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 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.
Students predict and test the rolling speeds of different geometric solids in a competitive lab environment, validating their theoretical models of rotational inertia.
Students calculate 'shape factors' for various geometric solids and analyze how these constants determine rotational acceleration and energy conservation.
Through inquiry-based exploration, students derive the fundamental differences in rotational inertia between hoops and disks, focusing on mass distribution.
Students identify and analyze axes of rotation for 3D solids, exploring how symmetry influences rotational stability and the complexity of motion.
Students use plumb lines and geometric decomposition to find the center of mass for irregular 2D shapes, relating physical balance to the geometric centroid.
Students synthesize their learning to analyze why engineering designs cannot simply be scaled up indefinitely. They review historical engineering failures caused by ignoring scaling laws.
This lesson connects scaling to fluid dynamics, examining how mass (volume) and drag (surface area) affect terminal velocity. Students calculate terminal velocities for objects of varying sizes and densities.
Applying knowledge of electricity and magnetism to build and understand series and parallel circuits.
An investigation into magnetic fields, poles, and the invisible forces that attract and repel materials.
Students explore the concept of electrical energy, understanding where it comes from and how it moves from one form to another.
A station-based review lesson where students use physical models and diagrams to explore balanced and unbalanced forces, friction, gravity, and magnetism.
A comprehensive 60-minute science lesson for 7th grade students focused on how magnetic forces affect object motion without direct contact. Students will explore magnetic fields, poles, and specific magnetic materials through hands-on investigation.
A high-school level investigation into paleomagnetism and seafloor spreading. Students analyze magnetic 'barcodes' on the ocean floor to calculate and compare spreading rates between the Atlantic and Pacific oceans.
Students explore the scientific method through magnetism, making predictions about various materials and testing them with a virtual lab and a classroom scavenger hunt.
A hands-on introductory lesson on magnetism for 1st-2nd grade students, featuring a virtual lab video, sensory warm-up, and the 'Mystery Bag' investigation. Students learn to distinguish between magnetic and non-magnetic materials with a focus on 'attraction' and iron/steel properties.
Students will explore the invisible force of magnetism through a hands-on 'Magnetic Painting' activity and a virtual sorting lab. They will learn to predict and test whether items are attracted to magnets while creating unique process art.
Students investigate the properties of magnetic and non-magnetic metals through a video analysis of a non-magnetic coin and hands-on testing of aluminum, copper, steel, and brass. The lesson culminates in a design challenge where students create a recycling machine that uses magnets to separate metals.
An introductory lesson on magnetism for K-1 students where they use 'magic' wand magnets to discover which materials are attracted to magnets and learn that not all metals are magnetic.
A hands-on STEM lesson for 3rd-5th graders exploring magnetic levitation. Students learn about magnetic repulsion, friction, and the engineering design process by building a hovering cardboard 'train'.
A hands-on investigation into balanced and unbalanced forces, magnetism, and friction, using a Maglev train as a real-world connection. Students rotate through three stations to measure and observe how different forces affect motion.
Students explore Earth's hidden defense system: the magnetic field. They discover how the spinning outer core creates a shield that protects life from solar wind, visualized through iron filing experiments and creative aurora art.
Students will investigate the fundamental nature of forces as pushes or pulls, exploring magnetic, gravitational, and electrical forces through hands-on lab stations and video analysis.
A hands-on engineering lesson where students apply knowledge of physical properties (magnetism) to design an automated recycling separation system. Students analyze a video model of magnetic separation and then scale the concept to separate steel, aluminum, and plastic.
A hands-on science lesson where students explore the physical properties of matter by creating and separating a mixture of sand and iron filings. Students will learn the difference between mixtures and solutions, model a separation technique using magnetism, and investigate the conservation of mass.
A hands-on inquiry lesson where students use the scientific method to observe how magnets separate mixtures, exploring magnetic fields and physical properties.
A hands-on science lesson where 3rd grade students explore the construction of an electromagnet through video observation, technical sequencing, and descriptive writing.
Students explore the differences between permanent magnets and electromagnets through a hands-on "magic trick" demonstration, a video investigation, and a design challenge. They will learn how an electric current creates a temporary magnetic field with a functional 'off switch.'
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 STEM-focused lesson where students explore the engineering secrets of ancient wonders, focusing on materials, erosion, and seismic stability. Students build their own structures to test against simulated earthquakes.
Students explore the migration of Polynesian people and the engineering genius behind the multi-hulled canoe. They participate in a hands-on 'Float Your Boat' challenge to compare the stability of single-hull vs. double-hull designs using common materials.
A 3rd-grade science lesson introducing the concept of matter and its properties. Students learn to distinguish between observable (qualitative) and measurable (quantitative) characteristics through hands-on sorting and video analysis.
A hands-on exploration of density using visual analogies and a liquid density column experiment. Students define density as 'matter packed into volume' and create molecular models to visualize why objects sink or float.
Students explore the 'Improve' step of the engineering process by watching a video demonstration and iterating on a 'failed' paper bridge design to make it hold more weight.
A hands-on exploration of physical properties where students use a scavenger hunt and a video to identify and group matter based on characteristics like transparency, reflectivity, and magnetism.
Students explore how the physical properties of substances inform engineering decisions by designing a lunchbox that balances insulation, rigidity, and weight.
An interactive 2nd-grade science lesson where students explore how light interacts with different materials through a 'Light Lab' hands-on experiment. Students will learn to classify objects as transparent, translucent, or opaque based on how much light they let through.
A 2nd-grade science and literacy lesson exploring how light interacts with different materials. Students use a 'Light Lab' video and visual evidence to define and apply the terms transparent, translucent, and opaque.
A hands-on 3rd-grade science lesson where students become 'Property Detectives' to identify and describe matter using scientific traits like reflectivity, transparency, and states of matter.
Students investigate the properties of reflectivity and transparency by testing various materials with flashlights, culminating in an understanding of how matter interacts with light.
A high-energy science lesson where 4th graders compare matter using physical properties. Students analyze a video comparison of wood and water before creating 'Property Showdown' posters comparing contrasting objects like spoons and cotton balls.
Students will learn the six steps of the scientific method through a historical video and a hands-on 'mystery box' challenge where they must identify hidden objects using non-invasive testing.
In this introductory physics lesson, 2nd-grade students explore the properties of magnetism through a hands-on scavenger hunt and a video demonstration of separating mixtures. They will learn to distinguish between magnetic and non-magnetic materials, focusing on the role of iron.
