Atomic structure, quantum models, and periodic trends establish the fundamental nature of matter. Stoichiometry, gas properties, and equilibrium constants facilitate quantitative analysis of chemical reactions and molecular interactions.
A 10th-grade chemistry lesson exploring polarity and solubility through the 'Like Dissolves Like' rule, featuring a video on lipids and a hands-on solubility investigation.
A hands-on science lesson where 3rd and 4th grade students identify metals by exploring physical properties like luster, magnetism, and conductivity. Students use a 'Metal Detectives' lab to distinguish metals from other common materials.
A hands-on science lesson where students explore the property of hardness by watching a scratch test video and creating an ordered scale of materials.
A high school science lesson focused on the power of mnemonics and music to memorize complex scientific concepts, using the 'Rock Me Avogadro' video as a primary mentor text for creative production.
A comprehensive lesson where students learn to distinguish between pure elements, ionic compounds, and molecular compounds using periodic table trends and chemical formulas. Includes a video-guided practice and a hands-on station rotation activity.
A comprehensive introduction to the periodic table where students identify major groups, classify elements as metals, nonmetals, or metalloids, and predict ionic charges based on valence electrons.
Students apply their understanding of trends and families to determine the properties of fictional or 'missing' elements. By analyzing the surrounding neighbors on a grid, they predict state of matter, reactivity, and conductivity.
Students visualize how atomic size changes and how reactivity increases or decreases depending on the direction of movement on the table. They explore the concept of trends across periods and down groups.
Students synthesize their knowledge of families to map reactivity trends across the table. They visualize how reactivity increases towards the bottom left for metals and top right for non-metals. The sequence ends with a 'Reactivity Series' sorting challenge.
Students conduct a comparative analysis of key groups: Alkali Metals, Halogens, and Noble Gases. They correlate reactivity with valence electron counts, exploring why some elements are explosive while others are inert.
Learners categorize elements based on physical properties such as luster, conductivity, and malleability. They map the 'staircase' on the Periodic Table to visualize the transition from metals to nonmetals and the unique dual-nature of metalloids.
Students study Group 18 to understand stability. They learn that having a full outer shell makes these atoms unreactive. Applications of noble gases (neon lights, blimps) are discussed to show the utility of non-reactivity.
Students engage in a pattern-finding activity connecting group numbers to the number of electrons in the outermost shell. They discover that elements in the same vertical column share the same valence configuration.
Students examine Group 17, the Halogens, as the aggressive 'electron thieves' of the table. They explore the concept of electronegativity as a measure of how badly an atom wants to steal an electron. Comparisons are drawn between the 'givers' (Alkali) and 'takers' (Halogens).
Focusing on Group 1, students watch demonstrations of lithium, sodium, and potassium reacting with water. They analyze why these elements are so desperate to lose one electron. The lesson introduces the concept of high reactivity and low ionization energy (conceptually).
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.
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.
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.
Focus sur la phase photochimique : structure des photosystèmes, capture et transfert de l'énergie d'excitation, chaîne de transporteurs d'électrons et couplage osmo-chimique pour la synthèse d'ATP et de NADPH. Approche conforme aux exigences du concours BCPST.
Cette leçon explore les mécanismes moléculaires de la phase photochimique : de l'excitation des pigments à la formation de l'ATP et du NADPH. Elle inclut des supports théoriques visuels et une approche expérimentale.
A comprehensive exploration of the four major classes of organic macromolecules: carbohydrates, lipids, proteins, and nucleic acids, focusing on their structural components and biological functions.
Students investigate the chemical architecture of cell membranes in extremophiles. By comparing ester vs. ether bonds and bilayer vs. monolayer structures, they explain how molecular design enables life in boiling geysers.
Students explore the chemistry of handwashing through a hands-on experiment with 'glitter germs' and oil, discovering how soap acts as a bridge to remove oil and dirt that water alone cannot. The lesson features a SciShow Kids video and a hands-on lab activity.
Students explore how soap cleans by modeling molecular interactions through role play and creative writing. This lesson uses a problem-solution narrative to explain why oil and water don't mix and how soap acts as a bridge.
