mhurhangee/patent-ind-claim-en huggingface dataset:
A redox flow battery system for energy storage comprising distinct positive and negative electrolyte solution circuits of forced circulation of the electrolyte solutions to and from a storage tank through respective flow compartments accommodating, respectively, a positive felt electrode and a negative felt electrode separated by a fluid impervious perm-ionic membrane , of a plurality of monopolar cell stacks electrically connected in series between positive and a negative DC terminals, each monopolar cell stack or each elementary cell thereof having inlet nozzles and outlet nozzles hydraulically connected to respective distribution lines of the two electrolyte solutions, each monopolar cell stack comprising a number of positive electrode back plates interleaved with negative electrode back plates , each with an electrical connection stem or tail portion protruding out of the respective flow compartment, connected to a respective external DC rail, assembled to constitute a multi-electrode multi-compartmented monopolar cell stack, characterized in that the system comprises probe electrodes of characteristics similar to those of the cell electrodes, immersed in each of the two streaming electrolyte solutions, at a respective inlet and/or outlet of a monopolar cell stack or of an elementary cell thereof, for measuring the open circuit voltage (OCV) of the functioning cell; external measuring implements of the total cell voltage (TCV) of said monopolar cell stack; external measuring implements of the two voltage differences (pV, nV) between a probe electrode immersed in the streaming negative electrolyte solution and the positive back plates of said monopolar cell stack, and between a probe electrode immersed in the streaming positive electrolyte solution and the negative back plates of said monopolar cell stack, respectively; external measuring implements of the differences between said working voltage (TCV) and said two voltage differences (pV, nV), respectively; data processing means of said measured quantities and voltage differences adapted to signal anomalous surpassing of critical thresholds in any of said monopolar cell stacks.
An apparatus comprising a sending apparatus and a processor , wherein: • the processor is configured to determine a processing mode for a data packet according to at least one of a device type of the apparatus, a service type, a processing mode supported by the apparatus, a user plane function supported by the apparatus, or a processing mode supported by a network device, and process the data packet according to the determined processing mode, • the processor is further configured to add first indication information to resource request information and the sending apparatus is configured to send the resource request information to the network device, wherein the resource request information is used to request a resource required for sending the processed data packet, wherein the first indication information is used to indicate the processing mode that is for the data packet and that is determined by the processor , • the sending apparatus is configured to send the processed data packet to the network device on resource obtained from the network device. • the processor is configured to determine a processing mode for a data packet according to at least one of a device type of the apparatus, a service type, a processing mode supported by the apparatus, a user plane function supported by the apparatus, or a processing mode supported by a network device, and process the data packet according to the determined processing mode, • the processor is further configured to add first indication information to resource request information and the sending apparatus is configured to send the resource request information to the network device, wherein the resource request information is used to request a resource required for sending the processed data packet, wherein the first indication information is used to indicate the processing mode that is for the data packet and that is determined by the processor , • the sending apparatus is configured to send the processed data packet to the network device on resource obtained from the network device.
An aqueous composition comprising: - water, - at least 8.0% by weight of whey protein, - non-pregelatinized native starch, and - 5.0% to 15.0% by weight of sugar, wherein the pH is of from 5.0 to 9.0. - water, - at least 8.0% by weight of whey protein, - non-pregelatinized native starch, and - 5.0% to 15.0% by weight of sugar,
Method for producing a battery cell , wherein an external contact is guided through a through-opening of a housing to contact an anode or cathode externally, and subsequently a sealant is applied in such a way that the sealant is present on the housing at least in part, fully covers the through-opening adjacent to the external contact , and fully two-dimensionally encloses the external contact , silicon oxide, produced by curing an applied layer comprising polysilazane, being used as a sealant .
