mhurhangee/ep-ind-claims huggingface dataset:
A device for attaching slats with rigid mesh panel, for attaching slats to a rigid mesh panel comprising vertical wires and horizontal wires, the device being characterised in that it comprises: - a profile forming a slat receving part (3, 6) that extends in the longitudinal direction of the profile and includes a bottom and a vertical wall connected to the bottom, the bottom being able to support, during use, the lower ends of slats that are received in the space defined between the plane containing the horizontal wires of the rigid mesh panel and the vertical wall of the profile, and that are each arranged between two successive vertical wires of the rigid mesh panel, and - several attachment parts, which are carried by the bottom of the profile, at a distance from the vertical wall of the slat receiving part (3, 6) so as to also allow receiving of the lower end of at least one slat between the attachment part and said vertical wall, each attachment part including attachment means (9, 10, 11) for attaching the profile to a horizontal wire of the rigid mesh panel, the attachment means (9, 10, 11) having a length such that they are able, during use, to be placed between two successive vertical wires of the rigid mesh panel. - a profile forming a slat receving part (3, 6) that extends in the longitudinal direction of the profile and includes a bottom and a vertical wall connected to the bottom, the bottom being able to support, during use, the lower ends of slats that are received in the space defined between the plane containing the horizontal wires of the rigid mesh panel and the vertical wall of the profile, and that are each arranged between two successive vertical wires of the rigid mesh panel, and - several attachment parts, which are carried by the bottom of the profile, at a distance from the vertical wall of the slat receiving part (3, 6) so as to also allow receiving of the lower end of at least one slat between the attachment part and said vertical wall, each attachment part including attachment means (9, 10, 11) for attaching the profile to a horizontal wire of the rigid mesh panel, the attachment means (9, 10, 11) having a length such that they are able, during use, to be placed between two successive vertical wires of the rigid mesh panel.
A bypass system of a multi-cell power supply, comprising: a plurality of power cells (502A-N, 503A-N, 504A-N), each of the plurality of power cells (502A-N, 503A-N, 504A-N) comprising a respective bypass device (505A; 505B;...; 505-N; 506A; 506B;...; 506-N; 507A; 507B;...; 507-N) comprising one or more contactors (601A, 601B, 601C; 700); and a central control; characterized by a fiber optic ring comprising a plurality of fiber optic links configured to connect the respective bypass device (505A; 505B;...; 505-N; 506A; 506B;...; 506-N; 507A; 507B;...; 507-N) in each of the plurality of power cells (502A-N, 503A-N, 504A-N) and the central control in series, wherein the fiber optic ring starts and ends at the central control, and the central control is configured to communicate with the one or more contactors (601A, 601B, 601C; 700) in the plurality of bypass devices (505AN, 506A-N, 507A-N) via the fiber optic ring. a plurality of power cells (502A-N, 503A-N, 504A-N), each of the plurality of power cells (502A-N, 503A-N, 504A-N) comprising a respective bypass device (505A; 505B;...; 505-N; 506A; 506B;...; 506-N; 507A; 507B;...; 507-N) comprising one or more contactors (601A, 601B, 601C; 700); and a central control; characterized by a fiber optic ring comprising a plurality of fiber optic links configured to connect the respective bypass device (505A; 505B;...; 505-N; 506A; 506B;...; 506-N; 507A; 507B;...; 507-N) in each of the plurality of power cells (502A-N, 503A-N, 504A-N) and the central control in series, wherein the fiber optic ring starts and ends at the central control, and the central control is configured to communicate with the one or more contactors (601A, 601B, 601C; 700) in the plurality of bypass devices (505AN, 506A-N, 507A-N) via the fiber optic ring.
