Learners interactions with Plato Pathways Learning Software, a qualitative analysis embedded in activity theory.
Mike Thiem
Abstract:
Computer Learning has an aura of invincibility; technology is seen as solution for many school issues. Certainly the author of this paper is convinced of its importance, but what do the users of the software feel about it? The study looks at the impressions of a group of learners, enrolled at a Western Cape FET college, of Plato Pathways math software. Data was collected through observation, conversations with both learners and teachers and an online survey. I have used Activity theory to provide an overarching structure to the essay. Two main tools are then used to achieve the object of this essay. Plato Pathways Math Software is analyzed through the lens of an activity system, helping to place the study in a larger context. Survey data is examined using qualitative data analysis, helping to look at the embedded pedagogical assumptions of Plato Math. Conclusions are drawn that show the users of the software adapting it to fit their pedagogical comfort zone. Also the need for greater training of learners and teachers, examination and elucidation of expectations, and a greater involvement of stakeholders in the choice of learning software
“nothing exists outside it’s environmental matrix” (Mike Thiem)
“To know an object is to lead to it through a context which the world provides.”
William James
(“Pedagogics is never and was never politically indifferent”) Vygotsky.
Introduction and a bigger picture
This essay grew out of a) necessity, as a requirement for a Masters course and b) my observations and interactions with FET college students in my position as e-learning administrator at an FET college in the Western Cape.
Observations were carried out over the 12 weeks of the third term.
So I am writing this essay to understand more about teaching and learning with computers and the way in which students relate to the process. I am also interested in just how software is used to teach math and what link to theory there may be in the design of that learning software.
At the heart of this essay is students’ use of computers for the purpose of learning math. In that simple statement there are several important questions, viz. What is learning? (A big question?) Is it different to learning with a computer? How does the software, constrain or open up the path to the goal of learning math?
Looking at the first question leads us naturally to a context and a framework in which to study the other questions.
“Activity theory (Leont’ev, 1978) gives us a framework, namely terms and ideas associated with those terms, that is useful for describing the interactions emerging in both the educational and training contexts as a result of ICT integration (ROSA-MARIA BOTTINO et al. 1999)
What is Activity theory and how can it help us? This theory has its roots in the Vygotskian idea of learning being a mediated social activity, “For Vygotsky (1978) humans use tools to change the world and are themselves transformed through tool use” (Hardman 2005). This idea gives us what is known as the first generation activity theory.
Engestrom in Daniels (2001) built on and extended this triangle by including the “macro level of the collective and the community” Daniels (2001)
In third Generation Activity theory “networks of interacting activity systems” (Daniels 2001) are conceptualized.
I will use the writing of this paper as an example of an activity and try to frame it within the theory, in the process, demonstrating how AT(activity theory) can be used at many levels depending on the focus of the researcher (Russell. D. 2002).
I am the subject, working towards the completion of this essay, the object. In order to reach the object I am using two major conceptual tools, Activity theory and qualitative data analysis. There are also the various software tools that enable me to write this. I am operating under the rules of academic research, constrained and helped through the need for accurate referencing, avoidance of plagiarism, and the necessity of presenting evidence or references for logical arguments. There are also rules embedded in the essay, namely a limit of 6000 words and a deadline which is rapidly approaching.
The community involves my fellow students to a limited extent and Joanne Hardman to a greater extent along with the external examiner as well as all who read this and choose to comment via my blog. (http://futurecollege.org/elearning). The community would also include all those researchers whose work has provided inspiration and references for my words.
As far as division of labor, in my own connected personal activity system is my partner, Wilma, who has provided more than her share of meals, freeing up time for me to research and write this. In the sphere of the Masters Course I play the role of the student, with Joanne Hardman in the position of Facilitator and Lecturer.
