Sampson & Gleim:
o
Sampson and Gleim investigated the argument-driven
inquiry (ADI) instructional model as a means to promote understanding of
biological concepts. The ADI instructional model has a few key goals: to engage
students in inquiry and to create a class atmosphere that values evidence and
critical thinking. The steps of the ADI instructional model include identifying
the task, a lab, producing an argument, arguing, investigating, reporting, and
revising. This process emphasizes the self-driven desire in students to attempt
to explain natural phenomenon, argue for one’s explanation, and revise one’s
explanation based on peer critiques. Integrating science into the curriculum
really stuck out to me, and one quote stood out in particular that involved the
need for students to acquire chances to either succeed or fail. Realizing that
failure is just as important as success is key for students since failure is
often associated purely with its negative side, but there is no success without
failure and failures offer students chances to learn from mistakes.
o
Thinking ahead to teaching in the future, I like
the aspects of the ADI instructional model immensely. Creating the desire for
students to resolve natural phenomenon rather than simply replicating textbook
or teacher understanding is key. I’m curious though how to motivate students to
identify tasks, or perhaps whether various identified tasks is a possible improvement
in situations with unmotivated students.
Reiser, Berland, & Kenyon
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o
Reiser, Berland, and Kenyon investigated how argumentation
influences students’ explanations. One example that I think showcased their
investigation well was when students were considering why paper and a book fall
differently. Students identified the “strength” of an object as its weight and
said that the book had a greater “strength.” However, when the instructor
crumpled the ball, some students thought that its “strength” increased while
others didn’t agree. This discussion led to a new consensus, that the ball
retained its size and therefore its “strength” when crumpled but that its shape
changes, for the paper no longer drifts to the floor when crumpled. It was
interesting to investigate how argumentation changed students’ explanations. I’ve
realized before that new ideas and refined explanations can come through
discussion with peers, but these clear examples demonstrated how student
thinking changes through argumentation.
o
Thinking ahead to teaching in the future, emphasizing
argumentation in the classroom through both probing questions from the
instructor and from discussions amongst students can lead to refined
explanations. I also was interested by the discussion of not simply replicating
authoritative knowledge, either from textbooks or teachers, because students
are often simply asked to regurgitate knowledge from either textbooks or
teachers’ lectures, so moving away from that mentality is key to promote deeper
understanding of material.
I definitely agree with you about the importance of moving students away from rote regurgitation of textbooks/lectures towards deeper understanding of new material. However, while I like this idea in theory, I can't help but get hung up on the fact that a lot of my high school and undergrad science classes hinged on my ability to recognize direct lines from Powerpoints or textbooks when they came up on tests. That being said, maybe we need to rework how we assess students in the sciences to promote this deeper understanding of material. By shifting emphasis on defending arguments and creating models, maybe we can grade students more on incorporating class info and making feasible explanations instead of their ability to memorize facts.
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