mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a user equipment, UE, for wireless communication, comprising: monitoring, at a user-equipment, UE, for control information in each of a plurality of physical downlink control channels, PDCCHs, during a different one of a plurality of time intervals, wherein the PDCCHs contain the same control information that indicates a resource allocation within a respective one of the time intervals for receiving one of a plurality of physical downlink shared channels, PDSCHs, wherein data in each of the plurality of PDSCHs is the same; soft-combining the plurality of PDCCHs to decode the control information; decoding the control information based on the soft-combination of the plurality of PDCCHs; receiving each of the plurality of PDSCHs in a respective one of the plurality of time intervals based on the resource allocation, wherein each of the plurality of PDSCHs are encoded using a different redundancy version, RV, of the same data; determining an index corresponding to each of the RVs based on an indication from a node, wherein the plurality of PDSCHs are soft-combined based on the indices; decoding data within the plurality of PDSCHs based on the soft-combination of the plurality of PDSCHs; the method characterized in that the index corresponding to each of the RVs is modulated on a demodulation reference signal, DMRS, of a corresponding one of the plurality of PDSCHs. monitoring, at a user-equipment, UE, for control information in each of a plurality of physical downlink control channels, PDCCHs, during a different one of a plurality of time intervals, wherein the PDCCHs contain the same control information that indicates a resource allocation within a respective one of the time intervals for receiving one of a plurality of physical downlink shared channels, PDSCHs, wherein data in each of the plurality of PDSCHs is the same; soft-combining the plurality of PDCCHs to decode the control information; decoding the control information based on the soft-combination of the plurality of PDCCHs; receiving each of the plurality of PDSCHs in a respective one of the plurality of time intervals based on the resource allocation,
A battery comprising: a housing; an electrolyte disposed in the housing; an anode disposed in the housing; and a cathode disposed in the housing and comprising a cathode material comprising: a manganese oxide compound comprising birnessite-phase manganese dioxide (δ-MnO 2) wherein the birnessite-phase manganese dioxide (δ-MnO 2) has a layered nanostructure; a bismuth compound selected from the group consisting of elemental bismuth, bismuth oxide, and a bismuth salt, wherein the bismuth from the bismuth compound is incorporated within the layered nanostructure of the birnessite-phase manganese dioxide (δ-MnO 2); a copper compound selected from the group consisting of elemental copper, copper oxide, and a copper salt. a housing; an electrolyte disposed in the housing; an anode disposed in the housing; and a cathode disposed in the housing and comprising a cathode material comprising: a manganese oxide compound comprising birnessite-phase manganese dioxide (δ-MnO 2) wherein the birnessite-phase manganese dioxide (δ-MnO 2) has a layered nanostructure; a bismuth compound selected from the group consisting of elemental bismuth, bismuth oxide, and a bismuth salt, wherein the bismuth from the bismuth compound is incorporated within the layered nanostructure of the birnessite-phase manganese dioxide (δ-MnO 2); a copper compound selected from the group consisting of elemental copper, copper oxide, and a copper salt.
A battery module comprising: a battery cell stack including a plurality of battery cells stacked parallel to one another; and a heating/cooling composite fin interposed between adjacent ones of the plurality of battery cells, wherein the heating/cooling composite fin comprises: a compressive pad positioned between the adjacent battery cells; a plurality of cooling fins each positioned between the compressive pad and a respective one of the adjacent battery cells; and a plurality of heating films each positioned between the compressive pad and a respective one of the plurality of cooling fins, wherein the cooling fins are made of a high thermally conductive material, and wherein each of the plurality of heating films comprises a heating element configured to be connected to an external power source. a battery cell stack including a plurality of battery cells stacked parallel to one another; and a heating/cooling composite fin interposed between adjacent ones of the plurality of battery cells, wherein the heating/cooling composite fin comprises: a compressive pad positioned between the adjacent battery cells; a plurality of cooling fins each positioned between the compressive pad and a respective one of the adjacent battery cells; and a plurality of heating films each positioned between the compressive pad and a respective one of the plurality of cooling fins, wherein the cooling fins are made of a high thermally conductive material, and wherein each of the plurality of heating films comprises a heating element configured to be connected to an external power source.
