Undergraduate Programme of Physics Education (UPPE)
The UPPE has a scientific vision, namely “To develop and apply science and technology in the field of Physics Education oriented towards Education for Sustainable Development (ESD) to produce excellent physics education graduates.” UPPE not only produces individuals who master physics, but also trains teachers who are able to instill a deep understanding of the essence of science (Nature of Science/NOS) by applying TPACK (Technological Pedagogical Content Knowledge) in learning, while continuously updating physics content, especially in the field of modern science, sustainably.
One of the efforts to achieve this, UPPE designed an integrated curriculum in courses that are interconnected with essential science (NOS) as the main glue. Each course is designed to build students’ knowledge and skills so that they not only “know what”, but also “know-how” and “know why”, as well as realizing the importance of continuous learning of the subjects they teach.
Based on content analysis and learning emphasis in the old courses that have been updated and included in the latest curriculum, there are currently 23.3% modern science, 23.3% NOS, and 30% TPACK. Furthermore, based on the latest curriculum changes at UPPE Lampung University in 2025 and based on the results of curriculum evaluation and needs, it has been agreed that there will be updates to the courses. There are 23 new courses with components of 60% TPACK, 21.7% modern science, and 17.4% NOS. Table 4 shows the new courses that have been added to the 2025 UPPE curriculum.
Table. New Courses Added to the 2025 UPPE Curriculum (Total required courses: 54)

Understanding the Nature of Science (NOS) is a philosophical foundation that equips prospective teachers to teach not only “what” science is, but also ‘how’ science works and “why” science is important in life. Its novelty and relevance to the ESD vision are reflected in its reflective and critical approach to the role of science in building a sustainable future. Courses such as Physics Teacher Professional Development, Physics Learning Issues, Literacy in Physics Learning, and Science Laboratory Management for ESD invite students to explore the social responsibilities of a science teacher, analyze the roots of misconceptions, and design laboratory practices that are not only technical but also have ethical and sustainability values. Thus, a strong understanding of NOS ensures that graduates become not only content teachers but also science-literate agents of development.
NOS-Topics-in-The-CourseThe TPACK components form the backbone of the curriculum in preparing excellent and relevant physics teachers in the digital age. The integration of Technology (T), Pedagogy (P), and Content (C) ensures that technology is not used as an add-on, but as an integral part of improving the understanding of difficult physics content. Its novelty and validity are evident in the presence of courses such as AI for Physics Learning, Data Science for Physics Learning, Internet of Things (IoT) in Learning, and Digital Learning Device Development. Meanwhile, Adaptive Learning and Assessment for Inclusive Classrooms ensures that this approach is inclusive. This group of courses directly realizes the program’s vision by utilizing technology to create innovative, in-depth physics learning that is oriented towards solving future challenges in line with the spirit of ESD.
TPACK-in-the-CourseMastery of Modern Science content is a must for physics education students to ensure that the material taught by prospective teachers is contemporary and contextual with global developments in science and technology. The novelty of this content is expected to foster curiosity and prepare prospective teachers to face the challenges of the 21st century. Courses such as Contemporary Physics, Fundamentals of Nanotechnology, and Energy Conversion provide insights into developments in physics that are directly related to innovation and sustainability, such as new materials and renewable energy. In addition, modern scientists are also supported by their mastery of computational tools, which are provided through the Functional Programming in Physics Tasks course. By mastering modern science content and methodology, graduates are ready to apply and continue relevant and solution-oriented science for sustainable development in order to face the challenges of the 21st century.
Modern-Science-Topics-in-the-courseHere we break it down for distribution to each semester. Meanwhile, the Module Handbook for all courses in UPPE can be accessed through the UPPE website: Website Link
SEMESTER 1
No | Code | Course Title | Credit Unit | ECTS |
1 | UNI625101 | Islamic Religion | 3 | 4,8 |
