mhurhangee/ep-ind-claims huggingface dataset:
A method for threat detection and response, the method comprising: receiving, by a threat response computer (120, 220) from a threat detector (110, 230) running on a client computer in an enterprise computing network, an event report identifying a suspicious network communication between the client computer and a network device, wherein the client computer is separate from the threat response computer (120, 220); automatically remotely activating, by the threat response computer (120, 220), a data collector on the client computer, the data collector configured for searching potential indications of compromise, IOCs, on the client computer and sending data identifying the potential IOCs to the threat response computer (120, 220) for evaluation; receiving, by the threat response computer (120, 220) from the data collector, the data identifying the potential IOCs on the client computer; comparing, by the threat response computer (120, 220), the potential IOCs on the client computer and IOCs in a database local to the threat response computer (120, 220); based at least in part on the comparing, determining, by the threat response computer (120, 220), whether the potential IOCs on the client computer indicate evidence of malware on the client computer; and responsive to the evidence of malware on the client computer, sending an instruction from the threat response computer (120, 220) to configure a firewall running on a device in the enterprise computing network, the device being different from the client computer. receiving, by a threat response computer (120, 220) from a threat detector (110, 230) running on a client computer in an enterprise computing network, an event report identifying a suspicious network communication between the client computer and a network device, wherein the client computer is separate from the threat response computer (120, 220); automatically remotely activating, by the threat response computer (120, 220), a data collector on the client computer, the data collector configured for searching potential indications of compromise, IOCs, on the client computer and sending data identifying the potential IOCs to the threat response computer (120, 220) for evaluation; receiving, by the threat response computer (120, 220) from the data collector, the data identifying the potential IOCs on the client computer; comparing, by the threat response computer (120, 220), the potential IOCs on the client computer and IOCs in a database local to the threat response computer (120, 220); based at least in part on the comparing, determining, by the threat response computer (120, 220), whether the potential IOCs on the client computer indicate evidence of malware on the client computer; and responsive to the evidence of malware on the client computer, sending an instruction from the threat response computer (120, 220) to configure a firewall running on a device in the enterprise computing network, the device being different from the client computer.
A method for wireless communication, comprising: identifying interference between a first content stream of a first radio access technology, RAT, of a user equipment and a second content stream of a second radio access technology, RAT, of the user equipment, wherein the second content stream includes content having periods of voice activity and periods of non-voice activity; characterized by assigning to the content of the second stream a first value to the periods of voice activity and a second value to the periods of non-voice activity; assigning a priority to the content based on the assigned value, the first value having a first priority that is greater than a second priority so that, during periods of interference, the lower priority content of non-voice activity is not transmitted. identifying interference between a first content stream of a first radio access technology, RAT, of a user equipment and a second content stream of a second radio access technology, RAT, of the user equipment, wherein the second content stream includes content having periods of voice activity and periods of non-voice activity; characterized by assigning to the content of the second stream a first value to the periods of voice activity and a second value to the periods of non-voice activity; assigning a priority to the content based on the assigned value, the first value having a first priority that is greater than a second priority so that, during periods of interference, the lower priority content of non-voice activity is not transmitted.
Articulated vehicle comprising a chassis, a cab fixed to a rear portion of chassis provided with a rear driving axle and a technical platform fixed to a front portion of chassis provided with a front driving axle, the rear portion of chassis and the front portion of chassis being articulated to one another about an articulation axis of the vehicle extending in a direction substantially orthogonal to a bearing plane of the articulated vehicle, at least one relative orientation cylinder extending between the front and rear portions, the technical platform including mechanized means (41, 42) for loading from the ground and unloading onto the ground a cable drum and means (49, 60) for unwinding the cable from the drum, and wherein each driving axle comprises two road wheels and each chassis portion is provided with a railway axle (10, 20) provided with railway wheels (11, 21) rotated by a driving drum (12, 13, 22, 23), each railway axle is movable to adopt a deployed position in which the driving drum (12, 13, 22, 23) comes into contact with at least one railway wheel (5.1, 5.2, 8.1, 8.2), the road wheels (5.1, 5.2, 8.1, 8.2) no longer being in contact with the ground when the railway axles (10, 20) are in the deployed position, and a retracted position in which the railway wheels are retracted relative to the road wheels.
