NGSS Standards adopted in 2013
The Next Generation Science Standards, or NGSS, advocate less memorizing and more sense-making, draw connections to the Common Core, base practice in research, and apply knowledge in context.
NGSS (Next Generation Science Standards) is a set of science education standards developed to improve K-12 science education in the United States. The NGSS is based on the Framework for K-12 Science Education developed by the National Research Council. The NGSS is focused on developing scientific literacy and preparing students for careers in STEM fields.
It is organized around three dimensions, which are the Science and Engineering Practices (SEP), Crosscutting Concepts (CCC), and Disciplinary Core Ideas (DCI). The NGSS is designed to be student-centered and to promote active learning and inquiry-based approaches to science education, as well as emphasizing the importance of integrating science, engineering, and technology in K-12 education, and promoting the use of data and evidence-based reasoning in scientific investigations.
Grades
- Grade K
- Grade 1
- Grade 2
- Grade 3
- Grade 4
- Grade 5
- Middle School
- High School
Grade K
- K-LS1-1 : Plant and Animal Needs
- K-ESS2-2:Environmental Change
- K-ESS3-1:Environmental Relationships
- K-ESS3-3: Environmental Solutions (Free Lesson)
- K-ESS2-1:Weather Patterns
- K-ESS3-2:Forecasting Severe Weather
- K-PS2-1:Pushes and Pulls
- K-PS2-2:Pushes and Pulls
- K-PS3-1:Sunlight Warms the Earth
- K-PS3-2:Shade structure Design
- K-2-ETS1-1:What is Engineering?
- K-2-ETS1-2:What is Engineering?
- K-2-ETS1-3:What is Engineering?
Grade 1
- 1-LS1-1:Biomimicry Design Solution
- 1-LS1-2:Behavior - Parents and Offspring
- 1-LS3-1: Plant and Animal Structures - Parents and Offspring(Free Lesson)
- 1-ESS1-1:Sun, Moon, and Star Patterns
- 1-ESS1-2:Seasonal Sunlight
- 1-PS4-1:Sound and Vibrating Materials
- 1-PS4-3:Light and Materials
- 1-PS4-2:Illumination and Darkness
- 1-PS4-4:Communication Device Design
- K-2-ETS1-1:What is Engineering?
- K-2-ETS1-2:What is Engineering?
- K-2-ETS1-3:What is Engineering?
Grade 2
- 2-LS2-1:Environmental Plant Needs
- 2-LS2-2:Seed Dispersal and Pollination
- 2-LS4-1:Habitats and Biodiversity
- 2-ESS1-1:Earth Events - Slow and Quick
- 2-ESS2-1:Erosion Design Solution
- 2-ESS2-2:Mapping Land and Water
- 2-ESS2-3:Water on Earth
- 2-PS1-1:Material Properties
- 2-PS1-2:Materials Testing
- 2-PS1-3:Objects and Pieces
- 2-PS1-4:Reversible and Irreversible Changes
- K-2-ETS1-1:What is Engineering?
- K-2-ETS1-2:What is Engineering?
- K-2-ETS1-3:What is Engineering?
Grade 3
- 3-LS1-1: Plant and Animal Life Cycles
- 3-LS2-1: Animal Groups
- 3-LS3-1: Inheritance and Variation of Traits
- 3-LS3-2: Environmental Influence on Traits
- 3-LS4-1: Fossil Evidence of Past Environments
- 3-LS4-2: Variation, Survival, and Reproduction
- 3-LS4-3: Habitats and Organism Survival
- 3-LS3-1: Inheritance and Variation of Traits
- 3-LS3-2: Environmental Influence on Traits
- 3-LS4-2: Variation, Survival, and Reproduction
- 3-LS4-3: Habitats and Organism Survival
- 3-LS4-4: Environmental Change Solution
- 3-LS4-4: Environmental Change Solutions
- 3-LS1-1: Plant and Animal Life Cycles 3-LS2-1: Animal Groups
- 3-LS4-4: Environmental Change Solution
- 3-LS4-1: Fossil Evidence of Past Environments
- 3-LS1-1: Plant and Animal Life Cycles
- K-2-ETS1-1:What is Engineering?
- K-2-ETS1-2:What is Engineering?
