mhurhangee/ep-ind-claims huggingface dataset:
A method for realizing a single radio voice call continuity, after a user equipment 1, UE-1, establishes an IP Multimedia Core Network Subsystem, IMS, session with a remote leg via a Packet Switch, PS, network, wherein in the IMS session, signaling of the IMS session is anchored to an IMS Control Point, ICP, and media of the IMS session is anchored to an Access GateWay, AGW, controlled by the ICP, the method comprising: sending a handover request by a control net element of the PS network to an enhanced Mobile Switch Center, eMSC, to request a handover of the IMS session to a Circuit Switch, CS, network access mode, wherein the ICP is independent from the eMSC; after receiving the handover request, preparing a media link resource by the eMSC for the UE-1 to communicate with the eMSC and sending, by the eMSC, a call request to the ICP; and after receiving the call request from the eMSC, controlling, by the ICP, the AGW to correlate a media link established by the call request with a remote leg media link of the IMS session. sending a handover request by a control net element of the PS network to an enhanced Mobile Switch Center, eMSC, to request a handover of the IMS session to a Circuit Switch, CS, network access mode, wherein the ICP is independent from the eMSC; after receiving the handover request, preparing a media link resource by the eMSC for the UE-1 to communicate with the eMSC and sending, by the eMSC, a call request to the ICP; and after receiving the call request from the eMSC, controlling, by the ICP, the AGW to correlate a media link established by the call request with a remote leg media link of the IMS session.
A configuration method for determining a new configuration of calculation resources associated to a virtual network function and to at least one future time slot, the calculation resources being defined as different calculation capacities allocated to the function during a time slot and included within at least one computer, the configuration method being characterized by: a first step of determining an old demand associated to the function and to at least one previous time slot, the previous time slots being located before the future time slots, and, a second step of determining a plurality of conditional probabilities associated to the old demand and to a plurality of new demands, these conditional probabilities representing the probability that previous time slots handling old demands are being followed by future time slots handling new demands and, a third step of determining a plurality of reconfiguration costs associated to a plurality available configurations of calculation resources associated to new capacities and using the old demands or the old capacity or the plurality of conditional probabilities or an operating cost per unit of capacity per time slot or a penalty cost per unit of demand unsatisfied per time slot or a scaling cost per unit of capacity, the method also comprises a step of selecting the new configuration as being the available configuration associated to the minimal reconfiguration cost. a first step of determining an old demand associated to the function and to at least one previous time slot, the previous time slots being located before the future time slots, and, a second step of determining a plurality of conditional probabilities associated to the old demand and to a plurality of new demands, these conditional probabilities representing the probability that previous time slots handling old demands are being followed by future time slots handling new demands and, a third step of determining a plurality of reconfiguration costs associated to a plurality available configurations of calculation resources associated to new capacities and using the old demands or the old capacity or the plurality of conditional probabilities or an operating cost per unit of capacity per time slot or a penalty cost per unit of demand unsatisfied per time slot or a scaling cost per unit of capacity, the method also comprises a step of selecting the new configuration as being the available configuration associated to the minimal reconfiguration cost. the old demands or the old capacity or the plurality of conditional probabilities or an operating cost per unit of capacity per time slot or a penalty cost per unit of demand unsatisfied per time slot or a scaling cost per unit of capacity, the method also comprises a step of selecting the new configuration as being the available configuration associated to the minimal reconfiguration cost.
A method of communication, comprising: receiving a first message from an access terminal at a first access point, wherein the first message indicates that the access terminal re-establishing a connection at the first access point experienced radio link failure at a second access point; wherein the first access point is a source cell and the second access point is a target cell; and sending a second message from the first access point to the second access point, wherein the second message informs the second access point of the connection re-establishment of the access terminal to the first access point. receiving a first message from an access terminal at a first access point, wherein the first message indicates that the access terminal re-establishing a connection at the first access point experienced radio link failure at a second access point; wherein the first access point is a source cell and the second access point is a target cell; and sending a second message from the first access point to the second access point, wherein the second message informs the second access point of the connection re-establishment of the access terminal to the first access point.
