mhurhangee/patent-ind-claim-en huggingface dataset:
Method for updating data of a material processing machine , wherein prior to installation of an exchangeable processing machine component or sensor machine component (6; 7) of the material processing machine into a processing path or a monitoring path of the material processing machine, update data for the material processing machine , which is not dependent on the properties of the machine component (6; 7), is stored in an electronic storage unit of the machine component (6; 7) and wherein after installation of the machine component (6; 7) the stored update data is read out by the material processing machine for updating its data, characterized in that the update data comprises updated control data for a machine control of the material processing machine and/or that the update data comprises updated measured variables and/or limit values and/or read-out algorithms for a measuring or monitoring device of the material processing machine .
A method for a network node to receive an indication of a precoder from a wireless device , the method comprising: receiving the indication of the precoder, wherein the precoder comprises: - a first beam phase parameter and a second beam phase parameter corresponding to a first beam and second beam, respectively; - the first beam phase parameter taking on one of a first integer number of phase values; and - the second beam phase parameter taking on one of a second integer number of phase values, the second beam having a lesser power than the first beam and the second integer number of phase values being less than the first integer number of phase values, the first and second integer number of phase values being respective granularities of respective co-phasing factors for the first and second beams, a co-phasing factor for a beam corresponding to a phase factor associated with one of a plurality of polarizations on which the beam is transmitted; determining a precoder based on the received indication of the precoder; and generating the first and second beams based on the precoder. receiving the indication of the precoder, wherein the precoder comprises: - a first beam phase parameter and a second beam phase parameter corresponding to a first beam and second beam, respectively; - the first beam phase parameter taking on one of a first integer number of phase values; and - the second beam phase parameter taking on one of a second integer number of phase values, the second beam having a lesser power than the first beam and the second integer number of phase values being less than the first integer number of phase values, the first and second integer number of phase values being respective granularities of respective co-phasing factors for the first and second beams, a co-phasing factor for a beam corresponding to a phase factor associated with one of a plurality of polarizations on which the beam is transmitted; - a first beam phase parameter and a second beam phase parameter corresponding to a first beam and second beam, respectively; - the first beam phase parameter taking on one of a first integer number of phase values; and - the second beam phase parameter taking on one of a second integer number of phase values, the second beam having a lesser power than the first beam and the second integer number of phase values being less than the first integer number of phase values, the first and second integer number of phase values being respective granularities of respective co-phasing factors for the first and second beams, a co-phasing factor for a beam corresponding to a phase factor associated with one of a plurality of polarizations on which the beam is transmitted; determining a precoder based on the received indication of the precoder; and generating the first and second beams based on the precoder.
A method implemented by a wireless transmit/receive unit, WTRU, for transmission of symbols using aggregated channels, comprising: receiving, at the WTRU, a set of bits; generating at least two complex-valued symbols based on the set of bits using dual modulation at least in part by (i) mapping the set of bits to a first symbol using a first constellation mapping associated with a first constellation and (ii) mapping the set of bits to a second symbol using a second constellation mapping associated with a second constellation, wherein the first constellation mapping and the second constellation mapping each map the set of bits to different constellation signal points and the second constellation mapping is representative of a mapping which is associated with a rotated first constellation; and transmitting, by the WTRU using the aggregated channels, a first transmission of the first symbol using a first single carrier, SC, channel in the aggregated channels and a second transmission of the second symbol using a second SC channel in the aggregated channels, wherein: the first transmission of the first symbol and the second transmission of the second symbol are at least spatially offset from each other, and the first SC channel and the second SC channel are indexed using a single index. receiving, at the WTRU, a set of bits; generating at least two complex-valued symbols based on the set of bits using dual modulation at least in part by (i) mapping the set of bits to a first symbol using a first constellation mapping associated with a first constellation and (ii) mapping the set of bits to a second symbol using a second constellation mapping associated with a second constellation, wherein the first constellation mapping and the second constellation mapping each map the set of bits to different constellation signal points and the second constellation mapping is representative of a mapping which is associated with a rotated first constellation; and transmitting, by the WTRU using the aggregated channels, a first transmission of the first symbol using a first single carrier, SC, channel in the aggregated channels and a second transmission of the second symbol using a second SC channel in the aggregated channels, wherein: the first transmission of the first symbol and the second transmission of the second symbol are at least spatially offset from each other, and the first SC channel and the second SC channel are indexed using a single index. the first transmission of the first symbol and the second transmission of the second symbol are at least spatially offset from each other, and the first SC channel and the second SC channel are indexed using a single index.
