This document outlines the pacing and content for a general biology curriculum across four units. It provides standards, big ideas, vocabulary and example activities for each unit. Unit 1 covers ecosystems, photosynthesis, cellular respiration and human impacts on the environment. Unit 2 focuses on cellular processes like cell division and differentiation, as well as homeostasis. Unit 3 addresses heredity, DNA, genes and protein synthesis. Unit 4 examines biological evolution, unity and diversity over time. Feedback mechanisms and the engineering design process are applied throughout.
Interaction network of three insect herbivoresWei-Ting Lin
I analyzed population time series data, SEM and cage experiments, I identified the dynamic interactions web between three insect herbivores. [Manuscrip in prep.]
Emergent global patterns_of_ecosystem_structure_and_function_form_a_mechanist...Dr Lendy Spires
This document summarizes a new mechanistic general ecosystem model (GEM) called the Madingley Model. The model simulates ecological processes like primary production, eating, growth, reproduction and dispersal for individual organisms ranging in size from 10 mg to 150,000 kg across terrestrial and marine environments globally. Emergent properties observed at individual, community, ecosystem and global scales, such as trophic structure and body size distributions, generally agree with empirical data without direct constraints. The model provides novel predictions about relationships between net primary productivity, trophic chain length and herbivore pressure. It indicates ecologists now have sufficient information to build realistic global models of ecosystem structure and function to predict impacts of human pressures.
Effects of temperature and prey density on trophic interaction in aquatic foo...Baptiste Jaugeon
This document summarizes a short-term laboratory experiment that investigated the effects of temperature and prey density on trophic interactions between the predator Chaoborus obscuripes and the prey Daphnia magna. Functional response experiments were conducted at two temperatures (16°C and 20°C) across a range of Daphnia densities. Metabolic rates of Chaoborus were also measured at each temperature. Results were used to model the effects on short-term predator-prey interaction strength and long-term predator energetic efficiency.
This document outlines 160 science lessons covering topics in ecology, matter, earth science, and atmospheric science. The lessons progress from introductory concepts like biotic and abiotic ecosystem components, the states of matter, and earth's layers, to more advanced topics such as food webs and human impacts on ecosystems, chemical properties and reactions, plate tectonics, the water cycle, and ocean pollution. Each lesson lists an objective and is designed to build students' understanding of environmental systems and the relationship between living and non-living things.
Geothermal well Site Characteristics from Climate Resilient Technologies in N...QUESTJOURNAL
ABSTRACT: Geothermal energy is regarded as a clean energy source. This assertion has a degree of truth subject to technological interventions applied in its extraction. This paper focuses on quality of vegetation, soils and water points at well sites. The concentrations of trace elements at the well sites is mainly determined by adequacy of technological interventions. Geothermal energy is classified as renewable source and climate changeresilient. However, ineffective interventions andreservoir characteristics could result in undesired effluents to the surrounding rendering it unsustainable. More so, the resource is located in fragile ecosystems pivotal in climate change resilience. Simple random sampling of 81 wells was done. Samples were collected and analyzed in the laboratory. The results indicated that contamination of the vegetation, soils and water was evident. Boron concentrations in the soils for instance resulted in a sigma value of 5.99 and p- value of 0.00. This meant its concentration was significantly higher as compared to recommended standards set by Kenya’s environmental Authority. Therefore, undesirable environmental impacts were a reality in geothermal production and hence could jeopardize efforts for building climate resilience.The choice of technology thus has a bearing on climate resilience for a geothermal facility especially those located in fragile ecological set ups.
HLEG thematic workshop on measuring economic, social and environmental resili...StatsCommunications
This document discusses measuring and understanding changes in Earth's ecosystems and their resilience. It notes that while we can count organisms and species, measure concentrations and fluxes, and quantify dynamic behavior, our understanding of systemic connections is still limited. It argues that both local contingent methods and global tracking are needed to understand complex change. Resilience assessments require plural, responsive sensing and participation of both local peoples and consideration of ecosystems in societal assessments.
This study examined the interactive effects of elevated temperature and fish predation on crustacean zooplankton. Researchers conducted an 8-week experiment manipulating temperature (ambient vs 3°C above ambient) and presence/absence of larval bluegill fish in large outdoor mesocosms. Results showed that fish presence significantly decreased biomass of cladocerans, adult copepods, and copepod nauplii. Elevated temperature differentially affected cladoceran and copepod biomass in the absence of fish, with cladoceran biomass lower and copepod biomass higher at elevated temperature. The results suggest climate change-driven temperature increases may alter crustacean community composition depending
This presentation by Jonathan Sanders of NSW National Parks & Wildlife Service highlights the importance of considering the longer-term effects on plant populations with both fire and weed management actions.
Presentation from Nature Conservation Council of NSW 2017 Bushfire Conference - Fire, Fauna & Ferals: from backyards to bush.
Interaction network of three insect herbivoresWei-Ting Lin
I analyzed population time series data, SEM and cage experiments, I identified the dynamic interactions web between three insect herbivores. [Manuscrip in prep.]
Emergent global patterns_of_ecosystem_structure_and_function_form_a_mechanist...Dr Lendy Spires
This document summarizes a new mechanistic general ecosystem model (GEM) called the Madingley Model. The model simulates ecological processes like primary production, eating, growth, reproduction and dispersal for individual organisms ranging in size from 10 mg to 150,000 kg across terrestrial and marine environments globally. Emergent properties observed at individual, community, ecosystem and global scales, such as trophic structure and body size distributions, generally agree with empirical data without direct constraints. The model provides novel predictions about relationships between net primary productivity, trophic chain length and herbivore pressure. It indicates ecologists now have sufficient information to build realistic global models of ecosystem structure and function to predict impacts of human pressures.
Effects of temperature and prey density on trophic interaction in aquatic foo...Baptiste Jaugeon
This document summarizes a short-term laboratory experiment that investigated the effects of temperature and prey density on trophic interactions between the predator Chaoborus obscuripes and the prey Daphnia magna. Functional response experiments were conducted at two temperatures (16°C and 20°C) across a range of Daphnia densities. Metabolic rates of Chaoborus were also measured at each temperature. Results were used to model the effects on short-term predator-prey interaction strength and long-term predator energetic efficiency.
This document outlines 160 science lessons covering topics in ecology, matter, earth science, and atmospheric science. The lessons progress from introductory concepts like biotic and abiotic ecosystem components, the states of matter, and earth's layers, to more advanced topics such as food webs and human impacts on ecosystems, chemical properties and reactions, plate tectonics, the water cycle, and ocean pollution. Each lesson lists an objective and is designed to build students' understanding of environmental systems and the relationship between living and non-living things.
Geothermal well Site Characteristics from Climate Resilient Technologies in N...QUESTJOURNAL
ABSTRACT: Geothermal energy is regarded as a clean energy source. This assertion has a degree of truth subject to technological interventions applied in its extraction. This paper focuses on quality of vegetation, soils and water points at well sites. The concentrations of trace elements at the well sites is mainly determined by adequacy of technological interventions. Geothermal energy is classified as renewable source and climate changeresilient. However, ineffective interventions andreservoir characteristics could result in undesired effluents to the surrounding rendering it unsustainable. More so, the resource is located in fragile ecosystems pivotal in climate change resilience. Simple random sampling of 81 wells was done. Samples were collected and analyzed in the laboratory. The results indicated that contamination of the vegetation, soils and water was evident. Boron concentrations in the soils for instance resulted in a sigma value of 5.99 and p- value of 0.00. This meant its concentration was significantly higher as compared to recommended standards set by Kenya’s environmental Authority. Therefore, undesirable environmental impacts were a reality in geothermal production and hence could jeopardize efforts for building climate resilience.The choice of technology thus has a bearing on climate resilience for a geothermal facility especially those located in fragile ecological set ups.
HLEG thematic workshop on measuring economic, social and environmental resili...StatsCommunications
This document discusses measuring and understanding changes in Earth's ecosystems and their resilience. It notes that while we can count organisms and species, measure concentrations and fluxes, and quantify dynamic behavior, our understanding of systemic connections is still limited. It argues that both local contingent methods and global tracking are needed to understand complex change. Resilience assessments require plural, responsive sensing and participation of both local peoples and consideration of ecosystems in societal assessments.
This study examined the interactive effects of elevated temperature and fish predation on crustacean zooplankton. Researchers conducted an 8-week experiment manipulating temperature (ambient vs 3°C above ambient) and presence/absence of larval bluegill fish in large outdoor mesocosms. Results showed that fish presence significantly decreased biomass of cladocerans, adult copepods, and copepod nauplii. Elevated temperature differentially affected cladoceran and copepod biomass in the absence of fish, with cladoceran biomass lower and copepod biomass higher at elevated temperature. The results suggest climate change-driven temperature increases may alter crustacean community composition depending
This presentation by Jonathan Sanders of NSW National Parks & Wildlife Service highlights the importance of considering the longer-term effects on plant populations with both fire and weed management actions.
