This inventor holds 2 USPTO granted patents. Top assignee: Massachusetts Institute of Technology. Active years: 2021.
Company Filing History:
Years Active: 2021
Title: Brenden Butters: Innovator in Superconducting Technology
Introduction
Brenden Butters is a prominent inventor based in Cambridge, MA (US). He has made significant contributions to the field of superconducting technology, holding 2 patents that showcase his innovative approach to programmable superconducting cells and photon detection.
Latest Patents
His latest patents include the "Superconducting nanowire-based programmable processor," which describes apparatus and methods related to programmable superconducting cells. This technology allows for the formation of a programmable superconducting cell from a superconducting current loop with at least two terminals. The design can be integrated into a crossbar architecture, enabling high-speed vector-matrix multiplication for deep neural network computations. Another notable patent is for "Single-photon single-flux coupled detectors." This device combines a superconducting nanowire single-photon detector with a superconducting multi-level memory. It is capable of counting the number of photons impinging on the device through single-photon to single-flux conversion, demonstrating advanced electrical characterization and optical measurement capabilities.
Career Highlights
Brenden Butters is affiliated with the Massachusetts Institute of Technology, where he continues to push the boundaries of superconducting technology. His work has implications for various applications, particularly in the fields of computing and quantum technology.
Collaborations
He has collaborated with notable colleagues, including Karl Kimon Berggren and Oguzhan Murat Onen, contributing to the advancement of research in superconducting materials and devices.
Conclusion
Brenden Butters stands out as an innovative inventor in the realm of superconducting technology. His patents reflect a commitment to advancing the field and addressing complex challenges in modern computing.
