mhurhangee/ep-ind-claims huggingface dataset:
A method for shaping transmission beams (140a, 140a', 140a", 140b, 140b') in a wireless communications network (100a, 100b), the method being performed by a network node, the method comprising: acquiring channel measurements from wireless devices, served by radio access network nodes (110a, 110b), using current beam forming parameters and the radio access network nodes (110a, 110b) being controlled by the network node; determining, based on the channel measurements, desired beam forming parameters for shaping the transmission beams (140a, 140a', 140a", 140b, 140b') for at least one of the radio access network nodes (110a, 110b), wherein determining the desired beam forming parameters comprises: predicting (S104c) signal strengths of the wireless devices if the desired beam forming parameters would have been used, without deploying the desired beam forming parameters; and determining (S104d) an order for handing over the wireless devices according to the signal strengths; initiating network controlled handover of at least some of the wireless devices, served by the radio access network nodes (110a, 1 10b), based on the desired beam forming parameters; and initiating a change of the current beam forming parameters to the desired beam forming parameters for shaping said transmission beams (140a, 140a', 140a", 140b, 140b') for said at least one of the radio access network nodes (110a, 1 10b), only after having initiated said network controlled handover. acquiring channel measurements from wireless devices, served by radio access network nodes (110a, 110b), using current beam forming parameters and the radio access network nodes (110a, 110b) being controlled by the network node; determining, based on the channel measurements, desired beam forming parameters for shaping the transmission beams (140a, 140a', 140a", 140b, 140b') for at least one of the radio access network nodes (110a, 110b), wherein determining the desired beam forming parameters comprises: predicting (S104c) signal strengths of the wireless devices if the desired beam forming parameters would have been used, without deploying the desired beam forming parameters; and determining (S104d) an order for handing over the wireless devices according to the signal strengths; predicting (S104c) signal strengths of the wireless devices if the desired beam forming parameters would have been used, without deploying the desired beam forming parameters; and determining (S104d) an order for handing over the wireless devices according to the signal strengths; initiating network controlled handover of at least some of the wireless devices, served by the radio access network nodes (110a, 1 10b), based on the desired beam forming parameters; and initiating a change of the current beam forming parameters to the desired beam forming parameters for shaping said transmission beams (140a, 140a', 140a", 140b, 140b') for said at least one of the radio access network nodes (110a, 1 10b), only after having initiated said network controlled handover.
A method for per-function downstream port containment, which is performed by a downstream Peripheral Component Interconnect Express, PCIe, interface (240, 250), the method comprising: • snooping configuration space access packets communicated to a first function of an end-point device to identify a device type associated with a first routing identifier, RID, and to identify an address or an address range associated with the first RID, wherein the first RID is further associated with the first function of the end-point device, • writing the address or the address range associated with the first RID into an address table, • receiving a read or write request, the read or write request comprising the first RID, • detecting a non-fatal error of the first function of the end-point device; • identifying the address or the address range associated with the first RID in the address table by searching the address table for entries associated with the first RID; and • filtering packets carrying the first RID or the identified address or addresses within the identified address range without de-activating a link between the PCIe interface and the end-point device. • snooping configuration space access packets communicated to a first function of an end-point device to identify a device type associated with a first routing identifier, RID, and to identify an address or an address range associated with the first RID, wherein the first RID is further associated with the first function of the end-point device, • writing the address or the address range associated with the first RID into an address table, • receiving a read or write request, the read or write request comprising the first RID, • detecting a non-fatal error of the first function of the end-point device; • identifying the address or the address range associated with the first RID in the address table by searching the address table for entries associated with the first RID; and • filtering packets carrying the first RID or the identified address or addresses within the identified address range without de-activating a link between the PCIe interface and the end-point device.
An apparatus comprising: a foldable body; a flexible cover coupled to the foldable body, wherein a first edge of the cover is configured to slide from a first position on the foldable body to a second position on the foldable body while transitioning to a folded configuration; wherein the foldable body comprises at least one component and the cover is configured to provide access to the at least one component allowing the at least one component to reliably transmit and/or receive signals when the foldable body is in the folded configuration; characterized in that the at least one component has a first working direction in an unfolded configuration and is configured to switch to a second working direction in the folded configuration; wherein a working direction is a direction in which a component receives or transmits signals. a foldable body; a flexible cover coupled to the foldable body, wherein a first edge of the cover is configured to slide from a first position on the foldable body to a second position on the foldable body while transitioning to a folded configuration; wherein the foldable body comprises at least one component and the cover is configured to provide access to the at least one component allowing the at least one component to reliably transmit and/or receive signals when the foldable body is in the folded configuration; characterized in that the at least one component has a first working direction in an unfolded configuration and is configured to switch to a second working direction in the folded configuration; wherein a working direction is a direction in which a component receives or transmits signals.
