mhurhangee/patent-ind-claim-en huggingface dataset:
An unmanned underwater vehicle for the maintenance and inspection of permanent underwater facilities, the underwater vehicle comprising: a frame ; at least one buoy ; a plurality of thrusters ; at least one power accumulator ; and a control unit ; the buoy defining the upper part of the underwater vehicle , while the frame in the lower part of the underwater vehicle supporting a first external interface and a second external interface ; wherein the first interface is configured to be mechanically and electrically coupled to an interface of an interchangeable operational module (41; 42; 43) selected on the basis of specific needs from a plurality of interchangeable operational modules featuring different characteristics; and the second interface is configured to be mechanically and electrically coupled to an interface of an interchangeable power and communication module (44; 45; 46) selected on the basis of specific needs from a plurality of interchangeable power and communication modules featuring different characteristics; and wherein, in use, the interchangeable operational module (41; 42; 43) is electrically powered by the power and communication module when both modules are respectively coupled by their respective interfaces to the underwater vehicle . a frame ; at least one buoy ; a plurality of thrusters ; at least one power accumulator ; and a control unit ; the buoy defining the upper part of the underwater vehicle , while the frame in the lower part of the underwater vehicle supporting a first external interface and a second external interface ; wherein the first interface is configured to be mechanically and electrically coupled to an interface of an interchangeable operational module (41; 42; 43) selected on the basis of specific needs from a plurality of interchangeable operational modules featuring different characteristics; and the second interface is configured to be mechanically and electrically coupled to an interface of an interchangeable power and communication module (44; 45; 46) selected on the basis of specific needs from a plurality of interchangeable power and communication modules featuring different characteristics; and wherein, in use, the interchangeable operational module (41; 42; 43) is electrically powered by the power and communication module when both modules are respectively coupled by their respective interfaces to the underwater vehicle .
A method of separating and recovering an entire liquid hydrocarbon sample using an accelerated solvent extractor , the method comprising: inserting a filter into a bottom portion of an extraction cell of the accelerated solvent extractor ; inserting at least an adsorbent into the extraction cell , wherein the adsorbent occupies more than 75% of the volume of the extraction cell ; introducing the hydrocarbon sample on top of the adsorbent in the extraction cell ; placing the extraction cell comprising the hydrocarbon sample into a cell tray of the accelerated solvent extractor ; extracting a saturate fraction of the hydrocarbon sample using a first solvent, wherein the saturate fraction is collected in a first collection vial; extracting an aromatics fraction of the hydrocarbon sample using a second solvent, wherein the aromatics fraction is collected in a second collection vial; and extracting a resins fraction of the hydrocarbon sample using a third solvent, wherein the resins fraction is collected in a third collection vial, wherein the entire liquid hydrocarbon sample is extracted. inserting a filter into a bottom portion of an extraction cell of the accelerated solvent extractor ; inserting at least an adsorbent into the extraction cell , wherein the adsorbent occupies more than 75% of the volume of the extraction cell ; introducing the hydrocarbon sample on top of the adsorbent in the extraction cell ; placing the extraction cell comprising the hydrocarbon sample into a cell tray of the accelerated solvent extractor ; extracting a saturate fraction of the hydrocarbon sample using a first solvent, wherein the saturate fraction is collected in a first collection vial; extracting an aromatics fraction of the hydrocarbon sample using a second solvent, wherein the aromatics fraction is collected in a second collection vial; and extracting a resins fraction of the hydrocarbon sample using a third solvent, wherein the resins fraction is collected in a third collection vial, wherein the entire liquid hydrocarbon sample is extracted.
An aspiration syringe comprising: a barrel with a tip for attaching a needle; a piston having a stem and slidably mounted inside the barrel ; and a grip located at an end of the stem , characterized in that the syringe is provided with a handle moveably attached to the stem grip and rotatable in relation to a hinge unit located at the stem grip , wherein the handle is formed at least as a bracket with a reverse grip located at an end opposite to the handle attachment and with a slot arranged in the middle portion and intended for enclosing the stem from two sides, and the bracket has an arched shape, wherein the radius of curvature of the bracket approximately equals the distance the piston exits the barrel in operation. characterized in that the syringe is provided with a handle moveably attached to the stem grip and rotatable in relation to a hinge unit located at the stem grip , wherein the handle is formed at least as a bracket with a reverse grip located at an end opposite to the handle attachment and with a slot arranged in the middle portion and intended for enclosing the stem from two sides, and the bracket has an arched shape, wherein the radius of curvature of the bracket approximately equals the distance the piston exits the barrel in operation.
