mhurhangee/patent-ind-claim-en huggingface dataset:
Method for testing a plant or plant part for exhibiting a reduced or absent surface discolouration as compared to a control plant or plant part, which method comprises: a) providing a plant or plant part that is obtained from a plant population that shows genetic variation, in particular a gene bank; b) creating a wound surface on the plant or plant part or incubating the plant or plant part with a substrate that can be converted into a coloured pigment; c) incubating the plant or plant part or the wound surfaces created thereon to allow for discolouration to occur therein or thereon; d) observing the discolouration in or on the plants or plant parts; e) comparing the observed discolouration with the discolouration that is observed in the control plant or plant part to assess whether the plant or plant part shows no discolouration or a discolouration that is reduced as compared to the control plant or plant part; and f) identifying a plant or plant part that shows no discolouration or a discolouration that is reduced as compared to the control plant or plant part as a plant that harbours the reduced wound-induced surface discolouration trait. a) providing a plant or plant part that is obtained from a plant population that shows genetic variation, in particular a gene bank; b) creating a wound surface on the plant or plant part or incubating the plant or plant part with a substrate that can be converted into a coloured pigment; c) incubating the plant or plant part or the wound surfaces created thereon to allow for discolouration to occur therein or thereon; d) observing the discolouration in or on the plants or plant parts; e) comparing the observed discolouration with the discolouration that is observed in the control plant or plant part to assess whether the plant or plant part shows no discolouration or a discolouration that is reduced as compared to the control plant or plant part; and f) identifying a plant or plant part that shows no discolouration or a discolouration that is reduced as compared to the control plant or plant part as a plant that harbours the reduced wound-induced surface discolouration trait.
An integrated blood test unit including a blood collection unit , a test component , a reservoir containing test fluid, and an actuator , wherein operatively activation of the actuator causes movement of the blood collection unit to deliver blood to the test component , and activation of the actuator further causes the test fluid to be released from the reservoir in order to allow the test fluid to contact the test component.
A method for converting CO 2 into methane, wherein: - hydrogen is contacted with a gas feed comprising CO 2 in at least one methanation reactor comprising a catalyst bed at a temperature in the catalytic bed comprised between 160°C and 550°C, at a pressure comprised between 0.1 MPa and 1 MPa, with a gas hourly space velocity comprised between 10 m 3 /kg/h and 50 m 3 /kg/h and with an H 2 /CO 2 molar ratio comprised between 1 and 8; - the catalyst comprises Ni metal deposited on a uranium oxide support of formula UO 2+x , with x being comprised between 0.01 and 0.6, and the nickel mass content of which is comprised between 5% and 40% of nickel metal relative to the total mass of the catalyst; and wherein: - the catalyst is prepared by a method comprising the following steps a) to c): a) a support precursor consisting essentially of a uranium (IV) and/or uranium (VI) oxide is impregnated with a solution comprising a nickel precursor and a polar solvent; b) the impregnated support precursor is calcined in air and at a temperature of at least 250°C; and a) the impregnated and calcined support precursor is reduced under hydrogen at a temperature of at least 300°C. - hydrogen is contacted with a gas feed comprising CO 2 in at least one methanation reactor comprising a catalyst bed at a temperature in the catalytic bed comprised between 160°C and 550°C, at a pressure comprised between 0.1 MPa and 1 MPa, with a gas hourly space velocity comprised between 10 m 3 /kg/h and 50 m 3 /kg/h and with an H 2 /CO 2 molar ratio comprised between 1 and 8; - the catalyst comprises Ni metal deposited on a uranium oxide support of formula UO 2+x , with x being comprised between 0.01 and 0.6, and the nickel mass content of which is comprised between 5% and 40% of nickel metal relative to the total mass of the catalyst; and wherein: - the catalyst is prepared by a method comprising the following steps a) to c): a) a support precursor consisting essentially of a uranium (IV) and/or uranium (VI) oxide is impregnated with a solution comprising a nickel precursor and a polar solvent; b) the impregnated support precursor is calcined in air and at a temperature of at least 250°C; and a) the impregnated and calcined support precursor is reduced under hydrogen at a temperature of at least 300°C. - the catalyst is prepared by a method comprising the following steps a) to c): a) a support precursor consisting essentially of a uranium (IV) and/or uranium (VI) oxide is impregnated with a solution comprising a nickel precursor and a polar solvent; b) the impregnated support precursor is calcined in air and at a temperature of at least 250°C; and a) the impregnated and calcined support precursor is reduced under hydrogen at a temperature of at least 300°C. a) a support precursor consisting essentially of a uranium (IV) and/or uranium (VI) oxide is impregnated with a solution comprising a nickel precursor and a polar solvent; b) the impregnated support precursor is calcined in air and at a temperature of at least 250°C; and a) the impregnated and calcined support precursor is reduced under hydrogen at a temperature of at least 300°C.
