mhurhangee/ep-ind-claims huggingface dataset:
A charging system (10, 100) for an aerosol-generating device comprising: a body at least partially defining a receiving volume, wherein the receiving volume tapers along a longitudinal axis from an open top end portion to a bottom end portion, wherein the receiving volume is sized to receive an elongate aerosol-generating device through the open top end in a plurality of orientations, wherein the body is configured to cause the elongate aerosol-generating device to rest at a predefined tilt relative to the longitudinal axis; and a charging interface (40, 140) coupled to the body comprising a first biasing element (50, 150) and a first electrical contact, wherein the first biasing element (50, 150) is configured to apply a force on a second biasing element (52, 152) of the aerosol-generating device that causes a second electrical contact of the aerosol-generating device to electrically engage the first electrical contact when the aerosol-generating device rests on the body at the predefined tilt. a body at least partially defining a receiving volume, wherein the receiving volume tapers along a longitudinal axis from an open top end portion to a bottom end portion, wherein the receiving volume is sized to receive an elongate aerosol-generating device through the open top end in a plurality of orientations, wherein the body is configured to cause the elongate aerosol-generating device to rest at a predefined tilt relative to the longitudinal axis; and a charging interface (40, 140) coupled to the body comprising a first biasing element (50, 150) and a first electrical contact, wherein the first biasing element (50, 150) is configured to apply a force on a second biasing element (52, 152) of the aerosol-generating device that causes a second electrical contact of the aerosol-generating device to electrically engage the first electrical contact when the aerosol-generating device rests on the body at the predefined tilt.
An apparatus for curving an elongated medical device, the apparatus comprising: a forming unit, having an external surface, positioned adjacent a path along which the elongated medical device is advanced, the forming unit having a support and a heat source; a bending tool, having an external surface, configured to move with respect to the forming unit and to apply a bending force to the elongated medical device such that a distal portion of the elongated medical device is imparted with a permanent curve greater than that on a proximal portion of the elongated medical device; characterised in that a barrier positioned to prevent the elongated medical device from contacting the external surface of the forming unit and the external surface of the bending tool, the barrier being configured to permit movement of the bending tool with respect to the forming unit while maintaining sterility of the elongated medical device. a forming unit, having an external surface, positioned adjacent a path along which the elongated medical device is advanced, the forming unit having a support and a heat source; a bending tool, having an external surface, configured to move with respect to the forming unit and to apply a bending force to the elongated medical device such that a distal portion of the elongated medical device is imparted with a permanent curve greater than that on a proximal portion of the elongated medical device; characterised in that a barrier positioned to prevent the elongated medical device from contacting the external surface of the forming unit and the external surface of the bending tool, the barrier being configured to permit movement of the bending tool with respect to the forming unit while maintaining sterility of the elongated medical device.
An uninterruptible power supplying method, comprising: switching an uninterruptible power supply to a bypass working mode from a main loop working mode, so as to provide mains power for a load through a bypass; mains power quality is first checked, and then the uninterruptible power supply is switched to run in the bypass according to a check result; when the mains power quality is good, a control module switches the uninterruptible power supply to the bypass from a main loop; when the mains power quality is not good, that is, when the mains power quality decreases to a certain degree, the control module switches the uninterruptible power supply to the main loop from the bypass, so that an inverter of the uninterruptible power supply provides power for the load; determining the working mode of the uninterruptible power supply; and characterised in that when the uninterruptible power supply is in the bypass working mode, adjusting a working frequency of at least one switch tube in a main loop of the uninterruptible power supply to a second frequency from a first frequency, wherein the second frequency is less than the first frequency. switching an uninterruptible power supply to a bypass working mode from a main loop working mode, so as to provide mains power for a load through a bypass; mains power quality is first checked, and then the uninterruptible power supply is switched to run in the bypass according to a check result; when the mains power quality is good, a control module switches the uninterruptible power supply to the bypass from a main loop; when the mains power quality is not good, that is, when the mains power quality decreases to a certain degree, the control module switches the uninterruptible power supply to the main loop from the bypass, so that an inverter of the uninterruptible power supply provides power for the load; determining the working mode of the uninterruptible power supply; and characterised in that when the uninterruptible power supply is in the bypass working mode, adjusting a working frequency of at least one switch tube in a main loop of the uninterruptible power supply to a second frequency from a first frequency, wherein the second frequency is less than the first frequency.
