mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining a resource allocation for data flows belonging to a plurality of data flow categories in a multi-access telecommunication system sharing a plurality of transmission resources, said method comprising, for a state of the multi-access telecommunication system, a step of determining, by iterations of a reinforcement learning, a resource allocation plan maximising a reward sum, each iteration of the reinforcement learning comprising: - allocating the transmission resources to the data flows according to a resource allocation plan; - transmitting the data flows by means of the allocated transmission resources; said method being characterized in that each iteration of the reinforcement learning comprises: - for each of the data flow categories, calculating at least one transmission performance indicator of each of the data flows of the data flow category, and comparing, for each of the packets of the data flow category, the calculated at least one transmission performance indicator with a threshold representative of a quality of service requirement relating to the at least one transmission performance indicator for the data flow category, and - determining a reward as a function of the result of said comparing for each of the data flows of each of the categories. - allocating the transmission resources to the data flows according to a resource allocation plan; - transmitting the data flows by means of the allocated transmission resources; - for each of the data flow categories, calculating at least one transmission performance indicator of each of the data flows of the data flow category, and comparing, for each of the packets of the data flow category, the calculated at least one transmission performance indicator with a threshold representative of a quality of service requirement relating to the at least one transmission performance indicator for the data flow category, and - determining a reward as a function of the result of said comparing for each of the data flows of each of the categories.
Electric machine having a rotor, wherein the rotor has a laminated core formed of individual sheet parts , wherein, on the individual sheet part , poles are formed one behind the other in the circumferential direction, wherein each pole covers an angle range, thus the pole pitch, wherein the individual sheet part has a single cutout in each of the angle ranges, thus each of the poles has a single cutout , wherein an identically shaped pole is arranged point-symmetrically opposite each pole, and wherein the other poles are shaped differently thereto, wherein each pole is shaped differently to every other pole that is not arranged point-symmetrically to the respective pole, and is shaped identically to the pole that is arranged point-symmetrically to the respective pole, wherein the single cutout of the poles that are arranged in each case point-symmetrically to one another is formed point-symmetrically to one another, wherein the one single cutout of a pole are shaped identically only to the single cutout of the pole that is arranged point-symmetrically to the pole and/or can be brought into congruence, by rotation through an angular amount, only with the single cutout of the pole that is arranged point-symmetrically to the pole, wherein the poles have a single further cutout , which is formed identically on all poles, wherein the angle range covered by each pole is equal in amount, characterized in that each of the cutouts has a smallest radial distance at a first angle position in the circumferential direction and has a maximum radial distance at a second angle position which is spaced apart from the first angle position in the circumferential direction and has a maximum radial distance at a third angle position which is spaced apart from the first angle position counter to the circumferential direction, wherein a first angle difference (α_1) corresponds to the angle distance from the start of the angle range to the second angle position, wherein a second angle difference (α_3) corresponds to the angle distance from the end of the angle range to the third angle position, wherein the first angle difference (α_1) of a pole is always different from the first angle difference (α_2) of the pole adjacent thereto in or counter to the circumferential direction, and wherein the second angle difference (α_3) of a pole is always different from the second angle difference (α_4) of the pole adjacent thereto in or counter to the circumferential direction.
A substrate chuck for a self-assembly process of semiconductor light-emitting diodes on a substrate, the substrate chuck comprising: a substrate support part configured to support the substrate ; an electrode connection part provided on the substrate support part for applying power to an assembly electrode of the substrate ; and a rotating part including a rotating shaft and configured to rotate the substrate support part around the rotating shaft to turn over the substrate toward an upward direction and a downward direction, wherein the rotating shaft is spaced apart from a center of the substrate support part by a predetermined distance; and wherein the rotating shaft is arranged parallel to one side of the substrate supported by the substrate support part . a substrate support part configured to support the substrate ; an electrode connection part provided on the substrate support part for applying power to an assembly electrode of the substrate ; and a rotating part including a rotating shaft and configured to rotate the substrate support part around the rotating shaft to turn over the substrate toward an upward direction and a downward direction, wherein the rotating shaft is spaced apart from a center of the substrate support part by a predetermined distance; and wherein the rotating shaft is arranged parallel to one side of the substrate supported by the substrate support part .
