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Computer Hardware Engineer Training
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Computer Hardware Engineer Training

Master every layer of computer hardware, from digital logic and motherboard architecture to GPU design and system assembly. This course gives you the technical depth to build, diagnose, and optimise real systems with confidence. Whether you are launching a career in IT or levelling up your engineering skills, this is the hands-on foundation you need.

Dedika for students

What your team will master:

You will gain a thorough understanding of how every major hardware component works, from CPUs and memory systems to storage, power supplies, and graphics cards. You will learn how to assemble complete systems, configure UEFI firmware, and design effective cooling and power solutions. The course also covers hardware diagnostics, fault isolation, and professional repair documentation. You will explore networking hardware, server infrastructure, embedded systems, and hardware security controls. By the end, you will be equipped to evaluate, build, and troubleshoot computer hardware at a professional level.

How your team learns in practice Computer Hardware Engineer Training

How your team practises Computer Hardware Engineer Training

Professionals from these companies study at Dedika

ActemiumFR
Nunner LogisticsNL
GT Constructora GeotécnicaCR
Sydel StarBR
Metrô de São PauloBR
Aguas AndinasCL
DSMIN
MeridianbetRS
CDHCN

Course content

8 Chapters • 39 LessonsDuration between 4 and 360 hours (you decide)

Chapter 1See details

Foundations of Computer Hardware

  • Lesson 1 • Digital Logic and Binary Systems

    Introduces binary arithmetic, logic gates, and Boolean algebra as the mathematical foundation of hardware. Connects abstract maths to physical circuit behaviour.

  • Lesson 2 • Hardware Safety and Lab Practices

    Covers electrostatic discharge prevention, tool handling, and workspace organisation. Ensures safe, damage-free hardware work in all subsequent lab activities.

  • Lesson 3 • History and Evolution of Hardware

    Traces hardware development from vacuum tubes to modern integrated circuits. Provides historical context that frames every subsequent technical concept in the course.

  • Lesson 4 • Core Hardware Components Overview

    Identifies and describes the primary subsystems inside a computer. Builds the mental model students use throughout all later chapters.

Chapter 2See details

Motherboards and System Buses

  • Lesson 1 • PCIe Bus and Expansion Slots

    Details PCIe generations, lane configurations, and bifurcation settings. Enables students to plan expansion card installations without bandwidth conflicts.

  • Lesson 2 • Chipset Architecture and Functions

    Explains northbridge, southbridge, and modern unified chipset designs. Shows how chipset choice constrains CPU, memory, and expansion options.

  • Lesson 3 • BIOS and UEFI Firmware

    Covers UEFI firmware structure, POST sequence, and configuration options. Students navigate UEFI menus to optimise hardware initialisation settings.

  • Lesson 4 • Motherboard Layout and Form Factors

    Maps ATX, Micro-ATX, and ITX layouts, connector positions, and slot arrangements. Provides spatial understanding needed for all assembly and upgrade tasks.

  • Lesson 5 • Legacy and Modern I/O Interfaces

    Surveys USB, SATA, Thunderbolt, and legacy port standards on the motherboard. Prepares students to connect and troubleshoot all peripheral types.

Chapter 3See details

Processors and Microarchitecture

  • Lesson 1 • Cache Memory and Hierarchy

    Details L1, L2, and L3 cache design, placement, and replacement policies. Connects cache behaviour directly to measurable CPU performance.

  • Lesson 2 • Processor Selection and Benchmarking

    Applies architecture knowledge to evaluate CPUs using industry benchmarks. Students produce justified processor recommendations for defined use cases.

  • Lesson 3 • CPU Architecture Fundamentals

    Explains the fetch-decode-execute cycle and internal CPU structures. Anchors all processor performance discussions that follow in this chapter.

  • Lesson 4 • Multi-Core and Threading

    Covers multi-core processor topology, simultaneous multithreading, and workload distribution. Prepares students to select and configure processors for parallel workloads.

  • Lesson 5 • Pipelining and Parallelism

    Examines how pipelining and superscalar execution increase throughput. Students calculate pipeline efficiency and identify hazard scenarios.

Chapter 4See details

Memory Systems and Storage

  • Lesson 1 • RAM Technologies and Operation

    Compares DRAM, SRAM, and modern DDR generations at the circuit level. Establishes the technical basis for memory configuration decisions.

  • Lesson 2 • Storage Performance Measurement

    Applies IOPS, throughput, and latency metrics to evaluate storage devices. Connects measurement skills to real procurement and upgrade decisions.

  • Lesson 3 • Non-Volatile Storage Technologies

    Examines HDD mechanics, NAND flash types, and NVMe protocol operation. Provides the technical foundation for storage selection and troubleshooting.

  • Lesson 4 • Memory Installation and Configuration

    Covers DIMM slot population rules, XMP profiles, and BIOS memory settings. Directly prepares students for hands-on memory installation labs.