This lesson explores the differences between solar and lunar eclipses using Depth of Knowledge (DOK) questioning strategies to deepen student understanding of celestial mechanics.
This lesson explores the albedo effect and positive feedback loops through the lens of Arctic climate change, featuring a case study on Siberian reindeer herders. Students will diagram feedback loops and analyze how surface reflectivity influences global temperatures.
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 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.
Students explore the concept of Albedo through a hands-on lab and a 'Thought Bubble' video segment, connecting surface reflectivity to Earth's overall energy budget and climate change.
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.
In this lesson, 2nd-grade students explore the relationship between star color and temperature. They will compare the Sun (a Yellow Dwarf) to the massive, blue Rigel and the small, red Proxima Centauri, ultimately sorting stars by heat levels.
A lesson exploring what stars are made of and how they generate energy, featuring a hands-on diagramming activity and a deep dive into the Sun and other extreme stars.
Students will investigate the concepts of luminosity (true brightness) and apparent brightness by analyzing data for five real stars. Through video analysis and a hands-on data ranking activity, they will understand how both intrinsic power and distance influence how we perceive the stars in our night sky.
A 5th-grade science lesson exploring why the Sun appears brighter than distant, more powerful stars. Students use a flashlight lab to investigate the relationship between distance and apparent brightness.
Students will learn how to determine the distance of stars using the Brightness Equation and the concept of 'Standard Candles' by analyzing the relationship between luminosity, brightness, and distance.
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 physical science lesson for 8th graders exploring the inverse square law of light through a hands-on balloon activity and the 'Butter Gun' analogy.
An introductory science lesson for 1st graders to explore how shadows are formed and identify opaque objects through a 'Shadow Hunter' classroom activity.
A high school Earth Science lesson exploring how sonar technology enabled Marie Tharp and Bruce Heezen to map the ocean floor, leading to the discovery of the Mid-Atlantic Ridge and the verification of plate tectonics. Students convert raw sonar travel times into bathymetric depth data to plot their own seafloor profiles.
A hands-on introduction to sound and vibration for Kindergarteners. Students discover that sound is caused by rapid back-and-forth movements through a series of interactive demonstrations and a short video.
Students explore how sound travels from a source to the ear through a chain reaction of vibrations, using dominoes, video analysis, and a physical role-play activity.
A hands-on introductory lesson where 1st graders explore sound through their own vocal cords and rubber band 'guitars' to define and identify vibrations.
A visual science lesson for 2nd graders to understand how sound travels through air using the metaphor of water ripples and an animation-focused video. Students will create their own sound wave art to demonstrate their understanding of sources, waves, and receivers.
Students explore how mass affects pitch through a controlled experiment using glass jars and water, observing how increased mass slows vibrations to produce lower sounds.
Students explore how sound production (tapping vs. blowing) reverses the relationship between water volume and pitch using glass bottles.
A hands-on inquiry lesson exploring how the speed of vibrations (frequency) affects the pitch of a sound using rubber bands, water bottles, and kinesthetic movement.
Students explore the relationship between mass and pitch by creating a 'bottle xylophone.' They will observe how water levels affect sound vibrations and apply this knowledge to precisely tune five bottles to play a simple song.
A hands-on exploration of sound and pitch for 2nd graders, featuring a glass bottle xylophone experiment to demonstrate how mass affects vibration and frequency.
A hands-on investigation into how insects produce sound through vibration, featuring a video-led discussion and a tactile 'Wing Music' experiment using sandpaper and combs.
An interactive exploration of sound vibrations and volume where 2nd-grade students visualize sound using rice and investigate the relationship between volume and energy.
Students explore how sound is created by vibrations through a hands-on experiment using tuning forks and rubber bands, supported by a musical introduction to the senses.
A 3rd-grade science lesson where students explore how sound energy travels from a source to the ear using a kinesthetic 'human wave' model and creative comic storytelling.
An interactive 2nd-grade lesson exploring how sound is created by vibrations through body humming, instrument building, and water experiments. Students observe 'invisible' energy using rubber bands and tuning forks to connect physical motion to the sounds they hear.
A 2nd-grade science lesson exploring the relationship between vibration, size, and pitch through hands-on experiments with water bottles and rulers. Students will watch a video on sound waves and apply their knowledge to create a musical 'xylophone'.
A hands-on science lesson for 3rd graders that uses a 'dancing rice' experiment to provide visible evidence that sound is a form of energy that travels through air as waves. Students will make predictions, observe vibrations in action, and record data on how different volumes affect matter.
A fun, interactive introduction to the properties of sound—volume and pitch—using a jungle safari theme. Students will explore sounds through games, video, and a hands-on 'Sound Safari' activity.
Students explore the concept of biomimicry, evaluate how nature solves engineering challenges, and design a 'Bio-Bot' robot for extreme environments using biological traits for efficiency.
A 10-session unit covering Virginia Standards 6.6 and 6.8, beginning with a water filter engineering challenge and progressing through water chemistry and watershed systems.
A 2nd-grade science lesson exploring physical changes and mixtures through the lens of making gelatin and melting ice, introducing the concepts of dissolving, colloids, and reversible changes.
A 3rd-grade science lesson exploring the microscopic structure of colloids through the analogy of a spider web. Students build edible models using pretzels and marshmallows to visualize how solid proteins trap liquid water in gelatin.
A hands-on science lesson where 3rd-grade students explore how to separate mixtures of solids using physical properties like magnetism and size. Students engage with a video demonstration and a laboratory challenge to separate sand, salt, and paperclips.
A 5th-grade math and science lesson where students measure mixed hardware to determine the 'Threshold Size' for a sieve, applying concepts of diameter and inequalities to physical properties of matter.
A comprehensive 6th-grade science lesson on distillation, covering laboratory apparatus, phase changes, and the separation of solutions using a specific instructional video.
A comprehensive lesson exploring phase changes through the process of distillation. Students analyze evaporation and condensation by following the creative journey of a water molecule named 'Drip'.
A hands-on physical science lesson for 2nd graders exploring the process of evaporation. Students observe water 'disappearing' from paper and use salt-water solutions to create crystal art, connecting the science of phase changes to the production of maple syrup.
A hands-on chemistry lesson for 3rd graders exploring the concepts of density, solutions, and suspensions through the creation of a DIY lava lamp. Students will use kitchen science to observe how oil and water interact and how chemical reactions create movement in art.
A hands-on engineering lesson where 3rd-grade students explore mixtures and particle size by designing and building their own sieves to separate sand and pebbles.
