mhurhangee/ep-ind-claims huggingface dataset:
Door fitting in the form of a fitting plate (19, 21) which can be placed on the outer door side of a door leaf by way of with a bearing surface and which has a follower which can be pivoted about a pivot angle delimited by stops (7', 7", 8', 8"), comprising a switching member which can be inserted from the bearing surface in different orientations into an opening in the bearing surface and, depending on the orientation, delimits the pivot angle for left-handed operation or for right-handed operation, wherein the switching member and the opening have an elongate, rectilinearly extending, substantially rectangular outline, wherein a handle bearing housing which bears the follower is arranged in a housing shell which is covered by a base plate forming the bearing surface, wherein the base plate has the opening, wherein the opening in the handle bearing housing that forms a housing slot is situated to the rear of the opening in the base plate, wherein the opening in the base plate can be closed by a closure element, and wherein the closure element is either a slide which is held as a result of gravitational force or frictionally in its closure position, or is designed as a leg spring.
A radar-based object detection device (10; 210; 310) comprising a radar antenna (60; 160), a signal processor operatively connected to the radar antenna, and a radome (20; 120; 220; 320) covering the radar antenna, the device being for sending radar signals and receiving echoes when the radar signals return from a target object, the device further including a radome monitoring and alert system comprising blockage detection circuitry (63, 64; 163; 263, 264) in said device that is configured to send an alert signal that indicates that the radome is affected by dirt or debris attached to an outer surface of the radome, the device being characterised in that: said radome monitoring and alert system comprises one or more electrodes (31, 32; 131; 231, 232) attached to an inner surface (26; 126; 226) of the radome (20; 120; 220; 320) and operatively connected to said blockage detection circuitry (63, 64; 163; 263, 264), in that said blockage detection circuitry (63, 64; 163; 263, 264) measures self-capacitance of each electrode and is configured to send the alert signal when said self-capacitance crosses a threshold that indicates that the radome is affected by dirt or debris attached to an outer surface of the radome.
A turbocharger comprising: a compressor comprising a compressor housing and a compressor wheel mounted in the compressor housing; a turbine comprising a turbine housing and a turbine wheel mounted in the turbine housing; a shaft connecting the compressor wheel to the turbine wheel; a one-piece center housing disposed between and mounted to the compressor and turbine housings, the center housing defining a bore that receives the shaft therethrough; a bearing cartridge mounted in the bore of the center housing rotatably supporting the shaft, the bearing cartridge and center holding being configured such that the bearing cartridge is insertable as a unit into the bore of the center housing from an end of the center housing adjacent to the compressor; characterised in that: the bearing cartridge is a hydrodynamic foil bearing cartridge comprising a foil thrust bearing assembly retained between first and second foil journal bearings the first foil journal bearing comprising an annular first bearing carrier and the second foil journal bearing comprising an annular second bearing carrier, each bearing carrier mounting a foil along an inner surface of the bearing carrier; and each bearing carrier is mounted in the center housing by an undulating ring (131, 147) mounted about the bearing carrier and abutting an inner surface of the bore in the center housing, the undulating rings helping to thermally isolate the foils from heat transfer from the turbine and serving to radially locate the bearing carriers in the bore of the center housing. a compressor comprising a compressor housing and a compressor wheel mounted in the compressor housing; a turbine comprising a turbine housing and a turbine wheel mounted in the turbine housing; a shaft connecting the compressor wheel to the turbine wheel; a one-piece center housing disposed between and mounted to the compressor and turbine housings, the center housing defining a bore that receives the shaft therethrough; a bearing cartridge mounted in the bore of the center housing rotatably supporting the shaft, the bearing cartridge and center holding being configured such that the bearing cartridge is insertable as a unit into the bore of the center housing from an end of the center housing adjacent to the compressor; the bearing cartridge is a hydrodynamic foil bearing cartridge comprising a foil thrust bearing assembly retained between first and second foil journal bearings the first foil journal bearing comprising an annular first bearing carrier and the second foil journal bearing comprising an annular second bearing carrier, each bearing carrier mounting a foil along an inner surface of the bearing carrier; and each bearing carrier is mounted in the center housing by an undulating ring (131, 147) mounted about the bearing carrier and abutting an inner surface of the bore in the center housing, the undulating rings helping to thermally isolate the foils from heat transfer from the turbine and serving to radially locate the bearing carriers in the bore of the center housing.
