mhurhangee/ep-ind-claims huggingface dataset:
A head-less control method, comprising: activating head-less control of an unmanned aerial vehicle via a somatosensory remote controller; transmitting a head-less attitude control variable to the UAV by the somatosensory remote controller; and in response to receiving the head-less attitude control variable, the UAV flying according to an orientation of the somatosensory remote controller, characterized by determining a flying state of the UAV according to whether a real-time distance between the somatosensory remote controller and the UAV is within a dangerous distance range, said step of determining the flying state of the UAV comprises controlling the UAV to hover in a case that the real-time distance is less than or equal to the dangerous distance. activating head-less control of an unmanned aerial vehicle via a somatosensory remote controller; transmitting a head-less attitude control variable to the UAV by the somatosensory remote controller; and in response to receiving the head-less attitude control variable, the UAV flying according to an orientation of the somatosensory remote controller, characterized by determining a flying state of the UAV according to whether a real-time distance between the somatosensory remote controller and the UAV is within a dangerous distance range, said step of determining the flying state of the UAV comprises controlling the UAV to hover in a case that the real-time distance is less than or equal to the dangerous distance.
A terminal comprising: a receiving section configured to receive a synchronization signal/broadcast channel, SS/PBCH, block including a broadcast channel comprising a number of bits of a synchronization signal block index, wherein the number of bits is different depending on the frequency band used for transmission among a number of predetermined frequency bands; and a control section configured to determine a synchronization signal block index of the SS/PBCH block in a frequency band based on the bits of the synchronization signal block index included in the broadcast channel. a receiving section configured to receive a synchronization signal/broadcast channel, SS/PBCH, block including a broadcast channel comprising a number of bits of a synchronization signal block index, wherein the number of bits is different depending on the frequency band used for transmission among a number of predetermined frequency bands; and a control section configured to determine a synchronization signal block index of the SS/PBCH block in a frequency band based on the bits of the synchronization signal block index included in the broadcast channel.
A compound defined by the formula 1 wherein a, b and c respectively denote, independently from each other, a single bond or a double bond, with the proviso that at least one of a, b and c represents a double bond, and with the proviso that if a is single bond and b is double bond, R 2 is not H; R 1 is either hydrogen or C 1 to C 6 alkyl; R 2 is either OR 5 or hydrogen, wherein R 5 is hydrogen or C 1 to C 12 straight chain or branched alkyl; R 3 is, in case of c being a single bond, either hydrogen or C 1 to C 6 alkyl, or in case of c being a double bond, CHR 5, wherein R 5 is the same as defined before; R 4 is hydrogen, C 1 to C 12 alkyl, phenyl unsubstituted or substituted by C 1 to C 12 alkyl or COR 6 acyl group; R 6 being hydrogen, C 1 to C 12 straight chain or branched alkyl, phenyl or benzoyl, respectively unsubstituted or substituted by C 1 to C 12 alkyl, or any group leading to hydroxyl upon biological metabolization or chemical deprotection, particularly an ester, ether, acetale, carbonate, carbamate, phosphate, phosphonate, ketal, sulfate, or sulfonate; and salts thereof, for use in a medical treatment as angiogenesis inhibitor, wherein said compound is 4-hydroxytestosterone or its salts or esters. a, b and c respectively denote, independently from each other, a single bond or a double bond, with the proviso that at least one of a, b and c represents a double bond, and with the proviso that if a is single bond and b is double bond, R 2 is not H; R 1 is either hydrogen or C 1 to C 6 alkyl; R 2 is either OR 5 or hydrogen, wherein R 5 is hydrogen or C 1 to C 12 straight chain or branched alkyl; R 3 is, in case of c being a single bond, either hydrogen or C 1 to C 6 alkyl, or in case of c being a double bond, CHR 5, wherein R 5 is the same as defined before; R 4 is hydrogen, C 1 to C 12 alkyl, phenyl unsubstituted or substituted by C 1 to C 12 alkyl or COR 6 acyl group; R 6 being hydrogen, C 1 to C 12 straight chain or branched alkyl, phenyl or benzoyl, respectively unsubstituted or substituted by C 1 to C 12 alkyl, or any group leading to hydroxyl upon biological metabolization or chemical deprotection, particularly an ester, ether, acetale, carbonate, carbamate, phosphate, phosphonate, ketal, sulfate, or sulfonate; and salts thereof, for use in a medical treatment as angiogenesis inhibitor, wherein said compound is 4-hydroxytestosterone or its salts or esters.
