Category Archives: learning


What Do We Mean By Learning Anyway?

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A Connected Educator Month 2015 Event starting on October 1st! Join Peter Skillen and me in a collective, month long, discussion to: extend and deepen our understanding of the term learning What Do We Mean By Learning Anyway? participate in … Continue reading

Invent To Learn – A Must Read for Schools

by Sylvia Libow Martinez and Gary Stager, Ph.D
20130520-Invent-to-Learn-BookOne of the greatest joys of being a connected learner is the fact that I’m meeting so many friends from all over the world who are also people from whom I learn so much.  Meeting them virtually sometimes leads to meeting them f2f, hanging out at conferences, working along with them, and reading their blogs and articles, but I’m getting a kick out of buying their books!

I bought Gary Stager and Sylvia Martinez’s book, Invent to Learn, sight unseen, because I know their brilliant work and applaud their mission to elevate much of what we see in educational technology implementation (not always a pretty sight)  to higher levels. This book is a must read for all educators and administrators who are interested in muddling through the many choices for technology use in your school with STEM in mind — it will help you see the light!  They provide enough theoretical background to provide you and/or your teachers with knowledge of the giants who came before us, and to more deeply understand effective learning theory (constructivism) and effective teaching theory (constructionism). They also mention pioneers in the field of ed tech that every educator ought to know, but, strangely enough, don’t always (e.g., Seymour Papert, Cynthia Solomon, Brian Silverman, Sherry Turkle to name just a few). They then suggest 3 “game changers”  for your school or classroom  – fabrication, physical computing and programming.  I was thrilled to see that we are on the right track at my school with a recent grant award that focuses on all three of these! :)  Gary and Sylvia also provide lots of information and ideas about the practical planning of how to get started with these interesting game changers.  As a teacher I have always loved that blend of theory and practice in resources that I choose.

What’s critical in a book like this, and what Gary and Sylvia accomplish really nicely, is that the concept of maker space is outlined within the context of a school culture that puts authentic student learning and passion at the forefront, along with an acceptance that co-learning along with students is a great way to model our learning stance as teachers. Great advice from the authors to the educators reading this book is: “Less Us, More Them”. The tinkering mindset and the cycle of making — which they call TMI (Think, Make, Improve), and the fact that students are empowered agents in their own learning, are just as important as the making itself.  For this reason making can involve technology or found materials or art supplies. It’s more about a bricolage approach…working with the best of what you have on hand.

If you are interested in more about what the current interest in coding and maker spaces can offer, this is a great book for you!

Knowledge WITH technology: A case for intelligent learning

I came across this post today where Donna Fry mentions thinking about twitter as a library. This reminded me of some related thinking I had been doing back in library2005 when I was considering the role of technology with the analogy of the ‘library’. I thought it might be fun to dig it up and post it here, imagining that during the 10 years that have passed it would seem really outdated, but you be the judge on that one. Kind of funny when ideas from colleagues converge like this, so thanks to Donna!  I think I remember have a similar conversation with colleague @peterskillen about the library analogy as well. :)

Knowledge WITH Technology: A Case for Intelligent Learning

First submitted to Dr. E. Woodruff – 2005 – OISE

Defining technology

 A student stands in the doorway of a large library on campus, volumes filled with information and knowledge, some written recently and many far more antiquated. It is with awe that she realizes that the openness of the world of education is reflected in the way that a wide variety of thoughts, opinions and research are recorded. Looking forward to the opportunity to delve into the midst of many of those books and materials, the student is also aware that this is a formidable task; it will be critical to find some guidance, direction and wisdom to interpret all that she needs or wants to learn.

Today, students of all ages might experience this same exhilaration in front of a computer, but certainly the academic, administrative and political bodies of schools have been engaged in a lengthy discussion of the value of technology in education.   Curiously, that discussion seems to be focused primarily on the computer as technology and does not always involve the wide range of technological tools used in classrooms today. In the scenario depicted above, most academics would not dispute the value of their campus library, visiting frequently during their careers (either online or in person), and even aspiring to be published authors themselves.   It is a widely accepted fact that books are an important tool for learning, but one could argue that the fact that they are merely present in schools does not ensure their effectiveness. This paper will attempt to clarify that some computer technologies in schools can move students beyond the shallow transfer of information and skills and toward a development of a more intelligent kind of learning that promotes deeper understanding.

