mhurhangee/patent-ind-claim-en huggingface dataset:
An article reversing/discharging box that is reversed by a forklift to discharge an accommodated article, the article reversing/discharging box comprising: a box main body that accommodates the article; hook members that are provided facing the box main body and have insertion holes through which forks of the forklift are inserted; and a reversing mechanism capable of reversing the box main body , wherein the box main body includes a bottom surface having a flat surface shape, a first wall surface provided upright on an outer periphery of the bottom surface , and a second wall surface provided upright on an outer periphery of the bottom surface facing the first wall surface, the hook members include fixed hook members , and a movable hook member , the reversing mechanism includes a bottom plate integrally extending from a lower end of the movable hook member along the bottom surface , and a reversing member provided at a distal end portion of the bottom plate , and when the forks are inserted into the insertion holes of the movable hook member and the forks are removed from the insertion holes of the fixed hook members , the box main body is turnable about the distal end portion of the bottom plate by the reversing member , characterized in that the hook members have the insertion holes above the box main body , and the fixed hook members are fixed to the second wall surface, and the movable hook member is provided on the first wall surface and extends upward from a lower end of the box main body along the first wall surface. a box main body that accommodates the article; hook members that are provided facing the box main body and have insertion holes through which forks of the forklift are inserted; and a reversing mechanism capable of reversing the box main body , wherein the box main body includes a bottom surface having a flat surface shape, a first wall surface provided upright on an outer periphery of the bottom surface , and a second wall surface provided upright on an outer periphery of the bottom surface facing the first wall surface, the hook members include fixed hook members , and a movable hook member , the reversing mechanism includes a bottom plate integrally extending from a lower end of the movable hook member along the bottom surface , and a reversing member provided at a distal end portion of the bottom plate , and when the forks are inserted into the insertion holes of the movable hook member and the forks are removed from the insertion holes of the fixed hook members , the box main body is turnable about the distal end portion of the bottom plate by the reversing member , characterized in that the hook members have the insertion holes above the box main body , and the fixed hook members are fixed to the second wall surface, and the movable hook member is provided on the first wall surface and extends upward from a lower end of the box main body along the first wall surface.
Camera arm of a camera-based mirror substitute system for a motor vehicle, comprising a first structural element for connecting the camera arm to a motor vehicle and a second structural element , which comprises at least one camera , wherein the camera arm furthermore comprises a variable-volume fluid vessel , which connects the first structural element and the second structural element to one another directly or by way of one or more intermediary elements, in such a way that the second structural element can be moved relative to the first structural element by virtue of the amount of fluid located in the fluid vessel being changed, characterized in that the camera arm furthermore comprises at least one restoring element , which connects the first structural element and the second structural element to one another directly or by way of one or more intermediary elements and pulls the second structural element in the direction of the first structural element , and in that the fluid vessel comprises a rolling bellows or is embodied substantially in the form of a rolling bellows.
An air spring system for a vehicle , the air spring system comprising: a plurality of air springs , wherein each of the plurality of air springs is disposed to correspond to a suspension of the vehicle and has a first air port and a second air port ; an air supply pipeline ; a pressure accumulator disposed on the air supply pipeline and configured to supply air pressure to each of the plurality of air springs through the first air port and the second air port of the air spring ; and a plurality of multi-way valves configured to connect the plurality of air springs with the air supply pipeline and corresponding to the plurality of air springs in one-to-one correspondence, wherein for each of the plurality of multi-way valves , when the multi-way valve is in a first state, the first air port of one of the plurality of air springs corresponding to the multi-way valve is connected to the air supply pipeline through the multi-way valve, the second air port of the air spring is connected to the atmosphere through the multi-way valve, and the air spring ascends under air supply of the pressure accumulator ; and when the multi-way valve is in a second state, the first air port of the air spring corresponding to the multi-way valve is connected to the atmosphere through the multi-way valve, the second air port of the air spring is connected to the air supply pipeline through the multi-way valve, and the air spring descends under air supply of the pressure accumulator . a plurality of air springs , wherein each of the plurality of air springs is disposed to correspond to a suspension of the vehicle and has a first air port and a second air port ; an air supply pipeline ; a pressure accumulator disposed on the air supply pipeline and configured to supply air pressure to each of the plurality of air springs through the first air port and the second air port of the air spring ; and a plurality of multi-way valves configured to connect the plurality of air springs with the air supply pipeline and corresponding to the plurality of air springs in one-to-one correspondence, wherein for each of the plurality of multi-way valves , when the multi-way valve is in a first state, the first air port of one of the plurality of air springs corresponding to the multi-way valve is connected to the air supply pipeline through the multi-way valve, the second air port of the air spring is connected to the atmosphere through the multi-way valve, and the air spring ascends under air supply of the pressure accumulator ; and when the multi-way valve is in a second state, the first air port of the air spring corresponding to the multi-way valve is connected to the atmosphere through the multi-way valve, the second air port of the air spring is connected to the air supply pipeline through the multi-way valve, and the air spring descends under air supply of the pressure accumulator .
