mhurhangee/ep-ind-claims huggingface dataset:
Method for operating an electrolysis apparatus comprising a plurality of electrolyzers selected from membrane electrolyzers, wherein at least each electrolyzer on the anode side has at least one liquid drain and in each case at least one gas outlet, and separately therefrom on the cathode side has at least one liquid drain and in each case at least one gas outlet, and the anode spaces of these electrolyzers are connected to one another and separately therefrom the cathode spaces of these electrolyzers are connected to one another, in each case at least via a liquid feed (2.2), a gas discharge (2.4) and a liquid discharge (2.5), characterized in that the operating pressure of at least one liquid discharge (2.5) is set lower than the operating pressure of the electrolyzers and a. the liquid drains from the anode spaces or the cathode spaces or from both of these spaces of the electrolyzers are effected, per electrolyzer, via a pipeline siphon (2.14) into the pipeline system of the liquid discharge (2.5), as a result of which on the liquid drain side the operating pressure of the electrolyzers is decoupled by means of each pipeline siphon (2.14) from the lower operating pressure of the adjoining pipeline system of the liquid discharge (2.5), and b. each gas outlet of the electrolyzers decoupled by means of pipeline siphon (2.14) is effected individually for each electrolyzer via an individual control valve (2.16) per electrolyzer into the common gas discharge (2.4). a. the liquid drains from the anode spaces or the cathode spaces or from both of these spaces of the electrolyzers are effected, per electrolyzer, via a pipeline siphon (2.14) into the pipeline system of the liquid discharge (2.5), as a result of which on the liquid drain side the operating pressure of the electrolyzers is decoupled by means of each pipeline siphon (2.14) from the lower operating pressure of the adjoining pipeline system of the liquid discharge (2.5), and b. each gas outlet of the electrolyzers decoupled by means of pipeline siphon (2.14) is effected individually for each electrolyzer via an individual control valve (2.16) per electrolyzer into the common gas discharge (2.4).
A reference signal measurement method, comprising: determining, by a user equipment, UE, a reference signal resource configuration, wherein the reference signal resource configuration comprises a reference signal configuration indicative of resource elements occupied by a reference signal in a physical resource block pair, and the resource elements configured by the reference signal configuration comprise N resource elements in M resource element groups, wherein M is an integer greater than or equal to 2, N is a quantity of ports, and N is an integer, wherein each of the M resource element groups comprises eight resource elements; receiving, by the UE, the reference signal based on the reference signal resource configuration; and performing, by the UE, a measurement based on the reference signal to obtain at least one of channel state information and signal quality information. determining, by a user equipment, UE, a reference signal resource configuration, wherein the reference signal resource configuration comprises a reference signal configuration indicative of resource elements occupied by a reference signal in a physical resource block pair, and the resource elements configured by the reference signal configuration comprise N resource elements in M resource element groups, wherein M is an integer greater than or equal to 2, N is a quantity of ports, and N is an integer, wherein each of the M resource element groups comprises eight resource elements; receiving, by the UE, the reference signal based on the reference signal resource configuration; and performing, by the UE, a measurement based on the reference signal to obtain at least one of channel state information and signal quality information.
A method of preparing a sequencing library for sequencing a target nucleic acid without the use of nanodrops comprising: (a) combining in a single mixture (i) first fragments of target nucleic acid comprising nicks and/or gaps, and (ii) a population of beads, wherein each bead comprises a plurality of 3' branch ligation adapters comprising an adaptor oligonucleotide immobilized on the bead at its 3' end, wherein each adapter oligonucleotide comprises a barcode sequence, wherein the 3' branch ligation adapters immobilized on the same individual bead comprise the same barcode sequence and a majority of beads have different barcode sequences, and (b) ligating the adapter oligonucleotide of the branch ligation adapters of individual beads to the first fragments of the target nucleic acid at the nicks and/or gaps via 3' branch ligation. (a) combining in a single mixture (i) first fragments of target nucleic acid comprising nicks and/or gaps, and (ii) a population of beads, wherein each bead comprises a plurality of 3' branch ligation adapters comprising an adaptor oligonucleotide immobilized on the bead at its 3' end, wherein each adapter oligonucleotide comprises a barcode sequence, wherein the 3' branch ligation adapters immobilized on the same individual bead comprise the same barcode sequence and a majority of beads have different barcode sequences, and wherein each bead comprises a plurality of 3' branch ligation adapters comprising an adaptor oligonucleotide immobilized on the bead at its 3' end, wherein each adapter oligonucleotide comprises a barcode sequence, wherein the 3' branch ligation adapters immobilized on the same individual bead comprise the same barcode sequence and a majority of beads have different barcode sequences, and (b) ligating the adapter oligonucleotide of the branch ligation adapters of individual beads to the first fragments of the target nucleic acid at the nicks and/or gaps via 3' branch ligation.
