mhurhangee/ep-ind-claims huggingface dataset:
Beverage collector for collecting a centrifuged brewed liquid coming from a rotating brewing unit; said collector comprising: - a collecting track forming a cavity annular around a central axis and, - at least one outlet extending circumferentially and radially in a portion of collecting track for allowing the brewed liquid received in the collecting track to evacuate out of the collecting track, wherein said collecting track comprises at least one ramp surface lowering in the annular direction towards the outlet characterized in that the outlet extends by a conduit below the track which is directed in said annular direction or is directed tangentially to said direction or progressively diverging from said direction. - a collecting track forming a cavity annular around a central axis and, - at least one outlet extending circumferentially and radially in a portion of collecting track for allowing the brewed liquid received in the collecting track to evacuate out of the collecting track,
Tractor operable with a work implement configured to be connected to a rear part of a vehicle body, the tractor comprising: a driver's seat mounted rearward of the vehicle body, the driver's seat being opened to an outside of the vehicle body; right and left fenders mounted laterally outward of the driver's seat; a protection frame mounted rearward of the vehicle body in standing position; the protection frame including right and left posts mounted laterally outward of lateral opposite ends of a backrest of the driver's seat, and a partition dividing the entire region of the vehicle body into a driver's region and a rear region, the partition being disposed at a lateral side or a rear side of the backrest and forward of rear ends of the right and left fenders, and the partition having a lateral width thereof smaller than a lateral width between outer ends of the right and left fenders, and greater than a width of the backrest of the driver's seat, and the partition having a vertical dimension substantially corresponding to a vertical dimension of the backrest between an upper part and a lower part thereof, and the partition being configured to block a region between the right post and a right lateral end of the backrest, and a region between the left post and a left lateral end of the backrest. a driver's seat mounted rearward of the vehicle body, the driver's seat being opened to an outside of the vehicle body; right and left fenders mounted laterally outward of the driver's seat; a protection frame mounted rearward of the vehicle body in standing position; the protection frame including right and left posts mounted laterally outward of lateral opposite ends of a backrest of the driver's seat, and a partition dividing the entire region of the vehicle body into a driver's region and a rear region, the partition being disposed at a lateral side or a rear side of the backrest and forward of rear ends of the right and left fenders, and the partition having a lateral width thereof smaller than a lateral width between outer ends of the right and left fenders, and greater than a width of the backrest of the driver's seat, and the partition having a vertical dimension substantially corresponding to a vertical dimension of the backrest between an upper part and a lower part thereof, and the partition being configured to block a region between the right post and a right lateral end of the backrest, and a region between the left post and a left lateral end of the backrest.
A pharmaceutical composition for use in cancer therapy comprising an RNA which functions as a mature miRNA, characterized in that said RNA comprises: (i) a mature-miRNA consisting of a sequence represented by SEQ ID NO. 2; (ii) an RNA having a substitution, addition, and/or deletion of 1 - 5 bases to a mature-miRNA consisting of the sequence represented by SEQ ID NO. 2, and having cancer therapeutic effect; or (iii) an RNA having 80% or more sequence identity to a mature-miRNA consisting of the sequence represented by SEQ ID NO. 2, and having a cancer therapeutic effect. (i) a mature-miRNA consisting of a sequence represented by SEQ ID NO. 2; (ii) an RNA having a substitution, addition, and/or deletion of 1 - 5 bases to a mature-miRNA consisting of the sequence represented by SEQ ID NO. 2, and having cancer therapeutic effect; or (iii) an RNA having 80% or more sequence identity to a mature-miRNA consisting of the sequence represented by SEQ ID NO. 2, and having a cancer therapeutic effect.
A microcontroller device comprising: a plurality of external pins comprising a plurality of input/output pins; a first microcontroller comprising a first central processing unit, a first system bus coupled with the first CPU, first memory (140, 150) coupled with the first system bus, and a first plurality of peripheral devices (130a..n) coupled with the first system bus, a second microcontroller comprising a second central processing unit, a second system bus coupled with the second CPU, second memory (240, 250) coupled with the second system bus, and a second plurality of peripheral devices (230a..n) coupled with the second system bus, and a pad ownership multiplexer unit being controllable to assign control of the input/output pins to either the first microcontroller or the second microcontroller; wherein the number of external pins is less than the sum of a data bus width of the first and second microcontroller, and wherein each microcontroller comprises a peripheral pin select unit (170, 270) configured to assign a selected external pin which has been assigned by the pad ownership multiplexer unit to a respective microcontroller to a peripheral (130a..n; 230a..n) of that microcontroller. a plurality of external pins comprising a plurality of input/output pins; a first microcontroller comprising a first central processing unit, a first system bus coupled with the first CPU, first memory (140, 150) coupled with the first system bus, and a first plurality of peripheral devices (130a..n) coupled with the first system bus, a second microcontroller comprising a second central processing unit, a second system bus coupled with the second CPU, second memory (240, 250) coupled with the second system bus, and a second plurality of peripheral devices (230a..n) coupled with the second system bus, and a pad ownership multiplexer unit being controllable to assign control of the input/output pins to either the first microcontroller or the second microcontroller; wherein the number of external pins is less than the sum of a data bus width of the first and second microcontroller, and wherein each microcontroller comprises a peripheral pin select unit (170, 270) configured to assign a selected external pin which has been assigned by the pad ownership multiplexer unit to a respective microcontroller to a peripheral (130a..n; 230a..n) of that microcontroller.
