mhurhangee/ep-ind-claims huggingface dataset:
A stent-graft delivery system comprising: an elongate shaft; a tip capture spindle disposed over the shaft, proximate to a distal end of the shaft, wherein a proximal portion of the tip capture spindle includes a plurality of retainer elements configured to engage a stent of a stent-graft prosthesis and a distal portion of the tip capture spindle includes a continuous helical groove on an outer surface thereof; a distal tip assembly coupled to the distal end of the shaft, wherein a portion of the distal tip assembly proximally extends over the outer surface of the distal portion of the tip capture spindle; a sleeve having a proximal end extending over the retainer elements of the tip capture spindle and a distal end extending over the proximally-extending portion of the distal tip assembly, wherein an inner surface of the sleeve includes a continuous helical groove that align with the continuous helical groove on the outer surface of the tip capture spindle to create a continuous helical passageway; a spherical ball extending through an opening formed within the proximally-extending portion of the distal tip assembly, wherein a first half of the ball is housed within the helical groove of the sleeve and a second half of the ball is housed within the helical groove of the tip capture spindle; wherein rotation of the elongate shaft rotates the distal tip assembly, thereby spinning the ball within the continuous helical passageway and resulting in longitudinal movement of the tip capture spindle and the sleeve. an elongate shaft; a tip capture spindle disposed over the shaft, proximate to a distal end of the shaft, wherein a proximal portion of the tip capture spindle includes a plurality of retainer elements configured to engage a stent of a stent-graft prosthesis and a distal portion of the tip capture spindle includes a continuous helical groove on an outer surface thereof; a distal tip assembly coupled to the distal end of the shaft, wherein a portion of the distal tip assembly proximally extends over the outer surface of the distal portion of the tip capture spindle; a sleeve having a proximal end extending over the retainer elements of the tip capture spindle and a distal end extending over the proximally-extending portion of the distal tip assembly, wherein an inner surface of the sleeve includes a continuous helical groove that align with the continuous helical groove on the outer surface of the tip capture spindle to create a continuous helical passageway; a spherical ball extending through an opening formed within the proximally-extending portion of the distal tip assembly, wherein a first half of the ball is housed within the helical groove of the sleeve and a second half of the ball is housed within the helical groove of the tip capture spindle; wherein rotation of the elongate shaft rotates the distal tip assembly, thereby spinning the ball within the continuous helical passageway and resulting in longitudinal movement of the tip capture spindle and the sleeve.
A method in a first network node for monitoring inactive mode coverage for a user equipment in a wireless communication network, wherein a plurality of network nodes (111, 112) operate in the wireless communication network, the first network node is a serving network node for the user equipment and the user equipment has an active mode connection to the first network node, the method comprising: receiving an inactive mode coverage monitoring report comprising a synchronization signals, SSs, monitoring report or a system information, SI, signal monitoring report; analyzing the inactive mode coverage monitoring report; and determining whether the user equipment has inactive mode coverage based on the outcome of analysing the inactive mode coverage monitoring report; when it is determined from the monitoring report analysis that the user equipment does not have inactive mode coverage, the method further comprising any one of: sending an indication to the user equipment for informing the user equipment of no inactive mode coverage; or releasing the connection to the user equipment; or indicating to the user equipment that the connection will be released after a timer has expired. receiving an inactive mode coverage monitoring report comprising a synchronization signals, SSs, monitoring report or a system information, SI, signal monitoring report; analyzing the inactive mode coverage monitoring report; and determining whether the user equipment has inactive mode coverage based on the outcome of analysing the inactive mode coverage monitoring report; when it is determined from the monitoring report analysis that the user equipment does not have inactive mode coverage, the method further comprising any one of: sending an indication to the user equipment for informing the user equipment of no inactive mode coverage; or releasing the connection to the user equipment; or indicating to the user equipment that the connection will be released after a timer has expired. sending an indication to the user equipment for informing the user equipment of no inactive mode coverage; or releasing the connection to the user equipment; or indicating to the user equipment that the connection will be released after a timer has expired.
