mhurhangee/patent-ind-claim-en huggingface dataset:
A device occupation method comprising: executing, by a second device , an audio playing service or a video playing service, wherein the second device occupies a headset ; answering, by a first device , a call service, when the information of a first electronic account logged in to the second device is the same as the information of a second electronic account logged in to the first device ; starting occupying, by the first device in response to answering the call service, the headset ; and stopping occupying, by the second device in response to the first device answering the call service, the headset ; displaying, by the first device , a first prompt information indicating that the headset is occupied by the first device ; and displaying, by the second device , a second prompt information and a button, wherein the second prompt information indicates that the headset is occupied by the first device , and the button indicates not to allow the headset to be preempted by another device; receiving, by the second device , an operation that is performed on the button; determining, by the second device , that the headset cannot be occupied by the first device based on the operation. executing, by a second device , an audio playing service or a video playing service, wherein the second device occupies a headset ; answering, by a first device , a call service, when the information of a first electronic account logged in to the second device is the same as the information of a second electronic account logged in to the first device ; starting occupying, by the first device in response to answering the call service, the headset ; and stopping occupying, by the second device in response to the first device answering the call service, the headset ; displaying, by the first device , a first prompt information indicating that the headset is occupied by the first device ; and displaying, by the second device , a second prompt information and a button, wherein the second prompt information indicates that the headset is occupied by the first device , and the button indicates not to allow the headset to be preempted by another device; receiving, by the second device , an operation that is performed on the button; determining, by the second device , that the headset cannot be occupied by the first device based on the operation.
A PAP device for generating a supply of pressurised gas to be provided to a patient for treatment, the PAP device comprising: a housing having an inlet , and an outlet configured to provide the supply of pressurised gas to a conduit for delivery to a patient; and a blower supported within the housing , the blower including a motor and at least one impeller , the motor comprising a stator assembly and being configured to drive the at least one impeller , wherein the housing includes a spiral-shaped channel ; wherein the impeller is configured to tangentially accelerate gas entering the PAP device at the inlet and directing said gas radially outward; wherein the PAP device is configured to allow gas to pass into the spiral-shaped channel and down around the sides of the motor towards the outlet ; and wherein an exterior surface of the stator assembly is exposed to the flow of gas in the spiral-shaped channel to allow forced-convection cooling of the stator assembly : a housing having an inlet , and an outlet configured to provide the supply of pressurised gas to a conduit for delivery to a patient; and a blower supported within the housing , the blower including a motor and at least one impeller , the motor comprising a stator assembly and being configured to drive the at least one impeller , wherein the housing includes a spiral-shaped channel ; wherein the impeller is configured to tangentially accelerate gas entering the PAP device at the inlet and directing said gas radially outward; wherein the PAP device is configured to allow gas to pass into the spiral-shaped channel and down around the sides of the motor towards the outlet ; and wherein an exterior surface of the stator assembly is exposed to the flow of gas in the spiral-shaped channel to allow forced-convection cooling of the stator assembly :
Mould configuration suited for use in a thermoforming forming station arranged to form one or more objects comprising a mould made from a polymer material by additive manufacturing and provided with an upper end , side walls and a bottom which is spaced apart from the upper end defining a mould volume , wherein the mould volume consists of a recess corresponding with the shape of the object as an upper zone , a lower zone which extends below the upper zone and divided from the upper zone by a recess wall , wherein the lower zone is provided with one or more open spaces which fluidly connect the lower surface of the recess wall with one or more openings in the bottom of the mould , a heat exchanger module facing the bottom of the mould comprising cooling means and cooling medium displacement means and cooling medium inlet openings and cooling medium outlet openings , wherein the cooling medium inlet openings and the cooling medium outlet openings are in fluid communication with the one or more openings in the bottom of the mould . a mould made from a polymer material by additive manufacturing and provided with an upper end , side walls and a bottom which is spaced apart from the upper end defining a mould volume , wherein the mould volume consists of a recess corresponding with the shape of the object as an upper zone , a lower zone which extends below the upper zone and divided from the upper zone by a recess wall , wherein the lower zone is provided with one or more open spaces which fluidly connect the lower surface of the recess wall with one or more openings in the bottom of the mould , a heat exchanger module facing the bottom of the mould comprising cooling means and cooling medium displacement means and cooling medium inlet openings and cooling medium outlet openings , wherein the cooling medium inlet openings and the cooling medium outlet openings are in fluid communication with the one or more openings in the bottom of the mould .
