mhurhangee/ep-ind-claims huggingface dataset:
Pipe connection element (1, 48) comprising - at least one spigot (2, 3, 4, 49) insertable into a pipe socket (13, 13', 17), -- the spigot (2, 3, 4, 49) having a free end, - a first sealing ring housing formed on the outer circumference of the spigot (2, 3, 4, 49), the first sealing ring housing -- being arranged adjacent to the free end and -- having an outwardly open annular first sealing ring chamber for receiving a first sealing ring for lower sealing requirements, - a second sealing ring housing formed on the outer circumference of the spigot (2, 3, 4, 49), the second sealing ring housing -- being arranged on the side of the first sealing ring housing remote from the free end, and -- comprising an outwardly open annular second sealing ring chamber for receiving a second sealing ring for higher sealing requirements, and -- wherein the cross-sectional area of the first sealing ring chamber is smaller than the cross-sectional area of the second sealing ring chamber, - wherein the first sealing ring housing and the second sealing ring housing form one unit, characterized in that the first sealing ring chamber and the second sealing ring chamber are separated from each other by a common annular web. - at least one spigot (2, 3, 4, 49) insertable into a pipe socket (13, 13', 17), -- the spigot (2, 3, 4, 49) having a free end, -- the spigot (2, 3, 4, 49) having a free end, - a first sealing ring housing formed on the outer circumference of the spigot (2, 3, 4, 49), the first sealing ring housing -- being arranged adjacent to the free end and -- having an outwardly open annular first sealing ring chamber for receiving a first sealing ring for lower sealing requirements, -- being arranged adjacent to the free end and -- having an outwardly open annular first sealing ring chamber for receiving a first sealing ring for lower sealing requirements, - a second sealing ring housing formed on the outer circumference of the spigot (2, 3, 4, 49), the second sealing ring housing -- being arranged on the side of the first sealing ring housing remote from the free end, and -- comprising an outwardly open annular second sealing ring chamber for receiving a second sealing ring for higher sealing requirements, and -- wherein the cross-sectional area of the first sealing ring chamber is smaller than the cross-sectional area of the second sealing ring chamber, -- being arranged on the side of the first sealing ring housing remote from the free end, and -- comprising an outwardly open annular second sealing ring chamber for receiving a second sealing ring for higher sealing requirements, and -- wherein the cross-sectional area of the first sealing ring chamber is smaller than the cross-sectional area of the second sealing ring chamber, - wherein the first sealing ring housing and the second sealing ring housing form one unit, characterized in
A separating agent for optical isomers, comprising a helical polymer that has a structure represented by Formula, and a carrier that supports the helical polymer, wherein the helical polymer is supported by the carrier: wherein X represents a divalent aromatic group, a single bond or a methylene group; R represents hydrogen or a C1-C5 alkoxy; and n represents an integer equal to or higher than 5, and when X is a divalent aromatic group, Y represents -CONH-, -COO-, -NHCONH-, -NHCSNH-, -SO 2 NH- or -NHCOO-, and when X is a single bond or a methylene group, Y represents -COO-, -NHCONH-, -NHCSNH- or -NHCOO-.
An internal therapeutic product comprising: (i) an anti-cancer component comprising at least one cytotoxic drug; and (ii) microparticles of porous silicon having a size in the range 0.1 to 100 μm. (i) an anti-cancer component comprising at least one cytotoxic drug; and (ii) microparticles of porous silicon having a size in the range 0.1 to 100 μm.
Handle for a portable power tool, comprising a grip element and a fastening element for fastening the handle to a housing of a portable power tool, and a damping element which is arranged between the grip element and the fastening element, wherein the fastening element and the grip element are arranged with respect to one another such that they engage behind one another with an undercut (12, 15), characterized in that the grip element has a recess with at least one undercut element, and the fastening element is provided with at least one undercut element, wherein the undercut elements (26, 27) of the grip element and the undercut elements (14, 17) of the fastening element are formed in a complementary manner to one another such that the fastening element is able to be brought into the undercut by way of a plug and turn movement relative to the grip element.
