mhurhangee/patent-ind-claim-en huggingface dataset:
A fairing system for a rotorcraft , comprising: a hub fairing arranged and rotatable about a rotation axis (R); a shaft fairing arranged about the rotation axis (R) and adjacent to the hub fairing , which shaft fairing is fixed or movable about the rotation axis (R) and is movable relative to the hub fairing ; and a seal assembly interposed axially between the hub fairing and the shaft fairing , wherein the seal assembly spans a gap (G1, G2) defined between the hub fairing and the shaft fairing , wherein the hub fairing and the shaft fairing are both removably mounted to the seal assembly such that either or both the hub fairing and the shaft fairing can be dismounted from the seal assembly without disturbing the seal assembly , and characterized in that : the seal assembly further includes a seal race with sealing face and channel , in that a portion of the hub fairing is seated within the channel or a portion of the shaft fairing is seated within the channel , and in that the channel has a channel profile which includes axially opposed faces, and in that the portion of the hub fairing or shaft fairing seated in the channel is in contact with one of the axially opposed faces, or the seal race is configured to axially fix the hub fairing relative to the seal race . a hub fairing arranged and rotatable about a rotation axis (R); a shaft fairing arranged about the rotation axis (R) and adjacent to the hub fairing , which shaft fairing is fixed or movable about the rotation axis (R) and is movable relative to the hub fairing ; and a seal assembly interposed axially between the hub fairing and the shaft fairing , wherein the seal assembly spans a gap (G1, G2) defined between the hub fairing and the shaft fairing , wherein the hub fairing and the shaft fairing are both removably mounted to the seal assembly such that either or both the hub fairing and the shaft fairing can be dismounted from the seal assembly without disturbing the seal assembly , and characterized in that : the seal assembly further includes a seal race with sealing face and channel , in that a portion of the hub fairing is seated within the channel or a portion of the shaft fairing is seated within the channel , and in that the channel has a channel profile which includes axially opposed faces, and the seal assembly further includes a seal race with sealing face and channel , in that a portion of the hub fairing is seated within the channel or a portion of the shaft fairing is seated within the channel , and in that the channel has a channel profile which includes axially opposed faces, and in that the portion of the hub fairing or shaft fairing seated in the channel is in contact with one of the axially opposed faces, or the seal race is configured to axially fix the hub fairing relative to the seal race .
A vehicle parking lift with a pair of scissor-lift leg assemblies , each assembly comprising: an upper-pivot leg having an elongate body including a first end, an opposite second end, and a pivot point located between the first and second ends at which the body is pivotably coupleable with a lower-pivot leg of the scissor-lift assembly, the first end being pivotably coupled to a vehicle lift platform that is configured to receive a vehicle thereon, the second end being movable along a longitudinal member underlying the platform as the body is pivoted about the first end, characterized in that the body includes a recessed portion on a surface closest to a longitudinally extending midline of the parking lift and along the length of the body at least partway between the second end and the pivot point, the recessed portion being recessed away from said midline. an upper-pivot leg having an elongate body including a first end, an opposite second end, and a pivot point located between the first and second ends at which the body is pivotably coupleable with a lower-pivot leg of the scissor-lift assembly, the first end being pivotably coupled to a vehicle lift platform that is configured to receive a vehicle thereon, the second end being movable along a longitudinal member underlying the platform as the body is pivoted about the first end, characterized in that the body includes a recessed portion on a surface closest to a longitudinally extending midline of the parking lift and along the length of the body at least partway between the second end and the pivot point, the recessed portion being recessed away from said midline.
Dust hood for a grinding device provided with a gearbox neck for securing the dust hood , with a hood body for unilaterally covering a predominant portion of the grinding disc , wherein the dust hood has a hood sector which is displaceable along the hood body in the circumferential direction (U) of the hood body and is provided for gradually covering and opening up a remaining part of the grinding disc as required, and with an extraction connection , via which material from the abrasive removal of a substrate can be sucked out of the hood body , wherein at least one through-opening via which ambient air (UL) can flow into the hood body is formed in a surface (OK) of the hood body , said surface facing the grinding device , wherein a web is provided between the hood body and the hood sector , characterized in that the web has at least one web opening via which air (L) can flow from the segment chamber into the main chamber .
