mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a client virtualized network function, VNF, for scaling of a server VNF in a virtualized network comprising at least the server VNF, the client VNF connected to the server VNF, and a VNF manager, the method comprising: • receiving scaling information from a peer connection management, PCM, server in response to a scaling operation performed by the VNF manager on the server VNF; wherein the scaling operation comprises either adding a server VNF or removing a server VNF, and • initiating , if the scaling operation is said adding a server VNF, a connection to the added server VNF; or • disconnecting , if the scaling operation is said removing a server VNF, the connection from the removed server VNF. • receiving scaling information from a peer connection management, PCM, server in response to a scaling operation performed by the VNF manager on the server VNF; wherein the scaling operation comprises either adding a server VNF or removing a server VNF, and • initiating , if the scaling operation is said adding a server VNF, a connection to the added server VNF; or • disconnecting , if the scaling operation is said removing a server VNF, the connection from the removed server VNF.
An atomizer comprising: a base ; an adjusting ring fixed on the base and configured to adjust a volume of air inflow, the adjusting ring being bored with a first air inlet ; and an atomizing component partly received in the adjusting ring and being in rotatable connection with the base , the atomizing component comprises a reservoir , a heater , and an air inlet component which is partly received in the adjusting ring and which is fixedly connected to the reservoir ; the air inlet component is disposed inside the adjusting ring ; an end of the heater inserts into the adjusting ring to fix the air inlet component , an opposite end of the heater protruding into the reservoir , the heater further comprising an air-inlet pathway, characterized in that : the part of the air inlet component received in the adjusting ring is bored with a second air inlet corresponding to the first air inlet and an end of the air-inlet pathway of the heater being in communication with said second air inlet , the atomizing component being arranged to rotate relative to the base such that when a user grasps the atomizing component excluding the part thereof received in the adjusting ring to rotate it relative to the base , an overlap ratio of the first air inlet and the second air inlet is capable to be adjusted. a base ; an adjusting ring fixed on the base and configured to adjust a volume of air inflow, the adjusting ring being bored with a first air inlet ; and an atomizing component partly received in the adjusting ring and being in rotatable connection with the base , the atomizing component comprises a reservoir , a heater , and an air inlet component which is partly received in the adjusting ring and which is fixedly connected to the reservoir ; the air inlet component is disposed inside the adjusting ring ; an end of the heater inserts into the adjusting ring to fix the air inlet component , an opposite end of the heater protruding into the reservoir , the heater further comprising an air-inlet pathway,
Hydrodynamic plain bearing with a stator and a rotor rotatable relative to the stator , wherein a rotor bearing surface faces a counter surface of the stator for hydrodynamic pressure generation, wherein the rotor bearing surface and/or the counter surface , when cut longitudinally and through the axis of rotation (R) in sectional view, form a continuous bearing contour which is formed from at least two contour sections (13.1, 13.2; 21.1, 21.2), wherein the contour sections (13.1, 13.2; 21.1, 21.2) are suitable for generating hydrodynamic load-bearing capacity in radial and axial direction, wherein the contour sections (13.1, 13.2; 21.1, 21. 3) are transferred into one another by means of at least one transition section (13.3; 21.3) in such a way that hydrodynamic load-bearing capacity can be generated via the contour sections (13.1, 13.2; 21.1, 21.2) and the transition section (13.3; 21.3), characterized in in that the sliding bearing is designed as a multi-surface sliding bearing having two or more lubricating wedges (21.1b, 21.2b, 21.3b) in the region of the contour sections (13.1, 13.2; 21.1, 21.2) and the transition section (13.3; 21.3) and in that at least some of the lubricating wedges (21.1b, 21.2b, 21.3b) of the contour sections (21.1; 21.2) and of the transition section (13.3, 21.3) are transferred into one another in such a way that a continuously differentiable contour profile results in the axial direction of the bearing. wherein the rotor bearing surface and/or the counter surface , when cut longitudinally and through the axis of rotation (R) in sectional view, form a continuous bearing contour which is formed from at least two contour sections (13.1, 13.2; 21.1, 21.2), wherein the contour sections (13.1, 13.2; 21.1, 21.2) are suitable for generating hydrodynamic load-bearing capacity in radial and axial direction, wherein the contour sections (13.1, 13.2; 21.1, 21. 3) are transferred into one another by means of at least one transition section (13.3; 21.3) in such a way that hydrodynamic load-bearing capacity can be generated via the contour sections (13.1, 13.2; 21.1, 21.2) and the transition section (13.3; 21.3), characterized in in that the sliding bearing is designed as a multi-surface sliding bearing having two or more lubricating wedges (21.1b, 21.2b, 21.3b) in the region of the contour sections (13.1, 13.2; 21.1, 21.2) and the transition section (13.3; 21.3) and in that at least some of the lubricating wedges (21.1b, 21.2b, 21.3b) of the contour sections (21.1; 21.2) and of the transition section (13.3, 21.3) are transferred into one another in such a way that a continuously differentiable contour profile results in the axial direction of the bearing.
