mhurhangee/ep-ind-claims huggingface dataset:
An optical system, comprising: a light-transmitting waveguide substrate configured for receiving input light indicative of an image being projected, guiding said input light by total internal reflection, and coupling the light out of the substrate to propagate along an output path in a predetermined direction; at least one transparent optical element (82, 82a, 82b) accommodated in said output path and interfacing with at least a portion of a surface of said light-transmitting waveguide substrate, an interface region between at least a portion of the surface of said light-transmitting waveguide substrate and a surface of the optical element being a patterned interface configured to provide optical coupling between the light-transmitting waveguide substrate and said optical element (82, 82a, 82b) while maintaining the total internal reflection condition of light propagation within said light-transmitting waveguide substrate, wherein a pattern in said patterned interface is a hyperfine structure / subwavelength structure comprising an array of protrusions forming air pockets between the protrusions and the surface of optical element or the waveguide substrate facing said protrusions, each of the protrusions is configured such that a cross section of the protrusion gradually changes from a base portion of the protrusion towards a distal end thereof as a function of a distance from the base portion, and wherein light-transmitting waveguide substrate and said optical element (82, 82a, 82b) are monolithically embedded together. a light-transmitting waveguide substrate configured for receiving input light indicative of an image being projected, guiding said input light by total internal reflection, and coupling the light out of the substrate to propagate along an output path in a predetermined direction; at least one transparent optical element (82, 82a, 82b) accommodated in said output path and interfacing with at least a portion of a surface of said light-transmitting waveguide substrate, an interface region between at least a portion of the surface of said light-transmitting waveguide substrate and a surface of the optical element being a patterned interface configured to provide optical coupling between the light-transmitting waveguide substrate and said optical element (82, 82a, 82b) while maintaining the total internal reflection condition of light propagation within said light-transmitting waveguide substrate, wherein a pattern in said patterned interface is a hyperfine structure / subwavelength structure comprising an array of protrusions forming air pockets between the protrusions and the surface of optical element or the waveguide substrate facing said protrusions, each of the protrusions is configured such that a cross section of the protrusion gradually changes from a base portion of the protrusion towards a distal end thereof as a function of a distance from the base portion, and wherein light-transmitting waveguide substrate and said optical element (82, 82a, 82b) are monolithically embedded together.
A treatment plant for transforming a material comprising PET in flakes into a depolymerized material, comprising: - a first treatment unit having a first unit inlet for feeding the material comprising PET in flakes, a first unit outlet to output a semi-finished material comprising molten PET and depolymerized PET, a first unit path between said first unit inlet and said first unit outlet, an extrusion device arranged along said first unit path, an injection device for a treatment liquid, leading to an injection point along said first unit path, a filter arranged at said first unit outlet; - a second treatment unit arranged downstream of the first treatment unit, having a second unit inlet to receive said semi-finished material comprising molten PET and depolymerized PET and a second unit outlet to output said depolymerized material, a second unit path between said second unit inlet and said second unit outlet, said second unit inlet being connected to said first unit outlet; wherein said second unit path comprises at least one accumulation tank (56, 57) for said semi-finished material comprising molten PET, and said at least one accumulation tank (56, 57) comprises gravitational separation means for separating pollutants from the molten PET by difference of density. - a first treatment unit having a first unit inlet for feeding the material comprising PET in flakes, a first unit outlet to output a semi-finished material comprising molten PET and depolymerized PET, a first unit path between said first unit inlet and said first unit outlet, an extrusion device arranged along said first unit path, an injection device for a treatment liquid, leading to an injection point along said first unit path, a filter arranged at said first unit outlet; - a second treatment unit arranged downstream of the first treatment unit, having a second unit inlet to receive said semi-finished material comprising molten PET and depolymerized PET and a second unit outlet to output said depolymerized material, a second unit path between said second unit inlet and said second unit outlet, said second unit inlet being connected to said first unit outlet;
A method for detecting pressing or blowing defects in glassware articles, comprising: - backlighting said article by means of one or several light sources according to at least one pair of similar patterns shifted in space; - capturing according to the same angle of sight at least one pair of images of said backlit article according to each of the patterns of said at least one pair of patterns; - combining the images of each of said pairs to form at least one composite image; - detecting the areas of stronger contrast within said composite images. - backlighting said article by means of one or several light sources according to at least one pair of similar patterns shifted in space; - capturing according to the same angle of sight at least one pair of images of said backlit article according to each of the patterns of said at least one pair of patterns; - combining the images of each of said pairs to form at least one composite image; - detecting the areas of stronger contrast within said composite images.
