mhurhangee/ep-ind-claims huggingface dataset:
A method for applying a lens correction to image data that is associated with a lens, the method comprising: converting the image data to a YUV color space to form YUV image data, if the image data is not in the YUV color space; applying image processing procedures to the YUV image data to form image processed YUV data; and applying the lens correction to the image processed YUV data wherein applying the lens correction further comprises: applying a Y correction value to a Y component of a target pixel of the image processed YUV data by multiplying the Y component of the image processed YUV data by a Y correction value; applying a U correction value to a U component of the target pixel of the image processed YUV data by adding the U component of the image processed YUV data to a U correction value; and; applying a V correction value to a V component of the target pixel of the image processed YUV data by adding the V component of the image processed YUV data to a V correction value, wherein the U correction value is based on a first distance value, wherein the first distance value is associated with a location of the target pixel in a reference image relative to a reference point of the reference image. converting the image data to a YUV color space to form YUV image data, if the image data is not in the YUV color space; applying image processing procedures to the YUV image data to form image processed YUV data; and applying the lens correction to the image processed YUV data wherein applying the lens correction further comprises: applying a Y correction value to a Y component of a target pixel of the image processed YUV data by multiplying the Y component of the image processed YUV data by a Y correction value; applying a U correction value to a U component of the target pixel of the image processed YUV data by adding the U component of the image processed YUV data to a U correction value; and; applying a V correction value to a V component of the target pixel of the image processed YUV data by adding the V component of the image processed YUV data to a V correction value, applying a Y correction value to a Y component of a target pixel of the image processed YUV data by multiplying the Y component of the image processed YUV data by a Y correction value; applying a U correction value to a U component of the target pixel of the image processed YUV data by adding the U component of the image processed YUV data to a U correction value; and; applying a V correction value to a V component of the target pixel of the image processed YUV data by adding the V component of the image processed YUV data to a V correction value, wherein the U correction value is based on a first distance value, wherein the first distance value is associated with a location of the target pixel in a reference image relative to a reference point of the reference image.
A power distribution system comprising: a first power distribution unit coupled to an electrical power source, the first power distribution unit comprising at least one first solid state power controller configured to control current flow through the first power distribution unit and control means (310C, 305) configured to receive and analyse data related to measurements of current within or downstream of the first power distribution unit and to interrupt the power within the first power distribution unit when the received current measurements exceed a predetermined threshold; a second power distribution unit serially coupled to the first power distribution unit downstream of the first power distribution unit and configured to supply to power to one or more loads, the second power distribution unit comprising at least one second solid state power controller configured to control current flow through the second power distribution unit; and a current monitoring component (322B, 326, 350) configured to measure the current flow to, or within, the second power distribution unit, the current monitoring component (322B, 326, 350) configured to transmit current data to the control means (310C, 305) within the first power distribution unit for analysis. a first power distribution unit coupled to an electrical power source, the first power distribution unit comprising at least one first solid state power controller configured to control current flow through the first power distribution unit and control means (310C, 305) configured to receive and analyse data related to measurements of current within or downstream of the first power distribution unit and to interrupt the power within the first power distribution unit when the received current measurements exceed a predetermined threshold; a second power distribution unit serially coupled to the first power distribution unit downstream of the first power distribution unit and configured to supply to power to one or more loads, the second power distribution unit comprising at least one second solid state power controller configured to control current flow through the second power distribution unit; and a current monitoring component (322B, 326, 350) configured to measure the current flow to, or within, the second power distribution unit, the current monitoring component (322B, 326, 350) configured to transmit current data to the control means (310C, 305) within the first power distribution unit for analysis.
A waveguide (100, 115), comprising: a conductor; a cross section of the conductor having a recess with dielectric material filled inside the recess; and a cross section of the recess having an open end and a short-circuited end established by the conductor; wherein a depth of the recess, having the dielectric material, corresponds to substantially at least a quarter of a wavelength of a signal guided along the waveguide, wherein the dielectric material has a relative permittivity of 10 or larger. a conductor; a cross section of the conductor having a recess with dielectric material filled inside the recess; and a cross section of the recess having an open end and a short-circuited end established by the conductor; wherein a depth of the recess, having the dielectric material, corresponds to substantially at least a quarter of a wavelength of a signal guided along the waveguide, wherein the dielectric material has a relative permittivity of 10 or larger.
