mhurhangee/ep-ind-claims huggingface dataset:
Continuous process for preparing a liquid washing or cleaning agent, the process comprising mixing continuous separate volume flows of at least two liquid washing-agent or cleaning-agent components, and a reaction volume being used in the process, characterized in that the at least two liquid washing-agent or cleaning-agent components chemically react with one another, in particular by means of a neutralization reaction, and in that the reaction volume is a dynamic loop mixer.
An apparatus comprising: a capacitor case (112, 302, 402, 502) sealed to retain electrolyte; a stack of electrodes comprising a plurality of electrodes positioned against each other and disposed in the capacitor case (112, 302, 402, 502), with each of the electrodes comprising a sintered portion (702, 704, 706, 708) disposed on a substrate (710, 712, 714, 716), wherein a plurality of substrates (710, 712, 714, 716) are pinched together and interconnected; a conductor coupled to the substrates (710, 712, 714,716) in electrical communication with the sintered portion (702,704,706,708), the conductor sealingly extending through the capacitor case (112, 302, 402, 502) to a terminal disposed on an exterior of the capacitor case (112, 302, 402, 502) with the terminal in electrical communication with the sintered portion (702, 704, 706, 708); a second electrode (316, 416, 516, 608) disposed in the capacitor case (112, 302, 402, 502); a separator (420, 520, 606) disposed between at least one of the plurality of electrodes and the second electrode (316, 416, 516, 608); and a second terminal disposed on the exterior of the capacitor case (112, 302, 402, 502) and in electrical communication with the second electrode (316, 416, 516, 608), with the terminal and the second terminal electrically isolated from one another. a capacitor case (112, 302, 402, 502) sealed to retain electrolyte; a stack of electrodes comprising a plurality of electrodes positioned against each other and disposed in the capacitor case (112, 302, 402, 502), with each of the electrodes comprising a sintered portion (702, 704, 706, 708) disposed on a substrate (710, 712, 714, 716), wherein a plurality of substrates (710, 712, 714, 716) are pinched together and interconnected; a conductor coupled to the substrates (710, 712, 714,716) in electrical communication with the sintered portion (702,704,706,708), the conductor sealingly extending through the capacitor case (112, 302, 402, 502) to a terminal disposed on an exterior of the capacitor case (112, 302, 402, 502) with the terminal in electrical communication with the sintered portion (702, 704, 706, 708); a second electrode (316, 416, 516, 608) disposed in the capacitor case (112, 302, 402, 502); a separator (420, 520, 606) disposed between at least one of the plurality of electrodes and the second electrode (316, 416, 516, 608); and a second terminal disposed on the exterior of the capacitor case (112, 302, 402, 502) and in electrical communication with the second electrode (316, 416, 516, 608), with the terminal and the second terminal electrically isolated from one another.
A computer-implemented method of automatically initiating a process for securing a computer system or network against a suspect binary file, 'SBF' which has been created by modifying a known malicious binary file, 'KMBF', by, in response to detection of the SBF, initiating an automatic defence strategy comprising: a first action known to mitigate a known threat posed by the KMBF; and a further action predicted to mitigate a predicted threat posed by a discrepant function present in the SBF but not the KMBF; the method being characterised by, in response to detection of the SBF and prior to initiating the automatic defence strategy, determining the further action predicted to mitigate the predicted threat posed by the discrepant function by separating out a portion of the SBF corresponding to the discrepant function and running that portion of the SBF in a controlled virtual environment. a first action known to mitigate a known threat posed by the KMBF; and a further action predicted to mitigate a predicted threat posed by a discrepant function present in the SBF but not the KMBF;
A projection system operable to selectively project stereoscopic and non-stereoscopic projection modes, comprising: a relay lens subsystem operable to receive input light from a projection subsystem and convey the input light toward an intermediate light path; a stereoscopic module operable to receive the light from the intermediate light path and process the light for stereoscopic projection of left and right eye images having orthogonal polarization states; a non-stereoscopic module operable to receive the light from the intermediate light path; a projection lens subsystem operable to focus light from the stereoscopic module or the non-stereoscopic module toward a screen; a mechanism operable to selectively locate, between the relay lens subsystem and the projection lens subsystem, the stereoscopic module into the intermediate light path when a stereoscopic projection mode is selected, and locate the non-stereoscopic module into the intermediate light path when a non-stereoscopic projection mode is selected; and wherein when in the stereoscopic projection mode, the stereoscopic module is located in the intermediate light path, and wherein when in the non-stereoscopic projection mode, the non-stereoscopic module is located in the intermediate light path. a relay lens subsystem operable to receive input light from a projection subsystem and convey the input light toward an intermediate light path; a stereoscopic module operable to receive the light from the intermediate light path and process the light for stereoscopic projection of left and right eye images having orthogonal polarization states; a non-stereoscopic module operable to receive the light from the intermediate light path; a projection lens subsystem operable to focus light from the stereoscopic module or the non-stereoscopic module toward a screen; a mechanism operable to selectively locate, between the relay lens subsystem and the projection lens subsystem, the stereoscopic module into the intermediate light path when a stereoscopic projection mode is selected, and locate the non-stereoscopic module into the intermediate light path when a non-stereoscopic projection mode is selected; and wherein when in the stereoscopic projection mode, the stereoscopic module is located in the intermediate light path, and wherein when in the non-stereoscopic projection mode, the non-stereoscopic module is located in the intermediate light path.
