mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling entry to an area, comprising: receiving, at a door station, an input representing a request for a communication session with an authorized device (202, 204, 206, 208, 210) being authorized to grant entry to the area, sending to the authorized device, in response to receipt of said input representing a request, a request for setting up the communication session, receiving at a communication interface of the door station at least one signal representing a first input made using the authorized device, wherein said received at least one signal represents a symbol inputted by an operator of the authorized device, generating at the door station a graphical representation of the symbol, superimposing at the door station the graphical representation of the symbol onto video captured by the door station and streamed to the authorized device, receiving at the door station, after the at least one signal representing an input made at the authorized device have been received and graphical representations have been generated and superimposed onto video captured by the door station and streamed to the authorized device, a concluding signal representing a concluding input made using the authorized device, translating, in response to said concluding input, the received at least one signal into an instruction executable by the door station, executing the instruction resulting from the translation of the at least one signal, and generating an entry control signal in response to the receipt of the at least one signal and the concluding signal from the authorized device. receiving, at a door station, an input representing a request for a communication session with an authorized device (202, 204, 206, 208, 210) being authorized to grant entry to the area, sending to the authorized device, in response to receipt of said input representing a request, a request for setting up the communication session, receiving at a communication interface of the door station at least one signal representing a first input made using the authorized device, wherein said received at least one signal represents a symbol inputted by an operator of the authorized device, generating at the door station a graphical representation of the symbol, superimposing at the door station the graphical representation of the symbol onto video captured by the door station and streamed to the authorized device, receiving at the door station, after the at least one signal representing an input made at the authorized device have been received and graphical representations have been generated and superimposed onto video captured by the door station and streamed to the authorized device, a concluding signal representing a concluding input made using the authorized device, translating, in response to said concluding input, the received at least one signal into an instruction executable by the door station, executing the instruction resulting from the translation of the at least one signal, and generating an entry control signal in response to the receipt of the at least one signal and the concluding signal from the authorized device.
A system for data communications over a channel link, comprising: a communication module configured to access the channel link according to a set of specifications for the data communications; and a controller configured to include a physics-informed neural network (PINN), wherein the controller is configured to determine parameters represented by the set of specifications of the communication module to compensate signal waveform distortion in the data communications according to a physical model of the channel link, wherein the PINN is based on a cascaded use of regular perturbation models having a phasor correction trained by a deep neural network which uses a statistical information of the channel link to adaptively modify the set of specifications for the communication module. a communication module configured to access the channel link according to a set of specifications for the data communications; and a controller configured to include a physics-informed neural network (PINN), wherein the controller is configured to determine parameters represented by the set of specifications of the communication module to compensate signal waveform distortion in the data communications according to a physical model of the channel link, wherein the PINN is based on a cascaded use of regular perturbation models having a phasor correction trained by a deep neural network which uses a statistical information of the channel link to adaptively modify the set of specifications for the communication module.
A method for initiating a session between a first device and a second device within a publish/subscribe network, comprising publishing a first topic by a first user interface of said first device, the topic identifying the first user interface and including an address-identifier identifying a second user interface of said second device, said first and second user interface being capable of connecting to each other within the publish/subscribe network using topics, starting a first connection endpoint (43, 44), assigned to said first user interface, by publishing the first connection endpoint to the network by using a second topic for the first connection endpoint representing the first connection endpoint and describing the capabilities of the first connection endpoint, and linking the first connection endpoint with a second connection endpoint (45, 46) assigned to the second user interface, when the second user interface has accepted the session.
A method for transmitting SDH/Sonet section overhead bytes, comprising: separating (101, 501) target overhead bytes from section overhead bytes of an SDH/Sonet frame, wherein the target overhead bytes comprise data communications channel, DCC, bytes; packaging (102, 502) the target overhead bytes to obtain a dedicated overhead packet; and sending (103, 503) the dedicated overhead packet to a peer end node through a pseudo wire between a local end node and the peer end node as a service packet of the pseudo wire; wherein the sending the dedicated overhead packet to the peer end node through the pseudo wire between the local end node and the peer end node as the service packet of the pseudo wire comprises: sending the dedicated overhead packet and a packet that carries a payload of the SDH/Sonet frame to the peer end node through a same pseudo wire, wherein the packet that carries the payload and the dedicated overhead packet are both transmitted as service packets of the same pseudo wire. separating (101, 501) target overhead bytes from section overhead bytes of an SDH/Sonet frame, wherein the target overhead bytes comprise data communications channel, DCC, bytes; packaging (102, 502) the target overhead bytes to obtain a dedicated overhead packet; and sending (103, 503) the dedicated overhead packet to a peer end node through a pseudo wire between a local end node and the peer end node as a service packet of the pseudo wire; wherein the sending the dedicated overhead packet to the peer end node through the pseudo wire between the local end node and the peer end node as the service packet of the pseudo wire comprises: sending the dedicated overhead packet and a packet that carries a payload of the SDH/Sonet frame to the peer end node through a same pseudo wire, wherein the packet that carries the payload and the dedicated overhead packet are both transmitted as service packets of the same pseudo wire. sending the dedicated overhead packet and a packet that carries a payload of the SDH/Sonet frame to the peer end node through a same pseudo wire, wherein the packet that carries the payload and the dedicated overhead packet are both transmitted as service packets of the same pseudo wire.