Solar module temperature-control assembly (4a, 4b) having a heat-conducting element (6a-h), a fluid-conducting element (8a-h) and a heat-conducting filling and/or adhesive compound (10a-h), characterized in that the heat-conducting element (6a-h) consists of a composite material and has a receiving region, the fluid-conducting element (8a-h) is at least in certain portions in its longitudinal direction arranged on the receiving region and is connected to the heat-conducting element (6a-h) via the filling and/or adhesive compound (10a-h), wherein the filling and/or adhesive compound (10a-h) at least partially fills a radial gap between the fluid-conducting element (8a-h) and the receiving region.
Threshold connector for fastening a floor threshold profile between the vertical outer frame profiles (30, 30') of a window or a door, wherein the threshold connector can be inserted between the outer frame profile (30, 30'), in particular the inner surface thereof on the rebate side, and an end face of the floor threshold profile, comprising a threshold connector main body, the threshold connector main body having, on its side facing the outer frame profile (30, 30'), a contact surface by way of which it can be brought together with the outer frame rebate of the outer frame profile (30, 30'), characterized in that the threshold connector has a changing element which can be inserted into and removed from the threshold connector main body, wherein, when the changing element has been inserted, the threshold connector main body forms a threshold connector which by way of its contact surface can be brought together form-fittingly with the outer frame rebate of a first outer frame profile type only with a compression seal, and wherein, without the changing element, the threshold connector main body forms a threshold connector which by way of its contact surface can be brought together form-fittingly with the outer frame rebate of a second outer frame profile type with a compression seal and a central seal, wherein the threshold connector main body has, on the outer frame side, a recess for a central seal ridge and wherein the changing element is a moulding, which comprises an element which has a negative form in relation to the recess and can be used to accurately fittingly fill the recess.
A drive assembly for a gas turbine engine comprising: an epicyclic gear train, a first turbine and an accessory drive shaft, said epicyclic gear train having an input and an output, the input coupled to the first turbine, the output coupled to the accessory drive shaft, and at least one engagement feature on a component of the gear train; and an actuator engageable with the at least one engagement feature to cause the accessory drive shaft to rotate; characterized in that the actuator includes a solenoid having an extendable piston, and a ratchet located at an end of the piston, the ratchet having a contact portion for moving the at least one engagement feature in response to movement of the piston. an epicyclic gear train, a first turbine and an accessory drive shaft, said epicyclic gear train having an input and an output, the input coupled to the first turbine, the output coupled to the accessory drive shaft, and at least one engagement feature on a component of the gear train; and an actuator engageable with the at least one engagement feature to cause the accessory drive shaft to rotate; characterized in that the actuator includes a solenoid having an extendable piston, and a ratchet located at an end of the piston, the ratchet having a contact portion for moving the at least one engagement feature in response to movement of the piston.
A method for filtering in ranging of an unmanned aerial vehicle UAV, comprising: acquiring N continuous distances of the UAV based on a sonar sensor and determining an initial distance buffer queue and an initial moving velocity buffer queue of the UAV according to the N distances, wherein, N is an integer greater than 2; filtering a current distance of the UAV measured based on the sonar sensor, according to the initial distance buffer queue and the initial moving velocity buffer queue to obtain an actual distance of the UAV; wherein determining the initial distance buffer queue and the initial moving velocity buffer queue of the UAV according to the N distances comprises: obtaining N-1 moving velocities according to the N distances and calculating a difference level value of the N-1 moving velocities; determining whether each distance is valid according to the difference level value; when each distance is valid, constituting the initial distance buffer queue based on the N distances and constituting the initial moving velocity buffer queue based on the N-1 moving velocities. acquiring N continuous distances of the UAV based on a sonar sensor and determining an initial distance buffer queue and an initial moving velocity buffer queue of the UAV according to the N distances, wherein, N is an integer greater than 2; filtering a current distance of the UAV measured based on the sonar sensor, according to the initial distance buffer queue and the initial moving velocity buffer queue to obtain an actual distance of the UAV; wherein determining the initial distance buffer queue and the initial moving velocity buffer queue of the UAV according to the N distances comprises: obtaining N-1 moving velocities according to the N distances and calculating a difference level value of the N-1 moving velocities; determining whether each distance is valid according to the difference level value; when each distance is valid, constituting the initial distance buffer queue based on the N distances and constituting the initial moving velocity buffer queue based on the N-1 moving velocities. obtaining N-1 moving velocities according to the N distances and calculating a difference level value of the N-1 moving velocities; determining whether each distance is valid according to the difference level value; when each distance is valid, constituting the initial distance buffer queue based on the N distances and constituting the initial moving velocity buffer queue based on the N-1 moving velocities.
