mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: providing first and second security systems, wherein the first security system detects threats within a first secured geographic area, the second security system detects threats within a second secured geographic area, and the first and second security systems both report detected threats to a central monitoring station; the first security system sending a notification to the second security system through the central monitoring station after receiving and validating a personal identification received from a first user, and selecting a person to be placed in control of the first security system wherein the notification gives control of the first security system by the second security system the second security system receiving the notification; in response to the second security system receiving the notification, the second security system receiving and authorizing the PIN from a second user; in response to the second security system validating the PIN received from the second user, the central monitoring station forming a control connection between the first and second security systems; and the second security system controlling the first security system through a user interface of the second security system. providing first and second security systems, wherein the first security system detects threats within a first secured geographic area, the second security system detects threats within a second secured geographic area, and the first and second security systems both report detected threats to a central monitoring station; the first security system sending a notification to the second security system through the central monitoring station after receiving and validating a personal identification received from a first user, and selecting a person to be placed in control of the first security system wherein the notification gives control of the first security system by the second security system the second security system receiving the notification; in response to the second security system receiving the notification, the second security system receiving and authorizing the PIN from a second user; in response to the second security system validating the PIN received from the second user, the central monitoring station forming a control connection between the first and second security systems; and the second security system controlling the first security system through a user interface of the second security system.
A method of adjusting track and balance of a rotary blade, comprising: receiving data indicating track and balance of a rotary blade of interest, wherein the data are indicative of current track and balance performance of the rotary blade of interest; determining an expected track and balance performance level based on the received data and also on an unconstrained adjustment solution provided by a rotor trim adjustment algorithm; receiving a constraint, wherein the constraint includes one or more user-selected trimming adjustments for exclusion from a constrained adjustment solution provided by the rotor trim adjustment algorithm; determining, via the rotor trim adjustment algorithm, a second performance level of the rotary blade of interest based on the received constraint and the received data, wherein the second performance level is an expected track and balance performance obtained by trimming the rotary blade of interest according to a constrained-adjustment solution provided by the rotor trim adjustment algorithm; and displaying on a display unit the data indicative of the current track and balance performance of the aircraft, the expected track and balance performance level, and the second performance level for visualizing differences between the expected track and balance performance level and the second performance level; and trimming the rotary blade using the constrained adjustment solution. receiving data indicating track and balance of a rotary blade of interest, wherein the data are indicative of current track and balance performance of the rotary blade of interest; determining an expected track and balance performance level based on the received data and also on an unconstrained adjustment solution provided by a rotor trim adjustment algorithm; receiving a constraint, wherein the constraint includes one or more user-selected trimming adjustments for exclusion from a constrained adjustment solution provided by the rotor trim adjustment algorithm; determining, via the rotor trim adjustment algorithm, a second performance level of the rotary blade of interest based on the received constraint and the received data, wherein the second performance level is an expected track and balance performance obtained by trimming the rotary blade of interest according to a constrained-adjustment solution provided by the rotor trim adjustment algorithm; and displaying on a display unit the data indicative of the current track and balance performance of the aircraft, the expected track and balance performance level, and the second performance level for visualizing differences between the expected track and balance performance level and the second performance level; and trimming the rotary blade using the constrained adjustment solution.
A cassette comprising: an optical circuit including a foil and a plurality of coated fiber optic cables supported by the foil; wherein the fiber optic cables include a first plurality of optical fibers that connect between two multi-fiber connectors, and a second plurality of optical fibers that only connect to one multi-fiber connector, wherein the second plurality of optical fibers are dark fibers; wherein two multi-fiber connectors are connected to three multi-fiber connectors, wherein the two multi-fiber connectors include all active fibers connecting to the three multi-fiber connectors, and wherein the three multi-fiber connectors further include dark fibers only connected to the three multi-fiber connectors; wherein the two multi-fiber connectors face in a first direction, and the three multi-fiber connectors face in an opposite direction; wherein the two multi-fiber connectors and the three multi-fiber connectors include multiples of twelve fibers; wherein the multi-fiber connectors are connected to fiber optic adapters that are part of the cassette. an optical circuit including a foil and a plurality of coated fiber optic cables supported by the foil; wherein the fiber optic cables include a first plurality of optical fibers that connect between two multi-fiber connectors, and a second plurality of optical fibers that only connect to one multi-fiber connector, wherein the second plurality of optical fibers are dark fibers; wherein two multi-fiber connectors are connected to three multi-fiber connectors, wherein the two multi-fiber connectors include all active fibers connecting to the three multi-fiber connectors, and wherein the three multi-fiber connectors further include dark fibers only connected to the three multi-fiber connectors; wherein the two multi-fiber connectors face in a first direction, and the three multi-fiber connectors face in an opposite direction; wherein the two multi-fiber connectors and the three multi-fiber connectors include multiples of twelve fibers; wherein the multi-fiber connectors are connected to fiber optic adapters that are part of the cassette.