Steam cooking method for operating a steam cooking oven comprising at least the following steps: - placing vacuum packed food stuff in an oven cavity ; - a heating step comprising heating up the oven cavity until the oven cavity centre has reached a defined temperature (T d ) by operating a steam generator and supplying steam generated by the steam generator into said oven cavity , wherein a convection fan is operated within the oven cavity ; - a maintaining step comprising maintaining said oven cavity at said defined temperature (T d ) of the oven cavity centre by operating said steam generator and supplying steam generated by the steam generator into said oven cavity over a certain period of time, wherein a convection regime in the oven cavity center is maintained, while said defined temperature (T d ) of the oven cavity centre is not allowed to vary about more than +/- 1,5°C; - wherein at least during said heating step and said maintaining step the actual temperature (T a ) of the oven cavity centre is determined by a control unit of the steam cooking oven by means of an algorithm that is based on the temperature values measured by a temperature sensor within the oven cavity and wherein said actual temperature (T a ) is used to operate the steam generator such, that said defined temperature ((T d ) of the oven cavity centre is reached or maintained. - placing vacuum packed food stuff in an oven cavity ; - a heating step comprising heating up the oven cavity until the oven cavity centre has reached a defined temperature (T d ) by operating a steam generator and supplying steam generated by the steam generator into said oven cavity , wherein a convection fan is operated within the oven cavity ; - a maintaining step comprising maintaining said oven cavity at said defined temperature (T d ) of the oven cavity centre by operating said steam generator and supplying steam generated by the steam generator into said oven cavity over a certain period of time, wherein a convection regime in the oven cavity center is maintained, while said defined temperature (T d ) of the oven cavity centre is not allowed to vary about more than +/- 1,5°C; - wherein at least during said heating step and said maintaining step the actual temperature (T a ) of the oven cavity centre is determined by a control unit of the steam cooking oven by means of an algorithm that is based on the temperature values measured by a temperature sensor within the oven cavity and wherein said actual temperature (T a ) is used to operate the steam generator such, that said defined temperature ((T d ) of the oven cavity centre is reached or maintained.
A power distribution system for providing a desired value of voltage regulation, the system comprising: at least one power source; at least one sink; a distribution feeder configured to couple the at least one power source to the at least one sink; a plurality of modular voltage regulation units coupled to the distribution feeder , wherein each of the plurality of modular voltage regulation units comprises: a transformer comprising a primary winding having a first end and a second end and a secondary winding having a first end and a second end ; and at least one switch coupled to the primary winding of the transformer , characterized in that each of the plurality of modular voltage regulation units is configured such that the first end of the respective secondary winding is internally coupled within the corresponding modular voltage regulation unit to at least one of the first and second ends of the respective primary winding via the at least one switch , such that the primary winding is short circuited when the at least one switch is activated. at least one power source; at least one sink; a distribution feeder configured to couple the at least one power source to the at least one sink; a plurality of modular voltage regulation units coupled to the distribution feeder , wherein each of the plurality of modular voltage regulation units comprises: a transformer comprising a primary winding having a first end and a second end and a secondary winding having a first end and a second end ; and at least one switch coupled to the primary winding of the transformer , a transformer comprising a primary winding having a first end and a second end and a secondary winding having a first end and a second end ; and at least one switch coupled to the primary winding of the transformer , characterized in that each of the plurality of modular voltage regulation units is configured such that the first end of the respective secondary winding is internally coupled within the corresponding modular voltage regulation unit to at least one of the first and second ends of the respective primary winding via the at least one switch , such that the primary winding is short circuited when the at least one switch is activated.
Beverage preparation machine, having a brewing module for forming a brewing chamber which is designed to receive a portion package with a beverage substance, a pump for conveying a preparation liquid through a liquid line into the brewing chamber, a flow meter arranged on the liquid line , and machine electronics for controlling the pump and for recording measurement data of the flow meter , characterised in that the machine electronics are set up to evaluate the measurement data of the flow meter and to make a distinction from this evaluation between a first state, which corresponds to a state with a portion package inserted into the brewing chamber, and a second state, which corresponds to a state without a portion package inserted into the brewing chamber, in order to detect the presence or absence of a portion package in the brewing chamber.
An endoscopic instrument having an elongate body with a distal end designed to be introduced into the body of the patient so as to come into proximity with an internal organ, the distal end carrying a tool for intervention on the internal organ, the endoscopic instrument having a foot rigidly connected to the distal end and designed to bear on the internal organ, and also controllable means of movement for conferring movements on the tool, at least in directions transverse to a longitudinal axis (X) of the distal end of the endoscopic instrument, when the foot is bearing against the internal organ, the endoscopic instrument being characterized in that the means of movement have at least one actuator , which is coupled to the tool and which is arranged entirely within the foot.
