mhurhangee/ep-ind-claims huggingface dataset:
An adapter assembly, comprising: an adapter, comprising a first connecting portion, a second connecting portion, and a bendable connecting portion connected between the first connecting portion and the second connecting portion, the first connecting portion being arranged opposite the second connecting portion; and a limiting member, wherein the limiting member is located between the first connecting portion and the second connecting portion foldable with respect to each other, and the limiting member is insulated from the adapter, wherein the limiting member has a limiting face configured to abut against the bendable connecting portion, and the bendable connecting portion is configured to rotate and bend around the limiting face; wherein the limiting member comprises a limiting body and a movable rotary cover rotatably connected to the limiting body, the limiting body is configured to abut against the first connecting portion, and the movable rotary cover is configured to abut against the second connecting portion; characterized in that the first connecting portion comprises a first welding area, the limiting body defines a window for exposing the first welding area, the adapter assembly further comprises a first insulating film, and the first insulating film is arranged at the window and shields the window. an adapter, comprising a first connecting portion, a second connecting portion, and a bendable connecting portion connected between the first connecting portion and the second connecting portion, the first connecting portion being arranged opposite the second connecting portion; and a limiting member, wherein the limiting member is located between the first connecting portion and the second connecting portion foldable with respect to each other, and the limiting member is insulated from the adapter, wherein the limiting member has a limiting face configured to abut against the bendable connecting portion, and the bendable connecting portion is configured to rotate and bend around the limiting face; wherein the limiting member comprises a limiting body and a movable rotary cover rotatably connected to the limiting body, the limiting body is configured to abut against the first connecting portion, and the movable rotary cover is configured to abut against the second connecting portion; characterized in that the first connecting portion comprises a first welding area, the limiting body defines a window for exposing the first welding area, the adapter assembly further comprises a first insulating film, and the first insulating film is arranged at the window and shields the window.
A filling system comprising: a conveyance chamber in which an aseptic condition is maintained and in which a conveyance means for conveying vessels is housed inside; a plurality of filling chambers (13, 15, 17) that is connected to the conveyance chamber and where a rotary-type filling machine (12, 14, 16) that comprises a plurality of filling means is housed inside; a rotary-type vessel transfer means, which comprises an inlet/outlet wheel, that hands over the vessels between the conveyance means and the filling machine (12, 14, 16); an opening that is provided between the two chambers and that allows conveyance of the vessels via the vessel transfer means; and an opening/closing means for closing the opening; wherein the vessel transfer means comprises grippers, which are provided on the circumference along the periphery of the inlet/outlet wheel for holding a lip or a neck of the vessel, that can retain the vessels; and a part of the grippers can be raised and lowered with respect to a rotational axis of the vessel transfer means; and when the opening/closing means closes the opening, a part of the grippers is raised or lowered by a predetermined amount relative to the other grippers, after which the vessel transfer means is rotated by a predetermined amount to a position where it does not interfere with the opening/closing means. a conveyance chamber in which an aseptic condition is maintained and in which a conveyance means for conveying vessels is housed inside; a plurality of filling chambers (13, 15, 17) that is connected to the conveyance chamber and where a rotary-type filling machine (12, 14, 16) that comprises a plurality of filling means is housed inside; a rotary-type vessel transfer means, which comprises an inlet/outlet wheel, that hands over the vessels between the conveyance means and the filling machine (12, 14, 16); an opening that is provided between the two chambers and that allows conveyance of the vessels via the vessel transfer means; and an opening/closing means for closing the opening; wherein the vessel transfer means comprises grippers, which are provided on the circumference along the periphery of the inlet/outlet wheel for holding a lip or a neck of the vessel, that can retain the vessels; and a part of the grippers can be raised and lowered with respect to a rotational axis of the vessel transfer means; and when the opening/closing means closes the opening, a part of the grippers is raised or lowered by a predetermined amount relative to the other grippers, after which the vessel transfer means is rotated by a predetermined amount to a position where it does not interfere with the opening/closing means.
