mhurhangee/ep-ind-claims huggingface dataset:
A sensing system comprising: at least one chip branch, wherein each of the at least one chip branch comprises N sensing chips connected sequentially to form N cascading stages, N being an integer greater than one; characterized in that each of the N sensing chips comprises a clock circuit and a frequency dividing circuit, the clock circuit is configured to receive an input working clock signal, and to perform an integration process on the input working clock signal by increasing its frequency to obtain an intermediate clock signal; the frequency dividing circuit is configured to receive the intermediate clock signal, and to perform a frequency dividing process on the intermediate clock signal to obtain an output working clock signal for a next-stage sensing chip; the input working clock signal received by the clock circuit of a first-stage sensing chip comprises a first working clock signal received by the at least one chip branch, the input working clock signal received by the clock circuit of an ith-stage sensing chip is the output working clock signal output by the frequency dividing circuit of an (i-1) th-stage sensing chip, i being an integer greater than one and less or equal to N; and each of the at least one chip branch comprises at least two types of sensing chips, and the clock circuit of one respective sensing chip of the N sensing chips is configured to output an intermediate clock signal same as or different from an intermediate clock signal output by the clock circuit of another respective sensing chip of the N sensing chips. at least one chip branch, wherein each of the at least one chip branch comprises N sensing chips connected sequentially to form N cascading stages, N being an integer greater than one; characterized in that each of the N sensing chips comprises a clock circuit and a frequency dividing circuit, the clock circuit is configured to receive an input working clock signal, and to perform an integration process on the input working clock signal by increasing its frequency to obtain an intermediate clock signal; the frequency dividing circuit is configured to receive the intermediate clock signal, and to perform a frequency dividing process on the intermediate clock signal to obtain an output working clock signal for a next-stage sensing chip; the input working clock signal received by the clock circuit of a first-stage sensing chip comprises a first working clock signal received by the at least one chip branch, the input working clock signal received by the clock circuit of an ith-stage sensing chip is the output working clock signal output by the frequency dividing circuit of an (i-1) th-stage sensing chip, i being an integer greater than one and less or equal to N; and each of the at least one chip branch comprises at least two types of sensing chips, and the clock circuit of one respective sensing chip of the N sensing chips is configured to output an intermediate clock signal same as or different from an intermediate clock signal output by the clock circuit of another respective sensing chip of the N sensing chips.
Box incorporating a gas sampling device for a hydrogen tank filling station, the box being mobile and manually transportable and having a volume of between 0.1 and 0.3 m 3 and a mass of between 5 and 35 kg, the device comprising a circuit (2, 3, 5) comprising a first upstream end provided with an inlet connector and two pipes (2, 5), these respectively being a sampling pipe and a filling pipe, the sampling pipe comprising a system of valves (9, 10, 11), a first pressure regulator and a container for collecting a sample of gas expanded by said first regulator, the filling pipe comprising a downstream end provided with a first outlet connector intended to be connected removably to an inlet connector of a tank (13, 14) that is to be filled, wherein the inlet connector is intended to be connected removably to an outlet connector of a filling station, and wherein the two pipes (2, 5), these respectively being a sampling pipe and a filling pipe, are connected in parallel to the inlet connector, the circuit (2, 3, 5) also comprising a vent pipe comprising at least one pressure-sensitive relief valve (20, 22), the vent pipe having a downstream discharge end opening to the outside of the device, a first upstream end connected to the sampling pipe, upstream of the collecting container, a second upstream end connected to the sampling pipe downstream of the collecting container, and a third upstream end provided with a valve and with a nonreturn check valve, said third upstream end being connected to the sampling pipe upstream of the collecting container.
An impact modifier composition comprising one or more core/shell polymers which comprise: a crosslinked core having from 98 to 99.9 wt% units derived from butyl acrylate and from 0.1 to 2 wt% units derived from allyl acrylate crosslinker containing a vinylically unsaturated moiety with an acrylate free radical reactivity ratio from 0.8 to 1.2 and one or more non-acrylate vinylically unsaturated moiety(ies) with an acrylate free radical reactivity ratio(s) greater than 1, wherein the crosslinked core has a swell ratio in THF between 7 and 15 and a glass transition temperature, Tg, of less than or equal to 10 °C; and a shell having 100 wt% units derived from methyl methacrylate monomers and having a Tg of greater than 20 °C. a crosslinked core having from 98 to 99.9 wt% units derived from butyl acrylate and from 0.1 to 2 wt% units derived from allyl acrylate crosslinker containing a vinylically unsaturated moiety with an acrylate free radical reactivity ratio from 0.8 to 1.2 and one or more non-acrylate vinylically unsaturated moiety(ies) with an acrylate free radical reactivity ratio(s) greater than 1, wherein the crosslinked core has a swell ratio in THF between 7 and 15 and a glass transition temperature, Tg, of less than or equal to 10 °C; and a shell having 100 wt% units derived from methyl methacrylate monomers and having a Tg of greater than 20 °C.
