mhurhangee/ep-ind-claims huggingface dataset:
A system for respiratory system secretion management, comprising: an oscillatory wave generator for generating a wave for loosening secretion from a respiratory system of a subject; and a power module configured to power the system; an intranasal module in communication with the oscillatory wave generator, for delivering the wave into a nasal passage of the subject; a communication module coupled to at least one of the intranasal module and the oscillatory wave generator, for selectively communicating power and/or one or more waveform characteristics to the respective intranasal module and/or oscillatory wave generator; and an interface module in wireless communication with the communication module, for providing instructions to the communication module, thereby to control the communication module, wherein the intranasal module is shaped to be positioned in the nasal passage and comprises a housing shaped to seal against the nasal passage, and an acoustic window at a distal end of the housing, through which the wave is delivered into the nasal passage; wherein the intranasal module is in communication with the oscillatory wave generator via a waveguide; and an external housing connected to the intranasal module by the waveguide, the oscillatory wave generator being housed in the external housing, the waveguide being flexible to permit flexible placement of the housing during delivery of therapy. an oscillatory wave generator for generating a wave for loosening secretion from a respiratory system of a subject; and a power module configured to power the system; an intranasal module in communication with the oscillatory wave generator, for delivering the wave into a nasal passage of the subject; a communication module coupled to at least one of the intranasal module and the oscillatory wave generator, for selectively communicating power and/or one or more waveform characteristics to the respective intranasal module and/or oscillatory wave generator; and an interface module in wireless communication with the communication module, for providing instructions to the communication module, thereby to control the communication module, wherein the intranasal module is shaped to be positioned in the nasal passage and comprises a housing shaped to seal against the nasal passage, and an acoustic window at a distal end of the housing, through which the wave is delivered into the nasal passage; wherein the intranasal module is in communication with the oscillatory wave generator via a waveguide; and an external housing connected to the intranasal module by the waveguide, the oscillatory wave generator being housed in the external housing, the waveguide being flexible to permit flexible placement of the housing during delivery of therapy.
A method for treating a hop product, which exhibits a moisture in excess of 18% GG water content, in which the hop product is sterilized and stored in an airtight packaging, characterized in that the hop product is sterilized as an undried, freshly harvested green hop in an airtight container.
A combination of a food holding cabinet, a food tray an a tray cover, the combination comprising: a housing that defines a heating chamber [31,32] for holding a covered food tray therein and a heating chamber opening for access to the heating chamber, the heating chamber [31,32] including a front portion, a rear portion and at least one tray location for receiving the food tray, a pair of rigid support structures mounted to the housing for suspending the tray cover in the heating chamber [31,32] in a position above the at least one tray location, the pair of support structures including a front support structure positioned adjacent to and extending across the front of the heating chamber opening, such that when a food tray is inserted into the food tray location and under a suspended tray cover, the food tray will engage a bottom portion of the tray cover and lift it upwardly from said position and off of the pair of support structures such that the tray cover is supported by the food tray, and when the underlying food tray is removed from the heating chamber [31,32], the front support structure engages and prevents the tray cover from being removed from the heating chamber [31,32] along with the food tray, and the support structures resume suspension of the tray cover at said position, characterized in that each end portion 50 of each front support structure includes a spring and is spring mounted to the housing and movable against the bias of the spring to facilitate removal of the food tray cover from the heating chamber [31,32]. a housing that defines a heating chamber [31,32] for holding a covered food tray therein and a heating chamber opening for access to the heating chamber, the heating chamber [31,32] including a front portion, a rear portion and at least one tray location for receiving the food tray, a pair of rigid support structures mounted to the housing for suspending the tray cover in the heating chamber [31,32] in a position above the at least one tray location, the pair of support structures including a front support structure positioned adjacent to and extending across the front of the heating chamber opening, such that when a food tray is inserted into the food tray location and under a suspended tray cover, the food tray will engage a bottom portion of the tray cover and lift it upwardly from said position and off of the pair of support structures such that the tray cover is supported by the food tray, and when the underlying food tray is removed from the heating chamber [31,32], the front support structure engages and prevents the tray cover from being removed from the heating chamber [31,32] along with the food tray, and the support structures resume suspension of the tray cover at said position, characterized in that each end portion 50 of each front support structure includes a spring and is spring mounted to the housing and movable against the bias of the spring to facilitate removal of the food tray cover from the heating chamber [31,32].