A 6th-grade science lesson exploring how atoms combine to form molecules, with a special focus on carbon's unique ability to form four bonds using a Lego-inspired edible modeling activity.
A comprehensive lesson exploring the unique chemical properties of carbon that make it the 'building block of life,' including the four major biological macromolecules and their structural reliance on the carbon backbone.
A hands-on introductory science lesson for 2nd grade where students identify common materials like wood, metal, plastic, and glass, and explore their unique properties through tactile games and a classroom scavenger hunt.
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.
A comprehensive science lesson for 5th graders exploring the Greenhouse Effect through video analysis, hands-on molecule modeling, and the 'cozy blanket' analogy. students learn to identify carbon dioxide, water vapor, and methane while understanding Earth's unique temperature balance.
A hands-on investigation where 2nd-grade students explore why specific materials are chosen for objects based on their properties and functions.
A high school environmental science lesson where students simulate the chemical process of Acid Mine Drainage using steel wool and vinegar, followed by a neutralization experiment to explore reclamation challenges.
Students investigate the properties of matter and identify the signs of chemical reactions through a video analysis of the conservation of mass and hands-on laboratory stations.
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.
A simplified murder mystery investigation. Students use a detective dossier with B1-level text to solve the crime of Professor Thorne. Includes sentence frames for final accusations.
Students explore how fingerprints and DNA help identify people. The lesson uses clear, visual steps to explain identification techniques and Locard's Exchange Principle.
Students learn essential crime-solving vocabulary (alibi, evidence, suspect) and practice categorizing physical vs. testimonial clues using simplified English and visual supports.
An exploration of specialized forensic techniques, focusing on fingerprint classification, DNA profiling basics, and the microscopic analysis of hair and fibers to connect suspects to a scene.
Students master the foundational vocabulary of forensic science, including terms like alibi, chain of custody, and trace evidence, while learning to categorize different types of physical and testimonial evidence.
A 90-minute immersive murder mystery experience where students apply forensic techniques to solve the death of a prominent professor. They will analyze evidence, evaluate witness statements, and build a case based on deductive reasoning.
A 15-minute ELL-focused activity where students practice speaking and listening while balancing chemical equations. Students use sentence stems and visual aids to describe reactions and ensure the law of conservation of mass is met.
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 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 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 comprehensive 6th-grade science lesson that differentiates between atoms, molecules, compounds, and elements using a 'Scientific Blueprint' theme. Students explore the building blocks of matter through a video investigation and a creative 'Wanted Poster' activity.
Students explore the physical properties of matter (magnetism, reflectivity, and transparency) through a video-led investigation and a hands-on 'Backpack Lab' where they classify classroom objects.
Students explore the microscopic building blocks of matter, learning that even when particles are too small to be seen, they form substances with consistent properties. This lesson uses a water molecule model and a video investigation to bridge the gap between the visible world and the atomic level.
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 fun, hands-on introduction to the concept of matter for 2nd graders, featuring a catchy song and a classroom scavenger hunt. Students will learn the fundamental definition: matter has mass and takes up space.
Focuses on reading security logs, understanding time formats (24h vs 12h), and using logic to follow a suspect's movement through keycard data.
Focuses on descriptive language, memory reliability, and the 'mugshot' process. Students learn to describe suspects and identify inconsistencies in witness stories.
A comprehensive lesson on forensic toxicology focusing on alcohol, covering metabolism, BAC calculations, impairment, and sample preservation according to TEKS 10A-D.
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 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 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.
Students explore density through a virtual laboratory experiment, applying the scientific method to observe how different liquids and solids interact in a density column.
A high-energy chemistry lesson using a music video to explore Avogadro's Hypothesis, focusing on the relationship between gas volume and moles regardless of molecular identity.
This lesson introduces students to Dimensional Analysis using the 'Factor-Label Method'. By starting with metric prefix review and moving into a 'Nonsense Units' activity, students learn to trust the mathematical structure of unit cancellation before applying it to complex chemistry concepts like Molar Mass and Avogadro's Number.
