mhurhangee/ep-ind-claims huggingface dataset:
A method of processing audio signals, the method comprising: receiving an input audio signal that includes N r input audio channels, the input audio signal representing a first soundfield format having a first soundfield format resolution, N r being an integer ≥ 2; applying a first decorrelation process to a set of two or more of the input audio channels to produce a first set of decorrelated channels, the first decorrelation process maintaining an inter-channel correlation of the set of input audio channels; applying a first modulation process to the first set of decorrelated channels to produce a first set of decorrelated and modulated output channels; and combining the first set of decorrelated and modulated output channels with N r undecorrelated output channels to produce an output audio signal that includes N p output audio channels, N p being an integer ≥ 3, wherein each of the N r undecorrelated output channels is produced by applying a gain to the respective one of the N r input audio channels, characterized in that the N p output audio channels represent a second soundfield format that is a relatively higher-resolution soundfield format than the first soundfield format and include the N r undecorrelated output channels corresponding with lower-resolution components of the output audio signal and the decorrelated and modulated output channels corresponding with higher-resolution components of the output audio signal. receiving an input audio signal that includes N r input audio channels, the input audio signal representing a first soundfield format having a first soundfield format resolution, N r being an integer ≥ 2; applying a first decorrelation process to a set of two or more of the input audio channels to produce a first set of decorrelated channels, the first decorrelation process maintaining an inter-channel correlation of the set of input audio channels; applying a first modulation process to the first set of decorrelated channels to produce a first set of decorrelated and modulated output channels; and combining the first set of decorrelated and modulated output channels with N r undecorrelated output channels to produce an output audio signal that includes N p output audio channels, N p being an integer ≥ 3, wherein each of the N r undecorrelated output channels is produced by applying a gain to the respective one of the N r input audio channels, characterized in that the N p output audio channels represent a second soundfield format that is a relatively higher-resolution soundfield format than the first soundfield format and include the N r undecorrelated output channels corresponding with lower-resolution components of the output audio signal and the decorrelated and modulated output channels corresponding with higher-resolution components of the output audio signal.
A packaged consumer product characterized by comprising: a package container; a consumer product disposed within the package container; a package closure disposed in communication with the package container; and an indicia (600, 700) comprising an array of visual elements disposed upon adjacent surfaces of the package container and package closure, an interface gap between the package container and the package closure wherein the indicia comprises an image-free zone corresponding to the location of the interface; characterised in that the image-free zone extends about 1-2 millimeters from one or both edges of the gap, or 2-6 millimeters from the gap; and wherein the discrete visual elements comprise a network of elements which yield a composite image when viewed by an observer of the array of elements. a package container; a consumer product disposed within the package container; a package closure disposed in communication with the package container; and an indicia (600, 700) comprising an array of visual elements disposed upon adjacent surfaces of the package container and package closure, an interface gap between the package container and the package closure wherein the indicia comprises an image-free zone corresponding to the location of the interface; characterised in that the image-free zone extends about 1-2 millimeters from one or both edges of the gap, or 2-6 millimeters from the gap; and wherein the discrete visual elements comprise a network of elements which yield a composite image when viewed by an observer of the array of elements.
A system (100, 200, 300), comprising: a lighting unit (120, 220, 320), including, a lighting driver (240, 340), and a lighting module (250, 350) supplied with power by the lighting driver, the lighting module including, one or more light sources (252-1/252-2, 352-1/352-2), one or more sensors (254, 354) for sensing data indicating one or more operating parameters of the lighting module, and a secondary processor (156, 256, 356) configured to receive the sensed data indicating the one or more operating parameters of the lighting module; an optical isolator (230, 330); and a primary processor (110, 210, 310) configured to monitor the one or more operating parameters of the lighting module, wherein the primary processor and the secondary processor are configured to communicate with each other via the optical isolator according to a message-based communication protocol, wherein each message communicated between the primary processor and the secondary processor has an identical message format and includes a command field and a response field, wherein the response field is provided for indicating a response to a command. a lighting unit (120, 220, 320), including, a lighting driver (240, 340), and a lighting module (250, 350) supplied with power by the lighting driver, the lighting module including, one or more light sources (252-1/252-2, 352-1/352-2), one or more sensors (254, 354) for sensing data indicating one or more operating parameters of the lighting module, and a secondary processor (156, 256, 356) configured to receive the sensed data indicating the one or more operating parameters of the lighting module; a lighting driver (240, 340), and a lighting module (250, 350) supplied with power by the lighting driver, the lighting module including, one or more light sources (252-1/252-2, 352-1/352-2), one or more sensors (254, 354) for sensing data indicating one or more operating parameters of the lighting module, and a secondary processor (156, 256, 356) configured to receive the sensed data indicating the one or more operating parameters of the lighting module; one or more light sources (252-1/252-2, 352-1/352-2), one or more sensors (254, 354) for sensing data indicating one or more operating parameters of the lighting module, and a secondary processor (156, 256, 356) configured to receive the sensed data indicating the one or more operating parameters of the lighting module; an optical isolator (230, 330); and a primary processor (110, 210, 310) configured to monitor the one or more operating parameters of the lighting module, wherein the primary processor and the secondary processor are configured to communicate with each other via the optical isolator according to a message-based communication protocol, wherein each message communicated between the primary processor and the secondary processor has an identical message format and includes a command field and a response field, wherein the response field is provided for indicating a response to a command.
