mhurhangee/ep-ind-claims huggingface dataset:
A joystick structure comprising: a joystick, the joystick comprising an insertion portion; and a cartridge, comprising a buckle portion, the cartridge being further provided with a hollow portion, wherein the buckle portion is used to clamp the insertion portion when the joystick is inserted into the hollow portion; characterized in that the buckle portion comprises: an abutting member, which is buckle-connected to the insertion portion; and an elastic member, sleeved outside the abutting member, wherein when an external tension force is applied to the joystick, the joystick presses against the abutting member, so that the elastic member deforms to cause the abutting member to slide out from the insertion portion and the insertion portion is detached from the buckle portion. a joystick, the joystick comprising an insertion portion; and a cartridge, comprising a buckle portion, the cartridge being further provided with a hollow portion, wherein the buckle portion is used to clamp the insertion portion when the joystick is inserted into the hollow portion; characterized in that the buckle portion comprises: an abutting member, which is buckle-connected to the insertion portion; and an elastic member, sleeved outside the abutting member, wherein when an external tension force is applied to the joystick, the joystick presses against the abutting member, so that the elastic member deforms to cause the abutting member to slide out from the insertion portion and the insertion portion is detached from the buckle portion. an abutting member, which is buckle-connected to the insertion portion; and an elastic member, sleeved outside the abutting member, wherein when an external tension force is applied to the joystick, the joystick presses against the abutting member, so that the elastic member deforms to cause the abutting member to slide out from the insertion portion and the insertion portion is detached from the buckle portion.
An optical detection system capable of automatically removing foreign substances comprising an optical sensing device, the optical sensing device includes: a housing having an opening on one side thereof; a transparent cover disposed at the opening, the housing and the transparent cover jointly define an internal space of the optical sensing device; an optical sensor provided in the internal space of the optical sensing device; a lens module provided between the transparent cover and the optical sensor; and a piezoelectric component, wherein in the internal space of the optical sensing device, the piezoelectric component is provided at an edge of the transparent cover; characterised in that the optical sensing device further includes: a sealing material having flexibility and stiffness, which has an annular flake shape, is provided between the edge of the transparent cover and an edge of the piezoelectric component, and extended and fixed to the housing to seal the internal space of the optical sensing device; wherein the piezoelectric component is configured to perform vibration, and the vibration is transmitted to the transparent cover through the sealing material to remove foreign substances from the transparent cover. a housing having an opening on one side thereof; a transparent cover disposed at the opening, the housing and the transparent cover jointly define an internal space of the optical sensing device; an optical sensor provided in the internal space of the optical sensing device; a lens module provided between the transparent cover and the optical sensor; and a piezoelectric component, wherein in the internal space of the optical sensing device, the piezoelectric component is provided at an edge of the transparent cover; characterised in that the optical sensing device further includes: a sealing material having flexibility and stiffness, which has an annular flake shape, is provided between the edge of the transparent cover and an edge of the piezoelectric component, and extended and fixed to the housing to seal the internal space of the optical sensing device; wherein the piezoelectric component is configured to perform vibration, and the vibration is transmitted to the transparent cover through the sealing material to remove foreign substances from the transparent cover. a sealing material having flexibility and stiffness, which has an annular flake shape, is provided between the edge of the transparent cover and an edge of the piezoelectric component, and extended and fixed to the housing to seal the internal space of the optical sensing device; wherein the piezoelectric component is configured to perform vibration, and the vibration is transmitted to the transparent cover through the sealing material to remove foreign substances from the transparent cover.