The move toward constructivism and intelligent learning

Learning is an internal, unobservable process that results in changes of belief, attitude or skill (Scardamalia 2003), and this elusive quality promotes a variety of approaches that attempt to create, explain and document student ‘learning’. During the 1960’s, the work of Jean Piaget began to move theories of education away from a Skinnerian approach that focused on observable behaviours. In this behaviourist approach reinforcement was provided as necessary to create learning, without much concern with the processes of the mind.     Piaget’s theory acknowledges the influence of maturation and he believed that learning was developmental, with the mind influencing what is learned. The learner constructs knowledge based upon his/her view of the world and therefore individual experiences will affect how new information is assimilated into the individual’s schematic organization. The teacher shapes the learning experiences for the student through a process of guided discovery by creating those effective individual experiences in the environment. This was a move away from the direct instructional approach of behaviourism and toward a more active, exploratory model. More recently, another approach to education and instruction, called the socio-historical approach or social constructivism, acknowledges cultural influences on individual learning; learning is a social process that involves others, primarily through language. Internalized language and knowledge creates learning, and teachers can promote the development of knowledge through apprenticeship and discourse.

Constructivism and social constructivism have been the foundation for a related approach, called constructionism, that while less widely implemented, often involves the use of computer technology. Seymour Papert, as a student of Piaget’s and a mathematician himself, began to study how children could use computers to enhance their knowledge of mathematics and developed constructionism as both a theory of learning and a strategy for education with constructivist roots in the belief that knowledge is actively constructed in the mind of the learner, not simply transmitted from the teacher to the student (Papert 1993). Students are not merely ‘banking’ information to be recalled when necessary (Friere 1970), nor are teachers required to ‘fill up’ their students with isolated facts (Bereiter 2002).   Learners actively construct and reconstruct knowledge out of their personal experiences in the world and constructionism takes this a step further; while working through authentic projects students are involved in building personally meaningful artifacts that demonstrate their knowledge.   Affect has a prevalent role in the quality of student learning according to constructionists. Learners are more likely to be intellectually engaged if activities are personally meaningful and this usually involves building or creating something that can be shared with others. Central to the theory is also the emphasis on the diversity of learners; learners make connections with knowledge in many different ways and therefore are given a variety of choices in how to demonstrate their learning (Kafai and Resnick 1996). Constructionism encourages multiple learning styles and varied representations of knowledge.

With such a variety of approaches to educational practice and considerable controversy about the effectiveness of these approaches, perhaps it is also beneficial to focus on the kinds of learning that we would like to see happening with students.   While the debate is on-going about how learning can be measured, I believe that many educators would agree with the following definition of the kind of graduate we hope that schools will be promoting: independent, mindful thinkers, skilled in life long learning, capable of intelligently handling complex problems alone and in teams and guided by some social values hat transcend egotistic benefits (Salomon 2000). After reading about many types of learning theories and theories of instructional design, I would argue that the kind of intelligent learning that we are seeking for our students involves active, engaged participation that is socially situated in the authentic context of real problems that involve personally constructed knowledge.

Learning with technology, not from it

Our student in the campus library must decide how and why to approach all the information with which she is presented.   She finds that despite the information that is available, it will not automatically bring her success in her education. Her professors prefer she create ideas, collaborate with her classmates, and make her thoughts explicit in presentations and papers. She begins to realize that reading, digesting and reiterating the theories of others is not knowledge, and that she can actively participate with others in the creation of new knowledge right now, while at the same time accumulating a foundational body of knowledge.

