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ORIGINAL ARTICLE
Theories in practice: mathematics teaching and mathematicsteacher education
Stephen Lerman
Accepted: 2 May 2013 / Published online: 10 May 2013
� FIZ Karlsruhe 2013
Abstract Whilst research on the teaching of mathematics
and the preparation of teachers of mathematics has been of
major concern in our field for some decades, one can see a
proliferation of such studies and of theories in relation to
that work in recent years. This article is a reaction to the
other papers in this special issue but I attempt, at the same
time, to offer a different perspective. I examine first the
theories of learning that are either explicitly or implicitly
presented, noting the need for such theories in relation to
teacher learning, separating them into: socio-cultural the-
ories; Piagetian theory; and learning from practice. I go on
to discuss the role of social and individual perspectives in
authors’ approach. In the final section I consider the nature
of the knowledge labelled as mathematical knowledge for
teaching (MKT). I suggest that there is an implied telos
about ‘good teaching’ in much of our research and that per-
haps the challenge is to study what happens in practice and
offer multiple stories of that practice in the spirit of ‘‘wild
profusion’’ (Lather in Getting lost: Feminist efforts towards a
double(d) science. SUNY Press, New York, 2007).
1 Introduction
The expectations on authors contributing to this special
issue as set by the editors are to address at least one of what
seem in general to be separate lines of inquiry (areas of
study) within the field of mathematics teaching and teacher
education research: teacher knowledge; beliefs and affect;
and identity. Authors are expected to clarify their position
in relation to whether they work with a social theory or an
individual one, and also where they stand on the relations
between theory and practice. Finally they are asked to take
into account the impact of their theoretical and research
focuses on instruction and student learning. The set of
papers here indeed fulfill the expectations. They are all the
work of established and creative researchers in the field of
mathematics teaching and teacher education and have
responded to some, or in one or two cases to all, of the
challenges set by the editors of this special issue. I am
pleased to have been invited to write this response given
the quality of the contributions and because of my on-going
engagement with research in this area since my doctoral
dissertation work almost 30 years ago.
My response will mirror the special issue goals to a large
extent. In the first section I will discuss the theories of
teacher learning that are taken up in these papers, as I
consider this to be absolutely key to discussions about
mathematics teaching and mathematics teacher education
in particular, and of what is understood in these papers by
‘teacher knowledge’. The authors’ positions in relation to
the three lines of inquiry will be addressed in that section.
The following section will examine the researchers’ posi-
tions on whether they work with a social or an individual
perspective. Subsequently I will discuss perspectives on
research in mathematics teaching and teacher education,
taking up the relationship between theory and practice.
2 Teacher learning and teacher knowledge
In a paper on teacher learning (Lerman 1997) I argued that
much research talks in terms of teacher development or
teacher change, rather than learning, and I suggested that
perhaps this was a consequence of a lack of theories for this
S. Lerman (&)
Department of Education, London South Bank University,
London, UK
e-mail: [email protected]
123
ZDM Mathematics Education (2013) 45:623–631
DOI 10.1007/s11858-013-0510-x
field. Most of our work at that time had been on students’
learning and we had strong and well-developed theories,
from Piaget, Vygotsky, and others. However we had not
addressed how adults learn and in particular how teachers
learn. Teaching is very different from most fields of
inquiry, having a face towards practice and a face towards
theory. Whilst we draw on psychology, for example, we
recontextualise from that field into the concerns we face in
education, and our concern is with how research can affect
and perhaps improve practice. The process of selection in
recontextualisation is always value laden. Furthermore a
discussion of theories of teacher learning cannot be
divorced from the nature of what constitutes ‘teacher
knowledge’. If we think in terms of mathematical knowl-
edge we must note notions such as internationally accepted
and agreed conventions, certainty, applications, and so on.
Is mathematical knowledge for teaching (MKT) or the
other equivalent names of the same kind? I think we have
to agree that it is not. It does not carry the same universality
or certainty or universal agreement as mathematical
knowledge. Perhaps one of the challenges for us as a field
is that we deal with the certainty of mathematical knowl-
edge at the same time as the uncertainty of pedagogic
knowledge and perhaps tacitly expect the latter to be more
like the former. I will return to this issue in my final
remarks.
