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 30-minute engineering challenge where students build and test structures using six different material stations to understand earthquake stability.
Une leçon d'éveil sensoriel pour les élèves de maternelle, centrée sur la découverte des textures à travers le toucher. Les élèves apprennent à identifier et nommer les sensations : dur, mou, doux et piquant.
Students become lab investigators in this high-energy science lesson, testing unknown substances for magnetism, density, and solubility to reveal their hidden identities. This lesson covers 4th-grade physical properties of matter through hands-on exploration and collaborative investigation.
A hands-on indoor scavenger hunt where students analyze soil and glass evidence to solve a forensic mystery. Students identify unique characteristics like pH, texture, refractive index, and fracture patterns.
A hands-on science experiment exploring heat conduction using hot and cold chocolate milk with metal and plastic spoons. Designed specifically for high school students with intellectual disabilities with visual supports and simplified response formats.
A comprehensive guide for students participating in a STEM tower building challenge, focusing on structural engineering, recycled material innovation, and scientific explanation.
A hands-on chemistry session where students experiment with non-Newtonian fluids and acid-base reactions to create fizzing eruptions and gooey textures.
Students become engineers by designing a marble maze that incorporates simple machines like inclined planes and levers using cardboard and recyclables.
An introduction to aerodynamics and space travel where students design, build, and test various flight models using simple household items.
Students explore nature by building mini-ecosystems and learning about water purification using natural and recycled materials.
An outdoor-based physics lesson where high school students analyze energy transfer, friction, and momentum through real-world data collection and mathematical modeling in a courtyard setting.
A hands-on inquiry lesson where students use their senses to investigate objects, build descriptive vocabulary, and form scientific hypotheses about the unknown.
Students explore the relationship between electric current and magnetic fields by building electromagnets, modeling solenoid interactions, and calculating magnetic forces on wires. The lesson applies these concepts to electromagnetic induction in motors and generators.
Students will investigate the nature of magnetic forces and fields, explore magnetism at the atomic level, and apply mathematical models to calculate forces on moving charges. The lesson concludes with a comprehensive review game and study guide.
A lab-based lesson where students determine the densities of granite and basalt to understand the differences between continental and oceanic crust.
An exploration of Indigenous Canadian architecture through the lens of structural engineering, focusing on how different cultures adapted their shelters to local climates and available materials while managing forces like wind, snow, and gravity.
An engaging, hands-on lesson where students explore the physical properties of matter through a structured anchor chart, an interactive notebook foldable, and a real-world scavenger hunt.
Students design and build a STEM leprechaun trap inspired by 'How to Catch a Leprechaun', focusing on multi-step directions and problem-solving through the engineering design process.
Fifth-grade maestros perform advanced testing on conductivity, solubility, and mass to restore power to a science lab. Comprehensive STAAR review and engineering design.
Fourth-grade detectives classify matter using temperature, magnetism, and relative density to solve a water filtration mystery. Includes STAAR-aligned assessment questions.
A 3-hour collaborative STEM lesson where students build bridges (literally and figuratively) to get to know one another. Includes stations, a main engineering challenge, and reflection components.
5th Grade students optimize their designs for efficiency, calculating load-to-weight ratios and managing material constraints. Focus on TEKS 5.11(A) and 5.13(A).
4th Grade students design structures to resist external forces like wind and gravity, applying their understanding of structural integrity. Focus on TEKS 4.11(A) and 4.13(B).
3rd Grade students investigate the strength of triangles and vertical stability to build the tallest tower possible. Focus on TEKS 3.11(A) and 3.13(B).
2nd Grade students apply knowledge of shapes to design a bridge that spans a gap, exploring concepts of pushes, pulls, and load distribution. Focus on TEKS 2.11(B) and 2.13(A).
1st Grade students explore how changing the shape of a material (paper) affects its physical properties and ability to support weight. Focus on TEKS 1.6(A) and 1.11(B).
Explores the dynamics of rotation, comparing linear force to torque, applying Newton's Second Law in angular form, and mastering the conditions for static equilibrium.
A comprehensive look at the parallels between linear and angular motion, focusing on variable relationships, kinematic equations, and real-world rolling applications.
A hands-on engineering lesson for 1st graders focused on the strength of triangles. Students explore why triangles are used in bridges and buildings through a 'squish test,' a video, and a local shape hunt.
Students will discover the power of triangles and pyramids in engineering, identifying stable shapes in famous buildings and their own environment through a 'Shape Detective' activity and a hands-on construction challenge.
Students explore the vital role of symmetry in engineering and design by watching a musical guide to 'Symmetry Land' and then building their own symmetrical amusement park rides. They will identify lines of symmetry in real-world objects and apply these concepts to ensure the 'safety' and balance of their own creations.
Application of lattice geometry to wave physics, deriving Bragg's Law and analyzing how X-ray diffraction patterns reveal the underlying symmetry and spacing of atomic planes.
Exploration of the Fourier transform of the real-space lattice into reciprocal space. Students learn the geometric derivation of reciprocal vectors and the significance of the Brillouin zone.
Introduction to the Miller Index notation for identifying planes and directions within a crystal. Students bridge the gap between 3D visual geometry and formal vector notation.
A quantitative analysis of how spheres pack in three dimensions, focusing on FCC, BCC, and HCP structures. Students calculate packing fractions and explore the geometric constraints of interstitial voids.
Students define and classify the 14 Bravais lattices and 7 crystal systems based on symmetry operations and unit cell parameters. The lesson focuses on 3D spatial visualization and the fundamental translation vectors that define a crystal.
