STEM: Progression from GCSE to A Level Andrew Powell (Schools Analysis and Research Division) and Aileen Clement (Curriculum Unit) Presentation at DCSF.

Slides:



Advertisements
Similar presentations
GCSE mathematics linked pair pilot qualifications presentation November 2010.
Advertisements

Opportunity, excellence … and then some! implementation: an LSC view Gareth Griffiths Provision and Attainment Director.
Strategy managers / Curriculum managers network meeting 24 th March 2009.
Train to teach with Hull Citywide Quality training for the teachers of tomorrow Tel:- Tel:
March 3 rd All change…… New Modular approach to GCSE in many subjects New Syllabus for many subjects Controlled Assessment replacing Coursework.
Mathematics matters – the international perspective December 2013 Lorna Bertrand Head of International Evidence & Partnerships
26 March 2004 ICT at KS 4 Defining Future Support at KS4 Schools Consultation Finstall Centre 26 th February 2004.
Science, Technology, Engineering and Maths Education – The STEM Programme A Briefing for HoDoMS Jenny Baker STEM Programme Leader.
Developing people, improving young lives Your child, your schools, our future: building a 21st century schools system Diocese of Blackburn: succession.
Specialist leaders of education Briefing session for potential applicants 2013.
Specialist leaders of education Briefing session for potential applicants - Cohort 4 SLEs Application Window 2 – 23 October 2013.
Teesdale School and Sixth Form Centre Options Mr Maguire Co-Principal (Curriculum)
Government policy and attitude towards languages
Sue Rogers Director of Education KGA Presentation GCSE and Post 16 plus Closing the Gap.
Engage Enable Empower Thornleigh Salesian College - A Sports College.
Progression at Pupil, School and National Levels Workshop 14 DCSF Conference: The Use of Evidence in Policy Development and Delivery 9th February 2010.
Training and development agency for schools (TDA) Alison Atkinson and Liz Francis.
Developing the Foundation Learning Tier in Bradford Approximately 30% of young people have not achieved a level 2 qualification by age 19 There are presently.
Destinations What do you aim to achieve through the publication of destination measures? We have made it very clear that we want to put more information.
The Study Programme Guide for ITE students The Study Programme Guide for ITE students “The aim of Study Programmes is to maximise the potential.
EDUCATION AND YOUTH CATHERINE KNIVETT PROJECTS OFFICER – EDUCATION AND YOUTH TEAM
University of Warwick 8 th July Aims of the day To build on the success of the GCSE Maths Enhancement Programme To inform about the latest news.
Overview of Initial Teacher Training (ITT) arrangements in the UK Alice Hansen Children Count Ltd.
Derbyshire County Council Children and Younger Adults Department Secondary Update Autumn
Secondary School Strategy Managers November 26 th & 29 th 2007.
The Society Health and Development Diploma Tuesday 5 th October Care Ambassador Celebration Event Pam Abbott.
Options Phoenix School 2015.
Margaret Brown (Royal Society Education Committee) Ian Jones (Vision Project Committee)
DEVELOPING SECONDARY STRATEGY. 2 Staffordshire Context: County Council Mission Statement To make Staffordshire “A great place to live, work, visit and.
Sarah Rivers Head Teacher of The Virtual School for Looked After Children “Ensure all Looked after Children receive a good education”
TAUNTON’S COLLEGE CURRICULUM 2000 Briefing for Higher Education on changes to the post-16 curriculum in England, Wales and N. Ireland Jenny Fitton Principal,
SPORT AND ACTIVE LEISURE BUCS CONFERENCE National Skills Academy & SkillsActive.
14–19 Team Teesside University Supporting Progression Conference Changes in Qualifications and Study Programmes John Thompson Principal Adviser
1 “So who wants to lead a mathematics department?” Developing Future Secondary Subject Leaders for Mathematics – Collaborative Action Research Project.
GCSE mathematics pilot qualifications for 2010 September 2009.
Presentation to Senior Managers and Governors. 2 A context for change: preparation for society Young people need to develop their personal skills and.
Engaging with STEM careers What do we know? What works?
14 – 24 Learning and Skills Strategy (24) KCC / YPLA Strategy & Funding Briefing 14 – 24 Learning and Skills Strategy Delivering Bold Steps A new.
Rationale for the changes Proposals for change were consulted on through ‘Raising expectations: Enabling the system to deliver’ White Paper published in.
IoP Physics Network London Coordinator Peter Campbell MInstP, FInstP National Physical Laboratory 3 July 2006.
GCSE and A level reform Phil Carr and Laura Dougan Reform Managers, Ofqual.
© Crown copyright Secondary National Strategy Science © Crown copyright 2005 Crown copyright statement The content of this presentation may be reproduced.
Subject Leader Development Meeting November 2011.
YEAR 10 GUIDANCE EVENING Progress 8 The Government have introduced a new value-added performance measure which will replace 5+ A*-C inc Maths/English.
Head of Departments of Mathematics Conference 7 April Boosting the contribution of Mathematics – a Government perspective John Neilson, Director Research.
Supporting the teaching and uptake of Science, Technology, Engineering and Mathematics (STEM). How can engineers contribute to this, working with the National.
NAIGS ANNUAL CONFERENCE Ian Richardson HMI Specialist Adviser for Science Date 5 July 2007.
14 – 16 Curriculum Seminar The impact of recent DfE changes on curriculum planning and outcomes for schools.
Careers Guidance: Roles and responsibilities. What is Careers Guidance????
Slide 1 © Crown copyright 2009 The new curriculum, from policy to practice – taking stock and planning ahead.
1 Apprenticeships are good for business and are the strongest vocational learning brand. The Apprenticeships programme is : The main state-funded offer.
The Coseley School A Co-operative Trust Closing the Gap Strategies – 2015/16 Believe, Achieve, Excel Closing the Gap Strategies – 2015/16 Believe, Achieve,
1 Hartlepool Education Commission Conference 17 September 2014.
YEAR 9 OPTIONS INFORMATION EVENING 2nd December 2015
14-19 Reform – Update and Progress Presentation 5: Dominic Herrington- DCSF.
Teaching School Alliance 22 September Aims of the day Understand changes to accountability measures and how these affect science. Contribute to.
ESERO-UK Using space to enhance and support Science, Technology, Engineering and Mathematics (STEM) teaching and learning in the UK ESERO-UK Teacher Conference.
IMPROVING SCHOOLS IN SCOTLAND: AN OECD PERSPECTIVE (REVIEW OF CURRICULUM FOR EXCELLENCE) OECD Review Team Edinburgh, 14 Dec 2015.
PLYMOUTH STEM STRATEGY DRAFT Vision To unify and monitor the positive momentum in STEM to ensure its leadership across Plymouth is aligned to.
A case study. Content School context Challenges Outcomes Curriculum pathways What works in our context Process Ofsted & progression to HE – a view.
Key Stage Results 2004 South Tyneside MBC. Key Stages  Compulsory education is divided into four key stages in England: Key Stage 15-7 year olds Key.
© Crown copyright 2008 The New Secondary Curriculum Subject Leader Development Meeting Spring 2008.
© Crown copyright 2006 July 2007 Devon Subject leader development meeting.
© Crown copyright 2007 Strategic view of the changing picture of science.
NYCC Scrutiny Committee Strategy “Putting the Learner First” Planning for Future Delivery.
Engineering Specialist Diploma Steve Gray Chief Executive, Training 2000.
Secondary Initial Teacher Education: routes into teaching
Training and Development Agency for Schools (TDA)
Priority areas Teaching School & College Ethos Curriculum Assessment
Presentation transcript:

