Monthly Archives: February 2017

Social Construction of Knowledge

The Jasper materials respond to the issue of students’ inability to transfer knowledge between topics, to deconstruct large problems into smaller tasks, and to deal with the often poorly defined nature of real world problems. In my experience, this has certainly been a problem for students. Fundamentals taught in isolation from real world problems often fail to engage students and result in both poor retention of concepts and the inability to exercise them effectively in unique situations.

The current literature I have read from past/present members of the CTVG and analyses of their work suggest that anchoring skills in an authentic and complex problem is a particularly effective way to promote learning and critical thinking skills. Group work on these problems is a central aspect of the creative problem solving process as students construct their understandings of the problems and their possible solutions and then test them out on each other (social construction of knowledge). The Jasper materials deal with these observations through challenging and complex problems in a video format. The video format may help to eliminate some of the accessibility difficulties of students with reading difficulties (universal design for learning).

The Jasper series of videos appear to be underpinned by two main philosophies: Cognitive Apprenticeship (Brown) and Social Constructive Theory (Zygotsky). The apprenticeship philosophy embraces doing the work of a discipline in an authentic way. In the Jasper video “rescue at Boone Meadow” students are introduced to the types of variables pilots would need to consider when solving a situation in which flight might be the best solution. Social cognitive theory is present in the above notes social construction of knowledge during group work. It is also present in certain teaching approaches to the use of Jasper videos whereby teachers help to point students in the right direction without given them an answer or a walk through. This guiding aspect allowing students to achieve at a higher level reflects Zygotsky’s zone of proximal development.

This series of videos represents several unique affordances for a learning technology. It main aide in preventing premature closing. The extension task prompts students to consider other possible dimensions to the task that may exist in the real world. The development of skills in think beyond the textbook case of a problem are essential to developing good critical reasoning and planning. Socially, it offers a look ahead of its time to crowd sourcing. The unique experiences of the group members around similar real world situations may yield unexpected and intriguing solutions.

In terms of conceptions vs. misconceptions, these videos present a situation that must be carefully managed. By interacting with each other students will either ameliorate or exacerbate each others’ misconceptions. Students with firm and correct conceptions may help other students to revise their misconceptions but, conversely, students with strong alternative conceptions more closely rooted in their everyday experience may convince other students to abandon correct conceptions for more viable seeming misconceptions. Frequent perception checks from teacher would be necessary in using these materials.

Unfortunately, I did not run across a lot of efficacy studies in the readings I chose this week. In choosing the design a TELE final project I was more interested in reading about design principals. I am looking forward to seeing some blog posts from the people who may have come across these studies.

Schulman and PCK Reflections

In Schulman’s reflections we see the recent development of a distinction between knowledge and pedagogy. The idea of teacher competence has shifted towards competence with pedagogy rather than the historical view of teachers as the holders and disseminators of knowledge.  With the emphasis  on classroom management, organizational skills,  assignment creation and questioning formats, planning and assessment strategies Schulman proposes that an important piece is missing. We should be asking  questions about how the content of the lessons is taught. The important questions of where teacher explanations come from, how decisions about teaching are made, how to represent content, how to question students and how to deal with problems of misunderstanding are integral to sound practice. He proposes that by asking these questions we can begin to build information that can address gaps in these areas.  Content deserves as much attention as the elements of teaching process.

He disseminates this further, breaking down knowledge into 3 components: content knowledge, pedagogical content knowledge and curricular knowledge, all of which should be robust for education to be rich and for an optimal teaching and learning environment.

In my own classroom I am currently teaching the concept of time to grade 2 students. When teaching this concept, the background knowledge in skip counting by 5’s and well as previous understanding on time to the hour both on analog and digital clocks is helpful. It can be a difficult concept for some students because the numbers on the clock 1-12 also correspond with skip counting by 5’s all the way from 0-60. The hour is 60 minutes, there are 5 minutes between each number on the clock. So, there are a lot of competing mathematical ideas for young children to simultaneously understand. In addition, there are several different names for time. There is 6:30 and half-past 6:00. There are 6:45 and a quarter to 7:00. In addition, with a heavy reliance on telling time digitally, for example on a mobile device, many parents are not discussing time or telling time using an analog clock at home. Yet, it is still in our  curriculum.

