On the Importance of Little Details:
Complexity, Emergence and Pedagogy
Linda Laidlaw
University
of Alberta
Some time ago, a friend of mine came
to visit. Although the purpose of her trip was related
to topics of teaching, learning, and research, in our
time away from such tasks we attempted to redecorate
my new home. I’d recently moved to a more spacious
abode after years spent in tiny, temporary dwellings.
My friend, Maureen, has a particular talent with design
and knows me well enough to offer honest opinions. I’d
seen enough of her work, in her own environment, to
trust that her suggestions would be particularly helpful
ones. And so, in between moments of teaching, research
conversations, and plans, we transformed the main floor
of my house from a clutter of furnishing odds and ends
into a more attractive and functional space.
From Maureen’s perspective on
home design, it is the relationships among the various
components that are essential, so that furnishings and
décor exist together as a whole environment rather
than piece-by-piece. The couch, the dining room table,
the potted plants, and my other furnishings and accoutrements
needed to connect as a unified grouping. Also key in
creating an interesting, appealing space were the little
details: the texture of a velour throw placed carefully
over a chair, the way the bamboo table runner was echoed
in the framed print on the wall, the vase of carefully
arranged tulips, the necessity of eliminating the ‘noise’
of clutter, so that the pattern of interrelations might
be noticed, seen.
Writer Elizabeth Berg (1999) reflects,
on the work of writing fiction:
You know the
phrase “It’s always in the little things”?
In writing, it is always the little things—it’s the details,
and the authenticity in those details, that make a character
and a story come alive. (44)
This was also true for my house, an
attention to the tiny details made it come alive and
feel more like the space of a home than it did prior
to the rearrangements and redecorating, when my environment
had lacked a sense of unity.
You may be wondering what such engagements,
redecorating and writing, might have to do with teaching
and learning. Why might these things matter? The essay
that follows explores the significance of tiny details
in pedagogy and school environments, providing a link
with work in complexity science and examining possibilities
for restructuring frames and environments in teaching
and learning.
The little things are
important, although this notion is one not always evident
in traditional and modern descriptions and documents
of curriculum. The texts of schooling generally attend
to the larger elements, those things that can be more
easily and visibly documented or charted. I remember
well the simplified representations I often encountered
years ago as a beginning teacher: the diagrams for arranging
the classroom; the directions for organizing space,
time, and materials; the ‘recipes’ and manuals
which provided no doubt as to how successful instruction
should proceed.
[1]
However, like most teachers, I soon
learned that the neat and tidy black-line illustrations,
the linear step-by-step agendas and instructions usually
missed something vital—the areas of terra
incognita, the uncharted spaces that never seemed to exist on
such maps of pedagogy.
It was always the tiny things that
made the difference, that shifted classroom experience
in ways unforeseen and unexpected: the times when ‘real
life’ permeated existence at school, the sorts
of occasions or engagements that never seemed to appear
in more official descriptions of classroom life, phenomena
that were unpredictable and dynamic. It seemed, too,
a suitable vocabulary or frame for the description of
these sorts of experiences and processes did not exist
in any of the ‘official’ texts I knew.
|
On
the Importance of Little Details I |
© 1997-2004 original
work by Andrew Campbell & Marysa de Veer
© all rights reserved
|
In recent years, an emergent field
of inquiry has begun to offer alternative possibilities
for reframing educational description. What has come
to be known as the complexity sciences has begun to
branch into a wide network of inquiry including neurology,
biology, economics, business management, and evolutionary
theory among other knowledge domains, moving from early
roots in mathematics and science. Some researchers (see,
for example, Briggs and Peat 1999; Waldrop 1992) suggest
that complexity science is becoming a social and cultural
movement in addition to the work taking place across
various fields of study. Interesting, too, is the observation
that the field of education has been rather slow to
embrace the developments in complexity, with some notable
exceptions (see, for example, Davis, Sumara and Luce-Kapler
2000; Davis and Sumara 1997; Senge, Cabron-McCabe, Lucas,
Smith, Dutton and Kleiner 2000; Hocking, Haskell and
Linds, 2001).
