mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a terminal in a wireless communication system, the method comprising: receiving a plurality of synchronization signal and broadcast channel blocks, SSBs; measuring reference signal received power, RSRP, values based on the plurality of SSBs; receiving a physical downlink shared channel, PDSCH, that provides a system information block, SIB, wherein the SIB includes an indication for (i) a first transmission configuration indication, TCI, state that provides a first set of quasi-collocation, QCL, properties and (ii) for a second TCI state that provides a second set of QCL properties; and transmitting a first number of physical random access channel, PRACH, preamble repetitions and a second number of PRACH preamble repetitions, wherein in case that the RSRP values are smaller than an RSRP threshold included in the SIB, the first number of PRACH preamble repetitions are transmitted according to the first TCI state and the second number of PRACH preamble repetitions are transmitted according to the second TCI state. receiving a plurality of synchronization signal and broadcast channel blocks, SSBs; measuring reference signal received power, RSRP, values based on the plurality of SSBs; receiving a physical downlink shared channel, PDSCH, that provides a system information block, SIB, wherein the SIB includes an indication for (i) a first transmission configuration indication, TCI, state that provides a first set of quasi-collocation, QCL, properties and (ii) for a second TCI state that provides a second set of QCL properties; and transmitting a first number of physical random access channel, PRACH, preamble repetitions and a second number of PRACH preamble repetitions, wherein in case that the RSRP values are smaller than an RSRP threshold included in the SIB, the first number of PRACH preamble repetitions are transmitted according to the first TCI state and the second number of PRACH preamble repetitions are transmitted according to the second TCI state.
A medical stimulation system comprising: a clinical programmer operational on a computational and memory device having a wireless communication device; a neurostimulator configured to wirelessly communicate with the clinical programmer, the neurostimulator including a pulse generator operatively coupled with an electrode by a lead; and the pulse generator configured to transmit first and second electrical signals, the first electrical signal comprising a first repeating succession of pulse trains, the second electrical signal comprising a second repeating succession of pulse trains different from the first repeating succession of pulse trains, wherein either of the first or second repeating succession of pulse trains are initiated by instructions communicated by the clinical programmer, wherein the first electrical signal comprises non-regular pulse trains and the second electrical signal comprises second non-regular pulse trains, and wherein the first repeating succession of non-regular pulse trains includes a plurality of pulses having non-regular, non-random, differing inter-pulse intervals therebetween and the second repeating succession of non-regular pulse trains includes a plurality of pulses having non-regular, non-random, differing inter-pulse intervals therebetween, characterized by a patient controller operatively connected to the neurostimulator via the wireless communication device, wherein the patient controller allows a user to execute a program without use of the clinical programmer, wherein the program is automated by the clinical programmer. a clinical programmer operational on a computational and memory device having a wireless communication device; a neurostimulator configured to wirelessly communicate with the clinical programmer, the neurostimulator including a pulse generator operatively coupled with an electrode by a lead; and the pulse generator configured to transmit first and second electrical signals, the first electrical signal comprising a first repeating succession of pulse trains, the second electrical signal comprising a second repeating succession of pulse trains different from the first repeating succession of pulse trains, wherein either of the first or second repeating succession of pulse trains are initiated by instructions communicated by the clinical programmer, wherein the first electrical signal comprises non-regular pulse trains and the second electrical signal comprises second non-regular pulse trains, and wherein the first repeating succession of non-regular pulse trains includes a plurality of pulses having non-regular, non-random, differing inter-pulse intervals therebetween and the second repeating succession of non-regular pulse trains includes a plurality of pulses having non-regular, non-random, differing inter-pulse intervals therebetween, characterized by a patient controller operatively connected to the neurostimulator via the wireless communication device, wherein the patient controller allows a user to execute a program without use of the clinical programmer, wherein the program is automated by the clinical programmer.
