mhurhangee/ep-ind-claims huggingface dataset:
A method for restoring data, comprising: determining an object to be recovered from a data system including a plurality of data resource systems, wherein the data system maintains a storage index that includes a list of hashes of stored objects that share the same content; determining a representation of the object based at least in part on the list of hashes, wherein at least a portion of the object to be recovered shares the same content as one or more other objects stored in the data system, and wherein the representation of the object includes the shared content; determining, based at least in part on a selection criterion and the storage index, the data resource system from which to obtain the representation of the object, the data resource system being determined from among a set of data resource systems including a plurality of data resource systems each of which respectively stores the representation of the object; and requesting the representation of the object from the data resource system. determining an object to be recovered from a data system including a plurality of data resource systems, wherein the data system maintains a storage index that includes a list of hashes of stored objects that share the same content; determining a representation of the object based at least in part on the list of hashes, wherein at least a portion of the object to be recovered shares the same content as one or more other objects stored in the data system, and wherein the representation of the object includes the shared content; determining, based at least in part on a selection criterion and the storage index, the data resource system from which to obtain the representation of the object, the data resource system being determined from among a set of data resource systems including a plurality of data resource systems each of which respectively stores the representation of the object; and requesting the representation of the object from the data resource system.
A method implemented by at least one processor at a communication device, the method comprising receiving input, in a message composition user interface from a user input device, for a child message of a parent message in a message thread; without sending the child message, storing the received input in association with the message thread in a memory (206, 208) of the communication device; exiting the message composition user interface; receiving (700; 1015) a command to generate a new child message for a further message related to the parent message using the at least one user input device determining (725; 1020, 1025) that the further message related to the parent message belongs to the message thread; presenting (750; 1055) in the message composition user interface for the new child message, message body content for the new child message including the stored input retrieved from the memory (206, 208); and transmitting (760; 1065) the new child message to at least one recipient, wherein the child message comprises a reply to or a forward of the parent message in the message thread, and storing the received input in association with the message thread in the memory (206, 208) comprises: determining (900, 905) a difference between message body content of the child message and message body content of the parent message; storing the difference in a draft message data store; and associating an identifier for the message thread with the difference in the draft message data store.
A fine water discharging element capable of transitioning between an adsorption state where water contained in a fluid to be treated is adsorbed and a discharge state where the adsorbed water is discharged to the fluid to be treated, the fine water discharging element comprising: a base material portion and a film portion, wherein the film portion is formed in a film shape by dispersing a plurality of particles having a core-shell structure including a core portion forming a nucleus and a shell portion formed of a polymer material having a polar functional group capable of hydrogen bonding to cover the core portion; a nanochannel formed between the shell portions of the plurality of particles by laminating the plurality of particles on an outer surface of the base material portion in a rich viscoelasticity film shape, whereby the fine water discharging element is transitioned between the adsorption state and the discharged state by controlling an electrifying to at least one of the base material portion and the plurality of particles to change the temperature of the water in the nanochannel. a base material portion and a film portion, wherein the film portion is formed in a film shape by dispersing a plurality of particles having a core-shell structure including a core portion forming a nucleus and a shell portion formed of a polymer material having a polar functional group capable of hydrogen bonding to cover the core portion; a nanochannel formed between the shell portions of the plurality of particles by laminating the plurality of particles on an outer surface of the base material portion in a rich viscoelasticity film shape, whereby the fine water discharging element is transitioned between the adsorption state and the discharged state by controlling an electrifying to at least one of the base material portion and the plurality of particles to change the temperature of the water in the nanochannel.
