mhurhangee/ep-ind-claims huggingface dataset:
A terminal device comprising: a sound detection device arranged to receive at least ultrasonic sound waves; a network interface arranged to communicate via a data network; and a processor arranged to communicate via the network interface and the data network with another device using a network address of the other device and a random number code received via the sound detection device; wherein the processor is arranged to establish a secure communication session over the data network with the other device, the processor being configured to: generate a random number challenge code C0; encrypt the random number challenge code C0 with the public key of a certificate corresponding to the other device to generate an encrypted random number challenge C1; perform a second encryption of C1 to generate a doubly encrypted random number challenge C2 using the random number code received via the sound detection device; send the doubly encrypted random number challenge C2 to the other device via the data network; receive a response from the other device; and communicate with the other device in dependence on determining whether the response from the other device includes the original, unencrypted random number challenge C0. a sound detection device arranged to receive at least ultrasonic sound waves; a network interface arranged to communicate via a data network; and a processor arranged to communicate via the network interface and the data network with another device using a network address of the other device and a random number code received via the sound detection device; wherein the processor is arranged to establish a secure communication session over the data network with the other device, the processor being configured to: generate a random number challenge code C0; encrypt the random number challenge code C0 with the public key of a certificate corresponding to the other device to generate an encrypted random number challenge C1; perform a second encryption of C1 to generate a doubly encrypted random number challenge C2 using the random number code received via the sound detection device; send the doubly encrypted random number challenge C2 to the other device via the data network; receive a response from the other device; and communicate with the other device in dependence on determining whether the response from the other device includes the original, unencrypted random number challenge C0. generate a random number challenge code C0; encrypt the random number challenge code C0 with the public key of a certificate corresponding to the other device to generate an encrypted random number challenge C1; perform a second encryption of C1 to generate a doubly encrypted random number challenge C2 using the random number code received via the sound detection device; send the doubly encrypted random number challenge C2 to the other device via the data network; receive a response from the other device; and communicate with the other device in dependence on determining whether the response from the other device includes the original, unencrypted random number challenge C0.
Device for processing liquids, comprising: a receiving container for receiving the liquid; a filter element displaceably mounted within the receiving container and dividing the receiving container into a first compartment and a second compartment; a flow restrictor displaceably mounted within the receiving container and arranged to permit flow of the liquid between the compartments in one direction only; wherein the device is configured such that by displacing the filter element within the receiving container, a retentate is provided in the first compartment and a filtrate is provided in the second compartment, characterized by a removable bottom lid, wherein second retaining means are provided on the inner wall of the removable bottom lid so that the filter element can be locked in the removable bottom lid by means of the second retaining means at the end of the processing operation. a receiving container for receiving the liquid; a filter element displaceably mounted within the receiving container and dividing the receiving container into a first compartment and a second compartment; a flow restrictor displaceably mounted within the receiving container and arranged to permit flow of the liquid between the compartments in one direction only; wherein the device is configured such that by displacing the filter element within the receiving container, a retentate is provided in the first compartment and a filtrate is provided in the second compartment, characterized by a removable bottom lid, wherein second retaining means are provided on the inner wall of the removable bottom lid so that the filter element can be locked in the removable bottom lid by means of the second retaining means at the end of the processing operation.
A method comprising: determining a position of a best region for placement of a sound source relative to a microphone having a receive pattern configured to capture sound signals from the best region; capturing an image of a scene that encompasses the best region; displaying the captured image of the scene; generating an image representative of the best region; and displaying the generated image representative of the best region as an overlay of the displayed scene image. determining a position of a best region for placement of a sound source relative to a microphone having a receive pattern configured to capture sound signals from the best region; capturing an image of a scene that encompasses the best region; displaying the captured image of the scene; generating an image representative of the best region; and displaying the generated image representative of the best region as an overlay of the displayed scene image.