A vehicle communication access framework comprising: a first device residing in a vehicle, a first processing system operated by a trusted third party, a second processing system operated by an original equipment manufacturer, OEM, of the vehicle, and a third processing system operated by a third party provider; wherein communication accesses among the first device, second processing system and third processing system are based on Identity Based Cryptography, IBC, private keys generated by the first processing system to respective first device, second processing system and third processing system, characterised by the first processing system comprising a root private key generator at level 0, the second processing system comprising a plurality of private key generator at level 1, the level 0 is higher than the level 1, each private key generator at level 1 being associated to the root private key generator at level 0; wherein the root private key generator at level 0 is configured to: running a setup algorithm to generate a master secret key, MSK, and generate global system parameters, GSP, and generate IBC private keys for the private key generator at level 1; wherein the plurality of private key generator at level 1 is configured to: receive a request for an IBC private key from the first device, the request comprising an ID of the first device, ID V ; establish a secured communication channel with the first device; generate the IBC private key IBC-K ID v with the master secret key, the global system parameters and the ID of the first device, IDv, as inputs; and transmit the IBC private key, IBC-K ID v ' to the first device via the secured communication channel. the first processing system comprising a root private key generator at level 0, the second processing system comprising a plurality of private key generator at level 1, the level 0 is higher than the level 1, each private key generator at level 1 being associated to the root private key generator at level 0; wherein the root private key generator at level 0 is configured to: running a setup algorithm to generate a master secret key, MSK, and generate global system parameters, GSP, and generate IBC private keys for the private key generator at level 1; wherein the plurality of private key generator at level 1 is configured to: receive a request for an IBC private key from the first device, the request comprising an ID of the first device, ID V ; establish a secured communication channel with the first device; generate the IBC private key IBC-K ID v with the master secret key, the global system parameters and the ID of the first device, IDv, as inputs; and transmit the IBC private key, IBC-K ID v ' to the first device via the secured communication channel.
Device for holding bait , in particular bait for rodents, comprising: - a housing part , which can be inserted into a manhole, in particular a sewer manhole or a cable manhole, - at least one bait platform , which is arranged in the housing part and delimits at least one bait-platform-side through-opening , through which a rodent can reach bait arranged in the housing part , characterised in that back pressure builds up in the housing part due to the given volume and the sealing of the housing part when water flows into and/or rises in the housing part , which back pressure counteracts the water flowing into the housing part and/or rising in the housing part . - a housing part , which can be inserted into a manhole, in particular a sewer manhole or a cable manhole, - at least one bait platform , which is arranged in the housing part and delimits at least one bait-platform-side through-opening , through which a rodent can reach bait arranged in the housing part , characterised in that back pressure builds up in the housing part due to the given volume and the sealing of the housing part when water flows into and/or rises in the housing part , which back pressure counteracts the water flowing into the housing part and/or rising in the housing part .
An integrated vacuum system, said integrated vacuum system comprising a plurality of components including a plurality of vacuum pumps ; and control circuitry, said plurality of components being mounted on a support frame , said support frame comprising a base comprising a substantially rectangular cross section, at least four legs extending from each corner of said base and cross pieces extending between said legs, said support frame further comprising a kit for converting the support frame from a static to a movable support frame , said kit comprising: at least one frame lifting mechanism mounted within said support frame , said at least one frame lifting mechanism comprising: a movable element movably mounted to said frame and comprising at least one support portion extending from a lower surface of said movable element when said movable element is mounted to said frame ; an extendible member extending between said movable element and a static member mounted on said frame , said extendible member being movable between a compressed state and an extended state; wherein said movable element is mounted to said frame such that on extension of said extendible member said movable element is pushed downwards and said at least one support portion moves below a base of said frame and provides a lifting force to said frame . a movable element movably mounted to said frame and comprising at least one support portion extending from a lower surface of said movable element when said movable element is mounted to said frame ; an extendible member extending between said movable element and a static member mounted on said frame , said extendible member being movable between a compressed state and an extended state; wherein said movable element is mounted to said frame such that on extension of said extendible member said movable element is pushed downwards and said at least one support portion moves below a base of said frame and provides a lifting force to said frame .
