mhurhangee/ep-ind-claims huggingface dataset:
A method for allocating, by a base station, a downlink control channel in a wireless communication system, the method comprising: allocating two or four control channel elements, CCEs, in a physical resource block, PRB, pair, wherein each CCE includes a plurality of resource elements, REs, mapping an enhanced physical downlink control channel, ePDCCH, to the at least one CCE, among the two or four CCEs, according to an aggregation level of the ePDCCH, except at least resource elements used for a physical downlink control channel, PDCCH, resource elements used for a cell-specific reference signal, CRS, resource elements used for a demodulation reference signal, DMRS, for the ePDCCH, and resource elements used for a channel state information reference signal, CSI-RS; and transmitting a downlink control signal through the e-PDCCH to a user equipment, UE. allocating two or four control channel elements, CCEs, in a physical resource block, PRB, pair, wherein each CCE includes a plurality of resource elements, REs, mapping an enhanced physical downlink control channel, ePDCCH, to the at least one CCE, among the two or four CCEs, according to an aggregation level of the ePDCCH, except at least resource elements used for a physical downlink control channel, PDCCH, resource elements used for a cell-specific reference signal, CRS, resource elements used for a demodulation reference signal, DMRS, for the ePDCCH, and resource elements used for a channel state information reference signal, CSI-RS; and transmitting a downlink control signal through the e-PDCCH to a user equipment, UE.
A component including a structural supercapacitor, the structural supercapacitor comprising a first electrode structure, a second electrode structure and a separator structure, said separator structure is formed from a composite material comprising a glass fibre ply in a cured electrically insulating binder matrix, said separator structure separates the first electrode from the second electrode, said separator structure comprises interstices caused by partially bonding said separator structure to the first electrode and second electrode structure, said interstices comprises a liquid electrolyte, wherein the first electrode and the second electrode are each formed from at least one ply of conductive composite material which includes electrically conductive fibres (12a, 14a) in the cured electrically insulating binder matrix (12b, 14b) and wherein the supercapacitor is structurally inseparable from the rest of the component.
System for detecting and locating an insulation flaw in a solar generator on a spacecraft, the solar generator comprising a plurality of flaps (22a-22e), each flap bearing at least one solar cell that is connected to an electrical distribution network and electrically insulated from said flap, the system comprising said solar generator, characterized in that each flap is connected, by a first load and by a second load, to a first electrical line and a second electrical line, respectively, and in that, the ratio of the impedances of the first load and of the second load of a flap (22a-22e) being denoted by "impedance ratio" of said flap, the solar generator comprises at least two flaps (22a-22e) exhibiting different respective impedance ratios, said system furthermore comprising: - means for evaluating currents flowing in the first electrical line and the second electrical line, respectively, - means for detecting and locating an insulation flaw in the solar generator on the basis of the evaluations of the currents flowing in the first electrical line and the second electrical line, respectively. - means for evaluating currents flowing in the first electrical line and the second electrical line, respectively, - means for detecting and locating an insulation flaw in the solar generator on the basis of the evaluations of the currents flowing in the first electrical line and the second electrical line, respectively.
An air-conditioner, comprising a housing defining an internal duct, a blower, a heat exchanger and an air supply apparatus arranged in the housing from bottom to top in the internal air duct, wherein the air supply apparatus comprises a non-heat-exchanged air inlet and a mixed air outlet of the air-conditioner and a through-duct that runs through the air supply apparatus from the non-heat-exchanged air inlet to the mixed air outlet, wherein the blower is capable of driving air from the internal air duct to the mixed air outlet through the air supply apparatus, characterized in that, the air supply apparatus comprises at least three annular air guiding bodies (11, 12, 13) being each a single component, and sequentially arranged from the non-heat-exchanged air inlet to the mixed air outlet, the annular air guiding bodies being hollow with the through-duct running there through and further the annular air guiding bodies having front and rear openings, wherein the rear openings of the annular air guiding bodies are air inlets (112, 122, 132) and the front openings are air outlets (111, 121, 131) and the air inlet of a rear-end annular air guiding body located at the rear end is the non-heat-exchanged air inlet of the air supply apparatus, and the air outlet of a front-end annular air guiding body located at the front end is the mixed air outlet of the air supply apparatus and wherein further, annular heat-exchanged air ducts (14, 15) are formed respectively between two adjacent annular air guiding bodies (11/13, 13/12) and a radial section of each of the annular air guiding bodies is a curved surface.
