mhurhangee/ep-ind-claims huggingface dataset:
A nonaqueous electrolytic secondary battery, comprising: a positive electrode case; a negative electrode case, which is fixed to the positive electrode case and forms a storage space with the positive electrode case in between the negative electrode case and the positive electrode case; a positive electrode portion, which is provided on the positive electrode case in the storage space and contains a lithium compound as positive electrode active material; a negative electrode portion, which is provided on the negative electrode case in the storage space and contains SiO x (0 ≤ x < 2) as negative electrode active material; and a nonaqueous electrolyte stored inside the storage space, the negative electrode case including: a base layer; and a nickel layer, which is disposed opposite the storage space with respect to the base layer and has a higher thermal conductivity than the base layer, and a thickness of 2.6 μm or more. a positive electrode case; a negative electrode case, which is fixed to the positive electrode case and forms a storage space with the positive electrode case in between the negative electrode case and the positive electrode case; a positive electrode portion, which is provided on the positive electrode case in the storage space and contains a lithium compound as positive electrode active material; a negative electrode portion, which is provided on the negative electrode case in the storage space and contains SiO x (0 ≤ x < 2) as negative electrode active material; and a nonaqueous electrolyte stored inside the storage space, the negative electrode case including: a base layer; and a nickel layer, which is disposed opposite the storage space with respect to the base layer and has a higher thermal conductivity than the base layer, and a thickness of 2.6 μm or more. a base layer; and a nickel layer, which is disposed opposite the storage space with respect to the base layer and has a higher thermal conductivity than the base layer, and a thickness of 2.6 μm or more.
A system (200, 600) for evaluating a dialyzer (22, 204, 650), the system (200, 500) comprising: an in vitro blood source; a first portion of tubing, configured to connect the blood source to an input of the dialyzer (22, 204, 650); a second portion of tubing, configured to connect to an output of the dialyzer (22, 204, 650); a pump (20, 202, 630), configured to pump blood from the blood source through the first portion of tubing into the dialyzer (22, 204, 650), and out of the dialyzer (22, 204, 650) into the second portion of tubing; a first blood chamber or port, disposed along the first portion of tubing, and a second blood chamber or port, disposed along the second portion of tubing, wherein the first blood chamber or port and the second blood chamber or port are configured to facilitate hematocrit measurement, and a controller (35, 214, 216, 218) configured to determine a red blood cell volume loss corresponding to the dialyzer (22, 204, 650) using hematocrit associated with the input of the dialyzer (22, 204, 650), hematocrit associated with the output of the dialyzer (22, 204, 650), a flowrate of blood through the first portion of tubing, and a flowrate of blood through the second portion of tubing. an in vitro blood source; a first portion of tubing, configured to connect the blood source to an input of the dialyzer (22, 204, 650); a second portion of tubing, configured to connect to an output of the dialyzer (22, 204, 650); a pump (20, 202, 630), configured to pump blood from the blood source through the first portion of tubing into the dialyzer (22, 204, 650), and out of the dialyzer (22, 204, 650) into the second portion of tubing; a first blood chamber or port, disposed along the first portion of tubing, and a second blood chamber or port, disposed along the second portion of tubing, wherein the first blood chamber or port and the second blood chamber or port are configured to facilitate hematocrit measurement, and a controller (35, 214, 216, 218) configured to determine a red blood cell volume loss corresponding to the dialyzer (22, 204, 650) using hematocrit associated with the input of the dialyzer (22, 204, 650), hematocrit associated with the output of the dialyzer (22, 204, 650), a flowrate of blood through the first portion of tubing, and a flowrate of blood through the second portion of tubing.
