mhurhangee/ep-ind-claims huggingface dataset:
A device for dynamically reducing interference for a multi-carrier communication receiver, wherein the device is configured to: calculate a set of channel estimates for a plurality of sub-carriers based on a plurality of pilot-symbols and/or data-symbols carried by said plurality of sub-carriers; calculate a set of equalizers for the plurality of sub-carriers based on the set of channel estimates; perform an equalization on a plurality of data-symbols using the set of equalizers for obtaining a plurality of equalized symbols; perform a soft-slicing or hard-slicing procedure comprising obtaining a plurality of estimated symbols based on the equalized symbols; calculate at least one diagonal-loaded interference-plus-noise covariance matrix, based on the set of estimated symbols, wherein the at least one diagonal-loaded interference-plus-noise covariance matrix is calculated by: calculating at least one interference-plus-noise covariance matrix based on the set of estimated symbols and adding a diagonal matrix to the at least one interference-plus-noise covariance matrix; de-map the plurality of data symbols to soft-bits, based on the at least one diagonal-loaded interference-plus-noise covariance matrix, the set of channel estimates or an updated version thereof; and feed the soft-bits to a channel decoder. calculate a set of channel estimates for a plurality of sub-carriers based on a plurality of pilot-symbols and/or data-symbols carried by said plurality of sub-carriers; calculate a set of equalizers for the plurality of sub-carriers based on the set of channel estimates; perform an equalization on a plurality of data-symbols using the set of equalizers for obtaining a plurality of equalized symbols; perform a soft-slicing or hard-slicing procedure comprising obtaining a plurality of estimated symbols based on the equalized symbols; calculate at least one diagonal-loaded interference-plus-noise covariance matrix, based on the set of estimated symbols, wherein the at least one diagonal-loaded interference-plus-noise covariance matrix is calculated by: calculating at least one interference-plus-noise covariance matrix based on the set of estimated symbols and adding a diagonal matrix to the at least one interference-plus-noise covariance matrix; de-map the plurality of data symbols to soft-bits, based on the at least one diagonal-loaded interference-plus-noise covariance matrix, the set of channel estimates or an updated version thereof; and feed the soft-bits to a channel decoder.
Modular support, particularly for the floor support of apparatuses and the like, comprising longitudinal members and crosspieces mutually coupled to form at least one grid structure resting on the ground, each of said longitudinal members comprising, along at least one of the lateral faces thereof, a continuous edge for supporting the ends of respective crosspieces, and a plurality of areas for selective connection with said ends of said crosspieces, each continuous edge of each longitudinal member of the support comprising a respective first flat portion orthogonal to the respective lateral face, and a second flat portion orthogonal to the first flat portion, each of the crosspieces further comprising, at each of the ends or even at only one of them, a transverse notch in which the second flat portion of one of the continuous edges of each of the longitudinal members is adapted to be fixed, characterised in that each of said crosspieces has transverse sections comprising a central region substantially shaped as an inverted U defining two opposite lateral walls extending with respective substantially U-shaped folded portions with concavity opposite to that of said central region, said transverse notch extending to said substantially U-shaped folded portions of each of said crosspieces.
A personal care device comprising a head portion having a driven treatment head; a handle portion having a drive unit for providing a motion having a motion direction; and a drive train extending between the drive unit and the driven treatment head for transmitting the motion from the drive unit to the driven treatment head, the drive train comprising a separable coupling; the separable coupling comprising a first coupling part having a first coupling element; a second coupling part having a second coupling element, the first and the second coupling elements (511A, 521A) being separably engaged with each other; and a resilient element biasing the first coupling element and the second coupling element against each other so that the first and second coupling elements (511A, 521A) are engaged in a gap-free manner along the motion direction; wherein the driven treatment head and the handle portion are arranged for being pivotable with respect to each other around at least a first pivot axis and the separable coupling is a separable universal joint. a head portion having a driven treatment head; a handle portion having a drive unit for providing a motion having a motion direction; and a drive train extending between the drive unit and the driven treatment head for transmitting the motion from the drive unit to the driven treatment head, the drive train comprising a separable coupling; the separable coupling comprising a first coupling part having a first coupling element; a second coupling part having a second coupling element, the first and the second coupling elements (511A, 521A) being separably engaged with each other; and a resilient element biasing the first coupling element and the second coupling element against each other so that the first and second coupling elements (511A, 521A) are engaged in a gap-free manner along the motion direction; a first coupling part having a first coupling element; a second coupling part having a second coupling element, the first and the second coupling elements (511A, 521A) being separably engaged with each other; and a resilient element biasing the first coupling element and the second coupling element against each other so that the first and second coupling elements (511A, 521A) are engaged in a gap-free manner along the motion direction; wherein the driven treatment head and the handle portion are arranged for being pivotable with respect to each other around at least a first pivot axis and the separable coupling is a separable universal joint.
