Teaching Place-Based Science in Kindergarten
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Educating Preschool Teachers: Mapping the Teacher Preparation And
EDUCATING PRESCHOOL TEACHERS: MAPPING THE TEACHER PREPARATION AND PROFESSIONAL DEVELOPMENT SYSTEM IN NEW JERSEY Carrie Lobman, Sharon Ryan, Jill McLaughlin, & Debra J. Ackerman Graduate School of Education Rutgers, The State University of New Jersey 10 Seminary Place New Brunswick, New Jersey 080901 732-932-7496 ext 8116 Financial support for this study was provided by the Foundation for Child Development New York City. ACKNOWLEDGEMENTS The authors greatly acknowledge the participation of the representatives from the agencies surveyed for this study. This report would also not be possible without the research assistance of Joanne Curcio, Laura Weinstein and the statistical expertise of Hao Song, Wei Shao, and Mei Guo. The authors also wish to thank the following individuals: Elissa Lombardo, New Jersey City University Art Marshall, Brookdale Community College Florence Nelson, New Jersey Professional Development Center Karen Nemeth, New Jersey Association of Childcare Resource and Referral Agencies Mary O’Connell, Childcare Services of Monmouth County Kathy Priestley, New Jersey Department of Education Muriel Rand, New Jersey City University Cynthia Rice, Association for Children of New Jersey Fasaha Traylor, Foundation for Child Development 2 CONTENTS Executive Summary ……………………………………………………………………………..4 Introduction ……………………………………………………………………………………..8 Background ……………………………………………………………………………………10 Methodology ……………………………………………………………………………………12 Sample ……………………………………………………………………………12 Data Collection ……………………………………………………………………13 Data Analysis -
Science Education (SCIED) 1
Science Education (SCIED) 1 to other non-science majors. Throughout the course, students engage SCIENCE EDUCATION (SCIED) in a series of investigations that lead towards the development of evidence-based explanations for patterns observed in the current SCIED 110: Introduction to Engineering for Educators Solar System. Investigations will include computer-based simulations, night-sky observations, and use of simple laboratory equipment. 3 Credits These investigations lead students towards an understanding of how This course focuses on physics content, engineering design principles, observations of the current Solar System can be explained by the model and elementary science education pedagogy. of its formation. The course is designed to build from students' own personal observations of the day and night sky towards developing Cross-listed with: ENGR 110 increasingly sophisticated explanations for those phenomena and beyond. Conducting these astronomy investigations will help students SCIED 112: Climate Science for Educators understand fundamental aspects of physics, thus broadly preparing them for future science teaching in these domains. The course models 3 Credits evidence-based pedagogy, thus helping to prepare students for future Concepts of climate sciences highlighted by evidence-based teaching careers as they learn effective strategies for teaching science. explanations and scientific discourse in preparation for K-6 science Cross-listed with: ASTRO 116 teaching. This introductory, multidisciplinary course will focus on the interactions among physical science concepts, earth science concepts, SCIED 118: Field Natural History for Teachers and scientific practices to develop understandings about Earth's climate system. The course is primarily intended for prospective elementary 3 Credits school teachers (Childhood and Early Adolescent Education, PK-4 and 4-8 majors), although it is available to other non-science majors. -
Utah Kindergarten Teachers' Challenges and Concerns About Teaching Kindergarten
Utah State University DigitalCommons@USU All Graduate Theses and Dissertations Graduate Studies 12-2010 Utah Kindergarten Teachers' Challenges and Concerns About Teaching Kindergarten Ruth Jane Liebschutz Moore Utah State University Follow this and additional works at: https://digitalcommons.usu.edu/etd Part of the Pre-Elementary, Early Childhood, Kindergarten Teacher Education Commons Recommended Citation Moore, Ruth Jane Liebschutz, "Utah Kindergarten Teachers' Challenges and Concerns About Teaching Kindergarten" (2010). All Graduate Theses and Dissertations. 790. https://digitalcommons.usu.edu/etd/790 This Thesis is brought to you for free and open access by the Graduate Studies at DigitalCommons@USU. It has been accepted for inclusion in All Graduate Theses and Dissertations by an authorized administrator of DigitalCommons@USU. For more information, please contact [email protected]. UTAH KINDERGARTEN TEACHERS’ CHALLENGES AND CONCERNS ABOUT TEACHING KINDERGARTEN by Ruth Jane Liebschutz Moore A thesis submitted in partial fulfillment of the requirements for the degree of MASTER OF SCIENCE in Family, Consumer, and Human Development Approved: _______________________ _______________________ Shelley L. Knudsen Lindauer, Ph.D. Linda Skogrand, Ph.D. Major Professor Committee Member _______________________ _______________________ Kaelin M. Olsen, M.S. Byron R. Burnham, Ed.D. Committee Member Dean of Graduate Studies UTAH STATE UNIVERSITY Logan, Utah 2010 11 Copyright © Ruth Jane Liebschutz Moore 2010 All Rights Reserved III ABSTRACT Utah Kindergarten Teachers' Challenges and Concerns about Teaching Kindergarten by Ruth Jane Liebschutz Moore, Master of Science Utah State University, 2010 Major Professor: Dr. Shelley L. Knudsen Lindauer Department: Family, Consumer, and Human Development This qualitative study was an exploration of 55 Utah kindergarten teachers' perceptions of challenges in teaching. -