In comparing the computer to other educational technologies, it’s uniqueness is best observed when it is put to use in powerful ways. The computer is not merely an information machine, although users may count web-surfing, calendaring and email among their primary uses. Seymour Papert explains that all new technologies follow the same path of development in that the first uses are “to do in a new way what was already being done” (Resnick 1994). Using computers merely as information storing and retrieving machines maintains the behaviourist viewpoint that someone else should decide what knowledge is important and needs to be poured into the heads of students (Bereiter 2002).   The computer is thought by some to be simply a fancy new way to do this with more pizzaz, colour, graphics, sound, and fancy fonts. Being lulled by powerpoint presentations may be one example wherein traditional lecture methods are updated in appearance but may essentially remain the same pedagogically. Critics often move to the conclusion that if we can’t measure what the students have learned from technology, then why do we have it? It becomes a question of corporate cost/benefit rather than an understanding that learning is an unobservable cognitive process that is not easily measured. Gavriel Salomon eloquently outlines this point as a disappointment in technology; “the consistent and historical tendency of the education system to preserve itself and its practices by the assimilation of new technologies into existing instructional practices” (Salomon 2000). Scardamalia also supports this disappointing view of technology in that “many uses of the web are simply old methods repackaged to look new” ( 2002 ) . Papert calls it the “just a tool fallacy”; that education has failed “to distinguish between tools that improve their user’s ability to do pre-existing jobs, and another kind of ‘tool’ that are more than just tools because of their role in the creation of a job nobody thought to do, or nobody could have done before”. He refers here to innovation through Resnick’s creation of Star Logo, a robust computing language that addresses the educational need of exploring complex systems while providing the tool to do it (Resnick 1994). Educators who use technology effectively realize that the critical discussion is how students learn with technology, rather than what they learn from technology.

Information machines or knowledge machines?

Our student is becoming weary and losing motivation. Using her course syllabus she has begun to read ahead before classes get started, only to find that is difficult to remember what she is reading. She tries to make notes, but in the absence of a larger question to explore, nothing seems to connect. There is so much information there in the library which she can locate effectively; she knows her way around the cataloguing system, knows how to check books out, understands the use of indexes, tables of contents and reference materials. She knows how to use the information …..but to what end?

Salomon’s second disappointment is the technocentric focus that is widespread in schools. He states that we must “be careful not to just focus on the acquisition of skills pertaining to merely the use of technology rather than the pedagogical focus” (2000). While new technologies may make a learning revolution possible they certainly don’t guarantee it, just as having a school library doesn’t ensure that all students using it will develop the same quality of understanding. Resnick reminds us that if we want people to become better thinkers and learners we need to move beyond thinking about computers as limited only to their information storing and accessing capabilities. People create ideas, and the computer is a medium through which people can express and create through a variety of design activities. Resnick states that to become ‘digitally fluent’ it is not enough to know how to use technological tools, but we must be able to create something of importance with them. (Resnick 2002).

Of course, it is also important to remember that there should be a strong pedagogical focus to activities using technological tools in all learning activities. Scardamalia and Bereiter acknowledge that the constructivist principles of active engagement and participation are essential to learning but that some constructivist approaches can be found lacking in their ability to help students create knowledge. They caution against shallow constructivism in classrooms wherein tasks and activities, that may on first glance appear very active and engaging to students, do very little to support the advancement of knowledge. They define knowledge building as

     “the production and continual improvement of ideas of value to a community, through means that increase the likelihood that what the community accomplishes will be greater than the sum of individual contributions and part of broader cultural efforts – therefore not just limited to education.” (2003)

In our current ‘knowledge age’ it is essential, according to Scardamalia, to encourage people to work creatively with knowledge and move beyond access to information. The goals of a knowledge society as identified by Bereiter (2002): lifelong learning, flexibility, creativity, higher-order thinking skills, collaboration, distributed expertise, learning organizations, innovations, and technological literacy, may sound similar in part to other constructivist approaches but there are important extensions that make it unique.   There is collective responsibility (i.e. that the responsibility for the success of the group effort is distributed across all the members rather than being concentrated in the leader and that the responsibility for creative knowledge building resides with the entire group). This may also sound at first like other collaborative activities that happen in classrooms, such as project-based learning (pal), or cooperative learning. Indeed, while pal could have a knowledge building component, what appears to be different is the purpose: the students being directly involved together in “advancing the frontiers of knowledge as they perceive them”, and consequently creating unique conceptual artifacts.   For classroom teachers this means the frontiers of knowledge for a particular student community, not in the sense of feeding them more information to regurgitate to the group, but in involving them in actually exploring and developing knowledge together in as sophisticated and important a way as a scientist may do.   This important work is done through generating excellent questions, hypothesizing, gathering and analyzing information, testing theories, explaining and debating ideas and selecting relevant possibilities amidst the messy and often ambiguous reality of authentic problems. The teachers’ role here is quite clear; rather than creating hidden tasks and activities that may or may not help the learners connect information to the knowledge building at hand, the activities are chosen to advance the knowledge building of the group and the purpose of the activities is not hidden from the participants. Scardamalia and Bereiter do not argue that knowledge building is the only type of instructional approach that might be used in effective schools (2002 ). There is a place for direct instruction, as well as other pursuits such as putting on a play, or creating a model or multimedia projects. These examples, however, are not the knowledge building activities that are more likely to produce a conceptual rather than physical artifact and that use the computer as an exceptional tool for the collaboration and reflection that enhances intelligent learning.

