mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless data transmission comprising sending (303, 304) a first data packet to a first high-frequency band radio access point (132, 133), wherein the first data packet is addressed to a user equipment, sending a second data packet to a second high-frequency band radio access point, wherein the second data packet is addressed to the user equipment, characterized by the first data packet comprising an indication for the first high-frequency band radio access point (132, 133) to buffer the received data packet, and the second data packet comprising an indication for the second high-frequency band radio access point to transmit the received data packet to the user equipment. sending (303, 304) a first data packet to a first high-frequency band radio access point (132, 133), wherein the first data packet is addressed to a user equipment, sending a second data packet to a second high-frequency band radio access point, wherein the second data packet is addressed to the user equipment, characterized by the first data packet comprising an indication for the first high-frequency band radio access point (132, 133) to buffer the received data packet, and the second data packet comprising an indication for the second high-frequency band radio access point to transmit the received data packet to the user equipment.
A method of forming a retreaded tire comprising: providing a tread having a top side configured to engage a ground surface during tire operation and a bottom side configured to attach to an annular tire carcass configured for receiving the tread, the tread including a recessed groove recessed below the top side of the tread; arranging the tread around an outer circumference of the tire carcass in a desired position to form an assembled retreaded tire; arranging a removable circumferential band (12, 12') around the assembled retreaded tire positioned overtop the recessed groove and the top side of the tread where the circumferential band (12, 12') has a width (W 12) less than a lateral width of the top side of the tread, where the circumferential band (12, 12') is separated from the recessed groove by a thickness of tread material (T C) between the recessed groove and the top side of the tread, and whereby the circumferential band (12, 12') provides an additional thickness of material above the recessed groove for support to resist forces being applied to the tread and thereby protect the recessed groove from undesired deformation; placing a curing membrane around an outer circumference of the tread, an outer circumference of the circumferential band (12, 12'), and at least a portion of the tire carcass; and, curing the retreaded tire with the circumferential band (12, 12') arranged between the tread and the curing membrane. providing a tread having a top side configured to engage a ground surface during tire operation and a bottom side configured to attach to an annular tire carcass configured for receiving the tread, the tread including a recessed groove recessed below the top side of the tread; arranging the tread around an outer circumference of the tire carcass in a desired position to form an assembled retreaded tire; arranging a removable circumferential band (12, 12') around the assembled retreaded tire positioned overtop the recessed groove and the top side of the tread where the circumferential band (12, 12') has a width (W 12) less than a lateral width of the top side of the tread, where the circumferential band (12, 12') is separated from the recessed groove by a thickness of tread material (T C) between the recessed groove and the top side of the tread, and whereby the circumferential band (12, 12') provides an additional thickness of material above the recessed groove for support to resist forces being applied to the tread and thereby protect the recessed groove from undesired deformation; placing a curing membrane around an outer circumference of the tread, an outer circumference of the circumferential band (12, 12'), and at least a portion of the tire carcass; and, curing the retreaded tire with the circumferential band (12, 12') arranged between the tread and the curing membrane.
An ex vivo method of inhibiting a cancer cell comprising contacting said cancer cell with a polypeptide characterized as: (a) comprising residues 1-80 of adenovirus E1A (SEQ ID NO: 1); (b) lacking E1A sequences C-terminal to residue 80; and (c) comprising a non-E1A stabilization sequence located C-terminal to residue 80. (a) comprising residues 1-80 of adenovirus E1A (SEQ ID NO: 1); (b) lacking E1A sequences C-terminal to residue 80; and (c) comprising a non-E1A stabilization sequence located C-terminal to residue 80.
Device for filling a container with a filling product, preferably for filling a beverage container in a beverage bottling plant, comprising a filling product reservoir for receiving the filling product to be bottled and a first filling level probe for determining the filling product level in the filling product reservoir during a bottling operation, characterised by a second filling level probe for determining a cleaning fluid level in the filling product reservoir during a cleaning operation.
