This document provides an overview of a webinar about developing teaching materials through the GETSI program. The webinar goals are to introduce the GETSI guiding principles, consider how principles can be met in module development, and discuss data processing opportunities for student interns. It introduces the leadership and authors for new and adapted modules. The relationship between GETSI and InTeGrate is described, and the materials development process is outlined.
This document outlines the development of teaching materials focused on geoscience literacy and societal issues through the use of geodesy data and tools. It discusses:
- The InTeGrate curriculum model which aims to improve geoscience understanding and build workforce skills through contextualized learning.
- The development of open educational resources covering topics like climate change, natural hazards, and resource issues using quantitative geodesy data and skills.
- Guiding principles for the materials including addressing societal challenges, developing interdisciplinary skills, engaging authentic geodesy methods, and improving quantitative/scientific reasoning abilities.
- A process for designing modules that aligns learning goals, objectives, assessments, resources and instructional strategies to
The document outlines an upcoming webinar on education for sustainability using the Next Generation Science Standards. The webinar will feature presenters discussing integrating sustainability into STEM teacher preparation programs and will include discussions on incorporating sustainability concepts across curriculums and into clinical practice. Upcoming webinars and events are also advertised that are focused on the implementation of the Next Generation Science Standards.
This document provides an overview of the GETSI (Geodesy Education for Teachers and Students Initiative) webinar for pilot testers. The webinar aims to describe GETSI and its guiding principles, explain the data collection process for assessment, and provide resources on the GETSI website. Key points include: GETSI uses authentic geodesy data and focuses on interdisciplinary problems, nature of science, and systems thinking. Pilot testers will administer pre/post assessments and surveys to collect student learning and attitudinal data. Important links are provided for materials, meetings, and the course status page to track assessment progress.
This webinar discussed lessons learned from developing NGSS-aligned middle school science curriculum through the Mi-STAR program. Presenters from Michigan Technological University and the American Geosciences Institute covered challenges with the three-dimensional design of NGSS, managing a large collaborative team, and navigating political considerations. They emphasized starting small, maintaining documentation, and embracing uncertainty when developing new curriculum. Upcoming webinars on NGSS implementation were also announced.
The document summarizes a webinar about the results of the Geoscience Education Research (GER) Grand Challenges Survey. The webinar provided:
1) Background on defining GER and the motivation for the survey to take stock of the current state of GER and priorities;
2) Results on the respondents' roles in GER research, teaching, and innovations and most have graduate training in their discipline but not GER; and
3) The highest interest themes among respondents and important developments, priorities, and questions for future research identified in feedback on the themes.
This webinar discusses the design of Year 1 modules for the GETSI program. It focuses on the guiding principles for developing learning materials, which include addressing grand challenges, using interdisciplinary problems, emphasizing the nature and methods of science, incorporating authentic geodesy data and inquiry-based learning, and applying systems thinking. Examples are provided of how these principles could be implemented in introductory and majors-level GETSI modules covering topics like sea level rise, earthquakes, and geoscience data analysis.
The document summarizes a STEM teacher preparation program between CSU Long Beach and Long Beach Unified School District. The program provides intensive training to 150 pre-service and in-service elementary teachers through a year-long residency program. It aims to change the culture of STEM teaching from the ground up by training teachers to teach integrated STEM disciplines through inquiry. The program involves collaboration between university faculty, school leaders, and partner organizations to provide research-based professional development and support to both new and experienced teachers.
This document discusses research on effective science instruction for early childhood students. Several studies found that students learn science best when instruction is hands-on, inquiry-based and relevant to students' lives. When students participate in activities that model scientific work and use tools like science journals, they gain a better understanding of science content and the work of scientists. Constructivist teaching methods that utilize active learning, student experimentation and naturalistic lessons in outdoor environments were found to improve student achievement in science.
This document outlines the development of teaching materials focused on geoscience literacy and societal issues through the use of geodesy data and tools. It discusses:
- The InTeGrate curriculum model which aims to improve geoscience understanding and build workforce skills through contextualized learning.
- The development of open educational resources covering topics like climate change, natural hazards, and resource issues using quantitative geodesy data and skills.
- Guiding principles for the materials including addressing societal challenges, developing interdisciplinary skills, engaging authentic geodesy methods, and improving quantitative/scientific reasoning abilities.
- A process for designing modules that aligns learning goals, objectives, assessments, resources and instructional strategies to
The document outlines an upcoming webinar on education for sustainability using the Next Generation Science Standards. The webinar will feature presenters discussing integrating sustainability into STEM teacher preparation programs and will include discussions on incorporating sustainability concepts across curriculums and into clinical practice. Upcoming webinars and events are also advertised that are focused on the implementation of the Next Generation Science Standards.
This document provides an overview of the GETSI (Geodesy Education for Teachers and Students Initiative) webinar for pilot testers. The webinar aims to describe GETSI and its guiding principles, explain the data collection process for assessment, and provide resources on the GETSI website. Key points include: GETSI uses authentic geodesy data and focuses on interdisciplinary problems, nature of science, and systems thinking. Pilot testers will administer pre/post assessments and surveys to collect student learning and attitudinal data. Important links are provided for materials, meetings, and the course status page to track assessment progress.
This webinar discussed lessons learned from developing NGSS-aligned middle school science curriculum through the Mi-STAR program. Presenters from Michigan Technological University and the American Geosciences Institute covered challenges with the three-dimensional design of NGSS, managing a large collaborative team, and navigating political considerations. They emphasized starting small, maintaining documentation, and embracing uncertainty when developing new curriculum. Upcoming webinars on NGSS implementation were also announced.
The document summarizes a webinar about the results of the Geoscience Education Research (GER) Grand Challenges Survey. The webinar provided:
1) Background on defining GER and the motivation for the survey to take stock of the current state of GER and priorities;
2) Results on the respondents' roles in GER research, teaching, and innovations and most have graduate training in their discipline but not GER; and
3) The highest interest themes among respondents and important developments, priorities, and questions for future research identified in feedback on the themes.
This webinar discusses the design of Year 1 modules for the GETSI program. It focuses on the guiding principles for developing learning materials, which include addressing grand challenges, using interdisciplinary problems, emphasizing the nature and methods of science, incorporating authentic geodesy data and inquiry-based learning, and applying systems thinking. Examples are provided of how these principles could be implemented in introductory and majors-level GETSI modules covering topics like sea level rise, earthquakes, and geoscience data analysis.
The document summarizes a STEM teacher preparation program between CSU Long Beach and Long Beach Unified School District. The program provides intensive training to 150 pre-service and in-service elementary teachers through a year-long residency program. It aims to change the culture of STEM teaching from the ground up by training teachers to teach integrated STEM disciplines through inquiry. The program involves collaboration between university faculty, school leaders, and partner organizations to provide research-based professional development and support to both new and experienced teachers.
This document discusses research on effective science instruction for early childhood students. Several studies found that students learn science best when instruction is hands-on, inquiry-based and relevant to students' lives. When students participate in activities that model scientific work and use tools like science journals, they gain a better understanding of science content and the work of scientists. Constructivist teaching methods that utilize active learning, student experimentation and naturalistic lessons in outdoor environments were found to improve student achievement in science.
