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Table 5 Quantitative results from rounds 2 and 3 of the Delphi study

From: Authentic STEM education through modelling: an international Delphi study

n2

Cat.

n3

Statement text

\(\mu\)2

\(\sigma\)2

Mo2

Md2

\(\mu\)3

\(\sigma\)3

Mo3

Md3

1

A

 

STEM is a more efficient and logical way of organising and using educational resources than the separate disciplines science, technology, engineering, and mathematics

3.111

1.333

4

3

    

2

A

 

There is a risk of lower quality teacher expertise when organised as STEM education rather than as traditionally separate subjects

3.778

1.254

4

4

    

3

A

 

STEM education is best organised around the design process as traditionally practised in technology and engineering education

3.623

1.575

5

4

    

4

A

4

It is important to maintain the integrity of the STEM root disciplines

4.111

1.012

5

4

3.888

1.250

5

4

5

A

5

Specialised teacher expertise and knowledge dimensions are required to teach STEM

4.230

0.908

5

4

4.259

1.095

5

5

6

A

9

STEM disciplines should be taught collaboratively and include multiple perspectives

4.038

0.999

5

4

4.185

0.735

4

4

7

A

13

There is a lack of an overarching vision for implementing integrated STEM curricula at all levels of education

3.888

0.891

4

4

4.153

0.924

5

4

8

B

 

STEM teaching is most meaningful when mathematics is integrated in technology, engineering, and science

3.346

1.294

4

4

    

9

B

2

STEM education supports learning across traditional subject borders through authentic problem solving

4.296

0.823

4

4

4.333

0.919

5

5

10

B

 

There is a risk in STEM integration for a single discipline(s) to dominate

3.852

1.357

4

4

    

11

B

 

Implementing STEM as an educational strategy requires standardised curricula and teaching practices

3.185

1.245

2

3

    

12

B

6

Integrated STEM learning requires different assessment strategies than in the separate disciplines

3.925

0.957

4

4

4.000

1.109

5

4

13

C

10

Discerning between models and reality, and different types of models, is a major obstacle for STEM learning

3.074

0.828

4

3

3.444

1.086

4

4

14

C

14

Modelling and model use are important prerequisite skills in science, engineering, and technology, and should therefore serve as the foundation of STEM teaching

3.814

0.921

4

4

3.888

0.891

3

4

15

C

3

Modelling activities are indispensable for cross-disciplinary learning and the practice of general skills in STEM education

3.851

0.988

4

4

4.000

1.000

5

4

16

C

7

Modelling is central to engineering design and therefore essential to STEM education

3.925

0.997

4

4

3.888

1.120

5

4

17

C

11

Modelling is central to scientific practices and therefore essential to STEM education

3.962

0.939

4

4

3.925

0.997

4

4

18

C

15

Modelling is an important application of mathematics and therefore essential to STEM education

3.814

0.921

4

4

3.576

1.026

4

4

19

D

1

Integrated STEM education requires authentic, real-world problems that support innovative and critical thinking

4.481

0.700

5

5

4.222

0.847

5

4

20

D

8

Modelling is indispensable for achieving real-world relevance in STEM education

4.000

0.894

4

4

4.000

0.877

4

4

21

D

12

Assessing and evaluating STEM education activities require real-world validation and external expert feedback

3.296

0.912

3

3

3.111

1.050

3

3

22

E

 

Real-world STEM education scenarios are technology and engineering based

3.222

1.187

4

3

    

23

E

 

Integrated STEM education provides opportunities to include real-life solutions and problem solving that are not otherwise possible

3.778

1.050

4

4

    

24

E

16

Successful STEM education needs to be authentic

4.148

0.818

4

4

4.192

0.693

4

4

  1. The presented order of the round 2 and 3 statements is listed in the n2 and n3 columns, respectively