In this hands-on lesson, students investigate how temperature affects the speed of dissolving by racing Skittles in hot and cold water. They connect their observations to the concept of particle energy and movement.
Students explore saturation and the reversibility of solutions by creating a saturated salt solution and observing evaporation. This lesson utilizes a Crash Course Kids video to ground concepts of solute, solvent, and solubility in relatable examples.
A 4th-grade science lesson exploring the differences between physical changes and chemical reactions using kitchen-themed examples like making salads and baking cakes. Students will watch an anchor video, observe demos, and classify various transformations.
A hands-on exploration of physical changes using fruit salad as a real-world model. Students use observational vocabulary to describe matter before and after transformation, concluding that physical changes alter appearance but not the identity of the substance.
Students investigate the existence of water on Mars through a hands-on 'Ice Excavation' activity, mimicking the work of Mars rovers to extract and filter water from frozen environments.
Students explore the engineering design process by testing how different 'secret ingredients' (sugar, salt, and corn syrup) affect the strength and size of soap bubbles. Through hands-on experimentation, they observe the properties of mixtures and draw conclusions about which thickeners create the most durable bubbles.
Students investigate the relationship between temperature and molecular motion by observing food coloring in hot and cold water. They take on the role of 'Thermal Scientists' to solve a real-world heating problem.
A visual, snowman-themed lesson designed for autistic elementary students to explore the three states of matter (solid, liquid, gas) through hands-on experimentation and clear visual aids.
Students explore how 'Insolation' (Incoming Solar Radiation) powers the complex interactions between Earth's spheres through a flashlight demonstration, a video analysis, and the creation of a six-panel energy journey comic strip.
Students explore Archimedes' principle and the physics of sea level rise by comparing melting sea ice and land ice through a hands-on experiment and video analysis.
Students explore the Urban Heat Island effect by investigating how different surface colors and materials (representing asphalt, grass, and cool roofs) absorb heat, using Singapore's sustainable urban design as a real-world case study.
A 2nd-grade science lesson exploring how humans and dogs use evaporation to stay cool through sweating and panting. Includes a video-guided discussion, a sorting activity, and a physical role-play of state changes.
A 1st Grade science lesson exploring how evaporation (sweating and panting) cools down humans and animals by removing heat as liquid turns into gas.
A 3rd-grade science lesson exploring how evaporation (liquid to gas phase change) transfers heat energy to cool down humans and animals.
A kinesthetic lesson where students model the movement and energy changes of water molecules through the water cycle, featuring an experiment demonstration and a 'Water Cycle Yoga' activity.
A hands-on exploration of conservation of matter where students track the mass of water as it transitions through different states using a sealed system. This lesson integrates video analysis, laboratory data collection, and creative storytelling.
A 3rd-grade lesson exploring the difference between physical changes (like tearing or squishing) and phase changes (melting, freezing, evaporation, condensation) using a hands-on station rotation and a video guide.
A 3rd-grade science lesson on the states of matter and the processes of changing between them using interactive video demonstrations and a classroom quiz competition.
A kinesthetic science lesson where students model the movement of water particles as they gain and lose energy, exploring melting, evaporation, condensation, and freezing.
A lesson for 1st-2nd grade students to explore how heat affects air density, causing hot air balloons to rise, through videos, movement, and a hands-on experiment.
Students explore the unique temperatures at which substances change states, identifying freezing, melting, and boiling points as physical properties through graphing and video analysis.
A 3rd-grade science lesson exploring reversible and irreversible changes through the lens of 'Change Detectives,' featuring a hands-on sorting activity and a scientific look at why popcorn pops.
A high-energy science lesson where 2nd graders explore how heat changes water from liquid to gas through the lens of a popping popcorn kernel. Includes a role-play activity and a diagram-based reflection.
A hands-on science lesson where students explore the physical changes of popcorn kernels. They investigate how volume expands significantly while mass (represented by the number of pieces) stays the same, using the 'SciShow Kids' video as a scientific foundation.
An active, kinesthetic lesson where students act out the stages of the water cycle to understand energy changes and the continuous movement of water on Earth.
An arts-integrated lesson where students explore the properties of light and materials (transparent, translucent, opaque) by creating and performing with their own shadow puppets.
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.
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.
A comprehensive AP Physics 1 lesson focusing on the conservation of momentum and the loss of kinetic energy in inelastic collisions. Students will use dynamic cart demonstrations, a video analysis, and a mathematical lab activity to distinguish between elastic and inelastic scenarios.
A lesson introducing 8th-grade students to momentum, exploring how mass and velocity contribute to an object's 'oomph' through a warm-up challenge, video analysis, and a card-sorting activity.
This lesson introduces students to the vector nature of momentum through a combination of video analysis and a hands-on drawing activity called 'Vector Voyage.' Students will learn to distinguish between scalar and vector quantities, focusing on how direction and magnitude define an object's momentum.
A 9th-grade introductory lesson on momentum, focusing on the proportional relationships between mass, velocity, and momentum using real-world examples and the p=mv equation.
A high school physics lesson exploring the Law of Conservation of Momentum through a pool-break video hook and hands-on marble collisions. Students will calculate momentum and predict collision outcomes.
A 9th-grade physics lesson focusing on the calculation of momentum (p=mv) and mass unit conversions, featuring a billiards-themed practice activity and a video walkthrough.
Students master 1D elastic collisions using conservation of momentum, focusing specifically on the role of direction and vector signs in head-on impacts.
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.
Students investigate the relationship between liquid density and light refraction by observing how different substances (water, oil, corn syrup) flip or distort images viewed through a round jar.
A hands-on physics lesson for 5th graders exploring refraction through video analysis and a 'flipped arrow' experiment to understand how light changes speed and bends when moving through different materials.
Students learn about solar eclipses and eye safety by building a pinhole projector to observe light indirectly.
Students explore how light reflects and refracts through lenses to understand human vision and how glasses correct sight. The lesson includes a hands-on 'Lens Lab' where students experiment with convex and concave shapes.
Students will learn to model the behavior of light using ray diagrams, covering reflection, refraction, and lenses through video analysis and hands-on drawing challenges.
This lesson explores the technical differences between Class A and Class B fire alarm circuits, focusing on wiring topology, fault tolerance, and industry standards like NFPA 72. Students will analyze diagrams and compare the reliability and cost-effectiveness of each system configuration.
A cross-curricular lesson where students blend narrative arts with physical computing. Students use microcontrollers to create tangible interfaces that trigger digital story events, bridging the gap between physical objects and digital logic.