A method of forming urea by integration of a part of an ammonia production process in a urea production process, comprising: obtaining a hydrogen/carbon dioxide stream from an ammonia production process, and a flue gas stream containing carbon dioxide and nitrogen, transporting flue gas stream to a low pressure absorber, transporting hydrogen/carbon dioxide stream to a high pressure absorber with a semi rich solvent stream containing absorbed carbon dioxide transported from the low pressure absorber to the high pressure absorber, transporting a rich solvent stream containing ammonia and a higher content of carbon dioxide emitted from the high pressure absorber to a urea production plant for the production of urea, characterised by recycling stream containing carbamate in a solution or slurry also containing ammonia, carbon dioxide, and water from the urea production plant to the low pressure absorber, and transporting stream from the ammonia production unit to the urea production plant. obtaining a hydrogen/carbon dioxide stream from an ammonia production process, and a flue gas stream containing carbon dioxide and nitrogen, transporting flue gas stream to a low pressure absorber, transporting hydrogen/carbon dioxide stream to a high pressure absorber with a semi rich solvent stream containing absorbed carbon dioxide transported from the low pressure absorber to the high pressure absorber, transporting a rich solvent stream containing ammonia and a higher content of carbon dioxide emitted from the high pressure absorber to a urea production plant for the production of urea, characterised by recycling stream containing carbamate in a solution or slurry also containing ammonia, carbon dioxide, and water from the urea production plant to the low pressure absorber, and transporting stream from the ammonia production unit to the urea production plant.
A depositing device, in particular for depositing fibres or for depositing nonwoven webs of fibres - wherein a depositing unit having at least one gaspermeable or air-permeable surface and at least one negative pressure chamber disposed underneath the depositing surface for producing a negative pressure under the depositing surface is provided, wherein at least one suction line is connected to the negative pressure chamber, which is connected to at least one negative pressure generating device or to at least one vacuum device, wherein at least one line section of the suction line having at least one line section end is connected to a connection sleeve of the suction line, wherein the line section and the connection sleeve are pivotable relative to one another and wherein at least one circumferential seal (8, 9) is provided between line section and connection sleeve and wherein an activatable or deactivatable main seal is interposed between connection sleeve and line section.
A nucleic acid complex for determining the membrane potential in a cell comprising: a first single-stranded nucleic acid molecule comprising a voltage-sensing fluorophore crosslinked to the first strand; and a second single-stranded nucleic acid molecule that is partially or fully complementary to the first single-stranded molecule, wherein the nucleic acid complex further comprises a reference label conjugated to the first single-stranded nucleic acid molecule or the second single-stranded nucleic acid molecule and the reference label is capable of producing a signal. a first single-stranded nucleic acid molecule comprising a voltage-sensing fluorophore crosslinked to the first strand; and a second single-stranded nucleic acid molecule that is partially or fully complementary to the first single-stranded molecule, wherein the nucleic acid complex further comprises a reference label conjugated to the first single-stranded nucleic acid molecule or the second single-stranded nucleic acid molecule and the reference label is capable of producing a signal.
A method for carrying out a test run for a virtual vehicle (1*) on a test bench, the method comprising the following steps: - reading a virtual track (A*-B*) from a data storage, wherein the virtual track (A*-B*) is stored as a sequence of geo-coordinates and associated data of the vehicle (1*), a driver and/or surroundings of the vehicle (1*), the data being related to the geo-coordinate; - using the stored data related to the geo-coordinate in order to carry out the test run for the virtual vehicle (1*), characterized by the following method steps - detecting measured data of the virtual vehicle (1*) during the test run and storing the detected measured data with reference to the geo-coordinates. - reading a virtual track (A*-B*) from a data storage, wherein the virtual track (A*-B*) is stored as a sequence of geo-coordinates and associated data of the vehicle (1*), a driver and/or surroundings of the vehicle (1*), the data being related to the geo-coordinate; - using the stored data related to the geo-coordinate in order to carry out the test run for the virtual vehicle (1*), characterized by the following method steps - detecting measured data of the virtual vehicle (1*) during the test run and storing the detected measured data with reference to the geo-coordinates.
