221 |
一种平面桁架生产拱弯装置 |
CN201420548003.4 |
2014-09-23 |
CN204234625U |
2015-04-01 |
陈星岑 |
本实用新型公开了一种平面桁架生产拱弯装置,包括拱弯装置基座和设置在拱弯装置基座上的拱弯履带,所述拱弯履带包括上拱弯履带和下拱弯履带,所述上拱弯履带和下拱弯履带表面分别均布有凸起的上拱弯齿和下拱弯齿,所述上拱弯履带和下拱弯履带均通过伺服电机驱动控制,上拱弯履带和下拱弯履带在转动中带动上拱弯齿和下拱弯齿将冷拔圆钢筋弯折成波浪状弦筋。通过这样的设计可以使得上拱弯履带和下拱弯履带在转动中带动上拱弯齿和下拱弯齿将冷拔圆钢筋弯折成波浪状弦筋,在简化设备结构的同时还提高生产的机械化水平,提高生产效率。 |
222 |
FEEDBACK-BASED SYSTEM FOR BENDING WIRE AND FORMING SPRINGS |
US15374494 |
2016-12-09 |
US20180161849A1 |
2018-06-14 |
KELLY M. KNEWTSON; DAVID WILLIAM McCUNE; TRAVIS L. BRUMMETT; TYLER KUSSMAN |
Feedback-based systems and methods for bending wire are provided. The systems and methods may allow for modification of wire bending based on feedback received from one or more feedback-generating elements (e.g., image-capturing device(s), computer processing device(s), vision systems, etc.) used for monitoring one or more characteristics of a wire (e.g., shape, size, dimension, angular configuration, etc.) to determine, and provide to various wire-bending components of the system, appropriate modifications to the wire-bending process. Modifications to the wire-bending process may occur in real time without stopping the wire-bending process. Furthermore, a wire may be bent into a sinusoidal wire structure for forming springs for use in various applications. |
223 |
Multi-strand electrode and method of making |
US14250509 |
2014-04-11 |
US09546429B1 |
2017-01-17 |
Matthew Dion |
An electrode having a plurality of connected strands retained by a current collector is described. A connected strand has first and second ends that are retained by a current collector, and may be retained at different locations along the length of the current collector. A connected strand retained by the current collector in substantially the same location along the current collector, is a looped strand. A connected strand provides two paths for current to move through the strand to the current collector and may therefore provide lower resistance than a free strand having only one end coupled to the current collector. Furthermore, a connected may move less as a function of fluid forces and retain more bio-film in turbulent conditions than free strands. Finally, a connected strand has no free extended end and therefore is less likely to puncture through an ion conductive membrane. |
224 |
Method and Apparatus for Creating Formed Elements Used to Make Wound Stents |
US14971622 |
2015-12-16 |
US20160114376A1 |
2016-04-28 |
Lance Ensign; Erik Griswold |
A method for forming a wave form for a stent includes moving a first forming portion of a first forming member across an axis along which a formable material is provided in a first direction substantially perpendicular to the axis to engage and deform the formable material while engaging the formable material with a first forming portion of the second forming member. The method includes moving the first forming portion of the first forming member and the first forming portion of the second forming member across the axis in a second direction that is substantially opposite the first direction to draw and form the formable material over the first forming portion of the second forming member, disengaging the first forming member from the formable material, and rotating the first forming member to position a second forming portion of the first forming member to face the formable material. |
225 |
Method and apparatus for creating formed elements used to make wound stents |
US13450309 |
2012-04-18 |
US09238260B2 |
2016-01-19 |
Erik Griswold; Lance Ensign |
A method for forming a wave form for a stent includes moving a first forming portion of a first forming member across an axis along which a formable material is provided in a first direction substantially perpendicular to the axis to engage and deform the formable material while engaging the formable material with a first forming portion of the second forming member. The method includes moving the first forming portion of the first forming member and the first forming portion of the second forming member across the axis in a second direction that is substantially opposite the first direction to draw and form the formable material over the first forming portion of the second forming member, disengaging the first forming member from the formable material, and moving the first forming member to position a second forming portion of the first forming member to face the formable material. |
226 |
Methods for Forming an Orthogonal End on a Helical Stent |
US14709709 |
2015-05-12 |
US20150239032A1 |
2015-08-27 |
Richard Bliss; Justin Goshgarian; Rui Lam; Padraig Savage; Erik Griswold; Giangranco Pellegrini; Matthew Baldwin; Lance Ensign |