How can technology enhance knowledge building?

Since merely the fact that you can do something with technology does not necessarily mean that it should be done, educators are left with the challenging task of sorting out those purposes that enhance individual and collective knowledge and those that do not.

Confusing the process are the environmental restrictions put upon students and teachers concerning technical issues with hardware and software (including access, operational ease and technical support), the time constraints of rotary subjects, separating students by age rather than interests, lengthy curriculum expectations to ‘cover’ and provincial assessment initiatives.   Having now participated in my first knowledge building community through a computer software called Knowledge ForumR , I can say that the use of this particular computer technology makes the purpose of building deeper understanding through collaborative knowledge building, clearer and more meaningful. CSILE (Computer Supported Intentional Collaborative Environment) began as a cognitive approach to writing that has evolved into Knowledge ForumR, focusing particularly on the promotion of deep understanding through intentional collaborative discourse. Its roots in constructivist theory are clear; successful participants are engaged, participating, questioning what they don’t know, helping others and exploring their own thinking by connecting with the thoughts, ideas and wonderings of others. The addition of scaffolds help to make the writer’s thinking clearer and deeper. As thoughts become explicit through notes and dialogue the group works together to delve deeper and build knowledge as a community of learners. It involves in-depth study of topics in a setting where the technology becomes transparent and virtually disappears, allowing the primary learning activity rise to the surface.

There are other examples of excellent technological tools that can enhance the activity of learning: the use of PDA’s or handheld computers can engage students in collaborative activities that enhance knowledge building, tele-mentoring programs can match students with expert-like novices for lengthy discussions about authentic issues and problems, programming software like Star Logo and Squeak can build a community of learners engaged in complex activities that require more than mastery of information, and web-based interaction such as blogs can unite web learners for a variety of constructive purposes. Having a chance to look specifically for the knowledge enhancing applications of technology rather than informational ones illuminates clearly the two requirements that Salomon indicates as necessary for information to become knowledge: 1) tutelage, (the human touch), either in person or online, and 2) a community of learners (Salomon 2000). These two components were certainly a powerful component of my experience as a student using Knowledge ForumR.   Intelligent Computer Tutoring programs, most computer mediated communication programs such as forums or threaded discussions, and drill and practice software do very little in the way of providing collaborative tools such as those required for knowledge building (Rochelle and Pea 1999).   As information tools they may have value, but clearly to promote deeper understanding it is the constructivist, collaborative nature of knowledge building that should be the focus of much of what we view as deeply meaningful educational pursuits in this knowledge age. While technology is an important tool, we must remember that it doesn’t magically transform information into knowledge for users any more than the library can transfer information to knowledge for readers, without the active construction of knowledge.

Research support

As if the selection, implementation and effective use of technology wasn’t a huge undertaking in its own right, there is also the added demand for accountability. There are many stake-holders in technology education, many of whom have not entered a classroom since their own days in school or the early days of their teaching careers, but who are demanding a quick and simple answer to the question of which hardware and software will magically demonstrate student learning, usually in the form of neat and tidy test scores.

Most teachers could provide a really effective measure of an engaged and productive classroom: walk in and talk to kids. Salomon’s final disappointment about technology is that we are misguided in our research. We continually ask the wrong questions, comparing one type of technology to another, rather than examining the virtues of specific technologies in terms of their effectiveness as learning tools.   The questions shouldn’t be, for example, does the use of desktop computers produce better learning than handhelds? Or, is it better to have a teacher or a library? Rather, we should be asking, under which conditions does a library become a successful tool for learning and under which conditions is a computer a successful tool? Not surprising to many educators, research indicates that traditional classrooms are better at producing mastery of recalled information and constructivist classrooms produce better improved skill of question formulating, hypothesis generating, and ability to tackle a new problem (Salomon 2000). This does not mean that the investment in technology isn’t worth the money because tests designed to measure recall might drop, it means that we have to devise new ways of being accountable for the other kinds of valuable learning that happens with technology.   We cannot be sure where we presently reside along the continuum of education with technology, nor the kinds of roles that teachers will adopt as technology evolves, but we can be sure that a powerful potential exists for technology to enhance and extend our collaborative knowledge building through learning communities if we insist upon effective, critical use of technology tools with a clear pedagogical purpose and vision in mind.



