mhurhangee/ep-ind-claims huggingface dataset:
A method for generating cell-specific signals using an antenna array with dual-polarized antenna elements, the method being performed by a network device (200a, 200b, 200c), the method comprising: obtaining antenna weights for two sector-specific signals, each sector-specific signal giving rise to a respective sector-specific radiation pattern (160a, 160b, 160c, 160d); generating a first cell-specific signal, the first cell-specific signal giving rise to a first cell-specific radiation pattern, wherein antenna weights for the first cell-specific signal are determined such that the radiation pattern matches both sector-specific radiation patterns (160a, 160b, 160c, 160d); and generating a second cell-specific signal, the second cell-specific signal giving rise to a radiation pattern (170a") identical to the first cell-specific radiation pattern, wherein antenna weights for the second cell-specific signal are identical to the antenna weights for the first cell-specific signal except that the first cell-specific signal and the second cell-specific signal have mutually orthogonal polarization, and wherein a phase shift is applied to separate the first cell-specific signal and the second cell-specific signal by 180 degrees. obtaining antenna weights for two sector-specific signals, each sector-specific signal giving rise to a respective sector-specific radiation pattern (160a, 160b, 160c, 160d); generating a first cell-specific signal, the first cell-specific signal giving rise to a first cell-specific radiation pattern, wherein antenna weights for the first cell-specific signal are determined such that the radiation pattern matches both sector-specific radiation patterns (160a, 160b, 160c, 160d); and generating a second cell-specific signal, the second cell-specific signal giving rise to a radiation pattern (170a") identical to the first cell-specific radiation pattern, wherein antenna weights for the second cell-specific signal are identical to the antenna weights for the first cell-specific signal except that the first cell-specific signal and the second cell-specific signal have mutually orthogonal polarization, and wherein a phase shift is applied to separate the first cell-specific signal and the second cell-specific signal by 180 degrees.
An orally-administrable composition comprising plant material comprising an immunogenic F1-LcrV fusion protein and Lactuca sativa chloroplast genomes, said chloroplast genomes comprising a Lactuca sativa pLsDV LsF1V vector, for use in a method of eliciting a protective immune response against Y. pestis in a subject in need thereof.
A liquid crystal display, LCD, device comprising: a substrate; a pixel electrode disposed on the substrate and having an active area that transmits light therethrough; and a first data line disposed on the substrate; wherein the pixel electrode includes a first stem electrode, which extends along a first direction, a second stem electrode, which extends along a second direction that is perpendicular to the first direction, intersects the first stem electrode and is divided into two halves by the first stem electrode, a third stem electrode, which extends along the second direction, is connected to the first stem electrode and is divided into two halves by one end of the first stem electrode, and a plurality of branch electrodes, which extend from at least one of the first stem electrode, the second stem electrode and the third stem electrode, wherein the first data line extends along the second direction, the liquid crystal display being characterized in that the first data line crosses the active area and overlaps with the second stem electrode. a substrate; a pixel electrode disposed on the substrate and having an active area that transmits light therethrough; and a first data line disposed on the substrate; wherein the pixel electrode includes a first stem electrode, which extends along a first direction, a second stem electrode, which extends along a second direction that is perpendicular to the first direction, intersects the first stem electrode and is divided into two halves by the first stem electrode, a third stem electrode, which extends along the second direction, is connected to the first stem electrode and is divided into two halves by one end of the first stem electrode, and a plurality of branch electrodes, which extend from at least one of the first stem electrode, the second stem electrode and the third stem electrode, wherein the first data line extends along the second direction, the liquid crystal display being characterized in that the first data line crosses the active area and overlaps with the second stem electrode.
