mhurhangee/patent-ind-claim-en huggingface dataset:
A high flow rate respiratory treatment apparatus (102; 302; 402) comprising: a flow generator to produce a flow of breathable gas through a patient interface (108; 408; 808; 908) at a first flow rate whereby the patient interface permits significant leak venting of the gas at a patient's nares to provide a comfortable patient interface during treatment; a humidifier in a path of the flow to humidify the breathable gas at a first humidity level; and a processor configured to control automatic adjustments to the first flow rate of the flow generator and to control automatic adjustments to a setting of the first humidity level; wherein the processor is configured to adjust the first flow rate in response to the processor detecting one or more incidents of one or more of: partial obstruction, apnea and snoring. a flow generator to produce a flow of breathable gas through a patient interface (108; 408; 808; 908) at a first flow rate whereby the patient interface permits significant leak venting of the gas at a patient's nares to provide a comfortable patient interface during treatment; a humidifier in a path of the flow to humidify the breathable gas at a first humidity level; and a processor configured to control automatic adjustments to the first flow rate of the flow generator and to control automatic adjustments to a setting of the first humidity level; wherein the processor is configured to adjust the first flow rate in response to the processor detecting one or more incidents of one or more of: partial obstruction, apnea and snoring.
Method for producing packs from plastic film for items to be packaged, in particular for containers, which packs have at least one compartment , wherein two inner layers of plastic film that lie one on top of the other are welded together continuously or in cycles by way of at least one longitudinal weld seam , then at least two outer layers of plastic film are placed on the two welded-together inner layers and are fastened continuously or in cycles to these already welded-together inner layers , characterized in that the layers to be welded together are welded together by means of a longitudinal welding bar or a longitudinal welding bar pair in a movement direction perpendicular to a feed direction of the inner layer to be welded, wherein, before an outer layer is fastened to the associated inner layer, the two inner layers are cut in each case in the region of the longitudinal weld seam of the two inner layers , with the result that these cut inner layers form a part of the inner layers and each part of the inner layers has a compartment for an item to be packaged, wherein furthermore, before an outer layer is fastened to the associated inner layer, a respective side compartment is introduced into the cut inner layers in the region of the cut longitudinal weld seam of the cut inner layers.
A method for micro-batch stream processing of events comprising: configuring a stream processor to micro-batch incoming events from a stream source ; generating a single timestamp for a micro-batch of the incoming events; receiving the micro-batch of the incoming events from the stream source; assigning the single timestamp to each event of the micro-batch; generating, based at least on an evenly distributed top off algorithm configured with a maximum rate for receiving events, separate timestamp values for each respective event of the micro-batch; assigning, for each respective event of the micro-batch, an individual one of the separate timestamp values ; and processing the events using a continuous query language engine. configuring a stream processor to micro-batch incoming events from a stream source ; generating a single timestamp for a micro-batch of the incoming events; receiving the micro-batch of the incoming events from the stream source; assigning the single timestamp to each event of the micro-batch; generating, based at least on an evenly distributed top off algorithm configured with a maximum rate for receiving events, separate timestamp values for each respective event of the micro-batch; assigning, for each respective event of the micro-batch, an individual one of the separate timestamp values ; and processing the events using a continuous query language engine.