The authors in this collection all engage with theories of
learning but in different ways. I have separated the authors’
approaches into three sub-sections: socio-cultural theories;
Piagetian theory; and learning from practice. The papers
are not equally distributed between these, with the majority
being in socio-cultural theory, perhaps because there is
such a range of theories under that umbrella, or perhaps
because the notion of identity, common amongst them, is
so elusive. There is also some overlap as many refer to the
connections between theory and practice. Nevertheless,
grouping the papers in this way offers a useful perspective,
I believe.
2.1 Sociocultural theories
Sociocultural theories start from the assumption that tea-
cher learning is about changing participation in social
practices. In this collection the authors draw on activity
theory (Potari 2013); zone theory (Goos 2013); identity
development in social contexts (Gellert, Espinoza and
Barbe 2013); patterns of participation (Skott 2013); and
shared participation in renewal (Brown, Heywood, Solo-
mon and Zagorianakos 2013).
Potari sees the adoption of an informed stance on using
research as a tool for inquiry as potentially generating
‘professional learning’ amongst teachers. I take the term to
refer to the two faces of educational research that I
mentioned above, towards practice and towards theories.
Based on a study of secondary mathematics teachers and
recent graduates of mathematics all undertaking a master’s
degree, Potari shows how the different practices in which
they engaged, with research through readings and with
practice through reports on their teaching, could be ana-
lysed through third generation activity theory. Activity
theory enables a reading of activity that highlights con-
tradictions and identifies which elements in the activity, be
they the rules or the community or others, are generating
these contradictions for the participants, leading to devel-
opmental cycles of activity. The analysis showed, accord-
ing to Potari, that the inquiry process generated a deeper
‘‘understanding of their students’ thinking’’ amongst the
teachers, who started from practice when engaging with
research, and that the novices saw the research as some-
thing to be tested and verified by their practice in schools.
Whilst one study cannot be expected to stake a strong
claim for any particular approach, as a community we do
need to worry about sustainability when activities take
place through participation in University courses. The
discussion with the teachers near the end of the paper
highlights this concern. Third generation activity theory
has been shown here to be useful for the researchers to
identify the motivators of shifts and challenges but many of
Engestrom’s studies have engaged the participants in
explicit use of the theory too, though this does not appear
to have been the programme of the researchers. I wonder
whether Leont’ev’s second generation theory might be
useful here, as participants might find the levels of opera-
tion, action and activity useful in seeing how they them-
selves engage with the activity of planning, teaching and
reflecting (Jaworski et al. 2013).
Goos has carried out substantial research in recent years
extending Vygotsky’s zone of proximal development
(ZPD) by drawing on Valsiner’s additional two zones, of
free movement (ZFM) and of promoted action (ZPA). She
argues that productive tensions can emerge ‘‘between
teachers’ thinking, action, and professional environments’’
and that these ‘‘tensions can become opportunities for
teacher change’’. Goos presents a convincing demonstra-
tion, in the case of Brian, of someone whose reading and
discussions with others led him to change aspects of his
practice that Goos characterises in terms of his ZFM and
ZPA. It seems that Brian saw these changes as advancing
his knowledge and understanding and benefiting the stu-
dents through their learning of mathematical concepts and
not of memorising, and forgetting, techniques.
What is important here, for me at least, is that Goos
supplies a material indication of what teacher learning
means in terms of changes in the zones, a practice-based
source of evidence of learning, as described by both the
teacher and the researcher. I use the term ‘material’ in the
624 S. Lerman
123
sense that Vygotsky used it, a Marxist idea that conveys the
connection between activity and learning, the goal orien-
tation of all learning, and its observability. I should add that
there is no evidence in the paper that Brian has access to
the language of the zones. It would be interesting to know
if he has acquired that language. Goos also writes in terms
of Brian’s past being brought through to his present, and
his present being projected forward to his future. This
approach draws also on a materialist analysis that identifies
change and defines learning in those terms (see also Meira
and Lerman 2009) and I appreciate greatly the perspective
the author offers. Although some aspects of the environ-
ment in which Brian, and all teachers, work are mentioned
here, a stronger sociological element to the analysis is
perhaps also needed here I think. The ZFM and ZPA
analysis enables a conversation regarding the teacher’s
choices and actions but the implications for students of
differing social groups needs also to be accounted for,
given the focus on addressing practice in this special issue,
and for that we need sociological theories (see e.g. Cooper
and Dunne 2000).
