Quinn and Bell: Design,
Make, Play: Growing the Next Generation of STEM Innovators
In this article, the authors argue
for the usefulness of DMP in K-12 STEM education. They indicate that DMP is
closely aligned with the goals that we previously discussed in A Framework for K-12 Science Education, noting
that DMP provides students with the Individual agency to make their own
discoveries in the sciences. DMP projects often provide the opportunity to
incorporate modeling, specialized scientific processes, and even concepts that
cut across scientific domains, thus further validating their alignment with the
new Framework for STEM education. However, in order to successfully implement
the NGSS standards and DMP projects, teachers must work to shift the focus of
their classroom culture towards student-oriented investigation and open
discourse between the students and their teachers regarding problem-solving
strategies. Furthermore, adequate professional development must be provided for
teachers in order to ensure that they know the most effective ways to implement
DMP and NGSS standards in their classrooms.
- · Motivation: DMP motivates students by actively engaging them in scientific discovery.
- · Engagement: DMP allows students to directly participate in real-world scientific practices in both informal and formal education environments.
- · Hands-on and minds-on: The authors are careful to mention, however, that hands-on activities must be centered around an educational goal.
Braund and Reiss: Towards
a More Authentic Science Curriculum: The contribution of out-of-school learning
The authors argue that teachers need to motivate students to
pursue scientific domains after secondary school by taking advantage of
out-of-school settings, such as museums, field trips, and technologically-produced
virtual worlds. These out-of-school environments help make the goals of science
feel more tangible and relevant to students, and a student’s experiences
outside of school can provide a wealth of resources to help teachers apply class
concepts to the real world. The authors propose an evolutionary model for
authentic school science, stating that while labs are one way to help students
access natural phenomena in the classroom, students should be able to
experience these phenomena in their proper context in out-of-classroom
environments.
- · Authenticity and extended practical work: By tapping into out-of-school resources, teachers can expose students to experiences that they would not normally have in the classroom, and can simultaneously make in-class learning objectives feel more authentic.
Both articles discuss theories for
engaging students in and out of the classroom and describe how informal
learning environments can be used to increase students’ motivation in
scientific disciplines. I resonated with the fact that both articles emphasized
the role of relevance in motivation, and I think that as teachers, one of the
most important things that we can do is incorporate some elements of DMP and
out-of-school learning in order to help our students feel like the material we’re
teaching has real-world applications. While this might seem obvious, I think that
putting this idea into practice on a consistent basis will require a lot of
critical thinking about the activities we employ in the classroom.
I agree that it really does come to engagement of students and motivation through various settings. Relevance is definitely key, and I agree that it can be hard to make all parts of science applicable to the real world. Some parts, like the chemistry of flame tests and fireworks, seem more applicable and relevant than others, like the intricacies of DNA replication.
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