mhurhangee/ep-ind-claims huggingface dataset:
Ethylene copolymers comprising i)from 10 to 69% by weight, preferably from 15 to 59% by weight, of copolymerized ethylene, ii) from 30 to 84% by weight, preferably from 35 to 80% by weight, of copolymerized units of at least one vinyl ester of an alkyl carboxylic acid and iii) from 1 to 50% by weight of repeating units derived from at least one monomer of the general formula CH 2 =C(R 1)(COO(R 2 O) n R 3) in which R 1 is hydrogen or methyl, R 2 is respectively mutually independently a linear or branched C 2 to C 6 -alkylene group, R 3 is hydrogen, unsubstituted phenyl or phenyl having one or more C 1 -C 3 alkyl substituents, a linear or branched C 1 -C 8 alkyl group or -C(=O)R 4, R 4 is hydrogen or a linear or branched C 1 -C 8 alkyl group and n is a number from 2 to 30, where the quantities are based on the entirety of the monomers i) to iii). i)from 10 to 69% by weight, preferably from 15 to 59% by weight, of copolymerized ethylene, ii) from 30 to 84% by weight, preferably from 35 to 80% by weight, of copolymerized units of at least one vinyl ester of an alkyl carboxylic acid and iii) from 1 to 50% by weight of repeating units derived from at least one monomer of the general formula CH 2 =C(R 1)(COO(R 2 O) n R 3) in which R 1 is hydrogen or methyl, R 2 is respectively mutually independently a linear or branched C 2 to C 6 -alkylene group, R 3 is hydrogen, unsubstituted phenyl or phenyl having one or more C 1 -C 3 alkyl substituents, a linear or branched C 1 -C 8 alkyl group or -C(=O)R 4, R 4 is hydrogen or a linear or branched C 1 -C 8 alkyl group and n is a number from 2 to 30, where the quantities are based on the entirety of the monomers i) to iii). R 1 is hydrogen or methyl, R 2 is respectively mutually independently a linear or branched C 2 to C 6 -alkylene group, R 3 is hydrogen, unsubstituted phenyl or phenyl having one or more C 1 -C 3 alkyl substituents, a linear or branched C 1 -C 8 alkyl group or -C(=O)R 4, R 4 is hydrogen or a linear or branched C 1 -C 8 alkyl group and n is a number from 2 to 30,
Method for operating an energy store, comprising the following steps: introducing a storage material into a multi-level furnace, which has multiple levels, said storage material, as a starting material, undergoing an exothermic reaction with water, - introducing air and water into the multi-level furnace, - wherein, in the multi-level furnace, the storage material is conducted via the levels, which rotate, in a counterflow configuration in relation to the air, and the exothermic reaction between storage material and water to form a product is realized, wherein the product is removed again from the multi-level furnace, - heating the air by energy which is released during the exothermic reaction between the storage material and the water, - introducing the heated air into a heat exchanger, wherein - a working medium (13, 14) is heated by the heat transmitted in the heat exchanger. - introducing air and water into the multi-level furnace, - wherein, in the multi-level furnace, the storage material is conducted via the levels, which rotate, in a counterflow configuration in relation to the air, and the exothermic reaction between storage material and water to form a product is realized, wherein the product is removed again from the multi-level furnace, - heating the air by energy which is released during the exothermic reaction between the storage material and the water, - introducing the heated air into a heat exchanger, wherein - a working medium (13, 14) is heated by the heat transmitted in the heat exchanger.
An upper comprising an upper body covering an instep of a foot, wherein the upper body includes a first layer, a second layer disposed with a gap from the first layer, and a third layer connecting the first layer and the second layer, a standard region and a low stiffness region are disposed in the upper body, the low stiffness region being adjacent to the standard region and having lower stiffness than the standard region, the third layer is disposed in the standard region, and at least a part of the low stiffness region has a point in which the third layer is not disposed, and a plurality of holes is disposed side by side in at least a part of a portion of the first layer and the second layer of the low stiffness region corresponding to the point in which the third layer is not disposed, characterized in that in the standard region, there are no holes in the first layer and the second layer. an upper body covering an instep of a foot, wherein the upper body includes a first layer, a second layer disposed with a gap from the first layer, and a third layer connecting the first layer and the second layer, a standard region and a low stiffness region are disposed in the upper body, the low stiffness region being adjacent to the standard region and having lower stiffness than the standard region, the third layer is disposed in the standard region, and at least a part of the low stiffness region has a point in which the third layer is not disposed, and a plurality of holes is disposed side by side in at least a part of a portion of the first layer and the second layer of the low stiffness region corresponding to the point in which the third layer is not disposed, characterized in that in the standard region, there are no holes in the first layer and the second layer.