A method, comprising: determining to operate in a high insertion loss mode to reduce power from a transmitter to an antenna ; setting a transmit/receive, T/R, switch to disconnect the transmitter from the antenna when the transmitter is actively transmitting in the high insertion loss mode, wherein the T/R switch is configured with an antenna port coupled to the antenna , a transmitter port coupled to the transmitter and a receiver port coupled to a receiver , and wherein the T/R switch selectively connects the transmitter port to the antenna port or the receiver port to the antenna port; port ; and further comprising determining a transmit, TX, to receiver, RX, loopback signal to measure T/R switch attenuation during the high insertion loss mode. determining to operate in a high insertion loss mode to reduce power from a transmitter to an antenna ; setting a transmit/receive, T/R, switch to disconnect the transmitter from the antenna when the transmitter is actively transmitting in the high insertion loss mode, wherein the T/R switch is configured with an antenna port coupled to the antenna , a transmitter port coupled to the transmitter and a receiver port coupled to a receiver , and wherein the T/R switch selectively connects the transmitter port to the antenna port or the receiver port to the antenna port; port ; and further comprising determining a transmit, TX, to receiver, RX, loopback signal to measure T/R switch attenuation during the high insertion loss mode.
A wind-resistant synthetic cover system for landfills, stockpiles, soil erosion protection, dry ponds, phosphogypsum stacks, environmentally impacted lands, leach pads, ash fills, and similar environmental sites or material stockpiles that require a water-resistant closure system or a plastic rain barrier, wherein the wind-resistant synthetic cover system comprises: a composite of one or more geotextiles that are tufted with synthetic polymeric slender elongate elements and an impermeable geomembrane which is comprised of a polymeric material; wherein the synthetic slender elongate elements have a length ranging between 1.25 cm (0.5 inches) and 10 cm (4 inches); and have a density of between about 0.51 kg/m 2 (about 15 ounces/square yard) and about 4.07 kg/m 2 (about 120 ounces/square yard); and the wind-resistant synthetic cover system has a weight of at least 1.46 kg/m 2 (0.3 lbs/square foot) in the absence of subterranean anchoring and/or ballast system or sand in-fill; such that when the wind-resistant synthetic cover system is exposed to wind, uplift of the wind-resistant synthetic cover system is resisted by the weight of the material of the wind-resistant synthetic cover system itself without the need for subterranean anchoring and/or ballast system or sand in-fill. a composite of one or more geotextiles that are tufted with synthetic polymeric slender elongate elements and an impermeable geomembrane which is comprised of a polymeric material; wherein the synthetic slender elongate elements have a length ranging between 1.25 cm (0.5 inches) and 10 cm (4 inches); and have a density of between about 0.51 kg/m 2 (about 15 ounces/square yard) and about 4.07 kg/m 2 (about 120 ounces/square yard); and the wind-resistant synthetic cover system has a weight of at least 1.46 kg/m 2 (0.3 lbs/square foot) in the absence of subterranean anchoring and/or ballast system or sand in-fill; such that when the wind-resistant synthetic cover system is exposed to wind, uplift of the wind-resistant synthetic cover system is resisted by the weight of the material of the wind-resistant synthetic cover system itself without the need for subterranean anchoring and/or ballast system or sand in-fill.
A retention screen for use in an adsorption canister comprising: outer edge portions including a seal groove and formed to have a relatively larger thickness and a plurality of support pad portions also formed to have a relatively larger thickness, and connecting web portions that are relatively thinner and that connect said outer edge portions to said support pad portions , and the connecting web portions also connecting said support pad portions to each other, with said retention screen being planar and with said thickness of said outer edge and said support pad portions being thicker than said thickness of said connecting web portions , and wherein said support pad portions and said connecting web portions define a plurality of spaces to support an adsorption media .