A machine for drag finishing of mechanical parts comprising a frame housing a rotating tub for containing finishing media and a movement group (24,26,27,28) connected to the frame for a rotating part-carrying element, where the movement group comprises at least a motor group for setting in rotation a shaft able to support the rotating part-carrying element, where the movement group (24,26,27,28) comprises a first group of guides (27,28) allowing movement of the motor group and of the rotating part-carrying element along a first vertical axis by means of a piston-cylinder group to carry the part-carrying element in the rotating tub in a central position thereof, and a second group of guides (24,26) allowing movement of the motor group and of the rotating part-carrying element along a second horizontal axis, characterized in that the second group of guides (24,26) is configured to allow movement inside the rotating tub of the rotating part-carrying element by means of a piston-cylinder group along the second horizontal axis, from the central position inside the rotating tub towards an offset position with respect to the centre of the rotating tub, the movement group (24,26,27,28) being configured for allowing the movement of the rotating part-carrying element along the second horizontal axis to be performed successively with respect to the movement of the rotating part-carrying element along the first vertical axis.
A method of producing a heating module for an electric heater, comprising the steps of: - creating a cast iron heat sink body, - installing in the body an electrically insulated resistive heating element so that the heat supplied by said resistive heating element is transmitted to said body, - forming the body by joining together the two cast iron plates (200a, 200b), said plates being joined so as to sandwich the electrically insulated resistive heating element, characterised in that it further comprises the steps of: - moulding two cast iron plates (200a, 200b), - joining together the two cast iron plates (200a, 200b) so as to compress the electrically insulated resistive heating element, - winding a resistive wire or tape along the length of a first insulating support sheet starting from one side edge of said sheet to the opposite side edge of said sheet, - winding a resistive wire or tape along the entire length of a second insulating support sheet starting from one side edge of said sheet to the opposite side edge of said sheet, - arrange the two sheets (31a, 31b) side by side, in the same plane, and in mirror image, so that the respective ends of the wires or tapes (30a, 30b) are adjacent or nearly adjacent, - soldering a flat metal connector to one of the pairs of ends of the wires or tapes (30a, 30b) located at the side edges on the same side of the sheets (31a, 31b), to establish an electrical connection between said sheets, - linking to respective connectors (32a, 32b) the respective other ends of the wires or tapes (30a, 30b) located at the side edges on the other side of the sheets (31a, 31b). - creating a cast iron heat sink body, - installing in the body an electrically insulated resistive heating element so that the heat supplied by said resistive heating element is transmitted to said body, - forming the body by joining together the two cast iron plates (200a, 200b), said plates being joined so as to sandwich the electrically insulated resistive heating element, - moulding two cast iron plates (200a, 200b), - joining together the two cast iron plates (200a, 200b) so as to compress the electrically insulated resistive heating element, - winding a resistive wire or tape along the length of a first insulating support sheet starting from one side edge of said sheet to the opposite side edge of said sheet, - winding a resistive wire or tape along the entire length of a second insulating support sheet starting from one side edge of said sheet to the opposite side edge of said sheet, - arrange the two sheets (31a, 31b) side by side, in the same plane, and in mirror image, so that the respective ends of the wires or tapes (30a, 30b) are adjacent or nearly adjacent, - soldering a flat metal connector to one of the pairs of ends of the wires or tapes (30a, 30b) located at the side edges on the same side of the sheets (31a, 31b), to establish an electrical connection between said sheets, - linking to respective connectors (32a, 32b) the respective other ends of the wires or tapes (30a, 30b) located at the side edges on the other side of the sheets (31a, 31b).
Releasable cork functioning as seal suitable for application on a neck of a bottle for closing the bottle, wherein the cork is manufactured from cork or wood, or a combination thereof, wherein the cork is substantially disc-like and has an upper side, an underside and a side surface running obliquely from upper side to underside, wherein the oblique side surface is arranged to co-act with the inner wall of the neck of the bottle for the purpose of clampingly closing the bottle, wherein the cork is provided with at least one battery and light source coupled thereto for the purpose of emitting light downward into the bottle, wherein the cork comprises a switch for activating and deactivating the light source, characterized in that the light source is arranged in the cork, on the underside thereof, wherein the light source comprises at least one lamp that is arranged countersunk in the cork, wherein the cork is provided on the underside with a recess in which the light source and the battery are held, wherein the switch comprises a push button extending outward in upward direction relative to the cork, and wherein the cork is provided with an opening for the push button extending from the recess to the upper side of the cork, wherein on the upper side of recess the opening is located, which debouches from recess in upper side, said opening having a smaller size than the recess, wherein the push button is arranged in the opening, and wherein the push button is operatively connected to the light source.
