mhurhangee/ep-ind-claims huggingface dataset:
A portable terminal comprising: a sensor unit for generating an interrupt signal when pressure of a user input is sensed; a first control unit for controlling overall operations of the portable terminal; and a second control unit for processing touch input signals in an active mode, wherein the first control unit is configured to: if the interrupt signal is received from the sensor unit by the first control unit while the first control unit is in a sleep mode and the second control unit is in an inactive mode, convert a mode of the first control unit from the sleep mode to an active mode and output an activating signal for activating the second control unit to the second control unit; and wherein the second control unit is configured to: if the activating signal is received from the first control unit while the second control unit is in the inactive mode, convert a mode of the second control unit from the inactive mode to the active mode, and process the touch input signals while the second control unit is in the active mode. a sensor unit for generating an interrupt signal when pressure of a user input is sensed; a first control unit for controlling overall operations of the portable terminal; and a second control unit for processing touch input signals in an active mode, wherein the first control unit is configured to: if the interrupt signal is received from the sensor unit by the first control unit while the first control unit is in a sleep mode and the second control unit is in an inactive mode, convert a mode of the first control unit from the sleep mode to an active mode and output an activating signal for activating the second control unit to the second control unit; and wherein the second control unit is configured to: if the activating signal is received from the first control unit while the second control unit is in the inactive mode, convert a mode of the second control unit from the inactive mode to the active mode, and process the touch input signals while the second control unit is in the active mode.
Compound of formula: wherein: Ak 1 represents a C 1 -C 6 -alkyl chain, X represents -(CH 2) m -, -CH -, -N -, -CH 2 -N -, -N -CH 2 - or -CH 2 -N -CH 2 -, m represents 0 or an integer from 1 to 4, R represents a hydrogen atom or a group selected from C 1 -C 6 -alkyl, -Ak 2 -Ar 1, -Ak 2 -Ar 1 -Ar 2 and -Ak 2 -Ar 1 -O-Ar 2, -Ak 2 -cycloalkyl or -Ak 2 -OH, Ak 2 represents a linear or branched C 1 -C 6 -alkyl chain, Ar 1 and Ar 2, which may be identical or different, each represent an aryl or heteroaryl group, R 1 and R 2 each represent a hydrogen atom when X represents -(CH 2) m -, -CH -, -N -, -CH 2 -N - or -N -CH 2 -, or together form a bond when X represents -CH 2 -N -CH 2 -, R 3 represents NH 2, Cy-NH 2, Cy-Ak 3 -NH 2 or piperidin-4-yl, Cy represents a group selected from cycloalkyl, aryl and heteroaryl, Ak 3 represents a C 1 -C 3 -alkyl chain, R 4 and R 5, which may be identical or different, each represent a hydrogen atom or a fluorine atom, its optical isomers, and addition salts thereof with a pharmaceutically acceptable acid. Ak 1 represents a C 1 -C 6 -alkyl chain, X represents -(CH 2) m -, -CH -, -N -, -CH 2 -N -, -N -CH 2 - or -CH 2 -N -CH 2 -, m represents 0 or an integer from 1 to 4, R represents a hydrogen atom or a group selected from C 1 -C 6 -alkyl, -Ak 2 -Ar 1, -Ak 2 -Ar 1 -Ar 2 and -Ak 2 -Ar 1 -O-Ar 2, -Ak 2 -cycloalkyl or -Ak 2 -OH, Ak 2 represents a linear or branched C 1 -C 6 -alkyl chain, Ar 1 and Ar 2, which may be identical or different, each represent an aryl or heteroaryl group, R 1 and R 2 each represent a hydrogen atom when X represents -(CH 2) m -, -CH -, -N -, -CH 2 -N - or -N -CH 2 -, or together form a bond when X represents -CH 2 -N -CH 2 -, R 3 represents NH 2, Cy-NH 2, Cy-Ak 3 -NH 2 or piperidin-4-yl, Cy represents a group selected from cycloalkyl, aryl and heteroaryl, Ak 3 represents a C 1 -C 3 -alkyl chain, R 4 and R 5, which may be identical or different, each represent a hydrogen atom or a fluorine atom, its optical isomers, and addition salts thereof with a pharmaceutically acceptable acid.