The document provides background information and guidelines for creating a field study guide for Mount Rainier Institute. It discusses the institute's mission of using science-based education to nurture environmental stewards. The theoretical framework combines Kolb's experiential learning cycle, Next Generation Science Standards, and Understanding by Design. An expert panel including past/present instructors and environmental education professionals provided feedback. Sample activities illustrate how to incorporate best practices like active participation, cooperative learning, and place-based education. The goal is for students to gain familiarity with science practices that can positively impact skills, attitudes, behaviors and respect for place.
Learning progressions are models of how students' understanding of scientific concepts develops over multiple grade levels from novice to expert-like understanding. They are based on research on how students typically learn topics and are designed to guide instruction and assessment to track students' developing understanding over time. This document discusses the motivation for developing a learning progression on environmental literacy, the theoretical framework around scientific practices, and highlights from the progression including its interdisciplinary nature and levels of understanding from notions to generation of new ideas. It also raises questions about how to further develop and validate learning progressions.
This document summarizes 14 years of evaluation work conducted by Gale Mentzer and her company Evaluation Fundamentals. It lists numerous evaluation projects conducted from 1999-2014 for various clients including schools, non-profits, universities, and government agencies. The projects covered a wide range of topics from needs assessments and program evaluations to examining the implementation and impact of education and community programs. For each project, it briefly describes the client, name of the project, and type of evaluation services provided such as needs assessments, surveys, data analysis, and formative/summative evaluations.
The document discusses a workshop aimed at helping instructors improve their introductory geoscience courses. The conveners explain why they are focused on improving intro courses, noting challenges like low student skills and recruiting majors. Participants are asked why they are attending, with most wanting relevance, engagement, and active learning strategies. Goals for the workshop include analyzing courses, sharing strategies, and developing action plans. The document discusses literature on teaching methods and how to engage students through active learning, formative assessment, and conceptual frameworks. Participants are encouraged to apply this research to analyze their courses and develop objectives and next steps.
Dr. Mark McGinley gave a presentation on ecology in Southeast Asia. He discussed opportunities and challenges for ecologists, including studying diverse tropical systems and understanding interactions. McGinley advocated for a collaborative, long-term approach using existing networks. He emphasized building talent through broad training, publishing, and securing funding. McGinley also stressed bridging ideas between fields and with the public to inform conservation.
This document provides an overview and instructions for pilot testing teaching materials developed by the Getting Undergraduate Students into the Sciences (GETSI) project. It summarizes the goals of the pilot testing, which include describing GETSI, understanding what student data will be collected, and finding additional resources on the GETSI website. It outlines the data checkpoints that pilot testers should complete before, during, and after teaching a course using GETSI materials. This includes administering pre- and post-surveys to students, collecting student work, and providing feedback. The document aims to prepare pilot testers to effectively contribute to the evaluation and improvement of the GETSI teaching materials.
1) The document provides an introduction to pedagogical content knowledge (PCK) for training high school science teachers. It discusses the importance of teachers having strong subject matter expertise as well as the ability to effectively engage and represent content to diverse students.
2) It outlines the key components of PCK including subject matter knowledge, pedagogical skills, and understanding student difficulties. It also discusses different "levels" of PCK specificity from general science to specific topics.
3) The document argues that effective high school teacher training should ensure teachers have in-depth content knowledge, can relate topics across disciplines, and can meet the needs of all students regardless of their backgrounds or post-secondary plans.
This document describes the Resources for Scientists in Partnership with Education (ReSciPE) program, which provides professional development workshops to scientists engaged in education and outreach. The goal is to help scientists understand best practices in science education so they can more effectively communicate with students and the public. The introductory workshop focuses on inquiry-based learning and shows scientists how to teach scientific concepts through hands-on activities. Evaluations found the workshops increased scientists' willingness and ability to participate in education. The research also provides a framework to guide the professional development of scientist educators.
NGSS Simplified: A Guide to Understanding the new Next Generation Science Sta...clienema
The document outlines how typical elementary school schedules devote little time to science instruction, with most classrooms spending only 18-20 minutes per day, and then provides a 5-step process for teachers to implement the Next Generation Science Standards (NGSS) through an interdisciplinary approach integrating science into reading and math blocks, followed by hands-on engineering projects to solve real-world problems.
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.
This document summarizes the work of the InTeGrate project, which aims to improve earth literacy and prepare students to address environmental issues through interdisciplinary teaching about earth systems. Funded by the NSF, InTeGrate works with over 25 institutions to develop open-access course materials on sustainability topics and implement new interdisciplinary programs and courses. Assessment data shows over 25 new sustainability-focused courses added across disciplines at partner institutions. The project also runs workshops to train faculty and shares resources through its website to promote expanded participation in sustainability education.
The 50 Hours for 50 Nations Program - Carl PennypackerGTTP-GHOU-NUCLIO
The document outlines the Global Hands-On Universe (GHOU) network, which connects over 20,000-40,000 teachers in over 100 nations. GHOU provides curriculum, activities, and teacher workshops that allow students to analyze real astronomical data using tools like robotic telescopes. Some accomplishments include activities being adopted into official curriculums in France and Bavaria. Future plans include expanding access to modeling instruction workshops, collaborating on new telescope projects, and using internet video conferences to reach more teachers globally.
This document provides information about a workshop on building strong courses that connect to sustainability and social justice issues. The workshop is facilitated by Sarah Fortner, Richard Gragg, and Ellen Metzger of the National Association of Geoscience Teachers, and aims to help participants effectively incorporate sustainability and social justice issues into their courses through activities like backward course design. The workshop also provides information from educational research on student learning and high-impact teaching practices.
A Case Study of an Academic Success Course for Transfer Students. A research proposal developed for class credit in EDG 6363: Practicum in Learning Research
This presentation is to prepare administrators and teachers for the Next Generation of Science Standards. It provides an overview of the organization and the three
Dr. Geoffrey Mills is a professor of education at Southern Oregon University. He received his PhD from the University of Oregon in 1988. Since then, he has held various positions at Southern Oregon University, including 12 years as the Dean of the School of Education. He has authored several books on educational research and action research. Dr. Mills has presented his work internationally and been a visiting scholar at several universities around the world.
Linking students' timing of engagement to learning design and academic perfor...Quan Nguyen
[Best Full Research Paper Award]
Linking students' timing of engagement to learning design and academic performance
Quan Nguyen, Michal Huptych, Bart Rienties
Presented at the 8th International Conference on Learning Analytics & Knowledge, Sydney, Australia
This presentation outline covers competency-based education and the Next Generation Science Standards. It includes:
- A definition of competency as having the necessary behaviors, knowledge, skills and abilities to demonstrate understanding.
- Details on New Hampshire's minimum standards for school approval regarding competency-based credits and graduation requirements.
- An overview of the conceptual shifts, structure, and components of the Next Generation Science Standards, including science practices, crosscutting concepts, and disciplinary core ideas.
- Examples of performance expectations combining the three dimensions and connections to common core standards.
- Discussion of effective science teaching practices aligned with common core and how the standards emphasize reasoning with evidence.
