mhurhangee/patent-ind-claim-en huggingface dataset:
Method for providing a charging park having a plurality of charging points (10_1, ..., 10_n), in which method all of the charging points (10_1, ..., 10_n) are connected to a medium-voltage grid by means of a common transformer with overloading capability, wherein a connection by means of the medium-voltage grid is designed for more than 150 kW per charging point (10_1, ..., 10_n), wherein a power electronics system (12_1, ..., 12_n) is provided at each charging point (10_1, ..., 10_n), which power electronics system is designed to perform a charging operation of a connected electrically driven vehicle that is to be charged, and a power drawn from the medium-voltage grid jointly by the charging points (10_1, ..., 10_n) at a respective time is monitored centrally and/or decentrally and continuously at a grid contact point connected upstream of the transformer in the direction of the medium-voltage grid , wherein an average power drawn from the medium-voltage grid jointly by the charging points (10_1, ..., 10_n) is in each case adjusted over a prescribed time interval (16_4) at the maximum to a maximum power (16_7) established for the prescribed time interval (16_4), wherein a billing interval of a grid operator of the medium-voltage grid is selected as the prescribed time interval (16_4), characterized in that the average power drawn from the medium-voltage grid jointly by the charging points (10_1, ..., 10_n) is in each case adjusted over the prescribed time interval (16_4), wherein, in a partial interval of the prescribed time interval (16_4) or at individual times of the prescribed time interval (16_4), the power withdrawn from the medium-voltage grid jointly by the charging points (10_1, ..., 10_n) can exceed the average maximum permissible power (16_7) to be withdrawn as long as the average power withdrawn over the prescribed time interval (16_4) does not exceed the established maximum power (16_7), wherein a temporary withdrawal of an increased power that results here is furthermore also made possible by the transformer with overloading capability, which is operated temporarily in overload for these partial intervals or at these times, wherein the power drawn from the medium-voltage grid jointly by the charging points (10_1, ..., 10_n) at a respective time is monitored centrally and/or decentrally and continuously and is adjusted in each case dynamically for future times still located in the prescribed time interval (16_4) for the average power drawn from the medium-voltage grid jointly by the charging points (10_1, ..., 10_n) depending on the maximum power (16_7) established for the prescribed time interval (16_4) and is distributed across the plurality of charging points (10_1, ..., 10_n) depending on a demand required in each case from said charging points.
Module for a vehicle, wherein a plurality of individual operator control elements are combined in the module and are arranged in a common module housing , wherein the individual operator control elements each comprise an actuating unit for generating an electrical control signal for a vehicle component, an electronic display unit for presenting a display associated with the operator control element, and an actuator for generating haptic feedback to a vehicle user in response to an actuation of the actuating unit, and wherein the individual operator control elements can be separately programmed and activated in such a manner that different displays can be presented on the electronic display unit and/or different haptic feedback can be generated depending on the function associated with the operator control element in question.
A cable pulling assembly comprising: an enclosure adapted for enclosing an end of a fiber optic cable , the enclosure including: a first member defining a first cavity , the first cavity being adapted to receive a portion of the end of the fiber optic cable; a second member being selectively engaged to the first member, the second member defining a second cavity , and wherein the enclosure is adapted to transfer a tensile force applied to the enclosure to a strength layer of the fiber optic cable, characterised in that the second member is structurally identical to the first member. an enclosure adapted for enclosing an end of a fiber optic cable , the enclosure including: a first member defining a first cavity , the first cavity being adapted to receive a portion of the end of the fiber optic cable; a second member being selectively engaged to the first member, the second member defining a second cavity , and wherein the enclosure is adapted to transfer a tensile force applied to the enclosure to a strength layer of the fiber optic cable, characterised in that a first member defining a first cavity , the first cavity being adapted to receive a portion of the end of the fiber optic cable; a second member being selectively engaged to the first member, the second member defining a second cavity , and wherein the enclosure is adapted to transfer a tensile force applied to the enclosure to a strength layer of the fiber optic cable, characterised in that the second member is structurally identical to the first member.
A transmission method for coaxially outputting rotation and revolution wherein: a power input shaft is an eccentric shaft including a spindle and a crank shaft connected with each other; a power output shaft revolves around a spindle axis of the power input shaft , and meanwhile rotates reversely at the same speed around its own axis and bears an axial load, with the method specifically as follows: the power input shaft , through transmission of a K-H-V planetary gear train with small teeth difference, is used to make the axis of the power output shaft coincide with a crank-shaft axis of the power input shaft , and make the power output shaft revolve around the spindle axis of the power input shaft , with the revolutional speed equal to the rotational speed of the power input shaft ; meanwhile, main power of the power input shaft , through superposition of a transition gear train on the K-H-V planetary gear train with small teeth difference, makes the power output shaft rotate reversely at the same speed to the power input shaft ; and a series thrust bearing set is used to bear the axial load.
