mhurhangee/ep-ind-claims huggingface dataset:
A beamforming device for a phased array antenna, comprising: a laser light source arranged to provide an optical spectrum comprising a plurality of spaced wavelengths, a distribution unit configured to distribute a plurality of the spaced wavelengths onto a plurality of optical paths, a wavelength selection device configured to receive the plurality of spaced wavelengths on each of the plurality of optical paths, one or more phase shift unit connected to a said wavelength selection device, wherein the phase shift unit is configured to introduce a phase shift to a received wavelength; and further comprising one or more modulator configured to modulate a wavelength selected by the wavelength selection device; and wherein the wavelength selection device on each optical path is configured to selectively transmit a wavelength to the phase shift unit, and wherein the wavelength selection device is configured to receive the said phase shifted wavelength from the phase shift unit, and beamforming device further comprising: a heterodyning device configured to generate a signal for transmission by an element of the phased array antenna, wherein the heterodyning device is configured to heterodyne a plurality of pairs of selected spectral components of the spaced wavelengths of the laser light source to form a plurality of beams. a laser light source arranged to provide an optical spectrum comprising a plurality of spaced wavelengths, a distribution unit configured to distribute a plurality of the spaced wavelengths onto a plurality of optical paths, a wavelength selection device configured to receive the plurality of spaced wavelengths on each of the plurality of optical paths, one or more phase shift unit connected to a said wavelength selection device, wherein the phase shift unit is configured to introduce a phase shift to a received wavelength; and further comprising one or more modulator configured to modulate a wavelength selected by the wavelength selection device; and wherein the wavelength selection device on each optical path is configured to selectively transmit a wavelength to the phase shift unit, and wherein the wavelength selection device is configured to receive the said phase shifted wavelength from the phase shift unit, and beamforming device further comprising: a heterodyning device configured to generate a signal for transmission by an element of the phased array antenna, wherein the heterodyning device is configured to heterodyne a plurality of pairs of selected spectral components of the spaced wavelengths of the laser light source to form a plurality of beams.
Pressurising device of a direct fuel injection equipment of a diesel internal combustion engine, said pressurising device comprising a digital inlet metering valve (DIMV 12) controlling an inlet fluid communication to a pump, said pump comprising: a pumping head defining a compression chamber having an inlet controlled by an inlet valve and an outlet controlled by an outlet valve, and a piston reciprocally moving along a pumping axis, between BDC and TDC for performing a pumping cycle; said cycle being the alternation of a filling phase and a compression phase; and wherein, the DIMV is configured to: switch to an open state after said cycle initiates a filling phase, and switch to a closed state when approaching the end of said filling phase; characterised in that, the digital inlet metering valve (DIMV) comprises an electro 2-way valve controlling the inlet into a buffer chamber connected to the inlet so that, in use, in open state of the DIMV the fuel fills said buffer chamber and from there fills the compression chamber which volume increases when in filling phase. said cycle being the alternation of a filling phase and a compression phase; and wherein, the DIMV is configured to: switch to an open state after said cycle initiates a filling phase, and switch to a closed state when approaching the end of said filling phase; characterised in that, the digital inlet metering valve (DIMV) comprises an electro 2-way valve controlling the inlet into a buffer chamber connected to the inlet so that, in use, in open state of the DIMV the fuel fills said buffer chamber and from there fills the compression chamber which volume increases when in filling phase.
An aircraft landing gear assembly comprising a bogie beam, an axle extending through the bogie beam and a jacking dome fitting extending through a sidewall of the bogie beam, and arranged to be in contact with the axle during jacking so as to transfer vertical loads applied to the jacking dome fitting directly to the axle.
An injection instrument characterized in that the instrument comprises: a hollow needle body having one or more projections on a first surface of a substrate, each projection being formed with a through hole penetrating from a distal end thereof to a second surface that is the other surface of the substrate; a deforming part arranged outside a region in which the one or more projections are formed, the deforming part being deformable so as to bulge in a projecting direction of the projections beyond a plane that is flush with the first surface on which the projection is formed; and a pressure channel that causes a fluid to apply a fluid pressure to the deforming part, wherein the deforming part is deformable in the bulging direction in response to the fluid pressure. a hollow needle body having one or more projections on a first surface of a substrate, each projection being formed with a through hole penetrating from a distal end thereof to a second surface that is the other surface of the substrate; a deforming part arranged outside a region in which the one or more projections are formed, the deforming part being deformable so as to bulge in a projecting direction of the projections beyond a plane that is flush with the first surface on which the projection is formed; and a pressure channel that causes a fluid to apply a fluid pressure to the deforming part, wherein the deforming part is deformable in the bulging direction in response to the fluid pressure.
