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Physics-Technology Department

Training science and technology teaching specialists for Burundi's Basic and Post-Basic Schools

Bachelor's Degree in Physics-Technology: Training Science and Technology Educators

The IPA's Physics-Technology Department offers a three-year Bachelor's degree in Physics-Technology. This degree prepares future teachers and teaching specialists of science and technology for the Burundian and African context. The programme combines three inseparable pillars: mastery of content in physics and technology (mechanics, electricity, thermodynamics, renewable energy, digital technologies), a deep understanding of technological learning processes (innovation, technical problem solving, computational thinking), and the teaching skills to turn this expertise into effective and creative learning for pupils.

This is not a programme in "abstract physics". It is practical preparation for teaching physics and technology as tools for understanding and transforming the world. Students leave the Department not only as specialists in physics and technology, but as reflective educators able to adapt teaching to the specific context of Burundi, and to prepare learners for the technological opportunities of the 21st century.

The Department brings together an innovative community that experiments, codes and debates together. Graduates work as secondary school teachers, teacher trainers, educational technology coordinators and researchers in the didactics of applied sciences in Burundi.

Programme objectives

  • Master content in physics and technology: mechanics, electricity, thermodynamics, renewable energy, digital technologies;
  • Design educational technology projects;
  • Acquire the teaching and didactic skills to teach physics and technology;
  • Integrate digital tools into teaching.

How the IPA trains science and technology teaching specialists: a progressive and innovative methodology

Three principles shape the Physics-Technology Department and reflect the IPA's teaching approach.

Principle 1: Progressing from physical theory to technological application to teaching

The six semesters are not a series of isolated courses. They form an intentional progression from understanding physics, to technological competence, to the ability to teach. The first two semesters lay the foundations: classical mechanics, electricity, thermodynamics, an introduction to digital technologies, an introduction to learner psychology and cognitive development. In the third semester, students go deeper: optics and waves, electromagnetism, renewable energy, web technologies and mobile applications. In the fourth semester, the teaching focus becomes explicit: students take "Pedagogy and Didactics" — theory of teaching, setting learning objectives, teaching strategies, assessment. In the fifth semester: "Special Didactics of Applied Sciences and Technologies" — how to apply this theory specifically to the teaching of physics and technology, integrating digital tools in the classroom, designing educational technology projects. In the sixth semester: teaching placements in real schools, supported by IPA supervisors.

This progression ensures that every student first masters physics and technology, then learns how to teach them, and then practises them in a real context.

Principle 2: Integrating contextualised and sustainable technologies

The curriculum does not limit technology to laboratory theory or gadgets. Alongside the formal fundamentals, students explore applications of science and technology to the African context: renewable energy for Africa, water systems and rural electrification, mobile technologies for education, digital solutions to local challenges. They discover how to teach physics and technology not as detached disciplines, but as tools for social transformation and sustainable development. This grounding in relevance and sustainability makes teaching motivating and empowering for African pupils.

Principle 3: Balancing theory, practice and innovation at every stage

Each course combines lectures (physical and technological theory), tutorials (problem solving), practical work with equipment (experimentation and prototyping), teaching design work (designing classroom projects) and group work (collaborative learning and innovation). It is not "theory first, then practice". It is a constant alternation, so that every physical or technological concept is immediately applied, tested and discussed from a teaching perspective.

Structure of the Bachelor's in Physics-Technology: curriculum architecture

The Bachelor's degree in Physics-Technology is organised over three years (six semesters) according to the ECTS system. Each semester is worth 30 credits, i.e. 60 credits per year. The teaching load amounts to 450 hours per semester, i.e. 2,700 hours over the three years, divided between lectures (CM), tutorials (TD), practical and laboratory work (TP), independent student work (TPE) and group work (TGE). At the end of the six semesters, students receive the official Bachelor's degree in Physics-Technology recognised by the University of Burundi.

Semesters 1-2

Physics and technology foundations

Classical mechanics, electricity, thermodynamics, introduction to digital technologies, child and adolescent psychology. Students gain systematic mastery of core physics content and a basic understanding of the learner's cognitive development.

Semesters 3-4

Deeper physics and technology knowledge and an introduction to pedagogy

Optics and waves, electromagnetism, renewable energy, web technologies, mobile applications. In semester 4, an introduction to the principles of general pedagogy, setting learning objectives, teaching strategies, assessment of learning. Students recognise the distinction between subject mastery and teaching mastery.

Semester 5

Applied science and technology didactics

Students apply teaching principles to the specific context of physics and technology teaching. Integrating digital tools in the classroom, designing educational technology projects, building innovative teaching sequences, project-based learning.

Semester 6

Supervised practice in a professional setting

75 hours of teaching placements in a partner school. Students observe, teach, carry out experiments and technology projects, receive feedback from supervisors and write a report analysing their teaching practice.

BAC I 
SEMESTER 1
    
U.EECUECodesHours Credits
   VHPCMTDTPTPE TGE 
UE 1: Maths IAnalysis IPTE1101453015030753
Algebra IPTE1102453015030753
TrigonometryPTE1103302010020502
         8
UE 2: Physics IGeneral Mechanics IPTE11044520151030753
Electricity IPTE1105453051030753
Geometrical OpticsPTE11064520151030753
         9
UE 3: Technology IGeneral TechnologyPTE1107453001530753
ManufacturingPTE110830003020502
UE 4: ChemistryGeneral Chemistry IPTE110930205520502
General Chemistry IIPTE111030205520502
         9
UE 5: Support Courses IFrench Expression TechniquesPTE1111302010020502
ComputingPTE1112301020020502
         4
TOTAL  450     30
BAC I 
SEMESTER 2
    
