mhurhangee/ep-ind-claims huggingface dataset:
A connector for releasably connecting with a mating connector, comprising: a connector body; a first sleeve rotatably coupled to said connector body and including means for connecting with the mating connector; a second sleeve receiving said first sleeve and being movable axially between an engaged position and a disengaged position, said second sleeve having a plurality of teeth extending from a surface thereof; a ratchet ring positioned on said connector body, said ratchet ring having a plurality of teeth corresponding to said plurality of teeth of said second sleeve; and a biasing member biasing said second sleeve to said engaged position, wherein said teeth of said ratchet ring engage said teeth of said second sleeve when said second sleeve is in said engaged position such that said first and second sleeves (9, 8) are not rotatable with respect to said connector body in one rotational direction and said first and second sleeves (9, 8) are rotatable with respect to said connector body in an opposite rotational direction, and said teeth of the second sleeve being spaced from said teeth of said ratchet ring when said second sleeve is in said disengaged position such that said first and second sleeves (9, 8) are rotatable with respect to said connector body and the mating connector in both rotational directions. a connector body; a first sleeve rotatably coupled to said connector body and including means for connecting with the mating connector; a second sleeve receiving said first sleeve and being movable axially between an engaged position and a disengaged position, said second sleeve having a plurality of teeth extending from a surface thereof; a ratchet ring positioned on said connector body, said ratchet ring having a plurality of teeth corresponding to said plurality of teeth of said second sleeve; and a biasing member biasing said second sleeve to said engaged position, wherein said teeth of said ratchet ring engage said teeth of said second sleeve when said second sleeve is in said engaged position such that said first and second sleeves (9, 8) are not rotatable with respect to said connector body in one rotational direction and said first and second sleeves (9, 8) are rotatable with respect to said connector body in an opposite rotational direction, and said teeth of the second sleeve being spaced from said teeth of said ratchet ring when said second sleeve is in said disengaged position such that said first and second sleeves (9, 8) are rotatable with respect to said connector body and the mating connector in both rotational directions.
A method for calculating a label switching path LSP, comprising: acquiring layer domain information of all nodes in an autonomous system where a source node in a network is located, wherein the layer domain information of each node comprises information of a layer rank of the node and information of a domain value of the node; wherein in the network, each node has a layer rank and at least one domain value; wherein nodes in one network layer have a same layer rank, and a node in a low level of the network layer has a higher layer rank than that in a high level of the network layer; wherein nodes in one network physical coverage area have a same domain value, and nodes in different network physical coverage areas have different domain values; and when a destination node and the source node are in a same autonomous system, calculating a LSP from the source node to the destination node based on the layer domain information of the each node, to create the LSP based on the calculated LSP, wherein the calculating the LSP from the source node to the destination node comprises: when there is a first kind of path or a second kind of path in the process of the calculation of the LSP, prioritizing to exclude the first kind of path or the second kind of path, wherein layer ranks of nodes in the first kind of path are from high to low, and then from low to high, and layer ranks of nodes in the second kind of path are from low to high, and then from high to low; when a currently calculated node is located in an overlapping area of multiple network physical coverage areas in the process of the calculation of the LSP, prioritizing to determine a node in a network physical coverage area where a path of a previous process of the calculation does not go through, as a next hop node of the currently calculated node. acquiring layer domain information of all nodes in an autonomous system where a source node in a network is located, wherein the layer domain information of each node comprises information of a layer rank of the node and information of a domain value of the node; wherein in the network, each node has a layer rank and at least one domain value; wherein nodes in one network layer have a same layer rank, and a node in a low level of the network layer has a higher layer rank than that in a high level of the network layer; wherein nodes in one network physical coverage area have a same domain value, and nodes in different network physical coverage areas have different domain values; and when a destination node and the source node are in a same autonomous system,