A method for producing a printed wiring board having a circuit pattern on an electrically insulating substrate, the method comprising: step 1, forming an electrically conductive metal layer on an electrically insulating substrate, the electrically conductive metal layer containing silver particles; step 2, forming a patterned resist on the electrically conductive metal layer, the patterned resist being a resist patterned by removing a portion thereof in an area in which a circuit is to be formed; step 3, forming a conductor-circuit layer by electrolytic copper plating; and step 4, peeling away the patterned resist and removing, using an etchant, the electrically conductive metal layer in an area in which no circuit has been formed, wherein the etchant contains a carboxylic acid and hydrogen peroxide as active ingredients. step 1, forming an electrically conductive metal layer on an electrically insulating substrate, the electrically conductive metal layer containing silver particles; step 2, forming a patterned resist on the electrically conductive metal layer, the patterned resist being a resist patterned by removing a portion thereof in an area in which a circuit is to be formed; step 3, forming a conductor-circuit layer by electrolytic copper plating; and step 4, peeling away the patterned resist and removing, using an etchant, the electrically conductive metal layer in an area in which no circuit has been formed, wherein the etchant contains a carboxylic acid and hydrogen peroxide as active ingredients.
A method for managing navigation of an aircraft (100, 202), the method comprising: identifying positions for the aircraft (100, 202) from position information from sensors; displaying graphical indicators on a graphical user interface in a display system, wherein the graphical indicators indicate the positions for the aircraft (100, 202); wherein a plurality of sensor positions are identified for a plurality of sensors; a system position is identified from the sensor positions; the graphical indicators include a plurality of sensor graphical indicators, each sensor graphical indicator representing an output from a single sensor, and a system graphical indicator showing the system position; and a range ring indicating the accuracy bound for the respective position (216, 218) is displayed around each graphical indicator (239, 240). identifying positions for the aircraft (100, 202) from position information from sensors; displaying graphical indicators on a graphical user interface in a display system, wherein the graphical indicators indicate the positions for the aircraft (100, 202); wherein a plurality of sensor positions are identified for a plurality of sensors; a system position is identified from the sensor positions; the graphical indicators include a plurality of sensor graphical indicators, each sensor graphical indicator representing an output from a single sensor, and a system graphical indicator showing the system position; and a range ring indicating the accuracy bound for the respective position (216, 218) is displayed around each graphical indicator (239, 240).
A multiband antenna unit comprising first and second broadband antennas, each broadband antenna comprising a conductive plate, said plate comprising four slots (30a, 30b, 30c, 30d) arranged in a rotationally symmetric manner in said plate; each slot (30a, 30b, 30c, 30d) extends from a circumference of said plate towards a rotational symmetry center of the plate and has an associated feed point (51a, 51b, 51c, 51d) located at its associated slot (30a, 30b, 30c, 30d); each of the feed points (51a, 51b, 51c, 51d) being connected to a feed network, the feed network being adapted to feed radio frequency signals to feed points (51a, 51b, 51c, 51d) associated with a pair of oppositely arranged slots (30a, 30b, 30c, 30d) such that a main radiation propagation direction of the broadband antenna is along the rotational symmetry axis of the plate; the conductive plate of the first broadband antenna being arranged above or below the conductive plate of the second broadband antenna; the multiband antenna further comprising at least one planar parasitic element arranged between the said first and second conductive plates; the multiband antenna unit further comprising plastic stand offs, remote from the rotational symmetry center of the plate, and being part of a support structure formed at least partly by coaxial transmission lines for supporting at least one of the conductive plates. a conductive plate, said plate comprising four slots (30a, 30b, 30c, 30d) arranged in a rotationally symmetric manner in said plate; each slot (30a, 30b, 30c, 30d) extends from a circumference of said plate towards a rotational symmetry center of the plate and has an associated feed point (51a, 51b, 51c, 51d) located at its associated slot (30a, 30b, 30c, 30d); each of the feed points (51a, 51b, 51c, 51d) being connected to a feed network, the feed network being adapted to feed radio frequency signals to feed points (51a, 51b, 51c, 51d) associated with a pair of oppositely arranged slots (30a, 30b, 30c, 30d) such that a main radiation propagation direction of the broadband antenna is along the rotational symmetry axis of the plate; the conductive plate of the first broadband antenna being arranged above or below the conductive plate of the second broadband antenna; the multiband antenna further comprising at least one planar parasitic element arranged between the said first and second conductive plates; the multiband antenna unit further comprising plastic stand offs, remote from the rotational symmetry center of the plate, and being part of a support structure formed at least partly by coaxial transmission lines for supporting at least one of the conductive plates.
