mhurhangee/ep-ind-claims huggingface dataset:
Method at a network device, said network device comprising a first interface to a first network, a second interface to a second network, a memory and routing means, for enabling the retrieval of a file shared by a first device attached to the first network, said network device having detected the presence of the first device on the first network, said first device comprising at least one shared file, wherein said method comprises, at said network device: - retrieving a list of shared files stored on the first device; - on reception (S5') by the network device of a request from a second device located on the second network for getting a shared file on the first device, storing (S6') in the network device the request upon detecting that the first device is not accessible, - on detection (S7') that said first device has become accessible, retrieving (S8') the requested shared file from said first device and storing temporarily the retrieved shared file in the memory of said network device, - sending (S9') a notification to said second device that the shared file requested by the second device is now available at the network device. - retrieving a list of shared files stored on the first device; - on reception (S5') by the network device of a request from a second device located on the second network for getting a shared file on the first device, storing (S6') in the network device the request upon detecting that the first device is not accessible, - on detection (S7') that said first device has become accessible, retrieving (S8') the requested shared file from said first device and storing temporarily the retrieved shared file in the memory of said network device, - sending (S9') a notification to said second device that the shared file requested by the second device is now available at the network device.
An apparatus for providing envelope tracking, ET, comprising: a memory; and a processor coupled to the memory, wherein the memory includes instructions that when executed by the processor cause the apparatus to perform the following: apply a reference voltage signal to model a nonlinear power amplifier, PA, current for a PA in a digital domain, wherein the reference voltage signal is an envelope signal corresponding to an input for the PA; filter the nonlinear PA current to obtain an error correction signal in the digital domain; and add the error correction signal to the reference voltage signal to generate a pre-distortion compensation signal in the digital domain, wherein the error correction signal is based on a mismatch between the reference voltage signal and a PA supply voltage,wherein the mismatch between the reference voltage signal and a PA supply voltage is caused by a varying load experienced at the PA's supply voltage path; characterized in that the instructions executed by the processor further cause the apparatus to store data related to the varying load experienced at the PA's supply voltage path used to produce the error correction signal. a memory; and a processor coupled to the memory, wherein the memory includes instructions that when executed by the processor cause the apparatus to perform the following: apply a reference voltage signal to model a nonlinear power amplifier, PA, current for a PA in a digital domain, wherein the reference voltage signal is an envelope signal corresponding to an input for the PA; filter the nonlinear PA current to obtain an error correction signal in the digital domain; and add the error correction signal to the reference voltage signal to generate a pre-distortion compensation signal in the digital domain, apply a reference voltage signal to model a nonlinear power amplifier, PA, current for a PA in a digital domain, wherein the reference voltage signal is an envelope signal corresponding to an input for the PA; filter the nonlinear PA current to obtain an error correction signal in the digital domain; and add the error correction signal to the reference voltage signal to generate a pre-distortion compensation signal in the digital domain, wherein the error correction signal is based on a mismatch between the reference voltage signal and a PA supply voltage,wherein the mismatch between the reference voltage signal and a PA supply voltage is caused by a varying load experienced at the PA's supply voltage path; characterized in that the instructions executed by the processor further cause the apparatus to store data related to the varying load experienced at the PA's supply voltage path used to produce the error correction signal.
