mhurhangee/patent-ind-claim-en huggingface dataset:
A user equipment, UE, for a wireless communication system having a plurality of Bandwidth Parts, BWPs, in a cell, the UE comprising: a processor ; and a communication module , wherein the processor is configured to: receive (S1602) downlink control information, DCI, for a physical shared channel, wherein the DCI includes a resource indication value, RIV, defined with reference to a size of a first BWP, expressed as a number of resource blocks, RBs; and transmit or receive (S1604) the physical shared channel on a contiguous frequency resource of a second BWP, wherein the contiguous frequency resource is identified based on a starting index S' and a length L' associated with the RIV, wherein, when the first BWP has a less number of RBs than the second BWP, a starting index S and a length L of the contiguous frequency resource are defined by scaling each of S' and L' by K times, and wherein K has a value within a set {1, 2, ..., 2 n }, based on a ratio of a number of RBs between the second BWP and the first BWP, and n represents a positive integer, and wherein S and L are expressed in unit of RB. a processor ; and a communication module , wherein the processor is configured to: receive (S1602) downlink control information, DCI, for a physical shared channel, wherein the DCI includes a resource indication value, RIV, defined with reference to a size of a first BWP, expressed as a number of resource blocks, RBs; and transmit or receive (S1604) the physical shared channel on a contiguous frequency resource of a second BWP, wherein the contiguous frequency resource is identified based on a starting index S' and a length L' associated with the RIV, wherein, when the first BWP has a less number of RBs than the second BWP, a starting index S and a length L of the contiguous frequency resource are defined by scaling each of S' and L' by K times, and wherein K has a value within a set {1, 2, ..., 2 n }, based on a ratio of a number of RBs between the second BWP and the first BWP, and n represents a positive integer, and wherein S and L are expressed in unit of RB. receive (S1602) downlink control information, DCI, for a physical shared channel, wherein the DCI includes a resource indication value, RIV, defined with reference to a size of a first BWP, expressed as a number of resource blocks, RBs; and transmit or receive (S1604) the physical shared channel on a contiguous frequency resource of a second BWP, wherein the contiguous frequency resource is identified based on a starting index S' and a length L' associated with the RIV, wherein, when the first BWP has a less number of RBs than the second BWP, a starting index S and a length L of the contiguous frequency resource are defined by scaling each of S' and L' by K times, and wherein K has a value within a set {1, 2, ..., 2 n }, based on a ratio of a number of RBs between the second BWP and the first BWP, and n represents a positive integer, and wherein S and L are expressed in unit of RB.
An epoxy resin composition comprising a first epoxy resin component containing an oxazolidone; a second epoxy resin component; dicyandiamide particles having a particle distribution in which 98 percent of the dicyandiamide particles have a diameter less than 10 microns, and at least 35% of the dicyandiamide particles have a particle size of less than 2 microns; and an epoxy soluble latent catalyst.
A radio frequency (RF) power generator comprising: an outer enclosure having a system cavity , the outer enclosure separating the system cavity from an exterior of the radio frequency (RF) power generator; an RF amplification system disposed in the system cavity and emitting electromagnetic radiation while producing electric power for energizing a particle accelerator , the outer enclosure being configured to reduce leakage of the electromagnetic radiation into the exterior of the radio frequency (RF) power generator; and a feedthrough assembly comprising a coaxial line configured to receive the electric power generated by the RF amplification system, the coaxial line being positioned within the system cavity and having inner and outer conductors , the feedthrough assembly including a connector shield that forms a passage to the exterior of the radio frequency (RF) power generator, the connector shield being electrically coupled to the outer conductor of the coaxial line and integrated with the outer enclosure to reduce leakage of the electromagnetic radiation into the exterior of the radio frequency (RF) power generator . an outer enclosure having a system cavity , the outer enclosure separating the system cavity from an exterior of the radio frequency (RF) power generator; an RF amplification system disposed in the system cavity and emitting electromagnetic radiation while producing electric power for energizing a particle accelerator , the outer enclosure being configured to reduce leakage of the electromagnetic radiation into the exterior of the radio frequency (RF) power generator; and a feedthrough assembly comprising a coaxial line configured to receive the electric power generated by the RF amplification system, the coaxial line being positioned within the system cavity and having inner and outer conductors , the feedthrough assembly including a connector shield that forms a passage to the exterior of the radio frequency (RF) power generator, the connector shield being electrically coupled to the outer conductor of the coaxial line and integrated with the outer enclosure to reduce leakage of the electromagnetic radiation into the exterior of the radio frequency (RF) power generator .
