maritime domain awareness: c4i for the 1000 ship navy agnello...
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1
Maritime Domain Awareness:
C4I for the 1000 Ship Navy
Agnello M., Astudillo J., Brown J., Jauregui M., and Krikorian B.,
AFCEA SOLUTIONS Series - George Mason University Symposium
“Critical Issues in C4I”
17 May 2010
2
Overview
• Introduction
• Problem Definition
• TSN Tenets
• Operational Domain Analysis
• System Domain Analysis
• Summary
• Q&A
3
Introduction
4
Preface
• Define a Thousand Ship Navy (TSN)-C4I Architecture
– System of systems based
– Define an information exchange standard to enable collaboration within TSN
• Apply structured systems engineering methodology
• Apply a representative set of NPS MSSE tools and techniques
– COREsim
– CADRAT
– Lattix
– Arena
– COCOMO II
– COSYMO
– MS Excel
5
Definition
• Overarching model
– Global Maritime Partnership (GMP) is the enterprise
– TSN-C4I capability is an enabling system of the GMP enterprise
• Title does not indicated size, but an approach
“The 1,000-ship Navy is not a thousand gray hulls flying the American
flag, but rather a voluntarily global maritime network that ties together
the collective capabilities of free nations to establish and maintain a
dramatically increased level of international security in the maritime
domain” (Martoglio and Morgan 2005)
6
Purpose
• GMP-TSN C4I to enable international security:
– Protection of Sea Lines of Communication (SLOC) fostering global
economic stability
– Humanitarian aid to peoples persecuted, exploited, and exposed to
disasters to foster political and social stability
• GMP relies on international maritime cooperation
• GMP sanctioned by U.S. National Security Council in 2008 as
an interagency strategy (Swartz and Duggan 2008)
7
History & Background
• Over millennia a large naval force has been the historical
measure of maritime dominance
– Persians employed 1000 ships to subdue the Greeks
– Greek states raised 1000 ships to sack Troy
– Greek states form the Delian League, providing commercial success for
the eastern Mediterranean
– Pax Romana subsumes and dominates the Greeks, providing prosperity
for the entire Mediterranean
8
Modern Era
• 1800-Present day involve vast improvements in technology and allow maritime dominance with far fewer ships
– U.K. employs 950 ships to achieve Pax Britanica, accounting for 2/3 of Europe's industrial growth
– Open Alliance provides mutual security among geopolitical allies
– NATO provides multi-national security for Atlantic Ocean region
• GMP- TSN to “watch over all the seas” (Sakhuja 2007)
9
Problem Definition
10
Threats
• Transnational
– Piracy, human trafficking, smuggling, etc.
– $150 million in ransoms (2008)
• Disasters requiring humanitarian aid
– Catastrophic storms, loss of arable lands, coastal flooding, etc.
– Cyclone Nargis negatively affected 2.4 million (2007)
• Environmental
– Dumping, oil spills, contamination, emissions…
– Exxon Valdez (1994)
– Gulf of Mexico (2010)
11
Existing Architecture Gaps
• U.S. Maritime Domain Awareness
– Lacks international participation
– U.S. centric
• FORCENet
– Naval Forces only
– Does not address humanitarian aid coordination
• CENTRIXS
– Classified datasets
– Limited to U.S. and its allies
• Caspian Guard
– Regional solution
– Politically constrained
12
Defining Statements
• Transnational Criminal Threat: “Modern-day pirates and other criminals [who] are well organized and equipped, often possessing advanced communications, weapons, and high speed craft to conduct smuggling of people, drugs, weapons, and other contraband [e.g. counterfeiting, illegal fishing, etc.], as well as piracy.” (DON CIO 2009)
• Humanitarian assistance: “conflict, disaster, and displacement from physical harm, persecution, exploitation, abuse, malnutrition and disease, family separation, gender-based violence, forcible recruitment, and other threats [to humanity]”. (U.S. Department of State. 2007)
13
TSN Tenets
14
Tenets and Impact
• Former CNO Admiral Mullen (U.S. Department of State 2005)
– U.S. Naval operations to have a broader range of maritime missions
– Promote global economic stability
