mhurhangee/ep-ind-claims huggingface dataset:
Handover method between base stations, called nodes, identified by an identifier, of an IAB access system to a core network, the access system comprising an interconnection backbone in a tree structure comprising wireless links and a single wired link, the wired link connecting a single one of the base stations of the access system to the core network, this station being called a donor node (D-BS), the interconnections between the base stations of the access system being based solely on wireless links, the tree structure and the identifier of the nodes of this structure defining a topology of the access system, each node knowing the topology, the method comprising: - a base station, called source base station (S-BS), of the access system, to which a terminal is attached, sending a handover request (HO req) to a base station, called target base station (T-BS), of the access system, the request comprising an identifier, respectively, of the source and target base stations and an identifier of the terminal, the source and target base stations being interconnected via at least one base station called a decider node (P3-BS), different from the donor node, said base station comprising a wireless connection interface (X2 IAB) for receiving and transmitting messages transmitted respectively from and to another base station of the access system, the method being characterized in that it comprises the following steps accomplished via said wireless connection interface (X2 IAB): - interception of the handover request (HO req) by the decider node, - the decider node (P3-BS) sending a determined agreement message to the source base station, - sending of a message (HO trigger) for triggering a handover, to the target base station. - a base station, called source base station (S-BS), of the access system, to which a terminal is attached, sending a handover request (HO req) to a base station, called target base station (T-BS), of the access system, the request comprising an identifier, respectively, of the source and target base stations and an identifier of the terminal, the source and target base stations being interconnected via at least one base station called a decider node (P3-BS), different from the donor node, said base station comprising a wireless connection interface (X2 IAB) for receiving and transmitting messages transmitted respectively from and to another base station of the access system, the method being characterized in that it comprises the following steps accomplished via said wireless connection interface (X2 IAB): - interception of the handover request (HO req) by the decider node, - the decider node (P3-BS) sending a determined agreement message to the source base station, - sending of a message (HO trigger) for triggering a handover, to the target base station. - interception of the handover request (HO req) by the decider node, - the decider node (P3-BS) sending a determined agreement message to the source base station, - sending of a message (HO trigger) for triggering a handover, to the target base station.
A method for modifying notification settings on a mobile electronic device comprising a processing unit, a display, a memory, an input device, and at least one notification device, the method comprising, determining a given notification setting which was most recently used to activate the at least one notification device 116); and responsively changing a menu list stored in the memory to include a notification setting change option, such that when the input device is activated, the display is controlled by the processing unit to provide a representation of the menu list such that the notification setting option can be selected and the given notification setting changed.
A filter cartridge (60, 160) comprising a filter wall (63, 163) having a tubular shape and at least a support plate (61, 161) fixed to an end of the filter wall (63, 163), wherein a by-pass conduit (66, 166) is fashioned in the support plate (61, 161), which by-pass conduit (66, 166) is designed to place an internal volume (64, 164) delimited by the filter wall (63, 163) in communication with outside, which by-pass conduit (66, 166) is intercepted by a valve (70, 170) which is associated to the support plate (61, 161) in an out-of-centre position with respect to a longitudinal axis (A, A2) of the filter wall (63, 163), characterised in that the valve (17, 170) comprises an internally-hollow valve body (71,171), which is provided with a hole (72, 172) suitable for setting the bypass conduit (66, 166) in communication with the internal cavity of the valve body (71, 171), an obturator (73, 174) housed in the internal cavity of the valve body (71, 171), and an elastically-acting element (75,180) suitable for pressing the obturator (73, 174) against a valve seating (74, 179) such as to close the hole (72, 172), the valve (70, 170) being housed internally of a seating (67, 167) afforded in the support plate (61, 161), wherein said seating (67, 167) opens on an external surface of the support plate (61, 161) opposite to the filter wall (63, 163).
