mhurhangee/ep-ind-claims huggingface dataset:
Method for testing the operation of a driver assistance system of a motor vehicle in a collision situation or a near-collision situation, comprising the steps: - providing a test specimen and also a device for moving the test specimen, whereby reference data describing a state of the test specimen are acquired by a control apparatus of this device, - triggering a situation in which a collision of the motor vehicle and of the test specimen is imminent or is occurring, - the driver assistance system obtaining situation data during the triggering and simultaneously providing the reference data and the situation data in the same storage apparatus, characterised in that the triggering of the situation includes moving the motor vehicle or the test specimen in accordance with a specification, whereby the reference data are associated chronologically with the situation data so that sorting of the reference data and the situation data takes place in the storage apparatus according to the respective times of the data acquisition. - providing a test specimen and also a device for moving the test specimen, whereby reference data describing a state of the test specimen are acquired by a control apparatus of this device, - triggering a situation in which a collision of the motor vehicle and of the test specimen is imminent or is occurring, - the driver assistance system obtaining situation data during the triggering and simultaneously providing the reference data and the situation data in the same storage apparatus,
Air guiding element for reducing the air resistance of a heavy goods vehicle having a storage space structure, which can be fitted in the rear end region of the storage space structure from the outer side and which forms an air guiding channel having a front air inlet opening in the travel direction (x) and a rear air outlet opening, wherein the air guiding element has a cap which delimits the air guiding channel and which is movably arranged with respect to the storage space structure and which, when a value falls below a predetermined air speed, is lowered in the direction of the storage space structure and, when the air speed is exceeded, is raised by the air flow with respect to the storage space structure, characterised in that at least one antenna is provided on or in the air guiding element, wherein the antenna is arranged fixed in position with respect to the air guiding element and so as to be able to be moved relative to the storage space structure.
A compound or a tautomer thereof, or a pharmaceutically acceptable salt of said compound or said tautomer, said compound selected from the group consisting of:
An electromagnetic imager for imaging electromagnetic radiation from an object including: - entrance optics for allowing the electromagnetic radiation to enter the electromagnetic imager, including an image plane onto which an image of the object is to be imaged between a thermally controlled electromagnetic radiation input window and laser diode transparent output window, separated by a small distance from each other in a range of 1 micrometer to 100 micrometer; wherein the output window and the input window are kept at different temperatures; - an unbalanced single-wavelength phase-shift laser diode interferometer, including direct modulation of the output wavelength of the laser diode by its injection current, the unbalanced interferometer having a measurement arm, wherein the thermally controlled electromagnetic radiation input window and laser diode transparent output window containing the image plane between the two windows is in the measurement arm, wherein at least the unbalanced interferometer is arranged in a vacuum chamber; - a transformation layer, contained between the thermally controlled electromagnetic radiation input window and laser diode transparent output window, at the image plane, for transforming the electromagnetic radiation into a spatiotemporal variation of the refractive index of the transformation layer for causing spatiotemporal optical phase differences in the measurement arm of the unbalanced phase-shift interferometer representative of the image of the object, and wherein the transformation layer is a thin layer of a solid, a liquid, a gas, or any combination thereof. - entrance optics for allowing the electromagnetic radiation to enter the electromagnetic imager, including an image plane onto which an image of the object is to be imaged between a thermally controlled electromagnetic radiation input window and laser diode transparent output window, separated by a small distance from each other in a range of 1 micrometer to 100 micrometer; wherein the output window and the input window are kept at different temperatures; - an unbalanced single-wavelength phase-shift laser diode interferometer, including direct modulation of the output wavelength of the laser diode by its injection current, the unbalanced interferometer having a measurement arm, wherein the thermally controlled electromagnetic radiation input window and laser diode transparent output window containing the image plane between the two windows is in the measurement arm, wherein at least the unbalanced interferometer is arranged in a vacuum chamber; - a transformation layer, contained between the thermally controlled electromagnetic radiation input window and laser diode transparent output window, at the image plane, for transforming the electromagnetic radiation into a spatiotemporal variation of the refractive index of the transformation layer for causing spatiotemporal optical phase differences in the measurement arm of the unbalanced phase-shift interferometer representative of the image of the object, and wherein the transformation layer is a thin layer of a solid, a liquid, a gas, or any combination thereof.
