mhurhangee/patent-ind-claim-en huggingface dataset:
A method for providing application data on a remote-access device , said remote-access device being energetically essentially passive, the method comprising: - forming application data into a bit string for storing into a password memory space of said remote-access device, wherein said application data is numbers, text, logical data, structured data, temperature calibration data, or temperature history data, said password memory space being a memory space reserved for a password, - obtaining write access to a password memory space of said remote-access device, and - writing said formed bit string into said password memory space. - forming application data into a bit string for storing into a password memory space of said remote-access device, wherein said application data is numbers, text, logical data, structured data, temperature calibration data, or temperature history data, said password memory space being a memory space reserved for a password, - obtaining write access to a password memory space of said remote-access device, and - writing said formed bit string into said password memory space.
A method for identifying an imbalance condition within a rotary machine comprising a rotor in a high noise environment, the method comprising: measuring, by at least one sensor, a vibration signal during operation of the rotary machine; modulating the vibration signal at a desired frequency to generate a modulated signal having a direct current (DC) value, wherein the desired frequency varies as a function of an operational parameter of the rotary machine; characterized by : determining an attenuation factor based upon a speed of the rotor; filtering the modulated signal via one or more filters having a time constant that is automatically generated from the attenuation factor ; and comparing an amplitude of the filtered signal to a threshold amplitude for one or more components of the rotary machine, the threshold amplitude being indicative of an imbalance within one or more components of the rotary machine. measuring, by at least one sensor, a vibration signal during operation of the rotary machine; modulating the vibration signal at a desired frequency to generate a modulated signal having a direct current (DC) value, wherein the desired frequency varies as a function of an operational parameter of the rotary machine; characterized by : determining an attenuation factor based upon a speed of the rotor; filtering the modulated signal via one or more filters having a time constant that is automatically generated from the attenuation factor ; and comparing an amplitude of the filtered signal to a threshold amplitude for one or more components of the rotary machine, the threshold amplitude being indicative of an imbalance within one or more components of the rotary machine. determining an attenuation factor based upon a speed of the rotor; filtering the modulated signal via one or more filters having a time constant that is automatically generated from the attenuation factor ; and comparing an amplitude of the filtered signal to a threshold amplitude for one or more components of the rotary machine, the threshold amplitude being indicative of an imbalance within one or more components of the rotary machine.
A method of operating a transport climate control system of a vehicle, comprising: while the vehicle is in transit, obtaining a state of charge of an energy storage device capable of providing power to the transport climate control system; receiving a planned route for the vehicle; receiving route status data associated with the planned route for the vehicle, wherein the route status data comprises at least one of traffic data, weather data, and geographic data identifying areas where the transport climate control system is to be solely powered by the energy storage device; determining a predicted charging of the energy storage device by an alternator configured to be driven by a prime mover based on the planned route and the route status data; determining an energy level including the state of charge and the predicted charging; determining, using a processor, whether the energy level is sufficient to complete the planned route for the vehicle based on the planned route and the route data; and when the energy level is not sufficient to complete the planned route for the vehicle, providing a notification to a user via a display. while the vehicle is in transit, obtaining a state of charge of an energy storage device capable of providing power to the transport climate control system; receiving a planned route for the vehicle; receiving route status data associated with the planned route for the vehicle, wherein the route status data comprises at least one of traffic data, weather data, and geographic data identifying areas where the transport climate control system is to be solely powered by the energy storage device; determining a predicted charging of the energy storage device by an alternator configured to be driven by a prime mover based on the planned route and the route status data; determining an energy level including the state of charge and the predicted charging; determining, using a processor, whether the energy level is sufficient to complete the planned route for the vehicle based on the planned route and the route data; and when the energy level is not sufficient to complete the planned route for the vehicle, providing a notification to a user via a display.
