mhurhangee/patent-ind-claim-en huggingface dataset:
An automatic failure recovery system that, using machine learning, is configured to create an operation procedure for recovering from a network failure or to correct the created operation procedure, the automatic failure recovery system comprising: recovery execution means having a plurality of recovery tasks for recovering from the network failure; parameter creation means for outputting failure data indicating network configuration information and failure information acquired upon occurrence of the network failure; learning means for selecting an execution procedure of the recovery tasks, based on the failure data and a recovery model acquired in advance; procedure execution means for executing the selected execution procedure when the network failure occurs; success determination means for determining whether or not recovery from the network failure was achieved by the execution procedure; and procedure correction means for notifying the learning means that the procedure is to be corrected, depending upon the result of the determination and a recovery level of the network failure, wherein, if the network is not capable of communication, the success determination means is configured to notify the procedure correction means that an execution procedure that is next most probable, with respect to the execution procedure, is to be executed, the procedure correction means is configured to select the execution procedure that is next most probable, with respect to the execution procedure, and the procedure execution means is configured to execute the execution procedure selected by the procedure correction means . recovery execution means having a plurality of recovery tasks for recovering from the network failure; parameter creation means for outputting failure data indicating network configuration information and failure information acquired upon occurrence of the network failure; learning means for selecting an execution procedure of the recovery tasks, based on the failure data and a recovery model acquired in advance; procedure execution means for executing the selected execution procedure when the network failure occurs; success determination means for determining whether or not recovery from the network failure was achieved by the execution procedure; and procedure correction means for notifying the learning means that the procedure is to be corrected, depending upon the result of the determination and a recovery level of the network failure, wherein, if the network is not capable of communication, the success determination means is configured to notify the procedure correction means that an execution procedure that is next most probable, with respect to the execution procedure, is to be executed, the procedure correction means is configured to select the execution procedure that is next most probable, with respect to the execution procedure, and the procedure execution means is configured to execute the execution procedure selected by the procedure correction means .
A strapping device comprising: - a frame defining a supporting area on which a strap being processed can be placed, - a tensioning assembly suitable to lock and tension, on command, at least part of said strap and comprising at least one rocker , - a welding assembly suitable for joining, on command, at least two edges of said strap, and - at least a second drive member suitable to actuate at least part of said tensioning assembly , - said rocker defining a main axis and comprising at least one tensioning wheel defining its own tensioning axis , which can be rotated around said tensioning axis and integrally with said rocker around said main axis with respect to said frame , - said strapping device further comprising at least a first drive mechanism operatively connected to at least said second drive member and including at least a first drive assembly , the strapping device being characterised in that - said first drive assembly is configured for moving said tensioning wheel around said tensioning axis even when said tensioning wheel is moved around said main axis . - a frame defining a supporting area on which a strap being processed can be placed, - a tensioning assembly suitable to lock and tension, on command, at least part of said strap and comprising at least one rocker , - a welding assembly suitable for joining, on command, at least two edges of said strap, and - at least a second drive member suitable to actuate at least part of said tensioning assembly , - said rocker defining a main axis and comprising at least one tensioning wheel defining its own tensioning axis , which can be rotated around said tensioning axis and integrally with said rocker around said main axis with respect to said frame , - said strapping device further comprising at least a first drive mechanism operatively connected to at least said second drive member and including at least a first drive assembly , the strapping device being characterised in that - said first drive assembly is configured for moving said tensioning wheel around said tensioning axis even when said tensioning wheel is moved around said main axis .
A reception device comprising: a modulation unit configured to generate a modulated signal by modulating data of a reception signal, the data having been subjected to error correction; where the reception signal has been previously demodulated into an I-signal and a Q-signal; an averaging unit (404; 442) configured to generate distortion information for each constellation point of the modulated signal by averaging the I-signal and Q-signal values of the reception signal before error correction corresponding to each particular constellation point of said modulated signal; a likelihood table generation unit configured to generate a likelihood table to be used in the error correction, in accordance with the distortion information; and a soft decision unit configured to make a soft decision on the reception signal in accordance with the distortion information, wherein the soft decision unit generates the data by performing the error correction on the reception signal, using the likelihood table generated by the likelihood table generation unit . a modulation unit configured to generate a modulated signal by modulating data of a reception signal, the data having been subjected to error correction; where the reception signal has been previously demodulated into an I-signal and a Q-signal; an averaging unit (404; 442) configured to generate distortion information for each constellation point of the modulated signal by averaging the I-signal and Q-signal values of the reception signal before error correction corresponding to each particular constellation point of said modulated signal; a likelihood table generation unit configured to generate a likelihood table to be used in the error correction, in accordance with the distortion information; and a soft decision unit configured to make a soft decision on the reception signal in accordance with the distortion information, wherein the soft decision unit generates the data by performing the error correction on the reception signal, using the likelihood table generated by the likelihood table generation unit .
