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PME 831 - Innovative Curriculum Planning

Introductory Module: Self As a Learner

Fibonacci Sequence

Erika Stanischewski_Fibonacci.jpg

I am excited to present the image that I have attached below as a representation of myself as a learner. The Fibonacci Sequence is found vastly in nature in many different scenarios and I feel a true sense of overwhelming positivity when I ponder the fact that nature is of a growth mindset just like I am.

I believe that my learning is ongoing and, just like the Fibonacci Sequence, it is looked upon as the sum of all my previous learning experiences as growth occurs. Furthermore, I feel this spiral effect as I learn; one thought leads to another and, as I piece my learning together, I end up with merging my ideas as they are built using my previous knowledge much like the concept of a growth mindset. I see learning as ongoing and, arguably infinite, since I firmly believe it is when one stops learning that one stops growing. This is what drives me to push harder, investigate further and again, build on my previous knowledge.

I also believe that learning is derived from all of life’s experiences much like the frequency in which Fibonacci patterns are found in nature. I seize opportunities that present themselves both openly and surreptitiously. I find meaning in the learning experiences that I undertake. I am a firm believer that everything happens for a reason and that lessons are learned from these experiences.

Image Retrieved from Pixabay.com

The pattern in this image and in the Fibonacci sequence in general represents organization in that I approach a learning task in a logical, organized and often an analytical manner. However, approaching learning situations with a more analytical stance has lead me into some trouble at times. For example, I find myself searching for the absolute truth just like a final answer for a math or science problem. I also feel that I spend a lot of time at a task, for many reasons, and I tend to overthink things. As a result, I may have expended what seems to be an exorbitant amount of time for a particular task because I have thought about it so much as I link it to my previous learning. This being said, the extra time spent on pondering yields a decent final product so perhaps it is a means to and end.

Finally, I can’t help but see this image as the way in which I approach curriculum development. I am also passionate about creating relatable and innovative curriculum. As a result, I strongly believe that some of the best lessons come from the world around us and are built from each other just as the Fibonacci Sequence is found all around us; spiraling as the sum of its previous growth. I strive, therefore, to make the lessons for my students rich, applicable and thought provoking. I try to illicit the realization that learning is present everywhere and that the use of one’s acquired knowledge is more frequent than they think (I teach teenagers). And, I appreciate, when I am taught this way as it lights a fire within me that I just can’t extinguish.

Module 1: Current Planning Process

As a high school science teacher, innovative curriculum planning involves structuring my lessons to elicit understanding of the theory, and creating relevant laboratory exercises that put that theory into practice. This allows for different approaches when considering the end goals for every lesson or unit.

Recently, our school board has mandated that teachers use the Charlotte Danielson Framework when planning lessons. This framework also acts as the basis upon which teachers are evaluated. There are four domains in this framework including Planning and Preparation, The Classroom Environment, Professional Responsibilities and Instruction. It is a rather extensive and comprehensive framework and it was designed to “[provide] a common language for instructional practice, as well as a philosophical approach to understanding and promoting great teaching and learning”(The Danielson Group, 2019).

As a result, when planning I consider the depth of my knowledge about the subject matter, how much the students already know, what my expected instructional outcomes should be (as based on the progressions of learning for my subject), as well as coherency in the lesson that then leads into the lab activity. I also believe that innovative curriculum planning involves thinking about how one will deliver the content, and this translates into my instructional practices. For example, will I be the main presenter? Will students work in teams, and am I making these teams? Will I be using props or digital tools? How will I assess the students during the lesson? How will I assess the students after the lesson or unit? How will I adjust when the lessons goes on a tangent? What anecdotal, historical or current events/stories can I use to make the content of the lesson more relatable?

My priority when planning is to ensure that students will receive information that links with the standards of learning, and that they feel what they are learning is relevant to their existence and position in society. I am a firm believer that we should “teach [students] how to be active, productive citizens in a rapidly changing world” (Sternberg, 2008). Furthermore, by choosing how I link the curriculum with life’s relevant experiences, I am demonstrating that I care. “[E]ducators can manifest their care in the choice of curriculum, and apparently chosen curriculum can contribute to the growth of children as carers” (Noddings, 1995).

