mhurhangee/patent-ind-claim-en huggingface dataset:
A medical lead system for delivering electrical stimulation to tissue of a patient, the medical lead system comprising: a lead body for conducting electrical pulses through a plurality of conductors ; a paddle having an elongated shape, a distal end and a proximate end, a first side (232; 233) and a second side (233; 232), and a longitudinal axis extending between the distal end and the proximate end; and a plurality of electrodes integrated with the paddle , with a portion of each of the plurality of electrodes being exposed at a face of the paddle , each of the plurality of electrodes being electrically connected to each of the plurality of conductors , the plurality of electrodes for delivering the electrical pulses from the plurality of conductors to the tissue of the patient, characterized in that the paddle includes a tabbed portion (260; 261; 262) extending from the first side (232; 233) at the proximate end of the paddle at an obtuse or right angle with respect to the longitudinal axis of the paddle , the tabbed portion (260; 261; 262) is configured for at least facilitating a user gripping the paddle from the side at the tabbed portion (260; 261; 262) at a position on the paddle offset from the longitudinal axis of the paddle . a lead body for conducting electrical pulses through a plurality of conductors ; a paddle having an elongated shape, a distal end and a proximate end, a first side (232; 233) and a second side (233; 232), and a longitudinal axis extending between the distal end and the proximate end; and a plurality of electrodes integrated with the paddle , with a portion of each of the plurality of electrodes being exposed at a face of the paddle , each of the plurality of electrodes being electrically connected to each of the plurality of conductors , the plurality of electrodes for delivering the electrical pulses from the plurality of conductors to the tissue of the patient, characterized in that the paddle includes a tabbed portion (260; 261; 262) extending from the first side (232; 233) at the proximate end of the paddle at an obtuse or right angle with respect to the longitudinal axis of the paddle , the tabbed portion (260; 261; 262) is configured for at least facilitating a user gripping the paddle from the side at the tabbed portion (260; 261; 262) at a position on the paddle offset from the longitudinal axis of the paddle .
A method performed by a communication device for triggering mobility reference signaling in a communications system , the method comprising: - determining a need for a handover based on quality of a radio link between the communication device and a currently serving access point , wherein determining comprises determining a beam quality of a beam provided by the currently serving access point and determining, when the radio link quality of the beam provided by the currently serving access point is lower than a first preconfigured absolute threshold, that there is a need for the handover; and - in response to determining a need for the handover, transmitting , to at least one candidate access point , an indication to transmit a mobility reference signal, wherein the mobility reference signal is used by the communication device for performing measurements for handover. - determining a need for a handover based on quality of a radio link between the communication device and a currently serving access point , wherein determining comprises determining a beam quality of a beam provided by the currently serving access point and determining, when the radio link quality of the beam provided by the currently serving access point is lower than a first preconfigured absolute threshold, that there is a need for the handover; and - in response to determining a need for the handover, transmitting , to at least one candidate access point , an indication to transmit a mobility reference signal, wherein the mobility reference signal is used by the communication device for performing measurements for handover.
A programmable computer numeric control (CNC) machine , the CNC machine comprising: a first worktable extending in a first plane; a second worktable extending in a second plane, wherein the second plane is oriented at an angle relative to the first plane; at least one conveyor belt operably coupled to the first worktable; a printing gantry displaceable along a first axis of the CNC machine; and an applicator having a nozzle configured to deposit material on the second worktable, characterized in that the CNC machine further comprises a chill plate located at a front edge of the first worktable. a first worktable extending in a first plane; a second worktable extending in a second plane, wherein the second plane is oriented at an angle relative to the first plane; at least one conveyor belt operably coupled to the first worktable; a printing gantry displaceable along a first axis of the CNC machine; and an applicator having a nozzle configured to deposit material on the second worktable, characterized in that the CNC machine further comprises a chill plate located at a front edge of the first worktable.
A method for wireless communication by a first wireless device, the method comprising: selecting , from a resource pool allocated for sidelink data transmission from a second wireless device to a first wireless device, a subset of the resource pool for the sidelink data transmission; transmitting an indication to the second wireless device of the selected subset of the resource pool wherein the indication is provided via signaling included in sidelink control information, SCI, wherein the SCI partially schedules a sidelink data channel for the data transmission from the second wireless device by indicating a subset of a set of scheduling parameters for the data transmission; receiving SCI from the second wireless device indicating a remainder of the set of scheduling parameters that completes scheduling of the sidelink data channel; and monitoring the subset of the resource pool for the sidelink data transmission. selecting , from a resource pool allocated for sidelink data transmission from a second wireless device to a first wireless device, a subset of the resource pool for the sidelink data transmission; transmitting an indication to the second wireless device of the selected subset of the resource pool wherein the indication is provided via signaling included in sidelink control information, SCI, wherein the SCI partially schedules a sidelink data channel for the data transmission from the second wireless device by indicating a subset of a set of scheduling parameters for the data transmission; receiving SCI from the second wireless device indicating a remainder of the set of scheduling parameters that completes scheduling of the sidelink data channel; and monitoring the subset of the resource pool for the sidelink data transmission.
