PBL v2

So my yearlong experiment with problem-based learning has concluded.

After attending Exeter Math Institute last summer, I decided to overthrow my units and use problems as the foundation of how my kids learned each day. Throughout the course of the year, week by week I wrote a bunch of original problems, edited others that I already had, and stole the rest. In the end, there were 349 problems which I would classify as mediocre at best. These problems (and other practice, including DeltaMath) were the vehicle that my students used to learn algebra 2…and be adequately prepared for the Regents exam on June 14. The 12 whiteboards wrapped around the walls of my classroom provided the platform for my students to dig into these problems each and every day.

It was idealistic, but this change was inspired to help my kids be more independent and interdependent problem solvers. I took a huge risk because I didn’t know what heck I was doing. Despite some early struggles, I stuck it out because I believed in the process and knew that real change would take time. I constantly adjusted to support my kids as they pushed themselves out of their comfort zones. There were tears. There were instances where I felt like I bit off more than I could chew. Despite support from my admin, I still felt alone because I was doing something so different, so radical, from the rest of my colleagues. It wasn’t their fault. I was hard to relate to. Mine was a messy, nonlinear pedagogical stance to teaching mathematics and, as such, others stayed away. In the end, although folks wished me well, I had no one to talk to about the day-to-day, nitty-gritty roadblocks that I ran into. Other than an independent trip to Exeter and an awesome visit from one of their teachers, I worked in isolation. This only intensified my struggles.

Anyhow, the result of all this was an uplifting, rejuvenating, and stressful school year. I have some major takeaways that will inspire next year’s work, PBL v2. I’ll let them breathe here.