Method for producing at least one gear wheel, in particular a helical gear wheel, wherein the gear wheel is produced from a sintered gear-wheel blank (20, 38, 50, 52, 62, 72, 80, 82, 84) which in the toothing region is pressed so as to be oversized, wherein the gear-wheel blank (20, 38, 50, 52, 62, 72, 80, 82, 84) has two mutually opposite end sides and one circumference, the method comprising the following method steps: - clamping the gear-wheel blank (20, 38, 50, 52, 62, 72, 80, 82, 84) in a clamping means, - compressing the gear-wheel blank (20, 38, 50, 52, 62, 72, 80, 82, 84) in the region of oversizing by engaging at least one revolving tool (10, 28, 34) having a counter-toothing (12, 26) which engages in the toothing of the gear-wheel blank (20, 38, 50, 52, 62, 72, 80, 82, 84), wherein the gear-wheel blank (20, 38, 50, 52, 62, 72, 80, 82, 84) during compression thereof at both end sides is radially clamped across the circumference by the clamping means, characterized in that each individual tooth (54, 64) of the toothing of the gear-wheel blank (20, 38, 50, 52, 62, 72, 80, 82, 84) is supported by the clamping means substantially across the entire tooth height. - clamping the gear-wheel blank (20, 38, 50, 52, 62, 72, 80, 82, 84) in a clamping means, - compressing the gear-wheel blank (20, 38, 50, 52, 62, 72, 80, 82, 84) in the region of oversizing by engaging at least one revolving tool (10, 28, 34) having a counter-toothing (12, 26) which engages in the toothing of the gear-wheel blank (20, 38, 50, 52, 62, 72, 80, 82, 84),
Method for producing a mirror, in particular for a microlithographic projection exposure apparatus, wherein in a coating apparatus a mirror substrate is coated by a process of applying a predefined layer construction for achieving a predefined target layer thickness profile of the mirror, characterized in that the method comprises the following steps: a) virtually subdividing the predefined layer construction into at least two layer systems (610, 710, 620, 720, 730); and b) coating the mirror substrate (605, 705) by applying the at least two layer systems (610, 710, 620, 720, 730) in conjunction with predefining different individual target layer thickness profiles for said layer systems (610, 710, 620, 720, 730), wherein said individual target layer thickness profiles are chosen such that the respective deviations of the individual target layer thickness profiles from the predefined target layer thickness profile at least partly compensate for one another in terms of the contribution thereof to the wavefront effect of the mirror. a) virtually subdividing the predefined layer construction into at least two layer systems (610, 710, 620, 720, 730); and b) coating the mirror substrate (605, 705) by applying the at least two layer systems (610, 710, 620, 720, 730) in conjunction with predefining different individual target layer thickness profiles for said layer systems (610, 710, 620, 720, 730), wherein said individual target layer thickness profiles are chosen such that the respective deviations of the individual target layer thickness profiles from the predefined target layer thickness profile at least partly compensate for one another in terms of the contribution thereof to the wavefront effect of the mirror.
Soil processing machine, preferably in the form of a rotary harrow or rotary cultivator, with tool rotors which are arranged next to one another in a row transversely with respect to the direction of travel, are forcibly driven and have soil processing tines, a trailing roller which is arranged on the frame of the soil processing machine in a height-adjustable manner behind said tool rotors by means of forwardly projecting supporting arms, which in each case by means of a hinge, the hinge axis of which in each case points transversely with respect to the direction of travel, and height-movable side shields which, at each lateral end of the row of rotors point in the working direction of the machine and are arranged perpendicularly, wherein the side shields are coupled to the frame of the soil processing machine in a manner movable in the vertical direction by means of side shield arms, which project in the direction of the centre of the machine, by means of hinges, the respective pivot axis of which point in the direction of travel, characterized in that an actuating device coupling the supporting arms and the side shield arms to one another is arranged in each case between the respective supporting arms of the trailing roller and the respective side shield arm, for the height adjustment of the associated side shield.
A manifold for an injection molding apparatus (600; 700) comprising: a primary melt channel (604; 704) and secondary melt channels (610; 710) extending from the primary melt channel (604; 704) at a primary junction (607; 707), the primary melt channel (604; 704) having a longitudinal axis; and a shear rod (650a; 750a) disposed at the primary junction (607; 707) between the primary and secondary melt channels, wherein the shear rod (250; 350a; 450a; 550a; 650a; 750a) extends from the primary junction (407; 507; 607; 707) into the primary melt channel (604; 704) and is disposed substantially parallel to the longitudinal axis of the primary melt channel (604; 704); a bore (670a; 770a) in the manifold (601; 701) facing the primary melt channel (604; 704), wherein the bore (670a; 770a) includes a shoulder (671a; 771a); characterized in further comprising: a bushing (680a; 780a) disposed in the bore (670a; 770a), wherein the bushing (680a; 780a) includes a shoulder (682a; 782a) that abuts against the shoulder (671a; 771a) of the bore (670a; 770a), and wherein the bushing (680a; 780a) includes a bushing bore (681 a; 781 a) disposed therethrough, wherein the shear rod (650a; 750a) includes a rod portion (652a; 752a) and a head portion (654a; 754a), a portion of the rod portion (652a; 752a) being disposed within the bushing bore (681a; 781a) and extending into the primary melt channel (604; 704), and the head portion (654a; 754a) being disposed outside of the bushing bore (670a; 770a). a bushing (680a; 780a) disposed in the bore (670a; 770a), wherein the bushing (680a; 780a) includes a shoulder (682a; 782a) that abuts against the shoulder (671a; 771a) of the bore (670a; 770a), and wherein the bushing (680a; 780a) includes a bushing bore (681 a; 781 a) disposed therethrough, wherein the shear rod (650a; 750a) includes a rod portion (652a; 752a) and a head portion (654a; 754a), a portion of the rod portion (652a; 752a) being disposed within the bushing bore (681a; 781a) and extending into the primary melt channel (604; 704), and the head portion (654a; 754a) being disposed outside of the bushing bore (670a; 770a).
