mhurhangee/patent-ind-claim-en huggingface dataset:
An agent, which is a surface treatment agent representing an aqueous emulsion comprising: a fluorine-free copolymer comprising: - a first polymer formed from a first monomer which comprises (a) a long-chain acrylate ester monomer of the formula CH 2 =CA 11 -C(=O)-O-A 12 wherein A 11 is H, Cl, Br, I, CN, linear or branched C 1-21 -alkyl, optionally substituted benzyl or optionally substituted phenyl, and A 12 is a linear or branched C 18-30 -hydrocarbon group, the first monomer does not comprise (b) a halogenated olefin monomer, - a second polymer formed from a second monomer comprising (b) a halogenated olefin monomer, wherein the second polymer is obtained by polymerizing the second monomer in the presence of the first polymer, a surface-active agent comprising a nonionic surface-active agent, and a liquid medium comprising water. a fluorine-free copolymer comprising: - a first polymer formed from a first monomer which comprises (a) a long-chain acrylate ester monomer of the formula CH 2 =CA 11 -C(=O)-O-A 12 wherein A 11 is H, Cl, Br, I, CN, linear or branched C 1-21 -alkyl, optionally substituted benzyl or optionally substituted phenyl, and A 12 is a linear or branched C 18-30 -hydrocarbon group, the first monomer does not comprise (b) a halogenated olefin monomer, - a second polymer formed from a second monomer comprising (b) a halogenated olefin monomer, wherein the second polymer is obtained by polymerizing the second monomer in the presence of the first polymer, - a first polymer formed from a first monomer which comprises (a) a long-chain acrylate ester monomer of the formula CH 2 =CA 11 -C(=O)-O-A 12 wherein A 11 is H, Cl, Br, I, CN, linear or branched C 1-21 -alkyl, optionally substituted benzyl or optionally substituted phenyl, and A 12 is a linear or branched C 18-30 -hydrocarbon group, the first monomer does not comprise (b) a halogenated olefin monomer, - a second polymer formed from a second monomer comprising (b) a halogenated olefin monomer, wherein the second polymer is obtained by polymerizing the second monomer in the presence of the first polymer, a surface-active agent comprising a nonionic surface-active agent, and a liquid medium comprising water.
A computer implemented method for operating a laboratory system , wherein the laboratory system comprises a plurality of laboratory instruments for processing biological samples and a control unit communicatively connected by a communication network , the method comprising the steps of: - receiving and identifying a biological sample by one of the plurality of laboratory instruments ; - retrieving an order list from a database by the control unit , the list comprising a plurality of targets corresponding to the biological sample, each target defining at least one processing step(s) to be carried out on the biological sample by at least one of the plurality of the laboratory instruments ; - selecting a workflow strategy by the control unit , wherein the workflow strategy defines at least one priority rule(s) in processing the biological sample; - retrieving workflow acceptance criterion by the control unit from a database corresponding to the workflow strategy; - determining a sample workflow by the control unit for processing the biological sample based on the workflow strategy and the order list; - determining by the control unit whether the sample workflow satisfies the workflow acceptance criterion; characterized in that - if the sample workflow does not satisfy the workflow acceptance criterion - refining workflow strategy by the control unit ; and - determining the sample workflow by the control unit based on the workflow strategy and the order list, until the sample workflow satisfies the workflow acceptance criterion. - receiving and identifying a biological sample by one of the plurality of laboratory instruments ; - retrieving an order list from a database by the control unit , the list comprising a plurality of targets corresponding to the biological sample, each target defining at least one processing step(s) to be carried out on the biological sample by at least one of the plurality of the laboratory instruments ; - selecting a workflow strategy by the control unit , wherein the workflow strategy defines at least one priority rule(s) in processing the biological sample; - retrieving workflow acceptance criterion by the control unit from a database corresponding to the workflow strategy; - determining a sample workflow by the control unit for processing the biological sample based on the workflow strategy and the order list; - determining by the control unit whether the sample workflow satisfies the workflow acceptance criterion; - if the sample workflow does not satisfy the workflow acceptance criterion - refining workflow strategy by the control unit ; and - determining the sample workflow by the control unit based on the workflow strategy and the order list, until the sample workflow satisfies the workflow acceptance criterion. - refining workflow strategy by the control unit ; and - determining the sample workflow by the control unit based on the workflow strategy and the order list,
A vacuum cleaner comprising: a vacuum component defining an aperture ; and a hand vacuum including a removable battery , wherein the hand vacuum is in removable engagement with the vacuum component , and the battery is removable from the hand vacuum through the aperture while the hand vacuum remains in engagement with the vacuum component . a vacuum component defining an aperture ; and a hand vacuum including a removable battery , wherein the hand vacuum is in removable engagement with the vacuum component , and the battery is removable from the hand vacuum through the aperture while the hand vacuum remains in engagement with the vacuum component .
