Today the NIEHS is expanding and accelerating its contributions to scientific knowledge of human health and the environment, and to the health and well-being of people everywhere. It provides the following databases & galleries as resources to scientists: The Alu Pairs Database, The Biomarkers of Oxidative Stress Study (BOSS), Chemical Effects in Biological Systems(CEBS), The Drug Matrix, The Environmental Genome Project, The Environmental Polymorphisms Registry, The Human DNA Polymerase Gamma Mutation, The Microarray Center cDNA Clone Search, Mouse Genome Resequencing Project, The Nanomaterial Registry, The Roadmap Epigenomics Project Data, The SNPinfo Web Server and the Spin Trap Database.

Paul Anderson playlist of videos that can be used in an AP Environmental Science Class

Gallery walk activity that relies on students' prior knowledge of environmental issues as an introductory activity in a general education, large-lecture format environmental science class.

EPA has many data sources available, these cover topics including but not limited to air, climate change, health risks, pollutants and contaminants, waste, and water. The data are downloadable and available through the Environmental Dataset Gateway (EDG). The EDG is a source of Web-based geospatial information and information services. It enables data consumers to discover, view, and access geospatial resources made available by EPA's program offices, regions, and labs.

This course uses the basic principles of biology and earth science as a context for understanding environmental policies and resource management practices. Our planet is facing unprecedented environmental challenges, from oil spills to global climate change. In ENSC 1000, you will learn about the science behind these problems; preparing you to make an informed, invaluable contribution to Earth’s future. I hope that each of you is engaged by the material presented and participates fully in the search for, acquisition of, and sharing of information within our class.

This course offers a broad overview of physical, chemical, biological, geological, principles of environmental sciences, and serves as a core course for EEOS majors. Examples will focus on linked watershed and coastal marine systems. The student will be introduced to natural processes and interactions in the atmosphere, in the ocean, and on land. There is a focus on biogeochemical cycling of elements as well as changes of these natural cycles with time, especially with recent anthropogenic effects. Topics include plate tectonics, global climate change, ozone depletion, water pollution, oceanography, ecosystem health, and natural resources.

This site aims to increase student interest and preparation in the environmental health sciences so that they are aware of science career opportunities, and to increase public awareness about the impact of environmental agents on human health so that all citizens can lead healthy and productive lives.

This AP Environmental Science class is intended to meet the same objectives as a first-year college-based course.
However, the method of instruction for this course is unique compared to similar courses because we have adopted
a project-based learning (PBL) approach. Although PBL may take many forms, our approach involves student
investigations and simulations that require students to think like scientists, policymakers, farmers, and other adults
in real-world settings. Teachers engage students in collaborative problem solving, argumentation, and deep
exploration of the concepts and principles of the discipline. The goal for student learning is understanding rather
than relying on rote memory to create meaningful learning and knowledge that is actionable, adaptive, and
transferable.

This is a survey course in which we will discuss the science behind historical and current environmental issues. We will discuss the major threats to biodiversity and ecosystem function. We will study how human activities have affected the limited resources of our planet. We will learn how air, water and soil degradation have affected human health. Lastly, we will explore the emerging field of sustainability, what it means, and how it is being applied in todayęs world.

Science and education experts caution that climate-change topics can overwhelm and frighten young children. Science lessons chosen for this article focus on general environmental issues, such as the effects of litter, air pollution, and water pollution. The lessons also include actions and solutions to environmental issues. The free, online magazine Beyond Weather and the Water Cycle focuses on integrating age-appropriate science learning with literacy experiences.

In this unit, students explore the various roles of environmental engineers, including: environmental cleanup, water quality, groundwater resources, surface water and groundwater flow, water contamination, waste disposal and air pollution. Specifically, students learn about the factors that affect water quality and the conditions that enable different animals and plants to survive in their environments. Next, students learn about groundwater and how environmental engineers study groundwater to predict the distribution of surface pollution. Students also learn how water flows through the ground, what an aquifer is and what soil properties are used to predict groundwater flow. Additionally, students discover that the water they drink everyday comes from many different sources, including surface water and groundwater. They investigate possible scenarios of drinking water contamination and how contaminants can negatively affect the organisms that come in contact with them. Students learn about the three most common methods of waste disposal and how environmental engineers continue to develop technologies to dispose of trash. Lastly, students learn what causes air pollution and how to investigate the different pollutants that exist, such as toxic gases and particulate matter. Also, they investigate the technologies developed by engineers to reduce air pollution.

