mhurhangee/ep-ind-claims huggingface dataset:
A method for displaying navigation database information, the method comprising: displaying a comparison interface (600, 700) using a data structure comprising a plurality of nodes (610, 716, 722) wherein each of the plurality of nodes (610, 716, 722) is related to a specific data type and a data architecture for supporting integration of multiple disparate navigation databases (504, 506); displaying an options box within the comparison interface (600, 700); receiving, by a controller module, a first user selection related to a first database of the multiple disparate navigation databases (504, 506); receiving, by the controller module, a second user selection related to a second database of the multiple disparate navigation databases (504, 506), the second database distinct from the first database; comparing, by the controller module, first data in the first database to second data in the second database, wherein the first data and the second data correspond to the at least one of the plurality of nodes (610, 716, 722) selected in the options box and are a same specific data type from each of the first database and the second database; displaying a comparison result (602, 604) within the comparison interface (600, 700), wherein the comparison result (602, 604) includes the first user selection and the second user selection; and selectively displaying a statistical summary of the comparison results, wherein the multiple disparate navigation databases (504, 506) comprise at least two cycles of information for a flight management system of an aircraft. displaying a comparison interface (600, 700) using a data structure comprising a plurality of nodes (610, 716, 722) wherein each of the plurality of nodes (610, 716, 722) is related to a specific data type and a data architecture for supporting integration of multiple disparate navigation databases (504, 506); displaying an options box within the comparison interface (600, 700); receiving, by a controller module, a first user selection related to a first database of the multiple disparate navigation databases (504, 506); receiving, by the controller module, a second user selection related to a second database of the multiple disparate navigation databases (504, 506), the second database distinct from the first database; comparing, by the controller module, first data in the first database to second data in the second database, wherein the first data and the second data correspond to the at least one of the plurality of nodes (610, 716, 722) selected in the options box and are a same specific data type from each of the first database and the second database; displaying a comparison result (602, 604) within the comparison interface (600, 700), wherein the comparison result (602, 604) includes the first user selection and the second user selection; and selectively displaying a statistical summary of the comparison results, wherein the multiple disparate navigation databases (504, 506) comprise at least two cycles of information for a flight management system of an aircraft.
Method for calibrating an injector, the injector comprising an injector assembly and an actor, the injector assembly comprising a double-tube-shaped fluid pipe and an injector cover having a fluid connection of the injector and having a fluid line of the injector cover which communicates with the fluid connection of the injector, the injector cover being at least partly arranged in the double-tube-shaped fluid pipe, being characterized in that the injector cover and the double-tube-shaped fluid pipe are formed and arranged such that the relative axial position of the injector cover to the double-tube-shaped fluid pipe influences a fluid injection characteristic of the injector, the method comprising varying the relative axial position of the injector cover to the double-tube-shaped fluid pipe until the fluid injection characteristic of the injector corresponds to a given fluid injection characteristic.
A snow removal device comprising: a chassis supporting a power unit; a mobility assembly operably coupled to the chassis to provide mobility for the snow removal device responsive to power provision from the power unit; a working assembly configured to move snow to an ejection path responsive to power provision from the power unit; and a chute assembly forming a portion of the ejection path, the chute assembly comprising a chute and a deflector, wherein the chute is rotatable via a chute rotator configured to provide at least 360 degree automated rotation of the chute, and wherein an orientation of the deflector is changeable via automated pivoting of the deflector via an electrically operable deflector adjuster; wherein the chute rotator comprises a contact plate assembly configured to rotate with the chute and interface with a brush assembly (130, 132) to provide power from the power unit to the deflector adjuster. a chassis supporting a power unit; a mobility assembly operably coupled to the chassis to provide mobility for the snow removal device responsive to power provision from the power unit; a working assembly configured to move snow to an ejection path responsive to power provision from the power unit; and a chute assembly forming a portion of the ejection path, the chute assembly comprising a chute and a deflector, wherein the chute is rotatable via a chute rotator configured to provide at least 360 degree automated rotation of the chute, and wherein an orientation of the deflector is changeable via automated pivoting of the deflector via an electrically operable deflector adjuster; wherein the chute rotator comprises a contact plate assembly configured to rotate with the chute and interface with a brush assembly (130, 132) to provide power from the power unit to the deflector adjuster.
