mhurhangee/ep-ind-claims huggingface dataset:
A mobile terminal, comprising: a wireless communication unit configured to wirelessly communicate with at least one other terminal; a main body (103, 103') configured to receive a battery; and a cover body (200, 300, 400) detachably coupled to the main body, wherein the cover body includes: a first cover part (210, 310, 410); a second cover part (220, 320, 420); and a sliding unit configured to slideably couple the second cover part to the first cover part and allow the second cover part to slide and tilt away from the first cover part, characterized in that the first cover part is formed to cover the battery, and the sliding unit comprises: a guide recess (231, 431) formed along a sliding direction on both sides of the first cover part and configured to guide the sliding of the second cover part away from the first cover part; a rib (232, 432) protruding from the second cover part and disposed parallel to both sides of the first cover part; and a guide member (233, 433) protruded from the rib and slideably coupled to the guide recess in the first cover part, wherein the rib (232, 432) of the sliding unit is configured to press and lift the main body (103, 103') when the second cover part (220, 320, 420) is tilted with respect to the first cover part (210, 310, 410). a wireless communication unit configured to wirelessly communicate with at least one other terminal; a main body (103, 103') configured to receive a battery; and a cover body (200, 300, 400) detachably coupled to the main body, a first cover part (210, 310, 410); a second cover part (220, 320, 420); and a sliding unit configured to slideably couple the second cover part to the first cover part and allow the second cover part to slide and tilt away from the first cover part, a guide recess (231, 431) formed along a sliding direction on both sides of the first cover part and configured to guide the sliding of the second cover part away from the first cover part; a rib (232, 432) protruding from the second cover part and disposed parallel to both sides of the first cover part; and a guide member (233, 433) protruded from the rib and slideably coupled to the guide recess in the first cover part,
A compound of Formula I: wherein: one of X and X' is N and the other of X and X' is C; one of the dashed lines in Formula I is a single bond and the other of the dashed lines in Formula I is a double bond; R 1 is aryl; R 2 is -R 5a R 6, where R 5a is a covalent bond or C1 to C3 alkyl and R 6 is cycloalkyl, heterocycloalkyl, aryl, heteroaryl or alkyl, and wherein R 6 is substituted once with amino/hydroxyl; R 3 is -NR 7 R 8, where R 7 and R 8 are each independently selected from H, alkyl, arylalkyl; cycloalkylalkyl, heterocycloalkylalkyl, heteroaryalkyl, and alkoxyalkyl, each of which is optionally substituted one, two or three times with amino/hydroxyl; R 4 is H; and R 5 is H, loweralkyl, halo, or loweralkoxy, wherein loweralkyl is a subset of alkyl referring to a straight or branched chain hydrocarbon group containing from 1 to 4 carbon atoms and wherein loweralkoxy is a subset of alkoxy referring to a loweralkyl group appended to the parent molecule through an oxy group; or a pharmaceutically acceptable salt thereof. one of X and X' is N and the other of X and X' is C; one of the dashed lines in Formula I is a single bond and the other of the dashed lines in Formula I is a double bond; R 1 is aryl; R 2 is -R 5a R 6, where R 5a is a covalent bond or C1 to C3 alkyl and R 6 is cycloalkyl, heterocycloalkyl, aryl, heteroaryl or alkyl, and wherein R 6 is substituted once with amino/hydroxyl; R 3 is -NR 7 R 8, where R 7 and R 8 are each independently selected from H, alkyl, arylalkyl; cycloalkylalkyl, heterocycloalkylalkyl, heteroaryalkyl, and alkoxyalkyl, each of which is optionally substituted one, two or three times with amino/hydroxyl; R 4 is H; and R 5 is H, loweralkyl, halo, or loweralkoxy, wherein loweralkyl is a subset of alkyl referring to a straight or branched chain hydrocarbon group containing from 1 to 4 carbon atoms and wherein loweralkoxy is a subset of alkoxy referring to a loweralkyl group appended to the parent molecule through an oxy group;
A method of detecting a target comprising the steps of: a) receiving signals reflected from a target of interest, the signals having a bandwidth large enough to provide a range resolution smaller than a largest dimension of the target of interest, and generating from those signals a set of high range resolution, HRR, returns each being associated with a particular range; b) processing the received signal(s) by: i) grouping HRR returns contiguously by range, each group covering a total range spread of approximately similar dimension to a target type of interest; ii) processing the HRR returns within a group to determine their phases; iii) phase-shifting the processed HRR returns within a group to increase their constructive interference and thereby signal power; iv) combining the phase shifted HRR returns to produce phase-adjusted combined returns, and performing a detection on those combined returns to detect the target. a) receiving signals reflected from a target of interest, the signals having a bandwidth large enough to provide a range resolution smaller than a largest dimension of the target of interest, and generating from those signals a set of high range resolution, HRR, returns each being associated with a particular range; b) processing the received signal(s) by: i) grouping HRR returns contiguously by range, each group covering a total range spread of approximately similar dimension to a target type of interest; ii) processing the HRR returns within a group to determine their phases; iii) phase-shifting the processed HRR returns within a group to increase their constructive interference and thereby signal power; iv) combining the phase shifted HRR returns to produce phase-adjusted combined returns, and performing a detection on those combined returns to detect the target. i) grouping HRR returns contiguously by range, each group covering a total range spread of approximately similar dimension to a target type of interest; ii) processing the HRR returns within a group to determine their phases; iii) phase-shifting the processed HRR returns within a group to increase their constructive interference and thereby signal power; iv) combining the phase shifted HRR returns to produce phase-adjusted combined returns, and performing a detection on those combined returns to detect the target.
