mhurhangee/ep-ind-claims huggingface dataset:
A method for altering a multi-channel soundfield representation of an audio environment, the multi-channel soundfield representation captured by a soundfield microphone, the method including the steps of: (a) extracting a first audio component from the soundfield representation, the first audio component comprising audio activity incident from a range of angles in the multi-channel soundfield representation; (b) determining a second audio component from the multi-channel soundfield representation, the second audio component corresponding to the multi-channel soundfield representation with the first component at least partly removed; (c) inputting an auxiliary audio signal captured by an auxiliary microphone (4, 5); (d) mixing the auxiliary audio signal with the first audio component based on a comparison between an instantaneous signal to noise ratio, SNR, of the multi-channel soundfield representation and an instantaneous SNR of the auxiliary audio signal, and thereby forming a mixed audio component, (e) combining the second audio component with the mixed audio component to produce an output soundfield signal. (a) extracting a first audio component from the soundfield representation, the first audio component comprising audio activity incident from a range of angles in the multi-channel soundfield representation; (b) determining a second audio component from the multi-channel soundfield representation, the second audio component corresponding to the multi-channel soundfield representation with the first component at least partly removed; (c) inputting an auxiliary audio signal captured by an auxiliary microphone (4, 5); (d) mixing the auxiliary audio signal with the first audio component based on a comparison between an instantaneous signal to noise ratio, SNR, of the multi-channel soundfield representation and an instantaneous SNR of the auxiliary audio signal, and thereby forming a mixed audio component, (e) combining the second audio component with the mixed audio component to produce an output soundfield signal.
A remote-controlled delivery system, comprising: a nozzle delivery assembly including a wash nozzle and a medicinal delivery nozzle; a first motor being connected to the nozzle delivery assembly and capable of directing one or more extending and retracting movements of the nozzle delivery assembly; one or more second motors (32, 33) being connected to the nozzle delivery assembly and capable of directing one or more three-dimensional rotational movements of the nozzle delivery assembly; and one or more dynamic steering remote control units (40, 41, 42) adapted to be communicating with both the first motor and the one or more second motors (32, 33) and directing one or more movements of the first motor and the one or more second motors (32, 33); wherein the first motor is configured to move one or both of the wash nozzle and the medicinal delivery nozzle between a retracted position and an extended position in response to the one or more dynamic steering remote control units (40, 41, 42) receiving a user input; wherein one of the one or more second motors (32, 33) is configured to rotate one or both of the wash nozzle and the medicinal delivery nozzle in response to the one or more dynamic steering remote control units (40, 41, 42) receiving the user input. a nozzle delivery assembly including a wash nozzle and a medicinal delivery nozzle; a first motor being connected to the nozzle delivery assembly and capable of directing one or more extending and retracting movements of the nozzle delivery assembly; one or more second motors (32, 33) being connected to the nozzle delivery assembly and capable of directing one or more three-dimensional rotational movements of the nozzle delivery assembly; and one or more dynamic steering remote control units (40, 41, 42) adapted to be communicating with both the first motor and the one or more second motors (32, 33) and directing one or more movements of the first motor and the one or more second motors (32, 33); wherein the first motor is configured to move one or both of the wash nozzle and the medicinal delivery nozzle between a retracted position and an extended position in response to the one or more dynamic steering remote control units (40, 41, 42) receiving a user input; wherein one of the one or more second motors (32, 33) is configured to rotate one or both of the wash nozzle and the medicinal delivery nozzle in response to the one or more dynamic steering remote control units (40, 41, 42) receiving the user input.
A proppant or anti-flowback additive comprising a sintered sillimanite mineral, wherein the proppant or anti-flowback additive has a bulk density of 0.5 g/cm 3 to 2.5 g/cm 3.
