mhurhangee/ep-ind-claims huggingface dataset:
A method for computing gaze location of a subject comprising: receiving an image of a subject in which a first plurality of glints are captured in a left eye of the subject and a second plurality of glints are captured in a right eye of the subject using at least four light sources and a camera, the first plurality of glints comprising at least four glints corresponding to the at least four light sources, and the second plurality of glints comprising at least four glints corresponding to the at least four light sources, where the number of glints in the first plurality, the number of glints in the second plurality and the number of light sources is the same; and computing the gaze location of the subject in a joint error minimization by computing a left homography matrix and a right homography matrix using the left and right eye glint data, respectively, and using the left homography matrix and the right homography matrix with left pupil center information and right pupil center information respectively by, when the subject is fixating a point, minimizing the re-projection error between the pupil centers in the image and their corresponding estimations from the homography matrices and from left and right bias correction matrices, wherein the left and right bias correction matrices have been obtained using a calibration process by obtaining tuples of: left eye glint data and left eye pupil center information, and right eye glint data and right eye pupil center information at a plurality of gaze calibration positions. receiving an image of a subject in which a first plurality of glints are captured in a left eye of the subject and a second plurality of glints are captured in a right eye of the subject using at least four light sources and a camera, the first plurality of glints comprising at least four glints corresponding to the at least four light sources, and the second plurality of glints comprising at least four glints corresponding to the at least four light sources, where the number of glints in the first plurality, the number of glints in the second plurality and the number of light sources is the same; and computing the gaze location of the subject in a joint error minimization by computing a left homography matrix and a right homography matrix using the left and right eye glint data, respectively, and using the left homography matrix and the right homography matrix with left pupil center information and right pupil center information respectively by, when the subject is fixating a point, minimizing the re-projection error between the pupil centers in the image and their corresponding estimations from the homography matrices and from left and right bias correction matrices, wherein the left and right bias correction matrices have been obtained using a calibration process by obtaining tuples of: left eye glint data and left eye pupil center information, and right eye glint data and right eye pupil center information at a plurality of gaze calibration positions.
A 3165-bp circular double-stranded gene therapy DNA vector for genetic modification of animal and human cells comprising nucleotide sequence SEQ ID No. 1.
A formulation comprising from 0.001 wt.-% to 20 wt.-% compound X, by total weight of the formulation, wherein compound X is according to Formula wherein R is a saturated or unsaturated hydrocarbon chain having seven or nine carbon atoms, or a mixture thereof, wherein a formulation consisting of a 0.1 wt.-% solution of cyclic capryl N-methyl glucamide in water is excluded, and wherein the formulation is selected from the group consisting of cosmetic formulations and household cleansing formulations. wherein R is a saturated or unsaturated hydrocarbon chain having seven or nine carbon atoms, or a mixture thereof, wherein a formulation consisting of a 0.1 wt.-% solution of cyclic capryl N-methyl glucamide in water is excluded, and wherein the formulation is selected from the group consisting of cosmetic formulations and household cleansing formulations.
Method for producing a stator on which a plurality of electrical winding phases with individual coil elements are arranged, characterized by the following steps: - manufacturing a plurality of separate stator segments which have insulating masks, - winding a first stator segment with a first coil element, - winding a second stator segment with a second coil element with a continuously wound uninterrupted coil wire, - winding a third stator segment with a third coil element with the continuously wound uninterrupted coil wire, - arranging the first and the second stator segment (16, 18) with the first and second coil element (17, 19) immediately next to one another in the circumferential direction of the stator, - arranging further stator segments to form a circular ring, - mechanically connecting the individual stator segments (16, 18, 20), - wherein the insulating masks have radial cutouts through which the connecting wire between the first and the second coil element (17, 19), which together form a twin coil, is guided in the radial direction, - wherein the connecting wire is arranged radially outside the insulating masks before winding of the second stator segment, - wherein the connecting wire does not protrude beyond the insulating mask with respect to an axial direction of the stator during winding, and - wherein the connecting wire between the first and the second coil element (17, 19) and the connecting wire between the second coil element and the third coil element remain radially outside the insulating mask even after assembly is complete. - manufacturing a plurality of separate stator segments which have insulating masks, - winding a first stator segment with a first coil element, - winding a second stator segment with a second coil element with a continuously wound uninterrupted coil wire, - winding a third stator segment with a third coil element with the continuously wound uninterrupted coil wire, - arranging the first and the second stator segment (16, 18) with the first and second coil element (17, 19) immediately next to one another in the circumferential direction of the stator, - arranging further stator segments to form a circular ring, - mechanically connecting the individual stator segments (16, 18, 20), - wherein the insulating masks have radial cutouts through which the connecting wire between the first and the second coil element (17, 19), which together form a twin coil, is guided in the radial direction, - wherein the connecting wire is arranged radially outside the insulating masks before winding of the second stator segment, - wherein the connecting wire does not protrude beyond the insulating mask with respect to an axial direction of the stator during winding, and - wherein the connecting wire between the first and the second coil element (17, 19) and the connecting wire between the second coil element and the third coil element remain radially outside the insulating mask even after assembly is complete.
