Sandra M. Linder – författare

Mobile learning is a primary learning format in the education of young children from birth through 6th grade. This format has been found to have a positive impact on the academic achievement, self-efficacy, motivation, and learning attitudes of students, including those with special needs (Ciampa, 2014; Hwang, 2014; Nikou & Economides, 2018; Xie, Basham, Marino & Rice, 2018). In both formal and informal learning contexts, mobile learning affords opportunities to innovate and explore new forms of authentic experiences, meaning-making, and creativity with untethered technology (Choi, Land, & Zimmerman, 2018; Schuck, Kearney & Burden, 2017). This edited book acts as a springboard to expand discussions surrounding how mobiles might best be situated in contexts relating to young children. With a focus on early childhood and elementary settings, this book both expands the definition of mobiles to encompass digital-physical tools (e.g. Osmo, probeware) and wearables. It also provides insight into how intentional integration of mobiles supports the development and practice of both in-service and preservice teachers working with students in early childhood and elementary settings.

Mobile learning is a primary learning format in the education of young children from birth through 6th grade. This format has been found to have a positive impact on the academic achievement, self-efficacy, motivation, and learning attitudes of students, including those with special needs (Ciampa, 2014; Hwang, 2014; Nikou & Economides, 2018; Xie, Basham, Marino & Rice, 2018). In both formal and informal learning contexts, mobile learning affords opportunities to innovate and explore new forms of authentic experiences, meaning-making, and creativity with untethered technology (Choi, Land, & Zimmerman, 2018; Schuck, Kearney & Burden, 2017). This edited book acts as a springboard to expand discussions surrounding how mobiles might best be situated in contexts relating to young children. With a focus on early childhood and elementary settings, this book both expands the definition of mobiles to encompass digital-physical tools (e.g. Osmo, probeware) and wearables. It also provides insight into how intentional integration of mobiles supports the development and practice of both in-service and preservice teachers working with students in early childhood and elementary settings.

Mobile learning is a primary learning format in the education of young children from birth through 6th grade. This format has been found to have a positive impact on the academic achievement, self-efficacy, motivation, and learning attitudes of students, including those with special needs (Ciampa, 2014; Hwang, 2014; Nikou & Economides, 2018; Xie, Basham, Marino & Rice, 2018). In both formal and informal learning contexts, mobile learning affords opportunities to innovate and explore new forms of authentic experiences, meaning-making, and creativity with untethered technology (Choi, Land, & Zimmerman, 2018; Schuck, Kearney & Burden, 2017). This edited book acts as a springboard to expand discussions surrounding how mobiles might best be situated in contexts relating to young children. With a focus on early childhood and elementary settings, this book both expands the definition of mobiles to encompass digital-physical tools (e.g. Osmo, probeware) and wearables. It also provides insight into how intentional integration of mobiles supports the development and practice of both in-service and preservice teachers working with students in early childhood and elementary settings.

Faculty in the science, technology, engineering, and mathematics (STEM) disciplines face intensifying pressures in the 21st century, including multiple roles as educator, researcher, and entrepreneur. In addition to continuously increasing teaching and service expectations, faculty are engaged in substantive research that requires securing external funding, mentoring other faculty and graduate students, and disseminating this work in a broad range of scholarly outlets. Societal needs of their expertise include discovery, innovation, and workforce development. It is critical to provide STEM faculty with the professional development to support their complex roles and to base this development on evidence derived from research. This edited handbook provides STEM stakeholders with an opportunity to share studies and/or experiences that explore STEM faculty development (FD) in higher education settings. More specifically, we include work that examines faculty development planning, techniques/models, experiences, and outcomes focused on supporting the teaching, research, service, and leadership responsibilities of STEM faculty. The Handbook is suited for researchers and practitioners in STEM, STEM Education, Mathematics, Science, Technology, and Engineering disciplines. It is also suited towards faculty developers, higher education administrators, funding agencies, industry leaders, and the STEM community at large.The aim for this handbook was to examine the multifaceted demands of faculty roles, and together with members of the STEM education community, envision pathways through which universities and individuals may support STEM colleagues, regardless of their experience or rank, to enjoy long and satisfying careers. Our hope is for these chapters to aid readers in deep reflection on challenges faculty face, to contemplate adaptations of models presented, and to draw inspiration for creating or engaging in new professional development programs. Chapters across this handbook highlight a variety of institutional contexts from 2-year technical colleges, to teaching-focused institutions, in addition to research-centric settings. Some chapters focus primarily on teaching and learning practices and offer models for improving STEM instruction. Others focus on barriers that emerge for STEM faculty when trying to engage in development experiences. There are chapters that examine tenure structures in relation to faculty development and how STEM FD efforts could support research endeavors. Mentorship and leadership models are also addressed along with a focus on equity issues that permeate higher education and impact STEM FD. It is our sincere hope that this Handbook sparks increased discourse and continued explorations related to STEM FD, and in particular, the intentional focus of faculty development initiatives to extend to the many facets of academic life.

