mhurhangee/ep-ind-claims huggingface dataset:
Method for partially or fully autonomously driving a motor vehicle using a control device, wherein the control device is coupled to at least one vehicle component (11, 12, 13) for longitudinal control and/or lateral control of the motor vehicle, and provides a controller unit for generating at least one control signal for the at least one vehicle component (11, 12, 13) based on a controller model (27, 30), wherein the control device provides a failure controller model, via which a failure situation in which the at least one vehicle component (11, 12, 13) is non-functional, is modelled, and a failure signal signalling the failure situation is received from a detection apparatus during a drive of the motor vehicle, and depending on the failure signal, in the controller unit, a standard controller model which assumes that the at least one vehicle components (11, 12, 13) is functional is switched to the failure controller model, and the motor vehicle is manoeuvred into a predetermined safe state by means of the switched controller unit by generating the control signals, wherein it is provided that a driver of the motor vehicle first drives the motor vehicle using a steering handle and/or a pedal and then, depending on the failure signal, the control device is activated without driver intervention for manoeuvring the motor vehicle and the control device takes over the driving of the motor vehicle in order to adjust the longitudinal dynamics and/or the lateral dynamics, characterised in that the failure controller model simulates a behaviour of at least one predetermined person.
Seat with - a seat part which comprises a tensioning frame with a bent up section and a tensioned covering fixed to the tensioning frame so that the tensioned covering forms, together with the tensioning frame, a seating surface and a backrest, - a frame, which supports the seat part, - a first traverse that has a first and a second end (29a, 29b) that bears on the user side of the tensioned covering at the transition of the seating surface to the backrest and - the first and the second end (29a, 29b) of which are fixed to the tensioning frame and - a second traverse having a first and a second end (39a, 39b) that bears on the rear side of the tensioned covering at the transition of the seating surface to the backrest, wherein the first and the second end (39a, 39b) of the second traverse are fixed to the tensioning frame, characterized in that the tensioned covering is clamped between the first and the second traverse (27, 37). - a seat part which comprises a tensioning frame with a bent up section and a tensioned covering fixed to the tensioning frame so that the tensioned covering forms, together with the tensioning frame, a seating surface and a backrest, - a frame, which supports the seat part, - a first traverse that has a first and a second end (29a, 29b) that bears on the user side of the tensioned covering at the transition of the seating surface to the backrest and - the first and the second end (29a, 29b) of which are fixed to the tensioning frame and - a second traverse having a first and a second end (39a, 39b) that bears on the rear side of the tensioned covering at the transition of the seating surface to the backrest, wherein the first and the second end (39a, 39b) of the second traverse are fixed to the tensioning frame,
A power tool comprising: a tool housing; an electric motor inside the tool housing; a power interface facilitating a connection to a power source; at least four semiconductor switches (312A - 312D), configured as an H-bridge to supply power from the power source to the electric motor, the semiconductor switches (312A - 312D) mounted on an insulated metal substrate board; and a control unit; characterized in that the insulated metal substrate board has a first metal substrate, a second metal layer on which the semiconductor switches (312A - 312D) are mounted, and a dielectric layer therebetween; wherein the control unit is arranged on a control circuit board disposed at a distance from the IMS board, the control unit configured to control a switching operation of the four semiconductor switches (312A - 312D), wherein the first metal substrate of the IMS board has a thermal capacity of at most 7 Joules/Kelvin and the power tool has a maximum watts out of at least 100 watts. a tool housing; an electric motor inside the tool housing; a power interface facilitating a connection to a power source; at least four semiconductor switches (312A - 312D), configured as an H-bridge to supply power from the power source to the electric motor, the semiconductor switches (312A - 312D) mounted on an insulated metal substrate board; and a control unit; characterized in that the insulated metal substrate board has a first metal substrate, a second metal layer on which the semiconductor switches (312A - 312D) are mounted, and a dielectric layer therebetween; wherein the control unit is arranged on a control circuit board disposed at a distance from the IMS board, the control unit configured to control a switching operation of the four semiconductor switches (312A - 312D), wherein the first metal substrate of the IMS board has a thermal capacity of at most 7 Joules/Kelvin and the power tool has a maximum watts out of at least 100 watts.
