Modern technologies such as robotics, autonomous cars, and wearable electronics provide enticing solutions to improving quality of life in a wide range of applications, from creating meaningful interpersonal experiences to increased workplace efficiency. Along this frontier, there are many challenges and opportunities that require a combination of scientific rigor and abstract creativity to solve.
During my research career, I have focused primarily on materials science and robotics, working with my colleagues to find ways to combine new and old technologies and ideas to expand what is "humanly possible". This page summarizes my research activities; detailed information can be found in the included links, my Google Scholar, or LinkedIn.
I started with a combined degree with a B.S. in mechanical engineering and M.S. in agricultural engineering with the ABE Automation and Robotics Lab at Iowa State University, developing robots to improve data throughput in agronomy, to help farmers improve yield and decrease environmental impact. I then completed a PhD with the Faboratory at Yale University, and served as a NASA Space Technology Research Fellow, tackling challenges in soft robotics, where I used flexible materials to enable new functionalities in robots for both Earth and space. The overarching theme of my dissertation was embedding functionality into "robotic skins" that can allow engineers to make use of the relatively unused surfaces of robots, while also serving as a multi-functional robotic prototyping platform for resource-constrained applications (think: spacecraft, dense urban areas, remote research facilities).
Since joining Arieca in April 2022, I have been contributing to the commercialization of liquid metal embedded elastomers (LMEEs) to solve problems in thermal management, primarily for the automotive and semiconductor industries. My current role is the Director of Hardware R&D, where we test our thermal interface materials in situations that mimic our end-users' setups, such as smartphones, laptops, PC's, etc.. Additionally, I am co-PI on collaborations with Carmel Majidi's Soft Machines Lab at Carnegie Mellon University (CMU), in which we explore emerging applications of LMEEs, ranging from bodyheat-powered electronics to high-performing interface materials for aerospace applications.
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Dr. Dyl
In Fall 2016, I joined the Faboratory at Purdue University with Prof. Rebecca Kramer-Bottiglio, to work on soft robotics. We applied compliant materials to robots, toward the goals of increased safety and dexterity. I then moved with the lab to Yale University, where I embedded robotic functionalities into thin skins, and designing shape changing robots. In Spring 2021, I received the Henry Prentiss Becton Prize for my research, and defended my dissertation in December 2021. I then stayed on as a post-doctoral researcher until I moved to Arieca in April 2022, formally receiving my PhD diploma in May 2022. Representative projects include:
During my concurrent degrees at Iowa State University (B.S. Mechanical Engineering and M.S. Agricultural Engineering, with thesis) , I worked with Lie Tang on developing robotic systems and image-processing pipelines for data collection during the entire plant life-cycle. This data is useful for improving crop yield and studying the effects of various environmental parameters on plant health.
At first, I assisted with data collection and mechanical design, culminating in my masters' project where I led a small team (a few undergraduates and masters' students) to design and program robots to fulfill the goals of the broader projects. The most sophisticated one (prototype shown below in Figure 3), for the Enviratron project, was a mobile rover with a robot arm and a Kinect V2 3D camera for collision-free probing during use with researchers' specified instruments, such as a fluorometer. We additionally created a slender and compact field robot for 15% of the cost of the commercial alternative, allowing us to collect data on crops, such as corn and soybeans, that are grown in fields with narrow row spacing that conventional field robots could not navigate.
Assembling an ideal team is essential to success. I'd like to briefly give a special shout-out to the undergraduate students who helped with my research throughout the years, as this work would not be possible without them. I'm also quite proud of the work they completed, and want to use this section as another chance to thank them for their contributions.