– Collaborative effort between agencies, nations, and the private sector
• Mutual Interest
– Navies affect the global
economy
• Tenets form:
– International
cooperation
– Employ common
transparent methods
– Politically agnostic
voluntary participation
Impacts of Naval
Forward Presence
Foreign Exchange
Markets
Share Markets
Commodity
Markets
Oil Markets
Short Run Stock
Foreign Exchange
Markets
Share Markets
Commodity
Markets
Oil Markets
Longer-run
Adjustment
Increased
Effciency
Higher Rates of
Growth
Higher Rates of
Investment
Lower Inflation
Benefits for US
Economy
Increased
Importance of
Private Capital
Flows and FDI
Advances
Telecommunciations
and Transport
Integration of
World Capital
Markets
Increased Trade
Globalization
Components
Changes in Labor
Movement
Lowers price
Lowers price
raises index
strengthens
dollar
stabilizes
lower index
stable dollar
increase of
value
15
Operational Domain Analysis
16
Overview
Process Method Tool
Requirements Analysis Dendritic Decomposition ©Microsoft Visio
Functional Analysis Structure Analysis and Design ©ViTech COREsim®
Analysis of AlternativesAoA ©Microsoft Excel
Discrete Event Simulation Rockwell International Arena
Cost AnalysisCOCOMO II ©Softstar Systems Costar™ 7.0
COSYSMO NPS Web Site
17
Intelligence Functions
• Aligns with Network Centric Operations’ (NCO) communication service
orientated paradigm
• Each member is both a provider and consumer of information
C2 Functions
18
• Based upon Lawson’s model
Perform
Command and
Control
Sensor
Environment
Assess
Intentions and
Capabilities
Select
Alternatives
Plan Details
Detect Object and Conditions
Classify Object and Conditions
Identify Objects and Conditions
Develop Deviation Corrections
Develop Alternatives
Identify Criteria
Optimize Alternatives
Generate COAs
Transform Information
Evaluate Capabilities
Evaluate Intentions
Identify Resources
Predict Probability of Success
Generate Commands
Inform Community
Issue Commands
Direct
Response
Track Objects and Conditions
Evaluate Deviation
Evaluate Options
Develop Implementation
Prepare for Operations
Stakeholder organization
19
International
Signatory
Organizations
Private Vessels
Commercial
Vessels
Constabulary
Forces
Humanitarian
Aid
Organizations
Naval Forces
Evaluation Factor Weight
Political Feasibility 0.3
Arena Resource Duration 0.2
Arena Resource Usage 0.1
Number of Relationships 0.1
Number of New Capabilities 0.1
Use of Legacy 0.2
Sum 1
TSN Score Weighting
• Committee model offers best resource efficiency
− Promotes widespread stakeholder involvement
− Other models considered: Group, Team; Marakas (2003)
20
Arena Process Threads
Response
Request
Event
Background
Sense
Environment
Assess
Intentions and
Capabilities
Generate
COAs
Select
AlternativesPlan Details
Direct
Response
Task Data
CollectionProcess Data
Post
Intelligence
Products
Use
Intelligence
Update
Background
Additional
Intelligence
Required?
No
Yes
Situational
Awareness
Updates
Sense
EnvironmentProcess Data
Post
Intelligence
Products
Use
Intelligence
Products
Situational
Awareness
Updated
Intelligence
Posting
Task Data
CollectionProcess Data
Post
Intelligence
Products
Use
Intelligence
Products
Intelligence
Posted
Response
Situational Awareness
Intelligence
21
OV-1
22
Operational Node Diagram
23
System Domain Analysis
Overview
24
Process Method Tool
Functional Grouping Analysis
Interpretive Structural
ModelingProfessor Hitchin’s ©CADRAT
Design Structure Matrix
AnalysisLattix Software, Lattix
Cost AnalysisCOCOMO II ©Softstar Systems Costar™ 7.0
COSYSMO NPS Web Site
25
COREsim® FFBD’s
Provide Intelligence
Provide Command and Control
Operate Unit
26
COREsim® FFBD’s
Transnational Threat Operational Scenario
27
System to Operational Matrix
Ass
ess
Inte
nti
on
s an
d
Dir
ect
Res
po
nse
Gen
erat
e C
OA
s
Pla
n D
etai
ls
Sel
ect
Alt
ern
ativ
es
Sen
se E
nv
iro
nm
ent
Po
st I
nte
llig
ence
Pro
du
cts
Pro
cess
Dat
a
Tas
k D
ata
Co
llec
tio
n
Use
In
tell
igen
ce P
rod
uct
s
Ale
rt L
and
No
de
Ale
rt T
SN
No
de
Co
ord
inat
e U
nit
Op
erat
ion
s
Per
form
Un
it A
ctio
n
Pro
cess
Un
it I
nfo
rmat
ion
Pro
vid
e E
nv
iro
nm
enta
l A
lert
Pro
vid
e U
nit
Sen
sed
Co
nta
cts
Manage
Communications
and Networking
X X X X X X X X X X X X X X X X X
