000000o00000o
o000ooo00000000
0o0ooooooo0oooo
DEMAND: SERVICE TYPE »2SATELLITE * 1
YEAR12245&789101112131415
NARROW-BANDMAX.
DEMAND0OO00oo0oo00o0o
MIN.DEMAND
00OOOO00OOOO0OO
UNCERT.PROFILE
OO0oo0oo0o0o00o
WIDE-BANDMAX.DEMAND
000000000O00O00
MIN.DEMAND
000000O00000000
UNCERT.PROFILE
0Oooo00ooo0o0o
-' 0
127
CIS]
YEAR1234567a9
101112131415
DEMAND* SERVICE TYPE »2SATELLITE « 2
NARROW-BAND WIDE-BONDMAX.DEMAND
0000O0
MIN.DEMAND
OO0000
UNCERT.PROFILE
000000
MAX.DEMAND
0O0000
MIN.DEMAND
0O000O
UNCERT.PROFILE
O00OOO
[13]
YEAR123456789
101112131415
DEMAND: SERVICE TYPE *2SATELLITE * 3
NARROW-BAND WIDE-BONDMAX.DEMAND
000000000000
MIN.DEMAND
00OO00OO0OO0
UNCERT.PROFILE
00O000000000
MAX.DEMAND
00O000000O00
MIN.DEMAND
OO060O0O0OOO
UNCERT.PROFILE
OO00000O0OOO
128
C143
YEAR1234567a9101112131415
DEMAND i SERVICE TYPE «2SATELLITE « 4
NARROW-BANDMAX. MIN.DEMAND DEMAND PROFILE DEMAND DEMAND PROFILE
UNCERT. MAX.WIDE-BAND
MIN. UNCERT.
000000000000000
00000000000oo00
00o0o0oo000oooo
000000000000000
o000o0o00o0o00o
0000
. 00oo0o00oo0
C153 DEMAND* SERVICE TYPE *2SATELLITE ft 5
YEAR123456789
101112131415
NARROW-BANDMAX.DEMAND
O00O0000O000Oo0
MIN.DEMAND
00O00O0000O0O0o
UNCERT.PROFILE
0O0o0oo0ooooooo
WIDE-BANDMAX.DEMAND
000000000000000
MIN.DEMAND
OOO000oooo0o00o
UNCERT.PROFILE
O0O00O0OOO000O0
129
C16J
YEAR123456789101112131415
OEMANDt SERVICE TYPE »3SPTELLITE • 1
NARROW-BAND WIDE-BANDMAX. MIN. UNCERT. MAX. MIN. UNCERT.DEMAND DEMAND PROFILE DEMAND DEMAND PROFILE
000000000000000
0000o0o0ooo0o0o
o0o0o0o000o0000
000o0o000o00o00
o0oooo000ooo0o0
00oo00000000000
DEMAND: SERVICE TYPE »3SATELLITE « 2
YEAR1234567a9101112131415
NARROW-BANDMAX.DEMAND
0000O000O000000
MIN.DEMAND
OOOO0O00ooo0oo0
UNCERT.PROFILE
0000O0O0OOO0000
WIDE-BANDMAX.DEMAND
0000O0OO000OOO0
MIN.DEMAND
O0O00OO0OO0O0O0
UNCERT.PROFILE
0OOO0O0O0OOOOOO
130
C18J DEMAND: SERVICE TYPE *3SATELLITE « 3
NARROW-BOND WIDE-BAND
C19]
YEAR1a34567a3101112131415
YEAR1234567891O1112131415
MAX.DEMAND
0000o0o0o0oo00o
MIN.DEMAND
O000000000o0o0o
UNCERT.PROFILE
OOO0000OOO000OO
MAX. MIN.DEMAND DEMAND
0000000000O0000
OOOO00O0000000o
UNCERT.PROFILE
0OOO000OOOOOO00
DEMAND: SERVICE TYPE *3SATELLITE
NARROW-BANDMAX.
