Research Engineer
Hampton, Va, Us
Resident of the Advanced Materials and Processing Branch (AMPB, D307) under the Research Directorate at NASA’s Langley Research Center. Assigned to the Lunar Occupancy Dust Surface Separation Technologies Project (Lo-DuSST), Origami Composites CIF-IRAD Project, and Extreme Environments CIF-IRAD (Center Innovation Fund – Internal Research and Development) Project.Coding: Began studying and drafting the foundation to develop a computational study on FEA models for origami structures, focusing on the Yoshimura and Kresling patterns when folded and unfolded. Used Python’s NumPy and Matplotlib to also interpret data collected from DSC, TGA, and UV-VIS-NIR Spectroscopy for to study the behavior of materials under changing parameters, focusing on cure times and material thickness. Investigated other computational origami methodologies produced in JavaScript, C, JSON, and MATLAB as potential catalysts for new FEA tools.Chemistry: Evaluated resin curing methodologies and material characteristics, factoring in vacuum degassing, catalysts, UV light, and other conditions, to improve resin cure performance for experimental origami structures in space environments. Used material characterization methodologies including thermogravimetric analysis, differential scanning calorimetry, and spectroscopy for different material samples while using Python to determine optimal curing methods and procedures. Used optical microscopy to determine behavior of wear resulting from Taber Abrasion under different ceramic coupons. Used mechanical testing methods to determine stress and strain tests to help assist with FEA developments. Coordination: Developed components used for Honeybee Robotics’ PlanetVac system as a secondary payload for materials testing as part of a NASA Space Act Agreement to study the behavior or selected materials for exposure in a true lunar environment. Worked with other vendors to determine ideal components for procurements.