Fundamental principles of force, motion, and energy across classical and modern contexts. Examines matter properties, wave behavior, thermodynamics, and electromagnetism through mechanics and atomic studies.
A collection of kid-friendly science standards and "I Can" statements covering physical, earth, and life sciences for upper elementary students.
A comprehensive 5E lesson exploring electromagnetic induction through the construction of motors and generators, modeling field interactions, and analyzing real-world applications like transformers.
Final unit evaluation and reflection. Students complete a formative quiz and a summative assessment covering electricity and circuits, ending with a final reflection on the anchoring phenomenon.
A collaborative synthesis of the unit's concepts. Students engage in a Socratic seminar regarding motor design and grid readiness, followed by a competitive game board review of all power generation principles.
A quantitative exploration of electromagnetic force (EMF) and motor power. Students master the mathematical modeling of generators and motors before applying their knowledge to a CER argument on optimizing motor performance.
A deep dive into the mechanisms of induction and generators. Students use Cornell notes to process technical readings and rotate through stations exploring AC/DC generators, transformers, and induction devices.
An introduction to power generation through the lens of hydroelectric dams. Students engage with the anchoring phenomenon and begin a guided inquiry lab building a DC motor to explore energy transmission.
An engaging, hands-on lesson where students explore the physical properties of matter through a structured anchor chart, an interactive notebook foldable, and a real-world scavenger hunt.
A deep dive into the behavior of charged particles in magnetic fields, focusing on the mechanics of mass spectrometry and the rotational dynamics of current-carrying loops. Students will derive key equations for particle paths and analyze the torque that drives electric motors.
An in-depth exploration of electromagnetism focusing on the relationship between electric currents and magnetic fields, featuring the Biot-Savart Law, Ampere's Law, and the Lorentz Force.
A comprehensive lesson on the nature of magnetic fields, focusing on their vector properties, dipole sources, and the implications of Gauss's Law for magnetism. Students will explore how fields are represented and why magnetic monopoles do not exist.
A comprehensive introduction to magnetic fields, Gauss's Law for magnetism, and the properties of magnetic materials tailored for AP Physics C students. Includes conceptual readings on magnetic dipoles, material classification, and the mathematical foundations of magnetic forces.
A fundamental exploration of Kirchhoff's Circuit Laws through the lens of conservation principles. Students master the Junction and Loop Rules using clear conventions and visual mapping techniques based on the "Teach Me" physics series.
A hands-on exploration of physical properties where students investigate, create, and separate mixtures and solutions. Students will participate in whole-group demonstrations and small-group lab stations to master TEKS 4.5(B).
In this 60-minute lab-focused lesson, students explore the Ampullae of Lorenzini, the specialized electroreceptors that allow sharks to detect the tiny electrical pulses produced by living prey. through hands-on simulation, students will understand how sharks 'see' with electricity even when their other senses are blocked.
An introductory exploration of series and parallel circuit configurations. Students use guided notes and "route-tracing" activities to understand how components affect total resistance, current flow, and potential difference across different network types.
A self-directed troubleshooting activity where students act as "circuit doctors" to diagnose and repair faulty electrical networks. This lesson applies Kirchhoff's laws and Ohm's Law to identify logical errors in circuit schematics and predict real-world consequences.
A dedicated lesson on Kirchhoff’s Junction Rule (KCL), focusing on the conservation of electric charge. Students explore the "water pipe" analogy, identify nodes in complex circuits, and solve for unknown currents using algebraic sum principles.
A focused instructional deep-dive into Kirchhoff’s Voltage Law (KVL), emphasizing the conservation of energy within a circuit loop. Students progress from conceptual reading to scaffolded mathematical problem-solving through chunked practice.
A comprehensive 5-day instructional cycle exploring voltage, current, resistance, and complex circuits using Ohm's Law and Kirchhoff's Rules. Students engage in hands-on station labs, modeling activities, and CER analysis to understand energy conversion in circuits.
Fifth-grade maestros perform advanced testing on conductivity, solubility, and mass to restore power to a science lab. Comprehensive STAAR review and engineering design.
5th Grade students optimize their designs for efficiency, calculating load-to-weight ratios and managing material constraints. Focus on TEKS 5.11(A) and 5.13(A).
4th Grade students design structures to resist external forces like wind and gravity, applying their understanding of structural integrity. Focus on TEKS 4.11(A) and 4.13(B).
3rd Grade students investigate the strength of triangles and vertical stability to build the tallest tower possible. Focus on TEKS 3.11(A) and 3.13(B).
2nd Grade students apply knowledge of shapes to design a bridge that spans a gap, exploring concepts of pushes, pulls, and load distribution. Focus on TEKS 2.11(B) and 2.13(A).
1st Grade students explore how changing the shape of a material (paper) affects its physical properties and ability to support weight. Focus on TEKS 1.6(A) and 1.11(B).
Explores the dynamics of rotation, comparing linear force to torque, applying Newton's Second Law in angular form, and mastering the conditions for static equilibrium.
A comprehensive look at the parallels between linear and angular motion, focusing on variable relationships, kinematic equations, and real-world rolling applications.
A hands-on engineering lesson for 1st graders focused on the strength of triangles. Students explore why triangles are used in bridges and buildings through a 'squish test,' a video, and a local shape hunt.
Students will discover the power of triangles and pyramids in engineering, identifying stable shapes in famous buildings and their own environment through a 'Shape Detective' activity and a hands-on construction challenge.
Students explore the vital role of symmetry in engineering and design by watching a musical guide to 'Symmetry Land' and then building their own symmetrical amusement park rides. They will identify lines of symmetry in real-world objects and apply these concepts to ensure the 'safety' and balance of their own creations.
Application of lattice geometry to wave physics, deriving Bragg's Law and analyzing how X-ray diffraction patterns reveal the underlying symmetry and spacing of atomic planes.
