mhurhangee/ep-ind-claims huggingface dataset:
A parking brake module of a parking brake device, with which an application of pressure medium of at least one brake actuator can be controlled, wherein the parking brake module has an electronic control device, at least one solenoid valve that can be actuated by the control device, a pressure medium boosting valve for application of pressure medium of the at least one brake actuator and at least one pressure medium input, via which the parking brake module can be supplied with pressure medium, wherein the parking brake module has an emergency release pressure medium connection and a double check valve with two inputs and one output, characterized in that the parking brake module has a first pressure medium line, with which the emergency release pressure medium connection is fluidically connected via a check valve to the supply input of the pressure medium boosting valve such that pressure medium pressure means flows through this first pressure medium line from the emergency release pressure medium connection to the pressure medium boosting valve, in case the applied pressure on the emergency release pressure medium connection is greater than the applied pressure on the supply input of the pressure medium boosting valve, and the parking brake module has a second pressure medium line, via which the emergency release pressure medium connection or a further pressure medium connection of the parking brake module is fluidically connected to a first input of the double check valve such that pressure medium pressure means flows through this second pressure medium line from the emergency release pressure medium connection to the double check valve, in case the applied pressure on the emergency release pressure medium connection is greater than the applied pressure on the second input of the double check valve or the pressure medium pressure means flows through this second pressure medium line from the further pressure medium connection to the double check valve, in case the applied pressure on the further pressure medium connection is greater than the applied pressure on the second input of the double check valve and is greater than the applied pressure on the emergency release pressure medium connection.
A reflector assembly (200, 300) for a molten chloride fast reactor (MCFR) comprising: a support structure configured to encapsulate a reactor core for containing nuclear fuel; a plurality of reflectors disposed within the support structure, wherein each of the plurality of reflectors selectively hold any one of a plurality of reflector materials to reflect fission born neutrons back to a center of the reactor core; and wherein each of the plurality of reflectors are coupled to a reflector material circuit configured to change the one of the plurality of reflector materials held in each of the plurality of reflectors to a different one of the plurality of reflector materials; wherein the one of a plurality of reflector materials is a fast neutron reflector material, and the different one of the plurality of reflector materials is a neutron moderator material; wherein the support structure comprises at least one reflector structure, wherein the at least one reflector structure is circumferentially arrangeable in a substantially cylindrical shape; and the plurality of reflectors is one or more tank sections disposed within the at least one reflector structure; wherein the at least one reflector structure comprises two circumferential ends, and wherein the two circumferential ends comprise curved surfaces; wherein the at least one reflector structure defines a longitudinal axis, characterized in that the at least one reflector structure comprises two or more tank sections of the one or more tanks sections, each of the two of more tank sections axially aligned along the longitudinal axis. a support structure configured to encapsulate a reactor core for containing nuclear fuel; a plurality of reflectors disposed within the support structure, wherein each of the plurality of reflectors selectively hold any one of a plurality of reflector materials to reflect fission born neutrons back to a center of the reactor core; and wherein each of the plurality of reflectors are coupled to a reflector material circuit configured to change the one of the plurality of reflector materials held in each of the plurality of reflectors to a different one of the plurality of reflector materials; wherein the one of a plurality of reflector materials is a fast neutron reflector material, and the different one of the plurality of reflector materials is a neutron moderator material; wherein the support structure comprises at least one reflector structure, wherein the at least one reflector structure is circumferentially arrangeable in a substantially cylindrical shape; and the plurality of reflectors is one or more tank sections disposed within the at least one reflector structure; wherein the at least one reflector structure comprises two circumferential ends, and wherein the two circumferential ends comprise curved surfaces; wherein the at least one reflector structure defines a longitudinal axis, characterized in that the at least one reflector structure comprises two or more tank sections of the one or more tanks sections, each of the two of more tank sections axially aligned along the longitudinal axis.
