mhurhangee/patent-ind-claim-en huggingface dataset:
A method for calibrating a digital conductivity measuring system having a transmitter in electrical communication with a sensor , the sensor having a measurement circuit and at least a pair of electrodes therein, the method comprising: interposing a Y-connector between the transmitter and the sensor and verifying that the transmitter is connected to the Y-connector ; attaching a calibrator to the Y-connector , the calibrator being a device with at least one resistor of a known value for the AC measurement range to be calibrated; measuring a raw resistance for the at least one resistor; comparing the known value of the at least one resistor and the measured raw resistance to determine a first calibration factor; and removing the Y-connector after the calibration is completed; wherein the method further comprises: providing a sensor switch and using it to create an open circuit between the measurement circuit and the electrodes and/or a temperature measuring device for calibration. interposing a Y-connector between the transmitter and the sensor and verifying that the transmitter is connected to the Y-connector ; attaching a calibrator to the Y-connector , the calibrator being a device with at least one resistor of a known value for the AC measurement range to be calibrated; measuring a raw resistance for the at least one resistor; comparing the known value of the at least one resistor and the measured raw resistance to determine a first calibration factor; and removing the Y-connector after the calibration is completed; wherein the method further comprises: providing a sensor switch and using it to create an open circuit between the measurement circuit and the electrodes and/or a temperature measuring device for calibration.
Control system for a loader of a work vehicle, in which the loader comprises: a lifting mechanism and a bucket control mechanism , the lifting mechanism being controlled by a lifting valve , the bucket control mechanism being controlled by a bucket valve , wherein the control system further comprises a control valve configured to promote the connection of the lifting valves and the bucket valves in an arrangement in series or in parallel upon increase or decrease of the pressure required by the control system, the control system characterized in that the lifting valve and the bucket valve have, each one, a first a second and a third switching positions (A, B, C), the bucket valve having a first, a second and a third passageways , the control valve has a first and a second switching positions (D, E) wherein in its first switching position (D), the control valve is connected to the lifting valve and comprises an arrangement in series between the lifting valve and the bucket valve .
A composition comprising C10-C20 paraffins, wherein 3 wt.% to 30 wt.%, based on the total weight of the composition, are C10-C15 paraffins and 70 wt.% to 97 wt.%, based on the total weight of the composition, are C16-C20 paraffins, and the C10-C20 paraffins are derived from a biological raw material.
Device for safely performing an anti-clockwise thermodynamic Clausius-Rankine cycle using an ignitable working fluid, which is guided in a closed, hermetically sealed working fluid circuit , having - at least one compressor for working fluid, - at least one expansion apparatus for working fluid, - at least two heat exchangers for working fluid, each having at least two connections for heat exchanging fluids, - wherein at least one of the heat exchangers is configured as a capacitor , - a closed housing , - which comprises all the apparatuses connected to the closed working fluid circuit , - may comprise further apparatuses, - an apparatus for detecting leaks, wherein - the device has two triggerable zone valves with which the working fluid can be locked in the capacitor during non-regular operation, and - the heat exchanger configured as a capacitor has an additional volume, characterised in that the additional volume together with the volume of the capacitor is dimensioned such that it can accommodate the entire working fluid in liquid form, wherein the device has blasting caps, and - the zone valves are configured such that they can be activated on a one-time basis by means of blasting caps. - at least one compressor for working fluid, - at least one expansion apparatus for working fluid, - at least two heat exchangers for working fluid, each having at least two connections for heat exchanging fluids, - wherein at least one of the heat exchangers is configured as a capacitor , - a closed housing , - which comprises all the apparatuses connected to the closed working fluid circuit , - may comprise further apparatuses, - which comprises all the apparatuses connected to the closed working fluid circuit , - may comprise further apparatuses, - an apparatus for detecting leaks, wherein - the device has two triggerable zone valves with which the working fluid can be locked in the capacitor during non-regular operation, and - the heat exchanger configured as a capacitor has an additional volume, characterised in that the additional volume together with the volume of the capacitor is dimensioned such that it can accommodate the entire working fluid in liquid form, - the zone valves are configured such that they can be activated on a one-time basis by means of blasting caps.
