mhurhangee/patent-ind-claim-en huggingface dataset:
An enclosure arrangement for sealing a telecommunications cable , the enclosure arrangement comprising: a re-enterable enclosure having first and second ends extending between first and second sides to define an interior, the enclosure defining a first aligned pair of distribution cable ports disposed towards the first end, a second aligned pair of distribution cable ports disposed towards the second end, and a plurality of aligned pairs of drop cable ports disposed between the first and second aligned pairs of distribution cable ports , the distribution cable ports being larger than the drop cable ports ; a management arrangement being selectively mountable within the interior of the enclosure in a first orientation and in a second orientation that is flipped 180° from the first orientation, the management arrangement including a fiber guide channel supporting figure 8 routing; and a tray arrangement that mounts within the interior of the enclosure , characterized in that the tray arrangement includes one or more trays each being configured to pivot relative to the management arrangement between a stowed position and an access position, wherein the tray arrangement is separately mounted to the enclosure from the management arrangement , and wherein the tray arrangement is selectively mountable within the interior of the enclosure in a first orientation and in a second orientation that is flipped 180° from the first orientation. a re-enterable enclosure having first and second ends extending between first and second sides to define an interior, the enclosure defining a first aligned pair of distribution cable ports disposed towards the first end, a second aligned pair of distribution cable ports disposed towards the second end, and a plurality of aligned pairs of drop cable ports disposed between the first and second aligned pairs of distribution cable ports , the distribution cable ports being larger than the drop cable ports ; a management arrangement being selectively mountable within the interior of the enclosure in a first orientation and in a second orientation that is flipped 180° from the first orientation, the management arrangement including a fiber guide channel supporting figure 8 routing; and a tray arrangement that mounts within the interior of the enclosure , characterized in that the tray arrangement includes one or more trays each being configured to pivot relative to the management arrangement between a stowed position and an access position, wherein the tray arrangement is separately mounted to the enclosure from the management arrangement , and wherein the tray arrangement is selectively mountable within the interior of the enclosure in a first orientation and in a second orientation that is flipped 180° from the first orientation.
An abnormality detection apparatus that is installed in a mobility entity and configured to detect an abnormality in a network system including a first network and a second network using different communication protocols, the network system is installed in the mobility entity, comprising: a first communicator configured to receive state information indicating a state of the mobility entity acquired from the second network , a second communicator configured to transmit and receive a first frame according to a communication protocol used in the first network ; an abnormality detection rule storage configured to store an abnormality detection rule; and an abnormality detection processor configured to detect, based on the received state information and the abnormality detection rule, whether a control command included in the first frame received by the second communicator is abnormal, wherein in a case where the abnormality detection processor detects that the control command is abnormal, the abnormality detection processor prohibits the control command from being transferred, wherein the abnormality detection rule includes a first rule indicating a control command allowed in each of a plurality of different states of the mobility entity, and the abnormality detection processor is configured to make an abnormality detection such that the state of the mobility entity indicated by the received state information, which is received from the second network , is not included in any of the plurality of different states associated, in the first rule, with control commands, the abnormality detection processor is configured to detect that the control command is abnormal. a first communicator configured to receive state information indicating a state of the mobility entity acquired from the second network , a second communicator configured to transmit and receive a first frame according to a communication protocol used in the first network ; an abnormality detection rule storage configured to store an abnormality detection rule; and an abnormality detection processor configured to detect, based on the received state information and the abnormality detection rule, whether a control command included in the first frame received by the second communicator is abnormal, wherein in a case where the abnormality detection processor detects that the control command is abnormal, the abnormality detection processor prohibits the control command from being transferred, wherein the abnormality detection rule includes a first rule indicating a control command allowed in each of a plurality of different states of the mobility entity, and the abnormality detection processor is configured to make an abnormality detection such that the state of the mobility entity indicated by the received state information, which is received from the second network , is not included in any of the plurality of different states associated, in the first rule, with control commands, the abnormality detection processor is configured to detect that the control command is abnormal.
