Machine learning predicts and generates membrane molecules for CO2 separation, cutting screening cost and speeding validation.
Sequential cation and anion exchange chromatography lowers acidic species and impurities in anti-IL-1R1 antibodies to improve stability and safety.
Controlled heating and monomer ratios produce high-molecular-weight polyarylene ether sulfones with low volatiles and cyclic dimers for cleaner membrane processing.
Controlled constant-rate protein flow and virus spiking enable reproducible viral clearance testing for continuous purification and filtration.
Hydrated nanochannels and an immobilized catalyst convert CO2 continuously with lower energy use and stable membrane operation.
An upstream pre-collection layer plus dual porous films raises dust holding capacity while keeping fine-particle capture high and pressure loss low.
Hydrophilic and hydrophobic porous media convert CO2 to bicarbonate and back, cutting regeneration energy while maintaining capture efficiency.
Ammonium-functional ion exchange membranes remove metal ions from ketone solvents while preventing color bodies and oligomer formation.
Covalently fusing Protein A or Z domains to Ubx materials boosts antibody binding capacity and prevents ligand leaching during purification.
A track-etched membrane and single vacuum source separate plasma from whole blood in under a minute with high purity and low hemolysis.
A bipolar-membrane pH gradient separates extracellular nanocarriers by isoelectric point, improving purity, yield, and throughput.
A hydrophobic porous membrane garment enables underwater gas exchange while blocking water, reducing bulk versus conventional diving gear.
A downward-facing pressure path lets condensed or leaking liquid drain away, protecting the pressure detection element in a deaerator.
Embedded nanoparticles capture contaminants inside apertured polymer filter sheets while reducing cross-flow pressure drop in support membranes.