mhurhangee/patent-ind-claim-en huggingface dataset:
Bottle including a reservoir having an internal volume designed to contain a liquid or semi-fluid product and a dispensing head projecting from the reservoir along a main axis (A), said dispensing head including a ball applicator including a ball holder in which a ball is confined freely in rotation and from which a dome of the ball emerges on the side opposite the reservoir , the bottle including a rotary closure designed to cover the ball applicator when the bottle is in a closed position, and to be disengaged from said ball applicator to enable the product to be dispensed when the bottle is in an open position, the rotary closure being moveable in rotation relative to the rest of the bottle about a rotation axis (R) crossing said main axis (A) perpendicularly, the ball applicator including an applicator body in which the ball holder is mounted in translation along the main axis (A), the ball applicator including elastic means interposed between the applicator body and the ball holder , and the ball applicator being designed so that the ball can move in translation together with the ball holder along the main axis (A) to adopt a retracted position in the dispensing head when the ball applicator is covered by the rotary closure and the bottle is in the closed position, said elastic means being compressed, and to adopt a deployed position outside the dispensing head under the effect of an expansion of the elastic means when the rotary closure is released from the ball applicator , the rotary closure including a cover containing a closing element including a concavity shaped to fit the dome of the ball projecting from the ball holder , the closing element bearing against the upper face of the ball holder when the ball is engaged in the concavity . the bottle including a rotary closure designed to cover the ball applicator when the bottle is in a closed position, and to be disengaged from said ball applicator to enable the product to be dispensed when the bottle is in an open position, the rotary closure being moveable in rotation relative to the rest of the bottle about a rotation axis (R) crossing said main axis (A) perpendicularly, the ball applicator including an applicator body in which the ball holder is mounted in translation along the main axis (A), the ball applicator including elastic means interposed between the applicator body and the ball holder , and the ball applicator being designed so that the ball can move in translation together with the ball holder along the main axis (A) to adopt a retracted position in the dispensing head when the ball applicator is covered by the rotary closure and the bottle is in the closed position, said elastic means being compressed, and to adopt a deployed position outside the dispensing head under the effect of an expansion of the elastic means when the rotary closure is released from the ball applicator , the rotary closure including a cover containing a closing element including a concavity shaped to fit the dome of the ball projecting from the ball holder , the closing element bearing against the upper face of the ball holder when the ball is engaged in the concavity .
An electronic device comprising: a memory; and one or more processors communicatively coupled to the memory and configured to: receive pulse shape information from an other electronic device, wherein the pulse shape information is adapted for use in Ultra Wideband, UWB, communications between the electronic device and the other electronic device, and wherein the pulse shape information comprises a time-zero index; receive a ranging signal that is generated by using said first pulse shape information; and determine an estimated distance between the electronic device and the other electronic device based at least in part on the pulse shape information and the ranging signal. a memory; and one or more processors communicatively coupled to the memory and configured to: receive pulse shape information from an other electronic device, wherein the pulse shape information is adapted for use in Ultra Wideband, UWB, communications between the electronic device and the other electronic device, and wherein the pulse shape information comprises a time-zero index; receive a ranging signal that is generated by using said first pulse shape information; and determine an estimated distance between the electronic device and the other electronic device based at least in part on the pulse shape information and the ranging signal. receive a ranging signal that is generated by using said first pulse shape information; and determine an estimated distance between the electronic device and the other electronic device based at least in part on the pulse shape information and the ranging signal.
A resin formed article obtained by forming a hydrogenated cycloolefin ring-opening polymer, the resin formed article having a glass transition temperature of 140 to 165°C, a melt flow rate of 8 g/10 min or more as measured in accordance with JIS K 6719 at a temperature of 280°C under a load of 21.18 N, and a flexural strength of 60 MPa or more as measured by a flexural test in accordance with JIS K 7171 at a test speed of 2 mm/min, the hydrogenated cycloolefin ring-opening polymer being obtained by hydrogenating 99% or more of main-chain carbon-carbon double bonds of a cycloolefin ring-opening polymer comprising a repeating unit derived from tetracyclododecene, and a repeating unit derived from an additional norbornene-based monomer, the hydrogenated cycloolefin ring-opening polymer comprising the repeating unit derived from tetracyclododecene in a ratio of 55 wt% or more and 85 wt% or less based on the total amount of repeating units, and comprising the repeating unit derived from the additional norbornene-based monomer in a ratio of 15 wt% or more and 45 wt% or less based on the total amount of repeating units, the hydrogenated cycloolefin ring-opening polymer having a racemo diad ratio determined by 13C-NMR measurement using deuterated o-dichlorobenzene as a solvent and calculating the racemo diad ratio based on the intensity ratio of the signal at 51.7 ppm attributed to racemo diads to the signal at 51.6 ppm attributed to meso diads is 65% or more with respect to the repeating unit derived from tetracyclododecene, and the hydrogenated cycloolefin ring-opening polymer having a weight average molecular weight (Mw) measured by gel permeation chromatography using cyclohexane as an eluent, and calculated as a standard polyisoprene conversion value is 10,000 to 35,000.
