mhurhangee/ep-ind-claims huggingface dataset:
Method for configuring a plurality of cells belonging to a telecommunication network, each cell being associated to an individual maximum transmit power allowed to transmit by the cell, each cell being identified by a so called cell ID, said method comprising the following steps;. a step (401-a) of determining coverage cells and. a step (402-a) of determining a new cell ID for the coverage cells and. a step of determining a number of cells in conflict and wherein the step of determining a number of cells in conflict is configured to determine a number of coverage cells in conflict and if the number of coverage cells in conflict is above a predetermined threshold, the method comprising the following steps:. a step of decreasing the individual maximum transmit power associated to at least one of the cells in conflict wherein the step of decreasing the individual maximum transmit power is configured to decrease the individual maximum transmit power associated to at least one of the coverage cells in conflict; more particularly the steps being realized iteratively until the number of cells in conflict is below the predetermined threshold.. a step (401-a) of determining coverage cells and. a step (402-a) of determining a new cell ID for the coverage cells and. a step of determining a number of cells in conflict and wherein the step of determining a number of cells in conflict is configured to determine a number of coverage cells in conflict and if the number of coverage cells in conflict is above a predetermined threshold,. a step of decreasing the individual maximum transmit power associated to at least one of the cells in conflict wherein the step of decreasing the individual maximum transmit power is configured to decrease the individual maximum transmit power associated to at least one of the coverage cells in conflict;
An X-ray table (t, 110, 210, 310, 410) that is reversibly rotatable without interfering with an X-ray imaging unit (x, 140, 440) while a top surface thereof faces the X-ray imaging unit (x, 140, 440), the X-ray table (t, 110, 210, 310, 410) comprising: a top plate (112, 312, 412); and an X-ray receiver that is coupled to the surface of the top plate (112, 312, 412) and rotates together with the top plate, characterised in that the X-ray table further comprises a mobile member (114, 214, 320, 414) that is on one end rotatably coupled to a bottom surface of the top plate (112, 312, 412) by a rotary hinge, wherein a rotation axis of the mobile member (114, 214, 320, 414) is located at a center in a length direction of the top plate (112, 312, 412) or in a vicinity of the center, wherein a first support including casters is rotatably coupled to another end of the mobile member; and wherein a second support including casters is rotatably coupled to the top plate (112, 312, 412); wherein the mobile member (114, 214, 320, 414) is located in a horizontal posture and in contact with the bottom surface of the top plate (112, 312, 412) when the top plate (112, 312, 412) is located in the horizontal posture, and wherein the mobile member (114, 214, 320, 414) is rotated with respect to the top plate (112, 312, 412) when the top plate (112, 312, 412) rotates to a vertical posture until the mobile member (114, 214, 320, 414) is also located in the vertical posture and in contact with another part of the bottom surface of the top plate (112, 312, 412). a top plate (112, 312, 412); and an X-ray receiver that is coupled to the surface of the top plate (112, 312, 412) and rotates together with the top plate, characterised in that the X-ray table further comprises a mobile member (114, 214, 320, 414) that is on one end rotatably coupled to a bottom surface of the top plate (112, 312, 412) by a rotary hinge, wherein a rotation axis of the mobile member (114, 214, 320, 414) is located at a center in a length direction of the top plate (112, 312, 412) or in a vicinity of the center, wherein a first support including casters is rotatably coupled to another end of the mobile member; and wherein a second support including casters is rotatably coupled to the top plate (112, 312, 412); wherein the mobile member (114, 214, 320, 414) is located in a horizontal posture and in contact with the bottom surface of the top plate (112, 312, 412) when the top plate (112, 312, 412) is located in the horizontal posture, and wherein the mobile member (114, 214, 320, 414) is rotated with respect to the top plate (112, 312, 412) when the top plate (112, 312, 412) rotates to a vertical posture until the mobile member (114, 214, 320, 414) is also located in the vertical posture and in contact with another part of the bottom surface of the top plate (112, 312, 412).
A user equipment, UE, for wireless communication, comprising: a memory; and one or more processors operatively coupled to the memory, the memory and the one or more processors configured to: receive, from a base station, an indication of a resource allocation for a data communication, the data communication having a known payload, the known payload comprising data associated with a machine learning process, the known payload being known to both the UE and the base station; and communicate with the base station based at least in part on the resource allocation, wherein, the memory and the one or more processors, when communicating with the base station, are configured to transmit or receive the known payload using a dedicated logical channel, wherein the dedicated logical channel is subject to an assigned priority rule and/or multiplexing restriction. a memory; and one or more processors operatively coupled to the memory, the memory and the one or more processors configured to: receive, from a base station, an indication of a resource allocation for a data communication, the data communication having a known payload, the known payload comprising data associated with a machine learning process, the known payload being known to both the UE and the base station; and communicate with the base station based at least in part on the resource allocation, wherein, the memory and the one or more processors, when communicating with the base station, are configured to transmit or receive the known payload using a dedicated logical channel, wherein the dedicated logical channel is subject to an assigned priority rule and/or multiplexing restriction. receive, from a base station, an indication of a resource allocation for a data communication, the data communication having a known payload, the known payload comprising data associated with a machine learning process, the known payload being known to both the UE and the base station; and communicate with the base station based at least in part on the resource allocation, wherein, the memory and the one or more processors, when communicating with the base station, are configured to transmit or receive the known payload using a dedicated logical channel, wherein the dedicated logical channel is subject to an assigned priority rule and/or multiplexing restriction.
