mhurhangee/patent-ind-claim-en huggingface dataset:
A method for the inactivation and inactivation testing of alpha-Gal epitope in cow's milk, characterized in that it comprises the following steps: - making up a solution with cow's milk as a solvent and caffeic acid or tannic acid, as a solute, for the inactivation of at least part of the alpha-Gal epitopes from said cow's milk; - incubating samples of said cow's milk with the addition of an antibody aimed at the alpha-Gal epitope that is present in said cow's milk; - separating the resulting immune complex created owing to the bond between antigen and antibody; - preparing a well plate for the E.L.I.S.A. test with coating comprising said alpha-Gal epitope, - adding, in said wells, supernatant taken from said samples, said supernatant containing the part of anti-alpha-Gal epitope antibody that has not bonded with the alpha-Gal epitopes, a column of wells being adapted to define a reference value that corresponds to the maximum signal between antibody and epitopes, - completing said plate with a secondary antibody conjugated with an enzyme, or other molecule, adapted to chromatically highlight any presence of anti-alpha-Gal antibody, - reading said plate, determining the presence of anti-alpha-Gal epitope antibody that has remained free in the solutions of the samples, - comparing the absorbance values detected in the column that defines the reference values with the values detected in the other columns of samples of the plate. - making up a solution with cow's milk as a solvent and caffeic acid or tannic acid, as a solute, for the inactivation of at least part of the alpha-Gal epitopes from said cow's milk; - incubating samples of said cow's milk with the addition of an antibody aimed at the alpha-Gal epitope that is present in said cow's milk; - separating the resulting immune complex created owing to the bond between antigen and antibody; - preparing a well plate for the E.L.I.S.A. test with coating comprising said alpha-Gal epitope, - adding, in said wells, supernatant taken from said samples, said supernatant containing the part of anti-alpha-Gal epitope antibody that has not bonded with the alpha-Gal epitopes, a column of wells being adapted to define a reference value that corresponds to the maximum signal between antibody and epitopes, - completing said plate with a secondary antibody conjugated with an enzyme, or other molecule, adapted to chromatically highlight any presence of anti-alpha-Gal antibody, - reading said plate, determining the presence of anti-alpha-Gal epitope antibody that has remained free in the solutions of the samples, - comparing the absorbance values detected in the column that defines the reference values with the values detected in the other columns of samples of the plate.
A method of making a replacement heart valve that is implantable to a patient, comprising the steps of: a. providing a tubular segment of an elastic material having a first end portion and an opposite, second end portion , an interior surface , an exterior surface and a diameter d 1 ; b. folding the first end portion inside-out towards to the second end portion such that the first end of the tubular segment reaches a position on the exterior surface and the tubular segment has a new first end , wherein the first end and the new first end define a new first end portion with an axial distance d 2 that is substantially equal to d 1 ; and c. forming a plurality of cusps on the new first end portion axially; characterized by d. inverting the tubular segment inside-out so that the exterior surface of the tubular segment and the interior surface of the tubular segment exchange their geometric positions to form a replacement heart valve that has a conduit at least partially with a single layer of intestinal tissue. a. providing a tubular segment of an elastic material having a first end portion and an opposite, second end portion , an interior surface , an exterior surface and a diameter d 1 ; b. folding the first end portion inside-out towards to the second end portion such that the first end of the tubular segment reaches a position on the exterior surface and the tubular segment has a new first end , wherein the first end and the new first end define a new first end portion with an axial distance d 2 that is substantially equal to d 1 ; and c. forming a plurality of cusps on the new first end portion axially; characterized by d. inverting the tubular segment inside-out so that the exterior surface of the tubular segment and the interior surface of the tubular segment exchange their geometric positions to form a replacement heart valve that has a conduit at least partially with a single layer of intestinal tissue.
A ventilation device comprising a housing , a user interface , and a pneumatic unit , wherein the pneumatic unit comprises at least one each of the components of respiratory gas drive , measuring unit , control unit , and sound unit , wherein the pneumatic unit is formed as a pneumatic train , wherein the pneumatic train forms a respiratory gas path (B) from a device inlet to a device outlet of the housing and wherein at least one component of the pneumatic unit or the pneumatic train can be removed from the housing , wherein the housing has a top wall , at least one bottom wall , and at least two side walls , characterized in that at least one side wall is configured as an optional bottom wall and wherein at least one relatively heavy component, such as in particular the respiratory gas drive , is arranged in the housing such that, when the device is aligned both on the bottom wall and on the side wall configured as an optional bottom wall , a center of gravity that ensures the stability of the device is formed by the heavy component, wherein the user interface is a control and display element , which is configured to change an orientation of the alignment of the display when the alignment of the device is changed in accordance withs the selected bottom wall .