Presentation from Nature Conservation Council of NSW 2017 Bushfire Conference - Fire, Fauna & Ferals: from backyards to bush.
This document provides information on a unit plan for an Environmental Science course covering populations. The unit is designed for grades 11-12 and covers the topic of populations over 30 instructional days. It outlines relevant Next Generation Science Standards performance expectations and foundation boxes. Recommended activities are provided to explore the standards, including modeling population growth, calculating generation rates, and studying predator-prey adaptations. Assessments include formative and summative options like exams, essays, and presentations. Teaching resources and differentiated instruction strategies are also included.
In this exercise the student will define and expand the discussion o.docxvickeryr87
In this exercise the student will define and expand the discussion of the
“Key Questions”
that are listed for each chapter in the Study Guide. You are required to define, discuss these key questions, and relate them to other important concepts and ideas in the study of environmental science and sustainable development in your own words. You must also add relevant personal opinions and make connections to sustainable practice in the Mojave Desert whenever possible and describe how/what/when technology is being used appropriately.
One long or two short paragraphs (four to six sentences) with minimum 100 words
1-1 What are some of the scientific principles of sustainability?
Concept 1-1A Nature has sustained itself for billions of years by using solar energy, biodiversity, population control, and nutrient cycling –lessons from nature that we can apply to our lifestyles and economies
1-2 How are our ecological footprints affecting the earth?
Concept 1-2 As our ecological footprints grow, we are depleting and degrading more of the earth’s natural capital
1-1 What is an environmentally sustainable society?
Concept 1-1A Our lives and economies depend on energy from the sun (solar capital) and on natural resources and natural services (natural capital) provided by the earth.
Concept 1-1B Living sustainably means living off the earth’s natural income without depleting or degrading the natural capital that supplies it.
1-2 How can environmentally sustainable societies grow economically?
Concept 1-2 Societies can become more environmentally sustainable through economic development dedicated to improving the quality of life for everyone without degrading the earth’s life-support systems.
1-2 How are our ecological footprints affecting the earth?
Concept 1-2 As our ecological footprints grow, we are depleting and degrading more of the earth’s natural capital.
1-3 Why do we have environmental problems?
Concept 1-4 Major causes of environmental problems are population growth, wasteful and unsustainable resource use, poverty, exclusion of environmental costs of resource use from the market prices of goods and services, and attempts to manage nature with insufficient knowledge.
1-4 What are some of the scientific principles of sustainability?
Concept 1-1A Nature has sustained itself for billions of years by using solar energy, biodiversity, population control, and nutrient cycling –lessons from nature that we can apply to our lifestyles and economies.
2-1 What is science?
Concept 2-1 Scientists collect data and develop theories, models, and laws about how nature works
2-2 What is the matter and how can matter change?
Concept 2-2A Matter consists of elements and compounds, which are in turn made up of atoms, ions, or molecules.
Concept 2-2B When matter undergoes a physical or chemical change, no atoms are created or destroyed (the law of conservation of matter).
2-3 What is energy and how can it be changed?
Concept 2-3A When ener.
Running head ENVIRONMENTAL SCIENCE1ENVIRONMENTAL SCIENCE.docxcharisellington63520
Running head: ENVIRONMENTAL SCIENCE
1
ENVIRONMENTAL SCIENCE
2
Environmental Science
Student’s Name
University Affiliation
Environmental Science
Environmental science part 1
1page Define stewardship and define sustainability.
Stewardship of the ecosystem refers to a framework that is action-oriented and that seeks to develop the sustainability of the socio-ecological environment of a planet that is rapidly changing planet. It considers the means through which the resources availed by the environment are managed with the intent of ensuring they are not wasted or exhausted. Sustainability on the other hand refers to the facilitation of current needs by using the environment without jeopardizing future generations’ ability to meet their needs.
Considering the Amazon forest, there are several considerations that can be made in light of the stewardship and sustainable utilization of the resource. To begin with, it is imperative that Amazon resource are conserved by being included as a conservation reserve and marked for protection and sustainability. Additionally, it could be placed under a covenant of conservation. There should also be an inventory of the natural resources in the Amazon including a comprehensive inventory of the biological resources found in the forest and which should be monitored within regular intervals. Additionally, there should be increased research on the identification of maintenance procedures of proper biological and physical processes from the forest. There should also be policies set that determine the sustainable utilization of timber from the Amazon rainforest according to proper standards that will ensure that future generations use of the same is not endangered (Chapin III & Matson, 2011).
The environmental implications that can arise as a result of deforestation of the Amazon forest are innumerable. To begin with animals dependent on the forest would find it difficult to survive and, therefore, may become extinct. This would make them unavailable for future generations. Additionally, deforestation leads to an imbalance between the carbon dioxide: oxygen ratio in the atmosphere. As a result, air pollution will become aggravated.
PART 2
Ecosystems and How They Work - Sustainable Development close
In this assignment, you will investigate the biotic and abiotic structure and function of an ecosystem. Choose one of the following ecosystems:
Tropical rainforest
An ecosystem refers to a correlated community of both living and non-living organisms and the environment in which they are found. It comprises an abiotic and biotic component. For this discussion the ecosystem chosen is a tropical rainforest. The biome of a rainforest is highly complex as it comprises a myriad of various plant and animal species which are adapted to surviving under rainy conditions. An example is the Amazon rainforest. In the rainforest ecosystem there exist various plant levels, with the highest being the tall trees that fo.
This document introduces the Eco-Schools USA program, which aims to educate students about sustainability. It is part of an international program involving over 50 countries. The US program uses a seven step framework to guide schools in developing and implementing sustainable initiatives. Students focus on certain "pathways" or topics, including energy and climate change. Schools can apply for bronze, silver, or green flag awards for their efforts. The introduction emphasizes the importance of educating students about energy and climate change issues so they can address these challenges as future leaders.
Over the two-year course, students will study a wide range of ecosystems and environmental issues locally and globally. Topic areas include systems and models, human population growth, conservation, pollution management, and environmental value systems. The course aims to develop students' scientific skills and raise awareness of environmental issues. Students' practical work will be internally assessed based on eight criteria.
The document provides instructions for a Year 9 science assignment on the Mud Creek ecosystem case study. Students are asked to answer one of two questions about changes to the ecosystem by urbanization and a proposed development. They must state their opinion, support it using data from class activities, and write in an essay format. Tables provide focus questions to guide their answers and analysis of the ecosystem.
Here are the key points about environmental science and ecosystems:
- Environmental science is the study of our environment and our place in it. It applies knowledge from many scientific disciplines like biology, chemistry, physics, and social sciences.
- An ecosystem is the basic functioning unit of nature. It consists of the nonliving (abiotic) environment and the living (biotic) community it supports. These two components interact through an exchange of matter and energy.
- When studying ecological relationships, it's best to start with a smaller system like a pond, field, or aquarium. These are examples of ecosystems that can be observed and analyzed.
This unit plan focuses on teaching ecology to second year high school biology students over approximately one week. The unit will explore the interactions between living and non-living things in ecosystems and how humans impact environments. Students will learn about food webs, energy flow, succession, and human influences on ecosystems. Assessments will include surveys, worksheets, tests, and a reaction paper following a field trip to the zoo. The unit aims to help students understand that all life is interdependent and ecosystems seek to maintain balance.
This unit plan focuses on teaching ecology to second year high school biology students over approximately one week. The unit will explore the interactions between living and non-living things in ecosystems and how humans impact environments. Students will learn about food webs, energy flow, succession, and human influences on ecosystems. Assessments will include surveys, worksheets, tests, and a reaction paper following a field trip to the zoo. The unit aims to help students understand interdependence within ecosystems and both positive and negative human environmental impacts.
IARU Global Challenges 2014 Cornell Tracking our declineSarah Cornell
There is growing attention to the global risks - not just local impacts - of present rates of biodiversity loss. It is worth keeping in mind that 'biodiversity loss' actually means the destruction (sometimes irreversible) – by us, people – of living organisms, Earth's 'genetic library', species, ecosystems and habitats. The fact that ecosystems are complex, adaptive, and locally specific means they can't be adequately represented in a single global measure. But without any overarching global perspective on losses, the locally contingent measures are 'untethered' to the real risks of systemic change. Scientists of many kinds are rising to the transdisciplinary challenge of dealing with this complexity in the face of global drivers of change (climate change, development pressures), recognizing that it is a challenge for everyone, not just academia.
The document reviews several theories and concepts for understanding human behavior in environmental preservation, including primitive models, the theory of environmentally responsible behavior, the reasoned/responsible action theory, the planned behavior theory, the environmental citizenship model, the model of human interaction with the environment, the value-belief-norm theory of environmentalism, the health belief theory, and the diffusion of innovation model. It finds that while no single theory can fully explain human environmental interactions, an integrated application of different behavioral and environmental theories could help address modern environmental problems.
