mhurhangee/ep-ind-claims huggingface dataset:
Communication system for a tactical air defence system, comprising: a communication base station, which can be coupled to a command post of the tactical air defence system via a wired data network connection; one or more edge gateways, which are in a bidirectional communicative radio connection with the communication base station and which are configured to exchange data with the communication base station in accordance with a joint communication protocol; and one or more peripheral adapters, which can be coupled each to one of the one or more edge gateways via wired data network connections, and which are configured for data-linking a peripheral element to the tactical air defence system; wherein the one or more peripheral adapters each have a core interface and a peripheral interface, which are configured to convert data, which are exchanged between an edge gateway and a peripheral element, in terms of data format and communication protocol; wherein the communication base station implements a centralised, deterministic channel access method for forming the bidirectional communicative radio connection to the one or more edge gateways; and wherein the communication base station is further configured to perform transport prioritisation between the one or more edge gateways and the communication base station. a communication base station, which can be coupled to a command post of the tactical air defence system via a wired data network connection; one or more edge gateways, which are in a bidirectional communicative radio connection with the communication base station and which are configured to exchange data with the communication base station in accordance with a joint communication protocol; and one or more peripheral adapters, which can be coupled each to one of the one or more edge gateways via wired data network connections, and which are configured for data-linking a peripheral element to the tactical air defence system; wherein the one or more peripheral adapters each have a core interface and a peripheral interface, which are configured to convert data, which are exchanged between an edge gateway and a peripheral element, in terms of data format and communication protocol; wherein the communication base station implements a centralised, deterministic channel access method for forming the bidirectional communicative radio connection to the one or more edge gateways; and wherein the communication base station is further configured to perform transport prioritisation between the one or more edge gateways and the communication base station.
A chimeric gene comprising a heterologous promoter operably linked to a nucleic acid molecule comprising a nucleotide sequence that encodes a protein toxic to at least black cutworm (Agrotis ipsilon), wherein the nucleotide sequence (a) comprises SEQ ID NO: 10; or (b) encodes a protein comprising an amino acid sequence that comprises SEQ ID NO: 18.
A control valve for controlling the pressure in a tire cavity of a tire during operation of a pump having a pump inlet and a pump outlet, the tire having a tire cavity and a valve stem having a distal end, the control valve comprising: a valve body having a pump inlet port in fluid communication with an inlet passageway and a pump outlet port in fluid communication with an outlet passageway, wherein a first check valve is positioned in the inlet passageway, wherein the valve body further comprises a second check valve positioned in the outlet passageway, wherein the inlet and outlet passageway (24, 26) are in fluid communication with a main pressure chamber passageway, wherein the valve body further comprises a relief valve positioned in the control chamber, the relief valve having an inlet end in fluid communication with the main pressure chamber passageway and an outlet end in fluid communication with the atmosphere, and wherein the main pressure chamber passageway is in fluid communication with the pump outlet passageway and the inlet of the tire valve stem, and wherein the pump inlet chamber has a third check valve positioned between the pump inlet port and the main pressure chamber, and/or wherein the pump outlet chamber has a fourth check valve positioned between the pump outlet port and an inlet hole, wherein the inlet passageway and the outlet passage way are oriented in a horizontal direction in the valve body, and wherein the third check valve and the fourth check valve are positioned in vertical passageways (32, 34) in the valve body. a valve body having a pump inlet port in fluid communication with an inlet passageway and a pump outlet port in fluid communication with an outlet passageway, wherein a first check valve is positioned in the inlet passageway, wherein the valve body further comprises a second check valve positioned in the outlet passageway, wherein the inlet and outlet passageway (24, 26) are in fluid communication with a main pressure chamber passageway, wherein the valve body further comprises a relief valve positioned in the control chamber, the relief valve having an inlet end in fluid communication with the main pressure chamber passageway and an outlet end in fluid communication with the atmosphere, and wherein the main pressure chamber passageway is in fluid communication with the pump outlet passageway and the inlet of the tire valve stem, and wherein the pump inlet chamber has a third check valve positioned between the pump inlet port and the main pressure chamber, and/or wherein the pump outlet chamber has a fourth check valve positioned between the pump outlet port and an inlet hole, wherein the inlet passageway and the outlet passage way are oriented in a horizontal direction in the valve body, and wherein the third check valve and the fourth check valve are positioned in vertical passageways (32, 34) in the valve body.
