45results about How to "Simple and low-cost process" patented technology

An electric device having a plurality of nanowires, in which at least one of the nanowires is cut or changed in its electric characteristics so as to have a desired characteristic value of the electric device.

A method performs electrical testing and assembly of an electronic device on a wafer and comprising a pad made in an oxide layer covered by a passivation layer. The method includes connecting the electronic device to a testing apparatus; providing said electronic device with a metallization layer extending on the passivation layer from the pad to a non-active area of said wafer. The method comprises-performing the electrical testing on wafer of the electronic device by placing a probe of on a portion of the extended metallization layer; performing the cut of said wafer, reducing the extension of the metallization layer to the edge of the electronic device; embedding the device inside a package, forming on the metallization layer an electrical connection configured to connect the metallization layer to a circuit in said package.

The disclosure relates to an optically transparent superhydrophobic surface. Methods of fabrication are disclosed including laminating an optically transparent polymer sheet with hydrophobic nanoparticles such that the nanoparticles are partially embedded and partially exposed. The resulting assembly remains optically transparent.

A method of fabricating a trench isolation with high aspect ratio. The method comprises the steps of: providing a substrate with a trench; depositing a first isolation layer filling the trench by low pressure chemical vapor deposition; etching the first isolation layer so that its surface is lowered to the opening of the trench; depositing a second isolation layer to fill the trench without voids by high density plasma chemical vapor deposition and achieving global planarization by chemical-mechanical polishing then providing a rapidly annealing procedure. Accordingly, the present invention achieves void-free trench isolation with high aspect ratio.

An electric device having a plurality of nanowires, in which at least one of the nanowires is cut or changed in its electric characteristics so as to have a desired characteristic value of the electric device.

The present invention relates to a composite material for a negative electrode, including: a plurality of iron oxide particles; and a conductivity improver, which is selected form the group consisting of copper, cobalt, nickel, tin, antimony, bismuth, indium, silver, gold, lead, cadmium, carbon black, graphite, copper salt, cobalt salt, nickel salt, tin salt, antimony salt, bismuth salt, indium salt, silver salt, gold salt, lead salt, cadmium salt, copper hydroxide, cobalt hydroxide, nickel hydroxide, stannic hydroxide, antimony hydroxide, bismuth hydroxide, indium hydroxide, silver hydroxide, gold hydroxide, lead hydroxide, cadmium hydroxide and the combination thereof. In the case of applying the composite material for a negative electrode according to the present invention in an electrochemical device, the improved charge / discharge characteristics and high capacity can be achieved. In addition, the present invention further provides a method for fabricating the above-mentioned composite material for a negative electrode and an electrochemical device using the same.

The disclosure relates to a superhydrophobic surface. Methods of fabrication are disclosed including laminating a polymer sheet having a surface to a template having a textured surface or a layer of a nanomaterial (e.g., nanoparticles or nanofibers) to convert the surface of the polymer sheet to a hydrophobic surface having a water contact angle of at least about 150°.

Prevention of disconnection of a bonding wire resulting from adhesive interface delamination between a resin and a leadframe, and improvement of joint strength of the resin and the leadframe are achieved in a device manufactured by a low-cost and simple processing. A boss is provided on a source lead by a stamping processing, and a support pillar is provided in a concave portion on a rear side of the source lead in order to prevent ultrasonic damping upon joining the bonding wire onto the boss, so that an insufficiency of the joint strength between the bonding wire and the source lead is prevented. Also, a continuous bump is provided on the boss so as to surround a joint portion between the source lead and the bonding wire, so that disconnection of the bonding wire resulting from delamination between the resin and the source lead is prevented.

An organic glass for automobile is provided which has excellent weatherability, wear-resistance and abrasion-resistance, and which can be mass-produced by a simple and inexpensive process. The organic glass comprises a transparent resin base plate 12 and a hard coat layer 14 formed on at least one surface of the resin base plate. The hard coat layer includes an organic thin film 16 formed by vacuum deposition polymerization.