  • Don’t think that students will value my perspective on learning simply because I say its valuable and worthwhile. There was going to be a natural struggle involved with learning through problems, but I did a poor job of setting them up for dealing with it. Next year, the first 1-2 weeks will be all about helping them meet my expectations. This may include modeling how they should approach the problems using prior knowledge and independent research, encouraging uncertainty, showing them how to document their thinking, and how to use classmates as resources. I also want to present the research behind how and why I’m structuring their learning experiences.
  • A more diverse set of instructional routines to discuss problems. This year I used student-led Harkness discussions, rotating stations (group speed dating), Desmos Activity Builder, structures unique to the specific problems, and traditional, teacher-directed lessons that focused on anchor problems. Before the year began, I was worried about having the right problems as they are so pivotal in this setting. As the year progressed, I realized that I overlooked the pedagogy behind implementing the problems. Even with a focus on small groups, uniform Harkness discussions simply won’t cut it for a class of 30 every day. While it is and will continue to be a foundation of what I do, students quickly tire of the routine. I’m also thinking that exploring the use of protocols may be worthwhile.
  • Better engagement during group work. On most days, I gave students lots of freedom when discussing the problems of the day. For much of the period, they were on their own to construct their own (with guidance from me) understanding of the problems and the related concepts. Trust was baked into each day’s discussions; their thinking inspired the success we had each day. Some days were great, but on plenty of occasions, they did what teenagers do: be lazy. I’m wondering what else I can do to foster more consistent engagement during these small group discussions.
  • More metacognitive journaling. I did one in the spring and I liked it. They chose a recent problem and analyzed their own thinking around it. They told the “story” of how they arrived and understood the solution. They were a lot to grade though. Maybe one per marking period?
  • Be better with parents. I need to have a much more transparent and stronger relationship with my parents. I almost got around to inviting one into my classroom. Nonetheless, I need to clearly communicate how students are learning, why it’s important, and how I will support them along the way. Some parents had reservations about my approach and they definitely didn’t hold back from sharing their thoughts.
  • Use standards-based grading. Because I didn’t have explicitly defined units for students, when they encountered the problems, they didn’t have the crutch of knowing they were working on “section 2-4,” for example. They needed to use the context of the problem (and work done on previous problems) to discern what to do. I really like this because it made more challenging for students, but it handcuffed me when because I couldn’t find a way to accurately identify and document their understandings on exams, other than a vague, overarching percentage like “74%.” I thought deeply about this a lot and decided I will need to sacrifice a little PBL to assess meaningfully and authentically. Next year, I still don’t see having units, but I do think I will attach concepts to problems, at least to start. At the start of the year, when I give them their problems, I will also give them an exhaustive list of concepts that the problems elicit over the course of the year. I will number the concepts (eg 1-52) and each problem will have an indicator showing which of the concepts the problem connects to. Maybe over time, I can move away from this and students can make the problem-concept connection on their own. Either way, with well-defined, itemized concepts, I should be able to assign qualitative measures to each student’s understandings (needs improvement, developing, proficient, mastery). Whew.
  • The above would allow for more meaningful retakes of exams. With “corrections,” this process was a joke this year. There was no meaningful learning and we were all simply going through the process of applying an informal curve to their exam grades. With SBG back in the fore, this means that my post-exam procedures will look more like last year.
  • A nonlinear approach to learning mathematics. A huge plus of the PBL as I implemented it was that it gave me the opportunity to interleave concepts like never before. Not only did I marry concepts together in natural ways that are harder to achieve with discrete units, but I was able to space out concepts over the course of several months when it would traditionally be crammed into a three-week unit and subsequently forgotten. The most obvious example of this is trigonometry. We did many problems over the course of four months, each being a small step that got us closer to learning all the concepts from the unit. All the while, students were learning about other concepts as well. I can definitely improve my sequencing of problems but, again, since concepts learned are nonlinear, this makes recall more challenging for students and harder to forget.
  • One formal group assessment per marking period. These are just too valuable to not include on a regular basis. The kids love them. Plus, real learning happens during an assessment! They include two-stage quizzes, group quizzes, and VNPS quizzes.
  • Assign problems that will be formally collected and graded. In addition to the daily problem sets that are worked on for homework and usually discussed the following day, I want to give one meaty problem that’s due every two weeks. I’ll expect integrity and independent solutions, but students are free to research how to solve them using whatever resources they want. This will hopefully promote deep thought and a formal write up of math on a complex problem. I would love to have students type up their responses. I foresee using the Art of Problem Solving texts to find these problems, at least to start.
  • Using DeltaMath as a learning resource, not just practice. I was surprised by how big of a role DeltaMath played in my students’ learning. Given the lingering Regents exam, my kids relied heavily on the ‘show example‘ feature of the site to explore and solidify key ideas brought out by problems that we discussed during class.
  • Check homework randomly, I think. Because I didn’t check homework at all, the majority of students didn’t do it. Since the homework consisted of problems that were the centerpiece of following day’s discussion, it was a necessary component of the class. I wanted students to internalize that if they didn’t do it, they would be lost the next day. It’s ok if they didn’t understand, but they had to try. Well, that didn’t happen. Most kids just tried the problems in class the next day and set us all back. A colleague gave me feedback that students will give priority to things that have incentives, like points. I get it, but refuse to accept giving a carrot for homework. To compromise, I may check the homework of a random set of 5-7 students each day. Any student is fair game and, by the end of the marking period, every student will have roughly the same number of homework checks. I had tested this out in May and I think it triggered some initiative amongst students to do homework. I also like the idea of possibly administering a homework quiz that’s based on the previous day’s homework. If they didn’t do the homework, they’ll struggle…and I’ll offer tutoring for them to make it up.
  • Deliberately teach problem-solving skills. I had a flawed expectation that students would somehow become better problem solvers by simply solving a bunch of problems and have discussions about them. While that happened for some, at the end of the year most of my students grew minimally when it comes to their actual problem-solving abilities. I’m still trying to figure out exactly how to get better with this, but I know purposeful reflection will play a big role. I will also need to help surface specific PBL skills for kids. I want to bring in the question formulation technique and problem posing. This is still up the in air…and I’m reading a lot about this right now.
  • Be uncomfortable. It’s a great thing. In past years, I unequivocally strived to have students that were comfortable and at ease with everything we did in the classroom. I hoped they would find what and how they learned as easy and unproblematic. If I’m frank, I did a pretty good job of that. This year, I landed on the cold realization that, in many ways, my students should be uncomfortable. How else will they grow? As this post showcases, I led by example.