Conveying device (100, 100') for the clock-integration of transport units (1, 1.1-1.4, 1.1'-1.9'), comprising a plurality of transport units, an indexing conveyor (2, 2') for the clocked conveyance of the transport units, the indexing conveyor comprising a plurality of carriers (21, 21.1, 21a-b), which are respectively detachably connectable to a transport unit, at least one conveyor section (3, 3.1, 3.2), and a diverter, via which the conveyor section is connected at a clock-integration point to the indexing conveyor and which is configured to clock-integrate the transport units at the clock-integration point into the indexing conveyor, characterized in that at the conveyor section (3, 3.1, 3.2) is arranged a first detection device (6.1), which is configured to respectively detect the extension (T, T2-T4, T2'-T4') of a transport unit (1, 1.1-1.4, 1.1'-1.9'), and the conveying device (100, 100') has a control system (10, 10'), which is connected to the first detection device and to the diverter and is configured to divide the indexing conveyor (2, 2') along the direction of conveyance into logical segments (LS, LS1-LS4, LS1'-LS4') having respectively at least one assigned extension region and to compare the respective detected extension of a transport unit at the clock-integration point with the at least one extension region of a logical segment at the clock-integration point, wherein the diverter is configured to clock-integrate a transport unit into the indexing conveyor when the detected extension of the transport unit at the clock-integration point lies in the at least one extension region of the logical segment at the clock-integration point.
Three-dimensional printing ink comprising (a) a phthalonitrile oligomer comprising one or more repeat units represented by the following Chemical Formula 1 and (b) a curing agent. in the Chemical Formula 1, R a and R b are each independently, hydrogen, a C 1-5 alkyl group, a C 1-3 hydroxyalkyl group, or a group represented by L is a direct bond or a C 1-5 alkylene group unsubstituted or substituted with a C 1-5 alkyl group, Z a and Z b are each independently, hydrogen or a group of and at least one of Z a and Z b included the repeat unit represented by the Chemical Formula 1 is a group of p is 1 to 10, q is 0 or 1, and n is a degree of polymerization of the repeat unit represented by the Chemical Formula 1. in the Chemical Formula 1, R a and R b are each independently, hydrogen, a C 1-5 alkyl group, a C 1-3 hydroxyalkyl group, or a group represented by L is a direct bond or a C 1-5 alkylene group unsubstituted or substituted with a C 1-5 alkyl group, Z a and Z b are each independently, hydrogen or a group of and at least one of Z a and Z b included the repeat unit represented by the Chemical Formula 1 is a group of p is 1 to 10, q is 0 or 1, and n is a degree of polymerization of the repeat unit represented by the Chemical Formula 1.
A method for performing radio resource management in a wireless communication system, wherein the wireless communication system is adapted to use directive beams for serving at least one user device, wherein the method comprises: - obtaining image information from at least one image sensor monitoring at least part of a radio coverage area of at least one network node of the wireless communication system; - processing the obtained image information to predict a change in radio propagation characteristics between a network node of the wireless communication system and a user device; characterized in that the step of processing the obtained image information to predict a change in radio propagation characteristics between the network node and a user device comprises: estimating (S2-1) relative movement between the user device and at least one obstacle in the radio coverage area and/or relative movement between the user device and the network node and predicting (S2-2) the change in radio propagation characteristics based on the estimated relative movement; and the method further comprises: - controlling (S3-A) a mobility reference signal for at least one directive beam in the wireless communication system and/or configuring (S3-B) the user device to perform measurements of the mobility reference signal and/or configuring (S3-C) reporting and/or processing of measurement results from measurements of the mobility reference signal, based on the predicted change in radio propagation characteristics. - obtaining image information from at least one image sensor monitoring at least part of a radio coverage area of at least one network node of the wireless communication system; - processing the obtained image information to predict a change in radio propagation characteristics between a network node of the wireless communication system and a user device; estimating (S2-1) relative movement between the user device and at least one obstacle in the radio coverage area and/or relative movement between the user device and the network node and predicting (S2-2) the change in radio propagation characteristics based on the estimated relative movement; and the method further comprises: - controlling (S3-A) a mobility reference signal for at least one directive beam in the wireless communication system and/or configuring (S3-B) the user device to perform measurements of the mobility reference signal and/or configuring (S3-C) reporting and/or processing of measurement results from measurements of the mobility reference signal, based on the predicted change in radio propagation characteristics. - controlling (S3-A) a mobility reference signal for at least one directive beam in the wireless communication system and/or configuring (S3-B) the user device to perform measurements of the mobility reference signal and/or configuring (S3-C) reporting and/or processing of measurement results from measurements of the mobility reference signal, based on the predicted change in radio propagation characteristics.