System for mooring a vessel against a stationary object, for example the mast of a wind turbine erected in water, which system comprises a stationary object and a vessel, wherein the stationary object is provided with: - at least one substantially vertical bumper bar (5, 6) which is attached to the stationary object by means of an extension, and wherein the vessel is provided with: - a hull, - an engine for propelling the vessel, - a buffer body which protrudes in relation to the hull, characterized in that the bumper bar (5, 6) of the stationary object is provided with a substantially vertical, inside guide track which substantially faces the stationary object, and a substantially vertical, outside guide track, which substantially faces away from the stationary object, and the vessel is provided with at least one engagement arm (20, 21) which at one end is provided with an engagement member, and the engagement arm (20, 21)can be moved in relation to the hull between a mooring state, in which the engagement member engages on the inside guide track of the bumper bar (5, 6) and is vertically displaceable along this, and a release state, in which the engagement member is out of engagement with the inside guide track, and the buffer body in the mooring state of the engagement arm (5, 6) engages on the outside guide track of the bumper bar (5, 6) and is vertically displaceable along this, and the inside guide track protrudes sideways in relation to an adjacent part of the extension of the bumper bar (5, 6) such that the engagement member of the engagement arm (20, 21) in the mooring state can be moved past the extension on vertical displacement along the inside guide track of the bumper bar (5, 6). - at least one substantially vertical bumper bar (5, 6) which is attached to the stationary object by means of an extension, - a hull, - an engine for propelling the vessel, - a buffer body which protrudes in relation to the hull,
Method of activating the shrink characteristic of a multi-layered film, the method comprising the steps of: - providing a multi-layered film comprising at least a base layer film comprising a shrinkable film, and a photothermic layer, associated with the base layer film, and comprising a photothermic material, - exposing the multi-layered film to electromagnetic radiation in order for the photothermic material to shrink the multi-layered film; wherein - the electromagnetic radiation comprises UV-light having a peak wavelength between 200 nm and 399 nm, characterised in that - at least 90% of the UV-light is within a bandwidth of ± 30 nm of the peak wavelength. - providing a multi-layered film comprising at least a base layer film comprising a shrinkable film, and a photothermic layer, associated with the base layer film, and comprising a photothermic material, - exposing the multi-layered film to electromagnetic radiation in order for the photothermic material to shrink the multi-layered film; wherein - the electromagnetic radiation comprises UV-light having a peak wavelength between 200 nm and 399 nm, characterised in that - at least 90% of the UV-light is within a bandwidth of ± 30 nm of the peak wavelength.
An injection molding machine comprising: a cylinder that heats a molding material which is filled the inside of a mold unit; a feeding member that feeds the molding material within the cylinder; a drive device that moves the feeding member forward and backward; a controller that is programmed to carry out a filling process of driving the drive device to control the speed of the feeding member, and a hold pressure process of driving the drive device to control pressure acting on the molding material from the feeding member; and a detector (47; 48) that detects information on the pressure of the molding material, wherein the controller is programmed to reduce, if the speed of the feeding member when moving forward is made positive and the speed of the feeding member when moving backward is made negative, the setting speed of the feeding member in the middle of the filling process, and wherein the controller is programmed to perform switchover from the filling process to the hold pressure process on the basis of the amount of change of a detection value of the detector after the setting speed is reduced. a cylinder that heats a molding material which is filled the inside of a mold unit; a feeding member that feeds the molding material within the cylinder; a drive device that moves the feeding member forward and backward; a controller that is programmed to carry out a filling process of driving the drive device to control the speed of the feeding member, and a hold pressure process of driving the drive device to control pressure acting on the molding material from the feeding member; and a detector (47; 48) that detects information on the pressure of the molding material, wherein the controller is programmed to reduce, if the speed of the feeding member when moving forward is made positive and the speed of the feeding member when moving backward is made negative, the setting speed of the feeding member in the middle of the filling process, and wherein the controller is programmed to perform switchover from the filling process to the hold pressure process on the basis of the amount of change of a detection value of the detector after the setting speed is reduced.