Although metaphors, conceptual tools,
and applications grounded in complexity science have
begun to influence many aspects of human existence,
[2]
it is curious that education has
tended, in general, to ignore such work within inquiry,
pedagogical practice, and political initiatives. However,
this work has become increasingly influential in terms
of business applications (something which to me seems
somewhat ironic, considering how education tends to
use the language and metaphors of traditional corporate
models). Numerous websites and e-journals can now be
found on the Internet, promoting applications of complexity
science for business. One such example is Emergence:
A Journal of Complexity Issues in Organizations and
Management, and many other sites also exist. One includes the
following statement:
Since
your company is also a complex system, complexity science
based approaches can greatly benefit it, both by showing
how it might evolve and how you could influence its
evolution….
And this:
The
principle is very simple: small modifications of the
local rules can lead to large impacts at the global
level. (Both quotations from the BiosGroup website,
a business consulting organization founded by complexity
theorist Stuart Kauffman. Retrieved from http://eurobios.com/flash/
eurobios.html, June 20, 2002)
Although a sense of crisis has pervaded
much recent political and institutional discourse surrounding
North American schooling (one example being the recent
No Child Left Behind U.S. legislation, representing
a move to reforms involving increased standards, testing,
measurement, and accountability
[3]
), efforts have tended to focus on
the repair and further entrenchment of existing structures,
rather than the examination of new paradigms or alternative
frames and models.
As physicist Fritjof Capra (1996) recognizes,
the modern paradigm, characterized by reductionist thinking
and Cartesian dominance, is incapable of addressing
profound contemporary global, ecological, and social
problems. Instead, Capra suggests, such phenomena should
be interpreted as interconnected, interdependent systemic
difficulties. Within systems, including those of education,
each aspect is profoundly important to all other aspects
of the system. The small things matter.
Schools as Complex Systems
One example of this sort of interconnectedness
can be found in an elementary school where a decision
was made to eliminate electronic bells (Blakeburn Community
and Laidlaw 2001). A typical morning in this school
begins with a sense of calm, engaged interaction. Children
enter the school foyer, sit on couches and comfortable
chairs to read books together, while others play board
games and participate in activities in the hallways,
or dance to music in the library, or work with computers.
It is common to see parents, caregivers, and the occasional
dog or two join in for the early morning activities.
As the start of classes draws near,
the children and other members of the school community
initiate a few rounds of ‘campfire’ singing,
with students setting off for their classrooms as the
last song draws to an end. In an absence of the jarring
abruptness of electronic bells, or the typical outdoor
line ups and resulting entry scuffles, the school day
emerges more peacefully, gradually—resembling
more those events which occur in homes and the community,
rather than what is generally experienced in educational
settings.
It is a small thing, turning off the
bells, and a simple act, to invite children and caregivers
to gather together at the beginning of the day, but
such tiny details have profound, continuing effects,
like the ripple created when a pebble is tossed into
a pond. The character of this school, the nature of
the community that is formed, is shaped differently
from one structured by bell time and linear waits at
the door. Children are not ‘let in’ to school
in this place; they are assumed to be an integral part
of the school ecology, expected to manage responsibly.
And they are. And they do.
This school presents an example that
is particularly interesting to examine through the frame
of complexity, as a nonlinear and dynamical system.
In analyses offered by complexity sciences, systems
are important. To provide a brief description, systems
thinking and theories adhere to the notion that within
living systems, the whole arises from the interrelations
among the parts, and that, in fact, there are no true
parts at all. All aspects of a system are patterns in
an “inseparable web of relationships” (Capra
1996, 30). Also important to living systems is the notion
of feedback,
where each aspect has an effect on the next. Open systems,
including ecosystems, human beings, schools, and classrooms,
are open to a flow of energy and materials which move
through the system. In living beings, for example, matter
passes through the system in processes of excretion,
respiration, reproduction, etc. (Margulis and Sagan
1997). In schools, this flow might include less tangible
processes; however, energy, ideas, events, participants,
and what we might understand as products of learning
enter and leave the system of a school. All of these
feed in (or out) of the school’s ecology and create
a kind of balance.