A method, comprising: receiving , at a first authentication request receiving module , a first authentication request from a client (225; 830), wherein the first authentication request comprises first account information; performing , by a first authentication module , a first authentication of the first account information; in the event that the first authentication is successful, generating , by an authentication password generating module , an authentication password and communicating the authentication password to the client; receiving , by a second authentication request receiving module , a second authentication request from a proxy server (220; 820), wherein the second authentication request comprises the authentication password transmitted to the proxy server by the client, wherein the proxy server is a proxy for the client in connection with accessing a cloud host (215; 840); performing , by a second authentication module , a second authentication of the authentication password; and in the event that the second authentication is successful, notifying , by an authentication notification module , the proxy server of an indication that the second authentication succeeded and causing the proxy server to request the cloud host to perform a third authentication of second account information, and in the event that the third authentication is successful, causing the client to access one or more service resources deployed on the cloud host via the proxy server. receiving , at a first authentication request receiving module , a first authentication request from a client (225; 830), wherein the first authentication request comprises first account information; performing , by a first authentication module , a first authentication of the first account information; in the event that the first authentication is successful, generating , by an authentication password generating module , an authentication password and communicating the authentication password to the client; receiving , by a second authentication request receiving module , a second authentication request from a proxy server (220; 820), wherein the second authentication request comprises the authentication password transmitted to the proxy server by the client, wherein the proxy server is a proxy for the client in connection with accessing a cloud host (215; 840); performing , by a second authentication module , a second authentication of the authentication password; and in the event that the second authentication is successful, notifying , by an authentication notification module , the proxy server of an indication that the second authentication succeeded and causing the proxy server to request the cloud host to perform a third authentication of second account information, and in the event that the third authentication is successful, causing the client to access one or more service resources deployed on the cloud host via the proxy server.
An injection system including a longitudinal barrel , a distally projecting tip and a tip cap assembly , said distally projecting tip being provided with a fluid passageway extending therethrough, a distal surface and a lateral surface , said tip cap assembly comprising: - an elastomeric inner cap having a frustoconical protrusion , said frustoconical protrusion having a proximal face , said proximal face is the most proximal face of said elastomeric inner cap , - a rigid outer cap which is or can be securely disposed around said elastomeric inner cap , said tip cap assembly being configured so that, when said tip cap assembly closes said fluid passageway , said frustoconical protrusion contacts said distally projecting tip only at the distal surface , the elastomeric inner cap having a circular bump , said circular bump having a diameter which is greater than an internal diameter of the rigid outer cap . - an elastomeric inner cap having a frustoconical protrusion , said frustoconical protrusion having a proximal face , said proximal face is the most proximal face of said elastomeric inner cap , - a rigid outer cap which is or can be securely disposed around said elastomeric inner cap , said tip cap assembly being configured so that, when said tip cap assembly closes said fluid passageway , said frustoconical protrusion contacts said distally projecting tip only at the distal surface , the elastomeric inner cap having a circular bump , said circular bump having a diameter which is greater than an internal diameter of the rigid outer cap .
A hub assembly (118; 218) for connection to a medical device, the hub assembly comprising (118; 218): an outer component (144; 244) having a proximal end (114; 214), a distal end (116; 216), and a cavity (152; 252) extending from the proximal end (114; 214) to the distal end (116; 216); an insert (146; 246) having a proximal end (160; 260), a distal end (161; 261), and a lumen (154; 254) extending from the proximal end (114; 214) to the distal end (116; 216) positioned at least in part within the cavity (152; 252) of the outer component (144; 244), one or more windows (180a; 180b; 280a; 280b) extending through a wall of the outer component (144; 244); wherein the outer component (144; 244) is formed from a first material and the insert (146; 246) is formed from a second material different from the first material; and wherein the one or more windows (180a; 180b; 280a; 280b) are filled with a compliant material to form one or more elastically deformable regions (184; 284) in the outer component (144; 244), characterized by a clamping mechanism configured to be removably positioned over the one or more elastically deformable regions . an outer component (144; 244) having a proximal end (114; 214), a distal end (116; 216), and a cavity (152; 252) extending from the proximal end (114; 214) to the distal end (116; 216); an insert (146; 246) having a proximal end (160; 260), a distal end (161; 261), and a lumen (154; 254) extending from the proximal end (114; 214) to the distal end (116; 216) positioned at least in part within the cavity (152; 252) of the outer component (144; 244), one or more windows (180a; 180b; 280a; 280b) extending through a wall of the outer component (144; 244); wherein the outer component (144; 244) is formed from a first material and the insert (146; 246) is formed from a second material different from the first material; and wherein the one or more windows (180a; 180b; 280a; 280b) are filled with a compliant material to form one or more elastically deformable regions (184; 284) in the outer component (144; 244), characterized by a clamping mechanism configured to be removably positioned over the one or more elastically deformable regions .