A method for shifting a sliding sleeve in a wellbore, comprising: - providing a wellbore lined with tubing, the tubing comprising one or more ported tubular segments , each ported tubular segment having a port closure sleeve slidably disposed within the ported tubular segment ; - the ported tubular segment having an inner profile for use in locating said port closure sleeve ; - providing a tool assembly comprising: a locating device and a resettable sealing member ; - deploying the tool assembly within the wellbore on coiled tubing; - engaging the inner profile of the ported tubular segment with the locating device ; - setting the sealing member across the port closure sleeve ; and - applying a hydraulic force via the coiled tubing to slide the port closure sleeve with respect to the ported tubular segment . - providing a wellbore lined with tubing, the tubing comprising one or more ported tubular segments , each ported tubular segment having a port closure sleeve slidably disposed within the ported tubular segment ; - the ported tubular segment having an inner profile for use in locating said port closure sleeve ; - providing a tool assembly comprising: a locating device and a resettable sealing member ; - deploying the tool assembly within the wellbore on coiled tubing; - engaging the inner profile of the ported tubular segment with the locating device ; - setting the sealing member across the port closure sleeve ; and - applying a hydraulic force via the coiled tubing to slide the port closure sleeve with respect to the ported tubular segment .
A method for determining an analyte concentration in a fluid using an analyte sensor , wherein the analyte sensor comprises at least two measurement electrodes , wherein at least one of the measurement electrodes comprises an analyte-responsive polymer gel , the method comprising the following steps: a) contacting at least the analyte-responsive polymer gel of the analyte sensor with the fluid comprising the analyte; b) generating at least one fast-transient voltage signal and applying the fast-transient voltage signal to the measurement electrodes , wherein the fast-transient voltage signal comprises a non-continuous signal, wherein the fast-transient voltage signal comprises a pulse, wherein a pulse duration is ≤ 20 μs, preferably ≤ 10 μs; c) measuring at least one response signal, wherein the response signal is a measured propagation of the applied fast-transient voltage signal; d) determining the analyte concentration by evaluating the response signal. a) contacting at least the analyte-responsive polymer gel of the analyte sensor with the fluid comprising the analyte; b) generating at least one fast-transient voltage signal and applying the fast-transient voltage signal to the measurement electrodes , wherein the fast-transient voltage signal comprises a non-continuous signal, wherein the fast-transient voltage signal comprises a pulse, wherein a pulse duration is ≤ 20 μs, preferably ≤ 10 μs; c) measuring at least one response signal, wherein the response signal is a measured propagation of the applied fast-transient voltage signal; d) determining the analyte concentration by evaluating the response signal.
Mixing unit , comprising: - a mixing rotor for mixing flowable building materials, based in particular on mortar or concrete mixtures, and - a drive chuck for rotatably driving the mixing rotor about an axis of rotation (R) - wherein the mixing rotor comprises a intermixing unit and a drive shaft coupled to the intermixing unit for the purpose of transmitting a rotational movement, - wherein the drive shaft has a drive shaft segment for coupling with the drive chuck at one end facing away from the intermixing unit , - wherein the drive chuck comprises a drive shaft receptacle for force- and/or form-fitting reception of the drive shaft segment , - wherein the drive shaft segment comprises a curved axial bearing surface that is located on the axial face side, the axial bearing surface for joining to an axial counter-bearing surface of the drive shaft receptacle oriented in the direction of the axis of rotation (R), characterized in that - the axial bearing surface is arranged such that it cooperates with the axial counter-bearing surface in the manner of an axial articulation bearing with the drive shaft and drive chuck being mechanically coupled, and - the drive chuck is designed such that a radial play (S), measured with respect to the rotational axis (R), is present between the drive shaft receptacle and the drive shaft segment , enabling pendulum movements within a predetermined angle. - a mixing rotor for mixing flowable building materials, based in particular on mortar or concrete mixtures, and - a drive chuck for rotatably driving the mixing rotor about an axis of rotation (R) - wherein the mixing rotor comprises a intermixing unit and a drive shaft coupled to the intermixing unit for the purpose of transmitting a rotational movement, - wherein the drive shaft has a drive shaft segment for coupling with the drive chuck at one end facing away from the intermixing unit , - wherein the drive chuck comprises a drive shaft receptacle for force- and/or form-fitting reception of the drive shaft segment , - wherein the drive shaft segment comprises a curved axial bearing surface that is located on the axial face side, the axial bearing surface for joining to an axial counter-bearing surface of the drive shaft receptacle oriented in the direction of the axis of rotation (R), characterized in that - the axial bearing surface is arranged such that it cooperates with the axial counter-bearing surface in the manner of an axial articulation bearing with the drive shaft and drive chuck being mechanically coupled, and - the drive chuck is designed such that a radial play (S), measured with respect to the rotational axis (R), is present between the drive shaft receptacle and the drive shaft segment , enabling pendulum movements within a predetermined angle.
