mhurhangee/patent-ind-claim-en huggingface dataset:
Use of a low-temperature additive comprising i) at least one oil-soluble amide-ammonium salt of a polycarboxylic acid with a mono- and/or dialkylamine (A) and ii) 5-100% by weight, based on the amount of amide-ammonium salt (A), of an oil-soluble amine (B), and iii) 0.1 to 10 parts by weight, based on the amount of amide-ammonium salt (A), of a resin formed from at least one aromatic compound bearing an alkyl radical and an aldehyde and/or ketone (D) for improving the low-temperature properties of a fuel oil having a sulfur content of less than 50 ppm, comprising a lubricity additive (C), wherein the lubricity additive (C) comprises a fatty acid, the oligomer of an unsaturated fatty acid, an alk(en)ylsuccinic acid, a partial ester of a polyol with a fatty acid, a partial ester of a polyol with an oligomer of an unsaturated fatty acid, a partial ester of a polyol with an alk(en)ylsuccinic acid, a fatty acid amide of an alkanolamine or a mixture of two or more of these compounds. i) at least one oil-soluble amide-ammonium salt of a polycarboxylic acid with a mono- and/or dialkylamine (A) and ii) 5-100% by weight, based on the amount of amide-ammonium salt (A), of an oil-soluble amine (B), and iii) 0.1 to 10 parts by weight, based on the amount of amide-ammonium salt (A), of a resin formed from at least one aromatic compound bearing an alkyl radical and an aldehyde and/or ketone (D) for improving the low-temperature properties of a fuel oil having a sulfur content of less than 50 ppm, comprising a lubricity additive (C), wherein the lubricity additive (C) comprises a fatty acid, the oligomer of an unsaturated fatty acid, an alk(en)ylsuccinic acid, a partial ester of a polyol with a fatty acid, a partial ester of a polyol with an oligomer of an unsaturated fatty acid, a partial ester of a polyol with an alk(en)ylsuccinic acid, a fatty acid amide of an alkanolamine or a mixture of two or more of these compounds.
Circular weaving machine , having: - a weft insertion device for inserting a weft element into a woven fabric, wherein the weft insertion device has a reservoir for storing the weft element , and wherein the weft insertion device has a magnet arrangement for generating a magnetic field (MF); - a coupling element , which has a superconductor arrangement with one or more superconductors , wherein the superconductor arrangement and the magnet arrangement are designed in such a way that the magnet arrangement can be mounted in a predefined position relative to the superconductor arrangement in such a way that an air gap (L) is formed between the coupling element and the weft insertion device and that the weft insertion device is guided along a predefined path when the coupling element is moved; characterized in that the coupling element is arranged behind the weft insertion device with respect to a radial direction of the circular weaving machine . - a weft insertion device for inserting a weft element into a woven fabric, wherein the weft insertion device has a reservoir for storing the weft element , and wherein the weft insertion device has a magnet arrangement for generating a magnetic field (MF); - a coupling element , which has a superconductor arrangement with one or more superconductors , wherein the superconductor arrangement and the magnet arrangement are designed in such a way that the magnet arrangement can be mounted in a predefined position relative to the superconductor arrangement in such a way that an air gap (L) is formed between the coupling element and the weft insertion device and that the weft insertion device is guided along a predefined path when the coupling element is moved;
