mhurhangee/ep-ind-claims huggingface dataset:
A battery module comprising: a cell assembly that includes at least one battery cell; an upper plate that covers one side of the cell assembly, and includes a hinge pin at at least one corner thereof; and a bus-bar frame that covers the other side, which neighbors the side of the cell assembly, covered by the upper plate, and coupled to the upper plate by including a hinge coupling portion that is coupled with the hinge pin, wherein the hinge coupling portion comprises a hinge pin receiving portion where the hinge pin is received and a hinge pin cover portion that covers the hinge pin, and one of the hinge pin and the hinge coupling portion comprises a coupling protrusion portion (141a, 151c), and the other comprises a coupling groove portion (141b, 141c, 151a, 151b) corresponding to the coupling protrusion portion (141a, 151c), wherein the hinge pin cover portion completely covers the hinge pin, wherein the coupling groove portion (141b, 141c, 151a, 151b) comprises a main coupling groove portion (151a, 141b), and a preliminary coupling groove portion (151b, 141c) disposed at a distance from the main coupling groove portion (151a, 141b), wherein the hinge pin receiving portion and the hinge pin cover portion are coupled by a snap fit structure, and wherein the bus-bar frame is pivotably coupled to the upper plate by the hinge coupling portion. a cell assembly that includes at least one battery cell; an upper plate that covers one side of the cell assembly, and includes a hinge pin at at least one corner thereof; and a bus-bar frame that covers the other side, which neighbors the side of the cell assembly, covered by the upper plate, and coupled to the upper plate by including a hinge coupling portion that is coupled with the hinge pin, wherein the hinge coupling portion comprises a hinge pin receiving portion where the hinge pin is received and a hinge pin cover portion that covers the hinge pin, and one of the hinge pin and the hinge coupling portion comprises a coupling protrusion portion (141a, 151c), and the other comprises a coupling groove portion (141b, 141c, 151a, 151b) corresponding to the coupling protrusion portion (141a, 151c), wherein the hinge pin cover portion completely covers the hinge pin, wherein the coupling groove portion (141b, 141c, 151a, 151b) comprises a main coupling groove portion (151a, 141b), and a preliminary coupling groove portion (151b, 141c) disposed at a distance from the main coupling groove portion (151a, 141b), wherein the hinge pin receiving portion and the hinge pin cover portion are coupled by a snap fit structure, and wherein the bus-bar frame is pivotably coupled to the upper plate by the hinge coupling portion.
A method of configuring a node of a synchronization network, the method comprising the step of: a) determining (20, 220) information about synchronization sources of a plurality of synchronization trails for passing synchronization information from the synchronization source to the node to provide a synchronization reference, a part of at least one of the trails using packet-based communication to pass the synchronization information, wherein the synchronization information is carried by packets of the packet-based communication; the method characterised in further comprising the steps of: b) determining (30, 230) automatically synchronization transmission characteristics of the part which uses the packet-based communication, wherein a said synchronization transmission characteristic indicates a timing support of a network node for the synchronization information in a trail using packet-based communication; and c) comparing (40, 240, 350, 366) automatically the trails leading to the node, using the determined source information and using the determined synchronization transmission characteristics, for selecting which of these trails to use for providing the synchronization reference for the node. a) determining (20, 220) information about synchronization sources of a plurality of synchronization trails for passing synchronization information from the synchronization source to the node to provide a synchronization reference, a part of at least one of the trails using packet-based communication to pass the synchronization information, wherein the synchronization information is carried by packets of the packet-based communication; b) determining (30, 230) automatically synchronization transmission characteristics of the part which uses the packet-based communication, wherein a said synchronization transmission characteristic indicates a timing support of a network node for the synchronization information in a trail using packet-based communication; and c) comparing (40, 240, 350, 366) automatically the trails leading to the node, using the determined source information and using the determined synchronization transmission characteristics, for selecting which of these trails to use for providing the synchronization reference for the node.
A method for server collaboration, the method comprising: receiving, by a first bot server with a first uniform resource identifier, URI, a hypertext transfer protocol, HTTP, post call message, wherein the HTTP post call message is associated with a user and directed to the URI from a messaging application server, and wherein information from the HTTP post call message is associated with a session; determining, by the first bot server, to transfer the session to a second bot server based on the HTTP post call message, wherein the second bot server includes a second URI; sending, by the first bot server, a transfer request, wherein the transfer request causes the session to be unassociated with the first bot server and associated with the second bot server; and the method characterised by: sending, by the first bot server, a return request to the second bot server, wherein the return request causes the session to be unassociated with the second bot server and associated with the first bot server, and wherein the return request is sent after a predetermined amount of time has passed since the transfer request was sent. receiving, by a first bot server with a first uniform resource identifier, URI, a hypertext transfer protocol, HTTP, post call message, wherein the HTTP post call message is associated with a user and directed to the URI from a messaging application server, and wherein information from the HTTP post call message is associated with a session; determining, by the first bot server, to transfer the session to a second bot server based on the HTTP post call message, wherein the second bot server includes a second URI; sending, by the first bot server, a transfer request, wherein the transfer request causes the session to be unassociated with the first bot server and associated with the second bot server; and the method characterised by: sending, by the first bot server, a return request to the second bot server, wherein the return request causes the session to be unassociated with the second bot server and associated with the first bot server, and wherein the return request is sent after a predetermined amount of time has passed since the transfer request was sent.