- K-2-ETS1-3:What is Engineering?
Grade 4
- 4-LS1-1: Internal and External Structures
- 4-LS1-2: Sensation, Processing, and Response
- 4-PS3-1: Motion Energy-
- 4-PS3-2: Energy Transfer-
- 4-PS3-3: Energy in Collisions-
- 4-PS3-4: Energy Conversion Device-
- 4-PS4-1: Wave Model-
- 4-PS4-2: Light and Vision-
- 4-PS4-3: Information Transfer Solution-
- 4-ESS1-1: Evidence from Rock Layers
- 4-ESS2-1: Weathering and Erosion
- 4-ESS2-2: Mapping Earth's Features
- 4-ESS3-1: Renewable and Non-renewable energy
- 4-ESS3-2: Natural Hazard Design Solution
- 3-5-ETS1-1: Renewable vs. Nonrenewable Resources
- 3-5-ETS1-2: Renewable vs. Nonrenewable Resources
- 3-5-ETS1-3: Renewable vs. Nonrenewable Resources
Grade 5
- 5-LS1-1: Plant Requirements - Air and Water
- 5-LS2-1: Environmental Matter Cycling
- 5-ESS1-1: Stellar Brightness and Distance
- 5-ESS1-2: Daily and Seasonal Sky Changes
- 5-ESS2-1: Earth Sphere Interactions
- 5-ESS2-2: Water Availability and Distribution
- 5-ESS3-1: Protecting Earth's Resources and Environment
- 5-PS1-1: Particle Model of Matter
- 5-PS1-2: Conservation of Matter
- 5-PS1-3: Material Properties
- 5-PS1-4: Mixing Substances
- 5-PS2-1: Earth's Gravitational Force
- 5-PS3-1: Food Energy from the Sun
- 3-5-ETS1-1: Renewable vs. Nonrenewable Resources
- 3-5-ETS1-2: Renewable vs. Nonrenewable Resources
- 3-5-ETS1-3: Renewable vs. Nonrenewable Resources
MS Earth Science
- MS-ESS1-1: Earth-Sun-Moon System
- MS-ESS1-2: Gravity and Motions in Space
- MS-ESS1-3: Scale Properties in the Solar System
- MS-ESS1-4: Geologic Time Scale
- MS-ESS2-1: Cycling of Earth's Materials
- MS-ESS2-2: Geoscience Processes at Varying Scales
- MS-ESS2-3: Evidence of Plate Tectonics
- MS-ESS2-4: Cycling of Water Through Earth's Systems
- MS-ESS2-5: Interacting Air Masses and Weather
- MS-ESS2-6: Atmospheric and Oceanic Circulation
- MS-ESS3-1: Uneven Distribution of Earth's Resources
- MS-ESS3-2: Natural Hazards
- MS-ESS3-3: Human Impact on the Environment
- MS-ESS3-4: Human Consumption of Natural Resources
- MS-ESS3-5: Causes of Global Warming
MS Physical Science
- MS-PS1-1: Atomic Composition Model
- MS-PS1-2: Chemical Properties and Reactions
- MS-PS1-3: Synthetic Materials
- MS-PS1-4: Thermal Energy and Particle Motion
- MS-PS1-5: Conservation of Atoms in Reactions
- MS-PS1-6: Thermal Energy Design Project
- MS-PS2-1: Collision Design Solution
- MS-PS2-2: Forces, Mass and the Motion of an Object
- MS-PS2-3: Electric and Magnetic Forces
- MS-PS2-4: Gravitational Interactions
- MS-PS2-5: Electric, Magnetic, and Gravitational Fields
- MS-PS3-1: Kinetic Energy of an Object
- MS-PS3-2: Potential Energy of the System
- MS-PS3-3: Thermal Energy Transfer Solution
- MS-PS3-4: Thermal Energy Transfer
- MS-PS3-5: Energy Transfer to or from an Object
- MS-PS4-1: Wave Properties
- MS-PS4-2: Wave Reflection, Absorption, and Transmission
- MS-PS4-3: Digitized Wave Signals
MS Life Science
- MS-LS1-1: Cell Theory
- MS-LS1-2: Cell Parts and Function
- MS-LS1-3: Interacting Body Systems
- MS-LS1-4: Animal Behaviors and Plant Structures - Reproductive Success
- MS-LS1-5: Environmental and Genetic Growth Factors
- MS-LS1-6: Photosynthesis - Matter Cycling and Energy Flow
- MS-LS1-7: Food and Chemical Reactions
- MS-LS1-8: Information Processing
- MS-LS2-1: Effects of Resource Availability
- MS-LS2-2: Interdependent Relationships in Ecosystems
- MS-LS2-3: Matter Cycling and Energy Flow in Ecosystems
- MS-LS2-4: Ecosystem Interactions and Dynamics
- MS-LS2-5: Biodiversity and Ecosystem Services Solutions
