This document outlines a project plan for a unit exploring nuclear physics and its impact on society. The unit aims to understand nuclear physics through studying its role in society and the world. It incorporates interdisciplinary subjects and connects with community experts. Students will learn about nuclear reactions, chain reactions, and how scientists developed an understanding of nuclear physics. They will explore how social standards influence science and consider ethics around the funding and applications of science. Assessments include labs, reflections, and a final project researching a historical figure involved in the Manhattan Project. The unit promotes critical thinking about the relationships between science, society, and social justice issues.
PBIS_STEMinhistory_2013_Innovation_ExampleBeth White
?
This document provides a project planner for a unit on 19th century innovations focused on the granite industry. The unit aims to have students inquire into whether 19th century innovations were a "curse or cure" through interdisciplinary lessons incorporating science, history, art, and social justice. Students will explore the scientific methods behind extracting and transporting granite, the health impacts and social issues of the granite industry, and how innovations can both benefit and harm society. Assessments may include experiments, reflections, correspondence with scientists, and challenge projects presenting different perspectives on the granite industry.
This document outlines a capstone project for incorporating bioethics into a high school science classroom. It includes objectives such as having students work in groups to complete authentic tasks on various bioethical issues. Examples of projects described are having students take on roles related to the Tuskegee Syphilis study and complete a genetics counseling case study. Throughout the year, students would keep an ethics journal to reflect on science articles addressing ethical issues. The goal is for students to see science as a human endeavor subject to biases and personal values.
Undergraduate and graduate student participation in research is a priority at LSU. Research opportunities provide hands-on learning, develop job skills, and increase retention and graduation rates. Several LSU programs were highlighted, including comparative genomics, coastal modeling, materials science, and digital media. Research in the humanities increases understanding of cultures and enhances skills in critical thinking. Undergraduate research connects students with faculty and industry partners across Louisiana and beyond.
This document provides information about the Philosophy of Science, Technology and Society (PSTS) program at the University of Twente. It discusses the program structure, courses, specializations, research opportunities, and career prospects. In the first year, students are introduced to the multidisciplinary PSTS approach through core courses. In the second year, students can choose a specialization profile and tailor their program, including completing an internship or research project. The program aims to philosophically reflect on science and technology and their impacts on society. Graduates have pursued careers in government, academia, consulting, industry, and research.
1) Scientific and technological developments influence society, and understanding their interaction is important.
2) Many societal problems involve both technological and human factors, requiring scientific, technical, and social perspectives.
3) Incorporating science, technology, and society (STS) issues into curriculum can help students develop awareness of complex problems at the intersection of these areas.
The document summarizes discussions from two conferences about research on the relationship between arts education and STEM performance. At the first conference, the group examined existing studies on this topic and considered ways to improve future research designs. They discussed 20 claims about how arts education may improve skills in other disciplines. At the second conference, participants discussed priorities for future research, including studying metacognition, the effects of arts education on graduation rates, and the impacts of integrated arts and STEM curricula. They also debated how to define and measure concepts like creativity.
However important improved public understanding of science might be, it is only part of the picture of how society reacts to new developments in science and technology, especially when controversy breaks out. Extensive research supports strong roles for values, beliefs and trust, arguably stronger factors in many cases than the role of science literacy by itself.
This describes one of several freshmen seminars offered experimentally at WPI.
The emphasis is on a project-based, multi-disciplinary approach to "large" problems.
This document summarizes the concurrent sessions from a PI meeting. It provides an overview of 16 session topics, including addressing socio-scientific issues like climate change and implications for science literacy. Each session section summarizes the main takeaways and resources shared. The document encourages reaching out with any follow-up questions.
PBIS_Project_Planner_Sound_Example ExampleBeth White
?
1) Teachers plan a project to study noise levels in their community where an airport is expanding and buying homes, displacing residents.
2) Students will measure sound, interview stakeholders, research noise regulations and social justice issues, and present findings to inform the community debate.
3) The project aims to connect science learning to a real-world issue through interdisciplinary lessons, fieldwork, and an authentic performance task.
This document provides an outline for a presentation on science and technology communication by Gensei Ishimura. It introduces Ishimura and his background working in science communication. It then discusses the definition and importance of science and technology communication, providing examples of practices at CoSTEP including science cafes and consensus conferences. It also outlines CoSTEP's education program for training science communicators, which aims to provide students with practical experience alongside theoretical knowledge through a curriculum integrating education, practice, and conceptualization.
- The workshop aimed to provide educators with tools and strategies for incorporating social justice themes into project-based science curricula through multimedia, driving questions, and lesson planning.
- Participants engaged with an audio story and photo essay on nuclear history before brainstorming essential questions and beginning to develop social justice-themed science lessons.
- Literature supports that project-based learning can boost underserved students' achievement and interest in science when implemented with clear goals, resources, and alignment to standards. Teacher experience and school culture also influence successful incorporation of social justice themes.
Day1 Civic Science Lab: Experts in the Policymaking Process & Models of Scien...Matthew Nisbet
?
Here are some examples from the issues and topics I'm familiar with that reflect different models of science communication:
- Climate change skepticism reflects the deficit model, with a view that public concerns could be addressed by providing more scientific facts and evidence.
- Vaccine hesitancy reflects the social contextualist model, with perceptions influenced by social networks and issues of trust in institutions.
- GMO labeling debates reflect the lay expertise model, as the public draws on personal experience shopping for groceries and preferences around food.