A ferromagnetic powder composition comprising soft magnetic iron-based core particles having an apparent density of 3.4-3.6g/ml, and wherein the surface of the core particles is provided with a phosphorus-based inorganic insulating layer, and at least one metal-organic layer, located outside the first phosphorus-based inorganic insulating layer, of a metal-organic compound having the following general formula: R 1 [(R 1) x (R 2) y (MO n-1)] n R 1 wherein M is a central atom selected from Si, Ti, Al, or Zr; O is oxygen; R 1 is an alkoxy group having less than 4 carbon atoms; R 2 is an organic moiety and wherein at least one R 2 contains at least one amino group; wherein n is the number of repeatable units being an integer between 1 and 20; wherein the x is an integer between 0 and 1; wherein y is an integer between 1 and 2. wherein M is a central atom selected from Si, Ti, Al, or Zr; O is oxygen; R 1 is an alkoxy group having less than 4 carbon atoms; R 2 is an organic moiety and wherein at least one R 2 contains at least one amino group; wherein n is the number of repeatable units being an integer between 1 and 20; wherein the x is an integer between 0 and 1; wherein y is an integer between 1 and 2.
A method for production of precipitated calcium carbonate, said method comprising the steps of: - providing an aqueous solution of calcium, carbon dioxide, bicarbonate, and carbonate; - providing at least one reactor containing a bed of shaped elements, said elements being prepared from a material showing a lower modulus of elasticity than precipitated calcium carbonate, and a number of vertical shafts extending from the bottom region of said reactor to at least the top of said bed; - introducing said solution through an inlet to said at least one reactor and withdrawing the solution from the reactor from an outlet horizontally separated from the inlet, thereby creating a horizontal flow and a corresponding horizontal hydraulic pressure gradient through the bed of shaped elements; - injecting a compressed gas into the aqueous solution to effect i) a displacement of the aqueous solution inside the shafts and a corresponding oppositely directed vertical hydraulic pressure gradient through the bed of shaped elements outside the vertical shafts, and ii) a gas-water interface to drive off carbon dioxide dissolved in the aqueous solution; - removing gas including driven off carbon dioxide from a headspace above the bed of shaped elements; - removing by non-chemical means a surface coating precipitated on at least a part of the shaped elements, when a target thickness of said coating has been obtained, the coating consisting substantially of calcium carbonate. - providing an aqueous solution of calcium, carbon dioxide, bicarbonate, and carbonate; - providing at least one reactor containing a bed of shaped elements, said elements being prepared from a material showing a lower modulus of elasticity than precipitated calcium carbonate, and a number of vertical shafts extending from the bottom region of said reactor to at least the top of said bed; - introducing said solution through an inlet to said at least one reactor and withdrawing the solution from the reactor from an outlet horizontally separated from the inlet, thereby creating a horizontal flow and a corresponding horizontal hydraulic pressure gradient through the bed of shaped elements; - injecting a compressed gas into the aqueous solution to effect i) a displacement of the aqueous solution inside the shafts and a corresponding oppositely directed vertical hydraulic pressure gradient through the bed of shaped elements outside the vertical shafts, and ii) a gas-water interface to drive off carbon dioxide dissolved in the aqueous solution; i) a displacement of the aqueous solution inside the shafts and a corresponding oppositely directed vertical hydraulic pressure gradient through the bed of shaped elements outside the vertical shafts, and ii) a gas-water interface to drive off carbon dioxide dissolved in the aqueous solution; - removing gas including driven off carbon dioxide from a headspace above the bed of shaped elements; - removing by non-chemical means a surface coating precipitated on at least a part of the shaped elements, when a target thickness of said coating has been obtained, the coating consisting substantially of calcium carbonate.
A twin plasma apparatus comprising: an anode plasma head and a cathode plasma head, each of said plasma heads (10, 20) comprising an electrode (45a, 45b), a plasma flow channel, a plasma head axis and a primary gas inlet disposed between at least a portion of said electrode (45a, 45b) and said plasma flow channel, said anode plasma head axis and said cathode plasma head axis being oriented at an angle α toward one another characterized in that, that each of said plasma flow channels comprises a first generally cylindrical portion adjacent to said electrode (45a, 45b) and having a diameter D1, a second generally cylindrical portion, adjacent to said first portion, having a diameter D2, and a third generally cylindrical portion, adjacent to said second portion, having a diameter D3, wherein D1<D2<D3. an anode plasma head and a cathode plasma head, each of said plasma heads (10, 20) comprising an electrode (45a, 45b), a plasma flow channel, a plasma head axis and a primary gas inlet disposed between at least a portion of said electrode (45a, 45b) and said plasma flow channel, said anode plasma head axis and said cathode plasma head axis being oriented at an angle α toward one another characterized in that, that each of said plasma flow channels comprises a first generally cylindrical portion adjacent to said electrode (45a, 45b) and having a diameter D1, a second generally cylindrical portion, adjacent to said first portion, having a diameter D2, and a third generally cylindrical portion, adjacent to said second portion, having a diameter D3, wherein D1<D2<D3.