A method for changing a set point of a system in a borehole, characterised in comprising: determining the period of a dominant resonance of the system; processing a change profile for the set point change; determining a time period for the set point change based on the period of the dominant resonance in order to minimize excitation of the dominant resonance; and performing the set point change according to the change profile and the time period. determining the period of a dominant resonance of the system; processing a change profile for the set point change; determining a time period for the set point change based on the period of the dominant resonance in order to minimize excitation of the dominant resonance; and performing the set point change according to the change profile and the time period.
A method of manipulating the profile of choroid plexus secreted proteins from CP cells in vitro comprising the steps: a) culturing CP cells in a basal growth medium in vitro; b) adding cellular matrix proteins to the culture medium to initiate the formation of CP capsuloids; c) culturing the capsuloids for a time sufficient to increase the number of secretory vesicles in the capsuloids; and d) producing CP conditioned media containing an altered CP secreted protein profile compared to CP cells cultured in basal growth media alone. a) culturing CP cells in a basal growth medium in vitro; b) adding cellular matrix proteins to the culture medium to initiate the formation of CP capsuloids; c) culturing the capsuloids for a time sufficient to increase the number of secretory vesicles in the capsuloids; and d) producing CP conditioned media containing an altered CP secreted protein profile compared to CP cells cultured in basal growth media alone.
A prosthetic valve comprising: a heart valve having a frame; one or more leaflets attached to the frame; and a jacket (300, 500, 600, 700, 800, 900) surrounding the frame and configured to cover at least one of gaps, spaces, or interfaces in at least one of the frame and interfaces between the frame and the one or more leaflets attached to the frame to enhance the biocompatibility of the heart valve; wherein the jacket is molded to at least one of the frame and the one or more leaflets. a heart valve having a frame; one or more leaflets attached to the frame; and a jacket (300, 500, 600, 700, 800, 900) surrounding the frame and configured to cover at least one of gaps, spaces, or interfaces in at least one of the frame and interfaces between the frame and the one or more leaflets attached to the frame to enhance the biocompatibility of the heart valve; wherein the jacket is molded to at least one of the frame and the one or more leaflets.
A shell structure comprising: a first panel portion, the first panel portion including: a first skin; and a first stiffener attached to the first skin wherein the first stiffener includes a first flange portion directly attached to the first skin and a first raised portion projecting away from the first skin; a second panel portion positioned adjacent to the first panel portion, the second panel portion including: a second skin; and a second stiffener attached to the second skin wherein the second stiffener includes a second flange portion directly attached to the second skin and a second raised portion projecting away from the second skin; and a fitting extending across a first edge region of the first panel portion and a second edge region of the second panel portion, wherein a first end portion of the fitting overlays and is attached to the first flange portion of the first stiffener and the first skin and wherein a second end portion of the fitting overlays and is attached to the second flange portion of the second stiffener and the second skin to join the first panel portion to the second panel portion. a first panel portion, the first panel portion including: a first skin; and a first stiffener attached to the first skin wherein the first stiffener includes a first flange portion directly attached to the first skin and a first raised portion projecting away from the first skin; a first skin; and a first stiffener attached to the first skin wherein the first stiffener includes a first flange portion directly attached to the first skin and a first raised portion projecting away from the first skin; a second panel portion positioned adjacent to the first panel portion, the second panel portion including: a second skin; and a second stiffener attached to the second skin wherein the second stiffener includes a second flange portion directly attached to the second skin and a second raised portion projecting away from the second skin; and a second skin; and a second stiffener attached to the second skin wherein the second stiffener includes a second flange portion directly attached to the second skin and a second raised portion projecting away from the second skin; and a fitting extending across a first edge region of the first panel portion and a second edge region of the second panel portion, wherein a first end portion of the fitting overlays and is attached to the first flange portion of the first stiffener and the first skin and wherein a second end portion of the fitting overlays and is attached to the second flange portion of the second stiffener and the second skin to join the first panel portion to the second panel portion.
A locking assembly comprising a pin, a clevis in which the pin is able to be engaged in a reversible manner, and a safety device comprising a clip (20; 120) which comprises an attachment loop (22; 122) and at least one safety tab (24A, 24B; 124A, 124B), the attachment loop (22; 122) being configured to be disposed around at least part of the clevis to cooperate with the latter so as to retain the clip relative to the clevis, the safety tab (24A, 24B; 124A, 124B) being configured to be deformed between a safety position in which it is able to retain the pin engaged in the clevis, and a retracted position in which it allows the withdrawal of the pin relative to the clevis.
