mhurhangee/ep-ind-claims huggingface dataset:
Method of producing a metallic strip, in which the strip in conveying direction is initially rolled in a rolling mill and subsequently cooled in a cooling path, whereupon the strip is wound on a coiler to form a coil, wherein structural characteristics of the strip are determined by a mathematical structural model, characterised in that the determination of the structural characteristics of the strip by means of the structural model is carried out for the strip wound to form the coil in that the temperature and the tension (σ) are determined initially only for a section of the wound strip and used as a basis for the structural model and then the structural characteristics of the entire wound strip are determined by joining together the individual sections of the wound strip, wherein an individual strip winding around the coiler is selected for each section of the wound strip, wherein the data made available to the structural model comprise the temperature and/or the temperature plot of an individual strip winding around the coiler in radial direction of the coil and wherein the data made available to the structural model comprises the tension (σ) in the strip, particularly in the circumferential direction of the coiler, of the respective strip winding.
A prechamber sparkplug comprising: a housing including a nozzle having an outer surface, and an inner surface forming a prechamber having a prechamber wall extending circumferentially around a nozzle axis; the nozzle axis extending between an upper nozzle end, and a lower nozzle end forming at least one gas port extending from the inner surface to the outer surface and oriented at a swirl angle relative to the nozzle axis; a first set of electrode prongs within the prechamber; a second set of electrode prongs within the prechamber and downwardly depending from the housing, such that the second set of electrode prongs form, together with the first set of electrode prongs, anode-cathode pairs defining spark gaps within the prechamber; and each of the anode-cathode pairs is spaced radially inward a clearance distance from the prechamber wall to position the spark gaps in a flow of swirled gases from the at least one gas port. a housing including a nozzle having an outer surface, and an inner surface forming a prechamber having a prechamber wall extending circumferentially around a nozzle axis; the nozzle axis extending between an upper nozzle end, and a lower nozzle end forming at least one gas port extending from the inner surface to the outer surface and oriented at a swirl angle relative to the nozzle axis; a first set of electrode prongs within the prechamber; a second set of electrode prongs within the prechamber and downwardly depending from the housing, such that the second set of electrode prongs form, together with the first set of electrode prongs, anode-cathode pairs defining spark gaps within the prechamber; and each of the anode-cathode pairs is spaced radially inward a clearance distance from the prechamber wall to position the spark gaps in a flow of swirled gases from the at least one gas port.
A contactless communication device comprising: a substrate (601, 701, 801); a contactless communication unit, CCU, (610, 710, 810) mounted to the substrate, the contactless communication unit comprising a transducer (611, 711, 811); and a beam shaping reflector (620, 720, 820) that partially enshrouds the CCU, wherein the transducer (611, 711, 811) is configured to selectively transmit and receive contactless signals along a path at least partially defined by the beam shaping reflector, wherein the beam shaping reflector (620, 720, 820) is constructed from a dielectric material and comprises a curved portion and a reflective material configured to reflect contactless signal energy, and the beam shaping reflector (620, 720, 820) is configured to focus a radiation pattern of the contactless signals along the path. a substrate (601, 701, 801); a contactless communication unit, CCU, (610, 710, 810) mounted to the substrate, the contactless communication unit comprising a transducer (611, 711, 811); and a beam shaping reflector (620, 720, 820) that partially enshrouds the CCU, wherein the transducer (611, 711, 811) is configured to selectively transmit and receive contactless signals along a path at least partially defined by the beam shaping reflector, wherein the beam shaping reflector (620, 720, 820) is constructed from a dielectric material and comprises a curved portion and a reflective material configured to reflect contactless signal energy, and the beam shaping reflector (620, 720, 820) is configured to focus a radiation pattern of the contactless signals along the path.
Method for determining a class of an object using an ultrasonic sensor system, wherein the method comprises: - driving the ultrasonic sensor system to emit ultrasonic waves, - receiving the ultrasonic waves reflected by the object at the ultrasonic sensor system, - determining a shape of an envelope (7, 8) corresponding to an amplitude of the ultrasonic waves received at the ultrasonic sensor system, wherein determining the shape of the envelope (7, 8) comprises determining a number of peaks (71, 72, 81, 82) included in the envelope (7, 8) after emitting the ultrasonic waves, and - determining the class of the object based on the determined shape of the envelope (7,8), characterized in that - determining the shape of the envelope (7, 8) comprises, when the number of peaks (71, 72, 81, 82) included in the envelope (7, 8) is determined to be equal to two, determining a shape of the peaks (71, 72, 81, 82) included in the envelope (7, 8). - driving the ultrasonic sensor system to emit ultrasonic waves, - receiving the ultrasonic waves reflected by the object at the ultrasonic sensor system, - determining a shape of an envelope (7, 8) corresponding to an amplitude of the ultrasonic waves received at the ultrasonic sensor system, wherein determining the shape of the envelope (7, 8) comprises determining a number of peaks (71, 72, 81, 82) included in the envelope (7, 8) after emitting the ultrasonic waves, and - determining the class of the object based on the determined shape of the envelope (7,8), - determining the shape of the envelope (7, 8) comprises, when the number of peaks (71, 72, 81, 82) included in the envelope (7, 8) is determined to be equal to two, determining a shape of the peaks (71, 72, 81, 82) included in the envelope (7, 8).
