mhurhangee/patent-ind-claim-en huggingface dataset:
A method for securely storing service credentials for services on a cloud application platform system, the method comprising: receiving, from a developer, a service bind request for an application in the cloud application platform system , wherein the service bind request comprises a request to bind a service provided by a service host in the cloud application platform system , wherein the service bind request specifies (i) an identifier for the service and (ii) a unique identifier for the application, and wherein the service bind request causes the service to provide credentials that allow the application to access the service; in response to the service bind request, receiving, from the service host, credentials for the application to access the service; providing the received credentials to a secure credential hub installed on the cloud application platform system , wherein the secure credential hub stores the credentials in association with a credential location identifier which represents the location in the secure credential hub where the credentials are stored; granting, to the unique identifier for the application, read access to the location in the secure credential hub identified by the credential location identifier; and storing the credential location identifier but not the credentials in a centralized database of the cloud application platform system as application metadata for the application, and wherein the secure credential hub is at a different location to the centralized database. receiving, from a developer, a service bind request for an application in the cloud application platform system , wherein the service bind request comprises a request to bind a service provided by a service host in the cloud application platform system , wherein the service bind request specifies (i) an identifier for the service and (ii) a unique identifier for the application, and wherein the service bind request causes the service to provide credentials that allow the application to access the service; in response to the service bind request, receiving, from the service host, credentials for the application to access the service; providing the received credentials to a secure credential hub installed on the cloud application platform system , wherein the secure credential hub stores the credentials in association with a credential location identifier which represents the location in the secure credential hub where the credentials are stored; granting, to the unique identifier for the application, read access to the location in the secure credential hub identified by the credential location identifier; and storing the credential location identifier but not the credentials in a centralized database of the cloud application platform system as application metadata for the application, and wherein the secure credential hub is at a different location to the centralized database.
An array antenna, wherein the array antenna comprises a dielectric substrate and a plurality of printed dipole antennas and each printed dipole antenna comprises a first printed dipole , a second printed dipole , a third printed dipole , a fourth printed dipole , a first feed line , a second feed line , a third feed line , a fourth feed line , wherein two arms of the first printed dipole , the second printed dipole , the third printed dipole , and the fourth printed dipole are disposed on an upper surface and a lower surface of the dielectric substrate respectively, and extend towards opposite directions; each feed line is a double-sided parallel-strip line such that each feed line is a waveguide, a guided wavelength is a wavelength of an electromagnetic wave travelling along the feed line in the dielectric substrate; the first printed dipole is parallel to the second printed dipole , and is perpendicular to the first feed line ; the first printed dipole is connected to one end of the first feed line , and the second printed dipole is connected to the other end of the first feed line ; the third printed dipole is parallel to the fourth printed dipole , and is perpendicular to the second feed line ; the third printed dipole is connected to one end of the second feed line , and the fourth printed dipole is connected to the other end of the second feed line ; one end of the third feed line is connected to the first feed line , the other end of the third feed line is connected to one end of the fourth feed line , and the other end of the fourth feed line is connected to the second feed line ; and the third feed line comprises a first segment and a second segment , and the fourth feed line comprises a third segment and a fourth segment , wherein the first segment is parallel to the first printed dipole , and a distance from the first segment to the first printed dipole is less than a distance from a midpoint of the first feed line to the first printed dipole ; the second segment is parallel to the second printed dipole , and a distance from the second segment to the second printed dipole is less than a distance from the midpoint of the first feed line to the second printed dipole ; and the third segment is parallel to the third printed dipole , and a distance from the third segment to the third printed dipole is less than a distance from a midpoint of the second feed line to the third printed dipole ; the fourth segment is parallel to the fourth printed dipole , and a distance from the fourth segment to the fourth printed dipole is less than a distance from the midpoint of the second feed line to the fourth printed dipole ; wherein a distance from the first segment to the midpoint of the first feed line is 0.2 to 0.6 times the guided wavelength; a distance from the second segment to the midpoint of the first feed line is 0.2 to 0.6 times the guided wavelength; a distance from the third segment to the midpoint of the second feed line is 0.2 to 0.6 times the guided wavelength; and a distance from the fourth segment to the midpoint of the second feed line is 0.2 to 0.6 times the guided wavelength.