A method for operating a chat bot platform, the method comprising: receiving, from a bot client, an input associated with an intent; storing the input associated with the intent as part of a user profile maintained at the chat bot platform; selecting, according to the intent of the input, a bot from a plurality of bots (415A, 415B, 415C) communicatively connected to the chat bot platform to respond to the bot client; passing the input to the selected bot; receiving an error condition from the selected bot, the error condition indicating a failure to accurately resolve the intent; updating a log based on the error condition; selecting, according to the intent of the input, a second bot from the plurality of bots (415A, 415B, 415C) communicatively connected to the chat bot platform based on the updated log to respond to the bot client; and passing the input to the second bot. receiving, from a bot client, an input associated with an intent; storing the input associated with the intent as part of a user profile maintained at the chat bot platform; selecting, according to the intent of the input, a bot from a plurality of bots (415A, 415B, 415C) communicatively connected to the chat bot platform to respond to the bot client; passing the input to the selected bot; receiving an error condition from the selected bot, the error condition indicating a failure to accurately resolve the intent; updating a log based on the error condition; selecting, according to the intent of the input, a second bot from the plurality of bots (415A, 415B, 415C) communicatively connected to the chat bot platform based on the updated log to respond to the bot client; and passing the input to the second bot.
A communication device with frequency-shift keying, the communication device comprising: a modulation circuit configured to modulate a digital input signal; and a frequency synthesizer configured to receive an output of the modulation circuit and to output a frequency-shift keying signal comprising a packet, wherein the packet comprises a preamble and an other portion; characterized wherein the modulation circuit is configured to adjust modulation to cause the preamble to have a first modulation index and the other portion to have a second modulation index, and wherein the second modulation index has a greater magnitude than the first modulation index. a modulation circuit configured to modulate a digital input signal; and a frequency synthesizer configured to receive an output of the modulation circuit and to output a frequency-shift keying signal comprising a packet, wherein the packet comprises a preamble and an other portion;
An assembly adapted to manage and print diagnostic reports of emergency lighting systems, said emergency lighting systems comprising at least two emergency lighting fixtures that are interconnected by means of a specific data transceiving channel, said assembly comprising at least one control and management unit provided with at least one RS-485 port adapted to be connected to components of the type of printers, display screens, diagnostic devices and the like, at least one port adapted to be connected to an LAN network, at least one RS-232 port adapted to be connected to components of the type of printers, modems and other devices, said at least one control and management unit being connected, optionally with the interposition of other devices, to said data transceiving channel so as to be interconnected with of said emergency lighting fixtures by means of said at least one RS-485 port; said at least one control and management unit further comprising at least one USB port adapted to be connected to personal computers, diagnostic equipment, handheld computers and the like; said assembly being characterized in that it further comprises: at least one emergency lighting diagnostic device adapted to run functional tests on the emergency lighting fixtures, to generate diagnostic reports and to send said diagnostic reports to said at least one control and management unit, said at least one emergency lighting diagnostic device being arranged along a respective data transceiving channel and being interposed between said at least one control and management unit and said emergency lighting fixtures on the respective data transceiving channel; and a transceiving device, of the type of a modem, a telephone dialer, a GSM module and the like, connected to the RS-232 port, said transceiving device being further adapted to send and receive data strings that correspond to redefined information of said diagnostic reports, to personal computers, cellular telephones, smartphones, computers, tablets, operations centers, remote servers and the like. at least one emergency lighting diagnostic device adapted to run functional tests on the emergency lighting fixtures, to generate diagnostic reports and to send said diagnostic reports to said at least one control and management unit, said at least one emergency lighting diagnostic device being arranged along a respective data transceiving channel and being interposed between said at least one control and management unit and said emergency lighting fixtures on the respective data transceiving channel; and a transceiving device, of the type of a modem, a telephone dialer, a GSM module and the like, connected to the RS-232 port, said transceiving device being further adapted to send and receive data strings that correspond to redefined information of said diagnostic reports, to personal computers, cellular telephones, smartphones, computers, tablets, operations centers, remote servers and the like.
