mhurhangee/ep-ind-claims huggingface dataset:
Silencer for a handgun, the silencer having a fastening adapter and a silencer housing, - the fastening adapter having a fastening rail comprising two longitudinal guides arranged parallel to one another for fastening the fastening adapter to a mounting rail of the handgun, and - a firing channel being formed in the silencer housing, characterized in that - the fastening adapter has, at the front end, a fastening plate arranged substantially perpendicularly to the longitudinal axis of the longitudinal guides, - the silencer housing is preferably detachably fastened to the fastening plate, and - the longitudinal axis of the firing channel is inclined at an angle (α) of between 0.2° and 1.4° with respect to the longitudinal axis of the longitudinal guides of the fastening rail when the silencer housing is fastened to the fastening plate. - the fastening adapter having a fastening rail comprising two longitudinal guides arranged parallel to one another for fastening the fastening adapter to a mounting rail of the handgun, and - a firing channel being formed in the silencer housing, characterized in that - the fastening adapter has, at the front end, a fastening plate arranged substantially perpendicularly to the longitudinal axis of the longitudinal guides, - the silencer housing is preferably detachably fastened to the fastening plate, and - the longitudinal axis of the firing channel is inclined at an angle (α) of between 0.2° and 1.4° with respect to the longitudinal axis of the longitudinal guides of the fastening rail when the silencer housing is fastened to the fastening plate.
A process of electrolysis of sea water or equivalent saline water to produce hypochlorite therein in at least an electrolyzer having a plurality of spacingly interleaved vertically held planar anodes (A1, A3,.. A7) and cathodes (C1, C3,... C7), defining interelectrodic gap spaces there between and constituting a multi electrode pack assembly (FIG. 4A, FIG. 4B) contained inside a tubular casing of the electrolyzer, along which said sea water or equivalent saline water is forced to flow at a given flow rate, comprising the step of intermittently ejecting, through a plurality of nozzles (9t, 9b) disposed at regular intervals along the whole length of at least the top side of said pack assembly, jets of purposely pressurized sea water or equivalent saline water, directed towards said interelectrodic gap spaces, orthogonally and/or at an inclination relative to the streaming direction of sea water or equivalent saline water forced to flow inside said tubular casing through said interelectrodic gap spaces, to disrupt laminar flow therein; duration and frequency of ejection being programmably controlled depending on operating conditions and quality of the processed saline water.
A method for wireless communication, comprising: performing a listen before talk, LBT, procedure to identify that a channel in a shared radio frequency spectrum band is available for a first transmission; identifying a time duration that the channel is to be occupied by the first transmission; generating a channel reservation signal having a payload that indicates the time duration; and transmitting the channel reservation signal, wherein generating the channel reservation signal further comprises: identifying a channel reservation signal preamble; determining a time difference between a completion of the LBT procedure and a boundary of a control resource set transmission; adjusting a duration of a dynamic cyclic prefix based at least in part on the channel reservation signal preamble and the time difference; appending the dynamic cyclic prefix and the payload to the channel reservation signal preamble; and aligning at least a portion of the channel reservation signal with a boundary of the control resource set transmission associated with the first transmission. performing a listen before talk, LBT, procedure to identify that a channel in a shared radio frequency spectrum band is available for a first transmission; identifying a time duration that the channel is to be occupied by the first transmission; generating a channel reservation signal having a payload that indicates the time duration; and transmitting the channel reservation signal, wherein generating the channel reservation signal further comprises: identifying a channel reservation signal preamble; determining a time difference between a completion of the LBT procedure and a boundary of a control resource set transmission; adjusting a duration of a dynamic cyclic prefix based at least in part on the channel reservation signal preamble and the time difference; appending the dynamic cyclic prefix and the payload to the channel reservation signal preamble; and aligning at least a portion of the channel reservation signal with a boundary of the control resource set transmission associated with the first transmission. identifying a channel reservation signal preamble; determining a time difference between a completion of the LBT procedure and a boundary of a control resource set transmission; adjusting a duration of a dynamic cyclic prefix based at least in part on the channel reservation signal preamble and the time difference; appending the dynamic cyclic prefix and the payload to the channel reservation signal preamble; and aligning at least a portion of the channel reservation signal with a boundary of the control resource set transmission associated with the first transmission.