An audio data processing method, comprising: obtaining a first audio frame and a second audio frame adjacent to each other from an audio data stream, the first audio frame preceding the second audio frame in a time sequence of the audio data stream; determining a frame segmentation position, wherein a sampling point value at the frame segmentation position in the first audio frame and a sampling point value at the frame segmentation position in the second audio frame satisfy a distance closeness condition; and obtaining respective sampling point value preceding the frame segmentation position in the second audio frame and respective sampling point value following the frame segmentation position in the first audio frame; sequentially stitching the respective sampling point value obtained from the second audio frame and the respective sampling point value obtained from the first audio frame, to generate a third audio frame; and inserting the third audio frame between the first audio frame and the second audio frame. obtaining a first audio frame and a second audio frame adjacent to each other from an audio data stream, the first audio frame preceding the second audio frame in a time sequence of the audio data stream; determining a frame segmentation position, wherein a sampling point value at the frame segmentation position in the first audio frame and a sampling point value at the frame segmentation position in the second audio frame satisfy a distance closeness condition; and obtaining respective sampling point value preceding the frame segmentation position in the second audio frame and respective sampling point value following the frame segmentation position in the first audio frame; sequentially stitching the respective sampling point value obtained from the second audio frame and the respective sampling point value obtained from the first audio frame, to generate a third audio frame; and inserting the third audio frame between the first audio frame and the second audio frame.
A method for controlling the concentration of volatile organic compounds in a fluid of a fluid network of an industrial plant , the plant being intended to carry out an industrial method , the fluid comprising a plurality of volatile organic compounds, comprising the following steps: · first step of on-line measurement of the concentration of each of the volatile organic compounds of the plurality of volatile organic compounds in the fluid of the fluid network by an analyser , · second step of comparing the concentration of each of the volatile organic compounds of the plurality of organic compounds measured by the analyser with a threshold value predefined for each of the volatile organic compounds, as a treatment setpoint value or maximum alarm value, · third step of reducing the concentration of at least one volatile organic compound if the concentration of said at least one volatile organic compound measured by the analyser is greater than the corresponding predefined threshold value , the industrial method being a drilling method using a drilling fluid, the method being characterised in that the drilling fluid comprises a contaminated/non-contaminated fluid mixture and the third step of reduction consists in adapting the density of the drilling fluid as a function of the concentration of the at least one volatile organic compound measured in the network fluid by controlling the contaminated/non-contaminated fluid mixture. · first step of on-line measurement of the concentration of each of the volatile organic compounds of the plurality of volatile organic compounds in the fluid of the fluid network by an analyser , · second step of comparing the concentration of each of the volatile organic compounds of the plurality of organic compounds measured by the analyser with a threshold value predefined for each of the volatile organic compounds, as a treatment setpoint value or maximum alarm value, · third step of reducing the concentration of at least one volatile organic compound if the concentration of said at least one volatile organic compound measured by the analyser is greater than the corresponding predefined threshold value ,
A refrigerator box body, wherein the refrigerator box body comprises mounting bases used to mount hinges, a box housing provided with an upward opening, and an opening frame connected to the opening of the box housing, a side plate of the box housing is opened with mounting ports penetrating the side plate of the box housing along the thickness direction, the mounting bases are arranged within the mounting ports, the mounting bases are provided with depressions with concave sides toward an inside of the box housing, the hinges are mounted within the depressions, the mounting bases are provided with guide grooves , side edges of the mounting ports are inserted into the guide grooves to connect the mounting bases and the box housing, an edge of the opening frame abuts against upper sides of the mounting bases; characterized in that the mounting bases comprise a mounting housing and mounting plates provided on left and right sides of the mounting housing, the depressions are provided on the mounting housing, the guide grooves are provided in the mounting plates, and side edges of the mounting ports are inserted into the guide grooves to connect the mounting bases and the box housing.