Develop Situation
AwarenessX X X X X X X X X X X
Develop Object of
Interest Tracks X X
Obtain Intelligence
Products X X X X X X X
Develop and
Evaluate Plans X X X X X X X
Coordinate and
Monitor
Operations
X X X
Generate After
Action Evaluation X
Operational Functions
System Functions
28
System Functional Hierarchy
• Level 1 and 2 system functions
• Ordered intuitively from left to right culminating in full TSN
C4I functionality
29
A-1 System Context Diagram
30
Assessment using DSM
• Operational DSM with a score of 72 percent substantiates ISM with score of 1.8
• System DSM with a score of 80 percent substantiates ISM with score of 1.5
Exte
rnal E
ntity
Node
Task D
ata
Colle
ctio
n
Pro
cess D
ata
Post In
tellig
ence P
roducts
Use In
tellig
ence P
roducts
Sense E
nviro
nm
ent
Assess In
tentio
ns a
nd C
apabilitie
s
Genera
te C
OA
s
Sele
ct A
ltern
ativ
es
Pla
n D
eta
ils
Dire
ct R
esponse
Unit N
ode
1 2 3 4 5 6 7 8 9
10
11
12
1 1 1 1 1
2 3 1
3 1 2 1 1 1 1
4 1 2
5 2 1 1 2
6 3 1 1 5 1
7 1 2 3
8 1 2
9 1 1 6
10 5 3
11 1 3
12 1 1 1Unit Node
C2 N
ode
Sense Environment
Assess Intentions and Capabilities
Generate COAs
Select Alternatives
Plan Details
Direct Response
$root
External Entity Node
Inte
ll Node
Task Data Collection
Process Data
Post Intelligence Products
Use Intelligence Products
Exte
rnal
Asset M
anagem
ent C
SC
I
Situ
atio
n A
ware
ness C
SC
I
Fusio
n C
SC
I
Inte
lligence C
SC
I
Mis
sio
n P
lannin
g C
SC
I
Mis
sio
n O
pera
tions C
SC
I
Mis
sio
n A
naly
sis
CS
CI
Info
rmatio
n R
ele
ase C
SC
I
Com
munic
atio
ns a
nd N
etw
ork
Managem
ent S
erv
ice
1 2 3 4 5 6 7 8 9
10
1 1 1 3 5
2 1 1 2
3 3 1 7
4 3 # 4
5 3 1 2
6 3 1 5 # 1 5
7 1 1 4
8 1 1 1 4
9 6
10 3
Mission Analysis CSCI
Information Release CSCI
Communications and Netw ork Management Service
Fusion CSCI
Intelligence CSCI
Mission Planning CSCI
Mission Operations CSCI
$root
External
Asset Management CSCI
Situation Aw areness CSCI
Operational Architecture
System Architecture
31
Requirements and CTP’s
• Example Requirements– • The TSN C4I system hardware must scale effectively with respect to
size, weight, and power variable for use on large (GWT > 300 tons) or small vessels (GWT > 1 ton) (objective).
– • The TSN C4I system operational availability must be 0.99 (threshold).
– • The TSN C4I system must support 24/7 continuous operations.
– • The TSN C4I system should operate in all climate zones.
Categories Parameters Values
Message Response Situation Awareness Update 30 minutes
Data Exchange Latency 5 minutes
Positional Accuracy Spatial Mean Error 3 meters
Language Translation Latency < 10 seconds
Accuracy < one error per 100 words
Language Types English, French, Spanish,
Japanese, Chinese, German
Reliability MTBF >500 hours
MTTR < 1 hour
Continuity of Operations Recovery Time Objective < 8 hours
Recovery Point Objective < 8 hours
32
Information Exchange
• 15 unique TSN network elements identified
• Each network element is further decomposed into specific data
elements patterned after AIS & LRIT standards
• System elements are derived from the COREsim® model
Element Nomenclature Element Nomenclature
TSN-001 Static Vessel Element TSN-009 International Objectives Element
TSN-002 Dynamic Vessel Element TSN-010 Common Operating Picture Element
TSN-003 Event and Request Element TSN-011 Communications Link Element
TSN-004 Planning Element TSN-012 Network Management Element
TSN-005 Asset Reporting Element TSN-013 Tracking Element
TSN-006 Open-Source Element TSN-014 Personal Identification Element
TSN-007 Object Information Element TSN-015 Logistics Request Element
TSN-008 Intelligence Report Element
33
Information Exchange
• COREsim® derived unique information and hardware configuration elements required for TSN
• Items are architected as severable efforts for integrator development
• Each element is further decomposed into specific elements
CSCI Nomenclature
SW-001 Distributed Communications and Networking Management CSCI
SW-002 Distributed Situational Awareness Development CSCI
SW-003 Information Fusion CSCI
SW-004 Distributed Intelligence Product Acquisition CSCI
SW-005 Distributed Mission Analysis CSCI
SW-006 Distributed Mission Operations CSCI
