mhurhangee/patent-ind-claim-en huggingface dataset:
A motor vehicle (V), such as a car, defining a longitudinal direction (L) that extends over the length of the vehicle between a rear bumper (R) and a front bumper (F), the vehicle including an outer body (E) that extends substantially from one bumper to the other starting from a sill (C), the vehicle also being provided with a protective tarpaulin system (B) comprising a flexible tarpaulin for covering the outer body (E) of the vehicle (V) at least in part so as to protect it, the system further comprising a rear shaft that is installed at the rear bumper (R) of the vehicle, the tarpaulin being windable around the rear shaft , the tarpaulin including a connection edge that is secured to the rear shaft , and an opposite edge that is free, the vehicle (V) being fitted with two longitudinal sheaths that extend along the outer body (E), a slider being received in each longitudinal sheath , each longitudinal sheath including a longitudinal slot , each slider being provided with a traction member , that is connected to the free edge of the tarpaulin and that extends through the longitudinal slot , each slider also being connected via a traction cable both to a front shaft that is installed at the front bumper (F) of the vehicle, and also to the rear shaft that is installed at the rear bumper (R) of the vehicle, so that rotating the front and rear shafts causes the traction cable to be wound and unwound, thereby moving the slider in the longitudinal sheath , which slider entrains the tarpaulin that is connected at its free edge to the traction member of the slider characterized in that the longitudinal sheath is flexible and is mounted in removable manner, advantageously by snap-fastening, in a longitudinally-extruding gap (E2; E3) formed by the outer body (E).
Double chainring suitable for engagement to a bicycle crank spider , the double chainring comprising: a small chainring having first mounting openings ; and a large chainring having second mounting openings , wherein the first mounting openings and the second mounting openings are suitable for engagement with respective third mounting openings provided on respective mounts of the spider so as to assemble the small chainring and the large chainring to the spider ; wherein each chainring has a side facing the spider and a side facing away from the spider , in an assembled state; wherein the small chainring has axial protrusions at the side facing the spider suitable for engaging axially against the spider in the assembled state; and wherein the large chainring has axial recesses at the side facing the spider suitable for axially receiving the respective mounts in the assembled state, characterized in that at least one of the axial protrusions has a respective axial projection extending from the axial protrusion at the side facing the spider and around the respective first mounting opening , wherein the axial projection is suitable for axial insertion into the respective third mounting opening and for engaging with an inner surface of the respective third mounting opening in the assembled state. a small chainring having first mounting openings ; and a large chainring having second mounting openings , wherein the first mounting openings and the second mounting openings are suitable for engagement with respective third mounting openings provided on respective mounts of the spider so as to assemble the small chainring and the large chainring to the spider ; wherein each chainring has a side facing the spider and a side facing away from the spider , in an assembled state; wherein the small chainring has axial protrusions at the side facing the spider suitable for engaging axially against the spider in the assembled state; and wherein the large chainring has axial recesses at the side facing the spider suitable for axially receiving the respective mounts in the assembled state, characterized in that at least one of the axial protrusions has a respective axial projection extending from the axial protrusion at the side facing the spider and around the respective first mounting opening , wherein the axial projection is suitable for axial insertion into the respective third mounting opening and for engaging with an inner surface of the respective third mounting opening in the assembled state.
An apparatus for providing liquid dialysis concentrate comprising a dialysis concentrate container for receiving the dialysis concentrate, wherein the dialysis concentrate container has an outflow; wherein the apparatus has a measurement device (M) that is in fluid communication with the outflow and that is configured to determine the density of the dialysis concentrate; wherein a shut-off element is arranged in the outflow by means of which the outflow can be selectively opened or closed; wherein a plurality of dialysis concentrate containers are present in which dialysis concentrates each having different compositions are contained and that each have an outflow, with the plurality of outflows being brought together in a manifold (V) in which a plurality of shut-off elements are arranged and that is arranged upstream of the measurement device (M) in the direction of flow of the dialysis concentrate; wherein the apparatus has a mixing container and a swap container in which dry concentrate, from which the dialysis concentrate is prepared, is contained ; wherein the mixing container and the swap container are in fluid communication with one another by a recirculation line; and wherein the mixing container is in fluid communication with the dialysis concentrate containers to transfer the dialysis concentrate from the mixing container into the dialysis concentrate container or containers .
