mhurhangee/patent-ind-claim-en huggingface dataset:
A collision avoidance device comprising: a collision avoidance executor (62; 63; 64) that can execute a collision avoidance function for a vehicle to avoid collision with an object to be avoided; a determiner that determines, when a driver operates a steering, whether to be able to avoid the collision with the object to be avoided, based on a turning parameter related to a turning caused by the steering; and a collision avoidance controller that inhibits the execution of the collision avoidance function when the collision with the object to be avoided is determined to be avoidable, characterized in that the determiner determines whether to be able to avoid the collision with the object to be avoided by determining whether a lateral acceleration or a yaw rate serving as the turning parameter is equal to or greater than a first threshold, and the collision avoidance controller inhibits the execution of the collision avoidance function when the lateral acceleration or the yaw rate of a vehicle is equal to or greater than the first threshold. a collision avoidance executor (62; 63; 64) that can execute a collision avoidance function for a vehicle to avoid collision with an object to be avoided; a determiner that determines, when a driver operates a steering, whether to be able to avoid the collision with the object to be avoided, based on a turning parameter related to a turning caused by the steering; and a collision avoidance controller that inhibits the execution of the collision avoidance function when the collision with the object to be avoided is determined to be avoidable, characterized in that the determiner determines whether to be able to avoid the collision with the object to be avoided by determining whether a lateral acceleration or a yaw rate serving as the turning parameter is equal to or greater than a first threshold, and the collision avoidance controller inhibits the execution of the collision avoidance function when the lateral acceleration or the yaw rate of a vehicle is equal to or greater than the first threshold.
Grinding machine comprising at least a wheel head arranged at a headstock and a measuring unit for in process measurement during machining operation, comprising a measuring head , which is movable between a rest position and a measuring position, and means for moving the measuring head between the rest position and the measuring position and a control unit, characterized in that the measuring unit comprises a base element , which is attached to the headstock of the grinding machine as to be pivotable about a pivot axis and an arm to connect the measuring head to the base element , wherein the rest position and the measuring position of the measuring head are infinitely adjustable by a user by controlling pivoting of the base element about the pivot axis by a motorized drive unit as the means for moving the measuring head and by the control unit, and that the measuring head is movable into a reference position before and/or after measuring in the measuring position to determine reference data of a reference surface processable by the control unit and measurement data determined in the measuring position of the measuring head is related to the reference data determined in the reference position such that each measurement of workpiece dimensions presents differential measurement. characterized in that the measuring unit comprises a base element , which is attached to the headstock of the grinding machine as to be pivotable about a pivot axis and an arm to connect the measuring head to the base element , wherein the rest position and the measuring position of the measuring head are infinitely adjustable by a user by controlling pivoting of the base element about the pivot axis by a motorized drive unit as the means for moving the measuring head and by the control unit, and that the measuring head is movable into a reference position before and/or after measuring in the measuring position to determine reference data of a reference surface processable by the control unit and measurement data determined in the measuring position of the measuring head is related to the reference data determined in the reference position such that each measurement of workpiece dimensions presents differential measurement.
A method for operating a powder bed-based manufacturing device for additive manufacturing of a component from a powder material , wherein - an optical recording of a working powder layer of a powder material is made at a construction site of the manufacturing device , wherein - the at least one optical recording is evaluated locally, wherein - the working powder layer is examined for local coating defects using the evaluation of the at least one optical recording, wherein - the at least one optical recording is created with a resolution that is selected in relation to an average powder grain size of the powder material such that brightness variations in individual pixels of the optical recording due to locally different arrangements of powder grains of the powder material can be determined, wherein - a first optical recording (A) of a first working powder layer and a second optical recording (B) of a second, preceding working powder layer are made, characterised in - that a coating defect is locally detected where a difference between the first optical recording (A) and the second optical recording (B) is less than a predetermined limit difference or is non-existent, and/or - that the first optical recording (A) is correlated with the second optical recording (B), wherein a correlation image (C) is generated, wherein the correlation image (C) is examined for local coating defects. - an optical recording of a working powder layer of a powder material is made at a construction site of the manufacturing device , wherein - the at least one optical recording is evaluated locally, wherein - the working powder layer is examined for local coating defects using the evaluation of the at least one optical recording, wherein - the at least one optical recording is created with a resolution that is selected in relation to an average powder grain size of the powder material such that brightness variations in individual pixels of the optical recording due to locally different arrangements of powder grains of the powder material can be determined, wherein - a first optical recording (A) of a first working powder layer and a second optical recording (B) of a second, preceding working powder layer are made, - that a coating defect is locally detected where a difference between the first optical recording (A) and the second optical recording (B) is less than a predetermined limit difference or is non-existent, and/or - that the first optical recording (A) is correlated with the second optical recording (B), wherein a correlation image (C) is generated, wherein the correlation image (C) is examined for local coating defects.
