Viveka Konandur Rajanna
Indian Institute of Science Bangalore, National University of Singapore, Indian Institute of Science, Berkeley Education Alliance for Research in Singapore Limited
About
Dr. Viveka Konandur Rajanna is an Assistant Professor in the Department of Electronic Systems Engineering (DESE) at Indian Institute of Science (IISc), Bangalore. He received his M.Tech. and Ph.D. degrees from IISc in 2007 and 2016 respectively. He worked as research fellow at the National University of Singapore (NUS), before joining the institute in 2022. He worked with Analog Devices Inc, Bangalore, between 2007 to 2010, developing Blackfin DSPs. His research interests include ultra-low power VLSI circuits, in-memory computing, memory design, low-power human sensor interface and secure on-chip computing.
Employment
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Indian Institute of Science Bangalore Assistant Professor2022 - Present
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Analog Devices Inc Design Engineer2007 - 2010
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National University of Singapore Research Fellow
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Berkeley Education Alliance for Research in Singapore Limited Postdoctoral Research Fellow
Education
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Indian Institute of Science PhD2010 - Present
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Indian Institute of Science M. Tech.2005 - 2007
Projects & Funding
Projects & funding information is unavailable.
Publications (12)
- SRAM Static Entropy Extraction From Every Single Transistor in Unmodified Bitcell and Data Fingerprinting for Provenance Assurance Save
- In-Memory Unified TRNG and Multi-Bit PUF for Ubiquitous Hardware Security Save
- On-Chip Links With Energy-Quality Tradeoff in Error-Resilient and Machine Learning Applications Save
- SRAM with In-Memory Inference and 90% Bitline Activity Reduction for Always-On Sensing with 109 TOPS/mm2 and 749-1,459 TOPS/W in 28nm Save
- Fully-Digital Self-Calibrating Decoder with Sub-µW, 1.6fJ/convstep and 0.0075mm2 per Receptor for Scaling to Human-Like Tactile Sensing Density Save
- 36.1 Unified In-Memory Dynamic TRNG and Multi-Bit Static PUF Entropy Generation for Ubiquitous Hardware Security Save
- Low-Swing Links with Dynamic Energy-Quality Trade-off for Error-Resilient Applications Save
- A Variation-Tolerant Replica-Based Reference-Generation Technique for Single-Ended Sensing in Wide Voltage-Range SRAMs Save
- Energy Efficient Memory Decoder Design for Ultra-low Voltage Systems Save
- Digitally controlled variation tolerant timing generation technique for SRAM sense amplifiers Save