mhurhangee/patent-ind-claim-en huggingface dataset:
A semiconductor structure comprising a semiconductor substrate and a through-substrate via, TSV, structure embedded therein, wherein said TSV structure includes: a diffusion barrier liner that contacts an entirety of a contiguous sidewall around a hole within said semiconductor substrate; a dielectric liner contacting an inner sidewall of said diffusion barrier liner; a metallic conductive via structure laterally and directly contacting said dielectric liner; at least one semiconductor device located on a first surface of said semiconductor substrate; and, a diffusion barrier layer located on a second surface of said semiconductor substrate, wherein said second surface is located on an opposite side of said first surface. a diffusion barrier liner that contacts an entirety of a contiguous sidewall around a hole within said semiconductor substrate; a dielectric liner contacting an inner sidewall of said diffusion barrier liner; a metallic conductive via structure laterally and directly contacting said dielectric liner; at least one semiconductor device located on a first surface of said semiconductor substrate; and, a diffusion barrier layer located on a second surface of said semiconductor substrate, wherein said second surface is located on an opposite side of said first surface.
A method of estimating an overheating temperature of an oil-immersed electric appliance, characterized in that ester oil is used as insulating oil, the method comprising: estimating the overheating temperature based on a first concentration ratio representing a concentration ratio between two types of gas components contained in the ester oil and a second concentration ratio representing a concentration ratio between other two types of gas components contained in the ester oil , the first concentration ratio and the second concentration ratio being selected from a concentration ratio between acetylene and ethane, a concentration ratio between acetylene and hydrogen, a concentration ratio between acetylene and methane, and a concentration ratio between acetylene and ethylene when the ester oil contains acetylene, and the first concentration ratio and the second concentration ratio being selected from a concentration ratio between ethylene and hydrogen, a concentration ratio between ethane and hydrogen, a concentration ratio between ethylene and methane, and a concentration ratio between methane and ethane when the ester oil does not contain acetylene.
A Computed Tomography, CT, system, comprising: a conveyor mechanism configured to convey and move an object under inspection linearly; a first scanning stage (A) comprising a first x-ray source, a first detector, and a first data acquisition device, and configured to scan the object and generate a first digital signal; a second scanning stage (B) configured to be spaced from the first scanning stage (A) at a preset distance in a direction of the object's movement, and comprising a second x-ray source, a second detector, and a second data acquisition device; a processing device configured to reconstruct a CT image of the object at a first image quality based on the first digital signal, and analyze the CT image; and a control device configured to adjust a scanning parameter of the second scanning stage (B) based on an analysis result of the processing device to cause the second scanning stage (B) to output a second digital signal, characterised in that the processing device is configured to reconstruct a CT image of the object at a second image quality higher than the first image quality at least based on the first digital signal and the second digital signal. a conveyor mechanism configured to convey and move an object under inspection linearly; a first scanning stage (A) comprising a first x-ray source, a first detector, and a first data acquisition device, and configured to scan the object and generate a first digital signal; a second scanning stage (B) configured to be spaced from the first scanning stage (A) at a preset distance in a direction of the object's movement, and comprising a second x-ray source, a second detector, and a second data acquisition device; a processing device configured to reconstruct a CT image of the object at a first image quality based on the first digital signal, and analyze the CT image; and a control device configured to adjust a scanning parameter of the second scanning stage (B) based on an analysis result of the processing device to cause the second scanning stage (B) to output a second digital signal, characterised in that the processing device is configured to reconstruct a CT image of the object at a second image quality higher than the first image quality at least based on the first digital signal and the second digital signal.
A pharmaceutical composition for use in preventing or treating obesity, which contains the fat accumulation inhibitory peptide, wherein said fat accumulation inhibitory peptide comprises an amino acid sequence represented by SEQ ID NO:1 or SEQ ID NO:2.
