mhurhangee/ep-ind-claims huggingface dataset:
A pneumatic tire comprising: a tread portion being provided with at least one circumferentially and continuously extending main groove and at least one land portion adjacent to the main groove; the land portion being provided with a plurality of lateral grooves extending across the land portion; each lateral groove comprising a main portion having a width equal to or more than 2.0 mm and a bottom, and a sipe portion having a width smaller than the width of the main portion and extending radially inwardly from the bottom of the main portion; the main portion comprising a first wall located on a first side in a circumferential direction of the tire and a second wall located on a second side in the circumferential direction of the tire; the sipe portion comprising a first sipe wall located on the first side and a second sipe wall located on the second side; the lateral grooves comprising a first lateral groove having the first wall being continuous to the first sipe wall smoothly so as to form a single plane wall, characterized by a second lateral groove having the second wall being continuous to the second sipe wall smoothly so as to form a single plane wall, with the first lateral groove and the second lateral groove being arranged alternately in the circumferential direction of the tire. a tread portion being provided with at least one circumferentially and continuously extending main groove and at least one land portion adjacent to the main groove; the land portion being provided with a plurality of lateral grooves extending across the land portion; each lateral groove comprising a main portion having a width equal to or more than 2.0 mm and a bottom, and a sipe portion having a width smaller than the width of the main portion and extending radially inwardly from the bottom of the main portion; the main portion comprising a first wall located on a first side in a circumferential direction of the tire and a second wall located on a second side in the circumferential direction of the tire; the sipe portion comprising a first sipe wall located on the first side and a second sipe wall located on the second side; the lateral grooves comprising a first lateral groove having the first wall being continuous to the first sipe wall smoothly so as to form a single plane wall, characterized by a second lateral groove having the second wall being continuous to the second sipe wall smoothly so as to form a single plane wall, with the first lateral groove and the second lateral groove being arranged alternately in the circumferential direction of the tire.
A method for communicating in a wireless communication network, the method comprising: generating, at a first communication device, one or more trigger frames (402; 500) to trigger an uplink orthogonal frequency multiple access, OFDMA, transmission by multiple second communication devices, wherein each of the one or more trigger frames (402; 500) (i) includes an indication of a trigger type and (ii) is formatted according to the indicated trigger type, and wherein for each of the one or more trigger frames (402; 500), the multiple second communication devices interpret subfields of the trigger frame (402; 500) differently depending on the indicated trigger type of the trigger frame (402; 500); transmitting, with the first communication device, the one or more trigger frames (402; 500) to the multiple second communication devices; and receiving, at the first communication device, the triggered uplink OFDMA transmission, wherein the triggered uplink OFDMA transmission includes respective transmissions from the multiple second communication devices. generating, at a first communication device, one or more trigger frames (402; 500) to trigger an uplink orthogonal frequency multiple access, OFDMA, transmission by multiple second communication devices, wherein each of the one or more trigger frames (402; 500) (i) includes an indication of a trigger type and (ii) is formatted according to the indicated trigger type, and wherein for each of the one or more trigger frames (402; 500), the multiple second communication devices interpret subfields of the trigger frame (402; 500) differently depending on the indicated trigger type of the trigger frame (402; 500); transmitting, with the first communication device, the one or more trigger frames (402; 500) to the multiple second communication devices; and receiving, at the first communication device, the triggered uplink OFDMA transmission, wherein the triggered uplink OFDMA transmission includes respective transmissions from the multiple second communication devices.
