mhurhangee/ep-ind-claims huggingface dataset:
A stator of an electric rotating machine, comprising a stator core including a plurality of slots, a stator winding including a neutral line (300a, 300b) and an output line (108U1 - 108W2), wherein the neutral line (300a, 300b) has a crawling portion that extends in a circumferential direction at an upper portion of a coil at a coil end and the neutral line (300a, 300b) has an acute-angle axially folded bent portion that turns by more than 90 degrees in the lead-out direction of the neutral line, the neutral line being led out from one axial end of the slot, and the crawling portion has an axially-bent stepped portion provided in the vicinity of the acute-angle axially folded bent portion; wherein the output line (108U1 - 108W2) passes under the neutral line (300a - 300b) in the axial direction to slip under the neutral line (300a-300b) through a space generated under and between the acute-angle axially folded bent portion and the axially-bent stepped portion thus providing a sandwiching structure of the neutral line sandwiching the output line to restrict the movement of the output line during assembly, whereby the output line (108U1 - 108W2) is tacked without being fixed with thread or the like. a stator core including a plurality of slots, a stator winding including a neutral line (300a, 300b) and an output line (108U1 - 108W2), wherein the neutral line (300a, 300b) has a crawling portion that extends in a circumferential direction at an upper portion of a coil at a coil end and the neutral line (300a, 300b) has an acute-angle axially folded bent portion that turns by more than 90 degrees in the lead-out direction of the neutral line, the neutral line being led out from one axial end of the slot, and the crawling portion has an axially-bent stepped portion provided in the vicinity of the acute-angle axially folded bent portion; wherein the output line (108U1 - 108W2) passes under the neutral line (300a - 300b) in the axial direction to slip under the neutral line (300a-300b) through a space generated under and between the acute-angle axially folded bent portion and the axially-bent stepped portion thus providing a sandwiching structure of the neutral line sandwiching the output line to restrict the movement of the output line during assembly, whereby the output line (108U1 - 108W2) is tacked without being fixed with thread or the like.
Screw (21;22) adapted for use in a twin-screw assembly with intermeshing screws of an elastomer mixture extruder, comprising a threaded part with a thread which defines at least three different sectors (30,40, 50) of the screw along a longitudinal direction (X-X) of axial extension from upstream to downstream, wherein the at least three sectors comprise: - an intake sector, which is adapted to capture the mixture and to push it downstream along the longitudinal direction (X-X) and which has a cross-section of the throughflow channel comprised between adjacent flanks of the thread which is constant over at least two pitches or a rotation through 720 degrees of the thread; - a transition sector, downstream of the intake sector, which has a cross-section of the throughflow channel which is variable and smaller than the cross-section of the throughflow channel of the intake sector and is designed to cause an increase in the thrusting pressure acting on the mixture in transit in the longitudinal direction (X-X); - a high-pressure sector, downstream of the transition sector, which has a cross-section of the throughflow channel which is minimal, constant over at least one pitch and designed to cause the compression of the mixture so as to obtain a maximum pressure of the mixture; characterized in that the thread of said threaded part is a single-start thread and in that the geometry of the screw in the high-pressure sector has a crest width W = (0.3-0.4)D, constant over one or two pitches, where D is the external diameter of the screw. - an intake sector, which is adapted to capture the mixture and to push it downstream along the longitudinal direction (X-X) and which has a cross-section of the throughflow channel comprised between adjacent flanks of the thread which is constant over at least two pitches or a rotation through 720 degrees of the thread; - a transition sector, downstream of the intake sector, which has a cross-section of the throughflow channel which is variable and smaller than the cross-section of the throughflow channel of the intake sector and is designed to cause an increase in the thrusting pressure acting on the mixture in transit in the longitudinal direction (X-X); - a high-pressure sector, downstream of the transition sector, which has a cross-section of the throughflow channel which is minimal, constant over at least one pitch and designed to cause the compression of the mixture so as to obtain a maximum pressure of the mixture;
A fusion protein characterized in that the fusion protein is capable of binding both CD137 and glypican-3, and that the fusion protein comprises at least two subunits in any order, wherein the first subunit comprises a lipocalin mutein specific for CD137 that has at least 85% sequence identity to a sequence selected from the group consisting of SEQ ID NOs: 18-33 and the second subunit comprises a full-length immunoglobulin, an antigen-binding domain thereof, or a lipocalin mutein specific for GPC3. that the fusion protein is capable of binding both CD137 and glypican-3, and that the fusion protein comprises at least two subunits in any order, wherein the first subunit comprises a lipocalin mutein specific for CD137 that has at least 85% sequence identity to a sequence selected from the group consisting of SEQ ID NOs: 18-33 and the second subunit comprises a full-length immunoglobulin, an antigen-binding domain thereof, or a lipocalin mutein specific for GPC3.