My go-to resources include the Progressions of Learning (POL), which are a more detailed, spiraled layout of the suggested way in which students should be mastering the topics. This POL was created using the Quebec Education Plan (QEP), and has thus produced a document that is more concise and specific to my subject. I then turn to the course textbook and teacher manual however, I feel that the activities suggested are limited and I often find myself outsourcing ideas. For example, I scour the internet and use other textbooks/workbooks that I have accumulated over the years. However, the most powerful resource that I often rely on is the fact that I use everyday life inspiration and create a lesson from that. For example, after waiting in a hospital waiting room, I was inspired by what I saw to create a “stations” lab that simulated a circuit after completing the theory on the circulatory system. This introduction of such a style of curriculum was a success among my department; so much so, that we have since continued to use this method for several other lab activities including common assessments. I have been labelled as the queen of station labs. Our lab technicians, who are always available for advice from the practical angle, are vital in my ability to create lab exercises that make sense.

Through both individual and collaborative means, I attempt new things. From experience, it usually takes two to three attempts before I have ironed out the details of a new approach to an activity or teaching method, and then this usually requires further tweaking every year as the needs of my students change. I resort back to my go-to resources when trying new things, and try to align my approach with the Danielson Framework as often as possible to be consistent with what is required where I teach.

The main obstacles that I face are time and a lack of material and human resources. My days are so charged and literally run by a bell that I find myself chasing time. I maximize the time I do have available to me whether through PLC initiatives or working an extra hour after school. Budget cuts have hit Quebec public schools hard last year, and we have lost over half our normal budget for science supplies. As a result, we have had to become creative. In some ways, this is proving beneficial, in that more sharing is going on and students are now working more collaboratively than before. In other ways, if something breaks, for example, we face difficulties replacing it.

My strengths, according to our co-created criteria for innovative curriculum planning lie within the Thinking and Student-Centered pillars. It took time to build this as a strength, and I believe that as one progresses in the profession one becomes more daring, and approaches to eliciting student thinking become instinctive. I find my weakness in inclusion. I am also grappling with “what can be meant by a truly inclusive society and a curriculum for human beings” (Greene, 1993).  As much as I recognize students with special needs, have worked with a special education group for 2 years, and attempted to differentiate my lessons, it does not come easily to me and when I try, it is not to a standard that I find acceptable. I also believe that I could benefit from different approaches to assessment, especially trying to gauge understanding as the lesson progresses.

 

My next steps include brainstorming ways in which I can make my lessons more inclusive and differentiated. I will also explore different approaches to assessment like the idea of hinge point questioning to gauge student understanding as the lesson progresses.

References:

 

Greene, M. (1993). Diversity and inclusion: Towards a curriculum for human beings. Teacher’s College Record, 95(2), 211-221.

 

Noddings, N. (1995). Teaching Themes of Care. Phi Delta Kappan, 76(9), 675-679.

 

Sternberg, B. (2008). Excellence for All. Educational Leadership, 66(2), 14-19.

 

The Danielson Group. (2019). Retrieved 25 September 2019, from https://danielsongroup.org/

Module 2: Approaches to Planning

Please click on the tab located to the right of this paragraph to access a PDF document with my analysis of The Flipped Learning Model.

Module 3: Take a Risk to Innovative Curriculum Planning

Taking a Risk by Implementing the Flipped Learning Model

Part 1: Context

 

Although trained as an elementary school teacher with a concentration in the sciences, I have been teaching secondary science for the past 13 years. This year, my workload includes two regular secondary three groups, one secondary four enriched science group, and a secondary five senior biology option class. I do not have any students with significant learning disabilities, but I do have some students with IEPs, who are functioning below grade level. In addition to the handful of students with IEPs, I can distinguish four clear groups of students in my classes; above average, average, below average and significantly below average.

 

Part 2: From Problem to Question

 

I feel the lack of time and pressure to teach the curriculum causes me to fall short in addressing the needs of all my students. I feel my classroom teaching approach does not meet the requirements of Inclusive instruction, which is one of the major pillars in our Criteria for Innovative Curriculum Planning (Shulha, J., 2019).

 

Problem:

 

The secondary 3 science curriculum is heavy and leaves minimal time for review, reinforcement, and the internalization of the content. As a result, class time is often devoted to standard lectures, presentations, lab activities and group learning in the hopes of maximizing the time and resources available. In such an environment, it is often difficult to create an inclusive class and address the different learning styles of the students.

 

Purpose:

 

The purpose of using the Flipped Learning Model is to create an opportunity for initial exposure to course content to happen outside the class on the student’s own time through the use of video lessons, with the expectation that they will be active, engaged and critical of these lessons (Hamdan, N. & McKnight, P., 2013, p.3). This will then allow for in class time to be devoted to well thought out activities that address different learning styles in the hopes of creating a more inclusive classroom involving the content learned through video lessons.

 

Question:

How can I utilize specific elements of the flipped classroom to address the secondary 3 science curriculum in a more efficient manner in order to be able to use class time to create more inclusive opportunities for students to learn while addressing different learning styles?