SW-007 Distributed Mission Planning CSCI
SW-008 Asset Management CSCI
SW-009 Distributed After Action Report Generation CSCI
HWCI Nomenclature
HW-001 External Communications HWCI
HW-002 Networking HWCI
34
SE Cost Model Drivers
Application Cost Drivers
Team Cost Drivers
Size Drivers
• Cost basis– $60/hour labor rate
– 152 hour work-month
• Effort estimate (C.L. 50%)– 448 labor-months
– $4.09M
35
SW Cost Model Drivers
Scale Drivers
Score Value
Very Low 1
Low 2
Nominal 3
High 4
Very High 5
Extremely High 6
Early Design Factors
Early Design
Effort Multiplier
Post-Architecture Effort
Multiplier
Post-Architecture
Score
Early Design
Score
Reliability (RELY) Very High 5
Database size (DATA) High 4
Complexity (CPLX) Very High 5
Product
Reliability and
Complexity (RCPX) Documentation (DOCU) Nominal 3
5 Very
High
Required
Reusability
(RUSE)
Reusability (RUSE) Very High 5 5 Very
High
Time constraint (TIME) Nominal 3
Storage constraint (STOR) Nominal 3 Platform
Difficulty (PDIF) Platform volatility (PVOL) Nominal 3
3 Nominal
Analyst capability (ACAP) Nominal 3
Programmer capability (PCAP) Nominal 3
Personnel
Capability
(PERS) Personnel continuity (PCON) Nominal 3
3 Nominal
Analyst experience (AEXP) Nominal 3
Programmer experience (PEXP) Nominal 3 Personnel
Experience
(PREX) Language experience (LTEX) Nominal 3
3 Nominal
Software tool usage (TOOL) Nominal 3 Facilities (FCIL)
Multisite development (SITE) Very High 5 4 High
Development
Schedule (SCED) Development schedule (SCED) Nominal 3 3 Nominal
• Cost basis– $60/hour labor rate
– 152 hour work-month
• Effort estimate (C.L. 80%)– 612.5 labor-months
– $5.59M
36
Summary/Future Work
37
Concept and Problem
• The Global Maritime Partnership (GMP) enterprise objective is to pursue an international consensus of cooperating national navies to stabilize global maritime operations, a concept referred to as the Thousand Ship Navy (TSN)
• There exists a lack of a C4I system that enables a TSN to coordinate response to transnational threats, events compelling humanitarian assistance, and environment governance
• TSN shifts the historical military coalition to an inclusive participatory and voluntary maritime alliance with a global economy focus
38
Approach
• Develop a TSN C4I operational architecture, system
architecture, and corroborating analysis
• Information exchange standard to support TSN
• Analysis of Alternatives (AoA) supported by Arena’s Discrete
Event Simulation (DES)
• The analysis considered team, group and committee
organizational models for TSN
• Functional analysis methods transformed operational functions
into system functions that enabled the determination of
structure, process flow, inputs and outputs in the system domain
39
Future Work
• This study architected and cost estimated the follow-on design
• Effort serves as the basis for
– Establishing a full set of stakeholder capabilities
– Sub-system level hardware and software block diagrams
– Information exchange data structure
– Performance analysis
– HW and SW CI platform cost
– Suitability Analysis
– Life cycle cost
40
References
41
References (1of 2)
• Martoglio, C. W., RADM USN, and Morgan J. G., ADM USN. 2005. “The 1000-Ship Navy: Global Maritime Network”, United States Naval Proceedings 131 11: 14-18.
• Swartz, Peter. M., Duggan K. 2008. “U.S. Navy Capstone Strategies Visions & Concepts (1970 – 2009)”, downloaded 11 April 2009 from http://www.cna.org/documents/D0019819.A1.pdf.
• Sakhuja, V. 2007. “Any Asian takers for a 1000 Ship Navy”, downloaded 20 June 2009 from http://www.opinionasia.org.
• U.S. Department of State. 2005. “International Outreach and Coordination Strategy for the National Strategy for Maritime Security” downloaded 12 July 2009 from http://www.dhs.gov/xlibrary/assets/HSPD_IOCPlan.pdf.
• U.S. Department of Navy, Chief Information Officer (DON CIO). 2009. “Maritime Domain Awareness Architecture Management Hub Plan”, downloaded 10 April 2009 from http://www.doncio.navy.mil/Download.aspx?AttachID=876.
42
References (2of 2)
• U.S. Department of State. 2007. “Strategic Plan Fiscal Year 2007-2012”,
downloaded 24 April 2009
http://www.state.gov/documents/organization/86291.pdf.
