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Complex Instruction simplifying the problems in groupwork. Jeremy Hansuvadha tinyurl.com/ UCIci. About me IMP teacher (Interactive Mathematics Program) I’ve taught in 3 states at a healthy variety of schools. About you How many non-math teachers are here? Elementary school teachers?
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Complex Instructionsimplifying the problems in groupwork Jeremy Hansuvadha tinyurl.com/UCIci
About me • IMP teacher (Interactive Mathematics Program) • I’ve taught in 3 states at a healthy variety of schools
About you • How many non-math teachers are here? • Elementary school teachers? • Middle school? • High school? • Special ed?
Today’s goal To understand some common problems associated with groupwork and how they can be solved using Complex Instruction.
Handouts All of today’s handouts can be viewed/ downloaded at tinyurl.com/UCIci. Feel free to edit and improve them.
Sample Activity a simple problem made complex WARNING: optimal learning may not occur due to time constraints
The problems caused by some grouping strategies • teacher-chosen groups (STATUS WARNING!) • high-achieving students • low-achieving students • too many students per group • groups of 3 and the odd one out
Status a hierarchy that undermines group interaction • academic status • reading • math • social status • attractiveness • athletic/artistic • talkative • societal status • racial/ethnic • class • gender • language • abled/disabled “studies of groups show that members who start talking right away, regardless of their status, are likely to become influential”(Cohen, 1994)
Assigning competence • a weapon used to fight status • “Assigning competence is a form of praise where teachers catch students being smart” (Horn, 2012). • Praise must be: • public • specific to the task • intellectually meaningful
Establishing a Multidimensional Classroom • there are many ways to be smart • An Expert Mathematician… • … can restate a problem in their own words • … can begin to work on a problem independently • … organizes a plan of attack • … spends more and more time stuck without giving up • … creates models/diagrams/pictures or uses manipulatives • … checks reasonableness of answers • … discovers new problems (i.e. extensions) • … asks creative, outside-the-box questions • … communicates clearly, concisely, and convincingly • (see file “An Expert Mathematician…” for full list)
Group Roles • If you want to go fast, go alone. If you want to go far, go together. - African proverb • Emperor • Ambassador • Designer • Spy • (see file “Group Roles”)
Group Norms • Part I – Starting them • Listen before speaking. • Everybody does the work together, but each person writes it in their own notebook. • No one is done until everyone is done. • Help other group members without doing the work for them. • Answers aren’t as important as understanding. • Learning takes time (i.e. “I don’t get it… YET!”). • Before insisting that you’re right, listen—truly listen—to others’ ideas. • Question each other. Resist groupthink. • (see files“Group Member Qualities” and “Group Norms”)
Group Norms • Part II – Reinforcing them • GNotW • task cards • (see files“Group Norms of the Week” and “GNotW – BIG”)
Groupworthy Tasks • the essential ingredient • are complex enough that they can’t be done alone • are open-ended and require complex problem solving • offer multiple entry points • require the use of multiple representations • can be ambiguous with regards to directions
Groupworthy Tasks (pt I) • Some traditional problems with only one answer can be made groupworthy simply by asking for multiple solution paths. For example: • What is 71 – 34? Without using a calculator, create as many different algorithms as you can. Here are three ways: • 71 – 41 = 30, but 34 is 7 farther from 71 than 41 is, so 30 + 7 = 37 • 34 x 2 = 68, but 71 is 3 past 68, so 34 + 3 = 37 • 70 – 40 = 30, but add 1 (because 71 – 70) and 6 (because 40 – 34), so 30 + 1 + 6 = 37 • (see folder “Examples of groupworthy tasks”)
Groupworthy Tasks (pt II) • Another example: • Build a triangular prism with a surface area between 450 and 500 cm2. Do not use right triangles for any faces of your prism. • CHALLENGE: Build a triangular prism with a surface area between 350 and 400 cm2 that has a volume between 350 and 400 cm3. Do not use right triangles for any faces of your prism. • MEGA-CHALLENGE: Build a pentagonal prism with a surface area between 350 and 400 cm2 that has a volume between 350 and 400 cm3.
Groupworthy Tasks • Task cards • develop autonomy • develop group interdependence • reinforce roles and norms to support positive group interaction • list abilities needed to be successful at task (so that students can recognize skills they’re acquiring) • explain how all group members contribute to final product • (see file “TASK CARD 1-2-3-4 Puzzles”)
Group Tests • different styles, depending on topic • dividers up/down • 1 pencil, 1 calculator, 1 ruler, etc. • you may communicate verbally • groupmates papers stapled together • one member’s test is selected at random and graded • all members receive the same grade • (see tests and videos of students taking test in folder “Examples of groupworthy tasks”)
HINT cards & Group Huddles • can be used to clarify directions • refocus students on a particular aspect of a task • increase individual accountability • provide a delivery system to communicate important messages to every group • remind ambassadors of their role
Complex Instruction • managing status • assigning competence • multidimensional classroom • roles & norms • groupworthy tasks Students talking and working together Learning goals
Thoughts for ponderment • About assigning competence: “If I were to have a teacher concentrate on one aspect of CI, it would be to focus on learning how your students are smart.” • – Ruth Tsu, complex instruction expert • “Addressing and being aware of… status issues is what, for me, differentiates complex instruction from just ‘regular’ group work.” • Clint Chan, math teacher and friend • “It’s easy to think that teaching is going on only when you are talking to kids. But it’s happening when you are listening, too.” • - Laura Evans, complex instruction educator
Resources • Horn, Ilana. Strength in Numbers: Collaborative Learning in Secondary Mathematics. 2012. • Cohen, Elizabeth. Designing Groupwork: Strategies for the Heterogeneous Classroom. 1994. • tinyurl.com/UCIci
Any questions? jeremy.hansuvadha@ocsarts.net tinyurl.com/UCIci