mhurhangee/ep-ind-claims huggingface dataset:
A seat restraint system for use in a vehicle seat, the system comprising a vehicle seat being adjustable in a height direction and in a longitudinal direction, said vehicle seat comprising a seat frame with a slider which slidingly engages a guiding rail which is configured to be fixedly supported by a vehicle body; and wherein the system further comprises a retraction arrangement configured to extend along a longitudinally extending inner or exterior wall portion of the guiding rail; and a connector having a free length allowing the vehicle seat to be adjusted between minimum and maximum height positions and/or minimum and maximum longitudinal positions of the vehicle seat, and the connector having a first end connected to a driver of the retraction arrangement, and a second end connected to a reinforcing tube extending in the transverse direction between a respective rear end portion of two opposing longitudinally extending frame members of the seat frame; and wherein the retraction arrangement is configured to, upon an activation signal, be activated to eliminate any slack of the connector. a vehicle seat being adjustable in a height direction and in a longitudinal direction, said vehicle seat comprising a seat frame with a slider which slidingly engages a guiding rail which is configured to be fixedly supported by a vehicle body; and wherein the system further comprises a retraction arrangement configured to extend along a longitudinally extending inner or exterior wall portion of the guiding rail; and a connector having a free length allowing the vehicle seat to be adjusted between minimum and maximum height positions and/or minimum and maximum longitudinal positions of the vehicle seat, and the connector having a first end connected to a driver of the retraction arrangement, and a second end connected to a reinforcing tube extending in the transverse direction between a respective rear end portion of two opposing longitudinally extending frame members of the seat frame; and wherein the retraction arrangement is configured to, upon an activation signal, be activated to eliminate any slack of the connector.
An arrangement for the deep strip tillage of a soil forming tilled channels in non-tilled soil, wherein a secondary working element includes one or more working element sections (111a, 111b, 111c, 111d), wherein, in a working position, a first working element section exhibits a larger working depth than a primary working element, characterized in that each working element section (111a, 111b, 111c, 111d) comprises a share arrangement arranged between plate-shaped first and second shanks (113a, 113b), said first and second shanks (113a, 113b) being attached to side edges (112a, 112b) of the share arrangement and forming borders between a loose-soil channel and a portion of the non-tilled soil, each working element section (111a, 111b, 111c, 111d) of the share arrangement forming the desired width of the channel, further working element sections (111b, 111c, 111d) each exhibiting a larger working depth than the preceding working element section (111a, 111b, 111c), the working element sections (111a, 111b, 111c, 111d) exhibiting a horizontal spacing, viewed rearwards from the first working element sections relative to the working direction of the secondary working element, and the centre lines of successive working element sections (111a, 111b, 111c, 111d) being arranged in the same plane. a first working element section exhibits a larger working depth than a primary working element, characterized in that each working element section (111a, 111b, 111c, 111d) comprises a share arrangement arranged between plate-shaped first and second shanks (113a, 113b), said first and second shanks (113a, 113b) being attached to side edges (112a, 112b) of the share arrangement and forming borders between a loose-soil channel and a portion of the non-tilled soil, each working element section (111a, 111b, 111c, 111d) of the share arrangement forming the desired width of the channel, further working element sections (111b, 111c, 111d) each exhibiting a larger working depth than the preceding working element section (111a, 111b, 111c), the working element sections (111a, 111b, 111c, 111d) exhibiting a horizontal spacing, viewed rearwards from the first working element sections relative to the working direction of the secondary working element, and the centre lines of successive working element sections (111a, 111b, 111c, 111d) being arranged in the same plane.
Wide-angle optical unit for ophthalmological implants in an eye, comprising a lens system arranged rotationally symmetrically about an optical axis, comprising at least two lenses lying areally one on another and composed of materials having different optical refractive indexes, and a supplementary lens, which is arranged proximally with respect to the inside of the eye, characterized in that an optical coupling-out structure is placed around the supplementary lens.
Double stent comprising coaxially arranged stents, wherein a first membrane is arranged between a first inner stent and at least two outer stents, characterised in that a second membrane is arranged on the outer stents, and in that the membrane ends of the first and second membranes are brought together at the ends of the stents (3, 4), are folded over onto the inner face of the first stent and are clamped under spring tongues of the first stent.
