mhurhangee/ep-ind-claims huggingface dataset:
A method for coding a High-Dynamic-Range image represented by RGB color components, characterized in that the method comprises: - deriving one High-Dynamic-Range luma component (Y') and two High-Dynamic-Range chroma components (U', V') from a weighted sum of gamma-compressed versions of the RGB color components of the High-Dynamic-Range image; - applying a transfer function to said High-Dynamic-Range luma component (Y') to obtain a Standard-Dynamic-Range luma component ( y' 1), said transfer function being based on a parametric piece-wise curve constructed out of three sections, two of these sections being linear and the steepness of these linear sections being defined in order to reduce the dynamic range of the values of said High-Dynamic-Range luma component (Y'); - applying the inverse of the transfer function to said Standard-Dynamic-Range luma component ( y' 1) to obtain a reconstructed High-Dynamic-Range luma component ( Ŷ'); - correcting said two High-Dynamic-Range chroma components (U', V') to obtain two Standard-Dynamic-Range chroma components (u', v') by dividing the two High-Dynamic-Range chroma components (U', V') by a scaling function that depends on the ratio of said reconstructed High-Dynamic-Range luma component ( Ŷ') over Standard-Dynamic-Range luma component ( y' 1); and - encoding in a bitstream said Standard-Dynamic-Range luma component ( y' 1) and said two Standard-Dynamic-Range chroma components (u', v'), wherein the number of bits to represent the values of High-Dynamic-Range components is greater than the number of bits to represent the values of Standard-Dynamic-Range components. - deriving one High-Dynamic-Range luma component (Y') and two High-Dynamic-Range chroma components (U', V') from a weighted sum of gamma-compressed versions of the RGB color components of the High-Dynamic-Range image; - applying a transfer function to said High-Dynamic-Range luma component (Y') to obtain a Standard-Dynamic-Range luma component ( y' 1), said transfer function being based on a parametric piece-wise curve constructed out of three sections, two of these sections being linear and the steepness of these linear sections being defined in order to reduce the dynamic range of the values of said High-Dynamic-Range luma component (Y'); - applying the inverse of the transfer function to said Standard-Dynamic-Range luma component ( y' 1) to obtain a reconstructed High-Dynamic-Range luma component ( Ŷ'); - correcting said two High-Dynamic-Range chroma components (U', V') to obtain two Standard-Dynamic-Range chroma components (u', v') by dividing the two High-Dynamic-Range chroma components (U', V') by a scaling function that depends on the ratio of said reconstructed High-Dynamic-Range luma component ( Ŷ') over Standard-Dynamic-Range luma component ( y' 1); and - encoding in a bitstream said Standard-Dynamic-Range luma component ( y' 1) and said two Standard-Dynamic-Range chroma components (u', v'),
A rig for removal of tubing from a well, e.g. a hydrocarbon well, the rig comprising: a working floor having a well center, which well center defines a vertical firing line that is to be aligned with the well; a tower structure provided with a tripping operation elevator, adapted to engage an upper end of the tubing, preferably for engaging the tubing just below a connector of a tubular, and for lifting the tubing along the firing line out of the well; a slip device, arranged at the well center and adapted for engaging the tubing and to suspend the tubing in the firing line; characterized, in that the rig further comprises a cable clamp removal device, adapted to remove cable clamps (2135, 2136) from the tubing and to thus enable stripping the cables and/or control lines from the exterior of the tubing, to provide tubing having an exterior cleared from cables and/or control lines, and a tubulars connection makeup and breaking device, e.g. an iron roughneck machine or mechanized tong device, and/or a tubing cutting device, which makeup and breaking device and/or tubing cutting device are/is located above the slip device, for in line braking out or cutting a tubulars stand from the tubing suspended by the slip device. a working floor having a well center, which well center defines a vertical firing line that is to be aligned with the well; a tower structure provided with a tripping operation elevator, adapted to engage an upper end of the tubing, preferably for engaging the tubing just below a connector of a tubular, and for lifting the tubing along the firing line out of the well; a slip device, arranged at the well center and adapted for engaging the tubing and to suspend the tubing in the firing line; characterized, in that the rig further comprises a cable clamp removal device, adapted to remove cable clamps (2135, 2136) from the tubing and to thus enable stripping the cables and/or control lines from the exterior of the tubing, to provide tubing having an exterior cleared from cables and/or control lines, and a tubulars connection makeup and breaking device, e.g. an iron roughneck machine or mechanized tong device, and/or a tubing cutting device, which makeup and breaking device and/or tubing cutting device are/is located above the slip device, for in line braking out or cutting a tubulars stand from the tubing suspended by the slip device.
