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Ebrahim Forati
Electromagnetics enthusiast
Ebrahim Forati is a professional in the field of quantum hardware, currently working at Google Quantum AI since September 2021. He is based in San Jose, California. His role involves advancing quantum computing technologies, particularly focusing on superconducting qubits and error correction methods.
Education and Early Career
Forati holds a Ph.D. in Electrical Engineering from the University of Wisconsin-Milwaukee, where he completed his dissertation on a novel transport-based model for wire media and its application to scattering problems. His academic journey included significant research on quantum optics and metamaterials.
Before joining Google, Forati worked at several notable companies:
- Apple (June 2018 - September 2021): He was involved in optical sensing hardware.
- Applied Materials (November 2017 - June 2018): He worked on next-generation lithography tools for displays.
- TDK (May 2016 - November 2017): His focus was on quantum dot lasers and LiDAR sensor technologies.
Research Contributions
Forati has contributed to various significant publications in quantum computing, including works on suppressing quantum errors and measurement-induced entanglement. His research is aimed at developing hardware and software tools that enhance the capabilities of quantum computers beyond classical limits.123
Certifications and Honors
He has also pursued additional certifications in quantum computing from MIT xPRO and has received several awards during his academic career, including the Chancellor's Award from the University of Wisconsin-Milwaukee and travel fellowships from the National Academies.24
Online Presence
Forati is active on LinkedIn, where he shares insights related to his work and research in quantum hardware.2 He also engages with the community on platforms like Twitter, where he discusses topics related to electromagnetics and quantum computing.5
Highlights
Our note on the electromagnetic couplings among resonators and transmission lines: https://lnkd.in/gcgfBPAn The document summarizes some of the common definitions and approximations used in describing coupled EM resonators. Precise control of the EM couplings is crucial for the design and operation of superconducting qubit devices.
Re-sharing this blog post especially for my fellow electromagnetic engineers/researchers outside of quantum computing. It includes a high level technical overview of this week's announcement by Google Quantum AI's team. In short, information is protected from errors by adding redundancy to the system. That is, information is spread across many physical qubits such that errors of individual qubits can be detected and tracked/corrected. These qubits collectively contain a single bit of quantum information and form a logical qubit. This is implemented by a particular code called surface code. If the error rate of the physical qubits in a logical qubit is less than a threshold, scaling their number will suppress the logical qubit's error rate. The announcement was about the first experimental demonstration of such error suppression.