A wheel blank positioning end face correction device, comprising a frame , a servo motor I , a support frame , bearing seats , bearings , a shaft , a rotating platform , a guide rail , a cylinder , a left slide plate , a left bearing seat , a left shaft , a left bearing , a left driven grooved friction wheel , a left workbench , corner cylinder pressure claws , mandrel seats , mandrels , a grinding wheel , a grinding wheel drive motor , a support plate , a feeding slide plate , feeding guide rails , a linear motor , a distance measuring sensor , a fixed plate , a servo motor II , a driving grooved friction wheel , a right workbench , a right driven grooved friction wheel , a right shaft , a gear rack structure and a right slide plate , characterized in that the rotating platform is provided with two stations comprising a correction station on the left and a detection station on the right, wherein at the detection station, deformation of the end face of the wheel blank on the right workbench can be detected through the distance measuring sensor , and at the correction station, the positioning end face of the wheel blank on the left workbench can be corrected according to the data measured by the distance measuring sensor , wherein the guide rail is fixed on the rotating platform , the left slide plate and the right slide plate are respectively mounted on the guide rail , the left slide plate is connected with the right slide plate via the gear rack structure , the cylinder is mounted on the lateral vertical surface of one end of the rotating platform , and the output end of the cylinder is connected with the left slide plate ; the left shaft is mounted onto the left slide plate via the left bearing and the left bearing seat , the left driven grooved friction wheel is mounted on the left shaft , and the left workbench is connected onto the left shaft ; and the right shaft is mounted onto the right slide plate via a bearing and a bearing seat, the right driven grooved friction wheel is mounted on the right shaft , and the right workbench is connected onto the right shaft , in such a way that the cylinder can drive the two driven grooved friction wheels, namely the left driven grooved friction wheel and the right driven grooved friction wheel , to be engaged with or disengaged from the driving grooved friction wheel , when the friction wheels are engaged, the servo motor II can drive the driving grooved friction wheel to rotate and thus drive the left workbench and the right workbench to rotate, in order to measure the end face deformation of the wheel blank on the right workbench and correct the positioning end face of the wheel blank on the left workbench , and when the friction wheels are disengaged, the servo motor I can be started to drive the rotating platform to rotate, in order to bring the wheel blank into the correction station on the left or the detection station on the right.
An ice maker for a home appliance, in particular for a refrigerator or freezer, comprising: an upper tray defining at least one upper chamber part ; a lower tray defining at least one lower chamber part ; wherein the lower tray is movable with respect to the upper tray between an open position and a closed position, wherein in the closed position, a bottom surface of the upper tray is in contact with a top surface of the lower tray , such that the lower chamber part and the upper chamber part form an ice chamber in which ice is to be formed, and an upper heater disposed at the upper tray for providing heat to the upper chamber ; and a lower heater disposed at the lower tray for providing heat to the lower chamber , wherein a distance (D5) between the upper heater and a plane defined by the bottom surface of the upper tray is smaller than a distance (D6) between the lower heater and a plane defined by the top surface of the lower tray characterized in that a distance from a horizontal central line of the ice chamber to the upper heater is shorter than a distance from the horizontal central line of the ice chamber to the lower heater , based on a height of the ice chamber . an upper tray defining at least one upper chamber part ; a lower tray defining at least one lower chamber part ; wherein the lower tray is movable with respect to the upper tray between an open position and a closed position, wherein in the closed position, a bottom surface of the upper tray is in contact with a top surface of the lower tray , such that the lower chamber part and the upper chamber part form an ice chamber in which ice is to be formed, and an upper heater disposed at the upper tray for providing heat to the upper chamber ; and a lower heater disposed at the lower tray for providing heat to the lower chamber , wherein a distance (D5) between the upper heater and a plane defined by the bottom surface of the upper tray is smaller than a distance (D6) between the lower heater and a plane defined by the top surface of the lower tray characterized in that a distance from a horizontal central line of the ice chamber to the upper heater is shorter than a distance from the horizontal central line of the ice chamber to the lower heater , based on a height of the ice chamber .
