mhurhangee/ep-ind-claims huggingface dataset:
An electronic device for transmitting a message to another electronic device, comprising: a communication unit; an input unit; and a controller configured to: receive, using the input unit, a handwritten input comprising one or more input objects; generate handwritten input information including input times and input coordinates for each of the one or more input objects; set playback information for the one or more input objects based on the input times; generate a handwriting region using an image of the handwritten input; generate code information including one or more codes by encoding the handwritten input information and the playback information for each of the one or more input objects; allocate the code information to predetermined bits in a predetermined encoding region separated from the handwriting region; generate an animation message including the handwriting region and the predetermined encoding region; and transmit, using the communication unit, the animation message to the another electronic device. a communication unit; an input unit; and a controller configured to: receive, using the input unit, a handwritten input comprising one or more input objects; generate handwritten input information including input times and input coordinates for each of the one or more input objects; set playback information for the one or more input objects based on the input times; generate a handwriting region using an image of the handwritten input; generate code information including one or more codes by encoding the handwritten input information and the playback information for each of the one or more input objects; allocate the code information to predetermined bits in a predetermined encoding region separated from the handwriting region; generate an animation message including the handwriting region and the predetermined encoding region; and transmit, using the communication unit, the animation message to the another electronic device. receive, using the input unit, a handwritten input comprising one or more input objects; generate handwritten input information including input times and input coordinates for each of the one or more input objects; set playback information for the one or more input objects based on the input times; generate a handwriting region using an image of the handwritten input; generate code information including one or more codes by encoding the handwritten input information and the playback information for each of the one or more input objects; allocate the code information to predetermined bits in a predetermined encoding region separated from the handwriting region; generate an animation message including the handwriting region and the predetermined encoding region; and transmit, using the communication unit, the animation message to the another electronic device.
A recombinant polypeptide having pesticidal activity, comprising: (a) an amino acid sequence having at least 90% sequence identity to the amino acid sequence set forth in SEQ ID NO: 186, wherein the polypeptide retains the pesticidal activity of SEQ ID NO: 186; or, (b) the amino acid sequence set forth in SEQ ID NO: 186. (a) an amino acid sequence having at least 90% sequence identity to the amino acid sequence set forth in SEQ ID NO: 186, wherein the polypeptide retains the pesticidal activity of SEQ ID NO: 186; or, (b) the amino acid sequence set forth in SEQ ID NO: 186.
A liquid depth-operated valve assembly for use in a zero gravity environment comprising: a Pitot pump disposed within a centrifugal separator configured to separate an air and a liquid from one another; a Pitot opening disposed at a first radial location along the Pitot pump relative to a substantially central location of the centrifugal separator; a Pitot pump fluid path extending from the Pitot opening; and a depth-sensing port disposed at a second radial location along the Pitot pump, the second radial location disposed radially between the first radial location and the central location, the depth-sensing port in operative communication with a valve, wherein the valve is configured to control fluid flow of the Pitot pump fluid path; characterised by: a diaphragm disposed proximate the depth-sensing port, and a non-corrosive, incompressible fluid disposed within a depth-sensing port fluid path. a Pitot pump disposed within a centrifugal separator configured to separate an air and a liquid from one another; a Pitot opening disposed at a first radial location along the Pitot pump relative to a substantially central location of the centrifugal separator; a Pitot pump fluid path extending from the Pitot opening; and a depth-sensing port disposed at a second radial location along the Pitot pump, the second radial location disposed radially between the first radial location and the central location, the depth-sensing port in operative communication with a valve, wherein the valve is configured to control fluid flow of the Pitot pump fluid path; characterised by: a diaphragm disposed proximate the depth-sensing port, and a non-corrosive, incompressible fluid disposed within a depth-sensing port fluid path. a diaphragm disposed proximate the depth-sensing port, and a non-corrosive, incompressible fluid disposed within a depth-sensing port fluid path.
Connection box for two secondary electrical conductors (6i, 6N) for a street light with two primary conductors (51, 52, 53, 5N) of a three-phase primary electrical distribution network, wherein this box includes a terminal block, on which the primary electrical conductors are connected, characterised in that it comprises a single selector enabling, in one operation, a secondary phase conductor to be connected or disconnected to/from a primary electrical conductor (51, 52, 53) selected from the three phase conductors of the three-phase primary electrical distribution network and the secondary neutral conductor to be connected or disconnected to/from the primary neutral conductor of this network.
