Matthew Mosteller has over a decade of experience representing clients in complex patent litigation before the U.S. District Courts, International Trade Commission, and U.S. Patent and Trademark Office.
Attentive to both the technical details of each case and his clients’ unique goals, business needs, and overall intellectual property strategy, Matt has experience with all stages of litigation, from pre-suit investigations through trial and appeal. As a registered patent attorney, he also has extensive experience with all phases of patent prosecution, inter partes review proceedings, patent appeals, and strategic patent portfolio cultivation and analysis.
Matt has advised clients in matters relating to a diverse array of technologies. His recent work involves helping clients navigate protection and enforcement of standard essential patents, including for cellular, wireless and wired networks, semiconductor devices, and video codecs. His experience also extends to matters involving mobile device hardware and software, computer memory architectures, televisions and set-top boxes, cloud-based computing, software-as-a-service (SaaS), data compression, micro-electro-mechanical systems (MEMS), fiber optics, digital health, and biomedical devices.
Recently, Matt completed a near year-long secondment at one of the world’s leading computer and consumer electronics companies, further solidifying his business-focused, client-first approach to intellectual property.
Matt also dedicates significant time to pro bono causes, including advocating for clients in workplace discrimination suits and in immigration proceedings in cooperation with the advocacy organization Immigration Equality.
Prior to his legal career, Matt garnered design and fabrication experience with the MEMS Sensors and Actuators Laboratory (MSAL) and Maryland Nanocenter FabLab at the University of Maryland. His graduate work focused on device physics and fabrication, biosensing, and signal processing. He is the author of several peer-reviewed publications relating to electrically enhanced biosensing and treatment in microfluidic devices, and integrated biomedical system design.
