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FORWARD
University
Under review

Master of Science in Robotics and Autonomous Systems

A research and translation degree producing the small cadre able to lead robotics programmes in African industry and to found deep technology ventures. It is deliberately weighted towards deployable systems rather than simulation results, a...

MScHybrid18 months (3 semesters)Intake August 202790 credit units

The four facts

What you actually need to compare

Award and entry
MSc
A
Duration and mode
18 months (3 semesters)
Hybrid. Includes 12 months of paid, assessed cooperative education.
Cost
UGX 3,600,000 per year
Tier 2 laboratory classification. Includes UGX 600,000 annual laboratory premium.
Outcome targeted
Senior robotics engineer, autonomy lead, research engineer
Reviewed by 2031. If the thesis stops holding, the programme is reviewed.
Fee structure Key dates 90 credit units

Pricing Model 5.1 · The Forward Standard

Master of Science in Robotics and Autonomous Systems fee

UGX 3,600,000 per year

Laboratory tier
Tier 2
Annual premium
UGX 600,000
Per semester
UGX 1,800,000
Whole programme
UGX 5,400,000
Approximate USD
≈ USD 1,421

What this fee includes

  • Teaching, practice tutoring, assessment and competency verification
  • The Amagezi platform and AI tutor around the clock
  • All learning materials
  • Every examination, including first resits
  • Identity card, library, guild, sports and basic wellbeing
  • Co-op placement matching and the Capability Passport
  • Graduation and the statutory NCHE fee
  • Online application

Employment thesis

What this programme is designed to produce

Forward publishes the destination of every programme before you enrol. If the thesis stops holding, the programme is reviewed and, where necessary, retired. Next review: 2031.

Roles

  • Senior robotics engineer
  • autonomy lead
  • research engineer
  • robotics programme manager
  • technical founder
  • doctoral candidate.

Employer types

  • Manufacturers, agricultural processors, logistics operators, mining and energy firms, research institutes, and deep technology ventures.

Target outcomes we hold ourselves to

  • A specialist market with limited domestic supply and significant international remote and relocation demand.

Compulsory · The Forward Core

How the Core works →

Every Forward programme, including this one, carries the same five cross-cutting requirements. They are graded, not optional.

  • AI Fluency
  • Quantitative Reasoning
  • Ethics and African Context
  • Human-Advantage Skills
  • Enterprise

Includes 12 months paid work-integrated learning

Read the co-op commitment

Am I eligible?

Check yourself against the published requirements

7 questions written specifically for Master of Science in Robotics and Autonomous Systems. Every answer is checked against a requirement Forward has published, and the result tells you which page that requirement comes from. Indicative only, the admissions office decides on your full file.

Question 1 of 70%

What is the highest qualification you hold?

Requirement tested: A completed bachelor's degree in a cognate field, or a recognised equivalent with professional experience.

Curriculum structure

The same degree, in both pathways

Every Forward programme is published in both pathways: Path One, the term plan of two six-month terms, and Path Two, the block sequence of twelve four-week blocks. Same competencies, same assessments, same award. Toggle to see this programme in each.

Path One term plan shown

Path One · The Term Model

TERM 1 (SIX MONTHS) | FORMERLY SEMESTER 1Year 1
30 credit units
CodeCourseCUHours
FDC 501
Applied Intelligence for Professionals
Both
42-2-0
FDC 502
Research Evidence and Method
Both
42-2-0
IEM 510
Advanced Robot Modelling and Control
Both
64-2-2
IEM 511
Perception, Estimation and Sensor Fusion
Performance
63-2-4
IEM 512
Motion Planning and Decision Making
Both
53-2-2
IEM 513
Research Methods and Experimental Robotics
Both
53-2-2
TERM 2 (SIX MONTHS) | FORMERLY SEMESTER 2Year 1
30 credit units
CodeCourseCUHours
FDC 503
Governance, Ethics and Leadership of Intelligent Systems
Both
42-2-0
IEM 520
Learning for Robotics and Sim to Real
Performance
74-2-4
IEM 521
Field Deployment, Safety and Standards
Both
53-2-2
IEM 522
Human–Robot Interaction and Shared Autonomy
Both
53-2-2
IEM 523
Robotics Systems Engineering and Integration
Performance
61-0-10
IEM 524
Advanced Elective
Objective
32-2-0
TERM 3 (SIX MONTHS) | FORMERLY SEMESTER 3:Year 2
30 credit units
CodeCourseCUHours
IEM 530
Dissertation: Deployed Autonomous System
Performance
200-2-38
IEM 531
Robotics Venture and Technology Transfer
Objective
54-2-0
IEM 532
Doctoral and Publication Seminar
Objective
54-2-0

