mhurhangee/ep-ind-claims huggingface dataset:
A cage reset planetary roller screw device for a forced seal ball valve comprising: a male thread member provided with a male thread and a female thread member provided with a female thread where the male thread and the female thread have the same pitch; a number of planetary rollers which are disposed between the male and female threads (11, 21) and provided with ring grooves, a distance between adjacent ring grooves corresponding to the pitch; and wherein the ring grooves of the planetary rollers respectively mesh with the male thread and the female thread, the planetary rollers being disposed between the male thread and the female thread through a cage, and being disposed in roller retaining pockets of the cage; wherein the cage reset planetary roller screw device is provided with limit blocks (12, 22); the cage reset planetary roller screw device being characterised in that side surfaces of the cage are provided with protruding ends (36, 37) and the male thread member and/or the female thread member is provided with the limit blocks (12, 22) that are in contact with the protruding ends (36, 37) of the cage in a circumferential direction of the cage. a male thread member provided with a male thread and a female thread member provided with a female thread where the male thread and the female thread have the same pitch; a number of planetary rollers which are disposed between the male and female threads (11, 21) and provided with ring grooves, a distance between adjacent ring grooves corresponding to the pitch; and wherein the ring grooves of the planetary rollers respectively mesh with the male thread and the female thread, the planetary rollers being disposed between the male thread and the female thread through a cage, and being disposed in roller retaining pockets of the cage; wherein the cage reset planetary roller screw device is provided with limit blocks (12, 22); the cage reset planetary roller screw device being characterised in that side surfaces of the cage are provided with protruding ends (36, 37) and the male thread member and/or the female thread member is provided with the limit blocks (12, 22) that are in contact with the protruding ends (36, 37) of the cage in a circumferential direction of the cage.
A bleaching and coloring composition for keratin fibers, preferably for human keratin fibers, more preferably for human hair, comprising: a) one or more alkalizing agent(s), b) one or more bleaching compound(s), c) HC Blue 18 and/or its salt(s), d) tetrabromophenol blue and/or its salt(s). a) one or more alkalizing agent(s), b) one or more bleaching compound(s), c) HC Blue 18 and/or its salt(s), d) tetrabromophenol blue and/or its salt(s).
An aqueous laundry pre-treatment composition comprising: (i) 0.5 wt% to 15 wt% of a surfactant which is a non-ionic surfactant or an ethoxylated anionic surfactant or a mixture thereof; (ii) 0.5 wt% to 8 wt% of at least one non-neutralised fatty acid having pKa greater than 5 at 20 °C; (iii) 0.5 wt% to 5 wt% of at least one organic acid having pKa of 2 to 5 at 20 °C, and, (iv) 0.5 wt% to 10 wt% of a water-insoluble fatty acid ester. wherein pH of said composition is 2 to 5. (i) 0.5 wt% to 15 wt% of a surfactant which is a non-ionic surfactant or an ethoxylated anionic surfactant or a mixture thereof; (ii) 0.5 wt% to 8 wt% of at least one non-neutralised fatty acid having pKa greater than 5 at 20 °C; (iii) 0.5 wt% to 5 wt% of at least one organic acid having pKa of 2 to 5 at 20 °C, and, (iv) 0.5 wt% to 10 wt% of a water-insoluble fatty acid ester.
A method (200, 500) for use in router maintenance in a communication network, the method (200, 500) comprising: obtaining (210, 510) an indication that a first router in the communication network is to be maintained; responsive to the indication, setting (220, 530) a parameter of the first router to be a predetermined value, the parameter being associated with a route selection in the communication network; sending (230, 540) the predetermined value of the parameter to a second router in the communication network for the route selection, wherein the predetermined value of the parameter is sent such that a probability that the second router selects a route passing through the first router is below a predetermined threshold and the route passing through the first router to be maintained is bypassed; monitoring traffic of the first router; and responsive to the monitored traffic falling below a predetermined traffic threshold, causing the first router to be maintained. obtaining (210, 510) an indication that a first router in the communication network is to be maintained; responsive to the indication, setting (220, 530) a parameter of the first router to be a predetermined value, the parameter being associated with a route selection in the communication network; sending (230, 540) the predetermined value of the parameter to a second router in the communication network for the route selection, wherein the predetermined value of the parameter is sent such that a probability that the second router selects a route passing through the first router is below a predetermined threshold and the route passing through the first router to be maintained is bypassed; monitoring traffic of the first router; and responsive to the monitored traffic falling below a predetermined traffic threshold, causing the first router to be maintained.