Axle assembly which is designed and intended to be used in a heavy goods vehicle, the axle assembly comprising: • a pivot bearing having a substantially vertically extending steering rotational axis, • a wheel support that is arranged so as to be rotatable about the steering rotational axis and comprises at least one wheel that is mounted thereon so as to be rotatable about the wheel rotational axis, the wheel rotational axis extending substantially horizontally and, in the case of straight travel, transversely to the travel direction, and the wheel rotational axis being arranged behind the steering rotational axis, in the travel direction, in every deflection state of the axle assembly, during straight travel, and • a unit that is adjustable about the steering rotational axis when the wheel support is rotated, characterised in that the adjustable unit being adjustable between two operating states, specifically a forwards travel operating state in which it influences the rotational movement of the wheel support about the steering rotational axis, and a reverse travel operating state in which it introduces a steering force, which steers the axle assembly, into the axle assembly such that the axle assembly is operated as a positively steered axle assembly. • a pivot bearing having a substantially vertically extending steering rotational axis, • a wheel support that is arranged so as to be rotatable about the steering rotational axis and comprises at least one wheel that is mounted thereon so as to be rotatable about the wheel rotational axis, the wheel rotational axis extending substantially horizontally and, in the case of straight travel, transversely to the travel direction, and the wheel rotational axis being arranged behind the steering rotational axis, in the travel direction, in every deflection state of the axle assembly, during straight travel, and • a unit that is adjustable about the steering rotational axis when the wheel support is rotated,
A connector, comprising a base, a plurality of terminal modules (no) disposed on the base, and a ground shielding plate, wherein the plurality of terminal modules (no) are disposed in parallel in a first direction, and the ground shielding plate is disposed between two adjacent terminal modules (no); and the ground shielding plate comprises a body and at least two elastic elements disposed on the body, each elastic element comprises a first elastic arm, a second elastic arm, and a contact part, a first end of the first elastic arm and a first end of the second elastic arm are separately connected to the body, and a second end of the first elastic arm and a second end of the second elastic arm are separately connected to the contact part; and the contact part is biased toward the first direction relative to the body, and is configured to electrically connect to a ground shielding plate of a mated connector, wherein the second end of the first spring arm intersects with the second end of the second spring arm, and the contact part is disposed at an intersection location between the second end of the first spring arm and the second end of the second spring arm, wherein when the connector and the mated connector are plug-connected to each other in a second direction, in the second direction, one end of the ground shielding plate is connected to the base, characterized in that a first protrusion protruding in the first direction is disposed at the other end. the ground shielding plate comprises a body and at least two elastic elements disposed on the body, each elastic element comprises a first elastic arm, a second elastic arm, and a contact part, a first end of the first elastic arm and a first end of the second elastic arm are separately connected to the body, and a second end of the first elastic arm and a second end of the second elastic arm are separately connected to the contact part; and the contact part is biased toward the first direction relative to the body, and is configured to electrically connect to a ground shielding plate of a mated connector, wherein the second end of the first spring arm intersects with the second end of the second spring arm, and the contact part is disposed at an intersection location between the second end of the first spring arm and the second end of the second spring arm, wherein when the connector and the mated connector are plug-connected to each other in a second direction, in the second direction, one end of the ground shielding plate is connected to the base, characterized in that a first protrusion protruding in the first direction is disposed at the other end.
An image pickup apparatus comprising: a camera unit including an image pickup element; a ring-shaped ultrasonic motor that includes a rotor and a stator, the ring-shaped ultrasonic motor being disposed coaxial with a tilting rotation shaft and rotationally driving the camera unit about the tilting rotation shaft in a tilt direction; and a rotor fixing member that fixes the rotor, wherein the rotor fixing member is integrally formed together with the tilting rotation shaft, wherein in a direction in which the tilting rotation shaft extends, the rotor of the ultrasonic motor is disposed on a camera unit side with respect to the stator of the ultrasonic motor. a camera unit including an image pickup element; a ring-shaped ultrasonic motor that includes a rotor and a stator, the ring-shaped ultrasonic motor being disposed coaxial with a tilting rotation shaft and rotationally driving the camera unit about the tilting rotation shaft in a tilt direction; and a rotor fixing member that fixes the rotor, wherein the rotor fixing member is integrally formed together with the tilting rotation shaft, wherein in a direction in which the tilting rotation shaft extends, the rotor of the ultrasonic motor is disposed on a camera unit side with respect to the stator of the ultrasonic motor.