A method of oxidizing organic contaminants in wastewater by means of the Fenton reaction characterized in that such reaction takes place at an absolute pressure of between 1 kg/cm2 and 1.5 kg/cm2 and at a temperature of between 110°C and 120°G.
Fuel injection valve having a magnet coil which interacts with an armature, which armature is acted on by a restoring spring and, together with a valve needle, forms an axially movable valve part, wherein, on the valve needle, there is provided a valve closing body which, with a valve seat body, forms a sealing seat, wherein a sealing body which is of tetragonal cross section and which is composed of a fuel-resistant elastomer material, in particular rubber, is inserted between the magnet coil and a valve housing, wherein the valve housing comprises a radially running shoulder which engages under the magnet coil, and the sealing body is pushed into the region between a bottom side of a coil carrier and the radially running shoulder of the valve housing, characterized in that the sealing body has an elliptical or egg-shaped cross section when in the installed and compressed state.
A fuel injection control device for an internal combustion engine configured to be applied to an internal combustion engine including two types of injection valves including a port injection valve, which injects fuel into an intake port, and a direct injection valve, which injects fuel into a cylinder, wherein the fuel injection control device is configured to switch an injection mode (MODE) between a port-injection-only mode, in which only the port injection valve of the two types of injection valves performs fuel injection, and a direct-injection-only mode, in which only the direct injection valve of the two types of injection valves performs fuel injection, a state in which a wall temperature of the intake port is higher than or equal to a predetermined wall temperature is defined as a state in which the port has been warmed up, the fuel injection control device comprises: a port warm-up judgment section, which is configured to judge whether the port has been warmed up; and an injection mode determination section, which is configured to determine the injection mode (MODE) to be executed by the internal combustion engine based on an engine speed and an engine load, the injection mode determination section is configured such that, when determining the injection mode (MODE) in a cold operation, in which a coolant temperature of the internal combustion engine is lower than or equal to a predetermined coolant temperature, the injection mode determination section sets, in an operation region of the internal combustion engine specified by the engine speed and the engine load, a range of the operation region in which the direct-injection-only mode is selected as the injection mode (MODE) to be broader in a case in which the port warm-up judgment section has judged that the port has not been warmed up than in a case in which the port warm-up judgment section has judged that the port has been warmed up, and wherein the port warm-up judgment section is configured to set a port warm-up judgment value as a value that is increased as the coolant temperature, at a time when the startup of the internal combustion engine is initiated, is decreased and is configured to judge that the intake port has been warmed up on condition that an accumulated value of an intake air amount or a fuel injection amount, after the startup of the internal combustion engine is initiated, is greater than or equal to the port warm-up judgment value, regardless of any changes in the coolant temperature after the startup of the internal combustion engine is initiated. a port warm-up judgment section, which is configured to judge whether the port has been warmed up; and an injection mode determination section, which is configured to determine the injection mode (MODE) to be executed by the internal combustion engine based on an engine speed and an engine load,
A method for aligning network flows to processing resources, the method comprising: transmitting, by a computing device having a plurality of processing nodes (112;114,116), to a network controller, architectural data describing hardware and/or software components of the computing device, wherein each processing node (112;114,116) includes a processor (120,140), a memory (126,146), and a network adapter (136,156), and wherein the architectural data includes information indicative of applications executed by each processing node (112;114,116); receiving, by the computing device, network flow information from the network controller, wherein the network flow information is associated with a network packet and identifies a target processing node (112;114;116) of the plurality of processing nodes to process the network packet based at least on an application executed by the target processing node; programming, by the computing device, a flow filter (138;158) in the network adapter (136;156) of the target processing node (112;114;116) based at least on the network flow information to specify a memory queue (132;134;152;154) in the memory (126;146) of the target processing node (112;114;116) to receive the network packet; and receiving, by the network adapter (136;156) of the target processing node (112;114;116), the network packet from a network switch, whereby the network packet is received by the specified memory queue for processing by the application executed by the target processing node (112;114;116). transmitting, by a computing device having a plurality of processing nodes (112;114,116), to a network controller, architectural data describing hardware and/or software components of the computing device, wherein each processing node (112;114,116) includes a processor (120,140), a memory (126,146), and a network adapter (136,156), and wherein the architectural data includes information indicative of applications executed by each processing node (112;114,116); receiving, by the computing device, network flow information from the network controller, wherein the network flow information is associated with a network packet and identifies a target processing node (112;114;116) of the plurality of processing nodes to process the network packet based at least on an application executed by the target processing node; programming, by the computing device, a flow filter (138;158) in the network adapter (136;156) of the target processing node (112;114;116) based at least on the network flow information to specify a memory queue (132;134;152;154) in the memory (126;146) of the target processing node (112;114;116) to receive the network packet; and receiving, by the network adapter (136;156) of the target processing node (112;114;116), the network packet from a network switch, whereby the network packet is received by the specified memory queue for processing by the application executed by the target processing node (112;114;116).
