mhurhangee/ep-ind-claims huggingface dataset:
A method of decoding video information by a decoding apparatus, comprising: receiving video information including a skip flag, prediction mode information, partition information and a merge flag; checking whether a skip mode is applied for a current coding unit based on the skip flag; checking, when the skip mode is not applied for the current coding unit, whether an inter prediction is applied for the current coding unit based on the prediction mode information and deriving a partition mode which corresponds to a prediction unit from the current coding unit based on a partition type obtained from the partition information; checking whether a merge mode is applied for the prediction unit based on the merge flag when the skip mode is not applied for the current coding unit and the inter prediction is applied for the current coding unit; and performing prediction on the prediction unit based on the result of checking whether merge mode is applied for the prediction unit, wherein the partition information indicates one of partition types comprising 2Nx2N partition type, 2NxN partition type and Nx2N partition type based on one of binary codes, wherein the partition information is checked by the decoding apparatus before checking of the merge flag by the decoding apparatus, and in that the binary codes comprise a binary code for the 2Nx2N partition type indicating '1', a binary code for the 2NxN partition type indicating '01', and a binary code for the Nx2N partition type indicating '001'. receiving video information including a skip flag, prediction mode information, partition information and a merge flag; checking whether a skip mode is applied for a current coding unit based on the skip flag; checking, when the skip mode is not applied for the current coding unit, whether an inter prediction is applied for the current coding unit based on the prediction mode information and deriving a partition mode which corresponds to a prediction unit from the current coding unit based on a partition type obtained from the partition information; checking whether a merge mode is applied for the prediction unit based on the merge flag when the skip mode is not applied for the current coding unit and the inter prediction is applied for the current coding unit; and performing prediction on the prediction unit based on the result of checking whether merge mode is applied for the prediction unit, wherein the partition information indicates one of partition types comprising 2Nx2N partition type, 2NxN partition type and Nx2N partition type based on one of binary codes, wherein the partition information is checked by the decoding apparatus before checking of the merge flag by the decoding apparatus, and in that the binary codes comprise a binary code for the 2Nx2N partition type indicating '1', a binary code for the 2NxN partition type indicating '01', and a binary code for the Nx2N partition type indicating '001'.
A laser processing method of forming a through-hole in a workpiece by means of a pulsed laser beam, comprising the steps of: providing a removable sacrifice layer on said workpiece; forming a through-hole in said workpiece by the laser beam in a state where said sacrifice layer is provided; and removing said sacrifice layer from said workpiece after said step of forming the through-hole, characterised in that the through hole is in the shape of a right cylinder. providing a removable sacrifice layer on said workpiece; forming a through-hole in said workpiece by the laser beam in a state where said sacrifice layer is provided; and removing said sacrifice layer from said workpiece after said step of forming the through-hole,
A process for the preparation of amorphous atorvastatin calcium which comprises: a) dissolving a compound of formula I or II wherein R 1 and R 2 may independently represent hydrogen, Alkyl with one to three carbon atoms, phenyl, or R 1 In R 2 are taken together as (-CH 2) n -, wherein n may be 4 or 5; R 3 may represent straight or branched chain alkyl of from one to eight carbon atoms or cycloalkyl of from three to six carbon atoms group -O-R 3 may be substituted by the group with the formula: wherein R 4 and R 5 may independently represent alkyl with one to ten carbon atoms, cyclopropyl, cyclobutyl, cyclopentyl, cyclohexyl, benzyl or phenyl, or R 4 in R 5 are taken together to form: -(CH 2) 4 -, -(CH 2) 5 -, -(CH(R 6)-CH 2) 3 -, -(CH(R 6)-CH 2) 4 -, -(CH(R 6)-(CH 2) 2 -CH(R 6))-, -(CH(R 6)-(CH 2) 3 -CH(R 6))-, -CH 2 -CH 2 -O-CH 2 -CH 2 -,-CH(R 6)-CH 2 -O-CH 2 -CH 2 -, -CH(R 6)-CH 2 -O-CH 2 -CH 2 (R 6)-, wherein R 6 represents alkyl with one to four carbon atoms, in tetrahydrofuran, b) preparation of a neutral reaction mixture containing sodium salt of atorvastatin in a mixture of tetrahydrofuran and water, c) addition of cyclic hydrocarbon solvent selected from the group consisting of cyclohexane, cyclopentane, and methyl cyclohexane, d) addition of an equivalent or an excess quantity of calcium ions source selected from the group consisting of calcium acetate and calcium chloride, e) isolation of atorvastatin calcium. a) dissolving a compound of formula I or II wherein R 1 and R 2 may independently represent hydrogen, Alkyl with one to three carbon atoms, phenyl, or R 1 In R 2 are taken together as (-CH 2) n -, wherein n may be 4 or 5; R 3 may represent straight or branched chain alkyl of from one to eight carbon atoms or cycloalkyl of from three to six carbon atoms group -O-R 3 may be substituted by the group with the formula: wherein R 4 and R 5 may independently represent alkyl with one to ten carbon atoms, cyclopropyl, cyclobutyl, cyclopentyl, cyclohexyl, benzyl or phenyl, or R 4 in R 5 are taken together to form: -(CH 2) 4 -, -(CH 2) 5 -, -(CH(R 6)-CH 2) 3 -, -(CH(R 6)-CH 2) 4 -, -(CH(R 6)-(CH 2) 2 -CH(R 6))-, -(CH(R 6)-(CH 2) 3 -CH(R 6))-, -CH 2 -CH 2 -O-CH 2 -CH 2 -,-CH(R 6)-CH 2 -O-CH 2 -CH 2 -, -CH(R 6)-CH 2 -O-CH 2 -CH 2 (R 6)-, wherein R 6 represents alkyl with one to four carbon atoms, in tetrahydrofuran, wherein R 1 and R 2 may independently represent hydrogen, Alkyl with one to three carbon atoms, phenyl, or R 1 In R 2 are taken together as (-CH 2) n -, wherein n may be 4 or 5; R 3 may represent straight or branched chain alkyl of from one to eight carbon atoms or cycloalkyl of from three to six carbon atoms group -O-R 3 may be substituted by the group with the formula: b) preparation of a neutral reaction mixture containing sodium salt of atorvastatin in a mixture of tetrahydrofuran and water, c) addition of cyclic hydrocarbon solvent selected from the group consisting of cyclohexane, cyclopentane, and methyl cyclohexane, d) addition of an equivalent or an excess quantity of calcium ions source selected from the group consisting of calcium acetate and calcium chloride, e) isolation of atorvastatin calcium.
A process for the obtaining of granules useful for the manufacture of a silicon carbide based sintered product, comprising the following steps: a) mixing a first powder of silicon carbide SiC particles, whose average diameter d 50 is 2 micrometers or more than 2 micrometers with a second powder of a boron compound particles, more particularly boron carbide particles, whose average diameter d 50 is also 2 micrometers or more than 2 micrometers, the SiC particles content being more than 90% by weight of said powder mixture, b) co-milling the mixture of SiC and boron compound particles until the overall average diameter D 50 of the resulting particles size is between 0,3 and 1 micrometers, c) chemically treating the mixture at least by base solution and then by acid wash, d) mixing of the powder mixture coming from step c) with 1 to 10% by weight, based upon the silicon carbide content, of a carbon containing resin having a water miscibility of more than 10:50, as measured according to the ISO8989 standard, and preferably with a temporary binder and possibly a lubricant, e) spray-drying of the resulting mixture from step d), so as to generate said granules. a) mixing a first powder of silicon carbide SiC particles, whose average diameter d 50 is 2 micrometers or more than 2 micrometers with a second powder of a boron compound particles, more particularly boron carbide particles, whose average diameter d 50 is also 2 micrometers or more than 2 micrometers, the SiC particles content being more than 90% by weight of said powder mixture, b) co-milling the mixture of SiC and boron compound particles until the overall average diameter D 50 of the resulting particles size is between 0,3 and 1 micrometers, c) chemically treating the mixture at least by base solution and then by acid wash, d) mixing of the powder mixture coming from step c) with 1 to 10% by weight, based upon the silicon carbide content, of a carbon containing resin having a water miscibility of more than 10:50, as measured according to the ISO8989 standard, and preferably with a temporary binder and possibly a lubricant, e) spray-drying of the resulting mixture from step d), so as to generate said granules.
