mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for direct messaging between one or more robotic process automation, RPA, platforms (108, 260) including software robots, and an autonomic platform (104, 200), AP, the method comprising: receiving, by a platform-specific adapter (142_n, 220), data from a RPA platform of a plurality of RPA platforms the AP interacts with, wherein the platform-specific adapter is installed on the RPA platform, and the platform-specific adaptor is specific to the RPA platform; if the data indicates the occurrence of a scenario, a scenario being an occurrence for which an occurrence message is to be sent to the AP: providing, by an application programming interface, API, of the platform-specific adapter, the occurrence message responsive to the occurrence of the scenario; and transmitting, by the API, the occurrence message directly to the AP through a first channel bypassing messaging queues provided by a platform data module of the platform-specific adapter; and if the data does not indicate the occurrence of a scenario, transmitting, by the platform-specific adapter, a set of messages, different from the occurrence message, to the AP through the message queues of the platform data module to a second channel that is separate from the first channel, the set of messages communicating tagged data records. receiving, by a platform-specific adapter (142_n, 220), data from a RPA platform of a plurality of RPA platforms the AP interacts with, wherein the platform-specific adapter is installed on the RPA platform, and the platform-specific adaptor is specific to the RPA platform; if the data indicates the occurrence of a scenario, a scenario being an occurrence for which an occurrence message is to be sent to the AP: providing, by an application programming interface, API, of the platform-specific adapter, the occurrence message responsive to the occurrence of the scenario; and transmitting, by the API, the occurrence message directly to the AP through a first channel bypassing messaging queues provided by a platform data module of the platform-specific adapter; and providing, by an application programming interface, API, of the platform-specific adapter, the occurrence message responsive to the occurrence of the scenario; and transmitting, by the API, the occurrence message directly to the AP through a first channel bypassing messaging queues provided by a platform data module of the platform-specific adapter; and if the data does not indicate the occurrence of a scenario, transmitting, by the platform-specific adapter, a set of messages, different from the occurrence message, to the AP through the message queues of the platform data module to a second channel that is separate from the first channel, the set of messages communicating tagged data records.
A method of determining the position of a mobile device, comprising: receiving at the mobile device a plurality of Automatic Dependent Surveillance-Broadcast (ADS-B) messages under the 1090ES protocol from a respective plurality of mobile ADS-B broadcasting devices; determining a time of reception of each of the ADS-B messages received at the mobile device; determining a time of transmission of each of the ADS-B messages received at the mobile device from information contained within a field of respective subsequent messages received in transmissions from the respective mobile ADS-B broadcasting devices subsequently to the respective ADS-B messages; and determining a position of the mobile device via multi-lateration based on the time of transmission and the time of reception of the ADS-B messages and position information for the mobile ADS-B broadcasting devices contained in the ADS-B messages received at the mobile device. receiving at the mobile device a plurality of Automatic Dependent Surveillance-Broadcast (ADS-B) messages under the 1090ES protocol from a respective plurality of mobile ADS-B broadcasting devices; determining a time of reception of each of the ADS-B messages received at the mobile device; determining a time of transmission of each of the ADS-B messages received at the mobile device from information contained within a field of respective subsequent messages received in transmissions from the respective mobile ADS-B broadcasting devices subsequently to the respective ADS-B messages; and determining a position of the mobile device via multi-lateration based on the time of transmission and the time of reception of the ADS-B messages and position information for the mobile ADS-B broadcasting devices contained in the ADS-B messages received at the mobile device.
An antioxidant antiwear extreme pressure composition comprising: (a) methylenebis(di-n-butyldithiocarbamate) and (b) 1-[di-(4-octylphenyl)aminomethyl]tolutriazole, wherein the (a):(b) mass percent ratio ranges from 11.3:1 to 38:1. (a) methylenebis(di-n-butyldithiocarbamate) and (b) 1-[di-(4-octylphenyl)aminomethyl]tolutriazole,
A print mark sensor for evaluating print marks of detection objects, having at least one light transmitter and at least one light receiver having a control and evaluation unit for evaluating a light receiver signal of the light receiver, having an output for a sensor signal that is formed by the control and evaluation unit on the basis of the light receiver signal, wherein an electronic memory is present, characterized in that a plurality of consecutively detected light receiver signals of a plurality of consecutively detected print marks are stored wherein the control and evaluation unit is configured to evaluate the plurality of light receiver signals of a plurality of consecutively detected print marks and to generate results data and/or parameters from the time progression of these light receiver signals that enable conclusions on an environment of the print mark sensor, on the detection objects, on the print marks and/or on a printing process, and wherein the light transmitter, the light receiver, and the control and evaluation unit are arranged in a common sensor housing.