A method of wireless communication performed by a base station, BS, (106, 108, 204), comprising: identifying one or more anchor subframes and one or more non-anchor subframes in a frame, wherein the anchor subframes are subframes that do not change across time division duplex, TDD, configurations; dynamically changing a TDD uplink/downlink configuration of the frame used for communicating with a plurality of user equipments, UEs,; and signaling the changed configuration using a common downlink control channel capable of being interpreted by the plurality of UEs in at least one of the one or more anchor subframes of the frame, characterized by: wherein if the common downlink control channel is transmitted in a first portion of the frame, the changed configuration is applied to the frame, and wherein if the common downlink control channel is transmitted in a second portion of the frame, the changed configuration is applied to a subsequent frame. identifying one or more anchor subframes and one or more non-anchor subframes in a frame, wherein the anchor subframes are subframes that do not change across time division duplex, TDD, configurations; dynamically changing a TDD uplink/downlink configuration of the frame used for communicating with a plurality of user equipments, UEs,; and signaling the changed configuration using a common downlink control channel capable of being interpreted by the plurality of UEs in at least one of the one or more anchor subframes of the frame, characterized by: wherein if the common downlink control channel is transmitted in a first portion of the frame, the changed configuration is applied to the frame, and wherein if the common downlink control channel is transmitted in a second portion of the frame, the changed configuration is applied to a subsequent frame.
A patch for covering a portion of the anatomical surface of a living being, said patch being able to adhere to the skin or mucosa, and/or a wound, said patch comprising a backing layer and a layer of a skin-friendly adhesive for adhering to the skin or mucosa, characterized in that said adhesive comprises hydrocolloid particles and zinc sulphate particles wherein the ratio between the hydrocolloid particles and the zinc sulphate particles is from 4 to 22 w/w.
A dual bevel needle comprising: a hollow tube having a proximal end, a distal end, a first lateral side, and a second lateral side opposite the first lateral side; a first needle point at the distal end of the hollow tube; a second needle point at the distal end of the hollow tube; a first bevel on each of the first lateral side and the second lateral side, the first bevel comprising a first bevel angle relative to a longitudinal axis of the tube; and a second bevel on each of the first lateral side and the second lateral side, the second bevel having a second bevel angle relative to the longitudinal axis of the tube, wherein the second bevel angle is shallower than the first bevel angle and the second bevel is located adjacent the proximal end of the first bevel, wherein each of the first and second bevels (120, 124) form a portion of a respective ellipse, each ellipse having two portions of an inner cutting edge, and the inner cutting edge converging to a narrow heel, wherein the two portions of the inner cutting edge of the portion of the ellipse formed by the second bevel converge at a point or nearly a point at the heel 1. a hollow tube having a proximal end, a distal end, a first lateral side, and a second lateral side opposite the first lateral side; a first needle point at the distal end of the hollow tube; a second needle point at the distal end of the hollow tube; a first bevel on each of the first lateral side and the second lateral side, the first bevel comprising a first bevel angle relative to a longitudinal axis of the tube; and a second bevel on each of the first lateral side and the second lateral side, the second bevel having a second bevel angle relative to the longitudinal axis of the tube, wherein the second bevel angle is shallower than the first bevel angle and the second bevel is located adjacent the proximal end of the first bevel, wherein each of the first and second bevels (120, 124) form a portion of a respective ellipse, each ellipse having two portions of an inner cutting edge, and the inner cutting edge converging to a narrow heel, wherein the two portions of the inner cutting edge of the portion of the ellipse formed by the second bevel converge at a point or nearly a point at the heel 1.
