mhurhangee/ep-ind-claims huggingface dataset:
An illumination device comprising: a substrate; an optically transmissive first layer arranged on said substrate; a photon emitting layer, arranged on said optically transmissive first layer and comprising a photon emitting material for receiving energy from an energy source and configured to emit light having a predetermined wavelength, wherein said photon emitting material is a wavelength converting material configured to receive light of a first wavelength and to convert said received light from said first wavelength to a second wavelength, wherein the second wavelength is the predetermined wavelength; and a periodic plasmonic antenna array, arranged on said substrate and embedded within said first layer, and comprising a plurality of individual antenna elements arranged in an antenna array plane, said plasmonic antenna array being configured to support a first lattice resonance at said predetermined wavelength, arising from coupling of localized surface plasmon resonances in said individual antenna elements to photonic modes supported by the system comprising the plasmonic antenna array and the photon emitting layer, wherein said plasmonic antenna array is configured to comprise plasmon resonance modes such that light emitted from said plasmonic antenna array has an anisotropic angle distribution; characterized in that, the photon emitting layer is arranged at a distance from said antenna array plane corresponding to a location of maximum field enhancement for light out-coupling resulting from plasmonic-photonic lattice resonances. a substrate; an optically transmissive first layer arranged on said substrate; a photon emitting layer, arranged on said optically transmissive first layer and comprising a photon emitting material for receiving energy from an energy source and configured to emit light having a predetermined wavelength, wherein said photon emitting material is a wavelength converting material configured to receive light of a first wavelength and to convert said received light from said first wavelength to a second wavelength, wherein the second wavelength is the predetermined wavelength; and a periodic plasmonic antenna array, arranged on said substrate and embedded within said first layer, and comprising a plurality of individual antenna elements arranged in an antenna array plane, said plasmonic antenna array being configured to support a first lattice resonance at said predetermined wavelength, arising from coupling of localized surface plasmon resonances in said individual antenna elements to photonic modes supported by the system comprising the plasmonic antenna array and the photon emitting layer, wherein said plasmonic antenna array is configured to comprise plasmon resonance modes such that light emitted from said plasmonic antenna array has an anisotropic angle distribution; characterized in that, the photon emitting layer is arranged at a distance from said antenna array plane corresponding to a location of maximum field enhancement for light out-coupling resulting from plasmonic-photonic lattice resonances.
A process for producing acetic acid comprising: obtaining hydrogen iodide in an acetic acid production system; and continually introducing a complexing agent comprising a phosphine oxide into the system, wherein the complexing agent and hydrogen iodide interact to form a complex and wherein the acetic acid production system comprises a reaction area, a light ends area, a purification area and a recycle area; wherein the reaction area comprises a reactor; the purification area comprises a drying column, and the light ends area comprises a light ends column; wherein the process further comprising continually introducing the complexing agent downstream the reactor and upstream of the purification area and upstream of the drying column; and wherein the process further comprising continually introducing the complexing agent into the light-ends column. obtaining hydrogen iodide in an acetic acid production system; and continually introducing a complexing agent comprising a phosphine oxide into the system, wherein the complexing agent and hydrogen iodide interact to form a complex and wherein the acetic acid production system comprises a reaction area, a light ends area, a purification area and a recycle area; wherein the reaction area comprises a reactor; the purification area comprises a drying column, and the light ends area comprises a light ends column; wherein the process further comprising continually introducing the complexing agent downstream the reactor and upstream of the purification area and upstream of the drying column; and wherein the process further comprising continually introducing the complexing agent into the light-ends column.