STEM: Progression from GCSE to A Level Andrew Powell (Schools Analysis and Research Division) and Aileen Clement (Curriculum Unit) Presentation at DCSF Conference: The Use of Evidence in Policy Development and Delivery, 9 February 2010

What is the STEM agenda?  The future economic success of the UK is dependent upon a good supply of skilled scientists and engineers.  Publication of Science & Innovation Investment Framework (SIIF) 2004 – 2014 (HMT, DTI & DfES) in July 2004 called for a step change in: –Achievement in science at Key Stage 4 (14 – 16 years) –Increase in post-16 progression –Proportion of students pursuing R&D careers –Proportion of BME and women in Higher Education

Science and maths A level entries between 1996 and 2006

Focus on the 5 – 19 STEM Agenda…  The Government’s ambition is to create an education and training environment that delivers the best in science and maths teaching and learning at every stage.  In March 2006 the Government published the Science and Innovation Investment Framework : Next Steps which announced ambitions to increase: –The number of pupils getting level 6+ at Key Stage 3 (11 – 14 year olds); –The number of pupils achieving A*-B and A*-C grades in two science GCSEs; –A level physics, chemistry and mathematics entries whilst maintaining A level biology entries; and –The recruitment, retraining and retention of physics, chemistry and mathematics specialist teachers.  Responsibility for the STEM agenda is shared between the Department for Children, Schools and Families (DCSF) and the Department of Business Innovation and Skills (BIS). The DCSF leads on the 5 – 19 schools remit whilst BIS is responsible for the STEM agenda in further and higher education.

What are our key priorities?  Increasing post-16 take up of science and maths at A level particularly take up of physics  Improving the quality of teaching and learning  Increasing workforce capacity and teacher supply  Improving the curriculum and qualifications  Improving young people’s attitudes towards science and maths

Triple Science GCSEs (Individual GCSEs in physics, chemistry and biology)

Why focus on triple science? Our analysis shows that pupils studying triple science GCSEs are more likely to progress to A level physics, chemistry and biology than those pupils entering other Key Stage 4 (14 – 16 year olds) science qualifications.

