mhurhangee/ep-ind-claims huggingface dataset:
A bicycle brake arm comprising: a first branch including a first cable attachment structure; a second branch extending from the first branch, the second branch including a first brake shoe attachment structure, at least one of the first and second branches (30, 32) including an interior cavity, the at least one of the first and second branches (30, 32) having a transverse cross-section in which the interior cavity is completely and continuously surrounded by an exterior surface of the bicycle brake arm, wherein the interior cavity has an opening formed in the exterior surface of the bicycle brake arm; and a cap (40, 240) that closes the opening in the exterior surface that communicates with the interior cavity, the cap (40, 140) having an exterior surface (40a, 140a) that seamlessly meets with the exterior surface of the bicycle brake arm in a continuously manner, characterized in that the cap (40, 140) is bonded to the brake arm. a first branch including a first cable attachment structure; a second branch extending from the first branch, the second branch including a first brake shoe attachment structure, at least one of the first and second branches (30, 32) including an interior cavity, the at least one of the first and second branches (30, 32) having a transverse cross-section in which the interior cavity is completely and continuously surrounded by an exterior surface of the bicycle brake arm, wherein the interior cavity has an opening formed in the exterior surface of the bicycle brake arm; and a cap (40, 240) that closes the opening in the exterior surface that communicates with the interior cavity, the cap (40, 140) having an exterior surface (40a, 140a) that seamlessly meets with the exterior surface of the bicycle brake arm in a continuously manner, characterized in that the cap (40, 140) is bonded to the brake arm.
Washing chamber apparatus for washing workpieces or the like including a washing chamber with a door with an inspection panel and including at least one access opening, through which a spray gun can be gripped, which is connected to a pressure pump, wherein the door is movable between a lower closed position and an upper open position and the spray gun is actuable only in the closed position, characterised in that the door includes a front section and a cover section hingedly connected thereto, which is pivotally connected at a rearward position of the washing chamber, that connected to the cover section there is at least one gas pressure spring, which is also pivotally connected at a rearward position of the washing chamber and is able to hold the front section of the door in the closure region in its current height position and that the closed position of the door extends over a predetermined closure region (arrow 44), in which the door opening is sealed against the outlet of washing medium so that the height position of the at least one access opening is adjustable in the closed position of the door.
A pre-loaded stent graft delivery device in combination with a stent graft, the stent graft delivery device comprising; a guide wire catheter having a guide wire lumen therethrough; a handle assembly at a distal end of the guide wire catheter, the handle including a multiport manifold; a nose cone dilator at the proximal end of the guide wire catheter, the nose cone dilator comprising a distal end and a distally facing capsule on the distal end of the nose cone dilator; a pusher catheter extending from the manifold towards the nose cone dilator, the pusher catheter comprising a longitudinal pusher lumen therethrough, the guide wire catheter extending through the pusher lumen and the guide wire catheter able to move longitudinally and rotationally with respect to the pusher catheter, the pusher catheter comprising a proximal end spaced distally from the nose cone dilator and thereby defining between the proximal end of the pusher catheter and the nose cone dilator a stent graft retention region; the pusher catheter comprising two longitudinal auxiliary lumens (92, 94) extending from the manifold to the proximal end of the pusher catheter and within the pusher catheter, the proximal end of the pusher catheter comprising an attachment boss and a scalloped end to provide exit ports for the auxiliary lumens; a sheath hub on the pusher catheter and a sheath arrangement extending from the sheath hub to the nose cone dilator, the sheath arrangement being coaxial with and surrounding the guide wire catheter; the stent graft comprising a tubular body of a biocompatible graft material, the tubular body comprising a peripheral wall and defining a lumen therethrough, a proximal end, a distal end, at least one fenestration in the peripheral wall and a proximally extending exposed self expanding stent; the stent graft being received on the guide wire catheter in the stent graft retention region and within the sheath; the proximally extending exposed self expanding stent of the stent graft being releasably retained in the distally facing capsule on the distal end of the nose cone dilator; an indwelling access sheath (118, 122) within the or each auxiliary lumen (92, 94), the indwelling access sheath extending through the manifold from external thereof and having a proximal end terminating distally of the stent graft; an indwelling guide wire (138, 146) within the or each access sheath; the indwelling guide wire extending proximally of the access sheath through the stent graft and exiting the at least one fenestration and extending proximally to the distally facing capsule; whereby upon deployment of the stent graft into the vasculature of a patient the indwelling guide wire can be used to facilitate catheterization of a side-branch or target vessel or be used to stabilize the access sheath during catheterization, advancement of the access sheath into the target vessel and deployment of a covered or uncovered stent therein through the access sheath.
