Using fundamental physics to improve physics teaching and up-take at A-levels and at university
Submitting Institution
University of SussexUnit of Assessment
PhysicsSummary Impact Type
SocietalResearch Subject Area(s)
Physical Sciences: Atomic, Molecular, Nuclear, Particle and Plasma Physics, Other Physical Sciences
Summary of the impact
Over a four-year period, teachers and around 16,000 pupils from all over
the UK have benefited from engagement with Sussex physics research.
Outcomes include enhanced science teaching in schools, an increased
interest of school children in science and scientists' work, and a greater
ability of school children to understand and reflect on science, leading
to better-informed study choices. The UG physics population across the
South East has roughly doubled over the REF period (based on numbers at
the SEPnet partners), which is an important contribution to alleviating
the problem of a scarcity of STEM graduates.
Underpinning research
The Department has a strong focus on basic research. We communicate this
directly to school teachers and children through a variety of events. For
the purposes of this case study, we focus on three examples of research
that underpins our impact.
The Higgs boson and supersymmetry
The ATLAS experiment at CERN operates at the high-energy frontier of
physics. Since 2009, Sussex researchers Prof. Antonella de Santo and Dr
Fabrizio Salvatore have participated in the discovery and characterisation
of a new particle, consistent with the Standard Model Higgs boson [see
Section 3, R1]. They lead the ATLAS search for charginos and neutralinos,
particles predicted in supersymmetric models, through the tri-lepton
signature [R2], and the search for strongly interacting supersymmetric
particles in events with final-state taus [R3]. These examples were
covered in Master Classes and our Schools Lab, where it stimulated great
and sustained interest among students and teachers.
Physics of single photons
[The late] Prof. Wolfgang Lange and Dr Matthias Keller, together with
members of their research team, have performed world-leading research into
single photons and their interactions with ion-trap cavities since 2004. A
novel single-photon source was described in [R4]. These investigations may
be crucial for quantum technological applications. This research
underpinned various outreach talks, such as Dr Keller's contribution to a
teachers' CPD event, described below.
Herschel Space Observatory
Prof. Seb Oliver was Instrument Control Centre Scientist (1999-2009) and
a founding Associate Investigator on the ESA's Herschel SPIRE Instrument
[R5], designing and producing software for the instrument data-analysis
pipeline (1998-2013). He has been at Sussex since 2000.
References to the research
R1 ATLAS Collaboration (Aad G., et al.) (2012)
`Observation of a new particle in the search for the Standard Model Higgs
boson with the ATLAS detector at the LHC', Physics Letters B,
716(1): 1-29.
R2 ATLAS Collaboration (Aad G., et al.) [lead author Prof.
Antonella de Santo] (2012) `Search for supersymmetry in events with three
leptons and missing transverse momentum in sqrt(s) = 7 TeV pp collisions
with the ATLAS detector', Physical Review Letters, 108(26): 1-18.
R3 ATLAS Collaboration (Aad G., et al.) [lead author Dr
Fabrizio Salvatore] (2012) `Search for events with large missing
transverse momentum, jets, and at least two tau leptons in 7 TeV
proton-proton collision data with the ATLAS detector', Physics Letters
B, 714(2-5): 180-196.
R4 Takahashi, H., et al, (inc. Seymour-Smith, N., Keller, M, and
Lange, W.) (2013) `An integrated fiber trap for single-ion photonics', New
Journal of Physics, 15: 1-10.
R5 Griffin, M., et al. (inc. Oliver, S., Roseboom, I.,
Savage, R., Smith, A. and Ward, R.) (2010) `The Herschel-SPIRE instrument
and its in-flight performance', Astronomy and Astrophysics, 518: L3.
Outputs R1, R2, R5 best indicate the quality of the underpinning
research.
Outputs can be supplied by the University on request.
Details of the impact
As described in the impact template, a sustained central pillar of our
impact strategy is a comprehensive engagement programme for school
teachers and children at all levels of education (including primary,
secondary, A-level and adult education). Here we describe in detail how
and with what aims we engage school children and teachers directly with
our research [see Section 3, R1-R5] and how this impacts on both groups.
Physicists have a particular skill set that is in short supply in the UK
economy, as recognised by the government and by HEFCE. A survey by the IOP
and STFC [C1: p.14] of 800 undergraduate students found that the most
popular subject areas cited by first-year undergraduates were particles
(72 per cent), nuclear physics (63 per cent) and astronomy (53 per cent),
all within the domain of fundamental research as tackled by Sussex
researchers; hence our strategy to base our school engagement in these
areas [R1-R5]. The aim is both to improve teaching and to raise pupils'
interest directly. The means by which this is achieved is through talks at
schools, bringing pupils into the University, and through the continuing
professional development of teachers. These activities have grown
significantly over the current REF period, in conjunction with the
Department's membership of SEPnet, a HEFCE-supported consortium of physics
departments in South-East England. Since January 2009, we have employed a
dedicated PhD-educated outreach officer, astrophysicist Dr Darren Baskill.
