3D Microscope: Online Virtual Lab
An interactive 3D microscope lab for identifying parts, coarse and fine focusing, changing magnification, adjusting illumination and aperture, moving the image, and exploring image orientation.
Open activity →Teaching resources
Find online virtual biology labs for microscope practice, osmosis, DNA extraction and plant experiments. Compare conditions and observe results.
Predict an outcome, change a condition and compare observations. Simulations support preparation and discussion alongside real experiments.
An interactive 3D microscope lab for identifying parts, coarse and fine focusing, changing magnification, adjusting illumination and aperture, moving the image, and exploring image orientation.
Open activity →Compare osmosis, red blood cells, plant cells and plasmolysis, then explore diffusion, channels and carriers in an interactive classroom simulation.
Open activity →Follow eight steps of onion DNA extraction and identification, including filtration, alcohol precipitation and a diphenylamine colour test.
Open activity →Compare coleoptile tip treatments, phototropism and agar block positions, then investigate rooting with NAA concentrations and repeated data.
Open activity →Use a rotatable 3D lab bench to select materials, add reagents, grind, filter, apply repeated sample lines, run paper chromatography, and identify four pigment bands.
Open activity →Change block size and immersion time to compare relative surface area and diffusion.
Open activity →Practise weighing, burning food and measuring temperature changes to compare food energy in a simulation.
Open activity →Predict outcomes and design controls for leaf starch testing, oxygen release by aquatic plants and carbon dioxide from germinating seeds.
Open activity →Identify three lines of defence and compare immune memory with a repeat response to the same antigen in classroom activities.
Open activity →Predict grafting and nuclear transplantation outcomes, then use experimental evidence to explain nuclear function.
Open activity →Change concentration gradients and transport conditions to compare passive and active transport.
Open activity →Follow glucose from digestion to muscle cells and compare normal insulin, deficiency, excess and insulin resistance, including GLUT4 movement.
Open activity →Draw alleles at random from two containers and compare genotype frequencies across small and large samples.
Open activity →Compare hydroponic maize seedlings under nitrogen, phosphorus and potassium deficiency, predict changes and identify controlled variables.
Open activity →Change illumination and compare membrane potential in a virtual classroom connecting light sensing, gene expression and neuronal activity.
Open activity →Predict outcomes, break the flask neck and compare microbial growth in a controlled virtual experiment.
Open activity →Compare thyroid hormone conditions in a controlled 3D simulation and observe tadpole growth, limb development and tail changes.
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