mhurhangee/patent-ind-claim-en huggingface dataset:
Switching device for switching the flow of a fluid, wherein the switching device comprises: a fluid conduit comprising a first inlet for said fluid and a first outlet , a first switching fluid conduit comprising a second inlet for a switching fluid, which first switching fluid conduit is configured in fluid connection with the fluid conduit at a first position between the first inlet and the first outlet , an exhaust conduit comprising a second outlet , which exhaust conduit is configured in fluid connection with the fluid conduit at a second position between the first inlet and the first position , and a control device configured for controlling the flow of the switching fluid into the fluid conduit , wherein the switching device further comprises a second switching fluid conduit which is configured in fluid connection with the exhaust conduit and the first switching fluid conduit , wherein the control device is configured for controlling the flow of the switching fluid into the first switching fluid conduit and/or the second switching fluid conduit , and wherein the control device has a first condition, in which the control device is configured for substantially preventing a flow of any fluid to enter the fluid conduit at the first position, and a second condition, in which the control device is configured to allow a flow of the switching fluid into the fluid conduit . a fluid conduit comprising a first inlet for said fluid and a first outlet , a first switching fluid conduit comprising a second inlet for a switching fluid, which first switching fluid conduit is configured in fluid connection with the fluid conduit at a first position between the first inlet and the first outlet , an exhaust conduit comprising a second outlet , which exhaust conduit is configured in fluid connection with the fluid conduit at a second position between the first inlet and the first position , and a control device configured for controlling the flow of the switching fluid into the fluid conduit , wherein the switching device further comprises a second switching fluid conduit which is configured in fluid connection with the exhaust conduit and the first switching fluid conduit , wherein the control device is configured for controlling the flow of the switching fluid into the first switching fluid conduit and/or the second switching fluid conduit , and wherein the control device has a first condition, in which the control device is configured for substantially preventing a flow of any fluid to enter the fluid conduit at the first position, and a second condition, in which the control device is configured to allow a flow of the switching fluid into the fluid conduit .
A power semiconductor component , with - at least two power semiconductor modules , each being connected to a cooling structure , and - a cooling chamber having an inlet port and an outlet port , wherein - the cooling chamber is adapted for a flow direction of a coolant substance within the cooling chamber from the inlet port to the outlet port , - each of the at least two cooling structures are provided within the cooling chamber consecutively in direction of the flow direction such that each of the at least two cooling structures forms a flow resistance region in the cooling chamber , - the cooling chamber comprises at least one bypass region , - the at least one bypass region is connected in parallel to at least one of the at least two flow resistance regions being closer to the inlet port , - the at least one bypass region has a width perpendicular to the flow direction decreasing in the flow direction, and - the cooling chamber is adapted for a flow rate of the at least one flow resistance region , which is connected in parallel to the at least one bypass region , closer to the inlet port being smaller than a flow rate of one of the at least two flow resistance regions closer to the outlet port . - at least two power semiconductor modules , each being connected to a cooling structure , and - a cooling chamber having an inlet port and an outlet port , wherein - the cooling chamber is adapted for a flow direction of a coolant substance within the cooling chamber from the inlet port to the outlet port , - each of the at least two cooling structures are provided within the cooling chamber consecutively in direction of the flow direction such that each of the at least two cooling structures forms a flow resistance region in the cooling chamber , - the cooling chamber comprises at least one bypass region , - the at least one bypass region is connected in parallel to at least one of the at least two flow resistance regions being closer to the inlet port , - the at least one bypass region has a width perpendicular to the flow direction decreasing in the flow direction, and - the cooling chamber is adapted for a flow rate of the at least one flow resistance region , which is connected in parallel to the at least one bypass region , closer to the inlet port being smaller than a flow rate of one of the at least two flow resistance regions closer to the outlet port .
