Diploma in Electrical Engineering
The purpose of the Diploma in Electrical Engineering qualification is to provide learners with a professional and vocationally focused qualification that equips learners with the necessary knowledge and understanding of Electrical Engineering and the related skills required to progress within the Engineering Technician pathway and ultimately become a Professionally registered Engineering Technician with the Engineering Council of South Africa and acceptance as a candidate to write the examinations for Certificated Engineers.
Source: SAQA official qualification record. Yiba Verified does not own the underlying qualification data shown on this page.
Qualification type
Diploma (Min 360)
Credits
360
Sub-framework
HEQSF - Higher Education Qualifications Sub-framework
Providers listed
1
Qualification snapshot
Official qualification identity fields captured from the qualification record.
Originator
Walter Sisulu University
Quality assurance functionary
CHE - Council on Higher Education
Field
Field 12 - Physical Planning and Construction
Subfield
Electrical Infrastructure Construction
Qual class
Regular-Provider-ELOAC
Recognise previous learning
Y
Important dates
These dates are carried directly from the qualification record.
Registration start
2024-06-30
Registration end
2027-06-30
Last date for enrolment
2028-06-30
Last date for achievement
2031-06-30
Purpose and entry context
Official SAQA text formatted for easier reading.
Purpose and rationale
The purpose of the Diploma in Electrical Engineering qualification is to provide learners with a professional and vocationally focused qualification that equips learners with the necessary knowledge and understanding of Electrical Engineering and the related skills required to progress within the Engineering Technician pathway and ultimately become a Professionally registered Engineering Technician with the Engineering Council of South Africa and acceptance as a candidate to write the examinations for Certificated Engineers.
This qualification, once complete, will equip the learner with the following skills, graduate attributes and competencies:
Apply knowledge of mathematics, natural science, and engineering sciences to apply engineering procedures, processes, systems, and methodologies to solve well-defined engineering problems.
Perform procedural design of well-defined components, systems, works, products or processes to meet desired needs typically within applicable standards, codes of practice and legislation.
Conduct investigations of well-defined problems by locating and searching relevant codes and catalogues, and conducting standard tests, experiments, and measurements.
These capabilities are aligned with the Exit Level Outcomes and Graduate Attributes defined by ECSA for Engineering Technicians. The qualification ensures that graduates can demonstrate competence in problem-solving, engineering design, investigation, scientific and engineering knowledge application, and professional communication. It also fosters understanding of engineering practice's social, environmental, and ethical responsibilities.
The ELOs, that are constructively aligned with the purpose and design of this qualification and are developed through the various learning opportunities are, listed below:
- Identify, analyse and solve well-defined electrical engineering problems reaching substantiated conclusions using codified methods of analysis and engineering principles specific to their field of activity.
- Apply knowledge of mathematics, natural science, engineering fundamentals and an electrical engineering specialisation as specified to wide, practical procedures, processes, systems, methodologies and practices to solve well-defined engineering problems.
- Design solutions for well-defined electrical engineering technical problems and assist with designing systems, components or processes to meet specified needs normally within applicable standards, codes of practice and legislation.
- Conduct investigations of well-defined problems through locating and searching relevant codes and catalogues, conducting standard tests, experiments and measurements, and apply research methodology in research or an investigation where the student engages with selected knowledge in the research literature of the subdiscipline.
- Use appropriate techniques, resources, and modern electrical engineering tools, including information technology, to solve well-defined engineering problems, with an awareness of the limitations, restrictions, premises, assumptions and constraints.
- Communicate effectively and inclusively on well-defined engineering activities, both orally and in writing, with the engineering community and society at large, by comprehending the work of others, documenting one's own work, and giving and receiving clear instructions.
- Critically analyse how sustainable development impacts society, the economy, sustainability, industrial, health and safety, legal frameworks and the environment, and address issues by defined procedures.
- Function effectively as an individual, and as a member or leader in diverse and inclusive teams and in multi-disciplinary, face-to-face, remote and distributed settings.
- Engage in independent and lifelong learning through well-developed learning skills.
- Understand and commit to professional ethics and norms of technician practice, including compliance with relevant laws.
- Apply electrical engineering management principles to one's work, as a member and leader in a technical team, and to manage projects.
- Solve engineering problems by understanding workplace practices in a manner consistent with academic learning achieved.