A flexible automated wearable belt cardiac defibrillator, BCD, for wearing by a subject, the subject having a body, the BCD characterized by comprising: at least two disposable patches adapted for adhering to the body of the subject, each patch comprising a defibrillation electrode , wherein at least one patch includes an ECG sensor ; and a controller that is separate from the patches and connected via a connection cable to each patch, wherein the patches comprise an adhesive adapted for long-term adhering of the patches to the body of the subject, wherein the patches and the adhesive are adapted for movement of the subject while the patches are adhered to the body of the subject, wherein the controller is housed in a flexible belt comprising a plurality of compartments for wearing by the subject, is adapted for being flexible, and is not required to be in contact with the body of the subject, and wherein the adaptation for being flexible comprises distributing components of the controller between the plurality of compartments. at least two disposable patches adapted for adhering to the body of the subject, each patch comprising a defibrillation electrode , wherein at least one patch includes an ECG sensor ; and a controller that is separate from the patches and connected via a connection cable to each patch, wherein the patches comprise an adhesive adapted for long-term adhering of the patches to the body of the subject, wherein the patches and the adhesive are adapted for movement of the subject while the patches are adhered to the body of the subject, wherein the controller is housed in a flexible belt comprising a plurality of compartments for wearing by the subject, is adapted for being flexible, and is not required to be in contact with the body of the subject, and wherein the adaptation for being flexible comprises distributing components of the controller between the plurality of compartments.
A loopable membrane scaffold protein comprising, from N-terminus to C-terminus: i. an N-terminal circularization domain; ii. a plurality of amphipathic alpha helix domains; and iii. a C-terminal circularization domain. wherein one circularization domain comprises an intein separated from the domain of (ii) by a Cys; and the other circularization domain comprises an intein separated from the domain of (ii) by a dipeptide sequence of Asn-Cys, with the Asn being closest to the intein; or wherein the N-terminal circularization domain comprises an intein separated from the domain of (ii) by a Cys; and the C-terminal circularization domain comprises an intein separated from the domain of (ii) by a dipeptide sequence of Asn-Cys, with the Asn being closest to the intein. i. an N-terminal circularization domain; ii. a plurality of amphipathic alpha helix domains; and iii. a C-terminal circularization domain. wherein one circularization domain comprises an intein separated from the domain of (ii) by a Cys; and the other circularization domain comprises an intein separated from the domain of (ii) by a dipeptide sequence of Asn-Cys, with the Asn being closest to the intein; or wherein the N-terminal circularization domain comprises an intein separated from the domain of (ii) by a Cys; and the C-terminal circularization domain comprises an intein separated from the domain of (ii) by a dipeptide sequence of Asn-Cys, with the Asn being closest to the intein.
A non-invasive method of enabling the delivery of therapeutic substances into tissue of a mammal by using a spark electropermeabilizing device to deliver an electropermeabilizing electric voltage potential to the surface of a mammalian tissue comprising: generating a voltage potential sufficient to jump a gap of predetermined distance; and delivering said generated voltage potential in the form of a spark that can jump said gap to the surface of the mammalian tissue without causing macroscopic damage to an integrity of the surface of the mammalian tissue characterised in that said generated voltage is configured to reversibly porate cells of said tissue to enable the delivery of said therapeutic substances into said cells. generating a voltage potential sufficient to jump a gap of predetermined distance; and delivering said generated voltage potential in the form of a spark that can jump said gap to the surface of the mammalian tissue without causing macroscopic damage to an integrity of the surface of the mammalian tissue characterised in that said generated voltage is configured to reversibly porate cells of said tissue to enable the delivery of said therapeutic substances into said cells.