A method for communicating between browser frames (103, 102), wherein said browser frames are part of one frameset element served by a first domain server, and wherein at least one of said browser frames is served by a second domain server different from the first domain server, said method comprising: generating a notification of a change of state of a first browser frame directly served by said first domain server, said notification comprising a URL call to an address on said second domain server; transmitting, using said frameset element, said notification to said second domain server, wherein said frameset element is transmitting on behalf of said second browser frame directly served by said second domain server in order to cause a change of state of said second browser frame; interpreting said notification on said second domain server; and causing a change of state of said second browser frame in accordance with said interpretation of said notification on said second domain server by pulling data from said second domain server into said second browser frame. generating a notification of a change of state of a first browser frame directly served by said first domain server, said notification comprising a URL call to an address on said second domain server; transmitting, using said frameset element, said notification to said second domain server, wherein said frameset element is transmitting on behalf of said second browser frame directly served by said second domain server in order to cause a change of state of said second browser frame; interpreting said notification on said second domain server; and causing a change of state of said second browser frame in accordance with said interpretation of said notification on said second domain server by pulling data from said second domain server into said second browser frame.
A method, performed by, a wireless device, comprising: receiving, from a base station, access network information; determining, based on the access network information, an access network type, said access network type comprising: a terrestrian network, TN, access network type; or a non- terrestrian network, NTN, access network type; selecting, based on the access network type, a non-access stratum, NAS, period value from between: a first NAS period value associated with the TN, access network type; and a second NAS period value associated with the NTN access network type; sending, to an access and mobility management function, AMF, a first NAS request message; and starting, based on the sending the first NAS request message, a NAS period using the NAS period value. receiving, from a base station, access network information; determining, based on the access network information, an access network type, said access network type comprising: a terrestrian network, TN, access network type; or a non- terrestrian network, NTN, access network type; selecting, based on the access network type, a non-access stratum, NAS, period value from between: a first NAS period value associated with the TN, access network type; and a second NAS period value associated with the NTN access network type; sending, to an access and mobility management function, AMF, a first NAS request message; and starting, based on the sending the first NAS request message, a NAS period using the NAS period value. a terrestrian network, TN, access network type; or a non- terrestrian network, NTN, access network type; selecting, based on the access network type, a non-access stratum, NAS, period value from between: a first NAS period value associated with the TN, access network type; and a second NAS period value associated with the NTN access network type; a first NAS period value associated with the TN, access network type; and a second NAS period value associated with the NTN access network type; sending, to an access and mobility management function, AMF, a first NAS request message; and starting, based on the sending the first NAS request message, a NAS period using the NAS period value.
A nuclear reactor fuel assembly comprising a bundle of 126 fuel elements arranged in a regular triangular positioning grid in spacer grids connected to a centre tube, a hexagonal casing connected to a head and a tail, wherein casing has, at the centre of each of its faces, a longitudinal through slot which runs the entire length of the casing and has a width of [0.6... 1.0]·t at the level of the bundle, where t is the distance between the symmetry axes of the adjacent fuel elements; in the spaces between the spacer grids, flanges are provided along the edges of said slots, which extend inside the fuel element bundle to a depth of [0.3... 0.5] ·d, where d is the outside diameter of the cladding of the fuel element; and corner parts of the casing are connected by spot welding to a cladding ring, connected to the head via a dismountable joint, the spacer grids and the centre tube + to form a heavy-duty frame, wherein the centre tube is rigidly connected to centre sleeves of the spacer grids by spot welding.