A computer-readable medium having embodied therein computer-readable instructions for implementing a method for optimizing quality of streaming data transmitted between a first node and a second node over a network, the streaming data including one or more frame groups, each frame group containing a plurality of frames including an intra frame (I-frame) and a number P, equal to one or more, predictive frames (P-frames) that reference the I-frame, the method comprising: sequentially transmitting frames of a transmission queue containing one or more frames from a frame group from the first node to the second node; when a new I-frame of a subsequent frame group is queued for transmission, dropping from the transmission queue any frames in the transmission queue that have not already been transmitted, except for a currently transmitting I-frame; characterized by: determining a number of P-frames that were dropped from the transmission queue; and for the subsequent frame group: generating a transmission queue from the subsequent frame group; dropping between 0 and P P-frames from the transmission queue generated from the subsequent frame group based on how many P-frames were dropped from the transmission queue for a frame group preceding the subsequent frame group; and sequentially transmitting frames of the transmission queue for the subsequent frame group, comprising frames which were not dropped by the dropping step, from the first node to the second node. sequentially transmitting frames of a transmission queue containing one or more frames from a frame group from the first node to the second node; when a new I-frame of a subsequent frame group is queued for transmission, dropping from the transmission queue any frames in the transmission queue that have not already been transmitted, except for a currently transmitting I-frame; determining a number of P-frames that were dropped from the transmission queue; and for the subsequent frame group: generating a transmission queue from the subsequent frame group; dropping between 0 and P P-frames from the transmission queue generated from the subsequent frame group based on how many P-frames were dropped from the transmission queue for a frame group preceding the subsequent frame group; and sequentially transmitting frames of the transmission queue for the subsequent frame group, comprising frames which were not dropped by the dropping step, from the first node to the second node. generating a transmission queue from the subsequent frame group; dropping between 0 and P P-frames from the transmission queue generated from the subsequent frame group based on how many P-frames were dropped from the transmission queue for a frame group preceding the subsequent frame group; and sequentially transmitting frames of the transmission queue for the subsequent frame group, comprising frames which were not dropped by the dropping step, from the first node to the second node.
A method for producing fibers comprising the steps of electroblowing a polymer solution from a spinneret having a spinning nozzle with an outlet end, wherein the polymer solution comprises at least one polymer and at least one solvent, wherein the electroblowing comprises the steps of: a) discharging the polymer solution from the spinning nozzle into an electric field while injecting gas from a gas nozzle located proximate to the outlet end of the spinning nozzle; b) forming a polymer stream containing polymer fibers from the discharged polymer solution, evaporating solvent and depositing the polymer fibers onto a collector; and wherein the polymer stream passes through a first zone that is held at a first average temperature T1 for a first residence time, and then subsequently passes through a second zone, that is held at a second average temperature T2 for a second residence time, and wherein the second temperature T2 is higher than the first temperature T1. a) discharging the polymer solution from the spinning nozzle into an electric field while injecting gas from a gas nozzle located proximate to the outlet end of the spinning nozzle; b) forming a polymer stream containing polymer fibers from the discharged polymer solution, evaporating solvent and depositing the polymer fibers onto a collector; and
A method (300, 400) for evaluating a component, the component having an exterior surface with a reference feature on the exterior surface, the method (300, 400) comprising: determining (310, 410) an initial condition of the reference feature; subjecting the (320, 332, 420) component to at least one duty cycle after determining (310, 410) the initial condition; determining (340, 450) a subsequent condition of the reference feature after the at least one duty cycle, while the component is in a service position; and forming (312, 330) a replicate of the reference feature, wherein forming the replicate includes forming an impression of the reference feature in a putty while the reference feature is in the initial condition prior to the step of subjecting (320, 332, 420) the component to at least one duty cycle; wherein the step of determining (310, 410) the initial condition of the reference feature is based on the replicate of the reference feature; the method further comprising comparing (350, 352) the subsequent condition of the reference feature to the initial condition of the reference feature by comparing the replicate of the reference feature to the subsequent condition of the reference feature: wherein the step of determining (340, 450) the subsequent condition of the reference feature comprises determining whether the reference feature fits the impression. determining (310, 410) an initial condition of the reference feature; subjecting the (320, 332, 420) component to at least one duty cycle after determining (310, 410) the initial condition; determining (340, 450) a subsequent condition of the reference feature after the at least one duty cycle, while the component is in a service position; and forming (312, 330) a replicate of the reference feature, wherein forming the replicate includes forming an impression of the reference feature in a putty while the reference feature is in the initial condition prior to the step of subjecting (320, 332, 420) the component to at least one duty cycle; wherein the step of determining (310, 410) the initial condition of the reference feature is based on the replicate of the reference feature; the method further comprising comparing (350, 352) the subsequent condition of the reference feature to the initial condition of the reference feature by comparing the replicate of the reference feature to the subsequent condition of the reference feature: wherein the step of determining (340, 450) the subsequent condition of the reference feature comprises determining whether the reference feature fits the impression.
