mhurhangee/ep-ind-claims huggingface dataset:
A polyester laminated film comprising: a polyester base film; an good-adhesive coating layer formed on one surface of the base film; and an antistatic coating layer formed on the other surface of the base film, wherein the good-adhesive coating layer is formed by applying a polyurethane coating composition containing a water dispersion polyurethane resin containing isocyanate terminal groups partially or entirely blocked by an inorganic acid salt, wherein the water dispersion polyurethane resin is composed of 10 to 75 weight% of a linear polymer and 25 to 90 weight% of a branched polymer, wherein the antistatic coating layer is formed by applying an antistatic coating composition containing a binder resin and a quaternary ammonium sulfonate-based compound, wherein the quaternary ammonium sulfonate-based compound has a weight average molecular weight of 100,000 to 200, 000, measured according to the description, and wherein after back-side transfer is performed on the antistatic coating layer and the good-adhesive coating layer at 40°C for 3 days (40°C/3day) under a load of 50kgf/cm 2, surface resistance A of the good-adhesive coating layer and surface resistance B of the antistatic coating layer satisfy the following Equation 1. 1 × 10 4 ≤ A − B (In Equation, A indicates the surface resistance (Ω/□) of the good-adhesive coating layer after back-side transfer, and B indicates the surface resistance (Ω/□) of the antistatic coating layer after back-side transfer.) a polyester base film; an good-adhesive coating layer formed on one surface of the base film; and an antistatic coating layer formed on the other surface of the base film, wherein the good-adhesive coating layer is formed by applying a polyurethane coating composition containing a water dispersion polyurethane resin containing isocyanate terminal groups partially or entirely blocked by an inorganic acid salt, wherein the water dispersion polyurethane resin is composed of 10 to 75 weight% of a linear polymer and 25 to 90 weight% of a branched polymer, wherein the antistatic coating layer is formed by applying an antistatic coating composition containing a binder resin and a quaternary ammonium sulfonate-based compound, wherein the quaternary ammonium sulfonate-based compound has a weight average molecular weight of 100,000 to 200, 000, measured according to the description, and wherein after back-side transfer is performed on the antistatic coating layer and the good-adhesive coating layer at 40°C for 3 days (40°C/3day) under a load of 50kgf/cm 2, surface resistance A of the good-adhesive coating layer and surface resistance B of the antistatic coating layer satisfy the following Equation 1. 1 × 10 4 ≤ A − B (In Equation, A indicates the surface resistance (Ω/□) of the good-adhesive coating layer after back-side transfer, and B indicates the surface resistance (Ω/□) of the antistatic coating layer after back-side transfer.)
Process for producing pyrolysis gas and/or pyrolysis oil by means of a first reactor and a second reactor separate therefrom, wherein the first reactor is a pyrolysis reactor and the second reactor is a deoxygenation reactor, from at least partially biogenic starting materials comprising the steps of: A) providing the at least partially biogenic starting material selected from lignocellulosic biomasses and lignocellulosic waste materials and a carbon-based, mesoporous and/or microporous catalyst B) thermal treatment of the starting material in the pyrolysis reactor at a temperature T 1 to effect at least partial pyrolysis of the starting material to afford at least liquid, vaporous and/or gaseous pyrolysis products B2) phase separation to effect removal of the solid pyrolysis products and the dust-like particles from the non-solid pyrolysis products C) contacting only the liquid, vaporous and/or gaseous pyrolysis products with the carbon-based catalyst in the deoxygenation reactor at a temperature T 2 between 350°C and 500°C with the proviso that T 1 > T 2, wherein the difference between the temperatures T 1 and T 2 is at least 10°C, to effect a deoxygenation of the liquid, vaporous and/or gaseous pyrolysis products to afford at least partially deoxygenated liquid, vaporous and/or gaseous pyrolysis products D) collecting the deoxygenated pyrolysis products in a separation apparatus in which a product separation is effected. A) providing the at least partially biogenic starting material selected from lignocellulosic biomasses and lignocellulosic waste materials and a carbon-based, mesoporous and/or microporous catalyst B) thermal treatment of the starting material in the pyrolysis reactor at a temperature T 1 to effect at least partial pyrolysis of the starting material to afford at least liquid, vaporous and/or gaseous pyrolysis products B2) phase separation to effect removal of the solid pyrolysis products and the dust-like particles from the non-solid pyrolysis products C) contacting only the liquid, vaporous and/or gaseous pyrolysis products with the carbon-based catalyst in the deoxygenation reactor at a temperature T 2 between 350°C and 500°C with the proviso that T 1 > T 2, wherein the difference between the temperatures T 1 and T 2 is at least 10°C, to effect a deoxygenation of the liquid, vaporous and/or gaseous pyrolysis products to afford at least partially deoxygenated liquid, vaporous and/or gaseous pyrolysis products D) collecting the deoxygenated pyrolysis products in a separation apparatus in which a product separation is effected.