Bereiter, C. (2002). Education and mind in the knowledge age. New Jersey: Lawrence Erlbaum Associates, Inc.

Fishman, B., (2003). Linking on-line video and curriculum to leverage community knowledge. Chapter 3 in Using video in teacher education. Elsevier Ltd.

Friere, P. (1970). Pedagogy of the oppressed. New York: Continuum.

Kafai, Y., & Resnick, M., (1996). Constructionism in practice: Designing, thinking, and learning in a digital world. New Jersey: Lawrence Erlbaum Associates, Inc.

Ong, J., & Ramachandran, S., (2000). Intelligent tutoring systems: The what and how. Learning Curcuits:ASTD’s online magazine all about e-learning. Virginia, USA.

Papert, S., (1993). The children’s machine: Rethinking school in the age of the computer. New York: Basic Books.

Papert, S. (1980). Mindstorms: Children, computers, and powerful ideas. New York: Basic Books.

Resnick, M. (2002 ). Rethinking learning in the digital age. In The global information technology report: Readiness for the networked world. Edited by G. Kirk-ham. Oxford University Press.

Resnick, M. (1994). Turtles, termites, and traffic jams. Massachusetts: MIT Press.

Rochelle, J. & Pea, R. (1999). Trajectories from today’s WWW to a powerful educational infrastructure. Educational Researcher, 8 (5), 22-25.

Salomon, G., (2000). It’s not just the tool, but the educational rationale that counts. Keynote address at the 2000 ed-media meeting. Montreal, Canada.

Scardamalia, M., & Bereiter, C. (2003). Knowledge building. In Encyclopedia of education, Second Edition. New York: Macmillan Reference, USA.

Scardamalia, M. (2002). Collective cognitive responsibility for the advancement of knowledge. In B. Smith (Ed.), Liberal education in a knowledge society (pp. 67-98). Chicago: Open Court

Making Thinking Visible – Getting started with routines

10999036Making Thinking Visible is based on the work being done at Harvard’s Project Zero and is part of a larger study of Cultures of Thinking about which you can read more here.  The book provides a background about why a thinking focus is important and provides an introduction into the Thinking Routines that are recommended as a way to bring the theory into practice in the classroom.  I’ve found it a nice combination of going deeper into our professional practice as teachers, and practical suggestions that we can implement quickly and reflect upon as we go.  I’m fortunate to be involved with a group of primary teachers at my school who are exploring the text and trying some of the routines as part of their Collaborative Inquiry: How might inquiry-based learning look in a primary French Immersion program?

We’ll be each trying one of the routines from the first section of this book to get us started in discussion at our next PLC meeting, but first I thought I would attempt to briefly summarize the first part of the book.

Here is one of the authors,  Ron Ritchart, explaining why we need a culture of thinking in schools.

In the introduction of Making Thinking Visible the authors ask the question:
What kinds of thinking do you value and want to promote in your classroom?
And, as we look at the kinds of activities in the learning environments we create in schools…
What kind of thinking does this lesson/activity force students to do?
These questions are causing me to look more closely at what happens in my classroom.  I’ve always known that my job as an educator is to create an environment that fosters learning — sounds easy — but in reality, this is a really complex undertaking.  I realize that I can’t ‘make’ someone learn something, rather, the learner needs to be a partner in that process and the definition of ‘learning’ needs to be considered carefully and not be confused with compliance or fleeting knowledge accessible only in certain contexts.  I know that much of learning is unobservable (going on in the head of the learner) and my job is to help make it visible in order to help a learner keep moving forward.
The authors suggest the following activity which would be great for any teacher to try:
 Make a list of all the actions and activities with which your students are engaged in a subject you teach. Now, working from this list, create 3 new lists:
1.  The actions student in your class spend most of their time doing.  What actions account for 75 percent of what students do in your class on a regular basis?
2.  The actions most authentic to the discipline, that is, those things that real scientists, writers, artists, and so on actually do as they go about their work.
3.  The actions you remember doing yourself from a time when you were actively engaged in developing some new understanding of something within the discipline or subject area.
What Is Thinking?
The authors do a really nice job of talking about what they know about thinking, what they have learned about thinking, and what they mean by thinking in the first section of the book.  Although they acknowledge that there are lots of kinds of thinking, they are specifically talking about types of thinking that are particularly useful when we are trying to understand new concepts, ideas, and events  — which is often the kind of thinking we are doing in schools.