Exploration of the Fourier transform of the real-space lattice into reciprocal space. Students learn the geometric derivation of reciprocal vectors and the significance of the Brillouin zone.
Introduction to the Miller Index notation for identifying planes and directions within a crystal. Students bridge the gap between 3D visual geometry and formal vector notation.
A quantitative analysis of how spheres pack in three dimensions, focusing on FCC, BCC, and HCP structures. Students calculate packing fractions and explore the geometric constraints of interstitial voids.
Students define and classify the 14 Bravais lattices and 7 crystal systems based on symmetry operations and unit cell parameters. The lesson focuses on 3D spatial visualization and the fundamental translation vectors that define a crystal.
Students apply geometric classification to predict allowed and forbidden transitions in spectroscopy using character tables and symmetry integrals.
Moving to continuous geometry, students explore the link between spatial translation/rotation and momentum/angular momentum conservation using Lagrangian mechanics.
Students translate geometric operations into linear algebra, creating transformation matrices for rotations and reflections and bridging visual understanding with computational formalism.
Focusing on molecular geometry, students learn to classify 3D structures into specific point groups using Schoenflies notation through systematic flow-chart analysis.
Students define symmetry elements (planes, axes, centers of inversion) and perform operations on various 2D polygons and 3D polyhedra, establishing the mathematical criteria for a group.
A comprehensive lesson exploring how light and sound function as signals in our community, how they are produced through vibrations and sources, and the unique properties of shadows and volume.
A culminating session of light-based games and challenges designed to reinforce concepts of illumination and shadow in a fun, active format.
Students apply their knowledge of shadows to create shadow puppets and perform short group stories using light as a medium.
An exploration of shadow formation where students use flashlights to manipulate the size and shape of shadows by moving light sources.
Students explore the concept of illumination using glowsticks to discover how light makes the invisible visible in a dark classroom environment.
An introductory exploration of the physics of sound and light through vocabulary reinforcement and visual aids.
A comprehensive end-of-unit assessment and review lesson for the Infinite Frontier sequence. Includes a multi-topic test and a unit glossary.
A lesson on the fundamental force of gravity, explaining its role as a downward force on Earth and the invisible "glue" that keeps the planets in orbit around the Sun.
A lesson exploring why the night sky appears to change throughout the night and across different seasons due to Earth's rotation and revolution.
A lesson on constellations, explaining how stars form patterns used for navigation and how the view of the sky changes between the Northern and Southern Hemispheres.
A lesson on the life cycle of stars, exploring how they are born in nebulae, grow, and eventually change brightness as they age or die.
A lesson exploring why some stars look brighter than others, focusing on the difference between apparent and absolute brightness and the role of distance.
A lesson on solar and lunar eclipses, exploring how the alignment of the Sun, Earth, and Moon creates dramatic shadows in space.
A lesson exploring the eight phases of the Moon, why the Moon seems to change shape, and the 29.5-day lunar cycle.
A lesson on Earth's revolution, exploring the path Earth takes around the sun and how its tilted axis leads to the change of seasons.
A lesson on Earth's rotation, focusing on the concept of an axis and how spinning creates the cycle of day and night.
A lesson exploring the history and future of human space exploration. From the Apollo moon landings to living on the International Space Station and planning the first human missions to Mars.
A lesson exploring how we use technology like rovers, probes, satellites, and telescopes to study space. Highlights famous missions like Mars Rovers and the James Webb Space Telescope.
A lesson exploring the hierarchy of space, from our solar system to the Milky Way galaxy and the vast universe beyond. Focuses on relative scale and the concept of galaxies.
A "Hi-Lo" lesson on the solar system for 6th graders reading at a 3rd-grade level. It explores planetary characteristics, the role of gravity, and scale through accessible text and high-interest visuals.
A comprehensive lesson exploring the physics of sound resonance in open and closed pipes, focusing on harmonics, wave patterns, and mathematical relationships.
Fifth graders explore light properties (reflection and refraction) and demonstrate complex energy transformations within electrical systems.
Fourth graders investigate electrical energy, constructing closed paths to power lights and testing materials for conductivity. Includes STAAR-aligned energy transfer activities.
Third graders identify and classify different forms of energy (light, sound, thermal, mechanical) and build a balloon-powered vehicle to explore mechanical motion.
Students explore how sound is created through vibrations and design a communication device to solve a real-world distance challenge. Grades 1-2 focused.
Resources to help 3rd-grade students reflect on their scientific discoveries at the Springfield Science Museum, covering the observatory, light and sound lab, and animal programs.
Explores Pythagoras' discovery of the mathematical foundations of music and how he extended this 'harmonic logic' to explain the order of the universe and the 'Music of the Spheres'.
Investigates the "Longitude Problem" and the scientific race to build the first accurate marine chronometers, focusing on the physics of oscillation, friction, and the relationship between time and space.
A 15-25 minute exploration into how ancient navigators used fixed points (the North Star) and the repeating patterns of the universe (microcosms, macrocosms, and symmetry) to navigate without modern technology.
An introduction to how things move using pushes and pulls, and a look at simple machines like wheels and levers, designed with high visual support.
A foundational introduction to major internal organs (heart, lungs, stomach, and brain) and their basic functions, using highly visual and structured formats.
A foundational lesson exploring the five senses (sight, sound, smell, taste, and touch) through highly visual and interactive materials.
A visual lesson exploring what plants need to grow and identifying their basic parts, designed for students with autism.
A foundational science lesson designed for a freshman student with autism, introducing key concepts in space, weather, and animal habitats through highly visual and structured activities.
A comprehensive review of wave mechanics, thermal convection, and nuclear physics using Earth's interior as a conceptual model for mid-term preparation.
