mhurhangee/patent-ind-claim-en huggingface dataset:
A method of transmitting media contents by using an MPEG media transport protocol, MMTP, the method comprising: transmitting a transport packet including a MMTP packet header, a payload header, and payload data comprising data generated from the at least one MPU, wherein the MMTP packet header comprises information indicating a type of the data in the payload data from among a plurality of payload types, and wherein the plurality of payload types comprises a first payload type indicating that the payload data includes media-aware fragment data of a media processing unit, MPU, comprising media data of the media contents, a second payload type indicating that the payload data includes at least one signaling message, a third payload type indicating that the payload data includes a generic object such as a complete MPU or an object of another type, and a fourth payload type indicating that the payload data includes a repair symbol. transmitting a transport packet including a MMTP packet header, a payload header, and payload data comprising data generated from the at least one MPU, wherein the MMTP packet header comprises information indicating a type of the data in the payload data from among a plurality of payload types, and wherein the plurality of payload types comprises a first payload type indicating that the payload data includes media-aware fragment data of a media processing unit, MPU, comprising media data of the media contents, a second payload type indicating that the payload data includes at least one signaling message, a third payload type indicating that the payload data includes a generic object such as a complete MPU or an object of another type, and a fourth payload type indicating that the payload data includes a repair symbol.
A pump comprising: a body ; a partition wall configured to divide an interior of the body into two spaces; a first chamber (C1) located under the partition wall , the first chamber (C1) having an introduction portion , through which water is introduced; a second chamber (C2) located above the partition wall , the second chamber (C2) having a discharge portion , through which water is discharged; a communication hole formed through the partition wall to allow the first chamber (C1) and the second chamber (C2) to communicate with each other therethrough; an impeller provided in the second chamber (C2) to move water to the discharge portion ; an opening provided in a bottom surface of the first chamber (C1); a housing configured to close the opening and form the bottom surface of the first chamber (C1), the housing being made of a conductor; a heater configured to heat the housing ; and a steam discharge port formed through the first chamber (C1) to allow steam to be discharged therethrough. a body ; a partition wall configured to divide an interior of the body into two spaces; a first chamber (C1) located under the partition wall , the first chamber (C1) having an introduction portion , through which water is introduced; a second chamber (C2) located above the partition wall , the second chamber (C2) having a discharge portion , through which water is discharged; a communication hole formed through the partition wall to allow the first chamber (C1) and the second chamber (C2) to communicate with each other therethrough; an impeller provided in the second chamber (C2) to move water to the discharge portion ; an opening provided in a bottom surface of the first chamber (C1); a housing configured to close the opening and form the bottom surface of the first chamber (C1), the housing being made of a conductor; a heater configured to heat the housing ; and a steam discharge port formed through the first chamber (C1) to allow steam to be discharged therethrough.
A casing of an aircraft turbomachine, this casing comprising: - an annular envelope extending around an axis A and made of a composite material comprising fibres which are woven and embedded in a resin, - an annular layer of abradable material extending inside the envelope, around the axis A, and obtained by spreading and polymerizing a paste, and - support panels extending around the axis A and interposed between the envelope and the abradable layer, characterised in that the abraAdable layer is deposited on an internal annular surface of a foam layer which is itself deposited on an internal annular surface of the panels . - an annular envelope extending around an axis A and made of a composite material comprising fibres which are woven and embedded in a resin, - an annular layer of abradable material extending inside the envelope, around the axis A, and obtained by spreading and polymerizing a paste, and - support panels extending around the axis A and interposed between the envelope and the abradable layer,
A chimeric antigen receptor (CAR) which comprises an antigen-binding domain which selectively binds TCR beta constant region 1 (TRBC1) or TRBC2.
A pemetrexed formulation filled in a sealed container comprising pemetrexed or a pharmaceutically acceptable salt thereof as an active ingredient, N-acetyl-L-cysteine and sodium citrate; wherein the formulation comprises an oxygen gas content of 3 v/v% or less within the headspace of the container, relative to the total volume of the headspace.
