mhurhangee/ep-ind-claims huggingface dataset:
Collector circuit for intercepting and selectively diverting, at least partially, a fluid flow, such as drilling mud, which is continuously flowing in a fluid circulation system directed to the bottom of a drilling well through drilling pipes, for drilling rigs; said collector comprises: • a first sub-circuit comprising: o at least one first duct, comprising at least one first valve, and o at least one second duct, comprising at least one second valve; • at least one second sub-circuit; said first sub-circuit, depending on the operating configuration of said at least one first valve and said at least one second valve, is adapted to: - allow the transit of said fluid flow in said at least one first duct, and - selectively divert at least one portion of said fluid flow towards said at least one second duct; said at least one second sub-circuit is fluid-dynamically connected to said at least one second duct of the first sub-circuit for receiving at least one portion of the fluid flow, diverted by said first sub-circuit, and directing it towards at least one first outlet of the same second sub-circuit; said at least one second sub-circuit and said first sub-circuit are independent of each other, and said at least one second sub-circuit is removable from the collector circuit; CHARACTERIZED IN THAT: - said at least one second sub-circuit comprises at least one valve (71A, 71B) for regulating said at least one portion of fluid flow directed towards said at least one first outlet; - said first sub-circuit comprises at least one first depressurization circuit; - said second sub-circuit comprises at least one second depressurization circuit; - said first depressurization circuit is independent of said second depressurization circuit. • a first sub-circuit comprising: o at least one first duct, comprising at least one first valve, and o at least one second duct, comprising at least one second valve; o at least one first duct, comprising at least one first valve, and o at least one second duct, comprising at least one second valve; • at least one second sub-circuit; - allow the transit of said fluid flow in said at least one first duct, and - selectively divert at least one portion of said fluid flow towards said at least one second duct; - said at least one second sub-circuit comprises at least one valve (71A, 71B) for regulating said at least one portion of fluid flow directed towards said at least one first outlet; - said first sub-circuit comprises at least one first depressurization circuit; - said second sub-circuit comprises at least one second depressurization circuit; - said first depressurization circuit is independent of said second depressurization circuit.
A cosmetic process for concealing skin pores, comprising the step of: applying onto the skin a self-standing cosmetic sheet comprising at least one biocompatible and/or biodegradable hydrophobic polymer layer, wherein the biocompatible and/or biodegradable hydrophobic polymer layer comprises at least one cationic polymer and at least one anionic polymer, and the self-standing cosmetic sheet has a thickness of from 10 to 1000 nm, preferably from 30 to from 500 nm, and more preferably from 50 to 300 nm. applying onto the skin a self-standing cosmetic sheet comprising at least one biocompatible and/or biodegradable hydrophobic polymer layer, wherein the biocompatible and/or biodegradable hydrophobic polymer layer comprises at least one cationic polymer and at least one anionic polymer, and the self-standing cosmetic sheet has a thickness of from 10 to 1000 nm, preferably from 30 to from 500 nm, and more preferably from 50 to 300 nm.
Rotary dough molding machine, comprising: - a frame, - a die roller rotatably mounted to the frame, - a knife for scraping dough from the die roller, said knife extending along the die roller, and - driving means for moving the knife between a scraping position and an inactive position, wherein the driving means comprises: - a first drive acting on the first end of the knife and - a second drive acting on the second end of the knife, wherein the first drive and the second drive can be actuated independently of each other, and wherein the rotary dough molding machine comprises a control device that is in communication with the first drive and the second drive, wherein the drives (1, 2) can be actuated by the control device automatically and/or in dependence of commands generated by means of a human interface. - a frame, - a die roller rotatably mounted to the frame, - a knife for scraping dough from the die roller, said knife extending along the die roller, and - driving means for moving the knife between a scraping position and an inactive position, wherein the driving means comprises: - a first drive acting on the first end of the knife and - a second drive acting on the second end of the knife, wherein the first drive and the second drive can be actuated independently of each other, and wherein the rotary dough molding machine comprises a control device that is in communication with the first drive and the second drive, wherein the drives (1, 2) can be actuated by the control device automatically and/or in dependence of commands generated by means of a human interface. - a first drive acting on the first end of the knife and - a second drive acting on the second end of the knife, wherein the first drive and the second drive can be actuated independently of each other, and wherein the rotary dough molding machine comprises a control device that is in communication with the first drive and the second drive, wherein the drives (1, 2) can be actuated by the control device automatically and/or in dependence of commands generated by means of a human interface.
