The document provides an overview of updates related to Texas science education, including:
- Revisions to the Texas Essential Knowledge and Skills (TEKS) implemented in 2010-2011 with increased focus on scientific investigations, safety practices, and equipment.
- Opportunities for professional development on the new TEKS in spring/summer 2010.
- Transition to end-of-course exams to replace the TAKS, with the graduating class of 2015 being the first required to pass EOCs.
- Analysis of 2006-2009 TAKS results identifying lowest scoring areas to guide instructional improvements.
The document provides information about Korea Science Academy of KAIST (KSA), including:
- KSA is a specialized high school for gifted students in science and engineering that is affiliated with KAIST.
- It was established in 1991 and admits 144 students per year through a rigorous selection process focusing on creativity, problem-solving, and exploratory skills.
- The school provides an advanced curriculum with a focus on research, allows students to take courses at KAIST, and has partnerships with international schools.
- Facilities include state-of-the-art science labs and dormitories, and the school aims to support students' academic and character development through graduation and beyond.
G. Djordjevic - Excellence in physics education by the international cooperationSEENET-MTP
This document summarizes an initiative to improve physics education in Serbia through the establishment of a specialized physics class for gifted students. Key points:
1) An experimental physics class was started 8 years ago in Nis, Serbia to offer gifted students high-quality physics education and opportunities to continue their studies.
2) Evaluation found students in the physics class had better results on physics tests than students in standard classes or specialized math classes.
3) The physics class attracted more students over time due to its attractive curriculum, additional resources, and student success.
This document contains assessment exemplars for Life Sciences for Grade 10, including control tests, a research project, and practical tasks. It provides teacher guidelines, assessment rubrics, and worksheets for learners for each assessment. The introductions explain that the exemplars are meant to be used for continuous assessment throughout the year. They assess the three learning outcomes, with the tests and project assessing mastery of content and skills, and the practical tasks assessing skills. Guidelines are provided for implementing the research project and practical activities, including classroom management, technology use, and thinking strategies.
This document provides an introduction and overview of the released test questions from the California Standards Tests for Life Science given between 2006-2008. It summarizes the reporting clusters covered in the test, including the standards assessed and number of questions for each cluster. The questions that follow are meant to represent the standards assessed while demonstrating a range of difficulty levels and assessment types.
This document provides an overview of key concepts in science education, including:
1. Definitions of science as a body of knowledge and a process of inquiry.
2. The importance of an inquiry-based approach to science instruction that parallels scientific practice.
3. National standards and frameworks that aim to define what students should know in science, including Science for All Americans and the National Science Education Standards.
4. Current reforms advocating reducing science content standards to allow for more in-depth study of core concepts.
This document provides an overview of key concepts in science education, including:
1. Definitions of science as a body of knowledge and a process for understanding the natural world.
2. The benefits of an inquiry-based approach to science instruction that parallels scientific practice.
3. The importance of developing conceptual understanding in students through engagement with concepts and building conceptual frameworks.
Thinking through Ethnoscientific Scenarios for Physics Teaching Implication f...ijtsrd
The study was focused on Physics teachers’ perception on the use of ethnoscience learning experiences for the teaching of secondary school Physics and its implication for curriculum implementation. Six research questions and six hypotheses were posited for the study. The cross sectional survey research design was employed for the study. 243 secondary school Physics teachers in three Urban Local Government Areas Port Harcourt, Obio Akpor and Eleme and four rural Local Government Areas Ikwerre, Khana, Ahoada East and Ahoada West in Rivers State, Nigeria were selected using the non proportional stratified random sampling technique. Data collecting instrument was titled “Ethnoscience Learning Experience for Physics Teaching Questionnaire” with a coefficient reliability index of 0.86 was used to elicit response from the respondents. Data was analyzed using frequency count, mean, and inferential statics of t test at 0.05 level of significance. The findings of the study revealed that the following themes Interaction of Matter, Space and Time, Conservative Principle, Waves Motion without material transfer and Fields at rest and in motion can be taught using ethnoscience learning experiences while themes such as Energy quantization and duality of matter and Physics in technology cannot be taught using ethnoscience learning experiences. Based on the findings of the study, it was recommended that stakeholders and planners of the secondary school Physics curriculum should consider the integration of ethnoscience learning experiences in the Physics curriculum in order to clarify those abstract concepts in learning of Physics. Aderonmu, Temitope S. B | Adolphus, Telima "Thinking through Ethnoscientific Scenarios for Physics Teaching: Implication for Curriculum Implementation" Published in International Journal of Trend in Scientific Research and Development (ijtsrd), ISSN: 2456-6470, Volume-5 | Issue-2 , February 2021, URL: https://www.ijtsrd.com/papers/ijtsrd38364.pdf Paper Url: https://www.ijtsrd.com/humanities-and-the-arts/education/38364/thinking-through-ethnoscientific-scenarios-for-physics-teaching-implication-for-curriculum-implementation/aderonmu-temitope-s-b
Nov 22 classroom observation and reflectionKyle Guzik
This document summarizes observations of two science classes at the Governor's School for Science and Technology (GSST), a magnet program for gifted high school students in Virginia. Both classes emphasized inquiry-based lab activities over lecture. In a physics class, students conducted a simulation lab and quiz using clickers. In an advanced biology class, students investigated aerobic respiration in yeast under microscopes. Both teachers demonstrated strong content knowledge and effective classroom management to engage gifted learners in science.
The document provides information about Korea Science Academy of KAIST (KSA), including:
- KSA is a specialized high school for gifted students in science and engineering that is affiliated with KAIST.
- It was established in 1991 and admits 144 students per year through a rigorous selection process focusing on creativity, problem-solving, and exploratory skills.
- The school provides an advanced curriculum with a focus on research, allows students to take courses at KAIST, and has partnerships with international schools.
- Facilities include state-of-the-art science labs and dormitories, and the school aims to support students' academic and character development through graduation and beyond.
