The use of aerodynamic features to help reduce pressure drag experienced by a body in a flow field by delaying flow separation has been explored for a wide range of applications, and if used properly could reduce the aerodynamic drag experienced by a driver head.
This strategy has been studied with success to analyze compounds of difficult separation, but has not been explored for carbohydrates.
Bioapplications of magnetic NPs have been explored for several decades and now extend to magnetic separation, delivery (actuation), hyperthermia treatment, and contrast enhancement agents for magnetic resonance imaging (MRI).
Thus, post-polymerization purification methods and in situ catalyst separations by liquid-liquid and solid-liquid (i.e., solid-supported catalysts) biphasic polymerization have been explored for CRPs to reduce the catalyst residue concentration in the polymers.
The robust mechanical and electrical properties of carbon nanotubes (CNTs) make them another nanoscale tool being explored for cellular separation and characterization with potential applications in CTC research.
Five polysaccharide-based chiral stationary phases (CSPs), Chiralcel OD-H, and OJ-H, and Chiralpak AD-H, AS-H and IC columns were explored for the chiral separation of these compounds.
The composite material was explored for its use in separation of toxic metal cations present in electroplating waste discharge and similar synthetic fluid by varying the system conditions [temperature (298 313 K), pH (2 12), time (10 420 min), dosage (1 10 g) and initial concentration of metal cations (1.0 15.0 mg/dm3)].
Equilibrium position-based separation was explored for membrane-free filtration, enriching particulate matter in suspension.
In this study, a reaction enhanced surface segregation method was explored for in-situ construction of antifouling separation layer on membrane surface.
They are exploring for new sources.
