mhurhangee/ep-ind-claims huggingface dataset:
Process of making an anti-reflective coating composition comprising the steps of 1) Preparing an oil-in-water emulsion by mixing an organic compound A; an emulsion stabilizer C; and aqueous medium of pH 2-6; at a mass ratio C/A of 0.1 to 2, to result in 1-50 mass% based on emulsion of emulsified droplets of particle size 30-300 nm wherein the particle size is the Z-averaged hydrodynamic diameter measured by DLS; and 2) Providing an inorganic oxide shell layer to the emulsified droplets by adding to the emulsion obtained in step 1) at least one inorganic oxide precursor, to result in organic-inorganic core-shell nano-particles with mass ratio core/shell of from 0.2 to 25 where core is the sum of compound A and emulsion stabilizer C and shell is the metal oxide equivalent of inorganic oxide precursor; wherein compound A is an apolar organic compound having a solubility in water of at most 5 kg/m 3, and the emulsion stabilizer C is a cationic addition copolymer comprising at least one monomer unit having a cationic charge and at least one monomer unit being neutral or non-ionic and having an overall positive zeta potential, and wherein the compound A is a non-polymeric compound and wherein the at least one inorganic precursor comprises a precursor selected from metal salts, metal chelates and organo-metallic compounds, preferably metal alkoxides, and combinations thereof. 1) Preparing an oil-in-water emulsion by mixing an organic compound A; an emulsion stabilizer C; and aqueous medium of pH 2-6; at a mass ratio C/A of 0.1 to 2, to result in 1-50 mass% based on emulsion of emulsified droplets of particle size 30-300 nm wherein the particle size is the Z-averaged hydrodynamic diameter measured by DLS; and 2) Providing an inorganic oxide shell layer to the emulsified droplets by adding to the emulsion obtained in step 1) at least one inorganic oxide precursor, to result in organic-inorganic core-shell nano-particles with mass ratio core/shell of from 0.2 to 25 where core is the sum of compound A and emulsion stabilizer C and shell is the metal oxide equivalent of inorganic oxide precursor;
A distribution frame module comprising: - a first side wall configured with at least one punch bridge extending outwards from the first side wall, forming a female member and a locking lever comprising an edge protruding outwards from the first side wall at the end of said locking lever, said locking lever having elastic properties, such that it may be biased from a resting and locking state into a tension and release state; - a bottom; and - a second side wall configured with at least one guide hole and a connecting edge, each guide hole on the second side wall containing a male member, an accommodation space for linear function being formed inside the second side wall, each guide hole of said distribution frame module being configured to mate with a corresponding punch bridge of a second distribution frame module by sliding the female member of the punch bridge of the second distribution frame module to the bottom of the male member of the guide hole of said distribution frame module; and said connecting edge of said distribution frame module being therefore configured to mate with a locking lever of a second distribution frame module by enabling said locking lever of the second distribution frame module to snap over the connecting edge of said distribution frame module. - a first side wall configured with at least one punch bridge extending outwards from the first side wall, forming a female member and a locking lever comprising an edge protruding outwards from the first side wall at the end of said locking lever, said locking lever having elastic properties, such that it may be biased from a resting and locking state into a tension and release state; - a bottom; and - a second side wall configured with at least one guide hole and a connecting edge, each guide hole on the second side wall containing a male member, an accommodation space for linear function being formed inside the second side wall,
A process for producing an alkanolamine, the process comprising reacting an alkylene oxide with aqueous ammonia at a mixing ratio of the alkylene oxide to ammonia in the range of 0.1 to 1.0 mole to obtain a reaction product containing a monoalkanolamine, a dialkanolamine, and a trialkanolamine; separating the dialkanolamine from the reaction product; and recycling at least a portion of the dialkanolamine for the reaction of an alkylene oxide with ammonia, wherein in the recycling step, the dialkanolamine is supplied in a molar ratio of the alkylene oxide (moles) to a total amount (moles) of ammonia and the dialkanolamine of from 0.10 to 0.25.