A power storage device comprising: a case (3, 4) in which at least one unit cell is housed; and a heat exchanger that is provided in a wall surface of the case (3, 4) so as to face both an inside of the case (3, 4) and an outside of the case (3, 4), and that performs heat exchange between the inside of the case (3, 4) and the outside of the case (3, 4); characterized in that a plurality of dividing members (21A, 22A) are arranged in an up-down direction inside the case (3, 4) so as to be opened and closed independently of one another, and divide a space inside the case (3, 4) into a space in which the at least one unit cell is housed and a space in which the heat exchanger is arranged, wherein the plurality of dividing members (21A, 22A) include an upper dividing member that is arranged at an uppermost position among the plurality of dividing members (21A, 22A) and pivots about a lower end portion serving as a fulcrum, and a lower dividing member that is arranged at a lowermost position among the plurality of dividing members (21A, 22A) and pivots about an upper end portion serving as a fulcrum. a case (3, 4) in which at least one unit cell is housed; and a heat exchanger that is provided in a wall surface of the case (3, 4) so as to face both an inside of the case (3, 4) and an outside of the case (3, 4), and that performs heat exchange between the inside of the case (3, 4) and the outside of the case (3, 4); characterized in that a plurality of dividing members (21A, 22A) are arranged in an up-down direction inside the case (3, 4) so as to be opened and closed independently of one another, and divide a space inside the case (3, 4) into a space in which the at least one unit cell is housed and a space in which the heat exchanger is arranged, wherein the plurality of dividing members (21A, 22A) include an upper dividing member that is arranged at an uppermost position among the plurality of dividing members (21A, 22A) and pivots about a lower end portion serving as a fulcrum, and a lower dividing member that is arranged at a lowermost position among the plurality of dividing members (21A, 22A) and pivots about an upper end portion serving as a fulcrum.
Planetary gear system for a gas turbine engine, in particular an aircraft turbo engine with a plurality of planetary gears coupled to a carrier device, with front planetary gears mounted on pins in a front row and aft planetary gears mounted on pins in an aft row, the two rows (A, B) being parallel to each other in the axial direction of the planetary gear system, wherein the carrier device comprises a base structure being in one piece with the carrier device, the base structure positioned around a rotational axis of the gas turbine engine, the pins (36A, 36B) are coupled to the carrier device through first extension elements and second extension elements for the positioning of the pins (36A, 36B) relative to the base structure, the second extension elements axially extending the respective pins further away from the base structure than the pins positioned by the first extension elements, so that the aft planetary gears are positioned in the aft row axially further away from the base structure than the front planetary gears in the front row, characterized in that the first extension elements, in particular arms as part of the first extension elements form first inclination angles (α A) which are smaller than second inclination angles (α B) formed by the second extension elements, in particular arms as parts of the second extension elements, wherein the first and second inclination angles (α A, α B) are measured between the plane of the base structure and a projection of the extension elements (41A, 41B) through the centers of the pins (36A, 36B) in a radial direction. the carrier device comprises a base structure being in one piece with the carrier device, the base structure positioned around a rotational axis of the gas turbine engine, the pins (36A, 36B) are coupled to the carrier device through first extension elements and second extension elements for the positioning of the pins (36A, 36B) relative to the base structure, the second extension elements axially extending the respective pins further away from the base structure than the pins positioned by the first extension elements, so that the aft planetary gears are positioned in the aft row axially further away from the base structure than the front planetary gears in the front row,
An aqueous dispersion comprising at least one polyurethane polymer with a melting temperature in the range of 30 °C to 50 °C as determined by differential scanning calorimetry according to DIN 65467 at a heating rate of 20 K/min, the polyurethane polymer being obtainable from a reaction mixture comprising: AI) at least one polyester polyol with a number average molecular weight in the range of 400 g/mol to 5000 g/mol and a melting temperature in the range of 40 °C to 80 °C as determined by differential scanning calorimetry according to DIN 65467 at a heating rate of 20 K/min; AII) at least one polyester polyol with a number average molecular weight in the range of 400 g/mol to 5000 g/mol and a melting temperature in the range of 5 °C to 35 °C as determined by differential scanning calorimetry according to DIN 65467 at a heating rate of 20 K/min; B) optionally, at least one difunctional polyol component; C) at least one aliphatic diisocyanate; and D) at least one aminic chain extender comprising at least one ionic or potentially ionic group; characterized in that the molar ratio AI):AII) is in the range of 7:3 to 3:7. AI) at least one polyester polyol with a number average molecular weight in the range of 400 g/mol to 5000 g/mol and a melting temperature in the range of 40 °C to 80 °C as determined by differential scanning calorimetry according to DIN 65467 at a heating rate of 20 K/min; AII) at least one polyester polyol with a number average molecular weight in the range of 400 g/mol to 5000 g/mol and a melting temperature in the range of 5 °C to 35 °C as determined by differential scanning calorimetry according to DIN 65467 at a heating rate of 20 K/min; B) optionally, at least one difunctional polyol component; C) at least one aliphatic diisocyanate; and D) at least one aminic chain extender comprising at least one ionic or potentially ionic group;