A method of manufacturing the monolithic catalyst for simultaneous removal of NO x and carbon particles, especially from off-gasses of coal power plants, wherein the monolith is made of 1H18N9T/1.4541 steel foil and the catalyst is a two phase catalyst containing NiFe 2 O 4 and Fe 2 O 3 (maghemite) phases with spinel structure, and these phases form micro-crystallites, characterized in that the monolith is oxidized by heating at a velocity of 2 - 6 grades/minute up to a temperature range of 700-800°C and then it is annealed at the final temperature for 2-6 hours in an atmosphere containing oxygen; next the monolith is cooled down to room temperature and the oxygen layer formed on the surface of monolith channels is washed with a nickel salt solution, after drying in air at the room temperature for 2 - 6 hours, the monolith is heated up in the air flow up to the temperature of 700 -800°C and again it is annealed at the final temperature for 2-6 hours, after cooling down to the room temperature finally the obtained oxide layers are subject to reduction by passing hydrogen at a velocity of 200-300 cm 3 /min for 1 hour, then the catalyst is heated in the hydrogen flow (90-250 cm 3 /min) at a velocity of 2-6°C/min. up to the temperature of 500°C, and maintained at this temperature for 0.5-1.5 hours.
A method for forming a capacitor structure comprising: forming a doped region in a substrate from a first main surface, the doped region being doped with first dopants at a first dopant concentration; forming a dielectric layer over the first main surface and the doped region of the substrate; forming a plurality of contacts in the dielectric layer, the plurality of contacts extending into the doped region, removing a portion of the substrate from a second main surface; forming a plurality of trenches (114, 114a, 114b, 114c, 114d) and conductive lines (116, 116a, 116b, 116c, 116d) in the doped region of the substrate through etching the doped region of the substrate from the second main surface, wherein the trenches (114, 114a, 114b, 114c, 114d) pass through the substrate to expose the dielectric layer, the conductive lines (116, 116a, 116b, 116c, 116d) are spaced apart from each other by the trenches (114, 114a, 114b, 114c, 114d), and formed from the doped region that is doped with the first dopants at the first dopant concentration, and the contacts are in direct contact with the conductive lines (116, 116a, 116b, 116c, 116d); and filling the plurality of trenches (114, 114a, 114b, 114c, 114d) with a dielectric material so as to form an insulating structure (104, 104a, 104b, 104c, 104d) between the conductive plates (108, 108a, 108b, 108c, 108d). forming a doped region in a substrate from a first main surface, the doped region being doped with first dopants at a first dopant concentration; forming a dielectric layer over the first main surface and the doped region of the substrate; forming a plurality of contacts in the dielectric layer, the plurality of contacts extending into the doped region, removing a portion of the substrate from a second main surface; forming a plurality of trenches (114, 114a, 114b, 114c, 114d) and conductive lines (116, 116a, 116b, 116c, 116d) in the doped region of the substrate through etching the doped region of the substrate from the second main surface, wherein the trenches (114, 114a, 114b, 114c, 114d) pass through the substrate to expose the dielectric layer, the conductive lines (116, 116a, 116b, 116c, 116d) are spaced apart from each other by the trenches (114, 114a, 114b, 114c, 114d), and formed from the doped region that is doped with the first dopants at the first dopant concentration, and the contacts are in direct contact with the conductive lines (116, 116a, 116b, 116c, 116d); and filling the plurality of trenches (114, 114a, 114b, 114c, 114d) with a dielectric material so as to form an insulating structure (104, 104a, 104b, 104c, 104d) between the conductive plates (108, 108a, 108b, 108c, 108d).