A system for providing enhanced tracking of targeting aimpoints in a simulation environment, the system comprising: a video display system (110, 115) configured to display an image of a target; at least one simulated weapon configured to project an aimpoint on the displayed image; a video capture system configured to capture a plurality of video frames, each of the plurality of video frames comprising the at least one aimpoint; and a computer system (125, 200) in communication with the video capture system, the computer system (125, 200) comprising a processor and a computer readable storage medium with instructions executable by the processor to: analyze each of the plurality of video frames to determine a position of the aimpoint in each of the plurality of video frames; characterized in that the readable storage medium further comprises instructions to: determine a formula for the motion of the aimpoint, wherein the formula is generally satisfied by the position of the aimpoint in at least one of the plurality of video frames; using at least the formula, predict a position of the aimpoint in a subsequent video frame. a video display system (110, 115) configured to display an image of a target; at least one simulated weapon configured to project an aimpoint on the displayed image; a video capture system configured to capture a plurality of video frames, each of the plurality of video frames comprising the at least one aimpoint; and a computer system (125, 200) in communication with the video capture system, the computer system (125, 200) comprising a processor and a computer readable storage medium with instructions executable by the processor to: analyze each of the plurality of video frames to determine a position of the aimpoint in each of the plurality of video frames; analyze each of the plurality of video frames to determine a position of the aimpoint in each of the plurality of video frames; characterized in that the readable storage medium further comprises instructions to: determine a formula for the motion of the aimpoint, wherein the formula is generally satisfied by the position of the aimpoint in at least one of the plurality of video frames; using at least the formula, predict a position of the aimpoint in a subsequent video frame. determine a formula for the motion of the aimpoint, wherein the formula is generally satisfied by the position of the aimpoint in at least one of the plurality of video frames; using at least the formula, predict a position of the aimpoint in a subsequent video frame.
