mhurhangee/ep-ind-claims huggingface dataset:
A pump comprising: a pump housing having an inflow port, a first discharge port, and a second discharge port; a pump motor for providing a rotational force; an impeller that is disposed in the pump housing and pumps water introduced through the inflow port; a planetary gear train comprising a carrier connected to a rotation axis of the pump motor, a sun gear connected to the impeller, a pinion gear rotatably installed in the carrier and engaged with the sun gear, and a ring gear engaged with the pinion gear; and a valve disc that is rotatably provided integrally with the ring gear in the pump housing, closes the first discharge port and opens the second discharge port in a first rotation position, and opens the first discharge port and close the second discharge port in a second rotation position. a pump housing having an inflow port, a first discharge port, and a second discharge port; a pump motor for providing a rotational force; an impeller that is disposed in the pump housing and pumps water introduced through the inflow port; a planetary gear train comprising a carrier connected to a rotation axis of the pump motor, a sun gear connected to the impeller, a pinion gear rotatably installed in the carrier and engaged with the sun gear, and a ring gear engaged with the pinion gear; and a valve disc that is rotatably provided integrally with the ring gear in the pump housing, closes the first discharge port and opens the second discharge port in a first rotation position, and opens the first discharge port and close the second discharge port in a second rotation position.
Method for controlling the temperature of a vacuum pump of the dry vacuum pump type subjected to variable pumping loads, the vacuum pump comprising: o a stator, o at least one pumping stage (T1-T5), o two shafts (6, 7) extending into the at least one pumping stage (T1-T5) and respectively bearing at least one rotor, the rotors being configured to rotate synchronously in opposite directions in the stator in order to drive a gas that is to be pumped from a suction inlet of the vacuum pump to a delivery outlet, o at least one cooling element (11a, 11b) coupled to the stator, o at least one temperature sensor (12a, 12b) configured to take a measurement of the temperature of the stator, and o a control unit configured to control the temperature of the stator by means of the at least one cooling element (11a, 11b) and of the at least one temperature sensor (12a, 12b), in which the temperature of the vacuum pump is controlled by means of the at least one cooling element (11a, 11b) coupled to the stator on the basis of a temperature setpoint and of a measurement of the temperature of the stator, characterized in that monitoring monitors whether the value of a parameter indicative of the pumping load, chosen from either a current drawn or a power consumed by the vacuum pump, is below a load threshold and, if the value of the parameter indicative of the pumping load is below the load threshold, then the temperature setpoint is increased. o a stator, o at least one pumping stage (T1-T5), o two shafts (6, 7) extending into the at least one pumping stage (T1-T5) and respectively bearing at least one rotor, the rotors being configured to rotate synchronously in opposite directions in the stator in order to drive a gas that is to be pumped from a suction inlet of the vacuum pump to a delivery outlet, o at least one cooling element (11a, 11b) coupled to the stator, o at least one temperature sensor (12a, 12b) configured to take a measurement of the temperature of the stator, and o a control unit configured to control the temperature of the stator by means of the at least one cooling element (11a, 11b) and of the at least one temperature sensor (12a, 12b),
Falling film evaporator, having • an outer, enclosing jacket, • a number of tubes, on the inner side of which a liquid film is able to run down, • top-side devices for distributing the liquid into the individual tubes, • bottom-side devices for collecting residual liquid and vapour, • a vapour removal device for vapour produced on the inner side of tubes, • a liquid removal device for liquid not evaporated on the inner side of tubes, • boundaries, which separate off from the tube exterior space the tube interior space and the devices which are hydraulically connected to the latter and which serve for distributing and collecting, • a device for feeding a gas/vapour mixture into the tube exterior space, • a device for discharging condensed liquid from the tube exterior space, and • a device for discharging non-condensed vapours and non-condensable gases from the tube exterior space, wherein • the liquid distributor, which divides the liquid to be evaporated between the individual tube inner sides, is divided into at least 2 sections, and • each of said sections can be or cannot be charged individually with liquid, characterized in that the sections are designed to be of different sizes, with the result that each of the sections supplies a different number of tubes with liquid. • an outer, enclosing jacket, • a number of tubes, on the inner side of which a liquid film is able to run down, • top-side devices for distributing the liquid into the individual tubes, • bottom-side devices for collecting residual liquid and vapour, • a vapour removal device for vapour produced on the inner side of tubes, • a liquid removal device for liquid not evaporated on the inner side of tubes, • boundaries, which separate off from the tube exterior space the tube interior space and the devices which are hydraulically connected to the latter and which serve for distributing and collecting, • a device for feeding a gas/vapour mixture into the tube exterior space, • a device for discharging condensed liquid from the tube exterior space, and • a device for discharging non-condensed vapours and non-condensable gases from the tube exterior space, wherein • the liquid distributor, which divides the liquid to be evaporated between the individual tube inner sides, is divided into at least 2 sections, and • each of said sections can be or cannot be charged individually with liquid,
