mhurhangee/ep-ind-claims huggingface dataset:
Method for generating nitric oxide, which comprises the steps of: providing a precursor solution comprising a nitric oxide precursor in a first reservoir, guiding the precursor solution through a reaction chamber, thereby subjecting the precursor solution to radiation to generate nitric oxide, guiding the generated nitric oxide out of the reaction chamber by a stream of carrier gas, and guiding the reacted solution into a second reservoir wherein the reacted solution is recirculated to the first reservoir. providing a precursor solution comprising a nitric oxide precursor in a first reservoir, guiding the precursor solution through a reaction chamber, thereby subjecting the precursor solution to radiation to generate nitric oxide, guiding the generated nitric oxide out of the reaction chamber by a stream of carrier gas, and guiding the reacted solution into a second reservoir wherein the reacted solution is recirculated to the first reservoir.
A device for air conditioning and/or monitoring building or warehouse areas, comprising a housing (1, 1') made of plastic or composite material and designed as a hollow body, which housing comprises air inlet sections, air guidance sections and air outlet sections, at least one aerator roller (2, 2') which is provided with a plurality of profiled slats made of composite materials or plastic and which can be driven by at least one electric motor, which aerator roller can be positioned inside the housing (1, 1'), characterized by a cladding of the housing (1, 1') formed by a flexible plate made of plastic or composite material which can be connected to the housing (1, 1') such that one end section of the cladding can be detachably connected to a housing section, a contour having an approximately arch-shaped cross section of the cladding is formed by bending the same one outside the housing (1, 1') and after further bending of the cladding, the free end of the same one can be detachably fixed to another housing section.
A refillable device, suitable for use with a beverage machine, the device comprising: an inlet for receiving, in use, water from a water supply of the beverage machine; an outlet through which fluid can be dispensed; and a plurality of refillable beverage ingredient chambers (180, 181), characterized in that the inlet is located at or near a periphery of the device, the outlet is located at or near a centre of the device and the plurality of refillable beverage ingredient chambers (180, 181) are distributed circumferentially around the outlet. an inlet for receiving, in use, water from a water supply of the beverage machine; an outlet through which fluid can be dispensed; and a plurality of refillable beverage ingredient chambers (180, 181), characterized in that the inlet is located at or near a periphery of the device, the outlet is located at or near a centre of the device and the plurality of refillable beverage ingredient chambers (180, 181) are distributed circumferentially around the outlet.
A method of manufacturing a press-molded body, comprising: a step of placing an X material in a mold; a step of closing the mold, starting applying pressure to a part of the X material, and then injecting a Y material, which is a kneaded material, into the mold; and a step of cold pressing the X material and the Y material in the mold to integrally mold the X material and the Y material, wherein the X material is cut out from a composite material M containing a carbon fiber A having a weight average fiber length Lw A and a thermoplastic resin Rx, the Y material contains a carbon fiber B having a weight average fiber length Lw B and a thermoplastic resin Ry, wherein Lw B < Lw A, and Lw A is 1 mm or more and 100 mm or less, wherein the press-molded body has a flange portion, and at least one end portion of the flange portion is formed of only the Y region made of the Y material, and wherein the press-molded body includes a portion having a hat-shaped cross section. a step of placing an X material in a mold; a step of closing the mold, starting applying pressure to a part of the X material, and then injecting a Y material, which is a kneaded material, into the mold; and a step of cold pressing the X material and the Y material in the mold to integrally mold the X material and the Y material, wherein the X material is cut out from a composite material M containing a carbon fiber A having a weight average fiber length Lw A and a thermoplastic resin Rx, the Y material contains a carbon fiber B having a weight average fiber length Lw B and a thermoplastic resin Ry, wherein Lw B < Lw A, and Lw A is 1 mm or more and 100 mm or less, wherein the press-molded body has a flange portion, and at least one end portion of the flange portion is formed of only the Y region made of the Y material, and wherein the press-molded body includes a portion having a hat-shaped cross section.
