mhurhangee/patent-ind-claim-en huggingface dataset:
Composition comprising one or more organic light emitting materials, and one or more organic solvents, characterized in that said composition is solid at a temperature of 50°C and fluid at a higher temperature, preferably at 200°C, and the boiling point of the solvent is at most 400°C at atmospheric pressure.
A method carried out by an apparatus comprising: - a dispensing device and - a sensor device , wherein the dispensing device is designed to receive a cleaning agent or contains such a cleaning agent, wherein the dispensing device and the sensor device can be integrated in a cleaning apparatus , and wherein the sensor device is designed to determine quantity information which is representative of the amount of a cleaning agent which has been poured into the dispensing device ; wherein the sensor device comprises a sensor which evaluates transit times and comprises a transmitter and a receiver, wherein a pulse is emitted by the transmitter, and the time it takes for the pulse to be reflected to the receiver is measured, the method comprising: - obtaining, by means of the sensor which evaluates transit times, quantity information which is representative of an amount of a cleaning agent which has been poured into a dispensing device of a cleaning apparatus ; and - checking, based at least in part on the determined quantity information, whether a supply of the cleaning agent is likely to be used up. - a dispensing device and - a sensor device , wherein the dispensing device is designed to receive a cleaning agent or contains such a cleaning agent, wherein the dispensing device and the sensor device can be integrated in a cleaning apparatus , and wherein the sensor device is designed to determine quantity information which is representative of the amount of a cleaning agent which has been poured into the dispensing device ; wherein the sensor device comprises a sensor which evaluates transit times and comprises a transmitter and a receiver, wherein a pulse is emitted by the transmitter, and the time it takes for the pulse to be reflected to the receiver is measured, the method comprising: wherein the dispensing device is designed to receive a cleaning agent or contains such a cleaning agent, wherein the dispensing device and the sensor device can be integrated in a cleaning apparatus , and wherein the sensor device is designed to determine quantity information which is representative of the amount of a cleaning agent which has been poured into the dispensing device ; wherein the sensor device comprises a sensor which evaluates transit times and comprises a transmitter and a receiver, wherein a pulse is emitted by the transmitter, and the time it takes for the pulse to be reflected to the receiver is measured, the method comprising: - obtaining, by means of the sensor which evaluates transit times, quantity information which is representative of an amount of a cleaning agent which has been poured into a dispensing device of a cleaning apparatus ; and - checking, based at least in part on the determined quantity information, whether a supply of the cleaning agent is likely to be used up.
A driving force receiving module which is used for receiving a rotating force from a driving head of an image forming apparatus and transmitting the rotating force to a driven rotating component, thus driving the driven rotating component to rotate, comprising: at least two symmetrically arranged power receiving components which are engaged with an engaging component of the driving head of the image forming apparatus; a driving cooperating component which cooperates with the driven rotating component; a power transmitting component which connects the power receiving component and the driving cooperating component ; wherein the driving force receiving module is engaged with the driving head in that L, which represents the minimum distance between projected areas of the two symmetrically arranged power receiving components on a plane (s) perpendicular to an assembly direction of a process cartridge, ranges from D/2 to D+H; where D is a maximum outer diameter of a rotating head perpendicular to a rotating axis of the driving head , and H is a height of the most outer point on a contour of driving head protruding out of an assembly location of the engaging component . at least two symmetrically arranged power receiving components which are engaged with an engaging component of the driving head of the image forming apparatus; a driving cooperating component which cooperates with the driven rotating component; a power transmitting component which connects the power receiving component and the driving cooperating component ; wherein the driving force receiving module is engaged with the driving head in that L, which represents the minimum distance between projected areas of the two symmetrically arranged power receiving components on a plane (s) perpendicular to an assembly direction of a process cartridge, ranges from D/2 to D+H; where D is a maximum outer diameter of a rotating head perpendicular to a rotating axis of the driving head , and H is a height of the most outer point on a contour of driving head protruding out of an assembly location of the engaging component .
An antibody composition comprising ovine polyclonal antibodies that bind to and neutralise the biological activity of C . difficile Toxin A and C. difficile Toxin B, for use in the prevention or treatment of C . difficile infection.