An elastic warp knitted fabric composed of two sets of warp fibers (A, C), wherein the one set of warp fibers consists of elastic fibers (C) and the other set of warp fibers consists of inelastic fibers (A), wherein the texture of the inelastic fibers (A) is a texture such that the inelastic fibers are knitted course by course, by reciprocating in Atlas knitting over 5 wales by two wales, both an extension force in the warp direction and that in the weft direction are 100 cN/2.5 cm to 600 cN/2.5 cm, in extension by 80 % of the said knitted fabric as measured by the method headed "Extension force and ratio of extension force" described in the description, and the ratio of the extension force in the warp direction to that in the weft direction is 0.8 to 1.8 as measured by the method headed "Extension force and ratio of extension force" described in the description; characterized in that the texture of the elastic fibers (C) is a texture such that the elastic fibers are knitted course by course, by reciprocating in Atlas knitting over 3 wales by one wale, and that both extension recovery percentage in the warp direction and that in the weft direction, after extension by 80 % and recovery are repeated three times, are 85 % or more.
A method of monitoring an optical network comprising a plurality of downstream devices (130a, 130b... 130n) in optical communication with a network node via an optical splitter , the method comprising: selecting a plurality of subsets of downstream devices (130a, 130b... 130n), wherein each subset of the plurality of subsets comprises one-half of the downstream devices (130a, 130b... 130n) in a collective-monitoring set consisting of at least a portion of the plurality of downstream devices (130a, 130b... 130n) and any dummy downstream devices necessary to give the set 2" members, wherein n is a positive integer; and wherein the selecting a plurality of subsets of downstream devices (130a, 130b... 130n) comprises: selecting a first subset; and selecting subsequent subsets by selecting one-half of each previously selected group of downstream devices (130a, 130b... 130n) and one-half of each previously unselected group of downstream devices (130a, 130b... 130n) in the previous subset, until log 2 (n) subsets have been selected; executing a port monitoring cycle for each subset of the plurality of subsets, each executed port monitoring cycle comprising: directing un-selected downstream devices (130a, 130b... 130n) to cease upstream transmissions; and monitoring upstream activity on downstream splitter ports (155a, 155b ... 155 n) to determine which ports (155a, 155b ... 155 n) are receiving upstream transmissions; and reporting the monitoring results. selecting a first subset; and selecting subsequent subsets by selecting one-half of each previously selected group of downstream devices (130a, 130b... 130n) and one-half of each previously unselected group of downstream devices (130a, 130b... 130n) in the previous subset, until log 2 (n) subsets have been selected; executing a port monitoring cycle for each subset of the plurality of subsets, each executed port monitoring cycle comprising: directing un-selected downstream devices (130a, 130b... 130n) to cease upstream transmissions; and monitoring upstream activity on downstream splitter ports (155a, 155b ... 155 n) to determine which ports (155a, 155b ... 155 n) are receiving upstream transmissions; and directing un-selected downstream devices (130a, 130b... 130n) to cease upstream transmissions; and monitoring upstream activity on downstream splitter ports (155a, 155b ... 155 n) to determine which ports (155a, 155b ... 155 n) are receiving upstream transmissions; and reporting the monitoring results.
A test element for detecting at least one analyte in a body fluid, the test element comprising a housing having at least one base element and at least one cover element , the test element comprising at least one fluid channel formed within the housing , wherein the fluid channel comprises a capillary region and a measurement region , the capillary region and the measurement region having differing aspect ratios, the fluid channel comprising at least two sections having differing depths, wherein the aspect ratio of the capillary region is defined by a quotient of the maximum depth of the capillary region divided by a maximum width of the capillary region , wherein the aspect ratio of the measurement region is defined as a maximum depth of the measurement region divided by the maximum width of the measurement region , wherein a longer side of the test element defines a z-direction, wherein the depth is defined as an extension of a cross-section in an x-direction perpendicular to a plane of extension of the test element , and wherein the width is defined as the extension of the cross-section in a y-direction being perpendicular to the z-direction and the x-direction, wherein the capillary region has a first depth and wherein the measurement region has a second depth, wherein the first depth is larger than the second depth, wherein, in between the capillary region and the measurement region , the fluid channel comprises a transition region , wherein the transition region is defined as a region of the fluid channel adapted to provide an adaption of the depth of the capillary region to the measurement region , the cover element comprising at least one test field having at least one test chemical , the test chemical being adapted to change at least one optically measurable property in the presence of the analyte, wherein the cover element is mounted to the base element by using at least one adhesive , the adhesive contacting the test field in a manner that the adhesive is interposed in between the test field and the base element , wherein the adhesive fully or partially covers the test field such that the adhesive is in direct contact with a test field surface or a part thereof.