Assembly of at least two panels (10, 20, 30) or, respectively, of one panel with an outer part, each panel (10, 20, 30) including an outer shell (1, 21, 31) and an inner shell (2, 22, 32) defining an intermediate space between the outer shell (1, 21, 31) and the inner shell (2, 22, 32), at least one spacer (3, 23, 33) being arranged in said intermediate space with one portion (3a, 23a, 33a) of the spacer projecting beyond the outer (1, 21, 31) and inner (2, 22, 32) shells of the panel (10, 20, 30), the projecting portion (3a, 23a, 33a) of the spacer of a first one of the at least two panels (10, 20, 30) being opposite the projecting portion (3a, 23a, 33a) of the spacer of a second one of the at least two panels (10, 20, 30) or, respectively, the front surface of the projecting portion of the spacer of the panel being opposite the outer part, spaces remaining between at least the outer shells (1, 21, 31) or the inner shells (2, 22, 32) of the at least two panels (10, 20, 30) or, respectively, between at least the outer shell or the inner shell of the panel and a portion of the part facing said shell (1 or 2), characterised in that at least one rectangular box-shaped linking element (6, 7, 37, 151, 152) is inserted into at least one of said spaces and secured to at least one spacer (3, 23, 33) of one of the at least two panels (10, 20, 30) or, respectively, with the spacer of the panel via mechanical fastening means or by adhering, and in which the projecting portion (3a, 23a, 33a) of the spacer of each one of the at least two panels (10, 20, 30) or, respectively, the projecting portion of the spacer of the panel, is rectangular and box-shaped.
Dynamo-electric machine having a self-supporting housing, which comprises a laminated core section and at least one connecting section in an axial extension of the laminated core section, wherein the laminated core section receives, secures and at least sectionally surrounds, by means of closed or sealed side walls, all sides of a laminated core of a stator formed from axially layered sheets, wherein the individual sheets have a basic outer shape with a cross-section having - a stator bore which is surrounded by radially arranged grooves which are evenly distributed along the periphery of the stator bore, - a yoke back that radially adjoins the grooves, which extends equidistantly from the stator bore, - and axial recesses in the sheet in the regions between the yoke back and the basic outer shape of the sheet, wherein the laminated core section of the self-supporting housing is used to secure the laminated core of the stator across defined contact areas between the laminated core section of the housing and laminated core, characterised in that the sheets arranged axially one behind the other and forming the laminated core of the stator have recesses on their outer sides, irrespective of the contact areas, as surface-enlarging structures, wherein the recesses are arranged as cooling ribs on the outer surface of the laminated core without departing from the basic outer shape of the sheets, wherein the laminated core section is angular and the laminated core is angular, wherein the individual sheets have the basic outer shape with in particular an octagonal cross-section. - a stator bore which is surrounded by radially arranged grooves which are evenly distributed along the periphery of the stator bore, - a yoke back that radially adjoins the grooves, which extends equidistantly from the stator bore, - and axial recesses in the sheet in the regions between the yoke back and the basic outer shape of the sheet,
A power tool, comprising a motor, a cooling fan that cools the motor, a housing that accommodates the cooling fan and the motor, and a handle portion connected to the housing; the power tool characterized in that: a switch unit having a trigger lever and a switch main body for turning on/off the motor is arranged in the handle portion, a first air suction port is arranged in the housing, and a passage extending in a direction from the first air suction port to the handle portion and returning to the housing again through the handle portion is arranged; a flow of a cooling air directed from the first air suction port toward the cooling fan is generated by the cooling fan; and a heat-generation member arranged in the switch unit in the handle portion is cooled by the cooling air. a switch unit having a trigger lever and a switch main body for turning on/off the motor is arranged in the handle portion, a first air suction port is arranged in the housing, and a passage extending in a direction from the first air suction port to the handle portion and returning to the housing again through the handle portion is arranged; a flow of a cooling air directed from the first air suction port toward the cooling fan is generated by the cooling fan; and a heat-generation member arranged in the switch unit in the handle portion is cooled by the cooling air.
