The document provides information about the UNAWE evaluation approach, including:
1) The session aims to explain the UNAWE evaluation approach, show evaluation handbook materials, and provide examples of evaluation evidence.
2) Examples of evidence are presented for different evaluation objectives, such as developing scientific skills and awareness of the universe, drawn from case studies of teacher training responses.
3) Case studies from Germany, the Netherlands, and Spain provide quotes from teachers on skills developed and improvement in student understanding of astronomy concepts over time.
- The document discusses the history of mathematics and instrumentation from ancient times through the 20th century. It covers important figures and their contributions, including the ancient Egyptians and Babylonians, Thales, Pythagoras, Archimedes, Euclid, Fibonacci, Cardano, Napier, Descartes, Newton, Hilbert, and Shannon. It also discusses women mathematicians like Theano, Hypatia, Caroline Herschel, Sophie Germain, and Emilie du Châtelet. Finally, it outlines various methods of teaching mathematics like the model method, Socratic method, lecture method, deductive method, and project method.
The document discusses the essence of continuous assessment in science education. It defines continuous assessment as closely observing and listening to students as they engage in learning to understand their thinking. This allows teachers to gather information on how students are doing without waiting until tests. The document also discusses techniques for continuous assessment like observation notes, videotapes, and student work. It emphasizes that continuous assessment serves to monitor student growth and enhance learning by catalyzing deeper thinking.
The document discusses strategies for teaching science as a practice. It contrasts typical K-8 science instruction with teaching science through scientific practices like asking questions, investigating, and evaluating models. Current instruction focuses narrowly on validating theories through routine experiments. The document recommends teaching science through practices like argumentation, explanation-building, and interacting with texts. It provides examples of instructional strategies at different grade levels to scaffold students' understanding and engage them in meaningful scientific inquiry.
This document discusses the role of universities and scholarly inquiry. It notes that universities aim to advance learning through research conducted by both faculty and students. It emphasizes that students should not simply depend on teachers for information, but rather generate their own knowledge through tools and methods provided by faculty. The document also stresses the importance of developing scientific thinking in students, and the need for universities to facilitate scholarly inquiry through access to research and developing core competencies in students like analytical skills. It acknowledges issues that currently limit research productivity in Philippine universities like heavy teaching loads and lack of support and rewards for publishing. Overall, the document advocates the need to balance teaching and research in universities to promote a scholarly culture.
Inquiry-based learning is a technique where teachers involve students in the learning process by focusing on open-ended questions, problem-solving activities, and critical thinking. It differs from traditional learning by giving students ownership over their learning through formulating their own questions to discover answers they are interested in, with teachers acting as facilitators. The inquiry process generally involves defining questions, locating resources, selecting and organizing information, creating works to demonstrate understanding, and evaluating the learning experience.
The document discusses key aspects of teaching science effectively, including:
- Understanding science content as well as pedagogical strategies and curriculum knowledge is important for quality science teachers.
- The science curriculum focuses on building understanding of conceptual ideas in life, matter, energy, earth and space as well as experiencing how science is applied.
- Effective classroom strategies include using the whiteboard well, asking good questions, giving clear instructions, incorporating practical work while maintaining safety, and managing timing and student movement.
The document provides guidance on designing an effective course. It discusses considering the course context, articulating student-centered and measurable goals, designing engaging activities that meet the goals, and planning formative and summative assessments with feedback. Specific strategies are presented, such as concept maps, minute papers, rubrics and cooperative exams. The overall message is that instructors should focus on higher-order thinking, design activities for active learning based on goals, and use assessments to improve student learning.
- The document discusses the history of mathematics and instrumentation from ancient times through the 20th century. It covers important figures and their contributions, including the ancient Egyptians and Babylonians, Thales, Pythagoras, Archimedes, Euclid, Fibonacci, Cardano, Napier, Descartes, Newton, Hilbert, and Shannon. It also discusses women mathematicians like Theano, Hypatia, Caroline Herschel, Sophie Germain, and Emilie du Châtelet. Finally, it outlines various methods of teaching mathematics like the model method, Socratic method, lecture method, deductive method, and project method.
The document discusses the essence of continuous assessment in science education. It defines continuous assessment as closely observing and listening to students as they engage in learning to understand their thinking. This allows teachers to gather information on how students are doing without waiting until tests. The document also discusses techniques for continuous assessment like observation notes, videotapes, and student work. It emphasizes that continuous assessment serves to monitor student growth and enhance learning by catalyzing deeper thinking.
The document discusses strategies for teaching science as a practice. It contrasts typical K-8 science instruction with teaching science through scientific practices like asking questions, investigating, and evaluating models. Current instruction focuses narrowly on validating theories through routine experiments. The document recommends teaching science through practices like argumentation, explanation-building, and interacting with texts. It provides examples of instructional strategies at different grade levels to scaffold students' understanding and engage them in meaningful scientific inquiry.
This document discusses the role of universities and scholarly inquiry. It notes that universities aim to advance learning through research conducted by both faculty and students. It emphasizes that students should not simply depend on teachers for information, but rather generate their own knowledge through tools and methods provided by faculty. The document also stresses the importance of developing scientific thinking in students, and the need for universities to facilitate scholarly inquiry through access to research and developing core competencies in students like analytical skills. It acknowledges issues that currently limit research productivity in Philippine universities like heavy teaching loads and lack of support and rewards for publishing. Overall, the document advocates the need to balance teaching and research in universities to promote a scholarly culture.
Inquiry-based learning is a technique where teachers involve students in the learning process by focusing on open-ended questions, problem-solving activities, and critical thinking. It differs from traditional learning by giving students ownership over their learning through formulating their own questions to discover answers they are interested in, with teachers acting as facilitators. The inquiry process generally involves defining questions, locating resources, selecting and organizing information, creating works to demonstrate understanding, and evaluating the learning experience.
The document discusses key aspects of teaching science effectively, including:
- Understanding science content as well as pedagogical strategies and curriculum knowledge is important for quality science teachers.