This document is a thesis submitted by Stéphanie A. Jacometti to Imperial College London to fulfill requirements for an MSc degree. The thesis analyzes elements that could bring about behavioral change in energy conservation and the role of foundations in this process. It includes a literature review on knowledge, attitudes, behavior, and past government and non-government campaigns. Interviews were also conducted with representatives from foundations and organizations involved in behavioral change programs. The thesis makes recommendations for an effective long-term strategy involving government, foundations, and charities to create lasting behavioral change around energy conservation.
FY 2013 R&D REPORT January 6 2014 - National Science FoundationLyle Birkey
The document summarizes federal funding for environmental research and development from the National Science Foundation (NSF) in fiscal year 2013. It provides details on funding amounts for various departments within NSF that support environmental research, including the Biological Sciences, Environmental Biology, Integrative Organismal Systems, Engineering, Geosciences, and Biological Infrastructure. The NSF is the primary source of federal funding for basic environmental research at US universities, providing $1.6 billion for these purposes in FY2013 across various science disciplines.
Human population growth and consumption patterns have significant environmental impacts. The module aims to develop understanding of human-environment interactions and population trends. Key topics covered include demographic characteristics of human populations, historical and current trends in population size and distribution, factors influencing population growth rates, approaches to population control, and relationships between population, poverty, and environmental degradation. Variations in global consumption patterns are also examined.
1. The document outlines a planning process to develop an integrated long-term multi-site research program within the LTER Network to study interactions between pulse and press disturbances in ecosystems and their feedbacks with human societies.
2. It proposes a conceptual framework that establishes a hierarchical structure with themes of altered biogeochemical cycles, altered biotic structure, climate variability/change, and social-ecological systems.
3. Example research questions and approaches are provided for different themes that aim to better understand ecosystem structure, function, and services and their interactions with human behavior.
This document summarizes a thesis that evaluated the Sustainable Prisons Project (SPP), which brings science and sustainability education to prisons. The thesis used interviews and surveys of offenders and staff from 4 Washington state prisons to examine if SPP programs shared characteristics with effective rehabilitation programs and the significance of science/sustainability education. Results from 25 offender and 12 staff interviews suggested SPP projects foster environmental stewardship and influence emotional health. This may improve offender quality of life and contribute to rehabilitation outcomes by reducing recidivism. The thesis provides context on SPP, effective rehabilitation programs, and how programs using plants/animals have promise for rehabilitation.
The document discusses curriculum elements for a science education program, including essential understandings, content standards, and performance standards. It provides examples of essential understandings and unpacks how they relate to the content and performance standards. The document also describes how teachers analyzed and reviewed the curriculum elements to understand their purpose and relationships.
This document provides an introduction and curriculum for a high school energy and climate change program. It includes 9 lessons that teach students about topics like conducting energy audits, greenhouse gases, renewable energy sources, and developing an action plan. The goal is to strengthen students' understanding of energy and climate change concepts while also reducing the environmental footprint of their school. Case studies showcase how student projects have already led to meaningful changes at some schools that have implemented similar programs in the past.
This document describes digestion that occurs in the mouth, esophagus, stomach, and small intestine. In the mouth, food is mechanically and chemically broken down by teeth and saliva enzymes. The chewed food or bolus is then swallowed through the esophagus using peristalsis. In the stomach, the bolus is further broken down by stomach muscles and enzymes in gastric juice. When fully digested, the liquid chyme exits the stomach into the small intestine where bile, pancreatic juice, and bicarbonate aid in further digestion before nutrients are absorbed in the jejunum and ileum.
Anatomy-Bad Fish Unit: Cardiovascular Notesrozeka01
The heart has four chambers separated by a septum, with two atria that receive blood and two ventricles that pump blood out. It is surrounded by membranes and layers. Veins carry deoxygenated blood into the right atrium while pulmonary veins carry oxygenated blood into the left atrium. The pulmonary artery carries blood from the right ventricle to the lungs and the aorta carries it from the left ventricle throughout the body. Valves ensure blood flows in one direction. The cardiac cycle involves the heart relaxing to fill with blood then contracting to pump it out in two phases controlled by the conduction system.
More Related Content
Similar to THS_General Biology_Curriculum Guide_v1516
This document provides information on a unit plan for an Environmental Science course covering populations. The unit is designed for grades 11-12 and covers the topic of populations over 30 instructional days. It outlines relevant Next Generation Science Standards performance expectations and foundation boxes. Recommended activities are provided to explore the standards, including modeling population growth, calculating generation rates, and studying predator-prey adaptations. Assessments include formative and summative options like exams, essays, and presentations. Teaching resources and differentiated instruction strategies are also included.
In this exercise the student will define and expand the discussion o.docxvickeryr87
In this exercise the student will define and expand the discussion of the
“Key Questions”
that are listed for each chapter in the Study Guide. You are required to define, discuss these key questions, and relate them to other important concepts and ideas in the study of environmental science and sustainable development in your own words. You must also add relevant personal opinions and make connections to sustainable practice in the Mojave Desert whenever possible and describe how/what/when technology is being used appropriately.
One long or two short paragraphs (four to six sentences) with minimum 100 words
1-1 What are some of the scientific principles of sustainability?
Concept 1-1A Nature has sustained itself for billions of years by using solar energy, biodiversity, population control, and nutrient cycling –lessons from nature that we can apply to our lifestyles and economies
1-2 How are our ecological footprints affecting the earth?
Concept 1-2 As our ecological footprints grow, we are depleting and degrading more of the earth’s natural capital
1-1 What is an environmentally sustainable society?
Concept 1-1A Our lives and economies depend on energy from the sun (solar capital) and on natural resources and natural services (natural capital) provided by the earth.
Concept 1-1B Living sustainably means living off the earth’s natural income without depleting or degrading the natural capital that supplies it.
1-2 How can environmentally sustainable societies grow economically?
Concept 1-2 Societies can become more environmentally sustainable through economic development dedicated to improving the quality of life for everyone without degrading the earth’s life-support systems.
1-2 How are our ecological footprints affecting the earth?
Concept 1-2 As our ecological footprints grow, we are depleting and degrading more of the earth’s natural capital.
1-3 Why do we have environmental problems?
Concept 1-4 Major causes of environmental problems are population growth, wasteful and unsustainable resource use, poverty, exclusion of environmental costs of resource use from the market prices of goods and services, and attempts to manage nature with insufficient knowledge.
1-4 What are some of the scientific principles of sustainability?
Concept 1-1A Nature has sustained itself for billions of years by using solar energy, biodiversity, population control, and nutrient cycling –lessons from nature that we can apply to our lifestyles and economies.
2-1 What is science?
Concept 2-1 Scientists collect data and develop theories, models, and laws about how nature works
2-2 What is the matter and how can matter change?
Concept 2-2A Matter consists of elements and compounds, which are in turn made up of atoms, ions, or molecules.
Concept 2-2B When matter undergoes a physical or chemical change, no atoms are created or destroyed (the law of conservation of matter).
2-3 What is energy and how can it be changed?
Concept 2-3A When ener.
Running head ENVIRONMENTAL SCIENCE1ENVIRONMENTAL SCIENCE.docxcharisellington63520
Running head: ENVIRONMENTAL SCIENCE
1
ENVIRONMENTAL SCIENCE
2
Environmental Science
Student’s Name
University Affiliation
Environmental Science
Environmental science part 1
1page Define stewardship and define sustainability.
Stewardship of the ecosystem refers to a framework that is action-oriented and that seeks to develop the sustainability of the socio-ecological environment of a planet that is rapidly changing planet. It considers the means through which the resources availed by the environment are managed with the intent of ensuring they are not wasted or exhausted. Sustainability on the other hand refers to the facilitation of current needs by using the environment without jeopardizing future generations’ ability to meet their needs.
Considering the Amazon forest, there are several considerations that can be made in light of the stewardship and sustainable utilization of the resource. To begin with, it is imperative that Amazon resource are conserved by being included as a conservation reserve and marked for protection and sustainability. Additionally, it could be placed under a covenant of conservation. There should also be an inventory of the natural resources in the Amazon including a comprehensive inventory of the biological resources found in the forest and which should be monitored within regular intervals. Additionally, there should be increased research on the identification of maintenance procedures of proper biological and physical processes from the forest. There should also be policies set that determine the sustainable utilization of timber from the Amazon rainforest according to proper standards that will ensure that future generations use of the same is not endangered (Chapin III & Matson, 2011).
The environmental implications that can arise as a result of deforestation of the Amazon forest are innumerable. To begin with animals dependent on the forest would find it difficult to survive and, therefore, may become extinct. This would make them unavailable for future generations. Additionally, deforestation leads to an imbalance between the carbon dioxide: oxygen ratio in the atmosphere. As a result, air pollution will become aggravated.