A method of moving killed fish in a pipe or pipeline, wherein the method comprising: a. providing the pipe or pipeline with a desired water level by means of a water supply system, b. supplying killed fish to the pipe or pipeline at a closed end of the pipe or pipeline, characterized by comprising: c. supplying pressurized air and/or water pressure at supply points to form air/water partitions creating zones (A-D) having different properties with respect to direction and magnitude of water flow in the pipe or pipeline to form a controllable water flow in the zones (A-D) for propulsion of the fish in the pipe or pipeline and controlling retention time of the fish in the pipe or pipeline to obtain desired bleeding and/or cooling time for each fish. a. providing the pipe or pipeline with a desired water level by means of a water supply system, b. supplying killed fish to the pipe or pipeline at a closed end of the pipe or pipeline, characterized by comprising: c. supplying pressurized air and/or water pressure at supply points to form air/water partitions creating zones (A-D) having different properties with respect to direction and magnitude of water flow in the pipe or pipeline to form a controllable water flow in the zones (A-D) for propulsion of the fish in the pipe or pipeline and controlling retention time of the fish in the pipe or pipeline to obtain desired bleeding and/or cooling time for each fish.
Aclidinium or any of its steroisomers or mixture of stereoisomers, or a pharmaceutically acceptable salt or solvate thereof, for use in improving the quality of sleep in respiratory patients.
Aluminum nitride particles used as a material of an aluminum nitride sintered compact, wherein the aluminum nitride particles have a same crystal orientation, and the aluminum nitride particles each have an aspect ratio of 3 or more; a plate-like shape; a planar length of 0.6 μm or more and 20 μm or less; and a thickness length of 0.05 μm or more and less than 2 μm. the aluminum nitride particles have a same crystal orientation, and the aluminum nitride particles each have an aspect ratio of 3 or more; a plate-like shape; a planar length of 0.6 μm or more and 20 μm or less; and a thickness length of 0.05 μm or more and less than 2 μm.
A virus-like particle comprising at least one polypeptide having a composite amino acid sequence, wherein the composite amino acid sequence comprises SEQ ID NO: 1; wherein SEQ ID NO: 1 is derived from circulating Norovirus strains; wherein the virus-like particle has antigenic properties of the Norovirus circulating strains used to derive SEQ ID NO: 1; and wherein the circulating Norovirus strains are selected from the group consisting of Houston, Minerva, and Laurens virus.
A method for determining the quality of a break-off of an ink jet of a CIJ printing machine, this method including: a) generating a first line of N1 drops, all charged by charge means, at a same voltage V1, b) then generating at least one drop G1, charged by said charge means, at a second voltage, followed by at least one drop G2, not charged or charged by said charge means, at a third voltage lower than V1, c) then generating a second line of N2 drops, all charged by said charge means, at a same voltage V2, d) measuring, via an electrostatic sensor, the charge variation of a jet of non-deflected drops including at least the first line of drops and the second line of drops, separated by the drops G1 and G2, during the passage of that jet in front of said sensor. a) generating a first line of N1 drops, all charged by charge means, at a same voltage V1, b) then generating at least one drop G1, charged by said charge means, at a second voltage, followed by at least one drop G2, not charged or charged by said charge means, at a third voltage lower than V1, c) then generating a second line of N2 drops, all charged by said charge means, at a same voltage V2, d) measuring, via an electrostatic sensor, the charge variation of a jet of non-deflected drops including at least the first line of drops and the second line of drops, separated by the drops G1 and G2, during the passage of that jet in front of said sensor.