A method of determining the amount of non-condensable gas within a fluid flow containing both non-condensable gas and condensate liquid, the method comprising: receiving the fluid flow in a fluid displacement volume causing the non-condensable gas to rise and accumulate in an upper portion of the volume; and monitoring the liquid level of a free surface in the fluid displacement volume to generate a level signal; characterised in monitoring the flow of liquid out of the fluid displacement volume while the liquid is discharged from the fluid displacement volume at the same rate as the rate of the fluid flow entering the fluid displacement volume and a gas outlet line of the fluid displacement volume is closed, to generate a liquid flow signal related to the flow rate of liquid out of the fluid displacement volume; and determining the amount of non-condensable gas in the fluid flow based on the level signal and the liquid flow signal, wherein the determination is for a known geometry of the fluid displacement volume. receiving the fluid flow in a fluid displacement volume causing the non-condensable gas to rise and accumulate in an upper portion of the volume; and monitoring the liquid level of a free surface in the fluid displacement volume to generate a level signal; characterised in monitoring the flow of liquid out of the fluid displacement volume while the liquid is discharged from the fluid displacement volume at the same rate as the rate of the fluid flow entering the fluid displacement volume and a gas outlet line of the fluid displacement volume is closed, to generate a liquid flow signal related to the flow rate of liquid out of the fluid displacement volume; and determining the amount of non-condensable gas in the fluid flow based on the level signal and the liquid flow signal, wherein the determination is for a known geometry of the fluid displacement volume.
An isolated exosome, wherein (i) the isolated exosome comprises markers ALIX, TSG101, TGFBR2, SMAD1, SMAD2, SMAD3, SMAD5 and CD105; and (ii) wherein the isolated exosome does not comprise markers FLOT1, CD9, CD81, CAV1, EGFR, AKT1 and AKT2. (i) the isolated exosome comprises markers ALIX, TSG101, TGFBR2, SMAD1, SMAD2, SMAD3, SMAD5 and CD105; and (ii) wherein the isolated exosome does not comprise markers FLOT1, CD9, CD81, CAV1, EGFR, AKT1 and AKT2.
A method for detecting a plurality of pan positions in a stepper motor driven panable video surveillance camera of the type having a pan home sensor to detect a home pan position and setting a pan motor step count to a known value at the home position comprising: placing a plurality of pan positions and said home pan position in a spaced relation on a slip ring assembly of the panable video surveillance camera; detesting each of said pan positions and said home pan position by said pan home sensor positioned in a preselected location during panning of the video surveillance camera, each of said pan positions and said home pan position having an associated specified pan motor step count when detected; resetting the pan motor step count to the specified motor step count at each of said pan position locations and said home pan position location when detected, wherein during panning of the video surveillance camera, if at least one of said pan positions is detected, the pan motor step count in reset to the specified pan motor step count. placing a plurality of pan positions and said home pan position in a spaced relation on a slip ring assembly of the panable video surveillance camera; detesting each of said pan positions and said home pan position by said pan home sensor positioned in a preselected location during panning of the video surveillance camera, each of said pan positions and said home pan position having an associated specified pan motor step count when detected; resetting the pan motor step count to the specified motor step count at each of said pan position locations and said home pan position location when detected, wherein during panning of the video surveillance camera, if at least one of said pan positions is detected, the pan motor step count in reset to the specified pan motor step count.