A method for controlling autothrottle of an engine for a turbopropeller-powered aircraft, the method comprising: obtaining, from an autothrottle controller , a digital power request, the digital power request based on an autothrottle input to the autothrottle controller ; in response to obtaining the digital power request, terminating a manual input mode for the engine , the engine , when in the manual input mode, controlled based on a power request obtained from a manual input associated with the engine ; engaging an autothrottle mode for controlling the engine based on the digital power request rather than on the power request obtained from the manual input; and adjusting a position of the manual input with the autothrottle controller based on the digital power request for controlling a transition of the engine out of the autothrottle mode. obtaining, from an autothrottle controller , a digital power request, the digital power request based on an autothrottle input to the autothrottle controller ; in response to obtaining the digital power request, terminating a manual input mode for the engine , the engine , when in the manual input mode, controlled based on a power request obtained from a manual input associated with the engine ; engaging an autothrottle mode for controlling the engine based on the digital power request rather than on the power request obtained from the manual input; and adjusting a position of the manual input with the autothrottle controller based on the digital power request for controlling a transition of the engine out of the autothrottle mode.
A method, comprising: fabricating one or more gridlines for extracting photo-current on a front surface of a solar cell , wherein each of the one or more gridlines is a metal grid and a cap layer , and at least a portion of the metal grid is deposited on the cap layer ; and controlling an alignment of the metal grid relative to the cap layer and a width of the cap layer relative to a width of the metal grid so that a minimum cap edge offset distance value is 1 μm or more, wherein controlling the alignment of the metal grid relative to the cap layer and the width of the cap layer relative to the width of the metal grid results in cap edge offset L and cap edge offset R values representing distances of edges of the cap layer from edges of the metal grid on a left and right side of the cap layer , respectively, and the minimum cap edge offset distance value is the minimum value of the cap edge offset L and cap edge offset R values. fabricating one or more gridlines for extracting photo-current on a front surface of a solar cell , wherein each of the one or more gridlines is a metal grid and a cap layer , and at least a portion of the metal grid is deposited on the cap layer ; and controlling an alignment of the metal grid relative to the cap layer and a width of the cap layer relative to a width of the metal grid so that a minimum cap edge offset distance value is 1 μm or more, wherein controlling the alignment of the metal grid relative to the cap layer and the width of the cap layer relative to the width of the metal grid results in cap edge offset L and cap edge offset R values representing distances of edges of the cap layer from edges of the metal grid on a left and right side of the cap layer , respectively, and the minimum cap edge offset distance value is the minimum value of the cap edge offset L and cap edge offset R values.
A first anchor point configured to perform inter-anchor point mobility, the first anchor point configured to: provide, to a wireless transmit/receive unit, WTRU , access to a data network by forwarding, from the data network, first data with a first Internet protocol, IP, address associated with the WTRU; receive, from a network node, an indication to forward traffic from the data network intended for the WTRU to a second anchor point, wherein the second anchor point is connected to the data network and has a second IP address, and wherein the second anchor point provides, to the WTRU, access to the data network by forwarding, from the data network, second data, intended for the WTRU; and forward, to the second anchor point, third data with the first IP address from the data network intended for the WTRU. provide, to a wireless transmit/receive unit, WTRU , access to a data network by forwarding, from the data network, first data with a first Internet protocol, IP, address associated with the WTRU; receive, from a network node, an indication to forward traffic from the data network intended for the WTRU to a second anchor point, wherein the second anchor point is connected to the data network and has a second IP address, and wherein the second anchor point provides, to the WTRU, access to the data network by forwarding, from the data network, second data, intended for the WTRU; and forward, to the second anchor point, third data with the first IP address from the data network intended for the WTRU.
An extracellular thiol isomerase inhibitor being zafirlukast, for use in a method to treat or prevent thrombosis, wherein said method comprises administering to a patient in need thereof a therapeutically effective amount of said extracellular thiol isomerase inhibitor.
A portable thromboelastometer comprising a door plate structure, an outer housing having a first opening , a blood sample-initiating station , a test station , a driving mechanism and a blood sample-loading mechanism , wherein said door plate structure is arranged at the first opening , and includes a first door plate , a second door plate , and a third door plate , said first door plate is provided with a second opening through which said blood sample-loading mechanism is connected to said driving mechanism , said first door plate is connected to said second door plate , and said second door plate is connected to said third door plate , said driving mechanism is configured to drive said blood sample-loading mechanism to move from said blood sample-initiating station to said test station in a movement process, and the portable thromboelastometer is configured such that while said driving mechanism is driving said blood sample-loading mechanism to move from said blood sample-initiating station to said test station in the movement process, said blood sample-loading mechanism drives said first door plate to move synchronously, and said first door plate drives said second door plate to move during the movement process, said second door plate drives said third door plate to move during the movement process, the three door plates matching with each other such that the three door plates always cover said first opening during the movement of said blood sample-loading mechanism .
