mhurhangee/ep-ind-claims huggingface dataset:
A hydraulic arrangement for a steered wheel of a vehicle, comprising: - a hydraulic machine which comprises a rotor part configured to be connected to the steered wheel, a stator part (4A, 4B, 4C, 20) which has two main enclosures (22, 24) having respective main openings (22A, 24A) located in a receiving interface (IM; IM'), a set of pistons sliding in cylinders to drive in rotation the rotor part, and a fluid distributor configured to establish selective links between the main enclosures (22, 24) and the cylinders, - a pivot device (3; 3') which defines a pivot axis of the stator, which has two main outer orifices (02, 04) linked to respective connection openings (OR2, OR4; OR2', OR4') located in a connection interface (IS; IS') and which is configured to be fixed to a support by being linked to the stator of the hydraulic machine so that the receiving (IM; IM') and connection (IS; IS') interfaces cooperate by linking the respective main openings and the respective connection openings, characterized in that it comprises a pilot line (60; 60') linked to a pilot chamber (29; 129) and in that the pilot chamber (29; 129) has a pilot inlet (EP; EP') located in the receiving interface (IM; IM') and the pilot line (60; 60') is formed in the pivot device (3; 3') and extends between an outer pilot orifice present in the pivot device and a pilot opening (61; 61') located in the connection interface (IS; IS'), the pilot opening being linked to the pilot inlet by the cooperation of the connection and receiving interfaces. - a hydraulic machine which comprises a rotor part configured to be connected to the steered wheel, a stator part (4A, 4B, 4C, 20) which has two main enclosures (22, 24) having respective main openings (22A, 24A) located in a receiving interface (IM; IM'), a set of pistons sliding in cylinders to drive in rotation the rotor part, and a fluid distributor configured to establish selective links between the main enclosures (22, 24) and the cylinders, - a pivot device (3; 3') which defines a pivot axis of the stator, which has two main outer orifices (02, 04) linked to respective connection openings (OR2, OR4; OR2', OR4') located in a connection interface (IS; IS') and which is configured to be fixed to a support by being linked to the stator of the hydraulic machine so that the receiving (IM; IM') and connection (IS; IS') interfaces cooperate by linking the respective main openings and the respective connection openings, characterized in that it comprises a pilot line (60; 60') linked to a pilot chamber (29; 129) and in that the pilot chamber (29; 129) has a pilot inlet (EP; EP') located in the receiving interface (IM; IM') and the pilot line (60; 60') is formed in the pivot device (3; 3') and extends between an outer pilot orifice present in the pivot device and a pilot opening (61; 61') located in the connection interface (IS; IS'), the pilot opening being linked to the pilot inlet by the cooperation of the connection and receiving interfaces.
An amorphous alloy comprising at least Pt, P, Si and B as alloying elements and optionally one or more additional alloying elements selected from the group consisting of Cu, Ag, Ni, Pd, Au, Co, Fe, Ru, Rh, Ir, Re, Os, Sb, Ge, Ga, Al, and combinations thereof, wherein the Pt is present in the alloy at a weight fraction of 0.925 or greater, the P is present in the alloy in the atomic fraction of 0.15 to 0.185, the B is present in the alloy in the atomic fraction of 0.02 to 0.06, and the Si is present in the alloy in an atomic fraction of 0.005 to 0.025.
An aesthetic treatment device comprising: a multi illumination system having at least one source in the visible region, to be disposed around a periphery of a predetermined area of skin, the multi illumination system comprising a disk-shaped substrate having multiple illumination light sources (19, 23) at its perimeter, wherein the substrate comprises an inner aperture which is a hollow, wherein the multi illumination system is configured to illuminate the area of the skin within the hollow; wherein the substrate has an optical axis perpendicular to the substrate and passing through the middle of the hollow; an imaging device (3, 16), sensitive to the multi illumination system, to discern one or more features on or in the skin within the predetermined area of skin to be treated; multiple treatment light sources mounted on an optical bench aimed and focused to a point of treatment in the predetermined area of skin; a mechanical guidance system to guide the multiple treatment light sources; and a pulse generator to control power output of the multiple treatment light sources based upon the treatment to be applied to the predetermined area of skin; wherein illumination emerging from the multi illumination system is perpendicular to the optical axis and primarily parallel to the skin surface. a multi illumination system having at least one source in the visible region, to be disposed around a periphery of a predetermined area of skin, the multi illumination system comprising a disk-shaped substrate having multiple illumination light sources (19, 23) at its perimeter, wherein the substrate comprises an inner aperture which is a hollow, wherein the multi illumination system is configured to illuminate the area of the skin within the hollow; wherein the substrate has an optical axis perpendicular to the substrate and passing through the middle of the hollow; an imaging device (3, 16), sensitive to the multi illumination system, to discern one or more features on or in the skin within the predetermined area of skin to be treated; multiple treatment light sources mounted on an optical bench aimed and focused to a point of treatment in the predetermined area of skin; a mechanical guidance system to guide the multiple treatment light sources; and a pulse generator to control power output of the multiple treatment light sources based upon the treatment to be applied to the predetermined area of skin; wherein illumination emerging from the multi illumination system is perpendicular to the optical axis and primarily parallel to the skin surface.
