mhurhangee/patent-ind-claim-en huggingface dataset:
A computer implemented method for a frame sequence processing to generate an alarm when a dangerous object is being used, including a frame acquisition step, a division into sub-regions step, object identification step and decision making step, in which alert generation step is executed if decision made in decision making step is positive, characterized in that division into sub-regions step includes division of the frame into sub-regions that overlap and have at least 100x100 pixels, object identification step is executed in sub-region by sub-region manner and includes processing a frame with a deep neural network trained to detect the dangerous object and returns probability of detection for sub-regions of the frame formed into probability map corresponding to the frame, decision made in decision making step depends on a combination of at least a first criterion and a second criterion applied to the subsequent frames and corresponding probability maps, wherein the first criterion includes probability of detection within a predefined number N of subsequent frames being above predefined value of p min and the second criterion includes determination if a distance between sub-regions in which probability of detection above predefined value of p min was observed in subsequent frames is lower than given value d max . division into sub-regions step includes division of the frame into sub-regions that overlap and have at least 100x100 pixels, object identification step is executed in sub-region by sub-region manner and includes processing a frame with a deep neural network trained to detect the dangerous object and returns probability of detection for sub-regions of the frame formed into probability map corresponding to the frame, decision made in decision making step depends on a combination of at least a first criterion and a second criterion applied to the subsequent frames and corresponding probability maps, wherein the first criterion includes probability of detection within a predefined number N of subsequent frames being above predefined value of p min and the second criterion includes determination if a distance between sub-regions in which probability of detection above predefined value of p min was observed in subsequent frames is lower than given value d max .
A secondary battery , comprising a negative electrode plate, wherein the negative electrode plate comprises a negative electrode current collector and a negative electrode film disposed on at least one surface of the negative electrode current collector, and the negative electrode film comprises a negative electrode active material, a conductive agent and a binder, the negative electrode active material comprises SiOx (0<x<2) and graphite; an average particle diameter Dv50 of the negative electrode active material is from 8 μm to 14 μm; and the conductive agent comprises carbon nanotubes whose aspect ratio is from (2500: 1) to (20000: 1), optionally, from (2800: 1) to (10000: 1). the negative electrode active material comprises SiOx (0<x<2) and graphite; an average particle diameter Dv50 of the negative electrode active material is from 8 μm to 14 μm; and the conductive agent comprises carbon nanotubes whose aspect ratio is from (2500: 1) to (20000: 1), optionally, from (2800: 1) to (10000: 1).
A method performed by a digital Distributed Antenna System, DAS, of routing at least one reference signal received by at least one digital master unit of the DAS to at least one digital remote unit of the DAS, the method being characterized in comprising: identifying (S100) type of communication system that the received reference signal is transmitted from; measuring (S101) strength of a received reference signal; determining (S102) a required strength that the received reference signal should have upon being transmitted to a wireless communication device located in a coverage area served by the at least one digital remote unit , wherein the determining of the required strength that the received reference signal should have is determined as stipulated by the identified type of communication system; and adjusting (S103) gain of a routing path of the DAS via which the received reference signal is to be routed to an antenna port of the at least one digital remote unit such that the strength of the received reference signal attains the required strength when being transmitted from said at least one digital remote unit . identifying (S100) type of communication system that the received reference signal is transmitted from; measuring (S101) strength of a received reference signal; determining (S102) a required strength that the received reference signal should have upon being transmitted to a wireless communication device located in a coverage area served by the at least one digital remote unit , wherein the determining of the required strength that the received reference signal should have is determined as stipulated by the identified type of communication system; and adjusting (S103) gain of a routing path of the DAS via which the received reference signal is to be routed to an antenna port of the at least one digital remote unit such that the strength of the received reference signal attains the required strength when being transmitted from said at least one digital remote unit .
Device for transmitting electrical energy and/or electrical signals from a fixed wall to a wing hingedly fastened to the wall about a hinge axis (S), the device comprising a wall part (1, 101; 2) which can be fastened to the wall, comprising a wing part which can be fastened to the wing, and comprising an energy and/or signal transmitter which comprises a wall transmitter part provided in the wall part (1, 101; 2) and a wing transmitter part provided in the wing part , at least one of the wall transmitter part or wing transmitter part being arranged such that it can be displaced in the direction of the hinge axis (S), characterized in that a selectively actuatable displacement drive is provided, by means of which the at least one of the wall transmitter part or wing transmitter part can be displaced in the direction of the hinge axis (S) between a retracted mounting position, in which it is possible to assemble the device, and an extended functional position, in which their mutually facing sides are at a very small defined distance from one another such that they do not rub against one another.
