| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 241 | “S” shaped cast in wire | US10633215 | 2003-08-01 | US06820454B2 | 2004-11-23 | Otto Ferguson, III; Dennis K. Hartman |
| A weld wire for storage on a spool of weld wire. The weld wire has a substantially linear cast in the form of an undulating curve that generally lies in a single plane. The undulating curve is a succession of generally semi-circular sections having a generally fixed radius of curvature. The linear cast is formed on the weld wire prior to the weld wire being wound on the spool of weld wire. The linear cast is at least partially retained on the weld wire after the weld wire is unwound from the spool and during the feeding of the weld wire through a welding machine. | ||||||
| 242 | “S” shaped cast in wire | US10107499 | 2002-03-26 | US06708864B2 | 2004-03-23 | Otto Ferguson, III; Dennis K. Hartman |
| A weld wire for storage on a spool of weld wire. The weld wire has a substantially linear cast in the form of an undulating curve that generally lies in a single plane. The undulating curve is a succession of generally semi-circular sections having a generally fixed radius of curvature. The linear cast is formed on the weld wire prior to the weld wire being wound on the spool of weld wire. The linear cast is at least partially retained on the weld wire after the weld wire is unwound from the spool and during the feeding of the weld wire through a welding machine. | ||||||
| 243 | Device for applying a cable onto a rotating surface | US09995363 | 2001-11-27 | US20020062910A1 | 2002-05-30 | Daniel Meyer |
| The invention concerns a device for the application (1) of at least one cable onto a rotating receiving surface (2) revolving at a speed V2, comprising means (10) for feeding the cable that comprise at least one capstan (11) revolving at a speed V1, means (20, 30) to displace the cable transversely relative to the receiving surface (2) and means (40) to position the cable on said receiving surface, characterized in that the means (20, 30) to displace the cable transversely effect said displacement by the combination of a rotary movement about an axis perpendicular to the cable travel direction with a pivoting movement in a plane containing the axis of said rotation, the extent of pivoting being determined by the ratio between the speeds V1 and V2. | ||||||
| 244 | Method of manufacturing seals | US09906758 | 2001-07-18 | US20020014009A1 | 2002-02-07 | John Hobbs; David W. Richards |
| A method of manufacturing a leaf seal for use between rotating components comprises forming corrugations within a metallic strip and feeding the corrugated strip into a seal guide. The corrugated strip is then pressed into the guide by an angled ram such that the corrugations lie at an acute angle to the perpendicular axis. The strip is then secured in a seal carrier, the free ends of the corrugations thus forming the angled sealing leaves of a leaf seal. | ||||||
| 245 | Sealing or finishing strips and carriers therefor | US823795 | 1986-01-29 | US4699837A | 1987-10-13 | Robert G. Bright |
| A carrier for a channel-shaped trimming or sealing strip is manufactured by leading a main wire between meshing teeth so as to give the wire a zig-zag configuration. The emerging wire is pushed between guide walls. Simultaneously, looped edge wires are fed in, along the walls, and mesh with the ends of the loops of the main wire. The meshed wires are fed into the mouth of a cross-head extruder. This extrudes plastics or rubber material around the meshed wires so as to hold them in meshing engagement. The resultant generally flat strip can then be bent into channel-shape. | ||||||
| 246 | Disc roller mechanism for forming helical shapes | US710652 | 1985-03-11 | US4606209A | 1986-08-19 | Frantisek L. Eisinger |
| A disc roller mechanism and method for forming helical-shaped structures from a feed wire or rod, wherein the feed wire is drawn through a plurality of staggered disc-shaped forming rollers by rotation of the rollers, while the wire is also being rotated about its own axis so as to form the desired helical-shaped product. The roller mechanism includes a support frame and a first set of at least two fixed position driven disc-shaped rollers and a second set of at least one idler disc-shaped rollers, said idler rollers being transversely adjustable positions relative to the first driven roller set rotatably mounted in the frame. The driven roller set usually has a roughened outer perimeter surface to facilitate drawing the feed wire through the intersecting forming rollers. If desired, the feed wire can be pulled off a rotatable supply spool such as by a pair of guiding rollers and then passed through the staggered disc-shaped forming rollers to provide the desired helical-shaped product. | ||||||
| 247 | Wire forming machine | US423079 | 1982-09-24 | US4513794A | 1985-04-30 | Fritz Witte |