A method pertaining to an SCR system wherein a reducing agent is provided to an exhaust gas stream from an engine for purifying the exhaust gas with respect to among other things content of NO x and wherein the SCR system comprises a vaporization module being arranged upstream a catalyst arrangement (260; 262), wherein the vaporization module is arranged to vaporize said reducing agent so as to achieve a mixture of exhaust gas and reducing agent, the method comprising the step of: - continuously monitoring changes of a prevailing temperature (Tmod) of said vaporizing module; characterized by the step of: - controlling (s420, s430) mode of operation of said engine on the basis of said changes of the prevailing temperature (Tmod) of the vaporizing module, wherein said step of controlling the mode of operation comprises the steps of - shifting mode of operation from a first mode of operation corresponding to a desired low fuel consumption and high content of NO x to a second mode of operation (M1; M2) corresponding to a higher fuel consumption and a lower content of NO x of said exhaust gas when said prevailing temperature (Tmod) of said vaporizing module is lower than a first pre-determined temperature value; and - shifting mode of operation from a second mode of operation (M1; M2) corresponding to a high fuel consumption and a low content of NO x of the exhaust gas to a first mode of operation corresponding to the desired low fuel consumption and high content of NO x when said prevailing temperature (Tmod) of said vaporizing module reaches a second pre-determined temperature value. - continuously monitoring changes of a prevailing temperature (Tmod) of said vaporizing module; - controlling (s420, s430) mode of operation of said engine on the basis of said changes of the prevailing temperature (Tmod) of the vaporizing module, - shifting mode of operation from a first mode of operation corresponding to a desired low fuel consumption and high content of NO x to a second mode of operation (M1; M2) corresponding to a higher fuel consumption and a lower content of NO x of said exhaust gas when said prevailing temperature (Tmod) of said vaporizing module is lower than a first pre-determined temperature value; and - shifting mode of operation from a second mode of operation (M1; M2) corresponding to a high fuel consumption and a low content of NO x of the exhaust gas to a first mode of operation corresponding to the desired low fuel consumption and high content of NO x when said prevailing temperature (Tmod) of said vaporizing module reaches a second pre-determined temperature value.
Strand guide roller for guiding a metal strand in a continuous casting machine, comprising - at least one first and one second individual roller, wherein the first individual roller is connected in a non-rotatable manner to the second individual roller, the individual rollers (2a,2b) have a duct for internal cooling and form a cooled strand guide roller; - at least three bearing blocks, wherein the outer regions of the cooled strand guide roller and a region between two individual rollers (2a,2b) are rotatably mounted at a bearing block; - a manifold bar for supplying the strand guide roller with cooling water, comprising a plurality of brackets (10,10a,10b) and at least one coolant pipe in each case between two successive brackets (10,10a,10b) for the fluidical connection of the brackets (10,10a,10b), wherein an outer bracket has in each case at least one first connection for the internal cooling of the cooled strand guide roller and at least one second connection for cooling the bearing blocks, and the first connection is fluidically connected to the ducts of the individual rollers (2a,2b) and the second connection is fluidically connected via the brackets to the bearing blocks, characterised in that an outer bracket comprises an intermediate plate which is aligned parallel with the direction of casting and has at least one first connection and at least one second connection. - at least one first and one second individual roller, wherein the first individual roller is connected in a non-rotatable manner to the second individual roller, the individual rollers (2a,2b) have a duct for internal cooling and form a cooled strand guide roller; - at least three bearing blocks, wherein the outer regions of the cooled strand guide roller and a region between two individual rollers (2a,2b) are rotatably mounted at a bearing block; - a manifold bar for supplying the strand guide roller with cooling water, comprising a plurality of brackets (10,10a,10b) and at least one coolant pipe in each case between two successive brackets (10,10a,10b) for the fluidical connection of the brackets (10,10a,10b), wherein an outer bracket has in each case at least one first connection for the internal cooling of the cooled strand guide roller and at least one second connection for cooling the bearing blocks, and the first connection is fluidically connected to the ducts of the individual rollers (2a,2b) and the second connection is fluidically connected via the brackets to the bearing blocks, characterised in that
A method by a base station, the method comprising: determining whether one or more criteria for triggering common reference signal interference cancellation, CRS-IC, are satisfied, wherein the one or more criteria are associated with one or more UE-specific conditions and include at least one of: a traffic type, a Connected Discontinuous Reception, CDRX, condition, or a power preference indicator, PPI, condition, and if the one or more criteria are satisfied, transmitting a signal to a user equipment, UE, to control triggering of CRS-IC at the UE. determining whether one or more criteria for triggering common reference signal interference cancellation, CRS-IC, are satisfied, wherein the one or more criteria are associated with one or more UE-specific conditions and include at least one of: a traffic type, a Connected Discontinuous Reception, CDRX, condition, or a power preference indicator, PPI, condition, and a traffic type, a Connected Discontinuous Reception, CDRX, condition, or a power preference indicator, PPI, condition, and if the one or more criteria are satisfied, transmitting a signal to a user equipment, UE, to control triggering of CRS-IC at the UE.
