Paper 38
Main theme:
Secondary theme:
Oral presentations
Educational research
Professional development
Professional development of mathematics academics
Ken Houston, University of Ulster, Northern Ireland, UK,
[email protected]
Leigh Wood, University of Technology, Sydney, Australia,
[email protected]
Johann Engelbrecht and Ansie Harding, University of Pretoria, South Africa
Owe Kågesten, University of Linköping, Sweden
Derek Holton, University of Otago, New Zealand
Bill Barton, University of Auckland, New Zealand
Abstract It is almost 30 years since Morris Kline published his wide-ranging critique of
undergraduate education in his book, "Why The Professor can't Teach" [1]. In 1999, Steve
Krantz, in his book, "How to Teach Mathematics" [2] reported that academics were paying
much more attention to their teaching duties than before. Both of these books were largely
about the situation in the USA. This paper explores ideas around the early in-service and
continuing professional development of academics and uses examples from several countries.
1 Introduction
Professional development is the increase of knowledge or skill through study, travel,
research, workshops or courses, sabbaticals, internships, apprenticeships, residencies or work
with a mentor or master. It is often seen as individual and focussed on a particular facet of a
person, such as their career, or even a part of their career, such as teaching. It is often
focussed at the start of one’s career or as you move to a new position.
In this paper we look at the professional development of university mathematics academics
and we take a wide view of developing teaching, research and the person as a whole. We also
move beyond the development of the individual to the development of teams of researchers
and teachers. We believe strongly that professional development has to be seen in a wide
frame: if we just try to develop teaching in isolation those who do not see themselves as
teachers will not go far. But if professional development overall becomes regarded as usual
practice for professionals, and this includes development of research, teaching, and a wider
general development (eg learning a new language) then we think there is a chance of a
favourable reception from academics.
One consideration when talking about “professional development” or “learning in the
workplace” suggests that having an identity as a learner may not be compatible with being
regarded as competent (Boud & Solomon [3]). Boud and Solomon further discuss the notion
of learning as being put forward using different terms, for example, they point out that in the
conceptual work of Lave and Wenger [4] the term “learning” is almost absent and other terms
such as mutual engagement and participation are used. Further, various working practices,
such as organisational processes, can also be understood as learning practices (Boud &
Middleton [5]; Boud & Solomon [3]). We believe that this is also true of academics; as they
have done their learning (very successfully with many degrees to show it) and do not want to
be placed in the context of being a student again. Perhaps this explains some of the negative
reaction to formal teacher training that we report in section 4.
In terms of professional development for teaching, several countries (UK, Sweden and France
[6]) have well-developed one-year courses in higher education teaching which are on offer to
those new to lecturing. For example, in the UK, titles such as a Postgraduate Certificate in
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Higher Education Practice (PGCHEP) are used. Most UK universities would offer a course,
and these would all be accredited by the UK Higher Education Academy as meeting set
standards. The content of a PGCHEP is largely generic, dealing with pedagogical issues
common to all subjects. Subject specific learning is normally mediated through a mentor in
the new lecturer’s department. The Mathematics, Statistics and Operational Research subject
centre of the UK Higher Education Academy also offers a subject specific short course to
new lecturers on mathematics teaching at university level. Universities offer a staff induction
session for new academics to acquaint them with services at their university. Formal
provision for continuing professional education for teaching for experience colleagues is not
usual.
In the next section we discuss initiatives to increase research output.
2 Research
Academics go through a strong apprenticeship in research. They complete an honours degree
(or equivalent) then a PhD and perhaps several post doctoral fellowships. They generally
have strong publication records by the time they are appointed as an academic. There are
often prizes at conferences for the best student presentation so research students are
encouraged to refine their presentation techniques.
There is considerable pressure to publish and continue to publish throughout an academic
career. Nevertheless, at different points in people’s careers they need assistance with research
and research writing. As pointed out by Burton [7], research mathematicians do not receive
training in writing and the expectations of writing are not clear. McGrail et al ([8]: p. 24)
make a similar point.
Even though the ability to write for publication is a key skill for an academic staff
member to possess, most staff will not at any stage of their career, whether as a
student or as a staff member, be directly taught how to write for publication in
refereed literature. In most cases, it is expected that they will have already attained
a medium level of written communication, and will be able to learn on-the-job the
more specific academic writing skills needed. However, this is not always the case
and some universities have introduced writing courses, believing that their staff will
benefit by attending these.
Several ideas have been suggested to increase the quality and quantity of academic writing.
McGrail et al [8] published a review of interventions to increase academic publication rates.
