mhurhangee/ep-ind-claims huggingface dataset:
A magnetic resonance imaging system comprising: a first main MRI magnet disposed within a first MRI magnet housing; a second main MRI magnet disposed within a second MRI magnet housing and separated from the first MRI magnet housing by a gap; a gantry positioned in the gap and supporting a radiation therapy device for delivery of radiotherapy beams; a plurality of buttress assemblies connecting the first MRI magnet housing and the second MRI magnet housing, wherein at least one of the plurality of buttress assemblies is removably attached to at least one of the first and second MRI magnet housings, wherein the plurality of buttress assemblies extend around the outside of the radiotherapy device clearing the radiation therapy device so that there is no obstruction of the radiotherapy beams delivered by the radiation therapy device, wherein the plurality of buttress assemblies include a first buttress subassembly (106a, c, or e) and a second buttress subassembly (106b, d, or f), the first buttress sub-assembly (106a, c, or e) extending radially from the outer surface of the first MRI magnet housing, and the second buttress sub-assembly (106b, d, or f) extending radially from the outer surface of the second MRI magnet housing, and wherein the plurality of buttress assemblies are configured to allow for the disassembly of the MRI system. a first main MRI magnet disposed within a first MRI magnet housing; a second main MRI magnet disposed within a second MRI magnet housing and separated from the first MRI magnet housing by a gap; a gantry positioned in the gap and supporting a radiation therapy device for delivery of radiotherapy beams; a plurality of buttress assemblies connecting the first MRI magnet housing and the second MRI magnet housing, wherein at least one of the plurality of buttress assemblies is removably attached to at least one of the first and second MRI magnet housings, wherein the plurality of buttress assemblies extend around the outside of the radiotherapy device clearing the radiation therapy device so that there is no obstruction of the radiotherapy beams delivered by the radiation therapy device, wherein the plurality of buttress assemblies include a first buttress subassembly (106a, c, or e) and a second buttress subassembly (106b, d, or f), the first buttress sub-assembly (106a, c, or e) extending radially from the outer surface of the first MRI magnet housing, and the second buttress sub-assembly (106b, d, or f) extending radially from the outer surface of the second MRI magnet housing, and wherein the plurality of buttress assemblies are configured to allow for the disassembly of the MRI system.
A ceramic heater comprising: a heating resistor that includes opposing portions (10b, 10c); a pair of lead members (11,12) connected to ends of the heating resistor; a ceramic base in which the heating resistor and the lead members (11, 12) are embedded, wherein a high heat conductivity member that has a heat conductivity higher than that of the ceramic base is disposed between the opposing portions (10b, 10c) being in the ceramic base, wherein the high heat conductivity member is in contact with at least one of the opposing portions (10b, 10c), wherein the high heat conductivity member includes, as a main component, the same material as that of the opposing portions (10b, 10c), characterized in that the high heat conductivity member is disposed to extend along a longitudinal direction of the opposing portions (10b, 10c), wherein the thickness of the high heat conductivity member is varying along the longitudinal direction of the opposing portions (10b, 10c). a heating resistor that includes opposing portions (10b, 10c); a pair of lead members (11,12) connected to ends of the heating resistor; a ceramic base in which the heating resistor and the lead members (11, 12) are embedded, wherein a high heat conductivity member that has a heat conductivity higher than that of the ceramic base is disposed between the opposing portions (10b, 10c) being in the ceramic base, wherein the high heat conductivity member is in contact with at least one of the opposing portions (10b, 10c), wherein the high heat conductivity member includes, as a main component, the same material as that of the opposing portions (10b, 10c),
Apparatus for forming filter rods for aerosol-generating articles, wherein the apparatus comprises: a first and a second source (1, 2), the first source being provided to supply filter material in the form of a first tow, and the second source being provided to supply filter material in the form of a second tow, a single driven delivery roller for advancing the first tow and the second tow, and wherein the apparatus is characterised in that the apparatus comprises an extrusion tool for processing the first tow and the second tow, wherein the delivery roller is arranged such that the first and second tows (3, 4) are advanced from the first and second source (1, 2) towards the extrusion tool by the delivery roller only, and wherein the extrusion tool is configured to process several sources of filter material simultaneously to create one filter rod. a first and a second source (1, 2), the first source being provided to supply filter material in the form of a first tow, and the second source being provided to supply filter material in the form of a second tow, a single driven delivery roller for advancing the first tow and the second tow, and wherein the apparatus is characterised in that the apparatus comprises an extrusion tool for processing the first tow and the second tow, wherein the delivery roller is arranged such that the first and second tows (3, 4) are advanced from the first and second source (1, 2) towards the extrusion tool by the delivery roller only, and wherein the extrusion tool is configured to process several sources of filter material simultaneously to create one filter rod.
