mhurhangee/patent-ind-claim-en huggingface dataset:
A method for adding a circular cylinder section to a helically-lobed rotor for a hydraulic motor or pump , the method comprising: obtaining the rotor , including an elongated helically lobed section , for modification; selecting a cylinder shell , the cylinder shell comprising two halves that are configured to be joined together around the rotor to form the circular cylinder section , the cylinder shell including an inner diameter and an outer diameter , with the outer diameter being substantially equal to a major diameter of the helically-lobed rotor ; removing tips of helical lobes of the rotor to reduce the major diameter of a portion of the helically-lobed rotor , wherein the removing forms a reduced-diameter section that is nominally smaller than the inner diameter of the cylinder shell; securing the cylinder shell around the reduced-diameter section of the helically-lobed rotor to form the circular cylinder section ; inserting the rotor with the cylinder shell into a stator of the hydraulic motor or pump, the stator including a tubular elastomer stator section and a cylindrical sleeve ; and aligning the circular cylinder section with the cylindrical sleeve such that the circular cylinder section does not extend from within the cylindrical sleeve longitudinally beyond an end of the sleeve that is adjacent to the tubular elastomer stator section . obtaining the rotor , including an elongated helically lobed section , for modification; selecting a cylinder shell , the cylinder shell comprising two halves that are configured to be joined together around the rotor to form the circular cylinder section , the cylinder shell including an inner diameter and an outer diameter , with the outer diameter being substantially equal to a major diameter of the helically-lobed rotor ; removing tips of helical lobes of the rotor to reduce the major diameter of a portion of the helically-lobed rotor , wherein the removing forms a reduced-diameter section that is nominally smaller than the inner diameter of the cylinder shell; securing the cylinder shell around the reduced-diameter section of the helically-lobed rotor to form the circular cylinder section ; inserting the rotor with the cylinder shell into a stator of the hydraulic motor or pump, the stator including a tubular elastomer stator section and a cylindrical sleeve ; and aligning the circular cylinder section with the cylindrical sleeve such that the circular cylinder section does not extend from within the cylindrical sleeve longitudinally beyond an end of the sleeve that is adjacent to the tubular elastomer stator section .
Vacuum cleaner comprising a holder for a dust container, the dust container comprising a dust bag and a connector plate surrounding an opening of the dust bag and being configured to attach the dust container to the holder , the holder being removably attached to the vacuum cleaner for allowing a user to remove the dust container upon removing the holder from the vacuum cleaner , the vacuum cleaner wherein: the connector plate comprises a closure member being arranged to at least partly close the opening of the dust bag when the dust container is removed from the vacuum cleaner upon the user removing the holder ; and the holder comprises a mechanism configured to release the dust container from the holder upon user operation of said mechanism , the holder further comprising: a handle operable by the user for removing the holder from the vacuum cleaner , characterised by the handle being configured to be pivotably arranged at the holder , wherein the handle is pivoted in a direction towards the dust bag when the holder is an operating position inside the vacuum cleaner . the connector plate comprises a closure member being arranged to at least partly close the opening of the dust bag when the dust container is removed from the vacuum cleaner upon the user removing the holder ; and the holder comprises a mechanism configured to release the dust container from the holder upon user operation of said mechanism , the holder further comprising: a handle operable by the user for removing the holder from the vacuum cleaner , characterised by the handle being configured to be pivotably arranged at the holder , wherein the handle is pivoted in a direction towards the dust bag when the holder is an operating position inside the vacuum cleaner .