Professional Standards and Competencies for Early Childhood Educators
Professional Standards and Competencies for Early Childhood Educators Effective early childhood educators are critical for realizing the early childhood profession’s vision that each and every young child, birth through age 8, have equitable access to high-quality learning and care environments. As such, there is a core body of knowledge, skills, values, and dispositions early childhood educators must demonstrate to effectively promote the development, learning, and well-being of all young children. Disponible en Español: NAEYC.org/competencias A Position Statement Held on Behalf of the Early Childhood Education Profession Adopted by the NAEYC National Governing Board November 2019 Professional Standards and Competencies for Early Childhood Educators 3 Introduction 4 Relationship of Five Foundational Position Statements 6 Purpose 6 The Position 7 Design and Structure 8 Professional Standards and Competencies 9 Summary 11 STANDARD 1: Child Development and Learning in Context 13 STANDARD 2: Family–Teacher Partnerships and Community Connections 15 STANDARD 3: Child Observation, Documentation, and Assessment 17 STANDARD 4: Developmentally, Culturally, and Linguistically Appropriate Teaching Practices 20 STANDARD 5: Knowledge, Application, and Integration of Academic Content in the Early Childhood Curriculum 24 STANDARD 6: Professionalism as an Early Childhood Educator Professional Standards and Competencies for Early Childhood Educators Copyright © 2020 by the National Association for the Education of Young Children. All rights reserved. Permissions -
Teacher Education Handbook
1 Teacher Education Handbook Becoming teachers who teach boldly in a changing world through an ethic of care and critical reflection Education Department Eastern Mennonite University 2017-2018 www.emu.edu/education Updated August 1, 2017 2 Welcome to Teacher Education At Eastern Mennonite University The teacher education department subscribes to a Reflective Teaching Model informed by constructivist and critical reflective theorists. You will approach your studies through active learning as you reflect upon your beliefs, knowledge, thought, and actions. You will be challenged to examine your assumptions about teaching and learning as you participate in an environment of inquiry and collaboration. Teachers touch and help shape the future. They serve as models of life itself. For this reason each teacher needs a positive self-concept, needs to think well of others, and needs to believe in persons' mutual dependence. Faith commitment to Christ makes possible this wholeness in outlook and in relationships. Teacher education at Eastern Mennonite University offers you the opportunity to change and grow. The education faculty members believe that the person you are becoming is the key to your effectiveness as a prospective teacher. Preparation for teaching is dynamic and life-long. As your teachers, we are seeking to model this pilgrimage of openness and continuous growth both personally and professionally. We welcome you to walk with us on this journey. As you have questions and concerns, many of which will not be addressed in this handbook, please feel free to stop by the education department office. We anticipate a rewarding journey ahead! Sincerely, Cathy Smeltzer Erb, Ph.D. -
Learning How to Do Science Education: Four Waves of Reform
Learning how to do science education: Four waves of reform Roy Pea Allan Collins Stanford University Northwestern University To appear in Kali, Y., Linn, M.C., & Roseman, J. E. (Eds.). (in press, 2008). Designing coherent science education. New York: Teachers College Press. In the modern era of the past half-century, we have seen four waves of science education reform activity. Our view is that these waves are building toward cumulative improvement of science education as a learning enterprise. Each wave has been: (1) distinguished by a different focus of design, (2) led by different primary proponents, and (3) contributed to new learning about what additional emphases will be necessary to achieve desirable outcomes for science education – and a consequent new wave of activity and design. Consideration of these four waves will help contextualize the contributions represented in this volume. The first wave occurred in the 1950s and 1960s in response to a sense that our schools were not providing the challenging education in science needed to maintain America’s edge as a center of scientific research in the post-WWII period. This era of science reform was spawned in significant measure by the creation of the National Science Foundation (NSF) in 1950 and its dramatically accelerated funding following the Soviet Union’s 1957 launch of the first man-made space satellite, Sputnik. Scientists in major research universities were leading proponents of new science curricula in this wave, which aimed to introduce students to advances in recent scientific findings and to expose them to uses of the scientific method. Teachers' needs to learn this new content, and a focus on all students, not only the elite, were relatively neglected factors, as implementations of these curricula evidenced. -
Progressive Education: Why It's Hard to Beat, but Also Hard to Find
