Reflection Journal Entry #5
Description
This week’s readings focused on constructivist approaches
in learning and students working without assistance to problem solve.
Analysis
Slavin (2015) begins this chapter with a significant
statement: “One of the most important principles of educational psychology is
that teachers cannot simply give students knowledge. Students must construct
knowledge in their own minds” (p. 190). This tenet, the focus of constructivism,
represents the movement well. Much of
constructivism builds off Piaget and Vygotsky’s principles; Vygotsky believed
that student learning had more to do with social interactions than the teacher,
who facilitates the learning process in the classroom rather than being an
all-knowing dispenser of knowledge.
Constructivism values discovery learning, which has students
“learn largely on their own through active involvement with concepts and
principles” (Slavin, 2015, p. 193). Teachers
help guide the students, but the students themselves are solely responsible for
discovering knowledge through experimentation. One way to encourage discovery learning – and
to make it more practical – is to implement scaffolding (or mediated learning),
which “might include giving students more structure at the beginning of a set
of lessons and gradually turning responsibility over to them to operate on
their own” (Slavin, 2015, p. 194). In
essence, scaffolding builds students up to accomplish a task on their own,
beginning with guidance from the teacher. If teachers never give students time to
discover on their own, students will not be able to apply the information to
problems in the future.
Naturally, constructivist approaches to learning vary
from one content area to the next. For
example, with reading, Slavin (2015) recommends reciprocal teaching, which has
students formulate questions for each other when reading a text (p. 194). For writing, constructivist influence is
present when students do peer reviews of each other’s papers. When looking at a constructivist approach in
a mathematics classroom, teachers should begin with “real problems for the
students to solve intuitively and let students use their existing knowledge of
the world to solve the problems any way they can” (Slavin, 2015, p. 199). The use of real-world situations and examples
in problems helps make learning seem more relevant to students, and their bank
of existing knowledge – relying strongly on what they have learned socially –
is put to use. A science classroom can
easily incorporate discovery learning through labs, as students have to work
through experiments to determine whether a hypothesis was correct.
Much of what constructivism relies on is working in
groups; cooperative learning skills are very important in a constructivist classroom
because students have the opportunity to build their knowledge set from each
other, collaborating and discussing to reach to a conclusion. Slavin (2015) notes that cooperative grouping
is beneficial not only for comprehending a certain concept but also for general
social skills, as students “are usually taught specific skills that will help
them work well together, such as listening actively, giving good explanations,
avoiding putdowns, and including other people” (p. 199). Many activities that take advantage of the
benefits of group work include Jigsaw, Learning Together, and Group
Investigation; all of these emphasize the importance of each member of the group. Clearly, allowing students to collaborate is
beneficial; in fact, “Studies of cooperative learning methods that incorporate
group goals and individual accountability show substantial positive effects on
the achievement of students in grades 2 through 12 in all subjects and in all
types of schools” (Slavin, 2015, p. 204).
Ultimately, constructivism teaches that students are
bound for success when they develop critical thinking skills, implement
inquiry-based learning, and master problem solving. Working through theories, particularly through
collaboration with others, is an effective way to build knowledge through
experience.
Reflection
Teaching a small-group special education math class, I rely
on constructivist approaches frequently in my class. For example, I break students up into smaller groups
and have them working on an assignment.
Even whole-group instruction is largely group-based, as my classroom
(with few students) is highly collaborative during a lesson. When I introduce a new concept for my
students to learn, I allow them to discuss what they already know or think
about it, and that allows students to build off existing knowledge, even if it
comes from one of their classmates instead of themselves. I notice that my students seem to learn some
things more quickly when they work together on it than when they work
independently or when I work with them individually. Of course, it is much easier for them to
simply call me over to ask for help than to work through an issue among
themselves, but I see greater growth when they work together without depending
on so much of my assistance.
With
that said, I do, however, probably help my students more than I should. This is a constant battle for me. Since my students have disabilities, they often
do not think that they should have to do a problem without my help, and they
believe that I have abandoned them if I tell them to keep working on the
problem instead of giving them the answer. When I do give them the assistance that they
want, I notice that the students did not actually work to solve a problem, so
their learning is hindered. Then, when
another problem arises, they do not know how to use the information and apply what
they learned previously in the unit.
Teaching
in a constructivist classroom requires very much patience, as students by
nature love to goof around and slack off during class. It is understandable because few people
actually like to work, and working
bell-to-bell in every class can be frustrating and unnerving. Therefore, of course they like to play around
a little when they are put into groups.
Still, it is important for me as an educator to help facilitate the
learning throughout the entire class period and not to allow joking detract
from the task at hand. For this reason,
students take quite a while to get their work done, particularly for many of my
students who have intellectual disabilities and get frustrated so easily. This concept relates to what I mentioned
previously, assisting students when they have trouble with something.
Of
course, I scaffold assignments to fit the needs of my students from the
beginning, helping give them a smooth transition or introduction to the lesson
or activity. Even with this, I tend to
take a very hands-on approach with the students. I recognize that I need to back up a bit more
sometimes and let them struggle through a problem. Only through pushing through the issue can
students actually learn, and if a student gets it on their own, then they can
help the students around them grasp it in their own words, probably better than
I can sometimes.
References
Slavin, R. E. (2015). Educational psychology: Theory and practice (11th ed.). New York,
NY: Pearson Education, Inc.
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