An apparatus comprising: logic circuitry configured and arranged to provide a logic function by processing input signals and providing output signals corresponding to the input signals with the logic function applied thereto; a first circuit configured and arranged to communicate signals with the logic circuitry; a first bond pad connected to the first circuit via a first circuit path, and configured and arranged to communicate signals with the logic circuitry via the first circuit; a second circuit configured and arranged to communicate signals with the logic circuitry; a second bond pad connected to the second circuit via a second circuit path, and configured and arranged to communicate signals with the logic circuitry via the second circuit; a probe contact connected to the first bond pad and being configured and arranged to communicate signals with an external probe in contact therewith; and a switch circuit connected to the probe contact and the second circuit path, the switch circuit being configured and arranged to communicate signals between the probe contact and the second circuit path by selectively connecting and disconnecting the probe contact to the second circuit path in response to switch control signals received at the probe contact. logic circuitry configured and arranged to provide a logic function by processing input signals and providing output signals corresponding to the input signals with the logic function applied thereto; a first circuit configured and arranged to communicate signals with the logic circuitry; a first bond pad connected to the first circuit via a first circuit path, and configured and arranged to communicate signals with the logic circuitry via the first circuit; a second circuit configured and arranged to communicate signals with the logic circuitry; a second bond pad connected to the second circuit via a second circuit path, and configured and arranged to communicate signals with the logic circuitry via the second circuit; a probe contact connected to the first bond pad and being configured and arranged to communicate signals with an external probe in contact therewith; and a switch circuit connected to the probe contact and the second circuit path, the switch circuit being configured and arranged to communicate signals between the probe contact and the second circuit path by selectively connecting and disconnecting the probe contact to the second circuit path in response to switch control signals received at the probe contact.
A computer-implemented method comprising: identifying a first performance metric associated with processing a current workload at a graphics processing unit, GPU, for a number of consecutive measurement cycles, wherein the number of consecutive measurement cycles includes a current measurement cycle and at least one previous measurement cycle; identifying that the first performance metric is lower than a performance metric threshold for the number of consecutive measurement cycles; determining that the number of consecutive measurement cycles exceeds a minimum hysteresis number, wherein the minimum hysteresis number comprises an up-hysteresis level defining a minimum number of consecutive cycles that the first performance metric must be maintained at or above the performance metric threshold before increasing a power level of the GPU, and a down-hysteresis level defining a minimum number of consecutive cycles that the first performance metric must be maintained below the performance metric threshold before decreasing the power level of the GPU; determining, based on data representative of a current computing environment processing the current workload, an estimated optimization to be applied to the GPU for a future measurement cycle; and characterised by adjusting, based on the estimated optimization, a power level setting at the GPU to a power savings optimized setting by increasing the up-hysteresis level and decreasing the down-hysteresis level for the future measurement cycle. identifying a first performance metric associated with processing a current workload at a graphics processing unit, GPU, for a number of consecutive measurement cycles, wherein the number of consecutive measurement cycles includes a current measurement cycle and at least one previous measurement cycle; identifying that the first performance metric is lower than a performance metric threshold for the number of consecutive measurement cycles; determining that the number of consecutive measurement cycles exceeds a minimum hysteresis number, wherein the minimum hysteresis number comprises an up-hysteresis level defining a minimum number of consecutive cycles that the first performance metric must be maintained at or above the performance metric threshold before increasing a power level of the GPU, and a down-hysteresis level defining a minimum number of consecutive cycles that the first performance metric must be maintained below the performance metric threshold before decreasing the power level of the GPU; determining, based on data representative of a current computing environment processing the current workload, an estimated optimization to be applied to the GPU for a future measurement cycle; and characterised by adjusting, based on the estimated optimization, a power level setting at the GPU to a power savings optimized setting by increasing the up-hysteresis level and decreasing the down-hysteresis level for the future measurement cycle.