Students apply geometric classification to predict allowed and forbidden transitions in spectroscopy using character tables and symmetry integrals.
Moving to continuous geometry, students explore the link between spatial translation/rotation and momentum/angular momentum conservation using Lagrangian mechanics.
Students translate geometric operations into linear algebra, creating transformation matrices for rotations and reflections and bridging visual understanding with computational formalism.
Focusing on molecular geometry, students learn to classify 3D structures into specific point groups using Schoenflies notation through systematic flow-chart analysis.
A focused review lesson on graphing independent and dependent variables, the constant pull of gravity, and the fundamental laws of magnetism.
A high-energy science lesson where students explore the five forms of energy (heat, electrical, light, sound, and magnetic) through a collaborative board game and interactive presentation.
A comprehensive slide presentation to guide the class through the end-of-year science review mission.
Review of Earth's water distribution, human impact on the environment, and engineering solutions.
Review of the Sun, stars, gravity, and the interactions between Earth's four major systems.
Review of energy flow in ecosystems, food webs, and the role of decomposers and photosynthesis.
Review of matter properties, chemical vs physical changes, and the conservation of mass.
A comprehensive lesson on magnetic forces, including a high-impact infographic summary and a practice worksheet covering Lorentz force, motors, and electromagnetic induction.
A comprehensive lesson on inductors and RL circuits for AP Physics C, covering differential equations, current build-up and decay, and the physical principles of self-inductance.
A deep dive into electromagnetic induction, focusing on the calculus-based derivations of Faraday's Law and the conceptual application of Lenz's Law for AP Physics C students.
A comprehensive dive into magnetic flux using calculus-based definitions, exploring Faraday's Law and its applications in varying magnetic environments.
A complete lesson on magnetism featuring an informational reading passage and a comprehension quiz designed to mirror standardized testing formats.
A comprehensive lesson exploring the three primary states of matter (solid, liquid, gas) and their physical properties, designed for 6th-grade students. Includes visual aids, guided note-taking, and teacher-led instruction.
A calculus-based exploration of the Biot-Savart Law, focusing on the derivation and calculation of magnetic fields from various current-carrying geometries. Students will compare magnetic fields to electric fields and master the integration techniques required for AP Physics C.
A hands-on laboratory investigation where students explore how varying wire coils, voltage, and core materials affect the strength of an electromagnet.
A comprehensive lesson on calculating the forces and torque acting on a rectangular current-carrying loop within a uniform magnetic field. Students will master the Right-Hand Rule and the torque equation through visual derivations and practice problems.
A comprehensive 60-minute physics lesson exploring the atomic origins of magnetism and the mathematical modeling of magnetic forces on moving charges. Students will transition from microscopic domains to macroscopic force calculations using the Lorentz force law and right-hand rules.
Students investigate the physical properties of mixtures and solutions, exploring how different substances can be combined and separated using methods like filtration, magnetism, and evaporation while maintaining their original identities.
A geography-focused science lesson identifying different types of landforms and bodies of water on Earth.
Students explore the concept of Earth's rotation through the visible patterns of day and night.
An introduction to the states of matter by observing how water changes from liquid to solid.
A basic physics lesson on force, teaching students about pushes and pulls using everyday objects.
Students identify the four seasons and the primary environmental changes associated with each.
An exploration of dynamic weather elements like wind and precipitation and their effects.
A look at basic weather patterns, focusing on the characteristics of sunny and cloudy days.
Students explore the stages of a frog's life cycle, from eggs in the water to a jumping adult.
An introduction to metamorphosis as students follow a caterpillar's transformation into a butterfly.
Students learn about the plant life cycle using a sunflower as a model, focusing on the stages from seed to flower.
A lesson exploring the properties of the atmosphere using My Little Pony (G4) characters to explain complex weather concepts like humidity, dew point, and latent heat through visual metaphors.
An introductory lesson on digital printing technologies, covering the mechanics of inkjet, laser, large format, and sublimation printing. Students will learn the pros, cons, and specific use cases for each method.
A comprehensive 5th-grade NGSS science review covering Physical Science (matter), Life Science (ecosystems), and Earth Science (the water cycle and Earth's systems) through reading passages and mixed review questions.
A comprehensive review of the states of matter and phase changes designed for diverse learners, featuring simplified text, visual aids, and structured graphic organizers.
A hands-on exploration of colonial food preservation and the science of phase changes through butter making. Students learn about the effort required for daily colonial tasks while transforming heavy cream into butter using jars.
A comprehensive science review packet covering matter, its interactions, and space systems designed for independent student work.
An introductory lesson for Pre-K students to explore the three states of water (solid, liquid, and gas) through hands-on manipulatives, sensory play, and creative activities.
A comprehensive diagnostic assessment designed to evaluate 9th-grade students' understanding of physical and chemical properties, states of matter, and density calculations.
A foundational lesson for 4th grade students exploring the properties of matter and the three states: solid, liquid, and gas. Students will engage with a detailed informational text and use guided notes to solidify their understanding.
A comprehensive lesson on graphing and interpreting heating and cooling curves, focusing on phase changes and energy transfers.
A comprehensive STEM project choice unit designed for 7th-grade students to explore various scientific and engineering topics through self-directed learning and creative output.
Review of the brightness of stars, gravity, and the patterns caused by Earth's orbit and rotation.
Review of Earth's four spheres, the water cycle, and human impact on the environment.
Review of energy flow in ecosystems, photosynthesis, food webs, and the role of decomposers.
Review of matter, its properties, physical and chemical changes, and the conservation of mass.
Students take on the role of environmental engineers to design, build, and test water filtration systems. They integrate mathematical modeling by calculating flow rates and volume capacities while exploring the science of water purification.