Method of manufacturing a tray with a tray body comprising an RFID tag with the following steps: (a) forming at least one RFID unit by covering the RFID tag (3a,b) with a first material (3c,d) which is at least after the forming essentially thermally inactive at a molding temperature; (b) positioning the RFID unit at or onto a second material which is heat curable and fibre-reinforced and at least tends to flow during molding; (c) covering the RFID unit with a cover material to form a stack (2,3,4), the cover material being thermally inactive at the molding temperature; (d) pressing and heating the stack (2,3,4) at the molding temperature to form the tray with the tray body, wherein the cover material is covering the RFID unit to the outside of the tray body and wherein the RFID unit is arranged onto or extending at least partially into the tray body. (a) forming at least one RFID unit by covering the RFID tag (3a,b) with a first material (3c,d) which is at least after the forming essentially thermally inactive at a molding temperature; (b) positioning the RFID unit at or onto a second material which is heat curable and fibre-reinforced and at least tends to flow during molding; (c) covering the RFID unit with a cover material to form a stack (2,3,4), the cover material being thermally inactive at the molding temperature; (d) pressing and heating the stack (2,3,4) at the molding temperature to form the tray with the tray body, wherein the cover material is covering the RFID unit to the outside of the tray body and wherein the RFID unit is arranged onto or extending at least partially into the tray body.
A chiller controller for limiting suction flow, comprising: - one or more processors; and - a memory device comprising a state detector, an energy predictor, and a compressor controller, the memory device storing computer-readable instructions that when executed by the one or more processors, cause the one or more processors to: - receive, at the state detector, a first pressure from an evaporator pressure sensor coupled to an evaporator; - receive, at the state detector, a second pressure from a condenser pressure sensor coupled to a condenser; - determine, by the energy predictor, a predicted energy level of operation of a compressor based on the first pressure and the second pressure, the predicted energy level associated with liquid droplet flow from the evaporator to the compressor; - compare, by the compressor controller, the predicted energy level to an operating energy level of the compressor; and - modify, by the compressor controller, at least one of a power and a current to a prime mover of the compressor based on the comparison satisfying a modification condition. - one or more processors; and - a memory device comprising a state detector, an energy predictor, and a compressor controller, the memory device storing computer-readable instructions that when executed by the one or more processors, cause the one or more processors to: - receive, at the state detector, a first pressure from an evaporator pressure sensor coupled to an evaporator; - receive, at the state detector, a second pressure from a condenser pressure sensor coupled to a condenser; - determine, by the energy predictor, a predicted energy level of operation of a compressor based on the first pressure and the second pressure, the predicted energy level associated with liquid droplet flow from the evaporator to the compressor; - compare, by the compressor controller, the predicted energy level to an operating energy level of the compressor; and - modify, by the compressor controller, at least one of a power and a current to a prime mover of the compressor based on the comparison satisfying a modification condition. - receive, at the state detector, a first pressure from an evaporator pressure sensor coupled to an evaporator; - receive, at the state detector, a second pressure from a condenser pressure sensor coupled to a condenser; - determine, by the energy predictor, a predicted energy level of operation of a compressor based on the first pressure and the second pressure, the predicted energy level associated with liquid droplet flow from the evaporator to the compressor; - compare, by the compressor controller, the predicted energy level to an operating energy level of the compressor; and - modify, by the compressor controller, at least one of a power and a current to a prime mover of the compressor based on the comparison satisfying a modification condition.