An azeotropic or azeotrope-like composition consisting essentially of 1,3,3,3-tetrachloroprop-1-ene (HCCO-1230zd) and from 15 to 70 weight percent hydrogen fluoride.
A membrane humidifier for a fuel cell, the membrane humidifier comprising: a hollow fiber membrane module configured to receive hollow fiber membranes , in which a first fluid flows and outside which a second fluid flows such that the first fluid and the second fluid exchanges moisture with each other; and a housing unit defining an external appearance of the membrane humidifier, characterized in that : a fluid guide unit configured to uniformly guide a flow of the second fluid is formed between the hollow fiber membranes and the housing unit ; the fluid guide unit has a dual-layer net structure and comprises a base unit configured to wrap the hollow fiber membranes and a protrusion unit formed on the base unit , the protrusion unit protruding so as to have a predetermined size; the base unit comprises a plurality of first stripes (S1) spaced apart from each other; the protrusion unit comprises a plurality of second stripes (S2) spaced apart from each other; and an angle defined between each of the plurality of second stripes (S2) and a central axis of the hollow fiber membrane module ranges from 30 to 90°. a hollow fiber membrane module configured to receive hollow fiber membranes , in which a first fluid flows and outside which a second fluid flows such that the first fluid and the second fluid exchanges moisture with each other; and a housing unit defining an external appearance of the membrane humidifier, characterized in that : a fluid guide unit configured to uniformly guide a flow of the second fluid is formed between the hollow fiber membranes and the housing unit ; the fluid guide unit has a dual-layer net structure and comprises a base unit configured to wrap the hollow fiber membranes and a protrusion unit formed on the base unit , the protrusion unit protruding so as to have a predetermined size; the base unit comprises a plurality of first stripes (S1) spaced apart from each other; the protrusion unit comprises a plurality of second stripes (S2) spaced apart from each other; and an angle defined between each of the plurality of second stripes (S2) and a central axis of the hollow fiber membrane module ranges from 30 to 90°. a fluid guide unit configured to uniformly guide a flow of the second fluid is formed between the hollow fiber membranes and the housing unit ; the fluid guide unit has a dual-layer net structure and comprises a base unit configured to wrap the hollow fiber membranes and a protrusion unit formed on the base unit , the protrusion unit protruding so as to have a predetermined size; the base unit comprises a plurality of first stripes (S1) spaced apart from each other; the protrusion unit comprises a plurality of second stripes (S2) spaced apart from each other; and an angle defined between each of the plurality of second stripes (S2) and a central axis of the hollow fiber membrane module ranges from 30 to 90°.
