Higher Diploma in Industrial Automation and Robotics Maintenance
Uganda's industrialisation agenda is installing automated plant faster than it is producing the engineers to run it: beverage and food processing lines, all commission automated systems and then depend on expatriate engineers or vendor service contracts for every serious fault.
Occupational profile
What you'll be paid to do
Uganda's industrialisation agenda is installing automated plant faster than it is producing the engineers to run it: beverage and food processing lines, all commission automated systems and then depend on expatriate engineers or vendor service contracts for every serious fault.
The result is expensive downtime and capability that never transfers.
The graduate works as any of the following, in roles that regional industry currently struggles to fill locally: engineer cement, processing plants monthly Maintenance and Industrial plant, utilities, UGX 1,800,000 to 4,000,000
| Occupation | Where the work is | Starting earnings, observed 2026 |
|---|---|---|
| Automation and control engineer | Manufacturing, beverage, cement, processing plants | UGX 2,000,000 to 4,500,000 monthly |
| Maintenance and reliability engineer | Industrial plant, utilities, large processors | UGX 1,800,000 to 4,000,000 monthly |
| Robotics and systems integration engineer | System integrators, equipment suppliers, manufacturers | UGX 2,000,000 to 4,500,000 monthly |
| Automation contractor and systems integrator | Own engineering practice serving regional industry | Project margins; the service contract economy |
The 90-Day Promise
From certification to income, stated concretely
Day Pathway Named employer categories with which the College holds or is concluding placement and hiring partnerships: beverage and food processors; cement, steel and materials manufacturers; pharmaceutical plants; utilities; agro industrial parks; system integrators; and automation equipment suppliers and their service arms.
Partnership target: twenty active partners by the first cohort's year two training, each offering at least two placements.
The ninety day pathway from certification to income:
Day 0: graduation with the Capability Transcript, the mentor's reference, a commissioned capstone project with measured plant improvement, and the external panel's assessment.
Day 0: graduation with the Capability Transcript, the mentor's reference, a commissioned capstone project with measured plant improvement, and the external panel's assessment.
Days 1 to 30: employed route: three arranged interviews with plants that have watched the graduate work through placement. Venture route: the automation practice's client projects continue; the mentor reviews month one.
Days 31 to 90: employed route: probation support from the practice tutor. Venture route: referral listing for partner overflow commissioning and service work, standing terms in the partnerships.
Measurement: employment or trading status recorded at day 90 and published in the annual outcomes report, per Part Two, section 2.9.
Programme structure
Every module, with its arithmetic
One credit unit equals ten notional learning hours. 240 credit units, 2400 notional hours: 665 contact, 1400 practical and 330 industrial hours, so practical and industrial hours are 72 per cent of the programme.
h g and n and and s and y and g One on and g nce ce y and ial Two Practical and industrial hours together are 1730 of 2400 notional hours, 72 per cent, meeting the hands on test.
Semester 1
| Code | Module | CU | Contact h | Practical h | Industry h |
|---|---|---|---|---|---|
| IAR301 | Industrial Control Systems and PLC EngineeringThe nervous system of every factory: the learner programs, commissions and troubleshoots programmable logic controllers at the depth that lets them own a plant's control system rather than merely operate it. | 14 | 45 | 95 | 0 |
| IAR302 | Instrumentation, Sensors and Process MeasurementControl is only as good as measurement: the learner selects, installs, calibrates and troubleshoots the instrumentation that industrial processes depend on. | 14 | 45 | 95 | 0 |
| IAR303 | Industrial Robotics: Programming and Integration | 14 | 40 | 100 | 0 |
| RES301 | Applied Research and Evidence PracticeRobots are arriving in regional manufacturing faster than the people who can run them: the learner programs, integrates and maintains industrial robots to production standard. | 10 | 45 | 55 | 0 |
Semester 2
| Code | Module | CU | Contact h | Practical h | Industry h |
|---|---|---|---|---|---|
| IAR304 | Drives, Motion and Power ElectronicsMotion is where industrial energy is spent and lost: the learner commissions and maintains the variable speed drives and motion systems that run modern plant efficiently. | 14 | 45 | 95 | 0 |
| IAR305 | Industrial Networks, SCADA and CybersecurityPlant is now networked and therefore attackable: the learner builds and secures the industrial networks and supervisory systems that connect the factory floor to the business. | 14 | 50 | 90 | 0 |
| IAR306 | Machinery Reliability and Condition MonitoringThe Level 6 maintenance difference is prediction rather than reaction: the learner builds reliability programmes that catch failures before they stop production. | 14 | 45 | 95 | 0 |
