mhurhangee/ep-ind-claims huggingface dataset:
A method for a control process of an energy-saving cell, comprising: a base station serving an essential coverage cell determining required activation of an energy-saving cell according to a current load state, wherein the essential coverage cell refers to a cell that can not be disabled or brought into an energy-saving state in view of guaranteed continuity, and the energy-saving cell refers to a cell that can be brought into the energy-saving state; characterized in that, the base station serving the essential coverage cell instructing energy-saving cells to be brought into a limited transmission state, wherein the limited transmission state refers to transmission of only limited downlink signals without any access operation; the base station serving the essential coverage cell instructing a user equipment to measure a signal or signals of a local cell and/or an adjacent cell or cells; the base station serving the essential coverage cell determining an energy-saving cell to be activated, wherein the base station serving the essential coverage cell determines an energy-saving cell to be activated according to a local energy-saving strategy and a service demand of the UE; and the base station serving the essential coverage cell activating the determined energy-saving cell. a base station serving an essential coverage cell determining required activation of an energy-saving cell according to a current load state, wherein the essential coverage cell refers to a cell that can not be disabled or brought into an energy-saving state in view of guaranteed continuity, and the energy-saving cell refers to a cell that can be brought into the energy-saving state; characterized in that, the base station serving the essential coverage cell instructing energy-saving cells to be brought into a limited transmission state, wherein the limited transmission state refers to transmission of only limited downlink signals without any access operation; the base station serving the essential coverage cell instructing a user equipment to measure a signal or signals of a local cell and/or an adjacent cell or cells; the base station serving the essential coverage cell determining an energy-saving cell to be activated, wherein the base station serving the essential coverage cell determines an energy-saving cell to be activated according to a local energy-saving strategy and a service demand of the UE; and the base station serving the essential coverage cell activating the determined energy-saving cell.
Holding frame into which plug connector modules can be inserted, wherein the holding frame comprises two halves (4, 5) which can be connected to one another in a jointed manner, a first half and a second half, wherein the first holding frame has at least one blocking element, characterized - in that the blocking element is formed from a flat component which covers both halves (4, 5) at least in some regions, - in that the blocking element has at least one latching hook at the end and - in that one half of the holding frame has at least one cut-out in which the latching hook of the blocking element can engage, whereby the holding frame can be secured in an open position. - in that the blocking element is formed from a flat component which covers both halves (4, 5) at least in some regions, - in that the blocking element has at least one latching hook at the end and - in that one half of the holding frame has at least one cut-out in which the latching hook of the blocking element can engage, whereby the holding frame can be secured in an open position.
Process for the preparation of Esomeprazole -(-)-BINOL complex of formula: comprising the following steps: A. providing a mixture of the optical isomers of the compound of formula: wherein the chiral center is on the sulfur atom, in dichloromethane; B. adding to the mixture of the step A from 0.8 to 3.0 molar equivalents of -(-)-BINOL; C. adding an ethereal solvent containing from 5 to 10 atoms of carbon; D. stirring; E. isolating Esomeprazole -(-)-BINOL complex of formula. A. providing a mixture of the optical isomers of the compound of formula: wherein the chiral center is on the sulfur atom, in dichloromethane; B. adding to the mixture of the step A from 0.8 to 3.0 molar equivalents of -(-)-BINOL; C. adding an ethereal solvent containing from 5 to 10 atoms of carbon; D. stirring; E. isolating Esomeprazole -(-)-BINOL complex of formula.
A tap off box for use with a busbar trunking system comprising at least one conducting bar, the tap off box comprising: an inlet contact; a movable sheath for the inlet contact; and an electrical outlet in electrical communication with the inlet contact, wherein, when the tap off box is in a mounted position on the BTS, the inlet contact is biased towards electrical connection with the conducting bar and movement of the sheath to a first position breaks an electrical connection between the conducting bar and the electrical outlet, wherein the sheath acts against the inlet contact's bias when the sheath is in the first position to prevent electrical connection of the inlet contact with the conducting bar. an inlet contact; a movable sheath for the inlet contact; and an electrical outlet in electrical communication with the inlet contact, wherein, when the tap off box is in a mounted position on the BTS, the inlet contact is biased towards electrical connection with the conducting bar and movement of the sheath to a first position breaks an electrical connection between the conducting bar and the electrical outlet, wherein the sheath acts against the inlet contact's bias when the sheath is in the first position to prevent electrical connection of the inlet contact with the conducting bar.