A cooking utensil, comprising - a body comprising an inner pot, - a baking seat which generates hot air, - a cover comprising a hot air duct extending from the baking seat to the inner pot, and - a baking assembly detachably provided in the inner pot and comprising a baking pot for receiving food and a support assembly connected with the baking pot, characterized in that, the support assembly comprises a sealing component and prevents the hot air from flowing into a space located below the baking pot through a gap between an outer side of the baking pot and an inner side of the inner pot. - a body comprising an inner pot, - a baking seat which generates hot air, - a cover comprising a hot air duct extending from the baking seat to the inner pot, and - a baking assembly detachably provided in the inner pot and comprising a baking pot for receiving food and a support assembly connected with the baking pot,
A biometric recognition system (10, 110) for a vehicle, the biometric recognition system (10, 110) comprising: a vein reader sensor (28, 128), wherein the vein reader sensor (28, 128) is configured for biometric verification of an operator's hand; and a control member configured to control a function of the vehicle, the control member defining an opening, wherein the opening is aligned with the vein reader sensor (28, 128); and a support portion, wherein the vein reader sensor is disposed on the support portion; and wherein the control member has a top surface and a bottom surface and defines the opening extending through the control member from the top surface to the bottom surface, the control member is moveable relative to the support portion to a first position, wherein the top surface is at a first distance from the vein reader sensor when the control member is in the first position. a vein reader sensor (28, 128), wherein the vein reader sensor (28, 128) is configured for biometric verification of an operator's hand; and a control member configured to control a function of the vehicle, the control member defining an opening, wherein the opening is aligned with the vein reader sensor (28, 128); and a support portion, wherein the vein reader sensor is disposed on the support portion; and wherein the control member has a top surface and a bottom surface and defines the opening extending through the control member from the top surface to the bottom surface, the control member is moveable relative to the support portion to a first position, wherein the top surface is at a first distance from the vein reader sensor when the control member is in the first position.
Temperature sensor for a vehicle engine, comprising: - at least one thermocouple comprising two different metal wires linked together at a first end forming a hot junction for measuring a temperature T1 in the engine, said two metal wires each comprising a second end forming a cold junction, - a protective casing comprising a connector in which the second ends of the two metal wires of the thermocouple are connected to two first ends of two metal lugs via two connection zones, the two metal lugs comprising a second end linked electrically to a printed circuit comprising an integrated circuit, said printed circuit being housed in the protective casing, characterized in that: - each connection zone is surrounded by a sealing element, - the connector comprises a support in which are housed the connection zones surrounded by the sealing elements, said support comprising a first end that is passed through by the metal wires of the thermocouple and an opposite second end that is passed through by the metal lugs, - said protective casing being overmoulded around the support. - at least one thermocouple comprising two different metal wires linked together at a first end forming a hot junction for measuring a temperature T1 in the engine, said two metal wires each comprising a second end forming a cold junction, - a protective casing comprising a connector in which the second ends of the two metal wires of the thermocouple are connected to two first ends of two metal lugs via two connection zones, the two metal lugs comprising a second end linked electrically to a printed circuit comprising an integrated circuit, said printed circuit being housed in the protective casing, - each connection zone is surrounded by a sealing element, - the connector comprises a support in which are housed the connection zones surrounded by the sealing elements, said support comprising a first end that is passed through by the metal wires of the thermocouple and an opposite second end that is passed through by the metal lugs, - said protective casing being overmoulded around the support.