A user terminal device comprising: a display; a first sensor provided on a front surface of the user terminal device; a second sensor provided on a rear surface of the user terminal device; and a controller configured to adjust a luminance of the display based on a front illumination identified by the first sensor and a rear illumination identified by the second sensor, wherein the controller is further configured to: obtain a first weight to be applied to the front illumination and a second weight to be applied to the rear illumination; identify that a current situation is a backlight situation in which the rear illumination is greater than the front illumination by at least a threshold value based on a comparison result of the front illumination and the rear illumination, and, based on the identifying that the current situation is the backlight situation, obtain a luminance value by applying the second weight that is higher than the first weight to the rear illumination, and adjust the luminance of the display based on the luminance value. a display; a first sensor provided on a front surface of the user terminal device; a second sensor provided on a rear surface of the user terminal device; and a controller configured to adjust a luminance of the display based on a front illumination identified by the first sensor and a rear illumination identified by the second sensor, wherein the controller is further configured to: obtain a first weight to be applied to the front illumination and a second weight to be applied to the rear illumination; identify that a current situation is a backlight situation in which the rear illumination is greater than the front illumination by at least a threshold value based on a comparison result of the front illumination and the rear illumination, and, based on the identifying that the current situation is the backlight situation, obtain a luminance value by applying the second weight that is higher than the first weight to the rear illumination, and adjust the luminance of the display based on the luminance value. obtain a first weight to be applied to the front illumination and a second weight to be applied to the rear illumination; identify that a current situation is a backlight situation in which the rear illumination is greater than the front illumination by at least a threshold value based on a comparison result of the front illumination and the rear illumination, and, based on the identifying that the current situation is the backlight situation, obtain a luminance value by applying the second weight that is higher than the first weight to the rear illumination, and adjust the luminance of the display based on the luminance value.
An ophthalmic illumination system, comprising: a collimator comprising a lens; a first light source and a second light source; a first mirror arranged to reflect light towards the collimator, wherein the first mirror is configured for use with the first light source, the first light source emitting a first light beam having a first parameter; and a second mirror arranged to reflect light towards the collimator, wherein the second mirror is configured for use with the second light source, the second light source emitting a second light beam having a second parameter that is different than the first parameter, wherein the second mirror is shaped and arranged to cause a reflected portion of the second light beam to have the first parameter; wherein the first mirror and the first light source, and the second mirror and the second light source, are separately usable with the collimator; wherein the first and second parameters are first and second numerical apertures, respectively. a collimator comprising a lens; a first light source and a second light source; a first mirror arranged to reflect light towards the collimator, wherein the first mirror is configured for use with the first light source, the first light source emitting a first light beam having a first parameter; and a second mirror arranged to reflect light towards the collimator, wherein the second mirror is configured for use with the second light source, the second light source emitting a second light beam having a second parameter that is different than the first parameter, wherein the second mirror is shaped and arranged to cause a reflected portion of the second light beam to have the first parameter; wherein the first mirror and the first light source, and the second mirror and the second light source, are separately usable with the collimator; wherein the first and second parameters are first and second numerical apertures, respectively.
A pass-through connector system comprising: a receptacle assembly extending between a mating end and a mounting end, the receptacle assembly having a mounting ear at least proximate to the mounting end, the mounting ear defining an aperture therethrough, the receptacle assembly further including a fastener received in the aperture that is configured to be coupled to a substrate to mount the receptacle assembly to the substrate, a diameter of the aperture of the mounting ear being greater than an outer diameter of the fastener such that a gap is formed between an inner surface of the mounting ear and an outer surface of the fastener; and a pass-through connector having a plug end configured to extend through a window in a panel that at least partially surrounds the substrate to mate to the mating end of the receptacle assembly, the pass-through connector defining a cavity that has an opening at the plug end, characterized in that the pass-through connector has a shroud at the plug end that guides the mating end of the receptacle assembly through the opening into the cavity; wherein the receptacle assembly is floatable radially within the gap relative to the fastener to allow the shroud of the pass-through connector to move the receptacle assembly into alignment with the cavity of the pass-through connector during mating. a receptacle assembly extending between a mating end and a mounting end, the receptacle assembly having a mounting ear at least proximate to the mounting end, the mounting ear defining an aperture therethrough, the receptacle assembly further including a fastener received in the aperture that is configured to be coupled to a substrate to mount the receptacle assembly to the substrate, a diameter of the aperture of the mounting ear being greater than an outer diameter of the fastener such that a gap is formed between an inner surface of the mounting ear and an outer surface of the fastener; and a pass-through connector having a plug end configured to extend through a window in a panel that at least partially surrounds the substrate to mate to the mating end of the receptacle assembly, the pass-through connector defining a cavity that has an opening at the plug end, characterized in that the pass-through connector has a shroud at the plug end that guides the mating end of the receptacle assembly through the opening into the cavity; wherein the receptacle assembly is floatable radially within the gap relative to the fastener to allow the shroud of the pass-through connector to move the receptacle assembly into alignment with the cavity of the pass-through connector during mating.