The dominant model was that of writing support groups. These consisted of peers regularly
meeting together to provide a combination of encouragement, discussion, feedback on
manuscripts and/or writing time. Regular meetings seemed to be the key feature as it kept the
participants more goal oriented and motivated. The second most frequently reported
intervention was the provision of a course in writing for publication. Experts, usually senior
academics or professional editors led the writing courses. Participants were provided with
didactic and written information about the writing and publication process. Most required
development of a draft manuscript during the course. A couple of universities provided
professional writing coach for staff to assist with one-to-one development of writing. For all
of these interventions, increases in publication rates were noted.
An interesting development in Australia has come out of the Research Quality Framework
exercise where academic staff are encouraged to be part of a research team rather than
working individually (DEST [9]). The Federal Government appears to be favouring research
teams rather than individuals. This appears to be similar for teaching grants from the Carrick
Institute in Australia where consortia of universities and groups are favoured.
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As part of the professional development program for the mathematics department at the
University of Auckland, NZ, the Head of Department (HoD), Bill Barton is running a trial of
research writing pairs (using Boise's ideas to increase research writing output [10]). At the
University of Technology, Sydney (UTS), new academics are encouraged to form writing
pairs and UTS are experimenting with a more formal use of a mentor and formal workplans
to assist new and continuing academics to set their goals.
3 Teaching
Research can be funded selectively on the basis of excellence - but the country can't
afford not to fund teaching to be excellent everywhere. I believe passionately that
every student, wherever and however they are taught, has the right to be taught
excellently.
Professor Janet Finch, Vice-Chancellor of Keele University, UK [11]
Is mathematics substantially different to other disciplines? Should it be taught in a different
way? This appears to be the crux of the debate about courses to develop the teaching of
university mathematics academics. At the University of Auckland, the university professional
development unit (CPD) is moving from generic to subject specific modes, the HoD there
believes that the answer lies in taking this into our own hands rather than relying on generic
university responses.
In UK (here we quote the Education Secretary of the London Mathematical Society)
… we {the LMS) undertook a survey of Heads of Departments of Mathematics. We
received detailed responses from over twenty universities, including the majority of
research-intensive single-subject programme providers. These showed a
remarkable degree of consensus, both on the problem and on the right way to solve
it. All of our respondents believed that the HE sector needs high-quality, fit-forpurpose courses for new teachers, but very few felt that the current system provides
this.
The main criticism of the current courses is of their reliance on generic methods
and learning theory which are felt to be largely inapplicable, and far-removed from
the practicalities of teaching, in mathematics. Learning in mathematics requires a
complex interaction between the acquisition of demanding technical skills and the
development of new ways of thinking which are at once rigorous and intuitive. The
generic courses cannot realistically begin to engage with this, and to do so requires
a course supported by those, both in the Subject Centre and in departments, who
have grappled with these problems themselves.
The negative and even combative tone of many of the responses we received was
largely, it seemed to us, due to the lack of such engagement. …The outcome is the
alienation of new lecturers, and the perception of the courses as unhelpful and
burdensome. [Circular e-mail to HoDs, 14 Mar 04]
4 Comments from participants
We have been conducting a survey of heads of mathematics departments about professional
development in their departments (http://surveys.uts.edu.au/index.cfm?surveyid=1230) and
report here on some preliminary results. These are qualitative and give a flavour of responses
to questions of professional development. A similar survey has been conducted by the LMS
in UK and we will discuss the findings in our conclusion.
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The tension between research and teaching (indeed between research and anything else) is
clear in many comments.
4.1 New staff: induction
Heads of department made the following comments about usefulness of the induction
programs for their new staff. Some Heads stated that it had been a long time since they had
had any new staff: a reflection on the state of mathematics departments. When we consider
the variation in responses, we observe that some programs are working better than others, at
least from the perception of the Head of Department. It is worthwhile noting that induction
programs are not all the same and that it would be wise to investigate programs that are
successful rather than condemn all programs as useless.
1. The training is generic and reports from staff say it does not correspond very closely to
the practical requirements of a new lecturer in maths. It absorbs a LOT of time which puts
them under even more pressure at a critical point in their career. We are a research led
University.
2. The course is highly generic and staff are frequently demotivated by it. There is often
very little relevance as far as they can see.
3. There are too many unspecific components. Staff find it a heavy drain on their time for
relatively little benefit.
4. It is useful for a new member of staff to find out about the ways of the institution, since
different universities can have quite different cultures, assumptions, procedures, etc. It
has to be said that the two days are, of course, overloaded with information, so the real
learning takes place on the job, but the icebreaker is valuable as a chance to talk about
uncertainties and (important) meet other people in the same position.