A battery pack manufacturing method comprising: (a) stacking battery cells to form a cell stack (230; 330; 430; 530); (b) coupling the cell stack and a U-frame (110; 210; 410; 510) to each other; (c) measuring a volume of a space between a flat plate (120; 220; 420; 520) coupled to the U-frame and the cell stack; and (d) applying an amount of a polymer resin, the amount corresponding to the volume measured in step (c), wherein step (c) comprises a process of measuring a length (Z) between the flat plate and the cell stack to calculate a correction length (Z') and multiplying the correction length (Z') by an area of the cell stack, wherein the correction length (Z') between the flat plate and the cell stack is an average of a maximum value and a minimum value calculated by reflecting a tolerance range in the length between the flat plate and the cell stack defined by the following formula: Z = M0 + M1 − M2 wherein Z indicates the length between the flat plate and the cell stack, M0 indicates a distance between a maximum protrusion (233; 333; 433) and a minimum protrusion (232; 332; 432)of the cell stack, M1 indicates a length from the maximum protrusion of the cell stack to an end of a sidewall of the U-frame, and M2 indicates a step difference between a portion of the flat plate to which the polymer resin is applied and a portion of the flat plate to which the U-frame is coupled. (a) stacking battery cells to form a cell stack (230; 330; 430; 530); (b) coupling the cell stack and a U-frame (110; 210; 410; 510) to each other; (c) measuring a volume of a space between a flat plate (120; 220; 420; 520) coupled to the U-frame and the cell stack; and (d) applying an amount of a polymer resin, the amount corresponding to the volume measured in step (c), wherein step (c) comprises a process of measuring a length (Z) between the flat plate and the cell stack to calculate a correction length (Z') and multiplying the correction length (Z') by an area of the cell stack, wherein the correction length (Z') between the flat plate and the cell stack is an average of a maximum value and a minimum value calculated by reflecting a tolerance range in the length between the flat plate and the cell stack defined by the following formula: Z = M0 + M1 − M2 wherein Z indicates the length between the flat plate and the cell stack, M0 indicates a distance between a maximum protrusion (233; 333; 433) and a minimum protrusion (232; 332; 432)of the cell stack, M1 indicates a length from the maximum protrusion of the cell stack to an end of a sidewall of the U-frame, and M2 indicates a step difference between a portion of the flat plate to which the polymer resin is applied and a portion of the flat plate to which the U-frame is coupled.
An apparatus for detecting whether a wireless tag is moving or not, comprising: an antenna ; a phase measurement section that uses the antenna to measure phases of response waves from the wireless tag ; a distance change measurement section that measures change of distance from the wireless tag to the antenna based on measurements performed by the phase measurement section ; a detection section that detects travel of the wireless tag based on measurements performed by the distance change measurement section ; and a velocity change measurement section that measures change of velocity of the wireless tag relative to the antenna based on measurements performed by the distance change measurement section , wherein the detection section detects a stationary tag if a rate of change in sign of the velocity measured by the velocity change measurement section is not less than a predetermined value, and otherwise detects a moving tag . an antenna ; a phase measurement section that uses the antenna to measure phases of response waves from the wireless tag ; a distance change measurement section that measures change of distance from the wireless tag to the antenna based on measurements performed by the phase measurement section ; a detection section that detects travel of the wireless tag based on measurements performed by the distance change measurement section ; and a velocity change measurement section that measures change of velocity of the wireless tag relative to the antenna based on measurements performed by the distance change measurement section , wherein the detection section detects a stationary tag if a rate of change in sign of the velocity measured by the velocity change measurement section is not less than a predetermined value, and otherwise detects a moving tag .
An optical sensor package, comprising: an optical sensor device with a sensor element , and a housing comprising a cap with an aperture , the optical sensor device being arranged inside the housing , a diffuser arranged in the aperture opposite the sensor element , the diffuser prolonging the cap within the aperture or closing the aperture , and a cover of the optical sensor device , the cover being arranged at a positive distance (d) from the diffuser , and the cover having a refractive index greater than a refractive index that is present between the cover and the diffuser by a factor of at least 1.5 for at least one wavelength that is to be detected, characterized in that the positive distance (d) is adjusted with respect to the cover in such a manner that a maximal angle of incidence (α) of 40° is obtained at the sensor element for radiation of at least one wavelength that is to be detected. an optical sensor device with a sensor element , and a housing comprising a cap with an aperture , the optical sensor device being arranged inside the housing , a diffuser arranged in the aperture opposite the sensor element , the diffuser prolonging the cap within the aperture or closing the aperture , and a cover of the optical sensor device , the cover being arranged at a positive distance (d) from the diffuser , and the cover having a refractive index greater than a refractive index that is present between the cover and the diffuser by a factor of at least 1.5 for at least one wavelength that is to be detected, characterized in that the positive distance (d) is adjusted with respect to the cover in such a manner that a maximal angle of incidence (α) of 40° is obtained at the sensor element for radiation of at least one wavelength that is to be detected.