A method of forming a material comprising at least one mesostructured zeolite, said method comprising the steps of: (a) acid washing an initial zeolite with an acid thereby forming an acid-washed zeolite, wherein said initial zeolite has a total silicon-to-aluminum ratio (Si/Al) of less than 30, wherein said acid washing is performed at a temperature in the range of from 20 to 100 °C, wherein said acid washing is performed for a time period in the range of from 5 minutes to 12 hours, wherein said acid washing is performed with an acid wash having a pH in the range of from 1 to 6; (b) vacuum filtering and washing with water said acid-washed zeolite; and (c) forming at least one mesopore within said acid-washed zeolite thereby forming said mesostructured zeolite, wherein said forming of at least one mesopore within said acid-washed zeolite is accomplished by contacting said acid-washed zeolite with a pH controlling medium and a surfactant thereby forming said mesostructured zeolite, wherein said pH controlling medium comprises a base. (a) acid washing an initial zeolite with an acid thereby forming an acid-washed zeolite, wherein said initial zeolite has a total silicon-to-aluminum ratio (Si/Al) of less than 30, wherein said acid washing is performed at a temperature in the range of from 20 to 100 °C, wherein said acid washing is performed for a time period in the range of from 5 minutes to 12 hours, wherein said acid washing is performed with an acid wash having a pH in the range of from 1 to 6; (b) vacuum filtering and washing with water said acid-washed zeolite; and (c) forming at least one mesopore within said acid-washed zeolite thereby forming said mesostructured zeolite, wherein said forming of at least one mesopore within said acid-washed zeolite is accomplished by contacting said acid-washed zeolite with a pH controlling medium and a surfactant thereby forming said mesostructured zeolite, wherein said pH controlling medium comprises a base.
Measurement system for measuring a connection quality to a wireless network , the system comprising: a plurality of test devices (4 to 7, 24 to 27), the test devices (4 to 7, 24 to 27) each comprising a communication unit (8 to 11) configured to communicate with the wireless network and the test devices (4 to 7, 24 to 27) are located near to each other at slightly different positions, a measurement unit (12 to 15) configured to measure the connection quality of the single test devices (4 to 7, 24 to 27) to the wireless network , a calibration controller configured to determine in a calibration mode the connection quality of each one of the test devices (4 to 7, 24 to 27) to the wireless network , and to calculate for every test devices (4 to 7, 24 to 27) an individual correction factor based on the connection quality determined during the calibration mode, and a signal adaption unit configured to adapt the measured connection quality of each one of the test devices (4 to 7, 24 to 27) according to the respective individual correction factor . a plurality of test devices (4 to 7, 24 to 27), the test devices (4 to 7, 24 to 27) each comprising a communication unit (8 to 11) configured to communicate with the wireless network and the test devices (4 to 7, 24 to 27) are located near to each other at slightly different positions, a measurement unit (12 to 15) configured to measure the connection quality of the single test devices (4 to 7, 24 to 27) to the wireless network , a calibration controller configured to determine in a calibration mode the connection quality of each one of the test devices (4 to 7, 24 to 27) to the wireless network , and to calculate for every test devices (4 to 7, 24 to 27) an individual correction factor based on the connection quality determined during the calibration mode, and a signal adaption unit configured to adapt the measured connection quality of each one of the test devices (4 to 7, 24 to 27) according to the respective individual correction factor .
Method for transmitting data of a tyre module to a central data server, comprising at least the following steps: a) providing a vehicle tyre having a tyre module , wherein the tyre module is used to capture measurement data and/or individual tyre data, the tyre module being used to record at least the tyre pressure, b) evaluating the measurement data and/or tyre data using a computer unit integrated in the tyre module , wherein the tyre module is used to evaluate at least the tyre pressure, with a difference between the measured tyre pressure and a predefined setpoint value resulting in an error message being generated, c) transmitting the measurement data and/or tyre data using a transmitting and receiving unit integrated in the tyre module , wherein the measurement data and/or tyre data from the tyre module are transmitted to the central data server on the Internet directly by way of a low-energy wide area network, no central receiving unit being interposed in the vehicle during the data transmission, and the data being transmitted by way of a narrowband loT connection, d) receiving and evaluating the measurement data and/or tyre data using the central data server , and providing the data to a user, the error message generated in the event of a difference between the measured tyre pressure and a predefined setpoint value being displayed to the user. a) providing a vehicle tyre having a tyre module , wherein the tyre module is used to capture measurement data and/or individual tyre data, the tyre module being used to record at least the tyre pressure, b) evaluating the measurement data and/or tyre data using a computer unit integrated in the tyre module , wherein the tyre module is used to evaluate at least the tyre pressure, with a difference between the measured tyre pressure and a predefined setpoint value resulting in an error message being generated, c) transmitting the measurement data and/or tyre data using a transmitting and receiving unit integrated in the tyre module , wherein the measurement data and/or tyre data from the tyre module are transmitted to the central data server on the Internet directly by way of a low-energy wide area network, no central receiving unit being interposed in the vehicle during the data transmission, and the data being transmitted by way of a narrowband loT connection, wherein the measurement data and/or tyre data from the tyre module are transmitted to the central data server on the Internet directly by way of a low-energy wide area network, no central receiving unit being interposed in the vehicle during the data transmission, and the data being transmitted by way of a narrowband loT connection, d) receiving and evaluating the measurement data and/or tyre data using the central data server , and providing the data to a user, the error message generated in the event of a difference between the measured tyre pressure and a predefined setpoint value being displayed to the user.
