Preparing your Path…
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Path Catalog
Data is pulled live from GET /api/v1/paths, and only Paths with a published version are listed.
7807 Paths · page 328 / 781
This learning path provides a structured introduction to the environmental impact and recycling of electronic waste (e-waste). It covers sources of e-waste, hazardous materials, environmental and health effects, recycling processes, and the principles of a circular economy. Designed for students and professionals, it builds a solid foundation for understanding and addressing e-waste challenges.
This advanced learning path guides senior and graduate students through the design of circuits that harvest ambient energy from solar, thermal, vibration, and RF sources. It covers the principles of each energy source, conversion mechanisms, power management circuits, and system-level integration, emphasizing efficiency and practical implementation.
This learning path provides a comprehensive understanding of electronic systems in modern vehicles, from foundational electronics to advanced embedded control systems. It covers sensors, actuators, ECUs, communication networks like CAN, and specific applications such as engine control, ABS, and infotainment, preparing learners for careers in automotive electronics.
This advanced learning path equips senior or graduate students in electronics engineering with the knowledge to design and analyze electronic systems for medical applications. It covers the origin and acquisition of key biosignals (ECG, EEG, PPG), analog signal conditioning, medical sensors, essential safety standards, and the design of devices like ECG monitors, EEG amplifiers, and pulse oximeters.
This learning path guides students and hobbyists through the fundamentals of analog electronics and audio engineering, covering essential circuits for amplification, filtering, and signal processing. It progresses from basic components to practical applications like equalizers and noise reduction, culminating in a clear understanding of audio signal chains including DAC/ADC interfaces.
This path equips junior and senior engineering students with the knowledge to design systems that incorporate various sensors and actuators. It covers fundamental sensor principles, signal conditioning, specific sensor types, MEMS technology, and actuator selection, culminating in an integrated design project.
This advanced learning path guides senior electronics engineering students through the fundamental principles and system-level design of wireless communications. It covers communication theory, RF circuit design, antennas, propagation models, and major wireless standards including cellular, WiFi, and Bluetooth. The path emphasizes practical design considerations and system architecture.
This path guides senior engineering students through the complete process of designing embedded systems, covering microcontroller selection, peripheral interfacing, firmware development in C, and real-time operating systems. It builds from digital logic and C programming fundamentals to advanced topics like RTOS and hardware-software integration.
This learning path guides senior electronics engineering students through the complete FPGA-based digital system design flow, from digital logic fundamentals to advanced implementation and debugging techniques. It covers HDL (VHDL/Verilog), simulation, synthesis, implementation, and on-chip debugging, preparing learners for careers in digital hardware design.
A structured path for junior electronics students to learn SPICE-based simulation and analysis of electronic circuits. It progresses from foundational circuit theory and SPICE netlists through DC, transient, and AC analyses, culminating in parameter sweeps and Monte Carlo methods.