A virus like particle consisting of a fusion protein, wherein the fusion protein comprises (a) a protein having an amino acid sequence at least 80% identical to that of a coat protein of alfalfa mosaic virus, wherein the coat protein has an amino acid sequence of SEQ ID NO: 1, and (b) a target protein, wherein the target protein is derived from a surface protein from an intracellular pathogenic organism that is suitable for use in vaccines, and wherein the virus like particle contains less than 10% of nucleic acid by weight.
A rotorcraft having a body and a propulsion system wherein the propulsion system includes a main thrust rotor and multiple control rotors , wherein the main thrust rotor is coupled to the body , whereby the main thrust rotor is driven by a main thrust drive shaft having an axis of rotation maintained in a fixed orientation to the body of the rotorcraft and wherein the multiple control rotors are driven by respective control drive shafts that are each arranged with respect to the body such that they are maintained in respective fixed orientations that are offset to and canted relative to the axis of rotation of the main thrust drive shaft , such that the multiple control rotors control roll, pitch and yaw of the rotorcraft.
An optical interferometer including an optical fiber for extending around a conductor, thereby forming a path for a beam of light, a quarter wave plate in the optical fiber and a mirror near an end of the optical fiber , for measuring current through the conductor based upon an effect of a magnetic field, produced by current flowing through the conductor, on light passing through the optical fiber , further including a gap formed between the quarter wave plate and the mirror being smaller than a predetermined maximum gap for minimizing the magnetic field passing through the gap, characterized by a magnetic shield around a substantial portion of the gap for further minimizing a magnetic field passing through the gap, the magnetic shield comprising: (a) a mirror block having a plate and a body enclosing a hollow coil housing through which the fiber extends, wherein the fiber is coiled an integral number of times to form a coil , (b) said body having a channel into which the coil housing is inserted, and in said channel a portion of the fiber containing the quarter wave plate being disposed; (c) said plate clamping said coil housing in the channel by fasteners inserted into the plate and being fixed in the body , and (d) an aperture formed in the mirror block extending adjacent the channel , in said aperture a protective tube being inserted, the tube encasing the end of the fiber , and the tube and the fiber end extend through the aperture , thereby disposing the fiber end adjacent the quarter wave plate , wherein the aperture is configured such that the position of the mirror relative to the quarter wave plate is adjustable, and wherein the mirror block comprises a rotary clamp configured to be tightened around a sheathing of the fiber to clamp the fiber and the mirror in a desired position. (a) a mirror block having a plate and a body enclosing a hollow coil housing through which the fiber extends, wherein the fiber is coiled an integral number of times to form a coil , (b) said body having a channel into which the coil housing is inserted, and in said channel a portion of the fiber containing the quarter wave plate being disposed; (c) said plate clamping said coil housing in the channel by fasteners inserted into the plate and being fixed in the body , and (d) an aperture formed in the mirror block extending adjacent the channel , in said aperture a protective tube being inserted, the tube encasing the end of the fiber , and the tube and the fiber end extend through the aperture , thereby disposing the fiber end adjacent the quarter wave plate , wherein the aperture is configured such that the position of the mirror relative to the quarter wave plate is adjustable, and wherein the mirror block comprises a rotary clamp configured to be tightened around a sheathing of the fiber to clamp the fiber and the mirror in a desired position.
Method for the foundation of a transformer platform having at least four piles , in which precisely one pile driver is brought to a location, the pile driver is supported on the seabed by means of extendable supporting legs , driving jigs are attached on or to the pile driver , the piles are inserted through the associated driving jigs , the piles are successively driven into the seabed , upper ends of the piles driven into the seabed are arranged level with or above the associated driving jig , the supporting legs of the pile driver are retracted, characterised in that the pile driver is moved away from the location and an upper platform part is arranged on a pontoon and is brought to the location, and at the location is placed onto the upper ends of the piles .