A comprehensive lesson exploring noise pollution, its measurement in decibels, and its diverse impacts on ecosystems, urban policy, and schools.
A hands-on investigation into the science of sound, where 3rd graders explore vibrations, how sound travels through different materials, and the mechanics of hearing through interactive experiments and instrument building.
A lesson focusing on the states of matter (solid, liquid, gas) and the behavior of particles at the molecular level. Students will model particle motion and arrangement, as well as the energy changes that drive phase transitions.
An exploration of Indigenous Canadian architecture through the lens of structural engineering, focusing on how different cultures adapted their shelters to local climates and available materials while managing forces like wind, snow, and gravity.
Students design and build a STEM leprechaun trap inspired by 'How to Catch a Leprechaun', focusing on multi-step directions and problem-solving through the engineering design process.
Fourth-grade detectives classify matter using temperature, magnetism, and relative density to solve a water filtration mystery. Includes STAAR-aligned assessment questions.
Third-grade pilots test mass, magnetism, and buoyancy to recover sunken treasure. Explores the properties of solids, liquids, and gases including shape and volume.
Second-grade engineers investigate texture, flexibility, and physical states of matter to design components for an astronaut's spacesuit. Distinguishes between solids and liquids.
First-grade agents classify objects by size, weight, and multiple observable attributes to help a superhero organize their gadget bag. Focuses on heavier vs. lighter and larger vs. smaller.
Kindergarten students explore physical properties like shape, color, texture, and material to help a broken toy factory sort its inventory. Includes hands-on sorting and sensory exploration.
Masters Insulation and Convection. Students engineer 'Arctic Armor' to stop heat transfer and visualize 'Convection Currents' in liquids to understand energy flow.
Focuses on Radiation and Conduction. Students build Solar Ovens to harness radiation and conduct the 'Spoon Showdown' to test how different materials transfer heat via conduction.
Explores phase changes in water (solid, liquid, gas). Students solve the "Desert Water Trap" using 'Ice Island Rescue' and 'Cloud Catcher' activities to master evaporation and condensation.
Investigates how physical properties change through melting, freezing, and sanding. Students explore the "Sanding Lab" and "Chocolate Foundry" to see how energy changes materials.
Focuses on identifying changes caused by heating and cooling, specifically distinguishing between reversible (melting wax) and irreversible (baking/cooking) changes. Includes 'Crayon Sculptors' and 'Pancake Puzzle'.
Targets TEKS 4.6B/C and 5.6B/C, engaging older students in the science of mixtures and solutions. Students investigate the conservation of mass and the physical properties of substances through activities like 'The Vanishing Gram' and 'Separation Challenge', complete with STAAR-aligned review questions.
Focuses on TEKS 1.6C, 2.6C, and 3.6D, introducing younger students to systems, parts, and material properties through building and reassembling challenges. Activities include 'The Toy Hospital' and 'The Sky High Tower' to explore how materials combine to form functional objects.
Fifth-grade students explore energy flow and conservation of matter by building wind turbine blades and sorting mixtures of recyclable materials.
Fourth-grade students analyze systems and stability by designing water filtration devices and flood defense systems for the city.
Third-grade students model systems and energy flow by creating habitats for pollinators and using solar energy to heat a habitat.
Second-grade students investigate cause-and-effect and measurement by building thermal insulators and protective packaging for fragile items.
First-grade students explore patterns and structure-function relationships by designing shade structures and bridges for their local park.
Applying knowledge of surface tension to create the strongest bubble solution and engineer giant bubble wands.
Investigating factors like temperature and solutes (salt) on surface tension by attempting to float heavy objects.
Visualizing surface tension disruption through colorful experiments like Magic Milk and Pepper Panic.
Exploring how surfactants like dish soap disrupt surface tension to create motion. Students build and race soap-powered boats.
An introduction to surface tension using the classic penny drop experiment. Students learn about cohesion and the 'skin' of water.
A comprehensive assessment for Grade 5 students covering physical and chemical properties, changes of state, and the characteristics of mixtures and solutions.
A high-energy, activity-dense lesson focused on Dalton's Law of Partial Pressures, mole fractions, and collecting gas over water, utilizing the POGIL framework to transition from conceptual modeling to mathematical mastery.
A hands-on exploration of thermal energy transfer through convection and freezing point depression experiments. Students observe how density and temperature interact in water and how salt affects the melting process of ice.
A culminating review session using station rotations, vocabulary card sorts, and the anchoring phenomenon to prepare for assessment.
Students develop, share, and evaluate visual models of the Combined Gas Law using a peer review rubric based on Kinetic Molecular Theory.
Students synthesize their understanding of pressure, volume, and temperature into the Combined Gas Law and apply Gay-Lussac's Law to pressure cooker scenarios.
Students explore how temperature affects gas volume (Charles's Law) and investigate the concept of absolute zero through data analysis.
Students investigate the inverse relationship between pressure and volume (Boyle's Law) through a syringe-and-mass inquiry lab.
Young hydrologists investigate the physical properties of local and global water bodies, comparing clarity, color, and salinity.
Fifth-grade experts investigate the complex interactions between the Sun and the ocean, discovering how ocean heat fuels weather patterns and tracking hurricanes as 'heat engines'.
Fourth-grade scientists explore the continuous movement of water through the water cycle, identifying the Sun as the primary energy source for evaporation and modeling condensation.
Senior hydrologists dive into the global water cycle, focusing on the Sun's role as an energy source and the massive influence of the ocean on weather patterns.
Exploration of convection currents in fluids and a final comparison of all three heat transfer methods. Includes a teacher-led demonstration of convection in water and a summary activity.
Introduction to thermal energy and the mechanisms of conduction and radiation. Includes a teacher-led demonstration of heat traveling through solids and radiant energy from a light source.
