mhurhangee/patent-ind-claim-en huggingface dataset:
A method for collecting telematics data from a plurality of telematics devices, the method comprising: providing, at a plurality of fleet management servers , a plurality of data stores , each data store associated with at least one telematics device , each data store operable to store a set of telematics data associated with the at least one telematics device ; detecting, at a gateway server of a plurality of gateway servers , a connection by a telematics device to the gateway server ; registering, at an event bus in communication with the plurality of gateway servers and with the fleet management servers , the event bus configured to store a plurality of event records, an event record indicating that the telematics device is connected to the gateway server of the plurality of gateway servers; for each fleet management server having at least one data store associated with the telematics device : identifying, at the fleet management server , the gateway server in communication with the telematics device based on the event record; receiving, at the fleet management server , a set of telematics data associated with the telematics device from the gateway server ; and storing, at the at least one data store , the set of telematics data associated with the telematics device . providing, at a plurality of fleet management servers , a plurality of data stores , each data store associated with at least one telematics device , each data store operable to store a set of telematics data associated with the at least one telematics device ; detecting, at a gateway server of a plurality of gateway servers , a connection by a telematics device to the gateway server ; registering, at an event bus in communication with the plurality of gateway servers and with the fleet management servers , the event bus configured to store a plurality of event records, an event record indicating that the telematics device is connected to the gateway server of the plurality of gateway servers; for each fleet management server having at least one data store associated with the telematics device : identifying, at the fleet management server , the gateway server in communication with the telematics device based on the event record; receiving, at the fleet management server , a set of telematics data associated with the telematics device from the gateway server ; and storing, at the at least one data store , the set of telematics data associated with the telematics device . identifying, at the fleet management server , the gateway server in communication with the telematics device based on the event record; receiving, at the fleet management server , a set of telematics data associated with the telematics device from the gateway server ; and storing, at the at least one data store , the set of telematics data associated with the telematics device .
An imaging device for in-line holographic imaging of an object , said imaging device comprising: a set of light sources , wherein each light source is configured to output light in a confined illumination cone; an image sensor , which comprises a set of light-detecting elements for detecting incident light, wherein the set of light sources are configured to output light such that the confined illumination cones of the light sources in the set of light sources are arranged side-by-side and the illumination cone of each light source illuminates a specific part of the object ; wherein the image sensor is arranged such that the light-detecting elements detect a plurality of interference patterns, wherein each interference pattern is formed by diffracted light from the object originating from a single light source in the set of light sources and undiffracted light from the same single light source , wherein at least a sub-set of light-detecting elements is arranged to detect light relating to not more than one interference pattern; and wherein the imaging device is configured so as to enable distinguishing between different interference patterns of the plurality of interference patterns being detected by the image sensor . a set of light sources , wherein each light source is configured to output light in a confined illumination cone; an image sensor , which comprises a set of light-detecting elements for detecting incident light, wherein the set of light sources are configured to output light such that the confined illumination cones of the light sources in the set of light sources are arranged side-by-side and the illumination cone of each light source illuminates a specific part of the object ; wherein the image sensor is arranged such that the light-detecting elements detect a plurality of interference patterns, wherein each interference pattern is formed by diffracted light from the object originating from a single light source in the set of light sources and undiffracted light from the same single light source , wherein at least a sub-set of light-detecting elements is arranged to detect light relating to not more than one interference pattern; and wherein the imaging device is configured so as to enable distinguishing between different interference patterns of the plurality of interference patterns being detected by the image sensor .