5. First, the evaluation by the new lecturers is very positive. Second, and most importantly,
it enables them to produce high quality teaching materials (the materials being open to
scrutiny by the wider world).
4.2 New staff: formal teacher training
The majority of the comments below are from UK universities where the PGCHEP has been
running for some years. The main deficiencies (again from the HoDs point of view) are the
lack of subject-specificity in the offerings.
1. Career progression for staff is based primarily on research performance. Deficiencies in
teaching performance as perceived by students (the main determinants of teaching
success) relate to problems which are not addressed by such bits of paper, e.g. inability to
speak English sufficiently well or motivation to help particularly weak students unwilling
to help themselves.
2. Too generic. Doesn't reflect the full job of an academic
3. This needs to be tailored more to the needs of the individual lecturer and less to some
notion of qualification so that boxes can be ticked to say training has happened. The
MSOR network training appears to be more useful.
4. Many of our new staff have attained the PG CERT HE and have benefited from this, but
it is still lacking in a subject specific component to give it top marks.
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4.3 Continuing staff: teaching development
Continuing staff were encouraged to improve their teaching in a variety of ways, such as peer
review, teaching awards and encouragement to compete for a National Teaching Fellowship.
The following quote gives the flavour of many respondents:
We support people who go to courses but do not put pressure on them (Research is
top priority provided the students are not rioting).
We also asked Are there ways in which teaching staff are hindered in their teaching? and
received a long list of difficulties including; not enough time, too much administration, large
classes and a shortage of academic staff. Several respondents focussed on the culture of the
university and the pressure to do research. In some cases student evaluations were not shown
to the teaching staff but kept by the university administration. This was seen as a hindrance to
teaching. Two comments below sum up the difficulties that mathematics lecturers face.
Often the blackboards are broken. You have to bring your own chalk and duster.
The OHP is occasionally absent, occasionally broken; screens for it are nonexistent. Rarely, the lecture room's lights are broken. Students often cannot afford
to buy the prescribed textbook. Photocopying lecture notes for students is a difficult
procedure.
There is always insufficient time to do everything that is required of an academic.
Classroom equipment should be updated more often. At present there are still some
classrooms without a data projector. No classrooms have electronic whiteboards as
yet. Classroom space is at a premium and hence it is difficult to experiment with
different teaching room layouts.
4.4 Sessional staff: induction and teacher training
About one third of the departments who replied to our survey conducted orientation programs
for sessional or short-term staff (generally tutors). One said that they were assisted in their
teaching informally, by old hands, as do the permanent staff appointees. Other departments
have comprehensive training for sessional staff, often run by the teaching and learning unit of
the university. Some departments run their own training for tutors, for example; the
University of Auckland and the University of Technology, Sydney.This was not seen as a
priority.
4.5 Teams
When addressing student and teacher learning, the context of a team approach can enrich the
professional learning of the team members and create a context that supports change (Balach
& Szymanski [12]; Drew & Vaughan [13]). This came out clearly in a few of our
respondents, for example:
The course team process is a major source of on-going staff development. As well
as periodic discussions stimulated within the university and university, e.g. on
extending the use of elearning and ICT, the university's Institute of Educational
Technology undertakes research and organises courses and seminars on effective
teaching at a distance. In addition, the university offers internal teaching
fellowships to fund research on teaching and, most recently, the university has been
awarded 4 CETLs, one devoted to the teaching of maths and physics which has
funded substantial buy-outs for fulltime staff and for Associate Lecturers to
research maths teaching methods. I should add that the faculty has always
supported proposals to develop one's teaching, if funds permit.
Again, Bill Barton at the University of Auckland, is trialling:
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•
•
direct input into the development of teaching teams;
peer support of teaching pairs (involving mutual observations and meetings).
This is a promising way of working to improve the teaching of all staff.
4.6 Research into teaching and learning mathematics
One of our survey questions asked whether research into teaching and learning mathematics
was encouraged and heads of department were asked to explain their answer. Here we note
some of the explanations. The answers point to very different cultures in universities. A
comment made similarly by two HoDs was:
We have found that the most effective teachers are those who are the best
mathematicians; so we encourage lecturers to do research into pure or applied
Mathematics, to form research groups (e.g. the Graph Theory and Cosmology
groups collaborate more fruitfully and joyfully than our maths educationists). For
several years the most positive student assessments have been earned by one of the
most highly rated researchers in the department.
We could think of several counter-examples to that statement! However it points to a link
between research and teaching that furthers our conviction that professional development
should encompass teaching, research and the whole person. An academic who is achieving in
one area of their career and life will also feel more confident about tackling new and exciting
developments in other areas.