Created Resources in Support of the

Earth and Space Unit

Using the FLM

Please click on any of the tabs below to access the titled content. It will open up on another page.

Video Lessons

Part 1

Part 2

Part 3

Part 4

Part 5

Part 6

All images used in the PowerPoint were sourced from Observatory textbook and online from sites like Pixabay.com. For a list of sources please contact me. I do not claim ownership to any of the images used.

Part 3: Description and Justification of the Flipped Classroom

 

In the Flipped learning Model, “some lessons are delivered outside of the group learning space using video or other modes of delivery. Class time, then, is available for students to engage in hands on learning, collaborate with their peers, and evaluate their progress, and for teachers to provide one-on-one assistance, guidance and inspiration” (Hamdan, N. & McKnight, P., 2013, p.3).

The risk involved in this approach is two-fold. The novelty and challenge of creating a video lesson that will deliver the same impact as an in-class lecture is rather daunting. Not only will I be giving up what I see as control over these lessons, since I am removing the ability to gauge students’ reaction as new material is presented, but the opportunity for students to ask on the spot questions that may enhance their and other students’ learning, has now been removed as well. I am also functioning on the premise that all students will actively engage with these lessons and come to class with some level of basic knowledge. However, what would normally take over three classes to teach, can now be done in several mini video lessons and this will buy me significant time to create wholesome, well thought out, and catered activities that will hopefully produce a more inclusive class environment, where all levels and types of abilities have the opportunity to shine, thus exemplifying that “[I] want more from [my] educational effort than adequate academic achievement” from all my students (Noddings, N., 1995, p. 2).

To hopefully meet my objective, I will be employing what Dr. Matson coined as “Success through Rapid Accelerated Failure Engineering and Entrepreneuring” abbreviated as STRAFE (Tahirsylaj, A., 2012, p. 267). This “implies that several ideas, or as many as possible, are tried out simultaneously. Such intense activity and idea implementation will enhance learning and will shorten the period from trial and error to success” (p. 267). Furthermore, Intelligent Fast Failure, which is the starting point for these approaches created by Dr. Matson, encourages the principle of “generating ideas, running experiments, and shifting perspectives” (p.267). As I will explain, my approach to fostering an inclusive classroom will involve the rapid and intense exposure to numerous ideas for activities that will meet criteria for differentiation, test their effectiveness and value, which will hopefully lead to a shift in perspective for both the students and myself.

I plan on creating six, fifteen-minute video lessons that will teach the concepts required by the Progressions of Learning for Earth and Space in secondary three science. I will be using a PowerPoint presentation as my visual base, and I will record my explanations to these slides through voiceover. Students will be given a copy of all the PowerPoint slides in addition to a handout that scaffolds how one should approach actively engaging with a video lesson. Students will also be explained this in class as part of the introductory lesson to this unit as we attempt the FLM. Briefly, students are expected to highlight, record any additional notes or any questions that arise that can be addressed during the next class before the planned activities begin. I am doing this to encourage a similar approach to the video lessons as what I know normally transpires in class. These videos will be uploaded to Edmodo, our online platform.

I plan on creating a Learning Evaluation Activity Package that will involve the application of the content learned from the video lessons through activities that are respectful of the Universal Design for Learning, Learning Styles and Bloom’s Taxonomy to create an opportunity for inclusive and differentiated involvement of the students. More specifically, many of the activities are geared towards visual, verbal, physical, logical, social and independent learning styles. Furthermore, according to the Universal Design for Learning, “teachers prepare the learning environment with flexible means, methods, and materials that will allow them to better meet the needs of every student” (Morin, A., 2019). The activities allow for students to show their learning in three ways including written, oral and visual. Finally, Bloom Taxonomy’s hierarchal order of questioning was utilized to incorporate a mixed variety of lower to higher order thinking skills (Heick, T., 2018). The reasoning behind this was for me to gauge students’ ability to think critically and formulate answers.

These activities will run over three days. Three of the activities will be supported by my direct involvement. This will give the students and myself the opportunity to engage in meaningful learning through a structured activity but with my close support and participation in their learning. To facilitate these efforts, I will create a flexible learning environment whereby I will “physically rearrange [my] learning space to accommodate the lesson or unit” (Hamdan, N. & McKnight, P., 2013, p.4). I will move the students out of their traditional rows into groups of four. This will hopefully encourage students to work collaboratively as they tackle each of the six activities. In addition, I have incorporated the use of basic skills and relevant real-life scenarios to hopefully show students that there is meaning in the tasks we do in class and relevancy to worldly issues. This will hopefully be my first attempt at really “communicat[ing] the real-world relevance of basic skills to students” and “leverag[ing] failure effectively in the classroom [to cultivate] flexibility in students” (Miller, A., 2015, p.4).

