Abstract: An apparatus for testing bending strength is provided. The apparatus includes a frame, a load-supporting platform, a motor, and a control part. The load-supporting platform is mounted on the frame. The load-supporting platform includes a vessel configured for receiving a hand-held device. The motor includes a piston. A piston head is mounted on one end of the piston for impacting the vessel. The piston head includes a convex face oriented to face the vessel. The control part is configured for controlling the piston to move up and down repeatedly. The apparatus can be used to test a hand-held device's bending strength conveniently.

Abstract: A method for semiconductor defect detection, applied to a wafer test in a semiconductor process. A defect test is implemented for generating redundant information. an abnormal test implemented for generating a first FBM. The redundant information is converted to a second FBM. The first and second FBMs are compared, thereby generating a third FBM according to comparison results.

Abstract: A system and method of remote media cache optimization for use with multiple processing units. The present invention discloses a data processing system that includes multiple processing units, a storage device, and a storage device adapter for coupling the storage device to the multiple processing units. The data processing system also includes a cache coupled to the storage device. The cache includes a data partition for storing data retrieved from the storage device and multiple sense data partitions. Each of the multiple sense partitions correspond to a respective one of the multiple processing units. In response to the storage device receiving a first command from a first processing unit, the storage device issues a response to the command and the storage device adapter stores sense data corresponding to the first command in a first sense data partition.

Abstract: The present invention provides a method of defining polysilicon patterns. The method forms a polysilicon layer on a substrate, and a patterned mask on the polysilicon layer. Then, a first etching process is performed to remove a portion of the polysilicon layer not covered by the mask, thus forming a plurality of cavities in the polysilicon layer. A strip process is performed to strip the mask utilizing gases excluding O2. Finally, a second etching process is performed to remove a portion of the polysilicon layer, thus extending the plurality of cavities down to a surface of the substrate.

Abstract: A method for semiconductor defect detection, applied to a wafer test in a semiconductor process. A defect test is implemented for generating redundant information. an abnormal test implemented for generating a first FBM. The redundant information is converted to a second FBM. The first and second FBMs are compared, thereby generating a third FBM according to comparison results.

Abstract: The invention is directed towards a method for forming openings in low-k dielectric layers and a structure for forming an opening thereof. A mask layer comprising at least one metal hard mask layer and one or more hard mask layers is applied on the dielectric layer for forming the opening.

Abstract: The invention is directed towards a method for forming openings in low-k dielectric layers and a structure for forming an opening thereof. A mask layer comprising at least one metal hard mask layer and one or more hard mask layers is applied on the dielectric layer for forming the opening.

Abstract: An actuating mechanism for angles of light of a vertical curtain, and more particularly, an actuating mechanism for adjusting angles of incoming light of a curtain having vertical slats, includes a rotating gear indirectly disposed between an interlocking gear and a driving gear thereof. The driving gear is disposed with deviation. Using an elastic clutch escape function and various diameters of the driving gear, the aforesaid structure is able to adapt to different torsion requirements for full breadth light shielding effects, as well as safe applications.

Abstract: Application of an adhesion promoter to a cap layer and oxidation of the adhesion promoter prior to deposition of an organic interlevel dielectric thereon reduces via resistance problems during thermal cycles of semiconductor wafers embodying multiple levels of metal and organic interlevel dielectrics.

Abstract: A process for forming fusible links in an integrated circuit in which the fusible links are formed in the final metallization layer simultaneously with bonding pads. The process can be applied in the fabrication of integrated circuits that employ copper metallization and low k dielectric materials. After patterning the final metal (aluminum) layer to form the fusible links and the bonding pads, a dielectric etch stop layer is formed over the final metal layer before a passivation layer is deposited. The passivation layer is removed in areas over the fusible links and the bonding pads. The dielectric etch stop layer is removed either from above the bonding pads only, or from above both the bonding pads and the fusible links.

Abstract: A process for forming fusible links in an integrated circuit in which the fusible links are formed in the final metallization layer simultaneously with bonding pads. The process can be applied in the fabrication of integrated circuits that employ copper metallization and low k dielectric materials. After patterning the final metal (aluminum) layer to form the fusible links and the bonding pads, a dielectric etch stop layer is formed over the final metal layer before a passivation layer is deposited. The passivation layer is removed in areas over the fusible links and the bonding pads. The dielectric etch stop layer is removed either from above the bonding pads only, or from above both the bonding pads and the fusible links.

Abstract: Application of an adhesion promoter to a cap layer and oxidation of the adhesion promoter prior to deposition of an organic interlevel dielectric thereon reduces via resistance problems during thermal cycles of semiconductor wafers embodying multiple levels of metal and organic interlevel dielectrics.