We take feedback for all types of outreach activities, both quantitative
and qualitative. There is tangible evidence of enhanced engagement with
science through feedback from students and teachers [C2, C3] as well as
increased physics up-take in the region (see below).
Engaging pupils with science
Table 1. Pupils participating in Sussex events, broken down by stage
|
Primary |
Pre-GCSE |
GCSE |
A-level |
TOTAL |
01/08/09–31/07/10 |
370 |
788 |
1,029 |
340 |
2,527 |
01/08/10–31/07/11 |
402 |
972 |
1,744 |
933 |
4,051 |
01/08/11–31/07/12 |
964 |
1,292 |
1,819 |
949 |
5,024 |
01/08/12–31/07/13 |
901 |
1,770 |
1,807 |
499 |
4,977 |
All years |
2,637 |
4,822 |
6,399 |
2,721 |
16,579 |
Since we began collecting data in 2009, we have worked with 16,579
students at all levels, using a variety of methods to engage them with the
research. For example, in the academic year 2011/12 we worked with 5,024
students (see Table 1). They engaged with departmental research through
physics days, master classes, research talks, schools lab days and
lectures, both on and off the University campus.
We offer a wide selection of talks [C4] covering all our research areas,
and given by staff visiting schools and colleges. We also run regular
physics days on campus throughout the year, including master classes in
particle physics (an astronomy master class is currently under
development), both for GCSE and for A-level students. These include a
research talk, lab tours, live video links to Sussex PhD students at CERN
working on the ATLAS experiment, and other hands-on physics activities.
During 2011/12 alone, members of the Department talked about their
research to groups at or from about 100 schools [C5].
Schools lab days
During the school terms, we run a weekly Schools Lab day in our dedicated
Schools Lab facility, where GCSE, AS- and A2-level students visit us for a
full day of experimental physics. As part of the day, the students,
together with their teacher or teachers, attend a research talk where a
different researcher describes her/his work each week.
On a recent Schools Lab day (17 May 2013), a group of GCSE students from
Dorothy Stringer School in Brighton, together with their physics teacher,
Andy Latham, attended a talk about the principles of the Standard Model
and the story of the ATLAS discovery of the Higgs boson through H→ZZ and
H→03b303b3. The group, which consisted of eight female and two male
students, subsequently reflected on the topic during their classes. In a
snap poll at the event, 80 per cent stated their intention to continue to
A-level physics. Feedback from Mr Latham submitted in June [C6] states:
Not only was the lecture informative for the students but it sparked a
significant amount of debate about the standard model and its development
as a theory. From that discussion we are now looking into taking a group
of students next year to CERN and possibly holding master classes for KS4
students here in experimental and theoretical physics, such was the
interest from students. The number of female students was accidental but
incredibly encouraging. We at Stringer strive to increase the number of
female students taking up further education in Physics and it's days such
as this that make our job easier.
Enhancing science teaching in schools
We regularly host teacher-training events such as the recent `Physics
Update' course. Key decision-points for students are not only when they
apply for university, but also at the transition from GCSE to A-levels.
This is where the `bottleneck' of STEM undergraduates is formed. The
science teachers at GCSE and A-levels hence play a pivotal role in
addressing this societal challenge. We run continuing professional
development events for teachers several times a year, informing them about
the findings of our current research through talks by faculty members,
answering their questions, and giving them ideas, as well as materials,
that they can use in the classroom.
In March 2013, we organised and ran the Institute of Physics `Physics
Update' 3-day international conference, which was attended by 34 teachers
from across the UK. Follow-up demonstrated that this conference has had a
real impact in the classroom — for example, Claire Aspinal [C7] says that
at her school in Cheshire they have:
...discussed new developments with pupils e.g. Quantum computing to help
them understand where a career in physics could take them. [...] [We]
purchased the particle zoo to help pupils understand fundamentals
particles better. We are taking 30 AS/A level students to CERN in
December.
Justin Walker [C8] said
My department has decided to buy a [Geiger-Mueller Tube] like the one you
demonstrated [...] I used photos from the ion isolation qubit storage lab
in lessons on atomic theory and digital data transmission.
Each summer, we hold an evening event for local teachers, giving them the
opportunity to explore the Department, to see our latest offerings, and to
network with other teachers in the region. This event has an attendance of
approximately 45 teachers each year. During the 2011 event, Prof.
