Industrial Embedded Software & Multi-MCU BSP Architecture Design Single architecture, single-button build regardless of MCU. Vendor-independent BSP approach.
The BSP Development Training is a hands-on and architecture-focused program designed for engineers who want to develop industrial-grade embedded software.
It covers vendor-independent BSP design, the Hardware Abstraction Layer (HAL), and multi-MCU architectures on real hardware.
By the end of the training, you will reach a level where you can design a scalable infrastructure that maintains the same architecture across different MCU families.
Embedya – Founder
The training may be organized in different cities/countries. You can follow the schedule for the most up-to-date dates and available seats.
Intermediate-level C programming knowledge
Participants are expected to be familiar with the following C topics:
Objective:
Enable participants to bring an MCU from reset to a fully operational state by building clock, timing, I/O, and communication infrastructure using a vendor-independent BSP architecture.
Objective:
Transform the BSP infrastructure built by the participants into a data-collecting, high-performance, and production-ready system.
These hardware components will be used hands-on during the training and given to participants as a gift at the end of the program.
Sensors and peripherals for ADC, I²C, and GPIO applications, enabling real hardware scenarios.
STM32-based BSP architecture, clock configuration, and core peripheral abstractions.
Nuvoton-based BSP architecture, clock configuration, and core peripheral abstractions.
Professional debugging, programming, and low-level fault analysis infrastructure.
Serial communication, logging, and runtime debug output capture.
Real-time analysis of digital signals and communication protocols.
This training is designed around real hardware and production-oriented scenarios, rather than purely theoretical concepts.
The development board used during the training is permanently gifted to participants at the end of the program.
One-to-one, hardware-based applications are carried out using sensors and peripherals actively used in industry.
Real-time debugging, logging, and signal analysis techniques are covered through live, hands-on applications.
Professional software development habits are reinforced through code reviews and collaborative development sessions.
Each topic is reinforced with small-scale projects and hands-on workshops, applying concepts to real-world scenarios.
Instructor
I am a graduate of METU Electrical and Electronics Engineering and have been working in the field of embedded systems for approximately 15 years.
In addition to RTOS, Embedded Linux, and BSP architectures, I specialize in system profiling, performance analysis, and advanced debugging techniques.
In my trainings, I transfer professional, field-proven approaches through hands-on practice using real hardware and real-world scenarios.
Industrial Embedded Software & Multi-MCU BSP Architecture Design Single architecture, single-button build regardless of MCU. Vendor-independent BSP approach.
The BSP Development Training is a hands-on and architecture-focused program designed for engineers who want to develop industrial-grade embedded software.
It covers vendor-independent BSP design, the Hardware Abstraction Layer (HAL), and multi-MCU architectures on real hardware.
By the end of the training, you will reach a level where you can design a scalable infrastructure that maintains the same architecture across different MCU families.
Embedya – Founder
The training may be organized in different cities/countries. You can follow the schedule for the most up-to-date dates and available seats.
Intermediate-level C programming knowledge
Participants are expected to be familiar with the following C topics:
Objective:
Enable participants to bring an MCU from reset to a fully operational state by building clock, timing, I/O, and communication infrastructure using a vendor-independent BSP architecture.
Objective:
Transform the BSP infrastructure built by the participants into a data-collecting, high-performance, and production-ready system.
These hardware components will be used hands-on during the training and given to participants as a gift at the end of the program.
Sensors and peripherals for ADC, I²C, and GPIO applications, enabling real hardware scenarios.
STM32-based BSP architecture, clock configuration, and core peripheral abstractions.
Nuvoton-based BSP architecture, clock configuration, and core peripheral abstractions.
Professional debugging, programming, and low-level fault analysis infrastructure.
Serial communication, logging, and runtime debug output capture.
Real-time analysis of digital signals and communication protocols.
This training is designed around real hardware and production-oriented scenarios, rather than purely theoretical concepts.
The development board used during the training is permanently gifted to participants at the end of the program.
One-to-one, hardware-based applications are carried out using sensors and peripherals actively used in industry.
Real-time debugging, logging, and signal analysis techniques are covered through live, hands-on applications.
Professional software development habits are reinforced through code reviews and collaborative development sessions.
Each topic is reinforced with small-scale projects and hands-on workshops, applying concepts to real-world scenarios.
Instructor
I am a graduate of METU Electrical and Electronics Engineering and have been working in the field of embedded systems for approximately 15 years.
In addition to RTOS, Embedded Linux, and BSP architectures, I specialize in system profiling, performance analysis, and advanced debugging techniques.
In my trainings, I transfer professional, field-proven approaches through hands-on practice using real hardware and real-world scenarios.