System for analysis of the state of inductive operating means, the system comprising - a measuring device (M) constructed for the purpose of - detecting an acoustic reference signal and a plurality of operating variables, which can change over time, of the operating means (TR) or a reference operating means during a reference time period; and - detecting an acoustic signal and the operating variables during a productive time period; and - an evaluating device (A) arranged for the purpose of - generating a reference data set from the reference signal and a productive data set from the acoustic signal; - performing a regression analysis of the reference data set and thereby creating a model for description of the acoustic reference signal by the operating variables; - generating a state evaluation of the operating means (TR) from a difference between the productive data set and values modelled in accordance with the model, characterized, in that - the time-variable operating variables of the operating means (TR) comprise a tapchanger setting of the operating means (TR) or of a reference operating means. - a measuring device (M) constructed for the purpose of - detecting an acoustic reference signal and a plurality of operating variables, which can change over time, of the operating means (TR) or a reference operating means during a reference time period; and - detecting an acoustic signal and the operating variables during a productive time period; and - detecting an acoustic reference signal and a plurality of operating variables, which can change over time, of the operating means (TR) or a reference operating means during a reference time period; and - detecting an acoustic signal and the operating variables during a productive time period; and - an evaluating device (A) arranged for the purpose of - generating a reference data set from the reference signal and a productive data set from the acoustic signal; - performing a regression analysis of the reference data set and thereby creating a model for description of the acoustic reference signal by the operating variables; - generating a state evaluation of the operating means (TR) from a difference between the productive data set and values modelled in accordance with the model, - generating a reference data set from the reference signal and a productive data set from the acoustic signal; - performing a regression analysis of the reference data set and thereby creating a model for description of the acoustic reference signal by the operating variables; - generating a state evaluation of the operating means (TR) from a difference between the productive data set and values modelled in accordance with the model, - the time-variable operating variables of the operating means (TR) comprise a tapchanger setting of the operating means (TR) or of a reference operating means.
An offshore wind turbine, - having a supporting structure , - having a nacelle , - having a rotor , - having an interior space , - having at least one access opening , and - having a means of ascent , such as a ladder, a staircase or the like, - wherein the supporting structure has a tower and a foundation structure , - wherein the tower supports the nacelle and the rotor , - wherein the access opening is an access for people to the interior space , - wherein the means of ascent is arranged in the interior space , - wherein the means of ascent is assigned to the access opening , and - wherein no external work platform is arranged between the foundation structure and the access opening , as viewed along a vertical extent (H) of the supporting structure , characterized in that the offshore wind turbine comprises a lifting device and loading opening wherein the lifting device and the loading opening are arranged between the access opening and the nacelle , as viewed along the vertical extent (H) - wherein the lifting device is assigned to the loading opening, wherein the lifting device is movable from a first into a second position, and - wherein, in the first position, the lifting device is completely accommodated in the interior space . - having a supporting structure , - having a nacelle , - having a rotor , - having an interior space , - having at least one access opening , and - having a means of ascent , such as a ladder, a staircase or the like, - wherein the supporting structure has a tower and a foundation structure , - wherein the tower supports the nacelle and the rotor , - wherein the access opening is an access for people to the interior space , - wherein the means of ascent is arranged in the interior space , - wherein the means of ascent is assigned to the access opening , and - wherein no external work platform is arranged between the foundation structure and the access opening , as viewed along a vertical extent (H) of the supporting structure , characterized in that the offshore wind turbine comprises a lifting device and loading opening wherein the lifting device and the loading opening are arranged between the access opening and the nacelle , as viewed along the vertical extent (H) - wherein the lifting device is assigned to the loading opening, wherein the lifting device is movable from a first into a second position, and - wherein, in the first position, the lifting device is completely accommodated in the interior space .
A controlling device , comprising: a casing having an opening; and an input device disposed in the opening comprised of a moveable touch sensitive surface positioned above a plurality of switches ; wherein the controlling device is configured to respond to an activation of at least one of the plurality of switches caused by a movement of the touch sensitive surface resulting from an input at an input location upon the touch sensitive surface by using the input location to retrieve from a library of command data stored in a memory of the controlling device a command data for use in controlling a functional operation of a home lighting appliance and to use the retrieved command data to transmit a command signal to the home lighting appliance via use of a transmission protocol recognisable by the home lighting appliance . a casing having an opening; and an input device disposed in the opening comprised of a moveable touch sensitive surface positioned above a plurality of switches ; wherein the controlling device is configured to respond to an activation of at least one of the plurality of switches caused by a movement of the touch sensitive surface resulting from an input at an input location upon the touch sensitive surface by using the input location to retrieve from a library of command data stored in a memory of the controlling device a command data for use in controlling a functional operation of a home lighting appliance and to use the retrieved command data to transmit a command signal to the home lighting appliance via use of a transmission protocol recognisable by the home lighting appliance .