- City planning issues around parks or transportation reflect public engagement models, as these topics directly impact people's daily lives and involve tradeoffs the public can reason about.
The factors that determine which model is used
Paper presented at the 1st International Conference on Technology and Innovation in Learning, Teaching and Education (TECH-EDU 2018), June 20-22, 2018, Thessaloniki, Greece.
Read more at: http://bit.ly/techedu2
Teaching Math and Science MulticulturallyEDF 2085Prof. Mukhe.docxdeanmtaylor1545
?
Teaching Math and Science Multiculturally
EDF 2085
Prof. Mukherjee
Figure It Out!
Why Teach Math/Science?
Multicultural Answers:
Use knowledge to make the world a better place
Teach basic, functional skills as well as important themes like conservation; health; wealth distribution; voting¡ ?
Research has demonstrated male dominance and cross cultural under-representation in math/ science fields (at both school and societal levels)
Why Math and Science
¡°Today, I want to argue, the most urgent social issue affecting poor people and people of color is economic access. In today¡¯s world, economic access and full citizenship depend crucially on math and science literacy.¡±
Bob Moses, Civil Rights Activist and Found of The Algebra Project
Radical Equations: Math Literacy and Civil Rights, p. 5
Indicators of Social Inequity Related to Science & Math Education
Professions that draw highest salaries tend to emphasize math and science
These fields tend to be segregated by race and gender
Patterns of segregation by sex and race can be viewed in patterns of enrollment in math & science in K-12 system
Patterns of racial and gender homogeneity also evident in representation in illustration and content of science & math textbooks
Failure to engage all students undermine their potential and future lifestyles/chances.
What Do We Want To Achieve in Math/ Science Education?
Multicultural Answers:
Critical (reflective) math and science literacy
Access to high levels of math/ science literacy for all students
Understanding how math & science are used in daily contexts
Understanding the political context of math and science (examples: racist theories of intelligence; use of statistics to support diverse positions)
Ensure not only functional levels of science & math literacy, but also CRITICAL science & math literacy
Traditional Answers:
Mastery of selected skills and knowledge of selected ¡°facts¡±
Stratification of curriculum (tracking)
Content Concerns
Multicultural Answers:
Recognizes that Math and Science are not ¡°culture-free¡±
Many cultures have contributed to our knowledge of Math and Science
Current uses of mathematics/ science in society (social issues as math/ science problems)
Emphasizes process (DOING a problem), not just product (getting the CORRECT answer)
Traditional Answers:
Claims that Math/ science are ¡°universal¡±, culture-free subjects
Math and science are ¡°objective¡± and, therefore, bias-free
Math and science problems have one right answer
Instruction/ Activities
Multicultural Answers:
Learning through meaningful, reality based problem solving activities
Inquiry-based approaches (teaching students to ask questions)
Allowing for mistakes (science as a process of reasoned trial and error)
Multiple learning styles addressed
Interdisciplinary inquiry (link science and math with other subject areas)
Traditional Answers:
Memorization
Learning occurs through repetitive practice (¡°drill and kill¡¯)
Field independent in.
Teaching Math and Science MulticulturallyEDF 2085Prof. Mukhe.docxbradburgess22840
?
Teaching Math and Science Multiculturally
EDF 2085
Prof. Mukherjee
Figure It Out!
Why Teach Math/Science?
Multicultural Answers:
Use knowledge to make the world a better place
Teach basic, functional skills as well as important themes like conservation; health; wealth distribution; voting¡ ?
Research has demonstrated male dominance and cross cultural under-representation in math/ science fields (at both school and societal levels)
Why Math and Science
¡°Today, I want to argue, the most urgent social issue affecting poor people and people of color is economic access. In today¡¯s world, economic access and full citizenship depend crucially on math and science literacy.¡±
Bob Moses, Civil Rights Activist and Found of The Algebra Project
Radical Equations: Math Literacy and Civil Rights, p. 5
Indicators of Social Inequity Related to Science & Math Education
Professions that draw highest salaries tend to emphasize math and science
These fields tend to be segregated by race and gender
Patterns of segregation by sex and race can be viewed in patterns of enrollment in math & science in K-12 system
Patterns of racial and gender homogeneity also evident in representation in illustration and content of science & math textbooks
Failure to engage all students undermine their potential and future lifestyles/chances.
What Do We Want To Achieve in Math/ Science Education?
Multicultural Answers:
Critical (reflective) math and science literacy
Access to high levels of math/ science literacy for all students
Understanding how math & science are used in daily contexts
Understanding the political context of math and science (examples: racist theories of intelligence; use of statistics to support diverse positions)
Ensure not only functional levels of science & math literacy, but also CRITICAL science & math literacy
Traditional Answers:
Mastery of selected skills and knowledge of selected ¡°facts¡±
Stratification of curriculum (tracking)
Content Concerns
Multicultural Answers:
Recognizes that Math and Science are not ¡°culture-free¡±
Many cultures have contributed to our knowledge of Math and Science
Current uses of mathematics/ science in society (social issues as math/ science problems)
Emphasizes process (DOING a problem), not just product (getting the CORRECT answer)
Traditional Answers:
Claims that Math/ science are ¡°universal¡±, culture-free subjects
Math and science are ¡°objective¡± and, therefore, bias-free
Math and science problems have one right answer
Instruction/ Activities
Multicultural Answers:
Learning through meaningful, reality based problem solving activities
Inquiry-based approaches (teaching students to ask questions)
Allowing for mistakes (science as a process of reasoned trial and error)
Multiple learning styles addressed
Interdisciplinary inquiry (link science and math with other subject areas)
Traditional Answers:
Memorization
Learning occurs through repetitive practice (¡°drill and kill¡¯)
Field independent in.
