mhurhangee/ep-ind-claims huggingface dataset:
A device for printing an image onto a floor surface, wherein the device comprises a controller and a printing system, which includes the following: at least one colorant tank (110, 111, 112) having colorant; at least one spray bar (201, 202, 203) having multiple nozzle assemblies arranged adjacent to one another, which each have a valve controllable by the controller and a colorant nozzle, via which the colorant can be applied to the floor surface, and a cleaning agent tank, which is connected via one or more supply lines to at least a part of the nozzle assemblies, wherein each of the nozzle assemblies has a cleaning nozzle, which is supplied via the supply line and associated with the respective colorant nozzle (210, 220, 230) and which is arranged so that cleaning agent can be sprayed from the outside onto the colorant nozzle (210, 220, 230), and wherein the colorant nozzle (210, 220, 230) is connected via a valve to the supply line, so that cleaning agent can be conducted into the interior of the colorant nozzle (210, 220, 230) and sprayed out of the colorant nozzle. at least one colorant tank (110, 111, 112) having colorant; at least one spray bar (201, 202, 203) having multiple nozzle assemblies arranged adjacent to one another, which each have a valve controllable by the controller and a colorant nozzle, via which the colorant can be applied to the floor surface, and a cleaning agent tank, which is connected via one or more supply lines to at least a part of the nozzle assemblies, wherein each of the nozzle assemblies has a cleaning nozzle, which is supplied via the supply line and associated with the respective colorant nozzle (210, 220, 230) and which is arranged so that cleaning agent can be sprayed from the outside onto the colorant nozzle (210, 220, 230), and wherein the colorant nozzle (210, 220, 230) is connected via a valve to the supply line, so that cleaning agent can be conducted into the interior of the colorant nozzle (210, 220, 230) and sprayed out of the colorant nozzle.
Gear unit for a connecting rod fitting of a window, a door or suchlike, with a gear piece to be activated by an activation element and with a connecting rod coupling element, which can be driven at least indirectly by the gear piece, and which can be coupled with a corresponding gear unit coupling element of a connecting rod, whereby the connecting rod coupling element defines a rotation point, around which a connecting rod device comprising the connecting rod can be rotated from an installation position to a shoulder into an end position for connecting the connecting rod with the gear unit.
A method for controlling a temperature of hot water through operation of a circulation pump (51, 61), comprising: judging whether a user uses the hot water; judging whether one of circulation pump operating modes is selected; and circulating the hot water in an outflow pipe to an inflow pipe by operating the circulation pump (51,61) provided on a bypass pipe (50,60) connecting the inflow pipe which direct water enters to the outflow pipe through which heated hot water flows out when the user uses the hot water and selects one of the circulation pump operating modes, characterized in that a continuous circulation pump operating mode is selected as the circulation pump operating mode in which when the user uses the hot water, the circulation pump (51,61) is continuously operated until the user stops using the hot water and in that mode the hot water is circulated such that some of the hot water in the outflow pipe flows into the inflow pipe through the bypass pipe (50,60) to be mixed with the direct water, and the temperature of the mixed water becomes higher than the temperature of the direct water, wherein the mixed water is then heated by a heat exchanger to reduce temperature difference of the hot water that flows out from the outflow pipe. judging whether a user uses the hot water; judging whether one of circulation pump operating modes is selected; and circulating the hot water in an outflow pipe to an inflow pipe by operating the circulation pump (51,61) provided on a bypass pipe (50,60) connecting the inflow pipe which direct water enters to the outflow pipe through which heated hot water flows out when the user uses the hot water and selects one of the circulation pump operating modes,
Polymerisable liquid crystal material comprising one or more polymerisable mesogenic compounds and at least one adhesion promoter, characterized in that the adhesion promoter is selected from a (meth)acrylic side chain polymers comprising at least one subunit of formula I, wherein R 1 denotes -H or -C m H 2m+1, m denotes an integer of 1 to 15, R 2 denotes each and independently and in each occurrence, a linear alkylene group having 1 to 4 carbon atoms, and n denotes an integer from 1 to 10. R 1 denotes -H or -C m H 2m+1, m denotes an integer of 1 to 15, R 2 denotes each and independently and in each occurrence, a linear alkylene group having 1 to 4 carbon atoms, and n denotes an integer from 1 to 10.
