mhurhangee/patent-ind-claim-en huggingface dataset:
A pump comprises: at least one pump cylinder comprising: a pump chamber , wherein the pump chamber comprises an inlet and an outlet , and a piston actuatable within the pump cylinder, wherein the piston is configured to draw a working fluid into the pump chamber through the inlet and to push the working fluid out of the pump chamber through the outlet ; a drive configured to move the piston , wherein the drive includes a drive fluid, the drive fluid prevented from entering the pump chamber by a seal ; and a leak detector positioned on the pump to capture drive fluid leaking from the drive, the leak detector operable to generate an alarm when the leaked drive fluid reaches a threshold; characterised in that the leak detector comprises: a buffer tube to collect the leaked drive fluid; a sensor to detect the level of drive fluid in the buffer tube ; and a purge line to remove leaked drive fluid from the buffer tube once the leaked drive fluid reaches a maximum level. at least one pump cylinder comprising: a pump chamber , wherein the pump chamber comprises an inlet and an outlet , and a piston actuatable within the pump cylinder, wherein the piston is configured to draw a working fluid into the pump chamber through the inlet and to push the working fluid out of the pump chamber through the outlet ; a pump chamber , wherein the pump chamber comprises an inlet and an outlet , and a piston actuatable within the pump cylinder, wherein the piston is configured to draw a working fluid into the pump chamber through the inlet and to push the working fluid out of the pump chamber through the outlet ; a drive configured to move the piston , wherein the drive includes a drive fluid, the drive fluid prevented from entering the pump chamber by a seal ; and a leak detector positioned on the pump to capture drive fluid leaking from the drive, the leak detector operable to generate an alarm when the leaked drive fluid reaches a threshold; characterised in that the leak detector comprises: a buffer tube to collect the leaked drive fluid; a sensor to detect the level of drive fluid in the buffer tube ; and a purge line to remove leaked drive fluid from the buffer tube once the leaked drive fluid reaches a maximum level.
A method for manufacturing a shoe upper (200; 305), comprising the steps of: a. providing at least one stretchable portion (210; 310) on the shoe upper (200; 305); b. providing at least one stretch yarn in the at least one stretchable portion (210; 310); c. providing at least one portion without the stretch yarn on the shoe upper (200; 305); d. stretching the at least one stretchable portion (210; 310) of the shoe upper (200; 305) for adapting a size of the shoe upper (200;305); and e. permanently attaching at least one rigid element (220; 320) at least partly on the stretched stretchable portion (210; 310) so that the stretched stretchable portion (210; 310) is locked, wherein the attached rigid element (220; 320) covers entirely the stretchable portion (210; 310). a. providing at least one stretchable portion (210; 310) on the shoe upper (200; 305); b. providing at least one stretch yarn in the at least one stretchable portion (210; 310); c. providing at least one portion without the stretch yarn on the shoe upper (200; 305); d. stretching the at least one stretchable portion (210; 310) of the shoe upper (200; 305) for adapting a size of the shoe upper (200;305); and e. permanently attaching at least one rigid element (220; 320) at least partly on the stretched stretchable portion (210; 310) so that the stretched stretchable portion (210; 310) is locked, wherein the attached rigid element (220; 320) covers entirely the stretchable portion (210; 310).
A crop handling apparatus , including: a chassis ; the chassis being mounted on ground-engaging wheels ; a towbar at a front of the chassis for releasable attachment to a towing vehicle; a crop conditioning rotor mounted on the chassis ; drive means for the crop conditioning rotor on the chassis ; and a crop gathering conveyor mounted on the chassis in front of the crop conditioning rotor , said crop gathering conveyor having a discharge end located in front of an inlet of the crop conditioning rotor to feed crop material to the inlet of the crop conditioning rotor , characterised in that a pair of tedder reels is mounted on the chassis at a rear end of the chassis , the tedder reels carried on a support arm which is pivotally mounted on the chassis and movable by means of a ram to raise and lower the support arm on the chassis for movement of the tedder reels between a raised stored position on the chassis and a lowered operative positon on the chassis . a chassis ; the chassis being mounted on ground-engaging wheels ; a towbar at a front of the chassis for releasable attachment to a towing vehicle; a crop conditioning rotor mounted on the chassis ; drive means for the crop conditioning rotor on the chassis ; and a crop gathering conveyor mounted on the chassis in front of the crop conditioning rotor , said crop gathering conveyor having a discharge end located in front of an inlet of the crop conditioning rotor to feed crop material to the inlet of the crop conditioning rotor , characterised in that a pair of tedder reels is mounted on the chassis at a rear end of the chassis , the tedder reels carried on a support arm which is pivotally mounted on the chassis and movable by means of a ram to raise and lower the support arm on the chassis for movement of the tedder reels between a raised stored position on the chassis and a lowered operative positon on the chassis .