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 and agenda for a workshop on the Next Generation Science Standards. It includes information on the workshop goals, a review of the conceptual shifts required by the NGSS, and activities for examining the structure and content of the new standards. Participants will explore how the NGSS align with existing state standards and discuss strategies for implementing the related changes to science teaching.
English 318/JAMM 328 (Science Writing) SyllabusJodie Nicotra
?
This document outlines the syllabus for a science writing course taught in spring 2018. The course will focus on effectively communicating scientific information to non-scientific audiences. Students will analyze examples of science writing, produce their own works in various formats like news releases and infographics, and conduct a semester-long project analyzing a scientific issue's impact on a community. Assignments include weekly analyses of science articles, comparative analyses of scientific works, and producing materials to communicate a scientific issue to a particular community. Students will provide feedback on each other's drafts and are expected to attend class, participate in discussions, and treat others respectfully. The course aims to help students understand different approaches to science communication and develop practical science writing skills.
Into the Night - Citizen Science Training day - introduction to citizen scienceMuki Haklay
?
This document provides an introduction to environmental citizen science projects. It discusses different types of citizen science, including contributory projects where the public contributes data designed by scientists, collaborative projects where the public helps design the project, and co-created projects designed by scientists and the public together. The document outlines considerations for setting up a citizen science project, such as balancing goals of increasing awareness, collecting data, and education. It also discusses recruiting and retaining participants, as well as evaluating projects for their scientific and societal impacts.
A primary goal of mental health education is to increase awareness. This involves teaching children what mental health means, and how to maintain positive mental health. It is vital that youth understand the concept of self-care and that they are responsible for their own mental health.
Long-lived teams working across the primary-secondary analysis spectrum.energybiographies
?
Presentation given by Karen Henwood at event 2 of New Frontiers in Qualitative Longitudinal Research: 'Research Relationships in Time'. Cardiff University, 7th February 2013.
This document provides a course syllabus for an Ethics course at Cebu Technological University. It includes information such as the course description, learning outcomes, content, assessment tasks and time allocation. The course aims to teach students principles of ethical behavior at individual and societal levels. It will discuss concepts such as moral versus non-moral problems, ethical frameworks, and analyze moral dilemmas using principles of ethics. Students will examine how culture and social situations can influence moral behavior and decision making. Assessment will include exams, reflective papers, group activities and analyzing case studies using concepts taught.
Connecting student learning and technologyAliAqsamAbbasi
?
The document discusses constructivism as a learning theory and compares teacher-centered and learner-centered classrooms. It provides an example of a traditional, teacher-centered 7th grade social studies class on the Great Lakes region, where students read from a textbook and complete worksheets. In contrast, it describes a learner-centered class where students plan a hypothetical road trip to a Great Lakes city, researching information and keeping a journal, then sharing their work. The learner-centered approach supports constructivist learning principles by tapping prior knowledge, providing an authentic context, and allowing active, reflective and social aspects of learning.
This document outlines the syllabus for EDSC 226, a spring 2012 field placement internship at U-32 High School in Montpelier, Vermont. Key details include important dates for the internship, an overview of course expectations and responsibilities of interns, mentors, and supervisors, as well as policies around observations, solo teaching, assignments, and course policies. Formal meetings between interns, mentors and supervisors will be held at the beginning, middle and end of the semester to set goals, provide mid-term feedback, and discuss final evaluations. Interns will complete observations of peers, mentors and colleagues, as well as have their own teaching observed and evaluated throughout the semester.
This document describes the evaluation of a 10-week research program for undergraduates studying the impacts of humans on Lake Champlain. In 2014, 10 students were selected from 160 applicants to represent diversity in demographics, majors, and universities. Students engaged in interdisciplinary research projects, workshops, and presenting their findings. Evaluations found gains in students' scientific skills and insight into research careers. The program aims to recruit more underrepresented students and better advertise research projects. Past participants are now pursuing further education or careers in STEM and education.
This document summarizes the concurrent sessions from a PI meeting. It provides an overview of 16 session topics, including addressing socio-scientific issues like climate change and implications for science literacy. Each session section summarizes the main takeaways and resources shared. The document encourages reaching out with any follow-up questions.
PBIS_Project_Planner_Sound_Example ExampleBeth White
?
1) Teachers plan a project to study noise levels in their community where an airport is expanding and buying homes, displacing residents.
2) Students will measure sound, interview stakeholders, research noise regulations and social justice issues, and present findings to inform the community debate.
3) The project aims to connect science learning to a real-world issue through interdisciplinary lessons, fieldwork, and an authentic performance task.
This document provides an outline for a presentation on science and technology communication by Gensei Ishimura. It introduces Ishimura and his background working in science communication. It then discusses the definition and importance of science and technology communication, providing examples of practices at CoSTEP including science cafes and consensus conferences. It also outlines CoSTEP's education program for training science communicators, which aims to provide students with practical experience alongside theoretical knowledge through a curriculum integrating education, practice, and conceptualization.
- The workshop aimed to provide educators with tools and strategies for incorporating social justice themes into project-based science curricula through multimedia, driving questions, and lesson planning.
- Participants engaged with an audio story and photo essay on nuclear history before brainstorming essential questions and beginning to develop social justice-themed science lessons.