An oral care implement, comprising: a body comprising a handle and a head at an end of the handle; the body having a cavity therein for storing an oral care fluid; the head having at least one oral care element extending therefrom, and at least one wall defining a fluid outlet through which the oral care fluid is dispensable to an exterior of the oral care implement; a passageway fluidly connecting the cavity with the fluid outlet; and a control valve comprising a deformable member extending through the fluid outlet, wherein the control valve is movable relative to the head between a first position preventing fluid flow through the fluid outlet and a second position permitting fluid flow through the fluid outlet between the deformable member and the wall; wherein the deformable member comprises a tooth cleaning or polishing element; wherein the control valve comprises a flange extending around at least a portion of a perimeter or circumference of the deformable member and the flange blocks the fluid outlet when the control valve is at the first position. a body comprising a handle and a head at an end of the handle; the body having a cavity therein for storing an oral care fluid; the head having at least one oral care element extending therefrom, and at least one wall defining a fluid outlet through which the oral care fluid is dispensable to an exterior of the oral care implement; a passageway fluidly connecting the cavity with the fluid outlet; and a control valve comprising a deformable member extending through the fluid outlet, wherein the control valve is movable relative to the head between a first position preventing fluid flow through the fluid outlet and a second position permitting fluid flow through the fluid outlet between the deformable member and the wall; wherein the deformable member comprises a tooth cleaning or polishing element; wherein the control valve comprises a flange extending around at least a portion of a perimeter or circumference of the deformable member and the flange blocks the fluid outlet when the control valve is at the first position.
A method for operating a textile machine which serves to produce roving, - wherein during roving production a roving having a protective twist is produced by means of at least one consolidating means from a fiber bundle that is fed to the consolidating means, - wherein the roving produced by the consolidating means is wound by a winding device onto a tube, - wherein the roving during the winding process is guided by means of a guide element which is arranged between the consolidating means and the tube, and - wherein the guide element exerts a decelerating effect on the roving, characterized in that the decelerating effect is adapted during operation of the textile machine in such a way that it is lower during a start procedure, while the roving leaving the consolidating means is being brought into contact with a tube, preferably an empty tube, and/or during a tube change, while a wound tube is being replaced by an empty tube, than during a winding process that takes place between the start procedure and the tube change. - wherein during roving production a roving having a protective twist is produced by means of at least one consolidating means from a fiber bundle that is fed to the consolidating means, - wherein the roving produced by the consolidating means is wound by a winding device onto a tube, - wherein the roving during the winding process is guided by means of a guide element which is arranged between the consolidating means and the tube, and - wherein the guide element exerts a decelerating effect on the roving, characterized in that the decelerating effect is adapted during operation of the textile machine in such a way that it is lower during a start procedure, while the roving leaving the consolidating means is being brought into contact with a tube, preferably an empty tube, and/or during a tube change, while a wound tube is being replaced by an empty tube, than during a winding process that takes place between the start procedure and the tube change.