A method of producing a curable hot melt composition comprising: a hot melt silicone; an organopolysiloxane which has at least two silicon atom-bonded hydrogen atoms in a molecule and in which an amount of silicon atom-bonded hydrogen atom is 0.5 mass% or greater, in an amount such that an amount of the silicon atom-bonded hydrogen atom in component is from 0.5 to 2.0 mol per 1 mol of alkenyl group in component; and a hydrosilylation reaction catalyst, wherein component is non-flowable at 25°C and that has a melt viscosity at 100°C of 5,000 Pa·s or less, and is formed by subjecting an alkenyl group-containing organopolysiloxane in which 10 mol% or greater of all of silicon atom-bonded organic groups is a phenyl group, and an organopolysiloxane having at least two silicon atom-bonded hydrogen atoms in a molecule, in an amount such that an amount of the silicon atom-bonded hydrogen atoms in component is from 0.2 to 0.7 mol per 1 mol of alkenyl group in component, to a hydrosilylation reaction in the presence of a hydrosilylation reaction catalyst, in an amount that is sufficient to promote the hydrosilylation reaction of components and, wherein "non-flowable" means not flowing when no load is applied, and indicates the condition at lower than the softening point measured by a testing method for the softening point by the Ring-and-ball method of a hot melt adhesive agent stipulated in JIS K 6863-1994, "Testing methods for the softening point of hot melt adhesives", and wherein the melt viscosity at 100°C is measured using a cone plate viscometer which was capable of adjusting the temperature. a hot melt silicone; an organopolysiloxane which has at least two silicon atom-bonded hydrogen atoms in a molecule and in which an amount of silicon atom-bonded hydrogen atom is 0.5 mass% or greater, in an amount such that an amount of the silicon atom-bonded hydrogen atom in component is from 0.5 to 2.0 mol per 1 mol of alkenyl group in component; and a hydrosilylation reaction catalyst, wherein component is non-flowable at 25°C and that has a melt viscosity at 100°C of 5,000 Pa·s or less, and is formed by subjecting an alkenyl group-containing organopolysiloxane in which 10 mol% or greater of all of silicon atom-bonded organic groups is a phenyl group, and an organopolysiloxane having at least two silicon atom-bonded hydrogen atoms in a molecule, in an amount such that an amount of the silicon atom-bonded hydrogen atoms in component is from 0.2 to 0.7 mol per 1 mol of alkenyl group in component, to a hydrosilylation reaction in the presence of a hydrosilylation reaction catalyst, in an amount that is sufficient to promote the hydrosilylation reaction of components and, wherein "non-flowable" means not flowing when no load is applied, and indicates the condition at lower than the softening point measured by a testing method for the softening point by the Ring-and-ball method of a hot melt adhesive agent stipulated in JIS K 6863-1994, "Testing methods for the softening point of hot melt adhesives", and wherein the melt viscosity at 100°C is measured using a cone plate viscometer which was capable of adjusting the temperature.
A laser processing machine, with a laser processing head, having an interior and a nozzle with a nozzle opening for allowing a primary beam, which is a focused laser working beam, to pass through onto a workpiece to be processed and an alignment device with a plurality of sensors for centring the focused laser working beam and the nozzle opening relative to one another, wherein, in the region of the nozzle opening, there is provided a first conversion unit, in particular a conversion edge for converting the lightly touching or impinging focused laser working beam into a secondary heat beam along a direction of propagation in the direction of the sensors, wherein a glass pane is arranged in front of each sensor which is provided with a reflective layer for the focused laser working beam on a surface transverse to the direction of propagation, characterised in that the glass pane is designed as a second conversion unit from long-wave IR of the focused laser working beam to short-wave NIR, wherein the sensors are designed as thermal radiation sensors and are arranged in the interior of the laser processing head or the nozzle (3; 23) and the thermal radiation sensors for monitoring the secondary thermal radiation thus converted with wavelengths of approx. 1.0-2.2 μm are designed as InGaAs diodes.
A plasma cutting electrode (400,500), comprising: an upstream portion (401,501); a cavity (415,515) which has an opening at an upstream end of said upstream portion (401,501); a body portion (402,502) downstream of said upstream portion, said body portion comprising at least one flow port (410,510) open to an outer surface of said body portion (402,502); and a distal end (403,503) downstream of said body portion (402,502), said distal end (403,503) comprising an emitting insert in a distal end face of said distal end (403,503); wherein said at least one flow port (410,510) is coupled to said cavity (415,515) to allow a flow from outside of said body portion (402,502) into said cavity (415,515) characterized in that said body portion contains at least two ridge portions (405, 407) and said at least one flow port is positioned in between said at least two ridge portions. an upstream portion (401,501); a cavity (415,515) which has an opening at an upstream end of said upstream portion (401,501); a body portion (402,502) downstream of said upstream portion, said body portion comprising at least one flow port (410,510) open to an outer surface of said body portion (402,502); and a distal end (403,503) downstream of said body portion (402,502), said distal end (403,503) comprising an emitting insert in a distal end face of said distal end (403,503); wherein said at least one flow port (410,510) is coupled to said cavity (415,515) to allow a flow from outside of said body portion (402,502) into said cavity (415,515) characterized in that said body portion contains at least two ridge portions (405, 407) and said at least one flow port is positioned in between said at least two ridge portions.