Plastic extraction device for extracting a pressurized liquid from a container having a cap, characterized in that it comprises: a dispenser; a base configured to fit into the cap and couple to the dispenser; wherein the dispenser comprises: a tap; a gas inlet valve, an inner chamber configured to inject an extraction gas into the container having a cap, an inner channel configured to direct the extracted pressurized liquid to a horizontal outlet connected to the tap, wherein the tap is controlled by a lever through a plunger configured to regulate the extraction of the pressurized liquid, a handle comprising two arms, for coupling the plastic device to the cap, the handle being connected to the base by means of the two arms, and to the dispenser by means of a sliding connection, wherein the two arms are configured to pivot around the base, wherein the sliding connection is configured to move vertically in the base so as to promote the coupling of the dispenser into the container. a dispenser; a base configured to fit into the cap and couple to the dispenser; wherein the dispenser comprises: a tap; a gas inlet valve, an inner chamber configured to inject an extraction gas into the container having a cap, an inner channel configured to direct the extracted pressurized liquid to a horizontal outlet connected to the tap, wherein the tap is controlled by a lever through a plunger configured to regulate the extraction of the pressurized liquid, a tap; a gas inlet valve, an inner chamber configured to inject an extraction gas into the container having a cap, an inner channel configured to direct the extracted pressurized liquid to a horizontal outlet connected to the tap, wherein the tap is controlled by a lever through a plunger configured to regulate the extraction of the pressurized liquid, a handle comprising two arms, for coupling the plastic device to the cap, the handle being connected to the base by means of the two arms, and to the dispenser by means of a sliding connection, wherein the two arms are configured to pivot around the base,
A coated multi-threat fabric, comprising: a. at least one layer of fabric, each layer having a plurality of high performance fibers; and b. at least one coating of polymeric material bonded to the at least one layer of fabric; characterised by: c. the polymeric material comprising an ethylene acrylic acid copolymer with a melt flow index of between about 250 g/10min and 1400 g/10 min at about 190 degrees C; d. the multi-threat fabric having been obtained by: - applying the at least one coating of polymeric material as a liquid to produce a raw coated fabric, then - heating the raw coated fabric to allow the polymeric material to flow further into the base fabric and to heat set such that cross-linking occurs and the polymeric material is bonded to the at least one layer of fabric. a. at least one layer of fabric, each layer having a plurality of high performance fibers; and b. at least one coating of polymeric material bonded to the at least one layer of fabric; c. the polymeric material comprising an ethylene acrylic acid copolymer with a melt flow index of between about 250 g/10min and 1400 g/10 min at about 190 degrees C; d. the multi-threat fabric having been obtained by: - applying the at least one coating of polymeric material as a liquid to produce a raw coated fabric, then - heating the raw coated fabric to allow the polymeric material to flow further into the base fabric and to heat set such that cross-linking occurs and the polymeric material is bonded to the at least one layer of fabric. - applying the at least one coating of polymeric material as a liquid to produce a raw coated fabric, then - heating the raw coated fabric to allow the polymeric material to flow further into the base fabric and to heat set such that cross-linking occurs and the polymeric material is bonded to the at least one layer of fabric.