Radar sensor for a motor vehicle, having a radome, a printed circuit board and at least one antenna element, wherein the antenna element is designed to emit and/or receive a first radar signal at a first frequency and a second radar signal at a second frequency through the radome, wherein the at least one antenna element comprises a dielectric resonator, characterized in that a part of the radome forms the dielectric resonator, wherein the radome and the dielectric resonator are formed from the same material and are designed in one part, in that the at least one antenna element has a slot antenna for supplying the dielectric resonator, wherein the slot antenna is formed in the printed circuit board, and in that a supply line for electrically supplying the slot antenna is arranged on the printed circuit board.
Collection system for forming a machine room of a stationary power generator and for collecting operating materials, in particular fuel, comprising a first collection container with a volume V1, and a second collection container with a volume V2, a fuel container with a volume K, and a generator with a fuel-powered motor, and a housing with a intermediate base which defines a first upper area and a second lower area, wherein the first collection container and the fuel container being arranged in the first upper area and the second collection container and the generator with the fuel-powered motor are arranged in the second lower area, wherein a spatial separation of the fuel container and generator and the collection containers (2; 3) arranged thereon is formed by the intermediate base, wherein the first collection container is arranged under the fuel container and above the generator and forms a separation of the fuel fuel container and the generator, wherein the volume V1 is configured for receiving a quantity M of fuel leaking from the fuel container, and the second collection container being arranged under the generator, and the first collection container being in fluid communication with the second collection container, wherein the second collection container is configured for receiving fuel from the first collection container via the fluid connection, which fuel exceeds the quantity M wherein the fuel container is arranged above the motor of the generator, and wherein a fuel connection to the motor of the generator is arranged at the bottom of the fuel container and wherein the fuel container is arranged at a distance of at least 50 cm above the level of an injection pump of the generator, for ensuring the pressure required for supplying the motor of the generator with fuel. wherein the second collection container is configured for receiving fuel from the first collection container via the fluid connection, which fuel exceeds the quantity M wherein the fuel container is arranged above the motor of the generator, and wherein a fuel connection to the motor of the generator is arranged at the bottom of the fuel container and wherein the fuel container is arranged at a distance of at least 50 cm above the level of an injection pump of the generator, for ensuring the pressure required for supplying the motor of the generator with fuel.
A system including a work machine, comprising: the work machine, which has a body of the work machine and a work implement attached to the body of the work machine; and a computer, wherein the computer includes a posture data generation unit configured to estimate a posture of the work implement with respect to the body of the work machine in a captured image displaying the work machine, a motion state image generation unit configured to create a three-dimensional model representing a stereoscopic shape of the work machine based on the posture, and a specific viewpoint image generation unit configured to create image data including a two-dimensional image of the three-dimensional model as viewed at a viewpoint position indicating a position of a viewpoint at which the three-dimensional model is virtually viewed, wherein the viewpoint position is set at a position allowing the work implement to be generally viewed. the work machine, which has a body of the work machine and a work implement attached to the body of the work machine; and a computer, wherein the computer includes a posture data generation unit configured to estimate a posture of the work implement with respect to the body of the work machine in a captured image displaying the work machine, a motion state image generation unit configured to create a three-dimensional model representing a stereoscopic shape of the work machine based on the posture, and a specific viewpoint image generation unit configured to create image data including a two-dimensional image of the three-dimensional model as viewed at a viewpoint position indicating a position of a viewpoint at which the three-dimensional model is virtually viewed, wherein the viewpoint position is set at a position allowing the work implement to be generally viewed.
