Abstract:
The present invention relates to a laser fuse structure for high power applications. Specifically, the laser fuse structure of the present invention comprises first and second conductive supporting elements (12a, 12b) , at least one conductive fusible link (14) , first and second connection elements (20a, 20b) , and first and second metal lines (22a, 22b) . The conductive supporting elements (12a, 12b) , the conductive fusible link (14) , and the metal lines (22a, 22b) are located at a first metal level (3) , while the connect elements (20a, 20b) are located at a second, different metal level (4) and are connected to the conductive supporting elements (12a, 12b) and the metal lines (22a, 22b) by conductive via stacks (18a, 18b, 23a, 23b) that extend between the first and second metal levels (3, 4).
Abstract:
PROBLEM TO BE SOLVED: To obtain perfect optical resolution of holes and bars by using a conventional manufacturing equipment, by forming a plurality of second aperture parts which correspond to a plurality of second patterned features and stretch through a first and a second layers, in the second layer, filling the aperture parts. SOLUTION: A first layer is formed on a semiconductor substrate 4, and only a plurality of first features having a first feature size are patterned on the first layer. Parts of the first layer which correspond to the patterned first features are eliminated, and a plurality of aperture parts are formed in the first layer and filled. A second layer is formed on the first layer and the filled aperture parts, a plurality of second features having a second feature size are patterned on the second layer, and parts of the first and the second layer which correspond to the patterned second features are eliminated. As a result, a plurality of second aperture parts which correspond to a plurality of the second patterned features and stretch through the first and the second layers are formed in the second layer and filled.
Abstract:
PROBLEM TO BE SOLVED: To provide a method, apparatus and computer program for performing simulation of influence of a manufacturing process to electrical performance in the integrated circuit during design stage. SOLUTION: Methods, apparatus and computer program provide a fast and accurate model for simulating the effects of chemical mechanical polishing (CMP) steps during fabrication of an integrated circuit by generating a design of an integrated circuit, using a simplified model while generating the design of the integrated circuit, predicting at least one physical characteristic of the integrated circuit which results from a processing step to be used during manufacture of the integrated circuit, wherein the simplified model is derived from simulations performed prior to the design generation activities using a comprehensive simulation program used to model the physical characteristic; predicting performance of the integrated circuit using the predicted physical characteristic; and adjusting the design of the integrated circuit in dependence on the performance prediction. COPYRIGHT: (C)2010,JPO&INPIT
Abstract:
A method for forming a porous dielectric material layer (14) in an electronic structure (70) and the stricture (70) formed are disclosed. In the method, a porous dielectric layer (14) in a semiconductor device (70) can be formed by first forming (10) a non-porous dielectric layer (14),- then partially curing (20), patterning (30) by reactive ion etching, and final curing (40) the non-porous dielectric layer (14) at a higher temperature than the partial curing (20) temperature to transform the non-porous dielectric material (14) into a porous dielectric material (14), thus achieving 'a dielectric material that has significantly improved dielectric constant, i.e. smaller than 2.6. The non-porous dielectric material (14) may be formed by embedding a thermally stable dielectric material such as methyl silsesquioxane, hydrogen silsesquioxane, benzocyclobutene or aromatic thermoset polymers with a second phase polymeric material therein such that, at the higher curing temperature, the second phase polymeric material substantially volatilizes to leave voids behind forming a void-filled dielectric material.
Abstract:
A method is provided for forming a conductive stud and line over a surface (12), comprising the steps of forming at least a first layer of material (14) over the region on the surface whereat the conductive stud and line are to be formed; forming a layer (22) of dual image photoresist over the material; exposing the dual image photoresist to radiation so as to form at least first and second regions (22A, 22B, 22C) exhibiting different development characteristics; developing the first region (22A) so as to expose a portion of the material; removing the exposed portion of the material so as to define the position of one of the conductive line or stud; developing the second region to expose more of the material; and removing the newly exposed portion of material so as to define the position of the other of the conductive line (16 min /18 min ) or stud (20 min ).
Abstract:
Methods, apparatus and computer program products provide a fast and accurate model for simulating the effects of chemical mechanical polishing (CMP) steps during fabrication of an integrated circuit by generating a design of an integrated circuit; while generating the design of the integrated circuit, using a simplified model to predict at least one physical characteristic of the integrated circuit which results from a CMP processing step to be used during manufacture of the integrated circuit, wherein the simplified model is derived from simulations performed prior to the design generation activities using a comprehensive simulation program used to model the physical characteristic; predicting performance of the integrated circuit using the predicted physical characteristic; and adjusting the design of the integrated circuit in dependence on the performance prediction.
Abstract:
A method for forming a porous dielectric material layer in an electronic structure and the structure formed are disclosed. In the method, a porous dielectric layer in a semiconductor device can be formed by first forming a non-porous dielectric layer, then partially curing, patterning by reactive ion etching, and final curing the non-porous dielectric layer at a higher temperature than the partial curing temperature to transform the non-porous dielectric material into a porous dielectric material, thus forming a dielectric material that has a low dielectric constant, i.e. smaller than 2.6. The non-porous dielectric material may be formed by embedding a thermally stable dielectric material such as methyl silsesquioxane, hydrogen silsesquioxane, benzocyclobutene or aromatic thermoset polymers with a second phase polymeric material therein such that, at the higher curing temperature, the second phase polymeric material substantially volatilizes to leave voids behind forming a void-filled dielectric material.
Abstract:
A method is provided for forming a conductive stud and line over a surface (12), comprising the steps of forming at least a first layer of material (14) over the region on the surface whereat the conductive stud and line are to be formed; forming a layer (22) of dual image photoresist over the material; exposing the dual image photoresist to radiation so as to form at least first and second regions (22A, 22B, 22C) exhibiting different development characteristics; developing the first region (22A) so as to expose a portion of the material; removing the exposed portion of the material so as to define the position of one of the conductive line or stud; developing the second region to expose more of the material; and removing the newly exposed portion of material so as to define the position of the other of the conductive line (16 min /18 min ) or stud (20 min ).
Abstract:
A film forming, radiation sensitive resist composition having improved thermal stability and a reduced dissolution rate in developer solutions, comprised of a sensitizer and a polyalkenyl phenol such as a polyvinyl phenol cross-linked, prior to irradiation, with a polyfunctional cross-linking agent such as dimethylol p-cresol or hexamethylene tetramine and a process for the production of a resist image using said composition is described.