An accommodating intraocular lens comprising: a lens optic coupled to two haptics , said two haptics disposed on opposite first and second sides of the lens optic, wherein the first side, the lens optic , and the second side are arranged along a longitudinal axis (A-A) of said intraocular lens; a plurality of connecting bars connecting the lens optic to the two haptics , the connecting bars having a length disposed orthogonal to said longitudinal axis (A-A) of said intraocular lens ; an optic appendage attached to said lens optic , wherein the connecting bar connects the optic appendage and said haptics , characterised in that the accommodating intraocular lens is provided with an elongate slot formed between the optic appendage and said haptics , the elongate slot partially traversing said one of the two haptics in a transverse direction orthogonal to the longitudinal axis; wherein the connecting bars are flexibly coupled to the lens optic periphery so that the connecting bars can rotate about an axis extending along their length when the intraocular lens is subjected to a pressure change. a lens optic coupled to two haptics , said two haptics disposed on opposite first and second sides of the lens optic, wherein the first side, the lens optic , and the second side are arranged along a longitudinal axis (A-A) of said intraocular lens; a plurality of connecting bars connecting the lens optic to the two haptics , the connecting bars having a length disposed orthogonal to said longitudinal axis (A-A) of said intraocular lens ; an optic appendage attached to said lens optic , wherein the connecting bar connects the optic appendage and said haptics , characterised in that the accommodating intraocular lens is provided with an elongate slot formed between the optic appendage and said haptics , the elongate slot partially traversing said one of the two haptics in a transverse direction orthogonal to the longitudinal axis; wherein the connecting bars are flexibly coupled to the lens optic periphery so that the connecting bars can rotate about an axis extending along their length when the intraocular lens is subjected to a pressure change.
A tool for installing a blind fastener including a core bolt and a core nut , the tool comprising: a driving member ; a collet driven by the driving member configured to engage the core bolt ; and an external sleeve configured to hold the core nut and configured to prevent the core nut from rotating during installation of the blind fastener , the tool characterized by : the external sleeve being movable between a first position in which the external sleeve is driven by the collet to rotate with the collet and a second position in which the external sleeve is stationary despite rotating action of the collet . a driving member ; a collet driven by the driving member configured to engage the core bolt ; and
Apparatus for extruding, orienting and winding up a group of film tapes or monofilaments, having an extrusion device , having a plurality of drawing-off rollers and orienting rollers and having a multiplicity of winding positions having a winding position apparatus, which are held alongside one another and one above another on an operating side of a frame wall , characterized in that the winding positions are configured such that the wound packages are kept ready for removal on the frame wall on a doffing side on the opposite side from the operating side , in that package axes of the packages are oriented parallel to the frame wall , and in that the winding position apparatus has a movable package holder and two opposing clamping plates (29.1, 29.2) for receiving a winding tube , wherein one of the clamping plates (29.1, 29.2) is coupled to a package drive formed on the package holder , the winding tube being drivable by said package drive in order to receive a package .
A waterproofing structure for a linear member, the structure comprising:- a lead wire for electrically connecting to an electric power source; a wire heater to be supplied with electric power through the lead wire to generate heat; a crimping member aligning the tips of the lead wire and the wire heater in the same direction and connecting the lead wire and the wire heater to fix the lead wire and the wire heater to each other; and a housing comprising:- an inlet portion ; an end portion which is formed with an injection hole ; an insertion hole extending from the inlet portion towards the end portion ; and an intermediate hole connecting the insertion hole and the injection hole and having an inner wall with four projections formed thereon , the four projections projecting from the upper, lower, right, and left sides of the inner wall; wherein the structure is obtained by inserting the crimping member connected to the lead wire and the wire heater in the insertion hole from the inlet portion toward the end portion and partially engaging said projections with an outer surface of the crimping member to fix the crimping member whilst sealing resin is supplied from the injection hole , through a space between the projections of the intermediate hole , and filled into the insertion hole to reach the inlet portion . a lead wire for electrically connecting to an electric power source; a wire heater to be supplied with electric power through the lead wire to generate heat; a crimping member aligning the tips of the lead wire and the wire heater in the same direction and connecting the lead wire and the wire heater to fix the lead wire and the wire heater to each other; and a housing comprising:- an inlet portion ; an end portion which is formed with an injection hole ; an insertion hole extending from the inlet portion towards the end portion ; and an intermediate hole connecting the insertion hole and the injection hole and having an inner wall with four projections formed thereon , the four projections projecting from the upper, lower, right, and left sides of the inner wall; an inlet portion ; an end portion which is formed with an injection hole ; an insertion hole extending from the inlet portion towards the end portion ; and an intermediate hole connecting the insertion hole and the injection hole and having an inner wall with four projections formed thereon , the four projections projecting from the upper, lower, right, and left sides of the inner wall; wherein the structure is obtained by inserting the crimping member connected to the lead wire and the wire heater in the insertion hole from the inlet portion toward the end portion and partially engaging said projections with an outer surface of the crimping member to fix the crimping member whilst sealing resin is supplied from the injection hole , through a space between the projections of the intermediate hole , and filled into the insertion hole to reach the inlet portion .