A method for visualizing using a rendering technique in which voxels are sampled along a ray through a volume, the method comprising: obtaining voxel data; modifying a first portion of the voxel data, the first portion of the voxel data associated with a first segmentation mask which defines its own transfer function that is required for volume rendering, the modifying including, setting the first portion of the voxel data to at least one of a plurality of permitted voxel values; applying a set of operators to the modified first portion of the voxel data and a remaining portion of the voxel data; and displaying the volume based on the applied set of operators, wherein the plurality of permitted voxel values comprises only these voxel values for which an opacity function defined by the transfer function generates an opacity of zero. obtaining voxel data; modifying a first portion of the voxel data, the first portion of the voxel data associated with a first segmentation mask which defines its own transfer function that is required for volume rendering, the modifying including, setting the first portion of the voxel data to at least one of a plurality of permitted voxel values; applying a set of operators to the modified first portion of the voxel data and a remaining portion of the voxel data; and displaying the volume based on the applied set of operators, wherein the plurality of permitted voxel values comprises only these voxel values for which an opacity function defined by the transfer function generates an opacity of zero.
An in-vehicle image capturing device comprising: an in-vehicle camera; a bracket for fixing a position of the in-vehicle camera; a passage on the bracket where the in-vehicle camera is inserted along a bond surface of the bracket and fixed, and an elastic body, wherein the passage is formed by a part of the bracket and the elastic body, and wherein the elastic body holds the in-vehicle camera on the bracket by pressing a supported portion of the in-vehicle camera against the bracket, characterized in that the in-vehicle image capturing device comprises a supporting section (14, 15b) including an abutting portion on which the supported portion abuts, and the elastic body, wherein the elastic body is formed separately from the abutting portion; the elastic body generates a force for clamping the supported portion, and the elastic body faces the abutting portion to clamp the supported portion. an in-vehicle camera; a bracket for fixing a position of the in-vehicle camera; a passage on the bracket where the in-vehicle camera is inserted along a bond surface of the bracket and fixed, and an elastic body, wherein the passage is formed by a part of the bracket and the elastic body, and wherein the elastic body holds the in-vehicle camera on the bracket by pressing a supported portion of the in-vehicle camera against the bracket, characterized in that the in-vehicle image capturing device comprises a supporting section (14, 15b) including an abutting portion on which the supported portion abuts, and the elastic body, wherein the elastic body is formed separately from the abutting portion; the elastic body generates a force for clamping the supported portion, and the elastic body faces the abutting portion to clamp the supported portion.
A vertical protective device for a medical display hanger, wherein the vertical protective device for the medical display hanger comprises a contact piece, a microswitch, a rotating shaft and a vertical protective plate, wherein the contact piece is connected to one end of the rotating shaft, the vertical protective plate is connected to the other end of the rotating shaft, and the microswitch is arranged on a microswitch support; characterized in that, when in use when a collision of the vertical protective plate happens, the rotating shaft drives the contact piece to rotate, and the contact piece triggers the microswitch, so as to control the medical display hanger to stop moving or immediately rise.
A vehicle seat structure comprising a seat part forming at least one seat surface, and a backrest, wherein the seat part is arranged on a seat console, wherein a platform device forming a standing surface is arranged under the seat part, the platform device being slidable, by means of a guide device, from a storage position in which the platform device is arranged under the seat part to a use position, characterized in that the seat part is articulately connected to the seat console and is foldable, for operating the platform device, from a use position to a folded position in which the seat surface is arranged facing the backrest. a platform device forming a standing surface is arranged under the seat part, the platform device being slidable, by means of a guide device, from a storage position in which the platform device is arranged under the seat part to a use position, characterized in that the seat part is articulately connected to the seat console and is foldable, for operating the platform device, from a use position to a folded position in which the seat surface is arranged facing the backrest.
Coating formulation for metals comprising a resin system with at least one ethylenically unsaturated monomer component, characterized in that there are at least one polymeric component with an acid (meth)acrylate or polymerizable, multiply functionalized carboxylic acids selected from the group of the dicarboxylic acids and AZO initiators or organic peroxides, wherein the monomer component is selected from the group of the methyl (meth)acrylates, ethyl (meth)acrylates, n-butyl (meth)acrylates, isobutyl (meth)acrylates, tert-butyl (meth)acrylates, 2-hydroxyethyl (meth)-acrylates, 2-hydroxypropyl (meth)acrylates and/or 2-ethylhexyl (meth)acrylates, and wherein the polymeric component is composed of a methyl (meth)acrylate, ethyl (meth)acrylate, n-butyl (meth)acrylate, isobutyl (meth)acrylate, tert-butyl (meth)acrylate, 2-hydroxyethyl (meth)-acrylate, 2-hydroxypropyl (meth)acrylate and/or 2-ethylhexyl (meth)acrylate.