A communication system, comprising: a first unit configured to clock an encoded data stream onto a data interface using a modulated signal, wherein the first unit is configured to adjust a rate of data being transmitted on the data interface to match the capability of the data interface; and at least one second unit configured to receive the modulated signal and encoded data stream from the first unit, the at least one second unit including: a circuit configured to generate a jitter reduced clock signal by removing jitter from a recovered clock signal wherein the jitter reduced clock signal tracks long-term drift in the modulated signal, wherein the at least one second unit is configured to generate the recovered clock signal from the modulated signal. a first unit configured to clock an encoded data stream onto a data interface using a modulated signal, wherein the first unit is configured to adjust a rate of data being transmitted on the data interface to match the capability of the data interface; and at least one second unit configured to receive the modulated signal and encoded data stream from the first unit, the at least one second unit including: a circuit configured to generate a jitter reduced clock signal by removing jitter from a recovered clock signal wherein the jitter reduced clock signal tracks long-term drift in the modulated signal, wherein the at least one second unit is configured to generate the recovered clock signal from the modulated signal.
Self-propelled combine harvester comprising a harvesting front attachment having at least conveying and separating elements and a hydraulic system with at least two hydraulic circuits (1, 7, 18, 20, 21), wherein the two hydraulic circuits (1, 7, 18, 20, 21) are each assigned hydraulic pumps (2, 8), wherein, within the framework of a structural unit, a drive of a fixed displacement pump (16, 23) co-operating with a first hydraulic circuit (1, 21) is connected exclusively to an output of a fixed displacement motor (15, 22) assigned to the second hydraulic circuit (7, 20) and wherein hydraulic consumers (2, 24) are arranged inside the first hydraulic circuit (1, 21), wherein further consumers (11, 24) are arranged in the second hydraulic circuit (7, 20) next to the fixed displacement motor (15, 22) and wherein the structural unit is formed as a pressure intensifier (14, 19) with which the hydraulic performances of both hydraulic circuits (1, 7, 18, 20, 21) can be balanced automatically, wherein the second hydraulic circuit (7, 20) is provided for a working hydraulics system of the self-propelled combine harvester, while the first hydraulic circuit (1, 18, 21) is a component of a hydrostatic drive for the conveying and separating elements of a harvesting front attachment of the self-propelled combine harvester, and wherein the drive of the fixed displacement pump (16, 23) can be decoupled from the output of the fixed displacement motor (15, 22) by a freewheel mechanism provided in a mechanical drive connection when a relatively large volume flow is conveyed in the first hydraulic circuit (1, 21) assigned to the fixed displacement pump (16, 23), whereas the volume flow at the fixed displacement motor (15, 22) is greatly reduced or blocked.
A balanced pressure regulator (110, 210), comprising: a valve body (120, 220) having a fluid inlet (122, 222) and a fluid outlet (124, 224) connected by a fluid passageway (126, 226); a valve seat (130, 230) disposed within the fluid passageway; a valve plug (138, 238) at least partially disposed within the fluid passageway, the valve plug interacting with the valve seat to selectively open or close the fluid passageway; a retainer (142, 242) operatively connecting the valve plug to a valve stem; a bonnet (132, 232) having a cavity (140, 240) containing a load spring (134, 234), the load spring connected to the valve stem; a diaphragm (139, 239) separating a chamber (148, 248) from the fluid passageway; a balancing passage (146, 246) that fluidly connects the fluid passageway with the chamber, the chamber being located between the valve plug and the cavity; and a balancing tube (160, 260) extending outward, away from the retainer (142, 242), the balancing tube fluidly connecting the fluid passageway with the balancing passage. a valve body (120, 220) having a fluid inlet (122, 222) and a fluid outlet (124, 224) connected by a fluid passageway (126, 226); a valve seat (130, 230) disposed within the fluid passageway; a valve plug (138, 238) at least partially disposed within the fluid passageway, the valve plug interacting with the valve seat to selectively open or close the fluid passageway; a retainer (142, 242) operatively connecting the valve plug to a valve stem; a bonnet (132, 232) having a cavity (140, 240) containing a load spring (134, 234), the load spring connected to the valve stem; a diaphragm (139, 239) separating a chamber (148, 248) from the fluid passageway; a balancing passage (146, 246) that fluidly connects the fluid passageway with the chamber, the chamber being located between the valve plug and the cavity; and a balancing tube (160, 260) extending outward, away from the retainer (142, 242), the balancing tube fluidly connecting the fluid passageway with the balancing passage.