This ICTQual AB qualification is a competence-based programme covering mandatory electrical quality control units, practical assessment evidence, internal verification, and external quality assurance through Approved Training Centres.
ICTQual AB qualification title: Quality Control in Electrical Systems
Course ID: QC0002
Grading type: Pass / Fail
Competency evaluation through coursework, assignments, and verifiable experience
Assessment supported by internal assessment, internal quality assurance, and external quality assurance
Qualification structure includes 10 mandatory units
About This Course
ICTQual Quality Control in Electrical Systems is designed to provide learners with comprehensive knowledge and practical understanding of quality control principles and techniques within electrical systems. It covers inspection methods, compliance monitoring, fault identification, diagnostic testing, and the application of safety and performance standards.
Build a foundation in electrical quality assurance procedures
Develop competence in inspecting electrical systems and components
Promote adherence to technical and safety standards
Improve documentation, analysis, and communication of inspection results
Support quality improvement and risk management in electrical operations
Strengthen professional practice in electrical QA/QC roles
What You'll Learn
Learners completing this qualification will develop the knowledge and applied skills needed to inspect, test, document, and improve electrical systems in line with quality and compliance requirements.
Explain the principles and importance of quality control in electrical systems
Interpret electrical schematics and specifications during inspections
Apply appropriate testing tools and procedures to assess electrical compliance
Identify defects, hazards, or deviations from standards in electrical work
Document findings and contribute to quality assurance planning
Support corrective action and continuous improvement in electrical operations
Who Should Attend
This course is designed for professionals and students in electrical engineering and for individuals involved in the design, installation, maintenance, inspection, and quality control of electrical systems.
Electrical engineering students and graduates
Electrical technicians and maintenance personnel
Electrical installation professionals
Quality control and quality assurance staff
Inspection and testing personnel
Professionals seeking to specialise in electrical quality control
Entry Requirements
Learners should have an appropriate academic or professional background to engage with electrical systems, quality control principles, technical documentation, and competence-based assessment requirements.
A bachelor’s degree in Electrical Engineering, Electronics Engineering, or a related field is required; relevant professional experience in electrical systems may be considered case by case for learners without a degree
Learners should have fundamental knowledge of electrical circuits, principles of electricity, electrical components, quality management principles, relevant standards, English proficiency, and basic technical skills
Curriculum
Purpose and function of inspection procedures in electrical quality control
Testing methodologies used to verify the quality of electrical components
Documentation requirements for tracking quality control activities
Corrective action steps following identification of a quality defect
Preventative actions and corrective actions in electrical quality control
Inspection, testing, documentation, and corrective actions as a cohesive quality control system
Critical activities for maintaining quality in existing electrical systems
Preventative maintenance schedules for long-term reliability
Supplier audits for component quality before installation
Periodic performance review of electrical systems
Continuous professional development for technicians and quality standards
Definition of quality control in the context of electrical systems
Safety as a primary objective of quality control
Relationship between quality control and electrical system reliability
Compliance with standards and its contribution to system quality
Difference between quality control objectives and quality assurance objectives
Five-stage quality control process for an electrical project
Establishing measurable quality criteria during planning
Control measures during the installation phase
Feedback from control measures for continuous improvement
Importance of a systematic quality control approach
Role of regular audits in maintaining quality control integrity
Definition of Destructive Testing and Non-Destructive Testing
DT and NDT methods used on electrical cables
Differences between DT and NDT in relation to component integrity after testing
Situations where only NDT is viable
Situations where DT is appropriate despite its consequences
Trade-offs of DT and NDT in electrical system quality assessment
Application of DT in testing electrical insulation materials
Limitations of NDT in assessing long-term stress tolerance of electronic circuit boards
Economic advantages of NDT in large-scale manufacturing
Thermal imaging as an NDT technique, including application and limitation
Role of DT in product development and research for new electrical components
Quality control tools and techniques applicable to electrical systems
Statistical process control charts for monitoring circuit breaker production quality
Root cause analysis for recurring faults in power distribution systems