- Literature supports that project-based learning can boost underserved students' achievement and interest in science when implemented with clear goals, resources, and alignment to standards. Teacher experience and school culture also influence successful incorporation of social justice themes.
Day1 Civic Science Lab: Experts in the Policymaking Process & Models of Scien...Matthew Nisbet
?
Here are some examples from the issues and topics I'm familiar with that reflect different models of science communication:
- Climate change skepticism reflects the deficit model, with a view that public concerns could be addressed by providing more scientific facts and evidence.
- Vaccine hesitancy reflects the social contextualist model, with perceptions influenced by social networks and issues of trust in institutions.
- GMO labeling debates reflect the lay expertise model, as the public draws on personal experience shopping for groceries and preferences around food.
- City planning issues around parks or transportation reflect public engagement models, as these topics directly impact people's daily lives and involve tradeoffs the public can reason about.
The factors that determine which model is used
Paper presented at the 1st International Conference on Technology and Innovation in Learning, Teaching and Education (TECH-EDU 2018), June 20-22, 2018, Thessaloniki, Greece.
Read more at: http://bit.ly/techedu2
Teaching Math and Science MulticulturallyEDF 2085Prof. Mukhe.docxdeanmtaylor1545
?
Teaching Math and Science Multiculturally
EDF 2085
Prof. Mukherjee
Figure It Out!
Why Teach Math/Science?
Multicultural Answers:
Use knowledge to make the world a better place
Teach basic, functional skills as well as important themes like conservation; health; wealth distribution; voting¡ ?
Research has demonstrated male dominance and cross cultural under-representation in math/ science fields (at both school and societal levels)
Why Math and Science
¡°Today, I want to argue, the most urgent social issue affecting poor people and people of color is economic access. In today¡¯s world, economic access and full citizenship depend crucially on math and science literacy.¡±
Bob Moses, Civil Rights Activist and Found of The Algebra Project
Radical Equations: Math Literacy and Civil Rights, p. 5
Indicators of Social Inequity Related to Science & Math Education
Professions that draw highest salaries tend to emphasize math and science
These fields tend to be segregated by race and gender
Patterns of segregation by sex and race can be viewed in patterns of enrollment in math & science in K-12 system
Patterns of racial and gender homogeneity also evident in representation in illustration and content of science & math textbooks
Failure to engage all students undermine their potential and future lifestyles/chances.
What Do We Want To Achieve in Math/ Science Education?
Multicultural Answers:
Critical (reflective) math and science literacy
Access to high levels of math/ science literacy for all students
Understanding how math & science are used in daily contexts
Understanding the political context of math and science (examples: racist theories of intelligence; use of statistics to support diverse positions)
Ensure not only functional levels of science & math literacy, but also CRITICAL science & math literacy
Traditional Answers:
Mastery of selected skills and knowledge of selected ¡°facts¡±
Stratification of curriculum (tracking)
Content Concerns
Multicultural Answers:
Recognizes that Math and Science are not ¡°culture-free¡±
Many cultures have contributed to our knowledge of Math and Science
Current uses of mathematics/ science in society (social issues as math/ science problems)
Emphasizes process (DOING a problem), not just product (getting the CORRECT answer)
Traditional Answers:
Claims that Math/ science are ¡°universal¡±, culture-free subjects
Math and science are ¡°objective¡± and, therefore, bias-free
Math and science problems have one right answer
Instruction/ Activities
Multicultural Answers:
Learning through meaningful, reality based problem solving activities
Inquiry-based approaches (teaching students to ask questions)
Allowing for mistakes (science as a process of reasoned trial and error)
Multiple learning styles addressed
Interdisciplinary inquiry (link science and math with other subject areas)
Traditional Answers:
Memorization
Learning occurs through repetitive practice (¡°drill and kill¡¯)
Field independent in.
Teaching Math and Science MulticulturallyEDF 2085Prof. Mukhe.docxbradburgess22840
?
Teaching Math and Science Multiculturally
EDF 2085
Prof. Mukherjee
Figure It Out!
Why Teach Math/Science?
Multicultural Answers:
Use knowledge to make the world a better place
Teach basic, functional skills as well as important themes like conservation; health; wealth distribution; voting¡ ?
Research has demonstrated male dominance and cross cultural under-representation in math/ science fields (at both school and societal levels)
Why Math and Science
¡°Today, I want to argue, the most urgent social issue affecting poor people and people of color is economic access. In today¡¯s world, economic access and full citizenship depend crucially on math and science literacy.¡±
Bob Moses, Civil Rights Activist and Found of The Algebra Project
Radical Equations: Math Literacy and Civil Rights, p. 5
Indicators of Social Inequity Related to Science & Math Education
Professions that draw highest salaries tend to emphasize math and science
These fields tend to be segregated by race and gender
Patterns of segregation by sex and race can be viewed in patterns of enrollment in math & science in K-12 system
Patterns of racial and gender homogeneity also evident in representation in illustration and content of science & math textbooks
Failure to engage all students undermine their potential and future lifestyles/chances.
What Do We Want To Achieve in Math/ Science Education?