A method for transmitting a channel quality indicator, CQI, in a wireless communication system, the method comprising: calculating, at a mobile station, a wideband CQI for an entire band, the entire band including at least two sub-bands; calculating, at the mobile station, at least one sub-band CQI for the at least one sub-band; and transmitting the wideband CQI (511, ..., 515) for the entire band and the at least one sub-band CQI (501, ..., 505) for the at least one sub-band at a same transmission time interval, wherein when the at least one sub-band for a sub-band CQI transmission is configured, the at least one sub-band CQI for the at least one sub-band is transmitted without at least one index indicating a position of the at least one sub-band. calculating, at a mobile station, a wideband CQI for an entire band, the entire band including at least two sub-bands; calculating, at the mobile station, at least one sub-band CQI for the at least one sub-band; and transmitting the wideband CQI (511, ..., 515) for the entire band and the at least one sub-band CQI (501, ..., 505) for the at least one sub-band at a same transmission time interval, wherein when the at least one sub-band for a sub-band CQI transmission is configured, the at least one sub-band CQI for the at least one sub-band is transmitted without at least one index indicating a position of the at least one sub-band.
Steel plate quality assurance equipment comprising, together with a steel plate manufacturing line including a finishing mill , and accelerated cooling equipment installed on the downstream side of the finishing mill as to the advancing direction of the steel plate manufacturing line: temperature measurement means configured to measure steel plate temperature; and measured temperature analyzing means configured to analyze the measured steel plate temperature; characterized in that a scanning radiation thermometer and a spot type radiation thermometer each of which is made up of a plurality of high-temperature thermometers and low-temperature thermometers are disposed on the downstream side in the advancing direction of the steel plate manufacturing line of said accelerated cooling equipment . temperature measurement means configured to measure steel plate temperature; and measured temperature analyzing means configured to analyze the measured steel plate temperature; characterized in that a scanning radiation thermometer and a spot type radiation thermometer each of which is made up of a plurality of high-temperature thermometers and low-temperature thermometers are disposed on the downstream side in the advancing direction of the steel plate manufacturing line of said accelerated cooling equipment .
An audio signal rendering method comprising: receiving flag information, and multichannel signals including a height input channel signal and a horizontal input channel signal; obtaining a first downmix matrix for three-dimensional, 3D, rendering over an output layout; obtaining a second downmix matrix for two-dimensional, 2D, rendering over the output layout; and selecting one downmix matrix between the first downmix matrix and the second downmix matrix based on the flag information; rendering the multichannel signals including the height input channel signal and the horizontal input channel signal, using the selected downmix matrix, so as to provide a sound image having a sense of elevation via a plurality of output channel signals according to the output layout, wherein the output layout is 5.1 channel format, wherein the first downmix matrix and the second downmix matrix are for different elevation rendering for the height input channel signal, and the multichannel signals include a first frame which has an applause sound characteristic or a second frame which has a general sound characteristic, wherein the flag information is received per frame, wherein the first frame is 2D rendered using the second downmix matrix in case that the flag information of the first frame indicates the applause sound characteristic, and wherein the second frame is 3D rendered using the first downmix matrix in case that the flag information of the second frame indicates the general sound characteristic. receiving flag information, and multichannel signals including a height input channel signal and a horizontal input channel signal; obtaining a first downmix matrix for three-dimensional, 3D, rendering over an output layout; obtaining a second downmix matrix for two-dimensional, 2D, rendering over the output layout; and selecting one downmix matrix between the first downmix matrix and the second downmix matrix based on the flag information; rendering the multichannel signals including the height input channel signal and the horizontal input channel signal, using the selected downmix matrix, so as to provide a sound image having a sense of elevation via a plurality of output channel signals according to the output layout, wherein the output layout is 5.1 channel format, wherein the first downmix matrix and the second downmix matrix are for different elevation rendering for the height input channel signal, and the multichannel signals include a first frame which has an applause sound characteristic or a second frame which has a general sound characteristic, wherein the flag information is received per frame, wherein the first frame is 2D rendered using the second downmix matrix in case that the flag information of the first frame indicates the applause sound characteristic, and wherein the second frame is 3D rendered using the first downmix matrix in case that the flag information of the second frame indicates the general sound characteristic.
