Currently, two curricula are in use: Curriculum 2018 and Curriculum 2023, which are evaluated continuously and refined to adapt to changing needs:
Curriculum 2018
1. Objectives
The implementation of MP-CE aims to prepare master students in Chemistry education as thinkers, researchers, developers, and practitioners of chemical education who are able to:
- analyze and synthesize chemical content and pedagogy critically, systematically and sustainably;
- make innovations in the fields of curriculum, learning and assessment of chemistry learning outcomes;
- implement knowledge and innovation results in learning practices and the development of chemistry education;
- conduct research to develop knowledge in the field of chemistry education and improve the practical quality of chemistry education through a scientific approach;
- disseminating the results of research and innovation in the field of chemical education at the national and or international levels.
- managing chemical education development programs and practices;
- cooperate, have a leadership spirit, show a caring and responsible attitude in improving the quality of chemical education based on scientific values and attitudes; and
- have learning skills, manage information and use ICT as a basis for self-development and lifelong learning.
2. Program Education Objective (PEO)
The profile of MP-CE graduates is as chemistry education experts who can play the role of thinkers, developers, researchers, and practitioners. In more detail, the profile of these graduates is described in the PEO (Table 2.2.1).
Table 2.2.1 Description of PEO
PEO |
Description |
Indicator |
PEO-1
|
Chemistry Education Thinkers |
Have the ability to think critically in the science of chemistry education, so that they can explore various issues and ways to solve problems. |
PEO-2 |
Chemistry Education Researcher |
Conduct research in the field of chemistry education, so that they can find problems in the practice of chemistry education, use and/or develop relevant research methodologies and implement them. |
PEO-3 |
Chemistry Education Developer |
Develop various aspects in chemistry education, such as pedagogy, curriculum, assessment, media, and practicum at various levels of education. |
PEO-4 |
Chemistry Education Practitioner |
Conduct and/or participate in the practice of chemistry education, such as teachers, lecturers, coaches and tutors. |
3. Learning Outcomes
1. ATTITUDE |
|
S1 |
Demonstrate scientific, educative, and religious attitudes and behaviors, which contribute to improving the quality of life in society, nation, and state based on culture, norms, and academic ethics. |
2. KNOWLEDGE |
|
P1 |
Mastering the fundamentals of chemistry and its applications so as to be able to keep up with chemical developments. |
P2 |
Mastering the science of chemical pedagogy, chemical scientific philosophy, psychology of learner development, curriculum and other relevant knowledge to develop knowledge of school chemistry education. |
3. GENERAL SKILLS |
|
KU1 |
Able to integrate learning and innovation skills, mastery of technology and information, career development, and life skills to become a lifelong learner. |
KU2 |
Able to develop and publish logical, critical, systematic, and creative thinking through scientific research, creation of designs or works of art with an interdisciplinary or multidisciplinary approach, which pays attention to and applies humanities values in accordance with their field of expertise. |
4. SPECIALIZED SKILLS |
|
KK1 |
Able to deepen or expand the science of chemical education by analyzing current and actual cases and processing chemical materials into pedagogy of school chemistry materials. |
KK2 |
Able to solve chemistry education problems related to content, learning, curriculum, experiments, values (ethics) and assessment through analytical, descriptive or experimental approaches; to be able to contribute to the chemistry education research roadmap using an inter- or multi-disciplinary approach. |
KK3 |
Able to produce research work in the form of content, models, approaches, methods and assessments in the field of chemistry education and learning. |
KK4 |
Able to carry out and manage research and development in the field of chemical education that benefits the community and the development of chemical education science and increases the effectiveness of chemical learning practices in schools. |
KK5 |
Able to publish research work in international seminars and / or accredited national or international scientific journals referred to improve and develop the praxis of chemistry education in schools.
|
4. Learning Process
Students of the Chemistry Education Master Program are expected to position themselves as active and independent learners. The learning process is student centered with various models, approaches and methods that are appropriate. Student learning experiences apply learning strategies that can develop student abilities in aspects of knowledge, thinking skills and values (discipline, responsibility, honesty, etc.) proportionally. The learning process implemented can develop presentation skills, writing scientific papers, cooperation, creativity, appreciative inquiry, and innovation.
Reasoning ability and intellectual attitude are the concerns of the Chemistry Education Study Program S2. For this reason, each course is strived to carry out a learning with multi-directional communication, utilizing the potential of students to be able to develop in accordance with the achievements of the course, in order to achieve the profile of graduates.
To equip students to carry out their research as the completion of their final project, the curriculum contains courses related to epistemic processes, such as philosophy of science courses, research methodology, chemometrics, and courses related to instrumentation skills.