A system for producing a three-dimensional object from a fluid medium configured to solidify when subjected to prescribed light stimulation, the system comprising a plurality of image processing units, each of the plurality of image processing units comprising: at least one light emitting source configured to emit light; at least one mirror system (198A, 198B) for reflecting light emitted by the at least one light emitting source, wherein the at least one mirror system comprises a manipulating system for adjusting a direction of the emitted light and a control system for controlling the manipulating system; and at least one optical element (171, 173, 175) configured to manipulate the emitted light and to project the emitted light onto an area of a surface of the fluid medium to form an image on the surface, wherein the plurality of image processing units are configured to form a corresponding plurality of images on the surface, wherein the plurality of image processing units are arranged in a grid pattern on a scanning table, wherein the scanning table is configured to be movable at least in a lateral direction relative to the surface, and wherein each of the plurality of images overlaps with at least one other of the plurality of images. at least one light emitting source configured to emit light; at least one mirror system (198A, 198B) for reflecting light emitted by the at least one light emitting source, wherein the at least one mirror system comprises a manipulating system for adjusting a direction of the emitted light and a control system for controlling the manipulating system; and at least one optical element (171, 173, 175) configured to manipulate the emitted light and to project the emitted light onto an area of a surface of the fluid medium to form an image on the surface, wherein the plurality of image processing units are configured to form a corresponding plurality of images on the surface, wherein the plurality of image processing units are arranged in a grid pattern on a scanning table, wherein the scanning table is configured to be movable at least in a lateral direction relative to the surface, and wherein each of the plurality of images overlaps with at least one other of the plurality of images.
A composition comprising an effective amount of tauroursodeoxycholic acid (TUDCA) or a pharmaceutically acceptable salt thereof, and an effective amount of 4-phenylbutyric acid (4-PBA) or a pharmaceutically acceptable salt thereof, for use in a method of treating a subject having or at risk of having a neurodegenerative disease.
A surgical mesh composite having an anti-adhesion property, comprising a surgical mesh layer and an anti-adhesion layer, wherein the anti-adhesion layer comprises an insoluble carboxymethylcellulose formed by heat treatment of a carboxymethylcellulose having a viscosity of 0.100 Pa·s (100 cps) to 0.500 Pa·s (500 cps) in 1 wt% aqueous solution; wherein the heat treatment is performed at a temperature of 100 to 160 °C and at a pressure of 2,666 hPa (2,000 mmHg) or lower; and wherein the carboxymethylcellulose is mixed with a hydroxyl group containing a compound being a polyhydric alcohol or a multiarm polyethylene glycol having a multifunctional group at an amount of 100 parts per weight or less, with respect to 100 parts per weight of carboxymethylcellulose. wherein the heat treatment is performed at a temperature of 100 to 160 °C and at a pressure of 2,666 hPa (2,000 mmHg) or lower; and wherein the carboxymethylcellulose is mixed with a hydroxyl group containing a compound being a polyhydric alcohol or a multiarm polyethylene glycol having a multifunctional group at an amount of 100 parts per weight or less, with respect to 100 parts per weight of carboxymethylcellulose.
A capacitance detection circuit for detecting a change in capacitance between a pair of electrodes of a physical quantity sensor, the pair of electrodes being adapted to generate the change in capacitance in response to a change in physical quantity, the capacitance detection circuit comprising: a carrier signal generating circuit that supplies a carrier signal to one of the electrodes; an operational amplifier that has an inverting input terminal to which the other one of the electrodes is input; a dummy capacitor (Cd); and a carrier signal conditioning circuit that is adapted to invert a phase of a carrier signal supplied from the carrier signal generating circuit to the dummy capacitor (Cd), and to adjust a gain to reduce the capacity of the dummy capacitor (Cd), wherein a series circuit of the carrier signal conditioning circuit and the dummy capacitor (Cd) is connected in parallel to the pair of electrodes, characterized in that the carrier signal conditioning circuit is configured by an inverting amplifier that has an inverting input terminal connected to the carrier signal generating circuit via a first resistor, a non-inverting input terminal connected to the ground, and an output fed back to the inverting input terminal via a second resistor. a carrier signal generating circuit that supplies a carrier signal to one of the electrodes; an operational amplifier that has an inverting input terminal to which the other one of the electrodes is input; a dummy capacitor (Cd); and a carrier signal conditioning circuit that is adapted to invert a phase of a carrier signal supplied from the carrier signal generating circuit to the dummy capacitor (Cd), and to adjust a gain to reduce the capacity of the dummy capacitor (Cd),
A calibration unit (1, 37) for a roller nip gauge, which calibration unit (1, 37) comprises an upper part and a lower part, wherein it has means to place a part acting on a sensor element of a sensor during calibration in parallel with a surface of the calibration unit (1, 37) receiving the sensor, characterized in that the lower part and upper part are locked to each other by means of at least two hooks on the upper part co-operating with cavities on the lower part and that a top part and a middle part of the upper part are fixed to each other.