A motion guide device, characterized in that the device comprises a raceway member having a rolling-element rolling part; a moving member having a loaded rolling-element rolling part facing the rolling-element rolling part and being allowed to make a linear or curved movement relatively to the raceway member; a plurality of rolling elements intervening between the rolling-element rolling part of the raceway member and the loaded rolling-element rolling part of the moving member; and a layer of oil filled in a gap between the raceway member and the moving member such that the layer of oil contacts the raceway member and the moving member, characterized by the moving member having a moving block on which the loaded rolling-element rolling part is formed, and an end damping member which is separate from the moving block and attached to an end face of the moving block in a movement direction of the moving block, and the layer of oil being filled in a gap between the end damping member and the raceway member, and viscosity resistance of the oil being utilized to apply a braking force to the moving member or the raceway member in proportion to a speed.
A stator for a rotating electrical machine comprising: - a housing formed by a U-shaped panel constituting the outer casing of the housing, said panel having two lateral walls (113, 114) and being bordered on each end by an end plate (111, 112); - a lantern ring formed by a stack of magnetic plates maintained in a frame formed by flanges (137, 138) connected by bars; said housing comprises intermediate plates secured to the panel, with semicircular shape, arranged parallel with end plates (111, 112), forming a cradle positioning and supporting said lantern ring assembled by the upper part of the panel; - said flanges (137, 138) comprising a lower part with a semicircular shape adapted so as to match the semicircular shape of said intermediate plates of said housing; said stator being characterized in that said flanges (137, 138) comprising an upper part presenting two vertical parallel edges rigidly attached with the lateral walls (113, 114) of the panel of said housing by pins enabling the immobilization in rotation and translation of the lantern ring. - a housing formed by a U-shaped panel constituting the outer casing of the housing, said panel having two lateral walls (113, 114) and being bordered on each end by an end plate (111, 112); - a lantern ring formed by a stack of magnetic plates maintained in a frame formed by flanges (137, 138) connected by bars; said housing comprises intermediate plates secured to the panel, with semicircular shape, arranged parallel with end plates (111, 112), forming a cradle positioning and supporting said lantern ring assembled by the upper part of the panel; - said flanges (137, 138) comprising a lower part with a semicircular shape adapted so as to match the semicircular shape of said intermediate plates of said housing;
A protective fan guard with at least one mounting strut and at least one fastening device for fastening the mounting strut for the protective fan guard, having a first and a second leg (11, 12) that extend in a longitudinal direction, have a defined clamping surface, and engage over a plurality of guard bars of the protective fan guard, wherein the legs (11, 12) have a free longitudinal end and the fastening device is arranged in the vicinity of the free longitudinal end of the legs (11, 12), wherein the fastening device comprises a fastening sleeve which is designed in such a way that at least one clamping region receiving the legs (11, 12) is formed and supported, wherein the fastening sleeve cooperates with the clamping surface in such a way that a collar of the fastening sleeve rests flatly, wherein a portion of the clamping region adjacent to the legs (11, 12) is filled by a filling web which is formed integrally on the fastening sleeve and against which the legs (11, 12) abut, and wherein the clamping region formed by the fastening sleeve is dimensioned so as to be undersized relative to the legs (11, 12), so that a clamping connection is formed in the fastened state.
