mhurhangee/ep-ind-claims huggingface dataset:
A multi-band radio frequency front-end device adapted for millimeter wave communication, comprising: a first radio frequency front-end circuit, wherein the first radio frequency front-end circuit works on a first band; a second radio frequency front-end circuit, wherein the second radio frequency front-end circuit works on a second band, and a frequency of the first band is higher than a frequency of the second band; a first matching network, coupled to the first radio frequency front-end circuit; and a second matching network, coupled to the second radio frequency front-end circuit, wherein the first matching network comprises a first output matching network, coupled to an output end of the first radio frequency front-end circuit; the second matching network comprises a second output matching network, coupled to an output end of the second radio frequency front-end circuit; and a parameter of the first output matching network is set based on the first band, and a parameter of the second output matching network is set based on the second band, characterized in that the first output matching network and the second output matching network each comprise a transformer and the first output matching network comprises a first primary coil and a first secondary coil, the second output matching network comprises a second primary coil and a second secondary coil, the first primary coil is embedded in the second primary coil, and the first secondary coil is embedded in the second secondary coil. a first radio frequency front-end circuit, wherein the first radio frequency front-end circuit works on a first band; a second radio frequency front-end circuit, wherein the second radio frequency front-end circuit works on a second band, and a frequency of the first band is higher than a frequency of the second band; a first matching network, coupled to the first radio frequency front-end circuit; and a second matching network, coupled to the second radio frequency front-end circuit, wherein the first matching network comprises a first output matching network, coupled to an output end of the first radio frequency front-end circuit; the second matching network comprises a second output matching network, coupled to an output end of the second radio frequency front-end circuit; and a parameter of the first output matching network is set based on the first band, and a parameter of the second output matching network is set based on the second band, characterized in that the first output matching network and the second output matching network each comprise a transformer and the first output matching network comprises a first primary coil and a first secondary coil, the second output matching network comprises a second primary coil and a second secondary coil, the first primary coil is embedded in the second primary coil, and the first secondary coil is embedded in the second secondary coil.
Method for correcting the trajectory of a motor vehicle travelling in a traffic lane, designed to keep the vehicle in the lane, said method comprising a step of measuring the lateral distance between the vehicle (Y L) and a marking on the traffic lane and a step of measuring the relative bearing angle (Ψ L) corresponding to the angle between the longitudinal axis of the vehicle and a line of the traffic lane, using at least one camera fitted to the vehicle, and a step of calculating at least one correction gain as a function of at least the measured lateral distance (Y L) and the measured relative bearing angle (Ψ L), and from which a command setpoint (u) to be applied to an actuator acting on the steering angle (δ f) of the steering front wheels of the vehicle is generated, the method being characterized in that the step of calculating the correction gain comprises a step of multicriteria optimization by searching for the minimum for each of the following criteria: lateral displacement in the traffic lane, a steering angle at the wheels of the vehicle and the lateral velocity of the vehicle, during the trajectory correction.
A method of forming a gum roll (100, 321, 322, 323, 324, 325, 335, 336, 337, 338, 340, 352, 510, 521, 522, 523, 524, 525), the method comprising: providing a strip stock (120, 140) having a first end, a first surface, and a second surface opposite to the first surface; coupling the first end to a core fixture (218, 502, 702) so the first surface interfaces with the core fixture (218, 502, 702); rotating the core fixture (218, 502, 702) to wind the strip stock (120, 140) onto the core fixture (218, 502, 702) such that the first surface interfaces with the second surface to form a gum roll (100, 321, 322, 323, 324, 325, 335, 336, 337, 338, 340, 352, 510, 521, 522, 523, 524, 525); and removing the core fixture (218, 502, 702) from the gum roll (100, 321, 322, 323, 324, 325, 335, 336, 337, 338, 340, 352, 510, 521, 522, 523, 524, 525). providing a strip stock (120, 140) having a first end, a first surface, and a second surface opposite to the first surface; coupling the first end to a core fixture (218, 502, 702) so the first surface interfaces with the core fixture (218, 502, 702); rotating the core fixture (218, 502, 702) to wind the strip stock (120, 140) onto the core fixture (218, 502, 702) such that the first surface interfaces with the second surface to form a gum roll (100, 321, 322, 323, 324, 325, 335, 336, 337, 338, 340, 352, 510, 521, 522, 523, 524, 525); and removing the core fixture (218, 502, 702) from the gum roll (100, 321, 322, 323, 324, 325, 335, 336, 337, 338, 340, 352, 510, 521, 522, 523, 524, 525).
