mhurhangee/ep-ind-claims huggingface dataset:
Electronic component for a sensor apparatus comprising a first terminal device for connecting a sensitive device which is influenceable by a target, a second terminal device for the external communication, and a control device and/or an evaluation device which provides output signals, wherein the component is programmable via the second terminal device, comprising a first programming level in which parameters for the setup of the sensor apparatus are adjustable and a second programming level in which a characteristic curve of the sensor apparatus is adjustable, wherein the first programming level is hierarchically superordinate to the second programming level and adjustments and/or possibilities of adjustment in the second programming level depend on adjustments in the first programming level, wherein the component has a resistance device comprising at least one adjustable resistance.
A user equipment, UE for wireless communication, comprising: a memory; and one or more processors (258, 280, 264) operatively coupled to the memory, the memory and the one or more processors configured to: initiate a broadcast or multicast, broadcast/multicast, application associated with a first radio access technology, RAT while the UE is in a standalone mode for a second RAT, wherein the UE connects only to one RAT; switch from the second RAT to the first RAT based on initiating the broadcast/multicast application; and switch from the first RAT to the second RAT based on failing to detect a communication associated with the broadcast/multicast application using the first RAT. a memory; and one or more processors (258, 280, 264) operatively coupled to the memory, the memory and the one or more processors configured to: initiate a broadcast or multicast, broadcast/multicast, application associated with a first radio access technology, RAT while the UE is in a standalone mode for a second RAT, wherein the UE connects only to one RAT; switch from the second RAT to the first RAT based on initiating the broadcast/multicast application; and switch from the first RAT to the second RAT based on failing to detect a communication associated with the broadcast/multicast application using the first RAT. initiate a broadcast or multicast, broadcast/multicast, application associated with a first radio access technology, RAT while the UE is in a standalone mode for a second RAT, wherein the UE connects only to one RAT; switch from the second RAT to the first RAT based on initiating the broadcast/multicast application; and switch from the first RAT to the second RAT based on failing to detect a communication associated with the broadcast/multicast application using the first RAT.
Grey water treatment system, comprising: - a first tank that is configured to receive grey water via a grey water supply conduit and that comprises an overflow via which floating contaminants are dischargeable to a sewer; - a second tank that is configured to store grey water; - wherein the second tank is closed and configured to receive a volume of gas above a water level in said second tank; and - at least one transfer conduit (5, 6) that is configured to at least transfer grey water between the first tank and the second tank; characterized in that it further comprises: - at least one pump that is configured to provide said volume of gas above the water level in said second tank; and - a control that is configured to control said at least one pump to introduce said volume of gas above the water level and control the water level in said second tank by pressing said water level downwards by the volume of gas to transfer water from the second tank to the first tank, thereby causing a water level in the first tank to rise and maintain said water level in said first tank sufficiently close to the overflow to allow floating contaminants to pass over the overflow. - a first tank that is configured to receive grey water via a grey water supply conduit and that comprises an overflow via which floating contaminants are dischargeable to a sewer; - a second tank that is configured to store grey water; - wherein the second tank is closed and configured to receive a volume of gas above a water level in said second tank; and - at least one transfer conduit (5, 6) that is configured to at least transfer grey water between the first tank and the second tank; - at least one pump that is configured to provide said volume of gas above the water level in said second tank; and - a control that is configured to control said at least one pump to introduce said volume of gas above the water level and control the water level in said second tank by pressing said water level downwards by the volume of gas to transfer water from the second tank to the first tank, thereby causing a water level in the first tank to rise and maintain said water level in said first tank sufficiently close to the overflow to allow floating contaminants to pass over the overflow.