An antenna of a mobile terminal, comprising a dielectric substrate, a ground plate located on one side of the dielectric substrate, and a near-feed unit, a near-ground unit and a coupling unit that are arranged on the other side of the dielectric substrate, wherein one end of the near-ground unit is connected to the coupling unit, and the other end of the near-ground unit is connected to the ground plate; the coupling unit and the near-ground unit are configured to be equivalent to a Left-Handed, LH inductor; the near-feed unit is configured to be equivalent to a Right-Handed, RH, inductor; the coupling unit is coupled to the near-feed unit and is configured to be equivalent to an LH capacitor; the coupling unit is coupled to the ground plate and is configured to be equivalent to an RH capacitor; and the near-feed unit, the near-ground unit, the coupling unit and the ground plate are configured to form a Composite Right-Left-Handed Transmission Line, CRLH-TL, structure, the antenna being characterized in that the near-feed unit comprises an annular portion and a feed line that are connected, and one end of the feed line is connected to the annular portion, and the other end of the feed line is connected to a feed point. one end of the near-ground unit is connected to the coupling unit, and the other end of the near-ground unit is connected to the ground plate; the coupling unit and the near-ground unit are configured to be equivalent to a Left-Handed, LH inductor; the near-feed unit is configured to be equivalent to a Right-Handed, RH, inductor; the coupling unit is coupled to the near-feed unit and is configured to be equivalent to an LH capacitor; the coupling unit is coupled to the ground plate and is configured to be equivalent to an RH capacitor; and the near-feed unit, the near-ground unit, the coupling unit and the ground plate are configured to form a Composite Right-Left-Handed Transmission Line, CRLH-TL, structure, the antenna being characterized in that the near-feed unit comprises an annular portion and a feed line that are connected, and one end of the feed line is connected to the annular portion, and the other end of the feed line is connected to a feed point.
A substrate for an organic electronic element comprising: a base substrate; a scattering layer comprising a conductive pattern configured to lower a sheet resistance of an electrode, scattering particles scattering light and a binder; forming an uneven structure on the surface opposite to the base substrate, and formed on the base substrate; and a planarizing layer formed on the scattering layer and planarizing the surface undulations caused by the uneven structure of the scattering layer, wherein the refractive index of the scattering particles and the refractive index of the planarizing layer satisfy the relationship in formula 1 below: | Na − Nb | ≥ 0.3 wherein the "Na" represents the refractive index of the scattering particles and the "Nb" represents the refractive index of the planarizing layer, and wherein one surface of the conductive pattern is exposed on the planarized surface formed by the planarizing layer. a base substrate; a scattering layer comprising a conductive pattern configured to lower a sheet resistance of an electrode, scattering particles scattering light and a binder; forming an uneven structure on the surface opposite to the base substrate, and formed on the base substrate; and a planarizing layer formed on the scattering layer and planarizing the surface undulations caused by the uneven structure of the scattering layer, wherein the refractive index of the scattering particles and the refractive index of the planarizing layer satisfy the relationship in formula 1 below: | Na − Nb | ≥ 0.3 wherein the "Na" represents the refractive index of the scattering particles and the "Nb" represents the refractive index of the planarizing layer, and wherein one surface of the conductive pattern is exposed on the planarized surface formed by the planarizing layer. wherein the "Na" represents the refractive index of the scattering particles and the "Nb" represents the refractive index of the planarizing layer, and wherein one surface of the conductive pattern is exposed on the planarized surface formed by the planarizing layer.
A gas control device for a ventilator with a breathing gas source and a ventilation tube comprising a first gas channel with a first valve, wherein the first gas channel and the valve are configured to let a pressurized gas flow pass in a first direction and to block a pressurized gas flow in a second direction, wherein the gas flow in the second direction is exhalation breathing gas and the gas flow in the first direction is inhalation breathing gas, wherein an opening branches off from the first gas channel and leads to a bypass channel for the valve, wherein a second valve (15, 16) is configured to block and/or at least at times enable a gas flow from the first gas channel to the bypass channel, wherein a switching apparatus is configured to control the second valve (15, 16) and to block and/or at least at times enable a gas flow from the first gas channel to the bypass channel, and that the valve (15, 16) is designed as a pneumatic valve, wherein a seal of the valve closes or opens the gas-conducting connection between the opening and the bypass channel and wherein a second gas channel is configured to conduct a pneumatic control pressure onto the surface of the seal, and that the second gas channel is pneumatically connected to the ventilation tube or the gas channel or the breathing gas source and the switching apparatus is configured to at least at times open or close the pneumatic connection, characterized in that the switching apparatus is configured such that, if an exhalation branch of the ventilator is blocked or disrupted in a way that prevents or impedes an exhalation of the patient, the second gas channel is blocked so that the blocked gas channel causes the gas flow in the second gas channel, which acts on the seal, to come to a stop and as a result of which the gas flow in the first gas channel can lift the seal, which lies on the opening, so that the gas flow in the first gas channel is guided via a bypass channel around the first valve into the first gas channel and from there at least partially into the environment.
