Future Leaders in Bioengineering Seminar Series
Future Leaders in Bioengineering at Rice is an annual seminar series that hosts leading postdoctoral fellows and senior PhD students to give a seminar and meet with the faculty at the Department of Bioengineering at Rice University. In addition to presenting a seminar, the speakers will meet with several faculty members and peers within the department to provide a networking opportunity. The speakers will have a choice of presenting virtually, or if the Covid-19 conditions allow, in person. Travel and lodging support for speakers is included. This year's seminars are expected to begin Fall 2023.
Who should apply
The opportunity is open to all postdoctoral fellows and senior PhD students. Individuals from underrepresented groups in bioengineering are encouraged to apply.
How to Apply
To apply for this opportunity, please submit the following materials to firstname.lastname@example.org
- Title and abstract of your talk, with one figure. Up to 250 words abstract and 150 words for the figure caption.
- Statement of future career goals and research interests (up to 500 words)
- Diversity statement (up to 500 words)
- NIH-format biosketch
- A letter of recommendation from your current (postdoctoral, or doctoral) advisor
- Please submit your application materials by email as a single PDF file to email@example.com
June 5th, 2023 Extended: June 12th
Diversity statement instructions
Please share your previous and planned contributions to diversity, equity and inclusion. We are interested in how your perspectives and experiences have shaped you as a scientist, mentor, leader, and instructor. The format is open, as everyone's story is unique.
Jinyoung Kang, Ph.D.
McGovern Institute for Brain Research
Jinyoung is a postdoctoral associate at the McGovern Institute for Brain Research of MIT, working in the labs of Ed Boyden and Guoping Feng. She is developing novel tools for mapping and controlling brain activity. She received her Ph.D. in the Department of Nanoengineering at the University of California San Diego, working in the lab of Michael Sailor, where she focused on the delivery of therapeutics and imaging agents in vivo using porous silicon nanomaterials. Previously, she completed her B.S. and M.S. degrees from the Department of Chemical Engineering at Yonsei University.
Irene Kaplow, Ph.D.
Computational Biology Department
Carnegie Mellon University
Irene Kaplow received her B.S. in Mathematics with a minor in Biology from the Massachusetts Institute of Technology in 2010. There, she began her career as a computational biologist while doing research with Bonnie Berger. She then went to graduate school at Stanford University, where she received her Ph.D. in Computer Science in 2017. At Stanford, she worked in the Hunter Fraser and Anshul Kundaje's labs to develop methods to analyze novel high-throughput sequencing datasets to better understand the roles of DNA methylation and Cys2-His2 zinc finger transcription factor binding in transcriptional regulation. Irene is now a Lane Postdoctoral Fellow in Andreas Pfenning's lab in the Computational Biology Department at Carnegie Mellon University, where she is developing methods to identify regulatory elements whose regulatory activity differences between species is associated with the evolution of neurological phenotypes. In the future, Irene plans to extend this work to non-neurological phenotypes and dissect the sequence differences at regulatory element orthologs that have caused regulatory activity differences between species.
Jessica Butts, Ph.D.
Baylor College of Medicine
Dr. Jessica Butts completed her Bachelor of Science Degree in Biomedical Engineering at Washington University in St. Louis where she worked with Dr. Shelly Sakiyama-Elbert to develop the first directed differentiation protocol of V2a interneurons from mouse embryonic stem cells. Jessica then completed her doctoral work with Todd McDevitt at the Gladstone Institutes receiving a PhD in Bioengineering from the University of California – San Francisco and Berkeley. Her work focused on deriving caudal interneurons from human pluripotent stem cells. Jessica is now a HHMI postdoctoral fellow with Dr. Huda Zoghbi at Baylor College of Medicine researching neuronal fate decisions in the developing hindbrain. This work was funded by an F32 NRSA from the NINDS. Her long-term research goals are to utilize tissue engineering strategies and multi-omic approaches to develop mouse and human stem cell-derived brainstem organoid models mimicking native neural development.
Ana Hernandez-Reynoso, Ph.D.
University of Texas
Ana Hernandez Reynoso is a postdoctoral researcher at the University of Texas at Dallas for the Pancrazio and Cogan laboratories. She received her doctorate degree in Biomedical Engineering from the Romero laboratory at the same university, where she was supported by the Mexican National Council for Science and Technology. Currently, she focuses on improving the performance of microelectrode arrays for long-term recording and stimulation, supported by an NIH/NIDS diversity supplement. Her goal is to become an independent academic researcher and leader in the field of neural engineering, developing translational neural interfaces for novel therapeutic approaches. She is preparing to submit a K99/R00 proposal within the next 6 months to explore the translation of bioelectronic medicines to help individuals who have suffered from traumatic spinal cord injury. She is committed to the continuous, rigorous and responsible communication of science for the advancement of the neural engineering field.
Mariann Ackun-Farmmer, Ph.D.
University of Maryland, College Park
Marian Ackun-Farmmer, Ph.D. graduated from George Washington University in 2012 with a B.S. in Biomedical Engineering (BME). She then joined a three-year rotational employment program as a Quality Development Associate at Baxter International. During that time, Marian rotated in various quality assurance roles at the Mississippi, North Carolina, and Indiana manufacturing facilities. She joined the lab of Danielle S.W. Benoit, Ph.D. at the University of Rochester (UR) in the Biomedical Engineering department to pursue her Ph.D. in 2015 and earned her Masters degree in 2017. Marian’s thesis work focused on developing targeted drug delivery systems to improve acute myeloid leukemia treatments. She completed her Ph.D. training in 2020 and joined the lab of Christopher Jewell, Ph.D. at University of Maryland, College Park to conduct her postdoctoral research training. In the Jewell lab, Marian is designing self-assembled immune polyelectrolyte multilayers to treat multiple sclerosis. Outside of the lab, Marian is the student representative for the Drug Delivery Special Interest Group for the Society of Biomaterials. She is also passionate about mentoring others and is a current George Washington University Clark Scholars Mentor.
Tetsuhiro Harimoto, Ph.D.
Tetsuhiro received his Ph.D. in Biomedical Engineering at Columbia University in 2022. His graduate work in Dr. Tal Danino’s lab centered on engineering living microbes as drug delivery systems. In particular, he developed synthetic biology and bioengineering technologies to program bacteria for the detection and treatment of cancer. Currently, Tetsuhiro is a postdoctoral fellow in the Wyss Institute for Biologically Inspired Engineering at Harvard University with Dr. Dave Mooney. Tetsuhiro is designing next-generation living drug delivery systems utilizing multidisciplinary approaches of immunoengineering, biomaterials, and synthetic biology. Tetsuhiro is the recipient of multiple awards including the Honjo International Scholarship and the NCI Predoctoral-to-Postdoctoral Fellow Transition Award (F99/K00).
Cynthia Steinhardt, Ph.D.
Dr. Steinhardt is a postdoctoral fellow at Columbia University working with Prof. Mark Churchland. She received her PhD from the Department of Biomedical Engineering at Johns Hopkins University working with Prof. Gene Fridman. She graduated from Princeton University with a Neuroscience A.B. and a certificate in Cognitive Science. Her research has focused on how direct/galvanic current and pulsatile stimulation affect single neurons and populations of neurons and therefore can be used to produce naturalistic population spiking patterns in groups of neurons. Using computer simulations to understand these effects, Dr. Steinhardt has developed novel algorithms and theories about electrical stimulation that advance the fundamental science and applications of electrical stimulation to create more effective neural implants. Her future plan is to use similar techniques to explore how these interactions drive neural dynamics and how they may be tuned to better drive local and interregional communication within the brain.