A heat rejection apparatus comprising: a heat exchanger ; a liquid distribution system configured to direct evaporative liquid toward the heat exchanger ; a plurality of fans configured to generate airflow relative to the heat exchanger ; a sump arranged to receive evaporative liquid from the heat exchanger ; a pump operable to pump liquid from the sump to the liquid distribution system ; a controller operably coupled to the fans and configured to: detect at least one non-operational fan of the plurality of fans ; and effect a reduced fan speed of at least one operational fan of the plurality of fans upon detecting the at least one non-operational fan ; wherein the controller is operably coupled to the pump and is configured to determine whether the pump is operating; and wherein the controller is configured to effect the reduced fan speed of the at least one operational fan of the plurality of fans upon detecting the at least one non-operational fan and determining the pump is operating. a heat exchanger ; a liquid distribution system configured to direct evaporative liquid toward the heat exchanger ; a plurality of fans configured to generate airflow relative to the heat exchanger ; a sump arranged to receive evaporative liquid from the heat exchanger ; a pump operable to pump liquid from the sump to the liquid distribution system ; a controller operably coupled to the fans and configured to: detect at least one non-operational fan of the plurality of fans ; and effect a reduced fan speed of at least one operational fan of the plurality of fans upon detecting the at least one non-operational fan ; detect at least one non-operational fan of the plurality of fans ; and effect a reduced fan speed of at least one operational fan of the plurality of fans upon detecting the at least one non-operational fan ; wherein the controller is operably coupled to the pump and is configured to determine whether the pump is operating; and wherein the controller is configured to effect the reduced fan speed of the at least one operational fan of the plurality of fans upon detecting the at least one non-operational fan and determining the pump is operating.
Compound of the formula (I) in which R 1 is hydrogen; R 2 is phenyl or pyridine, wherein the phenyl or pyridine is optionally substituted with one to two substituents, provided the substituent(s) are not on either carbon adjacent to the carbon bonded to the C=O group, each independently selected from the group consisting of fluorine, chlorine, bromine, -CN, -NO 2 , -SF 5 , methyl, difluoromethyl, trifluoromethyl, pentafluoroethyl, methoxy, difluoromethoxy, trifluoromethoxy, difluoromethylthio, trifluoromethylthio, difluoroethylthio, and trifluroethylthio; R 3 is C 1 -C 3 alkyl; R 4 is pyridine, pyrimidine or pyrazine, wherein the pyridine, pyrimidine or pyrazine is substituted by CN. R 5 is ethyl, iso-propyl, tert-butyl, difluoromethyl, cyclopropyl, methoxy, ethoxy, iso-propoxy, or halogen. R 1 is hydrogen; R 2 is phenyl or pyridine, wherein the phenyl or pyridine is optionally substituted with one to two substituents, provided the substituent(s) are not on either carbon adjacent to the carbon bonded to the C=O group, each independently selected from the group consisting of fluorine, chlorine, bromine, -CN, -NO 2 , -SF 5 , methyl, difluoromethyl, trifluoromethyl, pentafluoroethyl, methoxy, difluoromethoxy, trifluoromethoxy, difluoromethylthio, trifluoromethylthio, difluoroethylthio, and trifluroethylthio; R 3 is C 1 -C 3 alkyl; R 4 is pyridine, pyrimidine or pyrazine, wherein the pyridine, pyrimidine or pyrazine is substituted by CN. R 5 is ethyl, iso-propyl, tert-butyl, difluoromethyl, cyclopropyl, methoxy, ethoxy, iso-propoxy, or halogen.
A method, comprising: additively manufacturing a first portion of a part in a first build direction on a first build plate ; removing the first portion of the part from the first build plate ; and additively manufacturing a second portion on the first portion of the part , characterised by inserting the first portion of the part on a second build plate that is configured to receive at least a portion of the first portion of the part , wherein the additively manufacturing a second portion on the first portion is in a second build direction opposite to the first build direction, on the first portion of the part that is on the second build plate . additively manufacturing a first portion of a part in a first build direction on a first build plate ; removing the first portion of the part from the first build plate ; and additively manufacturing a second portion on the first portion of the part , characterised by inserting the first portion of the part on a second build plate that is configured to receive at least a portion of the first portion of the part , wherein the additively manufacturing a second portion on the first portion is in a second build direction opposite to the first build direction, on the first portion of the part that is on the second build plate .
A method performed by a user device communicating with a base station, the method comprising: receiving, from the base station, (i) a configuration associated with a condition to be satisfied before the user device can communicate with a candidate base station, or via a candidate cell, using the configuration, and (ii) a dedicated configuration identifier that is dedicated to identifying the configuration; storing the configuration as a new configuration in the user device, when the dedicated configuration identifier does not correspond to any pre-existing configuration stored in the user device; and using the configuration to modify a pre-existing configuration already stored in the user device, when the dedicated configuration identifier corresponds to the pre-existing configuration stored in the user device. receiving, from the base station, (i) a configuration associated with a condition to be satisfied before the user device can communicate with a candidate base station, or via a candidate cell, using the configuration, and (ii) a dedicated configuration identifier that is dedicated to identifying the configuration; storing the configuration as a new configuration in the user device, when the dedicated configuration identifier does not correspond to any pre-existing configuration stored in the user device; and using the configuration to modify a pre-existing configuration already stored in the user device, when the dedicated configuration identifier corresponds to the pre-existing configuration stored in the user device.