- The science curriculum focuses on building understanding of conceptual ideas in life, matter, energy, earth and space as well as experiencing how science is applied.
- Effective classroom strategies include using the whiteboard well, asking good questions, giving clear instructions, incorporating practical work while maintaining safety, and managing timing and student movement.
The document provides guidance on designing an effective course. It discusses considering the course context, articulating student-centered and measurable goals, designing engaging activities that meet the goals, and planning formative and summative assessments with feedback. Specific strategies are presented, such as concept maps, minute papers, rubrics and cooperative exams. The overall message is that instructors should focus on higher-order thinking, design activities for active learning based on goals, and use assessments to improve student learning.
The Scientific Method for the Little OnesBrearn Wright
The scientific method is a series of steps that helps children understand their world. It involves asking questions, making observations and predictions, experimentation, and discussion of results. Teachers can incorporate the scientific method throughout the classroom by engaging children in activities involving these steps. The document provides examples of how teachers prompt children's natural curiosity by using the scientific method during discussions, centers, and other classroom experiences. It also suggests teachers can improve by videotaping lessons to evaluate how frequently they employ this method of learning.
This document discusses how a kindergarten teacher, Ms. Randall, assesses her students during a unit on conservation. She uses a formative assessment approach involving feeding up, feedback, and feed forward. She establishes the purpose of the unit to engage students and guide assessments. Through observation and student work, she provides feedback to understand student learning and inform next steps. Her assessment allows for adjustments to instruction to meet evolving student needs.
Implementing strategies in science teaching, Menelaos SotiriouBrussels, Belgium
The document summarizes a conference that took place in Brussels from October 24-26, 2014 to introduce creativity in science education. The conference aimed to help individual teachers become aware of weaknesses in their practice, be motivated to improve, and learn best practices. Objectives included proposing a methodology for introducing creativity and innovation in schools through teacher training and communities. The conference outlined learning activities like science cafes, science theater, and writing science operas that incorporate creative elements. Near future plans included teacher training workshops and an international conference in 2015.
This document contains lesson plans submitted by students for a class on instructional materials and Dale's Cone of Experience. It includes:
1) An explanation of Dale's Cone of Experience which arranges learning experiences from most hands-on to most abstract.
2) Descriptions of the different bands or types of experiences in the Cone, including direct experiences, demonstrations, exhibits, and verbal symbols.
3) Guidance on selecting and properly using instructional materials based on standards of accuracy, relevance, and helping students learn.
4) A schedule assigning topics related to the Cone of Experience and instructional materials to different student presenters over two class days.
The very best methods for the secondary scienceJovanne
The document summarizes research on effective instructional methods for secondary science classrooms. It finds that hands-on, inquiry-based labs and real-world problem solving activities most engage students by giving them an authentic experience of how scientists work. Relying solely on worksheets or lectures is discouraged. The document also stresses the importance of creative lesson plans, collaborative work, and challenging higher-order thinking to maintain student interest in science.
This document discusses developing inquiry skills in social studies. It explains that inquiry involves investigating the social world and proposing explanations based on observations. Inquiry skills are grouped into five main areas: data gathering, organizing, processing, communicating, and reflecting. Effective teaching of inquiry skills involves modeling skills, encouraging curiosity, and respect for evidence. Lessons should focus on teaching a specific skill through concrete experiences, meaningful practice, and transferring skills to new situations. Planning lessons involves identifying the key skill and appropriate activities to teach and assess that skill.
The document discusses various hands-on activities teachers can use to engage students in learning science. It describes activities that encourage curiosity, allow skills development through manipulation, foster cooperation, help develop scientific concepts, and relate lessons to everyday life. Examples include observing the effect of smoking on cotton in a bottle, classifying devices that overcome human limitations, recreating the solar system with students representing planets, investigating how plant shoots respond to light, and determining which materials conduct heat well. The conclusion emphasizes that learning science is most meaningful when done through hands-on activities led by a facilitative teacher to enhance understanding and long-term memory.
This document outlines the curriculum for the Integrated Science course for 2010 secondary education. It covers the topic of the scientific method and matter for the first quarter. The general standard is for learners to demonstrate understanding of fundamental concepts and processes in science to analyze problems, think creatively, and make informed decisions to protect the environment. For the scientific method topic, learners will perform a teacher-guided community investigation using scientific methods. They will go through the steps of the scientific process, including formulating problems and hypotheses, experimentation, analyzing data, and drawing conclusions. The goal is for learners to understand the value and application of scientific inquiry.
The document discusses educational research quality and application-focused research and development. It notes that educational research does not have a strong reputation and some work is insufficiently built upon previous research or tested in new contexts. Application-focused research faces additional challenges, including underrepresentation of user-focused outputs in quality assessments and insufficient reference to recent relevant research. Improving educational research quality involves considering user needs and fundamental understanding.
1. The document discusses knowledge transfer and development in education, including defining knowledge and knowledge management.
2. It explores different teaching styles like lecturing, recitals, and tutorials that can be used to integrate knowledge and ensure learning and transfer has occurred.
3. Effective teaching requires engaging students through examples, questions, and active learning to help students apply and develop knowledge.
The document describes a science education conference program that includes breakout sessions on various topics related to implementing the Next Generation Science Standards and Common Core State Standards through different instructional models and professional development approaches. It also lists the scheduled keynote speaker and luncheon.
The document outlines the competencies and concepts taught in Quebec elementary and high school programs, including the use of an inquiry approach with 6 principles such as student observation, reasoning, and keeping experiment logs. It also discusses the role of teachers in guiding student learning through questions, discussions, and ensuring tasks are shared fairly within groups.
Knowledge transfer comprises strategies used in organizations to identify, create, distribute, and enable adoption of insights and experiences. Effective knowledge transfer requires understanding knowledge at different levels, from specific facts to general theories, and applying this knowledge in various contexts. It also important to engage students actively in the learning process through questioning, examples, and opportunities to develop their understanding, in order to ensure knowledge is successfully transferred.
