mhurhangee/ep-ind-claims huggingface dataset:
A method of determining a combustion characteristic for an internal combustion engine from an accelerometer signal, said method comprising the steps of: a) operating a calibration engine, equipped with a calibration sensor and a reference accelerometer sensor, at a predetermined operating condition and using said calibration sensor to detect said combustion characteristic and said reference accelerometer sensor to collect a reference accelerometer signal; b) correlating said combustion characteristic with said reference accelerometer signal and storing correlated data in a calibration table where it is associated with said predetermined operating condition; and c) equipping an engine with an accelerometer sensor, said calibration table, and an electronic engine controller, whereby when said engine is operated at said predetermined operating condition, said electronic engine controller can determine a real-time combustion characteristic by collecting a real-time accelerometer signal from said accelerometer sensor and cross correlating with said correlated data stored in said calibration table. a) operating a calibration engine, equipped with a calibration sensor and a reference accelerometer sensor, at a predetermined operating condition and using said calibration sensor to detect said combustion characteristic and said reference accelerometer sensor to collect a reference accelerometer signal; b) correlating said combustion characteristic with said reference accelerometer signal and storing correlated data in a calibration table where it is associated with said predetermined operating condition; and c) equipping an engine with an accelerometer sensor, said calibration table, and an electronic engine controller, whereby when said engine is operated at said predetermined operating condition, said electronic engine controller can determine a real-time combustion characteristic by collecting a real-time accelerometer signal from said accelerometer sensor and cross correlating with said correlated data stored in said calibration table.
A distillation probe, comprising: a conduit having a central axis, a lower end, an upper end, and a port proximal the upper end, wherein the lower end defines a sample inlet and a contaminant outlet, wherein the port defines a conditioned gas outlet; a baffle assembly removably disposed in the conduit, wherein the baffle assembly includes a plurality of axially-spaced baffles positioned one-above-the-other in a stack within the conduit and a plurality of flexible cables, wherein each baffle includes a plurality of cable holes extending therethrough and a plurality of fluid orifices extending therethrough, wherein each flexible cable extends through one of the cable holes of each baffle; wherein the fluid orifices in the baffles are configured to allow fluids in the conduit to pass through the baffles; wherein the flexible cables are configured to allow installation of the baffle assembly into the conduit, removal of the baffle assembly from the conduit, and flexing of the baffle assembly during installation and removal; a first helical cooling coil wrapped around the conduit; and a thermally conductive layer disposed about the conduit and encapsulating the first helical cooling coil, wherein the thermally conductive layer is configured to transfer thermal energy between the first helical cooling coil and the conduit. a conduit having a central axis, a lower end, an upper end, and a port proximal the upper end, wherein the lower end defines a sample inlet and a contaminant outlet, wherein the port defines a conditioned gas outlet; a baffle assembly removably disposed in the conduit, wherein the baffle assembly includes a plurality of axially-spaced baffles positioned one-above-the-other in a stack within the conduit and a plurality of flexible cables, wherein each baffle includes a plurality of cable holes extending therethrough and a plurality of fluid orifices extending therethrough, wherein each flexible cable extends through one of the cable holes of each baffle; wherein the fluid orifices in the baffles are configured to allow fluids in the conduit to pass through the baffles; wherein the flexible cables are configured to allow installation of the baffle assembly into the conduit, removal of the baffle assembly from the conduit, and flexing of the baffle assembly during installation and removal; a first helical cooling coil wrapped around the conduit; and a thermally conductive layer disposed about the conduit and encapsulating the first helical cooling coil, wherein the thermally conductive layer is configured to transfer thermal energy between the first helical cooling coil and the conduit.
A cast or forged component having a fatigue life indication arrangement comprising: a member connected to said component and configured to alter from a first condition to a second condition when a predetermined stage in the component fatigue life is reached, the member being configured to provide a visual indication that the predetermined stage in the component fatigue life has been reached, characterised in that the component is a brake caliper housing having a cavity and the member is positioned within the cavity of the brake caliper housing. a member connected to said component and configured to alter from a first condition to a second condition when a predetermined stage in the component fatigue life is reached, the member being configured to provide a visual indication that the predetermined stage in the component fatigue life has been reached, characterised in that the component is a brake caliper housing having a cavity and the member is positioned within the cavity of the brake caliper housing.