A device for forming patterns of cells on a surface of a substrate, comprising a guide plate having an upper surface and a lower surface and a plurality of apertures extending therethrough and arranged to align with locations on the surface of the substrate, a plurality of posts each fitted within a respective aperture, a plurality of pads formed of a resilient material and having a pattern of raised plateaus for butting against the surface of the substrate, each of the plurality of pads being fixed to a distal surface of a respective post, and a resilient deformable linkage connecting the posts within the guide plate.
A customizable and multi-purpose mechanical device with technical functionality of tightening closure, as well as decorative function, structured to realize articles and fashion accessories and/or every objects for domestic and industrial use, composed of two parts of which one part contains a plate with a pin; characterized in that the other part contains three plates of housing (2A, 2B and 2C), joined together, to incorporate the pin that is tightened from the central housing plate, which is structured to rotate by means of a lever connected to it thus allowing the tightening closure of the two parts of the device when the same are simply superimposed on each other and without any rotation of one part with respect to the other part.
A color and infrared image sensor comprising: - a silicon substrate, - MOS transistors (16; 60, 62, 70, 72, 74) formed in the substrate and on the substrate, - a stack covering the substrate and comprising, from the substrate: - a first photosensitive layer, an electrically-insulating layer, - a second photosensitive layer, and - color filters, the image sensor further comprising: - first and second electrodes (22, 28) on either side of the first photosensitive layer and delimiting first photodiodes in the first photosensitive layer, - third and fourth electrodes (34, 40) on either side of the second photosensitive layer and delimiting second photodiodes in the second photosensitive layer, the first photosensitive layer being configured to absorb the electromagnetic waves of the visible spectrum and of a first portion of the infrared spectrum and the second photosensitive layer being configured to absorb the electromagnetic waves of the visible spectrum and to let pass the electromagnetic waves of said first portion of the infrared spectrum; and - for each pixel of the color image to be acquired, at least first, second, and third sub-pixels (SPix), each comprising one of the second photodiodes, one of the first photodiodes or a portion of one of the first photodiodes, and one of the color filters, the color filters of the first, second, and third sub-pixels letting pass electromagnetic waves in different frequency ranges of the visible spectrum and letting pass the electromagnetic waves of the infrared spectrum. - a silicon substrate, - MOS transistors (16; 60, 62, 70, 72, 74) formed in the substrate and on the substrate, - a stack covering the substrate and comprising, from the substrate: - a first photosensitive layer, an electrically-insulating layer, - a second photosensitive layer, and - color filters, - a first photosensitive layer, an electrically-insulating layer, - a second photosensitive layer, and - color filters, - first and second electrodes (22, 28) on either side of the first photosensitive layer and delimiting first photodiodes in the first photosensitive layer, - third and fourth electrodes (34, 40) on either side of the second photosensitive layer and delimiting second photodiodes in the second photosensitive layer, the first photosensitive layer being configured to absorb the electromagnetic waves of the visible spectrum and of a first portion of the infrared spectrum and the second photosensitive layer being configured to absorb the electromagnetic waves of the visible spectrum and to let pass the electromagnetic waves of said first portion of the infrared spectrum; and - for each pixel of the color image to be acquired, at least first, second, and third sub-pixels (SPix), each comprising one of the second photodiodes, one of the first photodiodes or a portion of one of the first photodiodes, and one of the color filters, the color filters of the first, second, and third sub-pixels letting pass electromagnetic waves in different frequency ranges of the visible spectrum and letting pass the electromagnetic waves of the infrared spectrum.
A crystalline silicon-based solar cell, comprising: an n-type crystalline silicon substrate having a first principal surface, a second principal surface and a side surface; a first intrinsic silicon-based thin-film, a p-type silicon-based thin-film, a first transparent electrode layer and a patterned collecting electrode which are sequentially formed on the first principal surface of the n-type crystalline silicon substrate; and a second intrinsic silicon-based thin-film, an n-type silicon-based thin-film, a second transparent electrode layer and a plated metal electrode which are sequentially formed on the second principal surface of the n-type crystalline silicon substrate, wherein on an entire first principal surface, on an entire second principal surface and on an entire region of the side surface of the crystalline silicon substrate, at least one of the first intrinsic silicon-based thin-film and the second intrinsic silicon-based thin-film is formed, on a peripheral edge of the first principal surface, an insulating region freed of a short circuit between the first transparent electrode layer and the second transparent electrode layer is provided, the plated metal electrode is formed on an entire region of the second transparent electrode layer, and wherein the second transparent electrode layer is formed on the entire second principal surface and is also formed on the side surface.
