mhurhangee/patent-ind-claim-en huggingface dataset:
Method for measuring small volume flows in a heating circuit with a heat source , a pump , a volume flow sensor and a heat sink , wherein a measuring section is provided parallel to the heat sink , and wherein the heat sink and measuring section can be connected to the heating circuit with a priority switching valve , characterised by the steps a) operation of the heating circuit in an expanded operation at a constantly held pump delivery head, wherein in the expanded operation the priority switching valve is operated in a defined mixing position, in which partial flows flow in a defined ratio through measuring section and heat sink , b) measurement of the resulting volume flow with the volume flow sensor , c) determination of the volume flow elevation on the basis of the measurement of the volume flow with the volume flow sensor and of a volume flow previously determined as part of a calibration in a valve position of the priority switching valve in which the volume flow flows exclusively through the measuring section . d) calculation of the resulting volume flow in the heating circuit in a valve position, in which the volume flow flows exclusively through the heat sink , from the volume flow elevation determined in step c) via a proportionality factor or a regression analysis, e) operation of the heating circuit in normal operation, wherein the priority switching valve is operated in a position, in which the volume flow flows exclusively through the heat sink . a) operation of the heating circuit in an expanded operation at a constantly held pump delivery head, wherein in the expanded operation the priority switching valve is operated in a defined mixing position, in which partial flows flow in a defined ratio through measuring section and heat sink , b) measurement of the resulting volume flow with the volume flow sensor , c) determination of the volume flow elevation on the basis of the measurement of the volume flow with the volume flow sensor and of a volume flow previously determined as part of a calibration in a valve position of the priority switching valve in which the volume flow flows exclusively through the measuring section . d) calculation of the resulting volume flow in the heating circuit in a valve position, in which the volume flow flows exclusively through the heat sink , from the volume flow elevation determined in step c) via a proportionality factor or a regression analysis, e) operation of the heating circuit in normal operation, wherein the priority switching valve is operated in a position, in which the volume flow flows exclusively through the heat sink .
An inverting and boosting device, comprising: a first inverter , a second inverter , a transformer , and a ring main unit electrically connected with a high-voltage side of the transformer , wherein a first alternating-current (AC) output end of the first inverter is electrically connected with a first low-voltage side of the transformer , and the first inverter and the first low-voltage side are arranged on a same side of the transformer ; and a second AC output end of the second inverter is electrically connected with a second low-voltage side of the transformer , and the second inverter and the second low-voltage side are arranged on a same side of the transformer , wherein the inverting and boosting device is characterized in that the first low-voltage side and the second low-voltage side are respectively arranged on two opposite sides of the transformer , the first inverter and the second inverter are respectively arranged on the two opposite sides of the transformer , the first AC output end faces towards the first low-voltage side , and the second AC output end faces towards the second low-voltage side . a first inverter , a second inverter , a transformer , and a ring main unit electrically connected with a high-voltage side of the transformer , wherein a first alternating-current (AC) output end of the first inverter is electrically connected with a first low-voltage side of the transformer , and the first inverter and the first low-voltage side are arranged on a same side of the transformer ; and a second AC output end of the second inverter is electrically connected with a second low-voltage side of the transformer , and the second inverter and the second low-voltage side are arranged on a same side of the transformer , wherein the inverting and boosting device is characterized in that the first low-voltage side and the second low-voltage side are respectively arranged on two opposite sides of the transformer , the first inverter and the second inverter are respectively arranged on the two opposite sides of the transformer , the first AC output end faces towards the first low-voltage side , and the second AC output end faces towards the second low-voltage side .
Filtering device including a housing body which delimits a cavity and is equipped with a filtered air outlet ; a tubular filtering element installed in the said cavity and presenting an open axial end placed around the said filtered air outlet , and an axial end closed by a cover ; and an intake cover which closes the said cavity opposite the filtered air outlet , said intake cover including a cyclone pre-cleaner; wherein said cover includes at least a first tubular boss projecting towards the intake cover ; and the intake cover includes at least a second tubular boss complementary to the first tubular boss and projecting towards the cover ; the first tubular boss being slotted in the second tubular boss , wherein the second tubular boss includes a central bracket along the axis of the second cylindrical boss and the first tubular boss presents a cavity along its axis, wherein this central bracket is inserted in the said cavity , and wherein said central bracket is placed against the cover in order to maintain a space between the cover and the intake cover , characterized in that the first tubular boss presents a beveled end on its edge which is made of elastically deformable material and is compressed at the bottom of the second tubular boss , and wherein the distance between the cover and the beveled end is greater than the distance between the bracket and the bottom of the second tubular boss .