A radial head trial device for replacement of a proximal radial head, the device comprising: a stem component including a shaft portion and a spherical boss portion; and a head component axially and removably attachable to the stem component, the head component having a spherical recess and an annular shoulder adjacent the spherical recess; wherein the spherical boss portion is structured to be received in the spherical recess to attach the head component to the stem component; and wherein the annular shoulder is capable of deflecting to allow the spherical recess to be pressed onto the spherical boss portion to attach the head component to the stem component, characterised in that the annular shoulder includes at least one slot, the slot providing stress relief as the head component is attached to the stem component. a stem component including a shaft portion and a spherical boss portion; and a head component axially and removably attachable to the stem component, the head component having a spherical recess and an annular shoulder adjacent the spherical recess; wherein the spherical boss portion is structured to be received in the spherical recess to attach the head component to the stem component; and wherein the annular shoulder is capable of deflecting to allow the spherical recess to be pressed onto the spherical boss portion to attach the head component to the stem component, characterised in that the annular shoulder includes at least one slot, the slot providing stress relief as the head component is attached to the stem component.
A method of determining the ground-to-tyre friction coefficient for an aircraft landing event, the method comprising: providing a plurality of aircraft data parameters including aircraft vertical acceleration to an aircraft computational model and repeatedly modelling the landing event using the aircraft computational model by varying one or more initial conditions of the aircraft model until a best match between a modelled value of aircraft vertical acceleration and the provided value of aircraft vertical acceleration is determined; providing the aircraft computational model initial conditions associated with the best match of modelled and provided aircraft vertical acceleration values to a landing gear computational model and also providing a strain value derived from a first sensor located on the aircraft landing gear to the landing gear computational model, the landing gear computational model having a value for the ground-to-tyre friction coefficient as a variable condition; modelling the landing gear to generate a modelled strain value and comparing the modelled strain value with the measured strain value; and repeating the landing gear modelling step with a different value for the ground-to-tyre friction coefficient until a best match between the modelled strain value and the measured strain value is determined and outputting the respective friction coefficient value. providing a plurality of aircraft data parameters including aircraft vertical acceleration to an aircraft computational model and repeatedly modelling the landing event using the aircraft computational model by varying one or more initial conditions of the aircraft model until a best match between a modelled value of aircraft vertical acceleration and the provided value of aircraft vertical acceleration is determined; providing the aircraft computational model initial conditions associated with the best match of modelled and provided aircraft vertical acceleration values to a landing gear computational model and also providing a strain value derived from a first sensor located on the aircraft landing gear to the landing gear computational model, the landing gear computational model having a value for the ground-to-tyre friction coefficient as a variable condition; modelling the landing gear to generate a modelled strain value and comparing the modelled strain value with the measured strain value; and repeating the landing gear modelling step with a different value for the ground-to-tyre friction coefficient until a best match between the modelled strain value and the measured strain value is determined and outputting the respective friction coefficient value.