A fault tolerant system, comprising: a primary virtual machine that is formed on a primary machine in which a primary hypervisor runs, and is configured to input virtual interrupt based on an external interrupt from the primary hypervisor to a primary guest OS; and a secondary virtual machine that is formed on a secondary machine in which a secondary hypervisor runs, and is configured to input the virtual interrupt to a secondary guest OS on the basis of timing information on the virtual interrupt transmitted from the primary virtual machine, wherein when inputting the virtual interrupt to the primary guest OS, the primary virtual machine is configured to suspend the primary guest OS, and to determine whether a suspension position is in a critical section, or not, the critical section being a section in a program that crashes a process when a plurality of processing is executed on a single resource at the same timing, and being a section where an exclusive control such as break instruction disablement is performed by the program, wherein if the primary virtual machine determines that the suspension position is not in the critical section, the primary virtual machine is configured to input the virtual interrupt at the suspension position, and wherein if the primary virtual machine determines that the suspension position is in the critical section, the primary virtual machine is configured to change the suspension position, and again to determine whether the suspension position is in the critical section, or not. a primary virtual machine that is formed on a primary machine in which a primary hypervisor runs, and is configured to input virtual interrupt based on an external interrupt from the primary hypervisor to a primary guest OS; and a secondary virtual machine that is formed on a secondary machine in which a secondary hypervisor runs, and is configured to input the virtual interrupt to a secondary guest OS on the basis of timing information on the virtual interrupt transmitted from the primary virtual machine, wherein when inputting the virtual interrupt to the primary guest OS, the primary virtual machine is configured to suspend the primary guest OS, and to determine whether a suspension position is in a critical section, or not, the critical section being a section in a program that crashes a process when a plurality of processing is executed on a single resource at the same timing, and being a section where an exclusive control such as break instruction disablement is performed by the program, wherein if the primary virtual machine determines that the suspension position is not in the critical section, the primary virtual machine is configured to input the virtual interrupt at the suspension position, and wherein if the primary virtual machine determines that the suspension position is in the critical section, the primary virtual machine is configured to change the suspension position, and again to determine whether the suspension position is in the critical section, or not.
Electricity-carrying cable in particular for overhead power lines, comprising at least one central composite rod made of matrix-impregnated fibers having a specific tensile stress greater than 0.4 MPa.m 3 /kg and at least one layer of interlocking conducting wires of aluminum or aluminum alloy and wrapped around the rod, wherein the ratio between the coefficient of thermal expansion of the conducting wires and that of the central rod is greater than three, wherein each of the mutually-interleaved conducting wires has a so-called upper face and a so-called lower face arranged on a circular geometric cylinder having the longitudinal axis (A-A) as the longitudinal axis of the cable and Rs and Ri as the radius, characterized in that the width of each conducting wire at the intersection of a circular geometrical cylinder with the same longitudinal axis (A-A) and radius (Rs + Ri) lies between 80 and 120% of the difference (Rs-Ri).
Converter element for receiving charged particles and generating photons in response for use in a sensor for sensing a characteristic of a plurality of charged particles beamlets, the converter element comprising a surface for receiving one or more charged particle beamlets, the surface being provided with one or more cells for evaluating one or more individual charged particle beamlets, each cell comprising a predetermined blocking pattern of one or more charged particle blocking structures forming multiple knife edges at transitions between blocking and non-blocking regions along a predetermined beamlet scan trajectory over the converter element surface, wherein the converter element surface is covered with a coating layer substantially permeable for charged particles and substantially impermeable for ambient light, characterized in that an electrically conductive layer is located between the coating layer and the charged particle blocking structures.