An apparatus for controlling optical waveform, comprising: an input port configured to input a signal light (λs) having a modulating frequency and a signal light power; a pump light generator configured to generate pulsed pump light (λp) having a pulsed pump light power (Pp) and a frequency higher than the modulating frequency of the signal light (λs); a nonlinear optical medium configured to transmit the signal light (λs) from the input port and the pulsed pump light (λp) from the pump light generator, the nonlinear optical medium having a gain of the signal light (λs) based on a nonlinear optical effect; and a first power adjustor configured to adjust the signal light power (Ps-in) and a second power adjustor configured to adjust the pulsed pump light power (Pp), characterized by further comprising: a monitor configured to detect the power of signal light inputted into the nonlinear optical medium and the power of signal light outputted from the nonlinear optical medium; and a controller for controlling the power adjustors (12, 14) on the basis of a result of the monitor so as to saturate the gain of the signal light in the nonlinear optical medium. an input port configured to input a signal light (λs) having a modulating frequency and a signal light power; a pump light generator configured to generate pulsed pump light (λp) having a pulsed pump light power (Pp) and a frequency higher than the modulating frequency of the signal light (λs); a nonlinear optical medium configured to transmit the signal light (λs) from the input port and the pulsed pump light (λp) from the pump light generator, the nonlinear optical medium having a gain of the signal light (λs) based on a nonlinear optical effect; and a first power adjustor configured to adjust the signal light power (Ps-in) and a second power adjustor configured to adjust the pulsed pump light power (Pp), a monitor configured to detect the power of signal light inputted into the nonlinear optical medium and the power of signal light outputted from the nonlinear optical medium; and a controller for controlling the power adjustors (12, 14) on the basis of a result of the monitor so as to saturate the gain of the signal light in the nonlinear optical medium.
A sealing glass composition, comprising: boron oxide present in an amount in a range from 10 weight percent to 50 weight percent, aluminum oxide present in an amount in a range from 10 weight percent to 50 weight percent, barium oxide present in an amount in a range from 10 weight percent to 40 weight percent, and zirconium oxide present in an amount in a range from 1 weight percent to 20 weight percent, wherein the glass composition is substantially free of silicon oxide and titanium oxide. boron oxide present in an amount in a range from 10 weight percent to 50 weight percent, aluminum oxide present in an amount in a range from 10 weight percent to 50 weight percent, barium oxide present in an amount in a range from 10 weight percent to 40 weight percent, and zirconium oxide present in an amount in a range from 1 weight percent to 20 weight percent, wherein the glass composition is substantially free of silicon oxide and titanium oxide.