This last point brings me to the paper by Gellert, Espi-
noza and Barbe, in which they address directly the teacher
in social context in its widest sense. Gellert et al. see
identity development as a critique of studies of the idea that
teachers’ practices are an externalisation of their internal
states of knowledge and beliefs. They set out to show,
through the story of a specific teacher, how identity
develops in social contexts and they elaborate what is to be
understood as those contexts and what they produce in
terms of identity change. The authors address the call from
the editors of the special issue to be aware of which of the
three lines of inquiry they are addressing, knowledge,
beliefs or identity. As for many of the papers in this
excellent collection Gellert et al. do not want to separate
them, and they provide a table that summarises the
dynamics, in terms of mode and telos, of each of these lines
of inquiry. I find this table to be very fruitful in enabling
readers to see what each calls for in terms of approach and
in terms of research. Too often, I feel, the telos of an
assumption in this area is left unexamined. ‘Knowledge’
suggests a body of stuff that has to be acquired and as I
have argued above, mathematical knowledge may be the
paradigm for all sorts of fields of inquiry, including Pia-
get’s, but it may not be appropriate for teachers’ knowl-
edge of the teaching of mathematics. Gellert et al. call this
telos ‘sufficiency’. Similarly the identification of changing
teachers’ beliefs has a telos of ‘properness’.
Decades of study, including my own doctoral thesis
(Lerman 1986), assumed that teachers need to change their
practices without recognising that there was an implied and
value laden direction of that change (see also Lerman
2002). Identity has a telos of ‘fitting’ to a situation, which
opens up the analysis to the social context, powerfully
described by Stephen Ball’s notion of performativity, taken
from Baudrillard, but also potentially to ‘‘resistance and
subversion’’. Of course, those contexts can also include
inspiring in-service courses, not just the constraints of
political demands, often fuelled by the desire to emulate
the performance of other countries in international com-
parisons. The analysis of Claudia’s teaching and how she
sees herself in times of change is a creative demonstration
of how essential is the wide angle as well as the close-up
zooms of the researcher’s lens. ‘Identity’ is an over-used
concept, often taken in rather simplistic ways from
Wenger’s 1998 book. I believe more work needs to be done
by authors on how they take the concept into their research
and Gellert et al.’s embedding of their analysis in the lit-
erature of Black, Mendick and Solomon, in Bernstein and
in Stephen Ball is done well.
A final concern: the authors say, ‘‘In times of reform, it
is essentially the identity of teachers that is at stake’’. In
this sense the term ‘reform’, so ubiquitous in education
across the world, and certainly for us in mathematics
education, needs some examination. Re-form carries a
notion of going back to a preferred past or the construction
of a new form that is seen to be better than a past. All
visions of education, whether of the whole system or spe-
cifically of mathematics (or other subjects) education, are
value laden, and those values are often implicit. Examining
those values, what drives them, what they are reacting
against, can support an analysis of who might gain and who
might lose under that reform.
Skott notes the acquisition/participation duality and
rather than try for complementarity calls on an examination
of patterns of participation (PoP) in the range of social
practices with which the teacher engages as a way of
understanding teachers’ practices and the potential for
change. As in Gellert et al.’s paper Skott recognises the
need to account for the teacher’s negotiation across
sometimes conflicting practices and his PoP framework
aims to do that. He sees PoP as an approach that explicitly
moves on from, whilst not rejecting, the study of beliefs as
these are still seen, he says, as ‘‘a main obstacle to edu-
cational change’’. Skott argues that the notion of beliefs is
still confused with and across ‘‘knowledge, conceptions,
emotions and values’’, and sees them, drawing on Sfard, as
reified social experiences. Skott makes an important shift in
focusing on classroom practices as emergent and hence the
need to study how teachers’ practices change across time.
This dynamic process is studied through eliciting the tea-
cher’s interpretations of what she does in classrooms and
how that relates to her prior engagement in other social
practices.