Assessment of my students will happen in three ways, I plan on assessing students’ level of understanding and ability when working with them at three of the six planned activities. I will also be collecting and evaluating their Learning Evaluation Booklets. Finally, students will have to complete an end of unit test. This will occur after the due date of this assignment, but will nonetheless help with drawing conclusions as to the effectiveness of the Flipped Learning Model.

This may seem like a monstrous task, but I am doing this because of the need for inclusion, and the STRAFE approach seems like the best approach given the short amount of time allowed for such an experiment. Finally, through meticulous and detailed planning, I am meeting the requirement of the FLM whereby intentional content is being maximized by a skilled educator to support the content learned outside the class (Hamdan, N. & McKnight, P., 2013, p.5). Many changes to my regular approach are being attempted, and to some extent I feel like I am relinquishing control. This, in itself, is risky but viable.

Part 4: Ideas into Practice

 

Successes

 

As I set this unit in motion, I was hopeful for the many successes it will allow and the degree to which my students would make me proud. I was humbled by some of the noticeable successes.

The opportunity to create an inclusive classroom environment through various activities that were created and adapted from several sources of inspiration while respecting the Universal Design for Learning, Learning Styles and the incorporation of Bloom’s Taxonomy of hierarchal questioning, was definitely possible with the FLM. I appreciated the time I was able to spend with the students in small groups as opposed to the usual direct instruction. I was able to witness how students processed information and approached the task at hand, and I was absolutely able to see any weaknesses students may have. These included reading, interpreting, formulating coherent thoughts, basic mathematical skills, and in one case a severe lack of interpersonal skills. The first time I worked with the students they were hesitant to interact with me which is completely understandable given the novelty of such an approach. However, once we were in the third interaction, the expectations of how to proceed were understood and to this extent “by establishing classroom norms and routines that support a safe environment, we can provide students with the scaffolding they need as they fail forward” (Miller, A., 2015, p.5). Since this was one of the major reasons for attempting the FLM in my class, I am very satisfied that I was able to create a more inclusive classroom. To be fair, the amount of time and effort that went into creating the details and resources necessary for this success, could deter some teachers from attempting this approach. I myself spent a significant amount of time creating the resources and planning the activities for this unit using the Flipped Model. However, I maintain that it may be more difficult and time-consuming at first, but like all other attempts at curriculum delivery, it gets easier with time and experience.

Another success that came from this approach was the acknowledgment by some students that they appreciated the extra support the video lessons provided. This comment pertained to the more advanced students who were more inclined to manage their learning. After participating in the first round of in-class activities, these students went home and re-watched some parts of the video dealing with topics they found they struggled with that day. This was a desirable behavior that I was hoping for, and I was not completely surprised that my more advanced students took advantage of this option. This also gives me hope that through more scaffolding and even peer-to-peer discussions, this type of engagement with the video lessons could potentially gain in popularity.

The final point that I determined a success would be the STRAFE approach that I utilized. A lot was going on in this unit, but this was done purposefully. Through what seemed to be organized chaos, I was able to take note of areas that needed my attention. For example, as I worked with one group of students, at times the other groups were off task. This was a perfect example of the lack of control I was giving up as I attempted the FLM, and thus the risk I was taking. I did not interpret this negatively, rather as an opportunity to adjust my expectations of the students’ work ethic, and made that clear to students. I noticed other issues that involved their basic skill ability. In the future, when I consider this approach again, I need to incorporate even more opportunities for students to improve upon their basic skills. Clearly, teaching involves a great deal of tweaking, modifying and trying again. With the above as the most profound examples of successes using the FLM, I turn my attention to what I deemed as failures.

