
Comprehensive guide to designing and ordering PCBs using EasyEDA, LCSC, and JLCPCB. Covers layout, component placement, 3D visualization, and ordering process for custom circuit boards.

Comprehensive exploration of data conversion circuits, covering sampling, quantization, delta-sigma modulation, ADC/DAC architectures, and advanced techniques for improving performance and accuracy.

Comprehensive guide to calculating, simulating, measuring, and filtering noise in operational amplifier and ADC circuits, covering theoretical concepts and practical applications with real-world examples.

Comprehensive guide to KiCad: from installation to creating schematics, PCB layouts, and generating outputs. Covers symbols, footprints, 3D models, and design rules.

Explore electronic circuits, from basic components to advanced concepts like amplifiers and digital systems. Gain practical skills in circuit analysis and design.

Explore mutual inductance, self-inductance, and transformers in AC circuits. Learn about step-up and step-down transformer circuits and their practical applications.

Comprehensive exploration of circuit theory, covering network analysis, responses, theorems, functions, tuned circuits, two-port networks, realizability, and synthesis techniques for various network types.

Comprehensive exploration of digital circuits, covering number systems, Boolean algebra, logic gates, arithmetic circuits, sequential circuits, finite state machines, data converters, memory, FPGA, VHDL, and microprocessors.

The course will cover low noise amplifiers, mixers, power amplifiers, frequency synthesizers (and phase locked loops). The course will also cover several modern radio architectures.

Comprehensive exploration of high-speed semiconductor devices, focusing on compound materials, fabrication techniques, and advanced transistor designs like MESFET, HEMT, and HBT.

This course will concentrate on three aspects: 1) how to design and analog circuits, 2) error budgeting, and 3) various techniques involved in analog circuits.

Explore quantum mechanics, semiconductor physics, and electronic devices. From wave-particle duality to charge transport and continuity equations, gain a comprehensive understanding of semiconductor fundamentals.

Comprehensive exploration of digital circuits and systems through 53 lectures, covering fundamental concepts to advanced applications in electronic design and analysis.

The main aim of the course ‘Analog Circuits and Systems 1’ is to design analog circuits and systems that perform signal conditioning, signal processing functions, and signal generation using devices including Op-Amps, amplifiers, and comparators.

Comprehensive exploration of analog electronic circuits, covering amplifiers, oscillators, feedback systems, and power amplifiers. Includes problem-solving sessions and in-depth analysis of various circuit configurations.

Explore how nature computes through collective processes, challenging traditional views on complexity and information processing in biological and social systems.

Comprehensive exploration of microelectronics, covering BJTs, MOSFETs, amplifiers, and circuit analysis. Focuses on device physics, operational modes, and practical applications in analog and digital circuits.

Comprehensive exploration of analog electronic circuits, covering BJTs, MOSFETs, amplifiers, and feedback systems. Includes in-depth analysis, design guidelines, and practical applications.

Explore power electronics fundamentals, covering diodes, BJTs, MOSFETs, and circuit simulation. Gain practical skills in component analysis, thermal management, and using industry-standard tools.

Explore practical power electronics design, focusing on gate drive, level shifting, and circuit layout techniques for optimal performance and efficiency in power conversion systems.

Explore PANAMA, a novel in-network aggregation framework for distributed ML training, enhancing performance and resource sharing in shared clusters.