A method of manufacturing a stent includes forming a wave form having a plurality of struts and a plurality of crowns. Each crown connects two adjacent struts. The wave form has a central portion and two end portions located on opposite sides the central portion. Some of the struts located in the end portions have lengths longer and/or shorter than an average length of all of the struts of the wave form. The method includes wrapping the wave form about a longitudinal axis to define a plurality of turns so that an end turn is oriented at an angle relative to the longitudinal axis, a second turn is at a first pitch angle that is less than the angle that the end turn is disposed relative to the longitudinal axis, a third turn is at a second pitch angle that is less than the first pitch angle, and a fourth turn is at a third pitch angle that is less than the second pitch angle. |
227 |
Stent with constant stiffness along the length of the stent |
US12693586 |
2010-01-26 |
US08597343B2 |
2013-12-03 |
Richard Bliss; Justin Goshgarian; Rui Lam |
A stent includes a wave form that includes a plurality of struts and a plurality of crowns. Each crown connects two adjacent struts within the wave form. The wave form is wrapped around a longitudinal axis at a pitch angle to define a plurality of turns and has a central portion and two end portions located on opposite sides of the central portion. At least some of the struts located in the end portions have lengths longer than an average length of all of the struts of the wave form. The stent also includes a plurality of connections. Each connection connects selected crowns from adjacent turns. The connections are positioned along the stent substantially equally so that a density of the number of connections of the end portions is substantially equal to a density of the number of connections of the central portion. |
228 |
METHOD AND APPARATUS FOR CREATING FORMED ELEMENTS USED TO MAKE WOUND STENTS |
US13438732 |
2012-04-03 |
US20130255347A1 |
2013-10-03 |
Lance Ensign; Erik Griswold |
A method for forming a wave form for a stent includes moving a first forming portion of a first forming member across an axis along which a formable material is provided in a first direction substantially perpendicular to the axis to engage and deform the formable material while engaging the formable material with a first forming portion of the second forming member. The method includes moving the first forming portion of the first forming member and the first forming portion of the second forming member across the axis in a second direction that is substantially opposite the first direction to draw and form the formable material over the first forming portion of the second forming member, disengaging the first forming member from the formable material, and rotating the first forming member to position a second forming portion of the first forming member to face the formable material. |
229 |
Helical stent with connections |
US12693585 |
2010-01-26 |
US08366765B2 |
2013-02-05 |
Matthew Baldwin; Richard Bliss; Justin Goshgarian; Mark Hoff; Rui Lam |
A stent includes a continuous wave form wrapped around a longitudinal axis of the stent at a first pitch angle to define a first helix comprising a plurality of turns. The wave form includes a plurality of struts and a plurality of crowns. Each crown connects adjacent struts within a turn to define the continuous wave form. The stent also includes a plurality of connections configured to connect selected crowns of adjacent turns so that when the stent is in an unexpanded condition, the plurality of connections are aligned at a second pitch angle to define a second helix, and when the stent is in an expanded condition, at least some of the connections align along a substantially straight line parallel to the longitudinal axis of the stent. |
230 |
Cable hanger production system and production method |
US12106897 |
2008-04-21 |
US07971462B2 |
2011-07-05 |
Minoru Nakamura; Hiroshi Iwase |
A system and method for producing a cable hanger formed by alternately and continuously forming the Z-winding spiral and the S-winding spiral using the hanger wire. The system and method involve the use of at least five spiral forming dice accommodated in a cylindrical space of the housing such that the spiral forming dice are adjacent to each other and can rotate independently from one another. |
231 |
Methods for Forming an Orthogonal End on a Helical Stent |
US12693593 |
2010-01-26 |
US20110071620A1 |
2011-03-24 |
Richard Bliss; Justin Goshgarian; Rui Lam; Padraig Savage; Erik Griswold; Gianfranco Pellegrini; Matthew Baldwin; Lance Ensign |