A prosthesis comprising: a central body having a longitudinal axis and a plurality of arms extending from said central body in a direction substantially perpendicular to said longitudinal axis, each arm having a first end and a second end, said plurality of arms each including a first planar surface, a second planar surface, and a third planar surface that are each formed at an obtuse angle relative to one another and at an acute angle relative to said longitudinal axis to define an outer shape of the prosthesis and a recess in each of said arms defined by a recess first planar surface, a recess second planar surface and a recess third planar surface, the recess first planar surface and the recess second planar surface (142,144) extending from the central body in a direction substantially perpendicular to the longitudinal axis and the recess first planar surface substantially parallel to the recess second planar surface whereby the recess first planar surface and the recess second planar surface extend in different planes. a central body having a longitudinal axis and a plurality of arms extending from said central body in a direction substantially perpendicular to said longitudinal axis, each arm having a first end and a second end, said plurality of arms each including a first planar surface, a second planar surface, and a third planar surface that are each formed at an obtuse angle relative to one another and at an acute angle relative to said longitudinal axis to define an outer shape of the prosthesis and a recess in each of said arms defined by a recess first planar surface, a recess second planar surface and a recess third planar surface, the recess first planar surface and the recess second planar surface (142,144) extending from the central body in a direction substantially perpendicular to the longitudinal axis and the recess first planar surface substantially parallel to the recess second planar surface whereby the recess first planar surface and the recess second planar surface extend in different planes.
A product comprising an isolated strain of Bifidobacterium NCIMB 41676 and an isolated strain of Bifidobacterium NCIMB 41003 for use in the prophylaxis or treatment of irritable bowel syndrome, including one or more of:- improving bowel symptoms associated with IBS; improving mood associated with IBS; reducing stress associated with IBS; reducing anxiety associated with IBS; improving sleep quality associated with IBS; treating depression associated with IBS; and normalising dysregulated cortisol awakening response associated with IBS. improving bowel symptoms associated with IBS; improving mood associated with IBS; reducing stress associated with IBS; reducing anxiety associated with IBS; improving sleep quality associated with IBS; treating depression associated with IBS; and normalising dysregulated cortisol awakening response associated with IBS.
A method comprising: • providing a first unit having a field of grip elements, in particular hooks, and a second unit provided with retention means suitable for co-operating with the grip elements of the first unit in order to provide a self-gripping fastening; • putting the first and second units into contact in such a manner that the grip elements of the first unit and the retention means of the second unit provide a self-gripping fastening; and • treating a treatment zone of the self-gripping fastening in order to deform the grip elements of the first unit and/or the retention means of the second unit, whereby the first and second units (10, 20) are permanently secured to each other, thereby forming an assembled structure, the method being characterized in that the grip elements and/or the retention means are made of thermoplastic material. • providing a first unit having a field of grip elements, in particular hooks, and a second unit provided with retention means suitable for co-operating with the grip elements of the first unit in order to provide a self-gripping fastening; • putting the first and second units into contact in such a manner that the grip elements of the first unit and the retention means of the second unit provide a self-gripping fastening; and • treating a treatment zone of the self-gripping fastening in order to deform the grip elements of the first unit and/or the retention means of the second unit, whereby the first and second units (10, 20) are permanently secured to each other, thereby forming an assembled structure,
An x-ray fluorescence apparatus for measuring properties of a sample fluid, the apparatus comprising: a housing having an inlet and an outlet; a test chamber disposed within the housing, the test chamber being characterised by: an injection port in fluid communication with the inlet; a slide disposed within the test chamber, the slide comprising a sample cavity; and a test port; wherein; the slide is movable laterally within the test chamber between a fill position in which fluid injected through the injection port is able to pass into the sample cavity, and a test position; an x-ray fluorescence spectrometer disposed within the housing, and at least one motor operatively coupled to the slide of the test chamber to drive the slide for movement. a housing having an inlet and an outlet; a test chamber disposed within the housing, the test chamber being characterised by: an injection port in fluid communication with the inlet; a slide disposed within the test chamber, the slide comprising a sample cavity; and a test port; wherein; the slide is movable laterally within the test chamber between a fill position in which fluid injected through the injection port is able to pass into the sample cavity, and a test position; an injection port in fluid communication with the inlet; a slide disposed within the test chamber, the slide comprising a sample cavity; and a test port; wherein; the slide is movable laterally within the test chamber between a fill position in which fluid injected through the injection port is able to pass into the sample cavity, and a test position; an x-ray fluorescence spectrometer disposed within the housing, and at least one motor operatively coupled to the slide of the test chamber to drive the slide for movement.