A device for secured binding of a boot on a first ski comprising: - binding means of the boot on the first ski configured to facilitate disengagement between the boot and the first ski on receipt of a disengagement signal, - a control circuit configured to: • determine an angular deviation between a first direction of the first ski and a second direction of a second ski, • determine the forward progression of the first and second skis along the longitudinal axis of each of said skis, • calculate at least one parameter from the angular deviation and from the forward progressions of the first and second skis, compare the parameter with a threshold parameter, and transmit the disengagement signal according to the comparison. - binding means of the boot on the first ski configured to facilitate disengagement between the boot and the first ski on receipt of a disengagement signal, - a control circuit configured to: • determine an angular deviation between a first direction of the first ski and a second direction of a second ski, • determine the forward progression of the first and second skis along the longitudinal axis of each of said skis, • calculate at least one parameter from the angular deviation and from the forward progressions of the first and second skis, compare the parameter with a threshold parameter, and transmit the disengagement signal according to the comparison. • determine an angular deviation between a first direction of the first ski and a second direction of a second ski, • determine the forward progression of the first and second skis along the longitudinal axis of each of said skis, • calculate at least one parameter from the angular deviation and from the forward progressions of the first and second skis, compare the parameter with a threshold parameter, and transmit the disengagement signal according to the comparison.
A method for measuring the own thermal resistance of a magnetic device in the form of a choking-coil and the mutual thermal resistance between the core and winding of the choking-coil, where the winding resistance, whose thermometric characteristics slope describes the temperature coefficient of copper resistivity changes ρ Cu, is measured as a thermally sensitive parameter, the measurement being carried out in three stages, including in turn measurements and calculations based on analytical formulae, characterized in that at the first stage of measurement the winding resistance R 3 is measured at a low value of the current I 3 and the core temperature T a is measured using a radiometric pyrometer, at the second stage measurements are made, in a thermal steady state, of the winding resistance R 4 and, with a radiometric pyrometer, the choking-coil core temperature T r at a high value of the choking-coil current I 4, and at the third stage the value of the winding thermal resistance R thu and the mutual thermal resistance between the choking-coil core and the winding, R thur, are calculated from formulae: R thu = R 4 − R 3 R 3 ⋅ ρ Cu ⋅ I 4 2 ⋅ R 4 R thur = T r − T a I 4 2 ⋅ R 4 where the respective symbols denote: R 3 - choking-coil resistance at the first stage of measurement, R 4 - choking-coil resistance at the second stage of measurement, I 4 - choking-coil current at the second stage of measurement, T a - core temperature at the first stage of measurement, T r - core temperature at the second stage of measurement, R thu - thermal resistance of the choking-coil winding, R thur - mutual thermal resistance between the choking-coil winding and core. R 3 - choking-coil resistance at the first stage of measurement, R 4 - choking-coil resistance at the second stage of measurement, I 4 - choking-coil current at the second stage of measurement, T a - core temperature at the first stage of measurement, T r - core temperature at the second stage of measurement, R thu - thermal resistance of the choking-coil winding, R thur - mutual thermal resistance between the choking-coil winding and core.
Heat insulation for railway rails, having at least one inner insulating element and at least one outer insulating element, which are shaped in order to be mounted lying parallel to each other on a railway rail, characterized in that, in the mounted state, the outer insulating element surrounds the rail foot at a lateral end region of the rail foot in a form-fitting manner and extends with an upper part in the longitudinal direction along the railway rail in relation to the rail web, at a distance from the rail web, and with a lower part on the lower side of the railway rail, and the inner insulating element is arranged in the region of the distance between the outer insulating element and the rail web and is held on the rail track by means of the outer insulating element.