Within the field of cybernetics, an
area of study that is historically influential within
domains such as cognitive science, family therapy, and
the complexity sciences (Varela, Thompson and Rosch
1991; Bateson 1979), the concept of feedback has been
employed in examining self-regulatory processes in social
organisms and social systems. Both self-balancing, or
negative feedback, and self-reinforcing, or positive
feedback have been exemplified in folk metaphors such
as ‘vicious circles,’ ‘self-fulfilling
prophecies,’ and ‘band wagon effects.’
All are attempts to represent the notion
that small actions may be amplified as they feed into
a particular system (Capra 1996). This process of iteration
(see Gleick 1987) means that what might appear as simple
feedback loops can produce exceedingly complex patterns
of reaction, where each aspect of feedback has a compounding
influence on the next. The notion of feedback, though
it is not a particularly new idea, has gained importance
in the understanding of nonlinear systems, and for developing
insights into social phenomena.
Unlike nonliving systems (such as weather),
within living systems a combination of negative and
positive feedback cycles tend to balance and counterbalance
one another—one familiar example is the economic
boom and bust phenomenon (based on human activity),
another is the fluctuation of animal population cycles.
In both phenomena, though there are fluctuations within
the system, over time the eventual pattern of a system
returns to a kind of balance.
Within classrooms, similar processes
can be observed. As a teacher I always thought it curious
that when a particular child who was a strong leader
in the group was absent, typically another child would
step into this role, at least temporarily. As well,
if the classroom system defines itself in a particular
way (e.g. as a more challenging class, or a tightly
cohesive group), particular efforts are required to
change such patterns. Creating a classroom or school
environment within a new structure (such as a newly
formed classroom or a school which has just opened)
is an easier task than shifting the patterns within
an existing structure, where there are returning members
of a group. The notion of self-organization, that particular systems develop their own patterns
of order, is one central to shifting understandings
of living systems, cognition, and even alternate conceptions
of self-identity.
Chilean neuroscientists, Maturana and
Varela (1987), describe self-organized systems as having
processes resembling cognition—such systems are
interconnected, adaptive, and constantly changing in
response to fluctuations within and among aspects of
the system. Shifts and changes within systems or structures
become evidence of learning through adaption. These
events occur not in isolation, but in relation with
other elements of the system. Reciprocal perturbations, or slight shifts in the system, trigger a kind of
co-evolution, as other aspects of the system also change
in a counter response.
Maturana and Varela (1987) propose
that cognition be understood, “not as a representation
of the world ‘out there,’ but rather as
an ongoing bringing forth of a world through the process
of living itself” (11). Classrooms, then, or schools,
or businesses—any living system of organization—can
be understood as emergent, cognitive entities, and cognition
itself as ‘embodied’ (Lakoff and Johnson
1999), in contrast to Descartes’ notion that minds
and bodies are entirely separate entities—a notion
which schools and educational systems are often reluctant
to abandon.
In the example of the school I have
described, adaptions have taken place in response to
an initial decision to begin the day differently, without
automatic bells; the children and teachers “bring
forth” (Maturana and Varela 1987) a different
set of relations and structures in response to starting
the morning in quiet play and conversation. Indeed,
rituals such as the group singing before children set
off for their classrooms spontaneously emerged in the
early weeks after the school opening; the singing was
never a planned-in-advance activity but one that simply
happened one morning and has continued to evolve in
more elaborate ways.
Very tiny acts, decisions, and structures
have caused this school to emerge in a particular manner—it
has developed as a system where institutional structures
are not taken for granted or implemented without considering
the possible effects and influences. The continued ‘feedback’
within this system, where days begin peacefully, calmly,
and where children, their parents, and teachers are
happy to be members of this community, has resulted
in a strong school identity. This school is experienced
as a safe space, where risks might be taken. The reverberating
effects have also moved into the realm of pedagogy.
As the principal of the school articulates (Dockendorf
2002), “It’s not about covering the curriculum
here, it’s about uncovering it.” The living
system of the school is recognized as having its own
emergent forces in response to initial decisions.
The notion of emergence has been explored
through computer science, urban studies, neuroscience,
and evolutionary theory as well as other disparate fields
(Johnson 2001). Emergence develops from the bottom up,
when
…agents
residing on one scale start producing behaviour that
lies on one scale above them: ants create colonies;
urbanites create neighbourhoods; simple pattern recognition
software learns how to recommend new books. (18)
Or, in other words, an interconnected
system of elements self-organizes to create a more complex,
intelligent, and adaptive larger organism. As schools
are formed in practice, which may be different from
what is recognized in terms of more official hierarchical
school organization procedures, emergent systems are
created.
