mhurhangee/patent-ind-claim-en huggingface dataset:
A method for re-parking a vehicle , the method comprising: acquiring, by one or more vehicle-side sensors , environment data of an environment of the vehicle ; generating, by one or more vehicle-side processors, a message indicative of a potential necessity to re-park the vehicle based on the environment data; communicating, by a vehicle-side transceiver, the message to an external device ; communicating, by the vehicle-side transceiver, the environment data to the external device upon detection of an acknowledgement of the external device ; receiving, by the vehicle-side transceiver, a command to re-park the vehicle in a pre-determined parking space ; and initiating , by the one or more processors, a re-parking of the vehicle based on the command, wherein generating a message indicative of a potential necessity to re-park the vehicle comprises pre-evaluating, by the one or more vehicle-side processors, the environment data with respect to a necessity to re-park the vehicle characterized in that pre-evaluating the environment data includes classifying the environment data with respect to emergency cases. acquiring, by one or more vehicle-side sensors , environment data of an environment of the vehicle ; generating, by one or more vehicle-side processors, a message indicative of a potential necessity to re-park the vehicle based on the environment data; communicating, by a vehicle-side transceiver, the message to an external device ; communicating, by the vehicle-side transceiver, the environment data to the external device upon detection of an acknowledgement of the external device ; receiving, by the vehicle-side transceiver, a command to re-park the vehicle in a pre-determined parking space ; and initiating , by the one or more processors, a re-parking of the vehicle based on the command, wherein generating a message indicative of a potential necessity to re-park the vehicle comprises pre-evaluating, by the one or more vehicle-side processors, the environment data with respect to a necessity to re-park the vehicle characterized in that pre-evaluating the environment data includes classifying the environment data with respect to emergency cases.
Refrigerator and/or freezer comprising a refrigerated receiving region for a liquid container containing a liquid, in particular for drinks bottles or cans, wherein a drive means is provided to move the receiving region itself and/or the liquid container received therein for the purpose of accelerated refrigeration of the liquid, wherein the drive means comprises a disc cam, a cam shaft or another revolving or rotating body comprising a cam, the cam of which is in intermittent contact with the receiving region or with a liquid container placed therein, wherein the cam is dimensioned such that, by means of the intermittent contact, a jerky, intermittent movement of the receiving region or the liquid container placed therein is produced.
A fiber optic module comprising: a housing having a first major surface and an opposite second major surface , and a circumferential edge connecting the first major surface to the second major surface , the housing defining an interior between the first and second major surfaces ; an input (96/214) configured to receive at least one module input fiber ; at least one connectorized output pigtail (28/206) routed from the housing , the at least one output pigtail (28/206) being configured to carry a signal from the at least one module input fiber entering the housing via the input (96/214); and at least one connector storage feature , disposed on the first major surface of the housing , the at least one connector storage feature being configured to receive and store the at least one connectorized output pigtail (28/206) on the first major surface . a housing having a first major surface and an opposite second major surface , and a circumferential edge connecting the first major surface to the second major surface , the housing defining an interior between the first and second major surfaces ; an input (96/214) configured to receive at least one module input fiber ; at least one connectorized output pigtail (28/206) routed from the housing , the at least one output pigtail (28/206) being configured to carry a signal from the at least one module input fiber entering the housing via the input (96/214); and at least one connector storage feature , disposed on the first major surface of the housing , the at least one connector storage feature being configured to receive and store the at least one connectorized output pigtail (28/206) on the first major surface .
A digital microscopy method , comprising: capturing a plurality of overlapping images of a sample, wherein the capturing of at least one of said plurality of images is performed while the sample and a focal plane are in relative motion along an optical axis at a speed greater than zero; providing an estimated relative arrangement of the focal plane and the sample along the optical axis; and processing the plurality of images using a reference criterion to determine a reference relative arrangement of the focal plane and the sample along the optical axis; wherein the capturing of the plurality of overlapping images is performed such as to produce different image capture densities along the optical axis, to provide an increased image capture density as the relative arrangement of the focal plane and the sample grows closer to the estimated relative arrangement, characterized in that said capturing such as to produce different image capture densities along the optical axis is further performed to provide a decreased image capture density as the relative arrangement of the focal plane and the sample moves away from the estimated relative arrangement. capturing a plurality of overlapping images of a sample, wherein the capturing of at least one of said plurality of images is performed while the sample and a focal plane are in relative motion along an optical axis at a speed greater than zero; providing an estimated relative arrangement of the focal plane and the sample along the optical axis; and processing the plurality of images using a reference criterion to determine a reference relative arrangement of the focal plane and the sample along the optical axis; wherein the capturing of the plurality of overlapping images is performed such as to produce different image capture densities along the optical axis, to provide an increased image capture density as the relative arrangement of the focal plane and the sample grows closer to the estimated relative arrangement,
A compressor pump body, comprising a sliding vane , a first flange and a second flange; the sliding vane comprises a main body ; the main body is provided with a first surface and a second surface arranged opposite to the first surface ; the first surface abuts against the first flange , and the second surface abuts against the second flange; the first surface and/or the second surface are/is provided with an enlargement portion ; an exhaust port is formed in the first flange and/or the second flange; when the sliding vane rotates to sweep the exhaust port, the enlargement portion is able to prevent two sides of the sliding vane in a rotation direction from communicating by means of the exhaust port.