A system of visible light communication for a mass transit vehicle, wherein the mass transit vehicle is adapted to run on a track, the system comprising: - a first series of visible light sources placed either on a base of the mass transit vehicle, or in proximity of the base of the mass transit vehicle, or on the track, or in proximity of the track; and - a first series of photodetectors placed either on the base of the mass transit vehicle, or in proximity of the base of the mass transit vehicle, or on the track, or in proximity of the track, wherein each of the light sources is adapted to establish one-to-one visible light communication channel with each of the photodetectors at a time stamp, such that data being carried by light from the light sources at the time stamp is transferred to the photodetectors for further communication of data either into the mass transit vehicle or out of the mass transit vehicle; characterized by further comprising a velocity acceleration estimation unit adapted to estimate velocity of the mass transit vehicle and to synchronize the data transmission between the light source and the photodetector according to the estimated velocity, wherein the velocity acceleration estimation unit comprising a vehicle velocity acceleration estimation module placed on the mass transit vehicle and a track velocity acceleration estimation module placed on the track or in proximity to the track, wherein the vehicle velocity acceleration estimation module and the track velocity acceleration estimation module are adapted to cooperate together or function individually to estimate the velocity of the mass transit vehicle. - a first series of visible light sources placed either on a base of the mass transit vehicle, or in proximity of the base of the mass transit vehicle, or on the track, or in proximity of the track; and - a first series of photodetectors placed either on the base of the mass transit vehicle, or in proximity of the base of the mass transit vehicle, or on the track, or in proximity of the track,
A device for visual stimulation, wherein the device comprises at least one light source and at least one light guide to direct light emitted by the at least one light source to at least one light outlet, wherein the device comprises attachment means with which the light outlet is supportable and/or attachable in connection with a skin around an eye of a subject and the device is configured to direct, via the at least one light outlet, light emitted by the at least one light source, towards optically sensitive parts of the eye through the skin and/or tissue around the eye so that the light outlet is arranged to be located essentially outside of a visual field of the subject when the attachment means, the light outlet and/or light guide is in use position in connection with the skin around the eye, wherein the light guide and the light outlet are made of materials that do not interfere with imaging in such a way that the device can be used in magnetic imaging environment, such as magnetoencephalography, functional magnetic resonance imaging (fMRI), and/or magnetic resonance spectroscopy environment, and wherein the light source is arranged at minimum so far away from the light outlets that the light source and electronics connected to the light source do not cause interference to an imaging apparatus used in imaging.
A method performed by a User Equipment, in the following also referred to as UE, wherein the UE is configured with one or more cells comprising a second cell, wherein the UE is configured to monitor one or more first UE-specific Physical Downlink Control Channels, in the following also referred to as PDCCHs, on the second cell, and wherein the one or more first UE-specific PDCCHs schedule data transmission on a first cell, the method comprising: receiving a Downlink Control Information, in the following also referred to as DCI, indicative of dormancy information associated with the one or more cells (1105; 1305); characterized by responsive to the DCI indicating a dormant status of the second cell, wherein the second cell is a scheduling cell of the first cell (1110; 1310): switching the scheduling cell of the first cell from the second cell to the first cell; and monitoring one or more second UE-specific PDCCHs on the first cell, wherein the one or more second UE-specific PDCCHs schedule data transmission on the first cell; and/or responsive to the DCI indicating a non-dormant status of the second cell, monitoring the one or more first UE-specific PDCCHs on the second cell. receiving a Downlink Control Information, in the following also referred to as DCI, indicative of dormancy information associated with the one or more cells (1105; 1305); characterized by responsive to the DCI indicating a dormant status of the second cell, wherein the second cell is a scheduling cell of the first cell (1110; 1310): switching the scheduling cell of the first cell from the second cell to the first cell; and monitoring one or more second UE-specific PDCCHs on the first cell, wherein the one or more second UE-specific PDCCHs schedule data transmission on the first cell; and/or switching the scheduling cell of the first cell from the second cell to the first cell; and monitoring one or more second UE-specific PDCCHs on the first cell, wherein the one or more second UE-specific PDCCHs schedule data transmission on the first cell; and/or responsive to the DCI indicating a non-dormant status of the second cell, monitoring the one or more first UE-specific PDCCHs on the second cell.
A sanitary single-lever mixer fitting having a) a housing which has a main part extending approximately vertically in the installed position and, in one piece therewith, an outlet which projects away laterally; b) a receiving chamber which is accessible through an opening in the upper side of the main part and in which a control cartridge is accommodated which contains the control element influencing the water flow and has a control shaft which projects upwards through the opening in the upper side of the main part of the housing; c) an annular cap which is mounted on the upper side of the main part of the housing, has the control shaft reaching through it and has a spherical outer surface; d) an operating handle which has a cap-like region and a handle and is movably connected to the control shaft, wherein the cap-like region reaches over the annular cap; e) a sealing ring arranged between the annular cap and the housing, wherein f) the upper side of the housing is constructed to be smooth and substantially continuous over the main part and the outlet, particularly having no upwardly projecting cylindrical collars; characterised in that g) the sealing ring is arranged between the lower side of the annular cap and the upper side of the housing; h) the annular cap is screwed onto an adjustment thread of a screw part screwed into the opening. a) a housing which has a main part extending approximately vertically in the installed position and, in one piece therewith, an outlet which projects away laterally; b) a receiving chamber which is accessible through an opening in the upper side of the main part and in which a control cartridge is accommodated which contains the control element influencing the water flow and has a control shaft which projects upwards through the opening in the upper side of the main part of the housing; c) an annular cap which is mounted on the upper side of the main part of the housing, has the control shaft reaching through it and has a spherical outer surface; d) an operating handle which has a cap-like region and a handle and is movably connected to the control shaft, wherein the cap-like region reaches over the annular cap; e) a sealing ring arranged between the annular cap and the housing, wherein f) the upper side of the housing is constructed to be smooth and substantially continuous over the main part and the outlet, particularly having no upwardly projecting cylindrical collars; characterised in that g) the sealing ring is arranged between the lower side of the annular cap and the upper side of the housing; h) the annular cap is screwed onto an adjustment thread of a screw part screwed into the opening.