A hands-on science lesson exploring density and chemical reactions through the creation of a DIY lava lamp. Students will learn why oil and water don't mix and how gas bubbles transport liquids.
A comprehensive lab manual covering water filtration, energy efficiency, genetics, and ecosystem dynamics through hands-on projects and real-world audits.
A comprehensive ISA (Illinois Science Assessment) prep lesson for 5th grade, covering Physical, Earth/Space, and Life sciences through multiple-choice questions, data analysis, and CER writing.
In this lesson, students explore the science of mixtures and solutions by designing their own ice cream creations. They will identify states of matter, differentiate between solutions and mixtures, and apply the law of conservation of matter to their culinary experiments.
A comprehensive 5th grade science lesson on the properties and changes of matter, featuring hands-on stations, mixtures and solutions investigations, and STAAR-aligned assessment. Students explore physical properties, separation techniques, and state changes using the CER framework.
A high-energy, activity-dense lesson focused on Dalton's Law of Partial Pressures, mole fractions, and collecting gas over water, utilizing the POGIL framework to transition from conceptual modeling to mathematical mastery.
A hands-on exploration of physical properties where students investigate, create, and separate mixtures and solutions. Students will participate in whole-group demonstrations and small-group lab stations to master TEKS 4.5(B).
A culminating review session using station rotations, vocabulary card sorts, and the anchoring phenomenon to prepare for assessment.
A comprehensive 8th-grade review game covering major concepts in Social Studies, Math, and Science. Designed for classroom engagement and cumulative review.
An exploration of how atoms become charged particles. Students learn about valence electrons, the octet rule, cation and anion formation, and the energy required to remove electrons.
A journey through the organization of matter. Students explore atomic structure, periodic trends, and the unique properties of chemical families.
An investigation into the building blocks of life. Students compare plant and animal cells, identify organelle functions, and understand how cells maintain homeostasis.
A deep dive into Newton's three laws of motion. Students calculate force, mass, and acceleration while observing physics in everyday life through hands-on experiments.
Unlocking the secrets of DNA and inheritance. Students learn how traits are passed from parents to offspring using Punnett squares and pedigree analysis.
An exploration of the greenhouse effect, global warming, and the measurable impact of human activity on Earth's ecosystems. Students analyze data and design solutions for a more sustainable future.
Students investigate how distance affects electrostatic force, focusing on the inverse square relationship and developing the mathematical intuition for division in the formula.
Applying Coulomb's Law to explain atomic properties like atomic radius and ionization energy, connecting electrostatic forces to the periodic table.
A deep dive into the mathematical manipulation of Coulomb's Law, focusing on multiplying and dividing variables to predict changes in force.
Students explore the relationship between the magnitude of charges and the resulting electrostatic force, using qualitative observations and simple ratios.
A comprehensive Grade 8 Science lesson covering atoms, the periodic table, and chemical reactions, aligned with TEKS 8.5A-E. Features model-based instruction using Johnstone's triangle to prepare students for STAAR success.
A structured 15-day review program focusing on high-frequency TEKS including Matter, Force, Earth/Space, and Life Science.
Explores how plants and animals live together, food chains, and how they share energy in an ecosystem using simple 1st-grade level language.
Introduces energy sources like the sun, wind, and fossil fuels, and how we use them to power our world using simple language.
Introduces viruses, bacteria, and how to stay healthy using simple 1st-grade level language and high-visual support.
Introduces fossils, rock layers, and how the Earth has changed over time using simple 1st-grade level language and high-visual support.
Explores Earth's water, the water cycle, and how to keep our water clean using simple 1st-grade level language and high-visual support.
A comprehensive year-end science review for 5th grade designed as a high-energy Jeopardy-style game. This lesson covers matter, Earth systems, space, ecosystems, and scientific inquiry to prepare students for end-of-year assessments.
Students analyze their lab results and connect the findings to hazardous waste management and the importance of chemical safety protocols.
Students conduct an experiment mixing hydrogen peroxide and baking soda to observe chemical reactions and gas production, simulating pressure buildup in waste containers.
An investigation of Le Chatelier's Principle. Students apply external stresses—concentration and temperature changes—to the Iron(III) thiocyanate equilibrium system to observe, predict, and explain how a system at balance responds to change.
An introduction to reversible reactions and chemical equilibrium. Students use particle models and a pH-sensitive chemical indicator to visualize how reactions can occur in both directions and reach a point where forward and reverse rates are equal.
A creative science project where 4th-grade students research famous scientists and design 'Wanted' posters to showcase their discoveries as 'crimes against ignorance.'
A foundational lesson on physics calculations focusing on speed, force, and work using single-step formulas. Perfect for introducing quantitative science to middle schoolers.
This lesson explores the invisible forces of gravity and magnetism, while teaching students how to organize and visualize scientific observations through graphing. Students will learn to identify variables and create accurate line graphs from experimental data.
A comprehensive whole-group review session covering all major momentum concepts, from basic definitions to complex conservation scenarios and Newton's Third Law impacts.
Connecting Newton's Third Law to momentum and collisions, focusing on equal and opposite forces during impact.
Applying the law of conservation of momentum to various collision scenarios, including lab cart experiments and sports.
Exploring the differences between elastic and inelastic collisions, kinetic energy conservation, and real-world examples like billiards and car crashes.
Introduction to the momentum equation (p=mv), units, and the relationship between mass, velocity, and momentum.
Introduction to the Physics Frontiers research project, including topic selection, partner pairing, and the initial research phase. Students will establish their research focus and verify their sources with the instructor.
