mhurhangee/patent-ind-claim-en huggingface dataset:
A signal transmission system for coherent optical transmission, comprising an equalization module, a first decoder, and a feedback module, wherein the equalization module is connected to the first decoder, the equalization module comprises at least two multi-symbol detectors, and the feedback module is connected to the first decoder and the at least two multi-symbol detectors; the equalization module is configured to perform equalization processing on a convolutional data flow to obtain an equalized data flow, wherein in a process in which the equalization module performs equalization processing on the convolutional data flow, each of the at least two multi-symbol detectors is configured to perform multi-symbol detection processing on a convolutional data flow input into the multi-symbol detector; the first decoder is configured to decode the equalized data flow to obtain a decoded data flow; the feedback module is configured to determine a feedback data flow based on the decoded data flow, and feed back the feedback data flow to the at least two multi-symbol detectors of the equalization module; and the equalization module is further configured to perform equalization processing on the convolutional data flow based on the feedback data flow, wherein in a process in which the equalization module performs equalization processing on the convolutional data flow, each of the at least two multi-symbol detectors is configured to perform, based on the feedback data flow fed back by the feedback module, multi-symbol detection processing on the convolutional data flow input into the multi-symbol detector. the equalization module is configured to perform equalization processing on a convolutional data flow to obtain an equalized data flow, wherein in a process in which the equalization module performs equalization processing on the convolutional data flow, each of the at least two multi-symbol detectors is configured to perform multi-symbol detection processing on a convolutional data flow input into the multi-symbol detector; the first decoder is configured to decode the equalized data flow to obtain a decoded data flow; the feedback module is configured to determine a feedback data flow based on the decoded data flow, and feed back the feedback data flow to the at least two multi-symbol detectors of the equalization module; and the equalization module is further configured to perform equalization processing on the convolutional data flow based on the feedback data flow, wherein in a process in which the equalization module performs equalization processing on the convolutional data flow, each of the at least two multi-symbol detectors is configured to perform, based on the feedback data flow fed back by the feedback module, multi-symbol detection processing on the convolutional data flow input into the multi-symbol detector.
A process comprising: contacting an olefin feed comprising butene with ethylene in the presence of a catalyst system comprising a metathesis catalyst under reaction conditions sufficient to form a product stream comprising propylene, wherein the metathesis catalyst comprises molybdenum and the reaction conditions comprise a reaction temperature of less than 250 °C; wherein the isomerization catalyst comprises magnesium oxide and further comprises a binder selected from alumina, silica, clays, inorganic oxides and combinations thereof and wherein the weight ratio of isomerization catalyst to metathesis catalyst in the catalyst system ranges from 0.5:1 to 0.25:1. contacting an olefin feed comprising butene with ethylene in the presence of a catalyst system comprising a metathesis catalyst under reaction conditions sufficient to form a product stream comprising propylene, wherein the metathesis catalyst comprises molybdenum and the reaction conditions comprise a reaction temperature of less than 250 °C; wherein the isomerization catalyst comprises magnesium oxide and further comprises a binder selected from alumina, silica, clays, inorganic oxides and combinations thereof and wherein the weight ratio of isomerization catalyst to metathesis catalyst in the catalyst system ranges from 0.5:1 to 0.25:1.
Merger to pick up and to distribute materials from a ground surface, comprising a frame , a pick-up head , affixed to the frame , that is configured to lift the materials from the ground surface and a conveyor , affixed to the frame , that is configured to receive the materials from the pick-up head , the conveyor includes a first belt and a second belt that are configured to independently distribute the materials on the ground surface from at least one of a first side of the frame and a second side of the frame characterized in that the frame includes a horizontal frame assembly and a vertical frame assembly , that the pick-up head is affixed on a front support member of the horizontal frame assembly and extends along a length of the horizontal frame assembly , that the pick-up head includes a series of guards extending between a first end plate and a second end plate , the series of guards is split into a first series of guards and a second series of guards and connected via a central guard assembly that protrudes from the front support member and is aligned with a central axis (C) of the horizontal frame assembly between the first series of guards and the second series of guards and that the first belt and the second belt are placed side by side to extend along a length of the front support member .
