mhurhangee/patent-ind-claim-en huggingface dataset:
A method for operating an industrial truck having a fork comprising at least two fork arms , a fork arm camera , a monitor, and a processing unit for reading and processing the image data captured by the fork arm camera and for producing and transmitting processed image data shown on the monitor, wherein the fork arm camera is disposed on the fork such that at least part of a tip of at least one of the two fork arms is present in the field of view of the fork arm camera , characterized in that the processing unit performs the following steps: capturing the at least one tip of the at least one fork arm in the captured image data, calculating at least one marking indicating a position of the fork , and reproducing on the monitor the image data captured by the fork arm camera superimposed with the marking . capturing the at least one tip of the at least one fork arm in the captured image data, calculating at least one marking indicating a position of the fork , and reproducing on the monitor the image data captured by the fork arm camera superimposed with the marking .
An aircraft comprising: a foldable wing including a fixed wing portion , a foldable wing portion and a hinge to pivotally couple the foldable wing portion relative to the fixed wing portion , the hinge including: a wing transition portion including wing hinge ribs (602-608) and wing stub ribs (610-616, 1216), respective ones of the wing hinge ribs (602-608) coupled to corresponding respective ones of the wing stub ribs (610-616, 1216); and a tip transition portion including tip hinge ribs (620-630), respective ends of the tip hinge ribs (620-630) positioned between corresponding respective ones of the wing hinge ribs (602-608) and the wing stub ribs (610-616, 1216), characterized in that : the wing transition portion supports a first stop pad and the tip transition portion supports a second stop pad ; the first stop pad is configured to engage the second stop pad when the foldable aircraft wing is in an unfolded position, engagement between the first and second stop pads providing a load path between the foldable wing tip and the fixed wing portion . a wing transition portion including wing hinge ribs (602-608) and wing stub ribs (610-616, 1216), respective ones of the wing hinge ribs (602-608) coupled to corresponding respective ones of the wing stub ribs (610-616, 1216); and a tip transition portion including tip hinge ribs (620-630), respective ends of the tip hinge ribs (620-630) positioned between corresponding respective ones of the wing hinge ribs (602-608) and the wing stub ribs (610-616, 1216), characterized in that : the wing transition portion supports a first stop pad and the tip transition portion supports a second stop pad ; the first stop pad is configured to engage the second stop pad when the foldable aircraft wing is in an unfolded position, engagement between the first and second stop pads providing a load path between the foldable wing tip and the fixed wing portion . the wing transition portion supports a first stop pad and the tip transition portion supports a second stop pad ; the first stop pad is configured to engage the second stop pad when the foldable aircraft wing is in an unfolded position, engagement between the first and second stop pads providing a load path between the foldable wing tip and the fixed wing portion .
A method performed in a wireless transmit/receive unit, WTRU, in communication with at least one eNode-B operating in a frequency band, the method comprising: receiving, by the WTRU, from an eNode-B, configuration information including a plurality of sets of resource elements, REs, wherein each set of REs includes REs for a Channel-State-Information Reference Signal, CSI-RS, configuration; further comprising the steps of: receiving, by the WTRU, from an eNode-B, a measurement request in a Downlink Control Information, DCI, signal, in a subframe, for performing a measurement in the subframe and reporting the measurement, wherein the measurement request indicates at least one set of the plurality of sets of REs to use in the subframe for performing the measurement; performing, by the WTRU, the measurement in the subframe according to the measurement request; and transmitting, by the WTRU, to the eNode-B, a measurement report based on the performed measurement. receiving, by the WTRU, from an eNode-B, a measurement request in a Downlink Control Information, DCI, signal, in a subframe, for performing a measurement in the subframe and reporting the measurement, wherein the measurement request indicates at least one set of the plurality of sets of REs to use in the subframe for performing the measurement; performing, by the WTRU, the measurement in the subframe according to the measurement request; and transmitting, by the WTRU, to the eNode-B, a measurement report based on the performed measurement.
