100507 1300 Bidder Conf Brief.ppt

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Broad Agency Announcement - Math BAA 2010/01 Federal contract opportunity
Solicitation number
MathBAA201001
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DOD Washington Headquarters Service

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100426 1930 Advanced Math BAA.pdf PDF

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Advanced Mathematics for DoD Battlefield Challenges BAA Bidders Conference 14 May 2010

This Briefing will be presented at the bidders conference, and is provided in advance for the convenience of potential bidders

Disclaimer This briefing is intended to supplement the Advanced Mathematics for DoD Battlefield Challenges BAA

Nothing in this briefing shall be construed to modify or alter the text of the BAA

Questions and answers will be recorded and released on the FedBizOps page for this BAA

Agenda: Advanced Mathematics for DoD Battlefield Challenges Bidders Conference 1200-1230: Registration

1230-1315: Vision (Ms Robin Quinlan)
Today’s Warfare Environment
Challenge Questions

1315-1330: Proposal Mechanics (Mr Steve Biernesser)

1330-1345: Break

1345-Finish*: Q&A (Ms Robin Quinlan, Mr Tristan Nguyun, Mr Doug Cochran)

*NLT 1700

Where we were: One example of the Problem - Target Tracking

A A B C D B C D

Constant turnover of target designation limits warfighter ability to make decisions

Where we are:

The Low/Slow Air and Ground Picture

Low/Slow Air and Ground Problem [1of 2] Even more complicated than High/Fast

Dense, cluttered battlespace with fixed and moving objects, myriad of sensor types (radar, EO/IR, acoustic, ELINT, HUMINT, etc.) that need to be fused in real time - disparate in their qualitative terms:
IEDs, UAVs, ground vehicles, tanks, dismounts, etc.
RAM (rockets, artillery, mortars)

“Disadvantaged user” with limited bandwidth

Low/Slow Air and Ground Problem [2 of 2]

Deluge of data: “swimming in sensors and drowning in data." - Lt. Gen. David A. Deptula Air Force's top intelligence official
Too much video data by itself, uncorrelated with radar, SIGINT, HUMINT, and other non-optical "sensors“

Data is incomplete, with errors, and needs to be optimally processed to give unambiguous tracks and target state vectors, including time

Lack of coherence among myriad of systems can result in a confused, ambiguous “picture” of the battlefield
“Swivel seat integration”
Over abundance of data has resulted in some systems being shut down during ops - troops throwing away data just to make their screens readable

How do we “triage” data appropriately and provide actionable information to the warfighter?

Background Our capability to collect data well exceeds our ability to process it

This BAA looking for research concepts to help develop a coherent picture of the battlefield:
At the tactical level
That can be used to support real-time (sometimes milliseconds) decisions, such as fire control
Where understanding the fidelity and uncertainties in the picture are vital

Background (cont)

To do this, we need new techniques for fusing, predicting, visualizing, and extracting features and information from disparate sources:
Optical
Radio Frequency
Acoustic
Chemical
HUMINT – human intelligence data
ELINT – electronic intelligence data
SIGINT – signal intelligence data
Historical

Background (cont) Some fields of mathematics have already contributed significantly, including linear algebra, systems theory, differential equations, probability, and statistics

DDR&E wants to bring a larger body of mathematical knowledge to bear on the challenges

Developing a global understanding from data that is often local in nature requires fusion of data from multiple sources of different types
Classical tools of applied mathematics have provided only limited inroads
This challenge is fertile ground for ideas from areas of traditionally “pure” mathematics where developing global info from local info is well studied, but not in the context of real world applications

Detecting poorly defined anomalies in large data sets is an important capability, particularly when adversaries are difficult to distinguish from non-combatants

Common Tactical Picture Challenge

Whether sensors are fixed or moving, the common tactical picture for joint interoperability requires seamless aggregation of info
Real time sensor fusion is done in very few programs in the DoD today
Key questions decision makers want their tactical pictures to answer:
Real-Time Battlespace Situational Awareness
Are objects of interest present in my battlespace?
How do I discriminate among them?
What are they? Are they friendly, enemy, or neutral?
Where are they? What are their current trajectories, speeds, altitudes, maneuver timings, etc?
What is their history?
What is their intent?
Has a key “event” occurred? If so, what is its significance?
What are the relationships between the objects, the events and the objects and events?
How confident can I be about each of these answers?
Action Assessment
What assets should I seek to cue to an area of activity/interest?
Should I engage a target? Evade it?