This document summarizes a webinar introducing the Geodesy Education through Scientific and Technological Innovation (GETSI) curriculum development model and guiding principles. The webinar provided an overview of the relationship between GETSI and the Interdisciplinary Teaching of Geoscience for a Sustainable Future (InTeGrate) project. It reviewed GETSI's guiding principles for curriculum design, which are to address grand challenges, apply geoscience to societal issues, teach the nature and methods of science using authentic geodesy data, and develop systems thinking. Examples of GETSI modules under development were given for introductory and majors-level courses focusing on topics like climate, hydrology, and natural hazards. Guiding
This document provides an overview of the GETSI-Integrate curriculum development model. It discusses the goals of developing teaching materials focused on geoscience grand challenges using geodesy data. The model is guided by literacy documents and aligns goals, materials, and assessments. Materials will be developed by teams, tested in classrooms, revised, and published to improve geoscience understanding and address sustainability issues.
The document provides background information and guidelines for creating a field study guide for Mount Rainier Institute. It discusses the institute's mission of using science-based education to nurture environmental stewards. The theoretical framework combines Kolb's experiential learning cycle, Next Generation Science Standards, and Understanding by Design. An expert panel including past/present instructors and environmental education professionals provided feedback. Sample activities illustrate how to incorporate best practices like active participation, cooperative learning, and place-based education. The goal is for students to gain familiarity with science practices that can positively impact skills, attitudes, behaviors and respect for place.
Learning progressions are models of how students' understanding of scientific concepts develops over multiple grade levels from novice to expert-like understanding. They are based on research on how students typically learn topics and are designed to guide instruction and assessment to track students' developing understanding over time. This document discusses the motivation for developing a learning progression on environmental literacy, the theoretical framework around scientific practices, and highlights from the progression including its interdisciplinary nature and levels of understanding from notions to generation of new ideas. It also raises questions about how to further develop and validate learning progressions.
This document summarizes 14 years of evaluation work conducted by Gale Mentzer and her company Evaluation Fundamentals. It lists numerous evaluation projects conducted from 1999-2014 for various clients including schools, non-profits, universities, and government agencies. The projects covered a wide range of topics from needs assessments and program evaluations to examining the implementation and impact of education and community programs. For each project, it briefly describes the client, name of the project, and type of evaluation services provided such as needs assessments, surveys, data analysis, and formative/summative evaluations.
The document discusses a workshop aimed at helping instructors improve their introductory geoscience courses. The conveners explain why they are focused on improving intro courses, noting challenges like low student skills and recruiting majors. Participants are asked why they are attending, with most wanting relevance, engagement, and active learning strategies. Goals for the workshop include analyzing courses, sharing strategies, and developing action plans. The document discusses literature on teaching methods and how to engage students through active learning, formative assessment, and conceptual frameworks. Participants are encouraged to apply this research to analyze their courses and develop objectives and next steps.
Dr. Mark McGinley gave a presentation on ecology in Southeast Asia. He discussed opportunities and challenges for ecologists, including studying diverse tropical systems and understanding interactions. McGinley advocated for a collaborative, long-term approach using existing networks. He emphasized building talent through broad training, publishing, and securing funding. McGinley also stressed bridging ideas between fields and with the public to inform conservation.
This document provides an overview and instructions for pilot testing teaching materials developed by the Getting Undergraduate Students into the Sciences (GETSI) project. It summarizes the goals of the pilot testing, which include describing GETSI, understanding what student data will be collected, and finding additional resources on the GETSI website. It outlines the data checkpoints that pilot testers should complete before, during, and after teaching a course using GETSI materials. This includes administering pre- and post-surveys to students, collecting student work, and providing feedback. The document aims to prepare pilot testers to effectively contribute to the evaluation and improvement of the GETSI teaching materials.
1) The document provides an introduction to pedagogical content knowledge (PCK) for training high school science teachers. It discusses the importance of teachers having strong subject matter expertise as well as the ability to effectively engage and represent content to diverse students.
2) It outlines the key components of PCK including subject matter knowledge, pedagogical skills, and understanding student difficulties. It also discusses different "levels" of PCK specificity from general science to specific topics.
3) The document argues that effective high school teacher training should ensure teachers have in-depth content knowledge, can relate topics across disciplines, and can meet the needs of all students regardless of their backgrounds or post-secondary plans.
This document describes the Resources for Scientists in Partnership with Education (ReSciPE) program, which provides professional development workshops to scientists engaged in education and outreach. The goal is to help scientists understand best practices in science education so they can more effectively communicate with students and the public. The introductory workshop focuses on inquiry-based learning and shows scientists how to teach scientific concepts through hands-on activities. Evaluations found the workshops increased scientists' willingness and ability to participate in education. The research also provides a framework to guide the professional development of scientist educators.
NGSS Simplified: A Guide to Understanding the new Next Generation Science Sta...clienema
The document outlines how typical elementary school schedules devote little time to science instruction, with most classrooms spending only 18-20 minutes per day, and then provides a 5-step process for teachers to implement the Next Generation Science Standards (NGSS) through an interdisciplinary approach integrating science into reading and math blocks, followed by hands-on engineering projects to solve real-world problems.
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.
This document summarizes the work of the InTeGrate project, which aims to improve earth literacy and prepare students to address environmental issues through interdisciplinary teaching about earth systems. Funded by the NSF, InTeGrate works with over 25 institutions to develop open-access course materials on sustainability topics and implement new interdisciplinary programs and courses. Assessment data shows over 25 new sustainability-focused courses added across disciplines at partner institutions. The project also runs workshops to train faculty and shares resources through its website to promote expanded participation in sustainability education.
The 50 Hours for 50 Nations Program - Carl PennypackerGTTP-GHOU-NUCLIO
The document outlines the Global Hands-On Universe (GHOU) network, which connects over 20,000-40,000 teachers in over 100 nations. GHOU provides curriculum, activities, and teacher workshops that allow students to analyze real astronomical data using tools like robotic telescopes. Some accomplishments include activities being adopted into official curriculums in France and Bavaria. Future plans include expanding access to modeling instruction workshops, collaborating on new telescope projects, and using internet video conferences to reach more teachers globally.
This document provides information about a workshop on building strong courses that connect to sustainability and social justice issues. The workshop is facilitated by Sarah Fortner, Richard Gragg, and Ellen Metzger of the National Association of Geoscience Teachers, and aims to help participants effectively incorporate sustainability and social justice issues into their courses through activities like backward course design. The workshop also provides information from educational research on student learning and high-impact teaching practices.
A Case Study of an Academic Success Course for Transfer Students. A research proposal developed for class credit in EDG 6363: Practicum in Learning Research
This presentation is to prepare administrators and teachers for the Next Generation of Science Standards. It provides an overview of the organization and the three
Dr. Geoffrey Mills is a professor of education at Southern Oregon University. He received his PhD from the University of Oregon in 1988. Since then, he has held various positions at Southern Oregon University, including 12 years as the Dean of the School of Education. He has authored several books on educational research and action research. Dr. Mills has presented his work internationally and been a visiting scholar at several universities around the world.