A method to make a self lubricated bearing), comprising: providing a first sliding member; providing a second sliding member, the second sliding member configured to slide against the first sliding member; providing a self-lubricating liner, adhering the self-lubricating liner either to the first sliding member or to the second sliding member, so as to be disposed between the first sliding member and the second sliding member, wherein the first sliding member is configured as a ball having a convex outer surface and a central bore for placing onto a shaft, the convex outer surface being in contact with the self-lubricating liner and wherein the second sliding member is configured as a race component, where the self-lubricating liner comprises at least one structural polymer and at least one lubricant with a viscosity less than 5100 centistokes at or below 100 °C., characterized in that the at least one lubricant with a viscosity less than 5100 centistokes is vacuum impregnated into the self-lubricating liner after the self-lubricating liner is adhered to either the first sliding member or the second sliding member. providing a first sliding member; providing a second sliding member, the second sliding member configured to slide against the first sliding member; providing a self-lubricating liner, adhering the self-lubricating liner either to the first sliding member or to the second sliding member, so as to be disposed between the first sliding member and the second sliding member, wherein the first sliding member is configured as a ball having a convex outer surface and a central bore for placing onto a shaft, the convex outer surface being in contact with the self-lubricating liner and wherein the second sliding member is configured as a race component, where the self-lubricating liner comprises at least one structural polymer and at least one lubricant with a viscosity less than 5100 centistokes at or below 100 °C., characterized in that the at least one lubricant with a viscosity less than 5100 centistokes is vacuum impregnated into the self-lubricating liner after the self-lubricating liner is adhered to either the first sliding member or the second sliding member.
A coated cutting tool comprising: a hard coating film on a surface of the tool, wherein the hard coating film is a nitride containing aluminum (Al) within a range of 80 at% to 90 at% and containing titanium (Ti) within a range of 10 at% to 20 at% with respect to a total amount of metallic including metalloid elements, and containing argon (Ar) of 0.10 at% or more and_0.50 at% or less with respect to a total amount of the metallic including metalloid elements and nonmetallic elements, wherein in the hard coating film, a crystal structure identified through X-ray diffraction is a single phase with a hexagonal closest packing structure and a diffraction peak due to an AlN plane indicates a maximum intensity, wherein an average crystal grain size is within a range of 5 nm to 50 nm, and wherein in a cross-sectional observation of the hard coating film, there are five or fewer droplets having an equivalent circle diameter of 1.0 μm or larger per 100 μm 2, wherein the amount of metallic elements is measured using a electron probe microanalyzer according to the method in the description and the crystal structure, the diffraction peak indicating a maximum intensity, the average crystal grain size and the number of droplets are determined in accordance with the specifics given in the description. a hard coating film on a surface of the tool, wherein the hard coating film is a nitride containing aluminum (Al) within a range of 80 at% to 90 at% and containing titanium (Ti) within a range of 10 at% to 20 at% with respect to a total amount of metallic including metalloid elements, and containing argon (Ar) of 0.10 at% or more and_0.50 at% or less with respect to a total amount of the metallic including metalloid elements and nonmetallic elements, wherein in the hard coating film, a crystal structure identified through X-ray diffraction is a single phase with a hexagonal closest packing structure and a diffraction peak due to an AlN plane indicates a maximum intensity, wherein an average crystal grain size is within a range of 5 nm to 50 nm, and wherein in a cross-sectional observation of the hard coating film, there are five or fewer droplets having an equivalent circle diameter of 1.0 μm or larger per 100 μm 2, wherein the amount of metallic elements is measured using a electron probe microanalyzer according to the method in the description and the crystal structure, the diffraction peak indicating a maximum intensity, the average crystal grain size and the number of droplets are determined in accordance with the specifics given in the description.