A method for secure communication between Vehicle to Everything, V2X, terminals, performed by a second V2X terminal, comprising: receiving a first message broadcasted by a first V2X terminal, the first message being encrypted by a V2X communication key of the first V2X terminal, and acquiring a terminal identifier and a service identifier of the first V2X terminal by parsing the first message, in response to the second V2X terminal driving in a communication range of the first V2X terminal; acquiring the V2X communication key of the first V2X terminal from a V2X service platform , and saving the V2X communication key of the first V2X terminal; decrypting and parsing the first message by using the V2X communication key of the first V2X terminal to acquire a content of the first message; and removing the V2X communication key of the first V2X terminal, in response to the second V2X terminal driving out of the communication range of the first V2X terminal, wherein the V2X communication key being generated by the V2X service platform, and saved correspondingly with the terminal identifier and the service identifier of the first V2X terminal for communication between the first V2X terminal and other V2X terminal, and different V2X terminals use different V2X communication keys to communicate. receiving a first message broadcasted by a first V2X terminal, the first message being encrypted by a V2X communication key of the first V2X terminal, and acquiring a terminal identifier and a service identifier of the first V2X terminal by parsing the first message, in response to the second V2X terminal driving in a communication range of the first V2X terminal; acquiring the V2X communication key of the first V2X terminal from a V2X service platform , and saving the V2X communication key of the first V2X terminal; decrypting and parsing the first message by using the V2X communication key of the first V2X terminal to acquire a content of the first message; and removing the V2X communication key of the first V2X terminal, in response to the second V2X terminal driving out of the communication range of the first V2X terminal, wherein the V2X communication key being generated by the V2X service platform, and saved correspondingly with the terminal identifier and the service identifier of the first V2X terminal for communication between the first V2X terminal and other V2X terminal, and different V2X terminals use different V2X communication keys to communicate.
A resource management method, wherein the method is applied to a computer system, the computer system comprises a first processor core and a second processor core that is in an isolated environment, and the method comprises: allocating first ASIDs from an address space identifier ASID resource pool to processes run by the first processor core , wherein the ASID resource pool comprises a plurality of first ASIDs; allocating a second ASID to a process run by the second processor core ; and when the first ASIDs in the ASID resource pool are exhausted, updating only the first ASIDs in the ASID resource pool in an ASID generation iteration manner, invalidating the first ASIDs allocated to the processes run by the first processor core, and refreshing a translation lookaside buffer TLB in the first processor core. allocating first ASIDs from an address space identifier ASID resource pool to processes run by the first processor core , wherein the ASID resource pool comprises a plurality of first ASIDs; allocating a second ASID to a process run by the second processor core ; and when the first ASIDs in the ASID resource pool are exhausted, updating only the first ASIDs in the ASID resource pool in an ASID generation iteration manner, invalidating the first ASIDs allocated to the processes run by the first processor core, and refreshing a translation lookaside buffer TLB in the first processor core.
A multi-link device, MLD , for operation in a wireless fidelity, Wi-Fi, system , wherein the MLD comprises a medium access control, MAC, Layer Management entity, MLME, and a station management entity, SME, comprising a processor , configured to: indicate, by the SME, a selected link identity, ID, to the MLME, wherein the selected link ID indicates the link being used for frame exchange between an access point, AP (111-113), affiliated with AP MLD and non-AP STA (121-123) affiliated with non-AP MLD , and, a transceiver , configured to: exchange one or more frames through the link indicated by the selected link ID, wherein the selected link ID is indicated in the following management services provided by the MLME to the SME: authenticate, deauthenticate, associate, reassociate, disassociate, wherein the selected link ID is comprised in a common part of a basic variant multi-link element, MLE, and wherein the selected link ID is 4 bits. indicate, by the SME, a selected link identity, ID, to the MLME, wherein the selected link ID indicates the link being used for frame exchange between an access point, AP (111-113), affiliated with AP MLD and non-AP STA (121-123) affiliated with non-AP MLD , and, a transceiver , configured to: exchange one or more frames through the link indicated by the selected link ID, wherein the selected link ID is indicated in the following management services provided by the MLME to the SME: authenticate, deauthenticate, associate, reassociate, disassociate, wherein the selected link ID is comprised in a common part of a basic variant multi-link element, MLE, and wherein the selected link ID is 4 bits. authenticate, deauthenticate, associate, reassociate, disassociate, wherein the selected link ID is comprised in a common part of a basic variant multi-link element, MLE, and wherein the selected link ID is 4 bits.
An installation cabinet, especially a distribution box, with at least one fastening opening , comprising a fastening device , by means of which the installation cabinet can be fastened in a wall shell opening built into a wall shell , wherein the fastening device further comprises at least one fastening element having a first side , able to be faced away from a rear side of the wall shell , and a second side , able to be faced towards the rear side of the wall shell , wherein the fastening element comprises a gripping arm having a first end and a gripping portion which is arranged adjacent to the first end on the second side , wherein the gripping portion is suitable to engage on the rear side , wherein the installation cabinet has an inner side facing an interior space (I), an outer side facing an exterior space (A), a cabinet base and the at least one fastening opening , wherein the fastening element is guided at least partially through the fastening opening from the interior space (I) to the exterior space (A) with the first end located in front, in a direction (R) running parallel to the cabinet base in order to bring the gripping portion into contact with the rear side of the wall shell , wherein the first side comprises a first bearing portion which rests on a first bearing region , arranged adjacent to the fastening opening , of the installation cabinet , in order to form a hinge point, and wherein the second side comprises a second bearing portion which rests on a second bearing region , arranged adjacent to the fastening opening of the installation cabinet , in order to counteract a pivoting movement of the gripping arm away from the rear side .
