mhurhangee/patent-ind-claim-en huggingface dataset:
A method for operating a soil processing machine, wherein the soil processing machine comprises two roller units arranged at a distance from one another in a machine longitudinal direction (L), wherein each of the two roller units is rotatable around a roller axis of rotation (W H , W v ), wherein the two roller units are pivotable with respect to one another in order to steer the soil processing machine , wherein in a straight-ahead steering state corresponding to a steering state of the soil processing machine with a minimum extent of steering (L min ), the roller axes of rotation (W H , W V ) of the two roller units are oriented essentially in parallel to one another, and in a cornering steering state corresponding to a steering state of the soil processing machine having an extent of steering differing from the minimum extent of steering (L min ), the roller axes of rotation (W H , W V ) of the two roller units have an orientation with respect to one another that deviates from a parallel orientation, wherein the method comprises the following measure: b) detecting an actual extent of steering of the soil processing machine , characterized in that the method further comprises the following measures: a) providing an extent of steering-driving speed relationship (K) reflecting a maximum permissible driving speed as a function of the extent of steering (L), c) setting a driving speed (V) of the soil processing machine in such a way that the driving speed (V) does not exceed the maximum permissible driving speed assigned to the actual extent of steering detected in measure b) in accordance with the extent of steering-driving speed relationship (K) provided in measure a). a) providing an extent of steering-driving speed relationship (K) reflecting a maximum permissible driving speed as a function of the extent of steering (L), c) setting a driving speed (V) of the soil processing machine in such a way that the driving speed (V) does not exceed the maximum permissible driving speed assigned to the actual extent of steering detected in measure b) in accordance with the extent of steering-driving speed relationship (K) provided in measure a).
An elevator system comprising: a camera capable of imaging a particular range in a direction from a vicinity of a door of a car to a hall when the car arrives at the hall; a passenger detection module which detects an assembly of blocks representing movement within a specific area by image comparison using a plurality of time-series continuous images which are captured by the camera, extracts a block representing movement which is closest to the door from the assembly of detected blocks representing movement, and detects presence or absence of a passenger who intends to get into the car by following a coordinate of the extracted block representing movement in a direction from the door to the hall , the direction being perpendicular to the door ; and a controller which controls an opening/closing operation of the door based on a detection result of the passenger detection module, a width of the area being set greater than at least a width of the door. a camera capable of imaging a particular range in a direction from a vicinity of a door of a car to a hall when the car arrives at the hall; a passenger detection module which detects an assembly of blocks representing movement within a specific area by image comparison using a plurality of time-series continuous images which are captured by the camera, extracts a block representing movement which is closest to the door from the assembly of detected blocks representing movement, and detects presence or absence of a passenger who intends to get into the car by following a coordinate of the extracted block representing movement in a direction from the door to the hall , the direction being perpendicular to the door ; and a controller which controls an opening/closing operation of the door based on a detection result of the passenger detection module, a width of the area being set greater than at least a width of the door.
A coaxial cartridge for multi-component materials (M, M'), the coaxial cartridge comprising: - a head part having an outlet , - an inner tube having a space present therein, the space forming a first storage compartment configured to store a first component (M), wherein part of the inner tube forms part of the outlet , and - an outer tube , wherein the inner tube is arranged within the outer tube at a longitudinal axis (A) of the coaxial cartridge , with the longitudinal axis (A) being common to both the inner tube and the outer tube ; and wherein a space formed between the outer tube and the inner tube forms a second storage compartment configured to store a second component (M'), and wherein part of the outer tube forms a further part of the outlet , wherein the inner tube is connected to the outer tube at first and second points of connection respectively present at the head part , with the first and second points of connection being arranged at different positions at the head part , with the different positions being arranged spaced apart at different distances from the longitudinal axis (A), and wherein the first point of connection is formed at the outlet , characterized in that the second point of connection is formed by a plug element provided at the inner tube that cooperates with a plug receiving element , provided at the outer tube . - a head part having an outlet , - an inner tube having a space present therein, the space forming a first storage compartment configured to store a first component (M), wherein part of the inner tube forms part of the outlet , and - an outer tube , wherein the inner tube is arranged within the outer tube at a longitudinal axis (A) of the coaxial cartridge , with the longitudinal axis (A) being common to both the inner tube and the outer tube ; and wherein a space formed between the outer tube and the inner tube forms a second storage compartment configured to store a second component (M'), and wherein part of the outer tube forms a further part of the outlet , wherein the inner tube is connected to the outer tube at first and second points of connection respectively present at the head part , with the first and second points of connection being arranged at different positions at the head part , with the different positions being arranged spaced apart at different distances from the longitudinal axis (A), and wherein the first point of connection is formed at the outlet ,