A method for reducing power consumption of a memory system, comprising: determining whether a dynamic random access memory DRAM memory module with a low access frequency exists in the memory system; when a DRAM memory module with a low access frequency exists and a size of a working set in the memory system does not exceed a preset threshold of power consumption adjustment, transferring page data that does not belong to the working set to a non-volatile memory NVM memory module, wherein the page data that does not belong to the working set is page data that does not need to be accessed when a process runs within preset time; and recording a location mapping of the page data that does not belong to the working set before and after the transferring in a data location mapping table; wherein before the step of transferring page data that does not belong to the working set to an NVM memory module, the method further comprises: dividing the DRAM memory module into a high-performance DRAM area and a low-power consumption DRAM area according to the size of the working set; and transferring page data of the working set to the high-performance DRAM area. determining whether a dynamic random access memory DRAM memory module with a low access frequency exists in the memory system; when a DRAM memory module with a low access frequency exists and a size of a working set in the memory system does not exceed a preset threshold of power consumption adjustment, transferring page data that does not belong to the working set to a non-volatile memory NVM memory module, wherein the page data that does not belong to the working set is page data that does not need to be accessed when a process runs within preset time; and recording a location mapping of the page data that does not belong to the working set before and after the transferring in a data location mapping table; wherein before the step of transferring page data that does not belong to the working set to an NVM memory module, the method further comprises: dividing the DRAM memory module into a high-performance DRAM area and a low-power consumption DRAM area according to the size of the working set; and transferring page data of the working set to the high-performance DRAM area.
Bearing arrangement, designed as a rotary mounting with an axis of rotation, with two bearing partners (2, 3), with a rolling-bearing portion and with a magnetic-bearing portion, the magnetic-bearing portion having a first and a second magnetic region (8, 9) which are separated from one another by an intermediate gap, the rolling-bearing portion and the magnetic-bearing portion jointly mounting the two bearing partners (2, 3) movably with respect to one another, and with an actuator which is designed for controlling and/or regulating the intermediate gap, the actuator changing a gap width (d) of the intermediate gap, and the actuator having an actuator device, the first magnetic region being mechanically coupled to the first bearing partner designed as a rotor and the second magnetic region being mechanically coupled to the second bearing partner designed as a stator, and the second magnetic region having a second magnetic portion, characterized in that the second magnetic portion is arranged via the actuator devise on a carrier body of a stator or of the stator, and in that the actuator device is designed to displace the second magnetic portion or subregions thereof in or opposite to the direction of the axis of rotation, such that the gap width (d) of the intermediate gap is varied.
A method for in-basin neutralization in an endoscope reprocessor comprising a basin in fluid communication with a reservoir, wherein the endoscope reprocessor is for receiving an endoscope and for performing a treatment process on the endoscope, and wherein the basin has a first solution capacity and the reservoir has a second solution capacity larger than the first solution capacity, the method comprising: adding neutralizer to the basin in excess of an amount of neutralizer suitable to neutralize a treatment solution in the reservoir; adding a first portion of the treatment solution to the basin; contacting, in the basin, the neutralizer with the first portion of the treatment solution to form a secondary solution and neutralizing the first portion of the treatment solution with the neutralizer; removing a first portion of the secondary solution from the basin wherein a second portion of the secondary solution remains in the basin; adding a second portion of the treatment solution to the basin; and contacting, in the basin, the second portion of the treatment solution with the second portion of the secondary solution to form a tertiary solution and neutralizing the second portion of the treatment solution with neutralizer in the second portion of the secondary solution. adding neutralizer to the basin in excess of an amount of neutralizer suitable to neutralize a treatment solution in the reservoir; adding a first portion of the treatment solution to the basin; contacting, in the basin, the neutralizer with the first portion of the treatment solution to form a secondary solution and neutralizing the first portion of the treatment solution with the neutralizer; removing a first portion of the secondary solution from the basin wherein a second portion of the secondary solution remains in the basin; adding a second portion of the treatment solution to the basin; and contacting, in the basin, the second portion of the treatment solution with the second portion of the secondary solution to form a tertiary solution and neutralizing the second portion of the treatment solution with neutralizer in the second portion of the secondary solution.
