mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting a synchronization signal, SS, by a user equipment, UE, configured to transmit a public safety, PS, related discovery signal in a Device-to-Device, D2D, communication, the method comprising: receiving first information related to a discovery period for the PS related the discovery signal, receiving second information related to behavior of the UE for transmitting the SS; and transmitting the SS based on the second information, wherein, when the second information informs a first behavior, the SS is transmitted once in the discovery period, and wherein, when the second information informs a second behavior, the SS is transmitted periodically in the discovery period. receiving first information related to a discovery period for the PS related the discovery signal, receiving second information related to behavior of the UE for transmitting the SS; and transmitting the SS based on the second information, wherein, when the second information informs a first behavior, the SS is transmitted once in the discovery period, and wherein, when the second information informs a second behavior, the SS is transmitted periodically in the discovery period.
An oil circulation unit for lubricating an industrial machine, in particular a knitting machine, further in particular a sock knitting machine, comprising an oil inlet section for returned oil, one or more oil processing devices (12 to 15), as well as a pump sump for passing on processed oil to an internal or external pump unit , wherein the oil processing devices include a particle separation vat between the oil inlet section and the pump sump , and magnetic devices are provided which retain metal pieces, returned during operation of the oil circulation unit, in the particle separation vat and preventing them from being further conveyed toward the pump sump , characterized in that the oil processing devices include a sedimentation device in the form of an open-pore foam between the oil inlet section and the pump sump , wherein the oil flows through the sedimentation device and also smaller particles contained in the returned oil are effectively separated.
A data transmission method, comprising: receiving , by a terminal device in an idle state or an inactive state, a first message sent by a network device ; activating , by the terminal device in the idle state or the inactive state, one or more resources in a first resource based on the first message, to obtain an activated second resource, wherein the first resource comprises a bandwidth part, BWP. resource and/or a semi-persistent scheduling, SPS, resource; and communicating , by the terminal device in the idle state or the inactive state, with the network device based on the activated second resource; the method characterised in that the activating one or more resources in a first resource based on the first message, to obtain an activated second resource, further comprises: the first message comprises first indication information including a field, and the first indication information is used to activate the one or more resources in the first resource, wherein the field indicates that one or more resources that are in the first resource and that correspond to an identifier of the activated second resource are in the active state; and activating the one or more resources in the first resource based on the first indication information, to obtain the activated second resource. receiving , by a terminal device in an idle state or an inactive state, a first message sent by a network device ; activating , by the terminal device in the idle state or the inactive state, one or more resources in a first resource based on the first message, to obtain an activated second resource, wherein the first resource comprises a bandwidth part, BWP. resource and/or a semi-persistent scheduling, SPS, resource; and communicating , by the terminal device in the idle state or the inactive state, with the network device based on the activated second resource; the method characterised in that the activating one or more resources in a first resource based on the first message, to obtain an activated second resource, further comprises: the first message comprises first indication information including a field, and the first indication information is used to activate the one or more resources in the first resource, wherein the field indicates that one or more resources that are in the first resource and that correspond to an identifier of the activated second resource are in the active state; and activating the one or more resources in the first resource based on the first indication information, to obtain the activated second resource. the first message comprises first indication information including a field, and the first indication information is used to activate the one or more resources in the first resource, wherein the field indicates that one or more resources that are in the first resource and that correspond to an identifier of the activated second resource are in the active state; and activating the one or more resources in the first resource based on the first indication information, to obtain the activated second resource.
An in vitro method of identifying a molecular subtype of a tumor in a patient having bladder cancer, the method comprising determining the expression level of RNA transcript of the genes human epidermal growth factor receptor 2 (HER2), estrogen receptor (ESR1), progesterone receptor (PGR), and proliferation antigen Ki-67 (Ki67) in a sample of the tumor.