Linking students' timing of engagement to learning design and academic perfor...Quan Nguyen
[Best Full Research Paper Award]
Linking students' timing of engagement to learning design and academic performance
Quan Nguyen, Michal Huptych, Bart Rienties
Presented at the 8th International Conference on Learning Analytics & Knowledge, Sydney, Australia
This presentation outline covers competency-based education and the Next Generation Science Standards. It includes:
- A definition of competency as having the necessary behaviors, knowledge, skills and abilities to demonstrate understanding.
- Details on New Hampshire's minimum standards for school approval regarding competency-based credits and graduation requirements.
- An overview of the conceptual shifts, structure, and components of the Next Generation Science Standards, including science practices, crosscutting concepts, and disciplinary core ideas.
- Examples of performance expectations combining the three dimensions and connections to common core standards.
- Discussion of effective science teaching practices aligned with common core and how the standards emphasize reasoning with evidence.
This document summarizes a webinar introducing the Geodesy Education through Scientific and Technological Innovation (GETSI) curriculum development model and guiding principles. The webinar provided an overview of the relationship between GETSI and the Interdisciplinary Teaching of Geoscience for a Sustainable Future (InTeGrate) project. It reviewed GETSI's guiding principles for curriculum design, which are to address grand challenges, apply geoscience to societal issues, teach the nature and methods of science using authentic geodesy data, and develop systems thinking. Examples of GETSI modules under development were given for introductory and majors-level courses focusing on topics like climate, hydrology, and natural hazards. Guiding
This document provides an overview of the GETSI-Integrate curriculum development model. It discusses the goals of developing teaching materials focused on geoscience grand challenges using geodesy data. The model is guided by literacy documents and aligns goals, materials, and assessments. Materials will be developed by teams, tested in classrooms, revised, and published to improve geoscience understanding and address sustainability issues.
This document outlines the development of teaching materials for the Geodesy Tools for Societal Issues (GETSI) project. It discusses:
1. The goals of developing materials to teach geoscience literacy and quantitative skills through the application of geodesy data to societal issues like climate change and natural hazards.
2. The process of aligning these materials with established frameworks for geoscience literacy, developing learning goals and objectives, designing assessments, and testing the materials through classroom pilots and revisions.
3. The collaboration between GETSI and the Interdisciplinary Teaching of Geoscience consortium to develop open educational resources using their proven model for transforming undergraduate geoscience education.
This document provides an overview of resources for teaching geodesy and geodetic imaging. It discusses projects supported by the National Science Foundation aimed at developing teaching materials that apply geodetic data and quantitative skills to societal issues. The afternoon session will introduce geodesy and provide an exploration of GPS, strain, and earthquake modules. It will also cover high resolution topography and field education resources available through UNAVCO and the GETSI project. The GETSI project works to develop teaching modules applying geodesy to challenges like climate change, water resources, and natural hazards.
This webinar introduced community college instructors to inquiry-based geoscience modules developed through the InTeGrate program. The modules were created through a collaborative process and are designed to be adaptable to a variety of classroom settings. Participants learned about two example modules, one on climate change and one on mineral resources, which use hands-on activities, data analysis, and group work to engage students in understanding important geoscience concepts. Upcoming opportunities were provided for instructors to implement InTeGrate modules in their own classrooms and participate in professional development workshops on teaching with these materials.
Investing in the Future of Geoscience Research ServicesRichard Huffine
The document discusses strategies for investing in the future of geoscience research services by strengthening the connection between geoscience researchers and information professionals. It advocates for [1] establishing early linkages in students' education, [2] engaging both fields across all stages of the research process, and [3] demonstrating value through alignment with organizational missions and reuse of research outputs. The U.S. Geological Survey has had successes with cross-disciplinary groups and training programs. Opportunities exist in applying new techniques from both fields to gain new scientific insights.
This document summarizes a project funded by the National Science Foundation to develop curricular materials to increase geoscience literacy. The project takes a systems approach, recognizing that achieving desired outcomes requires multiple coordinated efforts. Faculty from different institutions and disciplines collaborate using a structured process guided by a rubric. This ensures materials meet specified criteria and address grand challenges. Piloting collects data to improve materials before publication. The process positively impacts faculty's teaching practices and has led to more student-centered instruction. At the institutional level, recognition and dissemination efforts increase adoption. Support also fosters broader institutional change and implementation beyond initial authors.
This document outlines the agenda and goals for a workshop to develop new teaching modules for the Geodesy Educating Science Teachers, Students, and Informal Educators (GETSI) project, which aims to create curriculum materials applying geodesy data to societal issues like climate change. The workshop will cover an overview of the GETSI project and its relationship to the Science Education Resource Center (SERC), introduce participants, and review the process and components for developing new GETSI teaching modules, including learning goals, assessments, and alignment with guiding principles.
The document summarizes a workshop on CCUS education resources and improving dissemination. The agenda included an overview of existing educational programs and resources, identifying gaps, and discussing opportunities for collaboration. Participants reviewed frameworks for cataloging CCUS education and highlighted some exemplary programs, including those providing teacher training. Observations noted the growing focus on STEM education but also the political sensitivities around climate change. The discussion centered on how to better disseminate resources and formalize networking among educators.
This document summarizes the work of the InTeGrate project, a 5-year NSF-funded effort to improve Earth science literacy across undergraduate curricula. The project develops open educational resources that engage students in societally relevant issues using rigorous science. Materials are designed collaboratively with guidance from a rubric addressing learning goals, assessments, resources and alignment. The supporting website provides access to curricular materials that connect Earth processes to human impacts, shift from causes to consequences, and practice decision-making. The goal is to position students to make sustainable decisions through interdisciplinary learning about resource and environmental challenges.
The webinar discussed building a statewide coalition in Washington to improve STEM teacher preparation programs aligned with the Next Generation Science Standards. A survey found that while courses adequately cover disciplinary core ideas, they are weak in crosscutting concepts. The coalition plans to develop new programs through collaboration between universities, schools, and industry over four years. This will help meet Washington's needs for more diverse and endorsed STEM teachers prepared to teach integrated subjects like computer science and engineering.
This document provides an introduction to the InTeGrate project, which aims to improve earth science education through the development of open-access curricular materials. It discusses how InTeGrate materials are created through a collaborative process involving instructors from different institutions and disciplines. It also describes how the materials are designed according to a rubric to ensure they engage students in solving real-world problems, use evidence-based practices, and are adaptable by instructors. Additionally, it notes how the associated website provides access to over 180 individual activity pages aligned with earth science disciplinary core ideas, crosscutting concepts, and science practices.
This document discusses strategies for making introductory Earth science courses more aligned with current standards and guidance documents. It notes that standards emphasize human interactions with Earth and engaging in scientific practices. However, textbooks and courses often focus more on causes than consequences of Earth processes and their connections to people. The document presents three strategies: 1) shift focus from causes to consequences, 2) connect Earth processes to societal issues, and 3) practice decision-making. Resources from InTeGrate that use these strategies are described. Participants discuss topics from their own courses that could be adapted to address sustainability concepts using these strategies.
This document outlines teaching activities from the InTeGrate and GETSI projects that incorporate societal issues. It discusses the benefits of using such materials, including increased student engagement and scientific literacy. Examples of modules are provided on topics like landslides, sea level rise, and climate change. The modules use authentic data and scenarios to have students address interdisciplinary problems. Potential barriers to adoption are addressed, such as concerns over rigor or fitting new materials into existing courses.