A method comprising: determining, by a wireless device , that a first sounding reference signal, SRS, resource of a first cell and a second SRS resource of the first cell overlap with a third SRS resource of a second cell; determining, by the wireless device, that a first spatial transmission filter of the first SRS resource and a second spatial transmission filter of the second SRS resource are different from a third spatial transmission filter of the third SRS resource; based on the determining that the first SRS resource of the first cell and the second SRS resource of the first cell overlap with the third SRS resource of the second cell, and based on the determining that the first spatial transmission filter of the first SRS resource and the second spatial transmission filter of the second SRS resource are different from the third spatial transmission filter of the third SRS resource, selecting a spatial transmission filter from the first spatial transmission filter or the second spatial transmission filter; and transmitting, by the wireless device via the selected spatial transmission filter, an SRS for the third SRS resource. determining, by a wireless device , that a first sounding reference signal, SRS, resource of a first cell and a second SRS resource of the first cell overlap with a third SRS resource of a second cell; determining, by the wireless device, that a first spatial transmission filter of the first SRS resource and a second spatial transmission filter of the second SRS resource are different from a third spatial transmission filter of the third SRS resource; based on the determining that the first SRS resource of the first cell and the second SRS resource of the first cell overlap with the third SRS resource of the second cell, and based on the determining that the first spatial transmission filter of the first SRS resource and the second spatial transmission filter of the second SRS resource are different from the third spatial transmission filter of the third SRS resource, selecting a spatial transmission filter from the first spatial transmission filter or the second spatial transmission filter; and transmitting, by the wireless device via the selected spatial transmission filter, an SRS for the third SRS resource.
An activin and/or growth and differentiation factor (GDF) antagonist for use in treating kidney fibrosis in kidney disease in a subject; wherein the antagonist is a heterodimer comprising an ActRIIA-Fc polypeptide and an ALK4-Fc polypeptide; wherein the ActRIIA-Fc polypeptide is an ActRIIA-Fc fusion protein comprising an amino acid sequence selected from SEQ ID NOs: 177 and 180; and wherein the ALK4-Fc polypeptide is an ALK4-Fc fusion protein comprising an amino acid sequence selected from SEQ ID NOs: 204 and 208. wherein the ActRIIA-Fc polypeptide is an ActRIIA-Fc fusion protein comprising an amino acid sequence selected from SEQ ID NOs: 177 and 180; and wherein the ALK4-Fc polypeptide is an ALK4-Fc fusion protein comprising an amino acid sequence selected from SEQ ID NOs: 204 and 208.
A moveable joint comprising: a first member ; a second member moveably connected to the first member ; a shape-memory-alloy member connected to the first member and engageable with the second member , the shape-memory-alloy member being configured to change shape when heated; and a biasing means configured to bias the second member from a first position relative to the first member towards a second position relative to the first member ; wherein movement of the second member between the first position and the second position is limited by the shape-memory-alloy member such that the position of the second member relative to the first member is determined by the shape of the shape-memory-alloy member ; wherein the shape-memory-alloy member is deformable from its original shape such that when the shape-memory-alloy member is in a deformed shape, the second member is in the first position relative to the first member , and when the shape-memory-alloy member is in its original shape, the second member is in the second position relative to the first member , and when the shape-memory-alloy member is in its original shape, the second member is moveable relative to the shape-memory-alloy member . a first member ; a second member moveably connected to the first member ; a shape-memory-alloy member connected to the first member and engageable with the second member , the shape-memory-alloy member being configured to change shape when heated; and a biasing means configured to bias the second member from a first position relative to the first member towards a second position relative to the first member ; wherein movement of the second member between the first position and the second position is limited by the shape-memory-alloy member such that the position of the second member relative to the first member is determined by the shape of the shape-memory-alloy member ; wherein the shape-memory-alloy member is deformable from its original shape such that when the shape-memory-alloy member is in a deformed shape, the second member is in the first position relative to the first member , and when the shape-memory-alloy member is in its original shape, the second member is in the second position relative to the first member , and when the shape-memory-alloy member is in its original shape, the second member is moveable relative to the shape-memory-alloy member .
A method, using a controller for detecting occupant position change on a support surface having a head test zone with at least one head test bladder and a foot test zone with at least one foot test bladder , the method comprising: establishing, by using a pressure transducer , a rate of change of fluid pressure in the head test zone and; establishing, by using a pressure transducer , a rate of change of fluid pressure in the foot test zone ; comparing the rate of pressure change in the head test zone to at least one head rate limit; comparing the rate of pressure change in the foot test zone to at least one foot rate limit; and inferring, in response to the comparing steps, whether or not occupant migration has occurred. establishing, by using a pressure transducer , a rate of change of fluid pressure in the head test zone and; establishing, by using a pressure transducer , a rate of change of fluid pressure in the foot test zone ; comparing the rate of pressure change in the head test zone to at least one head rate limit; comparing the rate of pressure change in the foot test zone to at least one foot rate limit; and inferring, in response to the comparing steps, whether or not occupant migration has occurred.