A polyethylene composition having the following features: 1) density from 0.945 to 0.958 g/cm 3, preferably from 0.948 to 0.955 g/cm 3, determined according to ISO 1183 at 23°C; 2) ratio MIF/MI10 from 2 to 10, in particular from 4 to 8, where MIF is the melt flow index at 190°C with a load of 21.60 kg, and MI10 is the melt flow index at 190°C with a load of 10 kg, both determined according to ISO 1133; 3) η 0.02 from 200,000 to 800,000 Pa.s, preferably from 200,000 to 600,000 Pa.s, wherein η 0.02 is the complex shear viscosity at an angular frequency of 0.02 rad/s, measured with dynamic oscillatory shear in a plate-plate rotational rheometer at a temperature of 190°C; 4) long-chain branching index, LCBI, at a molecular weight of 1,000,000 g/mol., equal to or lower than 0.80, preferably lower than 0.75, wherein LCBI is the ratio of the measured mean-square radius of gyration R g, measured by GPC-MALLS, to the mean-square radius of gyration for a linear PE having the same molecular weight; 5) ratio (η 0.02 /1000)/ LCBI, which is between η 0.02 divided by 1000 and LCBI, equal to or greater than 350. 1) density from 0.945 to 0.958 g/cm 3, preferably from 0.948 to 0.955 g/cm 3, determined according to ISO 1183 at 23°C; 2) ratio MIF/MI10 from 2 to 10, in particular from 4 to 8, where MIF is the melt flow index at 190°C with a load of 21.60 kg, and MI10 is the melt flow index at 190°C with a load of 10 kg, both determined according to ISO 1133; 3) η 0.02 from 200,000 to 800,000 Pa.s, preferably from 200,000 to 600,000 Pa.s, wherein η 0.02 is the complex shear viscosity at an angular frequency of 0.02 rad/s, measured with dynamic oscillatory shear in a plate-plate rotational rheometer at a temperature of 190°C; 4) long-chain branching index, LCBI, at a molecular weight of 1,000,000 g/mol., equal to or lower than 0.80, preferably lower than 0.75, wherein LCBI is the ratio of the measured mean-square radius of gyration R g, measured by GPC-MALLS, to the mean-square radius of gyration for a linear PE having the same molecular weight; 5) ratio (η 0.02 /1000)/ LCBI, which is between η 0.02 divided by 1000 and LCBI, equal to or greater than 350.
A method to mitigate corrosion in a metal conduit containing a fluid comprising a hydrate inhibitor formulation comprising a hydrate inhibitor and at least one inorganic halide ion, and having an absence of methanol, the method characterized by including in the hydrate inhibitor formulation an effective amount of at least one hydroxyacid or equivalent thereof selected from the group consisting of hydroxyacids having 2 to 20 carbon atoms and at least one hydroxyl group, alkali metal salts of these hydroxyacids, amine salts of these hydroxyacids, and combinations thereof, to mitigate corrosion of the metal conduit.
Thermodynamic water heater, comprising a tank of water to be heated and at least one heat exchanger, said thermodynamic water heater comprising at least one pipe for discharging water from the tank of water to be heated, at least one nozzle for spraying the water from said at least one discharge pipe and an air filter, the water heater being characterised by the fact that at least one of the spray nozzles is configured to spray water onto said air filter or onto said air filter and said at least one heat exchanger of the thermodynamic water heater.
A processor comprising: a plurality of processor cores accessible based on a plurality of changeable core indices; a core translation component having a set of registers, wherein each register is associated with a corresponding processor core of the plurality of processor cores; and a core assignment component configured to: assign a core index of the plurality of changeable core indices to each of the registers of the core translation component according to a core assignment scheme during processor initialization, wherein: a processor core of the plurality of processor cores is assigned at random as a default core for execution of processes by the processor; and one or more remaining processor cores of the plurality of processor cores are assigned based on a bus order in the processor. a plurality of processor cores accessible based on a plurality of changeable core indices; a core translation component having a set of registers, wherein each register is associated with a corresponding processor core of the plurality of processor cores; and a core assignment component configured to: assign a core index of the plurality of changeable core indices to each of the registers of the core translation component according to a core assignment scheme during processor initialization, wherein: a processor core of the plurality of processor cores is assigned at random as a default core for execution of processes by the processor; and one or more remaining processor cores of the plurality of processor cores are assigned based on a bus order in the processor. a processor core of the plurality of processor cores is assigned at random as a default core for execution of processes by the processor; and one or more remaining processor cores of the plurality of processor cores are assigned based on a bus order in the processor.
