mhurhangee/patent-ind-claim-en huggingface dataset:
A method of forming a biodegradable nonwoven fabric containing at least 50 % by weight of cellulose pulp based on dry weight of the nonwoven fabric consisting of two layers bonded by means of water needling, wherein in the said method the first layer of the nonwoven fabric is manufactured by dispersing cellulose pulp fibers in water, from which the cellulose pulp fiber layer is wet-formed, which layer is strained out, and the second layer is formed in a process of carding fibers selected from a group consisting of viscose fibers, Lyocell fibers, cotton fibers, cottonized flax fibers and cottonized hemp fibers, or any mixture thereof, to obtain the carded fiber layer , then both the cellulose pulp fiber layer and the carded fiber layer are applied onto each other in any order and are bonded in a water needling process by means of a needle loom , followed by air-drying of the obtained nonwoven fabric, wherein neither the cellulose pulp fiber layer nor the carded fiber layer is bonded nor compacted before they are applied onto each other.
A shielded electrical cable comprising: first and second end portions (A) disposed at terminating ends of the shielded electrical cable; a plurality of spaced apart conductor sets , each conductor set including one or more substantially parallel longitudinal insulated conductors , at least one conductor set of the plurality of spaced apart conductor sets including two or more substantially parallel longitudinal insulated conductors ; at least one longitudinal ground conductor extending in substantially the same direction as the insulated conductors ; two generally parallel shielding films disposed around the conductor sets and the at least one longitudinal ground conductor; a conformable adhesive layer disposed between the shielding films and bonding the shielding films to each other on both sides of each conductor set; and a plurality of longitudinal splits disposed between and separating the conductor sets, wherein the plurality of longitudinal splits do not extend into either end portion (A) of the shielded electrical cable. first and second end portions (A) disposed at terminating ends of the shielded electrical cable; a plurality of spaced apart conductor sets , each conductor set including one or more substantially parallel longitudinal insulated conductors , at least one conductor set of the plurality of spaced apart conductor sets including two or more substantially parallel longitudinal insulated conductors ; at least one longitudinal ground conductor extending in substantially the same direction as the insulated conductors ; two generally parallel shielding films disposed around the conductor sets and the at least one longitudinal ground conductor; a conformable adhesive layer disposed between the shielding films and bonding the shielding films to each other on both sides of each conductor set; and a plurality of longitudinal splits disposed between and separating the conductor sets, wherein the plurality of longitudinal splits do not extend into either end portion (A) of the shielded electrical cable.
A humidifier chamber for a humidifier for increasing a moisture of a flow of air to be delivered to a patient's airways by a respiratory pressure therapy device, the humidifier chamber comprising: a housing comprising: an air inlet configured to receive the flow of air from the respiratory pressure therapy device; an air outlet configured to deliver the flow of air to a patient interface from the humidifier chamber with added moisture; and a flow path for the flow of air from the air inlet, through the humidifier chamber, and to the air outlet; a humidifier wick frame ; a humidifier wick coupled to the humidifier wick frame and positioned within the humidifier chamber, the humidifier wick being configured to retain a volume of water and shaped to substantially enclose at least a portion of the flow path; and a heating element configured to heat the humidifier wick to vaporise the volume of water to add moisture to the flow of air, wherein the humidifier wick comprises a heated region in thermal contact with the heating element and at least one unheated region , the at least one unheated region comprising an upstream unheated region located upstream of the heated region and/or a downstream unheated region located downstream of the heated region; wherein the humidifier wick frame and the humidifier wick are configured to be removably coupled to the humidifier chamber; and wherein the wick frame is configured to assist in removal and/or insertion of the wick. a housing comprising: an air inlet configured to receive the flow of air from the respiratory pressure therapy device; an air outlet configured to deliver the flow of air to a patient interface from the humidifier chamber with added moisture; and a flow path for the flow of air from the air inlet, through the humidifier chamber, and to the air outlet; an air inlet configured to receive the flow of air from the respiratory pressure therapy device; an air outlet configured to deliver the flow of air to a patient interface from the humidifier chamber with added moisture; and a flow path for the flow of air from the air inlet, through the humidifier chamber, and to the air outlet; a humidifier wick frame ; a humidifier wick coupled to the humidifier wick frame and positioned within the humidifier chamber, the humidifier wick being configured to retain a volume of water and shaped to substantially enclose at least a portion of the flow path; and a heating element configured to heat the humidifier wick to vaporise the volume of water to add moisture to the flow of air, wherein the humidifier wick comprises a heated region in thermal contact with the heating element and at least one unheated region , the at least one unheated region comprising an upstream unheated region located upstream of the heated region and/or a downstream unheated region located downstream of the heated region; wherein the humidifier wick frame and the humidifier wick are configured to be removably coupled to the humidifier chamber; and wherein the wick frame is configured to assist in removal and/or insertion of the wick.
