mhurhangee/ep-ind-claims huggingface dataset:
A mold apparatus for a slipform paver, the mold apparatus comprising: a front frame member; a rear frame member; at least one of the frame members including a mounting flange having a fastener opening and a drive access opening defined at least in part by the mounting flange; an adjustable height wear plate disposed below the front and rear frame members (108, 110); and at least one adjustable fastener assembly for height adjustment of the wear plate located inside the mold apparatus between the front frame member and the rear frame member and above the wear plate, the fastener assembly including: a threaded fastener attached to the wear plate and extending upward through the fastener opening of the mounting flange; a top nut attached to the threaded fastener above the mounting flange; and an adjusting nut attached to the threaded fastener below the mounting flange such that the adjusting nut is accessible from inside the mold apparatus through the drive access opening. a front frame member; a rear frame member; at least one of the frame members including a mounting flange having a fastener opening and a drive access opening defined at least in part by the mounting flange; an adjustable height wear plate disposed below the front and rear frame members (108, 110); and at least one adjustable fastener assembly for height adjustment of the wear plate located inside the mold apparatus between the front frame member and the rear frame member and above the wear plate, the fastener assembly including: a threaded fastener attached to the wear plate and extending upward through the fastener opening of the mounting flange; a top nut attached to the threaded fastener above the mounting flange; and an adjusting nut attached to the threaded fastener below the mounting flange such that the adjusting nut is accessible from inside the mold apparatus through the drive access opening. a threaded fastener attached to the wear plate and extending upward through the fastener opening of the mounting flange; a top nut attached to the threaded fastener above the mounting flange; and an adjusting nut attached to the threaded fastener below the mounting flange such that the adjusting nut is accessible from inside the mold apparatus through the drive access opening.
An electrostatic loudspeaker (100; 400) comprising: an electrically conductive backplane member (102; 402) having an array of through apertures (112; 412); a spacer member (104; 404) disposed over the backplane member (102; 402), the spacer member (104; 404) having an array of holes (114; 414) therethrough, the holes (114; 414) each having a maximum lateral dimension less than twice a minimum lateral dimension; and a flexible electrically conductive membrane (106; 406) disposed over the spacer member (104; 404); wherein the membrane (106:406) is bonded to a surface of the spacer member (104; 404) where the membrane (106:406) contacts the spacer member (104; 404) between the holes (114; 414), and wherein the backplane member (102; 402), the spacer member (104; 404) and the membrane (106; 406) are bonded together so as to introduce a pre-tension to the membrane (106; 406); and wherein the loudspeaker (100; 400) is arranged in use to apply an electrical potential which gives rise to an attractive electrostatic force between the backplane member (102; 402) and the membrane (106; 406), thereby to move portions (118; 418) of the membrane (106; 406) spanning said holes (114; 414) in the spacer member (104; 404) towards said backplane member (102; 402). an electrically conductive backplane member (102; 402) having an array of through apertures (112; 412); a spacer member (104; 404) disposed over the backplane member (102; 402), the spacer member (104; 404) having an array of holes (114; 414) therethrough, the holes (114; 414) each having a maximum lateral dimension less than twice a minimum lateral dimension; and a flexible electrically conductive membrane (106; 406) disposed over the spacer member (104; 404); wherein the membrane (106:406) is bonded to a surface of the spacer member (104; 404) where the membrane (106:406) contacts the spacer member (104; 404) between the holes (114; 414), and wherein the backplane member (102; 402), the spacer member (104; 404) and the membrane (106; 406) are bonded together so as to introduce a pre-tension to the membrane (106; 406); and wherein the loudspeaker (100; 400) is arranged in use to apply an electrical potential which gives rise to an attractive electrostatic force between the backplane member (102; 402) and the membrane (106; 406), thereby to move portions (118; 418) of the membrane (106; 406) spanning said holes (114; 414) in the spacer member (104; 404) towards said backplane member (102; 402).
A catalyst unit in the form of a cylindrical pellet having a length C and diameter D, wherein the exterior surface of the unit has two or more flutes running along its length, said cylinder having domed ends of lengths A and B such that (A+B+C)/D is in the range 0.50 to 2.00, and (A+B)/C is in the range 0.40 to 5.00.