DEMANDo00oo00bo00oo00
MIN.DEMAND
O0oo00oo00ooo00
UNCERT.PROFILE
0O00oo000000000
« 4WIDE-BAND
MAX. MIN.DEMAND DEMAND
000O0OOO00O0O0O
00000oo0o0o0o00
UNCERT.PROFILE
O0OO0o000o0o0oo
131
C20D
YEPR12.3458783
101112131415
DEMAND: SERVICE TYPE «3SATELLITE * 3
MORROW-BOND WIDE-BANDMAX.DEMAND
000000000000000
MIN.DEMAND
OO0O0000OO0000O
UNCERT.PROFILE
O000000O000000O
MAX.DEMAND
000000000000000
MIN.DEMAND
000000000000000
UNCERT.PROFILE
0O0000000O0O000
C21] DEMAND: SERVICE TYPE *4SATELLITE * 1
YEAR123456789
101112131415
NARROW-BANDMAX.DEMAND
000000000000000
MIN.DEMAND
O0OO00000O00000
UNCERT.PROFILE
00000000000000O
WIDE-BANDMAX.
DEMAND000000000000000
MIN.DEMAND
000000000O0OO00
UNCERT.PROFILE
0O0000000000000
132
C223
C23D
YEAR1
s67e9101112131415
YEAR1234567a9101112131415
DEMAND) SERVICE TYPE «4SATELLITE • 2
NARROW-BANDMAX.DEMAND
000000000000000
MIN.DEMAND
O00ooo0oo00oooo
UNCERT.PROFILE
O0O0000000000O0
WIDE -BANDMAX. MIN.DEMAND DEMAND
00O0O000O000000
0o000000000000o
UNCERT.PROFILE
00OO0ooooo00oo0
DEMAND: SERVICE TYPE »4SATELLITE
NARROW- BANDMAX.DEMAND
000000ooo00ooo0
MIN.DEMAND
000O00O0O000OO0
UNCERT.PROFILE
000O000000O0O00
» 3WIDE -BAND
MAX. MIN.DEMAND DEMAND
0000o00000o0ooo
000oo0oooo0oo0o
UNCERT.PROFILE
000O0OOO0O0O0O0
133
DEMAND i SERVICE TYPESATELLITE « *
C253
YEAR12
567891011121314IS
YEAR123456789101112131415
NARROW-BAND WIDE-BANDMAX.DEMAND
O00000000000O00
MIN.DEMAND
O00O00OO00OO0O0
UNCERT.PROFILE
O0O00O000000000
MAX.DEMAND
000000000000000
MIN.DEMAND
OO00O000O00O000
UNCERT.PROFILE
0O0O0O0O0OO00O0
DEMAND I SERVICE TYPE #4SATELLITE
NARROW-BANDMAX.DEMAND
0OO0O00O0000000
MIN.DEMAND
000OO0O00O0O00O
UNCERT.PROFILE
000OOO00O000O00
« 5WIDE-BAND
MAX.DEMAND
0O0O0000000000O
MIN.DEMAND
0O0O00O0OO0O00
UNCERT.PROFILE
0O0OOO000O0000
O 0
134
C26D PRICE <K»/YR) : SERVICE TYPE »1NARROW-BAND WIDE-BOND
MAX. WIN. UNCERT. MAX. MIN. UNCERT.YEAR
1a345&789101112131415
PRICE PRICE PROFILE PRICE PRICE PROFILE000
17OOO170OO17000170OO1900019OOO19OOO190001900O19OOO19OOO19000
000
1 4000140OO14OOO1400O150OO1500015OOO15000150001500O1500015000
00044441616161616161616
000
170001700017OOO1700019OOO19OOO19OOO190OO1900019OOO1900O19000
000
1400014OOO14OOO14OOO15OOO15OOO15OOO15OOO15OOO15OOO15OOO150OO
00o44441616161616161616
C27] PRICE <K*/YR>: SERVICE TYPE #2
YEAR123456789101112131415
NARROW-BAND WIDE-BANDMAX.PRICE
000O0000000000
MIN.PRICE
0O00OO000O0OOo
UNCERT.PROFILE
00O00O0O000000
MAX.PRICE
000O00OO0000Oo
MIN.PRICE
00000000000000
UNCERT.PROFILE
0OOO0O0o0o0o0o
135
[283 PRICE <K*/YR)t SERVICE TYPE »3
YEAR1a34567a91011IS131415
MAX.PRICE
NARROW-BANDHIM. UNCERT.
