See how AI could fit
into a science lesson.

Teacher: Ask: ‘If two objects differ in mass, what would you expect to change during their fall, and why?’ Collect reasons before displaying answers.

Learners: Answer a selected mechanics question individually, then compare explanations in pairs.

Check for understanding: Distinguish ‘heavier falls faster’ from a conditional claim about air resistance.

Teacher: Use matched vertical-launch conditions in Projectile Motion. Change mass while drag is off, then contrast with a drag-on run. Ask which assumptions are being changed.

Learners: Record settings and compare the modelled trajectories; keep model outcomes separate from actual measurements.

Check for understanding: Learners identify the no-drag assumption and do not treat the model as experimental proof.

Teacher: Provide the prepared motion records. Ask learners to compare velocity changes over equal intervals and to name units.

Learners: Annotate the records and calculate or describe acceleration where the data permit it.

Check for understanding: Look for rate-of-change reasoning, consistent units and appropriate limits on the conclusion.

Teacher: Use a reviewed open-response task asking whether a claim is supported by the stated evidence. Give a prompt about assumptions before giving a worked solution.

Learners: Write a claim, supporting evidence and reasoning, then revise after peer questioning.

Check for understanding: The explanation separates gravitational acceleration from drag effects; mass alone is not used as the whole explanation.

Teacher: Ask the exit question below without the model on screen. Use a short prepared quiz only after collecting independent reasoning.

Learners: Explain a new case individually and identify one limitation of the evidence.

Check for understanding: Use explanations, rather than the quiz score alone, to decide what needs reteaching.

Teacher: Use one electric-circuits question. Ask: ‘At fixed voltage, what do you predict if the resistance doubles?’

Learners: Choose an answer and give a reason before checking it.

Check for understanding: Notice whether current is described as used up or confused with voltage.

Teacher: Demonstrate an ammeter in series and voltmeter across the resistor. Keep supply voltage fixed and change only resistance.

Learners: Record at least three resistance/current pairs and verify the voltage for each.

Check for understanding: Measurements support a controlled comparison; current and voltage are not interchanged.

Teacher: Ask learners to link the readings to I = V/R and the dictionary's definitions of current and potential difference.

Learners: Write a causal explanation with quantities and units, then compare it with their prediction.

Check for understanding: The explanation specifies fixed voltage and inverse dependence on resistance.

Teacher: Use one reviewed multi-step circuit problem. Give a unit or circuit-diagram hint before showing the solution.

Learners: Calculate a new current, explain a changed resistor value and show their working.

Check for understanding: Correct substitution is accompanied by an explanation of the change.

Teacher: Use three prepared questions plus the exit task. Discuss distractors only after independent responses.

Learners: Answer, justify one choice and correct their original explanation if needed.

Check for understanding: Identify whether errors concern circuit connections, proportional reasoning or units.

Teacher: Ask: ‘When the skater slows down, where has the energy gone?’ Use one energy-bank item to uncover initial reasoning.

Learners: Give an initial explanation without changing it after seeing another answer.

Check for understanding: Record phrases such as ‘used up’ for later revisiting.

Teacher: Run the same track and release position with friction off, then on. Pause at matched positions and ask what each energy bar represents.

Learners: Sketch the stores at high and low positions and compare the two cases.

Check for understanding: Changes in one store are accounted for elsewhere in the selected system.

Teacher: Use the dictionary to distinguish energy, kinetic energy, potential energy and heating. Ask learners to name stores and transfer processes.

Learners: Rewrite their first explanation using the observed energy displays.

Check for understanding: With friction, increasing thermal energy is distinguished from destruction of energy.

Teacher: Use a reviewed problem containing a simple energy balance and ask for an explanation before arithmetic.

Learners: Complete the account and identify which outputs are useful for the stated task.

Check for understanding: The same system and energy units are used throughout.

Teacher: Ask the exit task and use three short prepared questions. Save a note about the language learners used in their final answers.

