Keynote Speaker

Hirokazu Hashimoto
Senior Vice President, NEC Electron Devices,
NEC Corporation
NEC Electronics Inc.

Mr. Hirokazu Hashimoto joined NEC Electronics Inc. in July 1998 as president and CEO bringing more than 32 years of experience to his position. As president and CEO, he is responsible for all of NEC Electronics’ North American semiconductor operations. Responsibilities include engineering, research and development, marketing, sales and support at the corporate headquarters in Santa Clara, the fabrication plant in Roseville, California (one of the largest and most advanced semiconductor plants in the United States), and the regional sales and ASIC support centers throughout the U.S. and Canada.
Mr. Hashimoto joined NEC Corporation in 1966 after receiving his Bachelor of Science degree in engineering from National Chiba University. He held various engineering positions at NEC Corporation until he was appointed general manager of the ASIC business unit for NEC Electronics in 1983. During his ten years at NEC Electronics Inc. he was promoted to vice president with added responsibilities for micro products and engineering. In 1997 Mr. Hashimoto was named vice president of NEC's semiconductor group, where he was responsible for supervising the solutions engineering and sales engineering divisions, the overseas semiconductor business, ASIC and special product lines.

Plenary Speaker

Tom Bednar
Senior Technical Staff Member,
IBM Microelectronics

Tom Bednar is a Senior Technical Staff Member at IBM Microelectronics. He is the key architect in the development of the new power management technique featured in the recently announced IBM Blue Logic Cu-08 ASIC.

Tom has been with the IBM ASIC program for 20 years and is currently the team leader for the development of IBM's next generation ASIC programs.



Banquet Speaker

Kumar Krishen
Society for Design and Process Science (SDPS)

Dr. Krishen is the Chief Technologist for the Technology Transfer and Commercialization Office, NASA Johnson Space Center, Houston, Texas, responsible for developing strategies for joint research, technology projects and plans with, industries, universities, other NASA centers and government agencies. Currently, Dr. Krishen is on an IPA (Intergovernmental Personnel Act) at Virginia Tech serving as University Fellow for Technology Transfer in the Office of Special Initiatives and visiting Professor in Electrical and Computer Engineering. He also has represented JSC as the Principal Technologist on the NASA Council on Science and Technology. His academic degrees are from Kansas State University (Ph. D. and M. S.), Calcutta University (M. Tech and B. Tech), and Jammu and Kashmir University (B. A.) in electronics, electrical engineering, radio physics, and mathematics. Dr. Krishen was an Assistant Professor in Electrical
Engineering at Kansas State University before joining Lockheed in 1969 as Staff Scientist. In 1976, he joined NASA and has held key positions in Advanced Programs in Earth Observations, Science Payloads, Experiment Systems, Tracking & Communications, Mission Support, New Initiatives, and technology R& D. Dr. Krishen was nominated by Governor George W. Bush and confirmed by the State Senate of Texas to the Texas Board of licensure for Professional Medical Physicists in 1999 for a five year term. Authoring more than 130 technical papers/ reports, Dr. Krishen is a Fellow of the
Society for Design and Process Science (SDPS). He is the recipient of many awards, medals, and commendations from universities, industry, and government organizations, and is listed in Who is Who in the World, Men of Achievement, Personalities of America, and 2000 Outstanding People of the 20th Century and was commissioned “Honorary Texan” by Governor Perry in 2001.

Abstract: Human Exploration and Development of Space (HEDS) is one of five key NASA strategic enterprises for opening the space frontier by exploring, using and enabling the development of space, and expanding the human experience into the far reaches of space.  Goals of HEDS are: increasing human knowledge of nature’s processes using the space environment; exploring and settling the solar system; achieving routine space travel; and enriching life on Earth through living and working in space. Space missions are designed and executed to accomplish these goals.  A crucial aspect of these missions is the development of infrastructure to optimize the safety, productivity, and costs. A major component of the mission execution is operations management.  NASA’s International Space Station is providing extensive experience in both infrastructure and operations.  Operations include planning; scheduling; training; real time monitoring of data and systems; command and control; communications; and post mission data analysis.  In view of this enormous scope, a vigorously organized approach is needed to implement successful space, planet, and ground-based operations. This entails wise and efficient use of both technical and human resources.   This has lead to the use of automated and intelligent systems in the past to accomplish both manned and unmanned missions.  However, many revolutionary technologies currently being pursued by research and technology (R&T) communities may find an important role in making space missions safe, reliable, and cost-effective. These technologies include ionic polymer-metal composite technology; solid-state lasers; time-domain sensors and communication systems; high temperature superconductivity; nano-technology; variable specific impulse magnetoplasma rocket; fuzzy logic; wavelet technology; and neural networks. In this presentation, an overview of these technologies will be presented, along with their application to space missions.