When I teach time I usually have the children construct a model of their own clock with paper and this is a scaffold for them as we begin to explore the concept. In grade 2 the curriculum asks for us to explore 15 minutes on the clock, so 6:15, 6:30, and 6:45.  I begin by reviewing time by the hour and having a discussion with the students about why it is helpful or important to learn to tell the time. We brainstorm ideas and discuss this. Then we begin to map out different important times within the day at school, nutrition break, lunch, recess, etc. On idea I have been reflecting on lately is the fact that time is viewed different within different cultures, and I would like to explore this more fully as I am only teaching from my perspective of linear time. Some cultures believe in circular time.  This brings me back to PCK.  Just because an educator has knowledge of something does not mean it will fit within the structures of our school. Time is limited and decisions need to be made based on many factors.

Digitally I use an interactive clock on the smart board to practice telling time, and I also have children engaged in time games which helps solidify understandings in a fun way. Telling time is a skill that can be taught in school, but for it to be useful the students need to “need” to use it in real ways in their lives. So I introduce the concept, allow them to try using it in school and hopefully in grade 3 and so on they will continue to grow in their understandings and ‘need” to be able to tell the time.

Shulman, Lee S. (1986). Those who understand: Knowledge growth in teaching.  Educational Researcher,  15,  2., pp. 4-14.

Ideal Pedagogical Design

The ideal pedagogical design of a technology-enhanced learning experience for math and/or science would be based on innovative teacher and student practices. Constructivist activities would allow for student led learning, with teacher as facilitator. As Kozma (2003) notes, teachers are not the disseminators of information but rather act as the “guide on the side”, providing planning, structure and ongoing check-ins and assessment for learning. With this type of learning, the educator must have proficiency using technology tools and platforms in different ways, so ongoing collaboration between educators as well as ongoing training would be an important piece of this puzzle. The pedagogical design would take into account the availability of appropriate technology tools as well as providing stimulating questions or wonderings in which the students would be able to choose their learning path but still be provided with scaffolding throughout. These questions or wonderings could then be linked to the curriculum through purposeful guidance by the educators and through looking for patterns and links between the queries and the curricula. Students would be encouraged to work collaboratively and to reach findings and to use technology to its full capabilities including analysis, problem solving, designing and implementing.  Students would be encouraged to reflect on their learning, share through a variety of presentation tools and continue to incorporate new technology tools in their learning.

Robert B. Kozma (2003) Technology and Classroom Practices, Journal of Research on Technology in Education, 36:1, 1-14, DOI: 10.1080/15391523.2003.10782399

A conversation with Punya Mishra

Dear Class,

I really enjoyed reading this week about how you would teach particular content in your classrooms or organizations. In each thread, where possible, I tried to identify the “PCK” in the post, as it will be helpful to orient future posts by you in Modules B and C.

The concept of PCK has had tremendous influence in educational research. And more recently, TPACK has emerged as a new concept. As your posts emphasized in this forum, PCK suggests that educators have (or ought to inspire to have) a specialized knowledge base that goes beyond content or disciplinary knowledge or knowledge about how to teach. As shared earlier, Shulman calls the knowledge of a teacher an “amalgam.”  The amalgam includes the two aforementioned knowledge bases plus knowing how to teach particular content (or as some view, what is it about the content that makes this teaching method appropriate). In addition to the techne (or the how we teach particular content or topic areas), Aristotle suggests that we also articulate the value of doing so this way.

The technological domain or (T) put forward this idea that teachers not only need PCK but knowledge of how to teach particular content with particular technologies (TPCK or TPACK). TPACK is a powerful concept that has been reflected in recent dissertations on it. I have written about TPACK in some of my papers (Khan, S. (2011). New pedagogies on teaching science with computer simulations. Journal of Science Education and Technology, 20(3), 215-232).

In a recent conversation with Punya Mishra, I talked with him about the TPACK concept. We discussed how do we best delineate the “interstitial spaces” of this concept. Dr. Mishra shared with me that he is impressed by new questions from students that have taken this concept and attempted to delineate mergers where T meets C, K, and P. What do these look like? Your posts have begun this conversation this week. We shall endeavour in our discussions in Module B and C to think in terms of PCK and TPACK using topics of your interest.