An image display device worn on a head or face of a user, comprising: a touch panel; a display unit; a real world image acquisition unit (702; 1402) configured to acquire an image of a real world; a region specification unit configured to specify a region in which to display the image of the real world, corresponding to a location where the user touched the touch panel; a virtual world image generation unit configured to generate an image of a virtual world; a region image generation unit configured to generate an image of the real world and an image of a region of the virtual world corresponding to the region specified by the region specification unit; and an image generation unit configured to mix the image of the real world into a virtual image on a basis of the specified region, and generate an image to display on the display unit by superimposing or mixing the image of the virtual world of a corresponding region of a virtual world rendering result with the image of the real world of the corresponding region of the real world. a touch panel; a display unit; a real world image acquisition unit (702; 1402) configured to acquire an image of a real world; a region specification unit configured to specify a region in which to display the image of the real world, corresponding to a location where the user touched the touch panel; a virtual world image generation unit configured to generate an image of a virtual world; a region image generation unit configured to generate an image of the real world and an image of a region of the virtual world corresponding to the region specified by the region specification unit; and an image generation unit configured to mix the image of the real world into a virtual image on a basis of the specified region, and generate an image to display on the display unit by superimposing or mixing the image of the virtual world of a corresponding region of a virtual world rendering result with the image of the real world of the corresponding region of the real world.
A computing system comprising: a sealed computer chassis housing (100, 410, 411) defining an interior space (130, 420) and an exterior surface (115, 125, 462, 474) with a heat sink (460, 470) for the interior space; a plurality of heat-generating electronic components (310, 320, 330, 340) disposed within the interior space and electrically coupled to one or more expansion cards (145a, 145b, 145c, 240, 250, 260, 300, 500, 600) electrically connected on a main board, the plurality of heat-generating electronic components including one or more microprocessors (245, 255, 265) and one or more memory devices; a heat spreader (350, 442, 452, 550, 650) including a plurality of thermally-conductive protrusions (361, 362, 363, 364, 444a-d, 454a-d, 561, 562, 563, 564, 661, 662, 663, 664) coupled to the one or more microprocessors or the one or more memory devices by an intermediate thermally-conductive layer; and a thermal pad (443, 453) positioned above and in thermal contact with the heat spreader, the thermal pad positioned adjacent to an interior wall of the sealed computer chassis housing opposite to the heat sink; wherein the heat sink includes a plurality of fins (150, 152, 460, 470) protruding orthogonally to the exterior surface of the sealed computer chassis housing. a sealed computer chassis housing (100, 410, 411) defining an interior space (130, 420) and an exterior surface (115, 125, 462, 474) with a heat sink (460, 470) for the interior space; a plurality of heat-generating electronic components (310, 320, 330, 340) disposed within the interior space and electrically coupled to one or more expansion cards (145a, 145b, 145c, 240, 250, 260, 300, 500, 600) electrically connected on a main board, the plurality of heat-generating electronic components including one or more microprocessors (245, 255, 265) and one or more memory devices; a heat spreader (350, 442, 452, 550, 650) including a plurality of thermally-conductive protrusions (361, 362, 363, 364, 444a-d, 454a-d, 561, 562, 563, 564, 661, 662, 663, 664) coupled to the one or more microprocessors or the one or more memory devices by an intermediate thermally-conductive layer; and a thermal pad (443, 453) positioned above and in thermal contact with the heat spreader, the thermal pad positioned adjacent to an interior wall of the sealed computer chassis housing opposite to the heat sink; wherein the heat sink includes a plurality of fins (150, 152, 460, 470) protruding orthogonally to the exterior surface of the sealed computer chassis housing.