A random co-polymer prepared by the process of combining a first monomer that is a butyl acrylate monomer, a 2-ethylhexyl acrylate monomer, an octyl acrylate monomer, or an iso-octyl acrylate monomer and at least 18 weight percent, based on the weight of the random co-polymer, of a second monomer that is a methyl methacrylate monomer, a butyl methacrylate, or an isobutyl methacrylate; in the presence of a polymerization initiator and optionally, an organic solvent, wherein the weight ratio of the first monomer to the second monomer is 82:18 to 50:50, and wherein the polymerization initiator is 2,2'-azodi(2-methylbutyronitrile) (AMBN), dibenzoyl peroxide, lauryol peroxide, or 2,2'-azobisisobutyronitrile (AIBN) and wherein said random co-polymer has a Tg of between -18°C and -50°C, wherein Tg is calculated theoretically using the Fox equation.
A method for sequencing a heteropolymeric target nucleic acid sequence, comprising: (a) passing the target sequence through a transmembrane pore so that a proportion of the nucleotides in the target sequence interacts in a sequential manner with two or more distinct sites of amino acids in the pore that are capable of discriminating between different nucleotides; wherein (i) the target sequence is not cleaved or digested to form individual nucleotides; and (ii) the pore is modified to alter the ability of at least two of the distinct sites to discriminate between different nucleotides by altering the size and/or conformation and/or net charge of the distinct sites; and (b) measuring the current passing through the pore during each interaction and thereby determining the sequence of the target sequence. (a) passing the target sequence through a transmembrane pore so that a proportion of the nucleotides in the target sequence interacts in a sequential manner with two or more distinct sites of amino acids in the pore that are capable of discriminating between different nucleotides; wherein (i) the target sequence is not cleaved or digested to form individual nucleotides; and (ii) the pore is modified to alter the ability of at least two of the distinct sites to discriminate between different nucleotides by altering the size and/or conformation and/or net charge of the distinct sites; and (i) the target sequence is not cleaved or digested to form individual nucleotides; and (ii) the pore is modified to alter the ability of at least two of the distinct sites to discriminate between different nucleotides by altering the size and/or conformation and/or net charge of the distinct sites; and (b) measuring the current passing through the pore during each interaction and thereby determining the sequence of the target sequence.
A gas-liquid separator for chromatography applications, the gas-liquid separator comprising: - a chamber extending in an axial direction (z) and having at least a flow chamber portion extending into a collection chamber portion , the chamber further has a distal portion at a bottom downstream end and the chamber has an oppositely located proximal portion at an upper upstream end, - a deflector (16; 160; 170) arranged in the flow chamber portion , the deflector having a deflector panel (17; 161; 171) extending radially outwardly (r) and in axial direction (z) to form a narrowing flow channel between the deflector (16; 160; 170) and a side wall of the chamber , wherein the deflector panel (17; 161; 171) has a lower free edge (20; 169; 179) located at a distal end of the deflector panel, wherein the deflector (16; 160; 170) comprises a closed base portion (22; 162; 172) integrally formed with a proximal portion of the deflector panel (17; 161; 171) to form a cup-shaped deflector (16; 160; 170), - an inlet duct extending into the chamber in axial direction (z) and extending through a proximal end of the gas-liquid separator, - at least one gas outlet shielded by the deflector panel (17; 161; 171) and being arranged axially offset from the free edge (20; 169; 179). - a chamber extending in an axial direction (z) and having at least a flow chamber portion extending into a collection chamber portion , the chamber further has a distal portion at a bottom downstream end and the chamber has an oppositely located proximal portion at an upper upstream end, - a deflector (16; 160; 170) arranged in the flow chamber portion , the deflector having a deflector panel (17; 161; 171) extending radially outwardly (r) and in axial direction (z) to form a narrowing flow channel between the deflector (16; 160; 170) and a side wall of the chamber , wherein the deflector panel (17; 161; 171) has a lower free edge (20; 169; 179) located at a distal end of the deflector panel, wherein the deflector (16; 160; 170) comprises a closed base portion (22; 162; 172) integrally formed with a proximal portion of the deflector panel (17; 161; 171) to form a cup-shaped deflector (16; 160; 170), - an inlet duct extending into the chamber in axial direction (z) and extending through a proximal end of the gas-liquid separator, - at least one gas outlet shielded by the deflector panel (17; 161; 171) and being arranged axially offset from the free edge (20; 169; 179).
Fastening device, in particular as part of a fastening system for detachably fixing components to one another, such as wall coverings to ceilings and walls, preferably in the field of interior spaces of any kind, with a support part comprising a support plate for protruding closure elements on one side thereof and a protruding fixing part with at least one fixing means on the other, opposite side thereof, the fixing part having an axial structural length preferably less than or equal to each radial structural length of the support part extending transversely thereto, and the respective fixing means of the fixing part being designed to be self-locking or self-tapping; characterised in that the support plate has a recess for applying an actuating tool, said recess extending from the support plate into the fixing part and being left free of the closure elements .
