mhurhangee/patent-ind-claim-en huggingface dataset:
An automatic expansion type focusing electrode for photomultiplier tube, comprising a fixed hold-down mechanism , expandable blades , a trigger pedal , a trigger wire and a trigger ring , wherein: the fixed hold-down mechanism comprises an annular bottom plate and torsion springs and rotating shafts arranged on the bottom plate , wherein the torsion springs are wound around the rotating shafts ; the multiple expandable blades are arranged along the edge of the bottom plate and are mounted around the rotating shafts in a rotating manner; the multiple expandable blades are fixed vertically over the bottom plate in the initial state, held down by the trigger ring to be folded together in an annular shape and to present in a folded condition; the torsion springs are arranged one-to-one with the expandable blades , with one end of each torsion spring fixed to the expandable blade and the other end to the bottom plate , and the torsion springs are arranged to make the expandable blades expand towards the radial dimension of the focusing electrode and to provide a pretightening force; the trigger pedal , the trigger wire and the trigger ring constitute an automatic trigger mechanism; one end of the trigger wire is fixed to the trigger pedal and the other end to the trigger ring ; the trigger pedal is arranged to drive the trigger wire to move when being triggered so as to release the multiple expandable blades from the folded condition due to being held down by the trigger ring and to enter into an expanded condition by the pretightening force from the torsion springs . the fixed hold-down mechanism comprises an annular bottom plate and torsion springs and rotating shafts arranged on the bottom plate , wherein the torsion springs are wound around the rotating shafts ; the multiple expandable blades are arranged along the edge of the bottom plate and are mounted around the rotating shafts in a rotating manner; the multiple expandable blades are fixed vertically over the bottom plate in the initial state, held down by the trigger ring to be folded together in an annular shape and to present in a folded condition; the torsion springs are arranged one-to-one with the expandable blades , with one end of each torsion spring fixed to the expandable blade and the other end to the bottom plate , and the torsion springs are arranged to make the expandable blades expand towards the radial dimension of the focusing electrode and to provide a pretightening force; the trigger pedal , the trigger wire and the trigger ring constitute an automatic trigger mechanism; one end of the trigger wire is fixed to the trigger pedal and the other end to the trigger ring ; the trigger pedal is arranged to drive the trigger wire to move when being triggered so as to release the multiple expandable blades from the folded condition due to being held down by the trigger ring and to enter into an expanded condition by the pretightening force from the torsion springs .
Safety switching device for safely switching off and/or switching on at least one electrical machine, comprising at least one printed circuit board (L) having at least one control unit (μC) for controlling the electrical machine, the printed circuit board (L) having electrical contacts and the control unit (μC) receiving and processing input signals from at least one signal transmitter via the electrical contacts and controlling the electrical machine, and a plug connector which can be plugged onto the printed circuit board (L) for electrical connection to the contacts , characterized in that the electrical contacts of the printed circuit board (L) are partly assigned to a low voltage circuit of 12-volt or 24-volt and partly to a mains voltage circuit of 110-volt or 230-volt, the plug connector is provided with first connection sockets (E) for connecting the at least one signal transmitter to the contacts of the low-voltage circuit of the printed circuit board (L) and second connection sockets (A) for connecting the electrical machine to the contacts of the mains voltage circuit of the printed circuit board (L), wherein an electrical connection between the electrical contacts of the printed circuit board (L) and the first and second terminal sockets (E, A) is formed in such a manner that a minimum distance is provided between two oppositely arranged first and second connecting sockets (E and A), the minimum distance being many times greater than a first distance between respectively adjacent first connection sockets (E) or between respectively adjacent second connection sockets (A).