A detection terminal for detecting an optically invisible network, including: - a fixing portion intended to be fixed in a structure, - a protective portion secured to the fixing portion and arranged to protect the fixing portion, the protective portion being electrically conductive, - connection means intended to connect propagation means arranged to propagate an electric signal along the optically invisible network, the connection means being connected to the protective portion so as to hold, when in use, an electrical continuity between the protective portion and the propagation means, and - a protective casing made of an electrically non-conductive material in which the connection means are mounted, characterized in that the protective portion is arranged to be accessible from the outside of the structure when the detection terminal is in use, and in that the fixing portion delimits at least one housing in which is housed the protective casing. - a fixing portion intended to be fixed in a structure, - a protective portion secured to the fixing portion and arranged to protect the fixing portion, the protective portion being electrically conductive, - connection means intended to connect propagation means arranged to propagate an electric signal along the optically invisible network, the connection means being connected to the protective portion so as to hold, when in use, an electrical continuity between the protective portion and the propagation means, and - a protective casing made of an electrically non-conductive material in which the connection means are mounted,
A system comprising: a visible spectrum imaging module configured to capture a visible spectrum image of a scene at a first time while the scene is visibly illuminated; an infrared imaging module configured to capture an infrared image of the scene at a second time, different from said first time and while the scene is not visibly illuminated, wherein the infrared image comprises an infrared data component; and a processor configured to communicate with the visible spectrum imaging module and the infrared imaging module and to process the visible spectrum image and the infrared image to generate a combined image comprising visible spectrum characteristics of the scene derived from the visible spectrum image captured at the first time and infrared characteristics of the scene derived from the infrared data component of the infrared image captured at the second time. a visible spectrum imaging module configured to capture a visible spectrum image of a scene at a first time while the scene is visibly illuminated; an infrared imaging module configured to capture an infrared image of the scene at a second time, different from said first time and while the scene is not visibly illuminated, wherein the infrared image comprises an infrared data component; and a processor configured to communicate with the visible spectrum imaging module and the infrared imaging module and to process the visible spectrum image and the infrared image to generate a combined image comprising visible spectrum characteristics of the scene derived from the visible spectrum image captured at the first time and infrared characteristics of the scene derived from the infrared data component of the infrared image captured at the second time.
A circuit arrangement comprising a battery charger device configured to charge at least one rechargeable battery, the battery charger device comprising: a voltage regulator circuit configured to receive a voltage and provide a substantially constant regulated output voltage at a charging current and at a trickle charging current, the trickle charging current to be below a first predetermined value; and a resistor coupled with an output of the voltage regulator circuit and the at least one rechargeable battery to limit the charging current to be below a second predetermined value, characterised by the circuit arrangement further comprising a rechargeable battery which includes one or a plurality of NiCd or NiMH cells. a voltage regulator circuit configured to receive a voltage and provide a substantially constant regulated output voltage at a charging current and at a trickle charging current, the trickle charging current to be below a first predetermined value; and a resistor coupled with an output of the voltage regulator circuit and the at least one rechargeable battery to limit the charging current to be below a second predetermined value, characterised by the circuit arrangement further comprising a rechargeable battery which includes one or a plurality of NiCd or NiMH cells.
Therapeutic mixture for use in treating the osteoarthritis developing in the knee, hip, shoulder, wrist, ankle, elbow, finger, toe, backbone, characterized in that said mixture comprises (a) one or a mixture of chemical oils, animal oils or vegetable oils and (b) compounds for enhancing the skin penetration, and (c) the therapeutic nano hexagonal boron nitride (hBN) composition, wherein said therapeutic mixture is preferably in the form of any biocompatible lotion, solution, cream, ointment, pomade, gel, foam or plaster which can be applied topically to the skin.
A glass antenna (1; 1A; 1B; 2; 2A; 2B; 2C; 2D; 3; 3A) for a vehicle window glass comprising: a slot antenna formed by a conductive film in which a cutout portion is formed; and a pair of power supply units (7; 7F; 7G) configured to supply power to the slot antenna, wherein the slot antenna includes a first slot (11; 11C; 11F; 11G) extending in a first direction; a second slot (12; 12C; 12F; 12G) connected to one end of the first slot (11; 11C; 11F; 11G), and extending in a second direction that is different from the first direction, a first wide-width slot (14; 14A; 14C; 14E; 14F; 14G) connected to the other end of the first slot (11; 11C; 11F; 11G) directly or via a first connection slot, and having a slot width that is greater than a slot width of the first slot (11; 11C; 11F; 11G), and a second wide-width slot (15; 15B; 15C; 15D; 15F; 15G) connected to a terminal end portion of an extending of the second slot (12; 12C; 12F; 12G) directly or via a second connection slot, and having a slot width that is greater than a slot width of the second slot (12; 12C; 12F; 12G), and wherein the first wide-width slot (14; 14A; 14C; 14E; 14F; 14G) and the second wide-width slot (15; 15B; 15C; 15D; 15F; 15G) form open slots, respectively, and wherein the pair of power supply units (7; 7F; 7G) are arranged so as to straddle the first slot (11; 11C; 11F; 11G). a slot antenna formed by a conductive film in which a cutout portion is formed; and a pair of power supply units (7; 7F; 7G) configured to supply power to the slot antenna, wherein the slot antenna includes a first slot (11; 11C; 11F; 11G) extending in a first direction; a second slot (12; 12C; 12F; 12G) connected to one end of the first slot (11; 11C; 11F; 11G), and extending in a second direction that is different from the first direction, a first wide-width slot (14; 14A; 14C; 14E; 14F; 14G) connected to the other end of the first slot (11; 11C; 11F; 11G) directly or via a first connection slot, and having a slot width that is greater than a slot width of the first slot (11; 11C; 11F; 11G), and a second wide-width slot (15; 15B; 15C; 15D; 15F; 15G) connected to a terminal end portion of an extending of the second slot (12; 12C; 12F; 12G) directly or via a second connection slot, and having a slot width that is greater than a slot width of the second slot (12; 12C; 12F; 12G), and wherein the first wide-width slot (14; 14A; 14C; 14E; 14F; 14G) and the second wide-width slot (15; 15B; 15C; 15D; 15F; 15G) form open slots, respectively, and wherein the pair of power supply units (7; 7F; 7G) are arranged so as to straddle the first slot (11; 11C; 11F; 11G).