A method of emulsion extraction and processing from an oil/water separator, comprising: detecting an emulsion parameter using a detector; passing an emulsion stream out of the separator via an emulsion outlet, wherein the emulsion stream is an oil-continuous emulsion stream or a water-continuous emulsion stream, and wherein the detector is operatively coupled to the separator, the emulsion outlet, or a component downstream of the emulsion outlet, and wherein detecting the emulsion parameter comprises detecting an emulsion level in the separator or detecting the composition of the emulsion stream; passing the emulsion stream through at least one of a dewatering hydrocyclone when the emulsion stream is the oil-continuous emulsion stream or a deoiling hydrocyclone when the emulsion stream is the water-continuous emulsion stream prior to combining with a water stream; combining the emulsion stream exiting the hydrocyclone with the water stream exiting the separator to create a diluted emulsion; dynamically adjusting the dilution of the emulsion stream exiting the hydrocyclone by adding comparatively more or comparatively less of the water stream to the emulsion stream or vice versa based at least in part on the emulsion parameter received from the detector, wherein the dilution occurs via at least one control valve operatively coupled to piping for a water outlet of the separator, piping for the emulsion outlet, or both; and separating the diluted emulsion into an underflow stream comprising substantially water and a reject stream comprising substantially oil. detecting an emulsion parameter using a detector; passing an emulsion stream out of the separator via an emulsion outlet, wherein the emulsion stream is an oil-continuous emulsion stream or a water-continuous emulsion stream, and wherein the detector is operatively coupled to the separator, the emulsion outlet, or a component downstream of the emulsion outlet, and wherein detecting the emulsion parameter comprises detecting an emulsion level in the separator or detecting the composition of the emulsion stream; passing the emulsion stream through at least one of a dewatering hydrocyclone when the emulsion stream is the oil-continuous emulsion stream or a deoiling hydrocyclone when the emulsion stream is the water-continuous emulsion stream prior to combining with a water stream; combining the emulsion stream exiting the hydrocyclone with the water stream exiting the separator to create a diluted emulsion; dynamically adjusting the dilution of the emulsion stream exiting the hydrocyclone by adding comparatively more or comparatively less of the water stream to the emulsion stream or vice versa based at least in part on the emulsion parameter received from the detector, wherein the dilution occurs via at least one control valve operatively coupled to piping for a water outlet of the separator, piping for the emulsion outlet, or both; and separating the diluted emulsion into an underflow stream comprising substantially water and a reject stream comprising substantially oil.
Separation system, in particular grease separation system, comprising connecting nozzles (5, 6) and a separation container, which has a first and a second opening (3, 4), to each of which a connecting nozzle (5, 6) is assigned, wherein the first opening has a first overflow level and the second opening has a second overflow level, and one of the two connecting nozzles (5, 6) defines a first waste water level (C, D) due to its orientation when the connecting nozzle is attached to an opening and the other of the two connecting nozzles (5, 6) defines a second waste water level (C, D) due to its orientation when the connecting nozzle is attached to the other opening, wherein a connecting nozzle (5, 6) can be attached to one of the two openings (3, 4) in a position in which its waste-water level (C, D) is at a height which is different from the waste-water level (C, D) of the connecting nozzle (5, 6) attached to the other opening (3, 4), and the waste water level (C, D) of said one nozzle (5, 6) differs from the overflow level (A, B) of the opening (3, 4) to which said nozzle (5, 6) is attached, characterized in that the first opening and the second opening comprise positioning means which determine the attachment of a connecting nozzle (5, 6) to the respective opening (3, 4) in a respective orientation in which the waste water level (C, D) of the connecting nozzle (5, 6) is approximately the same at both openings (3, 4).