A sealing structure of a cylinder penetrating wire harness, comprising an in-cylinder wire harness, a cylinder body and an out-of-cylinder wire harness, wherein the sealing structure of the cylinder penetrating wire harness further comprises a cylinder penetrating device in sealed connection with the cylinder body, characterised by a wire connecting sleeve and an inner sealing member, wherein the in-cylinder wire harness and the out-of-cylinder wire harness are separately in conductive connection with the wire connecting sleeve; the wire connecting sleeve is arranged in a positioning inner hole in the inner sealing member and the wire connecting sleeve is in sealed connection with the inner sealing member; the inner sealing member is arranged in a cylinder penetrating device inner hole in the cylinder penetrating device and the inner sealing member is in sealed connection with the cylinder penetrating device. the sealing structure of the cylinder penetrating wire harness further comprises a cylinder penetrating device in sealed connection with the cylinder body, characterised by a wire connecting sleeve and an inner sealing member, wherein the in-cylinder wire harness and the out-of-cylinder wire harness are separately in conductive connection with the wire connecting sleeve; the wire connecting sleeve is arranged in a positioning inner hole in the inner sealing member and the wire connecting sleeve is in sealed connection with the inner sealing member; the inner sealing member is arranged in a cylinder penetrating device inner hole in the cylinder penetrating device and the inner sealing member is in sealed connection with the cylinder penetrating device.
A regulating flap device for a turbocharger unit, with a regulating flap, a regulating flap housing, which comprises at least one gas inlet opening and at least one gas outlet opening (14, 15), wherein the regulating flap is provided for adjusting a gas stream flowing through the regulating flap device (1, 100), in particular an exhaust gas stream, to at least one of the gas outlet openings (14, 15) and the at least one gas outlet opening (14, 15) can be fluidically connected to at least one turbocharger inlet (35, 36) provided in a turbocharger housing of the turbocharger unit, characterized in that the regulating flap device (1, 100) comprises ducts (20A, 20B, 20C) for a cooling circuit, in particular a water cooling circuit, wherein at least one duct (20, 20A) of the cooling circuit is located in a region of the regulating flap device (1, 100), in particular of the regulating flap housing that is adjacent to a regulating flap shaft.
Electromagnetic flowmeter with a measuring tube through which medium flows, during operation, in the direction of the longitudinal axis of the measuring tube, and with a magnet system, which is designed in such a way that it generates a magnetic field that passes through the measuring tube and is essentially perpendicular to the longitudinal axis of the measuring tube, with at least one measuring electrode coupled with the medium, said electrode being arranged in an area, which is essentially perpendicular to the magnetic field, in a bore in the wall of the measuring tube, wherein the magnet system has two coils with coil axes, and wherein the coil axes and the measuring electrode are located on a common plane, characterized in that the measuring tube and the magnet system are anchored on a planar printed circuit board, wherein the common plane of the coil axes and the measuring electrode is the plane of the planar printed circuit board.
A power transfer assembly comprising an electrical machine capable of providing torque output, and a powered axle assembly, the powered axle assembly including a clutch assembly having a first one-way clutch configured to receive torque input from the electrical machine and a second one-way clutch configured to receive torque input from the electrical machine, wherein the first one-way clutch is further configured to transmit at least a first portion of the received torque input to a first half-axle, and wherein the second one-way clutch is further configured to transmit at least a second portion of the received torque input to a second half-axle, characterized in that a planetary gear reduction (46, 48, 50, 52) is interposed between the electrical machine and the clutch assembly having a hollow sun shaft rotationally fixed to an output of the electrical machine through which the first half-axle runs.
Slurry treatment plant associated with a tunnel boring machine having a pressurised cutting face, comprising at least a first means for regenerating the slurry coming from the cutting face of the tunnel boring machine, a second means for preparing new slurry known as mother slurry, a third means for preparing a mixture of slurries to be used in the cutting face, known as muck removal slurry, from the slurries (B0, B1) coming from the first means and second means, a fourth means for supplying the cutting face with muck removal slurry, a fifth means for collecting and removing the unused and non-regenerable slurry, a sixth means interposed between the first means and third means and able to direct towards the fifth means a portion of the slurry (B0, B1) coming from the third means, characterised in that the sixth means is able to direct to the fifth means, in a controllable manner, only a portion of the regenerated slurry coming from the first means.