A hands-on exploration of surface tension using paperclips and water. Students challenge the law of gravity by making metal float and then investigate what breaks the 'skin' of water.
This lesson prepares 8th-grade students for the Massachusetts MCAS Science exam, focusing on physical science, chemistry, and technology/engineering through model-based reasoning and experimental design analysis.
A comprehensive substitute teacher guide for March 12, 2026, including specific science worksheets for Physics and Chemistry periods.
Focuses on the role of plants and animals in cycling water through ecosystems, specifically looking at transpiration and animal respiration/waste.
A complete day of beach-themed learning activities including multi-subject integration and a hands-on science lab.
A comprehensive slide deck providing a high-level overview of major science disciplines and their sub-topics, tailored for middle school students.
A comprehensive lesson exploring solar system organization, planet properties, and the celestial interactions between the sun, Earth, and moon through modeling and data analysis.
Students learn to distinguish between light sources and reflections and understand the basic path light takes from a source to the eye.
A comprehensive lesson exploring why Australia receives high levels of UV radiation, focusing on ozone depletion and the interaction between light and matter. Students analyze data, practice constructing scientific explanations, and explore the biological impact of UV light.
A comprehensive study guide and practice resource covering the properties of light waves, their interactions with matter, and the transfer of energy, based on middle school science standards.
A comprehensive exploration of angular momentum, torque relationships, and conservation principles for AP Physics 1 students.
A hands-on engineering challenge where students apply physics concepts like gravity, acceleration, and impact force to design and build a protective casing for an egg drop.
Une exploration approfondie de la mécanique classique, couvrant les ressorts, les mouvements circulaires, les oscillations et la conservation de l'énergie à travers des exercices de synthèse.
This lesson explores advanced rotational dynamics, focusing on the application of Newton's Second Law for rotation to massive pulleys and rolling objects where static friction provides the necessary torque for rolling without slipping.
This lesson compares linear and rotational motion through a case study of a high-tech amusement park ride. Students explore the analogies between force and torque, mass and inertia, and work/power/conservation laws in both systems.
This lesson compares linear and angular motion through a multi-part reading assignment, including an informational article, a textbook excerpt, and a case study. Students will identify key formulas and physical principles.
A comprehensive laboratory experience exploring the relationship between force, time, and change in momentum through simulated crash scenarios.
A foundational introduction to momentum, impulse, and the Impulse-Momentum Theorem, exploring how forces acting over time change an object's motion through real-world examples like sports and safety features.
An advanced exploration of linear momentum, impulse, and the conservation laws governing isolated systems, designed for AP Physics students.
This lesson connects Kepler's Second Law of planetary motion to the conservation of angular momentum. Students will watch a video on equal areas, derive the relationship between orbital radius and velocity, and use geometric approximations to prove that constant angular momentum results in equal areas being swept out in equal times.
Students explore the Giant Impact Hypothesis to understand how the Moon formed from a massive collision billions of years ago. The lesson features a video-based investigation followed by the creation of a scientific comic strip illustrating the Moon's birth.
A hands-on engineering lesson where 2nd-grade students explore the concept of multiple solutions to a single problem. By watching the Mars rovers' landing systems and building their own egg landers, students learn how engineers design, test, and adapt technology to meet specific constraints.
An introductory physics lesson exploring the Heisenberg Uncertainty Principle and quantization through real-world analogies, peer-teaching, and visual modeling.
Students explore the fundamental force of gravity, investigating how the Sun's mass keeps planets in orbit and how Jupiter's massive gravity protects the inner solar system from cosmic debris.
A high-impact 7th-grade science lesson where students analyze energy transfer and conservation through a video study of collisions and a hands-on 'Egg Crash Cars' engineering challenge.
A 9th-grade physical science lesson focused on visualizing inelastic collisions through 'Before and After' diagrams and applying the conservation of momentum equation to sports-themed scenarios.
A high school physics lesson focused on deriving the inelastic collision formula from the conservation of momentum law, featuring a hockey-themed calculation challenge and video analysis.
A high school physics lesson on inelastic collisions where students apply the law of conservation of momentum to solve real-world crash scenarios. Students will derive the inelastic collision equation, watch a guided problem-solving video, and perform a forensic 'Crash Scene Investigation' to determine if drivers were speeding.
This lesson focuses on understanding and applying significant figure rules within the context of physics problems, specifically using inelastic collisions as a real-world application. Students will explore why measurement precision matters and how to communicate that precision through proper rounding in calculations.
An introductory lesson on Carbon-14 dating for 9th-grade science, covering isotopes, radioactive decay, and calculating the age of organic remains.
A journey into the intersection of Ancient Greek geometry and astronomy. Students explore how the Greeks used 'perfect' shapes to accurately calculate Earth's size and shape, while also examining how that same quest for perfection delayed our understanding of planetary orbits.
An exploration of gravity as the fundamental force that 'sculpts' the universe. Covers orbits as 'falling and missing', gravity as the engine of stellar fusion, and how it interacts with mass and distance to shape everything from tides to galaxies.
A comprehensive exploration of our solar system, covering Earth-Moon-Sun interactions, planetary characteristics, the reclassification of Pluto, and the mysteries of the outer reaches. Designed with a 'Space Explorer Field Manual' aesthetic for middle school learners.
Students analyze the radioactive element composition of rocks from Afar, conduct a simulation lab to discover half-life patterns, and apply an exponential decay model to determine the age of rock samples.
Students investigate radioactive decay in rocks from Afar to determine their age, using mathematical modeling and simulations to reconstruct the region's geologic history.
A deep dive into the subatomic origins of plate tectonics, tracing the journey from unstable nuclei to the massive convection currents that move continents.
A 40-minute exploration into how radioactive decay in Earth's core provides the thermal energy necessary to change mantle density, creating the buoyancy shifts that drive convection currents.
