mhurhangee/patent-ind-claim-en huggingface dataset:
A method of rigging a variable stator vane arrangement for a gas turbine engine , the variable stator vane arrangement comprising: an actuator comprising an actuator body and an actuator ram , the actuator ram being moveable relative to the actuator body along an actuator axis (X); an array (70/72/74) of variable stator vanes ; and an adjustable connecting arrangement that, once adjusted, fixedly connects the actuator ram to the variable stator vanes such that the angle of incidence of the variable stator vanes is dependent on the position of the actuator ram along the actuator axis, characterized in that : each of the actuator body and the actuator ram comprises at least one rigging hole (602-610, 210), with at least one of the actuator body and the actuator ram comprising at least two rigging holes that are offset from each other in the direction of the actuator axis, the method comprising: aligning an actuator ram rigging hole (602-610) with an actuator body rigging hole ; inserting a rigging pin through the aligned actuator ram rigging hole and actuator body rigging hole so as to set a rigging position of the actuator ram; setting the angle of incidence of the variable stator vanes to a rigging angle; and adjusting the adjustable connecting arrangement so as to fixedly connect the actuator ram at the rigging position to the variable stator vanes at the rigging angle. an actuator comprising an actuator body and an actuator ram , the actuator ram being moveable relative to the actuator body along an actuator axis (X); an array (70/72/74) of variable stator vanes ; and an adjustable connecting arrangement that, once adjusted, fixedly connects the actuator ram to the variable stator vanes such that the angle of incidence of the variable stator vanes is dependent on the position of the actuator ram along the actuator axis, characterized in that : each of the actuator body and the actuator ram comprises at least one rigging hole (602-610, 210), with at least one of the actuator body and the actuator ram comprising at least two rigging holes that are offset from each other in the direction of the actuator axis, the method comprising: aligning an actuator ram rigging hole (602-610) with an actuator body rigging hole ; inserting a rigging pin through the aligned actuator ram rigging hole and actuator body rigging hole so as to set a rigging position of the actuator ram; setting the angle of incidence of the variable stator vanes to a rigging angle; and adjusting the adjustable connecting arrangement so as to fixedly connect the actuator ram at the rigging position to the variable stator vanes at the rigging angle. aligning an actuator ram rigging hole (602-610) with an actuator body rigging hole ; inserting a rigging pin through the aligned actuator ram rigging hole and actuator body rigging hole so as to set a rigging position of the actuator ram; setting the angle of incidence of the variable stator vanes to a rigging angle; and adjusting the adjustable connecting arrangement so as to fixedly connect the actuator ram at the rigging position to the variable stator vanes at the rigging angle.
A method for delaminating a film from a substrate , the method comprising: - providing a substrate of a first material in direct contact with a film of a second material, - bonding the film to a carrier using an adhesive , - intercalating a supercritical fluid between the film and the substrate , wherein the supercritical fluid has a critical temperature below a glass transition temperature of the adhesive , - mechanical peeling of the substrate from the film , after intercalating the supercritical fluid. - providing a substrate of a first material in direct contact with a film of a second material, - bonding the film to a carrier using an adhesive , - intercalating a supercritical fluid between the film and the substrate , wherein the supercritical fluid has a critical temperature below a glass transition temperature of the adhesive , - mechanical peeling of the substrate from the film , after intercalating the supercritical fluid.
A device for rendering a higher order ambisonic, HOA, audio signal, the device comprising: one or more processors configured to: receive a bitstream comprising HOA audio data associated with an HOA audio signal and one or more field of view, FOV, parameters of a reference screen; determine a rendering matrix (R') for the HOA audio data; in response to a user-initiated zoom operation, determine one or more field of view, FOV, parameters of a zoomed viewing window; modify the rendering matrix (R') for the HOA audio data based on the one or more FOV parameters of the reference screen and the one or more FOV parameters of the zoomed viewing window to form a modified rendering matrix (D); and apply the modified rendering matrix (D) to at least a portion of the HOA audio data to render the HOA audio signal into one or more speaker feeds . receive a bitstream comprising HOA audio data associated with an HOA audio signal and one or more field of view, FOV, parameters of a reference screen; determine a rendering matrix (R') for the HOA audio data; in response to a user-initiated zoom operation, determine one or more field of view, FOV, parameters of a zoomed viewing window; modify the rendering matrix (R') for the HOA audio data based on the one or more FOV parameters of the reference screen and the one or more FOV parameters of the zoomed viewing window to form a modified rendering matrix (D); and apply the modified rendering matrix (D) to at least a portion of the HOA audio data to render the HOA audio signal into one or more speaker feeds .