By achieving this qualification, learners will be well-prepared to contribute to the electrical engineering profession and the broader socio-economic development of South Africa.
Rationale
The Electrical Engineering profession contributes, among others, to the country's technological, socio-economic, manufacturing, industrial, and automotive sectors. The expertise, skill, and knowledge of Electrical Engineering Technicians are required by power utilities, industry, manufacturers, local and district municipalities, national government departments, parastatal organisations, and engineering consultancies. This sector provides job opportunities and services include power generation, transmission and distribution, research and design, electronics, communication networks, control systems, manufacturing, automation, testing, commissioning, and maintenance. This qualification falls within a sector with a dire need for skilled professionals. This qualification responds to the need for electrical engineering technicians at both national and global levels.
The Diploma in Electrical Engineering qualification is developed in consultation with industry, through the advisory boards and with the Engineering Council of South Africa (ECSA). The qualification is accredited by the ECSA, and the qualification conforms to the ECSA Qualification Standard for Diplomas in Engineering.
The qualification targets learners who have completed the National Senior Certificate (NSC) with appropriate subjects and learners from vocational and technical schools who want to upgrade to the Electrical Engineering field.
The Diploma in Electrical Engineering provides a structured learning pathway directly leading to Advanced Diplomas and Degrees (NQF Levels 7-10) in electrical engineering and related areas. This progression empowers graduates to achieve continuous academic, professional, and personal growth, and allows for professional development and registration as an Engineering Technologist.
The practice of Electrical Engineering at a professional level involves several roles, recognised in registration categories under the Engineering Profession Act. This qualification provides the educational base that enables graduates to register with the Engineering Council of South Africa as candidates within the Professional Engineering Technician category. The profile of Professional Engineering Technicians is characterised by the ability to apply proven, commonly understood techniques, procedures, practices and codes to solve well-defined problems. They manage and supervise engineering operations, construction and activities. They work independently and responsibly within an allocated area or under guidance. Professional Engineering Technicians must therefore have a working understanding of engineering sciences underlying the techniques used, together with financial, commercial, legal, social and economic, health, safety and environmental methodologies, procedures and best practices.
Learners achieving the Diploma in Electrical Engineering qualification can apply proven techniques, procedures, practices and codes to solve well-defined problems in Electrical engineering. Qualified learners will be equipped with the relevant engineering skills and achieve technical proficiency to contribute to the national economy's development.
Entry requirements and RPL
The institution's RPL Policy is aligned with the national policies and criteria set by the Council on Higher Education (CHE) and SAQA. The institution recognises that potential learners may have previous training or experience. RPL can be considered for access or advanced standing within this qualification. RPL may therefore be used to ascertain competence for admission or access to this qualification and for module exemptions for advanced placement.
Learners submitting themselves for RPL into the Diploma in Electrical Engineering will be thoroughly briefed before the assessment. They must submit a Portfolio of Evidence (PoE) in the prescribed format to be assessed for formal exemption against modules, using module ELOs or admission using qualification entry requirements.
Entry Requirements
- National Senior Certificate NQF Level 4 with endorsement.
- An N3 certificate with appropriate subject combinations.
- National Certificate (Vocational) NQF Level 4 with appropriate subject combinations.
Replacement note
This qualification replaces
Structure and assessment
Qualification rules, exit outcomes, and assessment criteria from the SAQA record.
Qualification rules
This qualification consists of compulsory modules at Level 5 and a combination of compulsory and elective modules at Level 6, totalling 360 Credits.
Compulsory Modules, NQF Level 5, 120 Credits.
- Applied Chemistry I, 14 Credits.
- Computer Skills I, 10 Credits.
- Communication Skills I, 10 Credits.
- Applied Physics I, 14 Credits.
- Engineering Mathematics I, 12 Credits.
- Electronics I, 12 Credits.
- Electrical Engineering I, 12 Credits.
- Digital Systems I, 12 Credits.
Industrial Technology I, 14 Credits.
Engineering Drawing I, 10 Credits.
Compulsory Modules, NQF Level 6, 168 Credits.
- Engineering Mathematics II, 12 Credits.
- Software Design II, 12 Credits.
- Electronics II, 12 Credits.
- Electrical Engineering II, 12 Credits.
- Digital Systems II, 12 Credits.
- Engineering Mathematics III, 12 Credits.
