| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 201 | INSTRUMENT FOR ASSEMBLING A BONE ANCHORING DEVICE | US12424436 | 2009-04-15 | US20090264896A1 | 2009-10-22 | Lutz Biedermann; Wilfried Matthis; Jurgen Harms |
| An instrument for assembling a bone anchoring device includes a shank with a shaft section to be anchored in a bone and a engagement end, a head being separate from the shank and having a through bore, and a receiving part having a first end, a second end and a longitudinal bore extending from the first to the second end, the head being positionable within the bore at the second end. The instrument includes a holding portion arranged to hold a pin, which has a rod section with a length and a diameter suited to fit and extend at least through the bore of the head, and which has a free end portion extending from the rod section such as to project from the bore of the head when the pin is inserted, and configured to engage with the engagement end of the shank. | ||||||
| 202 | Manufacturing method for rocker arm | US11990784 | 2006-08-01 | US20090229124A1 | 2009-09-17 | Yoshio Kawatake |
| The present invention provides a rocker arm manufacturing method capable of stably forming valve stem guide walls. In the method according to the present invention, an intermediate product 13 having both side walls 20 extended in a predetermined direction and arranged in parallel with each other and a one end side connection wall 30 connecting lower ends of both the side walls 20 at a longitudinal one end of the product is obtained. Next, a first pressing punch 70 is pressed against the outer surface portions of both the side walls 20 from the outside thereof to cause downward plastic flows of regions of the outer surface portions of both the side walls positioned below the cutout portions 31 to thereby form raising walls 32 in a downwardly protruded manner at both sides of the one end side connection wall 30. Thereafter, valve stem guide walls 35 are formed by pressing second pressing punches 80 against both the raising walls 32 of the one end side connection wall 30. | ||||||
| 203 | Microgrooves as Wick Structures in Heat Pipes and Method for Fabricating the Same | US12035345 | 2008-02-21 | US20090211095A1 | 2009-08-27 | Wen-Chun Zheng |
| Microgrooves (<0.2 mm wide) of various shapes used as wick structures in heat pipes can increase the capillary force to overcome the gravitational force on the working fluid so as to enable large working angles for the heat pipes. The microgrooves can be fabricated by two sequential steps use a first plowshare-like blade to turn up the material for large size grooves and then immediately use a second plowshare-like blade to rebury by the previously turned up material. The microgrooves and the fabrication method can be used to manufacture flat heat pipes (vapor chambers) as well as tubular heat pipes. | ||||||
| 204 | Method for manufacturing rocker arm | US11990783 | 2006-08-01 | US20090144977A1 | 2009-06-11 | Michiyuki Kamiji |
| The present invention provides a rocker arm manufacturing method capable of improving the durability and excellent in productivity. In the method according to the present invention, an intermediate product 13 having both side walls 20 extended in a predetermined direction and arranged in parallel with each other and one end side connection wall 30 connecting lower ends of a longitudinal one end of both the side walls is obtained. Next, both side walls 20 formed at the one end of the intermediate product 13 are inwardly bent. Thereafter, ironing dies 60 are pressed down against outer surfaces of both the inclined side walls 20 from an upper side to a lower side to execute ironing of outer surface portions of both the side walls 20 to downwardly plastically fluidize the constituent material of both the side walls 20 to thereby form valve stem guide walls 35 at both sides of the one end side connection wall 30 in a downwardly protruded manner. | ||||||
| 205 | METHOD OF FORMING A BLOWOUT PREVENTER BODY | US12200834 | 2008-08-28 | US20090056132A1 | 2009-03-05 | Dean Foote |
| A method of manufacturing a blowout preventer body includes the steps of: providing more than one billet; forming a first billet to form a first portion of the blowout preventer body; forming a second billet to form a second portion of the blowout preventer body; and welding the billets to form the blowout preventer body. | ||||||
| 206 | Method and plant for manufacturing forks for lift trucks | US12078918 | 2008-04-08 | US20080256772A1 | 2008-10-23 | Emilio Bolzoni |
| A method of manufacturing forks for lift trucks comprises the steps of: providing a straight metal bar designed to make the fork, heating the bar at a segment thereof where the fork knee is to be formed, bending the bar at the heated segment in order to form the knee by carrying out bending in a closed-die press provided with containment walls that, when bending has been completed, enclose the knee so as to define the surface contours of the latter. | ||||||