A device for adjusting the temperature of the air blown into a building, comprising: - means for blowing air, comprising an air circulation circuit and at least one fan arranged on said air circulation circuit , - a heat exchanger between the blown air and a heat transfer fluid circuit such as water, - a valve for adjusting the entering flow rate of the heat transfer fluid into the heat exchanger , - a member for closing the valve , - an actuator of said closing member in order to move said closing member between a closed position and an open position of the valve , - a system for defining a setpoint temperature (Tc) of the blown air, characterized in that the valve is a two-way valve, in that the actuator comprises a heat-sensitive element capable of deforming and/or moving under the effect of the heat and an electric heating element of the heat-sensitive element , and in that the device comprises a member for measuring the temperature (T m ) of the air blown inside the air circulation circuit , at the outlet of the heat exchanger , and a unit for controlling the power supply of the electric heating element configured to control the supply of the electric heating element as a function at least of the setpoint temperature (Tc) and of the measured temperature (T m ) of the blown air. - means for blowing air, comprising an air circulation circuit and at least one fan arranged on said air circulation circuit , - a heat exchanger between the blown air and a heat transfer fluid circuit such as water, - a valve for adjusting the entering flow rate of the heat transfer fluid into the heat exchanger , - a member for closing the valve , - an actuator of said closing member in order to move said closing member between a closed position and an open position of the valve , - a system for defining a setpoint temperature (Tc) of the blown air,
An aircraft comprising a wing , the wing having a fixed wing with a wing tip device , the wing tip device being rotatable, about a hinge axis , relative to the fixed wing , wherein the hinge axis is orientated non-parallel to a line-of-flight direction of the aircraft , and wherein the aircraft comprises an actuator assembly operable to move the wing tip device relative to the fixed wing , the actuator assembly comprising: a primary shaft having an axis of rotation orientated substantially parallel to the line-of-flight direction, a motor operable to cause rotation of the primary shaft , and a secondary shaft orientated substantially parallel to the hinge axis and couplable to the primary shaft , the secondary shaft arranged to rotate the wing tip device about the hinge axis in response to the rotation of the primary shaft . wherein the hinge axis is orientated non-parallel to a line-of-flight direction of the aircraft , and wherein the aircraft comprises an actuator assembly operable to move the wing tip device relative to the fixed wing , the actuator assembly comprising: a primary shaft having an axis of rotation orientated substantially parallel to the line-of-flight direction, a motor operable to cause rotation of the primary shaft , and a secondary shaft orientated substantially parallel to the hinge axis and couplable to the primary shaft , the secondary shaft arranged to rotate the wing tip device about the hinge axis in response to the rotation of the primary shaft . a primary shaft having an axis of rotation orientated substantially parallel to the line-of-flight direction, a motor operable to cause rotation of the primary shaft , and a secondary shaft orientated substantially parallel to the hinge axis and couplable to the primary shaft , the secondary shaft arranged to rotate the wing tip device about the hinge axis in response to the rotation of the primary shaft .
An article comprising a food or beverage container, or a portion thereof, having a metal substrate and a food-contact coating applied on at least a portion of the metal substrate, wherein the coating is formed from a coating composition that includes a polyether polymer having a polymer backbone, wherein the polymer contains at least two ether linkages in the polymer backbone; is substantially free of segments derived from bisphenol A and epoxides thereof; and is a reaction product of, or can be derived from, reactants including: (i) an aryl- or heteroaryl-group-containing diepoxide that is not derived from a polyhydric phenol or a glycidyl ester wherein the diepoxide provides an aryl or heteroaryl group in the polymer backbone and linked to it via ether linkages and (ii) a polymer backbone extender that has two functional groups reactive with an epoxy group and which following reaction with the diepoxide provides at least one divalent aryl or heteroaryl group in the polymer backbone and linked to the backbone via ether linkages wherein the term "substantially free" means the concentration being less than 1000 ppm.
