mhurhangee/patent-ind-claim-en huggingface dataset:
Elevator system , comprising: an elevator cabin ; a drive for driving the elevator cabin ; a control means for controlling at least the drive and optionally further elevator components; wherein the control means comprises a circuit and the circuit has: a switch to be monitored comprising an input and an output ; a signal transmitter unit which is designed to apply an AC voltage signal as an input signal to the input of the switch to be monitored; a monitoring unit which is designed to record an output signal applied to the output of the switch to be monitored and, on the basis of a comparison of the output signal with the input signal, to generate a monitoring signal which indicates a switching state of the switch to be monitored. an elevator cabin ; a drive for driving the elevator cabin ; a control means for controlling at least the drive and optionally further elevator components; wherein the control means comprises a circuit and the circuit has: a switch to be monitored comprising an input and an output ; a signal transmitter unit which is designed to apply an AC voltage signal as an input signal to the input of the switch to be monitored; a monitoring unit which is designed to record an output signal applied to the output of the switch to be monitored and, on the basis of a comparison of the output signal with the input signal, to generate a monitoring signal which indicates a switching state of the switch to be monitored. a switch to be monitored comprising an input and an output ; a signal transmitter unit which is designed to apply an AC voltage signal as an input signal to the input of the switch to be monitored; a monitoring unit which is designed to record an output signal applied to the output of the switch to be monitored and, on the basis of a comparison of the output signal with the input signal, to generate a monitoring signal which indicates a switching state of the switch to be monitored.
Rim for a tire mounted on the rim by means of a flexible expander, the rim having an axis of rotation (DD'), said rim comprising a rim seat axially extended outwardly by a rim flange , said rim flange comprising a radially outer supporting face with a first portion oriented substantially in a perpendicular plane and located radially on the outside with respect to said seat on rim , in which a second outwardly inclined portion is located axially on the outside with respect to said first portion and located at least partially radially on the outside relative to said rim seat and a connecting portion between said first portion and said second portion , characterized in that said second portion is substantially frustoconical and forms with the axis of rotation (DD') an angle (α) of value, the virtual apex determined by extending the said substantially frustoconical portion meets the axis of rotation (DD') which is situated axially towards the outside in relation to the said rim seat in order to provide a bearing surface or support for a radially inner surface of the expander over the entire axial width (WR) of the said flange .
A computer implemented method for facilitating processing within a computing environment, the computer program product comprising: dynamically determining , by an adjunct processor , whether commands obtained by the adjunct processor are to be processed by the adjunct processor, the dynamically determining being performed on a per-command basis and comprising: obtaining , by the adjunct processor, a command request of a requester, the command request including at least one filtering indicator indicating at least one valid command type for processing by the adjunct processor for the requester, the at least one valid command type being indicated as valid for the requester based on one or more permissible command types for the requester; determining , by the adjunct processor using the at least one filtering indicator, whether a command of the command request is valid for processing by the adjunct processor for the requester, the at least one filtering indicator including a stateless command type indicator , wherein based on the stateless command type indicator being set to one value, commands determined to be stateless command type commands are valid for processing by the adjunct processor for the requester and other command type commands are invalid for processing by the adjunct processor for the requester; and processing the command , by the adjunct processor, based on determining that the command is valid for processing by the adjunct processor for the requester. obtaining , by the adjunct processor, a command request of a requester, the command request including at least one filtering indicator indicating at least one valid command type for processing by the adjunct processor for the requester, the at least one valid command type being indicated as valid for the requester based on one or more permissible command types for the requester; determining , by the adjunct processor using the at least one filtering indicator, whether a command of the command request is valid for processing by the adjunct processor for the requester, the at least one filtering indicator including a stateless command type indicator , wherein based on the stateless command type indicator being set to one value, commands determined to be stateless command type commands are valid for processing by the adjunct processor for the requester and other command type commands are invalid for processing by the adjunct processor for the requester; and processing the command , by the adjunct processor, based on determining that the command is valid for processing by the adjunct processor for the requester.