A constant shape snare for water aided endoscopy (WAE), comprising: a hollow outer tube with a proximal end and a distal end , wherein the distal end is configured to pass through an opening in an endoscopic plug; an adjustable coil wire substantially disposed within the hollow outer tube , wherein the adjustable coil wire forms a loop shape at the distal end of the hollow outer tube ; wherein the loop shape of the adjustable coil wire is maintained as a diameter of the loop shape is increased or decreased; characterized in that the constant shape snare of claim 1 further comprises a snare guide positioned at a distal end of the hollow outer tube , wherein the snare guide includes a housing which retains a terminal point of the adjustable coil wire with a freely rotating swivel ball connected with the terminal point of the adjustable coil wire . a hollow outer tube with a proximal end and a distal end , wherein the distal end is configured to pass through an opening in an endoscopic plug; an adjustable coil wire substantially disposed within the hollow outer tube , wherein the adjustable coil wire forms a loop shape at the distal end of the hollow outer tube ; wherein the loop shape of the adjustable coil wire is maintained as a diameter of the loop shape is increased or decreased; characterized in that the constant shape snare of claim 1 further comprises a snare guide positioned at a distal end of the hollow outer tube , wherein the snare guide includes a housing which retains a terminal point of the adjustable coil wire with a freely rotating swivel ball connected with the terminal point of the adjustable coil wire .
A device comprising: a housing made using an additive manufacturing process; and at least one electronics assembly that is embedded into the housing during the additive manufacturing process, characterized in that the electronic assembly has isolation portions that mechanically interface with the housing , the isolation portions being formed from material that thermally isolates the electronic assembly 203 from the housing .
A method for the production of a rubber or thermoplastic polymer composition, the method comprising: providing an end-of-life-plastic feedstock; pyrolysing the feedstock to produce a pyrolysis char; and mixing the pyrolysis char into a rubber or thermoplastic polymer composition in an amount of from 0.5 to 60 wt%, based on the total weight of the mixture. providing an end-of-life-plastic feedstock; pyrolysing the feedstock to produce a pyrolysis char; and mixing the pyrolysis char into a rubber or thermoplastic polymer composition in an amount of from 0.5 to 60 wt%, based on the total weight of the mixture.
A subjective optometry apparatus for subjectively measuring optical characteristics of an examinee's eye, comprising: a light projecting optical system that projects a target light flux to the examinee's eye; an optical element that guides the target light flux; and a correction portion that corrects distortion of the target light flux caused by the target light flux passing through an optical path deviated from an optical axis of the optical element , wherein the target light flux passes through the optical path deviated from the optical axis of the optical element to be guided to the examinee's eye, and the subjective optometry apparatus subjectively measures the optical characteristics of the examinee's eye using the target light flux guided to the examinee's eye, characterized in that the apparatus further comprises a calibration optical system that is disposed in an optical path from the light projecting optical system to the examinee's eye, and changes optical characteristics of the target light flux; and the optical element guides the target light flux of which the optical characteristics is changed by the calibration optical system to the examinee's eye. a light projecting optical system that projects a target light flux to the examinee's eye; an optical element that guides the target light flux; and a correction portion that corrects distortion of the target light flux caused by the target light flux passing through an optical path deviated from an optical axis of the optical element , wherein the target light flux passes through the optical path deviated from the optical axis of the optical element to be guided to the examinee's eye, and the subjective optometry apparatus subjectively measures the optical characteristics of the examinee's eye using the target light flux guided to the examinee's eye, characterized in that the apparatus further comprises a calibration optical system that is disposed in an optical path from the light projecting optical system to the examinee's eye, and changes optical characteristics of the target light flux; and the optical element guides the target light flux of which the optical characteristics is changed by the calibration optical system to the examinee's eye.
A centrifugal compressor having a variable geometry diffuser , the variable geometry diffuser comprising at least an actuator and a diffuser ring , wherein the actuator is configured to move the diffuser ring from a reversible retracted position to a reversible extended position within a diffuser gap , characterized in that the actuator is configured to operate in a mode, which permits the diffuser ring to move rapidly to a fully extended position in which the diffuser gap is closed to allow a capacity control and/or a startup management and/or a shut down management without using pre-rotation vanes, wherein the diffuser ring has an L-shaped cross-section with a first flange extending from a surface of the diffuser ring in the direction of the diffuser gap and a second flange substantially perpendicular to the first flange .