 

Failures

 

It was blatantly apparent that I took for granted the students’ willingness to complete the task of watching the video lessons on their own time prior to class. To be able to measure whether students viewed the videos in an engaged manner, upon entry to class I asked students to show me their copies of the PowerPoint presentation so that I could assess whether they were employing the techniques and recommendations for active listening. If students highlighted, underlined, wrote down additional notes and questions, or did any one of the above-mentioned actions, I called this a success. Unfortunately, only 57% of students in one group and 25% in my other group engaged in active viewing. This was unprecedently upsetting to me. Admittingly, I was not fully prepared for such a low participation rate, especially in the class where only 25% percent of students viewed the lessons. For this class, I decided to work with the six students who had wholeheartedly come to class prepared and assigned workbook pages to the eighteen students who had not. I am fully aware that this decision was more for punitive reasons rather than for the students’ benefit, but I was not prepared to revert back to actually teaching the lesson in class. I felt it would have defeated the purpose of this attempt at a different curriculum approach. For my other section, I divided the class into groups making sure that every student, who had not prepared for the class, was placed with at least two other students who had done the video viewing. I then proceeded with the learning activities as planned for this group. In the future, I would have to come up with a better means of ensuring that the learning is done prior to the in-class activity. However, I do not think the solution lies solely in elements of the FLM. I think that this is the perfect Segway for teaching vital skills that border with self-regulated learning.

I believe the videos themselves needed improvement, and the fact that they were my first attempt was obvious. My voice was shaky at times, albeit I also had a cold at the time. I felt rushed, and as much as I wanted to dive into greater detail, I felt I would lose the students if I did. I asked students what they thought of the videos and what suggestions they had for me to improve them. In the end, students suggested that I should be filmed in the process of teaching a class as if they were taking part in direct instruction. I can appreciate how important this may be since I feel that a teacher communicates through body language, active use of the smartboard, writing and emphasizing certain key words or modelling examples of problems. These are all examples of the importance of direct instruction and what students have come to rely on. This would be an even greater risk for me to create videos in this manner but, they could be used to assess how I teach and what I could further improve on. I disagree that Flipped Learning “will eventually replace educators”, as some critics seem to think (Hamdan, N. & McKnight, P., 2013, p.5). I am not yet resolved to say that a FLM is highly successful, but I am able to acknowledge that a lot of time and careful effort needs to go into these video lessons and that they are beneficial to some degree. Even if there is a massive shift towards the FLM, the quality of the videos is still a large component of this model’s success. Poor videos equal poor sources of information for the students.

 

Unexpected Outcomes

 

Dr. Matson identified the importance of serendipity in the practice of risk-taking. Serendipity “means that new ideas will often come unexpectedly while doing something else” (Tahirsylaj, A., 2012, p. 267). In the case of attempting a Flipped Class, I somewhat unexpectedly became aware of the importance of the student’s ability to self-regulate and the degree to which their critical thinking skills are measuring up.

“Self-regulated learning is the ability and inclination to carry out assigned tasks in personally responsible, self-reflective ways, and to exercise reasoned judgement in the pursuit of agreed-upon educational goals” (Gini-Newman, G., 2015, p.117). My students were clearly unable to assess their needs, prioritize and carry out required tasks, particularly when they were on their own. Furthermore, they struggled immensely with critical thinking. Although I did not plan on addressing critical thinking skills in this lesson, it became obvious that I will have to in the future. This then opens the opportunity to take the FLM to the next level.

Failure not an option_edited.jpg

Image from: www.pinterest.com

Part 5: Making Conclusions and Envisioning a Next Step

 

By choosing to use the FLM I was hoping to liberate more in-class time to create an inclusive learning environment through careful planning using tools that support differentiation.

After a busy unit and given the successes and failures outlined above, I am confident to conclude that I was able to create a more inclusive class. However, I do not attribute this success solely to the FLM. The success of the FLM, in my opinion, resides with the teacher. If the teacher is able to skillfully use in-class time in the most productive ways possible, then the chances of students internalizing the potential that the FLM has to offer will be greatly increased. In addition, since this method requires the incorporation of other known innovative curriculum frameworks in order to guarantee its success like Self-regulated Learning and Critical Thinking, it would lend itself well to teaching the skills needed for self-regulation and critical thinking as part of a mixed/blended approach to innovative curriculum planning. And, this is where I find myself when thinking about how to best move forward with my goals from Module 1.

Looking to the future, I will have to concentrate on incorporating elements of other frameworks into the FLM so that students will have a strong collection of basic skills to drawn upon when completing in-class assignments. The potential of having a bank of video lessons to support student learning is where I feel I will go next. There are some topics that simply require direct instruction and there was no way of being sure about this had I not tried and failed. As Dr. Matson stated in the article by Armend S. Tahirsylaj, “it is through the process of failure that you acquire the knowledge of the partial truths which will enable you to develop successful risks” (2012, 267).

References

 

Gini-Newman, G., Case, R., & Woytuck, W. (2015). Nurture self-regulated learners. In Creating thinking classrooms: Leading educational change for a 21st century world (pp. 175–193). Vancouver: The Critical Thinking Consortium.

