mhurhangee/ep-ind-claims huggingface dataset:
Attachment tower for a rear mounted implement such as, e.g., a mounted field sprayer, which has an upper coupling point and two lower coupling points (5, 6) for the connection to the upper link and lower links of the three-point linkage of a tractor, whereby the upper coupling point is arranged at a component and can be moved for the connection with the upper link into a front coupling position and with the upper link connected to the upper coupling point into a rear operating position, whereby the component and therefore the upper coupling point as well are designed to be lockable in the operating position and movable and variable in the coupling position, characterised in that the component is designed to be lockable automatically in the operating position via a locking system and the locking system has guide elements that are designed to prevent premature locking of the upper coupling point during the coupling phase, to permit restricted manoeuvring of the tractor during the coupling phase and not to effect locking until the rear mounted implement is raised.
Method for controlling a fuel gas/air mixture of a fuel gas operated burner, preferably a heating device, by means of a sensor for detecting the burner or flame temperature and a control comprising the following method steps: - an initial temperature T 0 is measured by the sensor, - for a given burner load ( Q̇), the required fuel gas volume flow ( V̇ B) or fuel gas mass flow ( ṁ B), the combustion air volume flow ( V̇ L) or combustion air mass flow ( ṁ L) taking into account the combustion air value ( λ), as well as the load dependent burner or flame target temperature T 2 = f(Q̇) from a characteristic map or a function are determined, - from the initial temperature T 0 and the burner or flame target temperature T 2 the burner or flame target temperature over time T 1 (t) = f(T 0, T 2, t) is calculated, - according to the determined fuel gas volume flow ( V̇ B) or fuel gas mass flow ( ṁ B) and combustion air volume flow ( V̇ L) or combustion air mass flow ( ṁ L) the fuel gas flow and combustion air flow are adjusted, - the burner or flame temperature is measured and compared with the calculated burner or flame target temperature T 1 (t), - if the measured burner or flame temperature at a specific time t in the dynamic running is higher than the calculated burner or flame temperature T 1 (t) at that time t, the fuel gas flow is reduced or the air volume increased, - if the measured burner or flame temperature at a specific time t in the dynamic running is lower than the calculated burner or flame temperature T 1 (t) at that time t, the fuel gas flow is increased or the air volume reduced. - an initial temperature T 0 is measured by the sensor, - for a given burner load ( Q̇), the required fuel gas volume flow ( V̇ B) or fuel gas mass flow ( ṁ B), the combustion air volume flow ( V̇ L) or combustion air mass flow ( ṁ L) taking into account the combustion air value ( λ), as well as the load dependent burner or flame target temperature T 2 = f(Q̇) from a characteristic map or a function are determined, - from the initial temperature T 0 and the burner or flame target temperature T 2 the burner or flame target temperature over time T 1 (t) = f(T 0, T 2, t) is calculated, - according to the determined fuel gas volume flow ( V̇ B) or fuel gas mass flow ( ṁ B) and combustion air volume flow ( V̇ L) or combustion air mass flow ( ṁ L) the fuel gas flow and combustion air flow are adjusted, - the burner or flame temperature is measured and compared with the calculated burner or flame target temperature T 1 (t), - if the measured burner or flame temperature at a specific time t in the dynamic running is higher than the calculated burner or flame temperature T 1 (t) at that time t, the fuel gas flow is reduced or the air volume increased, - if the measured burner or flame temperature at a specific time t in the dynamic running is lower than the calculated burner or flame temperature T 1 (t) at that time t, the fuel gas flow is increased or the air volume reduced.
An apparatus including circuitry to cause a first station to: transmit a Location Configuration Information 'LCI' request to a second station, the LCI request comprising an indication of a location request for location information corresponding to the second station; receive an LCI report from the second station, the LCI report including a relative location subelement, which is configured to indicate relative location information of a location of the second station with respect to a third station at an origin point and the LCI report further including a group identifier to indicate that the second station belongs to a group of two or more stations having local coordinates measured with respect to a common origin point; and estimate a location of said first station based at least in part on the relative location information and on location information of one or more stations belonging to the group. transmit a Location Configuration Information 'LCI' request to a second station, the LCI request comprising an indication of a location request for location information corresponding to the second station; receive an LCI report from the second station, the LCI report including a relative location subelement, which is configured to indicate relative location information of a location of the second station with respect to a third station at an origin point and the LCI report further including a group identifier to indicate that the second station belongs to a group of two or more stations having local coordinates measured with respect to a common origin point; and estimate a location of said first station based at least in part on the relative location information and on location information of one or more stations belonging to the group.