A prolapse prevention device for treating valvular regurgitation in a heart valve, the prolapse prevention device comprising: a continuous wire-like structure having a first end and a second end that opposes the first end , the first end and the second end being disconnected from each other, wherein the continuous wire-like structure of the prolapse prevention device is substantially straight in a delivery configuration, and wherein the continuous wire-like structure of the prolapse prevention device in a deployed configuration includes a centering ring configured to seat adjacent to and upstream of an annulus of the heart valve to circumferentially center the prolapse prevention device in situ, a vertical support extending from the centering ring such that an apex thereof is configured to seat against a roof of an atrium in situ, and a leaflet backstop extending radially inward from the centering ring and configured to contact at least a first leaflet of the heart valve in situ to exert a pressure in a downstream direction on the first leaflet to prevent the first leaflet from prolapsing into the atrium. a continuous wire-like structure having a first end and a second end that opposes the first end , the first end and the second end being disconnected from each other, wherein the continuous wire-like structure of the prolapse prevention device is substantially straight in a delivery configuration, and wherein the continuous wire-like structure of the prolapse prevention device in a deployed configuration includes a centering ring configured to seat adjacent to and upstream of an annulus of the heart valve to circumferentially center the prolapse prevention device in situ, a vertical support extending from the centering ring such that an apex thereof is configured to seat against a roof of an atrium in situ, and a leaflet backstop extending radially inward from the centering ring and configured to contact at least a first leaflet of the heart valve in situ to exert a pressure in a downstream direction on the first leaflet to prevent the first leaflet from prolapsing into the atrium. a centering ring configured to seat adjacent to and upstream of an annulus of the heart valve to circumferentially center the prolapse prevention device in situ, a vertical support extending from the centering ring such that an apex thereof is configured to seat against a roof of an atrium in situ, and a leaflet backstop extending radially inward from the centering ring and configured to contact at least a first leaflet of the heart valve in situ to exert a pressure in a downstream direction on the first leaflet to prevent the first leaflet from prolapsing into the atrium.
A method of detecting a scene change in a streamed video, the streamed video comprising a series of intra coded pictures, predictive pictures and bi-directional pictures, the method comprising: determining the encoded size of a picture; determining the picture type of the picture; identifying a new scene when the picture type is an intra coded picture and: a) a ratio between a normalized picture size of a previous intra-coded picture and a picture size of the intra-coded picture is larger than a first predetermined value (T_l_med-high) or lower than a second predetermined value (T_l_med-low), wherein the picture size of the previous intra-coded picture is normalized by a scale factor, the scale factor being a ratio of a median and a mean of the previous inter-coded picture sizes, and b) a ratio of Predictive picture sizes before and after the intra-coded picture is lower than a third predetermined value (T_P_med-low) or higher than a fourth predetermined value (T_P_med-high), or a ratio of bi-directional picture sizes before and after the intra-coded picture is lower than a fifth predetermined value (T_B_med-low) or higher than a sixth predetermined value (T_B_med-high). determining the encoded size of a picture; determining the picture type of the picture; identifying a new scene when the picture type is an intra coded picture and: a) a ratio between a normalized picture size of a previous intra-coded picture and a picture size of the intra-coded picture is larger than a first predetermined value (T_l_med-high) or lower than a second predetermined value (T_l_med-low), wherein the picture size of the previous intra-coded picture is normalized by a scale factor, the scale factor being a ratio of a median and a mean of the previous inter-coded picture sizes, and b) a ratio of Predictive picture sizes before and after the intra-coded picture is lower than a third predetermined value (T_P_med-low) or higher than a fourth predetermined value (T_P_med-high), or a ratio of bi-directional picture sizes before and after the intra-coded picture is lower than a fifth predetermined value (T_B_med-low) or higher than a sixth predetermined value (T_B_med-high). a) a ratio between a normalized picture size of a previous intra-coded picture and a picture size of the intra-coded picture is larger than a first predetermined value (T_l_med-high) or lower than a second predetermined value (T_l_med-low), wherein the picture size of the previous intra-coded picture is normalized by a scale factor, the scale factor being a ratio of a median and a mean of the previous inter-coded picture sizes, and b) a ratio of Predictive picture sizes before and after the intra-coded picture is lower than a third predetermined value (T_P_med-low) or higher than a fourth predetermined value (T_P_med-high), or a ratio of bi-directional picture sizes before and after the intra-coded picture is lower than a fifth predetermined value (T_B_med-low) or higher than a sixth predetermined value (T_B_med-high).