WIDE-BANDMIN. UNCERT.
PRICE PROFILE PRICE PROFILE000000000000000
o0oo .ooo000o000o
00o000000000ooo
000000000000000
ooo00000o000000
ooooooooooooooo
C393 PRICE <K»/YR>i SERVICE TYPE *4
YEAR1234567B9
10. 11
12131415
NARROW-BANDMAX.PRICE
0000000000000o0
MIN.PRICE
000000000OO0000
UNCERT.PROFILE
00O000O00000000
WIDE-BANDMAX.
PRICE000000000000000
MIN.PRICE
000000000000000
UNCERT.PROFILE
000o0o0o0ooo0oo
136
C303* DEMAND DECREASE RESULTING
FROM A 25* PRICE INCREASE1. PROTECTED2. PROTECTED/PREEMPTIBLE3. UNPROTECTED/NON-PREEMPTIBLE4. PREEMPTIBLE
PRICE ELASTICITY DATANARROW-BAND35.035.035.035.0
WIDE-BAND35.035.035.035.0
C31D CORRELATION DATACORRELATION COEFFICIENT
TYPE OF SERVICEDEMAND DATA
1. PROTECTED2. PROTECTED/PREEMPTIBLE3. UNPROTECTED/NON-PREEMPTIBLEA. PREEMPTIBLE
PRICE DATA1. PROTECTED2. PROTECTED/PREEMPTIBLE3. UNPROTECTED/NON-PREEMPTIBLE4. PREEMPTIBLE
S/C CONTROL OPERATIONSENGINEERING EXPENSER4D EXPENSEG&A EXPENSEOTHER CAPITAL EXPENDITURES
NARROW-BAND
0.80.80.80.8
0,0,00
88aa
0.80.80.80.80.8
WIDE-BAND
0.O.0.0.
0.O.
8aaa
aa
o. ao.a
C3£] COST/EXPENSE DATAMAX. S/C UNIT COST <K*> 71700.0WIN. S/C UNIT COST <K*> 622OO.0S/C UNIT COST UNCERTAINTY PROFILE 13MAX. S/C NONRECURRING COST <K*> 5380O.0MIN. S/C NONRECURRING COST <K*> 3590O.0S/C NONREC. COST UNCERT. PROFILE 11MAX. INSURANCE % 18.0MIN. INSURANCE * 12.0INSURANCE UNCERTAINTY PROFILE £2
137
C33J COST/EXPENSE DATA (CONTINUED)S/C CONTROL OPERATIONS COST(X)
C343
YEAR1234567a9
101112131415
SUM K» &
C353
AMTS
YEAR12345&789
101112131*15
SUM K* t X AMTS
MAX. WIN.COST<X) COST(X)
0.0 0.00. 0 O.O0. O O. O7.5 2.56.O 2.05.0 1.75.0 1.74.2 1.44.2 1.44.2 1.44.2 1.44.2 1.45.0 1.75.0 1.75. 0 1.7
UNCERT.PROFILE
0O0444444444444
ENGINEERING EXPENSEMAX.<K»>20OO. O2000. O2000.0200O. O1500.01500.015OO. O15OO.O150O. 0150O. 0150O. 01500.0150O. 015OO. 0150O. 0
0
MAX.(K*>10OO.O10OO.O100O.O1000.02OOO.O20OO. 020OO.O2000.02000. O2000.02000.02OOO. 02OOO.O2OOO.O2OOO. 0
0
MIN.(K*>2OOO. 02000. 02OOO. 020OO. 01500.01500. 01500.01500. 01500.01500. 01500.01500. 01500.015OO. 01500.0