An actuating drive for moving a movable furniture part, including: - at least one movably-mounted actuating member for moving the movable furniture part, - a spring device for applying a force to the actuating member, - an adjusting device by which a force of the spring device acting on the actuating member can be adjusted, - wherein the adjusting device includes an adjusting screw with a thread portion, wherein the force of the spring device acting on the actuating member can be adjusted by a screw nut displaceably arranged along the thread portion, characterized in that a spring element separate from the spring device is provided by which the screw nut, on at least one end region of the adjusting screw, can be acted upon by a force in a direction facing away from that end portion, and that on at least one end portion of the adjusting screw, an abutment surface is arranged on which the spring element can be supported. - at least one movably-mounted actuating member for moving the movable furniture part, - a spring device for applying a force to the actuating member, - an adjusting device by which a force of the spring device acting on the actuating member can be adjusted, - wherein the adjusting device includes an adjusting screw with a thread portion, wherein the force of the spring device acting on the actuating member can be adjusted by a screw nut displaceably arranged along the thread portion,
A dual-homing optical network unit, DHONU, arrangement for protecting a first and a second optical network systems, the DHONU arrangement comprises a first and a second optical line termination, OLT, transceiver modules (32a, 32b) adapted to be connected to the first optical network system comprising a first OLT and the second optical network system comprising a second OLT, respectively, wherein the OLT transceiver modules (32a, 32b) are connected to a first and a second optical network unit media access controller, ONU MAC, modules, (33a, 33b) respectively, a first and a second ONU transceiver modules (31a, 31b) adapted to be connected to the first and the second OLT (21a, 21b), respectively, wherein the ONU transceiver modules (31a, 31b) are connected to the first and the second ONU MAC modules (33a, 33b), respectively, the first OLT transceiver module is connected to the second ONU transceiver module and the second ONU MAC module, the second OLT transceiver module is connected to the first ONU transceiver module and the first ONU MAC module; and the first ONU MAC module is connected to the second ONU MAC module, the DHONU arrangement providing bidirectional paths of communication between the first OLT and the second OLT, wherein the bidirectional paths of communication are arranged to relay data between the first optical network system and the second optical network system; and the DHONU arrangement is configured to switching over functionality from the first OLT to the second OLT when a communication failure occurs in the first OLT, such that at least a part of the functionality of the first OLT is switched-over to the second OLT via the DHONU arrangement.
A device for wireless power transfer from a power transmitter to a power receiver using an electromagnetic power transfer signal, the device being one of the power transmitter and the power receiver, the device comprising: a power transfer coil (103, 107) for receiving or generating the power transfer signal; a communication antenna (207, 307) for communicating with a complementary device being the other device of the power receiver and the power transmitter via a communication signal, the communication antenna (207, 307) overlapping the power transfer coil (103, 107); a magnetic shielding element (503, 505) positioned between the power transfer coil (103, 107) and the communication antenna (207, 307); a controller (201, 301) for controlling the device to perform power transfer during power transfer intervals and communication during communication time intervals; wherein the power transfer coil (103, 107) and the communication antenna (207, 307) are arranged such that the communication antenna (207, 307) is positioned between the power transfer coil (103, 107) and a power transfer coil of the complementary device during power transfer operation, characterized in that the magnetic shielding element (503, 505) comprises a magnetic shield material having a saturation point such that it operates in a saturated mode during power transfer intervals and in a non-saturated mode during communication time intervals; the saturation point corresponds to a magnetic field strength higher than generated by the communication signal during the communication time intervals and lower than generated by the power transfer signal during the power transfer time intervals. a power transfer coil (103, 107) for receiving or generating the power transfer signal; a communication antenna (207, 307) for communicating with a complementary device being the other device of the power receiver and the power transmitter via a communication signal, the communication antenna (207, 307) overlapping the power transfer coil (103, 107); a magnetic shielding element (503, 505) positioned between the power transfer coil (103, 107) and the communication antenna (207, 307); a controller (201, 301) for controlling the device to perform power transfer during power transfer intervals and communication during communication time intervals; wherein the power transfer coil (103, 107) and the communication antenna (207, 307) are arranged such that the communication antenna (207, 307) is positioned between the power transfer coil (103, 107) and a power transfer coil of the complementary device during power transfer operation, the magnetic shielding element (503, 505) comprises a magnetic shield material having a saturation point such that it operates in a saturated mode during power transfer intervals and in a non-saturated mode during communication time intervals; the saturation point corresponds to a magnetic field strength higher than generated by the communication signal during the communication time intervals and lower than generated by the power transfer signal during the power transfer time intervals.