An integrated monolithic base with built-in valves and probe ports removes stagnation zones and supports sterile, residue-free fluid emptying.
A flared tube end, inclined cap surface, clamp, and o-ring create a secure low-pressure membrane vessel seal that minimizes leaks.
An aqueous roll-to-roll vacuum filtration process makes defect-free rGO membranes that withstand kraft black liquor and reject over 98% lignin.
Zeolite pores separate fluorocarbon gases by molecular size, cutting distillation energy use and overcoming azeotrope limits in gas recovery.
Plant-fiber filters inoculated with fungi combine physical filtration and bioremediation to remove heavy metals, hydrocarbons, and microbes from fluids.
A moisture-swing membrane uses water and carbon concentration gradients to continuously capture and pump CO2 with no moving parts.
A BPMED and carbonate separation scheme regenerates hydroxide capture solution for dilute-air CO2 capture with lower energy use and more flexible operation.
A separate fixing tool keeps the filter container airtight against an elastic seal while allowing low-force removal to reduce contamination.
Separating juice into solids and liquid enables solids pasteurization and cold microfiltration to cut microbes while preserving flavor and nutrients.
Cross-flow ultrafiltration splits juice so only solids are heat treated, reducing microbes while preserving fresh flavor, nutrients, and shelf stability.
A gradient pore structure in a polyethersulfone hollow fiber membrane reduces clogging, lowers transmembrane pressure, and stabilizes plasma separation.
Crosslinking graphene oxide with aldehyde-modified cellulose preserves water permeance while improving adhesion, abrasion resistance, and wet stability.
A 10-inch impeller achieves homogeneous etanercept mixing while keeping shear stress below 125,000 s⁻¹ and avoiding impeller change downtime.
Low-temperature membrane separation re-refines used oil while avoiding distillation fouling, caustic treatment, and maintenance downtime.
A sol-gel amorphous silica membrane separates fluorocarbons by molecular size, reducing distillation energy and overcoming azeotropy.