A method of operation of a device implementing at least two Internet Protocol, IP, Multimedia Subsystem, IMS, service functions (101; 102) sharing a common public identity, comprising: transmitting, to a network node implementing a Bootstrapping Server Function, BSF, a Generic Bootstrapping Architecture, GBA, authentication request message from a first IMS service function (101; 102) implemented at the device, the authentication request message comprising authentication key agreement, AKA, parameters; obtaining, by the first IMS service function (101; 102) implemented at the device and from the network node implementing the BSF, a GBA based shared secret via a GBA bootstrapping procedure; sharing the GBA based shared secret with a second IMS service function (101; 102) implemented at the device, wherein the first IMS service function is different from the second IMS service function; and requesting, by the second IMS service function, authentication using a Generic Authentication Architecture, GAA, procedure based on the shared GBA based shared secret and the common public identity of the first and second IMS service functions (101, 102), wherein the request comprises communicating by the second IMS service function the shared GBA based shared secret and the common public identity of the first and second IMS service functions (101, 102) to an application proxy, AP,, wherein the first IMS service function is different from the second IMS service function. transmitting, to a network node implementing a Bootstrapping Server Function, BSF, a Generic Bootstrapping Architecture, GBA, authentication request message from a first IMS service function (101; 102) implemented at the device, the authentication request message comprising authentication key agreement, AKA, parameters; obtaining, by the first IMS service function (101; 102) implemented at the device and from the network node implementing the BSF, a GBA based shared secret via a GBA bootstrapping procedure; sharing the GBA based shared secret with a second IMS service function (101; 102) implemented at the device, wherein the first IMS service function is different from the second IMS service function; and requesting, by the second IMS service function, authentication using a Generic Authentication Architecture, GAA, procedure based on the shared GBA based shared secret and the common public identity of the first and second IMS service functions (101, 102), wherein the request comprises communicating by the second IMS service function the shared GBA based shared secret and the common public identity of the first and second IMS service functions (101, 102) to an application proxy, AP,, wherein the first IMS service function is different from the second IMS service function.
Method for detecting an electrical fault in the stator of an electric machine, especially in the generator of a wind turbine, wherein the stator comprises multiple groups (38, 51, 52) of windings (19 - 27, 69 - 77), wherein the windings (19 - 27, 69 - 77) of each group (38, 51, 52) are assigned to a respective phase (28, 29, 30) of the electric machine, the method characterized by the steps of: - determining a current (42, 43, 44) between a neutral point (35, 36, 37) that is connected to at least one winding (19 - 27, 69 - 77) of each of the groups (38, 51, 52) and either a further neutral point (35, 36, 37) that is connected to at least one further winding (19 - 27, 69 - 77) of each of the groups (38, 51, 52) or a common neutral point connected to at least the neutral point and the further neutral point, - evaluating a fault condition, wherein the fulfilment of the fault condition depends on the determined current (42, 43, 44), and - outputting a fault signal to personnel and/or a device when the fault condition is fulfilled. - determining a current (42, 43, 44) between a neutral point (35, 36, 37) that is connected to at least one winding (19 - 27, 69 - 77) of each of the groups (38, 51, 52) and either a further neutral point (35, 36, 37) that is connected to at least one further winding (19 - 27, 69 - 77) of each of the groups (38, 51, 52) or a common neutral point connected to at least the neutral point and the further neutral point, - evaluating a fault condition, wherein the fulfilment of the fault condition depends on the determined current (42, 43, 44), and - outputting a fault signal to personnel and/or a device when the fault condition is fulfilled.