A conceptual introduction to momentum, Newton's 3rd Law, and conservation laws using car collisions as the primary model. Focused on qualitative understanding and simple single-step math.
A culminating synthesis project where students act as safety engineering consultants. Using a jigsaw approach, students analyze lab data, force-sensor graphs, fatality statistics, and momentum models to reconstruct a multi-vehicle collision and recommend safety improvements.
A lesson that connects experimental lab data to the formal physics of momentum, impulse, and vehicle safety. Students analyze collision sensor data and fatality statistics to understand how mass and velocity dictate crash outcomes.
A series of independent modules covering mathematical models of reaction distance, braking forces, momentum conservation, and safety engineering.
A hands-on interactive session where students investigate the relationship between mass, speed, and impact force using ramps and sliding targets.
An optional enrichment lesson for students to investigate curriculum data through formal research and evidence-based argumentation, honoring scientific inquiry and rigorous data validation.
A high-energy physics lesson where students use marbles to explore how mass and speed affect energy transfer during collisions. Includes a guided lab, instructional slides, and a scenario-based matching game.
A comprehensive test preparation lesson for Grade 7 Science, specifically aligned to the Arkansas ATLAS assessment. It covers heredity, ecosystems, forces, and Earth's history through model-based reasoning and lab scenarios.
A lesson focused on the fundamental principles of motion, including key vocabulary and Newton's First Law. Students will demonstrate their understanding of forces, acceleration, and inertia.
A comprehensive exploration of angular momentum, torque relationships, and conservation principles for AP Physics 1 students.
A hands-on engineering challenge where students apply physics concepts like gravity, acceleration, and impact force to design and build a protective casing for an egg drop.
Une exploration approfondie de la mécanique classique, couvrant les ressorts, les mouvements circulaires, les oscillations et la conservation de l'énergie à travers des exercices de synthèse.
A comprehensive assessment covering the lunar cycle, orbital mechanics, and the relationship between the Earth, Moon, and Sun. Students will demonstrate their understanding through diagram labeling, matching, and short-answer responses.
A comprehensive research project where students explore physics concepts in space and radiation through visual-minimalist presentations. The project emphasizes deep understanding of content over text-heavy slides.
A comprehensive lesson covering Newton's Law of Universal Gravitation, gravitational field strength, and orbital mechanics, designed for AP Physics 1 students to master the inverse-square law and Kepler's Third Law.
An independent study unit exploring the relationships between the Earth, Moon, and Sun, covering rotation, revolution, moon phases, and gravity.
Reviewing the edge of the solar system and wrapping up. Reading: Figurative language and theme. Writing: Opinion writing on Pluto and best planetary destinations.
Focusing on the inner and outer planets. Math: Multiplication, division, and multi-step word problems. Writing: Informational planet report.
Focusing on the Moon. Math: Fractions (2, 3, 4, 6, 8). Writing: Informational report on Moon phases.
Focusing on the Sun. Math: Addition and subtraction with regrouping within 1000. Reading: Context clues.
Introduction to the review week focusing on Earth. Math: Area of rectangles and composite figures. Reading: Main idea and details.
A comprehensive test preparation lesson for Grade 8 students focused on key Arkansas ATLAS standards: physical science, life science, and Earth/space science.
In this lesson, students explore the predictable patterns of the moon's phases and how the gravitational pull of the moon and sun creates tides on Earth. Students will analyze tidal data from the North Carolina Outer Banks and model the relationship between lunar cycles and spring/neap tides.
A comprehensive lesson on the 28-day lunar cycle, exploring the eight primary moon phases and their relationship with Earth's tidal patterns (Spring and Neap tides). The lesson includes a detailed instructional diagram and a student-facing labeling and shading worksheet.
A high-level overview of the Wild Writing Adventure curriculum, including teacher guides, scope and sequence, and implementation strategies.
Explore the rocky shore to discover sight words while meeting starfish, crabs, and sea anemones in colorful tide pools.
Venture into the mysterious world of caves to master essential sight words while meeting bats, spiders, and salamanders.
Explore the leafy woodland forest to master essential sight words while meeting graceful deer, wise owls, and busy woodpeckers.
Squelch through the marshy wetlands to master descriptive sight words while spotting alligators, frogs, and dragonflies.
Climb to the highest peaks to master directional sight words while meeting mountain goats, eagles, and black bears.
An introductory science lesson on surface tension where students conduct a hands-on experiment at home using coins, water, and soap to observe how molecules stick together.
A high school lesson exploring the relationship between deuterium isotopes in ice cores and historical greenhouse gas levels to reconstruct past climates. Students analyze isotopic data to understand how scientists decode Earth's climate history from the deep freeze.
A comprehensive lesson connecting nuclear chemistry (isotopes) to climate science (greenhouse gases, ice cores, and carbon dating). Students explore how atomic mass influences molecular vibrations and how isotope ratios serve as ancient thermometers.
A high school chemistry lab investigating the emission spectra of metal ions through flame tests. Students explore the Bohr model of the atom and identify unknown metal salts based on their characteristic flame colors.
A chemistry-focused lesson framing flame tests as an ancient alchemical decoding challenge, focusing on atomic spectroscopy and logical inference.
A lesson exploring the components of our solar system, focusing on reading comprehension, sequencing, and identifying key details from informational text.
Students explore the fundamental building blocks of matter through a blueprint-style exploration of atomic structure. They learn about subatomic particles and the forces that hold them together.
Explores the scientific goals of the Artemis missions, including lunar geology, the search for water ice, and using the Moon as a stepping stone for deep space exploration.