An arrangement for connecting at least one fuel injection valve to a fuel distributor of a fuel injection system of a combustion engine, said fuel distributor being fastened detachably to a cylinder head , wherein the at least one fuel injection valve is fastened detachably to a receiving element of the fuel distributor by means of a fixing element , wherein a cylinder-remote face (A210) of the receiving element of the fuel distributor and a cylinder-facing face (A330) of the fixing element are designed as contact faces (A210, A330) in the assembled state of the cylinder head and the fuel distributor as well as the fuel injection valve , by means of which contact faces axial fixation and radial alignment of the fuel injection valve in the cylinder head and in the receiving element of the fuel distributor can be brought about by attaching the fixing element to the fuel injection valve , wherein the fixing element is a screw head having a blind bore which is provided with an internal thread (330A-1), which faces the cylinder-remote face (A210) of the receiving element when in the assembled state, characterized in that the cylinder-facing face (A330) is formed around the blind bore of the fixing element , and the internal thread (330A-1) of the blind bore corresponds with an external thread of a fuel connector , designed as a threaded bolt, of the fuel injection valve , wherein the fixing element is screwed by means of its internal thread (330A-1) onto the external thread of the fuel connector so that the contact faces (A210, A330) come into contact, wherein an axial drawing-in torque is brought about by the screw effect, whereby the fuel injection valve is arranged axially in its end position in the longitudinal extent of the fuel injection valve and of the through-opening in the receiving element , wherein a radial alignment of the longitudinal center axis (X M ) of the fuel injection valve relative to a longitudinal axis of an installation channel and within the through-openings in the receiving element also takes place via the contact faces (A210, A330) so that the fuel injection valve is also arranged radially in its end position.
A gas turbine engine , wherein the gas turbine engine defines a longitudinal direction, a radial direction, and a circumferential direction, and an axial centerline extended along the longitudinal direction, and an upstream end and a downstream end along the longitudinal direction, the gas turbine engine comprising: an annular stationary turbine frame centered around the axial centerline ; an engine shaft extended generally along the longitudinal direction; an input shaft extended generally along the longitudinal direction; a gear assembly comprising a first gear coupled to the input shaft , a second gear coupled to the turbine frame ; the gas turbine engine being characterised by an inner spool coupling the first gear and the second gear , wherein the inner spool defines a gear axis extended therethrough, and wherein the inner spool , the first gear , and the second gear are together rotatable about the gear axis , and wherein the gear axis is rotatable about the axial centerline of the engine ; and a housing coupled to the inner spool and the engine shaft . an annular stationary turbine frame centered around the axial centerline ; an engine shaft extended generally along the longitudinal direction; an input shaft extended generally along the longitudinal direction; a gear assembly comprising a first gear coupled to the input shaft , a second gear coupled to the turbine frame ; the gas turbine engine being characterised by an inner spool coupling the first gear and the second gear , wherein the inner spool defines a gear axis extended therethrough, and wherein the inner spool , the first gear , and the second gear are together rotatable about the gear axis , and wherein the gear axis is rotatable about the axial centerline of the engine ; and a housing coupled to the inner spool and the engine shaft .
An injector configured for arrangement within a reaction chamber (I) of a substrate processing apparatus to inject gas in the reaction chamber (I), the injector being substantially elongated along a first axis (Z) and configured with an internal gas conduction channel extending along the first axis (Z) and provided with at least one gas entrance opening and at least one gas exit opening, whereby the injector has a width extending along a second axis (X) perpendicular to the first axis (Z) substantially larger than a depth of the injector extending along a third axis (Y) perpendicular to the first (Z) and second axis (X), wherein the wall of the injector has a varying thickness and wherein the internal gas conduction channel has a substantially oval shaped cross section whereby the internal gas conduction channel extends along the second axis (X) substantially larger than the internal gas conduction channel extends along the third axis (Y), wherein the substantially oval shaped cross section is partially pinched off in the middle of the second direction by the wall having an increased thickness.