A system for use in an R-PHY architecture, the system comprising: a Cable Modem Termination System, CMTS, core having a first slave clock configured to be synchronized with a grandmaster timer; a Remote PHY Device, RPD, having a second slave clock configured to be synchronized with the grandmaster timer; wherein the core and the RPD are configured to exchange at least one timing parameter; and wherein one of the core and RPD is configured to renew synchronization with the grandmaster timer; at least one of the core and the RPD is configured to regain synchronization with the grandmaster timer in both phase and frequency, after losing synchronization with the grandmaster timer, by using the exchanged at least one timing parameter to automatically select one of a phase step adjustment and a gradual change in a frequency difference relative to the grandmaster timer over a period of time. a Cable Modem Termination System, CMTS, core having a first slave clock configured to be synchronized with a grandmaster timer; a Remote PHY Device, RPD, having a second slave clock configured to be synchronized with the grandmaster timer; wherein the core and the RPD are configured to exchange at least one timing parameter; and wherein one of the core and RPD is configured to renew synchronization with the grandmaster timer; at least one of the core and the RPD is configured to regain synchronization with the grandmaster timer in both phase and frequency, after losing synchronization with the grandmaster timer, by using the exchanged at least one timing parameter to automatically select one of a phase step adjustment and a gradual change in a frequency difference relative to the grandmaster timer over a period of time.
Touch-sensitive slide switch (1, 1.4, 1.5) comprising a switching surface (4, 4.4, 4.5) having haptic characteristics, wherein the slide switch (1, 1.4, 1.5) is configured such that it converts contact and/or movement on the switching surface (4, 4.4, 4.5) into an electrical signal, characterized in that the haptic characteristics on the switching surface are configured as transverse ribs, wherein the distance between the transverse ribs decreases in longitudinal direction of the switching surface, so that the user recognizes by touching at which position of the slide switch his finger is positioned on the switching surface and whether he thus increases or decreases the target value for the parameter to be set.
Process for the production of a thermoplastic moulding composition in an extruder, which has at least one screw with an external diameter, where a thermoplastic component, comprising at least one thermoplastic polymer, and component, comprising a graft polymer based on butadiene and/or on acrylate, are heated by introduction of thermal energy and/or mechanical energy in a melting section of the extruder and/or in at least one mixing section of the extruder to a temperature of 200°C to 280°C, melted and mixed, thus forming the thermoplastic moulding composition, and the thermoplastic moulding composition is then devolatilized in a devolatilization zone of the extruder, said zone having at least one devolatilization aperture, where an absolute pressure below 2 bar is established in the devolatilization zone of the extruder, and after the devolatilization, the thermoplastic moulding composition is conveyed by means of screw elements to a melt pump, where the total length of the screw elements of a region of conveying from the at least one devolatilization aperture to the melt pump is less than four times the external diameter of the at least one screw, where the region of conveying is the region between the downstream end of the devolatilization aperture and the end of the final screw element. are heated by introduction of thermal energy and/or mechanical energy in a melting section of the extruder and/or in at least one mixing section of the extruder to a temperature of 200°C to 280°C, melted and mixed, thus forming the thermoplastic moulding composition, and the thermoplastic moulding composition is then devolatilized in a devolatilization zone of the extruder, said zone having at least one devolatilization aperture, where an absolute pressure below 2 bar is established in the devolatilization zone of the extruder, and after the devolatilization, the thermoplastic moulding composition is conveyed by means of screw elements to a melt pump, where the total length of the screw elements of a region of conveying from the at least one devolatilization aperture to the melt pump is less than four times the external diameter of the at least one screw, where the region of conveying is the region between the downstream end of the devolatilization aperture and the end of the final screw element.
Equalizing device configured to process a digital signal derived from an optical signal transmitted over a channel, the equalizing device comprising a first 2x2 multiple input multiple output, MIMO, equalizer configured to perform a first equalization on the digital signal, supported by a 2x2 MIMO channel estimation of the channel based on the digital signal, and characterised in that the equalising device comprises: a second 2x2 MIMO equalizer, arranged after the first equalizer, configured to perform a second equalization on the digital signal, supported by a state of polarization, SOP, estimation of the optical signal based on the digital signal.