Internal quality audits and external quality audits
Pareto charts for prioritising quality control efforts
Statistical analysis of performance data to identify defects
Fishbone diagrams for analysing causes of electrical system failure
Tool selection for assessing wiring connection consistency on control panels
Flowcharts for documenting and improving installation processes
Quality audit results for recommending process improvements
Check sheets for collecting data on common assembly-line defects
Purpose of IEEE, IEC, and NEC standards in the electrical industry
Interpretation and application of industry standard excerpts to design problems
Mandatory standards and voluntary standards
Differences between electrical systems designed to IEC and NEC standards
Consequences of failing to follow relevant industry standards
Applying NEC requirements to determine wire size for circuit load
Selecting appropriate IEEE standards for high-voltage transformer testing
Creating IEC-based checklists for electrical panel safety and compliance
Developing safety protocols incorporating industry standards
Referencing and citing standards in project design documentation
Regulatory bodies and government agencies that create electrical legal frameworks
Environmental regulations such as RoHS for electrical equipment
Regulatory requirements for high-voltage systems
Legal consequences of non-compliance with electrical safety regulations
Difference between regulatory requirements and industry-specific guidelines
Five-step strategy for initial regulatory compliance of a new electrical product
Monitoring changes in relevant regulations
Technician training for updated compliance requirements
Role of compliance officers or teams in regulatory adherence
Importance of third-party certification and testing
Documentation and auditing protocols for compliance activities
Financial benefits of improved reliability through effective quality control
Relationship between quality control and reduced unscheduled downtime
Enhanced safety, reduced risk, and reduced liability
Customer satisfaction and loyalty through commitment to quality control
Lower project costs through reduced rework and waste
Component variability from multiple suppliers
Environmental challenges such as high humidity
Quality control challenges caused by rapid technological advancement, including IoT
Limited budget or time for comprehensive quality control planning
Human error in assembly and installation processes
Strategies to mitigate supplier component variability
Quality control protocols for environmental factors
Upskilling plans for technicians working with new technologies
Risk analysis for identifying and addressing quality challenges
Communicating the importance of quality control to reduce human error
Formal feedback loops for overcoming recurring obstacles
Feedback mechanisms and their purpose in quality control
Methods for collecting data on system performance or defects
Analysis of feedback data to inform future design decisions
Communication of feedback to stakeholders
Customer service feedback as part of quality control
Feedback report analysis for recurring problems
Closed-loop feedback systems in manufacturing processes
Reporting feedback and proposing solutions to specific issues
Post-installation inspection feedback for improving future project planning
Lessons learned sessions as feedback mechanisms
Primary components of iterative quality control processes
Purpose of the planning phase in an iterative cycle
Activities in the evaluation phase
Adjustments after evaluating electrical system performance
Difference between linear and iterative quality control processes
Iterative processes for optimised performance
Relationship between iteration and continuous improvement
Use of iterative quality control to reduce major project failure risk
Adapting iterative processes to new technologies or changing standards
Iterative quality control when project requirements are not fully defined
Real-world examples of iterative improvement in electrical product quality
Assessments
This qualification is competence-based and requires candidates to demonstrate knowledge, skills, and understanding against the learning outcomes and assessment criteria for each unit.
Assessment by an experienced and qualified assessor
Portfolio of evidence covering all learning outcomes and assessment criteria
Evidence may include observation reports, assignments, projects, reports, professional discussions, witness testimonies, candidate-produced work, worksheets, oral questioning, written questioning, and Recognition of Prior Learning
Internal quality assurance by the Approved Training Centre and external quality assurance by ICTQual AB verifiers
Progression
Successful learners can progress into higher-level electrical quality control, quality assurance, inspection, testing, compliance, and supervisory pathways across technical and industrial sectors.
Progress to higher-level diplomas in electrical quality control, quality assurance, or engineering supervision
Advance into roles such as Electrical Quality Inspector, QA/QC Technician, or Electrical Testing Technician
Build a pathway toward QA/QC Supervisor, Site Supervisor, or Quality Control Coordinator roles
Strengthen career prospects in construction, manufacturing, energy, utilities, oil and gas, and infrastructure projects
Application Form
Apply Now For This Course
An adviser will review your eligibility for ICTQual Quality Control in Electrical Systems and reply within 1–2 working days.
LevelBeginner
Awarding BodyICTQual AB
Lessons103
