首页 / 国际专利分类库 / 作业;运输 / 基本上无切削的金属机械加工;金属冲压 / 锻件或压制金属件的制造,如马蹄铁、铆钉、螺栓、轮子 / 在加工过程中用于加热或冷却的装置(锻造或压制的金属坯料的准备入B21J1/06;加热设备一般见相应小类,如H05B)
序号 专利名 申请号 申请日 公开(公告)号 公开(公告)日 发明人
101 Cryofluid assisted forming method US11250346 2005-10-14 US07434439B2 2008-10-14 Zbigniew Zurecki
Method of forming a workpiece comprising (a) providing a tool and a workpiece, wherein the workpiece has an initial shape; (b) placing the workpiece and the tool in contact, applying force to the tool and/or the workpiece, and moving the tool and/or the workpiece to effect a change in the initial shape of the workpiece by forming; and (c) providing a jet of cryogenic fluid and impinging essentially all of the jet of cryogenic fluid on a surface of the tool.
102 Method and apparatus for forge-shaping sheet members US182080 1980-08-28 US4356717A 1982-11-02 Hiromu Okunishi; Hideki Nakaji; Hiroyuki Suwa; Hideaki Sato
A method and apparatus for forge-shaping sheet-shaped members having upper and lower dies for pressing and forge-shaping a sheet-shaped material heated to a quenching temperature or an imperfectly quenching temperature set from a required hardness. The apparatus also includes cooling ducts for quenching the forge-shape material. The material is continuously quenched as it is kept pressed.
103 Forging apparatus US90184 1979-11-01 US4265105A 1981-05-05 Donald G. MacNitt, Jr.; Bryant H. Walker
The present invention provides methods and apparatus improving the dimensional accuracy of forged components. Uniformity of like component details is sought and a specific object is to provide a die package for forming closely toleranced appendages integrally with a central disk structure from which the appendages extend.In one effective embodiment incorporating concepts of the present invention, the forging dies include a stationary die and a movable die comprising at least two separately movable elements which are mounted on a common axis with the stationary die. A plurality of arcuate die segments are adjacently placed in cylindrical array about the stationary and movable dies. The arcuate die segments form cavities of the inverse geometry of the appendages to be formed and in at least one embodiment are interlocked to prevent tilting of the segments in the die package.The movable die elements are sequenceable to form a billet of material into a workpiece having an intermediate configuration, and subsequently into a workpiece of final configuration. In at least one embodiment, pressure pads are disposed against one of the movable dies to prevent displacement of that die by the billet material as the intermediate configuration is formed.
104 Die assembly for use in forging operation US090211 1979-11-01 US4252011A 1981-02-24 Donald G. MacNitt, Jr.; Bryant H. Walker
The present invention provides a technique for improving the dimensional accuracy of forged components. Uniformity of like component details is sought and a specific object is to provide a die package for forming closely toleranced appendages integrally with a central disk structure from which the appendages extend.In one effective embodiment incorporating concepts of the present invention, the forging dies include a stationary die 26 and a moveable die 28 which are mounted on a common axis and a plurality of arcuate die segments 30 which are adjacently placed in cylindrical array about the stationary and moveable dies. The arcuate die segments form cavities of the inverse geometry of the appendages to be formed and are interlocked to prevent tilting of the segments in the die package. A collar 40 extends from the stationary die to interlocking engagement with a channel 46 in the inwardly facing surface of each arcuate die segment.
105 Method and apparatus for correcting distortion in gas turbine engine blades US749847 1976-12-13 US4087996A 1978-05-09 Wilbrod A. Paille
Gas turbine engine blades and single-die cavities are dynamically balanced on a rotor, transferred to a neutral atmosphere heated chamber and rotated. The centrifugal force distributes sufficient stress on both the blade's platform and airfoil to correct critical geometrical characteristics by creep forming in a relatively short time. The process is not affected by the blade surface irregularities, which cause die damage in conventional opposed-die forming due to high stress concentrations.
