mhurhangee/ep-ind-claims huggingface dataset:
An electronic power steering apparatus that is applied to a vehicle having a steering mechanism with an Ackermann ratio lower than an ideal Ackermann ratio, causes motor control means to control a motor to generate a steering assisting force, and transmits the steering assisting force to a steering system to cause a reduction in a steering force, comprising: a steering angle sensor for detecting a steering angle (θH) of a steering wheel; a steering torque sensor for detecting a steering torque of the steering wheel; target steering torque setting means for setting a target steering torque (KT (θH)) on the basis of the steering angle detected by the steering angle sensor; torque deviation computing means for computing a torque deviation between the target steering torque set by the target steering torque setting means and the steering torque detected by the steering torque sensor; and first target current value computing means for computing a first target current value (ITFB1) for generating a steering assisting force by the motor on the basis of the torque deviation computed by the torque deviation computing means, and vehicle speed sensitivity adjusting means (285A, 285B) that adjusts the first target current value in accordance with, at least, a vehicle speed detected by vehicle speed detecting means, and outputs the adjusted first target current value as a second target current value (IFTB2), wherein the motor control means controls the motor to generate the steering assisting force on the basis of the second target current value. a steering angle sensor for detecting a steering angle (θH) of a steering wheel; a steering torque sensor for detecting a steering torque of the steering wheel; target steering torque setting means for setting a target steering torque (KT (θH)) on the basis of the steering angle detected by the steering angle sensor; torque deviation computing means for computing a torque deviation between the target steering torque set by the target steering torque setting means and the steering torque detected by the steering torque sensor; and first target current value computing means for computing a first target current value (ITFB1) for generating a steering assisting force by the motor on the basis of the torque deviation computed by the torque deviation computing means, and vehicle speed sensitivity adjusting means (285A, 285B) that adjusts the first target current value in accordance with, at least, a vehicle speed detected by vehicle speed detecting means, and outputs the adjusted first target current value as a second target current value (IFTB2), wherein the motor control means controls the motor to generate the steering assisting force on the basis of the second target current value.
A noise cancellation system, comprising: - a loudspeaker, - a first microphone and a second microphone, - a housing configured to be mounted at an ear of a user, wherein the loudspeaker, the first microphone and the second microphone are installed in the housing, and - a processing unit coupled to the loudspeaker, the first microphone and the second microphone, and configured to generate a noise cancelling signal based on at least one of a first audio signal from the first microphone and a second audio signal from the second microphone, wherein the noise cancelling signal, when being output via the loudspeaker, at least partially compensates for environmental noise in the ear of the user, wherein the noise cancellation system is configured such that, when the housing is mounted at the ear of the user, the first microphone and the second microphone are located between the loudspeaker and an eardrum of the ear, characterized in that the first microphone is a sound pressure sensing microphone and the second microphone is a sound pressure gradient sensing microphone. - a loudspeaker, - a first microphone and a second microphone, - a housing configured to be mounted at an ear of a user, wherein the loudspeaker, the first microphone and the second microphone are installed in the housing, and - a processing unit coupled to the loudspeaker, the first microphone and the second microphone, and configured to generate a noise cancelling signal based on at least one of a first audio signal from the first microphone and a second audio signal from the second microphone, wherein the noise cancelling signal, when being output via the loudspeaker, at least partially compensates for environmental noise in the ear of the user, wherein the noise cancellation system is configured such that, when the housing is mounted at the ear of the user, the first microphone and the second microphone are located between the loudspeaker and an eardrum of the ear,
A method for providing electric power for at least one consumer connected to a bus device, wherein the bus device is coupled to a bus via two input connectors (22,23), and wherein one of these input connectors has at least one controllable current source arranged downstream of it which provides a current source current (I SP) on a side assigned to at least one consumer and, for this purpose, receives a bus current (I BUS) from the side of the input connector and receives a voltage (U BUS), wherein a load current (I VSP) depending on the current source current (I SP) is caused to flow across all of the consumers and respectively one associated load current (I VSP) is caused to flow across an individual consumer and, in the process, output connectors (9,10) for the at least one consumer have a load voltage (U VSP) applied to them, and wherein at least one load separating device (8, 8_1 - 8_n, 16, 26) exists for separating and/or deactivating at least a part of the consumer, characterized in that the separating and/or the deactivating of at least a part of the consumer is performed i. depending on the amount of current (I SP) of at least one current source current, or depending on at least one time derivative of - these magnitudes, or ii. depending on at least one load amount of current (I VSP), or depending on at least one time derivative of these magnitudes, or iii. depending on at least one temperature measured within or on the bus device, or depending on at least one time derivative of these magnitudes. i. depending on the amount of current (I SP) of at least one current source current, or depending on at least one time derivative of - these magnitudes, or ii. depending on at least one load amount of current (I VSP), or depending on at least one time derivative of these magnitudes, or iii. depending on at least one temperature measured within or on the bus device, or depending on at least one time derivative of these magnitudes.
