mhurhangee/ep-ind-claims huggingface dataset:
A nozzle assembly operable to deliver fluid to a tank to be filled and to sense a level of fluid in the tank, the assembly having a fluid outlet and a sensor portion, the sensor portion comprising a pressure sensor provided in fluid communication with a sensor conduit, the sensor conduit having a sensor conduit aperture provided therein, the assembly being operable in use whereby when a level of liquid in the tank being filled rises above a level of the sensor conduit aperture, the sensor conduit aperture is closed by the liquid and a pressure of gas trapped in the sensor conduit increases thereby indicating a 'tank full' condition, the assembly being arranged to detect the increase in pressure of gas and to generate a pressure increase signal indicative of the increase in pressure when the increase in pressure is detected, wherein the nozzle assembly is characterised in that the sensor conduit is arranged to project from an open end of the fluid outlet.
A computing device comprising: a display device, and a display modular component including a housing, and one or more display hardware elements disposed within the housing and configured to output a display for display by the display device; and a computing modular component including a housing that is configured to be physically and communicatively coupled to the display modular component, a processing system disposed within the housing, and memory disposed within the housing, the processing system configured to execute instructions stored by the processing system to generate a user interface for display by the display device, wherein the display device is rotatably and communicatively coupled to the housing of the display modular component via a hinge. a display device, and a display modular component including a housing, and one or more display hardware elements disposed within the housing and configured to output a display for display by the display device; and a computing modular component including a housing that is configured to be physically and communicatively coupled to the display modular component, a processing system disposed within the housing, and memory disposed within the housing, the processing system configured to execute instructions stored by the processing system to generate a user interface for display by the display device, wherein the display device is rotatably and communicatively coupled to the housing of the display modular component via a hinge.
A stent graft, comprising a plurality of wavy rings, wherein the stent graft further comprises, along a circumferential direction, a region A and a region B connected with the region A; each wavy ring comprises first wavy segments located in the region A and second wavy segments located in the region B; region A being for fenestration; the ratio of a wave height of the first wavy segment to a spacing between the adjacent first wavy segments ranges from 1/4 to 3; a wave included angle (α) of each second wavy segment ranges from 30° to 60°; the ratio of a wave height of the second wavy segment to a spacing between the adjacent second wavy segments ranges from 1/4 to 3/2; and the ratio of the wave height of the first wavy segment to the wave height of the second wavy segment is greater than or equal to 1/3 and less than 1; characterized in that a wave included angle (α) of each first wavy segment ranges from 70° to 120°.
A New Radio, NR, User Equipment, UE (401, 402), comprising a Radio Frequency, RF, interface and a baseband processor coupled to the RF interface, wherein the baseband processor is configured to: generate a signal including capability information of the UE (401, 402), wherein a time period for intra-frequency cell detection and measurement for the UE (401, 402) is determined by a NR evolved Node B, gNodeB (411, 412), based on the capability information; and cause a transmission of the signal including the capability information of the UE (401, 402) to the NR gNodeB (411, 412); wherein the capability information includes: information regarding an identification time period for intra-frequency cell identification by the UE (401, 402); and information on whether the identification time period for intra-frequency cell identification by the UE (401, 402) is long, medium or short. generate a signal including capability information of the UE (401, 402), wherein a time period for intra-frequency cell detection and measurement for the UE (401, 402) is determined by a NR evolved Node B, gNodeB (411, 412), based on the capability information; and cause a transmission of the signal including the capability information of the UE (401, 402) to the NR gNodeB (411, 412); wherein the capability information includes: information regarding an identification time period for intra-frequency cell identification by the UE (401, 402); and information on whether the identification time period for intra-frequency cell identification by the UE (401, 402) is long, medium or short. information regarding an identification time period for intra-frequency cell identification by the UE (401, 402); and information on whether the identification time period for intra-frequency cell identification by the UE (401, 402) is long, medium or short.