A method of operating a terminal by using a Mobile Device Management, MDM, solution, the method comprising: installing an application; receiving a license key and a security policy established in an MDM server, from the MDM server configured to receive the license key from an Enterprise License Management, ELM, server, wherein the license key is generated by the ELM server; restricting at least one Application Program Interface, API, permission based on the received security policy; inquiring the ELM server as to whether the license key is valid for registering the terminal in the ELM server; receiving a Right Object,R/O, that is mapped onto the license key and comprises a permission list from the ELM server, if the license key is valid; adjusting the restricted at least one API permission based on the permission list comprised in the received R/O; and storing the adjusted at least one API permission, installing an application; receiving a license key and a security policy established in an MDM server, from the MDM server configured to receive the license key from an Enterprise License Management, ELM, server, wherein the license key is generated by the ELM server; restricting at least one Application Program Interface, API, permission based on the received security policy; inquiring the ELM server as to whether the license key is valid for registering the terminal in the ELM server; receiving a Right Object,R/O, that is mapped onto the license key and comprises a permission list from the ELM server, if the license key is valid; adjusting the restricted at least one API permission based on the permission list comprised in the received R/O; and storing the adjusted at least one API permission,
Stepladder comprising steps which are each pivotally fastened, by the lateral end regions thereof, to a pair of opposing stringers and to a pair of opposing stabilising rods, the stabilising rods and the stringers each being pivotally connected, by one of the ends thereof, to a guiding slide which, together with the stabilising rods and the stringers, is mounted so as to run on guiding rails in a retractable and extendible manner in a storage space of a vehicle, the stabilising rods and the stringers being, for this purpose, arranged in parallel with one another and, together with the steps, being pivotable relative to one other from a usage position of the stepladder, which is oblique in the extended state of the guiding slide, into a horizontal insertion position of the stepladder, the regions (12, 13, 14, 15) of directly adjacent components, namely the steps, the stringers, the stabilisation rods and the guiding slide, which regions are mutually facing between the insertion and usage positions (10, 9), also being mutually spaced, and the steps being designed as a sheet metal structure or extruded profile, made of e.g. aluminium, and being U-shaped when viewed from the side, at least the open lateral sides of the sheet metal structure or extruded profile made of aluminium or even made of e.g. plastics material being closed by side plates, characterised in that said mutually facing regions (12, 13, 14, 15) of directly adjacent components are spaced by at least 1.8 cm, and in that the side plates are each bent in an L shape in the longitudinal direction thereof, and in that one of the legs of the L shape is formed in the manner of a hook counter to the closure direction of the side plate and is provided for fitting the pivotal connection to one of the stringers.
A method for quantifying exosomes in a sample comprising: contacting the sample with lectin immobilized on a substrate; contacting exosomes bound to the lectin with a detectable exosome-binding agent; and measuring a signal from the bound detectable exosome-binding agent, thereby quantifying the bound exosomes; wherein the lectin is selected from the group consisting of Galanthus nivalis lectin, Narcissus pseudonarcissus lectin, Allium sativum lectin, Lens culinaris lectin, Sambucus nigra lectin, Maackia amurensis lectin, and concanavalin A. contacting the sample with lectin immobilized on a substrate; contacting exosomes bound to the lectin with a detectable exosome-binding agent; and measuring a signal from the bound detectable exosome-binding agent, thereby quantifying the bound exosomes;
A power safety circuit, comprising a power sense terminal; an output terminal; an output driver unit connected to said output terminal; an input terminal connectable to receive a first power from a power source and arranged to supply said first power to said output driver unit; and a power detection unit arranged to detect a state of said input terminal and provide a power sense signal to said power sense terminal; wherein said power sense terminal is arranged to supply a second power to said output driver unit when said power sense signal indicates a level of said first power below a minimum level for driving said output terminal, wherein a level of said second power is lower than said level of said first power.
A system for three-dimensional projection of right-eye images and left-eye images, comprising: a first lens element (136, 138) for projecting the right-eye images; a second lens element (137, 139) for projecting the left-eye images; a first linear polarizen (124, 224) for transmitting light having a first polarization axis direction; and a second linear polarizer (125, 225, 325) for transmitting light having a second polarization axis direction; characterised in that: the first and second linear polarizers are reflective polarizers configured for limiting luminant flux reaching the respective first and second lens elements by reflecting light having polarization direction orthogonal to the respective first and second polarization axes. a first lens element (136, 138) for projecting the right-eye images; a second lens element (137, 139) for projecting the left-eye images; a first linear polarizen (124, 224) for transmitting light having a first polarization axis direction; and a second linear polarizer (125, 225, 325) for transmitting light having a second polarization axis direction;
A vehicle wiper blade including at least one wiper rubber intended to come to bear on a glazed surface and at least one bending member housed in a support, the wiper rubber being retained by the support, the bending member being configured to generate a curvature of the wiper blade, the bending member being in the form of a longitudinally extending strip, the strip including, seen in cross section, an intermediate portion disposed between two lateral portions (3a, 3b) of the strip, the first thickness of the intermediate portion is less than a second thickness of at least one of the lateral portions (3a, 3b), the intermediate portion of the bending member being delimited by a first face that has a concave profile seen from the exterior of the bending member, the bending member including at least one transition regularly and progressively disposed between the intermediate portion and at least one of the lateral portions (3a, 3b), at least one lateral portion (3a, 3b) of the bending member including a longitudinal edge surface of the strip, two tops and two chamfers that connect each top to the longitudinal edge surface.