That’s all I have for now.

A lingering thought. Years from now, I’ll probably look back at all this and realize that I was fighting a losing battle, that I was too idealistic, that my time with students could have been used more effectively. I’ll look back and see how foolish I was. Yes, foolish to think that I could somehow establish a subculture within my classroom of independent and interdependent problem solvers that relied more on themselves than on the teacher. A subculture that places little value of remembering a formula or procedure for a quick fix, but instead focused on the mathematical relationships, collaboration, productive struggle, and prior knowledge to own what and how they learned. I’ll laugh at myself and shrug it off as me being ignorant. I’ll recognize that my goals were too lofty and practically impossible in a day and age of teacher-driven learning, high-stakes exams, and point-hungry motivations.

With this in mind, I can’t help but quote Maya Angelou: “I did then what I knew how to do. Now that I know better, I do better.”

 

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10%

We teachers learn early on that exams should reflect what students have learned. They should attempt to measure what was taught, to capture student understanding in a way that helps drive future instruction.

But lately, I’ve been asking myself, what if I included material on exams that students haven’t explicitly learned? What if I expected them to stretch what they did learn to apply it in a new way?

Specifically, I’m thinking that 10% of each exam would be stuff that students have never seen in class or homework. It would be unknown to the kids before they saw it on an exam. This 10% would push students to expand and enrich what they did learn. It would allow me to bridge pre- and post-exam content and possibly preassess things to come. It would trigger meaningful reflection afterward which, I hope, would cause students to genuinely learn something new. It would also help me measure how far their understanding of the mathematics will take them into uncharted territory — which is probably worth it in and of itself. And besides, the oh-so-high-stakes Regents exam in June is filled with problems that neither they nor I could have predicted…so why not prepare them for this all throughout the year?

All that sounds great. But what scares me is the unethical nature of it all. This is where my preservice days haunt me. How could I possibly hold my kids accountable for material they’ve never interacted with? Is that fair? This unpredictability for the students is making me second guess myself.

Although, I am only thinking about what’s expected now — which is that exams will follow suit with the problems they’ve already done. But what if this unknown 10% was a norm that was baked into our classroom culture from jump? What if it was something students understood and acknowledged going into every exam, an inherent challenge I placed on them to demonstrate their mathematical abilities to new ways?

 

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I don’t give a damn about points.

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I check homework daily for completion at the beginning of each class. This serves two purposes for me:

  1. To ensure that they’re doing it. In other words, to give them points.
  2. To meaningfully assess their level of understanding on the mathematics involved and use this knowledge to facilitate a class discussion.

My problem is with 30 students it takes me forever to walk around during the Bell Ringer and complete this process each day. Because it eats up so much time, the entire process is rushed and places much more focus on #1 rather than #2.

So, in an effort to combat this, I’ve started having a student go around with my clipboard and check homework for completion. It’s a different student each day. This frees me to drop in on groups and gauge understanding, feel out the class, and answer some questions in the process.

I’ve discussed that the honor system is in place when it comes to the homework check. I expect them to give credit where credit is due, only. I want them to get that I trust them to do what’s right.

Some teachers may push back and mention that there’s bound to be some students that earn credit for the homework who don’t actually deserve it. That’s probably true. Other than my occasional spot check, I’ll never really know. But I’ve realized that I don’t care anymore.

I want them to be accountable to each other, not me. And besides, if my students are concerned about compliance when it comes to homework, then they’re less concerned about learning mathematics.

