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Path Catalog
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7801 Paths · page 326 / 781
This graduate-level learning path explores the design and implementation of electronic systems inspired by neural systems. It covers neural dynamics, spiking neural networks, analog/digital neuromorphic circuits, and memristive devices, providing a comprehensive understanding of neuromorphic engineering from theory to practice.
This learning path guides students and hobbyists through the process of designing and building IoT devices from an electronics standpoint. It covers essential hardware components, connectivity options, sensor integration, power optimization, and cloud platform basics, providing a solid foundation for creating functional IoT prototypes.
A graduate-level learning path exploring quantum phenomena that underpin modern electronic devices. Starting from foundational quantum mechanics and semiconductor physics, it progresses through tunneling, quantum confinement, quantum dots, quantum sensors, and concludes with the basics of quantum computing.
This graduate-level learning path explores the science and technology of flexible and printed electronics, from semiconductor physics to manufacturing and applications. It covers organic semiconductors, substrate materials, printing methods, and key device architectures, emphasizing the underlying physics and practical engineering considerations.
This learning path equips automation engineers with the knowledge to apply electronics in industrial automation and control. It covers essential topics from basic electronics and embedded systems to PLCs, sensors, actuators, industrial communication, and control panels, emphasizing practical application and integration.
This learning path equips product designers with the engineering knowledge needed to design consumer electronic products. It covers embedded systems foundations, user interface design, power management, wireless connectivity, and cost optimization, with a focus on practical application.
This learning path equips RF engineers with the knowledge to design antennas for various electronic applications, covering electromagnetic fundamentals, antenna parameters, types, impedance matching, and practical design considerations.
This advanced professional learning path equips telecom engineers with a comprehensive understanding of telecommunication network architecture, covering switching, transmission, optical networks, protocols, and network management. It builds from foundational communication principles to advanced architectural concepts, emphasizing practical applications and cross-domain integration.
This learning path equips engineers and managers with the skills to plan, execute, and control electronic product development projects. It covers the product lifecycle, requirements management, scheduling, cost estimation, and risk management, with a focus on the unique challenges of hardware and firmware development.
This path guides engineers through the fundamentals and practical design of linear and switching power supplies. It covers key topologies (buck, boost, flyback), magnetics design, control loops, and practical implementation considerations, enabling learners to design robust power supplies for electronic equipment.