mhurhangee/ep-ind-claims huggingface dataset:
A fluidized bed boiler plant comprising a furnace and a combustion gas channel (24, 24b) for combusting fuel by combustion gas fed to the furnace through the combustion gas channel, and a water-steam cycle comprising an evaporator section, a superheater section in flow connection with the evaporator section comprising a first superheater, a last superheater (30', 30", 32') and a steam turbine (34, 36), and a superheating path for conveying steam from the evaporator section via the superheater section to the steam turbine, and a first combustion gas preheater (38, 38b) arranged in the combustion gas channel for transferring heat to the combustion gas, characterized in that the fluidized bed boiler plant comprises a second combustion gas preheater (40, 40b) arranged in the combustion gas channel, a steam extraction line (44, 46, 46', 46", 46b) attached in flow connection with the second combustion gas preheater and with the superheating path in a location between the first superheater and the last superheater for conveying steam from the superheating path to the second combustion gas preheater so as to transfer heat from the steam to the combustion gas in the second combustion gas preheater.
A plug (50, 50a) for plugging wells, and in particular oil and gas wells, said plug comprising: a plug body (51, 51a) having a cavity (53, 53a) for receiving heating means; means for receiving a eutectic alloy (52, 52a); means (54, 54a) for releasably retaining heating means within the cavity of the plug body, said means being located within the cavity; and characterised in that the plug comprises means (56, 56a) for retaining the plug within the plug body cavity of an adjacent plug. a plug body (51, 51a) having a cavity (53, 53a) for receiving heating means; means for receiving a eutectic alloy (52, 52a); means (54, 54a) for releasably retaining heating means within the cavity of the plug body, said means being located within the cavity; and characterised in that the plug comprises means (56, 56a) for retaining the plug within the plug body cavity of an adjacent plug.
A medical device comprising: a sheath (103, 603, 1104) having a proximal end and a distal end, the sheath (103, 603) having an opening at both the proximal end and the distal end; and a removable dilator (102, 503, 602, 701, 702, 703, 802, 902, 1001, 1602) having a distal end and a proximal end, the dilator having at least one blood inlet opening (105, 505, 605, 704, 705, 706, 707, 708, 709, 710, 711, 712, 805, 903, 1004, 1605, 1705) disposed on a distal end of the dilator, the blood inlet opening being in fluid communication with a blood outlet (110, 510) at the proximal end of the dilator, the dilator positionable within the sheath such that a tapered portion (104, 504, 604, 804, 1001) of the distal end of the dilator extends through the opening in the distal end of the sheath, the proximal end of the dilator extends through the opening in the proximal end of the sheath, and at least a portion of the at least one blood inlet opening is adjacent to the distal end of the sheath, wherein the dilator blood inlet opening (105, 505, 605, 704, 705, 706, 707, 708, 709, 710, 711, 712, 805, 903, 1004, 1605, 1705) is disposed on the tapered portion, characterised in that the blood inlet opening (105, 505, 605, 704, 705, 706, 707, 708, 709, 710, 711, 712, 805, 903, 1004, 1605, 1705) has a crescent-shaped cross-section when viewed along a longitudinal axis of the dilator. a sheath (103, 603, 1104) having a proximal end and a distal end, the sheath (103, 603) having an opening at both the proximal end and the distal end; and a removable dilator (102, 503, 602, 701, 702, 703, 802, 902, 1001, 1602) having a distal end and a proximal end, the dilator having at least one blood inlet opening (105, 505, 605, 704, 705, 706, 707, 708, 709, 710, 711, 712, 805, 903, 1004, 1605, 1705) disposed on a distal end of the dilator, the blood inlet opening being in fluid communication with a blood outlet (110, 510) at the proximal end of the dilator, the dilator positionable within the sheath such that a tapered portion (104, 504, 604, 804, 1001) of the distal end of the dilator extends through the opening in the distal end of the sheath, the proximal end of the dilator extends through the opening in the proximal end of the sheath, and at least a portion of the at least one blood inlet opening is adjacent to the distal end of the sheath, wherein the dilator blood inlet opening (105, 505, 605, 704, 705, 706, 707, 708, 709, 710, 711, 712, 805, 903, 1004, 1605, 1705) is disposed on the tapered portion, characterised in that the blood inlet opening (105, 505, 605, 704, 705, 706, 707, 708, 709, 710, 711, 712, 805, 903, 1004, 1605, 1705) has a crescent-shaped cross-section when viewed along a longitudinal axis of the dilator.