A communication method, comprising: receiving, by an access and mobility management function network element in a first Public Land Mobile Network, PLMN, updated subscribed network slice selection assistance information of a terminal device from a data management network element; obtaining , based on the updated subscribed network slice selection assistance information, first configured network slice selection assistance information, associated with the first PLMN, of the terminal device; and sending , by the access and mobility management function network element, the first configured network slice selection assistance information and indication information, indicating the terminal device to delete second configured network slice selection assistance information associated with other PLMN than the first PLMN, to the terminal device. receiving, by an access and mobility management function network element in a first Public Land Mobile Network, PLMN, updated subscribed network slice selection assistance information of a terminal device from a data management network element; obtaining , based on the updated subscribed network slice selection assistance information, first configured network slice selection assistance information, associated with the first PLMN, of the terminal device; and sending , by the access and mobility management function network element, the first configured network slice selection assistance information and indication information, indicating the terminal device to delete second configured network slice selection assistance information associated with other PLMN than the first PLMN, to the terminal device.
Use of a lubricating composition comprising at least one base oil and at least polyalkylene glycol (PAG) obtained by polymerisation or copolymerisation of alkylene oxides having 3 to 8 carbon atoms, including at least one butylene oxide, to prevent or reduce pre-ignition in an engine.
An unmanned aerial vehicle, comprising: a vehicle body ; an arm rotatably connected to the vehicle body ; a power apparatus disposed on the arm , wherein the power apparatus comprises a drive apparatus mounted on the arm and a propeller mounted on the drive apparatus , the drive apparatus being configured to drive the propeller to rotate; and a camera apparatus mounted below the vehicle body which is configured to capture an image; a landing gear having a built-in antenna, wherein the landing gear is mounted on the arm below the power apparatus ; wherein the landing gear is configured to rotate relative to the power apparatus so that an angle between the landing gear and the arm is adjustable, wherein the antenna comprises an antenna body and a bending part , the bending part being connected to the antenna body , the bending part bending to a direction of avoiding a field of view of the camera apparatus . a vehicle body ; an arm rotatably connected to the vehicle body ; a power apparatus disposed on the arm , wherein the power apparatus comprises a drive apparatus mounted on the arm and a propeller mounted on the drive apparatus , the drive apparatus being configured to drive the propeller to rotate; and a camera apparatus mounted below the vehicle body which is configured to capture an image; a landing gear having a built-in antenna, wherein the landing gear is mounted on the arm below the power apparatus ; wherein the landing gear is configured to rotate relative to the power apparatus so that an angle between the landing gear and the arm is adjustable, wherein the antenna comprises an antenna body and a bending part , the bending part being connected to the antenna body , the bending part bending to a direction of avoiding a field of view of the camera apparatus .
A method for cleaning a piece of equipment in place, the method comprising a plurality of cleaning cycles, wherein the plurality of cleaning cycles comprises three or more cleaning cycles, and wherein each cleaning cycle comprises: (a) applying a first cleaning solution from a first supply tank through a first set of nozzles ; and (b) applying a second cleaning solution from a second supply tank through a second set of nozzles . (a) applying a first cleaning solution from a first supply tank through a first set of nozzles ; and (b) applying a second cleaning solution from a second supply tank through a second set of nozzles .