An assembly for rotational equipment, comprising: a seal land extending circumferentially around and configured to rotate about an axial centerline; and a seal element abutted against and sealingly engaged with the seal land, the seal element extending circumferentially around the axial centerline, and the seal element comprising porous material, an exterior surface (92, 107) and a seal element passage, wherein the seal element is configured to flow lubricant from the seal element passage, through the porous material, to the exterior surface (92, 107), characterised in that the assembly further comprises: a guide rail; and a seal carrier mated with and translatable along the guide rail, wherein the seal element is mounted to the seal carrier. a seal land extending circumferentially around and configured to rotate about an axial centerline; and a seal element abutted against and sealingly engaged with the seal land, the seal element extending circumferentially around the axial centerline, and the seal element comprising porous material, an exterior surface (92, 107) and a seal element passage, wherein the seal element is configured to flow lubricant from the seal element passage, through the porous material, to the exterior surface (92, 107), characterised in that the assembly further comprises: a guide rail; and a seal carrier mated with and translatable along the guide rail, wherein the seal element is mounted to the seal carrier. a guide rail; and a seal carrier mated with and translatable along the guide rail, wherein the seal element is mounted to the seal carrier.
A nacelle structure for an aircraft engine comprising; an inner fixed structure coupled to an inverted track beam flange, wherein the inner fixed structure is coupled to the inverted track beam flange along an attachment flange via fasteners, and wherein the inverted track beam flange forms a "U" shape, the "U" shape being formed by the attachment flange, a side wall and a track beam flange face, and the attachment flange is coupled to the IFS along a non-bypass airflow surface; characterised in that the "U" shape is open, such that fasteners are accessible by accessing the interior of the "U" shape.
A spigot-and-socket conduit joint with an anchor structure includes a socket, a spigot and several stoppers, in which the end of the socket is extending inwards radially to form an annual wall, at least one stopper mounting groove is provided in the annual wall, a spigot stopper ring is provided at the end of the spigot, wherein the said stopper includes an arc panel and at least one group of bosses located on the panel, characterized in that a fixing hole is arranged in the panel, the said stopper further includes a rubber block fixedly installed in the fixing hole, and the total height h of the rubber block and the panel is equal to or lightly larger than the difference between the inner radius h1 of the socket and the outer radius h2 of the spigot.
A method of controlling an exhaust gas aftertreatment device, the exhaust gas aftertreatment device including an exhaust pipe injector provided in an exhaust pipe of an engine, a DOC connected to the exhaust pipe downstream of the exhaust pipe injector, an NOx occlusion reduction catalyst connected to the exhaust pipe downstream of the DOC, and a DPF connected to the exhaust pipe downstream of the NOx occlusion reduction catalyst, the exhaust gas aftertreatment device being configured to store NOx contained in an exhaust gas with the NOx occlusion reduction catalyst when an air-fuel ratio is lean, and to reduce and purify the stored NOx when the air-fuel ratio is rich, the method comprising: raising an exhaust gas temperature when a predetermined amount of PM has accumulated in the DPF so as to carry out PM regeneration; further raising the exhaust gas temperature to carry out S purge to sulfur, the sulfur being adsorbed on the NOx occlusion reduction catalyst; and prohibiting a rich reduction during a PM regeneration period and an S purge period; characterized by continuing to prohibit the rich reduction, after the S purge is completed, until a difference between an inlet temperature and an outlet temperature of the NOx occlusion reduction catalyst reaches or falls below a threshold. raising an exhaust gas temperature when a predetermined amount of PM has accumulated in the DPF so as to carry out PM regeneration; further raising the exhaust gas temperature to carry out S purge to sulfur, the sulfur being adsorbed on the NOx occlusion reduction catalyst; and prohibiting a rich reduction during a PM regeneration period and an S purge period; characterized by continuing to prohibit the rich reduction, after the S purge is completed, until a difference between an inlet temperature and an outlet temperature of the NOx occlusion reduction catalyst reaches or falls below a threshold.
Vehicle heating device, comprising a combustion chamber assembly with a combustion chamber housing and a blower for transporting air to a pressure room surrounding at least partly the combustion chamber housing, by which air enters a combustion chamber formed in the combustion chamber housing, a discharge opening arrangement being provided for delivering part of the air transported to the pressure room to the outside avoiding the combustion chamber, wherein the blower is a side channel blower.
