mhurhangee/ep-ind-claims huggingface dataset:
Method for decoding a digital image signal in a decoding terminal, implementing variable-complexity decoding, enabling, for at least one step of the decoding, a selection of at least one decoding tool, among at least two available decoding tools, comprising the following steps: - reading, in said signal, of at least a first item of information of a type I, P or B of the images of said signal; - reading, in said signal, of at least a second item of information for identification, among said images, of first images, known as control images, said second item of identification information explicitly signalling whether a reference image of I, P or B type used for the prediction of other images is degradable or not; - from said second item of identification information, identification, among said images, of said control images corresponding to the non-degradable images, and second images, known as intermediate images corresponding to the degradable images; - application, to each of said control images, for at least one step of the decoding, of at least one predetermined decoding tool, imposed by said signal; - application, to at least one of said intermediate images, for at least one step of the decoding, of at least one decoding tool selected by said decoding terminal, and not imposed by said signal. - reading, in said signal, of at least a first item of information of a type I, P or B of the images of said signal; - reading, in said signal, of at least a second item of information for identification, among said images, of first images, known as control images, said second item of identification information explicitly signalling whether a reference image of I, P or B type used for the prediction of other images is degradable or not; - from said second item of identification information, identification, among said images, of said control images corresponding to the non-degradable images, and second images, known as intermediate images corresponding to the degradable images; - application, to each of said control images, for at least one step of the decoding, of at least one predetermined decoding tool, imposed by said signal; - application, to at least one of said intermediate images, for at least one step of the decoding, of at least one decoding tool selected by said decoding terminal, and not imposed by said signal.
A method of preparing 2,6,10-trimethyl-3,5,9-undecatrienyl-1- aldehyde of formula, comprising the following three steps: Step 1: 3-methyl-4,4-dialkoxy-1-aldehyde of formula undergoing a Wittig-Homer condensation reaction with tetra-alkyl methylene diphosphonate at temperature of 0~30°C in ether solvent or dipolar aprotic solvent and under protection of inert gas in the presence of bases, to produce 4-methyl-5,5-dialkoxy -1-pentenyl-1-phosphoric acid dialkyl ester of formula; the reaction sequence is described as follows: Step II comprises Step II-1 and Step II-2, wherein, Step II-1: 4-methyl-5,5-dialkoxy-1-pentenyl-1-phosphoric acid dialkyl ester of formula undergoing a rearrangement reaction at temperature of -40~30°C in ether solvent or dipolar aprotic solvent and under protection of inert gas in the presence of bases; Step II-2: adding 6-methyl-5-heptene-2-one of formula to the product of Step II-1 to undergo a Wittig-Homer condensation reaction at temperature of -40~30°C in ether solvent or dipolar aprotic solvent and in the presence of bases to produce 2,6,10-trimethyl-1,1-dialkoxy-3,5,9- undecan-triene of formula; the reaction sequence is described as follows: Step III: mixing2,6,10-trimethyl-1,1-dialkoxy-3,5,9- undecan-triene of formula with acid catalysts, water and homogeneous solvents to undergo a hydrolysis reaction at the temperature of 10~35°C, under protection of inert gas to produce 2,6,10-trimethyl-3,5,9- undecatrienyl-1-aldehyde of formula; the reaction sequence of Step III is described as follows: Step 1: 3-methyl-4,4-dialkoxy-1-aldehyde of formula undergoing a Wittig-Homer condensation reaction with tetra-alkyl methylene diphosphonate at temperature of 0~30°C in ether solvent or dipolar aprotic solvent and under protection of inert gas in the presence of bases, to produce 4-methyl-5,5-dialkoxy -1-pentenyl-1-phosphoric acid dialkyl ester of formula; the reaction sequence is described as follows: Step II comprises Step II-1 and Step II-2, wherein, Step II-1: 4-methyl-5,5-dialkoxy-1-pentenyl-1-phosphoric acid dialkyl ester of formula undergoing a rearrangement reaction at temperature of -40~30°C in ether solvent or dipolar aprotic solvent and under protection of inert gas in the presence of bases; Step II-2: adding 6-methyl-5-heptene-2-one of formula to the product of Step II-1 to undergo a Wittig-Homer condensation reaction at temperature of -40~30°C in ether solvent or dipolar aprotic solvent and in the presence of bases to produce 2,6,10-trimethyl-1,1-dialkoxy-3,5,9- undecan-triene of formula; the reaction sequence is described as follows: Step III: mixing2,6,10-trimethyl-1,1-dialkoxy-3,5,9- undecan-triene of formula with acid catalysts, water and homogeneous solvents to undergo a hydrolysis reaction at the temperature of 10~35°C, under protection of inert gas to produce 2,6,10-trimethyl-3,5,9- undecatrienyl-1-aldehyde of formula; the reaction sequence of Step III is described as follows:
Electrochemical cell comprising an anode, a cathode, at least one electrolyte and at least one separator, wherein the cathode is a composite electrode comprising an elastic, conductive polymeric binder having an aromatic backbone with polar side groups and a conversion material, - where the conversion material comprises at least one transition metal M and an anion X, where the transition metal is completely reducible in a cell charging operation of the electrochemical cell, where the conversion material is present as compound MX or MXY, where M is selected from the group consisting of: Fe, Bi, Ti, V, Co, Ni, Cu, Mn and mixtures thereof, where X is selected from the group consisting of: F, Cl, S, O, N and P and where Y is selected from the group of alkali metals and alkaline earth metals, C and Al, - where a proportion of conversion material to a proportion of polymeric binder is less than or equal to 99:1 and - where a proportion of polymeric binder is from 1 to 5% by weight, based on the total weight of the conversion material. - where the conversion material comprises at least one transition metal M and an anion X, where the transition metal is completely reducible in a cell charging operation of the electrochemical cell, where the conversion material is present as compound MX or MXY, where M is selected from the group consisting of: Fe, Bi, Ti, V, Co, Ni, Cu, Mn and mixtures thereof, where X is selected from the group consisting of: F, Cl, S, O, N and P and where Y is selected from the group of alkali metals and alkaline earth metals, C and Al, - where a proportion of conversion material to a proportion of polymeric binder is less than or equal to 99:1 and - where a proportion of polymeric binder is from 1 to 5% by weight, based on the total weight of the conversion material.
A method for using a medical syringe, in which method the medical syringe comprises a cylinder part with retaining lugs or a retaining flange and a needle, and a plunger part which is movable within the cylinder part by moving a plunger rod extending outside the cylinder part with respect to the cylinder part, and the method comprising moving the plunger part with respect to the cylinder part by at least one industrial robot by moving the arm of the industrial robot either outwards for drawing liquid into the medical syringe or inwards for injecting the liquid out of the medical syringe, and wherein the plunger part is gripped with a gripper (6; 21) configured to prevent the plunger part from turning with respect to the gripper (6; 21), at least in the direction of a plane parallel to the longitudinal direction of the plunger part characterized in that the medical syringe is held in place by gripping it only from the plunger part by the gripper (6; 21) having two fingers, which are movable against each other, and provided with central flange grooves, in which the drive flange at the end of the plunger rod is received when the fingers are moved against each other at the end of the arm of the industrial robot and by supporting the cylinder part at its retaining lugs or flange to a retaining member (8, 9; 22a, 22b) that does not compress the cylinder part, to prevent the movement of the cylinder part at least in the direction of movement of the plunger part when the plunger part is moved.
A method for forming a sub-micron 3D optical material structure on a diffractive optics element without planarization, the method comprising: A) depositing a material stack to be patterned on a substrate; B) depositing and patterning a mask material on a portion of the material stack; C) etching the material stack down one level; D) trimming a side portion of the mask material; E) etching the material stack down one more level; F) repeating D and E 'N' times; G) stripping the mask material from the material stack; and H) skipping the trimming of the sides of the mask material for one or more etching operations. A) depositing a material stack to be patterned on a substrate; B) depositing and patterning a mask material on a portion of the material stack; C) etching the material stack down one level; D) trimming a side portion of the mask material; E) etching the material stack down one more level; F) repeating D and E 'N' times; G) stripping the mask material from the material stack; and H) skipping the trimming of the sides of the mask material for one or more etching operations.