PART 2
Ecosystems and How They Work - Sustainable Development close
In this assignment, you will investigate the biotic and abiotic structure and function of an ecosystem. Choose one of the following ecosystems:
Tropical rainforest
An ecosystem refers to a correlated community of both living and non-living organisms and the environment in which they are found. It comprises an abiotic and biotic component. For this discussion the ecosystem chosen is a tropical rainforest. The biome of a rainforest is highly complex as it comprises a myriad of various plant and animal species which are adapted to surviving under rainy conditions. An example is the Amazon rainforest. In the rainforest ecosystem there exist various plant levels, with the highest being the tall trees that fo.
This document introduces the Eco-Schools USA program, which aims to educate students about sustainability. It is part of an international program involving over 50 countries. The US program uses a seven step framework to guide schools in developing and implementing sustainable initiatives. Students focus on certain "pathways" or topics, including energy and climate change. Schools can apply for bronze, silver, or green flag awards for their efforts. The introduction emphasizes the importance of educating students about energy and climate change issues so they can address these challenges as future leaders.
Over the two-year course, students will study a wide range of ecosystems and environmental issues locally and globally. Topic areas include systems and models, human population growth, conservation, pollution management, and environmental value systems. The course aims to develop students' scientific skills and raise awareness of environmental issues. Students' practical work will be internally assessed based on eight criteria.
The document provides instructions for a Year 9 science assignment on the Mud Creek ecosystem case study. Students are asked to answer one of two questions about changes to the ecosystem by urbanization and a proposed development. They must state their opinion, support it using data from class activities, and write in an essay format. Tables provide focus questions to guide their answers and analysis of the ecosystem.
Here are the key points about environmental science and ecosystems:
- Environmental science is the study of our environment and our place in it. It applies knowledge from many scientific disciplines like biology, chemistry, physics, and social sciences.
- An ecosystem is the basic functioning unit of nature. It consists of the nonliving (abiotic) environment and the living (biotic) community it supports. These two components interact through an exchange of matter and energy.
- When studying ecological relationships, it's best to start with a smaller system like a pond, field, or aquarium. These are examples of ecosystems that can be observed and analyzed.
This unit plan focuses on teaching ecology to second year high school biology students over approximately one week. The unit will explore the interactions between living and non-living things in ecosystems and how humans impact environments. Students will learn about food webs, energy flow, succession, and human influences on ecosystems. Assessments will include surveys, worksheets, tests, and a reaction paper following a field trip to the zoo. The unit aims to help students understand that all life is interdependent and ecosystems seek to maintain balance.
This unit plan focuses on teaching ecology to second year high school biology students over approximately one week. The unit will explore the interactions between living and non-living things in ecosystems and how humans impact environments. Students will learn about food webs, energy flow, succession, and human influences on ecosystems. Assessments will include surveys, worksheets, tests, and a reaction paper following a field trip to the zoo. The unit aims to help students understand interdependence within ecosystems and both positive and negative human environmental impacts.
IARU Global Challenges 2014 Cornell Tracking our declineSarah Cornell
There is growing attention to the global risks - not just local impacts - of present rates of biodiversity loss. It is worth keeping in mind that 'biodiversity loss' actually means the destruction (sometimes irreversible) – by us, people – of living organisms, Earth's 'genetic library', species, ecosystems and habitats. The fact that ecosystems are complex, adaptive, and locally specific means they can't be adequately represented in a single global measure. But without any overarching global perspective on losses, the locally contingent measures are 'untethered' to the real risks of systemic change. Scientists of many kinds are rising to the transdisciplinary challenge of dealing with this complexity in the face of global drivers of change (climate change, development pressures), recognizing that it is a challenge for everyone, not just academia.
The document reviews several theories and concepts for understanding human behavior in environmental preservation, including primitive models, the theory of environmentally responsible behavior, the reasoned/responsible action theory, the planned behavior theory, the environmental citizenship model, the model of human interaction with the environment, the value-belief-norm theory of environmentalism, the health belief theory, and the diffusion of innovation model. It finds that while no single theory can fully explain human environmental interactions, an integrated application of different behavioral and environmental theories could help address modern environmental problems.
This document is a thesis submitted by Stéphanie A. Jacometti to Imperial College London to fulfill requirements for an MSc degree. The thesis analyzes elements that could bring about behavioral change in energy conservation and the role of foundations in this process. It includes a literature review on knowledge, attitudes, behavior, and past government and non-government campaigns. Interviews were also conducted with representatives from foundations and organizations involved in behavioral change programs. The thesis makes recommendations for an effective long-term strategy involving government, foundations, and charities to create lasting behavioral change around energy conservation.
FY 2013 R&D REPORT January 6 2014 - National Science FoundationLyle Birkey
The document summarizes federal funding for environmental research and development from the National Science Foundation (NSF) in fiscal year 2013. It provides details on funding amounts for various departments within NSF that support environmental research, including the Biological Sciences, Environmental Biology, Integrative Organismal Systems, Engineering, Geosciences, and Biological Infrastructure. The NSF is the primary source of federal funding for basic environmental research at US universities, providing $1.6 billion for these purposes in FY2013 across various science disciplines.
Human population growth and consumption patterns have significant environmental impacts. The module aims to develop understanding of human-environment interactions and population trends. Key topics covered include demographic characteristics of human populations, historical and current trends in population size and distribution, factors influencing population growth rates, approaches to population control, and relationships between population, poverty, and environmental degradation. Variations in global consumption patterns are also examined.
1. The document outlines a planning process to develop an integrated long-term multi-site research program within the LTER Network to study interactions between pulse and press disturbances in ecosystems and their feedbacks with human societies.
2. It proposes a conceptual framework that establishes a hierarchical structure with themes of altered biogeochemical cycles, altered biotic structure, climate variability/change, and social-ecological systems.
3. Example research questions and approaches are provided for different themes that aim to better understand ecosystem structure, function, and services and their interactions with human behavior.
This document summarizes a thesis that evaluated the Sustainable Prisons Project (SPP), which brings science and sustainability education to prisons. The thesis used interviews and surveys of offenders and staff from 4 Washington state prisons to examine if SPP programs shared characteristics with effective rehabilitation programs and the significance of science/sustainability education. Results from 25 offender and 12 staff interviews suggested SPP projects foster environmental stewardship and influence emotional health. This may improve offender quality of life and contribute to rehabilitation outcomes by reducing recidivism. The thesis provides context on SPP, effective rehabilitation programs, and how programs using plants/animals have promise for rehabilitation.
The document discusses curriculum elements for a science education program, including essential understandings, content standards, and performance standards. It provides examples of essential understandings and unpacks how they relate to the content and performance standards. The document also describes how teachers analyzed and reviewed the curriculum elements to understand their purpose and relationships.
This document provides an introduction and curriculum for a high school energy and climate change program. It includes 9 lessons that teach students about topics like conducting energy audits, greenhouse gases, renewable energy sources, and developing an action plan. The goal is to strengthen students' understanding of energy and climate change concepts while also reducing the environmental footprint of their school. Case studies showcase how student projects have already led to meaningful changes at some schools that have implemented similar programs in the past.
Similar to THS_General Biology_Curriculum Guide_v1516 (20)
This document describes digestion that occurs in the mouth, esophagus, stomach, and small intestine. In the mouth, food is mechanically and chemically broken down by teeth and saliva enzymes. The chewed food or bolus is then swallowed through the esophagus using peristalsis. In the stomach, the bolus is further broken down by stomach muscles and enzymes in gastric juice. When fully digested, the liquid chyme exits the stomach into the small intestine where bile, pancreatic juice, and bicarbonate aid in further digestion before nutrients are absorbed in the jejunum and ileum.
Anatomy-Bad Fish Unit: Cardiovascular Notesrozeka01
The heart has four chambers separated by a septum, with two atria that receive blood and two ventricles that pump blood out. It is surrounded by membranes and layers. Veins carry deoxygenated blood into the right atrium while pulmonary veins carry oxygenated blood into the left atrium. The pulmonary artery carries blood from the right ventricle to the lungs and the aorta carries it from the left ventricle throughout the body. Valves ensure blood flows in one direction. The cardiac cycle involves the heart relaxing to fill with blood then contracting to pump it out in two phases controlled by the conduction system.
MSTA 2018: "Starting From Scratch" (Katelyn Rozema)rozeka01
This document outlines a workshop on creating curriculum units from scratch using case studies and new standards. The workshop agenda includes an introduction, explaining why use case studies, and walking through the steps of transforming a case study into a curriculum. The steps include: reading the case study and identifying vocabulary and questions; connecting disciplinary core ideas (DCIs) to the questions; determining the driving question and final goals; finding activities that incorporate science practices; and finalizing the curriculum with assessment and starting the case study. The goal is to share the presenter's experience developing original units and help teachers who teach without prepared curricula.