An induction cooking hob with a plurality of induction coils, wherein: - the induction cooking hob comprises a cooking surface, - the induction cooking hob comprises a control unit, - the cooking surface includes a cover plate, - the induction coils are arranged side-by-side according to a predetermined scheme and below the cover plate, - at least one induction coil is marked by an identification symbol, - the identification symbol includes a first element and a second element, - the first element extends beyond the diameter of the corresponding induction coil, and - the second element marks the diameter of said induction coil, characterized in that the identification symbol is a cross, wherein the first element and the second element are formed as stripes of said cross, and wherein the identification symbol is applied on the cover plate of the cooking surface. - the induction cooking hob comprises a cooking surface, - the induction cooking hob comprises a control unit, - the cooking surface includes a cover plate, - the induction coils are arranged side-by-side according to a predetermined scheme and below the cover plate, - at least one induction coil is marked by an identification symbol, - the identification symbol includes a first element and a second element, - the first element extends beyond the diameter of the corresponding induction coil, and - the second element marks the diameter of said induction coil,
A device for manipulating a light radiation by reflecting said light radiation multiple times on at least two reflecting surfaces of a monolithic block made of homogenous transparent material, the device comprising: - a first zone on one surface of the said block for injecting said light radiation to be manipulated, - a second zone on one surface of the said block for extracting said light radiation after manipulation, - at least one of the reflective surfaces being microstructured to impart a determined spatial phase transformation on the said light radiation. - a first zone on one surface of the said block for injecting said light radiation to be manipulated, - a second zone on one surface of the said block for extracting said light radiation after manipulation, - at least one of the reflective surfaces being microstructured to impart a determined spatial phase transformation on the said light radiation.
A wireless power transmission system, designed to transmit power through a permeable conductive barrier layer of magnetic steel, comprising: a power transmitting circuit including a first inductive coil; a power receiving circuit including a second inductive coil located on the opposite side of the barrier layer to the first inductive coil; and a biasing magnet or electromagnet, arranged to substantially saturate the magnetisation of the barrier layer in a region adjacent to the first and second inductive coils. a power transmitting circuit including a first inductive coil; a power receiving circuit including a second inductive coil located on the opposite side of the barrier layer to the first inductive coil; and a biasing magnet or electromagnet, arranged to substantially saturate the magnetisation of the barrier layer in a region adjacent to the first and second inductive coils.
A method to apply an insulation to a retaining ring for end windings of an electric machine, wherein the retaining ring is mainly composed of a retaining ring housing, an electric insulation being attached to the inside of the retaining ring housing, with the steps of providing a retaining ring housing, attaching an insulation at the inside of the retaining ring housing, and characterised by the step of inflating a bag inside the retaining ring housing to apply pressure to the insulation.
A power supply unit control device for an internal combustion engine driven vehicle, the device being provided with: a battery charging control unit for controlling the charging of a battery of a power supply unit of an internal combustion engine driven vehicle provided with a magnetic AC generator driven by the internal combustion engine for driving the vehicle and a battery charged by the output of the AC generator; a lamp driving switch for turning a lamp-driving current on and off, said lamp-driving current being supplied from the battery to a headlamp of the vehicle; and a lamp conducting control unit for performing PWM control of the lamp-driving current fundamentally by performing on/off control of the lamp driving switch using a normal duty ratio, the normal duty ratio being an on/off duty ratio for the lamp driving switch set so as to keep the lamp-driving current at a value in a range such that an output voltage equal to or greater than a terminal voltage of the battery is generated by the magnetic AC generator; the power supply unit control device for an internal combustion engine driven vehicle being characterized in that the lamp conducting control unit is configured so as to interrupt on/off control of the lamp driving switch at the normal duty ratio in a process in which the rotational speed of the internal combustion engine decreases towards an idling rotational speed during deceleration, and perform engine deceleration lamp conducting control, in which the lamp driving switch is controlled so that lamp-driving current necessary to suppress decreases in headlamp brightness is sent to the headlamp, only for a limited period of time to prevent said battery from over-discharging.
An oven comprising a body; a casing surrounding the body; a water tank disposed between the casing and the body and filled with water; a pipe with one end opening into the water tank and the other end opening into the body and providing the transfer of water vapor into the body; a valve disposed on the pipe and providing the delivery of the water vapor into the body in a controlled manner; and a shape memory spring which enables the valve to open/close according to the temperature in the body, characterized by a connection member ensuring the connection of the valve and the pipe; an enclosure in the form of a cone tapering downwards in which the shape memory spring is vertically positioned and providing the fixing of the spring; a sealing body positioned between said connection member and enclosure; and a piston positioned vertically in the sealing body, configured to block the fluid passage in a first position and allow the fluid passage in a second position, and entering the shape memory spring so as to move along the displacement direction from the first position to the second position.