MIN.(K*)10OO. 010OO. 010OO. 01OOO.O2000. 02000. 02000.02000.020OO. 02000. 020OO. 020OO. 020OO. 020OO. 02OOO.O
UNCERT.PROFILE
111111111111111
R*DUNCERT.PROFILE
111111111111111
MAX.<*>
2. O2.02. O2.01.51.51.51.51.51.51.51.51.51.51.5
EXPENSEMAX.<*>
1.51.51.51.51.51.51.51.51.51.51.51.51.51.51.5
MIN.<X)
2.02.02.02.01.51.51.51. 51.51.51.51.51. 51.51.5
MIN.(X)
1.51.51. 51.51.51.51.51.5. 5.5.5.5.51.51. 5
UNCERT.PROFILE
111111111111111
UNCERT.PROFILE
11111111
138
C363
YEAR1
3456789101112131415
SUM K* & % AMTS
C373
MAX. MIN.G*A EXPENSE
UNCERT. MAX. MIN. UNCERT.<K«) <K») PROFILE <*> <*) PROFILE500.0IOOO.O1500.02OOO.O2500.03000.0300O. 030OO. 03000.03000.03000. 03000. 03000.03000. 03000. 0
1
CAPITAL
50O.OIOOO.O1500.O2000. O25OO.O30OO.O3000. O30OO. 0300O. 03000.03000. 030OO. 030OO. 03000. 0300O. 0
111111111111111
0.0O.O0.03.03.03.03.03.03.03.03.03.03.03.03.0
0.0O.O0.03. O3.03.03. O3.O3.03.03.03.03.03. 03.0
111111111111111
EXPENDITURE DATAOTHER CAPITAL EXPENDITURES
YEAR1a345&789101112131415
COST SPREADING
LAUNCH COSTINSURANCE
MAX.(K*)
0.00.0
3000.03000.0
0.00.00.00.00.00.00.0O.O0.00.00.0
FUNCTIONS
135.210O.O
S/C RECUR COST 20.0
MIN.(K*)
O.OO.O
2000. 02OOO. O
0.0O.OO.O0.00.00.00.0O.OO.OO.O0.0
255.00.048.5
UNCERT.PROFILE
001616O0000 -0O000O
YEAR3
9.80.031.5
40.00.0O.O
50. O0.00. 0
NONRECUR COST 79.0 21.0 0.0 0.0 0.0
139
C383 UNCERTAINTY PROFILE DATAPROFILE
I.D.12345678910111213141516171819£0
PROFILE INTERVAL1
0.500.300.300.350. 210.230.250. 160. 120. 150. 800. 150. 100.080.050. 100.030.050.030.03
20.250.250.300.400.320.300.35O. 490.320.340. 100.220.25O. 250.250.200.300.200.200.07
30. 150.200.200. 150.270.230.250.240.320.370.050.260.300.340.400.400.340.500.540.80
4O.O70. 150. 130.070. 150. 160. 100.090. 170. 120.030.220.250.250.250.200.300.20O. 2O0.07
50.03O. 100.070.030.050.080. 050. O20.070.020.020. 150. 100.080.050. 100.030.050. O30.03
140
PROFORMA INCOME STATEMENT <« THOUSANDS)
PROTECTEDPROTECTED/PREEMPT.UNPROTECTED/NON-PREEMPT.PREEMPTIBLE
TOTAL REVENUE
YEAR
3
0.0.0.0.0.0. *
0.o.0.0.o.o. *
0.0.0.0.0.0. «
12117.0.0.0.