An active limiting system configured to protect a low noise amplifier, LNA, the LNA comprising an amplifier transistor (Ta), against the high power signals received from a signal input (Ri), comprising; - a first switch, having a source (s), a gate (g) coupled to a gate of the amplifier transistor (Ta) through a first matching network and a drain (d), and the source (s) of the first switch is connected to a gate voltage (Vg), wherein electrical connection between the source (s) and drain (d) of the first switch is controlled by a gate (g) to source (s) voltage of the first switch; - at least one first resistor which is connected between the gate (g) and source (s) of the first switch; - at least one second resistor, which is connected between a drain voltage (Vd), coupled to a drain of the amplifier transistor (Ta) through a second matching network, and the drain (d) of the first switch; - a second switch, having a source (s), a gate (g) and a drain (d), the source (s) of the second switch is connected to said drain voltage (Vd) and the drain (d) of the second switch is coupled to the signal input (Ri), wherein electrical connection between the source (s) and drain (d) of the second switch is controlled by a gate (g) to source (s) voltage of the second switch; - a third resistor which is connected between the drain (d) of the first switch and the gate (g) of the second switch; - at least one first filtering element, which blocks DC currents/voltages and which is connected between the source (s) of the second switch and ground. - a first switch, having a source (s), a gate (g) coupled to a gate of the amplifier transistor (Ta) through a first matching network and a drain (d), and the source (s) of the first switch is connected to a gate voltage (Vg), wherein electrical connection between the source (s) and drain (d) of the first switch is controlled by a gate (g) to source (s) voltage of the first switch; - at least one first resistor which is connected between the gate (g) and source (s) of the first switch; - at least one second resistor, which is connected between a drain voltage (Vd), coupled to a drain of the amplifier transistor (Ta) through a second matching network, and the drain (d) of the first switch; - a second switch, having a source (s), a gate (g) and a drain (d), the source (s) of the second switch is connected to said drain voltage (Vd) and the drain (d) of the second switch is coupled to the signal input (Ri), wherein electrical connection between the source (s) and drain (d) of the second switch is controlled by a gate (g) to source (s) voltage of the second switch; - a third resistor which is connected between the drain (d) of the first switch and the gate (g) of the second switch; - at least one first filtering element, which blocks DC currents/voltages and which is connected between the source (s) of the second switch and ground.
An acoustic controller-transmitter device for transmitting acoustic energy into a body, comprising: an output transducer assembly configured to transmit acoustic energy into the body, wherein the acoustic energy is receivable by an implantable acoustic receiver-stimulator configured to convert the acoustic energy into electrical energy and deliver the electrical energy to tissue, wherein the receiver-stimulator comprises a voltage limiter, and wherein the voltage limiter is configured to limit the output voltage delivered to the tissue to a predetermined maximum output voltage; a control circuitry configured to estimate an output voltage delivered to the tissue by the receiver-stimulator; and a sensing electrode assembly, wherein the sensing electrode assembly is configured for contacting the body and is configured to detect and measure a query spike voltage as a result of the electrical energy delivered to the tissue by the receiver-stimulator, wherein the controller-transmitter is configured to determine a maximum query spike voltage, wherein a said query spike is shorter in duration than a pacing pulse, and wherein the controller-transmitter is configured to compute a ratio of the predetermined maximum output voltage and the maximum query spike voltage and the controller-transmitter is further configured to estimate the output voltage of the receiver-stimulator based on the ratio and on the query spike voltage. an output transducer assembly configured to transmit acoustic energy into the body, wherein the acoustic energy is receivable by an implantable acoustic receiver-stimulator configured to convert the acoustic energy into electrical energy and deliver the electrical energy to tissue, wherein the receiver-stimulator comprises a voltage limiter, and wherein the voltage limiter is configured to limit the output voltage delivered to the tissue to a predetermined maximum output voltage; a control circuitry configured to estimate an output voltage delivered to the tissue by the receiver-stimulator; and a sensing electrode assembly, wherein the sensing electrode assembly is configured for contacting the body and is configured to detect and measure a query spike voltage as a result of the electrical energy delivered to the tissue by the receiver-stimulator, wherein the controller-transmitter is configured to determine a maximum query spike voltage, wherein a said query spike is shorter in duration than a pacing pulse, and wherein the controller-transmitter is configured to compute a ratio of the predetermined maximum output voltage and the maximum query spike voltage and the controller-transmitter is further configured to estimate the output voltage of the receiver-stimulator based on the ratio and on the query spike voltage.