A process for preparing an asymmetric modified carbon molecular sieve hollow fiber membrane having improved gas separation performance properties comprising: a. providing an asymmetric polymer precursor hollow fiber, b. contacting the polymer precursor fiber with a solution comprising a modifying agent and a liquid diluent that does not interfere with the reaction of the modifying agent to form a morphology stabilizer, wherein the modifying agent is a compound having the general formula R 1 R 2 R 3 R 4 Si, where each of R 1, R 2, R 3, and R 4 are independently C 1 -C 6 alkyl or alkenyl, alkoxy, or halogen; with the proviso that the compound contains at least one C 1 -C 6 alkyl or alkenyl substituent and at least one alkoxy or halogen substituent, especially wherein the modifying agent is vinyl trimethoxy silane, or a compound having the general formula R 1 R 2 R 3 R 4 M, where M is a metal and where each of R 1, R 2, R 3, and R 4 are independently C 1 -C 6 alkyl or alkenyl, alkoxy, or halogen, with the proviso that the compound contains at least one C 1 -C 6 alkyl or alkenyl substituent and at least one alkoxy or halogen substituent, especially where M is selected from the group consisting of Ge, B, Al, Ti, V, Fe, and combinations thereof, and characterized by c. contacting the polymer precursor fiber of step b. with a moisture-containing atmosphere to form a treated polymer fiber, d. pyrolyzing the treated polymer fiber to form an asymmetric modified carbon molecular sieve hollow fiber membrane having an improved gas permeance, wherein the concentration of the modifying agent in the solution is between 1 wt% and 95 wt% of the solution. a. providing an asymmetric polymer precursor hollow fiber, b. contacting the polymer precursor fiber with a solution comprising a modifying agent and a liquid diluent that does not interfere with the reaction of the modifying agent to form a morphology stabilizer, wherein the modifying agent is a compound having the general formula R 1 R 2 R 3 R 4 Si, where each of R 1, R 2, R 3, and R 4 are independently C 1 -C 6 alkyl or alkenyl, alkoxy, or halogen; with the proviso that the compound contains at least one C 1 -C 6 alkyl or alkenyl substituent and at least one alkoxy or halogen substituent, especially wherein the modifying agent is vinyl trimethoxy silane, or a compound having the general formula R 1 R 2 R 3 R 4 M, where M is a metal and where each of R 1, R 2, R 3, and R 4 are independently C 1 -C 6 alkyl or alkenyl, alkoxy, or halogen, with the proviso that the compound contains at least one C 1 -C 6 alkyl or alkenyl substituent and at least one alkoxy or halogen substituent, especially where M is selected from the group consisting of Ge, B, Al, Ti, V, Fe, and combinations thereof, and characterized by c. contacting the polymer precursor fiber of step b. with a moisture-containing atmosphere to form a treated polymer fiber, d. pyrolyzing the treated polymer fiber to form an asymmetric modified carbon molecular sieve hollow fiber membrane having an improved gas permeance, wherein the concentration of the modifying agent in the solution is between 1 wt% and 95 wt% of the solution.
Mobile loading system for a loading space of a vehicle having a floor and a vehicle frame, wherein the mobile loading system comprises at least one frame which supports a loading floor and the frame comprises at least two first receptacles for bracing devices and the floor of the loading space and/or the vehicle frame has at least two receptacles for bracing devices, characterized in that the frame has an enclosure with transverse struts (13.1, 13.2) and longitudinal struts (12.1, 12.2) and the enclosure, the longitudinal struts (12.1, 12.2) and/or transverse struts (13.1, 13.2) are laser-cut and/or folded metal sheets.
Container for cooking food comprising a bottom and a side wall, said side wall having an initial part comprising an end belonging to said bottom and wherein between said initial part and said bottom there is a section with a determined radius of curvature and a certain extension arc, said container further comprises a first element having an area and made of a good heat conducting first metal material, and a second element, made of a second ferromagnetic metal material, said second element being fixed to said first element externally with respect to the area of said first element which corresponds to the bottom of the container, by means of pressing with the impact bonding technique, so as to firmly connect said second element with said first element, said container being subsequently realised by forming or moulding in a specially shaped mould characterized in that said second element extends contiguously over the whole bottom and along a portion of the initial part corresponding to the section, said section being between 10 mm and 30 mm long and extending for an extension arc between 30° and 80° with respect to the lying plane of the bottom.