An method comprising: detecting, by an enforcement point, an initiation of a session of an application; determining, by the enforcement point, whether a new subservice flow needs to be established to enable, for the initiated session, a quality of service differentiation and/or a quality of experience differentiation; sending, by the enforcement point, an indication to a radio to enable the radio to establish a radio buffer to handle the new subservice flow, when the new subservice flow needs to be established; sending, by the enforcement point, parameter information to the radio to enable the radio to configure at least one service parameter of the radio buffer; and forwarding, by the enforcement point, user-plane data associated with the session to the radio including one or more subservice flow identifiers. detecting, by an enforcement point, an initiation of a session of an application; determining, by the enforcement point, whether a new subservice flow needs to be established to enable, for the initiated session, a quality of service differentiation and/or a quality of experience differentiation; sending, by the enforcement point, an indication to a radio to enable the radio to establish a radio buffer to handle the new subservice flow, when the new subservice flow needs to be established; sending, by the enforcement point, parameter information to the radio to enable the radio to configure at least one service parameter of the radio buffer; and forwarding, by the enforcement point, user-plane data associated with the session to the radio including one or more subservice flow identifiers.
A fuel cell device, comprising: a fuel cell module comprising a container and a fuel cell housed in the container; a plurality of auxiliary machines for operating the fuel cell module; and an exterior case that houses the fuel cell module and the auxiliary machines, the plurality of auxiliary machines comprising upper auxiliary machines which are located on an upper side of the fuel cell module, the upper auxiliary machines including an air supply device and a fuel supply device, the fuel cell device further comprising a fan located on the upper side of the fuel cell module, and a rack member which is disposed inside the exterior case and on which the plurality of upper auxiliary machines are arranged, the rack member comprising an air-system rack member to which the air supply device is attached, and a fuel-system rack member to which the fuel supply device is attached, at least one of the air-system rack member and the fuel-system rack member being detachable from the fuel cell device. a fuel cell module comprising a container and a fuel cell housed in the container; a plurality of auxiliary machines for operating the fuel cell module; and an exterior case that houses the fuel cell module and the auxiliary machines, the plurality of auxiliary machines comprising upper auxiliary machines which are located on an upper side of the fuel cell module, the upper auxiliary machines including an air supply device and a fuel supply device, the fuel cell device further comprising a fan located on the upper side of the fuel cell module, and a rack member which is disposed inside the exterior case and on which the plurality of upper auxiliary machines are arranged, the rack member comprising an air-system rack member to which the air supply device is attached, and a fuel-system rack member to which the fuel supply device is attached, at least one of the air-system rack member and the fuel-system rack member being detachable from the fuel cell device.
Process for the production of prepregs essentially made up of A) at least one fibrous support and B) at least one reactive polyurethane composition as matrix material, wherein the polyurethane compositions essentially contain mixtures of a polymer b) having functional groups reactive towards isocyanates as binders, the binders b) being of a solid resin nature, and internally blocked di- or polyisocyanate as curing agents a), in at least one solvent, I. by production of the reactive polyurethane composition B) in at least one solvent, and II. direct impregnation of the fibrous support A) with the solution from B), III. removal of the solvent. A) at least one fibrous support and B) at least one reactive polyurethane composition as matrix material, I. by production of the reactive polyurethane composition B) in at least one solvent, and II. direct impregnation of the fibrous support A) with the solution from B), III. removal of the solvent.
A method for determining securely a Manhattan distance between a first signal (110, 210) and a second signal (110, 215), wherein steps of the method are performed by a first processor and a second processor performing processing such that the first signal (110, 210) is kept secret from the second processor, and the second signal (110, 215) is kept secret from the first processor, comprising the steps: mapping the first signal (110, 210) to a first binary signal; mapping the second signal (110, 215) to a second binary signal, such that a squared distance between the first binary signal and the second binary signal equals the Manhattan distance between the first signal (110, 210) and the second signal (110, 215); reducing the first binary signal to a first low dimensional signal; reducing the second binary signal to a second low dimensional signal, wherein a squared distance between the first low dimensional signal and the second low dimensional signal approximates the squared distance between the first binary signal and the second binary signal; wherein the reducing further comprises: converting the first binary signal and the second binary signal to the first low dimensional signal and the second low dimensional signal using an embedding function, wherein the embedding function is defined according to the Johnson-Lindenstrauss lemma for low-distortion embeddings, and determining securely the squared distance between the first low dimensional signal and the second low dimensional signal to securely determine an approximate Manhattan distance between the first signal (110, 210) and the second signal (110, 215). steps of the method are performed by a first processor and a second processor performing processing such that the first signal (110, 210) is kept secret from the second processor, and the second signal (110, 215) is kept secret from the first processor, comprising the steps: mapping the first signal (110, 210) to a first binary signal; mapping the second signal (110, 215) to a second binary signal, such that a squared distance between the first binary signal and the second binary signal equals the Manhattan distance between the first signal (110, 210) and the second signal (110, 215); reducing the first binary signal to a first low dimensional signal; reducing the second binary signal to a second low dimensional signal, wherein a squared distance between the first low dimensional signal and the second low dimensional signal approximates the squared distance between the first binary signal and the second binary signal; converting the first binary signal and the second binary signal to the first low dimensional signal and the second low dimensional signal using an embedding function, wherein the embedding function is defined according to the Johnson-Lindenstrauss lemma for low-distortion embeddings, and determining securely the squared distance between the first low dimensional signal and the second low dimensional signal to securely determine an approximate Manhattan distance between the first signal (110, 210) and the second signal (110, 215).