An electronic module (2; 102; 202; 302; 402) comprising: an ambient light sensor comprising an ambient light photodetector; and a proximity sensor comprising an infrared photoemitter configured to emit infrared photons toward an object, a reference infrared photodetector configured to receive infrared photons directly emitted by the infrared photoemitter and another infrared photodetector configured to receive infrared photons emitted by the infrared photoemitter and reflected by the object; wherein the ambient light sensor is arranged over the proximity sensor to allow infrared photons transmitted by the infrared photoemitter to be received by the reference infrared photodetector. an ambient light sensor comprising an ambient light photodetector; and a proximity sensor comprising an infrared photoemitter configured to emit infrared photons toward an object, a reference infrared photodetector configured to receive infrared photons directly emitted by the infrared photoemitter and another infrared photodetector configured to receive infrared photons emitted by the infrared photoemitter and reflected by the object; wherein the ambient light sensor is arranged over the proximity sensor to allow infrared photons transmitted by the infrared photoemitter to be received by the reference infrared photodetector.
A machine for preparing and dispensing espresso coffee comprising: - a water supply; - a boiler to heat the water; - a pump; - a dispensing group configured to cooperate with a portafilter equipped with a filter basket with a puck of coffee powder, the machine being configured to supply pressurized water to said coffee powder puck for dispensing an espresso coffee, and - a water monitoring system for monitoring at least one parameter of the water used for preparing the espresso coffee, wherein said monitoring system comprises a conductivity and temperature probe which provides values, continuously and in real time, of water hardness derived from information on the electrical conductivity and temperature of the water, characterized in that said machine further comprises a corrector configured to correct at least one of the detected parameters which does not fall within a given range, wherein said corrector comprises a remineralizer cartridge. - a water supply; - a boiler to heat the water; - a pump; - a dispensing group configured to cooperate with a portafilter equipped with a filter basket with a puck of coffee powder, the machine being configured to supply pressurized water to said coffee powder puck for dispensing an espresso coffee, and - a water monitoring system for monitoring at least one parameter of the water used for preparing the espresso coffee, wherein said monitoring system comprises a conductivity and temperature probe which provides values, continuously and in real time, of water hardness derived from information on the electrical conductivity and temperature of the water,
A mobile node (11; 21; 31), comprising: selection means for selecting, from base nodes, a base node (12; 22; 32) for relaying a packet(s) between the mobile node (11; 21; 31) itself and a correspondent node (13; 23; 33); and rule change means for generating a path control rule(s) for forwarding the packet(s) between the mobile node itself and the correspondent node via the selected base node, wherein the rule change means is adapted to set the path control rule(s) in the mobile node itself and the selected base node. selection means for selecting, from base nodes, a base node (12; 22; 32) for relaying a packet(s) between the mobile node (11; 21; 31) itself and a correspondent node (13; 23; 33); and rule change means for generating a path control rule(s) for forwarding the packet(s) between the mobile node itself and the correspondent node via the selected base node, wherein the rule change means is adapted to set the path control rule(s) in the mobile node itself and the selected base node.
Method for actuating a quantity control valve of a high-pressure pump which delivers compressed fuel to a fuel rail and a pressure in the fuel rail is detected by a pressure sensor, wherein the quantity control valve has an electromagnetic operating device and the quantity control valve, with energizing actuation with a first actuation value for the holding current, assumes a closed state and actuation with a second actuation value enables the quantity control valve to assume an open state, wherein a borderline holding current of the quantity control valve, at which the quantity control valve remains in its closed state, is determined by an adaptation method, characterized in that this borderline holding current is determined in that, in a step, an actuation value for the holding current, at which the quantity control valve opens, is set when the pressure has dropped, and the energization of the quantity control valve is extended beyond the bottom dead centre of the high-pressure pump, there being no increase in pressure in the fuel rail, and the holding current is gradually incremented from delivery to delivery, and the energization is extended beyond the bottom dead centre of the high-pressure pump with each delivery, wherein, when the quantity control valve remains closed during a delivery stroke which starts after the bottom dead centre of the high-pressure pump and there is an increase in pressure, a current value before the last increment is used as the borderline holding current, the borderline holding current being determined on the basis of the actuation signal with which the increase in pressure takes place.
