mhurhangee/ep-ind-claims huggingface dataset:
A method, performed by a gateway device (3; 4; 100), to support selective forwarding of messages published to one of a group address and a virtual address in a flooding mesh network of communicatively coupled communication devices each having a unique unicast address, said gateway device (3; 4; 100) comprising a plurality of network interfaces (6; 7; 8; 9), each arranged for receiving and transmitting messages in respective mesh network segments of said mesh network and for communicatively coupling to a configuration client (2; 150), said configuration client (2; 150) being arranged for maintaining unicast addresses of said communication devices in said mesh network and a mapping between unicast addresses and at least one of a group address and a virtual address of communication devices in said mesh network, said method comprising the steps of: - receiving, by said gateway device (3; 4; 100), over a network interface (6; 7; 8), a message published to a group address or a virtual address - retrieving, by said gateway device (3; 4; 100), based on said mapping by said configuration client (2; 150), unicast addresses of all communication devices collectively identified by said group or said virtual address in said received message; - keeping track, by said gateway device (3; 4; 100), of which communication devices are heard on which of said plurality of network interfaces (6; 7; 8; 9); - determining, by said gateway device (3; 4; 100), based on said retrieved unicast addresses, that all said communication devices are serviced by said gateway device (3; 4; 100), and determining over which of said interfaces the message should be forwarded; - sending, by said gateway device (3; 4; 100), said received message on said determined interfaces (6; 7; 8) corresponding to said communication devices addressed by said retrieved unicast addresses. - receiving, by said gateway device (3; 4; 100), over a network interface (6; 7; 8), a message published to a group address or a virtual address - retrieving, by said gateway device (3; 4; 100), based on said mapping by said configuration client (2; 150), unicast addresses of all communication devices collectively identified by said group or said virtual address in said received message; - keeping track, by said gateway device (3; 4; 100), of which communication devices are heard on which of said plurality of network interfaces (6; 7; 8; 9); - determining, by said gateway device (3; 4; 100), based on said retrieved unicast addresses, that all said communication devices are serviced by said gateway device (3; 4; 100), and determining over which of said interfaces the message should be forwarded; - sending, by said gateway device (3; 4; 100), said received message on said determined interfaces (6; 7; 8) corresponding to said communication devices addressed by said retrieved unicast addresses.
A variable offset joint for downhole tools, including: a first downhole member; a second downhole member; a plurality of intermediate elements (52, 54) each pivotally coupled at a first end to the first downhole member and at a second end to the second downhole member; and a coupler member extending between at least two of the plurality of intermediate elements (52, 54) and adapted to selectively maintain a lateral offset between the first and second downhole members (30, 40), characterised in the coupler member further including a zone of weakness adapted to fracture when a tensile force applied thereto exceeds a predetermined threshold. a first downhole member; a second downhole member; a plurality of intermediate elements (52, 54) each pivotally coupled at a first end to the first downhole member and at a second end to the second downhole member; and a coupler member extending between at least two of the plurality of intermediate elements (52, 54) and adapted to selectively maintain a lateral offset between the first and second downhole members (30, 40), characterised in the coupler member further including a zone of weakness adapted to fracture when a tensile force applied thereto exceeds a predetermined threshold.
A single chain, polypeptide fusion protein, comprising: a. a non-cytotoxic protease, or a fragment thereof, which protease or protease fragment is capable of cleaving a protein of the exocytic fusion apparatus of a nociceptive sensory afferent; b. a Targeting Moiety that is capable of binding to a Binding Site on the nociceptive sensory afferent, which Binding Site is capable of undergoing endocytosis to be incorporated into an endosome within the nociceptive sensory afferent; c. a protease cleavage site at which site the fusion protein is cleavable by a protease, wherein the protease cleavage site is located between the non-cytotoxic protease or fragment thereof and the Targeting Moiety; d. a translocation domain that is capable of translocating the protease or protease fragment from within an endosome, across the endosomal membrane and into the cytosol of the nociceptive sensory afferent; wherein the Targeting Moiety is located between the protease cleavage site and the translocation domain, and wherein the protease (or fragment thereof) and the translocation domain are distanced apart from one another by a maximum of 100 amino acid residues. a. a non-cytotoxic protease, or a fragment thereof, which protease or protease fragment is capable of cleaving a protein of the exocytic fusion apparatus of a nociceptive sensory afferent; b. a Targeting Moiety that is capable of binding to a Binding Site on the nociceptive sensory afferent, which Binding Site is capable of undergoing endocytosis to be incorporated into an endosome within the nociceptive sensory afferent; c. a protease cleavage site at which site the fusion protein is cleavable by a protease, wherein the protease cleavage site is located between the non-cytotoxic protease or fragment thereof and the Targeting Moiety; d. a translocation domain that is capable of translocating the protease or protease fragment from within an endosome, across the endosomal membrane and into the cytosol of the nociceptive sensory afferent;