A method for producing an acid-form sophorolipid-containing composition, the method comprising the following steps (i) and (ii-b): (i) adjusting the pH of a partially purified acid-form sophorolipid-containing composition obtained through alkali hydrolysis of a liquid culture of a sophorolipid-producing yeast or a processed product of the liquid culture to an acidic range; (ii-b) leaving the acidified partially purified acid-form sophorolipid-containing composition obtained in step (i) to stand under one of the following low-temperature conditions to acquire a resulting gelled object (a) a temperature of not higher than 15°C when the pH is 4 or lower; (b) a temperature of not higher than 10°C when the pH is higher than 4 but not higher than 5; (c) a temperature of not higher than -10°C when the pH is higher than 5 but not higher than 6; (d) a temperature of not higher than -20°C when the pH is higher than 6 but not higher than 7; and the method further comprising a step of washing the gelled object obtained in step (ii-b) with a cold solvent to acquire a gelled acid-form sophorolipid-containing composition. (i) adjusting the pH of a partially purified acid-form sophorolipid-containing composition obtained through alkali hydrolysis of a liquid culture of a sophorolipid-producing yeast or a processed product of the liquid culture to an acidic range; (ii-b) leaving the acidified partially purified acid-form sophorolipid-containing composition obtained in step (i) to stand under one of the following low-temperature conditions to acquire a resulting gelled object (a) a temperature of not higher than 15°C when the pH is 4 or lower; (b) a temperature of not higher than 10°C when the pH is higher than 4 but not higher than 5; (c) a temperature of not higher than -10°C when the pH is higher than 5 but not higher than 6; (d) a temperature of not higher than -20°C when the pH is higher than 6 but not higher than 7; and the method further comprising a step of washing the gelled object obtained in step (ii-b) with a cold solvent to acquire a gelled acid-form sophorolipid-containing composition. (a) a temperature of not higher than 15°C when the pH is 4 or lower; (b) a temperature of not higher than 10°C when the pH is higher than 4 but not higher than 5; (c) a temperature of not higher than -10°C when the pH is higher than 5 but not higher than 6; (d) a temperature of not higher than -20°C when the pH is higher than 6 but not higher than 7; and
A sensor for sensing ions, comprising: a circuit board assembly; and, a core assembly connected to the circuit board assembly, the core assembly including a first electrical conductor and a second electrical conductor; the circuit board assembly comprising: a first circuit board; and, a second circuit board; the first electrical conductor connected to the first circuit board; the second electrical conductor connected to the second circuit board; the core assembly further comprising: a first plate including a first hole engaged with the first electrical conductor and a second hole engaged with the second electrical conductor, wherein the first electrical conductor and the first plate are configured to be charged with a positive voltage and operatively arranged to collect negative ions; and, a second plate arranged adjacent to the first plate, the second plate including a third hole engaged with the first electrical conductor and a fourth hole engaged with the second electrical conductor, wherein the second electrical conductor and the second plate are configured to be charged with a negative voltage and operatively arranged to collect positive ions. a circuit board assembly; and, a core assembly connected to the circuit board assembly, the core assembly including a first electrical conductor and a second electrical conductor; the circuit board assembly comprising: a first circuit board; and, a second circuit board; a first circuit board; and, a second circuit board; the first electrical conductor connected to the first circuit board; the second electrical conductor connected to the second circuit board; the core assembly further comprising: a first plate including a first hole engaged with the first electrical conductor and a second hole engaged with the second electrical conductor, wherein the first electrical conductor and the first plate are configured to be charged with a positive voltage and operatively arranged to collect negative ions; and, a second plate arranged adjacent to the first plate, the second plate including a third hole engaged with the first electrical conductor and a fourth hole engaged with the second electrical conductor, wherein the second electrical conductor and the second plate are configured to be charged with a negative voltage and operatively arranged to collect positive ions.
Sprinkler having a basic body, which can be positioned on a set-down surface, and a sprinkler head with a nozzle arrangement (D1, D2), which, during operation, generates a jet pattern and can be rotated about an axis of rotation by means of a gear-mechanism arrangement, wherein the nozzle arrangement can be arranged, in a first operating position, with the axis of rotation oriented more or less horizontally and, in a second operating position with the axis of rotation oriented more or less vertically, and, in the two operating positions the jet patterns generated by the nozzle arrangement (D1, D2) are different, characterized in that the nozzle arrangement (D1, D2) contains two nozzle sub-arrangements which, depending on the operating position, can be activated in an alternating manner via a changeover device and, during sprinkler operation, generate at least some of the jet pattern.
A method for producing a compound represented by the formula: or a pharmaceutically acceptable salt thereof, or a hydrate thereof, wherein the method comprises a step of converting a compound represented by the formula: or a methanol solvate thereof to a compound represented by the formula: by a coupling reaction with a compound represented by the formula: in the presence of a metal catalyst, a base and carboxylic acid.