Abstract: The invention is directed towards a method for forming openings in low-k dielectric layers. A cap layer, a low-k dielectric layer, a metal hard mask layer and a hard mask layer are formed in sequence on a provided substrate with metal wires. After patterning the metal hard mask layer and the hard mask layer to form a first opening, a fluid filling material layer is formed on the hard mask layer and fills the first opening. Using a patterned photoresist layer as a mask to define the filling material layer and the low-k dielectric layer, a second opening is obtained. After removing the photoresist layer along with the filling material layer, a damascene opening is formed by using the metal hard mask and the hard mask layers as a mask and the cap layer as an etching stop layer.

Abstract: A method for forming a damascene opening in a polymer-based dielectric layer is introduced. The method includes providing a substrate, which has also a conductive structure layer and a polymer-based dielectric layer formed thereon already. The polymer-based dielectric layer is uniformly hardened by a thermal treatment. A mask layer is formed on the polymer-based dielectric layer. The mask layer and the polymer-based dielectric layer are patterned to form an opening. The opening exposes a surface of the polymer-based dielectric layer. The exposed surface of the polymer-based dielectric layer is further hardened by a local hardening process. The local hardening process includes using an irradiation source of a high energy light beam, electron beam or ion beam to proceed the local hardening. The irradiation source can be incident onto the substrate by vertical angle or inclining angle. The substrate can also be rotated.

Abstract: The invention is directed towards a method for forming openings in low-k dielectric layers and a structure for forming an opening thereof. A mask layer comprising at least one metal hard mask layer and one or more hard mask layers is applied on the dielectric layer for forming the opening.

Abstract: The invention is directed towards a method for forming openings in low-k dielectric layers. A cap layer, a low-k dielectric layer, a metal hard mask layer and a hard mask layer are formed in sequence on a provided substrate with metal wires. After patterning the metal hard mask layer and the hard mask layer to form a first opening, a fluid filling material layer is formed on the hard mask layer and fills the first opening. Using a patterned photoresist layer as a mask to define the filling material layer and the low-k dielectric layer, a second opening is obtained. After removing the photoresist layer along with the filling material layer, a damascene opening is formed by using the metal hard mask and the hard mask layers as a mask and the cap layer as an etching stop layer.

Abstract: A method for forming a three dimensional semiconductor structure which has vertical capacitor(s) but not horizontal capacitor(s). The method essentially at least includes these steps of forming bottom plates within dielectric layers, forming another dielectric layer over bottom plates, removing all dielectric layers over bottom plates, forming optional liner(s) and capacitor dielectric layers on bottom plates, and forming top plates over capacitor dielectric layers. Note that shape of bottom plates is alike to the bottom connection and verticle fingers, also note that each gap within bottom plates is filled by both capacitor dielectric layer and top plate.

Abstract: A method of forming a dual damascene structure. A first dielectric layer, an etching stop layer, a second dielectric layer and a hard mask layer are sequentially formed over a substrate. Photolithographic and etching operations are conducted to remove a portion of the hard mask layer, the second dielectric layer, the etching stop layer and the first dielectric layer so that a via opening is formed. A conformal dielectric layer is formed on the surface of the hard mask layer and the interior surface of the via opening. An anisotropic etching operation is carried out to form spacers on the sidewalls of the via opening. A patterned photoresist layer is formed over the hard mask layer. Using the patterned photoresist layer as a mask, a portion of the second dielectric layer is removed to form a trench. The patterned photoresist layer is removed. Conductive material is deposited over the substrate to fill the via opening and the trench.

Abstract: A damascene process for forming a via that leads to a conductive layer on a substrate. A low dielectric constant material layer is formed over the substrate. A low temperature hard mask layer is formed over the low dielectric constant material layer. The low temperature hard mask layer is patterned to form an opening above the conductive layer. Using the low temperature hard mask layer as a mask, the exposed low dielectric constant material layer is etched to form a via hole. An adhesion promoter liner is formed on the interior walls of the via hole. Metallic material is deposited into the via hole to form a via.

Abstract: A method for forming a damascene opening in a polymer-based dielectric layer is introduced. The method includes providing a substrate, which has also a conductive structure layer and a polymer-based dielectric layer formed thereon already. The polymer-based dielectric layer is uniformly hardened by a thermal treatment. A mask layer is formed on the polymer-based dielectric layer. The mask layer and the polymer-based dielectric layer are patterned to form an opening. The opening exposes a surface of the polymer-based dielectric layer. The exposed surface of the polymer-based dielectric layer is further hardened by a local hardening process. The local hardening process includes using an irradiation source of a high energy light beam, electron beam or ion beam to proceed the local hardening. The irradiation source can be incident onto the substrate by vertical angle or inclining angle. The substrate can also be rotated.