Search results

This chapter illuminates the impact of providing informal learning experiences for students pursuing Science, Technology, Engineering, and Mathematics (STEM) teaching careers at a time when there is a considerable shortage of qualified teachers in America's urban centers. Preservice STEM teachers were provided with the opportunity to participate in a National Science Foundation (NSF) grant funded Noyce Internship Program prior to serving as counselors and teaching assistants in a STEM camp for underrepresented middle school students. Through the Noyce Internship Institute, participants were introduced to interactive sessions that model promising teaching practices including inquiry-based and project-based learning. This narrative inquiry examines the impact of these experiences on preservice STEM teachers' self-efficacy and highlights outcomes in three areas: increase of preservice teachers' confidence, classroom management, and strengthening their desire to teach STEM.

Purpose – The aim of this study is to determine the effects of inquiry instruction incorporating with STEM learning on Chemistry Education of Malikussaleh University students’ science process skills and science attitudes.

Design/Methodology/Approach – The pre-experimental design, which is a mixed method approach is used in the study that included a pretest-posttest one group model and descriptive quantitative.

Findings – As a result of data analysis that STEM learning significantly enhances students’ science process skills and attitudes toward inquiry instruction. This study examines how participation in a semester long inquiry-based STEM learning project that involves interdisciplinary skills, sociological research on attitudes, and behaviors enhances the scientific and quantitative literacies of STEM students.

Research Limitations/Implications – Quantitative research is needed to determine the more common effects of learning outcomes. However, this study only determines a self-assessment on science attitudes. The other one is a limitation on the participants and reviewing aspects of learning with more variables in order to obtain more optimal results.

Practical Implications – The results of this study have practical implications in terms of hands-on activities. The learning model can be used to explain the concept of multidisciplinary studies and particularly to students and their parents. It will be a useful model for lecturers, personal tutors, and any other practitioners involved in hands-on activities.

Originality/Value – This paper innovative at a conceptual level of education development for students, graduates, and it is very simple descriptive papers. It will be of value to anybody with an interest in education competitiveness issues.

This chapter explores how robots can be used to design science, technology, engineering and mathematics (STEM) learning that is inclusive and engaging for adolescents with autism spectrum disorder (ASD). The importance of purposefully designed and problematic learning experiences is explored along with an examination of the role and function of meaningful discursive situations and inclusive contexts for learning. The goal of the chapter is to provide a context for readers interested in integrating the use of robots with adolescents with ASD, but it is also of use to those more broadly interested in the use of robots as learning tools. Recommendations for successful use are provided along with a discussion of how to start. This chapter is of interest to K-12 educators and others interested in the use of robots to create opportunities for students to understand the nature of doing STEM in an inclusive environment.

Active learning is not a simple practice. It is a new paradigm for the provision of high-quality, collaborative, engaging, and motivating education. Active learning has the capacity to respond to most of the challenges that institutions of higher education are facing in our time. In this chapter, we present active learning strategies used in STEM disciplines and we analyze the potential of active learning to redefine the value proposition in academic institutions. After providing the theoretical underpinnings of active learning as an evolving practice, an attempt is made to connect it with different learning theories and present an integrative model in which institutional strategies, learning strategy and information, and communication technologies work synergistically toward the development of knowledge and skills. We then present the results of a survey examining “stories” of active learning from the STEM disciplines, identifying good teaching practices, and discussing challenges and lessons learned. The key idea is that active engagement and participation of students is based on faculty commitments and inspiration and mentoring by faculty. We finally present a stage model for the implementation of active learning practices in higher education. Emphasis is put on a new vision for higher education, based on systematic planning, implementation, and evaluation of active learning methods, collaboration, engagement with society and industry, innovation, and sustainability, for a better world for all.

This research examines the influence of parents on students studying the science, technology, engineering, and mathematics (STEM) disciplines and entering STEM careers. Participating youths were awarded scholarships from large funded US grant programmes. Cases of two graduate students (one female, one male) and one undergraduate student (male) are featured. The first two students in the convenience sample are biology and physics majors in a STEM teacher education program; the third is enrolled in computer science. National reports emphasizing the importance of parents on their children's education are presented, along with diverse international literature. The use of narrative in STEM curriculum and narrative inquiry in STEM research are also documented. Experience, story, and identity form the study's conceptual frame. The narrative inquiry research method employs broadening, burrowing, and storying and restorying to elucidate the students' academic trajectories. Incidents of circumstantial and planned parent curriculum making surfaced when the data were serially interpreted. Other noteworthy themes included: (1) relationships between (student) learners and (teacher) parents, (2) invitations to inquiry, (3) modes of inquiry, (4) the improbability of certainty, and (5) changed narratives = changed lives. While policy briefs provide sweeping statements about parents' positive effects on their children, narrative inquiries such as this one illuminate parents' inquiry moves within home environments. These actions became retrospectively revealed in their adult children's lived narratives. These small stories, while not generalizable, map how students, shaped by their parents' nurturing, enter the STEM disciplines and STEM-related careers through multiple pathways in addition to the identified pipeline.