• Keegan, J. G., Kelliher, T. P., and Oliver, D.W. 1997. Engineering
Complex Systems with Models and Objects, New York, New York:
McGraw-Hill.
• Marakas, George M. 2003. Decision Support Systems, Upper Saddle River,
New Jersey: Prentice Hall.
• Bayne J. PhD, and Paul R. PhD. 2005. “Scale-free Enterprise Command
and Control Unified Command Structures”, Technical Report for 10th
International Command and Control Research and Technology
Symposium, Echelon 4 Corporation, Thiensville, Wisconsin.
• Hwang J., Schutzer D., Shere K., Vena P., eds. 1982. Selected Analytical
Concepts in Command and Control, New York, Gordon and Breach
Science Publishers.
43
Back-up
44
Political Feasibility
Value Sum
1,1,1 3
2,1,1 4
2,2,1 5
2,2,2 6
3,2,3 8
3,3,3 9High value added, High sense of fair play, High advocacy
Dimension ranking
Political Feasibility
Score
10
20
40
60
80
Medium value added, Low sense of fair play, Low advocacy
Medium value added, Medium sense of fair play, Low advocacy
Medium value added, Medium sense of fair play, Medium advocacy
High value added, Medium sense of fair play, High advocacy
Low value added, Low sense of fair play, Low advocacy
90
Political Feasibility Score
y = -1.6667x3 + 17.5x2 - 35.119x + 30
0
20
40
60
80
100
3 4 5 6 8 9
Sum Weight
Scale
d S
co
re
45
Stakeholders
• First order categorical representation of the TSN community
• TSN relies heavily on International Signatories
46
Dendritic Model
• Parent-child data structure
• Decomposition flows from left to right
• Organizes functions into different levels of abstraction
Parent Function A
Child Function A1
Child Function A2
Child Function A3
Child Function A4
Parent Function B
Child Function B1
Child Function B2
Child Function B3
Child Function B4
Parent Function C
Child Function C1
Child Function C2
Child Function C3
Child Function C4
47
Functional Modeling
• Level of structure abstraction includes classification,
interconnection, and aggregation (Keegan et al. 1997)
• Establishes the relationship framework between the classes of
model entities
48
DoDAF
• DoDAF models in CORESim® subscribe to version 1.5
• Seven Operational Views (OV-1* through OV-7)
• Ten System Views (SV-1 through SV-10)
• One Technical View (TV-1)
Mi li tary Un it Send Coordination
Inte l li gence Receive Safety /Distress Summ ary
Constabulary Uni t Send Inte ll ig ...
Maritim e Comm ercia l Send Tracks
Inte l li gence Receive LRIT Inform ation
Se
a P
OE
Re
ceiv
e G
MS
A
Mi li tary Un it Send Inte l li gence
Hum anitarian Unit Re ceive GMS A
Constabulary Uni t Receive GMSA
Mi li tary Un it Send Movem ent
Constabulary Uni t Send Tracks
Ma
riti
me
Pri
va
te P
rov
ide
Ex
plo
ita
ble
Fe
atu
res
TSN Receive Inte ll ige nce Inform ation
Maritim e Comm ercia l Receive P RC Inform ation
Maritim e Comm ercia l Receive P NT
TSN Receive Poli cy In formation
Hum anitarian Request
Maritim e P ri vate Send Tracks
Maritim e Comm ercia l Send Mov ement
TSN Receive Law Enforcem ent Informatio n
PRC Receive GMSA
Maritim e P ri vate Send Env ironm ent Alert
Constabulary Uni t Receive Inte l li ge...
Maritim e Comm ercia l Prov ide E xploitable Features
TSN Send Inte ll igence Inform ation
Com mercia l Enterprise Receive GMSA
Mi li tary Un it Send Env i ronm ent Alert
Maritim e Comm ercia l Send Own ship Inform ation
Inte l li gence Receive Securi ty Alert Sum m ary
Hum anitarian Unit Prov ide Exploitable Features
Hum anitarian Unit Re ceive PNT
Maritim e P ri vate Rece ive GMSA
Mi li tary Un it Receive PRC Inform ation
Constabulary Uni t Send Env ironm ent Ale rt
Sea POE Receive Env ironment Inform ation
Inte l li gence Receive Env i ronm ent Inform ation
Maritim e Comm ercia l Send Security Alert
Constabulary Uni t Pro v ide Exploi table Fe atures
Constabulary Uni t Send Coordinat...
Constabulary Uni t Receive PRC Inform ation
Inte l li gence Receive AIS Inform ation
Constabulary Uni t Receive USCG Message
Maritim e P ri vate Rece ive PNT
Mi li tary Un it Receive GMSA
NGO Receive GMSA
Constabulary Uni t Send Safety /Distress Alert
NCA Receive GMSA
Mi li tary Un it Send Tra cks
TSN Send Tracks
Mi li tary Un it Prov ide Exploi table...