A process for the production of methanol from a hydrocarbon feed, the process comprising the steps of: (a) providing a hydrocarbon feed; (b) subjecting the hydrocarbon feed to Catalytic Partial Oxidation so as to obtain a synthesis gas mixture; (c) subjecting the synthesis gas mixture to methanol-forming conditions together with an additional feed of hydrogen, so as to obtain methanol; wherein the hydrocarbon feed is a CO 2 -containing hydrocarbon feed and wherein the Catalytic Partial Oxidation is conducted in the presence of a molar excess of H 2 O, and wherein the additional hydrogen feed is obtained by recovering blowdown gas obtained from the reactor in which the methanol formation takes place and subjecting the recovered gas to pressure swing absorption so as to extract hydrogen therefrom, and wherein gas remaining after hydrogen extraction is recycled as a feed to the Catalytic Partial Oxidation. (a) providing a hydrocarbon feed; (b) subjecting the hydrocarbon feed to Catalytic Partial Oxidation so as to obtain a synthesis gas mixture; (c) subjecting the synthesis gas mixture to methanol-forming conditions together with an additional feed of hydrogen, so as to obtain methanol;
Toilet seat comprising a device for detecting values, in particular health-related values of a user, wherein said device for detecting values comprises a multispectral camera (2, 2a, 2b) for collecting multispectral data and the multispectral camera is arranged in the toilet seat behind a window (3, 3a, 3b), wherein the window lets at least 80% of the light pass through in the spectral ranges in which the molecules to be detected have typical spectra, wherein a light source is arranged behind a different window, and said multispectral camera (2, 2b) is oriented or can be oriented to collect multispectral data of the excretions and to collect multispectral data of the body of the user, and said device for detecting values comprises a sensor for detecting the skin color of a user and/or a skin surface detector and/or a laser spectrometer.
Method for automated parking of a vehicle, the vehicle comprising a plurality of proximity sensors configured to detect the proximity of an object in the vicinity of the vehicle, the method comprising, in the vehicle: receiving a command to perform a parking maneuver; determining an expected parking area for the vehicle, the expected parking area being the area where the vehicle is expected to end up once the parking maneuver is completed; determining a movement direction of the vehicle for reaching the expected parking area, based on the expected parking area; determining a maneuver zone in the vicinity of the vehicle in the direction of the expected parking area; determining that only one object is located in the maneuver zone; determining that the object located in the maneuver zone is an authorized user of the vehicle; verifying that the authorized user moves out of the maneuver zone, thereby establishing that the maneuver zone is clear; and performing the parking maneuver. receiving a command to perform a parking maneuver; determining an expected parking area for the vehicle, the expected parking area being the area where the vehicle is expected to end up once the parking maneuver is completed; determining a movement direction of the vehicle for reaching the expected parking area, based on the expected parking area; determining a maneuver zone in the vicinity of the vehicle in the direction of the expected parking area; determining that only one object is located in the maneuver zone; determining that the object located in the maneuver zone is an authorized user of the vehicle; verifying that the authorized user moves out of the maneuver zone, thereby establishing that the maneuver zone is clear; and performing the parking maneuver.
A portable conveyor belt splicing apparatus for joining conveyor belt ends (20, 22) together, the portable conveyor belt splicing apparatus comprising: upper and lower press assemblies (12, 14); upper and lower platen assemblies (16, 18) of the upper and lower press assemblies (12, 14); a heater (42, 44) of one of the upper and lower platen assemblies (16, 18) of one of the upper and lower press assemblies (12, 14); and an insulating assembly (56, 58) of the one press assembly (12, 14) including a plurality of resilient members of metallic material supporting the one platen assembly (16, 18), wherein the plurality of resilient members each include a plurality of curved portions that are spaced from each other and form spaced contacts with the one platen assembly (16, 18). upper and lower press assemblies (12, 14); upper and lower platen assemblies (16, 18) of the upper and lower press assemblies (12, 14); a heater (42, 44) of one of the upper and lower platen assemblies (16, 18) of one of the upper and lower press assemblies (12, 14); and an insulating assembly (56, 58) of the one press assembly (12, 14) including a plurality of resilient members of metallic material supporting the one platen assembly (16, 18), wherein the plurality of resilient members each include a plurality of curved portions that are spaced from each other and form spaced contacts with the one platen assembly (16, 18).