A method of manufacturing a stent includes forming a wave form having a plurality of struts and a plurality of crowns. Each crown connects two adjacent struts. The wave form has a central portion and two end portions located on opposite sides the central portion. Some of the struts located in the end portions have lengths longer and/or shorter than an average length of all of the struts of the wave form. The method includes wrapping the wave form about a longitudinal axis to define a plurality of turns so that an end turn is oriented at an angle relative to the longitudinal axis, a second turn is at a first pitch angle that is less than the angle that the end turn is disposed relative to the longitudinal axis, a third turn is at a second pitch angle that is less than the first pitch angle, and a fourth turn is at a third pitch angle that is less than the second pitch angle. |
232 |
Stent With Constant Stiffness Along the Length of the Stent |
US12693586 |
2010-01-26 |
US20110071619A1 |
2011-03-24 |
Richard BLISS; Justin GOSHGARIAN; Rui LAM |
A stent includes a wave form that includes a plurality of struts and a plurality of crowns. Each crown connects two adjacent struts within the wave form. The wave form is wrapped around a longitudinal axis at a pitch angle to define a plurality of turns and has a central portion and two end portions located on opposite sides of the central portion. At least some of the struts located in the end portions have lengths longer than an average length of all of the struts of the wave form. The stent also includes a plurality of connections. Each connection connects selected crowns from adjacent turns. The connections are positioned along the stent substantially equally so that a density of the number of connections of the end portions is substantially equal to a density of the number of connections of the central portion. |
233 |
Method and Apparatus for Creating Formed Elements Used to Make Wound Stents |
US12693574 |
2010-01-26 |
US20110067471A1 |
2011-03-24 |
Erik Griswold |
A method for forming a wave form for a stent includes providing a length of a formable material from a supply of the formable material in a feeder along an axis in a first direction in between a first forming member and a second forming member. The second forming member is positioned closer to the feeder than the first forming member. The length is about the length of a substantially straight portion of the wave form. The method also includes moving the first forming member in a second direction substantially perpendicular to the first direction to a position in contact with the formable material, and moving the second forming member in a third direction substantially opposite the second direction to wrap the formable material about a distal end of the first forming member. |
234 |
BENDING METHOD |
US12825451 |
2010-06-29 |
US20110030445A1 |
2011-02-10 |
Masaki SAITO; Shingo Hashimoto |
A bending method for forming, in a material in which several straight portions extending in parallel with each other and a first-end side coupling portion and a second-end side coupling portion provided alternately to couple first-end portions and second-end portions, respectively, of adjacent ones of the straight portions with each other are successively formed, folded portions respectively in a pair of the straight portions provided on both sides of the first-end side coupling portion. A length from one of the folded portions to the first-end side coupling portion is different from a length from the other of the folded portions. The bending method includes shaping the material such that the first-end side coupling portion is inclined with respect to a direction orthogonal to the pair of the straight portions in accordance with a difference between the lengths of the folded portions to be respectively formed in both the straight portions; and thereafter forming the folded portions in both the straight portions at the same time. The folded portions being bent in the same direction as each other. |
235 |
Apparatus and Method for Forming a Wave Form for a Stent From a Wire |
US12428581 |
2009-04-23 |
US20100269950A1 |
2010-10-28 |
Mark Hoff; Daniel Moore; Michael Craven; Gianfranco Pellegrini; Erik Griswold |
An apparatus for forming a wave form for a stent from a wire includes a first forming member configured to move substantially parallel to a first axis and to move substantially parallel to a second axis that is orthogonal to the first axis, and a second forming member configured to move substantially parallel to the first axis and to move substantially parallel to the second axis. The second forming member is positioned opposite from the first forming member relative to the second axis along which the wire is configured to travel. The apparatus includes a controller configured to control movement of the first forming member relative to the wire and to control movement of the second forming member relative to the wire so that the first forming member and the second forming member deform the wire in opposite directions to form a portion of the wave form. |
236 |
Method and Apparatus For Automating Production of Sinuous Springs |