A wireless response system, comprising: a base station and a plurality of response units, said response units wirelessly communicating with said base station in order to retrieve user responses received by said response units; each of said response units having a user input device that is adapted to receiving user input selections, a controller that is responsive to said user input device to process user inputs and to communicate responses wirelessly (34, 36) to said base station and a power supply that is adapted to supply power to operate said controller; characterized in that: said power supply comprises a super capacitor and a wireless-charging circuit that is adapted to charge said super capacitor, wherein said wireless-charging circuit is adapted to supply a current to charge said super capacitor; and a power impulse circuit adapted to apply an output voltage to said controller upon operation of said user input device. a base station and a plurality of response units, said response units wirelessly communicating with said base station in order to retrieve user responses received by said response units; each of said response units having a user input device that is adapted to receiving user input selections, a controller that is responsive to said user input device to process user inputs and to communicate responses wirelessly (34, 36) to said base station and a power supply that is adapted to supply power to operate said controller; characterized in that: said power supply comprises a super capacitor and a wireless-charging circuit that is adapted to charge said super capacitor, wherein said wireless-charging circuit is adapted to supply a current to charge said super capacitor; and a power impulse circuit adapted to apply an output voltage to said controller upon operation of said user input device. said power supply comprises a super capacitor and a wireless-charging circuit that is adapted to charge said super capacitor, wherein said wireless-charging circuit is adapted to supply a current to charge said super capacitor; and a power impulse circuit adapted to apply an output voltage to said controller upon operation of said user input device.
An oil-gel-form external preparation for skin, comprising: 1) a compound represented by the following General Formula: wherein in the formula, R 1 represents a C 1 -C 4 linear or branched alkyl group substituted by a carboxyl group(s), or a C 1 -C 4 linear or branched alkyl group substituted by a carboxylic acid ester group(s) having a C 1 -C 4 alkyl chain; and R 2 and R 3 each independently represent a C 1 -C 4 linear or branched alkyl group, and/or a pharmaceutically acceptable salt thereof; 2) a partially cross-linked methyl polysiloxane; and 3) a spherical powder; wherein the compound represented by the General Formula and/or a pharmaceutically acceptable salt thereof is contained at 0.01 to 10 % by mass with respect to the total amount of the external preparation for skin, wherein the partially cross-linked methyl polysiloxane is contained at 5 to 25% by mass with respect to the total amount of the external preparation for skin, and wherein an average particle size of the spherical powder is 5 to 20 μm. 1) a compound represented by the following General Formula: wherein in the formula, R 1 represents a C 1 -C 4 linear or branched alkyl group substituted by a carboxyl group(s), or a C 1 -C 4 linear or branched alkyl group substituted by a carboxylic acid ester group(s) having a C 1 -C 4 alkyl chain; and R 2 and R 3 each independently represent a C 1 -C 4 linear or branched alkyl group, and/or a pharmaceutically acceptable salt thereof; wherein in the formula, R 1 represents a C 1 -C 4 linear or branched alkyl group substituted by a carboxyl group(s), or a C 1 -C 4 linear or branched alkyl group substituted by a carboxylic acid ester group(s) having a C 1 -C 4 alkyl chain; and R 2 and R 3 each independently represent a C 1 -C 4 linear or branched alkyl group, and/or a pharmaceutically acceptable salt thereof; 2) a partially cross-linked methyl polysiloxane; and 3) a spherical powder; wherein the compound represented by the General Formula and/or a pharmaceutically acceptable salt thereof is contained at 0.01 to 10 % by mass with respect to the total amount of the external preparation for skin, wherein the partially cross-linked methyl polysiloxane is contained at 5 to 25% by mass with respect to the total amount of the external preparation for skin, and wherein an average particle size of the spherical powder is 5 to 20 μm. wherein the compound represented by the General Formula and/or a pharmaceutically acceptable salt thereof is contained at 0.01 to 10 % by mass with respect to the total amount of the external preparation for skin, wherein the partially cross-linked methyl polysiloxane is contained at 5 to 25% by mass with respect to the total amount of the external preparation for skin, and wherein an average particle size of the spherical powder is 5 to 20 μm.