- Digital Systems III, 12 Credits.
Engineering Management III, 14 Credits.
Control Systems III, 12 Credits.
Design Project III, 28 Credits.
Engineering Project Practice III, 30 Credits.
Elective Modules, NQF Level 6 (choose one set of Electives), 36 Credits
Electives 1: Power Engineering stream
- Electrical Engineering III, 12 Credits.
- Electrical Machines II, 12 Credits.
- Power Electronics III, 12 Credits.
Electives 2: Communication Engineering stream
- Electronic Communications II, 12 Credits.
- Electronics III, 12 Credits.
- Network Systems II, 12 Credits.
Elective Modules (choose the one set of electives), 36 Credits
Electives 1: Power Engineering stream
- Electrical Machines III, 12 Credits, NQF Level 6.
- Electrical Protection III, 12 Credits, NQF Level 6.
- Power Systems III, 12 Credits, NQF Level 6.
Electives 2: Communication Engineering stream
- Electronic Communications III, 12 Credits.
- Microwave Communications III, 12 Credits.
- Radio Engineering III, 12 Credits.
The Diploma in Electrical Engineering curriculum is designed to be broad-based to cover the most important specialist areas of the Electrical Engineering environment. The qualification covers two specialised streams, namely Power Engineering and Communication Engineering.
Exit level outcomes
- Identify, analyse and solve well-defined electrical engineering problems reaching substantiated conclusions using codified methods of analysis and engineering principles specific to their field of activity.
- Apply knowledge of mathematics, natural science, engineering fundamentals and an electrical engineering specialisation as specified to wide, practical procedures, processes, systems, methodologies and practices to solve well-defined engineering problems.
- Design solutions for well-defined electrical engineering technical problems and assist with designing systems, components or processes to meet specified needs normally within applicable standards, codes of practice and legislation.
- Conduct investigations of well-defined problems through locating and searching relevant codes and catalogues, conducting standard tests, experiments and measurements, and apply research methodology in research or an investigation where the student engages with selected knowledge in the research literature of the subdiscipline.
- Use appropriate techniques, resources, and modern electrical engineering tools, including information technology, to solve well-defined engineering problems, with an awareness of the limitations, restrictions, premises, assumptions and constraints.
- Communicate effectively and inclusively on well-defined engineering activities, both orally and in writing, with the engineering community and society at large, by comprehending the work of others, documenting one's own work, and giving and receiving clear instructions.
- Critically analyse how sustainable development impacts society, the economy, sustainability, industrial, health and safety, legal frameworks and the environment, and address issues by defined procedures.
- Function effectively as an individual, and as a member or leader in diverse and inclusive teams and in multi-disciplinary, face-to-face, remote and distributed settings.
- Engage in independent and lifelong learning through well-developed learning skills.
- Understand and commit to professional ethics and norms of technician practice, including compliance with relevant laws.
- Apply electrical engineering management principles to one's work, as a member and leader in a technical team, and to manage projects.
- Solve engineering problems by understanding workplace practices in a manner consistent with academic learning achieved.
Associated assessment criteria
Associated Assessment Criteria for Exit Level Outcome 1
- Analyse, define and identify the criteria acceptable for solving the problem.
- Identify and use relevant information, engineering knowledge and skills for solving the problem.
- Consider and formulate various approaches that would lead to workable solutions.
- Analyse and model solutions.
- Evaluate and select the best solution.
- Formulate and present the solution in an appropriate format.
Associated Assessment Criteria for Exit Level Outcome 2
- Bring an appropriate mix of mathematics, statistics, natural science and engineering science knowledge at a fundamental level to bear in solving well-defined engineering problems.
- Use applicable principles and laws.
- Analyse engineering materials, components, systems or processes.
- Present concepts and ideas logically and methodically.
- Reason about engineering materials, components, systems or processes.
- Outline and justify procedures for dealing with uncertain/undefined/ill-defined variables.
- Perform work within the boundaries of the practice area.
Associated Assessment Criteria for Exit Level Outcome 3
- Plan and manage the design process that recognises important issues and deals with constraints.
- Acquire and evaluate knowledge, information and resources to apply appropriate principles and design tools to provide a workable solution.
- Perform design tasks that include analysis and optimisation of the product, system or process, subject to relevant premises, assumptions and constraints.