A computer-implemented method of providing malicious software, malware, definitions to clients, comprising: receiving, at a computer processor, telemetry data from a plurality of clients, the telemetry data describing files created on the clients; analyzing, by the computer processor, the telemetry data to identify malware that is currently spreading among the plurality of clients, the analyzing comprising: determining a size of a malware definition in a set of malware definitions; and considering the size of the malware definition in a determination of whether malware associated with the malware definition is currently spreading; segmenting, by the computer processor, the set of malware definitions into a set of local malware definitions responsive to the analysis of the telemetry data, the set of local malware definitions including malware definitions for the malware identified as currently spreading among the plurality of clients; and providing, by the computer processor, the set of local malware definitions to the plurality of clients, wherein the plurality of clients are adapted to store the local malware definitions and use the set of local malware definitions to detect malware at the clients. receiving, at a computer processor, telemetry data from a plurality of clients, the telemetry data describing files created on the clients; analyzing, by the computer processor, the telemetry data to identify malware that is currently spreading among the plurality of clients, the analyzing comprising: determining a size of a malware definition in a set of malware definitions; and considering the size of the malware definition in a determination of whether malware associated with the malware definition is currently spreading; segmenting, by the computer processor, the set of malware definitions into a set of local malware definitions responsive to the analysis of the telemetry data, the set of local malware definitions including malware definitions for the malware identified as currently spreading among the plurality of clients; and providing, by the computer processor, the set of local malware definitions to the plurality of clients, wherein the plurality of clients are adapted to store the local malware definitions and use the set of local malware definitions to detect malware at the clients. determining a size of a malware definition in a set of malware definitions; and considering the size of the malware definition in a determination of whether malware associated with the malware definition is currently spreading; segmenting, by the computer processor, the set of malware definitions into a set of local malware definitions responsive to the analysis of the telemetry data, the set of local malware definitions including malware definitions for the malware identified as currently spreading among the plurality of clients; and providing, by the computer processor, the set of local malware definitions to the plurality of clients, wherein the plurality of clients are adapted to store the local malware definitions and use the set of local malware definitions to detect malware at the clients.
A method for caption transmission for telepresence in a telepresence system including multiple terminals binding multiple displays and multiple cameras, comprising: acquiring, by a multi-point control server connected to the telepresence system through a transport network, - an entire caption content entered by a user on a control device (61, 701, 131, 1001) wherein the entire caption content includes the caption content to be displayed on multiple displays for multi-screen processing of captions in the telepresence system, and - attribute information corresponding to the caption content, wherein the attribute information is set by the user on the control device and includes display features of a caption including specifying a dynamic mode, indicating that the entire caption content is rolling to the left across the multiple displays; determining, by the multi-point control server, caption content to be displayed on each display of the telepresence system by segmenting the entire caption content and a dynamic display timing, according to the entire caption content and the attribute information; and transmitting, by the multi-point control server, the determined caption content to each corresponding display according to the dynamic display timing so that each display superposes the determined caption content to a corresponding image according to the display timing, so that the entire caption content is rolling to the left across the multiple displays. acquiring, by a multi-point control server connected to the telepresence system through a transport network, - an entire caption content entered by a user on a control device (61, 701, 131, 1001) wherein the entire caption content includes the caption content to be displayed on multiple displays for multi-screen processing of captions in the telepresence system, and - attribute information corresponding to the caption content, - an entire caption content entered by a user on a control device (61, 701, 131, 1001) wherein the entire caption content includes the caption content to be displayed on multiple displays for multi-screen processing of captions in the telepresence system, and - attribute information corresponding to the caption content, wherein the attribute information is set by the user on the control device and includes display features of a caption including specifying a dynamic mode, indicating that the entire caption content is rolling to the left across the multiple displays; determining, by the multi-point control server, caption content to be displayed on each display of the telepresence system by segmenting the entire caption content and a dynamic display timing, according to the entire caption content and the attribute information; and transmitting, by the multi-point control server, the determined caption content to each corresponding display according to the dynamic display timing so that each display superposes the determined caption content to a corresponding image according to the display timing, so that the entire caption content is rolling to the left across the multiple displays.
