The SPARKLE Learning Path in Electrotechnology for the Healthcare Sector is a concrete outcome of the D2.2 Country Snapshots – Electrotechnology Gap Analysis developed in Uganda and Sierra Leone.
These national studies, coordinated by IAL FVG under the SPARKLE Strategic Process, analysed the skill shortages and training priorities in the electrotechnical field, particularly where electrical technologies intersect with healthcare, renewable energy, and digital systems.
The Country Snapshots revealed a consistent pattern:
- Both countries require stronger core competencies in electrical engineering, safety, testing, and automation.
- Yet, their application contexts differ — Uganda focusing on hospital infrastructures and public health energy systems, Sierra Leone on industrial, mining, and telecom applications.
Starting from this dual reality, the SPARKLE partners designed a competence-based, modular learning path, aligned with the objectives of the ERASMUS-EDU-2024-CB-VET Call and consistent with Guideline 2 – Design and Structuring of Learning Modules.
The path follows EQF and EQAVET quality logic, uses ESCO terminology, and integrates E-CF competence descriptors, ensuring European transparency and local applicability.
Logic and Pedagogical Rationale
The SPARKLE Learning Path is built upon the guiding principle of “shared foundations and contextual specialisations.”
It operates as a dual-track system that merges regional coherence with national relevance, responding directly to the findings of the D2.2 reports.
1. An 800-hour Shared Core Path – common to both Uganda and Sierra Leone – provides fundamental and transversal competences in electrotechnology, automation, safety, renewable energy, and digitalisation. This ensures shared technical language, standardised learning outcomes, and easier cross-country recognition.
2. A 200-hour National Specialisation – unique for each country – applies the analytical results of the Country Snapshots to real environments, integrating specific tools, regulations, and work-based contexts:
- Uganda: hospital energy systems, solar mini-grids for public health, preventive maintenance, and quality control of medical power circuits.
- Sierra Leone: hybrid solar–diesel systems, LV/MV testing and panel verification, and regulatory compliance in mining and telecom sectors.
Each module is self-contained, microcredential-oriented, and designed according to EQF levels 3–5.
Teaching approaches include Work-Based Learning (WBL), job-shadowing, and project-based learning, while terminology and competences follow the ESCO and E-CF frameworks to foster transparency and international recognition.
This dual structure makes the Learning Path both evidence-based and scalable, providing a sustainable tool for VET institutions to build technical capacity in healthcare electrotechnology and support Africa’s energy transition.
Adaptation to Target Groups
The SPARKLE Learning Path has been intentionally designed to serve diverse target groups within the vocational training ecosystem — including employed, unemployed, and underemployed individuals.
This inclusive approach directly reflects the findings of the D2.2 Country Snapshots, which identified unequal access to structured technical training and the need for both entry-level access and advanced reskilling opportunities.
- For employed technicians, the Learning Path offers modular specializations and microcredentials (e.g., automation, testing, and digital maintenance) that strengthen professional growth and career mobility.
- For unemployed or underemployed learners, it provides accessible entry points (EQF level 3) to acquire employable skills in basic installations, safety, and renewable energy systems.
- Across all groups, the inclusion of Work-Based Learning (WBL) and job-shadowing ensures real workplace exposure and supports the transition from training to employment.
By combining shared technical foundations with differentiated entry levels and flexible micro-units, the SPARKLE Learning Path contributes to social inclusion, employability, and lifelong learning — all key objectives of the Erasmus+ CB-VET programme.
Structure of the Learning Path (1000 hours total)
The structure of the SPARKLE Learning Path translates the analytical findings of the D2.2 Country Snapshots into a coherent, competence-based training design. It defines a comprehensive 1,000-hour pathway, combining a shared 800-hour core — common to both Uganda and Sierra Leone — with 200 hours of country-specific specialisation for each national context. This modular architecture reflects the principles of flexibility, microcredential accumulation, and progression through EQF levels 3 to 5, ensuring that learners acquire both foundational and applied skills relevant to the healthcare sector. Each module is self-contained, linked to measurable learning outcomes, and delivered through a balanced mix of theoretical instruction, work-based learning (WBL), and digital practice, consistent with the EQAVET quality cycle and the ESCO and E-CF competence frameworks.
