In general, I think (and I am told by students) that I am good as a tutor. However, I would like to become more rigorously familiar with the discovery-based and inquiry-based learning applied to mathematics. Can you suggest some reference material please?
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2$\begingroup$ What age are we talking about? Grad students in mathematics? Kindergarten? $\endgroup$– user507Commented Jul 25, 2014 at 22:04
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$\begingroup$ what content areas? also, in my experience discovery/inquiry works best with a class of students where collaboration and group work can occur rather than individual students, such as in a tutoring environment $\endgroup$– celerikoCommented Dec 10, 2014 at 15:12
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$\begingroup$ @celeriko In some places (eg at universities in Australia) a tutor is a person who leads tutorials - hour-long classes with 15-30 students. $\endgroup$– DavidButlerUofACommented Jan 26, 2015 at 20:22
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$\begingroup$ @DavidButlerUofA very interesting, I did not know that! $\endgroup$– celerikoCommented Apr 21, 2015 at 17:59
5 Answers
Because you used the education-research and reference-request tags, I will give my usual recommendation of Powerful Learning: What We Know About Teaching for Understanding for the reason that Schoenfeld's chapter is well-referenced and written for practitioners. The benefit here is that it is a good introduction to methods of "teaching for understanding" while providing some research background which includes research done on "discovery" and inquiry methods. Because it has a number of influential references in it, you can build a decent reading list from it (and look to Schoenfeld's contextualization).
This can supplement reading very recent journals that more specifically target Inquiry-based learning.
EDIT: (Chris noticed the blurb on Amazon says the book is for K-2, but that is incorrect. The book pertains to K-12, as mentioned on the book jacket.)
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$\begingroup$ According to the Amazon blurb, the book is for K-2. The OP hasn't said what age his/her students are, so I don't know if that's what s/he wants. $\endgroup$– user507Commented Jul 25, 2014 at 22:05
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1$\begingroup$ @BenCrowell - The Amazon description is incorrect. It should read "K-12." For example, Schoenfeld gives a summary of Jo Boaler's secondary school research. Here's a photo of the back cover (which you can also see if you "look inside" on Amazon and scroll to the end of the book). i.imgur.com/jS0yzRV.jpg $\endgroup$– JPBurkeCommented Jul 25, 2014 at 22:38
A simple search give you plenty of reference materials. Here is The Academy of Inquiry Based Learning. And here is The Journal of Inquiry-Based Learning in Mathematics. Enjoy exploring and experiencing.
I spent two days sitting in on math classes at Phillips Exeter Academy. It is an outstanding example of inquiry/problem-based mathematics education in practice. Consider their curriculum.
Their format is simple: students do 4-10 homework problems per night (all of these are posted online here), come in to class every day and each put their solution to one of the questions on the board, and explain the solution they put up to the class. Students and the teacher ask questions and (ideally) only move on to the next problem once students understand the solution. It appears to me that this is the only instructional format they use.
Things to know about this method:
Students don't know in advance which mathematical tools they will have to use to solve the homework problems. The questions themselves provide the introduction to new ideas.
To some extent, the pace of the material covered is determined by the students understanding of particular topics.
Students are instructed not to spend more than 1 hour on the math homework each night.
The teachers have selected or written all the problems, and update them (and post the updates online) every year or two based on their collective experience. They
90%+ of class time is spent with students writing up solutions to the problems on the board and explaining and discussing their solutions with the class. The way students explain their solutions gives their teachers crucial information about what students do and do not understand.
Students are encouraged (and do) put up solutions to homework problems they have not fully answered.
The problem sets have no corresponding solution sets. This seems to require teachers to solve the problems themselves before coming to class, rather than just reviewing the solution. I expect that this exercise sharpens the teachers contribution in class.
The teachers rarely rise and go to the board to explain answers. Instead, they tend ask questions to the class based on the discussion. One teacher commented to me that sometimes they go the whole class period without having to enter the instructional conversation (in this case students are explaining the solutions to other students). Because of this, I suspect that teachers there have a relatively low burn-out rate. They certainly seem to expend less energy than they would in more traditional instructional formats.
(I was told that) test questions often involve applications of the ideas presented in the homework questions, as opposed to being nearly identical to the homework questions.
This is only a brief answer, but I hope that it's a useful counterpoint to the others which present a very positive view of discovery learning.
The one reference that I have found most useful for discovery- and inquiry-based learning is the paper Why Minimal Guidance During Instruction Does Not Work: An Analysis of the Failure of Constructivist, Discovery, Problem-Based, Experiential, and Inquiry-Based Teaching. Essentially discovery learning works less well than guided instruction for most groups of learners and this has been shown in empirical studies. The reason it is less effective is that discovery approaches overload learners' limited working memory by requiring them to search for a solution, whilst more guided forms of instruction reduce this load.
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2$\begingroup$ For the two major flaws in the study you cite, I suggest people read "Scaffolding and Achievement in Problem-Based and Inquiry Learning: A Response to Kirschner, Sweller, and Clark (2006)" cogtech.usc.edu/publications/hmelo_ep07.pdf $\endgroup$– JPBurkeCommented Jul 30, 2014 at 20:40
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2$\begingroup$ The first flaw: they have lumped together a bunch of approaches and mischaracterized them as "minimally guided instruction," thus ignoring the actual instruction that takes place in such approaches as inquiry-based learning. The result is that they produce a caricature (something like a straw man) as the treatment in their study. The second flaw: they chose to essentially dismiss or ignore the body of empirical research evidence around problem-based learning and inquiry-based learning. Thank you for bringing up this study. $\endgroup$– JPBurkeCommented Jul 30, 2014 at 20:46
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1$\begingroup$ This does not actually answer the question asked. It is obviously relevant to the question, but based on my understanding of the available evidence, Sweller et al are in a minority camp in their theoretical beliefs. $\endgroup$ Commented Aug 14, 2014 at 10:37
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2$\begingroup$ Taking both the paper JPburke linked in the comment and the paper evsmith linked together, a moral is probably to make sure that your Inquiry-Based learning is not minimally guided! Don't just leave the students to it! $\endgroup$ Commented Nov 23, 2014 at 19:01
Here are references directed at teachers more than policy-makers, that analyze teaching from the teacher’s point of view, including the decisions that teachers must make as the lesson unfolds, and how their decisions affect the students.
Teaching Problems and the Problems of Teaching by Magdalene Lampert
Connecting Mathematical Ideas: Middle School Video Cases to Support Teaching and Learning by Jo Boaler and Cathy Humphries
How to Learn Math videos on Youtube from Jo Boaler’s first MOOC for math teachers. Related is Boaler’s site at Stanford, youcubed, where you can sign up for free courses.