mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless communication by a user equipment, UE, the method comprising: receiving a control message that indicates a reassignment of resources of a set of resources allocated to the UE for mobile broadband, MBB, communications, wherein the control message is received in a control region (3 10-a; 3 10-b) of a transmission time interval, TTI, (315-b; 315-c) of a first duration and indicates reassigned resources of a prior TTI (315-a) of the first duration, wherein the control message comprises first downlink control information, DCI, that indicates the reassigned resources of the prior TTI (315-a), and wherein the reassigned resources are allocated to the UE for another type of communications having TTIs of a second duration that is shorter than the first duration; receiving radio resource control, RRC, signaling that indicates one or more aggregation levels for the first DCI; and attempting to decode data from resources of the set of resources based at least in part on the control message , wherein the attempting to decode data comprises performing blind decodes on a set of decoding candidates for the first DCI, the set of decoding candidates being defined by the one or more aggregation levels that are based at least in part on a link condition; and monitoring the control region for the first DCI and for a second DCI that indicates an assignment of uplink or downlink resources, wherein a first number of decoding candidates for the first DCI is less than a second number of decoding candidates for the second DCI. receiving a control message that indicates a reassignment of resources of a set of resources allocated to the UE for mobile broadband, MBB, communications, wherein the control message is received in a control region (3 10-a; 3 10-b) of a transmission time interval, TTI, (315-b; 315-c) of a first duration and indicates reassigned resources of a prior TTI (315-a) of the first duration, wherein the control message comprises first downlink control information, DCI, that indicates the reassigned resources of the prior TTI (315-a), and wherein the reassigned resources are allocated to the UE for another type of communications having TTIs of a second duration that is shorter than the first duration; receiving radio resource control, RRC, signaling that indicates one or more aggregation levels for the first DCI; and attempting to decode data from resources of the set of resources based at least in part on the control message , wherein the attempting to decode data comprises performing blind decodes on a set of decoding candidates for the first DCI, the set of decoding candidates being defined by the one or more aggregation levels that are based at least in part on a link condition; and monitoring the control region for the first DCI and for a second DCI that indicates an assignment of uplink or downlink resources, wherein a first number of decoding candidates for the first DCI is less than a second number of decoding candidates for the second DCI.
An optical sorter comprising: a chute arranged in an inclined manner to allow sorting targets to flow downward; optical detection means for detecting the sorting targets at a detection position; and ejector means for sorting and removing the sorting targets based on a result of detection of the optical detection means, wherein: the optical detection means includes illumination means for illuminating the detection position, and imaging means for imaging the sorting targets at the detection position, the chute is provided with an optical detection slit in a direction orthogonal to a flow-down direction of the sorting targets, a slit width of the optical detection slit is adjustable, and the optical detection means illuminates the sorting targets flowing downward on the chute with the illumination means at a position where the optical detection slit is provided as the detection position, and images the sorting targets illuminated by the illumination means with the imaging means. a chute arranged in an inclined manner to allow sorting targets to flow downward; optical detection means for detecting the sorting targets at a detection position; and ejector means for sorting and removing the sorting targets based on a result of detection of the optical detection means, wherein: the optical detection means includes illumination means for illuminating the detection position, and imaging means for imaging the sorting targets at the detection position, the chute is provided with an optical detection slit in a direction orthogonal to a flow-down direction of the sorting targets, a slit width of the optical detection slit is adjustable, and the optical detection means illuminates the sorting targets flowing downward on the chute with the illumination means at a position where the optical detection slit is provided as the detection position, and images the sorting targets illuminated by the illumination means with the imaging means. the optical detection means includes illumination means for illuminating the detection position, and imaging means for imaging the sorting targets at the detection position, illumination means for illuminating the detection position, and imaging means for imaging the sorting targets at the detection position, the chute is provided with an optical detection slit in a direction orthogonal to a flow-down direction of the sorting targets, a slit width of the optical detection slit is adjustable, and the optical detection means illuminates the sorting targets flowing downward on the chute with the illumination means at a position where the optical detection slit is provided as the detection position, and images the sorting targets illuminated by the illumination means with the imaging means.
Motor vehicle latch comprising at least one catch , one pawl , and one latch plate , the catch and the pawl being rotatably mounted on the latch plate , the latch plate having at least two mounting openings for mounting the motor vehicle latch , the latch plate having a run-in slot for a latch holder and an edge bend opposite the run-in slot being provided on the latch plate , which edge bend is semicircular at least in an end portion opposite the run-in slot , characterized in that the mounting openings are positioned opposite one another, so that a connecting line (V) extends between the mounting openings over the latch plate , and in that the edge bend extends from one mounting opening to the other mounting opening over a region of an end of the latch plate that is oriented counter to the latch holder .