U.EECUECodesHours Credits
   VHPCMTDTPTPE TGE 
UE 6: Maths IIAnalysis IIPTE12136045150401004
Algebra IIPTE1214453015030753
         7
UE 7: MechanicsGeneral Mechanics IIPTE121560301515401004
Fluid MechanicsPTE1216302010020502
         6
UE 8: Physics IIAnalytical Mechanics IPTE12176045150401004
ThermodynamicsPTE12184520101530753
         7
UE 9: Educational PsychologyIntroduction to General PsychologyPTE121930300020502
Psychology of LearningPTE121030300020502
Child and Adolescent PsychologyPTE121130300020502
          
UE 10: Support Courses IIInformation RetrievalPTE1212302010020502
English IPTE1213301515020502
         4
TOTAL  450   30075030
BAC II
SEMESTER 3
    
U.EECUECodesHours Credits
   VHPCMTDTPTPE TGE 
UE 1: Physics IIIElectricity IIPTE23014520151030753
ElectronicsPTE23024520101530753
         6
UE 2: Physics IVSpecial RelativityPTE2303302010020502
Analytical Mechanics IIPTE23046045150401004
ElectrodynamicsPTE23056045150401004
         10
UE 3: Maths IIIStatistics and ProbabilityPTE2306302010020502
GeometryPTE2307453015030753
         5
UE 4: Physics VQuantum Mechanics IPTE23086045150401004
Waves and VibrationsPTE2309453010530753
AstronomyPTE231030300020502
         9
TOTAL  450   30075030
BAC II
SEMESTER 4
    
U.EECUECodesHours Credits
   VHPCMTDTPTPE TGE 
UE 5: Physics VINuclear PhysicsPTE2411453015030753
Statistical PhysicsPTE2412453015030753
Atomic and Molecular PhysicsPTE2413453051030753
         9
UE 6: Support Courses IIIEnglish IIPTE2414303010020502
TICEPTE2415301020020502
Citizenship EducationPTE241630300020502
         6
UE 7: Pedagogy and DidacticsGeneral PedagogyPTE241730300020502
Setting ObjectivesPTE241830300020502
Teaching StrategiesPTE241930300020502
Assessment of LearningPTE242030300020502
         8
UE 8: Applied MathsMathematical Methods of PhysicsPTE2421453015030753
Numerical Analysis and ProgrammingPTE24226045150401004
         7
TOTAL  450   30075030
BAC III
SEMESTER 5
    
U.EECUECodesHours Credits
   VHPCMTDTPTPE TGE 
UE 1: Physics VIICrystallographyPTE3501453015030753
Solid State PhysicsPTE3502453015030753
Quantum Mechanics IIPTE3503453015030753
         9
UE 2: Physics VIIIAnalytical Mechanics IIIPTE3504453015030753
Physical OpticsPTE3505302010020502
         5
UE 3: Teacher Ethics and PracticeTeacher DeontologyPTE3506302010020502
School Administration and LegislationPTE3507302010020502
Physics DidacticsPTE3508302010020502
Technology DidacticsPTE3509302010020502
         8
UE 4: Technology IIElectrical Equipment and InstallationPTE3510301501520502
Assembly TechniquesPTE3511302001020502
EntrepreneurshipPTE3512302001020502
Special Physics Practicals + Field TripsPTE3513303003020502
         8
TOTAL  450   30075030
BAC III
SEMESTER 6
    
U.EECUECodesHours Credits
   VHPCMTDTPTPE TGE 
UE 5: DrawingTechnical DrawingPTE3614453015030753
Architectural DrawingPTE3615302010020502
Descriptive GeometryPTE3616453015030753
         8
UE 6: Maths IVInfinitesimal AnalysisPTE36176045150401004
Analytical GeometryPTE361845301503053
         7
UE 7: Physics IXHistory of the Physical SciencesPTE36193020102020502
General RelativityPTE3620453015030753
         5
UE 8: Teaching PracticePhysics and Technology Didactics ExercisesPTE362145045030753
Physics and Technology PlacementsPTE3622750750501255
Placement ReportPTE362330030020502
         10
TOTAL  450   30075030

Where does studying physics-technology lead? Careers and opportunities

Graduates of the Physics-Technology Department follow several career paths.

Secondary school teacher: Most become physics or technology teachers in Burundian or regional secondary schools. With their IPA training, they are not ordinary teachers. They know the didactics of applied sciences, can design educational technology projects, and can integrate digital tools in the classroom.

Teacher trainer and educational technology coordinator: Some graduates join in-service teacher training programmes, either at the IPA itself or at other institutions. Their expertise in digital technologies and pedagogy makes them valuable for developing innovative teaching resources and supporting schools' technology equipment.

Researcher in the didactics of applied sciences: Students interested in research can go on to a Master's in Applied Physics, a Master's in Renewable Energy or a Master's in Science and Technology Didactics, where they explore in greater depth the issues of technology teaching and computational thinking.

Educational coordinator or inspector: After several years of teaching experience, some graduates become school inspectors or educational coordinators at the ministry, where they help improve the quality of science and technology teaching and support digital integration in schools.

Graduates report high job satisfaction: they teach, they inspire innovation and critical thinking, and their IPA training prepared them to do so effectively.

Admission requirements

To be admitted to the first year of the Bachelor's (BAC 1), applicants must meet the general admission conditions set by the University of Burundi:

  1. Hold the Burundian State Diploma (State Examination) or a qualification recognised as equivalent;
  2. Be placed in or admitted to an IPA department through the official admission procedure held each year;
  3. Submit an application file within the deadlines set by the Directorate of Academic Services.

For the procedure and the programme choice platform, see the Bachelor's Admissions page.