A wiring board comprising a laminate , in which one or more resin insulating layers and one or more conductor layers are stacked, wherein the conductor layer of an outermost layer of the laminate comprises: a plurality of connection terminal portions , which are disposed in a mounting area of a semiconductor chip and surfaces of which are exposed for flip-chip mounting the semiconductor chip ; and a wiring conductor that is arranged at a predetermined position between the plurality of connection terminal portions , and wherein the resin insulating layer of the outermost layer of the laminate comprises: a dam portion covering the wiring conductor ; and a reinforcement portion , which is formed between the wiring conductor and a connection terminal portion adjacent to the wiring conductor and to be lower than a height (H3) of the dam portion , the reinforcement portion being integrally formed with the dam portion and being connected with a side surface of the dam portion , the wiring board being characterized in that , in sectional view, a curvature of a corner portion of a superior margin region of the dam portion is larger than a curvature of a corner portion of a connection region between the dam portion and the reinforcement portion . a plurality of connection terminal portions , which are disposed in a mounting area of a semiconductor chip and surfaces of which are exposed for flip-chip mounting the semiconductor chip ; and a wiring conductor that is arranged at a predetermined position between the plurality of connection terminal portions , and wherein the resin insulating layer of the outermost layer of the laminate comprises: a dam portion covering the wiring conductor ; and a reinforcement portion , which is formed between the wiring conductor and a connection terminal portion adjacent to the wiring conductor and to be lower than a height (H3) of the dam portion , the reinforcement portion being integrally formed with the dam portion and being connected with a side surface of the dam portion , the wiring board being characterized in that , in sectional view, a curvature of a corner portion of a superior margin region of the dam portion is larger than a curvature of a corner portion of a connection region between the dam portion and the reinforcement portion . a dam portion covering the wiring conductor ; and a reinforcement portion , which is formed between the wiring conductor and a connection terminal portion adjacent to the wiring conductor and to be lower than a height (H3) of the dam portion , the reinforcement portion being integrally formed with the dam portion and being connected with a side surface of the dam portion , the wiring board being characterized in that , in sectional view, a curvature of a corner portion of a superior margin region of the dam portion is larger than a curvature of a corner portion of a connection region between the dam portion and the reinforcement portion .
A method for interaction with a medical device that is implanted in a body of a patient, the method comprising: detecting, using an inertial sensor , an arcuate motion of a wireless communication device at a velocity in the range of 20 - 200cm/sec, followed by an abrupt deceleration in which the velocity of the wireless communication device decreases from at least 20cm/sec to zero in 100ms or less as the motion terminates in physical contact between the wireless communication device and the body; in response to the detected arcuate motion followed by abrupt deceleration, actuating a wireless communication link between the wireless communication device and a transmitter in the implanted medical device; and receiving in the wireless communication device data transmitted over the wireless communication link by the transmitter. detecting, using an inertial sensor , an arcuate motion of a wireless communication device at a velocity in the range of 20 - 200cm/sec, followed by an abrupt deceleration in which the velocity of the wireless communication device decreases from at least 20cm/sec to zero in 100ms or less as the motion terminates in physical contact between the wireless communication device and the body; in response to the detected arcuate motion followed by abrupt deceleration, actuating a wireless communication link between the wireless communication device and a transmitter in the implanted medical device; and receiving in the wireless communication device data transmitted over the wireless communication link by the transmitter.
