mhurhangee/patent-ind-claim-en huggingface dataset:
A multilayer film, comprising: a. first and second polyethylene-containing outer layers; b. an inner layer interposing the first and second outer layers, the inner layer comprising 30.0 to 50.0 wt % of a first propylene-based elastomer or a polyethylene having a g' vis of 0.50 to 0.85; c. a first polyethylene-containing intermediate layer interposing the first outer layer and the inner layer, the first intermediate layer comprising 10.0 to 30.0 wt % of a second propylene-based elastomer and from 70.0 to 90.0 wt% of a polyethylene copolymer comprising 99.0 to 80.0 wt% of polymer units derived from ethylene and 1.0 to 20.0 wt% of polymer units derived from one or more C3 to C20 α-olefin comonomers; and d. a second polyethylene-containing intermediate layer interposing the inner layer and the second outer layer, the second intermediate layer comprising 10.0 to 30.0 wt % of a third propylene-based elastomer and from 70.0 to 90.0 wt% of a polyethylene copolymer comprising 99.0 to 80.0 wt% of polymer units derived from ethylene and 1.0 to 20.0 wt% of polymer units derived from one or more C3 to C20 α-olefin comonomers, wherein the film has positive slope in the stress-strain curve in the region between 20.0% and 200.0% strain, and a stress value ≥ 8.5 MPa at strain of 20.0%. a. first and second polyethylene-containing outer layers; b. an inner layer interposing the first and second outer layers, the inner layer comprising 30.0 to 50.0 wt % of a first propylene-based elastomer or a polyethylene having a g' vis of 0.50 to 0.85; c. a first polyethylene-containing intermediate layer interposing the first outer layer and the inner layer, the first intermediate layer comprising 10.0 to 30.0 wt % of a second propylene-based elastomer and from 70.0 to 90.0 wt% of a polyethylene copolymer comprising 99.0 to 80.0 wt% of polymer units derived from ethylene and 1.0 to 20.0 wt% of polymer units derived from one or more C3 to C20 α-olefin comonomers; and d. a second polyethylene-containing intermediate layer interposing the inner layer and the second outer layer, the second intermediate layer comprising 10.0 to 30.0 wt % of a third propylene-based elastomer and from 70.0 to 90.0 wt% of a polyethylene copolymer comprising 99.0 to 80.0 wt% of polymer units derived from ethylene and 1.0 to 20.0 wt% of polymer units derived from one or more C3 to C20 α-olefin comonomers,
An automatic driving control system, comprising: a touch panel to be manually operated by an operator while an automatic driving vehicle is running in an automatic driving mode, the touch panel being for receiving a first operation or a second operation; and a control device for executing a first deceleration control upon receipt of the first operation by the touch panel to decelerate the automatic driving vehicle and for executing a second deceleration control upon receipt of the second operation by the touch panel to decelerate the automatic driving vehicle , wherein a period of time from completion of the second operation to completion of deceleration under the second deceleration control is longer than a period of time from completion of the first operation to completion of deceleration under the first deceleration control, and the first operation and the second operation are applied to a single button (80; 90) displayed on the touch panel and the single button (80;90) is displayed while the automatic driving vehicle is running in the automatic driving mode and is not displayed when the automatic driving vehicle is stopped, a GO button for making a launch instruction being displayed when the automatic driving vehicle is stopped instead of the single button (80 ; 90). a touch panel to be manually operated by an operator while an automatic driving vehicle is running in an automatic driving mode, the touch panel being for receiving a first operation or a second operation; and a control device for executing a first deceleration control upon receipt of the first operation by the touch panel to decelerate the automatic driving vehicle and for executing a second deceleration control upon receipt of the second operation by the touch panel to decelerate the automatic driving vehicle , wherein a period of time from completion of the second operation to completion of deceleration under the second deceleration control is longer than a period of time from completion of the first operation to completion of deceleration under the first deceleration control, and the first operation and the second operation are applied to a single button (80; 90) displayed on the touch panel and the single button (80;90) is displayed while the automatic driving vehicle is running in the automatic driving mode and is not displayed when the automatic driving vehicle is stopped, a GO button for making a launch instruction being displayed when the automatic driving vehicle is stopped instead of the single button (80 ; 90).
