Abstract:
A method of fabricating a device, comprising a ink or paste on a silicon based semiconductor material, wherein the ink or paste comprises a mixture of inorganic conductive and additive nanoparticles and wherein the semiconductor material is silicon. An example is a mixture of silver and palladium nanoparticles.
Abstract:
A method of fabricating a device, comprising a ink or paste on a silicon based semiconductor material, wherein the ink or paste comprises a mixture of inorganic conductive and additive nanoparticles and wherein the semiconductor material is silicon. An example is a mixture of silver and palladium nanoparticles.
Abstract:
An end cap (30) for sealing an end of a closure about a cable member directed therein. The end cap (30) includes a wall member (32) having a first surface (34), an exterior surface and an outer circumferential edge. A longitudinal port (40) extends through the wall member (32) from the first surface to the exterior surface. The port (40) has a transverse cross-sectional shape defined by first and second lobed portions (42, 44) joined at a waist (46), the cross-sectional shape of the port configured for receiving a cable assembly having a corresponding transverse cross-section.
Abstract:
Methods for forming nanoparticles under commercially attractive conditions. The nanoparticles can have very small size and high degree of monodispersity. Low temperature sintering is possible, and highly conductive films can be made. Semiconducting and electroluminescent films can be also made. One embodiment provides a method comprising: (a) providing a first mixture comprising at least one nanoparticle precursor and at least one first solvent for the nanoparticle precursor, wherein the nanoparticle precursor comprises a salt comprising a cation comprising a metal; (b) providing a second mixture comprising at least one reactive moiety reactive for the nanoparticle precursor and at least one second solvent for the reactive moiety, wherein the second solvent phase separates when it is mixed with the first solvent; and (c) combining said first and second mixtures in the presence of a surface stabilizing agent, wherein upon combination the first and second mixtures phase-separate and nanoparticles are formed.
Abstract:
The present invention provides a flame retardant encapsulant composition. A composition includes 40-80 wt. % of an encapsulant comprising 60 to 80 parts by weight of hydrocarbon oil suspended in a cross-linked polymer matrix; and a liquid flame retardant. At least a portion of the liquid flame retardant can be present in the form of a dispersed liquid phase suspended in a continuous oil-rich phase that swells the cross- linked polymer matrix. In some exemplary embodiments, the oil-rich phase comprises less than 15% of the liquid flame retardant dissolved in the oil-rich phase.
Abstract:
A composition comprises at least one silver nanoparticulate material, at least one conductive microparticulate material, and less than about 3% wt of an organic or polymeric resin. The composition provides a low curing temperature and upon cure good film properties. Also provided herein is a method of using an ink or paste, comprising: (i) providing the ink or paste comprising at least one silver nanoparticulate material, at least one conductive microparticulate material, and less than about 3% wt of an organic or polymeric resin; and (ii) curing the ink or paste at a temperature at lower than about 200 ∘ C to decompose the organic resin.
Abstract:
The present invention discloses a splice holder, which is used for holding at least one splicing sleeve (4), each of the splicing sleeves (4) is used for coupling two optical fibers. The splice holder comprises: a body; a splice channel (7) provided on the body; and an elastic device (9) in each splice channel, wherein the elastic device holds the splicing sleeve (4) elastically in the splice channel. The present invention also includes a communication socket having a splice holder mounted therein. By the splice holder of present invention, optical fiber connection points can be accommodated in a communication socket, so that electrical cables and optical fibers in the communication socket may be managed in an orderly way. Furthermore, inclusion of the inventive splice holder ensures than a minimum bending radius of optical fiber can be maintained when the optical fiber is stored in the communication socket.
Abstract:
A communication socket comprises a housing including a base portion having a bottom wall and a plurality of sidewalls and a cover portion. The base portion and the cover portion are detachably engaged with each other. The base portion includes a plurality of knock-off holes for inserting an optical fiber at different positions in the sidewall and/or a plurality of fiber entries for inserting a fiber through the bottom wall. The fiber-connector-mounting portion extends from the base. Each of the fiber-connector-mounting portion includes a spacer for maintaining a fiber connector at a distance away from the bottom wall, and a space for inserting the fiber between the fiber connector and the bottom wall. The volume of the communication socket can be minimized, the integration thereof can be improved, the fiber can enter the communication socket in all directions while the fiber's bend radius is satisfied, and the management on the fiber and cable in the communication socket is effective.
Abstract:
A splice apparatus for optical fiber for splicing a general indoor optical fiber and a covered fiber cable is disclosed, comprising: a tray including a tail fiber securing device location section and a covered fiber cable securing device location section spaced apart by a predetermined distance; a core splice device, for splicing cores of the general indoor optical fiber and the covered fiber cable; a tail fiber securing device, secured on the tray adjacent the tail fiber securing device location section and connected to a tail fiber of the general indoor optical fiber, the core of the tail fiber passes through the tail fiber securing device by a predetermined length and being spliced to the core of the covered fiber cable by the core splice device; a covered fiber cable securing device, secured on the tray adjacent the covered fiber cable securing device location section and connected to the covered fiber cable.
Abstract:
A process for separating different products from steelmaking slag includes reducing the average particle size of slag from a steelmaking process into fine particle size material, and separating the fine particle size material into at least an iron rich product and a silicate rich product based on the differences between these products in at least one or more properties including magnetic susceptibility, particle size or specific gravity.