A slot motor for an electrical switching apparatus , said slot motor comprising: a support apparatus comprising a support element having a first leg and a second leg disposed opposite said first leg, said first leg having a first inner surface , said second leg having a second inner surface facing the first inner surface; and a number of U-shaped plates coupled to said support element; characterised by a plurality of permanent magnets comprising a first permanent magnet and a second permanent magnet , said first permanent magnet being disposed on said first leg, said second permanent magnet being disposed on said second leg; wherein the first inner surface and the second inner surface are disposed between said first permanent magnet and said second permanent magnet. a support apparatus comprising a support element having a first leg and a second leg disposed opposite said first leg, said first leg having a first inner surface , said second leg having a second inner surface facing the first inner surface; and a number of U-shaped plates coupled to said support element; characterised by a plurality of permanent magnets comprising a first permanent magnet and a second permanent magnet , said first permanent magnet being disposed on said first leg, said second permanent magnet being disposed on said second leg; wherein the first inner surface and the second inner surface are disposed between said first permanent magnet and said second permanent magnet.
A method for obtaining doped TiO 2 nanoparticles, comprising: a. forming the doped TiO 2 nanoparticles in a non-aqueous composition, by heating and stirring the non-aqueous composition, the non-aqueous composition comprising: i. a polar solvent comprising an organic compound having one or more oxygen atoms in its chemical structure, ii. a titanium(IV) halide, and iii. a dopant precursor selected from transition metal halides and lanthanide halides; and b. separating the doped TiO 2 nanoparticles from the non-aqueous composition by precipitating and subsequently removing said TiO 2 nanoparticles from the non-aqueous composition. a. forming the doped TiO 2 nanoparticles in a non-aqueous composition, by heating and stirring the non-aqueous composition, the non-aqueous composition comprising: i. a polar solvent comprising an organic compound having one or more oxygen atoms in its chemical structure, ii. a titanium(IV) halide, and iii. a dopant precursor selected from transition metal halides and lanthanide halides; and i. a polar solvent comprising an organic compound having one or more oxygen atoms in its chemical structure, ii. a titanium(IV) halide, and iii. a dopant precursor selected from transition metal halides and lanthanide halides; and b. separating the doped TiO 2 nanoparticles from the non-aqueous composition by precipitating and subsequently removing said TiO 2 nanoparticles from the non-aqueous composition.
A method for reporting channel state information, CSI, by a user equipment, UE, configured with a plurality of CSI-reference signal, RS, configurations in a wireless communication system, the method comprising: receiving information for a Quasi Co-located, QC, assumption indicating a physical cell ID of a QC assumable cell with respect to a CSI-RS configuration having a QC assumable cell among the plurality of the CSI-RS configurations; measuring a channel state using a CSI-RS; calculating a number of resource elements, REs, constituting a CSI reference resource based on a number of a cell-specific reference signal, CRS, ports corresponding to the physical cell ID, wherein the CRS ports are QC assumed with a port of the CSI-RS, wherein the number of the REs constituting a CSI reference resource is calculated excluding REs corresponding to the QC assumed CRS ports; deriving (S1102) a modulation and coding scheme, MCS, based on the measured channel state, the calculated number of REs and the information for the QC assumption; and reporting (S1103) the CSI containing a CQI index related to the MCS. receiving information for a Quasi Co-located, QC, assumption indicating a physical cell ID of a QC assumable cell with respect to a CSI-RS configuration having a QC assumable cell among the plurality of the CSI-RS configurations; measuring a channel state using a CSI-RS; calculating a number of resource elements, REs, constituting a CSI reference resource based on a number of a cell-specific reference signal, CRS, ports corresponding to the physical cell ID, wherein the CRS ports are QC assumed with a port of the CSI-RS, wherein the number of the REs constituting a CSI reference resource is calculated excluding REs corresponding to the QC assumed CRS ports; deriving (S1102) a modulation and coding scheme, MCS, based on the measured channel state, the calculated number of REs and the information for the QC assumption; and reporting (S1103) the CSI containing a CQI index related to the MCS.