A method for screen capture processing for a terminal having a touch screen, the method comprising: determining (101, 202) whether a floating window is contained in a display interface of the terminal when an instruction for capturing the display interface is acquired from a user; if the display interface contains the floating window, generating (102, 203) a screenshot by capturing the display interface in a customized way, wherein generating the screenshot by capturing the display interface in a customized way comprises: generating a first screenshot by capturing the display interface of the terminal, the first screenshot containing the floating window, and generating a second screenshot by removing the floating window contained in the display interface and capturing an original image under the floating window; and displaying the first screenshot to the user, and characterized by detecting (103, 204) an operation gesture of the user for the screenshot; and if the operation gesture is a preset operation gesture, removing (104, 205) the floating window from the screenshot to generate a target screenshot: by removing the first screenshot displayed to the user and displaying the second screenshot to the user. determining (101, 202) whether a floating window is contained in a display interface of the terminal when an instruction for capturing the display interface is acquired from a user; if the display interface contains the floating window, generating (102, 203) a screenshot by capturing the display interface in a customized way, wherein generating the screenshot by capturing the display interface in a customized way comprises: generating a first screenshot by capturing the display interface of the terminal, the first screenshot containing the floating window, and generating a second screenshot by removing the floating window contained in the display interface and capturing an original image under the floating window; and displaying the first screenshot to the user, and characterized by detecting (103, 204) an operation gesture of the user for the screenshot; and if the operation gesture is a preset operation gesture, removing (104, 205) the floating window from the screenshot to generate a target screenshot: by removing the first screenshot displayed to the user and displaying the second screenshot to the user. generating a first screenshot by capturing the display interface of the terminal, the first screenshot containing the floating window, and generating a second screenshot by removing the floating window contained in the display interface and capturing an original image under the floating window; and displaying the first screenshot to the user, and characterized by detecting (103, 204) an operation gesture of the user for the screenshot; and if the operation gesture is a preset operation gesture, removing (104, 205) the floating window from the screenshot to generate a target screenshot: by removing the first screenshot displayed to the user and displaying the second screenshot to the user.
A method for quantifying a therapeutic antibody in a sample of a human individual comprising the steps of: a) adding to a test sample which may contain therapeutic antibodies to be quantified a known amount of two or more labeled forms of said therapeutic antibodies, whereby a pre-proteolysis sample is provided, b) subjecting the pre-proteolysis sample to an enzyme proteolysis, so as to provide a proteolysis sample comprising (i) proteolysis labeled peptides derived from the labeled therapeutic antibodies and (ii) proteolysis peptides derived from the therapeutic antibody contained in the test sample, c) determining by mass spectrometric analysis the ratio between (i) one or more selected proteolysis labeled peptides and (ii) one or more corresponding proteolysis peptides derived from the said therapeutic antibody, d) calculating from the ratio determined at step c) the amount of the said therapeutic antibody in the test sample; wherein the therapeutic antibodies are selected in a group consisting of: Infliximab, Etanercept, Adalimumab, Certolizumab, Golimumab, Trastuzumab, Rituximab and Bevacizumab. a) adding to a test sample which may contain therapeutic antibodies to be quantified a known amount of two or more labeled forms of said therapeutic antibodies, whereby a pre-proteolysis sample is provided, b) subjecting the pre-proteolysis sample to an enzyme proteolysis, so as to provide a proteolysis sample comprising (i) proteolysis labeled peptides derived from the labeled therapeutic antibodies and (ii) proteolysis peptides derived from the therapeutic antibody contained in the test sample, c) determining by mass spectrometric analysis the ratio between (i) one or more selected proteolysis labeled peptides and (ii) one or more corresponding proteolysis peptides derived from the said therapeutic antibody, d) calculating from the ratio determined at step c) the amount of the said therapeutic antibody in the test sample;
An Al or Al alloy coated stainless steel sheet comprising: a coating substrate; and an Al or Al alloy coated layer on a surface of the coating substrate, wherein the coating substrate is a ferritic stainless steel sheet having a chemical composition containing, in mass%, C: 0.030 % or less, Si: 1.0 % or less, Mn: 1.0 % or less, P: 0.040 % or less, S: 0.010 % or less, Cr: 11.0 % to 30.0 %, Al: 2.5 % to 6.5 %, Ni: 0.05 % to 0.50 %, N: 0.020 % or less, and at least one selected from the group consisting of Zr: 0.01 % to 0.20 % and Hf: 0.01 % to 0.20 %, optionally, in mass%, one or more selected from the group consisting of REM: 0.01 % to 0.20 %, Cu: 0.01 % to 0.10 %, Ti: 0.01 % to 0.50 %, Nb: 0.01 % to 0.50 %, V: 0.01 % to 0.50 %, Mo: 0.01 % to 6.0 %, W: 0.01 % to 6.0 %, B: 0.0001 % to 0.0050 %, Ca: 0.0002 % to 0.0100 %, and Mg: 0.0002 % to 0.0100 %, with a balance consisting of Fe and inevitable impurities, and a thickness and an Al content of the coating substrate and a thickness of the Al or Al alloy coated layer satisfy a relationship in the following expression: 8.0 ≤ C Al + 30 × t / T ≤ 20.0 where C Al is the Al content of the coating substrate in mass%, T is the thickness of the coating substrate in μm, and t is the thickness of the Al or Al alloy coated layer in μm, and, in the case where the Al or Al alloy coated layer is present on each of both sides of the coating substrate, is a total thickness of Al or Al alloy coated layers on the both sides of the coating substrate. a coating substrate; and an Al or Al alloy coated layer on a surface of the coating substrate, wherein the coating substrate is a ferritic stainless steel sheet having a chemical composition containing, in mass%, C: 0.030 % or less, Si: 1.0 % or less, Mn: 1.0 % or less, P: 0.040 % or less, S: 0.010 % or less, Cr: 11.0 % to 30.0 %, Al: 2.5 % to 6.5 %, Ni: 0.05 % to 0.50 %, N: 0.020 % or less, and at least one selected from the group consisting of Zr: 0.01 % to 0.20 % and Hf: 0.01 % to 0.20 %, optionally, in mass%, one or more selected from the group consisting of REM: 0.01 % to 0.20 %, Cu: 0.01 % to 0.10 %, Ti: 0.01 % to 0.50 %, Nb: 0.01 % to 0.50 %, V: 0.01 % to 0.50 %, Mo: 0.01 % to 6.0 %, W: 0.01 % to 6.0 %, B: 0.0001 % to 0.0050 %, Ca: 0.0002 % to 0.0100 %, and Mg: 0.0002 % to 0.0100 %, with a balance consisting of Fe and inevitable impurities, and a thickness and an Al content of the coating substrate and a thickness of the Al or Al alloy coated layer satisfy a relationship in the following expression: 8.0 ≤ C Al + 30 × t / T ≤ 20.0 where C Al is the Al content of the coating substrate in mass%, T is the thickness of the coating substrate in μm, and t is the thickness of the Al or Al alloy coated layer in μm, and, in the case where the Al or Al alloy coated layer is present on each of both sides of the coating substrate, is a total thickness of Al or Al alloy coated layers on the both sides of the coating substrate.