A flexo-plate manufacturing method comprising the steps of: - filling a vat having a transparent bottom with a first curable liquid that is stored in a first tank by opening a valve , the first curable liquid having a first set of physical characteristics after curing; - moving a manufacturing platform vertically over a first distance to create a first layer of the first curable liquid between the manufacturing platform and the transparent bottom of the vat ; - exposing from underneath the vat said first layer for curing said layer ; - purging the curable liquid in the vat through a valve to either a waste tank or to the first tank ; - filling the vat with a second curable liquid that is stored in a second tank by opening a valve , the second curable liquid having a second set of physical characteristics after curing that is different than the first set of physical characteristics; - moving the manufacturing platform vertically over a second distance to create a second layer of the second curable liquid between the manufacturing platform and the transparent bottom of the vat ; - exposing from underneath the vat said second layer for curing said second layer ; and wherein the elasticity of the first curable liquid after curing is higher than the elasticity of the second curable liquid after curing. - filling a vat having a transparent bottom with a first curable liquid that is stored in a first tank by opening a valve , the first curable liquid having a first set of physical characteristics after curing; - moving a manufacturing platform vertically over a first distance to create a first layer of the first curable liquid between the manufacturing platform and the transparent bottom of the vat ; - exposing from underneath the vat said first layer for curing said layer ; - purging the curable liquid in the vat through a valve to either a waste tank or to the first tank ; - filling the vat with a second curable liquid that is stored in a second tank by opening a valve , the second curable liquid having a second set of physical characteristics after curing that is different than the first set of physical characteristics; - moving the manufacturing platform vertically over a second distance to create a second layer of the second curable liquid between the manufacturing platform and the transparent bottom of the vat ; - exposing from underneath the vat said second layer for curing said second layer ;
Bearing chamber housing for supporting a shaft of a turbomachine , comprising an additively constructed housing portion and a cover which, in each case with respect to an axis of rotation of the shaft , axially adjoins the housing portion and has a radially extending collar , which collar axially delimits an oil chamber of the bearing chamber housing , characterized in that the cover is assembled with the housing portion and is connected thereto via an integral seam , in particular via a weld seam , in that the cover has an outersleeve portion on which the collar protrudes radially inward, the integral seam being arranged axially at the end of the sleeve portion , and in that the housing portion has a sleeve-shaped, radially outer shell and, radially inside said outer shell, has a sleeve-shaped, radially innershell provided for receiving a bearing, the integral seam being arranged between the outer sleeve portion of the cover and the radially outer shell of the housing portion .
An optical detector for use with plastic optical fibers in a network in an aircraft, the apparatus comprising: a substrate having an n or p type of conductivity; an intrinsic region above the substrate, wherein the intrinsic region has a top surface ; a metal layer on a portion of the surface of the intrinsic region , wherein the metal layer has a thickness that is configured to allow a plurality of photons to pass through the metal layer into the intrinsic region and form a rectifying contact with the intrinsic region ; wherein said portion of the surface is a raised portion of the surface of the intrinsic region , wherein the raised portion is configured to reduce a current moving across the surface outside of the raised portion; an area having an n or p type of conductivity wherein the type of conductivity of the area is the opposite type of conductivity to that of the substrate in which the area extends from the surface into the intrinsic region , wherein the area surrounds said portion of the surface of the intrinsic region around the metal layer and is configured to reduce a current moving across the surface outside of the intrinsic region surrounded by the area ; and a layer of a material on the metal layer , wherein the material is configured to reduce reflection of the plurality of photons that hit the material. a substrate having an n or p type of conductivity; an intrinsic region above the substrate, wherein the intrinsic region has a top surface ; a metal layer on a portion of the surface of the intrinsic region , wherein the metal layer has a thickness that is configured to allow a plurality of photons to pass through the metal layer into the intrinsic region and form a rectifying contact with the intrinsic region ; wherein said portion of the surface is a raised portion of the surface of the intrinsic region , wherein the raised portion is configured to reduce a current moving across the surface outside of the raised portion; an area having an n or p type of conductivity wherein the type of conductivity of the area is the opposite type of conductivity to that of the substrate in which the area extends from the surface into the intrinsic region , wherein the area surrounds said portion of the surface of the intrinsic region around the metal layer and is configured to reduce a current moving across the surface outside of the intrinsic region surrounded by the area ; and a layer of a material on the metal layer , wherein the material is configured to reduce reflection of the plurality of photons that hit the material.
