mhurhangee/ep-ind-claims huggingface dataset:
A material for organic electroluminescence device represented by the following formula (B-1): wherein R 3 and R 4 each independently represent a hydrogen atom inclusive of a heavy hydrogen atom, an alkyl group having 1 to 10 carbon atoms or an aryl group having 6 to 12 ring carbon atoms; Ar 4 is a naphthalene ring; Ar 5 is a benzene ring or a naphthalene ring; Ar 6 is a phenanthryl group, a benzophenanthryl group, a dibenzophenanthryl group, a chrysenyl group, a fluoranthenyl group, or a benzotriphenylene group; R 3, R 4, Ar 4, Ar 5 and Ar 6 each may be independently substituted; and each of Ar 5 and Ar 6 does not have an anthracene, pyrene, perylene, triphenylene, naphthacene and pentacene skeleton; or represented by the following formula (B-3): wherein R 3 and R 4 each independently represent a hydrogen atom inclusive of a heavy hydrogen atom, an alkyl group having 1 to 10 carbon atoms or an aryl group having 6 to 12 ring carbon atoms; Ar 4 is a naphthalene ring; Ar 5 is a phenanthrene ring, a benzophenanthrene ring, a dibenzophenanthrene ring, a chrysene ring, a fluoranthene ring, or a benzotriphenylene ring; Ar 6 is a hydrogen atom inclusive of a heavy hydrogen atom; R 3, R 4, Ar 4, and Ar 5 each may be independently substituted; and Ar 5 does not have an anthracene, pyrene, perylene, triphenylene, naphthacene and pentacene skeleton, provided that the material does not include the following compounds: R 3 and R 4 each independently represent a hydrogen atom inclusive of a heavy hydrogen atom, an alkyl group having 1 to 10 carbon atoms or an aryl group having 6 to 12 ring carbon atoms; Ar 4 is a naphthalene ring; Ar 5 is a benzene ring or a naphthalene ring; Ar 6 is a phenanthryl group, a benzophenanthryl group, a dibenzophenanthryl group, a chrysenyl group, a fluoranthenyl group, or a benzotriphenylene group; R 3, R 4, Ar 4, Ar 5 and Ar 6 each may be independently substituted; and each of Ar 5 and Ar 6 does not have an anthracene, pyrene, perylene, triphenylene, naphthacene and pentacene skeleton; R 3 and R 4 each independently represent a hydrogen atom inclusive of a heavy hydrogen atom, an alkyl group having 1 to 10 carbon atoms or an aryl group having 6 to 12 ring carbon atoms; Ar 4 is a naphthalene ring; Ar 5 is a phenanthrene ring, a benzophenanthrene ring, a dibenzophenanthrene ring, a chrysene ring, a fluoranthene ring, or a benzotriphenylene ring; Ar 6 is a hydrogen atom inclusive of a heavy hydrogen atom; R 3, R 4, Ar 4, and Ar 5 each may be independently substituted; and Ar 5 does not have an anthracene, pyrene, perylene, triphenylene, naphthacene and pentacene skeleton, provided that the material does not include the following compounds:
An imaging system comprising: a stirring-conveyance member (101, 200) to supply developer to a developing roller, wherein the stirring-conveyance member includes a spiral structure (101B, 101E) to convey the developer and a reverse spiral structure disposed adjacent to and downstream of the spiral structure in a conveying direction of the developer, wherein the reverse spiral structure is a continuous reverse spiral structure having a diameter corresponding to a maximum outer diameter at an upstream end in the conveying direction and corresponding to a minimum outer diameter at a downstream end in the conveying direction, wherein: the reverse spiral structure has a maximum outer diameter portion having a diameter corresponding to the maximum outer diameter, and a varying portion disposed adjacent to and downstream of the maximum outer diameter portion in the conveying direction; and the varying portion has a diameter corresponding to the maximum outer diameter at an upstream end in the conveying direction, and corresponding to the minimum outer diameter at a downstream end in the conveying direction, wherein the diameter of the varying portion gradually decreases from the maximum outer diameter to the minimum outer diameter, characterized wherein the maximum outer diameter portion has approximately 1.75 spiral turns and the varying portion has approximately 1.75 spiral turns. the reverse spiral structure has a maximum outer diameter portion having a diameter corresponding to the maximum outer diameter, and a varying portion disposed adjacent to and downstream of the maximum outer diameter portion in the conveying direction; and the varying portion has a diameter corresponding to the maximum outer diameter at an upstream end in the conveying direction, and corresponding to the minimum outer diameter at a downstream end in the conveying direction, wherein the diameter of the varying portion gradually decreases from the maximum outer diameter to the minimum outer diameter, characterized wherein the maximum outer diameter portion has approximately 1.75 spiral turns and the varying portion has approximately 1.75 spiral turns.