Learning through formal and informal experiences is critical for building content knowledge, pedagogical skills, and self-efficacy/confidence for preservice teachers. teachHOUSTON offers numerous teacher enhancement opportunities outside the teacher education courses which allows preservice teachers to connect to the real world which includes being able to relate to a diverse population of students and to understand how the course content can be related to them, their families, and communities in their everyday experiences. Through formal and informal experiences such as professional development workshops, discipline specific courses, research experiences, and internships, preservice teachers have the opportunity to engage in hands-on science activities they can use with their students, develop lessons, and gain knowledge on how to deliver this content while managing their classroom. This chapter will give an overview of the formal and informal experiences offered through teachHOUSTON with a highlight on the structure and content of the six week Noyce Internship Program which engaged interns as counselors and teaching assistants in a summer STEM camp for underserved middle school students and introduces the interns to interactive sessions that model promising practices for teaching.

On February 18, 2021, the NASA Perseverance rover traveled 292.5 million miles, safely landing on Mars, proving the power of science, technology, engineering, and mathematics (STEM) in accomplishing such a historical feat. Glaringly absent from the photos, tweets, and commentaries showing NASA's team celebrations, however, are African American males. Their absence gives rise to the question “Where are the Black males?” – not just in NASA's celebratory photos, but in STEM-related careers altogether. Perhaps even more important questions are “What K-12 systems are in place that exclude Black males from being prepared – academically and socially – for careers with NASA and the like? And what strategies are necessary to engage them in STEM education?”

In this chapter, the author offers a historical overview of the STEM contributions offered by Black males, while explaining the competition of academic identity and Black male identity in successful school experiences. Four K-12 education barriers that derail African American males from their STEM trajectory are highlighted. As a conclusion, strategies to engage Black males in developing and nurturing an early interest in STEM are offered.

This chapter concerns itself primarily with questions of how students in higher education studies can best acquire, apply, create, and share knowledge. Over the past several decades, multiple forms of active learning have been proposed in order to increase student engagement and deepen their understanding. This chapter, accordingly, examines the epistemological claims of the supporters and detractors of active learning while simultaneously exploring the nascence and development of some of the major understandings which presently underpin an epistemology of active learning. While the focus of earlier works may have been on changes that higher education instructors should make to improve student understanding of key STEM concepts, this chapter addresses changes in the roles of both students and instructors as the co-creators of active learning environments and learning communities. A particular focus is given to the significance of metacognition as a critical skill that enables students to assess their own learning and also critically assess sources of information. The chapter includes a framework which indicates trends toward high-impact active learning skills for students in STEM higher education and the research which theorizes and supports these new instructional imperatives.

Process-oriented guided-inquiry learning (POGIL) is a student-centered instructional strategy to actively engage students in the classroom in promoting content mastery, critical thinking, and process skills. The students organize into groups of three to four, and each group member works collaboratively to construct their understanding as they proceed through the embedded learning cycle in the POGIL activity. Each group member has a specific role and actively engages in the learning process. The roles rotate periodically, and each student has the opportunity to develop essential process skills, such as leadership skills, oral and written communication skills, team-building skills, and information-processing skills. The student groups are self-managed, and the instructor serves as a facilitator of student learning. A POGIL activity typically contains a model that the students deconstruct using a series of guided, exploratory questions. The students develop concepts (concept invention) as the group members reach a valid, consensus conclusion. The students apply their concepts to new problems completing the learning cycle. The authors implemented POGIL instruction in several chemistry courses at Jackson State University and Tuskegee University. They share their initial findings, experiences, and insights gained using a new instructional strategy.

This chapter provides an introduction to how the inquiry-based learning (IBL) approach is being used by colleges and universities around the world to strengthen the interconnections between teaching, learning, and research within STEM programs. This chapter provides a synthesis and analysis of the chapters in the volume, which present a range of case studies and empirical research on how IBL is being used across a range of courses across a range of institutions within STEM programs. Based on these findings, this chapter argues that the IBL approach has great potential to enhance and transform teaching and learning. Given the growing demands placed on education to meet a diverse range of complex political, economic, and social problems and personal needs, this chapter argues that education should be a place where students learn “how-to-learn” – where increasingly higher levels of self-directed learning is fostered – and where students grow in the three key areas of learning: affectively, behaviorally, and cognitively. To that end, this chapter argues that IBL, if designed and implemented properly, can be an important approach to enhancing and transforming teaching and learning in higher education.