A computer-implemented method for monitoring a usage of a monitoring target, comprising: - detecting a token by a first data source of the monitoring target, the token being linked to an object, - tracking the token by a plurality of other data sources of the monitoring target, wherein the tracking generates data concerning movements and activity of the token with respect to the monitoring target; - storing the generated data; - repeating the previous steps for a plurality of tokens over a period of time, whereupon the stored data comprises tracking data for said plurality of tokens; - analysing individual behaviour of each object according to tracking data of the respective token and historical data of said object to detect deviations on object's behaviour; - generating output based on the detected deviations; - receiving from a user a feedback concerning relevance of the generated output; and - enabling a machine learning algorithm performing the analysis to learn from the received feedback. - detecting a token by a first data source of the monitoring target, the token being linked to an object, - tracking the token by a plurality of other data sources of the monitoring target, wherein the tracking generates data concerning movements and activity of the token with respect to the monitoring target; - storing the generated data; - repeating the previous steps for a plurality of tokens over a period of time, whereupon the stored data comprises tracking data for said plurality of tokens; - analysing individual behaviour of each object according to tracking data of the respective token and historical data of said object to detect deviations on object's behaviour; - generating output based on the detected deviations; - receiving from a user a feedback concerning relevance of the generated output; and - enabling a machine learning algorithm performing the analysis to learn from the received feedback.
A safety helmet comprising a main body associated with an external visor hinged in two lateral points to said main body, said main body comprising lighting means adapted to illuminate the space in front of said helmet; coupling means adapted to connect external auxiliary devices to be applied to said helmet; at least one supplementary apparatus adapted to perform additional functions for assisting the operator of said helmet; a control system adapted to manage the operation of said lighting means and of said at least one supplementary apparatus said control system comprising a control module, based on a microprocessor and associated with an interface module adapted to enable the reading of data and the sending of commands from and to said at least one supplementary apparatus; at least one keypad (19, 19_bis) adapted to enable the operator of said helmet to interact with said control system; a power module, comprising at least one power supply and a battery adapted to power said lighting means and said at least one supplementary apparatus, characterised in that said main body comprises at least two lateral compartments (15, 16) adapted to contain said lighting means and a further compartment adapted to house said at least one supplementary apparatus adapted to perform additional functions to assist the operator of said helmet, said at least one supplementary apparatus being chosen from the group comprising: at least a further high power LED device for illumination; at least one antenna and one transceiver module for radio communications; at least one micro-image projector; at least one video camera; at least one long-distance presence signalling light; a GPS module. at least a further high power LED device for illumination; at least one antenna and one transceiver module for radio communications; at least one micro-image projector; at least one video camera; at least one long-distance presence signalling light; a GPS module.
A method for operating a compression ignition engine, the engine having at least one cylinder and a piston movable in the at least one cylinder and the method comprising the steps of: • forming a combustible mixture by mixing generally homogeneously a first fuel and air and introducing this mixture into the at least one cylinder • compressing the combustible mixture with the piston in a compression stroke • injecting a second fuel to the combustible mixture at an injection-time of the second fuel during the compression stroke but before start of combustion thus creating a cylinder charge, the second fuel being easier to autoignite compared to the first fuel, • continuing the compression stroke until combustion starts at those locations in the at least one cylinder where concentration of the second fuel is highest and / or the temperature of the mixture is the highest, characterized in that emission of the at least one cylinder caused by the combustion is monitored and wherein the step of monitoring of the emissions is carried out by means of in-cylinder pressure measurement and comprises a difference between NOx and HC emissions, wherein if the emissions are above respective predetermined thresholds, • the amount and/or the timing of the second fuel injected, and/or • the temperature of the cylinder charge are changed individually for the at least one cylinder such that emissions go down below their respective predetermined thresholds, wherein if NOx emissions are too high the injection timing of the second fuel is being advanced. • forming a combustible mixture by mixing generally homogeneously a first fuel and air and introducing this mixture into the at least one cylinder • compressing the combustible mixture with the piston in a compression stroke • injecting a second fuel to the combustible mixture at an injection-time of the second fuel during the compression stroke but before start of combustion thus creating a cylinder charge, the second fuel being easier to autoignite compared to the first fuel, • continuing the compression stroke until combustion starts at those locations in the at least one cylinder where concentration of the second fuel is highest and / or the temperature of the mixture is the highest, • the amount and/or the timing of the second fuel injected, and/or • the temperature of the cylinder charge are changed individually for the at least one cylinder such that emissions go down below their respective predetermined thresholds, wherein if NOx emissions are too high the injection timing of the second fuel is being advanced.