Corrugated board system for producing corrugated board, having a) an intermediate-web dispensing device for dispensing an intermediate web ; b) a cover-web dispensing device for dispensing a cover web ; c) a printing assembly, disposed downstream of the cover-web dispensing device , for printing the cover web , wherein the printing assembly is at least in part disposed above the cover-web dispensing device ; d) a device , disposed downstream of the intermediate-web dispensing device and the printing assembly, for producing from the intermediate web and the cover web a corrugated board web laminated on one side; e) a lamination-web dispensing device for dispensing a lamination web ; and f) a connecting device for connecting the corrugated board web laminated on one side and the lamination web to one another while forming an at least three-ply corrugated board web , characterized in that g) the printing assembly at least in regions extends over the cover-web dispensing device ; h) the corrugated board system comprises at least one support frame (62; 62a) for at least in part supporting the printing assembly; and i) the at least one support frame (62; 62a) is configured so as to be separate from a corrugated board system bridge which supports an accumulator device for accumulating the corrugated board web laminated on one side. a) an intermediate-web dispensing device for dispensing an intermediate web ; b) a cover-web dispensing device for dispensing a cover web ; c) a printing assembly, disposed downstream of the cover-web dispensing device , for printing the cover web , wherein the printing assembly is at least in part disposed above the cover-web dispensing device ; d) a device , disposed downstream of the intermediate-web dispensing device and the printing assembly, for producing from the intermediate web and the cover web a corrugated board web laminated on one side; e) a lamination-web dispensing device for dispensing a lamination web ; and f) a connecting device for connecting the corrugated board web laminated on one side and the lamination web to one another while forming an at least three-ply corrugated board web , characterized in that g) the printing assembly at least in regions extends over the cover-web dispensing device ; h) the corrugated board system comprises at least one support frame (62; 62a) for at least in part supporting the printing assembly; and i) the at least one support frame (62; 62a) is configured so as to be separate from a corrugated board system bridge which supports an accumulator device for accumulating the corrugated board web laminated on one side.
Current-conducting structure for use in an energy storage system of a vehicle, wherein the current-conducting structure is at least in some regions cast from a metal in which a multiplicity of closed pores are formed, wherein the current-conducting structure has at least in some regions a pore density of at least 5 pores/cm 2 , wherein at least a first group of pores comprises pores with a size of 10 μm to 500 μm, wherein the pores are distributed inhomogeneously in the current-conducting structure , to be precise in such a way that the pores are only arranged in an inner, centrally located region of the current-conducting structure , wherein the current-conducting structure has at least in the region of the pores a thickness of at least 5 mm, and wherein the pores have at least partially an anisotropic orientation, to be precise in such a way that at least some of the pores have a nonround cross section, the longitudinal axis of which is oriented in the current-conducting direction (S), wherein the structure is formed as a conductor rail and/or a bridge connector of the energy storage system, preferably a starter battery of a vehicle. wherein the current-conducting structure has at least in some regions a pore density of at least 5 pores/cm 2 , wherein at least a first group of pores comprises pores with a size of 10 μm to 500 μm, wherein the pores are distributed inhomogeneously in the current-conducting structure , to be precise in such a way that the pores are only arranged in an inner, centrally located region of the current-conducting structure , wherein the current-conducting structure has at least in the region of the pores a thickness of at least 5 mm, and wherein the pores have at least partially an anisotropic orientation, to be precise in such a way that at least some of the pores have a nonround cross section, the longitudinal axis of which is oriented in the current-conducting direction (S), wherein the structure is formed as a conductor rail and/or a bridge connector of the energy storage system, preferably a starter battery of a vehicle.
An apparatus for estimating blood pressure, the apparatus comprising: a bio-signal measurer configured to measure a bio-signal from a user; and a processor configured to extract cardio vascular features by extracting a cardiac output, CO, feature and a total peripheral resistance, TPR, feature from the bio-signal at an extraction time, estimate changes in the CO feature and the TPR feature which have occurred during a time period between the extraction time and a calibration time at which the CO feature and the TPR feature are calibrated, and estimate an amount of change in blood pressure based on the changes in the CO feature and the TPR feature, characterized in that the processor is further configured to calculate a CO difference between an initial value of the CO feature at the calibration time and a changed value of the CO feature at the extraction time, calculate a TPR difference between an initial value of the TPR feature at the calibration time and a changed value of the TPR feature at the extraction time, calculate a product of the CO difference and the TPR difference, apply a weight (i) to each of the CO difference, the TPR difference, and the product of the CO difference and the TPR difference or (ii) to each of respective change rates obtained by normalizing each of the CO difference, the TPR difference, and the product of the CO difference and the TPR difference, linearly combine the weighting results, and estimate the amount of change in the blood pressure by applying a scaling factor to the linear combination result. a bio-signal measurer configured to measure a bio-signal from a user; and a processor configured to extract cardio vascular features by extracting a cardiac output, CO, feature and a total peripheral resistance, TPR, feature from the bio-signal at an extraction time, estimate changes in the CO feature and the TPR feature which have occurred during a time period between the extraction time and a calibration time at which the CO feature and the TPR feature are calibrated, and estimate an amount of change in blood pressure based on the changes in the CO feature and the TPR feature, characterized in that the processor is further configured to calculate a CO difference between an initial value of the CO feature at the calibration time and a changed value of the CO feature at the extraction time, calculate a TPR difference between an initial value of the TPR feature at the calibration time and a changed value of the TPR feature at the extraction time, calculate a product of the CO difference and the TPR difference, apply a weight (i) to each of the CO difference, the TPR difference, and the product of the CO difference and the TPR difference or (ii) to each of respective change rates obtained by normalizing each of the CO difference, the TPR difference, and the product of the CO difference and the TPR difference, linearly combine the weighting results, and estimate the amount of change in the blood pressure by applying a scaling factor to the linear combination result.