Vessel sealing ring for vessels subjected to high pressure, said vessel sealing ring being formed by an annular body (1, 2), a polymer gasket and a sealing gasket, wherein the annular body (1, 2) is connectable with the interior surface of a high pressure lid and with the interior surface of a high pressure vessel, wherein said annular body (1, 2) comprises at least a first part and a second part which are concentric and coupled to one another by means of a mechanical stop, and wherein the first part of the annular body is an outer ring which is connectable with the vessel surface and with the lid surface, characterized in that the second part of the annular body is an inner ring which is connectable with the lid surface, wherein the first part and the second part of the annular body are made with materials having different properties for increasing the fatigue life and reducing the damage from erosion and scratching; the mechanical stop is bevel-shaped in such a manner that the high pressure exerted on the sealing ring produces stresses which expand the annular body (1, 2), such that gaps existing between said annular body (1, 2) and the vessel surface and lid surface are closed, preventing both the polymer gasket and the sealing gasket from extruding.
A lenticular airship comprising a system for controlling yaw, the system comprising: one or more vertical control surfaces, which preferably comprises a rudder, associated with the airship; a first power source and a second power source, each configured to provide an independently variable thrust associated with the airship; a yaw control e.g. a pedal actuator (240, 242), configured to receive an input indicative of a desired yaw angle, characterised in that a controller is communicatively connected to the yaw control, the one or more vertical control surfaces, and the first and second power sources (533, 534), that the first and second power sources (533, 534) are independently pivotable to vary the direction of the thrust produced by them, that the first power source is located at a position 120 degrees from the nose of the airship and the second power source is located at a position negative 120 degrees from the nose of the airship and that the controller is configured to receive an output signal from the yaw control corresponding to the desired yaw angle and to generate a control signal configured to modify a state associated with the one or more vertical control surfaces, the first power source and the second power source, such that the airship substantially attains the desired yaw angle.
Liquid container for a motor vehicle, - having a first half-shell and - having a second half-shell, - wherein the half-shells (4, 6) delimit a storage volume for accommodating liquid, - wherein the first half-shell has a first support layer and a first barrier layer (14, 62), - wherein the second half-shell has a second support layer and a second barrier layer (18, 64), - wherein the first barrier layer (14, 62) is situated on an inner side of the first support layer facing the storage volume, - wherein the second barrier layer (18, 64) is situated on an inner side of the second support layer facing the storage volume. - the half-shells (4, 6) in a connecting area are integrally joined together, the first support layer in the connecting area being integrally joined to the second support layer, characterized in that - the first barrier layer (14, 62) and the second barrier layer (18, 64) in the connecting area are spaced apart from one another, with no contact between the first barrier layer (14, 62) and the second barrier layer (18, 64) and - wherein solidified melt of a material of the first support layer and/or of a material of the second support layer is situated between the barrier layers (14, 18, 62, 64). - having a first half-shell and - having a second half-shell, - wherein the half-shells (4, 6) delimit a storage volume for accommodating liquid, - wherein the first half-shell has a first support layer and a first barrier layer (14, 62), - wherein the second half-shell has a second support layer and a second barrier layer (18, 64), - wherein the first barrier layer (14, 62) is situated on an inner side of the first support layer facing the storage volume, - wherein the second barrier layer (18, 64) is situated on an inner side of the second support layer facing the storage volume. - the half-shells (4, 6) in a connecting area are integrally joined together, the first support layer in the connecting area being integrally joined to the second support layer, - the first barrier layer (14, 62) and the second barrier layer (18, 64) in the connecting area are spaced apart from one another, with no contact between the first barrier layer (14, 62) and the second barrier layer (18, 64) and - wherein solidified melt of a material of the first support layer and/or of a material of the second support layer is situated between the barrier layers (14, 18, 62, 64).