A computing device, comprising: a touch-sensitive display (13, 24); a processor; memory; and one or more programs, wherein the one or more programs are stored in the memory and configured to be executed by the processor, the one or more programs including instructions for: playing-back a video file on the touch-sensitive display; displaying a play progress bar on the touch-sensitive display (13, 24), the play progress bar including a timeline indicating a time span of the video file being played; detecting two touch points on the play progress bar; detecting the two touch points moving away from each other on the play progress bar, or moving towards each other on the play progress bar; and, in response to detecting the two touch points moving away from or towards each other on the play progress bar, respectively expanding or contracting a portion of the play progress bar in accordance with the movement of the two touch points, wherein the portion of the play progress bar that is expanded or contracted corresponds to the portion at which the two touch points were detected. a touch-sensitive display (13, 24); a processor; memory; and one or more programs, wherein the one or more programs are stored in the memory and configured to be executed by the processor, the one or more programs including instructions for: playing-back a video file on the touch-sensitive display; displaying a play progress bar on the touch-sensitive display (13, 24), the play progress bar including a timeline indicating a time span of the video file being played; detecting two touch points on the play progress bar; detecting the two touch points moving away from each other on the play progress bar, or moving towards each other on the play progress bar; and, in response to detecting the two touch points moving away from or towards each other on the play progress bar, respectively expanding or contracting a portion of the play progress bar in accordance with the movement of the two touch points, wherein the portion of the play progress bar that is expanded or contracted corresponds to the portion at which the two touch points were detected. playing-back a video file on the touch-sensitive display; displaying a play progress bar on the touch-sensitive display (13, 24), the play progress bar including a timeline indicating a time span of the video file being played; detecting two touch points on the play progress bar; detecting the two touch points moving away from each other on the play progress bar, or moving towards each other on the play progress bar; and, in response to detecting the two touch points moving away from or towards each other on the play progress bar, respectively expanding or contracting a portion of the play progress bar in accordance with the movement of the two touch points, wherein the portion of the play progress bar that is expanded or contracted corresponds to the portion at which the two touch points were detected.
A genetically-engineered non-pathogenic bacterium for use in metabolizing phenylalanine, the bacterium comprising at least one heterologous gene encoding a transporter for importing phenylalanine, and at least one heterologous gene encoding a polypeptide involved in metabolizing phenylalanine, wherein the at least one heterologous gene encoding phenylalanine transporter for importing phenylalanine, and the at least one heterologous gene encoding the polypeptide involved in metabolizing phenylalanine are operably linked to a directly or indirectly inducible promoter that is induced by low-oxygen or anaerobic conditions and that is not associated with the phenylalanine transporter or polypeptide involved in metabolizing phenylalanine in nature, wherein the non-pathogenic bacterium is a probiotic bacterium, and wherein the bacterium is selected from the group consisting of Bacteroides, Bifidobacterium, Clostridium, Escherichia, Lactobacillus, and Lactococcus. at least one heterologous gene encoding a transporter for importing phenylalanine, and at least one heterologous gene encoding a polypeptide involved in metabolizing phenylalanine, wherein the at least one heterologous gene encoding phenylalanine transporter for importing phenylalanine, and the at least one heterologous gene encoding the polypeptide involved in metabolizing phenylalanine are operably linked to a directly or indirectly inducible promoter that is induced by low-oxygen or anaerobic conditions and that is not associated with the phenylalanine transporter or polypeptide involved in metabolizing phenylalanine in nature, wherein the non-pathogenic bacterium is a probiotic bacterium, and wherein the bacterium is selected from the group consisting of Bacteroides, Bifidobacterium, Clostridium, Escherichia, Lactobacillus, and Lactococcus.
Switching device, having at least one stationary contact (2, 3) and a moving contact, wherein the moving contact can be moved from a first switching state to a second switching state by means of a magnet armature, the magnet armature has a spring which is configured to reset the moving contact from the second switching state to the first switching state, characterized in that the spring has a first spring region with a first spring constant and a second spring region with a second spring constant which is greater than the first spring constant, and only the first spring region is compressed when a changeover is made from the first switching state to an intermediate state. the moving contact can be moved from a first switching state to a second switching state by means of a magnet armature, the magnet armature has a spring which is configured to reset the moving contact from the second switching state to the first switching state, characterized in that the spring has a first spring region with a first spring constant and a second spring region with a second spring constant which is greater than the first spring constant, and only the first spring region is compressed when a changeover is made from the first switching state to an intermediate state.