As in other papers, Skott extends his analysis from
beliefs to deal also with knowledge and identity. The study
Theories in practice 625
123
of one teacher, Anna, provides exemplars for Skott of the
methodology of PoP, which involves the researcher’s
interpretations, consisting of quite strong inferences, of
these beliefs, knowledge and identity as they emerge across
time in teachers’ accounts of themselves and their actions
and of their learning. Perhaps the implications of the
interpretive stance and therefore for the interpretation that
is offered in his approach are not sufficiently recognised. I
consider, though, that the emergent approach, and the
search for methods that attempt to allow for dynamic
explanations of teachers’ changing actions over time, is a
most important move. In the spirit of the meta-analysis
called for in the expectations for this special issue it would
be interesting to see Skott’s response to the mode of
dynamic and telos of beliefs research proposed by Gellert
et al.
The paper by Brown, Heywood, Solomon and Zago-
rianakos brings the emergence and dynamic process to the
heart of their account of teacher knowledge and identity
and indeed of mathematical knowledge. The examples
given of a group of student teachers are very useful in
helping readers engage with the challenging theoretical
framework which draws mainly on Badiou, whose Lac-
anian inspired account of subjectivity leads the authors to
argue that, as a consequence of different pedagogical
attitudes, different mathematical objects can emerge in
shared situations, to the extent that sharing can take place.
They argue that we are in new times and prior approa-
ches, in which the teacher takes a privileged position in
relation to what students need to acquire and designs
ways of enabling their students to acquire that knowledge
and can assess its acquisition, are no longer adequate.
Their lovely example of students moving around in
relation to each other in order to experience from ‘inside’
the motion of the earth, moon and sun is not just about
learning about conics: ‘‘an object must be in the world for
it to exist’’.
In this sense an ontology of mathematical objects is
emergent as are the people engaged in experiencing the
creation of that world. ‘‘In becoming teachers they are
participating in the becoming of mathematics’’. For the
teacher and the students education is a perpetual renewal.
It is not clear to me how what we might describe as
Popper’s world 3 objects, the established and accepted
mathematical knowledge, appear and interact in the
vision of experience of mathematics provided in the
paper, but that might be my lack of imagination, coming
reasonably fresh to Brown et al.’s ideas. I have to add,
given the stranglehold of Government on teaching in the
UK, I worry for the frustration of these teachers as they
imagine what their own classrooms could be like, fol-
lowing their creative and imaginative course at the
University.
2.2 Piagetian theory
Simon (2013), whose contributions over many years to
perspectives on teaching, and to what constitutes con-
structivist teaching in particular, lead the field, acknowl-
edges the need for a theory of teacher learning explicitly. In
particular he points out how the reform revolution has in
fact left most classrooms and teachers largely unaffected
and we need to understand why that happens in order to
conceive of ways to change it. That involves understanding
how the learning process functions such that, when teach-
ers are confronted with new information, through research
texts or policy texts, or other means, they may articulate a
new understanding but their practice does not change.
Simon proposes the Piagetian contrast of assimilation and
accommodation as potentially offering a way of envisaging
change, or its lack, in teachers’ perspectives on mathe-
matical knowledge and on its acquisition by students. He
emphasises that the theoretical construct of assimilatory
structures is a researcher’s construction, not a claim of the
existence of such structures. As compared to other expla-
nations of the resistance of teachers’ practices to change I
find this very convincing.
Simon then demonstrates how a perception-based per-
spective can be seen to be a major assimilatory structure.
The researchers interpreted Ivy’s practice to be one
whereby she assumed students perceived the world in the
same way that she did, in particular in relation to how the
base-10 blocks activity was seen to be showing the same
concepts as the division algorithm representation. The
difference between Ivy’s perception-based perspective and
the researchers’ conception-based perspective highlights
how Ivy’s students had no way of seeing the parallels.
Simon’s caveat must be repeated here: these are research-
ers’ explanations or analyses and are not intended to claim
any actuality in Ivy’s cognitive structures, since the con-
structivist hypotheses about learning prevent the statement
of anything in the observed person’s conceptual frame-
work; one can only say what the observer/researcher con-
jectures. One should note the contrast with the materialist
one offered by the ZPD, ZFM and ZPA in the Goos paper.