A plasma enhanced chemical vapor deposition (PECVD) apparatus for performing a deposition process by using a mask with respect to a substrate, the deposition apparatus comprising: a chamber including a transparent window at a lower part of the chamber; a support unit in the chamber , the support unit including first holes and being configured to support the substrate; a supply unit configured to supply at least one deposition raw material toward the substrate; movable alignment units through the first holes of the support unit , the alignment units being configured to support the mask and to align the mask with respect to the substrate, alignment confirmation members, disposed opposite to the supply unit with the support unit therebetween, the alignment confirmation members configured to confirm an alignment state of the substrate and the mask through the transparent window of the chamber, wherein a cross-sectional area of the alignment units is smaller than a cross sectional area of the first holes , the alignment units being movable in three dimensions inside the first holes ; and a power unit configured to apply voltage between the supply unit and the support unit to generate plasma, wherein the deposition apparatus further comprises lift pins through second holes in the support unit , the lift pins being configured to support the substrate and to move vertically in the second holes to dispose the substrate onto the support unit , optionally wherein the second holes are closer to a center region of the support unit than the first holes . a chamber including a transparent window at a lower part of the chamber; a support unit in the chamber , the support unit including first holes and being configured to support the substrate; a supply unit configured to supply at least one deposition raw material toward the substrate; movable alignment units through the first holes of the support unit , the alignment units being configured to support the mask and to align the mask with respect to the substrate, alignment confirmation members, disposed opposite to the supply unit with the support unit therebetween, the alignment confirmation members configured to confirm an alignment state of the substrate and the mask through the transparent window of the chamber, wherein a cross-sectional area of the alignment units is smaller than a cross sectional area of the first holes , the alignment units being movable in three dimensions inside the first holes ; and a power unit configured to apply voltage between the supply unit and the support unit to generate plasma, wherein the deposition apparatus further comprises lift pins through second holes in the support unit , the lift pins being configured to support the substrate and to move vertically in the second holes to dispose the substrate onto the support unit , optionally wherein the second holes are closer to a center region of the support unit than the first holes .
A connection apparatus for attachment of members of a medical device, comprising: a nosecone having opposing first and second ends ; a flue having opposing first and second ends , said flue having a base on said first end ; said second end of said nosecone releasably engaging said first end of said flue ; characterised by said flue having an overmold portion on said second end , and wherein said overmold portion of said flue has a projection extending radially inward from an inner surface thereof and configured to sealingly engage or contact against an outer periphery or circumference of a surgical tip . a nosecone having opposing first and second ends ; a flue having opposing first and second ends , said flue having a base on said first end ; said second end of said nosecone releasably engaging said first end of said flue ; characterised by said flue having an overmold portion on said second end , and wherein said overmold portion of said flue has a projection extending radially inward from an inner surface thereof and configured to sealingly engage or contact against an outer periphery or circumference of a surgical tip .
