mhurhangee/ep-ind-claims huggingface dataset:
A computer implemented method for optimization of a mobile network, the method comprising adjusting a proactive scheduling functionality in a target cell of the mobile network based on load in the target cell, wherein the proactive scheduling functionality is configured by a proactive scheduling parameter that defines a period of time over which an uplink connection is kept alive after sending the last bit of uplink data; characterized in that the method comprises responsive to the load in the target cell exceeding a first threshold, disabling the proactive scheduling functionality; responsive to the load in the target cell being below a second threshold, configuring the proactive scheduling parameter to a default value or gradually increasing the proactive scheduling parameter value; and responsive to the load in the target cell being between the first threshold and the second threshold, keeping the current proactive scheduling parameter value. adjusting a proactive scheduling functionality in a target cell of the mobile network based on load in the target cell, wherein the proactive scheduling functionality is configured by a proactive scheduling parameter that defines a period of time over which an uplink connection is kept alive after sending the last bit of uplink data; characterized in that the method comprises responsive to the load in the target cell exceeding a first threshold, disabling the proactive scheduling functionality; responsive to the load in the target cell being below a second threshold, configuring the proactive scheduling parameter to a default value or gradually increasing the proactive scheduling parameter value; and responsive to the load in the target cell being between the first threshold and the second threshold, keeping the current proactive scheduling parameter value.
A system for activating a down hole tool in a wellbore, the system comprising: a piston arranged about a base pipe and moveable from a first position to a second position for activating the down hole tool, the piston including a first piston side exposed to a first chamber, and a second piston side exposed to a second chamber, wherein the first and second chambers (114, 115) are defined at least in part by a retainer element which is arranged about the base pipe; and a rupture member having a first member side exposed to the first chamber and a second member side exposed to a third chamber defined by a housing arranged about the base pipe, the rupture member being configured to prevent fluid communication between the first chamber and the third chamber only until a pressure differential between the first chamber and the third chamber reaches a predetermined threshold value, at which point the rupture member ruptures and allows fluid communication between the first chamber and the third chamber, wherein when the pressure differential is below the threshold value and the rupture member is intact, the piston is in the first position, and wherein when the pressure differential reaches the threshold value and the rupture member ruptures, the piston moves within a chamber to the second position and activates the down hole tool. a piston arranged about a base pipe and moveable from a first position to a second position for activating the down hole tool, the piston including a first piston side exposed to a first chamber, and a second piston side exposed to a second chamber, wherein the first and second chambers (114, 115) are defined at least in part by a retainer element which is arranged about the base pipe; and a rupture member having a first member side exposed to the first chamber and a second member side exposed to a third chamber defined by a housing arranged about the base pipe, the rupture member being configured to prevent fluid communication between the first chamber and the third chamber only until a pressure differential between the first chamber and the third chamber reaches a predetermined threshold value, at which point the rupture member ruptures and allows fluid communication between the first chamber and the third chamber, wherein when the pressure differential is below the threshold value and the rupture member is intact, the piston is in the first position, and wherein when the pressure differential reaches the threshold value and the rupture member ruptures, the piston moves within a chamber to the second position and activates the down hole tool.
A terminal apparatus comprising: a division number calculating section configured to calculate, for each subframe, a division number based on a number of OFDM symbols available for an Enhanced PDCCH, EPDCCH, in a resource block pair and a number of resource elements, REs, used for reference signals in the resource block pair, the EPDCCH being mapped into a resource region defined in a data region of a subframe, which is available for a transmission of either of downlink control information and downlink data; a specifying section configured to set resource region candidates including at least one Control Channel Element, CCE, by dividing the resource block pair by the division number and to identify a search space formed of the plurality of resource region candidates set in the resource block pair based on an aggregation level; and a control information acquiring section configured to acquire the downlink control information by blind-decoding a received signal at the plurality of resource region candidates. a division number calculating section configured to calculate, for each subframe, a division number based on a number of OFDM symbols available for an Enhanced PDCCH, EPDCCH, in a resource block pair and a number of resource elements, REs, used for reference signals in the resource block pair, the EPDCCH being mapped into a resource region defined in a data region of a subframe, which is available for a transmission of either of downlink control information and downlink data; a specifying section configured to set resource region candidates including at least one Control Channel Element, CCE, by dividing the resource block pair by the division number and to identify a search space formed of the plurality of resource region candidates set in the resource block pair based on an aggregation level; and a control information acquiring section configured to acquire the downlink control information by blind-decoding a received signal at the plurality of resource region candidates.
