mhurhangee/ep-ind-claims huggingface dataset:
Carrier structure (20, 50) for solar panels (2, 22, 51), comprising at least one carrier frame (1, 11) configured for carrying at least a part of at least one solar panel (2, 22, 51), which carrier frame (1, 11) comprises: - at least one substantially elongate beam (3, 13, 23, 55), - at least one first carrier (4, 14, 24) which can be coupled to a first end of the elongate beam (3, 13, 23, 55) for supporting a part of at least one solar panel (2, 22, 51), and - at least one second carrier (5, 15, 25) which can be coupled to an opposite second end of the elongate beam (3, 13, 23) for supporting a part of at least one solar panel (2, 22, 51), - wherein the elongate beam (3, 13, 23, 55) and at least one carrier (4, 14, 24, 34, 5, 15, 25, 52) can be pushed into one another in order to form a pin-hole joint, in such a way that a part of the beam (3, 13, 23, 55) is secured in a peripheral side of the beam (3, 13, 23) in substantially each lateral direction by the at least one carrier (4, 14, 24, 34, 5, 15, 25, 52) or in such a way that a peripheral side of the at least one carrier (4, 14, 24, 34, 5, 15, 25, 52) is secured in substantially each lateral direction by the at least one beam (3, 13, 23, 55), - wherein the beam (3,13,23,55) or the at least one carrier (4,14,24,34,5,15,25,52) is provided with at least one locking element for locking the beam (3,13,23,55) and at least one carrier (4,14,24,34,5,15,25,52) in a coupled position, characterised in that the beam (3, 13, 23, 55) or at least one carrier (4, 14, 24, 34, 5, 15, 25, 52) is provided with at least one resilient lip configured for locking interaction with an edge or counterlip of an adjacent frame part. - at least one substantially elongate beam (3, 13, 23, 55), - at least one first carrier (4, 14, 24) which can be coupled to a first end of the elongate beam (3, 13, 23, 55) for supporting a part of at least one solar panel (2, 22, 51), and - at least one second carrier (5, 15, 25) which can be coupled to an opposite second end of the elongate beam (3, 13, 23) for supporting a part of at least one solar panel (2, 22, 51), - wherein the elongate beam (3, 13, 23, 55) and at least one carrier (4, 14, 24, 34, 5, 15, 25, 52) can be pushed into one another in order to form a pin-hole joint, in such a way that a part of the beam (3, 13, 23, 55) is secured in a peripheral side of the beam (3, 13, 23) in substantially each lateral direction by the at least one carrier (4, 14, 24, 34, 5, 15, 25, 52) or in such a way that a peripheral side of the at least one carrier (4, 14, 24, 34, 5, 15, 25, 52) is secured in substantially each lateral direction by the at least one beam (3, 13, 23, 55), - wherein the beam (3,13,23,55) or the at least one carrier (4,14,24,34,5,15,25,52) is provided with at least one locking element for locking the beam (3,13,23,55) and at least one carrier (4,14,24,34,5,15,25,52) in a coupled position, characterised in that the beam (3, 13, 23, 55) or at least one carrier (4, 14, 24, 34, 5, 15, 25, 52) is provided with at least one resilient lip configured for locking interaction with an edge or counterlip of an adjacent frame part.
A purification method of levo-oxiracetam, characterized in that, performing by following steps: dissolving crude levo-oxiracetam in water to form a solution; adding an organic solvent dropwise to the solution until the solution just turns turbid to obtain a mixture, wherein the organic solvent is ethanol, propanol or isopropanol; and wherein the mixture is allowed to stand at a temperature of 0 to 18°C for 1 to 3 days, and colorless transparent crystals precipitate; filtering and washing with ice water of 0 to 5°C; vacuum drying to obtain levo-oxiracetam with high purity. dissolving crude levo-oxiracetam in water to form a solution; adding an organic solvent dropwise to the solution until the solution just turns turbid to obtain a mixture, wherein the organic solvent is ethanol, propanol or isopropanol; and wherein the mixture is allowed to stand at a temperature of 0 to 18°C for 1 to 3 days, and colorless transparent crystals precipitate; filtering and washing with ice water of 0 to 5°C; vacuum drying to obtain levo-oxiracetam with high purity.