A method for estimating conductivity of a fluid, the method comprising the steps of: providing a fluid sample treatment apparatus containing an electrode system and a fluid sample; measuring an inorganic carbon concentration value of the fluid sample; measuring a temperature value of the fluid sample; measuring a total electrical conductivity value of the fluid sample using the electrode system; determining an inorganic carbon conductivity value of the fluid sample using the inorganic carbon concentration value and the temperature value of the fluid sample; and calculating a net conductivity value of the fluid sample by subtracting the inorganic carbon conductivity value from the total electrical conductivity value of the fluid sample. providing a fluid sample treatment apparatus containing an electrode system and a fluid sample; measuring an inorganic carbon concentration value of the fluid sample; measuring a temperature value of the fluid sample; measuring a total electrical conductivity value of the fluid sample using the electrode system; determining an inorganic carbon conductivity value of the fluid sample using the inorganic carbon concentration value and the temperature value of the fluid sample; and calculating a net conductivity value of the fluid sample by subtracting the inorganic carbon conductivity value from the total electrical conductivity value of the fluid sample.
A method of indicating a reduction in particle transmittance of a filter in a particle detection system, including: detecting the amount of smoke passing through a detection chamber of the particle detection system, summing the amount of detected smoke passing through the detection chamber over time to ascertain total integrated smoke hours and to estimate particle transmittance, comparing the total integrated smoke hours with a predetermined value, sending a signal indicating a warning or fault condition when the total integrated smoke hours has exceeded the predetermined value. detecting the amount of smoke passing through a detection chamber of the particle detection system, summing the amount of detected smoke passing through the detection chamber over time to ascertain total integrated smoke hours and to estimate particle transmittance, comparing the total integrated smoke hours with a predetermined value, sending a signal indicating a warning or fault condition when the total integrated smoke hours has exceeded the predetermined value.
A method of measuring sulfur content in a fiber or polymer resin sample comprising: a) contacting said sample with a solution comprising sodium hydroxide to convert said sulfur to sodium sulfate, b) combusting the sample of step a) in a furnace to remove essentially all organic materials to produce a residue; c) dissolving said residue in concentrated nitric acid; d) determining the sulfur content of said sample using Inductively Coupled Plasma Emission Spectrometry. a) contacting said sample with a solution comprising sodium hydroxide to convert said sulfur to sodium sulfate, b) combusting the sample of step a) in a furnace to remove essentially all organic materials to produce a residue; c) dissolving said residue in concentrated nitric acid; d) determining the sulfur content of said sample using Inductively Coupled Plasma Emission Spectrometry.
A method for receiving a media stream, comprising: during a process of receiving a media stream sent by a sending end, if packet loss is detected, requesting retransmission of a lost data packet from the sending end; and if the lost data packet is not successfully received within a set retransmission threshold, sending retransmission suppression information to the sending end, for instructing the sending end to stop the retransmission of the lost data packet and send a next data packet of the lost data packet in the media stream, wherein the retransmission threshold comprises a threshold of retransmission times; or an accumulated delay threshold; or the threshold of retransmission times and the accumulated delay threshold, and characterized in that the retransmission suppression information comprises a counterfeit acknowledgement message for indicating that the lost data packet is successfully received. during a process of receiving a media stream sent by a sending end, if packet loss is detected, requesting retransmission of a lost data packet from the sending end; and if the lost data packet is not successfully received within a set retransmission threshold, sending retransmission suppression information to the sending end, for instructing the sending end to stop the retransmission of the lost data packet and send a next data packet of the lost data packet in the media stream, wherein the retransmission threshold comprises a threshold of retransmission times; or an accumulated delay threshold; or the threshold of retransmission times and the accumulated delay threshold, and characterized in that the retransmission suppression information comprises a counterfeit acknowledgement message for indicating that the lost data packet is successfully received.