| SPNH201AI spine | AI, Data and the Smart FactoryThe Higher Diploma spine: the learner leads the digitalisation of plant, using machine data, predictive models and AI tools to raise reliability and output, while keeping the safety critical decisions where they belong. | 16 | 50 | 110 | 0 |
| ITRH201 | Industrial Training OneTen assessed weeks in a manufacturing or process plant at the end of year one, at Level 6 responsibility, under the Part Two policy. | 16 | 0 | 10 | 150 |
Semester 3
| Code | Module | CU | Contact h | Practical h | Industry h |
|---|---|---|---|---|---|
| IAR401 | Automation Systems Design and Project DeliveryYear two's core: the learner designs a complete automation system from process requirement to commissioned plant, which is the technologist's defining professional act. | 18 | 55 | 125 | 0 |
| IAR402 | Functional Safety and Risk EngineeringAutomation that fails dangerously kills: the learner applies functional safety engineering to specify, verify and maintain the protective systems that stand between plant and catastrophe. | 16 | 55 | 105 | 0 |
| IAR403 | Maintenance Management and Asset PerformanceThe technologist manages the function, not just the fault: the learner runs a maintenance department with its budget, systems, people and the asset performance the business actually measures. | 16 | 55 | 105 | 0 |
| LEAD301 | Technical Leadership and Project ManagementThe Higher Diploma exists to produce the person who runs the team and the project: this module builds the leadership, planning and financial control that separates a technologist from a technician. | 12 | 50 | 70 | 0 |
Semester 4
| Code | Module | CU | Contact h | Practical h | Industry h |
|---|---|---|---|---|---|
| SPN102AI spine | Digital Work and Platform IncomeThe shortest module with the fastest payback: how a technician finds customers, prices work, invoices and gets paid through digital channels. | 4 | 15 | 20 | 0 |
| ENT301 | Technology Enterprise and Commercial Practice | 10 | 40 | 60 | 0 |
| ITRH202 | Industrial Training TwoAt Level 6 the enterprise question changes from can you trade to can you build something that scales: this module treats the technology business, its finance, contracts and growth, at the depth the graduate's ventures now require. | 20 | 0 | 20 | 180 |
| EXPH201 | Capstone Engineering ProjectThe Level 6 closing argument: a complete automation or reliability engineering project delivered on real plant, with measured performance improvement, defended before a professional panel. | 18 | 30 | 150 | 0 |
The AI and Digital Practice Spine
AI, taught inside this trade
Applied Here The spine of Part Two, section 2.13 at Higher Diploma depth: 20 credit units across SPNH201 and SPN102.
AI tools for my trade
Predictive maintenance models and AI diagnosis assistance, always verified against physical teardown evidence
Data in my trade
Historians, condition data and asset performance metrics analysed into maintenance and capital decisions
Working with automation
The graduate builds the automation; the spine adds the discipline of bounding it deliberately
Judgement, ethics and safety
Safety instrumented functions stay deterministic; the bypass refused; the safety case that would survive investigation
Digital work and platform income
The engineering practice profile, service contracts and regional clients, from SPN102 and ENT301
Learning outcomes
What the graduate can do
- PLO 1
Program, commission and troubleshoot industrial control systems and PLCs to production standard
Level 6: applies advanced technical expertise to complex systems
- PLO 2
Select, install, calibrate and diagnose process instrumentation with traceable records
Level 6: manages technical systems with accountability
- PLO 3
Program, integrate, maintain and safely guard industrial robots and automated cells
Level 6: applies specialised expertise with safety responsibility
- PLO 4
Commission, tune and optimise drives and motion systems including for energy efficiency
Level 6: applies expertise with measured outcomes
- PLO 5
Design, commission and secure industrial networks and SCADA systems
Level 6: designs and manages complex systems
- PLO 6
Build reliability programmes using condition monitoring to predict and prevent failure
Level 6: analyses complex data into professional decisions
- PLO 7
Design and deliver complete automation projects from requirement to commissioned handover
Level 6: manages complex projects with accountability
- PLO 8
Apply functional safety engineering to specify, verify and maintain protective systems
Level 6: exercises professional judgement where safety is at stake
- PLO 9
Manage the maintenance function, its budget, systems and asset performance
Level 6: manages resources and people with commercial accountability
- PLO 10
Lead plant digitalisation with predictive analytics verified against physical evidence
Level 6: applies new technology with critical evaluation
- PLO 11
Conduct applied research and defend evidence based engineering conclusions
Level 6: investigates and reports with rigour
- PLO 12
Lead technical teams and operate an engineering enterprise with defensible commercial practice
Level 6: operates autonomously with commercial responsibility
Entry routes
Four ways in
- Academic route. A Diploma at UVQF Level 5 in electrical, mechanical, mechatronic or control engineering, or an equivalent qualification.