A method for operating a renewable energy power plant during a post-fault active power recovery operation of a grid having a weak grid interconnection, the renewable energy power plant comprising a plurality of renewable energy generators configured to supply power to an external grid , a plurality of power dissipation systems operable to dissipate power generated by the renewable energy generators, and a battery storage system operable to absorb power generated by the renewable energy generators; the method comprising steps of: monitoring the statuses of the power dissipation systems; performing a ramped active power recovery operation following a voltage deviation, and controlling the battery storage system during the ramped active power recovery operation to absorb power generated by the renewable energy generators in dependence on the monitored statuses of the power dissipation systems. monitoring the statuses of the power dissipation systems; performing a ramped active power recovery operation following a voltage deviation, and controlling the battery storage system during the ramped active power recovery operation to absorb power generated by the renewable energy generators in dependence on the monitored statuses of the power dissipation systems.
A method for characterising an amorphous material, comprising the steps of: evaluating a rate of change of an interaction of the amorphous material with electromagnetic (EM) radiation with temperature, at an energy corresponding to EM radiation of frequency between 10GHz and 10 THz, in a temperature range below a glass transition temperature, T g ; and comparing the rate of change with a predetermined value to assess or predict the resistance to crystallisation of the amorphous material. evaluating a rate of change of an interaction of the amorphous material with electromagnetic (EM) radiation with temperature, at an energy corresponding to EM radiation of frequency between 10GHz and 10 THz, in a temperature range below a glass transition temperature, T g ; and comparing the rate of change with a predetermined value to assess or predict the resistance to crystallisation of the amorphous material.
Refining method for polyether polyol, comprising the following steps: neutralizing or diluting crude polyether polyol to obtain a mixed solution containing the crude polyether polyol; flowing the mixed solution through a hydrophilic medium to aggregate same into a first density phase liquid and a second density phase liquid, the first density phase liquid being an aqueous solution containing alkaline metal ions and/or alkaline earth metal ions, and the second density phase liquid being polyether polyol; and allowing the first density phase liquid to settle and separating same from the second density phase liquid to obtain refined polyether polyol, wherein the hydrophilic medium comprises at least one group selected from a hydroxyl group, an amino group and a carboxyl group. neutralizing or diluting crude polyether polyol to obtain a mixed solution containing the crude polyether polyol; flowing the mixed solution through a hydrophilic medium to aggregate same into a first density phase liquid and a second density phase liquid, the first density phase liquid being an aqueous solution containing alkaline metal ions and/or alkaline earth metal ions, and the second density phase liquid being polyether polyol; and allowing the first density phase liquid to settle and separating same from the second density phase liquid to obtain refined polyether polyol,
A method for controlling a regulating valve of a packaging machine , wherein the packaging machine is a roll-fed packaging machine configured to receive a roll of a carton-based packaging material , wherein the packaging machine is configured to be connected to a processing line via the regulating valve , wherein the processing line is configured to feed a liquid food product to the packaging machine through the regulating valve , the method comprising: determining (S402) a product flow, using a flow meter , of the liquid food product in the packaging machine ; determining (S404) an inlet pressure measurement , using a pressure sensor , of the liquid food product in the packaging machine ; wherein the pressure sensor is positioned upstream of the regulating valve in a direction of flow of the liquid food product ; adjusting the regulating valve , said regulating valve being configured to receive an output signal from a flow feed forward module in combination with an output signal from a flow proportional-integral-derivative (PID) module , wherein the flow feed forward module has the inlet pressure measurement and a flow set point as input signals, and wherein the flow PID module has the product flow and the flow set point as input signals; determining a product level, using a level detector , of the liquid food product held in a vertical tube of the packaging material formed by the packaging machine , and calculating the flow set point as a function of the determined product level. determining (S402) a product flow, using a flow meter , of the liquid food product in the packaging machine ; determining (S404) an inlet pressure measurement , using a pressure sensor , of the liquid food product in the packaging machine ; wherein the pressure sensor is positioned upstream of the regulating valve in a direction of flow of the liquid food product ; adjusting the regulating valve , said regulating valve being configured to receive an output signal from a flow feed forward module in combination with an output signal from a flow proportional-integral-derivative (PID) module , wherein the flow feed forward module has the inlet pressure measurement and a flow set point as input signals, and wherein the flow PID module has the product flow and the flow set point as input signals; determining a product level, using a level detector , of the liquid food product held in a vertical tube of the packaging material formed by the packaging machine , and calculating the flow set point as a function of the determined product level.