biology

Biotechnology & Genetic Engineering

Explore the molecular machinery of life — PCR amplification kinetics, CRISPR-Cas9 gene editing efficiency, gel electrophoresis separation, bioreactor growth dynamics, and gene expression regulation through interactive simulations.

biotechnologygenetic engineeringPCRCRISPRgel electrophoresisbioreactorgene expression

Biotechnology harnesses cellular and molecular processes to develop technologies and products that improve human health, agriculture, and industry. From the polymerase chain reaction that revolutionized forensics to CRISPR-Cas9 gene editing that promises cures for genetic diseases, biotech tools are reshaping what is possible in medicine and beyond.

These simulations let you amplify DNA through PCR thermal cycling, design CRISPR guide RNAs and predict editing outcomes, separate DNA fragments by electrophoresis, optimize bioreactor growth conditions, and model gene expression with promoter-driven transcription — all with accurate biochemical models and real-time animated visualizations.

5 interactive simulations

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Bioreactor Growth Dynamics & Scale-Up

Simulate microbial and cell culture growth in bioreactors — model Monod kinetics, substrate consumption, oxygen transfer, and scale-up from bench to production

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CRISPR-Cas9 Gene Editing Efficiency

Simulate CRISPR-Cas9 gene editing — explore guide RNA design, on-target efficiency, off-target probability, and indel outcomes for different genomic targets

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Gel Electrophoresis DNA Separation

Simulate gel electrophoresis — visualize how DNA fragments separate by size through an agarose matrix under an electric field, with band migration and ladder comparison

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Gene Expression & Transcription Regulation

Simulate gene expression dynamics — explore promoter strength, mRNA degradation, protein synthesis rates, and feedback regulation in a single-gene expression model

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PCR Amplification & Thermal Cycling

Simulate polymerase chain reaction — visualize exponential DNA amplification through thermal cycling, explore primer annealing, and calculate copy numbers across cycles