A method in a wireless device for triggering aperiodic Sounding Reference Signal, SRS, the method comprising: receiving (900-902, 1000-1002, 1202, 1400-1402) a first SRS configuration for a first type of aperiodic SRS transmission and/or a second SRS configuration for a second type of aperiodic SRS transmission; receiving (904, 1006, 1202, 1406) downlink control information comprising a parameter provided in a same-length SRS request field of the downlink control information for triggering an aperiodic SRS transmission using the first SRS configuration or the second SRS configuration; determining (906, 1008, 1204, 1408) whether to use the first SRS configuration or the second SRS configuration; and transmitting (908, 1010, 1206, 1410) an aperiodic SRS transmission in accordance with the determined SRS configuration. receiving (900-902, 1000-1002, 1202, 1400-1402) a first SRS configuration for a first type of aperiodic SRS transmission and/or a second SRS configuration for a second type of aperiodic SRS transmission; receiving (904, 1006, 1202, 1406) downlink control information comprising a parameter provided in a same-length SRS request field of the downlink control information for triggering an aperiodic SRS transmission using the first SRS configuration or the second SRS configuration; determining (906, 1008, 1204, 1408) whether to use the first SRS configuration or the second SRS configuration; and transmitting (908, 1010, 1206, 1410) an aperiodic SRS transmission in accordance with the determined SRS configuration.
A fire detection system, comprising: at least two spatially resolved fire detectors having at least a partially overlapping field of view of a protected area to generate fire cluster information for the protected area; and a system controller configured to receive the fire cluster information from the fire detectors and is configured to pair fire clusters detected by the at least two fire detectors and is configured to validate the pairs of fire clusters as representing a fire, based on time cluster detection epochs by determining whether a time interval between the detection of the fire clusters by two fire detectors is less than a threshold value. at least two spatially resolved fire detectors having at least a partially overlapping field of view of a protected area to generate fire cluster information for the protected area; and a system controller configured to receive the fire cluster information from the fire detectors and is configured to pair fire clusters detected by the at least two fire detectors and is configured to validate the pairs of fire clusters as representing a fire, based on time cluster detection epochs by determining whether a time interval between the detection of the fire clusters by two fire detectors is less than a threshold value.
A medical device comprising: a distensible medical tube (130, 1230, 1530, 1830) having a proximal end connected to a port of the medical device, wherein an occlusion (1008, 1508) is present in the medical tube at a location that defines a boundary between a first portion of the medical tube and a second portion of the medical tube; and a pressure sensor at the proximal end of the medical tube, the pressure sensor configured for measuring a first pressure of fluid in the first portion of the medical tube and for measuring a second pressure of the fluid in the first portion of the medical tube; one or more pumps configured for providing or withdrawing a volume of fluid to or from the first portion of the medical tube; characterized in that the medical device further comprises a processor configured for determining a length of the first portion of the medical tube based on a difference between the second pressure and the first pressure, an amount of time elapsed between the two pressure measurements, a fluid capacitance of the medical tube, and the volume of fluid provided to or withdrawn from the first portion of the medical tube wherein the difference between the two pressure measurements and the amount of time elapsed between the two pressure measurements comprises a slope of a portion of a pressure waveform, the portion of the pressure waveform corresponding to times during which the volume of fluid is being provided or withdrawn. a distensible medical tube (130, 1230, 1530, 1830) having a proximal end connected to a port of the medical device, wherein an occlusion (1008, 1508) is present in the medical tube at a location that defines a boundary between a first portion of the medical tube and a second portion of the medical tube; and a pressure sensor at the proximal end of the medical tube, the pressure sensor configured for measuring a first pressure of fluid in the first portion of the medical tube and for measuring a second pressure of the fluid in the first portion of the medical tube; one or more pumps configured for providing or withdrawing a volume of fluid to or from the first portion of the medical tube; characterized in that the medical device further comprises a processor configured for determining a length of the first portion of the medical tube based on a difference between the second pressure and the first pressure, an amount of time elapsed between the two pressure measurements, a fluid capacitance of the medical tube, and the volume of fluid provided to or withdrawn from the first portion of the medical tube wherein the difference between the two pressure measurements and the amount of time elapsed between the two pressure measurements comprises a slope of a portion of a pressure waveform, the portion of the pressure waveform corresponding to times during which the volume of fluid is being provided or withdrawn.