A wireless communication method, comprising transmitting, by a network element that is a session management function, SMF, or a gateway, a N2 session request to a base station in a next generation radio access network, NG-RAN, via an access and mobility control function, AMF, wherein the N2 session request includes a Quality of Service, QoS, profile associated with a session establishment for Internet Protocol multimedia subsystem, IMS, voice; receiving, by said network element, information carried in a session response that is transmitted from said base station over an N2 interface via said AMF, wherein the session response indicates a handover of a session establishment for Internet Protocol multimedia subsystem IMS, voice to a node or a network that provides Long Term Evolution, LTE, communications; initiating, by the network element, a bearer establishment or a Quality of Service, QoS, flow establishment after the handover is completed.
A glass article having a thickness t, a center at t/2, and a compressive layer extending from a surface of the glass article to a depth of layer DOL of greater 0.1·t, where t is the thickness of the glass, the glass article having a maximum compressive stress CS of greater than 500 MPa at the surface, and a stress profile having a spike region extending from the surface to 30 μm below the surface, the stress profile in the spike region having a slope, the slope having an absolute value of greater than 20 MPa/μm; wherein the glass article has a tensile region under a physical center tension CT extending from the depth of layer or depth of compression to the center, wherein the physical center tension CT is greater than | -1.956×10 -16 × t 6 + 1.24274×10 -12 × t 5 - 3.09196×10 -9 × t 4 + 3.80391×10 -6 × t 3 -2.35207 × 10 -3 × t 2 + 5.96241×10 -1 × t + 36.5994 |; and wherein the glass article has: a. a total elastic energy normalized per thickness of the glass E total, wherein (E total /t(mm)) < 174.75 J/m 2 ·mm; and b. an elastic energy stored in the interior of the sample in tension normalized per thickness of the glass E interior, wherein (E irterior /t(mm)) < 30 J/m 2 ·mm. a. a total elastic energy normalized per thickness of the glass E total, wherein (E total /t(mm)) < 174.75 J/m 2 ·mm; and b. an elastic energy stored in the interior of the sample in tension normalized per thickness of the glass E interior, wherein (E irterior /t(mm)) < 30 J/m 2 ·mm.
Thermoplastic olefin elastomer crosslinked expanded beads, produced by crosslinking and expanding particles comprising a composition including the thermoplastic olefin elastomer as base polymer, having a content of a fraction insoluble in hot xylene of 10 to 40 wt%, and having a crystal structure such that a melting peak inherent in the thermoplastic olefin elastomer (inherent peak) and one or more melting peaks on a higher temperature side than the inherent peak (high temperature peak) appear on a DSC curve obtained by heating the crosslinked expanded beads from 23°C to 200°C at a heating rate of 10°C/min, wherein in the DSC curve, a total heat of melting is 40 to 60 J/g, and a ratio of a heat of melting of the high temperature peak to the total heat of melting is 0.15 to 0.6, and having an average value of cell diameter of 30 to 150 μm and a coefficient of variance of the cell diameter of 20% or less, and wherein the thermoplastic olefin elastomer has a type A durometer hardness of 65 to 90 measured with a type A durometer according to ASTM D2240-05, and wherein the content of a fraction insoluble in hot xylene, and the average value of cell diameter and its coefficient of variance are determined as described in the specification. having a content of a fraction insoluble in hot xylene of 10 to 40 wt%, and having a crystal structure such that a melting peak inherent in the thermoplastic olefin elastomer (inherent peak) and one or more melting peaks on a higher temperature side than the inherent peak (high temperature peak) appear on a DSC curve obtained by heating the crosslinked expanded beads from 23°C to 200°C at a heating rate of 10°C/min, wherein in the DSC curve, a total heat of melting is 40 to 60 J/g, and a ratio of a heat of melting of the high temperature peak to the total heat of melting is 0.15 to 0.6, and having an average value of cell diameter of 30 to 150 μm and a coefficient of variance of the cell diameter of 20% or less, and wherein the thermoplastic olefin elastomer has a type A durometer hardness of 65 to 90 measured with a type A durometer according to ASTM D2240-05,
A kit comprising a saleable single-use package containing: - a cassette, - a set of tubes, - an organ chair configured with a venous outflow sampler into which the organ chair funnels venous outflow; and - at least one connection device configured to allow connection of the set of tubes to at least one of an organ perfusion device, an organ transporter and an organ diagnostic device, the organ chair being - configured to be removable from the cassette, wherein the organ chair is configured to support an organ within said cassette while allowing effluent medical fluid to pass therethrough, and - constructed to be form fitting and thus corresponding to a specific type of organ, wherein the cassette is configured to be received by at least one of the organ perfusion device, the organ transporter and the organ diagnostic device, and includes openings configured to allow the set of tubes to be connected to the organ by way of openings, the openings being configured to allow the set of tubes to pass therethrough, wherein a bottom portion of the cassette is liquid-tight and configured to collect medical fluid that has passed through a perfused organ to form an organ bath, and the set of tubes comprising tubes being connectable to the organ to allow perfusion of the organ. - a cassette, - a set of tubes, - an organ chair configured with a venous outflow sampler into which the organ chair funnels venous outflow; and - at least one connection device configured to allow connection of the set of tubes to at least one of an organ perfusion device, an organ transporter and an organ diagnostic device, the organ chair being - configured to be removable from the cassette, wherein the organ chair is configured to support an organ within said cassette while allowing effluent medical fluid to pass therethrough, and - constructed to be form fitting and thus corresponding to a specific type of organ,