A method comprising: instantiating a data connector component as a stateless container for accessing an object store within which objects comprising backup data of snapshots are stored within storage structures; wherein the state information of the stateless container does not need to be tracked, saved, or restored; evaluating, by the data connector component, metadata associated with the snapshots to perform an integrity check for the objects; wherein performing the integrity check comprises: evaluating a bitmap for the snapshot to identify a set of objects comprising backup data of the snapshot, wherein the bitmap comprises bits corresponding to objects, wherein a bit for the object is populated with a value to indicate whether backup data of the snapshot is stored within the object; and for each object of the set of objects identified as comprising the backup data of the snapshot , implementing a head API test to determine whether the object is accessible within the object store ; and in response to determining that an object is not accessible , generating, by the data connector component, an indication of the integrity issue. instantiating a data connector component as a stateless container for accessing an object store within which objects comprising backup data of snapshots are stored within storage structures; wherein the state information of the stateless container does not need to be tracked, saved, or restored; evaluating, by the data connector component, metadata associated with the snapshots to perform an integrity check for the objects; wherein performing the integrity check comprises: evaluating a bitmap for the snapshot to identify a set of objects comprising backup data of the snapshot, wherein the bitmap comprises bits corresponding to objects, wherein a bit for the object is populated with a value to indicate whether backup data of the snapshot is stored within the object; and for each object of the set of objects identified as comprising the backup data of the snapshot , implementing a head API test to determine whether the object is accessible within the object store ; and evaluating a bitmap for the snapshot to identify a set of objects comprising backup data of the snapshot, wherein the bitmap comprises bits corresponding to objects, wherein a bit for the object is populated with a value to indicate whether backup data of the snapshot is stored within the object; and for each object of the set of objects identified as comprising the backup data of the snapshot , implementing a head API test to determine whether the object is accessible within the object store ; and in response to determining that an object is not accessible , generating, by the data connector component, an indication of the integrity issue.
A light source module comprising: a printed circuit board ; a plurality of light sources on the printed circuit board; an optical member on the printed circuit board, the optical member positioned around the plurality of light sources; and a conductive member coupled to the optical member, the conductive member including a protrusion for grounding the conductive member; characterized in that the optical member is disposed between the printed circuit board and the conductive member. a printed circuit board ; a plurality of light sources on the printed circuit board; an optical member on the printed circuit board, the optical member positioned around the plurality of light sources; and a conductive member coupled to the optical member, the conductive member including a protrusion for grounding the conductive member; characterized in that the optical member is disposed between the printed circuit board and the conductive member.
Method for preparing a catalyst for the selective hydrogenation of polyunsaturated hydrocarbon fractions comprising a bimetallic active phase based on a first nickel metal element, in a proportion of 1 and 30% by weight of nickel element relative to the total weight of the catalyst, and a second copper metal element, in a proportion of 0.5 to 15% by weight of copper element relative to the total weight of the catalyst, the molar ratio between the copper and the nickel being less than 1, and a support comprising at least one refractory oxide chosen from silica, alumina and silica-alumina, said method comprising the following steps: a) a step of placing the support in contact with at least one solution containing at least one nickel precursor is carried out; b) a step of placing the support in contact with at least one aqueous solution containing at least one copper precursor at least partially in the dissolved state is carried out by impregnation; the steps a) and b) being carried out separately in any order; c) at least one step of drying the catalyst precursor at the end of step a) and b), or b) and a), at a temperature less than 250°C is carried out; d) the catalyst precursor obtained at the end of step c) is supplied to a reactor for the selective hydrogenation of polyunsaturated hydrocarbon fractions, and a reduction step is carried out by placing said precursor in contact with a reducing gas at a temperature less than 200°C for a period greater than or equal to 5 minutes and less than 2 hours. a) a step of placing the support in contact with at least one solution containing at least one nickel precursor is carried out; b) a step of placing the support in contact with at least one aqueous solution containing at least one copper precursor at least partially in the dissolved state is carried out by impregnation; the steps a) and b) being carried out separately in any order; c) at least one step of drying the catalyst precursor at the end of step a) and b), or b) and a), at a temperature less than 250°C is carried out; d) the catalyst precursor obtained at the end of step c) is supplied to a reactor for the selective hydrogenation of polyunsaturated hydrocarbon fractions, and a reduction step is carried out by placing said precursor in contact with a reducing gas at a temperature less than 200°C for a period greater than or equal to 5 minutes and less than 2 hours.
