mhurhangee/ep-ind-claims huggingface dataset:
A shower WC having a WC body with a WC bowl and an upper area beside an upper opening of said WC bowl, a shower attachment with a housing and a shower device therein, and with a mounting device for mounting said shower attachment on said upper area of said WC body, said mounting device comprising: - a mounting plate mountable on said upper area of said WC body, - a seating for said mounting plate at an underside of said housing of said shower attachment, characterized in that said mounting device comprises further: - at least respectively one undercut element (14, 17) at each of two opposite sides of said mounting plate, - at least respectively one undercut element complementary thereto at each of two sides of said seating of said housing, assigned to said opposite sides of said mounting plate, wherein said undercut elements (14, 17, 18) are adapted for engaging with each other such that said housing is locked with respect to said WC body in a direction perpendicular to said upper area of said WC body, - at least one spring element at said mounting plate or said housing of said shower attachment for pretensioning said housing against said mounting plate in a direction from one of said two sides of said mounting plate to the other one of said two sides, wherein said shower WC is adapted such that said housing can, after establishing the engagement between those undercut elements (14, 18) which are arranged on one of said two sides, be pushed against said spring element into said engagement, and that the engagement between those undercut elements (17, 18) which are arranged on the other one of said two sides can be established then, wherein said spring element pushes said housing into said engagement established lastly then and said housing is fixed on said upper area of said WC body, thus. - a mounting plate mountable on said upper area of said WC body, - a seating for said mounting plate at an underside of said housing of said shower attachment, - at least respectively one undercut element (14, 17) at each of two opposite sides of said mounting plate, - at least respectively one undercut element complementary thereto at each of two sides of said seating of said housing, assigned to said opposite sides of said mounting plate, wherein said undercut elements (14, 17, 18) are adapted for engaging with each other such that said housing is locked with respect to said WC body in a direction perpendicular to said upper area of said WC body, - at least one spring element at said mounting plate or said housing of said shower attachment for pretensioning said housing against said mounting plate in a direction from one of said two sides of said mounting plate to the other one of said two sides,
A masterbatch for increasing the melt strength of polyethylene terephthalate, wherein the masterbatch comprises a polyanhydride, a secondary antioxidant, and at least one thermoplastic carrier, the weight ratio of the polyanhydride and the secondary antioxidant being 5:1 to 1:5, wherein the secondary antioxidant is a phosphorous based stabilizer, wherein the polyanhydride is a tetracarboxylic dianhydride, and wherein the masterbatch comprises 0.05 to 20 wt.% of the polyanhydride and 0.05 to 15 wt.% of the secondary antioxidant.
An alloy-coated steel sheet comprising: a steel sheet; and an Al-Mg-Si alloy layer disposed on the steel sheet wherein the Al-Mg-Si alloy layer has a form in which Mg-Si alloy grains are included in an alloy layer consisting of an Al-Mg alloy phase, wherein the Mg content in the Al-Mg-Si alloy layer is, with respect to total 100 wt% of the Al-Mg-Si alloy layer, 15 wt% or more and 90 wt% or less, wherein the Al-Mg alloy phase includes Al 3 Mg 2 and Al 12 Mg 17, and wherein the Al-Mg alloy phase includes Al other than Al 3 Mg 2 and Al 12 Mg 17 and Mg applied to the Al. a steel sheet; and an Al-Mg-Si alloy layer disposed on the steel sheet wherein the Al-Mg-Si alloy layer has a form in which Mg-Si alloy grains are included in an alloy layer consisting of an Al-Mg alloy phase, wherein the Mg content in the Al-Mg-Si alloy layer is, with respect to total 100 wt% of the Al-Mg-Si alloy layer, 15 wt% or more and 90 wt% or less, wherein the Al-Mg alloy phase includes Al 3 Mg 2 and Al 12 Mg 17, and wherein the Al-Mg alloy phase includes Al other than Al 3 Mg 2 and Al 12 Mg 17 and Mg applied to the Al.
A composition comprising an ionic liquid and a physical absorption solvent; wherein said physical absorption solvent is selected from the group consisting of dimethyl ether of polyethylene glycol and methanol; and wherein the ionic liquid is a phosphonium acetate ionic liquid.
