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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.

Collaborations between faculty from the teachHOUSTON program and physics department have led to an increase in the number of highly qualified physics teachers produced by the University of Houston. Faculty were able to systematically build the physics teacher preparation program through the following endeavors: streamlined degree plans, a physics inquiry course, an internship program, a scholarship program, and induction activities for the first three years of their teaching degrees. This has resulted in preparing approximately three physics teachers annually. Prior to this collaboration, the University had not produced any physics teacher graduates in the previous decade.

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.

A new High School Equivalency (HSE) policy was developed in the United Arab Emirates (UAE) in response to a shift toward a knowledge-based economy and a transformation toward STEM education. The purpose of this study is to explore and understand the stakeholders' perceptions and experiences in implementing the new HSE policy in a school that follows a US curriculum in the UAE. The study was conducted before the COVID-19 lockdown. The phenomenological approach was used to shed light on the implementation of the HSE policy in an active learning environment and the challenges facing the school's stakeholders. The study results reveal the challenges that stakeholders face in implementing the HSE policy and their experiences in offering students the courses they need. All stakeholders agreed that the transformation toward STEM education requires proper implementation of the high school equivalency policy in an active learning environment that help in developing students' twenty-first-century skills and prepare them to meet the job market needs.

This chapter outlines the contents of Preparing Secondary STEM Teachers to Teach in America's Urban Schools. The volume begins with an overview of the teachHOUSTON STEM teacher education program in Chapter 2 and is followed by an account of the collaboration that took place between a Physics professor and a teachHOUSTON Physics teacher educator and its impact on STEM teacher preparation in Chapters 3-4. Chapters 5 and 6 include discussions about formal and informal learning opportunities and include a narrative of a student's experience on how the Noyce Internship Institute contributed to their STEM teacher learning. In Chapters 7–9, readers learn about the influence of parents, teachers, and professors on students' entry into and decision to work in the STEM and/or STEM education field, with an emphasis on those in STEM teacher education. Chapter 10 highlights the value of scholarship grants; Chapter 11 addresses the growth and development of teachHOUSTON, the impact of the scholarships awarded to many of its students and traces where its graduates currently are teaching in order to demonstrate that teachHOUSTON has fulfilled its mission. The final chapter of the book reflects on teachHOUSTON as a secondary urban teacher education program and summarizes significant points that have led to its success.

This chapter provides a review of existing research on learning gain and related topics in higher education. The methodology adopted is a form of systematic review. The origins and meaning of learning gain, and its relation to similar terms, are discussed. The ways in which learning gain has been applied in practice and in research are considered. The issues raised by this practice and research are examined, and the various criticisms made are reviewed. Some conclusions are then drawn.

In the last five years, there has been an increased interest across the globe, and in the United Kingdom in particular, to define, conceptualise and measure learning gains. The concept of learning gains, briefly summarised as the improvement in knowledge, skills, work-readiness and personal development made by students during their time spent in higher education, has been hailed by some as an opportunity to measure ‘excellence’ in teaching. This chapter will review some of the common definitions and the methods employed in research on learning gains. Secondly, we will provide a critical evaluation of the computational aspects of learning gains (e.g., raw gain, normalised gain). Finally, we will critically reflect upon the lessons learnt and what is not yet known in terms of learning gains.

This chapter presents innovative approaches to active learning that were introduced into the teaching of preservice teachers at the Faculty of Education of University of West Bohemia, Pilsen, in the Czech Republic. Over the last three years, the Technology-Enhanced Learning course has seen substantial innovations in both the content and use of teaching strategies designed to prepare the students for their professional lives. The whole update of the course was implemented using the results of action research – all individual changes were rigorously tracked and analyzed. The state of the art in the active learning domain in education of preservice teachers is presented in this chapter.

There is a description of the procedure to update the course, based on the reflections of teachers and feedback from students, gathered during action research. Detailed evaluations of particular methods of active learning that have been proven in teaching are provided.

Besides practical activities with tablets and smartphones, during which students familiarize themselves with various types of applications and reflect on their use in teaching, the course was extended by the use of practical aids for the efficient inclusion of mobile technologies for teaching – the Czech version of Allan Carrington’s Padagogy Wheel. This aid is derived from the revised Bloom’s taxonomy and SAMR model and helps the systematic reflection of preservice teachers when preparing for technology-enhanced teaching.

A significant part of the teaching consists of cooperative projects between preservice teachers and pupils of elementary schools – for example, the preservice teachers help elementary school pupils discover possibilities of virtual reality during Google Cardboard activities, or preservice teachers in teams with elementary school pupils create digital stories together on the topic of Internet safety.

The innovative approach to active teaching in the Technology-Enhanced Learning course is apparent even during the exam. In the course of the exam, students process, present, and defend a lesson plan for the implementation of an activity using digital technologies.

Throughout the learning, as well as at the end, preservice teachers are encouraged to reflect on the teaching in the Technology-Enhanced Learning subject.