Observation apparatus for visual enhancement of an observed object , comprising an output color image projector for projecting a time sequence of output color images onto a projection area on the object, the output color image projector having an output spectrum consisting of a set of output spectral bands in the visible-light range, a multispectral camera system for capturing a time sequence of input color images from the projection area in at least two input spectral bands in the visible-light range, the input spectral bands being different from the output spectral bands , wherein the observation apparatus is configured to compute the output color images based on the input color images and to project the output color images onto the projection area in real time, characterised by a visible-light transmitting viewer for use by an observer and for being directed onto the projection area and comprising a viewer filter system restricting light transmission to the output spectral bands , so that contrast is increased while at the same time allowing the observer to view the object and the output color images at the output spectral bands , the viewer using a separate imaging system operating on the same projection area which is functionally separated from the multispectral camera system and the output color image projector by using different input and output spectral bands .
A carrier system for fixing at least one testing device and/or cleaning device and/or repairing device on a support structure (T) underneath and/or above a water surface (W) of a body of water, comprising - a carriage carrier chain , which can be arranged circumferentially around the support structure (T) and has a plurality of chain elements which can be connected to one another, characterized by - a plurality of cable winches to be arranged circumferentially around the support structure (T) and fixed to at least some of the chain elements , wherein the carriage carrier chain can be positioned by means of the cable winches on the support structure (T) at a predeterminable vertical height (H) with respect to the water surface (W), wherein at least some of the chain elements have cavities , which can be flooded and pumped out, such that the carriage carrier chain has positive buoyance in water when the cavities are pumped out and negative buoyance when the cavities are flooded . - a carriage carrier chain , which can be arranged circumferentially around the support structure (T) and has a plurality of chain elements which can be connected to one another, characterized by - a plurality of cable winches to be arranged circumferentially around the support structure (T) and fixed to at least some of the chain elements , wherein the carriage carrier chain can be positioned by means of the cable winches on the support structure (T) at a predeterminable vertical height (H) with respect to the water surface (W), wherein at least some of the chain elements have cavities , which can be flooded and pumped out, such that the carriage carrier chain has positive buoyance in water when the cavities are pumped out and negative buoyance when the cavities are flooded .
A chemical heater for use in down-hole operations, said heater comprising: a heater body housing a chemical reaction heat source material , wherein the heater body has a leading end that, in use, is deployed down-hole first; ignition means , located in a heating zone proximal to the leading end of the heater body , for triggering a chemical reaction in the chemical reaction heat source material located in the heating zone; and an actuator housed within the heater body and configured to urge the chemical reaction heat source material towards the heating zone . a heater body housing a chemical reaction heat source material , wherein the heater body has a leading end that, in use, is deployed down-hole first; ignition means , located in a heating zone proximal to the leading end of the heater body , for triggering a chemical reaction in the chemical reaction heat source material located in the heating zone; and an actuator housed within the heater body and configured to urge the chemical reaction heat source material towards the heating zone .
A plate heat exchanger comprising a top head , a bottom head , four side panels and four corner girders , wherein the side panels and the corner girders extend along a longitudinal direction from the bottom head to the top head , wherein each side panel is associated with two corner girders , wherein the top head , the bottom head , the four side panels and the four corner girders are joined together to form a sealed enclosure for housing a plate pack of stacked heat-exchanging plates , wherein a continuous gasket assembly is arranged in a contact region between at least one side panel and two corner girders , the top head and the bottom head , characterized in that the gasket assembly is located in a groove , wherein the gasket assembly is a segmented gasket assembly composed of a plurality of gasket segments, and wherein each gasket segment is made of graphite material.