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RESEARCH INPUT, SCIENCE TEACHER AS A RESEARCHER, THRUST AREAS IN PHYSICAL SCIENCE

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RESEARCH INPUT, SCIENCE TEACHER AS A RESEARCHER, THRUST AREAS IN PHYSICAL SCIENCE

  1. 1. RESEARCH INPUT SCIENCETEACHER AS A RESEARCHER THRUST AREAS IN PHYSICAL SCIENCE BY PARVATHY.S M.ED DEPT OF EDUCATION
  2. 2. RESEARCH INPUT • Inputs in research are those resources that we use in the research to implement example, in any research, input would include things like human resource (the time staff or volunteers, expertise, such as a consultant ), finance equipment, technical expertise etc. • Inputs ensure that it is possible to deliver the intended result of a research. • These inputs enable some activities and lead to certain outputs • Inputs include the raw materials that provide a basis for research
  3. 3. RESEARCH RESOURCES • Research resources can come from print media, such as books, brochures, journals, magazines, newspapers, and books and CD-ROMs and other electronic sources, such as the Internet and the world wide web. • They may also come from interviews and surveys. • Research resources are usually thought of as primary sources and secondary sources. • When to, and in what combination, usually depends on the research and the discipline.
  4. 4. TEACHER AS RESEARCHER • The concept of teacher as researcher is included in recent literature on educational reform, which encourage teachers to be collaborators in revising curriculum, improving their work environment, professionalizing teaching and policy. • Teacher research has its roots in action research.Teacher-researchers can be characterized as those practitioners who attempt to better understand their practice and its impact on their student, by researching the relationship between teaching and learning in their world work.
  5. 5. PURPOSE OFTEACHER ACTION RESEARCH • School-based curriculum development.. • A professional development strategy . • Pre serve and graduate course in education. • System planning and policy development. • School restricting. • An evaluative tool. • Assist in self-evaluation whether the self be an individual or an institution. Action research has been employed for various purpose.
  6. 6. SCIENCETEACHER AS A RESEARCHER
  7. 7. KNOWLEDGE OF CONTENT • Demonstrates an understanding of the science content in the grades/courses assigned, and an ability to convey this content to students. • Keeps abreast of current developments in the sciences • Demonstrates proficiency in the use of measurement and data collection tools and techniques to gather, manage, analyze, and interpret data; including computer-based measurement devices, modeling tools and instructional supports to enhance student learning opportunities. • Uses and promotes the understanding of appropriate. • Provides essential supports for students in science who are learning English or have limited English proficiency
  8. 8. • Accesses a rich repertoire of instructional practices/strategies and applies them appropriately to the particular needs of his/her students aligned with the cognitive demand of the science content (pedagogical content knowledge) • Use and seek to expand appropriate scientific vocabulary. • Connect science ideas in different content strands, (Physical, Life, and Earth/space), and in different content areas. • Use science ideas in realistic problems.
  9. 9. INSTRUCTIONAL RIGOR AND STUDENT ENGAGEMENT • Scaffolds instruction to help students reason and develop problem- solving strategies. • Consistently demonstrates proficiency with the use of appropriate tools, technology and techniques to solve problems. • Provides opportunities for and encourages students to connect multiple representations of scientific ideas, such as pictures, written explanations, symbolic work, diagrams, manipulative models, etc. • effective classroom discussions, questioning, and learning tasks that promote higher-order thinking skills. • Challenges students to think deeply about problems and encourages/models a variety of approaches to a solution
  10. 10. • Integrates a variety of learning resources with classroom • instruction to increase learning options for all students; these should include guest presenters, field experiences, and career explorations • Integrates a variety of learning resources with classroom instruction to increase learning options for all students; these should include guest presenters, field experiences, and career explorations • Structures and facilitates ongoing formal and informal discussions based on a shared understanding of rules of scientific discourse • Integrates the application of inquiry skills into learning experiences • Clarifies and shares with students learning intentions/targets and criteria for success. • Articulate and understand learning intentions/targets and criteria for success
  11. 11. INSTRUCTION RELEVANCE • Designs lessons that allow students to participate in empowering activities in which they understand that learning is a process and mistakes are a natural part of the learning. • Links concepts and key ideas to students’ prior experiences and understandings, uses multiple representations, examples and explanations • Incorporates student experiences, interests and real-life situations in instruction • Possesses an understanding of a variety of technology • Respond to and pose non-trivial questions • Use appropriate tools and techniques to gather, analyze, and interpret quantitative and qualitative data
  12. 12. • Explore scientific issues underlying national and local decisions and express positions (in speech and writing) that are scientifically and technologically informed • Design and conduct scientific investigations, and use the results to make real- world applications and generate further questions. • Recognize and analyze alternative explanations and predictions. • Think critically and logically to identify the relationships between evidence and explanations. • Develop descriptions, explanation, predictions, and models using evidence • Pose and evaluate models/arguments based on evidence and apply conclusions from such models/arguments. • Describe, explain and predict natural phenomena. • Communicate scientific procedures and explanations using appropriate scientific vocabulary. • Exhibit skills, attitudes, and values associated with scientific inquiry.
  13. 13. LEARNING CLIMATE • Creates learning environments where students are active participants in creating, questioning, sharing, discussing, reasoning and analyzing the processes involved in solving scientific problems/tasks. • Motivates students to achieve, and nurtures their desire to learn in an environment that promotes empathy, compassion, and a mutual respect both among students and between students and the teacher. • Encourages students to accept responsibility for their own learning and respects the right of each student to ask questions and to request resources to more fully understand, enhance, or add clarity to the learning. • Provides learning experiences that actively engage all students as individuals and as members of collaborative groups.
  14. 14. • Displays effective and efficient classroom management (e.g., in facilitating cooperative groups, in use of equipment or hands-on materials). • Provides sufficient time in science class for students to engage in hands- on experiences and to make connections with these experiences and scientific principles. • Accept responsibility for their own learning • Actively participates (regardless of gender, race, ability, or disability).
  15. 15. INFORMATIVE ASSESSMENT AND REFLECTION • Uses multiple methods and systematically gathers data about student understanding and ability (formative and summative assessments). • Uses student work/data, observations of instruction teaching, assignments and interactions with colleagues to reflect on and improve teaching practice • Revises instructional strategies based upon student achievement data (short term and long term). • Uncovers students’ prior conceptions about the concepts to be addressed and addresses students’ misconceptions/incomplete conceptions. • Co-develops scoring guides/rubrics with students and provides adequate modeling to make clear the expectations for quality performance.
  16. 16. • Guides students to apply rubrics to assess their performance and identify improvement strategies. • Provides regular and timely feedback to students and parents (focused, descriptive, qualitative) that moves learners forward • Allows student to use feedback to improve their work before a grade is assigned • Facilitates students in self- and peer-assessment • Provides qualitative and quantitative feedback to students on a regular and timely basis (Seems redundant – G.)
  17. 17. THRUST AREAS OF RESEARCH IN PHYSICAL SCIENCE

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