A motor comprising: a rotating shaft ; a rotor coupled to the rotating shaft ; a plurality of stator cores disposed to correspond to the rotor ; and a housing disposed outside the plurality of stator cores ; wherein the plurality of stator cores include yokes and teeth protruding from the yokes, characterized in that curvature centers of outer surfaces of the yokes and curvature centers of inner surfaces of the teeth are eccentrically disposed with respect to a center of the stator , outer surfaces of the adjacent yokes are intermittently connected, and inner surfaces of the adjacent yokes are intermittently connected, wherein all curvatures of the outer surfaces of the plurality of yokes are the same and all curvatures of inner surfaces of the plurality of teeth are the same. a rotating shaft ; a rotor coupled to the rotating shaft ; a plurality of stator cores disposed to correspond to the rotor ; and a housing disposed outside the plurality of stator cores ; wherein the plurality of stator cores include yokes and teeth protruding from the yokes, characterized in that curvature centers of outer surfaces of the yokes and curvature centers of inner surfaces of the teeth are eccentrically disposed with respect to a center of the stator , outer surfaces of the adjacent yokes are intermittently connected, and inner surfaces of the adjacent yokes are intermittently connected, wherein all curvatures of the outer surfaces of the plurality of yokes are the same and all curvatures of inner surfaces of the plurality of teeth are the same.
A lightning current measuring device which is provided with a sensor fiber , and which is configured to input linearly polarized light to the sensor fiber , and to detect the magnitude of Faraday rotation applied to the linearly polarized light by a magnetic field due to a current to be measured flowing through a conductor , whereby said sensor fiber is configured to be arranged around said conductor, the lightning current measuring device further comprising: polarized light separation means for separating output light from the sensor fiber into a horizontal component and a vertical component having orthogonal planes of polarization; first calculation means for calculating a Faraday rotation angle through arc-sine processing of a digitized signal of the difference between the horizontal component and the vertical component converted to a signal through photoelectric conversion after separation by the polarized light separation means; amplification means for amplifying the horizontal component and the vertical component converted to a signal through photoelectric conversion after separation by the polarized light separation means ; second calculation means for calculating a Faraday rotation angle based on a digitized signal of the difference between the horizontal component and the vertical component amplified by the amplification means ; first conversion means for converting a current value from the Faraday rotation angle calculated by the first calculation means ; and second conversion means for converting a current value from the Faraday rotation angle calculated by the second calculation means . polarized light separation means for separating output light from the sensor fiber into a horizontal component and a vertical component having orthogonal planes of polarization; first calculation means for calculating a Faraday rotation angle through arc-sine processing of a digitized signal of the difference between the horizontal component and the vertical component converted to a signal through photoelectric conversion after separation by the polarized light separation means; amplification means for amplifying the horizontal component and the vertical component converted to a signal through photoelectric conversion after separation by the polarized light separation means ; second calculation means for calculating a Faraday rotation angle based on a digitized signal of the difference between the horizontal component and the vertical component amplified by the amplification means ; first conversion means for converting a current value from the Faraday rotation angle calculated by the first calculation means ; and second conversion means for converting a current value from the Faraday rotation angle calculated by the second calculation means .
Adjusting device for a small household appliance with an electric motor, comprising a control element which is mounted pivotably for setting each one of at least two settable pivot positions, wherein the adjusting device has a latching mechanism for retaining the control element releasably in a respective pivot position, wherein the control element has a row of teeth , which comprises a plurality of teeth arranged one behind the other in the pivot direction of the control element and is configured to interact with an engaging element in a fixed position, wherein the adjusting device further has at least one fastening means , characterised in that the fastening means is configured to retain the engaging element such that it engages into the row of teeth .
