31 interactive experiments aligned with curriculum standards.

Interactive 3D exploration of eukaryotic cell organelles and their functions
~30 min
Model Complexes I-IV, ATP synthase, proton motive force, and ETC inhibitor effects
~25 min
How cells harvest energy from glucose
~20 min
The molecule that carries life's blueprint
~15 min
Helicase, primase, DNA polymerase, and leading/lagging strand synthesis
~25 min
Primary and secondary succession: from bare rock to climax community
~20 min
Discover how animals survive with camouflage, mimicry, and body structures
~10 min
Producers, consumers, decomposers — energy flows through life
~12 min
Ecosystems, adaptations, and where animals live
~10 min
From seed to flower: watch plants grow through every stage
~10 min
Light, water, soil nutrients, and air for plant growth
~10 min
Compare mitosis and meiosis side by side
~15 min
Energy flow, matter cycling, and ecosystem balance
~15 min
Explore energy flow and trophic levels in an ecosystem
~15 min
Mendelian inheritance, genotypes, and phenotype ratios
~15 min
Population genetics, allele frequencies, and Hardy-Weinberg equilibrium
~14 min
How living things make and use energy
~14 minCellular respiration, photosynthesis, mitosis, meiosis, DNA structure, protein synthesis, enzyme kinetics, neuron action potentials, membrane transport, natural selection — the AP Biology Big Ideas in interactive 3D.
Yes. Ecosystems, food webs, genetics, photosynthesis-respiration, and cell structure are tagged to MS-LS performance expectations so teachers can drop them into existing units.
Models use real molecular geometry where it matters: DNA's 10 base pairs per turn, the right number of ribosomal subunits, accurate enzyme-substrate fit. Students can rotate and inspect from any angle.
Yes. Cell structure and DNA Double Helix labs let students click into organelles or zoom into base pairs, replicating the exploration goals of dissection-style activities.