G. Djordjevic - Excellence in physics education by the international cooperationSEENET-MTP
This document summarizes an initiative to improve physics education in Serbia through the establishment of a specialized physics class for gifted students. Key points:
1) An experimental physics class was started 8 years ago in Nis, Serbia to offer gifted students high-quality physics education and opportunities to continue their studies.
2) Evaluation found students in the physics class had better results on physics tests than students in standard classes or specialized math classes.
3) The physics class attracted more students over time due to its attractive curriculum, additional resources, and student success.
This document contains assessment exemplars for Life Sciences for Grade 10, including control tests, a research project, and practical tasks. It provides teacher guidelines, assessment rubrics, and worksheets for learners for each assessment. The introductions explain that the exemplars are meant to be used for continuous assessment throughout the year. They assess the three learning outcomes, with the tests and project assessing mastery of content and skills, and the practical tasks assessing skills. Guidelines are provided for implementing the research project and practical activities, including classroom management, technology use, and thinking strategies.
This document provides an introduction and overview of the released test questions from the California Standards Tests for Life Science given between 2006-2008. It summarizes the reporting clusters covered in the test, including the standards assessed and number of questions for each cluster. The questions that follow are meant to represent the standards assessed while demonstrating a range of difficulty levels and assessment types.
This document provides an overview of key concepts in science education, including:
1. Definitions of science as a body of knowledge and a process of inquiry.
2. The importance of an inquiry-based approach to science instruction that parallels scientific practice.
3. National standards and frameworks that aim to define what students should know in science, including Science for All Americans and the National Science Education Standards.
4. Current reforms advocating reducing science content standards to allow for more in-depth study of core concepts.
This document provides an overview of key concepts in science education, including:
1. Definitions of science as a body of knowledge and a process for understanding the natural world.
2. The benefits of an inquiry-based approach to science instruction that parallels scientific practice.
3. The importance of developing conceptual understanding in students through engagement with concepts and building conceptual frameworks.
Thinking through Ethnoscientific Scenarios for Physics Teaching Implication f...ijtsrd
The study was focused on Physics teachers’ perception on the use of ethnoscience learning experiences for the teaching of secondary school Physics and its implication for curriculum implementation. Six research questions and six hypotheses were posited for the study. The cross sectional survey research design was employed for the study. 243 secondary school Physics teachers in three Urban Local Government Areas Port Harcourt, Obio Akpor and Eleme and four rural Local Government Areas Ikwerre, Khana, Ahoada East and Ahoada West in Rivers State, Nigeria were selected using the non proportional stratified random sampling technique. Data collecting instrument was titled “Ethnoscience Learning Experience for Physics Teaching Questionnaire” with a coefficient reliability index of 0.86 was used to elicit response from the respondents. Data was analyzed using frequency count, mean, and inferential statics of t test at 0.05 level of significance. The findings of the study revealed that the following themes Interaction of Matter, Space and Time, Conservative Principle, Waves Motion without material transfer and Fields at rest and in motion can be taught using ethnoscience learning experiences while themes such as Energy quantization and duality of matter and Physics in technology cannot be taught using ethnoscience learning experiences. Based on the findings of the study, it was recommended that stakeholders and planners of the secondary school Physics curriculum should consider the integration of ethnoscience learning experiences in the Physics curriculum in order to clarify those abstract concepts in learning of Physics. Aderonmu, Temitope S. B | Adolphus, Telima "Thinking through Ethnoscientific Scenarios for Physics Teaching: Implication for Curriculum Implementation" Published in International Journal of Trend in Scientific Research and Development (ijtsrd), ISSN: 2456-6470, Volume-5 | Issue-2 , February 2021, URL: https://www.ijtsrd.com/papers/ijtsrd38364.pdf Paper Url: https://www.ijtsrd.com/humanities-and-the-arts/education/38364/thinking-through-ethnoscientific-scenarios-for-physics-teaching-implication-for-curriculum-implementation/aderonmu-temitope-s-b
Nov 22 classroom observation and reflectionKyle Guzik
This document summarizes observations of two science classes at the Governor's School for Science and Technology (GSST), a magnet program for gifted high school students in Virginia. Both classes emphasized inquiry-based lab activities over lecture. In a physics class, students conducted a simulation lab and quiz using clickers. In an advanced biology class, students investigated aerobic respiration in yeast under microscopes. Both teachers demonstrated strong content knowledge and effective classroom management to engage gifted learners in science.
Determining practicing and prospective teachers’ self-efficacy in TPACK in the science domain
Petra Fisser, Joke Voogt, Bart Ormel, Chantal Velthuis & Jo Tondeur, University of Twente, The Netherlands, Edith Stein University of Applied Sciences, The Netherlands, University of Ghent, Belgium
Teachers’ beliefs, practices and attitudes are important for understanding and improving educational processes, because they are closely linked to teachers’ challenges in their daily professional life. Self-efficacy (Bandura, 1977) seems to play a major role in this. In this study we look at teachers' self-efficacy towards the domain of science education and towards technology integration in this domain. Since most students who enter pre-service elementary school training in the Netherlands graduated from secondary school without science-related courses, many lack any foundational science knowledge. This contributes to their (absence of) confidence to teach science, and it also delimits their science-teaching related PCK. In a recent study Fisser, Ormel and Velthuis (submitted) measured teachers' beliefs, attitudes and self-efficacy in relation to science education in primary education, based on a Dutch version of the Science Teaching Efficacy Belief Instrument (STEBI) (Riggs & Enochs, 1990). The results for the pre-service teachers showed that the more pre-service teachers have the opportunity to experience actual teaching in the science domain, the higher the sense of self-efficacy is. Combining science education with technology integration offers even more challenges for teachers. Measuring teachers’ self-efficacy towards technology integration will be done by using a Dutch version of the TPACK survey (Schmidt et al., 2009). This survey will be complimented with the STEBI survey and, because the TPACK survey does not take into account teachers’ beliefs and attitudes towards technology, questions related to the attitude of teachers towards using technology in education will be added. The combined TPACK-STEBI survey will be distributed to Dutch pre-service primary education students and the results will be presented at the SITE symposium.