Multicultural Answers:
Critical (reflective) math and science literacy
Access to high levels of math/ science literacy for all students
Understanding how math & science are used in daily contexts
Understanding the political context of math and science (examples: racist theories of intelligence; use of statistics to support diverse positions)
Ensure not only functional levels of science & math literacy, but also CRITICAL science & math literacy
Traditional Answers:
Mastery of selected skills and knowledge of selected ¡°facts¡±
Stratification of curriculum (tracking)
Content Concerns
Multicultural Answers:
Recognizes that Math and Science are not ¡°culture-free¡±
Many cultures have contributed to our knowledge of Math and Science
Current uses of mathematics/ science in society (social issues as math/ science problems)
Emphasizes process (DOING a problem), not just product (getting the CORRECT answer)
Traditional Answers:
Claims that Math/ science are ¡°universal¡±, culture-free subjects
Math and science are ¡°objective¡± and, therefore, bias-free
Math and science problems have one right answer
Instruction/ Activities
Multicultural Answers:
Learning through meaningful, reality based problem solving activities
Inquiry-based approaches (teaching students to ask questions)
Allowing for mistakes (science as a process of reasoned trial and error)
Multiple learning styles addressed
Interdisciplinary inquiry (link science and math with other subject areas)
Traditional Answers:
Memorization
Learning occurs through repetitive practice (¡°drill and kill¡¯)
Field independent in.
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 and agenda for a workshop on the Next Generation Science Standards. It includes information on the workshop goals, a review of the conceptual shifts required by the NGSS, and activities for examining the structure and content of the new standards. Participants will explore how the NGSS align with existing state standards and discuss strategies for implementing the related changes to science teaching.
English 318/JAMM 328 (Science Writing) SyllabusJodie Nicotra
?
This document outlines the syllabus for a science writing course taught in spring 2018. The course will focus on effectively communicating scientific information to non-scientific audiences. Students will analyze examples of science writing, produce their own works in various formats like news releases and infographics, and conduct a semester-long project analyzing a scientific issue's impact on a community. Assignments include weekly analyses of science articles, comparative analyses of scientific works, and producing materials to communicate a scientific issue to a particular community. Students will provide feedback on each other's drafts and are expected to attend class, participate in discussions, and treat others respectfully. The course aims to help students understand different approaches to science communication and develop practical science writing skills.
Into the Night - Citizen Science Training day - introduction to citizen scienceMuki Haklay
?
This document provides an introduction to environmental citizen science projects. It discusses different types of citizen science, including contributory projects where the public contributes data designed by scientists, collaborative projects where the public helps design the project, and co-created projects designed by scientists and the public together. The document outlines considerations for setting up a citizen science project, such as balancing goals of increasing awareness, collecting data, and education. It also discusses recruiting and retaining participants, as well as evaluating projects for their scientific and societal impacts.
A primary goal of mental health education is to increase awareness. This involves teaching children what mental health means, and how to maintain positive mental health. It is vital that youth understand the concept of self-care and that they are responsible for their own mental health.
Long-lived teams working across the primary-secondary analysis spectrum.energybiographies
?
Presentation given by Karen Henwood at event 2 of New Frontiers in Qualitative Longitudinal Research: 'Research Relationships in Time'. Cardiff University, 7th February 2013.
This document provides a course syllabus for an Ethics course at Cebu Technological University. It includes information such as the course description, learning outcomes, content, assessment tasks and time allocation. The course aims to teach students principles of ethical behavior at individual and societal levels. It will discuss concepts such as moral versus non-moral problems, ethical frameworks, and analyze moral dilemmas using principles of ethics. Students will examine how culture and social situations can influence moral behavior and decision making. Assessment will include exams, reflective papers, group activities and analyzing case studies using concepts taught.
Connecting student learning and technologyAliAqsamAbbasi
?
The document discusses constructivism as a learning theory and compares teacher-centered and learner-centered classrooms. It provides an example of a traditional, teacher-centered 7th grade social studies class on the Great Lakes region, where students read from a textbook and complete worksheets. In contrast, it describes a learner-centered class where students plan a hypothetical road trip to a Great Lakes city, researching information and keeping a journal, then sharing their work. The learner-centered approach supports constructivist learning principles by tapping prior knowledge, providing an authentic context, and allowing active, reflective and social aspects of learning.
This document outlines the syllabus for EDSC 226, a spring 2012 field placement internship at U-32 High School in Montpelier, Vermont. Key details include important dates for the internship, an overview of course expectations and responsibilities of interns, mentors, and supervisors, as well as policies around observations, solo teaching, assignments, and course policies. Formal meetings between interns, mentors and supervisors will be held at the beginning, middle and end of the semester to set goals, provide mid-term feedback, and discuss final evaluations. Interns will complete observations of peers, mentors and colleagues, as well as have their own teaching observed and evaluated throughout the semester.
This document describes the evaluation of a 10-week research program for undergraduates studying the impacts of humans on Lake Champlain. In 2014, 10 students were selected from 160 applicants to represent diversity in demographics, majors, and universities. Students engaged in interdisciplinary research projects, workshops, and presenting their findings. Evaluations found gains in students' scientific skills and insight into research careers. The program aims to recruit more underrepresented students and better advertise research projects. Past participants are now pursuing further education or careers in STEM and education.
The document contains a series of questions about an image showing the aftermath of the atomic bombings of Hiroshima and Nagasaki. Some of the questions seek to understand details about the photo such as whether it depicts soldiers or civilians, what specific bomb is pictured, and how the devastation compares to predictions. Other questions discuss the moral implications of the bombings and nuclear weapons more broadly, such as the impact on victims and future policy.