A computing device comprising: a processor; a network connection; and memory; the computing device configured, via computer-executable instructions, to perform operations for managing synchronized jitter buffers for a given type of streaming data, the operations comprising: upon receiving , via the network connection, a network packet comprising streaming data: placing the received streaming data in a first jitter buffer when the received streaming data is associated with a first codec; and placing the received streaming data in a second jitter buffer when the received streaming data is associated with a second codec; and at each instance where data is read: obtaining an amount of data from the first jitter buffer; and obtaining the same amount of data from the second jitter buffer; wherein the first jitter buffer and the second jitter buffer both use a playout timestamp that is synchronized across the first jitter buffer and the second jitter buffer. a processor; a network connection; and memory; the computing device configured, via computer-executable instructions, to perform operations for managing synchronized jitter buffers for a given type of streaming data, the operations comprising: upon receiving , via the network connection, a network packet comprising streaming data: placing the received streaming data in a first jitter buffer when the received streaming data is associated with a first codec; and placing the received streaming data in a second jitter buffer when the received streaming data is associated with a second codec; and at each instance where data is read: obtaining an amount of data from the first jitter buffer; and obtaining the same amount of data from the second jitter buffer; wherein the first jitter buffer and the second jitter buffer both use a playout timestamp that is synchronized across the first jitter buffer and the second jitter buffer. upon receiving , via the network connection, a network packet comprising streaming data: placing the received streaming data in a first jitter buffer when the received streaming data is associated with a first codec; and placing the received streaming data in a second jitter buffer when the received streaming data is associated with a second codec; and placing the received streaming data in a first jitter buffer when the received streaming data is associated with a first codec; and placing the received streaming data in a second jitter buffer when the received streaming data is associated with a second codec; and at each instance where data is read: obtaining an amount of data from the first jitter buffer; and obtaining the same amount of data from the second jitter buffer; obtaining an amount of data from the first jitter buffer; and obtaining the same amount of data from the second jitter buffer; wherein the first jitter buffer and the second jitter buffer both use a playout timestamp that is synchronized across the first jitter buffer and the second jitter buffer.
A method for determining a residence time of a synchronization message traversing a portion of a network, said method comprising: a) receiving said synchronization message by an ingress node (N1) of the network (NW), generating an ingress timestamp (TIN) by the ingress node (N1), amending the synchronization message by said ingress timestamp (TIN) and forwarding the synchronization message to one or more nodes; b) receiving said synchronization message by an egress node (N2) of the network (NW), generating an egress timestamp (TEG); c) determining an approximated residence time (RT) being a difference of the egress timestamp (TEG) and the ingress timestamp (TIN); d) determining a first correction factor as a ratio of a master clock frequency and a clock frequency measured at the ingress node (TIN); e) determining a second correction factor; f) determining an adjusted residence time being a product of the approximated residence time, the first correction factor, and the second correction factor; characterized in: that the second correction factor is determined as a ratio of a clock frequency measured at the ingress node (TIN) and a clock frequency measured at the egress node (TEG). a) receiving said synchronization message by an ingress node (N1) of the network (NW), generating an ingress timestamp (TIN) by the ingress node (N1), amending the synchronization message by said ingress timestamp (TIN) and forwarding the synchronization message to one or more nodes; b) receiving said synchronization message by an egress node (N2) of the network (NW), generating an egress timestamp (TEG); c) determining an approximated residence time (RT) being a difference of the egress timestamp (TEG) and the ingress timestamp (TIN); d) determining a first correction factor as a ratio of a master clock frequency and a clock frequency measured at the ingress node (TIN); e) determining a second correction factor; f) determining an adjusted residence time being a product of the approximated residence time, the first correction factor, and the second correction factor;
An electrode for a lithium ion secondary battery comprising a resin current collector including a polyolefin resin matrix and a conductive filler A, and a negative electrode active material layer provided on the resin current collector, wherein a crosslinked resin thin-film layer, which contains an Ni filler as a conductive filler B that does not alloy with Li and which has impermeability to an electrolyte solution, is arranged between the resin current collector and the negative electrode active material layer.
A method for the reduction or elimination of one or more components from a blood product from a container or a blood bag, wherein it comprises continuous addition of the blood product to a filter containing an inlet for the blood product, an outlet for the blood product in which said one or more components have been reduced or eliminated, hollow fiber membranes having pores through which said one or more components and blood plasma may pass outwardly, a space between the hollow fiber membranes, a blood plasma outlet, a blood plasma inlet, and a loop connected between said blood plasma outlet and said blood plasma inlet, wherein said space between the hollow fibers in the filter and the loop contains an adsorbent which specifically binds said one or more components, wherein the pores of the hollow fibers do not allow passage of the adsorbent into the hollow fiber membranes, wherein the blood plasma and the adsorbent is continuously recirculated via the loop back to the filter and to the space between the hollow fiber membranes, and wherein when the concentration of said one or more components in the blood product which exits the filter via the blood product outlet reaches a pre-determined value, the addition of blood product is stopped and characterized in that said adsorbent comprises at least one matrix having at least one covalently bound ligand thereto, wherein said matrix is beaded cross-linked agarose with an average bead size in the range 70-100 micrometer.