Learners: Explain a slowing object without saying energy has disappeared.

Check for understanding: Learners distinguish conservation from usefulness of the transferred energy.

Teacher: Ask learners to explain what ‘bigger’ could mean in two wave diagrams. Use one waves-bank question.

Learners: Label possible amplitude and wavelength differences before checking answers.

Check for understanding: Look for confusion between vertical displacement and horizontal separation.

Teacher: First vary amplitude at fixed frequency and medium settings; then vary frequency at fixed amplitude and medium settings. Ask learners to keep a clear record of what changed.

Learners: Measure or compare amplitude, cycle time and crest separation using the available tools.

Check for understanding: Observations distinguish the controlled variable from the measured response.

Teacher: Compare the dictionary definitions with a position diagram and a time trace. Ask which axis makes a spacing a time rather than a length.

Learners: Label amplitude, period and wavelength and state their units.

Check for understanding: Period and wavelength are not read from the wrong kind of graph.

Teacher: Give a reviewed problem with speed, frequency and wavelength. State explicitly when the medium and speed are unchanged.

Learners: Use v = fλ, show substitutions and explain a frequency change.

Check for understanding: The explanation uses the fixed-speed condition rather than a universal frequency-speed rule.

Teacher: Ask the exit task, then use three prepared questions with one diagram interpretation.

Learners: Calculate independently and justify how the wavelength changes.

Check for understanding: Check whether a correct numerical answer also has the correct conditional explanation.

Teacher: Ask: ‘If bubbles escape from a flask on a balance, what has the balance stopped counting?’

Learners: Predict the reading and explain what is inside their chosen boundary.

Check for understanding: Look for loss of gas from the measured system, rather than destruction of matter.

Teacher: Use Balancing Chemical Equations to ask which particle counts change and which remain equal. Keep formulas unchanged while balancing.

Learners: Count atoms of each element before and after and explain the coefficients.

Check for understanding: Atoms are rearranged; changing a subscript is not a valid balancing method.

Teacher: Provide the paired records and ask learners to draw the balance's boundary. Ask whether a small difference exceeds the stated measurement uncertainty.

Learners: Separate observed readings from explanations and mark any material crossing the boundary.

Check for understanding: Interpretations consider the boundary and measurement limits together.

Teacher: Use a reviewed open-response problem contrasting an open gas-producing reaction with a closed-system record.

Learners: Write an evidence-based explanation and name another observation that would strengthen it.

Check for understanding: A balance change alone is not treated as proof of a particular cause.

Teacher: Ask the exit question, then collect an independent explanation before discussing quiz choices.

Learners: Apply the boundary idea to a new gas-producing scenario.

Check for understanding: The answer distinguishes total-system mass from the mass of material remaining on the balance.

Teacher: Ask: ‘What changes when water is added without adding or removing dissolved solute?’

Learners: Use the dictionary to state what stays constant and what increases.

Check for understanding: Learners distinguish solute amount from concentration.

Teacher: Use Concentration to add solvent while keeping dissolved solute amount unchanged. Avoid draining solution in this comparison because that also removes solute.

Learners: Record the direction of volume and concentration changes and connect them to the particle model.

Check for understanding: Lower concentration is not described as disappearance of solute.

Teacher: Use a reviewed dilution task. Ask learners to derive C₁V₁ = C₂V₂ from equal solute amounts and check compatible units.

Learners: Calculate the stock aliquot and describe dilution to the final volume.

Check for understanding: The final-volume instruction is distinguished from simply adding a numerically calculated water volume.

Teacher: Open ChemCollective and ask pairs to follow their plan. Pause if the selected stock or apparatus differs from the planned conditions.

Learners: Record the actual transfers and compare the resulting concentration with the target.

Check for understanding: The written procedure and virtual result are checked against each other.

Teacher: Use the exit task and three prepared questions about solute amount, concentration and final volume.

Learners: Solve independently and explain the preparation in words.

Check for understanding: Correct quantities and a correct procedural statement are both required.

