mhurhangee/patent-ind-claim-en huggingface dataset:
A control method of a hybrid vehicle, the vehicle including an internal combustion engine and an electrical power generating motor , that is connected with the internal combustion engine for controlling a rotational speed of the internal combustion engine to be a target rotational speed, the method comprising, when a failure with respect to the internal combustion engine is judged, - setting an upper limit of the target rotational speed of a firing operation of the internal combustion engine to an on-failure upper limit rotational speed (R3) that is lower than an on-failure fuel cut rotational speed (R1) that is a rotational speed for stopping fuel supply to the internal combustion engine during the failure; and - setting the target rotational speed of a motoring operation of the internal combustion engine to be not higher than an on-failure fuel cut recovery rotational speed (R2) that is a rotational speed for restarting the fuel supply after the fuel cut during the failure. the vehicle including an internal combustion engine and an electrical power generating motor , that is connected with the internal combustion engine for controlling a rotational speed of the internal combustion engine to be a target rotational speed, the method comprising, when a failure with respect to the internal combustion engine is judged, - setting an upper limit of the target rotational speed of a firing operation of the internal combustion engine to an on-failure upper limit rotational speed (R3) that is lower than an on-failure fuel cut rotational speed (R1) that is a rotational speed for stopping fuel supply to the internal combustion engine during the failure; and - setting the target rotational speed of a motoring operation of the internal combustion engine to be not higher than an on-failure fuel cut recovery rotational speed (R2) that is a rotational speed for restarting the fuel supply after the fuel cut during the failure. - setting an upper limit of the target rotational speed of a firing operation of the internal combustion engine to an on-failure upper limit rotational speed (R3) that is lower than an on-failure fuel cut rotational speed (R1) that is a rotational speed for stopping fuel supply to the internal combustion engine during the failure; and - setting the target rotational speed of a motoring operation of the internal combustion engine to be not higher than an on-failure fuel cut recovery rotational speed (R2) that is a rotational speed for restarting the fuel supply after the fuel cut during the failure.
A secondary battery, comprising: an electrode assembly , a packing bag , an electrode lead and an insulation part ; the electrode assembly is housed in the packing bag , the packing bag has a sealing part on an edge, and the electrode lead is connected to the electrode assembly and passes through the sealing part ; the sealing part , which is formed by hot-pressing, comprises a main body area , a first step area and a first transition area ; the main body area , the first transition area and the first step area are located on a same side of the electrode lead along a width direction (Y), and the main body area , the first transition area and the first step area are successively arranged along a direction approaching the electrode lead ; the insulation part is wrapped around outside of the electrode lead and separates the sealing part from the electrode lead ; the insulation part has a first portion , and the first step area covers the first portion on both sides in a thickness direction (Z); along the thickness direction (Z), a thickness of the main body area is H 1 mm, a sum of thicknesses of the first portion and the first step area is H 2 mm; along the width direction (Y), a width of the first step area is L 1 mm, along the width direction (Y), a width of the first transition area is L 2 mm; H 1 , H 2 , L 1 and L 2 satisfy the following relational expressions: H 1 < H 2 ; 0.1 mm < H 2 − H 1 < 0.6 mm ; L 1 is 0.4mm~2.5mm, L 2 is 0.1mm~0.5mm; 0.02 ≤ L 1 − 0.3 10 H 2 − 2 ≤ 2.2 . the electrode assembly is housed in the packing bag , the packing bag has a sealing part on an edge, and the electrode lead is connected to the electrode assembly and passes through the sealing part ; the sealing part , which is formed by hot-pressing, comprises a main body area , a first step area and a first transition area ; the main body area , the first transition area and the first step area are located on a same side of the electrode lead along a width direction (Y), and the main body area , the first transition area and the first step area are successively arranged along a direction approaching the electrode lead ; the insulation part is wrapped around outside of the electrode lead and separates the sealing part from the electrode lead ; the insulation part has a first portion , and the first step area covers the first portion on both sides in a thickness direction (Z); along the thickness direction (Z), a thickness of the main body area is H 1 mm, a sum of thicknesses of the first portion and the first step area is H 2 mm; along the width direction (Y), a width of the first step area is L 1 mm, along the width direction (Y), a width of the first transition area is L 2 mm; H 1 , H 2 , L 1 and L 2 satisfy the following relational expressions: H 1 < H 2 ; 0.1 mm < H 2 − H 1 < 0.6 mm ; L 1 is 0.4mm~2.5mm, L 2 is 0.1mm~0.5mm; 0.02 ≤ L 1 − 0.3 10 H 2 − 2 ≤ 2.2 .