A system comprising: a server operable to receive content over a mobile network, from a mobile computing device operated by a first user, for publishing to a blog; a location-stamping subsystem, different to the mobile computing device, operable to, in response to receiving the content, determine a location of the mobile computing device at a time when the content was received by the server and assign, to the content, location information describing the determined location of the mobile computing device at the time when the content was received by the server; and a mobile data delivery platform, in communication with the server, operable to output the content and the location information over a computer network to a second user, the content and the location information to be published in the blog. a server operable to receive content over a mobile network, from a mobile computing device operated by a first user, for publishing to a blog; a location-stamping subsystem, different to the mobile computing device, operable to, in response to receiving the content, determine a location of the mobile computing device at a time when the content was received by the server and assign, to the content, location information describing the determined location of the mobile computing device at the time when the content was received by the server; and a mobile data delivery platform, in communication with the server, operable to output the content and the location information over a computer network to a second user, the content and the location information to be published in the blog.
Folding panel assembly for architectural openings, including: first and second panel members (17; 35; 51; 53) amounting post (11, 77) for mounting to a substantially vertical perimeter portion of an architectural opening; a first hinge (15; 75) connected to the mounting post (11, 77); the first panel member (17; 51) having its first frame post (19; 79) pivotally mounted by the first hinge (15; 75); a second hinge (33; 55) connected to the second frame post (21, 81) of the first panel member (17; 51); and the second panel member (35; 53) having its first frame post (37; 59) pivotally mounted by the second hinge (33; 55), wherein at least one panel member (17; 35; 51; 53) forming part of the first and second panel members, includes a perimeter frame defined by first and second frame posts (19, 21, 37, 39; 79, 81, 59, 61) and upper and lower frame beams (23, 25, 41, 43; 87, 91, 63, 65) wherein the perimeter frame of the panel member defines an inwardly opening slot (19B, 25A, 39B, 43A; 61B, 65A) and coextensive first and second plates (27A, 27B, 45A, 45B; 83A, 83B, 67A, 67B) which are held in the respective inwardly opening slot to be relatively slidable with respect to each other, characterized in that a resilient strip is accommodated within each of the first and second frame posts (19, 21, 37, 39; 79, 81, 59, 61) and positioned to extend between an inner wall of the respective first and second frame posts and an outer surface of the respective one of the coextensive first and second plates (27A, 27B, 45A, 45B; 83A, 83B, 67A, 67B), as well as longitudinally of each first and second frame posts. first and second panel members (17; 35; 51; 53) amounting post (11, 77) for mounting to a substantially vertical perimeter portion of an architectural opening; a first hinge (15; 75) connected to the mounting post (11, 77); the first panel member (17; 51) having its first frame post (19; 79) pivotally mounted by the first hinge (15; 75); a second hinge (33; 55) connected to the second frame post (21, 81) of the first panel member (17; 51); and the second panel member (35; 53) having its first frame post (37; 59) pivotally mounted by the second hinge (33; 55), wherein at least one panel member (17; 35; 51; 53) forming part of the first and second panel members, includes a perimeter frame defined by first and second frame posts (19, 21, 37, 39; 79, 81, 59, 61) and upper and lower frame beams (23, 25, 41, 43; 87, 91, 63, 65) wherein the perimeter frame of the panel member defines an inwardly opening slot (19B, 25A, 39B, 43A; 61B, 65A) and coextensive first and second plates (27A, 27B, 45A, 45B; 83A, 83B, 67A, 67B) which are held in the respective inwardly opening slot to be relatively slidable with respect to each other, characterized in that a resilient strip is accommodated within each of the first and second frame posts (19, 21, 37, 39; 79, 81, 59, 61) and positioned to extend between an inner wall of the respective first and second frame posts and an outer surface of the respective one of the coextensive first and second plates (27A, 27B, 45A, 45B; 83A, 83B, 67A, 67B), as well as longitudinally of each first and second frame posts.