A deepwell plate system comprising a) a deepwell plate comprising a frame and 24 or 96 deepwells, wherein at least one well comprises at least one inner structure (26, 28) and b) a lid system, comprising at least one filter membrane and an outer cover, wherein the outer cover covers simultaneously all of the openings of the deepwells comprises a number of small holes according to the number of deepwells of the deepwell plate and includes at least one integrated lock element as a first locking portion, wherein said first locking portion can be detachably fitted to at least one second locking portion located on the frame of the deepwell plate, and wherein the first locking portion of the outer cover is a snap-fastening means (42, 44) and wherein the snap-fastening means (42, 44) comprises: at least a groove-like circumferential indentation as the first locking portion extending outwardly of the plate matching lower portion of the rim of the outer cover to be engaged with at least a complementary bulge-like circumferential protrusion as the second locking portion extending outwardly of the lid matching upper portion of the deepwell plate, wherein the engagement of the first locking portion and the second locking portion of the snap-fastening means (42, 44) sandwiches the at least one filter membrane between the outer cover and the outer surface of the frame of the deepwell plate so as to provide a liquid tight sealing of the deepwells and to allow gas exchange between the outside air and the inside of the deepwells through the at least one filter membrane. a) a deepwell plate comprising a frame and 24 or 96 deepwells, wherein at least one well comprises at least one inner structure (26, 28) and b) a lid system, comprising at least one filter membrane and an outer cover, wherein the outer cover covers simultaneously all of the openings of the deepwells comprises a number of small holes according to the number of deepwells of the deepwell plate and includes at least one integrated lock element as a first locking portion, wherein said first locking portion can be detachably fitted to at least one second locking portion located on the frame of the deepwell plate, and wherein the first locking portion of the outer cover is a snap-fastening means (42, 44) and wherein the snap-fastening means (42, 44) comprises: at least a groove-like circumferential indentation as the first locking portion extending outwardly of the plate matching lower portion of the rim of the outer cover to be engaged with at least a complementary bulge-like circumferential protrusion as the second locking portion extending outwardly of the lid matching upper portion of the deepwell plate, wherein the engagement of the first locking portion and the second locking portion of the snap-fastening means (42, 44) sandwiches the at least one filter membrane between the outer cover and the outer surface of the frame of the deepwell plate so as to provide a liquid tight sealing of the deepwells and to allow gas exchange between the outside air and the inside of the deepwells through the at least one filter membrane.
A cardiac diagnostic and therapeutic system, comprising: a display; and a processor, configured to: receive multiple electrophysiological signals acquired by multiple electrodes (16, 116) of a multi-electrode catheter (14, 114) that are in contact with tissue of a cardiac chamber; reject one or more of the EP signals using a set of rejection criteria, and further process the EP signals that are not rejected; and visualize to a user, on the display, (i) a current setting of the rejection criteria, and (ii) a rejection effectiveness of each of the rejection criteria at the current setting. a display; and a processor, configured to: receive multiple electrophysiological signals acquired by multiple electrodes (16, 116) of a multi-electrode catheter (14, 114) that are in contact with tissue of a cardiac chamber; reject one or more of the EP signals using a set of rejection criteria, and further process the EP signals that are not rejected; and visualize to a user, on the display, (i) a current setting of the rejection criteria, and (ii) a rejection effectiveness of each of the rejection criteria at the current setting. receive multiple electrophysiological signals acquired by multiple electrodes (16, 116) of a multi-electrode catheter (14, 114) that are in contact with tissue of a cardiac chamber; reject one or more of the EP signals using a set of rejection criteria, and further process the EP signals that are not rejected; and visualize to a user, on the display, (i) a current setting of the rejection criteria, and (ii) a rejection effectiveness of each of the rejection criteria at the current setting.