An unmanned vehicle (100, 500, 600), comprising: a housing (102, 502), the housing including at least one propulsion motor (104, 504); a radar processing unit (106, 206) coupled to the housing; and an antenna (108, 208), the antenna including an antenna body defining at least one transmitting waveguide and at least one-of receiving waveguide, wherein the antenna body is formed as part of the housing, is formed from plastic and has a metallized surface, the at least one transmitting waveguide and at least one-of receiving waveguide coupled to the radar processing unit. a housing (102, 502), the housing including at least one propulsion motor (104, 504); a radar processing unit (106, 206) coupled to the housing; and an antenna (108, 208), the antenna including an antenna body defining at least one transmitting waveguide and at least one-of receiving waveguide, wherein the antenna body is formed as part of the housing, is formed from plastic and has a metallized surface, the at least one transmitting waveguide and at least one-of receiving waveguide coupled to the radar processing unit.
A method for offshore treatment of drill cuttings, comprising: pneumatically conveying contaminated drill cuttings into a first pressurized vessel (20; 30; 53a) having a lower conical section (20c; 30c) structured to achieve mass flow of the contaminated drill cuttings; transferring the contaminated drill cuttings to a reactor unit (40; 57) by applying a compressed gas to the first pressurized vessel whereby the contaminated drill cuttings flow out of the pressurized vessel into the reactor unit by positive pressure; applying heat to the contaminated drill cuttings in the reactor unit so as to vaporize contaminants from the contaminated drill cuttings; removing the vaporized contaminants from the reactor unit; transferring the de-contaminated drill cuttings from the reactor unit to a cuttings re-injection system, combining a fluid with the de-contaminated drill cuttings to produce a slurry, classifying the slurry with a classifier, the classifying comprising determining at least one of a group consisting of a density of the slurry and a viscosity of the slurry and a conductivity of the slurry and a particle size range of the slurry, and re-injecting the slurry comprising the de-contaminated drill cuttings into a well. pneumatically conveying contaminated drill cuttings into a first pressurized vessel (20; 30; 53a) having a lower conical section (20c; 30c) structured to achieve mass flow of the contaminated drill cuttings; transferring the contaminated drill cuttings to a reactor unit (40; 57) by applying a compressed gas to the first pressurized vessel whereby the contaminated drill cuttings flow out of the pressurized vessel into the reactor unit by positive pressure; applying heat to the contaminated drill cuttings in the reactor unit so as to vaporize contaminants from the contaminated drill cuttings; removing the vaporized contaminants from the reactor unit; transferring the de-contaminated drill cuttings from the reactor unit to a cuttings re-injection system, combining a fluid with the de-contaminated drill cuttings to produce a slurry, classifying the slurry with a classifier, the classifying comprising determining at least one of a group consisting of a density of the slurry and a viscosity of the slurry and a conductivity of the slurry and a particle size range of the slurry, and re-injecting the slurry comprising the de-contaminated drill cuttings into a well. combining a fluid with the de-contaminated drill cuttings to produce a slurry, classifying the slurry with a classifier, the classifying comprising determining at least one of a group consisting of a density of the slurry and a viscosity of the slurry and a conductivity of the slurry and a particle size range of the slurry, and re-injecting the slurry comprising the de-contaminated drill cuttings into a well.
Charge monitor for monitoring a charging process of a battery pack by a charger, comprising: - a recharge frequency determiner, adapted to determine a recharge frequency of the battery pack, and - a battery pack status determiner, adapted to determine a status of the battery pack based on the recharge frequency as: - operational, if the recharge frequency is below a first threshold, and - damaged, if the recharge frequency is above the first threshold; wherein the charge monitor comprises a temperature sensor, adapted to measure a temperature of the battery pack, characterized in that the battery pack status determiner is adapted to increase the first threshold if the temperature surpasses a threshold. - a recharge frequency determiner, adapted to determine a recharge frequency of the battery pack, and - a battery pack status determiner, adapted to determine a status of the battery pack based on the recharge frequency as: - operational, if the recharge frequency is below a first threshold, and - damaged, if the recharge frequency is above the first threshold; wherein the charge monitor comprises a temperature sensor, adapted to measure a temperature of the battery pack, characterized in that the battery pack status determiner is adapted to increase the first threshold if the temperature surpasses a threshold. - operational, if the recharge frequency is below a first threshold, and - damaged, if the recharge frequency is above the first threshold; wherein the charge monitor comprises a temperature sensor, adapted to measure a temperature of the battery pack, characterized in that the battery pack status determiner is adapted to increase the first threshold if the temperature surpasses a threshold. wherein the charge monitor comprises a temperature sensor, adapted to measure a temperature of the battery pack, characterized in that the battery pack status determiner is adapted to increase the first threshold if the temperature surpasses a threshold.