- MS-LS3-1: Mutations - Harmful, Beneficial or Neutral
- MS-LS3-2: Asexual and Sexual Reproduction
- MS-LS4-1: Fossil Evidence of Common Ancestry and Diversity
- MS-LS4-2: Anatomical Evidence of Evolutionary Relationships
- MS-LS4-3: Embryological Evidence of Common Ancestry
- MS-LS4-4: Natural Selection
- MS-LS4-5: Artificial Selection
- MS-LS4-6: Adaptation of Populations over Time
MS Engineering and Technology
- MS-ETS1-1.Engineering Design
- MS-ETS1-2.Engineering Design
- MS-ETS1-3.Engineering Design
- MS-ETS1-4.Engineering Design
HS Life Science
- HS-LS1-1: Genes, Proteins, and Tissues
- HS-LS1-2: Interacting Body Systems
- HS-LS1-3: Feedback Mechanisms and Homeostasis
- HS-LS1-4: Cellular Division and Differentiation
- HS-LS1-5: Photosynthesis and Energy Transformation
- HS-LS1-6: Formation of Carbon-Based Molecules
- HS-LS1-7: Cellular Respiration and Energy Transfer
- HS-LS2-1: Carrying Capacity of Ecosystems
- HS-LS2-2: Biodiversity and Populations in Ecosystems
- HS-LS2-3: Aerobic and Anaerobic Cycling of Matter
- HS-LS2-4: Biomass and Trophic Levels
- HS-LS2-5: Cycling of Carbon in Ecosystems
- HS-LS2-6: Ecosystem
- Dynamics, Functioning, and Resilience
- HS-LS2-7: Human Impact Reduction Solution
- HS-LS2-8: Social Interactions and Group Behavior
- HS-LS3-1: Chromosomal Inheritance
- HS-LS3-2: Inheritable Genetic Variation
- HS-LS3-3: Variation and Distribution of Traits
- HS-LS4-1: Evidence of Common Ancestry and Diversity
- HS-LS4-2: Four Factors of Natural Selection
- HS-LS4-3: Adaptation of Populations
- HS-LS4-4: Natural Selection Leads to Adaptation
- HS-LS4-5: Environmental Change - Speciation and Extinction
- HS-LS4-6: Human Impact on Biodiversity Solution
HS Earth Science
- HS-ESS1-1: Nuclear Fusion and the Sun's Energy
- HS-ESS1-2: The Big Bang Theory
- HS-ESS1-3: Stellar Nucleosynthesis
- HS-ESS1-4: Orbital Motions
- HS-ESS1-5: Evidence of Plate Tectonics
- HS-ESS1-6: Evidence of the Earth's History
- HS-ESS2-1: The Creation of Landforms
- HS-ESS2-2: Feedback in Earth's Systems
- HS-ESS2-3: Cycling of Matter in the Earth's Interior
- HS-ESS2-4: Energy Variation and Climate Change
- HS-ESS2-5: Interactions of the Hydrologic and Rock Cycles
- HS-ESS2-6: Carbon Cycling in Earth's Systems
- HS-ESS2-7: Coevolution of Life and Earth's Systems
- HS-ESS3-1: Global Impacts on Human Activity
- HS-ESS3-2: Cost-Benefit Ratio Design Solutions
- HS-ESS3-3: Biodiversity, Natural Resources, and Human Sustainability
- HS-ESS3-4: Reducing Human Impact Design Solutions
- HS-ESS3-5: Climate Change and Future Impacts
- HS-ESS3-6: Human Impacts on Earth Systems
HS Physical Science
- HS-PS1-1: Valence Electrons and Properties of Elements
- HS-PS1-2: Simple Chemical Reactions
- HS-PS1-3: Electrical Forces and Bulk Scale Structure
- HS-PS1-4: Total Bond Energy Change in Chemical Reactions
- HS-PS1-5: Collision Theory and Rates of Reaction
- HS-PS1-6: Increased Products Design Solution
- HS-PS1-7: Conservation of Atoms in Chemical Reactions
- HS-PS1-8: Fission, Fusion, and Radioactive Decay
- HS-PS2-1: Newton's Second Law of Motion
- HS-PS2-2: Conservation of Momentum
- HS-PS2-3: Reducing Force in Collisions Device
- HS-PS2-4: Gravitational and Electrostatic Forces Between Objects
- HS-PS2-5: Electric Current and Magnetic Fields
- HS-PS2-6: Molecular-Level Structure of Designed Materials
- HS-PS3-1: Energy Change in Components of a System
- HS-PS3-2: Macroscopic Energy Due to Particle Position and Motion
- HS-PS3-3: Energy Conversion Device Design
- HS-PS3-4: The Second Law of Thermodynamics
