Microchip opens European MASTERs registration

Microchip opens European MASTERs registration

Microchip has opened European MASTERs Conference registration for embedded engineers. The Munich event covers MCU-to-MPU migration, Single Pair Ethernet, software, analogue, FPGAs, motor control, power conversion, and wireless design.


IN Brief:

  • Microchip has opened registration for its European MASTERs Conference in Munich.
  • The event will run from 12–15 October 2026 and feature more than 80 technical classes.
  • Embedded design training is expanding around MCU-to-MPU migration, Ethernet, FPGAs, power conversion, software, and security.

Microchip Technology has opened registration for its European MASTERs Conference, which will take place from 12–15 October 2026 at the Westin Grand Munich in Germany.

The in-person technical training event is built around embedded control engineering and will feature more than 80 technical classes led by Microchip subject-matter experts. MASTERs stands for Microchip Annual Strategic Technical Exchange and Review, with the programme focused on practical engineering content, hands-on work, and direct technical exchange.

The agenda includes MCU-to-MPU migration, implementation of 10BASE-T1S Single Pair Ethernet for scalable networks, embedded software, MCU systems, analogue design, FPGAs, motor control, power conversion, wireless connectivity, and related embedded design subjects. The event also includes hands-on labs, third-party partner presentations, networking sessions, and an “Ask the Experts” area with interactive demonstrations.

Registration packages include access to classes, technical materials, and conference activities. Early-bird pricing is listed at €513 plus VAT before 15 July, with standard registration at €570 plus VAT after that date. Returning attendees are offered an alumni rate of €501.60 plus VAT, and group pricing is available.

Embedded design is widening beyond traditional microcontroller development. Many industrial and professional systems still depend on deterministic, low-power MCUs, yet more designs now require higher-level operating systems, edge processing, secure connectivity, graphics, motor-control integration, and networked diagnostics. That is pushing architectures towards a mix of MCUs, MPUs, FPGAs, secure elements, and software-defined functions.

MCU-to-MPU migration is one of the clearest pressure points. Moving to an MPU can unlock more compute performance and software capability, but it also introduces more complex memory architecture, boot flows, power sequencing, operating-system support, security maintenance, and lifecycle management. Teams moving from bare-metal or RTOS-based MCU designs into Linux-class processing often have to change development, test, and support practices.

Single Pair Ethernet also reflects the changing embedded network. 10BASE-T1S can support multidrop Ethernet over a single balanced pair, offering a lower-wiring route to standardised connectivity. Factory automation, building controls, instrumentation, vehicles, and distributed sensing systems all create demand for networks that can scale without excessive cable weight, cost, or integration effort.

Microchip’s programme spans the analogue, power, digital, and software layers now converging in embedded products. Control engineers increasingly work across signal chains, power conversion, secure provisioning, wireless coexistence, motor-drive behaviour, firmware, and production test. Training remains valuable because component capability is expanding faster than many development processes and toolchains.

The company’s European technical activity also connects with its high-reliability semiconductor work. Recent qualification expansion at Microchip’s Nantes facility strengthened routes for advanced aerospace and defence devices. The MASTERs event is broader, but both developments show how embedded engineering is being shaped by lifecycle support, qualification, and application knowledge as much as by silicon availability.

Motor-control systems are adding more sensing and connectivity. Power converters are becoming more digitally supervised. FPGAs are appearing where latency, parallelism, or interface bridging are required. Wireless and wired connectivity are being built into products that previously operated as isolated machines. Each layer adds capability, and each also creates new integration risk.

The engineering burden now lies in system composition. A product may combine sensors, analogue front ends, MCUs, MPUs, power stages, secure elements, FPGAs, and communication interfaces, all under tight cost, energy, safety, and reliability limits. Microchip’s European MASTERs Conference gives that widening embedded stack a structured training forum, with the Munich programme reflecting how far embedded control has moved beyond isolated firmware development.


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