The document discusses the implementation of the Australian Curriculum at Nuriootpa High School, including identifying needs around quality teaching and learning in history, managing the large volume of content, and ensuring clarity in unit planning and meaningful assessment. It also covers workshops held on understanding the achievement standards and using backwards design to plan learning experiences and assessment tasks that demonstrate student skills and understandings.
This document outlines a proposed Research-Teaching Nexus (R-TN) initiative with two core strands: 1) Pedagogic research and scholarship of teaching and learning capacity building and 2) Research as inquiry comprising research-informed teaching and research-enhanced learning. The initiative aims to increase engagement with pedagogic research, provide professional development opportunities, and incorporate more research-focused learning and teaching into the curriculum through activities like audits, blogs, and writing groups.
The document discusses teaching scientific skills and content. It recommends gradually releasing responsibility from teachers to students through modeling, structuring, and guiding inquiry-based learning. This approach aims to develop skills like hypothesizing while avoiding cognitive overload. The TEMI program offers content-led and skills-led lesson versions that follow this gradual release model and provide "lifelines" or cognitive strategies to support students. Teachers are advised to use these resources to integrate both content and skills development into their lessons in a scaffolded way.
This document provides an agenda for the NISMEC/I-STEM Talks conference with details of presentations on various science education topics. On Thursday, presentations will focus on student investigations of Galileo and the moons of Jupiter, using the high school modeling curriculum, and teacher developed extensions of the Indiana Science Initiative for grades 5-8. On Friday, topics will include the science process skills needed by middle schoolers, engaging students in science at all grades through object analysis, the impact of the Indiana Science Initiative on classrooms, teaching AP science, connecting literature to the lab, and the Next Generation Science Standards.
This document summarizes the mathematics department at Swavesey Village College. It highlights that the department's students routinely perform well above national averages in terms of GCSE mathematics results. It outlines several of the department's priorities and strategies for teaching mathematics to mixed-ability classes. These include differentiation, group work, tracking student progress, and providing support and intervention for students who need additional help. The department has also adopted strategies from educational research projects and collaborates with external organizations to enrich the teaching of mathematics.
This webinar provided instruction on developing learning goals and outcomes using Bloom's Taxonomy and aligning them with assessments and teaching materials. It covered writing measurable goals at the module and unit level, differentiating cognitive levels, and evaluating goal quality. The presenters described their iterative process of identifying goals, outcomes, assessments, resources and instructional strategies to ensure alignment across a curriculum unit. Participants were encouraged to apply this approach in their own teaching and to access online tutorials for the SERC content management system.
The document summarizes key information about visitor studies:
- Visitor Studies Association (VSA) is an international organization committed to understanding visitor experience in informal learning settings through research and dialogue.
- Visitor studies involves systematically obtaining and utilizing knowledge about actual and potential museum visitors to improve activities and experiences.
- Visitor studies is conducted to learn about audiences, better design exhibits and programs, and evaluate intended impacts.
- Common methods include observation, surveys, interviews and focus groups.
- Examples of visitor studies projects at various museums are described that used methods like interviews and tracking to evaluate exhibits.
Workshop 1 introduction, case studies and context for wikigemkimble
UNAWE EU Astronomy Education
Evaluation Workshop Session 1:
House of Astronomy, Heidelberg, October 8th 2013
Facilitator: Grace Kimble
Content can be freely used.
The Scientific Method for the Little OnesBrearn Wright
The scientific method is a series of steps that helps children understand their world. It involves asking questions, making observations and predictions, experimentation, and discussion of results. Teachers can incorporate the scientific method throughout the classroom by engaging children in activities involving these steps. The document provides examples of how teachers prompt children's natural curiosity by using the scientific method during discussions, centers, and other classroom experiences. It also suggests teachers can improve by videotaping lessons to evaluate how frequently they employ this method of learning.
This document discusses how a kindergarten teacher, Ms. Randall, assesses her students during a unit on conservation. She uses a formative assessment approach involving feeding up, feedback, and feed forward. She establishes the purpose of the unit to engage students and guide assessments. Through observation and student work, she provides feedback to understand student learning and inform next steps. Her assessment allows for adjustments to instruction to meet evolving student needs.
Implementing strategies in science teaching, Menelaos SotiriouBrussels, Belgium
The document summarizes a conference that took place in Brussels from October 24-26, 2014 to introduce creativity in science education. The conference aimed to help individual teachers become aware of weaknesses in their practice, be motivated to improve, and learn best practices. Objectives included proposing a methodology for introducing creativity and innovation in schools through teacher training and communities. The conference outlined learning activities like science cafes, science theater, and writing science operas that incorporate creative elements. Near future plans included teacher training workshops and an international conference in 2015.
This document contains lesson plans submitted by students for a class on instructional materials and Dale's Cone of Experience. It includes:
1) An explanation of Dale's Cone of Experience which arranges learning experiences from most hands-on to most abstract.
2) Descriptions of the different bands or types of experiences in the Cone, including direct experiences, demonstrations, exhibits, and verbal symbols.
3) Guidance on selecting and properly using instructional materials based on standards of accuracy, relevance, and helping students learn.
4) A schedule assigning topics related to the Cone of Experience and instructional materials to different student presenters over two class days.
The very best methods for the secondary scienceJovanne
The document summarizes research on effective instructional methods for secondary science classrooms. It finds that hands-on, inquiry-based labs and real-world problem solving activities most engage students by giving them an authentic experience of how scientists work. Relying solely on worksheets or lectures is discouraged. The document also stresses the importance of creative lesson plans, collaborative work, and challenging higher-order thinking to maintain student interest in science.
This document discusses developing inquiry skills in social studies. It explains that inquiry involves investigating the social world and proposing explanations based on observations. Inquiry skills are grouped into five main areas: data gathering, organizing, processing, communicating, and reflecting. Effective teaching of inquiry skills involves modeling skills, encouraging curiosity, and respect for evidence. Lessons should focus on teaching a specific skill through concrete experiences, meaningful practice, and transferring skills to new situations. Planning lessons involves identifying the key skill and appropriate activities to teach and assess that skill.