A method for keeping, by a user equipment, UE, a first dual connectivity, DC, configuration in a wireless communication system, the method comprising: receiving (S910, S1110) information for validation of a DC configuration, from a network, wherein the DC configuration includes the first DC configuration and a second DC configuration; determining (S920, S1120) whether or not the first DC configuration is valid in a radio resource control, RRC, resume procedure, based on the information for validation of the DC configuration; based on the first DC configuration that is valid, keeping (S930, S1130) the first DC configuration in an RRC resume procedure; and releasing the second DC configuration before initiating the RRC resume procedure. receiving (S910, S1110) information for validation of a DC configuration, from a network, wherein the DC configuration includes the first DC configuration and a second DC configuration; determining (S920, S1120) whether or not the first DC configuration is valid in a radio resource control, RRC, resume procedure, based on the information for validation of the DC configuration; based on the first DC configuration that is valid, keeping (S930, S1130) the first DC configuration in an RRC resume procedure; and releasing the second DC configuration before initiating the RRC resume procedure.
An electronic control device, comprising: a plurality of grounding terminals (Ta-, Tb-) provided to a plurality of grounds (Ga, Gb) in the device individually on a one-to-one basis; a grounding common portion for connecting a plurality of grounding points (Pa, Pb) provided to the plurality of grounds (Ga, Gb) individually on a one-to-one basis; a current detection unit configured to detect each of currents flowing between the plurality of grounding points (Pa, Pb) and the plurality of grounding terminals (Ta-, Tb-) provided for the plurality of grounding points (Pa, Pb) individually on a one-to-one basis; and a controller configured to detect a ground open condition for each of the plurality of grounds (Ga, Gb) by comparing a detection result obtained by the current detection unit with a determination value for determining the ground open condition. a plurality of grounding terminals (Ta-, Tb-) provided to a plurality of grounds (Ga, Gb) in the device individually on a one-to-one basis; a grounding common portion for connecting a plurality of grounding points (Pa, Pb) provided to the plurality of grounds (Ga, Gb) individually on a one-to-one basis; a current detection unit configured to detect each of currents flowing between the plurality of grounding points (Pa, Pb) and the plurality of grounding terminals (Ta-, Tb-) provided for the plurality of grounding points (Pa, Pb) individually on a one-to-one basis; and a controller configured to detect a ground open condition for each of the plurality of grounds (Ga, Gb) by comparing a detection result obtained by the current detection unit with a determination value for determining the ground open condition.