A method for transmitting resource information, at a base station, the method comprising: receiving interference information reported by a first type of node; determining a resource accessed by a second type of node according to the interference information, and a resource accessed by the first type of node, wherein the first type of node is a node in a signal coverage area of the base station or at an edge of the signal coverage area of the base station, and the second type of node is a node out of the signal coverage area of the base station; determining a node of the first type to receive a resource coordination message; wherein determining the node of the first type to receive the resource coordination message comprises: selecting the node of the first type from nodes of the first type capable of reporting the interference information to receive the resource coordination message; and transmitting the resource coordination message to the determined node of the first type, and instructing the determined node of the first type to broadcast a content of the resource coordination message, wherein the resource coordination message carries resource information of the first type of node, and resource information of the second type of node. receiving interference information reported by a first type of node; determining a resource accessed by a second type of node according to the interference information, and a resource accessed by the first type of node, wherein the first type of node is a node in a signal coverage area of the base station or at an edge of the signal coverage area of the base station, and the second type of node is a node out of the signal coverage area of the base station; determining a node of the first type to receive a resource coordination message; wherein determining the node of the first type to receive the resource coordination message comprises: selecting the node of the first type from nodes of the first type capable of reporting the interference information to receive the resource coordination message; and transmitting the resource coordination message to the determined node of the first type, and instructing the determined node of the first type to broadcast a content of the resource coordination message, wherein the resource coordination message carries resource information of the first type of node, and resource information of the second type of node.
Cooking vessel comprising a cap equipped with a bottom, the bottom comprising a housing receiving at least one bimetallic element (30a, 30b) taking a cold stable first position when the temperature is below a predetermined temperature and toggling to a hot stable second position when the temperature is above the predetermined temperature and vice versa, the transition from the first stable position to the second stable position generating an audible signal designed to be perceived by a user or by an external device, characterised in that the at least one bimetallic element (30a, 30b) strikes at least one wall (17, 25) of the housing to emit the audible signal.
Device for preparing food comprising: - a support casing, - an electric motor housed in the support casing, with a driving axis, - a work container arranged to be mounted on the support casing, - at least one work tool arranged in the work container to be driven there by the driving axis, - an inner switch arranged to control the electric motor, - a cover arranged to be mounted so that it can be removed on the work container, the work container mounted on the support casing being mobile with respect to the support casing from a stop position to a functioning position, to control the inner switch during the control movement caused by a user; the device comprising a control rod arranged to be engaged with the cover during the mounting movement of the cover on the work container, the control rod engaged with the cover mounted on the work container being arranged to be moved by the cover to control the inner switch, during the control movement of the work container, characterised in that it comprises a latch coupled with the control rod, and arranged to occupy: - a locking position wherein the work container is locked in stop position, if the control rod is not engaged with the cover, or - an unlocked position wherein the work container can pass from the stop position to the functioning position, if the control rod is engaged with the cover and in that it comprises at least one elastic element arranged to be stressed during the control movement and push the work container from the functioning position to the stop position. - a support casing, - an electric motor housed in the support casing, with a driving axis, - a work container arranged to be mounted on the support casing, - at least one work tool arranged in the work container to be driven there by the driving axis, - an inner switch arranged to control the electric motor, - a cover arranged to be mounted so that it can be removed on the work container, - a locking position wherein the work container is locked in stop position, if the control rod is not engaged with the cover, or - an unlocked position wherein the work container can pass from the stop position to the functioning position, if the control rod is engaged with the cover and in that it comprises at least one elastic element arranged to be stressed during the control movement and push the work container from the functioning position to the stop position.
Aerodynamically shaped, symmetrical cross-sectional profile for the struts or the fairing of struts and supply lines in the bypass and the core-flow duct (3, 4) of a turbofan engine, defined by a course of the local thickness and a position of the maximum thickness on both sides over the central chord extending from the leading edge to the trailing edge of the strut or fairing, where, in order to avoid flow separations, the course of the local thickness between the position of the maximum thickness and a certain trailing-edge position, which is defined at 95 % of the total length of the central chord, has a first turning point with a trailing-edge thickness and a subsequent second turning point, characterized in that the cross-sectional profile has a first zone extending from the leading edge to the position of the maximum thickness, a second zone between the position of the maximum thickness and the first turning point, a third zone between the first turning point and the second turning point and a fourth zone between the second turning point and the trailing edge, and that the course of the local thickness between the position of the maximum thickness and the first turning point has an increasingly negative gradient, which furthermore again decreases up to the second turning point and is zero or positive, where the local thickness remains smaller than the maximum thickness, and where the gradient decreases again from the second turning point up to the trailing-edge position.