An assembly for the treatment of wounds, comprising: a device for generating a plasma or an excited gas or gas mixture; a cover for the wound region to be treated; a pump; a housing of the device; characterized in that the assembly comprises a first line for supplying the plasma or the excited gas mixture from the device to the cover for the wound region to be treated; a second line for discharging the plasma or the excited gas mixture from the cover for the wound region to be treated to the pump; and a piezoelectric transformer of the device for generating the plasma or the excited gas or gas mixture; wherein the piezoelectric transformer is housed in the housing, a high-voltage end of the piezoelectric transformer is aligned toward an opening in the housing, and the plasma or the excited gas or gas mixture can be generated in a region of the opening of the housing. a device for generating a plasma or an excited gas or gas mixture; a cover for the wound region to be treated; a pump; a housing of the device; characterized in that the assembly comprises a first line for supplying the plasma or the excited gas mixture from the device to the cover for the wound region to be treated; a second line for discharging the plasma or the excited gas mixture from the cover for the wound region to be treated to the pump; and a piezoelectric transformer of the device for generating the plasma or the excited gas or gas mixture; wherein the piezoelectric transformer is housed in the housing, a high-voltage end of the piezoelectric transformer is aligned toward an opening in the housing, and the plasma or the excited gas or gas mixture can be generated in a region of the opening of the housing.
Communication device, comprising - a conductor, - a transceiver coupled to the conductor and - a data processing unit that is coupled to the transceiver, wherein the communication device is configured to determine a strength signal depending on a receiver signal received via the conductor and to determine a proximity signal depending on a proximity of a body to the communication device, and the data processing unit is configured to generate a disable signal depending on at least a value of the strength signal and on at least a value of the proximity signal. - a conductor, - a transceiver coupled to the conductor and - a data processing unit that is coupled to the transceiver,
Vehicle trailer, in particular a caravan, with a chassis which has an axle which cooperates at one end with a first wheel and at the other end with a second wheel and which is equipped with a braking device which has brake hubs of the wheels (6, 7) provided on the end of the axle, wherein a brake hub is arranged on one end of the axle with the interposition of a respective oscillating lever, and with an electric generator which can be driven by a movement of the trailer and is formed by magnets and at least one coil, wherein the magnets are arranged in an annular region on the outer housing circumference of a brake hub or on a separate magnet carrier positioned between a brake hub and a rim, and the coil being arranged in a stationary manner on the trailer with respect to the brake hub or magnet carrier, a voltage being induced in the coil as a result of the movement of the magnets, a coil holder being provided for the stationary arrangement of the coil, which coil holder is arranged on an axle stub of a wheel (6, 7) provided between the brake hub and the respectively associated oscillating lever, the coil being arranged leaving a distance from the trajectory of the magnets which forms a gap, the coil being adjustable with respect to the distance from the trajectory of the magnets.
An air filter, comprising: a housing having an inlet, an outlet, and a cavity therebetween; and an electrode assembly between the inlet and the outlet, wherein the electrode assembly includes a corona electrode (112, 312, 412), a plurality of collecting electrodes (122, 322) alternating with a plurality of repelling electrodes (128, 328); wherein the collecting electrodes (122, 322) include an internal first conductive portion (125, 325) and an outer surface (123a, 323a) generally parallel with an airflow through the cavity, and wherein the collecting electrodes (122, 322) further include a porous open-cell foam first collecting portion (124, 324) made from a first material characterized by having a high electrical resistivity greater than 10 2 Ωm. a housing having an inlet, an outlet, and a cavity therebetween; and an electrode assembly between the inlet and the outlet, wherein the electrode assembly includes a corona electrode (112, 312, 412), a plurality of collecting electrodes (122, 322) alternating with a plurality of repelling electrodes (128, 328); wherein the collecting electrodes (122, 322) include an internal first conductive portion (125, 325) and an outer surface (123a, 323a) generally parallel with an airflow through the cavity, and wherein the collecting electrodes (122, 322) further include a porous open-cell foam first collecting portion (124, 324) made from a first material characterized by having a high electrical resistivity greater than 10 2 Ωm.