They outline 8 thinking ‘MOVES’

  1. Observing closely and describing what’s there
  2. Building explanations and interpretations
  3. Reasoning with evidence
  4. Making connections
  5. Considering different viewpoints and perspectives
  6. Capturing the heart and forming conclusions
  7. Wondering and asking questions
  8. Uncovering complexity and going below the surface of things

If you’ve ever questioned the way you’ve seen Bloom’s taxonomy used, as I have, you’ll enjoy the critique the authors provide there, but that’s another blog post altogether.

The Thinking Routines

“When we as teachers frame our core activity not as delivering the curriculum to a passive group of students but as engaging students actively with ideas and then uncovering and guiding their thinking about those ideas….(we strive to) make students’ thinking visible through our questioning, listening and documenting so that we can build on and extend that thinking on the way to deeper and richer understanding.”  (p.39)
The authors also describe the power involved when teachers make their own thinking explicit to students and model the high-quality conversations about thinking and ideas that should happen in our classrooms.  Both the idea that students need to be focused on the kinds of thinking that actually occur in world of real mathematicians, scientists, writers, artists etc., and the awareness of the power of co-learning, remind me of the amazing contributions of Seymour Papert in his study of how children learn – it’s no wonder I love their approach in this book!
The 3 categories of structures in Part 2 of the book, which they call routines, are selected for their ability to promote questioning, listening and documentation in these three areas:
  1. Introducing and Exploring Ideas
  2. Synthesizing and Organizing Ideas
  3. Routines for Digging Deeper into Ideas
Our first exploration involves choosing one of the routines in the area of Introducing and Exploring Ideas, trying it with our students and then sharing what we notice and wonder about the process as beginners. I’m choosing Chalk Talk as the routine that I’m bringing to the meeting.  Should be some great sharing and learning!

NEW! Mindomo Mind Mapping for Ontario Learners

OSAPAC has announced the release of a new Mind Mapping tool, called Mindomo, that affords some exciting new possibilities for demonstrations of learning and collaboration.

Screen Shot 2014-11-28 at 9.09.11 AMThis is a web application that students will access through a code that a teacher sets up in an easy process that is attached to their School Board email address.  I’ve had a chance to explore this tool and I love the way that it’s very easy to edit and add media like pictures and youtube videos to enhance student work.  There is also a great presentation mode, which allows students to create a presentation by zooming in on parts of their mind maps.   Templates are also included that provide editable maps in a variety of educational topics.

One of the best features of Mindomo is the fact that students can collaborate on their maps and share them out in many different formats.  Along with this collaborative feature comes a revision history so that collaborators and teachers can see when and how often people are working on their mapping projects — you can even receive notifications to get emails when changes are made to the maps.

No tool is perfect, and Mindomo is continuing to develop and add new features all the time.   There are a couple of limitations I’ve found, and using the following work-arounds has helped:

1) Mindomo does not have an outline view in the same way that you might expect to see in other Graphic Organizers.  You might be used to creating a mind map graphically and then, with the click of a button, seeing a textual representation of your thinking to organize main ideas and supporting details, which students could then use with other writing tools like Google Docs or Word.  With Mindomo, you’ll want to export your map as a .txt file, and then indent, number and add to your text document in a way that suits you.

2) Adding labels to a connector link turns your mind map into a concept map. With Mindomo, you can ‘add a label’ to a connector link when you use floating topics.  There is a quick create option for creating maps efficiently, you just can’t delete the connectors (or relationships) or add labels to them using this mode. Screen Shot 2014-11-28 at 10.35.42 AMResources

Folks on the OSAPAC Committee have created a Public Folder where you can go for information about how to get access to Mindomo along with video tutorials to help you get started.  You can access those resources on the OSAPAC Website by clicking the Mindomo button currently on the Home Page or by going directly to the public folder here.