A method for enabling subnet stretching via Layer 3, L3, communications, comprising: configuring a first machine in a first network assigned a first IP address as a first gateway to communicate with a second machine in a second network assigned a second IP address configured to act in the second network as a second gateway; configuring the first network as a part of a single subnet with the second network using a subnet mask shared by networks comprising the single subnet; associating IP addresses (121c, 121e) of machines (120c, 120e) from the second network with the first gateway within the first network; receiving, within the first network at the first gateway, an L3 packet having a destination field designating at least one IP address associated with the first gateway from the second network; encapsulating, at the first gateway, the L3 packet as a payload of a tunneled L3 packet, wherein a destination field of the tunneled L3 packet designates the second IP address; transmitting the tunneled L3 packet from the first gateway to the second gateway; decapsulating, at the second gateway, the tunneled L3 packet to restore the L3 packet; and forwarding, from the second gateway, the L3 packet to the at least one IP address in the second network designated in the destination field. configuring a first machine in a first network assigned a first IP address as a first gateway to communicate with a second machine in a second network assigned a second IP address configured to act in the second network as a second gateway; configuring the first network as a part of a single subnet with the second network using a subnet mask shared by networks comprising the single subnet; associating IP addresses (121c, 121e) of machines (120c, 120e) from the second network with the first gateway within the first network; receiving, within the first network at the first gateway, an L3 packet having a destination field designating at least one IP address associated with the first gateway from the second network; encapsulating, at the first gateway, the L3 packet as a payload of a tunneled L3 packet, wherein a destination field of the tunneled L3 packet designates the second IP address; transmitting the tunneled L3 packet from the first gateway to the second gateway; decapsulating, at the second gateway, the tunneled L3 packet to restore the L3 packet; and forwarding, from the second gateway, the L3 packet to the at least one IP address in the second network designated in the destination field.
The exhaust fumes reduction device for internal combustion engine mounted at the end of an exhaust pipe of the internal combustion engine to smooth the discharge flow of exhaust gas comprising: a housing pipe connected to the end of the exhaust pipe to discharge exhaust gas; a vortex pipe mounted inside the housing pipe to increase the speed of the exhaust gas introduced into the housing pipe and discharge the exhaust gas spirally; and an external pipe mounted on the outside of the housing pipe and in communication with the housing pipe to allow the outside air to flow in and to assist the smooth discharge of exhaust gas discharged to the housing pipe; characterized in that a spiral guide ring is further mounted between the external pipe and the housing pipe to discharge spirally the air introduced into the external pipe. a housing pipe connected to the end of the exhaust pipe to discharge exhaust gas; a vortex pipe mounted inside the housing pipe to increase the speed of the exhaust gas introduced into the housing pipe and discharge the exhaust gas spirally; and an external pipe mounted on the outside of the housing pipe and in communication with the housing pipe to allow the outside air to flow in and to assist the smooth discharge of exhaust gas discharged to the housing pipe;
Use of a basic substance selected from a basic oxide, a basic carbonate or a basic hydroxide, preferably calcium carbonate or magnesium oxide, and more preferably calcium carbonate, for suppressing bitterness of 4-(3-chloro-4-(cyclopropylaminocarbonyl)aminophenoxy)-7-methoxy-6-quinolinecarboxyamide, or a pharmaceutically acceptable salt thereof, preferably a mesylate thereof, wherein preferably 0.01 to 50 parts by weight of the basic substance is mixed per 1 part by weight of 4-(3-chloro-4-(cyclopropylaminocarbonyl)aminophenoxy)-7-methoxy-6-quinolinecarboxyamide or the pharmaceutically acceptable salt thereof or 0.16 to 80 mol of the basic substance is mixed per 1 mol of 4-(3-chloro-4-(cyclopropylaminocarbonyl)aminophenoxy)-7-methoxy-6-quinolinecarboxyamide or the pharmaceutically acceptable salt thereof.