A method comprising: receiving , at a processor, object model data representing at least a portion of an object to be generated by a laser or print agent based additive manufacturing apparatus by fusing build material; determining , using a processor and from the object model data, a property diffusion model for the object in object generation to model the diffusion of an object property into the build material around the object, wherein the property may comprise an object generation temperature or a print agent property; and determining , using a processor and based on the property diffusion model, a manufacturing boundary object shell around the object and encompassing an external volume to the object, the manufacturing boundary object shell having a variable thickness determined so as to include build material for which, in generation of the object, a property modelled in the property diffusion model has a value which is predicted to conform to a predetermined threshold value or value range; and using the manufacturing boundary object shell in determining, using a processor, a relative placement of a plurality of objects to be manufactured in a common object generation operation. receiving , at a processor, object model data representing at least a portion of an object to be generated by a laser or print agent based additive manufacturing apparatus by fusing build material; determining , using a processor and from the object model data, a property diffusion model for the object in object generation to model the diffusion of an object property into the build material around the object, wherein the property may comprise an object generation temperature or a print agent property; and determining , using a processor and based on the property diffusion model, a manufacturing boundary object shell around the object and encompassing an external volume to the object, the manufacturing boundary object shell having a variable thickness determined so as to include build material for which, in generation of the object, a property modelled in the property diffusion model has a value which is predicted to conform to a predetermined threshold value or value range; and using the manufacturing boundary object shell in determining, using a processor, a relative placement of a plurality of objects to be manufactured in a common object generation operation.
A warm white light emitting apparatus, comprising: a first package comprising a first LED-phosphor combination of a first LED having a peak wavelength of 400 to 470nm and a first phosphor having a peak wavelength of 500 to 600nm and a second package comprising a second LED-phosphor combination of a second LED and a second phosphor having a peak wavelength greater than 600nm; wherein the first LED-phosphor combination is configured to generate a base light, the base light being yellowish white and existing in a first rectangular region defined by color coordinates (0.29, 0.45), (0.33, 0.37), (0.52, 0.47), and (0.45, 0.54) on the CIE 1931 chromaticity diagram, wherein the second LED-phosphor combination is configured to generate a color Rendering Index(CRI) adjusting light, which exists in a second rectangular region defined by color coordinates (0.36, 0.34), (0.44, 0.20), (0.67, 0.32),and (0.55, 0.44) on the CIE 1931 chromaticity diagram, wherein the LEDs in the first LED-phosphor combination and the second LED-phosphor combination are configured to be operated individually, and wherein the base light and the CRI adjusting light together make warm white light with a color temperature range of about 2500 to 4500K. a first package comprising a first LED-phosphor combination of a first LED having a peak wavelength of 400 to 470nm and a first phosphor having a peak wavelength of 500 to 600nm and a second package comprising a second LED-phosphor combination of a second LED and a second phosphor having a peak wavelength greater than 600nm; wherein the first LED-phosphor combination is configured to generate a base light, the base light being yellowish white and existing in a first rectangular region defined by color coordinates (0.29, 0.45), (0.33, 0.37), (0.52, 0.47), and (0.45, 0.54) on the CIE 1931 chromaticity diagram, wherein the second LED-phosphor combination is configured to generate a color Rendering Index(CRI) adjusting light, which exists in a second rectangular region defined by color coordinates (0.36, 0.34), (0.44, 0.20), (0.67, 0.32),and (0.55, 0.44) on the CIE 1931 chromaticity diagram, wherein the LEDs in the first LED-phosphor combination and the second LED-phosphor combination are configured to be operated individually, and wherein the base light and the CRI adjusting light together make warm white light with a color temperature range of about 2500 to 4500K.
Body structure for a vehicle, with a subframe for a vehicle-front axle, which supports a drive component and is connected to the body structure at subframe-connection points , and with a functional unit , which is installed in the vehicle behind the subframe by a longitudinal offset (Δx) in the longitudinal direction of the vehicle (x), wherein in the event of a head-on crash, the impact forces (F) introduced to the subframe can be introduced to the body structure by forming a first load path (L1) via the subframe-connection points , characterised in that the body structure has at least one load introduction strut , which is supported in a force-transmitting manner between the subframe and the functional unit and bridges the longitudinal offset (Δx), and in that in the event of a head-on crash the load introduction strut forms a second load path (L2) via which the impact forces (F) can be introduced into the functional unit , whereby the the subframe-connection points of the subframe are relieved of load in the event of a head-on crash.