A method for lubricating an internal combustion engine, comprising supplying to said engine a lubricating composition comprising: (a) an oil of lubricating viscosity; (b) 10 to 1000 parts per million by weight of titanium in the form of an oil-soluble titanium-containing material having a number average molecular weight of less than 20,000; (c) an antioxidant other than a Ti-containing antioxidant, and (d) 0,1 to 5 percent by weight on an oil free basis of a metal containing salicylate detergent other than a Ti-containing salicylate detergent. (a) an oil of lubricating viscosity; (b) 10 to 1000 parts per million by weight of titanium in the form of an oil-soluble titanium-containing material having a number average molecular weight of less than 20,000; (c) an antioxidant other than a Ti-containing antioxidant, and (d) 0,1 to 5 percent by weight on an oil free basis of a metal containing salicylate detergent other than a Ti-containing salicylate detergent.
A method of estimating human perception of the audibility of an audio alert in the presence of a background noise in a system comprising an alert generation system including at least one speaker and an alert audibility estimation system including a microphone, the method comprising: in the alert audibility estimation system, obtaining an input signal from the microphone; obtaining, from the audio alert generation system for generating the audio alert, a real-time stream including a reference signal corresponding to the audio alert as the audio alert is being output from the or each speaker associated with the audio alert generation system; performing online calibration by using signals that are concurrently playing out of the or each speaker, to adapt a calibration estimate of the transfer function of the acoustic path between the or each speaker and the microphone; obtaining from the input signal, using the reference signal and the estimate of the transfer function of the acoustic path between the or each speaker and the microphone, a background noise estimate and audio alert estimate represented at the microphone; generating an audibility metric representing human perception of audibility of the audio alert based on a comparison between the background noise estimate and the audio alert estimate, wherein generating the audibility metric is further based on a frequency-weighting that correlates with human perception of relative loudness; and taking an action based on the audibility metric. in the alert audibility estimation system, obtaining an input signal from the microphone; obtaining, from the audio alert generation system for generating the audio alert, a real-time stream including a reference signal corresponding to the audio alert as the audio alert is being output from the or each speaker associated with the audio alert generation system; performing online calibration by using signals that are concurrently playing out of the or each speaker, to adapt a calibration estimate of the transfer function of the acoustic path between the or each speaker and the microphone; obtaining from the input signal, using the reference signal and the estimate of the transfer function of the acoustic path between the or each speaker and the microphone, a background noise estimate and audio alert estimate represented at the microphone; generating an audibility metric representing human perception of audibility of the audio alert based on a comparison between the background noise estimate and the audio alert estimate, wherein generating the audibility metric is further based on a frequency-weighting that correlates with human perception of relative loudness; and taking an action based on the audibility metric.
An oxide semiconductor film comprising: a p-type dopant in the oxide semiconductor film, wherein the p-type dopant includes one or more elements selected from Mg, H, Li, Na, K, Rb, Cs, Fr, Be, Ca, Sr, Ba, Ra, Mn, Fe, Ni, Pd, Cu, Ag, Au, Zn, Cd, Hg, Pb, N, and P; a p-type carrier concentration of the oxide semiconductor film being 1×10 15 /cm 3 or more; and a hole mobility of the oxide semiconductor film being 1 cm 2 /Vs or more; the oxide semiconductor film being a mixed crystal of an oxide of a metal of Group 9 of the periodic table and an oxide of a metal of Group 13 of the periodic table, and the oxide semiconductor film having a p-type electric conductivity. a p-type dopant in the oxide semiconductor film, wherein the p-type dopant includes one or more elements selected from Mg, H, Li, Na, K, Rb, Cs, Fr, Be, Ca, Sr, Ba, Ra, Mn, Fe, Ni, Pd, Cu, Ag, Au, Zn, Cd, Hg, Pb, N, and P; a p-type carrier concentration of the oxide semiconductor film being 1×10 15 /cm 3 or more; and a hole mobility of the oxide semiconductor film being 1 cm 2 /Vs or more; the oxide semiconductor film being a mixed crystal of an oxide of a metal of Group 9 of the periodic table and an oxide of a metal of Group 13 of the periodic table, and the oxide semiconductor film having a p-type electric conductivity.