A method for producing liquefied natural gas, comprising: directing a natural gas stream (302, 403) to a mechanical refrigeration unit to liquefy the natural gas stream (302, 403) and form a pressurized liquefied natural gas stream (306, 438) with a pressure greater than 50 psia (345 kPa) and less than 500 psia (3445 kPa), wherein the mechanical refrigeration unit includes an expander-based refrigeration process; providing a liquid refrigerant subcooling unit at a first location; producing liquid refrigerant at a second location that is geographically separate from the first location; transporting the produced liquid refrigerant to the first location; and subcooling the pressurized LNG stream (306, 438, 506, 608) in the liquid refrigerant subcooling unit by exchanging heat between the pressurized LNG stream (306, 438, 506, 608) and at least one stream (310, 504, 602) of the liquid refrigerant to thereby produce an LNG stream (312, 510, 636) and a vaporized liquid refrigerant stream (314, 522, 648) characterized by the following steps using the vaporized liquid refrigerant stream to liquefy a second treated natural gas stream (514, 640) to produce an additional pressurized LNG stream; and mixing the additional pressurized LNG stream (516, 642) with the pressurized LNG stream (506, 608) prior to the subcooling of the pressurized LNG stream (506, 608) with the liquid refrigerant. directing a natural gas stream (302, 403) to a mechanical refrigeration unit to liquefy the natural gas stream (302, 403) and form a pressurized liquefied natural gas stream (306, 438) with a pressure greater than 50 psia (345 kPa) and less than 500 psia (3445 kPa), wherein the mechanical refrigeration unit includes an expander-based refrigeration process; providing a liquid refrigerant subcooling unit at a first location; producing liquid refrigerant at a second location that is geographically separate from the first location; transporting the produced liquid refrigerant to the first location; and subcooling the pressurized LNG stream (306, 438, 506, 608) in the liquid refrigerant subcooling unit by exchanging heat between the pressurized LNG stream (306, 438, 506, 608) and at least one stream (310, 504, 602) of the liquid refrigerant to thereby produce an LNG stream (312, 510, 636) and a vaporized liquid refrigerant stream (314, 522, 648) characterized by the following steps using the vaporized liquid refrigerant stream to liquefy a second treated natural gas stream (514, 640) to produce an additional pressurized LNG stream; and mixing the additional pressurized LNG stream (516, 642) with the pressurized LNG stream (506, 608) prior to the subcooling of the pressurized LNG stream (506, 608) with the liquid refrigerant.
A projectile, with which upon impact upon a soft medium an accelerated expansion of the projectile results, having a cylindrical bore which, viewed in the direction of fire, is arranged at the tip and which runs coaxially to the longitudinal axis of the projectile, and inserted into this bore there is a projectile tip, wherein the longitudinal axis of the projectile at the same time also constitutes the longitudinal axis of the projectile tip, and introduced in the projectile tip coaxially to the longitudinal axis there is an open hollow channel, characterised in that the hollow channel, viewed in the direction of fire, extends from the front end as far as the rear end of the projectile tip, and arranged in the hollow channel there is a membrane which divides the hollow channel into two hollow-channel sections (5a, 5b).
Blood plasma container, on which means for connecting tubes (7, 8) are provided and which has a neck on its one end, which ends in a bottle neck surface, in which an opening is provided, characterised in that the means for connecting the tubes (7, 8) are provided on only one connector, which consists of a cylinder, which is closed on its one end by a base and is provided with two tube connections in the base and that the opening is surrounded by a pin, which is provided with two latching cams, which serve for fastening the connector, which is provided with slots, which correspond to the latching cams.