Communication system for a vehicle , comprising a plurality of antennas and a plurality of transmitting and/or receiving interfaces , wherein - at least one first antenna is arranged in the interior of the vehicle , and - at least one second antenna is arranged on the exterior of the vehicle , - the first antenna is designed to wirelessly establish via a first transmitting and/or receiving interface at least one part of a data connection between a first communication unit situated in the interior of the vehicle and at least one first network base unit situated outside the vehicle , - the second antenna is designed to wirelessly establish via a second transmitting and/or receiving interface at least one part of a data connection between a second communication unit situated in the interior of the vehicle and the first and/or a second network base unit situated outside the vehicle , - the communication system is designed in such a way that a data connection can be established within the vehicle between the second communication unit and the first antenna via the second transmitting and/or receiving interface , - a switching arrangement is provided, by means of which optionally a data connection to the first antenna or to the second antenna can be established by the second transmitting and/or receiving interface and the first transmitting and/or receiving interface is switchable between the two antennas (12; 7, 8), and - wherein the switching arrangement comprises a wired crossover switch. - at least one first antenna is arranged in the interior of the vehicle , and - at least one second antenna is arranged on the exterior of the vehicle , - the first antenna is designed to wirelessly establish via a first transmitting and/or receiving interface at least one part of a data connection between a first communication unit situated in the interior of the vehicle and at least one first network base unit situated outside the vehicle , - the second antenna is designed to wirelessly establish via a second transmitting and/or receiving interface at least one part of a data connection between a second communication unit situated in the interior of the vehicle and the first and/or a second network base unit situated outside the vehicle , - the communication system is designed in such a way that a data connection can be established within the vehicle between the second communication unit and the first antenna via the second transmitting and/or receiving interface , - a switching arrangement is provided, by means of which optionally a data connection to the first antenna or to the second antenna can be established by the second transmitting and/or receiving interface and the first transmitting and/or receiving interface is switchable between the two antennas (12; 7, 8), and - wherein the switching arrangement comprises a wired crossover switch.
Breathable protective toe cap characterized in that : - it has vertical windows (i, j, k, l, m); - it has a vertical wall on the tip (a) with a thickness of < 7 mm; - it has walls in the lateral areas (b, c) that are 30% thicker above the extension of volume of the toes; - it is provided with a flange (d): - contoured with a broad coupling to increase its width and thickness at the point of connection to the vertical wall; - the external joining profile of which is contoured with an angle of 90°; - it is equipped with a connecting rib (e) forming a "horseshoe" with the flange (d); - it is equipped with a protective band : - Housed on steps (g, h) produced at a height of 10 mm from the bottom surface on which the flange (d) rests; - which bonds to the toe cap by means of projections (q, r, s, t); - and is provided with an angle of inclination (φ) > 7°. - it has vertical windows (i, j, k, l, m); - it has a vertical wall on the tip (a) with a thickness of < 7 mm; - it has walls in the lateral areas (b, c) that are 30% thicker above the extension of volume of the toes; - it is provided with a flange (d): - contoured with a broad coupling to increase its width and thickness at the point of connection to the vertical wall; - the external joining profile of which is contoured with an angle of 90°; - contoured with a broad coupling to increase its width and thickness at the point of connection to the vertical wall; - the external joining profile of which is contoured with an angle of 90°; - it is equipped with a connecting rib (e) forming a "horseshoe" with the flange (d); - it is equipped with a protective band : - Housed on steps (g, h) produced at a height of 10 mm from the bottom surface on which the flange (d) rests; - which bonds to the toe cap by means of projections (q, r, s, t); - Housed on steps (g, h) produced at a height of 10 mm from the bottom surface on which the flange (d) rests; - which bonds to the toe cap by means of projections (q, r, s, t); - and is provided with an angle of inclination (φ) > 7°.
Autonomous aquaculture fish weight prediction system for feeding fish in a fish pond, comprising: an autonomous vessel having a plurality of temperature and salinity sensors for two or more predetermined pond water depth ranges; an electronic data processor configured for calculating a fish weight prediction model from collected temperature and salinity data from said temperature and salinity sensors; wherein said fish weight prediction model is segmented into one or more prediction model segments for each of the predetermined pond water depth ranges; wherein the electronic data processor is configured for calculating each fish weight prediction model segment from collected temperature and salinity data from the corresponding predetermined pond water depth range. an autonomous vessel having a plurality of temperature and salinity sensors for two or more predetermined pond water depth ranges; an electronic data processor configured for calculating a fish weight prediction model from collected temperature and salinity data from said temperature and salinity sensors; wherein said fish weight prediction model is segmented into one or more prediction model segments for each of the predetermined pond water depth ranges; wherein the electronic data processor is configured for calculating each fish weight prediction model segment from collected temperature and salinity data from the corresponding predetermined pond water depth range.