Sincerely,

Samia

Reciprocal Interaction

Aligning closely with my personal definition of technology as interactive affordances, is Jonassen’s (2000) thinking on technology as “cognitive affordances”. Jonassen supports constructivist methods of learning and suggests that technology use requires students to think purposefully about how and why they are using technology while inquiring, knowledge building, problem solving, collaborating and self assessing. In addition to Jonassen’s perspective, technology defined as interactive affordances requires students to actively participate with technology through an actual relationship established through processes of input and reciprocal output. Generally within the interaction, the student is required to provide input while the technology responds with output. This type of interaction augments the learning experience for the student, creating a reciprocal environment; the student and technology participate in a dialogue experience, rather than the student passively receiving a technological monologue.

In designing a TELE (technology enhanced learning environment), incorporating the following five areas of learning is ideal: planning, collaborating, creating, sharing and reflecting. Each of these five areas requires an interactive approach with technology, along with an engaging relationship with varied digital tool possibilities. Designing spaces that allow for individual and collaborative learning provides opportunity for students to synthesize and articulate their own ideas, and then join together with others to receive feedback and new ideas. Collaboration and feedback also include teacher scaffolding through questioning, comments and formative assessment. Interactive affordances and the reciprocal nature of learning within this TELE occurs because of relationship with both the technology and other individuals.

 

Jonassen, D. H. (2000). Computers as mindtools for schools, 2nd Ed. Upper Saddle River, NJ: Merrill/ Prentice Hall. Retrieved from Google Scholar: http://scholar.google.com/scholar?q=Jonassen+mindtools&ie=UTF-8&oe=UTF-8&hl=en&btnG=Search

Using technology to maximize student learning

Pedagogic Content knowledge is an area of and Technological Pedagogical Content Knowledge are significant theories in the teaching profession.  As we all have experienced at some point in our academic studies, great researchers do not always equate to great teachers.  As a teacher, it’s not just about knowing content, but being able to convey information in a way that it understood by the audience (i.e. students) in the classroom.  As far as educational technologies is concerned, teachers that employ ePCK, integrate technology in a way that maximizes students learning (Koelher et al, 2006).

When approaching a lesson the technology employed should never be chosen first, then the content and knowledge.  Teachers should decide what the end goal or competency is that they want their students to have, and then investigate if there are way to weave technology into them mix.  As Koelher et al (2006) states, technology should be used in a way that enhances the lesson.  Something to be mindful of as teachers, is to not focus too heavily on all areas of TPACK at the same time.  Koelher et al (2006) mentions that students can feel overwhelmed when their teachers focus too heavily on developing their content and technological knowledge all at once.

I recently did a class activity where I sent the students an excel file with data on the times when the ocean was at high tide and low tide. We had spent some times prior discussing the phases of the moon and the gravitational influence on the ocean water.  Then they investigated how the times changed different times of the year in different regions of the world. They choose a country and researched how the changing phases of the moon, seasons and orbit impacted that particular country certain times of the year.

 

Mishra, P., & Koehler, M. (2006). Technological pedagogical content knowledge: A framework for teacher knowledge. The Teachers College Record, 108(6), 1017-1054.

Subject matter as a “vehicle”: What are you driving?

In Shulman’s “Knowledge and Teaching: Foundations of New Reform” (1987), he provides readers with an analogy that implies that our subject matter is a vehicle that will “service other goals” (p. 7). He continues to assert that at the secondary level, “subject matter is a nearly universal vehicle for instruction” (p.7).  Near the end of his paper, he provides us with the example of the talented English teacher with two degrees, who lacked grammatical confidence.  When teaching topics that were not in her wheelhouse, she transformed into a “didactic” pedagogue, lacking confidence and displaying anxiety.

I would be lying if I never felt like a didactic pedagogue, early on in my career!  When I started out, I taught a lot of Junior Science, which meant  teaching Biology and Chemistry, two subjects that I did not have beyond a first year level of instruction. The lack of knowledge base, shook me to my core; I am certain that my lack of confidence was obvious to my students, as well. In time, I grew more comfortable with the material, but never above the level that I was teaching. Thankfully, in the last twelve years, I have solely been teaching Mathematics and Physics, but being thrown a junior science is a possibility, every year. <insert wheezing sounds>

What I have learned in my time at the wheel, is that it is OK to not know everything, but it is important to know enough.  And without question, it sure helps to have a solid grasp of at least one year above what you are teaching. Preparing students for their next course is very difficult, when you personally do not understand the material in the next level up!  So to answer my question, these days, I feel like I am driving a pretty solid BMW, although stick me with Junior Science and hello 1977 Ford Pinto.