Ths general biology unit 4 heredity non mendelian genetics notes_v1516rozeka01
This document discusses different types of non-Mendelian genetics including polygenic traits which are influenced by multiple genes, codominant traits where both alleles are expressed together, incomplete dominance where the heterozygote exhibits a blending of traits, and sex-linked traits located on the sex chromosomes. Examples are provided for each type to demonstrate inheritance patterns that differ from simple Mendelian genetics.
Ths general biology unit 4 heredity mendelian genetics notes_v1516rozeka01
This document summarizes key concepts in Mendelian genetics. It explains that Gregor Mendel studied trait inheritance in pea plants and discovered that traits can be dominant or recessive. Dominant traits always appear if present, while recessive traits only appear if an organism inherits two recessive alleles. An organism's genotype describes its genetic makeup, while its phenotype describes its physical traits. Punnett squares are used to predict the probability that offspring will inherit different combinations of alleles from their parents.
Ths general biology unit 4 heredity karyotyping notes_v1516rozeka01
Karyotyping is used to identify chromosomal disorders by staining and organizing chromosomes from longest to shortest based on banding pattern. Abnormalities include an extra chromosome like Trisomy 21 which causes Down Syndrome characteristics such as cognitive impairment and heart defects, or a missing sex chromosome as in Turner's Syndrome where females are sterile with short stature.
Ths general biology unit 4 heredity reproduction and meiosis notes_v1516rozeka01
Meiosis is the process of cell division that produces gametes (sperm and egg cells) for sexual reproduction. It involves two cell divisions that result in four haploid cells, each with half the number of chromosomes as the original cell. This ensures that offspring have a full set of chromosomes when fertilization occurs. The main features of meiosis include homologous chromosome pairing, crossing over to increase genetic variation, and independent assortment of chromosomes into daughter cells through the first and second meiotic divisions. Errors in meiosis can result in gametes with an abnormal number of chromosomes, causing genetic disorders.
Ths general biology unit 4 heredity protein synthesis notes_v1516rozeka01
Protein synthesis involves two main steps: transcription and translation. In transcription, the DNA code is copied into messenger RNA (mRNA) in the cell nucleus. This mRNA then leaves the nucleus and the code is translated during translation when transfer RNA (tRNA) matches mRNA codons and brings corresponding amino acids to form a protein, guided by ribosomal RNA (rRNA). Mutations occur when the DNA code changes, leading to errors in protein synthesis when the wrong tRNA and amino acids are matched to the altered mRNA codons.
Ths general biology unit 4 heredity cell cycle notesrozeka01
Cell division allows cells to grow, repair, replace damaged cells, and reproduce. There are two main types of cell division: mitosis and meiosis. The cell cycle is the process cells use to prepare for cell division. It includes interphase, where the cell grows and duplicates its DNA, and the M phase where the cell divides. Errors in the cell cycle checkpoints during interphase can allow defective cells to divide uncontrollably and cause cancer.
Ths general biology unit 4 heredity dna replication notesrozeka01
DNA replication is necessary for cell division to create a copy of the DNA for each new cell. Messelson and Stahl discovered that DNA replication is a semi-conservative process where the original DNA molecule splits into two new molecules, each with one original strand and one newly synthesized complimentary strand. The basic steps of replication are to unwind the DNA strands, separate the strands, and then make complimentary copies of each single strand to result in two new DNA molecules with one old and one new strand each.
Ths general biology unit 4 heredity dna structure and function notesrozeka01
DNA stores genetic instructions in the form of a code made up of four nitrogenous bases: adenine (A), thymine (T), guanine (G), and cytosine (C). DNA has a double-stranded helical structure, with the strands bonded together via complementary base pairing between A and T and between G and C. According to Chargaff's rule, the percentage of A bases is always equal to the percentage of T bases, and the percentage of G bases is always equal to the percentage of C bases within a DNA sample. The two strands of DNA run in opposite directions of each other (anti-parallel) and form a double helix.
Ths general biology unit 3 cell processes homeostasis and feedback mechanisms...rozeka01
Homeostasis refers to maintaining internal balance, and feedback mechanisms are the involuntary chemical processes that bring the body back to its normal state when something causes internal changes. There are two main types of feedback mechanisms: negative feedback mechanisms return the body to its normal state, like shivering and sweating to regulate temperature and insulin to regulate blood sugar levels. Positive feedback mechanisms cause more change to happen, though few homeostatic responses use this type, such as oxytocin causing stronger contractions during childbirth to help deliver the baby.
Ths general biology unit 3 cell processes cell membrane transport notes_v1516rozeka01
Cell membranes allow transport of molecules into and out of cells through diffusion, facilitated diffusion, osmosis, and active transport. Diffusion and facilitated diffusion move particles from high to low concentration without energy, while osmosis moves water molecules and active transport moves particles against concentration gradients, requiring ATP energy. Cells regulate transport to take in useful nutrients and remove waste.
Ths general biology unit 2 our bodies living organization notes_v1516rozeka01
All living things are made of cells and molecules that are organized into different levels. Cells are the basic units of life that make up tissues, organs, organ systems, and the overall organism. All cellular processes require energy and involve the movement and reactions of molecules like carbon, hydrogen, oxygen, nitrogen, phosphorus, and sulfur. Homeostasis is maintained involuntarily within cells and organisms through processes that keep internal stability and balance. Cells become specialized by taking on unique shapes and functions to complete specific roles that together support homeostasis at the organism level. The main human organs include the brain, heart, lungs, liver, stomach, intestines, and kidneys, each of which performs crucial functions for keeping humans alive and healthy.
Ths general biology unit 2 our bodies cells and organelles notes_v1516rozeka01
(1) Cells are the basic unit of life and can be either unicellular (single-celled) or multicellular (many cells). Cells contain organelles that help them complete important processes.
(2) Key organelles include the nucleus, ribosomes, endoplasmic reticulum, Golgi body, mitochondria, chloroplasts, cell membrane, and cell wall.
(3) Organelles are found inside cells to help them carry out specialized functions like protein production, cellular respiration, and photosynthesis. The endosymbiotic theory explains how organelles may have originally been independent organisms that lived inside host cells and eventually became permanent cell structures.
Ths general biology unit 2 our bodies cell reactions and enzymes notes_v1516rozeka01
Cellular reactions use enzymes to break down molecules, form larger molecules, and facilitate energy storage and release using ATP and ADP. Enzymes are proteins that catalyze chemical reactions by lowering their activation energy through a specific lock-and-key structure that allows substrates to bind at the enzyme's active site. Denaturing enzymes through extreme heat or chemicals causes their structure to unravel and disrupt their active site, preventing them from catalyzing reactions.
Ths general biology unit 2 our bodies living organization notes_v1516rozeka01
All living things are made of cells and molecules that are organized into different levels. Cells are the basic units of life that make up tissues, organs, organ systems, and the overall organism. All cellular processes require energy and involve the movement and reactions of molecules like carbon, hydrogen, oxygen, nitrogen, phosphorus, and sulfur. Homeostasis refers to the internal stability and balance maintained by involuntary processes within cells and between organ systems. Organs like the brain, heart, lungs, liver, stomach, intestines, and kidneys work together as specialized systems with unique shapes and functions to keep the human body living and healthy.
Ths general biology unit 2 our bodies biomolecule notes_v1516rozeka01
The document discusses the four main types of biomolecules: carbohydrates, lipids, nucleic acids, and proteins. Carbohydrates and lipids are used for energy storage. Nucleic acids like DNA and RNA contain the genetic instructions for cells, while proteins perform a variety of functions including structure, catalysis, and transport. The basic units or monomers that make up each biomolecule polymer are also described.
Ths general biology unit 1 our environment part 2_succession and biodiversity...rozeka01
This document discusses key concepts around biodiversity, ecosystem stability, and succession. It defines biodiversity as the variety of living organisms in an ecosystem, and notes that greater biodiversity leads to greater ecosystem stability. Succession is introduced as the process by which the structure of a community changes over time due to events like fires, storms, or human activity. There are two types of succession: primary succession, which occurs in a new area without soil or life, and secondary succession, which follows a disruption to an already established habitat.
Ths general biology unit 1 our environment part 2_climate change and human ac...rozeka01
This document discusses climate change and human impacts on the environment. It defines key terms like climate, weather, and greenhouse gases. It explains how the greenhouse effect traps heat in the atmosphere and is impacted by carbon dioxide, methane and water vapor. It also discusses how climate naturally changes over time but that human activities like fossil fuel use, pollution, and ecosystem damage are exacerbating climate change. It provides examples of evidence for climate change through changing ice caps, storms, and plant/animal distributions. Finally, it briefly covers the concepts of biomagnification and invasive species introduction.
Strategies for Effective Upskilling is a presentation by Chinwendu Peace in a Your Skill Boost Masterclass organisation by the Excellence Foundation for South Sudan on 08th and 09th June 2024 from 1 PM to 3 PM on each day.