A binary ink developer, BID, comprising: a power supply electrically coupled to an electrode (307-1, 307-2), a developer roller, a squeegee roller, and a cleaner roller; and a controller to: determine a level of image ghosting based on a sum of currents at the electrode, the developer roller, the squeegee roller, and the cleaner roller. a power supply electrically coupled to an electrode (307-1, 307-2), a developer roller, a squeegee roller, and a cleaner roller; and a controller to: determine a level of image ghosting based on a sum of currents at the electrode, the developer roller, the squeegee roller, and the cleaner roller.
A method for introducing an exogenous sequence into the genome of a plant cell, the method comprising the steps of: (a) contacting the cell with a donor DNA vector comprising first, second, and fifth DNA sequences, and the fifth sequence comprises the exogenous sequence of the DNA vector to be introduced and is interposed between the first and second sequences of the donor DNA vector; wherein the first sequence has at least 90% to 95% homology to a third sequence in the genome of the plant cell, the second sequence has at least 90% to 95% homology to a fourth sequence in the genome of the plant cell, wherein the third and fourth sequence in the genome of the plant cell are chromosomal DNA sequences and the near edges of the third and fourth sequence are separated by at least one nucleotide pair; and (b) expressing one or more nucleases in the cell, wherein the one or more nucleases are each a pair of fusion proteins, wherein each fusion protein is a fusion between the cleavage domain of a Fok I restriction endonuclease and an engineered zinc finger binding domain, and wherein the one or more nucleases cleave chromosomal DNA at one or more corresponding target sequences between the third and fourth sequences, wherein the one or more nucleases cleave chromosomal DNA at a location from 0.4 to 3 kilobase pairs of either of the third or fourth sequences in the genome of the plant cell; such that cleavage of chromosomal DNA in step (b) stimulates incorporation of the fifth DNA sequence into the genome by homologous recombination. (a) contacting the cell with a donor DNA vector comprising first, second, and fifth DNA sequences, and the fifth sequence comprises the exogenous sequence of the DNA vector to be introduced and is interposed between the first and second sequences of the donor DNA vector; (b) expressing one or more nucleases in the cell, wherein the one or more nucleases are each a pair of fusion proteins, wherein each fusion protein is a fusion between the cleavage domain of a Fok I restriction endonuclease and an engineered zinc finger binding domain, and wherein the one or more nucleases cleave chromosomal DNA at one or more corresponding target sequences between the third and fourth sequences, wherein the one or more nucleases cleave chromosomal DNA at a location from 0.4 to 3 kilobase pairs of either of the third or fourth sequences in the genome of the plant cell;
An integrated circuit comprising a semiconductor substrate carrying a plurality of circuit elements; and a CO 2 -sensor over said semiconductor substrate, said sensor comprising: a pair of electrodes (122, 124) laterally separated from each other; and a CO 2 -permeable polymer matrix at least partially covering the pair of electrodes, characterised by said matrix encapsulating a liquid comprising: an organic alcohol; an amidine or guanidine base; and a trace or catalytic amount of water; wherein the polymer matrix comprises a gel forming polymer. a pair of electrodes (122, 124) laterally separated from each other; and a CO 2 -permeable polymer matrix at least partially covering the pair of electrodes, characterised by said matrix encapsulating a liquid comprising: an organic alcohol; an amidine or guanidine base; and a trace or catalytic amount of water; wherein the polymer matrix comprises a gel forming polymer. an organic alcohol; an amidine or guanidine base; and a trace or catalytic amount of water; wherein the polymer matrix comprises a gel forming polymer.
An impact absorption panel (10, 100) having a top surface and a bottom surface, the top surface including a plurality of drainage channels that are in fluid communication with a plurality of drain holes, the plurality of drain holes connecting the top surface drainage channels with a plurality of bottom surface channels, the bottom surface channels being defined by sides of a plurality of adjacent projections (28, 128) disposed across the bottom surface wherein the adjacent projections (28, 128) each have a first spring rate characteristic and a second spring rate characteristic wherein the first spring rate characteristic provides for more deflection under load than the second spring rate characteristic.
