Abstract:
The present invention is directed to curable film-forming compositions comprising: (a) a curing agent component comprising: (i) isocyanate functional groups; and (ii) polydialkylsiloxane functional groups; (b) a film-forming polymer comprising functional groups reactive with the isocyanate functional groups in (a); and (c) an acrylic polymer component comprising: (i) hydroxyl functional groups; and (ii) polydialkylsiloxane functional groups; wherein the components (a), (b) and (c) are different from one another. The present invention is further directed methods of mitigating dirt build-up on a substrate, comprising applying to at least a portion of the substrate the curable film-forming composition described above and at least partially curing the curable film-forming composition.
Abstract:
Provided are a paste material, a method of forming the paste material, a wiring member formed from the paste material, and an electronic device including the wiring member. The paste material may include a plurality of liquid metal particles and a polymer binder. The paste material may further include a plurality of nanofillers. At least some of the plurality of nanofillers may each have an aspect ratio equal to or greater than about 3. The content of the plurality of liquid metal particles may be greater than the content of the polymer binder and may be greater than the content of the plurality of nanofillers. The wiring member may be formed by using the paste material, and the wiring member may be used in various electronic devices.
Abstract:
VO2 and V2O5 nano- or micro-materials. The VO2 nano-materials and micro-materials have an M1 phase structure and oxygen stoichiometry that deviates 2% or less from theoretical stoichiometry. The VO2 nano-materials and micro-materials may doped with cation dopants and/or anion dopants. The VO2 and V2O5 nano- or micro-materials can be made by hydrothermal methods starting with V3O7.H2O nano- or micro-material. The VO2 and V2O5 nano- or micro-materials can be used as, for example, thermochromic window coatings.
Abstract:
The invention provides a composition comprising a polymer nanoparticle and at least one agricultural active compound associated with the polymer nanoparticle, wherein the polymer nanoparticle is less than 100 nm in diameter and is cross-linked, and wherein the polymer nanoparticle comprises a collapsed, water-soluble polyelectrolyte that has a molecular weight of at least about 100,000 Dalton.
Abstract:
Provided is a layered product with high jet-black. A layered product according to the present invention is a layered product (10) including at least a first layer (1) and a second layer (2) that are stacked. A value of L* in a L*a*b* color system defined by JIS Z8729 of the first layer (1) is ten or less. The second layer (2) is formed on the first layer (1) and 0.1 to 1 mass% of carbon nanotubes are contained in a material constituting the second layer (2). In the L*a*b* color system defined by JIS Z8729, when values are measured from a side of a plane of the second layer (2), a value of L* is 2.5 or less, a value of a* is -2.0 or greater and 2.0 or less, and a value of b* is -2.0 or greater and 0.5 or less.
Abstract:
A composite film includes a composite blend layer including a water-soluble synthetic thermoplastic polymer and blocking particles, wherein the blocking particles are nanoclay particles or talc particles, and wherein the composite film is free of compatibilizers. In addition, a laminate film consists of two layers, wherein the first layer is a composite blend layer including polyvinyl alcohol (PVOH) and blocking particles, wherein the blocking particles are nanoclay particles or talc particles, and wherein the second layer is a polyolefin film layer in facing relationship with the composite blend layer, wherein the laminate is free of compatibilizers. These films can be used to manufacture a glove or other article for solvent resistance.
Abstract:
The present invention relates to an article suitable to act as a thermal switch device, the article having a surface resistance of more than 105 ohms and formed from a polymer composition comprising from 50 to 99.9 wt % relative to the total weight of the polymer composition, of a polymer being selected from an amorphous polymer having a glass transition temperature Tg, a semi-crystalline polymer having a melting temperature Tm or a mixture thereof, and from 0.1 to 50 wt % relative to the total weight of the polymer composition, of a conductive material, wherein the surface resistance of the article is divided by at least 10, preferably by at least 100, when said article is submitted for a determined period of time of less than 5 minutes to a temperature of switch i) ranging from Tg+10° C. to Tg+250° C. if the polymer composition comprises an amorphous polymer, or ii) ranging from Tm−80° C. to Tm+250° C. if the polymer composition comprises a semi-crystalline polymer.
Abstract:
The present invention relates to a masterbatch for use in a process of preparing a composite material comprising a blend of a first semi-crystalline polymer with at least 5 wt % carbon nanotubes. Good dispersion of the carbon nanotube is obtained within the masterbatch and evidenced by the blending of the masterbatch with a second semi-crystalline polymer miscible with the first one in respective proportions to obtain a composite material containing about 1 wt % of carbon nanotubes wherein said composite material yields an agglomerate area fraction U % lower than 2 and a surface resistivity lower than 105 ohm/sq.
Abstract:
Disclosed herein is an anti-reflective film including: a hard coating layer; and a low-refractive layer containing a binder resin, and hollow inorganic nanoparticles and solid inorganic nanoparticles which are dispersed in the binder resin, wherein the low-refractive layer includes a first layer containing at least 70 vol% of the entire solid inorganic nanoparticles and a second layer containing at least 70 vol% of the entire hollow inorganic nanoparticles, and at the time of fitting polarization ellipticity measured by ellipsometry for the fisrt layer or/and the second layer included in the low-refractive layer using a Cauchy model represented by the following General Equation 1, the second layer satisfies a predetermined condition.