A composition for a damping wedge in an ultrasonic probe having a wedge body, said composition comprising: a viscoelastic material having a ratio of the imaginary part to the real part of the modulus of elasticity of at least about 5% wherein the elastic modulus is expressed as a complex number E * = E' + iE " wherein, E' is the storage modulus and E" is the loss modulus, and an acoustic impedance less than that of said wedge body; a filament-shaped filler selected from fiberglass and alumina fiberto provide good dispersability in said viscoelastic material and to substantially match the acoustic impedance of said damping wedge to said wedge body; and amorphous silica as a viscosity enhancer to increase the viscosity of said composition to maintain a homogenous distribution of said filament-shaped filler by preventing said filament-shaped filler from settling; a viscoelastic material having a ratio of the imaginary part to the real part of the modulus of elasticity of at least about 5% wherein the elastic modulus is expressed as a complex number E * = E' + iE " wherein, E' is the storage modulus and E" is the loss modulus, and an acoustic impedance less than that of said wedge body; a filament-shaped filler selected from fiberglass and alumina fiberto provide good dispersability in said viscoelastic material and to substantially match the acoustic impedance of said damping wedge to said wedge body; and amorphous silica as a viscosity enhancer to increase the viscosity of said composition to maintain a homogenous distribution of said filament-shaped filler by preventing said filament-shaped filler from settling;
A vaporizer comprising: a vaporizing chamber heated by heaters, and; a primary filter positioned in a bottom end portion of the vaporizing chamber and arranged to transmit the heat from the heaters (66, 76 and 81) to a flow-controlled liquid material a liquid material supply portion arranged to continuously drop the flow-controlled liquid material at the constant mass flow rate from an upper portion of the vaporizing chamber towards the primary filter; a carrier gas guiding passage for guiding a carrier gas is arranged to form the liquid material into fine mist into the underside of the primary filter; and a material delivering passage for discharging a mixed gas including the carrier gas and a vaporized liquid material from the top of the vaporizing chamber, the carrier gas guiding passage includes a recess in which the primary filter is fitted and a passage; and characterised by a projection in a central portion of the recess is arranged on the primary filter and the primary filter is formed by a disk-shaped porous metal. a vaporizing chamber heated by heaters, and; a primary filter positioned in a bottom end portion of the vaporizing chamber and arranged to transmit the heat from the heaters (66, 76 and 81) to a flow-controlled liquid material a liquid material supply portion arranged to continuously drop the flow-controlled liquid material at the constant mass flow rate from an upper portion of the vaporizing chamber towards the primary filter; a carrier gas guiding passage for guiding a carrier gas is arranged to form the liquid material into fine mist into the underside of the primary filter; and a material delivering passage for discharging a mixed gas including the carrier gas and a vaporized liquid material from the top of the vaporizing chamber, the carrier gas guiding passage includes a recess in which the primary filter is fitted and a passage; and characterised by a projection in a central portion of the recess is arranged on the primary filter and the primary filter is formed by a disk-shaped porous metal.
A control device of an electric vehicle (V e) including a driving force source having at least one motor, driving wheels, a shifting device operated by a driver, the shifting device being configured to selectively set one of two shift positions of a traveling position that generates driving force by transmitting output torque of the driving force source to the driving wheels, and a non-traveling position that does not generate the driving force without transmitting the output torque to the driving wheels, and a sensor configured to detect the shift position set by the shifting device, the control device comprising: a controller configured to control the motor according to the shift position detected by the sensor, characterized in that the controller is configured to, when the driver switches the shift position, cause the motor to output signal torque that enables the driver to sense a change in a vehicle behavior accompanied with switching of the shift position, wherein the signal torque is the output torque of the motor that generates a vibration that the driver can sense while maintaining a stopped state or a traveling state of the electric vehicle (Ve). a controller configured to control the motor according to the shift position detected by the sensor, characterized in that the controller is configured to, when the driver switches the shift position, cause the motor to output signal torque that enables the driver to sense a change in a vehicle behavior accompanied with switching of the shift position, wherein the signal torque is the output torque of the motor that generates a vibration that the driver can sense while maintaining a stopped state or a traveling state of the electric vehicle (Ve).
A processor of a base station configured to perform operations comprising: transmitting a system information block, SIB, to one or more user equipments, UEs; and receiving an indication of a reduced capability, redcap, device type from a UE during a random access procedure, wherein the indication is associated with a UE configuration comprising one or more UE complexity reduction features, wherein frequency hopping for physical uplink control channel, PUCCH, transmissions and physical uplink shared channel, PUSCH, transmissions is disabled during the random access procedure for the redcap device type. transmitting a system information block, SIB, to one or more user equipments, UEs; and receiving an indication of a reduced capability, redcap, device type from a UE during a random access procedure, wherein the indication is associated with a UE configuration comprising one or more UE complexity reduction features, wherein frequency hopping for physical uplink control channel, PUCCH, transmissions and physical uplink shared channel, PUSCH, transmissions is disabled during the random access procedure for the redcap device type.