A cooling system, comprising a compressor unit , a condenser , a first solenoid valve , a second solenoid valve , a first throttle valve and a frequency converter , wherein the second solenoid valve and the first throttle valve are connected in series and connected with the first solenoid valve in parallel; the compressor unit , the condenser , the first solenoid valve and the frequency converter are connected in series to form a first cooling loop; the compressor unit , the condenser , the second solenoid valve , the first throttle valve and the frequency converter are connected in series to form a second cooling loop; and the frequency converter is internally provided with a temperature detection module and a heat exchange module; the cooling system further comprising a cooling capacity adjustment module located between the compressor unit and the frequency converter to adjust the flow of the refrigerant passing through the frequency converter ; and the cooling capacity adjustment module comprises at least one cooling capacity adjustment assembly , and each cooling capacity adjustment assembly comprises an electronic expansion valve ; wherein the cooling system is configured such that if the temperature detection module detects that the temperature in the frequency converter is lower than a switching temperature T, the first solenoid valve is opened, the second solenoid valve is closed, the first cooling loop is opened, and the second cooling loop is closed; and wherein the cooling system is configured such that if the temperature detection module detects that the temperature in the frequency converter is equal to or higher than the switching temperature T, the first solenoid valve is closed, the second solenoid valve is opened, the first cooling loop is closed, and the second cooling loop is opened. the cooling system further comprising a cooling capacity adjustment module located between the compressor unit and the frequency converter to adjust the flow of the refrigerant passing through the frequency converter ; and the cooling capacity adjustment module comprises at least one cooling capacity adjustment assembly , and each cooling capacity adjustment assembly comprises an electronic expansion valve ; wherein the cooling system is configured such that if the temperature detection module detects that the temperature in the frequency converter is lower than a switching temperature T, the first solenoid valve is opened, the second solenoid valve is closed, the first cooling loop is opened, and the second cooling loop is closed; and wherein the cooling system is configured such that if the temperature detection module detects that the temperature in the frequency converter is equal to or higher than the switching temperature T, the first solenoid valve is closed, the second solenoid valve is opened, the first cooling loop is closed, and the second cooling loop is opened.
A magnetic suspension bogie, comprising: an upper frame located at an upper portion and two lower frames located at a lower portion, wherein the upper frame and each of the two lower frames are hinged and connected by means of a connection device , characterized in that suspension devices are mounted at bottoms of two sides of each of the two lower frames , a track sensing device is mounted at a bottom surface of a middle of each of the two lower frames , each of the two lower frames comprises a beam and two side beams which are symmetrically provided at two sides of the beam , the suspension devices are provided at a bottom of each of the two side beams , the track sensing device is provided on a bottom surface of a middle of the beam , guide devices are respectively provided at bottoms of two sides of the beam , each guide device comprises a guide wheel which is laterally provided and a guide wheel carrier ; the guide wheel is mounted on the beam by means of the guide wheel carrier , and the guide wheel comes into contact with an inner wall of a track , support devices are respectively provided at bottoms of two sides of the beam , each support device corresponds to a top surface of a track , and is configured to support the magnetic suspension bogie when the magnetic suspension bogie is in a non-suspension state, each of two side edges of the beam extends outward to form a plurality of lap joint parts , and the plurality of lap joint parts are fixed on a respective one of the two side beams at intervals. characterized in that suspension devices are mounted at bottoms of two sides of each of the two lower frames , a track sensing device is mounted at a bottom surface of a middle of each of the two lower frames , each of the two lower frames comprises a beam and two side beams which are symmetrically provided at two sides of the beam , the suspension devices are provided at a bottom of each of the two side beams , the track sensing device is provided on a bottom surface of a middle of the beam , guide devices are respectively provided at bottoms of two sides of the beam , each guide device comprises a guide wheel which is laterally provided and a guide wheel carrier ; the guide wheel is mounted on the beam by means of the guide wheel carrier , and the guide wheel comes into contact with an inner wall of a track , support devices are respectively provided at bottoms of two sides of the beam , each support device corresponds to a top surface of a track , and is configured to support the magnetic suspension bogie when the magnetic suspension bogie is in a non-suspension state, each of two side edges of the beam extends outward to form a plurality of lap joint parts , and the plurality of lap joint parts are fixed on a respective one of the two side beams at intervals.