An optoelectronic device (10; 80; 90; 100; 105; 110; 115; 120; 130) comprising: a first circuit comprising a substrate comprising first and second opposite faces (32, 34), the first circuit comprising display pixels (Pix), each display pixel comprising, on the side of the first face, a first light-emitting diode comprising a first active region adapted to emit a first radiation at a first wavelength in the range from 600 nm to 720 nm and, extending from the second face, a second light-emitting diode (18, 20; 92, 94; 116, 118) comprising a second active region adapted to emit a second radiation, the surface area, viewed from a direction orthogonal to the first face, of the first active region being at least twice as big as the surface area, viewed from said direction, of the second active region; and a second circuit bonded to the first circuit on the side of the first light-emitting diode and electrically linked to the first and second light-emitting diodes. a first circuit comprising a substrate comprising first and second opposite faces (32, 34), the first circuit comprising display pixels (Pix), each display pixel comprising, on the side of the first face, a first light-emitting diode comprising a first active region adapted to emit a first radiation at a first wavelength in the range from 600 nm to 720 nm and, extending from the second face, a second light-emitting diode (18, 20; 92, 94; 116, 118) comprising a second active region adapted to emit a second radiation, the surface area, viewed from a direction orthogonal to the first face, of the first active region being at least twice as big as the surface area, viewed from said direction, of the second active region; and a second circuit bonded to the first circuit on the side of the first light-emitting diode and electrically linked to the first and second light-emitting diodes.
A method for coating a substrate for a gas turbine engine, the method comprising: heating a substrate; depositing a coating on the heated substrate; and forming an expansion slit in the coating, wherein a height of the expansion slit is inclined at a non-zero angle relative to a direction (D 1) normal to the substrate for preventing direct exposure of the substrate to electromagnetic radiation; characterised in that: the method includes providing a spacer extending upward from the substrate; and the depositing step includes depositing a first section of coating and depositing a second section of coating adjacent the first section of coating, the first section and the second section deposited on opposite sides of said spacer such that the expansion slit is provided between the first section and the second section. heating a substrate; depositing a coating on the heated substrate; and forming an expansion slit in the coating, wherein a height of the expansion slit is inclined at a non-zero angle relative to a direction (D 1) normal to the substrate for preventing direct exposure of the substrate to electromagnetic radiation; characterised in that: the method includes providing a spacer extending upward from the substrate; and the depositing step includes depositing a first section of coating and depositing a second section of coating adjacent the first section of coating, the first section and the second section deposited on opposite sides of said spacer such that the expansion slit is provided between the first section and the second section. the method includes providing a spacer extending upward from the substrate; and the depositing step includes depositing a first section of coating and depositing a second section of coating adjacent the first section of coating, the first section and the second section deposited on opposite sides of said spacer such that the expansion slit is provided between the first section and the second section.
Preparation for use for the magnetization and removal of kidney stones or kidney stone fragments, comprising: - magnetic particles, - at least one salt selected from the group consisting of: chlorides, perchlorates and phosphates of Li, Na, K, ammonium, Mg and Ca, and - at least one solvent, wherein the preparation is in the form of a solution, a suspension or a dispersion. - magnetic particles, - at least one salt selected from the group consisting of: chlorides, perchlorates and phosphates of Li, Na, K, ammonium, Mg and Ca, and - at least one solvent, wherein the preparation is in the form of a solution, a suspension or a dispersion.