A 3rd-grade lesson exploring why specific materials are chosen for certain objects based on their unique properties, featuring a hands-on 'What If?' discussion and a video-guided graphic organizer.
Students will explore the fundamentals of circuits, specifically identifying the differences between open and closed paths. They will design and build their own paperclip switches to control the flow of electricity.
A hands-on, kinesthetic lesson where students role-play the components of a simple circuit to understand how electricity flows through a complete path. Students use 'energy tokens' to visualize current and act out the function of a switch to demonstrate continuity.
A hands-on exploration where 5th-grade students predict and observe how adding components to a circuit affects the system's energy output, focusing on series circuits and energy sharing.
A 4th-grade lesson where students learn to translate physical circuit components into standardized schematic symbols. Students watch a video demonstration and practice drawing professional-style circuit diagrams.
A hands-on introductory lesson where 3rd-grade students explore the components of a simple circuit and collaborate to build a working model that lights a bulb.
A hands-on introductory lesson where students become 'detectives' to identify and explain the four main parts of a circuit: source, path, load, and switch.
A 4th-grade science lesson exploring energy transformations through a simple circuit experiment with batteries and fans. Students trace energy from stored chemical potential to mechanical motion.
A 4th-grade science lesson focused on the scientific method, where students use circuits to explore cause-and-effect and make data-driven predictions.
Students explore the fundamentals of fair testing and variables by analyzing a circuit experiment and designing their own investigation into wire length and fan speed.
A hands-on engineering lesson where students design and test fan blades to maximize air movement, using concepts of circuits and energy transfer.
A 6th-grade science lesson focused on energy transformations, specifically analyzing the efficiency of light bulbs and identifying waste heat as a byproduct of electrical systems. Students use real-world data to calculate energy savings and create a consumer guide for sustainable choices.
Students learn to translate visual circuit demonstrations into technical schematic diagrams, focusing on series, parallel, and combination circuits through a video-based sketching activity and a logic-based design challenge.
A hands-on exploration of series and parallel circuits where students build, test, and break circuits to understand independent paths of electricity.
A lesson where students evaluate series and parallel circuits to design a reliable lighting system for a hospital operating room, using video evidence to support their system design choices.
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.
A 7th-grade STEM lesson exploring Robert Boyle's contributions to chemistry, specifically Boyle's Law, using hands-on marshmallow experiments and the scientific method.
Students will explore volume as the amount of space matter takes up. Through a hands-on 'Volume Victory' investigation using nesting containers and unit cubes, they will predict, measure, and calculate the volume of various objects.
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.
A 6th-grade science lesson exploring the relationship between depth and water pressure through a hands-on demonstration, video analysis, and particle-level diagramming. Students learn how the weight of the water column creates pressure that increases with depth.
Students explore surface tension and particle attraction to engineer a bubble that can be touched and bounced without popping. The lesson includes a video-led discussion on the 'soap sandwich' structure of bubbles and a hands-on experiment comparing dry contact, wet contact, and cotton materials.
A fun, hands-on lesson for 2nd-3rd graders exploring the molecular 'sandwich' structure of bubbles. Students learn how soap allows water to stretch into a sphere and create a physical model of a bubble wall.
Students will analyze heating curves by plotting data points, identifying phase changes, and explaining why temperature plateaus during transitions using evidence from a video on molecular attractive forces.
A 9th-grade science lesson exploring phase changes through the lens of kinetic molecular theory. Students observe real-world phenomena, watch expert explanations, and participate in a high-energy role-play activity to model molecular behavior.
A 3rd-grade science lesson exploring reversible and irreversible changes in states of matter using gelatin as a model, featuring the SciShow Kids 'Bones and Bugs' video.
A hands-on STEM lesson where students explore the relationship between volume, density, and buoyancy by engineering clay boats. Students will use the displacement method to measure how changing an object's shape affects its ability to float.
Students use Lego bricks as models for particles to explore the Conservation of Mass. By building 'Reactant' and 'Product' structures, students visualize how atoms rearrange during chemical changes without losing or gaining mass.
Bilan des acquis à travers une évaluation sommative permettant de vérifier la compréhension de l'énoncé du principe d'inertie et sa mise en œuvre dans des situations variées.
Application du principe d'inertie et de sa réciproque pour prédire ou expliquer le mouvement d'objets du quotidien. Consolidation via des exercices de synthèse.
Utilisation d'un simulateur numérique pour explorer l'effet de forces compensées ou non sur le mouvement d'un système. Introduction de la notion de forces qui se compensent.
Introduction historique au principe d'inertie à travers l'opposition entre Aristote et Galilée/Newton. Les élèves découvrent que le mouvement ne nécessite pas forcément une force pour être maintenu.
A high-energy review lesson where students use collaborative problem-solving and a video-based quiz to master speed calculations. Includes a rhythmic warm-up chant, a group-based competition using whiteboards, and a focused error-analysis wrap-up.
Students learn to calculate speed using the formula Distance divided by Time, focusing on meters per second through a 10-meter dash activity.
A comprehensive 6th-grade lesson on calculating speed and graphing motion, featuring real-world data from a video and hands-on graphing activities.
A comprehensive lesson on calculating speed using metric units, featuring interactive video segments, a sorting activity for m/s vs km/h, and mental math practice.
Students explore the basics of physics by identifying types of motion (straight, circular, back-and-forth) and understanding speed through playground observations and a video on calculating speed.
Students will tackle the 'Heavy Toy Challenge' by applying the engineering design process to create high-drag parachutes. Using the SciShow Kids 'Parachute Adventure' video as a starting point, they will iterate on designs to safely land heavy objects like glue sticks and action figures.
A high-school astronomy lesson exploring the immense scale of the universe through the lens of the speed of light, featuring calculations of travel time and a deep dive into the 'cosmic speed limit'.
Students investigate whether heavier objects fall faster than lighter ones by testing various items and learning about the role of air resistance through the scientific method.
A remedial/support lesson for high school physics students focused on mastering calculator settings (degree mode), significant figures, and basic trigonometric components of vectors using a guided video approach.
A 9th-grade physical science lesson where students analyze and graph the motion of a rock thrown upward to visualize the parabolic effects of gravity.
Students explore how gravity affects falling objects by calculating fall times on different planets. They use kinematic equations and modify the 'g' constant to compare gravitational strengths across the solar system.
A high school physics lesson exploring the relationship between mass and gravitational acceleration. Students will debunk the common misconception that heavier objects fall faster through historical context, kinematic analysis, and a hands-on 'drop' experiment.