Terminal for an LTE Radio Access Network, the terminal being adapted for transmitting Uplink Control Information, UCI, wherein transmitting UCI comprises repeating the UCI for a number of Physical Uplink Control Channel, PUCCH, repetitions, the number of PUCCH repetitions in response to Msg4 being determined based on a Random Access CHannel Coverage Enhancement Level, RACH CE level, wherein the number of PUCCH repetitions in response to Msg4 are determined based on a mapping according to a Physical Random Access CHannel Coverage Enhancement Level, PRACH CE level, used in a last PRACH attempt as well as the maximum number of repetitions of the PUSCH carrying the RACH Msg3, wherein: in case PRACH CE level 0 or 1 is used for the last PRACH attempt, the number of repetitions are according to the following table: Max Number of repetitions of PUSCH in CE Mode A "Number of PUCCH repetitions" for PUCCH in response to Msg4 Max number of repetitions of PUSCH = 8, actual number of repetitions of PUSCH carrying Msg 3 is either 1 or 2 1 Max number of repetitions of PUSCH = 8, actual number of repetitions of PUSCH carrying Msg 3 is either 4 or 8 2 16 4 32 8 or in case PRACH CE level 2 or 3 is used for the last PRACH attempt, the number of repetitions are according to the following table: Max Number of repetitions of PUSCH in CE Mode B "Number of PUCCH repetitions" for PUCCH in response to Msg4 192, 256 4 384, 512 8 768, 1024 16 1536, 2048 32 in case PRACH CE level 0 or 1 is used for the last PRACH attempt, the number of repetitions are according to the following table: Max Number of repetitions of PUSCH in CE Mode A "Number of PUCCH repetitions" for PUCCH in response to Msg4 Max number of repetitions of PUSCH = 8, actual number of repetitions of PUSCH carrying Msg 3 is either 1 or 2 1 Max number of repetitions of PUSCH = 8, actual number of repetitions of PUSCH carrying Msg 3 is either 4 or 8 2 16 4 32 8 or in case PRACH CE level 2 or 3 is used for the last PRACH attempt, the number of repetitions are according to the following table: Max Number of repetitions of PUSCH in CE Mode B "Number of PUCCH repetitions" for PUCCH in response to Msg4 192, 256 4 384, 512 8 768, 1024 16 1536, 2048 32
Process for transformation of lignocellulosic biomass or cellulose into lactic acid, characterized in that it comprises putting the lignocellulosic biomass or cellulose in the presence of water into contact with a tungsten-based heterogeneous catalyst that is dispersed on an oxide-based substrate, with said catalyst having Lewis-type acid sites.
A beam shaping assembly configured to shape a neutron beam comprising: a moderator configured to moderate the neutrons to a preset energy spectrum; a reflecting assembly surrounding the moderator; wherein the reflecting assembly comprises reflectors configured to guide deflected neutrons back to the neutron beam to increase intensity of the neutrons in the preset energy spectrum and a supporting member configured to hold the reflectors; characterized in that the reflecting assembly further comprises a plurality of cells correspondingly forming a plurality of cores, each of the cells forms one of the cores, each of the cores has an accommodating space, the cores are connected to form the supporting member, and the reflectors are correspondingly disposed in the accommodating spaces of the cores. a moderator configured to moderate the neutrons to a preset energy spectrum; a reflecting assembly surrounding the moderator; wherein the reflecting assembly comprises reflectors configured to guide deflected neutrons back to the neutron beam to increase intensity of the neutrons in the preset energy spectrum and a supporting member configured to hold the reflectors; characterized in that the reflecting assembly further comprises a plurality of cells correspondingly forming a plurality of cores, each of the cells forms one of the cores, each of the cores has an accommodating space, the cores are connected to form the supporting member, and the reflectors are correspondingly disposed in the accommodating spaces of the cores.
Helicopter comprising a structural framework, at least one main rotor for lift and propulsion integral with said structural framework and a drive train for moving said main rotor comprising a power transmission gearbox and at least one main motor (12a, 12b), further comprising a plurality of booster power units (21a, 21b, 21c, 21d) fixed to said structural framework and configured to be able to supply extra lift to the helicopter in case of failure of the drive train of the helicopter, characterised in that each booster power unit (21a, 21b, 21c, 21d) is removably mounted on the structural framework.