A liquid-fuel multistage burner comprising a combustion head ; a hydraulic circuit to feed liquid fuel to the combustion head ; and a pneumatic circuit to feed oxidizing air to the combustion head ; the hydraulic circuit comprising an atomizing nozzle projecting into the combustion head , a first pumping device to feed liquid fuel from a containing tank to the atomizing nozzle , two feeding branches , which are arranged in parallel to one another between the first pumping device and the atomizing nozzle and are configured to feed liquid fuel to the atomizing nozzle with respective feeding pressures, which are different from one another, a valve device , which is mounted along a first feeding branch , and a pressure adjusting device which is mounted along a second feeding branch .
A method of imparting new properties to a textile, comprising: providing a textile having a first surface property; providing silk polypeptides to be affixed to a surface of the textile, wherein the silk polypeptides comprise sericin and fibroin, wherein the polypeptides impart one of more of the following new surface properties to the textile: haptic smoothness, strength, elasticity, thermal retention, water repellency and dyeability, each of the new surface properties being different from the first surface property; and subjecting the textile and polypeptides to reactive species from a plasma generated by an atmospheric plasma apparatus until the polypeptides affix to the surface of the textile, wherein the polypeptides are fed into the plasma-generating electrical field of plasma apparatus and the polypeptides and/or surface sites on the textile are transformed into reactive species such that the polypeptides and textile bond together, and the polypeptides sufficiently coat the surface of the textile to provide one or more of the new surface properties. providing a textile having a first surface property; providing silk polypeptides to be affixed to a surface of the textile, wherein the silk polypeptides comprise sericin and fibroin, wherein the polypeptides impart one of more of the following new surface properties to the textile: haptic smoothness, strength, elasticity, thermal retention, water repellency and dyeability, each of the new surface properties being different from the first surface property; and subjecting the textile and polypeptides to reactive species from a plasma generated by an atmospheric plasma apparatus until the polypeptides affix to the surface of the textile, wherein the polypeptides are fed into the plasma-generating electrical field of plasma apparatus and the polypeptides and/or surface sites on the textile are transformed into reactive species such that the polypeptides and textile bond together, and the polypeptides sufficiently coat the surface of the textile to provide one or more of the new surface properties.
A method for installing a bulkhead at an installation position in a wind turbine blade having a root end comprising fastening means for fastening the wind turbine blade to a wind turbine hub, the method comprising: - providing the bulkhead to be installed in the wind turbine blade, the bulkhead comprising attachment means for attaching the bulkhead to the root end, - attaching holding means of a movement device to the bulkhead, the attaching of the holding means allowing the movement device to hold and lift the bulkhead, - moving, using the movement device, the bulkhead into the installation position while the bulkhead is attached to the holding means, the moving comprising engaging the attachment means of the bulkhead with receiving means of the root end, the receiving means being arranged and adapted to receive and hold the bulkhead by engaging with the attachment means of the bulkhead, and - adhering the bulkhead to the wind turbine blade wherein: a) the attachment means comprises one or more holes and the receiving means comprises corresponding one or more pins , and/or b) the attachment means comprises one or more pins and the receiving means comprises corresponding one or more holes , and wherein the step of moving the bulkhead into the installation position comprises engaging the one or more pins with the one or more holes , and wherein the one or more holes and/or one or more pins are located in a flange or in one or more flange tabs extending radially outwards from a peripheral wall of the bulkhead. - providing the bulkhead to be installed in the wind turbine blade, the bulkhead comprising attachment means for attaching the bulkhead to the root end, - attaching holding means of a movement device to the bulkhead, the attaching of the holding means allowing the movement device to hold and lift the bulkhead, - moving, using the movement device, the bulkhead into the installation position while the bulkhead is attached to the holding means, the moving comprising engaging the attachment means of the bulkhead with receiving means of the root end, the receiving means being arranged and adapted to receive and hold the bulkhead by engaging with the attachment means of the bulkhead, and - adhering the bulkhead to the wind turbine blade a) the attachment means comprises one or more holes and the receiving means comprises corresponding one or more pins , and/or b) the attachment means comprises one or more pins and the receiving means comprises corresponding one or more holes , and wherein the step of moving the bulkhead into the installation position comprises engaging the one or more pins with the one or more holes , and wherein the one or more holes and/or one or more pins are located in a flange or in one or more flange tabs extending radially outwards from a peripheral wall of the bulkhead.