A method of decoding multi-layer video data, the method comprising: decoding a syntax element representing tile boundary alignment between a reference layer and an enhancement layer of the multi-layer video data, wherein the syntax element has a value that represents that any first two reference layer samples of a reference layer picture, collocated with a first two respective enhancement layer samples within a first common enhancement layer tile of an enhancement layer picture, must be within a first common reference layer tile of the reference layer picture when the first two reference layer samples are available and representing that any second two enhancement layer samples of the enhancement layer picture, collocated with a second two respective reference layer samples within a second common reference layer tile of the reference layer picture, must be within a second common enhancement layer tile of the enhancement layer picture when the second two enhancement layer samples are available ; determining that the first two reference layer samples are available when there is a tile in the enhancement layer picture corresponding to the first common base layer tile, and, that the second two enhancement layer samples are available when there is a tile in the reference layer picture corresponding to the second common enhancement layer tile, when the reference and enhancement layer pictures have a different aspect ratio; ; and decoding the reference layer picture and the enhancement layer picture based on the value of the syntax element and the determination decoding a syntax element representing tile boundary alignment between a reference layer and an enhancement layer of the multi-layer video data, wherein the syntax element has a value that represents that any first two reference layer samples of a reference layer picture, collocated with a first two respective enhancement layer samples within a first common enhancement layer tile of an enhancement layer picture, must be within a first common reference layer tile of the reference layer picture when the first two reference layer samples are available and representing that any second two enhancement layer samples of the enhancement layer picture, collocated with a second two respective reference layer samples within a second common reference layer tile of the reference layer picture, must be within a second common enhancement layer tile of the enhancement layer picture when the second two enhancement layer samples are available ; determining that the first two reference layer samples are available when there is a tile in the enhancement layer picture corresponding to the first common base layer tile, and, that the second two enhancement layer samples are available when there is a tile in the reference layer picture corresponding to the second common enhancement layer tile, when the reference and enhancement layer pictures have a different aspect ratio; ; and decoding the reference layer picture and the enhancement layer picture based on the value of the syntax element and the determination
A humidification breathing apparatus for generating and delivering humidified air to a patient at a desired temperature proximate the patient comprising: an air flow path , and a controller for controlling operation of the humidification breathing apparatus , wherein the controller is configured to operate the humidification breathing apparatus to control the temperature at a target point in the flow path to a target temperature to achieve the desired delivered temperature at a patient delivery point in the flow path downstream of the target point and proximate the patient, wherein the target temperature is determined based on patient exhaled temperature and flow using a model. an air flow path , and a controller for controlling operation of the humidification breathing apparatus , wherein the controller is configured to operate the humidification breathing apparatus to control the temperature at a target point in the flow path to a target temperature to achieve the desired delivered temperature at a patient delivery point in the flow path downstream of the target point and proximate the patient, wherein the target temperature is determined based on patient exhaled temperature and flow using a model.
A method for determining one or more defects of an aircraft rotating machine (T), the method comprising: • a step (ET1) of measuring at least one acoustic signal (Ai) and at least one vibratory signal (Vk) during the same operating phase of the rotating machine (T), • a step (ET2) of converting each acoustic signal (Ai) and each vibratory signal (Vk) into an acoustic frequency spectrum (SAi) and a vibratory frequency spectrum (SVk) respectively, so as to obtain all the frequency spectra (SAi, SVk), • a step (ET3) of determining a set of frequencies of interest (JFI) in all the frequency spectra (SAi, SVk), each frequency of interest (fg) belonging to a predetermined frequency range (PFg), • a step of forming a defect spectra base (DB_DEF), each defect spectrum (S_DEFm) comprising at least one frequency line (R1, R2), each frequency line (R1, R2) being obtained by linear combination of frequencies of interest (fg) the weighting coefficients (α, β) of which are predetermined, • a step (ET5) of comparing each frequency spectrum (SAi, SVk) with each defect spectrum (S_DEFm) to obtain a score (SCORE) and • a step (ET6) of determining the defect(s) of the rotating machine (T) by analyzing the scores obtained (SCORE). • a step (ET1) of measuring at least one acoustic signal (Ai) and at least one vibratory signal (Vk) during the same operating phase of the rotating machine (T), • a step (ET2) of converting each acoustic signal (Ai) and each vibratory signal (Vk) into an acoustic frequency spectrum (SAi) and a vibratory frequency spectrum (SVk) respectively, so as to obtain all the frequency spectra (SAi, SVk), • a step (ET3) of determining a set of frequencies of interest (JFI) in all the frequency spectra (SAi, SVk), each frequency of interest (fg) belonging to a predetermined frequency range (PFg), • a step of forming a defect spectra base (DB_DEF), each defect spectrum (S_DEFm) comprising at least one frequency line (R1, R2), each frequency line (R1, R2) being obtained by linear combination of frequencies of interest (fg) the weighting coefficients (α, β) of which are predetermined, • a step (ET5) of comparing each frequency spectrum (SAi, SVk) with each defect spectrum (S_DEFm) to obtain a score (SCORE) and • a step (ET6) of determining the defect(s) of the rotating machine (T) by analyzing the scores obtained (SCORE).
A multi-joint hinge comprising a base part , on which a door bearing is pivotably held via a lever mechanism comprising multiple levers mounted in the manner of a parallelogram, and a damping element for braking a closing movement and a spring element for pulling the door bearing in a closing area in the closing direction are provided inside the multi-joint hinge , whereby the damping element and the spring element are connected in parallel, the spring element has at least one linearly acting spring having a spring axis , characterized in that the damping element has at least one linear damper having a damping axis , that the damping axis and the spring axis are aligned essentially parallel to one another at an angle of less than 10° over the entire pivot area of the door bearing , and the damping element and the spring element are arranged closely next to each other, whereby the multi-joint hinge is formed essentially box-shaped in a closed position by the base part , the door bearing , and the levers .