Mi li tary Un it Receive PNT
Constabulary Uni t Send Movem ent
Maritim e Comm ercia l Send Safety & Distress Alert
TSN Send Constabula ry Unit COA
Maritim e Comm ercia l Send Env ironment Alert
Hum anitarian Unit Se nd Tracks
Mi li tary Un it Receive Inte l li gence
TSN Receive PNT
Maritim e P ri vate Send Safety & Di stress Alert
Constabulary Uni t Receive PNT
Maritim e Comm ercia l Receive GMSA
1.1
C2.TSN
Node
1.2
Port.Sea
Node
1.3
Uni t.Constabulary
Node
1.4
Uni t.Huma nitari an
Node
1.5
Uni t.Mari tim eCom mercia l
Node
1.6
Uni t.Mari tim e Private
Node
1.7
Uni t.Mil itary
Node
1.8
Cel l.Inte ll i gence
Node
EXT.1
External Nodes
External
Date:Saturday , August 01, 2009
Author:Adm ini stra tor
Num ber:1
Nam e:TSN
* OV-1 developed in ©Microsoft Visio
49
Use of Patterns
• Shows the relationships between operational domain and system domain
• Operational patterns represent recurring approaches for conducting activities, operational functions, in a given mission context
50
Interpretive Structural Modeling (ISM)
• Graphs allow the architect/designer to visualize the
relationships between functions and components
• ISM analysis uses “strength of association” to represent the
relative importance of one relationship to another
51
Design Structure Matrix (DSM)
• DSM analysis provides an objective score of the operational and system stability based upon the results of functional analysis and interface development
• Provides insight of series, parallel, and coupled patterns that visually represent feedback patterns
52
Organizational Alternatives
• Determine which organizational model is best suited for the operational concept of TSN C4I
• Three generalized, multi-stakeholder organizational models are selected from a paper by Marakas (2003)
International Signatory
Organizations
Humanitarian Aid
Organizations
Commercial Vessels
Private Vessels
Naval Forces
Constabulary Forces
Constabulary
Forces
Naval Forces
Private Vessels
Commercial
Vessels
Humanitarian Aid
OrganizationsInternational Signatory
Organizations
Constabulary
Forces
Naval Forces
Private Vessels
Commercial
Vessels
Humanitarian Aid
OrganizationsInternational Signatory
Organizations
Team Organization
Group Organization
Committee Organization
53
Characterization and Scoring
C4I Functions vs. Stakeholders
Co
nsta
bu
lary
Fo
rces
FB
I/In
terp
ol
Board
er
Patr
ol/C
usto
ms
Port
Polic
e
Coast G
uard
Navie
s
Surf
ace C
om
bata
nts
Aircra
ft C
arr
iers
Patr
ol C
om
bata
nts
Mobile
Logis
tics
Coasta
l D
efe
nse
Pri
vate
Vessels
Ple
asure
Researc
h
Passenger
Private
Fis
hin
g
Co
mm
erc
ial S
hip
pin
g In
du
str
y
Oil
Food
Raw
Mate
rials
Consum
er
Pro
ducts
Fis
hin
g Industr
y
Hu
man
itari
an
Aid
Org
an
izati
on
s
Inte
rnational R
ed C
ross
World F
ood P
rogra
m
Peace C
orp
s
Docto
rs W
ithout B
oard
ers
Inte
rnati
on
al O
rgan
izati
on
s
United N
ations
Inte
rnational M
aritim
e O
rganiz
ations
NA
TO
Perform Command and Control
Sense Environment
Assess Intentions and Capabilities
Generate COA's
Select Alternatives
Plan Details
Direct Response
Produce Intelligence
Task Data Collection
Process Data
Post Intelligence Products
Use Intelligence Products
Provide Communications
Transmit Information
Receive Information
Involved Legacy
Involved New
Not Involved O
N
L 0
0
0
Evaluation Factors Group Alternative Score Weight Score Team Alternative Score Weight Score Committee Alternative Score Weight Score
Political Feasibility
Arena Mission Duration
Arena Resource Usage
Number of Relationships
Number of New Capabilities
Use of Legacy
Score
Evaluation Factors Group Alternative Score Weight Score Team Alternative Score Weight Score Committee Alternative Score Weight Score
Political Feasibility
Arena Resource Duration
Arena Resource Usage
Number of Relationships
Number of New Capabilities
Use of Legacy
Score
Evaluation Factors Group Alternative Score Weight Score Team Alternative Score Weight Score Committee Alternative Score Weight Score
Political Feasibility
Arena Resource Duration
Arena Resource Usage
Number of Relationships
Number of New Capabilities
Use of Legacy
Score
Average
Disaster Relief/Protect Environment
Humanitarian Aid
Transnational Threat
• Organizational matrix identifies
– Preferred TSN organizational approach
– Based on highest aggregate score
• Stakeholder matrix identifies– Relationships between
stakeholders and functions
– New capabilities required by each stakeholder
54
Arena Simulation
• Based on 3 system process threads
– Conduct response
– Perform SA
– Gather intelligence
• Exponential arrival threat generation
• Triangle distribution modeling for each task in accordance with its organizational model
Integrate
Min Max
Mode
Resultant Team Distribution
Time (Parallel)
Min Max
Mode
Hub
Stakeholder
Min Max
Mode
Typical Distribution Time
Spoke
Stakeholder
Integrate
Min Max
Mode
Resultant Group Distribution
Time (Parallel)
Min Max
Mode
1 2 3 4 5
Results from increasing
Group Members
Min Max
Mode
Spoke #1
Min Max
Mode
Typical Distribution Time
Spoke N
. . .