A method of processing shear wave elastography data with respect to an object by using an ultrasound diagnostic apparatus , the method comprising: inducing a shear wave in a region of interest of the object by emitting a focused ultrasound beam onto the region of interest of the object; obtaining ultrasound images of the object in which the shear wave is induced, respectively at a plurality of time points; measuring, by using the ultrasound images, shear wave arrival times respectively at a plurality of measurement points that are separated by preset distances from a focal point where the focused ultrasound beam is focused; detecting a reverberation in the region of interest based on the measured shear wave arrival times; and displaying information about the detected reverberation, characterised in that the detecting of the reverberation further compries; calculating a first shear wave velocity by dividing an average of distances of the plurality of measurement points by an average of the shear wave arrival times respectively measured at the plurality of measurement points; calculating a second shear wave velocity by dividing a distance between two adjacent points among the plurality of measurement points by a difference between shear wave arrival times respectively measured at the two adjacent measurement points; and detecting occurrence of the reverberation based on the first and second shear wave velocities; detecting the occurrence of the reverberation by comparing a difference between the second and first shear wave velocities with a preset threshold. inducing a shear wave in a region of interest of the object by emitting a focused ultrasound beam onto the region of interest of the object; obtaining ultrasound images of the object in which the shear wave is induced, respectively at a plurality of time points; measuring, by using the ultrasound images, shear wave arrival times respectively at a plurality of measurement points that are separated by preset distances from a focal point where the focused ultrasound beam is focused; detecting a reverberation in the region of interest based on the measured shear wave arrival times; and displaying information about the detected reverberation, characterised in that the detecting of the reverberation further compries; calculating a first shear wave velocity by dividing an average of distances of the plurality of measurement points by an average of the shear wave arrival times respectively measured at the plurality of measurement points; calculating a second shear wave velocity by dividing a distance between two adjacent points among the plurality of measurement points by a difference between shear wave arrival times respectively measured at the two adjacent measurement points; and detecting occurrence of the reverberation based on the first and second shear wave velocities; detecting the occurrence of the reverberation by comparing a difference between the second and first shear wave velocities with a preset threshold.
An orally disintegrating nicotine tablet for nicotine craving relief comprising a pressed powder formulation, the tablet being designed to disintegrate within a period of less than 60 seconds upon oral administration, the powder formulation comprising an amount of nicotine, a pH regulating agent, at least one polyol, and a disintegrant, wherein the polyol comprises more than 40% by weight of the tablet, wherein the at least one polyol is selected from the list consisting of sorbitol, erythritol, xylitol, maltitol, mannitol, lactitol, and isomalt, wherein the tablet comprises the disintegrant in an amount of 1-10 % by weight of the tablet, wherein the disintegrant comprises cross-linked polyvinylpyrrolidone, and wherein the pH regulating agent is an alkaline buffering agent.
A unit dose machine dish wash detergent product comprising at least one thermoplastic solid part, wherein the thermoplastic solid part comprises detergent active, wherein the thermoplastic solid part comprises a combination of a a) chiral aminopolycarboxylate and b) an organic acid, wherein the thermoplastic solid part has c) a water content of from 2 to 30 wt. %.
A system for controlling a flow of cooling air in a battery system for cooling the battery system including a plurality of battery modules, the system comprising: an air conditioning system which includes an outlet discharging cooling air for reducing a temperature of the plurality of battery modules, and an inlet taking in cooling air, of which a temperature is increased, after reducing the temperature of the plurality of battery modules; a pipe which includes a plurality of module cooling ports connected to the outlet, forming a flow path of the cooling air, and corresponding to the plurality of battery modules, respectively, and makes the cooling air discharged through the outlet pass through each battery module through each module cooling port to cool the plurality of battery modules; and the plurality of battery modules, wherein each of the battery modules includes: an air inlet which receives cooling air flowing from the module cooling port; an opening/closing device which opens/closes the air inlet, and wherein the opening/closing device includes: an opening/closing plate which is formed in a surrounding area of the air inlet and opens/closes the air inlet; a servo motor which provides power for opening and closing the opening/closing plate; a circular plate which is connected to the servo motor; and a connecting rod which connects the circular plate and the opening/closing plate, and transmits the power of the servo motor transmitted to the circular plate to the opening/closing plate and converts a rotational movement of the servo motor into a rectilinear movement of the opening/closing plate. an air conditioning system which includes an outlet discharging cooling air for reducing a temperature of the plurality of battery modules, and an inlet taking in cooling air, of which a temperature is increased, after reducing the temperature of the plurality of battery modules; a pipe which includes a plurality of module cooling ports connected to the outlet, forming a flow path of the cooling air, and corresponding to the plurality of battery modules, respectively, and makes the cooling air discharged through the outlet pass through each battery module through each module cooling port to cool the plurality of battery modules; and the plurality of battery modules, wherein each of the battery modules includes: an air inlet which receives cooling air flowing from the module cooling port; an opening/closing device which opens/closes the air inlet, and an air inlet which receives cooling air flowing from the module cooling port; an opening/closing device which opens/closes the air inlet, and an opening/closing plate which is formed in a surrounding area of the air inlet and opens/closes the air inlet; a servo motor which provides power for opening and closing the opening/closing plate; a circular plate which is connected to the servo motor; and a connecting rod which connects the circular plate and the opening/closing plate, and transmits the power of the servo motor transmitted to the circular plate to the opening/closing plate and converts a rotational movement of the servo motor into a rectilinear movement of the opening/closing plate.