A cloud-based gaming method, comprising: comparing a first-pass resolution of a first pass encoding of a multi-pass encoding process to a second-pass resolution of a second pass encoding of the multi-pass encoding process; producing a shared reference frame from a second-pass reference frame used in the second pass encoding based on the comparison; performing the first pass encoding on a first game frame of a stream of game frames at the first-pass resolution using the shared reference frame to determine an estimated complexity of the first game frame; and performing the second pass encoding on the first game frame at the second-pass resolution using the second-pass reference frame and according to the estimated complexity to generate an encoded frame. comparing a first-pass resolution of a first pass encoding of a multi-pass encoding process to a second-pass resolution of a second pass encoding of the multi-pass encoding process; producing a shared reference frame from a second-pass reference frame used in the second pass encoding based on the comparison; performing the first pass encoding on a first game frame of a stream of game frames at the first-pass resolution using the shared reference frame to determine an estimated complexity of the first game frame; and performing the second pass encoding on the first game frame at the second-pass resolution using the second-pass reference frame and according to the estimated complexity to generate an encoded frame.
A perfume container comprising: - a receptacle containing the perfume; - a stopper applicable to the receptacle; wherein a stone is removably located in a housing fashioned in said container; said stone being a diamond or a ruby or an emerald; the stopper comprising: - a cap having at least a transparent portion to allow to see the stone; - a support for the cap to which the cap is removably constrained. - a receptacle containing the perfume; - a stopper applicable to the receptacle; - a cap having at least a transparent portion to allow to see the stone; - a support for the cap to which the cap is removably constrained.
A method for determining functional states of light emission devices of a vehicle by means of a camera system, characterized in that image data are captured from at least one lateral area or rear area around the vehicle by means of at least one camera of a camera system, which camera is arranged laterally or in the rear at or in the vehicle, and in that at least one functional state of at least one light emission device arranged in the corresponding lateral area or rear area of the vehicle is determined by means of image processing of the image data.
A computer-implemented method for transmitting data to a blockchain, the method comprising: Transmitting, to the blockchain, a first transaction ( T c) for committing a first quantity ( x) of tokens to transfer to a second node associated with an entity, the first transaction ( T c) having a first output; generating first content for transmission to the blockchain; and transmitting, to the blockchain, a second transaction ( T f 1) that returns a second quantity ( d) of the committed first quantity ( x) of tokens to an address associated with a first node, the second transaction ( T f 1) having the first output of the first transaction ( T c) as an input, wherein the first content is used to unlock the first output of the first transaction ( T c). Transmitting, to the blockchain, a first transaction ( T c) for committing a first quantity ( x) of tokens to transfer to a second node associated with an entity, the first transaction ( T c) having a first output; generating first content for transmission to the blockchain; and transmitting, to the blockchain, a second transaction ( T f 1) that returns a second quantity ( d) of the committed first quantity ( x) of tokens to an address associated with a first node, the second transaction ( T f 1) having the first output of the first transaction ( T c) as an input, wherein the first content is used to unlock the first output of the first transaction ( T c).
A computer implemented method for identifying an address of a device parameter among a plurality of device parameters of an industrial device, characterized in that the method comprises the following steps: a) defining a screening library, wherein the screening library comprises at least one expected attribute value and the expected attribute value describes an expected status value of a corresponding device parameter among said plurality of device parameters in at least one preset operating mode of an industrial device, wherein the device parameter is a device parameter to be addressed, b) acquiring a data array, wherein the data array comprises at least one actual status value generated in the at least one preset operating mode of the industrial device and at least one address, where the at least one actual status value is stored in a controller controlling the industrial device, c) for each address of the at least one address, extracting the actual attribute value of the actual status value stored in the address, d) for each of the extracted actual attribute value comparing the actual attribute value with the expected attribute value, determining a corresponding actual status value of the actual attribute value complying with the expected attribute value, and determining the corresponding address of the actual status value selected from the data array, and e) outputting the one or more selected addresses as one or more final addresses. a) defining a screening library, wherein the screening library comprises at least one expected attribute value and the expected attribute value describes an expected status value of a corresponding device parameter among said plurality of device parameters in at least one preset operating mode of an industrial device, wherein the device parameter is a device parameter to be addressed, b) acquiring a data array, wherein the data array comprises at least one actual status value generated in the at least one preset operating mode of the industrial device and at least one address, where the at least one actual status value is stored in a controller controlling the industrial device, c) for each address of the at least one address, extracting the actual attribute value of the actual status value stored in the address, d) for each of the extracted actual attribute value comparing the actual attribute value with the expected attribute value, determining a corresponding actual status value of the actual attribute value complying with the expected attribute value, and determining the corresponding address of the actual status value selected from the data array, and e) outputting the one or more selected addresses as one or more final addresses.