What makes the Activity theory more useful than just an examination and isolation of the various nodes of the activity, are the links between nodes. These links show the connections and the conflicts inherent in any activity system as “an activity system is constantly working through contradictions within and between its elements” (Engstrom 1987, in Russell 2002)
All parts of the system leading to the dual outcome of success in this course and a greater understanding of the issues around and pertaining to the use of ICT in learning.
This theory is seen as not a predictive tool but rather a useful heuristic, to tease apart the issues involved.(Kaptelinin, Nardi and Macaulay 1999).In this it seems to have synergies in my mind with ecosystemic view of things. Add to that a temporal perspective and this is a powerful exploratory tool.
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The Mediating tool
From my own experience, I know that there is some great stuff out there in the virtual world that makes things very exciting and enabling for learning, personally I am completely enamored by possibilities of learning using computers, exited and overwhelmed by access to the biggest library and many levels of learning 24-7 . However it seems that the learners and indeed the teachers were less than excited with the software and the opportunity to learn with the computer as tool, and had to be administratively coerced into being there with a once a week requirement as part of the E-learning policy of the college.
Looking at this tension as a contradiction in our activity system, between Rules and Subject, and Rules and community, allows us to develop an understanding of the efforts at changing the subjects’ normal activity system (Russell and Schneiderheinze 2005). This elucidation of the context allows for a less judgmental evaluation of the Individuals involved and emphasizes the fact that once an innovation (use of Plato) enters the system it “becomes part of a complex system of social and pedagogical interaction” (Russell and Schneiderheinze 2005)
Reflectively reading the previous 2 paragraphs I notice how, although my primary intention was discussion of the mediating tool, the topic veered to tension in the use of the software. This I think shows just how connected the various issues are. So I am going to follow the train of thought and just change the heading.
So just why did teachers or learners not take advantage of what I assume is a great opportunity?
Firstly lack of knowledge of the software specifically and computers in general.
Aaron Falbel in his essay ”The computer as convivial tool” (Papert and Harel ed 1993) uses Ivan Illichs phrase “convivial tool” to describe a tool that can be used to enhance a persons “freedom and autonomy “, he states that there “is nothing inherent in the tool that makes it convivial or not” it is rather the peoples ‘attitude, relationship to, and use of he tool that make it convivial”.
Now a computer can be thought of a black box of mystery, requiring special techniques to enable its effective use leading towards its non-conviviality. Falbel also make the point that commercial software “suffers from opacity and non-conviviality”, our freedom toward the software is limited we must believe what the “experts” tell us, we are not free to make changes that would suit ourselves and by extension our learners. (Papert and Harel ed 1993)
So why should a tool be convivial, well to quote Illich in Falbel “Convivial tools are those which give each person who uses them the greatest opportunity to enrich the environment with the fruit of his or her vision” (Papert and Harel ed 1993). For the occasional user Computers can be anything but convivial.
Smerdon, Cronen, Lanahan, Anderson, Iannotti, and Angeles in Education Statistics Quarterly (2003) point out that “Teachers were generally more likely to use computers and the Internet when these technologies were located in their classrooms than elsewhere in the school”, Interesting that none of the Math teachers in the college have computers in their math classrooms, this can partially explain the relative lack of involvement or enthusiasm of teachers in the Plato Lessons.
So even though the teachers did have training on Plato, they did not have the opportunity during the time they were in class to play around with the program, a very necessary component of learning new software in my opinion. An opinion supported by a study of “ exemplary computer-using teachers ” that found that they “spent more than twice as many hours personally working on computers at school than did other computer-using teachers” (Becker, H.J. 2000)
An additional obstacle to using the software comes from the actual structure of the software. The topics available are predominantly derived from American syllabus, with a relatively small percentage of exercises being UK syllabus. For the South African market the fact that the topics can be rearranged into packages is used as a major selling point. However there is often still a mismatch between with is available as a topic and what the learners are doing in class. Or indeed what is required by the syllabus.