The Robert Noyce Program for Science Teachers at the University of Vermont provides scholarships and funding for undergraduate and graduate students pursuing science degrees and teacher certification to teach science in middle and high schools. Marketing activities include emails, posters, and class announcements to recruit students. The program offers summer research internships, undergraduate scholarships, and graduate scholarships. Students are selected based on their academic record, letters of recommendation, and interest in teaching science in underserved schools. Supported students participate in seminars, field trips, and conferences to develop their teaching skills. The program evaluates its effectiveness in recruiting students, supporting student learning and development, and placing graduates in teaching positions in high-poverty rural and urban schools.
Science of the Mind Journal November 2008Beth White
?
1) Alzheimer's disease causes degeneration of brain cells and affects memory. It was first identified by German physician Alois Alzheimer in 1906 after examining the brain of a deceased patient.
2) The disease starts by affecting short term memory and progresses to long term memory loss, eventually causing patients to not recognize family and friends.
3) In Alzheimer's patients, the brain shrinks and has fewer neurons and synapses connecting neurons than healthy brains. Protein plaques also build up between neurons, interfering with communication in the brain.
This document provides background information and primary sources about the working conditions of stonecutters in Barre, Vermont in the late 19th century. It begins with context about the town of Barre and the many stonecutters who lived and worked there. It then provides excerpts from interviews with stonecutters, shed owners, and others that describe the difficult working conditions, long hours, and exposure to silica dust that led to the lung disease silicosis. The document aims to have students analyze these primary sources to understand the untold story of the granite industry from the perspectives of multiple individuals and to piece together how dangerous the work was and the unintended consequences of new machinery.
This document provides a general assessment rubric for inquiry lessons using the Stripling Model format. It evaluates students on 8 steps of the inquiry process: Wonder, Investigate, Construct, Express, and Reflect. For each step, students are scored from 0-3 on how well they meet requirements such as determining key ideas, analyzing sources, recalling information, participating in discussions, and integrating knowledge from multiple sources. The rubric is adapted from Common Core standards and is meant to assess students on an investigation using primary sources to understand untold 19th century New England stories.
This summary discusses the evolutionary origins and purposes of laughter. While laughter is commonly thought to be a response to humor, research suggests its original purpose was social bonding through play. Studies on rats and apes show they produce laughter-like sounds during playful interactions, suggesting human laughter may have evolved from play responses. Additionally, only 10-20% of comments preceding laughter in observational studies were intended as jokes, while 80-90% were simple social remarks, indicating laughter serves social functions beyond humor. The gap between the evolutionary purpose of traits and how they are used today is also discussed. While laughter facilitated social bonding and survival in our evolutionary past, today it fulfills social and stress-relief functions separate from its origins.
This document outlines a lesson plan about advertising, past and present. It discusses investigating untold stories from 19th century New England through primary sources. The plan examines advertising techniques from the past by providing examples of advertisements from the late 19th century promoting products like home appliances, ginger ale, steam engines, and oil lamps. Images of vintage advertisements are included for students to analyze different advertising strategies over time.
1. PBIS PROJECT PLANNER*
*Modeled after and adapted from Vermont secondary PROJECT Science Partnership and Buck Institute for Education (www.bie.org/)
1
VISION: To understand nuclear physics through the study of the impact on our society and world.
Teacher(s): University of Vermont Department of Education
Project Title: Science and Society: Exploring the Role of Nuclear
Physics on the World (modified from a lesson written by UVM
Noyce Scholar, Heather Cutler)
Grade Level(s): 7-12
Subject(s): How can you incorporate interdisciplinary subjects into this project
design?
?? Coordinate with humanities and art instructors to look at the social justice,
history, and art surrounding nuclear physics.
?? Consider creating some sort of art for social change project.
?? Connect with the librarian and media specialist or journalist to further explore
the topics.
Timeframe: From 1 week - 1 month, depending on student interest
Big Ideas/Enduring Understandings: What big ideas or real-world
dilemma will drive this project?
?? Politics, power, voice: science and society are inextricably
interwoven.
o Whose voices matter science?
o Whose voices matter society?
?? Social stigmas have dictated who was published in science and
how accessible certain fields are/were to certain people.
o Has nuclear science excluded certain
groups/individuals?
o There were specific individuals selected to develop the
field of nuclear physics. Who were they and why were
they selected?
o What is the best way to decide who gets to practice
science, or who gets credit for discoveries?
o Why were there so few women and people of color
involved in the Manhattan project?
?? What is nuclear physics?
o History: What is the history nuclear physics?
o What were the main events in nuclear physics history?
o Whose stories get preserved? Told? Why?
?? What are the benefits and ramifications of an advanced nuclear
physics program?
o Who are the stakeholders impacted by nuclear physics
and what do they have to say? Do they have voice?
o Are there people who benefit or are harmed by their
voice/lack of voice?
Essential Questions: What essential questions will drive the project?
Consider the themes that will focus the unit and ones that integrate social justice
issues (preferably local ones/issues that are meaningful to student audience).
NOTE: This is a great activity to do with your students but it is usually helpful to
already have some ideas in the hopper
Essential Social Justice Questions
?? How does society influence science?
?? How does science influence society?
?? What implications do social standards have on who is involved in science and
what is studied and how was/is the study of/development of nuclear physics
funded?
?? Where is nuclear physics today? How did we get there?
?? How do the ideas we have talked about in a historical context apply to today? Is
science today different than it was in the 1940's? Is it "fair"?
Overall Nuclear Physics Questions
?? Where are nuclear physical reactions and how do they work?
?? How did scientists come to understand nuclear physics and what sorts of
experiments/reactions did they carry out?
o What materials/equipment were needed in order to accomplish this?
o How was this endeavor funded?
o Is it "fair" or "right" to allocate funds to scientists who are designing
weapons that will harm other people?