A loudspeaker, comprising: - a first diaphragm , - a second diaphragm spaced from the first diaphragm , - a first voice coil coupled to the first diaphragm , - a second voice coil coupled to the second diaphragm , - a magnet assembly comprising a magnet , a magnetic piece and a spacer of non-magnetic material connecting the magnet and the magnetic piece such that a gap is provided between the magnet and the magnetic piece , wherein the first voice coil is arranged at a first end of the gap and the second voice coil is arranged at a second end of the gap opposite the first end of the gap , wherein the gap is at least partially filled with the spacer , wherein at least the ends of the gap are not filled with the spacer to accommodate the first voice coil and the second voice coil , - a basket coupled to at least one of the magnet and the magnetic piece , - a first surround coupling an outer circumference of the first diaphragm to the basket , - a second surround coupling an outer circumference of the second diaphragm to the basket , and - an elastic element arranged between the first diaphragm and the second diaphragm , characterized in that a first end of the elastic element is coupled to a center of the first diaphragm , and a second end of the elastic element is coupled to a center of the second diaphragm . - a first diaphragm , - a second diaphragm spaced from the first diaphragm , - a first voice coil coupled to the first diaphragm , - a second voice coil coupled to the second diaphragm , - a magnet assembly comprising a magnet , a magnetic piece and a spacer of non-magnetic material connecting the magnet and the magnetic piece such that a gap is provided between the magnet and the magnetic piece , wherein the first voice coil is arranged at a first end of the gap and the second voice coil is arranged at a second end of the gap opposite the first end of the gap , wherein the gap is at least partially filled with the spacer , wherein at least the ends of the gap are not filled with the spacer to accommodate the first voice coil and the second voice coil , - a basket coupled to at least one of the magnet and the magnetic piece , - a first surround coupling an outer circumference of the first diaphragm to the basket , - a second surround coupling an outer circumference of the second diaphragm to the basket , and - an elastic element arranged between the first diaphragm and the second diaphragm , characterized in that a first end of the elastic element is coupled to a center of the first diaphragm , and a second end of the elastic element is coupled to a center of the second diaphragm .
A display device intended to be mounted on an instrument panel, said display device having a front face on which is mounted a touch surface and a bearing face bearing on the instrument panel, the front face and the bearing face having rectangular forms, the touch surface being surrounded by a rigid frame , characterised in that this frame has, on its perimeter, a flange , configured for a user's fingers to grip the screen, so that his hand is in traction, situated in the extension of the front face, the section of this flange in a plane perpendicular to the front face being rectangular, the flange topping the front face by a height equal to or greater than 3 millimeters, its depth being equal to or greater than 3 millimeters and the distance separating the internal wall of this flange from the bearing face being equal to or greater than 10 millimeters, the frame having at least one point of reference, consisting of a protrusion arranged between the internal wall of the flange and the bearing face, said point of reference having a substantially parallelepipedal form, its height being that of the flange, its depth being equal to the distance separating the internal wall of the flange from the bearing face, its width being equal to or greater than 5 millimeters.
A composition comprising a nucleated carrier cell that homes to a tumor and is covalently conjugated to a nanoparticle, wherein said nanoparticle comprises an agent, wherein the carrier cell maintains the nanoparticle on the cell surface, and wherein the agent is to be released from the nanoparticle in vivo, for use as a medicament for delivering an agent to a subject having a tumor.
A radiation detector comprising: a scintillator having a first surface ; and a photosensor system comprising a discrete photosensor disposed on the first surface such that a shortest distance from a peripheral edge of the discrete photosensor to a nearest peripheral edge of the first surface is at most 10% of a shortest distance from the nearest peripheral edge of the first surface to a center point of the first surface , and at least one of the following: the photosensor system occupies a cumulative area of at most 80% of a surface area of the first surface , and the photosensor system does not occupy any area within a distance of the center point of the first surface that is 10% of the distance from the center point of the first surface to the nearest peripheral edge of the first surface , wherein the scintillator has an aspect ratio in a range of 1.2 to 7, the aspect ratio being equal to the length (L) of the scintillator divided by the width (W S ) of the first surface . a scintillator having a first surface ; and a photosensor system comprising a discrete photosensor disposed on the first surface such that a shortest distance from a peripheral edge of the discrete photosensor to a nearest peripheral edge of the first surface is at most 10% of a shortest distance from the nearest peripheral edge of the first surface to a center point of the first surface , and at least one of the following: the photosensor system occupies a cumulative area of at most 80% of a surface area of the first surface , and the photosensor system does not occupy any area within a distance of the center point of the first surface that is 10% of the distance from the center point of the first surface to the nearest peripheral edge of the first surface , wherein the scintillator has an aspect ratio in a range of 1.2 to 7, the aspect ratio being equal to the length (L) of the scintillator divided by the width (W S ) of the first surface . the photosensor system occupies a cumulative area of at most 80% of a surface area of the first surface , and the photosensor system does not occupy any area within a distance of the center point of the first surface that is 10% of the distance from the center point of the first surface to the nearest peripheral edge of the first surface , wherein the scintillator has an aspect ratio in a range of 1.2 to 7, the aspect ratio being equal to the length (L) of the scintillator divided by the width (W S ) of the first surface .