Polyester resin, in particular alkyd resin, characterized in that it: - is based on at least one fatty acid, - has a zero oil length (0%), said fatty acid being selected from nonoxidizable fatty acids with a content of oxidizable unsaturation of 0 mmol per g of dry resin or said resin has an oil content ranging up to 5% and that, in addition to said fatty acid selected from nonoxidizable fatty acids, it comprises in minor weight proportions an oxidizable fatty acid leading to said oil content ranging up to 5%, said nonoxidizable fatty acid being selected from fatty acid oligomers, - has a weight ratio of oxidizable fatty acids (monoacids) relative to the fatty acids overall of 0 or higher than 0 and up to 1, - is based on an acid component comprising, in addition to said fatty acid, from 45% to 75% by weight, relative to the total weight of said resin, of rosin and/or of rosin derivatives bearing at least one carboxylic acid function. - is based on at least one fatty acid, - has a zero oil length (0%), said fatty acid being selected from nonoxidizable fatty acids with a content of oxidizable unsaturation of 0 mmol per g of dry resin or said resin has an oil content ranging up to 5% and that, in addition to said fatty acid selected from nonoxidizable fatty acids, it comprises in minor weight proportions an oxidizable fatty acid leading to said oil content ranging up to 5%, said nonoxidizable fatty acid being selected from fatty acid oligomers, - has a weight ratio of oxidizable fatty acids (monoacids) relative to the fatty acids overall of 0 or higher than 0 and up to 1, - is based on an acid component comprising, in addition to said fatty acid, from 45% to 75% by weight, relative to the total weight of said resin, of rosin and/or of rosin derivatives bearing at least one carboxylic acid function.
A minicircle comprising: a. a transfer sequence, b. specific packaging signals on both sides of the transfer sequence for packaging the transfer sequence into viral vector particles, wherein the minicircle is a circular double stranded DNA that is free of prokaryotic or bacterial nucleic acid sequences. a. a transfer sequence, b. specific packaging signals on both sides of the transfer sequence for packaging the transfer sequence into viral vector particles,
An electronic control device mounted on a vehicle, comprising: a circuit board mounted with an electronic part; a case comprising a base and a cover (2, 14) covering the circuit board; and a breathing portion disposed in one of the base and the cover (2, 14) and having a filter film, the filter film having an inner side and an outer side and being disposed between the inside and the outside of the case, wherein the breathing portion is provided between two adjacent outer surfaces of the case and has breathing paths which connect an opening portion provided in each of the two adjacent outer surfaces, with the outer side of the filter film, the breathing paths being provided within the case, and the breathing paths communicate with each of the opening portions within the case and with each other. a circuit board mounted with an electronic part; a case comprising a base and a cover (2, 14) covering the circuit board; and a breathing portion disposed in one of the base and the cover (2, 14) and having a filter film, the filter film having an inner side and an outer side and being disposed between the inside and the outside of the case, wherein the breathing portion is provided between two adjacent outer surfaces of the case and has breathing paths which connect an opening portion provided in each of the two adjacent outer surfaces, with the outer side of the filter film, the breathing paths being provided within the case, and the breathing paths communicate with each of the opening portions within the case and with each other.
A method for manufacturing a rubber coated twisted cord, the method comprising manufacturing a rubber coated cord by causing a cord to pass through a coating head while filling the coating head with unvulcanized rubber extruded from a rubber extruder and coating an outer circumferential surface of the cord with the unvulcanized rubber, the method characterised by comprising the steps of: manufacturing the rubber coated cord comprising a preceding cord by installing a plurality of the coating heads, selecting one head of the plurality of coating heads as a preceding head, and causing a preceding cord, which is to be used in advance as the cord, to pass through the preceding head while filling the preceding head with the unvulcanized rubber; and manufacturing the rubber coated cord comprising a next cord by selecting, as a next head, one head differing from the preceding head, setting a leading edge portion of a next cord, which is to be used next as the cord, in a state where the leading edge portion of the next cord has passed through the next head in advance, manufacturing a predetermined length of the rubber coated cord comprising the preceding cord, and subsequently causing the next cord comprising a leading edge portion side range bonded to a trailing edge portion of the rubber coated cord comprising the preceding cord to pass through the next head while switching from the preceding head to the next head and filling the next head with the unvulcanized rubber.