Within traditional models of schooling
and school organization, however, the concept of emergence
has been little recognized. Instead, schools and classrooms
have tended to be represented and understood in linear
and compartmentalized ways: as a teacher, one would
likely be placed in a teaching position based on ‘seniority’
rules or district procedures and policy rather than
a good fit with a particular school. The class down
the hall is deemed to have little significance for other
classrooms in the school; classroom teachers are generally
expected to plan the year overview before meeting the
students who will be occupying their classrooms. Who
these students are
should not matter in terms of covering curriculum goals.
Additionally, the experiences and progress of an individual
child should have no implications for the experiences
and achievement of the children who will live for a
year alongside that child.
However, experienced educators know
well that different schools, even within the same geographical
boundaries, vary greatly, developing distinctly different
‘identities.’ They understand that every
class they teach is unique, and that, as teachers, they
can never be exactly the same instructor or use an identical
set of plans successfully every year. Effective teachers
adapt (and alter lesson planning) to the group being
taught, and they know how one particular child in a
classroom can profoundly effect the learning and experiences
of the other children and alter the identity of the
class (in both positive and negative ways). As well,
the classroom down the hall may matter deeply, particularly
when collective relationships within a school are formed.
Of course, the processes and products
of pedagogy matter, too. A particular lesson that engages
the class may open possibilities that shape the remainder
of the school year. Specific, tiny differences become
amplified within a system, and over time bring forth
a different world of experience. The intricate, interconnected
details within each of these systems—school, classroom,
student body, individual child—matter deeply in
terms of the life of pedagogy.
|
On
the Importance of Little Details II |
© 1997-2004 original
work by Andrew Campbell & Marysa de Veer
© all rights reserved
|
Little Details as Subtle Influence
Complexity science, particularly within
the realm of mathematics, has been interested in exploring
nonlinear dynamical systems phenomena, often described
as chaos. Although
chaos implies disorder, mathematicians have used the
tools of chaos theory
to examine elaborate forms that have been, until recently,
difficult to replicate or quantify. In the way that
models and metaphors offered by Euclidean geometry have
been strongly influential within education, it would
seem that new understandings of how the world might
be mapped, through complexity, might offer productive
and important opportunities for teaching and learning.
As Davis and Sumara (2000) outline,
many of the traditional structures for organizing schools
and pedagogy reflect the lines, squares, and rectangles
of Euclid’s geometry. For example, mandated curricula
are often presented as linear and sequential, with ‘boxes’
of skills to be acquired arranged in grids according
to grade or subject area. Time is commonly shaped into
‘blocks’ and organized into ‘timetables,’
while student bodies are frequently arranged in various
row and line formations. Davis and Sumara propose that,
for most experiences of teaching and learning in schools,
the “orderly boxes” and “tidy grids”
(822) teachers are asked to create are inadequate to
the task of guiding curriculum theory, planning, and
development, that these shapes do not accurately map
or represent the complex reality of teaching and learning.
The notion of subtle influence, arising
from chaos theory, presents one idea that reflects an
alternative metaphor for describing teaching and learning
experiences, presenting patterns that are more fluid
and recursive than Euclid’s shapes. Subtle influence,
also known as ‘sensitive dependence on initial
conditions,’ or the butterfly effect in more popular accounts, demonstrates how chaotic
systems amplify tiny differences within themselves,
often with profound results. Edward Lorenz, a meteorologist,
discovered the butterfly effect when he decided to round
off a calculation to three decimal places instead of
the original six, as a shortcut in testing a computer
model of weather systems. When Lorenz returned from
a coffee break (the reason for his shortcut), he was
surprised to discover that the two nearly identical
runs of calculations diverged greatly. The tiny initial
difference between the two sets of calculations soon
became widely magnified with each feedback loop, or
iteration. This experiment has often been likened to
the flap of a butterfly’s wing causing an eventual
tempest thousands of miles away (Cohen and Stewart 1994).
|
On
the Importance of Little Details III |
© 1997-2004 original
work by Andrew Campbell & Marysa de Veer
© all rights reserved
|
The butterfly effect, or notion of
subtle influence, poses immense difficulties for reductionist
science, since even very small-scale chaos creates an
inability to predict exact outcomes. Chaos demonstrates
that what might seem to be random, or ‘chaotic’
in the traditional sense, follows a kind of rich, creative,
unpredictable order. Particular patterns emerge, over
time, in response to small perturbations, or changes
in the system (the flap of a butterfly’s wing).
