Path Catalog
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正在从 AllPath API 加载 Path Catalog…
Path Catalog
列表数据实时取自 GET /api/v1/paths，仅包含存在已发布版本的 Path。
共 7800 条 Path · 第 69 / 780 页
A systematic learning path covering the physics of quantum dots and their application in electronic devices such as single-electron transistors, quantum dot lasers, and quantum dot memories. The path builds from foundational quantum mechanics and solid-state physics to advanced device concepts, emphasizing the underlying principles and design considerations.
This learning path systematically covers the fundamentals of 2D semiconductors, focusing on MoS2 and WSe2, and their applications in transistors and photodetectors. It builds from basic materials science and device physics to advanced device operation and characterization.
This learning path provides a systematic journey from fundamental MEMS concepts to advanced nanoelectromechanical systems (NEMS). It covers scaling laws, materials, transduction, and the design of NEMS resonators, sensors, actuators, and oscillators, emphasizing the unique physics at the nanoscale. The path is designed for nanoelectronics and engineering students with a university-level background, culminating in an understanding of current challenges and applications.
A systematic learning path covering the physics and engineering of nanophotonic devices, including plasmonics, waveguides, modulators, and detectors. Starting from electromagnetic foundations and materials science, progressing through guided-wave and resonant structures, and culminating in device-level analyses.
This advanced learning path guides nanoelectronics and engineering students through the principles, mechanisms, and applications of nanoscale sensors. It covers the physical and chemical foundations, transduction mechanisms, device architectures, and integration challenges, culminating in a comprehensive understanding of nanosensor systems.
This advanced learning path guides nanoelectronics and physics students through the fundamental principles and implementations of nanoscale quantum computing devices. It covers the physics of qubits, the main physical platforms (superconducting, semiconductor, and topological), and the materials and fabrication challenges involved. The path emphasizes the underlying quantum mechanics and solid-state physics necessary to understand and evaluate these emerging technologies.
This advanced learning path guides nanoelectronics and chemistry students from the fundamental concepts of molecular electronics to the design, fabrication, and characterization of single-molecule devices, including rectifiers. It integrates essential chemistry, physics, and nanofabrication knowledge to build a coherent understanding of charge transport at the molecular scale.
This advanced learning path guides nanoelectronics and physics students through the fundamental physics and engineering principles of spintronics, covering spin injection, magnetoresistance effects (GMR and TMR), and spin transistors. It begins with foundational quantum mechanics and solid-state physics, progresses through magnetism and spin transport, and culminates in the analysis of state-of-the-art spintronic devices. The path emphasizes the underlying physical mechanisms and the interconnections between magnetism, electronics, and quantum mechanics.
A systematic learning path covering graphene's unique electronic properties, device physics, fabrication, and applications in nanoelectronics. Designed for nanoelectronics and materials science students at an intermediate level.
A systematic learning path covering the structure, properties, and applications of carbon nanotubes in electronics, from fundamentals to devices and interconnects.