A method for implementing a data loss prevention, DLP, policy from a DLP policy template, said DLP policy instance implemented for a set of electronic file systems, said electronic file systems comprising a set of file servers, said file servers in communication with a set of clients, said clients requesting access to data and uploading data to said file servers, the steps of said method comprising: identifying a set of policy template objects for installing the DLP policy and all associated objects; creating a set of DLP policy template definitions defining properties to be mapped to deployment values at time the DLP policy template is used to create a DLP policy instance; creating a main DLP policy object that tracks shared metadata and state , said main DLP policy object derivable from said set of DLP policy template definitions; creating a set of policy rule objects, said set of policy rule objects defining policy directives as match conditions and actions derivable from said main DLP policy object; and creating a set of data classification rule objects, said data classification rule objects defining a set of electronic data upon which said policy rule objects are applied. identifying a set of policy template objects for installing the DLP policy and all associated objects; creating a set of DLP policy template definitions defining properties to be mapped to deployment values at time the DLP policy template is used to create a DLP policy instance; creating a main DLP policy object that tracks shared metadata and state , said main DLP policy object derivable from said set of DLP policy template definitions; creating a set of policy rule objects, said set of policy rule objects defining policy directives as match conditions and actions derivable from said main DLP policy object; and creating a set of data classification rule objects, said data classification rule objects defining a set of electronic data upon which said policy rule objects are applied.
A method of reducing spring back of a sheet following a machining operation on the sheet , the method comprising: drawing a vacuum across a porous material of a machining support to hold a second surface of the sheet against a support surface of the machining support , the porous material of the machining support sealed on each surface except the support surface ; maintaining the vacuum within the porous material while performing the machining operation through a first surface of the sheet opposite the second surface ; machining indentations into the support surface of the machining support ; and applying a sealing material within each of the indentations in the support surface . drawing a vacuum across a porous material of a machining support to hold a second surface of the sheet against a support surface of the machining support , the porous material of the machining support sealed on each surface except the support surface ; maintaining the vacuum within the porous material while performing the machining operation through a first surface of the sheet opposite the second surface ; machining indentations into the support surface of the machining support ; and applying a sealing material within each of the indentations in the support surface .
Composition for use in the treatment of non-small cell lung cancer, the composition comprising six mRNAs, wherein each mRNA encodes a different antigen selected from the group consisting of: • 5T4 (Trophoblast glycoprotein; TPBG); • Survivin (Baculoviral IAP repeat-containing protein 5; BIRC5); • NY-ESO-1 (New York esophageal squamous cell carcinoma 1; CTAG1B); • MAGE-C1 (Melanoma antigen family C1); • MAGE-C2 (Melanoma antigen family C2) and • MUC1 (Mucin 1), and wherein each mRNA is identical to a different RNA sequence selected from the RNA sequences according to SEQ ID NO: 19, 20, 21, 22, 23 or 24, wherein each mRNA is complexed with a cationic compound selected from the group consisting of a cationic peptide, a cationic protein, a cationic polysaccharide, a cationic polymer and a cationic lipid, and wherein the treatment further comprises administration of a chemotherapeutic agent. • 5T4 (Trophoblast glycoprotein; TPBG); • Survivin (Baculoviral IAP repeat-containing protein 5; BIRC5); • NY-ESO-1 (New York esophageal squamous cell carcinoma 1; CTAG1B); • MAGE-C1 (Melanoma antigen family C1); • MAGE-C2 (Melanoma antigen family C2) and • MUC1 (Mucin 1),
System that has a flap for a motor vehicle, in particular a fuel filler flap or a charging flap, an electromotive actuator , having an output drive (4.1) and an electric motor (4.2), and an electrical motor controller , wherein the electric motor (4.2) can be driven by means of the motor controller on the basis of an electrical actuation signal in such a way that the output drive (4.1) of the actuator transfers the flap into an open position or closed position, and wherein the actuation signal can be produced by means of an external movement of the output drive (4.1), characterized in that the actuation signal is in the form of a voltage that can be induced by means of the electric motor (4.2) on the basis of the external movement of the output drive (4.1).
Plug-in connector for mechanical and electrical connection to a corresponding mating plug-in connector, comprising a housing , a protective conductor bridge and a plug insert, wherein the protective conductor bridge is held on the housing , wherein the protective conductor bridge has at least one connecting region for connection to the plug insert, and the plug insert is held on the at least one connecting region , characterized in that the at least one connecting region is designed with a tubular body , wherein the tubular body has two opposite passage holes and one of the passage holes is designed with an internal thread, and in that the at least one connecting region has fastening means for connecting the protective conductor bridge to the housing , wherein the fastening means are designed as latching means in order to latch with corresponding latching means of the housing .