mhurhangee/ep-ind-claims huggingface dataset:
A method of communication, comprising: determining a quality of a signal from a first access point at a second access point, the second access point serving an access terminal; determining, at the second access point, a handover parameter based on the determined signal quality, wherein the determination of the handover parameter comprises setting the handover parameter to a first value if the determined signal quality is indicative of the second access point being within a defined distance of the first access point; and transmitting the determined handover parameter from the second access point. determining a quality of a signal from a first access point at a second access point, the second access point serving an access terminal; determining, at the second access point, a handover parameter based on the determined signal quality, wherein the determination of the handover parameter comprises setting the handover parameter to a first value if the determined signal quality is indicative of the second access point being within a defined distance of the first access point; and transmitting the determined handover parameter from the second access point.
A method for detecting an anomaly among successive events, wherein the events are related to microservice applications and the method is executed by at least one processor of an apparatus for detecting an anomaly among successive events, the method comprising: logging each new event by producing a pair of an event property and an associated property value; grouping the pairs with the same event properties into a current time series; retrieving, from the current time series, signal features indicative of a change pattern of the property values, contextual features indicative of a context where each of the same event properties has been occurred, and temporal features indicative of a time correlation among the property values, combining the signal features, the contextual features, and the temporal features into a feature vector, checking whether the feature vector of the current time series corresponds to a pre-stored baseline model, the baseline model being obtained based on an unsupervised machine learning algorithm using the feature vectors of multiple past time series comprising the same event properties as the current time series; associating the current time series with the anomaly if there is a lack of correspondence between the feature vector and the baseline model. logging each new event by producing a pair of an event property and an associated property value; grouping the pairs with the same event properties into a current time series; retrieving, from the current time series, signal features indicative of a change pattern of the property values, contextual features indicative of a context where each of the same event properties has been occurred, and temporal features indicative of a time correlation among the property values, combining the signal features, the contextual features, and the temporal features into a feature vector, checking whether the feature vector of the current time series corresponds to a pre-stored baseline model, the baseline model being obtained based on an unsupervised machine learning algorithm using the feature vectors of multiple past time series comprising the same event properties as the current time series; associating the current time series with the anomaly if there is a lack of correspondence between the feature vector and the baseline model.
A printer comprising: an image input unit that receives an image; a first storage unit that stores images; a second storage unit that stores images; and a recording control unit that is arranged and adapted to record a printed image in the first storage unit, and to record the image received by the image input unit in the second storage unit; characterised in that the first storage unit and the second storage unit are arranged and adapted such that the copying of an image from the first storage unit to the second storage unit is permitted, and the copying of an image from the second storage unit to the first storage unit is prohibited. an image input unit that receives an image; a first storage unit that stores images; a second storage unit that stores images; and a recording control unit that is arranged and adapted to record a printed image in the first storage unit, and to record the image received by the image input unit in the second storage unit; characterised in that the first storage unit and the second storage unit are arranged and adapted such that the copying of an image from the first storage unit to the second storage unit is permitted, and the copying of an image from the second storage unit to the first storage unit is prohibited.
Connecting device for media lines, comprising a housing part which, in two parts, comprises an accommodating part, for the plug-in connection of a media line, and a connecting part, for the connection of the housing part to a subassembly or to a further media line, wherein the connecting part consists of metal and is connected to the accommodating part, which consists of plastics material, via a coaxial, rotationally symmetrical plug-in connection with form-fitting latching and with a circumferentially closed linear progression, wherein the connecting part is plugged into a plug-in mount of the accommodating part by way of a plug-in extension, wherein the plug-in extension engages in a form-fitting manner behind a radial undercut surface within the plug-in mount by way of a radially outwardly projecting latching step, characterized in that the accommodating part has an axially projecting annular collar which is coaxial with a plug-in axis of the plug-in connection and, for guidance purposes, engages in a force-fitting manner in a corresponding recess within the connecting part.