An electrode (100, 110, 120, 200, 300, 410) for manufacturing a honeycomb structure forming die for forming a honeycomb structure having a peripheral surface and two end surfaces, showing a column-like shape, and including a plurality of flow-through cells partitioned by porous partition walls, the electrode (100, 110, 120, 200, 300, 410) characterised in that the electrode comprises: a thick plate-like electrode base body (102, 112, 122, 202, 302) made of an electricity discharging material and having two main surfaces, only one (107, 117, 127, 307) of the two main surfaces of the electrode base body (102, 112, 122, 202, 302) being provided with a plurality of electrode cells (142, 242, 243, 342) partitioned by electrode partition walls (141, 341), wherein a shape of the electrode cells (142, 242, 243, 342) in the one surface (107, 117, 127, 307) is analogous to that of the flow-through cells of the honeycomb structure to be formed by the honeycomb structure forming die. a thick plate-like electrode base body (102, 112, 122, 202, 302) made of an electricity discharging material and having two main surfaces, only one (107, 117, 127, 307) of the two main surfaces of the electrode base body (102, 112, 122, 202, 302) being provided with a plurality of electrode cells (142, 242, 243, 342) partitioned by electrode partition walls (141, 341), wherein a shape of the electrode cells (142, 242, 243, 342) in the one surface (107, 117, 127, 307) is analogous to that of the flow-through cells of the honeycomb structure to be formed by the honeycomb structure forming die.
Method for broadcasting at least one data packet in a network formed by a plurality of mobile nodes capable of moving within a geographic space, said method comprising a step of local broadcasting (E 9) in a predetermined zone (Z i, Z 1, Z 2, Z 3, Z 4) of said geographic space, called a cell, during which said at least one data packet is broadcast to the mobile nodes present in said cell, characterized in that it also comprises: - a step of reception (E 1) of said at least one data packet; - a step of selection (E 3), during which said mobile node determines whether it is a candidate (2, 3, 5, 7) for the broadcasting of said data packet in said cell (Z i); - a step of election (E 5) of said candidate node as broadcasting node for said data packet in said cell (Z i) as a function of an estimated time of travel (Δt i) of said candidate node to the centre (C i) of said cell (Z i); and in that said local broadcasting step (E 9) is implemented when said broadcasting node is situated in proximity to the centre (C i) of said cell (Z i). - a step of reception (E 1) of said at least one data packet; - a step of selection (E 3), during which said mobile node determines whether it is a candidate (2, 3, 5, 7) for the broadcasting of said data packet in said cell (Z i); - a step of election (E 5) of said candidate node as broadcasting node for said data packet in said cell (Z i) as a function of an estimated time of travel (Δt i) of said candidate node to the centre (C i) of said cell (Z i);
A three-dimensional porous catalyst, catalyst carrier or absorbent structure of stacked strands of catalyst, catalyst carrier or absorbent material, composed of layers of spaced-apart parallel strands, characterized in that parallel strands within a layer are arranged in groups of two or more closely spaced-apart, equidistant strands separated by a small distance, wherein the groups of equidistant strands are separated from adjacent strands or adjacent groups of strands by a larger distance.
A computer-implemented method for operating an autonomous driving vehicle, the method comprising: detecting an obstacle based on sensor data obtained from a plurality of sensors of the ADV; predicting multiple trajectories (611a, 611b, 611c, 611d) of the obstacle with corresponding probabilities including a first predicted trajectory of the obstacle with a highest probability and a second predicted trajectory of the obstacle with a second highest probability; planning a cautionary trajectory of the ADV based on at least one of a difference between the highest probability and the second highest probability or a consequence of the second predicted trajectory, wherein the ADV is to drive with a speed lower than a speed limit and prepare to stop in the cautionary trajectory; and controlling the ADV to drive according to the cautionary trajectory. detecting an obstacle based on sensor data obtained from a plurality of sensors of the ADV; predicting multiple trajectories (611a, 611b, 611c, 611d) of the obstacle with corresponding probabilities including a first predicted trajectory of the obstacle with a highest probability and a second predicted trajectory of the obstacle with a second highest probability; planning a cautionary trajectory of the ADV based on at least one of a difference between the highest probability and the second highest probability or a consequence of the second predicted trajectory, wherein the ADV is to drive with a speed lower than a speed limit and prepare to stop in the cautionary trajectory; and controlling the ADV to drive according to the cautionary trajectory.
