mhurhangee/patent-ind-claim-en huggingface dataset:
Component comprising a plurality of individual powder particles of molybdenum, a molybdenum-based alloy containing at least 80 at% molybdenum, tungsten or a tungsten-based alloy containing at least 80 at% tungsten, which powder particles have been fused together by a high energy beam via an additive manufacturing process to obtain a solid structure, characterized in that the component has an oxygen content of not more than 0.1 at% and a carbon content of not less than 0.08 at%, wherein optionally the component has a carbon content of not more than 25 at% and optionally the sum total of metallic alloy elements is not more than 2 at%, where this value does not include molybdenum as alloy element in tungsten or tungsten as alloy element in molybdenum.
A method of determining positioning of a user using an electronic device, the electronic device having memory, one or more processors, a speaker, and a microphone; the method being characterized by the following steps: while audibly communicating with the user via the speaker and microphone: sending one or more ultrasound pulses via the speaker; receiving , via the microphone, one or more signals corresponding to the one or more ultrasound pulses and being reflected from the user; and determining positioning of the user based on the one or more received signals. sending one or more ultrasound pulses via the speaker; receiving , via the microphone, one or more signals corresponding to the one or more ultrasound pulses and being reflected from the user; and determining positioning of the user based on the one or more received signals.
A method for determining a location of a mobile device , the method comprising: receiving , at a dual-antenna ultra-wide band, UWB, receiver of the mobile device , a plurality of UWB signals from a group of unsynchronized beacons (102-1, ..., 102-4) having a quadrilateral formation; - at the mobile device , determining angle of arrival, AoA, information from the UWB signals; and - at the mobile device , calculating the location of the mobile device based on the AoA information; wherein determining the AoA information from the UWB signals comprises estimating an angle (θ 1 , θ 2 , θ 3 , θ 4 ) between each of the group of unsynchronized beacons (102-1, ..., 102-4) and the mobile device , wherein the group of unsynchronized beacons (102-1, ..., 102-4) comprises four beacons (102-1, 102-2, 102-3, 102-4) that are not clock synchronized, and wherein calculating the location of the mobile device based on the AoA information comprises calculating the location of the mobile device based on four angles (θ 1 , θ 2 , θ 3 , θ 4 ) between the group of unsynchronized beacons (102-1, ..., 102-4) and the mobile device , characterized in that the mobile device determines the location of the mobile device by triangulation, wherein the beacons (102-1, ..., 102-4) and the mobile device form four triangles , wherein for each triangle , the locations of the two respective beacons and the distance (d1, d2, d3, d4) between the two respective beacons are known to the mobile device and the angle between the two respective beacons and the mobile device can be determined by the mobile device, wherein the mobile device uses the four triangles to determine the location of the mobile device and to calculate average location coordinates to improve the overall location accuracy of the mobile device . receiving , at a dual-antenna ultra-wide band, UWB, receiver of the mobile device , a plurality of UWB signals from a group of unsynchronized beacons (102-1, ..., 102-4) having a quadrilateral formation; - at the mobile device , determining angle of arrival, AoA, information from the UWB signals; and - at the mobile device , calculating the location of the mobile device based on the AoA information;
A method, comprising: starting a split-screen mode on a mobile terminal to display both a first display page for a first application and a second display page for a second application; detecting that an input method for information input has been launched by querying whether an input method process is invoked; determining whether the information input is to be performed in the first display page or the second display page; switching to a first display mode, in response to determining that the information input is to be performed in the first display page, by: causing full-screen display of the first display page, and launching a floating window on the first display page to display the second display page; and switching to a second display mode, in response to determining that the information input is to be performed in the second display page, by: causing full-screen display of the second display page, and launching a floating window on the second display page to display the first display page. starting a split-screen mode on a mobile terminal to display both a first display page for a first application and a second display page for a second application; detecting that an input method for information input has been launched by querying whether an input method process is invoked; determining whether the information input is to be performed in the first display page or the second display page; switching to a first display mode, in response to determining that the information input is to be performed in the first display page, by: causing full-screen display of the first display page, and launching a floating window on the first display page to display the second display page; and causing full-screen display of the first display page, and launching a floating window on the first display page to display the second display page; and switching to a second display mode, in response to determining that the information input is to be performed in the second display page, by: causing full-screen display of the second display page, and launching a floating window on the second display page to display the first display page. causing full-screen display of the second display page, and launching a floating window on the second display page to display the first display page.