A thiol-functional organic compound having on average at least 3.1 thiol groups per molecule, and having carbon atoms, oxygen atoms, and sulfur atoms, and optionally further heteroatoms, and wherein the ratio of the number of carbon atoms to the sum of the number of heteroatoms, (C/HA) is at least 2.0, and wherein the thiol groups are derived from 2-mercapto acetic acid, 2-mercapto propionic acid, or 3-mercapto propionic acid, or esters thereof, wherein the compound is obtainable by reaction of a part of the thiol groups of a thiol-functional precursor compound with an epoxide-functional or acryloyl-functional compound, wherein the thiol-functional precursor is an ester of a polyol with a mercapto carboxylic acid selected from 2-mercapto acetic acid, 2-mercapto propionic acid or 3-mercapto propionic acid.
A display device (10, 11, 12) comprising: a display panel including a folding area and a metal plate (400, 401, 402, 403, 404, 405, 406) disposed at the rear of the display panel, the metal plate (400, 401, 402, 403, 404, 405, 406) including: a first plate (410, 411, 412) and a second plate (440, 441, 442) which are spaced apart from and face each other; at least one spacer (420, 421, 422, 423, 424, 425, 426) disposed between the first plate (410, 411, 412) and the second plate (440, 441, 442); and a space (450, 451, 452, 453, 454, 455, 456) between the first plate (410, 411, 412) and the second plate (440, 441, 442), the space (450, 451, 452, 453, 454, 455, 456) excluding the at least one spacer (420, 421, 422, 423, 424, 425, 426), the space (450, 451, 452, 453, 454, 455, 456) being occupied by air; wherein the display panel includes a touch member; and a stack structure disposed at the front of the display panel, the stack structure comprising a cover window. a display panel including a folding area and a metal plate (400, 401, 402, 403, 404, 405, 406) disposed at the rear of the display panel, the metal plate (400, 401, 402, 403, 404, 405, 406) including: a first plate (410, 411, 412) and a second plate (440, 441, 442) which are spaced apart from and face each other; at least one spacer (420, 421, 422, 423, 424, 425, 426) disposed between the first plate (410, 411, 412) and the second plate (440, 441, 442); and a space (450, 451, 452, 453, 454, 455, 456) between the first plate (410, 411, 412) and the second plate (440, 441, 442), the space (450, 451, 452, 453, 454, 455, 456) excluding the at least one spacer (420, 421, 422, 423, 424, 425, 426), the space (450, 451, 452, 453, 454, 455, 456) being occupied by air; a first plate (410, 411, 412) and a second plate (440, 441, 442) which are spaced apart from and face each other; at least one spacer (420, 421, 422, 423, 424, 425, 426) disposed between the first plate (410, 411, 412) and the second plate (440, 441, 442); and a space (450, 451, 452, 453, 454, 455, 456) between the first plate (410, 411, 412) and the second plate (440, 441, 442), the space (450, 451, 452, 453, 454, 455, 456) excluding the at least one spacer (420, 421, 422, 423, 424, 425, 426), the space (450, 451, 452, 453, 454, 455, 456) being occupied by air; wherein the display panel includes a touch member; and a stack structure disposed at the front of the display panel, the stack structure comprising a cover window.