A method for configuring an emulation method for emulating a second camera objective, comprising the steps: - determining a plurality of first images which are recorded using a first camera objective; - determining a plurality of second images which are recorded using the second camera objective and whose image content corresponds to the image content of the plurality of first images; and - configuring the emulation method for emulating the second camera objective on the basis of the plurality of first images and the plurality of second images, wherein the first images are provided as input to the emulation method and outputs of the emulation method in the form of emulated images are assessed by means of the second images. - determining a plurality of first images which are recorded using a first camera objective; - determining a plurality of second images which are recorded using the second camera objective and whose image content corresponds to the image content of the plurality of first images; and - configuring the emulation method for emulating the second camera objective on the basis of the plurality of first images and the plurality of second images,
A method for depositing an intended dose distribution in a cyclically moved target region, not located in a human or animal, by multiple irradiations with a beam that approaches grid points of a target grid in a number of at least two passes, wherein grid points are approached sequentially in each of the passes; characterized by the steps of: de-synchronizing the irradiation process and the cyclical movement of the target region by altering at least one of the following control parameters: - scanning velocity of the beam; - time distribution of the passes, wherein the passes are randomized or pause durations between individual passes are varied; - time distribution of the irradiation of layers; - time distribution of the irradiation of particular volumes during the individual passes; - cycle duration of the cyclical movement, wherein the duration of the cycle is altered randomly; - path of the beam in the target region; and partitioning the irradiation of the target region into up to 30 passes so that localized incorrect dosages are kept small. de-synchronizing the irradiation process and the cyclical movement of the target region by altering at least one of the following control parameters: - scanning velocity of the beam; - time distribution of the passes, wherein the passes are randomized or pause durations between individual passes are varied; - time distribution of the irradiation of layers; - time distribution of the irradiation of particular volumes during the individual passes; - cycle duration of the cyclical movement, wherein the duration of the cycle is altered randomly; - path of the beam in the target region; and - scanning velocity of the beam; - time distribution of the passes, wherein the passes are randomized or pause durations between individual passes are varied; - time distribution of the irradiation of layers; - time distribution of the irradiation of particular volumes during the individual passes; - cycle duration of the cyclical movement, wherein the duration of the cycle is altered randomly; - path of the beam in the target region; and partitioning the irradiation of the target region into up to 30 passes so that localized incorrect dosages are kept small.
A floor cleaner comprising: a vacuum source; a supply tank configured to store a cleaning fluid; a base movable over a surface to be cleaned, the base having a suction inlet in fluid communication with the vacuum source, the base further including a distribution nozzle in fluid communication with the supply tank, the distribution nozzle configured to dispense the cleaning fluid onto a surface to be cleaned; a body pivotally coupled to the base, the body pivotable between an upright storage position and an inclined operating position, the body including a recovery tank recess; a recovery tank including a latch that removably couples the recovery tank to the body in the recovery tank recess, the recovery tank in fluid communication with the vacuum source and the suction inlet, the recovery tank configured to store the cleaning fluid and/or debris drawn through the suction inlet from the surface by the vacuum source, characterised in that the floor cleaner further comprises a projection; and a recess that receives the projection when the recovery tank is coupled to the body to limit movement of the body relative to the recovery tank. a vacuum source; a supply tank configured to store a cleaning fluid; a base movable over a surface to be cleaned, the base having a suction inlet in fluid communication with the vacuum source, the base further including a distribution nozzle in fluid communication with the supply tank, the distribution nozzle configured to dispense the cleaning fluid onto a surface to be cleaned; a body pivotally coupled to the base, the body pivotable between an upright storage position and an inclined operating position, the body including a recovery tank recess; a recovery tank including a latch that removably couples the recovery tank to the body in the recovery tank recess, the recovery tank in fluid communication with the vacuum source and the suction inlet, the recovery tank configured to store the cleaning fluid and/or debris drawn through the suction inlet from the surface by the vacuum source, characterised in that the floor cleaner further comprises a projection; and a recess that receives the projection when the recovery tank is coupled to the body to limit movement of the body relative to the recovery tank.
A method performed by a user equipment, UE, of providing information to a first base station (TRP A) relating to directional beam signals received by the user equipment from one or more other base stations (TRP B) and optionally the first base station, the method comprising: receiving with signals (DL Signal B n) transmitted from a base station via a directional beam an identifier, the identifier having a property of distinguishing the directional beam from other directional beams; and transmitting to the first base station a report including information about the received identifier of the directional beam, wherein the received identifier is obtained by decoding a beam identifier which was encoded in the signals transmitted by the base station at a physical layer, the physical layer being the lowest layer for communication between the base station and the user equipment according to a multi-layer model known as the open systems interconnection, OSI, model, characterized in that the received identifier is obtained by decoding the beam identifier which was encoded within synchronization signals transmitted by the base station by phase shift keying all the symbols of a synchronization signal instance within a slot by a single phase shift value. receiving with signals (DL Signal B n) transmitted from a base station via a directional beam an identifier, the identifier having a property of distinguishing the directional beam from other directional beams; and transmitting to the first base station a report including information about the received identifier of the directional beam,
Sensor arrangement for underwater detection of a leak in fluid carrying body, the sensor arrangement comprising a sensor support structure which is mountable to a carrier for enabling the sensor support structure to be suitably positioned or moved relative to the fluid carrying body, characterized in that, a plurality of thermal sensors is distributed on the sensor support structure forming a sensor array, wherein the sensors are provided by one or more optical fibers connectable to an interrogator via one or more optical signal connectors, wherein each fiber comprises a plurality of intrinsic fiber optic sensors at respective locations within the fiber, the intrinsic fiber optic sensors forming the thermal sensors, wherein the one or more fibers are arranged on the support structure such that the plurality of intrinsic fiber optic sensors is distributed across the support structure such as to span a detection area.