A patch-like infusion device (400, 500, 600, 1000), comprising: a reservoir (120, 170, 480, 535, 540, 645) having opposing flexible and rigid walls defining a fluid chamber therebetween; and at least one patient needle (222, 442) in fluid communication with said reservoir; and a stored energy device (130, 460, 530, 640) for applying pressure to the flexible wall of said reservoir to cause fluid to flow from said reservoir to said patient needle, which is a Belleville spring, characterized by said Belleville spring (130, 460, 530, 640) having a plurality of fingers and a central aperture; a pin (140, 420, 505, 620) removably positioned at the center of the fingers to hold said spring in a compressed state, said pin being secured to a removal mechanism, wherein removal of said pin allows said Belleville spring to apply said pressure to the flexible wall; and a push button (300, 430, 602) adapted to activate the device upon being pressed, said push button and said removal mechanism being interlocked. a reservoir (120, 170, 480, 535, 540, 645) having opposing flexible and rigid walls defining a fluid chamber therebetween; and at least one patient needle (222, 442) in fluid communication with said reservoir; and a stored energy device (130, 460, 530, 640) for applying pressure to the flexible wall of said reservoir to cause fluid to flow from said reservoir to said patient needle, which is a Belleville spring, characterized by said Belleville spring (130, 460, 530, 640) having a plurality of fingers and a central aperture; a pin (140, 420, 505, 620) removably positioned at the center of the fingers to hold said spring in a compressed state, said pin being secured to a removal mechanism, wherein removal of said pin allows said Belleville spring to apply said pressure to the flexible wall; and a push button (300, 430, 602) adapted to activate the device upon being pressed, said push button and said removal mechanism being interlocked.
Control device for an electrical circuit comprising a current generator connected in parallel with a first electrical energy storage device, a consumption network comprising at least one electrical energy consuming element (OCj) connected in parallel with a second electrical energy storage device and a DC/DC type converter connected in series between, on the one hand, the said current generator and the said first electrical energy storage device and, on the other hand, the said second electrical energy storage device and the said consumption network characterised in that it comprises control means arranged, in the event of detection of an overvoltage or undervoltage in the said electrical circuit, to operate the said converter for a first duration in a mode adapted to this detected overvoltage or undervoltage and in which it delivers a power substantially identical to an initial power which it delivered before the said detection, and, in the event of continuation of the said overvoltage or undervoltage on expiry of this first duration, to operate the said converter in a degraded mode in which it delivers a power strictly lower than the said initial power.
An apparatus for the production of carbon-containing materials, the apparatus comprising: an arc chamber; a graphite element support for supporting a plurality of graphite elements in the chamber, wherein the graphite element support comprises a rotatable frame adapted for moving each graphite element towards and away from an arc discharge position; means for forming an arc in the chamber to effect vaporisation of material of a graphite element in the arc discharge position; means for supporting a secondary graphite element such that the arc passes between the secondary graphite element and one of said plurality of graphite elements in said position; and a collection chamber comprising an inlet for receiving carbon-containing material from the arc chamber. an arc chamber; a graphite element support for supporting a plurality of graphite elements in the chamber, wherein the graphite element support comprises a rotatable frame adapted for moving each graphite element towards and away from an arc discharge position; means for forming an arc in the chamber to effect vaporisation of material of a graphite element in the arc discharge position; means for supporting a secondary graphite element such that the arc passes between the secondary graphite element and one of said plurality of graphite elements in said position; and a collection chamber comprising an inlet for receiving carbon-containing material from the arc chamber.