A method of model-based controlling a manipulator, in particular a robot, comprising the steps of: a) determining a target force (τ Soll) of an actuator of the manipulator on the basis of a model of the manipulator; and b) applying this target force to the manipulator by means of the actuator, wherein the model on the basis of which the target force is determined is validated at least once before this target force is applied to the manipulator, wherein the following steps are carried out for this purpose: c) determining (S100, S200, S300) a virtual force (τ Modell) exerted by the manipulator on the basis of the model of the manipulator; d) determining (S110, S210, S310) a real force (τ mess) exerted by the manipulator; e) determining the difference (Δ) between the exerted virtual force and the exerted real force; and f) comparing (S120, S220, S320) this difference with a maximum limit value (ε); wherein the target force determined on the basis of the model of the manipulator is applied to the manipulator only if the comparison shows that the difference is smaller than the maximum limit value. a) determining a target force (τ Soll) of an actuator of the manipulator on the basis of a model of the manipulator; and b) applying this target force to the manipulator by means of the actuator, wherein the model on the basis of which the target force is determined is validated at least once before this target force is applied to the manipulator, wherein the following steps are carried out for this purpose: c) determining (S100, S200, S300) a virtual force (τ Modell) exerted by the manipulator on the basis of the model of the manipulator; d) determining (S110, S210, S310) a real force (τ mess) exerted by the manipulator; e) determining the difference (Δ) between the exerted virtual force and the exerted real force; and f) comparing (S120, S220, S320) this difference with a maximum limit value (ε);
A hemostatic valve for use with a splittable introducer, the hemostatic valve comprising: a seal molded in a first configuration of polymeric material and having two adjacent end surfaces (34, 35), the seal being deformable from the first configuration into a second configuration, the seal in the first configuration is substantially non-planar with the two adjacent end surfaces exposed and the seal in the second configuration includes the two adjacent end surfaces being unexposed so as to form a split extending through the seal. a seal molded in a first configuration of polymeric material and having two adjacent end surfaces (34, 35), the seal being deformable from the first configuration into a second configuration, the seal in the first configuration is substantially non-planar with the two adjacent end surfaces exposed and the seal in the second configuration includes the two adjacent end surfaces being unexposed so as to form a split extending through the seal.
A gateway (50, HNB-GW) for relaying traffic between a core network and a plurality of base stations (20, HNB) respectively incorporated into the core network through a public network, the gateway comprising: first communication means for communicating with the plurality of base stations through the public network; second communication means for communicating with the core network; and control means for controlling the first and second communication means (51,52) to relay the traffic, wherein the control means is configured to: receive a Relocation Request message from the core network; generate a Radio Resource Control, RRC, Connection Release message comprising a release cause with value "directed signaling connection re-establishment", when it is notified by the Relocation Request message that a mobile station is handed over to any one of the plurality of base stations; set the RRC Connection Release message as an information element in a message response to the Relocation Request message; and cause the core network to instruct a control device (40, RNC) to transfer the RRC Connection Release message to the mobile station, the control device having established an RRC connection to the mobile station. first communication means for communicating with the plurality of base stations through the public network; second communication means for communicating with the core network; and control means for controlling the first and second communication means (51,52) to relay the traffic, wherein the control means is configured to: receive a Relocation Request message from the core network; generate a Radio Resource Control, RRC, Connection Release message comprising a release cause with value "directed signaling connection re-establishment", when it is notified by the Relocation Request message that a mobile station is handed over to any one of the plurality of base stations; set the RRC Connection Release message as an information element in a message response to the Relocation Request message; and cause the core network to instruct a control device (40, RNC) to transfer the RRC Connection Release message to the mobile station, the control device having established an RRC connection to the mobile station. receive a Relocation Request message from the core network; generate a Radio Resource Control, RRC, Connection Release message comprising a release cause with value "directed signaling connection re-establishment", when it is notified by the Relocation Request message that a mobile station is handed over to any one of the plurality of base stations; set the RRC Connection Release message as an information element in a message response to the Relocation Request message; and cause the core network to instruct a control device (40, RNC) to transfer the RRC Connection Release message to the mobile station, the control device having established an RRC connection to the mobile station.
