Patent classifications
C09K15/34
Nerve growth promoter and method for producing same, internal preparation, medium additive, cell dilution additive, medium, cell dilution, antioxidant and method for producing same, external preparation, and wound treatment agent and method for producing same
A nerve growth promoter and an antioxidant containing a degradation product obtained by degrading a composition containing a hyaluronic acid and a protein with a protease. A would treatment agent containing an ethyl acetate extract of a degradation product obtained by degrading a composition containing a hyaluronic acid and a protein with a protease.
Preservative system
The present disclosure relates to a formulation for a non-hazardous, organic preservative system. The preservative system comprises water, an alcohol, xylitol, and lemon grass essential oil in quantities which ensure preservative qualities without compromising the compound or substance that is being preserved.
Preservative system
The present disclosure relates to a formulation for a non-hazardous, organic preservative system. The preservative system comprises water, an alcohol, xylitol, and lemon grass essential oil in quantities which ensure preservative qualities without compromising the compound or substance that is being preserved.
COMPOSITIONS FOR TEMPORARILY ENHANCING THE LUSTER AND BRILLIANCE OF JEWELRY AND GEM STONES AND METHODS FOR MAKING AND USING SAME
Compositions for enhancing the luster and/or brilliance of jewelry and/or gem stones comprising a non-aqueous carrier and optionally additives and/or fragrances, and methods for making and using same.
BIOMEDIATED-TITANIUM NANOCOMPOSITE FOR CORROSION PROTECTION
The present invention relates to a method of inhibiting corrosion of steel in contact with a corrosive solution. The method involves mixing an olive leaf extract titanium nanocomposite with the corrosive solution. The olive leaf extract titanium nanocomposite may be made by reducing TiCl.sub.4 with an olive leaf extract, which forms nanoparticles with an average size of 50-100 nm.
BIOMEDIATED-TITANIUM NANOCOMPOSITE FOR CORROSION PROTECTION
The present invention relates to a method of inhibiting corrosion of steel in contact with a corrosive solution. The method involves mixing an olive leaf extract titanium nanocomposite with the corrosive solution. The olive leaf extract titanium nanocomposite may be made by reducing TiCl.sub.4 with an olive leaf extract, which forms nanoparticles with an average size of 50-100 nm.
Micro-encapsulated, improved vapor corrosion inhibitor
The current invention relates to a micro-encapsulated, volatile vapor corrosion inhibitor (VCI), and method for the use of same. More particularly, it relates to a fluid composition, and microencapsulation of the fluid composition, that inhibits corrosion and tarnishing and that may be relatively non-toxic. The VCI is intended to be employed in varying concentrations depending on the intended application and deployed via microcapsules. The microcapsules may be adapted to release the VCI over time, or all at once. To effect this, the microcapsules may be adapted to be breached at varying times or at the same time. By adapting the microcapsules, or the method of breaching the microcapsules, the rate at which the VCI is released may be controlled.
Micro-encapsulated, improved vapor corrosion inhibitor
The current invention relates to a micro-encapsulated, volatile vapor corrosion inhibitor (VCI), and method for the use of same. More particularly, it relates to a fluid composition, and microencapsulation of the fluid composition, that inhibits corrosion and tarnishing and that may be relatively non-toxic. The VCI is intended to be employed in varying concentrations depending on the intended application and deployed via microcapsules. The microcapsules may be adapted to release the VCI over time, or all at once. To effect this, the microcapsules may be adapted to be breached at varying times or at the same time. By adapting the microcapsules, or the method of breaching the microcapsules, the rate at which the VCI is released may be controlled.
MICRO-ENCAPSULATED, IMPROVED VAPOR CORROSION INHIBITOR
The current invention relates to a micro-encapsulted, volatile vapor corrosion inhibitor (VCI), and method for the use of same. More particularly, it relates to a fluid composition, and microencapsulation of the fluid composition, that inhibits corrosion and tarnishing and that may be relatively non-toxic. The VCI is intended to be employed in varying concentrations depending on the intended application and deployed via microcapsules. The microcapsules may be adapted to release the VCI over time, or all at once. To effect this, the microcapsules may be adapted to be breached at varying times or at the same time. By adapting the microcapsules, or the method of breaching the microcapsules, the rate at which the VCI is released may be controlled.
MICRO-ENCAPSULATED, IMPROVED VAPOR CORROSION INHIBITOR
The current invention relates to a micro-encapsulted, volatile vapor corrosion inhibitor (VCI), and method for the use of same. More particularly, it relates to a fluid composition, and microencapsulation of the fluid composition, that inhibits corrosion and tarnishing and that may be relatively non-toxic. The VCI is intended to be employed in varying concentrations depending on the intended application and deployed via microcapsules. The microcapsules may be adapted to release the VCI over time, or all at once. To effect this, the microcapsules may be adapted to be breached at varying times or at the same time. By adapting the microcapsules, or the method of breaching the microcapsules, the rate at which the VCI is released may be controlled.