A lesson exploring how radioactive decay in Earth's mantle generates heat, driving the convection currents that move tectonic plates. Students will trace the energy path from atomic nuclei to the movement of continents.
A cross-curricular lesson connecting the historical context of the Manhattan Project with the physics and chemistry of nuclear fission, focusing on the design differences between the 'Little Boy' and 'Fat Man' bombs.
This lesson explores the complex debate surrounding nuclear energy as a sustainable alternative to fossil fuels. Students will analyze historical accidents and benefits through a video, followed by a Town Hall role-play to evaluate economic, environmental, and safety perspectives.
A middle school science lesson tracing energy from its primary source, the sun, through various biological and industrial processes to everyday use. Students explore historical and modern energy technologies, create 'Sun Chains' for different fuels, and identify the rare exceptions to solar-derived energy.
A high-school level ethics and science lesson exploring the 'dual-use' nature of nuclear technology, challenging students to develop policies that balance energy needs with global security.
A comprehensive lesson exploring how massive stars recycle their material to form new generations of stars and the heavy elements that make up our bodies. Includes a visual presentation with embedded video, collaborative discussion cards, and a reflection journal for student writing.
Students will explore the process of nuclear fusion in stars through a kinesthetic role-play activity, video analysis, and diagramming. This lesson focuses on the relationship between gravity, heat, and the fusion of hydrogen into helium.
A 4th-grade science lesson exploring the composition of stars and the process of nuclear fusion through a hands-on marshmallow modeling activity and a Crash Course Kids video.
Students explore the impact of diverse historical physicists by researching their discoveries and connecting them to modern-day technology through a creative trading card activity.
A 3rd-grade science lesson exploring energy sources for Mars rovers, focusing on the trade-offs between solar and nuclear power in the harsh Martian environment. Students will analyze constraints like dust storms and design engineering solutions for maintenance.
A high-energy lesson exploring the fundamental difference between continuous and discrete systems using quantum car analogies and creative graphing. Students will learn how energy is 'quantized' at the atomic scale and visualize what a quantized life might look like.
A lesson focused on the mathematical relationship between frequency, wavelength, and the speed of light, specifically applied to radio wave transmission.
A lesson exploring the three pillars of evidence for the Big Bang Theory: Redshift, Cosmic Microwave Background radiation, and the abundance of light elements. Students act as cosmic detectives to piece together the history of our universe.
A structured 15-day review program focusing on high-frequency TEKS including Matter, Force, Earth/Space, and Life Science.
A set of hands-on materials for mastering the essential vocabulary of wave physics, including matching cards and a recording sheet.
A comprehensive look at the Lyndon B. Johnson Space Center in Houston, Texas, exploring its historical significance in the space race and the science of space flight through a fictional narrative.
A hands-on investigation using cyanotype paper to explore UV radiation and the effectiveness of various blockers, including sunscreens and physical objects. Students will practice the scientific method by designing their own variable tests and analyzing the resulting prints.
A STEM-focused exploration of how communication technology evolved from physical transport to the speed of light, featuring a speed-calculation activity and a physical timeline.
A comprehensive 9th-grade Earth Science lesson on the Earth's Energy Budget, featuring a bank account analogy, a 'poker chip' simulation activity, and a video-guided flowchart to understand radiative balance.
A hands-on science lesson for Kindergarten and 1st grade students to understand how sunscreen protects skin using a 'Sunscreen Painting' experiment and the SciShow Kids video. Students will explore the 'sponge and mirror' analogy and observe the effects of sunlight on construction paper.
A physics and geometry lesson where students act as lighting engineers to design safe streetlights using the inverse square law of light intensity. Students collaborate in a jigsaw format to master variables and solve a real-world municipal safety problem.
A 10th-grade physics lesson where students use smartphone light sensors to verify the inverse square law and explore the geometric spreading of light.
A middle school science and health lesson exploring the physics and biology of UV radiation and sunscreen effectiveness through hands-on experimentation with UV-sensitive beads.
A hands-on investigation into the discovery of infrared light, recreating William Herschel's 1800 experiment to prove that light exists beyond the visible spectrum. Students will use prisms and thermometers to detect 'invisible' heat.
A technology-focused lesson exploring the electromagnetic spectrum, specifically how infrared light functions as an invisible communication tool for modern machines like TV remotes.
A collaborative 8th-grade science lesson exploring the electromagnetic spectrum through wavelength analogies, video analysis, and a 'Spectrum Walk' project. students map the scale of non-visible light from radio waves to gamma rays.
A 6th-grade science lesson exploring the electromagnetic spectrum with a focus on ultraviolet (UV) light and the phenomenon of fluorescence. Students will conduct an investigation using black lights and highlighters to understand how non-visible light interacts with certain materials.
Students explore the concept of light-years, understanding them as units of distance rather than time, and discover why observing the night sky is essentially looking into the past. Through the 'Time Travel Telescope' activity, they calculate historical timestamps for light from distant celestial objects and map them against Earth's history.
A comprehensive lesson exploring the distinction between the Total Universe and the Observable Universe through a horizon-based simulation and the concept of light travel time. Students move from the familiar 'cosmic address' to the limits of human observation.
Reviewing the three types of heat transfer through interactive slides and a graphic organizer to connect concepts to everyday life.
A high-energy review lesson focusing on the three methods of heat transfer: conduction, convection, and radiation. Students participate in a team-based challenge to identify and explain thermal energy movement in real-world scenarios.
A comprehensive lesson exploring the three methods of heat transfer—conduction, convection, and radiation—through visual models and vocabulary-focused doodle notes.
Students identify the three types of heat transfer and explain how thermal energy moves from warmer matter to cooler matter using real-world examples.