A working vehicle comprising: a charger operated by being connected to an external power source; a battery; a sensor detecting charging current to the battery; a drive unit hydraulically operated by electric power supplied from either or both of the charger and the battery; a controller; a display unit; a battery management system monitoring both the charger and the battery in a state of driving by connection to the external power source after receiving a valid signal for driving by connection to the external power source from the controller, the valid signal indicating that the external power source can be used; and a switch relating to operation of the driving by connection to the external power source, characterised in that the battery management system is configured to control the working vehicle to be switched to the driving by connection to the external power source when the switch is turned on after the charger is connected to the external power source and the valid signal for driving by connection to the external power source is received from the controller, and the battery management system is configured to control the working vehicle to be switched to the driving by connection to the external power source when the charger is connected to the external power source after the switch is turned on and the valid signal for driving by connection to the external power source is received from the controller. a charger operated by being connected to an external power source; a battery; a sensor detecting charging current to the battery; a drive unit hydraulically operated by electric power supplied from either or both of the charger and the battery; a controller; a display unit; a battery management system monitoring both the charger and the battery in a state of driving by connection to the external power source after receiving a valid signal for driving by connection to the external power source from the controller, the valid signal indicating that the external power source can be used; and a switch relating to operation of the driving by connection to the external power source, characterised in that the battery management system is configured to control the working vehicle to be switched to the driving by connection to the external power source when the switch is turned on after the charger is connected to the external power source and the valid signal for driving by connection to the external power source is received from the controller, and the battery management system is configured to control the working vehicle to be switched to the driving by connection to the external power source when the charger is connected to the external power source after the switch is turned on and the valid signal for driving by connection to the external power source is received from the controller.
A smoking article, comprising a filter (4; 400), the filter comprising: - a plug of filter material having a longitudinally extending surface; - a wrapper wrapped around the longitudinally extending surface of the plug; and - a menthol patch provided on an inner surface of the wrapper facing the longitudinally extending surface of the plug, the menthol patch attaching the wrapper to the plug, wherein the menthol patch comprises at least 99% of 2-isopropyl-5-methylcyclohexanol. - a plug of filter material having a longitudinally extending surface; - a wrapper wrapped around the longitudinally extending surface of the plug; and - a menthol patch provided on an inner surface of the wrapper facing the longitudinally extending surface of the plug, the menthol patch attaching the wrapper to the plug, wherein the menthol patch comprises at least 99% of 2-isopropyl-5-methylcyclohexanol.
A capacitive deionization apparatus, comprising: a pair of electrodes forming a flow channel configured to allow a feed solution to pass therethrough to remove ionic substances from the feed solution through adsorption by electrostatic force; and a cation exchange resin and an anion exchange resin mixed together, the cation and the anion exchange resins being provided in the flow channel between the pair of electrodes, wherein the cation exchange resin and the anion exchange resin have inverse concentration gradients to each other in the flow channel between the pair of electrodes, wherein a major portion of the cation exchange resin is provided on a cathode side, and a major portion of the anion exchange resin is provided on an anode side. a pair of electrodes forming a flow channel configured to allow a feed solution to pass therethrough to remove ionic substances from the feed solution through adsorption by electrostatic force; and a cation exchange resin and an anion exchange resin mixed together, the cation and the anion exchange resins being provided in the flow channel between the pair of electrodes, wherein the cation exchange resin and the anion exchange resin have inverse concentration gradients to each other in the flow channel between the pair of electrodes, wherein a major portion of the cation exchange resin is provided on a cathode side, and a major portion of the anion exchange resin is provided on an anode side.
A workpiece processing system, comprising: a plurality of electrodes (1, 2); at least one workpiece holder (3, 4) configured to hold a workpiece; an airtight enclosure configured to maintain a gas pressure, within which the plurality of electrodes are disposed such that a portion of workpiece is maintained between the at least two electrodes within the airtight enclosure; a programmable control unit configured to select a gas pressure corresponding to a desired temperature to be applied to the workpiece, wherein by controlling the gas pressure in the arc discharge region an upper limit to the workpiece temperature is established; a pressure sensor configured to sense the gas pressure within the airtight enclosure; a pump or venturi device configured to evacuate gas from the enclosure under control of the pressure sensor; and an arc discharging unit configured to supply drive current to the plurality of electrodes sufficient to saturate the ionization of the arc discharge region generated by and between the plurality of electrodes to heat the portion of the workpiece for the selected gas pressure, wherein the arc discharging unit is also configured to provide the drive current greater than the saturation current to thereby expand a volume of the arc discharge but not its temperature. a plurality of electrodes (1, 2); at least one workpiece holder (3, 4) configured to hold a workpiece; an airtight enclosure configured to maintain a gas pressure, within which the plurality of electrodes are disposed such that a portion of workpiece is maintained between the at least two electrodes within the airtight enclosure; a programmable control unit configured to select a gas pressure corresponding to a desired temperature to be applied to the workpiece, wherein by controlling the gas pressure in the arc discharge region an upper limit to the workpiece temperature is established; a pressure sensor configured to sense the gas pressure within the airtight enclosure; a pump or venturi device configured to evacuate gas from the enclosure under control of the pressure sensor; and an arc discharging unit configured to supply drive current to the plurality of electrodes sufficient to saturate the ionization of the arc discharge region generated by and between the plurality of electrodes to heat the portion of the workpiece for the selected gas pressure, wherein the arc discharging unit is also configured to provide the drive current greater than the saturation current to thereby expand a volume of the arc discharge but not its temperature.