An implantable spacer (1, 1A, 1B) comprising: a tube which is folded or bent at one or a plurality of positions to form partial sections adjacent to each other; fixing threads (21, 22) which are disposed along a direction transverse to the partial sections in order to maintain a shape of the tube; and a trigger thread catching the fixing threads (21, 22) being in a releasable state. a tube which is folded or bent at one or a plurality of positions to form partial sections adjacent to each other; fixing threads (21, 22) which are disposed along a direction transverse to the partial sections in order to maintain a shape of the tube; and a trigger thread catching the fixing threads (21, 22) being in a releasable state.
A method of quantifying an analyte in a biological sample, comprising: preparing a biological sample for mass spectrometric analysis, utilizing an ionization source to ionize at least a portion of said prepared biological sample to generate an ionized analyte flow, wherein the ionization source comprises a laser diode thermal desorption (LDTD) ionization source, introducing said ionized analyte flow into a differential mobility spectrometer set at a compensation voltage selected to extract ionized analyte molecules from the ionized analyte flow, introducing an output analyte flow of the differential mobility spectrometer into a mass spectrometer to detect and quantify analyte ions in said output analyte flow. preparing a biological sample for mass spectrometric analysis, utilizing an ionization source to ionize at least a portion of said prepared biological sample to generate an ionized analyte flow, wherein the ionization source comprises a laser diode thermal desorption (LDTD) ionization source, introducing said ionized analyte flow into a differential mobility spectrometer set at a compensation voltage selected to extract ionized analyte molecules from the ionized analyte flow, introducing an output analyte flow of the differential mobility spectrometer into a mass spectrometer to detect and quantify analyte ions in said output analyte flow.
An air interface transmission method, comprising: receiving, by a first wireless backhaul device, Ethernet frame data; encapsulating, by the first wireless backhaul device, the Ethernet frame data by using a radio access layer protocol corresponding to a radio access technology supported by the first wireless backhaul device, to obtain encapsulated Ethernet frame data; and transmitting, by the first wireless backhaul device, the encapsulated Ethernet frame data to a second wireless backhaul device through a wireless air interface characterized in that before the encapsulating, by the first wireless backhaul device, the Ethernet frame data by using a radio access layer protocol corresponding to a radio access technology supported by the first wireless backhaul device, to obtain encapsulated Ethernet frame data, the method further comprises: parsing, by the first wireless backhaul device, the Ethernet frame data, to obtain a mapping identifier; and querying, by the first wireless backhaul device according to the mapping identifier, a traffic flow template for a radio bearer resource of a specified quality of service, QoS, class identifier that corresponds to the mapping identifier; and the transmitting, by the first wireless backhaul device, the encapsulated Ethernet frame data to a second wireless backhaul device through a wireless air interface comprises: transmitting, by the first wireless backhaul device, the encapsulated Ethernet frame data to the second wireless backhaul device through the wireless air interface by using the radio bearer resource of the specified QoS class identifier that corresponds to the mapping identifier. receiving, by a first wireless backhaul device, Ethernet frame data; encapsulating, by the first wireless backhaul device, the Ethernet frame data by using a radio access layer protocol corresponding to a radio access technology supported by the first wireless backhaul device, to obtain encapsulated Ethernet frame data; and transmitting, by the first wireless backhaul device, the encapsulated Ethernet frame data to a second wireless backhaul device through a wireless air interface parsing, by the first wireless backhaul device, the Ethernet frame data, to obtain a mapping identifier; and querying, by the first wireless backhaul device according to the mapping identifier, a traffic flow template for a radio bearer resource of a specified quality of service, QoS, class identifier that corresponds to the mapping identifier; and transmitting, by the first wireless backhaul device, the encapsulated Ethernet frame data to the second wireless backhaul device through the wireless air interface by using the radio bearer resource of the specified QoS class identifier that corresponds to the mapping identifier.
