| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 61 | Tool for removing damaged fasteners and securing new fasteners and improved method for making such tool | US10225727 | 2002-08-22 | US20030056622A1 | 2003-03-27 | Chalmer C. Jordan |
| A tool for removing damaged fasteners and a method for making such tool wherein the tool (10) includes a first end (12) and a second end (14) with an outside surface (32) and an inside surface (40) defined between ends (12) and (14). A portion (46) of inside surface (40) is in the shape of a hexagonal frustum (54) that has a major end (58) and that includes spiral splines (25). Splines (25) have constant depth between the major end (58) and the minor end (56) of frustum (54) and the relief angle (null) of splines (25) increases in the direction from minor end (56) toward major end (58). In the method for making the tool (10), a tubular section (118) is made from a tapered blank (91) by piercing one end of the tapered blank with a pierce punch (132). One end of the tubular section is then driven onto a splined punch (162) to provide a splined tubular section (165) having splines in one end. The splined tubular section is then stripped off of the punch (162) by a kick-out sleeve (166) and extruded through a round-to-hexagonal extrusion insert (182) to provide a splined polygonal section (173) having an inner surface with a tapered, hexagonal shape. A modified round-to-hexagonal extrusion insert (206) provides a tool with corners (202) on the polygonal surface. A modified tool (310) with splines (325) in a clockwise spiral is used to secure tamper-resistant fasteners. The modified tool (310) is made by substituting a clockwise splined punch (462) in the tool-making method. | ||||||
| 62 | Manufacturing method of component part for variable capacity turbine, and the structure | US10105376 | 2002-03-26 | US20020136630A1 | 2002-09-26 | Yasuaki Jinnai; Koji Matsumoto; Taro Sakamoto |
| The object of this invention is to propose a manufacturing method for manufacturing component part for the variable capacity turbine, and the structure of the nozzle driving member, which will simplify the structure of the component part for the adjustable nozzle mechanism, the manufacturing work which results in lowering the manufacturing count and cost, as well as the number of component part, and in lightening the weight of the variable capacity turbine. In order to manufacture the component part for a radial-flow variable capacity turbine, in which the actuating gas is forced to flow from a spiral scroll formed in the turbine casing to a turbine rotor in a radial direction, through multiple nozzle vanes of which the angle is adjustable by an adjustable nozzle mechanism, for rotating the turbine rotor, this manufacturing method according to this invention is distinguished by the configuration in which a column shaped connecting pin is formed as a single structure with a plate member by a pressing, or a precision molding by partially forcing the surface of the plate member to protrude in a column shape. | ||||||
| 63 | Method of forming a one-piece steering shaft member | US09643416 | 2000-08-22 | US06257041B1 | 2001-07-10 | James A. Duggan |
| A method for forming a one-piece steering shaft member, such as an externally splined male steering shaft member (or yoke shaft) or an internally splined female steering shaft member (or slip yoke) is disclosed. A hollow cylindrical tube is initially provided which is preferably formed from a blank of a metallic material, such as aluminum, having an elongation factor of at least fifteen percent. It is desirable that the tube have a uniform wall thickness and define an outer diameter which is substantially uniform along the length thereof. The outer diameter of one end of the tube is reduced from its original diameter while the outer diameter of the opposite end is maintained at its original diameter. A splined surface is formed in the reduced diameter end portion of the tube. The splined surface is formed on the external surface of the yoke shaft and on the internal surface of the slip yoke. A yoke member is then formed in the opposite end of the tube. In one embodiment, the opposite end of the tube is first deformed so as to provide a generally hollow rectangular cross sectional shape. Generally U-shaped portions of material are removed from two of the opposed sides of the hollow rectangular end of the tube to form a pair of opposed yoke ears adapted for use in a universal joint. In a second embodiment, the opposite end is maintained in its original hollow cylindrical shape and is machined to form the opposed yoke arms. In both embodiments, a bore is formed through each of the yoke ears. | ||||||
| 64 | Resistance welding electrode and process for making | US09437385 | 1999-11-10 | US06225591B1 | 2001-05-01 | Russell Alan Nippert; Brian Eugene Swank |
| A process is provided for forming a resistance welding electrode. The process includes the step of providing a billet formed from a high conductivity metal. The billet includes a first portion having a first inner cavity formed therein. The process further includes the steps of inserting an insert into the first inner cavity of the billet, and deforming the insert so as to mechanically lock the insert in place in the billet. The deformed billet comprises the resistance welding electrode. | ||||||
