mhurhangee/ep-ind-claims huggingface dataset:
A device for a growth plate stimulation-type portable growth promotion apparatus, the device comprising: a two-phase ultrasonic vibration generator which is ring-shaped and has a center hole; a LED device provided in the center hole of the two-phase ultrasonic vibration generator; and wherein the two-phase ultrasonic vibration generator comprises: a ring-shaped vibration stator having a center hole; a first electrode layer provided under the vibration stator; a second electrode layer provided under the first electrode layer; and a piezoelectric ceramic group layer provided between the first electrode layer and the second electrode layer, corresponding to the ring shape of the vibration stator, and including a first piezoelectric ceramic group for generating an A phase and a second piezoelectric ceramic group for generating a B phase. a two-phase ultrasonic vibration generator which is ring-shaped and has a center hole; a LED device provided in the center hole of the two-phase ultrasonic vibration generator; and wherein the two-phase ultrasonic vibration generator comprises: a ring-shaped vibration stator having a center hole; a first electrode layer provided under the vibration stator; a second electrode layer provided under the first electrode layer; and a ring-shaped vibration stator having a center hole; a first electrode layer provided under the vibration stator; a second electrode layer provided under the first electrode layer; and
Heat conducting plate (14, 14' 14a, 14b, 14a') for fixing a pipe section to a holding surface (11, 17) of a heat exchanger, wherein the heat conducting plate (14, 14') has perforations (21, 21'), in particular for acoustic reasons, wherein the perforations, with the formation of fingers of the heat conducting plate (14a, 14a', 14b), are designed as outwardly open edge recesses, characterised in that raised intermediate fingers of the heat-conducting plate (14a, 14a', 14b) are arranged above the recesses.
Method for calibrating a digital circuit comprising: - a plurality of sequential elements (301, 302); - data conducting paths between the sequential elements; - a clock tree delivering a clock signal for clocking the sequential elements; and - a time fault sensor of preventive type coupled to one of the sequential elements, receiving as input a data signal arriving at the sequential element and configured to detect during a detection window a transition of the data signal; - means for setting at least one first and one second operating parameter of the digital circuit; the method is characterised by the following steps: a) activating a data conducting path up to the sequential element coupled to the sensor; b) determining, for a given value of the first parameter (V1, F1), a first value (F d1, V d1) of the second parameter from which the sensor detects a transition of the data signal during the detection window, said values of the first (V1, F1) and second (F d1, V d1) parameters defining a detection operating point of the digital circuit; c) determining, for said value of the first parameter (V1, F1), a second value (F M) of the second parameter above which the digital circuit is in malfunction; d) calculating, for the detection operating point, a correction margin (ΔF c1) equal to the difference between the first (F d1) and second values (F M) of the second parameter. - a plurality of sequential elements (301, 302); - data conducting paths between the sequential elements; - a clock tree delivering a clock signal for clocking the sequential elements; and - a time fault sensor of preventive type coupled to one of the sequential elements, receiving as input a data signal arriving at the sequential element and configured to detect during a detection window a transition of the data signal; - means for setting at least one first and one second operating parameter of the digital circuit; a) activating a data conducting path up to the sequential element coupled to the sensor; b) determining, for a given value of the first parameter (V1, F1), a first value (F d1, V d1) of the second parameter from which the sensor detects a transition of the data signal during the detection window, said values of the first (V1, F1) and second (F d1, V d1) parameters defining a detection operating point of the digital circuit; c) determining, for said value of the first parameter (V1, F1), a second value (F M) of the second parameter above which the digital circuit is in malfunction; d) calculating, for the detection operating point, a correction margin (ΔF c1) equal to the difference between the first (F d1) and second values (F M) of the second parameter.
Device for propelling a passenger, said device comprising a body including: - a platform including several surfaces (11a, 11 b) arranged to receive the feet or footwear of said passenger; and - a thrust unit comprising at least one thrust sub-unit (12a, 12b) each comprising at least one turbojet (12a1, 12a2, 12a3, 12a4, 12a5, 12a6, 12b1, 12b2); - the gaseous flow ejection direction of each of said at least one turbojet (12a1, 12a2, 12a3, 12a4, 12a5, 12a6, 12b1, 12b2) being orientable and, in nominal operation, oriented along an axis (AL12a, AL12b) substantially normal to the platform; - said body of the device including support means of the thrust unit cooperating with the platform and being arranged to support said thrust unit and minimize the distance between an axis projected in a median plane of the platform and passing through the centre of gravity of the body of the propulsion device and said gaseous flow ejection direction (AL12a, AL12b) of each of said at least one turbojet (12a1, 12a2, 12a3, 12a4, 12a5, 12a6, 12b1, 12b2); - the surfaces (11a, 11b) for receiving the feet or footwear of said passenger being positioned on either side of said thrust unit. - a platform including several surfaces (11a, 11 b) arranged to receive the feet or footwear of said passenger; and - a thrust unit comprising at least one thrust sub-unit (12a, 12b) each comprising at least one turbojet (12a1, 12a2, 12a3, 12a4, 12a5, 12a6, 12b1, 12b2); - the gaseous flow ejection direction of each of said at least one turbojet (12a1, 12a2, 12a3, 12a4, 12a5, 12a6, 12b1, 12b2) being orientable and, in nominal operation, oriented along an axis (AL12a, AL12b) substantially normal to the platform; - said body of the device including support means of the thrust unit cooperating with the platform and being arranged to support said thrust unit and minimize the distance between an axis projected in a median plane of the platform and passing through the centre of gravity of the body of the propulsion device and said gaseous flow ejection direction (AL12a, AL12b) of each of said at least one turbojet (12a1, 12a2, 12a3, 12a4, 12a5, 12a6, 12b1, 12b2); - the surfaces (11a, 11b) for receiving the feet or footwear of said passenger being positioned on either side of said thrust unit.