A brake control system , comprising: a first set of analog-to-digital converters in electrical communication with a first set of brake input mechanism sensors ; and a second set of analog-to-digital converters in electrical communication with a second set of brake input mechanism sensors ; characterised in that the first and second sets of analog-to-digital converters comprise one or more of different hardware and different software for differentially manipulating sensor outputs received from the brake input mechanism sensors . a first set of analog-to-digital converters in electrical communication with a first set of brake input mechanism sensors ; and a second set of analog-to-digital converters in electrical communication with a second set of brake input mechanism sensors ; characterised in that the first and second sets of analog-to-digital converters comprise one or more of different hardware and different software for differentially manipulating sensor outputs received from the brake input mechanism sensors .
Method for non-destructively testing a part (P) comprising an elongate microstructure (M), said method comprising the following steps: a) moving a linear transducer (TT) in a plurality of positions ({P 1 , P 2 , ..., P m }) located facing a surface (S) of said part, said linear transducer comprising a plurality of transducer elements ({T 1 , T 2 , ..., T n }) aligned along a main direction (O) of said linear transducer; b) emitting a plurality of elementary ultrasound beams ({F 1 , F 2 , ..., F n }), each of said plurality of elementary ultrasound beams being emitted by each of said plurality of transducer elements in the direction of said surface; c) measuring a plurality of echo signals ({E 1 , E 2 , ..., E m }) and a plurality of structural noises ({B 1 , B 2 , ... , B m }), each of said plurality of echo signals and each of said plurality of structural noises being measured by each of said plurality of transducer elements, each of said echo signals resulting from the backscatter of elementary ultrasound beams by a defect (Df) under the surface of the part, and each of said structural noises resulting from the backscatter of elementary ultrasound beams by said elongate microstructure; d) determining a direction (D) of elongation of the elongate microstructure when an amplitude of one from among a plurality of structural noises measured is minimal according to said plurality of positions. a) moving a linear transducer (TT) in a plurality of positions ({P 1 , P 2 , ..., P m }) located facing a surface (S) of said part, said linear transducer comprising a plurality of transducer elements ({T 1 , T 2 , ..., T n }) aligned along a main direction (O) of said linear transducer; b) emitting a plurality of elementary ultrasound beams ({F 1 , F 2 , ..., F n }), each of said plurality of elementary ultrasound beams being emitted by each of said plurality of transducer elements in the direction of said surface; c) measuring a plurality of echo signals ({E 1 , E 2 , ..., E m }) and a plurality of structural noises ({B 1 , B 2 , ... , B m }), each of said plurality of echo signals and each of said plurality of structural noises being measured by each of said plurality of transducer elements, each of said echo signals resulting from the backscatter of elementary ultrasound beams by a defect (Df) under the surface of the part, and each of said structural noises resulting from the backscatter of elementary ultrasound beams by said elongate microstructure; d) determining a direction (D) of elongation of the elongate microstructure when an amplitude of one from among a plurality of structural noises measured is minimal according to said plurality of positions.
An optical sensor , comprising - a substrate , ∘ wherein the substrate is an insulating substrate; or ∘ wherein the substrate is or comprises an electrically conducting substrate, wherein an additional insulating interlayer is arranged between the electrically conducting substrate and a layer of a photoconductive material ; - the layer of at least one photoconductive material , wherein the layer of the photoconductive material is directly or indirectly applied to the substrate , wherein the layer comprises crystals comprising the photoconductive material selected from PbS or PbSe having sizes above 15 nm up to 300 nm, - at least two individual electrical contacts contacting the layer of the photoconductive material , and - a cover layer deposited on the photoconductive material , wherein the cover layer is an amorphous layer comprising at least one metal-containing compound , wherein the cover layer is a conformal layer with respect to an adjacent surface of the layer of the photoconductive material in a manner that a thickness of the conformal layer follows the surface of the photoconductive material within a deviation of ± 50 nm over at least 90% of a surface of the cover layer . - a substrate , ∘ wherein the substrate is an insulating substrate; or ∘ wherein the substrate is or comprises an electrically conducting substrate, wherein an additional insulating interlayer is arranged between the electrically conducting substrate and a layer of a photoconductive material ; ∘ wherein the substrate is an insulating substrate; or ∘ wherein the substrate is or comprises an electrically conducting substrate, wherein an additional insulating interlayer is arranged between the electrically conducting substrate and a layer of a photoconductive material ; - the layer of at least one photoconductive material , wherein the layer of the photoconductive material is directly or indirectly applied to the substrate , wherein the layer comprises crystals comprising the photoconductive material selected from PbS or PbSe having sizes above 15 nm up to 300 nm, - at least two individual electrical contacts contacting the layer of the photoconductive material , and - a cover layer deposited on the photoconductive material , wherein the cover layer is an amorphous layer comprising at least one metal-containing compound , wherein the cover layer is a conformal layer with respect to an adjacent surface of the layer of the photoconductive material in a manner that a thickness of the conformal layer follows the surface of the photoconductive material within a deviation of ± 50 nm over at least 90% of a surface of the cover layer .
