mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless communication, the method being performed by a user equipment, UE, and comprising: receiving , during a predetermined time over an unlicensed radio frequency spectrum band, a transmission comprising a paging group indicator and an indication of a time window , wherein the unlicensed radio frequency spectrum band is a radio frequency spectrum band for which the UE needs to contend for access and wherein the predetermined time is a transmission period or a duration of a listen before talk, LBT, radio frame; and monitoring , based on the paging group indicator, the unlicensed radio frequency spectrum band during the time window ; and receiving, from a base station , during the time window , over the unlicensed radio frequency spectrum band, an asynchronous transmission of a paging message, wherein a start, an end, or a duration of the time window is not synchronized with a subframe structure of the unlicensed radio frequency spectrum band. receiving , during a predetermined time over an unlicensed radio frequency spectrum band, a transmission comprising a paging group indicator and an indication of a time window , wherein the unlicensed radio frequency spectrum band is a radio frequency spectrum band for which the UE needs to contend for access and wherein the predetermined time is a transmission period or a duration of a listen before talk, LBT, radio frame; and monitoring , based on the paging group indicator, the unlicensed radio frequency spectrum band during the time window ; and receiving, from a base station , during the time window , over the unlicensed radio frequency spectrum band, an asynchronous transmission of a paging message, wherein a start, an end, or a duration of the time window is not synchronized with a subframe structure of the unlicensed radio frequency spectrum band.
An uplink power control method, carried out by a base station, comprising: determining , by a base station according to a first quantity of accesses and a second quantity of accesses, whether to adjust a cell-level uplink power parameter, wherein the first quantity of accesses is a count of times that user equipments, UEs, within a coverage area of a cell of the base station access the cell by sending a random access preamble for one time, and the second quantity of accesses is a count of times that the UEs within the coverage area of the cell access the cell by sending a random access preamble for at least two times; and adjusting , by the base station when determining to adjust the cell-level uplink power parameter, the cell-level uplink power parameter; and sending , by the base station, an adjusted cell-level uplink power parameter to UE within the coverage area of the cell, so that the UE within the coverage area of the cell sends an uplink signal according to the adjusted cell-level uplink power parameter. determining , by a base station according to a first quantity of accesses and a second quantity of accesses, whether to adjust a cell-level uplink power parameter, wherein the first quantity of accesses is a count of times that user equipments, UEs, within a coverage area of a cell of the base station access the cell by sending a random access preamble for one time, and the second quantity of accesses is a count of times that the UEs within the coverage area of the cell access the cell by sending a random access preamble for at least two times; and adjusting , by the base station when determining to adjust the cell-level uplink power parameter, the cell-level uplink power parameter; and sending , by the base station, an adjusted cell-level uplink power parameter to UE within the coverage area of the cell, so that the UE within the coverage area of the cell sends an uplink signal according to the adjusted cell-level uplink power parameter.
Method for producing a panel of photovoltaic cells, comprising a step (1.8) for baking a stack of a plurality of layers comprising different materials, and a stacking step (1.6) comprising positioning of the following layers: - a translucent front layer (C1), - at least two layers (C2, C5) of dry glass fibre fabric, - at least two layers (C3, C6) of glass fibre fabric pre-impregnated with epoxy resin, - a layer of photovoltaic cells (C4), - a rear layer (C7), characterised in that the translucent front layer (C1) and the layer of photovoltaic cells are separated by a layer (C2, C5) of dry glass fibre fabric and a layer (C3, C6) of glass fibre fabric pre-impregnated with epoxy resin and in that the layer of photovoltaic cells (C4) and the rear layer are also separated by a layer (C2, C5) of dry glass fibre fabric and a layer (C3, C6) of glass fibre fabric pre-impregnated with epoxy resin. - a translucent front layer (C1), - at least two layers (C2, C5) of dry glass fibre fabric, - at least two layers (C3, C6) of glass fibre fabric pre-impregnated with epoxy resin, - a layer of photovoltaic cells (C4), - a rear layer (C7),
A mechanical resonant system (100a-c; 100) for continuously processing a combination of materials, the system comprising: a continuous process vessel (120a-c; 120) having an outlet and one or more inlets, the continuous process vessel configured to oscillate along an oscillation axis ; an acoustic agitator coupled (110a-c; 110) to the continuous process vessel, the acoustic agitator configured to oscillate the continuous process vessel along the oscillation axis; and an outlet passage (158a-c; 158) in fluid communication with the outlet, wherein at least a portion of the outlet passage (158a; 158c; 158) or at least a portion of the continuous process vessel (120b-c; 120) is disposed within a portion of the acoustic agitator wherein the continuous process vessel is fastened to the acoustic agitator, so that, in use, the acoustic agitator causes the continuous process vessel to oscillate along the oscillation axis parallel to a direction of fluid flow through the continuous process vessel with a peak-to-peak displacement of between 3mm and 38 mm (0.125 and 1.5 inches) inclusive, characterized in that : the acoustic agitator comprises a cavity extending through the agitator from a first surface to a second surface, and the at least a portion of the outlet passage (158a; 158c; 158) or the