mhurhangee/ep-ind-claims huggingface dataset:
Guide device for bars to be fed to a machine tool, comprising first holding and guide means (2,5) and second holding and guide means (4,7) arranged to define an advancement zone for the bars, said advancement zone extending according to a longitudinal axis, said first holding and guide means (2,5) and said second holding and guide means (4,7) being configured to establish one or more contact zones with said bar so as to retain in position and guide said bar along said advancement zone, said first holding and guide means (2,5) and said second holding and guide means (4,7) extending parallel to said axis and being mutually positioned at opposite sides with respect to said longitudinal axis, said first holding and guide means (2,5) and said second holding and guide means (4,7) being relatively movable between a resting position, wherein said first holding and guide means (2,5) and said second holding and guide means (4,7) are at a greater mutual distance and at furthest positions from said advancement zone to allow the positioning of said bar to be guided along said advancement zone, and an engagement position, wherein said first holding and guide means (2,5) and said second holding and guide means (4,7) are at a smaller distance and closest to said advancement zone so as to come into contact with said bar adapting to different diameter values of said bar, said first holding and guide means (2,5) comprising a first series of distinct block-shaped guide-elements mutually spaced apart and distributed parallel to said axis and said second holding and guide means (4,7) comprising a second series of distinct block-shaped guide elements mutually spaced apart and distributed parallel to said axis, said guide elements of said first series of elements being arranged staggered with respect to said guide elements of said second series so as to entirely involve said advancement zone, said guide elements of said first series being mechanically connected to said guide elements of said second series by connecting means, so as to form an articulated guide structure, wherein said first series of guide elements and said second series of guide elements are movable in a simultaneous and synchronised manner between said resting position and said engagement position, said guide device being CHARACTERIZED IN THAT said connecting means comprises connecting rod elements the ends of which are connected respectively to a guide element of said first series and to a guide element of said second series, said connecting rod elements being configured to rotate around respective pivots.
A method implemented by a user terminal (UT-A) for a calling party of placing a call from the calling party to a called party remotely located from the calling party, said method comprising establishing a call with a called party user terminal (UT-C) over a packet data network; and requesting a third party user terminal (UT-B) to relay said call from the calling party user terminal (UT-A) to the called party user terminal (UT-C) over an alternate communication network; characterized in that the method further comprises determining the availability of the called party user terminal (UT-C) on the packet data network; establishing the call with the called party user terminal (UT-C) over the packet data network if the called party user terminal (UT-C) is available on the packet data network; and if the called party user terminal (UT-C) is not available on the packet data network, identifying a third party user terminal (UT-B) in said packet data network available to relay the call, establishing communication with said third party user terminal (UT-B), and requesting the third party user terminal (UT-B) to relay the call from the calling party user terminal (UT-A) to the called party user terminal (UT-C) over the alternate communication network.
A radio frequency multiplexer, comprising: a send circuit (211, 534) and a receive circuit (212, 532) each comprising an RF filter circuit; a first port (225, 545) to be coupled to an antenna, the send circuit (211, 534) and the receive circuit (212, 532) coupled to the first port (225, 545); a second port (221, 524) coupled to the send circuit (211, 534); a third port (222, 522) coupled to the receive circuit (212,532); wherein the send circuit (211, 534) comprises a resonator coupled to the first port (225, 545) and the receive circuit (212, 532) comprises another resonator coupled to the first port (225, 545), wherein the resonators (314, 323) of the send and receive circuits coupled to the first port (225, 545) are disposed on the same single monocrystalline substrate (213, 550); wherein the send circuit (211, 534) comprises additional resonators (311, 312, 313), wherein the additional resonators (311, 312, 313) are disposed on another monocrystalline substrate (214, 551) separated from the single monocrystalline substrate (213, 550) and are included in a series path of the send circuit (211, 534) characterized in that the additional resonators (311, 312, 313) disposed on the other monocrystalline substrate (214, 551) separated from the single monocrystalline substrate (213, 550) are configured to exhibit a temperature coefficient that is lower than the temperature coefficient of the resonators (314, 323) disposed on the single monocrystalline substrate (213, 550). a send circuit (211, 534) and a receive circuit (212, 532) each comprising an RF filter circuit; a first port (225, 545) to be coupled to an antenna, the send circuit (211, 534) and the receive circuit (212, 532) coupled to the first port (225, 545); a second port (221, 524) coupled to the send circuit (211, 534); a third port (222, 522) coupled to the receive circuit (212,532); wherein the send circuit (211, 534) comprises a resonator coupled to the first port (225, 545) and the receive circuit (212, 532) comprises another resonator coupled to the first port (225, 545), wherein the resonators (314, 323) of the send and receive circuits coupled to the first port (225, 545) are disposed on the same single monocrystalline substrate (213, 550); wherein the send circuit (211, 534) comprises additional resonators (311, 312, 313), wherein the additional resonators (311, 312, 313) are disposed on another monocrystalline substrate (214, 551) separated from the single monocrystalline substrate (213, 550) and are included in a series path of the send circuit (211, 534) characterized in that the additional resonators (311, 312, 313) disposed on the other monocrystalline substrate (214, 551) separated from the single monocrystalline substrate (213, 550) are configured to exhibit a temperature coefficient that is lower than the temperature coefficient of the resonators (314, 323) disposed on the single monocrystalline substrate (213, 550).