A method of determining the ion concentration of the blood of a patient within an extracorporeal blood circuit of a dialysis machine in hemodialysis or hemodiafiltration anti-coagulated with citrate, characterized in that the ion concentration of the blood is determined on the basis of the detection of the ion concentration in the dialysate; and in that the complex formation of the respective ion within the extracorporeal blood circuit using citrate is suppressed for the purpose of determining the concentration prior to the detection of the ion concentration in the dialysate.
A resin composition comprising a blocked urethane prepolymer, an epoxy compound, and a curing catalyst, the blocked urethane prepolymer being a reaction product of an aliphatic diisocyanate compound and a hydrogenated polybutadiene polyol having a hydroxy group at each of both ends, wherein the reaction product has at an end thereof an isocyanate group blocked with an aromatic hydroxy compound, and an amount of a structural unit derived from the aliphatic diisocyanate compound is 1.6 to 2.8 mole per mole of a structural unit derived from the hydrogenated polybutadiene polyol in the reaction product, and the epoxy compound having 2 to 6 epoxy groups, wherein an amount of the epoxy group is 0.9 to 2.5 mole per mole of the hydroxy group of the aromatic hydroxy compound.
Window or door sash, comprising (a) a sash frame formed from sections of a hollow chamber profile, which has a rebate area and a hollow reinforcement chamber; (b) a reinforcement element received in the hollow reinforcement chamber; (c) a facing shell connected to the hollow chamber profile; (d) a surface element accommodated in the rebate area, which is preferably formed as insulating glazing; and (e) a connecting element arranged in the rebate area and connected to the reinforcement element, which is connected to the facing shell, characterised in that the connection between the connecting element and the reinforcement element and the connection between the connecting element and the facing shell is achieved by means of a fastening means (16, 16'). (a) a sash frame formed from sections of a hollow chamber profile, which has a rebate area and a hollow reinforcement chamber; (b) a reinforcement element received in the hollow reinforcement chamber; (c) a facing shell connected to the hollow chamber profile; (d) a surface element accommodated in the rebate area, which is preferably formed as insulating glazing; and (e) a connecting element arranged in the rebate area and connected to the reinforcement element, which is connected to the facing shell,
Elevator system, comprising - a first elevator car (14, 114) which can be moved in a first elevator shaft (12, 112) in the vertical direction, - a first closed support means (26a, 26b, 26c, 26d, 126a, 126b) which is guided about a lower deflection roller and an upper deflection roller, - a first drive machine which is paired with the support means (26a, 126a), and - a first coupling device arranged on the first elevator car (14, 114), wherein the first support means (26a, 126a) has a first primary coupling element (44.1a, 144.1a) which can be coupled to the first coupling device, thus producing a drive connection between the first elevator car (14, 114) and the first support means (26a, 126a), and the coupled first elevator car (14, 114) can be moved in the first elevator shaft (12, 112) by means of the first support means (26a, 126a) which is driven by the first drive machine, characterized in that the first primary coupling element (44.1.a, 144.1a) of the first support means (26a, 126a) is designed as a connection element which connects two free ends of the first support means (26a, 126a) together. - a first elevator car (14, 114) which can be moved in a first elevator shaft (12, 112) in the vertical direction, - a first closed support means (26a, 26b, 26c, 26d, 126a, 126b) which is guided about a lower deflection roller and an upper deflection roller, - a first drive machine which is paired with the support means (26a, 126a), and - a first coupling device arranged on the first elevator car (14, 114),
A catalyst system comprising: a) one or more catalytic species comprising silver and tungsten therein, wherein the one or more catalytic species comprising silver and tungsten therein are selected from silver tungstate-containing species and/or silver phosphotungstate -containing species; and b) one or more catalytic species suitable for hydrogenation, wherein the one or more catalytic species suitable for hydrogenation are selected from one or more transition metals from Groups 8, 9 or 10 of the Periodic Table, and compounds thereof; wherein the weight ratio of the one or more catalytic species comprising silver and tungsten therein to the one or more catalytic species suitable for hydrogenation is in the range of from 0.02:1 to 3000:1, on the basis of the total weight of the catalyst system. a) one or more catalytic species comprising silver and tungsten therein, wherein the one or more catalytic species comprising silver and tungsten therein are selected from silver tungstate-containing species and/or silver phosphotungstate -containing species; and b) one or more catalytic species suitable for hydrogenation, wherein the one or more catalytic species suitable for hydrogenation are selected from one or more transition metals from Groups 8, 9 or 10 of the Periodic Table, and compounds thereof;