A synchronous compensator and resolver combination comprising: a resolver to sense a position, and provide a feedback signal into a synchronous compensator ; and said synchronous compensator being configured to drive a harmonic content of at least one target harmonic frequency in said feedback signal from said resolver toward zero over time, characterized in that : - the synchronous compensator comprises a phase lock loop, PLL , a Fourier coefficient computation block and a Fourier component reconstruction block , - the resolver is configured to send an angular feedback signal (θ res ) to a summation block , - the Fourier coefficient computation block is configured to receive a signal (θ PLL ), which is a filtered estimate of the resolver angular feedback signal (θ res ), from the PLL , and to communicate signals into the Fourier component reconstruction block , - the Fourier component reconstruction block is configured to send a signal (θ comp ) to the summation block , f - the PLL is configured to receive an output signal , which is an angle signal, from the summation block and to provide the filtered estimate (θ PLL ) of the resolver angular feedback signal (θ res ). a resolver to sense a position, and provide a feedback signal into a synchronous compensator ; and said synchronous compensator being configured to drive a harmonic content of at least one target harmonic frequency in said feedback signal from said resolver toward zero over time, characterized in that : - the synchronous compensator comprises a phase lock loop, PLL , a Fourier coefficient computation block and a Fourier component reconstruction block , - the resolver is configured to send an angular feedback signal (θ res ) to a summation block , - the Fourier coefficient computation block is configured to receive a signal (θ PLL ), which is a filtered estimate of the resolver angular feedback signal (θ res ), from the PLL , and to communicate signals into the Fourier component reconstruction block , - the Fourier component reconstruction block is configured to send a signal (θ comp ) to the summation block , f - the PLL is configured to receive an output signal , which is an angle signal, from the summation block and to provide the filtered estimate (θ PLL ) of the resolver angular feedback signal (θ res ). - the synchronous compensator comprises a phase lock loop, PLL , a Fourier coefficient computation block and a Fourier component reconstruction block , - the resolver is configured to send an angular feedback signal (θ res ) to a summation block , - the Fourier coefficient computation block is configured to receive a signal (θ PLL ), which is a filtered estimate of the resolver angular feedback signal (θ res ), from the PLL , and to communicate signals into the Fourier component reconstruction block , - the Fourier component reconstruction block is configured to send a signal (θ comp ) to the summation block , f - the PLL is configured to receive an output signal , which is an angle signal, from the summation block and to provide the filtered estimate (θ PLL ) of the resolver angular feedback signal (θ res ).
A plurality of capture objects, wherein each capture object of said plurality is a capture object comprising a plurality of capture oligonucleotides, wherein each capture oligonucleotide of said plurality comprises: a priming sequence; a capture sequence; and a barcode sequence comprising three or more cassetable oligonucleotide sequences, each cassetable oligonucleotide sequence being non-identical to the other cassetable oligonucleotide sequences of said barcode sequence, and wherein a cassetable oligonucleotide sequence is an oligonucleotide sequence that is one of a defined set of oligonucleotide sequences, and, wherein each capture oligonucleotide of said plurality comprises the same barcode sequence, wherein said barcode sequence of said capture oligonucleotides of each capture object of said plurality is different from the barcode sequence of the capture oligonucleotides of every other capture object of said plurality. a priming sequence; a capture sequence; and a barcode sequence comprising three or more cassetable oligonucleotide sequences, each cassetable oligonucleotide sequence being non-identical to the other cassetable oligonucleotide sequences of said barcode sequence, and wherein a cassetable oligonucleotide sequence is an oligonucleotide sequence that is one of a defined set of oligonucleotide sequences, and, wherein each capture oligonucleotide of said plurality comprises the same barcode sequence, wherein said barcode sequence of said capture oligonucleotides of each capture object of said plurality is different from the barcode sequence of the capture oligonucleotides of every other capture object of said plurality.
