mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a composition, comprising the following steps: i) dispersing a lignin in one or more dispersants, wherein said dispersant is a polyol which is diethylene glycol, tetraethylene glycol, propoxylated glycerol, ethoxylated pentaerythritol, diethylene glycol, PEG400 or a mixture thereof; ii) adding a catalyst, iii) removal of excess water, iv) adding an alkoxide at a temperature of from 20 to 80 °C; v) neutralizing the catalyst with an acid, and vi) optionally filtrating the polyol with a silicate compound, to remove traces of neutralized catalyst. i) dispersing a lignin in one or more dispersants, wherein said dispersant is a polyol which is diethylene glycol, tetraethylene glycol, propoxylated glycerol, ethoxylated pentaerythritol, diethylene glycol, PEG400 or a mixture thereof; ii) adding a catalyst, iii) removal of excess water, iv) adding an alkoxide at a temperature of from 20 to 80 °C; v) neutralizing the catalyst with an acid, and vi) optionally filtrating the polyol with a silicate compound, to remove traces of neutralized catalyst.
A system for controlling a computing device, comprising: a device configured to be worn on a person's head; a camera mounted on the device at a location to minimize interference with the person's vision for monitoring movement of at least one eye of the person, the camera configured for generating signals representing video images of the eye acquired by the camera; a display disposed adjacent the device such that a pointer on the display is viewable by the person wearing the device; and a processor coupled to the camera for processing the signals to monitor movement of the at least one eye relative to a reference frame on the display, characterized by: the processor being configured to identify edges of a pupil of the at least one eye from the signals to identify the pupil to monitor movement of the at least one eye; and the processor being coupled to the display for causing the pointer to move on the display based upon movement of the pupil relative to the reference frame. a device configured to be worn on a person's head; a camera mounted on the device at a location to minimize interference with the person's vision for monitoring movement of at least one eye of the person, the camera configured for generating signals representing video images of the eye acquired by the camera; a display disposed adjacent the device such that a pointer on the display is viewable by the person wearing the device; and a processor coupled to the camera for processing the signals to monitor movement of the at least one eye relative to a reference frame on the display, characterized by: the processor being configured to identify edges of a pupil of the at least one eye from the signals to identify the pupil to monitor movement of the at least one eye; and the processor being coupled to the display for causing the pointer to move on the display based upon movement of the pupil relative to the reference frame. the processor being configured to identify edges of a pupil of the at least one eye from the signals to identify the pupil to monitor movement of the at least one eye; and the processor being coupled to the display for causing the pointer to move on the display based upon movement of the pupil relative to the reference frame.
A reversible, short-acting P2Y 12 inhibitor for use in a method of at least partially inhibiting platelet activities in a subject previously treated with at least one thienopyridine, wherein treatment with the at least one thienopyridine is discontinued prior to administering the reversible, short-acting P2Y 12 inhibitor, wherein the reversible, short-acting P2Y 12 inhibitor is cangrelor and is administered to the subject up to 5 days before an invasive procedure to be performed on the subject or during an invasive procedure being performed on the subject.
A method for managing a response generated by an application embedded in a secure token acting as an UICC in response to a command requesting opening a proactive session, an applicative server relying on an OTA server to send the command to the application, said command being secured by the OTA server with a security layer independent of the content of the command, characterized in that said method comprises the steps: - identifying in the command a data for derivation of a key (SESK), - receiving and deciphering the command in the secure token, - the application retrieves the data from the command and computes the key (SESK) by applying a preset function to said data, - the application generates the response to the command, builds a secured response packet (R1S) comprising the response secured with the key (SESK) and sends the secured response packet (R1S) to the applicative server, - the applicative server computes the key (SESK) by applying the preset function to the data and retrieves the response using the key (SESK). - identifying in the command a data for derivation of a key (SESK), - receiving and deciphering the command in the secure token, - the application retrieves the data from the command and computes the key (SESK) by applying a preset function to said data, - the application generates the response to the command, builds a secured response packet (R1S) comprising the response secured with the key (SESK) and sends the secured response packet (R1S) to the applicative server, - the applicative server computes the key (SESK) by applying the preset function to the data and retrieves the response using the key (SESK).
