Showing 36,051-36,058 of 36,058 items.
NameSectorAbstractYear AppliedYear GrantedAuthority
Endohedral fullerenes having enclosed therein one or more ozone molecules, and their use as a UV-absorbing agent

Construction

The present application discloses novel endohedral fullerenes having enclosed therein one or more ozone molecules, e.g. fullerenes selected from C60-fullerene (Buckminsterfullerene), C70-fullerene, C76-fullerene, C78-fullerene, C82-fullerene, C84-fullerene, and C120-fullerene. The application...
The present application discloses novel endohedral fullerenes having enclosed therein one or more ozone molecules, e.g. fullerenes selected from C60-fullerene (Buckminsterfullerene), C70-fullerene, C76-fullerene, C78-fullerene, C82-fullerene, C84-fullerene, and C120-fullerene. The application further discloses a composition comprising the endohedral fullerene and a carrier material, e.g. where the carrier material is a skin lotion, such as a skin lotion comprising L-ascorbic acid or Vitamin E. Moreover, various uses of the novel fullerenes are disclosed, e.g. for skin UV-protection; in or on the surface of sun glasses; in or on the surface of window glass; in or on the surface of textiles, fabrics, clothes, wood, paint, paper, cushions, leather, hair-care products, and plants.
20102014US
Inkjet ink and method for making the same

Construction

An inkjet ink includes carbon nanotubes, flake graphites, an organic carrier, a binder, a surfactant, a film enhancer and a solvent. A method for making an inkjet ink includes dispersing...
An inkjet ink includes carbon nanotubes, flake graphites, an organic carrier, a binder, a surfactant, a film enhancer and a solvent. A method for making an inkjet ink includes dispersing the plurality of carbon nanotubes in the surfactant solvent to form a first mixture, dispersing the plurality of flake graphites in the organic carrier solvent to form a second mixture, adding the film enhancer into the second mixture to form a third mixture, and mixing the first mixture and the third mixture.
20112014US
Manufacturing method for preferentially-oriented oxide ceramics, preferentially-oriented oxide ceramics, piezoelectric element, liquid discharge head, ultrasonic motor, and dust removing device

Construction

Provided is a manufacturing method for preferentially-oriented oxide ceramics having a high degree of crystal orientation. The manufacturing method includes: obtaining slurry containing an oxide crystal B having magnetic anisotropy;...
Provided is a manufacturing method for preferentially-oriented oxide ceramics having a high degree of crystal orientation. The manufacturing method includes: obtaining slurry containing an oxide crystal B having magnetic anisotropy; applying a magnetic field to the oxide crystal B, and obtaining a compact of the oxide crystal B; and subjecting the compact to oxidation treatment to obtain preferentially-oriented oxide ceramics including a compact of an oxide crystal C having a crystal system that is different from a crystal system of one of a part and a whole of the oxide crystal B. By (1) reacting raw materials, (2) reducing the oxide crystal A, or (3) keeping the oxide crystal A at high temperature and quenching the oxide crystal A, the oxide crystal B is obtained to be used in the slurry.
20112014US
Transmission electron microscope grid and method for making same

Construction

The present disclosure relates to a method for making a transmission electron microscope grid. The method includes: (a) providing a substrate with a graphene layer on a surface of the...
The present disclosure relates to a method for making a transmission electron microscope grid. The method includes: (a) providing a substrate with a graphene layer on a surface of the substrate; (b) applying a carbon nanotube film structure to cover the graphene layer; (c) removing the substrate, to obtain a graphene layer-carbon nanotube film composite structure; and (d) placing the graphene layer-carbon nanotube film composite structure on a grid.
20112014US
Method of nanoimprinting a piezoelectric polymeric material for forming high aspect ratio nanopillars

Construction

A method of nanoimprinting a piezoelectric polymeric material includes: heating a surface of the piezoelectric polymeric material to an imprinting temperature greater than (Tc-25)° C. and less than Tc, in...
A method of nanoimprinting a piezoelectric polymeric material includes: heating a surface of the piezoelectric polymeric material to an imprinting temperature greater than (Tc-25)° C. and less than Tc, in which Tc is the Curie temperature of the piezoelectric polymeric material; and pressing the heated surface of the piezoelectric polymeric material using a nanoimprinting template having a nanopillar structure so as to form the piezoelectric polymeric material with high aspect ratio nanopillars.
20112014US
Polymer fiber composite building material with bulk and aesthetically functional fillers

Construction

Polymer composite roofing materials are provided which contain resin, and about 20-75 wt. % fillers and additives, in which the fillers contain at least one bulk filler for reducing the...
Polymer composite roofing materials are provided which contain resin, and about 20-75 wt. % fillers and additives, in which the fillers contain at least one bulk filler for reducing the amount of resin needed to make the roofing material, and at least one aesthetically functional filler for providing the roofing material with an aesthetic appearance. The bulk filler and the aesthetically functional filler of this embodiment are non-toxic, resistant to microbial attack, and have a Mohs hardness of less than about 5.
20112014US
PRINTABLE REFLECTIVE FEATURE

Construction

20072014EP
System and method for depositing thin layers on non-planar substrates by stamping

Construction

An elastomeric stamp is used to deposit material on a non-planar substrate. A vacuum mold is used to deform the elastomeric stamp and pressure is applied to transfer material from...
An elastomeric stamp is used to deposit material on a non-planar substrate. A vacuum mold is used to deform the elastomeric stamp and pressure is applied to transfer material from the stamp to the substrate. By decreasing the vacuum applied by the vacuum mold, the elasticity of the stamp may be used to apply this pressure. Pressure also may be applied by applying a force to the substrate and/or the stamp. The use of an elastomeric stamp allows for patterned layers to be deposited on a non-planar substrate with reduced chance of damage to the patterned layer.
20102014US