Question: Are new staff actively encouraged and supported to conduct and publish research
into the teaching and learning of mathematics?
For those who answered no:
•
•
•
•
Research into teaching and learning maths is seen as an easy option, not ‘real’ maths, and
derided.
There is more than enough hard mathematical research to be done
This is a mathematics department, not a mathematics education department.
Nobody cares about such things
For those who answered yes:
•
•
•
•
Yes, funding is also available for research and to attend Conferences on Teaching &
Learning Math
The University's career structure for the “teacher”, as opposed to the “researcher”,
encourages staff to publish pedagogical scholarly activity.
Teaching is left to the individual lecturer.
Yes, staff are encouraged by me as HOD to conduct and publish research in LTA in
mathematics, although a different HOD might not be so encouraging as they might have
different priorities. There is some possibility to join in generic faculty level development
projects, and to bid for development money for projects with a more specifically
mathematical aspect. Research per se is only given a time allowance if explicitly
supported by external grant funding. There are those without external funding who just do
the research in their “own” time - i.e. they do not get an allowance on their workplans for
it. Carrying forward the Mathematics LTA agenda means walking a path under the
influence of various forces. Corporate pressures tell us to spend less time on Learning and
Teaching, and this can distort which research and development projects are accepted.
Corporate pressures also seem at my institution to be leading to generic projects relating
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to corporate aims. Disciplines can join in with these and interpret in their context.
However it is also still possible for projects to be instigated within a discipline area, and
this does indeed happen - financial support for this can come from the Teaching Quality
Enhancement Fund, or from funding for widening participation, as mathematical skill
level is recognised as a key issue for many students across a whole range of disciplines.
5 Conclusion
In UK, in particular, there is a call for early career teaching development that is subject
specific. In other countries it is not so clear and it may depend on the quality of the generic
programs and the links made within those programs to the subject areas. There is significant
benefit in stepping outside one’s discipline and observing what others take for granted. Are
we being a little too precious about mathematics?
In terms of our survey, all universities valued research. There was a divide between the
cultures of universities which valued teaching as well and where academics could take a route
of teaching as a career and so become a researcher in mathematics education. New staff
received some training in teaching and induction to the university. This was not common for
sessional teaching staff. Professional development for experienced staff was neither
encouraged nor discouraged but left up to the individual, with some encouragement with
teaching awards, conferences and grants available in some institutions. Most saw developing
and spending time on teaching and learning as taking time away from research.
Several universities are investigating ways of increasing research output by developing the
writing of their staff. This includes writing grant proposals.
6 References
[1] Kline, M., 1977, Why The Professor Can't Teach, New York: St Martin's Press.
[2] Krantz, S. G., 1999, How To Teach Mathematics (2nd edition), Providence RI: American
Mathematical Society
[3] Boud, D. & Solomon, N., 2003, '"I don't think I am a learner": acts of naming learners at
work', Journal of Workplace Learning, vol. 15, no. 7/8, pp. 326-331.
[4] Lave, J. & Wenger, E., 1991, Situated Learning. Legitimate peripheral participation,
University of Cambridge Press, Cambridge.
[5] Boud, D. & Middleton, H., 2003, 'Learning from other at work: communities of practice
and informal learning', Journal of Workplace Learning, vol. 15, no. 5, pp. 194-202.
[6] Legrand, J-P. 2001, In Holton, D. (ed.), ICMI Study on Teaching and Learning of
Mathematics at University Level. Kluwer, Dordrecht. 519-528
[7] Burton, L. 2004. Mathematicians as enquirers: Learning about learning mathematics.
Dordrecht:Kluwer:
[8] McGrail et al, 2006. Publish or perish: a systematic review of interventions to increase
academic publication rates. Higher Education Research and Development, 25, 1, 19-35.
[9] DEST 2005. http://www.dest.gov.au/sectors/research_sector/policies_issues_reviews/
key_issues/research_quality_framework/ [accessed 30 March 2006]
[10] Boice, R. & Jones, F., 1984, Why academicians don’t write. Journal of Higher
Education, 55(5), 567–582.
[11] Finch, J. http://www.heacademy.ac.uk/news/20_4037.htm [accessed 30 March 2006]
[12] Balach, C.A. & Szymanski, G.J., 2003, 'The Growth of a Professional Learning
Community through Collaborative Action Research'.
[13] Drew, L. & Vaughan, S., 2002, 'The Course Team as the Focus for Contextualized
Professional Learning', Innovations in Education and Teaching International, vol. 39, no.
3, pp. 183-195.
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