Wolfgange Lange gave tours of our AMO research laboratories, prompting the
following unsolicited feedback: `Faculty members such as Dr Lange [were]
engaging in making physics understandable and accessible for a relative
"newbie" (read "chemist"!) like me' — Jason O'Grady, Hove Park School,
July 2011 [C6].
The UK Herschel outreach project has also produced many educational
resources based, in particular, on the Herschel SPIRE instrument: http://herschel.cf.ac.uk/education.
These resources have been very well received by teachers and used to
improve their teaching in the classroom. Dr Keith Moseley (Head of
Physics, Monmouth School) says, `The standard approach to teaching the
electromagnetic spectrum is significantly enhanced by showing, through the
resources associated with the Herschel Telescope, the multi-wavelength
universe' [C9]. David Grace, (PGCE teacher), said `I have used [Herschel
educational resources] myself with Year 9 and Year 12 pupils in school...
I know that some of this year's students also used them in school on their
practices and found them appropriate and very useful' [C10]. In addition
Sophie Allan, who is the National Space Academy physics teacher engaged in
developing and teaching physics programmes for the Academy, as well as
running CPD, said
I have used the Herschel resources with both student and teacher
groups...The resources worked very well...They really brought
multiwavelength astronomy to life in a manner that was relevant to the
curriculum, time saving and gave a fantastic modern context to the topic.
I have also introduced many other teachers to the resources through CPD
sessions that I have been leading, and they have all been thoroughly
impressed!' [C11].
Evolution of UG student uptake in the region
Strong evidence of the impact on pupils comes from the rise in UG student
uptake not only at our institution, but across the South East (the main
reach of our, and our SEPnet partners', outreach activities). One teacher
commented "we have seen an increasing number of students choosing Physics
at Uni over the last few years, and we believe this is partly because of
the positive experience they have had of Uni physics in the schools' lab"
[C13]. Based on SEPnet data [C12], the overall SEPnet physics UG
population has roughly doubled from 967 in 2007 to 1,813 in 2012/13, and
the Sussex UG population from 131 to 229. This significantly outpaces the
national growth of 34 per cent over the same period and goes some way to
alleviate the societal problem of a lack of STEM graduates. The
correlation with the onset of SEPnet and our enhanced outreach activities
strongly suggests that it arises in part as a result of our research, as
communicated through our engagement. It is to be expected, and our
evidence from feedback [C6] confirms, that this very significant impact on
the `elite' subgroup of students who actually took up physics is
accompanied by a more widespread, better appreciation of modern physics
research, among both students and teachers.
SEPnet has had an extraordinary impact on recruitment to the Physics
Department at Sussex University: at a time when it's of national
importance to UK plc to increase STEM, and particularly physics
recruitment, their outreach activity (drawing on their strengths in
fundamental research) is changing the pattern of recruitment in the
region, with more than twice the national average increase in
undergraduate recruitment — Prof. Sir Peter Knight, FRS [C14].
Sources to corroborate the impact
C1 Institute of Physics (2007) Particle Physics — It Matters.
London: Institute of Physics in partnership with the Science and
Technology Facilities Council. Available for consultation.
C2 Feedback from Science Teacher, Hove Park School, Brighton
available in dept records.
C3 Feedback from Science Teacher, Hove Park School, Brighton
available in dept records.
C4 Listed on the Department's outreach page: www.sussex.ac.uk/physics/outreach
C5 Local records at the Department, kept by Outreach Officer.
Feedback collected by the Institute of Physics.
C6 Local records at the Department.
C7 Feedback from Science Teacher, The King's School in
Macclesfield.
C8 Feedback from The John Lyon School, Middle Road, Harrow on the
Hill, Middlesex HA2 0HN.
C9 Email from Head of Physics, Monmouth School, Almshouse Street,
Monmouth NP25 3XP.
C10 Email from PGCE Physics Tutor, School of Education and
Lifelong Learning, Aberystwyth University, Penbryn 5, Penglais Campus,
Aberystwyth, Ceredigion SY23 3UX.
C11 Email from National Space Academy Physics Teacher, National
Space Centre, Leicester.
C12 Based on data from SEPnet annual report 2011-12, Available for
audit.
C13 Email from Curriculum Leader for Science & Professional
Tutor, Sackville School, Lewes Road, East Grinstead, West Sussex, RH19
3TY.
C14 Email from Professor Sir Peter Knight, Senior Research
Investigator in the Physics Department at Imperial College and Senior
Fellow in Residence at the Kavli Royal Society International Centre at
Chicheley Hall. He retired in September 2010 as Deputy Rector (Research)
at Imperial College. He was President of the Institute of Physics from
2011-2013.