Diploma in Drivers, Device Tree and Kernel Tuning
About us Diploma in Drivers, Device Tree and Kernel Tuning
The Diploma in Drivers, Device Tree, and Kernel Tuning focuses on the development and optimization of low-level software for embedded systems. It delves into the creation of drivers for peripherals, precise configuration using the Device Tree, and kernel tuning to improve performance and stability. It is closely related to concepts such as ARM/RISC-V processor architecture, embedded operating systems (Linux), and inter-process communication (IPC). The practical approach includes debugging and profiling tools, as well as knowledge of kernel security and version control (Git). The diploma provides key skills for engineers in areas such as embedded software development, hardware and software integration, and operating system design. Students gain hands-on experience in real-world development environments, preparing for roles such as driver engineers, kernel specialists, and embedded systems architects, covering the needs of sectors such as automotive, IoT, and telecommunications.
Target keywords (natural in the text): drivers, device tree, kernel tuning, embedded systems, ARM architecture, Linux, debugging, driver engineering.
Diploma in Drivers, Device Tree and Kernel Tuning
- Format:
- Duration:
- Hours: 900 H
- Language:
- Credits:
- Registration date: 08-09-2026
- Strat date: 19-10-2026
- Available places: 11
1,750 $
Competencies and results
What you will learn
Who this program is for:
Diploma in Drivers, Device Tree and Kernel Tuning
9.9 Introduction to Driver Architecture: Models and Structures
9.9 Developing Basic Drivers: Modules and Key Functions
9.3 Interrupt and Concurrency Handling in Drivers
9.4 Communicating with Hardware: Registers and Ports
9.5 Generic Device Drivers: Characters and Blocks
9.6 Designing Drivers for Different Platforms and Architectures
9.7 Testing and Debugging Drivers: Tools and Techniques
9.8 Driver Structure and Organization: Best Practices
9.9 Driver Maintenance and Updating: Lifecycle
9.9 Introduction to Device Tree: Concept and Structure
9.9 Device Tree Syntax and Language: Specifications and Format
9.3 Designing and Creating Device Tree Nodes: Properties and Configurations
9.4 Integrating Device Tree with Drivers: Device Mapping
9.5 Resource Management: Memory, Interrupts, and Pins
9.6 Device Tree in Multi-Core Systems: Synchronization and Coordination
9.7 Using Device Tree in Different Architectures
9.8 Tools for Validating and Debugging Device Tree
9.9 Best Practices in the Device Tree Design and Management
3.9 Introduction to Kernel Tuning: Concepts and Objectives
3.9 Kernel Configuration: Options and Parameters
3.3 Performance Optimization: CPU, Memory, and Disk
3.4 Power Management Tuning: Efficiency and Consumption
3.5 Latency Control: Real-Time Optimization
3.6 Tuning for Different Workloads: Analysis and Adaptation
3.7 Performance Monitoring and Analysis Tools
3.8 Advanced Kernel Optimization Techniques
3.9 Measuring and Evaluating the Impact of Tuning
4.9 Device-Specific Drivers: Sensors, Peripherals, and Communications
4.9 Driver Design for Interfaces: I9C, SPI, UART, USB
4.3 Implementing Drivers for Different Device Types
4.4 Advanced Device Tree: Customization and Optimization
4.5 Integrating Drivers and Device Tree: Case Studies
4.6 Debugging Drivers and Device Tree: Tools and Strategies
4.7 Performance Analysis: Drivers and Device Tree in Action
4.8 Optimizing Drivers for Different Platforms
4.9 Creating Modular and Reusable Drivers
5.9 Optimizing Kernel Performance: Advanced Strategies
5.9 Tuning Memory Management: Allocation and Deletion
5.3 Optimizing Process and Thread Scheduling
5.4 Tuning Interrupt Handling: Latency and Throughput
5.5 Kernel Tuning for High-Performance Embedded Systems
5.6 Tuning for Real-Time Applications: Determinism and Predictability
5.7 Real-Time Performance Monitoring and Analysis
5.8 Profiling Tools and Bottleneck Analysis
5.9 Kernel Stress Testing and Benchmarking
6.9 Introduction to Debugging Tools: gdb, kgdb
6.9 Debugging Drivers: Techniques and Strategies
6.3 Analyzing Kernel Faults and Errors: Kernel Panics
6.4 Tracing Tools: ftrace, perf
6.5 Performance Analysis: perf, systemtap
6.6 Remote Debugging: Debugging Over the Network
6.7 Debugging Embedded Systems: Hardware Debuggers
6.8 Advanced Debugging and Analysis Techniques
6.9 Interpreting Logs and Kernel Messages
7.9 Embedded Systems Security: Threats and Vulnerabilities
7.9 Kernel Protection: Security Mechanisms
7.3 Access Control and Permissions: User and Group Management
7.4 Encryption and Authentication: Implementation in Drivers
7.5 Communication Security: Secure Protocols
7.6 System Integrity Control: Intrusion Detection
7.7 Secure Update Management: Firmware and Software
7.8 Design Security: Best Practices
7.9 Security Auditing: Evaluation and Analysis
8.9 Designing a Complete Embedded System: Requirements and Specifications
8.9 Hardware Selection: Processors, Peripherals, and Components
8.3 Implementing Drivers and the Device Tree for the System
8.4 Kernel Tuning and Optimization: Performance and Efficiency
8.5 Software Integration: Applications and Libraries
8.6 System Testing and Validation Embedded Systems
8.7 Debugging and Troubleshooting
8.8 Embedded System Documentation and Maintenance
8.9 System Commissioning and Deployment
9.9 Designing a Custom Embedded System: Requirements Definition
9.9 Hardware and Software Selection: Platforms and Tools
9.3 Developing Custom Drivers and Device Trees
9.4 Kernel Customization: Configuration and Optimization
9.5 Implementing Custom Applications and Services
9.6 Hardware and Software Integration: Testing and Validation
9.7 Security and Protection of the Custom System
9.8 Maintaining and Updating the Custom System
9.9 Developing a High-Performance Embedded System
9.9
Capstone-type projects
- Embedded: Driver, Device Tree, Kernel Tuning for a tilt sensor with optimized performance and low power consumption.
- Implementation: Development of custom device drivers for a serial interface.
- System: Creation of an embedded system for monitoring and controlling an actuator.
Admissions, fees and scholarships
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