A miter saw, comprising: a workpiece adjusting mechanism comprising: a table for supporting a workpiece to be cut by the miter saw; an engager for engaging the workpiece, the engager configured to move the workpiece with respect to the table; an actuator configured to control the engager to move the workpiece with respect to the table; a fence located on the table; wherein the engager is configured to move the workpiece in each of the directions right and left along and guided by the fence, (i) a recess defined, at least in part, by the table, wherein the engager extends through the recess in the table when the engager is in the engaged position and the engager is retracted into the recess when the engager is in the disengaged position; and/or: (ii) a recess defined, at least in part, by the fence, wherein the engager extends through the recess in the fence when the engager is in the engaged position and the engager is retracted into the recess when the engager is in the disengaged position. a workpiece adjusting mechanism comprising: a table for supporting a workpiece to be cut by the miter saw; an engager for engaging the workpiece, the engager configured to move the workpiece with respect to the table; an actuator configured to control the engager to move the workpiece with respect to the table; a fence located on the table; wherein a table for supporting a workpiece to be cut by the miter saw; an engager for engaging the workpiece, the engager configured to move the workpiece with respect to the table; an actuator configured to control the engager to move the workpiece with respect to the table; a fence located on the table; wherein the engager is configured to move the workpiece in each of the directions right and left along and guided by the fence, (i) a recess defined, at least in part, by the table, wherein the engager extends through the recess in the table when the engager is in the engaged position and the engager is retracted into the recess when the engager is in the disengaged position; and/or: (ii) a recess defined, at least in part, by the fence, wherein the engager extends through the recess in the fence when the engager is in the engaged position and the engager is retracted into the recess when the engager is in the disengaged position. (i) a recess defined, at least in part, by the table, wherein the engager extends through the recess in the table when the engager is in the engaged position and the engager is retracted into the recess when the engager is in the disengaged position; and/or: (ii) a recess defined, at least in part, by the fence, wherein the engager extends through the recess in the fence when the engager is in the engaged position and the engager is retracted into the recess when the engager is in the disengaged position.
A tire comprising at least a circular tire frame (17, 17A) formed of a thermoplastic resin material, the tire including a reinforcing cord member that is wound around an outer circumference of the tire frame (17, 17A) in a circumferential direction to form a reinforcing cord layer on the outer circumference of the tire frame (17, 17A), and the thermoplastic resin material including at least a polyester-based thermoplastic elastomer.
Pipe system with a first heating pipe system comprising a first end, which is connectable to a district heating network flow line transfer station and which comprises a second end that is connectable to a district heating network return flow transfer station, wherein the first heating pipe system comprises a first heat exchanger as heat transfer means, and via its primary side the first end of the heating pipe system is fluidly connected with the second end of the heating pipe system so that a first heat transfer medium can pass from the first end of the heating pipe system to the second end of the heating pipe system, and wherein the pipe system also includes a second heating pipe system, which is fluidly isolated from the first heating pipe system, wherein the second heating pipe system is fluidly connected to the first heat exchanger via its secondary side so that the second heating pipe system can be heated by heat from the first heating pipe system, and heat of the first heat transfer medium in the first heating pipe system can be extracted again in a pipe section, which fluidly connects the primary side of the first heat exchanger with the second end of the first heating pipe system, by a second heat exchanger to heat up the second heat transfer medium in the second heating pipe system even before the second heat transfer medium is heated up by the first heat exchanger, wherein the second heating pipe system comprises a heat transfer medium buffer reservoir for the second heat transfer medium, in which the second heat transfer medium can be heated by the second heat exchanger, wherein the first heat exchanger is arranged outside the heat transfer medium buffer reservoir, characterised in that a jet pump or an automatic mixing valve which comprises two inputs (25, 26) and an output and is designed to lower the temperature of the heat transfer medium before the entry into the first heat exchanger, wherein the first input is fluidly connected to the first end of the first heating pipe system, wherein the second input is fluidly connected to a heat transfer medium discharge opening of the first heat exchanger or with a pipe section between the first heat exchanger and the second end of the first heating pipe system, and wherein the output of the jet pump or the automatic mixing valve leads to a heat transfer medium inflow opening of the first heat exchanger.