An antenna assembly for microwave ablation, comprising: a radiator for emitting a microwave for ablation; a coaxial cable for transmitting the microwave for ablation generated by a microwave generator to the radiator; wherein an annular composite structure for inhibiting an electromagnetic wave propagated backwards along the coaxial cable is provided around the coaxial cable, wherein the annular composite structure comprises an annular nonmetallic layer and an annular metallic layer located outside the annular nonmetallic layer, wherein the annular metallic layer is electrically insulated from the coaxial cable, wherein the antenna assembly further comprises a cooling channel provided around the coaxial cable for cooling the radiator, wherein the cooling channel is of nonmetallic material, and wherein the annular metallic layer is formed on an exterior wall of the cooling channel, so that the annular metallic layer and the cooling channel of nonmetallic material together build the annular composite structure or a part of the annular composite structure. a radiator for emitting a microwave for ablation; a coaxial cable for transmitting the microwave for ablation generated by a microwave generator to the radiator; wherein an annular composite structure for inhibiting an electromagnetic wave propagated backwards along the coaxial cable is provided around the coaxial cable, wherein the annular composite structure comprises an annular nonmetallic layer and an annular metallic layer located outside the annular nonmetallic layer, wherein the annular metallic layer is electrically insulated from the coaxial cable, wherein the antenna assembly further comprises a cooling channel provided around the coaxial cable for cooling the radiator, wherein the cooling channel is of nonmetallic material, and wherein the annular metallic layer is formed on an exterior wall of the cooling channel, so that the annular metallic layer and the cooling channel of nonmetallic material together build the annular composite structure or a part of the annular composite structure.
A datacenter chamber having racks configured to hold arrays of rack-mounted computing devices , the datacenter chamber comprising: three or more racks , each rack having a plurality of receptacles configured to hold a computing device ; a chassis configured to secure each of the racks in spaced relation relative to one another, wherein the chassis is configured to secure the racks facing outward from an interior chamber defined by a back-side of the racks , and wherein the chassis is configured to position the racks facing at least three different directions; a tube at least partially defining the interior chamber and sized such that sides of the tube correspond to at least three of the racks , the sides of the tube corresponding to the at least three of the racks comprising airflow restrictors (530/534), wherein an amount of airflow restriction afforded by the airflow restrictors (530/534) increases along a at least half of a vertical length of the interior chamber; and an integrated cooling system configured to drive a cooling fluid along computing devices mounted in the racks and through the interior chamber. three or more racks , each rack having a plurality of receptacles configured to hold a computing device ; a chassis configured to secure each of the racks in spaced relation relative to one another, wherein the chassis is configured to secure the racks facing outward from an interior chamber defined by a back-side of the racks , and wherein the chassis is configured to position the racks facing at least three different directions; a tube at least partially defining the interior chamber and sized such that sides of the tube correspond to at least three of the racks , the sides of the tube corresponding to the at least three of the racks comprising airflow restrictors (530/534), wherein an amount of airflow restriction afforded by the airflow restrictors (530/534) increases along a at least half of a vertical length of the interior chamber; and an integrated cooling system configured to drive a cooling fluid along computing devices mounted in the racks and through the interior chamber.