| A machine for converting straightened wire into an elongated undulate comb-like product wherein hairpin-shaped prongs alternate with webs which extend in the longitudinal direction of the product has two carriers which are rotatable about parallel axes and have neighboring end faces defining a forming channel. Each carrier supports a group of equidistant tools which are reciprocable in parallelism with and are equidistant from the axis of the respective carrier. The carriers are alternately indexed in opposite directions, and the wire is fed into the channel by a pivotable portion of a wire feeding unit so that it is alternately engaged by successive tools of the one and the other carrier. The tools are shifted into the channel before they engage the wire, they remain in engagement with the wire while the respective carriers dwell between successive indexing movements, and they are thereupon retracted from the channel not later than when the respective carriers are indexed again whereby the tools are automatically separated from the wire. Levers are provided to urge the wire against the tools in the channel. | ||||||
| 248 | Mechanism for bending straight wires into zig-zags, in particular for machines for the production of diagonal grids | US320011 | 1981-11-10 | US4444227A | 1984-04-24 | Hans Gott; Josef Ritter; Klaus Ritter; Gerhard Ritter |
| A mechanism for bending a coplanar family of straight wires into zig-zags comprises deflector rollers for feeding the family of wires longitudinally in parallel with one another, bars adapted to be displaced transversely to the wires and carrying wire deflector pins, and a control device for moving the bars alternately in opposite directions transversely of the wires. In order to avoid sliding of the wires against the deflector pins during the bending operation, each bar is hinged to the one ends of at least two parallel bearer arms of equal length and pivotally supported about axes running perpendicular to the plane of bend. During each bending operation only one bar at a time can be displaced transversely by means of the control device to carry out a working stroke. | ||||||
| 249 | Method and apparatus for manufacture of wire truss and sinuous strut therefor | US14988 | 1979-02-26 | US4291732A | 1981-09-29 | Richard F. Artzer |
| A plurality of wire trusses is employed in a three-dimensional wire matrix having a foam core to provide a light-weight structural building panel. Each truss, comprised of a sinuously bent strut wire having its apices welded to lateral runner wires, is formed by a continuous bending and wire processing apparatus which simultaneously withdraws three wires from wire supplies, sinuously bends the strut wire, assembles the bent strut wire with the runner wires, welds the joints therebetween, and severs desired lengths of completed truss sections. Several wires are fed to the bending station at different speeds and intermittently via three individually automatically controlled wire storage loops. The arrangement is such that even with the several different wire feed rates, all three wires are pulled from wire supply rolls by a single motor and all three are driven to the truss fabrication station by a single motor. | ||||||
| 250 | Method for increasing the fin density of a heat exchanger | US918630 | 1978-06-23 | US4275581A | 1981-06-30 | Kenneth J. Miller |
| An apparatus (40) and method for increasing the fin density of a serpentine sheet (10) having a plurality of fins (14a, 14b, 14c), each fin having two sides (16, 18) coupled together at one end (20) with a space (22) between the sides. Blocks (30, 32) having receptacles (30a, 32a) for receiving the ends (20, 24) of one side (16) of a fin (14a) and being near opposite surfaces (A, B) of the sheet (10) are moved vertically into contact with such ends. Simultaneously, blades (34, 36), being near the opposite surfaces (A, B) of the sheet (10) are moved vertically into position at the other side (18) of the fin (14a). Then, the blades (34, 36) are moved horizontally towards the blocks (30, 32), which are now held stationary, to compress the fin (14a) a predetermined amount by moving the other fin side towards the one fin side. The blocks and blades are then withdrawn from the sheet to move another fin (14b) into position for another compressing operation. The apparatus (40) includes a mechanism (70) to prevent the sheet from fishtailing when a fin is being compressed. | ||||||
| 251 | Machine for manufacturing zig zag wire binders | US933677 | 1978-08-14 | US4178972A | 1979-12-18 | Ernst Pfaffle |