Drive shaft in a protective tube of a hand-guided working implement, wherein a rotary drive is drive-connected to one end of the drive shaft and a tool is drive-connected to the other end of the drive shaft and wherein the drive shaft has at least one rigid shaft section and at least one connecting section for transmitting a torque and wherein the rigid shaft section of the drive shaft is designed with at least one hollow shaft end , wherein an engagement length (E) of the connecting section engages with the hollow shaft end of the rigid shaft section and the engagement length (E) of the connecting section and a length of the hollow shaft end overlap each other and form a joining section , wherein the hollow shaft end is deformed for connecting the connecting section to the rigid shaft section , characterised in that the material of the hollow shaft end is compacted across its entire circumference and deformed in such a way that the material of the hollow shaft end is displaced radially and pressed onto the engagement length (E) of the connecting section in a manner to establish a rotary connection.
A butter peeler with a handle member and a blade member being pivotably mounted on the handle member , the blade member comprising at least one cutting edge at a substantially flat region , and with at least one guide element mounted on the blade member , wherein the guide element is distanced from the cutting edge of the blade member , wherein the butter peeler is configured to be pulled with the guide element resting on a piece of butter and with the cutting edge pointing in the pulling direction over the piece of butter and thus plunging with the blade element into the piece of butter in order to peel a slice of butter from the piece of butter, and wherein the flat region of the blade member has a wide front region comprising the cutting edge , said wide region extending substantially in the direction along the cutting edge at least as far as the cutting edge and comprising a narrow region which adjoins the wide region at an end facing away from the cutting edge and which extends less far in the direction along the cutting edge than the wide region . wherein the guide element is distanced from the cutting edge of the blade member , wherein the butter peeler is configured to be pulled with the guide element resting on a piece of butter and with the cutting edge pointing in the pulling direction over the piece of butter and thus plunging with the blade element into the piece of butter in order to peel a slice of butter from the piece of butter, and wherein the flat region of the blade member has a wide front region comprising the cutting edge , said wide region extending substantially in the direction along the cutting edge at least as far as the cutting edge and comprising a narrow region which adjoins the wide region at an end facing away from the cutting edge and which extends less far in the direction along the cutting edge than the wide region .
A device for supplying components for a placement machine , wherein the components are provided in the form of a continuous material , the device having a chassis ; and a cutting device which is configured to cut off a section at a leading end of the continuous material , wherein the cut-off section represents a supplied component ; characterised in that the device comprises a transport device attached to the chassis for transporting the continuous material along a transport track towards a pick-up position; and wherein the transport device and/or the cutting device is configured in such a way that in a first operating state, a cut-off component has a first predetermined length, and in a second operating state, the cut-off component has a second predetermined length, wherein the second predetermined length is different to the first predetermined length; the cutting device is attached to the chassis in a stationary manner and the pick-up position can be changed spatially along the transport track in relation to the chassis , wherein each operating state is assigned its own pick-up position; the transport device has a pushing means configured to transport the continuous material a predetermined distance along the transport track; and the pushing means has a clamping device configured to engage the continuous material and which is displaceable relative to the chassis along the transport track. a chassis ; and a cutting device which is configured to cut off a section at a leading end of the continuous material , wherein the cut-off section represents a supplied component ; characterised in that the device comprises a transport device attached to the chassis for transporting the continuous material along a transport track towards a pick-up position; and wherein the transport device and/or the cutting device is configured in such a way that in a first operating state, a cut-off component has a first predetermined length, and in a second operating state, the cut-off component has a second predetermined length, wherein the second predetermined length is different to the first predetermined length; the cutting device is attached to the chassis in a stationary manner and the pick-up position can be changed spatially along the transport track in relation to the chassis , wherein each operating state is assigned its own pick-up position; the transport device has a pushing means configured to transport the continuous material a predetermined distance along the transport track; and the pushing means has a clamping device configured to engage the continuous material and which is displaceable relative to the chassis along the transport track.