Focuses on the Artemis II mission's role in driving technological advancements that benefit life on Earth, from water purification to advanced materials.
A comprehensive introduction to radiometric dating, explaining how scientists use radioactive isotopes to determine the absolute age of rocks and fossils, and comparing it to relative dating methods.
Explore the fundamental concepts of nuclear energy—fission, fusion, half-life, and radioisotopes—through the narrative lens of a curious student named Newton.
A data-driven investigation where students use radiometric dating techniques to determine the absolute age of an Archaeopteryx fossil. Students analyze isotope ratios, calculate half-lives, and interpret decay curves to solve a geologic mystery.
A lesson on absolute age dating using radioactive isotopes, featuring Twilight Sparkle as a guide to understanding half-lives, decay curves, and isotope selection.
A comprehensive look at nuclear chemistry, covering the three main types of radioactive decay, the energetics of fission and fusion, and the mathematics of half-life.
A comprehensive Grade 8 science lesson exploring renewable and nonrenewable energy sources with a specific focus on North Carolina's energy production, environmental impacts, and future goals. Students analyze real-world data and evaluate the pros and cons of different energy technologies.
A comprehensive introduction to nuclear physics, focusing on the processes of fission and fusion, radioactive decay, and the fundamental components of the atom.
A comprehensive lesson exploring the subatomic structure of the nucleus, the balancing act of the strong force, and the resulting phenomena of radioactivity. Students learn why the nucleus stays together despite intense repulsion and what happens when that balance shifts.
An introductory lesson on Carbon-14 dating for 9th-grade science, covering isotopes, radioactive decay, and calculating the age of organic remains.
A foundational lesson on the geometry of motion, covering position, distance, displacement, and frames of reference for AP Physics 1.
A comprehensive introduction to the fundamentals of one-dimensional kinematics, covering position, displacement, speed, and velocity through various representational models.
Une évaluation complète sur les interactions et les forces pour le niveau 4ème, incluant des diagrammes objets-interactions et des tracés de vecteurs.
A high-energy lesson for 8th graders on the mechanics, strategies, and rhythm-based physics of Geometry Dash. Students will learn about game modes, timing mastery, and the importance of practice mode.
A comprehensive lesson on Newton's Three Laws of Motion, focusing on force diagrams, net force calculations, and real-world applications aligned to NC Grade 8 Science standards.
Mesurer l'intensité d'une force à l'aide d'un dynamomètre et comprendre l'unité de mesure, le Newton.
Apprendre à modéliser une action mécanique par une force, représentée par un vecteur (segment fléché) avec ses quatre caractéristiques.
Introduction aux concepts d'action mécanique et d'interaction, en distinguant les actions de contact et à distance.
A Star Wars-themed STEM lesson for 6th graders featuring high-impact, novel experiments. Students master the 'Dark Side' through optical invisibility (refraction index matching) and Force-sensitive magnetic slime (chemical polymerization).
A comprehensive lesson exploring the mechanics of chemical reactions, including collision theory, energy diagrams, and the factors that influence reaction rates. Students will learn to visualize and calculate energy changes while conducting a hands-on investigation.
An inquiry-based exploration of mechanical waves using Slinkys and water to discover the relationships between frequency, wavelength, and wave behavior.
In this lesson, students explore the physical and chemical properties of matter through two detailed informational passages. They will practice identifying main ideas, citing evidence, and mastering scientific vocabulary.
An interdisciplinary capstone project where students synthesize concepts from AP Physics 1, AP Physics 2, and AP Calculus BC into a comprehensive research poster. Students will model complex phenomena using advanced mathematical techniques and multi-disciplinary physics frameworks.
Explore the layers of the atmosphere and how heat moves through Equestria with the help of the Mane Six. This lesson covers atmospheric layers and thermal energy transfer using simplified language and visual symbols.
A lesson exploring the science of how ice cools water through the transfer of thermal energy. Students will learn that heat moves from warm to cold, dispelling the common myth that 'cold' moves into the water.
Explores global circulation patterns in the atmosphere and oceans driven by unequal heating and Earth's rotation, culminating in a modified unit assessment.
Focuses on how air masses and pressure changes create weather patterns, featuring hands-on observation of cloud formation.
Students explore how the sun's energy and gravity drive the movement of water through the Earth's systems using a field-journal style approach.
A quantitative investigation into latent heat. Students use calorimetry data to calculate the enthalpy of fusion for ice and model the molecular-level energy transitions that occur during phase change plateaus.
A high-energy, station-based lesson where students investigate the thermodynamics of phase changes. Students analyze intermolecular forces to explain why melting is endothermic and freezing is exothermic, using evidence from heating curves and molecular models.
An Earth Day engineering challenge where 3rd graders design, build, and test solar ovens to explore renewable energy and heat transfer. Students apply the engineering design process to harness solar radiation for cooking simple snacks.
A deep dive into Bernoulli's Principle and fluid dynamics, focusing on the conservation of energy within moving fluids and its real-world applications in engineering and nature.
A high-stakes chemistry lab where students design and test modifications to a coke-can calorimeter to maximize heat transfer efficiency from a spirit lamp. Students explore thermodynamics, combustion, and experimental design.
Students investigate the urban heat island effect through the lens of Camden, NJ, exploring how surface materials and lack of vegetation impact local temperatures and designing sustainable cooling solutions.
An investigation into how ocean currents distribute heat and regulate the climate of our planet.
Students discover the additive nature of enthalpy through a hands-on chemical puzzle, using Hess's Law to calculate enthalpy changes for complex reactions using multiple intermediate steps.
A comprehensive guide to soldering copper pipe with a focus on neatness, precision, and the professional 'wiped' finish. Students learn the step-by-step process from preparation to the final clean joint.