A. 800-hour Shared Core Path
(Common to both Uganda and Sierra Leone – ensuring EQF/EQAVET coherence)
| Module Cluster (Shared Core) |
EQF Level |
Learning Outcomes |
Main Content Areas |
Duration (hrs) |
Methodology (including WBL) |
| 1. Fundamentals of Electrotechnology and Safety |
3 |
Apply basic electrical principles and safe work practices. |
Voltage, current, power, circuits; PPE; grounding; IEC/OSHA standards. |
120 |
Classroom + lab workshops |
| 2. Electrical Installations and Protection Systems |
3–4 |
Install and maintain compliant electrical circuits. |
TT/TT+N distribution, transformers, circuit breakers, documentation. |
140 |
Work-based learning + job-shadowing |
| 3. Renewable and Backup Energy Systems |
4 |
Design, install, and test solar, hybrid, and backup systems. |
PV arrays, inverters, storage, IoT monitoring. |
160 |
Field simulation + project work |
| 4. Automation and Control Systems |
4–5 |
Configure PLC and SCADA systems for automation. |
Sensors, alarms, control logic, basic IoT applications. |
120 |
Simulation lab + internship |
| 5. Digitalization and Smart Maintenance |
4–5 |
Use digital tools for diagnostics and predictive maintenance. |
CAD, IoT dashboards, data analysis (E-CF D.9). |
100 |
Blended learning + digital labs |
| 6. Quality, Safety and Regulatory Compliance |
3–5 |
Apply ERA/EWRC, IEC, and ISO quality standards. |
Risk assessment, audits, ECOWAS norms, and technical documentation. |
80 |
Guided case studies + audits |
| 7. Soft Skills and Entrepreneurship |
3–4 |
Collaborate effectively and manage small-scale projects. |
Communication, teamwork, project management, and customer relations. |
80 |
Group work + simulations |
Total Shared Core: 800 hours
B. 200-hour Uganda-Specific Specialization
(Derived from the Uganda Country Snapshot – D2.2 Gap Priorities)
| Uganda Specialization Modules |
EQF Level |
Objective / Focus |
Content and Activities |
Duration (hrs) |
Methodology |
| U1. Hospital Energy Systems Uganda Specialization Modules |
4 |
Manage and maintain hospital electrical systems. |
Isolation transformers, emergency power lines, and clean power for ICU/theatre. |
80 |
Work-Based Learning in hospitals (EMERGENCY, MoH) |
| U2. Solar Mini-Grids for Public Health Facilities |
4 |
Design and maintain solar mini-grids for rural clinics. |
PV sizing, hybrid storage, and preventive maintenance routines. |
60 |
Field simulation + design project |
| U3. Quality Control and Testing of Medical Equipment Circuits |
4–5 |
Verify and document the performance of medical power systems. |
Insulation, continuity, impedance, UPS testing (IEC 60364). |
60 |
Lab-based verification + report drafting |
Uganda Specialization Total: 200 hours
Total Uganda Pathway: 1000 hours
C. 200-hour Sierra Leone-Specific Specialization
(Derived from the Sierra Leone Country Snapshot – D2.2 Gap Priorities)
| Sierra Leone Specialization Modules |
EQF Level |
Objective / Focus |
Content and Activities |
Duration (hrs) |
Methodology |
| SL1. Hybrid Solar–Diesel Systems for Telecom and Industry |
4 |
Operate and maintain hybrid energy systems. |
Synchronisation, control, performance testing, and data logging. |
80 |
WBL + internship (Orange SL, ENTRACO Solar) |
| SL2. LV/MV Network Testing and Panel Verification |
4-5 |
Conduct professional testing of LV/MV systems. |
Specific measurements, wired networks, insulation resistance, impedance. |
60 |
Lab practice + site commissioning |
| SL3. Safety Auditing and EWRC Compliance |
4 |
Apply EWRC, ECOWAS, and ISO safety standards. |
Regulatory audits, incident reporting, and quality documentation. |
60 |
Guided audits + report writing |
Sierra Leone Specialization Total: 200 hours
Total Sierra Leone Pathway: 1000 hours
Pedagogical Approach and Methodology
The SPARKLE Learning Path combines competence-based education, work-based learning, and digital innovation. It promotes hands-on experience through job-shadowing, internships, and simulation-based training, while embedding quality assurance principles consistent with EQAVET.
Each module can generate a microcredential with clear learning outcomes, enabling learners to accumulate evidence of competencies and progress toward full qualification. Modules are taught through a mix of:
- theoretical input and guided practice,
- contextual problem-solving tasks,
- teamwork, case studies, and on-site observation.