A support device, comprising: a support member having a body portion and an elongated arm extending from the body portion, the elongated arm having a width smaller than a width of the body portion of the support member, the body portion being configured to help support an anatomical structure located in a pelvic region of a patient, and a frame member (104; 204; 404; 604) coupled to the support member and being comprised of a shape memory alloy, the frame member being coupled along at least a portion of a perimeter of the elongated arm of the support member. a support member having a body portion and an elongated arm extending from the body portion, the elongated arm having a width smaller than a width of the body portion of the support member, the body portion being configured to help support an anatomical structure located in a pelvic region of a patient, and a frame member (104; 204; 404; 604) coupled to the support member and being comprised of a shape memory alloy, the frame member being coupled along at least a portion of a perimeter of the elongated arm of the support member.
A self-microemulsifiable anhydrous base composition, comprising: a) CoQ10 in an effective amount of 2% to 20% by weight of the composition; b) a water-immiscible solvent selected from a citrus-derived plant essential oil or ethyl oleate in an effective amount of up to 30% by weight of the composition, wherein the citrus-derived plant essential oil is not a triglyceride oil; and c) a nonionic surfactant in an effective amount of 60% to 82% by weight of the composition, with the nonionic surfactant selected from the group consisting of: PEG-35 Castor Oil and PEG-660 12-hydroxystearate. a) CoQ10 in an effective amount of 2% to 20% by weight of the composition; b) a water-immiscible solvent selected from a citrus-derived plant essential oil or ethyl oleate in an effective amount of up to 30% by weight of the composition, wherein the citrus-derived plant essential oil is not a triglyceride oil; and c) a nonionic surfactant in an effective amount of 60% to 82% by weight of the composition, with the nonionic surfactant selected from the group consisting of: PEG-35 Castor Oil and PEG-660 12-hydroxystearate.
A lens group (14, 90) for an endoscope or microscope, comprising: one or more lens elements (18, 30; 62, 64; 72, 74; 82, 84; 102, 108; 142, 144), each of uniform refractive index, adapted to: i) focus, with high wavefront aberration correction, driving or excitation light received from an exit tip of an optical waveguide located substantially against a proximal surface of the lens group to a point observational field with narrow point spread function beyond a distal surface of the lens group (14, 90); and ii) transmit, with high wavefront aberration correction, fluorescence or reflected return light received by the distal surface from the point observational field back to the exit tip of the optical waveguide at the fluorescence wavelength, wherein the lens group (14,90) is, when in use, coupled to the distal tip of the optical waveguide. one or more lens elements (18, 30; 62, 64; 72, 74; 82, 84; 102, 108; 142, 144), each of uniform refractive index, adapted to: i) focus, with high wavefront aberration correction, driving or excitation light received from an exit tip of an optical waveguide located substantially against a proximal surface of the lens group to a point observational field with narrow point spread function beyond a distal surface of the lens group (14, 90); and ii) transmit, with high wavefront aberration correction, fluorescence or reflected return light received by the distal surface from the point observational field back to the exit tip of the optical waveguide at the fluorescence wavelength, i) focus, with high wavefront aberration correction, driving or excitation light received from an exit tip of an optical waveguide located substantially against a proximal surface of the lens group to a point observational field with narrow point spread function beyond a distal surface of the lens group (14, 90); and ii) transmit, with high wavefront aberration correction, fluorescence or reflected return light received by the distal surface from the point observational field back to the exit tip of the optical waveguide at the fluorescence wavelength, wherein the lens group (14,90) is, when in use, coupled to the distal tip of the optical waveguide.
