Abstract:
PROBLEM TO BE SOLVED: To provide a cooling device and a method of manufacturing an electronic device and the cooling device, capable of increasing the transporting amount of hydraulic fluid by improving the lyophilic characteristic of a channel surface with the hydraulic fluid, to increase the amount of vaporization heat in the device and to improve the heat efficiency. SOLUTION: In this cooling device 1, a hydrophilic film 18 made of hydrosilsesquioxane and the like is formed on a groove surface of a liquid-phase passage 12 of a first base 10 provided with a groove of the channel on its surface to circulate the hydraulic fluid, whereby the lyophilic characteristic of the groove surface with the hydraulic fluid is improved, the transporting amount of the hydraulic fluid can be increased, the amount of vaporization heat in the device can be increased, and the heat efficiency can be improved. COPYRIGHT: (C)2004,JPO
Abstract:
PROBLEM TO BE SOLVED: To realize an air wiring structure, having high reliability by preventing wiring from being broken due to stress during a thermal process applied by a filming process. SOLUTION: At least a part of an insulation layer formed between the wirings of multi-layer wiring or between wiring layers, or between the wirings (for instance, first wirings 17, 17 and second wirings 31, 31) and between the wiring layers (the first and second wirings 17, 31) is formed by substance films (a first chained polymer film 13, a second chained polymer film 23 and a third chained polymer film 26) which is gasified at 300 deg.C or higher, after the multi- layer wiring (first and second wirings 17, 31) is formed, and an air wiring structure is formed by gasifying and removing a part formed by substance films (first, second and third chained polymer films 13, 23, 26) gasified at 300 deg.C or lower by heating processing.
Abstract:
PROBLEM TO BE SOLVED: To improve the uniformity of a film thickness distribution of a metal plating layer when the metal plating layer in a substrate that has a diameter 200 mm or more is formed by means of electrolytic plating. SOLUTION: This method of manufacturing a semiconductor device comprises a step of forming a pattern 22 on a conductive film 21 so as to form a recessed part 26 in a first and a second insulating films 15, 18 after forming the conductive film 21 on the first and the second insulating films 15, 18 formed in a base body 10, a step of forming the recessed part (wiring groove 24) in the second insulating film 18 by etching using the conductive film 21 as a mask, a step of forming a plating seed layer 28 in the recessed part 26, and a step of forming the metal plating layer 29 so as to bury the recessed part 26 by means of the electrolytic plating.
Abstract:
PROBLEM TO BE SOLVED: To improve the selectivity of electroless plating by removing negative charge on the surface of an insulating film of a substrate. SOLUTION: A pre-treatment of electroless plating for forming a plating film on the substrate 51 by electroless plating is carried out to remove negative charge on the surface of the substrate 51 by applying AC power from an AC power source 18 on the surface of the substrate 51 opposite from the surface on which the plating film of the substrate 51 is formed by dipping the substrate 51 into an electrolyte 41. As the pre-treatment, the negative charge on the surface of the substrate 51 may be removed by applying DC bias power while applying AC power or may be removed while applying pulse power. COPYRIGHT: (C)2003,JPO
Abstract:
PROBLEM TO BE SOLVED: To remove thermal effect to the organic EL element at the time of electrical connection of the organic EL panel and the drive circuit. SOLUTION: When the lead-out wiring 17, 18 leading to the electrodes 12, 15 of the organic electroluminescent element and the connecting terminals 23, 24 of the drive circuit are jointed, the substrate 11 on which an organic electroluminescent layer 14 is formed is cooled. Thereby, even if the joint generates heat, the heat transmitted to the organic electroluminescent layer 14 is reduced by the heat exchange of the cooling of the substrate 11. COPYRIGHT: (C)2003,JPO
Abstract:
PROBLEM TO BE SOLVED: To simplify management of plasma treatment by providing a method for checking surface change state of copper after plasma treatment, in-plane uniformity of plasma treatment, etc., using a simple method. SOLUTION: In a manufacturing method of a semiconductor device with a plasma treatment process of a wafer for forming a semiconductor device, a wafer in which an organic film is formed is regularly subjected to plasma treatment by S2 (plasma treatment of an organic film) and the plasma treatment state is checked.
Abstract:
PROBLEM TO BE SOLVED: To provide a highly reliable interlayer dielectric structure by preventing a trench in the high aspect ratio from being formed on an insulating film on the side of a wiring when a contact hole is formed deviating from the wiring by a slip or the like generated in positioning the contact hole in a step of lithography. SOLUTION: A first wiring 13 formed on a substrate 10 and a first insulating film 14 composed of a low dielectric constant film which is formed in thickness less than the height of the first wiring 13 on the substrate 10 on the side of the first wiring 13. A second insulating film 15 covers the first wiring 13 and is formed on the first insulating film 14 using a material whose selective ratio with the first insulating film is 5 or more. Then, a contact hole 16 is formed in the second insulating film 15 and leads to the first wiring 13.
Abstract:
PROBLEM TO BE SOLVED: To obtain an interlayer insulating film which is low in relative permittivity and has desired heat insulation property by making the insulating film of a semiconductor device, consisting of a polymer which has a principal chain of mesh structure which includes the obtained condensed ring polymerizing a polycyclic compound having at least one substituent. SOLUTION: An interlayer insulating film 12 consisting, for example of, a silicon oxide film is made on a substrate 11, and an insulating film 13 consisting of a polymer having mesh structure of a principal chain which includes a condensed ring is made on this interlayer insulating film 12. That is, the insulating film 13 consists of a polymer, where condensed rings of at least one or more kinds from among naphthalene, anthracene, naphthacene, chrysene, pentane, or the like are introduced into the principal chains within the film structure. This polymer consists of one, where a polycyclic compound is polymerized, and the polycyclic compound may be one which has at least one substituent such as an alkyl group, alkoxyl group, hydroxyl group, amino group, carboxyl group, vinyl group, or the like.
Abstract:
PROBLEM TO BE SOLVED: To provide a method capable of manufacturing electron emitting elements with high reliability without causing disorder like generation of leak current or exfoliation of a film. SOLUTION: The electron emitting element is manufactured through a first process forming a cathode electrode and an emitter layer 4 on a cathode substrate 1, a second process forming an insulation layer, a gate electrode, and gate holes 12 on a supporting substrate 5 different from the cathode substrate 1, and a third process sticking the supporting substrate 5 on the cathode substrate 1 in a state of positioning the gate holes 12 on the emitter layer 4. COPYRIGHT: (C)2006,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To provide a device and a method for forming a thin film pattern, capable of corresponding to various materials, and capable of enlarging a screen size and utilizing flexibility. SOLUTION: A substrate 15 to be filmed, which serves as an object for vapor deposition, is arranged above a heating substrate 13 with a prescribed space kept between them. A plurality of bridge parts 18A on a CLV 18 are irradiated with a rectangular energy beam from a laser 17. In the GLV 18, a voltage is selectively applied to a part of the bridge parts 18A in response to the film pattern to deform the selected bridge parts 18A, and thereby, the irradiated energy beam is controlled to be diffracted. The controlled energy beam is made to irradiate the rear surface of the heating substrate 13 by a reflecting mirror 19, and a vapor deposition material 14 on the surface of the heating substrate 13 is evaporated locally. Thereby, a thin film pattern 16 with high definition is formed on the substrate 15 to be filmed. COPYRIGHT: (C)2004,JPO