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Generalization-Designing Your Lessons for Conceptual Understanding (Part 3)

This post is the third of our blog post series on how to design lessons for conceptual understanding.

Part 1 here

Part 2 here


Strategy 3 : Generalizations



You may have come across Lynn Erickson's diagram on the structure of knowledge.


In my IB workshop's I always like to present the avocado model alongside this diagram when I am talking about facts.



The intention of inquiry-based teaching and conceptually-driven understanding (or Concept-based inquiry- whatever terminology suits your fancy)  is to enable students to make generalizations. In other words, can they transfer their learning to a new context because they have understood what they learnt. 

In order to make generalizations, we need to first plan lessons that help students acquire facts/topics that are interesting  and worth knowing. Bringing in local and global issues that are relevant to the topic help students as they begin to compare the topics and see emerging patterns.

Remember, facts and concepts have a synergistic relationship that help students make the generalizations.
(Hence the argument from some PYP teachers who prefer not to reveal the central idea to students at the beginning of the unit.) You want students to be able to make that generalization which, by the way, is the central idea.

If you use this method (facts- important to know/ a few rich and relevant case studies chosen from local and global environment) in other disciplines, you will help students make generalizations.


Let's see this in a Math classroom.

Present the students with problems that ask the students to find the areas of triangles and rectangles/squares.
Ask them, "What do you notice about the answers?"

We often tell students that the area of a rectangle is L x W and that of a triangle is 1/2  of  L x W. We then give them a worksheet to complete. A student may get everything correct, but did they understand the "why' of the formula?

If, on the other hand,  you allow the students to discover, through inquiry,  by posing the question "What to do notice?" you invite students to make a generalization. Through discovery, the students are able to notice the relationship between a triangle and a rectangle. The  teacher  now has the perfect opportunity  to show consolidate their understanding through a demonstration. These types of lessons make learning stick. Just make sure you refresh their memory with a 5 minute review from time to time throughout the year.

Fold the paper in half to make 2 triangles.

Once you get used to teaching for generalization, you will notice other shapes and look for relationships between them. 
Can you come up with an explanation for the formula of an area of a trapezoid which is 1/2 x h (a+ b)?






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I had so much fun doing this the first time. I'm sure your students will enjoy making sense of the formula. The formula is the generalization.




Language

If you go through your scope and sequence, they are replete with generalizations neatly nestled in the standards/learning outcomes that include subject specific concepts. (micro concepts)
You pick one or two concepts. Determine the success criteria and then go through the process we already discussed. 
What facts and topics will help your students make a generalization?

In order to see how this looks like in a Language-focused classroom,  I've identified a learning outcome from the Ontario Grade 3 Language scope and sequence:






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