A method for the differential diagnosis of pernicious stroke sub-type, wherein pernicious stroke sub-type comprises haemorrhagic stroke, fatal ischemic stroke or haemorrhagic transformation, in a suspected stroke patient comprising ≤ 24 hours from admission or symptom onset measuring the amount of glial fibrillary acidic protein in a biological sample taken from the patient and subjecting the patient to a brain scan in which - a high glial fibrillary acidic protein level and a brain scan positive for haemorrhagic stroke ≤ 24 hours from admission or symptom onset indicates haemorrhagic stroke - a high glial fibrillary acidic protein level and a brain scan negative for haemorrhagic stroke ≤ 24 hours from admission or symptom onset indicates a risk of fatal ischemic stroke - a normal glial fibrillary acidic protein level and brain scan negative for haemorrhagic stroke on admission, with a second biological sample taken from the patient at ≥ 24 hours from admission or symptom onset in which there is a high glial fibrillary acidic protein level, indicates haemorrhagic transformation. - a high glial fibrillary acidic protein level and a brain scan positive for haemorrhagic stroke ≤ 24 hours from admission or symptom onset indicates haemorrhagic stroke - a high glial fibrillary acidic protein level and a brain scan negative for haemorrhagic stroke ≤ 24 hours from admission or symptom onset indicates a risk of fatal ischemic stroke - a normal glial fibrillary acidic protein level and brain scan negative for haemorrhagic stroke on admission, with a second biological sample taken from the patient at ≥ 24 hours from admission or symptom onset in which there is a high glial fibrillary acidic protein level, indicates haemorrhagic transformation.
A method for determining a system operating mode, performed by a terminal , and the method comprising: obtaining first information, wherein the first information is information detected or received by the terminal ; and determining a system operating mode of the terminal in a first band based on the first information, wherein the system operating mode comprises a licensed mode and an unlicensed mode; characterized in that the first information comprises related information of a synchronization signal block, SSB, detected by the terminal in initial access on the first band, wherein related information of the SSB when the first band is allocated as a licensed band is different from relevant information of the SSB when the first band is allocated as an unlicensed band; wherein the related information of the SSB comprises at least one of following: a frequency location of a synchronization raster of the SSB; a channel number of the SSB; and a time domain location of the SSB. obtaining first information, wherein the first information is information detected or received by the terminal ; and determining a system operating mode of the terminal in a first band based on the first information, wherein the system operating mode comprises a licensed mode and an unlicensed mode; characterized in that the first information comprises related information of a synchronization signal block, SSB, detected by the terminal in initial access on the first band, wherein related information of the SSB when the first band is allocated as a licensed band is different from relevant information of the SSB when the first band is allocated as an unlicensed band; wherein the related information of the SSB comprises at least one of following: a frequency location of a synchronization raster of the SSB; a channel number of the SSB; and a time domain location of the SSB. a frequency location of a synchronization raster of the SSB; a channel number of the SSB; and a time domain location of the SSB.
A polyarylene sulfide in which at least part of end groups of the main chain of the polyarylene sulfide is hydroxyl group (-OH), wherein the polyarylene sulfide contains iodine bonded to its main chain and free iodine, and the content of iodine bonded to the main chain and free iodine is 10 to 10,000 ppmw., and wherein the polyarylene sulfide shows a peak in the range of 3300 to 3600cm -1 , in a FT-IR spectrum, and the relative height intensity of the peak in the range of 3300 to 3600cm -1 is 0.01 to 3%, when the height of the ring stretch peak shown in the range of 1400 to 1600cm -1 was assumed as the intensity of 100%, in the FT-IR spectrum. wherein the polyarylene sulfide contains iodine bonded to its main chain and free iodine, and the content of iodine bonded to the main chain and free iodine is 10 to 10,000 ppmw., and wherein the polyarylene sulfide shows a peak in the range of 3300 to 3600cm -1 , in a FT-IR spectrum, and the relative height intensity of the peak in the range of 3300 to 3600cm -1 is 0.01 to 3%, when the height of the ring stretch peak shown in the range of 1400 to 1600cm -1 was assumed as the intensity of 100%, in the FT-IR spectrum.