A method for manufacturing spunbonded or spunbonded/carded nonwoven, comprising the following sequential steps; a) extruding continuous thread filaments or microfilaments through spinnerets to produce spunbonded continuous filaments having a lobed cross-section, b) laying at least one layer (T 1) of spunbonded lobed filaments or microfilaments on a suitable three dimensional support S, said support S having a surface with ribs in contact with said filaments or microfilaments, and c) effecting a pre-consolidation of said layer T 1 by passing the layer T 1, supported by said three dimensional support S, between two rollers (2, 3), one of the rollers facing the layer T 1, wherein the ribs of said surface of said support S have a height between 0.3 and 5 mm, said ribs being distributed to cover less than 14% of said surface, and wherein said roller facing the layer T 1 is provided with a metal outer surface and is subject to heating. a) extruding continuous thread filaments or microfilaments through spinnerets to produce spunbonded continuous filaments having a lobed cross-section, b) laying at least one layer (T 1) of spunbonded lobed filaments or microfilaments on a suitable three dimensional support S, said support S having a surface with ribs in contact with said filaments or microfilaments, and c) effecting a pre-consolidation of said layer T 1 by passing the layer T 1, supported by said three dimensional support S, between two rollers (2, 3), one of the rollers facing the layer T 1, wherein the ribs of said surface of said support S have a height between 0.3 and 5 mm, said ribs being distributed to cover less than 14% of said surface, and wherein said roller facing the layer T 1 is provided with a metal outer surface and is subject to heating.
A method of operating a vehicle, comprising detecting, by a motion sensor, a motion during a time period in a space surrounding the vehicle within a predetermined distance of the vehicle to allow detection of persisting threat during this time period, capturing images, by a camera, during this time period of at least a part of the space surrounding the vehicle to allow detection of persisting threat during this time period, detecting from the motion and the images a presence of a threat to the vehicle, determining a reaction of the vehicle depending on the threat, detecting a presence or an absence of an occupant inside the vehicle, determining a vehicle parking state, starting, by a vehicle control device, the reaction autonomously in case of absence of any occupant inside the vehicle and when the vehicle is in the vehicle wherein the reaction comprises detecting a well-lit area, parking state, autonomously driving the vehicle to a location associated with the well-lit area and parking the vehicle at the well-lit area autonomously by the vehicle control device. detecting, by a motion sensor, a motion during a time period in a space surrounding the vehicle within a predetermined distance of the vehicle to allow detection of persisting threat during this time period, capturing images, by a camera, during this time period of at least a part of the space surrounding the vehicle to allow detection of persisting threat during this time period, detecting from the motion and the images a presence of a threat to the vehicle, determining a reaction of the vehicle depending on the threat, detecting a presence or an absence of an occupant inside the vehicle, determining a vehicle parking state, starting, by a vehicle control device, the reaction autonomously in case of absence of any occupant inside the vehicle and when the vehicle is in the vehicle wherein the reaction comprises detecting a well-lit area, parking state, autonomously driving the vehicle to a location associated with the well-lit area and parking the vehicle at the well-lit area autonomously by the vehicle control device.
Surfboard with an electric drive, and a battery for the electric drive, said battery being arranged in a battery housing, a first recess for the battery housing, and a handle on the battery housing, wherein the handle is designed as a bracket handle, which is mounted pivotably on opposite sides 6 of the battery housing 3 and the handle has a locking mechanism with the first recess and the handle has a projection on each of the opposing sides which, when the handle is folded down, in each case engages under a lug inside the first recess and firmly fixes the battery housing in the first recess. a battery for the electric drive, said battery being arranged in a battery housing, a first recess for the battery housing, and a handle on the battery housing, wherein the handle is designed as a bracket handle, which is mounted pivotably on opposite sides 6 of the battery housing 3 and the handle has a locking mechanism with the first recess and the handle has a projection on each of the opposing sides which, when the handle is folded down, in each case engages under a lug inside the first recess and firmly fixes the battery housing in the first recess.