A method for producing a polyethylene resin using a plurality of reactors including first and second polymerization reactors and a mixing region located between the first and second reactors where polyethylene resin-containing product formed in the first reactor and newly introduced ethylene monomer are mixed, the method comprising conducting radical polymerization while supplying an initiator containing oxygen gas and an organic peroxide, and ethylene monomer to the first and second reactors, wherein the radical polymerization is carried out under polymerization conditions which satisfy each of the following Formulae 1 to 3: 0.4 < S / R < 0.5 wherein R represents the total flow rate of the ethylene monomer supplied to the first and second polymerization reactors, and S represents the flow rate of the ethylene monomer supplied to the first polymerization reactor, θ 1 > 0.5 wherein θ1 represents [the maximum temperature (°C) in the first reactor - the temperature (°C) of the mixing region] / the maximum temperature (°C) in the first reactor, θ 2 > 0.8 wherein θ2 represents [the maximum temperature (°C) in the second reactor - the temperature (°C) of the mixing region] / the temperature (°C) of the mixing region.
A device for loading particles by means of electrical pulses, having an apparatus for supplying particles, at least one vertically arranged pipe section with a reaction chamber for loading particles and an apparatus for removing particles, wherein the pipe section and thus the reaction chamber is a flow channel of a fluid medium, wherein a device conveying the medium is connected to the pipe section such that the medium flows counter to the movement direction of particles supplied to the pipe section and sinking through the pipe section, wherein the pipe section has at least two electrodes, which are arranged spaced from one another and connected to at least one Marx generator, wherein the pulse rise time of the Marx generator is less than 500 ns, and wherein the electrodes end with or before the inner surface of the pipe section, so that the electrodes do not project into the pipe section and do not impede the flow of the medium in the pipe section.
A combustion chamber for an aviation turbine engine, the combustion chamber being annular about a longitudinal axis A, being defined by an outer side wall, an inner side wall, and an annular chamber end wall connecting one end of said outer side wall to one end of said inner side wall, said outer side wall including, distributed along its circumference, spark plugs, primary holes, and dilution holes situated downstream from said primary holes in the direction of said longitudinal axis A, said combustion chamber being characterized in that the primary holes situated in each of the adjacent zones adjacent to one of said spark plugs are situated further downstream than the primary holes situated outside said zones.
A method for manufacturing a bonded wafer comprising: an ion implantation step of ion-implanting at least any one kind of gas ions selected from hydrogen ions and rare gas ions from a surface of a bond wafer to form an ion implanted layer by using a batch type ion implanter, the ion implanter comprising a rotor and a plurality of wafer holders that are provided to the rotor and have substrates arranged thereon and implanting ions into the plurality of substrates that are arranged on the wafer holders and revolve; a bonding step of bonding the ion implanted surface of the bond wafer to a surface of a base wafer directly or through an insulator film; and a delamination step of delaminating the bond wafer at the ion implanted layer, thereby manufacturing a bonded wafer having a thin film on the base wafer, wherein the ion implantation into the bond wafer carried out at the ion implantation step is divided into a plurality of processes, the bond wafer arranged on each wafer holder is rotated on its own axis a predetermined rotation angle after each ion implantation, and the next ion implantation is carried out at an arrangement position obtained by the rotation.
Flexible hose, particularly vacuum cleaner hose, with an inner hose which is profiled for itself in wave shape and by an inner side bounds a cavity for the conveying of media along a longitudinal axis of the hose and which is surrounded at an outer side by a substantially smooth sheathing and provided at at least one of its two ends (24, 26) with a connecting member, wherein an electrical conductor extending from one end to the other end of the inner hose and ending in the connecting member for electrical contact-making is arranged radially between the inner hose and the sheathing, characterized in that the electrical conductor is formed by a resilient flat conductor arrangement which extends along the hose parallel to the longitudinal axis substantially without pre-stress and with electrical insulation and which is held on the wave-shaped profiling of the inner hose by the sheathing.
