I. SUBJECT DESCRIPTION
II. SUBJECT REQUIREMENTS
III. COURSE CURRICULUM
SUBJECT DATA
OBJECTIVES AND LEARNING OUTCOMES
TESTING AND ASSESSMENT OF LEARNING PERFORMANCE
THEMATIC UNITS AND FURTHER DETAILS
Subject name
Environmental education and sustainability
ID (subject code)
BMEGT42A700
Type of subject
contact unit
Course types and lessons
Type
Lessons
Lecture
0
Practice
1
Laboratory
0
Type of assessment
mid-term grade
Number of credits
4
Subject Coordinator
Name
Dr. Buzási Attila
Position
associate professor
Contact details
buzasi.attila@gtk.bme.hu
Educational organisational unit for the subject
Department of Environmental Economics and Sustainability
Subject website
Language of the subject
magyar - HU
Curricular role of the subject, recommended number of terms

Programme: Vocational Technical Instructor

Subject Role: Compulsory

Recommended semester: 3

Direct prerequisites
Strong
None
Weak
None
Parallel
None
Exclusion
None
Validity of the Subject Description
Approved by the Faculty Board of Faculty of Economic and Social Sciences, Decree No: 580439/11/2024 registration number. Valid from: 29.05.2024.

Objectives

To familiarise students with the importance of sustainability education and the concept of sustainability. To provide a deeper understanding of current environmental challenges through different sectors. To shape students' attitudes and improve their systematic thinking. To introduce students to pedagogical methods essential for education related to sustainable development. Identifying sustainability skills and competences.

Academic results

Knowledge
  1. The student knows the key concepts of sustainability.
  2. The student knows the key pedagogical methodologies of education for sustainable development.
  3. The student knows the key competences for sustainability.
  4. The student knows that sustainability problems need to be addressed by combining different disciplines to initiate systemic change.
  5. The student is familiar with national and international good practices of education for sustainable development.
Skills
  1. The student is able to articulate the values, principles and goals of sustainability.
  2. The student is able to demonstrate sustainability as a holistic concept.
  3. The student is able to develop a systemic approach across different sectors and disciplines.
  4. The student is able to discover cause-and-effect relationships through specific environmental problems.
  5. The student is able to design and deliver a project methodology on sustainability.
  6. The student is able to develop educational material that encourages appropriate action on a sustainability related issue.
  7. The student is able to present sustainability related solutions and ideas in a convincing way.
Attitude
  1. The student collaborates with the lecturer and fellow students on acquiring knowledge.
  2. The student broadens their knowledge through continuous learning.
  3. The student is open to the use of IT tools and solutions.
  4. The student is open to the use of different innovative pedagogical methods.
  5. The student strives to understand complex systems.
Independence and responsibility
  1. The student is able to independently plan the practical implementation of educational methodologies related to sustainable development.
  2. The student is open for well-founded critical comments.
  3. The student collaborates with fellow students as part of a team to solve problems.
  4. The student is able to apply systematic thinking.

Teaching methodology

Presenting theoretical background through lectures and problem statements, communicate in writing and orally. Presenting and putting into practice practical methodologies of education for sustainable development.

Materials supporting learning

  • Zöld Föld tankönyv. Kék Bolygó Alapítvány, Alapértékek Nonprofit Kft.Oktatási Hiva-tal, 2021.
  • Fenntartható fejlődési célok oktatása. UNESCO, OFI, Eszterházy Károly Egyetem, 2017.
  • Barna Orsolya, Soós Viktória: Kreatívan a klímaváltozásról, 2021.
  • GreenComp: the European sustainability competence framework, JRC. 2022.
  • Marjainé Dr. Szerényi Zsuzsanna (szerk.): A természetvédelemben alkalmazható köz-gazdasági értékelési módszerek. Környezetvédelmi és Vízügyi Minisztérium, Budapest, 2005

General Rules

The evaluation of the learning outcomes stated in 2.2 is happening as follows: 1. summative assessment of the competencies acquired during the semester (1 mid-term exam); 2. as well as the description of the practical methods learned during the semester within the framework of the chosen topic. Evaluation of the preparation with continuous feedback from the instructor, and presentation of the finished result (presentation and submission of 4 tasks to be completed in groups, which help the learning of the course material).

Performance assessment methods

Detailed description of the performance evaluations carried out during the study period: Summative assessment: a complex, written evaluation method of the subject's knowledge and ability-type competency elements in the form of a mid-term exam. The mid-term exam focuses on the assessment of the acquired knowledge and its application, thus focusing on problem recognition and solution. The course material on which the evaluation is based is determined by the lecturer of the subject. 2. Formative assessment: a complex evaluation method of the subject's knowledge, ability, attitude, and independence and responsibility competence elements, which takes the form of a group-prepared practical task. The instructor determines the content, requirements, submission deadline and evaluation method of the practical assignment.

Percentage of performance assessments, conducted during the study period, within the rating

  • summative assessment: 50
  • formative assessment: 50
  • total: 100

Percentage of exam elements within the rating

Conditions for obtaining a signature, validity of the signature

-

Issuing grades

%
Excellent 91-100
Very good 87-90
Good 75-86
Satisfactory 62-74
Pass 50-61
Fail 0-49

Retake and late completion

1) Pursuant to the current CoS, each summative assessment can be retaken, repeated or completed late. 2) The summative assessments can be retaken, repeated or completed late for the first time during the late completion period free of charge. In the event of a retake, the new result always overwrites the old one. 3) If the student is unable to obtain a grade other than 'Fail' even with the retake, repeat and late completion possibilities according to point 1), they may make a second attempt to successfully complete the course after paying the fee specified in the regulations. 4) Pursuant to the current CoS, in the case of formative assessments (unless this is expressly excluded in the subject requirement), if the assignment was submitted on time, it is possible to repeat or retake it before the end of the late completion period, if the original task has already been accepted by the instructor. 5) The formative assessment cannot be submitted late.

Coursework required for the completion of the subject

Nature of work Number of sessions per term
participating in contact classes 16
preparation for contact classes 24
preparation for the summative assessment 50
preparation of the practical assignment 30
total 120

Approval and validity of subject requirements

Consulted with the Faculty Student Representative Committee, approved by the Vice Dean for Education, valid from: 06.05.2024.

Topics covered during the term

In order to achieve the learning outcomes set out at point 2.2, the subject consists of the following thematic blocks. In the syllabi of the courses announced in each semester, these topics are scheduled according to the calendar and other conditions.

Lecture topics
1. Introduction. Understanding sustainability. The sustainable development goals. Getting to know today's environmental challenges and incorporating them into a system. Main elements of sustainability education, good examples, project methodology. System approach, interpretation of system innovation, pedagogical exercises to illustrate systems.
2. Learning about environmental assessment systems. Interpretation of the deeper connections of specific problems of different sectors. Getting to know sustainability competencies and their associated knowledge, skills and behavior in multiple approaches. Getting to know challenge-based sustainability education and trying it out in practice. Interpretation of complex sustainability problems from several aspects.
3. The role of innovation in sustainability efforts. Interpretation, history, typification of innovation. The complexity of sustainability. In the case of complex sustainability problems, identifying the stakeholders and planning cooperation. Creating a sustainability action plan.
4. Creating a sustainable future vision, outlining alternative future visions. Presentation of sustainability solutions.

Additional lecturers

Name Position Contact details
Barna Orsolya PhD hallgató / PhD student barna.orsolya@gtk.bme.hu
Bozsoki Fruzsina PhD hallgató / PhD student bozsoki.fruzsina@gtk.bme.hu

Approval and validity of subject requirements