| A pair of die rolls of novel construction are disclosed which act upon a continuous wire having a preliminary zig zag formation in order to impact the bends in the wire and thus narrow the formation, preparatory to use of the wire as a ring binder. Each roll has a continuous spiral groove with a first section of progressively narrowing width which is substantially wider than the wire bend which it accommodates, and a second section of constant width. A knob or projection is formed on at least one side wall of the groove in each roll at the juncture of the first and second sections, which impacts the wire bend as it passes, giving it a set. | ||||||
| 252 | Grooved-gear wire puller | US790761 | 1977-04-25 | US4117873A | 1978-10-03 | George W. Crawford |
| A grooved-gear wire puller comprising a pair of spur-type gears, one thereof being urged into tooth meshing relationship with the other gear of the pair which latter is positively driven, the teeth of said gear pair being grooved and the grooves thereof being disposed in mutually facing relationship thereby defining an aperture between intermeshing teeth for the acceptance of a pair (or plural pairs) of twisted wires to be pulled directed thereinto, the depth and configuration of said grooves being such that the intermeshing teeth successively grip the pair of wires with substantial force and simultaneously deform the said wire pair out of its entering plane and in manner as to impart of succession of closely spaced crimps in the twisted wire pair exiting from between the intermeshing teeth. | ||||||
| 253 | Wire forming apparatus | US754243 | 1976-12-27 | US4047544A | 1977-09-13 | Paul Edward Seaborn; Kenneth Harold Dawson |
| This invention relates to an improved wire forming apparatus of the type wherein a pair of rotatable wheels are disposed alongside of each other, a plurality of pins are secured to each of the wheels about the periphery thereof, and mounting means rotatably support the wheels in such a manner that their axes of rotation are angularly disposed to each other. The improvement herein comprises looping means disposed adjacent to the peripheries of the rotatable wheels, the looping means being discontinuously rotatable about a central axis. The central axis of the looping means is offset from and parallel to a plane defined by the plurality of pins secured to either of the wheels about the periphery thereof. The looping means intermittently engage a strand of wire and impart an undulatory configuration thereto. In addition, pushing means are integrally disposed adjacent the looping means for transferring a looped strand of wire from the looping means to one of the pins disposed about the periphery of the rotatable wheels. The pushing means comprise at least two individual pushing members, the pushing means and the looping means being aligned and operating in cooperative relationship with one another. | ||||||
| 254 | Device for bending serpentine struts | US39841473 | 1973-09-18 | US3869926A | 1975-03-11 | KELLER KLAUS |
| A device for bending strips of metal to form serpentine struts by passing the strips of metal through two sets of bending tools moving simultaneously in a direction parallel to the direction of travel of the strip of metal. The bending tools are spaced. Further, each of the bending tools are carried on a chain and the number of bending tools on each of the chains is only a fraction of the number of chain members of each of the associated chains.
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| 255 | Apparatus for bending wire into a sinuous shape | US44847574 | 1974-03-06 | US3869900A | 1975-03-11 | NORMAN HARRY H |
| Wire is bent sinuously, for example to form a zig-zag shaped spring, by an apparatus having identical oscillator/overbend assemblies situated above and below the plane in which the wire is formed. Each such assembly includes a bending pin carried by a holder that is rotationally mounted on a shuttle. Drive means, including respective oscillator and translator cams, imparts rotation to the pin holder and translation to the shuttle. An overbend arm and a backup tool, driven by an overbend cam drive mechanism, overbend the wire about the bending pin of the same assembly. During a portion of each bending cycle, the bending pin of one assembly is rotated to and caused to dwell at a bending position at which the pin holder is generally perpendicular to the longitudinal axis of the zig-zag. The bending pin of the other assembly is rotated so as to contact and bend incoming wire around the now stationary bending pin of the one assembly. Concurrently the overbend arm and backup tool of the one assembly are driven into contact with sections of the wire on opposite sides of the dwelling pin so as to overbend the wire. As the overbend arm and backup tool are withdrawn, combined rotation of the bending pin holder and translation of the shuttle causes the bending pin to move laterally from the dwell position out of the newly formed convolute. The convolute at the other side of the zig-zag then is formed as the bending pin of the other assembly dwells in its bending position.