A method of data reading by use of a multi-core processor, the method comprising the steps of: Determining, by a core (201-1, 201-n) of a multi-core processor to execute a data read operation, based upon a memory address of data to be read, whether the core is responsible for caching the data; in response to a determination that the core is responsible for caching the data, reading the data from a local cache of the core; and in response to a determination that the core is not responsible for caching the data, sending a data read request to a remote core of the multi-core processor responsible for caching the data and receiving data returned by the remote core, wherein the multi-core processor comprises a plurality of cores (201-1, 201-n), the plurality of cores corresponding to respective local caches, a local cache of a core of the plurality of cores responsible for caching data in a different range of addresses in a memory space and a core of the plurality of cores accessing data in a local cache of another core of the plurality of cores via an interconnect bus wherein the step of determining whether the core is responsible for caching the data comprises: computing, based upon the memory address of the data and according to a pre-determined policy for dividing the memory space into corresponding addresses for caching, a labeling number of a core responsible for caching the data; and determining that the core is responsible for caching the data if the computed labeling number is the same as a labeling number of the core. Determining, by a core (201-1, 201-n) of a multi-core processor to execute a data read operation, based upon a memory address of data to be read, whether the core is responsible for caching the data; in response to a determination that the core is responsible for caching the data, reading the data from a local cache of the core; and in response to a determination that the core is not responsible for caching the data, sending a data read request to a remote core of the multi-core processor responsible for caching the data and receiving data returned by the remote core, wherein the multi-core processor comprises a plurality of cores (201-1, 201-n), the plurality of cores corresponding to respective local caches, a local cache of a core of the plurality of cores responsible for caching data in a different range of addresses in a memory space and a core of the plurality of cores accessing data in a local cache of another core of the plurality of cores via an interconnect bus computing, based upon the memory address of the data and according to a pre-determined policy for dividing the memory space into corresponding addresses for caching, a labeling number of a core responsible for caching the data; and determining that the core is responsible for caching the data if the computed labeling number is the same as a labeling number of the core.
A method to operate a system, whereby the system is composed of an apparatus to treat a fluid and a handheld device, wherein - the apparatus has a communication unit with a radio antenna and the handheld device has a communication unit with a radio antenna and both communication units can exchange data with each other by means of radio communication and - the apparatus has a control unit, which can detect at least one status parameter of the apparatus and generate a signal which is dependent on the status parameter and can transfer it via the communication unit of the apparatus to the communication unit of the handheld device, wherein the method comprises the following steps: the control unit detects a status parameter of the apparatus and generates a signal dependent on the status parameter and transmits the signal to the communication unit of the handheld device via the communication unit of the apparatus, whereby the handheld device after receiving the signal via the radio antenna of the communication unit of the handheld device generates a response signal which it transfers to the communication unit of the apparatus via the communication unit of the handheld device, characterized in that the response signal is transmitted from the communication unit of the apparatus to the control unit of the apparatus and the control unit of the apparatus places a positioning element of the apparatus depending on the response signal. - the apparatus has a communication unit with a radio antenna and the handheld device has a communication unit with a radio antenna and both communication units can exchange data with each other by means of radio communication and - the apparatus has a control unit, which can detect at least one status parameter of the apparatus and generate a signal which is dependent on the status parameter and can transfer it via the communication unit of the apparatus to the communication unit of the handheld device, the control unit detects a status parameter of the apparatus and generates a signal dependent on the status parameter and transmits the signal to the communication unit of the handheld device via the communication unit of the apparatus, whereby the handheld device after receiving the signal via the radio antenna of the communication unit of the handheld device generates a response signal which it transfers to the communication unit of the apparatus via the communication unit of the handheld device, characterized in that the response signal is transmitted from the communication unit of the apparatus to the control unit of the apparatus and the control unit of the apparatus places a positioning element of the apparatus depending on the response signal.
A lubricating oil composition comprising a base oil, a thiophosphate compound represented by the following general formula, wherein R 1, R 2 and R 3 each independently represent an aryl group having 6 to 12 ring carbon atoms, and the aryl group may be substituted with an alkyl group having 1 to 3 carbon atoms, a molybdenum-based compound, and a sulfur-based compound containing 2 or more sulfur atoms in the molecule and not containing a phosphorous atom, which compound is an alkylenebisdialkyl dithiocarbamate, wherein the content of the component in terms of molybdenum atom is 150 ppm by mass or more and 3,000 ppm by mass or less based on the total amount of the lubricating oil composition, the content of the component is 0.1% by mass or more and 1.0% by mass or less based on the total amount of the lubricating oil composition, the content of the component is 0.01% by mass or more and 1% by mass or less based on the total amount of the lubricating oil composition, and the molybdenum-based compound is selected from molybdenum carbamate, molybdenum dicarbamate, molybdenum dithiophosphate (MoDTP), and molybdenum dithiocarbamate (MoDTC). a molybdenum-based compound, and a sulfur-based compound containing 2 or more sulfur atoms in the molecule and not containing a phosphorous atom, which compound is an alkylenebisdialkyl dithiocarbamate, wherein the content of the component in terms of molybdenum atom is 150 ppm by mass or more and 3,000 ppm by mass or less based on the total amount of the lubricating oil composition, the content of the component is 0.1% by mass or more and 1.0% by mass or less based on the total amount of the lubricating oil composition, the content of the component is 0.01% by mass or more and 1% by mass or less based on the total amount of the lubricating oil composition, and the molybdenum-based compound is selected from molybdenum carbamate, molybdenum dicarbamate, molybdenum dithiophosphate (MoDTP), and molybdenum dithiocarbamate (MoDTC). the content of the component in terms of molybdenum atom is 150 ppm by mass or more and 3,000 ppm by mass or less based on the total amount of the lubricating oil composition, the content of the component is 0.1% by mass or more and 1.0% by mass or less based on the total amount of the lubricating oil composition, the content of the component is 0.01% by mass or more and 1% by mass or less based on the total amount of the lubricating oil composition, and the molybdenum-based compound is selected from molybdenum carbamate, molybdenum dicarbamate, molybdenum dithiophosphate (MoDTP), and molybdenum dithiocarbamate (MoDTC).
