mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing moulded parts by means of a 3D printing method for the production of casting moulds, comprising the steps of: a) producing a water-soluble casting mould, which has pores, by a powder-bed based layer construction method; b) sealing the surface of the casting mould with a material (9; 10), the material (9; 10) for sealing the surface of the casting mould being water-insoluble; c) making a cast blank of the moulded part by filling the casting mould with a flowable, curable material; d) dissolving the casting mould with an aqueous solution after the cast blank has solidified, characterised in that the aqueous solution is temperature-controlled and has a higher temperature than the room temperature of 20°C and the water-insoluble material used for sealing can be simultaneously washed off the cast blank, the temperature of the solution being above the melting temperature of the water-insoluble material used. a) producing a water-soluble casting mould, which has pores, by a powder-bed based layer construction method; b) sealing the surface of the casting mould with a material (9; 10), the material (9; 10) for sealing the surface of the casting mould being water-insoluble; c) making a cast blank of the moulded part by filling the casting mould with a flowable, curable material; d) dissolving the casting mould with an aqueous solution after the cast blank has solidified,
Two-component composition for use in a prophylaxis and/or treatment of bacterial infiltrations comprising the step of filling an opening in an implant abutment, wherein the two-component composition exhibits a volume expansion, in particular a volume expansion of below 1 %, or a volume reduction, in particular a volume reduction of less than 1 %, wherein the two-component composition is a silicone composition that is crosslinkable by an addition reaction.
A remote monitoring system comprising a technical device to be maintained or operated, a mobile remote maintenance unit, a communications network, and at least one communications remote station, wherein the remote maintenance unit comprises a computer system designed for mobile operation and at least one main processor, volatile and non-volatile storage means, a sensor interface and a communications interface, and wherein, further, the mobile remote maintenance unit has a human-machine interface, and wherein a data connection between the communications interface of the remote maintenance unit and the communications remote station exists via the communications network, and wherein a contactlessly readable data memory is provided on the technical device to be maintained, and wherein the mobile remote maintenance unit has a reading means for reading out the data memory, characterized in that configuration data of the communications interface and configuration data of the communications remote station are stored in the data memory, and that the configuration data of the communications interface are designed as at least one of the group comprising network identifier, user name, password, network parameters and VPN parameters.
Gas lock for separating two gas chambers (G1, G2), comprising a) at least one inflow body, which has at least two inlet passages (H1, H2) for a gas, which open out into a first side of the inflow body, b) a wall which is arranged at a distance from the first side of the at least one inflow body, wherein a gap, which is in fluid communication with the at least two inlet passages (H1, H2), is formed between the wall and the at least one inflow body, c) at least two outflow openings (i1, i2) for the gas, which are in fluid communication with the gap, wherein in the first side, delimiting the at least one inflow body, and/or in the side of the wall that is facing the first side of the inflow body there are at least n measuring chambers (C1, C2,... Cn) for measuring at least one physical and/or chemical property of the gas, where n is a whole number ≥ 2, characterized in that each measuring chamber is flanked on each side by at least one inlet passage (H1, H2,... H2n), wherein a possibility for suction removal (AS1, AS2,... AS(n-1)) is respectively provided between the at least one measuring passage (Hx) flanking a measuring chamber (Cn) and the measuring passage (Hx+1) neighbouring this measuring passage (Hx), which flanks a neighbouring measuring chamber (Cn+1). a) at least one inflow body, which has at least two inlet passages (H1, H2) for a gas, which open out into a first side of the inflow body, b) a wall which is arranged at a distance from the first side of the at least one inflow body, wherein a gap, which is in fluid communication with the at least two inlet passages (H1, H2), is formed between the wall and the at least one inflow body, c) at least two outflow openings (i1, i2) for the gas, which are in fluid communication with the gap,
A method for controlling use of a network slice, wherein the method comprises: receiving, by a first network element, a first message, wherein the first message is used to request access of a terminal device to a target network slice, the target network slice covers a plurality of regions, the plurality of regions comprise a first region, and the first region is a region in which the terminal device is currently located; and determining, by the first network element based on a first condition, whether to allow the terminal device to access the target network slice, wherein the first condition comprises: whether a service usage of the target network slice in the first region exceeds a first service limit and whether an overall service usage of the target network slice exceeds an overall limit. receiving, by a first network element, a first message, wherein the first message is used to request access of a terminal device to a target network slice, the target network slice covers a plurality of regions, the plurality of regions comprise a first region, and the first region is a region in which the terminal device is currently located; and determining, by the first network element based on a first condition, whether to allow the terminal device to access the target network slice, wherein the first condition comprises: whether a service usage of the target network slice in the first region exceeds a first service limit and whether an overall service usage of the target network slice exceeds an overall limit.
