Linker and half-life tuning help receptor-targeting conjugates bind tumors quickly while clearing plasma fast enough for sustained high contrast.
Cellular microencapsulation improves cannabinoid solubility, stability, and dosing uniformity.
Selective binding enables saposin lipoprotein particles to self-assemble on supports, simplifying immobilization and component recycling.
Hydrazone crosslinks stabilize block copolymer micelles against ionic disruption, preventing premature drug release.
Amphiphilic thioether block copolypeptides form well-defined nanostructures through controlled synthesis and chemical modification.
Shellac or zein coating on functional substances mixed with acidic polysaccharides extends oral retention time.
Cyclodextrin-mediated nervonic acid formulations reduce toxic VLCFA accumulation without Lorenzo's oil cardiotoxicity.
Desiccated liposomes on a micronized powder base bypass hepatic first-pass metabolism to improve bioavailability.
Direct-melt polycondensation eliminates aqueous solvents to boost cyclodextrin polymer yields above 80 percent.
D20 tag conjugated nanoparticles accumulate in inflamed tissues via protein uptake, avoiding antibody-induced neutrophil impairment.
Ultrasonic homogenization disperses active pharmaceutical ingredients into nanoparticles to prevent aggregation and enhance bioavailability.
A transdermal patch base uses a methyl acrylate copolymer to mask unpleasant odors from gelatin and polyvinyl alcohol.
Dextran-based compounds bind mannose units to CD206 receptors on macrophages for targeted cellular accumulation.
Twice-embedded emulsion spray granulation prevents nutrient degradation and objectionable odors during homogenization.
Selective primary face modification eliminates regioisomer mixtures, ensuring consistent pharmaceutical utility and stable drug formulations.
A peptide nucleic acid hybrid binds to RNA molecules to enhance in vivo stability while maintaining gene silencing efficiency.
A polypeptide-based block copolymer self-assembles into micelles that respond to pH changes.