This would not be such an issue if the learners had more time to cover the syllabus. The relative obscurity of the questions coupled with the time investment needed by the teachers meant that they were not aware of what topics were exactly covered by the program or how. None of the teachers used all of the required hour per week citing need to work the learners in class. Illustrating dramatically the belief that using the software was not a better way for them to teach math. This is reflected later in the essay with the responses to the survey where a learner explicitly remarks that the classroom is better.
This attitude is understandable for many reasons and maybe most importantly the fact that class contact time is fleeting and valuable in the college structure, and teachers struggle to finish the curriculum in the allotted time, so spending an hour a week involved with math that does not directly impact on what they need to do is de-motivating for both teachers and learners.
e Plato Maths software is arranged in a hierarchical system, main topic finally breaking down to sub topics, but it is only customizable down to just below the module level, which means that individual questions can not be picked and chosen, but the assignment, tutorial or mastery test must be used as a unit.
This means that for a teacher to go through the module is quite laborious as they have to actually enter into the module and work their way through it. All these issues constrain the “conviviality” of the tool negatively impacting on its ease of use, which in turn constrains the frequency of use.
“Our society places greater demands on educational systems to develop learners who can use knowledge in new areas and different situations” (Russell, and Schneiderheinze, 2005) An important issue arising from this is, given the research findings of Smerdon et al (2003) and Becker (2000), if the teachers feel un- comfortable with computer use then they will be less inclined to promote or facilitate successful access among the learners. Actively discouraging the use of knowledge in new areas and different systems.
The Mediating tool (PART2)
Back to this subsection after the examination of some contextual tensions inherent in the use of the Software.
How would I use activity theory to examine the design of Plato Software?
Firstly Activity Theory stresses the importance of context, i.e. the design of the mathware is not value free but embedded in the designers own Activity System, Secondly the design impacts directly on not just the subject but the community within a conjoined activity system. The whole thing then shifts around on an access of time.
In the design of mathware the designer and programmer should be aware that “inherent in the process of human comprehension and communication, there must be an approach that emphasizes the context in which stakeholders or users develop their activities and mediation tools” (Uden, and Willis 2001)
Plato software is one of the oldest learning applications (Anderson. M. 2003) and as a company has purchased other learning companies. This is seen in a range of types of exercises that are available. Plato software is basically constructed as a tutorial, revision, test structure with the tutorial being description of the problem followed by worked examples.
The learner then gets to try out a few worked examples and this is followed by a “mastery test” module. The learner “must earn a minimum score of 80% on mastery tests before proceeding to next the activity” (Plato Learning Users guide).
There is lots of software that supposedly helps with learning mathematics. Surely in order for software to promote learning it has to fit with the actual way in which people learn. So now the question becomes, how do people learn?
There are lots of different learning theories.
The Emerging technology site www.emtech.net/learning_theories.htm lists twelve main types of learning theories. Some theories such as “brain based learning” and “right brain vs left brain” were two ideas that always made sense to me. They seemed to link neuro-cognitive studies with pedagogy. That is they made sense to me until I read John T Bruer’s article on education and the brain, where he with clear research shows that “as educators, we should be wary of claims that neuroscience has much to tell us about education” (Bruer 1997). The take home lesson there is that assumptions about learning should be examined carefully and critically.
http://www.learning-theories.com/ has about 40 theories and a couple of paradigms for good measure. So There seems to be lots of choice in establishing just how people learn, in this regard I am with the Wikipedia that divides the learning theories into three big paradigms; behaviorist, cognitive and constructivist (http://en.wikipedia.org/wiki/Learning_theory_(education))
In this mold the following table summarises those three paradigms very aptly.