A guidewire delivery catheter used to implant a shunt between the coronary sinus and the left atrium, the catheter comprising: a needle housed within the catheter in a delivery configuration, the needle configured to extend out of the catheter to puncture a vessel wall in a deployment configuration; a needle port through which the needle extends out of the catheter to transition from the delivery configuration to the deployment configuration; characterised by a securing mechanism housed within the catheter in a delivery configuration, the securing mechanism comprising a compliant wire configured to be advanced out of the catheter in a deployment configuration; and a wire port through which the compliant wire of the securing mechanism extends out of the catheter to transition from the delivery configuration to the deployment configuration, wherein the compliant wire includes a curved endcap at a distal end of the compliant wire so that the curved endcap of the compliant wire comes into contact with the vessel wall to provide wall apposition for the needle to puncture the vessel wall. a needle housed within the catheter in a delivery configuration, the needle configured to extend out of the catheter to puncture a vessel wall in a deployment configuration; a needle port through which the needle extends out of the catheter to transition from the delivery configuration to the deployment configuration; characterised by a securing mechanism housed within the catheter in a delivery configuration, the securing mechanism comprising a compliant wire configured to be advanced out of the catheter in a deployment configuration; and a wire port through which the compliant wire of the securing mechanism extends out of the catheter to transition from the delivery configuration to the deployment configuration, wherein the compliant wire includes a curved endcap at a distal end of the compliant wire so that the curved endcap of the compliant wire comes into contact with the vessel wall to provide wall apposition for the needle to puncture the vessel wall.
A method for processing a plurality of signals, the method comprising: receiving one or more observations characterizing a wireless channel ; performing a channel estimation to determine a probabilistic channel model for the wireless channel , wherein the channel estimation comprises numerically updating one or more multipath gain estimates and one or more multipath delay estimates based on the one or more received observations and a probability distribution associated with the probabilistic channel model; and processing the plurality of signals using the probabilistic channel model, characterized in that the one or more multipath delay estimates are numerically updated based on calculating a mixture of von Mises probability distributions based on a continuous space to approximate a product of a plurality of wrapped von Mises probability distributions, and calculating an expected value based on the mixture of von Mises probability distributions to estimate a multipath delay estimate of the one or more multipath delay estimates. receiving one or more observations characterizing a wireless channel ; performing a channel estimation to determine a probabilistic channel model for the wireless channel , wherein the channel estimation comprises numerically updating one or more multipath gain estimates and one or more multipath delay estimates based on the one or more received observations and a probability distribution associated with the probabilistic channel model; and processing the plurality of signals using the probabilistic channel model, characterized in that the one or more multipath delay estimates are numerically updated based on calculating a mixture of von Mises probability distributions based on a continuous space to approximate a product of a plurality of wrapped von Mises probability distributions, and calculating an expected value based on the mixture of von Mises probability distributions to estimate a multipath delay estimate of the one or more multipath delay estimates.
A weld training system (100; 200), comprising: - a computing device (106; 204) comprising a display device on a first side and a camera on a second side, the computing device (106; 204) configured to: - capture images with the camera ; - process the captured images to identify a first simulation device as a simulation weld torch and a second simulation device as a simulation workpiece ; and - display images of a simulated welding operation on the display device of the computing device (106; 204) based on analyzing the captured images to detect indicia of weld performance, the images of the simulated welding operation reflecting the indicia of weld performance, - a mounting device (108; 202) configured to hold the computing device (106; 204) to orient the camera of the computing device (106; 204) toward a simulation area, characterized in that the computing device (106; 204) is configured to recognize when the computing device (106; 204) is connected to the mounting device (108; 202) in that the mounting device triggers one or more inputs in the computing device via magnets and/or capacitively charged elements that are recognized by corresponding sensors in the computing device . - a computing device (106; 204) comprising a display device on a first side and a camera on a second side, the computing device (106; 204) configured to: - capture images with the camera ; - process the captured images to identify a first simulation device as a simulation weld torch and a second simulation device as a simulation workpiece ; and - display images of a simulated welding operation on the display device of the computing device (106; 204) based on analyzing the captured images to detect indicia of weld performance, the images of the simulated welding operation reflecting the indicia of weld performance, - capture images with the camera ; - process the captured images to identify a first simulation device as a simulation weld torch and a second simulation device as a simulation workpiece ; and - display images of a simulated welding operation on the display device of the computing device (106; 204) based on analyzing the captured images to detect indicia of weld performance, the images of the simulated welding operation reflecting the indicia of weld performance, - a mounting device (108; 202) configured to hold the computing device (106; 204) to orient the camera of the computing device (106; 204) toward a simulation area,
A method of manufacturing a liner for reinforcing a pipe, the method comprising: providing a plurality of continuous first reinforcing fibers extending in a first direction ; moving the first reinforcing fibers in a machine direction such that the first direction is parallel to the machine direction; providing a plurality of sheets of a material having second reinforcing fibers extending in a second direction ; placing the plurality of sheets onto the moving first reinforcing fibers such that the second direction is substantially perpendicular to the first direction; and folding the plurality of sheets into a closed shape . providing a plurality of continuous first reinforcing fibers extending in a first direction ; moving the first reinforcing fibers in a machine direction such that the first direction is parallel to the machine direction; providing a plurality of sheets of a material having second reinforcing fibers extending in a second direction ; placing the plurality of sheets onto the moving first reinforcing fibers such that the second direction is substantially perpendicular to the first direction; and folding the plurality of sheets into a closed shape .