A method of manufacturing a rod-type linear motor, comprising a magnet rod having a large number of magnetic poles arranged at given pitches along an axial direction, and a forcer having a through-hole into which the magnet rod is fitted and travels forward and backward relatively with respect to the magnet rod according to a supplied electric signal, wherein the forcer comprises a forcer housing having the through-hole defined therein, and coil members that are arranged on an inner peripheral surface of the through-hole of the forcer housing and are supplied with the electric signal, and wherein the forcer housing is formed by molding of an insulating nonmetallic inorganic material, the method comprising the steps of: preparing a base shaft having a diameter that is larger than the diameter of the magnet rod by an amount corresponding to a gap between an outer peripheral surface of the magnet rod and the inner peripheral surface of the coil members, inserting the base shaft and the coil members into a mold after the coil members are assembled in contact with the outer peripheral surface of the base shaft, wherein a pair of bearing support members into which the base shaft is closely fitted is disposed adjacent to both sides of the coil members; injecting the insulating nonmetallic inorganic material into a cavity of the mold to mold the forcer housing such that the bearing support members are integrated with the coil members and the forcer housing; extracting the base shaft from the coil members and the forcer housing to form a through-hole, fixing bearing bushes to the pair of bearing support members, respectively, and inserting the magnet rod (6a, 150a) into the through-hole, wherein the magnet rod is fitted into the bearing bushes so as to be movable forward and backward. preparing a base shaft having a diameter that is larger than the diameter of the magnet rod by an amount corresponding to a gap between an outer peripheral surface of the magnet rod and the inner peripheral surface of the coil members, inserting the base shaft and the coil members into a mold after the coil members are assembled in contact with the outer peripheral surface of the base shaft, wherein a pair of bearing support members into which the base shaft is closely fitted is disposed adjacent to both sides of the coil members; injecting the insulating nonmetallic inorganic material into a cavity of the mold to mold the forcer housing such that the bearing support members are integrated with the coil members and the forcer housing; extracting the base shaft from the coil members and the forcer housing to form a through-hole, fixing bearing bushes to the pair of bearing support members, respectively, and inserting the magnet rod (6a, 150a) into the through-hole, wherein the magnet rod is fitted into the bearing bushes so as to be movable forward and backward.
Infrared heater having at least one infrared emitter (2a, 2b, 2c) that is arranged in a housing, wherein the housing has a front plate, characterised in that at least three infrared emitters (2a, 2b, 2c) are provided, wherein a first infrared emitter is oriented parallel to the front plate and a second and a third infrared emitter (2a, 2c) are oriented at a slant relative to the front plate, wherein the infrared emitters (2a, 2b, 2c) have a planar emission surface and emit the major portion of the infrared radiation that occurs in the direction of the front plate.
A lithium battery comprising: - an anode comprising an active anode material - a cathode comprising an active cathode material comprising lithium nickel manganese cobalt oxide (LiNi x Co y Mn 1-x-y O 2) with each of x and y not including zero and x + y being smaller than 1 - a separator separating anode and cathode, and an electrolyte wherein the electrolyte comprises a solvent or solvent mixture and lithium hexafluorophosphate, characterized in that the electrolyte further comprises an urea-based electrolyte additive, wherein the urea-based electrolyte additive is (1H-imidazol-1-yl) (morpholino)methanone of formula 2 - an anode comprising an active anode material - a cathode comprising an active cathode material comprising lithium nickel manganese cobalt oxide (LiNi x Co y Mn 1-x-y O 2) with each of x and y not including zero and x + y being smaller than 1 - a separator separating anode and cathode, and an electrolyte wherein the electrolyte comprises a solvent or solvent mixture and lithium hexafluorophosphate, characterized in that
A cargo pallet cover having a main panel and a plurality of side panels extending therefrom, the main panel being adapted to overlie a load on a pallet in use and the side panels being adapted to hang down against the sides of the load, each side panel being attached to an adjacent side panel along adjacent edges to define a corner, the cargo pallet cover comprising at least one drainage panel to permit liquid to drain through the cargo pallet cover, characterised in that the or each drainage panel comprises a two-layer construction defining a drainage channel, with at least one inlet aperture on an outer layer and at least one outlet aperture on an inner layer, the inlet and outlet apertures (28, 30) being offset to restrict the passage of liquid therethrough when the drainage panels are in a substantially vertical position.
A blood pump, comprising a hollow body, in which an impeller with a blading is provided for producing an axial propulsion of the blood along the impeller, as well as an at least partly actively stabilised magnetic bearing device (15, 15', 16, 16', 17, 17', 18, 18'), wherein the impeller may be set into a rotation about a rotation axis of the impeller, with a motor stator, and wherein the hollow body comprises an inlet for the flow of blood into the hollow body in an inflow direction which is essentially parallel to the rotation axis, and an outlet for the outflow of the blood out of the hollow body in an outflow direction, further wherein on the upstream-side or the downstream-side of the impeller permanent magnet arrangements are provided and wherein the motor stator is located outside the hollow body, and that the blading is designed as a spiral and characterised in that the pump has only one actuator ring coil for actively stabilising the impeller in axial direction; and the outlet is arranged offset to the rotation axis of the impeller, for producing an outflow angle (a) between the inflow direction and the outflow direction, said angle being different from zero.