Test bench for a switch machine of a railway switch, the test bench comprising: a rigid frame adapted to receive the switch machine, the switch machine comprising a switch motor adapted to move a driving shaft; characterized in that the test bench further comprises: a pair of outer rails fixed to the frame, wherein the switch machine is adapted to be fixed to the outer rails; a pair of inner rails, which are movable with respect to the outer rails between a first end position and a second end position, the inner rails being adapted to be connected to the driving shaft of the switch machine; and a braking module connected to the pair of inner rails, the braking module is adapted to generate a braking force that brakes the movement of the inner rails. a pair of outer rails fixed to the frame, wherein the switch machine is adapted to be fixed to the outer rails; a pair of inner rails, which are movable with respect to the outer rails between a first end position and a second end position, the inner rails being adapted to be connected to the driving shaft of the switch machine; and a braking module connected to the pair of inner rails, the braking module is adapted to generate a braking force that brakes the movement of the inner rails.
A method for producing a solar cell having a light-receiving surface, comprising the steps of: forming an n-type diffusion layer in the surface of a p-type silicon substrate on the light-receiving side, forming an antireflection/passivation film on the substrate on said diffusion layer, the antireflection/ passivation film being made of SiN and formed by plasma-enhanced CVD, annealing the substrate thereafter, the annealing step being at 500°C to 850°C in an atmosphere of H 2, N 2 or mixture thereof, and then forming electrodes on the substrate and firing the electrodes. forming an n-type diffusion layer in the surface of a p-type silicon substrate on the light-receiving side, forming an antireflection/passivation film on the substrate on said diffusion layer, the antireflection/ passivation film being made of SiN and formed by plasma-enhanced CVD, annealing the substrate thereafter, the annealing step being at 500°C to 850°C in an atmosphere of H 2, N 2 or mixture thereof, and then forming electrodes on the substrate and firing the electrodes.
A drilling device, comprising: a first speed control unit configured to keep an engine speed at a first speed to bring the drilling device in an idling state, while the drilling device is standing by for a drilling operation; a second speed control unit configured to determine whether to increase the engine speed to a second speed that is higher than the first speed, depending on whether or not actuation of any one of a rotating mechanism, a feed mechanism, a rod changer, or a boom for a rock drill is detected; and a third speed control unit configured to determine whether to increase the engine speed to a third speed that is higher than the second speed, depending on whether or not actuation of a striking mechanism or a flushing mechanism of the rock drill is detected, wherein the third speed control unit is configured to decrease the engine speed from the third speed to the first speed, when driving of the striking mechanism and the flushing mechanism finishes, or the third speed control unit is configured to decrease the engine speed from the third speed to the second speed when driving of the striking mechanism and the flushing mechanism finishes, and the second speed control unit decreases the engine speed from the second speed to the first speed when none of the rotating mechanism, the feed mechanism, the rod changer, the boom, the striking mechanism, or the flushing mechanism is being driven continuously for a certain period of time, after the third speed control unit decreases the engine speed to the second speed. a first speed control unit configured to keep an engine speed at a first speed to bring the drilling device in an idling state, while the drilling device is standing by for a drilling operation; a second speed control unit configured to determine whether to increase the engine speed to a second speed that is higher than the first speed, depending on whether or not actuation of any one of a rotating mechanism, a feed mechanism, a rod changer, or a boom for a rock drill is detected; and a third speed control unit configured to determine whether to increase the engine speed to a third speed that is higher than the second speed, depending on whether or not actuation of a striking mechanism or a flushing mechanism of the rock drill is detected, wherein the third speed control unit is configured to decrease the engine speed from the third speed to the first speed, when driving of the striking mechanism and the flushing mechanism finishes, or the third speed control unit is configured to decrease the engine speed from the third speed to the second speed when driving of the striking mechanism and the flushing mechanism finishes, and the second speed control unit decreases the engine speed from the second speed to the first speed when none of the rotating mechanism, the feed mechanism, the rod changer, the boom, the striking mechanism, or the flushing mechanism is being driven continuously for a certain period of time, after the third speed control unit decreases the engine speed to the second speed.