Students apply their knowledge of heat transfer through a hands-on lab experiment involving three stations representing conduction, convection, and radiation. They will collect data and compare the efficiency and direction of heat transfer in each model.
The capstone week where students synthesize their knowledge of solar energy, wind, and water to explain regional climate variations and master the MCAS Open Response CER strategy.
Students dive into the 'Great Ocean Conveyor Belt,' analyzing how surface winds and density differences (temperature and salinity) drive oceanic circulation and transport heat around the globe.
An exploration of atmospheric pressure and the Coriolis effect, focusing on how air moves from high to low pressure to create global wind belts and how these winds influence regional weather patterns.
Students investigate how differential heating of Earth's surface by the sun creates the initial energy imbalance that drives all weather and climate, practicing CER to explain the relationship between latitude and solar intensity.
A final assessment to evaluate student understanding of thermal energy transfer, insulators, and conductors.
Applying thermal energy knowledge to complex real-world scenarios through a reading passage and interactive task cards.
A hands-on laboratory experiment where students test various materials to determine their effectiveness as insulators.
Students explore the visible light spectrum and how white light is composed of many colors.
Students classify materials as transparent, translucent, or opaque based on how much light passes through them.
Students investigate how light bends when it passes through different mediums like water or glass.
Students explore how light reflects off surfaces and how we use mirrors to change its direction.
Students discover that light energy travels in straight lines from a source until it hits an object.
A lesson exploring the Islamic contributions to the Scientific Revolution, focusing on algebra, optics, and astronomy through hands-on 'Scholar Stations'. Students connect ancient innovations to modern STEM fields.
A 2nd-grade science lesson exploring how tools like magnifying glasses and telescopes extend our sense of sight to see tiny details and distant planets.
In this 11th-grade physics lesson, students investigate dispersion and the relationship between wavelength and refraction using prisms, Snell's Law, and a focused video segment.
A high school physics lesson focused on the relationship between light speed, wavelength, and frequency, with a heavy emphasis on scientific notation and calculator proficiency. Students explore the 'cosmic speed limit' before tackling complex wave calculations and unit conversions.
An art-integrated science lesson where students observe light refraction through water and translate the optical illusion into realistic still-life drawings. Students learn the physics of light speed and the importance of drawing what they actually see rather than what they 'know' to be true.
A physical science lesson exploring the relationship between the speed of light and refraction through analogies, video observation, and kinesthetic modeling.
A hands-on investigation for 5th graders to explore how different liquids refract light using pencils and clear cups. Students will compare air, water, and vegetable oil to see how liquid density affects the 'broken pencil' illusion.
A lesson comparing the Hubble and James Webb Space Telescopes to understand how technological evolution drives scientific discovery, featuring a video-based T-chart, a comparative 'Top Trumps' style activity, and a future-focused design challenge.
A hands-on physics lesson where students investigate how water-filled beakers act as convex lenses to invert images, using ray diagrams to explain the phenomenon.
A hands-on extension lesson exploring the molecular properties of water—cohesion, adhesion, polarity, and its role as a universal solvent.
A dedicated session for verifying student grasp of Kinetic Molecular Theory before progressing to mathematical gas laws. Includes a comprehensive conceptual assessment and peer-review of molecular models.
Day 2 focuses on phase changes, specifically how energy is used to break or form attractions between particles during transitions like melting and boiling.
Day 1 focuses on the Kinetic Molecular Theory, exploring how adding or removing thermal energy changes the speed and spacing of particles in solids, liquids, and gases.
Students explore gas mixtures using Dalton's Law of Partial Pressures and investigate the concepts of diffusion and effusion. The unit concludes with a revisitation of the anchoring phenomenon and a summative assessment.
An introductory lesson on soldering copper pipes for 9th-grade plumbing students, focusing on safety, preparation, and the soldering process with accommodations for EL and 504 students.
A 7th-grade science lesson that uses the world of Helldivers 2 to explore biology, physics, and environmental science through the lens of 'Managed Democracy'.
A deep dive into commercial HVAC plans, covering ACCA symbols, equipment schedules, and complex ductwork layouts for various building types.
Cette leçon traite du moment d'une force et du couple de forces à travers l'étude du moteur, de la transmission et des organes de levage d'un tracteur.
A culminating lesson where students compare wind and solar energy using graphic organizers and analyze real-world energy output data to understand reliability and efficiency.
A lesson exploring solar energy technology, including photovoltaic and thermal systems, energy transformation from light to heat/electricity, and solar energy vocabulary.
An introductory lesson on wind energy focusing on the mechanics of turbines, energy transformations from kinetic to electrical, and the trade-offs of wind power.
An interactive exploration of Newton's Laws of Motion through hands-on experimentation with balloon-powered rockets. Students will investigate how force impacts distance and velocity.
A comprehensive 8th-grade STAAR review lesson focusing on Newton's Laws, force, motion, and energy calculations. Students will engage with lab scenarios, visual models, and practice questions aligned to Texas TEKS 8.6A, 8.6B, and 8.6C.
An informative unit for 5th graders exploring the history and physics of roller coasters, from early Russian ice slides to modern g-force engineering.
An informative unit for 5th graders exploring the growing problem of space junk, the science of orbital mechanics, and innovative solutions for cleaning up Earth's orbit.
An informative unit for 5th graders exploring the history of chocolate from ancient Mayan rituals to the modern candy industry, featuring a creative design task and a research essay.
An informative lesson for 5th graders exploring the engineering mysteries and archaeological discoveries of the Great Pyramid of Giza, featuring modern scanning technology and ancient construction theories.
A hands-on engineering lesson where students explore solid, frame, and shell structures while building stable towers using marshmallows and toothpicks. Students investigate how the center of gravity and base shape affect structural integrity.
A 4-day hands-on engineering challenge where students design and build a device that demonstrates Newton's three laws of motion using low-cost recycled materials. Students progress through research, blueprinting, prototyping, testing, and a final reflection on the physics at play.