A nozzle device for sorting objects using a gaseous or liquid media, said nozzle device comprising: a nozzle unit (302, 402) comprising at least one nozzle (320, 420); a nozzle bar connectable to a gas or liquid supply means for providing a gaseous media to said nozzle unit (302, 402); and a nozzle fixation bracket adapted for holding said nozzle unit (302, 402) in place; said at least one nozzle (320, 402) comprising: an inlet (330, 430) for receiving the gaseous media; and having one outlet (323, 423), having an outlet area, for ejecting the gaseous media towards an object to be sorted; a channel (331, 431) extending between said inlet (330, 430) and said outlet (323, 423); an outlet portion (332, 432) surrounding at least said outlet (323, 423), characterized in that said outlet portion (332, 432) comprises a flexible material, which deflects upon ejection of the gaseous media, received from said nozzle bar, through said outlet (332, 432) whereby said outlet area increases, and wherein said nozzle unit (302, 402) is formed in one piece, which comprises at least two nozzles (320, 420) interconnected by a strip. a nozzle unit (302, 402) comprising at least one nozzle (320, 420); a nozzle bar connectable to a gas or liquid supply means for providing a gaseous media to said nozzle unit (302, 402); and a nozzle fixation bracket adapted for holding said nozzle unit (302, 402) in place; said at least one nozzle (320, 402) comprising: an inlet (330, 430) for receiving the gaseous media; and having one outlet (323, 423), having an outlet area, for ejecting the gaseous media towards an object to be sorted; a channel (331, 431) extending between said inlet (330, 430) and said outlet (323, 423); an outlet portion (332, 432) surrounding at least said outlet (323, 423), characterized in that said outlet portion (332, 432) comprises a flexible material, which deflects upon ejection of the gaseous media, received from said nozzle bar, through said outlet (332, 432) whereby said outlet area increases, and wherein said nozzle unit (302, 402) is formed in one piece, which comprises at least two nozzles (320, 420) interconnected by a strip. an inlet (330, 430) for receiving the gaseous media; and having one outlet (323, 423), having an outlet area, for ejecting the gaseous media towards an object to be sorted; a channel (331, 431) extending between said inlet (330, 430) and said outlet (323, 423); an outlet portion (332, 432) surrounding at least said outlet (323, 423), characterized in that said outlet portion (332, 432) comprises a flexible material, which deflects upon ejection of the gaseous media, received from said nozzle bar, through said outlet (332, 432) whereby said outlet area increases, and wherein said nozzle unit (302, 402) is formed in one piece, which comprises at least two nozzles (320, 420) interconnected by a strip.
Method for the interactive acquisition of data from an object under investigation by means of a magnetic resonance system, wherein the method comprises the following steps: acquiring the data from the object under investigation using the magnetic resonance system, automatically reconstructing and displaying images on the basis of the data in real time, characterised in that the method furthermore comprises the following steps: determining a time interval, during which a predetermined condition in the images is met, automatically reconstructing quality MR images on the basis of the data which was acquired within the time interval, wherein the temporal resolution during reconstruction of the quality MR images is higher than the temporal resolution during reconstruction of the MR images. acquiring the data from the object under investigation using the magnetic resonance system, automatically reconstructing and displaying images on the basis of the data in real time, characterised in that the method furthermore comprises the following steps: determining a time interval, during which a predetermined condition in the images is met, automatically reconstructing quality MR images on the basis of the data which was acquired within the time interval, wherein the temporal resolution during reconstruction of the quality MR images is higher than the temporal resolution during reconstruction of the MR images. determining a time interval, during which a predetermined condition in the images is met, automatically reconstructing quality MR images on the basis of the data which was acquired within the time interval, wherein the temporal resolution during reconstruction of the quality MR images is higher than the temporal resolution during reconstruction of the MR images.
A flowmeter, comprising: one or more conduits (103, 103'); a driver coupled to a conduit of the one or more conduits (103, 103') and configured to vibrate at least a portion of the conduit at one or more drive frequencies; one or more pickoffs (105, 105') coupled to a conduit of the one or more conduits (103, 103') and configured to detect a motion of the conduit; a housing having a first compartment and a second compartment, characterized in that the first compartment is configured to be fluid-tight and encloses at least a portion of the one or more conduits (103, 103'), the driver, and the one or more pickoffs (105, 105'); and in that the flowmeter further comprises a sealable fill port configured to allow the addition of a ballast material to the second compartment. one or more conduits (103, 103'); a driver coupled to a conduit of the one or more conduits (103, 103') and configured to vibrate at least a portion of the conduit at one or more drive frequencies; one or more pickoffs (105, 105') coupled to a conduit of the one or more conduits (103, 103') and configured to detect a motion of the conduit; a housing having a first compartment and a second compartment, characterized in that the first compartment is configured to be fluid-tight and encloses at least a portion of the one or more conduits (103, 103'), the driver, and the one or more pickoffs (105, 105'); and in that the flowmeter further comprises a sealable fill port configured to allow the addition of a ballast material to the second compartment.
