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COMMERCE BUSINESS DAILY ISSUE OF JUNE 7,1999 PSA#2361Commander, United States Army Yuma Proving Ground (USAYPG), Directorate
of Contracting, Attn: STEYP-CR-C, Bldg 2100, Yuma, AZ, 85365-9106 A -- QUANTITATIVE VISUALIZATION TEST TECHNOLOGY DEVELOPMENT AND
DEMONSTRATION (QV-TTDD) SOL DAAD01-99-R-0006 DUE 070699 POC Becci
Larson, Contract Administrator, Phone (520) 328-6163, Facsimile (520)
328-6849 E-MAIL: Becci.Larson@Yuma-exch1.Army.Mil,
Becci.Larson@Yuma-exch1.Army.Mil. United States Army Yuma Proving
Ground (USAYPG), Yuma, Arizona anticipates placing a Sole Source
three-year Basic Ordering Agreement (BOA) with J-Squared LLC, 1110C
Elkton Drive, Colorado Springs, Colorado 80907 for the purposes of
research and development of the Quantitative Visualization (QV) Test
Technology Development and Demonstration (TTDD) Program. J-Squared LLC
is the original QV framework developer, had two prior R&D programs at
USAYPG and is the only source that possesses the integral knowledge to
continue development of this USAYPG program. The QV-TTDD project
objective is to integrate real, live-fire measurements with simulation
data, models for test articles and test instruments, geospatial data,
and Commercial-off-the-shelf-software(COTS) networking and display
technologies to give a quantum leap in cost reduction and performance
enhancement to testers. QV is a digital platform conceived to achieve
a capability that will allow the real-time and quantitatively precise
visualization of tests from an all-encompassing perspective. In a test,
QV serves as a digital platform that collects and archives all data,
simulated and real-measured, into a single entity. QV then articulates
computer models of test articles according to the archived data
against a synthetic landscape to allow the detailed and quantitative
visualization of the entire test; thus, real tests are mirrored into
the digital world with quantitative precision. Users will gain access
to this digital-test from anywhere through appropriate networking. This
includes the use of inter/intra-nets. QV will recreate the entire test
at the clients' PC or workstation with a small set of test information
fed through the network, and its use of connectivity bandwidth is
highly efficient. Depending on the mission, each user will use a unique
context filter to visualize this digital-test. Using only simulation
data, QV could address range safety and test set-up and planning
issues. Using both simulation and real test data, QV will perform
modelvalidation and test result verification tasks. The development of
QV follows a guideline that maximizes the use of commercial
developments in order to minimize the custom development of enabling
software and display technologies (such as GUI's, operating systems,
3-D formats, network protocols, etc.). QV is an open system that has a
built-in compatibility and interoperability with other operating
systems and with future improvements in COTS software, hardware and
operating systems. Because QV is an integrated set of tools for the
tester, its applications are many. In its current, early state of
development, QV has already demonstrated its capabilities have a high
correlation with the stated goals of the Virtual Proving Ground (VPG)
program. QV also puts these tools in the hands of the tester so that
live-fire tests can be conducted with higher efficiency and economy.
Additionally, QV promises to beneficially impact a number of near term
test programs. These include tests involving the Crusader, Commanche,
and Army, Navy, and Air Force weapon store separation programs. In all
these programs QV will enable the testers to conduct tests in a new
way. This new methodology will span the entire spectrum from test
planning to range safety, data recording and all the way to test
reporting. USAYPG Goals: The current method of rendering a test
according to the QV methodology or framework is to build custom
interfaces and software to tie together models, test and simulation
data, synthetic landscapes, geospatial and other databases so clients
may participate in the test through digital connectivity. This
"hand-stitched" QV rendering process is both time-consuming and costly.
The most critical aspect is that once rendered, changes are difficult
to make. The goal for this TTDD project is to develop a general QV
development platform so any test scenario could be QV rendered quickly
and efficiently. With this QV development platform, a test could be
assembled by inserting pre-developed digital modules with databases
that represent test articles, instrumentation packages, test site, and
other components necessary for a test. This process will be analogous
to the actual assembling of a test by arranging real test articles and
real instrumentation in the test site. With this QV development
platform, tests could be assembled digitally and optimized because
changes in the QV rendering will be made quickly and easily. QV was
first conceived as a way to meet the testing requirements for the
anticipated Crusader testing program. Initial results quickly gave
compelling evidence that QV will meet the tough requirements for
Crusader testing. It has also been recognized that it has general
applicability for other testing programs as well as for VPG as a whole.
To illustrate this QV rendered video data of stores separation from the
ASVS program. The discoveries came as a result of this effort showed
that QV is a powerful new, enabling tool that could offer a quantum
leap in testing capabilities to testers. The project goal is well
defined and self-contained to carry out an effort that will lead to a
general QV development platform or framework and all phases should be
accomplished within 3 years. In phase 1, efforts will be focused on
software, modules, geospatial data and methodologies that when
integrated will be a limited version of the QV development platform. It
will have a limited number of modules that could be used in QV
rendering, but it will be able to demonstrate the methodologies
involved in the general QV development platform. Phase 2 will undertake
efforts to first define the general QV development platform and then to
generate an implementation plan. FSC Code AZ13, SIC Code 8731. USAYPG
does not intend to issue a written solicitation. Sources interested in
this requirement may submit an information package which includes
documentation demonstrating that their firm possesses the capability,
integral development knowledge of USAYPG's QV-TTDD program, company
profile, complete business address, point of contact, phone number,
facsimile and email address. Your information package must be received
no later than 30 days after publication of this notice and may be sent
via facsimile (520) 328-6849 or hardcopy to Commander, USAYPG, ATTN:
AMSSB-ACY/Becci Larson, Yuma, AZ 85365-9106. The anticipated BOA will
be placed with J-Squared after 45 days of this notice. Posted 06/03/99
(W-SN338477). (0154) Loren Data Corp. http://www.ld.com (SYN# 0004 19990607\A-0004.SOL)
A - Research and Development Index Page
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