A trackless ride system, comprising: a. a ride path area comprising a plurality of predefined optional vehicle traversal paths (211,212) about the ride path area; b. a controllable trackless ride vehicle (20,320) dispatchable and maneuverable along the optional vehicle traversal paths (211,212), the controllable trackless ride vehicle comprising: i. a track navigator; ii. a dynamically controllable ride vehicle motive system; and iii. an independent vehicle controller operatively in communication with the track navigator and the ride vehicle motive system; c. a wireless ride communicator operatively in communication with the independent vehicle controller, the ride communicator comprising: i. a set of wireless rider communicators associatable with a set of trackless ride vehicle riders; and ii. a facility mounted sensor adapted to capture discrete input from the set of wireless rider communicators, the discrete input comprising a status of a predetermined set of non-ride vehicle related events associated with the set of trackless ride vehicle riders; and d. a central control unit operatively in communication with the independent vehicle controller. a. a ride path area comprising a plurality of predefined optional vehicle traversal paths (211,212) about the ride path area; b. a controllable trackless ride vehicle (20,320) dispatchable and maneuverable along the optional vehicle traversal paths (211,212), the controllable trackless ride vehicle comprising: i. a track navigator; ii. a dynamically controllable ride vehicle motive system; and iii. an independent vehicle controller operatively in communication with the track navigator and the ride vehicle motive system; i. a track navigator; ii. a dynamically controllable ride vehicle motive system; and iii. an independent vehicle controller operatively in communication with the track navigator and the ride vehicle motive system; c. a wireless ride communicator operatively in communication with the independent vehicle controller, the ride communicator comprising: i. a set of wireless rider communicators associatable with a set of trackless ride vehicle riders; and ii. a facility mounted sensor adapted to capture discrete input from the set of wireless rider communicators, the discrete input comprising a status of a predetermined set of non-ride vehicle related events associated with the set of trackless ride vehicle riders; and i. a set of wireless rider communicators associatable with a set of trackless ride vehicle riders; and ii. a facility mounted sensor adapted to capture discrete input from the set of wireless rider communicators, the discrete input comprising a status of a predetermined set of non-ride vehicle related events associated with the set of trackless ride vehicle riders; and d. a central control unit operatively in communication with the independent vehicle controller.
A fibrous heat-insulating block used for lining a heated furnace-surface, the fibrous heat-insulating block comprising: a unit block formed by stacking layers of fibrous heat-insulating blanket under pressure, the unit block being used as a unit for lining application; a packing material including pressed surface contact parts each covering at least a part of each of pressed surfaces (2a, 2b) as side surfaces of the unit block in a blanket stacking direction, and heated surface protection parts each being connected to the pressed surface contact part and covering at least a part of a heated surface of the fibrous heat-insulating block heated in the state where a furnace is lined therewith, wherein a boundary between the pressed surface contact part and the heated surface protection part covers a corner formed by the pressed surface (2a, 2b)and the heated surface of the unit block; and a binding band keeping the shape of the unit block via the packing materials, wherein the heated surface protection part of the packing material can be moved by removing the binding band and arranged on the same plane as the pressed surface contact part, and the heated surface protection part of the packing material is provided with a handhold part, wherein the dimensions of the respective sides of the pressed surface contact part each are in the range from 85 to 97% of the dimensions of a side of the pressed surface (2a, 2b) of the unit block. a unit block formed by stacking layers of fibrous heat-insulating blanket under pressure, the unit block being used as a unit for lining application; a packing material including pressed surface contact parts each covering at least a part of each of pressed surfaces (2a, 2b) as side surfaces of the unit block in a blanket stacking direction, and heated surface protection parts each being connected to the pressed surface contact part and covering at least a part of a heated surface of the fibrous heat-insulating block heated in the state where a furnace is lined therewith, wherein a boundary between the pressed surface contact part and the heated surface protection part covers a corner formed by the pressed surface (2a, 2b)and the heated surface of the unit block; and a binding band keeping the shape of the unit block via the packing materials, wherein the heated surface protection part of the packing material can be moved by removing the binding band and arranged on the same plane as the pressed surface contact part, and the heated surface protection part of the packing material is provided with a handhold part, wherein the dimensions of the respective sides of the pressed surface contact part each are in the range from 85 to 97% of the dimensions of a side of the pressed surface (2a, 2b) of the unit block.