We could go on to say that the students have to learn,
which they can only do for themselves, what representa-
tions are intended to say, what they are intended to rep-
resent. They are not obvious, though teachers may think
they are. Students are not going to have the same under-
standing of concepts and representations unless suitable
activities have been designed to enable them to construct
appropriate meanings. In other languages of learning one
would say: students are not going to have the same
understanding of concepts and representations as the tea-
cher unless they have been inducted into the accepted
meanings of mathematics. This induction process has been
626 S. Lerman
123
interpreted in various social forms including: communities
of practice; zones of proximal development; the pedagogic
device; or Wittgenstein’s description of understanding as
being inducted into how concepts are used and being able
to go beyond. In Piagetian theory the individual comes to
understand through reflective abstraction the process of
reflection by the individual on their mental operations. For
Piaget ‘‘it [reflective abstraction] alone supports and ani-
mates the immense edifice of logico-mathematical con-
struction’’ (Piaget, 1980, p. 92).
To return to the teacher, how is Ivy to perceive the
difference between the perception-based and conception-
based perceptions, which if achieved would constitute
teacher learning and by extension student learning? Being
consistent in the theory of learning: what would trigger
accommodation; will sufficient experiences of mental
operations lead to reflective abstraction? The adequacy of
the extraction of the notion of assimilation from the Pi-
agetian model depends, for me, in regards to the concerns
of this special issue, on this question: Is teacher knowledge
of the same form as the immense edifice of logico-math-
ematical construction? Applying the notion of reflective
abstraction to how children develop multiplication is only
the same as how teachers develop new ways of seeing how
they might bring students to learn, that is, to teach, if the
body of knowledge about teaching mathematics exhibits
the same kinds of structures as mathematics itself: cer-
tainty, replicability, generality and the like. I don’t think
this is the case.
2.3 Learning from practice
The paper by Van Zoest and Thames (2013) calls for
studying teachers’ characteristics, their term for the three
lines of inquiry, through studying how these are realised in
practice because, they argue, all studies on teaching need to
be about the improvement of practice; that has to be the
rationale for the field of mathematics education research,
especially research on mathematics teaching and teacher
education. They examine four studies in a search to
exemplify their practice-based approach and then attempt
to look across three of the four to encapsulate how these
studies contribute to understanding and improving practice
whilst the fourth, although valuable in itself, does not as it
‘‘stops short of explicitly addressing the dynamics of
instruction’’.
Van Zoest and Thames start from the assumption that
teaching and teachers matter in terms of the effect on
student achievement but that the field does not ‘‘adequately
understand how and why’’. They use a notion from Ball
and Forzani, that of research in education, taken to mean
that instruction is the key variable. This requires a focus on
all three vertices of the familiar triangle of teachers,
content and students. Separating the three lines of inquiry
similarly weakens the likelihood of research having an
effect on practice. Their concern is with how these char-
acteristics impact on student learning and they are looking
to how practice-based approaches can generate research
questions that ‘‘would support the improvement of
practice’’.
It is important to the authors, as signalled in their title,
that researchers achieve coherence between research on
teacher characteristics and practice. Coherence is here
understood as researchers building on each other’s research
in the field of teacher characteristics in a concerted effort to
develop theory about teachers’ practices that can lead to
successful learning. They highlight the likely obstacles to
such coherence by examining the limitations of the sepa-
rate studies of teacher characteristics: that beliefs research
does not help overcome teachers’ resistance to changing
their beliefs; that the body of professional knowledge is not
yet sufficiently developed; and that identity research is too
distinct from the other two to support a coherent research
orientation. Their proposal is that the development of
practice-based approaches can provide this coherence. I am
convinced that ethnographic studies of teachers and
teaching and student learning are the appropriate starting
point for research on mathematics teaching and teacher
education, but I am not convinced that greater coherence
can emerge. I am not overly worried about this as I am
sceptical about the possibility that this body of professional
knowledge can be sufficiently developed as to constitute an
accepted body of knowledge. Researchers working on
practice-based approaches bring their values about good
teaching and need to make these values explicit. Of course,
these will vary across different researchers and so coher-
ence is not likely to be achieved, but those studies can still
serve as valuable insights into classrooms and teachers and
learning. I wonder, also, where teachers’ learning from
their practice might play a role in Van Zoest and Thames’s
work. I refer for example to Doerr’s extensive study (see
e.g. Doerr and Lerman 2010). Finally, whilst I welcome the
central focus on one of the faces in our research field, that
of practice, theories of what one is looking at both afford
and constrain what one sees.