Teacher: Use an acids-and-bases bank item. Ask whether a weak acid can be concentrated and require a reason.

Learners: Choose an answer and define the two words in their own language.

Check for understanding: Look for concentration and extent of ionisation being conflated.

Teacher: Keep analytical acid concentration comparable and contrast the model's strong and weak acids. Ask what changes in the particle representation and pH reading.

Learners: Record molecular/ionic patterns and pH evidence for each condition.

Check for understanding: A different pH is explained through ionisation rather than assumed different starting concentration.

Teacher: Use the dictionary definitions of acid, concentration and pH. Ask learners to qualify their claims by solvent and stated conditions.

Learners: Write two sentences that use strength and concentration separately.

Check for understanding: The explanation does not say that weak means less acid was added.

Teacher: Use one reviewed comparison problem. Include enough information to avoid asking learners to rank pH from the word ‘weak’ alone.

Learners: Explain the case from concentration and ionisation evidence rather than guessing a numerical pH.

Check for understanding: Learners recognise that strength alone is insufficient when concentrations differ.

Teacher: Use the exit task and three prepared questions; discuss which missing condition would matter in a changed comparison.

Learners: Explain the equal-concentration case and identify the limitation of a general claim.

Check for understanding: The answer connects pH to hydronium concentration under the stated aqueous conditions.

Teacher: Ask whether having more of one reactant guarantees more product. Use a stoichiometry-bank item to reveal the starting reasoning.

Learners: Predict the limiting component in a simple particle or mole-count case.

Check for understanding: Notice comparisons based only on the smaller number or mass.

Teacher: Keep one reactant amount fixed and increase the other in the model. Ask when further addition stops increasing product.

Learners: Record starting particles, product particles and leftovers in several cases.

Check for understanding: The explanation uses the reaction ratio and identifies the exhausted reactant.

Teacher: Check the equation with Balancing Chemical Equations. Ask what each coefficient compares and distinguish mole ratios from mass ratios.

Learners: Map particle groups to coefficients and then to amounts in moles.

Check for understanding: Learners preserve substance formulas and use coefficients correctly.

Teacher: Use a reviewed multi-step problem. Prompt learners to compare available amount divided by its stoichiometric coefficient before calculating product.

Learners: Show the limiting-reactant calculation, product amount and remaining excess.

Check for understanding: Working accounts for both substances and uses coherent units.

Teacher: Use the exit task and a short quiz. Refer to the dictionary if ‘limiting,’ ‘excess’ or ‘theoretical yield’ is used loosely.

Learners: Explain why leftovers remain even when the reaction has consumed its limiting reactant.

Check for understanding: A numerical answer is supported by a ratio-based explanation.

Teacher: Ask where the carbon in a growing plant comes from; do not provide the answer yet.

Learners: Write a brief explanation and identify matter inputs separately from energy input.

Check for understanding: Notice whether soil or sunlight is being treated as the source of carbon.

Teacher: Present the three statements below with the deliberate-error label attached. Ask for a reason and reference for every proposed correction.

Learners: Annotate each claim using approved class material and the dictionary as a wording aid.

Check for understanding: Corrections must explain why the original statement is inaccurate.

Teacher: Guide the lab's light/dark comparison. Ask: ‘What does the indicator measure, and what does it tell us only indirectly?’ Use your prepared evidence sheet if needed.

Learners: Record conditions and evidence, then relate the result to the net balance of the two processes.

Check for understanding: A net indicator change is not interpreted as a direct measurement of photosynthesis alone.

Teacher: Reveal and discuss the verified key. Use a reviewed problem asking learners to connect carbon source, light energy and respiration.

Learners: Write a corrected explanation independently, then underline the evidence or reference supporting each change.

Check for understanding: All three misconceptions are resolved in the learner's own wording.

Teacher: Ask the exit question and use three selected or prepared questions to check the matter-energy distinction.

Learners: Explain why a plant can release carbon dioxide in darkness without contradicting photosynthesis.