Examines theories and practice of environmental justice, concerns about race, poverty, and the environment in both domestic and international contexts, exploring and critically analyzing philosophies, frameworks, and strategies underlying environmental justice movements. Examines case studies of environmental injustices, including: distribution of environmental quality and health, unequal enforcement of regulations, unequal access to resources to respond to environmental problems, and the broader political economy of decision-making around environmental issues. Explores how environmental justice movements relate to broader sustainable development goals and strategies. This class explores the foundations of the environmental justice movement, current and emerging issues, and the application of environmental justice analysis to environmental policy and planning. It examines claims made by diverse groups along with the policy and civil society responses that address perceived inequity and injustice. While focused mainly on the United States, international issues and perspectives are also considered.

This folder currently includes Environmental Science: People to Know Lab, Environmental Science: Ethnobotany Lab, and Example: Pacific Northwest Ethnobotany: Native Plants & Their Uses Slides for ESR 171 Fall 2020.

ESR 171 Environmental Science: Biological Perspectives

Covers environmental topics that are primarily biological in nature, including ecosystem functions, biodiversity, human population issues, agricultural practices, and environmental ethics. Laboratory exercises illustrate these topics and may include fieldwork.

Introduction to Environmental Science and Sustainability Canvas Commons Course

SUS 102

General Description:

This course serves to introduce students to the science behind critical environmental debates and the biological basis of creating and maintaining sustainable ecosystems. This course focuses on critical thinking skills to assess such questions as: how do we decide what to believe about environmental issues? How do we predict trends in population growth, or climate change? How do we calculate and understand uncertainty in these predictions? Should people eat lower on the food chain? How are human activities linked to the phosphorus and nitrogen cycles, and pollution and eutrophication? How can fisheries be made to be more sustainable? How can we quantify and value biodiversity? Can we restore “natural” ecosystems and should wolves be re-established in the west? What is valid science in the global warming debate?

Learning outcomes
Upon completion of this course students should have the ability to:
• Recognize and apply concepts and theories of population biology to interdisciplinary fields such as conservation ecology;
• Apply principles of evolutionary dynamics and ecosystem biogeochemistry to understand and predict effects of pollutants such as heavy metals, pesticides, or acid rain on ecosystems;
• Effectively debate and evaluate scientific arguments behind such diverse fields as genetically modified organisms (GMOs) or organic vs. conventional farming;
• Interpret data critically, and understand uncertainty in scientific data and model prediction in such diverse fields as nitrogen saturation and global climate change;
• Calculate carbon footprint, water footprint of human activities
• Develop an awareness of the responsibilities of professional scientists.

This textbook is intended to provide an introduction to environmental science and sustainability at Trent. The textbook is adapted from the well-known Canadian text Environmental Science by the late Bill Freedman, a professor at Dalhousie University. The book is about environmental issues that are particularly important in Canada, and the ways they are being dealt with by governments and society-at-large. This book was written from the ground-up to provide Canadian information and examples. This national context is integrated throughout the text, along with North American and global data that provide a broader perspective. Special Canadian Focus boxes illustrate important examples of environmental issues in our national context. At the same time, Global Focus boxes enhance the international context for learning about issues, while In Detail boxes examine particular topics in greater depth.

We will:Create a model (s)Demonstrate principles ( prevention, precautionary, polluter-pays, intergration, etc )Be apart of simulations ( http://www.edinformatics.com/il/il_earth.htm )Watch Videos/Listen to Audio (https://www.eh-resources.org/podcast/ )Create Mindmaps to help organize & remember information (https://coggle.it)Environmental JusticeWords To Know environment: everything in natureliving or nonliving-including plants, animals, rocks, and water.environmentalist: someone who works to preserve the environment.

This assignment teaches students how to evaluate arguments concerning the maldistribution of environmental hazards, based on complex quantitative data.