Where N is 1 to 5
Min/N Max/N
Mode/N
From Group Distribution
New Min New Max
New Mode
Committee Distribution TimeMin/N x (1+ N x 0.1) Max/N x (1 + N x 0.1)
Mode/N x (1 + N x 0.1)
Spoke
Stakeholders Hub
Stakeholder
Team Organization
Group Organization
Committee Organization
55
Mission Success
• Measures preferred architectures mission success probability,
calculated from the likelihood of achieving mission objectives
• Established MOP’s per functional modeling architecture
output for COREsim®
• Oriented MOP’s in series and parallel combinations to
establish several mission scenarios
INPUT OUTPUT A B C
Series Network
Committee Network
56
Cost Modeling
• Used to estimate the developmental cost for TSN
• Software and systems engineering models used
– COCOMO II (software)
– COSYSMO (systems engineering)
14
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i
E
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kdkdknknkeke CDwwwAEffortES
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i
i
B
EMSLOC
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100
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91.02.028.0 SCEDEffortCmonthsSchedule
B
57
TNT Mission Success
Mission
Function
(leve l three)
O perational Function Calculated
MO E (%)
Serial Sub-
Functions
(leve l four)
Serial MO P
(%) Total
Paralle l Sub-
Functions
(leve l four)
Paralle l MO P
(%) Total
1.1.4 Use Intelligence Products 0.977 1.1.4.1 0.977 1.1.4.2.1,
1.1.4.2.2
0.999
1.2.2 Assess Intentions and Capabilit ies 0.912 1.2.2.1,
1.2.2.2,
1.2.2.3,
1.2.2.4
0.912 n/a n/a
1.2.3 Generate COAs 0.955 1.2.3.1,
1.2.3.2
0.955 n/a n/a
1.2.4 Select Alternatives 0.933 1.2.4.1,
1.2.4.2,
1.2.4.3-7
0.933 n/a n/a
1.2.5 Plan Details 0.933 1.2.5.1-5,
1.2.5.1,
1.2.5.3
0.933 n/a n/a
1.2.6 Direct Response 0.912 1.2.6.1,
1.2.6.2,
1.2.6.3,
1.2.6.4
0.912 n/a n/a
1.3.4 Perform Unit Action 0.977 n/a n/a n/a n/a
1.3.6 Coordinate Unit Operations 0.977 n/a n/a n/a n/a
1.3.7 Process Unit Information 0.977 n/a n/a n/a n/a
0.630Transnational Threat Enforcement Mission
Success
58
Arena Distribution Baselines
Response Functions Delay Type Minimum Mode Maximum (Units)
Sense Environment Triangular 10.00 15.00 30.00 Minutes
Assess Intentions and Capabilities Triangular 1.00 2.00 4.00 Hours
Generate COAs Triangular 5.00 15.00 30.00 Minutes
Select Alternatives Triangular 0.75 1.00 1.50 Hours
Plan Details Triangular 8.00 12.00 24.00 Hours
Direct Response Triangular 1.00 2.00 3.00 Hours
Intelligence Functions
Task Data Collections Triangular 15.00 30.00 60.00 Minutes
Process Data Triangular 15.00 30.00 60.00 Minutes
Post Intelligence Products Triangular 5.00 15.00 20.00 Minutes
Use Intelligence Products Triangular 1.00 2.00 2.50 Minutes
Situational Awareness Functions
Sense Environment Triangular 6.00 8.00 10.00 Minutes
Process Data Triangular 0.33 0.83 1.00 Minutes
Post Intelligence Products Triangular 0.33 1.00 1.00 Minutes
Use Intelligence Products Triangular 0.50 0.75 2.00 Minutes
Event Mission Model Average Arrival
Time (hours)
Parameter
Lamda (λ)
Transnational Threat Transnational Threat
Enforcement
60 0.0167
Disaster Relief see below 106 0.0094
Protect Environment (oil
spills)
see below 2380 0.0004