A computer storage medium encoded with instructions that, when executed by a system comprising a computer and a display, cause said system to perform a method for displaying physiological data, the method comprising acts of: Obtaining a first dataset and a second dataset from a data source of physiological data, the first dataset and the second dataset comprising measurements of different physiological properties in a shared spatial region taken over a time period; Determining a transparency of the second dataset at display coordinate locations within at least a portion of the shared spatial region based on a data value of the second dataset at each of said coordinate locations; Forming a composite image comprising a visual representation of the first and second datasets based on the transparency; and displaying the composite image. Obtaining a first dataset and a second dataset from a data source of physiological data, the first dataset and the second dataset comprising measurements of different physiological properties in a shared spatial region taken over a time period; Determining a transparency of the second dataset at display coordinate locations within at least a portion of the shared spatial region based on a data value of the second dataset at each of said coordinate locations; Forming a composite image comprising a visual representation of the first and second datasets based on the transparency; and displaying the composite image.
A method comprising: providing a mixture of materials that includes barium, zirconium and a sintering aid, the sintering aid including at least one of barium tungstate, potassium niobate, tungsten oxide, barium molybdate, molybdenum oxide, potassium tantalate, potassium oxide, sodium niobate, sodium tantalate, sodium oxide, lithium niobate, lithium tantalate, lithium oxide, copper oxide, manganese oxide, zinc oxide, calcium zirconate and strontium zirconate; sintering the mixture of materials to produce barium zirconate particles that include the sintering aid; mixing the barium zirconate particles with a binder material; and heating the barium zirconate particles and the binder material to produce a barium zirconate agglomerate. providing a mixture of materials that includes barium, zirconium and a sintering aid, the sintering aid including at least one of barium tungstate, potassium niobate, tungsten oxide, barium molybdate, molybdenum oxide, potassium tantalate, potassium oxide, sodium niobate, sodium tantalate, sodium oxide, lithium niobate, lithium tantalate, lithium oxide, copper oxide, manganese oxide, zinc oxide, calcium zirconate and strontium zirconate; sintering the mixture of materials to produce barium zirconate particles that include the sintering aid; mixing the barium zirconate particles with a binder material; and heating the barium zirconate particles and the binder material to produce a barium zirconate agglomerate.
A cooking appliance comprising: a housing having a bottom part, two side parts (120, 130), and a back part, and a cooking compartment formed therein, wherein the housing has an upper surface and a front surface which are open; a door for opening and closing the housing, the door including a door upper surface part for covering the upper surface of the housing and a door front surface part extending from a front portion of the door upper surface part for covering the front surface of the housing; a heating part configured to generate heat inside the cooking compartment; and an input part for controlling an operation of the heating part, characterized in that the input part is disposed at the door front surface part. a housing having a bottom part, two side parts (120, 130), and a back part, and a cooking compartment formed therein, wherein the housing has an upper surface and a front surface which are open; a door for opening and closing the housing, the door including a door upper surface part for covering the upper surface of the housing and a door front surface part extending from a front portion of the door upper surface part for covering the front surface of the housing; a heating part configured to generate heat inside the cooking compartment; and an input part for controlling an operation of the heating part, characterized in that the input part is disposed at the door front surface part.
A network node (201, 801, 901), of a wireless communication network, to determine a Radio Frequency, RF, propagation model from an image view of the coverage area, the network node configured to: select (401, 802) a coverage area for a transmission point of a transmitter; obtain (402, 803) an image view of the selected coverage area; recognize (403, 804), from a plurality of morphology types, a morphology type of the selected coverage area from the obtained image view using a machine learning model; determine (404, 805) a RF propagation model for the selected coverage area based on the recognized morphology types; and configure the transmitter based on the determined RF propagation model to transmit in the selected coverage area. select (401, 802) a coverage area for a transmission point of a transmitter; obtain (402, 803) an image view of the selected coverage area; recognize (403, 804), from a plurality of morphology types, a morphology type of the selected coverage area from the obtained image view using a machine learning model; determine (404, 805) a RF propagation model for the selected coverage area based on the recognized morphology types; and configure the transmitter based on the determined RF propagation model to transmit in the selected coverage area.