A light guide plate comprising: an incident surface, to which light generated from a light source is incident, including a diffusive pattern which is convex with respect to a point inside the light guide plate and is formed in a round shape; an emitting surface, through which the light is emitted, including a first prism pattern; and an opposite surface, formed opposite to the emitting surface, the opposite surface including an incident area and a change area; characterized in that, the opposite surface includes: a second prism pattern disposed in the incident area and formed symmetrically to the first prism pattern; and a direction change pattern disposed in the change area and adapted to change the direction of the light toward the emitting surface. an incident surface, to which light generated from a light source is incident, including a diffusive pattern which is convex with respect to a point inside the light guide plate and is formed in a round shape; an emitting surface, through which the light is emitted, including a first prism pattern; and an opposite surface, formed opposite to the emitting surface, the opposite surface including an incident area and a change area; characterized in that, the opposite surface includes: a second prism pattern disposed in the incident area and formed symmetrically to the first prism pattern; and a direction change pattern disposed in the change area and adapted to change the direction of the light toward the emitting surface. a second prism pattern disposed in the incident area and formed symmetrically to the first prism pattern; and a direction change pattern disposed in the change area and adapted to change the direction of the light toward the emitting surface.
Household refrigeration device with a door, having a handle recess on at least one first lateral flank, and having a second handle recess (4, 5; 21) on a second lateral flank lying opposite the first lateral flank, characterised in that the handle recess (4, 5; 21) which is actually able to be used as a handle has a marking projecting above the lateral flank in order to identify this handle recess (4, 5; 21), wherein the marking is embodied as an insert part able to be inserted into the handle recess (4, 5; 21), said insert part being mounted on the handle recess (4, 5; 21) of the flank of the door facing away from a door hinge of the door in each case in order to make it immediately evident to a user on which flank he has to grip the door in order to open the latter, wherein the insert part is optionally mounted in the first or the second handle recess (4, 5; 21).
Catheter-deliverable apparatus comprising: a first expandable structure adapted to be positioned on a first side of a patient's body tissue structure edge; and a second expandable structure adapted to be positioned on a second side of the tissue structure edge, the first and second expandable structures being resiliently biased to diverge from one another so that, in use, the tissue structure edge can be received between the first and second expandable structures, wherein each of the first and second expandable structure is expandable from approximately a linear configuration to a configuration that includes two dimensions, i.e., a plane, and wherein the apparatus is characterized in that the resilient bias of the first and second structures to diverge urges the plane of the expanded first expandable structure to pivot away from the plane of the expanded second expandable structure in a third dimension that is generally perpendicular to the plane of at least one of the first and second expandable structures. a first expandable structure adapted to be positioned on a first side of a patient's body tissue structure edge; and a second expandable structure adapted to be positioned on a second side of the tissue structure edge, the first and second expandable structures being resiliently biased to diverge from one another so that, in use, the tissue structure edge can be received between the first and second expandable structures, wherein each of the first and second expandable structure is expandable from approximately a linear configuration to a configuration that includes two dimensions, i.e., a plane, and wherein the apparatus is characterized in that the resilient bias of the first and second structures to diverge urges the plane of the expanded first expandable structure to pivot away from the plane of the expanded second expandable structure in a third dimension that is generally perpendicular to the plane of at least one of the first and second expandable structures.
A communication device for handling a radio resource control, RRC, connection, comprising: at least one storage device; and at least one processing circuit, coupled to the at least one storage device, wherein the at least one storage device stores, and the at least one processing circuit is configured to execute instructions of: communicating with a base station, BS, in a first bandwidth part, BWP, at a first carrier; receiving a RRC Connection Release message from the BS, wherein the RRC Connection Release message configures the communication device to enter an IDLE state or an INACTIVE state; and camping on a second BWP at the first carrier; characterized in that the communication device is configured to determine to select the second BWP at the first carrier instead of the first BWP at the first carrier, when a synchronization signal block, SSB, and an essential system information block, SIB, are broadcast in the second BWP at the first carrier and no essential SIB or no SSB is broadcast in the first BWP at the first carrier. at least one storage device; and at least one processing circuit, coupled to the at least one storage device, wherein the at least one storage device stores, and the at least one processing circuit is configured to execute instructions of: communicating with a base station, BS, in a first bandwidth part, BWP, at a first carrier; receiving a RRC Connection Release message from the BS, wherein the RRC Connection Release message configures the communication device to enter an IDLE state or an INACTIVE state; and camping on a second BWP at the first carrier; communicating with a base station, BS, in a first bandwidth part, BWP, at a first carrier; receiving a RRC Connection Release message from the BS, wherein the RRC Connection Release message configures the communication device to enter an IDLE state or an INACTIVE state; and camping on a second BWP at the first carrier; characterized in that the communication device is configured to determine to select the second BWP at the first carrier instead of the first BWP at the first carrier, when a synchronization signal block, SSB, and an essential system information block, SIB, are broadcast in the second BWP at the first carrier and no essential SIB or no SSB is broadcast in the first BWP at the first carrier.
