mhurhangee/patent-ind-claim-en huggingface dataset:
An axial flux rotary generator comprising: two magnetic annuli ; an annular collar which extends between the magnetic annuli; a coil annulus mechanically braced at an outside periphery; the magnetic annuli and coil annulus having a common axis; the two magnetic annuli defining a plurality of magnetic fields around the common axis extending across a gap between the two magnetic annuli and the coil annulus having a sequence of coils around the common axis in the gap such that lines of magnetic flux from the magnetic fields cut the turns of the coils and thus induce electric current in the coils as the magnetic annuli are caused to rotate relative to the coil annulus; wherein means are provided at the central aperture of the coil annulus to resist axial flexure of the coil annulus , wherein at least a part of the means to resist axial flexure is accommodated within one or more circumferential grooves in the annular collar, characterised in that the means to resist axial flexure comprises a contact type bearing , wherein the axial flux rotary generator further comprises channels , provided through the annular collar which extends between the magnetic annuli, reaching into the groove to enable lubricant to be provided to the means to resist axial flexure. two magnetic annuli ; an annular collar which extends between the magnetic annuli; a coil annulus mechanically braced at an outside periphery; the magnetic annuli and coil annulus having a common axis; the two magnetic annuli defining a plurality of magnetic fields around the common axis extending across a gap between the two magnetic annuli and the coil annulus having a sequence of coils around the common axis in the gap such that lines of magnetic flux from the magnetic fields cut the turns of the coils and thus induce electric current in the coils as the magnetic annuli are caused to rotate relative to the coil annulus; wherein means are provided at the central aperture of the coil annulus to resist axial flexure of the coil annulus , wherein at least a part of the means to resist axial flexure is accommodated within one or more circumferential grooves in the annular collar, characterised in that the means to resist axial flexure comprises a contact type bearing , wherein the axial flux rotary generator further comprises channels , provided through the annular collar which extends between the magnetic annuli, reaching into the groove to enable lubricant to be provided to the means to resist axial flexure.
Sheet comprising polyester, the sheet comprising at least one area (a) wherein the area (a) comprises at least one groove having a depth of >50 % with regard to the thickness of the sheet in the area (a), wherein the sheet has a thickness of 200 - 1000 μm in the area (a).
Vehicle seat that is movable along a guide following a path curve, said guide being designed such that the vehicle seat can be moved, due to a movement along the guide , away from the centre of the vehicle and can be rotated, with the front side thereof, about the vertical axis, in the direction of the centre of the vehicle, characterised in that the vehicle seat has an actuator , which is designed to tilt at least a portion of a seat surface of the vehicle seat about at least one axis , whereby a tilting of the seat surface or of the at least one portion of the seat surface is coupled to a movement of the vehicle seat such that a tilt angle of the seat surface or of the at least one portion of the seat surface increases relative to at least one of the axes with increasing distance of the vehicle seat from the centre of the vehicle and is reduced with decreasing distance of the vehicle seat from the centre of the vehicle.
An interbody implant system comprising: an implant comprising opposite upper and lower surfaces , a pair of channels positioned between the upper and lower surfaces and a bore positioned between the channels ; and an instrument comprising a first member and a second member , the first member including a distal end positioned in the bore and the second member including a pair of locking tabs that are positioned in the channels to fix a portion of the instrument relative to the implant , wherein the second member is a sleeve having an inner surface that defines a passageway and the first member is an elongated shaft that is movably positioned within the passageway such that the distal end of the first member extends through an opening in a distal end of the sleeve, wherein the second member comprises a pivoting joint that includes a first portion and a second portion , the first portion including the locking tabs , the first portion being pivotable relative to the second portion about a pivot point . an implant comprising opposite upper and lower surfaces , a pair of channels positioned between the upper and lower surfaces and a bore positioned between the channels ; and an instrument comprising a first member and a second member , the first member including a distal end positioned in the bore and the second member including a pair of locking tabs that are positioned in the channels to fix a portion of the instrument relative to the implant , wherein the second member is a sleeve having an inner surface that defines a passageway and the first member is an elongated shaft that is movably positioned within the passageway such that the distal end of the first member extends through an opening in a distal end of the sleeve, wherein the second member comprises a pivoting joint that includes a first portion and a second portion , the first portion including the locking tabs , the first portion being pivotable relative to the second portion about a pivot point .