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| 256 | Device for forming a zig zag wire | US3760851D | 1971-12-07 | US3760851A | 1973-09-25 | GOTT H; SCHMIDT G; RITTER K |
| The invention is concerned with a device for forming a zig zag wire for a structural member such as a lattice girder. The device comprises two circular discs which are mounted coaxially and spaced apart and are coupled together and driven so that they rotate constantly and synchronously in the same direction. Each disc has distributed angularly around its periphery wire bending pins which project substantially radially from the rim of the disc. Two pivoted wire bending levers oscillated in a plane parallel to the plane tangential to the discs in which in use the lattice wire will be fed to the device. Each lever has near its end a wire bending pin and is pivoted at a location near to a different one of the discs but outside the cylindrical space defined by the two discs. The levers are driven so that they oscillate in alternation and each lever has a length such that when the lever is its extreme working position its end projects beyond the plane of the remote disc so that the lattice wire is first thrust by the wire bending pin of the one lever into the path of the wire bending pins of the remote disc to bend the wire which is subsequently bent, during the return strokes of the levers, by the pin of the other lever around a pin of the other disc. Lightweight girders with parallel upper and lower flanges joined together by a zigzag bent wire web are used in large quantities nowadays for a variety of purposes. Among the various constructions a type of girder is widely used in which the lattice wire web occupies a single plane. The flanges extend along over the peaks of the lattice wire zigzags, where the lattice wires are bent, or extend along on both sides of the peaks, symmetrically with respect to the plane of the lattice.
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| 257 | Wire corrugator | US3718023D | 1971-02-01 | US3718023A | 1973-02-27 | CHRISMAN W; RING W |
| An apparatus for corrugating cable drain wires has an individual motor for each of a plurality of pairs of corrugating rolls mounted around a polygonal frame and having a common speed control.
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| 258 | Machine for the alternate cambering of a metallic thread | US3670781D | 1970-05-01 | US3670781A | 1972-06-20 | LIOUVILLE ROGER |
| The machine is principally constituted by a wheel comprising at its periphery two rows of hammers adapted to overlap one another alternately, each of the hammers of one row being carried by a slide moving transversally on said wheel, means being provided to ensure the alternate pivoting of the hammers, from one row to the other, during the rotation of said wheel in order to provide particularly, by the transversal movement of the slides, the cambering of the thread and the disengagement of said hammers when the thread is cambered, the latter being eventually taken up by a second device composed of two plates arranged facing one another symmetrically with respect to the direction of advance of the thread and each comprising spiral grooves for the reduction of the pitch of the zig zag cambered thread.
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| 259 | Wire forming apparatus | US3581781D | 1969-05-01 | US3581781A | 1971-06-01 | DEMLOW ALTON O |
| A wire forming apparatus for use on a continuous length of generally flat sinuously bent wire. Drive mechanism including a motor driven star wheel gear discharges the wire onto one end of a longitudinally ending guide track. An adjustment device is provided for manually rotating or adjusting the rotative position of the star wheel gear to increase or decrease the tension force on the wire. A vertically movable crowning block is positioned over the star wheel gear. A longitudinally extending arm is positioned above a portion of the guide track. If the wire moving along the guide track reaches a predetermined vertical elevation above the guide track, movement of the arm operatively stops the drive mechanism. Shearing mechanism for cutting the wire is positioned adjacent the other end of the guide track and control mechanism is provided for actuating the shearing mechanism at predetermined intervals.
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| 260 | Wire-forming apparatus and method | US3561500D | 1968-09-30 | US3561500A | 1971-02-09 | WILLIAMS WILLIAM B; RENTZ JOHN CLIFTON |
| This disclosure concerns forming wire into a serpentine pattern by means of two driven belts, each having a plurality of spaced apart projections for temporarily retaining the wire, which wire is engaged by the projections on one moving belt then the other in an alternating manner and then directing the belts away from each other after the wire is engaged thereby forming the serpentine pattern.
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