A glass article comprising: a base which includes the composition of the glass article, the base has a flat portion; and a Beilby layer is disposed on the top surface of the flat portion, the Beilby layer being a layer which is obtained by polishing the top surface of the glass article; characterized in that the glass article further comprising at least one side portion extending from the flat portion of the base and bent in a thickness direction of the glass article; and at least a part of the side portion is free of the Beilby layer; the glass composition contains SiO 2 which forms the skeleton of glass, wherein the content of SiO 2 in the glass composition equals to or is greater than 50 mol% and equals to or is less than 80 mol%. a base which includes the composition of the glass article, the base has a flat portion; and a Beilby layer is disposed on the top surface of the flat portion, the Beilby layer being a layer which is obtained by polishing the top surface of the glass article; characterized in that the glass article further comprising at least one side portion extending from the flat portion of the base and bent in a thickness direction of the glass article; and at least a part of the side portion is free of the Beilby layer; the glass composition contains SiO 2 which forms the skeleton of glass, wherein the content of SiO 2 in the glass composition equals to or is greater than 50 mol% and equals to or is less than 80 mol%.
Amplifier circuit for amplifying an output signal of a capacitive sensor, comprising: - a first input terminal to receive the output signal of the capacitive sensor, - a second input terminal to receive a bias voltage (Vbias) of the capacitive sensor, - an output terminal (AOUT) to provide an amplified output signal, - an amplifier for amplifying the output signal having an input connection being coupled to the first input terminal to receive the output signal and an output connection coupled to the output terminal (AOUT) to output the amplified output signal, - a feedback loop being arranged between the input connection and the output connection of the amplifier, wherein the feedback loop comprises a control circuit being configured to control a DC voltage level at the input connection of the amplifier, - a bias voltage sensing circuit coupled to the second input terminal to sense a change of the level of the bias voltage (Vbias) at the second input terminal, - characterized in that the bias voltage sensing circuit is configured to change the bandwidth of the feedback loop in dependence on the sensed change of the level of the bias voltage (Vbias) such that the feedback loop is operated with a first value of the bandwidth, if no change of the level of the bias voltage (Vbias) is detected by the voltage sensing circuit, and the feedback loop is operated with a second value of the bandwidth being larger than the first value of the bandwidth, if the change of the level of the bias voltage (Vbias) is detected by the bias voltage sensing circuit. - a first input terminal to receive the output signal of the capacitive sensor, - a second input terminal to receive a bias voltage (Vbias) of the capacitive sensor, - an output terminal (AOUT) to provide an amplified output signal, - an amplifier for amplifying the output signal having an input connection being coupled to the first input terminal to receive the output signal and an output connection coupled to the output terminal (AOUT) to output the amplified output signal, - a feedback loop being arranged between the input connection and the output connection of the amplifier, wherein the feedback loop comprises a control circuit being configured to control a DC voltage level at the input connection of the amplifier, - a bias voltage sensing circuit coupled to the second input terminal to sense a change of the level of the bias voltage (Vbias) at the second input terminal, - characterized in that the bias voltage sensing circuit is configured to change the bandwidth of the feedback loop in dependence on the sensed change of the level of the bias voltage (Vbias) such that the feedback loop is operated with a first value of the bandwidth, if no change of the level of the bias voltage (Vbias) is detected by the voltage sensing circuit, and the feedback loop is operated with a second value of the bandwidth being larger than the first value of the bandwidth, if the change of the level of the bias voltage (Vbias) is detected by the bias voltage sensing circuit.