An information transmission method, applied in a terminal device, comprising: determining first assistance information, wherein the first assistance information indicates a configuration parameter requested by the terminal device to be configured by a first network device, wherein the first assistance information comprises power consumption assistance information which indicates to reduce power consumption of the terminal device; and sending the first assistance information to a second network device, wherein the first assistance information is forwarded by the second network device to the first network device, wherein the configuration parameter for the terminal device is based on the first assistance information, and wherein the first network device is a secondary node device in dual connectivity, the second network device is a master node device in dual connectivity; wherein the first assistance information further comprises at least one of the following parameter information: a processing latency of the terminal device, a discontinuous reception DRX configuration parameter of the terminal device, a physical downlink control channel PDCCH monitoring parameter of the terminal device, a search space configuration parameter of the terminal device, a maximum quantity of blind detection times of the terminal device, a measurement-related parameter of the terminal device, or a RRC connection release request parameter determining first assistance information, wherein the first assistance information indicates a configuration parameter requested by the terminal device to be configured by a first network device, wherein the first assistance information comprises power consumption assistance information which indicates to reduce power consumption of the terminal device; and sending the first assistance information to a second network device, wherein the first assistance information is forwarded by the second network device to the first network device, wherein the configuration parameter for the terminal device is based on the first assistance information, and wherein the first network device is a secondary node device in dual connectivity, the second network device is a master node device in dual connectivity; wherein the first assistance information further comprises at least one of the following parameter information: a processing latency of the terminal device, a discontinuous reception DRX configuration parameter of the terminal device, a physical downlink control channel PDCCH monitoring parameter of the terminal device, a search space configuration parameter of the terminal device, a maximum quantity of blind detection times of the terminal device, a measurement-related parameter of the terminal device, or a RRC connection release request parameter
A processor for use in a system for processing electrophysiological signals, the processor comprising: an input configured to receive an electrophysiological signal request from a remote device , the electrophysiological signal request specifying at least one electrode from which to receive an electrophysiological signal; a first output configured to transmit to an implant instructions to apply a plurality of stimuli via the specified at least one electrode ; and a second output configured to transmit the electrophysiological signal to the remote device for further processing, the processor further comprising: a recording module configured to record, for individual stimuli in the plurality of stimuli, an electrophysiological signal component resulting from an individual stimulus; a combiner configured to combine the individual recorded electrophysiological signal components to produce the electrophysiological signal; and distortion detection circuitry to detect any distortion of the electrophysiological signal components before they are transmitted, so as to transmit only the non-distorted electrophysiological signals thus reducing the amount of information transmitted between the processor and the remote device , wherein the processor is distinct from the implant . an input configured to receive an electrophysiological signal request from a remote device , the electrophysiological signal request specifying at least one electrode from which to receive an electrophysiological signal; a first output configured to transmit to an implant instructions to apply a plurality of stimuli via the specified at least one electrode ; and a second output configured to transmit the electrophysiological signal to the remote device for further processing, the processor further comprising: a recording module configured to record, for individual stimuli in the plurality of stimuli, an electrophysiological signal component resulting from an individual stimulus; a combiner configured to combine the individual recorded electrophysiological signal components to produce the electrophysiological signal; and distortion detection circuitry to detect any distortion of the electrophysiological signal components before they are transmitted, so as to transmit only the non-distorted electrophysiological signals thus reducing the amount of information transmitted between the processor and the remote device , wherein the processor is distinct from the implant . a recording module configured to record, for individual stimuli in the plurality of stimuli, an electrophysiological signal component resulting from an individual stimulus; a combiner configured to combine the individual recorded electrophysiological signal components to produce the electrophysiological signal; and distortion detection circuitry to detect any distortion of the electrophysiological signal components before they are transmitted, so as to transmit only the non-distorted electrophysiological signals thus reducing the amount of information transmitted between the processor and the remote device , wherein the processor is distinct from the implant .
A magnetic susceptometer for locating tissue in preparation for excision by surgery, by detecting a magnetic marker within the tissue, the magnetic susceptometer comprising a probe, the probe comprising: a probe core having a first end and a second end, the probe core defining two regions for containing coils of wire, one of the regions being adjacent the first end of the probe core; two sense coils , one each of the sense coils being located in a respective one of the regions; two drive coils , one each of the drive coils being located in a respective one of the regions, each drive coil being arranged to generate a primary alternating magnetic drive field; and a source of a secondary alternating magnetic drive field, wherein the regions are separated by a distance equal to or greater than the diameter of one of the drive and sense coils; wherein the magnetic susceptometer is arranged such that the primary alternating magnetic drive field has a frequency, f 0 , and the secondary alternating magnetic drive field has a lower frequency, f 1 , from that of the primary alternating magnetic drive field; wherein the magnetic susceptometer is arranged to detect a signal generated by the magnetic marker at a mixing frequency of f 0 ± 2nf 1 , where n is a whole number. a probe core having a first end and a second end, the probe core defining two regions for containing coils of wire, one of the regions being adjacent the first end of the probe core; two sense coils , one each of the sense coils being located in a respective one of the regions; two drive coils , one each of the drive coils being located in a respective one of the regions, each drive coil being arranged to generate a primary alternating magnetic drive field; and a source of a secondary alternating magnetic drive field, wherein the regions are separated by a distance equal to or greater than the diameter of one of the drive and sense coils; wherein the magnetic susceptometer is arranged such that the primary alternating magnetic drive field has a frequency, f 0 , and the secondary alternating magnetic drive field has a lower frequency, f 1 , from that of the primary alternating magnetic drive field; wherein the magnetic susceptometer is arranged to detect a signal generated by the magnetic marker at a mixing frequency of f 0 ± 2nf 1 , where n is a whole number.