A luminaire comprising: an array of LED modules generating a directional light beam; a first micro lens array; and a second micro lens array coupled with a first multi-cell louver mask array which can be moved along the light beam; characterized by a second multi-cell louver mask array where each cell is large enough to contain the area bounded by a plurality of cells from the first multi-cell louver mask array. an array of LED modules generating a directional light beam; a first micro lens array; and a second micro lens array coupled with a first multi-cell louver mask array which can be moved along the light beam; characterized by a second multi-cell louver mask array where each cell is large enough to contain the area bounded by a plurality of cells from the first multi-cell louver mask array.
Refrigeration appliance door with a first tray, in which a first recess is made, a second tray, which is joined together with the first tray in order to delimit a cavity, an insulating material layer enclosed within the cavity and at least one first pipeline, which extends between a through-hole in the first tray through the cavity to a second through-hole, wherein the second through-hole is provided on the second tray, wherein a transfer element is fastened to the recess, the transfer element having an end face which abuts the second tray and through which a bore hole overlapping with the second through-hole extends, wherein an end of the first pipeline facing away from the through-hole of the first tray is accommodated in the bore hole, characterised in that a second pipeline extends through the cavity between a suspension bracket of the door and a second bore hole of the transfer element.
A computer system for part production using flow infill design, comprising: one or more processors; and one or more computer-readable media having stored thereon executable instructions that when executed by the one or more processors configure the computer system to perform at least the following: receive a computer-aided design file that describes physical dimensions of a target object; identify a physical boundary portion of the target object within the CAD file, wherein the physical boundary portion comprises a portion of the target object that is configured to enclose a coreactive infill material; generate a first tool path to additively manufacture the physical boundary portion; send instructions to a dispenser (130, 132) that cause the dispenser (130, 132) to implement the first tool path while dispensing a boundary material; and generate a command to dispense the coreactive infill material within the physical boundary portion, wherein the coreactive infill material chemically bonds with the boundary material. one or more processors; and one or more computer-readable media having stored thereon executable instructions that when executed by the one or more processors configure the computer system to perform at least the following: receive a computer-aided design file that describes physical dimensions of a target object; identify a physical boundary portion of the target object within the CAD file, wherein the physical boundary portion comprises a portion of the target object that is configured to enclose a coreactive infill material; generate a first tool path to additively manufacture the physical boundary portion; send instructions to a dispenser (130, 132) that cause the dispenser (130, 132) to implement the first tool path while dispensing a boundary material; and generate a command to dispense the coreactive infill material within the physical boundary portion, wherein the coreactive infill material chemically bonds with the boundary material. receive a computer-aided design file that describes physical dimensions of a target object; identify a physical boundary portion of the target object within the CAD file, wherein the physical boundary portion comprises a portion of the target object that is configured to enclose a coreactive infill material; generate a first tool path to additively manufacture the physical boundary portion; send instructions to a dispenser (130, 132) that cause the dispenser (130, 132) to implement the first tool path while dispensing a boundary material; and generate a command to dispense the coreactive infill material within the physical boundary portion, wherein the coreactive infill material chemically bonds with the boundary material.