A deep dive into the engineering and physics of the Orion capsule's return to Earth, focusing on heat management, skip-entry maneuvers, and the multi-stage parachute sequence.
A comprehensive introduction to how telescopes work, their history, and the famous ones that help us see deep into space. Students will explore different types of telescopes through a massive research quest.
An introductory exploration into how telescopes work, the history of their invention by Galileo and Newton, and the practical steps for observing the night sky.
A series of reading passages and comprehension activities exploring how telescopes work, the differences between famous space telescopes, and the astronomers who changed our view of the universe.
Students learn the fundamentals of microscopy by investigating the letter 'e', practicing slide preparation, and mastering magnification calculations. This lesson covers microscope parts, safety, wet mount preparation, and scientific drawing.
A discovery of the visible spectrum, rainbow colors, and a final unit quiz to celebrate learning.
Students investigate how light bounces off mirrors and how objects block light to create shadows.
An exploration of how light travels in straight lines and what happens when those beams are interrupted.
Students identify and differentiate between natural and artificial light sources using high-contrast visuals and sorting activities.
An engaging, image-based digital scavenger hunt where students solve a forensic mystery using glass evidence concepts like fracture patterns, density, and refractive index.
An immersive forensic science lesson where students analyze glass evidence across multiple stations, focusing on physical properties, fracture patterns, and laboratory analysis techniques.
A cross-curricular lesson for 9th-10th grade exploring the intersection of Physics and Geometry through reflection, refraction, and ray tracing. Students apply Snell's Law and geometric proofs to understand how light behaves.
A comprehensive lesson exploring why Australia receives high levels of UV radiation, focusing on ozone depletion and the interaction between light and matter. Students analyze data, practice constructing scientific explanations, and explore the biological impact of UV light.
Fifth graders explore light properties (reflection and refraction) and demonstrate complex energy transformations within electrical systems.
Fourth graders investigate electrical energy, constructing closed paths to power lights and testing materials for conductivity. Includes STAAR-aligned energy transfer activities.
Third graders identify and classify different forms of energy (light, sound, thermal, mechanical) and build a balloon-powered vehicle to explore mechanical motion.
Students explore how sound is created through vibrations and design a communication device to solve a real-world distance challenge. Grades 1-2 focused.
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.
A practical introduction to electrical circuits for shop students, focusing on the fundamental differences between series and parallel configurations and their real-world applications in wiring.
A 5-block (10 period) investigation into the human genome, focusing on patterns of inheritance, chromosomal disorders, and molecular biotechnology through the lens of polydactyly.
A creative engineering project where students design and build a game that incorporates functional series and parallel circuits, applying principles of Ohm's Law and electric power.
An 11th-grade chemistry engineering challenge where students design, build, and optimize salt-water powered vehicles to master redox reactions and circuit completion.
An introductory lesson focused on the fundamental principles of circuits, including component identification and the application of Ohm's Law.
A low-stress introduction to circuit components and configurations through a creative coloring activity. Students identify symbols and differentiate between series and parallel circuits to unlock a color-coded blueprint.
Students master the National Electrical Code (NEC) requirements for outlet box fill, calculating volume allowances for conductors, clamps, and devices to ensure electrical safety and compliance.
Students apply combination circuit knowledge to design the electrical layout of a modern hair salon, balancing the high current demands of professional styling tools.
Students apply their knowledge of combination circuits and Ohm's Law to design a multi-room power plan for an industrial facility, balancing voltage requirements and current limits.
A comprehensive review and correction set for a Grade 12 (TSTI2D) Physics assessment covering AC power, power factors, and electrical transformers.
A test prep lesson focused on mastering North Carolina EOG science investigation questions, covering experimental design, data interpretation, and conclusion evaluation.
A comprehensive guide and practice set covering Ohm's Law, graphing V vs. I relationships, and calculating resistance and current in series and parallel circuits.
An all-in-one review session covering Life Science, Physical Science, Earth and Space Science, and Engineering Design for the 5th grade MCAS.
An introductory lesson on renewable and non-renewable energy resources, focusing on the science behind solar, wind, and hydroelectric power. Students will explore how these energy sources work and their impact on the environment.
This four-day lesson guides students through the physics of sound, focusing on pitch and wavelength. It features a teacher-led demonstration of vibrating strings/rulers and a high-interest scientific journal article designed for Lexile 600-800 readers.
Students apply their understanding of potential and kinetic energy to design and build a catapult (siege engine) using common household materials. They will test their designs for distance and accuracy while recording scientific data.
A lesson focused on interpreting distance-time graphs through creative storytelling and structured analysis. Students will translate visual data into narrative descriptions of motion, including constant speed, acceleration, and rest.
An exploration of life in America during World War II, focusing on how rationing, Victory Gardens, and community efforts supported the war from home.
Students explore the eight planets of our solar system, learning about their unique characteristics and the forces that keep them in orbit.
A foundational exploration of Earth's place in space, covering the Sun, gravity, atmosphere, and Earth's rotation through engaging true/false, matching, and multiple-choice questions.
Explores the diverse movement patterns of every vehicle and icon type in the game, from the classic Cube to the advanced Swing mode.
Focuses on the fundamental physics of the game, technical hardware considerations, and professional practice techniques to improve player performance.
A comprehensive lesson exploring the physics of sound resonance in open and closed pipes, focusing on harmonics, wave patterns, and mathematical relationships.
Explores Pythagoras' discovery of the mathematical foundations of music and how he extended this 'harmonic logic' to explain the order of the universe and the 'Music of the Spheres'.
