Abstract: The invention is for a solid body type guitar having a pickup selector switch located closely adjacent to the volume controls. The invention is a specially developed pickup selector switch tip knob having an extension arm which is contoured to conveniently fit the human finger for easy manipulation of the pickup selector switch. The contoured extension arm can have one or both sides contoured to accommodate easy pickup selection from either direction with the guitar player's hand. The invention can be mounted on the pickup selector switch post such that the extension arm is facing either toward the guitar strings or away from the guitar strings.

Abstract: The invention relates to a method for the production of masks, in particular for the production of alternating phase shift masks (1), or of chromeless phase shift masks or phase shift masks structured by quartz etching, respectively, as well as to a mask (1), in particular photomask, for the production of semiconductor devices, comprising at least one product field area (6a) and a compensation structure (5) positioned outside the product field area (6a), wherein the compensation structure (5) comprises at least one electroconductive region (8b) that is electrically connected with the product field area (6a).

Abstract: The invention relates to a method for the production of masks, in particular for the production of alternating phase shift masks (1), or of chromeless phase shift masks or phase shift masks structured by quartz etching, respectively, as well as to a mask (1), in particular photomask, for the production of semiconductor devices, comprising at least one product field area (6a) and a compensation structure (5) positioned outside the product field area (6a), wherein the compensation structure (5) comprises at least one electroconductive region (8b) that is electrically connected with the product field area (6a).

Abstract: A method for increasing the surface area of an original surface in a semiconductor device is disclosed. In an exemplary embodiment of the invention, the method includes forming a layered mask upon the original surface, the layered mask including a masking layer thereatop having a varying thickness. An isotropic etch is then applied to the layered mask, which isotropic etch further removes exposed portions of the original surface as the layered mask is removed. Thereby, the isotropic etch enhances the non-uniformity of the masking layer and creates a non-uniformity in planarity of the original surface.

Abstract: A method for increasing the surface area of an original surface in a semiconductor device is disclosed. In an exemplary embodiment of the invention, the method includes forming a layered mask upon the original surface, the layered mask including a masking layer thereatop having a varying thickness. An isotropic etch is then applied to the layered mask, which isotropic etch further removes exposed portions of the original surface as the layered mask is removed. Thereby, the isotropic etch enhances the non-uniformity of the masking layer and creates a non-uniformity in planarity of the original surface.

Abstract: In a process for making a DT DRAM structure, the improvement of providing a surface area enhanced DT below the collar region and node capacitance that does not shrink with decreasing groundrule/cell size, comprising: a) providing a semiconductor substrate having a collar region and an adjacent region below the collar region, the collar region having SiO deposited thereon; b) depositing a SiN liner on said collar region and on the region below the collar; c) depositing a layer of a-Si on the SiN liner to form a micromask; d) subjecting the structure from step c) to an anneal/oxidation step under a wet environment at a sufficient temperature to form a plurality of oxide dot hardmasks; e) subjecting the SiN liner to an etch selective to SiO; f) subjecting the structure from step e) to a Si transfer etch using a chemical dry etch (CDE) selective to SiO to create rough Si surface; g) stripping SiO and the SiN; and forming a node and collar deposition.

Abstract: A trench capacitor structure for improved charge retention and method of manufacturing thereof are provided. A trench is formed in a p-type conductivity semiconductor substrate. An isolation collar is located in an upper portion of the trench. The substrate adjacent the upper portion of the trench contains a first n+ type conductivity region and a second n+ type conductivity region. These regions each abut a wall of the trench and are separated vertically by a portion of the p-type conductivity semiconductor substrate. A void which encircles the perimeter of the trench is formed into the wall of the trench and is located in the substrate between the first and second n+ type conductivity regions.