 

Hamdan, N., McKnight, P., McKnight, K., & Arfstrom, K. K. (2013). Flipped Learning Model: A White Paper Based on Literature Review Titled a Review of Flipped Learning. Flipped Learning Network.

 

Heick, T. (2018, December 11). What is Bloom's Taxonomy? A Definition for Teachers. Retrieved October 25, 2019, from https://www.teachthought.com/learning/what-is-blooms-taxonomy-a-definition-for-teachers/.

 

Miller, A. K. (2015). Freedom to fail: how do I foster risk-taking and innovation in my classroom? [e-Book]. ASCD.

Morin, A. (2019, October 17). Understanding Universal Design for Learning. Retrieved October 15, 2019, from https://www.understood.org/en/school-learning/for-educators/universal-design-for-learning/understanding-universal-design-for-learning#The_Principles_of_Universal_Design_for_Learning .

 

Noddings, N. (1995). Teaching Themes of Care. Phi Delta Kappan, 76(9), 675-679.

 

Overview of learning styles. View of Learning Styles. (2019). Retrieved October 24, 2019, from https://learning-styles-online.com/overview/ .

 

Shulha, J. (2019). Suggested Criteria for Innovative Curriculum Planning. [PDF].

 

Tahirsylaj, A. S. (2012). Stimulating creativity and innovation through intelligent fast failure. In Thinking Skills and Creativity (3rd ed., Vol. 7, pp. 265–270).

Module 4: Approaches to Planning Mash-Up

What is Curriculum?

 

Curriculum is a set of required concepts and competencies set forth in a said discipline along with the skills required to internalize these concepts. Perhaps not as obvious, curriculum, in my opinion, also needs to involve the teaching of life-long learning tools that will benefit the student in all aspects of his/her life.

 

Introduction to my Mash-up:

Under the overarching umbrella of self-regulated learning, a science teacher can find a realm of curriculum practices that will address the needs of the prescribed curriculum and diversity in her classroom. At the same time, Critical Thinking, Inquiry-based and Knowledge Learning, with a touch of Makerspace and STEM learning opportunities, and the use of the Flipped learning model to help with the building of prior-knowledge, are the additional curriculum frameworks that are heavily intertwined and will both enhance and draw from the students’ self-regulated learning skills. Finally, all four pillars of our co-created criteria for innovative curriculum planning are addressed when combining the above curriculum frameworks. Please refer to the Concept Map as you read through the following explanation. You can see it below or click on the tab to open it in a new page.

Mash Up Concept Map.PNG

Self-Regulated Learning:

Self-Regulated Learning is instrumental in creating life-long learners. It “is the ability and inclination to carry out assigned tasks in personally responsible, self-reflective ways, and to exercise reasoned judgement in the pursuit of agreed-upon educational goals” (Gini-Newman, G., & Case, R., 2015, p.177). Furthermore, it is the basis upon which teachers can explicitly teach skills that will foster more independent but focused learners. The tools and skills learned through engaging in self-regulated learning activities can be transferred to all aspects of life. As a result, SRL is a necessary component in the science classroom. If students are expected to internalize the science curriculum in a way that is meaningful and transferrable, then they need to be equipped with learning skills that will foster this objective. Once key aspects of SRL are identified, then these skills can be utilized to approach information from different angles regardless of whether that information is being communicated through direct instruction or through alternative means.

 

The Flipped Learning Model:

With the use of self-regulated learning strategies “most appropriate for various learning tasks” (Gini-Newman, G., & Case, R., 2015, p.178), students can be exposed to subject-specific content through the Flipped Learning Model. In the FLM “teachers make lessons available to students to be accessed whenever and wherever it is convenient for the student […] teachers can then use in-class time to actively engage students in the learning process and provide them with individualized support” (Hamdan, N., & McKnight, 2013, p. 4). SRL strategies that deal with identifying the best learning environment, note-taking and creating understanding from viewed material can be utilized and practiced with this framework. This is an example where both frameworks blend well together in the science classroom. Furthermore, by delivering the required content through video lessons, students learn that they are required to put in a certain amount of critical thinking and effort as they view these videos. In time, they will be able to resort to their best learning abilities when faced with content in this manner. At the same time, questions will inevitably arise from this mode of curriculum delivery. Teachers can then use this as a springboard to launch the concept of Inquiry Based Learning.