Retraction device, in particular for sliding elements, drawers or sliding doors, comprising a housing which receives a damping element, wherein the damping element comprises a piston rod to receive a piston which is guided to be displaceable in a damping cylinder, wherein the housing receives a coupling element which is displaceable between a retracted position and an extended position, wherein a tension spring is connected to the coupling element to tension the coupling element in the extended position in the direction of the retracted position, and wherein the piston rod is connected directly to the coupling element via a pivot bearing, wherein the coupling element is guided in a guide slot (12.2) of the housing, and wherein the pivot axis of the pivot bearing extends in the region of the guide slot (12.2), wherein the coupling element comprises a first and a second stop (25 and 24) spaced apart from each other, characterized in that - the second stop is supported by a spring element, and - the spring element may be deflected in an adjustment direction extending substantially in the pivoting direction of the coupling element. - the second stop is supported by a spring element, and - the spring element may be deflected in an adjustment direction extending substantially in the pivoting direction of the coupling element.
A continuous-flow reactor for treating wastewater with high-concentration of nitrogen and phosphorus, comprising a cylindrical coagulating crystallizer, a funnel-like baffle for protecting static settling and a conical crystallizing static settler, wherein the lower surface of the said cylindrical coagulating crystallizer is connected to the upper surface of the said conical crystallizing static settler; the said funnel-like baffle for protecting static settling is secured on the inner wall of the said cylindrical coagulating crystallizer, wherein the inclined plate settling zone of said continuous-flow reactor is designed in the form of a wall-attaching inclined plate settler, the side surface of which is secured on the outer wall of the said cylindrical coagulating crystallizer; at the lower part of the said cylindrical coagulating crystallizer exists a small opening that connects to the said wall-attaching inclined plate settler, the mapped surface of the small opening being rectangular; and, wherein a cylindrical influent protection weir with serrated slots is equipped at the upper part of the said cylindrical coagulating crystallizer; the lower part of said cylindrical influent protection weir with serrated slots is connected to the upper part of the said cylindrical coagulating crystallizer; and, wherein a wall-attaching effluent weir with serrated slots is equipped at the upper part of the said wall-attaching inclined plate settler; the side surface of the said wall-attaching effluent weir with serrated slots is secured on the outer wall of the said cylindrical coagulating crystallizer; the upper part of the said wall-attaching inclined plate settler is connected to the lower part of the said wall-attaching effluent weir with serrated slots.
A method for monitoring health of an Internet Protocol Television, IPTV, Network in a continuous manner, said method comprising of Metering (401, 402) each packet destined for an IPTV stream using a counter; Scanning (403, 404) said counter at a first predefined interval; Incrementing (405, 406) an impairment counter if said counter does not satisfy expected rate for said IPTV stream; and Scanning said impairment counter for health of said IPTV stream at a second predefined interval.
A microporous crystalline silicometallophosphate material designated MAPSO-64 having a three-dimensional framework of EO 2 -, PO 2 +, [M 2+ O 2] 2- and SiO 2 tetrahedral units and an empirical composition in the as synthesized and anhydrous basis expressed by an empirical formula of: R r M 2+ m EP x Si y O z where M is at least one divalent cation selected from the group consisting of alkaline earth and transition metals, "m" is the mole ratio of M to E and varies from 0.01 to 1.5, R is an organoammonium cation selected from the group of ethyltrimethylammonium (ETMA +), diethyldimethylammonium (DEDMA +) and mixtures thereof, "r" is the mole ratio of R to E and has a value of 0.1 to 2, E is an trivalent element selected from the group consisting of aluminum, gallium, iron, boron and mixtures thereof, "x" is the mole ratio of P to E and has a value of 0.5 to 2.5, "y" is the mole ratio of Si to E and varies from 0.01 to 1.0 and "z" is the