A composition for producing a sheet material with a closed cell cellular structure, the composition including the following components: (a) 5 to 25 weight% of PVC; (b) 50 to 75 weight% of a filler material; (c) 10 to 40 weight% of a plasticiser; and (d) 0.05 to 2.0 weight% of a cellular structure promoting agent, and wherein the cellular structure promoting agent includes one or more surfactants selected from an alkylbenzenesulfonate, an aliphatic amine oxide or an amine oxide. (a) 5 to 25 weight% of PVC; (b) 50 to 75 weight% of a filler material; (c) 10 to 40 weight% of a plasticiser; and (d) 0.05 to 2.0 weight% of a cellular structure promoting agent,
Composition comprising particles of at least one polymer that is surface-stabilized with a stabilizer, the polymer of the particles being a C 1 -C 4 alkyl (meth)acrylate polymer; the stabilizer being an isobornyl (meth)acrylate polymer chosen from isobornyl (meth)acrylate homopolymer and statistical copolymers of isobornyl (meth)acrylate and of C 1 -C 4 alkyl (meth)acrylate present in an isobornyl (meth)acrylate/C 1 -C 4 alkyl (meth)acrylate weight ratio of greater than 4, at least one hydrocarbon-based oil and at least one amorphous hydrocarbon-based block copolymer obtained by polymerization of at least one monomer of unsaturated hydrocarbon type comprising 2 to 5 carbon atoms and containing one or two ethylenic unsaturations.
A method of determining the dryness of a multiphase fluid flow, such as a steam flow, in a fluid line, the method comprising: obtaining a vibration signal from the fluid flow using a vibration sensor comprising a target disposed in the fluid flow which vibrates in response to fluid flow in the fluid line; analysing the vibration signal to determine a first energy parameter which is related to the energy of the vibration signal within a first frequency band, and a second energy parameter which is related to the energy of the vibration signal within a second frequency band; and determining a dryness parameter relating to the dryness of the multiphase fluid flow using the first and second energy parameters (E1, E2). obtaining a vibration signal from the fluid flow using a vibration sensor comprising a target disposed in the fluid flow which vibrates in response to fluid flow in the fluid line; analysing the vibration signal to determine a first energy parameter which is related to the energy of the vibration signal within a first frequency band, and a second energy parameter which is related to the energy of the vibration signal within a second frequency band; and determining a dryness parameter relating to the dryness of the multiphase fluid flow using the first and second energy parameters (E1, E2).
A kitchen appliance, in particular for cooking, comprising: - a vat of which one wall comprises a drain port equipped with a drain plug comprising a valve that is movable between a closing position and an opening position of said drain port, - means of fluid connection to a water supply, characterized in that said drain plug is connected to said connecting means and is configured such that its valve is moved between said closing position and said opening position, or inversely, when the plug is supplied with water by said connecting means, and in that the kitchen appliance further comprises means of controlling the supply of water to the plug. - a vat of which one wall comprises a drain port equipped with a drain plug comprising a valve that is movable between a closing position and an opening position of said drain port, - means of fluid connection to a water supply,
A method of transmitting an uplink data in a wireless communication system, the method comprising: receiving, by a user equipment, UE, a RRC message to allocate persistent resources for an uplink data transmission; monitoring (S220, S240, S270), by the UE, a control channel in order to find an uplink scheduling grant; if the uplink scheduling grant is found on the control channel, transmitting, by the UE, the uplink data based on the uplink scheduling grant; and if the uplink scheduling grant is not found on the control channel, transmitting (S230, S280), by the UE, the uplink data based on the persistent resources. receiving, by a user equipment, UE, a RRC message to allocate persistent resources for an uplink data transmission; monitoring (S220, S240, S270), by the UE, a control channel in order to find an uplink scheduling grant; if the uplink scheduling grant is found on the control channel, transmitting, by the UE, the uplink data based on the uplink scheduling grant; and if the uplink scheduling grant is not found on the control channel, transmitting (S230, S280), by the UE, the uplink data based on the persistent resources.