| 65 | Method of manufacturing a blank raw material for a hose end fitting | US172688 | 1998-10-14 | US6151777A | 2000-11-28 | Kichiji Sakuraba |
| A method of manufacturing a blank raw material for a hose end fitting includes several steps, The method includes providing a rod-shaped material having a socket end and a screw-connecting end, and forming at the socket end of the rod-shaped material a pipe-shaped socket portion and a rod-shaped nipple portion surrounded by the pipe-shaped socket portion. A flange portion is formed having a diameter larger than that of the socket portion in an intermediate portion of the rod-shaped material by fitting a second pipe-shaped mold to the screw-connecting end so as to sandwich and compress the intermediate portion between the first pipe-shaped mold and the second pipe-shaped molds A screw-connecting portion is formed at the screw-connecting end by inserting a punch in a center portion of the rod-shaped material when an external periphery of the rod-shaped material is supported by the second pipe-shaped mold. A rod-shaped nipple having a through-hole extending to a bottom surface of the screw-connecting portion is formed by fitting a pipe-shaped punch between the pipe-shaped socket portion and the rod-shaped nipple portion. | ||||||
| 66 | Method of making a resistance welding electrode | US975022 | 1997-11-20 | US6047471A | 2000-04-11 | Russell Alan Nippert; Brian Eugene Swank |
| A process is provided for forming a resistance welding electrode. The process includes the step of providing a billet formed from a high conductivity metal. The billet includes a first portion having a first inner cavity formed therein. The process further includes the steps of inserting an insert into the first inner cavity of the billet, and deforming the insert so as to mechanically lock the insert in place in the billet. The deformed billet comprises the resistance welding electrode. | ||||||
| 67 | Base plate for suspension assembly in hard disk drive with tapered inner barrel | US931804 | 1997-09-16 | US6033755A | 2000-03-07 | Kevin Hanrahan; Ryan Schmidt |
| A base plate wherein the inner barrel of the base plate hub is comprised of two distinct zones. The first zone is an inner diameter sized for use with standard tooling pins in an assembly process as a metric for size control. The second zone is a taper for distributing tension swage force and plastic strain toward the rear part of the hub by making the hub stiffer as the swage ball proceeds downward through the barrel, and for distributing compression swage force and plastic strain toward the rear of the hub by relieving stiffness as the swage ball proceeds upward. A back side slope is provided to prevent washed metal from creating added swage force and plastic strain during swaging in the compression direction. The base plate has a minimal counter bore, a lead-in chamfer which is shallower than typical, a second lead-in chamfer which is very steep and upon which the ball begins to swage, a small inner diameter region to allow for tooling during assembly, and a tapered backside to reduce unneeded material. | ||||||
| 68 | Method for forming a high-tooth spline of a hollow shaft and hollow shaft having a high-tooth spline | US752398 | 1996-11-20 | US5829911A | 1998-11-03 | Norihito Yokota; Hiroyuki Ikuta; Hitoshi Nakai |
| A method for forming a high-tooth spline of a hollow shaft which comprises a step of press-inserting a workpiece of a hollow shaft into a die having a spline-shaped internal surface by a punch, for backing up a portion of the workpiece corresponding to the spline-shaped surface of the die from the inside thereof, having a tip portion made of a material having a hardness lower than that of the die, and a step of forming a spline portion on the workpiece. A hollow shaft having a high-tooth spline formed by the above method. | ||||||
| 69 | Method of making battery terminal with necked flange | US29869 | 1993-03-11 | US5373720A | 1994-12-20 | Robert W. Ratte; Ronald Cain; Norman E. Peterson |
| A cold-forming method of making a finished battery terminal with a necked down flange by first expanding the metal radially outward until the battery terminal die cavity is partially filled with metal and then upsetting the metal to complete the deformation filling of the battery, terminal die cavity and to simultaneously form a necked down region in the flange on the battery terminal. | ||||||
| 70 | Method for forming a lightweight flanged axle shaft | US960015 | 1992-10-13 | US5213250A | 1993-05-25 | Joseph A. Simon |
| A method for forming a lightweight flanged axle shaft particularly for use within automotive vehicles for transmitting power from a power source, such as the differential, to a driven wheel. The method includes extruding a tubular blank through a die throat by pushing the blank through the die throat and causing the blank to collapse inwardly around a mandrel-like member located within the die throat to thereby form an elongated, thin wall, hollow tube. A flange member, which is separately stamped out of metal, is formed with a disk-like flange and an integral central tubular-shaped hub whose free edge is of approximately the same diametrical size and thickness as the end of the shaft. The flange hub and the shaft end are welded together, face to face, by engaging the two and rapidly spinning one relative to the other to generate sufficient heat to fuse them together upon discontinuance of the rotation. This produces a one-piece, long, hollow, thin wall, lightweight, hollow shaft with a hollow flange having a hollow flange hub integrated with the shaft end. The opposite end of the shaft is configured, such as with spline teeth, for fastening that shaft end to a drive or driven member while the flange at the opposite end of the shaft is fastened to the opposite drive or driven member. | ||||||