A method of controlling a temperature of a blade, comprising: inputting current weather conditions and future weather conditions into a processor; generating a first power production curve, comprising: generating a measured power curve based on the current weather conditions; comparing the measured power curve to a reference power curve; and determining when to heat the blade based on a percentage drop between the measured power curve and the reference power curve; generating a second power production curve of the blade based on the future weather conditions; comparing the first power production curve to the second power production curve; determining which power production curve minimizes a net power production loss of the blade; and adjusting a heating cycle of the blade based on the power curve that minimizes the net power production loss of the blade (812, 813). inputting current weather conditions and future weather conditions into a processor; generating a first power production curve, comprising: generating a measured power curve based on the current weather conditions; comparing the measured power curve to a reference power curve; and determining when to heat the blade based on a percentage drop between the measured power curve and the reference power curve; generating a measured power curve based on the current weather conditions; comparing the measured power curve to a reference power curve; and determining when to heat the blade based on a percentage drop between the measured power curve and the reference power curve; generating a second power production curve of the blade based on the future weather conditions; comparing the first power production curve to the second power production curve; determining which power production curve minimizes a net power production loss of the blade; and adjusting a heating cycle of the blade based on the power curve that minimizes the net power production loss of the blade (812, 813).
Device for handling containers comprising - a supply region having a plurality of parallel supply conveyors, on which containers are conveyed in an upright position, - a common drive for the supply conveyors, having a shaft and a motor driving the shaft, wherein each supply conveyor is driven by at least one drive wheel which is interlockingly connected (in positive fit) to the shaft and driven by same, - at least one mounting point configured for mounting the shaft, which has a driven bearing wheel with a shaft receiving means and bearing receiving means, characterised in that - a bearing block provided in order to support the shaft is provided with a bearing seat, comprising a contact surface, on which the bearing wheel is rotatably mounted, inasmuch as - a contact surface of the bearing receiving means is rotatably mounted on the contact surface, and - the driven bearing wheel is configured as a divided bearing wheel that can be disassembled into at least two parts. - a supply region having a plurality of parallel supply conveyors, on which containers are conveyed in an upright position, - a common drive for the supply conveyors, having a shaft and a motor driving the shaft, wherein each supply conveyor is driven by at least one drive wheel which is interlockingly connected (in positive fit) to the shaft and driven by same, - at least one mounting point configured for mounting the shaft, which has a driven bearing wheel with a shaft receiving means and bearing receiving means, characterised in that - a bearing block provided in order to support the shaft is provided with a bearing seat, comprising a contact surface, on which the bearing wheel is rotatably mounted, inasmuch as - a contact surface of the bearing receiving means is rotatably mounted on the contact surface, and - the driven bearing wheel is configured as a divided bearing wheel that can be disassembled into at least two parts.
A method of detecting a need for regeneration of an exhaust particulate filter, comprising the steps of: (a) detecting a first pressure drop (Δp 1) in a flow section of an exhaust system comprising the exhaust particulate filter, the flow section being connected to the exhaust particulate filter in a fluidically unbranched manner, and an SCR catalytic converter and/or an oxidation catalytic converter being arranged in the flow section, the flow section being positioned downstream of the exhaust particulate filter, and wherein the first pressure drop (Δp 1) is determined across the SCR catalytic converter and/or the oxidation catalytic converter; (b) sensing an exhaust gas temperature (T 1, T 2); (c) calculating an exhaust gas mass flow flowing through the exhaust particulate filter on the basis of the first pressure drop (Δp 1) and the exhaust gas temperature (T 1, T 2); (d) determining a second pressure drop (Δp 2) across the exhaust particulate filter; (e) identifying the need for regeneration when the second pressure drop (Δp 2) exceeds a predefined pressure limit value (p G) dependent on the exhaust gas mass flow. (a) detecting a first pressure drop (Δp 1) in a flow section of an exhaust system comprising the exhaust particulate filter, the flow section being connected to the exhaust particulate filter in a fluidically unbranched manner, and an SCR catalytic converter and/or an oxidation catalytic converter being arranged in the flow section, the flow section being positioned downstream of the exhaust particulate filter, and wherein the first pressure drop (Δp 1) is determined across the SCR catalytic converter and/or the oxidation catalytic converter; (b) sensing an exhaust gas temperature (T 1, T 2); (c) calculating an exhaust gas mass flow flowing through the exhaust particulate filter on the basis of the first pressure drop (Δp 1) and the exhaust gas temperature (T 1, T 2); (d) determining a second pressure drop (Δp 2) across the exhaust particulate filter; (e) identifying the need for regeneration when the second pressure drop (Δp 2) exceeds a predefined pressure limit value (p G) dependent on the exhaust gas mass flow.