A method of providing data to assess whether a - commonly medical - instrument comprising interior channels to be dried, which is used for examining cavities, meets the safety requirements, wherein sterile compressed air is led through air distribution means to respective channel ends, and measuring devices are connected to one or more of the respective proximal and/or distal channel ends for measuring the flow rate, temperature and/or moisture content of the incoming and/or outgoing air at the channel ends, the method providing a drying cabinet with one or more drying spaces , and freely suspending in each drying space a plurality of instruments , such that proximal ends of the channels in the instruments are suspended at the top of the drying space , where the drying cabinet is provided with the air distribution means , connected to compressed air, and connecting the measuring instruments to the proximal channel ends, and connecting distal channel ends of the relevant suspended instruments at the bottom of the drying space to the measuring instruments provided in the drying cabinet , and using the abovementioned measuring instruments to measure flow rate, temperature and/or moisture content of the incoming and/or outgoing air, and characterised in that the drying cabinet is arranged such that an air excess pressure can be maintained in the one or more drying spaces thereof to prevent infection, pathogens or dust from entering the instruments present in said spaces.
A filter media pack comprising: a winding core having opposed first and second sides extending generally parallel to a winding axis , the winding core defining opposed first and second faces defining a minor axis (D1) therebetween in a direction perpendicular to the winding axis, the first and second sides extending generally between the first and second faces and defining a major axis (D2) therebetween in a direction perpendicular to the winding axis; a continuous strip of fluted filter media wound about the winding core about the winding axis to form a plurality of layers of fluted filter media, the strip of filter media extending between opposed first and second edges and including a plurality of flutes formed by a first sheet operably secured to a corrugated sheet defining a plurality of peaks and valleys , the strip of fluted filter media having the corrugated sheet being adjacent the winding core and radially inward of the first sheet ; and characterized by a first support bead between the winding core and the strip of filter media, the first support bead extending generally perpendicular to the first and second edges of the strip of filter media and parallel to the winding axis, the first support bead being located proximate the first side of the winding core, the first support bead filling the cross-section of at least two valleys on opposite sides of a peak of the corrugated sheet proximate the first side of the winding core. a winding core having opposed first and second sides extending generally parallel to a winding axis , the winding core defining opposed first and second faces defining a minor axis (D1) therebetween in a direction perpendicular to the winding axis, the first and second sides extending generally between the first and second faces and defining a major axis (D2) therebetween in a direction perpendicular to the winding axis; a continuous strip of fluted filter media wound about the winding core about the winding axis to form a plurality of layers of fluted filter media, the strip of filter media extending between opposed first and second edges and including a plurality of flutes formed by a first sheet operably secured to a corrugated sheet defining a plurality of peaks and valleys , the strip of fluted filter media having the corrugated sheet being adjacent the winding core and radially inward of the first sheet ; and characterized by a first support bead between the winding core and the strip of filter media, the first support bead extending generally perpendicular to the first and second edges of the strip of filter media and parallel to the winding axis, the first support bead being located proximate the first side of the winding core, the first support bead filling the cross-section of at least two valleys on opposite sides of a peak of the corrugated sheet proximate the first side of the winding core.