A method for operating a measuring system having a level sensor with at least one measuring electrode which defines a level threshold (S) on a container wall of a container , having the following steps: - Measuring a first capacitance value (C 1 ) of a capacitance of the at least one measuring electrode with respect to a reference potential at a first measuring frequency (f1); - Measuring a second capacitance value (C 2 ) of a capacitance of the at least one measuring electrode with respect to a reference potential at a second measuring frequency (f2), the second measuring frequency (f2) being higher than the first measuring frequency (f1), characterized in that - signaling an adhesion to the container wall in the region of the at least one measuring electrode as a function of the first and the second capacitance value (C 1 , C 2 ) and a second capacitance threshold value (C S2 ) which depends on the first or on the second capacitance value (C 1 , C 2 ) if the second capacitance value (C 2 ) is lower than the second capacitance threshold value (C S2 ) and if the first capacitance value (C 1 ) is higher than a first predetermined capacitance threshold value (C S1 ); wherein the second capacitance threshold value (C S2 ) corresponds to a predetermined proportion of the first capacitance value (C 1 ), in particular to a product of the first capacitance value (C 1 ) with a factor smaller than 1, in particular with a factor between 0.5 and 1. - Measuring a first capacitance value (C 1 ) of a capacitance of the at least one measuring electrode with respect to a reference potential at a first measuring frequency (f1); - Measuring a second capacitance value (C 2 ) of a capacitance of the at least one measuring electrode with respect to a reference potential at a second measuring frequency (f2), the second measuring frequency (f2) being higher than the first measuring frequency (f1), - signaling an adhesion to the container wall in the region of the at least one measuring electrode as a function of the first and the second capacitance value (C 1 , C 2 ) and a second capacitance threshold value (C S2 ) which depends on the first or on the second capacitance value (C 1 , C 2 ) if the second capacitance value (C 2 ) is lower than the second capacitance threshold value (C S2 ) and if the first capacitance value (C 1 ) is higher than a first predetermined capacitance threshold value (C S1 ); wherein the second capacitance threshold value (C S2 ) corresponds to a predetermined proportion of the first capacitance value (C 1 ), in particular to a product of the first capacitance value (C 1 ) with a factor smaller than 1, in particular with a factor between 0.5 and 1.
An image forming apparatus or a multifunctional peripheral, comprising: an electrically conductive frame configured to be grounded; a base fixed to the frame and having a contact that is electrically connected to the frame , an image forming unit ; a print head ; a holder that supports the print head ; an electrically conductive urging member between the print head and the holder that urges the print head toward the image forming unit ; and an electrically conductive arm that extends from the urging member and is integrally formed with the urging member , wherein the arm floats when the print head is separated from the image forming unit , and the arm contacts the contact and is electrically connected to the frame when the print head contacts the image forming unit . an electrically conductive frame configured to be grounded; a base fixed to the frame and having a contact that is electrically connected to the frame , an image forming unit ; a print head ; a holder that supports the print head ; an electrically conductive urging member between the print head and the holder that urges the print head toward the image forming unit ; and an electrically conductive arm that extends from the urging member and is integrally formed with the urging member , wherein the arm floats when the print head is separated from the image forming unit , and the arm contacts the contact and is electrically connected to the frame when the print head contacts the image forming unit .
A fluorinated copolymer comprising a first repeating unit, a second repeating unit, and having a backbone comprising a fluorinated and cyclic structure from the first repeating unit; the second repeating unit comprises a pendant amide functionality and has the following structure: wherein X is H or an alkyl group; R 1 is H, an alkyl group, or an alkyl group that together with X form a cyclic ring with the proviso that X is not H.
A method performed by a 5G core network, 5GC, node to provide dual connectivity in a new radio telecommunications system, the method comprising: allocating two sets of tunnel endpoint identifiers, TEIDs; sending the allocated TEIDs to a master NG-RAN, M-NG-RAN, node for transporting a Protocol Data Unit, PDU, session that can be split; and receiving , from the M-NG-RAN node, feedback on the PDU session splitting information and transport layer information for the M-NG-RAN node and a secondary NG-RAN, S-NG-RAN, node. allocating two sets of tunnel endpoint identifiers, TEIDs; sending the allocated TEIDs to a master NG-RAN, M-NG-RAN, node for transporting a Protocol Data Unit, PDU, session that can be split; and receiving , from the M-NG-RAN node, feedback on the PDU session splitting information and transport layer information for the M-NG-RAN node and a secondary NG-RAN, S-NG-RAN, node.
A catheter comprising: an elongated catheter body having a proximal end, a distal end and a lumen; and an electrode assembly mounted at the distal end of the catheter body and comprising at least two spines and an inflatable balloon in fluid communication with the elongated catheter body lumen, each spine having at least one electrode and a proximal end attached at the distal end of the catheter body and wherein each spine has a collapsed arrangement in which the spines are arranged generally along a longitudinal axis of the catheter body and an expanded arrangement in which at least a portion of each spine bows radially outwards from the longitudinal axis, such that the inflatable balloon is disposed within the spines and the electrode assembly has a non-projecting distal portion when in the expanded arrangement, wherein the non-projecting distal portion of the electrode assembly is formed by a portion of the balloon having a distal end being inverted within the balloon when in the expanded arrangement. an elongated catheter body having a proximal end, a distal end and a lumen; and an electrode assembly mounted at the distal end of the catheter body and comprising at least two spines and an inflatable balloon in fluid communication with the elongated catheter body lumen, each spine having at least one electrode and a proximal end attached at the distal end of the catheter body and wherein each spine has a collapsed arrangement in which the spines are arranged generally along a longitudinal axis of the catheter body and an expanded arrangement in which at least a portion of each spine bows radially outwards from the longitudinal axis, such that the inflatable balloon is disposed within the spines and the electrode assembly has a non-projecting distal portion when in the expanded arrangement, wherein the non-projecting distal portion of the electrode assembly is formed by a portion of the balloon having a distal end being inverted within the balloon when in the expanded arrangement.