A method for processing requests in a bus architecture comprising at least two master devices connected to at least one slave device via a bus, the architecture comprising an optimiser for the or each slave device, each optimiser for buffering incoming requests for the respective slave device, the method comprising the steps of: a) a first of the at least two master devices (301a or 301b) sending a write request for a slave device to the bus; b) generating a fence indicator associated with the write request , the fence indicator indicating that the write request to the slave device should be completed before subsequently issued requests from at least the first of the master devices to any slave device are commenced; c) adding the fence indicator to the write request, and sending the write request including the fence indicator to the or each optimiser; d) the or each optimiser processing all its requests issued before the write request with which the fence indicator is associated, and the optimiser of the slave device to which the write request was directed further processing the write request itself, and the or each optimiser deferring the processing of any requests from at least the first master device issued after the write request with which the fence indicator is associated ; e) the or each optimiser outputting, once all its requests issued before the write request with which the fence indicator is associated have been processed, and if the optimiser is the optimiser of the slave device to which the write request was directed, once all its requests issued before the write request with which the fence indicator is associated, and the write request itself, have been processed, a completion indicator . a) a first of the at least two master devices (301a or 301b) sending a write request for a slave device to the bus; b) generating a fence indicator associated with the write request , the fence indicator indicating that the write request to the slave device should be completed before subsequently issued requests from at least the first of the master devices to any slave device are commenced; c) adding the fence indicator to the write request, and sending the write request including the fence indicator to the or each optimiser; d) the or each optimiser processing all its requests issued before the write request with which the fence indicator is associated, and the optimiser of the slave device to which the write request was directed further processing the write request itself, and the or each optimiser deferring the processing of any requests from at least the first master device issued after the write request with which the fence indicator is associated ; e) the or each optimiser outputting, once all its requests issued before the write request with which the fence indicator is associated have been processed, and if the optimiser is the optimiser of the slave device to which the write request was directed, once all its requests issued before the write request with which the fence indicator is associated, and the write request itself, have been processed, a completion indicator .
Photodiode comprising a first P-type doped semiconductor layer covered by a second N-type semiconductor layer , the first and second layers forming a PN junction, the photodiode comprising two lateral semiconductor walls (110b, 110d; 410a, 410b) said to be of rank zero, and at least one inner semiconductor wall (M1, M2, M3, Mi, Mn), the inner and lateral walls extending along the entire height of the first and second semiconductor layers, the lateral and inner walls forming the branches of a comb-shaped structure, and being interconnected so as to receive the same electrical potential, each inner semiconductor wall being located between two walls of greater length, the photodiode comprises n rows of inner walls (M1, M2, M3, Mi, Mn), n being an integer greater than or equal to 1, each inner wall (M1, M2, M3, Mi, Mn) has a length less than the lengths of the walls of lower row, each inner wall (M1, M2, M3, Mi, Mn) is located between two walls of lower row, one of these walls being of immediately lower row, the inner walls of a same row having substantially the same length when viewed from above.
A toner for electrophotography comprising a resin binder comprising a crystalline composite resin C and an amorphous polyester A and an ester wax, wherein the crystalline composite resin C is a resin comprising a polycondensation resin component and a styrenic resin component, wherein the polycondensation resin component is obtained by polycondensing an alcohol component comprising an aliphatic diol having 9 or more carbon atoms and 14 or less carbon atoms, and a carboxylic acid component comprising an aliphatic dicarboxylic acid compound having 9 or more carbon atoms and 14 or less carbon atoms, wherein a mass ratio of the amorphous polyester A to the crystalline composite resin C (amorphous polyester A / crystalline composite resin C) is 60/40 or more and 95/5 or less, and wherein a mass ratio of the crystalline composite resin C to the ester wax (crystalline composite resin C / ester wax) is 0.5 or more and 9 or less.