A method of making a vacuum insulating panel, the vacuum insulating panel comprising a first glass substrate, a second glass substrate, a plurality of spacers provided in a gap between at least the first and second glass substrates, and a seal provided at least partially between at least the first and second glass substrates, the seal comprising a first seal layer and a second seal layer; wherein the method comprises: providing first seal material for the first seal layer at a location at least partially between at least the first and second glass substrates; pre-heating the glass substrates, the first seal material, and the second seal layer, so as to cause at least one of (a) at least one of the glass substrates, (b) the second seal layer, and/or (c) the first seal material, to reach a pre-heat temperature, wherein the pre-heat temperature is from about 40-120 degrees C less than a melting point (Tm) of the first seal material, and within about 70 degrees C of a softening point (Ts) of the first seal material; after said pre-heating, laser heating the first seal material in order to fire and/or sinter the first seal material and form the first seal layer in a manner so that the first seal layer has a density of from about 2.8-4.0 g/cm 3, wherein said laser heating causes at least one of the first seal material and/or the second seal layer to reach a temperature above the melting point (Tm) of the first seal material for no more than about 5 seconds; and after forming the first seal layer, evacuating the gap to a pressure less than atmospheric pressure. providing first seal material for the first seal layer at a location at least partially between at least the first and second glass substrates; pre-heating the glass substrates, the first seal material, and the second seal layer, so as to cause at least one of (a) at least one of the glass substrates, (b) the second seal layer, and/or (c) the first seal material, to reach a pre-heat temperature, wherein the pre-heat temperature is from about 40-120 degrees C less than a melting point (Tm) of the first seal material, and within about 70 degrees C of a softening point (Ts) of the first seal material; after said pre-heating, laser heating the first seal material in order to fire and/or sinter the first seal material and form the first seal layer in a manner so that the first seal layer has a density of from about 2.8-4.0 g/cm 3, wherein said laser heating causes at least one of the first seal material and/or the second seal layer to reach a temperature above the melting point (Tm) of the first seal material for no more than about 5 seconds; and after forming the first seal layer, evacuating the gap to a pressure less than atmospheric pressure.
Small firing system for the combustion of solid fuels, having a gasification zone for generating combustion gas, and a combustion zone for combusting combustion gas, having a first fan for supplying primary air into the gasification zone, wherein the first fan is able to be feedback-controlled as a function of the desired output of the small firing system, and wherein there is a second fan for supplying secondary air into the combustion zone, characterized in that the second fan is able to be feedback-controlled as a function of a desired oxygen content in the exhaust air of the combustion zone, wherein there is an induced-draught fan for improved conveyance of exhaust gas.
Method for producing a tubular structural component for a motor vehicle, wherein first of all a metal plate is trimmed about its circumference and then, in at least one forming step, is deformed into a tubular body with edge-positioned contact regions located opposite one another and is formed by internal high-pressure forming to produce the tubular structural component, the contact regions being pressed tightly together during the internal high-pressure forming, characterised in that the tubular body is heated to above Ac3 before the internal high-pressure forming and is end-formed by internal high pressure to produce the structural component and then cooled and hardened in the moulding tool during the internal high-pressure forming.
Method for storage and for transport of polyamide granulate, comprising at least one amorphous or microcrystalline polyamide, whilst avoiding or reducing yellowing of moulded articles produced from the granulate, in which method the polyamide granulate is kept in a container with a barrier effect relative to oxygen and moisture, at least one oxygen absorber being provided in the container and producing an essentially oxygen-free atmosphere in the container, and wherein the container comprises at least one barrier layer.
Attachment device which is to be attached to a lifting vehicle, with a movable fork-toe device comprising at least two forks, with at least two devices to drive a lateral movement of the fork-toe device, comprising an enlarged field of vision without disturbing elements, each comprising at least one drive chain, in particular arranged for opposite movement, with the drive chain is assigned to a fork respectively each arranged with at least one oil motor by which the device is to be driven, the attachment being arranged in such a way that for a lateral rectified movement of the forks the oil motors of two units can be set up in parallel connection or for a lateral counter-directional adjustment of the forks the oil motors of two units can be set up in in series connection, in the case of series connection of the oil engines, a valve is specially arranged in the forklift vehicle to limit the built-up pressure in the oil engines, whereas in the case of parallel oil engines a hydraulic limit switch respectively is intended for oil engines, the device having at least one tensioning device, comprising at least one hydraulic piston, powered by oil from the oil engine attached to the fork, which keeps the drive chain at the specified tension, in particular the device having a pulley device on which the drive chain is to be deflected and which is to be clamped by the hydraulic piston.