A power module for electrical components comprising: - a ceramic layer, a primary metal layer and a secondary metal layer, wherein the primary metal layer and the secondary metal layer are arranged on the ceramic layer on opposite sides, wherein the ceramic layer comprises a first ceramic portion and a second ceramic portion spaced from the first ceramic portion by a discontinuity, and wherein a metal-free region is formed below and above the discontinuity serving as an expansion joint, characterized in that the primary metal layer and/or the secondary metal layer has a recess on a side facing the discontinuity for forming the metal-free region below the ceramic layer. - a ceramic layer, a primary metal layer and a secondary metal layer, wherein the primary metal layer and the secondary metal layer are arranged on the ceramic layer on opposite sides, wherein the ceramic layer comprises a first ceramic portion and a second ceramic portion spaced from the first ceramic portion by a discontinuity, and wherein a metal-free region is formed below and above the discontinuity serving as an expansion joint, characterized in that the primary metal layer and/or the secondary metal layer has a recess on a side facing the discontinuity for forming the metal-free region below the ceramic layer.
A substrate analysis nozzle configured to discharge an analysis solution from a tip of the substrate analysis nozzle onto a substrate, configured to scan a surface of the substrate using the discharged analysis solution, and configured to suck the analysis solution, wherein the substrate analysis nozzle comprises a triple-tube structure made up of: a pipe through which the analysis solution is discharged and sucked; a first outer tube surrounding the pipe and surrounding the analysis solution used for scanning; and a second outer tube surrounding the first outer tube, and wherein the substrate analysis nozzle comprises: first exhausting means comprising a first exhaust path defined between the pipe and the first outer tube; and second exhausting means comprising a second exhaust path defined between the first outer tube and the second outer tube, wherein the first and second exhaust means (121,131) are configured to turn the first and the second exhaust paths into a reduced pressure atmosphere. wherein the substrate analysis nozzle comprises a triple-tube structure made up of: a pipe through which the analysis solution is discharged and sucked; a first outer tube surrounding the pipe and surrounding the analysis solution used for scanning; and a second outer tube surrounding the first outer tube, and wherein the substrate analysis nozzle comprises: first exhausting means comprising a first exhaust path defined between the pipe and the first outer tube; and second exhausting means comprising a second exhaust path defined between the first outer tube and the second outer tube, wherein the first and second exhaust means (121,131) are configured to turn the first and the second exhaust paths into a reduced pressure atmosphere.
An arrangement of feet with automatic leveling function for a washing machine, wherein: each of the feet comprises a fixed part and a movable part, a hollow chamber is formed between the fixed part and the movable part, and the hollow chamber is provided with a hydraulic medium, characterized in that every two feet are connected by a high-pressure oil pipe to communicate between the hollow chambers of the two feet, or all the feet are respectively connected to a communicating device by high-pressure oil pipes to communicate among the hollow chambers of all the feet, wherein the hydraulic medium flows between hollow chambers of the feet communicated with each other expanding and contracting the movable part under pressure to execute automatic leveling, and in that the feet comprise a first foot and a second foot which are respectively provided with an orifice and a valve opening, wherein the orifice and the valve opening are respectively communicated with the hollow chamber, and wherein the orifice of the first foot is connected to the valve opening of the second foot by one high-pressure oil pipe, and the valve opening of the first foot is connected to the orifice of the second foot by another high-pressure oil pipe
Tool coupling device for receiving a power-tool parting device, in particular a power-tool parting device in the form of a closed system, having at least one tool holding unit which has at least one tool holding element that is mounted so as to be rotatable about a movement axis, extending at least substantially perpendicularly to a clamping plane of the tool holding element, of the tool holding element, wherein the tool holding element is mounted so as to be rotatable, at least starting from a tool fixing position of the tool holding element, about the movement axis of the tool holding element into a tool coupling position of the tool holding element through an angular range which has a an angular dimension of less than 360°, wherein the tool coupling position defines a position of the tool holding element in which the power-tool parting device is able to be coupled to a main body or a tool receiving element of the tool coupling device, characterized in that the tool holding element has at least one form-fit recess (26, 86) which has at least two functional regions (28, 92), wherein one of the functional regions (28, 92) is provided for the insertion of a holding element (88, 90) of a power-tool parting device and one of the functional regions (28, 92) is provided for a form-fitting connection for fixing the holding element (88, 90), wherein the tool holding unit has a tool receiving element which has a receiving recess for at least partially receiving the power-tool parting device in a state of the power-tool parting device coupled to the tool coupling device, and a rotary play opening in which a drive element of the tool coupling device is arranged.
