mhurhangee/ep-ind-claims huggingface dataset:
Fitting for a vehicle seat, having a first ring gear having a first ring gear toothing (114; 214), a second ring gear which has a second ring gear toothing and is mounted so as to be rotatable relative to the first ring gear about an axis, and at least one planet gear which is mounted on a planet carrier so as to be rotatable eccentrically to the axis and meshes with the first ring gear toothing (114; 214) and the second ring gear toothing, wherein by rotating the planet carrier about the axis the at least one planet gear is rollable in the first ring gear toothing (114; 214) and in the second ring gear toothing, as a result of which the first ring gear and the second ring gear are rotatable relative to one another about the axis, characterized in that at least one interlocking planet gear (150; 250) which is rotatable about an interlocking planet gear rotation axis permanently meshes with the first ring gear toothing (114; 214) and permanently meshes with the second ring gear toothing, and a spacing between the interlocking planet gear rotation axis and the axis is variable in such a manner that the at least one interlocking planet gear (150; 250) is selectively transferable between a locking gear mesh and a non-locking gear mesh with the first ring gear toothing (114; 214) and/or the second ring gear toothing.
A method comprising for selectively analyzing radar signals of a radar system of a vehicle, the method comprising the steps of: receiving a plurality of radar signals via the radar system; obtaining data from one or more sensors of the vehicle having a modality that is different from the radar system, wherein the modality refers to the types of inputs provided by the one or more sensors; selectively analyzing the plurality of radar signals based upon the data from the one or more sensors; wherein the obtaining the data comprises obtaining object-level data from each of the one or more sensors regarding one or more objects on or along a road in which the vehicle is travelling, wherein the object-level data refer to an object type or properties of the one or more objects; wherein the selectively analyzing the plurality of radar signals comprises identifying a target on the road in which the vehicle is travelling by selectively analyzing the plurality of radar signals based upon the object-level data; and determining whether each of the plurality of radar signals was reflected from one or more objects that are likely to interfere with tracking of the target; wherein the identifying the target on the road comprises identifying the target on the road by analyzing the plurality of radar signals, except for those reflected from an object that is likely to interfere with tracking of the target. receiving a plurality of radar signals via the radar system; obtaining data from one or more sensors of the vehicle having a modality that is different from the radar system, wherein the modality refers to the types of inputs provided by the one or more sensors; selectively analyzing the plurality of radar signals based upon the data from the one or more sensors; wherein the obtaining the data comprises obtaining object-level data from each of the one or more sensors regarding one or more objects on or along a road in which the vehicle is travelling, wherein the object-level data refer to an object type or properties of the one or more objects; wherein the selectively analyzing the plurality of radar signals comprises identifying a target on the road in which the vehicle is travelling by selectively analyzing the plurality of radar signals based upon the object-level data; and determining whether each of the plurality of radar signals was reflected from one or more objects that are likely to interfere with tracking of the target; wherein the identifying the target on the road comprises identifying the target on the road by analyzing the plurality of radar signals, except for those reflected from an object that is likely to interfere with tracking of the target.
Package for liquid products, said package comprising a box and an air-tight bag, said box containing said air-tight bag adapted for containing and discharging a liquid product, wherein the package further comprises an outlet part) adapted to when opening a tap therein discharge the liquid product, said outlet part being arranged to the bag and in the box such that the entire outlet part or part thereof during use can be pulled out on a side thereof by a user by pulling said outlet part out of the side of said box in a single grip to a stop position, wherein surrounding the outlet part is arranged a guide part, characterised in that one end of said guide part is attached to the bag, wherein the guide part is provided as a swing-hatch in a frame part, and wherein when a user opens the package 10 and pulls the outlet part 16 being attached into the swing hatch 19b, the hatch 19b swings towards a plane of the frame part and is exposed outside the side 18 to a user.
A compound semiconductor represented by the following Chemical Formula 1: [Chemical Formula 1] Nd x S y Co 4 Sb 12-z Q z wherein, in Chemical Formula 1, Q is one or more selected from the group consisting of O, Se, and Te, 0<x<0.2, 0<y≤1, and 0<z<12.