A method of identifying more than one target nucleic acid contained in a sample, the method comprising: mixing the sample more than one capturing agent and more than one probe to obtain a mixture, wherein (i) each capturing agent contains a small solid particle that is labeled with one or more detectable label/s such that it is distinguishable from the other capturing agents by its detectable labels, and contains a capture nucleic acid sequence complementary to a first target sequence in a target nucleic acid, and (ii) each probe is labeled with one or more detectable labels such that it is distinguishable from the other probes by its detectable label/s, and contains a probe sequence that is complementary to a second target sequence in a target nucleic acid, whereby a combination of detectable labels identifies a target nucleic acid molecule; allowing the capturing agents and the probes to hybridize to the nucleic acid molecules, thereby forming complexes each containing a target nucleic acid, a capturing agent, and a probe; isolating and separating the complexes from the sample; and determining the detectable labels bound to the complexes, whereby one or more target nucleic acids are identified, wherein the detectable labels are colored labels and wherein the capturing agents include a total of n different colors and the probes include a total of m different colors, n and m each being an integer that is greater than 1. mixing the sample more than one capturing agent and more than one probe to obtain a mixture, wherein (i) each capturing agent contains a small solid particle that is labeled with one or more detectable label/s such that it is distinguishable from the other capturing agents by its detectable labels, and contains a capture nucleic acid sequence complementary to a first target sequence in a target nucleic acid, and (ii) each probe is labeled with one or more detectable labels such that it is distinguishable from the other probes by its detectable label/s, and contains a probe sequence that is complementary to a second target sequence in a target nucleic acid, whereby a combination of detectable labels identifies a target nucleic acid molecule; allowing the capturing agents and the probes to hybridize to the nucleic acid molecules, thereby forming complexes each containing a target nucleic acid, a capturing agent, and a probe; isolating and separating the complexes from the sample; and determining the detectable labels bound to the complexes, whereby one or more target nucleic acids are identified, wherein the detectable labels are colored labels and wherein the capturing agents include a total of n different colors and the probes include a total of m different colors, n and m each being an integer that is greater than 1.
A method for retransmitting signal at a transmission end of a multiple input multiple output system, the method comprising: mapping a first codeword to one or more layers for retransmission, wherein the first codeword is selected among initially transmitted codewords, and the initially transmitted codewords include the first codeword and a second codeword; and precoding the one or more layers using a precoding matrix for a spatial multiplexing of signal retransmission, wherein the precoding matrix is used for the signal retransmission via the one or more layers among a maximum number of layers, wherein the maximum number of layers is selected on the basis of rank information reported from a reception end, wherein control information including transport block size information corresponding to the first and second codewords is transmitted to the reception end, and wherein the transport block size corresponding to the second codeword is 0, whereby no data is transmitted via the second codeword. mapping a first codeword to one or more layers for retransmission, wherein the first codeword is selected among initially transmitted codewords, and the initially transmitted codewords include the first codeword and a second codeword; and precoding the one or more layers using a precoding matrix for a spatial multiplexing of signal retransmission, wherein the precoding matrix is used for the signal retransmission via the one or more layers among a maximum number of layers, wherein the maximum number of layers is selected on the basis of rank information reported from a reception end, wherein control information including transport block size information corresponding to the first and second codewords is transmitted to the reception end, and wherein the transport block size corresponding to the second codeword is 0, whereby no data is transmitted via the second codeword.
A method for common control channel operation, comprising: operating as a network node (114, 116, 118) for a communications system; applying a frame-based radio interface for transmitting downlink frames to a mobile node (104, 106, 108) of the communications system and for receiving corresponding uplink frames from the mobile node, a frame in the frame-based radio interface comprising a defined number of timeslots, a channel between the mobile node and the network node comprising defined one or more timeslots in uplink frames and the same defined one or more timeslots in the corresponding downlink frames, and the frame-based radio interface providing a common control channel that is available to mobile nodes under the network node or granted for reserved access of a mobile node; checking (7-3, 8-1) the amount of common control channel timeslots required for transmitting an uplink or downlink signalling message between the network node and the mobile node; characterised by reserving (7-3, 8-1), in response to the amount of timeslots required for transmitting the signalling message exceeding the number of timeslots of the common control channel in a corresponding uplink or downlink frame, an extended set (33, 43, 63) of timeslots for the mobile node, the extended set comprising the one or more timeslots of the common control channel in the frame and one or more successive timeslots following the common control channel in the frame; granting (7-4, 8-2) the reserved access and indicate the reservation of the extended set of timeslots to the mobile node. operating as a network node (114, 116, 118) for a communications system; applying a frame-based radio interface for transmitting downlink frames to a mobile node (104, 106, 108) of the communications system and for receiving corresponding uplink frames from the mobile node, a frame in the frame-based radio interface comprising a defined number of timeslots, a channel between the mobile node and the network node comprising defined one or more timeslots in uplink frames and the same defined one or more timeslots in the corresponding downlink frames, and the frame-based radio interface providing a common control channel that is available to mobile nodes under the network node or granted for reserved access of a mobile node; checking (7-3, 8-1) the amount of common control channel timeslots required for transmitting an uplink or downlink signalling message between the network node and the mobile node; characterised by reserving (7-3, 8-1), in response to the amount of timeslots required for transmitting the signalling message exceeding the number of timeslots of the common control channel in a corresponding uplink or downlink frame, an extended set (33, 43, 63) of timeslots for the mobile node, the extended set comprising the one or more timeslots of the common control channel in the frame and one or more successive timeslots following the common control channel in the frame; granting (7-4, 8-2) the reserved access and indicate the reservation of the extended set of timeslots to the mobile node.
