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This chapter provides an introduction to how the inquiry-based learning (IBL) approach is being used by colleges and universities around the world to improve faculty and institutional development and to strengthen the interconnections between teaching, learning, and research. This chapter provides a synthesis and analysis of all the chapters in the volume, which present a range of perspectives, case studies, and empirical research on how IBL is being used across a range of courses across a range of institutions to enhance faculty and institutional development. 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 lifelong and lifewide learning is cultivated and where self-directed learning is nurtured. To that end, this chapter argues that IBL helps cultivate a learning environment that is more meaningful, responsive, integrated, and purposeful.

Brevard College is a small, liberal arts college in Western North Carolina committed to experiential education. The Teacher Education Program prepares future teachers to lead the next generation of learning communities by nurturing values and skills necessary for inquiry-based teaching. Darling-Hammond (2005) reaffirms that one critical aspect of school reform is “preparing accomplished teachers who can effectively teach a wide array of learners to high standards … essential to economic and political survival” (p. 238). Admittedly, this is no easy task. Newly licensed candidates face a convergence of politics, economic, and demographic 21st century realities. Faculty and candidates need a deep understanding of constructivist theory to prepare for inquiry-based teaching. This knowledge must not just be a tag line on a syllabus but embedded in heads and heart. Reflecting on how theory is put into practice, through explicit minds-on/hands-on field experiences in diverse community partnerships, teacher candidates are empowered. The lessons learned by a newly licensed constructivist-based teacher boldly sharing his passion for inquiry-based teaching in a public school setting offers a glimpse of potential hope.

In order to teach science effectively, teachers need a strong background in science content as well as an understanding of productive methods of teaching. This includes inquiry-based learning that will cultivate conceptual development of science concepts with their students. Furthermore, it is imperative to use student-focused activities in high-needs schools to engage all students, particularly students of color, in the learning process. As a result, faculty from the teachHOUSTON Program and the Department of Physics at the University of Houston produced a Physics by Inquiry course to engage middle school and high school preservice teachers in interactive, inquiry-based teaching pedagogies for physics. This chapter provides an overview of the course. It also highlights the benefits of including such a course in a STEM teacher education program.

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 the arts, humanities, and social sciences. This chapter provides a synthesis and analysis of all the chapters in the volume, which present a range of perspectives, case studies, and empirical research on how IBL is being used across a range of courses across a range of institutions within the arts, humanities, and social sciences. The 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 serve as an incubator where students are part of a learning community and where they are encouraged to grow cognitively, emotionally, and socially by taking increasing responsibility for their own learning.

The landscape of learning and teaching is changing through the recognition of a diversity of learning types, new student generations as well as advances in technology and theory in education. While claims for interdisciplinary research and inquiry-based approaches, as well as integration of new media and technologies are at the heart of current discourses on teaching and learning, most educational activities still take place in a conservative format of the hierarchical teacher–student relationship in rather traditional educational facilities. As an architect and anthropologist, but most of all, as an academic who is devoted to teaching and research, I believe in teaching and learning experiences that are based on theoretical and methodological explorations in different disciplines in order to develop practical, research and critical thinking skills among the students. Students are motivated and engaged when they understand why information is important for them. Through an inquiry-based approach, abstract information becomes tangible and contextualized. In this chapter, I will first discuss common characteristics of our learners, today’s generation of students (the Millennials). Second, I will conceptually locate my approach to teaching among inquiry-based approaches such as Situated Learning, Learner-centered Teaching and Universal Design for Learning, which I see as complementary to each other. Third, I will explain my course design and give an account of two courses as examples for Inquiry-based Learning in action. Although these courses address architecture students, the Inquiry-based Learning and teaching experiences from these courses will inform a larger, more general audience interested in the subject matter.

The purpose of this paper is to describe specific techniques of “inquiry‐based learning” employed by three instructors in Engineering schools, one in Europe and two in the USA.