| 207 | FORGED PRODUCT AND METHOD OF MAKING THE PRODUCT | US11957612 | 2007-12-17 | US20080149231A1 | 2008-06-26 | Toru KITSUNAI; Osamu MATSUSHITA |
| A forged product is made of a magnesium alloy and includes a through hole making portion to make a through hole that runs in a predetermined direction, and a bottom portion that lies on a plane intersecting with the predetermined direction. The through hole includes a first portion that has been formed by a forging process and a second portion that has been formed after the forging process. The second portion of the through hole has shifted toward the bottom portion with respect to the middle of the through hole in the predetermined direction. | ||||||
| 208 | Cobalt chrome forging of femoral knee implants and other components | US11055553 | 2005-02-09 | US07168283B2 | 2007-01-30 | Edward P. Van Note; Reaghn Azelton |
| A method of creating a cobalt chronic femoral knee component includes the steps of: providing a forging press including first and second bust forging die parts spaced apart from each other and movable toward each other, the first and second bust forging die parts including respective femoral knee component shaped cavities; placing a cobalt chrome ingot heated to a temperature of between about 2050° F. and about 2300° F. between the first and second bust forging die parts in alignment with the femoral knee component shaped cavities; and bringing the first and second bust forging dies parts together in a bust blow against the cobalt chronic ingot under a pressure between about 1500 tons and 2000 tons creating a femoral knee bust forging. Additional steps may include cooling the femoral knee bust forging, heating the cooled femoral knee bust forging, providing a forging press with first and second block forging die parts, placing the heated femoral knee bust forging between the first and second block forging die parts, and bringing the first and second block forging die parts together in a block blow against the heated femoral knee bust component creating a femoral knee block forging. | ||||||
| 209 | Projection welding method and workpieces fabrication for projection welding | US11439656 | 2006-05-23 | US20060266805A1 | 2006-11-30 | Song Ser; Weng Leong |
| A method for fabricating a workpiece for projection welding is provided. One or more dimples are formed projecting outwardly from one surface of the workpiece, and a recess is formed surrounding the dimple, which is depressed inwardly into the surface. In a projection welding process, a second workpiece is placed with one side in contact with the dimples. Electric current is then applied through the workpieces to cause the dimple(s) to heat up until softened/melted. External pressure is added, so that to cause the first and second workpieces to move toward each other. The heated or molten dimples are then collapsed, and flow into the recess formed surrounding each dimple. As the /recess provides spaces or rooms for each of the collapsed dimples to flow into, the two workpieces can effectively be brought into contact and welded together throughout the joint interface, without a gap formed in between. | ||||||
| 210 | Hydrodynamic bearing device | US10531519 | 2003-10-09 | US20060098907A1 | 2006-05-11 | Tatsuya Hayashi; Kiyotaka Kusunoki |
| A hydrodynamic bearing device has favorable bearing performance and long endurance life. A thrust bearing part of the hydrodynamic bearing device has a second thrust surface. In the second thrust surface, a dynamic pressure generating groove area having a plurality of dynamic pressure generating grooves is formed in at least a part thereof in a radial direction. The action of dynamic pressure of lubricating oil increases the pressure in a thrust bearing clearance between an end of a flange part of an axial member and the second thrust surface, to support the axial member in an axial direction in a non-contact manner. The dynamic pressure generating groove area of the second thrust surface is formed by press working. The difference in height between the inner and outer peripheral edges of the surface of the dynamic pressure generating groove area regulated between or equal to 0 and 2 μm. | ||||||
| 211 | Method of forming a protruded shaft for an electronic memory device | US10314493 | 2002-12-09 | US06915676B2 | 2005-07-12 | Hideyuki Miyahara |
| In a method of forming a protruded shaft on a metal base for an electronic memory device, the metal base is pressed down with a pressing tool from upper face side of the metal base placed on a die. The die is provided with a hole having a predetermined inner diameter and the wall material of the metal base is moved into the hole of the die to form a protruded shaft having a hollow part inside and the tip end closed. | ||||||