12117.5777.*
72497.0.0.0.
72497.19439.*
LAUNCH OPERATIONSLAUNCH INSURANCESATELLITEOTHER
DEPRECIATION EXPENSES/C CONTROL OPERATIONSENGINEERING EXPENSERESEARCH » DEVELOPMENT
TOTAL OPERATIONS EXPENSE
0.0.0.0.0.o.
2000.10OO.3000.O. *
O.0.0.0.0.0.
200O.1000.3OOO.O. •
O.0.0.
209.209.0.
2000.10OO.3209.19. •
1588.1104.5476.425.8593.490.200O.1OOO.12082.4108. •
3713.2482.12169.425.
18789.2468.1500.20OO.24757.3553. *
GROSS MARGIN (*) 30OO.O. »
•30OO.O. *
-3209.19.*
34.1797.*
47740.17366.*
S/C NONRECURRING COST6 & A EXPENSEDEBT SERVICE EXPENSE
31695.5OO.O.
8425.1OOO.2416.
O.150O.7754.
O.2363.19184.
O.4675.3O158.
BEFORE TAX PROFITINCOME TAXINVESTMENT TAX CREDITAFTER TAX PROFIT
35195.12670.
O.22525.2202. *
-14841.-5343.
0.-9498.736.*
-12463.-4487.251.
-7726.1240.*
-21513.-7745.8427.-5341.2552. *
12907.4647.10196.18457.95O6.«
RETURN ON ASSETS <*> -4267.0. *
-798.1642.<
-7.11.*
-3.2.*
7.4. *
RETURN ON SALES <*> O.0. *
O.0. »
0.0. *
-24.25.*
22.27.*
• STANDARD DEVIATION 141
PROFORMA INCOME STATEMENT (• THOUSPNDS)
PROTECTEDPROTECTED/PREEMPT.UNPROTECTED/NON-PREEMPT.PREEMPTIBLE
TOTAL REVENUE
LAUNCH OPERATIONSLAUNCH INSURANCESATELLITEOTHER
DEPRECIATION EXPENSES/C CONTROL OPERATIONSENGINEERING EXPENSERESEARCH * DEVELOPMENT
TOTAL OPERATIONS EXPENSE
GROSS MARGIN (*)
S/C NONRECURRING COSTG t A EXPENSEDEBT SERVICE EXPENSE
BEFORE TAX PROFITINCOME TAXINVESTMENT TAX CREDITAFTER TAX PROFIT
RETURN ON ASSETS <*>
RETURN ON SALES <*>
84668.0.0.0.
84668.10769.*
3962.2637.12896.425.
19920.2503.1500.200O.25923.2560. »
58745.11103. »
0.5540.32386.
20619.7495.1131.14455.6567.*
6.3.*
16.16.*
83414.O.0.0.
83414.10743.*
4102.2718.13273.425.
20517.2557.1500.2OOO.26574.3248. »
56840.12672.*
0.5502.29707.
21630.7787.597.
14441.8924. *
7.4. *
16.13. •
92936.O.0.0.
92936.12212.*
4246.2799.13643.425.
21112.2436.1508.200O.27056.4225. *
65880.14729. »
0.5788.26267.
33825.12177.595.
22243.11257.*
11.5.*
22.15.*
4423.2896.14O84.425.
2182&.249O.1506.20OO.27823.5577.*
64811.159O2.*
0.5779.22O&0.
36972.13310.715.
24377.12793.*
14.7.*
25.16. *
4578.2978.14460.425.
22441.2513.1505.2OOO.28458.6351.«
62789.17617.*
0.5737.17593.
39458.14205.614.