Teachers’ beliefs, practices and attitudes are important for understanding and improving educational processes, because they are closely linked to teachers’ challenges in their daily professional life. Self-efficacy (Bandura, 1977) seems to play a major role in this. In this study we look at teachers' self-efficacy towards the domain of science education and towards technology integration in this domain. Since most students who enter pre-service elementary school training in the Netherlands graduated from secondary school without science-related courses, many lack any foundational science knowledge. This contributes to their (absence of) confidence to teach science, and it also delimits their science-teaching related PCK. In a recent study Fisser, Ormel and Velthuis (submitted) measured teachers' beliefs, attitudes and self-efficacy in relation to science education in primary education, based on a Dutch version of the Science Teaching Efficacy Belief Instrument (STEBI) (Riggs & Enochs, 1990). The results for the pre-service teachers showed that the more pre-service teachers have the opportunity to experience actual teaching in the science domain, the higher the sense of self-efficacy is. Combining science education with technology integration offers even more challenges for teachers. Measuring teachers’ self-efficacy towards technology integration will be done by using a Dutch version of the TPACK survey (Schmidt et al., 2009). This survey will be complimented with the STEBI survey and, because the TPACK survey does not take into account teachers’ beliefs and attitudes towards technology, questions related to the attitude of teachers towards using technology in education will be added. The combined TPACK-STEBI survey will be distributed to Dutch pre-service primary education students and the results will be presented at the SITE symposium.
The Board of Higher Education meeting discussed aligning high school science standards and college admissions requirements. They recommended revising the admissions science requirement to include three lab-based science, technology, or engineering courses. This would align with current high school standards and recognize technology/engineering courses taken for science credit. It establishes a more aligned system between K-12, higher education, and workforce needs for science, technology, engineering, and mathematics skills.
this presentation will help the science administrators and enthusiasts to understand the curriculum of the Science, technology, Engineering and Mathematics in the Philippines.
1. The document discusses two options for sequencing science courses in secondary school: the traditional biology-chemistry-physics sequence and the physics-chemistry-biology sequence.
2. It analyzes the advantages and disadvantages of each approach based on research and the district's past performance data.
3. The district science coordinator proposes implementing a two-program model that gives students a choice between the two sequences to address challenges while fitting with the district's emphasis on customer service.
1. The document discusses two options for sequencing science courses in secondary school: the traditional biology-chemistry-physics sequence and the physics-chemistry-biology sequence.
2. It analyzes the advantages and disadvantages of each approach based on research and the district's past performance data.
3. The district science coordinator proposes implementing a two-program model that gives students a choice between the two sequences to address concerns while fitting with the district's emphasis on offering options.
The document discusses creating a STEM school district. It outlines goals for integrating STEM education across the K-12 curriculum. This would include developing new STEM-focused courses, providing professional development for teachers, and expanding student opportunities like robotics clubs and research programs. The goal is to ensure all students experience high-quality STEM learning to prepare them for college, careers, and life.
The panel presentation discusses career pathways for STEM technicians as a solution to two national problems: not enough technicians to support innovation and inadequate educational opportunities for capable high school students. It proposes partnering with STEM high schools to provide an alternative curriculum pathway for students interested in associate's degrees to become technicians. The alternative curriculum would adjust math requirements and include technical courses that prepare students to enter engineering technician programs.
The document discusses challenges in teaching science to future middle years and secondary school teachers. It focuses on integrating socioscientific issues into science curricula without taking away from content. The author models this approach in their teacher education courses by emphasizing either nature of science, technology, or science and society in sample course units. Student assignments are then analyzed to evaluate the pedagogy's effects on preparing teachers to plan science lessons integrating these real-world issues.
This document outlines the transition from the Scheme of Studies 2017 to the Chemistry curriculum for grades IX-XII. It discusses developing curricula, textbooks, and disseminating knowledge and skills to achieve the aims of imparting high-quality, student-centered education focusing on STEAM subjects, technical knowledge, and innovative activities. The curriculum, textbooks, and dissemination are the means to realize the objectives of producing disciplined youth with strong character and skills in critical thinking, logical reasoning, and precise communication.
This document provides an overview of Ohio's transition to college and career readiness standards and assessments. It discusses the professional development timeline for educators, what college and career readiness means, data on student readiness, and how jobs will increasingly require postsecondary education. It outlines Ohio's standards development process and attributes of the new standards in English language arts, math, science, social studies and other subjects. The document also discusses Ohio's model curriculum, physical education evaluation, comparative analysis of kindergarten standards, integration across subjects, and timeline for new online assessments to be administered by assessment consortia beginning in 2014-2015.
This document outlines the curriculum for science and technology from grades 3-10 in Punjab, Pakistan. It includes an introduction describing the objectives to encourage curiosity about science and technology and prepare students for further education and careers in related fields. It then provides a table showing the breakdown of topics by grade for the four standards of life sciences, physical sciences, earth and space sciences, and technology/vocational education. The curriculum aims to develop scientific literacy while meeting national educational goals.
The document discusses changes to graduation requirements and state assessments in Texas, including a transition to end-of-course exams beginning in 2011-2012 for current 7th graders and STAAR tests for students in 3rd-8th grade, with these exams eventually replacing the TAKS tests and becoming part of new graduation requirements involving passing scores on 12 end-of-course exams across core subjects.
Prospects and challenges in stem methodology in philippine public schoolsArvin Kim Arnilla
The presentation is based on a paper enumerating and analyzing some issues affecting the implementation of STEM in Public Senior High School in the Philippines
This document outlines the curriculum for physics in grades 9-12 in Punjab, Pakistan. It includes the table of contents, preamble, introduction, and information on how the scheme of studies is transitioned into curriculum, textbooks, and dissemination of knowledge and skills. The curriculum covers various topics in mechanics, work and energy, matter and its states, oscillations and waves, geometrical optics, electricity and magnetism, atomic and nuclear physics, and more advanced physics. Standards, benchmarks, and student learning outcomes are defined to indicate what students should know and be able to do at different levels.