An outdoor unit of an air conditioner comprising: an axial fan; a motor rotating the axial fan; and a motor supporter (100; 200) supporting the motor, wherein the motor supporter (100; 200) includes deflection parts deflecting an air current sucked into the axial fan so as to have a rotating direction component of the axial fan, and at least one of the deflection parts includes a deflection surface (111, 121) having a designated angle from the axial direction of the axial fan to guide the sucked air current, wherein at least two air current contact surfaces (115, 125) of said deflection part contacting the sucked air current are convex toward the upstream side of the sucked air current, characterized in that each of said at least two air current contact surfaces (115, 125) includes: a forward facing surface facing the rotating direction of the axial fan; and a backward facing surface (112, 122) facing the opposite direction to the rotating direction of the axial fan, wherein the deflection surface (111, 121) is formed on the forward facing surface, and the backward facing surface (112, 122) extends in parallel with an axial direction of the axial fan. an axial fan; a motor rotating the axial fan; and a motor supporter (100; 200) supporting the motor, wherein the motor supporter (100; 200) includes deflection parts deflecting an air current sucked into the axial fan so as to have a rotating direction component of the axial fan, and at least one of the deflection parts includes a deflection surface (111, 121) having a designated angle from the axial direction of the axial fan to guide the sucked air current, wherein at least two air current contact surfaces (115, 125) of said deflection part contacting the sucked air current are convex toward the upstream side of the sucked air current, characterized in that each of said at least two air current contact surfaces (115, 125) includes: a forward facing surface facing the rotating direction of the axial fan; and a backward facing surface (112, 122) facing the opposite direction to the rotating direction of the axial fan, wherein the deflection surface (111, 121) is formed on the forward facing surface, and the backward facing surface (112, 122) extends in parallel with an axial direction of the axial fan. a forward facing surface facing the rotating direction of the axial fan; and a backward facing surface (112, 122) facing the opposite direction to the rotating direction of the axial fan, wherein the deflection surface (111, 121) is formed on the forward facing surface, and the backward facing surface (112, 122) extends in parallel with an axial direction of the axial fan.
An electrode element for an electrolytic capacitor having a liquid electrolyte, comprising an electrode body made of an active electrode material selected from tantalum and niobium and a terminal lead being electrically connected to the electrode body characterized in that the electrode body comprises at least one recess on its surface or in its interior, wherein the mass of the electrode body is adjusted or is adjustable by the recess.
A system for treating the skin by heating at least one discrete skin volume, comprising: a. at least one treatment tip comprising N electrodes, N being an integer greater than or equal to 1; at least one said electrode having at least one spaced apart protruding conducting element; at least one said protruding conducting element is characterized by dimensions of height A and hypotenuse B, at least one said protruding conducting element is configured to penetrate the skin surface at at least one discrete location; at least one said electrode is configured to apply energy to said at least one discrete skin volume so as to heat said at least one discrete skin volume; and b. an applicator comprising said at least one electrode and said at least one spaced apart protruding conducting element; wherein the ratio A/B is in a range of 0.9 to 0.995 characterised in that said applicator further comprises at least one energy generator configured to apply said energy by means of said at least one electrode and said at least one spaced apart protruding conductive element. a. at least one treatment tip comprising N electrodes, N being an integer greater than or equal to 1; at least one said electrode having at least one spaced apart protruding conducting element; at least one said protruding conducting element is characterized by dimensions of height A and hypotenuse B, at least one said protruding conducting element is configured to penetrate the skin surface at at least one discrete location; at least one said electrode is configured to apply energy to said at least one discrete skin volume so as to heat said at least one discrete skin volume; and b. an applicator comprising said at least one electrode and said at least one spaced apart protruding conducting element;
A method for facilitating n-way high availability storage services, the method comprising: monitoring with a passive storage controller (16) a plurality of active storage controllers (16, 16, 16), wherein each storage controller has an associated transaction log to store information associated with transactions received from client devices; determining with the passive storage controller when a failure of one of the active storage controllers has occurred based on the monitoring; and remapping one or more storage devices (22... 22(n)) previously assigned to the one of the active storage controllers to the passive storage controller; retrieving one of the plurality of transaction logs corresponding to the one of the active storage controllers from a transaction log database, wherein the transaction log database is separate from the active storage controllers and the passive storage controller, and is accessible over at least one communication network (20) by the active storage controllers and the passive storage controller; and replaying one or more transactions in the one transaction log with the passive storage controller when the failure of the one of the active storage controllers is determined to have occurred. monitoring with a passive storage controller (16) a plurality of active storage controllers (16, 16, 16), wherein each storage controller has an associated transaction log to store information associated with transactions received from client devices; determining with the passive storage controller when a failure of one of the active storage controllers has occurred based on the monitoring; and remapping one or more storage devices (22... 22(n)) previously assigned to the one of the active storage controllers to the passive storage controller; retrieving one of the plurality of transaction logs corresponding to the one of the active storage controllers from a transaction log database, wherein the transaction log database is separate from the active storage controllers and the passive storage controller, and is accessible over at least one communication network (20) by the active storage controllers and the passive storage controller; and replaying one or more transactions in the one transaction log with the passive storage controller when the failure of the one of the active storage controllers is determined to have occurred.