A brain mapping system for detecting an evoked response caused by stimulation, using at least one EMG electrode, comprising: a. a first deep brain stimulation probe shaped and sized to be inserted into a brain of a subject, having a proximal end and a distal end and a longitudinal axis, the probe comprising a plurality of contacts (300, 310) operably coupled thereto, disposed along the longitudinal axis, wherein at least one contact is selectively operable for stimulating a physiological evoked response while said first DBS probe is advanced through brain regions towards a desired DBS target area; b. at least one EMG electrode configured to be placed on or in muscles of said subject operable for recording an evoked response while said first DBS probe is advanced through said brain regions towards said desired DBS target area; and c. an analysis module being in communication with said at least one EMG electrode, and is operative for analyzing recorded evoked physiological responses along an insertion path of said first DBS probe, recorded following stimulation of brain regions along said insertion path by said at least one contact, and providing segmentation of the brain along said insertion path of said first DBS probe into a plurality of physiologically active brain regions based on said analyzed recorded evoked physiological responses. a. a first deep brain stimulation probe shaped and sized to be inserted into a brain of a subject, having a proximal end and a distal end and a longitudinal axis, the probe comprising a plurality of contacts (300, 310) operably coupled thereto, disposed along the longitudinal axis, wherein at least one contact is selectively operable for stimulating a physiological evoked response while said first DBS probe is advanced through brain regions towards a desired DBS target area; b. at least one EMG electrode configured to be placed on or in muscles of said subject operable for recording an evoked response while said first DBS probe is advanced through said brain regions towards said desired DBS target area; and c. an analysis module being in communication with said at least one EMG electrode, and is operative for analyzing recorded evoked physiological responses along an insertion path of said first DBS probe, recorded following stimulation of brain regions along said insertion path by said at least one contact, and providing segmentation of the brain along said insertion path of said first DBS probe into a plurality of physiologically active brain regions based on said analyzed recorded evoked physiological responses.
A flexible vibratory apparatus (300A, 300B) for damping a structure or structural component, the apparatus (300A, 300B) comprising: at least one mesh section made from cords or threads, the at least one mesh section having a plurality of adjacent loops (312A, 312B) defined in a knitted arrangement (304A, 304B), characterized in that the cords or threads are of an elastomeric material, that the loops (312A, 312B) are elastomeric loops (312A, 312B), that the at least one mesh section is configured to be wrapped about the structure or structural component, that under load adjacent loops (312A, 312B) of the knitted arrangement (304A, 304B) act independently relative to one another and that the plurality of adjacent loops (312A, 312B) of the at least one mesh section permits dissipation of heat.
An electromagnetic induction type encoder comprising: a number of scale coils arrayed on a scale along the measurement direction; transmitting coils and receiving coils that are disposed on a grid relatively movable in the measurement direction with respect to the scale, which encoder detects a relative movement amount of the scale and the grid from changes in magnetic fluxes detected by the receiving coils via the scale coil when the transmitting coils are magnetized; characterized in that only two sets of the transmitting coils (24A,24B), the receiving coils (20A,20B) and the scale coils (14A,14B) are disposed symmetrically with respect to the center of the scale, and scale coils of one set located at a symmetrical position around the center of the scale are disposed with 1/2 phase of the scale pitch (λ) shifted with respect to scale coils of the other set. a number of scale coils arrayed on a scale along the measurement direction; transmitting coils and receiving coils that are disposed on a grid relatively movable in the measurement direction with respect to the scale, which encoder detects a relative movement amount of the scale and the grid from changes in magnetic fluxes detected by the receiving coils via the scale coil when the transmitting coils are magnetized; characterized in that only two sets of the transmitting coils (24A,24B), the receiving coils (20A,20B) and the scale coils (14A,14B) are disposed symmetrically with respect to the center of the scale, and scale coils of one set located at a symmetrical position around the center of the scale are disposed with 1/2 phase of the scale pitch (λ) shifted with respect to scale coils of the other set.
A hair care composition comprising: (a) a salt of acyl glycinate; (b) an ethoxylated alkyl sulfate anionic surfactant having a formula R 2 O(CH 2 CH 2 O) n SO 3 M, wherein R 2 is an alkyl or alkenyl group having from 8 to 18 carbon atoms; M is a solubilising cation comprising sodium, potassium, ammonium, substituted ammonium or mixtures thereof; n is the degree of ethoxylation of from 0.5 to 3; and (c) an anti-dandruff agent selected from piroctone olamine, azole based anti-fungal agents and mixtures thereof; wherein the composition comprises the salt of acyl glycinate and the ethoxylated alkyl sulfate anionic surfactant in a weight ratio of from 1:10 to 1:1. (a) a salt of acyl glycinate; (b) an ethoxylated alkyl sulfate anionic surfactant having a formula R 2 O(CH 2 CH 2 O) n SO 3 M, wherein R 2 is an alkyl or alkenyl group having from 8 to 18 carbon atoms; M is a solubilising cation comprising sodium, potassium, ammonium, substituted ammonium or mixtures thereof; n is the degree of ethoxylation of from 0.5 to 3; and (c) an anti-dandruff agent selected from piroctone olamine, azole based anti-fungal agents and mixtures thereof; wherein the composition comprises the salt of acyl glycinate and the ethoxylated alkyl sulfate anionic surfactant in a weight ratio of from 1:10 to 1:1.