Investigates the "Longitude Problem" and the scientific race to build the first accurate marine chronometers, focusing on the physics of oscillation, friction, and the relationship between time and space.
A 15-25 minute exploration into how ancient navigators used fixed points (the North Star) and the repeating patterns of the universe (microcosms, macrocosms, and symmetry) to navigate without modern technology.
This lesson explores advanced rotational dynamics, focusing on the application of Newton's Second Law for rotation to massive pulleys and rolling objects where static friction provides the necessary torque for rolling without slipping.
A comprehensive 60-minute lesson exploring the differences and mathematical relationships between translational and rotational kinetic energy, featuring guided reading, visual organizers, and problem-solving.
This lesson compares linear and angular motion through a multi-part reading assignment, including an informational article, a textbook excerpt, and a case study. Students will identify key formulas and physical principles.
Students will learn to track energy transformations in simple harmonic motion, understanding how kinetic and potential energy exchange while maintaining a constant total energy.
A comprehensive look at simple harmonic motion, focusing on the relationship between restoring forces and displacement, Hooke's law, and real-world oscillatory systems.
A comprehensive exploration of Simple Harmonic Motion, covering restoring forces, kinematic descriptions, and the conservation of mechanical energy in oscillating systems.
A comprehensive introduction to Simple Harmonic Motion, covering restoring forces, kinematics, and energy conservation in oscillating systems.
A series of high-energy, station-based team challenges where students use common classroom objects to solve complex problems through logical reasoning and collaboration.
A lesson exploring the physics of Hooke's Law and the mechanics of ideal springs. Students investigate the relationship between force, displacement, and stored energy in elastic systems.
A lesson focused on the properties of periodic motion, including frequency, period, and phase relationships in oscillators like pendulums and tuning forks.
A comprehensive assessment and reference set covering mechanical and electromagnetic waves, including mathematical calculations for frequency, period, and speed.
A hands-on, asynchronous observation lesson where students track the movement and size of shadows over the course of a single day to understand Earth's rotation and data collection.
This lesson explores the predictable behaviors of light and sound energy, focusing on how vibrations create sound and how light interacts with different surfaces. Students will identify key vocabulary through a crossword puzzle challenge.
A project-based lesson where students research a real-world application of sound or light waves and design an informative infographic. This lesson bridges physics concepts with visual communication skills.
A 4th-grade science and ELA integrated lesson for Level 3 ELLs focusing on energy transfer through reading comprehension and summarizing techniques, aligned with iLEARN standards.
An immersive hands-on investigation into the physics of sound where students build DIY instruments to explore vibrations, pitch, and volume. This lesson bridges sensory exploration with acoustic engineering principles.
A physical science and music integration lesson exploring how vibration and frequency create sound, culminating in an acoustic instrument design project. Students analyze the mechanics of pitch and resonance across different instrument families.
A cumulative review lesson where students synthesize their knowledge through a visual diary and choice board assessment.
Introduces pitch and frequency through interactive lab stations and a sorting activity comparing high and low pitch sounds.
Focuses on identifying where sound comes from and how it travels. Includes a printable board game and a visual choice board for identifying sound sources.
Students explore how sound is created through vibrations and how the amount of energy changes volume. Includes hands-on lab stations and a volume sorting activity.
Students explore the anatomy of the ear and the physics of sound waves to understand how noise impacts their health and focus. The lesson includes hands-on noise monitoring and the development of protective strategies for auditory well-being.
In this lesson, students explore the relationship between wavelength and pitch. They learn that short, compressed waves create high-pitched sounds, while long, stretched waves create low-pitched sounds, distinguishing pitch from volume.
A hands-on exploration of the physics of color, focusing on additive light mixing and subtractive pigment mixing through experimentation.
A hands-on lesson exploring how sound waves carry patterns to transfer information over distances, aligned with Indiana 4-PS4-3. Students will learn the basics of sound properties and then design their own sonic codes.
A comprehensive exploration of wave physics, covering mechanical and electromagnetic waves, their properties, and the full electromagnetic spectrum through hands-on labs and EOG-style assessment.
Students explore the properties of light and sound, focusing on how they travel, reflect, and are absorbed. The lesson includes hands-on experiments to compare these two forms of energy and understand their wave-like nature.
An integrated Physics-Biology lesson for Grade 11 students exploring sound intensity, frequency, and hearing health through the context of airport noise exposure. Students investigate the auditory system and the risks of high-intensity sound levels.
A 55-minute integrated Science lesson (Physics/Biology) focusing on sound intensity, frequency, and hearing health within the context of an airport worker's exposure. Students analyze documents in French to solve a real-world safety challenge.
Final assessment of the unit through a formal quiz and the final evaluation of the 3D ear model project.
Students examine the social, emotional, and practical impacts of hearing loss on daily life and reflect on their own 3D project creation.
An introductory lesson on electromagnetic induction, covering magnetic flux, Faraday's Law, and Lenz's Law through visual demonstrations and guided practice.
A hands-on forensic science lesson where students rotate through stations to analyze various types of trace evidence (hair, fiber, glass, soil, etc.) to solve a warehouse heist.
A comprehensive project guide and planning packet for ECE students to design and deliver a 3rd-grade science demonstration. Includes project requirements, a step-by-step planning workspace, and a grading rubric.
A deep dive into Faraday's Law and Lenz's Law focusing on the calculus-based derivation of EMF for a rectangular loop moving through a uniform magnetic field.
A focused lesson on the fundamental properties of mechanical waves, covering transverse and longitudinal types, and the mathematical relationships between velocity, frequency, wavelength, and period.