Method for producing an injection anchor in the ground, wherein - a bore is created in the ground, - a hardening material for forming an anchor foot is injected by means of an injection member at least in a partial region of the bore , and - after partial, not yet complete, hardening of the material a post-grouting medium is introduced under pressure into a region of the anchor foot via a post-grouting member , by which medium the not yet completely hardened anchor foot is broken up, characterised in that an automatic post-grouting machine is connected to the post-grouting member , by which machine the post-grouting medium for breaking up the not yet hardened anchor foot is automatically introduced into the post-grouting member at a freely specifiable time. - a bore is created in the ground, - a hardening material for forming an anchor foot is injected by means of an injection member at least in a partial region of the bore , and - after partial, not yet complete, hardening of the material a post-grouting medium is introduced under pressure into a region of the anchor foot via a post-grouting member , by which medium the not yet completely hardened anchor foot is broken up,
A method of controlling the shrinkage and/or growth of a ceramic honeycomb structure between a green body state and a fired state, the method comprising: (a) providing a substantially clay-free cordierite batch composition comprising hydrated alumina and suitable for making a ceramic honeycomb structure; (b) extruding the batch composition into a green honeycomb structure; (c) measuring the dimensions of the green honeycomb structure; (d) firing the green honeycomb structure; (e) measuring the dimensions of the fired honeycomb structure; (f) determining the shrinkage or growth of the fired honeycomb structure as compared to the green honeycomb structure and selecting a desired hydrated alumina amount of the batch composition based on a function or relationship between shrinkage or growth and the hydrated alumina amount of the batch composition; (g) adjusting the hydrated alumina content of the composition by the addition of the selected amount of at least one hydrated alumina to the batch composition; and (h) repeating steps (a)-(g) as necessary to obtain a desired level of shrinkage between the green body and fired states. (a) providing a substantially clay-free cordierite batch composition comprising hydrated alumina and suitable for making a ceramic honeycomb structure; (b) extruding the batch composition into a green honeycomb structure; (c) measuring the dimensions of the green honeycomb structure; (d) firing the green honeycomb structure; (e) measuring the dimensions of the fired honeycomb structure; (f) determining the shrinkage or growth of the fired honeycomb structure as compared to the green honeycomb structure and selecting a desired hydrated alumina amount of the batch composition based on a function or relationship between shrinkage or growth and the hydrated alumina amount of the batch composition; (g) adjusting the hydrated alumina content of the composition by the addition of the selected amount of at least one hydrated alumina to the batch composition; and (h) repeating steps (a)-(g) as necessary to obtain a desired level of shrinkage between the green body and fired states.
A method of enabling a provision of public warning system, PWS, messages to a user equipment, UE, device via a non-3GPP radio network, the method comprising: establishing an internet protocol security, IPSec, tunnel connection from the UE device to a non-3GPP interworking function, N3IWF, via a non-3GPP, N3GPP, radio access technology, requesting from a first core network, CN, entity by the UE device a provision of public warning system, PWS, messages; providing by the UE device the first CN entity with information about a location of the UE device; subscribing by the UE device with the first CN entity to a group to which alert messages are provided by the first CN entity based on a notification area relating to the group, the notification area comprising the location of the UE device, and receiving by the UE device PWS messages having a source or a target address relating to an area comprising the notification area of the alert message as a result of subscribing, by the UE device via the IPSec tunnel. establishing an internet protocol security, IPSec, tunnel connection from the UE device to a non-3GPP interworking function, N3IWF, via a non-3GPP, N3GPP, radio access technology, requesting from a first core network, CN, entity by the UE device a provision of public warning system, PWS, messages; providing by the UE device the first CN entity with information about a location of the UE device; subscribing by the UE device with the first CN entity to a group to which alert messages are provided by the first CN entity based on a notification area relating to the group, the notification area comprising the location of the UE device, and receiving by the UE device PWS messages having a source or a target address relating to an area comprising the notification area of the alert message as a result of subscribing, by the UE device via the IPSec tunnel.
A multi-functional fuel nozzle for a combustion turbine engine, comprising: a nozzle cap disposed at a downstream end of the nozzle, wherein the nozzle cap comprises a bore arranged to accommodate a downstream portion of a fluid-injecting lance that extends along a longitudinal axis of the nozzle, the downstream portion of the fluid-injecting lance comprising a centrally-located atomizer to form a first atomized ejection cone, and an array of atomizers in the nozzle cap , the array of atomizers circumferentially disposed about the longitudinal axis of the lance, the array of atomizers being positioned radially outwardly relative to the centrally-located atomizer to form an array of respective second atomized ejection cones, wherein the nozzle cap further comprises a plurality of gas fuel channels circumferentially disposed about the longitudinal axis of the nozzle , the plurality of gas fuel channels being positioned radially outwardly relative to array of atomizers , wherein the nozzle cap comprises a plurality of castellations circumferentially arranged on a forward face of the nozzle cap , wherein the gas fuel channels comprise respective outlets arranged at respective top surfaces of the castellations . a nozzle cap disposed at a downstream end of the nozzle, wherein the nozzle cap comprises a bore arranged to accommodate a downstream portion of a fluid-injecting lance that extends along a longitudinal axis of the nozzle, the downstream portion of the fluid-injecting lance comprising a centrally-located atomizer to form a first atomized ejection cone, and an array of atomizers in the nozzle cap , the array of atomizers circumferentially disposed about the longitudinal axis of the lance, the array of atomizers being positioned radially outwardly relative to the centrally-located atomizer to form an array of respective second atomized ejection cones, wherein the nozzle cap further comprises a plurality of gas fuel channels circumferentially disposed about the longitudinal axis of the nozzle , the plurality of gas fuel channels being positioned radially outwardly relative to array of atomizers , wherein the nozzle cap comprises a plurality of castellations circumferentially arranged on a forward face of the nozzle cap , wherein the gas fuel channels comprise respective outlets arranged at respective top surfaces of the castellations .