continuous process vessel (120b-c; 120) is disposed within a portion of the cavity . a continuous process vessel (120a-c; 120) having an outlet and one or more inlets, the continuous process vessel configured to oscillate along an oscillation axis ; an acoustic agitator coupled (110a-c; 110) to the continuous process vessel, the acoustic agitator configured to oscillate the continuous process vessel along the oscillation axis; and an outlet passage (158a-c; 158) in fluid communication with the outlet, wherein at least a portion of the outlet passage (158a; 158c; 158) or at least a portion of the continuous process vessel (120b-c; 120) is disposed within a portion of the acoustic agitator wherein the continuous process vessel is fastened to the acoustic agitator, so that, in use, the acoustic agitator causes the continuous process vessel to oscillate along the oscillation axis parallel to a direction of fluid flow through the continuous process vessel with a peak-to-peak displacement of between 3mm and 38 mm (0.125 and 1.5 inches) inclusive, characterized in that : the acoustic agitator comprises a cavity extending through the agitator from a first surface to a second surface, and the at least a portion of the outlet passage (158a; 158c; 158) or the continuous process vessel (120b-c; 120) is disposed within a portion of the cavity . the acoustic agitator comprises a cavity extending through the agitator from a first surface to a second surface, and the at least a portion of the outlet passage (158a; 158c; 158) or the continuous process vessel (120b-c; 120) is disposed within a portion of the cavity .
A display apparatus comprising: a display ; a communication interface configured to communicate with at least one other display apparatus; and a controller configured to: calculate position information of the display apparatus , receive position information including rotation information of the at least one other display apparatus through the communication interface , and output an output image signal to the display based on the position information of the display apparatus and the position information of the at least one other display apparatus characterized in that the controller is configured to receive a position information request signal from the at least one other display apparatus, wherein in response to the position information request signal being received, the controller is configured to output the position information of the display apparatus; wherein the controller is further configured, in response to a later position information request signal being received after a time when the position information request signal is received, to ignore the later position information request signal by not outputting the position information of the display apparatus and by outputting a null signal. a display ; a communication interface configured to communicate with at least one other display apparatus; and a controller configured to: calculate position information of the display apparatus , receive position information including rotation information of the at least one other display apparatus through the communication interface , and output an output image signal to the display based on the position information of the display apparatus and the position information of the at least one other display apparatus calculate position information of the display apparatus , receive position information including rotation information of the at least one other display apparatus through the communication interface , and output an output image signal to the display based on the position information of the display apparatus and the position information of the at least one other display apparatus characterized in that the controller is configured to receive a position information request signal from the at least one other display apparatus, wherein in response to the position information request signal being received, the controller is configured to output the position information of the display apparatus; wherein the controller is further configured, in response to a later position information request signal being received after a time when the position information request signal is received, to ignore the later position information request signal by not outputting the position information of the display apparatus and by outputting a null signal.
A method of making a solar cell assembly , comprising: placing backsides of multiple solar cells in contact with a substrate ; electrically connecting the solar cells to each other; and applying heat and pressure to the solar cells and the substrate to simultaneously impress the solar cells into the substrate and bond the solar cells to the substrate , wherein applying the heat and pressure to the solar cells and the substrate causes the solar cells to form recesses into the substrate that are simultaneously filled by the solar cells ; wherein the substrate comprises a composite structure including: first and second fabric layers coated in adhesive; and a center core layer disposed between the first and second fabric layers , wherein the center core layer includes a foam core and the adhesive is cured when applying the heat and the pressure. placing backsides of multiple solar cells in contact with a substrate ; electrically connecting the solar cells to each other; and applying heat and pressure to the solar cells and the substrate to simultaneously impress the solar cells into the substrate and bond the solar cells to the substrate , wherein applying the heat and pressure to the solar cells and the substrate causes the solar cells to form recesses into the substrate that are simultaneously filled by the solar cells ; wherein the substrate comprises a composite structure including: first and second fabric layers coated in adhesive; and a center core layer disposed between the first and second fabric layers , wherein the center core layer includes a foam core and the adhesive is cured when applying the heat and the pressure. first and second fabric layers coated in adhesive; and a center core layer disposed between the first and second fabric layers , wherein the center core layer includes a foam core and the adhesive is cured when applying the heat and the pressure.