Bicycle comprising a frame of the bicycle and a rear wheel having a tyre with a complementary toothing and an electric power-assist device for bicycles, said device comprising: - an electrical machine comprising a rotor, - means for fixing the electrical machine, - a battery for powering the electrical machine, - means for controlling the electrical machine, - a drive pinion driven by the rotor of the electrical machine, and - a supporting structure, in which the means for fixing are borne by the supporting structure, itself fixed to the frame of the bicycle, which allows the device to be mounted on the bicycle, the supporting structure comprising arms (101, 102, 103, 104) fixed to the axle of the rear wheel and rods that immobilise the rotation of the supporting structure around the axis of the wheel, the bicycle being characterized in that the drive pinion comprises a toothing meshing tangentially with the complementary toothing mainly made of rubber integral to the tyre of the rear wheel of the bicycle and the electrical machine is inclined by an angle relative to the plane of the rear wheel, and the complementary toothing is integral to a flank of the tyre and is situated radially below the equator line. - an electrical machine comprising a rotor, - means for fixing the electrical machine, - a battery for powering the electrical machine, - means for controlling the electrical machine, - a drive pinion driven by the rotor of the electrical machine, and - a supporting structure, in which
A method for manufacturing a semiconductor wafer, the method comprising: a first step of forming protrusions (42, 42a) on a surface of an SiC substrate and heating the SiC substrate under Si vapor pressure, to etch the SiC substrate; a second step of arranging a carbon feed member on the protrusion side of the SiC substrate after the first step with an Si melt interposed therebetween, then heating so that the protrusions (42, 42a) of the SiC substrate are epitaxially grown to form epitaxial layers (43, 43a) through metastable solvent epitaxy process, the epitaxial growth allowing an epitaxial layer containing threading screw dislocation to be more largely grown in a vertical, c-axis direction as compared with an epitaxial layer containing no threading screw dislocation, and then removing at least a part of the epitaxial layer containing threading screw dislocation; and a third step of performing metastable solvent epitaxy process again on the SiC substrate after the second step, to cause epitaxial layers containing no threading screw dislocation to be grown in a horizontal, a-axis direction to be connected at a molecular level, so that at least one monocrystalline 4H-SiC semiconductor wafer having a large area is generated on an Si-face (0001 face) or a C-face (000-1 face) which is a surface of the SiC substrate. a first step of forming protrusions (42, 42a) on a surface of an SiC substrate and heating the SiC substrate under Si vapor pressure, to etch the SiC substrate; a second step of arranging a carbon feed member on the protrusion side of the SiC substrate after the first step with an Si melt interposed therebetween, then heating so that the protrusions (42, 42a) of the SiC substrate are epitaxially grown to form epitaxial layers (43, 43a) through metastable solvent epitaxy process, the epitaxial growth allowing an epitaxial layer containing threading screw dislocation to be more largely grown in a vertical, c-axis direction as compared with an epitaxial layer containing no threading screw dislocation, and then removing at least a part of the epitaxial layer containing threading screw dislocation; and a third step of performing metastable solvent epitaxy process again on the SiC substrate after the second step, to cause epitaxial layers containing no threading screw dislocation to be grown in a horizontal, a-axis direction to be connected at a molecular level, so that at least one monocrystalline 4H-SiC semiconductor wafer having a large area is generated on an Si-face (0001 face) or a C-face (000-1 face) which is a surface of the SiC substrate.
An automated method of manufacturing wing junction parts comprising: (a) milling aircraft wing junction parts with overmaterial; (b) scanning the wing junction parts;; (c) using at least one processor, comparing the parts scans with a model using a B-Spline algorithm; (d) based on the comparison between the parts scans and the model, generating a trajectory milling program; to fill gaps between the wing junction parts using a new generated surface using a Multi-section procedure from B-Spline; and (e) further milling the wing junction parts; using the trajectory milling program to remove overmaterial, thereby minimizing gaps between parts and eliminating a corresponding need for shimming to fill said gaps. (a) milling aircraft wing junction parts with overmaterial; (b) scanning the wing junction parts;; (c) using at least one processor, comparing the parts scans with a model using a B-Spline algorithm; (d) based on the comparison between the parts scans and the model, generating a trajectory milling program; to fill gaps between the wing junction parts using a new generated surface using a Multi-section procedure from B-Spline; and (e) further milling the wing junction parts; using the trajectory milling program to remove overmaterial, thereby minimizing gaps between parts and eliminating a corresponding need for shimming to fill said gaps.