A refrigeration cycle device comprising: a refrigerant circuit in which refrigerant circulates, the refrigerant circuit being made up of devices including a compressor, a condenser, a pressure reducing unit, and an evaporator; a measurement sensor configured to measure an index value related to a temperature of a housing of a device subject to cryo-protection out of the devices making up the refrigerant circuit; and a controller configured to control the refrigerant circuit, wherein the refrigerant is a refrigerant with a large temperature glide having a difference of 1 degree C or greater in temperature between saturated liquid and saturated vapor at a constant pressure, wherein the measurement sensor is a temperature sensor configured to measure a temperature of the housing of the device subject to cryo-protection, as the index value, wherein the controller is configured to control the refrigerant circuit to maintain a temperature of the refrigerant in a form of the saturated vapor at a temperature higher than a cryo-protective temperature that is specified depending on a minimum operating temperature based on a material used for the housing of the device subject to cryo-protection, wherein the controller controls the refrigerant circuit to increase a pressure level of lower pressure in the refrigerant circuit when the index value reaches the cryo-protective temperature or below, and wherein the device subject to cryo-protection is the compressor. a refrigerant circuit in which refrigerant circulates, the refrigerant circuit being made up of devices including a compressor, a condenser, a pressure reducing unit, and an evaporator; a measurement sensor configured to measure an index value related to a temperature of a housing of a device subject to cryo-protection out of the devices making up the refrigerant circuit; and a controller configured to control the refrigerant circuit, wherein the refrigerant is a refrigerant with a large temperature glide having a difference of 1 degree C or greater in temperature between saturated liquid and saturated vapor at a constant pressure, wherein the measurement sensor is a temperature sensor configured to measure a temperature of the housing of the device subject to cryo-protection, as the index value, wherein the controller is configured to control the refrigerant circuit to maintain a temperature of the refrigerant in a form of the saturated vapor at a temperature higher than a cryo-protective temperature that is specified depending on a minimum operating temperature based on a material used for the housing of the device subject to cryo-protection, wherein the controller controls the refrigerant circuit to increase a pressure level of lower pressure in the refrigerant circuit when the index value reaches the cryo-protective temperature or below, and wherein the device subject to cryo-protection is the compressor.
A processor-implemented method for dynamically optimizing a quality of a video being transmitted over a communication network, the method comprising: acquiring a plurality of video transmission parameters for the video being transmitted; deriving an optimum value for each of the plurality of video transmission parameters based on a predefined indicator of an acceptable quality of the video, wherein the predefined indicator of the acceptable quality of the video comprises a predefined mean opinion score; and dynamically optimizing the quality of the video based on the optimum value for each of the plurality of video transmission parameters, characterised in that the optimum value for each of the plurality of video transmission parameters is derived using a meta-heuristic harmony search algorithm comprising: acquiring a plurality of mean opinion score coefficients for the video; determining a mean opinion score of the video based on the plurality of mean opinion score coefficients and the plurality of video transmission parameters; determining a fitness function based on the mean opinion score of the video and the predefined mean opinion score; and deriving the optimum value for each of the plurality of video transmission parameters based on the fitness function. acquiring a plurality of video transmission parameters for the video being transmitted; deriving an optimum value for each of the plurality of video transmission parameters based on a predefined indicator of an acceptable quality of the video, wherein the predefined indicator of the acceptable quality of the video comprises a predefined mean opinion score; and dynamically optimizing the quality of the video based on the optimum value for each of the plurality of video transmission parameters, characterised in that the optimum value for each of the plurality of video transmission parameters is derived using a meta-heuristic harmony search algorithm comprising: acquiring a plurality of mean opinion score coefficients for the video; determining a mean opinion score of the video based on the plurality of mean opinion score coefficients and the plurality of video transmission parameters; determining a fitness function based on the mean opinion score of the video and the predefined mean opinion score; and deriving the optimum value for each of the plurality of video transmission parameters based on the fitness function. acquiring a plurality of mean opinion score coefficients for the video; determining a mean opinion score of the video based on the plurality of mean opinion score coefficients and the plurality of video transmission parameters; determining a fitness function based on the mean opinion score of the video and the predefined mean opinion score; and deriving the optimum value for each of the plurality of video transmission parameters based on the fitness function.