A data processing method, wherein the method comprises: starting, by a main thread in a first period in response to a received trigger signal, to process a time sequence-dependent task in one or more tasks in the first period; characterized in that the method further comprises: obtaining, by the main thread, a preprocessing result of a time sequence-independent task in the one or more tasks, wherein the preprocessing result is a result obtained by processing the time sequence-independent task in a second period, and the second period is a period before the first period; determining, by the main thread, a processing result of the main thread based on a result of the time sequence-dependent task processed in the first period and the obtained preprocessing result of the time sequence-independent task; and sending, by the main thread, the processing result of the main thread to a render thread; wherein the time sequence-independent task is a task that does not depend on a previous task and whose running result does not affect processing of a subsequent task. starting, by a main thread in a first period in response to a received trigger signal, to process a time sequence-dependent task in one or more tasks in the first period; characterized in that the method further comprises: obtaining, by the main thread, a preprocessing result of a time sequence-independent task in the one or more tasks, wherein the preprocessing result is a result obtained by processing the time sequence-independent task in a second period, and the second period is a period before the first period; determining, by the main thread, a processing result of the main thread based on a result of the time sequence-dependent task processed in the first period and the obtained preprocessing result of the time sequence-independent task; and sending, by the main thread, the processing result of the main thread to a render thread; wherein the time sequence-independent task is a task that does not depend on a previous task and whose running result does not affect processing of a subsequent task. obtaining, by the main thread, a preprocessing result of a time sequence-independent task in the one or more tasks, wherein the preprocessing result is a result obtained by processing the time sequence-independent task in a second period, and the second period is a period before the first period; determining, by the main thread, a processing result of the main thread based on a result of the time sequence-dependent task processed in the first period and the obtained preprocessing result of the time sequence-independent task; and sending, by the main thread, the processing result of the main thread to a render thread; wherein the time sequence-independent task is a task that does not depend on a previous task and whose running result does not affect processing of a subsequent task.
Apparatus for a flat knitting machine for inserting insert parts for a knitted fabric made on the flat knitting machine, comprising a magazine for the insert parts, different types of insert parts being able to be stored in the magazine, and the magazine having a device for separating the insert parts, characterized in that the apparatus also has a gripping device comprising a gripper for receiving insert parts from the magazine.
An arrangement for fault discovery in a Passive Optical Network, PON, comprising - a multistage power splitter (100, 200, 300) comprising a number K of 1:N splitters (120, 221, 222, 321, 322), each of the 1:N splitters having an input and a number N of outputs, said N outputs being connected to first inputs, respectively, of N ∗ K items of 2:M splitters (131, 132, 231-233, 331-336), each of the 2:M splitters (131, 132, 231-233, 331-336) having two inputs and a number M of outputs, wherein N, K and M are integers greater than 1, and wherein K is a number of Optical Line Terminals, OLTs, (160, 260, 361, 362)for connection to said inputs, respectively, of the 1:N splitters, - an Optical Time Domain Reflectometry, OTDR, device (110, 210, 310) capable of inserting an OTDR signal into the power splitter (100, 200, 300), characterized in that the OTDR device (110, 210, 310) is a tuneable or multiwavelength OTDR and is connected to a Wavelength Division Multiplexor, WDM, having one input connected to an output of the OTDR device (110, 210, 310) and N ∗ K outputs connected to second inputs, respectively, of the N ∗ K items of 2:M splitters (131, 132, 231-233, 331-336), whereby the OTDR signal is enabled to be inserted in the power splitter via said second inputs of the 2:M splitters (131, 132, 231-233, 331-336), wherein the OTDR device (110, 210, 310)is further configured to analyse fibre scattering in order to locate a fault in a fibre from the power splitter in a downstream direction. - a multistage power splitter (100, 200, 300) comprising a number K of 1:N splitters (120, 221, 222, 321, 322), each of the 1:N splitters having an input and a number N of outputs, said N outputs being connected to first inputs, respectively, of N ∗ K items of 2:M splitters (131, 132, 231-233, 331-336), each of the 2:M splitters (131, 132, 231-233, 331-336) having two inputs and a number M of outputs, wherein N, K and M are integers greater than 1, and wherein K is a number of Optical Line Terminals, OLTs, (160, 260, 361, 362)for connection to said inputs, respectively, of the 1:N splitters, - an Optical Time Domain Reflectometry, OTDR, device (110, 210, 310) capable of inserting an OTDR signal into the power splitter (100, 200, 300),
A method including the steps: - accessing a context-based adaptive binary arithmetically encoded bitstream (CABAC) including at least a first portion and a second portion, wherein the second portion is decodable to produce a particular result that is based on the first portion as well as the second portion, wherein the first portion comprises a syntax element and the second portion comprises at least one second syntax element, each having a corresponding state variable value; - determining a modified first portion such that the second portion is decodable to produce the same particular result based on the second portion and the modified first portion, wherein the modified first portion modifies said syntax element and does not change state variable values for all decoding of all subsequent syntax elements in the CABAC encoded bitstream; and - transmitting or storing the modified first portion. - accessing a context-based adaptive binary arithmetically encoded bitstream (CABAC) including at least a first portion and a second portion, wherein the second portion is decodable to produce a particular result that is based on the first portion as well as the second portion, wherein the first portion comprises a syntax element and the second portion comprises at least one second syntax element, each having a corresponding state variable value; - determining a modified first portion such that the second portion is decodable to produce the same particular result based on the second portion and the modified first portion, wherein the modified first portion modifies said syntax element and does not change state variable values for all decoding of all subsequent syntax elements in the CABAC encoded bitstream; and - transmitting or storing the modified first portion.