A laser optics assembly of a flow cytometer , comprising: a base plate ; a barrel extending along the base plate ; a collimation assembly at least partially disposed within the barrel ; a first lens at least partially disposed within the barrel ; a second lens at least partially disposed within the barrel ; a third lens at least partially disposed within the barrel ; wherein at least one cover plate is bolted to the base plate to secure the collimation assembly , the first lens , the second lens , and the third lens at least partially within the barrel and relative to the base plate to withstand 10 G's of random-axis mechanical vibration for at least 30 seconds without resulting in more than a 5% shift in a laser beam 1/e 2 waist diameter of the laser optics assembly . a base plate ; a barrel extending along the base plate ; a collimation assembly at least partially disposed within the barrel ; a first lens at least partially disposed within the barrel ; a second lens at least partially disposed within the barrel ; a third lens at least partially disposed within the barrel ; wherein at least one cover plate is bolted to the base plate to secure the collimation assembly , the first lens , the second lens , and the third lens at least partially within the barrel and relative to the base plate to withstand 10 G's of random-axis mechanical vibration for at least 30 seconds without resulting in more than a 5% shift in a laser beam 1/e 2 waist diameter of the laser optics assembly .
A composition comprising an adjunct ingredient and an antifoam, said antifoam comprising: a) an organopolysiloxane comprising at least one hydrolysable group of formula said at least one hydrolysable group being bound to least one silicon atom of said organopolysiloxane segment composed of the main chain and said main chain containing a siloxy unit of formula in an amount of at least 10 mole% based on weight of the said organopolysiloxane, preferably 10% to 40 mole% based on weight of the said organopolysiloxane; wherein X is a divalent hydrocarbon group comprising 1 to 10 carbon atoms and R is independently a hydrogen atom or a monovalent hydrocarbon group comprising 1 to 4 carbon atoms wherein R 1 is independently a monovalent hydrocarbon group comprising 1 to 12 carbon atoms and R 2 is independently selected from an aryl moiety, a C 6 -C 12 alkylaryl moiety, and a C 6 -C 12 alkyl moiety, said moieties optionally comprising an oxygen atom or a halogen atom, b) a non-linear organosilicone resin; and c) hydrophobic filler said composition being a laundry detergent and/or fabric enhancer. a) an organopolysiloxane comprising at least one hydrolysable group of formula said at least one hydrolysable group being bound to least one silicon atom of said organopolysiloxane segment composed of the main chain and said main chain containing a siloxy unit of formula in an amount of at least 10 mole% based on weight of the said organopolysiloxane, preferably 10% to 40 mole% based on weight of the said organopolysiloxane; wherein X is a divalent hydrocarbon group comprising 1 to 10 carbon atoms and R is independently a hydrogen atom or a monovalent hydrocarbon group comprising 1 to 4 carbon atoms wherein R 1 is independently a monovalent hydrocarbon group comprising 1 to 12 carbon atoms and R 2 is independently selected from an aryl moiety, a C 6 -C 12 alkylaryl moiety, and a C 6 -C 12 alkyl moiety, said moieties optionally comprising an oxygen atom or a halogen atom, b) a non-linear organosilicone resin; and c) hydrophobic filler
A method for providing secure communications among a plurality of ad hoc devices, the method comprising: authenticating one or more first devices (115-1, 115-2, ... 115-5) within a first network ; authenticating one or more second devices (120-1, 120-2, ... 120-4) within a second network ; transmitting a group key to the authenticated first devices (115-1, 115-2, ... 115-5) and to the authenticated second devices (120-1, 120-2, ... 120-4); establishing an ad hoc network by at least one of the authenticated first devices (115-2, 115-3, ... 115-5) and at least one of the authenticated second devices (120-2, 120-3, 120-4) using the group key; communicating within the ad hoc network among the at least one of the authenticated first devices (115-2, 115-3, ... 115-5) and the at least one of the authenticated second devices (120-2, 120-3, 120-4); communicating by the authenticated first devices (115-1, 115-2, ... 115-5) via the ad hoc network using a first service group key for encryption; communicating by the authenticated second devices (120-1, 120-2, ... 120-4) via the ad hoc network using a second service group key for encryption; wherein the establishing the ad hoc network step comprises the at least one of the authenticated first devices (115-1, 115-2, ... 115-5) and the at least one of the authenticated second devices (120-1, 120-2, ... 120-4) exchanging control packets encrypted with the group key for route discovery, and using the first service group key for higher layer control and data packets communicated by the authenticated first devices (115-1, 115-2, ... 115-5) via the ad hoc network . authenticating one or more first devices (115-1, 115-2, ... 115-5) within a first network ; authenticating one or more second devices (120-1, 120-2, ... 120-4) within a second network ; transmitting a group key to the authenticated first devices (115-1, 115-2, ... 115-5) and to the authenticated second devices (120-1, 120-2, ... 120-4); establishing an ad hoc network by at least one of the authenticated first devices (115-2, 115-3, ... 115-5) and at least one of the authenticated second devices (120-2, 120-3, 120-4) using the group key; communicating within the ad hoc network among the at least one of the authenticated first devices (115-2, 115-3, ... 115-5) and the at least one of the authenticated second devices (120-2, 120-3, 120-4); communicating by the authenticated first devices (115-1, 115-2, ... 115-5) via the ad hoc network using a first service group key for encryption; communicating by the authenticated second devices (120-1, 120-2, ... 120-4) via the ad hoc network using a second service group key for encryption; wherein the establishing the ad hoc network step comprises the at least one of the authenticated first devices (115-1, 115-2, ... 115-5) and the at least one of the authenticated second devices (120-1, 120-2, ... 120-4) exchanging control packets encrypted with the group key for route discovery, and using the first service group key for higher layer control and data packets communicated by the authenticated first devices (115-1, 115-2, ... 115-5) via the ad hoc network .