A secure power supply system comprising at least: - a cut-off device (1; 1') comprising at least: - a pyrotechnic initiator , - a first pressurising chamber communicating with an outlet (S) of said pyrotechnic initiator , - a second chamber , and - a mobile cut-off element separating the first chamber from the second chamber and presenting at least one relief formed of an electrically insulating material, said at least one relief being facing the conductive portions , and - a three-phase power supply circuit connected to the cut-off device (1; 1'), the pyrotechnic initiator being configured to allow the cut-off device (1; 1') to pass from a first current passing configuration to a second current cut-off configuration, characterised in that , - in the second chamber three conductive portions are present, - each conductive portion is connected to a phase of the three-phase circuit, and in that the mobile cut-off element is set in motion towards the conductive portions so as to simultaneously break the three conductive portions by impact with the relief during the passage from the first to the second configuration. - a cut-off device (1; 1') comprising at least: - a pyrotechnic initiator , - a first pressurising chamber communicating with an outlet (S) of said pyrotechnic initiator , - a second chamber , and - a mobile cut-off element separating the first chamber from the second chamber and presenting at least one relief formed of an electrically insulating material, said at least one relief being facing the conductive portions , and - a pyrotechnic initiator , - a first pressurising chamber communicating with an outlet (S) of said pyrotechnic initiator , - a second chamber , and - a mobile cut-off element separating the first chamber from the second chamber and presenting at least one relief formed of an electrically insulating material, said at least one relief being facing the conductive portions , and - a three-phase power supply circuit connected to the cut-off device (1; 1'), the pyrotechnic initiator being configured to allow the cut-off device (1; 1') to pass from a first current passing configuration to a second current cut-off configuration, - in the second chamber three conductive portions are present, - each conductive portion is connected to a phase of the three-phase circuit, and in that the mobile cut-off element is set in motion towards the conductive portions so as to simultaneously break the three conductive portions by impact with the relief during the passage from the first to the second configuration.
A compartment of a gastrointestinal tract simulation system, comprising a vessel having an open top surrounded by a peripheral edge portion and an air-tight lid system configured to be placed onto the peripheral edge portion and to form an air-tight seal between the lid system and the vessel, wherein the lid system comprises a body with a plurality of passageways extending through the body and providing access to the interior of the vessel, said plurality of passageways comprising first passageways configured for receiving fluid transfer tubes and second passageways configured for mounting at least one sensor component, and wherein the lid system is provided with releasable sealing elements for sealing the plurality of passageways and at least one pressing element which is common to at least a number of the sealing elements and configured for applying pressure to each of the respective sealing elements to effect the sealing of the respective passageways, wherein the pressing element comprises a plate-like member which is movably fixed to the body of the lid system between a pressing position, in which the plate-like member applies the pressure to the sealing elements to effect the sealing of the passageways, and a release position, in which the sealing elements are in released state.
A method of preparing an alkoxysilane functionalized polymer, the method comprising: i. introducing an anionic polymerization initiator to a reactor comprising a reactive mixture including conjugated diolefin monomer and solvent to form a living polymer via anionic polymerization; ii. introducing alkoxysilane to the reactor to react with the living polymer to form an alkoxysilane functionalized polymer; iii. adding at least one aliphatic carboxylic acid having at least 10 carbons to the alkoxysilane functionalized polymer; and iv. after adding the at least one aliphatic carboxylic acid, removing solvent from the alkoxysilane functionalized polymer, wherein the addition of aliphatic carboxylic acid increases the Mooney viscosity measured as indicated in the description of the alkoxysilane functionalized polymer by at least 5; and wherein the addition of aliphatic carboxylic acid reduces tack in the alkoxysilane functionalized polymer such that the alkoxysilane functionalized polymer has an adhesive energy measured as indicated in the description of less than 1000 gf mm (= 0.01 Nm). i. introducing an anionic polymerization initiator to a reactor comprising a reactive mixture including conjugated diolefin monomer and solvent to form a living polymer via anionic polymerization; ii. introducing alkoxysilane to the reactor to react with the living polymer to form an alkoxysilane functionalized polymer; iii. adding at least one aliphatic carboxylic acid having at least 10 carbons to the alkoxysilane functionalized polymer; and iv. after adding the at least one aliphatic carboxylic acid, removing solvent from the alkoxysilane functionalized polymer, wherein the addition of aliphatic carboxylic acid increases the Mooney viscosity measured as indicated in the description of the alkoxysilane functionalized polymer by at least 5; and wherein the addition of aliphatic carboxylic acid reduces tack in the alkoxysilane functionalized polymer such that the alkoxysilane functionalized polymer has an adhesive energy measured as indicated in the description of less than 1000 gf mm (= 0.01 Nm).
An internal combustion engine arrangement for a vehicle , said internal combustion engine arrangement comprising a combustion cylinder housing a reciprocating combustion piston, and an expansion cylinder housing a reciprocating expansion piston, said expansion cylinder being arranged in downstream fluid communication with the combustion cylinder for receiving combustion gases exhausted from the combustion cylinder , characterized in that the internal combustion engine arrangement further comprises a pressure tank arranged in fluid communication with the expansion cylinder , wherein the internal combustion engine arrangement is further arranged to be operated in a first operating mode in which the expansion cylinder is arranged to be operated as a pump for compressing gas in the expansion cylinder , wherein the compressed gas is delivered to the pressure tank , and a second operating mode in which compressed gas contained in the pressure tank is delivered from the pressure tank to the expansion cylinder .