A lithium secondary battery comprising: a cathode; an anode; a separation film disposed between the cathode and the anode; and an electrolyte, wherein the anode comprises an electrode active material comprising a silicon-based material and graphite, a binder, and a conductive material, and wherein the binder comprises dopamine-polymerized heparin. a cathode; an anode; a separation film disposed between the cathode and the anode; and an electrolyte, wherein the anode comprises an electrode active material comprising a silicon-based material and graphite, a binder, and a conductive material, and wherein the binder comprises dopamine-polymerized heparin.
A crystal form A of the compound of formula I characterized in that , the crystal form A has diffraction peaks at 2θ=5.5°±0.2°, 10.1°±0.2°, 13.8°±0.2°, 19.7°±0.2°, 23.7°±0.2°, 24.1°±0.2° in X-ray powder diffraction pattern.
A method for receiving data, implemented by a first User Equipment, UE , and comprising: receiving (S 11) first Downlink Control Information, DCI, sent by a base station ; after receiving the first DCI, receiving (S12) first data, the first data being modulated data corresponding to a second UE; in response to not receiving second DCI, storing (S 13) the first data; in response to receiving the second DCI, acquiring (S14) demodulation assisting information from the second DCI; after receiving the second DCI, receiving (S15) superposed data, the superposed data comprising second data and third data superposed in time domain and frequency domain, the second data being modulated data corresponding to the first UE , the third data being modulated data corresponding to the second UE; acquiring (S16) demodulated data corresponding to the second UE by demodulating the first data stored according to the demodulation assisting information, the first data stored being the first data received after receiving the first DCI and before receiving the second DCI, and stored; determining (S 17) the third data in the superposed data according to the demodulated data corresponding to the second UE; and acquiring (S18) the second data from the superposed data according to the third data. receiving (S 11) first Downlink Control Information, DCI, sent by a base station ; after receiving the first DCI, receiving (S12) first data, the first data being modulated data corresponding to a second UE; in response to not receiving second DCI, storing (S 13) the first data; in response to receiving the second DCI, acquiring (S14) demodulation assisting information from the second DCI; after receiving the second DCI, receiving (S15) superposed data, the superposed data comprising second data and third data superposed in time domain and frequency domain, the second data being modulated data corresponding to the first UE , the third data being modulated data corresponding to the second UE; acquiring (S16) demodulated data corresponding to the second UE by demodulating the first data stored according to the demodulation assisting information, the first data stored being the first data received after receiving the first DCI and before receiving the second DCI, and stored; determining (S 17) the third data in the superposed data according to the demodulated data corresponding to the second UE; and acquiring (S18) the second data from the superposed data according to the third data.
A high-pressure passthrough apparatus comprising: a penetrator body connectable to a chemical suit having a body portion and a head portion , wherein the penetrator body comprises a first half positionable on an exterior side of the chemical suit and a second half positionable on an interior side of the chemical suit when the penetrator body is connected to the chemical suit ; a high-pressure inlet positioned on the first half of the penetrator body receiving high pressure gas from a high pressure source at a service pressure of between 6208.3kPA and 44815.9kPA (900 PSI and 6,500 PSI); a high-pressure self-contained breathing apparatus (SCBA) outlet positioned on the second half of the penetrator body receiving the high pressure gas at said service pressure from the high-pressure inlet and supplying the high pressure gas to the head portion of the chemical suit ; and a high-pressure passthrough valve positioned on the second half of the penetrator body within the body portion of the suit and receiving the high pressure gas at said service pressure from the high-pressure inlet , wherein the high pressure gas is supplied to the body portion of the chemical suit through the high-pressure passthrough valve. a penetrator body connectable to a chemical suit having a body portion and a head portion , wherein the penetrator body comprises a first half positionable on an exterior side of the chemical suit and a second half positionable on an interior side of the chemical suit when the penetrator body is connected to the chemical suit ; a high-pressure inlet positioned on the first half of the penetrator body receiving high pressure gas from a high pressure source at a service pressure of between 6208.3kPA and 44815.9kPA (900 PSI and 6,500 PSI); a high-pressure self-contained breathing apparatus (SCBA) outlet positioned on the second half of the penetrator body receiving the high pressure gas at said service pressure from the high-pressure inlet and supplying the high pressure gas to the head portion of the chemical suit ; and a high-pressure passthrough valve positioned on the second half of the penetrator body within the body portion of the suit and receiving the high pressure gas at said service pressure from the high-pressure inlet , wherein the high pressure gas is supplied to the body portion of the chemical suit through the high-pressure passthrough valve.