A wireless communication method performed by a network node, comprising: transmitting, by the network node to a communication node, multiple sets of paging configuration information, wherein each set of paging configuration information includes a service type information that describes a type of network service, and wherein each set of paging configuration information includes one or more paging related information; receiving, by the network node from the communication node and prior to the transmitting, a first message that indicates that the communication node supports multiple paging configuration; and transmitting, to a core network and after receiving the first message, a second message that indicates that the communication node supports multiple paging configuration. transmitting, by the network node to a communication node, multiple sets of paging configuration information, wherein each set of paging configuration information includes a service type information that describes a type of network service, and wherein each set of paging configuration information includes one or more paging related information; wherein each set of paging configuration information includes a service type information that describes a type of network service, and wherein each set of paging configuration information includes one or more paging related information; receiving, by the network node from the communication node and prior to the transmitting, a first message that indicates that the communication node supports multiple paging configuration; and transmitting, to a core network and after receiving the first message, a second message that indicates that the communication node supports multiple paging configuration.
A method, in a IAB node, for configuring an adaptation layer, wherein the IAB node communicates with a central unit of a IAB donor through a distributed unit of the IAB donor; the lAB node comprising a mobile terminal, MT, part and a distributed unit part, the IAB donor comprising the central unit and one or more distributed units, with an F1 interface defined between the central unit and each of the distributed units, the method comprising: connecting , using radio resource control, RRC, signaling, the MT part of the IAB node and central unit of IAB donor, via the distributed unit of the IAB donor; after establishing the connection, configuring an adaptation layer in a protocol stack for the MT part of the IAB node, the adaptation layer providing for routing of incoming packets to one or more further IAB nodes or to one or more user equipments, UEs, connected to the IAB node and for mapping of those incoming packets to bearers; and after configuring the adaptation layer for the MT part of the IAB node, configuring an adaptation layer for the distributed unit part of the IAB node for forwarding packets exchanged between the central unit of the IAB donor and a first further IAB nodes downstream of the IAB node, wherein the configuration of the adaptation layer for the distributed unit part of the IAB node is performed in response to the first further IAB node connecting to the IAB node as MT. connecting , using radio resource control, RRC, signaling, the MT part of the IAB node and central unit of IAB donor, via the distributed unit of the IAB donor; after establishing the connection, configuring an adaptation layer in a protocol stack for the MT part of the IAB node, the adaptation layer providing for routing of incoming packets to one or more further IAB nodes or to one or more user equipments, UEs, connected to the IAB node and for mapping of those incoming packets to bearers; and after configuring the adaptation layer for the MT part of the IAB node, configuring an adaptation layer for the distributed unit part of the IAB node for forwarding packets exchanged between the central unit of the IAB donor and a first further IAB nodes downstream of the IAB node, wherein the configuration of the adaptation layer for the distributed unit part of the IAB node is performed in response to the first further IAB node connecting to the IAB node as MT.
A remotely operated vehicle for picking up a storage bin from an underlying storage system , comprising a vehicle body having a cavity adapted to contain the entire storage bin, vehicle rolling means for movement of the vehicle on the underlying storage system and a lifting assembly for lifting the storage bin from the underlying storage system to a position above the lowest level of the vehicle rolling means, wherein - the lifting assembly comprises a lifting frame , a rotatable lifting shaft , a first lifting band assembly and a second lifting band assembly ; - the lifting frame is connectable to the storage bin ; and - each of the first lifting band assembly and the second lifting band assembly comprises two separate lifting bands , each separate lifting band having a frame connecting band end and a shaft connecting band end , the shaft connecting band end being connected to the rotatable lifting shaft , such that the lifting frame is lowered or raised in a vertical direction, and the lifting bands are spooled off or on the rotatable lifting shaft, depending on the direction in which the rotatable lifting shaft rotates, wherein each of the shaft connecting band ends is connected to the rotatable lifting shaft at different longitudinal positions along said shaft; and the shaft connecting band ends of the first lifting assembly and the second lifting assembly are connected to the rotatable lifting shaft at positions being in a common plane (P) containing a centreline (C) of the rotatable lifting shaft, such that all frame connecting band ends will move an equal distance when the lifting shaft is rotated during use, characterised in that the lifting assembly comprises direction changing means for changing the direction of the lifting bands from a substantially horizontal direction to a vertical direction, wherein the rotatable lifting shaft is arranged in