A data receiving method performed by a terminal device, comprising: receiving first downlink control information, DCI, sent by a network device, wherein the first DCI comprises a quantity of layers for transmitting first data through a physical downlink shared channel, PDSCH, by the network device and under a first condition, the quantity of layers of the first data is less than or equal to N1; and under a second condition, the quantity of layers of the first data is less than or equal to N2 and exceeds N1, N1 is less than N2, N2 is a maximum quantity of layers, for transmitting data through the PDSCH, supported by the terminal device, and N1 is a positive integer, wherein the first condition is any one of the following conditions: same-slot scheduling, a scheduling latency being less than a preset value, channel quality or a signal-to-noise ratio being less than a preset value, DCI not including scheduling information and wherein the second condition is any one of the following conditions: cross-slot scheduling, a scheduling latency being greater than a preset value, channel quality or a signal-to-noise ratio being greater than a preset value, DCI including scheduling information; receiving (S103) the first data sent by the network device, and demodulating the first data based on the quantity of layers comprised in the first DCI. receiving first downlink control information, DCI, sent by a network device, wherein the first DCI comprises a quantity of layers for transmitting first data through a physical downlink shared channel, PDSCH, by the network device and under a first condition, the quantity of layers of the first data is less than or equal to N1; and under a second condition, the quantity of layers of the first data is less than or equal to N2 and exceeds N1, N1 is less than N2, N2 is a maximum quantity of layers, for transmitting data through the PDSCH, supported by the terminal device, and N1 is a positive integer, wherein the first condition is any one of the following conditions: same-slot scheduling, a scheduling latency being less than a preset value, channel quality or a signal-to-noise ratio being less than a preset value, DCI not including scheduling information and wherein the second condition is any one of the following conditions: cross-slot scheduling, a scheduling latency being greater than a preset value, channel quality or a signal-to-noise ratio being greater than a preset value, DCI including scheduling information; receiving (S103) the first data sent by the network device, and demodulating the first data based on the quantity of layers comprised in the first DCI.
A dispersion solution comprising a solvent which contains fine particles of a copper compound, a stabilizer, a fatty acid, a fatty acid ester of the fatty acid, and a polycarboxylic acid, wherein: (a) said solvent is a non-aqueous solvent; (b) said particles of the copper compound are particles of a monovalent copper compound; (c) said stabilizer is at least one selected from a saccharin and a salicylic acid; and (d) said fine particles of the copper compound are coated on their surfaces with the fatty acid, the polycarboxylic acid and the fatty acid ester of the fatty acid. (a) said solvent is a non-aqueous solvent; (b) said particles of the copper compound are particles of a monovalent copper compound; (c) said stabilizer is at least one selected from a saccharin and a salicylic acid; and (d) said fine particles of the copper compound are coated on their surfaces with the fatty acid, the polycarboxylic acid and the fatty acid ester of the fatty acid.
An outboard motor comprising: a steering shaft extending in an up-down direction; an outboard motor main body that rotates around a centerline (As) of the steering shaft together with the steering shaft and that includes a prime mover that generates power to rotate a propeller ; a steering arm that extends forward from the steering shaft and that turns around the centerline (As) of the steering shaft together with the steering shaft ; a steering actuator including a steering tube that moves in a right-left direction; and a motion converter that converts a movement of the steering tube in the right-left direction into a turning motion of the steering arm around the centerline (As) of the steering shaft , and that includes a bushing holder in which the steering arm extends in a front-rear direction and a bushing interposed between the steering arm and the bushing holder and including an outer surface provided with a pair of first sliding portions each including a convex arc-shaped vertical section that is perpendicular to the right-left direction, characterized in that the bushing is located behind the steering tube and does not overlap the steering tube in a side view of the outboard motor . a steering shaft extending in an up-down direction; an outboard motor main body that rotates around a centerline (As) of the steering shaft together with the steering shaft and that includes a prime mover that generates power to rotate a propeller ; a steering arm that extends forward from the steering shaft and that turns around the centerline (As) of the steering shaft together with the steering shaft ; a steering actuator including a steering tube that moves in a right-left direction; and a motion converter that converts a movement of the steering tube in the right-left direction into a turning motion of the steering arm around the centerline (As) of the steering shaft , and that includes a bushing holder in which the steering arm extends in a front-rear direction and a bushing interposed between the steering arm and the bushing holder and including an outer surface provided with a pair of first sliding portions each including a convex arc-shaped vertical section that is perpendicular to the right-left direction, characterized in that the bushing is located behind the steering tube and does not overlap the steering tube in a side view of the outboard motor .