This four week curriculum is for elementary learners to explore environmental engineering in urban environments. The unit starts with a broad question of “how can we make our community more sustainable?”, the unit will cover what the field of environmental engineering is, what predictability, mitigation and sustainability are, and how they relate to each other. These principles will be taught as vocabulary and will be supported with the use of anchor charts; students will be expected to use them during discussions. The unit will teach about urban infrastructure and the phenomenon of the Urban Heat Island effect. Students will then learn about and explore the possibilities of alternative energy sources and cities that already implementing green engineering. Students will explore how they can answer the question that was presented to them at the beginning of the unit. Following the engineering design process students will plan changes that they would make to their own city (in our case New Haven, Connecticut). Students will act as environmental engineers to come up with potential solutions to answer the broad question posed at the beginning of the unit.

Students develop critical thinking skills by interviewing a person who has perspective on environmental history. Students explore the concept of a timeline, including historical milestones, and develop a sense of the context of events.

Environmental science draws on knowledge and methods from many fields of the sciences and social sciences, including biology, chemistry, economics, ethics, geography, geology, medicine, physics, political science, sociology, and statistics. Many environmental specialists adopt an interdisciplinary approach to integrate these different ways of knowing in order to help understand and prevent environmental damage. This book also adopts an interdisciplinary approach by drawing on a variety of disciplines. At the same time, however, the choice of topics and the interpretations offered reflect my own experience and world view as an ecologist – one who has had a rather specialized career examining the ecological dimensions of environmental problems.

This course contains five projects, plus a course introduction and course closure, that are organized around the following question: “How can we rethink our use of the world’s resources?” Each project involves investigations of sustainability that help contextualize the content required by the new College Board course framework.

Students are introduced to the fundamentals of environmental engineering as well as the global air, land and water quality concerns facing today's environmental engineers. After a lesson and activity to introduce environmental engineering, students learn more about water chemistry aspects of environmental engineering. Specifically, they focus on groundwater contamination and remediation, including sources of contamination, adverse health effects of contaminated drinking water, and current and new remediation techniques. Several lab activities provide hands-on experiences with topics relevant to environmental engineering concerns and technologies, including removal efficiencies of activated carbon in water filtration, measuring pH, chromatography as a physical separation method, density and miscibility.

Additional practice problems and activities to support the mathematical content in MOWWM Unit 2: Environmental Science.

Through an overview of some of the environmental challenges facing the growing and evolving country of China today, students learn about the effects of indoor and outdoor air pollution that China is struggling to curb with the help of engineers and scientists. This includes the sources of particulate matter 2.5 and carbon dioxide, and air pollution impacts on the health of people and the environment.

This course explores the proper role of government in the regulation of the environment. It will help students develop the tools to estimate the costs and benefits of environmental regulations. These tools will be used to evaluate a series of current policy questions, including: Should air and water pollution regulations be tightened or loosened? What are the costs of climate change in the U.S. and abroad? Is there a "Race to the Bottomâ€ in environmental regulation? What is "sustainable developmentâ€? How do environmental problems differ in developing countries? Are we running out of oil and other natural resources? Should we be more energy efficient? To gain real world experience, the course is scheduled to include a visit to the MIT cogeneration plant. We will also do an in-class simulation of an air pollution emissions market.

How can we convince others to agree with us on important issues? In this lesson, students explore relevant environmental issues and gather information to write persuasive essays.

Students are presented with examples of the types of problems that environmental engineers solve, specifically focusing on air and land quality issues. Air quality topics include air pollution sources, results of poor air quality including global warming, acid rain and air pollution, as well as ways to reduce air pollution. Land quality topics include the differences between renewable and non-renewable resources, the results of non-renewable resource misuse and ways to reduce land pollution. (Water quality is introduced in a later lesson in a separate presentation, as it is the focal point of this unit curriculum.)

This simple article will provide the students an opportunity to think as 21st century learner. Hope someone will make use of this article for educational purposes

In this video profile produced for Teachers' Domain, meet La'ona DeWilde, an environmental biologist who integrates her Athabascan heritage and her Western scientific training to help remote Alaskan villages address environmental issues.

In this course will focus on both biotic and abiotic systems. You will learn about ecosystems and their interactions, water (including surface water, ponds and lakes, groundwater, water quality), soils, and resources both renewable and non-renewable resources. You will also how the basic systems influence the ecosystems of the Earth. You will investigate threatened and endangered species in our world. Environmental health and the importance of agriculture are also discussed in terms of their impact on our ecosystems.