Check for understanding: Look for ongoing respiration and absence of light-driven photosynthesis in the stated conditions.

Teacher: Ask: ‘If particles move randomly both ways, why can there be a net movement?’ Use a membrane-transport question.

Learners: Draw particle movements and predict the overall direction.

Check for understanding: Distinguish individual random movement from net flux.

Teacher: Use Diffusion to compare an initial concentration difference with a later distribution. Ask whether particles stop moving at equilibrium.

Learners: Record the changing overall pattern while tracking continued particle motion.

Check for understanding: Learners explain net movement without claiming purposeful particle behaviour.

Teacher: Use Membrane Transport to compare available protein-mediated and energy-dependent cases. Ask what evidence distinguishes a protein pathway from an active process.

Learners: Complete the comparison table for gradient direction, proteins and energy.

Check for understanding: A transport protein's presence alone is not taken as proof of active transport.

Teacher: Use a reviewed open-response task. Refer to dictionary definitions and ask learners to justify a mechanism using the provided evidence.

Learners: Explain a net transport direction and identify what additional information is needed when the mechanism is ambiguous.

Check for understanding: Conclusions match the evidence; osmosis is not used as a label for solute movement.

Teacher: Use three prepared questions and the exit task, then record which mechanism pairs remain confused.

Learners: Answer without the comparison table and justify the energy distinction.

Check for understanding: Learners distinguish facilitated diffusion from transport against a gradient.

Teacher: Ask: ‘Does an individual develop an inherited trait because it needs it?’ Use an evolution-bank item and collect reasons.

Learners: Write an initial explanation of a possible population change.

Check for understanding: Notice need-based language and confusion between individual and population change.

Teacher: Use a chosen existing heritable variant, then change one selection condition while recording the other settings. Repeat where time permits.

Learners: Track trait counts or proportions over several generations and compare runs.

Check for understanding: Evidence is recorded across generations, and chance differences are not hidden.

Teacher: Use dictionary definitions of population, adaptation and natural selection. Ask learners to connect variation, inheritance and reproduction in order.

Learners: Explain the observed pattern with a sequence of cause-and-effect statements.

Check for understanding: Individuals do not change their inherited traits simply to meet a need.

Teacher: Use a reviewed open-response task changing the environment without asserting one trait is universally best.

Learners: Predict a possible direction of population change and justify it conditionally.

Check for understanding: Predictions depend on the environment and inherited variation already available.

Teacher: Ask the exit task and use three prepared questions. Save a reflection on whether learners still use ‘wanted’ or ‘needed’ as the mechanism.

Learners: Write a population-level explanation without the model on screen.

Check for understanding: The response identifies differential reproductive success over generations.

Teacher: Use one gene-expression question and ask what the ribosome reads.

Learners: Order DNA, mRNA and protein cards and justify each arrow.

Check for understanding: Look for DNA being described as read directly by the ribosome.

Teacher: Pause the model at transcription and translation. Ask learners to name the molecule being used and the product being made at each stage.

Learners: Annotate the process diagram and distinguish a DNA sequence from its expression.

Check for understanding: RNA production and polypeptide assembly are assigned to the correct processes.

Teacher: Change one available regulatory setting while keeping the DNA sequence constant. Ask which observed output changed and which information remained the same.

Learners: Record the setting, RNA/protein output where visible and a conditional explanation.

Check for understanding: A change in expression is not automatically labelled a mutation.

Teacher: Use a reviewed problem specifying which process is affected. Offer a diagram hint before giving the answer, and use the dictionary to clarify gene and ribosome.

Learners: Predict the consequence and connect it to the process sequence.

Check for understanding: The explanation separates transcription, translation and DNA sequence change.

Teacher: Use the exit question and three prepared items, including one about unchanged DNA with altered protein output.

Learners: Answer independently and revise their original process diagram.

Check for understanding: The final account names the correct molecular roles and avoids one-gene/one-trait oversimplification.