A hands-on exploration of force using air rockets, where kindergarteners learn about pushes and how the strength of a push changes an object's motion.
Introduces shop safety protocols, material identification, and system theory for Drain, Waste, and Vent (DWV) plumbing. Students learn to navigate the stock room and understand the purpose of traps, vents, and drains.
Explores how plants and animals live together, food chains, and how they share energy in an ecosystem using simple 1st-grade level language.
Introduces energy sources like the sun, wind, and fossil fuels, and how we use them to power our world using simple language.
Introduces viruses, bacteria, and how to stay healthy using simple 1st-grade level language and high-visual support.
Introduces fossils, rock layers, and how the Earth has changed over time using simple 1st-grade level language and high-visual support.
Explores Earth's water, the water cycle, and how to keep our water clean using simple 1st-grade level language and high-visual support.
Introduces atoms, elements, compounds, the periodic table, and physical and chemical changes using 1st-grade level language and high-visual support.
An ecology-themed mystery where students analyze plant biology, photosynthesis rates, and soil chemistry to find who sabotaged the lab's carbon-offset project.
A geology-themed mystery where students analyze mineral properties like hardness, luster, and density to find out who stole a rare lunar meteor sample.
A chemistry-themed mystery where students analyze flame tests, atomic mass, and chemical reactivity to find out who stole a sample of a rare heavy metal.
A physics-themed mystery where students analyze electrical circuits, resistance, and conductivity to find out who short-circuited the lab's main power grid.
A microbiology-themed mystery where students analyze bacterial traits, Gram stains, and antibiotic resistance to find who contaminated a bio-engineered enzyme.
A fast-paced science mystery where students use 8 scientific clues to identify who sabotaged a high-stakes experiment. Students analyze pH, density, chromatography, and more to eliminate suspects.
An arts-integrated science lesson where students analyze the 'Matter Song' to write and perform their own element-themed verses.
Explores synthetic elements, resource scarcity, and the future of material science and sustainability.
A project-based lesson where students select materials for specific engineering scenarios based on Periodic Table trends.
Focuses on the unique bonding properties of carbon and the essential elements of life (CHNOPS).
An investigation into transition metals and rare earth elements used in modern electronics, specifically smartphones.
Students explore how the arrangement of atoms and the behavior of electrons lead to macroscopic properties like density, conductivity, and malleability.
A culminating project-based lesson where students build models of the first eighteen elements and participate in a gallery walk to demonstrate mastery of atomic theory.
A deep dive into the calculus-based concepts of electric potential, potential energy, and their fundamental relationship with electric fields, designed for AP Physics C students.
A comprehensive dive into capacitance for AP Physics C: E&M, covering the definition, derivations for various geometries, energy storage, and the impact of dielectrics.
Students master the technical vocabulary of electromagnetism and the power grid by creating visual "Word Wall" posters that connect abstract physics terms to concrete grid components and analogies.
Synthèse sur la gravitation, la différence entre poids et masse et évaluation finale de la séquence.
Caractérisation d'une force par un vecteur (segment fléché) : point d'application, direction, sens et valeur. Exercices d'application.
Séance de travaux pratiques en demi-groupe pour apprendre à utiliser un dynamomètre et découvrir la relation entre poids et masse.
Introduction aux interactions et modélisation par les diagrammes objet-interaction (DOI). Identification des actions de contact et à distance.
A 15-30 minute exploration of how ancient Phoenicians used the macrocosm of the stars to navigate the microcosm of their ships, featuring the root words micro/macro/cosmos and the mathematics of rotational symmetry.
Upper elementary students will master the difference between weather and climate through a statistical dice simulation and a severe weather engineering challenge.
Students in 3rd grade will engineer tools to measure wind direction and compare weather data across different locations simultaneously.
Students in 2nd grade will focus on measuring and graphing weather data by building functional rain gauges and analyzing temperature patterns.
An informative unit for 5th graders tracing the history of video games from simple arcade pixels to immersive modern worlds, with a focus on technical innovation and cultural impact.
An informative lesson for 5th graders exploring the production, themes, and 1980s cultural influences of the hit show 'Stranger Things', accompanied by a creative character design activity.
An informative lesson for 5th graders exploring the history, science, and cultural impact of LEGO bricks, accompanied by a creative blueprint activity.
A phonics-focused lesson targeting the vowel-consonant-e (V-e) syllable type, featuring one-syllable words and two-syllable words that combine closed and V-e syllables.
A phonics-focused lesson for first graders targeting the glued sounds 'an', 'am', and 'all' through a narrative story and fluency exercises.
A phonics-focused lesson for first graders targeting glued sounds (all, am, an, ang, ing, ong, ung, ank, ink, onk, unk) through a narrative story and fluency exercises.
A phonics-focused lesson for first graders targeting r-blends (pr, tr, br, cr, str, dr, fr, gr) through a narrative story and fluency-building exercises.
A phonics-focused lesson for third graders targeting common consonant digraphs (sh, ch, th, wh, ph) through a narrative adventure and fluency-building exercises.
A phonics-focused lesson for third graders targeting the long e vowel patterns ee, ea, and ey through a narrative passage and fluency-building exercises.
Students step into the role of cosmic engineers to master Newton's Law of Universal Gravitation. They will explore the inverse square law, perform complex calculations using scientific notation, and compare gravitational forces across the solar system.
A deep dive into the time-dependent behavior of RC circuits, covering the calculus of charging and discharging, the physical meaning of the time constant, and graphical analysis.
This lesson covers Kirchhoff's Junction and Loop Rules, providing students with the conceptual framework and mathematical tools to analyze complex multi-loop circuits. Students will explore conservation of charge and energy through interactive examples and practice problems.