A process for producing a biaxially oriented pipe by a) forming a polyethylene composition into a tube, wherein the polyethylene composition comprises high density polyethylene (HDPE) and a second polyethylene selected from linear low density polyethylene (LLDPE), low density polyethylene (LDPE) and a combination of LLDPE and LDPE and b) stretching the tube of step a) in the axial direction and peripheral direction to obtain the biaxially oriented pipe, wherein the pipe is a pressure pipe and the polyethylene composition has a Melt Flow Rate of 0.1-4 g/10 min, preferably 0.1-1 g/10min, measured according to IS01133-1:2011 (190 oC/5 kg). a) forming a polyethylene composition into a tube, wherein the polyethylene composition comprises high density polyethylene (HDPE) and a second polyethylene selected from linear low density polyethylene (LLDPE), low density polyethylene (LDPE) and a combination of LLDPE and LDPE and b) stretching the tube of step a) in the axial direction and peripheral direction to obtain the biaxially oriented pipe,
A Split Stirling cryogenic refrigerator comprising an expander unit and a compressor unit mounted in a side by side configuration upon a common frame, and a vibration attenuation unit attached to said Split Stirling cryogenic refrigerator, said Split Stirling cryogenic refrigerator having an operation frequency; wherein said vibration attenuation unit comprises at least one undamped mass-spring system comprising a planar flexural bearing and a proof mass assembly, the proof mass assembly comprises at least one primary proof mass element mounted fixedly on a peripheral anchor of said flexural bearing and at least one secondary proof mass element mounted on and moveable with respect to said primary proof mass element; said vibration attenuation unit having two or more vibrational modes and a frequency corresponding to said operation frequency of the Split Stirling cryogenic refrigerator, thereby enabling attenuation of vibrations of said Split Stirling cryogenic refrigerator along said two or more vibrational modes.
A wave-inducing device for cementing a casing in a borehole, wherein the wave-inducing device is designed for arrangement in the casing and comprises a movable element which, when the wave-inducing device is arranged in the casing, is designed to be moved by cement and/or another fluid flowing through the casing so that wave motions and/or vibrations are provided in the cement during the cementing of the casing, the movable element comprising a rotating wheel with a rotational axis and a through hole in the direction of the rotational axis for through flow of cement, in which through hole at least one impeller is arranged, characterised in that the wheel is further provided with a mass that is eccentrically or asymetrically arranged in relation to the rotational axis causing, when the wheel is rotated, the casing to swing out in a radial direction in relation to the normal position of the casing.
A data traffic management method, wherein the method comprises the following steps: obtaining, by a terminal, traffic control information of a WiFi hotspot, wherein the traffic control information comprises an upper traffic threshold; enabling, by the terminal, the WiFi hotspot for sharing data traffic of the terminal with other terminals, wherein the data traffic is wireless local area network data traffic; obtaining (S 102), by the terminal, a data traffic value used by the other terminals that perform data connection by using the WiFi hotspot in a time period from enabling of the WiFi hotspot to a current time; disabling, by the terminal, the WiFi hotspot when the data traffic value is greater than or equal to the upper traffic threshold; displaying, by the terminal, an indicator indicating that the WiFi hotspot has been disabled; detecting, by the terminal, an instruction restarting the WiFi hotspot; and calculating, by the terminal, an amount of data traffic usage from zero after the WiFi hotspot has been restarted. obtaining, by a terminal, traffic control information of a WiFi hotspot, wherein the traffic control information comprises an upper traffic threshold; enabling, by the terminal, the WiFi hotspot for sharing data traffic of the terminal with other terminals, wherein the data traffic is wireless local area network data traffic; obtaining (S 102), by the terminal, a data traffic value used by the other terminals that perform data connection by using the WiFi hotspot in a time period from enabling of the WiFi hotspot to a current time; disabling, by the terminal, the WiFi hotspot when the data traffic value is greater than or equal to the upper traffic threshold; displaying, by the terminal, an indicator indicating that the WiFi hotspot has been disabled; detecting, by the terminal, an instruction restarting the WiFi hotspot; and calculating, by the terminal, an amount of data traffic usage from zero after the WiFi hotspot has been restarted.