2. PBIS PROJECT PLANNER*
*Modeled after and adapted from Vermont secondary PROJECT Science Partnership and Buck Institute for Education (www.bie.org/)
2
KNOWLEDGE AND SKILLS: What key knowledge and skills will students acquire as a result of this unit?
Content & Concepts:
What will Students know or need to know?
Skills:
What skills will students need or need to acquire?
Standards Addressed
?? Describe how a neutron can give energy to a
nucleus and cause it to fission.
?? Explain the byproducts of a fission event and give
examples from history.
?? Explain how a chain reaction works and describe
the requirements for a sustained chain reaction
large enough to make a bomb.
?? Explain how a nuclear reactor works and how
control rods can be used to slow down the reaction.
?? Terminology of nuclear physics and social justice
(e.g. fission, chain reaction, alpha radiation,
plutonium, uranium, containment vessels, social
status, hierarchy, privilege, status quo, etc.).
?? Conducting labs and thinking like scientists in
order to understand the content/concepts in
nuclear physics; engage in the scientific process
(hypothesizing, experimenting and design,
analysis, presenting, and, as Einstein said, ¡°act¡±.)
?? Deciphering and presenting information to
various stakeholders from officials to community
members.
?? Determining the accuracy and level of bias in the
information researched and presented.
?? Understanding personal levels of status and
privilege and how that informs/alters one¡¯s work
in science and society.
USA- NAS- Science Education
Standards National Academy of
Science Content Standard G:
SCIENCE AS A HUMAN
ENDEAVOR
Fundamental Concept and Principle:
Scientists are influenced by societal,
cultural, and personal beliefs and ways
of viewing the world. Science is not
separate from society but rather
science is a part of society.
Next Generation Science Standards
HS-PS1-1:Use the periodic table as a
model to predict the relative properties
of elements based on the patterns of
electrons in the outermost energy level
of atoms.
HS-PS1-8: Develop models to
illustrate the changes in the
composition of the nucleus of the
atom and the energy released during
the processes of fission, fusion, and
radioactive decay
HS-PS2-6: Communicate scientific
and technical information about why
the molecular-level structure is
important in the functioning of
designed materials.
Any additional concepts or ideas that may not be the focus but are worth being familiar with.
?? Exploring the connection between nuclear science and society
?? Ethics of science¡ªwho decides what gets funded to study and why? Is this acceptable?
?? How was the bomb conceived of and made?
o Where did this happen and what was required to make it happen (knowledge, resources, etc.)?
?? Exploring the concept of privilege
?? Who has it? What does it take to get it? What happens to people who do not have it?
?? How is education a form of privilege?
?? How does science fit into this equation?
?? What are our responsibilities as educated members of this community who have access to knowledge and
resources?
?? Exploring techniques for handling information
?? What are ways to stay organized?
?? How can we maintain confidentiality and grace around sensitive, politically charged issues?
?? How do we understand bias and accuracy in sources?
?? What if this makes me feel uncomfortable¡ªhow should I handle myself?
?? Exploring techniques for collaboration
?? What if peers/community member have different opinions, work ethics, ideas and approaches?
?? What if I struggle with my partner/group?
3. PBIS PROJECT PLANNER*
*Modeled after and adapted from Vermont secondary PROJECT Science Partnership and Buck Institute for Education (www.bie.org/)
3
INQUIRY: What is the desired result and how will students know when they have reached it? What is acceptable evidence?
ASSESSMENT/PERFORMANCE TASKS: What is relevant
assessment that will be useful to the stakeholders/problem identified?
Other Evidence that can be Assessed
What useful data, measurements, survey information, etc. might be helpful
to the cause? How will you help students generate realistic, challenging,
relevant final projects?
?? Where are students starting from? Begin with an formative assessment
of prior knowledge by starting with a photo essay and/or short
audio/video clip and having students write thoughts and comments on
post-it notes and debrief in pairs then as a group. Guiding questions:
What do you know about that atomic bomb? What do you know about
nuclear physics?
o Secretly Working To Win The War In 'Atomic City' Audio
Clip from NPR:
http://www.npr.org/player/v2/mediaPlayer.html?action=1&t=1
&islist=false&id=172908135&m=173350701
o The Moment in Time: The Manhattan Project Video:
http://www.youtube.com/watch?v=xwpgmEvlRpM
o Manhatten Project Voices:
http://www.manhattanprojectvoices.org/oral-histories
?? How familiar/comfortable are students with unpacking social justice
concepts? Assess entry point for students¡ªbuild from there.
?? Students will be assessed on their:
?? Nuclear physics labs
?? Quality of participation in mini-lectures, and on individual/group
projects
?? Reflections on articles, speakers, media, and interviews
?? Correspondence with a scientist who is currently working in the
field of nuclear physics
?? The quality portfolio organization in a portfolio
?? The last 10 minutes of each lesson will be devoted to a quiet time of
writing/reflection. Students will reflect on how society and science
influence each other, particularly on what the science is used for and
who is involved in it.
Examples could include but are not limited to: challenge projects, problem
solving tasks, lab design/write-ups, presentations/performances,
cooperative group work, models, quizzes, tests, observations, dialogues,
work samples/drafts, logs, data collected, self/peer assessments, interviews
with experts, etc.