Bank Street College of Education Educate Progressive Education in Context College History and Archives 2015 Progressive Education: Why it's Hard to Beat, But Also Hard to Find Alfie ohnK Follow this and additional works at: https://educate.bankstreet.edu/progressive Part of the Curriculum and Instruction Commons, Curriculum and Social Inquiry Commons, Educational Methods Commons, and the Social and Philosophical Foundations of Education Commons Recommended Citation Kohn, A. (2015). Progressive Education: Why it's Hard to Beat, But Also Hard to Find. Bank Street College of Education. Retrieved from https://educate.bankstreet.edu/progressive/2 This Book is brought to you for free and open access by the College History and Archives at Educate. It has been accepted for inclusion in Progressive Education in Context by an authorized administrator of Educate. For more information, please contact [email protected]. Progressive Education Why It’s Hard to Beat, But Also Hard to Find By Alfie Kohn If progressive education doesn’t lend itself to a single fixed definition, that seems fitting in light of its reputation for resisting conformity and standardization. Any two educators who describe themselves as sympathetic to this tradition may well see it differently, or at least disagree about which features are the most important. Talk to enough progressive educators, in fact, and you’ll begin to notice certain paradoxes: Some people focus on the unique needs of individual students, while oth- ers invoke the importance of a community of learners; some describe learning as a process, more journey than destination, while others believe that tasks should result in authentic products that can be shared.[1] What It Is Despite such variations, there are enough elements on which most of us can agree so that a common core of progressive education emerges, however hazily. -
Historical Evolution of Instructional Technology in Teacher Education Programs
Historical Evolution of Instructional Technology in Teacher Education Programs by Anthony K. Betrus and Michael Molenda ontrary to popular perception, EARLY VISUAL INSTRUCTION the present status of the visual instruc- C technology is not new to COURSES:1920S AND 1930s tion courses in the United States [as] teacher education programs in the While it is not clear when the first the instructors in these courses have U.S. Skills in using technological course that focused on the use of little to guide them in preparing their media in teaching have been in- technology to support instruction was syllabi" (p. 315). cluded since the early 1900s. We will taught to pre-service teachers, "Prob- After conducting a survey of the in- review the evolving content and ably the first official credit course in structors who taught visual instruction methods of technology training in visual instruction was given at the courses, Starnes made recommenda- American teacher education, tracing University of Minnesota in 1918 by tions for the course content based on the changes from the 1920s to the Albert M. Field" (Saettler, 1990, p. the most frequently taught topics, in- early 2000s. We will show that this 149). In the 1920s, Anna V. Dorris cluding a sample course outline. In this evolutionary process was dramatically analyzed survey results from 30 nor- course outline, the first topic he pro- affected by the popularization of com- mal schools and 37 universities re- posed was "a brief history of visual in- puter technology in the 1980s, leading garding their provisions for teaching struction," followed by "the to a situation in which we now have visual instruction. -
Science Education Graduate Program Department of Curriculum and Instruction Purdue University
Science Education Graduate Program Department of Curriculum and Instruction Purdue University Brief Description of Program The science education graduate program offers K-12 teachers, curriculum specialists, scientists and other education professionals the opportunity to investigate contemporary issues related to science learning, teaching, assessment, curriculum, and teacher professional development. The science education faculty are internationally known and are engaged in fundamental and applied research, and curriculum and teacher professional development. The faculty also hold joint and courtesy appointments in the Departments of Biology; Chemistry; Physics and Astronomy; Earth, Atmospheric, and Planetary Science; Agricultural Sciences Education and Communication; Technology Leadership and Innovation; and the School of Engineering Education. Graduate students may specialize in the following areas within the science education program: biology, chemistry, earth/space science, elementary science education, geoenvironmental, physics and astronomy, and K-12 integrated STEM. The Graduate Program The master’s program is designed primarily for the continued preparation of school teachers. The program is comprised of coursework in science education, science content, and curriculum and instruction (see table below). The PhD program is designed primarily for students who want to specialize in science teacher education and science education research (see table below). The doctoral program is research-oriented, and graduates provide leadership -
Teacher Education and Development Study in Mathematics (TEDS-M) Policy, Practice, and Readiness to Teach Primary and Secondary Mathematics Conceptual Framework