Total credit units: 90

Curriculum source

Forward University Curriculum Compendium

Assessment

Coursework + project + integrated exam

Work-integrated learning

12 months paid co-operative education

Your week at Forward

A typical week on Master of Science in Robotics and Autonomous Systems

Path One, the Term Model: your own pace across a six-month term, one live session a week, short flexible lessons, and assessment on demand.

Monday

Tuesday

Wednesday

Thursday

Friday

Mandatory live session Flexible bite-sized lesson Optional event

Curriculum explorer

Drill into the degree, step by step

Choose a study path, then a year, then a term or block, then a course. Credit totals add up as you go, and every course shows what comes before it and what it unlocks.

Step 1, choose a year

Step 2, choose a term

TERM 1 (SIX MONTHS) | FORMERLY SEMESTER 1

Year 1 · this step is worth 30 CU

Cumulative

30

Programme total

90

30 CU of 90 CU completed by the end of this step (33%)

Step 3, choose a course

Pick a course to see the detail

Credits, assessment, prerequisites and what each course unlocks later.

The twelve Forward capabilities

What this programme develops in you

Every Forward degree develops the same twelve cross-cutting capabilities. The profile below is the level this programme is designed to develop and verify by graduation, on the four-level scale in Part B2 of the Curriculum Compendium. Every claim above Level 2 is verified by someone other than the teaching lecturer.

  • C1Intelligent Systems Fluency CriticalLevel 4 of 4, Leading
  • C2Quantitative and Evidential ReasoningLevel 4 of 4, Leading
  • C3Ethical and Contextual JudgementLevel 3 of 4, Independent
  • C4Communication and PersuasionLevel 4 of 4, Leading
  • C5Disciplinary Mastery CriticalLevel 4 of 4, Leading
  • C6Technical Production and Craft CriticalLevel 4 of 4, Leading
  • C7Problem Framing and Systems Thinking CriticalLevel 4 of 4, Leading
  • C8Collaboration and Multidisciplinary TeamingLevel 3 of 4, Independent
  • C9Enterprise, Value and Commercial LiteracyLevel 3 of 4, Independent
  • C10Professional Conduct and Workplace PerformanceLevel 4 of 4, Leading
  • C11Learning to Learn and Adaptive CapacityLevel 4 of 4, Leading
  • C12Stewardship and Public ContributionLevel 3 of 4, Independent

Critical capabilities for this programme: Intelligent Systems Fluency · Disciplinary Mastery · Technical Production and Craft · Problem Framing and Systems Thinking. A graduate cannot pass out of this programme below the stated level on any capability marked critical.

Programme Learning Outcomes

What you will be able to do

Each outcome is assessed, and each is tagged with the Forward capabilities it is verified against.

  1. PLO 1Design and build autonomous systems for defined operational environments.
  2. PLO 2Apply advanced estimation, planning and control methods with justified assumptions.
  3. PLO 3Apply learning based control and reason about sim to real transfer.
  4. PLO 4Conduct and report original applied research to publication standard.
  5. PLO 5Assess safety, standards compliance and workforce consequences of deployed autonomy.
  6. PLO 6Translate a robotics result into a deployable, costed and maintainable product.

Why this programme exists

A research and translation degree producing the small cadre able to lead robotics programmes in African industry and to found deep technology ventures. It is deliberately weighted towards deployable systems rather than simulation results, and every dissertation must terminate in a machine that operated outside the laboratory.

Admission requirements

A Bachelor's degree of at least Second Class Lower Division in engineering, computing, physics or mathematics, with demonstrated programming and hardware capability. Alternative pathways: Foundation Year, diploma entry with advanced standing, mature age entry and recognition of prior learning, all governed by Part A5 and Part G. Online applicants additionally complete the compulsory Digital Readiness orientation under Part D6.