Use of 0.01 % to 10% by weight of a trialkyl phosphate ester additive of formula O=P-[O-R 1] 3 where each R 1 may be the same or different and is chosen from an alkyl group having 1 to 20 carbon atoms, in a compressor lubricant to reduce noise in and around the compressor of a refrigeration system by at least 1dB at a frequency between 0 and 20KHz. where each R 1 may be the same or different and is chosen from an alkyl group having 1 to 20 carbon atoms, in a compressor lubricant to reduce noise in and around the compressor of a refrigeration system by at least 1dB at a frequency between 0 and 20KHz.
A welding power supply, comprising: a first terminal and a second terminal configured to be connected to welding equipment; power conversion circuitry configured to convert input power to weld power and to output the weld power via the first and second terminals; an interface (114; 200), comprising: one or more first input devices (115; 202b) configured to receive a selection of a wire feeding weld process; and one or more second input devices (115; 202f) configured to receive a selection of a polarity of the weld power; and control circuitry configured to, in response to receiving, via the interface, an input associated with the wire feeding weld process or the selection of the output polarity, control the polarity of the weld power output via the power conversion circuitry to the first and second terminals, characterized in that the interface is configured to receive the selection of the polarity of the weld power in association with selection of a weld inductance parameter. a first terminal and a second terminal configured to be connected to welding equipment; power conversion circuitry configured to convert input power to weld power and to output the weld power via the first and second terminals; an interface (114; 200), comprising: one or more first input devices (115; 202b) configured to receive a selection of a wire feeding weld process; and one or more second input devices (115; 202f) configured to receive a selection of a polarity of the weld power; and one or more first input devices (115; 202b) configured to receive a selection of a wire feeding weld process; and one or more second input devices (115; 202f) configured to receive a selection of a polarity of the weld power; and control circuitry configured to, in response to receiving, via the interface, an input associated with the wire feeding weld process or the selection of the output polarity, control the polarity of the weld power output via the power conversion circuitry to the first and second terminals, characterized in that the interface is configured to receive the selection of the polarity of the weld power in association with selection of a weld inductance parameter.
A lyophilisate of a pharmaceutical composition comprising a protein biomolecule as an active agent or component thereof, wherein said composition comprises: an aqueous carrier; and (a) 75 mg/mL of a protein biomolecule, 25 mM histidine/ histidine-HCl as a buffer, 5% arginine w/v as a stabilizing compound wherein the total concentration of the stabilizing compound is up to 6% w/v selected from the group consisting of arginine, alanine, glycine, lycine, or proline or salt thereof, 0.02% PS-80 w/v, and a pH of 6; or (b) 100 mg/mL of a protein biomolecule, 25 mM histidine/ histidine-HCl as a buffer, 4% alanine w/v and 2% arginine w/v as stabilizing compounds wherein the total concentration of the stabilizing compound is up to 6% w/v selected from the group consisting of arginine, alanine, glycine, lycine, or proline or salt thereof, 0.02% PS-80 w/v, and a pH of 6; wherein said protein biomolecule is an antibody or an antibody-based immunotherapeutic. an aqueous carrier; and (a) 75 mg/mL of a protein biomolecule, 25 mM histidine/ histidine-HCl as a buffer, 5% arginine w/v as a stabilizing compound wherein the total concentration of the stabilizing compound is up to 6% w/v selected from the group consisting of arginine, alanine, glycine, lycine, or proline or salt thereof, 0.02% PS-80 w/v, and a pH of 6; or (b) 100 mg/mL of a protein biomolecule, 25 mM histidine/ histidine-HCl as a buffer, 4% alanine w/v and 2% arginine w/v as stabilizing compounds wherein the total concentration of the stabilizing compound is up to 6% w/v selected from the group consisting of arginine, alanine, glycine, lycine, or proline or salt thereof, 0.02% PS-80 w/v, and a pH of 6; wherein said protein biomolecule is an antibody or an antibody-based immunotherapeutic.