A method of production of core/shell type nanoparticles by the solution plasma method, which method of production of core/shell type nanoparticles includes a process of causing the generation of plasma in a solution so as to reduce two types of metal salts which are dissolved in that solution and cause a first metal and a second metal to precipitate, which process includes the following steps: a first step of applying a first power to cause the generation of said plasma so as to selectively cause the precipitation of said first metal so as to form nanoparticles as cores and a second step of applying a second power which is larger than said first power to cause the generation of said plasma so as to cause the precipitation of said second metal which has a smaller oxidation reduction potential than said first metal on said core surface so as to form shells which are comprised of said second metal which cover said cores which are comprised of said first metal. which method of production of core/shell type nanoparticles includes a process of causing the generation of plasma in a solution so as to reduce two types of metal salts which are dissolved in that solution and cause a first metal and a second metal to precipitate, which process includes the following steps: a first step of applying a first power to cause the generation of said plasma so as to selectively cause the precipitation of said first metal so as to form nanoparticles as cores and a second step of applying a second power which is larger than said first power to cause the generation of said plasma so as to cause the precipitation of said second metal which has a smaller oxidation reduction potential than said first metal on said core surface so as to form shells which are comprised of said second metal which cover said cores which are comprised of said first metal. a first step of applying a first power to cause the generation of said plasma so as to selectively cause the precipitation of said first metal so as to form nanoparticles as cores and a second step of applying a second power which is larger than said first power to cause the generation of said plasma so as to cause the precipitation of said second metal which has a smaller oxidation reduction potential than said first metal on said core surface so as to form shells which are comprised of said second metal which cover said cores which are comprised of said first metal.
A process for the production of m-xylylenediamine, the process comprising reacting isophthalaldehyde with hydrogen and ammonia or an ammonia-liberating compound, in the presence of a hydrogenation catalyst and an amine, wherein the amine is: - a primary amine selected from the group consisting of methylamine, ethylamine, propylamine, butylamine, pentylamine, hexylamine, benzylamine and cyclohexylamine, or - a secondary amine selected from the group consisting of dimethylamine, diethylamine, diethanolamine, dicyclohexylamine, diallylamine, piperidine, pyrolidine, morpholine, N -methylbenzylamine, and dibenzylamine, or - a tertiary amine selected from the group consisting of trimethylamine, triethylamine, triethanolamine, diisopropylethylamine, tricyclohexylamine, triallylamine, benzyldimethylamine, N -methylmorpholine, and N- methyldibenzylamine, wherein the molar ratio of the amine to isophthalaldehyde is no less than 1:4 at the start of the reaction. - a primary amine selected from the group consisting of methylamine, ethylamine, propylamine, butylamine, pentylamine, hexylamine, benzylamine and cyclohexylamine, or - a secondary amine selected from the group consisting of dimethylamine, diethylamine, diethanolamine, dicyclohexylamine, diallylamine, piperidine, pyrolidine, morpholine, N -methylbenzylamine, and dibenzylamine, or - a tertiary amine selected from the group consisting of trimethylamine, triethylamine, triethanolamine, diisopropylethylamine, tricyclohexylamine, triallylamine, benzyldimethylamine, N -methylmorpholine, and N- methyldibenzylamine,
Transmission apparatus for vehicles equipped with an automated manual transmission, comprising - an automated manual transmission, provided with an input shaft and an output shaft, - wherein the input shaft is configured to be selectively connected to an internal combustion engine, - wherein the output shaft is configured to be mechanically connected to at least one drive wheel of a vehicle, - an auxiliary electric machine having an auxiliary shaft and an auxiliary transmission selectively connectable to the input shaft or to the output shaft of the automated manual transmission, characterised in that the auxiliary transmission comprises a single transmission selector movable in three positions, wherein said single transmission selector: - in a first upstream engagement position, makes a mechanical connection between the auxiliary shaft of the auxiliary electric machine and said input shaft, - in a second disengagement position, mechanically disconnects the auxiliary shaft of the auxiliary electric machine from said input and output shafts, - in a third downstream engagement position, makes a mechanical connection between the auxiliary shaft of the auxiliary electric machine and said output shaft. - an automated manual transmission, provided with an input shaft and an output shaft, - wherein the input shaft is configured to be selectively connected to an internal combustion engine, - wherein the output shaft is configured to be mechanically connected to at least one drive wheel of a vehicle, - an auxiliary electric machine having an auxiliary shaft and an auxiliary transmission selectively connectable to the input shaft or to the output shaft of the automated manual transmission, characterised in that - in a first upstream engagement position, makes a mechanical connection between the auxiliary shaft of the auxiliary electric machine and said input shaft, - in a second disengagement position, mechanically disconnects the auxiliary shaft of the auxiliary electric machine from said input and output shafts, - in a third downstream engagement position, makes a mechanical connection between the auxiliary shaft of the auxiliary electric machine and said output shaft.
Flow machine for liquids comprising a driven propeller which comprises at least one propeller blade which extends helically along a propeller shaft and has a suction edge and a pressure edge (5, 11), wherein the suction edge of the propeller blade extends at least approximately along the intersection line between the helical surface of the propeller blade and a sectional surface tangential to the propeller shaft and characterised in that the suction edge then becomes a connection edge with respect to the outer edge of the propeller blade extending in a spiral manner, which connection edge follows substantially the intersection line of the helical surface with a surface which is oriented in parallel with the propeller shaft and transversely with respect to the tangential sectional surface.