A surgical system, comprising: a driver having a proximal handle and a driver shaft extending therefrom, the driver having a lumen extending therethrough; a distal awl shaft and a proximal awl shaft separate from the distal awl shaft and movable proximally with respect to the distal awl shaft, the distal and proximal awl shafts being receivable in the lumen of the driver such that a portion of the distal awl shaft extends distally from a distal end of the driver shaft and the proximal awl shaft is disposed proximally to the distal awl shaft, wherein a distal end of the distal awl shaft is configured to initiate a hole in bone; and characterized in that the system further comprises a suture anchor having a lumen extending therethrough that removably receives the distal awl shaft, wherein a distal driver feature of the driver shaft is operably coupled to the suture anchor. a driver having a proximal handle and a driver shaft extending therefrom, the driver having a lumen extending therethrough; a distal awl shaft and a proximal awl shaft separate from the distal awl shaft and movable proximally with respect to the distal awl shaft, the distal and proximal awl shafts being receivable in the lumen of the driver such that a portion of the distal awl shaft extends distally from a distal end of the driver shaft and the proximal awl shaft is disposed proximally to the distal awl shaft, wherein a distal end of the distal awl shaft is configured to initiate a hole in bone; and characterized in that the system further comprises a suture anchor having a lumen extending therethrough that removably receives the distal awl shaft, wherein a distal driver feature of the driver shaft is operably coupled to the suture anchor.
A power amplifier configured to amplify a radio frequency signal and comprising an output circuit generating impedances at harmonic frequencies such that the power amplifier operates in a class C mode in a low output amplitude range and in a class F or inverse class F mode in a high output amplitude range, wherein the power amplifier comprises: a transistor configured to generate an output radio frequency signal; and the output circuit is connected to the transistor and configured to receive the output radio frequency signal and including impedances; wherein the output circuit comprises: a parallel resonator configured for blocking a fundamental frequency and connected between an emitter and a collector of the transistor, wherein the parallel resonator is connected to a resistor in series, and wherein a value of the resistor is within 10% of a resistance of a load, which load comprises a resistor (Rload) and is connected in series with a serial resonator, connected between the emitter of the transistor and the load, and the resistor (Rload) is connected in parallel with the parallel resonator and the resistor, at a maximum output power; and a first serial resonator configured for resonating at twice the fundamental frequency, connected in parallel with a capacitor between the emitter and the collector of the transistor. a transistor configured to generate an output radio frequency signal; and the output circuit is connected to the transistor and configured to receive the output radio frequency signal and including impedances; wherein the output circuit comprises: a parallel resonator configured for blocking a fundamental frequency and connected between an emitter and a collector of the transistor, wherein the parallel resonator is connected to a resistor in series, and wherein a value of the resistor is within 10% of a resistance of a load, which load comprises a resistor (Rload) and is connected in series with a serial resonator, connected between the emitter of the transistor and the load, and the resistor (Rload) is connected in parallel with the parallel resonator and the resistor, at a maximum output power; and a first serial resonator configured for resonating at twice the fundamental frequency, connected in parallel with a capacitor between the emitter and the collector of the transistor. a parallel resonator configured for blocking a fundamental frequency and connected between an emitter and a collector of the transistor, wherein the parallel resonator is connected to a resistor in series, and wherein a value of the resistor is within 10% of a resistance of a load, which load comprises a resistor (Rload) and is connected in series with a serial resonator, connected between the emitter of the transistor and the load, and the resistor (Rload) is connected in parallel with the parallel resonator and the resistor, at a maximum output power; and a first serial resonator configured for resonating at twice the fundamental frequency, connected in parallel with a capacitor between the emitter and the collector of the transistor.