Flue gas device for a burner unit, which is located in a mobile room; with - a flue gas duct for directing flue gas from the burner unit into the surrounding environment; - an air duct , which surrounds the flue gas duct , at least in part, and is open to the surrounding environment; and with - a fan unit arranged in the air duct for generating a flow of air in the air duct ; wherein - the air flow in the air duct has a flow direction to the surrounding environment; and wherein - the air duct has a low pressure section upstream of the fan unit and an elevated pressure section downstream of the fan unit ; characterised in that - the low pressure section is arranged, at least in part, coaxially with the flue gas duct and radially surround the flue gas duct , at least in part; and in that - the low pressure section and the elevated pressure section are arranged, at least in part, in an axial relationship with one another. - a flue gas duct for directing flue gas from the burner unit into the surrounding environment; - an air duct , which surrounds the flue gas duct , at least in part, and is open to the surrounding environment; and with - a fan unit arranged in the air duct for generating a flow of air in the air duct ; wherein - the air flow in the air duct has a flow direction to the surrounding environment; and wherein - the air duct has a low pressure section upstream of the fan unit and an elevated pressure section downstream of the fan unit ; characterised in that - the low pressure section is arranged, at least in part, coaxially with the flue gas duct and radially surround the flue gas duct , at least in part; and in that - the low pressure section and the elevated pressure section are arranged, at least in part, in an axial relationship with one another.
Vertical packaging machine comprising a supply conduit through which the product to be packaged falls and an injection device configured for injecting a gaseous fluid into the supply conduit , the supply conduit being formed by at least one hopper through which said product to be packaged is introduced in the supply conduit and a tube which is arranged downstream of the hopper , characterized in that the supply conduit is divided into at least a first passage conduit with a corresponding central axis (Y201) and a second passage conduit with a corresponding central axis (Y202), in a bifurcation zone which is upstream of the tube , said passage conduits being separated from one another such that each passage conduit offers a different path in said bifurcation zone for the product to be packaged, each passage conduit comprising at least a first injection opening (9.1) and a second injection opening (9.2) arranged at different heights and in different angular positions with respect to the corresponding central axis (Y201, Y202), and communicated with the injection device, through which the gaseous fluid enters the supply conduit , and said injection device and/or injection openings (9.1, 9.2) being configured for the gaseous fluid to enter the supply conduit in a downward direction.
An omnidirectional image processing method, comprising: decoding a code stream to obtain an omnidirectional image coding format information; and determining a mapping relationship between a position (x, y) in at least one region, which represents one face of a cube projected from a sphere, in the omnidirectional image and a position ( θ , φ ) on the sphere according to the format information, wherein the mapping relationship is: x and φ are in linear relationship, and y and θ tan − 1 cos φ are in linear relationship, where x represents a first dimensional coordinate position on a first dimensional coordinate axis of the region in the decoded omnidirectional image, y represents a second dimensional coordinate position on a second dimensional coordinate axis of the region in the decoded omnidirectional image, φ represents a longitude position of the sphere, θ represents a latitude position of the sphere, a line mapped to the sphere by the first dimensional coordinate axis is an equator line, and a line mapped to the sphere by the second dimensional coordinate axis is a prime meridian. x and φ are in linear relationship, and y and θ tan − 1 cos φ are in linear relationship, where x represents a first dimensional coordinate position on a first dimensional coordinate axis of the region in the decoded omnidirectional image, y represents a second dimensional coordinate position on a second dimensional coordinate axis of the region in the decoded omnidirectional image, φ represents a longitude position of the sphere, θ represents a latitude position of the sphere, a line mapped to the sphere by the first dimensional coordinate axis is an equator line, and a line mapped to the sphere by the second dimensional coordinate axis is a prime meridian.
A test element support , wherein the test element support comprises at least one heating element for heating a test element for analytical examination of a sample, the heating element having a substrate , the substrate being made of at least one substrate material , the substrate comprising at least one active area configured for being heated and at least one non-active area outside the active area , the active area and the non-active area being separated by at least one thermal insulation element , wherein the thermal insulation element has a lower thermal conductivity than the substrate material , wherein the thermal insulation element is fully or partially embedded into the substrate , wherein the test element support further comprises at least one heater , wherein the heater comprises at least one heater substrate , wherein the heater substrate is attached to the substrate , wherein the heater substrate is attached to a back face of the substrate , the back face opposing a front face of the substrate contacting the test element , wherein the active area of the heating element forms an integrated heating surface of the test element support .