A method of backfilling a capacitor assembly comprising: (a) evacuating the interior of a capacitor assembly, the capacitor assembly comprising at least two electrodes and a porous separator (150, 160) disposed between the electrodes, the capacitor assembly sealed from the exterior atmosphere except via at least one fill-port, and the interior being evacuated via the fill-port, (b) subsequently, coupling the fill-port to a reservoir of liquid electrolyte, where the pressure on the liquid electrolyte is greater than the interior pressure of the evacuated capacitor assembly, thereby forcing the liquid electrolyte into the evacuated capacitor assembly through the fill-port; characterised by providing the capacitor with a porous separator free of surfactant and free of surface modification to increase wettability. (a) evacuating the interior of a capacitor assembly, the capacitor assembly comprising at least two electrodes and a porous separator (150, 160) disposed between the electrodes, the capacitor assembly sealed from the exterior atmosphere except via at least one fill-port, and the interior being evacuated via the fill-port, (b) subsequently, coupling the fill-port to a reservoir of liquid electrolyte, where the pressure on the liquid electrolyte is greater than the interior pressure of the evacuated capacitor assembly, thereby forcing the liquid electrolyte into the evacuated capacitor assembly through the fill-port;
A converter steelmaking method for producing molten steel by supplying gaseous oxygen from a top blowing lance into a converter to perform decarburization refining of molten iron while adding a CaO-containing powdery dephosphorizing agent to simultaneously decarburize and dephosphorize the molten iron, characterized in that the dephosphorizing agent is supplied to a bath surface of the molten iron together with at least one gas jet from the top blowing lance and a dynamic pressure calculated from the following formulae - when a gas jet blown from respective lance nozzles of the top blowing lance is impinging onto the bath surface of the molten iron is controlled to not more than 0.50 kgf/cm 2: P = 3.13 × 10 − 11 × ρg × U 0 × de × P 0 / Lh 2 U 0 = 740 1 − 1.033 / P 0 2 / 7 1 / 2 P 0 = Fj / 0.456 × dt 2 ρg = ρj + Vp / Fj / 60, wherein P: dynamic pressure at a center of the jet exerted on the bath surface of the molten iron by the gas jet blown from the lance nozzle [kgf/cm 2] ρg: density of the gas jet [kg/Nm 3] U 0: velocity of the gas jet blown from the lance nozzle [m/sec] de: outlet diameter of the lance nozzle [mm] P 0: pressure at nozzle inlet of the gas blown from the lance nozzle [kgf/cm 2] Lh: lance height [m] Fj: supply rate of the gas blown from the lance nozzle [Nm 3 /hr] dt: throat diameter of the lance nozzle [mm] ρj: density of the gas blown from the lance nozzle [kg/Nm 3] Vp: supply rate of the powdery dephosphorizing agent blown from the lance nozzle [kg/min]. P: dynamic pressure at a center of the jet exerted on the bath surface of the molten iron by the gas jet blown from the lance nozzle [kgf/cm 2] ρg: density of the gas jet [kg/Nm 3] U 0: velocity of the gas jet blown from the lance nozzle [m/sec] de: outlet diameter of the lance nozzle [mm] P 0: pressure at nozzle inlet of the gas blown from the lance nozzle [kgf/cm 2] Lh: lance height [m] Fj: supply rate of the gas blown from the lance nozzle [Nm 3 /hr] dt: throat diameter of the lance nozzle [mm] ρj: density of the gas blown from the lance nozzle [kg/Nm 3] Vp: supply rate of the powdery dephosphorizing agent blown from the lance nozzle [kg/min].