A brake device comprising: an outer race having a cylindrical inner peripheral surface ; a plurality of brake shoes disposed inside, with respect to a radial direction, of the outer race and arranged in a circumferential direction, each brake shoe having a pair of brake surfaces and an inside surface , each brake surface facing the inner peripheral surface , the brake surface being contactable with the inner peripheral surface, the inside surface facing inward with respect to the radial direction; an output-side rotary member disposed inside, with respect to the radial direction, of the brake shoes , the output-side rotary member having an opposed surface provided at an outer periphery thereof, the opposed surface facing the inside surface ; and an input-side rotary member configured to contact the brake shoes or the output-side rotary member in the circumferential direction and thereby capable of imparting a rotary torque to the output-side rotary member, wherein the inside surface and the opposed surface are configured such that a rotary torque as imparted in at least one direction of rotation to the output-side rotary member causes the opposed surface to push the inside surface and thereby causes the brake surface to be pressed against the inner peripheral surface of the outer race , thus failing to cause the brake shoe to rotate, and characterized in that the brake shoe has a support surface disposed between the pair of brake surfaces , the support surface being contactable with the inner peripheral surface . an outer race having a cylindrical inner peripheral surface ; a plurality of brake shoes disposed inside, with respect to a radial direction, of the outer race and arranged in a circumferential direction, each brake shoe having a pair of brake surfaces and an inside surface , each brake surface facing the inner peripheral surface , the brake surface being contactable with the inner peripheral surface, the inside surface facing inward with respect to the radial direction; an output-side rotary member disposed inside, with respect to the radial direction, of the brake shoes , the output-side rotary member having an opposed surface provided at an outer periphery thereof, the opposed surface facing the inside surface ; and an input-side rotary member configured to contact the brake shoes or the output-side rotary member in the circumferential direction and thereby capable of imparting a rotary torque to the output-side rotary member, wherein the inside surface and the opposed surface are configured such that a rotary torque as imparted in at least one direction of rotation to the output-side rotary member causes the opposed surface to push the inside surface and thereby causes the brake surface to be pressed against the inner peripheral surface of the outer race , thus failing to cause the brake shoe to rotate, and characterized in that the brake shoe has a support surface disposed between the pair of brake surfaces , the support surface being contactable with the inner peripheral surface .
A gas turbine engine section (100; 140; 240) comprising: a plurality of spaced rotor stages (106, 108; 142, 144; 242; 244), with a static guide vane (112; 146; 246) intermediate said spaced rotor stages (106, 108; 142, 144; 242; 244), said static guide vane (112; 146; 246) providing swirl into air passing toward a downstream one (108; 144; 244) of said spaced rotor stages (106, 108; 142, 144; 242; 244), and an outer housing surrounding said spaced rotor stages (106, 108; 142, 144; 242; 244), a diverter (114; 148; 248; 306; 308) diverting a portion of air radially outwardly through said outer housing , and across at least one heat exchanger , with the diverted air passing back into a duct radially inwardly through said outer housing , and being exhausted toward said downstream one (108; 144; 244) of said spaced rotor stages (106, 108; 142, 144; 242; 244), wherein said spaced rotor stages are fan rotors or are compressor rotors (142, 144; 242, 244), characterised in that : said exhausted air passes through an injector (124; 150; 250) which imparts swirl into the air exhausting toward the downstream one (108; 144; 244) of the spaced rotor stages (106, 108; 142, 144; 242; 244). a plurality of spaced rotor stages (106, 108; 142, 144; 242; 244), with a static guide vane (112; 146; 246) intermediate said spaced rotor stages (106, 108; 142, 144; 242; 244), said static guide vane (112; 146; 246) providing swirl into air passing toward a downstream one (108; 144; 244) of said spaced rotor stages (106, 108; 142, 144; 242; 244), and an outer housing surrounding said spaced rotor stages (106, 108; 142, 144; 242; 244), a diverter (114; 148; 248; 306; 308) diverting a portion of air radially outwardly through said outer housing , and across at least one heat exchanger , with the diverted air passing back into a duct radially inwardly through said outer housing , and being exhausted toward said downstream one (108; 144; 244) of said spaced rotor stages (106, 108; 142, 144; 242; 244), wherein said spaced rotor stages are fan rotors or are compressor rotors (142, 144; 242, 244), characterised in that : said exhausted air passes through an injector (124; 150; 250) which imparts swirl into the air exhausting toward the downstream one (108; 144; 244) of the spaced rotor stages (106, 108; 142, 144; 242; 244).