A cap for a hydrocarbon production well, said cap having a body with a top and a bottom, the bottom having a first connecting flange with a first seal face prepared for sealing against a packing seal, the first connecting flange configured to connect to an end flange (201, 301) of a wellhead component (200,300), the top having a second connecting flange with a second seal face prepared for sealing against a packing seal, said cap further comprising a recess extending from said first connecting flange into said body, characterised by further comprising a channel extending between an outside of the cap and the recess, wherein a sensor device (400,401,402) is arranged in fluid communication with the channel.
A method for performing ciphering in a wireless communications system comprising: performing a first ciphering procedure for a first Non-Access Stratum message to get a second Non-Access Stratum message; generating a Radio Resource Control message, which is not ciphered, in a Radio Resource Control layer; combining the second Non-Access Stratum message with the Radio Resource Control message to form a first concatenated message; characterized by performing a second ciphering procedure for both the NAS message and the RRC message within the first concatenated message to get a second concatenated message; and transmitting the second concatenated message. performing a first ciphering procedure for a first Non-Access Stratum message to get a second Non-Access Stratum message; generating a Radio Resource Control message, which is not ciphered, in a Radio Resource Control layer; combining the second Non-Access Stratum message with the Radio Resource Control message to form a first concatenated message; characterized by performing a second ciphering procedure for both the NAS message and the RRC message within the first concatenated message to get a second concatenated message; and transmitting the second concatenated message.
A process for producing a hydroxide slurry from caustic calcined carbonate powder or caustic calcined hydroxide powder, comprising the following steps: a) mixing the powder with water in a reactor vessel and forming a reaction mixture, wherein the reactor vessel includes a controller adapted to electronically control the process therein and a steam outlet capable to release steam therefrom; b) applying a shearing force to the reaction mixture using a mixing apparatus; c) adding a viscosity modifier to the reaction mixture; d) controlled by the controller, allowing heat of hydration to raise the temperature of the reaction mixture to between 85 and 95°C, and e) controlled by the controller, allowing steam to evaporate from the reaction mixture as hydration proceeds and to release from the reactor vessel via the steam outlet to remove excess heat and control the reaction temperature at between 85 and 95°C; wherein the hydroxide slurry has a final solids content in the range of 55-65%, and the hydroxide slurry including the viscosity modifier formed by steps (a)-(e) has a pH of 9.5. a) mixing the powder with water in a reactor vessel and forming a reaction mixture, wherein the reactor vessel includes a controller adapted to electronically control the process therein and a steam outlet capable to release steam therefrom; b) applying a shearing force to the reaction mixture using a mixing apparatus; c) adding a viscosity modifier to the reaction mixture; d) controlled by the controller, allowing heat of hydration to raise the temperature of the reaction mixture to between 85 and 95°C, and e) controlled by the controller, allowing steam to evaporate from the reaction mixture as hydration proceeds and to release from the reactor vessel via the steam outlet to remove excess heat and control the reaction temperature at between 85 and 95°C;
A dielectric header sub-assembly comprising: a header body (102; 202) including opposed first (108; 208) and second (110; 210) surfaces defining a header axis extending therebetween, and a side wall (112; 212) extending from the first surface to the second surface, wherein the second surface includes a tapered portion (114; 214); and characterized by further comprising a die mounted to the first surface of the header body. a header body (102; 202) including opposed first (108; 208) and second (110; 210) surfaces defining a header axis extending therebetween, and a side wall (112; 212) extending from the first surface to the second surface, wherein the second surface includes a tapered portion (114; 214); and characterized by further comprising a die mounted to the first surface of the header body.