A defibrillation controller comprising: a shock advisor segmenting an ECG waveform of a heart of a patient, wherein, for each ECG waveform segment of a series of ECG waveform segments, the shock advisor is configured to generate an ECG shock advisory between a shock decision and a no-shock decision; and a consistency monitor operably connected to the shock advisor, the consistency monitor being configured to - calculate a consistency score of the ECG shock advisories, and - monitor a consistency of the ECG shock advisories between consistent shock decisions and consistent no-shock decisions by generating a consistency shock advisory responsive to a comparison of the consistency score to at least one of a consistent shock threshold and a consistent no-shock threshold; wherein the ECG shock advisory is between a shock decision, a no-shock decision and a shock indecision. a shock advisor segmenting an ECG waveform of a heart of a patient, wherein, for each ECG waveform segment of a series of ECG waveform segments, the shock advisor is configured to generate an ECG shock advisory between a shock decision and a no-shock decision; and a consistency monitor operably connected to the shock advisor, the consistency monitor being configured to - calculate a consistency score of the ECG shock advisories, and - monitor a consistency of the ECG shock advisories between consistent shock decisions and consistent no-shock decisions by generating a consistency shock advisory responsive to a comparison of the consistency score to at least one of a consistent shock threshold and a consistent no-shock threshold; - calculate a consistency score of the ECG shock advisories, and - monitor a consistency of the ECG shock advisories between consistent shock decisions and consistent no-shock decisions by generating a consistency shock advisory responsive to a comparison of the consistency score to at least one of a consistent shock threshold and a consistent no-shock threshold; wherein the ECG shock advisory is between a shock decision, a no-shock decision and a shock indecision.
A gas turbine engine comprising: a shaft (23, 24, 25); a bearing apparatus; and a controller, the shaft (23, 24, 25) being mounted by the bearing apparatus, the bearing apparatus comprising: an inner race; an outer race; a roller element positioned between the inner race and the outer race; a first sensor (34, 36) to sense displacement of one of: the inner race, and the roller element, and to provide a first signal for the sensed displacement to enable a load on the bearing apparatus to be determined; the controller being configured to receive the first signal and to determine the load on the bearing apparatus, characterized in that the controller is configured to receive a signal for rotational speed of the shaft (23, 24, 25), and to determine the load on the bearing apparatus using the rotational speed and the sensed displacement of the inner race or the roller element. an inner race; an outer race; a roller element positioned between the inner race and the outer race; a first sensor (34, 36) to sense displacement of one of: the inner race, and the roller element, and to provide a first signal for the sensed displacement to enable a load on the bearing apparatus to be determined; the controller being configured to receive the first signal and to determine the load on the bearing apparatus, characterized in that the controller is configured to receive a signal for rotational speed of the shaft (23, 24, 25), and to determine the load on the bearing apparatus using the rotational speed and the sensed displacement of the inner race or the roller element.
A method for the camera-based identification of an add-on part able to be subsequently or additionally mounted on a vehicle, comprising the following steps: - detection by means of at least one camera of a region of the vehicle, onto which an add-on part can be mounted, - analysis of the images of the detected region produced by the at least one camera with respect to characteristic features of an add-on part, and - identification of an add-on part that has been mounted in the detected region in accordance with said analysis, characterized in that the identification of the add-on part that can be mounted on the vehicle includes the identification of a roof carrier system that has been mounted in the detected region and/or of a load of the/of a roof carrier system, the analysis of the images of the detected region produced by the at least one camera with respect to characteristic features of an add-on part includes the search for image regions with movement in the images of the detected region produced by the at least one camera by means of an optical flow method, the search for image regions with movement in the images of the detected region produced by the at least one camera by means of an optical flow method comprises the following steps: - division of the images into subregions, - for each subregion, detection whether movement has been identified or not within a predefined period of time, and - production of images with movement intensity based on the preceding detection step, and the analysis of the images of the detected region produced by the at least one camera with respect to characteristic features of an add-on part further comprises the following steps: - identification of regions without movement in the images with movement intensity, - classification of the identified regions without movement with respect to characteristic features of an add-on part. - detection by means of at least one camera of a region of the vehicle, onto which an add-on part can be mounted, - analysis of the images of the detected region produced by the at least one camera with respect to characteristic features of an add-on part, and - identification of an add-on part that has been mounted in the detected region in accordance with said analysis, characterized in that - division of the images into subregions, - for each subregion, detection whether movement has been identified or not within a predefined period of time, and - production of images with movement intensity based on the preceding detection step, and - identification of regions without movement in the images with movement intensity, - classification of the identified regions without movement with respect to characteristic features of an add-on part.
