Inquiry-based learning environments in Physics


COURSE OUTLINE

  1. GENERAL
SCHOOL School of Education
DEPARTMENT Department of Primary Level Education
LEVEL OF STUDIES Level 6
COURSE CODE 6Ε36 SEMESTER 6th
COURSE TITLE Inquiry-based learning environments in Physics
TEACHINGACTIVITIES
If theECTSCreditsaredistributedin distinct partsofthecoursee.g. lectures, labsetc. IftheECTSCreditsareawardedto the wholecourse, thenplease indicate the teaching hours per week and the corresponding ECTS Credits.
TEACHINGHOURSPERWEEK ECTSCREDITS
3 5
 
 
Please, addlinesifnecessary.Teaching methods and organization of the course are described in section 4.
COURSETYPE

Background, GeneralKnowledge, Scientific Area, Skill Development

Scientific Area
PREREQUISITES:

 

1Y6 Concepts of Physics in Education
TEACHING & EXAMINATION LANGUAGE: Greek
COURSE OFFERED TO ERASMUSSTUDENTS: No
COURSE URL: https://eclass.duth.gr/courses/429367/
  1. LEARNING OUTCOMES
Learning Outcomes
Pleasedescribethelearningoutcomesofthecourse: Knowledge, skills and abilitiesacquiredafterthesuccessfulcompletionofthecourse.
The main goal of the course is to familiarize students with the range of inquiry-based learning environments in Physics, which ranges from structured and guided to completely open, both inside and outside school (formal and non-formal education). Research and inquiry practices are considered an important element of Teacher Content Pedagogical Knowledge. In this sense, it is important for tomorrow’s teacher, in addition to positive views and attitudes towards inquiry practices, to be able to integrate such practices into his or her personal daily teaching practices.

Upon completion of the course students should:

• be able to plan teaching in the spectrum of inquiry (structured, guided, open inquiry), inside and outside school,

• select and / or create teaching materials (experimental activities, worksheets, materials and / or conceptual models, 3D objects, digital media, simulations, etc.) appropriate for the respective inquiry-based learning environments,

• be able to present orally and in writing the findings of contemporary research found in the literature on inquiry-based learning environments.

General Skills
Name the desirable general skills upon successful completion of the module
Search, analysis and synthesis of data and information,

ICT Use

Adaptation to new situations

Decision making

Autonomous work

Teamwork

Working in an international environment

Working in an interdisciplinary environment

Production of new research ideas

Project design and management

Equity and Inclusion

Respect for the natural environment

Sustainability

Demonstration of social, professional and moral responsibility and sensitivity to gender issues

Critical thinking

Promoting free, creative and inductive reasoning

Search, analysis and synthesis of data and information

ICT Use

Adaptation to new situations

Project design and management

Critical thinking

Promoting free, creative and inductive reasoning

  1. COURSE CONTENT
The course includes six thematic units, through which the development of the most important aspects of inquiry-based learning in Physics is attempted. More specifically, in the introductory thematic unit, the spectrum of inquiry is developed as a didactic and learning method (structured, guided, open) and the similarities and differences of the individual cases are discussed. The second section deals with the emphasis of the curricula, internationally, on non-formal education, especially in Science and Technology Centers, while the third thematic unit deals with the similarities and differences in the teaching of Physics, Technology and Engineering. The fourth thematic unit highlights the role of models and modeling, while the fifth thematic unit highlights the importance of the Control of Variables Strategy in the teaching and learning of Physics. Finally, the sixth thematic unit focuses on the emphasis of the curricula on scientific literacy and on the skill of reading and writing scientific texts while at the same time a study of modern research results in the Teaching of Physics.
  1. LEARNING & TEACHING METHODSEVALUATION
TEACHINGMETHOD
Face to face, Distance learning, etc.
Face to face, laboratory work
USEOF INFORMATION&COMMUNICATIONSTECHNOLOGY (ICT)
Use of ICT in Teaching, in Laboratory Education, in Communication with students
Use of ICT in Teaching, in Laboratory Education, in Communication with students
TEACHING ORGANIZATION

The ways and methods of teaching are described in detail.

Lectures, Seminars, Laboratory Exercise, Field Exercise, Bibliographicresearch& analysis, Tutoring, Internship (Placement), Clinical Exercise, Art Workshop, Interactive learning, Study visits, Study / creation, project, creation, project. Etc.

 

The supervised and unsupervised workload per activity is indicated here, so that total workload per semester complies to ECTS standards.

Activity Workload/semester
Lectures 18
Bibliographic research & analysis 10
ICT use 20
Project preparation 32
Personal work 45
Total 125
Student Evaluation

Description of the evaluation process

 

Assessment Language, Assessment Methods, Formative or Concluding, Multiple Choice Test, Short Answer Questions, Essay Development Questions, Problem Solving, Written Assignment, Essay / Report, Oral Exam, Presentation in audience, Laboratory Report,Clinical examination of a patient,Artistic interpretation, Other/Others

 

Please indicate all relevant information about the course assessment and how students are informed 

Formative evaluation

Language: Greek

 

Students’ assessment:

Practical work during the semester: 66%

Final task assignment and oral exams: 34%

 

 

  1. SUGGESTED BIBLIOGRAPHY
Suggested bibliography:

• Koumaras, P. (2017). Teaching Physics Tomorrow. Athens: GUTENBERG Publications.

• Kariotoglou, P. (2006). Pedagogical Knowledge of Science Content. Tsachouridis Publications, Thessaloniki

 

Additional suggested bibliography

• Koliopoulos, D. (2004). Topics in Science Teaching. Border,

Athena.

• Chalkia, K. (2011) Teaching natural sciences, Patakis Publications, Athens

 

Related Scientific Journals

• International Journal of Science Education

• International Journal of Science and Mathematics Education

• International Journal of Environmental and Science Education

• Journal of Research in Science Teaching

• Journal of Science Teacher Education

• Science Education

• Research in Science Education

• Journal of Science Education and Technology

• Research in Science and Technological Education

 

 

 

 

 

 

ANNEX OF THE COURSE OUTLINE

 

Alternative ways of examining a course in emergency situations

 

Teacher (full name): Anastasios Zoupidis
Contact details: azoupidis@eled.duth.gr
Supervisors: No
Evaluation methods: Oral examination with distance learning methods
Implementation Instructions: The examination in the course will take place in groups of 3-4 people on the day of the examination of the course according to the examination program.

The examination will be performed through MS TEAMS. The link will be sent to students via eclass exclusively to the institutional accounts of those who have registered for the course and have learned the terms of distance education.

Students will have to log in to the examination room through their institutional account, otherwise they will not be able to participate. They will also take part in the examination with a camera which they will have open during the examination. Before the start of the exam, students will show their identity to the camera, so that they can be identified.

Each student should answer 4 questions. Each of the questions is scored with 2.5.