An article, comprising: a number of containers and a number of fluids, wherein each container includes a fluid and the fluids are distinguishable as having different compositions, a common container filled with a carrying fluid that is not miscible with the number of fluids so that the fluids to be added from the containers result in the carrying fluid containing a plurality of droplets , at least some of which have distinguishable compositions; a flow-focusing device for producing divided droplets using the plurality of droplets contained within the carrying fluid , the produced divided droplets having a distribution of diameters such that no more than 5% of the divided droplets have a diameter 10% greater than the average diameter of the divided droplets ; a microfluidic channel arranged to pass the plurality of droplets to the flow-focusing device for producing the divided droplets, and a collection chamber for collecting the divided droplets as a collection of divided droplets. a number of containers and a number of fluids, wherein each container includes a fluid and the fluids are distinguishable as having different compositions, a common container filled with a carrying fluid that is not miscible with the number of fluids so that the fluids to be added from the containers result in the carrying fluid containing a plurality of droplets , at least some of which have distinguishable compositions; a flow-focusing device for producing divided droplets using the plurality of droplets contained within the carrying fluid , the produced divided droplets having a distribution of diameters such that no more than 5% of the divided droplets have a diameter 10% greater than the average diameter of the divided droplets ; a microfluidic channel arranged to pass the plurality of droplets to the flow-focusing device for producing the divided droplets, and a collection chamber for collecting the divided droplets as a collection of divided droplets.
A composite member comprising: a substrate composed of a composite material containing pure magnesium and SiC, or a magnesium alloy and SiC, the content of SiC in the substrate being not lower than 50 volume%, with the substrate being defined as 100 volume%; and a coating layer provided on a surface of the substrate, wherein the coating layer includes an outermost layer provided as an outermost surface, and an intermediate layer provided directly under the outermost layer, the outermost layer contains nickel and phosphorus, the content of nickel in the outermost layer being not lower than 87 mass % and not higher than 99 mass % and the content of phosphorus in the outermost layer being not lower than 1 mass % and not higher than 13 mass %, with all constituent elements of the outermost layer being defined as 100 mass %, the intermediate layer is mainly composed of copper, wherein being mainly composed of copper means that, with all constituent elements of the intermediate layer being defined as 100 mass %, a content of copper satisfies 98.0 mass % or higher, the outermost layer has a thickness not smaller than 0.1 μm and not larger than 6.0 μm, and the intermediate layer has a thickness not smaller than 30 μm. a substrate composed of a composite material containing pure magnesium and SiC, or a magnesium alloy and SiC, the content of SiC in the substrate being not lower than 50 volume%, with the substrate being defined as 100 volume%; and a coating layer provided on a surface of the substrate, wherein the coating layer includes an outermost layer provided as an outermost surface, and an intermediate layer provided directly under the outermost layer, an outermost layer provided as an outermost surface, and an intermediate layer provided directly under the outermost layer, the outermost layer contains nickel and phosphorus, the content of nickel in the outermost layer being not lower than 87 mass % and not higher than 99 mass % and the content of phosphorus in the outermost layer being not lower than 1 mass % and not higher than 13 mass %, with all constituent elements of the outermost layer being defined as 100 mass %, the intermediate layer is mainly composed of copper, wherein being mainly composed of copper means that, with all constituent elements of the intermediate layer being defined as 100 mass %, a content of copper satisfies 98.0 mass % or higher, the outermost layer has a thickness not smaller than 0.1 μm and not larger than 6.0 μm, and the intermediate layer has a thickness not smaller than 30 μm.
Format part for deflecting containers , comprising a toggle lever which comprises a toggle joint and two ankle joints , wherein the format part comprises a railing fastened to the toggle joint of the toggle lever, wherein the ankle joints are displaceable in one plane, which is parallel to the running direction of the railing, and wherein the railing is displaceable parallel to said plane by the displacement of the ankle joints, wherein the format part is adaptable for different container formats by the displacement of the railing , wherein the format part comprises a plurality of toggle levers and a plurality of railings , wherein a plane in that the railing is displaceable is parallel to the plane in which the containers are transportable in the format part nad that is horizontal, characterised in that two opposing adjustment mechanisms , namely traction means, are fastened to the ankle joints of the toggle lever , wherein the adjustment mechanisms of ankle joints of a plurality of toggle levers are simultaneously adjustable, and the adjustment mechanisms of all the toggle levers comprised by the format part are connected such to each other that they are adjustable by a single adjustment process. wherein the format part comprises a plurality of toggle levers and a plurality of railings , wherein a plane in that the railing is displaceable is parallel to the plane in which the containers are transportable in the format part nad that is horizontal, characterised in that two opposing adjustment mechanisms , namely traction means, are fastened to the ankle joints of the toggle lever , wherein the adjustment mechanisms of ankle joints of a plurality of toggle levers are simultaneously adjustable, and the adjustment mechanisms of all the toggle levers comprised by the format part are connected such to each other that they are adjustable by a single adjustment process.