A volume-controlled four-stroke reciprocating internal combustion engine having a first cylinder in which a first piston which is operatively connected to a crankshaft by a first connecting rod is arranged to be displaceable in a reciprocating motion, and at least one second cylinder in which a second piston which is operatively connected to the crankshaft by a second connecting rod is arranged to be displaceable in a reciprocating motion, and having a fresh air tract for the second cylinder, in which an expansion/compression machine is arranged upstream of a gas exchange inlet valve of the second cylinder in the direction of flow of fresh air and having an exhaust tract for the second cylinder, wherein the expansion/compression machine is the first cylinder, characterised in that a heat exchanger can be arranged on the exhaust tract, and before the fresh air flows through the expansion/compression machine, it can be heated in the heat exchanger by the exhaust gas of the internal combustion engine, wherein - the gas exchange inlet side and the gas exchange outlet side (2") of the first cylinder are interchangeable and - the fresh air tract between the intake air temperature regulator and the gas exchange outlet side (2") can be separated by a second actuating element and - the fresh air tract can be connected by a first actuating element to the gas exchange inlet side of the first and second cylinders (2, 3) and - the gas exchange outlet side (2") of the first cylinder can be connected by a third actuating element to the exhaust tract upstream of the heat exchanger and - the first cylinder is operable in a four-stroke operation. - the gas exchange inlet side and the gas exchange outlet side (2") of the first cylinder are interchangeable and - the fresh air tract between the intake air temperature regulator and the gas exchange outlet side (2") can be separated by a second actuating element and - the fresh air tract can be connected by a first actuating element to the gas exchange inlet side of the first and second cylinders (2, 3) and - the gas exchange outlet side (2") of the first cylinder can be connected by a third actuating element to the exhaust tract upstream of the heat exchanger and - the first cylinder is operable in a four-stroke operation.
Process for making transferrable decorations, such process providing for the following operative steps: - a step for arranging a flexible sheet-like medium, provided with a first face; - a step for feeding a printer with said sheet-like medium; - a step for printing, on said sheet-like medium, at least one graphic element provided with a border thereof, in such printing step said printer deposits at least one ink layer on the first face of said sheet-like medium in order to make said graphic element, such ink layer covers a corresponding print area delimited by a first edge which defines the border of said graphic element; - a step for making at least one adhesive surface aligned with the border of said graphic element, such adhesive surface is extended on said print area above said ink layer and is delimited by a second edge substantially coinciding with the first edge of said print area; said process being characterized in that said step for making said adhesive surface comprises a stage for alignment printing of at least one first glue layer, and in such stage, said printer supplies said first glue layer perimetrically delimited by said second edge on said print area and above said ink layer. - a step for arranging a flexible sheet-like medium, provided with a first face; - a step for feeding a printer with said sheet-like medium; - a step for printing, on said sheet-like medium, at least one graphic element provided with a border thereof, in such printing step said printer deposits at least one ink layer on the first face of said sheet-like medium in order to make said graphic element, such ink layer covers a corresponding print area delimited by a first edge which defines the border of said graphic element; - a step for making at least one adhesive surface aligned with the border of said graphic element, such adhesive surface is extended on said print area above said ink layer and is delimited by a second edge substantially coinciding with the first edge of said print area;