mhurhangee/ep-ind-claims huggingface dataset:
A vehicle remote control method comprising the steps of: detecting an input position at which a touch operation is performed by an operator on a touch panel of a remote operation device; and detecting a gesture for remotely controlling a vehicle; determining whether or not the detected gesture is a command gesture (G1, G2, G3, G4, G5, G6, G7) that is preliminarily set; and when the gesture is the command gesture (G1, G2, G3, G4, G5, G6, G7) (S104: Yes), controlling the vehicle to execute autonomous travel control, the vehicle having an autonomous travel control function, characterized by the step of making a gesture determination area (GaO, Ga1, Ga2) variable in accordance with the input position, the gesture determination area (GaO, Ga1, Ga2) being an area in which a gesture for remotely controlling a vehicle is received; in that said detecting step detecting the gesture from the gesture determination area (GaO, Ga1, Ga2); and by the steps of setting a first gesture determination area at a preliminarily set position before the autonomous travel control is started; and setting a new gesture determination area in accordance with the input position after the autonomous travel control is started. detecting an input position at which a touch operation is performed by an operator on a touch panel of a remote operation device; and detecting a gesture for remotely controlling a vehicle; determining whether or not the detected gesture is a command gesture (G1, G2, G3, G4, G5, G6, G7) that is preliminarily set; and when the gesture is the command gesture (G1, G2, G3, G4, G5, G6, G7) (S104: Yes), controlling the vehicle to execute autonomous travel control, the vehicle having an autonomous travel control function, characterized by the step of making a gesture determination area (GaO, Ga1, Ga2) variable in accordance with the input position, the gesture determination area (GaO, Ga1, Ga2) being an area in which a gesture for remotely controlling a vehicle is received; in that said detecting step detecting the gesture from the gesture determination area (GaO, Ga1, Ga2); and by the steps of setting a first gesture determination area at a preliminarily set position before the autonomous travel control is started; and setting a new gesture determination area in accordance with the input position after the autonomous travel control is started.
Method for an apparatus of a radio access network, RAN, node, the method comprising: determining to disable a wake up signal, WUS, feature of the RAN node; informing, via the interface to the RF circuitry, a mobility management entity, MME, to which the RAN node is connected, that the WUS feature of the RAN node is disabled; and causing, via the interface to the RF circuitry, system information to be broadcast to user equipment, UE, in IDLE mode, indicating that the WUS feature of the RAN node has been disabled, characterized in that the determining to disable the WUS feature is based on network congestion. determining to disable a wake up signal, WUS, feature of the RAN node; informing, via the interface to the RF circuitry, a mobility management entity, MME, to which the RAN node is connected, that the WUS feature of the RAN node is disabled; and causing, via the interface to the RF circuitry, system information to be broadcast to user equipment, UE, in IDLE mode, indicating that the WUS feature of the RAN node has been disabled, characterized in that the determining to disable the WUS feature is based on network congestion.
A balanced magnetoresistive frequency mixer, comprising: a spiral coil, a balanced magnetoresistive sensor bridge, and a magnetic shielding layer, wherein the spiral coil is located between the magnetic shielding layer and the balanced magnetoresistive sensor bridge, the spiral coil comprises a first spiral coil and a second spiral coil, an upper surface or a lower surface of the first spiral coil has a first sub region and a second sub region in which the current flows in opposite directions, an upper surface or a lower surface of the second spiral coil has a third sub region in which the current flows in one direction, the balanced magnetoresistive sensor bridge comprises a magnetoresistive full bridge and at least one balancing magnetoresistive arm (331, 332, 33) connected to the magnetoresistive full bridge, the magnetoresistive full bridge consists of four magnetoresistive bridge arms (311, 312, 31, 321, 322, 32), two of which are located in the first sub region and the other two are located in the second sub region, and the at least one balancing magnetoresistive arm (331, 332, 33) is located in the third sub region; the balanced magnetoresistive frequency mixer is configured such that a first frequency signal is input into the first spiral coil, a second frequency signal is input into the second spiral coil, and a frequency-mixed signal is output from a signal output end of the magnetoresistive full bridge, wherein the output frequency of the frequency-mixed signal is a sum of or a difference between the frequencies of the first frequency signal and the second frequency signal. a spiral coil, a balanced magnetoresistive sensor bridge, and a magnetic shielding layer, wherein the spiral coil is located between the magnetic shielding layer and the balanced magnetoresistive sensor bridge, the spiral coil comprises a first spiral coil and a second spiral coil, an upper surface or a lower surface of the first spiral coil has a first sub region and a second sub region in which the current flows in opposite directions, an upper surface or a lower surface of the second spiral coil has a third sub region in which the current flows in one direction, the balanced magnetoresistive sensor bridge comprises a magnetoresistive full bridge and at least one balancing magnetoresistive arm (331, 332, 33) connected to the magnetoresistive full bridge, the magnetoresistive full bridge consists of four magnetoresistive bridge arms (311, 312, 31, 321, 322, 32), two of which are located in the first sub region and the other two are located in the second sub region, and the at least one balancing magnetoresistive arm (331, 332, 33) is located in the third sub region; the balanced magnetoresistive frequency mixer is configured such that a first frequency signal is input into the first spiral coil, a second frequency signal is input into the second spiral coil, and a frequency-mixed signal is output from a signal output end of the magnetoresistive full bridge, wherein the output frequency of the frequency-mixed signal is a sum of or a difference between the frequencies of the first frequency signal and the second frequency signal.