A computer-implemented method comprising: obtaining one or more resource movement policies, the one or more resource movement policies indicating one or more desired execution conditions; determining, based at least in part on one of the one or more resource movement policies, to move a first one or more computing resources deployed within a provider substrate extension (102, 218, 300, 322) of a cloud provider network (100, 400) to a computing environment that is geographically separate from the provider substrate extension (102, 218, 300, 322), where the provider substrate extension (102, 218, 300, 322) is part of a communications service provider network (900, 1000) that is separate from the cloud provider network (100, 400), and the provider substrate extension (102, 218, 300, 322) is controlled at least in part by the cloud provider network (100, 400); and causing a second one or more computing resources to be deployed in the computing environment, the second one or more computing resources corresponding to the first one or more computing resources. obtaining one or more resource movement policies, the one or more resource movement policies indicating one or more desired execution conditions; determining, based at least in part on one of the one or more resource movement policies, to move a first one or more computing resources deployed within a provider substrate extension (102, 218, 300, 322) of a cloud provider network (100, 400) to a computing environment that is geographically separate from the provider substrate extension (102, 218, 300, 322), where the provider substrate extension (102, 218, 300, 322) is part of a communications service provider network (900, 1000) that is separate from the cloud provider network (100, 400), and the provider substrate extension (102, 218, 300, 322) is controlled at least in part by the cloud provider network (100, 400); and causing a second one or more computing resources to be deployed in the computing environment, the second one or more computing resources corresponding to the first one or more computing resources.
Measuring device (15; 30; 30a; 40) for a laser beam processing apparatus, wherein a ring-shaped laser beam for processing at least one component is generated in a processing region by means of the laser beam processing apparatus and with at least one optical element, which is arranged in the beam path of the laser beam (5, 6) and deflects the laser beam (5, 6) to a sensor, characterized in that the optical element is arranged in the processing region of the at least one component and in that the optical element has a reflection surface (20; 20a; 34) which deflects the ring-shaped laser beam onto the sensor, the reflection surface (20; 20a; 34) having a cone-like embodiment, and in that the optical element has a longitudinal axis (18; 32), the longitudinal axis (18; 32) being aligned perpendicular to the beam plane of the ring-shaped laser beam.
A method for producing a hydrocarbon product, comprising: applying an alcohol broth to a primary beer column pre-heater to generate a heated alcohol broth; transferring the heated alcohol broth to a beer column, wherein the beer column is configured to produce a first intermediate product stream comprising an alcohol/water mixture and a second intermediate product stream comprising residual matter; directing the first intermediate product stream to a reactor pre-heater to produce a pre-heated first intermediate product stream having a temperature of at least 220 °C; directing the pre-heated first intermediate product stream to a furnace to produce a heated first intermediate product stream having a temperature of at least 250 °C; directing the heated first intermediate product stream to a catalytic reactor to generate a third intermediate product stream comprising a hydrocarbon product, water, and a light hydrocarbon; directing the third intermediate product stream to a phase separator along a heat transfer route, wherein the heat transfer route is configured to transfer at least a portion of heat energy of the third intermediate product stream to the reactor pre-heater, the beer column, and the primary beer column pre-heater; separating, in the phase separator, the third intermediate product stream into a hydrocarbon product stream comprising the hydrocarbon product, a water stream, and a light hydrocarbon fraction stream and optionally directing at least a portion of the light hydrocarbon fraction stream to the furnace for use as a fuel; and collecting the hydrocarbon product. applying an alcohol broth to a primary beer column pre-heater to generate a heated alcohol broth; transferring the heated alcohol broth to a beer column, wherein the beer column is configured to produce a first intermediate product stream comprising an alcohol/water mixture and a second intermediate product stream comprising residual matter; directing the first intermediate product stream to a reactor pre-heater to produce a pre-heated first intermediate product stream having a temperature of at least 220 °C; directing the pre-heated first intermediate product stream to a furnace to produce a heated first intermediate product stream having a temperature of at least 250 °C; directing the heated first intermediate product stream to a catalytic reactor to generate a third intermediate product stream comprising a hydrocarbon product, water, and a light hydrocarbon; directing the third intermediate product stream to a phase separator along a heat transfer route, wherein the heat transfer route is configured to transfer at least a portion of heat energy of the third intermediate product stream to the reactor pre-heater, the beer column, and the primary beer column pre-heater; separating, in the phase separator, the third intermediate product stream into a hydrocarbon product stream comprising the hydrocarbon product, a water stream, and a light hydrocarbon fraction stream and optionally directing at least a portion of the light hydrocarbon fraction stream to the furnace for use as a fuel; and collecting the hydrocarbon product.