Fryer with a vessel, that contains a hot fluid-bath with a fluid level and which comprises: - one or more belt(s) (2 - 5) which transports products to be fried through the hot fluid-bath, wherein a surface of the belt(s) (2 - 5) on which the products are located during transportation in the fryer has a submerged section being submerged in the hot fluid-bath, - and a submerge belt that hinders the products from floating to the fluid level, wherein the submerge belt has a submerged section being submerged in the hot fluid-bath - a floating particles removing device comprising a guiding means, wherein the floating particle removing device is located vertically above the submerged section of the submerge belt and/or of the submerge section of the surface of the belt(s) (2 - 5) and wherein the guiding means are part of, integrated in and/or connected to the submerge belt. - one or more belt(s) (2 - 5) which transports products to be fried through the hot fluid-bath, wherein a surface of the belt(s) (2 - 5) on which the products are located during transportation in the fryer has a submerged section being submerged in the hot fluid-bath, - and a submerge belt that hinders the products from floating to the fluid level, wherein the submerge belt has a submerged section being submerged in the hot fluid-bath - a floating particles removing device comprising a guiding means,
Diagnostic system for a lubrication circuit of an internal combustion engine of a vehicle, the system comprising: - a viscometer for detecting the viscosity of a lubricating liquid of the lubrication circuit, - a temperature sensor suitable for detecting the temperature of the lubricating liquid, - means for acquiring the date of last replacement of the lubricating liquid, - means for determining a condition of use of the engine, - a database capable of storing viscosity reference values for at least a given temperature of the lubricating liquid, a given date of last replacement of the lubricating liquid and a given condition of use of the engine, and - a control unit capable of acquiring the state of the lubricating liquid, given by the viscosity detected for a given lubricating liquid condition, which includes the lubricating liquid temperature and the date of last replacement of the lubricating liquid, and for a given condition of use of the engine, and capable of assessing the state of the lubricating liquid by comparing the detected viscosity of the lubricating liquid with the viscosity reference values stored in the database in the same or similar condition of lubricating liquid temperature, date of last replacement of the lubricating liquid and use of the engine, characterized in that the control unit is configured to autonomously activate an addition of additives to the lubricating liquid, said additives being dispensable by a suitable additive tank connected to the lubrication circuit. - a viscometer for detecting the viscosity of a lubricating liquid of the lubrication circuit, - a temperature sensor suitable for detecting the temperature of the lubricating liquid, - means for acquiring the date of last replacement of the lubricating liquid, - means for determining a condition of use of the engine, - a database capable of storing viscosity reference values for at least a given temperature of the lubricating liquid, a given date of last replacement of the lubricating liquid and a given condition of use of the engine, and - a control unit capable of acquiring the state of the lubricating liquid, given by the viscosity detected for a given lubricating liquid condition, which includes the lubricating liquid temperature and the date of last replacement of the lubricating liquid, and for a given condition of use of the engine, and capable of assessing the state of the lubricating liquid by comparing the detected viscosity of the lubricating liquid with the viscosity reference values stored in the database in the same or similar condition of lubricating liquid temperature, date of last replacement of the lubricating liquid and use of the engine,
A method of non-invasively determining coronary circulation parameters during a hyperemic state for a patient, the method comprising: obtaining, via imaging, an anatomical model of a coronary tree of the patient; determining rest boundary conditions of the patient based on non-invasive measurements taken at a rest state; computing hyperemic boundary conditions of the patient; implementing a feedback control system to perform a simulation matching the rest state, wherein the feedback control system utilizes a model based on the anatomical model of the coronary tree and a plurality of controllers (410, 420), each of the plurality of controllers relating to a respective output variable of the coronary tree, and wherein parameters of the model are adjusted for the output variables to be in agreement with the rest state measurements; adjusting the hyperemic boundary conditions based on the adjustments to the model; and performing a flow computation corresponding to the hyperemic state using the adjusted model. obtaining, via imaging, an anatomical model of a coronary tree of the patient; determining rest boundary conditions of the patient based on non-invasive measurements taken at a rest state; computing hyperemic boundary conditions of the patient; implementing a feedback control system to perform a simulation matching the rest state, wherein the feedback control system utilizes a model based on the anatomical model of the coronary tree and a plurality of controllers (410, 420), each of the plurality of controllers relating to a respective output variable of the coronary tree, and wherein parameters of the model are adjusted for the output variables to be in agreement with the rest state measurements; adjusting the hyperemic boundary conditions based on the adjustments to the model; and performing a flow computation corresponding to the hyperemic state using the adjusted model.