- Evaluate alternatives for implementation.
- Select a preferred solution based on techno-economic analysis and judgment.
- Present the design logic and relevant information in a technical report.
- Apply and assess procedures to evaluate the selected design regarding the impact and benefits.
Associated Assessment Criteria for Exit Level Outcome 4
- Define the scope of investigation.
- Plan and conduct investigations within an appropriate discipline.
- Search for available literature and evaluate material for suitability to the investigation.
- Select and appropriately use relevant equipment or software suitable for the investigation.
- Analyse and interpret data obtained.
- Draw conclusions from an analysis of all available evidence.
- Record the investigation's purpose, process and outcomes in a technical report.
Associated Assessment Criteria for Exit Level Outcome 5
- Assess the method, skill or tool for applicability and limitations against the required result.
- Correctly apply the method, skill or tool to achieve the required result.
- Test and assess the results produced by the method, skill or tool.
- Select and use relevant computer applications.
Associated Assessment Criteria for Exit Level Outcome 6
- Ensure that the structure, style and language of written and oral communication are appropriate for communication and the target audience.
- Use appropriate and effective graphics to enhance the meaning of the text.
- Use visual materials to enhance oral communications.
- Provide information in a format that others can use in the engineering activity.
- Deliver oral communication with the intended meaning being apparent.
Associated Assessment Criteria for Exit Level Outcome 7
- Identify and analyse the impact of technology in terms of the benefits and limitations to society.
- Analyse engineering activity in terms of the impact on occupational, public health and safety.
- Analyse engineering activity in terms of the impact on the physical environment.
- Consider the methods to minimise/mitigate impacts on occupational, public health, safety, and the impact on the physical environment.
Associated Assessment Criteria for Exit Level Outcome 8
- Explain the principles of planning, organising, leading and controlling.
- Carry out individual work effectively, strategically and on time.
- Support the team's output by making individual contributions and supporting team activities.
- Function as a team leader.
- Organise and manage a project.
- Carry out effective communication in the context of individual and teamwork.
Associated Assessment Criteria for Exit Level Outcome 9
- Identify, plan and manage learning tasks.
- Identify, recognise and demonstrate the requirement for independent learning.
- Source, Organise and evaluate relevant information.
- Apply comprehended knowledge acquired outside of formal instruction.
- Display awareness of the need to maintain continued competence through keeping abreast of up-to-date tools and techniques available in the workplace.
Associated Assessment Criteria for Exit Level Outcome 10
- Describe the nature and complexity of ethical dilemmas in terms of required practices, legislation and limitations of authority.
- Describe the ethical implications of engineering decisions regarding the impact on the environment, the business, costs and trustworthiness.
- Ensure that decision-making judgements during problem solving and design are ethical and within acceptable boundaries of current competence.
- Accept responsibility for consequences stemming from own actions or inaction.
- Limit decision-making to the area of current competence.
Associated Assessment Criteria for Exit Level Outcome 11
- Develop competencies and valuable knowledge in Project Management, Conditions of Contract, Standard Specifications, and Preparation of Specifications.
- Develop competencies and valuable knowledge in Negotiation Skills, Engineering Finance, and Risk Analysis.
- Develop competencies and valuable knowledge in Occupational Health and Safety, Quality Systems and Environmental Impacts.
Associated Assessment Criteria for Exit Level Outcome 12
- Describe orientation to the working environment regarding company structure and conventions, rules, policies, working hours, dress codes and reporting lines.
- Describe labour practices used in the workplace by relevant legislation.
- Describe workplace safety by applying relevant safety, health and environmental legislation.
- Describe general administration procedures in terms of how they operate and their key purpose.
- Conduct work activities in a manner suited to the workplace context.
- Report knowledge and understanding gained from the work-integrated learning period in a prescribed format, using appropriate language and style.
Integrated Assessment
Assessments are designed to ensure that ELOs are assessed in an integrated manner by evaluating knowledge, competencies, and skills from an academic perspective and the applied competencies (practical, foundational, and reflexive competencies) required by this qualification.
Applicable Critical Cross-Field Outcomes must be assessed using any combination of practical, foundational, and reflexive competencies assessment methods and tools to determine the whole person's development and integration of applied knowledge and skills.
Certain Exit Level Outcomes are measurable and verifiable through assessment criteria assessed in one application. Applicable assessment tools are used to determine the foundational, reflective and practical competencies within the assessment rules of the institution.