System for processing food products by at least partial freezing or chilling, comprising an endless conveying belt having a first upper run and a first lower run being drivable by at least one first drive drum , said conveying belt defining an inner space which is delimited by the first upper run and the first lower run , an endless supporting belt being provided within the inner space , being drivable by at least one second drive drum , said supporting belt having a second upper run and a second lower run , wherein the first upper run of the conveying belt has a first side for receiving the food products and a second side being opposite to the first side , said second side being oriented towards the second upper run of the supporting belt , whereas the conveying belt and the supporting belt are at least in part situated within a tunnel , said system further comprising at least one cooling agent inlet for providing a cooling agent into the tunnel , wherein the supporting belt comprises a multitude of cross-rods each defining a local rise oriented towards the conveying belt , wherein the first upper run of the conveying belt is supported by the cross-rods in the second upper run of the supporting belt . an endless conveying belt having a first upper run and a first lower run being drivable by at least one first drive drum , said conveying belt defining an inner space which is delimited by the first upper run and the first lower run , an endless supporting belt being provided within the inner space , being drivable by at least one second drive drum , said supporting belt having a second upper run and a second lower run , wherein the first upper run of the conveying belt has a first side for receiving the food products and a second side being opposite to the first side , said second side being oriented towards the second upper run of the supporting belt , whereas the conveying belt and the supporting belt are at least in part situated within a tunnel , said system further comprising at least one cooling agent inlet for providing a cooling agent into the tunnel , wherein the supporting belt comprises a multitude of cross-rods each defining a local rise oriented towards the conveying belt , wherein the first upper run of the conveying belt is supported by the cross-rods in the second upper run of the supporting belt .
Method for determining a function of a capacitor of a passive filter circuit , which at least partially reduces line-conducted interferences of an electrical device coupled electrically to a power supply system via the filter circuit , to which end the filter circuit comprises at least the one capacitor having a predefined capacitance value and at least one choke having a predefined inductance value, wherein a connection voltage of the electrical device is detected, wherein - an electrical capacitor voltage on the at least one capacitor is detected at least indirectly, - for the capacitor voltage and the connection voltage respective spectral components are determined, and - the function of the at least one capacitor is determined by the spectral components being evaluated with regard to the capacitor voltage and the connection voltage taking into consideration the inductance value of the at least one choke by means of at least one statistical processing operation, in that a frequency-dependent damping of the passive filter circuit is determined, with which an estimated value for a capacitance value of the at least one capacitor is computed, in order to derive the function of the at least one capacitor from the estimated value, wherein - the frequency-dependent damping as filter damping of the passive filter circuit above a limit frequency essentially depends on the impedance of the at least one capacitor , - the frequency-dependent damping is determined as a function of a ratio of the spectral component of the capacitor voltage to the spectral component of the connection voltage . - an electrical capacitor voltage on the at least one capacitor is detected at least indirectly, - for the capacitor voltage and the connection voltage respective spectral components are determined, and - the function of the at least one capacitor is determined by the spectral components being evaluated with regard to the capacitor voltage and the connection voltage taking into consideration the inductance value of the at least one choke by means of at least one statistical processing operation, in that a frequency-dependent damping of the passive filter circuit is determined, with which an estimated value for a capacitance value of the at least one capacitor is computed, in order to derive the function of the at least one capacitor from the estimated value, - the frequency-dependent damping as filter damping of the passive filter circuit above a limit frequency essentially depends on the impedance of the at least one capacitor , - the frequency-dependent damping is determined as a function of a ratio of the spectral component of the capacitor voltage to the spectral component of the connection voltage .
A mounting system comprising: multiple mounting machines that are configured to mount electronic components on a circuit board (CB); a measurement section that is provided in each of the multiple mounting machines ; a measurement device that is configured to measure electrical characteristics of the electronic component connected to the measurement section; and characterized in that a switching device that is configured to connect the measurement device to the measurement section provided in any one of the multiple mounting machines ; a control device that is configured to control the switching device to switch connection between the measurement device and the measurement section, wherein, in a case where the control device receives the request information (D1) for measuring the electronic component from at least one of the multiple mounting machines , the control device is configured to control the switching device to connect the measurement section of the mounting machine that transmitted the request information (D1) to the measurement device and to perform measurement by performing measurement processing. multiple mounting machines that are configured to mount electronic components on a circuit board (CB); a measurement section that is provided in each of the multiple mounting machines ; a measurement device that is configured to measure electrical characteristics of the electronic component connected to the measurement section; and characterized in that a switching device that is configured to connect the measurement device to the measurement section provided in any one of the multiple mounting machines ; a control device that is configured to control the switching device to switch connection between the measurement device and the measurement section, wherein, in a case where the control device receives the request information (D1) for measuring the electronic component from at least one of the multiple mounting machines , the control device is configured to control the switching device to connect the measurement section of the mounting machine that transmitted the request information (D1) to the measurement device and to perform measurement by performing measurement processing.