Pelleting device, in particular for a field-guided mobile stalk-crop harvesting machine with a built-in diesel engine, a means for preheating the stalk material fed from a chopper with the waste heat of the diesel engine, a screw conveyor for the stalk material and with a pelleting device, whereby the diesel engine drives a current generator, which feeds drive motors and servomotors (11, 23) via switch devices, wherein the diesel engine also directly drives a ring die of a ring die pelleting press with at least one pan grinder roller, characterized in that a controller for the speed of the screw conveyor is one of the switch devices, which is governed by the load-dependent and variably-injected amount of fuel of the diesel engine that operates at constant speed and regulates the drive motor of the screw conveyor inversely proportionally to the injection amount to feed the ring die pelleting press.
A method comprising: providing a biomass conversion system comprising a pressurization zone and a digestion unit that are operatively connected to one another; providing a cellulosic biomass at a first pressure; introducing at least a portion of the cellulosic biomass into the pressurization zone and then pressurizing the pressurization zone to a second pressure that is higher than the first pressure; after pressurizing the pressurization zone, transferring at least a portion of the cellulosic biomass from the pressurization zone to the digestion unit, which is at a third pressure that is less than or equal to the second pressure but higher than the first pressure; and digesting at least a portion of the cellulosic biomass in the digestion unit to produce a hydrolysate comprising soluble carbohydrates within a liquor phase. providing a biomass conversion system comprising a pressurization zone and a digestion unit that are operatively connected to one another; providing a cellulosic biomass at a first pressure; introducing at least a portion of the cellulosic biomass into the pressurization zone and then pressurizing the pressurization zone to a second pressure that is higher than the first pressure; after pressurizing the pressurization zone, transferring at least a portion of the cellulosic biomass from the pressurization zone to the digestion unit, which is at a third pressure that is less than or equal to the second pressure but higher than the first pressure; and digesting at least a portion of the cellulosic biomass in the digestion unit to produce a hydrolysate comprising soluble carbohydrates within a liquor phase. providing a cellulosic biomass at a first pressure; introducing at least a portion of the cellulosic biomass into the pressurization zone and then pressurizing the pressurization zone to a second pressure that is higher than the first pressure; after pressurizing the pressurization zone, transferring at least a portion of the cellulosic biomass from the pressurization zone to the digestion unit, which is at a third pressure that is less than or equal to the second pressure but higher than the first pressure; and digesting at least a portion of the cellulosic biomass in the digestion unit to produce a hydrolysate comprising soluble carbohydrates within a liquor phase.
A chopped carbon fiber bundle comprising a carbon fiber bundle having a total fineness of from 25,000 dtex to 45,000 dtex (inclusive); and a sizing agent in an amount of from 1% by mass to 5% by mass (inclusive) relative to the total mass of the chopped carbon fiber bundle, wherein the length of the chopped carbon fiber bundle along the fiber direction of the carbon fiber bundle is from 1 mm to 50 mm (inclusive), the ratio (Dmax/Dmin) of the longest diameter (Dmax) and the shortest diameter (Dmin) of a cross-section perpendicular to the fiber direction of the chopped carbon fiber bundle is from 6.0 to 18.0 (inclusive), and the orientation parameter of the single fibers present at the surface of the chopped carbon fiber bundle is 4.0 or less as measured according to the method in the description under the heading " Measurement of orientation parameter".
A method of treating hydrogen sulfide in a stream, the method comprising: adding an effective amount of a composition to the stream, wherein the composition comprises a scavenger, the scavenger comprising an alkoxylated polyamino aldehyde adduct, wherein the adduct does not comprise a triazine, and reacting the hydrogen sulfide with the scavenger. adding an effective amount of a composition to the stream, wherein the composition comprises a scavenger, the scavenger comprising an alkoxylated polyamino aldehyde adduct, wherein the adduct does not comprise a triazine, and reacting the hydrogen sulfide with the scavenger.