Barwell (2013), in common with Brown et al. and
Gellert et al., sees his approach, that of discursive psy-
chology, as an explicit move away from the view that
teachers’ practices are the realisation of their mental con-
tents. Some other authors in this collection hint at a similar
perspective. Barwell goes further, and suggests that
research on the three lines of inquiry, or teacher charac-
teristics as Van Zoest and Thames describe them, have a
scientific, or we might say scientistic, orientation (Lather
2007), with associated expectations on truth. In line with
the philosophy underlying discursive psychology, he
Theories in practice 627
123
argues that all we have is teachers’ or others’ utterances
and an observer’s account of teachers’ practices. This is not
due to the simplistic argument that one does not have
access to what is in a teacher’s head when she is teaching,
being interviewed, answering a questionnaire or keeping a
diary. It is stronger than that and arises from the recogni-
tion that all research methods are productive of the data
that emerge. Someone else dong the interview, or carrying
out the interview in another location or on another day will
elicit different data. To expect universal truth to arise from
educational research, from this perspective, is to be
adopting a metaphysical approach that has been strongly
challenged in recent decades, although it could be argued
that this challenge has had insufficient impact on mathe-
matics education research, though more on educational
research in general (e.g. Popkewitz 2000; Scheurich 1997).
Barwell also presents a strong case in opposition to the
understanding of the nature of representations that is
widely held in our field. ‘‘Part of the process of pedagogical
reasoning involves teachers finding ways to represent the
knowledge represented in their minds so that students can
form their own representations’’. Simon also pins down
what the research community in general subscribes to in
relation to representation: ‘‘Ivy demonstrates that teachers
who assimilate the new tools into a perception-based per-
spective may view these tools as transparent representa-
tions of abstract mathematical relationships’’. In his
critique of Shulman’s and Ball et al.’s use of the idea of
representations Barwell does not quite go so far as to say
that the foundational assumption is that there is an essence
to mathematical knowledge, an absolute, abstract, defined
collection of objects and all external and internal repre-
sentations are partial images of aspects of those objects.
The postmodern argument would be that there is no
essence, but the collection of representations is all there is,
though ‘all’ can be very substantial and difficult. This is
how I read his argument, however.
This paper leaves the reader wondering what next,
though. Barwell’s approach shifts us into epistemology and
away from ontology and gives us a way to read classroom
interactions in a highly nuanced way. I agree, and he adds
to the argument I have been developing above that calls for
starting from ethnography. But we need to be able to
articulate what these analyses say about and for teaching,
even if we leave behind the expectation that what they say
will contribute to an accepted body of knowledge about
mathematics teaching and teacher education.
Schoenfeld’s paper (2013) is quite different from the
others in this collection. Its aim is to produce, from the
decades of experience, experimentation and writing that
precede this work, and supported by substantial research
grants, ‘‘a workable, theoretically grounded scheme for
classroom observations’’. He draws constantly on research
findings in constructing the scheme, and its programme is
to ‘‘construct a model of an individual’s decision-making
that is entirely consistent with the individual’s behaviour
on a moment-by-moment basis’’. This huge and ambitious
programme is developed in stages by successive refine-
ments as the researchers seek to make the scheme workable
and consistent, and both necessary and sufficient. The
paper takes us through the stages of development of the
scheme, to the current model. That the scheme is called
TRU (Teaching for Robust Understanding of mathematics)
is entirely appropriate to the goals and to the expectation of
the outcome. There is no space in the paper for an elabo-
ration of the team’s and author’s philosophy in relation to
what is being produced, there is too much to report on here;
I expect this could be the subject of another paper. I wel-
come, however, the three observations that appear in the
discussion and speak to researchers who might work with
this model: that different constructs in the scheme may
appear to play more or less central roles, depending on
focus; that research should always involve a to-and-fro
between theory and data; and that a multiplicity of methods
and perspectives should be brought to bear on ‘what
counts’. From this side of the Atlantic, though, I fear that
schemes such as this, in spite of the purposes of the
researchers and developers of the scheme, will be used to
test teachers and become a tool for control. The experience
and wider vision of the developers, to develop a scheme for
classroom observation, can easily get lost in prescriptions
and measures to pass or fail teachers. That should not stop
the research and development work as presented here,
however.