A network device, comprising: a main control board and a service board, wherein the main control board comprises a processor and a switching chip, the service board comprises a physical layer component, and the physical layer component comprises multiple ports; the switching chip is connected to the physical layer component by using a system bus; the system bus consists of a serializer/deserializer, SerDes, link; the physical layer component is configured to separately insert, according to a predefined rule, first control information of the multiple ports into multiple first Ethernet packets received from the multiple ports, to obtain multiple first Ethernet packets inserted with control information; and multiplex, by using a preset multiplexing manner, the multiple first Ethernet packets inserted with control information, to obtain a multiplexed first Ethernet packet, wherein the preset multiplexing manner comprises: a time division multiplexing manner and a bit/byte interleaving manner; the system bus is configured to transmit the multiplexed first Ethernet packet; the switching chip is configured to demultiplex the multiplexed first Ethernet packet, to obtain the multiple first Ethernet packets inserted with control information; and extract, according to the predefined rule, the first control information from each first Ethernet packet inserted with control information, to obtain the multiple first Ethernet packets, and save the first control information of the multiple ports to a control register of the switching chip; and the processor is configured to control the multiple ports of the physical layer component by using the first control information in the control register of the switching chip.
A diffractive display element for displaying an image, comprising - a waveguide, - an in-coupling region for diffractively coupling an image into the waveguide body, - an out-coupling region for diffractively coupling the image out of the waveguide body, - an exit pupil expander region between the in-coupling region and out-coupling region for expanding the exit pupil of the image on the out-coupling region, characterized in that the EPE region comprises a plurality of diffractive zones arranged on a surface of a waveguide and a plurality of non-diffractive zones between the diffractive zones, and the EPE region comprises at least 10 different diffractive zones and at least 10 different non-diffractive zones positioned such that at least one first non-diffractive zone is positioned between two diffractive zones in a first direction and at least one second non-diffractive zone is positioned between two diffractive zones in a second direction orthogonal to the first direction. - a waveguide, - an in-coupling region for diffractively coupling an image into the waveguide body, - an out-coupling region for diffractively coupling the image out of the waveguide body, - an exit pupil expander region between the in-coupling region and out-coupling region for expanding the exit pupil of the image on the out-coupling region, characterized in that the EPE region comprises a plurality of diffractive zones arranged on a surface of a waveguide and a plurality of non-diffractive zones between the diffractive zones, and the EPE region comprises at least 10 different diffractive zones and at least 10 different non-diffractive zones positioned such that at least one first non-diffractive zone is positioned between two diffractive zones in a first direction and at least one second non-diffractive zone is positioned between two diffractive zones in a second direction orthogonal to the first direction.
Apparatus for liquefying at least one gas, comprising: - at least one inlet via which the pressurized gas can be introduced into the apparatus; - at least one countercurrent heat exchanger having at least one first channel that can be supplied with the pressurized gas via the inlet and through which gas flow is possible in a first direction, - at least one expansion nozzle into which the first channel opens, such that the gas that flows from the first channel into the expansion nozzle, flows through the expansion nozzle and flows out of the expansion nozzle is expandable by means of the expansion nozzle to form an aerosol comprising a gaseous phase and liquid droplets; - an aerosol breaker by means of which at least some of the droplets can be separated out of the gaseous phase; - a collecting region for gathering and collecting the droplets dripping off the aerosol breaker; and - a second channel of the countercurrent heat exchanger that surrounds the first channel, wherein flow of the gaseous phase flowing out of the expansion nozzle that has been decompressed and is colder compared to the gas through the second channel is possible in a second direction that is the opposite of the first direction and the second channel surrounds the first channel, characterized in that the apparatus is in one-piece form. - at least one inlet via which the pressurized gas can be introduced into the apparatus; - at least one countercurrent heat exchanger having at least one first channel that can be supplied with the pressurized gas via the inlet and through which gas flow is possible in a first direction, - at least one expansion nozzle into which the first channel opens, such that the gas that flows from the first channel into the expansion nozzle, flows through the expansion nozzle and flows out of the expansion nozzle is expandable by means of the expansion nozzle to form an aerosol comprising a gaseous phase and liquid droplets; - an aerosol breaker by means of which at least some of the droplets can be separated out of the gaseous phase; - a collecting region for gathering and collecting the droplets dripping off the aerosol breaker; and - a second channel of the countercurrent heat exchanger that surrounds the first channel, wherein flow of the gaseous phase flowing out of the expansion nozzle that has been decompressed and is colder compared to the gas through the second channel is possible in a second direction that is the opposite of the first direction and the second channel surrounds the first channel, characterized in that the apparatus is in one-piece form.