Introduction to InTeGrate Modules: Hands-on, data-rich, and socially-relevant...SERC at Carleton College
This webinar provided an introduction to teaching modules developed by InTeGrate, a National Science Foundation project. The webinar leaders described how the modules were developed collaboratively and are designed to be hands-on and relevant. Specific modules on hurricanes, hazards mapping, and climate change were highlighted. Opportunities to use the modules in the classroom and participate in assessment research were also discussed.
This webinar provided information on classroom assessment strategies for NGSS Earth and Space Sciences. It included introductions from organizers and presentations from William Penuel and Kathy Comfort on 3D assessment and a continuum of assessments. The webinar discussed the importance of NGSS 3D assessment, provided examples of classroom formative assessments, and outlined resources for additional NGSS assessment information.
The webinar discusses preliminary results from a survey on implementing the Next Generation Science Standards (NGSS) for Earth and Space Science. The goals are to share results, get input on further analysis, discuss how the geoscience community can support NGSS, and encourage action. The survey collected data on topics like familiarity with the Framework, curriculum and instruction, teacher readiness, professional development, and assessment. Responses suggest tensions around understanding of the Framework and NGSS, support for implementation, and preparing teachers for changes in curriculum and instruction. The webinar calls for the geoscience community to generate resources and activities to address needs in these areas and promote the vision of the Framework and NGSS.
Presentation: GETSI-InTeGrate Development Model & Writing Learning GoalsSERC at Carleton College
This webinar covered developing learning goals and outcomes for geoscience education modules. Participants learned about writing measurable goals using Bloom's taxonomy verbs and aligning goals with assessments. The presenters discussed their experiences implementing active learning strategies like reflection and group work. Participants were asked to input information to the online content management system and meet with their author partners to discuss module goals before the next webinar.
This summary provides an overview of a National Science Foundation (NSF) grant to support the development of curricula for sustainable development using a team-based and rubric-supported approach. The grant was awarded to Anne Egger of Central Washington University and Hannah Scherer of Virginia Tech to transform STEM higher education. The project uses a 5-year collaborative effort across multiple institutions to develop course modules addressing sustainability issues using a shared rubric to guide the design, development and evaluation of the materials. The rubric is based on best practices for learning and aims to ensure the materials engage students, use rigorous science, and are widely adoptable.
Similar to Presentation: Introduction to the GETSI-InTeGrate Development Model & Guiding Principles (20)
This document discusses the concept of significant figures and how to determine the number of significant figures in measurements and calculations. It defines significant figures as the "important digits" that indicate the precision of a measurement. Rules are provided for determining significant figures depending on leading or trailing zeros and whether the number is read from left to right or right to left. Examples demonstrate applying these rules and how to round final answers in calculations like addition, subtraction, multiplication and division based on the least precise measurement used. The key takeaway is that significant figures convey precision and final answers should not be more precise than the least precise input.
This document discusses hypothesis testing. It explains that hypothesis testing is used to determine if data is statistically significant enough to reject or fail to reject the null hypothesis. The key aspects covered are:
- Identifying when hypothesis testing is appropriate
- Distinguishing between the null and alternate hypotheses
- Determining whether to reject or fail to reject the null hypothesis based on comparing a test statistic to a critical value from a distribution table
This document discusses how scientists measure the hydrologic cycle. It describes traditional methods like stream gaging stations, groundwater wells, and SNOTEL stations to monitor streams, groundwater levels, and snowpack. It also discusses newer geodetic methods like GPS and GRACE satellites that can measure subtle changes in gravity or ground movement related to water storage and flow. These comprehensive measurements across different reservoirs help scientists better understand the complex global hydrologic cycle.
The document discusses how the coastline of North America during the Cretaceous Period 80 million years ago, with a Western Interior Seaway dividing the continent, still influences patterns today. It notes that the fertile soil deposited along this ancient coastline attracted slave plantations, and after emancipation the populations remained high in African Americans. As a result, modern voting patterns follow the same curve as the long-gone Cretaceous coastline, with counties with larger African American populations voting predominantly Democrat.
This PowerPoint document provides instructions for an activity to analyze climate and biomes using data on cities from around the world. Students will sort city climate information cards into biome categories, plot locations on a map, and fill out a worksheet characterizing climate and biome for each city. The PowerPoint includes over 50 slides providing detailed climate and location data on cities to support categorizing into biomes.
This document provides instructions for tracking weather systems using maps. Students are asked to print maps showing the location of low pressure centers over time. By examining the date and time stamps, students track one low pressure system as it moves across the United States over several days, recording its location on blank maps. They then connect the locations with a line to show the storm's path. Students also have the option to track additional storms, measure distances traveled between maps to calculate speed, or use software to analyze and animate the map images.
This document provides an overview of traditional and geodetic methods for measuring water resources. It discusses the hydrological cycle and key reservoirs and fluxes. Traditional measurements like gauging stations and SNOTEL stations that measure snowpack are introduced. Geodetic methods using GPS and gravity satellites are presented as newer techniques to measure vertical land motion, snow depth, soil moisture, and groundwater levels. Declining trends in snowpack and streamflow in Montana watersheds are highlighted as impacts of climate change on water resources. Stakeholders in water resources like local residents, industry, and government are identified.
This document defines and compares the three main measures of central tendency: mean, median, and mode. It explains that the mean is calculated by adding all values and dividing by the total number of values, the median is the middle value when the values are arranged in order, and the mode is the most frequently occurring value. The document also notes that outliers can affect the mean more than the median or mode. An example calculation is provided to demonstrate how an outlier impacts each measure. The key takeaway is that the mean, median and mode are important for summarizing large datasets with a single representative value.
Soils are essential to supporting life and human civilization. As populations grow, pressures on soils increase and maintaining soil health is important. Throughout history, human activities like deforestation, overgrazing, and poor irrigation have led to soil degradation problems like erosion, desertification, and salinization. This has negatively impacted societies by reducing agricultural productivity and sometimes causing civilizations to fail. However, more recent initiatives show people rediscovering the importance of soils and taking steps to promote sustainable land use and soil conservation.
The document discusses soil classification systems and soil surveys. It explains that soil taxonomy is a hierarchical system used to classify soils based on observable properties like color, structure, and chemistry. Soils are grouped into increasingly broader categories from the most specific level of series up to the broadest level of order. Soil surveys involve soil scientists mapping and describing soils in a given area in order to group soils with similar properties. The classifications aim to convey information about soil formation and management needs.
The document discusses nutrient management and soil fertility. It outlines key nutrients needed by plants and their analogous benefits for human health, including nitrogen for growth, potassium for water uptake and disease resistance, and calcium for growth and strong bones. It also addresses how soil pH impacts nutrient availability and describes common nutrient deficiencies like zinc deficiency that causes stunted growth and yellowing.
This document discusses several issues that can negatively impact soil quality including disturbed and degraded soil, desertification, deforestation, salinization, run-off, mineral extraction, and wind erosion. These processes can damage soil structure and reduce fertility.