A method implemented by a network device acting as a border gateway protocol, BGP, speaker, of exposing a maximum segment identifier depth, MSD, value of the network device, the method comprising: encoding the MSD value into a BGP Link State, BGP-LS, extension message, wherein the BGP-LS extension message includes a type, a length and a MSD value, and wherein the type indicates the type of the MSD value, the length indicates the length of the MSD value and the MSD value indicates a lowest MSD value for each link of the network device for enabling segment routing; and transmitting the BGP-LS extension message including the type, the length, and the MSD value to a network controller, wherein the MSD value is suitable for use by the network controller to compute a segment routing path including the network device. encoding the MSD value into a BGP Link State, BGP-LS, extension message, wherein the BGP-LS extension message includes a type, a length and a MSD value, and wherein the type indicates the type of the MSD value, the length indicates the length of the MSD value and the MSD value indicates a lowest MSD value for each link of the network device for enabling segment routing; and transmitting the BGP-LS extension message including the type, the length, and the MSD value to a network controller, wherein the MSD value is suitable for use by the network controller to compute a segment routing path including the network device.
An anti-human PD-1 antibody, wherein the antibody comprises (i) a V H chain comprising three CDRs; and (ii) a V L chain comprising three CDRs, wherein: V H CDR#1 is GYTFTHYGMN (SEQ ID NO:11); V H CDR#2 is WVNTYTGEPTYADDFKG (SEQ ID NO:12); V H CDR#3 is EGEGLGFGD (SEQ ID NO:13); V L CDR#1 is RSSQSIVHSHGDTYLE (SEQ ID NO:14); V L CDR#2 is KVSNRFS (SEQ ID NO:15); and V L CDR#3 is FQGSHIPVT (SEQ ID NO:16). V H CDR#1 is GYTFTHYGMN (SEQ ID NO:11); V H CDR#2 is WVNTYTGEPTYADDFKG (SEQ ID NO:12); V H CDR#3 is EGEGLGFGD (SEQ ID NO:13); V L CDR#1 is RSSQSIVHSHGDTYLE (SEQ ID NO:14); V L CDR#2 is KVSNRFS (SEQ ID NO:15); and V L CDR#3 is FQGSHIPVT (SEQ ID NO:16).
A method operational in a system for facilitating a dual active handover, comprising: establishing a first connection between a user equipment device and a first access node for communication services via a first network; determining , by the first access node, to handover the communication services for the user equipment device to a second access node; obtaining , at the user equipment device, an indication from the first access node that a handover to the second access node is to occur; establishing a concurrent second connection between the user equipment device and the second access node for communication services, via the first network or a second network, while the first connection remains established; continuing to receive, at the first access node, packets intended for the user equipment device even after the handover has started; bicasting packets from the first access node to both the user equipment device and the second access node during the handover, while the user equipment is concurrently also receiving packets from the second access node over the second connection; receiving , at the user equipment device, packets over both the first connection and the second connection during handover; reordering , at the user equipment device, the packets and delete duplicate packets received during handover; receiving, at the user equipment device, a handover completed indication from the first access node, wherein the handover completed indication includes a radio resource control release; and terminating , by the user equipment device, the first connection once the handover is completed. establishing a first connection between a user equipment device and a first access node for communication services via a first network; determining , by the first access node, to handover the communication services for the user equipment device to a second access node; obtaining , at the user equipment device, an indication from the first access node that a handover to the second access node is to occur; establishing a concurrent second connection between the user equipment device and the second access node for communication services, via the first network or a second network, while the first connection remains established; continuing to receive, at the first access node, packets intended for the user equipment device even after the handover has started; bicasting packets from the first access node to both the user equipment device and the second access node during the handover, while the user equipment is concurrently also receiving packets from the second access node over the second connection; receiving , at the user equipment device, packets over both the first connection and the second connection during handover; reordering , at the user equipment device, the packets and delete duplicate packets received during handover; receiving, at the user equipment device, a handover completed indication from the first access node, wherein the handover completed indication includes a radio resource control release; and terminating , by the user equipment device, the first connection once the handover is completed.