A method performed in a wireless local area network, WLAN, (200, 205, 240) system, the method comprising: transmitting, by a station, STA (120, 200-1, S205-1, S205-2), capability information related to a multi-link to an access point, AP, (110, 225, 230) the capability information including link identifier information of a plurality of links included in the multi-link, number of supported links information related to a total number of links that the STA (120, 200-1, S205-1, S205-2) can support for the multi-link, and supported bandwidth information related to a maximum bandwidth of the STA (120, 200-1, S205-1, S205-2) per band; and in order to setup the multi-link, receiving, by the STA (120, 200-1, S205-1, S205-2), link selection information from the AP (110, 225, 230) based on the capability information, the link selection information including an identifier of a link operable by the STA (120, 200-1, S205-1, S205-2). transmitting, by a station, STA (120, 200-1, S205-1, S205-2), capability information related to a multi-link to an access point, AP, (110, 225, 230) the capability information including link identifier information of a plurality of links included in the multi-link, number of supported links information related to a total number of links that the STA (120, 200-1, S205-1, S205-2) can support for the multi-link, and supported bandwidth information related to a maximum bandwidth of the STA (120, 200-1, S205-1, S205-2) per band; and in order to setup the multi-link, receiving, by the STA (120, 200-1, S205-1, S205-2), link selection information from the AP (110, 225, 230) based on the capability information, the link selection information including an identifier of a link operable by the STA (120, 200-1, S205-1, S205-2).
An arrangement for connecting a first component (2, 2', 2", 69) to a second component (4, 4', 4", 70), wherein the first component (2, 2', 2", 69) and the second component (4, 4', 4", 70) are clamped together directly while forming a common contact joint or indirectly while clamping a further component with the aid of at least one rod-shaped connection means (26, 26', 26", 68) in the direction of the longitudinal axis of the at least one connection means (26, 26', 26", 68), and wherein the at least one connection means (26, 26', 26", 68) is anchored in the first component (2, 2', 2", 69) at its first end and is anchored in the second component (4, 4', 4", 70) at its second end and extends axially therebetween within an opening, characterized in that the arrangement comprises a rotary body (73, 73') for anchoring the at least one connection means (26, 26', 26", 68) in the first component (2, 2', 2", 69), with the rotary body being passed through by the at least one connection means (26, 26', 26", 68) in the axial direction and being anchored to the at least one connection means (26, 26', 26", 68) at its first end, and with the rotary body (73, 73') being supported on a receiver serving as a slide bearing at the first component (2, 2', 2", 69) for a compensation of positional changes of the at least one connection means (26, 26', 26", 68) on a relative movement of the first component (2, 2', 2", 69) with respect to the second component (4, 4', 4", 70).
A composite electrode active material comprising: core particles capable of intercalating and deintercalating lithium; and a coating layer formed on at least a part of a surface of the core particles, wherein the coating layer comprises a porous carbonaceous material, wherein the porous carbonaceous material has a fiber shape, wherein the carbonaceous material comprises nano-sized pores therein, wherein a diameter of the core particle is 1 μm to 50 μm, wherein a content of the porous carbonaceous material is about 0.1 wt % to about 20 wt % based on the total weight of the composite electrode active material. core particles capable of intercalating and deintercalating lithium; and a coating layer formed on at least a part of a surface of the core particles, wherein the coating layer comprises a porous carbonaceous material, wherein the porous carbonaceous material has a fiber shape, wherein the carbonaceous material comprises nano-sized pores therein, wherein a diameter of the core particle is 1 μm to 50 μm, wherein a content of the porous carbonaceous material is about 0.1 wt % to about 20 wt % based on the total weight of the composite electrode active material.