A method comprising: determining, by an electronic device, a power demand of the electronic device; wherein the electronic device includes a wireless power receiver including a wireless power receiving coil configured to receive power through inductive coupling with a wireless charger; characterized by determining, by the electronic device, an operating voltage or operating frequency for the wireless charger based on the power demand of the electronic device; and sending, by the electronic device and to the wireless charger, data indicating the operating voltage or operating frequency for the wireless charger, receiving, from the wireless charger, identifying data for the wireless charger; and accessing charger profile data corresponding to the wireless charger based on the identifying data, the charger profile data indicating characteristics of the wireless charger for different power transmission levels; and wherein determining the operating voltage or operating frequency for the wireless charger comprises determining, based on the charger profile data, an operating voltage or operating frequency corresponding to the power demand of the electronic device. determining, by an electronic device, a power demand of the electronic device; wherein the electronic device includes a wireless power receiver including a wireless power receiving coil configured to receive power through inductive coupling with a wireless charger; characterized by determining, by the electronic device, an operating voltage or operating frequency for the wireless charger based on the power demand of the electronic device; and sending, by the electronic device and to the wireless charger, data indicating the operating voltage or operating frequency for the wireless charger, receiving, from the wireless charger, identifying data for the wireless charger; and accessing charger profile data corresponding to the wireless charger based on the identifying data, the charger profile data indicating characteristics of the wireless charger for different power transmission levels; and wherein determining the operating voltage or operating frequency for the wireless charger comprises determining, based on the charger profile data, an operating voltage or operating frequency corresponding to the power demand of the electronic device.
A microneedle system for intradermal delivery, comprising: i.) a cover element over an active substance container, wherein the active substance container is accommodated in a frame comprising a microneedle array; and ii.) a base plate, wherein the base plate has an opening for receiving the microneedle array, and the cover element and the base plate are movably connected to one another via a thread; iii.) the base plate is entirely or partially joined to a surgical tape; and iv.) the frame and the base plate are movably connected to one another, wherein the frame comprising a microneedle array can be linearly displaced in the direction of the opening of the base plate, and the base plate comprises at least one opening element for opening the active substance container. i.) a cover element over an active substance container, wherein the active substance container is accommodated in a frame comprising a microneedle array; and ii.) a base plate, wherein the base plate has an opening for receiving the microneedle array, and the cover element and the base plate are movably connected to one another via a thread; iii.) the base plate is entirely or partially joined to a surgical tape; and iv.) the frame and the base plate are movably connected to one another, wherein the frame comprising a microneedle array can be linearly displaced in the direction of the opening of the base plate, and the base plate comprises at least one opening element for opening the active substance container.
Energy accumulator emulator consisting of a DC-to-DC converter, having a number of power switches (S o1, S o2, S o3, S o4, S u1, S u2, S u3, S u4), the DC-to-DC converter being configured to provide an output voltage (v 2) and an output-side load current (i L), a control unit, which is designed to calculate a reference current (i 2R) from electrical variables (i L1, i L2, i L3, i L v 2, i L) of the DC-to-DC converter and a battery model, which is connected to the control unit and is configured to obtain and process the reference current (i 2R) and to calculate a reference voltage (v 2R) from it and to provide it to the control unit, wherein the control unit contains a voltage controller, which processes the reference voltage (v 2R) and controls a current (i 1 *) to be set, on the basis of which the control unit controls the power switches (S o1, S o2, S o3, S o4, S u1, S u2, S u3, S u4) via switching pulses (S 1, S 2, S 3, S 4) in order to control the output voltage (v 2), characterized in that a Predictive Pulse-Pattern-Control unit is provided, which is connected to the voltage controller and comprises a Predictive Pulse-Pattern-Control controller, a pulse generator and a selection unit, which provides a number of pulse patterns (A, B, C, D), that the Predictive Pulse-Pattern-Control controller is configured to select a pulse pattern (A, B, C, D) of the selection unit on the basis of the current (i 1 *) to be set by the voltage controller and to control the power switches (S o1, S o2, S o3, S o4, S u1, S u2, S u3, S u4) via the pulse generator by means of switching pulses (S 1, S 2, S 3, S 4) according to this pulse pattern (A, B, C, D) in order to control the output voltage (v 2), and that the Predictive Pulse-Pattern-Control unit is configured to select the switching times (t 1, t 2, t 3, t 4, t 5, t 6, t 7) of the selected pulse pattern (A, B, C, D) of the power switches (S o1, S o2, S o3, S o4, S u1, S u2, S u3, S u4) on the basis of the current (i 1 *) to be set, wherein the Predictive Pulse-Pattern-Control unit in order to select the switching times (t 1, t 2, t 3, t 4, t 5, t 6, t 7) is configured to apply a cost function (J K) as a function of the switching times (t 1, t 2, t 3, t 4, t 5, t 6, t 7) and an output current (i 1), which cost function (J K) evaluates the deviation of the current (i 1 *) to be set and the output current (i 1), and to optimize the cost function (J K) with regard to the switching times (t 1, t 2, t 3, t 4, t 5, t 6, t 7).