A method for using a joint decoding engine in a wireless device, comprising: determining a first symbol stream and a second symbol stream in a received multiple input multiple output, MIMO, signal, a scaled channel estimate for a wireless transmission channel, and a scaled noise covariance of the MIMO signal; whitening the scaled channel estimate and the first symbol stream; performing max log maximum a posteriori, MLM, processing on the whitened first symbol stream to produce a first data stream; de-rate matching and turbo decoding the first data stream to produce a decoded first data stream; determining if a hard successive interference cancellation, SIC, feature or a soft-SIC feature is enabled in the MIMO signal and if the decoded first data stream passes a cyclic redundancy check, CRC; when the hard-SIC feature is enabled and the decoded first data stream passes the CRC, performing hard successive interference cancellation, SIC, on the second symbol stream to decode the second data stream; when the soft-SIC is enabled and independent on whether or not the decoded first data stream passes the CRC, performing soft-SIC on the second symbol stream to decode the second data stream; and when the hard-SIC feature is enabled and the decoded first data stream fails the CRC, whitening, performing max log maximum a posteriori, MLM, processing, de-rate matching, and turbo decoding the second symbol stream to produce a decoded second data stream. determining a first symbol stream and a second symbol stream in a received multiple input multiple output, MIMO, signal, a scaled channel estimate for a wireless transmission channel, and a scaled noise covariance of the MIMO signal; whitening the scaled channel estimate and the first symbol stream; performing max log maximum a posteriori, MLM, processing on the whitened first symbol stream to produce a first data stream; de-rate matching and turbo decoding the first data stream to produce a decoded first data stream; determining if a hard successive interference cancellation, SIC, feature or a soft-SIC feature is enabled in the MIMO signal and if the decoded first data stream passes a cyclic redundancy check, CRC; when the hard-SIC feature is enabled and the decoded first data stream passes the CRC, performing hard successive interference cancellation, SIC, on the second symbol stream to decode the second data stream; when the soft-SIC is enabled and independent on whether or not the decoded first data stream passes the CRC, performing soft-SIC on the second symbol stream to decode the second data stream; and when the hard-SIC feature is enabled and the decoded first data stream fails the CRC, whitening, performing max log maximum a posteriori, MLM, processing, de-rate matching, and turbo decoding the second symbol stream to produce a decoded second data stream.
A method, comprising: (a) collecting, by a first computer system, a peak value indicating a peak level of computer resource utilization in the first computer system; (b) selecting a bucket corresponding to the collected peak value from a first array of buckets, wherein each bucket from the array contains a count value providing a recorded history of how many times a particular level of computer resource utilization was observed; (c) incrementing the count value maintained in the selected bucket corresponding to the collected peak value; (d) repeating, iteratively, the operational acts described in paragraphs (a), (b), and (c) for a first period of time; and (e) generating a report based on the count values contained in the first array of buckets indicative of the levels of computer resource utilization realized during at least the first period of time and a threshold value such that the report indicates the number of times a particular resource utilization level was greater than the threshold value; wherein the count values in the first array of buckets and the number of times a particular computer resource utilization level was greater than the threshold value are used in generating a bill associated with the amount of computer resources utilized. (a) collecting, by a first computer system, a peak value indicating a peak level of computer resource utilization in the first computer system; (b) selecting a bucket corresponding to the collected peak value from a first array of buckets, wherein each bucket from the array contains a count value providing a recorded history of how many times a particular level of computer resource utilization was observed; (c) incrementing the count value maintained in the selected bucket corresponding to the collected peak value; (d) repeating, iteratively, the operational acts described in paragraphs (a), (b), and (c) for a first period of time; and (e) generating a report based on the count values contained in the first array of buckets indicative of the levels of computer resource utilization realized during at least the first period of time and a threshold value such that the report indicates the number of times a particular resource utilization level was greater than the threshold value;
A method for providing a filled thin walled, bottle-type plastic container, the method comprising: providing a closed or sealed plastic container with contents; holding or securing an upper/neck portion of said container; conveying the plastic container to a base unit, the base unit configured to engage or contact at least a portion of the base portion of the plastic container; and applying a force or pressure directed to urge the plastic container into engagement or contact with the base unit, thereby pressurizing the plastic container suitable to stabilize internal pressure, to urge the sidewalls of the container back into place and to increase a container strength; wherein the force or pressure directed to urge the plastic container into engagement or contact with the base unit is a generally downwardly directed force or pressure; and conducting energy, such as heat to at least a portion of the base portion of the plastic container when the base portion is in operative contact with the base unit. providing a closed or sealed plastic container with contents; holding or securing an upper/neck portion of said container; conveying the plastic container to a base unit, the base unit configured to engage or contact at least a portion of the base portion of the plastic container; and applying a force or pressure directed to urge the plastic container into engagement or contact with the base unit, thereby pressurizing the plastic container suitable to stabilize internal pressure, to urge the sidewalls of the container back into place and to increase a container strength; wherein the force or pressure directed to urge the plastic container into engagement or contact with the base unit is a generally downwardly directed force or pressure; and conducting energy, such as heat to at least a portion of the base portion of the plastic container when the base portion is in operative contact with the base unit.