A patient interface device for coupling an eye of a patient to an ophthalmic surgical laser system, comprising: a hollow shell formed of a rigid material; a flexible suction ring joined to a lower edge of the shell; an applanation lens located near the lower edge of the shell; and a flexible annular diaphragm , which joins the applanation lens to the shell at a location near the lower edge of the shell , wherein the flexible annular diaphragm allows the applanation lens to move relative to the shell , characterized in that the applanation lens has a spacer attached to its top surface, configured to form a thin air gap between the bottom surface of the laser delivery head of the ophthalmic surgical laser system and the top surface of the applanation lens . a hollow shell formed of a rigid material; a flexible suction ring joined to a lower edge of the shell; an applanation lens located near the lower edge of the shell; and a flexible annular diaphragm , which joins the applanation lens to the shell at a location near the lower edge of the shell , wherein the flexible annular diaphragm allows the applanation lens to move relative to the shell , characterized in that the applanation lens has a spacer attached to its top surface, configured to form a thin air gap between the bottom surface of the laser delivery head of the ophthalmic surgical laser system and the top surface of the applanation lens .
A ground-contact sensor array for a lower limb prosthetic device , wherein the ground-contact sensor array comprises: a first body configured to attach to a shank of the lower limb prosthetic device ; a second body moveably attached to the first body and comprising a distal connector configured to attach to a prosthetic foot or ankle; and a plurality of sensors coupled with the first or second body; characterized in that the sensors are configured to generate data related to a plurality of distances between the first and second body. a first body configured to attach to a shank of the lower limb prosthetic device ; a second body moveably attached to the first body and comprising a distal connector configured to attach to a prosthetic foot or ankle; and a plurality of sensors coupled with the first or second body; characterized in that the sensors are configured to generate data related to a plurality of distances between the first and second body.
A fuel cell electrode catalyst layer comprising: - a catalyst which includes a catalyst carrier and a catalyst metal carried on the catalyst carrier ; and - a polymer electrolyte , wherein: - a BET specific surface area of the catalyst carrier is more than 850 (m 2 /g carrier), the BET specific surface area being measured according to the description, - the polymer electrolyte contains a sulfonic acid group as a cation-exchange group and the sulfonic acid group is contained in an amount of 1.2 (mmol/g carrier) or more, and - a maximum value (Imax) and a minimum value (Imin) of a local I/C ratio satisfy the following mathematical formula : Imax / Imin ≥ 2.5 . , the local I/C ratio being measured according to the description. - a catalyst which includes a catalyst carrier and a catalyst metal carried on the catalyst carrier ; and - a polymer electrolyte , - a BET specific surface area of the catalyst carrier is more than 850 (m 2 /g carrier), the BET specific surface area being measured according to the description, - the polymer electrolyte contains a sulfonic acid group as a cation-exchange group and the sulfonic acid group is contained in an amount of 1.2 (mmol/g carrier) or more, and - a maximum value (Imax) and a minimum value (Imin) of a local I/C ratio satisfy the following mathematical formula : Imax / Imin ≥ 2.5 . , the local I/C ratio being measured according to the description.
A method for radio resource allocation, comprising determining, by a sender, a location of an index channel; determining, by the sender, a channel time-frequency location of a control channel related to a current state of a receiver according to the index channel, wherein the index channel is a channel different from the control channel; and sending, by the sender, data time-frequency location indication information indicating a data time-frequency location of data to be sent to the receiver, a size of a time-frequency resource occupied by the data and a Modulation and Coding Scheme, MCS, of the data to the receiver through the control channel at the channel time-frequency location. determining, by a sender, a location of an index channel; determining, by the sender, a channel time-frequency location of a control channel related to a current state of a receiver according to the index channel, wherein the index channel is a channel different from the control channel; and sending, by the sender, data time-frequency location indication information indicating a data time-frequency location of data to be sent to the receiver, a size of a time-frequency resource occupied by the data and a Modulation and Coding Scheme, MCS, of the data to the receiver through the control channel at the channel time-frequency location.