A system comprising: a network switch comprising a plurality of optical connectors; a plurality of sleds , each sled of the plurality of sleds comprising a circuit board, an optical connecter mounted on the circuit board, and one or more physical resources mounted on the circuit board; a plurality of passive optical cables , wherein each passive optical cable of the plurality of passive optical cables comprises: at least two optical fibers; a first connector at a first end of the passive optical cable connected to the optical connector of a corresponding sled of the plurality of sleds ; and a second connector at a second end of the passive optical cable connected to an optical connector of the plurality of optical connectors of the network switch , wherein the network switch is a dual-mode optical switch capable of sending and receiving both Ethernet protocol communications carrying Internet Protocol, IP, packets and communications according to a second, high-performance computing, HPC, link-layer protocol via the passive optical cables, and wherein each sled of the plurality of sleds includes dual-mode optical network interface circuitry capable of communicating over the passive optical cables according to both of the Ethernet protocol communications and of the communications according to the second HPC link-layer protocol. a network switch comprising a plurality of optical connectors; a plurality of sleds , each sled of the plurality of sleds comprising a circuit board, an optical connecter mounted on the circuit board, and one or more physical resources mounted on the circuit board; a plurality of passive optical cables , wherein each passive optical cable of the plurality of passive optical cables comprises: at least two optical fibers; a first connector at a first end of the passive optical cable connected to the optical connector of a corresponding sled of the plurality of sleds ; and a second connector at a second end of the passive optical cable connected to an optical connector of the plurality of optical connectors of the network switch , at least two optical fibers; a first connector at a first end of the passive optical cable connected to the optical connector of a corresponding sled of the plurality of sleds ; and a second connector at a second end of the passive optical cable connected to an optical connector of the plurality of optical connectors of the network switch , wherein the network switch is a dual-mode optical switch capable of sending and receiving both Ethernet protocol communications carrying Internet Protocol, IP, packets and communications according to a second, high-performance computing, HPC, link-layer protocol via the passive optical cables, and wherein each sled of the plurality of sleds includes dual-mode optical network interface circuitry capable of communicating over the passive optical cables according to both of the Ethernet protocol communications and of the communications according to the second HPC link-layer protocol.
An optical macro-switch , comprising: a first integrated circuit having a surface , wherein the first integrated circuit comprises: first switch sites (114-1, 114-2, 114-N), wherein each of the first switch sites includes first control logic (116-1, 116-2, 116-N) and a first memory buffer (118-1, 118-2, 118-N); and second switch sites (120-1, 1204-2, 1204-M), wherein each of the second switch sites includes second control logic (122-1, 122-2, 122-M) and a second memory buffer (124-1, 124-2, 124-M); and a second integrated circuit having a second surface facing the surface, wherein the second integrated circuit comprises: optical ports (130-1, 130-2, 130-3, 130-L) configured to couple to optical sources; first optical waveguides optically coupled to the optical ports and the first switch sites; and second optical waveguides optically coupled to the first switch sites and the second switch sites, wherein the macro-switch has a fully connected topology between the first switch sites and the second switch sites. a first integrated circuit having a surface , wherein the first integrated circuit comprises: first switch sites (114-1, 114-2, 114-N), wherein each of the first switch sites includes first control logic (116-1, 116-2, 116-N) and a first memory buffer (118-1, 118-2, 118-N); and second switch sites (120-1, 1204-2, 1204-M), wherein each of the second switch sites includes second control logic (122-1, 122-2, 122-M) and a second memory buffer (124-1, 124-2, 124-M); and first switch sites (114-1, 114-2, 114-N), wherein each of the first switch sites includes first control logic (116-1, 116-2, 116-N) and a first memory buffer (118-1, 118-2, 118-N); and second switch sites (120-1, 1204-2, 1204-M), wherein each of the second switch sites includes second control logic (122-1, 122-2, 122-M) and a second memory buffer (124-1, 124-2, 124-M); and a second integrated circuit having a second surface facing the surface, wherein the second integrated circuit comprises: optical ports (130-1, 130-2, 130-3, 130-L) configured to couple to optical sources; first optical waveguides optically coupled to the optical ports and the first switch sites; and second optical waveguides optically coupled to the first switch sites and the second switch sites, wherein the macro-switch has a fully connected topology between the first switch sites and the second switch sites. optical ports (130-1, 130-2, 130-3, 130-L) configured to couple to optical sources; first optical waveguides optically coupled to the optical ports and the first switch sites; and second optical waveguides optically coupled to the first switch sites and the second switch sites, wherein the macro-switch has a fully connected topology between the first switch sites and the second switch sites.
Battery arrangement , particularly for a motor vehicle , comprising; - a receiving space for receiving at least one battery module , - a supply device arranged in the receiving space , which is provided for supplying the at least one battery module , - a protective cover which at least partially encloses the receiving space , wherein the receiving space is formed directly by a cut-out formed on a lower side of a chassis of the motor vehicle , characterised in - that the supply device is formed directly on a lower side of a wall , delimiting the cut-out , of the chassis and has at least one first interface which is in an operational connection with the at least one battery module , - that the at least one battery module also has at least one second interface which is designed so as to be complementary to the at least one first interface of the supply device , such that the at least one battery module is in operational connection with the supply device , - that the first interface and the second interface are designed in each case so as to be able to be plugged in. - a receiving space for receiving at least one battery module , - a supply device arranged in the receiving space , which is provided for supplying the at least one battery module , - a protective cover which at least partially encloses the receiving space , - that the supply device is formed directly on a lower side of a wall , delimiting the cut-out , of the chassis and has at least one first interface which is in an operational connection with the at least one battery module , - that the at least one battery module also has at least one second interface which is designed so as to be complementary to the at least one first interface of the supply device , such that the at least one battery module is in operational connection with the supply device , - that the first interface and the second interface are designed in each case so as to be able to be plugged in.