A printing apparatus for printing a three-dimensional object, comprising: a substrate comprising an operative surface; an energy source for emitting at least one energy beam onto the operative surface; and a powder dispensing mechanism comprising a plurality of powder-dispensing supply hoppers and a supply control mechanism, the supply hoppers and supply control mechanism being configured to dispense powder from each of the supply hoppers onto said operative surface to form a plurality of layers of powder simultaneously, such that: the plurality of layers of powder, which shall form part of said three-dimensional object, are formed simultaneously on said operative surface; each layer of powder in the plurality overlays a subjacent layer of powder in the plurality or, for the bottommost layer in the plurality, the operative surface; and the layers of powder are formed in a staggered manner such that, when being worked on by the energy beam, each layer of powder in the plurality has an exposed topmost surface section that is not covered by an overlying layer of powder; and wherein the powder is adapted to be melted by the energy beam, and the energy source is configured to emit the energy beam onto each of the exposed surface sections simultaneously or sequentially. a substrate comprising an operative surface; an energy source for emitting at least one energy beam onto the operative surface; and a powder dispensing mechanism comprising a plurality of powder-dispensing supply hoppers and a supply control mechanism, the supply hoppers and supply control mechanism being configured to dispense powder from each of the supply hoppers onto said operative surface to form a plurality of layers of powder simultaneously, such that: the plurality of layers of powder, which shall form part of said three-dimensional object, are formed simultaneously on said operative surface; each layer of powder in the plurality overlays a subjacent layer of powder in the plurality or, for the bottommost layer in the plurality, the operative surface; and the layers of powder are formed in a staggered manner such that, when being worked on by the energy beam, each layer of powder in the plurality has an exposed topmost surface section that is not covered by an overlying layer of powder; and
A rechargeable battery comprising: an electrode assembly; a case configured to accommodate the electrode assembly and having an opening at one side thereof; and a cap assembly comprising: a cap plate configured to close and seal the opening of the case, the cap plate having a vent portion and defining a vent opening that is configured to discharge an internal gas generated inside the case to outside of the case, the vent portion comprising: a vent plate disposed along a periphery of the vent opening; and an electrode terminal (22, 23) at an upper portion of the cap plate and electrically connected to the electrode assembly, wherein the vent plate includes a bending portion that is raised from the vent plate, the vent plate comprises a connecting portion connected to the cap plate and disposed below the vent opening, and a rupture portion enclosed by the bending portion and having a notch, the bending portion is located between an outer periphery of the vent opening and the notch. a distance between a center of the bending portion and an outer periphery of the vent opening is greater than a length of the connecting portion. an electrode assembly; a case configured to accommodate the electrode assembly and having an opening at one side thereof; and a cap assembly comprising: a cap plate configured to close and seal the opening of the case, the cap plate having a vent portion and defining a vent opening that is configured to discharge an internal gas generated inside the case to outside of the case, the vent portion comprising: a vent plate disposed along a periphery of the vent opening; and an electrode terminal (22, 23) at an upper portion of the cap plate and electrically connected to the electrode assembly, a vent plate disposed along a periphery of the vent opening; and an electrode terminal (22, 23) at an upper portion of the cap plate and electrically connected to the electrode assembly, wherein the vent plate includes a bending portion that is raised from the vent plate, the vent plate comprises a connecting portion connected to the cap plate and disposed below the vent opening, and a rupture portion enclosed by the bending portion and having a notch, the bending portion is located between an outer periphery of the vent opening and the notch. a distance between a center of the bending portion and an outer periphery of the vent opening is greater than a length of the connecting portion.
A method for production of a protein, comprising: culturing a recombinant microorganism of the Order Thraustochytriales in a medium, wherein the recombinant microorganism comprises an isolated nucleic acid molecule comprising a foreign gene that encodes the protein, to produce the protein; and recovering the protein.
A method comprising: separating received signals into a broadband component and a baseband component; obtaining from the baseband component a set of baseband symbols of a baseband codeword, each baseband symbol received via a respective wire of a plurality of wires of a multiwire bus; obtaining from the broadband component a set of carrier-modulated symbols of a carrier-modulated codeword, each carrier-modulated symbol received via a respective wire of a plurality of wires of a multiwire bus; characerized by applying each carrier-modulated symbol of the set of carrier-modulated symbols to a corresponding transistor of a set of transistors of a multi-input comparator -demodulation circuit, the set of transistors further connected to a pair of output nodes according to a sub-channel vector of a plurality of mutually orthogonal subchannel vectors; recovering a demodulation signal from the baseband symbols, the demodulation signal operating at a carrier frequency and phase-shifted to be aligned to the set of carrier-modulated symbols; and generating a demodulated sub-channel data output as a differential voltage on the pair of output nodes based on a linear combination of the set of carrier-modulated symbols, the demodulation signal configured to by gate operation of the MIC-demodulation circuit at the carrier frequency. obtaining from the broadband component a set of carrier-modulated symbols of a carrier-modulated codeword, each carrier-modulated symbol received via a respective wire of a plurality of wires of a multiwire bus; characerized by applying each carrier-modulated symbol of the set of carrier-modulated symbols to a corresponding transistor of a set of transistors of a multi-input comparator -demodulation circuit, the set of transistors further connected to a pair of output nodes according to a sub-channel vector of a plurality of mutually orthogonal subchannel vectors; recovering a demodulation signal from the baseband symbols, the demodulation signal operating at a carrier frequency and phase-shifted to be aligned to the set of carrier-modulated symbols; and generating a demodulated sub-channel data output as a differential voltage on the pair of output nodes based on a linear combination of the set of carrier-modulated symbols, the demodulation signal configured to by gate operation of the MIC-demodulation circuit at the carrier frequency.