A method for testing the water resistance of at least one timepiece, characterized in that it comprises the following stages: E1 - Measuring the rate of the timepiece when subjected to a first external pressure, in particular atmospheric pressure, in order to obtain a first reference rate value; E2 - Measuring the rate of the timepiece when subjected to a second external pressure inside a pressurization chamber, in order to obtain a second rate value under pressure; the two stages (E1, E2) involving measuring the rate of the timepiece comprising measuring the time-related difference between two display values for the timepiece (E11, E12; E21, E22) provided by two status reports (PE11, PE12; PE21, PE22) for the timepiece, compared with a time (t1, t2) between said same two status reports measured by a reference clock, in order to get average rate values of the timepiece; E3 - Comparing the rate value under pressure and the reference rate value in order to deduce therefrom the presence or otherwise of a deficiency in the water resistance in the event of a variation in excess of a predefined threshold. E1 - Measuring the rate of the timepiece when subjected to a first external pressure, in particular atmospheric pressure, in order to obtain a first reference rate value; E2 - Measuring the rate of the timepiece when subjected to a second external pressure inside a pressurization chamber, in order to obtain a second rate value under pressure; the two stages (E1, E2) involving measuring the rate of the timepiece comprising measuring the time-related difference between two display values for the timepiece (E11, E12; E21, E22) provided by two status reports (PE11, PE12; PE21, PE22) for the timepiece, compared with a time (t1, t2) between said same two status reports measured by a reference clock, in order to get average rate values of the timepiece; E3 - Comparing the rate value under pressure and the reference rate value in order to deduce therefrom the presence or otherwise of a deficiency in the water resistance in the event of a variation in excess of a predefined threshold.
A method for beamforming information interaction, the method comprising: receiving, by a first network device, first beamforming information sent by a second network device, the first network device being a network device corresponding to a present serving cell for a terminal, the second network device being a neighbouring network device of the first network device, wherein the first beamforming information comprises first measurement configuration information of the second network device, and the first measurement configuration information comprises a measurement frequency, a measurement cycle, a measurement duration, and a beamforming resource allocation parameter; and configuring, by the first network device, the terminal according to the first beamforming information. receiving, by a first network device, first beamforming information sent by a second network device, the first network device being a network device corresponding to a present serving cell for a terminal, the second network device being a neighbouring network device of the first network device, wherein the first beamforming information comprises first measurement configuration information of the second network device, and the first measurement configuration information comprises a measurement frequency, a measurement cycle, a measurement duration, and a beamforming resource allocation parameter; and configuring, by the first network device, the terminal according to the first beamforming information.
Method for producing transparently sugar-coated chewing gum, having a heterogeneously structured chewing gum core and a transparent sugar-coated surface layer enveloping this core, comprising the following method steps: a) providing chewing gum core components, in particular at least one chewing gum base mass and at least one first carbohydrate, coloured carbohydrate particles with a particle diameter of 0.2 to 2 mm, and a transparent sugar-coating medium containing at least one second carbohydrate, b) mixing and kneading the chewing gum core components to obtain a chewing gum core mass, c) extruding the chewing gum core mass to obtain an extruded shaped chewing gum body, d) scattering the coloured carbohydrate particles on a surface of the extruded shaped chewing gum body, e) rolling the shaped chewing gum body scattered with coloured carbohydrate particles, f) cutting the rolled shaped chewing gum body obtained in step e) to obtain heterogeneously structured chewing gum cores, g) sugar-coating the heterogeneously structured chewing gum cores obtained in step f) with the transparent sugar-coating medium and h) obtaining transparently sugar-coated chewing gum, having a heterogeneously structured chewing gum core. a) providing chewing gum core components, in particular at least one chewing gum base mass and at least one first carbohydrate, coloured carbohydrate particles with a particle diameter of 0.2 to 2 mm, and a transparent sugar-coating medium containing at least one second carbohydrate, b) mixing and kneading the chewing gum core components to obtain a chewing gum core mass, c) extruding the chewing gum core mass to obtain an extruded shaped chewing gum body, d) scattering the coloured carbohydrate particles on a surface of the extruded shaped chewing gum body, e) rolling the shaped chewing gum body scattered with coloured carbohydrate particles, f) cutting the rolled shaped chewing gum body obtained in step e) to obtain heterogeneously structured chewing gum cores, g) sugar-coating the heterogeneously structured chewing gum cores obtained in step f) with the transparent sugar-coating medium and h) obtaining transparently sugar-coated chewing gum, having a heterogeneously structured chewing gum core.