It is important to point out, however,
that the emergent complexity that occurs in phenomena
such as weather systems or the patterns that may be
formed in riverbeds, while more complex than Euclidean
forms, still lacks the adaptive potential typical of
living systems involving dynamic organisms. Living systems
such as ant colonies, neighbourhoods, classrooms, and
the collection of neurons that make up the brain have
additional qualities that must be acknowledged.
As complexity science theorist Mitchell
Waldrop (1992) indicates, complex living systems have
a particular ability to “bring order and chaos
into a special kind of balance” often referred
to as “the edge of chaos” (11-12). Unlike
nonliving chaotic structures (weather systems and river
beds), complex emergent systems have the ability to
fine tune and influence their own futures, in effect,
harnessing chaos (McCrone 1999, 70).
Living complex systems, such as those
involving human beings, are often capable of awareness
and responsive action. As educators we are able to attend
to many aspects involved in situations of teaching and
learning. Johnson (2001) suggests, too, that this possibility
for social and self-awareness, “is clearly an
emergent property of the brain’s neural networks”
(204). The ‘bottom up’ nature of emergence,
however, means that we are not aware of interactions
at the level of individual neurons, or the massive amounts
of information that neurons receive. Rather, the complex
adaptive system of the human mind filters out much of
the information we receive and creates a coherent sense
of consciousness.
Recent studies in cognitive science
have come to place increasing importance on what occurs
in the background of awareness, outside of the range
of conscious perception, providing a wealth of experimental
data which demonstrate that much of human thought occurs
at a level below our focal awareness, in spite of the
brain’s attempts to deceive us into imagining
that we are constantly aware of everything going on
in our immediate surroundings (Nørretranders
1998; McCrone 1999; Lakoff and Johnson 1999). Our surroundings
are deeply influential, though they may remain unremarked
upon unless something specific draws our attention.
Of course, this will not be new to
many teachers—in staff room discussions teachers
sometimes note, with curiosity, the difference a stormy
night has made to a teaching day, what happens when
the classroom is too warm or too chilly, or whether
several children in a class have not eaten breakfast…and
so on. Children (and teachers) respond in subtle, and
sometimes not-so-subtle ways to aspects of their surroundings
that may remain, for the most part, outside of awareness.
As a teacher, it may not be possible to control, or
even be aware of, all such influences, especially those
which children bring to the classroom, but attending
to such details as important ‘feedback’
within the classroom system can help to transform a
learning environment if particular pedagogical adjustments
are made in response to emerging conditions.
For example, the morning after the
‘flap’ of a late night thunderstorm the
classroom mood is one of tiredness and unease. The teacher
(who was also awakened in the night, herself) must respond
to the student ‘flaps’ of playground disagreements
and a morning of lessons that seem less effective than
usual. By recognizing the subtle effects of the late
night storm, the teacher might salvage the day, perhaps
deciding that the children would be better engaged in
an open ended art activity in the afternoon, instead
of her planned introduction to a new curriculum unit.
Western education has typically tended
to focus upon the narrow tip of learning ‘consciousness,’
that of focused awareness, while generally ignoring
the larger sea of perception in which we are constantly
immersed. Often educators are primarily concerned with
what can be conveyed to students overtly, disregarding
the surrounding contexts and peripheries that efforts
in cognitive science suggest are equally important for
learning. Perhaps in thinking carefully about the little
details and considering the possibilities for the emergence
of a complex learning system, as in the example of the
school I describe earlier, educators might help to bring
forth a world where children feel safe, comfortable,
loved, and challenged. As Grumet (1995) suggests, what
is often basic to education is what occurs “in
the middle,” within the network of relations:
“What is formal and abstract…becomes intertwined
with a system of meanings tied to [the] child’s
world” (21).