A method for determining at least one sequence of interest of a fetus of a pregnant mother, the method comprising: (a) separating a buffy coat and a plasma of a blood sample obtained from the pregnant mother; (b) obtaining mother-only cellular DNA of the pregnant mother from the buffy coat of the blood sample, wherein the mother-only cellular DNA has a sequence that maps to the at least one sequence of interest; (c) obtaining mother-and-fetus mixed cfDNA from the plasma of the blood sample, wherein the mother-and-fetus mixed cfDNA has a sequence that maps to the at least one sequence of interest; (d) applying an index sequence to at least one of the mother-only cellular DNA and the cfDNA, wherein the index sequence identifies a source of DNA as being from the mother-only cellular DNA or the cfDNA; (e) combining the mother-only cellular DNA and the mother-and-fetus mixed cfDNA to provide a sample of combined cellular DNA and cfDNA; (f) sequencing said sample of combined cellular DNA and cfDNA to provide a plurality of sequence tags; and (g) obtaining a test-difference value based on the difference of counts of test sequence tags derived from the mother-only cellular DNA vs the cfDNA by subtracting counts of test sequence tags derived from the mother-only cellular DNA from counts of test sequence tags derived from the cfDNA, to determine the presence and/or abundance of the at least one sequence of interest in the fetus's DNA, wherein the plurality of sequence tags map to the at least one sequence of interest. (a) separating a buffy coat and a plasma of a blood sample obtained from the pregnant mother; (b) obtaining mother-only cellular DNA of the pregnant mother from the buffy coat of the blood sample, wherein the mother-only cellular DNA has a sequence that maps to the at least one sequence of interest; (c) obtaining mother-and-fetus mixed cfDNA from the plasma of the blood sample, wherein the mother-and-fetus mixed cfDNA has a sequence that maps to the at least one sequence of interest; (d) applying an index sequence to at least one of the mother-only cellular DNA and the cfDNA, wherein the index sequence identifies a source of DNA as being from the mother-only cellular DNA or the cfDNA; (e) combining the mother-only cellular DNA and the mother-and-fetus mixed cfDNA to provide a sample of combined cellular DNA and cfDNA; (f) sequencing said sample of combined cellular DNA and cfDNA to provide a plurality of sequence tags; and (g) obtaining a test-difference value based on the difference of counts of test sequence tags derived from the mother-only cellular DNA vs the cfDNA by subtracting counts of test sequence tags derived from the mother-only cellular DNA from counts of test sequence tags derived from the cfDNA, to determine the presence and/or abundance of the at least one sequence of interest in the fetus's DNA, wherein the plurality of sequence tags map to the at least one sequence of interest.
A phase separation centrifuge tube for separating fluids, the tube comprising an inlet and an outlet for fluid, and a cavity for receiving fluid, the outlet interconnected by a first passageway (28, 24) in fluid communication with the cavity through which fluid may flow out of the tube, the tube further comprising a fluid control valve comprising: i) a second passageway extending substantially transverse to the first passageway (28, 24) and a plug disposed within the second passageway, the plug movable between a valve-closed position in which the plug seals the first passageway (28, 24), and a valve-open position in which the first passageway (28, 24) is continuous to enable the flow of fluid from the cavity out of the tube; or ii) a plug disposed within the first passageway (28, 24), the plug further comprising an inlet, outlet and a continuous channel extending therebetween, the plug movable between a valve-closed position in which the plug seals the passageway (28, 24), and a valve-open position in which the continuous channel is in fluid communication with the first passageway (28, 24) to enable the flow of fluid from the cavity out of the tube, wherein the first passageway (28, 24) is defined by a first section extending from the cavity and a second section in fluid connection with the first section, wherein the first and second sections are not coaxial with each other such that the passageway (24, 28) is non-linear, and wherein the first and second sections are substantially parallel with the longitudinal axis of the tube, and wherein the first passageway (24, 28) further comprises a junction, fluidly connecting the first and second sections, which junction is substantially perpendicular to the first and second sections (24, 28). i) a second passageway extending substantially transverse to the first passageway (28, 24) and a plug disposed within the second passageway, the plug movable between a valve-closed position in which the plug seals the first passageway (28, 24), and a valve-open position in which the first passageway (28, 24) is continuous to enable the flow of fluid from the cavity out of the tube; or ii) a plug disposed within the first passageway (28, 24), the plug further comprising an inlet, outlet and a continuous channel extending therebetween, the plug movable between a valve-closed position in which the plug seals the passageway (28, 24), and a valve-open position in which the continuous channel is in fluid communication with the first passageway (28, 24) to enable the flow of fluid from the cavity out of the tube, wherein the first passageway (28, 24) is defined by a first section extending from the cavity and a second section in fluid connection with the first section, wherein the first and second sections are not coaxial with each other such that the passageway (24, 28) is non-linear, and wherein the first and second sections are substantially parallel with the longitudinal axis of the tube, and wherein the first passageway (24, 28) further comprises a junction, fluidly connecting the first and second sections, which junction is substantially perpendicular to the first and second sections (24, 28).