- HS-PS3-5: Energy Change Due to Interacting Fields
- HS-PS4-1: Wave Properties in Various Media
- HS-PS4-2: Digital Transmission and Storage of Information
- HS-PS4-3: Wave-Particle Duality of Electromagnetic Radiation
- HS-PS4-4: Absorption of Electromagnetic Radiation
- HS-PS4-5: Waves and Information Technology
HS-Engineering and Technology
- HS-ETS1-1:Engineering Design
- HS-ETS1-2.Engineering Design
- HS-ETS1-3.Engineering Design
- HS-ETS1-4.Engineering Design
EVIDENCE STATEMENT
An evidence statement is a detailed description of what students should know and be able to do in order to demonstrate mastery of a particular performance expectation, as defined by the Next Generation Science Standards (NGSS). Evidence statements outline the specific criteria for success and the types of assessments that could be used to measure student understanding and proficiency.
Each performance expectation in the NGSS is accompanied by a set of evidence statements that describe the key ideas, concepts, and skills that students should develop in order to meet the expectations. Evidence statements are designed to guide the development of assessments that align with the NGSS and to provide teachers with a clear understanding of what students need to learn in order to be successful.
Assessments based on evidence statements might include tasks such as experiments, investigations, modeling activities, or written responses to open-ended questions. These assessments are designed to provide teachers with information about how well students understand the concepts and skills outlined in the performance expectations, and to guide instruction and curriculum development.
Overall, evidence statements play an important role in helping to ensure that students are prepared to succeed in college and careers by providing clear learning targets and standards for science education.
DCI
DCI stands for Disciplinary Core Ideas. These are the key ideas in each scientific discipline that have broad importance within and across multiple science or engineering fields. In the NGSS, there are four domains of DCIs:
- Physical Science
- Life Science
- Earth and Space Science
- Engineering.
SEP
SEP stands for Science and Engineering Practices. These are the skills and abilities that scientists and engineers use to investigate and solve problems. There are eight SEPs in the NGSS:
- Asking Questions and Defining Problems
- Developing and Using Models
- Planning and Carrying Out Investigations
- Analyzing and Interpreting Data
- Using Mathematics and Computational Thinking
- Constructing Explanations and Designing Solutions
- Engaging in Argument from Evidence
- Obtaining, Evaluating, and Communicating Information.
PHENOMENA
Phenomena refers to observable events or occurrences that can be studied scientifically. In the NGSS, phenomena are used as a way to engage students in science and engineering practices and to provide context for learning DCIs and CCCs. Phenomena can range from
- everyday occurrences
- changes in the weather
- behavior of subatomic particles.
CCC
These are ideas that span across all science and engineering fields, and are used to help students understand the connections between different areas of science. There are seven CCCs in the NGSS:
*Next Generation Science Standards is a registered trademark of Achieve. Neither Achieve nor the lead states and partners that developed the Next Generation Science Standards were involved in the production of this product, and do not endorse it. Visit the official NGSS website.