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Odoo 17 CRM allows us to track why we lose sales opportunities with "Lost Reasons." This helps analyze our sales process and identify areas for improvement. Here's how to configure lost reasons in Odoo 17 CRM
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Exploiting Artificial Intelligence for Empowering Researchers and Faculty, In...Dr. Vinod Kumar Kanvaria
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Executive Directors Chat Leveraging AI for Diversity, Equity, and InclusionTechSoup
Let’s explore the intersection of technology and equity in the final session of our DEI series. Discover how AI tools, like ChatGPT, can be used to support and enhance your nonprofit's DEI initiatives. Participants will gain insights into practical AI applications and get tips for leveraging technology to advance their DEI goals.
This presentation was provided by Steph Pollock of The American Psychological Association’s Journals Program, and Damita Snow, of The American Society of Civil Engineers (ASCE), for the initial session of NISO's 2024 Training Series "DEIA in the Scholarly Landscape." Session One: 'Setting Expectations: a DEIA Primer,' was held June 6, 2024.
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Lee M. Thurston High School
General Biology Curriculum Guide
2015-2016 Version
(Adjusted to NGSS Standards)
Content Page
Number
General Course Pacing ……………………………………………………………………………………………. 2
Unit 1 Breakdown: ………………………………………………………………………………………………….
Unit 1 Pacing
Unit 1 Standards, Big Ideas & Vocabulary
Unit 2 Breakdown: ………………………………………………………………………………………………….
Unit 2 Pacing
Unit 2 Standards, Big Ideas & Vocabulary
Unit 3 Breakdown: ………………………………………………………………………………………………….
Unit 3 Pacing
Unit 3 Standards, Big Ideas & Vocabulary
Unit 4 Breakdown: ………………………………………………………………………………………………….
Unit 4 Pacing
Unit 4 Standards, Big Ideas & Vocabulary
2. 2 | P a g e
General Course Pacing
Quarter Unit NGSS Standards Time
1 Unit 1: Our
Environment
HS-LS2: Ecosystems—Interactions,Energy&Dynamics
(HS-LS2-1, HS-LS2-2 , HS-LS2-3 , HS-LS2-4 , HS-LS2-5 , HS-LS2-6 , HS-LS2-7 , HS-LS2-8 , HS-LS1-5
, HS-LS1-7)
10 weeks
2 Unit 2: Our Bodies HS-LS1: From MoleculestoOrganisms—Structures&Processes
(HS-LS1-2, HS-LS1-3 , HS-LS1-4 , , HS-LS1-6 ,)
5 weeks
3 Unit 3: Our Genetic
Code
HS-LS3: Heredity—Inheritance&Variationof Traits
(HS-LS1-1 , HS-LS3-1 M, HS-LS3-2 ,HS-LS3-4)
7 weeks
4 Unit 4: Change Over
Time due to Our
Environment,Structure
& Genetic Code
HS-LS4: Biological Evolution—Unity&Diversity
(HS-LS4-1, HS-LS4-2 , HS-LS4-3 , HS-LS4-4 , HS-LS4-5 , HS-LS4-6)
8 weeks
All Units All Units The followingstandardsare appliedthroughoutall units.
HS-ETS1: EngineeringDesign
(HS-ETS1-1 , HS-ETS1-2 , HS-ETS1-3 , HS-ETS1-4)
NA
3. 3 | P a g e
Unit 1: Our Environment
Unit Pacing
Week Standards & Topics Leading Questions Pacing per Day
1 HS-LS2-5 , HS-LS2-3 , HS-LS1-4 , HS-LS1-1 , HS-LS1-7
PhotosynthesisandCellularRespiration
Where do living things on Earth get
the energy they need to live?
3 Days = Activity
1 Day = Summary/ ConclusionNotes
1 Day = Practice & Application
1 Day = Review
1 Day = Assessment(Quiz)
3 Days = Activity
1 Day = Summary/ ConclusionNotes
2 Day = Practice & Application
1 Day = Review
1 Day = Assessment(Quiz)
2
3
4 HS-LS2-4
EnergyFlowThroughEcosystemLevels
How is energy and matter passed
through an ecosystem?
5 Days = Activity
1 Day = Summary/ ConclusionNotes
2 Day = Practice & Application
1 Day = Assessment(Quiz)
5
6 HS-LS2-1 , HS-LS2-6 , HS-LS2-2 , HS-LS2-8
CarryingCapacity,LimitingFactors,Biodiversity&Stability
Whathappenstoanecosystem and
its living things when there are
changes to its energy and matter
resources?
5 Days = ActivityPart
1 Day = Summary/ ConclusionNotes
2 Day = Practice & Application
1 Day = Assessment
7
8 HS-LS2-7
Human Activity/Impact& Climate Change
What role do humans play in
altering organisms’ energy and
matter resources?
5 Days = Activity
1 Day = Summary/ ConclusionNotes
2 Days = Practice & Application
1 Day = Assessment(Quiz)
9
10 Unit Assessment NA 3 Days = Review&Unit Conclusion
1 Day = Assessment(Exam)
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Standard HS-LS2-3 , HS-LS2-5 , HS-LS1-4 , HS-LS1-6
Description
Use a model toillustrate howphotosynthesistransformslightenergyintostoredchemical energy.
Use a model toillustrate thatcellularrespirationisachemical processwherebythe bondsof foodmoleculesandoxygenmolecules
are brokenand the bondsin newcompoundsare formedresultinginanettransferof energy.
Constructand revise anexplanationbasedonevidence forhowcarbon,hydrogen,andoxygenfromsugarmoleculesmaycombine
withotherelementstoformaminoacidsand/orotherlarge carbon-basedmolecules.
*Studentsdo NOThaveto learn aboutspecificbiochemical reactions(i.e.hydrolysis/dehydrationsynthesis) ortheidentificationof
macromolecules.
Big Ideas
Photosynthesisandcellularrespirationprovide mostof the energyforlife processes.
The processof photosynthesisconvertslightenergytostoredchemical energybyconvertingcarbondioxide pluswaterintosugars
plusreleasedoxygen.
The sugar moleculesthusformedcontaincarbon,hydrogen,andoxygen(theirhydrocarbonbackbonesare usedtomake other
moleculesinlivingsystems).
As a resultof these chemical reactions,energyistransferredfromone systemof interactingmoleculestoanother.
Cellularrespirationisachemical processinwhichthe bondsof foodmoleculesandoxygenmoleculesare brokenandnew
compoundsare formedthatcan transportenergytomuscles.
Cellularrespirationalsoreleasesthe energyneededtomaintainbodytemperature despiteongoingenergytransfertothe
surroundingenvironment.
The main waythat solarenergyiscapturedand storedonEarth isthroughcomplex chemical processessuchasphotosynthesis.
Vocabulary Matter
Energy
Photosynthesis
CellularRespiration
Aerobic
Anaerobic
Ideas for
Lessons /
Activities
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Standard HS-LS2-4
Description
Constructand revise anexplanationbasedonevidence forthe cyclingof matterandflowof energyinaerobicandanaerobic
conditions.
Use mathematical representationstosupportclaimsforthe cyclingof matter andflow of energyamongorganismsinanecosystem.
Developamodel toillustrate the role of photosynthesisandcellularrespirationinthe cyclingof carbonamongthe biosphere,
atmosphere,hydrosphere,andgeosphere.
Big Ideas
Photosynthesisandcellularrespirationprovide mostof the energyforlife processes.
As matterand energyflowthroughthe organizational levelsof livingsystems,chemical elementsare recombinedindifferent ways
to formdifferentproducts.
Energyis transferredfromone systemof interactingmoleculestoanother.
Cellularrespirationisachemical processinwhichthe bondsof foodmoleculesandoxygenmoleculesare brokenandnew
compoundsare formedthatcan transportenergytomuscles.
Cellularrespirationalsoreleasesthe energyneededtomaintainbodytemperature despiteongoingenergytransfertothe
surroundingenvironment.
Plantsor algae formthe lowestlevel of the foodweb.
At eachlinkupwardina foodweb,onlyasmall fractionof the matter consumedatthe lower level istransferredupward,to
produce growthand release energyincellularrespirationatthe higherlevel.
There are generallyfewerorganismsathigherlevelsof afoodweb.
Some matterreacts to release energyforlife functions,somematterisstoredinnewlymade structures,andmuchislost/discarded.
The chemical elementsthatmake upthe moleculesof organismspassthroughfoodwebsandintoandoutof the atmosphere and
soil,andtheyare combinedandrecombinedindifferentways.
At eachlink/levelinanecosystem,matterandenergyare conserved.
