This was achieved through various learning activities I tried throughout the 2 month field study, note-worthy ones being:
- Learning how to collect like terms: Each pair of students was given a mini whiteboard and markers, and were given a question and corresponding answer, based on their ability level. The ability to differentiate the instruction based on mathematical strength attributed to the success of this activity. An example would be: Given 4x – 3y + 2x + y, show how we get the simplified form 6x – 2y. Be able to describe your method in words and come up with a new example with the correct solution. Students were then required to “teach” their peers how they came to their conclusions. As the teacher, I made myself available to scaffold and support the students as questions arose or to challenge their thinking.
- Learning how to solve linear algebraic expressions: Each pair of students was giv
en an iPod Touch and worked through an app called “Algebra Touch”. This app started with a question (an example would be: 2x + 4 = 10) and the goal was to isolate x. Students could “drag” terms around and noted what happened to them when they crossed the equals sign. “Tapping” a term would factor it, and “striking out” a term would cancel like terms in a fraction. The app would complete the calculations, but the goal was for the students to predict what would happen before they dragged/tapped/struck out each term, and most importantly, be able to explain WHY that was happening.
- Learning how to solving more difficult linear algebraic expressions: Each pa
ir of students was given a Macbook and used a program from the National Library of Virtual Manipulatives that illustrated balancing equations where the variable was on both sides of the equals sign, and then solving it. This program was easy to differentiate as there were varying levels for the varying abilities that exist in each class. Like the iPod, the computer program performed the calculations and students were left to answer how and why, rather than what.
Did this unit take much longer to teach in this way? Do you feel that your students have a much deeper understanding of the concepts covered? Did you actually find real life situations that these kids would someday face that they will need to use this knowledge? (That's always been my kids' question...will I ever need this??)
ReplyDeleteI'm sure I would have been one of the frustrated students in your class. I loved math, just tell me how to do it once and I could usually do it from then on....but make me figure it out? Come on...that takes too long!
It was a VERY interesting field study. I teach 90 students and did this research will all of them. I found that the boys thrived in this type of environment, especially the ones with learning disabilities and ones I would classify in a typical classroom environment as "lower". The girls were the ones who found it frustrating. I think it speaks to girls' preference to take things slow, work in a way that is methodical and pay as close attention to the process as they do to the end result. Boys, on the other hand, tend to be more interested in going from A to B in the shortest way possible and not following directions. They tend to be more conceptual and have a higher spatial awareness than girls at this age. This gender imbalance would be fascinating to study in future inquiries!!
ReplyDeleteI did found it took up a lot more time than traditional instruction, especially since my students were so accustomed to that by me (and past teachers). I found that having the students come up with the alogrithms and concepts by playing around with tools like iPods and laptops made it more meaningful and there was no need to take notes or memorize steps, which most preferred. Although, I just barely scraped the surface in student-centeredness in math, so I don't have very many answers, but it is something that I will make time for in planning my next year's math program out.
ah...so you now have a possibility for your master's thesis...gender imbalance! I'd love to read your findings!
ReplyDeleteYes, either that or the idea of metacognition in math. Both sound interesting, so I need to put a little more thought into which way I want to lean before I start drafting up my proposal.
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