An air conditioning system, comprising: an outdoor unit including an inverter circuit; an indoor unit connected to the outdoor unit in a communicable manner; and a signal adjustment mechanism (22, 23, 42, 43, 153) for communication between the outdoor unit and the indoor unit; characterized in that the outdoor unit and the indoor unit are configured to communicate to each other with a multi-carrier transmission using a communication signal including a plurality of carrier frequencies simultaneously; the signal adjustment mechanism (22, 42, 153) is configured to include a flag that is set and cleared in correspondence with an influence of noise on the air conditioning system, the flag indicating whether to adjust a signal component in a frequency of the noise; when the flag is set, generate the communication signal to limit a signal within a predetermined frequency width within a frequency region of the communication signal based on a tone map created by a tone map creator and that does not include information of a frequency component of the noise in the carrier frequencies used for communication, and when the flag is not set, generate the communication signal based on a tone map that includes all the information of the carrier frequencies used for communication. an outdoor unit including an inverter circuit; an indoor unit connected to the outdoor unit in a communicable manner; and a signal adjustment mechanism (22, 23, 42, 43, 153) for communication between the outdoor unit and the indoor unit; characterized in that the outdoor unit and the indoor unit are configured to communicate to each other with a multi-carrier transmission using a communication signal including a plurality of carrier frequencies simultaneously; the signal adjustment mechanism (22, 42, 153) is configured to include a flag that is set and cleared in correspondence with an influence of noise on the air conditioning system, the flag indicating whether to adjust a signal component in a frequency of the noise; when the flag is set, generate the communication signal to limit a signal within a predetermined frequency width within a frequency region of the communication signal based on a tone map created by a tone map creator and that does not include information of a frequency component of the noise in the carrier frequencies used for communication, and when the flag is not set, generate the communication signal based on a tone map that includes all the information of the carrier frequencies used for communication.
An oral care implement comprising: a) a handle stem and a refill head having a sleeve coaxially aligned with the handle stem; b) the sleeve having an attachment axis, a first opening, a second opening, and a wall defining a cavity for receiving the handle stem; and c) a plurality of resilient engagement members arranged around the wall for engaging the handle stem, the plurality of resilient engagement members extending along an engagement axis; wherein the second opening extends upwardly along the wall from the first opening; wherein a portion of the handle stem is visible through the second opening in the sleeve when the refill head is attached to the handle stem, the second opening partially surrounding the resilient engagement members into which the resilient engagement members move during engagement of the refill head with the handle stem; characterized in that the resilient engagement members extend upwardly relative to the first opening. a) a handle stem and a refill head having a sleeve coaxially aligned with the handle stem; b) the sleeve having an attachment axis, a first opening, a second opening, and a wall defining a cavity for receiving the handle stem; and c) a plurality of resilient engagement members arranged around the wall for engaging the handle stem, the plurality of resilient engagement members extending along an engagement axis;
Device for filling a container with a filling product, which has a base fluid and at least one dosing component, preferably in a beverage filling line, which comprises: a base reservoir which is configured to provide the base fluid, a filling valve which is configured to introduce the filling product into the container to be filled; a base line with a base line, which brings the base reservoir into fluid connection with the filling valve, a flow meter which is arranged on the base line between the base reservoir and the filling valve and configured to determine the amount of fluid passing the flow meter in the base line, and a dosing chamber which is arranged between the flow meter and the filling valve; at least one dosing arm of the base line, which is configured to introduce a dosing component into the dosing chamber of the base line; at least one branch line with a line, which brings the base reservoir in fluid connection with the dosing chamber of the base line via a valve, a flow meter, which is arranged on the line of the branch line between the base reservoir and the valve and configured to determine the amount of fluid in the line of the branch line passing the flow meter of the branch line, and a dosing chamber, which is arranged between the flow meter of the branch line and the valve; characterised by at least one dosing arm of the branch line, which is configured to introduce a dosing component into the dosing chamber of the branch line. a base reservoir which is configured to provide the base fluid, a filling valve which is configured to introduce the filling product into the container to be filled; a base line with a base line, which brings the base reservoir into fluid connection with the filling valve, a flow meter which is arranged on the base line between the base reservoir and the filling valve and configured to determine the amount of fluid passing the flow meter in the base line, and a dosing chamber which is arranged between the flow meter and the filling valve; at least one dosing arm of the base line, which is configured to introduce a dosing component into the dosing chamber of the base line; at least one branch line with a line, which brings the base reservoir in fluid connection with the dosing chamber of the base line via a valve, a flow meter, which is arranged on the line of the branch line between the base reservoir and the valve and configured to determine the amount of fluid in the line of the branch line passing the flow meter of the branch line, and a dosing chamber, which is arranged between the flow meter of the branch line and the valve; characterised by at least one dosing arm of the branch line, which is configured to introduce a dosing component into the dosing chamber of the branch line.