A positive electrode active material for a lithium secondary battery produced using a precursor for the production of the positive electrode active material, the precursor comprising a core composed of transition metal hydroxides including nickel (Ni) and manganese (Mn), or transition metal hydroxides including nickel (Ni), manganese (Mn) and cobalt (Co); and a shell composed of transition metal hydroxides including cobalt (Co), wherein the positive electrode active material comprises: a core composed of lithium transition metal oxides including nickel (Ni) and manganese (Mn), or lithium transition metal oxides including nickel (Ni), manganese (Mn) and cobalt (Co); and a shell composed of lithium transition metal oxides including cobalt (Co), wherein the lithium transition metal oxide of the core is a compound represented by the following Formula 3, and the lithium transition metal oxide of the shell is a compound represented by the following Formula 4. Li y [Ni a Mn b Co 1-(a+b+c) M c]O 2 wherein, 0.55 ≤ a < 0.9, 0.05 ≤ b ≤ 0.5, 0 < c ≤ 0.1, a+b+c ≤ 1, 0.98 ≤ y ≤ 1.10; and M is Zr,; Li y Co (1-a) Z a O 2 wherein 0 < a ≤ 0.1, 0.98 ≤ y ≤ 1,10; and Z is Zr, wherein the content ratio of the core and the shell is from 20:80 to 80:20 on a weight basis. a core composed of lithium transition metal oxides including nickel (Ni) and manganese (Mn), or lithium transition metal oxides including nickel (Ni), manganese (Mn) and cobalt (Co); and a shell composed of lithium transition metal oxides including cobalt (Co), wherein the lithium transition metal oxide of the core is a compound represented by the following Formula 3, and the lithium transition metal oxide of the shell is a compound represented by the following Formula 4. Li y [Ni a Mn b Co 1-(a+b+c) M c]O 2 wherein, 0.55 ≤ a < 0.9, 0.05 ≤ b ≤ 0.5, 0 < c ≤ 0.1, a+b+c ≤ 1, 0.98 ≤ y ≤ 1.10; and M is Zr,; Li y Co (1-a) Z a O 2 wherein 0 < a ≤ 0.1, 0.98 ≤ y ≤ 1,10; and Z is Zr, wherein the content ratio of the core and the shell is from 20:80 to 80:20 on a weight basis. 0.55 ≤ a < 0.9, 0.05 ≤ b ≤ 0.5, 0 < c ≤ 0.1, a+b+c ≤ 1, 0.98 ≤ y ≤ 1.10; and M is Zr,; 0 < a ≤ 0.1, 0.98 ≤ y ≤ 1,10; and Z is Zr, wherein the content ratio of the core and the shell is from 20:80 to 80:20 on a weight basis.
A method for determining the presence of a MET mutant in a sample, wherein the MET mutant is an auto-active and intracellular mutant MET, and wherein the method comprises: a. analysis of genomic DNA, b. analysis of mRNA or cDNA, and/or c. analysis of MET protein wherein the MET mutant is the result of a chromosomal deletion in chromosome 7, resulting in loss of part of intron 6, exon 7, intron 7 and part of exon 8. a. analysis of genomic DNA, b. analysis of mRNA or cDNA, and/or c. analysis of MET protein
A mobile device (10, 20, 30) for self-examine of an eye of a user of the mobile device, comprising circuitry including a camera (11, 21a, 31), the circuitry being configured to: provide a selfie eye shot mode; capture a plurality of images (26, 41) of the user's eye with the camera (11, 21a, 31) in the selfie eye shot mode; determine, based on at least one of the captured images of the eye, an image quality of at least one feature of the eye in the captured image; and output a user instruction for changing the image quality of the at least one feature of the eye. provide a selfie eye shot mode; capture a plurality of images (26, 41) of the user's eye with the camera (11, 21a, 31) in the selfie eye shot mode; determine, based on at least one of the captured images of the eye, an image quality of at least one feature of the eye in the captured image; and output a user instruction for changing the image quality of the at least one feature of the eye.