A computer-implemented method for calculating a second cutting parameter data set for controlling and/or regulating a laser cutting process for cutting metal sheets of a laser cutting machine (L) during the laser cutting of components (WS), having the following method steps, which are carried out on an electronic computing unit (RE): - acquisition (S1) of a first cutting parameter data set ; the computer-implemented method being characterised by the following steps: - extraction (S2) of a movement profile object (bpo) with data relating to the movement to be performed by a laser cutting head and/or data relating to the geometry to be cut, in particular data on the curvature and/or radii of the contour to be cut; - execution (S4) of a conversion algorithm during cutting to dynamically adjust the cutting parameters, said conversion algorithm is stored loadable and/or executable in a memory (MEM) of the electronic computing unit, to calculate and provide the second cutting parameter data set from the acquired first cutting parameter data set by using transformation rules that are based on a function catalogue which can be stored in an external or internal memory, wherein the second cutting parameter data set is calculated as a function of the extracted movement profile object (bpo) - wherein the first cutting parameter data set and/or second cutting parameter data set comprises dynamic cutting parameters, namely in particular cutting speed, focus position, pulse pattern, nozzle distance, gas pressure, laser power, beam parameter product/BPP and/or focus diameter; - wherein said conversion algorithm calculates a dedicated function for each of the dynamic cutting parameters from a set of functions stored in the memory (MEM). - acquisition (S1) of a first cutting parameter data set ; - extraction (S2) of a movement profile object (bpo) with data relating to the movement to be performed by a laser cutting head and/or data relating to the geometry to be cut, in particular data on the curvature and/or radii of the contour to be cut; - execution (S4) of a conversion algorithm during cutting to dynamically adjust the cutting parameters, said conversion algorithm is stored loadable and/or executable in a memory (MEM) of the electronic computing unit, to calculate and provide the second cutting parameter data set from the acquired first cutting parameter data set by using transformation rules that are based on a function catalogue which can be stored in an external or internal memory, wherein the second cutting parameter data set is calculated as a function of the extracted movement profile object (bpo) - wherein the first cutting parameter data set and/or second cutting parameter data set comprises dynamic cutting parameters, namely in particular cutting speed, focus position, pulse pattern, nozzle distance, gas pressure, laser power, beam parameter product/BPP and/or focus diameter; - wherein said conversion algorithm calculates a dedicated function for each of the dynamic cutting parameters from a set of functions stored in the memory (MEM).
A system (300; 400; 500; 600) for monitoring intracardiac pressure of a patient, the system comprising: a pressure sensor (202; 302; 402; 502; 602) configured to measure a pressure within a heart chamber of the patient; a shunting element having a lumen extending therethrough, wherein the lumen is configured to fluidly couple a left atrium and a right atrium of the patient when the system is implanted in the patient, wherein the pressure sensor is operably coupled to the shunting element; an actuation mechanism configured to adjust a geometry of the lumen in response to the measured pressure; an anchoring element (406; 506) configured to be secured to tissue at and/or proximate the heart chamber; and a connecting element (408; 508) coupling the pressure sensor to the anchoring element, wherein the connecting element is configured to space the pressure sensor apart from the tissue when the anchoring element is secured to the tissue to reduce tissue overgrowth on the pressure sensor. a pressure sensor (202; 302; 402; 502; 602) configured to measure a pressure within a heart chamber of the patient; a shunting element having a lumen extending therethrough, wherein the lumen is configured to fluidly couple a left atrium and a right atrium of the patient when the system is implanted in the patient, wherein the pressure sensor is operably coupled to the shunting element; an actuation mechanism configured to adjust a geometry of the lumen in response to the measured pressure; an anchoring element (406; 506) configured to be secured to tissue at and/or proximate the heart chamber; and a connecting element (408; 508) coupling the pressure sensor to the anchoring element, wherein the connecting element is configured to space the pressure sensor apart from the tissue when the anchoring element is secured to the tissue to reduce tissue overgrowth on the pressure sensor.