Synthesize learning with logic puzzles and a final assessment of binary concepts and communication patterns.
Apply binary knowledge to engineering challenges, specifically focusing on how code can be used to improve digital images.
Discover how images are converted into binary code, transmitted, and reconstructed by receiving devices through hands-on pixel art.
Explore binary code through various scientific reading formats, focusing on how devices use patterns to talk to each other.
Introduce students to the concept of patterns as a means of communication and define key vocabulary for the week.
A beginner-friendly lesson on electrostatic forces and Coulomb's Law, emphasizing conceptual understanding and basic calculations.
A simplified introduction to electrostatics vocabulary, specifically designed for students requiring symbol support and modified text. The lesson focuses on six key terms through visual matching and clear, concise definitions.
A comprehensive lesson on Coulomb's Law designed for diverse learners, featuring visual formula supports, step-by-step checklists, and real-world static electricity scenarios.
A comprehensive introduction to electrostatic forces, covering atomic structure, triboelectric charging, Coulomb's Law, and electric fields through hands-on labs and scaffolded practice.
In this STEM-focused lesson, 4th-grade scientists investigate wind energy by designing and testing miniature turbine blades. They explore Vermont's renewable energy landscape and apply the engineering design process to optimize power output.
A comprehensive 8th-grade science lesson focusing on Newton's Laws of Motion, force calculations, and motion graphing, specifically designed for North Carolina EOG preparation.
A deep dive into the behavior of charged particles in magnetic fields, focusing on the mechanics of mass spectrometry and the rotational dynamics of current-carrying loops. Students will derive key equations for particle paths and analyze the torque that drives electric motors.
An in-depth exploration of electromagnetism focusing on the relationship between electric currents and magnetic fields, featuring the Biot-Savart Law, Ampere's Law, and the Lorentz Force.
Étude des mouvements sous l'influence de la gravité, incluant la chute libre verticale et les trajectoires paraboliques des projectiles.
Maîtrisez les concepts de base du mouvement circulaire uniforme (MCU), y compris la vitesse angulaire, l'accélération centripète et l'analyse des vecteurs position.
An exploration of energy conservation in moving fluids, focusing on the relationship between pressure, velocity, and elevation. Includes the Venturi effect and aerodynamics applications.
An in-depth exploration of Pascal's Principle, focusing on the transmission of pressure in enclosed fluids, the mechanics of hydraulic systems, and the relationship between force, area, and work.
An investigation into the speed of fluid efflux from an opening, deriving Torricelli's Law from Bernoulli's Principle and exploring real-world applications in hydraulic systems.
A comprehensive exploration of buoyancy, displacement, and density using Archimedes' Principle. Students will calculate buoyant forces and understand why objects float or sink through the lens of naval engineering.
Une évaluation diagnostique permettant de vérifier la compréhension des bilans de forces, des projections vectorielles dans différentes bases et la résolution d'un problème complexe d'équilibre statique (système masse-ressort-fil).
Une étude de la statique du point matériel sur un plan incliné, combinant les forces de pesanteur, la réaction du support et la tension d'un ressort. Cette leçon permet de maîtriser la projection des forces et la condition d'équilibre dans un repère lié au plan.
Une analyse critique de la sécurité ferroviaire à travers un scénario d'urgence. Cette leçon aborde les phases successives de MRUV et MRU, l'importance du temps de réaction et le calcul des distances d'arrêt de sécurité.
Une application concrète de la cinématique et du calcul vectoriel à travers le parcours d'un randonneur égaré. Cette leçon permet de manipuler les projections de vecteurs, la trigonométrie et la distinction entre distance parcourue et déplacement.
Une exploration de la cinématique à vitesse constante à travers un duel iconique entre l'homme le plus rapide du monde et un cheval. Cette leçon aborde les conversions d'unités, les équations horaires de position et la résolution de systèmes linéaires pour déterminer un point de rencontre.
A hands-on STEM lesson for 6th-grade students where they learn the physics and technology of stop-motion animation, from frame rates and persistence of vision to storyboarding and filming their own creative shorts.
A project-based lesson where 3rd-grade students explore the physical characteristics of mountains, wetlands, plains, and deserts through a variety of creative choices.
Un test de connaissances rapide de 10 minutes sur la cinématique (MRU, MRUV, coordonnées polaires) pour le niveau L1, comprenant l'énoncé et son corrigé détaillé.
A 4-day hands-on engineering challenge where students design and build a device that demonstrates Newton's three laws of motion using low-cost recycled materials. Students progress through research, blueprinting, prototyping, testing, and a final reflection on the physics at play.
A comprehensive 8th-grade STAAR review lesson focusing on Newton's Laws, force, motion, and energy calculations. Students will engage with lab scenarios, visual models, and practice questions aligned to Texas TEKS 8.6A, 8.6B, and 8.6C.
A comprehensive substitute teacher guide for March 12, 2026, including specific science worksheets for Physics and Chemistry periods.
A high-energy, TEKS-aligned review session covering core 5th-8th grade science concepts including force/motion, energy transformations, and ecosystem dynamics through data analysis and STAAR-style practice.
Analyze the distinction between the rights granted to citizens and the responsibilities they hold within a community.
Explore the structure of the U.S. government, focusing on the roles and responsibilities of the Legislative, Executive, and Judicial branches.
A lesson focused on the mathematical relationship between frequency, wavelength, and the speed of light, specifically applied to radio wave transmission.
A lesson exploring the three pillars of evidence for the Big Bang Theory: Redshift, Cosmic Microwave Background radiation, and the abundance of light elements. Students act as cosmic detectives to piece together the history of our universe.