3 Social and/or individual perspectives
In a chapter published in 2000 (Lerman 2000) I argued that
there has been a turn in perspectives in education in general
and in mathematics education too, towards a social orien-
tation. It seems, however, that there is a common misun-
derstanding of the social turn, that it addresses the social
context of teachers, for example, but if one wants to
examine what teachers actually do or know, researchers
need to take a cognitive focus, by which is meant an
individual cognitive focus. There may also be a suggestion
that the analyses would be complementary.
However, as I wrote in a recent paper (Lerman 2013,
p. 40):
Whilst Vygotsky undoubtedly took a more cognitive
focus than many believe, the key point of his work
and that of his followers is that the origins of cog-
nition are, for them, cultural-historical in contrast to
the Piagetian-inspired individual origin. It makes
628 S. Lerman
123
little sense then, to distinguish between the cognition
of the individual and the socio-cultural context.
Knowledge is first on the intersubjective plane and
then subsequently on the intrasubjective plane. The
unit of analysis has to include, therefore, the subject,
the situation, the task, the activity, the teacher and the
students, if not beyond the classroom as well, for
these constitute the intersubjective plane. For
research purposes we may choose a particular focus
but this merely means the other elements of the
intersubjective, cultural-historical context are out of
focus, or backgrounded, not absent (Lerman, 1998).
Developments in theory over the last few decades,
from Wittgenstein to postmodernism, have led to
social science research in general and much mathe-
matics education research in particular taking a social
turn (Lerman, 2000). The socio-cultural is too often
defined as social class, ethnicity and political issues
and then separated from what matters, learning. I am
arguing that this makes no sense in Vygotskian
theory.
Although the editors called for authors to clarify their
position in relation to whether they work with a social
theory or an individual one, few are explicit about their
positions. Potari argues that activity theory ‘‘can offer us a
tool to relate individual and social perspectives in research
focusing on mathematics teacher development’’. Simon
identifies two complementary ways of studying changes in
teaching: a social perspective examining the context of the
teacher’s work; and a cognitive perspective ‘‘focusing on
teachers’ conceptions, including conceptions of mathe-
matics, teaching and learning’’, and he chooses to focus, in
his paper in the collection, on the latter. Skott emphasises
his use of aspects of social theories and Goos confirms her
commitment to sociocultural research in the sense I have
described above in the lengthy quotation. Brown et al.,
Schoenfeld, Barwell, and Van Zoest and Thames do not
make any overt commitment on their position, though
readers can infer where they stand. Gellert et al. draw on
sociology of education, specifically Basil Bernstein’s work.
Their main argument is that ‘‘Formation of professional
identity has to do with developing a fitting to a situation, of
relating individually centered social processes to the
socially constructed institutionalized world’’. Again,
although no explicit position is stated in the position of
Gellert et al. it is clear where they stand.
Given the historical influence of cognitive theories
drawn from individualistic perspectives on our field I think
it is important for researchers to make clear how they
conceive of the relationship between the social and indi-
vidual as this gives the reader a sense of how they approach
the process of learning, whether of students or, as in this
case, of teachers. Units of analysis emerge also from
considerations of the relationship between the social and
the individual. Person-in-practice or second order models
of a student’s or a teacher’s model, for example, are quite
different units of analysis in use in our field, and the out-
comes in terms of conjectures about knowledge and
understanding are quite different too.