A robotic catheter system, the system comprising: a motor drive base (22, 302) comprising one or more drive motors located in the motor drive base; a cassette (22, 300) including a cassette housing (42, 316) and an axial drive assembly; wherein the axial drive assembly includes: a first axial drive mechanism (48, 212, 350) supported by the cassette housing and configured to releasably engage and impart axial movement to a guide wire (50, 301) along a longitudinal axis of the guide wire, wherein the guide wire extends out of a rear of the first axial drive mechanism and exits a front end of the cassette housing (42, 316); and a second axial drive mechanism (52, 352) configured to releasably engage and impart axial movement to a catheter device (54, 303) along a longitudinal axis of the catheter device; wherein the catheter device exits the front end of the cassette housing over the guide wire; wherein the motor drive base (22, 302) further includes one or more motor couplers configured to couple the one or more motors to the axial drive mechanisms within the cassette. a motor drive base (22, 302) comprising one or more drive motors located in the motor drive base; a cassette (22, 300) including a cassette housing (42, 316) and an axial drive assembly; wherein the axial drive assembly includes: a first axial drive mechanism (48, 212, 350) supported by the cassette housing and configured to releasably engage and impart axial movement to a guide wire (50, 301) along a longitudinal axis of the guide wire, wherein the guide wire extends out of a rear of the first axial drive mechanism and exits a front end of the cassette housing (42, 316); and a second axial drive mechanism (52, 352) configured to releasably engage and impart axial movement to a catheter device (54, 303) along a longitudinal axis of the catheter device; a first axial drive mechanism (48, 212, 350) supported by the cassette housing and configured to releasably engage and impart axial movement to a guide wire (50, 301) along a longitudinal axis of the guide wire, wherein the guide wire extends out of a rear of the first axial drive mechanism and exits a front end of the cassette housing (42, 316); and a second axial drive mechanism (52, 352) configured to releasably engage and impart axial movement to a catheter device (54, 303) along a longitudinal axis of the catheter device; wherein the catheter device exits the front end of the cassette housing over the guide wire; wherein the motor drive base (22, 302) further includes one or more motor couplers configured to couple the one or more motors to the axial drive mechanisms within the cassette.
Organic acid anion containing aluminum salt hydroxide particles represented by the following general formula: M a [Al 1-x M' x] b A z B y n ·mH 2 O wherein M is at least one cation selected from Na +, K +, NH 4 + and H 3 O +, M' is at least one metal cation selected from Cu 2+, Zn 2+, Ni 2+, Sn 4+, Zr 4+, Fe 2+, Fe 3+ and Ti 4+, A is at least one organic acid anion selected from an oxalate ion, a citrate ion, a malate ion, a tartrate ion, a glycerate ion, a gallate ion and a lactate ion, B is at least one inorganic acid anion selected from a sulfate ion, a phosphate ion and a nitrate ion, and a, b, m, n, x, y and z satisfy 0.7 ≤ a ≤ 1.35, 2.7 ≤ b ≤ 3.3, 0 ≤ m ≤ 5, 4 ≤ n ≤ 7, 0 ≤ x ≤ 0.6, 1.7 ≤ y ≤ 2.4 and 0.001 ≤ z ≤ 0.5, respectively.
Test cell station for at least one electrochemical test cell, comprising a housing, at least one receptacle for contacting insertion of at least one electrochemical test cell and electrical connection means for electrical connection of a test cell inserted into the receptacle, wherein a thermally insulated temperature chamber with a controllable cooling/heating device for setting a temperature in the temperature chamber is integrated into the test cell station, wherein the receptacle is arranged in the test cell station in such a way that the corresponding receiving space for the electrochemical test cell is arranged within the temperature chamber, characterized in that a battery test device with a controllable potentiostat and/or galvanostat is integrated into the test cell station for each receptacle and the battery test device is arranged in the housing outside the temperature chamber, and the electrical connection means are guided through an intermediate wall in the housing.
A method of producing a methylsilisic acid hydrogel with properties of supramolecular structures, the method using a solution of sodium methyl siliconate, wherein a gaseous acid agent is passed through the solution of sodium methyl siliconate fed in a reactor, for bubbling, the resulting product is floated in a neck of the reactor, after the end of the process the product is discharged from the reactor, vacuumised to remove residual gas, and washed with water purified to pH 6.5-7.0 without residual amounts of anions, obtaining the methylsilisic acid hydrogel with properties of supramolecular structures, which is described by the formula: [{CH 3 Si 2 O 0,5} a / n {CH 3 Si O} b / n {CH 3 SiO 1, 5} c / n] · xH 2 O, where 11 ≤ x ≤ 35; 0 ≤ a n ≤ 0,38; 0,19 ≤ b n ≤ 0,9; 0,11 ≤ c n ≤ 0,49.