A thermoplastic vulcanizate fluorine-containing composition [vulcanizate], comprising a continuous thermoplastic fluoropolymer phase and a dispersed vulcanized fluoroelastomer phase, said composition comprising: - at least one thermoplastic fluoropolymer [polymer], said polymer comprising (j) from 40 to 55% by moles of recurring units derived from ethylene; (jj) from 55 to 40% by moles of recurring units derived from at least one of chlorotrifluoroethylene (CTFE) and tetrafluoroethylene; and (jjj) from 0.5 to 10% by moles of recurring units derived from of at least one (per)fluoroalkylvinylether of formula CX 2 =CX-OR f, wherein each of X, equal to or different from each other, is independently H or F (preferably F); and R f is a C 1 -C 12 (per)fluoroalkyl group or a C 1 -C 12 (per)fluoro-oxy-alkyl group comprising one or more than one catenary oxygen atoms [monomer], with % by moles being referred to the total moles of recurring units of the polymer; and - at least one (per)fluoroelastomer [elastomer]. - at least one thermoplastic fluoropolymer [polymer], said polymer comprising (j) from 40 to 55% by moles of recurring units derived from ethylene; (jj) from 55 to 40% by moles of recurring units derived from at least one of chlorotrifluoroethylene (CTFE) and tetrafluoroethylene; and (jjj) from 0.5 to 10% by moles of recurring units derived from of at least one (per)fluoroalkylvinylether of formula CX 2 =CX-OR f, wherein each of X, equal to or different from each other, is independently H or F (preferably F); and R f is a C 1 -C 12 (per)fluoroalkyl group or a C 1 -C 12 (per)fluoro-oxy-alkyl group comprising one or more than one catenary oxygen atoms [monomer], with % by moles being referred to the total moles of recurring units of the polymer; and (j) from 40 to 55% by moles of recurring units derived from ethylene; (jj) from 55 to 40% by moles of recurring units derived from at least one of chlorotrifluoroethylene (CTFE) and tetrafluoroethylene; and (jjj) from 0.5 to 10% by moles of recurring units derived from of at least one (per)fluoroalkylvinylether of formula CX 2 =CX-OR f, wherein each of X, equal to or different from each other, is independently H or F (preferably F); and R f is a C 1 -C 12 (per)fluoroalkyl group or a C 1 -C 12 (per)fluoro-oxy-alkyl group comprising one or more than one catenary oxygen atoms [monomer], - at least one (per)fluoroelastomer [elastomer].
An input block for providing an input to a vector-by-matrix multiplication array in a neural memory system, the vector-by-matrix multiplication array comprising non-volatile memory cells arranged in rows and columns, the input block comprising: a global digital-to-analog converter; a plurality of row sample-and-hold buffers, each row sample-and-hold buffer corresponding to a row in the array; characterized in that the input block further comprises a plurality of row registers, each row register corresponding to a row in the array; and wherein when a row is selected, the global digital-to-analog converter converts a digital value stored in a row register corresponding to the selected row into an analog value that is sampled and held by the row sample-and-hold buffer corresponding to the selected row and applied to a line coupled to the selected row. a global digital-to-analog converter; a plurality of row sample-and-hold buffers, each row sample-and-hold buffer corresponding to a row in the array; characterized in that the input block further comprises a plurality of row registers, each row register corresponding to a row in the array; and wherein when a row is selected, the global digital-to-analog converter converts a digital value stored in a row register corresponding to the selected row into an analog value that is sampled and held by the row sample-and-hold buffer corresponding to the selected row and applied to a line coupled to the selected row.
Low specimen drift holder for providing mechanical and temperature stability, allowing rapid and controlled change of specimen temperature, wherein the holder comprises (i) an inner section and (ii) an outer section, wherein the outer section comprises supports (43a,b,c) for supporting the inner section, and wherein the supports are of a thermally insulating material, (iii) a coldness influx stabilizer connected to the inner section, (iv) a first heat provider for maintaining the inner section at a predetermined temperature or heating the inner section at a predetermined rate, wherein the first heat provider comprises a temperature sensor capable of detecting temperature changes in the order of mK, a controller, software and a heat regulator, wherein the first heat provider has a maximum heating capacity of 10 W-1 kW, wherein the heat regulator is adapted to damp temperature fluctuation in the inner section by modifying an amount of heat provided by the first heat provider in order to maintain an average temperature within 50 mK fluctuation per 10 seconds at 1/30 Hz, and (v) a second heat provider for maintaining the outer section at a predetermined temperature, wherein the second heat provider has a maximum heating capacity of 0.001 W-10 W, and a heat flow reductor adapted to minimize heat flux from the outer section to a tip of the holder. (i) an inner section and (ii) an outer section, wherein the outer section comprises supports (43a,b,c) for supporting the inner section, and wherein the supports are of a thermally insulating material, (iii) a coldness influx stabilizer connected to the inner section, (iv) a first heat provider for maintaining the inner section at a predetermined temperature or heating the inner section at a predetermined rate, wherein the first heat provider comprises a temperature sensor capable of detecting temperature changes in the order of mK, a controller, software and a heat regulator, wherein the first heat provider has a maximum heating capacity of 10 W-1 kW, wherein the heat regulator is adapted to damp temperature fluctuation in the inner section by modifying an amount of heat provided by the first heat provider in order to maintain an average temperature within 50 mK fluctuation per 10 seconds at 1/30 Hz, and (v) a second heat provider for maintaining the outer section at a predetermined temperature, wherein the second heat provider has a maximum heating capacity of 0.001 W-10 W, and a heat flow reductor adapted to minimize heat flux from the outer section to a tip of the holder.