A transformer comprising: a clamped winding assembly including: first and second end blocks disposed in spaced, opposing relationship; at least one winding disposed between said first and second end blocks; a plurality of insulation assemblies disposed between said first and second end blocks; a clamping assembly for urging said first and second end blocks toward one another so that said end blocks apply a compressive force to said at least one winding and said plurality of insulation assemblies; and a load sensing member including a housing and a fiber optic sensor disposed within said housing, said load sensing member embedded in one of said plurality of insulation assemblies so as to be subjected to said compressive force, wherein said load sensing member provides an output signal during operation of the transformer, said output signal containing information regarding the magnitude of said compressive force. first and second end blocks disposed in spaced, opposing relationship; at least one winding disposed between said first and second end blocks; a plurality of insulation assemblies disposed between said first and second end blocks; a clamping assembly for urging said first and second end blocks toward one another so that said end blocks apply a compressive force to said at least one winding and said plurality of insulation assemblies; and a load sensing member including a housing and a fiber optic sensor disposed within said housing, said load sensing member embedded in one of said plurality of insulation assemblies so as to be subjected to said compressive force, wherein said load sensing member provides an output signal during operation of the transformer, said output signal containing information regarding the magnitude of said compressive force.
An electrosurgical device, comprising: (a) a body; (b) an end effector comprising: (i) a first jaw, wherein the first jaw includes a first electrode, and (ii) a second jaw, wherein the second jaw includes a second electrode, wherein the first jaw is movable toward the second jaw to clamp tissue between the first and second jaws, wherein the first and second electrodes are operable to deliver RF energy to tissue clamped between the first and second jaws; (c) a shaft extending between the body and the end effector, wherein the shaft defines a longitudinal axis, wherein the shaft includes an articulation section, wherein the articulation section is operable to selectively position the end effector at non-parallel positions relative to the longitudinal axis of the shaft, and and characterised by a flexible cutting member having a sharp distal blade operable to cut tissue clamped between the first jaw and the second jaw, and in that the articulation section comprises a flexible molded piece of plastic having a longitudinal recess, wherein a portion of the cutting member is disposed in the longitudinal recess for longitudinal movement therein. (a) a body; (b) an end effector comprising: (i) a first jaw, wherein the first jaw includes a first electrode, and (ii) a second jaw, wherein the second jaw includes a second electrode, wherein the first jaw is movable toward the second jaw to clamp tissue between the first and second jaws, wherein the first and second electrodes are operable to deliver RF energy to tissue clamped between the first and second jaws; (i) a first jaw, wherein the first jaw includes a first electrode, and (ii) a second jaw, wherein the second jaw includes a second electrode, (c) a shaft extending between the body and the end effector, wherein the shaft defines a longitudinal axis, wherein the shaft includes an articulation section, wherein the articulation section is operable to selectively position the end effector at non-parallel positions relative to the longitudinal axis of the shaft, and and characterised by a flexible cutting member having a sharp distal blade operable to cut tissue clamped between the first jaw and the second jaw, and in that the articulation section comprises a flexible molded piece of plastic having a longitudinal recess, wherein a portion of the cutting member is disposed in the longitudinal recess for longitudinal movement therein.
A braking control device for automatically controlling a main braking device normally used to brake a host vehicle during travel and a second braking device used to maintain the host vehicle in a stopped state, characterized by a slip degree prediction unit that predicts a possibility that the host vehicle will slip, and a braking device switching unit that switches from the main braking device to the second braking device when the host vehicle is placed in a stop holding state by the main braking device, wherein the braking device switching unit delays a timing with which to start a reduction in a braking force of the main braking device if the slip degree prediction unit predicts a slip when switching the main braking device to the second braking device.