The document provides information about Massachusetts' 2016 Science and Technology/Engineering Curriculum Framework. It discusses the vision, goals, and key emphases of the new STE standards, including relevance, rigor, and coherence. It explains the framework components and what the standards look like at different grade levels. Resources provided to support the transition include STE model curriculum units, science ambassadors, and "What to Look For" guides. Districts are encouraged to collaborate on the transition and consider strategies from past curriculum implementations.
The document provides an overview of the Texas Assessment of Knowledge and Skills (TAKS) exam for 8th grade social studies. It describes how TAKS was developed based on input from Texas educators to better assess the Texas Essential Knowledge and Skills (TEKS) curriculum. It also explains how the test is organized around objectives and student expectations from the TEKS and provides sample questions to demonstrate what will be assessed. The purpose is to help teachers understand how TAKS connects to classroom instruction of the TEKS.
This document provides information about the uniform examinations for Secondary IV Science and Technology and Applied Science and Technology programs in Quebec. It outlines the elements that will be evaluated, including compulsory concepts from different areas of study. It describes the format and content of the examinations, which consist of multiple choice and constructed response questions, as well as questions analyzing a technical object. It provides the conditions for administering the exams, permitted materials, and how the exams will be marked and results determined. The exams are intended to assess students' knowledge and ability to apply concepts from the science and technology curricula.
This document summarizes a presentation given at the 2014 STEM Summit about new assessments in STEM fields in California. It discusses the Smarter Balanced Field Test for English and math that will take place in March-June 2014. It also discusses requirements for science assessments, including continuing current state tests in 2013-14 and plans to develop new science assessments aligned with the Next Generation Science Standards. The presentation provided an overview of the field test, requirements for participation, and preparation resources available. It also summarized a previous science computer-based test tryout and next steps around developing new science assessments.
CURRICULUM AND METHODS IN TEACHING SCIENCE
TOPIC: COMPETENCY BASED LESSON GUIDE
REPORTER: WELFREDO L. YU ,JR.
CEBU TECHNOLOGICAL UNIVERSITY-MAIN CAMPUS
GRADUATE SCHOOL
The document contains information about virtual math manipulatives from several sources such as the National Library of Virtual Manipulatives and Glencoe. It also lists apps for students like Socrative Student, Evernote, camera apps and homework apps that could help with organization. Finally, it provides details about a free professional development event on July 31 in Melissa, Texas for teaching and connecting.
This document discusses transforming a traditional science fair into a Kids' Inquiry Conference (KIC). A KIC uses an authentic, non-competitive approach where students explore topics through scientific inquiry, engineering design, or writing processes. Students share their work through various mediums and presentations to develop collaboration skills. The document provides guidance on planning a KIC, including determining the scope, establishing support, student timelines, and logistics regarding locations, dates, and volunteer needs. It discusses implementing rubrics and assisting students through the research process. Benefits of a KIC include increased student understanding and skills in digital literacy, presentation, and 21st century skills.
Determining practicing and prospective teachers’ self-efficacy in TPACK in the science domain
Petra Fisser, Joke Voogt, Bart Ormel, Chantal Velthuis & Jo Tondeur, University of Twente, The Netherlands, Edith Stein University of Applied Sciences, The Netherlands, University of Ghent, Belgium
Teachers’ beliefs, practices and attitudes are important for understanding and improving educational processes, because they are closely linked to teachers’ challenges in their daily professional life. Self-efficacy (Bandura, 1977) seems to play a major role in this. In this study we look at teachers' self-efficacy towards the domain of science education and towards technology integration in this domain. Since most students who enter pre-service elementary school training in the Netherlands graduated from secondary school without science-related courses, many lack any foundational science knowledge. This contributes to their (absence of) confidence to teach science, and it also delimits their science-teaching related PCK. In a recent study Fisser, Ormel and Velthuis (submitted) measured teachers' beliefs, attitudes and self-efficacy in relation to science education in primary education, based on a Dutch version of the Science Teaching Efficacy Belief Instrument (STEBI) (Riggs & Enochs, 1990). The results for the pre-service teachers showed that the more pre-service teachers have the opportunity to experience actual teaching in the science domain, the higher the sense of self-efficacy is. Combining science education with technology integration offers even more challenges for teachers. Measuring teachers’ self-efficacy towards technology integration will be done by using a Dutch version of the TPACK survey (Schmidt et al., 2009). This survey will be complimented with the STEBI survey and, because the TPACK survey does not take into account teachers’ beliefs and attitudes towards technology, questions related to the attitude of teachers towards using technology in education will be added. The combined TPACK-STEBI survey will be distributed to Dutch pre-service primary education students and the results will be presented at the SITE symposium.
Teachers’ beliefs, practices and attitudes are important for understanding and improving educational processes, because they are closely linked to teachers’ challenges in their daily professional life. Self-efficacy (Bandura, 1977) seems to play a major role in this. In this study we look at teachers' self-efficacy towards the domain of science education and towards technology integration in this domain. Since most students who enter pre-service elementary school training in the Netherlands graduated from secondary school without science-related courses, many lack any foundational science knowledge. This contributes to their (absence of) confidence to teach science, and it also delimits their science-teaching related PCK. In a recent study Fisser, Ormel and Velthuis (submitted) measured teachers' beliefs, attitudes and self-efficacy in relation to science education in primary education, based on a Dutch version of the Science Teaching Efficacy Belief Instrument (STEBI) (Riggs & Enochs, 1990). The results for the pre-service teachers showed that the more pre-service teachers have the opportunity to experience actual teaching in the science domain, the higher the sense of self-efficacy is. Combining science education with technology integration offers even more challenges for teachers. Measuring teachers’ self-efficacy towards technology integration will be done by using a Dutch version of the TPACK survey (Schmidt et al., 2009). This survey will be complimented with the STEBI survey and, because the TPACK survey does not take into account teachers’ beliefs and attitudes towards technology, questions related to the attitude of teachers towards using technology in education will be added. The combined TPACK-STEBI survey will be distributed to Dutch pre-service primary education students and the results will be presented at the SITE symposium.