25867.15623. «
15.8. *
26.21. «
* STANDARD DEVIATION142
PROFORMA INCOME STATEMENT (ft THOUSPNOS)
PROTECTEDPROTECTED/PREEMPT.UNPROTECTED/NON-PREEMPT.PREEMPTIBLE
TOTAL REVENUE
LAUNCH OPERATIONSLAUNCH INSURANCESATELLITEOTHER
DEPRECIATION EXPENSES/C CONTROL OPERATIONSENGINEERING EXPENSERESEARCH t DEVELOPMENT
TOTAL OPERATIONS EXPENSE
GROSS MARGIN (*)
S/C NONRECURRING COST6 & A EXPENSEDEBT SERVICE EXPENSE
BEFORE TAX PROFITINCOME TAXINVESTMENT TAX CREDITAFTER TAX PROFIT
RETURN ON ASSETS (%>
RETURN ON SALES (*>
72702.0.0.0.
72702.20025. *
5025.3212.15514.425.
24175.2019.1SO1.2OOO.29695.7551.*
43007.22394. »
0.5181.14408.
23418.8431.1735.16722.17466.*
9.8. *
16.46.*
55075.0.O.0.
55075.24303. *
6596.4024.19131.425.
30176.1552.1500.2000.35228.8199.*
19847.24914.*
0.4652.14088.
1107.398.6000.6709.
18893.*
4.a.*
-6.80.*
73464.O.0.0.
73464.23333. «
7850.4667.21971.425.
34913.2505.1501.20OO.40918.7432.*
32546.23753. »
0.5204.14712.
12630.4547.4737.12820.19209. *
7.8. *
10.51. »
85848.0.0.0.
85848.18930.*
6709.3787.1749O.425.
28410.2950.15O2.20OO.34862.7658. *
50986.22308. »
0.5575.12447.
32963.11867.1666.22762.20634. »
12.10. »
21.46. •
85590.0.0.0.
85590.21071.*
4677.2455.11000.216.
18348.2959.1502.2000.24809.6449. *
60781.24469.*
0.5568.7584.
47629.17146.343.
30826.23088. »
18.13.*
30.41. •
• STANDARD DEVIATION143
CASH FLOW PROJECTION (• THOUSANDS)
AFTER TAX PROFIT 0. O.INCREASE IN PAYABLES 2921. 1614.DECREASE IN RECEIVABLES 0. O.DECREASE IN CASH 0. 56.DEPRECIATION 0. O.
TOTAL CASH INFLOW 2921. 167O.
YEAR
3
0.4373.
0.0.
209.4582.
0.1268.
0.1.
8593.9862.
18649.32.O.
524.18789.37995.
LOSSDECREASE IN PAYABLESINCREASE IN RECEIVABLESINCREASE IN CASHCAPITAL EXPENDITURES
TOTAL CASH OUTFLOW
22525.0.0.
528.0.
23053.
9498.311.0.
292.36053.46154.
7726.1.O.
790.91315.99832.
5341.8.
2023.229.
93712.101315.
192.2902.1OO84.
6.43375.56559.
NET CASH FLOW -20132.1968.*
-44484.15952.*
-95250.16752.»
-91452.17095.*
-18564.25350.*
INDEBTEDNESS 20132.1968.*
64616.16144.»
159666.32080.*
251318.25054.»
269882.23101.4
DISCOUNT RATE <*)
1 2 3 4 5
10. 15. 20. 25. 40.
NET PRESENT VALUE "A"NET PRESENT VALUE "B"
•104199. -112052. -111458. -106939. -87386.102878. 33678. 12784. 5322. 543.
NET PRESENT VALUE -1321. -78374. -98674. -101616. -86843.95689.* 53308.* 34733.* 24743.* 12361.*
144
CASH FLOW PROJECTION <* THOUSANDS)
AFTER TAX PROFIT 14855. 15331.INCREASE IN PAYABLES 15. 127.DECREASE IN RECEIVABLES 135. 584.DECREASE IN CASH 489. 87.DEPRECIATION 19920. 20517.