A method for automatically tracking location of a mobile device in a physical venue to within a predetermined spatial resolution , the method being performed by a system including a plurality of scanners (131-13n) covering an area of the physical venue and one or more data processors, , the method comprising the steps of: detecting presence of the mobile device within - the scanners-covered area of the venue; obtaining a current hardware address code of the detected mobile device; using the obtained current hardware address code to repeatedly attempt to dynamically connect to a predetermined background peripheral service "BPS" installed in the detected mobile device, wherein when the BPS is connected to, the BPS temporarily awakens and outputs a wireless signal including a temporary identification sequence "TID", the TID being one that has been pre-assigned to the BPS; receiving at one or more of the scanners of the venue, the wireless signal output by the BPS; determining the strength of the received wireless signal and acquiring the TID provided within the received wireless signal; sending the determined signal strength and acquired TID to at least one of the one or more data processors; processing the sent signal strength by one or more of the data processors to thereby determine a location of the detected mobile device to within the predetermined spatial resolution; and outputting from at least one of the data processors a location signal representing the determined location and identification of the detected mobile device. detecting presence of the mobile device within - the scanners-covered area of the venue; obtaining a current hardware address code of the detected mobile device; using the obtained current hardware address code to repeatedly attempt to dynamically connect to a predetermined background peripheral service "BPS" installed in the detected mobile device, wherein when the BPS is connected to, the BPS temporarily awakens and outputs a wireless signal including a temporary identification sequence "TID", the TID being one that has been pre-assigned to the BPS; receiving at one or more of the scanners of the venue, the wireless signal output by the BPS; determining the strength of the received wireless signal and acquiring the TID provided within the received wireless signal; sending the determined signal strength and acquired TID to at least one of the one or more data processors; processing the sent signal strength by one or more of the data processors to thereby determine a location of the detected mobile device to within the predetermined spatial resolution; and outputting from at least one of the data processors a location signal representing the determined location and identification of the detected mobile device.
A submerged-floating type water house comprising: a first lower side part and a second lower side part formed to be symmetrical with respect to each other; a first upper side part and a second upper side part extending from the first lower side part and the second lower side part and formed to be symmetrical with respect to each other; and a front part and a rear part formed on a front side and a rear side of the first lower side part and the second lower side part , and the first upper side part and the second upper side part , wherein the submerged-floating type water house forms a hexahedral body and wherein, in a state in which the body floats in water, the body is configured such that it forms a rhombic shape when viewed from the front side or the rear side in which portions of the first lower side part and the second lower side part are submerged in water, wherein the submerged-floating type water house further comprises; a propellant configured to allow the body to move in a selected direction; a GPS module capable of acquiring information on a current location of the body and information on a location, to which the body is to move; and a control unit configured to control the body to move to a preset location by controlling the propellant on a basis of the location information of the body acquired by the GPS module . a first lower side part and a second lower side part formed to be symmetrical with respect to each other; a first upper side part and a second upper side part extending from the first lower side part and the second lower side part and formed to be symmetrical with respect to each other; and a front part and a rear part formed on a front side and a rear side of the first lower side part and the second lower side part , and the first upper side part and the second upper side part , wherein the submerged-floating type water house forms a hexahedral body and wherein, in a state in which the body floats in water, the body is configured such that it forms a rhombic shape when viewed from the front side or the rear side in which portions of the first lower side part and the second lower side part are submerged in water, wherein the submerged-floating type water house further comprises; a propellant configured to allow the body to move in a selected direction; a GPS module capable of acquiring information on a current location of the body and information on a location, to which the body is to move; and a control unit configured to control the body to move to a preset location by controlling the propellant on a basis of the location information of the body acquired by the GPS module .