A system for automatically controlling an electrode drying, the system comprising: an oven which provides a space where an electrode sheet is moved and dried, includes a drying means which applies hot air and/or radiant heat to the electrode sheet , and is divided into a plurality of drying sections ; a measuring unit which collects information on a dried amount of the electrode sheet and transmits the collected information to a controller ; and the controller which determines a dried level of the electrode sheet based on the information on the dried amount received from the measuring unit , and controls a drying intensity of the oven according to the determined dried level, wherein the controller independently controls the plurality of drying sections , characterized in that the controller determines the dried level of the electrode sheet as one of 5 levels of normal level, overdried level, non-dried level, excessively overdried level, and excessively non-dried level, in that , when the dried level of the electrode sheet is determined as the overdried level or the non-dried level, the controller controls to adjust the drying intensity for one drying section , and in that , when the dried level of the electrode sheet is determined as the excessively overdried level or the excessively non-dried level, the controller controls to adjust the drying intensity of two or more drying sections together. an oven which provides a space where an electrode sheet is moved and dried, includes a drying means which applies hot air and/or radiant heat to the electrode sheet , and is divided into a plurality of drying sections ; a measuring unit which collects information on a dried amount of the electrode sheet and transmits the collected information to a controller ; and the controller which determines a dried level of the electrode sheet based on the information on the dried amount received from the measuring unit , and controls a drying intensity of the oven according to the determined dried level, wherein the controller independently controls the plurality of drying sections , characterized in that the controller determines the dried level of the electrode sheet as one of 5 levels of normal level, overdried level, non-dried level, excessively overdried level, and excessively non-dried level, in that , when the dried level of the electrode sheet is determined as the overdried level or the non-dried level, the controller controls to adjust the drying intensity for one drying section , and in that , when the dried level of the electrode sheet is determined as the excessively overdried level or the excessively non-dried level, the controller controls to adjust the drying intensity of two or more drying sections together.
A compound of Formula (I) or a pharmaceutically acceptable salt of an enantiomer thereof, wherein m is 0, n is 0 or 1, k is 0; R 1 is oxazolyl; R 2 is H, alkyl; R 3 is cycloalkyl, heterocycloalkyl; R 4 is H, alkyl; R 5 is OR or N(R) 2 ; R 6 is phenyl, pyridinyl, pyrrolyl, or thiophenyl, and is optionally substituted with halo, alkyl, haloalkyl, CN, hydroxyl, or alkoxy; when n is 0, R 7 and R 8 , together with the carbon atom to which they are bonded, form a 3- tc 6-membered cycloalkyl which optionally contains one or two ring hetero groups each independently being O; when n is 1, R 7 and R 8 , together with the carbon atom to which they are bonded, form a 3- to 6-membered cycloalkyl which optionally contains one or two ring hetero groups each independently being O, each of R 9 and R 10 independently is H or alkyl; or alternatively R 9 and R 8 , together with the carbon atoms to which they are bonded, form a 3- to 7-membered cycloalkyl which optionally contains one or two ring hetero groups each independently being O, each of R 7 and R 10 independently is H or alkyl; X is S; Y is O; each R independently is H, alkyl, halo, or haloalkyl. m is 0, n is 0 or 1, k is 0; R 1 is oxazolyl; R 2 is H, alkyl; R 3 is cycloalkyl, heterocycloalkyl; R 4 is H, alkyl; R 5 is OR or N(R) 2 ; R 6 is phenyl, pyridinyl, pyrrolyl, or thiophenyl, and is optionally substituted with halo, alkyl, haloalkyl, CN, hydroxyl, or alkoxy; when n is 0, R 7 and R 8 , together with the carbon atom to which they are bonded, form a 3- tc 6-membered cycloalkyl which optionally contains one or two ring hetero groups each independently being O; when n is 1, R 7 and R 8 , together with the carbon atom to which they are bonded, form a 3- to 6-membered cycloalkyl which optionally contains one or two ring hetero groups each independently being O, each of R 9 and R 10 independently is H or alkyl; or alternatively R 9 and R 8 , together with the carbon atoms to which they are bonded, form a 3- to 7-membered cycloalkyl which optionally contains one or two ring hetero groups each independently being O, each of R 7 and R 10 independently is H or alkyl; X is S; Y is O; each R independently is H, alkyl, halo, or haloalkyl.