A carriage for a stairlift, configured to slide along a support guide of the type comprising a head portion, a base portion and a central portion comprised between the head portion and the base portion and configured for fixing to a lateral support element, wherein said carriage comprises: - a concave shaped frame defining a seat for housing at least a part of said guide; - at least one upper roller, mounted on an upper portion of said frame to be rotatably engageable resting on an upper surface of the head portion of said guide; - a rolling member, mounted on a lower portion of said frame to be rotatably engageable with a lower surface of said base portion of the guide; - first and second lower rollers (104a, 104b), mounted on said frame in proximity to said rolling member so that said first and second lower rollers (104a, 104b) are engaged or can be engaged in rolling movement respectively on a first lateral surface of said base portion and a second lateral surface of said base portion, opposite the first; characterized in that the carriage comprises two first lower rollers and two second lower rollers, the first lower rollers being located at a distance from each other less than the distance between the second lower rollers and the lower rollers being positioned in plan view at respective vertices of an isosceles trapezium. - a concave shaped frame defining a seat for housing at least a part of said guide; - at least one upper roller, mounted on an upper portion of said frame to be rotatably engageable resting on an upper surface of the head portion of said guide; - a rolling member, mounted on a lower portion of said frame to be rotatably engageable with a lower surface of said base portion of the guide; - first and second lower rollers (104a, 104b), mounted on said frame in proximity to said rolling member so that said first and second lower rollers (104a, 104b) are engaged or can be engaged in rolling movement respectively on a first lateral surface of said base portion and a second lateral surface of said base portion, opposite the first; characterized in that the carriage comprises two first lower rollers and two second lower rollers, the first lower rollers being located at a distance from each other less than the distance between the second lower rollers and the lower rollers being positioned in plan view at respective vertices of an isosceles trapezium.
A driver's cab for a utility vehicle, preferably a lorry, having: a driver's cab load-bearing structure which forms a driver's cab shell and is configured as a space frame; and a front-side underride guard which is integrated as a crossmember construction of the space frame into the driver's cab load-bearing structure, characterized by at least one towing apparatus which is configured as a threaded hole for a towing eye, the at least one towing apparatus being integrated into the front-side underride guard. a driver's cab load-bearing structure which forms a driver's cab shell and is configured as a space frame; and a front-side underride guard which is integrated as a crossmember construction of the space frame into the driver's cab load-bearing structure, characterized by at least one towing apparatus which is configured as a threaded hole for a towing eye, the at least one towing apparatus being integrated into the front-side underride guard.
A method for controlling an air ratio of a burner, in particular a gas or oil burner, comprising an ignition electrode, means for generating an ignition voltage connectable to said ignition electrode, and an ionization electrode which can be supplied with an ionization voltage, characterized in that said method comprises: disconnecting said ignition electrode from said means for generating said ignition voltage, detecting a first electrical signal at said ionization electrode, and deriving a first signal dependent on said air ratio based on said first electrical signal, detecting a second electrical signal at said ignition electrode, and deriving a second signal dependent on said air ratio based on said second electrical signal, determining a control variable for the burner operation based on said first signal dependent on said air ratio and said second signal dependent on said air ratio, comparing said first signal dependent on said air ratio and said second signal dependent on said air ratio, and if a difference between said first signal dependent on said air ratio and said second signal dependent on said air ratio exceeds a threshold value, performing a calibration process in order to correct said first signal dependent on said air ratio. disconnecting said ignition electrode from said means for generating said ignition voltage, detecting a first electrical signal at said ionization electrode, and deriving a first signal dependent on said air ratio based on said first electrical signal, detecting a second electrical signal at said ignition electrode, and deriving a second signal dependent on said air ratio based on said second electrical signal, determining a control variable for the burner operation based on said first signal dependent on said air ratio and said second signal dependent on said air ratio, comparing said first signal dependent on said air ratio and said second signal dependent on said air ratio, and if a difference between said first signal dependent on said air ratio and said second signal dependent on said air ratio exceeds a threshold value, performing a calibration process in order to correct said first signal dependent on said air ratio.
An image forming apparatus configured to operate in a first power state and a second power state in which power consumption is smaller than power consumption in the first power state, the image forming apparatus comprising: a detection means configured to detect an object present in front of the image forming apparatus; an operation means configured to accept an operation; and a power-supply control means configured to shift a state of the image forming apparatus from the second power state to the first power state, on a basis that the detection means detects an object present in front of the image forming apparatus, characterised in that upon determining that no object is present in front of the image forming apparatus, the power-supply control means is configured to shift the state of the image forming apparatus from the first power state to the second power state in response to a lapse of a predetermined time in a state in which no object has been detected by the detection means (S606, YES) in a case where a job has not been executed and the operation means has been operated (S601 to S603, S604 to S606), and wherein upon determining that no object is present in front of the image forming apparatus (S601, NO), the power-supply control means is configured to shift the state of the image forming apparatus from the first power state to the second power state immediately in a case where the job has not been executed and the operation means has not been operated. a detection means configured to detect an object present in front of the image forming apparatus; an operation means configured to accept an operation; and a power-supply control means configured to shift a state of the image forming apparatus from the second power state to the first power state, on a basis that the detection means detects an object present in front of the image forming apparatus, characterised in that upon determining that no object is present in front of the image forming apparatus, the power-supply control means is configured to shift the state of the image forming apparatus from the first power state to the second power state in response to a lapse of a predetermined time in a state in which no object has been detected by the detection means (S606, YES) in a case where a job has not been executed and the operation means has been operated (S601 to S603, S604 to S606), and wherein upon determining that no object is present in front of the image forming apparatus (S601, NO), the power-supply control means is configured to shift the state of the image forming apparatus from the first power state to the second power state immediately in a case where the job has not been executed and the operation means has not been operated.