A compound as shown in general formula I: wherein: R 1 is selected from hydrogen atom, C 1 -C 10 alkyl or C 1 -C 10 alkoxy, wherein any hydrogen atom on C 1 -C 10 alkyl or alkoxy can be further replaced by hydroxy or amino; R 2 is selected from hydrogen atom, C 1 -C 10 alkyl, C 1 -C 10 alkoxy, C 1 -C 10 alkylthio, fluorine atom, chlorine atom, bromine atom, iodine atom or trifluoromethyl; R 3 is selected from hydrogen atom, C 1 -C 10 alkyl, C 1 -C 10 alkoxy, C 1 -C 10 alkylthio, fluorine atom, chlorine atom, bromine atom, iodine atom or trifluoromethyl; n=2. R 1 is selected from hydrogen atom, C 1 -C 10 alkyl or C 1 -C 10 alkoxy, wherein any hydrogen atom on C 1 -C 10 alkyl or alkoxy can be further replaced by hydroxy or amino; R 2 is selected from hydrogen atom, C 1 -C 10 alkyl, C 1 -C 10 alkoxy, C 1 -C 10 alkylthio, fluorine atom, chlorine atom, bromine atom, iodine atom or trifluoromethyl; R 3 is selected from hydrogen atom, C 1 -C 10 alkyl, C 1 -C 10 alkoxy, C 1 -C 10 alkylthio, fluorine atom, chlorine atom, bromine atom, iodine atom or trifluoromethyl; n=2.
A radio wave communication system comprising: a dipole type transmission antenna formed by using a vertically polarized dipole element, and transmitting signals to a plurality of receiving stations and used for performing over-the-horizon communication using tropospheric scattering or diffraction with a range of radio wave frequencies from 200 MHz to 5000 MHz, the signal having a non-directional pattern of beam in a horizontal plane; a signal processing unit that performs digital signal processing on the signal and outputs the signal to the transmission antenna ; and a plurality of parabolic type reception antennas equipped in the plurality of receiving stations, respectively, and receiving the signals transmitted from the dipole type transmission antenna . a dipole type transmission antenna formed by using a vertically polarized dipole element, and transmitting signals to a plurality of receiving stations and used for performing over-the-horizon communication using tropospheric scattering or diffraction with a range of radio wave frequencies from 200 MHz to 5000 MHz, the signal having a non-directional pattern of beam in a horizontal plane; a signal processing unit that performs digital signal processing on the signal and outputs the signal to the transmission antenna ; and a plurality of parabolic type reception antennas equipped in the plurality of receiving stations, respectively, and receiving the signals transmitted from the dipole type transmission antenna .
A fiber-optic cable adaptor for mounting to telecommunications equipment , the adaptor comprising: a neck comprising a fixed end and a free end; a fiber-optic cable including a cable breakout ; a fiber-optic cable support secured to the neck free end, wherein the fiber-optic cable support receives the cable breakout ; a mounting base which is mountable to the telecommunications equipment; characterized in that , said neck comprises a plurality of flex points between the fixed end and the free end, the plurality of flex points providing three-dimensional flexion with respect to the telecommunications equipment , and that the mounting base is mountable to the telecommunications equipment , the neck fixed end being flexibly fixed to the mounting base . a neck comprising a fixed end and a free end; a fiber-optic cable including a cable breakout ; a fiber-optic cable support secured to the neck free end, wherein the fiber-optic cable support receives the cable breakout ; a mounting base which is mountable to the telecommunications equipment; characterized in that , said neck comprises a plurality of flex points between the fixed end and the free end, the plurality of flex points providing three-dimensional flexion with respect to the telecommunications equipment , and that the mounting base is mountable to the telecommunications equipment , the neck fixed end being flexibly fixed to the mounting base .
A system that operates using Open Platform Communications OPC, Unified Architecture, UA, the system comprising: a redundant server set comprising a first OPC UA server and a second OPC UA server ; an OPC UA client configured to designate an endpoint Uniform Resource Locator, URL, to communicate with the redundant server set ; and a load balancer, LB, connected between the redundant server set and the OPC UA client , wherein the OPC UA client is configured to send a request for connection to the endpoint URL, the first OPC UA server is an active server, the second OPC UA server is a standby server, the LB is configured to proxy a connection to the first OPC UA server , and the endpoint URL is associated with a name and the URL of the active server and is different from a URL of each of the first OPC UA server and the second OPC UA server , wherein, in a failover operation, the LB is further configured to: switch the first OPC UA server and the second OPC UA server to a standby server and an active server, respectively, and shift the endpoint URL from the first OPC UA server to the second OPC UA server . a redundant server set comprising a first OPC UA server and a second OPC UA server ; an OPC UA client configured to designate an endpoint Uniform Resource Locator, URL, to communicate with the redundant server set ; and a load balancer, LB, connected between the redundant server set and the OPC UA client , wherein the OPC UA client is configured to send a request for connection to the endpoint URL, the first OPC UA server is an active server, the second OPC UA server is a standby server, the LB is configured to proxy a connection to the first OPC UA server , and the endpoint URL is associated with a name and the URL of the active server and is different from a URL of each of the first OPC UA server and the second OPC UA server , wherein, in a failover operation, the LB is further configured to: switch the first OPC UA server and the second OPC UA server to a standby server and an active server, respectively, and shift the endpoint URL from the first OPC UA server to the second OPC UA server . switch the first OPC UA server and the second OPC UA server to a standby server and an active server, respectively, and shift the endpoint URL from the first OPC UA server to the second OPC UA server .