Pedagogical Role of Digital Resources
To enhance the flexibility and accessibility of learning, the SPARKLE partners have designed a set of digital and multimedia resources that complement the modular structure of the Learning Path. These tools support blended delivery and promote active, experiential learning, allowing trainees to visualise complex electrotechnical concepts and practice essential operations even in resource-limited environments. Each digital resource—videos, focus slides, and interactive tools—corresponds to one or more modules within the 800-hour shared core, reinforcing key competences in measurement, protection, safety, and diagram interpretation. Together, they form a “digital learning mask” that integrates theory, visual explanation, and hands-on simulation in line with EQF, EQAVET, and E-CF learning standards.
| Type |
Title (EN) |
Learning Outcomes Contents |
Linked Modules |
| Video 1 |
1.1 Understanding Electricity |
At the end of the training, the student will be able to identify and explain the fundamental electrical quantities (voltage, current, and power), distinguish between DC and AC electrical systems (single-phase and three-phase), and understand the role of resistance and insulation in electrical applications.
Contents:
- Fundamental electrical quantities: voltage, current, and power
- Electrical systems: DC, single-phase AC, and three-phase AC and their characteristics
- Practical applications of different electrical systems
- Resistance and insulation: function and role in electrical circuits
- Importance of correct identification and use of the electrical system
|
Shared Core 1 – Fundamentals of Electrotechnology |
| Video 2 |
2.1 Electrical Systems |
At the end of the training, the student will be able to identify and explain the main electrical distribution systems (TT, TN, and IT), describe medium- and high-voltage distribution, and understand the role of distribution transformers and earthing systems in electrical safety.
Contents:
- Electrical distribution systems: TT, TN, and IT systems and their characteristics
- Medium- and high-voltage electrical systems: basic principles and applications
- Distribution transformer: function and role in power distribution networks
- Earthing systems: structure, components, and operating principles
- Importance of earthing for electrical safety and fault protection
|
Shared Core 2 – Installations and Protection Systems; Core 6 – Quality and Safety |
| Video 3 |
3.1 Invisible Guardians |
At the end of the training, the student will be able to demonstrate the function of isolation and safety transformers (Classes 0, I, and II) and correctly perform insulation and line protection tests
Contents:
- Insulation classes (Class 0, Class I, Class II): characteristics and protection against indirect contact
- Isolation transformer: function, operating principle, and applications
- Safety and isolation transformers: purpose and differences in electrical systems
|
Shared Core 6 – Quality, Safety & Regulatory Compliance; Core 8 – Testing & Verification |
| Tool 1 |
1.2 Basics Of Electrical Engineering |
The tool supports students in consolidating the concepts introduced in Video 1.1 – Understanding Electricity by applying fundamental electrical quantities, distinguishing between DC and AC electrical systems (single-phase and three-phase), and understanding the roles of resistance and insulation through guided examples and basic applications.
Contents: Review and application of fundamental electrical quantities: voltage, current, and power Comparison of electrical systems: DC, single-phase AC, and three-phase AC Practical examples of electrical systems introduced in Video 1.1 Resistance and insulation: function and role in electrical circuits Importance of correct identification and safe use of electrical systems |
Linked Resources:
Video 1.1 – Understanding Electricity
Shared Core 1 – Fundamentals of Electrotechnology and Safety
Shared Core 2 – Electrical Installations and Protection Systems
|
| Tool 2 |
2.2 Distribution Systems And Protection Against Indirect Contact And Ground Faults |
The tool supports the student in consolidating the concepts introduced in Video 2.1 – Electrical Systems by identifying and explaining the main electrical distribution systems (TT, TN, and IT), understanding medium- and high-voltage distribution principles, and applying the concepts of earthing and protection against indirect contact and ground faults.
Contents:
- Review and application of electrical distribution systems: TT, TN, and IT
- Characteristics and operating principles of TT, TN, and IT systems
- Mium- and high-voltage electrical systems: basic principles and typical applications
- Distribution transformers: function and role in power distribution networks
- Earthing systems: structure, components, and operating principles
- Importance of earthing for electrical safety and protection against indirect contact and ground faults
|
Linked Resources:
Video 2.1 – Electrical Systems
Shared Core 6 – Quality, Safety and Regulatory Compliance
Shared Core 2 – Installations and Protection Systems;
|
| Tool 3 |
2.3 Measuring Instruments |
The tool supports the student in applying the concepts introduced in Video 2.1 – Electrical Systems by correctly using electrical measuring instruments (multimeter, clamp meter, and insulation tester), following safe measurement procedures, and performing guided electrical measurement exercises.