A connector for devices intended for collecting and dispensing liquid solutions for pharmaceutical and/or nutritional use, comprising a closing plug pierceable by pressing a needleless introduction/collection tang, wherein the closing plug comprises a check valve with closing lips which can be opened by introducing said tang and elastically reclose after extracting the introduced tang, wherein said closing plug is formed by a single body of elastically deformable material which is partially passed through longitudinally by a thin rectangular-section slot, which is open at the lower end to form said closing lips and is closed at the upper end by a pierceable and elastically sealingly reclosable thin membrane made in one piece with said single body, characterized in that the lower face of the single body is provided with concave external recesses which extend laterally with increasing concavity from the lower end of the closing lips to the lateral surface of the single body.
A compound represented by the following formula: wherein A represents an optionally substituted aromatic ring or heterocyclic ring; X represents an oxygen atom; Ar represents an aromatic ring or heterocyclic ring having a substituent group, provided that the total for the Hamet's value is more than 0 for the substituent present on the Ar skeleton; R 4 and R 5 each independently represents a hydrogen atom or a monovalent non-metallic atomic group; and A and R 4 or R 5 may be bonded to each other to form an aliphatic or aromatic ring.
An ignition-source detecting system comprising: an electronic processor configured to control the ignition-source detecting system; wherein the electronic processor is further configured to provide power to at least one detector (21, 22) at a voltage that is modulated between a high voltage and a low voltage with a predetermined time interval; and the at least one detector (21, 22) is configured to detect radiation in a container, the at least one detector (21, 22) being further configured to make a decision to identify to the electronic processor that a hazardous event has occurred by modifying the duration of either the high or low voltage, wherein the electronic processor is located in close proximity to the container and the detector, wherein the electronic processor is mounted within the same hazardous environment as the container and the detector; the ignition-source detecting system further comprising: at least one spray nozzle configured to release a fluid; and at least one valve configured to control flow of the fluid to the spray nozzle in response to a signal received from the electronic processor; wherein the processor is configured to interpret the voltage modifications as a radiation detection event and, in response thereto, to send the signal to the valve. an electronic processor configured to control the ignition-source detecting system; wherein the electronic processor is further configured to provide power to at least one detector (21, 22) at a voltage that is modulated between a high voltage and a low voltage with a predetermined time interval; and the at least one detector (21, 22) is configured to detect radiation in a container, the at least one detector (21, 22) being further configured to make a decision to identify to the electronic processor that a hazardous event has occurred by modifying the duration of either the high or low voltage, wherein the electronic processor is located in close proximity to the container and the detector, wherein the electronic processor is mounted within the same hazardous environment as the container and the detector; the ignition-source detecting system further comprising: at least one spray nozzle configured to release a fluid; and at least one valve configured to control flow of the fluid to the spray nozzle in response to a signal received from the electronic processor; wherein the processor is configured to interpret the voltage modifications as a radiation detection event and, in response thereto, to send the signal to the valve. at least one spray nozzle configured to release a fluid; and at least one valve configured to control flow of the fluid to the spray nozzle in response to a signal received from the electronic processor; wherein the processor is configured to interpret the voltage modifications as a radiation detection event and, in response thereto, to send the signal to the valve.
