life-sciences

Mycology & Fungal Biology

The science of fungi — from radial mycelial colony expansion and wind-borne spore dispersal to lignocellulose decomposition kinetics, mycorrhizal symbiosis nutrient exchange, and bioactive compound pharmacology including dose-response modeling.

mycologyfungimyceliumspore dispersaldecompositionmycorrhizapharmacologyfungal biology

Mycology investigates the kingdom Fungi — from microscopic yeasts fermenting bread and beer to vast subterranean mycelial networks connecting forest trees. Fungi are the planet's primary decomposers, recycling billions of tonnes of organic carbon annually. Their symbiotic mycorrhizal partnerships sustain over 90% of terrestrial plant species, while their secondary metabolites have yielded transformative medicines from penicillin to cyclosporine.

These simulations let you model radial mycelial growth and nutrient depletion, simulate wind-borne spore dispersal across landscapes, quantify lignocellulose decomposition and carbon flux, explore mycorrhizal nutrient exchange equilibria, and investigate fungal bioactive compound dose-response curves — all with real-time interactive visualization.

5 interactive simulations

simulator

Decomposition Rate: Lignocellulose Decay & Carbon Cycling

Model fungal decomposition of lignocellulose — explore how moisture, temperature, and lignin content determine decay rate, half-life, and carbon flux

simulator

Fungal Pharmacology: Bioactive Compound Dose-Response

Model dose-response curves for fungal bioactive compounds — explore how dose, EC50, Hill coefficient, and maximum efficacy determine pharmacological response

simulator

Mycelial Growth: Radial Colony Expansion & Nutrient Uptake

Model radial mycelial colony expansion — explore how growth rate, nutrient concentration, temperature, and humidity drive hyphal extension and biomass accumulation

simulator

Spore Dispersal: Wind-Borne Spore Transport Model

Simulate wind-borne fungal spore dispersal — model how wind speed, release height, spore diameter, and turbulence determine transport distance and deposition patterns

simulator

Symbiosis Model: Mycorrhizal Nutrient Exchange

Model mycorrhizal symbiosis — explore how carbon allocation, phosphorus availability, root density, and fungal cover determine nutrient exchange and net plant benefit