A wireless transmit/receive unit, WTRU, comprising: a receiver configured to receive a plurality of TBs each TB allocated to a different spatial stream of a plurality of streams in a transmission time interval, TTI, wherein each TB is assigned to a particular HARQ process; a processor configured to: generate feedback comprising: (a) a channel quality indicator, CQI, for each different spatial stream, and (b) separate HARQ feedback for each TB of the plurality of TBs that is either a positive acknowledgement or a negative acknowledgment of each TB of the plurality of TBs received in the TTI, concatenate the separate HARQ feedback into a single packet in a predetermined sequence that is known to a transmitter of the plurality of TBs, and, based on the amount of the separate HARQ feedback for the plurality of TBs, select a coding scheme for the feedback; and a transmitter configured to transmit the feedback. a receiver configured to receive a plurality of TBs each TB allocated to a different spatial stream of a plurality of streams in a transmission time interval, TTI, wherein each TB is assigned to a particular HARQ process; a processor configured to: generate feedback comprising: (a) a channel quality indicator, CQI, for each different spatial stream, and (b) separate HARQ feedback for each TB of the plurality of TBs that is either a positive acknowledgement or a negative acknowledgment of each TB of the plurality of TBs received in the TTI, concatenate the separate HARQ feedback into a single packet in a predetermined sequence that is known to a transmitter of the plurality of TBs, and, based on the amount of the separate HARQ feedback for the plurality of TBs, select a coding scheme for the feedback; and generate feedback comprising: (a) a channel quality indicator, CQI, for each different spatial stream, and (b) separate HARQ feedback for each TB of the plurality of TBs that is either a positive acknowledgement or a negative acknowledgment of each TB of the plurality of TBs received in the TTI, concatenate the separate HARQ feedback into a single packet in a predetermined sequence that is known to a transmitter of the plurality of TBs, and, based on the amount of the separate HARQ feedback for the plurality of TBs, select a coding scheme for the feedback; and a transmitter configured to transmit the feedback.
Rotor for an electrical machine, having a rotor shaft which extends in an axial direction, and having a main body which is arranged concentrically around the rotor shaft and is fastened to the said rotor shaft in a rotationally fixed manner, wherein permanent magnets are embedded in the main body, and wherein the main body has collecting webs which adjoin the permanent magnets, characterized in that the permanent magnets, on their side which faces the rotor shaft, project beyond the collecting webs.
A brush belt (424, 524) for a planting unit having a seed meter and seed delivery system, comprising: a base member (426, 526) having first side with a traction surface and a second side that is opposite the first side, the first side having a mounting surface having a longitudinal axis, a first edge, and second edge, the first edge and the second edge being positioned on opposite sides of the mounting surface and extending parallel to the longitudinal axis; wherein a plurality of bristles, each of the bristles of the plurality of bristles having a first end that is proximal to the mounting surface and a second end distal thereto, the bristles being arranged in first bristle sections that have the first length and second bristle sections that have a second length, the first bristle sections and second bristle sections alternating in the direction of the longitudinal axis, wherein within each first bristle section, the first length is a minimum length and defines a trough point, the lengths of the bristles continuously decreasing from a first side to the trough point along the longitudinal axis and the lengths of the bristles continuously increasing from the trough point to a second side along the longitudinal axis, and within each second bristle section, the second length is a maximum length and defines a peak point, the lengths of the bristles continuously increasing from a first side to the peak point along the longitudinal axis and the lengths of the bristles of the second sections continuously decreasing from the peak point to a second side along the longitudinal axis. a base member (426, 526) having first side with a traction surface and a second side that is opposite the first side, the first side having a mounting surface having a longitudinal axis, a first edge, and second edge, the first edge and the second edge being positioned on opposite sides of the mounting surface and extending parallel to the longitudinal axis; wherein a plurality of bristles, each of the bristles of the plurality of bristles having a first end that is proximal to the mounting surface and a second end distal thereto, the bristles being arranged in first bristle sections that have the first length and second bristle sections that have a second length, the first bristle sections and second bristle sections alternating in the direction of the longitudinal axis, wherein within each first bristle section, the first length is a minimum length and defines a trough point, the lengths of the bristles continuously decreasing from a first side to the trough point along the longitudinal axis and the lengths of the bristles continuously increasing from the trough point to a second side along the longitudinal axis, and within each second bristle section, the second length is a maximum length and defines a peak point, the lengths of the bristles continuously increasing from a first side to the peak point along the longitudinal axis and the lengths of the bristles of the second sections continuously decreasing from the peak point to a second side along the longitudinal axis.