A method comprising: performing, by a vehicle weather radar system that comprises one or more processors and is onboard a vehicle (100, 200, 210), a weather radar scan of an area of sky; generating, by the vehicle weather radar system during at least part of an interval between the weather radar scan and a subsequent weather radar scan, a radar transmission tuned to detect at least one of birds (230, 232) or bats; receiving, by the vehicle weather radar system, reflected radar signals in response to the radar transmission; determining, by the vehicle weather radar system, the reflected radar signals comprise data indicative of detected birds or bats; generating, by the vehicle weather radar system, an output (201, 202, 306, 308, 330, 332, 340, 353, 612) based at least in part on the data indicative of the detected birds or bats; and performing, by the vehicle weather radar system after receiving the reflected radar signals, the subsequent weather radar scan of the area of sky. performing, by a vehicle weather radar system that comprises one or more processors and is onboard a vehicle (100, 200, 210), a weather radar scan of an area of sky; generating, by the vehicle weather radar system during at least part of an interval between the weather radar scan and a subsequent weather radar scan, a radar transmission tuned to detect at least one of birds (230, 232) or bats; receiving, by the vehicle weather radar system, reflected radar signals in response to the radar transmission; determining, by the vehicle weather radar system, the reflected radar signals comprise data indicative of detected birds or bats; generating, by the vehicle weather radar system, an output (201, 202, 306, 308, 330, 332, 340, 353, 612) based at least in part on the data indicative of the detected birds or bats; and performing, by the vehicle weather radar system after receiving the reflected radar signals, the subsequent weather radar scan of the area of sky.
A method for managing mobile device applications on a mobile device, the method comprising: receiving, at a mobile device, information identifying a mobile device application, the information indicating that the mobile device application is disapproved for communication in a wireless network and indicating a reason for disabling access to the wireless network, the information received from a wireless network operator system associated with the wireless network; and disabling access to the wireless network by the mobile device application at the mobile device; characterized in that the information is received from the wireless network operator system upon entering within a range of the wireless network, or upon powering on the mobile device and in that the method further comprises the steps of: sending, by the mobile device, an authentication request to the wireless network operator system to determine its authenticity; and receiving, at the mobile device, a proffered response from the wireless network operator system, sent in response to the authentication request. receiving, at a mobile device, information identifying a mobile device application, the information indicating that the mobile device application is disapproved for communication in a wireless network and indicating a reason for disabling access to the wireless network, the information received from a wireless network operator system associated with the wireless network; and disabling access to the wireless network by the mobile device application at the mobile device; characterized in that the information is received from the wireless network operator system upon entering within a range of the wireless network, or upon powering on the mobile device and in that the method further comprises the steps of: sending, by the mobile device, an authentication request to the wireless network operator system to determine its authenticity; and receiving, at the mobile device, a proffered response from the wireless network operator system, sent in response to the authentication request. sending, by the mobile device, an authentication request to the wireless network operator system to determine its authenticity; and receiving, at the mobile device, a proffered response from the wireless network operator system, sent in response to the authentication request.
A stabilized solution or formulation packaged in a container for sale, comprising hypochlorous acid and a stabilizing amount of dissolved inorganic carbon in the form of a bicarbonate or carbonate of an alkali or alkaline earth metal, wherein the solution or formulation has an available free chlorine content of from 10 to 10,000 parts per million, a pH of from 4.4 to 7, a ratio of DIC to AFC of from 5:1 to 1:5, and wherein the container is minimally permeable to CO 2 or O 2.
A seal assembly for a turbine, the seal assembly comprising: a first seal portion (200, 300, 400, 500) comprising a plurality of seal bodies (210, 310, 410, 510) stacked to be spaced apart from each other; and a second seal portion (200', 300', 400', 500') comprising a plurality of seal bodies (210', 310', 410', 510') stacked to be spaced apart from each other, wherein ends of the seal bodies (210, 310, 410, 510) of the first seal portion (200, 300, 400, 500) are inserted between the seal bodies (210', 310', 410', 510') of the second seal portion (200', 300', 400', 500') such that each of the seal bodies (210, 310, 410, 510) of the first seal portion and each of the seal bodies (210', 310', 410', 510') of the second seal portion are stacked alternately and at least partially overlap each other to form an overlapping portion; characterized in that: at least one among the seal bodies (310, 310', 420) has a thickness different from a thickness of another one among the seal bodies (320, 320', 410, 410'). a first seal portion (200, 300, 400, 500) comprising a plurality of seal bodies (210, 310, 410, 510) stacked to be spaced apart from each other; and a second seal portion (200', 300', 400', 500') comprising a plurality of seal bodies (210', 310', 410', 510') stacked to be spaced apart from each other, wherein ends of the seal bodies (210, 310, 410, 510) of the first seal portion (200, 300, 400, 500) are inserted between the seal bodies (210', 310', 410', 510') of the second seal portion (200', 300', 400', 500') such that each of the seal bodies (210, 310, 410, 510) of the first seal portion and each of the seal bodies (210', 310', 410', 510') of the second seal portion are stacked alternately and at least partially overlap each other to form an overlapping portion;
Protective fence, in particular for use as a safety device for preventing vehicles breaking through and people falling, preferably in a car park, comprising a planar grate element of predefinable height and width, the grate element being designed as a grating comprising horizontal support members and vertical rungs and the grate element having an additional tape- or strip-shaped reinforcing element which extends substantially along its entire width, characterised in that the reinforcing element, in its tape- or strip-shaped form, extends between two horizontal support members of the grate element.