A wire electrical discharge machine which comprises a machining power supply, a numerical controller, at least one linear axis (X, Y), and a rotation axis extending parallel to the linear axis, and wherein a workpiece is moved relative to a wire electrode, which is stretched under tension between an upper wire guide and a lower wire guide, along the linear axis and is rotated about the rotation axis, according to a machining program, whereby the workpiece is machined, characterised in that the numerical controller comprises: an average rotation radius calculation unit (40, 41) configured to calculate an average rotation radius (Rm) based on an outer radius and an inner radius of the workpiece designated in each block of the machining program; a current average rotation radius calculation unit (40, 41) configured to calculate a current average rotation radius (Ra) at a current workpiece machining point for each predetermined period, based on average rotation radii at respective end points of a block to be executed and a directly preceding block, which are calculated by the average rotation radius calculation unit, and an amount of movement (ΔA) of the rotation axis; and a control unit (40, 41) configured to perform control such that the speed of relative movement of the wire electrode and the workpiece machining point agrees with a command speed (Fc) acquired from the machining power supply, based on the current average rotation radius calculated by the current rotation radius calculation unit. an average rotation radius calculation unit (40, 41) configured to calculate an average rotation radius (Rm) based on an outer radius and an inner radius of the workpiece designated in each block of the machining program; a current average rotation radius calculation unit (40, 41) configured to calculate a current average rotation radius (Ra) at a current workpiece machining point for each predetermined period, based on average rotation radii at respective end points of a block to be executed and a directly preceding block, which are calculated by the average rotation radius calculation unit, and an amount of movement (ΔA) of the rotation axis; and a control unit (40, 41) configured to perform control such that the speed of relative movement of the wire electrode and the workpiece machining point agrees with a command speed (Fc) acquired from the machining power supply, based on the current average rotation radius calculated by the current rotation radius calculation unit.
Method for treating the exhaust gases issuing from an internal combustion engine in a motor vehicle comprising an exhaust line provided with a selective catalytic reducer, hereinafter SCR, and a reservoir comprising an agent for reducing nitrogen oxides (NOx), this method comprising the following steps: - determining the actual quantity of NOx, present in the exhaust gases, - determining a quantity of NOx to be treated according to a predetermined limit quantity of NOx to be discharged into the atmosphere, - determining a flow of reducing agent to be injected into the SCR in order to eliminate the quantity of NOx to be treated, - injecting the flow of reducing agent previously determined into the SCR, from the reservoir, - modifying operating parameters of the engine in order to vary the quantity of NOx produced by the engine, characterised in that the modification to the operating parameters of the engine is done on the basis of a dimensionless number calculated in accordance with the following steps: - calculation of the volume of reducing agent injected into the SCR between two consecutive fillings of the reservoir, - measurement of the distance travelled by the vehicle between two consecutive fillings of the reservoir, - calculation of a discretised flow by dividing the volume of reducing agent injected by the distance travelled, - calculation of the dimensionless number by dividing the discretised flow by a limit consumption of predetermined reducing agent, if the dimensionless number is greater than 1, the parameters of the engine are modified in order to reduce the quantity of NOx produced by the engine. - determining the actual quantity of NOx, present in the exhaust gases, - determining a quantity of NOx to be treated according to a predetermined limit quantity of NOx to be discharged into the atmosphere, - determining a flow of reducing agent to be injected into the SCR in order to eliminate the quantity of NOx to be treated, - injecting the flow of reducing agent previously determined into the SCR, from the reservoir, - modifying operating parameters of the engine in order to vary the quantity of NOx produced by the engine, characterised in that the modification to the operating parameters of the engine is done on the basis of a dimensionless number calculated in accordance with the following steps: - calculation of the volume of reducing agent injected into the SCR between two consecutive fillings of the reservoir, - measurement of the distance travelled by the vehicle between two consecutive fillings of the reservoir, - calculation of a discretised flow by dividing the volume of reducing agent injected by the distance travelled, - calculation of the dimensionless number by dividing the discretised flow by a limit consumption of predetermined reducing agent,
A method of manufacture of a composite moulding material comprising a fibrous layer and a graphene / graphitic dispersion applied to the fibrous layer at one or more localised regions over a surface of the fibrous layer in which the graphene / graphitic dispersion is comprised of graphene nanoplates, graphene oxide nanoplates, reduced graphene oxide nanoplates, bilayer graphene nanoplates, bilayer graphene oxide nanoplates, bilayer reduced graphene oxide nanoplates, few-layer graphene nanoplates, few-layer graphene oxide nanoplates, few-layer reduced graphene oxide nanoplates, graphene / graphite nanoplates of 6 to 14 layers of carbon atoms, graphite flakes with nanoscale dimensions and 40 or less layers of carbon atoms, graphite flakes with nanoscale dimensions and 25 to 30 layers of carbon atoms, graphite flakes with nanoscale dimensions and 25 to 35 layers of carbon atoms, graphite flakes with nanoscale dimensions and 20 to 35 layers of carbon atoms, or graphite flakes with nanoscale dimensions and 20 to 40 layers of carbon atoms, in which the dispersion is applied to the fibrous layer using at least one valvejet print head.