An intracerebral current simulation method comprising: a first step of providing head image data including at least a portion of a brain out of tomographic image data of a patient; a second step of forming a three-dimensional brain model composed of respective minute polyhedral units acquired by dividing at least one region making up the brain of the head image data provided at the first step into minute elements; and a third step of providing first information including, out of conditions when a coil is placed on the head of the patient to apply a current to the coil to provide a magnetic stimulation to the brain of the patient and a patient's reaction to the magnetic stimulation is observed, at least conditions of a position and a direction of the coil, a condition of the current applied to the coil, and a condition of structure related to a formed magnetic field of the coil; and a fourth step of calculating eddy currents or electric fields induced in the respective minute polyhedral units of the three-dimensional brain model based on the first information provided at the third step and second information including an electric conductivity assigned to each of the minute polyhedral units; characterized in that the three-dimensional brain model has a model composed of at least one of cerebrospinal fluid, grey matter, and white matter, except for skins and muscles. a first step of providing head image data including at least a portion of a brain out of tomographic image data of a patient; a second step of forming a three-dimensional brain model composed of respective minute polyhedral units acquired by dividing at least one region making up the brain of the head image data provided at the first step into minute elements; and a third step of providing first information including, out of conditions when a coil is placed on the head of the patient to apply a current to the coil to provide a magnetic stimulation to the brain of the patient and a patient's reaction to the magnetic stimulation is observed, at least conditions of a position and a direction of the coil, a condition of the current applied to the coil, and a condition of structure related to a formed magnetic field of the coil; and a fourth step of calculating eddy currents or electric fields induced in the respective minute polyhedral units of the three-dimensional brain model based on the first information provided at the third step and second information including an electric conductivity assigned to each of the minute polyhedral units; characterized in that the three-dimensional brain model has a model composed of at least one of cerebrospinal fluid, grey matter, and white matter, except for skins and muscles.
A cosmetic base comprising an aqueous dispersion of a collagen-modified liposome, wherein a water-soluble collagen having a triple helical structure, controlled to have a positive or negative charge is adsorbed on a liposome surface with a surface charge controlled to have a charge opposite to the charge of the water-soluble collagen.
A foam forming device having an inlet, an outlet and a longitudinal axis which leads from the inlet to the outlet, and having a multitude of face pairs, wherein the face pairs each have two opposing faces and the faces at least partially delimit a foaming space, wherein the multitude of face pairs have a first face pair (H1, H1') and a second face pair (S1, S1'), wherein at least one of the faces of the first face pair (H1, H1') is an adjustable face, the positioning of which relative to the longitudinal axis is adjustable, and at least one of the faces of the second face pair (S1, S1') is an adjustable face, the positioning of which relative to the longitudinal axis is adjustable, characterized in that the first face pair (H1, H1') and the second face pair (S1, S1') are offset relative to each other along the circumference of the foaming space, the circumference relating to the longitudinal axis.
A system of anchorage of objects in grounds, comprising an anchor base provided with tilted guides for rods or pins to be inserted during the assembly; said base being rigidly connected or having a releasable connection with the object or the structure to be anchored to the ground; characterised in that, said base is provided with tilted guides in minimum number of three; the guides having parallelepiped crossing section in such a way as to house a rod, each guide, having a corresponding section and being inserted upon the assembly of the anchorage to the ground; the single rod having hollow section shape, obtained by folding a sheet of rigid material; the hollow section being open at the folding ends (14, 24, 26) of the rod with a minimum distance equal or higher than a fourth of the length of the side of the parallelepiped section on which it is made.
An assembly for securing a fastening element to a first component, wherein the first component has a through-opening for a shaft of the fastening element, with a securing element which surrounds the shaft of the fastening element, wherein a head part of the fastening element and the securing element are arranged on opposite sides of the first component, and the shaft of the fastening element engages in a receptacle of a second component for non-positive and/or positive connection of the two components (40, 50), characterized in that the securing element is pre-fixed on the second component before the first component is connected to the second component for the first time.