An automatic tension measuring instrument comprising: a band formed long in a longitudinal direction, wherein the band is an intestinal band configured to fix an artificial intestinal tract system ; a main body formed to allow the band to be guided thereinto such that one end of the band is fixed to the main body and the other end of the band is drawn outside the main body ; a marking part provided in the main body , the marking part being formed so as to enable marking on the band at a specific position in response to tension applied to the band ; and a stopper formed at the main body , the stopper being configured to stop the band at a predetermined position. a band formed long in a longitudinal direction, wherein the band is an intestinal band configured to fix an artificial intestinal tract system ; a main body formed to allow the band to be guided thereinto such that one end of the band is fixed to the main body and the other end of the band is drawn outside the main body ; a marking part provided in the main body , the marking part being formed so as to enable marking on the band at a specific position in response to tension applied to the band ; and a stopper formed at the main body , the stopper being configured to stop the band at a predetermined position.
An air removal device for an intravenous fluid system , comprising: a housing comprising: an inlet for fluid communication with a fluid source ; a fluid outlet for fluid communication with a blood vessel of a patient; and an air outlet ; a disrupting element disposed within the housing in a flow path between the inlet and the fluid outlet , wherein the disrupting element comprises a main body extending in the direction of the flow path and a protrusion extending across the flow path ; and an air chamber in fluid communication with the air outlet , the air chamber comprising a variable internal volume; wherein the flow path comprises a first cross-sectional flow area at the inlet , and a second cross-sectional flow area at the protrusion , the second cross-sectional flow area being smaller than the first cross-sectional flow area , wherein the flow path further comprises a third cross-sectional flow area at the main body , the third cross-sectional flow area being greater than the second cross-sectional flow area and smaller than the first cross-sectional flow area . a housing comprising: an inlet for fluid communication with a fluid source ; a fluid outlet for fluid communication with a blood vessel of a patient; and an air outlet ; an inlet for fluid communication with a fluid source ; a fluid outlet for fluid communication with a blood vessel of a patient; and an air outlet ; a disrupting element disposed within the housing in a flow path between the inlet and the fluid outlet , wherein the disrupting element comprises a main body extending in the direction of the flow path and a protrusion extending across the flow path ; and an air chamber in fluid communication with the air outlet , the air chamber comprising a variable internal volume; wherein the flow path comprises a first cross-sectional flow area at the inlet , and a second cross-sectional flow area at the protrusion , the second cross-sectional flow area being smaller than the first cross-sectional flow area , wherein the flow path further comprises a third cross-sectional flow area at the main body , the third cross-sectional flow area being greater than the second cross-sectional flow area and smaller than the first cross-sectional flow area .
A battery pack case, comprising: a bottom plate and a frame disposed on the bottom plate ; a beam , disposed in the battery pack case ; and a connection column , connected to the beam ; wherein a first chamber extending in a length direction of the beam is disposed inside the beam , the first chamber penetrates through the beam , the bottom plate and the frame form a second chamber , and the beam is disposed in the second chamber , the connection column penetrates through a side wall of the first chamber , and in an extending direction of the first chamber , two sides of the first chamber are respectively provided with blocking portions , wherein the connection column penetrates through the bottom plate of the battery pack case . a bottom plate and a frame disposed on the bottom plate ; a beam , disposed in the battery pack case ; and a connection column , connected to the beam ; wherein a first chamber extending in a length direction of the beam is disposed inside the beam , the first chamber penetrates through the beam , the bottom plate and the frame form a second chamber , and the beam is disposed in the second chamber , the connection column penetrates through a side wall of the first chamber , and in an extending direction of the first chamber , two sides of the first chamber are respectively provided with blocking portions , wherein the connection column penetrates through the bottom plate of the battery pack case .
