mhurhangee/patent-ind-claim-en huggingface dataset:
A method of detecting an abnormal electrical connection in a switchgear, the method comprising: measuring respective resistance values for areas of respective electrical connections in the switchgear for a first state of the electrical connections; determining respective normalized resistance values from the measured resistance values; acquiring a plurality of temperature rising values for the areas of the electrical connections, wherein the plurality of temperature rising values comprise a temperature rising value at a joint area of at least one of the electrical connections; calculating a weighted average temperature of the plurality of temperature rising values; dividing respective ones of the plurality of temperature rising values by the weighted average temperature to get respective normalized temperature rising values for the areas of the respective electrical connections; comparing each of the normalized temperature rising values for the areas of the electrical connections to the normalized resistance values; and detecting the abnormal connection responsive to the comparison. measuring respective resistance values for areas of respective electrical connections in the switchgear for a first state of the electrical connections; determining respective normalized resistance values from the measured resistance values; acquiring a plurality of temperature rising values for the areas of the electrical connections, wherein the plurality of temperature rising values comprise a temperature rising value at a joint area of at least one of the electrical connections; calculating a weighted average temperature of the plurality of temperature rising values; dividing respective ones of the plurality of temperature rising values by the weighted average temperature to get respective normalized temperature rising values for the areas of the respective electrical connections; comparing each of the normalized temperature rising values for the areas of the electrical connections to the normalized resistance values; and detecting the abnormal connection responsive to the comparison.
An exhaust gas pressure regulator for a combustion engine , the regulator comprising a regulator housing and an inner diffuser assembly arranged inside the regulator housing so that an exhaust gas flow duct is formed between an inner surface of the regulator housing and an outer surface of the inner diffuser assembly , wherein the inner diffuser assembly includes a front portion and a regulating piston that is moveable relative to the front portion and the regulator housing between an idle position in which the exhaust gas flow duct is open, and a pressurized position in which the regulating piston at least partly closes the exhaust gas flow duct , wherein the inner diffuser assembly comprises at least one throttled flow passage between the exhaust gas flow duct and an exhaust gas pressure chamber defined by the regulating piston and an interior surface of the front portion characterized in that the inner diffuser assembly comprises a sealing ring that is configured to partly seal a flow passage between the regulating piston and the front portion of the inner diffuser assembly so that the at least one throttled flow passage is provided by means of a calibrated flow leakage past the sealing ring , and wherein a total throttled flow passage of the inner diffuser assembly has a flow area in the range of 0.5 - 10 mm 2 , specifically in the range of 1 - 6 mm 2 , more specifically in the range of 2 - 4 mm 2 , and in that the at least one throttled flow passage is configured such that an average pressure level within the exhaust gas pressure chamber corresponds substantially to an average exhaust gas pressure level of the exhaust gas stream at an inlet to the throttled flow passage .
Method for the production of an article made of a soft material, in particular a textile material, leather or the like, a lenticular print being applied to at least one section of the surface of the article , characterized in that the lenticular print is adhesively bonded to the surface , wherein, before the adhesive bonding of the lenticular print , an image is applied to an underlayer and covered with a covering layer having lenses and/or prisms, and wherein the lenticular print is adhesively bonded on by means of an adhesive which has a processing temperature of at most 120 °C and a viscosity of about 10,000 mPas at 100 °C and 5000 mPas at 120 °C.
AMINO-7 TRIETHOXY-4,5,6 OXO-1 DIHYDRO-1,3 ISOBENZOFURANNYL-3)-1METHOXY-8METHYL-2METHYLENEDIOXY-6,7TETRAHYDRO-, 2,3,4ISOQUINOLINE, or tritoqualine and pharmaceutically acceptable salts thereof for use in the treatment of dry eye syndrome.