Battery arrangement for structurally integrating batteries in a vehicle, in particular an aircraft or spacecraft , having: at least one battery ; two supporting cooling plates being integrally produced from a metal material having a multiplicity of fluid channels and carrying at least one battery between each other, the at least one battery being held on both sides via battery holders ; and a plurality of connecting rods which connect the two cooling plates to one another; wherein each respective cooling plate is connected to the respective battery holder via shear pins . at least one battery ; two supporting cooling plates being integrally produced from a metal material having a multiplicity of fluid channels and carrying at least one battery between each other, the at least one battery being held on both sides via battery holders ; and a plurality of connecting rods which connect the two cooling plates to one another; wherein each respective cooling plate is connected to the respective battery holder via shear pins .
A surgical access assembly , comprising: a sleeve adapted for insertion within tissue to access an underlying tissue site, the sleeve defining a first passage therethrough, the first passage having a first diameter; and a port defining at least one second passage extending therethrough, the port being adapted for insertion within the first passage of the sleeve in a substantially sealed relationship therewith, the at least one second passage being adapted for a substantially sealed reception of a surgical object therethrough, the at least one second passage having at least one second diameter; wherein the port is selectively removably positionable within the first passage of the sleeve, and wherein the first diameter is greater than the at least one second diameter characterised in that the port is flexible for insertion within the first passage of the sleeve, and being compressible for insertion within the tissue and is configured to provide a biasing force once in place within the incision so as to maintain the port within the tissue and so as to maintain the sleeve between the port and the tissue. a sleeve adapted for insertion within tissue to access an underlying tissue site, the sleeve defining a first passage therethrough, the first passage having a first diameter; and a port defining at least one second passage extending therethrough, the port being adapted for insertion within the first passage of the sleeve in a substantially sealed relationship therewith, the at least one second passage being adapted for a substantially sealed reception of a surgical object therethrough, the at least one second passage having at least one second diameter; wherein the port is selectively removably positionable within the first passage of the sleeve, and wherein the first diameter is greater than the at least one second diameter characterised in that the port is flexible for insertion within the first passage of the sleeve, and being compressible for insertion within the tissue and is configured to provide a biasing force once in place within the incision so as to maintain the port within the tissue and so as to maintain the sleeve between the port and the tissue.
An engine control unit for an internal-combustion engine driving a fuel injection valve electromagnetically to provide fuel injection a multiple number of times per operation cycle to a combustion chamber of the internal-combustion engine , the engine control unit comprising: a microcomputer configured to output a valve open time Pi for opening the fuel injection valve and an injection time Ti for injecting the fuel injection valve ; a booster circuit configured to boost the voltage of a battery to generate a boost voltage for the engine control unit ; and a voltage driver configured to control the supply of an Ipeak current generated by the boost voltage, and an Iholdl current generated by the boost voltage or the battery voltage smaller than the Ipeak current to the fuel injection valve according to the valve opening time Pi, and control the supply of an Ihold2 current generated by the battery voltage smaller than the Iholdl current to the fuel injection valve according to the fuel injection time Ti; wherein the Ipeak current and the Iholdl current are suitable for opening the fuel injection valve , and the Ihold2 current is suitable for holding the fuel injection valve open; characterized in that when the boost voltage of the booster circuit is below a predefined normal voltage V0, the valve open time Pi is extended to control the current supplied to the fuel injection valve to reach to the Ipeak current, wherein an extended valve opening time Pi is achieved by providing a constant fuel injection valve drive energy via an unchanged area enclosed by a current waveform during the valve opening time Pi with respect to the current waveform at the predefined normal voltage V0. a microcomputer configured to output a valve open time Pi for opening the fuel injection valve and an injection time Ti for injecting the fuel injection valve ; a booster circuit configured to boost the voltage of a battery to generate a boost voltage for the engine control unit ; and a voltage driver configured to control the supply of an Ipeak current generated by the boost voltage, and an Iholdl current generated by the boost voltage or the battery voltage smaller than the Ipeak current to the fuel injection valve according to the valve opening time Pi, and control the supply of an Ihold2 current generated by the battery voltage smaller than the Iholdl current to the fuel injection valve according to the fuel injection time Ti; wherein the Ipeak current and the Iholdl current are suitable for opening the fuel injection valve , and the Ihold2 current is suitable for holding the fuel injection valve open; characterized in that when the boost voltage of the booster circuit is below a predefined normal voltage V0, the valve open time Pi is extended to control the current supplied to the fuel injection valve to reach to the Ipeak current, wherein an extended valve opening time Pi is achieved by providing a constant fuel injection valve drive energy via an unchanged area enclosed by a current waveform during the valve opening time Pi with respect to the current waveform at the predefined normal voltage V0.