Vocabulary Matter
Energy
Cycle / Flow
Organism
Ecosystem
FoodWeb / Chain/ Pyramid
Biomass
Ideas for
Lessons /
Activities
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Standard HS-LS2-1 , Standard HS-LS2-2 , Standard HS-LS2-6 , Standard HS-LS2-8
Description
Use mathematical and/orcomputational representationstosupportexplanationsof factorsthataffectcarryingcapacity.
Use mathematical representationstosupportandrevise explanationsbasedonevidence aboutfactorsaffecting biodiversityand
populationsinecosystemsof differentscales.
Evaluate claims,evidence,andreasoningthatthe complex interactionsinecosystemsmaintainrelativelyconsistentnumbersand
typesof organismsinstable conditions,butchangingconditions mayresultinanewecosystem.
Evaluate the evidence forthe role of groupbehavioronindividualandspecies’chancestosurvive andreproduce.
Big Ideas
Biodiversityisincreasedbythe formationof newspecies,anddecreasedbythe lossof species.
A complex setof interactionswithinanecosystemcankeepitsnumbersandtypesof organismsconstantoverlongperiodsof time
(understable conditions).
If a small biologicaldisturbance,orphysical disturbance,toanecosystemoccurs,itmayremainin its original status/stability.
Extreme changestoconditionscandrasticallychange the functioningof the ecosystem,itsresources,habitatavailability,andthe
numbers/typesof organismsthatitcan support.
Group behaviorhasevolvedbecause membershipcanincrease the chancesof survival forindividualsandtheirgeneticrelatives.
Vocabulary Affect
Biodiversity
Disturbance
Ecosystem
Extinction
Factor
Organism
Resources
Speciation
Species
Stability
Ideas for
Lessons /
Activities
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Standard HS-LS2-7
Description
Design,evaluate,andrefine asolutionforreducingthe impactsof humanactivitiesonthe environmentandbiodiversity.
Big Ideas
Human activityhashuge impactson biodiversitythroughthingslikeoverpopulation, overexploitation,habitatdestruction,pollution,
introductionof invasivespecies,andclimate change.
Sustainingbiodiversityaidshumanitybypreservinglandscapesandresources.
Whenevaluatingsolutionsitisimportanttotake intoaccounta range of constraintsincludingcost,safety,reliability,andaesthetics
and to considersocial-cultural-andenvironmentalimpacts.
Vocabulary Anthropogenic
Biodiversity
Climate Change
Exploit
Habitat
Invasive Species
Overpopulation
Pollution
Resources
Ideas for
Lessons /
Activities
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Unit 2: Our Bodies
Unit Pacing
Week Standards & Topics Leading Questions Pacing per Day
1 HS-LS1-4
Cell Division,Differentiation&Growth
How do we grow into complex
organisms made of many cells and
body parts?
5 Days = Activity
1 Day = Summary/ ConclusionNotes
2 Days = Practice & Application
1 Day = Review
1 Day = Assessment(Quiz)
2
3 HS-LS1-2 , HS-LS1-3
Homeostasis&MulticellularOrganization
Howdo ourbodieskeep ushealthy?
What happens when there are
changes inside / outside of our
bodies?
5 Days = Activity
1 Day = Summary/ ConclusionNotes
2 Days = Practice & Application
1 Day = Review
1 Day = Assessment(Quiz)
4
5 Unit Assessment NA 3 Days = Review&Unit Conclusion
1 Day = Assessment(Exam)
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Standard HS-LS1-4
Description
Use a model toillustrate the role of cellulardivision(mitosis) anddifferentiationinproducingandmaintainingcomplexorganisms.
*StudentsdoNOT have to learnaboutthe specificstepsof mitosis.
Big Ideas
In multicellularorganismsindividualcellsgrowandthendivide viaaprocesscalledmitosis.
Mitosisallowscomplexorganismstogrow.
The organismbeginsasa single cell (afertilizedegg) thatdividessuccessivelytoproduce manycells,witheachparentcell passing
identical geneticmaterial(twovariantsof eachchromosome pair) tobothdaughtercells.
Cell divisionanddifferentiationproduce andmaintainacomplex organism,composedof tissuesandorgansthat worktogether to
meetthe needsof the whole organism.
Each chromosome consistsof a single verylongDNA molecule,andeachgene onthe chromosome isaparticularsegmentof that
DNA.
Vocabulary “Daughter”Cells
“Parent”Cells
Cancer
Cell Cycle
Cell Division
Cells
Checkpoints
Chromosomes
Differentiation
DNA Replication
Egg
GeneticInformation
Growth
Mitosis
Somatic/ Non-Sex Cells
Sperm
Zygote / FertilizedEgg
10. 10 | P a g e
Ideas for
Lessons /
Activities
Standard HS-LS1-2 , HS-LS1-3
Description
Developanduse a model toillustrate the hierarchical organizationof interactingsystemsthatprovide specificfunctionswithin
multicellularorganisms.
Planand conductan investigationtoprovide evidence thatfeedbackmechanismsmaintainhomeostasis.
Big Ideas
Systemsof specializedcellswithinorganismshelpthemperformthe essentialfunctionsof life.
Livingthingsmustbe able to uptake nutrients,transferwater,move andrespondtostimuli,reproduce,andexpel waste.
Multicellularorganismshave ahierarchical structural organization,inwhichanyone systemismade upof numerouspartsandis
itself andcomponentof the nextlevel.
Feedbackmechanisms maintainalivingsystem’sinternalconditionswithincertainlimitsandmediate behaviors,allowingitto
remainalive andfunctional (evenasexternal conditionschange).
Feedbackmechanismscanencourage (positive feedback) ordiscourage (negative feedback) whatisgoingoninside the living
system.
Vocabulary Cells
Expel
Feedback Mechanism
Hierarchy
Homeostasis
Levelsof LivingOrganization
Life Functions
MulticellularOrganism
Negative Feedback
Nutrients
Organ Systems
Organism
Organs
Positive Feedback
Reproduce
Stimuli
11. 11 | P a g e
Structure and Function
Tissues
Waste
Water
Ideas for
Lessons /
Activities
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Unit 3: Our Genetic Code
Unit Pacing
Week Standards & Topics Leading Questions Pacing per Day
1 HS-LS3-3 , HS-LS3-1
Heredity
Why do you look the way that you
do?
What are the chances of you
passing on your traits to future
kids?
5 Days = Activity
1 Day = Summary/ ConclusionNotes
2 Days = Practice & Application
1 Day = Review
1 Day = Assessment(Quiz)
2
3 HS-LS1-1
The GeneticCode & ProteinSynthesis
Where do our cells get the
instructions to make us look and
function the way that we do?
5 Days = Activity
1 Day = Summary/ ConclusionNotes
2 Days = Practice & Application
1 Day = Review
1 Day = Assessment(Quiz)
4
5 HS-LS3-2
GeneticError
What happens when there is a
mistake in our cell’s instructions?
5 Days = Activity
1 Day = Summary/ ConclusionNotes
2 Days = Practice & Application
1 Day = Review
1 Day = Assessment(Quiz)
6
7 Unit Assessment NA 3 Days = Review&Unit Conclusion
1 Day = Assessment(Exam)
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Standard HS-LS1-1
Description
Constructan explanationbasedonevidence forhowthe structure of DNA determinesthe structure of proteinswhichcarryout the
essential functionsof life throughsystemsof specializedcells.
Big Ideas
DNA is a biomolecule,whichmeansitisa molecule foundinlivingorganisms.
All cellscontaingeneticinformationinthe formof DNA molecules.
DNA is made of phosphate,sugar,andnitrogenousbases.
The “geneticcode”isstoredwithinthe sequence of the nitrogenousbaseswithinDNA.
Genesare regionsinthe DNA thatcontainthe instructionsthatcode forthe formationof proteins,whichcarryoutthe most of the
workof cells.
Cellscopythe nitrogenousbase sequencefromDNA ontoa differenttype of nucleicacid(calledRNA),sothatthe code can safely
leave the nucleus.
Cellsthentranslate the nucleicacidcode,intoa proteinbyplacingaminoacidsina specificsequence.
The unique orderof the geneticcode,andthe aminoacids,determinesthe unique typesof proteinsmade.
All cellsinan organismhave the same geneticcontent,butthe genesused(orexpressed)bythe cell maybe regulatedindifferent
ways.
Notall DNA codesfora protein,some segmentsof DNA are involvedinregulatoryorstructural functionsandhave noyet-known
function.
*StudentsdoNOT have to learnaboutthe biochemistryof proteinsynthesis.
Vocabulary AminoAcids
DNA
GeneticCode
Molecule
NitrogenousBases
NucleicAcid
Protein
Protein
ProteinSynthesis/Synthesis
RNA
14. 14 | P a g e
Structure
Translate
Ideas for
Lessons /
Activities
Standard HS-LS3-1 , HS-LS3-3
Description
Askquestionstoclarifyrelationshipsaboutthe role of DNA andchromosomesincodingthe instructionsforcharacteristictraits
passedfromparentsto offspring
Applyconceptsof statisticsandprobabilitytoexplainthe variationanddistributionof expressedtraitsinapopulation.