A solid oxide-type cell comprising: a first electrode layer ; a solid electrolyte layer on the first electrode layer , the solid electrolyte layer containing Zr; a middle layer on the solid electrolyte layer , the middle layer containing CeO 2 which also contains a rare earth element other than Ce; and an air electrode layer on the middle layer , wherein a boundary region between the solid electrolyte layer and the middle layer includes a basing point at which a molarity of the Ce and a molarity of the Zr are equal, in a top view, a part of the boundary region which is overlapped with an outer-peripheral portion of the middle layer is defined as a first boundary region, and another part of the boundary region which is overlapped with a center portion of the middle layer is defined as a second boundary region, a Ce content of at least a part of the first boundary region is different from a Ce content of the second boundary region, and the Ce content of the second boundary region is less than the Ce content of the first boundary region. a first electrode layer ; a solid electrolyte layer on the first electrode layer , the solid electrolyte layer containing Zr; a middle layer on the solid electrolyte layer , the middle layer containing CeO 2 which also contains a rare earth element other than Ce; and an air electrode layer on the middle layer , wherein a boundary region between the solid electrolyte layer and the middle layer includes a basing point at which a molarity of the Ce and a molarity of the Zr are equal, in a top view, a part of the boundary region which is overlapped with an outer-peripheral portion of the middle layer is defined as a first boundary region, and another part of the boundary region which is overlapped with a center portion of the middle layer is defined as a second boundary region, a Ce content of at least a part of the first boundary region is different from a Ce content of the second boundary region, and the Ce content of the second boundary region is less than the Ce content of the first boundary region.
Drug eluting device for preventing and treating restenosis and neointimal formation after vascular procedures and/or implantation of implants comprising an implantable and non-implantable stent, wherein said device comprises a therapeutically effective amount of at least one retinoid receptors ligand as active ingredient and a coating matrix, wherein said device is coated with a mixture of all trans- retinoic acid and polylactide-co-glycolide, wherein the ratio of retinoic acid polymer by weight is 25% and the overall dose of all trans-retinoic acid is 2.5 micrograms per millimeter of stent length.
External wall with a wall plate and a façade made of façade panels which are supported by the wall plate wherein the façade panels are fixed by means of strips and/or clumps of a hardened or set adhesive or mortar, without reinforcement embedded therein, on a substrate formed by the wall plate or a coating of the wall plate , wherein each façade panel is fixed by means of at least two strips and/or clumps of a hardened or set adhesive or mortar on the wall plate or a coating of the wall plate and an air space is provided between - two adjacent strips and/or clumps, - the substrate and - the façade panels , characterised in that between the façade panels are provided open joints which serve to ventilate behind the façade panels. wherein the façade panels are fixed by means of strips and/or clumps of a hardened or set adhesive or mortar, without reinforcement embedded therein, on a substrate formed by the wall plate or a coating of the wall plate , wherein each façade panel is fixed by means of at least two strips and/or clumps of a hardened or set adhesive or mortar on the wall plate or a coating of the wall plate and an air space is provided between - two adjacent strips and/or clumps, - the substrate and - the façade panels , - two adjacent strips and/or clumps, - the substrate and - the façade panels , characterised in that between the façade panels are provided open joints which serve to ventilate behind the façade panels.