TEACHER TEACHER TEACHER E DUCA EDUCATION This document outlines the framework and a comprehensive plan for a cross- national study of primary and secondary mathematics teacher education (TEDS-M) T ION AND AND sponsored by the International Association for the Evaluation of Educational Achievement (IEA). DEVELOPMENT TEDS-M 2008, which builds on the results of IEA student achievement studies, D focuses on how teachers are prepared to teach mathematics in primary and lower EVELOPMEN STUDY IN secondary schools. TEDS-M is a study of the variation in the nature and impact of teacher education MATHEMATICS programs within and across countries. The study collects and analyzes nationally representative data from participating countries to address contested issues and T improve policy and practice in teacher education. This document lays out the goals S (TEDS-M) T and justification for this study as well as its design and methodology. IN UDY The overall study has three overlapping components: • COMPONENT I: Studies of teacher education policy, schooling, and social contexts M TEDS at the national level. A T • COMPONENT II: Studies of primary and lower secondary mathematics teacher HEMA Policy, Practice, and education routes, institutions, programs, standards, and expectations for teacher Readiness to Teach learning. T IC • COMPONENT III: Studies of the mathematics and related teaching knowledge of S Primary and Secondary (TED future primary and lower secondary school mathematics teachers. Mathematics The key research questions for the study focus on the relationships between these S - components, such as relationships between teacher education policies, institutional M practices, and future teacher outcomes. ) Conceptual Framework Maria Teresa Tatto Lawrence Ingvarson John Schwille Ray Peck Sharon L. -
Prekindergarten Teacher Qualification Guidance
Prekindergarten Teacher Qualifications Guidance In implementing Rider 78, school districts and open-enrollment charter schools should employ prekindergarten teachers who are appropriately certified to teach early childhood (as per Subchapter B, Chapter 21) and meet one of the following qualification options: a) A Child Development Associate (CDA) credential or another early childhood education credential approved by the agency; b) A certification offered through a training center accredited by Association Montessori Internationale or through the Montessori Accreditation Council for Teacher Education; c) At least eight years of experience teaching in a nationally-accredited child care program; d) Be employed as a prekindergarten teacher in a school district that has received approval from the commissioner for the district’s prekindergarten-specific instructional training plan that the teacher uses in the teacher’s prekindergarten classroom; or e) An equivalent certification. TEA Guidance for d) and e) above: The following provisions, as provided in statute, satisfy qualification d) above: a) Employment as a prekindergarten teacher in a school district or charter that has ensured that: a. Prior to assignment in a prekindergarten class, teachers who provide prekindergarten instruction have completed at least 150 cumulative hours of documented professional development addressing the 2015 Texas Prekindergarten Guidelines in addition to other relevant topics related to high-quality prekindergarten over a consecutive five-year-period; b. Teachers who have not completed training required in subparagraph a of this paragraph prior to assignment in a prekindergarten class shall complete: i. The first 30 hours of 150 cumulative hours of documented professional development before the end of the school year. -
Why Implementing History and Philosophy in School Science Education Is a Challenge: an Analysis of Obstacles
Sci & Educ (2011) 20:293–316 DOI 10.1007/s11191-010-9285-4 Why Implementing History and Philosophy in School Science Education is a Challenge: An Analysis of Obstacles Dietmar Ho¨ttecke • Cibelle Celestino Silva Published online: 9 August 2010 Ó Springer Science+Business Media B.V. 2010 Abstract Teaching and learning with history and philosophy of science (HPS) has been, and continues to be, supported by science educators. While science education standards documents in many countries also stress the importance of teaching and learning with HPS, the approach still suffers from ineffective implementation in school science teaching. In order to better understand this problem, an analysis of the obstacles of implementing HPS into classrooms was undertaken. The obstacles taken into account were structured in four groups: 1. culture of teaching physics, 2. teachers’ skills, epistemological and didactical attitudes and beliefs, 3. institutional framework of science teaching, and 4. textbooks as fundamental didactical support. Implications for more effective implementation of HPS are presented, taking the social nature of educational systems into account. 1 Introduction Teaching and learning science with history and philosophy of science has a long tradition in several countries (e.g. Martins 1990; Matthews 1994;Ho¨ttecke 2001). Science educators often have stressed the merits of this approach for teaching and learning about science as a process (e.g. Millar and Driver 1987; Matthews 1994; Allchin 1997a), for promoting conceptual change and a deeper understanding of scientific ideas (Wandersee 1986; Se- queira and Leite 1991; Seroglou et al. 1998; Van Driel et al. 1998; Galili and Hazan 2001; Pocovi and Finley 2002; Dedes 2005; Dedes and Ravanis 2008), for supporting learning about the nature of science (NoS) (Solomon et al.