Detection device for the detection of space debris objects in space, wherein the impact of a space debris object is detectable on the detection device , wherein the detection device has a sandwich structure of two conductive layers separated by a non-conductive layer , wherein electrical voltages can be applied to the two conductive layers and at least the outer conductive layer is mechanically changeable by the impact of a space debris object, wherein by this mechanical change at least of the outer conductive layer at least one of its parameter is changeable, wherein this change is measurable and wherein taking this change the impact of a space debris object is detectable, characterized in that the detection device comprises at least one planar antenna , wherein the planar antenna comprises on its surface the sandwich structure of two conductive layers separated by the non-conductive layer .
A stereo signal encoding method, comprising: determining a window length of an attenuation window in a current frame based on an inter-channel time difference in the current frame; determining a modified linear prediction analysis window based on the window length of the attenuation window in the current frame, wherein values of at least some points from a point (L - sub_window_len) to a point (L - 1) in the modified linear prediction analysis window are less than values of corresponding points from a point (L - sub_window_len) to a point (L - 1) in an initial linear prediction analysis window, sub_window_len represents the window length of the attenuation window in the current frame, L represents a window length of the modified linear prediction analysis window, and the window length of the modified linear prediction analysis window is equal to a window length of the initial linear prediction analysis window; and performing linear prediction analysis on a to-be-processed sound channel signal based on the modified linear prediction analysis window. determining a window length of an attenuation window in a current frame based on an inter-channel time difference in the current frame; determining a modified linear prediction analysis window based on the window length of the attenuation window in the current frame, wherein values of at least some points from a point (L - sub_window_len) to a point (L - 1) in the modified linear prediction analysis window are less than values of corresponding points from a point (L - sub_window_len) to a point (L - 1) in an initial linear prediction analysis window, sub_window_len represents the window length of the attenuation window in the current frame, L represents a window length of the modified linear prediction analysis window, and the window length of the modified linear prediction analysis window is equal to a window length of the initial linear prediction analysis window; and performing linear prediction analysis on a to-be-processed sound channel signal based on the modified linear prediction analysis window.
An electrical equipment comprising an electrical equipment main unit housing space and an electric power cable housing space which are located on the right and left sides to each other in a housing , wherein; - an electrical equipment main unit is accommodated in the electrical equipment main unit housing space , - a power cable connected to the electrical equipment main unit is accommodated in the power cable housing space , - a ground bus for grounding the electrical equipment main unit is comprised by a left and right extended ground bus and a front and rear extended ground bus , - wherein, the left and right extended ground bus is located inside the housing and extends in a left to right direction relative to the housing and is positioned at the rear of the housing , - wherein, the front and rear extended ground bus extends in a front to rear direction relative to the housing , is positioned in the power cable housing space on the side opposite to the side adjacent the electrical equipment main unit housing space , is connected to the left and right extended ground bus , and has a ground wire attachment part for attachment to the electrical equipment main unit . - an electrical equipment main unit is accommodated in the electrical equipment main unit housing space , - a power cable connected to the electrical equipment main unit is accommodated in the power cable housing space , - a ground bus for grounding the electrical equipment main unit is comprised by a left and right extended ground bus and a front and rear extended ground bus , - wherein, the left and right extended ground bus is located inside the housing and extends in a left to right direction relative to the housing and is positioned at the rear of the housing , - wherein, the front and rear extended ground bus extends in a front to rear direction relative to the housing , is positioned in the power cable housing space on the side opposite to the side adjacent the electrical equipment main unit housing space , is connected to the left and right extended ground bus , and has a ground wire attachment part for attachment to the electrical equipment main unit .