In principle, all student knowledge and skills gained from the teaching and learning process in the Chemistry Education Study Program S2 have a relationship with Community Service activities. Every Chemistry Education Study Program S2 student is required to participate in community service activities with lecturers. Participation in community service activities is a condition for participation in the trial exam.
Each course has a contribution to the formation of students' ability to make scientific papers. The ability to search literature and write scientific papers can be done by providing structured and controlled assignments related to the topic or focus of lecture studies.
The learning load of 1 credit in the learning process in the form of lectures, receptions or tutorials consists of 1) face-to-face activities: 50 minutes per week per semester; 2) structured assignment activities 60 minutes per week per semester; and 3) independent activities 60 per week per semester. Learning load of 1 credit in the learning process in the form of seminars or other similar forms, consists of 1) face-to-face activities: 100 minutes per week per semester; and 2) independent activities of 70 minutes per week per semester. 1 credit learning load in the learning process in the form of practicum, studio practice, workshop practice, field practice, research, community service and or other similar learning processes 170 minutes per week per semester.
The frequency of lectures in 1 semester is 14-16 meetings, including midterm and final exams, with details of 1) face-to-face 12-14 meetings; 2) midterm exam 1 meeting; 3) final exam 1 meeting. Lecturers who have not reached a minimum of 12 face-to-face meetings are required to complete the lecture before the course exam is held. The number of hours of practicum and field work is determined according to the needs of the practicum and the needs of the field work.
5. Assessment
Assessment is aimed at assessing the process and results of student learning by using tests and non-tests on an ongoing basis. Process assessment includes attendance, assignments, activeness and attitude, while learning outcomes assessment includes Performance Exams, Portfolios, Unit Exams, UTS, UAS and Qualification Exams. The study success score for each course is the cumulative result of the assignment component, midterm exam, semester final exam, and other assessment components.
Assessment of student study success for each course is based on benchmark reference assessment (PAP). With this reference, the value of student achievement of objectives/competencies is determined based on predetermined criteria.
The success of students in following a course is expressed by the final grade according to the following benchmarks.
Category Value |
Ability Level |
||
Letters |
Numbers |
Quality Degree |
|
A |
4,0 |
Special |
92-100 |
A- |
3,7 |
Almost Special |
86-91 |
B+ |
3,4 |
Very Good |
81-85 |
B |
3,0 |
Good |
76-80 |
B- |
2,7 |
Fairly Good |
71-75 |
C+ |
2,4 |
More than Enough |
66-70 |
C |
2,0 |
Enough |
60-65 |
D |
1,0 |
Lack |
55-59 |
E |
<1,0 |
Failed |
< 55 |
The assessment of the trial exam is given using a scale of 100, with a minimum passing score of 71.
To be able to take the UAS, students must 1) be registered as students participating in the course concerned; b) attend lectures in the course concerned at least 80%; and c) not undergoing academic punishment.
Course exams are held at least 2 times in 1 semester, namely midterm exams (UTS) and final semester exams (UAS), and can be replaced by assignments. Examinations are carried out under the responsibility of the lecturer in charge of the course concerned. The exam schedule is coordinated by the Academic Directorate in accordance with the academic calendar. The final program exam (trial exam) can be held every month. Lecturers can provide remedial learning and exams to students who are deemed not to have met the graduation limit before the end of the grade entry period. The maximum grade for re-examination is C.
Students can continue their studies if they have passed the qualification examination. The qualification exam is further regulated in the guidelines published by SPs. Students can take the qualification exam if after 2 semesters they can collect a minimum of 24 credits (for those from the same study program) or after 3 semesters they can collect a minimum of 36 credits (including aanvullen for those from a different study program) and achieve a GPA ≥ 2.75. Students who do not meet these GPA demands and/or do not pass the qualification exam must resign or change study programs. The SPs Director submits a proposal to the Chancellor to determine the decision letter.
6. Curriculum Structure
In accordance with Kepmendiknas No. 232/U/2000, Higher Education Content Standards (BSNP, 2010), the study load of the SPs UPI Chemistry Education Master Program is 36-42 credits scheduled for 4 (four) semesters and can be taken in less than 4 (four) semesters and for a maximum of 8 (eight) semesters including the preparation of a thesis, after an undergraduate program, or its equivalent. The structure of the SPs UPI Master of Chemistry Education Curriculum is grouped into:
- Postgraduate Expertise Courses (MKKPs) amounting to 7 credits consisting of 3 courses.
- Study Program Core Expertise Courses (MKKIPS) of 15 credits consisting of 7 courses.
- Study Program Elective Expertise Courses (MKKPPS) which must be taken 8 credits (4 courses) out of 24 credits (12 courses) offered.
