Udayan Ganguly
Indian Institute of Technology Bombay, Applied Materials Inc, Cornell University, Indian Institute of Technology Madras, NASA Ames Research Center
About
Udayan Ganguly received the B.Tech. degree in Metallurgical Engineering from the IIT Madras, in 2000 and the M.S. and Ph.D. degrees in Materials Science and Engineering at Cornell University, Ithaca, NY, in 2005 and 2006 respectively. In 2006, after a short Postdoctoral Scholarship position at NASA Ames Research, Udayan joined Applied Materials to serve as the technical lead for Flash Memory Applications Development at Applied Materials’ Front End Product Division, Sunnyvale, CA. He has joined Dept. of Electrical Engineering in 2010. His research interests are in semiconductor device physics and processing technologies for advanced memory, computing, and neuromorphic systems.
Employment
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Indian Institute of Technology Bombay Associate Professor2010 - Present
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Applied Materials Inc Member of Technical Staff2006 - 2010
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NASA Ames Research Center2006 - 2006
Education
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Cornell University Ph.D.2000 - 2006
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Indian Institute of Technology Madras Bachelor of Technology1996 - 2000
Projects & Funding
Projects & funding information is unavailable.
Publications (146)
- High Remnant Polarization (2Pr > 65 μ C/cm2) in Sputtered HfxZr1- xOy Thin Films Save
- Design Space and Variability Analysis of SOI MOSFET for Ultralow-Power Band-to-Band Tunneling Neurons Save
- Heracles: A HfO2 Ferroelectric Capacitor Compact Model for Efficient Circuit Simulations Save
- One-Time Programmable Memory for Ultra-Low Power ANN Inference Accelerator With Security Against Thermal Fault Injection Save
- Low Voltage NIPIN Symmetric and Bi-Directional Diode for System Level ESD Protection Save
- Area and Energy-Efficient Quantum Tunneling-Based Thermal Sensor on 45nm RFSOI Technology Save
- Engineering wafer scale single-crystalline Si growth on epitaxial Gd2O3/Si(111) substrate using radio frequency sputtering for silicon on insulator application Save
- Process-Voltage-Temperature Variability Estimation of Tunneling Current for Band-to-Band-Tunneling-Based Neuron Save
- A 42.3 μm² Band to Band Tunneling-Based Oscillator Enabled Temperature to Digital Converter With Resolution FoM of 0.16 pJK² for Embedded Temperature Sensing Save
- FeFET-Based MirrorBit Cell for High-Density NVM Storage Save