A security access device, comprising an RFID reader and a retrofit sender, the retrofit sender comprising an RFID circuitry wirelessly connected to an RFID send circuit of the RFID reader, a touch access surface and a touch field generator having an input operatively connected to the RFID circuitry and a gated output operatively connected to the touch access surface, wherein the touch field generator is configured to impart a field over the entire surface of a body touching the touch access surface, the field being representative of an RFID signal sent by the RFID reader's send circuit to the retrofit sender.
A method of obtaining a measure of electrical impedance in respect of one or more sensing electrodes (2A, 2B) of an electromagnetic flowmeter, the method comprising: intermittently injecting an impedance measurement signal to at least one of the sensing electrodes (2A, 2B) whilst a coil excitation drive signal is applied to field generating coils of the flowmeter; during a first interval, when the coil excitation drive signal is applied to the coils and the impedance measurement signal is injected to at least one of the sensing electrodes (2A, 2B), obtaining a first measurement signal from the sensing electrodes (2A, 2B), the first measurement signal comprising an electromagnetically induced flow measurement signal and an electrode impedance measurement signal; during a second interval, when the coil excitation drive signal is applied to the coils but the impedance measurement signal is not injected to at least one of the sensing electrodes (2A, 2B), obtaining a second measurement signal from the sensing electrodes (2A, 2B), the second measurement signal comprising an electromagnetically induced flow measurement signal; and combining the first measurement signal and the second measurement signal to obtain an output signal comprising the electrode impedance measurement signal without the electromagnetically induced flow measurement signal; wherein the coil excitation drive signal has a cyclically varying waveform having a drive period; wherein the combining involves the use of a delay line having a delay period; and wherein the delay period is an integer number of cycles of the drive period of the coil excitation drive signal. intermittently injecting an impedance measurement signal to at least one of the sensing electrodes (2A, 2B) whilst a coil excitation drive signal is applied to field generating coils of the flowmeter; during a first interval, when the coil excitation drive signal is applied to the coils and the impedance measurement signal is injected to at least one of the sensing electrodes (2A, 2B), obtaining a first measurement signal from the sensing electrodes (2A, 2B), the first measurement signal comprising an electromagnetically induced flow measurement signal and an electrode impedance measurement signal; during a second interval, when the coil excitation drive signal is applied to the coils but the impedance measurement signal is not injected to at least one of the sensing electrodes (2A, 2B), obtaining a second measurement signal from the sensing electrodes (2A, 2B), the second measurement signal comprising an electromagnetically induced flow measurement signal; and combining the first measurement signal and the second measurement signal to obtain an output signal comprising the electrode impedance measurement signal without the electromagnetically induced flow measurement signal; wherein the coil excitation drive signal has a cyclically varying waveform having a drive period; wherein the combining involves the use of a delay line having a delay period; and wherein the delay period is an integer number of cycles of the drive period of the coil excitation drive signal.
A method for providing a server-side event model in a distributed data grid comprising a data grid cluster that includes multiple inter-connected cluster nodes, wherein the server-side event model includes at least one event dispatcher located within the data grid cluster, said method comprising: registering one or more event interceptors with a registry that is associated with the distributed data grid; mapping the one or more registered event interceptors (121, 122, 123) to the event dispatcher, wherein the event interceptors are responsible for receiving and handling an event raised by the server-side event model, wherein the event dispatcher operates to dispatch at least one event associated with an operation in the distributed data grid; handling, via said one or more event interceptors, the at least one event that is dispatched from the event dispatcher to said one or more event interceptors, wherein handling the event includes modifying data associated with the event if the context allows it, or, for pre-committed storage events, vetoing the operation by throwing an exception; and deferring completion of the operation in the distributed data grid pending completion of the handling of the at least one event by said one or more event interceptors. registering one or more event interceptors with a registry that is associated with the distributed data grid; mapping the one or more registered event interceptors (121, 122, 123) to the event dispatcher, wherein the event interceptors are responsible for receiving and handling an event raised by the server-side event model, wherein the event dispatcher operates to dispatch at least one event associated with an operation in the distributed data grid; handling, via said one or more event interceptors, the at least one event that is dispatched from the event dispatcher to said one or more event interceptors, wherein handling the event includes modifying data associated with the event if the context allows it, or, for pre-committed storage events, vetoing the operation by throwing an exception; and deferring completion of the operation in the distributed data grid pending completion of the handling of the at least one event by said one or more event interceptors.