Aerosol-generating article which comprises a wrapper paper and an aerosol-generating material, which, in its intended use, is only heated, but not burned, wherein the wrapper paper wraps the aerosol-generating material, wherein the wrapper paper comprises pulp fibers and a char-former, wherein the pulp fibers make up at least 70% and at most 95% of the mass of the wrapper paper and the char-former is contained in a concentration of at least 5% and at most 20% with respect to the mass of the wrapper paper and is present in a concentration in the wrapper paper such that the quotient r = R T /R o of the tensile strength R o, measured in accordance with ISO 1924-2:2008 under the conditions of ISO 187:1990, and of the tensile strength R T, measured in accordance with ISO 1924-2:2008 under the conditions of ISO 187:1990 after the wrapper paper has been exposed to a temperature of 230°C for one minute, is at least 0.20 and at most 0.90.
A fan ramp for use in a thrust reverser portion of a nacelle of a gas turbine engine, the fan ramp extending circumferentially about an axial fan ramp centerline, the fan ramp defined by an annular torque box and comprising: a torque box forward bracket; a fan ramp forward edge disposed, when installed, proximate an aft end of a fan case, the fan case at least partially surrounding a fan section of the gas turbine engine; an fan ramp aft edge disposed, when installed, proximate a forward end of an array of cascades, the array of cascades being operable to permit a bypass airstream to pass therethrough during a thrust reversing operation; and a noise attenuating structure comprising a perforated layer, a base layer, and a core layer, all of which are stacked in a superimposed relationship so that the core layer is disposed between the perforated layer and the base layer; wherein the perforated layer is configured to permit noise to pass therethrough, the core layer includes a substructure that is operable to receive an amount of the noise that passes through the perforated layer that is operable to reflect the amount of the noise off the base layer such that sound waves of reflected noise are out of phase with and destructively interfere with sound waves of noise outside the substructure; and wherein the core layer comprises and axially extends between a forward axial end proximate the fan ramp forward edge and an aft axial end axially forward a blocker door forward edge, and the core layer is axially forward of the torque box forward bracket that forms the forward boundary of the torque box; characterised in that the core layer is not disposed aft of the torque box forward bracket. a torque box forward bracket; a fan ramp forward edge disposed, when installed, proximate an aft end of a fan case, the fan case at least partially surrounding a fan section of the gas turbine engine; an fan ramp aft edge disposed, when installed, proximate a forward end of an array of cascades, the array of cascades being operable to permit a bypass airstream to pass therethrough during a thrust reversing operation; and a noise attenuating structure comprising a perforated layer, a base layer, and a core layer, all of which are stacked in a superimposed relationship so that the core layer is disposed between the perforated layer and the base layer; wherein the perforated layer is configured to permit noise to pass therethrough, the core layer includes a substructure that is operable to receive an amount of the noise that passes through the perforated layer that is operable to reflect the amount of the noise off the base layer such that sound waves of reflected noise are out of phase with and destructively interfere with sound waves of noise outside the substructure; and wherein the core layer comprises and axially extends between a forward axial end proximate the fan ramp forward edge and an aft axial end axially forward a blocker door forward edge, and the core layer is axially forward of the torque box forward bracket that forms the forward boundary of the torque box; characterised in that the core layer is not disposed aft of the torque box forward bracket.
A controlled release pharmaceutical composition for intramuscular or subcutaneous administration comprising Aprepitant or Fosaprepitant or pharmaceutical acceptable salt, derivative or metabolite thereof, as the active ingredient and a viscosity increasing agent at a concentration varying from 0.01 mg/ml to 350 mg/ml based on the total weight of the formulation, for the treatment of Chemotherapy Induced Nausea and Vomiting Syndrome, wherein the active substance is released in a constant rate for at least three days after administration.
A process for producing long chain dibasic acid of formula and long chain amino acid of formula, comprising: reacting a keto fatty acid of the formula: in the presence or absence of a solvent with an aqueous solution of hydroxylamine salt or subjecting a keto fatty acid to an ammoximation reaction to produce an oxime fatty acid of the formula: wherein m is an integer from 0 to 10; n is an integer from 6 to 20; subjecting the oxime fatty acid to Beckmann rearrangement to yield a mixture of amide fatty acid (IVa) and (IVb) hydrolyzing the mixed amide fatty acids with an acid or a basic agent to a mixture of a long chain dibasic acid, a long chain amino acid, a short chain alkylamine (VIII), and an alkanoic acid (VIII) and separating the long chain amino acid, long chain dibasic acid, and alkanoic acid (VIII) by a step-wise neutralization or acidification. reacting a keto fatty acid of the formula: in the presence or absence of a solvent with an aqueous solution of hydroxylamine salt or subjecting a keto fatty acid to an ammoximation reaction to produce an oxime fatty acid of the formula: wherein m is an integer from 0 to 10; n is an integer from 6 to 20; subjecting the oxime fatty acid to Beckmann rearrangement to yield a mixture of amide fatty acid (IVa) and (IVb) hydrolyzing the mixed amide fatty acids with an acid or a basic agent to a mixture of a long chain dibasic acid, a long chain amino acid, a short chain alkylamine (VIII), and an alkanoic acid (VIII) and separating the long chain amino acid, long chain dibasic acid, and alkanoic acid (VIII) by a step-wise neutralization or acidification.