The document discusses the major biomes of the world and the soils typically found within each one. It describes the key biomes as tropical rainforests, temperate forests, boreal forests, grasslands, tundra, deserts, shrublands, and wetlands. Each biome is defined by its climate, vegetation, and characteristic soil orders that form as a result of the particular environmental conditions within that biome.
This document discusses the physical properties and formation of soil. It describes how soil characteristics like color, texture, structure, and horizons/profiles influence water movement, storage, erosion, and plant growth. Soil formation is influenced by climate, organisms, topography, parent material, and time in a process known as CLORPT. The physical properties of soil determine how quickly water can infiltrate and percolate through different soil types.
This document discusses various natural and human-caused processes that can degrade soils, as well as best management practices to mitigate soil degradation. It covers topics like erosion from water and wind, desertification, acidification, salinization, effects of deforestation, urbanization, construction projects, land application of manures and wastes, and mining reclamation. Sustainable land management and soil conservation techniques aim to renew resources rather than deplete them over time through practices like maintaining vegetative cover, controlling grazing intensity, and properly applying nutrients from wastes.
This chapter discusses the living components of soil, including bacteria, fungi, protists, and fauna. Bacteria and fungi play important roles in nutrient cycling and forming soil structure. Fungi exist as filaments called hyphae that can form partnerships with plant roots. Protists include amoebas, ciliates, and flagellates that consume bacteria and debris. Larger soil fauna include earthworms, nematodes, springtails, and arthropods that further break down organic matter and improve soil structure through bioturbation. The variety of organisms in soil work together to create a living system that supports plant growth.
This document discusses the 2012-2017 California drought and its impacts. It provides historical context on droughts in California and examines precipitation data. Specific topics covered include:
1. The spatial extent and timing of the 2012-2017 drought across California and how it compares to historical droughts.
2. How precipitation was measured using tools like snow pillows and GPS reflection to track snow levels.
3. The societal impacts of the drought, including mandatory water rationing and transformations to California's landscape and economy.
This document discusses using GPS vertical positioning to monitor groundwater storage changes. It begins by explaining that groundwater mining is a global problem, and that extracting groundwater causes the land surface to rise as the total water storage decreases. It then discusses how GPS networks can detect these vertical position changes at the sub-centimeter level on a daily basis, allowing monitoring of seasonal water changes. Finally, it notes that long-term groundwater pumping can lead to both reversible and irreversible subsidence exceeding several meters, and provides examples from California's Central Valley.
This document discusses methods for characterizing groundwater storage, including traditional well measurements and satellite-based GRACE observations. It defines terrestrial water storage as all water on the land surface, and explains that groundwater often dominates variations in storage. Wells measure groundwater levels, with changes indicating replenishment or depletion over time. GRACE satellites detect changes in mass distribution and associated gravity field variations to infer changes in total water storage, including groundwater, at coarse spatial scales. The document provides examples of using both approaches to monitor groundwater in key aquifers.
The document provides an introduction to GPS/GNSS basics, including:
- GPS uses 24-32 satellites in medium Earth orbit that transmit positioning and timing data. Receivers need signals from 4 satellites to calculate a 3D location.
- Ground control stations monitor the satellites and send updates to synchronize their atomic clocks and orbital data.
- GPS determines location by calculating distances to satellites using signal transmission times and triangulating the receiver's position.
- Precise GPS uses permanent stations with stable monuments to collect data over many years, achieving sub-centimeter positioning and millimeter-per-year velocity estimates.
Presentation: Introduction to the GETSI-InTeGrate Development Model & Guiding Principles
1. This work is supported by the National Science Foundation’s Transforming Undergraduate Education in STEM program within the
Directorate for Education and Human Resources (DUE-1245025).
INTRO TO GETSI-INTEGRATE CURRICULUM
DEVELOPMENT MODEL & GUIDING PRINCIPLES
The webinar begins at:
1 pm PT | 2 pm MT | 3 pm CT | 4 pm Et
3 pm PT | 4 pm MT | 5 pm CT | 6 pm ET
For audio, call: 1-877-668-4490
(or 1-408-792-6300)
Press *6 to mute and unmute
(but hopefully we won’t need any muting)
Headphones give less feedback than speakerphone.
2. WEBINAR GOALS
• Introductions
• Overview relationship between GETSI and
InTeGrate
• GETSI guiding principles
• Introduction to GETSI website
• Consider examples of how the Guiding
Principles might be met in this module cohort
• Data processing that could be done by student
interns
3. INTRODUCTIONS - LEADERSHIP
• PIs
– Facilitator--Beth Pratt-Sitaula (UNAVCO)
– Introductory--Becca Walker (Mt SAC)
– Majors--Bruce Douglas (Indiana U)
• SERC Assessment/Evaluation
– Ellen Iverson (SERC)
– Stuart Birnbaum (UTSA)
4. INTRODUCTIONS - AUTHORS
• New modules
– Volcanic Hazards (Intro)
• Kaatje Kraft (Whatcom Community College)
• Rachel Teasdale (California State University-Chico)
– Landscape and Environmental Change (Majors)
• Stephen Hughes (University of Puerto Rico-Mayaguez)
• Bobak “Bobby” Karimi (Wilkes University)
– Storm and Flood Hazards (Majors)
• James McNamara (Boise State University)
• Venkatesh Merwade (Purdue University)
• Adapted modules
– Measuring the Earth with GPS (Intro)
• Karen Kortz (Community College of Rhode Island)
• Jessica Smay (San Jose City College)
– Water hazards and resources (Intro)
• Jonathan Harvey (Fort Lewis College)
• Becca Walker (Mt San Antonio College)
– Climate Change (Majors)
• Susan Kaspari (Central Washington University)
• Bruce Douglas (Indiana University)
5. NEW AUTHORS:
Share with the group (Time 1)
• Why are you interested in being a GETSI author?
– Saw InTeGrate but never got to participate
– Especially interested geodesy part of GETSI
– Want to overhaul class, so great opportunity
– Has developed some of own hydrology modules, worked
with Venkatesh on others, learning about project
– Has been working with SERC and developed some modules
on hydrology on “exploratory” TUES funding; wanted to
learn more about more professional complete module
development; see other projects
– Used several GETSI or other online modules; more and
more interested in pedagogy
6. NEW AUTHORS:
Share with the group (Time 2)
• Why are you interested in being a GETSI author?
– Had talked about it a number of years ago; teaches
climate/cryo classes; also involved in another project
that will develop other modules so the professional
development will be helpful; has ideas that GETSI will
help with data and pedagogy
– Sounded very interesting from first email; good way to
get data into the classroom; structured and supported
way to use real data
– Learns better with good data; trying to retool course
to include real data; jack of all trades so loves of
geodesy and weather/climate can be combined
7. A +5-year community effort to improve
geoscience literacy and build a workforce
prepared to tackle environmental and
resource issues
An NSF STEP Center
DUE-1125331
InTeGrate supports the teaching of geoscience in the context
of societal issues both within geoscience courses and across
the undergraduate curriculum.
9. • Geoscience must come together with
other disciplines as our nation and the
world struggle with significant
environmental and resource
challenges.