Method for producing a varistor ceramic comprising the following materials: - Zn as the main constituent, - Pr in a proportion of from 0.1 to 3 atom%, - a metal M selected from Y, Ho, Er, Yb, Lu in a proportion of from 0.1 to 5 atom%, additionally comprising - Co in a proportion of from 0.1 to 10 atom%, - Ca in a proportion of from 0.001 to 5 atom%, - Si in a proportion of from 0.001 to 0.5 atom%, - Al in a proportion of from 0.001 to 0.1 atom%, - Cr in a proportion of from 0.001 to 5 atom%, - B in a proportion of from 0.001 to 5 atom%, said method comprising the following method steps: a) calcining the raw ceramic material, b) producing a slurry, c) making green sheets, d) debindering the green sheets, e) sintering the green sheets from d) at a temperature of from 900 to 1400°C. - Zn as the main constituent, - Pr in a proportion of from 0.1 to 3 atom%, - a metal M selected from Y, Ho, Er, Yb, Lu in a proportion of from 0.1 to 5 atom%, - Co in a proportion of from 0.1 to 10 atom%, - Ca in a proportion of from 0.001 to 5 atom%, - Si in a proportion of from 0.001 to 0.5 atom%, - Al in a proportion of from 0.001 to 0.1 atom%, - Cr in a proportion of from 0.001 to 5 atom%, - B in a proportion of from 0.001 to 5 atom%, a) calcining the raw ceramic material, b) producing a slurry, c) making green sheets, d) debindering the green sheets, e) sintering the green sheets from d) at a temperature of from 900 to 1400°C.
An isolated antibody that specifically binds a first polyubiquitin comprising a first lysine linkage which is lysine 63-linked polyubiquitin and does not specifically bind a second polyubiquitin comprising a second lysine linkage which is lysine 48-linked polyubiquitin, wherein the antibody does not specifically bind monoubiquitin, and wherein the antibody comprises a VL domain comprising an HVR-L1 sequence shown as SEQ ID NO: 79 and an HVR-L2 sequence shown as SEQ ID NO: 80.
A pentablock copolymer of the formula ABCBA wherein B is a vinyl aromatic block having a T g of ≥70°C and comprising 30-80 wt.% of the copolymer; C is a rubber block having a T g ≤ 25°C and comprising 10-40 wt.% of the copolymer; and A is a block derived from ring-opening polymerization, substantially incompatible with both B and C blocks wherein B + C comprises 70-95 wt.% of the copolymer and wherein the pentablock copolymers have an M n > 60 kDa.
A local communications network comprising: at least two transceiver nodes, wherein each transceiver node comprises an optical emitter, a reconfigurable optical receiver, a receiver configurer, wherein each transceiver node is configured to execute an estimator algorithm and to execute a receiver reconfiguration procedure using a current network topology; and a topology planning algorithm configured to run on one or more transceiver nodes, to take a set of Data Quality Estimations from all transceiver nodes, choose an optimal network topology which maximizes overall network data rates, and output the result as the Current Network Topology which is transmitted to all local nodes. at least two transceiver nodes, wherein each transceiver node comprises an optical emitter, a reconfigurable optical receiver, a receiver configurer, wherein each transceiver node is configured to execute an estimator algorithm and to execute a receiver reconfiguration procedure using a current network topology; and a topology planning algorithm configured to run on one or more transceiver nodes, to take a set of Data Quality Estimations from all transceiver nodes, choose an optimal network topology which maximizes overall network data rates, and output the result as the Current Network Topology which is transmitted to all local nodes.
