Research-Based Resources for Teaching Mathematics to Engineers
Submitting Institution
Loughborough UniversityUnit of Assessment
EducationSummary Impact Type
SocietalResearch Subject Area(s)
Education: Curriculum and Pedagogy, Specialist Studies In Education
Summary of the impact
"Helping Engineers Learn Mathematics" (HELM) was a sector-wide
developmental research project originating at Loughborough University. It
impacted on:
a) Teacher awareness and understanding: in a climate of reluctant
engagement and poor performance when undergraduate engineering students
learn mathematics, the project raised awareness of research-based
pedagogic approaches.
b) Teaching and learning practice: new modes of teaching and
learning emerged (using HELM workbooks and CAA data banks) which were
enthusiastically adopted across the sector.
c) Engineering education policy: policy-makers could see the
value of acquiring HELM materials for staff and students to use, with or
without adaptation.
Underpinning research
During the 1960s, Loughborough University (LU) began to research the
teaching of mathematics to engineering students. By the mid-1990s, the
so-called `mathematics problem' had become a major issue: academic staff
had become increasingly concerned by the poor mathematical preparedness of
incoming engineering undergraduates. The Mathematics Education Centre
(MEC) was well placed to respond. Research from 1995 onwards elucidated
the nature of the `mathematics problem' and evaluated innovatory
approaches to tackle it, with publications documenting outcomes for
practice [e.g. 3.1, 3.2, 3.3, 3.4]. The MEC's Open Learning
Project (OLP) involving developmental practice, with on-going cycles of
design of tasks and approaches which were trialled and evaluated, was
informed by research and led to increasing knowledge in the
design/developmental research process.
The OLP led to new learning resources in mathematics for engineering
students: a significant outcome was the successful bid for a £250,000
HEFCE FDTL4 project known as HELM (Helping Engineers Learn Mathematics).
LU researchers initiated and wrote the funding application and led a
consortium of five universities (LU, Hull, Reading, Sunderland, UMIST).
HELM ran from 2002-5 with further funding (£25,000) for a transferability
extension in 2005-6 involving the additional universities of Leicester,
Newcastle, Nottingham, Oxford Brookes, Portsmouth and Salford.
Developmental research cycles continued under HELM, building on knowledge
of the developmental research process gained in OLP. Through a rigorous
developmental research programme, HELM transformed in quality, and
expanded in scale and scope, the original OLP resources. Fifty workbooks
and guides (each typically 50 pages) were created, and 6000 Computer-Aided
Assessment (CAA) questions were designed.
Alongside these developmental research cycles, HELM researched the
quality and fitness for purpose of the resources and their use, including
academic issues and delivery modes (methods included feedback from
students and staff through surveys and focus groups, reports from external
evaluators and a wide network of triallists throughout the UK).
Key findings included:
(a) Students vary in their preferred modes of study and appreciate
materials that suit their style [3.1, 3.2, 3.4]. As a result, HELM
supports study at various levels, workbooks contain space for working, and
questions incorporate hints.
(b) Case studies, based on engineering applications, were found to
motivate students [3.3]. As a result, HELM workbooks include case
studies and engineering examples throughout.
(c) Students value regular formative assessment, such as that provided by
CAA, and are willing to try formative tests repeatedly until understanding
has been developed [3.5]. HELM provides very extensive CAA
materials.
(d) Students display various categorisable strategies that are indicators
of correct or incorrect conceptions concerning statistical association,
which have important consequences in teaching statistical topics involving
independence and dependence [3.1].
(e) Few engineering students have studied mechanics before coming to
university, leading to problems in its teaching and learning that
HELM-style resources are able to address [3.6].
Key Researchers:
Les Mustoe (1969-2009 Senior Lecturer).
David Green (1973-2004, Reader in Mathematical & Statistical
Education).
Martin Harrison (1974-2010, Senior Lecturer, then Visiting Fellow).
Joseph Ward (1977- date, Senior Lecturer).
Tony Croft (1996-date, Professor of Mathematics Education).
Carol Robinson (2002-date, Senior Lecturer).
References to the research
Papers:
3.1. Batanero, C., Estepa, A., Godino, J.D. and Green, D.R. (1996)
Intuitive Strategies and Preconceptions about Association in Contingency
Tables. Journal for Research in Mathematics Education, 27,
151-169.