Piaget’s early work in biology
also includes a trace of ideas indicating the importance
of larger ecological contexts for adaption. In his study
of molluscs, Piaget observed that shells “differed
in shape according to their location in still or in
running water….But by transplanting some of the
molluscs from one environment to the other, he discovered
that the shape of their shells seemed not to be due
to phylogenetic but rather to ontogenetic adaption”
(in von Glasersfeld 1995, 58), or in other words, the
shells changed in response to their immediate ecology.
At the level of basic biology, it seems, living beings
take in and respond to information from their immediate
surroundings and co-emerge with this context.
However, in mandated documents or texts,
curricula rarely recognize the significance of such
background details, what we might call ‘learning ecology.’ Yet this
is deeply important—human perception, language,
and all meaningful knowledge emerges from and is co-specified
by the details of context (Cohen and Stewart 1994).
How a teacher (or administrator) influences, structures,
and crafts aspects of this environment becomes significant,
although complex systems such as classrooms also bring
their own dynamics, including learners’ individual
and collective intentions, responses and interactions.
As Davis and Sumara (1997) note, teaching, when there
is acknowledgment of how complex systems function, becomes
more a matter of “occasioning” learning
than “prescribing” it.
Conceptions of emergent or responsive
educational environments and curriculum, such as those
developed in early childhood education, offer a number
of descriptions and models for how learning ecologies
can be developed to respond to and emerge from learners’
interests, needs, and intentions, while also extending
further learning challenges. One prominent example may
be found in Italy’s Reggio Emilia schools (for
a description, see Edwards, Gandini and Forman 1998).
Reggio schools present a world-renowned model of what
is possible when school environments and curricula are
developed to be responsive to needs of present learners.
These programs see environment, pedagogy, and pedagogical
relationships as complexly intertwined and that these
must all be founded upon similar principles, such as
‘community,’ ‘osmosis,’ or ‘multisensoriality’
(Ceppi and Zini, 1998). Such models are gaining increasing
attention within North American education (see for example,
Bruner 2000), and within early childhood settings, which
are often less encumbered by the drive for increasing
test scores and the need to meet district standards
or initiatives (see Fraser 2000; Wien, Stacey, Keating,
Rowlings and Cameron 2002).
Importance of Initial Decisions
As Lorenz’s experiments with
weather systems demonstrated, beginnings are important.
A decision to slightly alter one tiny aspect at the
start of a calculation created a huge divergence in
later results. The principle of subtle influence
and the importance
of initial decisions are also relevant to the complex
systems of education. As teachers and administrators
often note, the beginning of the year is a critical
time. The system of the classroom, and the school, is
often in a kind of flux as interrelationships between
students are beginning to form: among students and one
another; between teacher and students; between students
and texts; students and learning content.
Although this part of the school year
requires much effort from educators, a window of opportunity
is also available, holding promise for how the year
might eventually evolve. Tiny decisions, setting up
this structure and not that one have the capacity for creating immense differences
in the eventual dynamics of the classroom. This is a
time when the shape of a classroom or school ecology
can be most easily formed and shifted. Small, critical
decisions create increasing effects over time.
As most children know, the first days
of school are important ones—it is the time when
their world at school becomes defined for the year,
and is often the time when they are, too. Whether the
year begins with disruption, discord, or boredom, or
a sense of welcome, engagement and inclusion in a community,
these things influence the particular tone that is developed.
The system in which students are active participants
begins to structure itself; modifying existing structures
and patterns of interaction becomes more difficult as
time passes. Teachers who begin working with a new class
at a midpoint in the school year know well the challenges
involved in setting up new routines, attempting to alter
established patterns in social structure, and in shifting
structures of teaching and learning.
In
the school discussed previously, the year also commenced
with a week of workshops, activities, and community
gatherings, events that focused on a curricular emphasis
for the year. Community guests were invited to lead
workshops and activities, and teachers were provided
with an opportunity to briefly observe children in multi-aged
family groupings before children were assigned to particular
classrooms. Class configurations were developed with
real individuals in mind and the possible collectives
and relationships that might form were anticipated.