Mobile measuring apparatus, in particular moisture measuring apparatus, having an integrated sensor unit which is configured to capture at least one moisture characteristic value of at least one building material , and having a communication unit which is at least configured to receive at least one signal from at least one external sensor unit , wherein the at least one signal comprises at least one further moisture characteristic value of the at least one building material , characterized by a computing unit which is configured to compute the at least one moisture characteristic value with the at least one further moisture characteristic value.
An acrylic rubber comprising a copolymer of a monomer mixture of: alkoxyalkyl acrylate 25 to 46 wt.% 2-ethylhexyl acrylate 23 to 37 wt.% alkyl methacrylate 9 to 17 wt.% monoalkyl fumarate ethyl acrylate remainingamount. 1 to 3 wt.%
A method implemented at a network device, comprising: Setting , for a terminal device, a first number of repetitions to be used for a first transmission from the terminal device; detecting the first transmission from the terminal device based on a second number of repetitions; in response to detecting the first transmission correctly based on the second number of repetitions, comparing the second number with the first number; in response to the second number being less than the first number, identifying a resource for remaining repetitions after the second number of repetitions of the first transmission as being reusable for a further terminal device; characterized in scheduling a second transmission from the further terminal device using the resource identified as reusable wherein scheduling the second transmission comprises: determining whether the further terminal device satisfies a resource reuse condition based on a first signal power associated with the further terminal device and a second signal power associated with the terminal device; and in response to determining that the further terminal device satisfies the resource reuse condition, scheduling the further terminal device to transmit using the reusable resource. Setting , for a terminal device, a first number of repetitions to be used for a first transmission from the terminal device; detecting the first transmission from the terminal device based on a second number of repetitions; in response to detecting the first transmission correctly based on the second number of repetitions, comparing the second number with the first number; in response to the second number being less than the first number, identifying a resource for remaining repetitions after the second number of repetitions of the first transmission as being reusable for a further terminal device; characterized in scheduling a second transmission from the further terminal device using the resource identified as reusable wherein scheduling the second transmission comprises: determining whether the further terminal device satisfies a resource reuse condition based on a first signal power associated with the further terminal device and a second signal power associated with the terminal device; and in response to determining that the further terminal device satisfies the resource reuse condition, scheduling the further terminal device to transmit using the reusable resource. determining whether the further terminal device satisfies a resource reuse condition based on a first signal power associated with the further terminal device and a second signal power associated with the terminal device; and in response to determining that the further terminal device satisfies the resource reuse condition, scheduling the further terminal device to transmit using the reusable resource.
Self-service vehicle washing installation having: - implements and - an operating station having an input and output unit serving as a user interface, wherein a selection of configuration settings is output at the input and output unit , and configuration signals are detected in response to the configuration settings shown, which configuration signals are forwarded to a control unit , - the control unit which is intended to configure a cleaning process in response to the detected configuration signals by means of a control logic and to generate control commands for the implements and to control the implements according to the generated control commands. characterised in that the vehicle washing installation comprises a plurality of washing assemblies and a central technical unit with a central control module , wherein in each case a washing assembly comprises the implements and an operating station , and wherein the central control module is in data exchange with the control unit and is intended to actuate the washing assemblies in a modular and dedicated manner. - implements and - an operating station having an input and output unit serving as a user interface, wherein a selection of configuration settings is output at the input and output unit , and configuration signals are detected in response to the configuration settings shown, which configuration signals are forwarded to a control unit , - the control unit which is intended to configure a cleaning process in response to the detected configuration signals by means of a control logic and to generate control commands for the implements and to control the implements according to the generated control commands.
An elongate metallic heater element for use with an aerosol-generating device , the heater element extending between a proximal end and a distal end , the proximal end configured for mounting to an aerosol-generating device for electrical communication with the aerosol-generating device ; wherein the heater element comprises either or both of: i) a plurality of surface notches formed on a surface of the heater element; and ii) a plurality of sub-surface cavities defined beneath the surface of the heater element; in which at least some of the plurality of surface notches and sub-surface cavities of the heater element are provided in an inner region of the heater element, the inner region extending between the proximal end and 33% of the length of the heater element relative to the proximal end , and in which at least 40% by volume, or at least 50% by volume, or at least 60% by volume, or at least 70% by volume, or at least 80% by volume of all of the plurality of surface notches and sub-surface cavities of the heater element are provided in the inner region . i) a plurality of surface notches formed on a surface of the heater element; and ii) a plurality of sub-surface cavities defined beneath the surface of the heater element;