- Vocational route. FC-D03 Electric Mobility and FC-D02 Renewable Energy are cognate feeders; FC-D05 Biomedical Equipment Technology graduates enter with bridging in IAR301.
- Recognition of prior learning. Practising maintenance and automation technicians assess against year one outcomes; advanced standing follows demonstrated competence and a practical assessment.
- Mature age route. Applicants of twenty five and above with substantial industrial maintenance practice enter through the access assessment and practical trade test.
Industrial training
Assessed weeks inside a working organisation
- Duration and placement
- Ten weeks in year one (ITRH201, 16 credit units, 150 hours minimum) and twelve weeks in year two (ITRH202, 20 credit units, 180 hours minimum).
- Host organisation types
- Beverage and food processing plants, cement and steel works, pharmaceutical manufacturers, utilities, agro industrial parks, system integrators and equipment suppliers.
- Learning objectives
- Year one: control, instrumentation and maintenance work at technologist level under supervision. Year two: project delivery, reliability and maintenance management with a substantial host project.
- Supervision
- A named host supervisor engineer; the practice tutor visits at least twice per placement; safety incidents escalate immediately and suspend the placement pending review.
- Logbook
- Daily entries against the objectives, countersigned weekly by the host supervisor, reviewed by the practice tutor at each visit, kept on the platform.
- Assessment
- Joint workplace assessment against the Level 6 practice rubric each year, plus logbooks and the year two host project.
Assessment and certification
Continuous practical, plus UVTAB
A human assessor confirms every AI-avatar oral examination result before it stands, and the trainer who taught a learner never marks that learner's summative assessment.
- Internal continuous assessment, 60 per cent: workshop task assessments, module projects, logbooks and oral checkpoints, marked under the separation rule of Part Two.
- UVTAB external assessment, 40 per cent: the Board's written and practical occupational assessments for this qualification, taken at the gazetted sittings.
- Practical competency assessment: every practical outcome is assessed by observed performance against published criteria; evidence is retained.
- Oral examination option: any module checkpoint and the exit project defence may be taken in the AI avatar oral examination room, with human confirmation of every result.
- Grading scale: Distinction 80 to 100; Credit 65 to 79; Pass 50 to 64; Not Yet Competent below 50, with the right to reassessment.
- Pass and progression: every core module at Pass or above, all practical competencies demonstrated, industrial training completed, exit project at Pass or above.
- Resit rules: two reassessment opportunities per module without repeating attendance; a third attempt repeats the module; reassessment covers only the outcomes not yet demonstrated.
Exit project
A real venture, or a real employer brief
The capstone is a complete automation or reliability engineering project baseline measured, the engineering design, the safety assessment, the implementation and commissioning, the documentation pack, and the candidates may instead establish an automation services practice with at least three commissioned client projects delivered to the same technical Deliverables:
The engineering file: baseline, design, calculations, drawings and The safety file: hazard assessment, safety function specification and validation records The commissioned system: working on real plant with the documentation and handover pack The defence: presentation, technical examination and oral defence Grading criterion Weight What excellent looks like handover maintain it from the pack Defence 15% Every engineering decision
- The engineering file: baseline, design, calculations, drawings and
- The safety file: hazard assessment, safety function specification and validation records
- The commissioned system: working on real plant with the documentation and handover pack
- The defence: presentation, technical examination and oral defence Grading criterion Weight What excellent looks like handover maintain it from the pack Defence 15% Every engineering decision
Progression
Where this qualification leads next
No Forward College learner ever meets a dead end.
Into Forward University:
FC-H02 graduates enter the University's engineering degrees with credit transfer of up to one half at Level 6 under the Part Two, section 2.12 equivalence tables, articulating into electrical, mechatronic and industrial engineering programmes.
Professionally: the award is designed for direct employer recognition at technologist and engineer level, and the capstone panel includes external industry assessors for that reason; graduates are positioned for the engineering registration pathway where they choose to pursue it.