The Board of Higher Education meeting discussed aligning high school science standards and college admissions requirements. They recommended revising the admissions science requirement to include three lab-based science, technology, or engineering courses. This would align with current high school standards and recognize technology/engineering courses taken for science credit. It establishes a more aligned system between K-12, higher education, and workforce needs for science, technology, engineering, and mathematics skills.
this presentation will help the science administrators and enthusiasts to understand the curriculum of the Science, technology, Engineering and Mathematics in the Philippines.
1. The document discusses two options for sequencing science courses in secondary school: the traditional biology-chemistry-physics sequence and the physics-chemistry-biology sequence.
2. It analyzes the advantages and disadvantages of each approach based on research and the district's past performance data.
3. The district science coordinator proposes implementing a two-program model that gives students a choice between the two sequences to address challenges while fitting with the district's emphasis on customer service.
1. The document discusses two options for sequencing science courses in secondary school: the traditional biology-chemistry-physics sequence and the physics-chemistry-biology sequence.
2. It analyzes the advantages and disadvantages of each approach based on research and the district's past performance data.
3. The district science coordinator proposes implementing a two-program model that gives students a choice between the two sequences to address concerns while fitting with the district's emphasis on offering options.
The document discusses creating a STEM school district. It outlines goals for integrating STEM education across the K-12 curriculum. This would include developing new STEM-focused courses, providing professional development for teachers, and expanding student opportunities like robotics clubs and research programs. The goal is to ensure all students experience high-quality STEM learning to prepare them for college, careers, and life.
The panel presentation discusses career pathways for STEM technicians as a solution to two national problems: not enough technicians to support innovation and inadequate educational opportunities for capable high school students. It proposes partnering with STEM high schools to provide an alternative curriculum pathway for students interested in associate's degrees to become technicians. The alternative curriculum would adjust math requirements and include technical courses that prepare students to enter engineering technician programs.
The document discusses challenges in teaching science to future middle years and secondary school teachers. It focuses on integrating socioscientific issues into science curricula without taking away from content. The author models this approach in their teacher education courses by emphasizing either nature of science, technology, or science and society in sample course units. Student assignments are then analyzed to evaluate the pedagogy's effects on preparing teachers to plan science lessons integrating these real-world issues.
This document outlines the transition from the Scheme of Studies 2017 to the Chemistry curriculum for grades IX-XII. It discusses developing curricula, textbooks, and disseminating knowledge and skills to achieve the aims of imparting high-quality, student-centered education focusing on STEAM subjects, technical knowledge, and innovative activities. The curriculum, textbooks, and dissemination are the means to realize the objectives of producing disciplined youth with strong character and skills in critical thinking, logical reasoning, and precise communication.
This document provides an overview of Ohio's transition to college and career readiness standards and assessments. It discusses the professional development timeline for educators, what college and career readiness means, data on student readiness, and how jobs will increasingly require postsecondary education. It outlines Ohio's standards development process and attributes of the new standards in English language arts, math, science, social studies and other subjects. The document also discusses Ohio's model curriculum, physical education evaluation, comparative analysis of kindergarten standards, integration across subjects, and timeline for new online assessments to be administered by assessment consortia beginning in 2014-2015.
This document outlines the curriculum for science and technology from grades 3-10 in Punjab, Pakistan. It includes an introduction describing the objectives to encourage curiosity about science and technology and prepare students for further education and careers in related fields. It then provides a table showing the breakdown of topics by grade for the four standards of life sciences, physical sciences, earth and space sciences, and technology/vocational education. The curriculum aims to develop scientific literacy while meeting national educational goals.
The document discusses changes to graduation requirements and state assessments in Texas, including a transition to end-of-course exams beginning in 2011-2012 for current 7th graders and STAAR tests for students in 3rd-8th grade, with these exams eventually replacing the TAKS tests and becoming part of new graduation requirements involving passing scores on 12 end-of-course exams across core subjects.
Prospects and challenges in stem methodology in philippine public schoolsArvin Kim Arnilla
The presentation is based on a paper enumerating and analyzing some issues affecting the implementation of STEM in Public Senior High School in the Philippines
This document outlines the curriculum for physics in grades 9-12 in Punjab, Pakistan. It includes the table of contents, preamble, introduction, and information on how the scheme of studies is transitioned into curriculum, textbooks, and dissemination of knowledge and skills. The curriculum covers various topics in mechanics, work and energy, matter and its states, oscillations and waves, geometrical optics, electricity and magnetism, atomic and nuclear physics, and more advanced physics. Standards, benchmarks, and student learning outcomes are defined to indicate what students should know and be able to do at different levels.
The document provides information about Massachusetts' 2016 Science and Technology/Engineering Curriculum Framework. It discusses the vision, goals, and key emphases of the new STE standards, including relevance, rigor, and coherence. It explains the framework components and what the standards look like at different grade levels. Resources provided to support the transition include STE model curriculum units, science ambassadors, and "What to Look For" guides. Districts are encouraged to collaborate on the transition and consider strategies from past curriculum implementations.
The document provides an overview of the Texas Assessment of Knowledge and Skills (TAKS) exam for 8th grade social studies. It describes how TAKS was developed based on input from Texas educators to better assess the Texas Essential Knowledge and Skills (TEKS) curriculum. It also explains how the test is organized around objectives and student expectations from the TEKS and provides sample questions to demonstrate what will be assessed. The purpose is to help teachers understand how TAKS connects to classroom instruction of the TEKS.