An intra-cell handover method, comprising: a Relay Node, RN, judging whether the difference between a Next Hop Chaining Counter, NCC, at the User Equipment, UE, side, and an NCC lastly received by the RN, which is allocated to the UE by a serving Mobility Management Entity, MME, satisfies a preset intra-cell handover trigger condition; and the RN initiating an intra-cell handover performed by the UE when the difference satisfies the trigger condition. a Relay Node, RN, judging whether the difference between a Next Hop Chaining Counter, NCC, at the User Equipment, UE, side, and an NCC lastly received by the RN, which is allocated to the UE by a serving Mobility Management Entity, MME, satisfies a preset intra-cell handover trigger condition; and the RN initiating an intra-cell handover performed by the UE when the difference satisfies the trigger condition.
An operating method of a storage device comprising while setting a reclaim priority value to each of a plurality of memory areas of a source memory area: detecting whether a reclaim event has occurred on the source memory and performing a reclaim operation on the source memory area according to the reclaim priority value of each of the plurality of memory areas, wherein the reclaim operation moves data stored in the source memory area to a destination memory area, characterized in that the setting of the reclaim priority value comprises: setting, in response to detecting of the reclaim event having occurred to a first memory area among the plurality of memory areas, a first reclaim priority value to the first memory area; setting, in response to detecting of the reclaim event being expected to occur to a second memory area among the plurality of memory areas based on degradation information stored in a metadata buffer of the storage device, a second reclaim priority value to the second memory area; and setting, in response to detecting of the reclaim event not having occurred to a third memory area and detecting of the reclaim event not being expected to occur to the third memory area, a third reclaim priority value to the third memory area. detecting whether a reclaim event has occurred on the source memory and performing a reclaim operation on the source memory area according to the reclaim priority value of each of the plurality of memory areas, wherein the reclaim operation moves data stored in the source memory area to a destination memory area, characterized in that the setting of the reclaim priority value comprises: setting, in response to detecting of the reclaim event having occurred to a first memory area among the plurality of memory areas, a first reclaim priority value to the first memory area; setting, in response to detecting of the reclaim event being expected to occur to a second memory area among the plurality of memory areas based on degradation information stored in a metadata buffer of the storage device, a second reclaim priority value to the second memory area; and setting, in response to detecting of the reclaim event not having occurred to a third memory area and detecting of the reclaim event not being expected to occur to the third memory area, a third reclaim priority value to the third memory area. setting, in response to detecting of the reclaim event having occurred to a first memory area among the plurality of memory areas, a first reclaim priority value to the first memory area; setting, in response to detecting of the reclaim event being expected to occur to a second memory area among the plurality of memory areas based on degradation information stored in a metadata buffer of the storage device, a second reclaim priority value to the second memory area; and setting, in response to detecting of the reclaim event not having occurred to a third memory area and detecting of the reclaim event not being expected to occur to the third memory area, a third reclaim priority value to the third memory area.
An optoelectronic sensor, in particular a laser scanner, for detecting objects in a monitored area, wherein the sensor comprises a scanning unit movable about an axis of rotation and having a plurality of scanning modules accommodated therein for periodically scanning the monitored area and for generating corresponding received signals, and a control and evaluation unit for generating information about the objects from the received signals, wherein the scanning modules each comprise a light transmitter for transmitting a light beam and a light receiver for generating a respective received signal from the light beam reflected by the objects, and wherein for adjusting an angle of elevation of a scanning plane detected by a respective scanning module with respect to a central scanning plane perpendicular to the axis of rotation the scanning modules are arranged on sections of a circuit board which are variable in their inclination, characterized in that the circuit board is configured as a rotating circuit board and as a base plate of the scanning unit in a plane perpendicular to the axis of rotation that has movable or bendable sections in order to incline or tilt the sections out of the plane of the base plate.