A polyolefin composition comprising (A) a polyolefin, (B) carbon black in an amount of 0.25 to 1.0 wt% based on the weight of the polyolefin composition, (C) an optical brightener in an amount of 0.001 to 0.1 wt% based on the weight of the polyolefin composition, and (D) a UV agent. (A) a polyolefin, (B) carbon black in an amount of 0.25 to 1.0 wt% based on the weight of the polyolefin composition, (C) an optical brightener in an amount of 0.001 to 0.1 wt% based on the weight of the polyolefin composition, and (D) a UV agent.
A method for adjusting an optical element, comprising the steps of: a. providing an optical holder having a contact area having an underside and providing a base plate having a recess comprising a wall having a support portion, said contact area and support area are formed such that in existing contact between the contact and support area the optical holder is rotatable by more than one spatial direction for setting a desired positioning, and a cavity between the underside of the optical holder and a bottom of the recess is present, wherein the recess is formed as a blind hole, b. fixing an optical element in the optical holder, c. filling a curable adhesive into the cavity, d. placing the optical holder with its contact area on the support area of the recess, e. adjusting the desired positioning by rotating the optical holder on the support area, and f. fixing the optical holder in the desired positioning by curing the adhesive, wherein a shrinking occurs during curing, whereby the contact area is pressed permanently against the support area. a. providing an optical holder having a contact area having an underside and providing a base plate having a recess comprising a wall having a support portion, said contact area and support area are formed such that in existing contact between the contact and support area the optical holder is rotatable by more than one spatial direction for setting a desired positioning, and a cavity between the underside of the optical holder and a bottom of the recess is present, wherein the recess is formed as a blind hole, b. fixing an optical element in the optical holder, c. filling a curable adhesive into the cavity, d. placing the optical holder with its contact area on the support area of the recess, e. adjusting the desired positioning by rotating the optical holder on the support area, and f. fixing the optical holder in the desired positioning by curing the adhesive, wherein a shrinking occurs during curing, whereby the contact area is pressed permanently against the support area.
Filter assembly for filtering a blood comprising a filter system and a filter holder , - wherein the filter system and the filter holder are in contact with each other, - wherein the filter system consists of at least two layers, - wherein the first layer is a defoaming layer made of a monofilament woven open mesh fabric and with an embossed three-dimensional structure configured for entrapping foam built up in the blood, • wherein said defoaming layer includes pores distributed in a nonplanar arrangement; - wherein the second layer is a mesh filter layer , and - wherein the mesh filter layer is arranged downstream of the defoaming layer . - wherein the filter system and the filter holder are in contact with each other, - wherein the filter system consists of at least two layers, - wherein the first layer is a defoaming layer made of a monofilament woven open mesh fabric and with an embossed three-dimensional structure configured for entrapping foam built up in the blood, • wherein said defoaming layer includes pores distributed in a nonplanar arrangement; - wherein the second layer is a mesh filter layer , and - wherein the mesh filter layer is arranged downstream of the defoaming layer . - wherein the first layer is a defoaming layer made of a monofilament woven open mesh fabric and with an embossed three-dimensional structure configured for entrapping foam built up in the blood, • wherein said defoaming layer includes pores distributed in a nonplanar arrangement; • wherein said defoaming layer includes pores distributed in a nonplanar arrangement; - wherein the second layer is a mesh filter layer , and - wherein the mesh filter layer is arranged downstream of the defoaming layer .
A series of translating drive units, TDUs, comprising a first TDU and a second TDU which is longitudinally adjacent to the first TDU, each TDU comprising: a housing ; a plurality of guide rollers coupled to the housing; a drive system coupled to the housing, the drive system configured to translate the housing in a longitudinal direction; and a retractable pawl coupled to the housing; a power source disposed within the housing; a cable disposed at a first longitudinal end of the housing, and a coupling mechanism disposed at a second longitudinal end of the housing, the coupling mechanism coupling the first TDU to the cable of the second TDU ; wherein, once coupled, the cable is unwound based on a longitudinal length of a respective unit load device, ULD and used to clamp the ULD between the retractable pawl of the first TDU and the retractable pawl of the second TDU and/or provide additional pulling force for translating the ULD. a housing ; a plurality of guide rollers coupled to the housing; a drive system coupled to the housing, the drive system configured to translate the housing in a longitudinal direction; and a retractable pawl coupled to the housing; a power source disposed within the housing; a cable disposed at a first longitudinal end of the housing, and a coupling mechanism disposed at a second longitudinal end of the housing, the coupling mechanism coupling the first TDU to the cable of the second TDU ; wherein, once coupled, the cable is unwound based on a longitudinal length of a respective unit load device, ULD and used to clamp the ULD between the retractable pawl of the first TDU and the retractable pawl of the second TDU and/or provide additional pulling force for translating the ULD.