mhurhangee/ep-ind-claims huggingface dataset:
A method of producing one or more moulded bodies, the method comprising the steps of: a. layer-wise construction of one or more moulded bodies by means of repeated application of particulate material in a 3D printing process, the particulate material being characterized by a single-phase coating or covering with one or more materials, the coating or covering being a binder, b. a pre-solidification step for achieving pre-solidification of the moulded body, wherein the pre-solidification step is performed by using a solvent and a polymerization reaction by selectively printing a solvent on the binder-covered particulate material, c. an unpacking step in which the non-solidified particulate material is separated from the pre-solidified moulded body, d. a final solidification step, in which the moulded body obtains its final strength, by the action of thermal energy, wherein the binder contains polymerizable monomers and wherein the coating or coveringcontains substances for starting a polymerization with the binder. a. layer-wise construction of one or more moulded bodies by means of repeated application of particulate material in a 3D printing process, the particulate material being characterized by a single-phase coating or covering with one or more materials, the coating or covering being a binder, b. a pre-solidification step for achieving pre-solidification of the moulded body, wherein the pre-solidification step is performed by using a solvent and a polymerization reaction by selectively printing a solvent on the binder-covered particulate material, c. an unpacking step in which the non-solidified particulate material is separated from the pre-solidified moulded body, d. a final solidification step, in which the moulded body obtains its final strength, by the action of thermal energy, wherein the binder contains polymerizable monomers and wherein the coating or coveringcontains substances for starting a polymerization with the binder.
Household refrigeration apparatus with a housing and with a door (5, 6), which is pivotably disposed at the housing by a hinge (8, 9, 10, 11), wherein the hinge (8 to 11) comprises a pivot and a base part separate thereto, at which the pivot is rotatably supported around a rotational axis (A, B), and with a height adjusting device, which is formed at the hinge (8 to 11) and by which the door (5, 6) is adjustable in the height position in height direction (y) of the household refrigeration apparatus relative to the housing, wherein the pivot comprises an annular coupling disk of the height adjusting device, which is coupled to a coupling receptacle of the height adjusting device formed in the base part, and an individual height position of the pivot is adjusted depending on the rotational position of the coupling disk around the rotational axis (A, B) relative to the coupling receptacle, wherein the coupling disk comprises a coupling element (24, 33), which comprises ramp-like oblique flanks (25, 26) on both sides viewed in circumferential direction around the rotational axis (A, B), by which the coupling element (24, 33) plunges into the coupling receptacle viewed in the direction of the rotational axis (A, B), characterized in that receptacles for an engaging tool are formed on a jacket wall of the coupling disk, by which the pivot is rotatable around the rotational axis (A, B).
A method of analysing a sample comprising a circulating microparticle, wherein the circulating microparticle is a membranous vesicle, wherein the circulating microparticle contains at least two fragments of genomic DNA, and wherein the method comprises: (a) preparing the sample for sequencing comprising linking at least two of the at least two fragments of genomic DNA to produce a set of at least two linked fragments of genomic DNA; and (b) sequencing each of the linked fragments in the set to produce at least two linked sequence reads. (a) preparing the sample for sequencing comprising linking at least two of the at least two fragments of genomic DNA to produce a set of at least two linked fragments of genomic DNA; and (b) sequencing each of the linked fragments in the set to produce at least two linked sequence reads.
Assembly comprising a control box and a control lever adapted to control a transmission, said lever being secured to the control box and comprising a reverse gear selector, said assembly also comprises a cable which connects the selector to the control box and a pre-holding device secured to the control box and adapted to temporarily hold the control lever in position on the control box, said pre-holding device being adapted to hold the control box be removed once the control box, the lever and the cable are secured in a vehicle, characterized in that the pre-holding device comprises retaining means adapted to temporarily hold the cable in position before the assembly is placed in position on the vehicle and to release said cable when the pre-holding device is detached from the control box.
