mhurhangee/ep-ind-claims huggingface dataset:
A combustor liner of a dual wall cooling structure comprising: an inner wall section configured to surround a combustion region and in which a plurality of effusion cooling holes are formed; and an outer wall section formed to be spaced apart from the inner wall section and in which a plurality of impingement cooling holes are formed, wherein the inner wall section is constituted by a plurality of plate-shaped members, a plurality of supporting guide members are formed on the outer wall section and configured to support and guide the plurality of plate-shaped members, characterized in that the plurality of supporting guide members includes: a plurality of rail members formed in a circumferential direction of the combustor liner at intervals and extends in a lengthwise direction of the combustor liner; and a plurality of slots forming the intervals in the circumferential direction of the combustor liner, the plurality of slots are configured to accommodate the plurality of plate-shaped members, and the plurality of rail members are configured to guide both end sections of the plate-shaped members in the circumferential direction of the combustor liner to enable free insertion and extraction in a direction in which the plurality of rail members extends, and are configured to support the plurality of plate-shaped members with the intervals being such that deformation of the plate shaped members by thermal expansion is able to be absorbed. an inner wall section configured to surround a combustion region and in which a plurality of effusion cooling holes are formed; and an outer wall section formed to be spaced apart from the inner wall section and in which a plurality of impingement cooling holes are formed, wherein the inner wall section is constituted by a plurality of plate-shaped members, a plurality of supporting guide members are formed on the outer wall section and configured to support and guide the plurality of plate-shaped members, characterized in that the plurality of supporting guide members includes: a plurality of rail members formed in a circumferential direction of the combustor liner at intervals and extends in a lengthwise direction of the combustor liner; and a plurality of slots forming the intervals in the circumferential direction of the combustor liner, the plurality of slots are configured to accommodate the plurality of plate-shaped members, and the plurality of rail members are configured to guide both end sections of the plate-shaped members in the circumferential direction of the combustor liner to enable free insertion and extraction in a direction in which the plurality of rail members extends, and are configured to support the plurality of plate-shaped members with the intervals being such that deformation of the plate shaped members by thermal expansion is able to be absorbed.
A coated component comprising: a substrate (10, 410) defining a surface and comprising a ceramic composite, an inner layer defining a surface and disposed along the surface of the substrate (10, 410), and an outer layer disposed along the surface of the inner layer, wherein: the inner layer comprises ceramic material, has a porosity of less than 40% by volume, and is continuous along the outer layer, the outer layer comprises a plurality of growth domains (14a, 14b) defined between domain boundaries (16a, 16b), the plurality of growth domains (14a, 14b) comprising a comparatively high density of a coating material and the domain boundaries (16a, 16b) comprising a comparatively low density of the coating material, the growth domains (14a, 14b) having a plurality of at least partially melted and solidified particles; and each growth domain (14a, 14b) in the plurality of growth domains (14a, 14b) has a width in a range from 20 μm to 100 μm. a substrate (10, 410) defining a surface and comprising a ceramic composite, an inner layer defining a surface and disposed along the surface of the substrate (10, 410), and an outer layer disposed along the surface of the inner layer, wherein: the inner layer comprises ceramic material, has a porosity of less than 40% by volume, and is continuous along the outer layer, the outer layer comprises a plurality of growth domains (14a, 14b) defined between domain boundaries (16a, 16b), the plurality of growth domains (14a, 14b) comprising a comparatively high density of a coating material and the domain boundaries (16a, 16b) comprising a comparatively low density of the coating material, the growth domains (14a, 14b) having a plurality of at least partially melted and solidified particles; and each growth domain (14a, 14b) in the plurality of growth domains (14a, 14b) has a width in a range from 20 μm to 100 μm. the inner layer comprises ceramic material, has a porosity of less than 40% by volume, and is continuous along the outer layer, the outer layer comprises a plurality of growth domains (14a, 14b) defined between domain boundaries (16a, 16b), the plurality of growth domains (14a, 14b) comprising a comparatively high density of a coating material and the domain boundaries (16a, 16b) comprising a comparatively low density of the coating material, the growth domains (14a, 14b) having a plurality of at least partially melted and solidified particles; and each growth domain (14a, 14b) in the plurality of growth domains (14a, 14b) has a width in a range from 20 μm to 100 μm.