Collection bin in an in-line product inspection system , wherein the inspection system comprises a supporting structure , a transport conveyor , an inspection device , an ejection device , and one or more of said collection bins , wherein the transport conveyor serves to continuously transport articles along a transport path through the inspection device , wherein the inspection device serves to inspect the articles while they are in motion and to select individual articles according to given inspection criteria, wherein the ejection device is arranged at the transport path downstream of the inspection device and serves to eject the selected articles from the transport conveyor , and wherein said collection bin is arranged laterally adjacent to the transport conveyor and positioned to receive the ejected articles , with a rear side of the collection bin facing towards, and a front side facing away from, the transport conveyor , and the collection bin is configured as an enclosed compartment divided into a top part and a bottom part , wherein the top part is solidly attached to the supporting structure and comprises a chute with an entry opening of the chute facing towards the transport conveyor and with a downward-sloped slide surface leading to a bottom opening of the chute , wherein the bottom part , which comprises an open-top receptacle that serves to collect the ejected articles , and characterized in that the open-top receptacle is constrained to the supporting structure with limited, guided mobility between a closed position where the open top of the receptacle lines up with the bottom opening of the chute , and with an open position where the bottom part is moved out from underneath the bottom opening of the chute , so that the collected articles can be taken out of the receptacle , and further characterized in that the collection bin comprises a closure gate which is hinged to the bottom part along a hinge axis at a rim section of the top opening , wherein said rim section is located on a trailing side of said movement from the closed to the open position, and wherein the closure gate is designed to be overlaid on, or interlaid with, the sloped slide surface of the chute when the bottom part is in the closed position, and to slip out of the sloped slide surface into a position to block the bottom opening of the chute when the bottom part is in the open position.
Method for producing an electrode material, characterised by the following steps: a) providing a number of base substances and additionally silicon for producing the electrically conductive matrix, b) mixing and pressing the base substances into a tablet, c) immersing the tablet in a solvent, d) irradiating the tablet with high-frequency electromagnetic radiation, e) pulverising the irradiated tablet and subsequently immersing the powder in an additional solvent, f) producing a mixture of the powder immersed in the additional solvent and lithium or sodium as the active material, g) heating the mixture to a predefined temperature and subsequently stirring the heated mixture, h) cooling the stirred, heated mixture, i) irradiating the cooled mixture with high-frequency electromagnetic radiation, and j) cooling and pulverising the irradiated mixture. a) providing a number of base substances and additionally silicon for producing the electrically conductive matrix, b) mixing and pressing the base substances into a tablet, c) immersing the tablet in a solvent, d) irradiating the tablet with high-frequency electromagnetic radiation, e) pulverising the irradiated tablet and subsequently immersing the powder in an additional solvent, f) producing a mixture of the powder immersed in the additional solvent and lithium or sodium as the active material, g) heating the mixture to a predefined temperature and subsequently stirring the heated mixture, h) cooling the stirred, heated mixture, i) irradiating the cooled mixture with high-frequency electromagnetic radiation, and j) cooling and pulverising the irradiated mixture.
A vehicle seat (S), comprising: a seatback side frame ; a support member that is attached to the seatback side frame and is configured to support an occupant in a seat width direction; and an upper frame that is coupled to the seatback side frame , wherein the support member includes an inner plate that is fixed to the seatback side frame on an inner side in the seat width direction, and an outer plate that is fixed to the seatback side frame on an outer side in the seat width direction, characterised in that a screw attachment portion is provided in a rear side end portion of the inner plate , and the inner plate of the support member arranged on the inner side is fastened to a coupling part of the upper frame and the seatback side frame , while the outer plate arranged on the outer side serves as a free end. a seatback side frame ; a support member that is attached to the seatback side frame and is configured to support an occupant in a seat width direction; and an upper frame that is coupled to the seatback side frame , the support member includes an inner plate that is fixed to the seatback side frame on an inner side in the seat width direction, and an outer plate that is fixed to the seatback side frame on an outer side in the seat width direction, characterised in that a screw attachment portion is provided in a rear side end portion of the inner plate , and the inner plate of the support member arranged on the inner side is fastened to a coupling part of the upper frame and the seatback side frame , while the outer plate arranged on the outer side serves as a free end.