A compound represented by the following formula: wherein, R = CH 3, C 2 to C 6 alkyl (linear or branched), cC 3 H 5, cC 5 H 9, or cC 6 H 11, R 1 = R 2 = H or CH 3, R 3 = R 4 = H or CH 3, R 5 = H or CH 3, and R 6 = H or CH 3; wherein when R is CH 3 then at least one of R 1 - R 6 is not H, or a pharmaceutically acceptable salt thereof, with the proviso that the compound is not: R = CH 3, C 2 to C 6 alkyl (linear or branched), cC 3 H 5, cC 5 H 9, or cC 6 H 11, R 1 = R 2 = H or CH 3, R 3 = R 4 = H or CH 3, R 5 = H or CH 3, and R 6 = H or CH 3; wherein when R is CH 3 then at least one of R 1 - R 6 is not H, or a pharmaceutically acceptable salt thereof, with the proviso that the compound is not:
Container treatment plant comprising an oven and a blow molder located downstream of the oven for processing a plurality of containers, such as in particular preforms, with a conveying unit configured for conveying a plurality of carriers, each carrier being provided for accommodating at least one container, wherein the conveying unit and the carrier are adapted to one another such that each carrier is individually movable through the container treatment plant by means of said conveying unit, wherein each carrier can be driven through the oven independently and/or decoupled from the other carriers, characterized in that at least one of the carriers is configured for movement in a magnetic force dependent manner in interaction with a conveying path of the conveying unit, on which the carrier slidingly rests, wherein at least one carrier includes a carriage section, which rests on the conveying path, and that the carrier comprises at least one rotary holder projecting from the carriage section and configured for rotatingly accommodating a container blank, wherein the oven comprises one or more infrared radiators.
A catheter (1; 2; 3; 4; 5) comprising: a tube body including an inner layer, a reinforcing body (30a; 30b; 30c; 30d) covering the inner layer, and an outer layer covering the reinforcing body (30a; 30b; 30c; 30d); and a tubular metallic distal end tip provided at a distal end of the tube body, characterized in that a slit is formed on the distal end tip and penetrates the distal end tip from an outer peripheral surface of the distal end tip to an inner surface of the distal end tip, and an outer peripheral surface of the distal end tip is provided with an outer coating, and the outer coating enters inside of the slit. a tube body including an inner layer, a reinforcing body (30a; 30b; 30c; 30d) covering the inner layer, and an outer layer covering the reinforcing body (30a; 30b; 30c; 30d); and a tubular metallic distal end tip provided at a distal end of the tube body, characterized in that a slit is formed on the distal end tip and penetrates the distal end tip from an outer peripheral surface of the distal end tip to an inner surface of the distal end tip, and an outer peripheral surface of the distal end tip is provided with an outer coating, and the outer coating enters inside of the slit.
A method for adjusting an electromagnetic wave, comprising: determining a first phase difference between electromagnetic waves reflected by two adjacent electrically controllable metamaterial units in a metamaterial based on a predetermined angle; wherein the metamaterial comprises a plurality of electrically controllable metamaterial units, the electrically controllable metamaterial unit comprises a varactor diode; the predetermined angle is an angle at which an incident electromagnetic wave of a first frequency is reflected from a surface of the metamaterial; there is an association relationship between the predetermined angle and the first phase difference; determining a target capacitance of the varactor diode in each electrically controllable metamaterial unit based on the first phase difference; and adjusting a capacitance of the varactor diode in each electrically controllable metamaterial unit to the target capacitance; wherein the metamaterial unit comprises a metal microstructure, and the metal microstructure is formed by two k-shaped metal plates, and each k-shaped metal plate is composed of a rectangular metal plate and a half circular ring-shaped metal plate, wherein there is an opening between the two half circular ring-shaped metal plates of the two k-shaped metal plates, and the varactor diode is disposed in the opening. determining a first phase difference between electromagnetic waves reflected by two adjacent electrically controllable metamaterial units in a metamaterial based on a predetermined angle; wherein the metamaterial comprises a plurality of electrically controllable metamaterial units, the electrically controllable metamaterial unit comprises a varactor diode; the predetermined angle is an angle at which an incident electromagnetic wave of a first frequency is reflected from a surface of the metamaterial; there is an association relationship between the predetermined angle and the first phase difference; determining a target capacitance of the varactor diode in each electrically controllable metamaterial unit based on the first phase difference; and adjusting a capacitance of the varactor diode in each electrically controllable metamaterial unit to the target capacitance; wherein the metamaterial unit comprises a metal microstructure, and the metal microstructure is formed by two k-shaped metal plates, and each k-shaped metal plate is composed of a rectangular metal plate and a half circular ring-shaped metal plate, wherein there is an opening between the two half circular ring-shaped metal plates of the two k-shaped metal plates, and the varactor diode is disposed in the opening.
A positioning apparatus comprising a positioning control device including a movable stage, a stage position detector that detects a position of the movable stage, the control device that performs positioning of the movable stage, a positioning target object for positioning of the movable stage, and at least one or more sensors in a structure of the positioning target object or the movable stage, the control device comprising: an amount of relative displacement estimation unit that estimates an amount of relative displacement between the positioning target object and the movable stage, and a unit that controls the stage using information calculated by the amount of relative displacement estimation unit, characterized in that the control device includes a mechanism model identification unit, and the amount of relative displacement estimation unit estimates the amount of relative displacement using a mechanism model identified by the mechanism model identification unit. an amount of relative displacement estimation unit that estimates an amount of relative displacement between the positioning target object and the movable stage, and a unit that controls the stage using information calculated by the amount of relative displacement estimation unit, characterized in that the control device includes a mechanism model identification unit, and the amount of relative displacement estimation unit estimates the amount of relative displacement using a mechanism model identified by the mechanism model identification unit.