An electronic device comprising: a camera; a display ; a communication interface ; a memory storing one or more instructions; and a processor that executes the one or more instructions stored in the memory , the processor being configured to: generate (S610) an event instructing to display one or more markers on a screen of a display device and transmit the event to the display device ; control the display to display a preview image including one or more guides considering a position of at least a portion of the wall to be captured; control (S620) the camera to capture an image of at least a portion of a wall around the display device as the one or more guides included in the preview image are positioned on the one or more markers displayed on the screen of the display device according to the generated event; generate (S630) a background image to be displayed on the screen of the display device based on the obtained image; and transmit (S640) the generated background image to the display device such that the generated background image is displayed on the screen of the display device . a camera; a display ; a communication interface ; a memory storing one or more instructions; and a processor that executes the one or more instructions stored in the memory , the processor being configured to: generate (S610) an event instructing to display one or more markers on a screen of a display device and transmit the event to the display device ; control the display to display a preview image including one or more guides considering a position of at least a portion of the wall to be captured; control (S620) the camera to capture an image of at least a portion of a wall around the display device as the one or more guides included in the preview image are positioned on the one or more markers displayed on the screen of the display device according to the generated event; generate (S630) a background image to be displayed on the screen of the display device based on the obtained image; and transmit (S640) the generated background image to the display device such that the generated background image is displayed on the screen of the display device . generate (S610) an event instructing to display one or more markers on a screen of a display device and transmit the event to the display device ; control the display to display a preview image including one or more guides considering a position of at least a portion of the wall to be captured; control (S620) the camera to capture an image of at least a portion of a wall around the display device as the one or more guides included in the preview image are positioned on the one or more markers displayed on the screen of the display device according to the generated event; generate (S630) a background image to be displayed on the screen of the display device based on the obtained image; and transmit (S640) the generated background image to the display device such that the generated background image is displayed on the screen of the display device .
A flexible hose for the transportation of liquids or fluids, in particular a garden hose for the transportation of drinking water, comprising: - at least one first layer with an exposed surface made of a first polymeric material; - at least one second layer arranged inside said first layer made of a second polymeric material; - at least one textile reinforcement layer interposed between said first layer and at least one second layer ; characterized in that said at least one first layer comprises a plurality of QR codes , said exposed surface including a plurality of portions on each of which there is printed a respective QR code designed to be scanned by a QR code reader ( L ), each QR code consisting of a respective at least one ink layer compatible with said first polymeric material. - at least one first layer with an exposed surface made of a first polymeric material; - at least one second layer arranged inside said first layer made of a second polymeric material; - at least one textile reinforcement layer interposed between said first layer and at least one second layer ;
A method of aiding the differential diagnosis between ischaemic stroke and a transient ischaemic attack in a patient suspected of having a stroke, comprising: i) determining the concentration of VCAM-1 and h-FABP biomarkers in an in vitro sample obtained from the patient; and ii) establishing the significance of the concentration of the biomarkers by comparing the concentration value for each biomarker with a corresponding control value, wherein the corresponding control value is the concentration value for the corresponding biomarker determined from an in vitro sample obtained from a transient ischaemic attack patient or patients. i) determining the concentration of VCAM-1 and h-FABP biomarkers in an in vitro sample obtained from the patient; and ii) establishing the significance of the concentration of the biomarkers by comparing the concentration value for each biomarker with a corresponding control value, wherein the corresponding control value is the concentration value for the corresponding biomarker determined from an in vitro sample obtained from a transient ischaemic attack patient or patients.