A curable composite material comprising: at least two layers of reinforcing fibres impregnated with a curable matrix resin; and at least one interlaminar region formed between adjacent layers of reinforcing fibers, the interlaminar region comprising (i) carbon-based, nano-sized structures dispersed in a curable matrix resin, and (ii) insoluble polymeric toughening particles embedded in the same curable matrix resin, wherein the carbon-based, nano-sized structures have at least one dimension smaller than 100 nm (0.1 μm), the polymeric toughening particles have a mean particle size which is at least 100 times bigger than the smallest dimension of the carbon-based, nano-sized structures, and the mean particle size is within the range of 10 - 100 μm, the polymeric toughening particles are insoluble in the matrix resin at the interlaminar region during curing of the composite material, and remain as discrete particles after curing, and upon curing, the composite material exhibits electrical conductivity in the z-direction of greater than 1 S/m, Compression Strength After Impact, after impact at 30J, of greater than 250 MPa as measured in accordance with ASTM7136/37, and interlaminar fracture toughness under mode I (G Ic) of greater than 300 J/m 2 as measured in accordance to EN6033. at least two layers of reinforcing fibres impregnated with a curable matrix resin; and at least one interlaminar region formed between adjacent layers of reinforcing fibers, the interlaminar region comprising (i) carbon-based, nano-sized structures dispersed in a curable matrix resin, and (ii) insoluble polymeric toughening particles embedded in the same curable matrix resin, wherein the carbon-based, nano-sized structures have at least one dimension smaller than 100 nm (0.1 μm), the polymeric toughening particles have a mean particle size which is at least 100 times bigger than the smallest dimension of the carbon-based, nano-sized structures, and the mean particle size is within the range of 10 - 100 μm, the polymeric toughening particles are insoluble in the matrix resin at the interlaminar region during curing of the composite material, and remain as discrete particles after curing, and upon curing, the composite material exhibits electrical conductivity in the z-direction of greater than 1 S/m, Compression Strength After Impact, after impact at 30J, of greater than 250 MPa as measured in accordance with ASTM7136/37, and interlaminar fracture toughness under mode I (G Ic) of greater than 300 J/m 2 as measured in accordance to EN6033.
Method for estimating the elevation change traveled by a user, said method using at least one pressure sensor adapted to provide raw pressure values and a temperature sensor adapted to provide temperature values in order to adjust the pressure values, said pressure sensor being adapted to be substantially held fixed to at least a portion of the body of said user during the implementation of said method, said method comprising at least: a) - an operation of periodically sampling raw pressure values, reading the current raw pressure at a first sampling frequency, the raw values being stored in the form of pressure or the corresponding altitude in a first buffer, b) - a filtering operation based on the raw values stored in the first buffer in order to determine filtered values, said filtering operation being able to eliminate aberrant raw values which can be caused by a disturbing acoustics phenomenon, c) - a variance calculation, performed on at least a portion of the filtered values, in order to determine, by comparing said variance with a threshold, a condition for including elevation changes corresponding to the observed pressure or altitude differences, d) - calculating the elevation change traveled by the user during his displacement, including the total positive elevation change, thanks to a first counter, for storing the total of the positive elevation changes traveled, the positive elevation changes traveled being taken into account if the condition for taking into account is true. a) - an operation of periodically sampling raw pressure values, reading the current raw pressure at a first sampling frequency, the raw values being stored in the form of pressure or the corresponding altitude in a first buffer, b) - a filtering operation based on the raw values stored in the first buffer in order to determine filtered values, said filtering operation being able to eliminate aberrant raw values which can be caused by a disturbing acoustics phenomenon, c) - a variance calculation, performed on at least a portion of the filtered values, in order to determine, by comparing said variance with a threshold, a condition for including elevation changes corresponding to the observed pressure or altitude differences, d) - calculating the elevation change traveled by the user during his displacement, including the total positive elevation change, thanks to a first counter, for storing the total of the positive elevation changes traveled, the positive elevation changes traveled being taken into account if the condition for taking into account is true.