3.2. Armstrong P. K. and Croft, A. (1999). Identifying the
learning needs in mathematics of entrants to undergraduate engineering
programmes in an English university. European Journal of Engineering
Education, 24, 59-71. DOI: 10.1080/03043799908923538
3.3. Mustoe, L.R. and Croft, A.C., (1999). Motivating Engineering
Students by Using Modern Case Studies, International Journal of
Engineering Education, 15, 469-476.
3.4. Croft, A.C. and Ward, J.P. (2001). A Modern and Interactive
Approach to Learning Engineering Mathematics, British Journal of
Educational Technology, 32, 195-207. DOI: 10.1111/1467-8535.00190
3.5. Croft, A.C., Danson, M.R., Dawson, B.R.P. and Ward, J.P.
(2001). Experiences of Using Computer Assisted Assessment in Engineering
Mathematics. Computers and Education, 37, 53-66. DOI:
10.1016/S0360-1315(01)00034-3
3.6. Robinson, C.L, Harrison, M.C. and Lee, S. (2005). The
mechanics report - responding to the changes in the teaching and
learning of mechanics in schools. The Higher Education Academy,
Engineering Subject Centre.
All outputs listed in this section report significant, original and
rigorous research. Each of outputs 1 to 5 was published in an
international peer-reviewed journal, and has had lasting influence on the
field. Outputs 1, 4 and 5 were published in journals ranked in the "INT1"
category by the European Reference Index for the Humanities (ERIH). This
is the highest category in the classification system, and represents
"international publications with high visibility and influence among
researchers in the various research domains in different countries,
regularly cited all over the world". Outputs 2 and 3 were published in an
"INT2" ranked journal (the second highest category of international
journal). Output 6 was a commissioned report by the HEA's Engineering
Subject Centre, informed by a supervised PhD student's research.
Major Funding:
G3.1. HEFCE FDTL4 (2002-5): £250,000 Helping Engineers Learn
Mathematics project. [PI: Dr David Green]
G3.2. HEFCE FDTL4 (2005-6): £25,000 Transferability extension to
the HELM project. [PIs: Dr Martin Harrison & Dr David Green]
Details of the impact
We are claiming significant impact on awareness and understanding, policy
and practice.
Impact on the Mathematics Education of Engineering Undergraduates
Explicit aims of HELM (http://helm.lboro.ac.uk)
were to share knowledge gained through developmental research and testing,
and to promote wide use of HELM learning materials. These aims were very
successfully achieved; the outcome was a comprehensive mathematics
learning package for the first two years of engineering degrees. Nothing
approaching this was available before or has been provided since. Unlike
many projects HELM's impact has been both significant and lasting.
Evidence is presented in three categories: (1) Three HELM Surveys, (2)
Nine HELM Interviews, (3) BESTMATHS data analysis. These demonstrate
HELM's impact has been substantial in both reach and significance in the
period 2008-2013. Evidence summarised below is supported by a 25-page HELM
USAGE report (5.1), two external reports (5.2, 5.3)
and is corroborated by five external referees [5.4-5.8].
(1) HELM SURVEYS
Three surveys were conducted in 2012. Survey 1 targeted all UK
Universities (excluding LU), and also Further Education (FE) Colleges
providing Higher Education (HE). Survey 2 targeted the 58 UK respondents
in 55 institutions who confirmed their use of HELM materials (49 in
Universities, 9 in FE/HE Colleges). (In addition, there were a small
number of overseas users, three in the Republic of Ireland.) Survey 3
targeted 17 UK respondents willing to provide additional detailed
information. [5.1 sections 1, 4, 5, 6].
HESA data available (for 2011-12) for 42 UK HEIs containing staff known
to be using HELM revealed that they had 48,710 FTE Engineering &
Technology students, out of a sector-wide total of 102,710. [5.1
section 2].
Face-to-face interviews were undertaken with 9 academics in 5 HEIs using
HELM materials. [5.1 section 3].
The data reported below may be significant underestimates: not all
relevant departments could be identified or contacted, many did not
respond or did not provide analysable data.
Practice
Survey 1 revealed that based on 58 responses 55 UK HE providers were
confirmed active users of HELM materials and six others had HELM web links
for their students. [5.1 sections1 and section 4 table 4:1].
Survey 1 also revealed that of 55 responses by staff, concerning the
impact HELM had made in their institution, 27 cited `significant impact',
19 `some impact' and 7 `little or no impact', with 8 `don't know'. [5.1
section 4 tables 4:2, 4:5]
Survey 1 revealed that of 34 responses by staff who had used HELM and
subsequently developed their own materials, 29 said their experience
of HELM had helped them. [5.1 section 4 table 4:2].