A management method for Content Delivery Network, CDN, function virtualization, performed by a CDN management node and comprising: sending (S101) a node creation request to a Mobile/Multi-access Edge Application Orchestrator, MEAO, so that the MEAO controls a Mobile/Multi-access Edge computing Platform, MEP, to perform node instantiation processing to generate a Mobile/Multi-access Edge Computing-CDN, MEC-CDN, node, wherein the MEC-CDN node comprises at least one virtualization function module that supports a service operation, and the virtualization function module accesses a storage resource pool via a unified storage access interface provided by a storage resource management module, wherein storage resource adjustment policy data is further configured in the storage resource management module, and the storage resource adjustment policy data is used by the storage resource management module to dynamically adjust, according to a preset adjustment policy, a storage resource allocated by each virtualization function module in the MEC-CDN node; and connecting (S102) the MEC-CDN node to a CDN. sending (S101) a node creation request to a Mobile/Multi-access Edge Application Orchestrator, MEAO, so that the MEAO controls a Mobile/Multi-access Edge computing Platform, MEP, to perform node instantiation processing to generate a Mobile/Multi-access Edge Computing-CDN, MEC-CDN, node, wherein the MEC-CDN node comprises at least one virtualization function module that supports a service operation, and the virtualization function module accesses a storage resource pool via a unified storage access interface provided by a storage resource management module, wherein storage resource adjustment policy data is further configured in the storage resource management module, and the storage resource adjustment policy data is used by the storage resource management module to dynamically adjust, according to a preset adjustment policy, a storage resource allocated by each virtualization function module in the MEC-CDN node; and connecting (S102) the MEC-CDN node to a CDN.
A process for producing particulate silicon-containing materials, having the steps of a. converting a gas to a superheated state in which it is at least partly in plasma form, and b. contacting the superheated gas with a silicon-containing first starting material to form a mixture comprising the gas and silicon, wherein the silicon-containing materials are produced by c. adding to the gas or the mixture a second starting material • which can enter into a chemical reaction directly with the silicon in the mixture, or • which breaks down thermally on contact with the superheated gas and/or the mixture, wherein d. steps a. and b. are effected spatially separately from one another. a. converting a gas to a superheated state in which it is at least partly in plasma form, and b. contacting the superheated gas with a silicon-containing first starting material to form a mixture comprising the gas and silicon, wherein the silicon-containing materials are produced by c. adding to the gas or the mixture a second starting material • which can enter into a chemical reaction directly with the silicon in the mixture, or • which breaks down thermally on contact with the superheated gas and/or the mixture, wherein • which can enter into a chemical reaction directly with the silicon in the mixture, or • which breaks down thermally on contact with the superheated gas and/or the mixture, d. steps a. and b. are effected spatially separately from one another.
A method of producing sound from an aerosol-generating device comprising a sound generator , an aerosolizer to generate aerosol from one or more types of an aerosol-generating substrate , and a controller operatively coupled to the sound generator and aerosolizer , the method comprising: monitoring a user action; retrieving sound data representing a sound from a plurality of sounds based on a type of the aerosol-generating substrate , the plurality of sounds comprising two or more sounds emulating the sound of a conventional use of a smoking material to use with different types of aerosol-generating substrates; and producing the sound using the sound generator based on the monitored user action and the sound data. monitoring a user action; retrieving sound data representing a sound from a plurality of sounds based on a type of the aerosol-generating substrate , the plurality of sounds comprising two or more sounds emulating the sound of a conventional use of a smoking material to use with different types of aerosol-generating substrates; and producing the sound using the sound generator based on the monitored user action and the sound data.
A method using an unmanned system comprising one or more unmanned aerial units for a cultivation method for improving plant growing processes in an agricultural environment , wherein the one or more unmanned aerial units are configured with a first delivering device for delivering a behavioural control agent for controlling behaviour of organisms and a second delivering device for delivering a different pest control agent in the form of living organisms for reducing harmfulness of pest organisms, where the second delivery device is a mechanical device capable of delivering the living organisms, the method comprises the steps: - determining a first area and a second area dependent on a location of pest susceptible plants, and by using the unmanned system, - delivering the behavioural control agent over the first area, and - delivering the pest control agent over the second area. - determining a first area and a second area dependent on a location of pest susceptible plants, and by using the unmanned system, - delivering the behavioural control agent over the first area, and - delivering the pest control agent over the second area.