A fluid flow cell for use in analysis of fluid samples, the fluid flow cell being configured for hydrodynamic focusing and comprising: a housing including a number of fluid-guiding surfaces (104, 106); at least two fluid inlets disposed in one of the fluid-guiding surfaces (104, 106), the at least two fluid inlets for introducing at least two guide fluid streams (130, 132) into the flow cell that define a flow path for a central fluid stream that passes through the housing of the flow cell; at least one fluid outlet disposed in one of the fluid-guiding surfaces (104, 106) and spaced from the at least two fluid inlets and in fluid communication with the flow path; a first reagent inlet port disposed in one of the fluid-guiding surfaces (104, 106) between the at least two fluid inlets and the at least one fluid outlet and in fluid communication with the flow path and a first detection substrate disposed within the housing and spaced from the first reagent inlet port, the flow cell characterized in that the flow cell comprises: a first reagent evacuation port disposed in one of the fluid-guiding surfaces (104, 106) between the at least two fluid inlets and the at least one fluid outlet, positioned immediately downstream from the first reagent inlet port, and in fluid communication with the flow path, the first reagent evacuation port being operable to evacuate a leading edge of a first reagent sample that has been injected into the flow path for the central fluid stream passing through the flow cell through the first reagent inlet port prior to the first reagent sample reaching the first detection substrate. a housing including a number of fluid-guiding surfaces (104, 106); at least two fluid inlets disposed in one of the fluid-guiding surfaces (104, 106), the at least two fluid inlets for introducing at least two guide fluid streams (130, 132) into the flow cell that define a flow path for a central fluid stream that passes through the housing of the flow cell; at least one fluid outlet disposed in one of the fluid-guiding surfaces (104, 106) and spaced from the at least two fluid inlets and in fluid communication with the flow path; a first reagent inlet port disposed in one of the fluid-guiding surfaces (104, 106) between the at least two fluid inlets and the at least one fluid outlet and in fluid communication with the flow path and a first detection substrate disposed within the housing and spaced from the first reagent inlet port, the flow cell characterized in that the flow cell comprises: a first reagent evacuation port disposed in one of the fluid-guiding surfaces (104, 106) between the at least two fluid inlets and the at least one fluid outlet, positioned immediately downstream from the first reagent inlet port, and in fluid communication with the flow path, the first reagent evacuation port being operable to evacuate a leading edge of a first reagent sample that has been injected into the flow path for the central fluid stream passing through the flow cell through the first reagent inlet port prior to the first reagent sample reaching the first detection substrate.
A method for manufacturing a rear cover, comprising, providing a housing, having a contour of rounded rectangle, the housing having a metal layer and a plastic layer, the metal layer having a first surface and a second surface, the plastic layer formed on the first surface; defining a slot in the metal layer at an end of the housing, the slot passing through the first surface and the second surface; characterized by the slot extending along the contour of the housing and having a first extending portion, a second extending portion, and a third extending portion; wherein the second extending portion and the third extending portion are coupled to two opposite ends of the first extending portion; the first extending portion, the second extending portion and the third extending portion corporately form a C-shaped structure of the slot; and forming an unshielded portion in the slot. providing a housing, having a contour of rounded rectangle, the housing having a metal layer and a plastic layer, the metal layer having a first surface and a second surface, the plastic layer formed on the first surface; defining a slot in the metal layer at an end of the housing, the slot passing through the first surface and the second surface; characterized by the slot extending along the contour of the housing and having a first extending portion, a second extending portion, and a third extending portion; wherein the second extending portion and the third extending portion are coupled to two opposite ends of the first extending portion; the first extending portion, the second extending portion and the third extending portion corporately form a C-shaped structure of the slot; and forming an unshielded portion in the slot.
Wind turbine comprising a vertical tower with a yaw bearing, a nacelle on top of the yaw bearing, a hub with blades rotatable around a more or less horizontal rotation axis, the nacelle comprising a generator and a control room, whereby the generator comprises a rotor with a rotor shaft and a stator characterized in that the rotor shaft is supported on two rotor bearings (17,31) and carries the hub, the stator comprising a cylindrical outer shell with a stator diameter that is approximately equal to the diameter of the nacelle and which outer shell has at its ends a front cover plate and a back cover plate each with a rotor bearing for supporting the rotor shaft, the rotor shaft being hollow and the hollow hub being accessible from the control room through the hollow rotor shaft.