An elevator system for active control of noise and/or vibration, comprising: an electric machine which is part of the elevator system and includes a motor and a traction sheave; at least one sensor (130, 132) for sensing at least one of noise and vibration in the machine and generating at least one of a noise signal representing noise and a vibration signal representing vibration; a controller obtaining at least one of the noise signal and the vibration signal, the controller generating control signals which includes an operational component for imparting motion to the machine; and power electronics receiving the control signals and generating drive signals for the machine characterised in that the control signals further include a correction component to reduce the at least one of noise and vibration in the machine, and the correction component of the control signals are incorporated in the drive signals to use the motor as an actuator to generate specific vibrations to cancel noise-radiating vibrations of the electric machine. an electric machine which is part of the elevator system and includes a motor and a traction sheave; at least one sensor (130, 132) for sensing at least one of noise and vibration in the machine and generating at least one of a noise signal representing noise and a vibration signal representing vibration; a controller obtaining at least one of the noise signal and the vibration signal, the controller generating control signals which includes an operational component for imparting motion to the machine; and power electronics receiving the control signals and generating drive signals for the machine characterised in that the control signals further include a correction component to reduce the at least one of noise and vibration in the machine, and the correction component of the control signals are incorporated in the drive signals to use the motor as an actuator to generate specific vibrations to cancel noise-radiating vibrations of the electric machine.
A method performed by a User Equipment, UE, operable in a wireless communication system, the wireless communication system being adapted to provide for dual connectivity between the UE and a Master evolved Node B, MeNB, and between the UE and a Secondary eNB, SeNB, the method being performed for modifying a radio resource configuration of the SeNB, with respect to the UE, currently being connected to the MeNB, the method comprising: - receiving, from the MeNB, a SeNB radio resource configuration for the radio resource of the SeNB with respect to the UE, - sending a confirmation to the SeNB, confirming the received SeNB configuration, and - applying the received SeNB configuration for the radio resource configuration of the SeNB, characterised by sending the confirmation to the SeNB comprises sending a Medium Access Control, MAC, Control Element, CE, to the SeNB. - receiving, from the MeNB, a SeNB radio resource configuration for the radio resource of the SeNB with respect to the UE, - sending a confirmation to the SeNB, confirming the received SeNB configuration, and - applying the received SeNB configuration for the radio resource configuration of the SeNB,
An intraosseous needle assembly comprising: a needle comprising a first cylindrical shaft having a distal end, a proximal end, and a wall that defines an inner channel, the first cylindrical shaft comprising one or more threads protruding from the wall along a proximal portion of the first cylindrical shaft, the proximal portion positioned adjacent to the proximal end; and a needle head extending from the proximal end of the first cylindrical shaft, the needle head comprising: a fitting comprising a slot and a pair of substantially parallel side walls; a hexagonal torque structure positioned between the fitting and the cylindrical shaft, wherein the hexagonal torque structure comprises at least two opposing flat surfaces; a cone positioned between the hexagonal torque structure and the cylindrical shaft; and a head channel aligned with the inner channel of the cylindrical shaft and extending through the needle head. a needle comprising a first cylindrical shaft having a distal end, a proximal end, and a wall that defines an inner channel, the first cylindrical shaft comprising one or more threads protruding from the wall along a proximal portion of the first cylindrical shaft, the proximal portion positioned adjacent to the proximal end; and a needle head extending from the proximal end of the first cylindrical shaft, the needle head comprising: a fitting comprising a slot and a pair of substantially parallel side walls; a hexagonal torque structure positioned between the fitting and the cylindrical shaft, wherein the hexagonal torque structure comprises at least two opposing flat surfaces; a cone positioned between the hexagonal torque structure and the cylindrical shaft; and a head channel aligned with the inner channel of the cylindrical shaft and extending through the needle head. a fitting comprising a slot and a pair of substantially parallel side walls; a hexagonal torque structure positioned between the fitting and the cylindrical shaft, wherein the hexagonal torque structure comprises at least two opposing flat surfaces; a cone positioned between the hexagonal torque structure and the cylindrical shaft; and a head channel aligned with the inner channel of the cylindrical shaft and extending through the needle head.