A method for the estimation of inter-channel differences, ICD, comprising: applying (30a, 30b) a transformation from a time domain to a frequency domain to a plurality of audio channel signals; calculating (31, 32) a plurality of ICD values for the ICDs between at least one of the plurality of audio channel signals and a reference audio channel signal over a predetermined frequency range, each ICD value being calculated over a portion of the predetermined frequency range; calculating, for each of the plurality of ICD values, a weighted ICD value by multiplying each of the plurality of ICD values with a corresponding frequency-dependent weighting factor; and calculating an ICD range value for the predetermined frequency range by adding the plurality of weighted ICD values. applying (30a, 30b) a transformation from a time domain to a frequency domain to a plurality of audio channel signals; calculating (31, 32) a plurality of ICD values for the ICDs between at least one of the plurality of audio channel signals and a reference audio channel signal over a predetermined frequency range, each ICD value being calculated over a portion of the predetermined frequency range; calculating, for each of the plurality of ICD values, a weighted ICD value by multiplying each of the plurality of ICD values with a corresponding frequency-dependent weighting factor; and calculating an ICD range value for the predetermined frequency range by adding the plurality of weighted ICD values.
A surgical suture comprising: a) an elongate tubular sleeve surrounding an elongate tubular cavity, the suture lacking a core; b) the sleeve comprising a plurality of multifilament strands braided together, the sleeve lacking any monofilament strands; c) the multifilament strand comprising a plurality of filaments, a filament comprising a plurality of polymer chains, where the polymer chains in at least some of the filaments are ultra-high molecular weight polyethylene (UHMWPE); d) the multifilament strands are braided together at 8 to 24 plaits per centimeter; and e) the strands in the sleeve are twisted at 150 to 350 turns per meter. a) an elongate tubular sleeve surrounding an elongate tubular cavity, the suture lacking a core; b) the sleeve comprising a plurality of multifilament strands braided together, the sleeve lacking any monofilament strands; c) the multifilament strand comprising a plurality of filaments, a filament comprising a plurality of polymer chains, where the polymer chains in at least some of the filaments are ultra-high molecular weight polyethylene (UHMWPE); d) the multifilament strands are braided together at 8 to 24 plaits per centimeter; and e) the strands in the sleeve are twisted at 150 to 350 turns per meter.
A roller blind assembly comprising a roller, a generally rectangular panel formed from a flexible sheet material having an upper marginal edge secured to the roller and a free lower marginal edge, a screen in the form of a web of flexible material being detachably mounted on said free lower marginal of the panel edge via a releasable fastening means, said releasable fastening means comprises cooperating first and second fastening components (18A,18B) being respectively provided on the lower marginal edge of the panel and an upper edge of the screen, wherein said first and second fastening components (18A,18B) comprise mating elongate members, wherein the roller is provided with an elongate recess or channel formed on its outer surface extending substantially over the entire length of the roller and parallel to the axis of the roller for receiving said fastening means when the panel and screen are wound onto the roller, the shape and dimensions of the roller, and the elongate recess or channel formed thereon, and the fastening means being such that the that when the panel and the fastening means are wound around the roller, the resulting assembly presents a circular cross section of substantially constant radius, characterised in that the first fastening component and the second fastening component each have a substantially U-shaped cross section to define cooperating hook-like members adapted to releasably engage one another to support the screen from the panel, and in that the first fastening component of the fastening means comprises a first elongate hook-like component provided on the lower marginal edge of the panel, defining an upwardly open elongate channel, the second fastening component of the fastening means comprising a second elongate hook-like component defining a downwardly open elongate channel, provided on the upper edge of the screen, the first and second elongate hook-like components (18A,18B) of the fastening means being shaped to engage one another to attach the screen to the panel, while being readily separable from one another to allow removal and replacement of the screen from the panel by relative displacement of the first and second fastening components (18A,18B) in a vertical direction, in use.