Combined Disaster Relief/
Protect Environment
Disaster Relief/Protect
Environment Response
101 0.0099
Humanitarian Aid Humanitarian Aid 98 0.0102
59
Arena Resource and Time Outputs
Constabulary
Resource
Usage (percent)
National
Navies
Resource
Usage
(percent)
Private
Resource
Usage
(percent)
Commercial
Resource
Usage
(percent)
Humanitarian
O rganization
Resource Usage
(percent)
International
Resource
Usage
(percent)
Average
Resource
Usage
(percent)
Mission
Duration
Time
(hours)
Team Transnational Threat
16.400 29.100 0.000 0.000 3.400 3.000 8.65 26.17
Team Humanitarian Aid
23.500 50.300 0.000 0.000 6.700 4.500 14.17 21.90
Team Disaster Relief /
Protect Environment 11.000 18.800 0.000 0.000 3.600 5.600 6.50 22.70
Committee Transnational
Threat 8.900 4.600 3.800 4.500 3.900 21.700 7.90 26.32
Committee Humanitarian
Aid 6.700 3.500 3.800 4.400 3.900 6.200 4.75 20.84
Committee Disaster Relief
/ Protect Environment 6.800 3.700 3.800 4.500 4.100 9.000 5.32 21.48
Group Transnational
Threat 15.200 15.100 10.900 13.100 1.400 13.100 11.47 27.83
Group Humanitarian Aid
11.300 12.100 10.400 12.400 3.100 10.500 9.97 26.24
Group Disaster Relief /
Protect Environment 9.300 9.900 10.100 12.000 1.900 8.600 8.63 26.08
60
AoA Scoring Matrix
Evaluation Factors Group
Alternative
Value
Score Weight Score Team
Alternative
Value
Score Weight Score Committee
Alternative
Value
Score Weight Score
Political Feasibility 60.00 60.00 18.00 20.00 20.00 6.00 60.00 60.00 18.00
Arena Mission Duration 27.83 74.88 14.98 25.84 80.65 16.13 26.32 79.18 15.84
Arena Resource Usage 11.47 41.33 4.13 9.70 48.88 4.89 7.91 59.96 6.00
Number of Relationships 15.00 33.33 3.33 5.00 100.00 10.00 15.00 33.33 3.33
Number of New Capabilities 50.00 2.00 0.20 1.00 100.00 10.00 27.00 3.70 0.37
Use of Legacy 154.00 96.86 19.37 75.00 47.17 9.43 110.00 69.18 13.84
Score
Evaluation Factors Group
Alternative
Value
Score Weight Score Team
Alternative
Value
Score Weight Score Committee
Alternative
Value
Score Weight Score
Political Feasibility 80.00 80.00 24.00 40.00 40.00 12.00 80.00 80.00 24.00
Arena Resource Duration 26.24 79.42 15.88 25.94 80.34 16.07 20.84 100.00 20.00
Arena Resource Usage 9.95 47.67 4.77 8.24 57.52 5.75 4.74 100.00 10.00
Number of Relationships 15.00 33.33 3.33 5.00 100.00 10.00 15.00 33.33 3.33
Number of New Capabilities 55.00 1.82 0.18 20.00 5.00 0.50 40.00 2.50 0.25
Use of Legacy 159.00 100.00 20.00 53.00 33.33 6.67 110.00 69.18 13.84
Score
Evaluation Factors Group
Alternative
Value
Score Weight Score Team
Alternative
Value
Score Weight Score Committee
Alternative
Value
Score Weight Score
Political Feasibility 80.00 80.00 24.00 60.00 40.00 12.00 90.00 90.00 27.00
Arena Resource Duration 26.08 79.91 15.98 25.95 80.31 16.06 21.48 97.02 19.40
Arena Resource Usage 8.65 54.85 5.48 7.23 65.58 6.56 5.30 89.47 8.95
Number of Relationships 15.00 33.33 3.33 5.00 100.00 10.00 15.00 33.33 3.33
Number of New Capabilities 55.00 1.82 0.18 24.00 4.17 0.42 40.00 2.50 0.25
Use of Legacy 150.00 94.34 18.87 44.00 27.67 5.53 104.00 65.41 13.08
Sub-Total
Average
11.31 8.43 12.00
Humanitarian Aid
10.89 8.78 11.16
11.36 8.50 11.90
Disaster Relief/Protect Environment
9.5610.00 9.41