A shield connector, comprising: a braided conductor through which an electric wire is inserted; a shield shell formed in a tubular shape that has conductivity; a ring formed in a tubular shape in which a pressing surface that faces the shield shell in an axial direction of the shield shell is formed on an inner surface side over an entire periphery, wherein the pressing surface is inclined in a direction intersecting with the axial direction on a section in the axial direction, the ring is fixed to the shield shell while maintaining a state in which the pressing surface presses the braided conductor against the shield shell in the axial direction over the entire periphery, characterized in that the shield shell includes a hole part (33, 34, 36) penetrating in a radial direction, and the ring includes a hooking part (43, 46, 49) that is folded toward a radial direction and fixed to the shield shell when the hooking part (43, 46, 49) being folded is inserted into the hole part (33, 34, 36). a braided conductor through which an electric wire is inserted; a shield shell formed in a tubular shape that has conductivity; a ring formed in a tubular shape in which a pressing surface that faces the shield shell in an axial direction of the shield shell is formed on an inner surface side over an entire periphery, wherein the pressing surface is inclined in a direction intersecting with the axial direction on a section in the axial direction, the ring is fixed to the shield shell while maintaining a state in which the pressing surface presses the braided conductor against the shield shell in the axial direction over the entire periphery, characterized in that the shield shell includes a hole part (33, 34, 36) penetrating in a radial direction, and the ring includes a hooking part (43, 46, 49) that is folded toward a radial direction and fixed to the shield shell when the hooking part (43, 46, 49) being folded is inserted into the hole part (33, 34, 36).
A composition comprising nanoparticles that comprise rapamycin and a carrier protein, for use in a method of treating cancer in a human, wherein the amount of rapamycin is in the range of 25 mg/m 2 to 100 mg/m 2, or wherein the amount of rapamycin is in the range of 50 mg to 175 mg.
A power control unit for a high-frequency dielectric heating, for controlling an inverter for driving a magnetron, wherein a series circuit made up of at least one set or more of at least two semiconductor switching elements (3, 4), a resonance circuit, and a leakage transformer are connected to a DC power supply provided by rectifying a voltage of an AC power supply, a switching frequency of the semiconductor switching element (3, 4) is modulated to be converted into high-frequency power, and output occurring on the secondary side of the leakage transformer is applied to the magnetron for energizing the magnetron, the power control unit for a high-frequency dielectric heating characterized by comprising: an input current detection section adapted to detect an input current input to the inverter from the AC power supply and outputs input current waveform information; and a conversion section adapted to convert the input current waveform information into an adjustment of each drive signal of the semiconductor switching elements (3, 4) of the inverter by performing a correction of increasing the input current and lowering a frequency of the drive signal when the input current waveform information is smaller than an ideal signal and by performing a correction of decreasing the input current and raising the frequency of the drive signal when the input current waveform information is larger than the ideal signal, thereby suppressing instantaneous fluctuation of the input current waveform information. an input current detection section adapted to detect an input current input to the inverter from the AC power supply and outputs input current waveform information; and a conversion section adapted to convert the input current waveform information into an adjustment of each drive signal of the semiconductor switching elements (3, 4) of the inverter by performing a correction of increasing the input current and lowering a frequency of the drive signal when the input current waveform information is smaller than an ideal signal and by performing a correction of decreasing the input current and raising the frequency of the drive signal when the input current waveform information is larger than the ideal signal, thereby suppressing instantaneous fluctuation of the input current waveform information.
A light-emitting medium comprising a substrate, and a first light-emitting (3, 3A) and a second light-emitting regior (4, 4A) disposed on both sides of the substrate, wherein the substrate includes a selective transmission layer through which non-visible light in a first wavelength region is transmitted, and non-visible light in a second wavelength region different from the first wavelength region is not substantially transmitted, characterised in that the first light-emitting region and the second light-emitting region contain a fluorescent substance that emits light when being irradiated with non-visible light in the first wavelength region and also emits light when being irradiated with non-visible light in the second wavelength region. wherein the substrate includes a selective transmission layer through which non-visible light in a first wavelength region is transmitted, and non-visible light in a second wavelength region different from the first wavelength region is not substantially transmitted, characterised in that the first light-emitting region and the second light-emitting region contain a fluorescent substance that emits light when being irradiated with non-visible light in the first wavelength region and also emits light when being irradiated with non-visible light in the second wavelength region.