A User Equipment, UE, comprising: memory to store one or more Public Land Mobile Network, PLMN, IDentities ,IDs, associated with a source cell; processing circuitry coupled with the memory, the processing circuitry adapted to select a candidate cell based on a measured quality metric ; decode a Master Information Block, MIB, to determine System Information Broadcast 1, SIB1, information ; determine that a SIB1 message is co-located with a Discovery Reference Signal, DRS, of the candidate cell ; decode the SIB1 message, based on the SIB1 information and the determination that the SIB1 message is co-located with the DRS, to determine at least one PLMN ID associated with the candidate cell ; compare the at least one PLMN ID with the one or more PLMN IDs ; and determine whether to perform cell reselection from the source cell to the candidate cell based on the comparison of the at least one PLMN ID with the one or more PLMN IDs . memory to store one or more Public Land Mobile Network, PLMN, IDentities ,IDs, associated with a source cell; processing circuitry coupled with the memory, the processing circuitry adapted to select a candidate cell based on a measured quality metric ; decode a Master Information Block, MIB, to determine System Information Broadcast 1, SIB1, information ; determine that a SIB1 message is co-located with a Discovery Reference Signal, DRS, of the candidate cell ; decode the SIB1 message, based on the SIB1 information and the determination that the SIB1 message is co-located with the DRS, to determine at least one PLMN ID associated with the candidate cell ; compare the at least one PLMN ID with the one or more PLMN IDs ; and determine whether to perform cell reselection from the source cell to the candidate cell based on the comparison of the at least one PLMN ID with the one or more PLMN IDs . select a candidate cell based on a measured quality metric ; decode a Master Information Block, MIB, to determine System Information Broadcast 1, SIB1, information ; determine that a SIB1 message is co-located with a Discovery Reference Signal, DRS, of the candidate cell ; decode the SIB1 message, based on the SIB1 information and the determination that the SIB1 message is co-located with the DRS, to determine at least one PLMN ID associated with the candidate cell ; compare the at least one PLMN ID with the one or more PLMN IDs ; and determine whether to perform cell reselection from the source cell to the candidate cell based on the comparison of the at least one PLMN ID with the one or more PLMN IDs .
A method of forwarding a packet by a wireless relay node in a mesh network, said method comprising: receiving said packet at said relay node, wherein said packet identifies an edge node being a source that generated said packet, and a destination node and comprises an indication; responsive to a determination that said indication indicates a propagation mode of said packet in said mesh network by flooding or propagation mode unspecified, and responsive to a determination that a valid route from said edge node to said destination node exists: modifying said indication in said packet to indicate a propagation mode of said packet to said destination node by routing; and forwarding said packet from said relay node to a next node by routing-relaying and in accordance with said valid route; and responsive to a determination that said indication indicates a propagation mode of said packet to said destination node by routing through a valid route from said edge node to said destination node, and responsive to a determination that said relay node is not encompassed in said valid route, discarding said packet at said relay node. receiving said packet at said relay node, wherein said packet identifies an edge node being a source that generated said packet, and a destination node and comprises an indication; responsive to a determination that said indication indicates a propagation mode of said packet in said mesh network by flooding or propagation mode unspecified, and responsive to a determination that a valid route from said edge node to said destination node exists: modifying said indication in said packet to indicate a propagation mode of said packet to said destination node by routing; and forwarding said packet from said relay node to a next node by routing-relaying and in accordance with said valid route; and modifying said indication in said packet to indicate a propagation mode of said packet to said destination node by routing; and forwarding said packet from said relay node to a next node by routing-relaying and in accordance with said valid route; and responsive to a determination that said indication indicates a propagation mode of said packet to said destination node by routing through a valid route from said edge node to said destination node, and responsive to a determination that said relay node is not encompassed in said valid route, discarding said packet at said relay node.