One or more computer-readable media having instructions that, when executed, cause an evolved NodeB, eNB, to perform operations to transmit synchronization signals for time and frequency synchronization between the eNB and user equipments, UEs, for narrowband Internet of Things, NB-IoT, the operations comprising: concatenating a plurality of short Zadoff-Chu, ZC, sequences each having a different root index; generating an NB-IoT Primary Synchronization Signal, NB-PSS, using the concatenated ZC sequences, the ZC sequences being ordered to indicate an offset for use by a UE, wherein changing order of ZC sequences changes ordering of root indices to indicate different offsets; and transmitting the resulting NB-PSS by the eNB in a periodic manner to the UE, wherein, the offset is identified by the order of the ZC sequences. concatenating a plurality of short Zadoff-Chu, ZC, sequences each having a different root index; generating an NB-IoT Primary Synchronization Signal, NB-PSS, using the concatenated ZC sequences, the ZC sequences being ordered to indicate an offset for use by a UE, wherein changing order of ZC sequences changes ordering of root indices to indicate different offsets; and transmitting the resulting NB-PSS by the eNB in a periodic manner to the UE, wherein, the offset is identified by the order of the ZC sequences.
A process for isolating lactoferrin from a milk source, comprising: establishing an expanded bed adsorption column comprising a particulate matrix, subjecting a milk source to a diafiltration process, adding citrates to the milk source in a concentration ranging from 0.01% to 2.0% w/v of the milk source, applying the milk source to the matrix, and eluting lactoperoxidase with an elution buffer comprising 0.2 to 0.3 M solution of sodium chloride, and then eluting the lactoferrin from the matrix with an elution buffer comprising 0.3 to 2.0 M sodium chloride wherein elution of lactoferrin is performed at a temperature of 30 to 50 °C. establishing an expanded bed adsorption column comprising a particulate matrix, subjecting a milk source to a diafiltration process, adding citrates to the milk source in a concentration ranging from 0.01% to 2.0% w/v of the milk source, applying the milk source to the matrix, and eluting lactoperoxidase with an elution buffer comprising 0.2 to 0.3 M solution of sodium chloride, and then eluting the lactoferrin from the matrix with an elution buffer comprising 0.3 to 2.0 M sodium chloride wherein elution of lactoferrin is performed at a temperature of 30 to 50 °C.
An electrolyte layer formed from a gel-like electrolyte containing particles, a non-aqueous liquid electrolyte, and a resin material for retaining the liquid electrolyte, the electrolyte layer having a heat capacity per unit area of 0.0001 J/Kcm 2 or more and a heat capacity per unit volume of 3.0 J/Kcm 3 or less, wherein the shape of the particles is a shape having anisotropy and the ratio of the length of the longest part of the particle and the length of the shortest part of the particle in a direction perpendicular to the longest part is 3 times or more, wherein the particles contain at least one selected from alumina, boehmite, yttrium oxide, titanium oxide, magnesium oxide, zirconium oxide, silicon oxide, zinc oxide, aluminum nitride, boron nitride, silicon nitride, titanium nitride, silicon carbide, boron carbide, barium titanate, strontium titanate, barium sulfate, a silicic acid salt, Li 2 O 4 , Li 3 PO 4 , LiF, aluminum hydroxide, graphite, carbon nanotubes, and diamond, in particular a silicic acid salt selected from a nesosilicate mineral, a sorosilicate mineral, a cyclosilicate mineral, an inosilicate mineral, a phyllosilicate mineral, a tectosilicate mineral, an asbestos, sepiolite, and imogolite, wherein the non-aqueous liquid electrolyte includes an electrolyte salt and a non-aqueous solvent that dissolves the electrolyte salt, wherein the non-aqueous solvent includes a compound in which a part or all hydrogen atoms of a cyclic carbonic acid ester or a chain-like carbonic acid ester is fluorinated.
