John Chandy

Professor

University of Connecticut

United States

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John Chandy is a Professor at the University of Connecticut in the United States. His research focuses on advanced electronics and quantum computing, with recent articles exploring topics such as quantum dot nonvolatile memory, biodegradable MOSFET devices, and multi-state logic designs. His work includes the development of innovative computing architectures and simulation studies in quantum and mixed-signal circuits.

Articles (20)

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2020

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2020

Collaborators (1)

Sallie R. Permar

Duke University

UNITED STATES

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John Chandy

Research Interests

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Articles (20)

3-Bit D Flip-Flop Using 8 State QDC-SWS Inverters

Compute-in-Memory Cell Using Quantum Dot-Nonvolatile Random Access Memory

Magnesium Metal-Based MOSFET Devices for Biodegradable

Quantum Interference Transistors (Quits) and Coupled Quantum Dot (QD) Structures with Tunneling Barriers for Multi-State Logic, In-Memory and Quantum Computing

8-State SRAMS Based on Cladded GE Quantum Dot Gate FETS

Design and Simulation of 4-State SRAMs Using 4-State Quantum Dot Gate (QDG) FETs

In-Memory Computing Using Dot-Product via Multi-Bit QD-NVRAMs

SI/GE Quantum Dot Channel FETs for Multi-Bit Computing

Simulation and Comparative Study of Propagation Delay in Multi-Channel Quantum SWS-CMOS-Based Inverters Using II–VI Gate Insulator

Threshold Inverter Quantizer-Based 2-Bit Comparator using Spatial Wavefunction Switched (SWS) FET Inverters: Power Dissipation Analysis

What are the key pediatric public policy priorities as the COVID-19 pandemic persists?

Integrated Circuit Authentication Based on Resistor and Capacitor Variations of a Low Pass Filter (LoPUF)

Integrating QD-NVRAMs and QDC-SWS FET-Based Logic for Multi-Bit Computing

Mid to Long Wave Infrared Photodetectors Using Intra-Mini-Energy Band Transitions in GeO<sub>x</sub> Cladded Ge Quantum Dot Superlattice (QDSL) FETs

Propagation Delay Evaluation for Spatial Wavefunction Switched (SWS) FET-Based Inverter

Quantum Dot Channel FETs Harnessing Mini-Energy Band Transitions in GeO<sub>x</sub>-Ge and Si QDSL for Multi-Bit Computing

Translation of AADL model to security attack tree (TAMSAT) to SMART evaluation of monetary security risk

Low-Threshold II–VI Lattice-Matched SWS-FETs for Multivalued Low-Power Logic

3-Bit Analog-to-Digital Converter Using Multi-State Spatial Wave-Function Switched FETs

3-D Confined SWS-FETs Combining Quantum Well and Quantum Dot Superlattice (QDSL)

Collaborators (1)

Sallie R. Permar

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