An apparatus for delivering particulate material into a bone cavity comprising a tube through which the particulate material is delivered, which comprises a major section having a channel of a uniform circular cross section; a first rod ; and a second rod ; wherein the first rod is adapted to be inserted into said channel from one end of said tube . wherein each of the first rod and the second rod has a half circular cross section and a cross sectional area of about 50% of a cross sectional area of said channel , so that a combined cross sectional area of the first rod and the second rod is less than and about equal to the cross sectional area of said channel , wherein the first rod and the second rod can be joined and joinedly inserted into said channel from said one end of said tube after the first rod being removed from said tube .
A base for a sheet sander , suitable for being operatively coupled to a drive shaft of the sheet sander , the base comprising: a baseplate including an upper side and a lower side , opposite the upper side , for facing a workpiece during operation of the sander , the upper side defining a guide mount ; a guide coupled to the guide mount adjacent an edge of the baseplate , the upper side of the baseplate and the guide cooperatively defining a space , the guide configured to receive and temporarily hold an end of a sanding sheet in the space ; and a clamp coupled to the baseplate and movable between an unclamped position configured to permit attachment of the sanding sheet to the baseplate via the guide , and a clamped position configured to secure the sanding sheet to the baseplate , wherein the clamp is in the clamped position after the sanding sheet is positioned in the space . a baseplate including an upper side and a lower side , opposite the upper side , for facing a workpiece during operation of the sander , the upper side defining a guide mount ; a guide coupled to the guide mount adjacent an edge of the baseplate , the upper side of the baseplate and the guide cooperatively defining a space , the guide configured to receive and temporarily hold an end of a sanding sheet in the space ; and a clamp coupled to the baseplate and movable between an unclamped position configured to permit attachment of the sanding sheet to the baseplate via the guide , and a clamped position configured to secure the sanding sheet to the baseplate , wherein the clamp is in the clamped position after the sanding sheet is positioned in the space .
A method, comprising the steps of: applying a coating of flakes within a binder to a first region of a substrate ; moving the substrate at the speed of at least 7.62 m/min (25 ft/min) along a path, wherein a first region of the substrate includes a coating of flakes within a binder, wherein at least some of the flakes within the coating are alignable in an applied magnetic or electric field; applying a magnetic or electric field so as to orient at least some of the flakes within the coating; while applying the magnetic or electric field to the first region, selectively curing a first sub-region of the first region of aligned flakes by irradiating with one or more laser beams at a first curing station so as to cure the binder in succession as the substrate is moving, and to maintain alignment of flakes within the first sub-region, and after selectively curing the first sub-region of the first region of aligned flakes with the first curing station, subsequently curing the flakes within a second sub-region of the first region, wherein the second sub-region includes at least a portion of the flakes outside of the first sub-region. applying a coating of flakes within a binder to a first region of a substrate ; moving the substrate at the speed of at least 7.62 m/min (25 ft/min) along a path, wherein a first region of the substrate includes a coating of flakes within a binder, wherein at least some of the flakes within the coating are alignable in an applied magnetic or electric field; applying a magnetic or electric field so as to orient at least some of the flakes within the coating; while applying the magnetic or electric field to the first region, selectively curing a first sub-region of the first region of aligned flakes by irradiating with one or more laser beams at a first curing station so as to cure the binder in succession as the substrate is moving, and to maintain alignment of flakes within the first sub-region, and after selectively curing the first sub-region of the first region of aligned flakes with the first curing station, subsequently curing the flakes within a second sub-region of the first region, wherein the second sub-region includes at least a portion of the flakes outside of the first sub-region.
Working machine having a lifting device for lifting and lowering a payload (m L ), and having a weighing device for weighing the payload (m L ), wherein the lifting device has at least a first boom element arranged on a frame element of the working machine such that it can be pivoted about a first pivot axis (Y 1 ), and an attachment element arranged on the at least one first boom element such that it can be pivoted about a second pivot axis (Y 2 ) for picking up the payload (m L ), wherein the first and the second pivot axis (Y 1 , Y 2 ) run parallel to each other, wherein the lifting device has a first actuating device for adjusting the first boom element and a second actuating device for adjusting the attachment element , wherein the weighing device has a sensor device functionally coupled to the lifting device , in order to provide a first force signal as a function of a first force applied by the first actuating device , in order further to provide a second force signal as a function of a second force applied by the second actuating device , in order further to provide an acceleration signal as a function of an acceleration acting on the frame element of the working machine , wherein an electronic control unit determines the payload (m L ) picked up by the attachment element from the first force signal, the second force signal and the acceleration signal, wherein the sensor device has an acceleration sensor functionally coupled to the at least first boom element in order to provide the acceleration signal as a function of an acceleration acting on the first boom element , and has an acceleration sensor functionally coupled to the attachment element in order to detect a relative movement of the attachment element relative to the boom element about the pivot axis (Y 2 ).