Station for depositing a strip of material onto a cover and/or a base intended for a metal container, said station comprising: - a transfer device designed for moving the covers and/or bases in a first direction, and -- a parallel robot comprising: -- a support, -- two articulated arms mounted so as to be able to rotate on the support, - two actuators, with each one of the actuators being designed to drive in rotation one of the articulated arms, -- a nacelle mounted so as to be able to rotate on the articulated arms, -- at least one injection nozzle integral with the nacelle, with the at least one nozzle extending in a vertical direction perpendicular to the first direction and being designed to deposit a strip of material able to form a seal on the cover and/or the underlying base moved by the transfer device, with one of the two arms being mounted so as to be able to rotate about a first axis on the support and the other of the two arms being mounted so as to be able to rotate about a second axis on the support, the first axis and the second axis being parallel to the vertical direction, said nacelle being mobile in translation in relation to the support in the first direction and in a second direction, perpendicular to the first direction and to the vertical direction, and being integral in translation with respect to the support in the vertical direction, the station for depositing further comprising a processor controlling the robot, according to at least one continuous trajectory in a plane (X;Y), comprising the first direction and the second direction, stored in said processor. - a transfer device designed for moving the covers and/or bases in a first direction, and -- a parallel robot comprising: -- a support, -- two articulated arms mounted so as to be able to rotate on the support, -- a parallel robot comprising: -- a support, -- two articulated arms mounted so as to be able to rotate on the support, - two actuators, with each one of the actuators being designed to drive in rotation one of the articulated arms, -- a nacelle mounted so as to be able to rotate on the articulated arms, -- at least one injection nozzle integral with the nacelle, with the at least one nozzle extending in a vertical direction perpendicular to the first direction and being designed to deposit a strip of material able to form a seal on the cover and/or the underlying base moved by the transfer device, -- a nacelle mounted so as to be able to rotate on the articulated arms, -- at least one injection nozzle integral with the nacelle, with the at least one nozzle extending in a vertical direction perpendicular to the first direction and being designed to deposit a strip of material able to form a seal on the cover and/or the underlying base moved by the transfer device,
A trailer refrigeration unit that is mounted to a trailer, has a refrigeration unit body containing a refrigerant circuit operable in a vapor compression refrigeration cycle and an engine for driving a compressor of the refrigerant circuit and is configured to cool the interior of the trailer, the refrigeration unit body having a condensation side passage formed therein from the front surface to the top of the refrigeration unit body to allow air exchanging heat with a condenser of the refrigerant circuit to flow, characterized in that the condensation side passage is configured so that the air having flown through the condenser then flows through a radiator for the engine, wherein the condenser, a condenser fan for the condenser and the radiator are disposed in series in the condensation side passage and in this order from upstream to downstream of air flow. wherein the condenser, a condenser fan for the condenser and the radiator are disposed in series in the condensation side passage and in this order from upstream to downstream of air flow.
A recording medium heating device (120, 350) to heat and dry a continuous recording medium, comprising: multiple heating rollers (40a, 40b, 50a, 50b, 60a, 60b), including heaters (41a, 41b, 51a, 51b, 61a, 61b) respectively disposed on a conveying path of the recording medium; and characterized by further comprising a controller (80, 80-B) to control the heaters of the heating rollers, configured so that in a starting period (t0 -t) during which the recording medium heating device is started, the controller sets temperatures of the heaters to starting temperatures where a temperature of a heating roller positioned closest to an exit side of the conveying path is lower than a temperature of a heating roller positioned away from the exit side of the conveying path, while the recording medium heating device is in continuous drying, the controller sets the temperatures of the heaters to continuous drying temperatures where temperatures of the heating rollers are gradually higher as the heating rollers are positioned closer to the exit side. multiple heating rollers (40a, 40b, 50a, 50b, 60a, 60b), including heaters (41a, 41b, 51a, 51b, 61a, 61b) respectively disposed on a conveying path of the recording medium; and characterized by further comprising a controller (80, 80-B) to control the heaters of the heating rollers, configured so that in a starting period (t0 -t) during which the recording medium heating device is started, the controller sets temperatures of the heaters to starting temperatures where a temperature of a heating roller positioned closest to an exit side of the conveying path is lower than a temperature of a heating roller positioned away from the exit side of the conveying path, while the recording medium heating device is in continuous drying, the controller sets the temperatures of the heaters to continuous drying temperatures where temperatures of the heating rollers are gradually higher as the heating rollers are positioned closer to the exit side.