An adjustable hinge for doors or windows, of the type comprising - a containment body, - a pintle supporting block inserted in a corresponding seat defined in said containment body, - a pintle, - means for adjusting the angular trim of said pintle supporting block with respect to said containment body about a rotation axis that is parallel to the axis of said pintle, - means for adjusting the position of said pintle supporting block with respect to said containment body in a direction that is parallel to said axis of said pintle, - means for adjusting the center distance between said rotation axis and said axis of said pintle, wherein said pintle supporting block has a part thereof that protrudes from the containment body, on said protruding part there being the corresponding openings (27 28, 29) for access to said angular trim adjustment means, to said means for adjusting the position in a direction that is parallel to the axis of the pintle, and to said means for adjusting said center distance wherein said means for adjusting the angular trim of said pintle supporting block with respect to said containment body about a rotation axis that is parallel to the axis of said pintle comprise an eccentric element, which, by operating it, produces the rotation of the pintle supporting block about the rotation axis, the adjustable hinge being characterized in that said containment body comprises two half-shells (21,22) which are closed onto each other so as to define said seat for said pintle supporting block; and in that the rotation about the axis is allowed by the presence, within the containment body, of two opposite calibrated shims (32, 33), an upper one and a lower one in the configuration for use of the hinge, on which a slider element coupled to the pintle supporting block can slide freely in constant resting contact. - a containment body, - a pintle supporting block inserted in a corresponding seat defined in said containment body, - a pintle, - means for adjusting the angular trim of said pintle supporting block with respect to said containment body about a rotation axis that is parallel to the axis of said pintle, - means for adjusting the position of said pintle supporting block with respect to said containment body in a direction that is parallel to said axis of said pintle, - means for adjusting the center distance between said rotation axis and said axis of said pintle,
Luminous device (OLT, ONT) intended for a WDM PON optical access network comprising a luminous source with an optical gain medium, whose wavelength self-tunes during an optical outward-return journey between the optical gain medium and a reflective optical component delimiting the laser cavity, characterized in that the reflective optical component is composed of an optical amplifier associated according to a reflective optical setup with a polarizing device determined so that the axis of polarization of the light reflected by the reflective optical component is the same as that of the light emitted by the luminous source.
A device, comprising: 1)a mouthpiece cover; 2)a housing; 3) a battery; 4)a silicone seal; 5)a limit cover; 6)a heating wire; 7)a seat fixing the heating wire; 8)a drain tube; 9)an e-liquid filling pipe; 10) a silicone sleeve; 11) a plate comprising a pneumatic switch; and 12) an end cover; wherein: the mouthpiece cover is disposed on the housing; the heating wire is fixed on the seat; the heating wire comprises a pin which extends into the drain tube; the silicone seal sleeves the limit cover; the limit cover comprises a groove and the heating wire is embedded in the groove; the limit cover is disposed on the seat; the drain tube and the e-liquid filling pipe are disposed in the seat; the pin of the heating wire is fixed on the plate; the plate comprises a cathode and an anode which are connected to the battery; the silicone sleeve sleeves the plate; the silicone sleeve and the plate are disposed in the end cover; the end cover comprises a groove, and one end of the drain tube extends into the groove. 1)a mouthpiece cover; 2)a housing; 3) a battery; 4)a silicone seal; 5)a limit cover; 6)a heating wire; 7)a seat fixing the heating wire; 8)a drain tube; 9)an e-liquid filling pipe; 10) a silicone sleeve; 11) a plate comprising a pneumatic switch; and 12) an end cover; the mouthpiece cover is disposed on the housing; the heating wire is fixed on the seat; the heating wire comprises a pin which extends into the drain tube; the silicone seal sleeves the limit cover; the limit cover comprises a groove and the heating wire is embedded in the groove; the limit cover is disposed on the seat; the drain tube and the e-liquid filling pipe are disposed in the seat; the pin of the heating wire is fixed on the plate; the plate comprises a cathode and an anode which are connected to the battery; the silicone sleeve sleeves the plate; the silicone sleeve and the plate are disposed in the end cover; the end cover comprises a groove, and one end of the drain tube extends into the groove.
A processor implemented method comprising the steps of: receiving, via one or more hardware processors, a set of training images as input; training, via the one or more hardware processors, an auto-encoder using the set of training images, wherein the auto-encoder comprises an encoder and a decoder; generating, via the one or more hardware processors, a set of latent embedding from the encoder of the trained auto-encoder, wherein the set of latent embedding comprises a set of shape embedding and a set of color embedding; computing, via the one or more hardware processors, an attribution score by calculating integrated gradient for each of the latent embedding amongst the set of latent embedding using a trained permutation invariant neural network, wherein the permutation invariant neural network is trained using the set of latent embedding from the encoder of the trained auto-encoder; identifying, via the one or more hardware processors, bias associated with the set of training images utilizing the attribution score for each of the latent embedding; generating, via the one or more hardware processors, a set of counterfactual images using the trained auto-encoder by modifying the set of latent embedding, wherein modifying the set of latent embedding is based on the calculated attribution score of the bias associated with the set of training images; and training, via the one or more hardware processors, classifiers for image classification using the set of training images and the set of counterfactual images. receiving, via one or more hardware processors, a set of training images as input; training, via the one or more hardware processors, an auto-encoder using the set of training images, wherein the auto-encoder comprises an encoder and a decoder; generating, via the one or more hardware processors, a set of latent embedding from the encoder of the trained auto-encoder, wherein the set of latent embedding comprises a set of shape embedding and a set of color embedding; computing, via the one or more hardware processors, an attribution score by calculating integrated gradient for each of the latent embedding amongst the set of latent embedding using a trained permutation invariant neural network, wherein the permutation invariant neural network is trained using the set of latent embedding from the encoder of the trained auto-encoder; identifying, via the one or more hardware processors, bias associated with the set of training images utilizing the attribution score for each of the latent embedding; generating, via the one or more hardware processors, a set of counterfactual images using the trained auto-encoder by modifying the set of latent embedding, wherein modifying the set of latent embedding is based on the calculated attribution score of the bias associated with the set of training images; and training, via the one or more hardware processors, classifiers for image classification using the set of training images and the set of counterfactual images.