A wrap skirt comprising: a skirt panel having a top waist portion , a first end and a second end ; a first portion (34-1, 234-1) of a first connector coupled to the skirt panel proximate the top waist portion between the first end and the second end ; a second portion (34-2, 234-2) of the first connector coupled to the skirt panel proximate the top waist portion proximate the first end ; a first portion (36-1, 236-1) of a second connector coupled to the skirt panel proximate the top waist portion between the first end and the second end ; a second portion (36-2, 236-2) of the second connector coupled to the skirt panel proximate the top waist portion proximate the second end , wherein the first connector is configured to retain the top waist portion about a waistline of a person as an overlapping portion of the skirt panel is wrapped and subsequently retained in place by the second connector ; characterized by ; a sleeve extending along the top waist portion ; and a webbing slidably positioned within the sleeve , wherein the first portion (34-1, 234-1) of the first connector is carried by a first end portion of the webbing and wherein the second portion (36-2, 236-2) of the second connector is carried by a second end portion of the webbing . a skirt panel having a top waist portion , a first end and a second end ; a first portion (34-1, 234-1) of a first connector coupled to the skirt panel proximate the top waist portion between the first end and the second end ; a second portion (34-2, 234-2) of the first connector coupled to the skirt panel proximate the top waist portion proximate the first end ; a first portion (36-1, 236-1) of a second connector coupled to the skirt panel proximate the top waist portion between the first end and the second end ; a second portion (36-2, 236-2) of the second connector coupled to the skirt panel proximate the top waist portion proximate the second end , wherein the first connector is configured to retain the top waist portion about a waistline of a person as an overlapping portion of the skirt panel is wrapped and subsequently retained in place by the second connector ; characterized by ; a sleeve extending along the top waist portion ; and a webbing slidably positioned within the sleeve , wherein the first portion (34-1, 234-1) of the first connector is carried by a first end portion of the webbing and wherein the second portion (36-2, 236-2) of the second connector is carried by a second end portion of the webbing . a sleeve extending along the top waist portion ; and a webbing slidably positioned within the sleeve , wherein the first portion (34-1, 234-1) of the first connector is carried by a first end portion of the webbing and wherein the second portion (36-2, 236-2) of the second connector is carried by a second end portion of the webbing .
A method including receiving (S100) device or function related data from a device management element or function of at least one transport and/or access device or function installed at a predefined location for which a local control is to be conducted, and storing the device or function related data, forwarding (S110) the stored device or function related data to a centralized control element or function , receiving (S120), from the centralized control element or function , and processing instruction data for the at least one transport and/or access device or function , and conducting (S130) a local device or function management control procedure for the at least one transport and/or access device or function according to a result of the processing of the instruction data, characterized in that the local device or function management control procedure for the at least one transport and/or access device or function according to the result of the processing of the instruction data includes executing (S131a) an updating process of data installed in or of a configuration setting of the at least one transport and/or access device or function , determining (S132a) whether a failure in the updating process occurred, and if a failure is determined restoring (S133a) the data or the configuration setting into a state before executing the updating process. receiving (S100) device or function related data from a device management element or function of at least one transport and/or access device or function installed at a predefined location for which a local control is to be conducted, and storing the device or function related data, forwarding (S110) the stored device or function related data to a centralized control element or function , receiving (S120), from the centralized control element or function , and processing instruction data for the at least one transport and/or access device or function , and conducting (S130) a local device or function management control procedure for the at least one transport and/or access device or function according to a result of the processing of the instruction data, characterized in that the local device or function management control procedure for the at least one transport and/or access device or function according to the result of the processing of the instruction data includes executing (S131a) an updating process of data installed in or of a configuration setting of the at least one transport and/or access device or function , determining (S132a) whether a failure in the updating process occurred, and if a failure is determined restoring (S133a) the data or the configuration setting into a state before executing the updating process.
Internal rotor motor, in particular electronically commutated internal rotor motor, comprising: A multipole stator ; a laminated rotor core (37; 52, 54, 56) pivoted relative to said stator; a central recess provided in the laminated rotor core and into which a shaft is pressed, wherein said laminated rotor core comprises single sheets having central recesses comprising radially inner first sections , and said central recesses having second sections in the regions between said radially inner first sections , said second sections being spaced apart from the outside of said shaft in the mounted state, wherein at least a part of said single sheets of said laminated rotor core is arranged angularly offset to each other, and wherein at least at one end of the laminated rotor core, a predetermined number of single sheets is not arranged angularly offset to each other. A multipole stator ; a laminated rotor core (37; 52, 54, 56) pivoted relative to said stator; a central recess provided in the laminated rotor core and into which a shaft is pressed, wherein said laminated rotor core comprises single sheets having central recesses comprising radially inner first sections , and said central recesses having second sections in the regions between said radially inner first sections , said second sections being spaced apart from the outside of said shaft in the mounted state, wherein at least a part of said single sheets of said laminated rotor core is arranged angularly offset to each other, and wherein at least at one end of the laminated rotor core, a predetermined number of single sheets is not arranged angularly offset to each other.