A method of dynamically adjusting thresholds of a compressor responsive to an input audio signal, the method comprising: receiving, by a scene switch analyzer , an input audio signal having a plurality of frequency band components; determining, by the scene switch analyzer, whether a scene switch has occurred in the input audio signal, wherein a scene switch is determined to have occurred when the input audio signal transitions from being a broadband signal to being a narrowband signal or vice versa; providing, by the scene switch analyzer, one or more control signals to a distortion audibility model to guide smoothing to compressor thresholds of the frequency band components by guiding a change of an attack time constant and/or a release time constant of a smoother; and processing the frequency band components of the input audio signal, including: in response to determining that scene switch has not occurred, the control signal indicating use of a large time constant thereby applying slow smoothing to compressor thresholds of the frequency band components; and in response to determining that scene switch has occurred, the one or more control signals indicating use of a small or zero-valued time constant thereby applying fast smoothing or no smoothing to the compressor thresholds of the frequency band components. receiving, by a scene switch analyzer , an input audio signal having a plurality of frequency band components; determining, by the scene switch analyzer, whether a scene switch has occurred in the input audio signal, wherein a scene switch is determined to have occurred when the input audio signal transitions from being a broadband signal to being a narrowband signal or vice versa; providing, by the scene switch analyzer, one or more control signals to a distortion audibility model to guide smoothing to compressor thresholds of the frequency band components by guiding a change of an attack time constant and/or a release time constant of a smoother; and processing the frequency band components of the input audio signal, including: in response to determining that scene switch has not occurred, the control signal indicating use of a large time constant thereby applying slow smoothing to compressor thresholds of the frequency band components; and in response to determining that scene switch has occurred, the one or more control signals indicating use of a small or zero-valued time constant thereby applying fast smoothing or no smoothing to the compressor thresholds of the frequency band components. in response to determining that scene switch has not occurred, the control signal indicating use of a large time constant thereby applying slow smoothing to compressor thresholds of the frequency band components; and in response to determining that scene switch has occurred, the one or more control signals indicating use of a small or zero-valued time constant thereby applying fast smoothing or no smoothing to the compressor thresholds of the frequency band components.
A modular assembly system for a portable hemodialysis system, comprising: a dialysis unit including a dialysis unit housing that in use contains components for performing hemodialysis comprising one or more pumps to circulate blood through a dialyzer and one or more pumps to circulate dialysate through the dialyzer, wherein the pumps to circulate blood and dialysate are pneumatic pumps, , the dialysis unit further comprising a controller configured to control the flow of control fluid in the hemodialysis system and a control interface configured to allow a user to control operation of the dialysis unit ; and a pneumatic power unit within a pneumatic power unit housing configured to provide pneumatic power to the dialysis unit to power the pumps of the dialysis unit; and characterized in that the pneumatic power unit housing is reversibly connectable to the dialysis unit to provide the pneumatic power to the dialysis unit. a dialysis unit including a dialysis unit housing that in use contains components for performing hemodialysis comprising one or more pumps to circulate blood through a dialyzer and one or more pumps to circulate dialysate through the dialyzer, wherein the pumps to circulate blood and dialysate are pneumatic pumps, , the dialysis unit further comprising a controller configured to control the flow of control fluid in the hemodialysis system and a control interface configured to allow a user to control operation of the dialysis unit ; and a pneumatic power unit within a pneumatic power unit housing configured to provide pneumatic power to the dialysis unit to power the pumps of the dialysis unit; and characterized in that the pneumatic power unit housing is reversibly connectable to the dialysis unit to provide the pneumatic power to the dialysis unit.
A surface-coated cutting tool comprising a substrate and a coating formed on a surface of the substrate, the coating including one or two or more layers, at least one of the layers being an Al-rich layer including hard particles, the hard particle having a sodium chloride type crystal structure, and including a first unit phase in a form of a plurality of lumps and a second unit phase interposed between the lumps of the first unit phase, the first unit phase being composed of a nitride or carbonitride of Al x Ti 1-x , the first unit phase having an atomic ratio x of Al of 0.7 or more and 0.96 or less, the second unit phase being composed of a nitride or carbonitride of Al y Ti 1-y , the second unit phase having an atomic ratio y of Al exceeding 0.5 and less than 0.7, the Al-rich layer exhibiting a maximum peak in the plane when the Al-rich layer is analyzed through X-ray diffraction in a direction normal to a surface of the coating, the maximum peak in the plane being determined using the method described in the description, wherein the hard particle internally has a structure in which the second unit phase in the form of a thin line surrounds the first unit phase in the form of a plurality of lumps, wherein the coating has a thickness of 3 to 30 μm measured using a transmission electron microscope using the method described in the description and the Al-rich layer has a thickness of 1 μm or more and 20 μm or less measured using a transmission electron microscope using the method described in the description. the coating including one or two or more layers, at least one of the layers being an Al-rich layer including hard particles, the hard particle having a sodium chloride type crystal structure, and including a first unit phase in a form of a plurality of lumps and a second unit phase interposed between the lumps of the first unit phase, the first unit phase being composed of a nitride or carbonitride of Al x Ti 1-x , the first unit phase having an atomic ratio x of Al of 0.7 or more and 0.96 or less, the second unit phase being composed of a nitride or carbonitride of Al y Ti 1-y , the second unit phase having an atomic ratio y of Al exceeding 0.5 and less than 0.7, the Al-rich layer exhibiting a maximum peak in the plane when the Al-rich layer is analyzed through X-ray diffraction in a direction normal to a surface of the coating, the maximum peak in the plane being determined using the method described in the description, wherein the hard particle internally has a structure in which the second unit phase in the form of a thin line surrounds the first unit phase in the form of a plurality of lumps, wherein the coating has a thickness of 3 to 30 μm measured using a transmission electron microscope using the method described in the description and the Al-rich layer has a thickness of 1 μm or more and 20 μm or less measured using a transmission electron microscope using the method described in the description.