A method for determining a sequence of slabs fed to a hot rolling mill from an inventory sequence and a direct sequence according to processing of a computer, comprising the steps of: representing data of the inventory slab sequence and data of the direct slab sequence on a storage means of the computer as a data structure arranged respectively in first and second directions; forming a grid graph having intersections as nodes, from the data of the inventory slab sequence in the first direction and the data of the direct slab sequence in the second direction; weighting edges in the grid graph based on attributes of each slab in the inventory slab sequence and attributes of each slab in the direct slab sequence; and determining a combined slab sequence of the inventory slab sequence and the direct slab sequence, by a shortest path search from a start point to an end point in the weighted grid graph. representing data of the inventory slab sequence and data of the direct slab sequence on a storage means of the computer as a data structure arranged respectively in first and second directions; forming a grid graph having intersections as nodes, from the data of the inventory slab sequence in the first direction and the data of the direct slab sequence in the second direction; weighting edges in the grid graph based on attributes of each slab in the inventory slab sequence and attributes of each slab in the direct slab sequence; and determining a combined slab sequence of the inventory slab sequence and the direct slab sequence, by a shortest path search from a start point to an end point in the weighted grid graph.
A multi-cell medication cassette comprising an outer sleeve and a molded core slidable within said sleeve and having a plurality of upwardly opening cells for receiving medication, said molded core including releasable locking means provided either side of said molded core and engagable with said outer sleeve for locking said outer sleeve and said molded core in a closed position with said sleeve closing said upwardly opening cells and releasable to allow said molded core and locking means to slide into said sleeve to selectively expose and allow dispensing of any medication in said upwardly opening cells; characterized in that said molded core includes a machine readable code (31,60,62,64) to provide configuration details of said multi-cell cassette, and said locking means at each end (8,10) of said molded core includes a pair of opposed spring arms provided on the sides of the slidable core and movable between a lock position and a release position; said spring arms in said lock position engaging side edges of said sleeve at opposite ends (14,16) thereof restricting movement of said core within said sleeve with said sleeve closing said open topped cells and the ends of said core each extending beyond the ends (14,16) of said sleeve; each spring arm in said release position is receivable in said sleeve allowing sliding movement of said core relative to said sleeve to progressively position said open topped cells beyond said sleeve and allow removal of any medication within said cells; and wherein each spring arm when moved to said release position moves inwardly into a side recess in the respective end of said core to allow said spring arms and the end of said molded core to enter said sleeve; said molded core including a machine readable indentifier providing details of medication within the cells.
A semiconductor light-emitting apparatus comprising: a wiring substrate; multiple semiconductor light-emitting elements (2-1, 2-2, 2-3, 2-4; 2'-1, 2'-2, 2'-3, 2'-4) mounted via multiple eutectic layers (3-1, 3-2, 3-3, 3-4), respectively, on said wiring substrate; and a wave length-converting plate mounted via multiple transparent adhesive layers (5-1, 5-2, 5-3, 5-4; 5'-1, 5'-2, 5'-3, 5'-4) on upper surfaces of said semiconductor light-emitting elements (2-1, 2-2, 2-3, 2-4; 2'-1, 2'-2, 2'-3, 2'-4), respectively, characterized in that a standard deviation (σ1) of thicknesses of said transparent adhesive layers (5-1, 5-2, 5-3, 5-4; 5' -1, 5' -2, 5' -3, 5' -4) is smaller than a standard deviation (σ2) of thicknesses of said eutectic layers (3-1, 3-2, 3-3, 3-4). a wiring substrate; multiple semiconductor light-emitting elements (2-1, 2-2, 2-3, 2-4; 2'-1, 2'-2, 2'-3, 2'-4) mounted via multiple eutectic layers (3-1, 3-2, 3-3, 3-4), respectively, on said wiring substrate; and a wave length-converting plate mounted via multiple transparent adhesive layers (5-1, 5-2, 5-3, 5-4; 5'-1, 5'-2, 5'-3, 5'-4) on upper surfaces of said semiconductor light-emitting elements (2-1, 2-2, 2-3, 2-4; 2'-1, 2'-2, 2'-3, 2'-4), respectively, characterized in that a standard deviation (σ1) of thicknesses of said transparent adhesive layers (5-1, 5-2, 5-3, 5-4; 5' -1, 5' -2, 5' -3, 5' -4) is smaller than a standard deviation (σ2) of thicknesses of said eutectic layers (3-1, 3-2, 3-3, 3-4).