Data-transmission device having an elongated hollow profile with a cavity running in a longitudinal direction of the hollow profile and a longitudinal slot running in longitudinal direction and a transmitting and/or receiving unit , wherein the elongated hollow profile is a slotted waveguide and the transmitting and/or receiving unit is an antenna for data transmission to and from the slotted waveguide , and wherein the hollow profile and/or the transmitting and/or receiving unit are movable towards one another for moving in and moving out of the transmitting and/or receiving unit into the longitudinal slot of the hollow profile in at least one delivery direction (Z) by means of a delivery device , characterised in that guide walls of an introduction funnel moving towards one another lead into the longitudinal slot of the hollow profile , wherein a resetting device is provided which exerts a resetting force on the transmitting and/or receiving unit in the direction of the longitudinal slot on displacement of the transmitting and/or receiving unit from a preset rest position in delivery direction (Z) away from the longitudinal slot .
A method comprising: converting black powder flowing with hydrocarbons in a hydrocarbon pipeline into a magnetorheological slurry by implementing wet scrubbing in the hydrocarbon pipeline; and controlling a flow of the magnetorheological slurry through the hydrocarbon pipeline. converting black powder flowing with hydrocarbons in a hydrocarbon pipeline into a magnetorheological slurry by implementing wet scrubbing in the hydrocarbon pipeline; and controlling a flow of the magnetorheological slurry through the hydrocarbon pipeline.
A sensor device comprising: a housing defining a cavity , an inlet to receive fluid pumped from an instrument device , an outlet to return the fluid to a fluid reservoir , and a fluid channel defined inside the cavity between the inlet and the outlet ; a heat pump mounted inside the cavity , the heat pump having a side surface thermally coupled to the fluid channel , and an opposite side surface thermally coupled to a plate , the heat pump configured to induce a temperature change; and a sensor unit aligned with an aperture in the plate , the sensor unit including an optical component and a thermal component , the optical component being configured to measure a vascular endothelial response from the induced temperature change. a housing defining a cavity , an inlet to receive fluid pumped from an instrument device , an outlet to return the fluid to a fluid reservoir , and a fluid channel defined inside the cavity between the inlet and the outlet ; a heat pump mounted inside the cavity , the heat pump having a side surface thermally coupled to the fluid channel , and an opposite side surface thermally coupled to a plate , the heat pump configured to induce a temperature change; and a sensor unit aligned with an aperture in the plate , the sensor unit including an optical component and a thermal component , the optical component being configured to measure a vascular endothelial response from the induced temperature change.
A control method for driver assistance, comprising: receiving positioning information of a vehicle (S110); obtaining information about a road structure ahead of the vehicle based on the positioning information (S120); and determining, based on the information about the road structure, whether an alarm for a sharp bend is needed (S130), characterized in that the determining, based on the information about the road structure, whether an alarm for a sharp bend is needed comprises: calculating a safe radius of curvature based on the information about the road structure; and determining, based on the safe radius of curvature, whether the alarm for a sharp bend is needed, and wherein the calculating a safe radius of curvature based on the information about the road structure comprises: calculating a minimum value of a safe sight distance on a road based on a value of a speed limit on the road or an actual vehicle speed of a current vehicle; and calculating the safe radius of curvature based on the information about the road structure and the minimum value of the safe sight distance on the road. receiving positioning information of a vehicle (S110); obtaining information about a road structure ahead of the vehicle based on the positioning information (S120); and determining, based on the information about the road structure, whether an alarm for a sharp bend is needed (S130), characterized in that the determining, based on the information about the road structure, whether an alarm for a sharp bend is needed comprises: calculating a safe radius of curvature based on the information about the road structure; and determining, based on the safe radius of curvature, whether the alarm for a sharp bend is needed, and calculating a safe radius of curvature based on the information about the road structure; and determining, based on the safe radius of curvature, whether the alarm for a sharp bend is needed, and wherein the calculating a safe radius of curvature based on the information about the road structure comprises: calculating a minimum value of a safe sight distance on a road based on a value of a speed limit on the road or an actual vehicle speed of a current vehicle; and calculating the safe radius of curvature based on the information about the road structure and the minimum value of the safe sight distance on the road. calculating a minimum value of a safe sight distance on a road based on a value of a speed limit on the road or an actual vehicle speed of a current vehicle; and calculating the safe radius of curvature based on the information about the road structure and the minimum value of the safe sight distance on the road.