Awareness and Understanding by Staff of HELM's Value
Survey 1 responses revealed very positive feedback on the quality of the
materials and benefits to staff and students. Respondents cited `improved
performance' or `improved retention' as significant impacts. When asked
why they continued using HELM many said because the `quality is very
high'. Some cited great saving in staff time (for developing materials).
100% of 59 respondents (including four not using HELM currently) said they
would (or did) recommend HELM to others. [5.1 section 4 tables 4:2,
4:4].
Policy
Survey 2 revealed policy decisions in the use of HELM resources:
(a) Years 1-2 engineering undergraduates were the main HELM users,
(b) Students in many other disciplines used HELM - from Acoustics to
Sport Coaching,
(c) Students across a wide range of levels used HELM - from Access to
MSc.
[5.1 section 5].
Practice
Survey 3, covering 17 institutions, showed that almost all 34 core
Workbooks were each being used by 60 to 180 students per institution. As a
typical student studies five or six workbooks per year, this equates to
about 725 students per institution per year, i.e. about 12,000 in total. [5.1
section 6].
(2) HELM INTERVIEWS
Interviews in 2012 with academics at five universities provided
additional insights on HELM's significant and enduring impact. Comments
recorded include:
- "HELM CAA questions are much appreciated.... I see an increasing role
for HELM in our new Department." [Mechanical Engineering Principal
Lecturer].
- "When HELM was adopted results went up dramatically.... feedback was
tremendous... retention improved." [Aeronautical Engineering Senior
Lecturer].
- "HELM is very helpful to PhD students acting as tutors." [Learning
Development Officer]
- "Our aim is to implement HELM's CAA regime widely across the School
& University." [Civil Engineering Senior Lecturer, responsible for
University online support]
- "HELM saves a great deal of time when preparing a new course."
[Mathematics HoD].
[5.1 section 3].
(3) BESTMATHS ANALYSIS
Policy
In 2002 the Royal Academy of Engineering made the policy decision to ask
LU to develop and run a distance learning project based upon HELM's
workbooks and CAA regime, for gap year students. The `BESTMATHS'
programme has run each year since 2002 (rebranded as LUMEN (Loughborough
University Mathematics for ENgineers) in 2010).
Practice
Data for academic years 2008/9 to 2011/12 show that in those four years
738 of the most able future engineers and scientists undertook this
distance learning programme, with 90% successfully completing the course
and receiving certificates. Participants have gone on to a range of
universities, the five commonest being Cambridge, Imperial, Bristol,
Durham and Bath. [5.1 section 7 table 7:1].
Awareness and Understanding
Feedback from students has been very positive, typical examples being:
"The exercises are challenging, which is good. A brilliant opportunity to
learn advanced mathematics." [Imperial]; "I have been impressed ... the
material is easy to understand." [Cambridge]; " I am really enjoying the
maths and find the workbooks brilliant." [Dundee]. [5.1 section 7
table 7:3].
Sources to corroborate the impact
The following sources of corroboration can be made available at request:
5.1. Report 1: HELM USAGE — available from Loughborough
University.
5.2. Report 2: Michael Grove (July 2006) Investigating the
Community-wide Impact of the FDTL4 Projects in Mathematics &
Statistics. Report for the HEA Maths Stats & OR Network.
5.3. Report 3: HELM Transferability Project Final report:
SYMPOSIUM PAPERS, 28 June 2006 (FDTL4 project 48/02).
Within this: PAPER by Drumm, I. pp 51-59. C2.
5.4. Contact 1: Letter from the Director of the National HE STEM
Programme, confirming the profound and lasting impact of OLP and HELM.
5.5. Contact 2: (Queen's University, Belfast) Letter confirming
the substantial and continuing impact at QUB and elsewhere in Northern
Ireland.
5.6. Contact 3: (UWE, Bristol) Letter from Principal lecturer
confirming the value to her department of HELM materials at UWE.
5.7. Contact 4: (UWE, Bristol) Letter from Senior lecturer and
drop-in coordinator confirming the value of HELM materials at UWE.
5.8. Contact 5: (Cambridge) Email from Engineering Admissions
tutor confirming the value of LUMEN materials (which are based on HELM)
for Cambridge undergraduates undertaking a gap year.