Cell Structure & Cytology Suite
Interactive 3D eukaryotic animal and plant cell explorer with organelle cross-sections, plasma membranes, and chloroplast dynamics.
Plant & Animal Eukaryotic OrganellesExplore 3D cellular structures, Mendelian genetics suites, neural signaling, enzyme kinetics, and cellular respiration — interactively in your browser.
Follow structured sequence pathways across cytology, Mendelian genetics, cellular respiration, and human physiology.
Dissect 3D eukaryotic cells, solve Punnett crosses, translate DNA, and analyze pedigrees.
Interactive 3D eukaryotic animal and plant cell explorer with organelle cross-sections, plasma membranes, and chloroplast dynamics.
Plant & Animal Eukaryotic OrganellesSimulate Monohybrid crosses, 16-cell Dihybrid matrices, DNA Transcription & Translation, and 3-generation clinical Pedigree Trees.
3:1 & 9:3:3:1 Mendelian RatiosExplore 3D organ structures, physiological systems, cardiovascular pathways, and skeletal frameworks interactively.
Organ System HierarchyVary photon irradiance, CO₂ concentration, and water levels to test Blackman's Law of Limiting Factors.
6CO₂ + 6H₂O + hν → C₆H₁₂O₆ + 6O₂Simulate mitochondrial cristae electron transport chain (Complexes I-IV), proton gradient pumping, rotary ATP Synthase, and metabolic poisons.
C₆H₁₂O₆ + 6O₂ → 6CO₂ + 6H₂O + 36-38 ATPExplore Michaelis-Menten enzyme kinetics, Lineweaver-Burk double reciprocal plots, competitive/allosteric inhibitors, and thermal denaturation.
v = (V_max · [S]) / (K_m + [S])Simulate selective membrane diffusion, Van 't Hoff osmotic pressure, red blood cell hemolysis/crenation, and plant cell turgor pressure.
Ψ_w = Ψ_s + Ψ_p, Π = iCRTAnalyze erythrocyte antigens, antibody agglutination reactions, and clinical donor-recipient rules.
ABO & Rh Antigen CompatibilityTrace voltage-gated Na⁺/K⁺ ion channel conduction, threshold depolarization, and neurotransmitter synapses.
V_m = -70 mV → +30 mVSimulate 4-chamber heart pumping, valve kinematics, Lead II ECG waveforms, Wiggers diagram, and stethoscope heart sound auscultation.
CO = HR × SV, EF = (SV/EDV) × 100%Simulate somatic mitosis, gametic meiosis, chiasmata crossing-over recombination, and chromosomal nondisjunction aneuploidies under virtual brightfield and fluorescence microscopy.
2n → 2n vs 2n → 4 × n, N = 2ⁿAdjust photon flux, substrate concentration, CO₂ levels, and ion permeability to observe live biological response.
Record action potential graphs, Lineweaver-Burk plots, and biochemical reaction rates dynamically.
Strictly follows CBSE/NCERT Biology Class 11/12, AP Biology, and IB Biology HL/SL frameworks.
Our virtual biology laboratory provides high-fidelity cellular cytology, neural membrane dynamics, enzyme kinetics, and Mendelian stochastic genetics cross engines.
Choose from 3D cytology, genetics studios, plant physiology, human anatomy, cellular respiration, or neuron conduction.
Vary light wavelength, CO₂ saturation, parental genotypes, substrate concentrations, or membrane ion permeabilities in real time.
Track real-time oxygen evolution rate, ATP synthesis rates, action potential depolarization spikes, or generational population ratios.
Analyze Chi-Square statistical goodness of fit (χ²), Lineweaver-Burk double reciprocal plots, and export CSV data tables.
OpenLabs models cellular physiology and genetic inheritance through coupled differential equations and statistical probability distributions.
Our virtual biology laboratory modules are systematically aligned with international standards including NCERT Biology Class 11 & 12, AP Biology, IB Biology HL/SL, and Cambridge IGCSE / A-Levels.
OpenLabs provides deep microscopic models and real-time biological telemetry to illustrate microscopic cellular dynamics, enzyme kinetics, and complex genetic inheritances.
Observe cellular biology and biochemical pathways at microscopic resolution in your browser.
Technical and pedagogical details about our virtual biology labs.
Our biology experiments model light-harvesting photosystem kinetics, Mendelian stochastic genetic probability engines, and Hodgkin-Huxley differential equations for neuron membrane potential transitions with verified accuracy.
Yes. All OpenLabs biology modules include step-by-step observational protocols, data recording tables, and interactive quizzes aligned with CBSE Class 11/12, AP Biology, and IB Biology HL/SL practicals.
All 3D organelle and anatomical models run in real time using GPU-accelerated WebGL directly in your browser without any plugins or downloads.
The genetic simulators run stochastic Monte Carlo sampling alongside analytical binomial distributions to demonstrate real-world statistical variation in offspring ratios.
Yes. OpenLabs is completely free and open for educational learning.