A method for managing thermal energy generation in a portable computing device, "PCD", the method comprising: defining temperature thresholds associated with one or more components in the PCD; monitoring one or more temperature sensors in the PCD, wherein each temperature sensor is associated with one of the one or more components and generates signals that represent an instantaneous temperature; tracking an instantaneous thermal resistance value associated with each of the one or more components, wherein the thermal resistance value of a component is calculated from the instantaneous temperature of the component, an active power supply to the component and an ambient temperature of the PCD; determining that a temperature threshold associated with at least one of the one or more components has been exceeded; calculating an adjusted power supply for the at least one of the one or more components, wherein the adjusted power supply is calculated from a target temperature of the component, the ambient temperature of the PCD and the instantaneous thermal resistance value associated with the component; and applying the adjusted power supply to the component. defining temperature thresholds associated with one or more components in the PCD; monitoring one or more temperature sensors in the PCD, wherein each temperature sensor is associated with one of the one or more components and generates signals that represent an instantaneous temperature; tracking an instantaneous thermal resistance value associated with each of the one or more components, wherein the thermal resistance value of a component is calculated from the instantaneous temperature of the component, an active power supply to the component and an ambient temperature of the PCD; determining that a temperature threshold associated with at least one of the one or more components has been exceeded; calculating an adjusted power supply for the at least one of the one or more components, wherein the adjusted power supply is calculated from a target temperature of the component, the ambient temperature of the PCD and the instantaneous thermal resistance value associated with the component; and applying the adjusted power supply to the component.
A reduced pressure double glazed glass panel for separating an indoor space from an outdoor space, the reduced pressure double glazed glass panel comprising: a pair of glass sheets (2, 3); and a gap portion formed between the pair of glass sheets (2, 3) and sealed under reduced pressure with a peripheral sealing portion provided between the pair of glass sheets (2, 3) along peripheries thereof, wherein the pair of glass sheets (2, 3) comprises an inside glass sheet provided to face the indoor space and an outside glass sheet provided to face the outdoor space, the outside glass sheet has a first glass surface disposed to face the outdoor space and a second glass surface disposed to face the gap portion, a Low-E film with an emissivity ε of 0.067 or less is formed on the second glass surface, the outside glass sheet has a solar reflectance R G(solar) of 31% or more and 40% or less as measured on the first glass surface, and the outside glass sheet has a solar absorptance A G(solar) of (48 - R G(solar))% or more and 17% or less as measured on the first glass surface, and the reduced pressure double glazed glass panel has a solar heat gain coefficient SHGC of 0.50 or less and a thermal transmittance U value of 1.2 W/m 2 •K or less the Low-E film is a stack of a lower dielectric layer, a metal layer, a sacrifice layer, and an upper dielectric layer, which are stacked in this order on the second glass surface, the metal layer contains silver as a main component, the sacrifice layer contains, as a main component, at least one metal material selected from titanium, zinc, nickel, chromium, niobium, and stainless steel or an oxide of the metal material, the lower dielectric layer and the upper dielectric layer each include one or more amorphous layers and one or more crystalline layers, the lower dielectric layer has a thickness of 5 nm or more and 40 nm or less, the metal layer has a thickness of 11 nm or more and 16 nm or less, the sacrifice layer has a thickness of 0.5 nm or more and 15 nm or less, and the upper dielectric layer has a thickness of 30 nm or more and 70 nm or less, characterized in that the lower dielectric layer is a stack of a first amorphous tin-zinc oxide layer and a first crystalline layer containing zinc oxide as a main component, which are stacked in this order, and the upper dielectric layer is a stack of a second crystalline layer containing zinc oxide as a main component, a second amorphous tin-zinc oxide layer, and an amorphous layer containing silicon nitride as a main component, which are stacked in this order.
A geared motor, consisting of a direct current motor with a motor shaft, a planetary gear with a sun gear, a plurality of planet wheels, a ring gear, a gear housing, a gear output shaft and a planetary carrier, wherein the planet wheels engage teeth of the ring gear, the planetary gear consists of one or a plurality of planetary gear stages, all sun gears (5, 21), all planet wheels (6, 22) and all planetary carriers (19, 24) are held axially in the gear housing by a disc provided with a shaft passage and form a pre-assembly structural component, the sun gear which is first at the side closest to the motor has a central shaft receiver which is formed with a form-lock contour acting in the rotational direction and is coupled to the motor shaft via a corresponding form-lock contour in a rotationally-fixed manner or while retaining rotational play and that teeth engagement of the first sun gear with teeth of the first planet wheels is produced in the pre-assembly structural component after final mounting of the direct current motor on the pre-assembly structural component, characterised in that the disc has an annular surface as a sun gear thrust surface and the sun gear thrust surface projects axially with respect to a ring surface adjoining radially outwards.