A method comprising: flowing a sample through a filter device comprising a filter assembly to filter the sample, wherein particulates are captured by a filter material of the filter assembly , wherein the filter device comprises a sonotrode having a plurality of piezoelectric discs attached to the filter assembly , and wherein the filter assembly further comprises (a) a first filter body adjacent the sonotrode , the first filter body defining a first fluid port which fluidly connects to an internal fluid passage within the first filter body , (b) a second filter body mated to the first filter body , the second filter body defining a second fluid port which fluidly connects to an internal passage within the second filter body , and (c) a filter element having an outer compressible seal , wherein the internal passages of the filter bodies form a singular passage defining a filter chamber when the first and second filter bodies are mated, and the filter element is disposed within the filter chamber with the outer seal supporting and surrounding the filter element ; and vibrating the filter device at or near a resonant frequency of the filter device to remove the particulates from the filter material , wherein the sonotrode is operated at an impedance of 20 Ohms to 500 Ohms to vibrate the filter assembly , wherein vibrating the filter device comprises monitoring the resonant or near-resonant frequency and altering power input to the filter device to maintain resonance or near-resonance. flowing a sample through a filter device comprising a filter assembly to filter the sample, wherein particulates are captured by a filter material of the filter assembly , wherein the filter device comprises a sonotrode having a plurality of piezoelectric discs attached to the filter assembly , and wherein the filter assembly further comprises (a) a first filter body adjacent the sonotrode , the first filter body defining a first fluid port which fluidly connects to an internal fluid passage within the first filter body , (b) a second filter body mated to the first filter body , the second filter body defining a second fluid port which fluidly connects to an internal passage within the second filter body , and (c) a filter element having an outer compressible seal , wherein the internal passages of the filter bodies form a singular passage defining a filter chamber when the first and second filter bodies are mated, and the filter element is disposed within the filter chamber with the outer seal supporting and surrounding the filter element ; and vibrating the filter device at or near a resonant frequency of the filter device to remove the particulates from the filter material , wherein the sonotrode is operated at an impedance of 20 Ohms to 500 Ohms to vibrate the filter assembly , wherein vibrating the filter device comprises monitoring the resonant or near-resonant frequency and altering power input to the filter device to maintain resonance or near-resonance.
A method of treating a substrate, comprising: disposing the substrate on a substrate support in a flood exposure treatment system; selecting a flood exposure dose profile; obtaining a default radial signature , wherein the default radial signature is a dose error as a function of the radial location on the substrate when exposing the substrate to flood irradiation from a source ; obtaining an inverse functional form of the default radial signature ; and exposing the substrate to flood irradiation from the source , terminating the flood irradiation when the selected flood exposure dose profile is achieved, wherein exposing the substrate to flood irradiation comprises controlling at least one parameter of a source scanning rate, a substrate scanning rate, a source power setting, a distance from the source to the substrate, a source aperture setting, an angle of incidence of flood irradiation on the substrate, and a source focus position by applying the inverse functional form to the at least one parameter through time to achieve the selected flood exposure dose profile. disposing the substrate on a substrate support in a flood exposure treatment system; selecting a flood exposure dose profile; obtaining a default radial signature , wherein the default radial signature is a dose error as a function of the radial location on the substrate when exposing the substrate to flood irradiation from a source ; obtaining an inverse functional form of the default radial signature ; and exposing the substrate to flood irradiation from the source , terminating the flood irradiation when the selected flood exposure dose profile is achieved, wherein exposing the substrate to flood irradiation comprises controlling at least one parameter of a source scanning rate, a substrate scanning rate, a source power setting, a distance from the source to the substrate, a source aperture setting, an angle of incidence of flood irradiation on the substrate, and a source focus position by applying the inverse functional form to the at least one parameter through time to achieve the selected flood exposure dose profile.
Spark plug resistor element comprising at least one inorganic amorphous oxide and at least one first inorganic crystalline oxide having a relative dielectric permittivity of not more than 15, and at least one second inorganic crystalline oxide , where the second inorganic crystalline oxide is selected from ZrO 2 , TiO 2 , HfO 2 and mixtures thereof, characterized in that the total content of first inorganic crystalline oxide and second inorganic crystalline oxide is 20% to less than 100% by mass, based in each case on the total mass of the spark plug resistor element .