A method for triggering inter radio access technology measurements from a first wide-ranging radio access technology to a second radio access technology with limited coverage, adapting a parameter used as trigger signal at a first base station of a first radio access network of a first type of radio access technology relating to the first wide-ranging radio access technology, to initiate at a user equipment, which is served by the first base station, measurements of a signal quality of signals being received from a second base station of a second radio access network of a second type of radio access technology relating to the second radio access technology with limited coverage, the method comprising • measuring by a user equipment, which is served by the second base station, the signal quality of signals being received from the first base station, • reporting a signal being indicative for the measured signal quality from the user equipment to a network entity, wherein reporting the signal comprises transmitting a first signal being indicative for the measured signal quality from the user equipment to the second base station, and transmitting a second signal being indicative for the measured signal quality from the second base station to the network entity, and • adapting, by the network entity, the parameter based on the measured signal quality, wherein the parameter is used as trigger signal at the first base station to initiate further measurements at the user equipment, which is served by the first base station after being handed over to the first base station, of a further signal quality of signals being received from the second base station, wherein measuring the further signal quality is carried out before the user equipment which is served by the first base station is handed over to the second base station, wherein the network entity is the first base station or a common central unit. • measuring by a user equipment, which is served by the second base station, the signal quality of signals being received from the first base station, • reporting a signal being indicative for the measured signal quality from the user equipment to a network entity, wherein reporting the signal comprises transmitting a first signal being indicative for the measured signal quality from the user equipment to the second base station, and transmitting a second signal being indicative for the measured signal quality from the second base station to the network entity, and • adapting, by the network entity, the parameter based on the measured signal quality, wherein the parameter is used as trigger signal at the first base station to initiate further measurements at the user equipment, which is served by the first base station after being handed over to the first base station, of a further signal quality of signals being received from the second base station,
A sample isolation kit comprising: a housing configured to detachably couple to a sample fluid channel of a microchip and provide a sample to the microchip, wherein the housing and the microchip are coupled using a hermetic seal; and a storage housing configured to detachably couple to an isolation channel of the microchip and receive a target biological sample isolated from the sample by the microchip, wherein the storage housing and the microchip are coupled using a hermetic seal. a housing configured to detachably couple to a sample fluid channel of a microchip and provide a sample to the microchip, wherein the housing and the microchip are coupled using a hermetic seal; and a storage housing configured to detachably couple to an isolation channel of the microchip and receive a target biological sample isolated from the sample by the microchip, wherein the storage housing and the microchip are coupled using a hermetic seal.
A throwaway insert comprising: a rake face formed on one thicknesswise surface of a main body formed into a substantially plate shape; a bottom surface formed on another thicknesswise surface of the main body; a relief face formed on a side surface of the main body; a main cutting edge formed along a ridge representing an intersection of the rake face and the relief face; and a main groove formed on the relief face, which has its one end reached the rake face and the other end reached the bottom surface, wherein the main cutting edge and the relief face are divided into a plurality of first main cutting edge divisions and a plurality of relief face divisions, respectively, by the main groove, characterized in that the first main cutting edge division is divided into a plurality of second main cutting edge divisions by a sub-groove which is formed on the relief face division abreast of the main groove, wherein one end of the sub-groove reaches the rake face, wherein the sub-groove is made smaller in width than the main groove. a rake face formed on one thicknesswise surface of a main body formed into a substantially plate shape; a bottom surface formed on another thicknesswise surface of the main body; a relief face formed on a side surface of the main body; a main cutting edge formed along a ridge representing an intersection of the rake face and the relief face; and a main groove formed on the relief face, which has its one end reached the rake face and the other end reached the bottom surface, wherein the main cutting edge and the relief face are divided into a plurality of first main cutting edge divisions and a plurality of relief face divisions, respectively, by the main groove, characterized in that the first main cutting edge division is divided into a plurality of second main cutting edge divisions by a sub-groove which is formed on the relief face division abreast of the main groove, wherein one end of the sub-groove reaches the rake face, wherein the sub-groove is made smaller in width than the main groove.
A compound of formula or steroisomers thereof, wherein R 1 is selected from H, methyl, methoxy; R 3 is selected from H, methyl, methoxy; or R 1 and R 3 together form -CH=CH-CH=CH-; R 2 is H, methyl; n is an integer from 0 to 10; Q is selected from the group consisting of: and wherein m is an integer from 0 to 6; p is an integer from 0 to 1; X is O, S or is -CHONO 2, with the proviso that when X is -CHONO 2 then m is 0. R 1 is selected from H, methyl, methoxy; R 3 is selected from H, methyl, methoxy; or R 1 and R 3 together form -CH=CH-CH=CH-; R 2 is H, methyl; n is an integer from 0 to 10; Q is selected from the group consisting of: and wherein m is an integer from 0 to 6; p is an integer from 0 to 1; X is O, S or is -CHONO 2, with the proviso that when X is -CHONO 2 then m is 0.