A method for generating feed signals intended to a sound reproduction system (1'; 1"; 1"') comprising two sets of loudspeakers (E1', E2'; E1", E2"; EA1 "', EA2"', EB1"', EB2"') located on either side of a separation plane (D'; D"; D"'), said feed signals being generated in view of sound reproduction of a multichannel sound signal (S'; S"; S"') to two spatial listening positions (P1', P2'; P1", P2"; P1"', P2"'), each spatial listening position being associated to one of the sets of loudspeakers and being located on a plane (L1', L2'; L1", L2"; L1"', L2"') parallel to the separation plane such that at least one loudspeaker of this set is positioned on either side of this parallel plane, the generation method comprising, for each set of loudspeakers, a generation step (F20-F30, F50-F60) from an input signal derived from the multichannel sound signal for this set, of feed signals intended to feed the loudspeakers of this set, this generation step comprising application (F20, F50) of a transaural reproduction technique to said input signal, this technique creating a virtual sound source (V1', V2'; V1", V2"; VA1"', VA2"', VB1"', VB2"') for the listening position associated to the set on a first straight line, (d11', d22'; d11", d22"; d11"', d22", d22'", d11"') obtained by symmetry, relative to the parallel plane (P1', P2'; P1", P2"; P1"' P2"') on which the spatial listening position associated to this set is located, of a second straight line, (d12', d21'; d12", d21"; d12"', d21"', d21"', d12"') connecting the spatial listening position to the loudspeaker farthest away from this position belonging to the other set of loudspeakers of the reproduction system.
A method of labeling a DNA at a target sequence, comprising: contacting a DNA comprising a first target sequence with: a first dCas protein; and a first labeled guide RNA (gRNA) comprising a first crRNA and a first tracrRNA comprising a first label, wherein the first crRNA is complementary to the first target sequence or a portion thereof, incubating the DNA, the first dCas protein, and the first labeled gRNA, whereby the first dCas protein, the DNA, and the first labeled gRNA form a complex wherein the first crRNA is hybridized to the first target sequence or the portion thereof, thereby labeling the DNA at the first target sequence to form a labeled DNA; and labeling the DNA at another target sequence by nick labeling or direct enzyme labeling. a first dCas protein; and a first labeled guide RNA (gRNA) comprising a first crRNA and a first tracrRNA comprising a first label, wherein the first crRNA is complementary to the first target sequence or a portion thereof, incubating the DNA, the first dCas protein, and the first labeled gRNA, whereby the first dCas protein, the DNA, and the first labeled gRNA form a complex wherein the first crRNA is hybridized to the first target sequence or the portion thereof, thereby labeling the DNA at the first target sequence to form a labeled DNA; and labeling the DNA at another target sequence by nick labeling or direct enzyme labeling.
A computer implemented method, comprising: determining projection domain noise of projection data generated from a tomographic scan; determining a low contrast detectability from an acquisition of the tomographic scan based on the projection domain noise and a mapping between the low contrast detectability and the project domain noise; reconstructing image data by reconstructing the projection data using a de-noising reconstruction algorithm; processing the image data for finding a clinical indication; indicating, to a clinical decision support system, a finding of the clinical indication based on the processing; generating an image quality index for the scan based on a combination of the determined low contrast detectability and the projection domain noise; and generating indicia indicating a confidence of the finding based on the image quality index. determining projection domain noise of projection data generated from a tomographic scan; determining a low contrast detectability from an acquisition of the tomographic scan based on the projection domain noise and a mapping between the low contrast detectability and the project domain noise; reconstructing image data by reconstructing the projection data using a de-noising reconstruction algorithm; processing the image data for finding a clinical indication; indicating, to a clinical decision support system, a finding of the clinical indication based on the processing; generating an image quality index for the scan based on a combination of the determined low contrast detectability and the projection domain noise; and generating indicia indicating a confidence of the finding based on the image quality index.
