Abstract:
PROBLEM TO BE SOLVED: To provide a monolithic integrated circuit structure having a function unit suitable for remote operation, to which electric energy is autonomously supplied. SOLUTION: This monolithic integrated circuit structure has a substrate, a function unit formed in and/or on the substrate, and an energy supply unit which is formed in and/or on the substrate and is connected to the function unit. The energy supply unit has an inductance and a permanent magnet. The inductance and the permanent magnet are installed so that the permanent magnet can be moved in relation to the inductance by oscillations generated in the circuit structure, that is, so that an electric voltage for supplying electric energy to the function unit can be induced. COPYRIGHT: (C)2005,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To provide a method of manufacturing an air gap between conductor tracks that decreases in coupling capacity and is improved in mechanical or electrical characteristics as compared with conventional examples. SOLUTION: A conductor track array includes bases 1 and 2, at least two conductor tracks 4, a cavity 6, and a resist layer 5 covering the conductor tracks 4 to close the cavity 6. A carrier track TB having a width B2 narrower than the width B1 of the conductor tracks 4 is formed to form the air gap for reducing coupling capacity and signal delay by self-alignment technique below the conductor tracks 4 along side faces thereof. COPYRIGHT: (C)2011,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a conductive track array with reduced coupling capacity and improved mechanical and electrical properties, and its manufacturing method. SOLUTION: The conductive track array includes substrates 1 and 2, at least two conductive tracks 4, cavity 6, and a resist layer 5 that fills up the cavity 6 and covers the conductive track 4. An air gap to reduce the coupling capacity and signal delay by forming a carrier track TB with width of B2, which is smaller than the width B1 of the conductive track 4, is formed under the conductive track 4 along its side wall using a self-align technology. COPYRIGHT: (C)2007,JPO&INPIT
Abstract:
The invention relates to a plasma-excited chemical vapor deposition method for forming a silicon/oxygen/nitrogen-containing material. The invention provides that during the supply of silicon material and oxygen material, nitrogen material is supplied while using an organic silicon precursor material.
Abstract:
The invention relates to a method of producing a high-epsilon dielectric/ferroelectric capacitor. According to the inventive method, a structural layer (10) with a central base-layer zone (11) and a trench (13) that is filled with Si and that laterally surrounds said layer is produced. A metal layer (14) is deposited on said layer and is siliconized above the Si-filled trench (13). When the siliconized metal layer section (18) is oxidized, it migrates into the trench (13), thereby forming a base electrode (19) above the base-layer zone (11).
Abstract:
A conductor track arrangement (100) comprises, on a first layer (101), a first layer surface (102) and at least two conductor tracks (104), which are arranged on the first layer surface and which have a second layer surface (105) that is essentially parallel to the first layer surface (102). A second layer (106) is arranged on the second layer surface of each conductor track (104), whereby the second layers (106) of adjacent conductor tracks overlap areas located between the adjacent conductor tracks (104). A third layer (107) is arranged on said second layer and completely occludes the areas located between the adjacent conductor tracks (104) by overlapping the same.
Abstract:
A conductor track arrangement (100) comprises a first layer (101) with an integrated conductor track (102), above which is a second layer (106), above which is a third layer (108) with an integrated conductor track (109), an electrical contact (104) in the second layer (106), coupling the conductor tracks (102, 109), whereby the conductor tracks (102, 109) and the electrical contact (104) comprise an electrically conducting material which are surrounded by an encapsulation layer (103, 107, 109) made from an encapsulation material which is mechanically harder than the electrically conducting material.
Abstract:
The invention relates to a method for producing a ferroelectric capacitor, especially in large-scale integrated, non-volatile semiconductor memories, and to an integrated ferroelectric semiconductor memory arrangement. In order to prevent damage to the ferro- or paraelectric (6), a TaSixNy barrier layer (7) is deposited over the capacitor module (1). The TaSixNy material has barrier properties in relation to hydrogen diffusion and Ti diffusion.
Abstract:
The invention relates to a microelectronic structure, which provides improved protection of a hydrogen-sensitive dielectric against hydrogen contamination. According to the invention, the hydrogen-sensitive dielectric (14) is covered at least by an intermediate oxide (18), whose material thickness is at least five times the thickness of the hydrogen-sensitive dielectric. The intermediate oxide (18) simultaneously acts as an intermetal dielectric and is metallized on its surface for this purpose. The intermediate oxide (18), which has a sufficient thickness, absorbs the hydrogen that may be released during the deposition of a hydrogen barrier layer (22, 26), thus protecting the hydrogen-sensitive dielectric (14).
Abstract:
A conduction path arrangement has a substrate (1,2), at least two conduction paths (4), formed adjacent to one another over the substrate, and a cavity which is formed at least between the conduction paths (4), and a dielectric covering layer (5) covering the conduction paths and enclosing the cavity. The support paths (TB) between the substrate (1,2) and the conduction paths (4) are designed to support the conduction paths, in which on the contact surface, a width (B1) of the conduction paths is greater than a width (B2) of the support paths (TB). An independent claim is included for a method for fabrication a conduction path arrangement.