An intraluminal medical device delivery system, comprising: an elongate tubular member having a distal end adapted for insertion into a body vessel; a dilator disposed in said tubular member, said dilator having a lumen formed in an axial direction therein and a distal end adapted for insertion into the body vessel, said tubular member and said dilator having a device chamber formed therebetween; and an intraluminal medical device disposed in the device chamber; characterised by a plurality of hydration channels extending radially outward from the lumen to the device chamber to provide fluid communication between the device chamber and the lumen, to facilitate hydration of said intraluminal medical device. an elongate tubular member having a distal end adapted for insertion into a body vessel; a dilator disposed in said tubular member, said dilator having a lumen formed in an axial direction therein and a distal end adapted for insertion into the body vessel, said tubular member and said dilator having a device chamber formed therebetween; and an intraluminal medical device disposed in the device chamber; characterised by a plurality of hydration channels extending radially outward from the lumen to the device chamber to provide fluid communication between the device chamber and the lumen, to facilitate hydration of said intraluminal medical device.
A fireplace insert appliance comprising a fireback unit for insertion into an existing fireplace, a fire front adapted to engage with and seal the fireback unit, the fireback unit has means (10,25) to anchor it to an existing fireplace area, the appliance has means to secure it adjustably to the anchor means (10,25) of the fireback unit and top clamping means (40, 100) for securing the upper portion of the appliance in a fireplace and which in conjunction with the anchoring means (10,25) and securing means are adapted to seal the appliance in the fireplace, characterized in that the anchoring means (10,25) comprises a locating plate for anchoring to a floor of the appliance and the securing means comprises a floor plate having adjustable securing means for fixing to the appliance.
Process for manufacturing a composite part, said process comprising the following steps: - a step of depositing one or more structural plies (12, 13) impregnated with a thermosetting resin in order to form a structural layer, - a step of depositing a surface layer as a stack with the structural plies, said surface layer being formed from an assembly of one or more fibres of thermoplastic resin, said assembly being deformable in at least two directions, said thermoplastic resin having a melting point close to a polymerization temperature of said thermosetting resin, the deposition of the surface layer possibly taking place before or after the deposition of the structural plies, - next, a step of polymerizing the structural layer at the polymerization temperature, the surface layer then taking the shape of a continuous film coating the structural layer. - a step of depositing one or more structural plies (12, 13) impregnated with a thermosetting resin in order to form a structural layer, - a step of depositing a surface layer as a stack with the structural plies, said surface layer being formed from an assembly of one or more fibres of thermoplastic resin, said assembly being deformable in at least two directions, said thermoplastic resin having a melting point close to a polymerization temperature of said thermosetting resin, the deposition of the surface layer possibly taking place before or after the deposition of the structural plies, - next, a step of polymerizing the structural layer at the polymerization temperature, the surface layer then taking the shape of a continuous film coating the structural layer.
A gas turbine engine control system comprising: an intake sensor configured to transmit an oxygen signal indicative of an amount of oxygen at an intake of the engine; a fuel delivery device configured to control a rate of fuel delivery from a fuel source to a combustor of the engine; a pressure sensor configured to transmit a pressure signal indicative of a pressure in the combustor; a temperature sensor configured to transmit a temperature signal indicative of a temperature in the combustor; and a controller configured to: receive the oxygen signal, the pressure signal, and the temperature signal; determine at least one of a reference specific fuel consumption of the engine or a reference amount of a respective exhaust gas of a plurality of exhaust gases based on at least the oxygen signal, the pressure signal, and the temperature signal; compare at least one of the reference SFC or the reference amount of a respective exhaust gas of a plurality of exhaust gases to a respective threshold value; and control the fuel delivery device to control the rate of fuel delivery based on the comparison. an intake sensor configured to transmit an oxygen signal indicative of an amount of oxygen at an intake of the engine; a fuel delivery device configured to control a rate of fuel delivery from a fuel source to a combustor of the engine; a pressure sensor configured to transmit a pressure signal indicative of a pressure in the combustor; a temperature sensor configured to transmit a temperature signal indicative of a temperature in the combustor; and a controller configured to: receive the oxygen signal, the pressure signal, and the temperature signal; determine at least one of a reference specific fuel consumption of the engine or a reference amount of a respective exhaust gas of a plurality of exhaust gases based on at least the oxygen signal, the pressure signal, and the temperature signal; compare at least one of the reference SFC or the reference amount of a respective exhaust gas of a plurality of exhaust gases to a respective threshold value; and control the fuel delivery device to control the rate of fuel delivery based on the comparison. receive the oxygen signal, the pressure signal, and the temperature signal; determine at least one of a reference specific fuel consumption of the engine or a reference amount of a respective exhaust gas of a plurality of exhaust gases based on at least the oxygen signal, the pressure signal, and the temperature signal; compare at least one of the reference SFC or the reference amount of a respective exhaust gas of a plurality of exhaust gases to a respective threshold value; and control the fuel delivery device to control the rate of fuel delivery based on the comparison.