TOTAL CASH INFLOW 35414. 36646.
YEAR
a
23077.147.278.71.
21112.44685.
25306.265.798.74.
21826.48270.
10
27303.9€4.912.36.
22441.51655.
LOSS 40O. 890. 834. 929. 1436.DECREASE IN PAYABLES 2707. 482. 393. 411. 198.INCREASE IN RECEIVABLES 2168. 374. 1869. 747. 68O.INCREASE IN CASH 3. 23. 27. 48. 174.CAPITAL EXPENDITURES 7817. 62O4. 65O6. 8911. 22627.
TOTAL CASH OUTFLOW 13094. 7974. 9628. 11047. 25115.
NET CASH FLOW 22320.19575.»
28672.18680.*
35057.19763.*
37223.20O31.*
26541.21248.*
INDEBTEDNESS 247561.35896.»
218889.51412.*
183832.68192.*
146609.83943.*
120068.9763O.*
* STANDARD DEVIATION145
COSH FLOW PROJECTION <• THOUSANDS)
AFTER TAX PROFITINCREASE IN PAYABLESDECREASE IN RECEIVABLESDECREASE IN CASHDEPRECIATION
TOTAL CASH INFLOW
11
18995.1405.3462.21.
24173.48058.
12
11201.638.4036.94.
30176.46145.
YEAR
13
16369.137.1007.302.
34913.52727.
14
25620.33.604.286.
28410.54955.
15
33486.1.
923.165.
18348.52923.
LOSS 2273. 4492. 3548. 2857. 266O.DECREASE IN PAYABLES 117. 519. 1670. 1585. 912.INCREASE IN RECEIVABLES 365. 1093. 4079. 2672. 68O.INCREASE IN CASH 254. 115. 25. 6. O.CAPITAL EXPENDITURES 42379. 45131. 24532. 7308. 1199.
TOTAL CASH OUTFLOW 45388. 5135O. 33853. 14429. 5651.
NET CASH FLOW 2670.22062. *
-5205.21919.•
18874.24978.<
40526.20800.»
47272.1802O.*
INDEBTEDNESS 117398.106257.*
122603.110353.*
103729.117716.*
63203.13OO17.*
15931.144771.*
• STANDARD DEVIATION146
PROBABILITY Of ANNUAL LAUNCH ATTEMPTS
LAUNCHATTEMPTS
PROBABILITY OFINDICATED QUANTITY <PERCENT)
109a7654321O
00O00000O0
100
0O0O000000
100
00000OOOOO
100
0O00O000O
1000
0000000330670
00000O0O114as
000000000891
O0O000O0O9
91
YEAR 8
AVERAGEVALUE .00 .00 .OO 1.00 1.37 . 15 09 09
STANDARDDEVIATION .00 .OO .00 .00 .55 .38 30 30
H7
PROBABILITY OF ANNUAL LAUNCH ATTEMPTS
LAUNCHATTEMPTS
PROBABILITY OFINDICATED QUANTITY (PERCENT)
109a7654321O
O00OOOOO1109O
0OOO0OO01990
0O00000012673
0O0000O1245124
OO0O0O01154836
0OO0OOO032474
OO0000OO0595
YEAR 10 11 12 13 14 15
AVERAGEVALUE 11 11 28 1.01 81 .30 06
STANDARDDEVIATION 32 34 47 .71 73 .52 25
148
PROBABILITY OF ANNUAL SPACECRAFT PURCHASES
NUMBER OFSPACECRAFT
PROBABILITY OFINDICATED QUANTITY (PERCENT)
109676343ai0
0000000000
100
0000000000
100
o0oo00ooo0
100
000000000946
0000000225730
0000o00001486
00o0o0000892
0000o00o0891
YEAR 8
AVERAGEVALUE .00 ,00 00 .94 1.28 . 14 09 09
STANDARDDEVIATION .00 00 00 .24 .50 .36 29 29
149
PROBABILITY OF ANNUM. SPACECRAFT PURCHASES
NUMBER OFSPACECRAFT
PROBABILITY OFINDICATED QUANTITY (PERCENT)