Models of teaching and learning
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One-Sided Models |
Sociocultural Model |
|
|
|
Curriculum-centred |
Student-Centred |
Teaching/learning Centred |
|
Historical Roots |
Skinner, Pavlov, Thorndike |
Piaget, Chomsky, Geselle, Rousseau |
Vygotsky, Rogoff, Bruner, Hillocks, Dewey: Child and Curriculum Experience and Education |
|
Theoretical Orientation |
Behaviourism |
Progressivism |
Coconstructivism Constructionism |
|
How learning occurs |
Transmission of knowledge: Teaching is telling |
Acquisition of knowledge |
Transformation of participation |
|
Implications for instruction |
Both teacher and student are passive; curriculum determines the sequence of timing of instruction. |
Students have biological limits that affect when and how they can learn; teachers must now ‘push’ students beyond the limits. Knowledge is a ‘natural’ product of development. |
All knowledge is socially and culturally constructed. What and how the student learns depends on what opportunities the teacher/parent provides. Learning is not ‘natural’ but depends on interactions with more expert others. |
|
Student’s role |
‘Empty vessel’ |
Active constructor |
Collaborative participant |
|
Teacher’s role |
Transmit the curriculum |
Create the environment in which individual learner can develop in set stages-implies single and natural course |
Observe learners closely, as individuals and groups. Scaffold learning within the zone of proximal development, match individual and collective curricula to learners’ needs. Create inquiry environment. |
|
Dominant instructional activities |
Teacher lectures; students memorise material for tests |
Student-selected reading, student-selected projects, discovery learning |
Teacher-guided participation in both small-and large-group work; recording and analysing individual student progress; explicit assistance to reach higher levels of competence |
|
Who is responsible if student does not progress? |
The student: He can’t keep up with the curriculum sequence and pace of lessons or meet the demands of prescriptive school program. |
The student: He has a ‘developmental delay’, a disability, or is not ‘ready’ for the school’s program. Often, family or social conditions are at fault. |
The more capable others: They have not observed the learner closely, problem-solved the learner’s difficulty, matched instruction to the learner, made ‘informed’ decisions, or helped the learner ‘get ready’. |
Table from (Jeffrey Wilhelm, Tanya Baker, and Julie Dube 2001)
Personally, through experience I definitely associate good teaching and learning with the third column, social constructivism. Following Davydov in Daniels, “Authentic teaching/learning and upbringing come through collaboration by adults with children, ……….The most valuable methods for students teaching/learning and upbringing correspond to their development and individual particularities, and therefore these methods cannot be uniform” (Daniels 2007), and later the statement that “Davydov’s Program advocates pedagogic responsiveness to an individual learner within a framework that is supported by the concepts of theoretical knowledge” (Daniels 2007).
This makes lots of sense to me however implementation of this in a 40 student classroom is hard, especially the individualistic thing. With the advent of computers in the classroom suddenly this particular grail of individualized response seems reachable. Indeed
Plato pathways is designed to make “individual prescriptions and assigns resources according to each learners path”(Rob Foshay and Corrie Bergeron 2000)
By individualized tuition I do not mean that the learner is left to fend for themselves, Again Daniels quotes Vygotsky in saying “we know that the child can do more in collaboration than he can independently” (Daniels 2007).
Perhaps, more importantly is Daniels (2007) quote of Vygotsky’s stating the impossibility of “direct pedagogic transmission of concepts” (Daniels 2007) “the transmission model , which still dominates classrooms of North America” (Elaine Kolitch and Ann V Dean 1999) It is not only teachers that are responsible for the transmission model but “Students who are familiar only with transmission learning tend to believe that a `teacher [is] a knowledgeable authority for whose wisdom they are paying good money” Meaning that student expectations can negate changes in pedagogy (Shor, 1996, p. 67).(Elaine Kolitch and Ann V Dean 1999)
What else is there outside the transmission model?