A permanent magnet machine that comprises: a generally cylindrical permanent magnet rotor that comprises multiple PM rotor poles arranged around a rotor axis of rotation; and a stator with two generally cylindrical and concentric yokes (16,18), an inner yoke proximate the PM rotor with associated multiple inner poles and inner armature windings suitable for multiphase alternating current operation that form a PMM magnetic flux circuit, an outer yoke with associated multiple outer poles and outer control windings suitable for connection to a direct current source, with distal ends of the outer poles in contact with the inner yoke to form an external magnetic flux circuit that diverts magnetic flux from the PMM magnetic flux circuit; characterized in that: the inner yoke comprises a ferromagnetic material with a magnetic permeability μ 1 and the outer yoke comprises a ferromagnetic material with a magnetic permeability μ 2, the magnetic reluctance of the inner yoke is greater than the magnetic reluctance of the outer yoke, and the magnetic permeability μ 2 is greater than the magnetic permeability μ 1. a generally cylindrical permanent magnet rotor that comprises multiple PM rotor poles arranged around a rotor axis of rotation; and a stator with two generally cylindrical and concentric yokes (16,18), an inner yoke proximate the PM rotor with associated multiple inner poles and inner armature windings suitable for multiphase alternating current operation that form a PMM magnetic flux circuit, an outer yoke with associated multiple outer poles and outer control windings suitable for connection to a direct current source, with distal ends of the outer poles in contact with the inner yoke to form an external magnetic flux circuit that diverts magnetic flux from the PMM magnetic flux circuit; characterized in that: the inner yoke comprises a ferromagnetic material with a magnetic permeability μ 1 and the outer yoke comprises a ferromagnetic material with a magnetic permeability μ 2, the magnetic reluctance of the inner yoke is greater than the magnetic reluctance of the outer yoke, and the magnetic permeability μ 2 is greater than the magnetic permeability μ 1. the inner yoke comprises a ferromagnetic material with a magnetic permeability μ 1 and the outer yoke comprises a ferromagnetic material with a magnetic permeability μ 2, the magnetic reluctance of the inner yoke is greater than the magnetic reluctance of the outer yoke, and the magnetic permeability μ 2 is greater than the magnetic permeability μ 1.
A hybrid wheel loader comprising: - a rear body that includes a rear frame and a rear axle; - a front body that is linked to the rear body so that they are able to articulate and includes a front frame and a front axle; - an engine (8, 50) that is disposed on the rear frame and includes a drive shaft; - a motor generator that includes a rotating shaft directly attached to the drive shaft of the engine (8, 50); - a transmission that includes an input shaft attached to the rotating shaft of the motor generator, a gear train set over a plurality of stages, and an output shaft; - a propeller shaft that is linked to the output shaft of the transmission and transmits a drive force to the front axle and the rear axle; - a traveling dynamo-electric motor that is mounted on an axis of the propeller shaft transmitting the drive force to the front axle; - an electricity storage device; and - a control device that stores electricity into the electricity storage device by collecting electrical energy at the motor generator, characterized in that: the motor generator is linked to the propeller shaft via the transmission alone, the traveling dynamo-electric motor is disposed inside the front frame and mounted on the axis of the propeller shaft with no gear train present therebetween, and wherein a sum of a length of the flywheel and a length of the torque converter matches a length (LM/G) of the motor generator so that the flywheel and the torque converter can be mounted in place of the motor generator. - a rear body that includes a rear frame and a rear axle; - a front body that is linked to the rear body so that they are able to articulate and includes a front frame and a front axle; - an engine (8, 50) that is disposed on the rear frame and includes a drive shaft; - a motor generator that includes a rotating shaft directly attached to the drive shaft of the engine (8, 50); - a transmission that includes an input shaft attached to the rotating shaft of the motor generator, a gear train set over a plurality of stages, and an output shaft; - a propeller shaft that is linked to the output shaft of the transmission and transmits a drive force to the front axle and the rear axle; - a traveling dynamo-electric motor that is mounted on an axis of the propeller shaft transmitting the drive force to the front axle; - an electricity storage device; and - a control device that stores electricity into the electricity storage device by collecting electrical energy at the motor generator, the motor generator is linked to the propeller shaft via the transmission alone, the traveling dynamo-electric motor is disposed inside the front frame and mounted on the axis of the propeller shaft with no gear train present therebetween, and wherein a sum of a length of the flywheel and a length of the torque converter matches a length (LM/G) of the motor generator so that the flywheel and the torque converter can be mounted in place of the motor generator.