System for joining at least two workpieces (11, 12) of thermoplastic material by laser transmission welding, the system comprising at least one device for generating laser radiation and an imaging optics (10, 21) having a first optical axis, wherein laser radiation emitted by the device for generating laser radiation is guided into a joining zone, and wherein the imaging optics (10, 21) is configured for optical imaging from a joining plane in the joining zone to a detection plane of a radiation detecting device, wherein a deflection mirror is provided at a coupling point on a second optical axis, running parallel to the first optical axis, for deflecting the laser radiation from an entrance axis enclosing a non-zero angle, preferably a right angle, with the second optical axis, into a direction along the second optical axis, wherein the distance between the coupling point and the joining plane with respect to the second optical axis is smaller than the distance from the detection plane to the joining plane with respect to the first optical axis, wherein the diameter of the deflection mirror is adapted to a cross-sectional shape and cross-sectional size of the laser radiation and characterized in that when projecting the deflection mirror onto a projection plane perpendicular to the first optical axis, the projection area of the deflection mirror in the projection plane is arranged completely within a minimum aperture in the beam path of the imaging optics (10, 21) and only partially covers the minimum aperture.
A computer implemented method for a high-availability cluster comprising the steps of: detecting, by a link failure management system on a specific node, a local link failure, wherein: the local link failure is a failure of a local link between the specific node and any other node of the high-availability cluster, and the high-availability cluster implements a heartbeat mechanism, sending a notification of the local link failure to other nodes of a plurality of nodes of the high-availability cluster, using a separate link, wherein: the separate link is connected to each node of the high-availability cluster and is dedicated to broadcasting notifications of link failures, and the notification is sent prior to expiration of a heartbeat of the heartbeat mechanism; receiving the notification at each node of the high-availability cluster; and processing, in parallel, the notification at each node of the high-availability cluster. detecting, by a link failure management system on a specific node, a local link failure, wherein: the local link failure is a failure of a local link between the specific node and any other node of the high-availability cluster, and the high-availability cluster implements a heartbeat mechanism, the local link failure is a failure of a local link between the specific node and any other node of the high-availability cluster, and the high-availability cluster implements a heartbeat mechanism, sending a notification of the local link failure to other nodes of a plurality of nodes of the high-availability cluster, using a separate link, wherein: the separate link is connected to each node of the high-availability cluster and is dedicated to broadcasting notifications of link failures, and the notification is sent prior to expiration of a heartbeat of the heartbeat mechanism; the separate link is connected to each node of the high-availability cluster and is dedicated to broadcasting notifications of link failures, and the notification is sent prior to expiration of a heartbeat of the heartbeat mechanism; receiving the notification at each node of the high-availability cluster; and processing, in parallel, the notification at each node of the high-availability cluster.
A method for a localized Secure User Plane Location Session comprising: receiving a Secure User Plane Location Initiation Message, SUPL INIT, at a radio access network currently used by a mobile device; determining whether an emergency indicator in the Secure User Plane Location Initiation Message is set to TRUE; determining a Mobile Country Code associated with the radio access network; determining a regulatory requirement for an Emergency Secure User Plane Location Session in a jurisdiction associated with the Mobile Country Code; determining that the regulatory requirement is met; and in response to determining that the regulatory requirement is met, establishing a Secure User Plane Location Session with a Secure User Plane Location Platform server. receiving a Secure User Plane Location Initiation Message, SUPL INIT, at a radio access network currently used by a mobile device; determining whether an emergency indicator in the Secure User Plane Location Initiation Message is set to TRUE; determining a Mobile Country Code associated with the radio access network; determining a regulatory requirement for an Emergency Secure User Plane Location Session in a jurisdiction associated with the Mobile Country Code; determining that the regulatory requirement is met; and in response to determining that the regulatory requirement is met, establishing a Secure User Plane Location Session with a Secure User Plane Location Platform server.
A dispersion stabilizer for suspension polymerization of a vinyl compound, the dispersion stabilizer comprising a vinyl alcohol polymer having a viscosity-average degree of polymerization, measured according to JIS K 6726:1994, of more than 400 and less than 1,000, a degree of saponification, measured according to JIS K 6726:1994, of more than 67 mol% and less than 78 mol%, 0.02 mol% to 1.0 mol% of a group having an ethylenic double bond in its side chain, and an absorbance (x) at 280 nm of more than 0.17 and less than 0.65 in an ultraviolet absorption spectrum of a 0.1 mass% aqueous solution, wherein the amount of the group having an ethylenic double bond and the absorbance (x) at 280 nm in an ultraviolet absorption spectrum are measured in accordance with the methods described in the description, and wherein the vinyl alcohol polymer comprises a terminal with 0.0005 mol% to 0.1 mol% of a propyl group.