Drug combination comprising gaseous xenon and at least one antagonist of the NMDA receptors in a liquid or solid form for treating a disease caused by a dysfunction of the dopaminergic synaptic transmission resulting from an attrition of the cell body, a reduction of the neuritic arborisation or a reduction of synaptic functioning in a human patient, wherein: - the antagonist of the NMDA receptors is selected from among memantine, nitromemantine, amantadine and ifenprodil, and - the disease caused by a dysfunction of the dopaminergic synaptic transmission is selected from among Parkinson's disease, dyskinesia, schizophrenia, restless legs syndrome, Tourette's syndrome, addictive behaviours, severe depression and attention deficit disorders with or without hyperactivity. - the antagonist of the NMDA receptors is selected from among memantine, nitromemantine, amantadine and ifenprodil, and - the disease caused by a dysfunction of the dopaminergic synaptic transmission is selected from among Parkinson's disease, dyskinesia, schizophrenia, restless legs syndrome, Tourette's syndrome, addictive behaviours, severe depression and attention deficit disorders with or without hyperactivity.
Separating element (100, 200, 300, 400) for a perforated sterilization basket for sterilizing medical instruments, comprising two lateral wall portions and a central wall portion (101, 201, 301, 401) located therebetween, wherein the separating element (100, 200, 300, 400) is substantially planar, and the central wall portion (101, 201, 301, 401) has a plurality of throughopenings (102, 202, 302, 402), characterized in that one lateral wall portion has a slot-shaped cut-out (111, 211, 311, 411), and so the lateral region (110, 210, 310, 410) of this lateral wall portion separated by the slot-shaped cut-out (111, 211, 311, 411) is in the form of a resilient portion (112, 212, 312, 412), wherein the resilient portion (112, 212, 312, 412) has a number of projections (114, 214, 314, 414) which extend at least in the lateral direction, wherein the resilient portion (112, 212, 312, 412) is elastically deformable toward the central wall portion (101, 201, 301, 401) to such an extent that the maximum lateral extension of the separating element (100, 200, 300, 400) is reduced, and the other lateral wall portion has a number of projections (121, 214, 314, 421) which extend at least partially in the lateral direction, wherein the number of projections (114, 121, 214, 314, 414, 421) is adapted to be anchored in a wall of a perforated sterilization basket and/or in another separating element (100, 200, 300, 400). two lateral wall portions and a central wall portion (101, 201, 301, 401) located therebetween, wherein the separating element (100, 200, 300, 400) is substantially planar, and the central wall portion (101, 201, 301, 401) has a plurality of throughopenings (102, 202, 302, 402), characterized in that one lateral wall portion has a slot-shaped cut-out (111, 211, 311, 411), and so the lateral region (110, 210, 310, 410) of this lateral wall portion separated by the slot-shaped cut-out (111, 211, 311, 411) is in the form of a resilient portion (112, 212, 312, 412), wherein the resilient portion (112, 212, 312, 412) has a number of projections (114, 214, 314, 414) which extend at least in the lateral direction, wherein the resilient portion (112, 212, 312, 412) is elastically deformable toward the central wall portion (101, 201, 301, 401) to such an extent that the maximum lateral extension of the separating element (100, 200, 300, 400) is reduced, and the other lateral wall portion has a number of projections (121, 214, 314, 421) which extend at least partially in the lateral direction, wherein the number of projections (114, 121, 214, 314, 414, 421) is adapted to be anchored in a wall of a perforated sterilization basket and/or in another separating element (100, 200, 300, 400).