“ In the Report to the President on the Use of Technology to Strengthen K-12 Education in the United States (1997), the committee of advisors recognizes the benefits of a constructivist theoretical framework” (Russell, and Schneiderheinze, 2005)
“The engaged-critical model, in contrast to the transmission model, is grounded in the assumption that educators need to take ‘a critical view of the existing society, The aim of mathematics education from the public educators’ perspective (Ernest, 1991) includes `the fulfillment of individuals’ potentials as human beings, a move to a greater awareness of social change, and the fight against injustice’ (p. 295).”(Elaine Kolitch and Ann V Dean 1999)
Why then does the transmission model seem to be the dominant mode of teaching either with software or without it. The preponderance of the transmission model helps to explain the learners inability to carry algorithms to novel concepts. This is supported by Palincsar and Brown in Daniels (2007) stating that “Pedagogies which do not attend to ways in which understanding develops, may, in practice, reconstruct the curriculum in such a way that makes real learning more difficult”
Bottino et al 1999 Vygotsky (1978) in Bottino et al 1999 “ pointed out that the development of high level cognitive functions” (aka learning? )” emerges through the interaction between a subject and the environment within an activity.” Not the use of the word emerge, it doesn’t come out complete and whole but is rather messy and unfinished but is a process , the interaction could be with another learned other or with software programmed by another or with other through the use of software.
Drilling down to real learning we find according to Vygotsky that
“The place where instruction and learning can take place is the zone of proximal development (ZPD). Learning occurs in this cognitive region, which lies just beyond what the child can do alone. Anything that the child can learn with the assistance and support of a teacher, peers, and the instructional environment is said to lie within the ZPD. “(Jeffrey Wilhelm, Tanya Baker, and Julie Dube 2001)
I like to think of the ZPD as the verb of social constructivism, it is the mental space where learning happens, as it is the doing thing, surely there needs to be emphasis on clearly establishing this space in the design of mathware. Now it does not necessarily have to be a teacher that leads the individual through the learning space, but could be a tool, however the tool would have to be well designed in order to adapt as the learner grasps some concepts and fails to understand others.
The “Pathways” approach in the Plato mathware does seem to implicitly try to achieve the repositioning of content based on the learners’ ability, thus promoting a ZPD. Unfortunately this is only seen if an educator chooses the “Fast-Track” option where the learner starts at a designated place then works forward through a range of activities. In the way the software was being used at the College, the lecturers wanted content that was specific to the syllabus at that time. This negated some of the potential in the software in setting up an individual ZPD for each learner. This tension once again related to time issues as was previously discussed.
If we look at this section of the above table on learning models and compare it to the use of Plato mathware there are several interesting observations to be made.
|
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One-Sided Models |
Sociocultural Model |
|
|
|
Curriculum-centred |
Student-Centred |
Teaching/learning Centred |
|
Dominant instructional activities |
Teacher lectures; students memorise material for tests |
Student-selected reading, student-selected projects, discovery learning |
Teacher-guided participation in both small-and large-group work; recording and analysing individual student progress; explicit assistance to reach higher levels of competence |
(Jeffrey Wilhelm, Tanya Baker, and Julie Dube 2001)
The software has the potential to operate in the Student centered
Cognitive space, if the learners are allowed to operate more ore less autonomously. This is problematic from a social-cultural point of view in that there is an observed lack of motivation to learn, coupled with the previously discussed “time for curriculum” constraints.
There is also potential for the software to be used with the socio-cultural model, given the ability of the software to record an individual progress. However group work in Plato system is problematic as there is no support yet for forums or discussion facilities. These problems could be overcome with careful use of alternative forum software. This would mean further innovation and as Russell and Schneiderheinze (2005) point out that for a technological solution there are “both affordances and constraints that mediate the action of the agent” and “When teachers attempt to implement a technology innovation in the classroom, they naturally face the complex challenge of fitting together new ideas with deep-rooted pedagogical beliefs and practices.”(Russell, and Schneiderheinze, 2005)
Because of the constraints mentioned above the software is used primarily in a one sided curriculum centered approach, which closely replicates the dominant transmission pedagogy. This shows quite clearly that the solution is not in the software or the computer but in how the tool is used.