A holding system for supporting a wafer and an optical element , the wafer and the optical element being conformed so as to form an optical system, the wafer having a first surface (F11) adapted to the prescription of a wearer, a second surface (F12) opposed to the first surface (F11) and a third surface (F13) joining the first surface (F11) and the second surface (F12), the optical element having a first surface (F21), a second surface (F22) opposed to the first surface (F21) and a third surface (F23) joining the first surface (F21) and the second surface (F22), the holding system comprising: - support means comprising first support means configured to support at least part of the second surface (F12) and/or of the third surface (F13) of the wafer and second support means configured to support at least part of the second surface (F22) and/or of the third surface (F23) of the optical element , - positioning means configured to position the second surface (F12) of the wafer relative to the first surface (F21) of the optical element , and - mechanical means configured to move the first and second support means one relative to the other so as to move the second surface (F12) of the wafer and the first surface (F21) of the optical element to form the optical system. - support means comprising first support means configured to support at least part of the second surface (F12) and/or of the third surface (F13) of the wafer and second support means configured to support at least part of the second surface (F22) and/or of the third surface (F23) of the optical element , - positioning means configured to position the second surface (F12) of the wafer relative to the first surface (F21) of the optical element , and - mechanical means configured to move the first and second support means one relative to the other so as to move the second surface (F12) of the wafer and the first surface (F21) of the optical element to form the optical system.
A particle collecting device for collecting particles from surfaces for a particle analysis when testing the technical cleanliness of test objects, in particular work pieces, machines and/or printed circuit boards, in a suction mode of the particle collecting device , the particle collecting device comprising: a suction line configured for aspirating a particle/air mixture from a surface to be tested; and a particle collection unit configured to filter out aspirated particles of the particle/air mixture before it reaches a vacuum source , characterized in that the particle collecting device comprises a cleaning unit configured in such a manner that the particle collecting device , in particular the suction line and the particle collection unit , can be rinsed in a rinsing mode of the particle collecting device by aspirating a cleaning liquid, in particular water, an aqueous solution or demineralized water, in order to flush out particles accumulated during suction mode. a suction line configured for aspirating a particle/air mixture from a surface to be tested; and a particle collection unit configured to filter out aspirated particles of the particle/air mixture before it reaches a vacuum source , characterized in that the particle collecting device comprises a cleaning unit configured in such a manner that the particle collecting device , in particular the suction line and the particle collection unit , can be rinsed in a rinsing mode of the particle collecting device by aspirating a cleaning liquid, in particular water, an aqueous solution or demineralized water, in order to flush out particles accumulated during suction mode.
Component for holding and connecting lamellas for sun protection grates, characterized by an elongated support extending parallel to the lamellas and comprising retaining elements for a lamella , and transverse webs arranged at regular intervals on the elongated support , and connecting elements , arranged on the transverse webs , for a further similar component comprising a lamella , which is to be arranged adjacent transversely to and parallel to the longitudinal direction of the support of the component . characterized by an elongated support extending parallel to the lamellas and comprising retaining elements for a lamella , and transverse webs arranged at regular intervals on the elongated support , and connecting elements , arranged on the transverse webs , for a further similar component comprising a lamella , which is to be arranged adjacent transversely to and parallel to the longitudinal direction of the support of the component .
A preparation method of bone marrow mesenchymal stem cell-derived exosomes with an increased level of IncRNA H19 expression, including: adding 1 μM atorvastatin into a medium of the mesenchymal stem cells for pretreatment for 24 hours, and then replacing the cell culture medium with a exosome-free medium for continued culturing; after 48 hours, collecting the conditioned medium and isolating exosomes derived from the mesenchymal stem cells pretreated with statins by repeated ultracentrifugation; wherein the exosomes are spherical or disc shaped with a particle size distribution in the range of 30-150 nm, and highly express IncRNA H19 by up to 10 times or more compared exosomes secreted by BM-MSCs without pre-treatment. after 48 hours, collecting the conditioned medium and isolating exosomes derived from the mesenchymal stem cells pretreated with statins by repeated ultracentrifugation; wherein the exosomes are spherical or disc shaped with a particle size distribution in the range of 30-150 nm, and highly express IncRNA H19 by up to 10 times or more compared exosomes secreted by BM-MSCs without pre-treatment.