A method of surface-treating an aluminum alloy, comprising: pretreating an aluminum alloy; immersing the pretreated aluminum alloy in an etching solution having a predetermined composition so that a surface of the aluminum alloy is etched, thus forming a transparent glossy film; subjecting the aluminum alloy having the transparent glossy film to anodic oxidation, thus forming an oxide film on the surface of the aluminum alloy; and post-treating the aluminum alloy having the oxide film; characterised in that the etching solution is prepared by heat-dissolving 45 ∼ 475 g of acidic ammonium fluoride in a mixed solution resulting from mixing 1 L of water and 1 ∼ 9% of boric acid based on a total weight thereof, and the aluminum alloy is etched by being immersed in the etching solution at room temperature for 1 ∼ 10 min. pretreating an aluminum alloy; immersing the pretreated aluminum alloy in an etching solution having a predetermined composition so that a surface of the aluminum alloy is etched, thus forming a transparent glossy film; subjecting the aluminum alloy having the transparent glossy film to anodic oxidation, thus forming an oxide film on the surface of the aluminum alloy; and post-treating the aluminum alloy having the oxide film; characterised in that the etching solution is prepared by heat-dissolving 45 ∼ 475 g of acidic ammonium fluoride in a mixed solution resulting from mixing 1 L of water and 1 ∼ 9% of boric acid based on a total weight thereof, and the aluminum alloy is etched by being immersed in the etching solution at room temperature for 1 ∼ 10 min.
An in vitro method for assessing the risk of preeclampsia in a subject, comprising determining an expression level of LRG1 in a biological sample from said subject, wherein an elevated LRG1 level is indicative of risk of hypertensive disorders of pregnancy, wherein the level of LRG1 in the biological sample relative to a control value is at least a 15% elevation.
An edible animal chew comprising a starch content of 50 to 75 wt% relative to the total weight of the chew, wherein the starch content comprises less than 28 wt% amylose, and wherein the starch content comprises a potato starch content of from 5 to 20 wt% relative to the total weight of the chew; a humectant content of 10 to 20 wt% relative to the total -3 weight of the chew; and a density of 1.0 g cm or less.
A clip device for left atrial appendage isolation, formed by first and second jaws, designed so that they are parallel in a closed position and overlap each other in length, and a clamping element installed between the first ends of the first and second jaws, which is designed to hold the first and second jaws in a clamped position, wherein the clip device is equipped with a connecting device, wherein the clamping element is designed to contain a first hinge, and the connecting device comprises a second hinge, the first and second hinges being connected to the corresponding ends of the first jaw, characterized in that the clamping element is further designed to move the first and second jaws from a diverged position to the clamped position and to rotate the specified first jaw relative to the second jaw made fixed, at an angle ranging 0° to 180°, while the first hinge is made controllable.
Heating apparatus comprising a condensing boiler, a heat pump, and a primary circuit, with the water of the primary circuit passing through the condenser of said heat pump and successively warmed, moreover, by the combustion products generated in said condensing boiler; wherein it comprises some devices in which the following heat exchanges occur: - a first heat exchange in heat exchange means between the exhaust gases coming from the condensing boiler, on the one side, and the refrigerant fluid of the heat pump, on the other side; and - a second heat exchange, at higher temperature and inside the condenser, between said refrigerant fluid, on the one side, and the water flowing in the primary circuit, on the other side, in order to increase the temperature of the water flowing in the primary circuit; wherein said first heat exchange is a direct heat exchange between the exhaust gases and the refrigerant fluid, and said first heat exchange occurs in heat exchange means belonging to said first heat pump; wherein there is also a third heat exchange in correspondence with evaporation means of said heat pump, between the air coming from the outside through a single ambient air inlet duct, on the one hand, and the refrigerant fluid of the heat pump, on the other hand; wherein the condensing boiler and the heat pump are contained inside a single-piece housing which substantially comprises all functional elements of said apparatus; and the apparatus comprises said single ambient air inlet duct, a single evacuation duct of the air left in the only housing, the apparatus being characterized in that it comprises an evacuation duct of the exhaust gases coming from the boiler separated from said single ambient air inlet duct and from said single evacuation duct; and in that said evacuation duct has a section whose surface is at least five times smaller than the section of the single ambient air inlet duct and than the section of the single evacuation duct of the air left in the only housing. - a first heat exchange in heat exchange means between the exhaust gases coming from the condensing boiler, on the one side, and the refrigerant fluid of the heat pump, on the other side; and - a second heat exchange, at higher temperature and inside the condenser, between said refrigerant fluid, on the one side, and the water flowing in the primary circuit, on the other side, in order to increase the temperature of the water flowing in the primary circuit;
Bale cutting device having a carrier, which is pivotable about a pivot axis, and at least one cutter bar, wherein the cutter bar is accommodated on the carrier so as to be movable at least substantially in the direction of a longitudinal extent of the carrier, characterized in that the carrier can take up at least one position in which the cutter bar can engage on and/or in a bale at least substantially opposite the pivot axis, with respect to a bale centre point of a bale.