A saw comprising: a base; a table rotatably mounted about a vertical axis within the base; a bevel mount pivotally mounted about a horizontal axis on the edge of the table; a motor unit pivotally mounted on the bevel mount to allow the motor unit to pivot from a first raised position towards the table to a second lowered position; a saw blade rotatably mounted on and capable of being rotationally driven by the motor unit; and a guard assembly capable of surrounding at least part of the cutting edge of the cutting blade; wherein the guard assembly comprises a fixed guard and a rear guard assembly (68, 70) mounted below the fixed guard and which surrounds part of the cutting edge of the lower rear portion of the cutting blade; wherein the rear guard assembly (68, 70) is mounted on the bevel mount; wherein there is further provided a fence which is mounted on the base and which traverses the table, characterised in that the rear guard assembly surrounds the whole of the cutting edge of the lower rear portion of the cutting blade located rearwardly of the fence and below the fixed guard; wherein the rear guard assembly comprises a pivotal guard pivotable relative to the bevel mount and which surrounds part of the cutting edge of the lower rear portion of the cutting blade. a base; a table rotatably mounted about a vertical axis within the base; a bevel mount pivotally mounted about a horizontal axis on the edge of the table; a motor unit pivotally mounted on the bevel mount to allow the motor unit to pivot from a first raised position towards the table to a second lowered position; a saw blade rotatably mounted on and capable of being rotationally driven by the motor unit; and a guard assembly capable of surrounding at least part of the cutting edge of the cutting blade; wherein the guard assembly comprises a fixed guard and a rear guard assembly (68, 70) mounted below the fixed guard and which surrounds part of the cutting edge of the lower rear portion of the cutting blade; wherein the rear guard assembly (68, 70) is mounted on the bevel mount; wherein there is further provided a fence which is mounted on the base and which traverses the table, characterised in that the rear guard assembly surrounds the whole of the cutting edge of the lower rear portion of the cutting blade located rearwardly of the fence and below the fixed guard; wherein the rear guard assembly comprises a pivotal guard pivotable relative to the bevel mount and which surrounds part of the cutting edge of the lower rear portion of the cutting blade.
A medical article comprising: a machine direction and a cross-machine direction; a support layer; a viscoelastic layer coupled to the support layer, wherein the viscoelastic layer is discontinuous in at least one of the MD and the CMD, wherein the viscoelastic layer recovers, in at least one of the MD and the CMD, at least 70 % of its deformation after 48 hours at room temperature after being strained to 50% elongation, such that the medical article has, at room temperature, in at least one of the MD and the CMD, a first tensile stiffness T 1 at a first strain rate S 1 applied in the at least one of the MD and the CMD and a second tensile stiffness T 2 at a second strain rate S 2 applied in the at least one of the MD and the CMD, wherein the ratio of S 1 /S 2 is at least 100, and wherein the ratio of T 1 /T 2 is at least 1.5. a machine direction and a cross-machine direction; a support layer; a viscoelastic layer coupled to the support layer, wherein the viscoelastic layer is discontinuous in at least one of the MD and the CMD, wherein the viscoelastic layer recovers, in at least one of the MD and the CMD, at least 70 % of its deformation after 48 hours at room temperature after being strained to 50% elongation, such that the medical article has, at room temperature, in at least one of the MD and the CMD, a first tensile stiffness T 1 at a first strain rate S 1 applied in the at least one of the MD and the CMD and a second tensile stiffness T 2 at a second strain rate S 2 applied in the at least one of the MD and the CMD, wherein the ratio of S 1 /S 2 is at least 100, and wherein the ratio of T 1 /T 2 is at least 1.5.
Process for stabilizing compounds containing ester groups against hydro lytic degradation, characterized in that biobased carbodiimides obtainable from the reaction of at least one carbodiimide of formula where x = 1 to 50, preferably 2 - 20, and/or of formula where y = 1 to 20, preferably 2 - 8, and/or a carbodiimide based on isophorone diisocyanate and/or dicyclohexylmethane 4,4'-diisocyanate (H12- MDI (hydrogenated MDI), with at least one carbon-acid compound isolated or produced from renewable raw materials and having a functionality >1 and more than 4 carbon atoms selected from the group tall oil, rapeseed oil or soy oil, at temperatures between 20 and 200°C in solution and/or in the absence of a solvent in the presence or absence of a catalyst, are used.
A turbomachine comprising at least two unducted propellers (10, 11) including one upstream propeller and one downstream propeller, the upstream propeller comprising a plurality of blades (2a, 2b, 2c) at least one first blade of which has a tip radius different from at least one second blade (2b, 2c).