A method of estimating turbine bucket oxidation condition comprising: (a) measuring, with a pyrometer, time-varying temperature distributions of at least one rotating turbine bucket; and (b) determining a condition index (Cl k) based on the measured time-varying temperature (T k,2) distributions, the condition index reflecting at least one of an overall condition of a bucket set or a specific condition of a single bucket; characterised in that: step (b) is practiced by calculating a ratio of a peak temperature value within each passage of a bucket to a mean temperature value of the time-varying temperature distributions measured by the pyrometer for one revolution of the turbine. (a) measuring, with a pyrometer, time-varying temperature distributions of at least one rotating turbine bucket; and (b) determining a condition index (Cl k) based on the measured time-varying temperature (T k,2) distributions, the condition index reflecting at least one of an overall condition of a bucket set or a specific condition of a single bucket; characterised in that: step (b) is practiced by calculating a ratio of a peak temperature value within each passage of a bucket to a mean temperature value of the time-varying temperature distributions measured by the pyrometer for one revolution of the turbine.
A grain-oriented electrical steel sheet, comprising: a forsterite layer formed on the surface of an electrical steel sheet; a groove which is formed on the forsterite layer in a direction perpendicular to a rolling direction; and a forsterite calcination layer which is formed in the direction of both ends of the electrical steel sheet on the basis of an upper end of the groove and has a width of 1.1 to 1.3 times the width of the groove. a groove which is formed on the forsterite layer in a direction perpendicular to a rolling direction; and a forsterite calcination layer which is formed in the direction of both ends of the electrical steel sheet on the basis of an upper end of the groove and has a width of 1.1 to 1.3 times the width of the groove.
A method of firing a green structure to produce a cordierite light-duty diesel filter or heavy-duty diesel filter, the method comprising: heating a firing environment during a first stage from 180°C to a threshold temperature from 400°C to 425°C at a first average ramp rate of less than or equal to 12°C/hr, in which the heating during the first stage is over a predetermined minimum time period that ranges from 24 to 46 hours; and heating the firing environment during a second stage of the firing from 425°C up to a second threshold temperature of 750°C at a second average ramp rate from 11°C/hr to 75°C/hr, wherein the second average ramp rate is faster than the first average ramp rate; wherein the time from initiation of firing to completion of the second stage is 39 hours to 62 hours. heating a firing environment during a first stage from 180°C to a threshold temperature from 400°C to 425°C at a first average ramp rate of less than or equal to 12°C/hr, in which the heating during the first stage is over a predetermined minimum time period that ranges from 24 to 46 hours; and heating the firing environment during a second stage of the firing from 425°C up to a second threshold temperature of 750°C at a second average ramp rate from 11°C/hr to 75°C/hr, wherein the second average ramp rate is faster than the first average ramp rate; wherein the time from initiation of firing to completion of the second stage is 39 hours to 62 hours.
A motion detector comprising: a module to detect movement; intermediate processing circuitry coupled to an output of the module first amplifier/analog-to-digital converter circuit components of the intermediate processing circuitry that receive a module output signal from the output of the module and are activated intermittently to produce a first output signal, second amplifier/analog-to-digital converter circuit components of the intermediate processing circuitry that, simultaneous with the first amplifier/analog-to-digital converter circuit components, receive the module output signal and are activated intermittently to produce a second output signal, wherein the second amplifier/analog-to-digital converter circuit components are substantially identical to the first amplifier/analog-to-digital converter circuit components; and cross-correlation circuitry to process the first and second output signals to produce a noise cancelled motion indicating output signal, wherein the first amplifier/analog-to-digital converter circuit components and the second amplifier/analog-to-digital converter circuit components identically process the module output signal. a module to detect movement; intermediate processing circuitry coupled to an output of the module first amplifier/analog-to-digital converter circuit components of the intermediate processing circuitry that receive a module output signal from the output of the module and are activated intermittently to produce a first output signal, second amplifier/analog-to-digital converter circuit components of the intermediate processing circuitry that, simultaneous with the first amplifier/analog-to-digital converter circuit components, receive the module output signal and are activated intermittently to produce a second output signal, wherein the second amplifier/analog-to-digital converter circuit components are substantially identical to the first amplifier/analog-to-digital converter circuit components; and cross-correlation circuitry to process the first and second output signals to produce a noise cancelled motion indicating output signal, wherein the first amplifier/analog-to-digital converter circuit components and the second amplifier/analog-to-digital converter circuit components identically process the module output signal.