A WDM network having a plurality of interconnected nodes sending data to each other along wavelength paths, at least a portion of said nodes having one or more optical amplifiers operating under automatic power and gain control in normal operation, the WDM network comprising at least one intermediate node along an intended route between a sending node and a receiving node in the WDM network adapted to suspend automatic power control to allow a slow tone on a carrier signal to go through the at least one intermediate node and to detect the slow tone on the carrier signal, the slow tone indicating routing information for the wavelength, wherein the slow tone comprises a digital channel key wrapped in a message having a preamble that locks a receiver in said at least one intermediate node along the intended route between said sending node and said receiving node in the WDM network.
An all-reflecting, non-relayed optical system having an optical axis and configured to provide images of objects, the system comprising: a primary mirror configured to receive radiation from the objects; a secondary mirror configured to receive the radiation reflected from the primary mirror; a tertiary mirror configured to receive the radiation reflected from the secondary mirror; and an image plane configured to receive the radiation reflected from the tertiary mirror and to form an image of the objects, wherein the primary mirror is a positive power mirror, the secondary mirror is a negative power mirror, and the tertiary mirror is a positive power mirror, characterised in that the optical system has an aperture stop located between the tertiary mirror and the image plane, and wherein the optical system further comprises a cold cavity having a window coincident with the aperture stop, the cold cavity enclosing space up to and between the aperture stop and the image plane, and wherein the primary, secondary and tertiary mirrors are off-axis from the optical axis of the optical system. a primary mirror configured to receive radiation from the objects; a secondary mirror configured to receive the radiation reflected from the primary mirror; a tertiary mirror configured to receive the radiation reflected from the secondary mirror; and an image plane configured to receive the radiation reflected from the tertiary mirror and to form an image of the objects, wherein the primary mirror is a positive power mirror, the secondary mirror is a negative power mirror, and the tertiary mirror is a positive power mirror, characterised in that the optical system has an aperture stop located between the tertiary mirror and the image plane, and wherein the optical system further comprises a cold cavity having a window coincident with the aperture stop, the cold cavity enclosing space up to and between the aperture stop and the image plane, and wherein the primary, secondary and tertiary mirrors are off-axis from the optical axis of the optical system.
A solder alloy for preventing Fe leaching, which prevents adhesion of a carbide to an iron tip, the solder alloy having an alloy composition consisting of, in mass %: Fe: 0.02 to 0.1%; and Zr: 0.001% or more and 0.2% or less; and optionally Cu: 0.1 to 4%; optionally at least one of Sb: 5 to 20%, Ag: 4% or less and Bi: 3% or less; optionally at least one of Ni: 0.3% or less and Co: 0.2% or less; and optionally at least one of P: 0.1% or less, Ge: 0.1% or less and Ga: 0.1% or less, with the balance being Sn. Fe: 0.02 to 0.1%; and Zr: 0.001% or more and 0.2% or less; and optionally Cu: 0.1 to 4%; optionally at least one of Sb: 5 to 20%, Ag: 4% or less and Bi: 3% or less; optionally at least one of Ni: 0.3% or less and Co: 0.2% or less; and optionally at least one of P: 0.1% or less, Ge: 0.1% or less and Ga: 0.1% or less, with the balance being Sn.