A computer-implemented method for predicting privacy sharing preferences, comprising: detecting by an input interface a first action performed by a user; gathering information associated with the first action; applying machine learning to generate a predictive model , based on the information and past sharing actions associated with the information, wherein the machine learning is applied as a black box that receives the past sharing actions and outputs the predictive model ; retrieving the predictive model based on the information, wherein the predictive model is configured to predict privacy sharing preferences; determining an applicability level of the predictive model to the first action, wherein the predictive model suggests a second action; and characterized in that in case the applicability level meets a threshold level, automatically selecting the second action as enabled through a setting. detecting by an input interface a first action performed by a user; gathering information associated with the first action; applying machine learning to generate a predictive model , based on the information and past sharing actions associated with the information, wherein the machine learning is applied as a black box that receives the past sharing actions and outputs the predictive model ; retrieving the predictive model based on the information, wherein the predictive model is configured to predict privacy sharing preferences; determining an applicability level of the predictive model to the first action, wherein the predictive model suggests a second action; and characterized in that in case the applicability level meets a threshold level, automatically selecting the second action as enabled through a setting.
An air conditioning system , comprising: an outdoor unit ; a plurality of indoor units connected to the outdoor unit through a refrigerant pipe ; each of the indoor units comprising, a device operating with DC power, a first power source circuit configured to convert AC power supplied from a commercial power source into the DC power of a predetermined voltage and supply the DC power to the device , and a remote controller having a display screen and operating with the DC power to control an operation of the indoor unit ; an auxiliary power supply unit comprising a second power source circuit for outputting the DC power of the predetermined voltage, the auxiliary power supply unit being configured to supply power from the second power source circuit to the device when supplying the AC power to the first power source circuit is interrupted; characterized by means for bringing the display screen of the remote controller into a non-display state when supplying the AC power to the first power source circuit is interrupted. an outdoor unit ; a plurality of indoor units connected to the outdoor unit through a refrigerant pipe ; each of the indoor units comprising, a device operating with DC power, a first power source circuit configured to convert AC power supplied from a commercial power source into the DC power of a predetermined voltage and supply the DC power to the device , and a remote controller having a display screen and operating with the DC power to control an operation of the indoor unit ; a device operating with DC power, a first power source circuit configured to convert AC power supplied from a commercial power source into the DC power of a predetermined voltage and supply the DC power to the device , and a remote controller having a display screen and operating with the DC power to control an operation of the indoor unit ; an auxiliary power supply unit comprising a second power source circuit for outputting the DC power of the predetermined voltage, the auxiliary power supply unit being configured to supply power from the second power source circuit to the device when supplying the AC power to the first power source circuit is interrupted; characterized by means for bringing the display screen of the remote controller into a non-display state when supplying the AC power to the first power source circuit is interrupted.