| 212 | Methods and apparatus for adjusting clearance | US10691914 | 2003-10-23 | US20040134055A1 | 2004-07-15 | Jiro Aizaki |
| A method for setting a clearance (G) between a sliding member (36) and a guide member (30) may includes the steps of determining the clearance (G), changing the clearance by utilizing a working means, and stopping the working means when the determined clearance (G) reaches a predetermined target clearance (Gt). | ||||||
| 213 | Liquid ejection head, and method of manufacturing the same | US10644088 | 2003-08-20 | US20040112109A1 | 2004-06-17 | Fujio Akahane; Nagamitsu Takashima; Akiharu Kurebayashi; Kazushige Hakeda; Ryoji Uesugi |
| There is disclosed a method of manufacturing a chamber formation plate of a liquid ejection head. The chamber formation plate includes a first region formed with at least recess portions to be pressure generating chambers communicated with nozzles from which liquid droplets are ejected by pressure generated in the pressure generating chambers. A metal plate and a forging die are provided. A reference part is provided on the metal plate. The reference part defines a relative position between the first region and the forging die. At least one deformation absorber is provided at a second region of the metal plate where is between the first region and the reference part. At least one plastic working is performed by the forging die, with respect to the first region to form at least the recess portions, while plastic deformation of the metal plate caused by the plastic working is absorbed by the deformation absorber. | ||||||
| 214 | Retaining a brake rotor in an vehicle corner apparatus | US10230622 | 2002-08-29 | US20040041461A1 | 2004-03-04 | Steven E. Meeker; Richard A. Scheufler JR. |
| A vehicle corner apparatus and method of fabricating a vehicle corner apparatus, utilize a wheel spindle adapted for receiving a self-tapping screw for securing a brake rotor to the wheel spindle. Using a self-tapping screw allows manufacturing and assembly costs to be significantly reduced, in comparison to prior vehicle corners that used a machine screw and a threaded hole in a wheel spindle for securing a rotor to the spindle, and provides greater assurance that the lateral run out of the brake rotor will be maintained at a lower value than can be achieved in prior vehicle corners. The wheel spindle includes a retaining screw hole having a conical web adapted to receive and facilitate installation and increase holding force of the self-tapping screw. The retaining screw hole may also include a counter bore for receipt of a locator pin that is used during subsequent formation of wheel bolt holes in the spindle. The rotor retention screw hole for the self-tapping screw, with or without the counter bore, may be formed by a simple sequence of operations using a pair of coining punches. | ||||||
| 215 | Die for forging rotor, forge production system and forging method using the die, and rotor | US10195525 | 2002-07-16 | US06688154B2 | 2004-02-10 | Yoshiyuki Anazawa; Hidemi Yamada; Keiichi Yokoi |
| A forging die for forging a cylindrical rotor having a plurality of vane-accommodating grooves which extend toward the axis of the rotor, includes an upper die; a lower die having a mold cavity in its center portion, and a plurality of vane-accommodating-groove-forming portions which protrude inward from an inner wall which defines the mold cavity; and a spacer having a plurality of shell segments for determining a shape of a side wall of the cylindrical rotor which is segmented by the vane-accommodating grooves, and a flange for joining the shell segments is disclosed. The spacer is provided in the interior of the mold cavity of the lower die. A forging production system for producing the rotor; a method for producing the rotor; and the rotor are also disclosed. The forging die produces a rotor of high dimensional accuracy at low cost, which die enables production of vane-accommodating grooves of high accuracy, and enables prevention or reduction of working required for removing chamfers of the vane-accommodating grooves. | ||||||
| 216 | Method of forming a protruded shaft for an electronic memory device | US10314493 | 2002-12-09 | US20030110824A1 | 2003-06-19 | Hideyuki Miyahara |
| In a method of forming a protruded shaft on a metal base for an electronic memory device, the metal base is pressed down with a pressing tool from upper face side of the metal base placed on a die. The die is provided with a hole having a predetermined inner diameter and the wall material of the metal base is moved into the hole of the die to form a protruded shaft having a hollow part inside and the tip end closed. | ||||||