Method for depositing multi-layered layers and/or gradient layers on at least one substrate in an inline plasma coating system with at least one process chamber, in which at least two individual plasma sources (2, 4, 5, 6) are successively arranged in the transport direction of the substrates, by means of plasma-assisted chemical gas phase deposition, wherein the at least two plasma sources (2, 4, 5, 6) are operated with different process conditions at excitation frequencies between 10 kHz and 2.45 GHz and for the at least two plasma sources (2, 4, 5, 6) linearly scalable plasma sources with their own gas supply and power supply are used, at least one of the at least two plasma sources is thereby pulsed and the substrate is continuously or discontinuously transported through the different coating areas of the individual plasma sources (2, 4, 5, 6), wherein the movement of the substrates is carried out linearly in the transport direction, in the opposite direction to the transport direction or oscillating bidirectionally, and wherein at least one defined two-ply layer stack with different layer features of the individual layers (21, 22, 23; 31, 32, 33) and/or at least one defined gradient layer is deposited on the substrate, characterized in that the at least two plasma sources (2, 4, 5, 6) are operated with different electrical operation conditions and the operation of the at least two plasma sources (2, 4, 5, 6) with different electrical operation conditions comprises a usage of different plasma excitation frequencies.
A method for detecting a shorted diode in a bridge rectifier comprising two series-connected diodes for each phase of the bridge rectifier, characterised in that the method comprises: determining a phase-to-phase voltage (V ab, V bc, V ca) between two phase inputs of the bridge rectifier, wherein a phase input is provided between the two series connected diodes of the respective phase; and indicating a shorted diode fault by determining whether the phase-to-phase voltage is zero for more than a commutation time of the bridge rectifier. determining a phase-to-phase voltage (V ab, V bc, V ca) between two phase inputs of the bridge rectifier, wherein a phase input is provided between the two series connected diodes of the respective phase; and indicating a shorted diode fault by determining whether the phase-to-phase voltage is zero for more than a commutation time of the bridge rectifier.
A signal processing apparatus for dereverberating a number of input audio signals, the signal processing apparatus comprising: a transformer being configured to transform the number of input audio signals into a transformed domain to obtain input transformed coefficients, the input transformed coefficients being arranged to form an input transformed coefficient matrix; a filter coefficient determiner being configured to determine filter coefficients upon the basis of eigenvalues of a signal space, the filter coefficients being arranged to form a filter coefficient matrix; a filter being configured to convolve input transformed coefficients of the input transformed coefficient matrix by filter coefficients of the filter coefficient matrix to obtain output transformed coefficients, the output transformed coefficients being arranged to form an output transformed coefficient matrix; and an inverse transformer being configured to inversely transform the output transformed coefficient matrix from the transformed domain to obtain a number of output audio signals; characterised in that: the filter coefficient determiner is configured to determine input auto coherence coefficients upon the basis of the input transformed coefficients, the input auto coherence coefficients indicating a coherence of the input transformed coefficients associated to a current time interval and a past time interval, the input auto coherence coefficients being arranged to form an input auto coherence matrix, and wherein the filter coefficient determiner is further configured to determine the filter coefficients upon the basis of the input auto coherence matrix. a transformer being configured to transform the number of input audio signals into a transformed domain to obtain input transformed coefficients, the input transformed coefficients being arranged to form an input transformed coefficient matrix; a filter coefficient determiner being configured to determine filter coefficients upon the basis of eigenvalues of a signal space, the filter coefficients being arranged to form a filter coefficient matrix; a filter being configured to convolve input transformed coefficients of the input transformed coefficient matrix by filter coefficients of the filter coefficient matrix to obtain output transformed coefficients, the output transformed coefficients being arranged to form an output transformed coefficient matrix; and an inverse transformer being configured to inversely transform the output transformed coefficient matrix from the transformed domain to obtain a number of output audio signals; characterised in that: the filter coefficient determiner is configured to determine input auto coherence coefficients upon the basis of the input transformed coefficients, the input auto coherence coefficients indicating a coherence of the input transformed coefficients associated to a current time interval and a past time interval, the input auto coherence coefficients being arranged to form an input auto coherence matrix, and wherein the filter coefficient determiner is further configured to determine the filter coefficients upon the basis of the input auto coherence matrix.