A fuel rod spacer assembly for a fuel assembly for a nuclear reactor including a plurality of nuclear fuel rods, and at least one fuel rod spacer assembly for supporting the fuel rods in an organized array, the fuel rod spacer assembly comprising: a plurality of sub-channels, each sub-channel configured for supporting a respective nuclear fuel rod within; a spring positioned in an opening within the plurality of sub-channels such that the spring is located between adjacent sub-channels of the plurality of sub-channels for alleviating impact with respective nuclear fuel rods when positioned within the adjacent sub-channels; a guide located to form an edge of the fuel rod spacer assembly, the edge forming in use a leading edge to a flow of liquid moderator/coolant through the fuel rod spacer assembly, the guide being angled towards a respective nuclear fuel rod for directing debris in the flow to the plurality of openings in the fuel rod spacer assembly; characterized in that: the spring comprises a T-shaped extension member at both ends of the spring and exterior to the adjacent sub-channels for absorbing the abrading contact between fuel rods. a plurality of sub-channels, each sub-channel configured for supporting a respective nuclear fuel rod within; a spring positioned in an opening within the plurality of sub-channels such that the spring is located between adjacent sub-channels of the plurality of sub-channels for alleviating impact with respective nuclear fuel rods when positioned within the adjacent sub-channels; a guide located to form an edge of the fuel rod spacer assembly, the edge forming in use a leading edge to a flow of liquid moderator/coolant through the fuel rod spacer assembly, the guide being angled towards a respective nuclear fuel rod for directing debris in the flow to the plurality of openings in the fuel rod spacer assembly; characterized in that: the spring comprises a T-shaped extension member at both ends of the spring and exterior to the adjacent sub-channels for absorbing the abrading contact between fuel rods. the spring comprises a T-shaped extension member at both ends of the spring and exterior to the adjacent sub-channels for absorbing the abrading contact between fuel rods.
A method for cleaning an apatite solid surface following target biomolecule purification by a non-adsorbing flow through process, the method comprising, (a) contacting a sample comprising the target biomolecule to an apatite solid surface thereby flowing the target biomolecule past the apatite solid surface; (b) after the contacting of (a), neutralizing the apatite solid surface by contacting the apatite solid surface with a sufficient concentration and volume of an alkaline hydroxide; and (c) after the step of neutralizing the apatite solid surface, cleaning the apatite solid surface with a phosphate buffer. (a) contacting a sample comprising the target biomolecule to an apatite solid surface thereby flowing the target biomolecule past the apatite solid surface; (b) after the contacting of (a), neutralizing the apatite solid surface by contacting the apatite solid surface with a sufficient concentration and volume of an alkaline hydroxide; and (c) after the step of neutralizing the apatite solid surface, cleaning the apatite solid surface with a phosphate buffer.
A honeycomb filter for trapping solid components contained in a fluid, comprising: a plurality of porous partition portions each forming a cell serving as a flow path of the fluid; a sealing portion for sealing an end of the cell; a trapping layer for trapping solid components contained in the fluid, the trapping layer being disposed on each of the partition portions; and a void between the sealing portion on an outlet side of the cell and the trapping layer; wherein the trapping layer has a convex closed end facing the sealing portion on the outlet side of the cell. a plurality of porous partition portions each forming a cell serving as a flow path of the fluid; a sealing portion for sealing an end of the cell; a trapping layer for trapping solid components contained in the fluid, the trapping layer being disposed on each of the partition portions; and a void between the sealing portion on an outlet side of the cell and the trapping layer; wherein the trapping layer has a convex closed end facing the sealing portion on the outlet side of the cell.
A method for performing, by a target home eNodeB, HeNB, which operates with a hybrid mode, a handover procedure in a wireless communication system, wherein the target HeNB which operates with the hybrid mode serves a cell which is accessible as a closed subscriber group, CSG, cell by user equipments, UEs, which are members of the target HeNB, and as a normal cell by all other UEs, the method comprising: receiving a handover request message from a source eNB; deciding whether the handover procedure is acknowledged or not; if the handover procedure is acknowledged, transmitting a path switch request message including a CSG identifier, ID, of the target HeNB and an access mode of the target HeNB, to a mobility management entity, MME; receiving verified information related to UE membership from the MME; and modifying a membership status of a UE based on the verified information related to UE membership received from the MME. receiving a handover request message from a source eNB; deciding whether the handover procedure is acknowledged or not; if the handover procedure is acknowledged, transmitting a path switch request message including a CSG identifier, ID, of the target HeNB and an access mode of the target HeNB, to a mobility management entity, MME; receiving verified information related to UE membership from the MME; and modifying a membership status of a UE based on the verified information related to UE membership received from the MME.