The document discusses various hands-on activities teachers can use to engage students in learning science. It describes activities that encourage curiosity, allow skills development through manipulation, foster cooperation, help develop scientific concepts, and relate lessons to everyday life. Examples include observing the effect of smoking on cotton in a bottle, classifying devices that overcome human limitations, recreating the solar system with students representing planets, investigating how plant shoots respond to light, and determining which materials conduct heat well. The conclusion emphasizes that learning science is most meaningful when done through hands-on activities led by a facilitative teacher to enhance understanding and long-term memory.
This document outlines the curriculum for the Integrated Science course for 2010 secondary education. It covers the topic of the scientific method and matter for the first quarter. The general standard is for learners to demonstrate understanding of fundamental concepts and processes in science to analyze problems, think creatively, and make informed decisions to protect the environment. For the scientific method topic, learners will perform a teacher-guided community investigation using scientific methods. They will go through the steps of the scientific process, including formulating problems and hypotheses, experimentation, analyzing data, and drawing conclusions. The goal is for learners to understand the value and application of scientific inquiry.
The document discusses educational research quality and application-focused research and development. It notes that educational research does not have a strong reputation and some work is insufficiently built upon previous research or tested in new contexts. Application-focused research faces additional challenges, including underrepresentation of user-focused outputs in quality assessments and insufficient reference to recent relevant research. Improving educational research quality involves considering user needs and fundamental understanding.
1. The document discusses knowledge transfer and development in education, including defining knowledge and knowledge management.
2. It explores different teaching styles like lecturing, recitals, and tutorials that can be used to integrate knowledge and ensure learning and transfer has occurred.
3. Effective teaching requires engaging students through examples, questions, and active learning to help students apply and develop knowledge.
The document describes a science education conference program that includes breakout sessions on various topics related to implementing the Next Generation Science Standards and Common Core State Standards through different instructional models and professional development approaches. It also lists the scheduled keynote speaker and luncheon.
The document outlines the competencies and concepts taught in Quebec elementary and high school programs, including the use of an inquiry approach with 6 principles such as student observation, reasoning, and keeping experiment logs. It also discusses the role of teachers in guiding student learning through questions, discussions, and ensuring tasks are shared fairly within groups.
Knowledge transfer comprises strategies used in organizations to identify, create, distribute, and enable adoption of insights and experiences. Effective knowledge transfer requires understanding knowledge at different levels, from specific facts to general theories, and applying this knowledge in various contexts. It also important to engage students actively in the learning process through questioning, examples, and opportunities to develop their understanding, in order to ensure knowledge is successfully transferred.
The document discusses the implementation of the Australian Curriculum at Nuriootpa High School, including identifying needs around quality teaching and learning in history, managing the large volume of content, and ensuring clarity in unit planning and meaningful assessment. It also covers workshops held on understanding the achievement standards and using backwards design to plan learning experiences and assessment tasks that demonstrate student skills and understandings.
This document outlines a proposed Research-Teaching Nexus (R-TN) initiative with two core strands: 1) Pedagogic research and scholarship of teaching and learning capacity building and 2) Research as inquiry comprising research-informed teaching and research-enhanced learning. The initiative aims to increase engagement with pedagogic research, provide professional development opportunities, and incorporate more research-focused learning and teaching into the curriculum through activities like audits, blogs, and writing groups.
The document discusses teaching scientific skills and content. It recommends gradually releasing responsibility from teachers to students through modeling, structuring, and guiding inquiry-based learning. This approach aims to develop skills like hypothesizing while avoiding cognitive overload. The TEMI program offers content-led and skills-led lesson versions that follow this gradual release model and provide "lifelines" or cognitive strategies to support students. Teachers are advised to use these resources to integrate both content and skills development into their lessons in a scaffolded way.
This document provides an agenda for the NISMEC/I-STEM Talks conference with details of presentations on various science education topics. On Thursday, presentations will focus on student investigations of Galileo and the moons of Jupiter, using the high school modeling curriculum, and teacher developed extensions of the Indiana Science Initiative for grades 5-8. On Friday, topics will include the science process skills needed by middle schoolers, engaging students in science at all grades through object analysis, the impact of the Indiana Science Initiative on classrooms, teaching AP science, connecting literature to the lab, and the Next Generation Science Standards.
This document summarizes the mathematics department at Swavesey Village College. It highlights that the department's students routinely perform well above national averages in terms of GCSE mathematics results. It outlines several of the department's priorities and strategies for teaching mathematics to mixed-ability classes. These include differentiation, group work, tracking student progress, and providing support and intervention for students who need additional help. The department has also adopted strategies from educational research projects and collaborates with external organizations to enrich the teaching of mathematics.
This webinar provided instruction on developing learning goals and outcomes using Bloom's Taxonomy and aligning them with assessments and teaching materials. It covered writing measurable goals at the module and unit level, differentiating cognitive levels, and evaluating goal quality. The presenters described their iterative process of identifying goals, outcomes, assessments, resources and instructional strategies to ensure alignment across a curriculum unit. Participants were encouraged to apply this approach in their own teaching and to access online tutorials for the SERC content management system.
The document summarizes key information about visitor studies:
- Visitor Studies Association (VSA) is an international organization committed to understanding visitor experience in informal learning settings through research and dialogue.
- Visitor studies involves systematically obtaining and utilizing knowledge about actual and potential museum visitors to improve activities and experiences.
- Visitor studies is conducted to learn about audiences, better design exhibits and programs, and evaluate intended impacts.
- Common methods include observation, surveys, interviews and focus groups.
- Examples of visitor studies projects at various museums are described that used methods like interviews and tracking to evaluate exhibits.
Workshop 1 introduction, case studies and context for wikigemkimble
UNAWE EU Astronomy Education
Evaluation Workshop Session 1:
House of Astronomy, Heidelberg, October 8th 2013
Facilitator: Grace Kimble
Content can be freely used.