A high-voltage direct current, HVDC, transmission system control device characterised in that the HVDC transmission system control device comprises: a wind power generation amount predicting unit configured to receive energy generated by a wind power generation device for a first predetermined time, and predict a wind power generation amount on the basis of the received energy; a possible power generation amount predicting unit configured to predict a possible amount of electric energy generated by the wind power generation device on the basis of the predicted wind power generation amount and determine a transmission capacity according to the predicted possible amount of electric energy; a charging and discharging amount determining unit configured to determine an amount of energy charged and discharged by an energy storage device on the basis of the transmission capacity and the possible amount of electric energy generated; and a control unit configured to determine a transmission capacity for transmitting energy to be stored in the energy storage device and therefore the charging and discharging amount of the energy storage device on the basis of the possible amount of electric energy generated by the wind power generation device for a second predetermined time, and to control outputting energy to a power transformation device on the basis of the amount of energy and the transmission capacity determined by the possible power generation amount predicting unit ; wherein the transmission capacity for transmitting energy to be stored in the energy storage device is constant for the second predetermined time or varies for each time point. a wind power generation amount predicting unit configured to receive energy generated by a wind power generation device for a first predetermined time, and predict a wind power generation amount on the basis of the received energy; a possible power generation amount predicting unit configured to predict a possible amount of electric energy generated by the wind power generation device on the basis of the predicted wind power generation amount and determine a transmission capacity according to the predicted possible amount of electric energy; a charging and discharging amount determining unit configured to determine an amount of energy charged and discharged by an energy storage device on the basis of the transmission capacity and the possible amount of electric energy generated; and a control unit configured to determine a transmission capacity for transmitting energy to be stored in the energy storage device and therefore the charging and discharging amount of the energy storage device on the basis of the possible amount of electric energy generated by the wind power generation device for a second predetermined time, and to control outputting energy to a power transformation device on the basis of the amount of energy and the transmission capacity determined by the possible power generation amount predicting unit ; wherein the transmission capacity for transmitting energy to be stored in the energy storage device is constant for the second predetermined time or varies for each time point.
A method for displaying graphical data, the graphical data comprising data values contained in at least one volume-data point within a data volume containing at least a portion of a polygonal surface, the method comprising the steps of: creating a texture atlas , the texture atlas comprising a two-dimensional layout corresponding to at least one polygon of said polygonal surface ; scan-converting the at least one polygon to form a corresponding texel , wherein said texel corresponds to a portion of the texture atlas and contains data values from volume-data points in the data volume that intersect said at least one polygon; writing each texel into a memory segment; and displaying the contents of the memory segment. creating a texture atlas , the texture atlas comprising a two-dimensional layout corresponding to at least one polygon of said polygonal surface ; scan-converting the at least one polygon to form a corresponding texel , wherein said texel corresponds to a portion of the texture atlas and contains data values from volume-data points in the data volume that intersect said at least one polygon; writing each texel into a memory segment; and displaying the contents of the memory segment.
An apparatus configured to be employed within a user equipment, UE , comprising one or more processors configured to: generate a UE capability information, wherein the UE capability information comprises a list of shortened transmission time interval, S-TTI, configurations supported by the UE ; transmit the UE capability information to an evolved NodeB, eNB ; receive, from the eNB , a radio resource control, RRC, message to reconfigure a RRC connection of the UE , wherein the RRC connection reconfiguration message configures the S-TTI for uplink, UL, and downlink, DL; and process a S-TTI, configured by the RRC connection reconfiguration message, to enable a data transmission in the UL or a data reception in the DL, wherein the S-TTI comprises 2, 3, 4 or 7 orthogonal frequency-division multiplexing, OFDM, symbols. generate a UE capability information, wherein the UE capability information comprises a list of shortened transmission time interval, S-TTI, configurations supported by the UE ; transmit the UE capability information to an evolved NodeB, eNB ; receive, from the eNB , a radio resource control, RRC, message to reconfigure a RRC connection of the UE , wherein the RRC connection reconfiguration message configures the S-TTI for uplink, UL, and downlink, DL; and process a S-TTI, configured by the RRC connection reconfiguration message, to enable a data transmission in the UL or a data reception in the DL, wherein the S-TTI comprises 2, 3, 4 or 7 orthogonal frequency-division multiplexing, OFDM, symbols.