A method for producing an adhesive layer composition for producing a cooling sheet including a backing layer, an adhesive layer, and a liner layer, the method comprising the step of: mixing a composition to be mixed containing water, an alum, sodium edetate, a polyacrylic acid, and a neutralized polyacrylic acid such that a mixing temperature becomes 5 to 23°C, to obtain an adhesive layer composition, wherein in the composition to be mixed, a content of the water is 69 to 98.24% by mass relative to a total mass of the composition to be mixed, a content of the alum is 0.18 to 0.42% by mass relative to the total mass of the composition to be mixed, a content of the sodium edetate is 0.08 to 0.18% by mass relative to the total mass of the composition to be mixed, and a mass ratio between the content of the alum and the content of the sodium edetate (the content of the alum:the content of the sodium edetate) is 1:1 to 5.25:1. mixing a composition to be mixed containing water, an alum, sodium edetate, a polyacrylic acid, and a neutralized polyacrylic acid such that a mixing temperature becomes 5 to 23°C, to obtain an adhesive layer composition, wherein in the composition to be mixed, a content of the water is 69 to 98.24% by mass relative to a total mass of the composition to be mixed, a content of the alum is 0.18 to 0.42% by mass relative to the total mass of the composition to be mixed, a content of the sodium edetate is 0.08 to 0.18% by mass relative to the total mass of the composition to be mixed, and a mass ratio between the content of the alum and the content of the sodium edetate (the content of the alum:the content of the sodium edetate) is 1:1 to 5.25:1.
A protection system for an air intake of a gas turbine, comprising a screen assembly , wherein said screen assembly comprises a framework with a connection part for releasable mounting thereof, and a plurality of screen components releasably mounted to said framework ; wherein said screen assembly comprises a first plurality of screen components adjacent to each other, each of them being releasably mounted to said framework independently from each other; wherein said screen assembly comprises a second plurality of screen components adjacent to each other, each of them being releasably mounted to said framework independently from each other; and wherein said second plurality of screen components is offset with respect to said first plurality of screen components both in transversal and longitudinal directions.
A device for filling a container with a filling product, preferably for filling a container in a beverage filling plant, the device comprising a carrier bolt , a filling member arranged on the carrier bolt and having a filling valve which can be moved along a longitudinal axis of the filling member relative to the carrier bolt , and a container holder , rigidly fastened to the carrier bolt below the filling valve , for holding a container to be filled, characterized by a connection device for height-adjustably connecting the carrier bolt to a transport device, preferably to a valve carrier , of a filling device , wherein the connection device comprises at least one adjusting nut which is in engagement with an adjusting thread provided on the carrier bolt .
Control unit for a door drive with at least one microprocessor for executing door control commands, at least one control panel for operating and programming the control unit , at least one display element for displaying information essential for programming, as well as at least one access module , wherein a communication means is provided for communicating with the at least one access module , which acts as an access key, wherein the microprocessor, depending on the communication with the access module , permits or prevents a modification and/or display of programming settings of the control unit , wherein the access module comprises a memory with programming-critical information which can be accessed by the microprocessor via the communication means, and wherein the programming-critical information contains a definition of the programming settings of the control unit, which are to be enabled for modification and/or display, characterized in that the communication means is configured as a slot for receiving the access module configured as a plug-in module and communication is effected via a BUS interface, for example by means of RS-485, that the access module comprises a memory which can be accessed by the microprocessor via the communication means, in which an identification code is stored, and that the microprocessor compares the identification code received from the access module with an internal memory and, on the basis of the comparison, validates programming settings for modification and/or display. that the communication means is configured as a slot for receiving the access module configured as a plug-in module and communication is effected via a BUS interface, for example by means of RS-485, that the access module comprises a memory which can be accessed by the microprocessor via the communication means, in which an identification code is stored, and that the microprocessor compares the identification code received from the access module with an internal memory and, on the basis of the comparison, validates programming settings for modification and/or display.