A contact device for a current collector for rail vehicles, wherein the contact device has at least one first carbon sliding piece which is arranged for contact with an overhead wire on a sliding piece frame movable against the overhead wire, characterized in that the first carbon sliding piece together with a second sliding piece is arranged on a sliding piece holder which is connected to the sliding piece frame in an articulated manner, and is constructed as a double lever and is pivotable relative to the sliding piece frame about a pivot axis transverse to the longitudinal direction of the overhead wire in such a manner that, in one operating configuration of the current collector, the first carbon sliding piece and the second sliding piece, which are arranged on opposite sides of the pivot axis, are in contact with the overhead wire simultaneously and spaced apart from each other.
A method for initializing a self-synchronizing coherent network Primary Reference Time Clock, cnPRTC, mesh, wherein - a self-synchronizing cnPRTC mesh is initialized during a start-up period; - a Universal Time Coordinated, UTC(k), node connected to a selected cnPRTC node of the self-synchronizing cnPRTC mesh sets the selected cnPRTC node to a UTC(k) time provided by the UTC(k) node during the start-up period when a Global Navigation Satellite System, GNSS, system fails to provide the selected cnPRTC node with a GNSS time during the start-up period, wherein setting the selected cnPRTC node comprises directly inserting the UTC(k) time into a clock combiner module of the selected cnPRTC node, the inserted UTC(k) time replacing weighted times provided to the selected cnPRTC node by local time sources and remote time sources. - a self-synchronizing cnPRTC mesh is initialized during a start-up period; - a Universal Time Coordinated, UTC(k), node connected to a selected cnPRTC node of the self-synchronizing cnPRTC mesh sets the selected cnPRTC node to a UTC(k) time provided by the UTC(k) node during the start-up period when a Global Navigation Satellite System, GNSS, system fails to provide the selected cnPRTC node with a GNSS time during the start-up period, wherein setting the selected cnPRTC node comprises directly inserting the UTC(k) time into a clock combiner module of the selected cnPRTC node, the inserted UTC(k) time replacing weighted times provided to the selected cnPRTC node by local time sources and remote time sources.
A flow battery comprising: at least one cell including a first electrode, a second electrode spaced apart from the first electrode, and an electrolyte separator layer arranged between the first and second electrodes (24, 26); a storage portion (30a, 32a) fluidly connected with the at least one cell; a reactant material (30b, 32b) stored within the storage portion (30a, 32a) and selectively delivered to the at least one cell, wherein the reactant material (30b, 32b) is present in a solid phase in the storage portion (30a, 32a) and is present in a liquid phase in the at least one cell; a feed line having an inlet at the storage portion (30a, 32a) and an outlet at the at least one cell; and a return line having an inlet at the at least one cell and an outlet at the storage portion (30a, 32a), wherein the inlet of the feed line is fluidly connected with the liquid phase of the reactant material at or near the top of the storage portion (30a, 32a), and the outlet of the return line is at or near the bottom of the storage portion (30a, 32a), and the solid phase is within a fluidized bed in the storage portion (30a, 32a), wherein the feed line has a filter. at least one cell including a first electrode, a second electrode spaced apart from the first electrode, and an electrolyte separator layer arranged between the first and second electrodes (24, 26); a storage portion (30a, 32a) fluidly connected with the at least one cell; a reactant material (30b, 32b) stored within the storage portion (30a, 32a) and selectively delivered to the at least one cell, wherein the reactant material (30b, 32b) is present in a solid phase in the storage portion (30a, 32a) and is present in a liquid phase in the at least one cell; a feed line having an inlet at the storage portion (30a, 32a) and an outlet at the at least one cell; and a return line having an inlet at the at least one cell and an outlet at the storage portion (30a, 32a), wherein the inlet of the feed line is fluidly connected with the liquid phase of the reactant material at or near the top of the storage portion (30a, 32a), and the outlet of the return line is at or near the bottom of the storage portion (30a, 32a), and the solid phase is within a fluidized bed in the storage portion (30a, 32a), wherein the feed line has a filter.