Camera mount for securing to a vehicle body of a motor vehicle, in particular a bus or utility vehicle, or a trailer of the motor vehicle, having a camera support part fixable to the vehicle body and has at least one receiving shaft for receiving at least one camera body of a camera , an encasing housing that can be detachably placed over the camera support part in a sliding-on direction (A), wherein the encasing housing has a receiving opening for receiving the camera support part and at least one window opening provided in a wall housing region , in or behind which a lens of the camera can be positioned, wherein at least one insert which receives the camera and is adjustable through at least a first angle of adjustment (a) is arranged on the camera support part , wherein the at least one receiving shaft is bounded by a cylindrical outer wall of the camera support part , in which a cylindrical insert having a receptacle receiving the camera is received so as to be rotatable through a first angle of adjustment (a) about a first axis of rotation, characterized in that on an inner wall of the cylindrical receptacle , guide webs are formed that extend parallel to the first axis of rotation and project into lateral guide grooves of the camera body in order to position the camera . a camera support part fixable to the vehicle body and has at least one receiving shaft for receiving at least one camera body of a camera , an encasing housing that can be detachably placed over the camera support part in a sliding-on direction (A), wherein the encasing housing has a receiving opening for receiving the camera support part and at least one window opening provided in a wall housing region , in or behind which a lens of the camera can be positioned, wherein at least one insert which receives the camera and is adjustable through at least a first angle of adjustment (a) is arranged on the camera support part , wherein the at least one receiving shaft is bounded by a cylindrical outer wall of the camera support part , in which a cylindrical insert having a receptacle receiving the camera is received so as to be rotatable through a first angle of adjustment (a) about a first axis of rotation, characterized in that on an inner wall of the cylindrical receptacle , guide webs are formed that extend parallel to the first axis of rotation and project into lateral guide grooves of the camera body in order to position the camera .
A method of manufacturing a billet of stainless steel comprising: cold forming a bloom to give the strain-hardened billet; and subsequent annealing of the billet, wherein upon annealing of the billet the billet is heated to a temperature in a range of from 400° C to 460° C, characterised in that the strain-hardened billet is surrounded by a protective gas atmosphere during heating, wherein the method further has the step of cooling the billet after heating, wherein the billet during cooling is surrounded by the protective gas atmosphere, wherein the bloom and the billet are in the form of a tube with an inside diameter and an outside diameter, wherein a tube is formed by the cold forming operation, the inside diameter of which is half of the outside diameter or less, wherein the material of the bloom is an austenitic stainless steel. cold forming a bloom to give the strain-hardened billet; and subsequent annealing of the billet, wherein upon annealing of the billet the billet is heated to a temperature in a range of from 400° C to 460° C, the strain-hardened billet is surrounded by a protective gas atmosphere during heating, wherein the method further has the step of cooling the billet after heating, wherein the billet during cooling is surrounded by the protective gas atmosphere, wherein the bloom and the billet are in the form of a tube with an inside diameter and an outside diameter, wherein a tube is formed by the cold forming operation, the inside diameter of which is half of the outside diameter or less, wherein the material of the bloom is an austenitic stainless steel.
A massaging shoe comprising a shoe body formed by a shoe sole and a shoe vamp connected together, the shoe sole includes a shoe sole body having a containing cavity and a shoe board covering on the containing cavity, and the containing cavity is provided therein with an air pump communicating with at least one massaging air bag and electronic components controlling the air pump , characterized in that the massaging shoe further comprises a sock sleeve detachably arranged in the shoe body , the sock sleeve is provided with the at least one massaging air bag .
A composition for use in preventing, treating, or alleviating one or more diseases selected from the group consisting of an inflammatory disease and a cranial nerve disease, comprising vesicles derived from Deinococcus radiodurans as an active ingredient, and wherein the inflammatory disease is a disease mediated by tumor necrosis factor-α (TNF-α), and wherein the cranial nerve disease is one or more selected from the group consisting of dementia, depression, Alzheimer's disease and autism. wherein the inflammatory disease is a disease mediated by tumor necrosis factor-α (TNF-α), and wherein the cranial nerve disease is one or more selected from the group consisting of dementia, depression, Alzheimer's disease and autism.
An aircraft with a fuselage that comprises at least one hollow beam element , wherein the at least one hollow beam element accommodates at least one hollow duct element that comprises a tubular duct element wall , and wherein at least one protective spacer is arranged between the tubular duct element wall and the at least one hollow beam element , characterized in that the at least one protective spacer is a longitudinal protective spacer which is provided as an outwardly oriented protrusion of the tubular duct element wall that extends continuously over the whole length of the tubular duct element wall and that extends radially between the tubular duct element wall and the at least one hollow beam element such that free space is available between the tubular duct element wall and the at least one hollow beam element adjacent to the at least one protective spacer .