A three-dimensional display apparatus arranged to display optically separated multi-view images at a plurality of viewing positions, the 3D display apparatus comprising: an image input unit arranged to receive an image and depth information; a multi-view image generation unit arranged to generate a multi-view foreground image containing a plurality of views and having depth information which is less than a preset depth value, and a multi-view rear ground image containing a plurality of views and having depth information which is equal to or higher than the preset depth value, using the received image and depth information; a multi-view image rendering unit arranged to perform rendering by arranging the views contained in the multi-view foreground image to be displayed along the plurality of viewing positions according to a first arrangement pattern, and arranging the views contained in the multi-view rear ground image to be displayed along the plurality of viewing positions according to a second arrangement pattern different from the first arrangement pattern; and a display unit arranged to output the rendered multi-view image. an image input unit arranged to receive an image and depth information; a multi-view image generation unit arranged to generate a multi-view foreground image containing a plurality of views and having depth information which is less than a preset depth value, and a multi-view rear ground image containing a plurality of views and having depth information which is equal to or higher than the preset depth value, using the received image and depth information; a multi-view image rendering unit arranged to perform rendering by arranging the views contained in the multi-view foreground image to be displayed along the plurality of viewing positions according to a first arrangement pattern, and arranging the views contained in the multi-view rear ground image to be displayed along the plurality of viewing positions according to a second arrangement pattern different from the first arrangement pattern; and a display unit arranged to output the rendered multi-view image.
A method of repairing an area on a surface of a composite-material part of an aircraft, the method comprising the steps of: a) applying a fibre patch preimpregnated with curable resin on the area to be repaired; b) applying on the patch a heating blanket and an airtight membrane and applying a closed-loop sealing element onto the surface surrounding the area to be repaired; c) heating the patch by means of the heating slayer blanket and applying a vacuum between the membrane and the surface so as to cause compaction of the patch against the surface while pressurizing an inflatable chamber acting against the membrane so as to press the patch against the area to be repaired, wherein the step of pressurizing the inflatable chamber is accomplished by pressurizing a concave body of rubber hermetically joined to the membrane, the concave body incorporating an inner inextensible reinforcement, and wherein the vacuum application step includes the suction of the air through a valve passing through the membrane in a position external to the inflatable chamber, so as to create a vacuum in a space defined between the membrane, the surface and the sealing element; characterized in that the depressurized space, which is delimited by the closed-loop sealing element, extends over a surface with an area at least three times that of the inflatable chamber. a) applying a fibre patch preimpregnated with curable resin on the area to be repaired; b) applying on the patch a heating blanket and an airtight membrane and applying a closed-loop sealing element onto the surface surrounding the area to be repaired; c) heating the patch by means of the heating slayer blanket and applying a vacuum between the membrane and the surface so as to cause compaction of the patch against the surface while pressurizing an inflatable chamber acting against the membrane so as to press the patch against the area to be repaired, wherein the step of pressurizing the inflatable chamber is accomplished by pressurizing a concave body of rubber hermetically joined to the membrane, the concave body incorporating an inner inextensible reinforcement, and wherein the vacuum application step includes the suction of the air through a valve passing through the membrane in a position external to the inflatable chamber, so as to create a vacuum in a space defined between the membrane, the surface and the sealing element; characterized in that the depressurized space, which is delimited by the closed-loop sealing element, extends over a surface with an area at least three times that of the inflatable chamber.
A communications apparatus, comprising: a first radio module (101 or 103) providing a first wireless communications service and communicates with a first communications device (201 or 203) in compliance with a first protocol, the communications apparatus wherein a second radio module providing a second wireless communications service and communicating with a second communications device in compliance with a second protocol, entering a learning phase, and transmitting a first request message to the second communications device to request for a period of absence to support an initial setup or connection setup operation of the first radio module(101 or 103), detecting activities of the first radio module (101 or 103), obtaining a first traffic pattern describing traffic allocations of the first radio module (101 or 103), and after the learning phase, generating a second traffic pattern of the second radio module according to the first traffic pattern to coordinate operations of the first and second radio modules, and transmitting a second request message carrying the second traffic pattern to the second communications device, wherein the second traffic pattern describes recommended traffic allocations to a plurality of sub-frames for the second radio module, and each sub-frame defined by the second protocol comprises a plurality of Orthogonal Frequency Division Multiplexing (OFDM) symbols. a first radio module (101 or 103) providing a first wireless communications service and communicates with a first communications device (201 or 203) in compliance with a first protocol, the communications apparatus wherein a second radio module providing a second wireless communications service and communicating with a second communications device in compliance with a second protocol, entering a learning phase, and transmitting a first request message to the second communications device to request for a period of absence to support an initial setup or connection setup operation of the first radio module(101 or 103), detecting activities of the first radio module (101 or 103), obtaining a first traffic pattern describing traffic allocations of the first radio module (101 or 103), and after the learning phase, generating a second traffic pattern of the second radio module according to the first traffic pattern to coordinate operations of the first and second radio modules, and transmitting a second request message carrying the second traffic pattern to the second communications device, wherein the second traffic pattern describes recommended traffic allocations to a plurality of sub-frames for the second radio module, and each sub-frame defined by the second protocol comprises a plurality of Orthogonal Frequency Division Multiplexing (OFDM) symbols.