A PTC liquid heater, comprising: a heating assembly , and a housing including a water inlet and a water outlet , whereby the heating assembly comprises: a heat conductor including at least one accommodating cavity , a PTC heat generation assembly disposed in the at least one accommodating cavity , and a sheath including a cavity for accommodating the heat conductor and the PTC heat generation assembly ; wherein the heating assembly is at least partially inserted in the housing , characterized in that the heat conductor is configured in a cylindrical shape, and the at least one accommodating cavity is configured in an axial direction of the heat conductor ; wherein the sheath comprises a penetrating sleeve , configured as a straight, round tube; the heat conductor and the PTC heat generation assembly being disposed in the penetrating sleeve , an inner surface of the sleeve abutting against an outer surface of a side wall of the heat conductor . a heating assembly , and a housing including a water inlet and a water outlet , whereby the heating assembly comprises: a heat conductor including at least one accommodating cavity , a PTC heat generation assembly disposed in the at least one accommodating cavity , and a sheath including a cavity for accommodating the heat conductor and the PTC heat generation assembly ; a heat conductor including at least one accommodating cavity , a PTC heat generation assembly disposed in the at least one accommodating cavity , and a sheath including a cavity for accommodating the heat conductor and the PTC heat generation assembly ; wherein the heating assembly is at least partially inserted in the housing , characterized in that the heat conductor is configured in a cylindrical shape, and the at least one accommodating cavity is configured in an axial direction of the heat conductor ; wherein the sheath comprises a penetrating sleeve , configured as a straight, round tube; the heat conductor and the PTC heat generation assembly being disposed in the penetrating sleeve , an inner surface of the sleeve abutting against an outer surface of a side wall of the heat conductor .
A method for Internet Protocol, IP, version selection for a Protocol Data Unit, PDU, session requested to be established by a Wireless Communication Device, WCD, that supports PDU sessions of both Internet Protocol version 4, IPv4, and Internet Protocol version 6, IPv6, and that is configured to operatively communicate via a Radio Access Network, RAN with a session management, SM, node in a core network , the method being performed by the WCD comprises: - sending (S110) a first PDU session request message towards the SM node requesting establishment of a first PDU session, which request message comprises IP-version information indicating that the IP version of the requested first PDU session should be any one of IPv4 or IPv6; - receiving (S130, S140), in response to sending the first PDU session request message, a first response message, which first response message comprises WCD information indicating the IP-version that has been selected for the requested first PDU session, wherein it is further indicated in the WCD information that the other IP type not being selected -IPv4 if IPv6 was selected and IPv6 if IPv4 was selected- is also supported; and - sending (S150), when it is indicated in the WCD information that the other IP version is also supported, a second PDU session request message towards the SM node requesting establishment of a second PDU session, which request message comprises IP-version information indicating that the IP version of the requested second PDU session should be any one of IPv4 or IPv6 that was not previously selected. - sending (S110) a first PDU session request message towards the SM node requesting establishment of a first PDU session, which request message comprises IP-version information indicating that the IP version of the requested first PDU session should be any one of IPv4 or IPv6; - receiving (S130, S140), in response to sending the first PDU session request message, a first response message, which first response message comprises WCD information indicating the IP-version that has been selected for the requested first PDU session, wherein it is further indicated in the WCD information that the other IP type not being selected -IPv4 if IPv6 was selected and IPv6 if IPv4 was selected- is also supported; and - sending (S150), when it is indicated in the WCD information that the other IP version is also supported, a second PDU session request message towards the SM node requesting establishment of a second PDU session, which request message comprises IP-version information indicating that the IP version of the requested second PDU session should be any one of IPv4 or IPv6 that was not previously selected.