On the other side “The transmission model should not be disdained. It is not a bad characterization of such situations as learning arithmetic basics”(Tishman, , Jay, , and Perkins 1992). They do however raise the caveat that in transmission “The teacher may well teach for understanding, not only communicating number tables but highlighting their logic and systemacity, …. check that these understandings have been adequately transmitted by calling upon students to explain back or to explain to one another how and why an algorithm works” (Tishman, , Jay, , and Perkins 1992). This caveat seems to imply quite an active teacher with a good grounding in the need for collaboration. Collaborative transmission??
To my mind by saying that “the transmission model is useful in some instances, particularly instances of direct instruction. But as a stand-alone model to guide teaching for thinking dispositions, it is simply too narrow” (Tishman, , Jay, , and Perkins 1992)The authors are implying the need for a diverse set of learning processes that will suit the subject matter. Not the Sock view ( one size fits all) Rogoff, Matusov, and White write in (Jeffrey Wilhelm, Tanya Baker, and Julie Dube 2001) that learning is not about ‘transmitting’ or ‘acquiring’ knowledge, but is about ‘transformation’, namely about transforming the nature of one’s participation in a collaborative endeavor.
“Computers plus necessary pedagogical strategies facilitate development of higher order skills”(Ping Lim and Sing Chai 2004), (emphasis mine), and a very important emphasis because what are these strategies, Further they state that a primary motivation for including ICT is that the tools enable learner autonomy , leading to their ability to construct their own knowledge and engage themselves in “cognitive operations that may not be possible in the traditional classroom”(Ping Lim and Sing Chai 2004)
The above comment taken out of context could go a long way to justifying use of any ICT intervention, especially if quoted by unscrupulous salesman, but Lim and Chai do cover themselves by saying that
“ICt is not a panacea in schools , and care and experience are needed when using it”(Ping Lim and Sing Chai 2004)
In the same paper there is a useful division of ICT tools into “informative tools, situating tools,constructive tools and communicative tools. (from Chen Hsu and Hung in Lim, Chai). Having a focus on just one tool type in mathware would tend to limit the effectiveness of that tool in promoting learning.
The paper focuses on higher order skills as based on Marzano et al’s framework, they are namely focusing ,information gathering, remembering, organizing, generating, integrating, evaluating , few of which are present in the simple question answer interface seen in much mathware (Ping Lim and Sing Chai 2004)
Autonomy is promoted through learners own control of rate of learning and sequence of learning, in my observation autonomy did not lead to the stated goals of adopting a more favorable approach to learning but lead instead to opportunity to slack off. I think the reason for this in this western cape college are historical, in that given the current construction of the curriculum they had not been exposed to many situations where independent learning was required, they lack the specific skills of monitoring and making adequate judgments about their progress.
The structure of the software is also problematic in that learners can simply click through an activity, after three clicks the answer is provided for all but the mastery tests. The learners discovered this loophole quite early on, and would quite happily click through an assignment whilst engaged in other conversations.
Very few learners used a pen whilst doing the task which hampered their ability to complete the assignment and or work out an answers to questions that involved more than one layer of thought, The emphasis on steps in maths was then reduced and this led to an opacity in self analysis as to what the learner had got wrong and or why.
In terms of Assessment, the testing function of the software whilst seemingly democratic and learner centered does not offer particular standardized scoring, but only whether a topic was mastered or not. This further reduced the utilitarian aspect of the program. In that the use of the software as a testing tool is reduced. The lecturers can also not use the marks in a straightforward way in their assessment.
Looking closer at the subjects
In everyday use many negative comments from the learners towards the software were directed my way so to further examine the opinions of the students I set up an online survey using survey builder from http://chnm.gmu.edu/ .
I further hoped to get some opinions of learners that maybe were too shy to express them openly. The survey was voluntary and of 40 learners 26 replied. The answers were then emailed to me. I then extracted them using Ditto as my primary tool into an excel spreadsheet.