mole ratio of O to E and has a value determined by the equation: z = 2 • m + r + 3 + 5 • x + 4 • y / 2 and is characterized in that it has the x-ray diffraction pattern having at least the d-spacings and intensities set forth in Table A: Table A 2Θ d(Å) I/I 0 6.810 - 6.61 12.98 - 13.34 m - vs 7.75 - 7.55 11.40 - 11.70 m - vs 13.36 - 13.14 6.62 - 6.73 w - m 13.51 - 13.32 6.55 - 6.64 w - m 14.98 - 14.68 5.91 - 6.03 w 15.51 - 15.34 5.71 - 5.77 w - m 18.99 - 18.79 4.67 - 4.72 w - m 20.26 - 20.07 4.38 - 4.42 w - m 21.50 - 21.24 4.13 - 4.18 w - s 24.10 - 23.84 3.69 - 3.73 w - m 24.30 - 24.03 3.66 - 3.70 w - m 24.57 - 24.23 3.62 - 3.67 w - m 26.83 - 26.51 3.32 - 3.36 w - m 27.59 - 27.42 3.23 - 3.25 w - m 27.86 - 27.59 3.20 - 3.23 w 28.68 - 28.49 3.11 - 3.13 w 28.87 - 28.59 3.09 - 3.12 w 30.06 - 29.76 2.97 - 3.00 w - m 30.27 - 29.96 2.95 - 2.98 w - m 31.03 - 30.70 2.88 - 2.91 w - m 33.80 - 33.54 2.65 - 2.67 w - m 34.06 - 33.80 2.63 - 2.65 w 35.60 - 35.31 2.52 - 2.54 w - m 36.65 - 36.34 2.45 - 2.47 w 38.44 - 38.10 2.34 - 2.36 w
A method for copying values of a table (200, 520, 710) of a database between a primary memory (110, 310, 510) and a secondary memory (120, 320, 520), wherein the table is organized in a plurality of stripes and a plurality of vertical partitions, wherein a stripe comprises at least two rows of the table and a vertical partition comprises one or more columns of the table, wherein the table is stored as a plurality of segments (30, 32a, 32b, 32c), wherein a segment comprises values at a cross-section of a stripe and a vertical partition, but comprises no values from at least one column of the table, and wherein a segment stores adjacent column values in adjacent locations of the primary or the secondary memory, the method comprising a step of selecting one or more segments and copying the one or more selected segments between the primary memory and the secondary memory, the primary memory is a volatile memory and the secondary memory is a persistent memory, characterized in that the method comprises - detecting a need for data eviction, - determining an extent of the needed data eviction, - selecting one or more segments to be evicted, - for each selected segment, determining whether the segment has been checkpointed, - for each selected segment that has not been checkpointed, copying the segment from the primary memory (110, 310, 510) to the secondary memory (120, 320, 520), and - deleting the selected segments from the primary memory (110, 310, 510) wherein the method is a checkpointing method for copying one or more changed segments from the primary memory of the database to the secondary memory and selecting the one or more segments to be evicted comprises: - selecting one or more least recently used segments, - selecting one or more full columns that are not likely to be used, and/or - selecting one or more segments based on a selection criterion that is based on an age of the data. - detecting a need for data eviction, - determining an extent of the needed data eviction, - selecting one or more segments to be evicted, - for each selected segment, determining whether the segment has been checkpointed, - for each selected segment that has not been checkpointed, copying the segment from the primary memory (110, 310, 510) to the secondary memory (120, 320, 520), and - deleting the selected segments from the primary memory (110, 310, 510) - selecting one or more least recently used segments, - selecting one or more full columns that are not likely to be used, and/or - selecting one or more segments based on a selection criterion that is based on an age of the data.
An axial air-gap rotary electric machine comprising a stator in which a plurality of core members having at least an iron core and a coil are arranged in an annular shape along an inner periphery surface of a housing around a rotation axis, and a rotator facing an end surface of the iron core with a predetermined air gap interposed in a rotation axis diameter direction, characterized in that the housing has a hole portion, in communication with an outside, provided in a surface of the housing facing the stator at a predetermined position in order to fix the stator to the housing in a desired position, and the stator has a resin mold portion integrally molded by filling resin into the hole portion and at least a side surface of the plurality of the core members which faces the inner periphery surface of the housing and the hole portion, such that the resin mold portion fixes the stator to the housing.