A photoprotective personal care composition comprising (i) 0.5 to 10% of inorganic pigment particles in the size range between 0.015 to 0.4 micrometer which scatter greater than 50% of light in the wavelength range 400 to 550 nm with respect to total scattered light in the range of 400 to 700 nm selected from titanium dioxide or zinc oxide, and (ii) 0.01 to 0.5% of organic dye which absorbs greater than 50% of light in the wavelength range 400 to 550 nm with respect to total absorbed light in the range of 400 to 700 nm, selected from FDC Red 4, FDC Red 1 or DC Brown. (i) 0.5 to 10% of inorganic pigment particles in the size range between 0.015 to 0.4 micrometer which scatter greater than 50% of light in the wavelength range 400 to 550 nm with respect to total scattered light in the range of 400 to 700 nm selected from titanium dioxide or zinc oxide, and (ii) 0.01 to 0.5% of organic dye which absorbs greater than 50% of light in the wavelength range 400 to 550 nm with respect to total absorbed light in the range of 400 to 700 nm, selected from FDC Red 4, FDC Red 1 or DC Brown.
A dosing apparatus for dispensing therapeutic and/or preventative product into an orifice of an animal, the apparatus comprising: a stack of cartridges, each cartridge comprising: a body with a cavity holding at least one product to be dosed, a nozzle which is in communication with the cavity and which is configured for channelling the product to an orifice of an animal, the nozzle being disposed at an angle to the body of 70° to 90° such that, in use, product is dispensed upwardly from the dosing apparatus to the orifice of the animal, at least one piston configured to push product from the cavity, and a recess which is adapted to receive and provide a cover for a nozzle of an identical or similar cartridge; the dosing apparatus further comprising: a dispenser for holding the cartridges and for dispensing product from each cartridge, one after the other, the dispenser including: a magazine to receive the stack of cartridges, and a plunger arranged to drive a piston of one of the cartridges; wherein the nozzle comprises a cannula or tube sized to fit within the teat orifice of a dairy cow. a stack of cartridges, each cartridge comprising: a body with a cavity holding at least one product to be dosed, a nozzle which is in communication with the cavity and which is configured for channelling the product to an orifice of an animal, the nozzle being disposed at an angle to the body of 70° to 90° such that, in use, product is dispensed upwardly from the dosing apparatus to the orifice of the animal, at least one piston configured to push product from the cavity, and a recess which is adapted to receive and provide a cover for a nozzle of an identical or similar cartridge; a body with a cavity holding at least one product to be dosed, a nozzle which is in communication with the cavity and which is configured for channelling the product to an orifice of an animal, the nozzle being disposed at an angle to the body of 70° to 90° such that, in use, product is dispensed upwardly from the dosing apparatus to the orifice of the animal, at least one piston configured to push product from the cavity, and a recess which is adapted to receive and provide a cover for a nozzle of an identical or similar cartridge; the dosing apparatus further comprising: a dispenser for holding the cartridges and for dispensing product from each cartridge, one after the other, the dispenser including: a magazine to receive the stack of cartridges, and a plunger arranged to drive a piston of one of the cartridges; wherein the nozzle comprises a cannula or tube sized to fit within the teat orifice of a dairy cow. a magazine to receive the stack of cartridges, and a plunger arranged to drive a piston of one of the cartridges; wherein the nozzle comprises a cannula or tube sized to fit within the teat orifice of a dairy cow.
Slider for preferably paragliders for coordinating the supporting and/or steering lines, having chambers oriented in the gliding direction, a multiplicity of the chambers being present on the upwardly directed surface of the main body and extending upwards, the shape of the chambers being similar to those of a paraglider to the extent where they are open on their front side for the purpose of allowing air to enter and are configured such that a wing profile is established when they open out as a result of air flowing in, the immediate peripheral zone has incorporated in it, on the left and right in each case, at least one guide eyelet, on the one hand for fixing the slider in height on the supporting and steering lines, and on the other hand for securing the slider in the gliding direction, and auxiliary eyelets for guide rings which are to be fixed in place are incorporated on the rear edge of the slider, in the corner region in each case, characterized in that the upwardly directed surface of the slider is provided with said chambers, and in that the fixing of the guide rings is configured to be releasable when the paraglider is in flight.
Gasification reactor for producing CO- or H 2 -containing raw gas by gasification of ash-containing fuel with oxygen-containing gas at temperatures above the melting point of the ash, having a pressure vessel and, arranged inside the pressure vessel, a cooling screen having a membrane wall consisting of cooling pipes and conical regions (3', 3") for egress of gas or slag, a reaction space formed by the membrane wall, wherein an annular space is formed between an inner wall of the pressure vessel and the membrane wall, there being provided burners that project horizontally through the pressure vessel and the membrane wall in the same plane, characterized in that coolant inlet lines or mixture outlet lines for the coolant of the membrane wall are supported in order to relieve the load on the membrane wall, wherein the coolant inlet lines and/or the mixture outlet lines are positioned in the plane defined by the burners, and pass through the pressure vessel at that point.