A method comprising: assigning, by a networking device , a unique Provider Virtual Local Area Network tag, S-TAG, to a group of ports and a unique IEEE 802. IQ tag header, C-TAG, to each port in the group of ports to implement a N:1 Virtual Local Area Network, VLAN, allocation scheme, wherein the S-TAG is configured to identify a type of frame in the VLAN allocation scheme, wherein the group of ports is included in the networking device that communicatively connects a Customer Edge, CE, device to a Provider Edge, PE, device ; and receiving, by the networking device , a frame from the PE device , the frame including the S-TAG assigned to the group of ports and a C-TAG assigned to a particular port in the group of ports; and forwarding, by the networking device , the frame from the particular port to the CE device based upon both the S-TAG and the C-TAG in the frame. assigning, by a networking device , a unique Provider Virtual Local Area Network tag, S-TAG, to a group of ports and a unique IEEE 802. IQ tag header, C-TAG, to each port in the group of ports to implement a N:1 Virtual Local Area Network, VLAN, allocation scheme, wherein the S-TAG is configured to identify a type of frame in the VLAN allocation scheme, wherein the group of ports is included in the networking device that communicatively connects a Customer Edge, CE, device to a Provider Edge, PE, device ; and receiving, by the networking device , a frame from the PE device , the frame including the S-TAG assigned to the group of ports and a C-TAG assigned to a particular port in the group of ports; and forwarding, by the networking device , the frame from the particular port to the CE device based upon both the S-TAG and the C-TAG in the frame.
An internal combustion engine having a horizontally-opposed cylinder arrangement, including at least one pair of pistons associated with a respective pair of opposed cylinders of the cylinder arrangement, and an output shaft , wherein each of the pistons is arranged for reciprocating motion within a respective one of the cylinders, driven by combustion, and wherein the pistons are coupled to the output shaft by a coupling such that said reciprocating motion of the pistons drives rotation of the output shaft, wherein the coupling includes a connecting rod moveably coupled to a respective pair of pistons such that each piston is permitted to centre within its associated cylinder, a slider bearing that is located for reciprocating movement relative to the connecting rod, and a crankshaft that is rotatably mounted within the slider bearing, the crankshaft having at least one guide shoulder for supporting axial location relative to the slider bearing.
A method comprising: detecting, by a mobile device located at a first location, a first signal from a first signal source from a group of signal sources located at a plurality of locations, the first signal including a first signal source identifier that includes a universally unique identifier, UUID, the UUID being associated with a category of entities that matches a category identifier, CID, that is associated with the group of signal sources; in response to detecting the first signal from the first signal source, triggering a function of the mobile device, the function being associated with the category identifier, CID, and a specification, the specification specifying that the function is to be activated in response to detecting the first signal by the mobile device; detecting, by the mobile device located at a second location that is different from the first location, a second signal from a second signal source from the group of signal sources, the second signal including a second signal source identifier that includes the universally unique identifier, UUID; and in response to detecting the second signal from the second signal source, triggering the function associated with the category identifier on the mobile device at the second location. detecting, by a mobile device located at a first location, a first signal from a first signal source from a group of signal sources located at a plurality of locations, the first signal including a first signal source identifier that includes a universally unique identifier, UUID, the UUID being associated with a category of entities that matches a category identifier, CID, that is associated with the group of signal sources; in response to detecting the first signal from the first signal source, triggering a function of the mobile device, the function being associated with the category identifier, CID, and a specification, the specification specifying that the function is to be activated in response to detecting the first signal by the mobile device; detecting, by the mobile device located at a second location that is different from the first location, a second signal from a second signal source from the group of signal sources, the second signal including a second signal source identifier that includes the universally unique identifier, UUID; and in response to detecting the second signal from the second signal source, triggering the function associated with the category identifier on the mobile device at the second location.