 

Inquiry and Knowledge Based Learning and Critical Thinking:

“Inquiry-based learning is an approach to teaching and learning that places students’ questions, ideas and observations at the center of the learning experience” (Capacity Building Series, 2013, p.2). Although the questions come from the students, the teacher can use this opportunity to facilitate the inquiry process through further thought-provoking questions, an environment conducive to inquiry, and access to different means that could lead to answering those questions. IBL can be a great opportunity to teach critical thinking skills both as the question is being refined and during the process of answering the said question. Critical Thinking “is a powerful method of teaching all other aspects of the curriculum – both content and skill” (Case, R., 2004, p.45). If given the opportunity, students can “[make] thoughtful assessments or reasoned judgements” and through this process we can “[help] students think critically [as we] invite them to consider a reasonably complete and appropriate set of criteria” (p.46). What better way to really put the students in a position that require them to focus on an inquiry using critical thinking skills than with the Maker Movement and STEM frameworks in the science classroom?

 

Maker Movement and STEM Frameworks:

Both these frameworks have a particularly influential place in the science classroom. More and more, we are being encouraged to allow students to create, tinker, brainstorm and really internalize the science (and math) theory that is being taught to them through the prescribed curriculum. There is a firm belief that learning happens through the active process of trying and failing. With Science, Technology, Engineering, and Math as the basis for STEM learning, the Maker Movement further adds to this by allowing students the opportunity to play while learning, face failure as an opportunity for further growth, experience a growth-oriented mindset and collaborate throughout the learning process (Martin, L., 2015, p. 35-36). Through the inquiry process, students are able to choose their inquiry question, the teacher can ensure that it links to STEM learning and to the said curriculum, and through a maker mindset, students can practice and draw upon their SRL skills including critical thinking to create, try, and try again. Furthermore, students will be actively engaged in alternating between their learning and performance zones which are paramount in SRL. In addition, reflection will be ongoing as students evaluate, through critical thinking, what is working and what is not (Zimmerman, B. J., 2002).

What is encouraging about this process is that it is highly inclusive in nature. “Because making is free-choice, there is little talk of areas of weakness, or even areas in need of improvement” (p.35). I would expand on this to say that students of all abilities can engage in this process at various levels and even intervals. Arguably, through this process, students can fine-tune their abilities and/or discover that their contributions are in fact valuable. Through more exposure, students will eventually learn the skills and tools that this entire process is aiming for and relate them to the discipline in which they are in. In this case, science.

 

Connection to Our Co-Created Criteria for Innovative Curriculum Planning and Conclusions:

As outlined in the Concept Map attached to this assignment, the intertwining of six curriculum frameworks allows for students to experience all areas deemed vital in a comprehensive innovative curriculum framework. Most frameworks envelope the student-centered and thinking pillars but whether a framework is affective or inclusive is where some frameworks are lacking. However, if one takes key elements from certain frameworks, then affectivity and inclusivity have the possibility of being addressed and not in a simplistic way, but rather thoroughly an all-encompassing manner. SRL is high on my list as an affective framework, in addition to it being student-centered. It also has several aspects of being inclusive especially in its ability to make learning personal to push the learner further in their own personal learning journey. The Maker Movement addresses different learning styles, as do other frameworks, but has the potential to really inspire even the more reluctant learner. The Concept Map outlines this further.

 

As a result, blending the main ideas of these frameworks together, really allows for the addressing of all areas of our co-created criteria in addition to creating a wholehearted approach to teaching science.

 

References:

Case, R. (2010). Bringing Critical Thinking to the Main Stage. Education Canada, 45(2), 45 - 49.

Gini-Newman, G., Case, R., & Woytuck, W. (2015). Nurture self-regulated learners. In Creating thinking classrooms: Leading   educational change for a 21st century world (pp. 175–193). Vancouver: The Critical Thinking Consortium.

Hamdan, N., McKnight, P., McKnight, K., & Arfstrom, K. K. (2013). Flipped Learning Model: A White Paper Based on Literature Review Titled a Review of Flipped Learning. Flipped Learning Network.

Martin, L. (2015). The Promise of the Maker Movement for Education. Journal of Pre-College Engineering Education Research 5 (1), 30–39.

Ontario Ministry of Education. (2013). Inquiry-based Learning. Capacity Building Series,(32), 1-8.

Schula, J. (2019). Suggested Criteria for Innovative Curriculum Planning. PME 831. Queen's University.

Zimmerman, B. J. (2002). Becoming a self-regulated learner: An overview. Theory into practice, 41(2), 64-70.

Module 5: Leadership in Professional Learning - Innovative Curriculum Design

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Summary of My First Peer-Presentation Experience

On November 15, 2019, I had the privilege of presenting my workshop entitled “Becoming a Self-Regulated Learner” at the Quebec Provincial Association of Teachers’ annual Teacher’s Convention in Montreal. This was the first time I presented to my peers and it ended up being one of the most rewarding experiences in my professional career. The passion that I have for Self-Regulated Learning was well-received, and the collaborative and supportive environment created, resonated with all who attended. I prepared thirty packages for the participants, however over 70 were in attendance. It was an inspiring and humbling experience.