Method for producing a soft-magnetic alloy, comprising the provision of a precursor having a composition consisting substantially of 5 % w/w ≤ Co ≤ 25 % w/w 0.3 % w/w ≤ V ≤ 5.0 % w/w 0 % w/w ≤ Cr ≤ 3.0 % w/w 0 % w/w ≤ Si ≤ 3.0 % w/w 0 % w/w ≤ Mn ≤ 3.0 % w/w 0 % w/w ≤ Al ≤ 3.0 % w/w 0 % w/w ≤ Ta ≤ 0.5 % w/w 0 % w/w ≤ Ni ≤ 0.5 % w/w 0 % w/w ≤ Mo ≤ 0.5 % w/w 0 % w/w ≤ Cu ≤ 0.2 % w/w 0 % w/w ≤ Nb ≤ 0.25 % w/w 0 % w/w ≤ Ti ≤ 0.05 % w/w 0 % w/w ≤ Ce ≤ 0.05 % w/w 0 % w/w ≤ Ca ≤ 0.05 % w/w 0 % w/w ≤ Mg ≤ 0.05 % w/w 0 % w/w ≤ C ≤ 0.02 % w/w 0 % w/w ≤ Zr ≤ 0.1 % w/w 0 % w/w ≤ O ≤ 0.025 % w/w 0 % w/w ≤ S ≤ 0.015 % w/w rest iron, wherein Cr+Si+Al+Mn ≤ 3.0 % w/w, and up to 0.2 % w/w of other impurities, wherein the precursor has a phase transition from a BCC phase area into a BCC/FCC mixed area to an FCC phase area, wherein at increasing temperature the phase transition between the BCC phase area and the BCC/FCC mixed area occurs at a first transition temperature T Ü1 and at further increasing temperature the transition between the BCC/FCC mixed area and the FCC phase area occurs at a second transition temperature T Ü2 , as magnetic final annealing the heat treatment of the precursor at a temperature T 1 > T Ü2 , wherein the precursor is heat-treated for a time of more than 30 minutes above T Ü2 , followed by cooling at a cooling rate of 10°C/h to 900°C/h, preferably 25°C/h to 500°C/h, to a temperature T 2 , wherein T 2 < T Ü1 and 700°C ≤ T 2 ≤ 1050°C, followed by cooling to room temperature. wherein at increasing temperature the phase transition between the BCC phase area and the BCC/FCC mixed area occurs at a first transition temperature T Ü1 and at further increasing temperature the transition between the BCC/FCC mixed area and the FCC phase area occurs at a second transition temperature T Ü2 , as magnetic final annealing the heat treatment of the precursor at a temperature T 1 > T Ü2 , wherein the precursor is heat-treated for a time of more than 30 minutes above T Ü2 , followed by cooling at a cooling rate of 10°C/h to 900°C/h, preferably 25°C/h to 500°C/h, to a temperature T 2 , wherein T 2 < T Ü1 and 700°C ≤ T 2 ≤ 1050°C, followed by cooling to room temperature.
Method for operating a heater , • wherein the heater heats a heat transfer fluid flow , • wherein an adjustable diverter valve diverts the heat transfer fluid flow to a first heat consumer and/or a second heat consumer , • wherein, in a first method step (S1), if the first heat consumer demands heat, the diverter valve diverts the heat transfer fluid flow , in particular completely, to the first heat consumer , • characterized in that , in a subsequent step (SF), when the first method step (S1) ends, the diverter valve at least partially diverts the heat transfer fluid flow to the second heat consumer , • wherein the first method step (S1) lasts at most a maximum permissible duration T, wherein the subsequent step (SF) lasts a short duration D. • wherein the heater heats a heat transfer fluid flow , • wherein an adjustable diverter valve diverts the heat transfer fluid flow to a first heat consumer and/or a second heat consumer , • wherein, in a first method step (S1), if the first heat consumer demands heat, the diverter valve diverts the heat transfer fluid flow , in particular completely, to the first heat consumer , • characterized in that , in a subsequent step (SF), when the first method step (S1) ends, the diverter valve at least partially diverts the heat transfer fluid flow to the second heat consumer , • wherein the first method step (S1) lasts at most a maximum permissible duration T, wherein the subsequent step (SF) lasts a short duration D.
A Heusler alloy in which a portion of elements of an alloy represented by Co 2 Fe α Z β is substituted with a substitution element, wherein Z is one or more elements selected from the group consisting of Al, Si, Ga, Ge, and Sn, characterized in that , α is the number of Fe and the substitution element in a state after substitution when the number of Co is 2, α and β satisfy 2.3 ≤ α+β, α < β, and 0.5 < α <1.9, and the substitution element is one or more elements selected from the group consisting of elements having a melting point higher than that of Fe among elements of Groups 4 to 10. Z is one or more elements selected from the group consisting of Al, Si, Ga, Ge, and Sn, characterized in that , α is the number of Fe and the substitution element in a state after substitution when the number of Co is 2, α and β satisfy 2.3 ≤ α+β, α < β, and 0.5 < α <1.9, and the substitution element is one or more elements selected from the group consisting of elements having a melting point higher than that of Fe among elements of Groups 4 to 10.