A method for sending physical hybrid ARQ indicator channel, PHICH, signals in a downlink pilot time slot, comprising: the PHICH signals being sent in one or more symbols included in the Downlink Pilot Time Slot, DwPTS, by a base station; and the symbol used for transmitting the PHICH signals differing from the symbols used for sending primary-synchronization channel, P-SCH, signals and secondary-synchronization channel, S-SCH, signals; wherein the Physical Hybrid ARQ Indicator Channel signals are sent in a long term evolution, LTE, system which is in time division duplex mode; and in a frame structure of the system, a 10ms radio frame is divided into two half-frames; each half-frame is divided into 10 time slots equally of a length of 0.5ms; every two time slots constitute a subframe of a length of 1ms; a radio frame contains 10 subframes, which are numbered from 0 to 9; a radio frame contains 20 time slots, which are numbered from 0 to 19; and the DwPTS is located in subframe 1 and subframe 6, characterized in that the number of the symbols for transmitting the PHICH signals is 1 or 2, and wherein it is indicated by a signaling that there is 1 or 2 symbols used for transmitting the PHICH signals in the DwPTS, wherein the P-SCH signals are sent in the third symbol included in the DwPTS; if there is 1 symbol used for transmitting the PHICH signals, the PHICH signals are sent in the first symbol included in the DwPTS, and if there are 2 symbols used for transmitting the PHICH signals, the PHICH signals are sent in the first symbol and the second symbol included in the DwPTS
An atomization assembly comprising: a shell, defining a liquid storage cavity and a receiving cavity, wherein the liquid storage cavity is defined to receive an aerosol-generating substrate; an atomization base, received in the receiving cavity, characterized in that an outer surface of an end of the atomization base near the liquid storage cavity defines an air-exchanging groove, an end of the air-exchanging groove is communicated with the liquid storage cavity; an outer surface of an end of the atomization base away from the liquid storage cavity defines a liquid storage groove; an outer surface of a middle portion of the atomization base defines a liquid guiding groove; an end of the liquid guiding groove is communicated with the other end of the air-exchanging groove, the other end of the liquid guiding groove is communicated with the liquid storage groove; a width of the end of the liquid guiding groove near the air-exchanging groove is less than a width of the end of the liquid guiding groove near the liquid storage groove; and/or a depth of the end of the liquid guiding groove near the air-exchanging groove is less than a depth of the end of the liquid guiding groove near the liquid storage groove. a shell, defining a liquid storage cavity and a receiving cavity, wherein the liquid storage cavity is defined to receive an aerosol-generating substrate; an atomization base, received in the receiving cavity, characterized in that an outer surface of an end of the atomization base near the liquid storage cavity defines an air-exchanging groove, an end of the air-exchanging groove is communicated with the liquid storage cavity; an outer surface of an end of the atomization base away from the liquid storage cavity defines a liquid storage groove; an outer surface of a middle portion of the atomization base defines a liquid guiding groove; an end of the liquid guiding groove is communicated with the other end of the air-exchanging groove, the other end of the liquid guiding groove is communicated with the liquid storage groove; a width of the end of the liquid guiding groove near the air-exchanging groove is less than a width of the end of the liquid guiding groove near the liquid storage groove; and/or a depth of the end of the liquid guiding groove near the air-exchanging groove is less than a depth of the end of the liquid guiding groove near the liquid storage groove.
