Researchers examined whether engineering activities and lessons can help students apply science and math content in real-world contexts and gain insights into the professional activities and goals of engineers.
The new standards posit that “scientific argumentation,” in which students use data to argue from evidence, is a key practice for student science learning. However, a mismatch in expectations about the purpose of classroom discussions can inhibit productive forms of argumentation. Berland and Hammer compare forms of class discussions to identify how best to support students’ engagement in argumentation.
The authors of this study investigated the educational potential of a digital math game called Zombie Division in an elementary classroom. Habgood & Ainsworth were interested in the effect of what they called “intrinsic integration” –linking the video game’s core mechanics of play to the educational content. The idea is linked to the field of research called intrinsic motivation, in which the only reward is pleasure in the activity itself. The researchers argue that, while a game like MathBlaster is fun, it does not embody the mathematics lesson as an intrinsic part of game play.
Dancu, Gutwill, and Hido describe a process for designing science museum exhibits to create playful learning experiences. They outline five characteristics of play: It is structured by constraints, active without being stressful, focused on process not outcome, self-directed, and imaginative. For each characteristic, they offer an example of iterative design using formative evaluation.
Although computer science drives innovations that directly affect our everyday lives, few K–12 students have access to engaging and rigorous computer science learning. This article describes an effort to democratize access to computer science education through a program based on inquiry, culturally relevant curriculum, and equity-oriented pedagogy.
Bathgate, Schunn, and Correnti investigate students’ motivation toward science across three dimensions: the context or setting, the way in which students interact with science materials or ideas, and the activity topic. Findings point to the importance of understanding children’s perceptions of specific science topics, not just science in general.
In order to reframe how learning is organized in traditionally male-dominated areas of STEM education, the authors show how collaborative girl-boy pairs engaged with an “e-textiles” making activity. E-textiles are circuit activities combining needles, fabric, and conductive thread, challenging traditional gender practices related to both sewing and electronics.
This paper investigates how intentionally designed features of an out-of-school time program, Studio STEM, influenced middle school youths’ engagement in their learning. The authors took a connected learning approach, using new media to support peer interaction and engagement with an engineering design challenge in an open and flexible learning environment.
Bang, Warren, Rosebery, and Medin explore empirical work with students from non-dominant communities to support teaching science as a practice of inquiry and understanding, not as a “settled” set of ideas and skills to learn.
The adoption of the Next Generation Science Standards means that many educators who adhere to model-based reasoning styles of science will have to adapt their programs and curricula. In addition, all practitioners will have to teach modeling, and model-based reasoning is a useful way to do so. This brief offers perspectives drawn from Lehrer and Schauble, two early theorists in model-based reasoning.
Calabrese Barton and colleagues examine the beliefs and science practices of two students in a two-year study across settings. The study seeks to answer the question, “What do girls from non-dominant populations do to author themselves into or out of science, in spite of – or because of – their grades?” The study also examines how structures such as teacher support, community organizations, and school tracking systems promote or hinder opportunities for these students to author identities in science.
Where do kids’ beliefs about their ability to do science originate? How do these self-efficacy beliefs relate to unspoken theories about whether scientific ability is fixed or fluid? Researchers set out to answer these questions in a study of 1,225 middle and high school students.