A cosmetic or skin care composition comprising magnetosomes and a cosmetically acceptable adjuvant, wherein the magnetosomes are isolated from a magnetotactic microorganism and wherein the cosmetically acceptable adjuvant is selected from the group consisting of fillers, UVA and/or UVB sunscreens, thixotropic agents, antioxidants, dyes, pigments, fragrances, thickeners, vitamins, moisturizers, and nonionic or amphoteric polymers.
A preparation method of a wear-resistant layer on the inner wall of a hole in a hook claw of a control rod driving mechanism for increasing the pass rate of a product which comprises the hook claw of a control rod driving mechanism, used to obtain a wear-resistant layer on the surface of a prefabricated hole in a part which comprises the hook claw of a control rod driving mechanism, and finally obtain a hole with an inner diameter of D and a wear-resistant layer on the hole wall on the part, characterized in that, the preparation method comprises the following steps: S1, drilling a hole with an inner diameter of D1 on the part, and D1 > D, to obtain the prefabricated hole; obtaining a filler core rod for welding, and the outer diameter of the filler core rod is less than D1 and greater than D, leaving a gap between the prefabricated hole and the filler core rod; S2, embedding the filler core rod into the prefabricated hole, and filling the gap between the filler core rod and the prefabricated hole by filling welding or self-fusion welding; S3, drilling the hole with the inner diameter of D on the filler core rod, therefore, the filler core rod provides all the hole wall for the hole with the inner diameter of D, and the material of the filler core rod is acted as the material of the wear-resistant layer. S1, drilling a hole with an inner diameter of D1 on the part, and D1 > D, to obtain the prefabricated hole; obtaining a filler core rod for welding, and the outer diameter of the filler core rod is less than D1 and greater than D, leaving a gap between the prefabricated hole and the filler core rod; S2, embedding the filler core rod into the prefabricated hole, and filling the gap between the filler core rod and the prefabricated hole by filling welding or self-fusion welding; S3, drilling the hole with the inner diameter of D on the filler core rod, therefore, the filler core rod provides all the hole wall for the hole with the inner diameter of D, and the material of the filler core rod is acted as the material of the wear-resistant layer.
A method for diffusing channel timing among a plurality of subscriber units operating in Time Division Multiple Access (TDMA) Direct Mode, the method comprising a first one of the subscriber units operating in the TDMA Direct Mode and performing: receiving, from a second one of the subscriber units operating in the TDMA Direct Mode, a first message; determining a first channel timing from the received first message along with a sync age and a generation number of the second subscriber unit; determining whether the received first channel timing is correct, wherein the determining whether the received first channel timing is correct is based at least on comparing a generation number of the first subscriber unit with the generation number of the second subscriber unit; when the received first channel timing is correct, starting a random delay; upon expiration of the random delay, transmitting a first forced propagation message to propagate the first channel timing to at least a third one of the subscriber units operating in the TDMA Direct Mode and having a higher generation number than the generation numbers of the first and the second subscriber units; receiving before the expiration of the random delay, from one of the subscriber units operating in the TDMA Direct Mode and having the same or a higher generation number than the first subscriber unit, a second forced propagation message that includes the first channel timing; and withholding the transmission of the first forced propagation message with the first channel timing. receiving, from a second one of the subscriber units operating in the TDMA Direct Mode, a first message; determining a first channel timing from the received first message along with a sync age and a generation number of the second subscriber unit; determining whether the received first channel timing is correct, wherein the determining whether the received first channel timing is correct is based at least on comparing a generation number of the first subscriber unit with the generation number of the second subscriber unit; when the received first channel timing is correct, starting a random delay; upon expiration of the random delay, transmitting a first forced propagation message to propagate the first channel timing to at least a third one of the subscriber units operating in the TDMA Direct Mode and having a higher generation number than the generation numbers of the first and the second subscriber units; receiving before the expiration of the random delay, from one of the subscriber units operating in the TDMA Direct Mode and having the same or a higher generation number than the first subscriber unit, a second forced propagation message that includes the first channel timing; and withholding the transmission of the first forced propagation message with the first channel timing.