A system configured to receive, from two or more terrestrial antennas , two or more terrestrial radio frequency (RF) signals comprising a UHF frequency range comprising a plurality of UHF channels with different power levels which have been transmitted over the air by different terrestrial broadcasting stations, the system comprising: - two or more corresponding analog to digital converters (ADC) configured to receive said two or more RF signals such that any of the RF signals is only received by a single ADC, each ADC configured to convert the corresponding RF signal to a digitized RF signal such that it comprises a digitized UHF frequency range comprising a plurality of digitized frequency channels corresponding to a plurality of the UHF channels; - a digital multi-switch module comprising: - two or more corresponding multi-switch inputs each coupled to a corresponding ADC and configured to receive a corresponding digitized RF signal ; and - a plurality of multi-switch outputs , each configured to be selectively coupled to a selected multi-switch input to output the corresponding selected digitized RF signal ; - a plurality of digital channelizers , each digital channelizer coupled to a single multi-switch output and configured to digitally modify the selected digitized RF signal to a modified digital RF signal . - two or more corresponding analog to digital converters (ADC) configured to receive said two or more RF signals such that any of the RF signals is only received by a single ADC, each ADC configured to convert the corresponding RF signal to a digitized RF signal such that it comprises a digitized UHF frequency range comprising a plurality of digitized frequency channels corresponding to a plurality of the UHF channels; - a digital multi-switch module comprising: - two or more corresponding multi-switch inputs each coupled to a corresponding ADC and configured to receive a corresponding digitized RF signal ; and - a plurality of multi-switch outputs , each configured to be selectively coupled to a selected multi-switch input to output the corresponding selected digitized RF signal ; - two or more corresponding multi-switch inputs each coupled to a corresponding ADC and configured to receive a corresponding digitized RF signal ; and - a plurality of multi-switch outputs , each configured to be selectively coupled to a selected multi-switch input to output the corresponding selected digitized RF signal ; - a plurality of digital channelizers , each digital channelizer coupled to a single multi-switch output and configured to digitally modify the selected digitized RF signal to a modified digital RF signal .
An image capturing module comprising: a casing ; a camera unit disposed in the casing ; a circuit board device connected to the camera unit and disposed in the casing ; and a heat dissipation device , wherein the circuit board device comprises: a circuit board unit disposed at a periphery of the camera unit and comprising a first rigid board , a second rigid board , and at least one flexible board connecting the first rigid board and the second rigid board , wherein each of the first rigid board and the second rigid board is provided with a corresponding functional module ; and a support frame disposed in the casing , having a hollow frame-shaped structure with a receiving portion formed inside, wherein the camera unit is received in the receiving portion and the first and second rigid boards are disposed on different sides of the support frame , respectively, and wherein the heat dissipation device comprises: a heat sink attached on a surface of one of the functional modules for dissipating heat from the functional module . a casing ; a camera unit disposed in the casing ; a circuit board device connected to the camera unit and disposed in the casing ; and a heat dissipation device , wherein the circuit board device comprises: a circuit board unit disposed at a periphery of the camera unit and comprising a first rigid board , a second rigid board , and at least one flexible board connecting the first rigid board and the second rigid board , wherein each of the first rigid board and the second rigid board is provided with a corresponding functional module ; and a support frame disposed in the casing , having a hollow frame-shaped structure with a receiving portion formed inside, wherein the camera unit is received in the receiving portion and the first and second rigid boards are disposed on different sides of the support frame , respectively, and wherein the heat dissipation device comprises: a heat sink attached on a surface of one of the functional modules for dissipating heat from the functional module . a circuit board unit disposed at a periphery of the camera unit and comprising a first rigid board , a second rigid board , and at least one flexible board connecting the first rigid board and the second rigid board , wherein each of the first rigid board and the second rigid board is provided with a corresponding functional module ; and a support frame disposed in the casing , having a hollow frame-shaped structure with a receiving portion formed inside, wherein the camera unit is received in the receiving portion and the first and second rigid boards are disposed on different sides of the support frame , respectively, and wherein the heat dissipation device comprises: a heat sink attached on a surface of one of the functional modules for dissipating heat from the functional module .