RF coil device adapted to be used with a magnetic resonance imaging apparatus, the RF coil device comprising: - a damping mechanism comprising a first member and a second member , - a base assembly ; and - a top coil assembly which is attached pivotably around a rotation axis (OO') to the base assembly via the damping mechanism , wherein the first member is supported on the base assembly and the second member is connected to the top coil assembly , and wherein the first member comprises a base section , a resilient damping section and an enclosed chamber defined by the base section and an inner surface of the resilient damping section , wherein the resilient damping section is centered about the rotation axis (OO') and the enclosed chamber is provided radially inward of the resilient damping section and configured to accommodate a deformation of the resilient damping section; wherein the second member is attached pivotably to the base section of the first member to rotate around the rotation axis (OO') relative to the base section ; and wherein the damping mechanism further comprises a damping protrusion extending from the second member toward the resilient damping section ; wherein the resilient damping section comprises an outer surface facing away from the enclosed chamber which is configured to be engaged with the damping protrusion to produce the deformation of the resilient damping section and to provide a damping to the rotation of the second member relative to the base section . - a damping mechanism comprising a first member and a second member , - a base assembly ; and - a top coil assembly which is attached pivotably around a rotation axis (OO') to the base assembly via the damping mechanism , wherein the first member is supported on the base assembly and the second member is connected to the top coil assembly , and wherein the first member comprises a base section , a resilient damping section and an enclosed chamber defined by the base section and an inner surface of the resilient damping section , wherein the resilient damping section is centered about the rotation axis (OO') and the enclosed chamber is provided radially inward of the resilient damping section and configured to accommodate a deformation of the resilient damping section; wherein the second member is attached pivotably to the base section of the first member to rotate around the rotation axis (OO') relative to the base section ; and wherein the damping mechanism further comprises a damping protrusion extending from the second member toward the resilient damping section ; wherein the resilient damping section comprises an outer surface facing away from the enclosed chamber which is configured to be engaged with the damping protrusion to produce the deformation of the resilient damping section and to provide a damping to the rotation of the second member relative to the base section .
A composite tube assembly comprising: a composite tube comprising an outer surface having a variable diameter portion comprising a first frustoconical portion and a second frustoconical portion , wherein a diameter of the composite tube at an interface between the first frustoconical portion and the second frustoconical portion is a maximum diameter value with respect to the first frustoconical portion and is a maximum diameter value with respect to the second frustoconical portion ; a locking wedge disposed at least partially around a circumference of the first frustoconical portion ; a one-piece locking collar nut disposed at least partially around a circumference of the locking wedge ; an end fitting disposed at least partially around a circumference of the second frustoconical portion , wherein the end fitting is coupled to the locking collar nut ; a locking key coupled to the locking collar nut and the end fitting ; and a jam nut threadedly engaged to the end fitting . a composite tube comprising an outer surface having a variable diameter portion comprising a first frustoconical portion and a second frustoconical portion , wherein a diameter of the composite tube at an interface between the first frustoconical portion and the second frustoconical portion is a maximum diameter value with respect to the first frustoconical portion and is a maximum diameter value with respect to the second frustoconical portion ; a locking wedge disposed at least partially around a circumference of the first frustoconical portion ; a one-piece locking collar nut disposed at least partially around a circumference of the locking wedge ; an end fitting disposed at least partially around a circumference of the second frustoconical portion , wherein the end fitting is coupled to the locking collar nut ; a locking key coupled to the locking collar nut and the end fitting ; and a jam nut threadedly engaged to the end fitting .
Apparatus for applying a foaming reaction mixture to a covering layer , in particular for producing a composite element, which at least comprises two casting rakes each having a tubular hollow body which extends along a central axis and has at least two outlet openings for exit of the foaming reaction mixture , where the casting rakes and the covering layer can be moved relative to one another along a longitudinal axis and where the casting rakes are arranged on an accommodation element , characterized in that the attachment of the casting rakes to the accommodation element in each case has a joint by means of which the casting rakes are arranged movably on the accommodation element and can be directed at an angle of ≤ 80° relative to the longitudinal axis of the motion.
A vehicle conveying device, comprising: a conveying platform ; and a traction device , releasably connected to the conveying platform , and having a connected state connected to the conveying platform and a disconnected state disconnected from the conveying platform ; in the disconnected state, the traction device is configured to drive a vehicle to advance or draw the vehicle onto the conveying platform ; in the connected state, the traction device is configured to drive the conveying platform and the vehicle located on the conveying platform to advance or retreat. a conveying platform ; and a traction device , releasably connected to the conveying platform , and having a connected state connected to the conveying platform and a disconnected state disconnected from the conveying platform ; in the disconnected state, the traction device is configured to drive a vehicle to advance or draw the vehicle onto the conveying platform ; in the connected state, the traction device is configured to drive the conveying platform and the vehicle located on the conveying platform to advance or retreat.