A composite resin composition comprising: inorganic fine particles; a solvent; and an epoxy ester resin or a polycarboxylic resin having a fused-ring structure derived from at least one selected from the group consisting of indene, tetralin, fluorene, xanthene, anthracene, and benzanthracene; wherein the composite resin composition optionally comprises a dispersant and/or a surface treatment agent, and in the case where the composite resin composition comprises the dispersant and/or the surface treatment agent, the total amount of the dispersant and the surface treatment agent in terms of active ingredients is 5 parts by weight or less relative to 100 parts by weight of the inorganic fine particles, wherein the inorganic fine particles have an average particle size after dispersion of 10 to 70 nm. inorganic fine particles; a solvent; and an epoxy ester resin or a polycarboxylic resin having a fused-ring structure derived from at least one selected from the group consisting of indene, tetralin, fluorene, xanthene, anthracene, and benzanthracene; wherein the composite resin composition optionally comprises a dispersant and/or a surface treatment agent, and in the case where the composite resin composition comprises the dispersant and/or the surface treatment agent, the total amount of the dispersant and the surface treatment agent in terms of active ingredients is 5 parts by weight or less relative to 100 parts by weight of the inorganic fine particles, wherein the inorganic fine particles have an average particle size after dispersion of 10 to 70 nm.
Superabsorbent polymer particles comprising clay platelets with edge modification and/or surface modification; wherein superabsorbent polymer particles comprise one, or more than one area(s) with clay platelets and at least two distinct, non-adjacent, areas with no clay platelets, and wherein the total volume of the areas with no clay platelets is higher than the total volume of the area(s) with clay platelets. wherein superabsorbent polymer particles comprise one, or more than one area(s) with clay platelets and at least two distinct, non-adjacent, areas with no clay platelets, and wherein the total volume of the areas with no clay platelets is higher than the total volume of the area(s) with clay platelets.
Speed-change gearbox for a motor vehicle, having a first sub-gearbox (A) and a second sub-gearbox (B), the sub-gearbox input shafts of which are connected to clutches (K1, K2, K3) capable of performing shifts under load, and which terminate at a common drive output shaft , and having shiftable gearwheel sets, which are assigned to gear shifting for the first sub-gearbox (A) and the second sub-gearbox (B) respectively, wherein each of the gearwheel sets, during gear shifting by means of shifting elements, can be operationally connected to the particular sub-gearbox input shaft and to the common drive output shaft and, during shifting under load, by shifting one of the clutches (K1, K2, K3) capable of performing shifts under load, one of the sub-gearboxes (A, B) can be activated, while the other sub-gearbox (B) is deactivated, wherein an additional intermediate gearwheel set (Z4, Z3) is provided for shifting a gear, in particular a second gear or a third gear, which is assigned in a first operating position (I) to the first sub-gearbox (A) and in a second operating position (II) to the second sub-gearbox (B), such that the gear of the intermediate gearwheel set (Z4, Z3) can be shifted either with an activated first sub-gearbox (A) or with an activated second sub-gearbox (B), and wherein each of the gearwheel sets is composed of loose and fixed gearwheels, which are arranged in a wheel plane perpendicular to the gear shafts and can be operationally connected to the sub-gearbox input shafts and the common drive output shaft by means of shifting elements, characterised in that the gearwheel sets can be connected to the output shaft by means of hollow shafts , which are arranged on the output shaft .
A computer implemented method of secure hotspot set-up, the method comprising steps a computer processor of a first client device of a user is programmed to perform, the steps comprising: a) on the first client device of the user, the first client device being used by the user and implementing a security protocol pre-selected by an entity to communicate with the user, receiving a request to setup a secure hotspot allowing the first client device of the user to bridge between a wide area network and a second client device of the user, the request being received from the first client device of the user upon being present in a geographical area predefined by the entity; and b) based on the received request, setting up the hotspot for providing the second client device of the user with access to the wide area network, the first client device of the user using the security protocol pre-selected by the entity to communicate with the user when the first client device is bridging between the second client device of the user and the wide area network and the second client device is connected to the set-up hotspot. a) on the first client device of the user, the first client device being used by the user and implementing a security protocol pre-selected by an entity to communicate with the user, receiving a request to setup a secure hotspot allowing the first client device of the user to bridge between a wide area network and a second client device of the user, the request being received from the first client device of the user upon being present in a geographical area predefined by the entity; and b) based on the received request, setting up the hotspot for providing the second client device of the user with access to the wide area network, the first client device of the user using the security protocol pre-selected by the entity to communicate with the user when the first client device is bridging between the second client device of the user and the wide area network and the second client device is connected to the set-up hotspot.