2 | UNI625102 | Christian Religion | 3 | 4,8 |
3 | UNI625103 | Catholic Religion | 3 | 4,8 |
4 | UNI625104 | Hindu Religion | 3 | 4,8 |
5 | UNI625105 | Buddha Religion | 3 | 4,8 |
6 | UNI625106 | Confucian Religion | 3 | 4,8 |
7 | UNI625107 | Pancasila | 2 | 3,2 |
8 | KIP625101 | Foundations of Education | 2 | 3,2 |
9 | KIE625102 | Basic Mathematics | 3 | 4,8 |
10 | KIE625103 | Chemical Science | 2 | 3,2 |
11 | KIE625104 | Biological Science | 2 | 3,2 |
12 | KFI625101 | Basic Mechanics and Thermodynamics | 3 | 4,8 |
13 | KFI625102 | Earth and Space Science | 3 | 4,8 |
SEMESTER 2
No | Code | Course Title | Credit Unit | ECTS |
1 | UNI625108 | Civics | 2 | 3,2 |
2 | UNI625109 | Indonesian Language | 2 | 3,2 |
3 | KIP625102 | Educational Psychology and Guidance | 2 | 3,2 |
4 | KIP625103 | Educational Management | 2 | 3,2 |
5 | KFI625103 | Basic Mathematical Physics | 3 | 4,8 |
6 | KFI625104 | Basic Waves and Electrodynamics | 3 | 4,8 |
7 | KFI625105 | Physics Learning Strategy | 3 | 4,8 |
8 | UNI625201 | Kewirausahaan | 3 | 4,8 |
SEMESTER 3
No | Code | Course Title | Credit Unit | ECTS |
1 | KFI625201 | Advanced Physics Mathematics | 3 | 4,8 |
2 | KFI625202 | Mechanics | 3 | 4,8 |
3 | KFI625203 | Wave | 3 | 4,8 |
4 | KIP625201 | Education Assessment | 2 | 3,2 |
5 | KFI625204 | Physics Learning Planning | 3 | 4,8 |
6 | KFI625205 | Basic Electronics | 3 | 4,8 |
7 | KFI625206 | Physics Instrumentation | 3 | 4,8 |
8 | KIP625202 | Curriculum and Learning | 2 | 3,2 |
9 | KIP625203 | lCT Literacy and Learning Media | 2 | 3,2 |
SEMESTER 4
No | Code | Course Title | Credit Unit | ECTS |
1 | KFI625207 | Optics | 3 | 4,8 |
2 | KFI625208 | School Physics | 3 | 4,8 |
3 | KFI625209 | Modern Physics | 3 | 4,8 |
4 | KFI625210 | Physics Learning Assessment | 3 | 4,8 |
5 | KFI625211 | AI for Physics Education | 3 | 4,8 |
6 | KFI625212 | Thermodynamics | 3 | 4,8 |
7 | KFI625213 | Statistics | 3 | 4,8 |
8 | KFI625214 | Misconceptions in Physics and Remediation | 3 | 4,8 |
SEMESTER 5
No | Code | Course Title | Credit Unit | ECTS |
1 | KFI625301 | Electricity and Magnetism | 3 | 4,8 |
2 | KFI625302 | Microteaching | 3 | 4,8 |
3 | KFI625303 | Energy Conversion | 3 | 4,8 |
4 | KFI625304 | STEM-ESD Education | 3 | 4,8 |
5 | KFI625305 | Educational Research Methodology | 3 | 4,8 |
6 | KFI625306 | Atomic Nucleus and Radioactivity | 3 | 4,8 |
SEMESTER 6
No | Code | Course Title | Credit Unit | ECTS |
1 | KFI625307 | Quantum Physics | 3 | 4,8 |
2 | KFI625308 | Internet of Things in Physics Learning | 3 | 4,8 |
3 | KFI625309 | Review of Physics Education Research Results | 2 | 3,2 |
4 | KFI625310 | Professional English | 2 | 3,2 |
5 | KFI625311 | The History of the Development of Physics | 2 | 3,2 |
6 | KFI625312 | Applied Field Studies | 1 | 1,6 |
7 | KFI625313 | Science Laboratory Management | 3 | 4,8 |
SEMESTER 7
No | Code | Course Title | Credit Unit | ECTS |
1 | KIP625307 | Introduction to the School Field | 4 | 6,4 |
2 | UNI625301 | Community Service Program | 3 | 4,8 |
ELECTIVE COURSES
No | Code | Course Title | Credit Unit | ECTS |
1 | KFI625314 | Physics Learning Multimedia | 2 | 3,2 |
2 | KFI625315 | Advanced Physics Instruments | 2 | 3,2 |
3 | KFI625316 | Earth Physics | 2 | 3,2 |
4 | KFI625317 | Medical Physics | 2 | 3,2 |
5 | KFI625318 | Solid State Physics | 2 | 3,2 |
6 | KFI625319 | Statistical Physics | 2 | 3,2 |
7 | KFI625320 | Theory of Relativity | 2 | 3,2 |
8 | KFI620321 | Fundamentals of Nanotechnology Structure | 2 | 3,2 |
9 | KFI620322 | Contemporary Physics | 2 | 3,2 |
10 | KFI625323 | Measurement and Testing | 2 | 3,2 |
11 | KFI625324 | Data Analysis and Measurement | 2 | 3,2 |
12 | KFI625325 | Research Instrument Design and Evaluation | 2 | 3,2 |
13 | KFI625326 | Literacy in Physics Learning | 2 | 3,2 |
14 | KFI625327 | The Authentic Assessment | 2 | 3,2 |
15 | KFI625328 | Functional Programming in Physics Tasks | 2 | 3,2 |
16 | KFI625329 | E-Learning Development | 2 | 3,2 |
17 | KFI625330 | Development of Digital Learning Tools | 2 | 3,2 |
18 | KFI625331 | Physics Visualization | 2 | 3,2 |
19 | KFI625332 | Data Science for Physics Learning | 2 | 3,2 |
20 | KFI625333 | Science Laboratory Management for ESD | 2 | 3,2 |
21 | KFI625334 | Technology-Based Laboratory Management | 2 | 3,2 |
22 | KFI625335 | Laboratory Techniques | 2 | 3,2 |
23 | KFI625336 | Nature-Based Learning Laboratory | 2 | 3,2 |
24 | KFI625337 | School Management | 2 | 3,2 |
25 | KFI625338 | Deep Learning Modeling | 2 | 3,2 |
26 | KFI625339 | Learning Resources and Teaching Materials Development | 2 | 3,2 |
27 | KFI625340 | Physics Learning for Inclusive Classes | 2 | 3,2 |
28 | KFI625341 | Adaptive Assessment for Inclusive Classes | 2 | 3,2 |
29 | KFI625342 | Problems of Physics Learning | 2 | 3,2 |
30 | KFI625343 | Modern Optics | 2 | 3,2 |