Planetary roller extruder having a central spindle, planetary spindles and an internal toothed housing liner or an internal toothed housing, wherein the planetary spindles slide with the rear surfaces in the melt flow direction at a stop ring, wherein the toothing runs helically on the central spindle and on the planetary spindles and runs helically in the housing liner or in the housing, wherein the toothing runs right-handed or left-handed wherein particularly an involute toothing is provided, wherein at least one planetary spindle is provided with a counter-rotating toothing, whereinthe outlet side and the inlet sideregion is free of counter-rotating toothing on the spindle ends, wherein the outlet side region that is free of counter-rotating toothingand the inlet side region that is free of counter-rotating toothingpossess a length of 0.5 to 3D and a length of 2 to 5D respectively, wherein D is the pitch diameter of the planetary spindle. wherein the planetary spindles slide with the rear surfaces in the melt flow direction at a stop ring, wherein the toothing runs helically on the central spindle and on the planetary spindles and runs helically in the housing liner or in the housing, wherein the toothing runs right-handed or left-handed wherein particularly an involute toothing is provided, wherein at least one planetary spindle is provided with a counter-rotating toothing, whereinthe outlet side and the inlet sideregion is free of counter-rotating toothing on the spindle ends, wherein the outlet side region that is free of counter-rotating toothingand the inlet side region that is free of counter-rotating toothingpossess a length of 0.5 to 3D and a length of 2 to 5D respectively, wherein D is the pitch diameter of the planetary spindle.
A method to automatically detect lameness of a cow, comprising the steps of: - providing position related data, acquired by a data acquisition system, of at least a part of a barrel of a cow kept for a time period within a detection area, - processing, by a processing device, the position related data of the barrel, wherein processing of the data comprises: - determining a position, or a derivative thereof, of one or more reference locations of the barrel on the basis of the position related data, wherein the one or more reference locations include a center of mass of the barrel of the cow, a back end of the barrel, a position of pin bones, hook bones or tail bones of the cow, and/or a location of the spine, - determining on the basis of the determined position, or the derivative thereof, of the one or more reference locations at least one lameness parameter indicative of the lameness of the cow, characterised in that the at least one lameness parameter comprises a movement, speed and/or acceleration of the one or more reference locations of the barrel. - providing position related data, acquired by a data acquisition system, of at least a part of a barrel of a cow kept for a time period within a detection area, - processing, by a processing device, the position related data of the barrel, wherein processing of the data comprises: - determining a position, or a derivative thereof, of one or more reference locations of the barrel on the basis of the position related data, wherein the one or more reference locations include a center of mass of the barrel of the cow, a back end of the barrel, a position of pin bones, hook bones or tail bones of the cow, and/or a location of the spine, - determining on the basis of the determined position, or the derivative thereof, of the one or more reference locations at least one lameness parameter indicative of the lameness of the cow, characterised in that the at least one lameness parameter comprises a movement, speed and/or acceleration of the one or more reference locations of the barrel. - determining a position, or a derivative thereof, of one or more reference locations of the barrel on the basis of the position related data, wherein the one or more reference locations include a center of mass of the barrel of the cow, a back end of the barrel, a position of pin bones, hook bones or tail bones of the cow, and/or a location of the spine, - determining on the basis of the determined position, or the derivative thereof, of the one or more reference locations at least one lameness parameter indicative of the lameness of the cow,
A method for detecting the amplification of a target nucleic acid sequence in a sample resulting from a nucleic acid amplification reaction capable of generating a single-stranded amplification product comprising at one end a universal tag sequence having a length of between 8 and 30 nucleotides, the method being characterized in that it comprises the steps of: - adding to said sample colloidal gold nanoparticles (AuNP1, AuNP3, AuNP5, AuNP7) functionalized with a first oligonucleotide probe and colloidal gold nanoparticles (AuNP2, AuNP4, AuNP6, AuNP8) functionalized with a second oligonucleotide probe , wherein said first oligonucleotide probe is at least partially complementary to a first portion of said universal tag sequence and said second oligonucleotide probe is at least partially complementary to a second portion of said universal tag sequence or said second oligonucleotide probe is at least partially complementary to said first oligonucleotide probe; - detecting the possible colour change of the sample as a result of the addition of said functionalized colloidal gold nanoparticles (AuNP1, AuNP3, AuNP5, AuNP7; AuNP2, AuNP4, AuNP6, AuNP8), wherein, when the second oligonucleotide probe is at least partially complementary to the second portion of the universal tag sequence, the colour change of the sample is indicative of the successful amplification of the target nucleic acid sequence, whereas when the second oligonucleotide probe is at least partially complementary to the first oligonucleotide probe, the absence of colour change of the sample is indicative of the successful amplification of the target nucleic acid sequence. - adding to said sample colloidal gold nanoparticles (AuNP1, AuNP3, AuNP5, AuNP7) functionalized with a first oligonucleotide probe and colloidal gold nanoparticles (AuNP2, AuNP4, AuNP6, AuNP8) functionalized with a second oligonucleotide probe , wherein said first oligonucleotide probe is at least partially complementary to a first portion of said universal tag sequence and said second oligonucleotide probe is at least partially complementary to a second portion of said universal tag sequence or said second oligonucleotide probe is at least partially complementary to said first oligonucleotide probe; - detecting the possible colour change of the sample as a result of the addition of said functionalized colloidal gold nanoparticles (AuNP1, AuNP3, AuNP5, AuNP7; AuNP2, AuNP4, AuNP6, AuNP8),
A boiler, consisting of a chamber designed to hold and guide hot exhaust gases, which is enclosed by two plate elements which have a beveled design and are arranged like a sandwich relative to each other, and connected with a flow guide formed between the plate elements and used for cooling the hot exhaust gases, characterized in that the flow guide , which is suitably designed for introducing the hot exhaust gas into it along its entire circumference, is designed as a flat slit channel that encloses the chamber along its entire circumference and completely radially encloses the chamber .