A detailed portfolio of evidence of the learner's practical, foundational and reflective competencies is required. Assessors and moderators conduct integrated assessments using various formative and summative methods. Where needed, Assessors may assess and give credit for the evidence of learning that has already been acquired (RPL) through any form of learning. Exit Level Outcomes and Assessment Criteria Associated with this qualification must be used to assess Critical Cross-Field Outcomes.
The methods, tools, and activities must be appropriate to the context in which the learner is working. Where it is not possible to assess the learner in the workplace or on-the-job, simulations, case studies, role-plays, and other similar techniques may be used to provide a context appropriate to the assessment.
Formative Assessment
Assessment criteria for formative assessment will typically take place during training and serve to guide the learner towards complete competence and are described in this qualification. Formative assessment takes place during the learning process, and assessors can use a range of appropriate assessment methods and tools, or any agreed-upon method, to evaluate the knowledge required to perform the various competencies holistically. To be allowed access to the final qualifying assessment, a learner must show that they have reached a level of overall integrated competence.
Summative Assessment
For the learner to be certified competent against the qualification, they must prove overall competence by integrating the competencies expressed in this qualification.
Methods of Assessment
The following methods of assessment have been identified as the preferred measurement and evaluation of learner competence in the assessment criteria:
Written tests.
Practical tests.
Oral assessment methods.
Simulation.
Structured classroom discussions and oral tests.
On-the-job Observations.
Role-play and/or simulations.
Knowledge tests, exams, case studies, projects, logbooks, and workbooks.
Verbal report backs (presentations).
Working in teams (360-degree evaluations).
These methods will be selected carefully based on the purpose of the assessment. For example, the written method will assess knowledge and on-the-job demonstration for practical competence.
Progression and comparability
Articulation options
This qualification allows possibilities for vertical, diagonal and horizontal articulation.
Horizontal Articulation
- Diploma in Engineering in Mechanical Engineering, NQF Level 6.
- Diploma in Engineering in Mechatronics Engineering, NQF Level 6.
Or
- A cognate qualification at NQF Level 6.
Vertical Articulation
- Advanced Diploma in Electrical Engineering, NQF Level 7.
- Bachelor of Engineering Technology in Electrical Engineering, NQF Level 7.
Or
- A cognate qualification at NQF Level 7.
Diagonal Articulation
- Electrical Substation Operations Technician (Power System Controller), NQF Level 5.
- Occupational certificate: Cable Jointer (Electric Cable Jointer), NQF Level 6.
- Occupational Certificate: Low Voltage Electric Cable Jointer, NQF Level 6.
International comparability
International comparability of this engineering education qualification is ensured through the Dublin Accords, an agreement for the mutual recognition of professionally oriented diplomas in engineering, of which ECSA is a signatory through the International Engineering Alliance (IEA) forum.
In the case of a Diploma in Electrical Engineering, the equivalence of this whole qualification standard is ensured through the Dublin Accord. The standards are comparable to those for professionally oriented engineering qualifications in countries with engineering education systems similar to South Africa. Signatories to the Dublin accord are Australia, Canada, Ireland, Korea, New Zealand, South Africa, the United Kingdom, and the United States. The qualification standards are comparable to the Dublin Accord Graduate Attributes. Dublin Accord signatories are subject to change as new members meeting the requirements are registered. Comparability is audited on a six-year cycle by a visiting Dublin Accord team.
This makes the Diploma in Electrical Engineering comparable with other qualifications
Country 1: Canada
Institution: Saskatchewan Polytechnic (SP)
Qualification Title: Diploma in Electrical Engineering Technologies
Duration: 2 years (structured as 28 months, including five academic semesters and three mandatory Co-operative Education work terms, providing significant practical experience).
Credits: 189 (Saskatchewan Polytechnic institutional credit units).
NQF Level (South Africa Equivalent): Level 6
Purpose: The core purpose of this Diploma is to cultivate highly competent electrical engineering technicians. This involves providing graduates with a robust blend of applied knowledge, theoretical principles, and hands-on skills relevant to modern electrical and electronic industries. The qualification aims to prepare learners for direct employment in diverse roles such as installing, maintaining, troubleshooting, and operating electrical systems, electronic circuits, and automation technologies. The embedded co-operative education component is fundamental, ensuring graduates gain substantial real-world industry experience to enhance their immediate employability across sectors like power generation, manufacturing, and renewable energy.