An orthopedic impacting tool for striking an object, the tool comprising: a motor; an energy storage means; an electronic control means; an adapter, said adapter capable of holding a broach, chisel or other surgical implement; and a striker, said striker capable of selectively impacting at least two distinct impact surfaces (16, 27), wherein the striker impacting a first impact surface moves said adapter forward and the striker impacting a second impact surface moves said adapter rearward, wherein said electronic control means directs said motor to store an energy in said energy storage means and said energy storage means thereafter releases the energy, causing said striker to move from a first position to a second position such that said striker is capable of imparting a force upon said adapter in a direction that is dependent at least in part on which surface said striker impacts, wherein the force upon said adapter is a cyclic, controlled striking force. a motor; an energy storage means; an electronic control means; an adapter, said adapter capable of holding a broach, chisel or other surgical implement; and a striker, said striker capable of selectively impacting at least two distinct impact surfaces (16, 27), wherein the striker impacting a first impact surface moves said adapter forward and the striker impacting a second impact surface moves said adapter rearward, wherein said electronic control means directs said motor to store an energy in said energy storage means and said energy storage means thereafter releases the energy, causing said striker to move from a first position to a second position such that said striker is capable of imparting a force upon said adapter in a direction that is dependent at least in part on which surface said striker impacts,
An extinguishing branch for an electrical circuit, the extinguishing branch comprising: a snubber circuit including an energy storage limb, wherein the energy storage limb includes first and second energy storage limb portions separated by a first junction to define a first voltage divider, and each energy storage limb portion includes at least one energy storage device (48,50); and an arrester limb connected across the energy storage limb, wherein the arrester limb includes first and second arrester limb portions separated by a second junction to define a second voltage divider, and each arrester limb portion includes at least one arrester element (54,56), wherein the first and second junctions (46,52) are connected to define a voltage divider bridge, and the voltage divider bridge is electrically coupleable to the electrical circuit for providing, in use, a driving voltage to drive the electrical circuit, characterized in that a first voltage division ratio of the first voltage divider is equal to a ratio of an impedance of the first energy storage limb portion to a sum of impedances of the first and second energy storage limb portions, and a second voltage division ratio of the second voltage divider is equal to a ratio of an impedance of the first arrester limb portion to a sum of impedances of the first and second arrester limb portions, and wherein the first voltage division ratio is different in magnitude to the second voltage division ratio and/or wherein the impedance of the first energy storage limb portion is larger than the impedance of the second energy storage limb portion. a snubber circuit including an energy storage limb, wherein the energy storage limb includes first and second energy storage limb portions separated by a first junction to define a first voltage divider, and each energy storage limb portion includes at least one energy storage device (48,50); and an arrester limb connected across the energy storage limb, wherein the arrester limb includes first and second arrester limb portions separated by a second junction to define a second voltage divider, and each arrester limb portion includes at least one arrester element (54,56), wherein the first and second junctions (46,52) are connected to define a voltage divider bridge, and the voltage divider bridge is electrically coupleable to the electrical circuit for providing, in use, a driving voltage to drive the electrical circuit, characterized in that a first voltage division ratio of the first voltage divider is equal to a ratio of an impedance of the first energy storage limb portion to a sum of impedances of the first and second energy storage limb portions, and a second voltage division ratio of the second voltage divider is equal to a ratio of an impedance of the first arrester limb portion to a sum of impedances of the first and second arrester limb portions, and wherein the first voltage division ratio is different in magnitude to the second voltage division ratio and/or wherein the impedance of the first energy storage limb portion is larger than the impedance of the second energy storage limb portion.
A catheter assembly comprising: a catheter body extending from a catheter proximal portion to a catheter distal portion, the catheter body includes: an inner liner (612; 812; 1107; 1203), and an outer sleeve (610; 810; 1105; 1212); and a braid assembly (608; 814; 1100; 1200) within the catheter body and between the inner liner (612; 812; 1107; 1203) and the outer sleeve (610; 810; 1105; 1212), the braid assembly (608; 814; 1100; 1200) includes: a first filar array (1104; 1202) including a plurality of first filars helically extending around the catheter body in a first direction, and a braided brace (1102; 1210) including a second filar array interlaced with the first filar array, the second filar array having a second filar count of one or more second filars less than a first filar count of the first filars, wherein the braided brace (1102; 1210) extends around the catheter body in a second direction opposed to the first direction, characterized in that the second filars have a cross sectional width at least one order of magnitude greater than a cross sectional width of the first filars, and wherein the braided brace (1102; 1210) anchors and supports the first filar array (1104; 1202). a catheter body extending from a catheter proximal portion to a catheter distal portion, the catheter body includes: an inner liner (612; 812; 1107; 1203), and an outer sleeve (610; 810; 1105; 1212); and an inner liner (612; 812; 1107; 1203), and an outer sleeve (610; 810; 1105; 1212); and a braid assembly (608; 814; 1100; 1200) within the catheter body and between the inner liner (612; 812; 1107; 1203) and the outer sleeve (610; 810; 1105; 1212), the braid assembly (608; 814; 1100; 1200) includes: a first filar array (1104; 1202) including a plurality of first filars helically extending around the catheter body in a first direction, and a braided brace (1102; 1210) including a second filar array interlaced with the first filar array, the second filar array having a second filar count of one or more second filars less than a first filar count of the first filars, a first filar array (1104; 1202) including a plurality of first filars helically extending around the catheter body in a first direction, and a braided brace (1102; 1210) including a second filar array interlaced with the first filar array, the second filar array having a second filar count of one or more second filars less than a first filar count of the first filars, wherein the braided brace (1102; 1210) extends around the catheter body in a second direction opposed to the first direction, characterized in that the second filars have a cross sectional width at least one order of magnitude greater than a cross sectional width of the first filars, and wherein the braided brace (1102; 1210) anchors and supports the first filar array (1104; 1202).