A method for sealing a borehole in a ground , using a sealing device (1, 1', 1") comprising: a tubular wall which is axisymmetric about a central axis (Z), said tubular wall extending, along said central axis (Z), from an upper end to an open lower end ; a helical blade protruding radially from an external face of the tubular wall ; and a cap closing the upper end of the tubular wall , said cap including at least one fluid supply connector for the injection of grout under pressure below the cap and a mechanical coupling member able to drive the sealing device (1, 1', 1") in rotation about said central axis (Z); and wherein sealing method, the sealing device (1, 1', 1") is placed on an upper end of the borehole and rotated in a first direction about the central axis (Z) such that the helical blade cuts into the ground around the borehole , thus driving the sealing device (1, 1', 1") into the ground around the borehole . a tubular wall which is axisymmetric about a central axis (Z), said tubular wall extending, along said central axis (Z), from an upper end to an open lower end ; a helical blade protruding radially from an external face of the tubular wall ; and a cap closing the upper end of the tubular wall , said cap including at least one fluid supply connector for the injection of grout under pressure below the cap and a mechanical coupling member able to drive the sealing device (1, 1', 1") in rotation about said central axis (Z); and wherein sealing method, the sealing device (1, 1', 1") is placed on an upper end of the borehole and rotated in a first direction about the central axis (Z) such that the helical blade cuts into the ground around the borehole , thus driving the sealing device (1, 1', 1") into the ground around the borehole .
A solid-state method for forming an alloy, the method comprising: providing a powder including composite particles (20; 120) having a ratio, by weight, of an amount of nickel to an amount of a metal selected from the group consisting of aluminum, titanium, and combinations thereof, the ratio being selected in accordance with a compositional ratio that can substantially bear a nickel intermetallic precipitate of the nickel and the metal; consolidating the composite particles (20; 120) of the powder; thermally treating the consolidated powder to interdiffuse the nickel and the metal; and precipitation treating the interdiffused nickel and metal to precipitate the nickel intermetallic, the nickel intermetallic being at least one of nickel aluminide and nickel titanide; characterised in that : the composite particles (20; 120) individually include the nickel and the metal provided as pure or substantially pure forms, wherein nickel and metal are physically intermixed in an individual particle, but are not in solid solution; the consolidating includes cold spraying the composite powder; the precipitation treating includes solution treating at temperatures of greater than about 900°C in vacuum or an inert atmosphere, followed by rapid cooling to room temperature and then aging at temperatures greater than 500°C in vacuum, inert atmosphere or air, for hold times ranging from 2 hours to more than 40 hours and in that the formed alloy has a microstructure including fine, equiaxed grains of an average maximum dimension no larger than ten micrometers with the nickel intermetallic precipitate dispersed there through. providing a powder including composite particles (20; 120) having a ratio, by weight, of an amount of nickel to an amount of a metal selected from the group consisting of aluminum, titanium, and combinations thereof, the ratio being selected in accordance with a compositional ratio that can substantially bear a nickel intermetallic precipitate of the nickel and the metal; consolidating the composite particles (20; 120) of the powder; thermally treating the consolidated powder to interdiffuse the nickel and the metal; and precipitation treating the interdiffused nickel and metal to precipitate the nickel intermetallic, the nickel intermetallic being at least one of nickel aluminide and nickel titanide; the composite particles (20; 120) individually include the nickel and the metal provided as pure or substantially pure forms, wherein nickel and metal are physically intermixed in an individual particle, but are not in solid solution; the consolidating includes cold spraying the composite powder; the precipitation treating includes solution treating at temperatures of greater than about 900°C in vacuum or an inert atmosphere, followed by rapid cooling to room temperature and then aging at temperatures greater than 500°C in vacuum, inert atmosphere or air, for hold times ranging from 2 hours to more than 40 hours and in that the formed alloy has a microstructure including fine, equiaxed grains of an average maximum dimension no larger than ten micrometers with the nickel intermetallic precipitate dispersed there through.
A system for controlling an unmanned aerial vehicle in response to an in-flight contingency, comprising: a computer system and computer memory storing an RF environment model ; a geometric engine ; and RF constraint logic , wherein the computer system is configured to perform operations in accordance with a first routine of said RF constraint logic , including: determining whether a current flight path of the unmanned aerial vehicle should be changed; determining a different flight path of the unmanned aerial vehicle which satisfies signal reception constraints using said RF environment model and said geometry engine in response to a determination that the current flight path should be changed; and controlling the unmanned aerial vehicle to fly a selected different flight path. a computer system and computer memory storing an RF environment model ; a geometric engine ; and RF constraint logic , wherein the computer system is configured to perform operations in accordance with a first routine of said RF constraint logic , including: determining whether a current flight path of the unmanned aerial vehicle should be changed; determining a different flight path of the unmanned aerial vehicle which satisfies signal reception constraints using said RF environment model and said geometry engine in response to a determination that the current flight path should be changed; and controlling the unmanned aerial vehicle to fly a selected different flight path. determining whether a current flight path of the unmanned aerial vehicle should be changed; determining a different flight path of the unmanned aerial vehicle which satisfies signal reception constraints using said RF environment model and said geometry engine in response to a determination that the current flight path should be changed; and controlling the unmanned aerial vehicle to fly a selected different flight path.