| 217 | Method of manufacturing a plate-shaped member having a recess and press die for forming recesses | US09684018 | 2000-10-06 | US06442990B1 | 2002-09-03 | Hiroyuki Komatsu; Yoshihisa Nagamine; Akira Takahashi |
| A plate-shaped member having a recess useful for an electronic part and particularly for a heat dissipation plate for a semiconductor element, the inside and outside of which member are flat. The plate-shaped member has a recess defined by a bottom wall portion and a side wall portion extending from a peripheral end of the bottom wall portion formed without bending a metallic plate, by press forming. The upper and lower surfaces of the side wall and the bottom wall are formed in parallel and flat, and the thickness of the bottom wall is smaller than the thickness of the metallic plate and, further, the thickness, between the upper surface and the lower surface, of the side wall is larger than the thickness of the metallic plate. | ||||||
| 218 | Method of forming a package for electronic parts | US09907604 | 2001-07-18 | US20020043090A1 | 2002-04-18 | Hideyuki Miyahara |
| At a package for electronic parts forming process, in a package forming method for decreasing stress and stress concentration and obtaining a desired warp and flatness, in particular, according to cutting protruding part process, a package forming method wherein a package for accommodating in recessed part formed one face of a metal plate, forming the recessed part by pressing from the face of the metal plate, and by forming the recessed part protruding part formed bulgingly from one face of the metal plate is cut by cutting tool and a bottom which is rolled up in a cavity shaped and is thinner size than that of the metal plate is formed cavity shaped at the recessed bottom face. Protruding part formed bulgingly in another face of the metal plate is cut by cutting tool dividedly in more than one times and cutting direction is differed in alternately facing direction, stress by cutting is almost cancelled. | ||||||
| 219 | Method for attaching a resonator part and a resonator | US09902852 | 2001-07-10 | US20020005768A1 | 2002-01-17 | Esa Mikkonen |
| The invention relates to a method for attaching an additional object to an object made by the process of extruding, especially a resonator body, and to the structure resulting from the application of the method. A recess is made in the pushing part (ES) of an extrusion machine, which recess is shaped like a portion of the surface of the additional object. The additional object (320), such as a portion of the inner conductor of a resonator, is inserted prior to extrusion in the said recess so that the said portion of the surface of the additional object rests tightly against the surface of the recess and the rest of the surface of the additional object remains free. In the extrusion stage, the pushing part with the additional object is pressed (F) against a bloom of a resonator body whereby the material (31c) of the bloom is pressed tight against the free surface of the additional object. When the pushing part is retracted the additional object remains attached to the body element thus formed. According to the invention, in conjunction with the manufacturing of the body element of the structure being manufactured, parts may be added to the body element without separate manufacturing steps, and the resulting bond is strong and uniform. Furthermore, in a filter manufactured according to the invention the inner conductors of the different resonators may be manufactured in different lengths. | ||||||
| 220 | Thin, forged magnesium alloy casing and method for producing same | US09275003 | 1999-03-24 | US06316129B1 | 2001-11-13 | Isao Seki; Shigeo Hama; Shigehiro Tanike; Fukashi Watanabe; Masahiko Kakizaki; Shinji Seki |
| A thin, forged magnesium alloy casing is integrally constituted by a thin plate with projections on either or both surfaces, and the thin plate is as thin as about 1.5 mm or less. The thin forged casing can be produced by (a) carrying out a first forging step for roughly forging a magnesium alloy plate to form an intermediate forged product under the conditions of a preheating temperature of the magnesium alloy plate of 350-500° C., a die temperature of 350-450° C., a compression pressure of 3-30 tons/cm2, a compressing speed of 10‥500 mm/sec. and a compression ratio of 75% or less; and (b) carrying out a second forging step for precisely forging the intermediate forged product under the conditions of a preheating temperature of the intermediate forged product of 300-500° C., a die temperature of 300-400° C., a compression pressure of 1-20 tons/cm2, a compressing speed of 1-200 mm/sec., and a compression ratio of 30% or less. | ||||||
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