. A foil apparatus for a paper making machine comprising:an elongated foil member defining a work surface positionable relative to the forming fabric of a paper making machine; and an elongated pulse generator coupled to the foil member along a length of the foil member; characterised in that the pulse generator is mounted adjacent to the foil member for forming a nip between the work surface and the forming fabric, the nip creating movement in a slurry stock of a paper making machine in use to reduce flocculation, and in that the pulse generator is slideably coupled to the foil member for movement of the pulse generator relative to the foil member for adjusting the volume of the nip.
Optical component comprising - an anisotropic diffuser (5,10) with patterned anisotropy, wherein the anisotropic diffuser (5, 10) has a substantially nonperiodic optically effective structure; and - a layer structure, which comprises at least one of a) multi-layer thin-film system based on dielectric materials, wherein the dielectric materials in different layers have different index of refraction, b) a Fabry-Perot-resonator (9,14,16,17) comprising at least one partially transparent first metal film (14,17), and a second metal film (9,14) and between those metal films a dielectric layer, the layer structure having the property that when light is incident onto the layer structure, the colour of the light transmitted through and/or reflected by the layer structure appears in different colours depending on the angle of observation and/or on the incidence angle of the light, wherein the anisotropic diffuser (5, 10) and the layer structure are either located one behind the other as seen from the viewing direction, or the anisotropic diffuser (5, 10) is part of the layer structure, and wherein the anisotropy of the anisotropic diffuser (5, 10) has imagewise locally varying azimuthal orientations (43, 44, 45) and shows a viewing angle dependent positive/negative image flipping upon tilting or rotating of the optical component. - an anisotropic diffuser (5,10) with patterned anisotropy, wherein the anisotropic diffuser (5, 10) has a substantially nonperiodic optically effective structure; and - a layer structure, which comprises at least one of a) multi-layer thin-film system based on dielectric materials, wherein the dielectric materials in different layers have different index of refraction, b) a Fabry-Perot-resonator (9,14,16,17) comprising at least one partially transparent first metal film (14,17), and a second metal film (9,14) and between those metal films a dielectric layer, a) multi-layer thin-film system based on dielectric materials, wherein the dielectric materials in different layers have different index of refraction, b) a Fabry-Perot-resonator (9,14,16,17) comprising at least one partially transparent first metal film (14,17), and a second metal film (9,14) and between those metal films a dielectric layer,
A gasification stove comprising a containment structure which accommodates a storage tank for biomass fuel, a gasification crucible connected to an expansion chamber which in turn is connected to a combustion chamber, an air-air heat exchanger, wherein said expansion chamber, which lies above said gasification crucible and lies below said combustion chamber, has an intermediate section that has larger dimensions than an input section for input from said gasification crucible, characterized by said gasification crucible, having a substantially tubular shape with constant circular or rectangular cross-section, being delimited, at the lower end, by a first opening adapted to allow the passage of a first gasification air that originates from a first plenum, said gasification crucible having, at an upper end, a series of second openings adapted to allow the passage of a second combustion air at a first passage toward said overlying gas expansion chamber. wherein said expansion chamber, which lies above said gasification crucible and lies below said combustion chamber, has an intermediate section that has larger dimensions than an input section for input from said gasification crucible, characterized by said gasification crucible, having a substantially tubular shape with constant circular or rectangular cross-section, being delimited, at the lower end, by a first opening adapted to allow the passage of a first gasification air that originates from a first plenum, said gasification crucible having, at an upper end, a series of second openings adapted to allow the passage of a second combustion air at a first passage toward said overlying gas expansion chamber.
An arc welding control method for performing arc welding while repeating a short-circuit period and an arc period, the method including: - changing an inductance value relating to welding output in the arc period; the method being characterised by the following steps: - performing current control for a predetermined period from a start of the arc period; and - performing voltage control for the arc period after the predetermined period, wherein the inductance value relating to welding output is changed in the voltage-controlled period. - changing an inductance value relating to welding output in the arc period; the method being characterised by the following steps: - performing current control for a predetermined period from a start of the arc period; and - performing voltage control for the arc period after the predetermined period, wherein the inductance value relating to welding output is changed in the voltage-controlled period. - performing current control for a predetermined period from a start of the arc period; and - performing voltage control for the arc period after the predetermined period, wherein the inductance value relating to welding output is changed in the voltage-controlled period.