A system for simultaneously forming and filling a container comprising: a mold having a cavity defining an internal surface and configured to accept a preform; a pressure source configured to provide a pressurized liquid; a blow nozzle configured to receive the pressurized liquid from the pressure source and transfer the pressurized liquid into the preform to urge the preform to expand toward the internal surface of the mold cavity and form a resultant container, where the liquid remains within the container as an end product; wherein the system further comprises a first dampening means coupled to the mold; wherein the first dampening means includes a member selected from a group consisting of a weight-loaded piston dampener, a spring dampener, and a pneumatic piston dampener, the system being characterized in that the first dampening means is be coupled to the blow nozzle opposite from where the blow nozzle receives the pressurized liquid from the pressure source and/or coupled to the mold opposite from where the mold (30,32) accepts the preform. a mold having a cavity defining an internal surface and configured to accept a preform; a pressure source configured to provide a pressurized liquid; a blow nozzle configured to receive the pressurized liquid from the pressure source and transfer the pressurized liquid into the preform to urge the preform to expand toward the internal surface of the mold cavity and form a resultant container, where the liquid remains within the container as an end product; wherein the system further comprises a first dampening means coupled to the mold; wherein the first dampening means includes a member selected from a group consisting of a weight-loaded piston dampener, a spring dampener, and a pneumatic piston dampener, the system being characterized in that the first dampening means is be coupled to the blow nozzle opposite from where the blow nozzle receives the pressurized liquid from the pressure source and/or coupled to the mold opposite from where the mold (30,32) accepts the preform.
A protection circuitry for a vehicle power supply that includes storage units (71, 72), the vehicle power supply is adapted to receive power through a vehicle power and communications network, the protection circuitry comprising: - at least a first output circuit and a second output circuit for providing power to the storage units (71, 72); - at least a first microcontroller and a second microcontroller, each of which is adapted to prevent the first output circuit or the second output circuit or both from providing power; and at least a first safety switch and a second safety switch, characterized by: - a logic circuit coupled to the first microcontroller and to the second microcontroller and adapted to cause a separation of the first output circuit and/or the second output circuit by using one of the first and second microcontrollers (21, 22) independently of a state of the respective other of the first and second microcontrollers (21, 22), wherein the first safety switch is adapted to separate the first output circuit from the vehicle power and communications network and the second safety switch is adapted to separate the second output circuit from the vehicle and communication network, and wherein the logic circuit is configured to enable control the first safety switch and of the second safety switch by either the first microcontroller or by the second microcontroller, and wherein the logic is configured to ensure that both microcontrollers (21, 22) do not interfere with one another and are operable independently from each other. - at least a first output circuit and a second output circuit for providing power to the storage units (71, 72); - at least a first microcontroller and a second microcontroller, each of which is adapted to prevent the first output circuit or the second output circuit or both from providing power; and - a logic circuit coupled to the first microcontroller and to the second microcontroller and adapted to cause a separation of the first output circuit and/or the second output circuit by using one of the first and second microcontrollers (21, 22) independently of a state of the respective other of the first and second microcontrollers (21, 22), wherein the first safety switch is adapted to separate the first output circuit from the vehicle power and communications network and the second safety switch is adapted to separate the second output circuit from the vehicle and communication network, and wherein the logic circuit is configured to enable control the first safety switch and of the second safety switch by either the first microcontroller or by the second microcontroller, and wherein the logic is configured to ensure that both microcontrollers (21, 22) do not interfere with one another and are operable independently from each other.
A battery module comprising a base, a plurality of battery units, a pair of end plates, a pair of side plates and a plurality of sleeve members; the plurality of battery units are located on the base, and are stacked along a thickness direction of the battery unit; the pair of end plates are respectively located on two sides of the plurality of battery units in the thickness direction of the battery unit, and are adjacent to outermost battery units of the plurality of battery units; the pair of side plates are respectively located on two sides of the plurality of battery units in a width direction of the battery unit; the sleeve member is connected with the end plate or the side plate, and extends toward the base and is fixed on the base; the end plate comprises a first base plate and a first extending plate, the first base plate extends along the width direction of the battery unit, the first extending plate extends out from an end of the first base plate along the width direction of the battery unit; the side plate comprises a second base plate and a second extending plate, the second base plate extends along the thickness direction of the battery unit, and the second extending plate extends out from an end of the second base plate along the width direction of the battery unit; the first extending plate and the second extending plate can be abutted with each other and fixedly connected at an abutting position, said battery module is characterized in that the side plate further comprises an arc-shaped transition plate, and the second base plate and the second extending plate are transitionally connected through the arc-shaped transition plate.
