Page 43 - ASME IMECE 2018 Program

TRACK PLENARY
of Pennsylvania, he has received the Reid Warren Award and
the Lindback Award for Distinguished Teaching. In 2014, he
was celebrated with a Festschrift on his 70th birthday (P.
Ayyaswamy’s 70th Birthday Tribute: Special Sessions on I –
Interfacial Fluid Dynamics, and II – Devices and Modeling
Nanoparticles) at the 7th World Congress of Biomechanics,
Boston, MA. He was also elected (2014) to the governing board
of the American Society for Gravitational and Space Research.
Track 10: Heat Transfer
10-64-2 HEAT TRANSFER AND THERMAL
ENGINEERING PLENARY II
Tuesday, November 13, 9:00am–9:45am
Room 306, David L. Lawrence Convention Center
Aerospace Thermal Management: Challenges and
Opportunities
(IMECE2018-90103)
Andrew Bicos
Office of Congressman Tom Reed (NY-23)
Abstract: This talk is focused on providing an overview of
thermal technology solutions for broader aerospace
applications, which include hypersonic vehicle, commercial
and military aircrafts, satellite and spacecraft systems, along
with emerging areas of hybrid propulsion and more electric
aircraft architecture. The anticipated thermal and power growth
in aerospace systems in coming years is driving the need for
ever efficient, reliable, and affordable heat dissipation, storage,
and waste heat to power conversion technology, capable of
managing thermal energy at the multi MW level. There is need
for an interdisciplinary and multifunctional research and
product development approach to meet 21st century space
and aviation challenges. Recent advances in materials and
advanced fabrication methods (including additive
manufacturing) have opened up significant design
improvement possibilities for development of “next generation”
high performance, integrated thermal management solutions.
Applications of this approach are illustrated by selective
examples, such as structurally integrated thermal management
for hypersonic vehicle, air/liquid cooling, and thermal energy
storage devices for pulsed power systems and use of novel
lightweight 3D printed materials in aircraft, satellite, and
spacecraft systems. Finally, the need for synergetic
collaboration among academia, industry, and government
research organizations is emphasized for rapid development
of economically viable, next generation thermal technologies
for aerospace applications.
Bio: Dr. Bicos is on leave from The Boeing
Company. His previous assignment was in
Boeing Research & Technology, where he
was director of the performance technology
strategy, where his responsibilities included twenty different organisms. We illustrate our approach by
developing the enterprise strategy for all
flight sciences R&D at Boeing and managing the portfolio
of activities that develop and transition technologies and
processes into Boeing’s wide array of products. He was also
the chief engineer for the aeromechanics technology team,
where he ensured that the technologies transitioned to the
products are technically sound and meet customer
requirements. Prior to this assignment, he was the director for
enterprise manufacturing technology strategy and before that
for the structures and materials technology strategy. Dr. Bicos
joined the company in 1987. His prior assignments include
project leadership positions within the Boeing Satellite Systems
engineering design and analysis directorate, Delta rocket
program mission assurance, and two years in supply chain
management. Prior to the Boeing and McDonnell Douglas
merger in 1997, he was senior manager responsible for
advanced structures R&D for the McDonnell Douglas Phantom
Works organization in which he specialized in composites and
adaptive/multifunctional structures technology. Dr. Bicos has
published more than 20 technical papers and articles on
innovative composites, adaptive structures, and vibration
reduction technologies. He has two patents, one for composite
damage detection and the other for a structural damping
device. He has received a B.S. in engineering and a MBA from
UCLA, as well as a M.S. and Ph.D. in aeronautics and
astronautics from Stanford University. He has held positions on
the AIAA Structural Dynamics and ASME Adaptive Structures
and Material Systems technical committees and is a former
chairman of the ASME Aerospace Division. He is an Associate
Fellow of the AIAA and the immediate past chair of the ASME
Industry Advisory Board.
Track 11: Materials Genetics to Structures
11-23-1 MATERIALS: GENETICS TO STRUCTURES
PLENARY I
Tuesday, November 13, 8:00am–8:45am
Room 307, David L. Lawrence Convention
Center
Biological Materials and Mechanics: Challenges and
Opportunities
(IMECE2018-90108)
Marc A. Meyers
UC San Diego
Abstract: Biological materials science is a new and vibrant field xli
of materials science and engineering. Although biologists have
been studying organisms for centuries, it is only recently that
materials scientists have started to use their fantastic
experimental, computational, and analytical arsenal of tools
to reveal new features. This talk presents the Arzt eptahedron,
which defines seven unique and defining characteristics of
biological materials. The plethora of different structures and
mechanical properties of biological materials is systematized
through a new paradigm: eight structural design elements,
which are motifs appearing on different species and scales,
and which enable analytical treatment and lead to enhanced
understanding. We have applied this approach to approximately
applying this knowledge to the toucan beak, rabbit and pig
skin, fish scales, pangolin scales, and feathers. Current efforts
at bioinspired materials and designs, including feathers, whale
baleen, seahorse tail, and gar scales, are also discussed.