A 10th-grade chemistry lesson focused on stoichiometry, theoretical yield, and percent error using a hands-on vinegar and baking soda reaction. Students will calculate how much gas they should produce versus what they actually measured.
Students investigate isotopes and natural abundance to understand why atomic masses on the periodic table are decimals.
Synthesizing previous lessons, students draw and build comprehensive models of specific elements, justifying the placement of all three subatomic particles.
Students explore the role of electrons orbiting the nucleus and how they balance or imbalance the positive charge of protons to create ions.
Focusing on the nucleus, students use manipulatives to build nuclei with varying numbers of protons and neutrons, learning how atomic number defines identity.
Students trace the history of the atom from Democritus to the modern cloud model, analyzing how scientific understanding evolves with new evidence.
Applications of gas stoichiometry to atmospheric contexts, including pollutant concentrations in parts per million (ppm) and acid rain formation.
Analyzes combustion reactions and the resulting partial pressures of product gases using Dalton's Law and mole fractions.
Integrates PV=nRT into the stoichiometry roadmap to solve problems under non-standard conditions, using the real-world example of airbag deployment.
A synthesis lesson where students solve advanced problems involving limiting reactants and final ion concentrations in complex mixed chemical waste streams.
Focuses on the molar volume of an ideal gas at STP (22.4 L/mol) and its application in stoichiometric calculations for reactions involving gases.
A culminating project where students select and justify a synthesis route for a target molecule based on yield, economy, cost, and waste.
Focuses on the E-factor metric and waste management, connecting chemical equations to environmental impact and disposal costs.
Students dive into the precision of acid-base titrations, calculating unknown concentrations from standardization data and exploring polyprotic systems.
A rapid refresher on the Ideal Gas Law (PV=nRT) and STP conditions, ensuring students can fluently convert between gas variables and moles before applying them to stoichiometry.
Students integrate financial data into stoichiometry to determine cost-effective limiting reactant strategies and calculate raw material costs per mole of product.
Focusing on gravimetric analysis, students use precipitate mass to back-calculate unknown ion concentrations in contaminated water scenarios.
A lesson for AP Chemistry students to connect thermodynamic favorability to entropy and enthalpy through video analysis and mathematical derivation.
Calculating percent yield and analyzing energy efficiency in thermal separation processes.
A case study on the industrial application of fractional distillation in the petrochemical industry, focusing on temperature gradients.
Exploring the separation of miscible liquids with similar boiling points using fractional distillation and vapor-liquid equilibrium.
A workshop-style lesson where students assemble a distillation apparatus to separate pure water from a saltwater solution.
Students distinguish between evaporation and boiling through a hands-on lab recovering dissolved solids, focusing on mass conservation.
Students examine modern alternatives to thermal distillation, specifically reverse osmosis. They explore the physics of osmotic pressure and membrane selectivity in solving global water shortages.
This lesson focuses on separating solids from liquid solutions through evaporation. Students study the kinetics of crystal formation and the energy required to drive off the solvent.
Students compare simple and fractional distillation, focusing on the role of surface area in the fractionating column. They analyze temperature-composition graphs to determine the theoretical number of plates needed for high purity.
Learners investigate the relationship between temperature and vapor pressure in mixtures. They use Raoult’s Law to calculate the partial pressures of components in a volatile mixture.
Students review the physics of solvation, examining how polarity and intermolecular forces create homogeneous mixtures. They predict solubility based on molecular structure and calculate concentration metrics.
Students identify solutions in their everyday environment to apply their new knowledge.
Students explore the limits of solubility by finding the saturation point of a salt solution.
Students conduct a fair test to see how water temperature affects the speed of dissolving.
Students test various kitchen and garden substances to categorize them as soluble or insoluble.
Students observe sand and salt in water to define 'dissolving' and discuss why some substances seem to vanish.
Apply chromatographic data to quantitative analysis using external and internal standards to determine analyte concentration in complex mixtures.