Brush system of an electric motor with a commutator, with at least one brush guided in a brush shaft and having a connecting line, and with a spring element, which, in its operative connection with the brush, exerts a spring force on the latter for its contact with the commutator, - wherein the brush shaft has a longitudinal shaft slot guiding the connecting line, - wherein the longitudinal shaft slot of the brush shaft has a bottleneck, which retains the connecting line from a joining space of the commutator, and - wherein the connecting line is pressed through the bottleneck by the spring force of the spring element when the operative connection of the spring element with the brush is established. - wherein the brush shaft has a longitudinal shaft slot guiding the connecting line, - wherein the longitudinal shaft slot of the brush shaft has a bottleneck, which retains the connecting line from a joining space of the commutator, and - wherein the connecting line is pressed through the bottleneck by the spring force of the spring element when the operative connection of the spring element with the brush is established.
A test circuit comprising: at least two primary windings, each primary winding in a respective layer (16, 18, 36, 38) and configured to impose magnetic flux in a test material when driven by an electric current, each primary winding having meandering conducting segments with linear parallel extended portions (10, 30), the extended portions in each layer positioned at an angle with respect to the extended portions in another layer; and at least one sense element associated with one of the at least two primary windings and having conducting segments aligned parallel to the linear parallel extended portions of the associated primary winding to link magnetic flux, the at least one sense element having at least one feature selected to minimize the net linked magnetic flux from each non-associated primary winding, characterized in that the at least one feature is a sense element length that is an integral multiple of twice a distance between extended portions of a non-associated primary winding divided by the sine of the angle between one of the extended portions of the associated primary winding and one of the extended portions of the non-associated primary winding. at least two primary windings, each primary winding in a respective layer (16, 18, 36, 38) and configured to impose magnetic flux in a test material when driven by an electric current, each primary winding having meandering conducting segments with linear parallel extended portions (10, 30), the extended portions in each layer positioned at an angle with respect to the extended portions in another layer; and at least one sense element associated with one of the at least two primary windings and having conducting segments aligned parallel to the linear parallel extended portions of the associated primary winding to link magnetic flux, the at least one sense element having at least one feature selected to minimize the net linked magnetic flux from each non-associated primary winding, characterized in that the at least one feature is a sense element length that is an integral multiple of twice a distance between extended portions of a non-associated primary winding divided by the sine of the angle between one of the extended portions of the associated primary winding and one of the extended portions of the non-associated primary winding.
Device for actuating a sanitary drain valve, in particular a cistern drain valve or bathtub drain valve, comprising at least one electromotive drive and a manual trigger apparatus comprising at least one first manual actuation element, the electromotive drive actuating the drain valve by means of at least one first Bowden cable and the at least one first manual actuation element being provided with at least one second Bowden cable for actuating the drain valve, characterised in that the at least one first Bowden cable, which is assigned to the electromotive drive, is coupled to at least one first catch, and the at least one second Bowden cable, which is assigned to the at least one first manual actuation element, is coupled to at least one second catch, the catches (24, 25) being movable relative to one another, and the respective catch (24 or 25) driving a coupling element when movement is applied to said catch by means of the Bowden cable (26 or 21, respectively) coupled thereto, to which coupling element at least one third Bowden cable is connected, which at least one third Bowden cable is coupled to the drain valve for the actuation thereof.