A turbine engine component comprising a morphing aerodynamic control surface geometry comprising: a control surface having an articulated portion comprising a flexible skin coupled at an exterior of said articulated portion , said flexible skin comprising opposed interlocking elements sandwiched within a flexible polymer coupled to said interlocking elements , wherein said flexible skin is configured compliant responsive to an articulation of said articulated portion , wherein said articulated portion is part of the gas turbine engine component selected from the group consisting of a variable geometry splitter, gas flow path, a static engine component, a variable inlet guide vane and an adaptive flap, wherein said interlocking elements comprise at least one upper element and at least one lower element opposite said at least one upper element , and wherein said at least one upper element comprises an upper element exterior surface and an upper element interior surface having a feature opposite said upper element exterior surface , said at least one lower element comprises a lower element exterior surface and a lower element interior surface with a feature opposite said lower element exterior surface , and said upper element interior feature is configured to interlock with the lower element interior feature , characterised in that : said upper element interior feature comprises a peg extending out of a portion of said upper element interior surface and said lower element interior feature comprises a receiver formed in said lower element interior surface . a control surface having an articulated portion comprising a flexible skin coupled at an exterior of said articulated portion , said flexible skin comprising opposed interlocking elements sandwiched within a flexible polymer coupled to said interlocking elements , wherein said flexible skin is configured compliant responsive to an articulation of said articulated portion , wherein said articulated portion is part of the gas turbine engine component selected from the group consisting of a variable geometry splitter, gas flow path, a static engine component, a variable inlet guide vane and an adaptive flap, wherein said interlocking elements comprise at least one upper element and at least one lower element opposite said at least one upper element , and wherein said at least one upper element comprises an upper element exterior surface and an upper element interior surface having a feature opposite said upper element exterior surface , said at least one lower element comprises a lower element exterior surface and a lower element interior surface with a feature opposite said lower element exterior surface , and said upper element interior feature is configured to interlock with the lower element interior feature , characterised in that : said upper element interior feature comprises a peg extending out of a portion of said upper element interior surface and said lower element interior feature comprises a receiver formed in said lower element interior surface .
A method of producing aminohexanoic acid and/or aminohexanoic acid ester from synthesis gas, the method comprising: A. contacting the synthesis gas with at least one bacteria capable of carrying out the Wood-Ljungdahl pathway and the ethanol-carboxylate fermentation to produce hexanoic acid; and B. contacting the hexanoic acid with a genetically modified cell to produce aminohexanoic acid and/or aminohexanoic acid ester, wherein the genetically modified cell has an increased activity, in comparison with its wild type, of alkane monooxygenase, alcohol dehydrogenase, and ω-transaminase. A. contacting the synthesis gas with at least one bacteria capable of carrying out the Wood-Ljungdahl pathway and the ethanol-carboxylate fermentation to produce hexanoic acid; and B. contacting the hexanoic acid with a genetically modified cell to produce aminohexanoic acid and/or aminohexanoic acid ester, wherein the genetically modified cell has an increased activity, in comparison with its wild type, of alkane monooxygenase, alcohol dehydrogenase, and ω-transaminase.
A method of controlling a wind turbine , the method comprising the steps of: generating and outputting an overrating control signal to the wind turbine , the overrating control signal setting an amount by which the power output of the wind turbine is to be overrated; characterised by : measuring cable temperature values for at least one power collection cable connected to the wind turbine using at least one cable temperature sensor , wherein the at least one power collection cable is used to transport the generated power from the wind turbine for export to a grid ; determining whether the measured cable temperature values exceed a temperature set point; and modifying the overrating control signal to reduce the amount of overrating if the measured cable temperature values exceed the temperature set point. measuring cable temperature values for at least one power collection cable connected to the wind turbine using at least one cable temperature sensor , wherein the at least one power collection cable is used to transport the generated power from the wind turbine for export to a grid ; determining whether the measured cable temperature values exceed a temperature set point; and modifying the overrating control signal to reduce the amount of overrating if the measured cable temperature values exceed the temperature set point.
A sending node, comprising: a processing unit, configured to encapsulate data of an application program running on the sending node into multiple data packets; a sending unit, configured to transmit the multiple data packets to a receiving node at an initial transmission rate, wherein each data packet carries a random sequence number and a scrolling sequence number, the random sequence number is related to a data part of the data packet, and the scrolling sequence number is related to a transmission sequence of the data packet, a receiving unit, configured to receive packet loss feedback information from the receiving node, wherein the packet loss feedback information comprises scrolling sequence number information of at least one lost data packet detected by the receiving node according to a scrolling sequence number of at least one received data packet; and wherein the sending unit is further configured to: retransmit a data packet based on the received packet loss feedback information, wherein the retransmitted data packet carries a new scrolling sequence number, and a random sequence number determined based on the packet loss feedback information and a mapping relationship between the random sequence number and the scrolling sequence number of the at least one lost data packet. a processing unit, configured to encapsulate data of an application program running on the sending node into multiple data packets; a sending unit, configured to transmit the multiple data packets to a receiving node at an initial transmission rate, wherein each data packet carries a random sequence number and a scrolling sequence number, the random sequence number is related to a data part of the data packet, and the scrolling sequence number is related to a transmission sequence of the data packet, a receiving unit, configured to receive packet loss feedback information from the receiving node, wherein the packet loss feedback information comprises scrolling sequence number information of at least one lost data packet detected by the receiving node according to a scrolling sequence number of at least one received data packet; and wherein the sending unit is further configured to: retransmit a data packet based on the received packet loss feedback information, wherein the retransmitted data packet carries a new scrolling sequence number, and a random sequence number determined based on the packet loss feedback information and a mapping relationship between the random sequence number and the scrolling sequence number of the at least one lost data packet.