A method for performing handover of at least one wireless device to a target access node sector (B1, C1, A2, B2, C2, A3, B3, C3) by a source access node, the method comprising: selecting one or more beam-form capable sectors (C1, A3, B3) of one or more target access nodes (318, 320, 322) from a pool of candidate sectors (B1, C1, B2, C2, A3, B3); prioritizing one of the selected sectors (C1, A3, B3) having a greatest number of open beam-form seats, wherein each open beam-form seat represents one additional beam-formed wireless device a sector can support and the number of open beam-form seats represents the number of additional beam-formed wireless devices the sector can support; and performing handover of the at least one wireless device from the source access node to the prioritized sector. selecting one or more beam-form capable sectors (C1, A3, B3) of one or more target access nodes (318, 320, 322) from a pool of candidate sectors (B1, C1, B2, C2, A3, B3); prioritizing one of the selected sectors (C1, A3, B3) having a greatest number of open beam-form seats, wherein each open beam-form seat represents one additional beam-formed wireless device a sector can support and the number of open beam-form seats represents the number of additional beam-formed wireless devices the sector can support; and performing handover of the at least one wireless device from the source access node to the prioritized sector.
Membrane having holes having a specific diameter in order to allow substances having a smaller particle diameter to pass through, but to hold back substances having a larger particle diameter, wherein the membrane is provided with at least one conductor track through which current flows and which can be interrupted upon damage to the membrane, wherein the state of the membrane can be determined by detecting the electric current through the conductor track, characterized in that at least one conductor track is arranged on both sides of the membrane.
Method for connecting a terminal out of range of its home network (hN-A) to a network (vN-B) of a visited area covered by a plurality of networks, the method comprising: • sending a request (AR, TAUR) relating to connecting to a first visited network, • receiving a message (AA, TAUA) in response to the request, comprising a list of at least one network of the plurality, to which the terminal must connect as a priority, • storing said list, • disconnecting the terminal from the first visited network and connecting it to a second network in the stored list. • sending a request (AR, TAUR) relating to connecting to a first visited network, • receiving a message (AA, TAUA) in response to the request, comprising a list of at least one network of the plurality, to which the terminal must connect as a priority, • storing said list, • disconnecting the terminal from the first visited network and connecting it to a second network in the stored list.
A method for detecting a deterioration state of a load bearing capacity in a suspension member arrangement for an elevator, the suspension member arrangement comprising at least one suspension member having a plurality of electrically conductive cords, characterised by the method comprising providing a multi-phase alternating current circuitry including multiple electrically conductive legs; applying at least one phase of a multi-phase alternating current to at least one of the cords of the suspension member by being electrically connected to one of the legs of the multi-phase alternating current circuitry; applying at least one other phase of the multi-phase alternating current to at least one of another at least one cord of the suspension member and at least one separate resistor being electrically connected to at least one other leg of the multi-phase alternating current circuitry, wherein a peak current in each phase is shifted by a phase angle with respect to a peak current in another phase; measuring an electric indicator current (In) being at least one of a net sum of all phases of the multi-phase alternating current and an electric bypass current through a neutral wire being connected in parallel to the multi-phase alternating current circuitry; determining the deterioration state based on the measured indicator electric current. applying at least one phase of a multi-phase alternating current to at least one of the cords of the suspension member by being electrically connected to one of the legs of the multi-phase alternating current circuitry; applying at least one other phase of the multi-phase alternating current to at least one of another at least one cord of the suspension member and at least one separate resistor being electrically connected to at least one other leg of the multi-phase alternating current circuitry, wherein a peak current in each phase is shifted by a phase angle with respect to a peak current in another phase; measuring an electric indicator current (In) being at least one of a net sum of all phases of the multi-phase alternating current and an electric bypass current through a neutral wire being connected in parallel to the multi-phase alternating current circuitry; determining the deterioration state based on the measured indicator electric current.