Method for controlling a turbojet engine thrust reverser during an aborted aircraft takeoff, the thrust reverser comprising: - doors (30A, 30B) that can move between a stowed position wherein the doors ensure the continuity of an aerodynamic flow path, an overstowed position wherein the doors (30A, 30B) partially enter into the aerodynamic flow path and a deployed position wherein the doors (30A, 30B) divert at least a part of a flow passing through the aerodynamic flow path to generate a reverse thrust; - door actuators (40A, 40B) configured to move the doors (30A, 30B) between the stowed, overstowed and deployed positions; - a device for locking the doors (30A, 30B) in the stowed position, moveable between a locking position and an unlocking position; - a lock actuator configured to move the locking device between the locking and unlocking positions; the method comprising the following steps: - decreasing the engine speed of the turbojet engine by following a setpoint value (N1 TG) below a first engine speed threshold value (N1 OTD) at which the aerodynamic forces being exerted on the doors (30A, 30B) are equal to the forces developed by the door actuators (40A, 40B); - controlling the door actuators (40A, 40B) so as to bring the doors (30A, 30B) into the overstowed position; - controlling the lock actuator so as to bring the locking device into the unlocking position; and - when the locking device is in the unlocking position, controlling the door actuators (40A, 40B) so as to bring the doors (30A, 30B) into the deployed position; method wherein the setpoint value (N1 TG) of the engine speed is above the idle speed (N1 IDLE). - doors (30A, 30B) that can move between a stowed position wherein the doors ensure the continuity of an aerodynamic flow path, an overstowed position wherein the doors (30A, 30B) partially enter into the aerodynamic flow path and a deployed position wherein the doors (30A, 30B) divert at least a part of a flow passing through the aerodynamic flow path to generate a reverse thrust; - door actuators (40A, 40B) configured to move the doors (30A, 30B) between the stowed, overstowed and deployed positions; - a device for locking the doors (30A, 30B) in the stowed position, moveable between a locking position and an unlocking position; - a lock actuator configured to move the locking device between the locking and unlocking positions; - decreasing the engine speed of the turbojet engine by following a setpoint value (N1 TG) below a first engine speed threshold value (N1 OTD) at which the aerodynamic forces being exerted on the doors (30A, 30B) are equal to the forces developed by the door actuators (40A, 40B); - controlling the door actuators (40A, 40B) so as to bring the doors (30A, 30B) into the overstowed position; - controlling the lock actuator so as to bring the locking device into the unlocking position; and - when the locking device is in the unlocking position, controlling the door actuators (40A, 40B) so as to bring the doors (30A, 30B) into the deployed position;
An enclosure, comprising: a column chamber having chamber walls defining the column chamber, the column chamber adapted to hold one or more chromatography separation columns; a duct system providing an airflow path around the column chamber such that the column chamber is isolated from the airflow path without airflow directly blowing onto any chromatography separation column held in the column chamber; an air mover disposed in the airflow path, the air mover generating a flow of air within the duct system; and a heat exchanger system disposed in the airflow path near the air mover, the heat exchanger system configured for exchanging heat with the air as the air flows past the heat exchanger system such that the air circulates through the duct system around the column chamber and convectively exchanges heat with the chamber walls such that heat radiates from the chamber walls to produce a thermally conditioned environment within the column chamber. a column chamber having chamber walls defining the column chamber, the column chamber adapted to hold one or more chromatography separation columns; a duct system providing an airflow path around the column chamber such that the column chamber is isolated from the airflow path without airflow directly blowing onto any chromatography separation column held in the column chamber; an air mover disposed in the airflow path, the air mover generating a flow of air within the duct system; and a heat exchanger system disposed in the airflow path near the air mover, the heat exchanger system configured for exchanging heat with the air as the air flows past the heat exchanger system such that the air circulates through the duct system around the column chamber and convectively exchanges heat with the chamber walls such that heat radiates from the chamber walls to produce a thermally conditioned environment within the column chamber.