• Meeting these challenges will require a
savvy public, a new kind of workforce,
and a broader understanding of
geoscience by all who engage these
issues
USGS
Barefoot Photographers of Tilonia
Interdisciplinary Teaching
of Geoscience for a
Sustainable Future
12. Global climate system - link
together many of the topics on
the basis of the most recent
modeling for future trends
Climate patterns - short-term
time scales (seasonal, decadal),
implications for severe weather
events, ocean/atmosphere
Hydrologic cycles –
supply and demand,
contamination,
landscape change
Infectious diseases
- environmental
factors may affect
distribution,
transmission,
severity of
diseases
Biological diversity -
biomes, geological past,
implications for future
Biogeochemical
cycles -
movement of
key elements
(e.g., C, N)
Land use - ecosystem
changes (e.g., deforestation)
and implications for
biological diversity and
biogeochemical cycles
Energy resource availability -
balance between energy security
and development of less
environment-friendly sources in
North America
Hazard awareness -
preparation for future
natural disasters,
predictions, cost/benefits
Mineral resource
development -
population, wealth
distribution, technology,
limited supplies,
recycling, waste
management
Grand Challenges - InTeGrate
Jones Kershaw, P., 2005, Creating a disaster resilient America:
Grand challenges in science and technology. Summary of a
workshop. National Research Council,
http://www.nap.edu/catalog.php?record_id=11274.
National Research Council, 2001, Grand Challenges in
Environmental Sciences. Washington, D.C., National Academy
Press, 106 p.
Zoback, M, 2001, Grand challenges in Earth and Environmental
Sciences: Science, stewardship, and service for the Twenty-First
Century. GSA Today, December, p.41-47.
14. GETSI PROJECT OVERVIEW
Mission: Develop and disseminate teaching and learning
materials that feature geodesy data & quantitative skills
applied to critical societal issues such as climate change,
water resources, and natural hazards
• US National Science Foundation funded (3 grants)
• Partnership with Science Education Resource Center
(SERC) and National Association of Geoscience
Teachers (NAGT)
• Developing dozen modules (~2 weeks each)
– Introductory & Majors-level
– Classroom & field
15. GEODESY IS…
15
…the science of accurately measuring the
Earth’s size, shape, orientation, mass
distribution and the variations of these with
time. Traditional geodesy:
Precise positioning of
points on the surface of the
Earth
Modern geodesy:
A toolbox of techniques to
better measure the Earth
wikipedia.org
JPL/NASA
19. GETSI-SERC RELATIONSHIP
• GETSI largely uses the InTeGrate model for
development (as practical)
• GETSI largely uses InTeGrate assessment process for
module quality and student learning evidence
• GETSI site is hosted by SERC
• Ellen Iverson (SERC) is our project evaluator
and lead assessment consultant
• Stuart Birnbaum also serves as InTeGrate assessment
consultant
21. • Developed and tested by 2-person teams; 3rd pilot tester will use the
materials & give feedback prior to publication
• Supported by assessment consultant to meet design rubric, develop
embedded assessments for use in testing
• $7,500 stipend for new modules authors
$4000 for adapted module authors
• Contracts will come to you soon
• 60% when module is approved for testing; remaining 40% after module is
revised and published
• Timeline
• Start – February 2018
• Development – through late 2018-early 2019
• Testing & Student Data Submission – Fall 2018-April 2019
• Final Revisions – August 2019 (or sooner)
• Publication – September 2019 (or sooner)
Call for proposals
GETSI MATERIALS DEVELOPMENT TEAMS
22. PEDAGOGIC GOALS
• Engaged, student centered, research based
pedagogy supports higher order learning
• Alignment of goals, materials and assessments
supports and documents learning
• Develops scientific thinking and an
understanding of the process of science
• Materials can be used successfully in multiple
settings
23. IMPLEMENTATION GOALS
• Materials are used widely by faculty across the
country
• Learning by students can be documented to
show increased higher level understanding of
sustainability and geoscience
• Materials are used in courses outside
geoscience departments (*for some modules)
24. LINKING GOALS AND PROCESS:
THE MATERIALS DESIGN RUBRIC
1. Guiding Principles
2. Learning Goals and Outcomes
3. Assessment and Measurement
4. Resources and Materials
5. Instructional Strategies
6. Alignment
Any questions about the rubric?
25. LINKING GOALS AND PROCESS:
PART 2: TESTING AND PUBLISHING
• Collection of student assessment data
• Revision of materials
• Publication of teaching materials and
supporting information for faculty
• “Instructor Story” document implementation
at your institutions
26. DEVELOPMENT PROCESS (+1 YEAR)
1. Materials in Development & Pass Assessment
Rubric
2. Classroom Pilot & Data Collection
3. Review, Revision, & Publishing
27. GETSI WEBSITE
• Webinar switched to looking at components
of the
– GETSI website http://serc.carleton.edu/getsi
– “For Team Members” pages
http://serc.carleton.edu/getsi/info_team_membe
rs/index.html
28. LINKING GOALS AND PROCESS:
THE MATERIALS DESIGN RUBRIC
1. Guiding Principles
2. Learning Goals and Outcomes
3. Assessment and Measurement
4. Resources and Materials
5. Instructional Strategies
6. Alignment
29. MODULE COMPONENTS & DEVELOPMENT PROCESS
Guiding Principles
A. Address one or more geodesy-related
grand challenges facing society
B. Develop student ability to address
interdisciplinary problems and apply
geoscience learning to social issues
C. Improve student understanding of the
nature and methods of geoscience
D. Make use of authentic and credible
geodesy data
E. Increase student capacity to apply
quantitative skills to geoscience
learning Images: B. Douglas, USGS, N. Niemi, GETSI, CU Sea level group
Guiding Principles
A. Address one or more geodesy-related
grand challenges facing society
B. Develop student ability to address
interdisciplinary problems and apply
geoscience learning to social issues
C. Improve student understanding of the
nature and methods of geoscience
D. Make use of authentic and credible
geodesy data
E. Increase student capacity to apply
quantitative skills to geoscience
learning
30. A. GRAND CHALLENGES – GETSI PHASE 2
• Volcanic Hazards (Intro)
• Measuring the Earth with GPS (Intro)
(as applied to a variety of hazards & resource issues)
• Water hazards and resources (Intro)
• Landscape and Environmental Change
(Majors)
• Storm and Flood Hazards (Majors)
• Climate Change (Majors)
31. B. INTERDISCIPLINARY PROBLEMS
(GEOSCIENCE & SOCIAL SCIENCE TIED TOGETHER)
Using GETSI Phase 2 module topics, what are some possible
ties to societal issues or social science that could be
included?
• Graveyards and infrastructure building on
landslides; building and urbanization in landslides
zones
• Think about land use change has affected
flooding; also forest to agricultural or rural to
urban land change
• GPS modules more broad – SanA in CA and CA
water withdrawal; evolving challenge for the
module is how to do this well on several topics
32. B. INTERDISCIPLINARY PROBLEMS
(GEOSCIENCE & SOCIAL SCIENCE TIED TOGETHER)
Using GETSI Phase 2 module topics, what are some possible ties
to societal issues or social science that could be included?