A method for wireless communication performed by a user equipment, UE, comprising: receiving, from a source cell, a range of values for at least one criterion for UE autonomous cell selection; identifying resources on which to transmit, to a target cell and the source cell, an indication of the target cell from a set of candidate cells configured for autonomous cell selection; measuring a signal for one or more of the candidate cells; determining, by the UE, that the at least one criterion is within the range of values based at least in part on measuring the signal for the one or more candidate cells; selecting the target cell from the one or more candidate cells or avoiding selection of the target cell after determining that the at least one criterion is within the range of values; transmitting, to the source cell and to the target cell on the identified resources, the indication of the target cell; monitoring a first control channel for control information from the source cell during a first subset of a set of transmission time intervals, TTIs, after transmitting the indication of the target cell; and monitoring a second control channel for control information from the target cell during a second subset of the set of TTIs after transmitting the indication. receiving, from a source cell, a range of values for at least one criterion for UE autonomous cell selection; identifying resources on which to transmit, to a target cell and the source cell, an indication of the target cell from a set of candidate cells configured for autonomous cell selection; measuring a signal for one or more of the candidate cells; determining, by the UE, that the at least one criterion is within the range of values based at least in part on measuring the signal for the one or more candidate cells; selecting the target cell from the one or more candidate cells or avoiding selection of the target cell after determining that the at least one criterion is within the range of values; transmitting, to the source cell and to the target cell on the identified resources, the indication of the target cell; monitoring a first control channel for control information from the source cell during a first subset of a set of transmission time intervals, TTIs, after transmitting the indication of the target cell; and monitoring a second control channel for control information from the target cell during a second subset of the set of TTIs after transmitting the indication.
A binder composition for mold formation, comprising: one or more 5-position substituted furfural compounds selected from the group consisting of 5-hydroxymethylfurfural and 5-acetoxymethylfurfural; and a furfurylated urea resin, wherein the furfurylated urea resin is a condensed product made from furfuryl alcohol, urea and formaldehyde, the content of the furfurylated urea resin is from 1 to 20% by weight, the ratio by mole of formaldehyde and urea to each mole of furfuryl alcohol in the furfurylated urea resin is from 0.5 to 8 moles, and the ratio by weight of the 5-position substituted furfural compound(s) to the furfurylated urea resin [5-position substituted furfural compound(s) / furfurylated urea resin (ratio by weight)] is from 0.5 or more and 5.0 or less. the furfurylated urea resin is a condensed product made from furfuryl alcohol, urea and formaldehyde, the content of the furfurylated urea resin is from 1 to 20% by weight, the ratio by mole of formaldehyde and urea to each mole of furfuryl alcohol in the furfurylated urea resin is from 0.5 to 8 moles, and
A tobacco feeding device, comprising a glass tube, a silicone ring, an assistant push rod, a push rod, and a piston; wherein: the piston is movable along an inner wall of the glass tube; the push rod comprises an air passage; the glass tube comprises a feeding inlet; a gap exists between the feeding inlet and the piston;; the piston is fixedly connected to one end of the push rod the assistant push rod sleeves the push rod; the piston is movable along the inner wall of the glass tube towards the feeding inlet under the action of the assistant push rod; the silicone ring is disposed between the assistant push rod and the push rod; characterized in that: the tobacco feeding device further comprises a cylinder and a press button, the assistant push rod is disposed in the cylinder; the cylinder comprises a slideway; the press button is disposed in the slideway and contacts a top end of the assistant push rod; and the movement of the press button in the slideway drives the assistant push rod to move. the piston is movable along an inner wall of the glass tube; the push rod comprises an air passage; the glass tube comprises a feeding inlet; a gap exists between the feeding inlet and the piston;; the piston is fixedly connected to one end of the push rod the assistant push rod sleeves the push rod; the piston is movable along the inner wall of the glass tube towards the feeding inlet under the action of the assistant push rod; the silicone ring is disposed between the assistant push rod and the push rod; the tobacco feeding device further comprises a cylinder and a press button, the assistant push rod is disposed in the cylinder; the cylinder comprises a slideway; the press button is disposed in the slideway and contacts a top end of the assistant push rod; and the movement of the press button in the slideway drives the assistant push rod to move.
A fabric comprising an arrangement of yarns disposed in a weaving pattern forming a face of the fabric and a reverse side of the fabric, said arrangement of yarns comprising one or several warp yarn(s) and one or several weft yarn(s), characterized in that at least one of said warp yarns and of said weft yarns is an aromatic polyester yarn (1; 3; 5, 6; 9, 10; 13,14), the other yarns (2; 4; 7, 8; 11, 12; 15) being made of a material other than the aromatic polyester, said aromatic polyester yarn being bonded to the other yarns within the weaving pattern such that this aromatic polyester yarn (1; 3; 5, 6; 9, 10; 13, 14) does not appear on the face of the fabric.