A method comprising the steps of: obtaining operational data for a Wi-Fi network including one or more access points providing wireless connectivity to one another and to one or more Wi-Fi client devices , wherein the operational data includes 1) total traffic transmitted and received in given time intervals, and 2) active periods within the given time intervals, each provided for devices including any of the one or more access points and the one or more Wi-Fi client devices, and wherein the operational data is obtained from a Wi-Fi chipset available therein; determining a Quality of Experience, QoE, measurement from the operational data for one or more access points or Wi-Fi client devices ; and providing a display of associated QoE measurements for one or more access points or one or more Wi-Fi client devices , the method being characterized in that the QoE measurement is based on a possible throughput of a Wi-Fi client device that incorporates all factors in the Wi-Fi network , the possible throughput being determined based on a current usage estimate at the device and additional throughput the device could get based on hops in the Wi-Fi network, physical, PHY, rate, and Packet Retry Rate, PRR, a needed throughput of the Wi-Fi client device that incorporates how much the device needs given one or more of its device type, history, current data usage, and overall Internet access speed, the needed throughput being determined based on a minimum of any of current usage, the overall Internet access speed, and a device type needed throughput, and a ratio thereof. obtaining operational data for a Wi-Fi network including one or more access points providing wireless connectivity to one another and to one or more Wi-Fi client devices , wherein the operational data includes 1) total traffic transmitted and received in given time intervals, and 2) active periods within the given time intervals, each provided for devices including any of the one or more access points and the one or more Wi-Fi client devices, and wherein the operational data is obtained from a Wi-Fi chipset available therein; determining a Quality of Experience, QoE, measurement from the operational data for one or more access points or Wi-Fi client devices ; and providing a display of associated QoE measurements for one or more access points or one or more Wi-Fi client devices , the method being characterized in that the QoE measurement is based on a possible throughput of a Wi-Fi client device that incorporates all factors in the Wi-Fi network , the possible throughput being determined based on a current usage estimate at the device and additional throughput the device could get based on hops in the Wi-Fi network, physical, PHY, rate, and Packet Retry Rate, PRR, a needed throughput of the Wi-Fi client device that incorporates how much the device needs given one or more of its device type, history, current data usage, and overall Internet access speed, the needed throughput being determined based on a minimum of any of current usage, the overall Internet access speed, and a device type needed throughput, and a ratio thereof.
An active double-clad fiber comprising the following four layers: a. a high refractive index core having a radius in the range of 1μm to 2μm; b. an inner annular clad layer doped with active ions surrounding the core having a radius of 40μm; c. an outer annular clad layer having a radius in the range of 100μm to 200μm surrounding the inner clad layer; and d. an annular low refractive index outer coating layer surrounding the outer clad layer; wherein: the dimensions of the layers and the properties of the materials of the layers of the fiber provide discrimination of between 4 and 6 against higher modes, thereby maintaining single mode operation in laser systems; the single transverse mode guided by the core has a diameter of at least 80μm; and the refractive indices of the inner and outer clad layers are less than the refractive index of the core and larger than the refractive index of outer coating layer; and therefore, the diameter of the core is smaller than the diameter of the large single transverse mode, thereby allowing guiding and amplification to take place mainly in the inner doped annular clad layer. a. a high refractive index core having a radius in the range of 1μm to 2μm; b. an inner annular clad layer doped with active ions surrounding the core having a radius of 40μm; c. an outer annular clad layer having a radius in the range of 100μm to 200μm surrounding the inner clad layer; and d. an annular low refractive index outer coating layer surrounding the outer clad layer; the dimensions of the layers and the properties of the materials of the layers of the fiber provide discrimination of between 4 and 6 against higher modes, thereby maintaining single mode operation in laser systems; the single transverse mode guided by the core has a diameter of at least 80μm; and the refractive indices of the inner and outer clad layers are less than the refractive index of the core and larger than the refractive index of outer coating layer; and therefore, the diameter of the core is smaller than the diameter of the large single transverse mode, thereby allowing guiding and amplification to take place mainly in the inner doped annular clad layer.
Component , in particular a panel element, comprising at least one substrate element having at least one covering sheet , at least one profile element , comprising at least one structuring layer , the profile element being secured on at least one narrow side of the substrate element , the structuring layer having a polymer material at least in part, at least one covering sheet and the material of the profile element having, at least in part, a component selected from a halogenated and/or a nitrogen-based and/or an organophosphate-based and/or an inorganic flame retardant in an amount from 0.1 to 30 wt.%, preferably from 0.2 to 25 wt.%, in relation to the total weight thereof, characterised in that the material of the profile element has a fire performance as per the UL 94 standard of at least V1 at a thickness of 1.0 mm, in that the material of the profile element has a flammability index of 960°C at a thickness of 3 mm in accordance with IEC60695-2-12.