An inductive power transfer, IPT, system magnetic flux device for generating or receiving a magnetic flux for coupling with another device to transfer power inductively, the magnetic flux device comprising: a magnetically permeable core means; at least one planar coil (4, a, b) provided on a first side of the core means and magnetically associated with the core means, and; a shield means (6, 16) for shaping the magnetic flux for coupling and provided on a side of the core means opposite to the first side, the shield means comprising an outer portion having a periphery that extends beyond at least part of a perimeter of the core means, a lip extending from the periphery of the outer portion, and a flange extending from the lip; wherein the outer portion extends from the device substantially in a plane of the core means, and the lip is provided at an angle relative to the outer portion; wherein the angle is between substantially 90 degrees and 150 degrees relative to the outer portion. a magnetically permeable core means; at least one planar coil (4, a, b) provided on a first side of the core means and magnetically associated with the core means, and; a shield means (6, 16) for shaping the magnetic flux for coupling and provided on a side of the core means opposite to the first side, the shield means comprising an outer portion having a periphery that extends beyond at least part of a perimeter of the core means, a lip extending from the periphery of the outer portion, and a flange extending from the lip; wherein the outer portion extends from the device substantially in a plane of the core means, and the lip is provided at an angle relative to the outer portion; wherein the angle is between substantially 90 degrees and 150 degrees relative to the outer portion.
An X-ray photography machine, comprising: a generator emitting an X-ray onto a target; a detector sensing the X-ray that has penetrated the target; a pressing member disposed between the generator and the detector; and a transfer apparatus moving the pressing member towards or away from the detector, the transfer apparatus comprising: a drive source for providing a rotational force; a drive shaft rotated by the rotational force; a first flange fitted on the drive shaft; a second flange provided around the drive shaft with a space defined between the second flange and the drive shaft, the second flange being selectively coupled to the first flange by a magnetic force depending on supply of power; and a switch belt connected to the second flange, with the pressing member fastened to the switch belt. a generator emitting an X-ray onto a target; a detector sensing the X-ray that has penetrated the target; a pressing member disposed between the generator and the detector; and a transfer apparatus moving the pressing member towards or away from the detector, the transfer apparatus comprising: a drive source for providing a rotational force; a drive shaft rotated by the rotational force; a first flange fitted on the drive shaft; a second flange provided around the drive shaft with a space defined between the second flange and the drive shaft, the second flange being selectively coupled to the first flange by a magnetic force depending on supply of power; and a switch belt connected to the second flange, with the pressing member fastened to the switch belt. a drive source for providing a rotational force; a drive shaft rotated by the rotational force; a first flange fitted on the drive shaft; a second flange provided around the drive shaft with a space defined between the second flange and the drive shaft, the second flange being selectively coupled to the first flange by a magnetic force depending on supply of power; and a switch belt connected to the second flange, with the pressing member fastened to the switch belt.
An inkjet recording apparatus, comprising: an ink container (18, 41) that is adapted to store an ink for printing on a printing object; a magnetic stirring bar disposed in the ink container (18, 41); and a stirring mechanism that is adapted to stir the ink stored in the ink container (18, 41), wherein the stirring mechanism includes a stationary shaft and a rotating body that is adapted to rotate around the stationary shaft, the rotating body is adapted to spin in tandem with the magnetic stirring bar, and the stationary shaft and the rotating body are disposed under the ink container (18, 41). an ink container (18, 41) that is adapted to store an ink for printing on a printing object; a magnetic stirring bar disposed in the ink container (18, 41); and a stirring mechanism that is adapted to stir the ink stored in the ink container (18, 41), wherein the stirring mechanism includes a stationary shaft and a rotating body that is adapted to rotate around the stationary shaft, the rotating body is adapted to spin in tandem with the magnetic stirring bar, and the stationary shaft and the rotating body are disposed under the ink container (18, 41). the stirring mechanism includes a stationary shaft and a rotating body that is adapted to rotate around the stationary shaft, the rotating body is adapted to spin in tandem with the magnetic stirring bar, and the stationary shaft and the rotating body are disposed under the ink container (18, 41).
Printing machine comprising a doctor blade, a drive system for urging the doctor blade against a printing cylinder of the printing machine, a sensor configured for sensing a force with which the doctor blade is urged against the substantially static printing cylinder, i.e. that the printing cylinder is moving in a radial direction, but not substantially in a lateral direction, and a mechanical locking element configured for locking the drive system in its operating position, wherein the doctor blade is a chamber doctor blade, wherein the printing machine comprises a control unit, which is connected to the drive system, the mechanical locking element and the sensor, wherein the control unit has a storage module for storing sensor values received from the sensor, and wherein the control unit comprises an analysis module configured to analyze changes in the sensor values in dependence of time and/or frequency. wherein the doctor blade is a chamber doctor blade, wherein the printing machine comprises a control unit, which is connected to the drive system, the mechanical locking element and the sensor, wherein the control unit has a storage module for storing sensor values received from the sensor, and wherein the control unit comprises an analysis module configured to analyze changes in the sensor values in dependence of time and/or frequency.