An apparatus comprising: a display controller having a timing controller configured to drive frames on a display, wherein timing of the timing controller is based on a frame rate; and sensing circuitry to detect an object on or near the display, wherein the sensing circuitry senses for the object during sensing windows, wherein timing of the sensing windows and the timing of the timing controller are asynchronous, and wherein the display controller is configured to pause driving a frame on the display during the sensing windows, characterized in that the object transmits a timing signal wherein the timing of the sensing windows is based on a repetition rate of the timing signal transmitted by the object, and in that the display controller is configured to pause the driving in response to the interrupt signal sent from the sensing circuitry to the display controller, wherein the interrupt signal is associated with one of the sensing windows, wherein the display controller determines whether pausing the driving of the frame on the display would cause a visual effect, and wherein the display controller is configured to not pause driving the frame on the display when the display controller determines that pausing the driving of the frame on the display would cause a visual effect. a display controller having a timing controller configured to drive frames on a display, wherein timing of the timing controller is based on a frame rate; and sensing circuitry to detect an object on or near the display, wherein the sensing circuitry senses for the object during sensing windows, wherein timing of the sensing windows and the timing of the timing controller are asynchronous, and wherein the display controller is configured to pause driving a frame on the display during the sensing windows, characterized in that the object transmits a timing signal wherein the timing of the sensing windows is based on a repetition rate of the timing signal transmitted by the object, and in that the display controller is configured to pause the driving in response to the interrupt signal sent from the sensing circuitry to the display controller, wherein the interrupt signal is associated with one of the sensing windows, wherein the display controller determines whether pausing the driving of the frame on the display would cause a visual effect, and wherein the display controller is configured to not pause driving the frame on the display when the display controller determines that pausing the driving of the frame on the display would cause a visual effect.
A humidifier (10, 32) for a test chamber, in particular a climate chamber, said humidifier comprising a container having a container interior for receiving a water bath, a heating device of a temperature-control system for controlling the temperature of the water bath, and a ventilation system for generating air bubbles in the water bath, a container opening being formed in the container above the water bath in order to connect the container interior to a test space of a test chamber, characterized in that the humidifier comprises a cooling device of the temperature-control system, the heating device and the cooling device each having a heat exchanger (19, 21) arranged in the water bath.
An unmanned aerial vehicle comprising: a housing having a conductive pattern (166a, 166b) at a surface (101a, 101d) of the housing; a positioning information receiver; at least one sensor that detects a flight state of the unmanned aerial vehicle; a driving unit comprising an electronic speed controller and a motor that operates to fly the unmanned aerial vehicle; a grip detection circuit positioned within the unmanned aerial vehicle that is configured to receive a user grip; and a processor that is connected to the positioning information receiver, the at least one sensor, the driving unit, and the grip detection circuit, wherein one end of the grip detection circuit is connected to a circuit between the ESC and the motor of the driving unit, and the other end of the grip detection circuit is connected to the processor; wherein the conductive pattern (166a, 166b) is connected to the circuit between the ESC and the motor, wherein the processor is configured to detect a user grip through the conductive pattern by detecting a capacitance change of the grip detection circuit of the flying unmanned aerial vehicle that corresponds to the user grip; and wherein the processor is configured to control the driving unit based on detection of the user grip and release of the user grip through the grip detection circuit, the positioning information receiver, and the at least one sensor. a housing having a conductive pattern (166a, 166b) at a surface (101a, 101d) of the housing; a positioning information receiver; at least one sensor that detects a flight state of the unmanned aerial vehicle; a driving unit comprising an electronic speed controller and a motor that operates to fly the unmanned aerial vehicle; a grip detection circuit positioned within the unmanned aerial vehicle that is configured to receive a user grip; and a processor that is connected to the positioning information receiver, the at least one sensor, the driving unit, and the grip detection circuit, wherein one end of the grip detection circuit is connected to a circuit between the ESC and the motor of the driving unit, and the other end of the grip detection circuit is connected to the processor; wherein the conductive pattern (166a, 166b) is connected to the circuit between the ESC and the motor, wherein the processor is configured to detect a user grip through the conductive pattern by detecting a capacitance change of the grip detection circuit of the flying unmanned aerial vehicle that corresponds to the user grip; and wherein the processor is configured to control the driving unit based on detection of the user grip and release of the user grip through the grip detection circuit, the positioning information receiver, and the at least one sensor.
Enclosure assembly for at least one of a variety of connectors on a cable, the enclosure comprising a connector volume located within an inner body of the enclosure, the connector volume being adapted to movably accommodate the connector, the inner body being open to an outer environment in a forward and a rearward direction (32, 42), and wherein an outer body is adapted to slide over the inner body in the forward direction, the outer body comprising at least one locking element for securing the enclosure assembly to a mating enclosure characterised in that the connector volume is located within an electromagnetic shielding structure, the electromagnetic shielding structure being received within the inner body.
