Research in Technology Education - International Approaches

von: Marc J. de Vries, Stefan Fletcher, Stefan Kruse, Peter Labudde, Martin Lang, Ingelore Mammes, Charle

Waxmann Verlag GmbH, 2018

ISBN: 9783830988014 , 224 Seiten

Format: PDF

Kopierschutz: frei

Windows PC,Mac OSX Apple iPad, Android Tablet PC's

Preis: 30,99 EUR

Mehr zum Inhalt

Research in Technology Education - International Approaches


 

Cover

1

Imprint

4

Contents

5

Preface

7

The T and E in STEM: From promise to practice (Marc J. de Vries)

11

Introduction

11

Promises, promises …

11

The threats

13

The mysterious E

16

A possible way forward

17

References

19

How boys’ and girls’ technical interest differs: A research study (Victoria Adenstedt)

21

1. Introduction

21

Definition of ‘interest’

22

2. Interest by socialization

23

3. Career choices in science and technology

24

4. Technology education in schools

26

5. Research context

27

6. Sample and data collection

28

7. Research design

29

Pre-Test

30

Scale No. 1 Frequency And Duration Of Dealing With Technical Objects

30

Scale No. 2 Emotional Acceptance

31

Scale No. 3 Cognitive Interest

32

Scale No. 4 Knowledge

33

8. Statistical analysis and results

33

Frequency and popularity of favoured activities differ by gender

34

Frequency of dealing with technical objects differs by gender

35

Popularity of dealing with technical objects differs by gender

35

No difference in general interest to develop technology knowledge

36

Interest in technology differs by gender

36

No difference in interest in ICT by gender

36

No difference of technology knowledge by gender

37

9. Conclusion and discussion

37

References

39

Exploring energy related knowledge in technology and natural science education. Uncovering energy related understanding of students in the German federal state North Rhine-Westphalia at the end of lower secondary education (Johannes Deutsch)

45

1. Introduction

45

1.1 Energy Education: An Important part of civic literacy

45

1.2 Energy Related Knowledge in technology and science education and the life-world domain

47

2. Methodology

49

2.1 Uncovering Knowledge with Certainty Based Assessment

49

2.2 Development of the Test Instrument

50

2.3 Study Setting and Participants

52

2.4 Data Collection and Analysis

53

3. Findings and Discussions

53

3.1 Internal Reliabilities

53

3.2 Students’ understanding of practical-everyday energy knowledge

55

3.3 Students’ understanding of conceptual energy knowledge

56

4. Conclusions

57

5. Acknowledgements

58

Appendix A.

58

References

58

Problem Solving in Technology Education. Development of an engineering design task to investigate action-oriented problem-solving processes (Tatiana Esau)

61

1. Starting point and objective of the project

61

2. Design of the research project

62

3. Theoretical background

64

3.1 Problem and general problem solving

64

3.2 Engineering design problems

66

3.3 The engineering design process as a specific case of problem solving

67

4. Development of an engineering design problem for the main study

68

5. Testing and selecting a suitable engineering design problem

74

5.1 Testing of the developed problems

74

5.2 Selection of a suitable engineering design problem and conclusion

76

References

78

Empathiser, Systemiser or Balanced: Understanding pupils’ “Personality Types” and what this says about their enjoyment of school subjects (Katie Klavenes)

81

1. Introduction

81

2. A lack of women in STEM

81

2.1 Research Methodology

84

2.2 Research Findings & Discussion

87

3. Moving forward

93

References

95

Understanding Tech Socialisation and its Impact on Tech in the Classroom: An Empirical Pilot in Assessing Student Teachers’ Biography and Instructional Belief (Alexander Koch & Lena Wenger)

97

1. Introduction

97

2. Research questions

98

3. Theory

100

3.1 The Swiss teacher education and school system

100

3.2 Tech socialisation

101

3.3 The intention to act: The Rubicon model of action phases for tech instruction

103

3.4 Hypotheses

103

4. Method

104

4.1 Variable assessment and psychometric properties

104

4.2 Data acquisition, sample & data analysis

105

5. Results

105

6. Discussion

109

References

112

Is problem solving competence in handling everyday technical devices a two-dimensional construct? (Jennifer Stemmann)

115

1. Introduction

115

2. Theoretical Framework

116

3. Method

120

4. Results

124

5. Discussion

128

References

131

Trainees’ view on the different emphasis of topics in VET between dual partners in Germany. An empirical study on electronics technicians at the end of vocational training (Leo van Waveren)

135

1. Introduction and research questions

135

2. Data collection and methods

139

3. Results and discussion

140

4. Discussion

143

References

144

An activity theoretical research lens on inquiry-based learning (Charles Max)

147

1. Introduction

147

2. Inquiry-based learning in the 21st Century

149

3. Inquiry as activity

151

4. Modelling the activity

155

5. The appropriate unit of analysis (UoA)

158

6. Three Planes of Analysis

159

7. Partial lenses and methodologies

161

8. Epistemological considerations

163

9. To sum up

164

References

165

Development of a concept for promoting comprehensive technological education (Stefan Kruse)

169

1. Brief project description

169

2. Objectives and content topics

171

2.1 Traffic and drive engineering

172

2.2 Safety engineering

173

2.3 Production technology

174

2.4 Networked environment

175

3. Pedagogical justification of the materials

175

4. Results and findings from the author’s research on the project’s subject area

177

5. Methodological procedure and evaluation concept

178

6. Selected results of the first two stages of the evaluation

181

Preliminary results of the first stage of the evaluation

181

Results of the second stage of the evaluation

185

7. Project planning and milestones

189

8. Importance for professionals

190

9. Networking

191

References

191

Activity Orientation in Engineering Education (Benedikt Schwuchow)

195

1. Introduction

195

2. Concepts of Education

196

2.1 Problems as Origins of Learning

196

Problem-Based Learning in Engineering Education

197

2.2 Action-Orientated Learning

197

2.3 Constructive Alignment

198

3. Blended Learning

198

Designing Blended Learning

199

Guiding Principles of Creating Blended Learning

200

Didactic Layout of Blended Learning

200

4. Combining Learning Principles

201

Example: Learning About Computer Numerical Control

202

5. Outlining a Research Framework

203

6. Summary

204

References

204

Teachers’ Scaffolding in Problem Solving Tasks. Development of a Coding System for a Case Study in Technology Education in German Primary Schools (Julia Steinfeld)

207

1. Theoretical background

207

1.1 Aims of Technology Education in Primary Schools

207

1.2 Problem Solving as an Appropriate Approach in Technology Education

209

1.3 Scaffolding in Problem Solving Environments

210

2. Research Questions

212

3. Design

212

4. Coding System

213

5. Summary and Next Steps

217

References

217

List of Authors

221