Method of controlling movement of an elevator car within a hoistway of an elevator system, wherein the method includes: detecting an activation of a switch (8a-8d); moving the elevator car in a predetermined direction after the switch (8a-8d) has been activated and/or while the switch (8a-8d) is activated; while the elevator car is moving: determining the current position of the elevator car within the hoistway and comparing the determined position of the elevator car with at least one predefined positional limit (L UP, L LOW); stopping the movement of the elevator car if the determined position reaches or is beyond at least one predefined positional limit (L UP, L LOW); detecting an activation of the switch (8a-8d); starting to move the elevator car further in the predetermined direction in case the switch (8a-8d) is activated again, wherein the predefined positional limit (L UP) is an upper positional limit (L UP) which is set in a predefined upper distance (d UP) from a preset uppermost position of the elevator car, and the uppermost position of the elevator car is readjusted according to the position of the elevator car in case the elevator car is moved above the previously set uppermost position of the elevator car; and/or the predefined positional limit (L LOW) is a lower positional limit (L LOW) which is set in a predefined lower distance (d LOW) from a preset lowermost position of the elevator car, and the lowermost position of the elevator car is readjusted according to the position of the elevator car in case the elevator car is moved below the previously set lowermost position of the elevator car. detecting an activation of a switch (8a-8d); moving the elevator car in a predetermined direction after the switch (8a-8d) has been activated and/or while the switch (8a-8d) is activated; while the elevator car is moving: determining the current position of the elevator car within the hoistway and comparing the determined position of the elevator car with at least one predefined positional limit (L UP, L LOW); stopping the movement of the elevator car if the determined position reaches or is beyond at least one predefined positional limit (L UP, L LOW); detecting an activation of the switch (8a-8d); starting to move the elevator car further in the predetermined direction in case the switch (8a-8d) is activated again, wherein the predefined positional limit (L UP) is an upper positional limit (L UP) which is set in a predefined upper distance (d UP) from a preset uppermost position of the elevator car, and the uppermost position of the elevator car is readjusted according to the position of the elevator car in case the elevator car is moved above the previously set uppermost position of the elevator car; and/or the predefined positional limit (L LOW) is a lower positional limit (L LOW) which is set in a predefined lower distance (d LOW) from a preset lowermost position of the elevator car, and the lowermost position of the elevator car is readjusted according to the position of the elevator car in case the elevator car is moved below the previously set lowermost position of the elevator car.
An operation method of a first device, comprising: receiving, by the first device, a visible light communication signal including a visible light from a second device; determining whether or not an intensity of the received visible light is higher than or equal to a predetermined threshold value; calibrating a color or the intensity of the received visible light when the intensity of the visible light is lower than the predetermined threshold value; and outputting a light corresponding to the calibrated visible light, through a screen of the first device, such that a user can align the first device with the second device for visible light communication by using the outputted light. receiving, by the first device, a visible light communication signal including a visible light from a second device; determining whether or not an intensity of the received visible light is higher than or equal to a predetermined threshold value; calibrating a color or the intensity of the received visible light when the intensity of the visible light is lower than the predetermined threshold value; and outputting a light corresponding to the calibrated visible light, through a screen of the first device, such that a user can align the first device with the second device for visible light communication by using the outputted light.
A windscreen wiper device, comprising: a wiper blade made of an elastomeric material and extending in a longitudinal direction; a joint part with a U-shaped cross-section including a top wall and a pair of side walls; the windscreen wiper device being characterised in that each of said side walls has a pair of spring loaded interference fingers projecting outwardly for engaging an inner surface of a wiper arm to reduce side to side play between said joint part and the wiper arm and which extend in opposite longitudinal directions. a wiper blade made of an elastomeric material and extending in a longitudinal direction; a joint part with a U-shaped cross-section including a top wall and a pair of side walls; the windscreen wiper device being characterised in that each of said side walls has a pair of spring loaded interference fingers projecting outwardly for engaging an inner surface of a wiper arm to reduce side to side play between said joint part and the wiper arm and which extend in opposite longitudinal directions.
Pre-adjustable flow rate regulator for a heating system comprising a housing, which has an inlet connector for a heating medium, an outlet connector for the heating medium and a pre-adjustment connector, comprising a rate regulation module which alters a flow rate for the heating medium as a function of a pre-adjustment, and comprising a handle which cooperates with a movably arranged component of the rate regulation module to pre-adjust the flow rate, the rate regulation module providing a cup, which is provided stationary and comprises a recess, a cone which engages at least in portions in the recess, and a sleeve, which is arranged axially displaceable in the cup and which has, on an end face facing the recess, an inner cone, which forms an opening in the sleeve and in cooperation with the cone defines an annular flow column for the heating medium, a flow cross-section of a first flow opening, via which the heating medium is supplied to the rate regulation module, varying as a function of a relative position between the cup and the sleeve, and the cone being provided movably, characterised in that, as a result of the handle being actuated via a transmission member, which cooperates with the handle on the one hand and the cone on the other hand, the cone of the rate regulation module performs a combined rotational and longitudinal movement in such a way that a relative position between the recess in the cup and the cone changes and as a result a flow cross section of a second flow opening provided between the cone and the on the cup, and in that a displacement portion which guides the cone is provided on the transmission member, and has a shape deviating from a circle shape for transmitting the rotational movement of the handle to the cone, and at least in portions engages in a recess provided on the cone, a loose fit being formed so as to implement the longitudinal displaceability between the recess and the displacement portion.