  • Lesson 5 • RAID and Storage Arrays

    Explains RAID levels, parity calculations, and controller hardware. Students design RAID configurations that balance redundancy, performance, and capacity.

Chapter 5See details

Power Systems and Thermal Management

  • Lesson 1 • Power Delivery and Voltage Regulation

    Covers VRM topology, CPU power connectors, and load-line calibration. Connects power delivery quality directly to processor stability and overclocking headroom.

  • Lesson 2 • Cooling Solutions and Airflow Design

    Compares air coolers, all-in-one liquid coolers, and custom loops for CPU and GPU. Students design chassis airflow layouts that minimise thermal throttling.

  • Lesson 3 • System Power Budgeting

    Teaches TDP aggregation, peak load estimation, and PSU headroom calculation. Students produce accurate power budgets for complete system configurations.

  • Lesson 4 • Heat Generation and Thermal Physics

    Explains junction temperature, thermal resistance, and heat transfer modes. Establishes the physics foundation for all cooling solution design decisions.

  • Lesson 5 • Power Supply Unit Design

    Explains AC-to-DC conversion, efficiency ratings, and rail architecture inside a PSU. Provides the technical basis for PSU selection and fault diagnosis.

Chapter 6See details

Graphics and Display Hardware

  • Lesson 1 • Multi-GPU and Display Configurations

    Covers multi-GPU interconnects, display topology, and driver-level configuration. Students design and validate multi-display and multi-GPU setups.

  • Lesson 2 • Display Technologies and Interfaces

    Surveys LCD, OLED, and mini-LED panel technologies alongside HDMI and DisplayPort standards. Prepares students to match display hardware to application requirements.

  • Lesson 3 • GPU Compute and Acceleration

    Introduces GPGPU computing, tensor cores, and ray-tracing hardware units. Expands GPU understanding beyond graphics to AI and scientific workloads.

  • Lesson 4 • GPU Architecture and Shader Cores

    Details streaming multiprocessors, shader execution, and memory subsystems on modern GPUs. Provides the architectural knowledge needed to evaluate GPU specifications.

  • Lesson 5 • Graphics Memory Technologies

    Compares GDDR6, GDDR6X, and HBM in terms of bandwidth, latency, and power. Connects memory type to GPU workload suitability.

Chapter 7See details

System Assembly and Integration

  • Lesson 1 • Power and Data Cable Connections

    Maps every power and data connector to its correct header or port. Eliminates wiring errors that cause boot failures or component damage.

  • Lesson 2 • First Boot and System Validation

    Walks through POST verification, UEFI configuration, and OS installation readiness checks. Confirms that the assembled system meets all design specifications.

  • Lesson 3 • CPU and Memory Installation

    Details CPU socket alignment, thermal paste application, and cooler mounting. Ensures correct, damage-free installation of the most sensitive components.

  • Lesson 4 • Pre-Build Planning and Parts Selection

    Guides compatibility verification, budget allocation, and parts list creation before assembly. Prevents costly errors by establishing a structured planning workflow.

  • Lesson 5 • Chassis Preparation and Component Mounting

    Covers standoff installation, cable routing paths, and drive bay preparation. Establishes the physical foundation for clean, maintainable system builds.

Chapter 8See details

Hardware Diagnostics and Troubleshooting

  • Lesson 1 • Storage and Power Fault Diagnosis

    Addresses HDD and SSD failure modes, PSU fault signatures, and voltage rail testing. Enables accurate diagnosis of the most common hardware failure categories.

  • Lesson 2 • Documentation and Repair Reporting

    Teaches fault ticket creation, repair log standards, and customer communication practices. Ensures professional documentation of every diagnostic and repair outcome.

  • Lesson 3 • Diagnostic Tools and Test Equipment

    Introduces multimeters, POST cards, oscilloscopes, and software diagnostic utilities. Prepares students to select the right tool for each failure category.

  • Lesson 4 • Troubleshooting Methodology

    Establishes a structured, evidence-based fault isolation process applicable to any hardware failure. Provides the cognitive framework that guides all subsequent diagnostic work.

  • Lesson 5 • CPU and Memory Fault Diagnosis

    Covers CPU failure symptoms, memory error patterns, and isolation techniques. Builds component-level diagnostic skills for the most critical system parts.

Certification

Your valid completion certificate

This course is for you:

  • Career changers: seeking a concrete technical speciality in the IT industry.

  • IT support techs: ready to move beyond software into hardware-level expertise.

  • PC enthusiasts: wanting to back their hobby with real engineering knowledge.

  • Vocational students: building a hardware skill set before entering the workforce.

  • System administrators: aiming to handle hardware procurement and failure analysis independently.

  • Makers and hobbyists: expanding from microcontroller projects into full computer systems.

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