A current leakage protection apparatus of a 2P2M electromagnetic residual current circuit breaker with overcurrent protection (RCBO), comprising a housing , wherein a current leakage tripping action mechanism and a test circuit mechanism are disposed in the housing ; the test circuit mechanism comprises a conductivity test torsion spring ; a hinging and linking shaft is hinged to a middle part of the conductivity test torsion spring , and one end of the hinging and linking shaft is fixed to the housing ; a test button is movably embedded in an upper part of the housing ; one end of the conductivity test torsion spring extends towards the test button and abuts against the test button ; the housing is provided with a linkage hole in a direction of a movable contact of the circuit breaker; the other end of the conductivity test torsion spring opposite to the end abutting against the test button is embedded in the linkage hole and extends towards an outer side of the linkage hole ; a test resistor is disposed under the test button on the housing , and the conductivity test torsion spring is intermittently conductively connected to the test resistor through the test button .
A jet fuel composition comprising: (a) a total aromatics content of from 2 vol. % to no more than 25 vol. %; (b) a net heat of combustion of at least 125,000 Btu/gal (44.4 MJ/kg); (c) a concentration of less than 5 vol. % of hydrocarbons having a boiling point greater than or equal to 550°F (288°C), as determined by ASTM D 2887; and (d) a Jet Fuel Thermal Oxidation Test (JFTOT) thermal stability characterized by a filter pressure drop of no more than 25 mm Hg, a breakpoint temperature greater than or equal to 300°C, and an overall tube deposit rating less than 3, as determined by ASTM D 3241; further comprising: a cycloparaffin content of from 22 vol. % to 35 vol. %, based on the total weight of the total paraffin content; a normal paraffin content of from 20 vol. % to 35 vol. %, based on the total weight of the total paraffin content; and an iso-paraffin content of from 22 vol. % to 35 vol. %, based on the total weight of the total paraffin content. (a) a total aromatics content of from 2 vol. % to no more than 25 vol. %; (b) a net heat of combustion of at least 125,000 Btu/gal (44.4 MJ/kg); (c) a concentration of less than 5 vol. % of hydrocarbons having a boiling point greater than or equal to 550°F (288°C), as determined by ASTM D 2887; and (d) a Jet Fuel Thermal Oxidation Test (JFTOT) thermal stability characterized by a filter pressure drop of no more than 25 mm Hg, a breakpoint temperature greater than or equal to 300°C, and an overall tube deposit rating less than 3, as determined by ASTM D 3241; further comprising: a cycloparaffin content of from 22 vol. % to 35 vol. %, based on the total weight of the total paraffin content; a normal paraffin content of from 20 vol. % to 35 vol. %, based on the total weight of the total paraffin content; and an iso-paraffin content of from 22 vol. % to 35 vol. %, based on the total weight of the total paraffin content. a cycloparaffin content of from 22 vol. % to 35 vol. %, based on the total weight of the total paraffin content; a normal paraffin content of from 20 vol. % to 35 vol. %, based on the total weight of the total paraffin content; and an iso-paraffin content of from 22 vol. % to 35 vol. %, based on the total weight of the total paraffin content.