A method of manufacturing an evaporator of the microchannel type and suitable for cooling down electronic components, which method comprises the steps of: - providing a first and a second plate-like body, said second plate-like body comprising an inlet and an outlet (10") for a biphasic cooling fluid in/from the evaporator, - forming on a coupling face of said first plate-like body a plurality of grooves so as to put in fluid communication said inlet and said outlet (10"), - forming incisions on the inner surface of one or more grooves of said plurality of grooves, - overlapping and fluidic seal coupling said second plate-like body to said coupling face in such a way that a respective flow channel for the biphasic cooling fluid is defined at each groove, the method being characterized in that the one or more grooves of said plurality of grooves are formed by means of laser engraving, and in that the incisions extend between the ends of the groove. - providing a first and a second plate-like body, said second plate-like body comprising an inlet and an outlet (10") for a biphasic cooling fluid in/from the evaporator, - forming on a coupling face of said first plate-like body a plurality of grooves so as to put in fluid communication said inlet and said outlet (10"), - forming incisions on the inner surface of one or more grooves of said plurality of grooves, - overlapping and fluidic seal coupling said second plate-like body to said coupling face in such a way that a respective flow channel for the biphasic cooling fluid is defined at each groove, the method being characterized in that the one or more grooves of said plurality of grooves are formed by means of laser engraving, and in that the incisions extend between the ends of the groove.
A rectifier circuit connectable between an input signal source (V IN) and a load (27, 28), to supply an output signal (V OUT) to the load, comprising: - a first and a second diode (32, 41; 33, 40) electrically connected to one another to form a diode rectifier; - a first and a second switch (30, 38; 31, 36) connected in parallel, respectively, to the first and second diode, and having an own control terminal; - a first biasing network (34, 43; 35, 43), coupled to the control terminals of the first and second switches, and configured for closing, during a step of turning-on of the rectifier circuit, the first and second switches by means of a first turning-on signal (V IN -) which is a function of the input signal (V IN), so as to generate at output a rectified output signal (V OUT), characterized in that the first biasing network comprises: a first charge pump, which is connected to the control terminal of the second switch, and is configured for receiving at input the first turning-on signal (V IN -) and generating at output a first intermediate signal (V ctr_2), which is adapted to close the second switch; and a first resistive element, which is connected to the control terminal of the first switch and is configured for biasing, by the first turning-on signal (V IN -), the control terminal of the first switch. - a first and a second diode (32, 41; 33, 40) electrically connected to one another to form a diode rectifier; - a first and a second switch (30, 38; 31, 36) connected in parallel, respectively, to the first and second diode, and having an own control terminal; - a first biasing network (34, 43; 35, 43), coupled to the control terminals of the first and second switches, and configured for closing, during a step of turning-on of the rectifier circuit, the first and second switches by means of a first turning-on signal (V IN -) which is a function of the input signal (V IN), so as to generate at output a rectified output signal (V OUT), characterized in that the first biasing network comprises: a first charge pump, which is connected to the control terminal of the second switch, and is configured for receiving at input the first turning-on signal (V IN -) and generating at output a first intermediate signal (V ctr_2), which is adapted to close the second switch; and a first resistive element, which is connected to the control terminal of the first switch and is configured for biasing, by the first turning-on signal (V IN -), the control terminal of the first switch. a first charge pump, which is connected to the control terminal of the second switch, and is configured for receiving at input the first turning-on signal (V IN -) and generating at output a first intermediate signal (V ctr_2), which is adapted to close the second switch; and a first resistive element, which is connected to the control terminal of the first switch and is configured for biasing, by the first turning-on signal (V IN -), the control terminal of the first switch.
A method of concreting an excavation, in particular an excavation presenting a depth of not less than 100 meters, the method being characterized in that it comprises at least the following succession of steps: • placing a concreting column (12, 112, 212) in the excavation for concreting; and • performing a concreting cycle during which concrete is inserted into the concreting column (12, 112, 212) via its open top end, and a volume of concrete is retained at a distance from said open end so that the height of an empty space (70, 170, 270) defined between said volume of concrete and one of the ends of the concreting column (12, 112, 212) remains less than a limit value, equal to, for example, 40 meters. • placing a concreting column (12, 112, 212) in the excavation for concreting; and • performing a concreting cycle during which concrete is inserted into the concreting column (12, 112, 212) via its open top end, and a volume of concrete is retained at a distance from said open end so that the height of an empty space (70, 170, 270) defined between said volume of concrete and one of the ends of the concreting column (12, 112, 212) remains less than a limit value, equal to, for example, 40 meters.