An encoder for encoding an audio signal , wherein the encoder is configured to encode the audio signal in a transform domain or filter-bank domain , wherein the encoder is configured to determine spectral coefficients (106_t0_f1:106_t0_f6; 106_t-1_f1:106_t-1_f6) of the audio signal for a current time frame (108_t0) and at least one previous time frame (108_t-1), wherein the encoder is configured to selectively apply predictive encoding to a plurality of individual spectral coefficients (106_t0_f2) or groups of spectral coefficients (106_t0_f4,106_t0_f5), wherein the encoder is configured to determine a spacing value, wherein the encoder is configured to select the plurality of individual spectral coefficients (106_t0_f2) or groups of spectral coefficients (106_t0_f4,106_t0_f5) to which predictive encoding is applied based on the spacing value; characterised in that the encoder is configured to select individual spectral coefficients or groups (116_1:116_6) of spectral coefficients spectrally arranged according to a harmonic grid defined by the spacing value for predictive encoding
A process for the preparation of mortar or concrete compositions containing: cement + mixing water + aggregate(s) selected from sand and gravel, and filler(s), in which the filler(s) is/are consisting of calcium carbonate - based filler(s), characterized in that it comprises at least one step where the said filler(s) is / are treated with an efficient treating amount of at least one treating agent consisting of superplastifier(s) and optionally air entrainment agents, anti-foam agents, setting retarders or accelerators, and wherein the superplastifier(s) is /are selected among the following products or families and their blends: Polycarboxylates, polycarboxylate ethers, or much less preferred products manufactured from sulfonated naphthalene condensate or sulfonated melamine formaldehyde, and wherein the dosage in superplastifier(s) is ranging from 0.02 to 0.15 % by weight of dry weight cement. Polycarboxylates, polycarboxylate ethers, or much less preferred products manufactured from sulfonated naphthalene condensate or sulfonated melamine formaldehyde, and wherein the dosage in superplastifier(s) is ranging from 0.02 to 0.15 % by weight of dry weight cement.
A user equipment , comprising: means for determining, by the user equipment , that the user equipment does not need gaps to perform measurements; and means for performing, by the user equipment , gapless measurements based on the determination, wherein the determination comprises identifying that the user equipment is not configured to perform intra-frequency neighbor cell measurements based on an identified reporting configuration. means for determining, by the user equipment , that the user equipment does not need gaps to perform measurements; and means for performing, by the user equipment , gapless measurements based on the determination, wherein the determination comprises identifying that the user equipment is not configured to perform intra-frequency neighbor cell measurements based on an identified reporting configuration.
A piezoelectric element comprising: a core formed of a conductive fiber, a sheath formed of braided piezoelectric fibers, covering the core, and a conductive layer provided on the periphery of the sheath, wherein the piezoelectric element further comprises a metal terminal which is a signal metal terminal connected and fixed to the core, and a shielding metal terminal connected and fixed to the conductive layer, the signal metal terminal and the shielding metal terminal being fixed to each other via an insulator. a core formed of a conductive fiber, a sheath formed of braided piezoelectric fibers, covering the core, and a conductive layer provided on the periphery of the sheath, wherein the piezoelectric element further comprises a metal terminal which is a signal metal terminal connected and fixed to the core, and a shielding metal terminal connected and fixed to the conductive layer, the signal metal terminal and the shielding metal terminal being fixed to each other via an insulator.
A roller shutter power unit, where said roller shutter is arranged to be installed on the outside of a window, and the roller shutter comprising - a cassette for storing a movable curtain in its wounded state, said cassette is arranged to be connected to guides for said movable curtain , and the power unit comprising - a winding shaft for storing the movable curtain on it, and a drive shaft for moving the movable curtain before it enters the guides, and moving in the opposite direction when the movable curtain is inserted into the cassette , wherein the ends of both shafts are bearing mounted in a cassette side plates , - the drive shaft and the winding shaft are arranged to be driven by separate electric motors, referred to as driving motor and winding motor , respectively, characterized in that at least one of said motors comprises a rotational speed, which speed is controlled by a controller , dependent on the stage of winding of the movable curtain on the winding shaft , wherein said controller receives pulses, its control system calculates the angle of rotation of the drive shaft calculated from one of the two extreme positions of the movable curtain , and also calculates the current in both winding and driving motors . - a cassette for storing a movable curtain in its wounded state, said cassette is arranged to be connected to guides for said movable curtain , and the power unit comprising - a winding shaft for storing the movable curtain on it, and a drive shaft for moving the movable curtain before it enters the guides, and moving in the opposite direction when the movable curtain is inserted into the cassette , wherein the ends of both shafts are bearing mounted in a cassette side plates , - the drive shaft and the winding shaft are arranged to be driven by separate electric motors, referred to as driving motor and winding motor , respectively, characterized in that at least one of said motors comprises a rotational speed, which speed is controlled by a controller , dependent on the stage of winding of the movable curtain on the winding shaft , wherein said controller receives pulses, its control system calculates the angle of rotation of the drive shaft calculated from one of the two extreme positions of the movable curtain , and also calculates the current in both winding and driving motors .