A rotary actuator , comprising: a housing ; a rotatable vane assembly mounted within the housing to define first and second chambers , the first chamber comprising a first limit surface defining a boundary of the first chamber and the second chamber comprising a second limit surface defining a boundary of the second chamber , wherein the rotatable vane assembly is rotatable between first and second positions, and wherein in the first position the rotatable vane assembly engages the first limit surface and in the second position the rotatable vane assembly engages the second limit surface ; a first fluid port provided on the first limit surface and in communication with the first chamber to permit an actuation fluid to be delivered to/from the first chamber ; a second fluid port provided on the second limit surface in communication with the second chamber to permit actuation fluid to be delivered to/from the second chamber ; and a static seal member mounted on one of the rotatable vane assembly and the second limit surface for sealing the second fluid port when the vane assembly is located in the second position. a housing ; a rotatable vane assembly mounted within the housing to define first and second chambers , the first chamber comprising a first limit surface defining a boundary of the first chamber and the second chamber comprising a second limit surface defining a boundary of the second chamber , wherein the rotatable vane assembly is rotatable between first and second positions, and wherein in the first position the rotatable vane assembly engages the first limit surface and in the second position the rotatable vane assembly engages the second limit surface ; a first fluid port provided on the first limit surface and in communication with the first chamber to permit an actuation fluid to be delivered to/from the first chamber ; a second fluid port provided on the second limit surface in communication with the second chamber to permit actuation fluid to be delivered to/from the second chamber ; and a static seal member mounted on one of the rotatable vane assembly and the second limit surface for sealing the second fluid port when the vane assembly is located in the second position.
A cartridge for a microfluidic delivery system , the cartridge having a longitudinal axis (A) and comprising: a reservoir for containing a fluid composition; a nozzle operatively connected with the reservoir , wherein the nozzle is in fluid communication with the reservoir for releasing the fluid composition; an outer cover operatively connected with the reservoir , the outer cover comprising an orifice that is adjacent to the nozzle , characterized in that an air flow path is formed by a gap between the reservoir and the outer cover . a reservoir for containing a fluid composition; a nozzle operatively connected with the reservoir , wherein the nozzle is in fluid communication with the reservoir for releasing the fluid composition; an outer cover operatively connected with the reservoir , the outer cover comprising an orifice that is adjacent to the nozzle , characterized in that an air flow path is formed by a gap between the reservoir and the outer cover .
A pole cap for the pressure-tight closure of a pressure vessel , wherein the pole cap comprises an inner face for the future closure of the pressure vessel , an outer face for winding of a fiber composite material thereon after closure of the pressure vessel and a neck-shaped open duct which protrudes outward from the outer face and has an inner contour , each made of plastic material, and comprises a pressure port element connected to the duct for the closure of the duct , wherein the pressure port element comprises a seal cone made of metal with a first section protruding outward through the duct and with a second section tapering at least in the area of the duct in a cone-shaped manner in the direction of the first section , which is held in the inner contour by a fixing means arranged on the first section from the outside in a pressure-tight press fit, wherein the inner contour tapers outward along the duct at least in an area of the duct in a cone-shaped manner, wherein the cone-shaped inner contour is adapted accurately to the cone-shaped second section ; characterized in that the cone-shaped inner contour of the duct extends from the inner face to the neck end on the outer face .
Apparatus adapted to generate an object notation file comprising: a data handler having a first input configured to receive object data and a first output configured to output an object notation key-value pair for the object data; a string processor with a second input coupled to the first output and a second output configured to convey the object notation key-value pair without string literals; and a hashing and encryption handler with a third input coupled to the second output and a third output configured to convey: the key-value pair signed with a private key, the key-value pair encrypted with a public key, an indication that the encrypted key-value pair is encrypted in the key of the key-value pair, the encrypted key-value pair with a hash value of the encrypted key-value pair inserted in the key, and in the key an indication that the encrypted key-value pair is hashed. a data handler having a first input configured to receive object data and a first output configured to output an object notation key-value pair for the object data; a string processor with a second input coupled to the first output and a second output configured to convey the object notation key-value pair without string literals; and a hashing and encryption handler with a third input coupled to the second output and a third output configured to convey: the key-value pair signed with a private key, the key-value pair encrypted with a public key, an indication that the encrypted key-value pair is encrypted in the key of the key-value pair, the encrypted key-value pair with a hash value of the encrypted key-value pair inserted in the key, and in the key an indication that the encrypted key-value pair is hashed. the key-value pair signed with a private key, the key-value pair encrypted with a public key, an indication that the encrypted key-value pair is encrypted in the key of the key-value pair, the encrypted key-value pair with a hash value of the encrypted key-value pair inserted in the key, and in the key an indication that the encrypted key-value pair is hashed.