Where we live in society plays a huge role in the environmental benefits and risks that we're exposed to.

The Department of Chemical and Environmental Engineering has concerns about the lack of knowledge amongst school pupils, and their teachers, of the type of work undertaken by an Environmental Engineer. The interactive presentation was developed as part of an awareness raising exercise for aspects of Environmental Engineering. Targeted at KS3 pupils particularly in Year 9 (Y9) the themes of air/ soil/water pollution were chosen because of their links to the KS3 National Curriculum for Science ( e.g. unit 9g Environmental Chemistry). The rationale behind the presentation was that visually it must be engaging and provide a clear indication of the consequences of actions but at the same time have questions using appropriate language that provide a basis for extending discussion / teaching beyond students/teachers current experience.

The presentation has been made available through our website and demonstrated at a variety of events where School Teachers meet e.g. 14-19 Conference ( School of Education) and PGCE Science Mentor Meetings ( School of Education).

This course explores the complex interrelationships among humans and natural environments, focusing on non-western parts of the world in addition to Europe and the United States. It uses environmental conflict to draw attention to competing understandings and uses of "natureâ€ as well as the local, national and transnational power relationships in which environmental interactions are embedded. In addition to utilizing a range of theoretical perspectives, this subject draws upon a series of ethnographic case studies of environmental conflicts in various parts of the world.

Environmental Science is a free and open textbook that enables students to develop a nuanced understanding of today’s most pressing environmental issues. This text helps students grasp the scientific foundation of environmental topics so they can better understand the world around them and their impact upon it. This text draws largely from open sources, in addition to new content from the editor.

This open online textbook on Environmental Toxicology aims at covering the field in its full width, including aspects of environmental chemistry, ecotoxicology, toxicology and risk assessment. With that, it will contribute to improving the quality, continuity and transparency of the education in environmental toxicology. We also want to make sure that fundamental insights on fate and effects of chemicals gained in the past are combined with recent approaches of effect assessment and molecular analysis of mechanisms causing toxicity.

Anthropogenic climate change is one of the, if not the most, pressing issues of our times. The problems that it causes range across many social and environmental domains from habitat and species loss and displacement to the more human and social concerns and issues of access to water, sea level rise that affects coastal communities, to economic degradation as a result of the aforementioned and other connected issues such as increased frequency of storms, droughts, wildfires, and the like. We also know that the affects of climate change are not distributed evenly across populations- that many will and do feel the negative effects of this slow developing problem earlier and more intensely than others based on where they are located both geographically and within economic and other socio-cultural hierarchies. We also know that recently, there is a marked effort to begin to move away from simply decrying the horrors of climate change to a continued recognition of those horrors as they exist now and into the future alongside attempts to begin to come to terms with the changing climate and to rethink the ways that our social and environmental relations and communities are organized with an eye toward both adapting to these changes and mitigating further damage. There is, however, much work to be done. This book was co-authored by undergraduate students at Worcester Polytechnic Institute while exploring the influences of Earth systems and human systems on climate change and the communities at most risk in an interdisciplinary project-based first year course. This course attempts to bring together knowledge of the science of ecological and climate systems and their changing status with knowledge of the social and communal structures within which these systems are embedded and through which they have been influenced. The book highlights key interests and insights of current students in their quest to think through these issues and to create a better world.

This class explores the interrelationship between humans and natural environments. It does so by focusing on conflict over access to and use of the environment as well as ideas about "natureâ€ in various parts of the world.

STUDENT ACTIVITY - 3rd - TX/GAThis is a distance- learning lesson students can complete at home.Students will explore the outdoors for examples of organisms having their needs met and will be given an event that might cause that organism to thrive, move, or perish.This activity was created by Out Teach (out-teach.org), a nonprofit providing outdoor experiential learning to transform Science education for students in under-served communities.

Purpose of UnitThe purpose of this Climate Science NTC Project GLAD® unit is a call to action, providing equity of access for all students. Through a model of instruction that promotes language development within core content, the Voices of Hope unit teaches students the science behind climate change and equips them with the tools necessary toward making a positive impact on our planet. This unit was written for 4th - 7th grade.