Students will select and research a historical figured involved with the
Manhattan Project, either political or scientific. Options include but are not
limited to: Niels Bohr, Enrico Fermi, Richard Feynman, Albert Einstein,
Robert Oppenheimer, Maria Goeppert Mayer, Leona Woods, Elizabeth
Riddle Graves, FDR, Howard Truman, and Leslie Richard Graves.
NOTE: A good resource for a list of people involved is mphpa.org
(http://www.atomicheritage.org/) and
http://www.manhattanprojectvoices.org/oral-histories.
Students will be responsible for researching their individual and the role
that they played in the development of the atomic bomb. Together with the
students, we will create a rubric to assess our projects. Students will be
asked to research the individual using the guiding questions below and
compile a presentation about their individual.
Students will present and submit (hand in) a compilation of the results of
their research. This can be submitted in a variety of forms including but not
limited to: a puppet show, a piece of art, dressing in character and giving an
oral presentation, a song or poem, or an essay. Note: these suggestions are
simply that¡ªsuggestions. Students may develop other creative ways to
present their research. Following each student 10-15 minute presentation,
we will have a class discussion, facilitated by students, focusing on the
following questions: 1) How does science influence society and/or politics?
2) How do politics and/or society influence science? 3) Who can be involved
in science? How is that determined?
4. PBIS PROJECT PLANNER*
*Modeled after and adapted from Vermont secondary PROJECT Science Partnership and Buck Institute for Education (www.bie.org/)
4
BUILD: How will the learning experiences be developed?
DESCRIBE THE PROJECT CREATE BUY-IN
What is the background and context of the project? What is the relevancy
and importance of the project? What is the authentic challenge/problem
being addressed?
?? The FAA¡¯s house relocation program: students can look look into the
history/background of this
?? When did this program begin?
?? Why did it start?
?? Does it have bi-partisan support?
?? What are their definitions, (e.g. of ¡°loud¡±)
?? Why is it relevant? Important? A challenge for our community?
Following the Chalk Talk, there will be a brief mini-lecture (<3 min)
covering the following points
? The atomic bomb was developed during WWII in the United
States
? The project was rushed along because of a fear (rumor) that the
Germans were close to a breakthrough on a massive weapon
? The project was called The Manhattan Project and it utilized a huge
number of scientists in America
? Many scientists and laborers were not aware of specifically what
they were working on
? There was a lot of controversy over whether or not to drop the
bomb on Japan
How can you hook your students? What would create buy-in? Who might
they get involved with that is an expert in this field?
?? Start with a fieldtrip to the airport
?? Set up interviews with the various stakeholders or have a panel
discussion
?? connect them with real people who are being negatively
affected by the noise, the need to move, etc. especially if they
themselves are young people
?? Involve the media
?? Listen to broadcasts and read lots and lots and lots articles with
varied opinions
?? Dissect articles¡ªexplore how this one made you feel versus
the other and why that was so
5. PBIS PROJECT PLANNER*
*Modeled after and adapted from Vermont secondary PROJECT Science Partnership and Buck Institute for Education (www.bie.org/)
5
Begin to design your project board: Outline specific tasks, milestones/timelines that students will complete early on, during, and at the end of the project.
Who might they get involved with that is an expert in this field? Remember to emphasize problem posing, problem solving, and other meaningful tasks in
the design.
6. PBIS PROJECT PLANNER*
*Modeled after and adapted from Vermont secondary PROJECT Science Partnership and Buck Institute for Education (www.bie.org/)
6
BUILD, cont.
List preparations necessary to address needs for differentiated instruction: How this project meet everyone¡¯s needs?
(Remember to consider any ELL students, special-needs students, students with diverse learning styles, students who many struggle with reading and need
varied levels, students who need clear expectations and scaffolding, students who need constant challenge, etc.)
List preparations for multicultural, socially-conscious classroom: How will all voices and points of view be heard with this project? How will the
classroom promote the values of democracy?
List reflection and evaluation techniques: How will you and your students reflect on and evaluate the project? (E.g. Class discussion, Fishbowl, Student-
facilitated formal debrief, individual evaluations or rubric work, peer/group evaluations, etc.) Develop a project rubric (or several mini-rubrics) that assesses
the learning intentions for this project.
7. PBIS PROJECT PLANNER*
*Modeled after and adapted from Vermont secondary PROJECT Science Partnership and Buck Institute for Education (www.bie.org/)
7
CURRICULUM UNIT RESOURCES
Student Literature Classroom Materials Web sites & Technology Field Trips and Field Work
http://phet.colorado.edu/en/simulatio
n/nuclear-fission
The Moment in Time: The
Manhattan Project:
http://www.youtube.com/watch?v=xw
pgmEvlRpM
http://www.ushistory.org/us/51f.asp
nuclearweaponarchive.org/USA/Med
/Med.html
8. PBIS PROJECT PLANNER*
*Modeled after and adapted from Vermont secondary PROJECT Science Partnership and Buck Institute for Education (www.bie.org/)
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PLAN LEARNING OPPORTUNITIES AND SEQUENCE INSTRUCTION
Think about the different lessons/activities that will be needed to demonstrate the key knowledge and skills for this project.
How will students work autonomously and build on their learning to ensure continual improvement?
Week 1 - Dates: Week2 - Dates: Week 3 - Dates:
Week 4 - Dates: Week 5 - Dates: Week 6 - Dates:
9. PBIS PROJECT PLANNER*
*Modeled after and adapted from Vermont secondary PROJECT Science Partnership and Buck Institute for Education (www.bie.org/)
9
REFLECTION:
Throughout and especially at the end of the project, consider what went well and what changes you would make for the next time.