Method for operating a hearing device, - wherein in the hearing device a first directional signal and a second directional signal are generated from an ambient sound signal, - wherein the first directional signal and the second directional signal are used to determine at a first response time a first adaptation coefficient (α1) for a first superposition of the first directional signal with the second directional signal for the purpose of noise suppression, - wherein the first directional signal and the second directional signal are used to determine at a second response time a second adaptation coefficient (α2) for a second superposition of the first directional signal with the second directional signal for the purpose of noise suppression, - wherein the first adaptation coefficient (α1) and the second adaptation coefficient (α2) are used to determine an output adaptation coefficient (α-out) for forming an output signal by superposition of the first directional signal and the second directional signal. - wherein in the hearing device a first directional signal and a second directional signal are generated from an ambient sound signal, - wherein the first directional signal and the second directional signal are used to determine at a first response time a first adaptation coefficient (α1) for a first superposition of the first directional signal with the second directional signal for the purpose of noise suppression, - wherein the first directional signal and the second directional signal are used to determine at a second response time a second adaptation coefficient (α2) for a second superposition of the first directional signal with the second directional signal for the purpose of noise suppression, - wherein the first adaptation coefficient (α1) and the second adaptation coefficient (α2) are used to determine an output adaptation coefficient (α-out) for forming an output signal by superposition of the first directional signal and the second directional signal.
A formulation for a bubble bath product comprising: surfactant; gelatin; and gellan gum wherein the gellan gum is present in a quantity of from 0.01 to 0.08 % by weight, for example from 0.01 to 0.06 % by weight, for example 0.02 to 0.05 % by weight. surfactant; gelatin; and gellan gum wherein the gellan gum is present in a quantity of from 0.01 to 0.08 % by weight, for example from 0.01 to 0.06 % by weight, for example 0.02 to 0.05 % by weight.
A valve stem seal assembly (950; 1050; 1150; 1250; 1350; 1550; 1650; 1750; 1850; 2150; 2350) for an internal combustion engine, the engine including a housing separating a lubrication chamber and a combustion chamber, the valve stem seal assembly comprising: a valve guide (36; 936; 1036; 1136; 1236; 1336; 1536) fixed in the housing and extending between the lubrication chamber and the combustion chamber; a valve stem (34; 934; 1034; 1134; 1234) extending through said valve guide between the lubrication chamber and the combustion chamber; and an annular elastomeric body adapted to be disposed around said valve stem, said elastomeric body including a first portion (954; 1054; 1154; 1254; 1354; 1654; 1754; 1854; 2154; 2354) adapted to have a sealed engagement with the valve stern (34; 934; 1034; 1134; 1234) extending from said first portion, characterized in that said valve guide including a pressure relief channel (998; 1098; 1198; 1298; 1398; 1790; 1890; 2190; 2392) in a surface thereof; 1068; 1168; 1268; 1768; 1882; 1982; 2082; 2182; 2382) extending from said first portion, said valve stem seal assembly includes a pressure relief lip (968; 1068; 1168; 1268; 1768; 1882; 1982; 2082; 2182; 2382), said pressure relief lip having a sealing configuration and a venting configuration, said sealing configuration adapted to close a passageway in fluid communication with a combustion chamber of the engine to a lubrication chamber of the engine, said venting configuration adapted to open the passageway to the lubrication chamber; and said pressure relief lip (968; 1068; 1168; 1268; 1768; 1882; 1982; 2082; 2182; 2382) is operable to open to said venting configuration at a predetermined pressure within the passageway and the combustion chamber to allow excess exhaust gasses to vent from the passageway and the combustion chamber, and said pressure relief lip (968; 1068; 1168; 1268; 1768; 1882; 1982; 2082; 2182; 2382) is operable to close to said sealing configuration after the venting of the excess exhaust gases to prevent fluid from the lubrication chamber from entering the passageway and the combustion chamber. a valve guide (36; 936; 1036; 1136; 1236; 1336; 1536) fixed in the housing and extending between the lubrication chamber and the combustion chamber; a valve stem (34; 934; 1034; 1134; 1234) extending through said valve guide between the lubrication chamber and the combustion chamber; and an annular elastomeric body adapted to be disposed around said valve stem, said elastomeric body including a first portion (954; 1054; 1154; 1254; 1354; 1654; 1754; 1854; 2154; 2354) adapted to have a sealed engagement with the valve stern (34; 934; 1034; 1134; 1234) extending from said first portion,
A piston usable in a compressor which is configured to compress and discharge refrigerant suctioned into a cylinder, the piston comprising: a cylindrical slider having an outer diameter corresponding to an inner diameter of the cylinder and forming a suction space in which the refrigerant suctioned in the cylinder is received; and a head coupled to the slider, in which a compression space is provided in the front and the suction space is provided in the rear, and in which a suction port communicating with the suction space and the compression space is formed, wherein the head includes an inner body and an outer body surrounding the inner body, and wherein the suction port is formed between the inner body and the outer body, characterized in that the outer body includes an insert part inserted into the slider, and a cover part positioned in front of the insert part, extending outward from the insert part in the radial direction, and facing a front end part of the slider. a cylindrical slider having an outer diameter corresponding to an inner diameter of the cylinder and forming a suction space in which the refrigerant suctioned in the cylinder is received; and a head coupled to the slider, in which a compression space is provided in the front and the suction space is provided in the rear, and in which a suction port communicating with the suction space and the compression space is formed, wherein the head includes an inner body and an outer body surrounding the inner body, and wherein the suction port is formed between the inner body and the outer body, characterized in that the outer body includes an insert part inserted into the slider, and a cover part positioned in front of the insert part, extending outward from the insert part in the radial direction, and facing a front end part of the slider.