Use of a printing paper as a decor paper for planar components, in particular for floor, wall, ceiling or furniture applications, which printing paper has been printed by means of a digital printing process by a digital printing device and which printing paper has been heated before, during and/or after printing and is resin-untreated and free of an ink-reception layer, wherein the printing paper, after printing, is treated with resin, cut to the desired dimensions and is pressed together with plates to form the planar components.
A hot beverage preparation machine comprising - a body; - a water reservoir wherein water is filled; - a water heater enabling the water in the water reservoir to be heated; - a brewing chamber wherein the raw material of the beverage to be prepared is put and whereto the water heated in the water reservoir is transferred, wherein the brewing process is performed as a result of the interaction between the raw beverage material and water; - a cover for isolating the brewing chamber from the outer environment; - a housing which is situated on the body, under the brewing chamber; - a pot which is placed into the housing, the top surface thereof being at least partially open and whereto the beverage brewed in the brewing chamber is transferred; and - a spraying member having a plurality of arms which have a plurality of holes thereon for delivering the water onto the raw beverage material, which is provided on the cover and which enables the raw beverage material put into the brewing chamber to be wetted, - characterized by the plurality of arms which, when the cover is closed, are inclined from the cover towards the brewing chamber, and the spraying member further having a headpiece which has holes thereon and whereto the arms are connected. - a body; - a water reservoir wherein water is filled; - a water heater enabling the water in the water reservoir to be heated; - a brewing chamber wherein the raw material of the beverage to be prepared is put and whereto the water heated in the water reservoir is transferred, wherein the brewing process is performed as a result of the interaction between the raw beverage material and water; - a cover for isolating the brewing chamber from the outer environment; - a housing which is situated on the body, under the brewing chamber; - a pot which is placed into the housing, the top surface thereof being at least partially open and whereto the beverage brewed in the brewing chamber is transferred; and - a spraying member having a plurality of arms which have a plurality of holes thereon for delivering the water onto the raw beverage material, which is provided on the cover and which enables the raw beverage material put into the brewing chamber to be wetted, - characterized by the plurality of arms which, when the cover is closed, are inclined from the cover towards the brewing chamber, and the spraying member further having a headpiece which has holes thereon and whereto the arms are connected.
A machine for dispensing a vaporisable liquid into a container for use in an electronic inhalation device, the machine comprising a reservoir for containing liquid, a dispensing port to receive an empty container to be filled and to seal around an open end of the container, a dispensing mechanism fluidly connected to the reservoir for dispensing a quantity of liquid from the reservoir to the sealed container received in the dispensing port, a controller connected to the dispensing mechanism to control operation thereof, and a user-operable interface connected to the controller for a user to actuate the machine; wherein the dispensing mechanism comprises a first duct configured to draw air out of the sealed container to create a reduced pressure therein, and a second duct through which liquid from the reservoir is conveyed into the sealed container and is drawn into the sealed container by the reduced pressure created therein; and wherein the user-operable interface is operable by a user to affect payment for supply of a quantity of the liquid from the reservoir and the machine is configured to dispense a quantity of liquid from the reservoir in response to a payment operation by a user via the user-operable interface.
Valve drive unit for a dosing unit of an ambulatory infusion pump, the valve drive unit including: - a first SMA wire and a second SMA wire, wherein the first SMA wire and the second SMA wire can be alternatively activated; - a pivoting member, the pivoting member being pivotable arranged around a pivoting member axis, the pivoting member including a valve driver, the valve driver being arranged at a distance from the pivoting member axis; wherein the first and second SMA wire are coupled to the pivoting member such that an activation of the first SMA wire causes the pivoting member to pivot into a first direction and an activation of the second SMA wire causes the pivoting member to pivot into a second direction, the second direction being opposite to the first direction; wherein the valve driver is designed to releasably engage a valve driver coupler of a valve unit of the dosing unit, such that, in the engaged state, a pivoting of the pivoting member is transmitted to the valve driver coupler via a meshing engagement between the valve driver and the valve driver coupler. - a first SMA wire and a second SMA wire, wherein the first SMA wire and the second SMA wire can be alternatively activated; - a pivoting member, the pivoting member being pivotable arranged around a pivoting member axis, the pivoting member including a valve driver, the valve driver being arranged at a distance from the pivoting member axis; wherein the first and second SMA wire are coupled to the pivoting member such that an activation of the first SMA wire causes the pivoting member to pivot into a first direction and an activation of the second SMA wire causes the pivoting member to pivot into a second direction, the second direction being opposite to the first direction; wherein the valve driver is designed to releasably engage a valve driver coupler of a valve unit of the dosing unit, such that, in the engaged state, a pivoting of the pivoting member is transmitted to the valve driver coupler via a meshing engagement between the valve driver and the valve driver coupler. wherein the first and second SMA wire are coupled to the pivoting member such that an activation of the first SMA wire causes the pivoting member to pivot into a first direction and an activation of the second SMA wire causes the pivoting member to pivot into a second direction, the second direction being opposite to the first direction; wherein the valve driver is designed to releasably engage a valve driver coupler of a valve unit of the dosing unit, such that, in the engaged state, a pivoting of the pivoting member is transmitted to the valve driver coupler via a meshing engagement between the valve driver and the valve driver coupler.