A method to optimize almost blank subframe usage in a wireless network, wherein at least one serving base station provides wireless connectivity to at least one user terminal, said at least one user terminal suffering interference from at least one interfering base station, said method comprising: - generating, said at least one interfering base station, in order to minimize said interference, an almost blank subframe pattern that said at least one interfering base station knows will not be needed, and sending said almost blank subframe pattern to said at least one serving base station, - generating, said at least one serving base station a set of preferred almost blank subframes, from said received almost blank subframe pattern, that said at least one serving base station knows will be of use for providing said wireless connectivity, and sending said set of preferred almost blank subframes ordered by a priority of usage to said at least one interfering base station; and - using, said at least one interfering base station, in the case of requiring the use of additional subframes for serving its own user terminals, the almost blank subframes indicated as low priority in said received set of preferred almost blank subframes from said at least one serving base station, characterized in that said set of preferred almost blank subframes are generated by said serving station in response to an indication of said interfering base station, said indication stating which subframes of the almost blank subframe pattern to be used by said serving base station with a higher priority. - generating, said at least one interfering base station, in order to minimize said interference, an almost blank subframe pattern that said at least one interfering base station knows will not be needed, and sending said almost blank subframe pattern to said at least one serving base station, - generating, said at least one serving base station a set of preferred almost blank subframes, from said received almost blank subframe pattern, that said at least one serving base station knows will be of use for providing said wireless connectivity, and sending said set of preferred almost blank subframes ordered by a priority of usage to said at least one interfering base station; and - using, said at least one interfering base station, in the case of requiring the use of additional subframes for serving its own user terminals, the almost blank subframes indicated as low priority in said received set of preferred almost blank subframes from said at least one serving base station,
A universal dock for a portable terminal comprising: a universal cradle adapted for cradling a portable terminal of various sizes and types or a portable terminal including an accessory; and, a connector-receiving assembly (220, 230), disposed within the universal cradle, for providing upward and downward movements; and a connector received within the connector-receiving assembly (220, 230) adapted to electrically couple the portable terminal, wherein the connector-receiving assembly (220, 230) is arranged to retract into a base of the universal cradle when pressed onto an upper surface of the base of the universal cradle, and wherein the connector-receiving assembly (220, 230) is arranged to protrude from the base of the universal cradle when the pressing force is removed, such that the connector has a degree of exposure that changes depending upon the retraction or protrusion of the connector-receiving assembly (220, 230), wherein the connector and the connector-receiving assembly (220, 230) are configured to be rotatable in relation to the base of the universal cradle. a universal cradle adapted for cradling a portable terminal of various sizes and types or a portable terminal including an accessory; and, a connector-receiving assembly (220, 230), disposed within the universal cradle, for providing upward and downward movements; and a connector received within the connector-receiving assembly (220, 230) adapted to electrically couple the portable terminal, wherein the connector-receiving assembly (220, 230) is arranged to retract into a base of the universal cradle when pressed onto an upper surface of the base of the universal cradle, and wherein the connector-receiving assembly (220, 230) is arranged to protrude from the base of the universal cradle when the pressing force is removed, such that the connector has a degree of exposure that changes depending upon the retraction or protrusion of the connector-receiving assembly (220, 230), wherein the connector and the connector-receiving assembly (220, 230) are configured to be rotatable in relation to the base of the universal cradle.
A method for generating millimetre or terahertz waves by overlaying two optical waves of different frequency, a frequency comb being created and coupled into an optically non-linear medium in the propagation direction, pump waves being generated by two pump sources (5, 6) and coupled into the optically non-linear medium counter to the propagation direction, the wavelengths of the pump waves being set in such a manner that they amplify two frequencies from the frequency comb by means of stimulated Brillouin scattering, the two amplified frequencies being decoupled from the medium in the propagation direction and overlaid in a second photosensor in a heterodyne manner, and the overlaying applying a differential frequency on an output signal of the second photosensor, which differential frequency is decoupled, characterized in that the frequency comb is created by means of a single mode-coupled laser source and coupled into the optically non-linear medium by means of a first circulator, in that the pump waves are stabilized to the two frequencies to be amplified by means of the Pound-Drever-Hall method using a first photosensor connected to the first circulator, and in that frequencies of the frequency comb which are not to be amplified are suppressed by means of the "polarization pulling" effect, wherein the "polarization pulling" effect is generated by means of a polarization filter arranged upstream of the second photosensor and a polarization control element (7, 8) for polarizing the pump radiation parallel to the polarization filter, which polarization control element is arranged downstream of a pump source in the propagation direction of the pump radiation, wherein a polarization controller for polarizing the radiation of the frequency comb perpendicularly to the polarization filter is provided upstream of the first circulator in the propagation direction of the frequency comb.