Drive system, in particular for a motor vehicle, comprising a drive motor with a crankshaft, comprising a flywheel mass element arranged on the crankshaft, comprising a damper which, on the primary side, is coupled to the flywheel mass element, comprising a transmission device with a transmission input shaft, which has a hollow shaft region, and a transmission output shaft, wherein the transmission input shaft is coupled to the secondary side of the damper and a multiple clutch device and at least two planetary sets are arranged between the transmission input shaft and the transmission output shaft, characterized in that the multiple clutch device comprises a plurality of separate clutch units, the primary sides of which are coupled in a rotationally fixed manner to the transmission input shaft in the hollow shaft region, and an electrical machine is provided between the flywheel mass element and the multiple clutch device, wherein a rotor is coupled to the drive motor and the transmission input shaft in such a way that the rotor and the primary sides of the multiple clutch device, which primary sides are coupled to the transmission input shaft, always rotate at the rotation speed of the drive motor.
Assembly of a steel girder for a composite floor including concrete hollow-core slabs, and a coupling device for connecting the hollow-core slabs to the girder, wherein the girder comprises: - at least one laterally extending lower flange having a support surface for support ends of the hollow-core slabs and - a web extending upwards from the lower flange, wherein the coupling device comprises: - a number of coupling rods which with the one, first end are intended to be accommodated in the respective longitudinal voids of the hollow-core slabs or in joints between the hollow-core slabs and to be secured to them by poured concrete, and at the other, second end are provided with a coupling protrusion projecting transverse from the respective coupling rod, - at least one coupling rail (6a,6b) attached to the web of the girder, which rail extends substantially parallel to the lower flange, and which has a length of at least the width of a hollow-core slab, wherein the rail defines an accommodation space for the coupling protrusions which is at least partially screened off towards the hollow-core slabs in horizontal direction by a coupling wall (10a,10b) and is provided with an opening continuing in longitudinal direction for access of the coupling protrusions to the accommodation space, wherein the opening may have a normal towards the accommodation space that is substantially horizontally oriented, wherein the coupling protrusions in an insertion position thereof can be introduced through the opening into the accommodation space and can then be moved, in particular are rotatable, to a coupling position that is oriented so as to deviate from the insertion position in order to engage behind the coupling wall (10a,10b). - at least one laterally extending lower flange having a support surface for support ends of the hollow-core slabs and - a web extending upwards from the lower flange, - a number of coupling rods which with the one, first end are intended to be accommodated in the respective longitudinal voids of the hollow-core slabs or in joints between the hollow-core slabs and to be secured to them by poured concrete, and at the other, second end are provided with a coupling protrusion projecting transverse from the respective coupling rod, - at least one coupling rail (6a,6b) attached to the web of the girder, which rail extends substantially parallel to the lower flange, and which has a length of at least the width of a hollow-core slab,
A heat transfer label assembly, comprising: a heat transfer label portion including ink and an adhesive, wherein the adhesive comprises a polyketone resin and a polyamide resin; and a releaseable support portion joined to the heat transfer label portion, wherein, at least one of the polyketone resin has a softening temperature of from 90°C to 140°C, the polyamide resin has a softening temperature of from 100°C to 150°C. or the polyamide resin has a softening temperature of from 160°C to 215°C, and the polyamide resin comprises a first polyamide resin and a second polyamide resin. a heat transfer label portion including ink and an adhesive, wherein the adhesive comprises a polyketone resin and a polyamide resin; and a releaseable support portion joined to the heat transfer label portion, wherein, at least one of the polyketone resin has a softening temperature of from 90°C to 140°C, the polyamide resin has a softening temperature of from 100°C to 150°C. or the polyamide resin has a softening temperature of from 160°C to 215°C, and the polyamide resin comprises a first polyamide resin and a second polyamide resin.