A structure for draining surface water, comprising a coherent force distribution layer and a drain layer, wherein the drain layer is below the force distribution layer, characterised in that the drain layer is formed of an array of coherent man-made vitreous fiber (MMVF) drain elements , wherein each of the drain elements comprises man-made vitreous fibres bonded with a cured binder composition ;wherein each of the drain elements has opposed first and second ends and a passage which extends from a first opening in the first end to a second opening in the second end; wherein the MMVF drain elements comprise a hydrophilic binder and/or a wetting agent; and wherein the force distribution layer comprises a continuous plastic layer, a continuous rubber layer, or a coherent MMVF layer.
Coupling device for a compressed-air coupling or pressurized-medium coupling in a rail vehicle, 1.1 having a housing ; 1.2 having a sliding collar which is displaceably mounted in the housing and at an axial end on the end face protrudes from the housing ; 1.3 having a valve body which interacts with a valve seat so as to configure a valve which selectively blocks or releases a flow cross section; 1.4 the sliding collar configuring the valve seat , wherein the valve seat is configured in a portion of the sliding collar that, at least in an uncoupled state of the coupling device, is positioned axially outside the housing , characterized in that the valve seat is positioned in the region of the axially outer end of the sliding collar . 1.1 having a housing ; 1.2 having a sliding collar which is displaceably mounted in the housing and at an axial end on the end face protrudes from the housing ; 1.3 having a valve body which interacts with a valve seat so as to configure a valve which selectively blocks or releases a flow cross section; 1.4 the sliding collar configuring the valve seat ,
Cooling installation for cooling a storage chamber of a transport vehicle , comprising a fan and at least one cooler having an upper cooling plate and a lower cooling plate arranged within a housing so as to form an upper cooling duct between the upper cooling plate and the housing and to form a lower cooling duct between the lower cooling plate and the housing , wherein the at least one cooler comprises at least one coolant chamber confined by the upper cooling plate and the lower cooling plate , wherein for each cooler a respective cooling flow path is formed, along which a gas can: - enter the cooling installation via an inlet , - flow from the inlet to the fan and from the fan to the respective cooler , - flow through the respective cooler by flowing through the upper cooling duct , from the upper cooling duct to the lower cooling duct , and through the lower cooling duct , and - leave the cooling installation via a respective cooling outlet . - enter the cooling installation via an inlet , - flow from the inlet to the fan and from the fan to the respective cooler , - flow through the respective cooler by flowing through the upper cooling duct , from the upper cooling duct to the lower cooling duct , and through the lower cooling duct , and - leave the cooling installation via a respective cooling outlet .