A method of communicating between virtual agents to perform at least one coordinated action, wherein each of the virtual agents is associated with a user, the method comprising: receiving, by a first electronic device on which a first virtual agent is executing, speech input from a first user; processing, with a speech recognition engine associated with the first electronic device, the speech input to determine a speech recognition result; determining if a second virtual agent is present on a second electronic device associated with a second user by providing a first outgoing communication from the first electronic device to the second electronic device; determining, by the first virtual agent associated with the first user, whether to invoke a communication session with the second electronic device based on the speech recognition result; and sending a second outgoing communication to the second electronic device in response to determining to invoke the communication session, wherein the second outgoing communication is based on a response to the first outgoing communication, and when the response indicates that there is a second agent present on the second electronic device, the second outgoing communication includes a request for the second virtual agent to perform at least one action on behalf of the first user associated with the at least one coordinated action. receiving, by a first electronic device on which a first virtual agent is executing, speech input from a first user; processing, with a speech recognition engine associated with the first electronic device, the speech input to determine a speech recognition result; determining if a second virtual agent is present on a second electronic device associated with a second user by providing a first outgoing communication from the first electronic device to the second electronic device; determining, by the first virtual agent associated with the first user, whether to invoke a communication session with the second electronic device based on the speech recognition result; and sending a second outgoing communication to the second electronic device in response to determining to invoke the communication session, wherein the second outgoing communication is based on a response to the first outgoing communication, and when the response indicates that there is a second agent present on the second electronic device, the second outgoing communication includes a request for the second virtual agent to perform at least one action on behalf of the first user associated with the at least one coordinated action.
A method of allocating resources in a mobile telecommunications system, the resources being for a relay node to operate as a terminal-to-terminal relay for a device-to-device, D2D communication between a first terminal and a second terminal, the method comprising: the relay node requesting, to a base station, resources for relaying the D2D communication; the base station allocating first resources for the first terminal to communicate via the relay node for the D2D communication; the base station allocating second resources for the second terminal to communicate via the relay node for the D2D communication; the base station notifying the relay node of the allocated first and second resources; notifying the first terminal of the allocated first resources; notifying the second terminal of the allocated second resources; and exchanging, by the first and second terminals and via the relay node, messages for the D2D communication using the allocated first and second resources, respectively. the relay node requesting, to a base station, resources for relaying the D2D communication; the base station allocating first resources for the first terminal to communicate via the relay node for the D2D communication; the base station allocating second resources for the second terminal to communicate via the relay node for the D2D communication; the base station notifying the relay node of the allocated first and second resources; notifying the first terminal of the allocated first resources; notifying the second terminal of the allocated second resources; and exchanging, by the first and second terminals and via the relay node, messages for the D2D communication using the allocated first and second resources, respectively.
A device for spacing and fastening a hook line comprising: • a proximal portion so configured as to be mounted onto a leader line so as to enable the free rotation of the device around the leader line; • a distal portion so configured as to be connected to the hook line and kept at a distance from the leader line; • a spacing portion, which extends between the proximal and distal portions and so configured as to keep the distal portion at a distance from the proximal portion and comprising a stop; characterized in that: • the stop comprises: a first elbow, a second elbow and a retaining portion, with said retaining portion extending between the first elbow and the second elbow; in that the device comprises: - a connecting portion which extends between the proximal portion and said first elbow; - winding portion of the hook line which extends from the second elbow up to the distal portion and which extends in a main direction; in that the connecting portion, the retaining portion and the winding portion are parallel to one another; and in that the stop is so configured that, when a hook line is passed into the stop, said stop retains the hook line when a tension is applied onto the two strands of the hook line which extend from the stop and in said main direction along which the winding portion extends. • a proximal portion so configured as to be mounted onto a leader line so as to enable the free rotation of the device around the leader line; • a distal portion so configured as to be connected to the hook line and kept at a distance from the leader line; • a spacing portion, which extends between the proximal and distal portions and so configured as to keep the distal portion at a distance from the proximal portion and comprising a stop; • the stop comprises: a first elbow, a second elbow and a retaining portion, with said retaining portion extending between the first elbow and the second elbow; - a connecting portion which extends between the proximal portion and said first elbow; - winding portion of the hook line which extends from the second elbow up to the distal portion and which extends in a main direction;