A mounting machine comprising: a first supply device configured to supply a component at a supply position a mounting head including a holding tool configured to hold a component supplied by the supply device ; a first sensor configured to detect foreign matter in a predetermined range including a space above the supply position ; and a control device including a determination section configured to determine whether foreign matter exists in the predetermined range based on a result of a detection executed by the sensor at a timing other than a timing at which the holding tool performs a picking up operation at the supply position characterized in that the determination section is configured to determine whether foreign matter exists in the predetermined range based on a result of a detection executed by the sensor in an intervening period from when a component has been picked up by the holding tool at the supply position until another component is picked up by the holding tool at the supply position after the previously picked up component is mounted. a first supply device configured to supply a component at a supply position a mounting head including a holding tool configured to hold a component supplied by the supply device ; a first sensor configured to detect foreign matter in a predetermined range including a space above the supply position ; and a control device including a determination section configured to determine whether foreign matter exists in the predetermined range based on a result of a detection executed by the sensor at a timing other than a timing at which the holding tool performs a picking up operation at the supply position characterized in that the determination section is configured to determine whether foreign matter exists in the predetermined range based on a result of a detection executed by the sensor in an intervening period from when a component has been picked up by the holding tool at the supply position until another component is picked up by the holding tool at the supply position after the previously picked up component is mounted.
Air/sludge separator for separating out particles and/or air bubbles , contained in a liquid, comprising a separator housing which has an inlet opening for the liquid to be cleaned and has an outlet opening for the cleaned liquid, wherein, in the separator housing , an externally actuatable rotary slide is mounted so as to be rotatable between a shut-off position and an open position, characterized in that the rotary slide is in the form of an externally circular-cylindrical rotary slide bush with two bush wall openings , which, in the shut-off position, closes off the inlet and outlet openings and which, in the open position, opens up said openings, and the separator housing has in the region of the inlet and outlet openings a circular-cylindrical inner wall in which the rotary slide bush is rotatably mounted, wherein, in the open position, the bush wall openings overlap the inlet and outlet openings and, in the shut-off position, the inlet and outlet openings are closed off by the bush wall of the rotary slide bush .
A semiconductor substrate comprising: a single-crystalline SiC substrate ; and a polycrystalline SiC substrate , wherein the single-crystalline SiC substrate and the polycrystalline SiC substrate are bonded via an interface layer , the interface layer is a composite material containing carbon (C), silicon (Si) and nitrogen (N), characterized in that the interface layer contains 1×10 21 atoms/cm 3 or more of nitrogen (N) atoms a single-crystalline SiC substrate ; and a polycrystalline SiC substrate , wherein the single-crystalline SiC substrate and the polycrystalline SiC substrate are bonded via an interface layer , the interface layer is a composite material containing carbon (C), silicon (Si) and nitrogen (N), characterized in that the interface layer contains 1×10 21 atoms/cm 3 or more of nitrogen (N) atoms
Plastics shaft body comprising: a main body , and at least one transport line portion that laterally connects to the main body adjacent to the lower end of the main body in a connection direction (Z), on the free end of which transport line portion a connection sleeve is provided which is intended to connect a transport line pipe, and an attachment sleeve being provided on the upper end of the main body , which attachment sleeve is intended to connect an attachment pipe, and the height of the main body having a greater value than the largest dimension of the main body determined both orthogonally to the height direction (X) and orthogonally to the connection direction (Z), the main body having a plane of symmetry (E) that extends orthogonally to the height direction (X), characterised in that the main body is designed substantially as an ellipsoid, and in that the main body is designed substantially as a spheroid having a rotational axis that extends substantially in parallel with the height direction (X).