"We (teachers), are not responsible for our students' learning; we are responsible for facilitating their learning." -Erika Stanischewski

Why, How and for Whom?

With levels of student anxiety on the rise and more and more teachers expressing their concerns that their students are lacking in basic skills, I felt the need to tackle the root of these modern issues. The concept of self-regulation kept coming back as both a solution and reason to why students are experiencing these issues today. Students are entering the classroom with a deficit the in the ability to self-regulate and the inability to monitor their own impulses and emotions. Furthermore, they seem to expect immediate results and instant gratification. This highly impulsive comportment is taking over our classes, and ultimately perpetuating the fast-paced lifestyle that describes a 21st century citizen. In order to calm this notion down and to isolate it as a potential root cause to our feelings of disconnection in the classroom, presenting “Becoming a Self-Regulated Learner” seemed most appropriate. Self-regulation, when internalized by an individual, can then be transferred into life-long learning skills that can ultimately help guide individuals in all of life’s obstacles. Simply put, teaching self-regulation strategies “[helps] students learn to initiate and regulate their learning … and has significant implications for student success within school and for preparing them to function in a world where there is not always someone present to tell them what to do” (Gini-Newman, G., and Case, R., 2015, p.176-177). The opportunity to present SRL at the Montreal Teacher’s Convention provided a perfect platform to personally convey my message. Please refer to my video presentation whereby I reflect on the presentation, the audience’s reaction and the general experience of sharing ideas with my peers.

Becoming a Self-Regulated Learner Presentation

Hover over it with your cursor and press play. Total viewing time: 55min

How Does it Relate to our Co-Created Criteria for Innovative Curriculum Planning?

 

At the same time, Self-Regulated Learning is a framework that touches upon all parts of what Innovative Curriculum Planning is. It is highly student-centered in that the primary focus is introspective in nature. Students are encouraged to examine their own personal methods for success and examine their weaknesses, and ultimately resort to personally successful strategies that can perpetuate the ability to readjust, reflect and eventually reach an accepted level of personal achievement. SRL is thought provoking; it has metacognition at its core and pushes one to continuously think about one’s thought process.

SRL is inclusive in that it takes on a highly personalized approach. It recognizes that every individual is unique and that what is working for one person may not work for another. Students are encouraged to embrace their differences and needs and to find strategies that will help them succeed regardless of what their current limitations might be. Finally, SRL is affective in that when teachers take the time to work with students and model possible strategies that will help them self-regulate, students feel a sense of belonging and that someone is there working on ensuring that they progress forward and with confidence.

Final Thoughts on my Learning

In closing, after reading the article entitled Preparing teachers for deeper learning: Competency-based teacher preparation and development by Karen Cator, Carri Schneider and Tom Vander Ark, it has become even more transparent to me that teachers need to make necessary changes in their classroom practices and approaches in order to “get-to” the modern student. I believe that embracing self-regulated learning as a necessary foundation for learning, we will be better equipped as educators to train this new generation of learners. As the authors of this article state, “[a[lthough time-consuming, individualized and personalized instruction … [is used] to better address each student’s needs” (2014). Self-Regulated Learning can be seen as time-consuming but, isn’t anything that is worth it time-consuming as well?

References:

Cator, K., Schneider, C., & Vander Ark, T. (2014). Preparing teachers for deeper learning: Competency-based teacher preparation and development.

Gini-Newman, G., Case, R., & Woytuck, W. (2015). Nurture self-regulated learners. In Creating thinking classrooms: Leading educational change for a 21st century world (pp. 175–193). Vancouver: The Critical Thinking Consortium.

Shulha, J., (2019). Criteria for Innovative Curriculum Planning. Queen’s University.

Going Further: Ongoing Resource Sharing

In the true spirit of ongoing professional development, I decided to create a one-stop shop location for all the resources I am encountering that deal with Self-Regulation and Self-Regulated Learning. The goal of this website is to have a convenient location for these resources so that my peers will be able to sift through and potentially find something of use or be inspired to create their own material. 

It is not finished by any means, but will be an on-going project for me to work on as I continue to embrace and implement self-regulated learning in my classroom.

If you would like to offer any suggested resources, please feel free to contact me from that website or with my e-mail address below. Of course, I am attributing discovery credits and authorship to all resources found.

 

Yours in Education!

Comments and Suggestions from Participants of my Workshop

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