A fuel injection valve (100, 200, 300, 400, 500), comprising: a nozzle body (101, 401) that includes a suction chamber (102, 402) in a tip portion thereof and an injection aperture (103, 403) opening into the suction chamber (102, 402); a needle (104, 204) that is slidably located in the nozzle body (101, 401), and forms a fuel introduction path to the suction chamber (102, 402) between the nozzle body (101, 401) and the needle (104, 204); the fuel injection valve further characterized by comprising: a cylindrically-shaped control member (107, 307, 407, 507) that is positioned by a positioning portion located between an upper edge portion (102, 402) of the suction chamber (102, 402) and the injection aperture (103, 403) in the nozzle body (101, 401), and a position of the upstream edge portion (107b, 307b, 407b, 507b) of which shifts upstream so as to approach the needle (104, 204) when the needle (104, 204) lifts and fuel flows into the suction chamber (102, 402), wherein the control member (107, 307, 407, 507) has a second inclined surface, which inclines so as to become closer to an inner wall of the nozzle body (101, 401) toward a downstream side, in a downstream portion of the inner peripheral side. a nozzle body (101, 401) that includes a suction chamber (102, 402) in a tip portion thereof and an injection aperture (103, 403) opening into the suction chamber (102, 402); a needle (104, 204) that is slidably located in the nozzle body (101, 401), and forms a fuel introduction path to the suction chamber (102, 402) between the nozzle body (101, 401) and the needle (104, 204); the fuel injection valve further characterized by comprising: a cylindrically-shaped control member (107, 307, 407, 507) that is positioned by a positioning portion located between an upper edge portion (102, 402) of the suction chamber (102, 402) and the injection aperture (103, 403) in the nozzle body (101, 401), and a position of the upstream edge portion (107b, 307b, 407b, 507b) of which shifts upstream so as to approach the needle (104, 204) when the needle (104, 204) lifts and fuel flows into the suction chamber (102, 402), wherein the control member (107, 307, 407, 507) has a second inclined surface, which inclines so as to become closer to an inner wall of the nozzle body (101, 401) toward a downstream side, in a downstream portion of the inner peripheral side. a cylindrically-shaped control member (107, 307, 407, 507) that is positioned by a positioning portion located between an upper edge portion (102, 402) of the suction chamber (102, 402) and the injection aperture (103, 403) in the nozzle body (101, 401), and a position of the upstream edge portion (107b, 307b, 407b, 507b) of which shifts upstream so as to approach the needle (104, 204) when the needle (104, 204) lifts and fuel flows into the suction chamber (102, 402), wherein the control member (107, 307, 407, 507) has a second inclined surface, which inclines so as to become closer to an inner wall of the nozzle body (101, 401) toward a downstream side, in a downstream portion of the inner peripheral side.
A luminous panel comprising at least two juxtaposed OLED devices (5, 5') that form a front face of the luminous panel and define two light-emitting zones (S 5) separated by an intermediate zone (S 7), characterized in that each OLED device (5, 5') is joined to a structural element of a building wall, especially a cladding panel of a wall or a ceiling (4, 4'), the luminous panel comprising luminous joint forming means (8, 9; 18, 19; 25, 28, 29) that ensure, when the two OLED devices (5, 5') are in the "on" state, visual continuity between the intermediate zone (S 7) and the two emitting zones (S 5), the luminous joint forming means being located at the back of or flush with said front face of the luminous panel.
A method for operating a refrigeration system, in which - a coolant is provided in a reservoir of an evaporator device of a single- or multi-stage refrigeration system, - a fluid to be cooled is cooled in that a cooling heat transfer from the fluid to be cooled to the coolant takes place by means of a heat exchanger of the evaporator device for cooling, and - the coolant evaporates at least partially at the heat exchanger owing to the cooling heat transfer and the evaporated coolant is supplied to a condensing device, characterized in that external heat energy provided by an external-heat source is transferred for improved cooling heat transfer to the coolant, namely additionally to and separately from the cooling heat transfer, and bubble formation supporting the cooling heat transfer is effected here in the coolant in the reservoir in that, in connection with the supply of the external heat energy, the bubble formation is induced by means of a pool boiling process or bubble formation triggered as a consequence of the cooling heat transfer is amplified. - a coolant is provided in a reservoir of an evaporator device of a single- or multi-stage refrigeration system, - a fluid to be cooled is cooled in that a cooling heat transfer from the fluid to be cooled to the coolant takes place by means of a heat exchanger of the evaporator device for cooling, and - the coolant evaporates at least partially at the heat exchanger owing to the cooling heat transfer and the evaporated coolant is supplied to a condensing device,