the centre of an upper part of the vehicle body . - the lifting assembly comprises a lifting frame , a rotatable lifting shaft , a first lifting band assembly and a second lifting band assembly ; - the lifting frame is connectable to the storage bin ; and - each of the first lifting band assembly and the second lifting band assembly comprises two separate lifting bands , each separate lifting band having a frame connecting band end and a shaft connecting band end , the shaft connecting band end being connected to the rotatable lifting shaft , such that the lifting frame is lowered or raised in a vertical direction, and the lifting bands are spooled off or on the rotatable lifting shaft, depending on the direction in which the rotatable lifting shaft rotates, wherein each of the shaft connecting band ends is connected to the rotatable lifting shaft at different longitudinal positions along said shaft; and
Sensor system for detecting air or heat flows in rooms of a building caused by open windows, doors and/or other closable openings in a building, called closable room openings below, having two or more temperature sensors which can be arranged separately from one another in a room of the building, for example on its walls, on the floor, on the ceiling and/or on the window, and having at least one processing and evaluation unit, wherein the sensors are connected to the at least one processing and evaluation unit which, if at least one open room opening is detected in at least one detection unit , compares the temperature values determined by the sensors , wherein the detection unit provides the temperature difference determined from the comparison for further processing and/or display, and/or the processing and evaluation unit carries out a statistical evaluation of the temperature values from at least one of the temperature sensors in an integrated analysis module , and/or the processing and evaluation unit carries out an approximated integral and/or basic transform of the measured temperature values in a further integrated analysis module and detects at least one unclosed room opening therefrom, wherein the temperature values determined by the sensors are compared by means of the detection unit using a spatial difference determination.
Method for operating a magnetic resonance tomography system having a control system for controlling an image recording, wherein the method has steps as follows: capturing (S20), by means of the control system , a change in state of the magnetic resonance tomography system and assessing, by means of the control system , whether the change in state indicates an operating interruption; determining (S30), by means of the control system , a plurality of possible energy-saving scenarios for an imminent interruption of the image recording as a function of the change in state; determining (S40), by means of the control system , restart times for the possible energy-saving scenarios; outputting (S50), by means of the control system , a selection possibility for a plurality of energy-saving scenarios, with information relating to the respective restart times, to a user; implementing (S70), by means of the control system , an energy-saving scenario. capturing (S20), by means of the control system , a change in state of the magnetic resonance tomography system and assessing, by means of the control system , whether the change in state indicates an operating interruption; determining (S30), by means of the control system , a plurality of possible energy-saving scenarios for an imminent interruption of the image recording as a function of the change in state; determining (S40), by means of the control system , restart times for the possible energy-saving scenarios; outputting (S50), by means of the control system , a selection possibility for a plurality of energy-saving scenarios, with information relating to the respective restart times, to a user; implementing (S70), by means of the control system , an energy-saving scenario.
A light emitting module, comprising a light source component , and several light guide sheets arranged at a periphery of the light source component , wherein the light source component comprises several strips vertically arranged, each having a group of light sources and being covered with one of the light guide sheets , wherein the light emitting module further comprises a hollow pedestal , characterised in that the pedestal comprises an annular side wall , accommodation grooves for accommodating the light source component and slots for positioning the light guide sheets are formed to extend vertically on an outer surface of the side wall , the light source strips are located in the accommodation grooves , and inner sides of the light guide sheets are inserted into the slots to cover the light source strips , the outer surface of the side wall being provided with several positioning strips which protrude outwards and extend vertically, and several positioning columns protruding inwardly from an inner surface of the side wall , and the accommodation grooves and the slots located at a periphery of the accommodation grooves are formed between adjacent positioning strips .
A method for producing fiber-reinforced plastic parts in a mold, wherein a segment of a flexible strip made of fiber-plastic composite material is fixed to the surface of the mold by means of an adhesive layer between the segment and the mold , wherein the adhesive layer is spaced apart from the edge of the segment on all sides and the adhesive force of the adhesive layer on the mold is greater than the adhesive force of the adhesive layer on the segment , so that, after a first segment has been lifted off, the adhesive layer remains completely in the mold and after the temperature of the adhesive layer has been increased through the contact with a melted plastic matrix, the remaining adhesive force of the adhesive layer is sufficient for the adhesion of at least a second segment .