Abstract:
A water jet handler (200) has a loading location (205), a cutting location (210), and an unloading location (215); and two movable mounts (240 and a 245). As a first movable mount (240) receives a molded substrate at the loading location (205), and transports it to the cutting location (210), a second movable mount (245) transports singulated semiconductor packages of a previously singulated molded substrate from the cutting location (210) to the unloading location (215). As the molded substrate on the first movable mount (240) is cut in the X direction (232) by a water jet, the singulated semiconductor packages are unloaded. The molded substrate is then transferred to the second movable mount (245) on which it is cut in the Y direction (272) to produce singulated semiconductor packages, as the first movable mount (240) returns to the loading location (205), when another molded substrate is loaded.
Abstract:
The present invention demonstrated the potential use of Lactobacillus johnsonii D115 as a probiotic, as a prophylactic agent or as a surface treatment of materials against human and animal pathogens such as Brachyspira pilosicoli, Brachyspira hyodysenteriae, Shigella sonnei, Vibrio cholera, Vibrio parahaemolyticus, Campylobacter jejuni, Streptococcus pneumoniae, Enterococcus faecalis, Enterococcus faecium, Clostridium perfringens, Yersinia enterocolitica, Escherichia coli, Klebbsiella pneumoniae, Staphylococcus aureus, Salmonella spp., Bacillus cereus, Aspergillus niger and Fusarium chlamydosporum. The proteineous antimicrobial compound was partially characterized and found to be heat tolerant up to 121° C. for 15 min, and acid tolerant up to pH1 for 30 min at 40° C. The compound is also stable to enzymatic digestion, being able to retain more than 60% antimicrobial activity when treated with pepsin and trypsin.
Abstract:
Antimicrobial compounds from Bacillus subtilis for use against animal and human pathogens. A novel strain of Bacillus subtilis was isolated from the gastrointestinal tract of poultry and was found to produce a factor or factors that have excellent inhibitory effects on Clostridium perfringens, Clostridium difficile, Campylobacter jejuni, Campylobacter coli, and Streptococcus pneumoniae. The factor(s) retain full viability and antimicrobial activity after heat treatment. The invention provides a method of treatment of pathogenic microorganisms including C. perfringens.
Abstract:
An integrated circuit is provided having a base with a first dielectric layer formed thereon. A second dielectric layer is formed over the first dielectric layer. A third dielectric layer is formed in spaced-apart strips over the second dielectric layer. A first trench opening is formed through the first and second dielectric layers between the spaced-apart strips of the third dielectric layer. A second trench opening is formed contiguously with the first trench opening through the first dielectric layer between the spaced-apart strips of the third dielectric layer. Conductor metals in the trench openings form self-aligned trench interconnects.
Abstract:
A water jet handler (200) has a loading location (205), a cutting location (210), and an unloading location (215); and two movable mounts (240 and a 245). As a first movable mount (240) receives a molded substrate at the loading location (205), and transport it to the cutting location (210), a second movable mount (245) transports singulated semiconductor packages of a previously singulated molded substrate from the cutting location (210) to the unloading location (215). As the molded substrate on the first movable mount (240) is cut in the X direction (232) by a water jet, the singulated semiconductor packages are unloaded. The molded substrate is then transferred to the second movable mount (245) on which it is cut in the Y direction (272) to produce singulated semiconductor packages, as the first movable mount (240) returns to the loading location (205), when another molded substrate is loaded.
Abstract:
A method of forming an aligned dual damascene opening, comprising including the following sequential steps. A structure having a metal structure formed thereover is provided. A layer stack is formed over the metal structure. The layer stack comprises, in ascending order: a bottom etch stop layer; a lower dielectric material layer; a middle etch stop layer; a middle dielectric material layer; and an upper dielectric layer. The upper dielectric layer is patterned to form an opening exposing a portion of the underlying middle dielectric material layer. The opening having a width. A patterned mask layer is formed over the patterned upper dielectric layer leaving exposed opposing portions of the patterned upper dielectric layer. The middle dielectric material layer is patterned to form an opening therein using the patterned mask layer and the exposed portions of the upper dielectric layer as masks. The middle dielectric material layer opening exposing a portion of the middle etch stop layer. The middle etch stop layer is removed at its exposed portion to form a patterned middle etch stop layer having an opening exposing a portion of the lower dielectric material layer. Simultaneously patterning: the patterned middle dielectric material layer using the patterned upper dielectric layer as a mask to form an inchoate upper trench opening; and the lower dielectric material layer using the patterned mask layer and the patterned middle etch stop layer as masks to form an inchoate lower via opening aligned with the inchoate upper trench opening. The inchoate lower via opening exposing a portion of the underlying bottom etch stop layer. The patterned mask layer is removed. The patterned upper dielectric material layer, the exposed portions of the patterned middle etch stop layer and the exposed portion of the bottom etch stop layer are removed to convert: the inchoate upper trench opening into a final upper trench opening; and the inchoate lower via opening into a final lower via opening to form the dual damascene opening.
Abstract:
A method for forming semiconductor packages is disclosed. The method involves providing a support substrate and forming at least one conductive layer thereon. The method also includes coupling the at least one conductive layer to a support face of a film substrate for securing the at least one conductive layer to the support face and removing the support substrate from the at least one conductive layer. The at least one interconnector is adhered to the film substrate for forming an interposer. The method further involves bonding a integrated circuit chip to the at least one conductive layer of the interposer and disposing a compound over the support face to thereby encapsulate the integrated circuit chip and the least one conductive layer for forming an encapsulated package therefrom. Portions of the at least one conductive layer is then exposed by removing the film substrate from the encapsulated package.
Abstract:
A method of fabrication of a sputtered metal silicide layer over a copper interconnect. We form a dielectric layer over a conductive layer. We form an interconnect opening in the dielectric layer. We form a copper layer at least filling the interconnect opening. We planarize the copper layer to form a copper interconnect in the interconnect opening. The copper interconnect is over polished to form a depression. We form metal silicide layer over the copper interconnect using a low temperature sputtering process. We can form a cap layer over the metal silicide layer.
Abstract:
A method and structure for slots in wide lines to reduce stress. An example embodiment method and structure for is an interconnect structure comprising: interconnect comprising a wide line. The wide line has a first slot. The first slot is spaced a first distance from a via plug so that the first slot relieves stress on the wide line and the via plug. The via plug can contact the wide line from above or below. Another example embodiment is a dual damascene interconnect structure comprising: an dual damascene shaped interconnect comprising a via plug, a first slot and a wide line. The wide line has the first slot. The first slot is spaced a first distance from the via plug so that the first slot relieves stress on the wide line and the via plug.
Abstract:
An aligned dual damascene opening structure, comprising the following. A structure having a metal structure formed thereover. A patterned layer stack over the metal structure; the layer stack comprising, in ascending order: a patterned bottom etch stop layer; a patterned lower dielectric material layer; a patterned middle etch stop layer; and a patterned middle dielectric material layer; the lower and middle dielectric layers being comprised of the same material. An upper trench opening in the patterned bottom etch stop layer and the patterned lower dielectric material layer; and a lower via opening in the patterned middle etch stop layer and the patterned middle dielectric material layer. The lower via opening being in communication with the upper trench opening. Wherein the upper trench opening and the lower via opening comprise an aligned dual damascene opening.