Essential Components of the Challenge

Target Identification
What are the objects of interest in the battlefield?
What is the nature of each object of interest (e.g., friendly, neutral, hostile, unknown)?
Does the object represent an immediate threat that should be engaged or evaded? This includes the need to make shoot/no-shoot decisions made in real time
Target Tracking
Merging of information from multiple sensors and sensing modalities to provide a unique and unambiguous track for each object of interest in the battlespace.
Providing uncertainty information in a form suitable for decision making for each track
Data Management
Support real-time tasking of information resources and integration of data from disparate sources into actionable information
Provide mechanisms for operation in the presence of incomplete and inaccurate data, maintaining awareness of uncertainties arising from such imperfections

Key Mathematical Challenge Areas Data/information fusion

Information Extraction / Data Interpretation

Inference and Prediction

Information Presentation / Visualization

Information Management and Architectures

Uncertainty Quantification

Challenge Problem 1 Creating the elements of a common tactical picture in the Low/slow air and ground domain

Use the data sets provided

Extract features to enable a clear and continuous composite track of an enemy target from multiple information sources, moving in space and time, in a densely cluttered environment

Locate, identify and predict the track of an enemy target amongst the clutter, using the data streams provided by multiple information and sensor types

Hold identification of the track for the lifetime of the track, using mathematical techniques that combine multiple sources of data, with discrimination from other closely situated friend and neutral entities

Challenge Problem 1 (cont)

Evaluation Criteria
ID Correctness – Average percentage of objects that are correctly identified

Track Identification – Friend, neutral, hostile, or unknown

Track Continuity (i.e., maintains ID of track) – Average amount of time an object’s track is reported without its track identifier (e.g. friend, neutral, hostile, or unknown) changing

Track Ambiguity (low spurious track ratio, ideally one track per target) – Average value of uncorrelated tracks per object

Positional Accuracy

Velocity Accuracy

ID Ambiguity (percent confidence)

Proposed projects should include a demonstration milestone NLT Dec 2011

Challenge Problem 2 In advance of data/information fusion to form a common tactical picture, the reduction of unwanted local data is imperative to remove irrelevant information which can deleteriously affect a fusion procedure

This is also essential in eliminating the data deluge which results from indiscriminate collection of data through a multitude of sensors

As a concrete example, we presently have hundreds of sensors in Afghanistan that provide high fidelity but a very limited field of view. They see the world through a “soda straw”

If we could optimally place and task these sensors to look at specific targets of interest at specific times, thereby collecting the data we need rather than data that happens to be available, use of battlefield communication and computational resources would be optimized and the relevance of information provided to warfighters would be enhanced

Challenge Problem 2 (cont) Although optimal sensor placement is an active research discipline which predominantly hinges upon specific missions, this BAA focuses on sensor placement and management in direct support of Challenge Problem 1 that is described above

Advanced mathematical techniques that can be used to simultaneously tackle both Challenge Problems in a unified framework will be given precedence

Hence the challenge problem is to use available data to cue high fidelity/narrow field of view sensors in order to maximize sensor coverage and effectiveness on an identified activity in the data set provided

Challenge Problem 2 (cont)

Evaluation Criteria
Ability to derive global target information from local data

Timeliness – Time required to identify an event of interest

Cueing Accuracy - distance between cue location and the actual target;

Sensor economy - minimal use of sensor resources to achieve a desired level of performance);

Ability to identify an event of interest from multiple or decentralized data streams.

Proposed projects should include a demonstration milestone NLT Dec 2011

Data Resources Two sources of Government Furnished Equipment (GFE) data available to support this BAA

One unclassified data set will be electro-optical data provided by the government of an urban area with coordinated ground activity occurring within the sensors field of view
Currently the process of obtaining this data set takes 4-6 weeks once the request for the data is submitted.
Sensor Data Management System Public Site
Unclassified data representing a variety of modalities and scenarios relevant to the challenge problems in this BAA is available at https://www.sdms.afrl.af.mil/main.php. Both real sensor data and high-quality simulated data are available. By going to the website and clicking the “Request Data” link in the sidebar, proposers can see what data is available, download limited samples of the data, and order particular data sets.

Proposal Mechanics

28 May 2010: Quad Charts due
1 page max, see BAA for details on content
Purpose is to minimize unnecessary effort in proposal preparation and review
Those bidders whom the government selects will be requested to provide a white paper
30 June 2010: White Papers due
5 pages max, plus 1 pg for biographies, see BAA for details on content
Purpose is to minimize unnecessary effort in proposal preparation and review
Those bidders whom the government selects will be requested to provide a proposal
30 July 2010: Proposals due – see BAA for details
Volume 1 Technical proposal 20 pgs max, not including bibliography
Volume 2 Cost proposal
September 2010: Anticipated Contract Awards
Multiple Awards are anticipated
This program will have option years for FY 2012 and FY 2013
Performance in the Dec 2011 (or sooner) demos will weigh heavily in the selection decision
Address proposed efforts in FY 2012 and FY 2013 in your quads/white papers/proposals

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