mhurhangee/ep-ind-claims huggingface dataset:
Switchable drag lever of a valve train of an internal combustion engine, having an inner and an outer lever (2, 3), the drag lever having a rest for a gas exchange valve on an underside at one end and a complementary face for a supporting element at the other end, and one of the levers having a run-on face for a large-lift cam on an upper side and the other lever having a run-on face for a low-lift or zero-lift cam, it being possible for the levers (2, 3) to be connected to one another via coupling means, and the said levers (2, 3) running via bores (13, 14) on a common shaft such that they can be moved pivotably relative to one another, which shaft is protruded around by at least one group of turns of a swivel pin spring as cam restoring spring, a first limb which protrudes from an end side of the group of turns acting on a first clamping point of the outer lever and a second limb which protrudes from another end side of the group of turns acting on a second clamping point of the inner lever in the rotational direction in such a way that the levers (2, 3) are present in a state, in which they are braced towards one another, the shaft running in a "cantilever-mounted" manner with respect to the bores (13, 14), the group of turns enclosing at least one bush in a play-afflicted manner, axial fixing of the shaft being produced via the offset, segment-like rest of the group of turns on the bush which is brought about by the bracing of the system and therefore its offset rest via a segment-like part of its inner shell on the shaft, characterized in that, in order to reduce a resulting contact force (F R) in the region of the offset rest of the group of turns on the bush, the clamping points (20, 23) of the two limbs (19, 22) of the group of turns are positioned in such a way that an angle (α) which is enclosed by intersecting force vectors at the clamping points (20, 23) [direction of action of the two contact forces (F 1, F 2)] lies in the range (90° < α < 180°).
A method for evaluating a structure to be used for nuclide transmutation reaction, the structure including a base material containing at least one kind of metal selected from the group consisting of hydrogen storage metals and hydrogen storage alloys, an intermediate layer provided on the base material and stacked alternately with a first layer containing low work function substances relatively lower in work function than the metal and a second layer containing the metal, and a surface layer provided on the intermediate layer and containing the metal, wherein the method comprises: measuring a change in polarization between incident light and reflected light by irradiating the surface layer with light, while holding the structure at a predetermined temperature; calculating an extinction coefficient based on the change in polarization of the structure, characterised by preliminarily setting a threshold of the extinction coefficient based on a relationship between an extinction coefficient of a structure prepared in advance and a reaction yield obtained when the structure prepared in advance is subjected to the nuclide transmutation reaction; and comparing the calculated extinction coefficient with a threshold and evaluating a soundness of the structure based on the comparison results. measuring a change in polarization between incident light and reflected light by irradiating the surface layer with light, while holding the structure at a predetermined temperature; calculating an extinction coefficient based on the change in polarization of the structure, characterised by preliminarily setting a threshold of the extinction coefficient based on a relationship between an extinction coefficient of a structure prepared in advance and a reaction yield obtained when the structure prepared in advance is subjected to the nuclide transmutation reaction; and comparing the calculated extinction coefficient with a threshold and evaluating a soundness of the structure based on the comparison results.
A sliding module for a portable terminal having a first housing and a second housing, the sliding module being interposed between the first and second housings (201, 202), wherein the second housing is slidably assembled with the first housing by means of the sliding module, the sliding module comprising: a first sliding member assembled with the first housing for slidably moving the second housing to an upper side or a lower side of the first housing in a first direction; a second sliding member disposed on the second housing and assembled with the first sliding member for slidably moving the second housing to a left or right side of the first housing in a second direction; first stopper means (161a, 161b, 127) disposed between the first and second housings (201, 202) for restricting movement of the second housing in the second direction by the second sliding member when the second housing is moved to the upper or lower side of the first housing; and second stopper means (163, 165) disposed between the first and second housing (201, 202) for restricting movement of the second housing in the first direction by the first sliding member when the second housing is moved to the left or right side of the first housing. a first sliding member assembled with the first housing for slidably moving the second housing to an upper side or a lower side of the first housing in a first direction; a second sliding member disposed on the second housing and assembled with the first sliding member for slidably moving the second housing to a left or right side of the first housing in a second direction; first stopper means (161a, 161b, 127) disposed between the first and second housings (201, 202) for restricting movement of the second housing in the second direction by the second sliding member when the second housing is moved to the upper or lower side of the first housing; and second stopper means (163, 165) disposed between the first and second housing (201, 202) for restricting movement of the second housing in the first direction by the first sliding member when the second housing is moved to the left or right side of the first housing.