A method for a controller that manages forwarding behavior of a managed forwarding element, MFE, that executes on a host computer, the method comprising: at a first controller application that also executes on the host computer alongside the MFE : from a second controller that provides data defining forwarding behaviors of logical forwarding elements, LFEs, to a plurality of controller applications executing on a plurality of host computers, receiving data that defines forwarding behavior of a particular LFE of a logical network, the particular LFE specifying a logical datapath set that logically connects a set of end machines executing on the host computer to a plurality of other end machines executing on the plurality of host computers; based on the received data, generating data for defining forwarding behaviors of the MFE to implement the particular LFE ; and distributing the generated data to the MFE for the MFE to implement the particular LFE wherein the particular LFE is also implemented by a plurality of other MFEs (1930, 1745-1750) executing on the plurality of host computers. from a second controller that provides data defining forwarding behaviors of logical forwarding elements, LFEs, to a plurality of controller applications executing on a plurality of host computers, receiving data that defines forwarding behavior of a particular LFE of a logical network, the particular LFE specifying a logical datapath set that logically connects a set of end machines executing on the host computer to a plurality of other end machines executing on the plurality of host computers; based on the received data, generating data for defining forwarding behaviors of the MFE to implement the particular LFE ; and distributing the generated data to the MFE for the MFE to implement the particular LFE wherein the particular LFE is also implemented by a plurality of other MFEs (1930, 1745-1750) executing on the plurality of host computers.
A tool comprising: a plurality of handles configured for relative movement between a closed position and an open position, wherein at least one handle comprises an opening configured to receive a tool member , wherein at least one handle includes an axle upon which the tool member is rotatably mounted; a plurality of tool members carried by at least one of the handles ; a separate tool member configured to be installed following assembly of the tool , wherein the separate tool member comprises a tang and defines an open slot on the tang , wherein the open slot is configured to receive the axle ; and a lock carried by a respective handle , wherein the lock is configured to engage the separate tool member upon installation of the separate tool member such that the open slot of the separate tool member is mounted upon the axle ; wherein the tang of the tool member includes a retention feature and the lock is configured to engage the retention feature to secure the separate tool member within the tool following the installation of the separate tool member , wherein the tang has opposed first and second side surfaces with the open slot defined to extend therebetween, and the tool being characterised in that the retention feature of the tang includes a step feature along an edge of the tang that is recessed relative to the first side surface of the tang and that is configured to be engaged by the lock . a plurality of handles configured for relative movement between a closed position and an open position, wherein at least one handle comprises an opening configured to receive a tool member , wherein at least one handle includes an axle upon which the tool member is rotatably mounted; a plurality of tool members carried by at least one of the handles ; a separate tool member configured to be installed following assembly of the tool , wherein the separate tool member comprises a tang and defines an open slot on the tang , wherein the open slot is configured to receive the axle ; and a lock carried by a respective handle , wherein the lock is configured to engage the separate tool member upon installation of the separate tool member such that the open slot of the separate tool member is mounted upon the axle ; wherein the tang of the tool member includes a retention feature and the lock is configured to engage the retention feature to secure the separate tool member within the tool following the installation of the separate tool member , wherein the tang has opposed first and second side surfaces with the open slot defined to extend therebetween, and the tool being characterised in that the retention feature of the tang includes a step feature along an edge of the tang that is recessed relative to the first side surface of the tang and that is configured to be engaged by the lock .
A device having a light sensor and a light transmission element configured to form a part of a cover of the device, said light transmission element comprising a transparent body having a surface, and an optical effect coating attached on the surface, said optical effect coating comprising a printed first coating layer having a plurality of adjacent first elongated micro openings extending in a first direction in an aperture area; and a printed second coating layer having a plurality of adjacent second elongated micro openings extending in a second direction, the second direction differing from the first direction, in the aperture area; whereby the optical effect coating comprises micro holes formed at intersections of the first and the second elongated micro openings, the micro holes producing locally increased effective light transmittance through the optical effect coating in the aperture area, the aperture area of the optical effect coating and the light sensor being positioned to allow light from surroundings of the device to propagate through the aperture area to the light sensor, wherein the micro holes have a maximum diameter less than or equal to 500μm and wherein the first and second coating layers are at most partially transparent at visible wavelengths and partially transparent at infrared wavelengths. having a surface, and an optical effect coating attached on the surface, said optical effect coating comprising a printed first coating layer having a plurality of adjacent first elongated micro openings extending in a first direction in an aperture area; and a printed second coating layer having a plurality of adjacent second elongated micro openings extending in a second direction, the second direction differing from the first direction, in the aperture area; whereby the optical effect coating comprises micro holes formed at intersections of the first and the second elongated micro openings, the micro holes producing locally increased effective light transmittance through the optical effect coating in the aperture area, the aperture area of the optical effect coating and the light sensor being positioned to allow light from surroundings of the device to propagate through the aperture area to the light sensor, wherein the micro holes have a maximum diameter less than or equal to 500μm and wherein the first and second coating layers are at most partially transparent at visible wavelengths and partially transparent at infrared wavelengths.