A stent inserted into a lesion portion of a stenosed lumen for smooth flow of blood and manufactured using a jig, in which a plurality of pins are arranged on a cylindrical body in a circumferential direction and a longitudinal direction, the stent comprising a cylindrical structure forming a mesh structure having a diamond pattern in which a zigzag pattern is formed by weaving a wire member in the circumferential direction with a certain width using the pins arranged at the same intervals on the jig and a plurality of such zigzag patterns formed in the circumferential direction are arranged in a longitudinal direction of certain intervals while intersecting with each other, wherein in the cylindrical structure, an A-type diamond pattern having a first intersection angle relatively large in a longitudinal direction and a B-type diamond pattern having a second intersection angle relatively small in comparison to the A-type diamond pattern are repetitively formed with a certain section and period, wherein in the cylindrical structure, the A-type diamond pattern and the B-type diamond pattern have the same widths in the circumferential direction, wherein in the cylindrical structure, the A-type diamond pattern have the same intervals at a first interval W1 disposed in a central portion of the certain section in the longitudinal direction of the cylindrical body, the B-type diamond pattern have the same intervals at a second interval W2 disposed in a central portion of the certain section in the longitudinal direction of the cylindrical body, wherein in the cylindrical structure, the first intersection angle is 90 degrees and the second intersection angle is 54 degrees. wherein in the cylindrical structure, an A-type diamond pattern having a first intersection angle relatively large in a longitudinal direction and a B-type diamond pattern having a second intersection angle relatively small in comparison to the A-type diamond pattern are repetitively formed with a certain section and period, wherein in the cylindrical structure, the A-type diamond pattern and the B-type diamond pattern have the same widths in the circumferential direction, wherein in the cylindrical structure, the A-type diamond pattern have the same intervals at a first interval W1 disposed in a central portion of the certain section in the longitudinal direction of the cylindrical body, the B-type diamond pattern have the same intervals at a second interval W2 disposed in a central portion of the certain section in the longitudinal direction of the cylindrical body, wherein in the cylindrical structure, the first intersection angle is 90 degrees and the second intersection angle is 54 degrees.
Crane, in particular heavy-duty crane, having a frame on which a column is arranged which can be rotated about a perpendicular axis and on which a telescopic jib is accommodated which can be pivoted about a horizontal axis and has a plurality of extensions which are mounted one inside the other such that they can be displaced in the axial direction, which can be extended and retracted by means of a hydraulic drive device, wherein the telescopic jib is assigned a displacement measuring device which measures its extension length and is connected to an input of a control device which is assigned to the hydraulic drive device and into which the desired extension length of the jib can be input, wherein, for each desired extension length, all extensions can be extended by a respectively associated part of their maximum extension length, characterized in that each extension is associated with its own hydraulic cylinder arrangement of corresponding strength, which can be actuated independently of the hydraulic cylinder arrangements associated with the other extensions in each case, and in that an extension program is stored in the control device, which program is designed in such a way that all extensions can each be extended individually one after the other and contains a sequential circuit according to which the extension of the jib begins with the extension of the lowest extension and is continued successively upwards.
Building, such as a dwelling, comprising a central cistern arranged in the building and a number of water-using objects, such as a toilet in particular, arranged in the building, which water-using objects are connected via respective conduits to the central cistern, wherein for each water-using object a controllable valve is arranged in the respective conduit in order to enable water to be supplied from the central cistern to the water-using object by operating the valve and wherein the central cistern is arranged above the water-using objects as seen in the direction of the force of gravity, wherein the water-using objects comprise at least one toilet bowl, wherein the respective conduit is connected to the flush pipe connection of the toilet bowl, characterized in that the respective conduit is arranged in the floor on which the toilet bowl is arranged, wherein the respective conduit enters the toilet bowl on the underside thereof.