A drive arrangement for driving a vehicle safety device, the arrangement comprising: an input comprising two terminals (3, 4) and first and second resistors (12, 13) connected in series between the terminals (3, 4), the input being operable to receive a firing signal, the firing signal being suitable for activating a pyrotechnic squib; a first analyser operable to perform a first algorithm on the firing signal and to provide a first determination that the firing signal would have activated the pyrotechnic squib; a second analyser operable to perform a second algorithm on the firing signal and to provide a second determination that the firing signal would have activated the pyrotechnic squib; and an output connected to the first and second analysers (14, 15), the output providing an output signal if both the first and second analysers (14, 15) determine that the firing signal would have activated the pyrotechnic squib, the output signal being suitable for activating a vehicle safety device, characterised in that the arrangement further comprises:. a test signal source which is connected to provide a test signal to the input, the test signal being equivalent to the firing signal which is suitable for activating the pyrotechnic squib; and a logic circuit which is activated when the test signal is provided to the input, the logic circuit being operable to prevent the output from providing the output signal when both the first and second analysers (14, 15) determine that the test signal would have activated the pyrotechnic squib. an input comprising two terminals (3, 4) and first and second resistors (12, 13) connected in series between the terminals (3, 4), the input being operable to receive a firing signal, the firing signal being suitable for activating a pyrotechnic squib; a first analyser operable to perform a first algorithm on the firing signal and to provide a first determination that the firing signal would have activated the pyrotechnic squib; a second analyser operable to perform a second algorithm on the firing signal and to provide a second determination that the firing signal would have activated the pyrotechnic squib; and an output connected to the first and second analysers (14, 15), the output providing an output signal if both the first and second analysers (14, 15) determine that the firing signal would have activated the pyrotechnic squib, the output signal being suitable for activating a vehicle safety device, characterised in that the arrangement further comprises:. a test signal source which is connected to provide a test signal to the input, the test signal being equivalent to the firing signal which is suitable for activating the pyrotechnic squib; and a logic circuit which is activated when the test signal is provided to the input, the logic circuit being operable to prevent the output from providing the output signal when both the first and second analysers (14, 15) determine that the test signal would have activated the pyrotechnic squib.
A light emitting module comprising a first light emitting part and a second light emitting part that are provided on an upper surface of a substrate with an interval therebetween and differ from each other in terms of luminescent color, the first light emitting part including a first light emitting element and a first sealing member sealing the first light emitting element, the second light emitting part including a second light emitting element and a second sealing member sealing the second light emitting element, wherein the light emitting module includes light emitting diodes as the light emitting elements, the sealing members are each formed from a translucent material mixed with a wavelength conversion material, an optical member is interposed between the first light emitting part and the second light emitting part, and is formed from a translucent material having a refractive index higher than air, a side surface of the optical member includes a first region facing the first sealing member and a second region facing the second sealing member, the first region included in the side surface of the optical member is entirely in surface contact with the surface of the first sealing member with substantially no gap therebetween, and the second region included in the side surface of the optical member is entirely in surface contact with the surface of the second sealing member with substantially no gap therebetween, in plan view, an upper surface of the optical member does not substantially overlap either an upper surface of the first light emitting element or an upper surface of the second light emitting element, characterised in that the light emitting module has a structure in which respective upper surfaces (332W, 332R, 332G) of the sealing members (330W, 330R, 330G) and the respective upper surface of the optical member are all flat and flush with each other.
System for monitoring the state of a wheel (210, 420) of a rail vehicle, comprising a recording unit, which is designed to record at least one operating parameter for the wheel (210, 420) during a braking event, an evaluation unit, which is designed to determine a temperature value for the wheel (210, 420) based on the recorded operating parameter, and a controller, which is designed to generate and to output an output depending on the determined temperature value, characterized in that the temperature value determined for the wheel (210, 420) comprises an average temperature of a running surface of the wheel (210, 420) and a temperature distribution along the running surface of the wheel (210, 420) and a temperature at a contact surface of the wheel (210, 420).
A system comprising a microfluidic device for providing a mechanical stimulation to a material, the microfluidic device comprising a hosting chamber, a pressure array, and an elastic membrane, wherein the hosting chamber is configured for hosting the material, wherein the membrane is arranged between the pressure array and the hosting chamber, wherein the pressure array comprises a plurality of pressure chambers configured to independently provide a pressure to the membrane, wherein the pressure array comprises two adjacent pressure chambers sharing a chamber separator, wherein the membrane is configurable at a plurality of distances from the chamber separator based on pressures provided to the membrane by the two adjacent pressure chambers, wherein the membrane is configurable between a first configuration (P 1) and a second configuration (P 2) relative to the chamber separator based on pressures provided to the membrane by the two adjacent pressure chambers, characterized in that the second configuration (P 2) provides a fluid connection between the two adjacent pressure chambers between the membrane and the chamber separator.