A method of diagnosing ischemic stroke in a subject, comprising the steps: detecting the presence and/or amount of at least one marker or at least one antibody against at least one marker in a sample from said subject, wherein the at least one marker comprises Pellino homolog 1 (Drosophila) (PELI1); and correlating the result to the occurrence or non-occurence of ischemic stroke in said subject, wherein the ischemic stroke is an ischemic stroke of lacunar subtype.
A method for performing paging, comprising: sending, by a mobile switching center, a paging message to a mobile terminal before the mobile terminal starts to perform a mobile-originated communication service wherein the paging message is triggered by a downlink call service or a downlink short message service for paging the mobile terminal; in case of paging failure caused by the start of the mobile terminal to perform the mobile - originated communication service, buffering, by the mobile switching center, the paging message for re-paging the mobile terminal; re-paging, by the mobile switching center, the mobile terminal by sending the buffered paging message; characterised in that the re-paging takes place after the mobile-originated communication service ends. sending, by a mobile switching center, a paging message to a mobile terminal before the mobile terminal starts to perform a mobile-originated communication service wherein the paging message is triggered by a downlink call service or a downlink short message service for paging the mobile terminal; in case of paging failure caused by the start of the mobile terminal to perform the mobile - originated communication service, buffering, by the mobile switching center, the paging message for re-paging the mobile terminal; re-paging, by the mobile switching center, the mobile terminal by sending the buffered paging message; characterised in that the re-paging takes place after the mobile-originated communication service ends.
A surge arrester for DC mains, comprising a spark gap for extinguishing mains follow currents in the DC mains, the current intensity of which is equal to or greater than a specified current threshold, a triggerable extinguishing aid assigned to the spark gap, which is set up to extinguish mains follow currents below the specified current threshold, and an evaluation module for triggering the extinguishing aid, characterized in that the evaluation module is set up to trigger the extinguishing aid as soon as at least two tripping conditions are fulfilled which are characteristic of the fact that the spark gap alone cannot extinguish the mains follow current within a specified time duration. a spark gap for extinguishing mains follow currents in the DC mains, the current intensity of which is equal to or greater than a specified current threshold, a triggerable extinguishing aid assigned to the spark gap, which is set up to extinguish mains follow currents below the specified current threshold, and an evaluation module for triggering the extinguishing aid, characterized in that the evaluation module is set up to trigger the extinguishing aid as soon as at least two tripping conditions are fulfilled which are characteristic of the fact that the spark gap alone cannot extinguish the mains follow current within a specified time duration.
An anti-ice system for an aircraft, the anti-ice system comprising: one or more sensors (102-1 to 102-N) that are configured, alone or in combination, to generate data indicative of one or more of a size, shape, density and type of air borne particles in the vicinity of the aircraft; a data conditioner, coupled to the one or more sensors, that is configured to prepare the data for processing; a reasoner, coupled to the data conditioner, that is configured to determine from the data from the data conditioner, the severity and location of an icing threat to an airframe, at least one engine and at least one air data probe; and one or more controllers (110, 103), responsive to the reasoner, wherein the one or more controllers automatically operate an anti-icing mechanism for at least one of the at least one engine, the airframe, and the at least one air data probe depending on the icing threats determined by the reasoner wherein one or more controllers includes: a bleed air controller, and valves, responsive to the reasoner, wherein the bleed air controller automatically operates the valves to selectively apply bleed air to the at least one engine, the airframe or both depending on the severity of the icing threats determined by the reasoner, and an air data probe heater controller, responsive to the reasoner, wherein the air data probe heater controller is configured to control the amount of electrical power applied to one or more air data probe heaters.. one or more sensors (102-1 to 102-N) that are configured, alone or in combination, to generate data indicative of one or more of a size, shape, density and type of air borne particles in the vicinity of the aircraft; a data conditioner, coupled to the one or more sensors, that is configured to prepare the data for processing; a reasoner, coupled to the data conditioner, that is configured to determine from the data from the data conditioner, the severity and location of an icing threat to an airframe, at least one engine and at least one air data probe; and one or more controllers (110, 103), responsive to the reasoner, wherein the one or more controllers automatically operate an anti-icing mechanism for at least one of the at least one engine, the airframe, and the at least one air data probe depending on the icing threats determined by the reasoner wherein one or more controllers includes: a bleed air controller, and valves, responsive to the reasoner, wherein the bleed air controller automatically operates the valves to selectively apply bleed air to the at least one engine, the airframe or both depending on the severity of the icing threats determined by the reasoner, and an air data probe heater controller, responsive to the reasoner, wherein the air data probe heater controller is configured to control the amount of electrical power applied to one or more air data probe heaters..