A frame for a replacement mitral valve wherein the frame can be expanded from a compacted state to an expanded state and comprises: a first end, a second end, a foreshortening portion and a non-foreshortening portion; and a plurality of first anchors extending radially outwardly from the non-foreshortening portion of the frame when the frame is in the expanded state; and a plurality of second anchors extending from the foreshortening portion of the frame wherein the frame is expandable to bring the second anchors closer to the first anchors to grasp native mitral annulus therebetween; characterized in that the plurality of first anchors comprising a plurality of circumferentially expansible struts that connect to one another at free apices; wherein the plurality of second anchors each extend radially outwardly from the foreshortening portion of the frame and toward the first end of the frame when the frame is in the expanded state; and wherein the frame has a D-shape cross section. a first end, a second end, a foreshortening portion and a non-foreshortening portion; and a plurality of first anchors extending radially outwardly from the non-foreshortening portion of the frame when the frame is in the expanded state; and a plurality of second anchors extending from the foreshortening portion of the frame wherein the frame is expandable to bring the second anchors closer to the first anchors to grasp native mitral annulus therebetween; characterized in that the plurality of first anchors comprising a plurality of circumferentially expansible struts that connect to one another at free apices; wherein the plurality of second anchors each extend radially outwardly from the foreshortening portion of the frame and toward the first end of the frame when the frame is in the expanded state; and wherein the frame has a D-shape cross section.
A method for guidance of a projectile, comprising: - emitting from the launching position of the projectile, a plurality of beams (UL, LL, LR, UR), each beam pointing to a vertex of a regular polygon; - emitting an additional beam from the launching position, characterised by further comprising: - determining a position of the projectile relative to the plurality of beams and the additional beam (UL, LL, LR, UR, EB), the determined position enabling the correction of a projectile trajectory with reference to the centre of the regular polygon formed by the beams (UL, LL, LR, UR), wherein the additional beam encompasses the plurality of beams (UL, LL, LR, UR) and conveys data to the projectile. - emitting from the launching position of the projectile, a plurality of beams (UL, LL, LR, UR), each beam pointing to a vertex of a regular polygon; - emitting an additional beam from the launching position, - determining a position of the projectile relative to the plurality of beams and the additional beam (UL, LL, LR, UR, EB), the determined position enabling the correction of a projectile trajectory with reference to the centre of the regular polygon formed by the beams (UL, LL, LR, UR), wherein the additional beam encompasses the plurality of beams (UL, LL, LR, UR) and conveys data to the projectile.
A liquid detergent comprising from about 5% to about 20% by weight thereof of a surfactant system wherein the surfactant system comprises an anionic and an amphoteric surfactant comprising an amine oxide surfactant wherein the anionic and amphoteric surfactants are in a weight ratio of from about 1:1 to about 8.5:1 and wherein the detergent at 20°C has a pouring viscosity of from about 2500 mPa s to about 6000 mPa s and a ratio of medium to high shear viscosity of from about 2 to about 1 as measured as specified in the description.
A process for producing tetrahydrocannabinol acetate (THC-O-acetate) from cannabis oil, which is an oil obtained from an extraction process conducted on raw cannabis plant material, the process comprising the steps: refluxing cannabis oil with acetic anhydride to form a crude product; distilling the crude product to form a partially refined product; removing impurities from the partially refined product using petroleum ether; and evaporating petroleum ether from the partially refined product characterized in that the refluxing is conducted at a temperature of 120-135 °C; the distilling is conducted at a temperature of 90-125 °C at a vacuum pressure of between 800 and 940 mbar, wherein the distilling step removes excess acetic anhydride from the crude product and leaves a precipitate of the partially refined product; after distilling the crude product and before removing impurities using petroleum ether, prior impurities are first removed from the partially refined product using a saline water solution wash with hexane, followed by evaporating the hexane from the partially refined product, wherein the precipitate of the partially refined product is dissolved in ethanol prior to the saline water solution wash with hexane and the removing of the impurities from the partially refined product using the petroleum ether is conducted using a saline water solution wash with the petroleum ether. refluxing cannabis oil with acetic anhydride to form a crude product; distilling the crude product to form a partially refined product; removing impurities from the partially refined product using petroleum ether; and evaporating petroleum ether from the partially refined product characterized in that the refluxing is conducted at a temperature of 120-135 °C; the distilling is conducted at a temperature of 90-125 °C at a vacuum pressure of between 800 and 940 mbar, wherein the distilling step removes excess acetic anhydride from the crude product and leaves a precipitate of the partially refined product; after distilling the crude product and before removing impurities using petroleum ether, prior impurities are first removed from the partially refined product using a saline water solution wash with hexane, followed by evaporating the hexane from the partially refined product, wherein the precipitate of the partially refined product is dissolved in ethanol prior to the saline water solution wash with hexane and the removing of the impurities from the partially refined product using the petroleum ether is conducted using a saline water solution wash with the petroleum ether.