This document provides information about the uniform examinations for Secondary IV Science and Technology and Applied Science and Technology programs in Quebec. It outlines the elements that will be evaluated, including compulsory concepts from different areas of study. It describes the format and content of the examinations, which consist of multiple choice and constructed response questions, as well as questions analyzing a technical object. It provides the conditions for administering the exams, permitted materials, and how the exams will be marked and results determined. The exams are intended to assess students' knowledge and ability to apply concepts from the science and technology curricula.
This document summarizes a presentation given at the 2014 STEM Summit about new assessments in STEM fields in California. It discusses the Smarter Balanced Field Test for English and math that will take place in March-June 2014. It also discusses requirements for science assessments, including continuing current state tests in 2013-14 and plans to develop new science assessments aligned with the Next Generation Science Standards. The presentation provided an overview of the field test, requirements for participation, and preparation resources available. It also summarized a previous science computer-based test tryout and next steps around developing new science assessments.
CURRICULUM AND METHODS IN TEACHING SCIENCE
TOPIC: COMPETENCY BASED LESSON GUIDE
REPORTER: WELFREDO L. YU ,JR.
CEBU TECHNOLOGICAL UNIVERSITY-MAIN CAMPUS
GRADUATE SCHOOL
The document contains information about virtual math manipulatives from several sources such as the National Library of Virtual Manipulatives and Glencoe. It also lists apps for students like Socrative Student, Evernote, camera apps and homework apps that could help with organization. Finally, it provides details about a free professional development event on July 31 in Melissa, Texas for teaching and connecting.
This document discusses transforming a traditional science fair into a Kids' Inquiry Conference (KIC). A KIC uses an authentic, non-competitive approach where students explore topics through scientific inquiry, engineering design, or writing processes. Students share their work through various mediums and presentations to develop collaboration skills. The document provides guidance on planning a KIC, including determining the scope, establishing support, student timelines, and logistics regarding locations, dates, and volunteer needs. It discusses implementing rubrics and assisting students through the research process. Benefits of a KIC include increased student understanding and skills in digital literacy, presentation, and 21st century skills.
The document proposes transforming a traditional science fair, which focuses on competition and rigid guidelines, into a Kids' Inquiry Conference (KIC) that fosters student-led scientific inquiry through choice, collaboration, and presentation of work through various mediums in a non-competitive environment. It provides an overview of the key aspects of planning and implementing a KIC, including determining the scope, establishing support, fostering inquiry in classrooms, and deciding on logistics like locations, dates, and technology needs. The goals of a KIC include getting others excited about science, providing an authentic learning experience for students, and strengthening students' presentation, communication, and
The document provides an agenda and materials for a new teacher orientation on incorporating literacy skills into all subject areas. It includes sections on interactive note-taking, vocabulary instruction strategies, comprehension challenges, and activities for teachers to use in their classrooms. The goal is to engage students and help them develop reading, writing, and critical thinking abilities across different content areas.
This document discusses the art and science of teaching. It addresses four key aspects of teaching: setting the climate for thinking, teaching the skills of thinking, structuring interaction with thinking, and thinking about thinking. For each aspect, it provides research-based strategies and techniques effective teachers use. It emphasizes that both the science of research-backed methods and the art of knowing how to apply them are important for high-quality instruction. The goal is to help all students achieve at high levels by engaging their minds.
This document outlines plans for developing a Next Generation Science Fair that focuses on scientific literacy through a Kids' Inquiry Conference (KIC) model. It discusses how KIC aims to develop students' understanding of scientific inquiry through choosing testable questions, designing investigations, collecting and analyzing data, and communicating results using various presentation mediums. The document provides resources and guidelines for teachers to implement KIC, including inquiry planning sheets, developing student research and presentations, and checklists for conference coordination. The goal is for students to engage in authentic science experiences and become experts in their topics through guided and student-initiated investigations.
The document discusses moving from a traditional science fair model to a Kids' Inquiry Conference (KIC) model. The KIC model focuses on fostering student collaboration, allowing choice in projects, and using a variety of mediums for students to become experts on their topic and share their work. It provides guidance on implementing a KIC, including determining the scope, establishing support, introducing the concept to students, and establishing timelines and roles. The KIC model aims to increase student ownership of learning and improve higher-order thinking skills.
This document discusses how using folded graphic organizers in science class can help students learn and retain information better. It notes that color increases willingness to read by 80% and retention by 75% compared to just words. Various types of folded organizers called "foldables" are recommended, such as those created by Dinah Zike, to help students reflect on and organize concepts in a hands-on way. Resources for creating different kinds of foldables are also provided.
This document discusses plans to transition from a traditional science fair format to a Kids' Inquiry Conference (KIC) model at a school district. It provides an overview of the key differences between a traditional science fair and KIC approach. It then outlines the steps needed to plan and implement a KIC, including establishing timelines, determining logistics, developing materials and ensuring support for student presentations through various mediums. The document emphasizes that a KIC aims to foster a more authentic, non-competitive learning environment where students can become experts on their topics and strengthen presentation skills.