The results were examined using a qualitative Data analysis process of (Seidel 1998) .
this approach seems logical to me, and when initially looking at the data and wondering how I was going to analyse it, I logically started ordering it into general themes and grouping the answers based on logical ideas. I also like Seidel’s (1998) model as
he describes QDA (qualitative data analysis) as “ Iterative and Progressive: …….In principle the process is an infinite spiral., Recursive and Holographic” (Seidel 1998). These are all descriptions that emphasize QDA as a process and not a finite entity, reflecting my understanding of all activity systems as temporal systems
The questions were qualitative rather than quantitative as I wanted to tap directly into the learners feelings and not constrain their replies in any way. There was also a conscious attempt to try in some way to break down the power structure that would discipline them for saying something against authority.
Using a qualitative process of Noticing, Collecting and thinking (Seidel 1998) sheet I organized the answers into what I considered logical themes of common purpose. In trying to group common answers, something that struck me immediately that there was little reference to actual math topics and the concerns and answers had a lot to do with other issues. Looking at appendix 2, we find 15 out of 947 words were specific to math .015%. This can have several interpretations but one is that the math lexicon is similar to that of a foreign language for the learners.
I further analyzed the results with a simple lexical analysis inspired by Moscarola 2002 who explains that “Lexical analysis is driven by the calculation of word frequencies. Firstly the computer generates a “lexicon” of all words (graph forms) present in the text (corpus). By listing these in decreasing order of frequency and applying filters (e.g. removing “tool words”) we can quickly gain an idea of the main content”
Another theme to emerge was the idea that computers provide entertainment and learning on them should be more fun! This was highlighted by high frequency of “Games” ,“Fun” and “boring” With boring 10th in the frequency list after the removal of most “tool words” (Jean MOSCAROLA 2002). My reading of that is that the learners were simply not engaged by the software.
During the lessons the central role of computer was revealed as none of the teachers stopped the lesson to point out something particularly difficult or challenging. Or reflect to the whole class some particular issue, but rather helped individuals out with questions. In the appendix two I noticed that the word lecturer and teacher had a very low frequency both on .22%, meaning their role did not impact in a major way on the learners.
M. Anderson (2003) in a major literature review of Plato Software
discusses “ instructor-as-tutor” where as “a consequence of the self-pacing and self-mastery the instructor is freed by the students’ increased autonomy. With this freedom, teacher can act as facilitators of students’ learning “ (Anderson 2003) This shows the potential for division of labor in an activity system to change in time, this was also noticed with distributed learning by Russell (2002) where he “became more of a facilitator”.
This change is not a simple or small one in my experience; both teachers and students are habituated to the power dynamics of the transmission model, any movement out of this comfort zone is bound to bring tension. This shift in roles must be made explicit to both students and lecturers with training necessary on both sides.
Conclusion
ICT “may act as a mediator in the acquisition of important skills and competences), as well as on evolution of the education system.” Bottino et al 1999. Quite a responsibility for the digital tools. Then again the pen as tool and the printing press were remarkably powerful in evolving the education system. So much so that maybe it is difficult for us to imagine an education without them. A truly digital education !
It is puzzling to find that modern technology does not use modern methods of learning. Not that Vygotsky or Piaget are too modern. With the advent of the net there is the possibility of realizing learning idealized by Illich in a true social form. However as we have seen in the small activity system that is the college where I work, it is the idealization of transmission pedagogy that has become formalized and co-opts the digital tools to its own devices.
This exploration of the nodes in this specific activity system, some more thoroughly than others, has led to an intriguing look at how a group of learners and teachers are coming to grips with a new technology, the activity system framework has proved a valuable tool to tease out connections and constraints that are part and parcel of learning and stimulated the asking of many more questions.
Bibliography/References
Anon. Center for History and New Media. http://chnm.gmu.edu/.
Becker, H.J. 2000. How exemplary computer-using teachers differ from other teachers: Implications for realizing the potential of computers in schools. CITE Journal Article 1, no. 2. http://www.citejournal.org/vol1/iss2/seminal/article1.htm.