Test method for testing a system for automated monitoring of a protection readiness of a fire protection system, wherein the system uses a secured communication link to communicate with a test system for performing the test method, comprising the following steps: receiving at least one test parameter of the system, evaluating, by a processor unit of the test system, the at least one test parameter on the basis of at least one specification for the at least one test parameter, and determining, by the processor unit, on the basis of the evaluating a quality indicator which indicates the quality of the monitoring of the fire protection system by the system; wherein the at least one test parameter comprises a functional readiness indication, and wherein the evaluating comprises determining, on the basis of the functional readiness indication, that the system is configured to transfer the fire protection system from a testing state to an operating state in the event of a fire. receiving at least one test parameter of the system, evaluating, by a processor unit of the test system, the at least one test parameter on the basis of at least one specification for the at least one test parameter, and determining, by the processor unit, on the basis of the evaluating a quality indicator which indicates the quality of the monitoring of the fire protection system by the system; wherein the at least one test parameter comprises a functional readiness indication, and wherein the evaluating comprises determining, on the basis of the functional readiness indication, that the system is configured to transfer the fire protection system from a testing state to an operating state in the event of a fire.
A wireless communication unit comprising: a transceiver suitable to support an air interface with an enterprise network and an air interface with a wireless wide area network, WWAN, characterised by: a memory operable to store information suitable for identifying one or more of a plurality of enterprise controllers, each of the plurality of enterprise controllers for controlling a corresponding one of a plurality of wireless local area networks, WLAN, the plurality of enterprise controllers comprising a home enterprise controller, wherein the home enterprise controller being the enterprise controller in a home one of the plurality of WLANs of the wireless communication unit, and a visited enterprise controller, wherein the visited enterprise controller being the enterprise controller in a visited one of the plurality of WLAN of the wireless communication unit; and a controller cooperatively operable with the transceiver to facilitate the wireless communication unit operating on the visited one of the plurality of WLANs, wherein to operate on the visited one of the plurality of WLANs the controller configured for setting up a call with the visited enterprise controller, notifying a unique enterprise controller with information to facilitate identification of the visited enterprise controller and, using the information to hand over of the call from one to another of the enterprise network and the WWAN. a transceiver suitable to support an air interface with an enterprise network and an air interface with a wireless wide area network, WWAN, characterised by: a memory operable to store information suitable for identifying one or more of a plurality of enterprise controllers, each of the plurality of enterprise controllers for controlling a corresponding one of a plurality of wireless local area networks, WLAN, the plurality of enterprise controllers comprising a home enterprise controller, wherein the home enterprise controller being the enterprise controller in a home one of the plurality of WLANs of the wireless communication unit, and a visited enterprise controller, wherein the visited enterprise controller being the enterprise controller in a visited one of the plurality of WLAN of the wireless communication unit; and a controller cooperatively operable with the transceiver to facilitate the wireless communication unit operating on the visited one of the plurality of WLANs, wherein to operate on the visited one of the plurality of WLANs the controller configured for setting up a call with the visited enterprise controller, notifying a unique enterprise controller with information to facilitate identification of the visited enterprise controller and, using the information to hand over of the call from one to another of the enterprise network and the WWAN.
A sheet-heating element comprising: a base member; and a heater wire disposed on the base member; wherein the base member comprises a non-woven fabric having a calender-processed hardened first surface and a second surface opposite to the first surface (11 b), wherein the first surface has a stronger surface hardness than the second surface (11 a), and characterized in that the heater wire is disposed on the calender-processed hardened first surface (11 b) having a stronger surface hardness than the second surface. a base member; and a heater wire disposed on the base member; wherein the base member comprises a non-woven fabric having a calender-processed hardened first surface and a second surface opposite to the first surface (11 b), wherein the first surface has a stronger surface hardness than the second surface (11 a), and characterized in that the heater wire is disposed on the calender-processed hardened first surface (11 b) having a stronger surface hardness than the second surface.
Double excitation rotary electric machine comprising a stator fitted with stator windings and a rotor comprising a plurality of alternating north poles and south poles which are formed from a plurality of permanent magnets and from a plurality of excitation coils, the said permanent magnets being housed in respective first recesses extending axially and uniformly distributed in a circumferential part of the magnetic mass of the said rotor so as to define a plurality of circumferential pole sections, the said excitation coils being housed in respective second recesses (E2; E4) extending axially and uniformly distributed in an intermediate part of the magnetic mass of the said rotor, the said intermediate part being situated between the said circumferential part and a central part of the said rotor, each said excitation coil being inserted in a respective radial pole tooth that forms a partition between two consecutive said second recesses (E2; E4), characterized in that at least one said circumferential pole section comprises at least one means (E3, ET) for directing a predetermined part (Fs) of a magnetic flux produced by one said corresponding permanent magnet towards the said stator so as to introduce magnetic coupling of predetermined strength between the said rotor and the said stator when a substantially zero excitation current passes through one said excitation coil.