A light detection and ranging LIDAR, device , comprising: a housing configured to rotate about an axis, wherein the housing has an interior space that includes a transmit block , a receive block , and a shared space , wherein the transmit block has an exit aperture in a wall that comprises a reflective surface , and wherein the receive block has an entrance aperture which is separate to the exit aperture of the transmit block; a lens mounted to the housing; a plurality of light sources (222a-c) in the transmit block, wherein the plurality of light sources are configured to emit a plurality of light beams (202a-c) that enter the shared space through the exit aperture and traverse the shared space via a transmit path which extends from the exit aperture to the lens, the light beams comprising light having wavelengths in a wavelength range; and a plurality of detectors (232a-c) in the receive block, wherein the plurality of detectors are configured to detect light having wavelengths in the wavelength range; wherein the lens is configured to receive the light beams via the transmit path, collimate the light beams for transmission into an environment of the LIDAR device, collect light comprising light from one or more of the collimated light beams reflected by one or more objects in the environment of the LIDAR device, and focus the collected light onto the detectors via a receive path that extends from the lens through the shared space to the entrance aperture of the receive block via the reflective surface. a housing configured to rotate about an axis, wherein the housing has an interior space that includes a transmit block , a receive block , and a shared space , wherein the transmit block has an exit aperture in a wall that comprises a reflective surface , and wherein the receive block has an entrance aperture which is separate to the exit aperture of the transmit block; a lens mounted to the housing; a plurality of light sources (222a-c) in the transmit block, wherein the plurality of light sources are configured to emit a plurality of light beams (202a-c) that enter the shared space through the exit aperture and traverse the shared space via a transmit path which extends from the exit aperture to the lens, the light beams comprising light having wavelengths in a wavelength range; and a plurality of detectors (232a-c) in the receive block, wherein the plurality of detectors are configured to detect light having wavelengths in the wavelength range; wherein the lens is configured to receive the light beams via the transmit path, collimate the light beams for transmission into an environment of the LIDAR device, collect light comprising light from one or more of the collimated light beams reflected by one or more objects in the environment of the LIDAR device, and focus the collected light onto the detectors via a receive path that extends from the lens through the shared space to the entrance aperture of the receive block via the reflective surface.
A method of monitoring components of a railway system which includes a track and at least one train that is operable to run on said track , comprising the steps of: a) providing an acoustic transducer proximate the railway for picking up acoustic signals; b) receiving signals from the transducer ; and c) analysing the received signals, the method further comprising identifying a signature associated with fixed railway assets wherein the fixed assets comprise at least one asset selected from the group including: points, point machines, level crossings, cables, switches, track; characterised in that : the acoustic transducer comprises an optical fibre; and in that the method includes picking up the vibration caused by the moving parts of a fixed railway asset and comparing with the signature for the fixed railway asset. a) providing an acoustic transducer proximate the railway for picking up acoustic signals; b) receiving signals from the transducer ; and c) analysing the received signals, the acoustic transducer comprises an optical fibre; and in that the method includes picking up the vibration caused by the moving parts of a fixed railway asset and comparing with the signature for the fixed railway asset.
A massager pick for an oral irrigator comprising: a) a hollow left side branch comprising an inlet and an outlet ; b) a hollow right side branch comprising an inlet and an outlet ; c) an inlet tube comprising an inlet and an outlet ; and d) a hollow bridge comprising a left end, a right end and a top surface, wherein: e) said outlet of said inlet tube is connected to said inlet of said left side branch and said inlet of said right side branch; f) said left end of said bridge is connected to said outlet of said left side branch; g) said right end of said bridge is connected to said outlet of said right side branch; h) said top surface comprises a plurality of exit orifices ; characterized in that i) said top surface of said bridge comprises a plurality of upward directed converging nozzles ; j) said top surface of said bridge is covered with an elastomeric layer ; k) said elastomeric layer is shaped to form a plurality of upward directed nubs ; and l) each of said exit orifices passes through one of said nozzles and one of said nubs. a) a hollow left side branch comprising an inlet and an outlet ; b) a hollow right side branch comprising an inlet and an outlet ; c) an inlet tube comprising an inlet and an outlet ; and d) a hollow bridge comprising a left end, a right end and a top surface, wherein: e) said outlet of said inlet tube is connected to said inlet of said left side branch and said inlet of said right side branch; f) said left end of said bridge is connected to said outlet of said left side branch; g) said right end of said bridge is connected to said outlet of said right side branch; h) said top surface comprises a plurality of exit orifices ; characterized in that i) said top surface of said bridge comprises a plurality of upward directed converging nozzles ; j) said top surface of said bridge is covered with an elastomeric layer ; k) said elastomeric layer is shaped to form a plurality of upward directed nubs ; and l) each of said exit orifices passes through one of said nozzles and one of said nubs.