This document outlines an evaluation workshop with the following aims: understanding evaluation context and methods, sharing case studies, and learning about evaluation research and examples. The workshop activities include recapping evaluation methods, conducting interviews, analyzing data, reviewing evaluation reports, presenting demographic information using mapping software, and considering evaluation strategies. Examples of evaluation methods that could be tried include using online surveys, participant observation, and consulting pupils in advance of a program. Recommended evaluation resources are also provided.
Workshop 3 analysis, reporting and sharinggemkimble
The document outlines the agenda and aims for Day 3 of a workshop. The aims include understanding evaluation context, sharing case studies, learning evaluation research methods, recapping evaluation methods, analyzing interview data, reviewing evaluation reports, presenting demographic information with mapping software, considering evaluation strategies, and presenting evaluation information. Participants will analyze data, create reports, and learn skills for presenting evaluation findings.
This presentation was given by Tsivia Cohen at the 2008 ASTC Annual conference. It was part of the Digging Deeper session chaired by Sue Allen. Copyright 2008 Chicago Children's Museum
What happens when the digital tools and platforms we make and use for communication and entertainment are hijacked for terrorism, violence against the vulnerable and nefarious transactions? What role do designers and developers play? Are we complicit as creators of these technologies and products? Should we police them or fight back? As Portfolio Lead for Northern Lab, Northern Trust's internal innovation startup focused on client and partner experience, Antonio will share a mix of provocative scenarios torn from today's headlines and compelling stories where activism and technology facilitated peace—and war.
As a call-to-action for designers and developers to engage in projects capable of transformational change, he'll explore the question: How might technology foster new experiences to better accelerate social activism and make the world a smarter, safer place?
The document provides guidance for evaluating the EU-UNAWE astronomy awareness programme. It outlines domains of learning including motivation, scientific skills, knowledge, and intercultural attitudes. Evaluation methods are suggested to gather evidence from children and teachers. For children, options include pre-and post-activity drawings, observations during games or activities, and optional surveys. For teachers, a survey is provided. The goal is to demonstrate the programme's impacts in a way that combines data from different locations and activities.
This document discusses various teaching strategies and methods for teaching science. It defines science as involving logical thinking and testing of hypotheses based on observations. It also discusses the goals of science education as developing students' knowledge, process skills, and scientific attitudes. The document then outlines several teaching strategies for science education, including enhancing context strategies, collaborative grouping strategies, questioning strategies, inquiry strategies, and assessment strategies. It also discusses two approaches to teaching science: inquiry-based learning and problem/issue-based learning. Finally, it discusses several methods for teaching science, such as lecturing, demonstrating, collaborating, debriefing, and using laboratories.
NCERT Module Two - Course Design Using the 5E'sStudyvibe
This document outlines the 5E instructional model and inquiry process model for developing a unit of work. It discusses engaging students, eliciting prior knowledge, providing hands-on experiences, developing explanations, extending understanding to new contexts, and evaluating learning. Key aspects of each phase are described, including questions to ask students. The achievement standards for year 6 are also presented, outlining what evidence of learning should be demonstrated by students.
This document proposes a professional development program for Ocean Discovery Institute that focuses on the Nature of Science. It summarizes research on effective professional development strategies and how teaching the Nature of Science can benefit both students and teachers. The proposed program would train teachers on the Nature of Science through communities of practice, modeling scientific practices, and emphasizing the Nature of Science in their curriculum and lessons. This aims to increase scientific literacy and better support English language learners. The proposal acknowledges limitations but provides multiple strategies that could be modified to suit Ocean Discovery Institute's needs.
Worked through this unit plan with an Intermediate level class. The experiment rotation before identifying individual science fair questions was highly successful! Helped students develop creative and exciting hypotheses over a range of the Science curriculum strands.
Teaching strategies base on bloom’s taxonomy of cognitive levelselectricmind
This document discusses teaching strategies based on Bloom's Taxonomy of Cognitive Objectives. It outlines strategies for developing various levels of learning, from the basic knowledge level to higher-order thinking. Strategies for knowledge development include direct instruction, drill and practice, hands-on activities and field trips. Comprehension strategies incorporate advance organizers and discussion. Application level strategies involve problem-solving activities, discovery learning and model making. Higher levels like analysis use discussion and research, while synthesis utilizes creative expression. Evaluation strategies encompass judgment, problem-solving, debates and simulations.
CAP2013 Assessing and Evaluating: a Case Study in the EU-UNAWE Italy Framework unawe
This document summarizes an assessment and evaluation case study of an astronomy education project in Italy called EU-UNAWE. The project involved over 5,600 children and 400 teachers across 10 schools in Italy. Specifically, the case study focused on two third grade classes in Ronco Briantino, near Milan.
The project used a Reggio Emilia inspired approach that emphasized seeing children as competent learners. Activities for the classes included a visit to a planetarium, developing schoolwork on topics of interest to students, meeting astronomers via Skype, an overnight event at the school, and a final event for parents.
Evaluation methods included formative assessments, documentation of activities and conversations, and questionnaires. Results showed increased
The lesson introduces students to the Common Core State Standards and Next Generation Science Standards through an inventory of their prior knowledge. It then explains the key shifts in focus and coherence required by the CCSS as well as the goals for student understanding outlined in the NGSS. Students participate in hands-on learning activities designed around the 5E instructional model to help them better understand and apply the new standards.
This document discusses the importance of field trips, excursions, science fairs and exhibitions for enhancing the learning experience of students. It notes that such activities provide hands-on, experiential learning opportunities outside the classroom. Specifically, field trips allow students to directly observe concepts they have learned, while science fairs and exhibitions give students a chance to pursue their own research interests and share their work with others. The document also provides guidance on planning effective field trips and developing strong science fair projects through components like display boards and written reports. Overall, it emphasizes that these supplemental activities help create knowledge by bringing academic topics to life and allowing students to actively engage with scientific ideas.
