Co-founder and CTO of Material Hybrid Manufacturing Inc. I developed one of the worlds first fully 3D printed lithium ion battery. We are now commercializing this technology.

At X-Celeprint, I led the development of cutting-edge heterogeneous integration technologies through Micro-Transfer Printing (MTP), working closely with domestic and international customers in sectors such as photonics, medtech, datacom, quantum computing, and LIDAR. I collaborated with deep tech companies to deliver scalable MTP-based prototypes using industry-standard semiconductor processes, creating transformative products with applications in wearables, biomedical devices, optical computing, and in-vivo sensors for healthcare and environmental monitoring. I was also the technology liaison for our RTP and Tyndall labs. Additionally, I managed a DARPA-funded project, further advancing MTP technology for next-generation applications. My work focused on integrating diverse components onto single substrates, enabling high-performance devices with smaller footprints and greater energy efficiency.Key Achievements:Led the development of a prototype for a customer, who then secured a $25M Series A after successfully demonstrating the prototype to investors.Created simulation tools that enhanced yield in our hybrid semiconductor process, improving overall efficiency and scalability.Managed high-impact, DARPA-funded initiatives, pushing forward innovations in micro-transfer printing.Developed scalable prototypes leveraging industry-standard semiconductor processes.Created applications across multiple high-tech industries, including healthcare monitoring, quantum computing, and LIDAR.

As a Process Scientist at X-Celeprint, I developed and optimized Micro-Transfer Printing (MTP) processes for applications in photonics, medtech, datacom, and quantum computing. I worked in a semiconductor micro-fab cleanroom, actively using semiconductor tools in the lithography process to enhance the performance and yield of hybrid semiconductor devices. My contributions supported the creation of advanced technologies like wearables, biomedical sensors, and LIDAR systems.

The Additive Lab @ Rice Material Science and Nano Engineering DeptPI: Dr. Zachary CorderoAs a postdoctoral researcher in the Additive Lab at Rice University, I developed a hybrid-additive manufacturing process for polycrystalline diamond composites. My work involved using binder jet printing for metals and ceramics, combined with high-pressure, high-temperature process equipment to fabricate advanced composite materials. This research expanded the capabilities of additive manufacturing in producing high-performance materials for various industrial applications.

At Kiewit Offshore Services, I worked on the topsides fabrication of the Leviathan rig for Noble Energy. My responsibilities included operating manlifts from 25 to 125 feet and working at heights of up to 200 feet. I also operated industrial sandblasting equipment, as well as industrial airless and high-volume low-pressure (HVLP) paint systems, to prepare and coat surfaces for corrosion protection, ensuring compliance with offshore industry standards.

During my PhD, I conducted research in 3D Printed Rechargeable Lithium-Ion Batteries under the guidance of Dr. Benjamin Wiley in the Department of Chemistry and Materials Science. My work focused on developing advanced battery architectures through 3D printing techniques.Additionally, I explored Nanoparticle Assembly using Acoustic Radiative Forces under Dr. Gabriel P. Lopez in the Department of Biomedical Engineering. This research involved using acoustic waves to manipulate nanoparticles, contributing to biomedical and material science applications.I was honored to be an NSF Graduate Fellow and a MRSEC Fellow, supporting interdisciplinary research in materials science and nanotechnology.

While in graduate school at Duke University, I co-founded a telepresence robotics company as part of the Duke Start-Up Challenge. As CTO, I led the technical development and business strategy for our low-cost, 3D-printed telepresence robot.Key Achievements:Wrote a provisional patent for the telepresence robot technology.Designed and developed a 3D-printed, low-cost telepresence robot.Established an LLC and created a comprehensive business plan.Successfully advanced through three rounds of the Duke Start-Up Challenge, refining the product and business model.

During my undergraduate studies, I conducted research under the mentorship of Dr. William Brittain and Dr. Luyi Sun in the Department of Chemistry. My work spanned multiple projects that deepened my understanding of nanomaterials and computational chemistry.Key Projects and Skills:Convective Assembly of Nanoparticles (Dr. William Brittain): Investigated the self-assembly of nanoparticles through convective methods, gaining expertise in nanoparticle manipulation and thin-film fabrication.DFT NMR Simulations (Dr. William Brittain): Conducted Density Functional Theory (DFT) simulations to predict and analyze NMR spectra, developing strong skills in computational chemistry and quantum chemical modeling.Halloysite Nanotube Nanocomposites (Dr. Luyi Sun): Studied the synthesis and characterization of halloysite nanotube-based nanocomposites, enhancing my knowledge of composite material design and nanotube applications.Through these projects, I developed proficiency in experimental design, nanomaterials synthesis, DFT simulations, and data analysis, providing me with a solid foundation for future research in nanotechnology and material science.