A crane comprising - a base body configured to rest on a bearing surface (S), - a boom designed to move between a working state and a parking state, said boom extending away from the body between a lower portion and an opposite upper portion , said boom being hinged to the body in a hinging zone at the lower portion and being able to move relative to the body in a horizontal and/or vertical direction between a working state and a parking state, - a cable connected to the body and the boom at the upper portion ; characterized in that it comprises - a counter-frame associated with the boom and extending between a lower end and an opposite upper end , the upper end of said counter-frame being hinged to the boom , said counter-frame being configured to move between a first configuration in which the lower end is connected to the lower portion of the boom when said boom is in said working state and a second configuration in which the lower end of the counter-frame is released from the boom and is connected to the body when said boom is in said parking state. - a base body configured to rest on a bearing surface (S), - a boom designed to move between a working state and a parking state, said boom extending away from the body between a lower portion and an opposite upper portion , said boom being hinged to the body in a hinging zone at the lower portion and being able to move relative to the body in a horizontal and/or vertical direction between a working state and a parking state, - a cable connected to the body and the boom at the upper portion ; characterized in that it comprises - a counter-frame associated with the boom and extending between a lower end and an opposite upper end , the upper end of said counter-frame being hinged to the boom , said counter-frame being configured to move between a first configuration in which the lower end is connected to the lower portion of the boom when said boom is in said working state and a second configuration in which the lower end of the counter-frame is released from the boom and is connected to the body when said boom is in said parking state.
Panel holder for securing a panel to an upper portion of a door or window frame below a building ceiling comprising - a locking plate which can be inserted into a recess in the panel and can be pushed forward in a first direction (x) into a peg receptacle in the door or window frame and has a peg which is integrally formed thereon and can be received in the peg receptacle , - wherein the locking plate is arranged between a base plate of the panel holder which can be fixed to the panel and a cover plate of the panel holder which can be fixed to the base plate , - wherein the base plate and the cover plate are detachably connected to each other by clamping screws , characterized in that - the locking plate is adjustable in the first direction (x) and at least one second direction (y) when the clamping screws are loosened and can be locked by tightening the clamping screws , - wherein the locking plate has at least one elongated hole extending in the first direction (x), through which one of the clamping screws is guided, wherein a width (B13) of the elongated hole extending in a second direction (y) oriented orthogonally to the first direction (x) is greater than a diameter of the clamping screw . - a locking plate which can be inserted into a recess in the panel and can be pushed forward in a first direction (x) into a peg receptacle in the door or window frame and has a peg which is integrally formed thereon and can be received in the peg receptacle , - wherein the locking plate is arranged between a base plate of the panel holder which can be fixed to the panel and a cover plate of the panel holder which can be fixed to the base plate , - wherein the base plate and the cover plate are detachably connected to each other by clamping screws , - the locking plate is adjustable in the first direction (x) and at least one second direction (y) when the clamping screws are loosened and can be locked by tightening the clamping screws , - wherein the locking plate has at least one elongated hole extending in the first direction (x), through which one of the clamping screws is guided, wherein a width (B13) of the elongated hole extending in a second direction (y) oriented orthogonally to the first direction (x) is greater than a diameter of the clamping screw .