A method of blanching, steaming, and/or boiling a food product, the method comprising: - applying steam of a gas to at least a part of a surface area of a food product for a predetermined period of time thereby blanching, steaming, and/or boiling at least a part of said food product, and - applying airborne high intensity and high power acoustic waves to at least a part of said steam of gas causing the part of said steam of gas to oscillate substantially at the frequency and substantially with the intensity and power of the acoustic waves, wherein - said high intensity and high power acoustic waves are generated by a high intensity and high power acoustic wave generator (100; 301) and have an acoustic sound pressure level at approximately 10 cm from an orifice of said generator (100; 301) being at least 120 dB, and - said predetermined period of time is at least approximately 10 seconds, whereby a heating effect caused by the steam of a gas will penetrate into the food product. - applying steam of a gas to at least a part of a surface area of a food product for a predetermined period of time thereby blanching, steaming, and/or boiling at least a part of said food product, and - applying airborne high intensity and high power acoustic waves to at least a part of said steam of gas causing the part of said steam of gas to oscillate substantially at the frequency and substantially with the intensity and power of the acoustic waves, - said high intensity and high power acoustic waves are generated by a high intensity and high power acoustic wave generator (100; 301) and have an acoustic sound pressure level at approximately 10 cm from an orifice of said generator (100; 301) being at least 120 dB, and - said predetermined period of time is at least approximately 10 seconds, whereby a heating effect caused by the steam of a gas will penetrate into the food product.
System for spraying particles onto a substrate, characterised in that it comprises: - at least one reactor comprising at least one inlet for liquid reagents (R1, R2), a reaction zone, as well as a zone for the collection of the particles produced from the liquid reagents in the reaction zone; - a dispensing device allowing the particles to be sprayed onto the substrate; and - means for guiding the particles from said collection zone towards said dispensing device, and in that it also comprises: - a collector of said particles; - a collector of additive elements (Ai); - a zone for the mixing of the particles and of the additive elements (Ai); - a nozzle for the spraying of the mixture of particles and of additive elements. - at least one reactor comprising at least one inlet for liquid reagents (R1, R2), a reaction zone, as well as a zone for the collection of the particles produced from the liquid reagents in the reaction zone; - a dispensing device allowing the particles to be sprayed onto the substrate; and - means for guiding the particles from said collection zone towards said dispensing device, - a collector of said particles; - a collector of additive elements (Ai); - a zone for the mixing of the particles and of the additive elements (Ai); - a nozzle for the spraying of the mixture of particles and of additive elements.
A phase control circuit for an optical receiver comprising: a non-linear element having a rectifying characteristic, inputting a received electrical signal (7, 17) and providing a rectified signal at its output; said phase control circuit being characterized by: a power detector whose input being connected to the output of said nonlinear element; an output of said power detector providing an error signal being used to obtain a phase control signal being output by said phase control circuit for controlling the phase of a signal in the optical receiver, the circuit further comprising; a minimizer (27, 28, 29, 30, 31), an input of said minimizer (27, 28, 29, 30, 31) being connected to said output of said power detector, an output of said minimizer (27, 28, 29, 30, 31) providing said phase control signal; said minimizer (27, 28, 29, 30, 31) generating said phase control signal in a way minimizing said error signal. a non-linear element having a rectifying characteristic, inputting a received electrical signal (7, 17) and providing a rectified signal at its output; said phase control circuit being characterized by: a power detector whose input being connected to the output of said nonlinear element; an output of said power detector providing an error signal being used to obtain a phase control signal being output by said phase control circuit for controlling the phase of a signal in the optical receiver, the circuit further comprising; a minimizer (27, 28, 29, 30, 31), an input of said minimizer (27, 28, 29, 30, 31) being connected to said output of said power detector, an output of said minimizer (27, 28, 29, 30, 31) providing said phase control signal; said minimizer (27, 28, 29, 30, 31) generating said phase control signal in a way minimizing said error signal. a power detector whose input being connected to the output of said nonlinear element; an output of said power detector providing an error signal being used to obtain a phase control signal being output by said phase control circuit for controlling the phase of a signal in the optical receiver, the circuit further comprising; a minimizer (27, 28, 29, 30, 31), an input of said minimizer (27, 28, 29, 30, 31) being connected to said output of said power detector, an output of said minimizer (27, 28, 29, 30, 31) providing said phase control signal; said minimizer (27, 28, 29, 30, 31) generating said phase control signal in a way minimizing said error signal.