An apparatus , said apparatus comprising means for: causing at least one data packet to be transmitted by a user equipment using a first logical channel having a first set of logical channel parameters, and at least one data packet to be transmitted by the user equipment using a second logical channel having a second set of logical channel parameters, wherein the at least one data packet to be transmitted by the user equipment using the second logical channel is a duplicate of the at least one data packet to be transmitted by the user equipment using the first logical channel; determining by the user equipment whether at least one trigger condition is met; and, if so, causing the at least one data packet to be transmitted by the user equipment using the second logical channel with a modified second set of logical channel parameters, wherein the at least one trigger condition relates to at least one of transmission status, transmission configuration, data transmission performance and radio link quality; and the logical channel parameters comprise logical channel prioritisation parameters. causing at least one data packet to be transmitted by a user equipment using a first logical channel having a first set of logical channel parameters, and at least one data packet to be transmitted by the user equipment using a second logical channel having a second set of logical channel parameters, wherein the at least one data packet to be transmitted by the user equipment using the second logical channel is a duplicate of the at least one data packet to be transmitted by the user equipment using the first logical channel; determining by the user equipment whether at least one trigger condition is met; and, if so, causing the at least one data packet to be transmitted by the user equipment using the second logical channel with a modified second set of logical channel parameters, wherein the at least one trigger condition relates to at least one of transmission status, transmission configuration, data transmission performance and radio link quality; and the logical channel parameters comprise logical channel prioritisation parameters.
A safety load hook having a lower part , which realizes a hook throat and to which an upper part is fastened so as to be pivotable by means of a connecting bolt , which bottom part, which is pivotable in relation to the lower part , allows a load to be suspended on the hook throat in an open position and, in a closed position, blocks the hook throat of the lower part outwardly such that the introduction of a load to be received into the hook throat or the removal of a load held there from said hook throat is prevented, wherein in the closed position, the upper part is blockable in relation to the lower part by means of a locking arrangement which includes a locking lever with a receiving bore , which locking lever is pivotable about a support bolt arranged in said receiving bore into a release position and into a locked position, and is pretensionable into the locked position by means of a tensioning spring , characterized in that the locking lever is fastened to the lower part via the support bolt together with the tensioning spring and engages by way of a shaped projection in an associated shaped receiving means on the upper part in the locked position, wherein the locking lever is realized on its side opposite the shaped projection with reference to the receiving bore with a lever portion in such a manner that the center of mass (S) of the locking lever lies substantially on the lateral surface (M) of the receiving bore for the support bolt or inside the cross sectional area (Q) surrounded by the same, and the locking lever is supported on the lower part in the locked position via the free end of its lever portion .
A lamp assembly for rapid thermal processing, comprising: a quartz bulb containing an internal atmosphere comprising a halogen gas and enclosing at least one coil attached to a pair of electrical connectors , the bulb having an inner surface and an outer surface; a lamp base configured to receive the pair of electrical connectors ; a sleeve surrounding the lamp base, the sleeve having a cross-sectional area that is less than 0.95 times the cross-sectional area of the bulb , the lamp assembly being adapted for use in a substrate thermal processing chamber to heat the substrate to temperatures up to at least 1100° C; and a potting compound inside the sleeve . a quartz bulb containing an internal atmosphere comprising a halogen gas and enclosing at least one coil attached to a pair of electrical connectors , the bulb having an inner surface and an outer surface; a lamp base configured to receive the pair of electrical connectors ; a sleeve surrounding the lamp base, the sleeve having a cross-sectional area that is less than 0.95 times the cross-sectional area of the bulb , the lamp assembly being adapted for use in a substrate thermal processing chamber to heat the substrate to temperatures up to at least 1100° C; and a potting compound inside the sleeve .