Compare Gas and Liquid Chromatography instrumentation, including separation mechanisms, temperature/solvent programming, and detector selection.
Analyze the chemical interactions between analytes and phases, focusing on normal vs. reverse phase systems and solvent selection via the eluotropic series.
Quantify separation quality using the concepts of theoretical plates and the Van Deemter equation to optimize column efficiency and resolution.
A 90-minute chemistry lab focused on the precipitation reaction between copper (II) chloride and sodium hydroxide, featuring a complete lab guide and instructional slides.
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.
Students become 'Label Detectives' as they analyze nutrition labels to bridge the gap between everyday food items and the biological macromolecules (Lipids, Carbohydrates, and Proteins) that sustain life. This lesson uses a high-energy introductory video to frame chemistry as the foundation of biology.
A 1st Grade science lesson focusing on classification skills through sorting objects by material, size, and shape, featuring a video-based vocabulary introduction and a 'Triple Sort' hands-on challenge.
Students investigate the differences between Particulate Matter and Volatile Organic Compounds (VOCs) by analyzing common household and industrial sources through a movement-based activity and a video case study.
An 8th-grade science lesson exploring Volatile Organic Compounds (VOCs) in household cleaners, featuring a label investigation and a DIY natural alternative marketing project.
A hands-on science and engineering lesson where 1st graders distinguish between objects and materials by designing their own 'silly' inventions. Students watch a guided video and then complete a blueprint patent form for their new creation.
A foundational science lesson for Kindergarten students to distinguish between 'objects' and 'materials' (wood, metal, plastic) through tactile exploration, video analysis, and a classroom scavenger hunt.
A lesson where students explore the economic and industrial importance of minerals by researching chemical properties and creating 'Wanted' posters for minerals like quartz, graphite, and gypsum.
Students investigate the role of preservatives and allergies in food science, focusing on the difference between natural and golden raisins through a "Label Detective" activity.
Students will investigate the lifecycle of mineral extraction, from the physical destruction of surface mining to the global complexities of E-waste, and brainstorm innovative solutions using biological and chemical recycling methods.
A high school lesson exploring the chemical weathering of limestone, the formation of karst topography, and the broader impact of rock weathering on global climate systems. Students observe acid reactions, watch a video on carbonation, and model sinkhole formation in a lab.
A hands-on science lesson exploring Karst topography in the Adriatic region. Students use sugar cube models to simulate how water dissolves limestone to create sinkholes, caves, and the stunning landscapes of Croatia's Plitvice Lakes.
A 2nd-3rd grade science lesson exploring how oxygen is dissolved in water, featuring an observation experiment and a video analysis of how fish use gills to breathe.
A hands-on chemistry lesson where 6th-grade students use particle models to visualize the differences between solutions, suspensions, and immiscible liquids through observation and drawing.
Students investigate the properties of matter by testing which substances dissolve in water to form solutions and which remain visible as suspensions. The lesson features a hands-on 'Kitchen Chemists' lab and a video experiment walkthrough from the Lighthouse Lab.
A 5th-grade science lesson exploring mixtures, solutions, suspensions, and immiscible liquids through experiments and real-world classification. Students watch a 'Lighthouse Lab' video to observe scientific interactions and apply their knowledge to categorize everyday substances.
Students investigate the properties of immiscible liquids through an environmental engineering challenge where they must design a method to clean up a simulated oil spill using various tools and materials.
A 4th-grade science lesson exploring the properties of matter through a virtual lab. Students use the scientific method to predict and observe how different substances mix with water, learning about solutions, suspensions, and immiscible liquids.
A hands-on chemistry lesson where students explore dissolving and evaporation by creating salt paintings on black paper. Students learn to identify solutes, solvents, and solutions through a combination of live demonstrations, video analysis, and artistic experimentation.
Students explore the separation of mixtures through evaporation, using particle models to demonstrate the conservation of matter and understanding the roles of solute and solvent.
A 5th-grade science lesson focused on using correct scientific terminology (solute, solvent, solution, evaporation) to explain physical changes and the separation of mixtures. Students will watch an interactive video and write a script for a sugar-water separation process.