A device for treating products by curing, comprising at least one heating module and at least one cooling module, as well as conveying means for conveying said products through said modules (2, 3), said conveying means comprising supports on which said products are positioned, said modules (2, 3) assuming the form of at least one column (20, 30) and reciprocally comprising heating and cooling means located at sections of each column (20, 30), said device further comprising means for managing the curing conditions of each of said heating and cooling means, as well as for managing the speed of advance of said conveying means, characterized in that - each support comprises a unique identifier; - said management means comprise means for recording the curing conditions experienced by each support at each section, based on said speed of advance; - said management means comprise means for determining curing conditions experienced by said products positioned on each support; - said heating and cooling means consist of at least water injection nozzles and said supports comprise lateral channeling means of the water injected by each nozzle, such that the water thus channeled flows over the sides of each support. - each support comprises a unique identifier; - said management means comprise means for recording the curing conditions experienced by each support at each section, based on said speed of advance; - said management means comprise means for determining curing conditions experienced by said products positioned on each support; - said heating and cooling means consist of at least water injection nozzles and said supports comprise lateral channeling means of the water injected by each nozzle, such that the water thus channeled flows over the sides of each support.
A charge multiplying solid-state imaging device comprising: an imaging area that generates a charge according to the amount of incident light; an output register unit that receives the charge from the imaging area; a multiplication register unit that multiplies the charge from the output register; an intermediate register unit disposed between the output register unit and the multiplication register unit; and a plurality of charge dispersion means, each dispersing the charge input to the multiplication register unit in a width direction perpendicular to a transfer direction, wherein the charge dispersion means are respectively formed of a semiconductor region or an insulating region that is disposed at least at an output side in the intermediate register unit, and the plurality of charge dispersion means are disposed separate from each other in the width direction. an imaging area that generates a charge according to the amount of incident light; an output register unit that receives the charge from the imaging area; a multiplication register unit that multiplies the charge from the output register; an intermediate register unit disposed between the output register unit and the multiplication register unit; and a plurality of charge dispersion means, each dispersing the charge input to the multiplication register unit in a width direction perpendicular to a transfer direction, wherein
A projective optical metrology system comprising a first and a second optical units (4,2), the first optical unit comprising: - an optical input (30,32,34) configured to receive a first light signal; and - a light target designed to emit a second light signal and formed by a number of light elements; and wherein the second optical unit comprises: - a light source (6,8,10) designed to generate said first light signal; - an optoelectronic sensor designed to receive said second light signal, such that said second light signal forms an image of the light target on said optoelectronic sensor; and - an electronic processing unit configured to determine at least one quantity indicative of the mutual arrangement of the light target and the second optical unit, on the basis of said image; characterized in that the first optical unit further comprises: - a number of optical paths; and - separator means (50,52) configured to separate a number of components of the first light signal received by the optical input and to couple each of the separated components to a corresponding optical path; wherein said optical input delimits an optical aperture and is configured to couple the first light signal to the separator means (50,52) through said optical aperture; and wherein each light element of the light target is optically coupled to a corresponding optical path, so as to be illuminated, in use, by the component of the first light signal coupled to said corresponding optical path. - an optical input (30,32,34) configured to receive a first light signal; and - a light target designed to emit a second light signal and formed by a number of light elements; - a light source (6,8,10) designed to generate said first light signal; - an optoelectronic sensor designed to receive said second light signal, such that said second light signal forms an image of the light target on said optoelectronic sensor; and - an electronic processing unit configured to determine at least one quantity indicative of the mutual arrangement of the light target and the second optical unit, on the basis of said image; - a number of optical paths; and - separator means (50,52) configured to separate a number of components of the first light signal received by the optical input and to couple each of the separated components to a corresponding optical path;
A computer program product comprising one or more computer-readable media having thereon computer-executable instructions that, when executed by one or more processors of a computer system, cause the computer system to perform a method for accessing a trusted assembly from a virtualized location, the method comprising: an act of detecting receipt of a request to access an assembly, which is a portion of compiled, executable code, wherein the address of the assembly is expressed in the request as a virtualized location, which is information from which a program derives the actual physical location of an assembly; an act of resolving the virtualized location to one or more physical locations, where the assembly is physically stored, the resolving comprising accessing an information store that maintains the current physical location corresponding to the requested assembly's virtualized location; an act of determining whether the requested assembly qualifies as a trusted assembly by verifying that the assembly sufficiently complies with information encoded within the assembly; and upon determining that the requested assembly is trusted, an act of accessing the requested assembly from the physical location, wherein the virtualized location corresponds to a plurality of physical locations (131; 132; 133), and wherein the method further comprises trusting all assemblies or portions of assemblies located at a trusted virtualized location. an act of detecting receipt of a request to access an assembly, which is a portion of compiled, executable code, wherein the address of the assembly is expressed in the request as a virtualized location, which is information from which a program derives the actual physical location of an assembly; an act of resolving the virtualized location to one or more physical locations, where the assembly is physically stored, the resolving comprising accessing an information store that maintains the current physical location corresponding to the requested assembly's virtualized location; an act of determining whether the requested assembly qualifies as a trusted assembly by verifying that the assembly sufficiently complies with information encoded within the assembly; and upon determining that the requested assembly is trusted, an act of accessing the requested assembly from the physical location, wherein the virtualized location corresponds to a plurality of physical locations (131; 132; 133), and wherein the method further comprises trusting all assemblies or portions of assemblies located at a trusted virtualized location.