A Raschel machine , comprising: a plurality of first guide needles arranged along a first direction for guiding warp threads ; a plurality of second guide needles arranged along the first direction for guiding weft threads ; a plurality of needles arranged along the first direction for creating interlocked loops formed by threads, whereby wales are created, wherein the first guide needles are held by a first needle bar , the second guide needles are held by a second needle bar and the second needle bar can be moved back and forth between in each case two adjacent first guide needles , characterized in that the distance (d) between adjacent first guide needles is 50.8 mm. a plurality of first guide needles arranged along a first direction for guiding warp threads ; a plurality of second guide needles arranged along the first direction for guiding weft threads ; a plurality of needles arranged along the first direction for creating interlocked loops formed by threads, whereby wales are created, wherein the first guide needles are held by a first needle bar , the second guide needles are held by a second needle bar and the second needle bar can be moved back and forth between in each case two adjacent first guide needles , characterized in that the distance (d) between adjacent first guide needles is 50.8 mm.
Storage device for transport goods, in particular packages, having a first conveying device , a second conveying device and a deflection device for deflecting transport goods conveyed by the first conveying device onto the second conveying device , wherein a motor arrangement for motorically driving the first conveying device and/or the second conveying device and a step over which the transport goods are conveyed are provided, wherein the storage device is arranged to vertically compact the transport goods by means of the step , wherein the second conveying device extends at least substantially parallel to the first conveying device characterized in that the deflection device is arranged to deflect the transport goods in a direction at least substantially perpendicular to the conveying path formed by the first and/or second conveying device, and wherein the deflection device forms a straight conveying path. wherein the storage device is arranged to vertically compact the transport goods by means of the step , wherein the second conveying device extends at least substantially parallel to the first conveying device characterized in that the deflection device is arranged to deflect the transport goods in a direction at least substantially perpendicular to the conveying path formed by the first and/or second conveying device, and wherein the deflection device forms a straight conveying path.
Method for manufacturing a component , having a symbol , for a motor vehicle or for a household device, in the case of which the symbol is introduced into a surface element made of a metal material, and in the case of which the surface element is furnished with a main body made of a plastic, wherein the symbol is introduced by means of a laser into the surface element only after the furnishing of the surface element with the main body , characterised in that the surface element is formed in a deep drawing process and is furnished with the main body by means of back-injection moulding, wherein the back-injection moulding takes place after the deep drawing process without tool change and the same tool is used for the forming of the surface element and for a holding of the surface element during the furnishing with the main body .
A feeding device, comprising a body and a plurality of first ports (20; 60), wherein the body comprises a plurality of first contour ports , and each first contour port of the plurality of first contour ports corresponds to a respective one of the plurality of first ports (20; 60); and each first contour port comprises at least two sub-ports , and the at least two sub-ports of each first contour port are connected, by using at least one power splitter , to the first port (20; 60) corresponding to the respective first contour port ; wherein the feeding device further comprises at least one second port (30; 90), the body further comprises at least one second contour port , and each of the at least one second contour port corresponds to one of the at least one second port (30; 90); and the second contour port and the second port (30; 90) corresponding to the second contour port are connected by using a stepped impedance transformation structure ; wherein each of the plurality of first ports is an input port and the at least one second port is an output port, or each of the plurality of first ports is an output port and the at least one second port is an input port; characterized in that a first redundant port is further disposed on the body between two neighboring first contour ports . wherein the feeding device further comprises at least one second port (30; 90), the body further comprises at least one second contour port , and each of the at least one second contour port corresponds to one of the at least one second port (30; 90); and the second contour port and the second port (30; 90) corresponding to the second contour port are connected by using a stepped impedance transformation structure ; wherein each of the plurality of first ports is an input port and the at least one second port is an output port, or each of the plurality of first ports is an output port and the at least one second port is an input port; characterized in that a first redundant port is further disposed on the body between two neighboring first contour ports .