Becky Smerdon,, Stephanie Cronen, Lawrence Lanahan, et al. Teachers’ Tools for the 21st Century: A Report on Teachers’ Use of Technology. Education Statistics Quarterly 2, no. 4. http://nces.ed.gov/programs/quarterly/Vol_2/2_4/e_section5.asp.
Bonnie Nardi, and Jannis Kallinikos. 2007. Opening the Black Box of Digital Technologies:
Mods in World of Warcraft. In 23rd EGOS Colloquium, July 5.
Bruer, John T. 1997. Education and the Brain: A bridge too Far. Educational Researcher 26, no. 8 (November): 4-16.
Daniels, Harry. 2001. Vygotsky and Pedagogy.
—. 2007. Applications of Vygotsky’s work-Pedagogy. In Cambridge companion to Vygotsky. Cambridge University Press, New York.
David Russell. Looking beyond the interface, Activity theory and distributed learning. In Reader in Psychology of Education.
Elaine Kolitch, and Ann V Dean. 1999. Student ratings of instruction in the USA: Hidden assumptions and missing conceptions about ‘good’ teaching. Studies in Higher Education 24, no. 1: 27.
Hardman, Joanne. 2005. Activity Theory as a framework for understanding teachers’ perceptions
of computer usage at a primary school level in South Africa. South African Journal of Education vol 25, no. (4: 258–265.
Harry Daniels, and Anne Edwards. 2004. Reader in Psychology in Education. Routledge Falmer London.
Jean Moscarola. 2002. Contribution Of Qualitative Methods To Research In Work
And Organizational Psychology.
Sphinx Lexica And Mca. Communication To Isswov 2002 VARSAW JUNE 2002.
Jeffrey Wilhelm, Tanya Baker, and Julie Dube. 2001. Strategic Reading: Guiding Students to Lifelong Literacy. In . New Hampshire, USA.: Heinemann.
Mark Busey Anderson. 2003. Features Of Plato, A Computer-Assisted Instruction Learning System, That Promote Students’ Mathematics Achievement: A Literature Review. April 8. http://www.lib.ncsu.edu/theses/available/etd-04022003-171403/.
Papert, Seymour. 1996. An exploration in the space of mathematics educations. International Journal of Computers for Mathematical Learning 1, no. 1: 95-123.
Papert, Seymour, and Harel Idit. 1993. Constructionism, Research reports and essays 1985-1990. Ablex Publishing Corporation, New Jersey.
Ping Lim, Cher, and Ching Sing Chai. 2004. An activity-theoretical approach to research of ICT in Singapore schools: Orienting activities and learner Autonomy. Computers and Education 43: 215-236.
Rob Foshay, and Corrie Bergeron. 2000. Web-based education: A reality check. TechTrends 44, no. 5 (September): 16.
ROSA-MARIA BOTTINO, GIANCARLO CHIAPPINI, PAOLA FORCHERI, ENRICA LEMUT, and MARIA-TERESA MOLFINO. 1999. Activity theory: A framework for design and reporting
on research projects based on ICT. Education and Information Technologies 4:, no. 3: 281±295.
Russell,, D, and A Schneiderheinze, 2005. Understanding Innovation in Education Using Activity Theory. Technology & Society 8, no. 1: 38-53.
Seidel, John V. 1998. Qualitative data analysis. Qualis Research, Qualis@qualisresearch.com, www.qualisresearch.com.
Tishman, , Shari, Eileen Jay, , and D. N. Perkins. 1992. Teaching Thinking Dispositions: From Transmission to Enculturation. Harvard University (August 1). Harvard University.
Uden, Lorna, and Neil Willis. 2001. Designing User Interfaces using Activity Theory. In Proceedings of the 34th Hawaii International Conference on System Sciences - 2001.
Victor Kaptelinin, Bonnie A. Nardi, and Catriona Macaulay. 1999. Methods & tools: The activity checklist. interactions 6, no. 4: 27-39.
www.plato.com. Plato Users Guide. Plato .inc. www.plato.com.








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