A deicing and traction matrix providing immediate and persistent action comprising: at least one substrate; and at least one melting agent; wherein the at least one substrate is impregnated with at least one melting agent to produce the deicing and traction matrix, wherein the substrate is selected from the group consisting of bark, bark chips, crushed bark, exploded bark and combinations thereof; wherein the at least one melting agent is a salt or a non-salt; where said salt is selected from the group consisting of calcium acetate, calcium chloride, calcium magnesium acetate, magnesium acetate, magnesium chloride, potassium chloride, potassium acetate, sodium chloride, sodium acetate, citric acid salt, carbonate salt, and mixtures thereof; and wherein said non-salt is selected from the group consisting of urea, sugar and mixtures thereof. at least one melting agent; wherein the at least one substrate is impregnated with at least one melting agent to produce the deicing and traction matrix, wherein the substrate is selected from the group consisting of bark, bark chips, crushed bark, exploded bark and combinations thereof; wherein the at least one melting agent is a salt or a non-salt; where said salt is selected from the group consisting of calcium acetate, calcium chloride, calcium magnesium acetate, magnesium acetate, magnesium chloride, potassium chloride, potassium acetate, sodium chloride, sodium acetate, citric acid salt, carbonate salt, and mixtures thereof; and wherein said non-salt is selected from the group consisting of urea, sugar and mixtures thereof.
A system for conveying a powder-gas mixture comprising a diaphragm pump having a conveying chamber enclosing a work volume (V 1 , V 2 ), at least one deflectable diaphragm , which can be brought into a suction position and a pump position and which delimits the conveying chamber on one side, an inlet valve for the powder-gas mixture arranged on a suction side of the diaphragm pump , an outlet valve for the powder-gas mixture arranged on a pressure side of the diaphragm pump , and a gas feed for introducing a gas into the conveying chamber via an inlet, wherein the inlet is oriented in such a way that gas can be applied to regions of the conveying chamber in which deposits of the conveyed powder can form; a suction line at the suction side of the diaphragm pump ; a pressure line on the pressure side of the diaphragm pump ; characterized in that the suction line is provided with a length of between 0.01 m and 1 m, that a length of the pressure line is at least ten times the length of the suction line, wherein furthermore the length of the pressure line exceeds a diameter of the pressure line by a factor of at least 2000.
A user equipment operating a transmission protocol for uplink data packet transmission in a communication system, wherein the user equipment comprises: a receiver operative to receive a Fast Retransmission Indicator, referred to as FRI, wherein the FRI indicates whether or not a base station requests a retransmission of a previously transmitted data packet; and a transmitter operative to retransmit the data packet using the same redundancy version as already used for the previous transmission of the data packet, wherein the FRI indicates that the retransmission is to be performed with additional transmission parameters identical to same used for the previous transmission of the data packet; and wherein the transmitter is further operative to use additional transmission parameters identical to same used for the previous transmission of the data packet for retransmitting the data packet, and wherein the additional identical transmission parameter to be used for retransmitting the data packet is at least the scrambling code of the previously transmitted data packet, and wherein a retransmission of a data packet can also be triggered by a Downlink Control Information, referred to as DCI, and/or a HARQ Indicator, referred to as HI; wherein a first time period between the previous transmission of the data packet and the reception of the FRI, and/or a second time period between the reception of the FRI and the retransmission of the data packet is smaller than a third time period between reception of a DCI or HI and its corresponding retransmission of the data packet. a receiver operative to receive a Fast Retransmission Indicator, referred to as FRI, wherein the FRI indicates whether or not a base station requests a retransmission of a previously transmitted data packet; and a transmitter operative to retransmit the data packet using the same redundancy version as already used for the previous transmission of the data packet, wherein the FRI indicates that the retransmission is to be performed with additional transmission parameters identical to same used for the previous transmission of the data packet; and wherein the transmitter is further operative to use additional transmission parameters identical to same used for the previous transmission of the data packet for retransmitting the data packet, and wherein the additional identical transmission parameter to be used for retransmitting the data packet is at least the scrambling code of the previously transmitted data packet, and wherein a retransmission of a data packet can also be triggered by a Downlink Control Information, referred to as DCI, and/or a HARQ Indicator, referred to as HI; wherein a first time period between the previous transmission of the data packet and the reception of the FRI, and/or a second time period between the reception of the FRI and the retransmission of the data packet is smaller than a third time period between reception of a DCI or HI and its corresponding retransmission of the data packet.