A method for controlling the program execution in a chip card, wherein the chip card has a processor (μP), a multithreading-capable virtual machine "VM", at least one external interface and at least one thread (T1, T2, T3) to be executed on the processor, and wherein the VM allocates program execution resources to each thread to be executed in accordance with a scheduling method, external data are supplied at at least one external interface from at least one external device arranged outside the system, the external data are accepted at the at least one external interface by the system, and the scheduling method is controlled by the VM while employing the external data, characterized in that the external data are contained in an Application Protocol Data Unit, "APDU", command, received at the external interface.
Compound of general formula below: in which: - R 1 and R 4 are independently selected from the group comprising: H, Me, Et, CO 2 R c, CH 2 OR c, OR c, F, Cl and C(=O)NHR d; in which R c is chosen from H, (C 1 -C 6) alkyl, substituted (C 1 -C 6)alkyl, (C 3 -C 7)-cycloalkyl, substituted (C 3 -C 7)cycloalkyl, aryl, substituted aryl, heteroaryl and substituted heteroaryl; and in which R d is chosen from H, (C 1 -C 6) alkyl, substituted (C 1 -C 6) alkyl, (C 3 -C 7) cycloalkyl, substituted (C 3 -C 7)cycloalkyl, and optionally substituted (C 3 -C 7)heterocycloalkyl comprising from 1 to 3 heteroatoms chosen from N, O and S, - R 2 is F, - R 3 represents a group chosen from the groups morpholinyl, homomorpholinyl, -O(CH 2) n piperidinyl with n=2, 3 or 4, -O(CH 2) n N(Me) 2 with n=2, 3 or 4, N-methylpiperazinyl and N-methylhomopiperazinyl, -NH(CH 2) 2 NMe 2, and - R 5 is selected from the group comprising NMeEt, NH( i Pr), NEt 2, N( i Pr) 2, NEt( i Pr), pyrrolidinyl, piperidinyl, morpholinyl, N-methylpiperazinyl, NHCy, NCy 2, NMe( i Pr), NH( t Bu), NH( i Bu), N( n Bu) 2, piperazinyl, NH(Et), N( n Pr) 2 and NEt( i Pr), where Cy denotes a cyclopropyl radical, where "substituted" refers to the presence of one or more substituent(s) chosen from halogen, C 1 -C 6 alkyl, C 3 -C 10 cycloalkyl, hydroxyl, C 1 -C 6 alkyloxy, aryloxy, amino, C 1 -C 6 alkylamino, C 1 -C 6 dialkyl-amino, acyl or phenyl. - R 1 and R 4 are independently selected from the group comprising: H, Me, Et, CO 2 R c, CH 2 OR c, OR c, F, Cl and C(=O)NHR d; in which R c is chosen from H, (C 1 -C 6) alkyl, substituted (C 1 -C 6)alkyl, (C 3 -C 7)-cycloalkyl, substituted (C 3 -C 7)cycloalkyl, aryl, substituted aryl, heteroaryl and substituted heteroaryl; and in which R d is chosen from H, (C 1 -C 6) alkyl, substituted (C 1 -C 6) alkyl, (C 3 -C 7) cycloalkyl, substituted (C 3 -C 7)cycloalkyl, and optionally substituted (C 3 -C 7)heterocycloalkyl comprising from 1 to 3 heteroatoms chosen from N, O and S, - R 2 is F, - R 3 represents a group chosen from the groups morpholinyl, homomorpholinyl, -O(CH 2) n piperidinyl with n=2, 3 or 4, -O(CH 2) n N(Me) 2 with n=2, 3 or 4, N-methylpiperazinyl and N-methylhomopiperazinyl, -NH(CH 2) 2 NMe 2, and - R 5 is selected from the group comprising NMeEt, NH( i Pr), NEt 2, N( i Pr) 2, NEt( i Pr), pyrrolidinyl, piperidinyl, morpholinyl, N-methylpiperazinyl, NHCy, NCy 2, NMe( i Pr), NH( t Bu), NH( i Bu), N( n Bu) 2, piperazinyl, NH(Et), N( n Pr) 2 and NEt( i Pr), where Cy denotes a cyclopropyl radical,