Lift installation (1, 1') with a lift cage, a counterweight, a support means for supporting the lift cage and the counterweight, wherein the counterweight is connected with the support means by way of at least one deflecting roller mounted to be rotatable about a rotary bearing and wherein the support means at least partly loops around the deflecting roller, wherein the rotary bearing of the deflecting roller comprises a bearing part stationary relative thereto and, in particular, an axial body, wherein the bearing part is fixed to the counterweight in an intended desired position, characterised in that the lift installation comprises a safety device for relative positional monitoring of the bearing part in the lift installation (1, 1'), wherein the safety device is so constructed and arranged that a positional deviation of the bearing part from the desired position with respect to the counterweight can be monitored, wherein the positional deviation, which can be monitored by the safety device, comprises a rotation of the bearing part with respect to the counterweight, and wherein an alarm signal can be generated by the safety device if a predeterminable positional deviation is exceeded.
A sulfolane -based electrolyte composition suitable for lithium secondary batteries, comprising: - lithium bis(trifluoromethanesulfonyl)imide (LiTFSI) in an amount (x) of 39.0 vol% ≤ x ≤ 47.5 vol%, and - fluoroethylene carbonate in an amount (y) of 1.0 ≤ y ≤ 15.0 vol%, wherein SL/LiTFSI is comprised in a molar ratio (z) of 2.0 ≤ z ≤ 3.5. - lithium bis(trifluoromethanesulfonyl)imide (LiTFSI) in an amount (x) of 39.0 vol% ≤ x ≤ 47.5 vol%, and - fluoroethylene carbonate in an amount (y) of 1.0 ≤ y ≤ 15.0 vol%, wherein SL/LiTFSI is comprised in a molar ratio (z) of 2.0 ≤ z ≤ 3.5.
A method for receiving a power signal from a wireless power transmission device having a primary charging core, the method performed by a wireless device comprising: receiving an ID request signal from a wireless power transmission device; generating a native ID value of the wireless device; transmitting the native ID value of the wireless device to the wireless power transmission device in response to the ID request signal; converting the wireless device from standby mode to charging mode; receiving a power signal being transmitted from a corresponding charger block selected from among a plurality of charger blocks of the wireless power transmission device; transmitting information including at least one of a charging state and an error state of the wireless device to the wireless power transmission device; and transmitting, to the wireless power transmission device, an adjustment signal which indicates adjusting the power signal of the corresponding charger block when a voltage of the power signal which is received in the wireless device is lower than a reference voltage value, and receiving, from the wireless power transmission device, an adjusted power signal through the corresponding charger block. receiving an ID request signal from a wireless power transmission device; generating a native ID value of the wireless device; transmitting the native ID value of the wireless device to the wireless power transmission device in response to the ID request signal; converting the wireless device from standby mode to charging mode; receiving a power signal being transmitted from a corresponding charger block selected from among a plurality of charger blocks of the wireless power transmission device; transmitting information including at least one of a charging state and an error state of the wireless device to the wireless power transmission device; and transmitting, to the wireless power transmission device, an adjustment signal which indicates adjusting the power signal of the corresponding charger block when a voltage of the power signal which is received in the wireless device is lower than a reference voltage value, and receiving, from the wireless power transmission device, an adjusted power signal through the corresponding charger block.