Assembly comprising a plastics substrate or a carbon substrate and a coating material, there being disposed between the plastics substrate and the coating material an amino acid-containing interlayer, characterized in that the amino acid-containing interlayer possesses a thickness of 1-10 nm and in that the interlayer comprises copper.
Frame (1, 1') for receiving annular components, in particular bearing rings or cages of anti-friction bearings or plain bearings, and for the chemical or galvanic coating of the components in an electrolyte bath, comprising: - a carrier frame which has at least one first drive unit, at least one second drive unit and at least one horizontally arranged first transverse strut, - at least one drive motor for driving the at least one first drive unit, the at least one first drive unit being connected to the at least one second drive unit and so as to drive the latter; and - at least two horizontally arranged drive journals (8a, 8b) with in each case one longitudinal axis, the drive journals (8a, 8b) being set up to receive one of the annular components, it being possible for the drive journals (8a, 8b) to be rotated in each case about their longitudinal axis, and the drive journals (8a, 8b) being arranged on the at least one first transverse strut, characterized in that the at least two drive journals (8a, 8b) are connected to the at least one second drive unit for rotationally driving the drive journals (8a, 8b) about their longitudinal axes. - a carrier frame which has at least one first drive unit, at least one second drive unit and at least one horizontally arranged first transverse strut, - at least one drive motor for driving the at least one first drive unit, the at least one first drive unit being connected to the at least one second drive unit and so as to drive the latter; and - at least two horizontally arranged drive journals (8a, 8b) with in each case one longitudinal axis, the drive journals (8a, 8b) being set up to receive one of the annular components, it being possible for the drive journals (8a, 8b) to be rotated in each case about their longitudinal axis, and
Coated sodium percarbonate particles containing: a) A sodium percarbonate core, and b) A coating representing between 5 and 20 % in weight of the coated sodium percarbonate particles, the coating comprising at least one coating layer comprising at least 20 % in weight sodium carbonate, at least 75 % in weight of the sodium carbonate being in the monohydrate form, wherein the total sodium carbonate monohydrate of the particle is less than 20 % in weight of the coated particle. a) A sodium percarbonate core, and b) A coating representing between 5 and 20 % in weight of the coated sodium percarbonate particles, the coating comprising at least one coating layer comprising at least 20 % in weight sodium carbonate, at least 75 % in weight of the sodium carbonate being in the monohydrate form, wherein the total sodium carbonate monohydrate of the particle is less than 20 % in weight of the coated particle.
A single-dose capsule for galvanizing baths characterised in that it comprises: a closed container that is made of low-melting metal material and has an overall volume of less than 2,5 dm 3; and a given quantity of galvanizing-bath additive contained within said closed container.