A hoisting winch, in particular a hoisting gear winch, having a hoisting drum whose winding region is bounded by two lateral flanged wheels (4, 5), with at least one further flanged wheel (9, 23) being provided between the two lateral flanged wheels (4, 5) for dividing the winding region into at least two part winding regions (10, 11, 22), wherein the cable can be guided beyond the named further flanged wheel (9, 23) into the at least two part winding regions (10, 11, 22) and can be wound in a plurality of winding layers over one another, characterized in that the hoisting drum is axially adjustable in the longitudinal direction of the drum, with a cable run-in control apparatus being provided for setting a respective plurality of axial positions of the hoisting drum for the respective multilayer winding/unwinding of each part winding region (10, 11, 12).
A power distribution system for an aircraft on the ground, comprising: a preconditioned air unit, operably coupleable to the aircraft on the ground and configured to receive at least a first portion of a predetermined maximum input power provided by a power supply (102, 214, 406, 506); at least one ground power unit (110,112), electrically coupleable to the aircraft on the ground and configured to receive at least a second portion of said predetermined maximum input power provided by said power supply (102, 214, 406, 506), and a controller, adapted to monitor at least one parameter of the power consumed by any one of said preconditioned air unit and said at least one ground power unit (110,112), and control the power consumption of at least said preconditioned air unit so that the total power consumption of said preconditioned air unit and said at least one ground power unit (110,112) does not exceed said predetermined maximum input power; wherein said predetermined maximum input power is provided via a single power line between said power supply (102, 214, 406, 506) and an input port of said preconditioned air unit, wherein said predetermined maximum input power is a maximum acceptable power consumption. a preconditioned air unit, operably coupleable to the aircraft on the ground and configured to receive at least a first portion of a predetermined maximum input power provided by a power supply (102, 214, 406, 506); at least one ground power unit (110,112), electrically coupleable to the aircraft on the ground and configured to receive at least a second portion of said predetermined maximum input power provided by said power supply (102, 214, 406, 506), and a controller, adapted to monitor at least one parameter of the power consumed by any one of said preconditioned air unit and said at least one ground power unit (110,112), and control the power consumption of at least said preconditioned air unit so that the total power consumption of said preconditioned air unit and said at least one ground power unit (110,112) does not exceed said predetermined maximum input power; wherein said predetermined maximum input power is provided via a single power line between said power supply (102, 214, 406, 506) and an input port of said preconditioned air unit, wherein said predetermined maximum input power is a maximum acceptable power consumption.
A device for biological fluid separation, comprising: a first surface and a second surface, at least one of said first and second surfaces comprising a hydrophobic region, a superhydrophobic region, or both, the device being configured such that in a closed state, the first and second surfaces are positioned opposite one another so as to define a volume between the surfaces, at least one separation membrane being disposed in the second surface, the separation membrane being positioned so as to be in fluid communication with the volume between the surfaces when the device is in the closed state, the separation membrane being selectively permeable to a fluid blood component, characterized in that the first surface includes a hydrophilic region at least partially in register with the separation membrane when the device is in the closed state and wherein the hydrophilic region is arranged as a base or landing location for the biological fluid. a first surface and a second surface, at least one of said first and second surfaces comprising a hydrophobic region, a superhydrophobic region, or both, the device being configured such that in a closed state, the first and second surfaces are positioned opposite one another so as to define a volume between the surfaces, at least one separation membrane being disposed in the second surface, the separation membrane being positioned so as to be in fluid communication with the volume between the surfaces when the device is in the closed state, the separation membrane being selectively permeable to a fluid blood component,
A filter for removing aldehyde-like Volatile Organic Compounds, VOCs, from indoor air, said filter including at least one casing acting as a container, said container comprising two air-permeable opposite walls (12, 13) through which a volume of said indoor air flows, the casing housing one or more natural polyphenols and a catalytic agent, wherein the filter acts as an absorption filter, reacting irreversibly with the aldehyde-like VOCs of the indoor air, characterised in that: - said one or more natural polyphenols are powdered polyphenols and are selected from a group comprising: resveratrol (3,4',5-trihydroxystilbene), resorcinol (1,3-benzenediol), pyrogallol (1,2,3-benzenetriol), phloroglucinol (1,3,5-benzenetriol) and hydroquinone (1,4-benzenediol), or a combination thereof, and - said catalytic agent is a solid sulfonic acid, wherein a mixture of said one or more natural polyphenols and said catalytic agent are present, in the container, as compacted block elements. - said one or more natural polyphenols are powdered polyphenols and are selected from a group comprising: resveratrol (3,4',5-trihydroxystilbene), resorcinol (1,3-benzenediol), pyrogallol (1,2,3-benzenetriol), phloroglucinol (1,3,5-benzenetriol) and hydroquinone (1,4-benzenediol), or a combination thereof, and - said catalytic agent is a solid sulfonic acid,