A primary ion source arranged for use with a secondary ion mass spectrometer, the primary ion source comprising: an ionizer tube (745, 845) defining an internal passage (746, 846) and configured to receive cesium-containing vapor from a reservoir, a distal end portion comprising an outwardly protruding conical or frustoconical surface (751, 851), wherein an ionizer aperture (759, 859) extends through a central axis of the conical or frustoconical surface (751, 851), and the ionizer aperture (759, 859) is arranged to receive cesium-containing vapor from the internal passage (746, 846) of the ionizer tube (745, 845); and a capillary insert (750, 850) and a cap (760, 860) configured to be positioned at a first end of the ionizer tube (745, 845), the capillary insert (750, 850) includes a body comprising graphite or a graphite-containing material that defines the ionizer aperture (759, 859) and the conical or frustoconical surface (751, 851), at least a portion of the capillary insert (750, 850) is configured to be received by the internal passage (746, 846) of the ionizer tube (745, 845) along the first end of the ionizer tube (745, 845), the cap (760, 860) defines a cavity arranged to receive a portion of the capillary insert (750, 850) and defines an orifice (758, 858) registered with the ionizer aperture (759, 859), and the cap (760, 860) includes an internally threaded surface (765, 865) configured to engage an externally threaded surface (747, 847) of the ionizer tube (745, 845) to cause sealing engagement between the capillary insert (750, 850) and the ionizer tube (745, 845). an ionizer tube (745, 845) defining an internal passage (746, 846) and configured to receive cesium-containing vapor from a reservoir, a distal end portion comprising an outwardly protruding conical or frustoconical surface (751, 851), wherein an ionizer aperture (759, 859) extends through a central axis of the conical or frustoconical surface (751, 851), and the ionizer aperture (759, 859) is arranged to receive cesium-containing vapor from the internal passage (746, 846) of the ionizer tube (745, 845); and a capillary insert (750, 850) and a cap (760, 860) configured to be positioned at a first end of the ionizer tube (745, 845), the capillary insert (750, 850) includes a body comprising graphite or a graphite-containing material that defines the ionizer aperture (759, 859) and the conical or frustoconical surface (751, 851), at least a portion of the capillary insert (750, 850) is configured to be received by the internal passage (746, 846) of the ionizer tube (745, 845) along the first end of the ionizer tube (745, 845), the cap (760, 860) defines a cavity arranged to receive a portion of the capillary insert (750, 850) and defines an orifice (758, 858) registered with the ionizer aperture (759, 859), and the cap (760, 860) includes an internally threaded surface (765, 865) configured to engage an externally threaded surface (747, 847) of the ionizer tube (745, 845) to cause sealing engagement between the capillary insert (750, 850) and the ionizer tube (745, 845).
Apparatus for preparing food, comprising a working receptacle, a working tool, an upper box having a drive output for rotating the working tool arranged in the working receptacle, and a removable base that can be arranged under the working receptacle, characterised in that the base comprises an annular bearing surface intended to rest on the working receptacle when the base is turned over on the working receptacle and in that the base has an elastically deformable annular protuberance extending around the annular bearing surface, the annular protuberance comprising an inner collar designed to engage with an outer rim of the working receptacle when the base is turned over on the working receptacle, the annular protuberance being made of softer material than the material of the outer rim of the working receptacle.
A display device comprising: a housing having at least one Printed Circuit Board (105, 107, 109) for performing a function of the display device and mounted therein; a plurality of rollers (141, 143) disposed in the housing; a display unit which comprises a display panel and a module cover; and a driving unit connected to the display panel and the module cover so as to cause the display panel and the module cover to move from a first state to a second state, wherein the display panel in the first state is wound around at least one of the plurality of rollers (141, 143), and in the second state is unwound from the at least one of the plurality of rollers (141, 143) to be exposed for drawing out from the housing, wherein the module cover is, in the first state, wound around at least one other of the plurality of rollers (141, 143), and, in the second state, unwound from the at least one other of the plurality of rollers (141, 143) to contact a rear surface of the display panel, characterised in that the module cover and the display panel are wound around a different roller (141, 143), and the module cover includes a magnet disposed on one side of the module cover, at least a portion of the display panel is attached on the magnet in the second state. a housing having at least one Printed Circuit Board (105, 107, 109) for performing a function of the display device and mounted therein; a plurality of rollers (141, 143) disposed in the housing; a display unit which comprises a display panel and a module cover; and a driving unit connected to the display panel and the module cover so as to cause the display panel and the module cover to move from a first state to a second state, wherein the display panel in the first state is wound around at least one of the plurality of rollers (141, 143), and in the second state is unwound from the at least one of the plurality of rollers (141, 143) to be exposed for drawing out from the housing, wherein the module cover is, in the first state, wound around at least one other of the plurality of rollers (141, 143), and, in the second state, unwound from the at least one other of the plurality of rollers (141, 143) to contact a rear surface of the display panel, characterised in that the module cover and the display panel are wound around a different roller (141, 143), and the module cover includes a magnet disposed on one side of the module cover, at least a portion of the display panel is attached on the magnet in the second state.