An assembly for adjusting an armrest comprising: an armrest that includes: an armrest pad; a rising platform having a nut aperture; and a nut positioned within the nut aperture; a rod assembly that includes a rod and is coupled with the armrest; an adjustment mechanism for raising or lowering the armrest that is mechanically coupled with the rod; and one or more rotation stops coupled with a stationary plate, characterized in that one or more stop slots are provided within the rotation stops, wherein the adjustment mechanism includes a crank, a crank rod, a spring, and a crank handle, wherein each of the one or more rotation stops comprises a bottom wall, the bottom wall having the one or more stop slots that engage with the crank rod, preferably the crank is coupled with the handle end of the rod and the crank rod, and wherein the spring and the crank handle are positioned along an elongate portion of the crank rod, preferably the rod assembly includes the rod, a flanged bushing, and a nut coupled with the rising platform, or more preferred the rod includes a threaded end and a handle end, wherein the threaded end is threaded through the nut and wherein the handle end is coupled with the adjustment mechanism.. an armrest that includes: an armrest pad; a rising platform having a nut aperture; and a nut positioned within the nut aperture; an armrest pad; a rising platform having a nut aperture; and a nut positioned within the nut aperture; a rod assembly that includes a rod and is coupled with the armrest; an adjustment mechanism for raising or lowering the armrest that is mechanically coupled with the rod; and one or more rotation stops coupled with a stationary plate, one or more stop slots are provided within the rotation stops, wherein the adjustment mechanism includes a crank, a crank rod, a spring, and a crank handle, wherein each of the one or more rotation stops comprises a bottom wall, the bottom wall having the one or more stop slots that engage with the crank rod, preferably the crank is coupled with the handle end of the rod and the crank rod, and wherein the spring and the crank handle are positioned along an elongate portion of the crank rod, preferably the rod assembly includes the rod, a flanged bushing, and a nut coupled with the rising platform, or more preferred the rod includes a threaded end and a handle end, wherein the threaded end is threaded through the nut and wherein the handle end is coupled with the adjustment mechanism..
Suction hose for a vacuum cleaner, with a suction passage hose body having a suction passage for a suction flow, wherein the suction hose has at a first longitudinal end a connection for connecting to the vacuum cleaner, and at a second longitudinal end at a distance from the first longitudinal end a suction orifice, in particular for connection to a hand-operated power tool, wherein the suction passage runs between the longitudinal ends (11, 12) of the suction hose in a longitudinal extension, wherein the hose body is held in a flexible hose jacket encasing the suction passage hose body, wherein the hose jacket in the longitudinal extension has a side opening such that the suction passage hose body may be introduced into the hose jacket transversely to the longitudinal extension, and wherein the hose jacket has closing means for closing its side opening, characterised in that the suction hose has on at least one longitudinal end (11, 12) a connection sleeve (50; 150) for connection to a terminal device, in particular the vacuum cleaner or a hand-operated power tool, and for the creation of a flow connection with the terminal device, and which includes a base body (51; 151) connected to the hose jacket and the suction passage hose body, and a tubular connection element (52; 152), rotatably mounted on the base body (51; 151), for attaching to the terminal device.
System for the trenchless construction of a tunnel by pulling in a plurality of tunnel elements lying one behind the other, comprising a start portal and a target portal, which are connected to clamping elements, which are arranged in bores, wherein the bores extend through soil outside the cross-sectional area of the tunnel elements to be pulled in, further comprising a plurality of press cylinders or electric motors with threaded gears, which are arranged on the side of the start portal and are in operative connection with the target portal via the clamping elements, wherein the tunnel elements are drawn into the soil with threaded gears by means of the press cylinders or electric motors, characterized in that a milling machine is arranged on the first of the tunnel elements in operative connection therewith, wherein the milling machine has a plurality of individually controllable drilling-milling rollers and a plurality of drives, which are each assigned to one of the drilling-milling rollers, wherein the plurality of drilling-milling rollers is arranged one above the other wherein the shafts of the rollers extend vertically one above the other and parallel to one another, and wherein the milling machine is of modular construction by each of the drilling-milling rollers arranged one above the other having at least three coaxially arranged roller parts (20a,b,c) which can be individually removed and installed, and a drive box or an empty box is arranged in each case between the individual roller parts (20a,b,c) of each of the drilling-milling rollers arranged one above the other, and the drilling-milling rollers are each movable in a laterally horizontally oscillating manner in the direction of their shafts, wherein the drilling-milling rollers are movable in a laterally horizontally oscillating manner for removing earth at least in the region of the drive boxes and empty boxes.
