The invention discloses a novel solution and process comprising a modified solvent for providing enhanced blade edge attributes.

Disclosed herein is a nano membrane. The nano membrane includes an insulating layer having a thickness corresponding to a diameter of each of metal nanowires and configured to contain the metal nanowires therein, and the metal nanowires arranged to cross and having portions of side surfaces which protrude from one surface of the insulating layer.

Disclosed herein is a nano membrane. The nano membrane includes an insulating layer having a thickness corresponding to a diameter of each of metal nanowires and configured to contain the metal nanowires therein, and the metal nanowires arranged to cross and having portions of side surfaces which protrude from one surface of the insulating layer.

The present disclosure relates to the formation of terephthalate esters. The present invention also relates to the depolymerization of polyethylene terephthalate (PET) or poly(ethylene glycol-co-1,4-cyclohexanedimethanol terephthalate) and the recovery of terephthalate esters.

The present disclosure relates to the formation of terephthalate esters. The present invention also relates to the depolymerization of polyethylene terephthalate (PET) or poly(ethylene glycol-co-1,4-cyclohexanedimethanol terephthalate) and the recovery of terephthalate esters.

The invention discloses a novel solution and process comprising a modified solvent for providing enhanced blade edge attributes.

The invention discloses a novel solution and process comprising a modified solvent for providing enhanced blade edge attributes.

Methods for forming polymeric particles with a predetermined, controlled morphology, and methods for tuning the topology of polymeric particles through modification of components utilized in the formation process are described. An emulsion/condensation technique is used, including a first emulsifier in the aqueous phase and an organic phase that includes first and second solvents, a second emulsifier, and a polymer. The polymer is more soluble in the first solvent than the second solvent, and the second emulsifier is more soluble in the second solvent than the first solvent. Through modification of the relative amounts of the emulsifiers and solvents, particles with either smooth or rough surfaces can be formed. Particles are particularly useful as drug depots with controlled-release profiles.

Methods for forming polymeric particles with a predetermined, controlled morphology, and methods for tuning the topology of polymeric particles through modification of components utilized in the formation process are described. An emulsion/condensation technique is used, including a first emulsifier in the aqueous phase and an organic phase that includes first and second solvents, a second emulsifier, and a polymer. The polymer is more soluble in the first solvent than the second solvent, and the second emulsifier is more soluble in the second solvent than the first solvent. Through modification of the relative amounts of the emulsifiers and solvents, particles with either smooth or rough surfaces can be formed. Particles are particularly useful as drug depots with controlled-release profiles.

A facility 300 for separation of layers in a multilayer system 310. The facility 300 comprises one or more baths 320a, 320b for accepting the multilayer system 310 and a dispenser 330 for providing a separation fluid 340. The separation fluid 340 comprises a nanoscale dispersion for washing the multilayer system in the baths 320a, 320b and is described in more details below. The facility 300 also includes a filtration device 350 for filtering separated undissolved components of the multilayer system 310.