A rotor for a compressor system comprising: a rotor body defining a longitudinal axis extending between a first axial body end and a second axial body end, the rotor body having an axial direction associated with the longitudinal axis and a circumferential direction associated with a rotating motion about the longitudinal axis, and including an outer compression surface, a plurality of inner heat exchange surfaces , and an outer body wall extending between the outer compression surface and the plurality of inner heat exchange surfaces; the rotor body further including a coolant inlet formed in the first axial body end, a coolant outlet formed in the second axial body end, and a coolant manifold fluidly connected with the coolant inlet; the rotor body further including a plurality of coolant supply conduits having an axial and circumferential distribution, and extending outwardly from the coolant manifold so as to supply a coolant to the plurality of inner heat exchange surfaces at a plurality of axial and circumferential locations; and the rotor body including a plurality of coolant exhaust conduits each coupled with individual ones of the plurality of inner heat exchange surfaces , wherein flow paths are defined through pairings of the plurality of coolant supply conduits , plurality of inner heat exchange surfaces, and plurality of coolant exhaust conduits where the plurality of inner heat exchange surfaces extend between the plurality of coolant supply conduits and the plurality of coolant exhaust conduits. a rotor body defining a longitudinal axis extending between a first axial body end and a second axial body end, the rotor body having an axial direction associated with the longitudinal axis and a circumferential direction associated with a rotating motion about the longitudinal axis, and including an outer compression surface, a plurality of inner heat exchange surfaces , and an outer body wall extending between the outer compression surface and the plurality of inner heat exchange surfaces; the rotor body further including a coolant inlet formed in the first axial body end, a coolant outlet formed in the second axial body end, and a coolant manifold fluidly connected with the coolant inlet; the rotor body further including a plurality of coolant supply conduits having an axial and circumferential distribution, and extending outwardly from the coolant manifold so as to supply a coolant to the plurality of inner heat exchange surfaces at a plurality of axial and circumferential locations; and the rotor body including a plurality of coolant exhaust conduits each coupled with individual ones of the plurality of inner heat exchange surfaces , wherein flow paths are defined through pairings of the plurality of coolant supply conduits , plurality of inner heat exchange surfaces, and plurality of coolant exhaust conduits where the plurality of inner heat exchange surfaces extend between the plurality of coolant supply conduits and the plurality of coolant exhaust conduits.
A turbine arrangement comprising a turbo unit , said turbo unit including a turbine shaft supporting a turbine , and a bearing housing enclosing said turbine shaft , said bearing housing comprising means for fastening the turbo unit to a first engine unit , wherein a fluid port of the bearing housing is configured to be in fluid communication with a fluid port of the first engine unit when the turbo unit is attached to the first engine unit , wherein the fluid being cooling water or lubrication oil, characterized in that the turbine arrangement further comprises a valve for opening and closing at least one of the fluid ports wherein said valve is configured to ensure that the fluid port(s) is closed unless the turbo unit is securely attached to the first engine unit .
A coated glass substrate comprising at least the following layers in sequence from the glass substrate: a lower anti-reflection layer; a silver-based functional layer; a barrier layer; and an upper anti-reflection layer, wherein the upper anti-reflection layer comprises: a dielectric layer of an oxynitride of aluminium (Al), zinc (Zn) and tin (Sn) with at least 5 atomic percent aluminium (Al). a lower anti-reflection layer; a silver-based functional layer; a barrier layer; and an upper anti-reflection layer, wherein the upper anti-reflection layer comprises: a dielectric layer of an oxynitride of aluminium (Al), zinc (Zn) and tin (Sn) with at least 5 atomic percent aluminium (Al).
A random access method comprising the following steps performed in a wireless device: transmitting a first random access preamble, setting a backoff multiplier, receiving a random access response in response to the first random access preamble; if the random access response includes a backoff indicator, BI, determining a first backoff time value in accordance with the BI, and determining a second backoff time value by multiplying the first backoff time value and the backoff multiplier; if the random access response does not include the BI, setting the second backoff time value to be 0; and transmitting a second random access preamble under observance of the second backoff time value; characterized in that : the backoff multiplier is configured based on a priority of a random access request, and a value of a backoff multiplier corresponding to a random access request with a low priority is larger than a value of a backoff multiplier corresponding to a random access request with a high priority; wherein the value of the backoff multiplier corresponding to the random access request with the low priority is 1, and the value of the backoff multiplier corresponding to the random access request with the high priority is 0 or 0.2 or 0.5. transmitting a first random access preamble, setting a backoff multiplier, receiving a random access response in response to the first random access preamble; if the random access response includes a backoff indicator, BI, determining a first backoff time value in accordance with the BI, and determining a second backoff time value by multiplying the first backoff time value and the backoff multiplier; if the random access response does not include the BI, setting the second backoff time value to be 0; and transmitting a second random access preamble under observance of the second backoff time value; the backoff multiplier is configured based on a priority of a random access request, and a value of a backoff multiplier corresponding to a random access request with a low priority is larger than a value of a backoff multiplier corresponding to a random access request with a high priority; wherein the value of the backoff multiplier corresponding to the random access request with the low priority is 1, and the value of the backoff multiplier corresponding to the random access request with the high priority is 0 or 0.2 or 0.5.