4. Science TEKS – Revisions
Adopted by SBOE in March 2009
Implementation of new science TEKS in
2010-2011 school year
Transition year for preparation
Science TAKS and End-of-Course (EOC)
exams to reflect newly adopted TEKS
4
5. Science TEKS – Observations
More clarity and specificity in K-12
Consistent K-8 themes
Scientific investigation and reasoning
Matter and energy
Force, motion, and energy
Earth and space
Organisms and environments
5
6. Science TEKS – Observations
Middle school (6-8) shifted content for
grade-level focus
Grade 6 – Physical science focus
Grade 7 – Life science focus
Grade 8 – Earth and space science focus
6
7. Science TEKS – Safety
Increased K-12 focus on safety practices
Texas Safety Standards
Grade level or course list of safety
equipment
7
8. Science TEKS – Equipment
Increased K-12 focus on science
equipment
Grade level or course list of science tools
and equipment, including high school for the
first time
Note the “including” and “such as”
statements
Begin conversation on budgeting
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9. Elementary Investigations
New elementary time recommendations
for classroom/outdoor investigations
Grades K-1: At least 80% of instructional
time (“districts are encouraged to facilitate”)
Grades 2-3: At least 60% of instructional
time (“districts are encouraged to facilitate”)
Grades 4-5: At least 50% of instructional
time (“districts are encouraged to facilitate”)
9
10. Middle School Investigations
New middle school time requirements
for science investigations
Grades 6-8
Student-conducted laboratory/field
investigations for at least 40% of the
instructional time
10
11. High School Investigations
Continued high school time
requirements for science investigations
Grades 9-12
Student-conducted laboratory/field
investigations for at least 40% of the
instructional time
11
12. Scientific Investigations
Clarified importance in K-12 TEKS
To learn about the natural world
3 types
Descriptive investigations
Comparative investigations
Experimental investigations
12
13. Scientific Investigations
Descriptive investigations involve describing and/or
quantifying parts of a natural system.
Comparative investigations involve collecting data on
different populations/organisms, or under different
conditions (e.g., times of year, locations), to make a
comparison.
Experimental investigations involve a process in
which a “fair test” is designed in which variables are
actively manipulated, controlled, and measured in an effort
to gather evidence to support or refute a causal
relationship.
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18. Professional Development
Opportunities for science educators
Spring and summer 2010
Trainer-of-trainer for ESCs and large
districts in spring 2010
Participant training beginning in June
Combination of face-to-face and online
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19. Professional Development
Opportunities for science educators
Includes connections to College and
Career Readiness Standards (CCRS),
English Language Proficiency
Standards (ELPS), Gifted/Talented (G/T
Education, Special Education, and
Response to Intervention (RTI)
19
21. Professional Development
Programs include (continued)
Biology, Chemistry, & Physics
content in preparation for EOC
Biology in summer 2010
Chemistry and Physics in 2011
21
26. Graduation Requirements
2009–2010
Current High School Juniors
First class graduating under 4x4
Recommended HS Program
Algebra I, Geometry, Algebra II, and 4th math
credit
Biology; two of three credits from Integrated
Physics and Chemistry (IPC), Chemistry, or
Physics; and 4th science credit
26
27. Graduation Requirements
2009–2010
Note: graduation requirements are
dependent upon the year a student enters
as a 9th grader, so even if moving quickly
and graduating early, 4x4 still applies.
27
28. Graduation Requirements
and IPC
Minimum High School Program (MHSP)
Biology and IPC (or Chemistry and Physics)
Recommended High School Program
(RHSP)
IPC not a science requirement option for entering 9th
grade class in 2012-2013
Distinguished Achievement Program (DAP)
IPC can only count as a science elective credit
28
30. Assessment Changes
Transition Plan to 2010 TEKS
TAKS
End-of-Course (EOC) exams
Change in Calculator Policy
End-of-Course exams in chemistry and physics
Spring 2010 – recommended 1 scientific or graphing
calculator per student
Spring 2011 – required 1 scientific or graphing calculator
per student
30
31. End-of-Course (EOC) Exams
Success on EOC assessments becomes part of
the graduation requirements beginning with the
freshman class of 2011–2012.
A student’s score on each EOC assessment will
be worth 15% of the student’s final grade for the
corresponding course.
Details are being determined as part of
Transition Plan.
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33. End-of-Course Exams
So what does this mean?
The graduating class of 2015 (2014-15)
(students currently in grade 7) will be the first
group required to meet EOC assessment
standards in order to graduate.
Students currently in grades 8-12 must pass
exit level Texas Assessment of Knowledge and
Skills (TAKS) to graduate.
33
35. Science TAKS Analysis Reports
2009 TAKS results for grades 5, 8, and 11
Shows visual results for gender and ethnicity during a
4-year span
Highlights the specific Student Expectations from the
2009 TAKS results that indicate a less than 70%
correct response statewide (80% for grade 5 results)
Provides correlation with each Student Expectation
and the actual 2009 TAKS test items
35
38. 2009 Elementary TAKS Results
Lowest Statewide Objective – Earth Science
SE % Description
5.5B 72% describe some interactions that occur in a simple system
5.6B 69/79% identify the significance of the water, carbon, and nitrogen cycles
5.11B 77% draw conclusions about "what happened before" using data such as from
tree-growth rings and sedimentary rock sequences
3.11A 71% identify and describe the importance of earth materials including rocks,
soil, water, and gases of the atmosphere in the local area and classify
them as renewable, non-renewable, or inexhaustible resources
3.11D 77% describe the characteristics of the Sun
4.11A 67% test properties of soils including texture, capacity to retain water, and
ability to support life
5.12C 75% identify the physical characteristics of the Earth and compare them to the
physical characteristics of the moon
38
41. 2009 Middle School TAKS Results
Lowest Statewide Objective – Earth Science
SE % Description
7.13B 57% relate the Earth's movement and the moon's orbit to the
observed cyclical phases of the moon
7.14B 57% analyze effects of regional erosional deposition and weathering
8.10B 57% describe interactions among solar, weather, and ocean systems
8.12A 61% analyze and predict the sequence of events in the lunar and
rock cycles
8.14B 53% analyze how natural or human events may have contributed to
the extinction of some species
8.14C 68% describe how human activities have modified soil, water, and air
quality
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44. 2009 11th Grade TAKS Results
Lowest Statewide Objectives – Chemistry & Physics
SE % Description
IPC 7A 53/55% recognize that waves are generated and can travel through
different media
IPC 8C 44/85% investigate and identify the law of conservation of mass
IPC 9A 59/68% relate the structure of water to its function [as the universal
solvent]
IPC 9B 63% relate the concentration of ions in a solution to physical and
chemical properties such as pH, electrolytic behavior, and
reactivity
44
45. 2009 11th Grade TAKS Results
Lowest Statewide Objective – Chemistry & Physics
SE % Description
IPC 4B 68/90% investigate and describe [applications of] Newton's laws such
as in vehicle restraints, sports activities, geological processes,
and satellite orbits.