Process for producing BTX comprising: (a) in a hydrocracking/hydrodesulphurisation step, contacting a feedstream comprising C5-C12 hydrocarbons and benzene in the presence of hydrogen with a hydrocracking/hydrodesulphurisation catalyst comprising 0.1-1 wt-% hydrogenation metal in relation to the total catalyst weight and a zeolite having a pore size of 5-8 Å and a silica (SiO 2 ) to alumina (Al 2 O 3 ) molar ratio of 5-200 under process conditions comprising a temperature of 450-580 °C, a pressure of 300-5000 kPa gauge and a Weight Hourly Space Velocity of 0.1-10 h -1 to produce a hydrocracking product stream comprising BTX; and (b) separating the BTX from the hydrocracking product stream produced by the hydrocracking/hydrodesulphurisation step. (a) in a hydrocracking/hydrodesulphurisation step, contacting a feedstream comprising C5-C12 hydrocarbons and benzene in the presence of hydrogen with a hydrocracking/hydrodesulphurisation catalyst comprising 0.1-1 wt-% hydrogenation metal in relation to the total catalyst weight and a zeolite having a pore size of 5-8 Å and a silica (SiO 2 ) to alumina (Al 2 O 3 ) molar ratio of 5-200 under process conditions comprising a temperature of 450-580 °C, a pressure of 300-5000 kPa gauge and a Weight Hourly Space Velocity of 0.1-10 h -1 to produce a hydrocracking product stream comprising BTX; and (b) separating the BTX from the hydrocracking product stream produced by the hydrocracking/hydrodesulphurisation step.
Tyre for vehicle wheels, comprising: - a carcass structure ; - a crossed belt structure arranged in a radially outer position with respect to the carcass structure and comprising a first belt layer and at least one second belt layer arranged in a radially outer position with respect to the first belt layer ; - a tread band wherein at least one of said first belt layer and second belt layer comprises a plurality of hybrid reinforcing cords each having a core made of textile material having an initial tangent modulus equal to or greater than 2000 cN/Tex and extending along a predetermined longitudinal direction (A) and a plurality of metallic wires substantially parallel to one another and helically wound around the core with a predetermined winding pitch (P), wherein the metallic wires are arranged around the core so that, in any cross section of the hybrid reinforcing cord , they are located at only one angular portion of an ideal circumference (C) that circumscribes the core , wherein said angular portion is defined by an angle, which is less than 90 °, characterised in that the tyre further comprises at least one zero degrees reinforcing layer arranged in a radially outer position with respect to the crossed belt structure , said tread band being arranged in a radially outer position with respect to said at least one zero degrees reinforcing layer , wherein said at least one zero degrees reinforcing layer includes a plurality of non hybrid reinforcing cords and wherein the number of the metallic wires is comprised between 3 and 5. - a carcass structure ; - a crossed belt structure arranged in a radially outer position with respect to the carcass structure and comprising a first belt layer and at least one second belt layer arranged in a radially outer position with respect to the first belt layer ; - a tread band
A projection system comprising: a projection apparatus that is configured to project image light indicating image content and pattern light including a pattern image corresponding to information in which projection coordinates in a projection coordinate system are coded; and at least one image capture apparatus characterized by the projection apparatus is configured to perform time-division multiplexing on the image light and the pattern light and projects resultant light; and further comprising: an arithmetic apparatus, wherein the at least one image capture apparatus includes an image capture coordinate system and is configured to generate a captured image by capturing the pattern light projected onto an object from the projection apparatus, and wherein the arithmetic apparatus is configured to decode the captured image into projection coordinate information indicating the projection coordinates corresponding to image capture coordinates in the image capture coordinate system, to convert the projection coordinate information into information regarding a distance to the object in the projection coordinate system, and to process recorded image content in accordance with the distance information. a projection apparatus that is configured to project image light indicating image content and pattern light including a pattern image corresponding to information in which projection coordinates in a projection coordinate system are coded; and at least one image capture apparatus characterized by the projection apparatus is configured to perform time-division multiplexing on the image light and the pattern light and projects resultant light; and further comprising: an arithmetic apparatus, wherein the at least one image capture apparatus includes an image capture coordinate system and is configured to generate a captured image by capturing the pattern light projected onto an object from the projection apparatus, and wherein the arithmetic apparatus is configured to decode the captured image into projection coordinate information indicating the projection coordinates corresponding to image capture coordinates in the image capture coordinate system, to convert the projection coordinate information into information regarding a distance to the object in the projection coordinate system, and to process recorded image content in accordance with the distance information. an arithmetic apparatus, wherein the at least one image capture apparatus includes an image capture coordinate system and is configured to generate a captured image by capturing the pattern light projected onto an object from the projection apparatus, and wherein the arithmetic apparatus is configured to decode the captured image into projection coordinate information indicating the projection coordinates corresponding to image capture coordinates in the image capture coordinate system, to convert the projection coordinate information into information regarding a distance to the object in the projection coordinate system, and to process recorded image content in accordance with the distance information.