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Key Performance Indicators for Mathematics education. What would be your three KPIs for the UK Mathematics education system?For example, a KPI might be the percentage of students achieving level 6 in the Key Stage 3 mathematics tests'.. PISA 2006. Programme for International Student Assessmen
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1. The STEM Programme
John Holman
National STEM Director, DCSF/ DIUS
National Science Learning Centre
University of York
2. Key Performance Indicators for Mathematics education
What would be your three KPIs for the UK Mathematics education system?
For example, a KPI might be ‘the percentage of students achieving level 6 in the Key Stage 3 mathematics tests’.
3. PISA 2006 Programme for International Student Assessment
30 countries from the Organisation for Economic Co-operation and Development (OECD)
27 partner countries
2006 study, results published December 2007
4. PISA 2006 Mathematics
UK performance is at the OECD average
18 countries (including Japan) performed significantly higher than England
12 countries (including France and Germany) are not significantly different from England
26 countries (including USA) performed significantly worse than England
5. PISA 2006 Science
UK performance is significantly above the OECD average
7 countries (including Japan) performed significantly higher than England
13 countries (including Germany) are not significantly different from England
36 countries (including France and USA) performed significantly worse than England
6. PISA 2006Science is valuable for mepercentage of students agreeing with positive statements about the personal value of science
7. PISA 2006 I would like a career in sciencepercentage of students agreeing with statements about the value of a career in science
8. Horizontal axis: Human Development IndexVertical axis: Scores on questions designed to measure positive attitudes towards studying science
9. What made you study Chemistry?
10. How important was each of these in influencing you?(1 = not important; 5 = very important)
Course and textbooks
Quality of school labs
Your chemistry teacher
Your parents
The job prospects
What your friends were choosing
Your exam grades at GCSE
Your exam grades at AS Level Average, 2007
3.46
3.33
4.18
2.28
4.18
1.36
3.35
3.78
11. What the government is doing already – through the 10 year Science and Innovation Investment Framework Curriculum and assessment
Introducing a secondary school science and mathematics curriculum to meet the needs of future specialists and non-specialists
Teachers
Stepping up the recruitment and training of specialist teachers, especially in physics, chemistry and mathematics
Providing better professional development for science and mathematics teachers
Partnerships
Through the STEM Programme, developing a framework to enable partners in government, industry, societies and foundations to work more effectively together to support STEM teaching
12. What the government is doing already – through the 10 year Science and Innovation Investment Framework Curriculum and assessment
Introducing a secondary school science and mathematics curriculum to meet the needs of future specialists and non-specialists – including ‘GCSE double maths’ and a more flexible Key Stage 3
Teachers
Stepping up the recruitment and training of specialist teachers, especially in physics, chemistry and mathematics
Providing better professional development for science and mathematics teachers
Partnerships
Through the STEM Programme, developing a framework to enable partners in government, industry, societies and foundations to work more effectively together to support STEM teaching
13. How the world’s best-performing school systems come out on top McKinsey, September 2007
14. How the world’s best-performing school systems come out on top McKinsey, September 2007 Three things matter most
Getting the right people to become teachers
Developing them into effective instructors
Ensuring the system is able to deliver the best possible instruction for every child
15. How the world’s best-performing school systems come out on top McKinsey, September 2007 ‘Above all, the top performing systems demonstrate that the quality of an education system depends ultimately on the quality of its teachers’
16. What the government is doing already – through the 10 year Science and Innovation Investment Framework Curriculum and assessment
Introducing a secondary school science and mathematics curriculum to meet the needs of future specialists and non-specialists – including access to ‘GCSE double maths’ and a more flexible Key Stage 3
Teachers
Stepping up the recruitment and training of specialist teachers, especially in physics, chemistry and mathematics
Providing better professional development for science and mathematics teachers
Partnerships
Through the STEM Programme, developing a framework to enable partners in government, industry, societies and foundations to work more effectively together to support STEM teaching
17. What the government is doing already – through the 10 year Science and Innovation Investment Framework Curriculum and assessment
Introducing a secondary school science and mathematics curriculum to meet the needs of future specialists and non-specialists – including access to ‘GCSE double maths’ and a more flexible Key Stage 3
Teachers
Stepping up the recruitment and training of specialist teachers, especially in physics, chemistry and mathematics
Providing better professional development for science and mathematics teachers
Partnerships
Through the STEM Programme, developing a framework to enable partners in government, industry, societies and foundations to work more effectively together to support STEM teaching
18. The STEM Programme ReportDfES and DTI Published October 2006
The result of 2 years’ work by Sir Alan Wilson and colleagues to map all the publicly-funded STEM initiatives
Recommendations for:
- better co-ordination of STEM activity at local, regional and national level
- better co-ordination of public and non-public initiatives
- better targeting spending of government spending
To be implemented by the National STEM Director
19. STEM Programme Report made commitments for… Better linkage between science, technology, engineering and mathematics.
Better co-ordination of STEM activity at local, regional and national level.
Better co-ordination of public and non-public initiatives.
Better targeting of Government spending.
20. Many stakeholders
21. The Children’s Plan 5.57 As part of our work to improve the effectiveness of support for STEM we are developing new arrangements to bring together the very large number of STEM support schemes into a coherent framework, aligned to national priorities and to improve the signposting of support available for schools and colleges.
22. The concept: Where we are moving from
23. The Concept: 200 or so initiatives sorted into 10 Action Programmes (‘schemes’)
24. Recruitment of Teachers and Lecturers: AP1
Continuing professional development of teachers and lecturers: AP2, AP3, AP4
Enhancing and enriching the curriculum, both inside and outside the classroom, to motivate students towards STEM: AP5, AP6, AP7, AP8
Actions through the formal curriculum: AP9, AP10
Improving infrastructure and delivery mechanisms: AP11 Action Programmes
25.
Recruitment of Teachers and Lecturers
AP1 Improving the recruitment of teachers and lecturers in shortage subjects Action Programmes
26.
Continuing professional development of teachers and lecturers
AP2 Improving teaching and learning through CPD for mathematics teachers
AP3 Improving teaching and learning through CPD for science teachers
AP4 Improving teaching and learning by engaging teachers with engineering and technology
Action Programmes
27. Enhancing and enriching the curriculum, both inside and outside the classroom, to motivate students towards STEM:
AP5 Enhancing and enriching the science curriculum.
AP6 Enhancing and enriching the teaching of engineering and technology across the curriculum
AP7 Enhancing and enriching the teaching of mathematics.
AP8 Improving the quality of advice and guidance for students (and their teachers and parents) about STEM careers, to inform subject choice.
Action Programmes
28.
Actions through the formal curriculum
AP9 Widening access to the formal science and mathematics curriculum for all students, including access to triple science and second mathematics GCSE
AP10 Improving the quality of practical work in science. Action Programmes
29.
Improving infrastructure and delivery mechanisms
AP11 Programme to build capacity of the national, regional and local infrastructure.
Action Programmes
30. Example (1) AP2 Improving teaching and learning through CPD for mathematics teachers
Lead Organisation:
The National Centre for Excellence in the Teaching of Mathematics
31. Example (1) AP2 Improving teaching and learning through CPD for mathematics teachers
How it will work:
The National Centre for Excellence in the Teaching of Mathematics was set up to provide effective strategic leadership for mathematics-specific CPD and maintains interactive dialogue with key partners and stakeholders at national and regional levels, (including the National Strategies, QIA, TDA , LLUK, QCA, OFSTED, SSAT, local authorities and subject associations).
The NCETM has in place an Advisory Committee comprising these key stakeholders. NCETM will review the terms of reference of this committee to take on the specific role of co-ordinating the planning of mathematics CPD, which will be rolled through the NCETM’s infrastructure
32. Example (2) AP5 Enhancing and enriching the mathematics curriculum.
Proposed Lead Organisation:
The Advisory Committee for Mathematics Education (ACME)
33. Example (2) AP5 Enhancing and enriching the mathematics curriculum
How it is proposed to work:
A directory of Enhancement and Enrichment initiatives will be produced under the strategic leadership of ACME. ACME will take the lead on determining the criteria for including initiatives, and will develop an overview to enable gaps to be filled and duplication to be avoided. The directory will be disseminated to both schools/ colleges and funders.
34. A challenge
How can the many partners in schools, colleges, industry, foundations and academia work most effectively together to increase the popularity of STEM study?