Contents:
- Electrical measuring instruments: multimeter, clamp meter, and insulation tester (megger)
- Safe measurement procedures and risk prevention
- Correct execution of electrical measurements: voltage, current, resistance, and insulation
- Guided exercises on electrical measurements
|
Linked Resources:
Video 2.1 – Electrical Systems
Shared Core 2 – Installations and Protection Systems
|
| Tool 4 |
3.2 Transformers And Isolation |
The tool supports students in applying the concepts introduced in Video 3.1 – Invisible Guardians by using practical examples and measurement schemes related to transformers and electrical isolation, performing insulation tests, reading supervision panels, and conducting basic fault analysis.
Contents:
- Practical examples of isolation and safety transformers in electrical systems
- Measurement schemes for insulation testing and line protection verification
- Insulation test procedures and interpretation of results
- Reading and understanding supervision and control panels
- Introduction to basic fault analysis based on insulation and protection measurements
|
Linked Resources:
Video 3.1 – Invisible Guardians
Shared Core 2 – Electrical Installations and Protection
Systems
Shared Core 6 – Quality, Safety and Regulatory Compliance
Shared Core 8 – Testing and Verification
|
| Tool 5 |
4.1 Electrical System Protection |
The tool supports the student in identifying and understanding electrical protection devices, analysing the operating principles of circuit breakers and residual current devices, and correctly selecting line protections and cable sizes based on load, line length, and applicable standards.
Contents:
- Thermal-magnetic circuit breakers: operating principle and tripping curves
- Residual current devices (RCDs): function, sensitivity, and protection against indirect contact
- Coordination of electrical protections: selectivity and proper matching of devices
- Line sizing criteria based on load, length, and installation conditions
- Selection of protection devices for electrical lines according to the load
- Cable and protection sizing tables according to technical standards
|
Shared Core 2 – Electrical Installations and Protection Systems
Shared Core 6 – Quality, Safety and Regulatory Compliance
|
| Tool 6 |
5.1 Schemes and regulations |
The tool supports students in reading and interpreting basic electrical diagrams (single-line and multi-line), recognising cable colour codes, and applying electrical safety rules and relevant CEI/IEC standards in electrical installations.
Contents:
- Single-line and multi-line electrical diagrams: structure and meaning
- Reading and interpretation of basic electrical schematics
- Cable colour codes according to standards
- Electrical safety principles and use of PPE (Personal Protective Equipment)
- Reference CEI / IEC standards for electrical installations
- Exemplary diagrams and regulatory references
|
Shared Core 1 – Fundamentals of Electrotechnology and Safety
Shared Core 2 – Electrical Installations and Protection Systems
Shared Core 6 – Quality, Safety and Regulatory Compliance
|
| Extra resource |
5.2 All IEC 60617 Symbols |
The tool supports students in reading and interpreting basic electrical diagrams (single-line and multi-line), recognising cable colour codes, and applying electrical safety rules and relevant CEI/IEC standards in electrical installations.
Contents:
- Single-line and multi-line electrical diagrams: structure and meaning
- Reading and interpretation of basic electrical schematics
- Cable colour codes according to standards
- Electrical safety principles and use of PPE (Personal Protective Equipment)
- Reference CEI / IEC standards for electrical installations
- Exemplary diagrams and regulatory references
https://qelectrotech.org/forum/misc.php?action=pun_attachment&item=2124&download=1
|
Shared Core 1 – Fundamentals of Electrotechnology and Safety
Shared Core 2 – Electrical Installations and Protection Systems
Shared Core 6 – Quality, Safety and Regulatory Compliance
|
Expected Outcomes and Impact
Graduates of the SPARKLE Learning Path will:
- possess comprehensive skills in installation, testing, and maintenance of electrical and renewable systems in healthcare environments;
- demonstrate capacity to apply automation, safety, and digital tools in real settings;
- operate in compliance with ERA/EWRC, IEC, and ECOWAS standards;
- and contribute to national electrification and healthcare resilience goals.
For institutions, this path:
- provides a structured and replicable model for VET curricula in electrotechnology;
- fosters mutual recognition between Uganda and Sierra Leone through shared standards;
- and enhances the visibility of African VET systems within European quality frameworks.
Conclusion: Shared Vision, Local Relevance
The SPARKLE Learning Path transforms the analytical evidence of the D2.2 Country Snapshots into a coherent and actionable training framework. It bridges the shared regional foundation of electrotechnology with the specific operational needs of Uganda and Sierra Leone — advancing a dual vision: common quality and contextual adaptation.
By integrating EQF/EQAVET methodology, ESCO terminology, and E-CF digital competence logic, this model provides a sustainable and scalable blueprint for future capacity-building initiatives in the vocational training of electrotechnical professionals. It embodies the mission of SPARKLE: to power skills for healthcare, resilience, and innovation across Africa.