A monomer mixture comprising two or more types of cationically polymerizable monomers, the monomer mixture comprising, as the cationically polymerizable monomers: a compound having a vinyl ether group and a hydroxyl group; a compound having an oxetanyl group and a hydroxyl group; a compound represented by Formula (c): where X denotes a single bond or a linking group; and a compound having two or more oxetanyl groups (excluding a compound having a hydroxyl group); wherein a total content of the compound, the compound, and the compound is 50 wt.% or greater of the total amount of the monomer mixture, and a content of the compound and a content of the compound satisfy Relationship; A / A + B ≧ 0.3 and the content of the compound being from 15 to 40 wt.% of the total amount of the monomer mixture.
A hydraulic system, comprising: a plurality of control units, each of the control units being associated with one of a plurality of independently movable loads of a hydraulic machine, each control unit including an accelerometer, a gyroscope, and a magnetometer, wherein for each control unit, the accelerometer is adapted to detect an orientation of the control unit relative to a gravity force vector, the magnetometer is adapted to detect an orientation of the control unit relative to a fixed magnetic field, and the gyroscope is adapted to detect yaw, pitch and roll, rates of the control unit; and characterised in that the control units are configured to generate a kinematic model of the hydraulic machine. a plurality of control units, each of the control units being associated with one of a plurality of independently movable loads of a hydraulic machine, each control unit including an accelerometer, a gyroscope, and a magnetometer, wherein for each control unit, the accelerometer is adapted to detect an orientation of the control unit relative to a gravity force vector, the magnetometer is adapted to detect an orientation of the control unit relative to a fixed magnetic field, and the gyroscope is adapted to detect yaw, pitch and roll, rates of the control unit; and characterised in that the control units are configured to generate a kinematic model of the hydraulic machine.
A single ply paper product comprising: (a) a paper substrate having a first surface and a second surface and comprising: (i) a web of fibers refined to have a Canadian Standard Freeness value of between 100 cm 3 and 400 cm 3 according to TAPPI standard test T 227, and having a weight of between 32 grams per square metre (20 lbs./3,000 ft. 2) and 73 grams per square metre (45 lbs./3,000 ft. 2); and (ii) a fluorochemical in an amount of at least 800 ppm according to a fluorine analyzer. (a) a paper substrate having a first surface and a second surface and comprising: (i) a web of fibers refined to have a Canadian Standard Freeness value of between 100 cm 3 and 400 cm 3 according to TAPPI standard test T 227, and having a weight of between 32 grams per square metre (20 lbs./3,000 ft. 2) and 73 grams per square metre (45 lbs./3,000 ft. 2); and (ii) a fluorochemical in an amount of at least 800 ppm according to a fluorine analyzer. (i) a web of fibers refined to have a Canadian Standard Freeness value of between 100 cm 3 and 400 cm 3 according to TAPPI standard test T 227, and having a weight of between 32 grams per square metre (20 lbs./3,000 ft. 2) and 73 grams per square metre (45 lbs./3,000 ft. 2); and (ii) a fluorochemical in an amount of at least 800 ppm according to a fluorine analyzer.
Device for air-conditioning a room, comprising at least one heat exchanger assigned to a ceiling and having a tempering fluid flowing through it, and further comprising holding elements and heat transfer bodies, whereby the heat exchanger is formed by a pipe coil, which is arranged between a load-bearing ceiling and a suspended ceiling and is attached to and held by the holding elements on the load-bearing ceiling, whereby the pipe coil comprises a heat exchanger pipe for guiding the tempering fluid, which heat exchanger pipe has an inner layer based on polyolefin that is in contact with the tempering fluid when the heat exchanger is in use, a non-perforated outer layer based on aluminum, and an anhydride-modified adhesion promoting layer provided between the inner layer and the outer layer, whereby the outer layer is directly connected to the metallic heat transfer bodies of the heat exchanger in a heat-conducting manner, whereby the heat transfer body forms a metallic profile with a base body and a clamping body protruding from it for the heat exchanger pipe whereby the clamping body has two projections gripping the heat exchanger pipe between them in a clamping manner.