A random access method in a cellular wireless communication system for random access of a relay, characterized in that the method comprises: a base station assigning a relay-dedicated random access preamble to the relay, wherein the relay-dedicated random access preamble indicates an access priority of the relay to be higher than that of an ordinary user equipment; and the base station receiving a random access preamble sent from the ordinary user equipment and the relay-dedicated random access preamble sent from the relay, and the base station performing, when determining the relay-dedicated random access preamble is received, a non-contention-based random access preferentially for the relay. a base station assigning a relay-dedicated random access preamble to the relay, wherein the relay-dedicated random access preamble indicates an access priority of the relay to be higher than that of an ordinary user equipment; and the base station receiving a random access preamble sent from the ordinary user equipment and the relay-dedicated random access preamble sent from the relay, and the base station performing, when determining the relay-dedicated random access preamble is received, a non-contention-based random access preferentially for the relay.
A method for performing a handover by a mobile subscriber station (310, 410, 510) in a mobile communication system, the method comprising: transmitting a handover request message to a serving base station (320, 420, 520); receiving a handover response message in response to the handover request message from the serving base station (320, 420, 520); and performing a network reentry process for a handover with a recommended neighbor base station according to an indication field included in the handover response message, wherein the handover response message includes an identifier of the recommended neighbor base station and the indication field indicating whether at least one of a subscriber station basic capability request, SBC-REQ, message (329, 425, 525), a subscriber station basic capability response, SBC-RSP, message (331, 427, 527), a registration request, REG-REQ, message (337, 433, 533), and a registration response, REG-RSP, message (339, 435, 535) is required or omitted during the network reentry process with the mobile subscriber station and the recommended neighbor base station. transmitting a handover request message to a serving base station (320, 420, 520); receiving a handover response message in response to the handover request message from the serving base station (320, 420, 520); and performing a network reentry process for a handover with a recommended neighbor base station according to an indication field included in the handover response message, wherein the handover response message includes an identifier of the recommended neighbor base station and the indication field indicating whether at least one of a subscriber station basic capability request, SBC-REQ, message (329, 425, 525), a subscriber station basic capability response, SBC-RSP, message (331, 427, 527), a registration request, REG-REQ, message (337, 433, 533), and a registration response, REG-RSP, message (339, 435, 535) is required or omitted during the network reentry process with the mobile subscriber station and the recommended neighbor base station.
A computer system, comprising: a processor; and memory coupled to the processor and comprising instructions that, when executed, cause the processor to perform a method used for planning radiation treatment comprising spot scanning of a target volume, the method comprising: accessing, from the memory, a first arrangement of a plurality of spots inside the target volume; accessing, from the memory, a respective dose distribution for each spot of the plurality of spots inside the target volume; determining for said each spot whether differences between the respective dose distribution for a spot and respective dose distributions for spots that are neighbors to the spot satisfy a criterion; identifying a first set of spots that do not satisfy the criterion; and increasing a number of spots inside regions of the target volume that include locations of the first set of spots to produce a second arrangement of a plurality of spots inside the target volume. a processor; and memory coupled to the processor and comprising instructions that, when executed, cause the processor to perform a method used for planning radiation treatment comprising spot scanning of a target volume, the method comprising: accessing, from the memory, a first arrangement of a plurality of spots inside the target volume; accessing, from the memory, a respective dose distribution for each spot of the plurality of spots inside the target volume; determining for said each spot whether differences between the respective dose distribution for a spot and respective dose distributions for spots that are neighbors to the spot satisfy a criterion; identifying a first set of spots that do not satisfy the criterion; and increasing a number of spots inside regions of the target volume that include locations of the first set of spots to produce a second arrangement of a plurality of spots inside the target volume. accessing, from the memory, a first arrangement of a plurality of spots inside the target volume; accessing, from the memory, a respective dose distribution for each spot of the plurality of spots inside the target volume; determining for said each spot whether differences between the respective dose distribution for a spot and respective dose distributions for spots that are neighbors to the spot satisfy a criterion; identifying a first set of spots that do not satisfy the criterion; and increasing a number of spots inside regions of the target volume that include locations of the first set of spots to produce a second arrangement of a plurality of spots inside the target volume.