Device for the positionally accurate transport of delicate filigree hot glassware to and from a stress-relieving furnace, with at least one conveyor belt on which the glassware can be transported towards the flash furnace and away from the latter, wherein a transport system runs through the stress-relieving furnace, on which the hot glassware can be guided through the stress-relieving furnace and with a depositing system by which a plurality of glassware can be simultaneously transferred from the conveyor belt onto the transport system and with a receiving system by which a plurality of glassware can be simultaneously transferred from the transport system onto the conveyor belt, characterised in that the sensitive glassware is transported lying down, at least one conveyor belt extends at least in regions transverse to the running direction of the transport system of the stress-relieving furnace, a plurality of glassware in at least one loading row extending perpendicularly to the direction of travel of the transport system can be deposited by the depositing system on a depositing table onto the transport system at the start of the stress-relieving furnace, and a plurality of glassware in at least one loading row can be deposited by the receiving system from a receiving table, which extends perpendicular to the direction of travel of the transport system at the end of the stress relieving furnace can be received by the latter and that the glassware is picked up by the receiving system and the depositing system by means of one or more vacuum grippers.
Method for manufacturing a homogeneous three-phase laundry detergent wipe, characterized by the following steps: (a) incorporating washing active substances which are water insoluble and solid at ambient temperature into a substrate which is solid at ambient temperature such that the substances are homogeneously distributed over the substrate after incorporation, (b) impregnating the substrate so functionalized with an impregnating liquid, such that the three-phase laundry detergent wipe comprises a liquid phase.
A stick-on biosensor comprising: a pressure-sensitive adhesive layer and an electrode part including an electrode to be in contact with a subject, said pressure-sensitive adhesive layer having a stick-on surface to be attached to the subject; a base material layer provided on the side opposite the stick-on surface of the pressure-sensitive adhesive layer; and an electronic device provided on the base material layer and configured to process a biological signal acquired through the electrode part, wherein a plate-like structure including the pressure-sensitive adhesive layer, the electrode part, and the base material layer has a flexural rigidity per unit width of 0.010 [MPa·mm 3 /mm] or higher and 1.897 [MPa·mm 3 /mm] or lower, and an adhesive strength of the electrode part to adhere to the subject is greater than 0.6 [N/cm 2] and less than or equal to 5.0 [N/cm 2]. a pressure-sensitive adhesive layer and an electrode part including an electrode to be in contact with a subject, said pressure-sensitive adhesive layer having a stick-on surface to be attached to the subject; a base material layer provided on the side opposite the stick-on surface of the pressure-sensitive adhesive layer; and an electronic device provided on the base material layer and configured to process a biological signal acquired through the electrode part, wherein a plate-like structure including the pressure-sensitive adhesive layer, the electrode part, and the base material layer has a flexural rigidity per unit width of 0.010 [MPa·mm 3 /mm] or higher and 1.897 [MPa·mm 3 /mm] or lower, and an adhesive strength of the electrode part to adhere to the subject is greater than 0.6 [N/cm 2] and less than or equal to 5.0 [N/cm 2].