An independent suspension for a steerable wheel of a vehicle, in particular of an agricultural towing vehicle, of a transport vehicle, or of a special vehicle, with a steering column interacting by way of a triple clamp with a linear guide, which is movable in an approximately vertical direction, wherein the triple clamp establishes a steering connection to a vehicle chassis, the steering connection being pivotable about an approximately vertically running axis of rotation, and wherein the linear guide is coupled with a fluidic damping element, which forms a load-bearing component of the triple clamp, wherein - the damping element comprises a damping cylinder formed as steering column, and - wherein the damping element has one or more pressure reservoirs with ports, wherein the pressure reservoirs are fluidically connected to the damping cylinder by way of duct systems. - the damping element comprises a damping cylinder formed as steering column, and - wherein the damping element has one or more pressure reservoirs with ports, wherein the pressure reservoirs are fluidically connected to the damping cylinder by way of duct systems.
An induction heating device, comprising a case; a plurality of working coils provided inside of the case to heat an object; a base plate in which the plurality of working coils are installed; a plurality of light guides installed on the base plate to be provided at outer portions of the plurality of working coils; a plurality of light emitting elements disposed below the plurality of light guides, respectively, to emit light; and an indicator substrate disposed below the base plate and in which the plurality of light emitting elements are installed; characterised in that the indicator substrate comprises a first indicator substrate on which light emitting elements are installed at all outer portions of the first indicator substrate, and a second indicator substrate installed at a rear side of the first indicator substrate and in which a light emitting element is not installed at an outer front portion of the second indicator substrate, adjacent to the first indicator substrate.
A network analyser for remote diagnosis of a problem occurring in a network during streaming of at least one media file to an end-user receiver via said network; wherein said network analyser is communicatively coupled to said network; said network analyser comprising: - a collection module, communicatively coupled to said end-user receiver and configured for obtaining from said end-user receiver at least one media decoding statistic, pertaining to application-layer decoding of said at least one media file at said end-user receiver; and - a processing module configured for determining a quality of experience metric, based on said at least one media decoding statistic; wherein said quality of experience metric quantitatively represents a relation between a duration of said decoding and a number of media decoding errors during said duration of said decoding. - a collection module, communicatively coupled to said end-user receiver and configured for obtaining from said end-user receiver at least one media decoding statistic, pertaining to application-layer decoding of said at least one media file at said end-user receiver; and - a processing module configured for determining a quality of experience metric, based on said at least one media decoding statistic; wherein said quality of experience metric quantitatively represents a relation between a duration of said decoding and a number of media decoding errors during said duration of said decoding.
A method for performing device profiling on a smart card within a DVB compliant system, the method comprising: instantiating a first counter related to a first type of message; receiving a first set of a plurality of messages in a first data stream; determining that a first message of the plurality of messages has the first type; and based upon the determination that the first message has the first type, adjusting the first counter related to the first type; characterized by instantiating a second counter related to a second type of message and a third counter related to a subtype of said second type of message; determining that a second message of the plurality of messages has the second type, the second type different from the first type; based upon the determination that the second message has the second type, adjusting the second counter related to the second type; determining that a third message has the subtype of the second type of message; based upon the determination that the third message is a subtype of the second type of message, adjusting the third counter related to the subtype; computing a first ratio of the first counter to the second counter; comparing the first ratio to a first threshold; and computing a second ratio of the first counter to the third counter; comparing the second ratio to a second threshold; when the first ratio does not meet the first threshold, executing at least one countermeasure; and when the second ratio does not meet the second threshold, executing the at least one countermeasure. instantiating a first counter related to a first type of message; receiving a first set of a plurality of messages in a first data stream; determining that a first message of the plurality of messages has the first type; and based upon the determination that the first message has the first type, adjusting the first counter related to the first type; characterized by instantiating a second counter related to a second type of message and a third counter related to a subtype of said second type of message; determining that a second message of the plurality of messages has the second type, the second type different from the first type; based upon the determination that the second message has the second type, adjusting the second counter related to the second type; determining that a third message has the subtype of the second type of message; based upon the determination that the third message is a subtype of the second type of message, adjusting the third counter related to the subtype; computing a first ratio of the first counter to the second counter; comparing the first ratio to a first threshold; and computing a second ratio of the first counter to the third counter; comparing the second ratio to a second threshold; when the first ratio does not meet the first threshold, executing at least one countermeasure; and when the second ratio does not meet the second threshold, executing the at least one countermeasure.