A printing system comprising: a charging element (100, 200, 300, 412, 502, 600, 702), and an imaging surface (106, 204-504, 602, 700); wherein the charging element (100, 200, 300, 412, 502, 600, 702) is in charge-depositing relation with the imaging surface (106, 204-504, 602, 700) during operation of the printing system for printing, and wherein the charging element (100, 200, 300, 412, 502, 600, 702) comprises a hollow metal cylinder or a solid metal roller with an electrically-conducting metal surface, the electrically-conducting metal surface to transfer electric charge to the imaging surface (106, 204-504, 602, 700); and at least one of a spring being compressed between a support arm that carries the charging element (100, 200, 300, 412, 502, 600, 702) and a fixed plate and a weight coupled to the charging element (412, 502) to exert a biasing force on the charging element (412, 502) to reduce a gravitational force that the charging element (100, 200, 300, 412, 502, 600, 702) applies towards the imaging surface (106, 204-504, 602, 700). a charging element (100, 200, 300, 412, 502, 600, 702), and an imaging surface (106, 204-504, 602, 700); wherein the charging element (100, 200, 300, 412, 502, 600, 702) is in charge-depositing relation with the imaging surface (106, 204-504, 602, 700) during operation of the printing system for printing, and
A cover structure, in particular for a battery, having an SMC main body provided with a flame retardant coating, characterized in that the flame retardant coating realized from at least one molded part, and an SMC blank forming the SMC main body are pressed together in an SMC mold, wherein the flame retardant coating has a perforation in accordance with a predetermined grid, wherein openings formed by the perforation are designed in such a way that a plastic matrix of the SMC blank can pass through or enter said openings during the pressing together.
An image processing apparatus, comprising: first detection means (201, 202) for detecting one or more face areas from image data, generated from an optical image, using a face detection first method and separately detecting one or more head areas from the image data using a head detection method; second detection means (203, 204) for detecting an eye area or a pupil area from data of each face area detected by the first detection means and from data of each head area detected by the first detection means; and selection means (150, 151) for determining, for each face area detected by the first detection means, from among a plurality of head areas detected by the first detection means, a head area related to an identical subject as that of the face area, based on an overlap ratio with the face area, and selecting, as a final detection result of the eye area or pupil area, one of a detection result of the eye area or pupil area for the face area and a detection result of the eye area or pupil area for the head area, wherein the face area and the head area are related to the identical subject. first detection means (201, 202) for detecting one or more face areas from image data, generated from an optical image, using a face detection first method and separately detecting one or more head areas from the image data using a head detection method; second detection means (203, 204) for detecting an eye area or a pupil area from data of each face area detected by the first detection means and from data of each head area detected by the first detection means; and selection means (150, 151) for determining, for each face area detected by the first detection means, from among a plurality of head areas detected by the first detection means, a head area related to an identical subject as that of the face area, based on an overlap ratio with the face area, and selecting, as a final detection result of the eye area or pupil area, one of a detection result of the eye area or pupil area for the face area and a detection result of the eye area or pupil area for the head area, wherein the face area and the head area are related to the identical subject.
An information multiplexing method, comprising: coding multiple feedback information according to a number of the multiple feedback information and a linear block code sequence, and truncating the coded multiple feedback information according to a target length of the coded multiple feedback information, wherein the feedback information is Acknowledgement /Negative Acknowledgement, ACK/NACK, and the number of the multiple feedback information is an integer more than 2; sequentially dividing coded uplink control information and uplink data information into multiple control information logic units and multiple data information logic units; sequentially dividing the truncated coded multiple feedback information and the rank indication information into multiple feedback information logic units and multiple rank indication information logic units, and multiplexing together the multiple feedback information logic units, the multiple rank indication information logic units, the multiple control information logic units and the multiple data information logic units; wherein a number of bits in a control information logic unit, a rank indication information logic unit, a data information logic unit, and a feedback information logic unit is the same; wherein the step of coding multiple feedback information according to the number of the multiple feedback information and the linear block code sequence comprises: coding the multiple feedback information according to the number of the multiple feedback information and a length of a basic sequence. coding multiple feedback information according to a number of the multiple feedback information and a linear block code sequence, and truncating the coded multiple feedback information according to a target length of the coded multiple feedback information, wherein the feedback information is Acknowledgement /Negative Acknowledgement, ACK/NACK, and the number of the multiple feedback information is an integer more than 2; sequentially dividing coded uplink control information and uplink data information into multiple control information logic units and multiple data information logic units; sequentially dividing the truncated coded multiple feedback information and the rank indication information into multiple feedback information logic units and multiple rank indication information logic units, and multiplexing together the multiple feedback information logic units, the multiple rank indication information logic units, the multiple control information logic units and the multiple data information logic units; wherein a number of bits in a control information logic unit, a rank indication information logic unit, a data information logic unit, and a feedback information logic unit is the same; wherein the step of coding multiple feedback information according to the number of the multiple feedback information and the linear block code sequence comprises: coding the multiple feedback information according to the number of the multiple feedback information and a length of a basic sequence.