***

One strategy that I have only recently used, is to teach/review algebra with my FPC Math 10 (academic math) class, having the students sit in pairs of their choosing. Each pair has a table top whiteboard (London Drugs sometimes clears them out…), marker and eraser.  I review the basic “moves” and reinforce opposite operations and remind them that the order of the “moves” is important (“Reverse BEDMAS”, usually helps them remember).  Then, we do a series of increasingly difficult algebraic problems, WITHOUT variables. For example, rearrange “2 + 3= 5” for 3.  My approach is to reinforce that “if it works on the numbers, it will work on the letters.”  The students work in pairs and flash me their answers.  When students are struggling, I send other students to help, that have already shown me their work. The goal is to increase student interactions— Vygotskian social learning!  During which time, I am discussing proper notation (where to put the = sign, working vertically, using fraction bars for division, etc.). What I am finding is that is is a huge confidence boost for my low folks, because they can find their own mistakes (clearly, 3 doesn’t equal 5/2, for example). When we leap into the variables, I can then attach the more abstract algebra to the concrete algebra.  Practically right away, we can then start throwing our symbols across the equal sign, completing multiple steps simultaneously.

I chose this as my example because it exemplifies how important it is to have a knowledge base beyond your subject material. Being a physics teacher, I know how important it is to be comfortable with symbolic manipulation.  My colleagues without the physics, tend to not prioritize symbolic manipulation prior to substitution. What they don’t seem to understand, is that it is far more efficient to rearrange before substituting and it is critical to do so from Physics 12 onward.

***

Shulman, L.S. (1987). Knowledge and teaching. The foundations of a new reform. Harvard Educational Review, 57(1)1-23. Retrieved from chrome-extension://oemmndcbldboiebfnladdacbdfmadadm/http://gse.buffalo.edu/fas/yerrick/UBScience/UB_Science_Education_Goes_to_School/21C_Literature_files/shulman,%201987.pdf

These Challenging Times

Dear class,

Cullum wrote the poem,

The robin sang and sang, but teacher you went right on.

The last bell sounded the end of the day, but teacher you went right on.

The geranium on the windowsill just died, but teacher you went right on. (Cullum, 1971, p. 58).

In the spirit of Cullum, I have been compelled to write given the tragedy in Canada. I know many of you are reaching out to your own students this week about painful events in the US and Quebec City. We cannot hear accents, see physical limitations, or know that you might wear a headscarf in this online place. In some respects, online education might be akin to a borderless classroom. I cherish the fact that we can and are able to participate in this environment.  But I recognize too that we must work to maintain an inclusive environment that honors the diversity of our community and society at large. This we can do with our welcoming words that communicate the value of such diversity with our students and colleagues. Our actions with our children, such as introducing a science project that began in a country from “the list,” might also go a long way too– and you will have other classroom ideas. I would also like to share with you a book about how institutions and organizations can respond to challenges in these times in society written by my colleague, a sociologist, Dr. Robert VanWynsberghe http://www.utppublishing.com/Adaptive-Education-An-Inquiry-Based-Institution.html.

Attached is a link to a statement from our Canadian Society for the Study of Education on the US and Canada sent today and below are resources for UBC students in these challenging times and responsive panel events being held at UBC.
Thank you for allowing me to share here, Samia
Sent on behalf of Diana Jung, Strategic Initiatives & Special Projects Coordinator-Wellbeing
Good morning Everyone,
 
In light of events in the U.S. and Quebec, we wanted to reach out to share some of the key supports that are available to the campus community.  As Wellbeing Liaisons, it is helpful to be aware of these resources and supports and to share them with your colleagues. Many of the following Vancouver campus resources were highlighted in a recent update/message to the campus community from President Ono (http://president.ubc.ca/featured/2017/01/30/ubc-condemns-violence-against-muslims/ (Links to an external site.)):
 
Emergency
If you have immediate safety concerns for yourself or others, call 911.
Information about hate crimes: hatecrimebc.ca
The non-emergency phone number for the RCMP on Campus is 604 224 1322

Equity & Inclusion Office (Links to an external site.)
For anyone experiencing racism, harassment or discrimination, the best resource on campus is the Equity and Inclusion Office, in Brock Hall, 604 822 6353 or
info@equity.ubc.ca (Links to an external site.).
 