A high school physics lesson on 1D vertical motion, focusing on modifying standard kinematic equations for gravitational acceleration and solving real-world free-fall problems.
A High School Physics lesson focused on interpreting the physical meaning of positive and negative signs in vector quantities like velocity and acceleration, specifically during free fall. Students will practice identifying directionality through a physical response game and a video-based problem analysis.
An introductory physics lesson focused on defining kinematics, exploring 1D and 2D motion, understanding friction, and analyzing inclined planes through video and interactive play.
This lesson covers the fundamental principles of Shielded Metal Arc Welding (SMAW), including equipment operation, safety protocols, and core welding techniques for beginners.
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 7th-grade science lesson exploring the mechanical advantages of the wheel and axle through hands-on investigation and historical context.
A 7th-grade physical science lesson where students investigate how inclined planes and screws reduce the effort force needed to move objects by increasing the distance traveled. Students will engage in hands-on testing and data collection to discover the fundamental trade-offs of simple machines.
A comprehensive 45-minute lesson exploring the mechanics and advantages of levers and pulleys through hands-on investigation and technical analysis.
A 7th-grade exploration into the six simple machines, using ancient engineering as a backdrop to understand mechanical advantage and how humans have made work easier throughout history.
A 7th-grade physical science lesson where students explore the concept of power as the rate of doing work. Through a physical challenge and mathematical analysis, students differentiate between total energy transferred and the speed of that transfer.
A 45-minute middle school science lesson introducing the concept of work in physics, distinguishing it from everyday effort through interactive sorting and visual demonstrations.
A 45-minute science lesson where 7th-grade students investigate how energy is transferred through mechanical work (pushing and pulling) over a distance. Students participate in a hands-on lab and document qualitative data to support their findings.
A 45-minute lesson introducing power as the rate of work. Students will investigate how time impacts power through a physical challenge and conceptual slides.
A 45-minute introductory lesson for 7th graders to distinguish between work and power through a hands-on 'Stair Climbing Challenge' and visual demonstrations of rate and energy transfer.
A 9th-grade environmental science lesson evaluating the sustainability of hydroelectric power on the Rio Bravo (Rio Grande) in the face of climate change and international water treaties.
A high school physics and astronomy lesson exploring the formation of the solar system through the lens of angular momentum and conservation of energy. Students use simulations to model orbital mechanics and connect physical laws to the structure of our celestial neighborhood.
A geography and science lesson focused on the unique characteristics of Antarctica, the formation of ice sheets, and the mechanics of glacial movement through a hands-on 'Glacier Goo' experiment.
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 hands-on lesson exploring how stream gradient (steepness) influences water velocity and erosion power, using the Zambezi River as a real-world case study.
A STEM and History lesson investigating the engineering marvels of Easter Island and the 'walking' theory of Moai statue transportation. Students engage in a hands-on physics challenge to replicate ancient moving techniques.
This lesson explores the physics of cyclogenesis, focusing on the Coriolis effect and latent heat as the primary drivers of tropical cyclones. Students will participate in a physical demonstration of planetary rotation and construct a detailed energy flowchart to visualize the positive feedback loops that fuel these massive storms.
Cette séance finale aborde les conséquences du réchauffement climatique (boucles de rétroaction, montée des eaux) et les leviers d'action pour l'atténuation et l'adaptation.
Cette séance analyse les données historiques du climat, le lien entre activités humaines et augmentation du forçage radiatif, ainsi que les perturbations du cycle du carbone.
Cette séance de 2 heures détaille le fonctionnement physique de l'effet de serre, le bilan radiatif terrestre et le rôle spécifique des gaz à effet de serre dans le maintien de la température terrestre.
Students explore the interconnectedness of Earth's spheres through the lens of global ocean circulation, focusing on how energy moves from the sun through the atmosphere and hydrosphere to support life in the biosphere.
This lesson explores the impact of ocean currents on regional climates, focusing on how the North Atlantic Current creates a temperate climate for Western Europe compared to other regions at similar latitudes. Students analyze latitude data, watch a targeted video segment, and map global currents to understand the 'conveyor belt' effect.
A 6th-grade science lesson investigating how convection currents distribute heat across the planet. Students will observe temperature-driven movement in a convection tank demo and connect their findings to global ocean and wind currents.
High school physics lesson exploring the three methods of heat transfer (conduction, convection, and radiation) through the lens of atmospheric science and weather generation. Includes a lab station rotation, video analysis, and a concluding synthesis diagram.
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 Kindergarten lesson exploring how clothing acts as insulation by trapping body heat. Students will compare heat loss in different containers, watch a SciShow Kids video, and complete a 'Dress the Bear' activity to visualize heat arrows being trapped by layers.
An in-depth exploration of uniform circular motion, centripetal acceleration, and the forces that maintain orbital and rotational paths in AP Physics 1.
A comprehensive lesson on uniform circular motion and centripetal force for AP Physics 1 students, exploring kinematics, dynamics, and real-world applications like banked curves and vertical loops.
Students explore how Galileo Galilei used the telescope to challenge the geocentric model by observing Jupiter's moons, simulating his historical observations and reflecting on how technology drives scientific progress.
Students investigate how human-driven mass redistribution—through ice melt and groundwater extraction—physically alters the Earth's rotation and wobble. This lesson connects environmental science with planetary physics to explore the scale of the Anthropocene.
A High School Environmental Science lesson investigating the complex feedback loop between orbital mechanics (Milankovitch cycles), sea-level pressure, and volcanic activity based on Maya Tolstoy's research.
Explore Isaac Newton's Law of Gravity and the 'Clockwork Universe' analogy through hands-on observation, video analysis, and conceptual diagramming. Students learn how mathematics and calculus provided the proof necessary to transform scientific observations into universal laws.
Students explore how pressure gradients and the Coriolis effect create global wind patterns through a balloon demonstration, a video investigation, and a hands-on rotating frame of reference activity.
A 5th-grade science lesson exploring why the Earth isn't a perfect sphere. Students use spinning analogies, video evidence, and clay modeling to understand the 'oblate spheroid' shape caused by Earth's rotation.
Students explore the invisible nature of black holes and the methods astronomers use to detect them through gravitational effects and accretion disks, featuring a hands-on gravity well simulation.
This lesson explores Kepler's Second Law, moving from the historical shift from circular to elliptical models to a creative application of extreme orbital eccentricity. Students analyze Tycho Brahe's data-driven legacy and Kepler's mathematical insight through video, discussion, and world-building.