A transfer device, comprising a first connection region for a first container and a second connection region for a second container, said regions being designed to be connected to one another during a phase of transferring a medium from one container into the other container, wherein the first connection region is arranged on a first housing part (3.1), and the second connection region is arranged on a second housing part (3.2), and the two housing parts (3.1, 3.2) are designed to be movable relative to one another, wherein the first housing part (3.1) and the second housing part (3.2) together form a transfer housing which is sealed from the outside even before and after the transfer phase, wherein the housing parts (3.1, 3.2) are designed to be rotatable relative to one another and connected to one another via a rotational axis (3.4), wherein the second housing part (3.2) can be rotated about the common rotational axis (3.4), characterised in that after rotation is complete, a medium situated in the container fastened to the second connection region can easily flow in the container fastened to the first connection region.
Electrode arrangement comprising an electrode and a dielectric, for forming a dielectric barrier plasma discharge between the electrode, which is fed with a high AC voltage by a control device and a surface to be treated of an electrically conductive body, wherein the dielectric completely covers the electrode towards the surface to be treated and forms a bearing side for the surface; and the electrode consists of at least two partial electrodes (2, 3) which are arranged alongside one another at the same distance from the bearing side and are insulated from one another by the dielectric and wherein adjacent partial electrodes are fed by the control device with mutually compensating partial high AC voltages that are equal and opposite to each other with respect to waveform and voltage magnitude, characterized in that the electrically conductive body serves as a ground electrode.
A dual-targeted therapeutic peptide for use in a method of in-vivo diagnosis and treatment of nasopharyngeal carcinoma, wherein the dual-targeted therapeutic peptide being formed by covalently linking a targeted therapeutic peptide with a α-helix structure for nasopharyngeal carcinoma, a peptide linker and a targeted therapeutic peptide for nasopharyngeal carcinoma in sequence, wherein the amino acid sequence of the targeted therapeutic peptide with an α-helical structure is: FAEKFKEAVKDYFAKFWD (SEQ ID NO.2). FAEKFKEAVKDYFAKFWD (SEQ ID NO.2).
A method of converting position or momentum correlation of correlated photon pairs to a polarization entangled photon pair, the method comprising: generating the correlated photon pairs in a crystal (101, NCL, 302, 406) using a single pump beam; a conversion step of separating the correlated photon pairs into first and second groups based on generated positions of the first and second groups, respectively, in first and second portions of a photon generation distribution of the single pump beam in the crystal (101, NCL, 302, 406) or directions of the first and second groups, respectively about the propagation axis and rotating a polarization of the first correlated photon pair group such that the polarization of the first correlated pair group is at 90 degrees relative to the polarization of the second correlated photon pair group; and a combining step of combining the first and second correlated photon pairs such that at least respective portions of respective spatial distributions of the first and second photon pair groups overlap without wavelength dependent phase difference. generating the correlated photon pairs in a crystal (101, NCL, 302, 406) using a single pump beam; a conversion step of separating the correlated photon pairs into first and second groups based on generated positions of the first and second groups, respectively, in first and second portions of a photon generation distribution of the single pump beam in the crystal (101, NCL, 302, 406) or directions of the first and second groups, respectively about the propagation axis and rotating a polarization of the first correlated photon pair group such that the polarization of the first correlated pair group is at 90 degrees relative to the polarization of the second correlated photon pair group; and a combining step of combining the first and second correlated photon pairs such that at least respective portions of respective spatial distributions of the first and second photon pair groups overlap without wavelength dependent phase difference.
A standup paddle board core activator device comprising: a footboard for carrying a user configured to slide along one of a sloped surface, a track, or a reduced friction material to facilitate a sliding footboard; a raised support structure; at least one arm assembly rotatably secured to the raised support structure; at least one tensioner extending from the at least one arm assembly to a tensioner support structure; and at least one paddle member affixed to the arm assembly, wherein the paddle member further comprises a shaft portion and handle portion characterized in that the at least one arm assembly is rotatably coupled to the support structure by an axle extending laterally outward and at a vertical angle in an anterior and superior direction from the user's point of view such that the at least one arm assembly is configured to rotate about a skewed axis of rotation in a downward and outward direction. a footboard for carrying a user configured to slide along one of a sloped surface, a track, or a reduced friction material to facilitate a sliding footboard; a raised support structure; at least one arm assembly rotatably secured to the raised support structure; at least one tensioner extending from the at least one arm assembly to a tensioner support structure; and at least one paddle member affixed to the arm assembly, wherein the paddle member further comprises a shaft portion and handle portion characterized in that the at least one arm assembly is rotatably coupled to the support structure by an axle extending laterally outward and at a vertical angle in an anterior and superior direction from the user's point of view such that the at least one arm assembly is configured to rotate about a skewed axis of rotation in a downward and outward direction.