A method of detecting a membrane protein by mass spectrometry, wherein the method comprises: (a) providing a solution comprising a native membrane vesicle having a lipid bilayer to which said membrane protein is attached; (b) sonicating the vesicle in the presence of a mass spectrometry-compatible buffer; (c) providing a mass spectrometer comprising a nanoelectrospray ionisation source, a mass analyser and a detector; (d) vaporising the sonicated solution using the nanoelectrospray ionisation source under conditions such that the membrane protein is released from the vesicle; (e) ionising the membrane protein; (f) resolving the ionised membrane protein using the mass analyser; and (g) detecting the resolved membrane protein using the detector. (a) providing a solution comprising a native membrane vesicle having a lipid bilayer to which said membrane protein is attached; (b) sonicating the vesicle in the presence of a mass spectrometry-compatible buffer; (c) providing a mass spectrometer comprising a nanoelectrospray ionisation source, a mass analyser and a detector; (d) vaporising the sonicated solution using the nanoelectrospray ionisation source under conditions such that the membrane protein is released from the vesicle; (e) ionising the membrane protein; (f) resolving the ionised membrane protein using the mass analyser; and (g) detecting the resolved membrane protein using the detector.
An aircraft wing , the aircraft wing comprising a fixed wing and a wing tip device rotatable about a hinge axis of a hinge at the tip of the fixed wing between: (i) a flight configuration for use during flight and (ii) a ground configuration for use during ground-based operations, in which ground configuration the wing tip device is moved away from the flight configuration such that the span of the aircraft wing is reduced, wherein the wing further comprises an actuation assembly for rotating the wing tip device about the hinge , and wherein in the flight configuration the actuation assembly is in a first configuration occupying a first space, and in the ground configuration the actuation assembly is in a second configuration occupying a second space; characterised in that an upper cover of the wing tip device comprises an offset region extending inboard of the hinge axis , the offset region and the actuation assembly being arranged such that when the wing tip device is rotated to the ground configuration, the offset region extends into the first space, but is outside the second space. wherein the wing further comprises an actuation assembly for rotating the wing tip device about the hinge , and wherein in the flight configuration the actuation assembly is in a first configuration occupying a first space, and in the ground configuration the actuation assembly is in a second configuration occupying a second space; characterised in that an upper cover of the wing tip device comprises an offset region extending inboard of the hinge axis , the offset region and the actuation assembly being arranged such that when the wing tip device is rotated to the ground configuration, the offset region extends into the first space, but is outside the second space.
Combination device, which has a hob with at least one cooking module , an extractor device , which is arranged at least partially below the at least one cooking module and which has at least one fan with at least one intake opening , and at least one air inlet opening for the extractor device , which is arranged in the hob , characterised in that the combination device has two supports , wherein each support has elements of the power electronics of at least one cooking module of the hob , the two supports each represent a plate and are arranged at a right angle in the combination device with respect to the at least one cooking module and the two supports are arranged in parallel offset with respect to one another.
A locking ring for preventing a pipe inserted into a pipe joint from being pulled out, the locking ring comprising: a ring portion having an annular shape; and a plurality of claw portions having a plate-like shape that are arranged along a circumferential direction of the ring portion and each extend from the ring portion in an extending direction that is directed toward an inner circumferential side and toward one side of an axial direction of the ring portion , wherein the plurality of claw portions at least partially have a wave shape in a cross-section perpendicular to the axial direction, and characterised in that , in the cross-section perpendicular to the axial direction, each claw portion extends along an arc having a center of curvature on an outer circumferential side of the claw portion , in a central circumferential portion of the claw portion . a ring portion having an annular shape; and a plurality of claw portions having a plate-like shape that are arranged along a circumferential direction of the ring portion and each extend from the ring portion in an extending direction that is directed toward an inner circumferential side and toward one side of an axial direction of the ring portion , wherein the plurality of claw portions at least partially have a wave shape in a cross-section perpendicular to the axial direction, and characterised in that , in the cross-section perpendicular to the axial direction, each claw portion extends along an arc having a center of curvature on an outer circumferential side of the claw portion , in a central circumferential portion of the claw portion .