106 Apparatus for forging US3698219D 1971-05-10 US3698219A 1972-10-17 MOORE JOSEPH B; ATHEY ROY L
Forging means are shown wherein a heating device is located around the dies so that the heat can be controlled while the press is being operated. Means are provided to place an inert atmosphere or vacuum around the dies while they are forging a billet. Chambers are located adjacent the forging means to preheat one billet while another billet is being forged and also to insert and remove a billet without losing much of the heat or forging atmosphere.
107 Process and apparatus for press-forming and quenching a steel stock US3668917D 1970-01-26 US3668917A 1972-06-13 KOMATSU NOBORU; SUZUKI TAKATOSHI; ITO TAKUO; HARA YOSHITERU; ASAKURA KOUICHI
The invention relates to a process and apparatus for pressforming and quenching a steel stock such as diaphragm spring for automotive clutch use. In the invention, the stock is preparatorily heated to its austenitizing temperature such as about 800* C., or so, placed on one of two cooperating die elements, and then squeezed therebetween under pressure, said die elements having working surfaces having corresponding dimensions and configurations so as to be brought into a pressurized and heat-conducting contact with the to-be-quenched zone of said stock, thereby said stock being press-formed to its desired shape and wholly or locally quenched to a desired hardness such as HRC 60* by conducting substantial amount of heat from the stock to the die elements.
108 Precision forming of titanium alloys and the like by use of induction heating US3584487D 1969-01-16 US3584487A 1971-06-15 CARLSON ARNE H
Titanium alloy blanks or the like are successively coated with a high-temperature lubricant; preheated, e.g. in a preheat oven or in the forming machine, to a forming temperature (about 1000 1775* F.); precision formed into a desired shape in a press which includes inductively heated forming tools, serving to maintain the metal at the forming temperature throughout the forming operation; and slowly cooled, e.g. first in a postheat oven down to a lower elevated temperature (e.g. about 600* F.) and then down to ambient temperature under cover of an asbestos blanket or the like. The heat-forming tools include a fixed die, a movable die and a movable clamping pad. The movable tools are mounted for precision movement by leader pins and bushings. Insulation and water jackets are interposed between the heated tools and the leader pins and bushings to prevent harmful heating of the latter. The forming tools comprise water-cooled tubular conductors embedded in insulative material which in turn is embedded in die parts of long life metals on which the forming surfaces are machined or embedded in supporting cores therefor.
109 Hot press insulating system US3461709D 1967-06-02 US3461709A 1969-08-19 MCMILLEN HARRY E
110 Machine for forming sheet metal US46401754 1954-10-22 US2944500A 1960-07-12 RAYNES BURT F
111 Forging press US44844542 1942-06-25 US2326606A 1943-08-10 BIGGERT JR FLORENCE C
112 Tool for piercing billets US28620219 1919-03-29 US1374369A 1921-04-12 EARL LUTHER D
113 Method and apparatus for making shell-forgings US24795718 1918-08-02 US1347415A 1920-07-20 SHERMAN FRANK A; HALL JOSEPH M
114 PILLAR FOR A MOTOR VEHICLE AND METHOD FOR MANUFACTURING A PILLAR US15662607 2017-07-28 US20180029648A1 2018-02-01 Henning VON WATZDORF; Georg FROST; Martin SCHROETER
A pillar for a motor vehicle bodywork is disclosed having a main element with an upper coupling section for attaching to a roof frame, and a secondary element composed of metallic alloy. The secondary element is connected in a planar fashion at least over certain sections of the main element, and the main element has a middle layer composed of a hardened steel alloy, and at least one outer layer which bounds the middle layer toward the outside.
115 FORGING DIES WITH INTERNAL HEATING SYSTEM US15308362 2014-05-02 US20170066039A1 2017-03-09 Lutfi ERTONG; Mustafa Ilhan GOKLER; Haluk DARENDELILER; Cavat KOMURCU
The invention relates to a die heating system that is developed for preheating and continuous heating of forging dies (12) internally. The dies (12) are provided with channels (13) in which electrical heating cartridges (15) are placed with built-in thermocouples (16) monitored by a PID thermostat. The channels are located optimally in a zone (C) close to the die cavity for efficient heating but outside the zones of high forging load (D) or of rework requirement (B) or of high forging load after rework (A).