Students will dive into the chemistry of mixtures by defining and identifying solutes, solvents, and solutions through a video-guided lesson and hands-on station rotations.
Students investigate how to separate a complex mixture of dirt, salt, and water using filtration and evaporation. This lesson includes a video-guided explanation of solutions and a hands-on planning activity for 5th-grade scientists.
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 hands-on chemistry lesson for 1st and 2nd graders to investigate how different substances interact with water, focusing on the concept of dissolving and why soap is necessary for cleaning.
An introductory physics lesson exploring the Heisenberg Uncertainty Principle and quantization through real-world analogies, peer-teaching, and visual modeling.
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 high school chemistry lesson exploring how quantized energy levels in atoms lead to unique emission spectra. Students compare continuous and discrete light sources, watch a video on quantum principles, and perform a spectroscopy lab using gas discharge tubes.
Students will apply mathematical concepts to calculate the absolute age of fossils using radioactive isotopes and half-lives. This lesson combines video analysis with a hands-on 'Fossil Case Files' problem-solving activity.
This lesson introduces high school chemistry students to the fundamental building blocks of the universe, distinguishing between Fermions (matter particles) and Bosons (force carriers) through a combination of video analysis, role-play analogies, and reflective writing.
A project-based look at the f-block elements and their indispensable role in modern electronics and smartphones.
Analyze the stability of Group 18 elements and their unique applications in modern technology and extreme environments.
Delve into the d-block to understand variable oxidation states, vibrant colors, and the role of d-orbitals in transition metal stability.
Investigate Group 17 nonmetals, focusing on their decreasing reactivity trends and shifting physical states from gas to solid.
Explore the extreme reactivity of Group 1 metals, correlating their behavior with ionization energy and atomic radius.
The sequence culminates in the application of spectroscopy to astrophysics. Students identify the chemical composition and movement of distant stars using spectral data.
Learners compare how matter absorbs and emits energy, applying Kirchhoff's Laws to understand the production of different spectral types.
Students quantitatively link spectral lines to electron transitions using the Bohr model and Rydberg equation. This connects physical observations to mathematical models of the atom.
Through flame tests and line spectra analysis, students observe that elements emit specific wavelengths of light. This provides the primary evidence for quantized atomic energy levels.
Students review wave properties and the particle nature of light to calculate photon energy. This establishes the fundamental relationship between color, frequency, and energy needed for atomic physics.
Students synthesize their skills to identify elements based on their electron configuration termination and define the layout of the periodic table into s, p, d, and f blocks.
This lesson focuses on the outermost electron shell, determining valence counts for main group elements and representing them using Lewis dot diagrams.
Students investigate the chemical relationship between photosynthesis and biomass accumulation by calculating the atomic mass of reactants and products in the photosynthesis equation. They will debunk the misconception that plants 'eat' soil and instead understand that wood is literally 'thin air' turned into solid carbon.
Students will use addition and subtraction to prove the Law of Conservation of Mass. Through a LEGO-inspired model and real-world scenarios, they will calculate reactant and product masses in both open and closed systems.
A hands-on biology lesson where 6th-grade students use Lego bricks or beads to model the chemical transformation of photosynthesis, moving from carbon dioxide and water to glucose and oxygen.
A 6th-grade science lesson exploring the chemical process of photosynthesis. Students identify inputs and outputs, analyze the balanced chemical equation, and create a visual representation of how plants transform light energy into chemical energy.
A hands-on chemistry lesson where students investigate how the amount of vinegar (reactant) affects the size of a balloon (product) through a chemical reaction.
Students investigate the conservation of mass and the nature of reversible and irreversible changes by making playdough and comparing it to a simple mixture.
Students master multi-step dimensional analysis by visualizing the 'path' of unit conversions. Using real-world scenarios and the 'Cupcake Dilemma,' students learn to chain conversion factors to solve complex stoichiometry-style problems.
Students design a simple production line for a product of their choice. They create a poster showing the required inputs (reactants) and the final output, ensuring the counts match.