A secondary battery, comprising: a positive electrode; a negative electrode comprising alkali metal; a separator comprising a layer of any one of tetrafluoroethylene polymer or copolymer, perfluoro alkoxy alkane, and ethylene/chlorotrifluoroethylene copolymer (ECTFE), or a mixture thereof, that reacts with a dendrite of the alkali metal, the separator being hydrophilized at a rate of not less than 10% and not more than 80%, the rate of hydrophilization being the coverage of the separator surface by a hydrophilizing treatment material; and a layer that does not react with a dendrite of the alkali metal located between the separator and the negative electrode, wherein the layer that does not react with a dendrite of the alkali metal comprises any one of glass comprising SiO X (0 < x ≤ 2), polyvinylidene fluoride (PVDF), polyimide, polyethylene, or polypropylene or a mixture thereof, or wherein the layer that does not react with a dendrite of the alkali metal comprises any one of inorganic oxides selected from the group consisting of alumina, titanium oxide, sodium oxide, calcium oxide, boron oxide, potassium oxide, and lead oxide or a mixture thereof and a binder. a positive electrode; a negative electrode comprising alkali metal; a separator comprising a layer of any one of tetrafluoroethylene polymer or copolymer, perfluoro alkoxy alkane, and ethylene/chlorotrifluoroethylene copolymer (ECTFE), or a mixture thereof, that reacts with a dendrite of the alkali metal, the separator being hydrophilized at a rate of not less than 10% and not more than 80%, the rate of hydrophilization being the coverage of the separator surface by a hydrophilizing treatment material; and a layer that does not react with a dendrite of the alkali metal located between the separator and the negative electrode, wherein the layer that does not react with a dendrite of the alkali metal comprises any one of glass comprising SiO X (0 < x ≤ 2), polyvinylidene fluoride (PVDF), polyimide, polyethylene, or polypropylene or a mixture thereof, or wherein the layer that does not react with a dendrite of the alkali metal comprises any one of inorganic oxides selected from the group consisting of alumina, titanium oxide, sodium oxide, calcium oxide, boron oxide, potassium oxide, and lead oxide or a mixture thereof and a binder.
A method of integrating evaluation of cellular activity of a cell and molecular profiles of said cell, said method comprising: (a) performing time-lapse imaging microscopy on the cell to generate a plurality of temporal images, wherein the temporal images are analyzed by a method comprising cell tracking on the single cell, cell segmentation on the single cell, cellular classification, or combinations thereof; (b) characterizing a molecular profile of the single cell; and (c) integrating data from the analyzed temporal images and the molecular profile data of the single cell. (a) performing time-lapse imaging microscopy on the cell to generate a plurality of temporal images, wherein the temporal images are analyzed by a method comprising cell tracking on the single cell, cell segmentation on the single cell, cellular classification, or combinations thereof; (b) characterizing a molecular profile of the single cell; and (c) integrating data from the analyzed temporal images and the molecular profile data of the single cell.
A detecting device, comprising: an obtaining unit configured to obtain a network log and a host log of a device; a first converting unit configured to convert the network log into a first feature value in a form which is inputtable to a multimodal generative model, the multimodal generative model being a generative model which generates output data on the basis of multiple latent variables represented by random variables; a second converting unit configured to convert the host log into a second feature value in a form which is inputtable to the generative model; a calculating unit configured to input at least one of the first and second feature values to the generative model and calculate the output data by executing the model; a detecting unit configured to detect an abnormality about the device using an anomaly score calculated on the basis of the output data. an obtaining unit configured to obtain a network log and a host log of a device; a first converting unit configured to convert the network log into a first feature value in a form which is inputtable to a multimodal generative model, the multimodal generative model being a generative model which generates output data on the basis of multiple latent variables represented by random variables; a second converting unit configured to convert the host log into a second feature value in a form which is inputtable to the generative model; a calculating unit configured to input at least one of the first and second feature values to the generative model and calculate the output data by executing the model; a detecting unit configured to detect an abnormality about the device using an anomaly score calculated on the basis of the output data.
Automatic washing device for continuous surfaces, such as solar thermal collectors, photovoltaic, comprising at least one cleaning machine, at least one motor and one support for said at least one cleaning machine, said at least one cleaning machine comprising a translation device that includes a torque shaft driven into rotation by said motor and connecting at least a first and a second translation unit arranged on said at least one cleaning machine at the respective ends of said torque shaft, wherein the linear translation movement of said at least one cleaning machine along a surface to be treated is provided by the synchronous rotation movement transmitted by said torque shaft to said at least first and second translation unit, [...] characterized in that said at least first and second translation unit are adapted to act against the opposing edges of said surface during the translation of said at least one cleaning machine, [ the synchronous rotation of said at least first and second translation unit maintaining the parallelism of said at least one cleaning machine with respect to said surface,]