• Pazuri Africa Training Institute offers comprehensive training programs in Electrical and Electronics Engineering, covering certificate, diploma, and advanced levels. The curriculum is designed to equip students with practical skills in areas like circuit analysis, electronics fundamentals, power systems, and industrial automation. Their programs also emphasize hands-on experience, using modern equipment and industry-standard practices to prepare graduates for various roles in engineering fields, from installation and maintenance to design and technical support. Additionally, the institute fosters partnerships with industries to facilitate internships and job placements for students.
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Available courses

Instrumentation and measurements

Control systems and automation

Digital and Analogue electronics

Electrical Machines and Drives

Microprocessors

A Microprocessor Course explores the fundamentals of microprocessor systems, focusing on their architecture, operation, programming, and real-world applications. This course is essential for students in electronics, computer engineering, and related fields, providing both theoretical knowledge and hands-on practice.

Course Objectives:

  • To introduce the basics of microprocessors, including architecture, instruction sets, and data processing.
  • To develop skills in low-level programming and interfacing with peripheral devices.
  • To understand the role of microprocessors in computers and embedded systems.

Key Topics Covered:

  1. Introduction to Microprocessors and Applications

    • History and evolution of microprocessors.
    • Differences between microprocessors and microcontrollers.
    • Applications of microprocessors in computing, embedded systems, and industrial automation.

  2. Microprocessor Architecture and Operation

    • Detailed study of microprocessor architecture: ALU, control unit, memory, and registers.
    • Addressing modes and memory management.
    • Clock cycles, data buses, and instruction pipelines.

  3. Programming and Instruction Set Architecture (ISA)

    • Introduction to assembly language programming.
    • Instruction types (arithmetic, logic, data transfer, control).
    • Program control structures and stack management.

  4. Data Communication and I/O Interfacing

    • Basics of data communication and interfacing microprocessors with peripheral devices.
    • Parallel and serial communication methods.
    • Interfacing with I/O devices like displays, sensors, and keypads.

  5. Interrupts and Exception Handling

    • Concepts of interrupts, polling, and interrupt handling.
    • Types of interrupts (hardware vs. software) and their applications.
    • Exception handling for error detection and system reliability.

  6. Microprocessor Peripherals and Memory Management

    • Memory types (ROM, RAM, cache) and hierarchy.
    • Direct Memory Access (DMA) and its role in data transfer.
    • Use of timers, counters, and peripheral control interfaces.

  7. Project-Based Applications and Real-World Implementations

    • Practical applications in robotics, automation, and IoT.
    • Real-world projects like simple digital controllers, data acquisition systems, and embedded processors.
    • Troubleshooting and optimizing microprocessor-based designs.

  8. Advanced Topics (Optional)

    • Overview of advanced microprocessors and multi-core processors.
    • Power management and performance optimization.
    • Introduction to modern microprocessor architectures like ARM and RISC-V.

Learning Outcomes:

By the end of the course, students should be able to:

  • Understand microprocessor architecture and develop assembly programs.
  • Interface microprocessors with various peripherals and manage data transfer.
  • Design and implement microprocessor-based systems for basic applications.
  • Troubleshoot, optimize, and apply microprocessor principles in real-world scenarios.

Hands-On Labs:

Lab sessions focus on practical exercises, such as writing and testing assembly code, connecting I/O devices, handling interrupts, and developing mini-projects that involve data processing and control tasks.

Micro-controlers

A Microcontrollers Course provides an in-depth understanding of microcontroller systems, their architecture, and practical applications in embedded systems. The course is designed for students in electronics, electrical engineering, and related fields, covering both theoretical and hands-on aspects. Here’s a detailed description:

Course Objectives:

  • To introduce students to microcontrollers and their role in embedded systems.
  • To teach the fundamentals of microcontroller architecture and operation.
  • To develop skills in programming and interfacing microcontrollers with various external devices.

Key Topics Covered:

  1. Introduction to Microcontrollers and Embedded Systems

    • Basics of microcontrollers and comparison with microprocessors.
    • Overview of embedded systems, their components, and applications.
    • Common microcontroller families (e.g., AVR, ARM, PIC, and Arduino).

  2. Microcontroller Architecture

    • Internal architecture of microcontrollers (ALU, registers, memory, I/O ports).
    • Study of instruction sets and their role in operation and control.
    • Power management and low-power modes in microcontroller design.

  3. Programming Microcontrollers

    • Basics of programming in languages like C/C++ for microcontrollers.
    • Use of Integrated Development Environments (IDEs) for code development and debugging.
    • Hands-on exercises in coding for input/output control, timers, interrupts, and serial communication.

  4. Interfacing with External Devices

    • Digital and analog interfacing, including GPIO, ADC, DAC, and PWM.
    • Communication protocols: I2C, SPI, UART, and CAN.
    • Connecting microcontrollers to sensors, actuators, displays, and wireless modules.

  5. Project-Based Learning and Application Development

    • Building projects such as sensor data acquisition systems, motor control, and simple robotics.
    • Integration of microcontrollers into real-world applications like home automation or IoT devices.
    • Debugging and troubleshooting techniques for reliable operation.

  6. Advanced Topics (Optional)

    • Real-time operating systems (RTOS) for complex, time-sensitive applications.
    • Secure programming and data encryption techniques in embedded systems.
    • Introduction to machine learning on microcontrollers for smart applications.

Learning Outcomes:

By the end of the course, students should be able to:

  • Understand microcontroller architecture and perform basic programming.
  • Interface microcontrollers with various devices and components.
  • Design and implement simple embedded systems for practical applications.
  • Troubleshoot and optimize microcontroller-based projects.

Hands-On Labs:

Lab sessions involve practical exercises like blinking LEDs, reading sensor data, controlling motors, and creating mini-projects that simulate real-world application

 

Engineering Mathematics