C09D201/00

Antimicrobial And Biological Active Polymer Composites And Related Methods, Materials and Devices
20170304815 · 2017-10-26 ·

Biologically activated ion-exchange polymer salts are made by exchanging biologically active ionic agents onto ion-exchange polymers. The activated polymers are uniquely surface active and stable to thermal degradation and chemical and other forms of decomposition. The activated ion-exchange polymer salts may be processed and combined with polymer precursors using novel methods and materials to produce stable, biologically activated polymer composites, including antimicrobial and antifouling polymer composites.

Antimicrobial And Biological Active Polymer Composites And Related Methods, Materials and Devices
20170304815 · 2017-10-26 ·

Biologically activated ion-exchange polymer salts are made by exchanging biologically active ionic agents onto ion-exchange polymers. The activated polymers are uniquely surface active and stable to thermal degradation and chemical and other forms of decomposition. The activated ion-exchange polymer salts may be processed and combined with polymer precursors using novel methods and materials to produce stable, biologically activated polymer composites, including antimicrobial and antifouling polymer composites.

COLORED METALLIC PIGMENT

A colored metallic pigment according to the present invention is a colored metallic pigment including at least a metallic pigment, an amorphous silicon oxide film layer formed on a surface of the metallic pigment, a metallic-particle-supporting layer formed on a surface of the amorphous silicon oxide film layer, and metallic particles formed on a surface of the metallic-particle-supporting layer, characterized in that the metallic-particle-supporting layer is formed of one or both of a metal layer and a metal oxide layer composed of a metal oxide other than silicon oxide, the metallic particles are formed to directly cover a part of the surface of the metallic-particle-supporting layer, and the amorphous silicon oxide film layer has a thickness of more than 500 nm.

ENDOSCOPIC COATING COMPOSITION, ENDOSCOPIC LUBRICATING MEMBER, METHOD FOR PRODUCING ENDOSCOPIC LUBRICATING MEMBER, ENDOSCOPIC FLEXIBLE TUBE, AND ENDOSCOPE

An endoscopic coating composition including a solid lubricant, a fluorine-containing surfactant, a thermosetting resin, and a solvent, a lubricating member provided by a coating treatment using the coating composition and being suitable as an endoscopic member, a method for producing the lubricating member, and an endoscopic flexible tube and an endoscope including the lubricating member.

1,2-alkane polyol-containing composition

Provided is a composition containing, as an alkane polyol, a C.sub.4-18 1,2-alkane polyol in which the degradation over time of the C.sub.4-18 1,2-alkane polyol, which has inferior chemical stability and degrades easily, is suppressed, the composition being suitable for use in a cosmetic, an inkjet ink, a fiber or a coating material such as a paint. A composition containing 1,2-alkane polyol that can be used in a cosmetic, an inkjet ink, a raw material for fibers or a coating material, the alkane polyol being a C.sub.4-18 1,2-alkane polyol, and the composition containing a radical scavenger.

1,2-alkane polyol-containing composition

Provided is a composition containing, as an alkane polyol, a C.sub.4-18 1,2-alkane polyol in which the degradation over time of the C.sub.4-18 1,2-alkane polyol, which has inferior chemical stability and degrades easily, is suppressed, the composition being suitable for use in a cosmetic, an inkjet ink, a fiber or a coating material such as a paint. A composition containing 1,2-alkane polyol that can be used in a cosmetic, an inkjet ink, a raw material for fibers or a coating material, the alkane polyol being a C.sub.4-18 1,2-alkane polyol, and the composition containing a radical scavenger.

Digitally printed heat transfer label

A digitally printed heat transfer label and method of manufacture is disclosed. The heat transfer label and method of manufacture provides a more efficient process with less waste, as well as prevents halos. The method comprises adding adhesive powder to a digital image printed on a substrate to produce a high stretch, multi-color photographic quality label for the apparel industry.

Digitally printed heat transfer label

A digitally printed heat transfer label and method of manufacture is disclosed. The heat transfer label and method of manufacture provides a more efficient process with less waste, as well as prevents halos. The method comprises adding adhesive powder to a digital image printed on a substrate to produce a high stretch, multi-color photographic quality label for the apparel industry.

COATED METAL SHEET FOR AUTOMOBILE EXCELLENT IN RUST RESISTANCE IN LOW TEMPERATURE RUNNING ENVIRONMENTS

Provided is a coated metal sheet for automobile comprising: a metal sheet; and a coating film (α) present on at least one surface of the metal sheet. The coating film (α) contains an organic resin (A), an electrically conductive pigments (B), and anti-corrosion pigments (C), and a Martens micro-hardness HM at −20° C. of the surface of the coating film (α) is 10 to 200 (mg/mm.sup.2) at 20 points or more when measured at 100 points, and a Martens micro-hardness HM at 40° C. of the surface of the coating film (α) is 200 to 200,000 (mg/mm.sup.2) at 5 points or more when measured at 100 points.

Coating of inner plate part of vehicle

A coating of an outer plate contains a perylene-based pigment, and satisfies (R.sup.OH(P)/R.sup.OH(OA))≥74, where R.sup.OH(P) is the highlight reflectance of the coating of the outer plate at a peak wavelength at which reflectance reaches the maximum value in a spectral reflectance curve, and R.sup.OH(OA) is the average highlight reflectance of the coating of the outer plate in a complementary wavelength range. A coating of an inner plate part contains a perylene-based pigment and an iron oxide-based pigment, the content of the perylene-based pigment in the coating of the inner plate part is in units of PWC, and the mass ratio of the content of the iron oxide-based pigment to the content of the perylene-based pigment in the coating of the inner plate part is 3-20%.