A method for generating a first language model, said method comprising steps of: (a) obtaining a non-literal transcript from a spoken audio stream; (a) identifying text in the non-literal transcript representing a concept having a plurality of spoken forms; (b) identifying a name of the identified text; (b) using the identified name to identify a corresponding context-free grammar in a grammar repository of finite-state grammars, wherein the corresponding context-free grammar includes the plurality of spoken forms of the concept, and wherein the spoken forms are paired with probabilities of occurrence of those spoken forms; (b) replacing the identified text with the corresponding context-free grammar to produce a grammar version of the non-literal transcript (316, 710); and (c) generating a first language model based on the grammar version of the non-literal transcript (316, 710). (a) obtaining a non-literal transcript from a spoken audio stream; (a) identifying text in the non-literal transcript representing a concept having a plurality of spoken forms; (b) identifying a name of the identified text; (b) using the identified name to identify a corresponding context-free grammar in a grammar repository of finite-state grammars, wherein the corresponding context-free grammar includes the plurality of spoken forms of the concept, and wherein the spoken forms are paired with probabilities of occurrence of those spoken forms; (b) replacing the identified text with the corresponding context-free grammar to produce a grammar version of the non-literal transcript (316, 710); and (c) generating a first language model based on the grammar version of the non-literal transcript (316, 710).
An implantable device (100, 1011) for stimulating the smooth muscles or nerves inside the body, comprising: a. a stimulator (103, 1015) for generating pulses and delivering the generated pulses to said smooth muscles or nerve through a stimulating electrode (201a, 201b, 201c, 1018, 1218, 1318, 1418, 1718); b. an anchoring unit (1016, 1416, 1905a) attached to said stimulator, wherein said anchoring unit has a pre-deployment shape and a post deployment shape and wherein said post deployment shape is different than the pre-deployment shape and wherein said anchoring unit anchors said stimulator to an implant site proximate to said smooth muscles or nerve; c. a power source; d. a microcontroller (102, 1012) for instructing the stimulator to selectively generate said pulses, the microcontroller comprising a programmable memory for storing stimulation parameters and e. a sensor module with a sensing electrode, characterized in that the sensor module is adapted to detect a swallow by measuring peristaltic flow and in that the device is programmed to start stimulating the esophagus or lower esophageal sphincter a fixed duration of time after the onset of a swallow based on a patient's desired caloric intake. a. a stimulator (103, 1015) for generating pulses and delivering the generated pulses to said smooth muscles or nerve through a stimulating electrode (201a, 201b, 201c, 1018, 1218, 1318, 1418, 1718); b. an anchoring unit (1016, 1416, 1905a) attached to said stimulator, wherein said anchoring unit has a pre-deployment shape and a post deployment shape and wherein said post deployment shape is different than the pre-deployment shape and wherein said anchoring unit anchors said stimulator to an implant site proximate to said smooth muscles or nerve; c. a power source; d. a microcontroller (102, 1012) for instructing the stimulator to selectively generate said pulses, the microcontroller comprising a programmable memory for storing stimulation parameters and e. a sensor module with a sensing electrode, characterized in that the sensor module is adapted to detect a swallow by measuring peristaltic flow and in that the device is programmed to start stimulating the esophagus or lower esophageal sphincter a fixed duration of time after the onset of a swallow based on a patient's desired caloric intake.
A phosphor lighting apparatus (2, 102, 302, 402, 502, 602, 1102, 1202) comprising: at least one first element (4, 104, 304, 404, 504, 604, 1104, 1204, 1304) that emits light comprising a peak emission wavelength between at least about 411nm to up to 419nm; characterized in that the at least one first element emits light with a full width at half maximum (FWHM) of up to 10 nm, wherein the light emitted by the at least one first element comprises a lower FWHM wavelength that is above 405nm; and, at least one second element (6, 106, 306, 406, 506, 606, 1106, 1206, 1306) comprising a phosphor second element (6, 1006) that converts and outputs at least a portion of the light emitted by the at least one first element (4, 104, 304, 404, 504, 604, 1104, 1204, 1304), wherein a light output from the phosphor lighting apparatus comprises light emitted from the at least one first element (4, 104, 304, 404, 504, 604, 1104, 1204, 1304) and light emitted from the at least one second element (6, 106, 306, 406, 506, 606, 1106, 1206, 1306). at least one first element (4, 104, 304, 404, 504, 604, 1104, 1204, 1304) that emits light comprising a peak emission wavelength between at least about 411nm to up to 419nm; characterized in that the at least one first element emits light with a full width at half maximum (FWHM) of up to 10 nm, wherein the light emitted by the at least one first element comprises a lower FWHM wavelength that is above 405nm; and, at least one second element (6, 106, 306, 406, 506, 606, 1106, 1206, 1306) comprising a phosphor second element (6, 1006) that converts and outputs at least a portion of the light emitted by the at least one first element (4, 104, 304, 404, 504, 604, 1104, 1204, 1304), wherein a light output from the phosphor lighting apparatus comprises light emitted from the at least one first element (4, 104, 304, 404, 504, 604, 1104, 1204, 1304) and light emitted from the at least one second element (6, 106, 306, 406, 506, 606, 1106, 1206, 1306).