109876543£1O
0000000001090
000000000991
000000001
2475
00OO0O00215227
00000001
134740
0000000022374
000O0OOOO593
YEAR 10 11 12 13 14 15
AVERAGEVALUE 10 10 95 75 28
STANDARDDEVIATION 31 32 70 71 51 .24
150
1. Report No.
NASA CR-1749792. Government Accession No. 3. Recipient's Catalog No.
4. Title and Subtitle
Evaluation of Spacecraft Technology Programs(Effects on Communication Satellite BusinessVentures) - Volume II
5. Report Date
September 1985
6. Performing Organization Code
7. Author(s)
Joel S. Greenburg, Carole Gaellck, Marshall Kaplan,Janls Flshman, and Charles Hopkins
8. Performing Organization Report No.
None
10. Work Unit No.
9. Performing Organization Name and Address
Econ, Inc.1800 Diagonal Road, Suite 290Alexandria, Virginia 22314
11. Contract or Grant No.
NAS 3-23886
12. Sponsoring Agency Name and Address
National Aeronautics and Space AdministrationWashington, D.C. 20546
13. Type of Report and Period Covered
•Contractor Report
14. Sponsoring Agency Code
506-62-22
15. Supplementary Notes
Final Report. Project Manager, Karl A. Faymon, Power Technology Division, NASALewis Research Center, Cleveland, Ohio 44135. Joel S. Greenburg, CaroleGaellck, and Janls Flshman, Princeton Synergetics, Inc., Princeton, New Jersey08540; Marshall Kaplan, Spacetech Inc., P.O. Box 1109, State College,Pennsylvania 16801; Charles Hopkins, Econ, Inc., San Jose. California 95117.
16. Abstract
Commercial organizations as well as government agencies Invest 1n spacecraft (S/C)technology programs that are aimed at Increasing the performance of communica-tions satellites. The value of these programs must be measured 1n terms of theirImpacts on the financial performance of the business ventures that may ultimatelyutilize the communications satellites. An economic evaluation and planning capa-bility has been developed and used to assess the Impact of NASA on-orb1t propul-sion and space power programs on typical fixed satellite service (FSS) and directbroadcast service (DBS) communications satellite business ventures. Typical FSSand DBS spin and three-axis stabilized spacecraft were configured 1n the absenceof NASA technology programs. These spacecraft were reconfigured taking Intoaccount the anticipated results of NASA specified on-orb1t propulsion and spacepower programs. In general, the NASA technology programs resulted 1n spacecraftwith Increased capability. This report describes the developed methodology forassessing the value of spacecraft technology programs 1n terms of their Impact onthe financial performance of communication satellite business ventures. Resultsof the assessment of NASA specified on-orb1t propulsion and space power technologyprograms are presented for typical FSS and DBS business ventures. This reportconsists of two volumes. Volume 1 describes the methodology and contains theresults of the analyses performed for the on-orb1t propulsion and space powertechnology programs. Volume 2 contains appendices describing the DOMSAT II Modeland data base and Includes user and programmer documentation.
17. Key Words (Suggested by Author(s))
Communications satellites; On-orb1tpropulsion; Gallum arsenide solarce l l s ; Economic analyses
19. Security Classif. (of this report)Unclassi f ied
18. Distribution Statement
Unclassif iedSTAR Category
20. Security Classif. (of this page)Unclassi f ied
- unlimited32
21. No. of pages155
22. Price'A08
"For sale by the National Technical Information Service. Springfield. Virginia 22161
National Aeronautics andSpace Administration
Lewis Research CenterCleveland. Ohio 44135
Official BusinessPenalty for Private Use $300
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ADDRESS CORRECTION REQUESTED
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