A method for allocation of Internet Protocol addresses to network devices in a communication network, wherein said communication network comprises an Internet Protocol address server and said method is implemented by said Internet Protocol address server, said method comprising: receiving, from a first network device of said network devices in said communication network, a request for attribution of an Internet Protocol address to a Media Access Control address, the request comprising said Media Access Control address; if an Internet Protocol address is not attributed to the Media Access Control address, applying a Media Access Control address translation to the Media Access Control address, to obtain a translated Media Access Control address; and if an Internet Protocol address is attributed to the translated Media Access Control address, transmitting, to said first network device, the Internet Protocol address attributed to the translated Media Access Control address. receiving, from a first network device of said network devices in said communication network, a request for attribution of an Internet Protocol address to a Media Access Control address, the request comprising said Media Access Control address; if an Internet Protocol address is not attributed to the Media Access Control address, applying a Media Access Control address translation to the Media Access Control address, to obtain a translated Media Access Control address; and if an Internet Protocol address is attributed to the translated Media Access Control address, transmitting, to said first network device, the Internet Protocol address attributed to the translated Media Access Control address.
A seal for sealing a rotational shaft extending inside a tubular member, such as in a caission for housing a pump in a container, the seal comprising - a tubular member, - a division element dividing the interior of the tubular member in an upper section and a lower section, - a shaft extending from a position in the upper section of the tubular member through a through-going opening in the division element and into the lower section; - a first element sealingly arranged in a fixed position on the shaft in the upper section and having a first sealing surface encircling the shaft and facing towards the internal division element, - a second element slidingly arranged on the shaft below the first element, the second element having a second sealing surface facing towards the first sealing surface, the second element has a section extending through the through going opening and a seal element is provided in-between said section and the through going opening, - an actuator for sliding the second element along the shaft, characterised in that said actuator is a solenoid, pneumatic and/or hydraulic actuator arranged to slide the second element along the shaft. - a tubular member, - a division element dividing the interior of the tubular member in an upper section and a lower section, - a shaft extending from a position in the upper section of the tubular member through a through-going opening in the division element and into the lower section; - a first element sealingly arranged in a fixed position on the shaft in the upper section and having a first sealing surface encircling the shaft and facing towards the internal division element, - a second element slidingly arranged on the shaft below the first element, the second element having a second sealing surface facing towards the first sealing surface, the second element has a section extending through the through going opening and a seal element is provided in-between said section and the through going opening, - an actuator for sliding the second element along the shaft,
A method for internal generation of secure network communications, the method comprising: commissioning an industrial control system comprising in a known-good environment, a plurality of networked components and an engineering station; communicating, by the engineering station, to the networked components respective peer assignments, wherein each peer assignment respectively specifies for each networked component which of the other networked components are peers thereof in a peer group, exchanging, by the networked components, encryption keys between the networked components in each respective peer group in the known-good environment without download of the encryption keys to the commissioned industrial control system; and securing, by the networked components, communications between the networked components with the encryption keys. commissioning an industrial control system comprising in a known-good environment, a plurality of networked components and an engineering station; communicating, by the engineering station, to the networked components respective peer assignments, wherein each peer assignment respectively specifies for each networked component which of the other networked components are peers thereof in a peer group, exchanging, by the networked components, encryption keys between the networked components in each respective peer group in the known-good environment without download of the encryption keys to the commissioned industrial control system; and securing, by the networked components, communications between the networked components with the encryption keys.
An apparatus for detecting a break in a screen of a vibratory separator, wherein the vibratory separator comprises a screen secured with in a housing and having a plurality of openings sized for separating material deposited thereon, and a throughs outlet located below the screen for removing material that passes through the screen from the housing, the apparatus comprising: an infeed section coupled to the housing such that at least a portion of the material passing through the screen and directed from the housing is directed through the infeed section; a detector screening element for receiving material from the infeed section, wherein the detector screening element has a plurality of openings having a size equal to or slightly larger than the opening size of the screen in the vibratory separator; and a level sensor positioned above the detector screening element, wherein the level sensor is positioned to detect material build up on the detector screening element. an infeed section coupled to the housing such that at least a portion of the material passing through the screen and directed from the housing is directed through the infeed section; a detector screening element for receiving material from the infeed section, wherein the detector screening element has a plurality of openings having a size equal to or slightly larger than the opening size of the screen in the vibratory separator; and a level sensor positioned above the detector screening element, wherein the level sensor is positioned to detect material build up on the detector screening element.