A system for providing power to a powered device, PD, in a Power over Ethernet, PoE, system, comprising: a PD probing circuit for supplying the PD with a first detection current and, following said supplying the PD with the first detection current, supplying the PD with a second detection current smaller than the first detection current, and determining a first response voltage developed in response to the first detection current, and a second response voltage developed in response to the second detection current, and a control circuit for detecting that the PD is a legacy PD comprising first elements or a data loopback, the first elements being a large capacitor and a diode coupled in series to the large capacitor, the data loopback including a smaller capacitor in the legacy PD that is not directly used for PD detection, the control circuit being adapted to detect the legacy PD upon detecting that a detection resistance value, defined by a difference between the first response voltage and the second response voltage divided by the difference between the first detection current and the second detection current, is less than a pre-defined minimum resistance value or negative. a PD probing circuit for supplying the PD with a first detection current and, following said supplying the PD with the first detection current, supplying the PD with a second detection current smaller than the first detection current, and determining a first response voltage developed in response to the first detection current, and a second response voltage developed in response to the second detection current, and a control circuit for detecting that the PD is a legacy PD comprising first elements or a data loopback, the first elements being a large capacitor and a diode coupled in series to the large capacitor, the data loopback including a smaller capacitor in the legacy PD that is not directly used for PD detection, the control circuit being adapted to detect the legacy PD upon detecting that a detection resistance value, defined by a difference between the first response voltage and the second response voltage divided by the difference between the first detection current and the second detection current, is less than a pre-defined minimum resistance value or negative.
A method for determining a weight for hybrid beamforming by a base station in a wireless communication system, the method comprising: signaling to a user equipment a configuration for repeated transmission by the user equipment of a first omnidirectional beam equally formed in all directions; receiving the first omnidirectional beam from the user equipment by forming a second omnidirectional beam; repeatedly receiving (S1715, S1720) the first omnidirectional beam from the user equipment by sequentially forming (S1716, S1721) a plurality of directional beams corresponding to a plurality of directions; and determining a weight for hybrid beamforming, wherein the determining of the weight for hybrid beamforming comprises: obtaining a gain difference between the first omnidirectional beam received through the second omnidirectional beam and the first omnidirectional beam received through a first directional beam among the plurality of directional beams; selecting a precoding matrix indicator, PMI, from a codebook based on a combination of an index of the first directional beam and the gain difference; and acquiring, based on the selected PMI, a coefficient of a phase shifter and a coefficient of a power amplifier for analog beamforming of the hybrid beamforming. signaling to a user equipment a configuration for repeated transmission by the user equipment of a first omnidirectional beam equally formed in all directions; receiving the first omnidirectional beam from the user equipment by forming a second omnidirectional beam; repeatedly receiving (S1715, S1720) the first omnidirectional beam from the user equipment by sequentially forming (S1716, S1721) a plurality of directional beams corresponding to a plurality of directions; and determining a weight for hybrid beamforming, wherein the determining of the weight for hybrid beamforming comprises: obtaining a gain difference between the first omnidirectional beam received through the second omnidirectional beam and the first omnidirectional beam received through a first directional beam among the plurality of directional beams; selecting a precoding matrix indicator, PMI, from a codebook based on a combination of an index of the first directional beam and the gain difference; and acquiring, based on the selected PMI, a coefficient of a phase shifter and a coefficient of a power amplifier for analog beamforming of the hybrid beamforming. obtaining a gain difference between the first omnidirectional beam received through the second omnidirectional beam and the first omnidirectional beam received through a first directional beam among the plurality of directional beams; selecting a precoding matrix indicator, PMI, from a codebook based on a combination of an index of the first directional beam and the gain difference; and acquiring, based on the selected PMI, a coefficient of a phase shifter and a coefficient of a power amplifier for analog beamforming of the hybrid beamforming.
A catheter, comprising: at least one lumen (20, 22, 24, 26, 28, 30) extending from a proximal end of the catheter to a distal portion of the catheter; a plurality of proximal electrodes positioned on an exterior surface of the catheter; a plurality of distal electrodes positioned on the exterior surface of the catheter; a first plurality of electrical leads positioned on the exterior surface of the catheter for connecting the plurality of proximal electrodes to a signal generator, and a second plurality of electrical leads distinct from the first plurality of leads, positioned on the exterior surface of the catheter, for connecting the plurality of distal electrodes to the signal generator; wherein at least one lead of the second plurality of leads extends past the plurality of proximal electrodes without contacting the proximal electrodes. at least one lumen (20, 22, 24, 26, 28, 30) extending from a proximal end of the catheter to a distal portion of the catheter; a plurality of proximal electrodes positioned on an exterior surface of the catheter; a plurality of distal electrodes positioned on the exterior surface of the catheter; a first plurality of electrical leads positioned on the exterior surface of the catheter for connecting the plurality of proximal electrodes to a signal generator, and a second plurality of electrical leads distinct from the first plurality of leads, positioned on the exterior surface of the catheter, for connecting the plurality of distal electrodes to the signal generator; wherein at least one lead of the second plurality of leads extends past the plurality of proximal electrodes without contacting the proximal electrodes.