Device for monitoring a tire pressure for a utility vehicle , which has a dual-tired axle with a first tire and a second tire as well as a single-tired axle with a third tire and a further third tire , with: a first pressure sensor , which is configured to measure a first pressure in the first tire ; a second pressure sensor , which is configured to measure a second pressure in the second tire ; a rotational speed sensor , which is configured to measure a rotational speed of the third tire ; a further rotational speed sensor , which is configured to measure a rotational speed of the further third tire ; a first control module , which is configured to receive and monitor the first pressure and the second pressure; characterized by a second control module , which is configured to receive the rotational speed and the further rotational speed, to determine a third pressure in the third tire based only on the rotational speed and the further rotational speed, and to monitor the third pressure. a first pressure sensor , which is configured to measure a first pressure in the first tire ; a second pressure sensor , which is configured to measure a second pressure in the second tire ; a rotational speed sensor , which is configured to measure a rotational speed of the third tire ; a further rotational speed sensor , which is configured to measure a rotational speed of the further third tire ; a first control module , which is configured to receive and monitor the first pressure and the second pressure; characterized by a second control module , which is configured to receive the rotational speed and the further rotational speed, to determine a third pressure in the third tire based only on the rotational speed and the further rotational speed, and to monitor the third pressure.
Cutting apparatus for cutting at least one sheet of material, comprising: - conveying means adapted to feed the sheet into a cutting area (C) along a longitudinal direction (Y); - a crosspiece above said cutting area (C); - at least one first cutting head and one second cutting head ; - a cutting heads' displacement system (8a; 8b) above the cutting area (C), comprising at least: - one first upper carriage for the first cutting head and one second upper carriage for the second cutting head , the first and second upper carriages (19a; 19b) being both supported by said crosspiece and translatable with respect thereto along a transversal direction (X) which is transversal to the longitudinal direction (Y); the first upper carriage being constrained to one or more first guides (24a; 24'a) of the crosspiece , characterized in that the second upper carriage is constrained to one or more second guides (24b; 24'b) of the crosspiece , said first guides (24a; 24'a) being parallel and distinct with respect to said second guides (24b; 24'b) so that said first and second carriages slide along distinct guides in the transversal direction (X). - conveying means adapted to feed the sheet into a cutting area (C) along a longitudinal direction (Y); - a crosspiece above said cutting area (C); - at least one first cutting head and one second cutting head ; - a cutting heads' displacement system (8a; 8b) above the cutting area (C), comprising at least: - one first upper carriage for the first cutting head and one second upper carriage for the second cutting head , the first and second upper carriages (19a; 19b) being both supported by said crosspiece and translatable with respect thereto along a transversal direction (X) which is transversal to the longitudinal direction (Y); the first upper carriage being constrained to one or more first guides (24a; 24'a) of the crosspiece ,
A method for cleaning a surface of a pool with a robotic pool cleaner having an electric motor for moving the cleaner , the cleaner being electrically connected to a remotely located power supply via a two-wire electrical power cable for providing power to the electric motor , the method comprising the steps of: receiving, at the electric motor , electrical power with a first polarity from the remote power supply via the two-wire electrical power cable ; performing a cleaning operation on a surface of the pool ; changing orientation of the cleaner with respect to a surface of the pool thereunder; and providing an electrical signal from the cleaner to the remote power supply over the two-wire electrical power cable when the cleaner attains a predetermined change in orientation with respect to the surface of the pool . receiving, at the electric motor , electrical power with a first polarity from the remote power supply via the two-wire electrical power cable ; performing a cleaning operation on a surface of the pool ; changing orientation of the cleaner with respect to a surface of the pool thereunder; and providing an electrical signal from the cleaner to the remote power supply over the two-wire electrical power cable when the cleaner attains a predetermined change in orientation with respect to the surface of the pool .
A data transmission method comprising: a transmission node acquiring information about a data transmission mode , wherein the information about the data transmission mode comprises a rapid data transmission mode, the rapid data transmission mode comprises: configuring a time-domain length of data transmission, wherein the time-domain length comprises a number of time-domain symbols, and the time-domain symbol comprises: an Orthogonal Frequency Division Multiplexing, OFDM, symbol, or a Single Carrier Frequency Division Multiple Access, SC-FDMA, symbol; and the transmission node transmitting data according to the acquired data transmission mode , wherein the number of the time-domain symbols is dynamically changed by signalling born by a control channel corresponding to a data channel, and the number of the time-domain symbols includes at least one of 1, 2, 3 or 4.