A method of measuring an object on a coordinate positioning apparatus, comprising the following steps: (a) placing a first object on a coordinate positioning apparatus; (b) measuring said first object with a workpiece contacting probe to create measurement data (22,24,26) of the first object, the measurement data being collected at multiple stylus deflections or probe forces; (c) for a plurality of points on the surface of said first object, extrapolating the measurement data from step (b) to that corresponding to zero stylus deflection or zero probe force; (d) creating an error function or map for said first object; (e) measuring subsequent objects at a known stylus deflection or known probe force; (f) and using the error function or map to apply an error correction to the measurements of said subsequent objects; characterised in that the error function or map is created in step (d) from measurement data from step (b) and extrapolated values obtained in step (c). (a) placing a first object on a coordinate positioning apparatus; (b) measuring said first object with a workpiece contacting probe to create measurement data (22,24,26) of the first object, the measurement data being collected at multiple stylus deflections or probe forces; (c) for a plurality of points on the surface of said first object, extrapolating the measurement data from step (b) to that corresponding to zero stylus deflection or zero probe force; (d) creating an error function or map for said first object; (e) measuring subsequent objects at a known stylus deflection or known probe force; (f) and using the error function or map to apply an error correction to the measurements of said subsequent objects;
A computer program for changing effective ventilation of a subject connected to a breathing apparatus, the computer program comprising computer readable code which, when executed by a control computer of the breathing apparatus, causes the breathing apparatus to ventilate the subject using a ventilation pattern comprising at least one phase of increased ventilation and at least one phase of decreased ventilation, wherein the phase of decreased ventilation comprises at least one prolonged breath (B2; B2'-B2"') including a respiratory pause, characterised by causing the respiratory pause to be initiated when the lung pressure (P alv) of the subject is between a minimum lung pressure and a maximum lung pressure of the subject during the prolonged breath.
A method comprising: performing, by each push-to-talk, PTT, client of a PTT group, distributed control for PTT sessions within the PTT group, wherein each PTT client of the PTT group has access to a wide area network, WAN, and wherein the distributed control by each PTT client is performed without use of any PTT server, by maintaining, by each PTT client of the PTT group, a respective floor request queue of information relating to floor requests sent by any of the PTT clients of the PTT group, wherein the floor request queues maintained by the PTT clients in the PTT group are substantially the same; wherein the maintaining comprises: in response to a Floor Request message sent using IP multicast by any of the PTT clients of the PTT group to the other PTT clients of the PTT group, updating, by each PTT client of the PTT group, its respective floor request queue by adding the information of the Floor Request message. performing, by each push-to-talk, PTT, client of a PTT group, distributed control for PTT sessions within the PTT group, wherein each PTT client of the PTT group has access to a wide area network, WAN, and wherein the distributed control by each PTT client is performed without use of any PTT server, by maintaining, by each PTT client of the PTT group, a respective floor request queue of information relating to floor requests sent by any of the PTT clients of the PTT group, wherein the floor request queues maintained by the PTT clients in the PTT group are substantially the same; wherein the maintaining comprises: in response to a Floor Request message sent using IP multicast by any of the PTT clients of the PTT group to the other PTT clients of the PTT group, updating, by each PTT client of the PTT group, its respective floor request queue by adding the information of the Floor Request message.
A device for controlling pressure level during respiratory treatment, said device regulating the pressure delivered to the patient through a respiratory tool connected to a gas source, wherein said device comprises: - a receptacle containing a liquid, - a bubble tube having one end inserted into the liquid in the receptacle located at a fixed level, and another end is connected to the respiratory tool; - at least one hose (55, 50) for adjusting the liquid level in the receptacle in order to adjust the pressure level; - a stabilization mechanism for stabilizing the liquid level, wherein the stabilization mechanism comprises: o a receptacle lid; o a shaft oriented along a longitudinal axis of the receptacle, the shaft having one end connected to the receptacle lid and the other end connected to a bottom of the receptacle, and o at least one platform (33a, 33b) configured to move along the longitudinal axis. - a receptacle containing a liquid, - a bubble tube having one end inserted into the liquid in the receptacle located at a fixed level, and another end is connected to the respiratory tool; - at least one hose (55, 50) for adjusting the liquid level in the receptacle in order to adjust the pressure level; - a stabilization mechanism for stabilizing the liquid level, wherein the stabilization mechanism comprises: o a receptacle lid; o a shaft oriented along a longitudinal axis of the receptacle, the shaft having one end connected to the receptacle lid and the other end connected to a bottom of the receptacle, and o at least one platform (33a, 33b) configured to move along the longitudinal axis. o a receptacle lid; o a shaft oriented along a longitudinal axis of the receptacle, the shaft having one end connected to the receptacle lid and the other end connected to a bottom of the receptacle, and o at least one platform (33a, 33b) configured to move along the longitudinal axis.