116 Lubricating-oil composition for forging molding and forging molding apparatus US13498239 2010-09-30 US09296035B2 2016-03-29 Norihisa Horaguchi; Kosuke Ikeda; Masaru Seto; Yuusuke Sakama
An object is to provide a lubricating-oil composition for forging molding excellent in lubricity, and a forging molding apparatus also suitable for the lubricating-oil composition of the present invention.The lubricating-oil composition for forging molding of the present invention includes at least two types of solid lubricants having different particle sizes, an extreme-pressure agent, and the balance of base oil. Also, the forging molding apparatus of the present invention includes paired molds formed of an upper mold and a lower mold interposing a forging material therebetween for molding and a lubricating-oil-composition spraying device for spraying the lubricating-oil composition for forging molding onto a surface of the molds, wherein the spraying device includes an oil-feeding tank storing the lubricating-oil composition and a supply tube for suctioning the lubricating-oil composition from the oil-feeding tank for supply to a nozzle, and the supply tube comprises a plurality of suction ports.
117 Hardened titanium structure for transmission gear applications US12369157 2009-02-11 US09187818B2 2015-11-17 Brad L. Kirkwood; Marc R. Matsen; Tony Shen; Wesley B. Crow
A method and apparatus are present for manufacturing a part. The part is comprised of a metal alloy and is positioned to form a positioned part. An electromagnetic field is generated that heats the positioned part. A surface of the positioned part is exposed to an inert gas, while the electromagnetic field is generated to create an inverse thermal gradient between an exterior of the positioned part and an interior section of the positioned part to form a heat treated part.
118 FORGING DIE DEVICE US14375958 2013-03-27 US20150052962A1 2015-02-26 Takashi Choda; Yukihide Honda; Shigeomi Araki; Shogo Murakami; Soichiro Kojima; Yusuke Momota
A forging die device is provided with an upper die 10 and a lower die 20. At least one die 10 (20) of the upper die 10 and the lower die 20 has a die holder 12 (22) which surrounds the outer periphery of the die 10 (20) and holds the die 10 (20). The die holder 12 (22) is configured to bear the radial tensile stress (tensile force) received by the die 10 (20) during forging. By this means, the die 10 (20) can be miniaturized.
119 Spraying tool with a switch-off valve US12652363 2010-01-05 US08425214B2 2013-04-23 Karl-Heinrich Keim
The invention relates to a spraying tool, in particular as part of a mold-spraying device for spraying at least one section of a wall of a mold with working medium. In at least one embodiment, the spraying tool comprises a plurality of spraying elements for dispensing working medium, and at least one working-medium supply line which supplies working medium to the plurality of spraying elements. In accordance with at least one embodiment, at least some of the spraying elements, the spraying nozzles of which point downwards during operation, are equipped with a separate valve unit which is adjacent to the spraying nozzle and the valve element of which is prestressed elastically into a closed position in which it prevents the dispensing of working medium, but can be transferred under the action of a hydraulic and/or pneumatic pressure into an open position in which it permits the dispensing of working medium.
120 METHOD OF FORGING ALUMINUM/ALUMINUM ALLOYS US13308660 2011-12-01 US20120324976A1 2012-12-27 LI LONG; CHAO-HSUN LIN
A method of forging aluminum/aluminum alloys includes: providing an aluminum/aluminum alloy billet; providing a forging die, the forging die including an upper die and a lower die, the upper die and the lower die being all mounted with heating element and temperature controller; locating the aluminum/aluminum alloy billet in the forging die; heating the upper die and the lower die and making the temperature difference between the upper die and the lower die be about 100° C.-350° C.; forging the aluminum/aluminum alloy billet to get an aluminum/aluminum alloy forged piece, the temperature difference between the upper die and the lower die being kept at about 100° C.-350° C. during the forging process; and opening the upper die and the lower die to remove out the aluminum/aluminum alloy forged piece.
QQ群二维码
意见反馈