Amor Menezes is an Assistant Professor in the Department of Mechanical and Aerospace Engineering at the University of Florida. He is the Science Principal Investigator of the five-year, multi-university, Center for the Utilization of Biological Engineering in Space (CUBES), a NASA Space Technology Research Institute in biomanufacturing for deep space exploration. He also leads the Systems Design and Integration Division of CUBES.
Dr. Menezes' research interests are in dynamical systems theory and control, with applications to the fields of systems biology and synthetic biology. He is an IEEE Senior Member. He was a 2015 Emerging Leader in Biosecurity and a 2015 fellow of the Synthetic Biology Leadership Excellence Accelerator Program.
He was an Associate Project Scientist in the California Institute for Quantitative Biosciences (QB3) at the University of California, Berkeley from 2016 to 2017, and a QB3 Postdoctoral Scholar from 2011 to 2016. He was a Research Fellow between 2010 and 2011 in the Department of Aerospace Engineering at the University of Michigan, where he received a Ph.D. as an NSERC Post-Graduate Scholar and Michigan Teaching Fellow in 2010, and a Master of Science in Engineering as a Milo E. Oliphant Fellow in 2006. He graduated from the University of Waterloo in 2005 with a Bachelor of Applied Science in Mechanical Engineering with Distinction, Dean's Honors (top 10%), and the Sandford Fleming Co-op Medal.
Dr. Takashi Nakamura received his Ph.D. in Aeronautics and Astronautics from MIT and his B.S. in Aeronautical Engineering from the University of Tokyo. Currently, he is the manager of Space Exploration Technologies at Physical Sciences Inc. (PSI), and has been involved in numerous R&D programs sponsored by NSF, NASA, DoE and DoD.
Dr. Nakamura has been developing, with funding from the Air Force and NASA, a unique space solar power system for power generation, propulsion, materials processing, and plant lighting in space. This concept is based on the use of optical fibers for transmission of solar radiation, the concept Dr. Nakamura pioneered in 1976 while he was at Japan's Electrotechnical Laboratory. Dr. Nakamura is an Associate Fellow of AIAA, a member of AAS and Sigma Xi.
Aaron Berliner is a Bioengineering graduate student in the Arkin Laboratory at UC Berkeley/UCSF. He studied bioengineering, control theory, and synthetic and systems biology at Boston University. In 2012, he began working as a research associate at the NASA Ames Research Center on projects involving 3D printing, bioelectrochemistry, and astrobiology. In 2013, he started as a research scientist in the Life Sciences group of Autodesk Research in San Francisco. At Autodesk, Aaron’s work ran the gamut from bioprinting, software engineering, synthetic virology, and DNA origami until 2016 when he moved back to space biology. Forming a partnership between UC Berkeley, Autodesk, and NASA Ames, Aaron began construction on Crucible, an open-source reactor for space synthetic biology experiments until 2017 when he started as a graduate student with Adam Arkin. He enjoys playing with his Mars-in-a-jar reactors. Aaron helped author the STRI grant that launched CUBES and is an NSF graduate fellow. His alternative scientific interests are terraforming and radiation biology. Aaron likes whiteboards and dry erase markers and dirty models with clean math.
Alex is a second year Aerospace Engineering student at the University of Florida. He is working under Dr. Amor Menezes in the Systems Design and Integration division. He has been a member of CUBES since November 2018. He is interested optimizing mission parameters to minimize mission costs and increase viability. His work at the University of Florida also includes the applications of model-free control to space missions.
Saige is a fourth year at the University of Florida studying Aerospace Engineering. She is working with Dr. Amor Menezes under the Systems Design and Integration division. She is interested in the effects of space travel on biological systems and using alternative solutions to mitigate problems cause by long term missions.
Avery is a third year undergraduate student at UC Berkeley, currently working towards a double major in Economics and Molecular and Cell Biology with an emphasis in developmental genetics. She is interested in how the intersection of her two academic disciplines come together to further the research behind space exploration. In CUBES, Avery is working towards optimizing an elemental balance in a martian biomanufacturing system. Previously, Avery worked at the University of Michigan on research relating to metabolic control in the immune system and the development of new drugs for the treatment of autoimmunity and cancer.
In the future, Avery would like to pursue a career in the biotechnology industry.
Isaac Lipsky is a second year undergraduate student at UC Berkeley studying environmental science. In concert with Aaron Berliner, he is working on developing cost-benefit metrics for Mars surface operations. His interests include planetary science and the tantalizing prospect of Martian terraforming.
Cindy is a second-year undergrad at UC Berkeley studying computer science. She is interested in applying CS skills to space research. At CUBES, she is working on building object oriented models to simulate and optimize a biologically-driven Mars exploration mission. Outside of academics, she practices Wushu (Chinese martial arts) and goes on spontaneous adventures to the beach.
Mia Mirkovic is a second-year undergraduate student in the Electrical Engineering and Computer Sciences department at the University of California, Berkeley pursuing mixed-signal processing and circuit design. Her interests include systems modeling and control, imaging, representation theory, modern music technology and history, and radio.
She works with Aaron Berliner on the development of Crucible, an open-source, 3D-printable chamber for space synthetic biology experiments, and mathematical models for Martian in-situ resource utilization for life support, power, and an integrated, multi-function, multi-organism bio-manufacturing system to produce fuel, food, and materials. These models will likely underlie a software package for accelerating mission design and simulation.