A print protection method, adapted to a three-dimensional printing apparatus , and the three-dimensional printing apparatus comprising a trigger circuit , a control device , a peripheral device , a print head and a storage device , the method comprising: when a system voltage of the three-dimensional printing apparatus is reduced from a normal voltage to a first threshold voltage and lower than the first threshold voltage, generating a trigging signal to the control device by the trigger circuit ; recording a position data of a current position of the print head into the storage device by the control device according to the trigging signal after the system voltage is lower than the first threshold voltage; and completely shutting down operation of the peripheral device and the print head by the control device according to the trigging signal after the system voltage is lower than a second threshold voltage, so that the control device is continuously operated by a remaining power after the system voltage is lower than the second threshold voltage, wherein the second threshold voltage is lower than the first threshold voltage. when a system voltage of the three-dimensional printing apparatus is reduced from a normal voltage to a first threshold voltage and lower than the first threshold voltage, generating a trigging signal to the control device by the trigger circuit ; recording a position data of a current position of the print head into the storage device by the control device according to the trigging signal after the system voltage is lower than the first threshold voltage; and completely shutting down operation of the peripheral device and the print head by the control device according to the trigging signal after the system voltage is lower than a second threshold voltage, so that the control device is continuously operated by a remaining power after the system voltage is lower than the second threshold voltage, wherein the second threshold voltage is lower than the first threshold voltage.
A multi-core multi-mode fiber coupling device comprising: a first group of fibers; a first light converging system configured to converge a group of outgoing light beams from the first group of fibers; a first mode converter configured to convert a mode of the group of outgoing light beams from the first group of fibers, which has been converged by the first light converging system , into a first mode; a second group of fibers; a second light converging system configured to converge a group of outgoing light beams from the second group of fibers; and a spatial coupling system for multi-core fiber, configured to guide a group of outgoing light beams from the first mode converter and a group of outgoing light beams from the second light converging system into a multi-core multi-mode fiber ; wherein the spatial coupling system comprises: a first relay lens configured to receive the group of outgoing light beams from the first mode converter , a beam splitter configured to guide light beams from the first relay lens and the group of outgoing light beams from the second light converging system into the multi-core multi-mode fiber , and a multi-mode fiber coupling lens configured to propagate the output from the beam splitter into the multi-core multi-mode fiber . a first group of fibers; a first light converging system configured to converge a group of outgoing light beams from the first group of fibers; a first mode converter configured to convert a mode of the group of outgoing light beams from the first group of fibers, which has been converged by the first light converging system , into a first mode; a second group of fibers; a second light converging system configured to converge a group of outgoing light beams from the second group of fibers; and a spatial coupling system for multi-core fiber, configured to guide a group of outgoing light beams from the first mode converter and a group of outgoing light beams from the second light converging system into a multi-core multi-mode fiber ; wherein the spatial coupling system comprises: a first relay lens configured to receive the group of outgoing light beams from the first mode converter , a beam splitter configured to guide light beams from the first relay lens and the group of outgoing light beams from the second light converging system into the multi-core multi-mode fiber , and a multi-mode fiber coupling lens configured to propagate the output from the beam splitter into the multi-core multi-mode fiber . a first relay lens configured to receive the group of outgoing light beams from the first mode converter , a beam splitter configured to guide light beams from the first relay lens and the group of outgoing light beams from the second light converging system into the multi-core multi-mode fiber , and a multi-mode fiber coupling lens configured to propagate the output from the beam splitter into the multi-core multi-mode fiber .
Pipe clamp with a mounting part , which is connected to a threaded rod , which is mountable on a building part, and which has a passage opening , through which a pipe is insertable into a mounting space of the pipe clamp , with a support element , on which the pipe is supportable, and with a securing part , which has a holding-down member by means of which the pipe is fixable in the mounting space , wherein the securing part is fixedly or rotatably connected to the threaded rod and wherein the mounting part and the securing part are displaceable relative to one another coaxially with respect to the longitudinal axis of the threaded rod in order to fix the pipe , characterised in, that the holding-down member is held by a threaded sleeve , which is rotatably connected to the holding-down member and which engages with an internal thread in the external thread of the threaded rod , rotatably and displaceably along the threaded rod .