A data processing method, comprising: determining a code block quantity C of a transport block and a code block group quantity K of the transport block, C and K are both positive integers; and determining, based on the code block quantity C of the transport block and the code block group quantity K of the transport block, code blocks comprised in a code block group in K code block groups of the transport block, wherein quantities of code blocks comprised in any two of the K code block groups are equal or have a difference of 1; characterized in that each of first K 1 code block groups in the K code block groups of the transport bloc comprises ⌈ C K ⌉ code blocks in C code blocks of the transport block, and each of last K 2 cod block groups comprises ⌊ C K ⌋ code blocks in the C code blocks, wherein K 1 and K 2 satisfy that K 1 +K 2 =K, and K 2 satisfies that K 2 = K × ⌈ C K ⌉ − C ; wherein a code block group K' in the first K 1 code block groups comprises the K ′ × ⌈ C K ⌉ th code block to the K ′ + 1 × ⌈ C K ⌉ − 1 th code block in the C code blocks, wherein 0 ≤ K' < K 1 . determining a code block quantity C of a transport block and a code block group quantity K of the transport block, C and K are both positive integers; and determining, based on the code block quantity C of the transport block and the code block group quantity K of the transport block, code blocks comprised in a code block group in K code block groups of the transport block, wherein quantities of code blocks comprised in any two of the K code block groups are equal or have a difference of 1; characterized in that each of first K 1 code block groups in the K code block groups of the transport bloc comprises ⌈ C K ⌉ code blocks in C code blocks of the transport block, and each of last K 2 cod block groups comprises ⌊ C K ⌋ code blocks in the C code blocks, wherein K 1 and K 2 satisfy that K 1 +K 2 =K, and K 2 satisfies that K 2 = K × ⌈ C K ⌉ − C ; wherein a code block group K' in the first K 1 code block groups comprises the K ′ × ⌈ C K ⌉ th code block to the K ′ + 1 × ⌈ C K ⌉ − 1 th code block in the C code blocks, wherein 0 ≤ K' < K 1 .
An information processing device for supporting construction of a network that is constituted by plural kinds of units , wherein the plural kinds of units include: an electric power supply unit configured to supply electric power to units connected downstream from the electric power supply unit , and a connected unit operating with a supply of electric power received from a unit upstream from the connected unit and having a function of supplying remaining electric power to a unit downstream from the connected unit , wherein the information processing device comprises: a memory portion configured to store an electric power consumed by the connected unit and an electric power that is suppliable by the electric power supply unit , a configuration portion for virtually configuring, in response to an input operation, a network including the connected unit and the electric power supply unit , a determination portion for determining, for each of the units included in the virtually configured network, whether there is an overage or shortage of electric power to be supplied to the unit , on the basis of the electric power that is suppliable by the electric power supply unit upstream from that unit , the electric power consumed by one or more connected units upstream from that unit , and the electric power consumed by that unit , and a display portion for displaying a state of the electric power supply for each of the units included in the virtually configured network, depending on a determination result determined by the determination portion . an electric power supply unit configured to supply electric power to units connected downstream from the electric power supply unit , and a connected unit operating with a supply of electric power received from a unit upstream from the connected unit and having a function of supplying remaining electric power to a unit downstream from the connected unit , a memory portion configured to store an electric power consumed by the connected unit and an electric power that is suppliable by the electric power supply unit , a configuration portion for virtually configuring, in response to an input operation, a network including the connected unit and the electric power supply unit , a determination portion for determining, for each of the units included in the virtually configured network, whether there is an overage or shortage of electric power to be supplied to the unit , on the basis of the electric power that is suppliable by the electric power supply unit upstream from that unit , the electric power consumed by one or more connected units upstream from that unit , and the electric power consumed by that unit , and a display portion for displaying a state of the electric power supply for each of the units included in the virtually configured network, depending on a determination result determined by the determination portion .
A charged particle beam device comprising: a detection chamber flange which airtightly seals a detection chamber ; a detector which is provided in the detection chamber ; a detector holding stand which holds the detector ; a first shaft which is slidably inserted into a guide hole and connected to the detector holding stand , the guide hole being provided in the detection chamber flange ; a first flange which is attached to the detection chamber flange and has a spherical bearing ; a second flange which is supported by the spherical bearing of the first flange ; and a second shaft which is slidably inserted into a guide hole provided in the second flange and passes through a through-hole provided in the detection chamber flange ; the second shaft being connected to the detector holding stand , each of the first shaft and the second shaft being provided with a flow channel configured for a heat transfer medium for cooling or heating the detector . a detection chamber flange which airtightly seals a detection chamber ; a detector which is provided in the detection chamber ; a detector holding stand which holds the detector ; a first shaft which is slidably inserted into a guide hole and connected to the detector holding stand , the guide hole being provided in the detection chamber flange ; a first flange which is attached to the detection chamber flange and has a spherical bearing ; a second flange which is supported by the spherical bearing of the first flange ; and a second shaft which is slidably inserted into a guide hole provided in the second flange and passes through a through-hole provided in the detection chamber flange ; the second shaft being connected to the detector holding stand , each of the first shaft and the second shaft being provided with a flow channel configured for a heat transfer medium for cooling or heating the detector .