OBJECTIVES OF TEACHING SCIENCE
Education is a process of bringing about changes in an individual in a desired direction. It is a process of helping a child to develop his potentialities to the maximum and to bring out the best from within the child. To bring about these changes we teach them various subjects at different levels of school. Science as subject is included in the school curriculum from the very beginning.
Before taking any decision about teaching science we should pose certain questions to ourselves, such as,
• Why do we teach them science?
• What are the goals and objectives of teaching science?
• What changes does science teaching bring about in the behaviour of the students?
The document outlines a framework for systematically evaluating informal education and outreach programs, which often have diverse activities and diffuse audiences that make rigorous evaluation challenging. It recommends sharing best practices across agencies to improve coordination and leverage the potential for real impact through economy of scale. A variety of qualitative and quantitative data collection methods are proposed to assess programs aimed at different age groups.
Strategies for Assessment of Inquiry Learning in Science (SAILS), Eilish McLo...Brussels, Belgium
The SAILS project developed frameworks and materials for assessing inquiry skills in science education. It aimed to help teachers evaluate key skills like scientific reasoning, literacy, and collaboration. The project reviewed approaches across Europe, created assessment tools, and piloted them with teachers. It produced example science units focusing on skills like planning investigations and developed supports for teachers implementing inquiry-based learning and the associated assessments.
This document discusses the need for and importance of field trips, excursions, science fairs, and exhibitions to support experiential learning outside the classroom. It describes the purposes and types of field trips, and the steps to conduct them. Science fairs and exhibitions allow students to pursue curiosity and share their projects. Key components of science fair projects include a display, exhibit materials, and written report. These activities provide hands-on learning experiences, develop observation skills, and facilitate knowledge creation through direct interaction outside the formal classroom.
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.
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.
The document discusses how schools need to shift from a teaching focus to a learning focus and prepare students for the 21st century by redefining themselves. It introduces project-based learning as a framework that engages students through hands-on exploration of real-world problems and fosters collaboration. Guidelines are provided for planning and implementing project-based learning units that integrate content areas and involve defining essential questions, planning learning experiences, organizing the environment, and conducting authentic assessments.
This document provides an overview of key concepts in lesson design, including Universal Design for Learning (UDL), Understanding by Design (UbD), and Differentiated Instruction (DI). It discusses how UDL aims to remove barriers to learning by ensuring curriculum, assessment and tools promote learning for all. DI focuses on meeting the diverse needs of students through best practices for each learner considering variables like language, culture and learning styles. The document also summarizes the three stages of UbD: 1) identifying desired results like standards and understandings; 2) determining acceptable evidence like performance tasks; and 3) planning learning experiences and instruction.
Promoting Student Engagement and Imagination Through Project-Based LearningEduSkills OECD
This presentation was given by Joe Krajcik at the international conference “Fostering creativity in children and young people through education and culture” in Durham, United Kingdom on 4-5 September 2017.
This document discusses the need for a paradigm shift in curriculum and instructional approaches. It notes that while curriculum planning has begun to change, incorporating new skills and content, instruction has not shifted from a traditional lesson-based approach. The challenges of the 21st century demand skills like problem solving, teamwork and adaptability, but there is not enough time in the school day to teach all the new demands using traditional instructional methods. It proposes shifting to a "structure-based" approach where curriculum is embedded within instructional activities and structures rather than separated into distinct lessons. This would make it possible to achieve both academic standards and teach 21st century skills without reducing time spent on core subjects. A structure-based approach has the potential
Teacher Resource Guidebook - Practical Work ~ tessafrica.net ~ For more information, Please see websites below:
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Organic Edible Schoolyards & Gardening with Children =
http://scribd.com/doc/239851214 ~
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Double Food Production from your School Garden with Organic Tech =
http://scribd.com/doc/239851079 ~
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Free School Gardening Art Posters =
http://scribd.com/doc/239851159 ~
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Increase Food Production with Companion Planting in your School Garden =
http://scribd.com/doc/239851159 ~
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Healthy Foods Dramatically Improves Student Academic Success =
http://scribd.com/doc/239851348 ~
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City Chickens for your Organic School Garden =
http://scribd.com/doc/239850440 ~
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Huerto Ecológico, Tecnologías Sostenibles, Agricultura Organica
http://scribd.com/doc/239850233
`
Simple Square Foot Gardening for Schools - Teacher Guide =
http://scribd.com/doc/239851110
Similar to Unawe evaluation session thursday 10th october 2013 (20)
How to Manage Your Lost Opportunities in Odoo 17 CRMCeline George
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A review of the growth of the Israel Genealogy Research Association Database Collection for the last 12 months. Our collection is now passed the 3 million mark and still growing. See which archives have contributed the most. See the different types of records we have, and which years have had records added. You can also see what we have for the future.
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ISO/IEC 27001, ISO/IEC 42001, and GDPR: Best Practices for Implementation and...PECB
Denis is a dynamic and results-driven Chief Information Officer (CIO) with a distinguished career spanning information systems analysis and technical project management. With a proven track record of spearheading the design and delivery of cutting-edge Information Management solutions, he has consistently elevated business operations, streamlined reporting functions, and maximized process efficiency.
Certified as an ISO/IEC 27001: Information Security Management Systems (ISMS) Lead Implementer, Data Protection Officer, and Cyber Risks Analyst, Denis brings a heightened focus on data security, privacy, and cyber resilience to every endeavor.
His expertise extends across a diverse spectrum of reporting, database, and web development applications, underpinned by an exceptional grasp of data storage and virtualization technologies. His proficiency in application testing, database administration, and data cleansing ensures seamless execution of complex projects.
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Date: May 29, 2024
Tags: Information Security, ISO/IEC 27001, ISO/IEC 42001, Artificial Intelligence, GDPR
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LAND USE LAND COVER AND NDVI OF MIRZAPUR DISTRICT, UPRAHUL
This Dissertation explores the particular circumstances of Mirzapur, a region located in the
core of India. Mirzapur, with its varied terrains and abundant biodiversity, offers an optimal
environment for investigating the changes in vegetation cover dynamics. Our study utilizes
advanced technologies such as GIS (Geographic Information Systems) and Remote sensing to
analyze the transformations that have taken place over the course of a decade.