A method for traffic data management, comprising: receiving , by a network node , traffic data in a wireless network supporting network slicing; dividing , by the network node, the traffic data into a plurality of data streams, each data stream corresponding to a workload; and multiplexing , by the network node, the data streams onto a plurality of slice segments of the wireless network based on the workloads corresponding to the data streams; characterized in that the multiplexing comprises: partitioning workloads corresponding to the plurality of data streams in a T-dimensional vector space into a plurality of clusters , workloads in a same cluster being correlated with one another, the T-dimensional vector space being formed based on processing times required by historical workloads at the network node in a preceding batch of T time intervals; and assigning the data streams to the plurality of slice segments such that workloads in a same cluster are assigned to different slice segments. receiving , by a network node , traffic data in a wireless network supporting network slicing; dividing , by the network node, the traffic data into a plurality of data streams, each data stream corresponding to a workload; and multiplexing , by the network node, the data streams onto a plurality of slice segments of the wireless network based on the workloads corresponding to the data streams; partitioning workloads corresponding to the plurality of data streams in a T-dimensional vector space into a plurality of clusters , workloads in a same cluster being correlated with one another, the T-dimensional vector space being formed based on processing times required by historical workloads at the network node in a preceding batch of T time intervals; and assigning the data streams to the plurality of slice segments such that workloads in a same cluster are assigned to different slice segments.
A network access method, performed by a user equipment, UE, connected to a 3 rd Generation Partnership Project, 3GPP, access network, for acquiring multi-network joint transmission, comprising: said UE receiving (S102, S202, S302, S406) wireless local access network, WLAN, access auxiliary information transmitted by said 3GPP access network; said UE performing (S104, S204, S206, S408, S410) a measurement and an access judgment based on said WLAN access auxiliary information and obtaining a judgment result; said UE accessing to (S106, S208, S308, S412) said WLAN according to said judgment result; wherein, said UE performing said measurement and access judgment based on said WLAN access auxiliary information comprises: said UE measuring (S204, S408) said WLAN's signal quality according to said WLAN access auxiliary information; said UE performing (S206, S410) an access judgment according to said WLAN's signal quality and acquired WLAN access condition to obtain said judgment result; said WLAN access auxiliary information comprising at least one of the following: a WLAN's Basic Service Set Identifier and a WLAN's service set identifier; wherein, said UE receives said WLAN access condition from said 3GPP access network via a dedicated signaling or a system message. said UE receiving (S102, S202, S302, S406) wireless local access network, WLAN, access auxiliary information transmitted by said 3GPP access network; said UE performing (S104, S204, S206, S408, S410) a measurement and an access judgment based on said WLAN access auxiliary information and obtaining a judgment result; said UE accessing to (S106, S208, S308, S412) said WLAN according to said judgment result; wherein, said UE performing said measurement and access judgment based on said WLAN access auxiliary information comprises: said UE measuring (S204, S408) said WLAN's signal quality according to said WLAN access auxiliary information; said UE performing (S206, S410) an access judgment according to said WLAN's signal quality and acquired WLAN access condition to obtain said judgment result; said WLAN access auxiliary information comprising at least one of the following: a WLAN's Basic Service Set Identifier and a WLAN's service set identifier; wherein, said UE receives said WLAN access condition from said 3GPP access network via a dedicated signaling or a system message. said UE measuring (S204, S408) said WLAN's signal quality according to said WLAN access auxiliary information; said UE performing (S206, S410) an access judgment according to said WLAN's signal quality and acquired WLAN access condition to obtain said judgment result; said WLAN access auxiliary information comprising at least one of the following: a WLAN's Basic Service Set Identifier and a WLAN's service set identifier; wherein, said UE receives said WLAN access condition from said 3GPP access network via a dedicated signaling or a system message. a WLAN's Basic Service Set Identifier and a WLAN's service set identifier; wherein, said UE receives said WLAN access condition from said 3GPP access network via a dedicated signaling or a system message.