Students analyze a scenario where a factory has 'missing' parts at the end of the day. They must track the inputs and outputs to investigate where the matter went, reinforcing conservation.
Given a specific pile of parts (e.g., 4 wheels, 1 body, 1 steering wheel), students predict exactly what object can be made and if anything will be left over. They draw the predicted result.
Students draw 'factory maps' showing parts entering a machine and a finished product leaving. They practice drawing arrows to represent the flow of the process (the reaction arrow).
A final simulation where students apply their knowledge of inputs, outputs, and scaling to run a successful class bakery.
Students transition from words to symbols, creating their own 'equations' for snack mixes and trading them with peers.
Students investigate what happens when they have uneven amounts of ingredients, learning the concept of limiting reagents in a kitchen context.
Students practice scaling up formulas to meet larger demands, introducing the concept of coefficients through repeated addition.
Students learn to follow a strict formula for building sandwiches, establishing the idea that specific inputs are required for a specific output.
A middle school science lesson exploring how the chemical properties of magma—specifically viscosity—dictate the physical shape and explosivity of volcanoes, comparing Hawaii's shield volcanoes to Mount Rainier's stratovolcano structure.
A hands-on science lesson where students explore surface tension through the 'Surface Tension Olympics,' using a bubble-themed video to explain why water sticks together like tiny magnets.
A playful science and mindfulness lesson for Pre-K and Kindergarten students focused on breath control and observation through the magic of bubbles. Students learn the physics of why bubbles are round and practice the art of gentle 'Dragon Breaths' to create them.
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 explore the properties of oil and water through a 'Lava Lamp' experiment, learning about particle behavior and the concept of mixtures while discovering why oil and water don't mix naturally.
Students practice scientific inquiry by generating 'how it works' questions about everyday phenomena, inspired by a video about how soap and water clean our bodies.
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 10th-grade chemistry lesson exploring the relationship between the Latent Heat of Vaporization, intermolecular forces, and evaporative cooling through a hands-on lab and video analysis.
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 comprehensive lesson where 5th-grade students explore the unique water cycle of Antarctica, focusing on the concept of sublimation through a virtual field trip and a creative storyboard activity.
A hands-on introduction to solids and liquids using ice, water, and the science of making glass (and candy hearts) to show how heat causes phase changes.
A hands-on science lesson for Kindergarten and 1st Grade students exploring water vapor and condensation through breathing on mirrors and watching a video about jet trails. Students discover that invisible vapor in their breath turns into visible liquid when it hits a cool surface.
Students explore how waxy cuticles serve as an evolutionary adaptation for plants to regulate water loss, featuring a comparative leaf transpiration lab and a deep dive into lipid chemistry.
A hands-on exploration of water cohesion where students test how many drops of water fit on a penny and learn why water molecules 'stick' together.
Students explore the relationship between atmospheric pressure, altitude, and boiling points by creating a travel guide for a water molecule visiting extreme environments.
A high school environmental science lesson exploring how human activities like pollution and tourism accelerate natural weathering processes, featuring a deep dive into cave ecosystems and the preservation of global landmarks.
A High School General Science lesson exploring chemical weathering through oxidation and carbonation, focusing on how these processes shape the Earth's surface and create intricate cave systems. Students engage in a creative narrative to trace the journey of an atom through the rock cycle.
A 7th-grade science lesson exploring chemical weathering through the 'Chalk Statue' experiment, focusing on how acid rain and carbonic acid transform limestone landscapes and historical monuments.
A 5th-grade science lesson where students explore chemical changes by dissolving eggshells in vinegar. This lesson combines chemistry (acid-base reactions) with biology (modeling cell membranes).
Students investigate the microscopic science of yogurt production, identifying how beneficial bacteria transform liquid milk into a thick, tangy snack through a chemical change. The lesson features a video-led discussion, a sequencing activity, and a reflection on the role of lactic acid.
A 2nd-grade science lesson connecting chemistry (acids and oxidation) to dental health (enamel and cavities) using a penny-cleaning experiment as a real-world hook.