A system for increasing the active life of an SCR catalyst, the system comprising: (i) at least one first flue gas conduit designed to transport flue gas from a combustion zone to an SCR; (ii) at least one SCR positioned between the at least one first flue gas conduit and at least one second flue gas conduit, wherein the at least one second flue gas conduit is designed to transport flue gas from the SCR to additional downstream systems or environmental controls; (iii) at least one large particle ash screen positioned in the at least one first flue conduit so as to enable the collection of at least about 50 percent of any large particle ash present in the flue gas prior to the entry of the flue gas into the at least one SCR; and (iv) at least one rotary valve positioned to be in working communication with the large particle ash screen, wherein the at least one rotary valve is designed to collect any large particle ash captured by the at least one large particle ash screen and supply such large particle ash to the at least one second flue gas conduit. (i) at least one first flue gas conduit designed to transport flue gas from a combustion zone to an SCR; (ii) at least one SCR positioned between the at least one first flue gas conduit and at least one second flue gas conduit, wherein the at least one second flue gas conduit is designed to transport flue gas from the SCR to additional downstream systems or environmental controls; (iii) at least one large particle ash screen positioned in the at least one first flue conduit so as to enable the collection of at least about 50 percent of any large particle ash present in the flue gas prior to the entry of the flue gas into the at least one SCR; and (iv) at least one rotary valve positioned to be in working communication with the large particle ash screen, wherein the at least one rotary valve is designed to collect any large particle ash captured by the at least one large particle ash screen and supply such large particle ash to the at least one second flue gas conduit.
Process for the synthesis of 2,5-furandicarboxylic acid through the oxidation of 5-hydroxymethylfurfural by a flow of oxygen, catalysed by a supported catalyst containing a metal of the platinum group, carried out in aqueous solution whose pH is maintained higher than 7 and lower than 12 through the addition of a weak base selected from the group consisting of sodium bicarbonate, potassium bicarbonate, sodium carbonate, potassium carbonate, calcium carbonate, magnesium carbonate, calcium hydroxide, magnesium hydroxide, dibasic and tribasic phosphate buffer solutions and their mixtures.
Method for operating a visual field display apparatus, in particular for a motor vehicle, which visual field display apparatus is embodied to generate a projection light beam with display content and to project the latter onto a partly transparent reflecting projection screen, in particular a windshield of the motor vehicle, in such a way that a virtual display image (51, 52, 53) superimposed into a visual field of a user is generated therebehind, characterized in that the method comprises the following steps: - ascertaining vertical image element edges (51a, 52a, 53a), or image element edges with a vertical component, in the virtual display image (51, 52, 53) to be superimposed; - providing a current position of the user, in particular an eye position or a visual axis of the user; and - tilting the image element edges (51a, 52a, 53a), ascertained thus, to a respective tilt angle with respect to the vertical direction, which tilt angle is adapted in such a way that horizontally offset double images of the respective image element edges (51a, 52a, 53a), which are caused by a double reflection of the projection light beam at two optical interfaces of the projection screen, are overlaid for the user in the virtual display image (51, 52, 53) and consequently appear substantially sharp; - wherein the respective adapted tilt angle is ascertained on the basis of the provided current position of the user. - ascertaining vertical image element edges (51a, 52a, 53a), or image element edges with a vertical component, in the virtual display image (51, 52, 53) to be superimposed; - providing a current position of the user, in particular an eye position or a visual axis of the user; and - tilting the image element edges (51a, 52a, 53a), ascertained thus, to a respective tilt angle with respect to the vertical direction, which tilt angle is adapted in such a way that horizontally offset double images of the respective image element edges (51a, 52a, 53a), which are caused by a double reflection of the projection light beam at two optical interfaces of the projection screen, are overlaid for the user in the virtual display image (51, 52, 53) and consequently appear substantially sharp; - wherein the respective adapted tilt angle is ascertained on the basis of the provided current position of the user.