A wide wall angle useful in locations of seismic activity to support ceiling tile and grid tees of a suspended ceiling comprising an assembly of an elongated base angle and an elongated extension strip, the base angle having generally perpendicular legs (16, 17) integral with one another and intersecting at a longitudinally extending corner, one leg being adapted to be fixed against a wall with the corner down, and the other adapted to project horizontally from the wall, the extension strip having a face width greater than the width of the horizontal leg, the extension strip having a multiple layer construction, two layers (27, 28) of the extension strip being held together in close parallel relation by an intermediate web integral with the layers (27, 28), at least portions of the two layers (27, 28) being arranged to frictionally engage at least a part of the horizontal leg of the base angle spaced from the corner such that the strip can be assembled on and frictionally retained on the horizontal leg of the base angle, the horizontal leg of the base angle being disposed between the two layers (27, 28) of the extension strip.
A method of receiving usage data from a private cloud computing system at a public cloud computing system, the public cloud computing system being interconnected with the private cloud computing system via a computer network, the method comprising: receiving, at the public cloud computing system and from a connection service of the private cloud computing system, an authentication request; in response to receiving the authentication request, authenticating, at the public cloud computing system, the connection service based on a service subscription of the connection service at the public cloud computing system; upon authentication, transmitting, from the public cloud computing system to the connection service of the private cloud computing system, an access permission to store usage data in a network storage in the public cloud computing system, the usage data including data representing one or more accumulated durations of use of software deployed in the private cloud computing system; receiving, at the public cloud computing system, an upload of the usage data from the private cloud computing system using the access permission; and allowing, at the public cloud computing system, storage of the usage data in the network storage upon validating the access permission. receiving, at the public cloud computing system and from a connection service of the private cloud computing system, an authentication request; in response to receiving the authentication request, authenticating, at the public cloud computing system, the connection service based on a service subscription of the connection service at the public cloud computing system; upon authentication, transmitting, from the public cloud computing system to the connection service of the private cloud computing system, an access permission to store usage data in a network storage in the public cloud computing system, the usage data including data representing one or more accumulated durations of use of software deployed in the private cloud computing system; receiving, at the public cloud computing system, an upload of the usage data from the private cloud computing system using the access permission; and allowing, at the public cloud computing system, storage of the usage data in the network storage upon validating the access permission.
A device triggering method in a long term evolution, LTE, network, comprising: receiving, from a home location server, by a mobility management network element, a device application trigger request for triggering a device to communicate with the home location server, wherein the device application trigger request comprises a device identifier; and determining, by the mobility management network element, whether a device corresponding to the device identifier already detaches; characterized in that: if the result of the determination is no, sending, by the mobility management network element, a request carrying the device application trigger request to an access network element to instruct the access network element to deliver the device application trigger request to the device, so as to trigger the device; if the result of the determination is yes, sending, by the mobility management network element, a message indicating a failure in the triggering the device to the home location server. receiving, from a home location server, by a mobility management network element, a device application trigger request for triggering a device to communicate with the home location server, wherein the device application trigger request comprises a device identifier; and determining, by the mobility management network element, whether a device corresponding to the device identifier already detaches; characterized in that: if the result of the determination is no, sending, by the mobility management network element, a request carrying the device application trigger request to an access network element to instruct the access network element to deliver the device application trigger request to the device, so as to trigger the device; if the result of the determination is yes, sending, by the mobility management network element, a message indicating a failure in the triggering the device to the home location server. if the result of the determination is no, sending, by the mobility management network element, a request carrying the device application trigger request to an access network element to instruct the access network element to deliver the device application trigger request to the device, so as to trigger the device; if the result of the determination is yes, sending, by the mobility management network element, a message indicating a failure in the triggering the device to the home location server.