A mobile terminal comprising: a user input unit; a display unit configured to display a plurality of objects as a first display; a projector module configured to project a second display on an external plane, the second display including at least a first facet and a second facet arranged in a prescribed 3-dimensional pattern; and a controller configured to arrange a region of the first display on the first facet of the second display, wherein the display unit includes a touch screen configured to recognize a touch input from a user, wherein the controller is configured to select the region based on a touch start point and a touch end point of a touch-drag input applied to the touch screen, and wherein the region includes at least a first object of the plurality of objects. a user input unit; a display unit configured to display a plurality of objects as a first display; a projector module configured to project a second display on an external plane, the second display including at least a first facet and a second facet arranged in a prescribed 3-dimensional pattern; and a controller configured to arrange a region of the first display on the first facet of the second display, wherein the display unit includes a touch screen configured to recognize a touch input from a user, wherein the controller is configured to select the region based on a touch start point and a touch end point of a touch-drag input applied to the touch screen, and wherein the region includes at least a first object of the plurality of objects.
A method for the production of solid polyester polymer particles comprising: a) polycondensing a molten polyester polymer composition in the presence of a polycondensation catalyst composition consisting exclusively of titanium species, meaning that no other metal catalyst compounds are added in the melt-phase manufacturing process to actively catalyze the poly-condensation reaction in the melt; b) adding a catalyst deactivator compound to the molten polyester polymer composition; c) after reaching an It.V. of 0.69 dL/g or more, solidifying the molten polyester polymer composition into solid polyester polymer particles which do not contain added acetaldehyde scavengers; and d) reducing the amount of residual acetaldehyde in the solid particles to a level of 10 ppm or less in the solid state without increasing the It.V. of the particles by more than 0.03 dL/g in the solid state; wherein the catalyst deactivator compound is added to the molten polyester polymer composition in step b) at one or more of the following points: (i) within a final reactor for polycondensing the molten polyester polymer or between said final reactor and before a cutter for cutting the molten polyester polymer composition into said solid particles; or (ii) after the It.V. of the molten polyester polymer composition has risen to at least 0.5 dL/g; or (iii) vacuum applied to the molten polyester polymer melt, if any, is at least partially released; or (iv) following at least 75% of the polycondensation time; or (v) within +/- 0.10 dL/g, of the It.V. obtained upon solidification; or (vi) within 30 minutes before solidifying the melt. a) polycondensing a molten polyester polymer composition in the presence of a polycondensation catalyst composition consisting exclusively of titanium species, meaning that no other metal catalyst compounds are added in the melt-phase manufacturing process to actively catalyze the poly-condensation reaction in the melt; b) adding a catalyst deactivator compound to the molten polyester polymer composition; c) after reaching an It.V. of 0.69 dL/g or more, solidifying the molten polyester polymer composition into solid polyester polymer particles which do not contain added acetaldehyde scavengers; and d) reducing the amount of residual acetaldehyde in the solid particles to a level of 10 ppm or less in the solid state without increasing the It.V. of the particles by more than 0.03 dL/g in the solid state; (i) within a final reactor for polycondensing the molten polyester polymer or between said final reactor and before a cutter for cutting the molten polyester polymer composition into said solid particles; or (ii) after the It.V. of the molten polyester polymer composition has risen to at least 0.5 dL/g; or (iii) vacuum applied to the molten polyester polymer melt, if any, is at least partially released; or (iv) following at least 75% of the polycondensation time; or (v) within +/- 0.10 dL/g, of the It.V. obtained upon solidification; or (vi) within 30 minutes before solidifying the melt.