An electron emission device and / or display using the same includes a beam-focusing structure. The beam-focusing structure has a first insulating layer formed on a plate. The first insulating layer has a thickness, and is formed with a first hole. A first electrode is formed on the first insulating layer and extending into the first hole. An emission portion is formed in the first hole and connected to the first electrode. A second insulating layer is formed on the first electrode and is also formed with a second hole through which the emission portion is at least partially exposed. A second electrode is formed on the second insulating layer. In the electron emission device and / or the display, an electric field between the first electrode and the second electrode causes the emission portion to emit an electron beam and focuses the electron beam from the emission portion.

A direct current motor having a stator that has a plurality of radially arranged stator pole bridges to each of which one phase is allocated, at least one stator pole group being formed by at least two adjoining stator poles which are associated with the same phase, no winding sections being provided between the stator poles of the at least one stator pole group and the respective stator pole bridges of this stator pole group being disposed with a smaller spacing between each other than two adjoining stator pole bridges that are associated with different phases.

A method performs electrical testing and assembly of an electronic device on a wafer and comprising a pad made in an oxide layer covered by a passivation layer. The method includes connecting the electronic device to a testing apparatus; providing said electronic device with a metallization layer extending on the passivation layer from the pad to a non-active area of said wafer. The method comprises-performing the electrical testing on wafer of the electronic device by placing a probe of on a portion of the extended metallization layer; performing the cut of said wafer, reducing the extension of the metallization layer to the edge of the electronic device; embedding the device inside a package, forming on the metallization layer an electrical connection configured to connect the metallization layer to a circuit in said package.

An organic glass for automobile is provided which has excellent weatherability, wear-resistance and abrasion-resistance, and which can be mass-produced by a simple and inexpensive process. The organic glass comprises a transparent resin base plate 12 and a hard coat layer 14 formed on at least one surface of the resin base plate. The hard coat layer includes an organic thin film 16 formed by vacuum deposition polymerization.

The present invention relates to a composite material for a negative electrode, including: a plurality of iron oxide particles; and a conductivity improver, which is selected form the group consisting of copper, cobalt, nickel, tin, antimony, bismuth, indium, silver, gold, lead, cadmium, carbon black, graphite, copper salt, cobalt salt, nickel salt, tin salt, antimony salt, bismuth salt, indium salt, silver salt, gold salt, lead salt, cadmium salt, copper hydroxide, cobalt hydroxide, nickel hydroxide, stannic hydroxide, antimony hydroxide, bismuth hydroxide, indium hydroxide, silver hydroxide, gold hydroxide, lead hydroxide, cadmium hydroxide and the combination thereof. In the case of applying the composite material for a negative electrode according to the present invention in an electrochemical device, the improved charge / discharge characteristics and high capacity can be achieved. In addition, the present invention further provides a method for fabricating the above-mentioned composite material for a negative electrode and an electrochemical device using the same.

A method for fabricating interconnections with carbon nanotubes of the present invention comprises the following steps: forming a dual-layer that contains a catalytic layer and an upper covering layer on the periphery of a hole connecting with a substrate; and growing carbon nanotubes on the catalytic layer with the upper covering layer covering the carbon nanotubes. The present invention grows the carbon nanotubes between the catalytic layer and the upper covering layer. The upper covering layer protects the catalytic layer from being oxidized and thus enhances the growth of the carbon nanotubes. The carbon nanotubes are respectively connected with the lower substrate and an upper conductive wire via the catalytic layer and the upper covering layer, which results in a lower contact resistance. Moreover, the upper covering layer also functions as a metal-diffusion barrier layer to prevent metal from spreading to other materials via diffusion or other approaches.

A transparent heat-shielding material having a chemical formula CsXNYWO3-ZClC, characterized by being co-doped with elements of different groups in the periodic table, wherein Cs is cesium; N is tin (Sn) or antimony (Sb) or bismuth (Bi); W is tungsten; O is oxygen; and X, Y, Z, and C are positive numbers satisfying the following conditions:X≦1.0, Y≦1.0, Y / X≦1.0, Z≦0.6, and C≦0.1;the transparent heat-shielding material is used to make a highly transparent and highly effective heat-shielding film which can be adhered to glass panels of buildings and automobiles to block infrared radiation in the wavelength range of 800-2000 nm, thereby insulating heat and saving energy; and the film is also applicable as a composite substrate for electronic components.