Similarities
The Saskatchewan Polytechnic Diploma in Electrical Engineering Technologies (Canada) is similar to a WSU Diploma in Electrical Engineering NQF Level 6. The two qualifications have a similar purpose in preparing learners to be competent Electrical Engineering Technicians and similar ELOs. Both are NQF Level 6 qualifications, preparing graduates for comparable technician-level roles with a practical, industry-focused approach. Their international recognition is supported by Technology Accreditation Canada and ECSA, Dublin Accord signatories. Both curricula cover essential electrical fundamentals (circuits, electronics, power, control) and heavily emphasise hands-on experience (SP's co-op vs. WSU's Engineering Project Practice III). Academic entry requirements are similar, typically requiring strong high school performance in relevant subjects.
Differences
The SP Diploma is an intensive 2-year qualification, contrasting with the 3-year duration of WSU NQF Level 6 Diploma in Electrical Engineering. Even though it is a 2-year qualification, it is structured as 28 months, including five academic semesters and three mandatory Work Integrated Learning terms, providing significant practical experience comparable to the WSU Diploma. The credit systems also differ, with SP using internal institutional credits (189) that are numerically distinct from SAQA credits. Some of the modules that are given in the course structure of each qualification differ as they are aligned with the different streams in Electrical Engineering.
Country 2: Ireland
Institution: Technological University Dublin (TU Dublin)
Qualification Code: TU601
Award: Higher Certificate (in Electronic Engineering)
Duration: 3 Years (Note: While some Higher Certificates in Ireland are 2 years, this specific TU Dublin qualification is listed as a 3-year duration, often delivered flexibly, which is significant for its NQF equivalence).
NQF Level (South Africa Equivalent): Level 6 (Despite its title "Higher Certificate," its 3-year duration and NFQ Level 6 status in Ireland typically lead SAQA to evaluate it as comparable to an NQF Level 6 "Diploma" in South Africa, based on the comprehensive volume of learning and expected outcomes over three years).
Purpose: The Higher Certificate in Electronic Engineering (TU601) aims to provide essential foundational knowledge, core principles, and practical skills across electronics, computers, networking, data, and software systems. Its fundamental purpose is to prepare individuals for technician-level positions within high-technology industries. The qualification focuses on equipping learners with the capabilities for crucial technical tasks like assembling, testing, and troubleshooting electronic equipment, operating systems, and providing technical support. Through a blend of theoretical instruction and extensive hands-on laboratory work, it fosters basic design competencies and practical problem-solving abilities. This qualification also provides a robust academic pathway for progression to higher awards like a Bachelor of Engineering.
Similarities
The Technological University Dublin Higher Certificate in Electronic Engineering (Ireland) aligns significantly with a WSU Diploma in Electrical Engineering, NQF Level 6. Both are NQF Level 6 qualifications, and they have the same purpose of preparing graduates for comparable technician-level roles with a practical, industry-ready focus in electrical/electronic engineering. They develop similar Exit Level outcomes. Their international recognition is bolstered by Engineers Ireland and ECSA, Dublin Accord signatories. The TU Dublin qualification's 3-year duration mirrors the WSU Diploma, indicating a similar learning volume. Both curricula cover essential electrical/electronic fundamentals (circuits, analogue/digital electronics, computing, control) with a strong emphasis on hands-on learning through labs and projects. Academic entry requirements are also similar, generally requiring the NSC equivalent of Ireland with relevant subject selection.
Differences
Despite these parallels, distinctions exist. Ireland's "Higher Certificate" title contrasts with WSU's "Diploma," though SAQA prioritises learning outcomes. Credit systems differ (TU Dublin ECTS vs. WSU's credit units). While both accreditation bodies (Engineers Ireland, ECSA) are Dublin Accord signatories, ECSA assessment remains necessary for professional registration in South Africa. Specific high school prerequisite names and grading systems (e.g., Irish Leaving Certificate vs. NSC Achievement Levels) vary nationally. Lastly, while practical work is integral to TU Dublin, the formalised structure and duration of mandatory Work Integrated Learning (WIL), as found in the WSU Diploma, may vary in its implementation.
Providers currently listed
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