A service information pushing method, comprising: obtaining, by a radio access point AP, service information provided by a service provider; adding the service information to a beacon frame; and broadcasting the beacon frame; and before the broadcasting the beacon frame, further comprising: adding a time interval indication parameter to a currently broadcast beacon frame, wherein the time interval indication parameter is used to indicate to a terminal a broadcast interval between a next beacon frame that carries the service information and the currently broadcast beacon frame, wherein the method further comprises, before broadcasting the beacon frame, adding a service information indicator to the beacon frame that carries the service information, wherein the service information indicator is used to indicate to a terminal that the beacon frame carries the service information, wherein the time interval indication parameter enables the terminal to selectively receive beacon frames that carry service information. obtaining, by a radio access point AP, service information provided by a service provider; adding the service information to a beacon frame; and broadcasting the beacon frame; and before the broadcasting the beacon frame, further comprising: adding a time interval indication parameter to a currently broadcast beacon frame, wherein the time interval indication parameter is used to indicate to a terminal a broadcast interval between a next beacon frame that carries the service information and the currently broadcast beacon frame, wherein the method further comprises, before broadcasting the beacon frame, adding a service information indicator to the beacon frame that carries the service information, wherein the service information indicator is used to indicate to a terminal that the beacon frame carries the service information, wherein the time interval indication parameter enables the terminal to selectively receive beacon frames that carry service information. adding a time interval indication parameter to a currently broadcast beacon frame, wherein the time interval indication parameter is used to indicate to a terminal a broadcast interval between a next beacon frame that carries the service information and the currently broadcast beacon frame, wherein the method further comprises, before broadcasting the beacon frame, adding a service information indicator to the beacon frame that carries the service information, wherein the service information indicator is used to indicate to a terminal that the beacon frame carries the service information, wherein the time interval indication parameter enables the terminal to selectively receive beacon frames that carry service information.
A method comprising: receiving a fault identification associated with a photovoltaic, PV, system, wherein the fault identification comprises a timestamp and a fault type; retrieving a mapping of faults and retrieving a set of fault processing rules; calculating an impact value based on the fault identification and the mapping, wherein the impact value is an output of a formula: L = e power , voltage , current ⋅ t time − L root cause faults wherein the function e() takes as input electrical parameters of power, voltage, or current associated with the fault identification, and wherein the function t() takes as input the timestamp indicating when a fault associated with the fault identification was active or is computed to be active in a future, and wherein the function L(root cause faults) outputs impact values calculated based on at least one root cause fault identification determined from the fault identification and the mapping; determining, using the set of fault processing rules, a notification based on the fault identification and the impact value; and presenting, using a user interface, the notification. receiving a fault identification associated with a photovoltaic, PV, system, wherein the fault identification comprises a timestamp and a fault type; retrieving a mapping of faults and retrieving a set of fault processing rules; calculating an impact value based on the fault identification and the mapping, wherein the impact value is an output of a formula: L = e power , voltage , current ⋅ t time − L root cause faults wherein the function e() takes as input electrical parameters of power, voltage, or current associated with the fault identification, and wherein the function t() takes as input the timestamp indicating when a fault associated with the fault identification was active or is computed to be active in a future, and wherein the function L(root cause faults) outputs impact values calculated based on at least one root cause fault identification determined from the fault identification and the mapping; determining, using the set of fault processing rules, a notification based on the fault identification and the impact value; and presenting, using a user interface, the notification.
A link for an excavating chain intended to travel on a travel path having an excavating portion for a ballast excavating device below a railroad track , the link comprising a body extending longitudinally between a front end and a rear end and being crossed by at least one front through-hole and a rear through-hole configured to receive hinge means with an adjacent link of the chain , the front and rear through-holes extending along axes (A1, A2) parallel to each other and contained in a reference plane (P) of the body , the link being characterized in that the body has, on an inner side of the body with respect to the reference plane (P), opposite to the outer side , a concave guide surface extending over an envelope having an axis generator (G) parallel to the axes (A1, A2) of the link, the guide surface being configured to match, at least locally, a curvature (C) of a return member of the excavating device .