A configuration device quality information determination server that is connected and able to communicate to an inspection device via the internet, the inspection device performing an inspection on a configuration device configuring a board work machine by operating the configuration device in accordance with a type of the inspection, the server comprising: an inspection data acquisition section configured to acquire inspection data (M1) obtained from a predetermined type of the inspection by the inspection device; a determination section configured to determine quality information of the configuration device based on the acquired inspection data; and a transmission section configured to transmit a quality information determination result determined by the determination section to a terminal device connected and able to communicate via the internet, characterized in that the server is configured to store, in advance, adjustment reference data (M3) in which an adjustment position and an adjustment amount in the configuration device corresponding to the inspection data are set, the configuration device quality information determination server further comprises an adjustment section configured to specify the adjustment position and calculate the adjustment amount based on the inspection data and the adjustment reference data, and the transmission section is further configured to transmit the adjustment position and the adjustment amount, which are specified and calculated by the adjustment section, to the terminal device. an inspection data acquisition section configured to acquire inspection data (M1) obtained from a predetermined type of the inspection by the inspection device; a determination section configured to determine quality information of the configuration device based on the acquired inspection data; and a transmission section configured to transmit a quality information determination result determined by the determination section to a terminal device connected and able to communicate via the internet, characterized in that the server is configured to store, in advance, adjustment reference data (M3) in which an adjustment position and an adjustment amount in the configuration device corresponding to the inspection data are set, the configuration device quality information determination server further comprises an adjustment section configured to specify the adjustment position and calculate the adjustment amount based on the inspection data and the adjustment reference data, and the transmission section is further configured to transmit the adjustment position and the adjustment amount, which are specified and calculated by the adjustment section, to the terminal device.
A registration method, characterized in that the method is applied to an authorization server which is a node in a blockchain network and stores a blockchain composed of a plurality of blocks, each block is used for storing authorization information, and the method includes: receiving a registration request message sent by a user device, wherein the registration request message includes identification information, and the identification information is used for performing identity verification on a user; assigning authorization information to the user, wherein the authorization information is used to indicate a service that the user can access; and writing the identification information and the authorization information into the blocks of the blockchain through the authorization server. receiving a registration request message sent by a user device, wherein the registration request message includes identification information, and the identification information is used for performing identity verification on a user; assigning authorization information to the user, wherein the authorization information is used to indicate a service that the user can access; and writing the identification information and the authorization information into the blocks of the blockchain through the authorization server.
A method of wireless communication performed by a user equipment, UE, comprising: identifying one or more pathloss reference signals based at least in part on whether a configuration, that indicates a set of pathloss reference signals, has been received and based at least in part on whether a pathloss reference signal activation command has been received, wherein a number of pathloss reference signals, included in the set of pathloss reference signals, is permitted to be greater than a threshold if pathloss reference signal activation commands are enabled, and is not permitted to be greater than the threshold if pathloss reference signal activation commands are disabled; and estimating pathloss using the one or more pathloss reference signals. identifying one or more pathloss reference signals based at least in part on whether a configuration, that indicates a set of pathloss reference signals, has been received and based at least in part on whether a pathloss reference signal activation command has been received, wherein a number of pathloss reference signals, included in the set of pathloss reference signals, is permitted to be greater than a threshold if pathloss reference signal activation commands are enabled, and is not permitted to be greater than the threshold if pathloss reference signal activation commands are disabled; and estimating pathloss using the one or more pathloss reference signals.