Use of an inorganic buffer, the pKa value of which is strictly less than 3 and more particularly the pKa value of which is strictly greater than -2 and strictly less than 3, preferably strictly greater than 0 and strictly less than 3, more preferably strictly greater than 0.5 and strictly less than 2.5, for the preparation of a metal dithiocarbamate and more particularly for the preparation of a metal dithiocarbamate starting from a dithiocarbamate which is soluble in water, in an aqueous/organic solvent or an organic solvent, preferably in water.
An adhesive closure system, consisting of two interconnectable and releasable adhesive closure parts (2, 4) which each have a plurality of adhesive elements which project from a support and can be brought into releasable engagement with one another opposite one another in a predeterminable connecting region, the adhesive elements of one type in one adhesive closure part receiving the adhesive elements of the other type between them within the connecting region so as to form strips (22, 24), and one of the adhesive closure parts (2, 4) having adhesive elements of only one type which, when engagement is produced within the connecting region, are connected to adhesive elements of this type and to adhesive elements of a further type of the other adhesive closure part in each case, characterized in that the adhesive element of one type in each case is formed from a stem which projects on the associable support and has a mushroom-like head at its free end, and in that the adhesive element of the other type in each case consists of a loop or sling arranged on the associable support.
A method for removing condensable components from a fluid containing said condensable components, characterized in that the method comprises: a) providing a fluid mixture with a positive Joule-Thomson coefficient containing water, acid gases and condensable components as an initial feed stream; b) cooling said initial feed stream to condense water and other condensable components therefrom and removing condensed compounds to form a gas stream; c) compressing and cooling said gas stream to form a high pressure gas stream; d) expanding a portion of said high pressure gas stream from c) to form a cooled slipstream: e) introducing said cooled slipstream at step b) to form a combined stream with a temperature reduced sufficiently to condense water and thereby treating said initial feed stream with said slip stream, firstly by heat exchange if required, and finally by direct mixing for additional water condensation therefrom. a) providing a fluid mixture with a positive Joule-Thomson coefficient containing water, acid gases and condensable components as an initial feed stream; b) cooling said initial feed stream to condense water and other condensable components therefrom and removing condensed compounds to form a gas stream; c) compressing and cooling said gas stream to form a high pressure gas stream; d) expanding a portion of said high pressure gas stream from c) to form a cooled slipstream: e) introducing said cooled slipstream at step b) to form a combined stream with a temperature reduced sufficiently to condense water and thereby treating said initial feed stream with said slip stream, firstly by heat exchange if required, and finally by direct mixing for additional water condensation therefrom.