System (SDBR) for the detection of satellite radio navigation signal jammers, intended to be positioned at the edge of a road, the system comprising: - a first device configured to receive, via a radio link, a sequence of a satellite navigation signal received by a vehicle and retransmitted by said vehicle to the system (SBDR) via the radio link, - a second device configured to measure at least a characteristic of said satellite radio navigation signal received and to detect, from said at least one characteristic, a disturbance of said satellite radio navigation signal by a jamming signal, - a third device (FLASH) for triggering a capture of view of the road if said satellite navigation signal is disturbed by a jamming signal. - a first device configured to receive, via a radio link, a sequence of a satellite navigation signal received by a vehicle and retransmitted by said vehicle to the system (SBDR) via the radio link, - a second device configured to measure at least a characteristic of said satellite radio navigation signal received and to detect, from said at least one characteristic, a disturbance of said satellite radio navigation signal by a jamming signal, - a third device (FLASH) for triggering a capture of view of the road if said satellite navigation signal is disturbed by a jamming signal.
A method for managing the energy consumption of a multiprocessor system executing at least one application according to a chart of tasks (1, Ti), said method comprising at least, for each application: - a first phase for off-line characterization of the variation of the potential rate of parallelism of execution of the tasks as a function of time, this characterization being based on the worst-case behavior of the tasks; - a second phase for on-line detection and exploitation of the potential inactivity intervals, the time until which a processor concerned may remain inactive being obtained according to the worst-case potential rate of parallelism characterized off-line, an appropriate idle mode being calculated and activated according to the time until which the processor may remain inactive, wherein the second phase executes a detection and an exploitation of the time excesses (84, 85) produced by the tasks during actual execution relative to the execution times of the worst-case behavior, the time excess produced by a task being assigned to the task allocated immediately after on the same processor to reduce its execution speed, this reduction of the execution speed being obtained by switching the processor from a given voltage and frequency to a lower voltage and lower frequency. - a first phase for off-line characterization of the variation of the potential rate of parallelism of execution of the tasks as a function of time, this characterization being based on the worst-case behavior of the tasks; - a second phase for on-line detection and exploitation of the potential inactivity intervals, the time until which a processor concerned may remain inactive being obtained according to the worst-case potential rate of parallelism characterized off-line, an appropriate idle mode being calculated and activated according to the time until which the processor may remain inactive,
Method for producing an implant made from a biocompatible silicone having the following steps: a) a mathematical 3D model of an implant to be produced is provided; b) by means of the 3D model of the implant, a 3D model of a pouring shape for the implant is produced as a negative; c) the pouring shape is produced by means of an additive manufacturing method from a polymeric material; d) the pouring shape is coated at least in areas which come into contact with the silicone to be poured; e) the coating is carried out by means of the vapour phase deposition of a coating material from the family of the parylenes; f) the biocompatible silicone is introduced into the shape cavity of the coated pouring shape, wherein as a material for the implant, platinum catalysed 2-component thermosetting silicones are used for a stay time of the implant in the body of the patient of more than 29 days; g) the pouring shape is heated so that the silicone vulcanises; h) the vulcanised implant is removed from the pouring shape after cooling. a) a mathematical 3D model of an implant to be produced is provided; b) by means of the 3D model of the implant, a 3D model of a pouring shape for the implant is produced as a negative; c) the pouring shape is produced by means of an additive manufacturing method from a polymeric material; d) the pouring shape is coated at least in areas which come into contact with the silicone to be poured; e) the coating is carried out by means of the vapour phase deposition of a coating material from the family of the parylenes; f) the biocompatible silicone is introduced into the shape cavity of the coated pouring shape, wherein as a material for the implant, platinum catalysed 2-component thermosetting silicones are used for a stay time of the implant in the body of the patient of more than 29 days; g) the pouring shape is heated so that the silicone vulcanises; h) the vulcanised implant is removed from the pouring shape after cooling.