A stretchable contractible wiring sheet, comprising: a first elastomer sheet that is stretchable and contractible; a second elastomer sheet that is stretchable and contractible, and bonded on the first elastomer sheet in a manner to face the first elastomer sheet; and a lead interposed between the first elastomer sheet and the second elastomer sheet in a state of having a wavy shape periodically curving in a plane parallel to and between facing surfaces of the first elastomer sheet and the second elastomer sheet and being biased into said wavy shape periodically curving in a plane parallel and between in facing surfaces to restore to the shape of a straight line during unloading of said lead biased into said wavy shape by stretching said stretchable and contractible first and second elastomer sheet. a first elastomer sheet that is stretchable and contractible; a second elastomer sheet that is stretchable and contractible, and bonded on the first elastomer sheet in a manner to face the first elastomer sheet; and a lead interposed between the first elastomer sheet and the second elastomer sheet in a state of having a wavy shape periodically curving in a plane parallel to and between facing surfaces of the first elastomer sheet and the second elastomer sheet and being biased into said wavy shape periodically curving in a plane parallel and between in facing surfaces to restore to the shape of a straight line during unloading of said lead biased into said wavy shape by stretching said stretchable and contractible first and second elastomer sheet.
Method for the production of a plurality of optoelectronic semiconductor chips, the method comprising at least the following method steps: - provision of a chip composite base having a substrate and a growth surface; - growth of a mask material layer onto the growth surface in such a way that the mask material layer has a plurality of windows, a mask material being chosen in such a way that a semiconductor material of the semiconductor layer that is to be grown in a later method step essentially cannot grow on said mask material or can grow in a substantially worse manner in comparison with the growth surface; - essentially simultaneous growth of semiconductor layers on regions of the growth surface that lie within the windows; and - singulation of the chip composite base with applied material to form semiconductor chips, wherein - the semiconductor chips respectively have a plurality of structural elements with at least one semiconductor layer, characterized in that - the mask material layer is grown as a non-closed layer, and - the plurality of windows are statistically distributed and have varying forms and/or opening areas. - provision of a chip composite base having a substrate and a growth surface; - growth of a mask material layer onto the growth surface in such a way that the mask material layer has a plurality of windows, a mask material being chosen in such a way that a semiconductor material of the semiconductor layer that is to be grown in a later method step essentially cannot grow on said mask material or can grow in a substantially worse manner in comparison with the growth surface; - essentially simultaneous growth of semiconductor layers on regions of the growth surface that lie within the windows; and - singulation of the chip composite base with applied material to form semiconductor chips, wherein - the semiconductor chips respectively have a plurality of structural elements with at least one semiconductor layer, - the mask material layer is grown as a non-closed layer, and - the plurality of windows are statistically distributed and have varying forms and/or opening areas.
A premixed two-component solventless adhesive composition, consisting of: an isocyanate component consisting of at least one isocyanate; and a polyol component consisting of at least one amine-initiated polyol having a functionality of from 3 to 8 and a hydroxyl number of from 750 to 1,000 and optionally at least one non-amine-initiated polyol; wherein the amount of the at least one amine-initiated polyol is, by weight based on the weight of the premixed adhesive composition, at least 6 wt%. an isocyanate component consisting of at least one isocyanate; and a polyol component consisting of at least one amine-initiated polyol having a functionality of from 3 to 8 and a hydroxyl number of from 750 to 1,000 and optionally at least one non-amine-initiated polyol; wherein the amount of the at least one amine-initiated polyol is, by weight based on the weight of the premixed adhesive composition, at least 6 wt%.
Diaphragm pump which has a working or pump diaphragm in at least one pump head, said working or pump diaphragm being clamped with a clamping zone, which is arranged on the outer circumference thereof, between two housing parts (5, 6) of a pump housing and defining a working or delivery space between itself and a pump head part, the annular zone of said working or pump diaphragm which is arranged adjacent to the clamping zone being configured as a guide zone which, in the unloaded state of the working or pump diaphragm, is convexly curved and projects into the working or delivery space, and which encloses, in a central zone, a diaphragm armature which, on the side thereof remote from the working or delivery space of the at least one pump head, is connected to a reciprocating drive which is provided for oscillating reciprocating movement of the working or pump diaphragm, wherein the working or pump diaphragm rolls with its guide zone during the reciprocating movement of the working or diaphragm pump on a complementarily formed annular or supporting zone of the pump head, wherein a compensation zone of the working or pump diaphragm is provided between the guide zone and the central zone, said compensation zone being, in the unloaded state, flexed concavely with respect thereto and in the direction towards the bottom dead centre, and wherein the compensation zone experiences stretching during an upward stroke so that the compensation zone is pulled taut at the top dead centre, characterised in that the working or pump diaphragm rolls with the entire periphery of its guide zone during the reciprocating movement of the working or pump diaphragm on a complementarily formed annular or supporting zone of the pump head.