But Double Science* remains the route through which most pupils progress to A level science… *GCSE Core and Additional Science from 2006

 Over 90% of A level science pupils achieved level 6 or 7 in Key Stage 3 science  And over 90% of level 6+ Key Stage 3 pupils take either GCSE triple or double science KS3 science levels of A level science pupils KS4 science subjects taken by high attaining pupils High attaining Key Stage 3 pupils progress to A level Science

But those progressing via GCSE triple science are more likely to progress to A level Science High attaining pupils are more likely to progress to A level science if they enter GCSE triple science rather than double science: 45% of triple science pupils progress to A level science 19% of double science pupils progress to A level science

Developing the triple science target… Steady increase in triple science entries but only a small proportion of pupils entering In % of all pupils and 6% of maintained pupils entered triple science

Developing the triple science target…  Original target proposed that 14% of pupils in maintained schools should be studying triple science in  Increases in take up suggested a more ambitious target may be needed… but this would require more level 6 pupils to take triple science This increase will need an extra 50,000 pupils to be entering triple science in 2014 from 2006 levels Between 2002 and 2006 an extra 10,000 pupils entered triple science

Developing the triple science target…  In February 2009, the Prime Minister announced the Government’s commitment to increase access to triple science to ensure: -that all pupils in maintained schools have access to triple science GCSEs by 2014 and -that we will double the number of state school pupils taking the three science subjects to 17% by 2014 (based on 8.5% in 2008)

So what’s the impact…? The proportion of maintained schools offering triple science has more than doubled since data shows that over 40% of maintained schools in England offer access to triple science GCSEs, an increase of 9ppt on 2008.

 All maintained schools will offer access to triple science by  Impact is a likely increase in the number of pupils entering triple science and a likely increase in pupils entering A level sciences (physics, chemistry and biology) If the same proportion of triple science pupils enter A level science in 2014 this will mean that around 16,000 extra pupils in maintained schools will enter an A level science subject in 2014 – an increase of 30% from 2009 So what’s the impact…?

What are we doing to increase take up of triple science?  Introduction of a statutory entitlement to two science GCSEs to be enshrined by pupil guarantee in 21st Century Schools White Paper;  Over £6million investment between 2009 – 2011 to provide support to schools to offer access to triple science through the triple science support programme; and  Range of programmes to improve the recruitment, retention, and retraining of science teachers including increasing teacher training bursaries, accredited courses for science and maths teachers and golden hello for new teachers.

Increasing A level entries in Science and Maths

Prior attainment is the biggest factor associated with A level Maths take up

And for Physics take up, although Gender is also a significant factor

Developing the A Level Maths target…  Originally that 56,000 pupils will enter the subject in 2014…but the target was met by 2008!  A new target of 80,000 maths A level entries was agreed.

Large increase in A Level Maths entries between 2008 and 2009 An increase of 3,000 entries was required to remain on course for the revised 2014 target. In fact the increase was 7, ,056 pupils entered AS level maths in 2008 – hopefully a similar number will continue to A level in 2009

On track for Biology and Chemistry targets, but below trajectory for Physics The 2010 points show the number of pupils entering the AS level subjects in Hopefully a good proportion of these pupils will proceed to A level

Next Steps

Targets and trajectories Trends in A level entries for physics, chemistry, biology and maths including forecast until 2014

What are we doing to increase take up?  Increasing post-16 take up of science and maths A level - triple science support programme working with over 1000 schools; revised secondary curriculum; enrichment & enhancement activities e.g. over 500 STEM Clubs and promotion of practical work in partnership with SCORE and ASE.  Improving the quality of teaching and learning - national network of Science Learning Centres providing over 11,700 training days per annum; Project Enthuse bursaries; National Centre for Excellence in the Teaching of Mathematics (NCETM); National Strategies CPD to raise attainment and Stimulating Physics Network providing support across England.  Increasing workforce capacity and teacher supply – maths, physics and chemistry teacher training bursary (£9,000), golden hello (£5,000); Student Associate Scheme; accredited courses in science and maths for 400 teachers; STEM mentoring scheme (600 teachers by 2010) and extra £22m funding to TDA to support additional recruitment of priority subjects including science and maths teachers in response to increased demand.

What are we doing to increase take up?  Getting the curriculum and and qualifications right - statutory entitlement to two science GCSEs; non-statutory entitlement to study triple science for those who would benefit; new pupil guarantee will enshrine both these entitlements; development of the Diploma in Science; and revised maths and science GCSEs.  Improving young people’s attitudes towards science and maths – three year science and maths campaign to raise awareness of career opportunities; National Careers Coordinator; careers support and guidance for young people; Big Bang Fair promoting STEM careers and DCSF IAG strategy including a commitment that all secondary school pupils should have access to careers education and information to enable them to make informed choices.

Forward work programme  Monitor and review progress e.g. through GCSE and A level results.  Identify and analyse specific issues to get a detailed understanding of what is happening and why.  Current examples include analysing the possible reasons for the substantial increase in A level maths take up and monitoring take up of Level 2 science qualifications by pupil type.

Contact Us Andy Powell (SARD) Aileen Clement (Curriculum Unit)