A computerized method for ensuring that an operator remains alert during operation of a train comprising the steps of: (a) monitoring at least one train control device to determine whether the operator is operating the train control device; characterized in that (b) if the operator has not operated the train control device within a first time period, only visually displaying to the operator an indication that a third time period has started, and if the operator has pressed a reset button during the third time period, repeating step (a); and if the operator has not pressed the reset button before lapse of the third time period, displaying at least one sequence to an operator on a display device and sounding an audible alarm at a start of a second time period; (c) determining whether the operator has entered a corresponding sequence within the second time period; and (d) stopping the train if the operator fails to enter the corresponding sequence within the second time period. (a) monitoring at least one train control device to determine whether the operator is operating the train control device; characterized in that (b) if the operator has not operated the train control device within a first time period, only visually displaying to the operator an indication that a third time period has started, and if the operator has pressed a reset button during the third time period, repeating step (a); and if the operator has not pressed the reset button before lapse of the third time period, displaying at least one sequence to an operator on a display device and sounding an audible alarm at a start of a second time period; (c) determining whether the operator has entered a corresponding sequence within the second time period; and (d) stopping the train if the operator fails to enter the corresponding sequence within the second time period.
A wind turbine comprising: a rotor; a blade; and a periodic stall system which selectively moves at least part of the blade in an oscillating motion whereby an angle of incidence continuously varies to invoke periodic stall. a rotor; a blade; and a periodic stall system which selectively moves at least part of the blade in an oscillating motion whereby an angle of incidence continuously varies to invoke periodic stall.
Method for the improvement of the image quality of dark image regions in a digital image display unit, in which a gamma equalisation of a transmitter-side predistorted image signal occurs in front of the image display unit, wherein the number of displayable brightness levels is dependent on the bit width of a quantisation process occurring as part of the gamma equalisation, characterised in that additional brightness intermediate levels are formed in front of or behind the gamma equalisation and the image signal to be displayed on the image display unit is superimposed by a noise signal in front of the gamma equaliser.
Gas turbine engine with a geared turbofan arrangement with a gearbox in a drive shaft assembly (105, 103, 101) driven by a turbine (18, 19), the drive shaft assembly (105, 103, 101) comprising a shaft connecting at least one propulsive fan to the gearbox, the shaft comprising a fan shaft, a thrust shaft and a torque bearing coupling, the torque bearing coupling connecting the shaft with the gearbox at the junction of the fan shaft and the thrust shaft, a driving side of the gearbox being driveably connected with the at least one propulsive fan, with at least one mechanical fuse (31, 32, 33) in the drive shaft assembly (105, 103, 101) enabling a controlled disengagement of at least one engine part from the drive shaft assembly (105, 103, 101) in case of a mechanical failure of the gas turbine engine or a part thereof and at least one load stop (41, 42) for bearing a load and for retaining the at least one propulsive fan in the gas turbine engine, in case of the mechanical failure of the gas turbine or a part thereof, wherein a first mechanical fuse is positioned in a torque carrying shaft or a torque carrying part of the shaft.
An apparatus (100, 200) comprising: a heat exchanger configured to transfer heat to a fluid and to absorb heat from the fluid as the fluid flows between a warm end and a cold end of a cryocooler; wherein the heat exchanger includes at least one section (118, 218) comprising a substrate and a layer, characterized in that the substrate comprises at least one allotropic form of carbon; and the layer comprises a layer of nanoparticles on or over the substrate. a heat exchanger configured to transfer heat to a fluid and to absorb heat from the fluid as the fluid flows between a warm end and a cold end of a cryocooler; wherein the heat exchanger includes at least one section (118, 218) comprising a substrate and a layer, characterized in that the substrate comprises at least one allotropic form of carbon; and the layer comprises a layer of nanoparticles on or over the substrate.
Method for connecting an electrical conductor to an electrical contact part which has a bottom section and deformable side members connected thereto, the side members, by means of a device which has a bending die and a supporting region for at least a portion of the bottom section of the electrical contact part, being so deformed by means of the bending die that they press the electrical conductor into a connection to the contact part which is held by friction, action being taken on the contact part, at least part of which is arranged between the supporting region and the bending die, within a period in which the bending die is in a maximum lowered position and through the supporting region, in such a way that at least one component of the electrical conductor is connected by fusion to the bottom section and/or to at least one side member, characterised in that the action which makes the connection by fusion takes place through at least one opening in the supporting region, and in that at least one laser beam which passes through the at least one opening in the supporting region makes the connection by fusion.