Process for fabricating a recurrent-neural-network computer , comprising the successive steps of: a) providing a substrate comprising a first electrode ; b) forming a first block-copolymer layer on one portion of the first electrode so that the first electrode contains free zones (ZL) with a random spatial distribution; c) etching the free zones (ZL) of the first electrode so as to structure the first electrode ; d) removing the first block-copolymer layer ; e) forming a resistive random-access memory layer on the first electrode structured in step c); f) forming a second electrode on the memory layer; g) forming a second block-copolymer layer on one portion of the second electrode so that the second electrode contains free zones (ZL) with a random spatial distribution; h) etching the free zones (ZL) of the second electrode so as to structure the second electrode ; i) removing the second block-copolymer layer . a) providing a substrate comprising a first electrode ; b) forming a first block-copolymer layer on one portion of the first electrode so that the first electrode contains free zones (ZL) with a random spatial distribution; c) etching the free zones (ZL) of the first electrode so as to structure the first electrode ; d) removing the first block-copolymer layer ; e) forming a resistive random-access memory layer on the first electrode structured in step c); f) forming a second electrode on the memory layer; g) forming a second block-copolymer layer on one portion of the second electrode so that the second electrode contains free zones (ZL) with a random spatial distribution; h) etching the free zones (ZL) of the second electrode so as to structure the second electrode ; i) removing the second block-copolymer layer .
A glass tube production method comprising: preparing a tubular glass material ; irradiating an outer main surface of the tubular glass material with a laser to form an in-plane void region having a plurality of voids arranged on the outer main surface , and forming a plurality of internal void rows each having one void or two or more voids arranged from the in-plane void region toward an inner main surface of the tubular glass material ; and characterised by chemically strengthening the tubular glass material having the internal void rows formed therein. preparing a tubular glass material ; irradiating an outer main surface of the tubular glass material with a laser to form an in-plane void region having a plurality of voids arranged on the outer main surface , and forming a plurality of internal void rows each having one void or two or more voids arranged from the in-plane void region toward an inner main surface of the tubular glass material ;
A solar cell comprising: a substrate ; a first electrode on the substrate; a photoelectric conversion layer on the first electrode ; an n-type layer on the photoelectric conversion layer ; and a second electrode on the n-type layer ; wherein , the photoelectric conversion layer contains cuprous oxide, characterized in that when a transmittance of the solar cell is measured in a wavelength range of 700 to 1000 nm, an average of the transmittance of the solar cell is 60% or more, and when the photoelectric conversion layer is analyzed by X-ray photoelectron spectroscopy, in a peak of the cuprous oxide observed in a range in which a binding energy value is 930 eV or more and 934 eV or less, there are a first intersection and a second intersection where a horizontal line passing through a value of 2/3 of a peak top of the cuprous oxide intersects with the peak of the cuprous oxide, there is a third intersection where a perpendicular line extending from the peak top to the horizontal line intersects with the horizontal line , and an average of ratios of a difference between a first length formed by the first intersection and the third intersection and a second length formed by the second intersection and the third intersection is 15% or less. a substrate ; a first electrode on the substrate; a photoelectric conversion layer on the first electrode ; an n-type layer on the photoelectric conversion layer ; and a second electrode on the n-type layer ; wherein , the photoelectric conversion layer contains cuprous oxide, characterized in that when a transmittance of the solar cell is measured in a wavelength range of 700 to 1000 nm, an average of the transmittance of the solar cell is 60% or more, and when the photoelectric conversion layer is analyzed by X-ray photoelectron spectroscopy, in a peak of the cuprous oxide observed in a range in which a binding energy value is 930 eV or more and 934 eV or less, there are a first intersection and a second intersection where a horizontal line passing through a value of 2/3 of a peak top of the cuprous oxide intersects with the peak of the cuprous oxide, there is a third intersection where a perpendicular line extending from the peak top to the horizontal line intersects with the horizontal line , and an average of ratios of a difference between a first length formed by the first intersection and the third intersection and a second length formed by the second intersection and the third intersection is 15% or less.
A urinary catheter assembly comprising: a hydrophilic urinary catheter (3;530;630;730), part of which forms an insertable length to be inserted through a body opening, and with a connector comprising a flared rearward part; a catheter receptacle (2;520;620;720) for accommodation of at least part of the catheter; and a wetting fluid; characterised in that the receptacle is connected to the flared rearward part of the catheter, thereby enclosing the insertable length of the catheter, but leaving at least part of the flared rearward part outside the receptacle, and in that a closure is also connected to the flared rearward part, at a distance from said receptacle, said closure sealingly closing the rearward end of the flared rearward part. a hydrophilic urinary catheter (3;530;630;730), part of which forms an insertable length to be inserted through a body opening, and with a connector comprising a flared rearward part; a catheter receptacle (2;520;620;720) for accommodation of at least part of the catheter; and a wetting fluid; characterised in that the receptacle is connected to the flared rearward part of the catheter, thereby enclosing the insertable length of the catheter, but leaving at least part of the flared rearward part outside the receptacle, and in that a closure is also connected to the flared rearward part, at a distance from said receptacle, said closure sealingly closing the rearward end of the flared rearward part.