A ceramic- and metallic-containing multilayer nuclear fuel rod cladding, comprising: an inner layer having an interior surface and an exterior surface composed of metal alloy selected from the group consisting of an austenitic steel, a ferritic-martensitic steel, an iron alloy, a zirconium alloy, a titanium alloy and layered combinations thereof; a cavity formed by the inner layer to contain nuclear fuel; an intermediate layer having an interior surface and an exterior surface, formed on the exterior surface of the inner layer, the intermediate layer comprising: a composite, comprising: interlocking fibers comprising woven or braided silicon carbide fibers, woven or braided alumina fibers, and mixtures or combinations thereof; and a matrix comprising a silicon carbide, an alumina, and mixtures or combinations thereof; or interlocking fibers comprising woven or braided silicon carbide fibers, woven or braided alumina fibers, and mixtures or combinations thereof; and an outer layer deposited on the exterior surface of the intermediate layer composed of a metal alloy comprising an iron-chromium-aluminum alloy optionally with an addition of yttrium. an inner layer having an interior surface and an exterior surface composed of metal alloy selected from the group consisting of an austenitic steel, a ferritic-martensitic steel, an iron alloy, a zirconium alloy, a titanium alloy and layered combinations thereof; a cavity formed by the inner layer to contain nuclear fuel; an intermediate layer having an interior surface and an exterior surface, formed on the exterior surface of the inner layer, the intermediate layer comprising: a composite, comprising: interlocking fibers comprising woven or braided silicon carbide fibers, woven or braided alumina fibers, and mixtures or combinations thereof; and a matrix comprising a silicon carbide, an alumina, and mixtures or combinations thereof; or interlocking fibers comprising woven or braided silicon carbide fibers, woven or braided alumina fibers, and mixtures or combinations thereof; and interlocking fibers comprising woven or braided silicon carbide fibers, woven or braided alumina fibers, and mixtures or combinations thereof; and a matrix comprising a silicon carbide, an alumina, and mixtures or combinations thereof; or interlocking fibers comprising woven or braided silicon carbide fibers, woven or braided alumina fibers, and mixtures or combinations thereof; and an outer layer deposited on the exterior surface of the intermediate layer composed of a metal alloy comprising an iron-chromium-aluminum alloy optionally with an addition of yttrium.
A method for facilitating call routing in an enterprise having a first site capable of connecting to a second site in the enterprise through a network associated with the enterprise, the network operating according to a network protocol, the method characterised by: registering a first plurality of identifiers and a first site identifier with an inter-site router operating in accordance with a protocol compatible with the network protocol and operating in the enterprise; wherein the first plurality of identifiers is a range of identifiers within the enterprise, and the first site identifier is associated with the first site; routing a call request received at the second site to the inter-site router directly over the network; and wherein the call request is routed in accordance with the network protocol and the protocol compatible with the network protocol, when an identifier associated with the call request is not recognized at the second site, such that the inter-site router can forward the call request from the second site and directly route the call to the first site using the first site identifier, when the identifier associated with the call request matches one of the first plurality of identifiers. registering a first plurality of identifiers and a first site identifier with an inter-site router operating in accordance with a protocol compatible with the network protocol and operating in the enterprise; wherein the first plurality of identifiers is a range of identifiers within the enterprise, and the first site identifier is associated with the first site; routing a call request received at the second site to the inter-site router directly over the network; and wherein the call request is routed in accordance with the network protocol and the protocol compatible with the network protocol, when an identifier associated with the call request is not recognized at the second site, such that the inter-site router can forward the call request from the second site and directly route the call to the first site using the first site identifier, when the identifier associated with the call request matches one of the first plurality of identifiers.
A method of operating a self-driving vehicle, the method executable on a computing device associated with the self-driving vehicle, the self-driving vehicle being equipped with a scanning sensor that scans a space around the self-driving vehicle in consecutive scanning cycles, the method comprising: receiving a request for scan information associated with a segment of the space around the self-driving vehicle; determining scan data based on determining whether to wait for a next scan of the segment by the scanning sensor and use next scan data from the next scan of the segment, or to extract and use previous scan data from a previous scan of the segment by the scanning sensor; processing the determined scan data to generate the scan information for the segment; providing the scan information for the segment in response to the request; and operating the self-driving vehicle in accordance with a decision made about a maneuver to be performed by the self-driving vehicle based, at least in part, on the scan information. receiving a request for scan information associated with a segment of the space around the self-driving vehicle; determining scan data based on determining whether to wait for a next scan of the segment by the scanning sensor and use next scan data from the next scan of the segment, or to extract and use previous scan data from a previous scan of the segment by the scanning sensor; processing the determined scan data to generate the scan information for the segment; providing the scan information for the segment in response to the request; and operating the self-driving vehicle in accordance with a decision made about a maneuver to be performed by the self-driving vehicle based, at least in part, on the scan information.