A lubricant composition comprising; an ionic liquid as the base oil having an anion represented by formula 1 or formula 2: (Rf1-SO 2)(Rf2-SO 2)N - (formula 1) PF 3 - (formula 2) wherein Rf1 and Rf2 in formula 1 may be the same or different and are each F, CF 3, C 2 F 5, C 3 F 7 or C 4 F 9, and Rf3 in formula 2 may be the same or different and is CF 3, C 2 F 5, C 3 F 7 or C 4 F 9, and a fatty acid amine salt in an amount of 0.1 to 5.0 mass% wherein the ionic liquid has a melting point of -20°C or less as determined in accordance with differential scanning calorimetry and wherein the cation of the ionic liquid is at least one selected from the group consisting of ethylmethyl imidazolium, hexylmethyl imidazolium, methyloctyl imidazolim, butyldimethyl imidazolium; butyl-4-methyl pyridinium; methoxyethyl-methyl piperidium; methoxyethyl-methyl pyrrolidinium; octyltriethyl phosphonium, triethyloctyl phosphonium; and propyldimethyl isooxazolium. an ionic liquid as the base oil having an anion represented by formula 1 or formula 2: (Rf1-SO 2)(Rf2-SO 2)N - (formula 1) PF 3 - (formula 2) wherein Rf1 and Rf2 in formula 1 may be the same or different and are each F, CF 3, C 2 F 5, C 3 F 7 or C 4 F 9, and Rf3 in formula 2 may be the same or different and is CF 3, C 2 F 5, C 3 F 7 or C 4 F 9, and a fatty acid amine salt in an amount of 0.1 to 5.0 mass%
T-connection between a mullion profile and a transom profile, in particular for mullion-transom-constructions of facades, skylights and conservatories, having at least one connecting element which can be inserted into a cavity of the transom profile and a load transfer device for the load-bearing connection of the transom profile to the mullion profile, wherein the load transfer device is designed as an insertion profile which is fixedly arranged on the connecting element and extends along an outer side surface of the connecting element, characterized by a positive engagement of the insertion profile in a transverse groove of the mullion profile.
A system comprising: a secure processing system, including: a hardware memory protection unit, HMPU, configured to restrict access to the secure processing system, a secure memory configured to store a security policy, and a secure processor configured to execute secure code, wherein the secure processor is configured to determine, based on the security policy, whether to grant a request to access a secure service provided by the secure processing system; and a first processor physically isolated from the secure processing system and a secure system peripheral, wherein the first processor and the secure processing system are both coupled to a shared memory, wherein the first processor is configured to: execute code under the direction of the secure processor, and place, in the shared memory, the request to access the secure service, and wherein the secure processor is further configured to open and close data pathways (124, 130) between the secure processing system and a non-secure peripheral. a secure processing system, including: a hardware memory protection unit, HMPU, configured to restrict access to the secure processing system, a secure memory configured to store a security policy, and a secure processor configured to execute secure code, wherein the secure processor is configured to determine, based on the security policy, whether to grant a request to access a secure service provided by the secure processing system; and a hardware memory protection unit, HMPU, configured to restrict access to the secure processing system, a secure memory configured to store a security policy, and a secure processor configured to execute secure code, wherein the secure processor is configured to determine, based on the security policy, whether to grant a request to access a secure service provided by the secure processing system; and a first processor physically isolated from the secure processing system and a secure system peripheral, wherein the first processor and the secure processing system are both coupled to a shared memory, wherein the first processor is configured to: execute code under the direction of the secure processor, and place, in the shared memory, the request to access the secure service, and execute code under the direction of the secure processor, and place, in the shared memory, the request to access the secure service, and wherein the secure processor is further configured to open and close data pathways (124, 130) between the secure processing system and a non-secure peripheral.