A method for controlling the distortion exhibited by sub-pieces cut from glass sheets cut from a glass ribbon produced by a drawing process having a drawing rate, said glass having a setting zone parameter, hereinafter referred to as SZP, given by: η ⋅ Cooling Rate ⋅ °C - 1 E where E is the Young's modulus of the glass measured at room temperature in Pa, η is the viscosity of the glass in Pa.s as a function of temperature and the Cooling Rate in °C/s is determined between the softening point and the annealing point of the glass, said glass further having a setting zone temperature range, hereinafter referred to as SZTR, being the temperature range for which the SZP satisfies the relationship 2.7 ≤ SZP ≤ 55.8, said glass ribbon having a centerline, and said method comprising: (a) determining an across-the-ribbon shape for the ribbon at one or more longitudinal positions along the ribbon where the glass at the centerline of the ribbon has a temperature within the SZTR, and (b) producing an across-the-ribbon temperature distribution at one or more longitudinal positions along the ribbon based on at least one of the one or more across-the-ribbon shapes determined in step (a) so that a population of glass sheets cut from the ribbon has, for each sheet in the population, a maximum distortion of 2 microns for sub-pieces cut from the sheet, where each sheet in the population has an area greater than or equal to 0.25 square meters, wherein at least one of the one or more longitudinal positions of step (b) is a position at which the glass at the centerline of the ribbon has a temperature within the SZTR. (a) determining an across-the-ribbon shape for the ribbon at one or more longitudinal positions along the ribbon where the glass at the centerline of the ribbon has a temperature within the SZTR, and (b) producing an across-the-ribbon temperature distribution at one or more longitudinal positions along the ribbon based on at least one of the one or more across-the-ribbon shapes determined in step (a) so that a population of glass sheets cut from the ribbon has, for each sheet in the population, a maximum distortion of 2 microns for sub-pieces cut from the sheet, where each sheet in the population has an area greater than or equal to 0.25 square meters,
A method in an OFDMA system to determine a modulation and coding scheme to use for a packet of a certain size to be transmitted by a Mobile Station comprising the steps of: determining with a processing unit a number of time-frequency resources required to transmit the packet for a modulation and coding scheme; determining with the processing unit an SINR based on the number of time-frequency resources used and available power at the mobile station; determining with the processing unit a transmission rate as a ratio of the packet size transmitted to the number of time-frequency resources used; setting with the processing unit a rate to zero if the determined SINR is lower than a threshold SINR required for the modulation and coding scheme; and selecting with the processing unit the modulation and coding scheme with a highest transmission rate. determining with a processing unit a number of time-frequency resources required to transmit the packet for a modulation and coding scheme; determining with the processing unit an SINR based on the number of time-frequency resources used and available power at the mobile station; determining with the processing unit a transmission rate as a ratio of the packet size transmitted to the number of time-frequency resources used; setting with the processing unit a rate to zero if the determined SINR is lower than a threshold SINR required for the modulation and coding scheme; and selecting with the processing unit the modulation and coding scheme with a highest transmission rate.
Electrohydraulic control valve arrangement comprising a low pressure supply, a high pressure supply, a first magnetic valve, a second magnetic valve, a third magnetic valve, and a valve element that is displaceable in a first direction by a pressure in a first pressure chamber and in a second direction by a pressure in a second pressure chamber, wherein the first pressure chamber is connectable to the high pressure supply and to the low pressure supply, and wherein the second pressure chamber is connectable to the high pressure supply and to the low pressure supply, and wherein the first magnetic valve is connected to the first pressure chamber and the second magnetic valve is connected to the second pressure chamber, and wherein the third magnetic valve is connected to the high pressure supply and to the first magnetic valve and to the second magnetic valve, and wherein the first magnetic valve and the second magnetic valve are three-way valves and the first magnetic valve, the second magnetic valve and the third magnetic valve are all spring loaded valves characterized in that the three magnetic valves (1, 17, 18) are identical valves, wherein a fluid path to the high pressure supply is blocked in all three magnetic valves (16, 17, 18) in their respective normal positions.
A centering cone (2, 11, 16) for fixing a container, in particular a container standing on a centering plate, and for supplying clean air into the container through an air outlet (15, 19) of the centering cone (2, 11, 16) so as to increase the internal pressure of the container, characterized in that the air outlet (15, 19) is defined by a passage opening with a screen, or the air outlet (15, 19) is defined by at least two individual passage openings. the air outlet (15, 19) is defined by a passage opening with a screen, or the air outlet (15, 19) is defined by at least two individual passage openings.