A connection negotiation system comprising a connection planning module , the connection negotiation system being arranged for connection negotiation in a wireless docking environment comprising a wireless dockee device , one or more docking host devices and a network situated between the devices, wherein the dockee device comprises at least an end point associated with an application software program , a device driver system element and a network interface system element ; wherein the one or more docking host devices comprise at least an end point associated with a peripheral function, a device driver system element , and a network interface system element ; wherein any of the system elements has one or more configurations, wherein the different configurations are pre-encoded as data block elements, and the configurations comprising at least the capabilities and constraints of each device; and wherein different configurations for a same system element indicate different settings or properties; the connection planning module being configured to compute one or more combinations of system element configurations, wherein each combination represents a realizable communication path , represented by a set of block data elements, between a pair of end points through the system elements and the network, a communication path being realizable when the properties of interfaces between adjacent system elements and virtual interfaces between system elements of the same function in different devices are compatible and satisfy at least a first criteria, and to activate and configure the system elements with the combinations of system element configurations represented by the one or more realizable communication paths.
An electronic cigarette device comprising a vapor flow channel (105; 205; 305; 405) arranged to guide a generated vapor to a mouthpiece opening (118; 218; 318; 418), and a sensor (150; 250; 350; 450) arranged in the vapor flow channel to determine a temperature in the vapor flow channel at a position physically displaced from an atomizer (194; 294; 394; 494), and wherein the electronic cigarette device further comprises one or more processors; characterised in that the one or more processors are configured to: retrieve data from the sensor, the data comprising a measured temperature data set, wherein the measured temperature data set comprises one or more temperature measurements as a function of time; compare the measured temperature data set with predetermined temperature data, wherein the predetermined temperature data is indicative of the temperature of the vapor in the vapor flow channel of the electronic cigarette device at different fluid transfer element saturation levels; and determine and perform a further action based upon the comparison. retrieve data from the sensor, the data comprising a measured temperature data set, wherein the measured temperature data set comprises one or more temperature measurements as a function of time; compare the measured temperature data set with predetermined temperature data, wherein the predetermined temperature data is indicative of the temperature of the vapor in the vapor flow channel of the electronic cigarette device at different fluid transfer element saturation levels; and determine and perform a further action based upon the comparison.
An image forming apparatus comprising: a casing having an opening that is open upward; a cover supported by the casing such that the cover is configured to pivot around a pivot axis to open and close the opening, the cover including a pressing portion ; a process cartridge configured to be attached to or removed from the casing through the opening; and a particular guide configured to guide the process cartridge when the process cartridge is attached to or removed from the casing, wherein the pressing portion is configured to, when the cover is closing the opening, contact the process cartridge being attached inside the casing and press the process cartridge toward an attachment position in which the process cartridge is attached to the casing, and wherein a path of the pressing portion in the casing, while the cover pivots, is of substantially same shape as the shape of the particular guide as viewed from an axial direction of the pivot axis; wherein the process cartridge includes a particular guided portion to be guided by the particular guide, and a direction where the pressing portion presses the process cartridge is substantially parallel to a direction where the particular guide extends in proximity to the particular guided portion; and wherein the pressing portion is disposed in such a position that, when the pressing portion contacts the process cartridge, the pressing portion overlaps the particular guide as viewed from the axial direction of the pivot axis. a casing having an opening that is open upward; a cover supported by the casing such that the cover is configured to pivot around a pivot axis to open and close the opening, the cover including a pressing portion ; a process cartridge configured to be attached to or removed from the casing through the opening; and a particular guide configured to guide the process cartridge when the process cartridge is attached to or removed from the casing, wherein the pressing portion is configured to, when the cover is closing the opening, contact the process cartridge being attached inside the casing and press the process cartridge toward an attachment position in which the process cartridge is attached to the casing, and wherein a path of the pressing portion in the casing, while the cover pivots, is of substantially same shape as the shape of the particular guide as viewed from an axial direction of the pivot axis; wherein the process cartridge includes a particular guided portion to be guided by the particular guide, and a direction where the pressing portion presses the process cartridge is substantially parallel to a direction where the particular guide extends in proximity to the particular guided portion; and wherein the pressing portion is disposed in such a position that, when the pressing portion contacts the process cartridge, the pressing portion overlaps the particular guide as viewed from the axial direction of the pivot axis.