A method of manufacturing electronic devices, comprising the successive steps of: a) growing, on a surface of a first substrate, a stack comprising at least one semiconductor layer (123, 125, 127); b) bonding a second substrate to a surface of the stack opposite to the first substrate, and then removing the first substrate; c) bonding a third substrate to a surface of the stack opposite to the second substrate, and then removing the second substrate; d) cutting the assembly comprising the third substrate and the stack into a plurality of first chips, each comprising a portion of the stack; and e) bonding each first chip, by its surface opposite to the third substrate, to a surface of a fourth semiconductor substrate inside and on top of which a plurality of integrated control circuits have been previously formed, wherein: I) at step b), the second substrate is bonded to the surface of the stack opposite to the first substrate by direct bonding of a first metal layer previously deposited on the surface of the stack opposite to the first substrate with a second metal layer previously deposited on the second substrate, or II) at step b), the second substrate is bonded to the surface of the stack opposite to the first substrate by direct bonding of a first dielectric layer previously deposited on the surface of the stack opposite to the first substrate with a second dielectric layer previously deposited on the second substrate.. a) growing, on a surface of a first substrate, a stack comprising at least one semiconductor layer (123, 125, 127); b) bonding a second substrate to a surface of the stack opposite to the first substrate, and then removing the first substrate; c) bonding a third substrate to a surface of the stack opposite to the second substrate, and then removing the second substrate; d) cutting the assembly comprising the third substrate and the stack into a plurality of first chips, each comprising a portion of the stack; and e) bonding each first chip, by its surface opposite to the third substrate, to a surface of a fourth semiconductor substrate inside and on top of which a plurality of integrated control circuits have been previously formed, I) at step b), the second substrate is bonded to the surface of the stack opposite to the first substrate by direct bonding of a first metal layer previously deposited on the surface of the stack opposite to the first substrate with a second metal layer previously deposited on the second substrate, or II) at step b), the second substrate is bonded to the surface of the stack opposite to the first substrate by direct bonding of a first dielectric layer previously deposited on the surface of the stack opposite to the first substrate with a second dielectric layer previously deposited on the second substrate..
A driving force receiving module which is used for receiving a rotating force from a driving head of an image forming apparatus and transmitting the rotating force to a driven rotating component, thus driving the driven rotating component to rotate, comprising: at least two symmetrically arranged power receiving components which are engaged with an engaging component of the driving head of the image forming apparatus; a driving cooperating component which cooperates with the driven rotating component; a power transmitting component which connects the power receiving component and the driving cooperating component; wherein the driving force receiving module is engaged with the driving head in that L, which represents the minimum distance between projected areas of the two symmetrically arranged power receiving components on a plane (s) perpendicular to an assembly direction of a process cartridge, ranges from D/2 to D+H; where D is a maximum outer diameter of a rotating head perpendicular to a rotating axis of the driving head, and H is a height of the most outer point on a contour of driving head protruding out of an assembly location of the engaging component. at least two symmetrically arranged power receiving components which are engaged with an engaging component of the driving head of the image forming apparatus; a driving cooperating component which cooperates with the driven rotating component; a power transmitting component which connects the power receiving component and the driving cooperating component; wherein the driving force receiving module is engaged with the driving head in that L, which represents the minimum distance between projected areas of the two symmetrically arranged power receiving components on a plane (s) perpendicular to an assembly direction of a process cartridge, ranges from D/2 to D+H; where D is a maximum outer diameter of a rotating head perpendicular to a rotating axis of the driving head, and H is a height of the most outer point on a contour of driving head protruding out of an assembly location of the engaging component.
Shoe upper for a shoe, in particular an athletic shoe, wherein the shoe upper is laceless and comprises: a. a lateral portion; b. a medial portion (12, 14); and c. at least an elastic intermediate portion between the lateral portion and the medial portion (12, 14), wherein the stiffness of at least one of the lateral portion and the medial portion (12, 14) is at least 2 times higher than the stiffness of the elastic intermediate portion, characterized in that the lateral portion and/or the medial portion comprise a coating applied to a base layer, the coating being adapted to modify the stiffness of the base layer such that the ratio of at least 2 of the stiffness of the lateral portion and/or the medial portion to the stiffness of the intermediate portion is achieved. a. a lateral portion; b. a medial portion (12, 14); and c. at least an elastic intermediate portion between the lateral portion and the medial portion (12, 14), wherein the stiffness of at least one of the lateral portion and the medial portion (12, 14) is at least 2 times higher than the stiffness of the elastic intermediate portion,
Capacitor assembly comprising a number of series-connected capacitor-element groups, each of which comprises a plurality of parallel-connected capacitor elements (12, 14), wherein the capacitor elements (12, 14) of at least one of the capacitor-element groups comprise a first subset and a second subset of capacitor elements (12, 14), and the capacitor elements of the first subset exhibit a fuse, and the capacitor elements of the second subset exhibit no fuse.