An arm lifting support device, comprising a torso support, at least one artificial tendon for vertical lifting, running at least from a pulling point provided at the torso support, over a shoulder of the user and connected to an arm attachment means for attachment of the at least one artificial tendon at an arm of a user when the arm lifting support device is in use, characterised in that the pulling point is provided in a level above the collar bones of the user in use and a redirecting means is provided vertically above the major ball and socket joint, which is the glenohumeral joint, of the user in use.
An automatic plant watering device comprising a reservoir for holding water, a support portion for supporting a container of earth above the reservoir in use and at least one projecting watering portion extending from the reservoir and for extending into a supported container of earth in use, the watering portion comprising a wicking material portion for conveying water under capillary action from the reservoir towards a supported container of earth in use, wherein the watering portion comprises a spike portion, which supports the wicking material portion, characterised by the spike portion having a blade portion at its distal end for cutting through a container wall with the blade portion having a plurality of perforating teeth for perforating a bag wall of a grow bag as a grow bag is lowered into position on the device.
A reticle handling system comprising: a storage housing (54.1, 70) defining an enclosed interior environment (54.2); a gas delivery system that can be fluidly coupled to a purge gas source; the storage housing (54.1, 70) comprising a plurality of reticle storage receptacles in the enclosed interior environment (54.2), each reticle storage receptacle configured for receiving a reticle pod (2, 66) wherein each reticle pod (2, 66) has a purge inlet (5.0) and a purge outlet (5.1), each reticle storage receptacle having a purge outlet connected to the gas delivery system for connecting with the purge inlet (5.0) of a reticle pod (2, 66) in place at said storage receptacle and a robotic gripping device (70.2) arranged to individually grip reticle pods (2, 66) for placement on and removal from the reticle storage receptacles, characterized in that said robotic gripping device (70.2) comprises an air flow sensor (71.2) for confirmation of the purge flow at the reticle storage receptacles. a storage housing (54.1, 70) defining an enclosed interior environment (54.2); a gas delivery system that can be fluidly coupled to a purge gas source; the storage housing (54.1, 70) comprising a plurality of reticle storage receptacles in the enclosed interior environment (54.2), each reticle storage receptacle configured for receiving a reticle pod (2, 66) wherein each reticle pod (2, 66) has a purge inlet (5.0) and a purge outlet (5.1), each reticle storage receptacle having a purge outlet connected to the gas delivery system for connecting with the purge inlet (5.0) of a reticle pod (2, 66) in place at said storage receptacle and a robotic gripping device (70.2) arranged to individually grip reticle pods (2, 66) for placement on and removal from the reticle storage receptacles, characterized in that said robotic gripping device (70.2) comprises an air flow sensor (71.2) for confirmation of the purge flow at the reticle storage receptacles.
A terminal comprising: a receiving section configured to receive a synchronization signal/physical broadcast channel block, SS/PBCH block, including information that indicates a configuration of a control resource set; and a control section configured to determine a position of the control resource set relative to the SS/PBCH block based on the information, wherein the control section is configured to apply different association information in a first frequency band and a second frequency band, the association information defining a start symbol position in a time domain of the control resource set using an SS/PBCH block index for at least a part of a plurality of start position candidates of the control resource set indicated by the information, and wherein the control section is configured to control a reception of a downlink control channel based on information about different start position candidates for the control resource set. a receiving section configured to receive a synchronization signal/physical broadcast channel block, SS/PBCH block, including information that indicates a configuration of a control resource set; and a control section configured to determine a position of the control resource set relative to the SS/PBCH block based on the information, wherein the control section is configured to apply different association information in a first frequency band and a second frequency band, the association information defining a start symbol position in a time domain of the control resource set using an SS/PBCH block index for at least a part of a plurality of start position candidates of the control resource set indicated by the information, and
A component with a fiber-reinforced composite area made of fiber-reinforced composite materials comprising one or more normal areas with one or more first fibers having a first mechanical strength and one or more reinforcement areas with one or more connection surfaces that are provided for connection to an appertaining force-transmission component in order to introduce a force into the component, and, for reinforcement purposes, the reinforcement areas comprise one or more second fibers that have a second mechanical strength that is higher than that of the first fibers, characterized in that the fiber-reinforced composite area has several fiber layers consisting of first and second fibers (F1, F2), whereby, in the same fiber layer, first fibers are wound at least in the normal area and second fibers are wound in the reinforcement area next to the first fibers.