A damper seal received in a cavity of a turbine blade, the damper seal comprising: a central body portion having a first end region, an opposing second end region, a first side, an opposing second side, and a width; a first portion extending from the first end region of the central body portion; a second portion extending from the opposing second end region of the central body portion; and a projection extending from the second side that defines an opening that is configured to receive a lug of the turbine blade to align the damper seal relative to the turbine blade; wherein the first side includes a first tang and a second tang that extend from the central body portion, and said first tang and second tang are bent from said central body portion; wherein the first side further includes a faceted edge, characterized in that the faceted edge has a first flat face adjacent to a second flat face which is adjacent to a third flat face. a central body portion having a first end region, an opposing second end region, a first side, an opposing second side, and a width; a first portion extending from the first end region of the central body portion; a second portion extending from the opposing second end region of the central body portion; and a projection extending from the second side that defines an opening that is configured to receive a lug of the turbine blade to align the damper seal relative to the turbine blade; wherein the first side includes a first tang and a second tang that extend from the central body portion, and said first tang and second tang are bent from said central body portion; wherein the first side further includes a faceted edge, characterized in that the faceted edge has a first flat face adjacent to a second flat face which is adjacent to a third flat face.
A method of wireless communication for a base station, the method comprising: communicating with a user equipment, UE, through a first active beam, the first active beam being a serving beam; determining that beam tracking is to be performed with the UE, the beam tracking including identifying a new beam for communication between the UE and the base station; performing beam tracking with the UE using initially a first plurality of beams (620a-h) and subsequently a second plurality of beams (620c-f) based on the determination that beam tracking is to be performed, based on that the first active beam deteriorates, wherein performing beam tracking with the UE comprises transmitting to the UE a first reference signal through a first beam of the first plurality of beams (620a-h) and subsequently transmitting to the UE a second reference signal through a second beam of the second plurality of beams (620c-f), wherein the first plurality of beams (620a-h) is different from the second plurality of beams (620c-f); and communicating with the UE through a second active beam based on the beam tracking. communicating with a user equipment, UE, through a first active beam, the first active beam being a serving beam; determining that beam tracking is to be performed with the UE, the beam tracking including identifying a new beam for communication between the UE and the base station; performing beam tracking with the UE using initially a first plurality of beams (620a-h) and subsequently a second plurality of beams (620c-f) based on the determination that beam tracking is to be performed, based on that the first active beam deteriorates, wherein performing beam tracking with the UE comprises transmitting to the UE a first reference signal through a first beam of the first plurality of beams (620a-h) and subsequently transmitting to the UE a second reference signal through a second beam of the second plurality of beams (620c-f), wherein the first plurality of beams (620a-h) is different from the second plurality of beams (620c-f); and communicating with the UE through a second active beam based on the beam tracking.
Hearing aid having - a source isolation device for receiving at least one mixed signal from a plurality of sound sources and for producing a plurality of source-specific received signals (Q1, Q2,..., Qm) therefrom, - a presentation device for presenting one corresponding output signal for each of the plurality of received signals, and - a selection device (S1, S2) for a user to select one of the plurality of received signals for further processing, characterized in that - the source isolation device provides, for each of the plurality of source-specific received signals (Q1, Q2,..., Qm), a piece of angle information about a reception angle, and - the plurality of output signals are presented together with the associated reception angles by the presentation device. - a source isolation device for receiving at least one mixed signal from a plurality of sound sources and for producing a plurality of source-specific received signals (Q1, Q2,..., Qm) therefrom, - a presentation device for presenting one corresponding output signal for each of the plurality of received signals, and - a selection device (S1, S2) for a user to select one of the plurality of received signals for further processing, characterized in that - the source isolation device provides, for each of the plurality of source-specific received signals (Q1, Q2,..., Qm), a piece of angle information about a reception angle, and - the plurality of output signals are presented together with the associated reception angles by the presentation device.