A method for forming a carbon fiber preform, the method comprising: depositing a composite material on a substrate to form a first layer of the composite material, wherein the composite material comprises a plurality of carbon fibers mixed in a resin matrix material; depositing the composite material on the first layer to form a second layer (54X 2) on the first layer, wherein the carbon fiber preform includes the first layer of the composite material and the second layer of composite material, and includes the plurality of carbon fibers and the resin matrix material characterized by carbonizing the carbon fiber preform; and densifying the carbonized carbon fiber preform to form a densified carbon-carbon composite material (36, 38). depositing a composite material on a substrate to form a first layer of the composite material, wherein the composite material comprises a plurality of carbon fibers mixed in a resin matrix material; depositing the composite material on the first layer to form a second layer (54X 2) on the first layer, wherein the carbon fiber preform includes the first layer of the composite material and the second layer of composite material, and includes the plurality of carbon fibers and the resin matrix material characterized by carbonizing the carbon fiber preform; and densifying the carbonized carbon fiber preform to form a densified carbon-carbon composite material (36, 38).
An apparatus comprising: a protection circuit to selectively optically connect one of a first optical path and a second optical path; an optical data receiver connected to receive through the protection circuit selectively from one of the first and second optical paths (140B, 150 A) an optical input signal modulated with first data, the protection circuit being optically connected between the first and second optical paths and the optical data receiver; and an optical data transmitter connected to transmit through the protection circuit to third and fourth optical paths (140A, 150B) an optical output signal modulated with second data, the protection circuit being optically connected between the third and fourth optical paths and the optical data transmitter; wherein the optical data transmitter is configured to generate the optical output signal to carry a first dither tone in response to being signaled by the optical data receiver of a path failure; and wherein the protection circuit is configured to change the selection of the one of optical paths from which the optical data receiver receives the optical input signal in response to detecting the first dither tone in the optical output signal. a protection circuit to selectively optically connect one of a first optical path and a second optical path; an optical data receiver connected to receive through the protection circuit selectively from one of the first and second optical paths (140B, 150 A) an optical input signal modulated with first data, the protection circuit being optically connected between the first and second optical paths and the optical data receiver; and an optical data transmitter connected to transmit through the protection circuit to third and fourth optical paths (140A, 150B) an optical output signal modulated with second data, the protection circuit being optically connected between the third and fourth optical paths and the optical data transmitter; wherein the optical data transmitter is configured to generate the optical output signal to carry a first dither tone in response to being signaled by the optical data receiver of a path failure; and wherein the protection circuit is configured to change the selection of the one of optical paths from which the optical data receiver receives the optical input signal in response to detecting the first dither tone in the optical output signal.
An apparatus for delivering stimulation energy to tissue, comprising: an implantable device comprising an implantable energy storage element and at least one implantable antenna, the implantable device configured to deliver stimulation energy to tissue based on therapy parameters; an external device comprising an external antenna, the external device configured to transmit power and data to the implantable device via a wireless link, the transmission performed at a power level; wherein the implantable device receives the transmitted power at a charge rate, and consumes power at a discharge rate; wherein the apparatus is configured to adjust the power level of the external device transmission based on the therapy parameters, the implantable device charge rate, and the implantable device discharge rate, wherein the adjustment is performed to ensure the implantable device receives sufficient power and not excessive power. an implantable device comprising an implantable energy storage element and at least one implantable antenna, the implantable device configured to deliver stimulation energy to tissue based on therapy parameters; an external device comprising an external antenna, the external device configured to transmit power and data to the implantable device via a wireless link, the transmission performed at a power level; wherein the implantable device receives the transmitted power at a charge rate, and consumes power at a discharge rate; wherein the apparatus is configured to adjust the power level of the external device transmission based on the therapy parameters, the implantable device charge rate, and the implantable device discharge rate, wherein the adjustment is performed to ensure the implantable device receives sufficient power and not excessive power.