A method performed at a user equipment, UE, for communicating with a macro cell eNB, MeNB, and a small cell eNB, SeNB, the method comprising: receiving (S810) information on a downlink channel from a first primary cell, PCell, of the MeNB, wherein the information includes a first cell radio network temporary identity, C-RNTI; configuring (S820) a second PCell of the SeNB based on the information received from the first PCell of the MeNB; activating the second PCell of the SeNB; detecting a C-RNTI collision; receiving a second C-RNTI, corresponding to the first C-RNTI, for the SeNB from the first PCell of the MeNB; treating the second C-RNTI as a temporary C-RNTI for monitoring a physical downlink control channel, PDCCH, order transmitted from the SeNB and transmitting a message 3, Msg 3, to the SeNB; monitoring the PDCCH order transmitted from the SeNB based on the second C-RNTI, wherein the PDCCH order triggers a random access channel, RACH, preamble to the SeNB; transmitting the RACH preamble to the SeNB; and transmitting (S830) information on an uplink channel by transmitting the Msg 3 scrambled with the second C-RNTI in a random access procedure to the SeNB. receiving (S810) information on a downlink channel from a first primary cell, PCell, of the MeNB, wherein the information includes a first cell radio network temporary identity, C-RNTI; configuring (S820) a second PCell of the SeNB based on the information received from the first PCell of the MeNB; activating the second PCell of the SeNB; detecting a C-RNTI collision; receiving a second C-RNTI, corresponding to the first C-RNTI, for the SeNB from the first PCell of the MeNB; treating the second C-RNTI as a temporary C-RNTI for monitoring a physical downlink control channel, PDCCH, order transmitted from the SeNB and transmitting a message 3, Msg 3, to the SeNB; monitoring the PDCCH order transmitted from the SeNB based on the second C-RNTI, wherein the PDCCH order triggers a random access channel, RACH, preamble to the SeNB; transmitting the RACH preamble to the SeNB; and transmitting (S830) information on an uplink channel by transmitting the Msg 3 scrambled with the second C-RNTI in a random access procedure to the SeNB.
A cable break-away device comprising: a shear cap having a head , an attachment portion , and a neck extending between and connecting the head and the attachment portion; wherein the neck is configured to transmit tensile forces from a cable extending into and secured within the attachment portion and to fracture in response to the tensile forces reaching a predetermined fracture set point; and wherein the tensile forces of the predetermined fracture set point are less than a maximum load of the cable such that the neck is configured to fracture prior to the cable being loaded to the maximum load. a shear cap having a head , an attachment portion , and a neck extending between and connecting the head and the attachment portion; wherein the neck is configured to transmit tensile forces from a cable extending into and secured within the attachment portion and to fracture in response to the tensile forces reaching a predetermined fracture set point; and wherein the tensile forces of the predetermined fracture set point are less than a maximum load of the cable such that the neck is configured to fracture prior to the cable being loaded to the maximum load.
A wireless communication control device comprising: a calculation unit configured to calculate allowable resource occupancy time in a wireless communication network in response to a low latency request from a wireless communications device for data generated in the wireless communications device in the wireless communication network; and a wireless communication unit configured to notify the wireless communication device in the wireless communication network of the allowable resource occupancy time calculated; wherein the low latency request includes allowable latency time for the data, and the calculation unit is configured to calculate the allowable resource occupancy time on a basis of the allowable latency time; and wherein the low latency request further includes duration of the low latency request. a calculation unit configured to calculate allowable resource occupancy time in a wireless communication network in response to a low latency request from a wireless communications device for data generated in the wireless communications device in the wireless communication network; and a wireless communication unit configured to notify the wireless communication device in the wireless communication network of the allowable resource occupancy time calculated; wherein the low latency request includes allowable latency time for the data, and the calculation unit is configured to calculate the allowable resource occupancy time on a basis of the allowable latency time; and wherein the low latency request further includes duration of the low latency request.
A method for the production of a retro-aldol reaction product, comprising the step of mechanocatalytically reacting at least one sugar reactant and a heterogeneous catalyst in an non-aqueous and solvent-free environment wherein the heterogeneous catalyst is in the solid phase as is the at least one sugar reactant, for a period of time sufficient to produce the retro-aldol reaction product; wherein the at least one sugar reactant is a monosaccharide; wherein the heterogeneous catalyst comprises at least one lanthanide metal oxide; and wherein the at least one sugar reactant and the heterogeneous catalyst have a combined inherent water content of less than 45% by weight.