The complex relationship between human activities and the environment has been the focus
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significant role in maintaining the ecological equilibrium of our planet.Land serves as the foundation for all human activities and provides the necessary materials for
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The utilization of land is impacted by human needs and environmental factors. In countries
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to significant land degradation, adversely affecting the region's land cover.
Therefore, human intervention has significantly influenced land use patterns over many
centuries, evolving its structure over time and space. In the present era, these changes have
accelerated due to factors such as agriculture and urbanization. Information regarding land use and
cover is essential for various planning and management tasks related to the Earth's surface,
providing crucial environmental data for scientific, resource management, policy purposes, and
diverse human activities.
Accurate understanding of land use and cover is imperative for the development planning
of any area. Consequently, a wide range of professionals, including earth system scientists, land
and water managers, and urban planners, are interested in obtaining data on land use and cover
changes, conversion trends, and other related patterns. The spatial dimensions of land use and
cover support policymakers and scientists in making well-informed decisions, as alterations in
these patterns indicate shifts in economic and social conditions. Monitoring such changes with the
help of Advanced technologies like Remote Sensing and Geographic Information Systems is
crucial for coordinated efforts across different administrative levels. Advanced technologies like
Remote Sensing and Geographic Information Systems
9
Changes in vegetation cover refer to variations in the distribution, composition, and overall
structure of plant communities across different temporal and spatial scales. These changes can
occur natural.
Exploiting Artificial Intelligence for Empowering Researchers and Faculty, In...Dr. Vinod Kumar Kanvaria
Exploiting Artificial Intelligence for Empowering Researchers and Faculty,
International FDP on Fundamentals of Research in Social Sciences
at Integral University, Lucknow, 06.06.2024
By Dr. Vinod Kumar Kanvaria
5. 1.3 To learn about evaluation research and examples
-Research about evaluation and examples (GK)
Programmes have the same issues
“Furthermore, due to budget and time constraints,
the evaluation of initiatives is often
limited. The interconnections between initiatives
are very rare which effectively eliminates
the possibilities for scaling-up and for the
dissemination
of the new ideas: the dynamics of
“economy of scale” and the huge potential for
real impact are simply not being exploited”.
http://ec.europa.eu/research/science-
society/document_library/pdf_06/report-rocard-on-
science-education_en.pdf
6. 1.3 To learn about evaluation research and examples
-Research about evaluation and examples (GK)
local human agency perspective
Integration with
structural
perspectiveCategorisation for communication
7. Perspectives
Criteria Ontological perspective:
Structure
Human Agency
Function Control, supervision,
accountability
Learning, understanding
Goal Standardisation, universality Variance, difference, diversity and
peculiarity
Frame Structural/ macro
perspective
Diagnostic i.e. pupil level
Focus Products, conceptual
definitions
Processes, local meanings
Benefit Sorting, accountability Strengthening, autonomy
Outcomes Knowledge/professionalism Strengthening/ autonomy
Methodology Scientific, quantitative, RCT Responsive, diversified
Inquiry Analytic Holistic
Locus External Internal
Levin-Rosalis et al., 2009:191
8. Context
Child
Group
Class
Parent
Teacher
Group of parents
Group of teachers
Intervention
Resource
E Learning programme
Enrichment Programme
Curriculum
Informal learning organisation
Cluster of schools
Network of (in)formal learning organisations
Regional policy
National Policy
International Policy
Structural perspective
Human agency perspective
9. Evaluation strategy:
triangulation
Teacher surveys for many;
mixture of quantitative and qualitative information
Level of
insight
Number of people
Pupil drawings/ surveys
Qualitative information analysed quantitatively
Observations/ interviews
Qualitative information
analysed quantitatively and
reported both qualitatively
and quantitatively
10. Journey: UNAWE evaluation materials
Project initiation:
Project goals
March 2012:
Collaborative goals
Aug 2012:
Summative
evaluation materials
produced
Nov 2012:
NPMs amend
framework
March 2013:
UNAWE Evaluation
materials published
17. Domains of active learning
Objectives Evidence
Curiosity
Tenacity
Enjoyment
Inspiration
-Children are doing the tasks with pleasure
-Children seem enchanted
-Children react with diligence in front of the proposed
activities
-Children demonstrate attention
-Children apply perseverance / tenacity
-Children manifest inquisitiveness
-Children introduce some complex questions
Motivation
18. Objectives Evidence
Develop Scientific
Thinking & Problem
Solving Techniques;
Planning & Conducting
Investigations
Observation, Identification,
Classification, Making
interconnections, Changing
Perspective & Communication
Discussing and Questioning
Planning
Observing
Interpreting
Ideas and Evidence
Recording
-Correct use of vocabulary or gesture to name
objects and phenomena observed in sky
-Grouping objects/ phenomena to indicate
developing understanding of astronomy
concepts
-Making conjectures available to be contrasted
-Developing some experiences related to the
hypothesis
-Linking new information with existing
conceptions of the same or different areas
-Removing previous points of view according to
new inputs
-Sharing with others their new knowledge
Domains of active learning
Scientific skills
19. Domains of active learning
Awareness of the Universe
Objectives Evidence
Observing, exploring and discovering:
1. The Sun, Sun relative position, Sun light (shadows),
Day/night cycle, time zones, the seasons, the Moon,
the Earth as a planet, awareness of the existence of
water and of the Earth atmosphere and Sun light for
the development of life on Earth, Solar and Moon
eclipses,...
2. The Solar system: planets characteristics and
movements, wharf planets, asteroids, comets,...
3. The Stars in the night sky, the constellations,
orientation, the Life-cycle of stars, the formation of
stars and planets,...
4. Our place in the Milky Way, Family of galaxies,...
5. Current developments in astronomy
6. Magnetic fields (compass, northern lights,...)
7. Several complementary questions
Direct observation and/or recording
of naming, first explanations,
discussing, drawing, construction,
creative responses, movements and
dances, etc. to demonstrate
knowledge of one of the features
listed. left
20. Objectives Evidence
Valuing different cultural perspective.