A combination comprising (a) SP600125 and (b) 4-(4-methylpiperazin-1-ylmethyl) -N-[4-methyl-3-(4-pyridin-3-yl)pyrimidin-2-ylamino)phenyl]-benzamide or 4-methyl-3-[[4-(3-pyridinyl)-2-pyrimidinyl]amino]- N -[5-(4-methyl-1H-imidazol-1-yl)-3-(trifluoromethyl)phenyl] benzamide, or, respectively, a pharmaceutically acceptable salt thereof, for use in the treatment of malignant peripheral nerve sheath tumors (MPNST).
Dispenser device for coils (2, 3) of sheet material namely for supplying a packaging unit located on the rear side with respect to said device, the latter including a supporting structure in the form of two brackets (7, 8) and provided with at least means for receiving and maintaining in rotation at least a first coil in a first working position and means for receiving at least a second coil in a standby position, said device also including butt-jointing means formed of a clamp comprising a first jaw and a second jaw, said jaws (32, 33) extending parallel to the coil unwinding axes (2, 3) and transversely to a sheet of the first coil, the first jaw being located on the sheet-conveying path towards a machine located downstream and the second jaw being movable and capable of occupying, thanks to adapted driving means, a position applied against the first jaw and a standby position, in which the sheet of the second coil located in the standby position on the dispenser device can be brought against and maintained on the second jaw, wherein said dispenser device also includes: - at least means for receiving and maintaining in rotation said first coil in at least a second working position; - means for translating said first coil from said first working position into said second working position; - means for evacuating said first coil from said second working position onto said supporting structure; - means for transferring said second coil from said standby position into said first working position, said transfer means being formed of guiding lanes (17, 18) provided for between the brackets (7, 8), each one of said guiding lanes (17, 18) being extended by a horizontal portion, the latter permitting the insertion of a mandrel on which a coil (2, 3) is mounted, said device also including articulated loading ramps capable of passing from an unfolded position, in which it extends the horizontal portions, to a folded position, in which said ramps withdraw between the brackets (7, 8). - at least means for receiving and maintaining in rotation said first coil in at least a second working position; - means for translating said first coil from said first working position into said second working position; - means for evacuating said first coil from said second working position onto said supporting structure; - means for transferring said second coil from said standby position into said first working position, said transfer means being formed of guiding lanes (17, 18) provided for between the brackets (7, 8), each one of said guiding lanes (17, 18) being extended by a horizontal portion, the latter permitting the insertion of a mandrel on which a coil (2, 3) is mounted, said device also including articulated loading ramps capable of passing from an unfolded position, in which it extends the horizontal portions, to a folded position, in which said ramps withdraw between the brackets (7, 8).
Use of a solid substrate for collection, stabilization and elution of a biomolecule from a sample, wherein the solid substrate comprises melezitose under a dry state, wherein the solid substrate is a porous cellulose paper, wherein the concentration of melezitose is 15% and wherein the melezitose is impregnated in the solid substrate. wherein the solid substrate is a porous cellulose paper, wherein the concentration of melezitose is 15% and wherein the melezitose is impregnated in the solid substrate.
A method for omni-orientational wireless energy transfer between a transmitter unit and a receiver unit, the method comprising: providing a first electromagnetic resonator including a transmitter coil coupled to a power supply to transmit power through a magnetic flux; and placing a second non-planar electromagnetic resonator at an operating distance from the first electromagnetic resonator and on an opposite side of a skin of a patient from the first electromagnetic resonator, the second non-planar electromagnetic resonator including a receiver coil coupled to an electrical load, wherein the receiver coil forms an outline of a non-degenerate two-dimensional surface having at least one concave portion extending concave outward towards the skin of the patient, and wherein the concave portion is configured to transfer the magnetic flux between the electromagnetic resonators at the operating distance regardless of the orientation between the first and second electromagnetic resonators. providing a first electromagnetic resonator including a transmitter coil coupled to a power supply to transmit power through a magnetic flux; and placing a second non-planar electromagnetic resonator at an operating distance from the first electromagnetic resonator and on an opposite side of a skin of a patient from the first electromagnetic resonator, the second non-planar electromagnetic resonator including a receiver coil coupled to an electrical load, wherein the receiver coil forms an outline of a non-degenerate two-dimensional surface having at least one concave portion extending concave outward towards the skin of the patient, and wherein the concave portion is configured to transfer the magnetic flux between the electromagnetic resonators at the operating distance regardless of the orientation between the first and second electromagnetic resonators.