A method performed by a terminal device for communicating with a network infrastructure equipment in a wireless telecommunications system using radio resources comprising a narrowband carrier supported within a wider system frequency bandwidth of the wireless telecommunications system, wherein the wider system frequency bandwidth is divided into predefined groups of physical resource blocks and wherein the method comprises: establishing initial frequencies for the radio resources comprising the narrowband carrier; receiving configuration signalling using radio resource control, RRC, signalling from the network infrastructure equipment indicating a frequency shift to apply to the initial frequencies for the radio resources comprising the narrowband carrier; establishing shifted frequencies for the radio resources comprising the narrowband carrier by applying the indicated frequency shift to the initial frequencies; and communicating with the network infrastructure equipment using the radio resources for the narrowband carrier with the shifted frequencies; wherein the narrowband carrier is one of a plurality of narrowband carriers supported within the wider system frequency bandwidth of the wireless telecommunications system, and wherein the configuration signalling received from the network infrastructure equipment indicates a frequency shift for each of the narrowband carriers; and wherein the frequency shift for a first group of the narrowband carriers and the frequency shift for a second group of the narrowband carriers have different magnitudes; and wherein the frequency shift is such that boundaries of the narrowband carriers align with boundaries between the predefined groups of physical resource blocks. wherein the narrowband carrier is one of a plurality of narrowband carriers supported within the wider system frequency bandwidth of the wireless telecommunications system, and wherein the configuration signalling received from the network infrastructure equipment indicates a frequency shift for each of the narrowband carriers; and wherein the frequency shift for a first group of the narrowband carriers and the frequency shift for a second group of the narrowband carriers have different magnitudes; and wherein the frequency shift is such that boundaries of the narrowband carriers align with boundaries between the predefined groups of physical resource blocks.
A method of producing olefins and aromatic compounds from a feedstock, the method comprising: introducing a plastic feedstock and a catalyst composition within a reactor at least a portion of the reactor being at a reactor temperature of 550°C or higher, the catalyst composition comprising a fluidized catalytic cracking (FCC) catalyst and a ZSM-5 zeolite catalyst, wherein the amount of ZSM-5 zeolite catalyst makes up at least 10 wt.% of the total weight of the FCC catalyst and the ZSM-5 zeolite catalyst, wherein the FCC catalyst is comprised of at least one of an X-type zeolite, a Y-type zeolite, a USY-zeolite, mordenite, faujasite, nano-crystalline zeolites, MCM mesoporous materials, SBA-15, a silico-alumino phosphate, a gallophosphate, and a titanophosphate, the feedstock and catalyst composition being introduced into the reactor at a catalyst-to-feed ratio of from 6 or greater; allowing at least a portion of the feedstock to be converted to at least one of olefins and aromatic compounds within the reactor; and removing a product stream containing said at least one of olefins and aromatic compounds from the reactor, wherein the FCC catalyst is a non-fresh FCC catalyst having from greater than 0 to 0.5% by weight of coke deposition. introducing a plastic feedstock and a catalyst composition within a reactor at least a portion of the reactor being at a reactor temperature of 550°C or higher, the catalyst composition comprising a fluidized catalytic cracking (FCC) catalyst and a ZSM-5 zeolite catalyst, wherein the amount of ZSM-5 zeolite catalyst makes up at least 10 wt.% of the total weight of the FCC catalyst and the ZSM-5 zeolite catalyst, wherein the FCC catalyst is comprised of at least one of an X-type zeolite, a Y-type zeolite, a USY-zeolite, mordenite, faujasite, nano-crystalline zeolites, MCM mesoporous materials, SBA-15, a silico-alumino phosphate, a gallophosphate, and a titanophosphate, the feedstock and catalyst composition being introduced into the reactor at a catalyst-to-feed ratio of from 6 or greater; allowing at least a portion of the feedstock to be converted to at least one of olefins and aromatic compounds within the reactor; and removing a product stream containing said at least one of olefins and aromatic compounds from the reactor, wherein the FCC catalyst is a non-fresh FCC catalyst having from greater than 0 to 0.5% by weight of coke deposition.