A method characterized by: evaluating network data to generate one or more groupings for the network data, each grouping comprising one or more files of related network data, based on a file type of the network data; applying data identification rules to identify a data schema in the one or more files in a respective grouping; determining one or more policy rules that apply to the one or more files associated with the data schema; scanning a portion of a file associated with the data schema to determine compliance with the one or more policy rules; and generating, for the file scanned, a report of compliance with the one or more policy rules. evaluating network data to generate one or more groupings for the network data, each grouping comprising one or more files of related network data, based on a file type of the network data; applying data identification rules to identify a data schema in the one or more files in a respective grouping; determining one or more policy rules that apply to the one or more files associated with the data schema; scanning a portion of a file associated with the data schema to determine compliance with the one or more policy rules; and generating, for the file scanned, a report of compliance with the one or more policy rules.
A method of tuning at least one of inductive and capacitive components within an integrated circuit device; the method comprising: measuring bare-die mounted performance of at least one component formed within a semiconductor die; determining a package distribution layer pattern for the at least one component for achieving a desired performance for the at least one component based at least partly on the measured bare-die mounted performance; estimating a packaged die performance for the at least one component for an initial package distribution layer pattern based at least partly on the measured bare-die mounted performance; determining whether the estimated packaged die performance achieves the desired performance for the at least one component; and if it is determined that the estimated packaged die performance does not achieve the desired performance, modifying the distribution layer pattern for the at least one component to achieve the desired packaged performance, wherein modifying the distribution layer pattern comprises: determining ground layer adjustments for achieving the desired packaged performance for the at least one component; and modifying the package distribution layer pattern for the at least one component based at least partly on the determined ground layer adjustments; and packaging the semiconductor die (160, 180) with the determined package distribution layer pattern for the at least one component. measuring bare-die mounted performance of at least one component formed within a semiconductor die; determining a package distribution layer pattern for the at least one component for achieving a desired performance for the at least one component based at least partly on the measured bare-die mounted performance; estimating a packaged die performance for the at least one component for an initial package distribution layer pattern based at least partly on the measured bare-die mounted performance; determining whether the estimated packaged die performance achieves the desired performance for the at least one component; and if it is determined that the estimated packaged die performance does not achieve the desired performance, modifying the distribution layer pattern for the at least one component to achieve the desired packaged performance, wherein modifying the distribution layer pattern comprises: determining ground layer adjustments for achieving the desired packaged performance for the at least one component; and modifying the package distribution layer pattern for the at least one component based at least partly on the determined ground layer adjustments; and determining ground layer adjustments for achieving the desired packaged performance for the at least one component; and modifying the package distribution layer pattern for the at least one component based at least partly on the determined ground layer adjustments; and packaging the semiconductor die (160, 180) with the determined package distribution layer pattern for the at least one component.
A process for forming a quenched composition comprising: mixing 40 to 95 wt% of an unquenched melt polycarbonate and 5 to 60 wt% of a quenched melt polycarbonate to form the quenched composition, wherein the weight percentage is based upon a total weight of the quenched composition; wherein the quenched polycarbonate was formed from a first melt polymerization, and wherein the quenched melt polycarbonate comprises greater than or equal to 0.5 ppm of free quencher; wherein the unquenched polycarbonate was formed from a second melt polymerization, wherein the unquenched melt polycarbonate comprises an active catalyst that is capable of further polymerizing the unquenched polycarbonate and that was used during the second melt polymerization. mixing 40 to 95 wt% of an unquenched melt polycarbonate and 5 to 60 wt% of a quenched melt polycarbonate to form the quenched composition, wherein the weight percentage is based upon a total weight of the quenched composition; wherein the quenched polycarbonate was formed from a first melt polymerization, and wherein the quenched melt polycarbonate comprises greater than or equal to 0.5 ppm of free quencher; wherein the unquenched polycarbonate was formed from a second melt polymerization, wherein the unquenched melt polycarbonate comprises an active catalyst that is capable of further polymerizing the unquenched polycarbonate and that was used during the second melt polymerization.