A method for setting conditions for a shaft diameter enlargement in which an axially intermediate portion (Wa) of a shaft workpiece is enlarged in a radial direction by rotating the shaft workpiece about an axis of the shaft workpiece with axial compressive force being applied to the intermediate portion (Wa) and with a bending angle being applied to the intermediate portion (Wa), the method being characterized in that it comprises: setting an allowable number of rotations based on test data, wherein the test data is obtained by performing the shaft diameter enlargement on test shafts, each of the test shafts being made of a same material and having a same shape as the shaft workpiece, wherein the test data is indicative of a relationship between, for each of the test shafts, a number of rotations of the test shaft required for enlarging an axially intermediate portion of the test shaft to a predetermined outer diameter and a crack occurrence probability at a boundary between the intermediate portion of the test shaft and a shaft portion of the test shaft other than the intermediate portion, and wherein the allowable number of rotations is set such that the crack occurrence probability at the boundary is equal to or lower than a threshold value; and setting that a number of rotations (n) of the shaft workpiece in enlarging the intermediate portion (Wa) of the shaft workpiece to have the predetermined diameter by performing the shaft diameter enlargement on the shaft workpiece be equal to or less than the allowable number of rotations. setting an allowable number of rotations based on test data, wherein the test data is obtained by performing the shaft diameter enlargement on test shafts, each of the test shafts being made of a same material and having a same shape as the shaft workpiece, wherein the test data is indicative of a relationship between, for each of the test shafts, a number of rotations of the test shaft required for enlarging an axially intermediate portion of the test shaft to a predetermined outer diameter and a crack occurrence probability at a boundary between the intermediate portion of the test shaft and a shaft portion of the test shaft other than the intermediate portion, and wherein the allowable number of rotations is set such that the crack occurrence probability at the boundary is equal to or lower than a threshold value; and setting that a number of rotations (n) of the shaft workpiece in enlarging the intermediate portion (Wa) of the shaft workpiece to have the predetermined diameter by performing the shaft diameter enlargement on the shaft workpiece be equal to or less than the allowable number of rotations.
A container lashing system comprising: - a lashing rod for connecting to a container on a container transport vehicle, and - a turnbuckle for connecting the lashing rod to the container transport vehicle with the lashing rod and the turnbuckle extending along a longitudinal axis, the turnbuckle comprising a first connection part and a second connection part for connecting the turnbuckle respectively to the lashing rod and the container transport vehicle, the first connection part and the second connection part being provided such that the turnbuckle is rotatable around the longitudinal axis while the turnbuckle is connected to the container via the lashing rod and to the container transport vehicle, at least one of the first connection part and the second connection part comprising a tensioning part by means of which the overall length of the container lashing system is adaptable, thereby tensioning the lashing rod for lashing the container to the container transport vehicle, characterised by the tensioning part comprising a drive part for driving the tensioning part, the drive part comprising an endless screw extending along the longitudinal axis of the turnbuckle, and the drive part being arranged for being driven by means of a predetermined power tool. - a lashing rod for connecting to a container on a container transport vehicle, and - a turnbuckle for connecting the lashing rod to the container transport vehicle with the lashing rod and the turnbuckle extending along a longitudinal axis,
A composition comprising: a) a nanoemulsion, the nanoemulsion comprising: 1) a poloxamer surfactant or polysorbate surfactant, 2) an organic solvent, 3) a cationic halogen containing compound, 4) oil, and 5) water; b) ethylenediaminetetraacetic acid (EDTA); and c) a hypertonic salt solution. a) a nanoemulsion, the nanoemulsion comprising: 1) a poloxamer surfactant or polysorbate surfactant, 2) an organic solvent, 3) a cationic halogen containing compound, 4) oil, and 5) water; 1) a poloxamer surfactant or polysorbate surfactant, 2) an organic solvent, 3) a cationic halogen containing compound, 4) oil, and 5) water; b) ethylenediaminetetraacetic acid (EDTA); and c) a hypertonic salt solution.
A method for mitigating reverberation in audio data, the method comprising: receiving a signal that includes frequency domain audio data; applying a filterbank to the frequency domain audio data to produce frequency domain audio data in a plurality of subbands; determining amplitude modulation signal values for the frequency domain audio data in each subband; applying a band-pass filter to the amplitude modulation signal values in each subband to produce band-pass filtered amplitude modulation signal values for each subband, the band-pass filter having a central frequency that exceeds 10 Hz; determining a gain for each subband based, at least in part, on a function of the amplitude modulation signal values and the band-pass filtered amplitude modulation signal values; and applying the determined gain to each subband. receiving a signal that includes frequency domain audio data; applying a filterbank to the frequency domain audio data to produce frequency domain audio data in a plurality of subbands; determining amplitude modulation signal values for the frequency domain audio data in each subband; applying a band-pass filter to the amplitude modulation signal values in each subband to produce band-pass filtered amplitude modulation signal values for each subband, the band-pass filter having a central frequency that exceeds 10 Hz; determining a gain for each subband based, at least in part, on a function of the amplitude modulation signal values and the band-pass filtered amplitude modulation signal values; and applying the determined gain to each subband.