A method of obtaining and maintaining a neural plate stem cell (NPSC) in a pre-patterning state, comprising: (a) providing a pluripotent cell or primitive neurectodermal cell; (b) culturing the cell in the presence of FGF4; (c) thereby obtaining a neural plate stem cell, and (d) maintaining the neural plate stem cell in a pre-patterning state by culture in the presence of FGF4, wherein the "pre-patterning state" is a state where the NPSC expresses the marker Brn-2 and does not express the neurogenic bHLH factors Ngn2 and MASH1. (a) providing a pluripotent cell or primitive neurectodermal cell; (b) culturing the cell in the presence of FGF4; (c) thereby obtaining a neural plate stem cell, and (d) maintaining the neural plate stem cell in a pre-patterning state by culture in the presence of FGF4, wherein the "pre-patterning state" is a state where the NPSC expresses the marker Brn-2 and does not express the neurogenic bHLH factors Ngn2 and MASH1.
Turbine for expanding a working fluid in an organic Rankine cycle, comprising a casing , inside of which at least a statoric group is accommodated, a turbine shaft contained inside a tube member and carrying at least a rotoric group, contained within the casing , wherein said tube member and said casing are each other axially pushed and radially centered, said turbine being characterized in that - the centering between the tube member and the casing is made by means of a plurality of centering tabs (40, 50") housed in corresponding centering bushings , in turn accommodated in corresponding seats formed in the casing and in the tube member , and in that - said tabs allow a relative displacement in the radial direction but not in the tangential direction of the tube member with respect to the casing , and one of said centering bushings is provided with a slot , radially oriented for the centering tab (40,50"). - the centering between the tube member and the casing is made by means of a plurality of centering tabs (40, 50") housed in corresponding centering bushings , in turn accommodated in corresponding seats formed in the casing and in the tube member , and in that - said tabs allow a relative displacement in the radial direction but not in the tangential direction of the tube member with respect to the casing , and one of said centering bushings is provided with a slot , radially oriented for the centering tab (40,50").
An apparatus, comprising: a receiving unit , configured to receive first indication information and second indication information from a network device, wherein the first indication information indicates a quantity of phase tracking reference signal, PTRS, chunks mapped to one discrete fourier transform-spread-orthogonal frequency division multiplexing, DFT-s-OFDM, symbol, the second indication information is used for determining an orthogonal cover code, OCC, for performing code division multiplexing, CDM, on the PTRS chunks; a processing unit , configured to perform the CDM on the PTRS chunks and map the PTRS chunks to one or more DFT-s-OFDM symbols; and a sending unit ,configured to output the one or more DFT-s-OFDM symbols. a receiving unit , configured to receive first indication information and second indication information from a network device, wherein the first indication information indicates a quantity of phase tracking reference signal, PTRS, chunks mapped to one discrete fourier transform-spread-orthogonal frequency division multiplexing, DFT-s-OFDM, symbol, the second indication information is used for determining an orthogonal cover code, OCC, for performing code division multiplexing, CDM, on the PTRS chunks; a processing unit , configured to perform the CDM on the PTRS chunks and map the PTRS chunks to one or more DFT-s-OFDM symbols; and a sending unit ,configured to output the one or more DFT-s-OFDM symbols.
Method for configuring an image recording system of a tyre testing apparatus, including the steps of: - modifying the configuration settings of the image recording system multiple times, - producing at least one image recording of a tyre to be tested for each of the different configuration settings of the image recording system , - using a data processing apparatus to determine, on the basis of the image recordings produced for the tyre to be tested in the different configuration settings of the image recording system , suitable configuration settings of the image recording system for the tyre to be tested, characterized by - the use of the evaluation of the image recordings to identify the tyre to be tested, - the assignment of determined suitable configuration settings for the identified tyre to the identified tyre and - the storage of the determined suitable configuration settings for the identified tyre . - modifying the configuration settings of the image recording system multiple times, - producing at least one image recording of a tyre to be tested for each of the different configuration settings of the image recording system , - using a data processing apparatus to determine, on the basis of the image recordings produced for the tyre to be tested in the different configuration settings of the image recording system , suitable configuration settings of the image recording system for the tyre to be tested, characterized by - the use of the evaluation of the image recordings to identify the tyre to be tested, - the assignment of determined suitable configuration settings for the identified tyre to the identified tyre and - the storage of the determined suitable configuration settings for the identified tyre .