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Machine Reasoning Workshops I & II: Mission-Focused Representation & Understanding of Complex Real-World Data
September 20 - 24, 2010
Organizing Committee |
Scientific Overview |
Contact Us
Organizing Committee
James Allen
(University of Rochester)
Lawrence Carin
(Duke University, Elec and Computer Engineering)
Pedro Domingos
(University of Washington, Computer Science & Engineering)
Leslie Greengard
(New York University)
Carlos Guestrin
(Carnegie-Mellon University)
John Laird
(University of Michigan, Computer Science and Engineering)
Josh Tenenbaum
(Massachusetts Institute of Technology, Brain and Cog Sc, CS, and AI)
Bob Tenney
(BAE Systems)
Claire Tomlin
(University of California, Berkeley (UC Berkeley))
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Scientific Overview
These two workshops will address two topics important for efficiently
obtaining and utilizing the information inherent in complex real-world
data, namely Representation and Understanding. Each is described in
detail below. Workshop I on Data Representation will begin on
Monday, September 20 in the morning and continue until lunch on
Wednesday, September 22. Workshop II on Understanding of Data commences
after lunch on Wednesday, September 22 and continues through Friday, September 24.
Those wishing to participate in one or both workshops must apply
and be accepted. There will be a combine reception on Tuesday evening.
Workshop I (Sept 20 - Sept 22): Representation of real-world information
sources involves development of automated systems for supporting efficient storage,
retrieval, conflation and deflation of heterogeneous data. The representations must be
linked to the goal of mission-focused autonomy, and therefore must be computationally
efficient. Representation products must be useable by machines, humans, and an integrated
human-machine system. Compact representations are needed that support conventional sensor
data, intelligence, and open-source information; these data might be highly correlated and
therefore jointly compressible, but each source is often originally represented in a
different alphabet. Additionally, portions of the data vector are often missing or
incomplete. The uncertainty and imprecision of the representation must be quantified, while
also exploiting all metadata, or side information. Representations are also required for
activities, events, and other sources of information that are typically described
qualitatively. These representations may be associated with other data types and be
supported/composed by/from the representation of sensor data. The data and information must
be constituted at multiple scales and fidelities, linked to specific inference goals and
missions. Examples of techniques that may be employed include dimensionality reduction,
exploiting the fact that data with high dimensionality may reside on a low-dimensional
subspace or manifold, with the latent manifold shared across heterogeneous data types.
Workshop II (Sept 22 - Sept 24): Understanding addresses how, for a given
mission, data and information should be combined or fused to achieve mission-aware cognition
of the environment, accounting for uncertainty, incompleteness, imprecision, and contradictory
data from a disparate variety of sources. This includes methods for aligning in space and
time heterogeneous data sets that are statistically related, but often employ distinct
alphabets. These heterogeneous data sources must be fused to support mission-focused autonomy.
The system must be adaptive, with the ability to support acquisition of new data or information,
to improve both representation and understanding, with required fidelity or precision linked
to the mission and inference task. In a multi-scale framework, one must quantify how
uncertainties and imprecision at a given scale propagate, and how they impact data interpretation
at other scales of analysis. The fidelity and scale of required understanding must incorporate
context and mission knowledge. The ability to combine and interpret the data and information
must be timely so that important activities and events are not missed; the definition of
“important” and the appropriate scale/resolution is linked to the mission. Relative to the
mission, methods that define context and importance of particular data and information must be
developed. For a given context the system must be capable of providing multiple
hypotheses/explanations of the data and information that are consistent with the mission and the
context.
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Confirmed Speakers
David Bindel
(Cornell University)
Robert Calderbank
(Princeton University)
John Doyle
(California Institute of Technology)
Dieter Fox
(University of Washington)
Emily Fox
(Duke University)
Leonidas Guibas
(Stanford University)
Henry Kautz
(University of Rochester)
Yann LeCun
(New York University)
Mauro Maggioni
(Duke University)
Robert Nowak
(University of Wisconsin-Madison)
Paul Rosenbloom
(University of Southern California (USC))
Guillermo Sapiro
(University of Minnesota, Twin Cities)
Lawrence Saul
(University of California, San Diego (UCSD))
Jack Snoeyink
(University of North Carolina)
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Contact Us:
Institute for Pure and Applied Mathematics (IPAM)
Attn: MRWS1
460 Portola Plaza
Los Angeles CA 90095-7121
Phone: 310 825-4755
Fax: 310 825-4756
Email: ipam@ucla.edu
Website:
http://www.ipam.ucla.edu/programs/mrws1/
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