Additionally, teachers were able to begin curricular
planning based on some knowledge of the children who
would be members of their classrooms, something that
would have been difficult, otherwise, in a new school.
Small, initial decisions are often
important in relation to difficulties encountered in
classrooms: for example, the repercussions of failing
to respond to a child or adolescent who bullies another,
ignoring racist and homophobic language, or not noticing
a child who has been struggling with a concept or task
to an extreme level of frustration. Larger, systemic
problems often hinge on the tiny details.
In Maturana and Varela’s (1987)
complex ecological perspective on learning, the elements
of a system evolve in relation to one another in a process
of what they name structural coupling, where change in one aspect of the system elicits reciprocal
changes elsewhere. A learner, as part of a larger collective,
reacts, adapts, and continues to engage in a complex
process of response and change. Small changes in one
aspect of a classroom may often evoke reciprocal changes
within the larger system as a whole. The knowledge of
such processes, then, might be harnessed to diminish
changes that are undesired or will lead to harm within
the system and, as well, to encourage shifts that will
help to establish a robust academic community.
Collective Details
Complexity science, with its recognition
that complex systems are composed of webs of interconnection,
would also suggest the need to view learning as a collective
process rather than solely an individual one. Of course,
this presents a challenge to many conventional structures
and approaches to curriculum where learners are often
encouraged to remain separate and apart, where individual
products are valued over shared projects, and the ranking
and sorting of individual student ability are the expected
and required practices of schooling. As much as cooperative
learning and collaboration have been recent catch phrases
in education, learning is still primarily regarded as
an individual matter, occurring separately and discretely,
as knowledge is transmitted from teacher to learner.
In perspectives closely aligned with
complexity, Lave and Wenger (1991) relate that learning
occurs within a “community of practice,”
and that knowing occurs in a social world, located within
the complex relations and interconnections among participants,
practices, and “the artifacts of that practice”
(122). Learning is viewed as a process of participation
within communities of practice, often beginning with
peripheral involvement and increasing in complexity
and engagement, as an evolving and emergent form of
membership occurs within the community. Within emergent
systems, “global wisdom” often results from
“local information” (Johnson 2001). Interactions
between ‘neighbours’ within a system create
opportunities for further problem-solving and the development
of new ideas or products of learning.
Learning, then, does not occur with
transmission of knowledge from teacher to student, but
resides within the structure and relations of the community,
of which the teacher is also a part. As Johnson (2001)
outlines in his examination of emergent complex systems,
it is important to “Pay attention to your neighbours”
(79). In this way, learning can be understood
more complexly, and collectively, as emerging within
and among the relations of a self-organizing system.
As Grumet (1993) writes, “No one knows alone”:
knowing and learning are collective endeavours, processes
that occur within the context of relation.
Tiny things matter
Mary Catherine Bateson (1994), anthropologist
and writer, comments:
Learning
is the fundamental pattern of human adaption, but mostly
it occurs before or after or in the interstices of schooling.
(197)
The complexity sciences and a deeper
knowledge of emergent phenomena might help us to notice
the unobserved sites of learning to which Bateson refers.
Perhaps too, the “crisis of perception”
(Capra 1996) which exists within modern frames of schooling
might lead to a reconsideration of the models and metaphors
through which educators perceive and structure educational
experience.
If the significance of the little details
is recognized in teaching and learning, the small things
that occur alongside, before, after, and in-between
learning and teaching will also begin to matter. Pedagogy
does not exist as separate from the details of the life
of schools, classrooms, and the students to whom it
is directed. Rather than the traditional maps of schooling
that tell students who and where they are, the maps
offered by complexity science hint at an unruly terrain
and the possibilities that reside within such terra
incognita.
Such new maps not only provide possibilities
for understanding pedagogy differently, they also might
offer (like all good maps) the opportunity for new journeys
in future events of teaching and learning and for changing
the routes that might be taken to find our way there.
To conclude, I return to the story
I presented at the beginning, the anecdote of the rearrangement
and adaption of the spaces in my home. Small changes
and redecoration attended to the interrelationships
within this environment, enabling the development of
complex, interconnected systems of organization to emerge.