Device for lubricating a connecting rod bearing on a crankshaft of an internal combustion engine, having: a piston having a fluid channel , in particular an internal piston cooling fluid channel, and an outlet channel in fluid connection with the fluid channel ; a connecting rod , which is connected to the piston in an articulated, in particular pivotable, manner and has a large connecting rod eye and a connecting channel , wherein: the large connecting rod eye is formed for receiving the connecting rod bearing ; and the connecting channel forms the fluid connection between the outlet channel and the large connecting rod eye so that a fluid, in particular a cooling lubricating fluid is fed from the fluid channel to the large connecting rod eye via the outlet channel and the connecting channel . a piston having a fluid channel , in particular an internal piston cooling fluid channel, and an outlet channel in fluid connection with the fluid channel ; a connecting rod , which is connected to the piston in an articulated, in particular pivotable, manner and has a large connecting rod eye and a connecting channel , the large connecting rod eye is formed for receiving the connecting rod bearing ; and the connecting channel forms the fluid connection between the outlet channel and the large connecting rod eye so that a fluid, in particular a cooling lubricating fluid is fed from the fluid channel to the large connecting rod eye via the outlet channel and the connecting channel .
A coke control reactor , wherein the coke control reactor comprises a riser reactor (1-1) and a bed reactor (1-2), an upper section of the riser reactor penetrates through a bottom of the bed reactor and is axially inserted in the bed reactor; the bed reactor comprises a bed reactor shell (1-3), and characterized in that the bed reactor shell encloses a reaction zone I, a transition zone, and a gas-solid separation zone I from bottom to top, the transition zone has a diameter gradually increasing from bottom to top such that a bottom of the transition zone is connected to a top of the reaction zone I and a top of the transition zone is connected to a bottom of the gas-solid separation zone I; a bed reactor distributor (1-4) is arranged in an inner lower part of the reaction zone I; a coke controlled catalyst delivery pipe (1-9) is arranged outside the reaction zone I and configured to deliver a coke controlled catalyst to a next-level reactor; and an outlet end of the riser reactor is located in the transition zone; wherein at least one perforated plate (1-5) is arranged in the reaction zone I; the plurality of perforated plates is axially arranged on a periphery of the riser reactor in sequence; the outlet end of the riser reactor is located above the perforated plate; the bed reactor distributor is located below the perforated plate; preferably, the perforated plate has a porosity of 1% to 30%. the bed reactor comprises a bed reactor shell (1-3), and characterized in that the bed reactor shell encloses a reaction zone I, a transition zone, and a gas-solid separation zone I from bottom to top, the transition zone has a diameter gradually increasing from bottom to top such that a bottom of the transition zone is connected to a top of the reaction zone I and a top of the transition zone is connected to a bottom of the gas-solid separation zone I; a bed reactor distributor (1-4) is arranged in an inner lower part of the reaction zone I; a coke controlled catalyst delivery pipe (1-9) is arranged outside the reaction zone I and configured to deliver a coke controlled catalyst to a next-level reactor; and an outlet end of the riser reactor is located in the transition zone; wherein at least one perforated plate (1-5) is arranged in the reaction zone I; the plurality of perforated plates is axially arranged on a periphery of the riser reactor in sequence; the outlet end of the riser reactor is located above the perforated plate; the bed reactor distributor is located below the perforated plate; preferably, the perforated plate has a porosity of 1% to 30%.
An electromechanical stator comprising an actuator section , a support section , and a spring section ; wherein a continuous sheet of elastic material constitutes at least a part of said actuator section , at least a part of said support section , and at least a part of said spring section ; said actuator section comprising a vibration assembly comprising at least one vibration body and a moved-body interaction portion ; said vibration body comprising an electromechanical volume attached to a part of said continuous sheet of elastic material , wherein said vibration body is adapted to cause bending vibrations, in a vibration direction (Z) transverse to the plane of said continuous sheet of elastic material , when alternating voltages are applied to said electromechanical volume ; said support section being attached between said actuator section and said spring section ; said support section being connected with at least one fixation point via said spring section ; wherein said spring section is elastic, with a spring constant, regarding displacements, in said vibration direction (Z), of said fixation point relative to a connection point between said spring section and said support section , thereby enabling provision of a normal force (F) in said vibration direction (Z) on said moved-body interaction portion upon displacement of said fixation point in said vibration direction (Z), characterized in that said continuous sheet of elastic material of said spring section has a pattern of cuts , providing at least one limited path between connection points to said support section and said at least one fixation point . wherein a continuous sheet of elastic material constitutes at least a part of said actuator section , at least a part of said support section , and at least a part of said spring section ; said actuator section comprising a vibration assembly comprising at least one vibration body and a moved-body interaction portion ; said vibration body comprising an electromechanical volume attached to a part of said continuous sheet of elastic material , wherein said vibration body is adapted to cause bending vibrations, in a vibration direction (Z) transverse to the plane of said continuous sheet of elastic material , when alternating voltages are applied to said electromechanical volume ; said support section being attached between said actuator section and said spring section ; said support section being connected with at least one fixation point via said spring section ; wherein said spring section is elastic, with a spring constant, regarding displacements, in said vibration direction (Z), of said fixation point relative to a connection point between said spring section and said support section , thereby enabling provision of a normal force (F) in said vibration direction (Z) on said moved-body interaction portion upon displacement of said fixation point in said vibration direction (Z),