A receiver front-end circuit, comprising: an equalizer; a first amplifier stage of one or more amplifier stages coupled in series with one another, the first amplifier stage coupled to an output of the equalizer and configured to produce a first capacitance (206, 402) at the output of the equalizer, wherein the first capacitance is configured to compensate for an output load capacitance of the equalizer, wherein the first amplifier stage comprises: a first amplifier, and a first capacitor coupled, in a positive feedback, across the first amplifier, and wherein a gain of the first amplifier and a capacitance of the first capacitor are configured such that the produced first capacitance is negative; and a capacitively-degenerated cross-coupled differential pair circuit, coupled to an output of a last amplifier stage of the one or more amplifier stages and configured to produce a negative capacitance at the output of the last amplifier stage, wherein the produced negative capacitance is configured to compensate for an output load capacitance of the last amplifier stage, wherein the capacitively-degenerated cross-coupled differential pair circuit comprises: a cross-coupled MOS differential pair coupled to the output of the last amplifier stage, two current sources, each current source coupled between each cross-coupled MOS of the differential pair and ground, and a degenerating capacitor coupled between the two current sources. an equalizer; a first amplifier stage of one or more amplifier stages coupled in series with one another, the first amplifier stage coupled to an output of the equalizer and configured to produce a first capacitance (206, 402) at the output of the equalizer, wherein the first capacitance is configured to compensate for an output load capacitance of the equalizer, wherein the first amplifier stage comprises: a first amplifier, and a first capacitor coupled, in a positive feedback, across the first amplifier, and wherein a first amplifier, and a first capacitor coupled, in a positive feedback, across the first amplifier, and wherein a gain of the first amplifier and a capacitance of the first capacitor are configured such that the produced first capacitance is negative; and a capacitively-degenerated cross-coupled differential pair circuit, coupled to an output of a last amplifier stage of the one or more amplifier stages and configured to produce a negative capacitance at the output of the last amplifier stage, wherein the produced negative capacitance is configured to compensate for an output load capacitance of the last amplifier stage, wherein the capacitively-degenerated cross-coupled differential pair circuit comprises: a cross-coupled MOS differential pair coupled to the output of the last amplifier stage, two current sources, each current source coupled between each cross-coupled MOS of the differential pair and ground, and a cross-coupled MOS differential pair coupled to the output of the last amplifier stage, two current sources, each current source coupled between each cross-coupled MOS of the differential pair and ground, and a degenerating capacitor coupled between the two current sources.
A power generating device comprising a guide case (3A, 3B, 4A, 4B) with an upper guide case and a lower guide case being sandwiched by two guide case covers (4A, 4B) and a power generating unit movable inside the guide case (3A, 3B, 4A, 4B), the guide case (3A, 3B, 4A, 4B) comprising a rack, the power generating unit comprising a case (6, 7, 8) and a power generating motor inside the case (6, 7, 8), the power generating device supplying power from the power generating motor by rotation of a gear provided on a motor input shaft of the power generating motor, characterised in that the case (6, 7, 8) is accommodated in a translatory movable manner inside the guide case (3A, 3B, 4A, 4B), the case (6, 7, 8) being fit into rails provided on inner walls of the upper guide case and the lower guide case, the power generating unit further comprising a case side input shaft being projected from the case (6, 7, 8) and meshing with the rack, the case side input shaft and the motor input shaft being formed as separate bodies and being arranged orthogonal to each other, a spring being extendably supported between each end of the power generating unit and each of the guide case covers (4A, 4B).
A recombinant microorganism in which activity of FAD-dependent D-lactate dehydrogenase (did) inherent in the recombinant microorganism is inactivated or decreased, activity of pyruvate formate-lyase (pfl) is inactivated or decreased, andactivity of Escherichia coli-derived NADH-dependent D-lactate dehydrogenase (ldhA) is enhanced.
An antibody binding to the amino acid sequence of SEQ ID NO: 2 and mediating inhibition of proliferation of cells, wherein said cells express a protein comprising the amino acid sequence of SEQ ID NO: 2 and/or are characterized by association of a protein comprising the amino acid sequence of SEQ ID NO: 2 with their cell surface.
A steering apparatus, comprising: a steering collar for coupling to an aircraft landing gear strut cylinder and including a sidewall and a portal through the sidewall; a first linear actuator; a first drive gear; a crankshaft; and a sun gear, wherein the sun gear is disposed within the steering collar, wherein the first drive gear is fixed to the crankshaft and coupled to the sun gear via the portal such that the steering collar rotates about the sun gear in response to rotation of the crankshaft, wherein the first linear actuator is coupled between the crankshaft and the steering collar. a steering collar for coupling to an aircraft landing gear strut cylinder and including a sidewall and a portal through the sidewall; a first linear actuator; a first drive gear; a crankshaft; and a sun gear, wherein the sun gear is disposed within the steering collar, wherein the first drive gear is fixed to the crankshaft and coupled to the sun gear via the portal such that the steering collar rotates about the sun gear in response to rotation of the crankshaft, wherein the first linear actuator is coupled between the crankshaft and the steering collar.