4 Researching mathematics teaching and teacher
education
The special issue editors hoped that the papers would
‘‘initiate a meta-discussion about the relationships between
the three lines of inquiry in order to take the general field
forward, and investigate the possibilities—or lack
thereof—for more coherent approaches to the field.’’ I
suppose one of the roles of the reactor to this set of papers
is to add to the initiation of a meta-discussion. It is cer-
tainly not easy to set up a meta-discussion within a set of
papers reporting on each author or authors’ research
(though see, e.g., Educational Researcher 38(7), Oct 2009)
but I will try to facilitate it by commenting on the rela-
tionship between theories and practice in the sub-field of
mathematics teaching and teacher education, as this reflects
back also on the three lines of inquiry. I will also comment
upon the extent to which the papers take the field forward.
As I have signalled above, theories about practice both
constrain and afford what one sees and how one interprets
what one sees. The papers by many of the authors indicate
clearly how they see their theory or theories informing their
research. The process of recontextualisation that always
takes place in moving concepts from one practice, where
they have perhaps originated, to another is subject to values
and ideals. In addition, as the term implies, it is also about
the new context and how it is perceived by the person
stepping into that context, as Ensor (2001) shows in rela-
tion to pre-service students and their move into schools and
Gellert et al. show in this collection in relation to Claudia. I
would suggest that these papers indicate the need to work
at one’s theoretical perspective. The lens through which a
researcher organises their research, reads the data, revisits
theory and interprets the findings is critical, and without
such work the values of the researcher are hidden but never
absent, of course. One learns from the scrutiny and critique
of colleagues.
Elsewhere I have expressed concerns about issues of
complementarity, incommensurability and design science
(Lerman 2010) and I hope I have made clear the need for
work on theory. Skott is explicit about not trying to con-
struct a complementarity across the acquisition/participa-
tion dichotomy and Simon similarly for the social/
individual dichotomy (though I have expressed
Theories in practice 629
123
reservations above); Brown et al. take the philosophy of
Badiou and recontextualise it for their purposes in an
educational setting; Barwell remains in the domain of
analysis of text where critical psychology works; Potari,
Goos, and Gellert et al., explicate and then apply theories
to their studies; and Van Zoest and Thames are eclectic
about theory, their concern being a focus directly on
practice. As I have said, Schoenfeld’s paper is rather dif-
ferent in relation to theory and practice. Perhaps what one
can take from all these papers concerning the three lines of
inquiry is that they need theory, whether the aim is to bring
them together or to make clear the different approaches
called for in their study.
There is a case for saying that teachers can and do learn
about their teaching and much research points to it (e.g.
Doerr and Lerman 2010). As Simon signals in his discus-
sion of assimilation and accommodation, it may well take
place only when something brings about a disequilibrium
for the teacher, such as a critical incident, a comment from
an observer, or from engagement with new ideas from
others, perhaps through further study or participation in a
research project. Except perhaps for lesson study, there is a
worrying unsustainability of investigation by teachers of
their teaching beyond engagement in research projects or
higher degrees. The challenges of the context of education
in so many countries around the world, contexts which are
productive of teacher identities as teachers seek survival in
ever-changing regimes of prescription, goes a long way to
explaining the resilience of assimilatory structures.
The hope that these papers and the meta-discussion it
generates will ‘take the general field forward’ begs the
question ‘where is forward’? What is the telos implied by
any author’s use of the idea of progress? I feel sure that
research to understand the work of the teacher, ethnog-
raphies of the classroom, as seen here in many of these
papers, through suitable theoretical lenses articulated by
the researchers, is ‘the way forward’ but in a local sense. I
am not optimistic about a global way forward, as will be
obvious from my comments throughout this response
paper. Contexts, values, cultural traditions and so on are so
varied across the world that acceptability of knowledge of
mathematics education is not the same as acceptability of
groups, rings and fields. Human meaning-making and
action are evolving, emerging, dynamic; this theme comes
through explicitly, if in different ways, in Skott, in Gellert
et al. and in Brown et al., and implicitly in the others. As
Kanes and Lerman (2008, p. 343) suggest, ethnography in
research studies in mathematics education, whether of
school students or of teachers, ‘‘is to trace the actual tra-
jectories around learning within communities of practice
and drawing on this to speculate on hypothetical trajecto-
ries in more general settings.’’ That is perhaps as far as we
can go in fulfilling the expectations of the special issue, but
it is still quite a challenge.
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