Aqueous ink comprising one or more film forming agents, wherein the total film forming agent concentration in the aqueous ink is from 0.1 to 30 wt.%; wherein the one or more film forming agents fulfil at least one of the following properties: i) a Young modulus of at least 2 GPa, and ii) a nano hardness of at least 0.08 GPa, and wherein the ink further comprises one or more emulsifiers, wherein the one or more emulsifiers are fatty acid esters of polyalkoxylated sorbitan. wherein the one or more film forming agents fulfil at least one of the following properties: i) a Young modulus of at least 2 GPa, and ii) a nano hardness of at least 0.08 GPa, and i) a Young modulus of at least 2 GPa, and ii) a nano hardness of at least 0.08 GPa, and wherein the ink further comprises one or more emulsifiers, wherein the one or more emulsifiers are fatty acid esters of polyalkoxylated sorbitan.
A method for manufacturing an organic electronic device sealing body, adhesively integrating an organic electronic device with a sheet-like sealant made of a modified hydrocarbon-based soft resin having an alkoxysilyl group, the method comprising steps of: step: laminating the organic electronic device and the sheet-like sealant to obtain a laminate; step: putting the resulting laminate into a resin bag, degassing the bag, and then sealing the bag containing the laminate; and step: placing the sealed bag under a pressure of 0.4 to 1.0 MPa to adhesively integrate the laminate, wherein the sheet-like sealant has a thickness of 20 to 100 μm, and characterized in that the resin bag has a multilayer structure which includes one of a PET layer/adherend layer/PE layer, PET layer/adherend layer/PP layer, NY layer/adherend layer/PE layer, NY layer/adherend layer/PP layer, or PET layer/adherend layer/NY layer/adherend layer/PP layer and has a thickness of 30 to 200 μm, wherein PE is polyethylene, PP is polypropylene, PET is polyethylene terephthalate, and NY is nylon. step: laminating the organic electronic device and the sheet-like sealant to obtain a laminate; step: putting the resulting laminate into a resin bag, degassing the bag, and then sealing the bag containing the laminate; and step: placing the sealed bag under a pressure of 0.4 to 1.0 MPa to adhesively integrate the laminate, wherein the sheet-like sealant has a thickness of 20 to 100 μm, and characterized in that the resin bag has a multilayer structure which includes one of a PET layer/adherend layer/PE layer, PET layer/adherend layer/PP layer, NY layer/adherend layer/PE layer, NY layer/adherend layer/PP layer, or PET layer/adherend layer/NY layer/adherend layer/PP layer and has a thickness of 30 to 200 μm, wherein PE is polyethylene, PP is polypropylene, PET is polyethylene terephthalate, and NY is nylon. wherein the sheet-like sealant has a thickness of 20 to 100 μm, and characterized in that the resin bag has a multilayer structure which includes one of a PET layer/adherend layer/PE layer, PET layer/adherend layer/PP layer, NY layer/adherend layer/PE layer, NY layer/adherend layer/PP layer, or PET layer/adherend layer/NY layer/adherend layer/PP layer and has a thickness of 30 to 200 μm, wherein PE is polyethylene, PP is polypropylene, PET is polyethylene terephthalate, and NY is nylon.