A rotor comprising: a shaft ; a plurality of permanent magnet (PM) rotor modules disposed about said shaft , each of said rotor modules comprising: a cylindrical support ring including an alignment notch intruding radially outward from a radially inner surface of the cylindrical support ring ; a ferromagnetic core radially outward of the support ring ; at least one PM arc arranged in a first ring and at least one PM arc arranged in a second ring , the first and second ring being radially outward of the ferromagnetic core ; a retainer having a first wall disposed radially outward of the first ring and the second ring and a second wall defining an axial boundary between axially adjacent PM arcs and between the first ring and the second ring; and wherein the PM arcs are radially polarised and the plurality of PM arcs in each rotor module in said plurality of rotor modules is magnetically aligned with the plurality of PM arcs in each other rotor module in the plurality of rotor modules. a shaft ; a plurality of permanent magnet (PM) rotor modules disposed about said shaft , each of said rotor modules comprising: a cylindrical support ring including an alignment notch intruding radially outward from a radially inner surface of the cylindrical support ring ; a ferromagnetic core radially outward of the support ring ; at least one PM arc arranged in a first ring and at least one PM arc arranged in a second ring , the first and second ring being radially outward of the ferromagnetic core ; a retainer having a first wall disposed radially outward of the first ring and the second ring and a second wall defining an axial boundary between axially adjacent PM arcs and between the first ring and the second ring; and
A method for measuring an amount of nitrate in an aqueous sample, comprising: introducing an aqueous sample containing an amount of nitrate to a cation exchange resin to convert nitrate into nitric acid; flowing the acidic aqueous sample over copper metal to produce copper(II) cations; adding a reducing reagent to the aqueous sample to reduce the copper(II) to copper(I); adding a colorimetric indicator to the aqueous sample, the colorimetric indicator being reactive to copper(I); and measuring the amount of nitrate in the aqueous sample by measuring a change in intensity of the absorbance of the colorimetric indicator, wherein the absorbance intensity is correlated the amount of nitrate in the aqueous sample. introducing an aqueous sample containing an amount of nitrate to a cation exchange resin to convert nitrate into nitric acid; flowing the acidic aqueous sample over copper metal to produce copper(II) cations; adding a reducing reagent to the aqueous sample to reduce the copper(II) to copper(I); adding a colorimetric indicator to the aqueous sample, the colorimetric indicator being reactive to copper(I); and measuring the amount of nitrate in the aqueous sample by measuring a change in intensity of the absorbance of the colorimetric indicator, wherein the absorbance intensity is correlated the amount of nitrate in the aqueous sample.
A vehicle arrangement (100; 200; 300; 400; 500) for signal transmission between a plurality of electrical units (102a-f) of a daisy chain , wherein the arrangement comprises a plurality of electrical units (102a-f), a plurality of signal wires for interconnecting the electrical units (102a-f) of the plurality of electrical units (102a-f) to form a daisy chain , and one or more interfaces (112a-e) for providing a signal connection between two electrical units (102a-f) of the plurality of electrical units (102a-f), wherein the one or more interfaces (112a-e) comprise two or more connectors , wherein the two or more connectors are connected to a signal wire of the one or more signal wires , wherein the one or more interfaces (112a-e) are external to the electrical units (102a-f) of the plurality of electrical units (102a-f), and wherein the two or more connectors are connectable to a device configured to monitor signal transmission between two electrical units (102a-f) of the plurality of electrical units (102a-f), and wherein two connectors of the two or more connectors of the interface (212a-e) are detachably connectable to one another so as to provide a signal connection between two signal wires of the plurality of signal wires for providing a signal connection between two electrical units (102a-f) of the plurality of electrical units (102a-f). a plurality of electrical units (102a-f), a plurality of signal wires for interconnecting the electrical units (102a-f) of the plurality of electrical units (102a-f) to form a daisy chain , and one or more interfaces (112a-e) for providing a signal connection between two electrical units (102a-f) of the plurality of electrical units (102a-f), wherein the one or more interfaces (112a-e) comprise two or more connectors , wherein the two or more connectors are connected to a signal wire of the one or more signal wires , wherein the one or more interfaces (112a-e) are external to the electrical units (102a-f) of the plurality of electrical units (102a-f), and wherein the two or more connectors are connectable to a device configured to monitor signal transmission between two electrical units (102a-f) of the plurality of electrical units (102a-f), and wherein two connectors of the two or more connectors of the interface (212a-e) are detachably connectable to one another so as to provide a signal connection between two signal wires of the plurality of signal wires for providing a signal connection between two electrical units (102a-f) of the plurality of electrical units (102a-f).