A shock-absorbing system for clothing and accessories comprising a base plate from which a plurality of "towers" extends, wherein the said "towers" are appropriately distributed over the surface of the plate and whose arrangement and distribution over the said plate creates a sort of grid which generates a path with spaces and channels that lend flexibility to the element, since the plate is very thin, and circulation of air promoted by the presence of a plurality of holes which are designed for the intake of air from the outside and the outlet of overheated air and perspiration from the body of the user, the distribution and arrangement of the towers over one surface of the plate is reproduced in a specular fashion on the other surface, the said plate being very thin and therefore flexible, with the result that the said plate adheres very easily to the user's body since anatomical and, at the same time, is very light and not cumbersome, and - consequently - also aesthetically acceptable, the said shock-absorbing system essentially performing a cushioning function by means of the said shock-absorbing element constituted of a plate and towers, characterised by the fact that said towers have different sized diameters from each other depending on the load to which they will be exposed.
Closure cap for a receptacle for receiving medical liquids, comprising a first connector for injection of a medical liquid and a second connector for withdrawal of a medical liquid, wherein the first connector has an outwardly directed first connector part with a conical recess for sealingly receiving a cone stem of a first device (28, 29) to be connected, and the second connector has an outwardly directed second connector part with a conical recess for sealingly receiving a cone stem of a second device to be connected, characterized in that the first connector has a first membrane and a first piercing element, wherein the first membrane is arranged between the conical recess of the first connector part and the piercing element such that, by connecting the first device, the first membrane is pressed against the first piercing element and pierced by the first piercing element, and/or wherein the second connector has a second membrane and a second piercing element, wherein the second membrane is arranged between the conical recess of the second connector part and the second piercing element, such that, by connecting the second device, the second membrane is pressed against the second piercing element and pierced by the second piercing element, and wherein the first piercing element is designed as a hollow body with a tip, and/or the second piercing element is designed as a hollow body with a tip.
A method for parallel processing of data using a client device and a remote device, the method comprising: receiving, at the client device, a signal comprising the data; processing, at the client device, the data using a local service while sending at least a subset of the data to a remote service for shared processing; processing, at the remote device, said subset of the data using the remote service to generate an initial remote service result; sending, by the client device, an initial local service result to the remote service for analysis; receiving, at the client device, from the remote service, the initial remote service result while processing the data using the local service; generating, at the client device, an intermediate local service result, wherein generating the intermediate local service result comprises updating the initial local service result based upon the initial remote service result; updating, at the remote device, the initial remote service result based upon the initial local service result to generate an intermediate remote service result and sending, by the remote device, the intermediate remote service result to the client device; and generating (212, 214), at the client device, a final result based on the intermediate local service result and the intermediate remote service result. receiving, at the client device, a signal comprising the data; processing, at the client device, the data using a local service while sending at least a subset of the data to a remote service for shared processing; processing, at the remote device, said subset of the data using the remote service to generate an initial remote service result; sending, by the client device, an initial local service result to the remote service for analysis; receiving, at the client device, from the remote service, the initial remote service result while processing the data using the local service; generating, at the client device, an intermediate local service result, wherein generating the intermediate local service result comprises updating the initial local service result based upon the initial remote service result; updating, at the remote device, the initial remote service result based upon the initial local service result to generate an intermediate remote service result and sending, by the remote device, the intermediate remote service result to the client device; and generating (212, 214), at the client device, a final result based on the intermediate local service result and the intermediate remote service result.