IPC 4D 55% investigate and demonstrate [mechanical advantage and]
efficiency of various machines such as levers, motors, wheels
and axles, pulleys, and ramps.
IPC 5B 44% demonstrate wave interactions including interference,
polarization, reflection, refraction, and resonance within various
materials.
IPC 6A 60/74% describe the law of conservation of energy
IPC 6B 55% investigate and demonstrate the movement of heat through
solids, liquids, and gases by convection, conduction, and
radiation
45
46. Summary
Need to reduce the achievement gap between
genders
Need to reduce the achievement gap among
African American, Hispanic, and white students
Commit to teach all the TEKS for each
grade/course
Focus attention on Earth and space science
concepts
46
48. College and Career Readiness
Phase III: Develop Instructional Strategies
and Support Materials
Science CCRS Online Student Materials
available during the fall semester of 2011
48
49. College and Career Readiness
Phase III: Educator Support Web Portal
Provides Q&A and Updates
Instructional Strategies
Professional Development
49
51. Presidential Awards (PAEMST)
The highest recognition that a kindergarten
through 12th-grade mathematics or science
teacher may receive for outstanding teaching in
the United States
Nominations now open
Applications are due by May 1, 2010
This year: K-6 teachers
51
52. Presidential Awards (PAEMST)
Who is Eligible?
Have at least 5 years of teaching experience prior to application
Teach mathematics or science at the K-6 level in a public or private
school.
Be full-time employees of the school or school district
Be highly qualified teachers, as deemed by their states, districts, or
schools
Hold a degree or appropriate credentials in the category for which
they are applying
Teach in one of the 50 states or four U.S. jurisdictions
Not have received the national PAEMST award in any prior
competition or category
52
53. Presidential Awards (PAEMST)
The National Science Foundation, under the direction of the
White House, approves the Texas candidates as finalists for
the national PAEMST award. If chosen as a national winner,
the state finalists will receive $10,000 and an all-expense-paid
trip for two to Washington D.C. for ceremonies that include
recognition from the President of the United States at the
Capital.
Nominations Due April 1, 2010
Applications Due May 1, 2010
More information at www.PAEMST.org
53
54. Presidential Awards (PAEMST)
2009 Texas Secondary Science Finalists – Science
Mila Bersabal is a high school physics teacher from Lee High
School, Houston, who has 18 years of teaching experience.
Michele Mann is a high school biology teacher from Vista Ridge
High School, Cedar Park, who has 10 years of teaching experience.
Stef Paramoure is an 8th grade science teacher from Canyon
Middle School, New Braunfels, who has 7 years of teaching
experience.
54
56. TALA
The TALA initiative exists to increase academic
literacy among middle school students by
providing research-based professional
development to middle school teachers.
Two types of academies:
English Language Arts (ELA) Academy (for English
language arts/reading teachers) – 4 days
Content Area Academy (for mathematics, science, and
social studies teachers) – 2 days
56
57. TALA
Who can attend the Content Academies?
Certified, full-time teachers who will teach
mathematics, science, and/or social studies at
least 50% of their day and teach students in
grade 6 (2008-2009) and grades 7-8 (2009-2010)
at least 50% of their day, including teachers in
general education, special education or English
as a second language education
57
58. TALA
Teachers attending the Content Academy
will receive a $250 stipend and 12
Continuing Professional Education (CPE)
credits for completion.
Information is available at
http://ritter.tea.state.tx.us/tala/index.html.
58
60. Available Funding
Student Success Initiative Grants for
Districts
Funds for any content area in grades K-12
Application available October 26, 2009
Application due by November 20, 2009
http://www.tea.state.tx.us/index2.aspx?id=6586
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61. Available Funding
Master Grant Program
Only districts with existing master teachers
Stipend grant requests due by June 30, 2010
http://www.tea.state.tx.us/masterteacher.aspx
61
63. TMSDS Features
Science component: Grades 3-8 and IPC,
Biology, Chemistry, and Physics
3 diagnostic tests available for each
grade level/course – 30 questions each
5-question “mini-assessments” available
for most student expectations for each
grade level/course
63
64. New TMSDS Features
Grade 3 Science
Pre-load class and user data
35 pre-configured quizzes per
grade/subject
English and Spanish available
Skill resources for Math
64
65. Spanish Items Available for
Diagnostics & Minis
Grades 3-8
Biology
Chemistry
Physics
IPC
65
68. Taking Science to School (2007)
This important report claims that students who
are proficient in science should be expected to
1. know, use, and interpret scientific
explanations of the natural world;
2. generate and evaluate scientific evidence
and explanations;
3. understand the nature and development of
scientific knowledge; and
4. participate productively in scientific
practices and discourse.
Each of the above four strands of science
education are judged to be of equal importance!
68
69. Taking Science to School (2007)
Note that strands 2 and 4 can ONLY
be taught through active inquiry!
1. Know, use, and interpret scientific
explanations of the natural world
2. Generate and evaluate scientific evidence
and explanations
3. Understand the nature and development of
scientific knowledge
4. Participate productively in scientific
practices and discourse
69
70. We Need You!
Sign up for the Science
and Assessment Listservs
www.tea.state.tx.us/list/
70
71. TEA Science Contacts
Kenn Heydrick, Ed.D.
Director of Science
(512) 463-9581
Kenn.Heydrick@tea.state.tx.us
Irene Pickhardt, M.S.
Assistant Director of Science
(512) 463-9581
Irene.Pickhardt@tea.state.tx.us
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72. Thank you. We appreciate your
service to children.
We strive to provide leadership,
guidance, and resources to help
schools meet the educational needs
of all students.
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