Device for supporting a pair of windscreen wiper blades (12, 26; 13, 27) comprising a first and a second supporting grooves (14, 28) respectively provided with retaining means based on the elastic fitting of at least one laterally extending structural element (22; 54) of two respective blades (12, 26; 13, 27), the supporting grooves (14, 28) being arranged side by side with a common wall, the supporting grooves having two respective openings emerging in planes that are parallel and offset (R1, R2), the second supporting groove being arranged above the first supporting groove and having a substantially flared form, characterized in that said openings belong to one and the same side of the supporting device.
A heat exchanger comprising: a plurality of flat tubes (21, 21A) that each have a cross-sectional shape perpendicular to a direction of flow of refrigerant with a width direction that extends in an air flow direction; and a plurality of heat transfer fins (31, 31A) each having a plurality of notches configured to receive the plurality of flat tubes, the plurality of notches being along the width direction of the plurality of flat tubes, the plurality of heat transfer fins including at least three standing portions (61, 62, 63) provided on a peripheral portion of each of the plurality of notches for forming gaps between adjacent heat transfer fins, and the at least three standing portions being arranged so as not to face each other across a reference line that extends in the width direction through a perpendicular center portion of the flat tube; wherein each of the plurality of heat transfer fins includes, in the notch, a plurality of the standing portions on each of two long sides (68, 69) that face each other across the reference line; characterized in that in each of the plurality of heat transfer fins, when viewed from an air flow direction, a height at which intervals between the standing portions disposed on one of the long sides of the notch and the standing portions disposed on the other of the long sides of the notch is at a minimum is less than half of a height of the standing portion. a plurality of flat tubes (21, 21A) that each have a cross-sectional shape perpendicular to a direction of flow of refrigerant with a width direction that extends in an air flow direction; and a plurality of heat transfer fins (31, 31A) each having a plurality of notches configured to receive the plurality of flat tubes, the plurality of notches being along the width direction of the plurality of flat tubes, the plurality of heat transfer fins including at least three standing portions (61, 62, 63) provided on a peripheral portion of each of the plurality of notches for forming gaps between adjacent heat transfer fins, and the at least three standing portions being arranged so as not to face each other across a reference line that extends in the width direction through a perpendicular center portion of the flat tube; wherein each of the plurality of heat transfer fins includes, in the notch, a plurality of the standing portions on each of two long sides (68, 69) that face each other across the reference line; characterized in that in each of the plurality of heat transfer fins, when viewed from an air flow direction, a height at which intervals between the standing portions disposed on one of the long sides of the notch and the standing portions disposed on the other of the long sides of the notch is at a minimum is less than half of a height of the standing portion.
A support plate (10A, 10B, 10D) for installing facing materials on a substrate comprising: a sheet material having a top surface and a bottom surface; an underlay mat of non-woven fabric material having a first side bonded to the bottom surface of the sheet material and a second side that is only the non-woven fabric material of the underlay mat; a plurality of spaced apart adjacent raised portions of the sheet material and a plurality of spaced apart recesses (20, 21) of the sheet material residing in rows and columns across the support plate (10A, 10B, 10D); characterized in that the support plate (10A, 10B, 10D) comprises a plurality of openings (30A, 30B, 30C) residing in the sheet material between at least three adjacent raised portions of the sheet material and adjacent one or more of the recesses (20, 21) of the sheet material, the plurality of openings (30A, 30B, 30C) extending through the sheet material and exposing the underlay mat such that when mortar (200, 210) is applied over the top surface the mortar (200, 210) fills the plurality of spaced apart recesses (20, 21) and the plurality of openings (30A, 30B, 30C) making direct contact with the upper surface of the underlay mat to form an interlocking bond there-between. a sheet material having a top surface and a bottom surface; an underlay mat of non-woven fabric material having a first side bonded to the bottom surface of the sheet material and a second side that is only the non-woven fabric material of the underlay mat; a plurality of spaced apart adjacent raised portions of the sheet material and a plurality of spaced apart recesses (20, 21) of the sheet material residing in rows and columns across the support plate (10A, 10B, 10D); characterized in that the support plate (10A, 10B, 10D) comprises a plurality of openings (30A, 30B, 30C) residing in the sheet material between at least three adjacent raised portions of the sheet material and adjacent one or more of the recesses (20, 21) of the sheet material, the plurality of openings (30A, 30B, 30C) extending through the sheet material and exposing the underlay mat such that when mortar (200, 210) is applied over the top surface the mortar (200, 210) fills the plurality of spaced apart recesses (20, 21) and the plurality of openings (30A, 30B, 30C) making direct contact with the upper surface of the underlay mat to form an interlocking bond there-between.