Indexing plunger (10; 10a, 10b, 10c) comprising a sleeve part (12; 12a, 12b, 12c) and an indexing pin (14; 14a, 14b, 14c), it being possible, in an operating state of the indexing plunger (10; 10a, 10b, 10c), to move the indexing pin (14; 14a, 14b, 14c) relative to the sleeve part (12; 12a, 12b, 12c) along a longitudinal axis between a maximum extended position, which is defined by a first stop, and a maximum retracted position, which is defined by a second stop, and a first guide device being provided which allows the indexing pin (14; 14a, 14b, 14c) to be oriented with respect to the sleeve part (12; 12a, 12b, 12c) in at least two different rotational positions with respect to the longitudinal axis, the indexing pin (14; 14a, 14b, 14c) comprising, on the end region thereof that faces away from a grip of the indexing plunger (10; 10a, 10b, 10c), a tip that does not have continuous rotational symmetry or discrete rotational symmetry with respect to the longitudinal axis, and it being possible, in an adjustment state of the indexing plunger (10; 10a, 10b, 10c), to move the indexing pin (14; 14a, 14b, 14c) into any of the different rotational positions with respect to the sleeve part (12; 12a, 12b, 12c), characterized in that - in the operating state of the indexing plunger (10; 10a, 10b, 10c), the first guide device secures a set rotational position of the indexing pin (14; 14a, 14b, 14c) relative to the sleeve part (12; 12a, 12b, 12c) irrespective of the axial position between the maximum extended position and the maximum retracted position in which the indexing pin (14; 14a, 14b, 14c) is located. - in the operating state of the indexing plunger (10; 10a, 10b, 10c), the first guide device secures a set rotational position of the indexing pin (14; 14a, 14b, 14c) relative to the sleeve part (12; 12a, 12b, 12c) irrespective of the axial position between the maximum extended position and the maximum retracted position in which the indexing pin (14; 14a, 14b, 14c) is located.
Steer-by-wire steering system for a vehicle, comprising: a steering wheel unit, a wheel unit, and a communication link between the steering wheel unit and the wheel unit; wherein the steering wheel unit has a steering wheel angle sensor for capturing a steering wheel angle of a steering wheel of the vehicle, a steering wheel actuator for setting a steering wheel target torque on the steering wheel and a steering wheel controller for activating the steering wheel actuator, at least on the basis of the steering wheel target torque; and wherein the wheel unit has a steering sensor for capturing at least one actual steering value, at least one wheel actuator for setting a target steering value and a wheel controller for activating the wheel actuator, characterized in that the wheel controller is also designed to calculate a virtual torsion rod torque on the basis of the target steering value and the actual steering value and to activate the wheel actuator on the basis of the calculated virtual torsion rod torque and to transfer the calculated virtual torsion rod torque via the communication link to the steering wheel unit, wherein the steering wheel controller is also designed to calculate the steering wheel target torque on the basis of the transferred virtual torsion rod torque. a steering wheel unit, a wheel unit, and a communication link between the steering wheel unit and the wheel unit; wherein the steering wheel unit has a steering wheel angle sensor for capturing a steering wheel angle of a steering wheel of the vehicle, a steering wheel actuator for setting a steering wheel target torque on the steering wheel and a steering wheel controller for activating the steering wheel actuator, at least on the basis of the steering wheel target torque; and wherein the wheel unit has a steering sensor for capturing at least one actual steering value, at least one wheel actuator for setting a target steering value and a wheel controller for activating the wheel actuator, characterized in that the wheel controller is also designed to calculate a virtual torsion rod torque on the basis of the target steering value and the actual steering value and to activate the wheel actuator on the basis of the calculated virtual torsion rod torque and to transfer the calculated virtual torsion rod torque via the communication link to the steering wheel unit, wherein the steering wheel controller is also designed to calculate the steering wheel target torque on the basis of the transferred virtual torsion rod torque.
Use of a metallic connection line in a local control device in motor vehicle construction, the local control device comprising at least one electronic control unit in a housing, and the metallic connection line connecting the control unit in the housing electrically to electric components outside the housing, characterized in that the housing is arranged in an environment of oils with proportions of sulphur greater than about 1200 ppm, and copper alloys of copper with an alloy content of zinc (Zn) greater than 10% are used as the metallic connection line, and as a result, sulphur corrosion on the metallic connection line is avoided.
Method for producing D-allulose crystals comprising: • a step of providing a composition rich in D-allulose, • a nanofiltration step of said composition rich in D-allulose so as to provide a retentate and a permeate, said nanofiltration step being performed with a membrane having a cut-off threshold of less than 300 Da, preferably ranging from 150 to 250 Da; • a step of recovering the nanofiltration permeate; • a step of concentrating said permeate so as to provide a D-allulose stock solution; • a step of crystallising the stock solution so as to form D-allulose crystals and mother liquors. • a step of providing a composition rich in D-allulose, • a nanofiltration step of said composition rich in D-allulose so as to provide a retentate and a permeate, said nanofiltration step being performed with a membrane having a cut-off threshold of less than 300 Da, preferably ranging from 150 to 250 Da; • a step of recovering the nanofiltration permeate; • a step of concentrating said permeate so as to provide a D-allulose stock solution; • a step of crystallising the stock solution so as to form D-allulose crystals and mother liquors.