A method of filtering a stream of power control commands including power-up and power-down commands for uplink transmit power control in a wireless communication system, including: - determining whether a power-up command is immediately preceded by a sequence of consecutive power-up commands said method being characterized by: - replacing, when it is determined that said power-up command is immediately preceded by a sequence of consecutive power-up commands, said power-up command with a power-down command - maintaining a power-down command that is immediately preceded by a sequence of consecutive power-down commands, where said sequence of consecutive power-down commands is at least as long as said sequence of consecutive power-up commands, wherein said filtering is asymmetric by limiting the length of sequences of consecutive power-up commands while enabling longer resulting sequences of consecutive power-down commands. - determining whether a power-up command is immediately preceded by a sequence of consecutive power-up commands said method being characterized by: - replacing, when it is determined that said power-up command is immediately preceded by a sequence of consecutive power-up commands, said power-up command with a power-down command - maintaining a power-down command that is immediately preceded by a sequence of consecutive power-down commands, where said sequence of consecutive power-down commands is at least as long as said sequence of consecutive power-up commands,
A post-print system comprising: a heating mechanism to heat a build volume when present in a housing within a first temperature range for a time period during a post-print stage; a cooling mechanism to cool the build volume when present in the housing within a second temperature range that is below the first temperature range; and a controller programmed to: select the first temperature range, the second temperature range and the time period based on build material information associated with the build volume, wherein: the first temperature range is above a crystallization point of the build volume and the time period represents a structural modification duration at the first temperature, which structural modification duration is a period to enhance a strength of the build volume, and which duration is determined based on the build material. a heating mechanism to heat a build volume when present in a housing within a first temperature range for a time period during a post-print stage; a cooling mechanism to cool the build volume when present in the housing within a second temperature range that is below the first temperature range; and a controller programmed to: select the first temperature range, the second temperature range and the time period based on build material information associated with the build volume, wherein: the first temperature range is above a crystallization point of the build volume and the time period represents a structural modification duration at the first temperature, which structural modification duration is a period to enhance a strength of the build volume, and which duration is determined based on the build material.
Connector assembly including a metal plate having an orifice and a spigot, said spigot having an internal flow path for liquid, and connector means for connecting the spigot to the metal plate so as to guide the liquid flowing in the flow path through said orifice, said connector means including a protruding collar structure surrounding said orifice, wherein a male end of said spigot is configured to be inserted in said collar structure, wherein the connector means further includes a ring-shaped snap-on module configured to be fitted over the collar structure, said snap-on module including a cylindrical insertion part configured to be inserted into the orifice of said collar structure, wherein a remote end of the cylindrical insertion part in the insertion direction is provided with first snap-on structures engaging with the collar structure characterized in that the cylindrical inner wall of the insertion part of the ring-shaped snap-on module is provided a with a notch configured to receive a first O-ring. wherein a male end of said spigot is configured to be inserted in said collar structure, wherein the connector means further includes a ring-shaped snap-on module configured to be fitted over the collar structure, said snap-on module including a cylindrical insertion part configured to be inserted into the orifice of said collar structure, wherein a remote end of the cylindrical insertion part in the insertion direction is provided with first snap-on structures engaging with the collar structure characterized in that the cylindrical inner wall of the insertion part of the ring-shaped snap-on module is provided a with a notch configured to receive a first O-ring.
A composition comprising a Porcine Epidemic Diarrhea Virus (PEDV) and a pharmaceutically-acceptable, non-toxic vehicle, wherein the PEDV has at least 99% identity to SEQ ID NO:1 or SEQ ID NO:2.
A method for preparing a part to allow its control by guided waves produced by magnetostrictive effect, said part having, after preparation on a first portion of its surface, two elementary strips (41a, 41b) parallel to each other and brought together, so that these elementary strips (41a, 41b) are spaced by a distance at most equal to the width of one of the elementary strips (41a, 41b), one of said strips being discontinuous and consisting of segments aligned with each other along a curve, and the other of said strips being continuous, each of said strips (41a, 41b) having magnetostrictive properties.