Optical sensor system comprising one or more optical sensor devices (1, 1'), a master device and an electrical bus connecting the sensor devices (1, 1') to the master device, wherein a signal output terminal of the master device and signal input and output terminals (SI, SO, SI') of the sensor devices are connected in pairs according to a daisy chain pattern, forming a signal daisy chain of the bus, each sensor device further comprises an electrooptical transmitter for sending light into a first optical fiber, an electrooptical receiver for detecting light received through a second optical fiber and means for determining an output value indicative of a state of an optical section (8, 9, 10) between the transmitter and the receiver, the master device is adapted to produce a synchronization event at its signal output terminal and each sensor device (1, 1') is adapted to detect a synchronization event (36, 38) occurring at its signal input terminal (SI, SI'), to time an activity of the transmitter (6, 6') based on this synchronization event (36, 38) and to provide at its signal output terminal (SO, SO') a synchronization event (38, 39) delayed by a predetermined offset time with respect to the detected synchronization event (36, 38), characterised in that a property of the synchronization events (38, 39) provided by the sensor devices (1, 1') is indicative of the output value determined by the respective sensor device (1, 1') and diodes (18, 18') are connected between the signal output terminals (SO, SO') of the sensor devices and a signal line of the bus which is connected to a signal input terminal of the master device, so that the synchronization events (38, 39) provided by the sensor devices (1, 1') are transmitted to the master device, and the master device comprises means (30, 34, 35) for extracting the output values of the sensor devices from these synchronization events (38, 39).
A valve assembly for controlling flow through a fluid pathway comprising: a valve body having a bore; a spindle received within the bore which is actuatable to open and close the valve, the spindle having an axially upstream end arranged towards the fluid pathway and an opposing downstream end; a first seal provided about the spindle between the spindle and the bore; and a biasing element arranged to impart an axial compressive force to the first seal and located within the valve body between the spindle and the bore on the downstream side of the first seal; the assembly comprising a second seal provided about the spindle between the spindle and the bore which is axially spaced along the spindle at a position downstream from both the first seal and the biasing element; a secondary biasing element for imparting a compressive force to the second seal; a guide member axially fixed relative to the valve body; and an axially movable clamping member slidingly supported about the spindle at a downstream axial position from the second seal and arranged such that the secondary biasing element urges the clamping member towards the second seal to impart said compressive force thereto; and characterized by: the spindle comprising an upper stem portion and a lower stem portion and the upper and lower stem portions being rotatable relative to each other such that the upper stem portion is able to actuate the lower stem portion in the axial direction only. a valve body having a bore; a spindle received within the bore which is actuatable to open and close the valve, the spindle having an axially upstream end arranged towards the fluid pathway and an opposing downstream end; a first seal provided about the spindle between the spindle and the bore; and a biasing element arranged to impart an axial compressive force to the first seal and located within the valve body between the spindle and the bore on the downstream side of the first seal; the assembly comprising a second seal provided about the spindle between the spindle and the bore which is axially spaced along the spindle at a position downstream from both the first seal and the biasing element; a secondary biasing element for imparting a compressive force to the second seal; a guide member axially fixed relative to the valve body; and an axially movable clamping member slidingly supported about the spindle at a downstream axial position from the second seal and arranged such that the secondary biasing element urges the clamping member towards the second seal to impart said compressive force thereto; and characterized by: the spindle comprising an upper stem portion and a lower stem portion and the upper and lower stem portions being rotatable relative to each other such that the upper stem portion is able to actuate the lower stem portion in the axial direction only.
Method for manufacturing a printing bar unit for a printing system, the method comprising the steps of: - providing a support bar having a plurality of primary mounting positions; - providing a plurality of exchangeable printheads, each printhead having a plurality of inkjet nozzles; and - releasably mounting the printheads to the support bar, characterized in that, preceding the step of releasably mounting the printheads to the support bar, a plurality of reference organs are connected at the primary mounting positions to the support bar and undergo an alignment finishing process for forming a plurality of secondary mounting positions, and reference end blocks are connected to free ends of the support bar and undergo an alignment finishing process for forming reference positioning faces destined to be placed at complementary bearing points of the printing system, and then in a subsequent step the printheads are releasably mounted to the secondary mounting positions on the reference organs. - providing a support bar having a plurality of primary mounting positions; - providing a plurality of exchangeable printheads, each printhead having a plurality of inkjet nozzles; and - releasably mounting the printheads to the support bar,