| 71 | Method of making a tubular member | US746177 | 1991-08-15 | US5088311A | 1992-02-18 | Kiyoshi Inoue |
| In a method of making a metallic shell for a glow plug, a columnar blank is extruded to have an enlarged recess on the upper end surface of the blank so as to make an upper tubular portions, while extruded to have an enlarged recess on the lower end surface to make a first tubular end circular in section, an outer diameter of which is smaller than that of the upper tubular portion. The blank is transferred without inverting it, and the blank is reduced at its upper tubular portion to make a second tubular end hexagonal in section, an outer diameter of which is smaller than that of a middle portion of the blank, but greater than that of the first tubular end. Then, the blank is transferred without inverting it, and punched to communicate the first tubular end with the second tubular end by means of an axial bore. In other method, a mandrel is forced into the upper tubular portion to form a second tubular end hexagonal in section, an outer diameter of which is smaller than that of a middle portion of the blank, but greater than that of the first tubular end. In the forcing process, a cooling liquid oil is supplied between the upper tubular portion of the blank and the mandrel to alleviate friction heat, the cooling liquid oil flowing down between the upper tubular portion of the blank and the mandrel is led to the axial bore as an escape path of the liquid oil. | ||||||
| 72 | Method of making terminal nut for ignition plug by plastic working | US282263 | 1988-12-08 | US4882925A | 1989-11-28 | Tsugumi Ichie; Minoru Ando |
| A method of making terminal nut for ignition plug by plastic working, comprising; first step in which a metallic blank is struck at its end surfaces to flatten the end surfaces in prependicular to axial direction of the blank; second step in which a central conical dent is formed at one end surface of the blank, and forming first bottom-ended hole at other end surface of the blank; third step in which second bottom-ended hole is formed concentrically and continuously from the first bottom-ended hole at the blank to be diametrically lesser than the first bottom-ended hole; fourth step in which the blank is axially contracted to diametrically bulge outward by upsetting; fifth step in which a perforation hole is axially formed at the blank by punching in concentrical relationship with the first bottom-ended hole; sixth step in which the blank is shaved at its bulged portion. | ||||||
| 73 | Manufacturing method of the gas-flow valve nozzle of a lighter | US156350 | 1988-02-16 | US4873752A | 1989-10-17 | Yoon-Gi Suck |
| A method of manufacturing gas-flow valve nozzle of a lighter by continuous plastic working processes. | ||||||
| 74 | Process for forging metallic nozzles | US897129 | 1978-04-17 | US4168619A | 1979-09-25 | Charles H. Moore |
| A single step in the form of a heavy forward displacing forging operation is used to manufacture cylindrically bored ferrous-metal multiple diameter nozzles with an outside diameter of at least 22 inches, weighing at least 4,000 lbs. and possessing an exterior configuration comprising a round cylindrical base section of largest diameter with an outwardly-extending flange at one extremity, spaced second cylindrical section of smaller diameter, and an interconnecting and intercommunicating frusto-conical section. | ||||||
| 75 | Apparatus for producing a stream feeder | US3741460D | 1970-12-07 | US3741460A | 1973-06-26 | MATULEWICZ L |
| Apparatus and method for forming a feeder for flowing streams of filament forming material such as molten glass by deforming tubular members into contoured longitudinal members and subsequently securing the longitudinal members to a plate with orifice openings in alignment with such openings.
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| 76 | Method and apparatus for producing a stream feeder | US3579807D | 1968-05-29 | US3579807A | 1971-05-25 | MATULEWICZ LEONARD A |
| Apparatus and method for forming a feeder for flowing streams of filament-forming material such as molten glass by deforming tubular members into contoured longitudinal members and subsequently securing the longitudinal members to a plate with orifice openings in alignment with such openings.
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| 77 | Method and apparatus for making hollow metal articles | US3540255D | 1967-12-13 | US3540255A | 1970-11-17 | HANNA EDWARD C |
| 78 | Method for forming torch tips | US3477112D | 1968-03-08 | US3477112A | 1969-11-11 | YERKINS STEPHEN J |
| 79 | Method of manufacturing a miniature rocket | US54191966 | 1966-04-04 | US3345902A | 1967-10-10 | BIEHL ARTHUR T; ROBERT MAINHARDT |
| 80 | Cold-pressing process and apparatus | US25206963 | 1963-01-17 | US3280613A | 1966-10-25 | HANS SCHROM |
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