A computer implemented method for rendering an output image, the method comprising: receiving a plurality of input images, wherein each input image of the plurality of input images is taken from different first locations; receiving a view specification for rendering the output image, wherein the view specification comprises a second location; rendering the output image based at least in part on the plurality of input images and the view specification, wherein the output image comprises an image of a region as seen from the second location, wherein the second location is different from each of the first locations, wherein rendering the output image based at least in part on the plurality of input images and the view specification comprises: for each of a plurality of blocks of pixels of the output image: determining a mapping between a plurality of pixels along the perimeter of the respective block of pixels and a plurality of corresponding pixels of each of one or more of the input images; and for each of the one or more input images: perform a projective mapping of pixels located within a perimeter of the corresponding pixels of the input image to respective pixels in the output image, wherein said projective mapping is based at least in part on the mapping between the plurality of pixels along the perimeter of the respective block of pixels and the plurality of corresponding pixels of the one or more input images. displaying the output image on a display. receiving a plurality of input images, wherein each input image of the plurality of input images is taken from different first locations; receiving a view specification for rendering the output image, wherein the view specification comprises a second location; rendering the output image based at least in part on the plurality of input images and the view specification, wherein the output image comprises an image of a region as seen from the second location, wherein the second location is different from each of the first locations, wherein rendering the output image based at least in part on the plurality of input images and the view specification comprises: for each of a plurality of blocks of pixels of the output image: determining a mapping between a plurality of pixels along the perimeter of the respective block of pixels and a plurality of corresponding pixels of each of one or more of the input images; and for each of the one or more input images: perform a projective mapping of pixels located within a perimeter of the corresponding pixels of the input image to respective pixels in the output image, wherein said projective mapping is based at least in part on the mapping between the plurality of pixels along the perimeter of the respective block of pixels and the plurality of corresponding pixels of the one or more input images. displaying the output image on a display.
A laminate including electro kinetic pixels comprising: a transparent first layer coated with a planar first electrode; a second layer coated with a second electrode; a foraminous insulating third layer between said first layer and said second layer; a third electrode having a grid structure; a cell gap between said foraminous layer and said planar first electrode; said cell gap including a colloidal dispersion of first particles and second particles; said first particles having a first charge and a first optical property; said second particles having a second charge different from said first charge and a second optical property different from said first particle; wherein said cell gap between said foraminous layer and said planar first electrode is supported by a spacer; wherein said third electrode is separated from said first and second electrodes (16, 20); and characterised in that said grid structure is composed of a plurality of tessellated electrodes with non-Euclidean geometry to reduce diffraction pattern relative to a tessellated electrode pattern with Euclidean geometry. a transparent first layer coated with a planar first electrode; a second layer coated with a second electrode; a foraminous insulating third layer between said first layer and said second layer; a third electrode having a grid structure; a cell gap between said foraminous layer and said planar first electrode; said cell gap including a colloidal dispersion of first particles and second particles; said first particles having a first charge and a first optical property; said second particles having a second charge different from said first charge and a second optical property different from said first particle; wherein said cell gap between said foraminous layer and said planar first electrode is supported by a spacer; wherein said third electrode is separated from said first and second electrodes (16, 20); and characterised in that said grid structure is composed of a plurality of tessellated electrodes with non-Euclidean geometry to reduce diffraction pattern relative to a tessellated electrode pattern with Euclidean geometry.
A system, comprising: at least one display; at least one lens, the at least one lens having distortion, the at least one lens configured to focus light received from an environment; at least one image generator configured to receive the light from the at least one lens and output a stream of images as image data, wherein each image of the stream of images is distorted; and at least one processor configured to: receive the image data from the at least one image generator; detect at least one point source object in the stream of images of the image data; enhance the at least one point source object in the stream of images of the image data; undistort the stream of images of the image data having at least one enhanced point source object; and output a stream of undistorted images as undistorted image data to the at least one display, wherein the distortion is barrel type distortion, wherein a field of view of the at least one image generator has a first region of relatively lower instantaneous field of view (IFOV) as compared to a second region of relatively higher IFOV; wherein the lens is decentered, wherein the first region is a lower central region of the FOV; and wherein each of the at least one point source object in the stream of images is a single pixel in the stream of images. at least one display; at least one lens, the at least one lens having distortion, the at least one lens configured to focus light received from an environment; at least one image generator configured to receive the light from the at least one lens and output a stream of images as image data, wherein each image of the stream of images is distorted; and at least one processor configured to: receive the image data from the at least one image generator; detect at least one point source object in the stream of images of the image data; enhance the at least one point source object in the stream of images of the image data; undistort the stream of images of the image data having at least one enhanced point source object; and output a stream of undistorted images as undistorted image data to receive the image data from the at least one image generator; detect at least one point source object in the stream of images of the image data; enhance the at least one point source object in the stream of images of the image data; undistort the stream of images of the image data having at least one enhanced point source object; and output a stream of undistorted images as undistorted image data to the at least one display, wherein the distortion is barrel type distortion, wherein a field of view of the at least one image generator has a first region of relatively lower instantaneous field of view (IFOV) as compared to a second region of relatively higher IFOV; wherein the lens is decentered, wherein the first region is a lower central region of the FOV; and wherein each of the at least one point source object in the stream of images is a single pixel in the stream of images.