A method, comprising: sending, from a first access point using a first security algorithm in communication with a mobile station, a handover indication message to a second access point indicating that the mobile station is about to be handed over from the first access point to the second access point, the handover indication message including information indicating which of a multiple number of security algorithms the mobile station supports; receiving, in response, from the second access point a security requirement message indicating that the second access point requires use of a second security algorithm from the multiple number of security algorithms supported by the mobile station, the second security algorithm selected by the second access point as the preferred one from the multiple number of security algorithms supported by the mobile station, in response to receiving said handover indication message; sending, in response, to the mobile station a handover message instructing the mobile station to handover to the second access point and to use the second security algorithm selected by the second access point in communication with the second access point, wherein the handover message is secured with the first security algorithm; changing, by the mobile station, in response to receiving the handover message from the first access point, to use the second security algorithm; and deriving, by the mobile station, a new ciphering key and a new integrity protection key, in response to the changing to use the second security algorithm. sending, from a first access point using a first security algorithm in communication with a mobile station, a handover indication message to a second access point indicating that the mobile station is about to be handed over from the first access point to the second access point, the handover indication message including information indicating which of a multiple number of security algorithms the mobile station supports; receiving, in response, from the second access point a security requirement message indicating that the second access point requires use of a second security algorithm from the multiple number of security algorithms supported by the mobile station, the second security algorithm selected by the second access point as the preferred one from the multiple number of security algorithms supported by the mobile station, in response to receiving said handover indication message; sending, in response, to the mobile station a handover message instructing the mobile station to handover to the second access point and to use the second security algorithm selected by the second access point in communication with the second access point, wherein the handover message is secured with the first security algorithm; changing, by the mobile station, in response to receiving the handover message from the first access point, to use the second security algorithm; and deriving, by the mobile station, a new ciphering key and a new integrity protection key, in response to the changing to use the second security algorithm.
A method for enhancing the contrast of an image that is represented by a digital signal wherein a. said digital signal is decomposed into a multi-scale representation comprising at least two detail images representing detail at multiple scales and approximation images of which the detail images are derived, an approximation image at a scale representing the grey values of said image in which all details at that scale have been omitted, b. translation difference images are computed of at least one approximation image by pixel-wise subtracting the values of an approximation image at scale s and the values of a translated version of said approximation image, c. the values of said translation difference images are non-linearly modified, d. an amplification image is computed at at least one scale as the ratio of 2 images wherein the first image is computed by combining said modified translation difference images at the same or smaller scale and the second image is created by combining un-modified translation difference images at the same or smaller scale, said combined un-modified translation difference images being different from said detail images, e. an enhanced multi-scale detail representation is computed by modifying at at least one scale the detail image by multiplying its values with the corresponding values of the amplification image at that scale, f. an enhanced image representation is computed by applying a reconstruction algorithm to the enhanced multi-scale detail representation, wherein said non-linear modification of the values of said translation difference images is steered by (a) characteristic(s) computed out of said approximation image(s) at at least one scale. a. said digital signal is decomposed into a multi-scale representation comprising at least two detail images representing detail at multiple scales and approximation images of which the detail images are derived, an approximation image at a scale representing the grey values of said image in which all details at that scale have been omitted, b. translation difference images are computed of at least one approximation image by pixel-wise subtracting the values of an approximation image at scale s and the values of a translated version of said approximation image, c. the values of said translation difference images are non-linearly modified, d. an amplification image is computed at at least one scale as the ratio of 2 images wherein the first image is computed by combining said modified translation difference images at the same or smaller scale and the second image is created by combining un-modified translation difference images at the same or smaller scale, said combined un-modified translation difference images being different from said detail images, e. an enhanced multi-scale detail representation is computed by modifying at at least one scale the detail image by multiplying its values with the corresponding values of the amplification image at that scale, f. an enhanced image representation is computed by applying a reconstruction algorithm to the enhanced multi-scale detail representation,
A hand held opener for opening a frangible closer comprising: a motion actuator (5, 119, 219, 329); a first shaft (10, 110, 245, 312) operatively connected to the motion actuator (5, 119, 219, 329); a second shaft (11, 111, 246, 313) operatively connected to the motion actuator (5, 119, 219, 329); a first gripper portion (12, 112, 213, 333) on the first shaft adapted to grip the frangible closer in a first location; a second gripper portion (13, 113, 212, 332) on the second shaft (11, 111, 223) adapted to grip the frangible closer in a second location; wherein the motion actuator (5, 119, 219, 329) provides movement to the first and second shafts (10, 11, 110, 111, 245, 246, 312, 313) to bend the frangible closer in one direction and to bend the frangible closer in an opposite direction to open the frangible closer. a motion actuator (5, 119, 219, 329); a first shaft (10, 110, 245, 312) operatively connected to the motion actuator (5, 119, 219, 329); a second shaft (11, 111, 246, 313) operatively connected to the motion actuator (5, 119, 219, 329); a first gripper portion (12, 112, 213, 333) on the first shaft adapted to grip the frangible closer in a first location; a second gripper portion (13, 113, 212, 332) on the second shaft (11, 111, 223) adapted to grip the frangible closer in a second location; wherein the motion actuator (5, 119, 219, 329) provides movement to the first and second shafts (10, 11, 110, 111, 245, 246, 312, 313) to bend the frangible closer in one direction and to bend the frangible closer in an opposite direction to open the frangible closer.