A heater for heating an e-liquid, the heater comprising a cylindrical core, and three metal wires secured to the core, wherein the core comprises three through holes, and the three metal wires are disposed in the three through holes, respectively, characterized in that the cylindrical core is made of quartz, mica, or jade.
Shaft for a catheter, the shaft having a longitudinal axis defining a radial distance, and a cross section having a polar axis (ρ) defining an angular position (φ), wherein the shaft comprises: a tubular core which has an inner perimeter and an outer perimeter, and an outer layer for improving mechanical properties, which encloses the tubular core such that the outer perimeter of the core and the outer layer face each other, wherein the radial distance between the outer perimeter and the inner perimeter differs at different polar angular positions (φ), forming zones of different stiffness at different angular positions (φ), wherein different planes of the shaft oriented along the longitudinal axis and cutting the cross section at different polar angular positions (φ) have different flexural properties which are determined by the stiffness of the zones, wherein the zones of different stiffness comprise zones of reduced thickness (108, 110, 120, 122, 124, 126, 140, 142, 148, 150, 152, 154) formed by grooves (108, 110, 120, 122, 124, 126, 140, 142, 148, 150, 152, 154) on the outer perimeter of the tubular core extending along the longitudinal axis, wherein at least one reinforcement wire (128, 129, 130, 131, 164, 165, 167, 168) is arranged in one or more of the zones of reduced thickness (108, 110, 120, 122, 124, 126, 140, 142, 148, 150, 152, 154), and wherein the zones of reduced thickness are each formed as a concave meniscus and extend along a larger polar angular interval of the outer perimeter than a diameter of the reinforcement wire. a tubular core which has an inner perimeter and an outer perimeter, and an outer layer for improving mechanical properties, which encloses the tubular core such that the outer perimeter of the core and the outer layer face each other, wherein the radial distance between the outer perimeter and the inner perimeter differs at different polar angular positions (φ), forming zones of different stiffness at different angular positions (φ), wherein different planes of the shaft oriented along the longitudinal axis and cutting the cross section at different polar angular positions (φ) have different flexural properties which are determined by the stiffness of the zones, wherein the zones of different stiffness comprise zones of reduced thickness (108, 110, 120, 122, 124, 126, 140, 142, 148, 150, 152, 154) formed by grooves (108, 110, 120, 122, 124, 126, 140, 142, 148, 150, 152, 154) on the outer perimeter of the tubular core extending along the longitudinal axis, wherein at least one reinforcement wire (128, 129, 130, 131, 164, 165, 167, 168) is arranged in one or more of the zones of reduced thickness (108, 110, 120, 122, 124, 126, 140, 142, 148, 150, 152, 154), and wherein the zones of reduced thickness are each formed as a concave meniscus and extend along a larger polar angular interval of the outer perimeter than a diameter of the reinforcement wire.
Device for liquid disinfection having UV emitters, which are housed in parallel casing tubes, and having at least one carriage which is displaceably guided along the casing tubes and which comprises slit or helically wound cleaning elements which annularly surround the casing tubes and which are held in a peripheral groove of slit housing rings mounted in the carriage with radial clearance, characterised in that the annular cleaning elements lie against the groove bottom of the peripheral groove receiving them, and in that the slit housing rings are surrounded with elastic tension rings under pretensioning.
A small turbine engine with an ignition system, which comprises a combustion chamber connectable to the supply of fuel and air, whereby the combustion chamber is provided with an ignition system with a glow plug, wherein the combustion chamber is provided with at least one starter bypass nozzle having a fuel spray angle in the range between 60° and 110° and a starting pump, where by the starter bypass nozzle is connected through the starting pump to the fuel supply to the engine and wherein the fuel supply to the engine comprises a main pump, behind which the fuel manifold is divided into two branches - a starting fuel branch with a starting solenoid valve and an operating fuel branch with an operating solenoid valve, whereby behind the starting solenoid valve the fuel is led to the inlet of the starting pump, whose outlet is by a fuel supply pipe line connected to the inlet of the starter bypass nozzle, whose outlet is by a bypass pipe connected to the starting fuel branch between the starting solenoid valve and the starting pump.