A method for producing an active substance laminate, especially an oral active substance laminate, having at least one active-substance-containing layer, which is arranged on a substrate, wherein the method comprises the following steps: a) providing a substrate having an upper side and an underside; b) applying an active-substance-containing mass in a gap formed by a first rotating roller and a second rotating roller; c) transporting the substrate to the second roller by means of a third rotating roller in such a way that the active-substance-containing mass is applied to the upper side of the substrate by the second roller in the form of an active-substance-containing layer; d) transporting an intermediate laminate, formed by the substrate and the active-substance-containing layer, to a drying device; and e) drying the intermediate laminate, especially the active-substance-containing layer, wherein the rotation speed of the first rotating roller is 0.0 m/min - 0.5 m/min and of the second rotating roller is 0.8 m/min - 2.3 m/min and of the third rotating roller is 0.5 m/min - 1.5 m/min, and the gap between the first rotating roller and the second rotating roller has a width of from 0.2 mm - 0.9 mm and the intermediate laminate in the drying device is acted on by a temperature of 30 °C - 120 °C. a) providing a substrate having an upper side and an underside; b) applying an active-substance-containing mass in a gap formed by a first rotating roller and a second rotating roller; c) transporting the substrate to the second roller by means of a third rotating roller in such a way that the active-substance-containing mass is applied to the upper side of the substrate by the second roller in the form of an active-substance-containing layer; d) transporting an intermediate laminate, formed by the substrate and the active-substance-containing layer, to a drying device; and e) drying the intermediate laminate, especially the active-substance-containing layer, wherein the rotation speed of the first rotating roller is 0.0 m/min - 0.5 m/min and of the second rotating roller is 0.8 m/min - 2.3 m/min and of the third rotating roller is 0.5 m/min - 1.5 m/min, and the gap between the first rotating roller and the second rotating roller has a width of from 0.2 mm - 0.9 mm and the intermediate laminate in the drying device is acted on by a temperature of 30 °C - 120 °C.
A vehicle module for transporting at least one person, comprising at least two wheels adapted for ground engagement; an electric motor operationally connected to the wheels for propelling the vehicle module; an electrical energy storage operationally connected to the electric motor for providing energy to the electric motor; at least one charging means (8,9), which is operationally connected to the energy storage and adapted to be operationally connected to another vehicle module or vehicle for providing charging electricity to and/or receive charging electricity from said another vehicle module or vehicle; wherein the at least one charging means further comprises a respective connection means (6,7, 13, 14) for securely attaching the vehicle module to said another vehicle module or vehicle or to a charging or parking station; characterized in that at least one of the connection means (6,7), is arranged to connect the vehicle module to said another vehicle module or vehicle so that the wheels of the vehicle module are parallel to the wheels of the connected said another vehicle module or vehicle; and wherein, when the vehicle module is connected to said another vehicle module or vehicle, a control unit of the vehicle module is adapted to take control over the steering of the said another vehicle module or vehicle so as to drive the vehicle assembly as one vehicle; wherein, charging power may be shared between the module and said another vehicle module or vehicle while the vehicle assembly is driving. at least two wheels adapted for ground engagement; an electric motor operationally connected to the wheels for propelling the vehicle module; an electrical energy storage operationally connected to the electric motor for providing energy to the electric motor; at least one charging means (8,9), which is operationally connected to the energy storage and adapted to be operationally connected to another vehicle module or vehicle for providing charging electricity to and/or receive charging electricity from said another vehicle module or vehicle; wherein the at least one charging means further comprises a respective connection means (6,7, 13, 14) for securely attaching the vehicle module to said another vehicle module or vehicle or to a charging or parking station; characterized in that at least one of the connection means (6,7), is arranged to connect the vehicle module to said another vehicle module or vehicle so that the wheels of the vehicle module are parallel to the wheels of the connected said another vehicle module or vehicle; and wherein, when the vehicle module is connected to said another vehicle module or vehicle, a control unit of the vehicle module is adapted to take control over the steering of the said another vehicle module or vehicle so as to drive the vehicle assembly as one vehicle; wherein, charging power may be shared between the module and said another vehicle module or vehicle while the vehicle assembly is driving.
Process for the preparation of an aqueous soluble ferric pyrophosphate concentrate, wherein said process comprising the steps of: (a) adding 0.1 to 5 weight / volume % ferric pyrophosphate to water, (b) adding 0.15 to 50 weight / volume % citrate salt to the dispersion from (a), (c) heating the resulting solution from (b) until complete dissolution of ferric pyrophosphate (a) adding 0.1 to 5 weight / volume % ferric pyrophosphate to water, (b) adding 0.15 to 50 weight / volume % citrate salt to the dispersion from (a), (c) heating the resulting solution from (b) until complete dissolution of ferric pyrophosphate
A physical layer, PHY, device for a network, the PHY device comprising: a transmitter (316, 318) configured to transmit data at the PHY device from a host (204, 304) to an external network (203, 303) that is external to the PHY device; a clock of the PHY device (328, 340) to align timing for components within the PHY device; a host interface configured to receive the data to transmit from the host and configured to receive configuration commands from the host; a time stamping engine having a time stamping clock and configured to apply a time stamp to the data transmitted by the transmitter based on the time stamping clock, the time stamping clock being independent of a host clock and coupled to the host interface to receive phase and frequency adjustments as configuration commands from the host to thereby adjust the phase and frequency of the time stamping based on the received configuration commands; the time stamping engine further comprising a modulus counter configured to count a preconfigured number of timing pulses of the clock; wherein the time stamping engine comprises a time stamping phase-locked loop, PLL,, coupled to the modulus counter, wherein the PLL is configured provide a timing source that is independent of the clock of the PHY device; and a timing output interface coupled to the modulus counter to produce a precision timing output signal based on detecting the preconfigured number of timing pulses of the clock. a transmitter (316, 318) configured to transmit data at the PHY device from a host (204, 304) to an external network (203, 303) that is external to the PHY device; a clock of the PHY device (328, 340) to align timing for components within the PHY device; a host interface configured to receive the data to transmit from the host and configured to receive configuration commands from the host; a time stamping engine having a time stamping clock and configured to apply a time stamp to the data transmitted by the transmitter based on the time stamping clock, the time stamping clock being independent of a host clock and coupled to the host interface to receive phase and frequency adjustments as configuration commands from the host to thereby adjust the phase and frequency of the time stamping based on the received configuration commands; the time stamping engine further comprising a modulus counter configured to count a preconfigured number of timing pulses of the clock; wherein the time stamping engine comprises a time stamping phase-locked loop, PLL,, coupled to the modulus counter, wherein the PLL is configured provide a timing source that is independent of the clock of the PHY device; and a timing output interface coupled to the modulus counter to produce a precision timing output signal based on detecting the preconfigured number of timing pulses of the clock.