A high school physics lesson on Kepler's Second Law where students calculate elliptical orbital areas and verify that planets sweep out equal areas in equal times. The lesson includes a video analysis, guided calculations for Earth, and independent practice using real data for Mars, Jupiter, and Halley's Comet.
In this lesson, 9th-grade physical science students conceptualize Kepler's Second Law through physical movement and visual analogies. They experience conservation of angular momentum firsthand, analyze a professional orbital diagram video, and physically map an ellipse to discover why orbital speed must vary.
A comprehensive lesson where 5th-grade students explore the International Space Station as a model of global cooperation, researching specific contributions from partner nations to create a collaborative 'ISS Passport.'
Students explore the differences between natural and artificial satellites, learn about the physics of orbits (gravity and velocity), and design their own satellite for a specific Earth-monitoring mission.
A comprehensive 4th-grade science lesson on orbital mechanics featuring a Crash Course Kids video, a vocabulary matching game, and a collaborative role-play activity called 'Orbit Acting'. Students explore how the balance of gravity and velocity keeps satellites and the Moon in a stable path around Earth.
Students will investigate the delicate balance between gravity and velocity that allows objects like the Moon and satellites to maintain an orbit without crashing into Earth or flying off into space.
Students explore the Coriolis effect through hands-on modeling with rotating surfaces and markers, connecting the concept of Earth's rotation to global wind patterns and the transport of Saharan dust.
A 9th-10th grade science and history integration lesson that explores the transition from foraging to agriculture through the lens of thermodynamics and energy flow. Students trace the sun's energy from photosynthesis to complex human civilizations and analyze the efficiency of various energy-harvesting methods throughout history.
A lesson focused on the properties of periodic motion, including frequency, period, and phase relationships in oscillators like pendulums and tuning forks.
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.
Students investigate how energy input affects wave amplitude and frequency using slinkies to model transverse and longitudinal waves. The lesson includes a video demonstration, hands-on experimentation, and data recording.
A remediation-focused lesson targeting common misconceptions about energy conservation, specifically energy 'loss' through heat and velocity at peak points. Students use a guided video and hands-on stations to see energy transformations in action.
A 6th-grade lesson exploring the Law of Conservation of Energy through a falling ball demonstration, an engaging video, and a hands-on pendulum experiment. Students will discover that energy is never lost, only transformed between potential, kinetic, and thermal forms.
In this lesson, 6th-grade students define harmonic motion as a repeated back-and-forth motion driven by a restoring force. They will analyze real-world examples through a video and a gallery walk activity to distinguish between cyclical and non-cyclical motion.
A physical science lesson for 8th graders focused on harmonic motion, specifically distinguishing between amplitude and frequency and mastering the correct measurement of amplitude from the equilibrium point.
A lesson introducing 9th-grade physics students to harmonic motion, restoring forces, frequency, and amplitude through the lens of engineering and everyday phenomena. Students analyze a bungee-jump mishap, watch a core concepts video, and design their own harmonic system.
A hands-on STEM club lesson where students explore harmonic motion by building a DIY seismograph. Students use suspended weights and moving paper strips to visualize amplitude and frequency.
A 7th-grade math and science lesson where students calculate the frequency of a pendulum. They will practice unit conversions from minutes to seconds and apply the formula for frequency (Hz) using real-world lab data and a supporting video.
Students explore the scientific process by identifying variables and outcomes. Through a mystery plant hook, a video about 'Catbot' engineering, and a hands-on pendulum experiment, learners discover why engineers only change one thing at a time to ensure a fair test.
A 6th-grade science lesson focused on the principles of fair testing. Students learn to identify and control variables while designing an experimental protocol to investigate what affects a pendulum's swing speed.
A hands-on physics lesson where 3rd-grade students investigate repetitive motion using pendulums and seesaws to predict future movement. Students will use playground-themed experiments to discover patterns in force, gravity, and predictable motion.
Conceptualizes continuous fields as an infinite set of harmonic oscillators. Introduces the concept of second quantization and vacuum energy.
Applies oscillator statistics to the heat capacity of solids. Compares Einstein's independent oscillator model with Debye's coupled mode model.
Calculates the partition function for quantum oscillators to derive thermodynamic properties. Contrasts classical equipartition with the quantum behavior at low temperatures.
Explores coherent states as the most classical-like quantum states. Students analyze time evolution and the saturation of the Heisenberg uncertainty principle in these systems.
Students explore the physics of wedges by diagramming force vectors, watching a demonstration video, and designing their own wedge-based tool to solve a specific problem.
A 9th-grade physical science lesson focused on the relationship between applied force and static friction. Students use free body diagrams to visualize how static friction scales to prevent motion until a maximum threshold is reached.
A physical science lesson where students explore the interaction between gravity and air resistance (drag) through video analysis and force diagrams. Students learn to represent force magnitude with arrow length across different scenarios like falling rocks, feathers, and skydivers.
A 9th-grade physics lesson exploring waves through the lens of particle displacement and propagation vectors. Students use a slinky demonstration video to differentiate between transverse and longitudinal motion, culminating in a precise diagramming activity.
This lesson explores the invisible force of gravity, focusing on the relationship between mass and gravitational pull, as well as the concept of mutual attraction between all objects with mass. Students will use physical models and diagrams to visualize how massive objects create gravitational 'wells' and how force vectors change based on mass.
A high-school physics lesson focused on decomposing vectors into horizontal and vertical components using trigonometry. Students watch a guided video and apply their skills to a topographic 'Vector Hiking' map activity.
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 introduction to Shielded Metal Arc Welding (SMAW), covering workshop safety, equipment setup, electrode selection, and basic bead-running techniques for CTE students.
A high school physics/chemistry lesson exploring how temperature and salinity drive deep ocean circulation through density gradients. Includes a video analysis, a hands-on density tank lab, and a discussion on global nutrient cycling.
Students analyze the life cycle of plastic pollution, tracing its path through global ocean currents and gyres. The lesson focuses on the physical geography of ocean circulation and the environmental impact of nonpoint source pollution using real-world examples like the Lego dragon and Garfield phone spills.
A comprehensive lesson for high school students to analyze the relationship between global pressure belts and prevailing winds using the 3-cell atmospheric model and the Coriolis effect.
A 10-minute introductory lesson for 10th-grade students on the safe and basic operation of the Ridgid 535 pipe threader, focusing on safety protocols and component identification.
Students explore Roman engineering through the lens of concrete, arches, and aqueducts, culminating in a hands-on building challenge to understand structural integrity.
