Preparing your Path…
ALLPATHFoundationALLPATHFoundationPreparing your Path…
Path Catalog
Data is pulled live from GET /api/v1/paths, and only Paths with a published version are listed.
7807 Paths · page 329 / 781
This learning path guides senior electronics engineering students through the essential concepts needed to apply control theory to electronic systems. Starting with foundational signals and systems, it progresses through transfer functions, state-space representation, stability analysis, PID control, and digital control, culminating in a practical application project.
This advanced learning path systematically builds the theoretical foundations of communication systems, covering signals and systems, probability, modulation theory, information theory, noise analysis, and channel coding. It is designed for senior or graduate students in electronics engineering who wish to achieve a rigorous understanding of how information is reliably transmitted over noisy channels.
A graduate-level learning path covering the quantum mechanical foundations, band theory, carrier transport, and heterojunction physics essential for understanding modern semiconductor devices. This path systematically builds from quantum mechanics and crystallography through to advanced device concepts, ensuring a deep and rigorous understanding.
A comprehensive learning path for senior electronics engineering students to understand and analyze power conversion circuits using semiconductor switches. It covers fundamental semiconductor devices, converter topologies, control methods, and practical design considerations, building from basic analog electronics to advanced power electronics systems.
This advanced path guides senior electronics engineering students through the complete integrated circuit design flow, starting from semiconductor physics and CMOS technology, through layout and design rules, to fabrication and testing. It emphasizes practical career skills for IC design.
This learning path equips senior electronics engineering students with the knowledge and skills to analyze and design RF circuits for communication systems. It covers essential concepts from transmission lines and S-parameters to amplifiers, mixers, and oscillators, emphasizing practical design techniques and real-world considerations.
This advanced learning path guides senior electronics engineering students through the systematic design and implementation of digital signal processing algorithms. It begins with foundational signals and systems concepts, progresses through the Z-transform, DFT, and FFT, and culminates in the design of FIR and IIR filters, including practical implementation considerations.
This learning path guides senior electronics engineering students through the systematic design and analysis of advanced analog circuits. Starting with semiconductor fundamentals and transistor modeling, it progresses through differential amplifiers, current mirrors, frequency response, and feedback amplifiers, culminating in a comprehensive design project.
This path introduces junior electronics engineering students to the fundamentals of microprocessor and microcontroller systems, covering CPU architecture, memory, I/O, interrupts, and programming in assembly and C. It builds from digital logic and computer organization to hands-on embedded system development, preparing learners for careers in embedded systems.
This path guides junior electronics engineering students through the systematic design of active and passive analog filters. It covers fundamental filter concepts, passive RC and RLC designs, and active filter implementations using operational amplifiers, including Butterworth and Chebyshev approximations and Sallen-Key topologies.