A powertrain mount assembly for a vehicle, the powertrain mount assembly comprising: a link arm connectable to a powertrain of the vehicle; a main resilient element , an end of the link arm being coupled to the main resilient element ; and a first body configured to support the main resilient element , the main resilient element being provided between the first body and the end of the link arm , wherein the first body is connectable to a vehicle frame structure of the vehicle at a first location; characterised in that the powertrain mount assembly further comprises: a second body connectable to the vehicle frame structure at a second location, the second body being separate from the first body ; and wherein the second body comprises at least one first abutment surface configured to limit movement of the end of the link arm in a first direction. a link arm connectable to a powertrain of the vehicle; a main resilient element , an end of the link arm being coupled to the main resilient element ; and a first body configured to support the main resilient element , the main resilient element being provided between the first body and the end of the link arm , wherein the first body is connectable to a vehicle frame structure of the vehicle at a first location; characterised in that the powertrain mount assembly further comprises: a second body connectable to the vehicle frame structure at a second location, the second body being separate from the first body ; and wherein the second body comprises at least one first abutment surface configured to limit movement of the end of the link arm in a first direction. a second body connectable to the vehicle frame structure at a second location, the second body being separate from the first body ; and wherein the second body comprises at least one first abutment surface configured to limit movement of the end of the link arm in a first direction.
Hydraulic braking arrangement for a work vehicle comprising a power brake valve , a source of fluid in pressure and a pair, right and left, of front and rear brakes (2a, 2b 3a, 3b), said power brake valve being configured to receive fluid from said source at a predefined pressure level and allow the passage of said fluid at a least one different pressure level with respect to said predefined pressure level to at least one of said brakes ; characterized in that said power brake valve at least defines a first pair of openings fluidly connected to said pair of front brakes , a second pair of openings fluidly connected to said pair of rear brakes and a least an opening fluidly connected to said source of fluid and comprises a first and a second spools configured to selectively allow the passage of fluid from said source towards said front and rear brakes via said openings (6a, 6b; 7a, 7b) and pressure variation means fluidly interposed between said first and second spools and at least two of said openings (6a, 6b; 7a, 7b) so as to vary the pressure of said fluid provided by said source to said brakes .
A variable delay interface configured to introduce a controllable, variable delay between a first equipment and a second equipment, the variable delay interface comprising: a variable rate change filter, VRCF, having a signal input, a signal output, and a rate control input, the VRCF configured to: receive a rate control signal at the rate control input; and sample an input signal received at the signal input at a sampling rate controlled by the rate control signal to produce a VRCF output signal; the VRCF having a first delay; a first in first out, FIFO, buffer having an input and an output, the FIFO buffer configured to store samples of the VRCF output signal received at the FIFO buffer input and introduce a second delay in the stored samples to produce a FIFO buffer output signal at the FIFO buffer output; and a delay control unit configured to: add the first and second delays to produce a total delay; compare the total delay to a target delay; generate the rate control signal based on the comparison; and output the rate control signal to the VRCF rate control input, the rate control signal causing one of no change, an increase and a decrease of the sampling rate of the VRCF . a variable rate change filter, VRCF, having a signal input, a signal output, and a rate control input, the VRCF configured to: receive a rate control signal at the rate control input; and sample an input signal received at the signal input at a sampling rate controlled by the rate control signal to produce a VRCF output signal; the VRCF having a first delay; receive a rate control signal at the rate control input; and sample an input signal received at the signal input at a sampling rate controlled by the rate control signal to produce a VRCF output signal; the VRCF having a first delay; a first in first out, FIFO, buffer having an input and an output, the FIFO buffer configured to store samples of the VRCF output signal received at the FIFO buffer input and introduce a second delay in the stored samples to produce a FIFO buffer output signal at the FIFO buffer output; and a delay control unit configured to: add the first and second delays to produce a total delay; compare the total delay to a target delay; generate the rate control signal based on the comparison; and output the rate control signal to the VRCF rate control input, the rate control signal causing one of no change, an increase and a decrease of the sampling rate of the VRCF . add the first and second delays to produce a total delay; compare the total delay to a target delay; generate the rate control signal based on the comparison; and output the rate control signal to the VRCF rate control input, the rate control signal causing one of no change, an increase and a decrease of the sampling rate of the VRCF .