Drilling guide for dental surgery, comprising: - centring means extending along a longitudinal axis (I-I), - two drilling bushes (3, 4) substantially parallel to the longitudinal axis (I-I) and offset laterally on either side of the longitudinal axis (I-I), characterized in that: - the centring means comprise a cylinder of substantially circular cross section intended to penetrate a hole drilled in the mandibular or maxillary bone of a patient, - said drilling bushes (3, 4) continue parallel to the longitudinal axis (I-I) with cross sections (ST3, ST4) which respectively intersect a first part and a second part of the periphery of the cross section of the cylinder of the centring means. - centring means extending along a longitudinal axis (I-I), - two drilling bushes (3, 4) substantially parallel to the longitudinal axis (I-I) and offset laterally on either side of the longitudinal axis (I-I), - the centring means comprise a cylinder of substantially circular cross section intended to penetrate a hole drilled in the mandibular or maxillary bone of a patient, - said drilling bushes (3, 4) continue parallel to the longitudinal axis (I-I) with cross sections (ST3, ST4) which respectively intersect a first part and a second part of the periphery of the cross section of the cylinder of the centring means.
A control system for a marine propulsion device capable of driving a propeller by either an engine or a motor, the control system comprising: a first memory configured to hold first information for identifying whether the control system has a normal shutdown or an abnormal shutdown even during a reset period of the control system; a second memory (22a, 26a) configured to hold second information indicating control states of the engine and the motor even during the reset period of the control system; and a controller configured or programmed to start controlling the engine and the motor, based on the second information held in the second memory (22a, 26a), in a case where the first information held in the first memory indicates the abnormal shutdown of the control system at a startup of the control system. a first memory configured to hold first information for identifying whether the control system has a normal shutdown or an abnormal shutdown even during a reset period of the control system; a second memory (22a, 26a) configured to hold second information indicating control states of the engine and the motor even during the reset period of the control system; and a controller configured or programmed to start controlling the engine and the motor, based on the second information held in the second memory (22a, 26a), in a case where the first information held in the first memory indicates the abnormal shutdown of the control system at a startup of the control system.
A method of forming a glass substrate with a handling tab, the method comprising: conveying the glass substrate in a conveyance direction, the glass substrate comprising a first major surface opposed to a second major surface, the first major surface and the second major surface (1949 extending between a first lateral edge and a second lateral edge; positioning an adhesive tape ribbon adjacent to the first lateral edge of the glass substrate such that an adhesive surface of the adhesive tape ribbon is spaced apart from the first lateral edge of the glass substrate and the adhesive surface is substantially perpendicular to the first major surface and the second major surface; directing the adhesive tape ribbon and the glass substrate through a folding plow, folding the adhesive tape ribbon with the folding plow such that at least a portion of the glass substrate is positioned between the adhesive surface of a first portion of the adhesive tape ribbon and the adhesive surface of a second portion of the adhesive tape ribbon, and the adhesive surface of a third portion of the adhesive tape ribbon disposed between the first portion and the second portion is spaced apart from the first lateral edge of the glass substrate, the third portion forming the handling tab extending beyond the first lateral edge of the glass substrate. conveying the glass substrate in a conveyance direction, the glass substrate comprising a first major surface opposed to a second major surface, the first major surface and the second major surface (1949 extending between a first lateral edge and a second lateral edge; positioning an adhesive tape ribbon adjacent to the first lateral edge of the glass substrate such that an adhesive surface of the adhesive tape ribbon is spaced apart from the first lateral edge of the glass substrate and the adhesive surface is substantially perpendicular to the first major surface and the second major surface; directing the adhesive tape ribbon and the glass substrate through a folding plow, folding the adhesive tape ribbon with the folding plow such that at least a portion of the glass substrate is positioned between the adhesive surface of a first portion of the adhesive tape ribbon and the adhesive surface of a second portion of the adhesive tape ribbon, and the adhesive surface of a third portion of the adhesive tape ribbon disposed between the first portion and the second portion is spaced apart from the first lateral edge of the glass substrate, the third portion forming the handling tab extending beyond the first lateral edge of the glass substrate.