In a sense, such shifts are not unlike what may occur
within pedagogy, when intentional small changes and
subtle influences occur.
It is interesting to note the reverberation
of other small changes subsequent to my friend’s
efforts at improving my home design. I’ve entertained
guests more frequently, acquired two dogs (who have
also influenced home decoration), and continue to work
on further decorating projects. The tiny acts involved
in rearranging and adapting my environment have inspired
additional changes. Though such actions and events were
not directly caused
by the redecorating in a linear way, the small changes
(having a more comfortable and aesthetically pleasing
environment for entertaining, and for staying at home)
provided a necessary shift, a slight perturbation, which
has led to other changes. Not unlike the flap of that
butterfly’s wing.
The tiny things matter. In homes. And
in schools.
References
Bateson, Gregory. (1979). Mind and nature: A necessary unity. New York: E.P. Dutton.
Bateson, Mary Catherine. (1994). Peripheral
visions: Learning along the way.
New York: HarperCollins.
Berg, Elizabeth. (1999). Escaping
into the open: The art of writing true.
New York: Perennial.
BiosGroup website. Retrieved from http://eurobios.com/flash/
eurobios.html, June 20, 2002.
Blakeburn Community and Laidlaw, Linda.
(2001). “I Can Be Happy at This School”:
Creating a Socially Responsible Learning Community.
Teacher: Newsmagazine of the British Columbia Teacher’s
Federation, 13 (5): 1-4.
Briggs,
John and F. David. Peat. (1999). Seven lessons of
chaos: Timeless wisdom from the science of change. New York: HarperCollins.
Bruner,
Jerome. (2000). Reading for possible worlds. In 49th
Yearbook of the National Reading Conference,
ed. Timothy Shanahan & Flora Rodriguez-Brown. Chicago,
IL: National Reading Conference.
Capra,
Fritjof. (1996). The web of life.
New York: Anchor Books.
Ceppi,
Guilio and Michele Zini, eds. (1998). Children, spaces,
relations: Metaproject for an environment for young
children. Reggio
Emilia, Italy: Reggio Children Domus Academy Research
Centre.
Cohen,
Jack and Ian Stewart. (1994). The collapse of chaos:
Discovering simplicity in a complex world. New York: Penguin.
Davis,
Brent and Dennis Sumara. (2000). Curriculum forms: On
the assumed shapes of knowing and knowledge. Journal
of Curriculum Studies, 32
(6): 821-845.
Davis,
Brent and Dennis Sumara. (1997). Cognition, complexity,
and teacher education. Harvard Educational Review,
67 (1), 105-125.
Dockendorf,
Maureen (2002). Personal correspondence.
Gleick,
James. (1987). Chaos: Making a new science.
New York: Penguin.
Johnson,
S. (2001). Emergence: The connected lives of ants,
brains, cities, and software. New York: Scribner.
Lakoff,
George and Mark Johnson. (1999). Philosophy in the
flesh. New York:
Basic Books.
Lave, Jean
and Etienne Wenger (1991). Situated learning: Legitimate
peripheral participation. New York: Cambridge University Press.
McCrone,
John. (1999). Going inside: A tour round a single
moment of consciousness. London: Faber and Faber.
Margulis,
Lynn and Dorion Sagan. (1997). What is sex?
New York: Simon and Schuster Editions.
Maturana,
Humberto R. and Francisco J. Varela. (1987). The
tree of knowledge: The biological roots of human understanding.
Revised edition. Boston: Shambhala.
Nørretranders,
Tør. (1998). The user illusion: Cutting consciousness
down to size. Trans. J. Sydenham. New York: Viking.
Senge,
Peter, Nelda Cambron-McCabe, Timothy Lucas, Bryan Smith,
Janis Dutton and Art Kleiner. (2000). Schools that
learn. New York:
Doubleday.
Varela, Francisco, Evan Thompson and
Eleanor Rosch. (1991). The embodied mind: Cognitive
science and human experience. Cambridge: The MIT Press.
von Glasersfeld, Ernst (1995). Radical
constructivism: A way of knowing and learning.
London: The Falmer Press.
Waldrop, M. Mitchell. (1992). Complexity:
The emerging science at the edge of order and chaos.
New York: Simon & Schuster.