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:
PROBLEM TO BE SOLVED: To provide the manufacturing method of constituents improved in the adhesion of a noble metal layer to an insulation layer. SOLUTION: The method for improving adhesion between the noble metal layer (28) and the insulation layer (34) is proposed. In this method, a silicon layer is provided between the noble metal layer (28) and the insulation layer (34). The silicon layer is salicided and oxidized by applying heat treatment in an atmosphere where oxygen is present. In this case, an oxidized silicon layer (30'), effecting strong mixture of the noble metal and the formed oxide, is produced. Adhesion of the noble metal layer (28) to the insulation layer (34) is improved, based on a comparatively large internal surface acquired by this method. COPYRIGHT: (C)2003,JPO
Abstract:
PROBLEM TO BE SOLVED: To provide a board on which at least two metal structures that can be manufactured through a damascene process with small capacitance. SOLUTION: A first insulating layer is arranged on a board, and a second insulating layer formed of metal different form the material of the first insulating layer is formed on the first insulating layer. A cavity is provided inside the first insulating layer, covered with the second insulating layer, and demarcated with a part of the first insulating layer against the board. Metal structures are arranged separate from each other by a certain space, and the upper horizontal surfaces of the metal structures are flush with the upper horizontal surface of the second insulting layer. At least, the cavity is characteristically arranged between the two metal structures so as not to come into contact with the metal structures arranged on the board.
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 hollow structure (100) in an integrated circuit, comprising a first layer (101), a first layer surface (103) and webs (104) disposed thereon one beside the other, said webs including interstices (401), and a second layer (105) and a third layer (106) disposed thereon. The hollow structure further comprises a fourth layer (107) that closes some of the interstices (401), said fourth layer being disposed on the third layer (106) and having a second layer surface (108), the interstices (401) not being closed by the fourth layer (107) being filled with an electrically conducting material.
Abstract:
The invention relates to a hollow structure (100) in an integrated circuit, comprising a first layer (101), a first layer surface (103) and webs (104) disposed thereon one beside the other, said webs including interstices (401), and a second layer (105) and a third layer (106) disposed thereon. The hollow structure further comprises a fourth layer (107) that closes some of the interstices (401), said fourth layer being disposed on the third layer (106) and having a second layer surface (108), the interstices (401) not being closed by the fourth layer (107) being filled with an electrically conducting material.
Abstract:
The invention relates to a method for depositing a carbon material (17) in or on a substrate (14). Said method comprises the following steps: the inside (10') of a processing chamber (10) is heated to a pre-determined temperature; the substrate (14) is introduced into the processing chamber (10); the air in the processing chamber (10) is evacuated until a pre-determined pressure or a lower pressure is reached; a gas (12) containing at least carbon is introduced until a second pre-determined pressure is reached, that is higher than the first pre-determined pressure; and the carbon material (17) is deposited on a surface or in a recess (15), from the gas (12) containing carbon. The invention also relates to a semiconductor contact device.
Abstract:
The invention relates to a hollow structure (100) in an integrated circuit, comprising a substrate (101) having a surface (102), conductor tracks (103) which are adjacently arranged on said surface in such a way that they form intermediate spaces (104) thereinbetween, a first layer (105) consisting of a first insulation material which is arranged over each conductor track (103), and a second layer (106) covering the intermediate spaces (104), consisting of a second insulation material which is deposited only on the first insulation material.
Abstract:
A method for improving the adhesion between a noble metal layer and an insulation layer includes configuring a silicon layer between the noble metal layer and the insulation layer. The silicon layer is siliconized and oxidized by a thermal treatment in an oxidative environment, resulting in an oxidized silicide layer with high intermixing of the noble metal and the formed oxide. The relatively large inner surface achieved as a result improves the adhesion between the noble metal layer and the insulation layer.