A method of manufacturing an article selected from the group consisting of: thermal insulation materials; mineral wool insulation; wood boards; fiberboards; wood particle boards; chip boards; oriented strand board; medium density fiberboards; high pressure laminates; non-woven materials comprising fibers selected from the group consisting of mineral fibers, slag wool fibers, rock wool fibers, glass fibers, aramid fibers, ceramic fibers, metal fibers, carbon fibers, polyimide fibers, polyester fibers and rayon fibers; the article comprising a collection of matter bound by a polymeric binder, the method comprising the steps: (i) providing the collection of matter, (ii) applying a solution or dispersion of a binder composition to the collection of matter (iii) applying heat to the collection of matter containing said solution or dispersion to cure the binder composition to form the article, characterized in that the binder composition comprises a polymeric product of at least one reducing sugar and at least one amine component, wherein the at least one amine component comprises a branched polyethyleneimine having an average molecular weight in the range of 5000 to 900 000 g/mol, more preferably in the range of 25 000 to 800 000 g/mol. thermal insulation materials; mineral wool insulation; wood boards; fiberboards; wood particle boards; chip boards; oriented strand board; medium density fiberboards; high pressure laminates; non-woven materials comprising fibers selected from the group consisting of mineral fibers, slag wool fibers, rock wool fibers, glass fibers, aramid fibers, ceramic fibers, metal fibers, carbon fibers, polyimide fibers, polyester fibers and rayon fibers; the article comprising a collection of matter bound by a polymeric binder, the method comprising the steps: (i) providing the collection of matter, (ii) applying a solution or dispersion of a binder composition to the collection of matter (iii) applying heat to the collection of matter containing said solution or dispersion to cure the binder composition to form the article, (i) providing the collection of matter, (ii) applying a solution or dispersion of a binder composition to the collection of matter (iii) applying heat to the collection of matter containing said solution or dispersion to cure the binder composition to form the article, characterized in that the binder composition comprises a polymeric product of at least one reducing sugar and at least one amine component, wherein the at least one amine component comprises a branched polyethyleneimine having an average molecular weight in the range of 5000 to 900 000 g/mol, more preferably in the range of 25 000 to 800 000 g/mol.
A computing device comprising: a module interface to couple with a peripheral device; a hot swapping prediction circuit; and a processor coupled to the hot swapping prediction circuit, wherein the hot swapping prediction circuit is to: detect a physical movement of the computing device; and transmit to the processor a hot swapping prediction signal based on the detected physical movement, and wherein the processor is to, in response to receiving the hot swapping prediction signal from the hot swapping prediction circuit, change a parameter of a peripheral device detection operation to be performed by an operating system of the computing device. a module interface to couple with a peripheral device; a hot swapping prediction circuit; and a processor coupled to the hot swapping prediction circuit, wherein the hot swapping prediction circuit is to: detect a physical movement of the computing device; and transmit to the processor a hot swapping prediction signal based on the detected physical movement, and wherein the processor is to, in response to receiving the hot swapping prediction signal from the hot swapping prediction circuit, change a parameter of a peripheral device detection operation to be performed by an operating system of the computing device. wherein the hot swapping prediction circuit is to: detect a physical movement of the computing device; and transmit to the processor a hot swapping prediction signal based on the detected physical movement, and detect a physical movement of the computing device; and transmit to the processor a hot swapping prediction signal based on the detected physical movement, and wherein the processor is to, in response to receiving the hot swapping prediction signal from the hot swapping prediction circuit, change a parameter of a peripheral device detection operation to be performed by an operating system of the computing device.