Patent classifications
B01J13/0039
LIQUID NANOCLUSTER DISPERSION, NANOCLUSTER FILM, SOLID NANOCLUSTER DISPERSION, METHOD FOR PRODUCING LIQUID NANOCLUSTER DISPERSION, AND DEVICE FOR PRODUCING LIQUID NANOCLUSTER DISPERSION
The present invention relates to a nanocluster liquid dispersion where nanoclusters with a predetermined number of atoms are dispersed.
Gradient induced particle motion in suspensions
Methods of inducing or controlling particle motion in suspensions and colloids are described. In one aspect, a method of inducing particle motion in a suspension comprises contacting the suspension with a gas phase to establish at least one interface between the gas phase and continuous phase of the suspension. One or more gases of the gas phase are transferred across the interface to provide a solute gradient in the continuous phase, the solute gradient inducing motion of the suspended particles.
GRADIENT INDUCED PARTICLE MOTION IN SUSPENSIONS
Methods of inducing or controlling particle motion in suspensions and colloids are described. In one aspect, a method of inducing particle motion in a suspension comprises contacting the suspension with a gas phase to establish at least one interface between the gas phase and continuous phase of the suspension. One or more gases of the gas phase are transferred across the interface to provide a solute gradient in the continuous phase, the solute gradient inducing motion of the suspended particles.
Compositions and methods for arranging colloid phases
The present invention generally relates to colloids and methods for changing the arrangement of droplet phases. In some embodiments, the colloids and methods comprise a plurality of droplets comprising two or more components, such that the two or more components can change arrangement of the components in the presence of an external stimulus. In some embodiments, the change in component arrangement is reversible. In certain embodiments, the change in component arrangement forms Janus droplets.
Carbon felt impregnated with inorganic particles and method for producing the same
Disclosed is a carbon felt impregnated with inorganic particles. The impregnated carbon felt can be used together with sulfur in a cathode of a sodium-sulfur (NaS) battery. Also disclosed is a method for producing the impregnated carbon felt. According to exemplary embodiments, the problem of the prior art can be solved in which inorganic particles such as alumina particles are not directly adhered to carbon felts, thus necessitating complicated processes. In addition, a slurry including an inorganic binder and alumina particles can be used to directly coat the alumina particles on the surface of a carbon felt, making the production procedure very simple. Furthermore, the use of the carbon felt surface coated with the alumina particles in a NaS battery increases the wicking of sodium polysulfides, suppresses the accumulation of sulfur as an insulator on the surface of beta-alumina as an electrolyte, and inhibits non-uniform aggregation of sulfur or sodium polysulfides on the carbon felt, so that the concentration polarization of charges can be reduced without a significant increase in the internal resistance of the battery, achieving high utilization efficiency of sulfur as a reactant.
JANUS-TYPE SPHERICAL CELLULOSE NANOPARTICLES
The invention relates to Janus-type spherical cellulose nanoparticles and processes for producing them. The Janus-type spherical cellulose nanoparticles of the invention are chemically modified on one face only, producing particles with a lipophilic face opposite a hydrophilic face. Such particles demonstrate superior surfactant properties and can be used to prepare Pickering emulsions.
Method for manufacturing surface enhanced Raman spectroscopy tags
The present invention relates to the field of methods of manufacturing of surface enhanced Raman spectroscopy (SERS) tags. The manufacturing method according to the present invention is reproducible and versatile and enables the production in an expedient manner of high quantities of SERS tags characterized by a narrow size distribution and a high ratio of low-number aggregates. SERS tags manufactured by the inventive manufacturing method described herein provide increased ensemble SERS responses.
LARGE-GRAIN CRYSTALLIZED METAL CHALCOGENIDE FILM, COLLOIDAL SOLUTION OF AMORPHOUS PARTICLES, AND PREPARATION METHODS
The present invention relates to a method for preparing an aqueous or hydro-alcoholic colloidal solution of metal chalcogenide amorphous nanoparticles notably of the Cu.sub.2ZnSnS.sub.4 (CZTS) type and to the obtained colloidal solution.
The present invention also relates to a method for manufacturing a film of large-grain crystallized semi-conducting metal chalcogenide film notably of CZTS obtained from an aqueous or hydro-alcoholic colloidal solution according to the invention, said film being useful as an absorption layer deposited on a substrate applied in a solid photovoltaic device.
INORGANIC OXIDE PARTICLE, INORGANIC OXIDE PARTICLE DISPERSION AND PREPARATION METHOD THEREOF, AND METHOD FOR PRODUCING SURFACE MODIFIER
Provided is an inorganic oxide dispersion (sol) in which inorganic oxide particles are dispersed in silicone oil.
Process for the preparation of colloidal polymerized particles
The present invention relates to a process for the preparation of dispersions of colloidal polymerized particles and to the colloidal polymerized particles obtained and/or obtainable by the process as well as to their use.