Method for processing sensor data, with the steps of: - providing surroundings data (SD) relating to a vehicle; - assigning the surroundings data (SD) to corresponding locating data (OD); and - transmitting the locally assigned surroundings data (SD') to a processing apparatus ; characterized in that - the surroundings data (SD) are transferred between a sensor device and a control device according to a defined data limitation criterion which is defined by the sensor device that has correspondingly preconfigured software and is not reconfigurable. - providing surroundings data (SD) relating to a vehicle; - assigning the surroundings data (SD) to corresponding locating data (OD); and - transmitting the locally assigned surroundings data (SD') to a processing apparatus ; characterized in that - the surroundings data (SD) are transferred between a sensor device and a control device according to a defined data limitation criterion which is defined by the sensor device that has correspondingly preconfigured software and is not reconfigurable.
A method comprising: obtaining, by a mobile device , a second biometric sample of a user; generating a second biometric template from the second biometric sample; generating a first secret cryptographic key and a public value by passing the second biometric template to a first function of a fuzzy extractor; transmitting the public value to an access device ; receiving, from the access device , a plurality of encrypted first biometric templates, each of the plurality of encrypted first biometric templates being encrypted with a respective secret cryptographic key; attempting to decrypt a first one of the plurality of encrypted first biometric templates with the first secret cryptographic key; responsive to failure to decrypt the first one of the plurality of encrypted first biometric templates, attempting to decrypt a next one of the plurality of encrypted biometric templates; responsive to decrypting the next one of the plurality of encrypted first biometric templates, thereby indicating that the next one of the plurality of encrypted biometric templates is encrypted with a secret cryptographic key generated by passing the public value and a first biometric template which is generated by the access device from a first biometric sample on the access device to a second function of the fuzzy extractor, determining whether the first biometric template matches the second biometric template; and responsive to determining that the first biometric template matches the second biometric template, sending a confirmation of the match to the access device . obtaining, by a mobile device , a second biometric sample of a user; generating a second biometric template from the second biometric sample; generating a first secret cryptographic key and a public value by passing the second biometric template to a first function of a fuzzy extractor; transmitting the public value to an access device ; receiving, from the access device , a plurality of encrypted first biometric templates, each of the plurality of encrypted first biometric templates being encrypted with a respective secret cryptographic key; attempting to decrypt a first one of the plurality of encrypted first biometric templates with the first secret cryptographic key; responsive to failure to decrypt the first one of the plurality of encrypted first biometric templates, attempting to decrypt a next one of the plurality of encrypted biometric templates; responsive to decrypting the next one of the plurality of encrypted first biometric templates, thereby indicating that the next one of the plurality of encrypted biometric templates is encrypted with a secret cryptographic key generated by passing the public value and a first biometric template which is generated by the access device from a first biometric sample on the access device to a second function of the fuzzy extractor, determining whether the first biometric template matches the second biometric template; and responsive to determining that the first biometric template matches the second biometric template, sending a confirmation of the match to the access device .
A power supply device for an induction installation comprising an inverter supplying at least one inductor and said device comprising: - at least two power supply inputs, each of which can be connected to a different power source; - a single unique inverter configured to convert an input electric current originating from one of the at least two power sources into an output electric current; - means for switching from one power supply source to another, these switching means comprising control means which allow switching between at least two operating modes: a mode adapted for an AC voltage power supply source and a mode adapted for a DC voltage power supply source : wherein said control means comprise a module for maximum power point tracking, MPPT, of the inverter , said device being characterised in that the MPPT is communicating with a central processor , the central processor being configured to control said inverter by modifying its operating frequency by measuring the voltage and current at said inductor , when the device is switched to the operating mode adapted for a DC voltage power supply source , and wherein the maximum power point tracking module (MPPT) is a computer program configured for use by the central processor . - at least two power supply inputs, each of which can be connected to a different power source; - a single unique inverter configured to convert an input electric current originating from one of the at least two power sources into an output electric current; - means for switching from one power supply source to another, these switching means comprising control means which allow switching between at least two operating modes: a mode adapted for an AC voltage power supply source and a mode adapted for a DC voltage power supply source : wherein said control means comprise a module for maximum power point tracking, MPPT, of the inverter , said device being characterised in that the MPPT is communicating with a central processor , the central processor being configured to control said inverter by modifying its operating frequency by measuring the voltage and current at said inductor , when the device is switched to the operating mode adapted for a DC voltage power supply source , and wherein the maximum power point tracking module (MPPT) is a computer program configured for use by the central processor .