An intraocular lens insertion device comprising: a lens placement section; an intraocular lens, having an optical part and front and rear supporting portions (7, 7a) on an outer edge of said optical part, in said lens placement section; a transition section for deforming said intraocular lens; a nozzle section for releasing said intraocular lens; a slider for pushing out said intraocular lens placed in said lens placement section in a lens advancement direction; and a plunger for releasing said intraocular lens pushed out by said slider from said nozzle section; characterized by said slider including a first abutting portion with a slanted surface that slants downward in the lens advancement direction (x) and one or more second abutting portions (22a, 22b) positioned relative to said first abutting portion such that said slanted surface of the first abutting portion is located rearward of said one or more second abutting portions (22a, 22b) and said slanted surface being configured to bend said rear supporting portion toward said optical part in the lens advancement direction and over said optical part as said one or more second abutting portions (22a, 22b) come into contact with the outer edge of a rear portion of said optical part. a lens placement section; an intraocular lens, having an optical part and front and rear supporting portions (7, 7a) on an outer edge of said optical part, in said lens placement section; a transition section for deforming said intraocular lens; a nozzle section for releasing said intraocular lens; a slider for pushing out said intraocular lens placed in said lens placement section in a lens advancement direction; and a plunger for releasing said intraocular lens pushed out by said slider from said nozzle section; characterized by said slider including a first abutting portion with a slanted surface that slants downward in the lens advancement direction (x) and one or more second abutting portions (22a, 22b) positioned relative to said first abutting portion such that said slanted surface of the first abutting portion is located rearward of said one or more second abutting portions (22a, 22b) and said slanted surface being configured to bend said rear supporting portion toward said optical part in the lens advancement direction and over said optical part as said one or more second abutting portions (22a, 22b) come into contact with the outer edge of a rear portion of said optical part.
A hole plug (10, 20, 30, 40, 50) comprising: a flange part (12, 22, 32, 42, 52) which covers an opening peripheral surface of an attachment hole formed in an attachment member at a predetermined inclined angle against the opening peripheral surface; and a cylindrical outer peripheral wall part (13, 23, 33, 43, 53) formed to extend downward from an inner edge part of the flange part (12, 22, 32, 42, 52), characterized in that a flange part associating bending part (14, 24, 34, 44, 54) is formed as a base point for bending an upper part of the outer peripheral wall part (13, 23, 33, 43, 53) from a predetermined position of the outer peripheral wall part (13, 23, 33, 43, 53) in a direction away from a hole edge when a tip (12a, 22a, 32a, 42a, 52a) of the flange part (12, 22, 32, 42, 52) is contacted with the opening peripheral surface of the attachment member. a flange part (12, 22, 32, 42, 52) which covers an opening peripheral surface of an attachment hole formed in an attachment member at a predetermined inclined angle against the opening peripheral surface; and a cylindrical outer peripheral wall part (13, 23, 33, 43, 53) formed to extend downward from an inner edge part of the flange part (12, 22, 32, 42, 52), characterized in that a flange part associating bending part (14, 24, 34, 44, 54) is formed as a base point for bending an upper part of the outer peripheral wall part (13, 23, 33, 43, 53) from a predetermined position of the outer peripheral wall part (13, 23, 33, 43, 53) in a direction away from a hole edge when a tip (12a, 22a, 32a, 42a, 52a) of the flange part (12, 22, 32, 42, 52) is contacted with the opening peripheral surface of the attachment member.