A method (702, 802, 902, 1002, 1202) for transmitting data over an optical communication path, the method comprising: receiving a bitstream for transmission over the optical communication path; determining a sequence of sequential bits with a same first value in the bitstream, the sequence having a first size with a maximum number of bits while also having a corresponding first transmission power that does not exceed a threshold transmission power, the first transmission power determined by applying a mapping to the first size, the mapping comprising a plurality of sequence sizes and corresponding transmission powers, wherein the mapping increases transmission power as a number of bits increases; and selectively activating a light source at the first power level according to a modulation scheme to optically transmit the entire sequence by transmitting a single bit of the first value using the first transmission power. receiving a bitstream for transmission over the optical communication path; determining a sequence of sequential bits with a same first value in the bitstream, the sequence having a first size with a maximum number of bits while also having a corresponding first transmission power that does not exceed a threshold transmission power, the first transmission power determined by applying a mapping to the first size, the mapping comprising a plurality of sequence sizes and corresponding transmission powers, wherein the mapping increases transmission power as a number of bits increases; and selectively activating a light source at the first power level according to a modulation scheme to optically transmit the entire sequence by transmitting a single bit of the first value using the first transmission power.
An emulsion comprising: (a) water in an amount of 30% to 70% by weight of the emulsion: (b) a water-insoluble resinous material, wherein the water-insoluble resinous material includes a tackifying agent selected from a polyester, polyether, polycarbamate, polycarbonate, and any combination thereof and wherein the water-insoluble resinous material is present in a concentration in the range of 15% to 60% by weight of the water. (c) an emulsifier, wherein the emulsifier comprises a surfactant selected from the group consisting of a ethoxylated fatty molecule, betaine, glucoside, ethyleneoxide-propylene oxide copolymer, quaternized ethoxylated fatty material or ethoxylated amine, and any combination thereof and wherein the emulsifier is present in an amount of 1% to 10% by weight of the water; (d) a suspending agent selected from the group consisting of a polyacrylamide, polysaccharide and any combination thereof and wherein the suspending agent is present in an amount of at least 0.1% by weight of the water. (e) an alkali metal halide, alkaline earth halide, alkali metal formate and any combination thereof; wherein the continuous phase of the emulsion comprises the water; wherein a dispersed phase of the emulsion comprises the resinous material and wherein the dispersed phase further comprises a diluent for the resinous material, wherein the diluent is selected from the group consisting of corn oil, cotton seed oil, or any combination thereof and wherein the ratio of the diluent to the resinous material in the droplets is in the range of 1:10 to 10:1 by weight; wherein the dispersed phase is in the form of droplets having a size distribution range such that at least 50% of the droplets have a size of 1 micrometer - 200 micrometers; wherein the composition of the droplets has a viscosity of less than 2,000 Poise (200 Pa.s) at 20°F (-6.6°C). (a) water in an amount of 30% to 70% by weight of the emulsion: (b) a water-insoluble resinous material, wherein the water-insoluble resinous material includes a tackifying agent selected from a polyester, polyether, polycarbamate, polycarbonate, and any combination thereof and wherein the water-insoluble resinous material is present in a concentration in the range of 15% to 60% by weight of the water. (c) an emulsifier, wherein the emulsifier comprises a surfactant selected from the group consisting of a ethoxylated fatty molecule, betaine, glucoside, ethyleneoxide-propylene oxide copolymer, quaternized ethoxylated fatty material or ethoxylated amine, and any combination thereof and wherein the emulsifier is present in an amount of 1% to 10% by weight of the water; (d) a suspending agent selected from the group consisting of a polyacrylamide, polysaccharide and any combination thereof and wherein the suspending agent is present in an amount of at least 0.1% by weight of the water. (e) an alkali metal halide, alkaline earth halide, alkali metal formate and any combination thereof;