A method for identifying a cat at an elevated risk of developing a disease or condition resulting from low hydration, comprising: testing whether the cat expresses a single nucleotide polymorphism (SNP), wherein the disease or condition is selected from development of urinary stones, feline idiopathic cystitis, and FLUTD, and wherein testing whether the cat exhibits one or more SNPs comprises testing whether the cat exhibits one or more SNPs selected from chrB4.101464677, chrB4.101341304, and chrB4.101438741. testing whether the cat expresses a single nucleotide polymorphism (SNP), wherein the disease or condition is selected from development of urinary stones, feline idiopathic cystitis, and FLUTD, and wherein testing whether the cat exhibits one or more SNPs comprises testing whether the cat exhibits one or more SNPs selected from chrB4.101464677, chrB4.101341304, and chrB4.101438741.
A stator for a rotating electrical machine comprising: - a housing formed by a U-shaped panel constituting the outer casing of the housing , said panel having two lateral walls and being bordered on each end by an end plate ; - a lantern ring formed by a stack of magnetic plates maintained in a frame formed by flanges connected by bars ; said housing comprises intermediate plates secured to the panel , with semicircular shape, arranged parallel with end plates , forming a cradle positioning and supporting said lantern ring assembled by the upper part of the panel ; - said flanges comprising a lower part with a semicircular shape adapted so as to match the semicircular shape of said intermediate plates of said housing ; said stator being characterized in that said flanges comprising an upper part presenting two vertical parallel edges rigidly attached with the lateral walls of the panel of said housing by pins enabling the immobilization in rotation and translation of the lantern ring . - a housing formed by a U-shaped panel constituting the outer casing of the housing , said panel having two lateral walls and being bordered on each end by an end plate ; - a lantern ring formed by a stack of magnetic plates maintained in a frame formed by flanges connected by bars ; said housing comprises intermediate plates secured to the panel , with semicircular shape, arranged parallel with end plates , forming a cradle positioning and supporting said lantern ring assembled by the upper part of the panel ; - said flanges comprising a lower part with a semicircular shape adapted so as to match the semicircular shape of said intermediate plates of said housing ;
A successive cancellation list, SCL, decoding method of polar code encoded data, wherein received data corresponds to P groups of to-be-decoded bits, wherein each group of to-be-decoded bits includes m bits and where m>1, and the method comprises: obtaining (S401) L 1 first decoding paths of an (i-1) th group of to-be-decoded bits, wherein i is an integer, and P is an integer greater than 1, 1<i≤P; determining (S402) a quantity of second decoding path corresponding to each first decoding path, wherein in the L 1 first decoding paths, a quantity of second decoding paths corresponding to at least one first decoding path is different from a quantity of second decoding paths corresponding to another first decoding path, and wherein the quantity of second decoding paths corresponding to each first decoding path is less than 2 n , wherein n is a quantity of information bits comprised in an i th group of to-be-decoded bits; and determining (S403) at least one reserved decoding path of the i th group of to-be-decoded bits in second decoding paths corresponding to the L 1 first decoding paths, wherein the at least one reserved decoding path comprises a decoding result of the i th group of to-be-decoded bits characterised in that L 1 = 32, n ≤ 4, and in the 32 first decoding paths, a quantity of second decoding paths corresponding to each of four first decoding paths is 4, a quantity of second decoding paths corresponding to each of 20 first decoding paths is 2, and a quantity of second decoding paths corresponding to each of eight first decoding paths is 1. obtaining (S401) L 1 first decoding paths of an (i-1) th group of to-be-decoded bits, wherein i is an integer, and P is an integer greater than 1, 1<i≤P; determining (S402) a quantity of second decoding path corresponding to each first decoding path, wherein in the L 1 first decoding paths, a quantity of second decoding paths corresponding to at least one first decoding path is different from a quantity of second decoding paths corresponding to another first decoding path, and wherein the quantity of second decoding paths corresponding to each first decoding path is less than 2 n , wherein n is a quantity of information bits comprised in an i th group of to-be-decoded bits; and determining (S403) at least one reserved decoding path of the i th group of to-be-decoded bits in second decoding paths corresponding to the L 1 first decoding paths, wherein the at least one reserved decoding path comprises a decoding result of the i th group of to-be-decoded bits characterised in that L 1 = 32, n ≤ 4, and in the 32 first decoding paths, a quantity of second decoding paths corresponding to each of four first decoding paths is 4, a quantity of second decoding paths corresponding to each of 20 first decoding paths is 2, and a quantity of second decoding paths corresponding to each of eight first decoding paths is 1.