A ride vehicle , comprising: a ride vehicle base configured to interface with a vehicle rail of a ride track , wherein the ride vehicle base is configured to move along the vehicle rail of the ride track ; a show element coupled to the ride vehicle base , wherein the show element is configured to actuate with respect to the ride vehicle base ; and a mechanical linkage comprising a first end coupled to the show element and a second end configured to be coupled to an accessory rail of the ride track , wherein the mechanical linkage is configured to actuate the show element based at least in part on a position of the accessory rail with respect to the vehicle rail . a ride vehicle base configured to interface with a vehicle rail of a ride track , wherein the ride vehicle base is configured to move along the vehicle rail of the ride track ; a show element coupled to the ride vehicle base , wherein the show element is configured to actuate with respect to the ride vehicle base ; and a mechanical linkage comprising a first end coupled to the show element and a second end configured to be coupled to an accessory rail of the ride track , wherein the mechanical linkage is configured to actuate the show element based at least in part on a position of the accessory rail with respect to the vehicle rail .
An arrangement of passenger seats for a vehicle, comprising: an array of passenger seats , at least one passenger seat comprising: a seat frame (50-53); a plurality of legs extending down from the seat frame (50-53), wherein each of the plurality of legs comprises an upper end attached to the seat frame (50-53) and a lower end; and at least one tube attached to the lower end of at least one of the plurality of legs , wherein: the at least one tube comprises at least two attachments to a floor structure comprising two rails ; and the at least one tube comprises at least one bent portion for extending between the two rails in a plane parallel to the floor; wherein a configuration of the at least one bent portion defines an orientation of one of the passenger seats such that the one passenger seat is non-parallel with at least one other passenger seat in the array of passenger seats . a seat frame (50-53); a plurality of legs extending down from the seat frame (50-53), wherein each of the plurality of legs comprises an upper end attached to the seat frame (50-53) and a lower end; and at least one tube attached to the lower end of at least one of the plurality of legs , wherein: the at least one tube comprises at least two attachments to a floor structure comprising two rails ; and the at least one tube comprises at least one bent portion for extending between the two rails in a plane parallel to the floor; wherein a configuration of the at least one bent portion defines an orientation of one of the passenger seats such that the one passenger seat is non-parallel with at least one other passenger seat in the array of passenger seats . the at least one tube comprises at least two attachments to a floor structure comprising two rails ; and the at least one tube comprises at least one bent portion for extending between the two rails in a plane parallel to the floor; wherein a configuration of the at least one bent portion defines an orientation of one of the passenger seats such that the one passenger seat is non-parallel with at least one other passenger seat in the array of passenger seats .
A holographic camouflage or concealment system with a meshed structure formed by: holographic optical elements configured according to at least one of the following parameters: (a) the wavelength (λ) or colour to be diffracted; (b) the bandwidth (Δλ) or amount of that colour to be diffracted; (c) the diffraction efficiency (η) or percentage to be diffracted with respect to incident light; (d) the direction of diffraction (α); and (e) presence or absence of optical magnification (M); in such a way that said holographic optical elements form one or more diffractive reflection blocks, whose optical properties are selected according to the optical effect required by a predetermined camouflage or concealment pattern in the visible spectrum and/or in the near infrared and/or in the ultraviolet characterised in that , the meshed structure is a simple structure formed by holographic optical elements with a hexagonal geometry groupable in a regular or semi-regular tessellation, forming fractal structures; or the meshed structure is a fractal structure composed by superimposing two or more hexagonal tessellations, of equal size or of different size; the multilayer tessellation structure being configured to realize holographic camouflage patterns by superimposing optical effects according to the optical properties of each layer of holographic optical elements. holographic optical elements configured according to at least one of the following parameters: (a) the wavelength (λ) or colour to be diffracted; (b) the bandwidth (Δλ) or amount of that colour to be diffracted; (c) the diffraction efficiency (η) or percentage to be diffracted with respect to incident light; (d) the direction of diffraction (α); and (e) presence or absence of optical magnification (M); in such a way that said holographic optical elements form one or more diffractive reflection blocks, whose optical properties are selected according to the optical effect required by a predetermined camouflage or concealment pattern in the visible spectrum and/or in the near infrared and/or in the ultraviolet characterised in that , the meshed structure is a simple structure formed by holographic optical elements with a hexagonal geometry groupable in a regular or semi-regular tessellation, forming fractal structures; or the meshed structure is a fractal structure composed by superimposing two or more hexagonal tessellations, of equal size or of different size; the multilayer tessellation structure being configured to realize holographic camouflage patterns by superimposing optical effects according to the optical properties of each layer of holographic optical elements.