An image sensing apparatus which is able to detect a focus position of a lens, comprising: an image sensor including a plurality of pixel pairs (S HA, S HB, S VC, S VD), each pair performing photoelectric conversion on each pair of light beams (110 HA, 110 HB, 120 HA, 120 HB) that have passed through different regions of the lens and are incident on that pair, and configured to output an image signal pair for detecting the focus position; and a correction unit correcting a signal level of the image signal pair based on correction information (C(x ERR, y ERR)), wherein the correction information is generated from a light amount which changes in response to an image height and a production error which includes an alignment error (D ML) at a time of forming the image sensor, characterized in that the light amount is stored as exit pupil information (176, f(h)) and includes information regarding an exit pupil shape depending on an image height of each of focus detection pixel pairs (SHA, SHB, SHC and SHD), and the correction unit determines a ratio between exit pupil areas corresponding to respective pixels of each of the focus detection pixel pairs based on the exit pupil shape of each of the focus detection pixel pairs based on the correction information and image height (x, y) of each pixel, and corrects the image signal pair based on the determined ratio. a correction unit correcting a signal level of the image signal pair based on correction information (C(x ERR, y ERR)), wherein the correction information is generated from a light amount which changes in response to an image height and a production error which includes an alignment error (D ML) at a time of forming the image sensor, characterized in that the light amount is stored as exit pupil information (176, f(h)) and includes information regarding an exit pupil shape depending on an image height of each of focus detection pixel pairs (SHA, SHB, SHC and SHD), and the correction unit determines a ratio between exit pupil areas corresponding to respective pixels of each of the focus detection pixel pairs based on the exit pupil shape of each of the focus detection pixel pairs based on the correction information and image height (x, y) of each pixel, and corrects the image signal pair based on the determined ratio.
An apparatus, comprising: a position adjustment circuit configured to receive a gap setpoint and a gap feedback signal corresponding to a gap width between a pair of meshing gear teeth (52,72) of a first gear and a second gear, the position adjustment circuit further configured to output a gap adjustment signal corresponding to a difference between the gap setpoint and the gap feedback signal; and a motion control circuit configured to: provide a first speed demand signal to the first motor that drives the first gear and a second demand signal to the second motor that drives the second gear, characterised in that the motion control circuit is further configured to dynamically synchronize position between the pair of meshing gear teeth (52,72) such that the gap width between the pair of meshing gear teeth (52,72) is within a predetermined range of the gap setpoint by adjusting at least one of the first speed demand signal or the second speed demand signal based on the gap adjustment signal, wherein the gap width is in reference to a restriction in a backflow path and is greater than zero with no contact between the meshing gear teeth (52,72). a position adjustment circuit configured to receive a gap setpoint and a gap feedback signal corresponding to a gap width between a pair of meshing gear teeth (52,72) of a first gear and a second gear, the position adjustment circuit further configured to output a gap adjustment signal corresponding to a difference between the gap setpoint and the gap feedback signal; and a motion control circuit configured to: provide a first speed demand signal to the first motor that drives the first gear and a second demand signal to the second motor that drives the second gear, characterised in that the motion control circuit is further configured to dynamically synchronize position between the pair of meshing gear teeth (52,72) such that the gap width between the pair of meshing gear teeth (52,72) is within a predetermined range of the gap setpoint by adjusting at least one of the first speed demand signal or the second speed demand signal based on the gap adjustment signal, provide a first speed demand signal to the first motor that drives the first gear and a second demand signal to the second motor that drives the second gear, characterised in that the motion control circuit is further configured to dynamically synchronize position between the pair of meshing gear teeth (52,72) such that the gap width between the pair of meshing gear teeth (52,72) is within a predetermined range of the gap setpoint by adjusting at least one of the first speed demand signal or the second speed demand signal based on the gap adjustment signal, wherein the gap width is in reference to a restriction in a backflow path and is greater than zero with no contact between the meshing gear teeth (52,72).