Method for producing at least one identical printed decoration for use in at least two different printing methods for printing at least two carrier materials, comprising the steps of a) provision of at least one print; b) conversion of the at least one print into at least one high-resolution electronic data record having a resolution of up to 1200 dpi, preferably 1000 dpi, using at least one piece of image editing software, c) digital separation of the colour information contained in the at least one electronic data record into a predetermined number N of colour channels, and independent editing of the colour information contained in each colour channel; d) reduction of the resolution of the electronic data obtained after editing in the N colour channels to up to 100 dpi, preferably 60 to 80 dpi, using at least one piece of image editing software, e) provision of at least M print cylinders using the data created and edited in the N colour channels for a first printed decoration that is to be created using the intaglio printing method; f) creation of the at least one first printed decoration using the intaglio printing method on at least one first carrier material using the at least M print cylinders; g) condensing of the separated colour information, in particular provided in step c), into at least one digital print file for a second printed decoration that is to be created using the digital printing method, and h) creation of at least one second printed decoration on at least one second carrier material using the at least one digital print file with at least one digital printer. a) provision of at least one print; b) conversion of the at least one print into at least one high-resolution electronic data record having a resolution of up to 1200 dpi, preferably 1000 dpi, using at least one piece of image editing software, c) digital separation of the colour information contained in the at least one electronic data record into a predetermined number N of colour channels, and independent editing of the colour information contained in each colour channel; d) reduction of the resolution of the electronic data obtained after editing in the N colour channels to up to 100 dpi, preferably 60 to 80 dpi, using at least one piece of image editing software, e) provision of at least M print cylinders using the data created and edited in the N colour channels for a first printed decoration that is to be created using the intaglio printing method; f) creation of the at least one first printed decoration using the intaglio printing method on at least one first carrier material using the at least M print cylinders; g) condensing of the separated colour information, in particular provided in step c), into at least one digital print file for a second printed decoration that is to be created using the digital printing method, and h) creation of at least one second printed decoration on at least one second carrier material using the at least one digital print file with at least one digital printer.
A method of increasing cellulolytic enhancing activity of a GH61 polypeptide, comprising: adding a divalent copper cation to a composition comprising the GH61 polypeptide, wherein the divalent copper cation is present at a concentration of 0.01 mM to 1 mM during degradation or conversion of a cellulosic material, wherein the increase in the cellulolytic enhancing activity of a GH61 polypeptide is compared to the absence of divalent copper cation, and wherein the GH61 polypeptide having cellulolytic enhancing activity comprises the following motifs: [ILMV]-P-X(4,5)-G-X-Y-[ILMV]-X-R-X- -X - (SEQ ID NO: 65 or SEQ ID NO: 66) and - -K-, wherein X is any amino acid, X(4,5) is any amino acid at 4 or 5 contiguous positions, and X is any amino acid at 4 contiguous positions.
A method for forming a multilayer structure on a substrate, comprising the following steps: - providing the substrate covered by a stack successively comprising an electron hole blocking layer, a first layer made from N-doped semiconductor material having a dopant concentration greater than or equal to 10 18 atoms/cm 3 or P-doped semiconductor material, and a second layer made from semiconductor material of different nature, the first layer being separated from the substrate by the electron hole blocking layer, - laterally delineating the stack by etching the electron hole blocking layer and the first and second layers (6,8) through a mask - making a lateral electric contact pad connecting the first layer and the substrate, - subjecting the stack to anodic treatment in an electrolyte such that the material of the first layer is transformed into porous material or is completely etched and such that the second layer is insensitive to anodic treatment. - providing the substrate covered by a stack successively comprising an electron hole blocking layer, a first layer made from N-doped semiconductor material having a dopant concentration greater than or equal to 10 18 atoms/cm 3 or P-doped semiconductor material, and a second layer made from semiconductor material of different nature, the first layer being separated from the substrate by the electron hole blocking layer, - laterally delineating the stack by etching the electron hole blocking layer and the first and second layers (6,8) through a mask - making a lateral electric contact pad connecting the first layer and the substrate, - subjecting the stack to anodic treatment in an electrolyte such that the material of the first layer is transformed into porous material or is completely etched and such that the second layer is insensitive to anodic treatment.