A hands-on introductory science lesson for 1st graders where they investigate which household liquids can clean a dull penny, learning the basics of the scientific method (Ask, Guess, Do, Observe).
A hands-on chemistry lesson where students explore the properties of acids by predicting and testing which common household liquids can dissolve copper oxide from dull pennies.
Students investigate why ketchup cleans pennies, focusing on copper oxide and acids. They will practice forming hypotheses and understanding variables through a 'Mustard Mystery' extension.
A hands-on chemistry lesson where students use acids to remove copper oxide from dull pennies, exploring how chemical reactions change the properties of matter.
A high school environmental science lesson exploring the chemical transitions of primary pollutants into secondary pollutants, specifically acid rain and ground-level ozone. Students create visual storyboards to track the journey of pollutants from emission to impact.
A lesson exploring secondary air pollution through the lens of acid rain and its impact on stone structures and ecosystems. Students perform a simulation using chalk and vinegar to understand chemical weathering and propose preservation strategies.
Students use the 'Pollution Cake' analogy to distinguish between primary and secondary pollutants, exploring how 'ingredients' like VOCs and NOx react with 'heat' to create harmful 'cakes' like ozone and acid rain.
A 5th-grade science lesson where students explore the chemical properties of acids and bases through observation, video analysis, and a hands-on litmus paper experiment.
A hands-on chemistry lesson where students test everyday substances using litmus paper to create a collaborative 'pH Rainbow' wall display. Students learn to classify acids and bases through observation and data recording.
A 3rd-grade science lesson introducing acids and bases through observable color changes. Students use litmus paper concepts to categorize household substances like lemon juice and baking soda.
Students explore chemical reactions and pH indicators through a virtual lab observation and report, using household substances to differentiate between acids and bases.
Students explore the pace of evolutionary change through fossil evidence, comparing gradualism and punctuated equilibrium while analyzing multiple lines of evidence for evolution.
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.
Students investigate the 'Acorn Mystery' to discover where plant mass comes from, watch a video on chloroplast function, and participate in a hands-on modeling activity to balance the photosynthesis equation.
Students will learn to visualize chemical formulas by distinguishing between subscripts and coefficients. Through a hands-on drawing activity called 'Formula Detective,' they will model molecules like glucose and methane using specific color codes.
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 6th-grade science lesson where students explore photosynthesis as a chemical reaction. They use molecular models (marshmallows or clay) to visualize how atoms in carbon dioxide and water are rearranged into glucose and oxygen using light energy.
A 5th-grade science lesson exploring the Law of Conservation of Mass through a high-energy music video, a hands-on glow stick experiment, and atomic diagramming. Students will investigate how matter transforms during chemical reactions without disappearing.
A 5th-grade exploration into the conservation of matter through a chemical reaction. Students observe the classic vinegar and baking soda reaction, then model the rearrangement of particles to understand that the resulting gas was created from atoms already present in the reactants.
This lesson explores the essential role of water in biological systems, specifically connecting its physical properties (cohesion, adhesion) to its chemical role as a reactant and product in photosynthesis and cellular respiration. Students will trace a water molecule's journey through the biosphere, distinguishing between phase changes and chemical transformations.
A 5th-grade science lesson exploring the conservation of matter through a chemical reaction between antacid tablets and water, featuring a 'Bag in a Bottle' experiment.
A 6th-grade science lesson focused on the Law of Conservation of Mass, where students use math to solve for unknown masses in chemical and physical changes. Includes a video-based hook, interactive slides, and a math-focused worksheet.
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.
Students investigate the chemical and physical environmental impacts of human activity in Latin America, focusing on mercury toxicity, urban subsidence, and deforestation. They transition from identifying cause-and-effect patterns to engineering theoretical solutions for real-world environmental crises.
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.
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 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.
This lesson explores the essential connection between biology and chemistry, challenging students to argue why chemistry is fundamental to understanding life sciences, specifically in the context of marine biology.