Vertical formwork comprising at least - two formwork panels arranged facing one another, - an anchor fixed to each of said formwork panels respectively, and - a tie rod fixed to each anchor of each of the formwork panels , - each anchor comprising ∘ a housing receiving a part of the tie rod fixing the two formwork panels , the housing comprising a tubular extension , and ∘ sealing means sealing the anchor with respect to the formwork panel in which it is fixed and with respect to the tie rod housed in the housing of the anchor , characterized in that ∘ the sealing means comprise a single sealing element , said sealing element being a rubber gasket which is arranged at one end of the tubular extension of the anchor , and ∘ said sealing element sealing both the anchor with respect to the formwork panel in which it is fixed and the anchor with respect to the tie rod housed in the housing of the anchor , ∘ wherein the sealing element comprises a sealing ring , said sealing ring comprising an outer wall supported against the formwork panel , and ∘ wherein the sealing element comprises an end ring supported against the tie rod housed in the anchor , such that the anchor is sealed with respect to the tie rod . - two formwork panels arranged facing one another, - an anchor fixed to each of said formwork panels respectively, and - a tie rod fixed to each anchor of each of the formwork panels , - each anchor comprising ∘ a housing receiving a part of the tie rod fixing the two formwork panels , the housing comprising a tubular extension , and ∘ sealing means sealing the anchor with respect to the formwork panel in which it is fixed and with respect to the tie rod housed in the housing of the anchor , ∘ a housing receiving a part of the tie rod fixing the two formwork panels , the housing comprising a tubular extension , and ∘ sealing means sealing the anchor with respect to the formwork panel in which it is fixed and with respect to the tie rod housed in the housing of the anchor , ∘ the sealing means comprise a single sealing element , said sealing element being a rubber gasket which is arranged at one end of the tubular extension of the anchor , and ∘ said sealing element sealing both the anchor with respect to the formwork panel in which it is fixed and the anchor with respect to the tie rod housed in the housing of the anchor , ∘ wherein the sealing element comprises a sealing ring , said sealing ring comprising an outer wall supported against the formwork panel , and ∘ wherein the sealing element comprises an end ring supported against the tie rod housed in the anchor , such that the anchor is sealed with respect to the tie rod .
A train comprising a first air pipe disposed through the whole train, a second air pipe for transmitting a brake command of a traction car , and a brake control device for controlling a brake of the train, characterized by the train further comprising a three-way valve having two inputs and an output, whereby the valve selects one of the two inputs and outputs air to the output, wherein the first air pipe connects to the first input, the second air pipe connects to the second input, and a pneumatic-to-electric transducer that is included in the brake control device and is for transducing an air pressure to an electric signal connects to the output, wherein in a case where the train drives itself using electric power, the pneumatic-to-electric transducer transduces an air pressure of the first air pipe into an electric signal, and in a case where the train is pulled by the traction car, the pneumatic-to-electric transducer transduces an air pressure of the second air pipe into an electric signal.
A method of manufacturing a tower structure , the method comprising: providing an additive printing device having at least one printer head atop a support surface ; positioning a pre-fabricated component adjacent to the support surface , the pre-fabricated component being constructed of a composite material reinforced with a plurality of reinforcement members , wherein portions of the plurality of reinforcement members protrude from the composite material ; and printing and depositing, via the at least one printer head , a cementitious material onto the support surface to build up the tower structure layer by layer around the pre-fabricated component , wherein the portions of the plurality of reinforcement members that protrude from the composite material reinforce the cementitious material around the pre-fabricated component . providing an additive printing device having at least one printer head atop a support surface ; positioning a pre-fabricated component adjacent to the support surface , the pre-fabricated component being constructed of a composite material reinforced with a plurality of reinforcement members , wherein portions of the plurality of reinforcement members protrude from the composite material ; and printing and depositing, via the at least one printer head , a cementitious material onto the support surface to build up the tower structure layer by layer around the pre-fabricated component , wherein the portions of the plurality of reinforcement members that protrude from the composite material reinforce the cementitious material around the pre-fabricated component .