A method for the removal of nitrous oxide from off gas by direct decomposition or by selective catalytic reduction in presence of a reducing agent, comprising the steps of contacting the gas directly or together with the reducing agent or a precursor thereof with a catalyst comprising an Fe-AEI zeolite material in its silicoaluminate form which is essentially free of alkali metal ions (Alk), wherein the alkali metal ion is selected from sodium, potassium, lithium, and cesium and combinations of them, said Fe-AEI zeolite material having the following molar compositions: Si0 2 : o Al 2 0 3 : p Fe : q Alk wherein o is in the range from 0.001 to 0.2; wherein p is in the range from 0.001 to 0.2; wherein Alk is one or more of alkali ions and wherein q is less than 0.02. wherein o is in the range from 0.001 to 0.2; wherein p is in the range from 0.001 to 0.2; wherein Alk is one or more of alkali ions and wherein q is less than 0.02.
A prosthetic heart valve comprising: a self-expanding wire frame comprising a generally tubular body portion, an interior area, a longitudinal axis, a first end , and a second end , wherein the wire frame comprises a plurality of adjacent rows of modified diamond-shaped structures extending between the first and second ends ; wherein the first end is flared outwardly and includes a plurality of crowns, wherein at least one of the stent crowns at the first end includes a crown end that includes a connector for attachment to a delivery system; and wherein the first end has a different diameter in its expanded condition as the diameter of the second end ; wherein the first end comprises six crowns and wherein the second end comprises twelve crowns, the prosthetic heart valve further comprising a connector extending from at least one of the crowns of the second end of the wire frame, and a valve structure attached within the interior area of the wire frame , the valve structure comprising a plurality of leaflets, wherein the wire frame includes a first row of twelve modified diamond-shaped structures at the second end . a self-expanding wire frame comprising a generally tubular body portion, an interior area, a longitudinal axis, a first end , and a second end , wherein the wire frame comprises a plurality of adjacent rows of modified diamond-shaped structures extending between the first and second ends ; wherein the first end is flared outwardly and includes a plurality of crowns, wherein at least one of the stent crowns at the first end includes a crown end that includes a connector for attachment to a delivery system; and wherein the first end has a different diameter in its expanded condition as the diameter of the second end ; wherein the first end comprises six crowns and wherein the second end comprises twelve crowns, wherein the first end is flared outwardly and includes a plurality of crowns, wherein at least one of the stent crowns at the first end includes a crown end that includes a connector for attachment to a delivery system; and wherein the first end has a different diameter in its expanded condition as the diameter of the second end ; wherein the first end comprises six crowns and wherein the second end comprises twelve crowns, the prosthetic heart valve further comprising a connector extending from at least one of the crowns of the second end of the wire frame, and a valve structure attached within the interior area of the wire frame , the valve structure comprising a plurality of leaflets, wherein the wire frame includes a first row of twelve modified diamond-shaped structures at the second end .
A capsule for use in a smoking article , the capsule comprising: a liquid sensory enhancing material; and a shell surrounding the liquid sensory enhancing material, the shell having an outer surface rendered hydrophobic by hydrophobic groups covalently bonded to the outer surface of the shell. a liquid sensory enhancing material; and a shell surrounding the liquid sensory enhancing material, the shell having an outer surface rendered hydrophobic by hydrophobic groups covalently bonded to the outer surface of the shell.
Method for producing a panoramic tomographic image of an object to be recorded using a 2D panoramic X-ray device , in the course of which X-rays produced by means of an X-ray source irradiate the object and are acquired by means of an X-ray detector , wherein, during a movement of the X-ray source and the X-ray detector around the object , a number of 2D X-ray projection images are acquired from different acquisition directions , characterized in that a first panoramic tomographic image is calculated from the acquired 2D X-ray projection images using a reconstruction method, wherein the acquired 2D X-ray projection images are modified using a modification method, wherein, from the modified 2D X-ray projection images and using the reconstruction method, a second panoramic tomographic image is calculated with a higher weighting of artifacts relative to anatomical structures , wherein a third panoramic tomographic image is calculated by combining the first panoramic tomographic image and the second panoramic tomographic image with defined weighting factors such that the artifacts in the third panoramic tomographic image are reduced in comparison to the first panoramic tomographic image.