A demolition robot, comprising; an incoming supply line for hydraulic flow, an outgoing return line for hydraulic flow, and an outgoing load-sensing line for sensing hydraulic load of a hydraulically energized function, characterised in that it comprises a sensing device for sensing a hydraulic pressure in the load-sensing line, a regulating device comprising a pump with fixed displacement for generating a hydraulic flow, a speed adjustable permanent magnet_drive motor, a so-called PM motor, which is coupled to said pump a motor drive assembly which for revolution speed regulation of the drive motor, comprises a control unit, which is arranged to receive an electronic measurement signal from the sensing device and via control data control the revolution speed of the drive motor included in the regulating device to cause the pump to bring about a pre-determined pressure on the load-sensing line. an incoming supply line for hydraulic flow, an outgoing return line for hydraulic flow, and an outgoing load-sensing line for sensing hydraulic load of a hydraulically energized function, characterised in that it comprises a sensing device for sensing a hydraulic pressure in the load-sensing line, a regulating device comprising a pump with fixed displacement for generating a hydraulic flow, a speed adjustable permanent magnet_drive motor, a so-called PM motor, which is coupled to said pump a motor drive assembly which for revolution speed regulation of the drive motor, comprises a control unit, which is arranged to receive an electronic measurement signal from the sensing device and via control data control the revolution speed of the drive motor included in the regulating device to cause the pump to bring about a pre-determined pressure on the load-sensing line.
A pleated filter media extending in an axial direction (x), a transverse direction (y) that is perpendicular to the axial direction (x), and a lateral direction (z) that is perpendicular to the axial direction (x) and perpendicular to the transverse direction (y), the pleated filter media comprising: a plurality of pleats comprised of pleat segments extending in the axial direction (x) between first and second axial ends (28a, 28b) and extending in the transverse direction (y) between first and second sets of pleat tips (30a, 30b) which are at least partially defined by first and second sets of bend lines (22a, 22b); wherein axial flow channels are defined between the pleat segments in the lateral direction (z); wherein the plurality of pleats has a width in the transverse direction (y) that varies along the axial direction (x) at least along a portion of the plurality of pleats; wherein the portion of the plurality of pleats comprises at least a first linear portion extending at an angle to the axial direction (x) and a second linear portion extending at an angle to the axial direction (x); wherein the first linear portion extends along the first set of bend lines and wherein the second linear portion extends along the second set of bend lines, wherein the first linear portion of the first set of bend lines and the second linear portion of the second set of bend lines extend at different angles to the axial direction (x); wherein the first linear portion is defined by a first plurality of sunken pleats (48; 48') along the first set of bend lines; and wherein the second linear portion is defined by a second plurality of sunken pleats (49; 49') along the second set of bend lines, wherein the first plurality of sunken pleats extend from the second axial end and wherein the second plurality of sunken pleats extends from the first axial end.
A green wall comprising a structure composed of generally prismatic-shaped compartments, provided to be juxtaposed and/or superposed, each compartment having a frame that supports grid-like or mesh-like faces with in particular a grid-like or mesh-like front face, the compartments being provided to be filled with a planting substrate for plants growing at least on the front face of these compartments, characterized in that it comprises, at least on the front side of its compartments, a cladding consisting of panels or shells removably fastened, in particular by clipping, on the front faces of these compartments, the panels or shells including pre-drilled openings provided for planting and growing plants.
A stable aqueous formulation for intrathecal administration comprising an iduronate-2-sulfatase (I2S) protein at a concentration of 10 mg/ml or more, salt, and a polysorbate surfactant, wherein the formulation has a pH of between 5.5 to 7.0 and contains phosphate at a concentration of no greater than 5 mM, and wherein the salt is NaCl.