Method for predicting the sugar content in a full-grown sugar beet comprising the steps of: (i) determining the level of each one of at least two metabolites selected from the group consisting of Var878, Var62, Var37, and Var19 in a sample obtained from a sugar beet seedling, wherein Var878 is 2-oxo-glutaric acid, has an accurate mass of 146.0218 Da ± 3 ppm, and a retention time of 0.399 min ± 0.25 min in liquid chromatography, Var62 is phosphoric acid, has a retention index of 1262.34 ± 2, and shows fragments having a nominal mass of 314, 299, 211, 283, and 225 Da in mass spectrometry, Var37 is oxamide, has a retention index of 1328.63 ± 2, and shows fragments having a nominal mass of 102, 189, 117, 217, and 131 Da in mass spectrometry, Var19 is fumaric acid, has a retention index of 1347.49 ± 2, and shows fragments having a nominal mass of 245, 115, 217, 143, and 133 Da in mass spectrometry; and (ii) comparing the level of each metabolite to a reference, wherein said comparison allows predicting the sugar content in the full-grown sugar beet, and/or applying an algorithm or a mathematical function to the levels of the metabolites, wherein said application allows predicting the sugar content in the full-grown sugar beet. (i) determining the level of each one of at least two metabolites selected from the group consisting of Var878, Var62, Var37, and Var19 in a sample obtained from a sugar beet seedling, wherein Var878 is 2-oxo-glutaric acid, has an accurate mass of 146.0218 Da ± 3 ppm, and a retention time of 0.399 min ± 0.25 min in liquid chromatography, Var62 is phosphoric acid, has a retention index of 1262.34 ± 2, and shows fragments having a nominal mass of 314, 299, 211, 283, and 225 Da in mass spectrometry, Var37 is oxamide, has a retention index of 1328.63 ± 2, and shows fragments having a nominal mass of 102, 189, 117, 217, and 131 Da in mass spectrometry, Var19 is fumaric acid, has a retention index of 1347.49 ± 2, and shows fragments having a nominal mass of 245, 115, 217, 143, and 133 Da in mass spectrometry; and (ii) comparing the level of each metabolite to a reference, wherein said comparison allows predicting the sugar content in the full-grown sugar beet, and/or applying an algorithm or a mathematical function to the levels of the metabolites, wherein said application allows predicting the sugar content in the full-grown sugar beet.
A covering finish profile for a surface to be covered comprising - a visible face and a face arranged for being positioned on the surface to be covered, - a first U-shaped section describing a first cavity provided with a first base wall and first side walls (6, 7), said first cavity being arranged for receiving a covering element for the surface to be covered, and - a second U-shaped section describing a second cavity provided with a second base wall and second side walls (10, 11), one of which is formed by said first base wall of said first cavity characterized in that the other of said second side walls of the second section is arranged for abutting against a surface substantially perpendicular to the said surface to be covered. - a visible face and a face arranged for being positioned on the surface to be covered, - a first U-shaped section describing a first cavity provided with a first base wall and first side walls (6, 7), said first cavity being arranged for receiving a covering element for the surface to be covered, and - a second U-shaped section describing a second cavity provided with a second base wall and second side walls (10, 11), one of which is formed by said first base wall of said first cavity
An electronic smoking device comprising: an airflow sensor configured and arranged to sense airflow through the electronic smoking device and output a first signal indicative of the sensed airflow; a temperature sensor configured and arranged to sense a temperature and output a second signal indicative of the sensed temperature; and control electronics communicatively coupled to the airflow sensor and the temperature sensor, characterized in that, the control electronics is configured and arranged to receive the first and second signals, based on the received second signal, compensate for a temperature-induced airflow sensor signal error of the first signal, and operate the electronic smoking device based on the compensated first signal, which is indicative of the true airflow through the electronic smoking device. an airflow sensor configured and arranged to sense airflow through the electronic smoking device and output a first signal indicative of the sensed airflow; a temperature sensor configured and arranged to sense a temperature and output a second signal indicative of the sensed temperature; and control electronics communicatively coupled to the airflow sensor and the temperature sensor, characterized in that, the control electronics is configured and arranged to receive the first and second signals, based on the received second signal, compensate for a temperature-induced airflow sensor signal error of the first signal, and operate the electronic smoking device based on the compensated first signal, which is indicative of the true airflow through the electronic smoking device. receive the first and second signals, based on the received second signal, compensate for a temperature-induced airflow sensor signal error of the first signal, and operate the electronic smoking device based on the compensated first signal, which is indicative of the true airflow through the electronic smoking device.
A composition comprising an azeotrope or azeotrope-like composition consisting essentially of effective amounts of 1,1,3,3,3-pentafluoropropene (HFO-1225zc) and trifluoroiodomethane (CF 3 I), wherein the azeotrope or azeotrope-like composition has a boiling point of -25.63°C ± 0.30°C at a pressure of 99.56 kPaa ± 2 kPaa (14.44 psia ± 0.30 psia).