Process for the preparation of a hardening accelerator composition by reaction of a calcium compound, preferably a calcium salt, most preferably a water-soluble calcium salt, with a silicon dioxide containing component under alkaline conditions at a temperature not exceeding 80°C and by applying milling, the reaction being carried out in the presence of an aqueous solution of a water-soluble comb polymer suitable as a plasticizer for hydraulic binders
An apparatus, comprising: a camera mounting beam coupled to a camera, the camera mounting beam including an elongated element having a first surface and a second surface; a first center mount coupled to the elongated element of the camera mounting beam at the second surface at a first position along the elongated element, wherein the first center mount comprises an elastomeric material (206, 206A), and wherein the first center mount couples the elongated element fixing a lateral position of the elongated element on a vehicle; and one or more end mounts (120A, 120B, 120C, 120D) coupled to the elongated element at the second surface at one or more slots along the elongated element of the camera mounting beam, wherein the center mount and the one or more end mounts (120A, 120B, 120C, 120D) are structured to couple the vehicle to the apparatus at a center attachment device of the apparatus and one or more end attachment devices of the apparatus, wherein each the one or more end mounts (120A, 120B, 120C, 120D) comprise an elastomeric material (206B, 206C) on said end attachment devices, and wherein the one or more end mounts (120A, 120B, 120C, 120D) couple the elongated element of the camera mounting beam to the vehicle and accommodates lateral expansion or contraction of the elongated element, wherein the one or more end mounts each include one of the end attachment devices that slides in a slot in the elongated element., a camera mounting beam coupled to a camera, the camera mounting beam including an elongated element having a first surface and a second surface; a first center mount coupled to the elongated element of the camera mounting beam at the second surface at a first position along the elongated element, wherein the first center mount comprises an elastomeric material (206, 206A), and wherein the first center mount couples the elongated element fixing a lateral position of the elongated element on a vehicle; and one or more end mounts (120A, 120B, 120C, 120D) coupled to the elongated element at the second surface at one or more slots along the elongated element of the camera mounting beam, wherein the center mount and the one or more end mounts (120A, 120B, 120C, 120D) are structured to couple the vehicle to the apparatus at a center attachment device of the apparatus and one or more end attachment devices of the apparatus, wherein each the one or more end mounts (120A, 120B, 120C, 120D) comprise an elastomeric material (206B, 206C) on said end attachment devices, and wherein the one or more end mounts (120A, 120B, 120C, 120D) couple the elongated element of the camera mounting beam to the vehicle and accommodates lateral expansion or contraction of the elongated element, wherein the one or more end mounts each include one of the end attachment devices that slides in a slot in the elongated element.,
An antireflection film comprising: a hard coating layer having a surface with center line average roughness (Ra) measured according to JIS standard JIS B 0601-1982 of 1.2 nm or less and surface energy of 34 mN/m or less; and a low refractive index layer which is formed on the mentioned surface of the hard coating layer, wherein the low refractive index layer includes a binder resin including a crosslinked (co)polymer between a photopolymerizable compound and two or more types of fluorine-containing compounds containing a photoreactive functional group, and inorganic fine particles dispersed in the binder resin, the two or more types of fluorine-containing compounds containing a photoreactive functional group have different fluorine content ranges depending on the types, the two or more types of fluorine-containing compounds containing a photoreactive functional group include a first fluorine-containing compound containing a photoreactive functional group and containing 25 % to 60 % by weight of fluorine, and a second fluorine-containing compound containing a photoreactive functional group and containing 1 % by weight or more and less than 25 % by weight of fluorine. a hard coating layer having a surface with center line average roughness (Ra) measured according to JIS standard JIS B 0601-1982 of 1.2 nm or less and surface energy of 34 mN/m or less; and a low refractive index layer which is formed on the mentioned surface of the hard coating layer, wherein the low refractive index layer includes a binder resin including a crosslinked (co)polymer between a photopolymerizable compound and two or more types of fluorine-containing compounds containing a photoreactive functional group, and inorganic fine particles dispersed in the binder resin, the two or more types of fluorine-containing compounds containing a photoreactive functional group have different fluorine content ranges depending on the types, the two or more types of fluorine-containing compounds containing a photoreactive functional group include a first fluorine-containing compound containing a photoreactive functional group and containing 25 % to 60 % by weight of fluorine, and a second fluorine-containing compound containing a photoreactive functional group and containing 1 % by weight or more and less than 25 % by weight of fluorine.
A reciprocating electric shaver, comprising a rotary motor; a conversion mechanism converting rotating motion of the rotary motor to reciprocating motion; and a pair of driving elements (130,140) reciprocating in phases opposite to each other, wherein the pair of driving elements (130,140) are individually connected to coupling members operating in conjunction with the reciprocating motions of the driving elements (130,140), each of the driving elements (130,140) and the coupling member connected thereto constitute a driving block (200,210), characterized in that each driving block (200,210) includes a balance adjustment portion (220,230) provided on the opposite side of a rotation axis of the rotary motor from the driving element (130,140) included in the driving block (200,210).