Lectures related to Quantum and Nanocomputing

Molecular Transistors: Design and Simulation

Explores molecular transistors for logic computation, design, simulation, and fabrication, emphasizing interconnect parasitics and device performance.

Quantum and Nanocomputing

Explores the fabrication and behavior of quantum and nanocomputing devices, focusing on molecular conduction and device characteristics.

Digital Logic Circuits: CMOS and Verilog Design

Discusses digital logic circuits, CMOS technology, and Verilog for circuit design.

Shor Algorithm: Circuit Details II

Explores the Shor algorithm circuit details for efficient number factoring using quantum computing.

Logic Synthesis: Designing Efficient Digital Circuits

Discusses logic synthesis techniques for designing efficient digital circuits from functional descriptions and truth tables.

Digital Logic Circuits: Memory and Decoder Fundamentals

Provides an overview of digital logic circuits, focusing on memory systems and binary decoders, including their operation and access protocols.

Logic Synthesis: Designing Efficient Digital Circuits

Discusses logic synthesis techniques for designing efficient digital circuits using minterms, maxterms, and new gates like XOR and XNOR.

Quantum Metrology: Superconducting Electronics & Qubits

Explores quantum metrology, superconducting electronics, detectors, qubits, and quantum supremacy, emphasizing advancements in quantum computing.

Implementation with Transistors

Covers the implementation of a processor with transistors and focuses on improving performance through various technologies and circuit designs.

Introduction to Logisim Evolution: Basics of Digital Circuit Design

Introduces Logisim Evolution, focusing on basic components for digital circuit design.

Quantum Computing Fundamentals

Covers quantum computing fundamentals, ADC architectures, oversampling advantages, noise shaping, glitch phenomena, and digital integrated circuit noise.

Quantum Computing: Molecular Transistors and Logic Gates

Delves into molecular transistors, logic gates, and their design using molecular technology.

Current Sources and Integrated Circuit Amplifiers

Explores current sources, amplifiers, voltage gain, and circuit design in integrated circuits.

Experimental Results Presentation: Tabor Experiment Analysis

Covers the analysis of experimental results from the Tabor experiment, focusing on voltage measurements and circuit design.

Digital Circuits: Logic Basics

Introduces digital circuits, covering binary systems, logic operators, Boolean algebra, memory elements, and practical examples like BCD decoders and shift registers.

Quantum and Nanocomputing

Explores Cryo-CMOS components, quantum computing stack, amplifier performance, noise specifications, and impedance matching in electronic circuits.

Bio-Nano-Chip Design: Capacitance Measurement and DNA Detection

Explores Bio-CMOS circuits for DNA detection, including CBCM circuits and Analog Integrators, and discusses a circuit front-end for label-free DNA detection.

Designing 3-Dimensional NAND Circuits: Key Considerations

Covers the design considerations for 3-dimensional NAND circuits, focusing on transistor sizing and performance optimization.

Circuit Simulation Basics

Covers the basics of circuit simulation using LT-SPICE and lab equipment overview.

Voltage Summator: Frequency-Independent Inverter Assembly

Explores the design of a voltage summator with a frequency-independent inverter assembly.