Assembly part for the installation of an accessory, intended to be fastened to a wall, said part comprising a support element configured for maintaining said accessory, said support element comprising a bearing face intended to come into contact with the wall, said assembly part comprising at least three nails (3, 4, 5) inclined according to different orientations that pass through the support element, said nails being intended to be driven into the wall for the fastening of the support element, characterised in that said support element comprises means for breaking (9, 10, 11) into as many pieces (2a, 2b, 2c) as there are nails, configured to render each nail independent with respect to the others, in such a way as to allow for the withdrawal thereof individually.
A method for determining a bounding box for display on a device, the bounding box containing an object in a video sequence, the method comprising: - selecting at least one point that belongs to the object; - motion processing an area of points around the selected at least one point to determine an estimated bounding box; and - color processing the points in the estimated bounding box to determine the bounding box; the color processing further comprising: - adding a new line of pixels; - computing a score for each new pixel, wherein the score is equal to a difference between a distance to a background model and a distance to a foreground model; - averaging the scores for the new line of pixels; wherein if the average score for the new line of pixels is greater than a threshold, the new line of pixels is added to the estimated bounding box; wherein the bounding box is formed when no new line of pixels is added. - selecting at least one point that belongs to the object; - motion processing an area of points around the selected at least one point to determine an estimated bounding box; and - color processing the points in the estimated bounding box to determine the bounding box; - adding a new line of pixels; - computing a score for each new pixel, wherein the score is equal to a difference between a distance to a background model and a distance to a foreground model; - averaging the scores for the new line of pixels; wherein if the average score for the new line of pixels is greater than a threshold, the new line of pixels is added to the estimated bounding box;
An optical waveguiding structure,comprising: a photonic crystal nanostructure comprising a plurality of nanoelements at least partially arranged in a lattice configuration and having one or more input surfaces and a concave output surface, parameters of the nanoelements being selected to give rise to a photonic bandgap for a predetermined range of wavelengths in which there is no propagating mode; a plurality of waveguides disposed in the nanostructure, wherein each waveguide comprises a negative space formed by an absence of nanoelements in the lattice along a path to generate a propagating band within the photonic bandgap; a plurality of inputs to the respective plurality of waveguides, the inputs being disposed on the one or more input surfaces of the nanostructure wherein light in the propagating band received at an input propagates in a respective waveguide in total internal reflection; and a plurality of outputs from the respective plurality of waveguides, wherein one or more of the waveguides include paths having curved portions, and each of the waveguide paths is located in the nanostructure such that each of the outputs is configured normal to the concave output surface. a photonic crystal nanostructure comprising a plurality of nanoelements at least partially arranged in a lattice configuration and having one or more input surfaces and a concave output surface, parameters of the nanoelements being selected to give rise to a photonic bandgap for a predetermined range of wavelengths in which there is no propagating mode; a plurality of waveguides disposed in the nanostructure, wherein each waveguide comprises a negative space formed by an absence of nanoelements in the lattice along a path to generate a propagating band within the photonic bandgap; a plurality of inputs to the respective plurality of waveguides, the inputs being disposed on the one or more input surfaces of the nanostructure wherein light in the propagating band received at an input propagates in a respective waveguide in total internal reflection; and a plurality of outputs from the respective plurality of waveguides, wherein one or more of the waveguides include paths having curved portions, and each of the waveguide paths is located in the nanostructure such that each of the outputs is configured normal to the concave output surface.