A method of firing a ceramic component within a firing receptacle containing firing powder, the method comprising: using a shaping element to shape and/or define an upper surface of a first portion of firing powder at a predetermined height within the firing receptacle prior to placing the ceramic component on the upper surface of the first portion of firing powder characterised in that the shaping element is a meshed/gridded element and the method comprises adding the first portion of firing powder such that it abuts the shaping element and further comprising positioning the shaping element within the firing receptacle with the shaping element being supported above a base of the firing receptacle at the predetermined height.
A terminal comprising: a receiving section that is adapted to receive a Channel State Information Reference Signal, CSI-RS, candidate list, from a macro base station, wherein the CSI-RS candidate list includes a plurality of CSI-RS configurations corresponding to a plurality of transmission points in a macro cell of the macro base station, the CSI-RS candidate list being indicated by Radio Resource Control, RRC, signaling, wherein each of the CSI-RS configurations includes a CSI-RS individual offset for offsetting a result of a reception power measurement; a measuring section that is adapted to specify at least one CSI-RS resource information of measurement target based on the CSI-RS candidate list, and to measure the reception power using the specified CSI-RS, wherein the result of the reception power measurement is offset by the CSI-RS individual offset; and a transmitting section that is adapted to report the result of the reception power measurement in case the offset result of the reception power measurement is greater than a threshold. a receiving section that is adapted to receive a Channel State Information Reference Signal, CSI-RS, candidate list, from a macro base station, wherein the CSI-RS candidate list includes a plurality of CSI-RS configurations corresponding to a plurality of transmission points in a macro cell of the macro base station, the CSI-RS candidate list being indicated by Radio Resource Control, RRC, signaling, wherein each of the CSI-RS configurations includes a CSI-RS individual offset for offsetting a result of a reception power measurement; a measuring section that is adapted to specify at least one CSI-RS resource information of measurement target based on the CSI-RS candidate list, and to measure the reception power using the specified CSI-RS, wherein the result of the reception power measurement is offset by the CSI-RS individual offset; and a transmitting section that is adapted to report the result of the reception power measurement in case the offset result of the reception power measurement is greater than a threshold.
A system for controlling a thickness of a hot-dip galvanized coating on a flexible-rolled steel strip having two equal thickness sections (h1, h2) and continuous transition sections (T1, T2) between the two discrete thicknesses (h1, h2), comprising: a steel strip thickness gauge, a length measuring roller, a hot-dip galvanizing apparatus, an air knife, a cold-state zinc coating measuring instrument, and a control system, wherein, when the system is in use, in a forward movement direction of the steel strip, the steel strip thickness gauge and the length measuring roller are arranged before an inlet of the hot-dip galvanizing apparatus, and the air knife and the cold-state zinc coating measuring instrument are sequentially arranged behind an outlet of the hot-dip galvanizing apparatus; the steel strip thickness gauge is configured to detect a thickness signal of the steel strip, the length measuring roller is configured to detect a length signal of the steel strip, the cold-state zinc coating measuring instrument is configured to detect a zinc coating thickness of the steel strip, and the steel strip thickness gauge, the length measuring roller and the cold-state zinc coating measuring instrument respectively are configured to send measurement data to the control system; and the control system is configured to predict a thickness of the steel strip at the air knife according to the length signal and the thickness signal and configured to adjust a pressure of the air knife according to the length signal and the thickness signal, and further configured to adjust the pressure of the air knife according to the zinc coating thickness. a steel strip thickness gauge, a length measuring roller, a hot-dip galvanizing apparatus, an air knife, a cold-state zinc coating measuring instrument, and a control system, wherein, when the system is in use, in a forward movement direction of the steel strip, the steel strip thickness gauge and the length measuring roller are arranged before an inlet of the hot-dip galvanizing apparatus, and the air knife and the cold-state zinc coating measuring instrument are sequentially arranged behind an outlet of the hot-dip galvanizing apparatus; the steel strip thickness gauge is configured to detect a thickness signal of the steel strip, the length measuring roller is configured to detect a length signal of the steel strip, the cold-state zinc coating measuring instrument is configured to detect a zinc coating thickness of the steel strip, and the steel strip thickness gauge, the length measuring roller and the cold-state zinc coating measuring instrument respectively are configured to send measurement data to the control system; and the control system is configured to predict a thickness of the steel strip at the air knife according to the length signal and the thickness signal and configured to adjust a pressure of the air knife according to the length signal and the thickness signal, and further configured to adjust the pressure of the air knife according to the zinc coating thickness.