An internal tissue visualization device, the device comprising: a hand-held control unit comprising a hand piece; an integrated visualization sensor configured to collect images of an internal tissue site and transmit the images to a monitor; an elongated member comprising a lumen wherein the lumen is configured to deliver a fluid to a tissue site and wherein the elongated member comprises a proximal end operatively coupled to the hand-held control unit and a minimally dimensioned distal end having integrated the visualization sensor; and the distal end of the elongated member further comprising an integrated illuminator arranged concentrically around the visualization sensor and characterized in that: the hand-held control unit comprises a luer connector configured to receive the fluid; and in that the integrated illuminator has a crescent configuration. a hand-held control unit comprising a hand piece; an integrated visualization sensor configured to collect images of an internal tissue site and transmit the images to a monitor; an elongated member comprising a lumen wherein the lumen is configured to deliver a fluid to a tissue site and wherein the elongated member comprises a proximal end operatively coupled to the hand-held control unit and a minimally dimensioned distal end having integrated the visualization sensor; and the distal end of the elongated member further comprising an integrated illuminator arranged concentrically around the visualization sensor and characterized in that: the hand-held control unit comprises a luer connector configured to receive the fluid; and in that the integrated illuminator has a crescent configuration.
A method for producing an iron carboxylate by causing metal iron to react with at least one carboxylic acid selected from the group consisting of acetic acid, acrylic acid, and methacrylic acid in a reaction liquid, wherein a trivalent iron compound is added to the reaction liquid; the reaction liquid contains a trivalent iron compound at the time of initiation of the reaction; the reaction liquid contains a metal other than iron having a standard electrode potential of from -2.5 to 0.1 or a metal compound containing the relevant metal; or the reaction liquid contains at least one metal selected from the group consisting of Ag, Bi and Pd, or a metal compound containing the relevant metal.
An apparatus comprising: a metrology system configured to generate first metrology data for a first component and second metrology data for a second component; a feature locator configured to process the first metrology data and the second metrology data to identify first locations of first features on the first component and second locations of second features on the second component; and a robot manager configured to compute a transformation based on the first locations identified and the second locations identified for use in modifying a nominal movement plan of a robotic system for positioning the second component relative to the first component; wherein the nominal movement plan of the robotic system comprises a number of movements of the robotic system for positioning the second component relative to the first component when the first features on the first component and the second features on the second component are in expected or desired locations; the robot manager is configured to modify the nominal movement plan using the transformation to form a modified movement plan; the robotic system is configured to move the second component according to the modified movement plan to position the second component relative to the first component within selected tolerances; and wherein the robotic system is configured to perform component-to-component indexing to refine a placement of the second component relative to the first component to achieve a fitup between the first component and the second component that is within selected tolerances. a metrology system configured to generate first metrology data for a first component and second metrology data for a second component; a feature locator configured to process the first metrology data and the second metrology data to identify first locations of first features on the first component and second locations of second features on the second component; and a robot manager configured to compute a transformation based on the first locations identified and the second locations identified for use in modifying a nominal movement plan of a robotic system for positioning the second component relative to the first component; wherein the nominal movement plan of the robotic system comprises a number of movements of the robotic system for positioning the second component relative to the first component when the first features on the first component and the second features on the second component are in expected or desired locations; the robot manager is configured to modify the nominal movement plan using the transformation to form a modified movement plan; the robotic system is configured to move the second component according to the modified movement plan to position the second component relative to the first component within selected tolerances; and wherein the robotic system is configured to perform component-to-component indexing to refine a placement of the second component relative to the first component to achieve a fitup between the first component and the second component that is within selected tolerances.
A system for deploying at least a portion of a stent, the system including: a retaining member including a main body having first and second ends; at least one slot formed into the main body characterised in that the at least one slot includes a circumferentially enclosed segment and an axial opening; and wherein the stent to be deployed includes a portion having a first width less than a second width of the axial opening of the retaining member, wherein the stent is restrained from moving radially outward when disposed within the circumferentially enclosed segment, and wherein the portion of the stent is self-expandable radially outward when aligned with the axial opening. a retaining member including a main body having first and second ends; at least one slot formed into the main body characterised in that the at least one slot includes a circumferentially enclosed segment and an axial opening; and wherein the stent to be deployed includes a portion having a first width less than a second width of the axial opening of the retaining member, wherein the stent is restrained from moving radially outward when disposed within the circumferentially enclosed segment, and wherein the portion of the stent is self-expandable radially outward when aligned with the axial opening.