A solar cell, comprising: a crystalline semiconductor substrate of a first conductive type; a front passivation layer located between the front doped layer and the semiconductor substrate, a front doped layer located on a front surface of the semiconductor substrate and forming a hetero junction with the semiconductor substrate; a back passivation layer located between the back doped layer and the semiconductor substrate, a back doped layer located on a back surface of the semiconductor substrate and forming a hetero junction with the semiconductor substrate; a front transparent conductive layer located on the front doped layer; and a back transparent conductive layer located under the back doped layer, wherein one of the front doped layer and the back doped layer has a second conductive type opposite the first conductive type to form a p-n junction with the semiconductor substrate, and the other of the front doped layer and the back doped layer has the first conductive type, and wherein a planar area of the front transparent conductive layer is larger than a planar area of the back transparent conductive layer, characterized in that the front passivation layer and the back passivation layer overlap each other on the side surface of the semiconductor substrate and the front transparent conductive layer is further located on the front passivation layer and the back passivation layer which overlap each other on the side surface of the semiconductor substrate. a crystalline semiconductor substrate of a first conductive type; a front passivation layer located between the front doped layer and the semiconductor substrate, a front doped layer located on a front surface of the semiconductor substrate and forming a hetero junction with the semiconductor substrate; a back passivation layer located between the back doped layer and the semiconductor substrate, a back doped layer located on a back surface of the semiconductor substrate and forming a hetero junction with the semiconductor substrate; a front transparent conductive layer located on the front doped layer; and a back transparent conductive layer located under the back doped layer, wherein one of the front doped layer and the back doped layer has a second conductive type opposite the first conductive type to form a p-n junction with the semiconductor substrate, and the other of the front doped layer and the back doped layer has the first conductive type, and wherein a planar area of the front transparent conductive layer is larger than a planar area of the back transparent conductive layer, characterized in that the front passivation layer and the back passivation layer overlap each other on the side surface of the semiconductor substrate and the front transparent conductive layer is further located on the front passivation layer and the back passivation layer which overlap each other on the side surface of the semiconductor substrate.
Navigation device as a mobile unit for a commercial vehicle, wherein the navigation device has a control device and a display device, and wherein a driving route that is optimized with respect to at least one optimization parameter can be determined by means of the control device, and wherein the determined driving route can be displayed to a driver of the vehicle by means of the display device, wherein the control device has a data-transmitting connection to an information device of the navigation device, in which information relating to date-dependent and vehicle-weight-dependent driving bans on defined route sections is stored, and wherein the navigation device is designed in such a manner that indications of relevant date-dependent and vehicle-weight-dependent driving bans on the determined driving route can be displayed by means of the display device, and wherein at least one alternative driving route, for which the date-dependent and vehicle-weight-dependent driving bans are taken into account, can also be additionally displayed by means of the display device, and wherein the navigation device has an input device which can be actuated by the driver and the actuation of which makes it possible to select one of the displayed driving routes, and wherein the current date and the vehicle weight are also stored in the information device of the navigation device, wherein provision is made for the current date, the vehicle weight and the information relating to the date-dependent and vehicle-weight-dependent driving bans to be stored in the single information device of the navigation device that forms a structural unit. wherein the navigation device is designed in such a manner that indications of relevant date-dependent and vehicle-weight-dependent driving bans on the determined driving route can be displayed by means of the display device, and wherein at least one alternative driving route, for which the date-dependent and vehicle-weight-dependent driving bans are taken into account, can also be additionally displayed by means of the display device, and wherein the navigation device has an input device which can be actuated by the driver and the actuation of which makes it possible to select one of the displayed driving routes, and wherein the current date and the vehicle weight are also stored in the information device of the navigation device, wherein provision is made for the current date, the vehicle weight and the information relating to the date-dependent and vehicle-weight-dependent driving bans to be stored in the single information device of the navigation device that forms a structural unit.
An absorbent body comprising: a base material and a water absorbent resin powder fixed on the base material by a fixing agent, wherein the base material is a fiber base material having a mass per unit area in a range from 10 g/m 2 to 500 g/m 2, a material of a fiber constituting the fiber base material contains at least one member selected from the group consisting of polyethylene, polypropylene and polyethylene telephthalate, the fixing agent is a copolymer having an acid value in a range from 50 mgKOH/g to 130 mgKOH/g and including a structural unit derived from at least one monomer selected from the group consisting of an olefin and a vinyl aromatic compound and a structural unit derived from a monomer having an acidic group, the copolymer is a graft copolymer including a main chain having the structural unit and a side chain having the structural unit, and the monomer having an acidic group is at least one monomer selected from the group consisting of acrylic acid, methacrylic acid, maleic acid, fumaric acid and maleic anhydride.