Spatial transcriptomics uses barcoded chemical probes to read active genes within an intact biological sample, mapping exact molecular functions to their precise physical locations without destroying the tissue architecture.
A cryogenic electron microscope fires high-energy electron beams through flash-frozen biological samples to map the exact atomic coordinates of proteins, providing the physical blueprints necessary to engineer targeted pharmaceuticals.
The prime editing guide RNA is an engineered genetic molecule that simultaneously locates a specific DNA mutation and serves as the physical template to permanently overwrite it without severing the DNA helix.
An electroporation waveform generator uses rapid, high-voltage electrical pulses to temporarily punch microscopic holes in human cell membranes, allowing engineers to insert synthetic genetic material without relying on viral vectors.
Continuous bioprocessing uses specialized filtration loops to constantly extract finished biological drugs and toxic waste from a bioreactor while simultaneously feeding fresh nutrients to permanently trapped, producing cells.
The mRNA cap analog is a synthetic chemical structure attached to the front of engineered genetic instructions to prevent cellular defense mechanisms from destroying the therapeutic code before it produces medicine.
Cell-free protein synthesis extracts the cellular machinery required to build proteins into a sterile liquid solution, allowing engineers to manufacture complex biological medicines on demand without sustaining living host cells.
The tangential flow filtration cassette uses pressurized fluid flowing parallel to a semi-permeable membrane to concentrate biological molecules without clogging the microscopic pores.
Xenotransplantation utilizes multiplexed CRISPR gene editing to delete specific carbohydrate-producing genes and neutralize dormant retroviruses in pig embryos, creating biological replacement organs that human immune systems will not immediately reject.
The Protein A affinity chromatography column uses engineered bacterial proteins bound to microscopic beads to chemically separate targeted monoclonal antibodies from raw biological fluid.