QuantumLearning Machines
LabPathReplacement course

AP Chemistry through evidence.

A full-course interactive AP Chemistry path where students learn through particle models, wet-lab simulations, solver-backed data, evidence records, FRQ defense, and TeacherOS intervention signals.

Create classroom linkOpen student joinTeacherOS viewView units
10/10depth gate
9AP units
27evidence labs
10solver engines
9.7/10execution gate
Yearlong classroom

Pick once. Run all year.

27 paced AP Chemistry sessions are connected to one join link, TeacherOS, parent view, and district dashboard.

https://play.quantumlearningmachines.com/labpath/join/1YRUSBC
Native tracks

6 grade tracks

K-2 · 3-5 · 6-8 · standard-high-school · AP · undergrad

Each track covers every AP Chemistry unit with concept-first instruction, controls, evidence, and teacher moves.

Student loop

Particles first. Calculation second. Defense always.

  1. Learn the chemical idea visually before controls appear.
  2. Predict the particle, lab, or data consequence.
  3. Change one chemical variable and run the solver-backed model.
  4. Explain, revise, defend, and transfer the claim.
  5. Practice AP-style FRQ reasoning from the evidence just generated.
Expert inspection

What a real AP lab must do.

Open Atomic Evidence And Spectra
Learn the chemical systemStudy Atomic Evidence And Spectra as a particle/data system first. Identify the chemical cause, the measured effect, and what would count as evidence.SP1 · intro
Predict before changing anythingWrite a prediction for how energy gap will change electron structure and spectral evidence. Include a because-clause.SP2 · single-action
Run one controlled treatmentChange energy gap once, keep line precision stable, and run the chemistry model.SP3 · single-action
Observe, do not explain yetPoint to the changed spectral line, wavelength, or energy-gap readout before explaining the electron transition.SP3 · analysis
Explain the mechanismExplain why the observed change happened using electron structure and spectral evidence, the model, and one measured result.SP4 · analysis
Revise with evidenceRevise the original prediction. Use shielding only if a second controlled run is needed to test the revision.SP5 · synthesis
Defend like an AP FRQDefend a final answer for electron structure and spectral evidence with particle evidence, measured data, units, and one model limitation.SP6 · synthesis
Transfer to a new caseApply the same chemical idea to a new AP-style lab case where the surface details change but the mechanism remains.SP6 · synthesis
AP unit alignmentAtomic Evidence And Spectra visibly advances Atomic Structure And Properties and prepares students for the unit FRQ gate.
Chemical causalityA student can say how changing one variable caused a measurable change in electron structure and spectral evidence.
Misconception diagnosisThe sequence can reveal and repair atomic model, electron transition, and spectral evidence misconception through prediction, run trace, explanation, and revision.
FRQ readinessThe final defense naturally produces claim, evidence, reasoning, units, limitation, and transfer.
Teacher trustTeacherOS receives enough evidence to decide whether to assign a repair lab, next lab, or TeachProof practice.
Course map

Nine AP units, twenty-seven authored labs.

TeacherOS

Daily evidence to action.

  • Assign the next AP Chemistry lab based on live misconception clusters.
  • Review whether students are solving from particles, equations, data, or memorized procedures.
  • Create a TeachProof practice room for the highest-risk chemistry explanation gap.
  • Send parent/district progress from evidence artifacts, not completion.
District

Longitudinal chemistry proof.

  • AP Chemistry unit coverage by evidence-producing lab.
  • Misconception resolution by particle model, equation, lab method, data, and argumentation.
  • Wet-lab safety, uncertainty, and model-limitation reasoning signals.
  • Readiness for AP Chemistry FRQs from defended evidence records.