Nonwoven textile with barrier properties containing a. a first barrier layer A with a theoretical cover coefficient TCC A, and consisting of fibres having a median fibre diameter dAm within the layer; and b. a second barrier layer B with a theoretical cover coefficient TCC B, and consisting of fibres having a median fibre diameter dBm in the layer; c. a third layer D; wherein i. the first barrier layer A and the second barrier layer B are in direct contact with each other; ii. the median fiber diameters within the first and the second layer have a theoretical fibre diameter coefficient x = (dBm-dAm)/dAm, where the theoretical fibre diameter coefficient x is less than or equal to 1 and where the theoretical fibre diameter coefficient x is greater than or equal to 0.25; and iii. the sum of the theoretical cover coefficient TCC A and TCC B is greater than or equal to 50%, wherein the TCC of each layer is calculated according to the following formula: TCC % = 4 * m * 100 % / π * ρ * d based on (TCC) % = d ∗ L ∗ 100%; L= 4V / πd 2 ; V = m / ρ wherein: d is median fibre diameter of a layer (m) L is length of fibre in 1 m 2 of textile (m/m 2 ) V is volume of fibre in 1 m 2 of textile (m 3 /m 2 ) m is mass of fibre in 1 m 2 of textile (g/m 2 ) ρ is fibre density (mass g/ volume m 3 ) characterised in that: majority of the fibers of the first barrier layer A and majority of the fibers of the second barrier layer B are meltblown fibers. a. a first barrier layer A with a theoretical cover coefficient TCC A, and consisting of fibres having a median fibre diameter dAm within the layer; and b. a second barrier layer B with a theoretical cover coefficient TCC B, and consisting of fibres having a median fibre diameter dBm in the layer; c. a third layer D; i. the first barrier layer A and the second barrier layer B are in direct contact with each other; ii. the median fiber diameters within the first and the second layer have a theoretical fibre diameter coefficient x = (dBm-dAm)/dAm, where the theoretical fibre diameter coefficient x is less than or equal to 1 and where the theoretical fibre diameter coefficient x is greater than or equal to 0.25; and iii. the sum of the theoretical cover coefficient TCC A and TCC B is greater than or equal to 50%, L is length of fibre in 1 m 2 of textile (m/m 2 ) V is volume of fibre in 1 m 2 of textile (m 3 /m 2 ) m is mass of fibre in 1 m 2 of textile (g/m 2 ) ρ is fibre density (mass g/ volume m 3 ) characterised in that: majority of the fibers of the first barrier layer A and majority of the fibers of the second barrier layer B are meltblown fibers.
A processor implemented method of performing web services location allocation, comprising: collecting a Web Service Location Allocation Problem, WSLAP, as input, via one or more hardware processors; identifying a plurality of web-services that are associated with the WSLAP, via the one or more hardware processors; decomposing the WSLAP to a plurality of sub-problems, via the one or more hardware processors, by treating each of the plurality of web services as a sub-problem; determining at least one non-dominating solution to each of the plurality of sub-problems, to obtain a plurality of non-dominating solutions to the plurality of sub-problems, via the one or more hardware processors; and generating a solution to the obtained WSLAP by merging the plurality of the non-dominating solutions, via the one or more hardware processors, wherein the solution determines a plurality of locations in a cloud space where a plurality of VM resources providing the plurality of web-services are to be deployed according to a users' locations and invocation frequencies, wherein as the WSLAP is solved at sub-problem level, whenever a new web service is added to the WSLAP, the steps of determining at least one non-dominating solution to the new sub-problem and generating a solution to the WSLAP are executed to achieve scalability in addition of the new web service. collecting a Web Service Location Allocation Problem, WSLAP, as input, via one or more hardware processors; identifying a plurality of web-services that are associated with the WSLAP, via the one or more hardware processors; decomposing the WSLAP to a plurality of sub-problems, via the one or more hardware processors, by treating each of the plurality of web services as a sub-problem; determining at least one non-dominating solution to each of the plurality of sub-problems, to obtain a plurality of non-dominating solutions to the plurality of sub-problems, via the one or more hardware processors; and generating a solution to the obtained WSLAP by merging the plurality of the non-dominating solutions, via the one or more hardware processors, wherein the solution determines a plurality of locations in a cloud space where a plurality of VM resources providing the plurality of web-services are to be deployed according to a users' locations and invocation frequencies, wherein as the WSLAP is solved at sub-problem level, whenever a new web service is added to the WSLAP, the steps of determining at least one non-dominating solution to the new sub-problem and generating a solution to the WSLAP are executed to achieve scalability in addition of the new web service.