Method for limiting the maximum pressure of an air compressor, which comprises a reciprocating-piston compressor , of a breakdown assistance apparatus for tyres of motor vehicles, wherein the reciprocating-piston compressor is driven by electric motor means via a slider-crank mechanism, wherein the change in the rotational speed of the electric motor which drives the reciprocating-piston compressor, which change is dependent on the change in the pressure at the outlet of the reciprocating-piston compressor, is ascertained, and is provided as a pressure-proportional variable for the operation of the reciprocating-piston compressor to a control device in the form of an input variable, wherein the air compressor is deactivated by means of its control device in a manner dependent on a threshold value, which is preset for different tyre types and which is representative of a maximum pressure, for the rotational speed of the electric motor which drives the reciprocating-piston compressor.
A computer-implemented method of processing a signal representing a physiological rhythm of a subject , the physiological rhythm having a period characteristic (T, t i ), the method comprising: receiving the signal ; estimating a first group of period characteristic (T, t i ) estimations based on the signal ; generating a prior probability (P(θ)) for the period characteristic (T, t i ) based on at least a subset of the first group of period characteristic (T, t i ) estimations; estimating a second group of period characteristic (T, t i ) estimations based on the first group and the prior probability (P(θ)); characterized by determining a spectral likelihood (f S ) of at least part of the signal , wherein the spectral likelihood (f S ) is representative of a likelihood that the first group of period characteristic (T, t i ) estimations corresponding to the at least part of the signal represents the period characteristic (T, t i ) of the physiological rhythm, wherein estimating the second group of period characteristic (T, t i ) estimations is based on the spectral likelihood (f S ) of the signal ; defining a localization point in the physiological rhythm, wherein the localization point characterizes a phase in a period of the physiological rhythm; determining a temporal likelihood (f T ) of the signal corresponding to the period, wherein the temporal likelihood (f T ) is representative of a likelihood that the signal represents the localization point; estimating the localization point based on the spectral likelihood (f S ), the temporal likelihood (f T ), and the prior probability (P(θ)). receiving the signal ; estimating a first group of period characteristic (T, t i ) estimations based on the signal ; generating a prior probability (P(θ)) for the period characteristic (T, t i ) based on at least a subset of the first group of period characteristic (T, t i ) estimations; estimating a second group of period characteristic (T, t i ) estimations based on the first group and the prior probability (P(θ)); characterized by determining a spectral likelihood (f S ) of at least part of the signal , wherein the spectral likelihood (f S ) is representative of a likelihood that the first group of period characteristic (T, t i ) estimations corresponding to the at least part of the signal represents the period characteristic (T, t i ) of the physiological rhythm, wherein estimating the second group of period characteristic (T, t i ) estimations is based on the spectral likelihood (f S ) of the signal ; defining a localization point in the physiological rhythm, wherein the localization point characterizes a phase in a period of the physiological rhythm; determining a temporal likelihood (f T ) of the signal corresponding to the period, wherein the temporal likelihood (f T ) is representative of a likelihood that the signal represents the localization point; estimating the localization point based on the spectral likelihood (f S ), the temporal likelihood (f T ), and the prior probability (P(θ)).
A communication method, comprising: receiving , by a user plane function entity, UP, a second usage reporting rule, URR, from a control plane function entity, CP, wherein the second URR comprises an identifier, ID, of a first URR, received from the CP, correlated with the second URR; when usage information on the UP reaches a threshold of the first URR, obtaining , by the UP, usage information corresponding to the first URR and usage information corresponding to the second URR; and sending , by the UP to the CP, the usage information corresponding to the first URR and the usage information corresponding to the second URR. receiving , by a user plane function entity, UP, a second usage reporting rule, URR, from a control plane function entity, CP, wherein the second URR comprises an identifier, ID, of a first URR, received from the CP, correlated with the second URR; when usage information on the UP reaches a threshold of the first URR, obtaining , by the UP, usage information corresponding to the first URR and usage information corresponding to the second URR; and sending , by the UP to the CP, the usage information corresponding to the first URR and the usage information corresponding to the second URR.