Method for detecting a defect in an acceleration sensor arranged in a rail vehicle, wherein the acceleration sensor • is a sensor for measuring an acceleration (a) at right angles to a direction of travel of the rail vehicle, • is used for monitoring running stability, wherein the side acceleration and a side sway of the rail vehicle are monitored, and • a signal is produced, wherein a test is carried out to check whether a variable (a) dependent on the signal, which is an acceleration determined using the signal, fulfils a predefined condition in respect of a reference value (r 1, r 2, r 3), and it is determined on the basis of the test whether the acceleration sensor is defective. • is a sensor for measuring an acceleration (a) at right angles to a direction of travel of the rail vehicle, • is used for monitoring running stability, wherein the side acceleration and a side sway of the rail vehicle are monitored, and • a signal is produced,
A flexible display device, comprising: a body; a moving plate configured to reciprocate between a first position and a second position with respect to the body; a flexible display coupled to the moving plate; and a driving module configured to move the moving plate with respect to the body, wherein the driving module comprises: a bracket coupled to the body; a sliding plate comprising a gear rack and fastened to the moving plate, wherein the sliding plate is slidably coupled to the bracket and movement of the sliding plate causes the moving plate to be moved; and a pair of driving motors (602a, 602b) coupled to the bracket and configured to drive a pair of corresponding driving gears (603a, 603b) engaged with the gear rack, wherein each of the driving motors (602a, 602b) is arranged to be laterally adjacent to each other, wherein the gear rack is centrally located at the moving plate. a body; a moving plate configured to reciprocate between a first position and a second position with respect to the body; a flexible display coupled to the moving plate; and a driving module configured to move the moving plate with respect to the body, wherein the driving module comprises: a bracket coupled to the body; a sliding plate comprising a gear rack and fastened to the moving plate, wherein the sliding plate is slidably coupled to the bracket and movement of the sliding plate causes the moving plate to be moved; and a pair of driving motors (602a, 602b) coupled to the bracket and configured to drive a pair of corresponding driving gears (603a, 603b) engaged with the gear rack, a bracket coupled to the body; a sliding plate comprising a gear rack and fastened to the moving plate, wherein the sliding plate is slidably coupled to the bracket and movement of the sliding plate causes the moving plate to be moved; and a pair of driving motors (602a, 602b) coupled to the bracket and configured to drive a pair of corresponding driving gears (603a, 603b) engaged with the gear rack, wherein each of the driving motors (602a, 602b) is arranged to be laterally adjacent to each other, wherein the gear rack is centrally located at the moving plate.
An electronic communication system (100, 200) adapted to mitigate spoofed callers comprising: a first client device (120, 230) communicatively linked to a communications network; a social media application configured to interact via the communications network with a social media platform (110, 210) to generate a connection network defining a set of trusted members for an operator of the first client device, where the operator of the first client device is a user; and on the first client device, a dialer application configured to: validate an operator of a second client device (130, 140, 250) as a trusted caller of the operator of the first client device by determining whether the operator of the second client device belongs to the set of trusted members; and after validating the operator of the second client device as a trusted caller, receive and display at the first client device a message including an identifier for the operator of the second client device and a proposed time for a call from the trusted caller, the message received over the social media platform, where the operator of the second client device is another user. a first client device (120, 230) communicatively linked to a communications network; a social media application configured to interact via the communications network with a social media platform (110, 210) to generate a connection network defining a set of trusted members for an operator of the first client device, where the operator of the first client device is a user; and on the first client device, a dialer application configured to: validate an operator of a second client device (130, 140, 250) as a trusted caller of the operator of the first client device by determining whether the operator of the second client device belongs to the set of trusted members; and after validating the operator of the second client device as a trusted caller, receive and display at the first client device a message including an identifier for the operator of the second client device and a proposed time for a call from the trusted caller, the message received over the social media platform, validate an operator of a second client device (130, 140, 250) as a trusted caller of the operator of the first client device by determining whether the operator of the second client device belongs to the set of trusted members; and after validating the operator of the second client device as a trusted caller, receive and display at the first client device a message including an identifier for the operator of the second client device and a proposed time for a call from the trusted caller, the message received over the social media platform,