An apparatus, comprising: a first secured processor; two or more secured applications embedded in the first secured processor, each of the secured applications associated with an artificial intelligence, AI, model; two or more first secured memories coupled to the first secured processor, each of the first secured memories configured to store an AI executable binary that is associated with a corresponding one of the AI models; a second secured processor coupled to the first secured memories, the second secured processor configured to execute the AI executable binaries stored in the first secured memories; a sub-system coupled to the second secured processor; and an AI session manager coupled to the sub-system and the secured applications, the AI session manager configured to receive from the sub-system an AI session that identifies one of the AI models, and prepare and store an AI executable binary associated with the AI model to one of the first secured memories that corresponds to the AI executable binary, wherein the sub-system triggers the second secured processor to execute the AI executable binary stored in the first secured memory. a first secured processor; two or more secured applications embedded in the first secured processor, each of the secured applications associated with an artificial intelligence, AI, model; two or more first secured memories coupled to the first secured processor, each of the first secured memories configured to store an AI executable binary that is associated with a corresponding one of the AI models; a second secured processor coupled to the first secured memories, the second secured processor configured to execute the AI executable binaries stored in the first secured memories; a sub-system coupled to the second secured processor; and an AI session manager coupled to the sub-system and the secured applications, the AI session manager configured to receive from the sub-system an AI session that identifies one of the AI models, and prepare and store an AI executable binary associated with the AI model to one of the first secured memories that corresponds to the AI executable binary, wherein the sub-system triggers the second secured processor to execute the AI executable binary stored in the first secured memory.
A battery module comprising a plurality of battery cells coupled by a bus bar, wherein the plurality of battery cells including cathode terminals and anode terminals; and the bus bar is configured to electrically connect adjacent ones of the terminals of adjacent ones of the battery cells, wherein the bus bar comprises: a conductive plate-shaped member, and two conductive concave portions, the concave portions being spaced from each other by a distance between the adjacent ones of the terminals of the adjacent ones of the battery cells, and provided inside the plate-shaped member, characterized in that each of the concave portions includes (i) a conductive bottom portion which includes a hole portion fitted with a corresponding one of the terminals and which is welded to the corresponding one of the terminals, and (ii) a thin peripheral wall which is integral with both the plate-shaped member and the bottom portion, which defines a diameter gradually decreasing from the plate-shaped member to the bottom portion and which is thinner than the plate-shaped member, So that each concave portion is able to elastically deform in the case where a shock from the outside is applied to the battery module. a conductive plate-shaped member, and two conductive concave portions, the concave portions being spaced from each other by a distance between the adjacent ones of the terminals of the adjacent ones of the battery cells, and provided inside the plate-shaped member, characterized in that each of the concave portions includes (i) a conductive bottom portion which includes a hole portion fitted with a corresponding one of the terminals and which is welded to the corresponding one of the terminals, and (ii) a thin peripheral wall which is integral with both the plate-shaped member and the bottom portion, which defines a diameter gradually decreasing from the plate-shaped member to the bottom portion and which is thinner than the plate-shaped member, So that each concave portion is able to elastically deform in the case where a shock from the outside is applied to the battery module. (i) a conductive bottom portion which includes a hole portion fitted with a corresponding one of the terminals and which is welded to the corresponding one of the terminals, and (ii) a thin peripheral wall which is integral with both the plate-shaped member and the bottom portion, which defines a diameter gradually decreasing from the plate-shaped member to the bottom portion and which is thinner than the plate-shaped member, So that each concave portion is able to elastically deform in the case where a shock from the outside is applied to the battery module.
A low-dielectric resin composition comprising hollow silica particles having an average particle size of from 0.05 to 1 μm with the proviso that 80% by mass or more of the whole particles have a particle size falling within the range of the average particle size ± 30%, and a BET specific surface area of less than 30 m 2 /g, and a matrix resin in which the hollow silica particles are dispersed, wherein the average particle size is measured by transmission electron microscopy as outlined in the section "Measurement of Average Primary Particle Size, Average Hollow Portion Size and Average Outer Shell Thickness of Hollow Silica Particles" of the description, and wherein the BET specific surface area is measured by a multipoint method using liquid nitrogen.