NEW! From OSAPAC/CCPALO: Digital Resources


OSAPAC/CCPALO is the Ontario Software Acquisition Program Advisory Committee that has been working hard over the last year and a half, in collaboration with the Ontario Ministry of Education, to bring some new educational resources to Ontario students and teachers.  As a member of the committee, I’m excited to be a part of sharing these out (most recently at #bit14 and #OntEdleaders events) and hope you’ll provide some feedback to us as you get using them!

A NEW and improved website!

Check out the new look of the OSAPAC Website.  It’s clean, streamlined, and includes all of the features from before such as: a list of the licensed digital products, a survey for teachers to indicate their wish list of software or applications that respond to student learning needs, information about the committee, and a FAQ section to address common questions.  New this year is the Project Section where the following projects are stored:

Digital Citizenship

LargeCompHeader002Classroom teachers gathered together in the summer of 2014 to create a package of resources (cross-curricular and Primary – Secondary) to help teachers integrate and implement digital citizenship into their programs.  This resource arose from multiple requests from Ontario teachers for assistance in Digital Citizenship; these requests were left on the OSAPAC Survey.  They developed four categories of digital citizenship that involve action oriented do’s, rather than don’ts, that support considering digital citizenship as part of the on-going culture of the classroom rather than an isolated unit or discussion.  Existing resources have been collated and applied in example lessons in a wide variety of subject and grade levels.  These lessons were designed with multiple entry points in mind; teachers can navigate through a list of resources, or use an example of a classroom connection that outlines an authentic task and includes curriculum, technology and digital citizenship links.


In order to help instructional leaders, administrators, teachers, and other educators understand how Ministry licensed digital resources can be used to help facilitate and support evolving classroom practices, OSAPAC has developed some scaffolded supports around licensed products. The SAMR model provides a useful framework to help identify opportunities for learning afforded by technology, and can be a great starting point for those beginning to consider the pedagogical power of tech tools, and can also be useful for those more comfortable with the tools but who search for transformative ways to effectively integrate technology for student learning.

Teachers from around the province have shared lessons integrating OSAPAC software, and other free tools, with the Ontario Curriculum in mind.  These lessons involve taking the reader on a walk through the SAMR framework, starting with how the software could Substitute a traditional activity, and then moving up through Augmentation, Modification, and Redefinition.   You’ll also find some reflection videos from the teachers who created the lessons.


OSSEMOOC is a third project from OSAPAC where Mark Carbone (@markwcarbone) and Donna Fry (@fryed) are nurturing a dynamic, open online community of formal and informal school leaders from across the province.   In learning with and from others, educators are finding out how to become connected leaders and learning from others who are leveraging social media tools in practical ways to make learning environments even better.

It’s been exciting to work with teachers and OSAPAC committee members to create these projects — please share your feedback with us if you have any.  Also, don’t forget to access the OSAPAC Survey and share your needs for digital resources!



School Improvement Plans Are Everyone’s Business

Making our SIP (School Improvement Plan) come alive!

This year I heard about someone on Twitter who decided to post their Board Improvement Plan in a visible space at school to share with students, parents and the community as you see in the photo below.

SIPAfter hearing this idea via @leblancpeter @tlobaker and @nhamilton647 my Principal, @davidpmarquis, and I have decided to implement this in our school this year with a few additions.

Some big ideas are driving our thinking:

  • a vibrant school is one where everyone is learning
  • digital artefacts allow us to share in new ways
  • administrators should model their efforts to try new things
  • administrators should be helping to ‘tell’ the stories about meaningful learning in which students, staff, parents and community members are engaged
  • making thinking visible helps us to build knowledge as a community
  • constructing artefacts help us to articulate our learning to promote dialogue
  • pedagogical documentation needs to be purposeful

How will we do this?

We plan to post an image of the SIP in our hallway at the front of the school that links to photographs and documentation that will demonstrate our learning goals for the year and plans for school improvement. We’ll need to convert some of our current edu-speak into lingo that makes better sense to parents and students…this will be great!  We’ll take that a step further and create this digitally as well, so that QR codes posted could take visitors to more interactive online spaces like teacher websites, interviews with staff, students and parents, and evidence of our great learning spaces through text and images as well.

In implementing the thinking routines from Making Thinking Visible from Project Zero at Harvard this past year, I’m thinking that many of the routines for synthesis and exploring ideas will fit in perfectly. I will try to post this work in progress as we get going and share our hiccups and successes!