A catheter tip (800, 1100, 1600, 1700) sized and configured to fit onto a distal end of a catheter shaft of a heart catheter, the catheter shaft having a shaft outer diameter, the catheter tip comprising: a base; a tip having an arcuate shape; an outer surface extending from the base to the tip along a longitudinal axis and being closed; and an inner surface (810, 1702) extending from the base, wherein the inner surface (810, 1702) defines at least one region within the catheter tip (800, 1100, 1600, 1700), wherein the catheter tip (800, 1100, 1600, 1700) is made of a biocompatible polymer, wherein the outer surface has a diameter at the base that is substantially equal to the shaft outer diameter; and wherein the inner surface (810, 1702) has a stepped arrangement and defines a first step region having a first diameter and a second step region having a second diameter, wherein the second diameter is less than the first diameter, and wherein the second region is distal of the first region and configured to receive at least one component extending beyond the distal end of the catheter shaft. a base; a tip having an arcuate shape; an outer surface extending from the base to the tip along a longitudinal axis and being closed; and an inner surface (810, 1702) extending from the base, wherein the inner surface (810, 1702) defines at least one region within the catheter tip (800, 1100, 1600, 1700), wherein the catheter tip (800, 1100, 1600, 1700) is made of a biocompatible polymer, wherein the outer surface has a diameter at the base that is substantially equal to the shaft outer diameter; and wherein the inner surface (810, 1702) has a stepped arrangement and defines a first step region having a first diameter and a second step region having a second diameter, wherein the second diameter is less than the first diameter, and wherein the second region is distal of the first region and configured to receive at least one component extending beyond the distal end of the catheter shaft.
A flange element (20, 50, 74) for a flange connection with a longitudinal centre axis A, the flange element (20, 50, 74) comprising a flange part (21, 51, 75) and an attachment part (22, 52, 76), wherein the flange part (21, 51, 75) has a front side (29, 59, 83) with a front surface (30, 60, 84) wherein the attachment part (22, 52, 76) is adapted for secure attachment to a tubular element comprising a tower section of the tower structure for a wind turbine or a pipe element that is part of an offshore load bearing structure, wherein the flange part (21, 51, 75) is arranged radially on the inside of the flange element (20, 50, 74) and characterized in that the flange part (21, 51, 75) is provided with a flange wedge (32, 62, 86) comprising a flange wedge surface (33, 63, 87) that is part of the front surface (30, 60, 84), and a flange heel (34, 64, 88) comprising a flange heel surface (35, 65, 89) that is part of the front surface (30, 60, 84), and wherein the flange wedge surface (33, 63, 87) makes a wedge surface angle α 1 and the flange heel surface (35, 65, 89) makes a heel surface angle β with a plane P that is perpendicular to the longitudinal centre axis A of the flange element (20, 50, 74).
A method for processing color image data to be displayed on a target device, the method comprising the steps of: - receiving input pixel data of a pixel within a source color gamut, - determining a color saturation value of the input pixel data of the incoming pixel, and in dependence thereof, - performing color gamut mapping operation on that incoming pixel on the fly such that the input pixel data is adaptively corrected for saturation by - mapping of the input pixel data from the source color gamut associated with the input pixel data to a target color gamut associated with the target device, the amount of mapping being adapted dynamically in dependence of the color saturation value of the input pixel data of the incoming pixel; wherein the amount of mapping is being adapted dynamically by calculating an adapted matrix, wherein the elements of the adapted matrix are generated from the elements of a measured matrix, which is based on a characteristic of the target device; and wherein the source color gamut and the target color gamut are provided in the form of RGB data and the RGB input data is transformed into RGB output data matching with the target color gamut. - receiving input pixel data of a pixel within a source color gamut, - determining a color saturation value of the input pixel data of the incoming pixel, and in dependence thereof, - performing color gamut mapping operation on that incoming pixel on the fly such that the input pixel data is adaptively corrected for saturation by - mapping of the input pixel data from the source color gamut associated with the input pixel data to a target color gamut associated with the target device, the amount of mapping being adapted dynamically in dependence of the color saturation value of the input pixel data of the incoming pixel;