A method, in a user equipment device, for managing roaming data charges of applications installed on the user equipment device, the method comprising: receiving a request from a user to launch an application; checking whether the user equipment device is roaming; and if the user equipment device is roaming, consulting a user roaming profile, stored in a memory of the user equipment device, to determine whether the launch of the application is permitted while roaming, wherein the user roaming profile comprises a list including: (i) the applications installed on the user equipment, and (ii) associated indication of roaming permission for each of the applications; and preventing launch of the application if the user roaming profile indicates that launch of the application is not permitted while roaming, such that roaming data charges associated with the application are prevented. receiving a request from a user to launch an application; checking whether the user equipment device is roaming; and if the user equipment device is roaming, consulting a user roaming profile, stored in a memory of the user equipment device, to determine whether the launch of the application is permitted while roaming, wherein the user roaming profile comprises a list including: (i) the applications installed on the user equipment, and (ii) associated indication of roaming permission for each of the applications; and
A multi axial composite laminate structure, comprising: a first unidirectional layer including a plurality of parallel reinforcement fibers which are aligned with a first selected direction, the first selected direction being aligned with a direction of principal stress; a second unidirectional layer including a plurality of parallel reinforcement fibers which are aligned with a second selected direction, wherein the first selected direction and the second selected direction are perpendicular; a first bidirectional layer positioned on one side of the first unidirectional layer having a first planar portion that includes a plurality of parallel reinforcement fibers oriented at a first selected shallow angle α relative to a first selected direction and a second adjacent planar portion that includes approximately parallel reinforcement fibers oriented at a second selected shallow angle -α relative to the first direction; and a second bidirectional layer positioned on an opposing side of the first unidirectional layer having a first planar portion that includes a plurality of parallel reinforcement fibers oriented at a third selected broad angle β relative to the first selected direction and a second adjacent planar portion that includes approximately parallel reinforcement fibers oriented at a fourth selected broad angle -β relative to the first direction, wherein one of the following applies for the angle α: 1°<α<3°, 3°<α<7°, 7<α≤15°, and for the angle β the following is valid 45°<β<90°. a first unidirectional layer including a plurality of parallel reinforcement fibers which are aligned with a first selected direction, the first selected direction being aligned with a direction of principal stress; a second unidirectional layer including a plurality of parallel reinforcement fibers which are aligned with a second selected direction, wherein the first selected direction and the second selected direction are perpendicular; a first bidirectional layer positioned on one side of the first unidirectional layer having a first planar portion that includes a plurality of parallel reinforcement fibers oriented at a first selected shallow angle α relative to a first selected direction and a second adjacent planar portion that includes approximately parallel reinforcement fibers oriented at a second selected shallow angle -α relative to the first direction; and a second bidirectional layer positioned on an opposing side of the first unidirectional layer having a first planar portion that includes a plurality of parallel reinforcement fibers oriented at a third selected broad angle β relative to the first selected direction and a second adjacent planar portion that includes approximately parallel reinforcement fibers oriented at a fourth selected broad angle -β relative to the first direction, wherein one of the following applies for the angle α: 1°<α<3°, 3°<α<7°, 7<α≤15°, and for the angle β the following is valid 45°<β<90°.
A method for determining abnormality in an exhaust gas recirculation amount, comprising acquiring an absolute value of a deviation of an actual EGR ratio, calculated in a current engine operational status, from a target EGR ratio set on the basis of the current engine operational status, multiplying said absolute value of the deviation by a quotient, as gain, acquired from division of a feedback correction amount of opening degree of an EGR valve by an upper limit of said feedback correction amount, and determining normality when an acquired product is close to "0" and determining higher degree of abnormality the further said product is away from "0".
A computing system (100, 400) configured to provide scalable, real-time duplex communications across a data network, the computing system comprising one or more processors; and storage comprising instructions executable by the one or more processors to instantiate one or more real-time duplex communication service instances, each real-time duplex communication service instance comprising a real-time duplex communication framework comprising a client hub configured to receive connections for a plurality of clients and a server hub configured to receive connections for a plurality of servers, and each real-time duplex communication service instance being configured to publish messages regarding a state of the real-time duplex communication framework to a channel accessed by other real-time duplex communication service instances. one or more processors; and storage comprising instructions executable by the one or more processors to instantiate one or more real-time duplex communication service instances, each real-time duplex communication service instance comprising a real-time duplex communication framework comprising a client hub configured to receive connections for a plurality of clients and a server hub configured to receive connections for a plurality of servers, and each real-time duplex communication service instance being configured to publish messages regarding a state of the real-time duplex communication framework to a channel accessed by other real-time duplex communication service instances.
Welding unit, especially welding robot, comprising a welding rod supply system, the welding rod supply system comprising a welding rod supply unit to be coupled with a welding torch with a rod guide duct formed therein as well as with at least two welding rod-receiving cables (22, 24), which adjoin the welding rod supply unit in a switch area and are to be coupled with a respective welding rod feed unit (34, 36), each with a respective rod guide duct (26, 28) formed in it, characterized by an arm comprising at least one axis (78, 80) configured as a hollow shaft, wherein a welding torch is provided at an end area of the arm and the welding rod supply unit extending in the inner volume of the arm is coupled with the welding rod-receiving cables (22, 24) at the other end area of the arm.