A hands-on virtual lab using the PhET Ohm's Law simulation to investigate the relationships between voltage, current, and resistance. Students collect data, graph results, and use CER to explain their findings.
A comprehensive guide to Kirchhoff's Laws for AP Physics C, focusing on the Junction and Loop rules, conservation principles, and systematic problem-solving for multi-loop circuits.
An in-depth exploration of current electricity, resistivity, and circuit analysis using Kirchhoff's Rules, designed for the calculus-based AP Physics C curriculum.
Une évaluation complète sur l'énergie pour les élèves de 5ème, couvrant les formes, les sources, les renouvelables et les chaînes énergétiques.
A comprehensive lesson focused on the science of waste management, covering the 4 R's (Reduce, Reuse, Recycle, Recover), the waste hierarchy, and the environmental impact of consumerism. Includes a high-school level assessment and supporting instructional slides.
Students apply the Principle of Superposition to calculate the net electric potential from multiple point charges, creating 'potential maps' that visualize how multiple sources shape the energy landscape.
A high-energy, TEKS-aligned review session covering core 5th-8th grade science concepts including force/motion, energy transformations, and ecosystem dynamics through data analysis and STAAR-style practice.
Étude des mouvements sous l'influence de la gravité, incluant la chute libre verticale et les trajectoires paraboliques des projectiles.
Maîtrisez les concepts de base du mouvement circulaire uniforme (MCU), y compris la vitesse angulaire, l'accélération centripète et l'analyse des vecteurs position.
Cette leçon explore la cinématique d'un point en mouvement circulaire uniforme. Les élèves apprendront à passer des équations horaires à la trajectoire, et à dériver les vecteurs vitesse et accélération.
Cette leçon porte sur les conditions d'équilibre statique d'un corps rigide, en se concentrant sur le calcul des moments de force (torques) et des réactions aux supports. Les élèves apprendront à appliquer les lois de Newton pour résoudre des problèmes d'ingénierie structurelle simple.
An exploration of energy conservation in moving fluids, focusing on the relationship between pressure, velocity, and elevation. Includes the Venturi effect and aerodynamics applications.
An in-depth exploration of Pascal's Principle, focusing on the transmission of pressure in enclosed fluids, the mechanics of hydraulic systems, and the relationship between force, area, and work.
An investigation into the speed of fluid efflux from an opening, deriving Torricelli's Law from Bernoulli's Principle and exploring real-world applications in hydraulic systems.
A comprehensive exploration of buoyancy, displacement, and density using Archimedes' Principle. Students will calculate buoyant forces and understand why objects float or sink through the lens of naval engineering.
Une évaluation diagnostique permettant de vérifier la compréhension des bilans de forces, des projections vectorielles dans différentes bases et la résolution d'un problème complexe d'équilibre statique (système masse-ressort-fil).
Une étude de la statique du point matériel sur un plan incliné, combinant les forces de pesanteur, la réaction du support et la tension d'un ressort. Cette leçon permet de maîtriser la projection des forces et la condition d'équilibre dans un repère lié au plan.
Une analyse critique de la sécurité ferroviaire à travers un scénario d'urgence. Cette leçon aborde les phases successives de MRUV et MRU, l'importance du temps de réaction et le calcul des distances d'arrêt de sécurité.
Une application concrète de la cinématique et du calcul vectoriel à travers le parcours d'un randonneur égaré. Cette leçon permet de manipuler les projections de vecteurs, la trigonométrie et la distinction entre distance parcourue et déplacement.
Une exploration de la cinématique à vitesse constante à travers un duel iconique entre l'homme le plus rapide du monde et un cheval. Cette leçon aborde les conversions d'unités, les équations horaires de position et la résolution de systèmes linéaires pour déterminer un point de rencontre.
Une étude approfondie de la cinématique d'un tramway en milieu urbain, abordant les mouvements uniformément variés avec et sans contraintes de vitesse. Cette leçon permet d'appliquer les principes fondamentaux de la dynamique aux transports ferroviaires réels.
An AP Physics lesson focusing on the independence of horizontal and vertical motion. Students use trigonometry to resolve velocity vectors and calculate flight time and range for projectiles.
A comprehensive 60-minute lesson exploring the differences and mathematical relationships between translational and rotational kinetic energy, featuring guided reading, visual organizers, and problem-solving.
Students will learn to track energy transformations in simple harmonic motion, understanding how kinetic and potential energy exchange while maintaining a constant total energy.
A comprehensive look at simple harmonic motion, focusing on the relationship between restoring forces and displacement, Hooke's law, and real-world oscillatory systems.
A comprehensive exploration of Simple Harmonic Motion, covering restoring forces, kinematic descriptions, and the conservation of mechanical energy in oscillating systems.
A comprehensive introduction to Simple Harmonic Motion, covering restoring forces, kinematics, and energy conservation in oscillating systems.
A series of high-energy, station-based team challenges where students use common classroom objects to solve complex problems through logical reasoning and collaboration.
A lesson exploring the physics of Hooke's Law and the mechanics of ideal springs. Students investigate the relationship between force, displacement, and stored energy in elastic systems.
A lesson focused on the properties of periodic motion, including frequency, period, and phase relationships in oscillators like pendulums and tuning forks.
A deep dive into advanced harmonic motion concepts, including differential equations, energy conservation, and system variables for pendulums and springs.
A comprehensive exploration of mechanical vibrations, simple harmonic motion, and the mathematical relationships between frequency, period, and amplitude.
A comprehensive review of simple harmonic motion, covering oscillation, period, frequency, and interpreting position vs. time graphs. Includes guided notes, practice problems, and a summative quiz.
A 10th-grade physics lesson exploring the inverse relationship between wavelength and frequency using sound wave modeling, video analysis, and hands-on rope experimentation.