Recognising different physical perspectives.
Positive attitude towards astronomy.
Valuing inclusive education
Working Individually & in Teams
-Demonstrating awareness of
different cultures
-Ability to observe and explain
differences in phenomena in
different countries
-Statements of future activity with
regards to astronomy
-Act on an appropriate way in a
frame of diversity
Domains of active learning
Intercultural awareness
21. Objectives Evidence
Disseminating knowledge to other
teachers
Recommendations for improvements
Embedding new materials in curriculum
CPD sharing
Written or spoken statements
New short, medium or long term
planning
Domains of active learning
Legacy
22. Examples of evidence
Objectives Evidence
Curiosity
Tenacity
Enjoyment
Inspiration
-Children are doing the tasks with pleasure
-Children seem enchanted
-Children react with diligence in front of the proposed activities
-Children demonstrate attention
-Children apply perseverance / tenacity
-Children manifest inquisitiveness
-Children introduce some complex questions
Motivation
25. Objectives Evidence
Develop Scientific Thinking &
Problem Solving Techniques;
Planning & Conducting
Investigations
Observation, Identification,
Classification, Making
interconnections, Changing
Perspective & Communication
Discussing and Questioning
Planning
Observing
Interpreting
Ideas and Evidence
Recording
Evaluation
-Correct use of vocabulary or gesture to name objects and
phenomena observed in sky
-Grouping objects/ phenomena to indicate developing
understanding of astronomy concepts
-Making conjectures available to be contrasted
-Developing some experiences related to the hypothesis
-Linking new information with existing conceptions of the
same or different areas
-Removing previous points of view according to new inputs
-Sharing with others their new knowledge
Scientific skills
Examples of evidence
26. Objectives Evidence
Develop Scientific Thinking &
Problem Solving Techniques;
Planning & Conducting
Investigations
Observation, Identification,
Classification, Making
interconnections, Changing
Perspective & Communication
Discussing and Questioning
Planning
Observing
Interpreting
Ideas and Evidence
Recording
Evaluation
-Correct use of vocabulary or gesture to name objects and
phenomena observed in sky
-Grouping objects/ phenomena to indicate developing
understanding of astronomy concepts
-Making conjectures available to be contrasted
-Developing some experiences related to the hypothesis
-Linking new information with existing conceptions of the
same or different areas
-Removing previous points of view according to new inputs
-Sharing with others their new knowledge
Scientific skills: groups
Examples of evidence
27. Examples of evidence
Scientific skills
Case study: The Netherlands- Teacher training responses
March 2013 n=65 comments
Did you develop any new skills or practice existing skills?
Teacher quotes; many focussed on
pedagogical approach as a skill they had
acquired:
“new skills! inquiry learning and how I can
use it in my classroom”
“how to explain clearly to children using
visuals”
“the usefulness of discovery learning”
28. Examples of evidence
Communication skills: teachers
Case study: The Netherlands- Teacher training responses
March 2013 n=65 comments
Did you develop any new skills or practice existing skills?
Teacher quotes; many focussed on
pedagogical approach as a skill they had
acquired:
“new skills! inquiry learning and how I can
use it in my classroom”
“how to explain clearly to children using
visuals”
“the usefulness of discovery learning”
29. Awareness of the Universe
Objectives Evidence
Observing, exploring and discovering:
1. The Sun, Sun relative position, Sun light (shadows), Day/night cycle, time
zones, the seasons, the Moon, the Earth as a planet, awareness of the
existence of water and of the Earth atmosphere and Sun light for the
development of life on Earth, Solar and Moon eclipses,...
2. The Solar system: planets characteristics and movements, wharf planets,
asteroids, comets,...
3. The Stars in the night sky, the constellations, orientation, the Life-cycle of
stars, the formation of stars and planets,...
4. Our place in the Milky Way, Family of galaxies,...
5. Current developments in astronomy
6. Magnetic fields (compass, northern lights,...)
7. Several complementary questions
Direct observation and/or recording of naming,
first explanations, discussing, drawing,
construction, creative responses, movements and
dances, etc. to demonstrate knowledge of one of the
features listed. left
Examples of evidence
30. Awareness of the Universe
Case study: Spain- Teacher training responses
Improvement over time
Examples of evidence
32. Objectives Evidence
Valuing different cultural perspective.
Recognising different physical
perspectives.
Positive attitude towards astronomy.
Valuing inclusive education
Working Individually & in Teams
-Demonstrating awareness of different cultures
-Ability to observe and explain differences in phenomena in
different countries
-Statements of future activity with regards to astronomy
-Act on an appropriate way in a frame of diversity
Intercultural awareness
Examples of evidence
34. Objectives Evidence
Disseminating knowledge to other
teachers
Recommendations for improvements
Embedding new materials in curriculum
CPD sharing
Written or spoken statements
New short, medium or long term
planning
Examples of evidence
Legacy
35. Examples of evidence
Case study: United Kingdom Teacher training
responses
Nov 2011 n = 48 participants
Initial Action Plan - as a result of this training I will:
“Endeavour to deliver the programme to my own P6 class within our World Around Us
planning /teaching. Disseminate today’s programme to my other 3 year group colleagues in P6 and
possibly to the P7 year group. Explore resources indicated to us today and try to secure funding
for those requiring purchases”.
Follow up: Have you ever had a chance to talk to your
colleagues about EU-UNAWE to disseminate what you have
learned?
“I disseminated some of the materials at a staff meeting. I have also incorporated the materials
into a unit called Razzle Dazzle – all based on light, planets, constellations etc and have shared
it with two colleagues from other schools who have also used it”.
36. Objectives Evidence
Disseminating knowledge to other
teachers
Recommendations for improvements
Embedding new materials in curriculum
CPD sharing
Written or spoken statements
New short, medium or long term
planning
Domains of active learning
Legacy