A cooking appliance for heating food, the cooking appliance comprising a remote control for controlling the cooking appliance remotely; characterized in that : a distance control is provided for detecting the distance between a user and the cooking appliance, wherein the distance control is a wireless distance control including a capacitive sensor, which is comprised in the cooking appliance and which is used to derive the user's distance to the cooking appliance based on a determined capacity that depends on the user's distance, and wherein the distance control is configured to limit or turn off the function of remote control, so as to avoid a critical situation of using the remote control without the user being close enough to the cooking appliance for an attended cooking.
An equipment for attaching an optical fiber to a reel, the equipment comprises; a tape supply station configured to cut and supply pieces of tape, an attachment device comprising a frame with a collector for collecting a piece of tape from the tape supply station for attaching the optical fiber to the reel, a cutter for cutting the optical fiber , and an actuator (5-1) for moving the attachment device and for pressing the collector , having said piece of tape, against the optical fiber and the reel in order to attach said optical fiber to said reel, characterized in that said cutter is a blade, arranged alongside a spring-biased frame of said attachment device , in order to protrude out past the collector , when the spring-biased frame is compressed, to attach the optical fiber to the reel and cut the optical fiber with a single motion when the collector of the attachment device is pressed against the optical fiber and the reel. a tape supply station configured to cut and supply pieces of tape, an attachment device comprising a frame with a collector for collecting a piece of tape from the tape supply station for attaching the optical fiber to the reel, a cutter for cutting the optical fiber , and an actuator (5-1) for moving the attachment device and for pressing the collector , having said piece of tape, against the optical fiber and the reel in order to attach said optical fiber to said reel, characterized in that said cutter is a blade, arranged alongside a spring-biased frame of said attachment device , in order to protrude out past the collector , when the spring-biased frame is compressed, to attach the optical fiber to the reel and cut the optical fiber with a single motion when the collector of the attachment device is pressed against the optical fiber and the reel.
A foamed polypropylene composition comprising (A) from 60.0 to 95.0 wt% of a linear propylene homopolymer and (B) from 5.0 to 40.0 wt% of a low density polyethylene, based on the total weight of the polypropylene composition, wherein the polypropylene composition before foaming has a melt flow rate MFR 2 of from 0.1 to 5.0 g/10 min, determined according to ISO 1133 at a load of 2.16 kg and a temperature of 230°C, and a F 30 melt strength of from 0.1 to 2.0 cN, determined according to ISO 16790:2005. (A) from 60.0 to 95.0 wt% of a linear propylene homopolymer and (B) from 5.0 to 40.0 wt% of a low density polyethylene,
An electronic cigarette with an improved atomizer, comprising: an atomizing core ; wherein the atomizing core comprises a liquid storage assembly and a heating assembly ; the liquid storage assembly comprises a liquid storage chip , a PCB , and a liquid storage chip support ; the liquid storage chip support is provided with a PCB receiving groove configured to receive the PCB ; the liquid storage chip is fixed on the PCB ; the heating assembly comprises a heating element and a heating element support ; a pin is arranged on the heating element ; the heating element support is provided with a heating element receiving groove and a second air guide hole , wherein the heating element receiving groove is configured to receive the heating element; a pin hole is arranged on a wall of the heating element receiving groove ; the pin passes through the pin hole , so that the heating element is movably connected to the heating element support ; the liquid storage chip is arranged corresponding to the heating element .