A first lighting fixture comprising: a first solid state illumination source; a communications interface; and a first thermal imager comprising a first multi-pixel heat sensing device configured to detect 8-12 μm wavelength infrared radiation; characterized in that the first lighting fixture further comprising: a thermal imager controller configured to control an operating parameter of the first thermal imager and configured to read heat sensor data and change of state indication from the first thermal imager; and a power source configured to supply power to the first solid state illumination source, the first thermal imager, and the thermal imager controller; wherein the communications interface being configured to be in communication with the thermal imager controller and being configured to handle commands for the first thermal imager from a remote device and being configured to convey heat sensor data and change of state indication between the thermal imager controller and the remote device. a first solid state illumination source; a communications interface; and a first thermal imager comprising a first multi-pixel heat sensing device configured to detect 8-12 μm wavelength infrared radiation; characterized in that the first lighting fixture further comprising: a thermal imager controller configured to control an operating parameter of the first thermal imager and configured to read heat sensor data and change of state indication from the first thermal imager; and a power source configured to supply power to the first solid state illumination source, the first thermal imager, and the thermal imager controller; wherein the communications interface being configured to be in communication with the thermal imager controller and being configured to handle commands for the first thermal imager from a remote device and being configured to convey heat sensor data and change of state indication between the thermal imager controller and the remote device. a thermal imager controller configured to control an operating parameter of the first thermal imager and configured to read heat sensor data and change of state indication from the first thermal imager; and a power source configured to supply power to the first solid state illumination source, the first thermal imager, and the thermal imager controller; wherein the communications interface being configured to be in communication with the thermal imager controller and being configured to handle commands for the first thermal imager from a remote device and being configured to convey heat sensor data and change of state indication between the thermal imager controller and the remote device.
Screw-type centrifugal wheel pump, comprising a pump housing with a pump inlet opening and a housing rear wall situated opposite the pump inlet opening, comprising a screw-type centrifugal wheel, which is rotatably arranged within the pump housing, with a hub and with an impeller, and comprising a rotatable drive shaft which is connected to the screw-type centrifugal wheel, further comprising a cover plate which is arranged between the screw-type centrifugal wheel and the housing rear wall, wherein the cover plate features a central opening through which the hub or the drive shaft extends, and with an inner space being implemented between the cover plate and the housing rear wall, wherein the cover plate features a front side oriented towards the pump inlet opening, and wherein the front side comprises a partial surface, the course of which is embodied to be adapted to the rear side of the screw-type centrifugal wheel in such a way that a first gap of maximally up to 3 mm is implemented between the front side of the cover plate and the rear side of the screw-type centrifugal wheel, wherein a second gap is implemented between the central opening of the cover plate and the hub or the drive shaft, which second gap is fluid-conductively connected to the inner space and to the first gap, wherein the cover plate features at least one through hole, which is arranged spaced apart from the central opening, wherein the screw-type centrifugal wheel and the arrangement of the through hole are embodied adapted to each other in such a way that, in a viewing direction in parallel to a rotary axis of the screw-type centrifugal wheel, the rear side of the screw-type centrifugal wheel does not cover the through hole or, in a rotation of the screw-type centrifugal wheel, covers the through hole only during a partial angle, and wherein the through hole forms a fluid-conducting connection between the front side and the inner space for the purpose of generating a fluid flow flowing into the inner space via the through hole and then flowing out of the inner space via the gap.
An apparatus comprising: a substrate; and two or more electrodes (104A, 104B), formed directly or indirectly on the substrate, the electrodes (104A, 104B) including first and second electrodes separated from each other by different minimum spacing at different locations along a length of at least one of the first and second electrodes (104A, 104B), wherein the electrodes (104A, 104B) are configured to receive a non-zero frequency time-varying electrical energy that is coupled by the electrodes (104A, 104B) to the substrate to trigger a current to generate a frequency-controlled heat source in the substrate, and wherein a location of the heat source is selected along the length of the electrodes (104A, 104B) by adjusting the frequency of the time-varying electrical energy, thereby providing at least one corresponding frequency-dependent current path between the first and second electrodes (104A, 104B) to provide the frequency-controlled heat at the heat source location in the substrate. a substrate; and two or more electrodes (104A, 104B), formed directly or indirectly on the substrate, the electrodes (104A, 104B) including first and second electrodes separated from each other by different minimum spacing at different locations along a length of at least one of the first and second electrodes (104A, 104B), wherein the electrodes (104A, 104B) are configured to receive a non-zero frequency time-varying electrical energy that is coupled by the electrodes (104A, 104B) to the substrate to trigger a current to generate a frequency-controlled heat source in the substrate, and wherein a location of the heat source is selected along the length of the electrodes (104A, 104B) by adjusting the frequency of the time-varying electrical energy, thereby providing at least one corresponding frequency-dependent current path between the first and second electrodes (104A, 104B) to provide the frequency-controlled heat at the heat source location in the substrate.