A method for manufacturing a part, the method comprising: feeding a void free core reinforced filament into an extrusion nozzle (200, 708), wherein the core reinforced filament comprises a multistranded reinforcing core and a matrix material surrounding the multistranded core; heating the core reinforced filament to a temperature greater than a melting temperature of the matrix material and less than a melting temperature of the multistranded core; extruding the core reinforced filament through a rounded outlet (208, 726) of the extrusion nozzle to form the part; and characterized by pulling the core reinforced filament out of the rounded nozzle when a dragging force applied to the core reinforced filament is greater than a force threshold of an associated feeding mechanism. feeding a void free core reinforced filament into an extrusion nozzle (200, 708), wherein the core reinforced filament comprises a multistranded reinforcing core and a matrix material surrounding the multistranded core; heating the core reinforced filament to a temperature greater than a melting temperature of the matrix material and less than a melting temperature of the multistranded core; extruding the core reinforced filament through a rounded outlet (208, 726) of the extrusion nozzle to form the part; and characterized by pulling the core reinforced filament out of the rounded nozzle when a dragging force applied to the core reinforced filament is greater than a force threshold of an associated feeding mechanism.
A global positioning system, GPS, registration tool, GRT, unit, the GRT unit comprising: a streetlight controller, SLC, connector module that is configured to couple the GRT unit to a SLC; and a light fixture connector module that is configured to couple the GRT unit to a light fixture, wherein the GRT unit is configured to register GPS coordinates of the SLC during installation of the SLC at the light fixture and store the GPS coordinates of the SLC in the SLC before the GRT unit is removed and the SLC is plugged into the light fixture. a streetlight controller, SLC, connector module that is configured to couple the GRT unit to a SLC; and a light fixture connector module that is configured to couple the GRT unit to a light fixture, wherein the GRT unit is configured to register GPS coordinates of the SLC during installation of the SLC at the light fixture and store the GPS coordinates of the SLC in the SLC before the GRT unit is removed and the SLC is plugged into the light fixture.
A system comprising: a needle, wherein the needle is configured to penetrate skin; an injector, wherein the injector is configured to drive the needle into the skin to form a puncture in the skin and subsequently to retract the needle from the skin; a suction source comprising an evacuated volume; and a seal, wherein the seal is configured to receive suction provided by the suction source, wherein the injector is configured to drive the needle through the seal to form at least one hole in the seal, and characterised in that: the suction provided by the suction source is independent of operation of the injector and is configured to draw blood from the formed puncture in the skin through the formed at least one hole in the seal. a needle, wherein the needle is configured to penetrate skin; an injector, wherein the injector is configured to drive the needle into the skin to form a puncture in the skin and subsequently to retract the needle from the skin; a suction source comprising an evacuated volume; and a seal, wherein the seal is configured to receive suction provided by the suction source, wherein the injector is configured to drive the needle through the seal to form at least one hole in the seal, and characterised in that: the suction provided by the suction source is independent of operation of the injector and is configured to draw blood from the formed puncture in the skin through the formed at least one hole in the seal.
A method, comprising: receiving a first uplink transmission from a first wireless station, by an access point, hereinafter AP, in a wideband wireless communication network, wherein the first uplink transmission indicates handing over a reserved transmit opportunity, hereinafter TXOP, ownership of at least a primary channel; transmitting multiple trigger frames to a plurality of wireless stations (STA2, STA3, STA4) over multiple subbands of the wideband; and initiating an uplink aggregation over the multiple subbands for the plurality of wireless stations (STA2, STA3, STA4) sharing the same TXOP, wherein each trigger frame serves as synchronizing the uplink aggregation transmission timing and packet transmit time, and as allocating uplink aggregation resources to the plurality of wireless stations (STA2, STA3, STA4). receiving a first uplink transmission from a first wireless station, by an access point, hereinafter AP, in a wideband wireless communication network, wherein the first uplink transmission indicates handing over a reserved transmit opportunity, hereinafter TXOP, ownership of at least a primary channel; transmitting multiple trigger frames to a plurality of wireless stations (STA2, STA3, STA4) over multiple subbands of the wideband; and initiating an uplink aggregation over the multiple subbands for the plurality of wireless stations (STA2, STA3, STA4) sharing the same TXOP, wherein each trigger frame serves as synchronizing the uplink aggregation transmission timing and packet transmit time, and as allocating uplink aggregation resources to the plurality of wireless stations (STA2, STA3, STA4).