Level gauge comprising: - a tripod with three legs arranged in upward-converging position, - a tube of cylindrical tubular shape, supported in a vertical position by upper portions of the legs, - a rod of cylindrical shape mounted in a vertical position, - a plate mounted in a lower end of the rod, - an actuation means (21, 22) mounted at an upper end of the rod in order to move the rod, so that the plate is positioned at a predetermined height above the ground, characterized in that the rod is slidingly inserted in the tube, and said plate has a profile shaped like a clover or a helix, and comprises three lobes of triangular shape and three radial notches wherein the legs of the tripod are arranged; said level gauge also comprising a stop means (3, 30) mounted on the rod and manually movable to be positioned in a stop position, wherein it abuts against an upper end of the tube, when the plate supported by the rod has reached a desired height above the ground. - a tripod with three legs arranged in upward-converging position, - a tube of cylindrical tubular shape, supported in a vertical position by upper portions of the legs, - a rod of cylindrical shape mounted in a vertical position, - a plate mounted in a lower end of the rod, - an actuation means (21, 22) mounted at an upper end of the rod in order to move the rod, so that the plate is positioned at a predetermined height above the ground, the rod is slidingly inserted in the tube, and said plate has a profile shaped like a clover or a helix, and comprises three lobes of triangular shape and three radial notches wherein the legs of the tripod are arranged; said level gauge also comprising a stop means (3, 30) mounted on the rod and manually movable to be positioned in a stop position, wherein it abuts against an upper end of the tube, when the plate supported by the rod has reached a desired height above the ground.
A terahertz antenna, comprising - at least one photoconductive layer which generates charge carriers upon irradiation of light; - two electroconductive antenna elements (21, 22) via which an electric field can be applied to at least one section of the photoconductive layer, - the photoconductive layer being doped with a dopant, wherein the dopant is a transition metal, wherein the photoconductive layer is generated by molecular beam epitaxy at a growth temperature of at least 200 °C and not more than 500 °C, wherein the dopant is arranged in the photoconductive layer in such a way that it generates a multitude of point defects, wherein substantially all dopant atoms each are arranged in the photoconductive layer in the form of a point defect, wherein the concentration of the dopant is at least 1 × 10 19 cm -3. - at least one photoconductive layer which generates charge carriers upon irradiation of light; - two electroconductive antenna elements (21, 22) via which an electric field can be applied to at least one section of the photoconductive layer, - the photoconductive layer being doped with a dopant, wherein the dopant is a transition metal,
A method for routing packets from a client device (110,520,1120) to a gateway (120,540,1140), the client device (110,520,1120) executing a client application (526, 626) that establishes a secure communications tunnel to the gateway (120, 540,1140), captures packets generated by an application executing on the client device (110, 520,1120) for transmission to a target computing device (140,1180) via a first transport layer connection initiated by the application, terminates the first transport layer connection and establishes a second transport layer connection to the gateway (120, 540,1140) for transmitting captured packets to the gateway (120, 540,1140) across the secure communications tunnel, the method comprising: (a) receiving, by a filter (522, 622) on the client device (110, 520,1120), a filtering table; (b) intercepting, by the filter (522, 622), an outbound packet transmitted from the application via the first transport layer connection terminated by the client application; (c) transmitting, by the filter (522, 622), the outbound packet to the client application (526, 626), responsive to the filtering table; and (d) transmitting, by the client application (526, 626), the outbound packet via the second transport layer connection across the secure communications tunnel to the gateway (120, 540, 1140) responsive to an application of a policy to the outbound packet. (a) receiving, by a filter (522, 622) on the client device (110, 520,1120), a filtering table; (b) intercepting, by the filter (522, 622), an outbound packet transmitted from the application via the first transport layer connection terminated by the client application; (c) transmitting, by the filter (522, 622), the outbound packet to the client application (526, 626), responsive to the filtering table; and (d) transmitting, by the client application (526, 626), the outbound packet via the second transport layer connection across the secure communications tunnel to the gateway (120, 540, 1140) responsive to an application of a policy to the outbound packet.