A method by a network component in a small cell for determining Almost Blank Subframe, ABS, density and range extension value for small cells in a wireless network, the method comprising: transmitting a first pilot signal in the small cell; determining downlink load, DLL, information according to a pair of measurements received from each user equipment, UE, served by the small cell, wherein the pair of measurements includes a first measurement of the first pilot signal and a second measurement of a second pilot signal from a macro cell, wherein the macro cell has a higher transmission power than the small cell; determining a number of ABSs according to the DLL information; and reporting the DLL information and the number of ABSs to a network entity for selecting ABS density and range extension value for the small cell and the macro cell. transmitting a first pilot signal in the small cell; determining downlink load, DLL, information according to a pair of measurements received from each user equipment, UE, served by the small cell, wherein the pair of measurements includes a first measurement of the first pilot signal and a second measurement of a second pilot signal from a macro cell, wherein the macro cell has a higher transmission power than the small cell; determining a number of ABSs according to the DLL information; and reporting the DLL information and the number of ABSs to a network entity for selecting ABS density and range extension value for the small cell and the macro cell.
An ultrasound apparatus comprising a screen which is a touch screen, wherein the ultrasound apparatus is configured to: in response to a user input on a initialization button for initializing a gain with respect to ultrasound image data along depths of an ultrasound image, display, on a first area of the screen, an initial gain on a gain setup window along the depths of the ultrasound image; display, on a second area of the screen, the ultrasound image to which the initial gain is applied; display, on a third area of the screen, a list of a plurality of preset gains which comprise images of gain lines or images including a plurality of slide bars corresponding to the plurality of preset gains; receive a drag input on the gain setup window in a form of a straight line or a curved line; display a gain line on the second area of the screen adjacent to the ultrasound image, wherein the gain line is obtained based on a dragged position of the drag input on the gain setup window; display an updated ultrasound image by applying gains which are extracted from the drag input to the ultrasound image data; store the gains which are extracted from the drag input; and display an image of a gain line or slide bars corresponding to the gain which are extracted from the drag input, on the list of the plurality of preset gains. in response to a user input on a initialization button for initializing a gain with respect to ultrasound image data along depths of an ultrasound image, display, on a first area of the screen, an initial gain on a gain setup window along the depths of the ultrasound image; display, on a second area of the screen, the ultrasound image to which the initial gain is applied; display, on a third area of the screen, a list of a plurality of preset gains which comprise images of gain lines or images including a plurality of slide bars corresponding to the plurality of preset gains; receive a drag input on the gain setup window in a form of a straight line or a curved line; display a gain line on the second area of the screen adjacent to the ultrasound image, wherein the gain line is obtained based on a dragged position of the drag input on the gain setup window; display an updated ultrasound image by applying gains which are extracted from the drag input to the ultrasound image data; store the gains which are extracted from the drag input; and display an image of a gain line or slide bars corresponding to the gain which are extracted from the drag input, on the list of the plurality of preset gains.
A multimode optical fiber comprising: a graded index glass core having a parabolic graded index, the core having a maximum refractive index Δ greater than 0.5% and less than or equal to 1.2%; and an inner cladding surrounding and in contact with the core, the parabolic shape of the core ending at the innermost radius of the cladding, wherein said inner cladding has a refractive index delta greater than -0.05% and less than 0.05% and comprises an inner radius of about 25 microns; and a second cladding comprising a depressed-index annular portion surrounding the inner cladding, said depressed-index annular portion having a refractive index delta less than - 0.4 % relative to an outer annular portion of the cladding; and said depressed-index annular portion has a width greater than 2 microns and less than 10 microns; and characterised in that the core has an alpha value from about 2.1 to 2.3 and the width of said inner cladding is at least 1.2 microns and less than 2.0 microns a graded index glass core having a parabolic graded index, the core having a maximum refractive index Δ greater than 0.5% and less than or equal to 1.2%; and an inner cladding surrounding and in contact with the core, the parabolic shape of the core ending at the innermost radius of the cladding, wherein said inner cladding has a refractive index delta greater than -0.05% and less than 0.05% and comprises an inner radius of about 25 microns; and a second cladding comprising a depressed-index annular portion surrounding the inner cladding, said depressed-index annular portion having a refractive index delta less than - 0.4 % relative to an outer annular portion of the cladding; and said depressed-index annular portion has a width greater than 2 microns and less than 10 microns; and characterised in that the core has an alpha value from about 2.1 to 2.3 and the width of said inner cladding is at least 1.2 microns and less than 2.0 microns
A garden cutting device, in particular a grass shears, with a flat blade arrangement pointing away from a device housing and a protective sheath detachably connectable to the device and enclosing the blade arrangement on multiple sides, wherein the protective sheath has at least one holding element which is displaceable against a reset force and in positive engagement with a holding structure in the case that the protective sheath is connected to the device, characterized in that the holding element and/or the holding structure is designed with at least one contact surface that extends obliquely to the removal direction of the protective sheath and a user force acting on the contact surface in the removal direction of the protective sheath is translated into a force component acting on the holding element counter to the reset force away from the holding structure.