Theorists such as Bransford et al. argue that twenty‐first century educators need to teach students to do more than simply remember and repeat information. Engineering educators Prince and Felder critique traditional methods of teaching in which instructors focus on mathematics and theory, but fail to convey practical applications of that knowledge. They advocate moving students to a higher level of learning – past the stage of memorizing and reciting data – to more sophisticated methods of analysis, synthesis, and application of knowledge. To enact such transformations, Prince and Felder recommend “inductive teaching methods,” including “inquiry‐based learning,” in which students learn through engaging with challenges and a series of questions. The paper provides examples of inquiry‐based learning activities from each of the authors. The paper then discusses the cross‐pollination of ideas and describes how the authors have shared inquiry‐based teaching strategies and collaborated to develop new and relevant assignments and approaches to teaching.

The willingness of learners to discuss a range of pedagogical topics, from specific practices to shared experiences and readings, led to an exchange of ideas, and also to deeper reflections on current practices. The cross‐pollination of assignments and techniques resulted in well‐structured, stimulating, and relevant research projects that engage engineering students from Texas to Portugal, and from communication to technical classes.

The use of inquiry‐based learning activities and the sharing of resources across continents aimed at improving learning and teaching requires expanding upon and further development.

The paper demonstrates the use of cross‐pollination of ideas, development of assignments and improved approaches to teaching.

Educators often stress the importance and value of interdisciplinary/cross-disciplinary measures that contribute to the holistic development of students through attention to experiential learning activities. However, collaborative approaches that reach outside or across disciplines are often overwhelming and time consuming for faculty to develop. Often, faculty would like to expand learning opportunities through collaborative approaches for their students to experience successful engagement although they may not have the “know-how.” This chapter provides a framework that can be used to develop both collaborative interdisciplinary/cross-disciplinary teaching and inquiry-based engagement. The authors developed the PLACERS model (Plan, Create, Engage, Reflect, and Share) in an effort to extend learning experiences in a preprofessional learning environment and to advocate collaboration. Implementing this model, along with a variety of inquiry-based activities produces opportunities for students to increase content knowledge, engagement, and critical thinking skills. Moreover, it provides a guide/schema for educators to delve into collaborative instruction. This chapter documents the process of interdisciplinary/cross-disciplinary collaboration between social science and professional practice faculty who developed transformational approaches to expand inquiry-based teaching through experiential learning. As a result of this collaboration, structured reflection strategies were developed which allowed students to: practice critical thinking and problem-solving skills, utilize 21st century technology, and increase content knowledge.

teachHOUSTON is a university-based secondary STEM teacher preparation program that addresses the critical need for highly qualified STEM teachers in Texas and across the country. STEM teachers are prepared through early and ongoing field-based teaching experiences and rigorous research-based instruction that integrates content and pedagogy provided by faculty members who have extensive teaching experience in public schools. teachHOUSTON serves the fourth largest city in the United States, along with its satellite communities and has many noteworthy features which are mapped in this chapter. Particular attention is paid to inquiry-based learning, student-centered instruction, and culturally responsive pedagogy as well as the improvements in the program based on the collaboration between physics and teachHOUSTON faculty.

This chapter presents a practice example of inquiry-based learning. A graduate level research methods course was designed to be student-centered and inquiry-based utilizing scaffolding assignments (Skene & Fedko, 2012), small group discussions (Huang, 2005), peer feedback (Skene & Fedko, 2012), and collaborative interactive exercises (Volet & Mansfield, 2006). Having students ask the questions in which they are interested (Jansen, 2011), find the resources to answer those questions, which then leads to new questions (Stripling, 2009), eventually culminates in the creation of a literature review and research proposal. The course concludes with a number of application exercises that connect theory to practice (Kuh, Chen, & Nelson Laird, 2007). Many of the specific in-class practices that support this inquiry-based approach are presented.

Scientific inquiry is a leading methodology that promotes science process skills to acquire scientific knowledge. There is evidence that primary school teachers have difficulties introducing inquiry-based activities in their classrooms. Hence, adequate teacher instruction in inquiry methodology is important to apply inquiry-based activities in school science lessons. This work aims to analyse if pre-service teachers succeeded in developing scientific knowledge and scientific skills through the application of an inquiry laboratory activity.

This article is presented as a case study developed in a group of 82 pre-service teachers. This research methodology involved qualitative and quantitative data.

The results demonstrate that pre-service teachers could improve their scientific skills and knowledge through inquiry-based laboratory activity.

The present study assesses not only the scientific knowledge but also if students can acquire scientific skills by doing the inquiry laboratory activity and if these skills are related to low-order cognitive skills or high-order cognitive skills.