Secure marking element comprising a two-dimensional barcode , referred to as a 2D code, such as a QR code or Data Matrix, which comprises juxtaposed dark and light symbols, the 2D code being encrypted and comprising at least one authentication signature which comprises a plurality of graphic elements which are arranged in the light symbols of the 2D code, are uniquely distributed at least spatially and in number, and possibly differ in size and geometric shape, said at least one authentication signature having been generated from at least a first encryption key, said secure marking element comprising at least two authentication signatures which are invisible to the naked eye and are intended to be made visible by the implementation of a revealing device suitable for making each of them visible, said at least first authentication signature having been generated from a first encryption key and the unencrypted 2D code, and said at least second authentication signature having been generated from a second encryption key and the unencrypted 2D code, the second encryption key being linked to the first encryption key so that the second encryption key is only identifiable by having first identified the first encryption key when authenticating the marking element.
A gel-spinning process for manufacturing a multifilament yarn containing n filaments characterized in that the process contains the steps of: a) providing a solution of ultra-high molecular weight polyethylene (UHMWPE) in a suitable solvent containing between 3 wt% and 12 wt% UHMWPE polymer, wherein the UHMWPE polymer has an elongational stress, ES, measured according to ISO 11542-2A, of at least 0.4 N/mm 2 , b) passing the solution of step a) with a reduced throughput through a spinning plate containing n spin-holes to form the filaments of said yarn; and c) drawing the filaments in at least one drawing step before, during or after removing the solvent to obtain a multifilament yarn with a tenacity (Ten) as expressed in cN/dtex according to Formula 1: Ten cN / dtex = f × n − 0.05 × dpf − 0.15 wherein Ten is at least 39 cN/dtex, n is at least 25, f is a factor of at least 58 and dpf is the dtex per filament. a) providing a solution of ultra-high molecular weight polyethylene (UHMWPE) in a suitable solvent containing between 3 wt% and 12 wt% UHMWPE polymer, wherein the UHMWPE polymer has an elongational stress, ES, measured according to ISO 11542-2A, of at least 0.4 N/mm 2 , b) passing the solution of step a) with a reduced throughput through a spinning plate containing n spin-holes to form the filaments of said yarn; and c) drawing the filaments in at least one drawing step before, during or after removing the solvent to obtain a multifilament yarn with a tenacity (Ten) as expressed in cN/dtex according to Formula 1: Ten cN / dtex = f × n − 0.05 × dpf − 0.15 wherein Ten is at least 39 cN/dtex, n is at least 25, f is a factor of at least 58 and dpf is the dtex per filament.
A secondary base station comprising: at least one radio transceiver ; and at least one processor coupled to the at least one radio transceiver , wherein the at least one processor is configured to receive a Secondary Node addition request message from a second master base station while the secondary base station provides a radio terminal with a secondary cell group, SCG, for dual connectivity in cooperation with a first master base station , and the Secondary Node addition request message includes one or both of: a first list indicating one or more first bearers, that have already been configured in the secondary base station for the dual connectivity, to be kept at the secondary base station ; and a second list indicating one or more second bearers, that have already been configured in the secondary base station for the dual connectivity, that do not need to be kept at the secondary base station . at least one radio transceiver ; and at least one processor coupled to the at least one radio transceiver , wherein the at least one processor is configured to receive a Secondary Node addition request message from a second master base station while the secondary base station provides a radio terminal with a secondary cell group, SCG, for dual connectivity in cooperation with a first master base station , and the Secondary Node addition request message includes one or both of: a first list indicating one or more first bearers, that have already been configured in the secondary base station for the dual connectivity, to be kept at the secondary base station ; and a second list indicating one or more second bearers, that have already been configured in the secondary base station for the dual connectivity, that do not need to be kept at the secondary base station .