An input control console (400, 1000) for an elongate device, the console comprising: a first input control (434, 1030) having an infinite length of travel in a first direction, the first input control providing a first command suitable for controlling an insertion depth of the elongate device; a first raised ring located on a top surface of the console, the first input control being mounted within the first raised ring; a second input control (446, 1040) having an infinite length of travel in more than one direction, the second input control providing a second command suitable for controlling steering of a distal end of the elongate device including a pitch setting and a yaw setting; a second raised ring located on the top surface of the console, the second input control being mounted within the second raised ring; one or more transceivers for coupling the console to a control unit for the elongate device; and interface circuits for coupling the first input control and the second input control to the one or more transceivers. a first input control (434, 1030) having an infinite length of travel in a first direction, the first input control providing a first command suitable for controlling an insertion depth of the elongate device; a first raised ring located on a top surface of the console, the first input control being mounted within the first raised ring; a second input control (446, 1040) having an infinite length of travel in more than one direction, the second input control providing a second command suitable for controlling steering of a distal end of the elongate device including a pitch setting and a yaw setting; a second raised ring located on the top surface of the console, the second input control being mounted within the second raised ring; one or more transceivers for coupling the console to a control unit for the elongate device; and interface circuits for coupling the first input control and the second input control to the one or more transceivers.
A pharmaceutical formulation suitable for injection, comprising: sesame oil; ethanol; and an immune response modifier compound which is N-(4-{[4-amino-2-butyl-1 H- imidazo[4,5- c]quinolin-1-yl]oxy}butyl)octadecanamide, or a pharmaceutically acceptable salt thereof. sesame oil; ethanol; and an immune response modifier compound which is N-(4-{[4-amino-2-butyl-1 H- imidazo[4,5- c]quinolin-1-yl]oxy}butyl)octadecanamide, or a pharmaceutically acceptable salt thereof.
Method for a driver assistance system of a vehicle, wherein the driver assistance system is able to control the vehicle in an at least partially automatic fashion by means of an autopilot function, wherein the method comprises: - determining an activation state of the autopilot function, and - activating a display device of the driver assistance system as a function of the activation state of the autopilot function, wherein the display device comprises input means which can be activated by an occupant of the vehicle, wherein the method also comprises: - acquiring configuration information by means of the input means for a configuration of the autopilot function, characterized in that the configuration information comprises: - a route selection, wherein an autopilot route component is displayed for each selectable route of the route selected on the display device, wherein the driver assistance system is able to control the vehicle automatically in the autopilot route component. - determining an activation state of the autopilot function, and - activating a display device of the driver assistance system as a function of the activation state of the autopilot function, - acquiring configuration information by means of the input means for a configuration of the autopilot function, characterized in that the configuration information comprises: - a route selection, wherein an autopilot route component is displayed for each selectable route of the route selected on the display device, wherein the driver assistance system is able to control the vehicle automatically in the autopilot route component.
A lubrication system for a tool powered by a drive fluid, the lubrication system comprising: a reservoir configured to deliver a lubricant; a plunger disposed within the reservoir, the plunger configured to selectively generate a pilot signal based on a level of the lubricant; and a valve comprising: a housing having a drive fluid inlet and a drive fluid outlet; a pilot spool provided at least partly within the housing, the pilot spool configured to move from a neutral position to an actuated position in response to the pilot signal from the plunger; and a main spool comprising a hollow portion at least partially surrounding the pilot spool, the main spool being selectively actuated by a pressure of the drive fluid to move from a first position to a second position in response to the movement of the pilot spool, wherein in the second position the drive fluid inlet is in fluid communication with the drive fluid outlet. a reservoir configured to deliver a lubricant; a plunger disposed within the reservoir, the plunger configured to selectively generate a pilot signal based on a level of the lubricant; and a valve comprising: a housing having a drive fluid inlet and a drive fluid outlet; a pilot spool provided at least partly within the housing, the pilot spool configured to move from a neutral position to an actuated position in response to the pilot signal from the plunger; and a main spool comprising a hollow portion at least partially surrounding the pilot spool, the main spool being selectively actuated by a pressure of the drive fluid to move from a first position to a second position in response to the movement of the pilot spool, wherein in the second position the drive fluid inlet is in fluid communication with the drive fluid outlet. a housing having a drive fluid inlet and a drive fluid outlet; a pilot spool provided at least partly within the housing, the pilot spool configured to move from a neutral position to an actuated position in response to the pilot signal from the plunger; and a main spool comprising a hollow portion at least partially surrounding the pilot spool, the main spool being selectively actuated by a pressure of the drive fluid to move from a first position to a second position in response to the movement of the pilot spool, wherein in the second position the drive fluid inlet is in fluid communication with the drive fluid outlet.