A flow cytometer of a blood analyzer, comprising: a transverse-electric laser diode configured to output a laser beam along an optical axis, the laser beam having a fast axis full width at half maximum (FWHM) divergence of from about 16 degrees to about 25 degrees; a flow cell; a quarter wave plate disposed along the optical axis between the TE laser diode and the flow cell, the QWP configured to circularly polarize the laser beam as it passes therethrough; a plurality of lenses disposed between the TE laser diode and the flow cell, the plurality of lenses cooperating to focus the laser beam at the flow cell; and a side scatter detector configured to detect side-scattered light from the flow cell at angles of about 50 degrees to about 120 degrees relative to the optical axis. a transverse-electric laser diode configured to output a laser beam along an optical axis, the laser beam having a fast axis full width at half maximum (FWHM) divergence of from about 16 degrees to about 25 degrees; a flow cell; a quarter wave plate disposed along the optical axis between the TE laser diode and the flow cell, the QWP configured to circularly polarize the laser beam as it passes therethrough; a plurality of lenses disposed between the TE laser diode and the flow cell, the plurality of lenses cooperating to focus the laser beam at the flow cell; and a side scatter detector configured to detect side-scattered light from the flow cell at angles of about 50 degrees to about 120 degrees relative to the optical axis.
A powder metallurgical alloy comprising, in weight percent: 3.0-6.0 Cr; 1.5-4.0 Mn 0.1-3.5 Co; 0.3-2.0 Zr; and balance substantially Al; wherein, in atomic percent content, Co divided by the sum (Cr + Mn) is less than or equal to 0.07; and, in weight percent, the total of all contents other than Al, Cr, Mn, Co, and Zr is not more than 5.0 and no individual elemental content other than Al, Cr, Mn, Co and Zr exceeds 2. 3.0-6.0 Cr; 1.5-4.0 Mn 0.1-3.5 Co; 0.3-2.0 Zr; and balance substantially Al;
An electrosurgical system comprising a generator for generating radio frequency power, and an electrosurgical instrument, the generator comprising; (i) a radio frequency output stage having at least a pair of radio frequency output lines, (ii) a power supply coupled to the output stage for supplying power to the output stage, the power being sufficient to effect the electrosurgical vaporisation of tissue; and (iii) a controller capable of varying a radio frequency signal supplied to the radio frequency output lines; the electrosurgical instrument comprising; an instrument shaft having a longitudinal axis and a distal end face, and an electrode assembly fixedly attached to one end of the shaft, the electrode assembly comprising a first bipolar electrode pair comprising a first tissue treatment electrode and a first return electrode electrically insulated therefrom by means of a first insulation member, and a second bipolar electrode pair comprising a second tissue treatment electrode and a second return electrode electrically insulated therefrom by means of a second insulation member, the first and second tissue treatment electrodes each having an exposed surface for treating tissue, the exposed surface of the first tissue treatment electrode being disposed on the end face of the shaft such as to be capable of treating tissue disposed on the longitudinal axis of the shaft, and the exposed surface of the second tissue treatment electrode being disposed on the shaft such as to be capable of treating tissue disposed laterally of the longitudinal axis of the shaft the first return electrode being located on the shaft such that it is diametrically opposite the second tissue treatment electrode; the system further including a switch means and a switching circuit operable in response to the switch means to vary the connections between the radio frequency output lines and the first and second tissue treatment electrodes such that, in a first configuration, the first tissue treatment electrode is placed in circuit with the first return electrode and not the second return electrode so as to treat tissue adjacent to the first electrode pair longitudinally of the shaft, and, in a second configuration, the second tissue treatment electrode is placed in circuit with the second return electrode so as to treat tissue adjacent to the second electrode pair laterally of the shaft, the system being such that at least the first tissue treatment electrode is capable of the vaporisation of tissue. (i) a radio frequency output stage having at least a pair of radio frequency output lines, (ii) a power supply coupled to the output stage for supplying power to the output stage, the power being sufficient to effect the electrosurgical vaporisation of tissue; and (iii) a controller capable of varying a radio frequency signal supplied to the radio frequency output lines;
Method for detecting a collapse of a working voltage (HV, AS) across an electrical component, which component is a capacitor, in which method the working voltage (HV, AS) is monitored for the crossing of a critical characteristic and a crossing is detected as a collapse, wherein a model voltage generated by a model circuit is used as critical characteristic, wherein an incipient drop in the working voltage (HV, AS) triggers the model voltage to start to drop.