A micro cell for providing an enhanced inter-cell interference coordination, the micro cell, comprising: at least one memory; and at least one processor operatively coupled to the memory, the at least one processor being configured to: receive, from a macro cell, information indicating at least one almost blanking subframe, ABS, being allocated to the micro cell; transmit, to the macro cell, a number of the allocated ABS being utilized by the micro cell; and receive, from the macro cell, a modified allocation of the ABS, wherein the modified allocation of the ABS is configured to be determined by the macro cell based on the transmitted number of the utilized ABS, wherein the modified allocation of the ABS includes at least one of the following: increasing a number of ABS allocated, decreasing the number of ABS allocated, and unchanging the number of ABS allocated. at least one memory; and at least one processor operatively coupled to the memory, the at least one processor being configured to: receive, from a macro cell, information indicating at least one almost blanking subframe, ABS, being allocated to the micro cell; transmit, to the macro cell, a number of the allocated ABS being utilized by the micro cell; and receive, from the macro cell, a modified allocation of the ABS, wherein the modified allocation of the ABS is configured to be determined by the macro cell based on the transmitted number of the utilized ABS, wherein the modified allocation of the ABS includes at least one of the following: increasing a number of ABS allocated, decreasing the number of ABS allocated, and unchanging the number of ABS allocated. receive, from a macro cell, information indicating at least one almost blanking subframe, ABS, being allocated to the micro cell; transmit, to the macro cell, a number of the allocated ABS being utilized by the micro cell; and receive, from the macro cell, a modified allocation of the ABS, wherein the modified allocation of the ABS is configured to be determined by the macro cell based on the transmitted number of the utilized ABS, wherein the modified allocation of the ABS includes at least one of the following: increasing a number of ABS allocated, decreasing the number of ABS allocated, and unchanging the number of ABS allocated.
A battery pack (100, 200) comprising: a plurality of secondary batteries, each comprising an electrode terminal (114, 115) having a cooling groove (114a, 115a); and a cooling pipe (120, 220) configured to pass a heat transfer medium therethrough, the cooling pipe (120, 220) being received in the cooling groove (114a, 115a) of each of the plurality of secondary batteries. a plurality of secondary batteries, each comprising an electrode terminal (114, 115) having a cooling groove (114a, 115a); and a cooling pipe (120, 220) configured to pass a heat transfer medium therethrough, the cooling pipe (120, 220) being received in the cooling groove (114a, 115a) of each of the plurality of secondary batteries.
A compound of formula I wherein A is phenyl or a six membered heteroaryl group, containing one or two N atoms, selected from R 1 is S 2 -C 1 -C 7 alkyl, S 2 NR 4 R 5, S 2 cycloalkyl, S-C 1 -C 7 alkyl or S 2 -azetidin-1-yl; R 4 and R 5 are independently from each other hydrogen, C 1 -C 7 alkyl or (CH 2) 2 OCH 3; or the group A-R 1 may form together with two neighboring carbon atoms from the group A an additional fused ring, selected from R 2 is hydrogen or cycloalkyl; R 3 is methyl or halogen; n is 1 or 2; X is N, N + O - or CH; --- the dotted line may be nothing or -CH 2 -; as well as a pharmaceutically acceptable salt thereof, a racemic mixture, or its corresponding enantiomer and/or optical isomer and/or stereoisomer thereof. A is phenyl or a six membered heteroaryl group, containing one or two N atoms, selected from R 1 is S 2 -C 1 -C 7 alkyl, S 2 NR 4 R 5, S 2 cycloalkyl, S-C 1 -C 7 alkyl or S 2 -azetidin-1-yl; R 4 and R 5 are independently from each other hydrogen, C 1 -C 7 alkyl or (CH 2) 2 OCH 3; or the group A-R 1 may form together with two neighboring carbon atoms from the group A an additional fused ring, selected from R 2 is hydrogen or cycloalkyl; R 3 is methyl or halogen; n is 1 or 2; X is N, N + O - or CH; --- the dotted line may be nothing or -CH 2 -;