A method of supporting online charging for content that was pre-fetched to a wireless device via a communication network , wherein said pre-fetched content is content that is sent to and stored by the wireless device in advance of charging for that content, said method implemented at a network node configured for operation as an Application Function, AF, associated with the communication network and comprising: receiving a consumption request, via a communication interface , indicating a requested consumption for at least a portion of the pre-fetched content at the wireless device ; initiating a credit control procedure towards an online charging system in response to receiving the consumption request, including: identifying the requested consumption to the online charging system in an online charging request sent from the network node to the online charging system via the communication interface ; and receiving an online charging response from the online charging system via the communication interface indicating whether or to what extent the requested consumption is authorized; and sending a consumption response for the wireless device , via the communication interface , granting or denying all or a portion of the requested consumption, according to the charging response. receiving a consumption request, via a communication interface , indicating a requested consumption for at least a portion of the pre-fetched content at the wireless device ; initiating a credit control procedure towards an online charging system in response to receiving the consumption request, including: identifying the requested consumption to the online charging system in an online charging request sent from the network node to the online charging system via the communication interface ; and receiving an online charging response from the online charging system via the communication interface indicating whether or to what extent the requested consumption is authorized; and identifying the requested consumption to the online charging system in an online charging request sent from the network node to the online charging system via the communication interface ; and receiving an online charging response from the online charging system via the communication interface indicating whether or to what extent the requested consumption is authorized; and sending a consumption response for the wireless device , via the communication interface , granting or denying all or a portion of the requested consumption, according to the charging response.
A flexible battery, comprising an electrochemical cell layer and a wrapping layer that wraps the electrochemical cell layer, wherein the flexible battery further comprises an energy absorbing layer ; the electrochemical cell layer has a first surface and a second surface that are opposite to each other; the energy absorbing layer is located between the first surface of the electrochemical cell layer and the wrapping layer and between the second surface of the electrochemical cell layer and the wrapping layer; the energy absorbing layer comprises a plurality of supporting parts ; each supporting part in the plurality of supporting parts protrudes outward from either surface of the electrochemical cell layer; and the plurality of supporting parts are mainly made of an elastic material, wherein the energy absorbing layer comprises a first-surface supporting part and a second-surface supporting part; the first-surface supporting part comprises a plurality of supporting parts located between the first surface of the electrochemical cell layer and the wrapping layer; the second-surface supporting part comprises a plurality of supporting parts located between the second surface of the electrochemical cell layer and the wrapping layer; and characterized in that a bulge of the first-surface supporting part protruding outward from the electrochemical cell layer is interlaced with a bulge of the second-surface supporting part protruding outward from the electrochemical cell layer, to facilitate bending of the flexible battery from either surface and avoid excessive bending.
Piece of furniture having a body on which at least one door is movably mounted at an opening, and at least one pushing element is displaceably mounted on the body , wherein the at least one door can be pivoted from a closed position at least partially covering the opening via a pivoting device into a first opening position, wherein the at least one door is displaceable from the first opening position into a second opening position and by means of at least one transmission device the pushing element is movable out in an opening direction by the displacement of the door , characterized in that a coffee machine or a toaster is provided on the pushing element .
A method for wireless communication, comprising: identifying a capability of a UE to support communications that are modulated at a first modulation order, the first modulation order associated with a first maximum transport block size, TBS; identifying one or more constraints of the UE for the communications modulated at the first modulation order, wherein the one or more constraints indicate a second modulation order associated with a second maximum TBS smaller than the first maximum TBS, the second modulation order being a lower modulation order than the first modulation order; determining a UE radio access capability parameter that indicates the first modulation order is supported by the UE and that indicates the one or more constraints of the UE for the communications modulated at the first modulation order; and transmitting the UE radio access capability parameter to a base station. identifying a capability of a UE to support communications that are modulated at a first modulation order, the first modulation order associated with a first maximum transport block size, TBS; identifying one or more constraints of the UE for the communications modulated at the first modulation order, wherein the one or more constraints indicate a second modulation order associated with a second maximum TBS smaller than the first maximum TBS, the second modulation order being a lower modulation order than the first modulation order; determining a UE radio access capability parameter that indicates the first modulation order is supported by the UE and that indicates the one or more constraints of the UE for the communications modulated at the first modulation order; and transmitting the UE radio access capability parameter to a base station.