Kristian is an NSERC post-doctoral fellow in Environmental Engineering and Science at Stanford University. His current research focuses on: Hard-wiring bacteria in a microbial battery, salinity gradient energy production from a mixing entropy battery, and PHB bioplastic production from C. Necator. His PhD was in Chemical and Biological Engineering from the University of British Columbia in Vancouver.
Pauline received a bachelor's degree and a master's degree in pharmaceutical sciences from the University of Lyon, France. She is currently a visiting scholar in the Department of Chemical Engineering in the McDonald Laboratory at UC Davis.
Brendan, originally from Austin, TX, is a second-year chemical engineering major with a concentration in biotechnology. His research interest lies in the intersection of chemical engineering and synthetic biology. As a part of CUBES, Brendan is currently working with postdoctoral scholar Jacob Hilzinger to genetically engineer cyanobacteria to produce useful biomass in both Earth-based and Mars-based economies.
Kalimuthu Karuppanan is a Postdoctoral scholar in the Department of Chemical Engineering, at the University of California, Davis. He received his Ph.D. in Biotechnology and M.S. degree in Plant Science from Madurai Kamaraj University, India. Since he has been at UC Davis Dr. Karuppanan has contributed to a number of research projects funded by DARPA, DTRA, and NSF and he has mentored many Ph.D. students and undergraduate researchers. He was the instructor for ECH161L, Bioprocess Engineering Laboratory course, in 2014 at UC Davis. He received the campus-wide Award for Excellence in Postdoctoral Research in 2016 and Phil Thai Memorial Award in Medicine for Lung Research in 2015 for his outstanding research performance. He is a co-inventor in a recently filed patent on Novel Fusion Proteins for Treating Inflammatory Diseases. Dr. Karuppanan is a CUBES Co-PI and member of the Food and Pharmaceutical Synthesis Division.
His research is in protein biotherapeutics for treating infectious and non-infectious diseases. He has extensive experience in recombinant protein bioprocessing in planta. His work includes gene design, designing vector systems for agrobacterial-mediated gene transfer in plants, protein expression using plants and plant cell suspension cultures, protein purification using affinity and traditional chromatography systems, biophysical and functional characterization of recombinant proteins, and drug efficacy improvement by enzymatic glycan modification.
Rhesa discovered her scientific interest many years ago in a high school chemistry class. Her inspirational teacher, Mr. Best—the stereotypical science geek with large bug-eye glasses—taught Rhesa many scientific lessons, but perhaps the greatest was that science is not just for nerdy boys (as her flawed logic thought), it is for anyone.
Currently, a Ph.D. student in the Department of Chemistry and Biochemistry at Utah State University, Rhesa can be found at the laboratory bench doing research focused on understanding and harnessing the amazing abilities of microorganisms. Specifically, she studies the microbial transformation of nitrogen (N2) to ammonia (NH3). This process is a critical part of nature as the majority organisms cannot utilize N2 directly, but need it in a form like NH3 for growth and reproduction. The few microbes that facilitate this conversion provide valuable insight into one of the most biologically challenging reactions and may serve as a catalyst for developing systems for sustainable ammonia production on Mars.
In additional to research, Rhesa also serves as a science reporter for Utah Public Radio and plans to pursue a career in science education and/or communication. Her excitement for not only doing science, but communicating it just might stem from growing up doing musical theater, which she loves. She also enjoys experiencing other cultures, and hot-potting is always on her list of things to do (and yes, it’s partly to see the beautiful microbial mats)!
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.
Alex Starr is a second year undergraduate at University of California Berkeley with interests in synthetic and molecular biology, applied math, artificial intelligence, and the utilization of biology in space exploration. As part of CUBES, he is working to develop a system for the detoxification and enrichment of Martian regolith using the perchlorate reducing bacterium Azospira suillum PS. Prior to joining CUBES, Alex studied expression of genes related to root growth in sunflowers and worked on understanding the genetic basis of drought-tolerant root phenotypes in maize.
Currently Su is a postdoctoral researcher working with Professor Peidong Yang at University of California, Berkeley. His current research focuses on the bioelectrochemical CO2 fixation and N2 reduction. He received his Ph.D. degree in Chemistry on September 2017, with Professor Peidong Yang at University of California, Berkeley. During the Ph.D., he was awarded the MRS Graduate Student Award and the Chinese Government Award for Outstanding Self-financed Student Abroad. Su obtained his B.S. degree in Chemistry from University of Science and Technology of China on 2012, before joining the Peidong Yang Group as a graduate student.
Chris Szikszai worked with the Waymouth group, summer of 2017, testing feasibility of extruding and printing PHBV (poly-3-hydroxybutyrate-co-3-hydroxyvalerate). Aided by Professor Dan Strauss from SJSU and Naomi Clayman, Chris used analytical techniques such as DSC, GPC, and an Instron tensile tester to characterize the biopolymer: before extrusion, prior to printing, and after printing.