International students who would like to speak with an advisor about immigration questions or travel advice or questions about their student visa can contact International Student Development at 604 822 5021 or international.house@ubc.ca (Links to an external site.). After hours, you can contact Campus Security (Links to an external site.) and you will be directed to an on-call advisor.
 
Counselling Services (Links to an external site.)
Students seeking mental health support can contact Counselling Services (Links to an external site.).  Faculty & staff wishing to talk to a counsellor can call Shepell (Links to an external site.) Care Access Centre at 1 800 387 4765.
 
After hours community resources:
Vancouver Crisis Line – 1 800 SUICIDE (784 2433)
Crisis Centre BC (Links to an external site.)
 
Emergency Financial Support
 
Provides 24/7 security services, including safety planning, and can be reached at 604 822 2222
 
Chaplains at UBC (Links to an external site.)
Chaplains of several different faiths offer support to UBC students, faculty and staff.
 
Additionally – these events may be of interest to our community:
 
Vigil
Students, faculty and staff wishing to express their solidarity can attend a vigil on Saturday, February 4 at the Al Masjid Al Jamia mosque: 
http://vancouver.carpediem.cd/events/2439016-vigil-in-solidarity-with-quebec-city-mosque-at-al-masjid-al-jamia-vancouver/ (Links to an external site.)
 
Ban the Ban: A Learn-in for UBC Students, Faculty, and Staff
This panel is an immediate and urgent response to President Trump’s Executive Order which imposes a 90 day suspension of visas and other travel documents on nationals from 7 countries – Iran, Iraq, Libya, Somalia, Syria, Sudan, and Yemen.  Join UBC Students and Faculty for a discussion that connects the ‘Muslim Ban,’ the Keystone XL/ Dakota Pipelines, and Standing Rock; historical precedents to the Order; and how the ban will affect Muslims in the identified countries and beyond.
St. John’s College, Social Lounge
Friday February 3rd, 2017
12-1:30pm
University of British Columbia
Unceded Musqueam Territory
 
Within the Vice President Students portfolio, we are working in collaboration with campus partners to address the needs of all students. If you have specific student concerns that are not addressed with the resources listed above, please let us know and we can work together to address these concerns.
 
Best,
Diana & Patty

PCK and TPACK Skill

One aspect that struck me about PCK and TPACK is that, in certain ways, it does help to identify the qualities that make a good educator and a good educational plan.  By connecting the conceptual, pedagogical, and technological knowledge a teacher has, it provides a guide to thinking about teaching.  Shulman develops this further in a discussion about what he terms “aspects of pedagogical reasoning and action” (1987).  Still salient currently, Shulman breaks down pedagogical thinking into various aspects that, in sequence, help to formulate the process of teaching, from personal comprehension of the topic to selecting and delivering lessons and activities to the assessment of student work.  Many of what Shulman lists can still be considered relevant in teaching although the fluency in technology must now be considered.  This point is made more evident by Shulman qualifying his “Aspects of Pedagogical Reasoning” section by claiming his presumption that the teacher is starting with some form of “text” only, with no consideration for other mediums of knowledge.

My own personal experience with TPACK (although I did not think about it in such terms) came in a Science & Technology 11 course in which I did a unit on bridge building.  Throughout the design of the unit I went through the various stages that Shulman discussed, from comprehension (understanding trusses and force distribution), to transformation (planning lessons and designing activities), to instruction (lessons), and evaluation (assessing their final bridge projects).

Interestingly, discussing teaching as a set of pedagogical skills helps to identify something as intangible as “good teaching”.  Certainly knowledge in the pedagogical, conceptual, and technological areas is needed, but effective teaching comes from an educator’s ability to meld the knowledges together and not only develop lessons, but to deliver them well.  This intangibility is acknowledged by Shulman later when he warns that an overly technical approach to teaching robs it of its human quality, stating that “we must achieve standards without standardization” (Shulman, 1987).  This is an important consideration when discussing technology integration as technology (currently, anyway) is not yet able to operate with as much flexibility and adaptability as a human can.  Thus, the T in TPACK becomes ever more crucial as educators and administrators continue to make decisions on which technologies to use in the classroom.

 

References:

Shulman, L.S. (1987). Knowledge and teaching. The foundations of a new reform. Harvard Educational Review, 57(1)1-23