Method for generating true random numbers for an integrated circuit (IC), the method including the following steps: - providing a counter (CNT) in an integrated circuit (IC) which counter receives a clock signal of the integrated circuit (IC), - sending the signal of a resistor-capacitor circuit (R, C), acting as an oscillator, to the counter (CNT), the resistor-capacitor circuit (R, C) being situated outside the integrated circuit (IC) and being connected to the integrated circuit (IC) via input/output pins, - changing the signal of the resistor-capacitor circuit (R, C) by randomly switching one or more additional resistors (R1, R2, ... Rn) in parallel to the resistor (R) of the resistor-capacitor circuit in order to change the frequency of the signal of the resistor-capacitor circuit (R, C), - counting the oscillations of the clock during one oscillation of the signal of the resistor-capacitor circuit (R, C) and filling a register with the resulting bit stream. - providing a counter (CNT) in an integrated circuit (IC) which counter receives a clock signal of the integrated circuit (IC), - sending the signal of a resistor-capacitor circuit (R, C), acting as an oscillator, to the counter (CNT), the resistor-capacitor circuit (R, C) being situated outside the integrated circuit (IC) and being connected to the integrated circuit (IC) via input/output pins, - changing the signal of the resistor-capacitor circuit (R, C) by randomly switching one or more additional resistors (R1, R2, ... Rn) in parallel to the resistor (R) of the resistor-capacitor circuit in order to change the frequency of the signal of the resistor-capacitor circuit (R, C), - counting the oscillations of the clock during one oscillation of the signal of the resistor-capacitor circuit (R, C) and filling a register with the resulting bit stream.
A lighting system comprising a housing ; a first luminaire including a first light source configured to emit white light from a front facing surface of the housing ; a second luminaire including a second light source comprising at least two LEDs, having different wavelengths, the second light source configured to emit colored light from a rear facing surface of the housing for reflection of the emitted colored light on a surface to which the lighting system is adapted to be mounted; and lighting controller circuitry operatively coupled with the second light source and configured to control operation of the second light source to mix the colored light from the at least two LEDs emitted by the second light source; wherein the first light source comprises a plurality of light emitting engines with cool-white and warm-white emission capabilities, and wherein the lighting controller circuitry is further configured to control operation of the first light source to mix the white light emitted by the first light source. a housing ; a first luminaire including a first light source configured to emit white light from a front facing surface of the housing ; a second luminaire including a second light source comprising at least two LEDs, having different wavelengths, the second light source configured to emit colored light from a rear facing surface of the housing for reflection of the emitted colored light on a surface to which the lighting system is adapted to be mounted; and lighting controller circuitry operatively coupled with the second light source and configured to control operation of the second light source to mix the colored light from the at least two LEDs emitted by the second light source; wherein the first light source comprises a plurality of light emitting engines with cool-white and warm-white emission capabilities, and wherein the lighting controller circuitry is further configured to control operation of the first light source to mix the white light emitted by the first light source.
Seal between a frame part of a vehicle door window and the upper periphery of a lowerable window pane of the vehicle door window , having a seal profile of plastic which by way of a U-shaped fastening portion is plug-fitted onto a flange that projects upward from the frame part of the vehicle door window , wherein additionally the seal profile is provided with a tubular sealing portion for forming a seal between the frame part and a peripheral face of a door opening in a vehicle body , characterized in that the sealing portion is connected to an inner leg of the U-shaped fastening portion , wherein a wall of the tubular sealing portion is extruded in cross-section at a first end onto the internal leg, and at an opposite end a latched form-fitting connection to the internal U-leg of the U-shaped fastening portion is established.
Gas fireplace , comprising a combustion chamber defined by vertical walls , a top wall and a bottom wall , - at least one gas supply which ends in the combustion chamber and is at least partly hidden by non-flammable decorative material, such as artificial logs , and provided with outlet openings , - the vertical walls of the combustion chamber comprising at least a glass front wall , through which the combustion chamber is visible to a user, - which glass front wall is pivotable about a pivot axis with respect to the combustion chamber between a closed position, in which the combustion chamber is closed, and at least one open position, in which the combustion chamber is accessible to a user, wherein the pivot axis is a vertical pivot axis (22; 24), characterized in that the gas fireplace has a displacement mechanism which is configured to displace the glass front wall along or with the pivot axis (22; 24) in a vertical direction between a first position, in which the front wall is locked, and a second position, in which the front wall is pivotable, in the second position, between the closed position and the at least one open position. - at least one gas supply which ends in the combustion chamber and is at least partly hidden by non-flammable decorative material, such as artificial logs , and provided with outlet openings , - the vertical walls of the combustion chamber comprising at least a glass front wall , through which the combustion chamber is visible to a user, - which glass front wall is pivotable about a pivot axis with respect to the combustion chamber between a closed position, in which the combustion chamber is closed, and at least one open position, in which the combustion chamber is accessible to a user, wherein the pivot axis is a vertical pivot axis (22; 24), characterized in that the gas fireplace has a displacement mechanism which is configured to displace the glass front wall along or with the pivot axis (22; 24) in a vertical direction between a first position, in which the front wall is locked, and a second position, in which the front wall is pivotable, in the second position, between the closed position and the at least one open position.