Abstract:
PROBLEM TO BE SOLVED: To provide a double-sided flexible board provided with heat conductive design, for conducting the quantity of heat generated by an attached electron device through a wiring layer and a heat conductive through-hole to a heat radiation layer and preventing the overheating and burning of the electron device. SOLUTION: The double-sided flexible board provided with the heat conductive design includes a substrate 14, the wiring layer 12 and the heat radiation layer 18 provided on both surfaces of the substrate, and the heat conductive through-hole 16 for conducting the wiring layer and the heat radiation layer. A connection pad 12a which can be electrically connected to the electron device 10 is provided in the wiring layer. The electron device can be the driver IC of a liquid crystal display. COPYRIGHT: (C)2009,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a method of positioning a rolled flexible board in an automated manufacturing process. SOLUTION: The method particularly uses an optical sensor to sense two edges of the rolled flexible board, lateral direction coordinate information, and longitudinal direction coordinate information; precisely forms positioning holes by using the coordinate information items sensed earlier; and uses the positioning holes to precisely determine a start point of a succeeding working area, so that a gap between two working areas is not too large nor too small. In applying a micro-via processing and an image transfer process to the rolled flexible board on the basis of the coordinate information items, the occurrence of deviation and inclination can be avoided. COPYRIGHT: (C)2008,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a thin plate support jig.SOLUTION: A thin plate support jig used for supporting a thin plate according to the present invention includes a main frame, a support underlay material, a coupling body, and at least two elastic supports. The main frame is provided with four side frames so that they surround a hollow area. The support underlay material extends in a hollow area direction from an inner wall of the side frame, and stationary pins are provided on the respective support underlay materials corresponding to stationary holes on the thin plate. The coupling body is provided at a portion of a recess on the side frame. Each elastic support body is fixed by the two coupling bodies, and at least two elastic supports are aligned to cross with each other, and support the thin plate across the hollow area with elasticity. Thereby, utilization efficiency of the entire thin plate is improved, so as to reduce residue of a medicine and scratches, and improve a yield. Also, because a conventional facility is utilized, there is no need of purchasing a new holding tool, and therefore, facility costs are significantly reduced, so as to improve applicability and production efficiency in a manufacturing step, and further equalize a current density during electric plating.
Abstract:
PROBLEM TO BE SOLVED: To provide a high density fine line mounting structure and manufacturing method of the same. SOLUTION: Two plate materials that are similar in the structure are included and the two plate materials are combined with a dielectric resin film. After combination, semiconductor elements in the two plate materials are respectively located in the opposite sides. These two plate materials are respectively constituted with an ultra-fine line circuit layer, an insulating layer provided on the same flat surface, and the semiconductor element provided on the ultra-fine line circuit layer. A part not shielded by solder mask bottom in the ultra-fine line circuit layer of the two plate materials is filled with a solder ball as the continuous connection pad or is electrically connected continuously with another semiconductor element by utilizing the solder ball. In this structure, in view of forming the ultra-fine line circuit layer with an electrolytic plating process without use of the etching means, a carrier body and a metal shielding layer required to form the ultra-fine line circuit layer are removed during the manufacturing process or at the ending time of manufacturing process. As described above a layout space can be enlarged to realize high density structure. COPYRIGHT: (C)2009,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a high density thin line mounting structure and a manufacturing method of the structure. SOLUTION: The high density thin line mounting structure is provided with a first semiconductor element arranged on a super-thin line circuit layer, an insulating layer on a phase identification plane, an outer layer circuit layer above the first semiconductor element and a solder mask bottom on the outer layer circuit layer. The solder mask bottom is set to be a connection pad, and it can electrically be connected to a second semiconductor element. The exposed super-fine line circuit layer is set to be a solder ball pad with which a solder ball is filled. In the method, the super-thin line circuit layer can be formed by electrolytic plating without depending on an etching means, and a carrier object and a metal avoiding layer, which are required for forming the super-thin line circuit layer, are removed during a manufacture process or when it is terminated. A space of layout is enlarged and a purpose of high density is realized. COPYRIGHT: (C)2009,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide an electrical inspection system, smoothly performing electrical inspection for a both-sided board. SOLUTION: This electrical inspection system includes an inspection board which can come into electrical contact with a circuit board, a support plate for supporting the inspection board and the circuit board, a plurality of test probes for outputting an electrical signal, and a sensor for receiving an electrical signal through the circuit board and the inspection board. When a printed circuit board is placed on the inspection board, an electrical signal is output one by one by the plurality of test probes and is transmitted to the printed circuit board through the inspection board to determine whether an end point on the printed circuit board facing the test probe is open-circuited or short-circuited, based on whether the sensor is receiving an electrical signal. COPYRIGHT: (C)2009,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a flexible printed wiring board (FPC) and a manufacturing method thereof. SOLUTION: In the flexible printed wiring board and the manufacturing method thereof, the wiring board is mainly constituted of a polyimide (PI) substrate 10 with a circuit layer 12 and a polyimide substrate 14 formed by pressing an adhesive 16 on a polyimide board. In the invention, a method for etching a polyimide board is employed for conductively connecting the circuit layer 12 on a polyimide board, and a precision fine continuity hole 18 is formed on the circuit layer 12. A method wherein a continuity hole is subjected to punch processing in advance on a polyimide substrate for pressing it on a polyimide board is not employed. Consequently, a mold cost is cut and position accuracy in relation to a circuit layer of a continuity hole is raised simultaneously. COPYRIGHT: (C)2009,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a roll-film body-patterning method in an automated production process characterized by sticking carbonaceous residues or flakes generated by laser via to prevent foreign matters or the like from falling onto a roll-film body or to prevent the contamination thereof by other reasons. SOLUTION: The method includes the sticking of the roll-film body to a support plate with a slightly-viscous adhesive, and that of the carbonaceous residue or flake generated when patterning the roll-film body by laser beam onto the above support plate. Thereby, no carbonaceous residue or flake falls on a part of the roll-film body in the automated production process and thus, the method needs no cleaning. COPYRIGHT: (C)2008,JPO&INPIT
Abstract in simplified Chinese:一种线路板结构,包含基板、第一金属层、第二金属层及第三金属层覆。基板包含一树脂层与多个阻止层,每一阻止层覆盖基板表面的一部份,并曝露位在二阻止层之间的基板表面的另一部份。等阻止层包含至少一接触区,位在等阻止层之一的一表面的一部份。树脂层覆盖阻止层的表面的另一部份、其余等阻止层的另一部份与基板的表面的另一部份,并包含至少一通孔,通孔对应于位在树脂层下方的接触区。第一金属层覆盖树脂层与接触区。第二金属层覆盖第一金属层。第三金属层覆盖第二金属层,并填满通孔。