A memory device comprising: a first clock generator configured to generate a first clock signal (RCLKb) used for read and write operations; a second clock generator configured to generate a second clock signal (WCLKb) used for write operations; a memory array comprising memory cells and dummy cells; characterised in that: the first clock generator comprises a first circuit configured to generate leading edges on the first clock signal based on an external clock signal and to generate trailing edges on the first clock signal based on a first reset signal, the second clock generator is configured to receive a second reset signal and the external clock signal, wherein a reset circuit is configured to generate the first reset signal (Reset_R) for the first clock generator and the second reset signal (Reset_W) for the second clock generator. a first clock generator configured to generate a first clock signal (RCLKb) used for read and write operations; a second clock generator configured to generate a second clock signal (WCLKb) used for write operations; a memory array comprising memory cells and dummy cells; characterised in that: the first clock generator comprises a first circuit configured to generate leading edges on the first clock signal based on an external clock signal and to generate trailing edges on the first clock signal based on a first reset signal, the second clock generator is configured to receive a second reset signal and the external clock signal, wherein a reset circuit is configured to generate the first reset signal (Reset_R) for the first clock generator and the second reset signal (Reset_W) for the second clock generator. the first clock generator comprises a first circuit configured to generate leading edges on the first clock signal based on an external clock signal and to generate trailing edges on the first clock signal based on a first reset signal, the second clock generator is configured to receive a second reset signal and the external clock signal, wherein a reset circuit is configured to generate the first reset signal (Reset_R) for the first clock generator and the second reset signal (Reset_W) for the second clock generator.
Method for operating a washing machine comprising a suds container for receiving washing liquid for treating laundry, and comprising a heating member and a circulation device, the method comprising a washing phase using the heating member, which is switched on, for heating the washing liquid and the activated circulation device which conveys the washing liquid from the lower region of the suds container into the upper region, relative to the operational installation position of the washing machine, characterised by a soaking stage at the start of the washing phase, comprising the following steps: a) admitting an amount of water while adding detergent into the suds container, the amount of water being such that the items to be washed are not completely saturated, and rotating the drum in a reverse rhythm at a first speed that is below the speed causing the laundry to be applied against the drum, b) activating the circulation device until the level of washing liquid reaches a lower threshold value, c) rotating the drum at a second speed that is higher than the first speed and above the speed causing the laundry to be applied against the drum, which results in a spinning effect that expels washing liquid from the items to be washed and a rise in the level of the washing liquid up to an upper value, d) rotating the drum at the first speed until the level reaches the lower threshold value (Niv 2), the circulation device (17, 17a) being activated in an uninterrupted manner in steps c) and d). a) admitting an amount of water while adding detergent into the suds container, the amount of water being such that the items to be washed are not completely saturated, and rotating the drum in a reverse rhythm at a first speed that is below the speed causing the laundry to be applied against the drum, b) activating the circulation device until the level of washing liquid reaches a lower threshold value, c) rotating the drum at a second speed that is higher than the first speed and above the speed causing the laundry to be applied against the drum, which results in a spinning effect that expels washing liquid from the items to be washed and a rise in the level of the washing liquid up to an upper value, d) rotating the drum at the first speed until the level reaches the lower threshold value (Niv 2),
A lubricating oil composition comprising: a lubricating base oil with a kinematic viscosity at 100°C of 1-6 mm 2 /s, a %C p of 70 or greater and a %C A of no greater than 2, the %C p and the %C A being determined according to ASTM D 3238-85 (n-d-M ring analysis), a styrene-diene hydrogenated copolymer viscosity index improver with a PSSI of no greater than 20, the PSSI value being obtained by calculation according to ASTM D6022-01 based on data measured according to ASTM D6278-02, and a weight-average molecular weight of 10,000 to 100,000, and a poly(meth)acrylate-based viscosity index improver with a weight-average molecular weight of 5,000 to 700,000, wherein the proportion of said lubricating base oil is at least 50% by mass based on the total amount of base oil, the content of said styrene-diene hydrogenated copolymer viscosity index improver is 0.1-15.0 % by mass based on the total amount of the lubricating oil composition, and the content of said poly(meth)acrylate-based viscosity index improver is 0.5-9.0 % by mass based on the total amount of the lubricating oil composition. a lubricating base oil with a kinematic viscosity at 100°C of 1-6 mm 2 /s, a %C p of 70 or greater and a %C A of no greater than 2, the %C p and the %C A being determined according to ASTM D 3238-85 (n-d-M ring analysis), a styrene-diene hydrogenated copolymer viscosity index improver with a PSSI of no greater than 20, the PSSI value being obtained by calculation according to ASTM D6022-01 based on data measured according to ASTM D6278-02, and a weight-average molecular weight of 10,000 to 100,000, and a poly(meth)acrylate-based viscosity index improver with a weight-average molecular weight of 5,000 to 700,000, wherein the proportion of said lubricating base oil is at least 50% by mass based on the total amount of base oil, the content of said styrene-diene hydrogenated copolymer viscosity index improver is 0.1-15.0 % by mass based on the total amount of the lubricating oil composition, and the content of said poly(meth)acrylate-based viscosity index improver is 0.5-9.0 % by mass based on the total amount of the lubricating oil composition.