A blisk of a stage of a turbomachine, in particular of a fan, comprising: - a hub comprising an upstream edge , a downstream edge and a radial platform extending between the upstream edge and the downstream edge and configured to define, via a radially outer face , an inner flowpath of a gas in the turbomachine, - a plurality of blades , said blades extending radially from the platform and being formed integrally and in one piece with said platform , each blade comprising a root connected to the platform , a leading edge and a trailing edge , the blisk being characterised in that a groove is formed in the platform around part of the root of each blade in an area adjacent to the leading edge and/or to the trailing edge , and in that the blisk further comprises a seal placed in the groove so as to extend in the extension of the radially outer face of the platform in order to ensure a continuity of the inner flowpath, and in that said groove opens out onto the nearest edge of the platform among the upstream edge or the downstream edge . - a hub comprising an upstream edge , a downstream edge and a radial platform extending between the upstream edge and the downstream edge and configured to define, via a radially outer face , an inner flowpath of a gas in the turbomachine, - a plurality of blades , said blades extending radially from the platform and being formed integrally and in one piece with said platform , each blade comprising a root connected to the platform , a leading edge and a trailing edge ,
A near field communication, NFC, configuration method, applied to a mobile terminal, comprising: in a case where a preset NFC module is configured as an NFC card, (S101) acquiring current position information of the mobile terminal, and setting a static parameter in all of operating parameters of the NFC module as a first preset value corresponding to the current position information in turn; and characterized by in a case where the NFC card is read by a card reader within a geographic range corresponding to the current position information, (S102) setting dynamic parameters in all of the operating parameters of the NFC module as a plurality of second preset values corresponding to the current position information in turn, wherein the plurality of second preset values is ordered according to a preset sequence; wherein a determination manner of the static parameter comprises: in a case where the NFC card is read by the card reader, adjusting each of the operating parameters of the NFC module within a preset parameter value range; in a case where a number of times of reading the NFC card by the card reader is greater than a first set threshold, determining a first operating parameter with a number of times of adjustment less than a second set threshold in all of the operating parameters of the NFC module ; and setting the first operating parameter as the static parameter. in a case where a preset NFC module is configured as an NFC card, (S101) acquiring current position information of the mobile terminal, and setting a static parameter in all of operating parameters of the NFC module as a first preset value corresponding to the current position information in turn; and characterized by in a case where the NFC card is read by a card reader within a geographic range corresponding to the current position information, (S102) setting dynamic parameters in all of the operating parameters of the NFC module as a plurality of second preset values corresponding to the current position information in turn, wherein the plurality of second preset values is ordered according to a preset sequence; wherein a determination manner of the static parameter comprises: in a case where the NFC card is read by the card reader, adjusting each of the operating parameters of the NFC module within a preset parameter value range; in a case where a number of times of reading the NFC card by the card reader is greater than a first set threshold, determining a first operating parameter with a number of times of adjustment less than a second set threshold in all of the operating parameters of the NFC module ; and setting the first operating parameter as the static parameter. in a case where the NFC card is read by the card reader, adjusting each of the operating parameters of the NFC module within a preset parameter value range; in a case where a number of times of reading the NFC card by the card reader is greater than a first set threshold, determining a first operating parameter with a number of times of adjustment less than a second set threshold in all of the operating parameters of the NFC module ; and setting the first operating parameter as the static parameter.
Method for operating a control device for autonomous guidance of a motor vehicle , wherein a nominal speed is specified as a driving speed of the motor vehicle to be set by the control device and another vehicle , driving in front of the motor vehicle at a driving speed that is slower than the nominal speed , is detected by the control device by means of a detection device , wherein a difference in speed between a driving speed of the other vehicle and the nominal speed is greater than zero but less than a predetermined maximum value (G0), characterized in that in this case an accumulator value (A) is set to a starting value and a current speed value (G) of the difference in speed is respectively detected in a number of successively performed test runs and on the basis of the speed value (G) an advantage value (V) is formed and the advantage value (V) is added to the accumulator value (A) and, if the accumulator value (A) satisfies a predetermined overtaking criterion , an overtaking signal enabling an overtaking manoeuvre is generated, wherein - the overtaking criterion specifies that the accumulator value (A) is greater than a predetermined threshold value (A0) and/or that a rate of increase of the accumulator value (A) is greater than a predetermined minimum rate, - in a test run , the accumulator value (A) is reset to the starting value if it is detected that there is no overtaking lane (L) for the overtaking manoeuvre . - the overtaking criterion specifies that the accumulator value (A) is greater than a predetermined threshold value (A0) and/or that a rate of increase of the accumulator value (A) is greater than a predetermined minimum rate, - in a test run , the accumulator value (A) is reset to the starting value if it is detected that there is no overtaking lane (L) for the overtaking manoeuvre .