A method for treating spent powdered activated carbon (PAC) and/or coal combustion residues (CCRs), comprising: collecting spent PAC and/or CCRs from a particulate collection system, transferring the spent PAC and/or CCRs to a storage unit , transferring the spent PAC and/or CCRs to a volatilization vessel or zone , heating the spent PAC and/or CCRs in an inert atmosphere to volatilize at least one heavy metal captured in the spent PAC and/or CCRs to thereby vaporize at least one heavy metal into a gas stream , injecting or spraying a treating solution comprising a water soluble alkaline-earth sulfide into the gas stream containing the at least one vaporized heavy metal in a treatment unit to thereby precipitate out the at least one vaporized heavy metal from the gas stream in the form of a residue, collecting or filtering out the residue in a silo . collecting spent PAC and/or CCRs from a particulate collection system, transferring the spent PAC and/or CCRs to a storage unit , transferring the spent PAC and/or CCRs to a volatilization vessel or zone , heating the spent PAC and/or CCRs in an inert atmosphere to volatilize at least one heavy metal captured in the spent PAC and/or CCRs to thereby vaporize at least one heavy metal into a gas stream , injecting or spraying a treating solution comprising a water soluble alkaline-earth sulfide into the gas stream containing the at least one vaporized heavy metal in a treatment unit to thereby precipitate out the at least one vaporized heavy metal from the gas stream in the form of a residue, collecting or filtering out the residue in a silo .
A power control device having a filter module connectable to a power source , characterized by comprising: a current module connected to the filter module and having a first end adapted to be connected to an LED load , the current module being configured to provide a temporary current serving as a filament current at the first end ; a type-check module connected to the filter module , the type-check module being configured to detect a type of the power source ; a voltage-check module connected to the filter module ; the voltage-check module being configured to detect an overvoltage; and a control module connected to the current module , the type-check module and the voltage-check module , the control module being configured to turn on or turn off the current module according to the type-check module and the voltage-check module , wherein the type-check module includes: a current-mode-check module connected to the filter module ; a voltage-mode-check module connected to the filter module ; and a latch having two input ends connected to the current-mode-check module and the voltage-mode-check module respectively, and an output end connected to the type-check node (Nt). a current module connected to the filter module and having a first end adapted to be connected to an LED load , the current module being configured to provide a temporary current serving as a filament current at the first end ; a type-check module connected to the filter module , the type-check module being configured to detect a type of the power source ; a voltage-check module connected to the filter module ; the voltage-check module being configured to detect an overvoltage; and a control module connected to the current module , the type-check module and the voltage-check module , the control module being configured to turn on or turn off the current module according to the type-check module and the voltage-check module , wherein the type-check module includes: a current-mode-check module connected to the filter module ; a voltage-mode-check module connected to the filter module ; and a latch having two input ends connected to the current-mode-check module and the voltage-mode-check module respectively, and an output end connected to the type-check node (Nt). a current-mode-check module connected to the filter module ; a voltage-mode-check module connected to the filter module ; and a latch having two input ends connected to the current-mode-check module and the voltage-mode-check module respectively, and an output end connected to the type-check node (Nt).
A method of producing an optical fibre preform , the method comprising: an alkali-metal-doped silica glass body forming step of forming an alkali-metal-doped silica glass body doped with an alkali metal; a silica glass body forming step of forming a silica glass body to be at least a portion of a core portion around the alkali-metal-doped silica glass body such that the silica glass body contacts the alkali-metal-doped silica glass body; and a diffusing step of diffusing the alkali metal from the alkali-metal-doped silica glass body to the silica glass body by a heat treatment; characterised in that the alkali-metal-doped silica glass body forming step comprises: a step of forming an alkali-metal-doped silica soot by using a VAD method or an OVD method; and a step of vitrifying the alkali-metal-doped silica soot in a non-chlorine-based atmosphere. an alkali-metal-doped silica glass body forming step of forming an alkali-metal-doped silica glass body doped with an alkali metal; a silica glass body forming step of forming a silica glass body to be at least a portion of a core portion around the alkali-metal-doped silica glass body such that the silica glass body contacts the alkali-metal-doped silica glass body; and a diffusing step of diffusing the alkali metal from the alkali-metal-doped silica glass body to the silica glass body by a heat treatment; characterised in that the alkali-metal-doped silica glass body forming step comprises: a step of forming an alkali-metal-doped silica soot by using a VAD method or an OVD method; and a step of vitrifying the alkali-metal-doped silica soot in a non-chlorine-based atmosphere. a step of forming an alkali-metal-doped silica soot by using a VAD method or an OVD method; and a step of vitrifying the alkali-metal-doped silica soot in a non-chlorine-based atmosphere.