A hair coloring composition comprising: a first composition A comprising a cationic polymer and an aqueous medium, a second composition B comprising an anionic polymer and an aqueous medium, wherein the first and second compositions are maintained in separate containers, wherein anionic polymer of composition B is maintained at a basic pH, wherein i) composition A further comprises pigment particles, or ii) composition B further comprises pigment particles, or iii) composition A and B further comprise pigment particles, wherein the pigment particles of composition A and composition B are the same or different. a first composition A comprising a cationic polymer and an aqueous medium, a second composition B comprising an anionic polymer and an aqueous medium, wherein the first and second compositions are maintained in separate containers, wherein anionic polymer of composition B is maintained at a basic pH, wherein i) composition A further comprises pigment particles, or ii) composition B further comprises pigment particles, or iii) composition A and B further comprise pigment particles, wherein the pigment particles of composition A and composition B are the same or different. i) composition A further comprises pigment particles, or ii) composition B further comprises pigment particles, or iii) composition A and B further comprise pigment particles, wherein the pigment particles of composition A and composition B are the same or different.
An electrically assisted bicycle including a drive assisting system, comprising: a stem; a handlebar including grips (34, 36) and extending from the stem in a width direction of the bicycle; and an operation device attached near to one grip (34, 36) including a device main body and a mounting portion provided in the device main body and attached to the handlebar to hold an outer circumferential surface of the handlebar; wherein the device main body includes: an operation surface not facing the handlebar; an operation section for operating the drive assisting system; characterised in that the device main body further includes: a light-receiving window in the operation surface for letting ambient light enter; and an illumination detection section which detects illumination in a surrounding environment based on the light from the light-receiving window; and wherein the light-receiving window is on a side closer to the stem than is a geographic center-of-gravity point of the operation surface with respect to an axial direction of the handlebar at a location where the mounting portion is attached. a stem; a handlebar including grips (34, 36) and extending from the stem in a width direction of the bicycle; and an operation device attached near to one grip (34, 36) including a device main body and a mounting portion provided in the device main body and attached to the handlebar to hold an outer circumferential surface of the handlebar; wherein the device main body includes: an operation surface not facing the handlebar; an operation section for operating the drive assisting system; characterised in that the device main body further includes: a light-receiving window in the operation surface for letting ambient light enter; and an illumination detection section which detects illumination in a surrounding environment based on the light from the light-receiving window; and wherein the light-receiving window is on a side closer to the stem than is a geographic center-of-gravity point of the operation surface with respect to an axial direction of the handlebar at a location where the mounting portion is attached. a light-receiving window in the operation surface for letting ambient light enter; and an illumination detection section which detects illumination in a surrounding environment based on the light from the light-receiving window; and wherein the light-receiving window is on a side closer to the stem than is a geographic center-of-gravity point of the operation surface with respect to an axial direction of the handlebar at a location where the mounting portion is attached.
A prosthetic heart valve, comprising: an inner frame having an open end portion; an outer frame having an open end portion and coupled to the inner frame at its other end such that the outer frame and the inner frame, when the outer frame is in a first position relative to the inner frame, define an annular region between a portion of the inner frame and a portion of the outer frame that is open toward the open end portion of the outer frame and the open end portion of the inner frame, and the outer frame being movable between the first position relative to the inner frame in which the outer frame is in a biased expanded configuration and a second position relative to the inner frame in which the outer frame is inverted relative to the inner frame; characterised by a stretchable pocket covering coupled to the inner frame and coupled to the outer frame such that an open end of the annular space is covered by the pocket covering between the open end portion of the inner frame and the open end portion of the outer frame, the stretchable pocket covering configured to move between a first configuration in which the pocket covering has a first length when the outer frame is in the first position relative to the inner frame and a second configuration in which the pocket covering has a second length greater than the first length when the outer frame is in the second position relative to the inner frame. an inner frame having an open end portion; an outer frame having an open end portion and coupled to the inner frame at its other end such that the outer frame and the inner frame, when the outer frame is in a first position relative to the inner frame, define an annular region between a portion of the inner frame and a portion of the outer frame that is open toward the open end portion of the outer frame and the open end portion of the inner frame, and the outer frame being movable between the first position relative to the inner frame in which the outer frame is in a biased expanded configuration and a second position relative to the inner frame in which the outer frame is inverted relative to the inner frame; characterised by a stretchable pocket covering coupled to the inner frame and coupled to the outer frame such that an open end of the annular space is covered by the pocket covering between the open end portion of the inner frame and the open end portion of the outer frame, the stretchable pocket covering configured to move between a first configuration in which the pocket covering has a first length when the outer frame is in the first position relative to the inner frame and a second configuration in which the pocket covering has a second length greater than the first length when the outer frame is in the second position relative to the inner frame.