A brush electrode comprising: an electrode base that is connectable to an external device that is configured to generate an electrical signal or receive an electrical signal; and a plurality of strand electrodes that extend outward from the electrode base and are configured to bend, a distal end of each strand electrode configured to contact a skin surface, wherein said plurality of strand electrodes are clustered into a plurality of clusters of strand electrodes, neighboring clusters of said plurality of clusters being separated from one another by gaps without any strand electrodes and configured to hold an electrolyte to facilitate ionic conduction of the electrical signal to or from the skin surface, and wherein the strand electrodes extend outward from the electrode base at an oblique angle to the electrode base. an electrode base that is connectable to an external device that is configured to generate an electrical signal or receive an electrical signal; and a plurality of strand electrodes that extend outward from the electrode base and are configured to bend, a distal end of each strand electrode configured to contact a skin surface, wherein said plurality of strand electrodes are clustered into a plurality of clusters of strand electrodes, neighboring clusters of said plurality of clusters being separated from one another by gaps without any strand electrodes and configured to hold an electrolyte to facilitate ionic conduction of the electrical signal to or from the skin surface, and wherein the strand electrodes extend outward from the electrode base at an oblique angle to the electrode base.
Method for operating a food printer, having the following steps: - Provision of a domestic appliance, which is embodied for treating, especially for warming up, heating, cooling and/or freezing of food and which has a treatment compartment for food configured for this purpose, - Equipping the food printer with a food mass to be treated, - Positioning the food printer in the treatment compartment of the domestic appliance, - Pre-shaping of a food product from the food mass by the food printer in the treatment compartment, - Operation of the domestic appliance for treating the food mass and/or the food product during and/or after the food product will be/is pre-shaped from the food mass by the food printer in the treatment compartment of the domestic appliance. - Provision of a domestic appliance, which is embodied for treating, especially for warming up, heating, cooling and/or freezing of food and which has a treatment compartment for food configured for this purpose, - Equipping the food printer with a food mass to be treated, - Positioning the food printer in the treatment compartment of the domestic appliance, - Pre-shaping of a food product from the food mass by the food printer in the treatment compartment, - Operation of the domestic appliance for treating the food mass and/or the food product during and/or after the food product will be/is pre-shaped from the food mass by the food printer in the treatment compartment of the domestic appliance.
Method of heating a flowing pressurised gas in a pipe to a high temperature, said pipe being fitted in a pressure vessel (11, 12, 13) and comprising an inner tube being concentrically arranged inside an outer tube whereby a narrow gap is formed between the inner tube and the outer tube, and wherein the inner tube is heated from the inside by an electric element (23, 24) being arranged inside the inner tube, said method involving the steps of freely leading the pressurised gas through the narrow gap between the two tubes (16, 17) whereby the pressurized gas is heated by radiant heat from the inside of the inner tube, and wherein the heated pressurised gas is allowed to flow freely from the narrow gap out into the pressure vessel (11, 12, 13) and on to an outlet of the pressure vessel (11, 12, 13), and wherein the inner tube is kept open towards the flow path of the pressurized gas thereby allowing pressure equalisation between the inside and the outside of the inner tube without the inner tube forming part of the flow path of the pressurised gas.
A method for producing a highly polymerizable N-vinyl carboxylic acid amide monomer, comprising a step of melting a crude N-vinyl carboxylic acid amide monomer comprising 50 to 88 mass% of an N-vinyl carboxylic acid amide monomer by heating, followed by cooling for precipitation (cooling crystallization), and subjecting precipitated N-vinyl carboxylic acid amide monomer crystals to solid-liquid separation (step), and a step of further dissolving the N-vinyl carboxylic acid amide monomer crystals separated in the step in a mixed solvent of ethyl acetate and an aliphatic hydrocarbon having 6 to 7 carbon atoms, then performing crystallization (solvent crystallization), performing solid-liquid separation, and recovering an N-vinyl carboxylic acid amide monomer purified product (step), wherein a mass ratio of ethyl acetate/N-vinyl carboxylic acid amide monomer crystal in the step is 0.01 or more and 0.5 or less, and a mass ratio of aliphatic hydrocarbon having 6 to 7 carbon atoms/N-vinyl carboxylic acid amide monomer crystal in the step is 0.5 or more and 3.0 or less. a step of melting a crude N-vinyl carboxylic acid amide monomer comprising 50 to 88 mass% of an N-vinyl carboxylic acid amide monomer by heating, followed by cooling for precipitation (cooling crystallization), and subjecting precipitated N-vinyl carboxylic acid amide monomer crystals to solid-liquid separation (step), and a step of further dissolving the N-vinyl carboxylic acid amide monomer crystals separated in the step in a mixed solvent of ethyl acetate and an aliphatic hydrocarbon having 6 to 7 carbon atoms, then performing crystallization (solvent crystallization), performing solid-liquid separation, and recovering an N-vinyl carboxylic acid amide monomer purified product (step), wherein a mass ratio of ethyl acetate/N-vinyl carboxylic acid amide monomer crystal in the step is 0.01 or more and 0.5 or less, and a mass ratio of aliphatic hydrocarbon having 6 to 7 carbon atoms/N-vinyl carboxylic acid amide monomer crystal in the step is 0.5 or more and 3.0 or less.