US12105387 |
2008-04-18 |
US20090260411A1 |
2009-10-22 |
Kelly M. Knewtson |
A method and apparatus is disclosed for manufacturing sinuous springs wherein each spring comprises a discrete length of sinuous spring wire having parallel straight bar segments interconnected at their opposite ends by oppositely directed curved connecting segments. This apparatus is operable to adjust the length of the sinuous spring wires exiting the machine without turning off or stopping the machine. An operator need only rotate a handle outside a housing of the machine to increase or decrease the length of the sinuous spring wires exiting the machine. |
237 |
CABLE HANGER PRODUCTION SYSTEM AND PRODUCTION METHOD |
US12106897 |
2008-04-21 |
US20080257444A1 |
2008-10-23 |
Minoru Nakamura; Hiroshi Iwase |
There is produced a cable hanger in which a Z-winding spiral and an S-winding spiral are alternately and continuously formed along an axis via a switching part using a hanger wire. A hanger wire is supplied from one end of a housing and sent out from the other end thereof. At least five spiral forming dice are accommodated in a cylindrical space of the housing such that the spiral forming dice are adjacent to each other and can rotate independently from one another. Each of second and subsequent spiral forming dice as counted from the hanger wire supplying end of the housing includes a bottom face forming a shape corresponding to a curvature of the spiral on a plane intersecting with the axis at right angles between inner peripheral face of the housing and the bottom face, and the bottom face gradually becoming narrower from both sides of the spiral forming die in its longitudinal direction toward a central portion thereof, a Z-winding wall face forming a shape corresponding to a pitch of the Z-winding spiral and an S-winding wall face forming a shape corresponding to a pitch of the S-winding spiral, which are inclined with respect to the plane and the axis. The Z-winding wall face and the S-winding wall face intersect with each other at a central intersection of the spiral forming die in the longitudinal direction thereof, and extend along a side edge of the bottom face. The first spiral forming die as counted from the hanger wire supplying end of the housing has a latter half thereof in its longitudinal direction, the latter half includes the bottom face, the Z-winding wall face and the S-winding wall face in the same as those of latter halves of the second and subsequent spiral forming dice in the longitudinal direction. The first spiral forming die also has a first half including an introducing portion extending along the axis, the introducing portion is connected to a front portion of the intersection in the bottom face of the latter half in the longitudinal direction, and a front end of the introducing portion includes a hanger wire introducing inlet. |
238 |
Method and apparatus for forming a wire to include coil segments |
US11442841 |
2006-05-30 |
US20070277899A1 |
2007-12-06 |
Kirk E. Neet; David M. Kroll |
Disclosed is an apparatus for forming a wire to include coil segments useable in a dynamoelectric machine, the apparatus including a plurality of forming structures simultaneously moveable along an axis into a coil segment forming configuration, with at least a number of the plurality of forming structures being configured to hold a wire, and at least one actuating device associated with at least a number of the plurality of forming structures and configured to simultaneously move the number of the plurality of forming structures into the coil segment forming configuration. |
239 |
Method and apparatus for packaging wire in a wire container |
US11284999 |
2005-11-22 |
US20060266794A1 |
2006-11-30 |
Teresa Melfi; Matthew James; Eric Simon; Michel Jany |
Large diameter weld wire and methods for forming a large diameter weld wire are provided, in which weld wire is formed and a sinusoidal shape memory is imparted on the wire to enhance feedability and ease of withdrawal from a storage spool or container. |
240 |
Apparatus for applying a strip to a rotary surface |
US10997862 |
2004-11-29 |
US20050139324A1 |
2005-06-30 |
Daniel Meyer |
A reinforcement strip is laid on a rotating receiving surface during the manufacture of a tire. The strip passes through a guide which is moved alternatingly transversely relative to a travel path of the strip, whereby the strip is laid in an undulating pattern on the receiving surface. The amplitude of the alternating transverse movement is varied as a function of a ratio of: (a) the speed of a portion of the strip approaching the guide, and (b) the speed of the receiving surface. Between the guide and the receiving surface the strip is pivoted by 90 degrees about the strip's longitudinal axis so as to be laid tangentially on the receiving surface. |