- Aanvullen Course (MKAv) for students with a non-field undergraduate background of 12 credits.
- Thesis Course of 8 credits.
7. Mapping of CPPS with CPMK
No |
Code |
Course Group |
Credits |
Attitude |
Generic Skills |
Knowledge |
Specialized Skills |
||||||
1 |
1 |
2 |
1 |
2 |
1 |
2 |
3 |
4 |
5 |
||||
A. Postgraduate Specialization Courses (MKKPs) |
|
|
|
|
|
|
|
|
|
|
|
||
1. |
PS611 |
Philosophy of Science |
2 |
T |
|
|
|
T |
|
|
|
|
|
2. |
PS603 |
Applied Statistics |
3 |
|
|
|
|
|
T |
T |
T |
S |
S |
3. |
PS701 |
Pedagogical Studies |
2 |
T |
|
|
|
T |
|
|
|
|
|
B. Core Courses of Study Program (MKKIPS) |
|
|
|
|
|
|
|
|
|
|
|
||
1. |
KI601 |
School Chemistry Curriculum and Learning |
2 |
T |
T |
|
T |
T |
T |
T |
|
|
|
2. |
KI602 |
Development of Chemistry Teaching Materials |
2 |
|
T |
|
|
|
|
|
|
|
|
3. |
KI603 |
Chemistry Learning Assessment |
2 |
|
T |
|
|
T |
|
T |
T |
|
|
4. |
KI604 |
Capita Selecta Chemical Physics |
2 |
|
|
|
T |
T |
T |
T |
|
|
|
5. |
KI605 |
Chemistry Practicum Design |
2 |
T |
T |
|
T |
T |
|
|
|
|
|
6. |
KI606 |
Current Issues in Chemistry Education |
2 |
T |
T |
|
|
T |
T |
T |
|
|
|
7. |
KI607 |
Applied Research Methodology |
3 |
T |
T |
|
|
T |
T |
T |
|
S |
S |
C. Elective Expertise Course of Study Program (MKKPPS) |
|
|
|
|
|
|
|
|
|
|
|
||
1. |
KI608 |
Capita Selecta Analytical Chemistry |
2 |
|
|
|
T |
|
T |
|
|
|
|
2. |
KI609 |
Capita Selecta of Inorganic Chemistry |
2 |
|
|
|
T |
|
|
|
|
|
|
3. |
KI610 |
Capita Selecta Organic Chemistry |
2 |
|
|
|
T |
|
|
|
|
|
|
4. |
KI611 |
Biotechnology Techniques and Applications |
2 |
|
|
|
T |
|
T |
T |
|
|
|
5. |
KI700 |
Value Education in Chemistry |
2 |
T |
T |
|
|
|
T |
T |
|
T |
T |
6. |
KI701 |
Sustainable Chemistry Education |
2 |
T |
T |
|
|
|
T |
T |
|
T |
T |
7. |
KI702 |
Development of ICT-based Chemistry Learning Media |
2 |
|
T |
|
T |
T |
T |
T |
|
T |
T |
8. |
KI703 |
School Chemistry Learning Problems |
2 |
|
T |
|
T |
T |
T |
T |
|
|
|
9. |
KI704 |
Intertextuality of Chemistry Learning |
2 |
|
T |
|
T |
T |
T |
T |
|
T |
T |
10. |
KI705 |
Materials Chemistry |
2 |
|
|
|
T |
T |
T |
T |
|
|
|
11. |
KI706 |
Environmental Chemistry |
2 |
|
|
|
T |
|
T |
TT |
TT |
|
|
12. |
KI707 |
Food and Drug Chemistry |
2 |
|
|
|
|
|
|
T |
T |
|
|
D. Aanvullen Course (MKAv) *) |
|
|
|
|
|
|
|
|
|
|
|
||
1. |
KI370 |
Chemistry Learning Strategies |
3 |
|
|
|
T |
T |
|
T |
T |
|
|
2. |
KI371 |
Chemistry Learning Evaluation |
3 |
|
|
|
T |
T |
|
T |
T |
|
|
3. |
KI372 |
ICT Literacy and Chemistry Learning Media |
3 |
|
|
|
T |
T |
T |
T |
|
|
|
4. |
KI380 |
Chemistry Learning Planning |
3 |
|
|
|
T |
T |
T |
T |
|
|
|
F. Thesis |
|
|
|
|
|
|
|
|
|
|
|
||
1. |
KI799 |
Thesis |
8 |
T |
|
|
T |
T |
|
|
|
T |
T |
Description
T :the contribution of MK to CPPS is high
S :the contribution of MK to CPPS is moderate
R :contribution of MK to CPPS is low