An apparatus comprising: a plurality of rotary travelling wave oscillators, RTWOs, comprising: a first RTWO (11a, 151a) configured to generate a first clock signal having a first phase, wherein the first RTWO comprises a first plurality of regeneration circuits (12a to 12f), wherein the first clock signal is generated in part using the first plurality of regeneration circuits; and a second RTWO (11b; 151b) adjacent to the first RTWO, wherein the second RTWO is configured to generate a second clock signal having a second phase different than the first phase, wherein a phase of the second RTWO is phase locked to the first RTWO with a phase shift, wherein the phase difference between said first phase and said second phase is controlled by said phase shift, wherein a first regeneration circuit of the first plurality of regeneration circuits is configured to operate at least with the first clock signal generated by the first RTWO and the second clock signal generated by the second RTWO. a plurality of rotary travelling wave oscillators, RTWOs, comprising: a first RTWO (11a, 151a) configured to generate a first clock signal having a first phase, wherein the first RTWO comprises a first plurality of regeneration circuits (12a to 12f), wherein the first clock signal is generated in part using the first plurality of regeneration circuits; and a second RTWO (11b; 151b) adjacent to the first RTWO, wherein the second RTWO is configured to generate a second clock signal having a second phase different than the first phase, wherein a phase of the second RTWO is phase locked to the first RTWO with a phase shift, wherein the phase difference between said first phase and said second phase is controlled by said phase shift, a first RTWO (11a, 151a) configured to generate a first clock signal having a first phase, wherein the first RTWO comprises a first plurality of regeneration circuits (12a to 12f), wherein the first clock signal is generated in part using the first plurality of regeneration circuits; and a second RTWO (11b; 151b) adjacent to the first RTWO, wherein the second RTWO is configured to generate a second clock signal having a second phase different than the first phase, wherein a phase of the second RTWO is phase locked to the first RTWO with a phase shift, wherein the phase difference between said first phase and said second phase is controlled by said phase shift, wherein a first regeneration circuit of the first plurality of regeneration circuits is configured to operate at least with the first clock signal generated by the first RTWO and the second clock signal generated by the second RTWO.
A fluid processing apparatus; wherein in the processing apparatus, a material to be processed is processed between processing surfaces arranged opposite to each other in processing members capable of approaching to and separating from, at least one of which rotates relative to the other, and a fluid to be processed is introduced into between the processing surfaces by using a micro-pump effect due to a plurality of depressions for fluid introduction arranged on at least any one of the processing surfaces whereby effecting the processing of the fluid to be processed by mixing/stirring thereof between the processing surfaces characterized in that the micro-pump effect generates a force to move the processing surfaces in the separation direction therebetween by rotation of the processing members and the depressions for fluid introduction arranged on the processing surfaces, whereby further generating an introduction effect of the fluid to be processed into between the processing surfaces, wherein the plurality of depressions for fluid introduction are arranged in a circumferential direction of the processing surface, each depression for fluid introduction is arranged such that it is extended in a direction from inside to outside of the processing surface, and a separate depression which is different from the depressions for fluid introduction is arranged on at least any one of the processing surfaces, and the separate depression has a form of a continuous circular ring.
An aircraft having a plurality of float kits (114a, 114b) that prevent a total loss of the aircraft after a water landing, the aircraft further comprising: an apparatus for preventing aircraft rollover, the apparatus comprising: a first deployable boom that is deployable in addition to the plurality of float kits (114a, 114b), wherein the first deployable boom is affixed by a first end to the aircraft and capable of deployment substantially perpendicular to a longitudinal axis of the aircraft; and a first deployable air bladder attached to a second end of the first deployable boom, wherein the first deployable air bladder is configured to inflate when the aircraft lands in the water, wherein deployment of the first deployable boom and first deployable air bladder prevents aircraft rollover upon water landing. a first deployable boom that is deployable in addition to the plurality of float kits (114a, 114b), wherein the first deployable boom is affixed by a first end to the aircraft and capable of deployment substantially perpendicular to a longitudinal axis of the aircraft; and a first deployable air bladder attached to a second end of the first deployable boom, wherein the first deployable air bladder is configured to inflate when the aircraft lands in the water, wherein deployment of the first deployable boom and first deployable air bladder prevents aircraft rollover upon water landing.
Hair coloring process with an aqueous composition comprising one or more direct dye(s) as the sole dyeing components wherein prior to application onto hair the said aqueous composition is first applied onto a sheet, which is made of cellulosic wood free paper weighing 140 g/m 2, comprising two or more areas having each different natural hair color to visualize the color of hair at the end of the coloring process and applied the said composition onto hair and after processing 1 to 45 min rinsed off from hair, hair is optionally shampooed and optionally dried.