As a result of the frustration with the dominant “What Works” paradigm of large-scale research-based improvement, practitioners, researchers, foundations, and policymakers are increasingly embracing a set of ideas and practices that can be collectively labeled continuous improvement (CI) methods. This chapter provides a comparative review of these methods, paying particular attention to CI methods’ intellectual influences, theories of action, and affordances and challenges in practice. We first map out and explore the shared intellectual forebears that CI methods draw on. We then discuss three

As a result of the frustration with the dominant “What Works” paradigm of large-scale research-based improvement, practitioners, researchers, foundations, and policymakers are increasingly embracing a set of ideas and practices that can be collectively labeled continuous improvement (CI) methods. This chapter provides a comparative review of these methods, paying particular attention to CI methods’ intellectual influences, theories of action, and affordances and challenges in practice. We first map out and explore the shared intellectual forebears that CI methods draw on. We then discuss three

This entry describes technologies that support engineering education, such as 3D printing, computer-assisted design, electromechanical systems and instrumentation, and control systems. Engineering education is one of four disciplines within STEM (science, technology, engineering, and mathematics) education. While science and mathematics are commonly regarded as core subjects in schools, engineering has had a less prominent role in K–12 education. However, engineering is increasingly used to teach science in context. This can increase students’ depth of understanding, allowing them to apply