A method of estimating a parameter of interest of an earth formation, the method comprising: conveying a logging tool into a borehole in the earth formation; exciting a transmitter antenna on the logging tool at a plurality of frequencies, the transmitter antenna having a first axial direction; receiving, at each of the plurality of frequencies, a quadrature signal responsive to the excitation with a receiver antenna having a second axial direction different from the first axial direction, wherein the first axial direction and the second axial direction are substantially orthogonal to each other; performing multi-frequency focusing of the quadrature signals received at each of the plurality of frequencies to obtain a direct field between the transmitter antenna and the receiver antenna ; estimating from the direct field a misalignment angle between the transmitter antenna and the receiver antenna , the misalignment angle indicating a deviation from orthogonal positioning of the transmitter antenna and the receiver antenna in relation to each other; receiving a further signal with the receiver antenna at at least one of the plurality of frequencies; correcting said further signal using the estimated misalignment angle; and using the corrected signal to estimate the parameter of interest of the earth formation. conveying a logging tool into a borehole in the earth formation; exciting a transmitter antenna on the logging tool at a plurality of frequencies, the transmitter antenna having a first axial direction; receiving, at each of the plurality of frequencies, a quadrature signal responsive to the excitation with a receiver antenna having a second axial direction different from the first axial direction, wherein the first axial direction and the second axial direction are substantially orthogonal to each other; performing multi-frequency focusing of the quadrature signals received at each of the plurality of frequencies to obtain a direct field between the transmitter antenna and the receiver antenna ; estimating from the direct field a misalignment angle between the transmitter antenna and the receiver antenna , the misalignment angle indicating a deviation from orthogonal positioning of the transmitter antenna and the receiver antenna in relation to each other; receiving a further signal with the receiver antenna at at least one of the plurality of frequencies; correcting said further signal using the estimated misalignment angle; and using the corrected signal to estimate the parameter of interest of the earth formation.
Installation device for carrying out installation steps on a wall, comprising - an installation apparatus having - a drive unit and - a tool holder , wherein the tool holder - is coupled to the drive unit , - is provided for receiving a tool which extends away from the tool holder in a tool direction and can be driven by the drive unit , and - can assume a locked state and an unlocked state, wherein a tool received by the tool holder can be removed from the tool holder in the unlocked state and is fixed in the tool holder in the locked state, and - an unlocking device which has a controllable actuator and is designed and arranged such that the tool holder can be brought from the locked state into the unlocked state by means of the actuator , - a mobile installation frame , - a mechatronic installation component , and - a controllable gripper for fixing a tool , wherein the mechatronic installation component and the gripper are arranged on the installation frame and the installation apparatus can be received and moved by the mechatronic installation component . - an installation apparatus having - a drive unit and - a tool holder , wherein the tool holder - is coupled to the drive unit , - is provided for receiving a tool which extends away from the tool holder in a tool direction and can be driven by the drive unit , and - can assume a locked state and an unlocked state, wherein a tool received by the tool holder can be removed from the tool holder in the unlocked state and is fixed in the tool holder in the locked state, and - an unlocking device which has a controllable actuator and is designed and arranged such that the tool holder can be brought from the locked state into the unlocked state by means of the actuator , - a mobile installation frame , - a mechatronic installation component , and - a controllable gripper for fixing a tool , - an unlocking device which has a controllable actuator and is designed and arranged such that the tool holder can be brought from the locked state into the unlocked state by means of the actuator , - a mobile installation frame , - a mechatronic installation component , and - a controllable gripper for fixing a tool ,
An Al-Si-Mg aluminum alloy comprising: 5 mass% or larger and 10 mass% or smaller of Si; 0.2 mass% or larger and 1.0 mass% or smaller of Mg, 0.03 mass% or larger and 0.5 mass% or smaller of Sb; 0.0004 mass% or larger and 0.0026 mass% or smaller of Be; 0.01 mass% or smaller of B; and a remainder consisting of Al and unavoidable impurities, wherein the unavoidable impurities include Fe and Ca; the content of Fe in the Al-Si-Mg aluminum alloy is 0.15 mass% or smaller; the content of Ca in the Al-Si-Mg aluminum alloy is 0 mass% or larger and smaller than 0.01 mass%; the total content of the unavoidable impurities except for Fe in the Al-Si-Mg aluminum alloy is 0.05 mass% or smaller; and in L*a*b* color system, a value of L* that indicates lightness of a surface thereof is 55 or larger. 5 mass% or larger and 10 mass% or smaller of Si; 0.2 mass% or larger and 1.0 mass% or smaller of Mg, 0.03 mass% or larger and 0.5 mass% or smaller of Sb; 0.0004 mass% or larger and 0.0026 mass% or smaller of Be; 0.01 mass% or smaller of B; and a remainder consisting of Al and unavoidable impurities, wherein the unavoidable impurities include Fe and Ca; the content of Fe in the Al-Si-Mg aluminum alloy is 0.15 mass% or smaller; the content of Ca in the Al-Si-Mg aluminum alloy is 0 mass% or larger and smaller than 0.01 mass%; the total content of the unavoidable impurities except for Fe in the Al-Si-Mg aluminum alloy is 0.05 mass% or smaller; and in L*a*b* color system, a value of L* that indicates lightness of a surface thereof is 55 or larger.