A projection system (10, 20, 30, 40, 50, 60, 70, 80,110, 121, 131) comprising, a laser source which is configurable to project light; a light diffusing means which can diffuse light; wherein the laser source and the light diffusing means are arranged to be in optical communication along an optical path; wherein the projection system further comprises a telecentric optical component which is disposed along said optical path between the laser source and the light diffusing means, so that the a telecentric optical component receives light projected from the laser source and outputs parallel light rays to the diffusing means characterized in that the projection system further comprises a head-up display screen which comprises a curved semi-transparent semi-reflective component which is arranged to receive light which has been outputted from the light diffusing means, so that a virtual image is displayed.
Use of a compound of Formula, wherein:- R 1 is selected from the group consisting of halogen, methyl and C 1 -haloalkyl; R 2 is hydrogen or C 1 -C 6 alkyl; and n = 0, 1, 2, 3, 4 or 5. or an agronomically acceptable salt of said compound, as a herbicide. R 1 is selected from the group consisting of halogen, methyl and C 1 -haloalkyl; R 2 is hydrogen or C 1 -C 6 alkyl; and n = 0, 1, 2, 3, 4 or 5. or an agronomically acceptable salt of said compound, as a herbicide.
A sheet processing machine for storing sheets transported by a transport unit, the sheet processing machine comprising: a reel on which a first end side of a tape (43; 43a; 43b) is wound; a first stepper motor for rotating the reel about a rotation axis of the reel; a drum for winding up a second end side of the tape (43; 43a; 43b) together with the sheets to form a winding body together with the tape (43; 43a; 43b) and the sheets; a second stepper motor for rotating the drum about a rotation axis of the drum; and a control unit for changing an interval between the sheets wound on the drum by controlling rotation of the first stepper motor and the second stepper motor based on a parameter indicating a condition of the winding body; characterized in that the control unit reduces a winding speed of the winding body from a first winding speed to a second winding speed and then increases the winding speed from the second winding speed to the first winding speed, between winding one of the sheets and winding next one of the sheets. a reel on which a first end side of a tape (43; 43a; 43b) is wound; a first stepper motor for rotating the reel about a rotation axis of the reel; a drum for winding up a second end side of the tape (43; 43a; 43b) together with the sheets to form a winding body together with the tape (43; 43a; 43b) and the sheets; a second stepper motor for rotating the drum about a rotation axis of the drum; and a control unit for changing an interval between the sheets wound on the drum by controlling rotation of the first stepper motor and the second stepper motor based on a parameter indicating a condition of the winding body; characterized in that the control unit reduces a winding speed of the winding body from a first winding speed to a second winding speed and then increases the winding speed from the second winding speed to the first winding speed, between winding one of the sheets and winding next one of the sheets.
A solid-electrolyte secondary battery, comprising: a positive electrode; a negative electrode; and a solid-electrolyte provided between the electrodes; the solid-electrolyte containing as a matrix polymer a fluorocarbon polymer of 550,000 or more in weight-average molecular weight, detected by gel-permeation chromatography, wherein the matrix polymer contains 30% or more by weight of the fluorocarbon polymer of 550,000 or more in weight-average molecular weight, and wherein the fluorocarbon polymer is at least either polyvinylidene fluoride, polyvinylidene fluoride/hexafluoropropylene copolymer, vinylidene, fluoride/tetrafluoroethylene copolymer or vinylidene fluoride / trifluoroethylene copolymer. a positive electrode; a negative electrode; and a solid-electrolyte provided between the electrodes; the solid-electrolyte containing as a matrix polymer a fluorocarbon polymer of 550,000 or more in weight-average molecular weight, detected by gel-permeation chromatography, wherein the matrix polymer contains 30% or more by weight of the fluorocarbon polymer of 550,000 or more in weight-average molecular weight, and wherein the fluorocarbon polymer is at least either polyvinylidene fluoride, polyvinylidene fluoride/hexafluoropropylene copolymer, vinylidene, fluoride/tetrafluoroethylene copolymer or vinylidene fluoride / trifluoroethylene copolymer.
A rotating machine part with a damped vibration damping device composed of an additional mass and an additional spring/damping system; the vibration damping device is accommodated in a concentric cavity of the machine part, the additional mass is centrally positioned, and the additional spring/damping system is composed of at least one elastically damping layer, which is positioned concentrically between the additional mass and the machine part that adjoins the cavity, characterized in that the additional mass has a variable outer circumference.