A method for producing an alfalfa plant, the method comprising: providing a population of alfalfa cells that each comprise four COMT alleles, contacting the population of alfalfa cells with one or more rare-cutting endonucleases targeted to one or more of the four COMT alleles, regenerating alfalfa plants from the population of alfalfa cells, and selecting an alfalfa plant with an induced mutation in each of said four COMT alleles, wherein said selected alfalfa plant comprises a reduction in syringyl units as compared to a corresponding wild type alfalfa plant, and/or wherein said selected alfalfa plant exhibits reduced lignin content as compared to a corresponding wild type alfalfa plant. providing a population of alfalfa cells that each comprise four COMT alleles, contacting the population of alfalfa cells with one or more rare-cutting endonucleases targeted to one or more of the four COMT alleles, regenerating alfalfa plants from the population of alfalfa cells, and selecting an alfalfa plant with an induced mutation in each of said four COMT alleles, wherein said selected alfalfa plant comprises a reduction in syringyl units as compared to a corresponding wild type alfalfa plant, and/or wherein said selected alfalfa plant exhibits reduced lignin content as compared to a corresponding wild type alfalfa plant.
A method for producing 2-chloro-3,3,3-trifluoropropene by fluorinating a starting material containing at least one of a pentachloropropane or a tetrachloropropene in the presence of a fluorinating agent in a reactor, comprising the step of adding hydrogen chloride to the reactor, wherein - the pentachloropropane is at least one of 1,1,1,2,3-pentachloropropane and 1,1,2,2,3-pentachloropropane; the tetrachloropropene is at least one of 1,1,2,3-tetrachloropropene and 2,3,3,3-tetrachloropropene, - the fluorination is performed in a gas phase, and - the HCl is added in an amount of 1×10 -4 to 2 molar equivalents, based on the total amount of the at least one pentachloropropane and tetrachloropropene. - the pentachloropropane is at least one of 1,1,1,2,3-pentachloropropane and 1,1,2,2,3-pentachloropropane; the tetrachloropropene is at least one of 1,1,2,3-tetrachloropropene and 2,3,3,3-tetrachloropropene, - the fluorination is performed in a gas phase, and - the HCl is added in an amount of 1×10 -4 to 2 molar equivalents, based on the total amount of the at least one pentachloropropane and tetrachloropropene.
A cowl door actuator comprising a head end and a rod end that is connectable to a cowl door, the cowl door being moveable between a closed position and an open position, the cowl door actuator comprising a piston rod axially moveable between the head end and the rod end, the piston rod having an extended position in which the piston rod contacts the rod end to move the cowl door to the open position, and a retracted position in which the piston rod is axially spaced from the rod end by a gap; wherein when the cowl door is in the closed position, the gap between the piston rod and the rod end enables an axial displacement of the piston rod toward the extended position during thermal expansion of fluid remaining in the actuator, whereby the cowl door can be maintained in the closed position when the piston rod is axially displaced; wherein the cowl door actuator further comprises a first piston chamber and a second piston chamber; characterized in that the first piston chamber and the second piston chamber are in fluid communication with each other along a longitudinal axis of the piston rod, wherein the piston rod is moveable to the retracted position when the cowl door is in the open position by displacement of fluid from the first piston chamber into the second piston chamber and exiting the actuator, wherein the piston rod is moveable to the retracted position when the cowl door is in the closed position by continued displacement of fluid out of the actuator.