A method for producing a modified polydiene by polymerization of a conjugated diene in an organic solvent, the method comprising the following steps: 1) preparing a catalyst complex including a lanthanide compound, an organoaluminum compound, a halogen-containing component, and a conjugated diene; 2) reacting the catalyst complex prepared in step 1) and a maleinized low molecular weight polybutadiene to produce a modified catalyst complex, wherein the maleinized low molecular weight polybutadiene is used in an amount of at least 0.01 mol per 1 mol of lanthanide; 3) subjecting the conjugated diene to polymerization using the modified catalyst complex produced in step 2) in the organic solvent; 4) subjecting the resulting polydiene to post-polymerization modification using at least one oligomeric silicate.
Device for blocking workpieces, particularly spectacle lenses, for processing and/or coating thereof, comprising an aligning station, which has a workpiece support, for alignment of a workpiece supported on the workpiece support, a blocking station which comprises a block piece mount and in which the aligned workpiece can be blocked by means of a temporarily deformable blocking material on a block piece, which is receivable in the block piece mount to be centered with respect to a substantially vertically extending blocker axis, and a suitably guided and driven workpiece carriage which carries a holding head for the workpiece and by means of which the aligned workpiece held at the holding head is transportable from the aligning station to the blocking station, is positionable in defined manner along the blocker axis relative to the block piece disposed in the block piece mount and during the blocking can be held in the defined relative position with respect to the block piece while leaving a blocking material receiving gap between the workpiece and the block piece, characterized in that the aligning station is movable from a rest position, in which it does not obstruct movements of the workpiece carriage, to a work position, in which the workpiece support is centered with respect to the blocker axis, and conversely.
A safety method for avoiding a shooting accident, in which method targets in a risk area in the direction determined by the direction of the barrel of a gun, the shooting of which targets is to be prevented, are indicated to a shooter by an electronic safety device (4, 22, 32) of the gun, characterised in that - the location data of targets is transferred from mobile phones of moving targets (2A, 2B, 2C) via a cellular telecommunications network (2a, 3a) to a shooter's mobile phone from where it is transferred to the safety device (4, 22) to be utilized for indication to the shooter that said targets are in the risk area of the gun; - the electronic safety device (4, 22, 32) determines the risk area (512, 512a) when the gun has been set in a shooting position and identifies targets in the risk area from said location data regarding said targets (514a, 514b, 514c, 515, 516) stored in a memory of the electronic safety device (4, 22, 32).
A lighting device, comprising at least one light source arranged to generate light, a light-transmissive envelope enclosing said at least one light source and being arranged to transmit the light generated from said at least one light source, and a driver unit arranged for electrical supply to said at least one light source, characterized in that said driver unit comprises a primary driver circuit connectable to an electric energy source, at least one secondary driver circuit connected to said at least one light source, and a transformer arranged to transfer electrical energy between said primary driver circuit and said at least one secondary driver circuit, wherein at least said primary driver circuit, said transformer and said at least one secondary driver circuit of said driver unit are arranged within said envelope, and wherein said transformer comprises a core, a primary winding arranged around said core, an isolating element at least partially enclosing said primary winding, and a secondary winding arranged around said isolating element, wherein said lighting device further comprises a stem element enclosing said core.
A drive assembly engaged with a motor assembly and a roller tube to transmit torque between the motor assembly and the roller tube; wherein the drive assembly comprises: a drive member comprising at least one first slot, wherein the at least one first slot axially extends from a front face of the drive member towards a rear face of the drive member; a connector comprising an axial opening and at least one first projection extending radially outwardly, wherein the axial opening receives a motor shaft; and a sleeve disposed at least partially between the connector and the drive member, wherein the sleeve is configured to engage the at least one first slot of the drive member and the at least one first projection of the connector, and wherein the sleeve is configured to transmit the torque between the connector and the drive member, characterized in that a portion of the sleeve extends radially outwardly of the drive member, such that the portion of the sleeve is configured to engage an inner surface of the roller tube. a drive member comprising at least one first slot, wherein the at least one first slot axially extends from a front face of the drive member towards a rear face of the drive member; a connector comprising an axial opening and at least one first projection extending radially outwardly, wherein the axial opening receives a motor shaft; and a sleeve disposed at least partially between the connector and the drive member, wherein the sleeve is configured to engage the at least one first slot of the drive member and the at least one first projection of the connector, and wherein the sleeve is configured to transmit the torque between the connector and the drive member, characterized in that a portion of the sleeve extends radially outwardly of the drive member, such that the portion of the sleeve is configured to engage an inner surface of the roller tube.