A hands-on science lesson for 2nd graders exploring how temperature influences the speed of dissolving through a 'Dissolving Race' experiment and a kitchen-science video.
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.
Students will master the six steps of the scientific method by designing their own experiment to test how water temperature affects the dissolution rate of antacid tablets, focusing on variables and repeatability.
Students explore thermal energy and diffusion through a food coloring experiment, using the Kinetic Molecular Theory to explain how particle velocity and collision force change with temperature.
A hands-on inquiry lesson where 7th-grade students investigate how thermal energy and particle motion drive the process of diffusion, using food coloring as a visual tracker.
An integrated Art and Science lesson where elementary students explore how thermal energy affects color mixing by observing liquid watercolors in different temperatures of water.
A hands-on chemistry lesson for 1st and 2nd graders where they explore dissolving and crystallization through the lens of making rock candy. Students will watch a SciShow Kids video and conduct a 'Dissolving Detectives' experiment to see how temperature affects matter.
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.
A 3rd-grade science lesson investigating how temperature impacts the speed of dissolving through a colorful experiment with Skittles. Students compare the dissolving rates in ice water versus warm water to understand the role of heat energy.
A 6th-grade science lesson investigating how temperature and surface area influence the rate of weathering through a hands-on Alka-Seltzer experiment and video analysis.
A hands-on chemistry and earth science lesson where students model different types of volcanic eruptions using two chemical recipes to compare speed, viscosity, and reaction intensity.
A hands-on chemistry lesson where students investigate how temperature acts as energy to speed up or slow down chemical reactions using antacid tablets.
A hands-on chemistry lesson where students investigate the properties of mixtures and solutions using common household items and the 'Just Add Water' test.
A 9th-grade science lesson that bridges algebra and thermodynamics, teaching students how to calculate and interpret the average rate of change using cooling water data.
Students evaluate the impact of CFCs on the ozone layer through the lens of Mario Molina's scientific discovery, practicing critical reading and evidence-based debate to understand how science informs global policy.
Students apply their knowledge of the Law of Conservation of Mass to solve case studies involving "broken scales" and discrepancies in lab data.
Students set up an evaporation experiment to recover dissolved salt, proving that the salt remained in the system despite being invisible.
Students experiment with water temperature to see how it affects how quickly a solute dissolves, linking energy to particle movement.
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.
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.
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.
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 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.
Students explore how extreme pressure on Uranus transforms methane gas into diamond rain, demonstrating how pressure can change states of matter.
This lesson explores how the density of different gases impacts the speed of sound, frequency, and pitch. Students compare the 'chipmunk voice' created by helium with the deep voice created by sulfur hexafluoride to master the relationship between wave speed and perceived sound.
A fun, hands-on lesson for 1st-3rd grade students to explore solids, liquids, and gases using the exciting SciShow Kids soda geyser experiment. Students will observe the experiment, identify states of matter in the video, and categorize common items from the demonstration.
Students explore carbonation by observing bubbles in soda and conducting a 'Bubble Race' to see how different textures (smooth vs. bumpy) provide 'places to gather' for gas. The lesson includes a SciShow Kids video demonstration of the famous soda geyser and a hands-on experiment with various stirrers.
A detective-themed lesson where students investigate indoor air quality, identifying common pollutants like VOCs and particulate matter through a classroom audit activity.
A high-energy, kinesthetic lesson where students model atomic movement in solids, liquids, and gases to understand how heat energy affects the state of matter. Includes a video hook, a whole-body simulation game, and a final reflection.
This lesson covers the fundamental principles of Shielded Metal Arc Welding (SMAW), including equipment operation, safety protocols, and core welding techniques for beginners.
A forensic science lesson focused on fingerprinting collection and preservation, specifically designed to support 10th-grade English learners with TELPAS listening and speaking proficiency.
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 4th-grade science lesson focusing on the processes of evaporation and condensation through real-world examples, interactive video analysis, and a 'Condensation Detective' scavenger hunt.
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 the unique temperatures at which substances change states, identifying freezing, melting, and boiling points as physical properties through graphing and video analysis.