Big Ideas
DNA is a biomolecule,whichmeansitisa molecule foundinlivingorganisms.
All cellscontaingeneticinformationinthe formof DNA molecules.
Genesare regionsinthe DNA thatcontainthe instructionsthatcode forthe formationof proteins,whichcarryoutthe most of the
workof cells.
The instructionsforformingspecie’scharacteristicsare carriedinDNA.
Genescome indifferentvariations,calledalleles.
There are at least2 variations,oralleles,foreverygene inanorganism’sgeneticcode.
An organismmusthave 2 allelesforeachof itsgenes.
An organisminherits1allele fromthe male-parent,and1allele fromthe female-parent.
Allelescancome indominantor recessive variations.
Once scientistsknowwhichtypesof allelesanorganismcontainsfora gene,theycanmake predictionsastothe probability of it
producingcertaintraitsintheiroffspring.
The resultingappearance isnota literal blending,or“in-between”of the traitsfromthe parents.
Some traitsare inheritedinmore complex mannersthanjustdominantandrecessive.
Vocabulary DNA
Chromosome
Traits / Genes
Alleles
Variation
Offspring
Parent/s
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Gene Expression
DominantAllele
Recessive Allele
Probability
Ideas for
Lessons /
Activities
Standard HS-LS3-2
Description
Make and defendaclaimbasedonevidence thatinheritable geneticvariationsmayresultfrom: (1) newgeneticcombinations
throughmeiosis(2) viable errorsoccurringduringreplicationand/or(3) mutationscausedbyenvironmentalfactors.
Big Ideas
For reproductioninmulticellularorganisms,the organismsmustmake more of theirsex cells(gametes).
The male sex-cellsare sperm.
The female sex-cellsare eggs.
Organismsuse a processcalledMeiosisinordertoproduce more sex cells/gametes.
*Studentsdo NOThaveto learn aboutthedetails/stepsof Meiosis.
Duringthe separationof the geneticinformationinMeiosis,errorscanoccur,leadingthe daughtercellstohave the wrongamount
of geneticinformation.
If sperm/eggcellswithgeneticerrorsare usedtoproduce offspring,the offspringcandevelopdisorders/defectsasa result.
A mutationisa change in the geneticcode withinanorganism.
Mutationscan be causedbyrandom error,or environmental factors.
Mutationsdo notalwayshave a negative effectonthe organism,butwhentheydo,theyoftenleadtothe developmentof
disordersanddiseases.
A mutationtoan organism’sDNA will leadtoa change inthe typesof aminoacidssequenced,andthe typesof proteinsthatare
produced.
Vocabulary DNA
Meiosis
Gametes
Sperm
Egg
GeneticError
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Karyotype
Mutation
Protein
Ideas for
Lessons /
Activities
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Unit 4: Change Over Time Due To Our Environment, Structure
& Genetic Code
Unit Pacing
Week Standards & Topics Leading Questions Pacing per Day
1 HS-LS4-2 , HS-LS4-3 , HS-LS4-4 , HS-LS4-5
Natural Selection&ChangestoPopulations
How can changes to an
environment cause a group of
organisms to change over time?
How can an organism’s body
structures make it better suited for
an environment?
Why is our genetic code important
to the change in a population over
time?
5 Days = Activity
1 Day = Summary/ ConclusionNotes
5 Days = Practice & Application
1 Day = Review
1 Day = Assessment(Quiz)
2
3
4 HS-LS4-1
Evidence forEvolution
What is biological evolution?
What evidence supports biological
evolution?
5 Days = Activity
1 Day = Summary/ ConclusionNotes
2 Days = Practice & Application
1 Day = Review
1 Day = Assessment(Quiz)
5
6 HS-LS4-6
Human Impacton Evolution
Are humans evolving?
How does human activity drive
other populations to evolve?
5 Days = Activity
1 Day = Summary/ ConclusionNotes
2 Days = Practice & Application
1 Day = Review
1 Day = Assessment(Quiz)
7
8 Unit Assessment NA 3 Days = Review&Unit Conclusion
1 Day = Assessment(Exam)
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Standard HS-LS4-2 , HS-LS4-3 , HS-LS4-4 , HS-LS4-5
Description
Constructan explanationbasedonevidence thatthe processof evolutionprimarilyresultsfromfourfactors: (1) the potential fora
speciestoincrease innumber,(2) the heritablegeneticvariationof individualsinaspeciesdue tomutationandsexual
reproduction,(3) competitionforlimitedresources,and(4) the proliferationof those organismsthatare betterable tosurvive and
reproduce inthe environment.
Applyconceptsof statisticsandprobabilitytosupportexplanationsthatorganismswithan advantageousheritable traittendto
increase inproportiontoorganismslackingthistrait.
Constructan explanationbasedonevidence forhownatural selectionleadstoadaptationof populations.
Evaluate the evidence supportingclaimsthatchangesinenvironmentalconditionsmayresultin:(1) increasesinthe numberof
individualsof some species,(2) the emergence of newspeciesovertime,and(3) the extinctionof otherspecies.
Big Ideas
Evolutionisthe change inthe allele frequencyof apopulationovertime.
Natural selectionoccursonlyif there isbothvariationinthe geneticinformationbetweenorganismsinapopulation,and,variation
inthe expressionof thatgeneticinformation(whichleadstodifferencesinperformance among individuals).
The traits that positivelyaffectsurvivalare more likelytobe reproduced,andthusare more common inthe population.
Evolutionisaconsequence of the interactionof fourfactors: (1) the potential fora speciestoincrease innumber,(2) the genetic
variationof individualsinaspeciesdue tomutationandsexual reproduction,(3) competitionforanenvironment’slimitedsupplyof
the resourcesthatindividualsneedinordertosurvive andreproduce,(4) the ensuingproliferationof those organismsthatare
betterable tosurvive andreproduce inthatenvironment.
Natural selectionleadstoadaptationthatis,to a populationdominatedbyorganismsthatare anatomically,behaviorally,and
physiologicallywell suitedtosurvive andreproduce inaspecificenvironment.
The differential survival andreproductionof organismsinapopulationthathave anadvantageousheritable traitleadstoan
increase inthe proportionof individualsinfuture generationsthathave the traitand to a decrease inthe proportionof individuals
that do not.
Adaptationalsomeansthatthe distributionof traitsinapopulationcanchange whenconditionschange.
Changesinthe physical environment,whethernaturallyoccurringorhumaninduced,have thuscontributedtothe expansionof
some species,the emergence of newdistinctspeciesaspopulationsdiverge underdifferentconditions,andthe decline-and
sometimesextinction-ofsome species.
Speciesbecome extinctbecausetheycannolongersurvive andreproduce intheiralteredenvironment.
If memberscannotadjustto change that istoo fast or drastic,the opportunityforthe species’evolutionislost.
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Vocabulary Adapt/ Adaptation
Allele Frequency
Evolution
Extinction
GeneticVariation/Diversity
Natural Selection
Population
Species/Speciation
Successful
Survival
Ideas for
Lessons /
Activities
Evolutionof Birdsof CliplandActivity(BirdBeaks+Resources+ Natural Selection)
Standard HS-LS4-1
Description
Communicate scientificinformationthat commonancestryandbiological evolutionare supportedbymultiple linesof empirical
evidence.
Big Ideas
Geneticinformationprovidesevidence of evolution.
DNA sequencesvaryamongspecies,butthere are manyoverlaps.
The ongoingbranchingthat producesmultiple linesof descentcanbe inferredbycomparingthe DNA sequencesof different
organisms. Suchinformationisalsoderivable fromthe similaritiesanddifferencesinaminoacidsequencesandfromanatomical
and embryological evidence.
Vocabulary Evidence
DNA
Embryo/ Embryology
Fossil
Anatomy
HomologousTrait
Vestigial Trait
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AnalogousTrait
CommonAncestor
Descent
PhylogeneticTree
Ideas for
Lessons /
Activities
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Standard HS-LS4-6
Description
Create or revise asimulationtotesta solutiontomitigate adverseimpactsof humanactivityonbiodiversity.
Big Ideas
Humansdependonthe livingworldforthe resourcesandotherbenefitsprovidedybiodiversity.
Human activityisalsohavingadverse impactsonbiodiversitythroughoverpopulation,overexploitation,habitatdestruction,
pollution,introductionof invasive species,andclimate change.
Whenevaluatingsolutionsforthe effectsof humanactivityonthe environment,itisimportanttotake intoaccountthe range of
constraints,includingcost,safety,reliability,andaesthetics,andtoconsidersocial-cultural-andenvironmental impacts.
Vocabulary Anthropogenic
Natural Selection
Artificial Selection
Climate Change
Ideas for
Lessons /
Activities