Glazing panel comprising at least two parallel outer glazing panes (5,6) spaced apart from one another by means of a spacer frame structure, one glazing pane surface (25,26) of each outer glazing pane being a bonded glazing pane surface (25,26) which is bonded to a lateral side of the spacer frame structure, wherein said glazing panel is a self-supporting glazing panel having sufficient structural strength for bearing at least the weight of the glazing panes (5,6,8) of the glazing panel as well as for supporting a wind load of 1600 Pa applied in a direction (AA') perpendicular to a surface (25,26) of one of the outer glazing panes (5,6), without the need of an outer supporting sash frame for supporting the glazing panel, whereby an inward side of spacer frames of the spacer structure adjacent to a corresponding cavity in the glazing panel is covered by a vapor-tight foil or by a vapor barrier or gas-barrier means which extends between panes (5,6) adjacent to the concerned spacer frame for forming a hermetic layer, respectively a vapor-barrier or gas-barrier forming layer at said inward side between those panes (5,6), characterized in that said lateral sides of the spacer frame structure are provided with a protrusion which supports the corresponding bonded glazing pane surface (25,26), a slot being left adjacent to the protrusion between the concerned lateral side of the spacer frame structure and the concerned bonded glazing pane surface (25,26), the slot being at least partly filled with an adhesive material, in that the vapor-tight foil or vapor barrier or gas-barrier means is extending between each outer glazing pane (5,6) and the corresponding protrusion at each of the lateral sides of the spacer frame structure; and in that the protrusions are laterally outwards directed pivoting surfaces around which the outer glazing panes (5,6) can rotate during small deformations of the glazing panel.
System for holding open a leaf of a door, window or the like, comprising a drive with at least one mechanical energy store, which is charged up by an opening movement of the leaf and is discharged with a closing movement of the leaf, and comprising a hold-open device operating on the quiescent current principle with a control device, characterized in that the hold-open device has a permanent magnet unit for holding open the leaf and at least one electric coil, which can be controlled via the control device such that the magnetic field is compensated and therefore the hold-open device is released and the leaf freed, wherein the system further has a blocking device for blocking, which means preventing the leaf that can be held open by the hold-open device from being held open, having a control device and a blocking unit that can in particular be actuated by an electric motor and/or electromagnetically and can be controlled via the control device, wherein the control device is designed with single redundancy or multiple redundancy, the blocking unit can be controlled via a corresponding number of redundancy branches (16, 18) of the blocking device, and the functionality of each of the various redundancy branches (16, 18) can be monitored via the control device. characterized in that the hold-open device has a permanent magnet unit for holding open the leaf and at least one electric coil, which can be controlled via the control device such that the magnetic field is compensated and therefore the hold-open device is released and the leaf freed, wherein the system further has a blocking device for blocking, which means preventing the leaf that can be held open by the hold-open device from being held open, having a control device and a blocking unit that can in particular be actuated by an electric motor and/or electromagnetically and can be controlled via the control device, wherein the control device is designed with single redundancy or multiple redundancy, the blocking unit can be controlled via a corresponding number of redundancy branches (16, 18) of the blocking device, and the functionality of each of the various redundancy branches (16, 18) can be monitored via the control device.
A method for machining a surface of a region to be machined using an autonomous mobile robot; the method comprises: machining the surface along track segments of a robot track according to a first machining pattern; dividing the region to be machined depending on a current position of the robot into a first area which should already be machined according to the machining pattern, a second area which is yet to be machined, and a third area which is currently being machined; continuously checking whether the first area has in fact been completely machined; and, as soon as an omitted area has been detected, deciding whether the omitted area should be machined. machining the surface along track segments of a robot track according to a first machining pattern; dividing the region to be machined depending on a current position of the robot into a first area which should already be machined according to the machining pattern, a second area which is yet to be machined, and a third area which is currently being machined; continuously checking whether the first area has in fact been completely machined; and, as soon as an omitted area has been detected, deciding whether the omitted area should be machined.
A hearing aid comprising - a receiver adapted to generate an audible output signal, - signal processor circuitry being operatively connected to the receiver, the signal processor circuitry comprising audio amplifying means adapted to generate a switched output voltage for driving the receiver of the hearing aid, and - a power supply unit adapted to generate a DC output voltage from the switched output voltage generated by the audio amplifying means. - a receiver adapted to generate an audible output signal, - signal processor circuitry being operatively connected to the receiver, the signal processor circuitry comprising audio amplifying means adapted to generate a switched output voltage for driving the receiver of the hearing aid, and - a power supply unit adapted to generate a DC output voltage from the switched output voltage generated by the audio amplifying means.
An isolated crystalline form of 2-methyl-1-[(4-[6-(trifluoromethyl)pyridin-2-yl]-6-{[2-(trifluoromethyl)pyridin-4-yl]amino}-1,3,5-triazin-2-yl)amino]propan-2-ol methanesulfonate, wherein the isolated crystalline form is Form 3, characterized by an X-ray powder diffraction pattern having peaks at 2θ angles of 7.5, 9.3, 14.5, 18.8, 21.3, and 24.8° ± 0.2°.