A light strip system, having - an elongate carrier arrangement, which is formed by mounting rail elements (1, 2) that are open towards the lower side, - a profiled part which consists at least partly of flexible material for forming an accommodation space formed in the carrier arrangement and extending in the longitudinal direction, - a lighting module component (8, 8') arranged in the accommodation space, characterized in that in order to hold the lighting module component (8, 8') it is arranged so as to push against contract regions (11, 12, 11', 12') of the carrier arrangement, on two opposite sides, in each case with the interposition of regions of the profiled part. - an elongate carrier arrangement, which is formed by mounting rail elements (1, 2) that are open towards the lower side, - a profiled part which consists at least partly of flexible material for forming an accommodation space formed in the carrier arrangement and extending in the longitudinal direction, - a lighting module component (8, 8') arranged in the accommodation space,
Method for locating a brain activity, comprising the steps consisting of: a) acquiring data indicative of sensory stimuli addressed to, or deliberate actions performed or imagined by, a subject; b) by means of a plurality of sensors, acquiring signals representative of an activity, associated with said stimuli or deliberate actions, of respective regions of the brain of said subject; and c) for each said sensor, quantifying a correlation that exists between said data indicative of sensory stimuli or of deliberate actions and the signals acquired; each said sensor acquiring N≥2 signals that are representative of N distinct physical quantities, measured for the same region of the brain, and in that said correlation is established between a variable (y) indicative of a said sensory stimulus or of a said deliberate action and a variable (xf, x) of at least N dimensions representative of said signals, characterised in that said correlation is established between said variable indicative of a said sensory stimulus or of a said deliberate action and at the instant t (y(t)) and said variable of at least N dimensions (x f (t+ τ), x(t+ τ)), representative of said measured signals for the same region of the brain, said signals being offset in time relative to said instant t. a) acquiring data indicative of sensory stimuli addressed to, or deliberate actions performed or imagined by, a subject; b) by means of a plurality of sensors, acquiring signals representative of an activity, associated with said stimuli or deliberate actions, of respective regions of the brain of said subject; and c) for each said sensor, quantifying a correlation that exists between said data indicative of sensory stimuli or of deliberate actions and the signals acquired;
A resource migration method, wherein the method comprises: determining, by a terminal device, that a service function entity, SFE, serving the terminal device needs to be changed to a first SFE; acquiring, by the terminal device, information about a location of a resource/subresource corresponding to the terminal device in a second SFE, wherein the second SFE saves the resource/subresource corresponding to the terminal device; sending, by the terminal device, a first resource creation request to the first SFE, where the first resource creation request is used to request the first SFE to create a resource according to the first resource creation request, the first resource creation request registers the terminal device with the first SFE, and the first resource creation request does not carry a first identifier and the information about the location of the resource/subresource corresponding to the terminal device in the second SFE; and sending, by the terminal device, to the first SFE, a first identifier and the information about the location of the resource/subresource corresponding to the terminal device in the second SFE, wherein the first identifier is used to indicate that the terminal device needs to change the SFE serving the terminal device, so that, after receiving the first identifier, the first SFE transfers the resource/subresource corresponding to the terminal device from the second SFE to the first SFE. determining, by a terminal device, that a service function entity, SFE, serving the terminal device needs to be changed to a first SFE; acquiring, by the terminal device, information about a location of a resource/subresource corresponding to the terminal device in a second SFE, wherein the second SFE saves the resource/subresource corresponding to the terminal device; sending, by the terminal device, a first resource creation request to the first SFE, where the first resource creation request is used to request the first SFE to create a resource according to the first resource creation request, the first resource creation request registers the terminal device with the first SFE, and the first resource creation request does not carry a first identifier and the information about the location of the resource/subresource corresponding to the terminal device in the second SFE; and sending, by the terminal device, to the first SFE, a first identifier and the information about the location of the resource/subresource corresponding to the terminal device in the second SFE, wherein the first identifier is used to indicate that the terminal device needs to change the SFE serving the terminal device, so that, after receiving the first identifier, the first SFE transfers the resource/subresource corresponding to the terminal device from the second SFE to the first SFE.