Injection apparatus, to inject a liquid into a food article, particularly meat, comprising liquid injection means, which reciprocates between a remote- and a end position, driven by a drive, wherein the drive comprises a motor and a toothed belt and/or a toothed rack and/or a chain, characterized in, that it comprises an energy recuperation device.
A grounding system for welding application, comprising: - a input configured to connect to a ground lead of a welding system; - a pair of grounding arms electrically coupled to the input and configured to extend towards a welding workpiece and to make a grounding electrical connection with the workpiece; characterized by - a measurement circuit coupled to the input and to the grounding arms and configured to measure a parameter indicative of quality of grounding between the input and the workpiece; and - means for holding the grounding arms in intimate contact with the workpiece, the means for holding the grounding arms in intimate contact with the workpiece compring a magnet and a brace, the magnet being configured for securement to the workpiece, and the brace being configured contact the workpiece and to urge the grounding arms into contact with the workpiece, wherein the measurement circuit comprises a center-tap transformer having a test circuit coupled to a primary winding and a secondary winding coupled to the input and to the grounding arms. - a input configured to connect to a ground lead of a welding system; - a pair of grounding arms electrically coupled to the input and configured to extend towards a welding workpiece and to make a grounding electrical connection with the workpiece; - a measurement circuit coupled to the input and to the grounding arms and configured to measure a parameter indicative of quality of grounding between the input and the workpiece; and - means for holding the grounding arms in intimate contact with the workpiece, the means for holding the grounding arms in intimate contact with the workpiece compring a magnet and a brace, the magnet being configured for securement to the workpiece, and the brace being configured contact the workpiece and to urge the grounding arms into contact with the workpiece,
Landing gear for aircraft comprising: - at least one wheel for the taxiing of the aircraft on the ground; - a system for rotationally driving the wheel that is mobile between a clutched position with respect to the wheel and a safety position by passing through a declutched position with respect to the wheel; - a manoeuvring system linked to the driving system to displace it between its declutched and clutched positions; characterized in that the manoeuvring system comprises an actuator that can be manoeuvred between first and second extreme configurations of the actuator, this actuator being arranged so that, when it is in its first extreme configuration, the driving system is then held by this actuator in its declutched position and so that, when this actuator is in its second extreme configuration, the driving system is then held by this actuator in its clutched position, the landing gear further comprising: - an elastic return means arranged to exert an elastic return load on the driving system towards its safety position; and - first and second abutments (51a, 52a) arranged to be separated from one another as long as the driving system is away from its safety position and to be in contact with one another when the driving system is in its safety position, these first and second abutments (51a, 52a) being arranged so that, when these abutments are in contact with one another and a load is exerted on the driving system to displace it from its safety position to its declutched position, these abutments oppose the passing of the driving system from its safety position to its declutched position. - at least one wheel for the taxiing of the aircraft on the ground; - a system for rotationally driving the wheel that is mobile between a clutched position with respect to the wheel and a safety position by passing through a declutched position with respect to the wheel; - a manoeuvring system linked to the driving system to displace it between its declutched and clutched positions; - an elastic return means arranged to exert an elastic return load on the driving system towards its safety position; and - first and second abutments (51a, 52a) arranged to be separated from one another as long as the driving system is away from its safety position and to be in contact with one another when the driving system is in its safety position, these first and second abutments (51a, 52a) being arranged so that, when these abutments are in contact with one another and a load is exerted on the driving system to displace it from its safety position to its declutched position, these abutments oppose the passing of the driving system from its safety position to its declutched position.
A composition comprising an anthranilic acid diamide derivative of the formula (I-1-1) and (I-1-7) and the compounds of the general formula (I-1-1) and also encompass salts and at least one biological control agent selected from Thymol, Bacillus amyloliquefaciens strain FZB 42, Metschnikowia fructicola strain NRRL Y-30752, Cydiapomonella Granulosis virus ((pGV), Metarhizium anisopliae strain F 52, Paecilomyces lilacinus strain 251, Harpin protein, Bacillus subtilis strain GB 03, Bacillus pumilus strain QST2808, and optionally an inoculant, for reducing overall damage of plants and plant parts as well as losses in harvested fruits or vegetables caused by insects, nematodes and phytopathogens.