A combined fan-compressor impeller, comprising a single hub and a plurality of spaced main blades extending outwardly from said hub, an air passage channel being defined between two of said main blades, wherein each of said main blades is a mixed flow blade which continuously extends from a fan section at an inlet end of a channel to a compressor section at an outlet end of said channel without any axial clearance between said fan section and said compressor section, thereby providing aerodynamic matching of pressurized air flowing through said channel from said fan section to said compressor section, characterized in that each of said main mixed flow blades is configured with an interface line at a hub-blade interface that is initially substantially axially extending relative to an axis of rotation and that is oriented diagonally relative to said axis of rotation adjacent to said outlet end, and with a three-dimensional blade profile having a variable blade angle (β) between a blade surface and said axis of rotation.
A propylene resin microporous film, having micropores formed by uniaxially stretching a propylene resin film, and having an air permeability of 100 to 400 s/100 mL, and a rate of surface aperture of 30 to 55%, wherein the propylene resin has a molecular weight distribution (weight average molecular weight / number average molecular weight) of 7.5 to 12.0, wherein the propylene resin has a weight average molecular weight of 250,000 to 500,000 and a melting point of 160 to 170°C, wherein the longest diameter of aperture edges of the micropores is 1 μm or less, and the average longer diameter of the aperture edges is 500 nm or less, wherein a pore density is 15 pores/μm 2 or more.
A method for selecting and applying a dedicated quality-of-service, QoS, class for a user equipment within a home network that communicates with a data network, wherein the UE communicates with the data network over a communication path, wherein the communication path comprises a first communication link of a first QoS class between the UE and a Residential Gateway, RG, and a second communication link of a second QoS class between the RG and the data network, wherein the RG initially selects a default QoS class for the first QoS class for the UE, wherein the communication comprises an identification of the UE and a traffic descriptor that is received by the RG, wherein the RG selects a dedicated QoS class based on the received identification and the received traffic descriptor, and wherein the RG applies the dedicated QoS class as the first QoS class. equipment within a home network that communicates with a data network, wherein the UE communicates with the data network over a communication path, wherein the communication path comprises a first communication link of a first QoS class between the UE and a Residential Gateway, RG, and a second communication link of a second QoS class between the RG and the data network, wherein the RG initially selects a default QoS class for the first QoS class for the UE, wherein the communication comprises an identification of the UE and a traffic descriptor that is received by the RG, wherein the RG selects a dedicated QoS class based on the received identification and the received traffic descriptor, and wherein the RG applies the dedicated QoS class as the first QoS class.
A conductive carbon mixture for producing an electrode for an electric storage device, comprising: an oxidized conductive carbon obtained by giving an oxidizing treatment to a carbon raw material selected from a group consisting of porous carbon powder, Ketjen Black, furnace black with pores, carbon nanofiber and carbon nanotube and having a hydrophilic part accounting for 10 % by mass or more of the entire oxidized conductive carbon, in which the hydrophilic part is a part that is dispersed in a supernatant fluid obtained by the process of adding 0.1 g of the oxidized conductive carbon to 20 ml of an ammonia aqueous solution with pH 11, applying ultrasonic irradiation for 1 minute, and leaving a fluid obtained for 5 hours to precipitate its solid phase part; and a different conductive carbon which is different from the oxidized conductive carbon, wherein at least part of the oxidized conductive carbon is deformed into a paste-like state in which the grain boundary of carbon primary particles is not observed and non-particulate amorphous carbons are connected with each other in an SEM image at a magnification of 25,000, and the deformed oxidized conductive carbon is attached to a surface of the different conductive carbon. an oxidized conductive carbon obtained by giving an oxidizing treatment to a carbon raw material selected from a group consisting of porous carbon powder, Ketjen Black, furnace black with pores, carbon nanofiber and carbon nanotube and having a hydrophilic part accounting for 10 % by mass or more of the entire oxidized conductive carbon, in which the hydrophilic part is a part that is dispersed in a supernatant fluid obtained by the process of adding 0.1 g of the oxidized conductive carbon to 20 ml of an ammonia aqueous solution with pH 11, applying ultrasonic irradiation for 1 minute, and leaving a fluid obtained for 5 hours to precipitate its solid phase part; and a different conductive carbon which is different from the oxidized conductive carbon,