Method for monitoring and correcting the obfuscation of the vehicle-related data of a vehicle that are transmitted to a backend computer, by way of an anonymization filter (A), comprising: removing person-related data from the transmitted vehicle-related data, combining the vehicle-related data, following removal of the personal reference, to produce a vehicle-related dataset without personal reference, performing temporal and spatial obfuscation of the vehicle-related dataset without personal reference based on an estimated swarm size of data-collecting vehicles in order to generate an anonymous dataset, and providing the anonymous dataset, including the level of the obfuscation, to a data user, wherein the anonymous datasets provided are used to determine an actual swarm size for a spatial region, the actual swarm size determined is compared with the estimated swarm size used to obfuscate the anonymous datasets, and the comparison result is used to correct the obfuscation of the spatial region. removing person-related data from the transmitted vehicle-related data, combining the vehicle-related data, following removal of the personal reference, to produce a vehicle-related dataset without personal reference, performing temporal and spatial obfuscation of the vehicle-related dataset without personal reference based on an estimated swarm size of data-collecting vehicles in order to generate an anonymous dataset, and providing the anonymous dataset, including the level of the obfuscation, to a data user, wherein the anonymous datasets provided are used to determine an actual swarm size for a spatial region, the actual swarm size determined is compared with the estimated swarm size used to obfuscate the anonymous datasets, and the comparison result is used to correct the obfuscation of the spatial region.
Food processing system , in particular a brewery system, having a combined heat and power unit for heating a heat transfer medium , via which at least one heat consumer of the food processing system is supplied with heat energy, characterised in that the heat transfer medium is heated by waste heat from the combined heat and power unit via at least three heat exchangers (WT1, WT2, WT3) connected in series.
A liquid ejecting head, comprising: an energy generation element that generates energy for applying pressure to liquid inside a pressure compartment (C); a vibrating plate that vibrates due to the energy; and a pressure compartment substrate that includes a first surface , which is in contact with a part of a bottom surface (Fe1) of the vibrating plate , and a first wall surface , which is continuous from the first surface , wherein a recessed portion that includes a bottom portion and a curved portion surrounding the bottom portion is provided in the bottom surface (Fe1) of the vibrating plate , the curved portion is provided from an end of the bottom portion to an end of the recessed portion and has a curved surface shape, a plurality of wall surfaces that constitute inner walls of the pressure compartment (C) includes a surface of the recessed portion and the first wall surface , and an angle (θ1) formed by the first surface and the first wall surface , the angle being an interior angle of the pressure compartment substrate , is greater than 150° and less than 180°. an energy generation element that generates energy for applying pressure to liquid inside a pressure compartment (C); a vibrating plate that vibrates due to the energy; and a pressure compartment substrate that includes a first surface , which is in contact with a part of a bottom surface (Fe1) of the vibrating plate , and a first wall surface , which is continuous from the first surface , wherein a recessed portion that includes a bottom portion and a curved portion surrounding the bottom portion is provided in the bottom surface (Fe1) of the vibrating plate , the curved portion is provided from an end of the bottom portion to an end of the recessed portion and has a curved surface shape, a plurality of wall surfaces that constitute inner walls of the pressure compartment (C) includes a surface of the recessed portion and the first wall surface , and an angle (θ1) formed by the first surface and the first wall surface , the angle being an interior angle of the pressure compartment substrate , is greater than 150° and less than 180°.
A signal comprising video data generated by encoding at least a block in a picture by transforming a residue of the block to obtain transform coefficients, quantizing the transform coefficients to obtain quantized transform coefficients, and entropy coding the quantized transform coefficients, wherein the quantized transform coefficients are encoded using a first flag syntax element to indicate that a current one of the quantized transform coefficients being processed is a last non-zero coefficient for the block in a given scanning order having a value greater than or equal to a specified value, a second flag syntax element to indicate whether a current one of the quantized transform coefficients known to be non-zero has an absolute value of one or larger than one, a sig flag syntax element for indicating whether the current one of the quantized transform coefficients has a non-zero value, a last flag syntax element for indicating whether the current one of the quantized transform coefficients having a non-zero value is a last quantized transform coefficient having the non-zero value in the block in the given scanning order, a level syntax element for indicating an absolute value of the current one of the quantized transform coefficients when the current one of the quantized transform coefficients has the absolute value greater than the specified value, and a sign flag syntax element for indicating a corresponding sign of the current one of the quantized transform coefficients wherein the specified value is selected from among a plurality of values, said selected value is explicitly signaled for the block and wherein the first flag syntax element, the second flag syntax element, the sig flag syntax element, the last flag syntax element, the level syntax element, and the sign flag syntax element are encoded in the given scanning order.