Students explore structural engineering by designing and testing earthquake-resistant towers using spaghetti and marshmallows, applying concepts of seismic adaptation.
A hands-on STEM lesson where 4th graders explore wind dispersal strategies in nature and use engineering principles to design a seed model that maximizes air time. Students observe dandelions and maple seeds to inspire their own paper and cotton 'Traveler' designs.
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.
Students investigate isotopes to understand how atoms of the same element can have different masses due to neutron variation. This clarifies the concept of average atomic mass.
This lesson focuses on electron organization using the Bohr model and the 2-8-8 rule. Students visualize energy levels and learn to map electron configurations.
Learners discover how the number of protons defines an element and how atomic mass is calculated. They practice extracting information from element tiles on the periodic table.
Students explore protons, neutrons, and electrons to understand their charges, locations, and roles within the atom. This lesson establishes the foundation for understanding atomic identity.
In this culminating activity, students synthesize their knowledge to create comprehensive profiles for assigned elements based solely on their periodic table tiles.
This lesson investigates natural variations in elements by looking at isotopes. Students analyze real-world examples, such as Carbon-12 versus Carbon-14, to understand mass variation.
Students learn the rules of electron configuration by drawing Bohr models for the first 18 elements. The lesson emphasizes the specific capacity of energy levels (2-8-8 rule).
Learners practice distinguishing between atomic number and atomic mass through guided calculation exercises. The lesson focuses on the mathematical relationship between protons and neutrons to determine the mass number.
Students utilize physical manipulatives or digital simulations to construct atoms, identifying the location and charge of protons, neutrons, and electrons. They explore how changing the number of protons changes the element itself.
A culminating design challenge where students act as materials engineers to propose elements for specific aerospace and technological tasks.
An investigation into isotopes, nuclear stability, and how changing neutron counts affects mass without changing chemical position.
A study of how alloys and doping modify material properties, featuring steel and p/n-type semiconductors.
An exploration of Silicon and Germanium, focusing on band theory and how metalloids control electrical flow in computing.
An introductory lesson exploring the relationship between electric flux and Gauss's Law, focusing on symmetrical charge distributions.
Students become 'Energy Detectives' to identify light, electrical, and movement energy in their immediate environment through a school-wide hunt.
Students explore electron flow by modeling series and parallel circuits through a physical 'Human Circuit' activity and video analysis, focusing on how breaks affect current.
An interactive sorting activity where students categorize various objects into solids, liquids, and gases. This hands-on game uses visual cues to reinforce the fundamental properties of the states of matter.
A set of engaging memory cards and supporting materials designed to help students master two-syllable words where both syllables are open. Students will match syllable pairs to form complete words, reinforcing phonics and decoding skills.
A middle school science lesson exploring the physical properties of glaciers and the mechanics of plastic flow. Students use 'Glacial Goo' to model ice movement and debris transport, connecting physical properties to geological processes.
Students will act as "Property Detectives" to identify classroom objects based on their physical properties. They will learn to distinguish between observable and measurable properties and use scientific tools like rulers and scales to gather quantitative data.
A hands-on introduction to measuring physical properties of matter, featuring a station-based measurement lab and interactive video analysis.
Students will explore the physical properties of matter through observation, measurement, and hands-on labeling, supported by the 'Hunting for Properties' Crash Course Kids video. This lesson is specifically designed with language supports for 3rd-5th grade learners, featuring visual definitions and interactive vocabulary games.
A hands-on science and art lesson where students create a three-layer density column and test how various objects interact with the layers. This lesson uses a 'Science Artist' theme to engage elementary students in the concepts of matter, volume, and density.
Students explore relative density through a layered liquid column experiment, watching a demonstration video and creating detailed models to compare the density of various liquids and solids.
Students explore density through a virtual laboratory experiment, applying the scientific method to observe how different liquids and solids interact in a density column.
Students explore the concept of density through a hands-on 'Sink or Float' activity and a guided video demonstration. They will learn to define density as 'matter packed into a volume' and make predictions based on observations of various objects and liquids.
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.
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.
Students investigate the immense scale of the universe by calculating light-travel times. They will use the concept of light-years to understand why looking into space is looking into the past and create a travel brochure highlighting the 'communication delays' of interstellar travel.
A hands-on exploration of the expanding universe using elastic bands to model redshift and Hubble's Law. Students will connect the Doppler effect to light waves and understand how astronomers use color to map the movement of galaxies.
Students explore the Doppler effect through a hands-on water simulation and a video-guided study of redshift and blueshift in the expanding universe.
A 6th-grade science lesson exploring the physical properties of light, specifically how wavelength determines color and how this knowledge helps astronomers understand the expanding universe.
Students explore the Doppler effect, redshift, and the concept of 'light-time' to understand why looking at the stars is effectively looking into the past. The lesson culminates in a Socratic seminar focused on the philosophical and scientific implications of observing an 'outdated' universe.
A high school physics lesson exploring the finite speed of light, its role as a cosmic speed limit, and the profound implication that looking into space is looking back in time.
Students explore chemical energy through a hands-on 'Classroom Volcano' experiment, learning that energy is the ability to do work and cause change. The lesson features a video demonstration and a reflective lab report.
Students explore physical changes by using their five senses to observe the transformation of a hard corn kernel into fluffy popcorn. The lesson includes a video-guided discussion, a sensory lab, and a creative extension project.
A hands-on investigation into how natural raw materials like sand, trees, and cotton are transformed into everyday man-made products through heat and processing.
Students will explore the concept of recycling through the lens of glass, learning how items are transformed through heat and melting to be used over and over again.
A hands-on science lesson where students explore phase changes by creating 'candy glass' from sugar or Isomalt, paralleling the industrial process of glass making from sand.
Students learn to measure the volume of irregular solids using the water displacement method through a combination of video analysis, hands-on laboratory experimentation, and data calculation.
Students investigate the Conservation of Mass through a chemical reaction between baking soda and vinegar in a sealed system. They observe particle rearrangement, identify reactants and products, and verify that mass remains constant even when a gas is produced.
Students explore the physics of nucleation and the engineering design process by building a mechanism to deliver multiple objects into a narrow container simultaneously. This lesson bridges science concepts from SciShow Kids with a hands-on engineering challenge.
A hands-on science lesson for 3rd and 4th graders exploring how surface texture (nucleation sites) triggers the rapid release of carbon dioxide gas in soda, featuring a SciShow Kids video and a candy investigation activity.