A method for managing virtual machines hosted on a production host (130; 200; 610), comprising: obtaining a backup generation request for a virtual machine (410; 612) of the virtual machines; making a first determination that the backup generation request impacts a physical disk (234; 400; 414A - 4140; 614) utilized by the virtual machine; in response to the first determination: generating a mirror virtual disk (236; 402; 416A - 4160; 616) for the physical disk, wherein the mirror virtual disk comprises a virtual disk mirroring data of the physical disk but is implemented as a logical disk; generating a backup of the mirror virtual disk as a backup of the physical disk; and storing the backup of the mirror virtual disk in backup storage ; and after generating the mirror virtual disk: mapping the mirror virtual disk as a primary disk, wherein the primary disk is used as primary storage for writes; and mapping the physical disk as a secondary disk, wherein the secondary disk is used for redundancy storage for the writes. obtaining a backup generation request for a virtual machine (410; 612) of the virtual machines; making a first determination that the backup generation request impacts a physical disk (234; 400; 414A - 4140; 614) utilized by the virtual machine; in response to the first determination: generating a mirror virtual disk (236; 402; 416A - 4160; 616) for the physical disk, wherein the mirror virtual disk comprises a virtual disk mirroring data of the physical disk but is implemented as a logical disk; generating a backup of the mirror virtual disk as a backup of the physical disk; and storing the backup of the mirror virtual disk in backup storage ; and after generating the mirror virtual disk: mapping the mirror virtual disk as a primary disk, wherein the primary disk is used as primary storage for writes; and mapping the physical disk as a secondary disk, wherein the secondary disk is used for redundancy storage for the writes. generating a mirror virtual disk (236; 402; 416A - 4160; 616) for the physical disk, wherein the mirror virtual disk comprises a virtual disk mirroring data of the physical disk but is implemented as a logical disk; generating a backup of the mirror virtual disk as a backup of the physical disk; and storing the backup of the mirror virtual disk in backup storage ; and after generating the mirror virtual disk: mapping the mirror virtual disk as a primary disk, wherein the primary disk is used as primary storage for writes; and mapping the physical disk as a secondary disk, wherein the secondary disk is used for redundancy storage for the writes. mapping the mirror virtual disk as a primary disk, wherein the primary disk is used as primary storage for writes; and mapping the physical disk as a secondary disk, wherein the secondary disk is used for redundancy storage for the writes.
A method comprising: defining at least one modification period (721; 821); determining a system information change; and generating at least one first type of paging message indicator based on a paging message occurring within the at least one modification period (721; 821), characterized by defining at least one extended modification period (723; 823); and generating at least one second type of paging message indicator based on a paging message occurring within the at least one extended modification period (723; 823). defining at least one modification period (721; 821); determining a system information change; and generating at least one first type of paging message indicator based on a paging message occurring within the at least one modification period (721; 821), characterized by defining at least one extended modification period (723; 823); and generating at least one second type of paging message indicator based on a paging message occurring within the at least one extended modification period (723; 823).
A colorimetric calculation method for a display, the display comprising a quantum dot backlight module and a first polarizer arranged on a light exit side of the quantum dot backlight module , wherein the first polarizer comprises a polarizer and an advanced protein crystallization facility, wherein the quantum dot backlight module comprises a light guide plate , a quantum dot thin film layer arranged on a light exit side of the light guide plate , and a backlight arranged on a light entrance side of the light guide plate ; the method comprising: providing a reference polarizer comprising only a polarizer, wherein the reference polarizer is different from the first polarizer , the first polarizer causes a secondary excitation of the quantum dot film layer , and the reference polarizer does not cause a secondary excitation of the quantum dot film layer ; measuring the quantum dot backlight module by the reference polarizer and the first polarizer , respectively, to extract a correction spectrum caused by the first polarizer in the display; measuring the quantum dot backlight module to obtain a measurement spectrum of the quantum dot backlight module ; obtaining a modified spectrum of the quantum dot backlight module based on the measurement spectrum and the correction spectrum; and using the modified spectrum to calculate the chromaticity, brightness, and color gamut of the display. providing a reference polarizer comprising only a polarizer, wherein the reference polarizer is different from the first polarizer , the first polarizer causes a secondary excitation of the quantum dot film layer , and the reference polarizer does not cause a secondary excitation of the quantum dot film layer ; measuring the quantum dot backlight module by the reference polarizer and the first polarizer , respectively, to extract a correction spectrum caused by the first polarizer in the display; measuring the quantum dot backlight module to obtain a measurement spectrum of the quantum dot backlight module ; obtaining a modified spectrum of the quantum dot backlight module based on the measurement spectrum and the correction spectrum; and using the modified spectrum to calculate the chromaticity, brightness, and color gamut of the display.