Mobile learning is a primary learning format in the education of young children from birth through 6th grade. This format has been found to have a positive impact on the academic achievement, self-efficacy, motivation, and learning attitudes of students, including those with special needs (Ciampa, 2014; Hwang, 2014; Nikou & Economides, 2018; Xie, Basham, Marino & Rice, 2018). In both formal and informal learning contexts, mobile learning affords opportunities to innovate and explore new forms of authentic experiences, meaning-making, and creativity with untethered technology (Choi, Land, & Zimmerman, 2018; Schuck, Kearney & Burden, 2017). This edited book acts as a springboard to expand discussions surrounding how mobiles might best be situated in contexts relating to young children. With a focus on early childhood and elementary settings, this book both expands the definition of mobiles to encompass digital-physical tools (e.g. Osmo, probeware) and wearables. It also provides insight into how intentional integration of mobiles supports the development and practice of both in-service and preservice teachers working with students in early childhood and elementary settings.

While we often think of mathematics as a “school age subject”, this interactive guide shows how you can encourage mathematical problem-solving in your child at a very young age through play and everyday interactions.Children are big thinkers and can do pretty amazing things. As you delve into the world of mathematical play, you will help your child not only explore skills like counting and comparing, measuring, and creating patterns, but also learn to ask questions, develop resilience and persistence when presented with challenges, and increase confidence through exploration and reflection.These early moments of play and discovery, side by side with you as their guide, lay the foundation for lifelong problem solving and reasoning abilities. You are not just supporting their mathematics development; you are setting the stage for your child to be a change-maker as they grow.

Faculty in the science, technology, engineering, and mathematics (STEM) disciplines face intensifying pressures in the 21st century, including multiple roles as educator, researcher, and entrepreneur. In addition to continuously increasing teaching and service expectations, faculty are engaged in substantive research that requires securing external funding, mentoring other faculty and graduate students, and disseminating this work in a broad range of scholarly outlets. Societal needs of their expertise include discovery, innovation, and workforce development. It is critical to provide STEM faculty with the professional development to support their complex roles and to base this development on evidence derived from research. This edited handbook provides STEM stakeholders with an opportunity to share studies and/or experiences that explore STEM faculty development (FD) in higher education settings. More specifically, we include work that examines faculty development planning, techniques/models, experiences, and outcomes focused on supporting the teaching, research, service, and leadership responsibilities of STEM faculty. The Handbook is suited for researchers and practitioners in STEM, STEM Education, Mathematics, Science, Technology, and Engineering disciplines. It is also suited towards faculty developers, higher education administrators, funding agencies, industry leaders, and the STEM community at large.The aim for this handbook was to examine the multifaceted demands of faculty roles, and together with members of the STEM education community, envision pathways through which universities and individuals may support STEM colleagues, regardless of their experience or rank, to enjoy long and satisfying careers. Our hope is for these chapters to aid readers in deep reflection on challenges faculty face, to contemplate adaptations of models presented, and to draw inspiration for creating or engaging in new professional development programs. Chapters across this handbook highlight a variety of institutional contexts from 2-year technical colleges, to teaching-focused institutions, in addition to research-centric settings. Some chapters focus primarily on teaching and learning practices and offer models for improving STEM instruction. Others focus on barriers that emerge for STEM faculty when trying to engage in development experiences. There are chapters that examine tenure structures in relation to faculty development and how STEM FD efforts could support research endeavors. Mentorship and leadership models are also addressed along with a focus on equity issues that permeate higher education and impact STEM FD. It is our sincere hope that this Handbook sparks increased discourse and continued explorations related to STEM FD, and in particular, the intentional focus of faculty development initiatives to extend to the many facets of academic life.

Faculty in the science, technology, engineering, and mathematics (STEM) disciplines face intensifying pressures in the 21st century, including multiple roles as educator, researcher, and entrepreneur. In addition to continuously increasing teaching and service expectations, faculty are engaged in substantive research that requires securing external funding, mentoring other faculty and graduate students, and disseminating this work in a broad range of scholarly outlets. Societal needs of their expertise include discovery, innovation, and workforce development. It is critical to provide STEM faculty with the professional development to support their complex roles and to base this development on evidence derived from research. This edited handbook provides STEM stakeholders with an opportunity to share studies and/or experiences that explore STEM faculty development (FD) in higher education settings. More specifically, we include work that examines faculty development planning, techniques/models, experiences, and outcomes focused on supporting the teaching, research, service, and leadership responsibilities of STEM faculty. The Handbook is suited for researchers and practitioners in STEM, STEM Education, Mathematics, Science, Technology, and Engineering disciplines. It is also suited towards faculty developers, higher education administrators, funding agencies, industry leaders, and the STEM community at large.The aim for this handbook was to examine the multifaceted demands of faculty roles, and together with members of the STEM education community, envision pathways through which universities and individuals may support STEM colleagues, regardless of their experience or rank, to enjoy long and satisfying careers. Our hope is for these chapters to aid readers in deep reflection on challenges faculty face, to contemplate adaptations of models presented, and to draw inspiration for creating or engaging in new professional development programs. Chapters across this handbook highlight a variety of institutional contexts from 2-year technical colleges, to teaching-focused institutions, in addition to research-centric settings. Some chapters focus primarily on teaching and learning practices and offer models for improving STEM instruction. Others focus on barriers that emerge for STEM faculty when trying to engage in development experiences. There are chapters that examine tenure structures in relation to faculty development and how STEM FD efforts could support research endeavors. Mentorship and leadership models are also addressed along with a focus on equity issues that permeate higher education and impact STEM FD. It is our sincere hope that this Handbook sparks increased discourse and continued explorations related to STEM FD, and in particular, the intentional focus of faculty development initiatives to extend to the many facets of academic life.