A 6th-grade science and history lesson where students explore how material scientists improve substances by changing their properties, focusing on historical shifts like iron to steel and ancient concrete.
A high school physics lesson exploring the Second Law of Thermodynamics through the lens of entropy, system-surrounding interactions, and a hands-on endothermic reaction lab. Students will analyze why spontaneous processes occur even when local order increases or temperature drops.
This lesson introduces entropy as a measure of disorder and the 2nd Law of Thermodynamics. Students will use phase changes and temperature fluctuations to predict entropy changes, culminating in an analysis of how local entropy decreases (like freezing) fit into the universal law.
A high school physics lesson focused on distinguishing distance from displacement and using the Pythagorean theorem to calculate displacement in sports-related scenarios.
A high school physics lesson on decomposing velocity vectors into horizontal and vertical components using trigonometry, featuring a basketball projectile scenario.
An introductory physics lesson defining kinematics and exploring the transition from 1D to 2D motion through physical activity and video analysis.
This lesson focuses on high-precision projectile motion calculations, challenging students to move beyond numerical substitution into symbolic derivation. Students will analyze potential rounding errors in textbook problems and derive a 'Master Formula' for time-of-flight using the quadratic formula.
A lesson exploring the vector nature of velocity and acceleration with a specific focus on curved motion and 'negative' acceleration. Students use race track visualizations to draw and analyze vector components.
A high-energy 8th-grade science lesson focused on acceleration as a vector quantity, featuring a physical simulation activity and video analysis of negative acceleration.
A comprehensive lesson on 2D projectile motion, using a 5-step strategy to solve kinematic problems. Students will analyze a baseball home run example and apply their knowledge to a 'Hit the Target' golf challenge.
A high-level physics lesson focused on deriving the Range Equation for projectiles using algebraic manipulation and trigonometric identities. Students move beyond numerical solutions to create a universal predictive model.
A high school physics lesson exploring the independence of horizontal and vertical motion in projectiles, featuring a PhET simulation and a home-run case study.
Students will master the foundational skill of projectile motion: decomposing initial velocity vectors into horizontal and vertical components using trigonometry.
A high school physics lesson exploring the discrepancy between theoretical projectile motion models and real-world results influenced by air resistance. Students use a baseball home run example to compare 'ideal' calculations with actual trajectory data.
Students investigate the physics of projectiles by calculating maximum height. This lesson uses video analysis of fireworks and dumplings to anchor the concept that vertical velocity is zero at the peak, followed by a hands-on water balloon launch activity.
A comprehensive 12th-grade physics lesson on projectile motion where students calculate flight time and horizontal range for pyrotechnics. Students evaluate the safety of various firework shells based on stadium layouts and launch parameters.
A 10th-grade physical science lesson focused on the qualitative behavior of projectiles, using simulations and video demonstrations to understand trajectory and velocity changes.
A high-energy lesson focused on mastering the 5-step problem-solving strategy for projectile motion through a collaborative 'Problem Pass' activity and video-based modeling. Students move from a jigsaw warm-up to a peer-critique practice session, ensuring mastery of sketches, components, and kinematic equations.
This lesson guides students through the process of decomposing two-dimensional velocity vectors into their horizontal and vertical components using trigonometry, featuring a hands-on 'Vector Walk' activity and video-based modeling.
A PE and Science integrated lesson where students investigate how momentum and launch angle affect jumping distance, based on the physics concepts of speed and trajectory.
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 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.
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.
This lesson explores how quantum mechanics revolutionized our understanding of reality, focusing on the shift from 'impossible to know' to 'scientific truth' through technology. Students engage with the history of spectroscopy, the principles of the quantum world, and brainstorm future technological breakthroughs.
A 10th-grade science history lesson exploring the shift from classical to modern physics through the contributions of Planck, Einstein, and Lemaître. Students evaluate how these figures disrupted the scientific status quo using video analysis and a 'Scientific Speed Dating' role-play activity.
Students explore the process of nuclear fusion through a kinetic modeling activity where they act as hydrogen atoms fusing into helium, releasing energy along the way. The lesson covers the fuel of stars and why they eventually burn out.
Students explore the birth of stars by creating a 'Nebula in a Jar' sensory bottle, modeling how gravity pulls interstellar dust and gas together to form protostars. The lesson includes a video on the stellar lifecycle and a research activity on astronomical misnomers.
Explore the life cycle of average-sized stars through the lens of physics, focusing on the battle between gravity and nuclear fusion. Students will visualize stellar stages using 'Tug-of-War' diagrams to understand how forces shape the universe.
Students will analyze the Cosmic Background Radiation (CBR) as evidence for the Big Bang, focusing on interpreting blackbody radiation graphs and plotting actual cosmic data to witness the 'perfect fit' with theoretical models.
A lesson for 2nd-3rd graders that uses a humorous video to teach the scientific facts about stars while practicing questioning and inquiry skills. Students will role-play as reporters and stars, and rewrite the classic nursery rhyme with scientific accuracy.
A lesson exploring the internal structure of the sun and the incredible million-year journey energy takes from the core to the surface through the radiative and convective zones.
Students explore the conservation of mass and chemical reactions through a LEGO-based analogy, verifying that atoms are never created or destroyed, only rearranged. The lesson includes a video analysis, a hands-on building activity, and a reflection on chemical vs. nuclear reactions.
A comprehensive lesson for high school students on atmospheric pressure, wind formation, and weather patterns. Students learn to map isobars using raw data and predict weather outcomes based on pressure systems.
A hands-on Earth Science lesson for grades 6-8 exploring the relationship between density, pressure, and wind. Students use a convection tank model to simulate global air movement and identify the 'Equatorial Trough'.
Students explore the orographic effect and rain shadows through a mix of video analysis and mathematical modeling. They calculate temperature changes using lapse rates to predict where precipitation and deserts form on a mountain range.
Students will explore the vertical structure of Earth's atmosphere, identifying the four primary layers and understanding how temperature fluctuates within each. The lesson includes a video-based graphic organizer and a hands-on scale modeling activity to visualize the relative thickness of these 'membranes' of air.
A hands-on lesson for Pre-K and Kindergarten students to learn the science of staying warm and the practical skill of dressing in winter layers. Features a science video, a high-energy relay race, and a mnemonic rhyme for dressing independently.
A STEM-focused lesson where students explore the extreme depths of the Pacific Ocean by creating a proportional scale model comparing Mount Everest to the Mariana Trench. The lesson utilizes a world geography video to provide context on Oceania's physical characteristics and uses math to visualize oceanic scale.