Light for illuminating breeding facilities having a light radiation characteristic , the light comprising a controller and a plurality of light sources connected to the controller, wherein the light radiation characteristic is defined by a superposition of radiation patterns of the light sources, wherein the light sources comprise a first group of light sources having a radiation characteristic with a first intensity maximum being at a first wavelength position between 510 nm and 650 nm, and a second group of light sources having a radiation characteristic with a second intensity maximum being at a second wavelength position between 451 nm and 500 nm, and a third group of light sources having a radiation characteristic with a third intensity maximum being at a third wavelength position between 420 nm and 450 nm, and a fourth group of light sources having a radiation characteristic with a fourth intensity maximum being at a fourth wavelength position between 300 nm and 419 nm, in particular between 360 nm and 410 nm, wherein the controller is designed to control the light sources in an operation state of the light in such a way that the third intensity maximum is greater than the second intensity maximum and the fourth intensity maximum , and characterized in that the first intensity maximum is greater than the third intensity maximum .
A compound (A) of the formula (I) in which R 1 to R 5 are each independently selected from the group consisting of hydrogen, C 1 -C 20 -alkyl, C 1 -C 20 -alkyloxy and C 8 -C 3500 -polyisobutyl and C 8 -C 3500 -polyisobutenyl, R is an alkylene group having 2 to 10 carbon atoms, R 6 is hydrogen or methyl, R 7 is hydrogen, methyl or COOR 8 , R 8 is hydrogen or C 1 -C 20 -alkyl and n is a positive integer from 1 to 50, with the proviso that at least one of the R 1 to R 5 radicals is a C 8 -C 3500 -polyisobutyl or C 8 -C 3500 -polyisobutenyl, and is derived from polyisobutene having a content of terminal double bonds of at least 50 mol%, based on the total number of polyisobutene macromolecules, R 1 to R 5 are each independently selected from the group consisting of hydrogen, C 1 -C 20 -alkyl, C 1 -C 20 -alkyloxy and C 8 -C 3500 -polyisobutyl and C 8 -C 3500 -polyisobutenyl, R is an alkylene group having 2 to 10 carbon atoms, R 6 is hydrogen or methyl, R 7 is hydrogen, methyl or COOR 8 , R 8 is hydrogen or C 1 -C 20 -alkyl and n is a positive integer from 1 to 50, with the proviso that at least one of the R 1 to R 5 radicals is a C 8 -C 3500 -polyisobutyl or C 8 -C 3500 -polyisobutenyl, and is derived from polyisobutene having a content of terminal double bonds of at least 50 mol%, based on the total number of polyisobutene macromolecules,
A method for transporting, removing or inserting longitudinal rod-like elements (R) in a handling system, comprising a robotic device and a production line for producing sausage-shaped products (S), in particular sausages, wherein the rod-like elements (R), in particular smoking rods, have a central axis (A), a first end (E 1 ) and a second end (E 2 ) and serve for storing the sausage-shaped products (S) produced in the production line , and wherein two substantially parallel guidances are provided each having a first end (G 1 ) and a second end (G 2 ), wherein the rod-like elements (R) are guided along the guidances , wherein, in the area of the first end (G 1 ) of the guidances , a first transfer point between the production line and the guidances is defined and wherein, in the area of the second end (G 2 ) of the guidances , a second transfer point between the guidances and the robotic device is defined, the method comprising the following steps: moving at least one rod-like element (R) from the first transfer point to the second transfer point for the robotic device along the two guidances , and aligning the rod-like element (R) in the area of the second transfer point such that the rod-like element (R) is in a predefined position, wherein the rod-like element (R) is aligned by means of at least one alignment unit which is provided in the area of the second transfer point such that the rod-like element (R) is in the predefined position. moving at least one rod-like element (R) from the first transfer point to the second transfer point for the robotic device along the two guidances , and aligning the rod-like element (R) in the area of the second transfer point such that the rod-like element (R) is in a predefined position, wherein the rod-like element (R) is aligned by means of at least one alignment unit which is provided in the area of the second transfer point such that the rod-like element (R) is in the predefined position.