• Helping students/society see water is finite or can
renew slowly; doesn’t just come from taps always
everywhere; stresses can become increasingly
problematic; CA drought; flooding; Hurricane Harvey
loading
• How GPS data can use to solve problems and make
decisions; how would you advice politicians/local artist
to photo glacier/use data to give advice
• Students think of ice sheets as so far away but tying in
sea level really brings it closer to people they know;
policy decisions related to subsidizing insurance; full
societal costs of living in vulnerable areas
33. C. NATURE AND METHODS OF SCIENCE
1. What are ways you help your students learn geoscientific
ways of thinking?
2. What are possible ways to included this in the identified
GETSI topics?
– One of the reason Jes/Karen wanted to concentrate on GPS only so students
can learn to apply the same method to several challenges
– Looking at maps, looking at spatial change, helps students to learn and get
interested, then do modeling to see possible causes
– Intro esp. – explicitly walking students through reading and interpreting time
series so they have modeled for them how a scientists sees it. Know how to
read and interpret patterns.
– Taking a slightly different directly – instead of lecturing show students how
something works and then have them to come up with ideas; then use
lecture to clean up concepts – “just in time teaching”
34. C. NATURE AND METHODS OF SCIENCE
1. What are ways you help your students learn geoscientific
ways of thinking?
2. What are possible ways to included this in the identified
GETSI topics?
– Tries to tie to local changes and then have them claim scientists identity by
answering local questions first
– What goes on in a weather forecaster’s brain as they try to decide to put out
a warning? Operational science. What do they need to know as they think
through it?
– Just general modeling for the students what questions, processes a
scientist/engineer goes through when looking at data/map/etc.
– GPS is familiar with technology but they haven’t applied it to scientific
questions, so help them do this; they can see that normal people can
approach
– Science Communication!
35. D. AUTHENTIC GEODESY DATA
• Particularly critical aspect of GETSI
• Good resources (esp. for Intro level) are at Teaching with Data
on SERC
Thoughts/ideas on how you will use/present data in your
modules? WHAT SKILLS should student intern have?
• Technology & software skills
– ArcMap, GIS
– Spreadsheet experience – data management
36. D. AUTHENTIC GEODESY DATA
• Particularly critical aspect of GETSI
• Good resources (esp. for Intro level) are at Teaching with Data
on SERC
Thoughts/ideas on how you will use/present data in your
modules? WHAT SKILLS should grad student intern have?
• ArcGIS/Map
• Details will evolve later
• Data handling skills in general
• Create figures
37. E. QUANTITATIVE SKILLS
Thoughts/ideas on quantitative skills in your modules?
• Majors-level
– Modeling
– Spatial stats
• Intro
– Graph interpretation
– Vector interpretation
– Calculating rates
– Converting units
– Using data to support arguments (geosci methods)
• Both
– Excel/spreadsheets – definitely Majors but maybe Intro too
38. E. QUANTITATIVE SKILLS
Thoughts/ideas on quantitative skills in your modules?
• Majors-level
– Could potentially use help with this
– Create own graphs; get into uncertainty
– Compare methods
• Intro
– Time series reading – walking student through effective graph
understanding
– AAC&U VALUE rubric – interpreting data, representing data, doing
calculations, support arguments/conclusions; using that to evaluate
assumptions
– Basic statistics – climatic norms & deviations; anomalies; recurrence
intervals
• Both
– Evaluating assumptions
– Excel/spreadsheet skills – definitely a go for majors; also find for intro with
enough support
39. Module development
and assessment
following model of
SERC’s InTeGrate
Project (NSF STEP)
Identify
module
learning
goals
Identify
unit
learning
outcomes
Determine
assessment
strategy
Design
teaching
materials
to match
assessment
Plan
instruction
strategies
40. FOLLOW UP WORK
• Do a call with your author partner to discuss
alignment with guiding principles
• Visit your module on the GETSI site
For Team Members Materials In Progress
• Read a short article on geoscience and societal
concerns – Beth will send out link
41. GETSI WEBINAR ROAD CHECK
• serc.carleton.edu/getsi/meetings/Feb2018_au
thors/webinar_roadcheck1.html
OR
• serc.carleton.edu/getsi/meetings then find
the link lower on the page
Editor's Notes
What is InTeGrate
Mostly we will interact with Ellen and Monica but these are the people behind InTeGrate.
Monica is the GETSI webguru liaison.
Gloss this quickly – the point is that geoscience is important both for the workforce and broad literacy
As we moved forward with designing how the teaching resources would be developed, a powerful emphasis became apparent.
We know that societies face a host of challenges, which earth science can help us tackle.
Simultaneously, we are struggling to achieve a science literate population and attract and retain students to STEM fields.
This is a great example of complementary path to improvement as research into learning shows that situating STEM learning in the context of societal reasons to study these things leads to greater engagement, higher learning, and more students choosing STEM fields.
Image sources: (all offered under a Creative Commons Attribution-NonCommercial-ShareAlike license)
(damaged house) https://commons.wikimedia.org/wiki/File:Damage_from_Hurricane_Sandy_to_house_in_Brooklyn,_NY.jpeg#/media/File:Damage_from_Hurricane_Sandy_to_house_in_Brooklyn,_NY.jpeg)
(Greenland ice) https://upload.wikimedia.org/wikipedia/commons/f/f9/Greenland-ice_sheet_hg.jpg
(students and solar panels) http://images.nrel.gov/viewphoto.php?&albumId=207379&imageId=6314201&...
(students at computer) https://commons.wikimedia.org/wiki/File:Wikipedians_in_Atlanta,_December_2012...
(student in the field) Bruce Douglas https://www.unavco.org/education/advancing-geodetic-skills/short-courses/2016/field-education/field-education.html
(mine) https://www.flickr.com/photos/baggis/5156621907/in/photostream/
(earthquake damage) By Sumita Roy Dutta - Own work, CC BY-SA 4.0, https://commons.wikimedia.org/w/index.php?curid=40998384
(water carrier) https://www.flickr.com/photos/danielbachhuber/3142801676
A few of the module published by GETSI
Switch to Phil here perhaps?
15
Just walk through these to just give people an idea of the breadth of what is now geodesy (This is skipable if you don’t want to spend the time.)
GPS/GNSS – originally for measuring plate motions and earthquake/volcano hazards but now being applied to a variety of water and ice related research too
InSAR – under the right circumstances can show regional land level changes that complements point-measurements of GPS/GNSS
High Rez Topographic measurements from methods such as TLS and SfM give unprecedented information on landscape features, processes, and change
A variety of very precise meters can measure minute changes – esp. used around faults and volcanoes
GRACE gravity satellites have given us entirely new look at how mass – particularly water and ice – change with time
Satellites also can measure the sea level with great precision allow insights into global and local sea level changes
Particular challenges appropriate to what geodesy can tell us.
https://www.unavco.org/community/publications_and_reports/geodesy_science_plan/GrandChallengesInGeodesy-Final-Singles-LR.pdf
ES and Climate literacy elements map in a very complementary way to
Jump to the GETSI website from here
InTeGrate is specifically aiming to get some of their modules taught outside geoscience departments. GETSI is primarily aimed at earth science courses but we are also particularly interested in making certain modules viable for hydrologic engineering or civil engineering.
GETSI has 5 guiding principle
Fairly straight forward map of module topics to Grand Challenges
Notes taken during the webinar are in grey italics
Notes taken during the webinar are in grey itallics