A capping station for a filling machine to fill bottles, in particular for products of the pharmaceutical industry; the capping station comprises: a first conveying system, which is designed to move a plurality of full bottles in an upright position; a second conveying system, which is arranged above the first conveying system and is designed to move a plurality of caps, each designed to close a respective bottle; a capping device, which is designed to pick up at least one cap from the second conveying system in order to apply the cap to a bottle carried by the first conveying system; and a heating unit comprising at least one heating device, a support beam, which carries the heating device, and a main operating device, which is designed to move the support beam between a rest position, in which the heating device is far from a corresponding bottle, and a work position, in which the heating device is close to a corresponding bottle so that the heat of the heating device heats at least the neck of the bottle; and the capping station is characterized in that the heating unit comprises a safety operating device, which is independent of the main operating device and is designed to move the support beam between the work position and a rest position, in which the heating device is far from a corresponding bottle. a first conveying system, which is designed to move a plurality of full bottles in an upright position; a second conveying system, which is arranged above the first conveying system and is designed to move a plurality of caps, each designed to close a respective bottle; a capping device, which is designed to pick up at least one cap from the second conveying system in order to apply the cap to a bottle carried by the first conveying system; and a heating unit comprising at least one heating device, a support beam, which carries the heating device, and a main operating device, which is designed to move the support beam between a rest position, in which the heating device is far from a corresponding bottle, and a work position, in which the heating device is close to a corresponding bottle so that the heat of the heating device heats at least the neck of the bottle; and the capping station is characterized in that the heating unit comprises a safety operating device, which is independent of the main operating device and is designed to move the support beam between the work position and a rest position, in which the heating device is far from a corresponding bottle.
An induction heated roll apparatus comprising: a roll main body that is rotatably supported; and an induction heating mechanism that is provided inside the roll main body and has an induction coil for allowing the roll main body to inductively generate heat, and allowing the roll main body to inductively generate heat by applying alternating current voltage having a commercial frequency to the induction coil, wherein within a thickness of the roll main body, a jacket chamber in which a vapor-liquid two-phase heating medium is enclosed under reduced pressure is formed, on an inner circumferential surface of the roll main body, a secondary conductor is formed by build-up welding, the secondary conductor is made of copper or copper alloy, and a surface of the secondary conductor is not subjected to a planarization process using removal machining, characterised in that an electrical characteristic of the induction heated roll apparatus is adjusted by weight of the secondary conductor, and the surface of the secondary conductor is subjected to a rust-proofing process. a roll main body that is rotatably supported; and an induction heating mechanism that is provided inside the roll main body and has an induction coil for allowing the roll main body to inductively generate heat, and allowing the roll main body to inductively generate heat by applying alternating current voltage having a commercial frequency to the induction coil, wherein within a thickness of the roll main body, a jacket chamber in which a vapor-liquid two-phase heating medium is enclosed under reduced pressure is formed, on an inner circumferential surface of the roll main body, a secondary conductor is formed by build-up welding, the secondary conductor is made of copper or copper alloy, and a surface of the secondary conductor is not subjected to a planarization process using removal machining, characterised in that an electrical characteristic of the induction heated roll apparatus is adjusted by weight of the secondary conductor, and the surface of the secondary conductor is subjected to a rust-proofing process.
A device comprising: an inflatable membrane having a proximal end with an opening, a distal end disposed away from the opening, and an interior accessible through the opening, wherein the inflatable membrane has an inflation characteristic that is non-uniform, thereby causing the membrane to inflate in a predetermined manner, the predetermined manner including inflation at the distal end before inflation at the proximal end; a supply of a medium coupled to the interior through the opening; and a three-dimensional scanning system including at least one scanner element disposed within the interior to capture data from the interior and a processor programmed to calculate a three-dimensional shape of the interior based upon the data. an inflatable membrane having a proximal end with an opening, a distal end disposed away from the opening, and an interior accessible through the opening, wherein the inflatable membrane has an inflation characteristic that is non-uniform, thereby causing the membrane to inflate in a predetermined manner, the predetermined manner including inflation at the distal end before inflation at the proximal end; a supply of a medium coupled to the interior through the opening; and a three-dimensional scanning system including at least one scanner element disposed within the interior to capture data from the interior and a processor programmed to calculate a three-dimensional shape of the interior based upon the data.