I don’t give a damn about points. HERE, take all the points you want. The value is in learning…and I hope this is clear to my students.

 

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On the purpose of exams

Teachers: think of a recent class exam you administered. What purpose did it serve?

In many educational circles, class exams are thought of as assessments that teachers use to measure student learning. It’s an opportunity for the student to demonstrate their abilities. In other cases, exams simply serve as a grade – nothing more, nothing less. Often times, exams mimic standardized exams and help prepare students for what lay ahead at the end of the school year.

A recent comment by a colleague has me wondering what an exam tells me about my students’ mathematical abilities that I shouldn’t already know.

In other words, if I’m throughly assessing my students on a daily basis and attune to their learning, isn’t a class exam merely a formalized way of collecting this data? For the assessment-conscious teacher, isn’t an exam just more needless paperwork?

I beginning to think so. But this doesn’t mean that they are worthless.

Exams are great tools to support retention amongst students. In a low-stakes environment, they challenge students to individually recall information in context that can lead to high levels of reflection. When used in a group setting, like a two-stage exam, these assessments serve as a springboard for collaboration, meaningful conversation, and deep learning.

 

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Checkpoints and homework, circa 2016

Here’s my current structure for exams checkpoints and homework. Everything is a work in progress.

Checkpoints

  • First off, terminology. Formally known as exams, I now call these summative assessments ‘checkpoints’ to further establish a low-stakes classroom culture. It feels much less formal, but I still reference them as ‘exams’ when in a rush. Plus, my frustration with the Regents exams is at an all-time high, so distancing myself and my students from any term that references them is a good thing.
  • I really liked how I lagged things last year, so I’m going to continue with this routine. This means that each checkpoint will only assess learning from a previous unit. In most instances this will be the previous unit, but once a month there will be a checkpoint that only assesses learning from material learned at least two units back. With my standards-based grading, students can lose proficiency on a standard at any time during the course of the year. The hope is to interweave what has been learned with what is currently being learned to help improve retention.
  • Speaking of SBG, I’m reinstituting mastery level achievement in 2016-17. I have yet to work out the kinks regarding how this will impact report card grades.
  • I will not review before any checkpoint, which is what I started last year. Instead, that time will be spent afterwards to reflect and relearn.
  • I make these assessments relatively short, they take students roughly 25-30 minutes to complete…but my class period is 45 minutes. I’m still trying to figure out how to best use that first 15 minutes. Last year I didn’t have this problem because my checkpoints always fell on a shortened, 35-minute period. Right now I’m debating over some sort of reflection or peer review time.
  • I have begun requiring advanced reservation for every after school tutoring or retake session. I learned very quickly at my new school that if I don’t limit the attendance, it is far too hectic to give thoughtful attention to attendees. Right now, I’m capping attendance at 15 students per day with priority given to those who need the most help.

Homework

  • Disclaimer: developing a respectable system for homework is a goal of mine this year.
  • Homework assignments are two-fold. First, students will have daily assignments from our unit packet that are checked for completion the next day. Second, they will have a DeltaMath assignment that is due at the end of the unit, again, checked for completion.
  • Homework is never accepted late.
  • Homework is not collected.
  • To check the daily homework, I walk around with my clipboard during the bell ringer. While checking, I attempt to address individual questions students may have. This serves as a formative assessment for me gauge where they are on the homework. After the bell ringer, but before any new material, I hope to have student-led discussion around representative problems, depending on the homework that day (I haven’t gotten here yet). The goal is to have students write on the board the numbers of the problems that gave them a headache…so we know which ones to discuss.
  • I’m going to do everything I can check it this year. It sounds simple, but over time things can slip away from any teacher.
  • I’m posting worked out homework solutions on our class website. I used to include the solutions in the back of the unit packet. This is an improvement on that, but also requires students take an extra step. Students must check their thinking, assess themselves against the solutions, and indicate next to each problem whether or not they arrived at the solution.

 

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