A method for removing sulphur from a fluid, comprising the steps of: - providing a first fluid comprising a sulphur-containing compound, - adsorbing the sulphur of said sulphur-containing compound onto an adsorbent, particularly in the presence of hydrogen, - regenerating said adsorbent by oxidation of said adsorbed sulphur to sulphur dioxide thereby yielding an off-gas stream comprising sulphur dioxide, - providing a second fluid comprising hydrogen sulphide, - using said second fluid and said off-gas stream as reactants in a Claus process for producing elemental sulphur, • wherein a part of hydrogen sulphide provided by said second fluid is oxidized to sulphur dioxide and water at an reaction temperature, • wherein the residual hydrogen sulphide, the resulting sulphur oxide and said sulphur oxide provided by said off-gas stream are converted to elemental sulphur, • wherein the oxygen required for said oxidation of said hydrogen sulphide provided by said second fluid is provided by an air stream, and • wherein said off-gas stream dilutes said second fluid in said Claus process, characterized in that, said Claus process is enriched with oxygen for maintaining said reaction temperature equal to or above 1100 °C, preferably above 1200 °C, preferably above 1250 °C, preferably above 1300 °C, preferably above 1400 °C. - providing a first fluid comprising a sulphur-containing compound, - adsorbing the sulphur of said sulphur-containing compound onto an adsorbent, particularly in the presence of hydrogen, - regenerating said adsorbent by oxidation of said adsorbed sulphur to sulphur dioxide thereby yielding an off-gas stream comprising sulphur dioxide, - providing a second fluid comprising hydrogen sulphide, - using said second fluid and said off-gas stream as reactants in a Claus process for producing elemental sulphur, • wherein a part of hydrogen sulphide provided by said second fluid is oxidized to sulphur dioxide and water at an reaction temperature, • wherein the residual hydrogen sulphide, the resulting sulphur oxide and said sulphur oxide provided by said off-gas stream are converted to elemental sulphur, • wherein the oxygen required for said oxidation of said hydrogen sulphide provided by said second fluid is provided by an air stream, and • wherein said off-gas stream dilutes said second fluid in said Claus process, characterized in that, • wherein a part of hydrogen sulphide provided by said second fluid is oxidized to sulphur dioxide and water at an reaction temperature, • wherein the residual hydrogen sulphide, the resulting sulphur oxide and said sulphur oxide provided by said off-gas stream are converted to elemental sulphur, • wherein the oxygen required for said oxidation of said hydrogen sulphide provided by said second fluid is provided by an air stream, and • wherein said off-gas stream dilutes said second fluid in said Claus process, characterized in that,
A tire having a radial carcass reinforcement comprising a crown reinforcement formed of at least two working crown layers (41-541, 42-542) of inextensible reinforcement elements, which are crossed from one ply to the other, forming angles of between 10° and 45° with the circumferential direction, which itself is topped radially by a tread, said tread being joined to two beads by means of two sidewalls, the axially widest working crown layer being radially internal to the other working crown layers, characterized in that it additionally comprises in each shoulder at least one layer of reinforcement elements which are parallel to each other in the layer and forming an angle with the reinforcement elements of the working layer radially adjacent to said additional layer between 80 and 90°, in that the axially inner end of said additional layer is radially adjacent to the edge of the radially outer working crown layer, and in that at least part of said additional layer is radially and/or axially adjacent to the edge of the axially widest working crown layer.
A magnetic connector module), comprising: a pattern electrode part module (100,300); and a pin terminal part module (200, 400), wherein the pattern electrode part module (100, 300) includes pattern electrodes (110, 111, 112, 113, 114, 310) having a concentric circle shape, pattern electrode part magnets (130, 361, 362, 363, 364), and a pattern electrode part connector, wherein the pin terminal part module (200, 400) includes a plurality of pin terminals (210, 211, 212, 213, 214, 215, 410), pin terminal part magnets, and a pin terminal part connector, wherein the pattern electrode part magnets (130, 361, 362, 363, 364) and the pin terminal part magnets (461, 462, 463, 464) are magnetically coupled to each other to allow the pattern electrodes (110, 111, 112, 113, 114, 310) and the plurality of pin terminals (210, 211, 212, 213, 214, 215, 410) to contact each other, wherein the plurality of pin terminals (210, 211, 212, 213, 214, 215) include a power terminal VCC and a ground power terminal GND, characterized in that the magnetic connector module further includes a power supply blocking circuit (260, 265), that the plurality of pin terminals (210, 211, 212, 213, 214, 215) further includes a signal terminal S, that an electrode contacting the ground power terminal GND and an electrode contacting the signal terminal S among the pattern electrodes (110, 111, 112, 113, 114) are electrically short-circuited, that the pin terminal part module includes the power supply blocking circuit (260, 265) allowing power supply to the power terminal VCC only in a state in which the ground power terminal GND and the signal terminal S are electrically short-circuited, and that the electrode contacting the ground power terminal GND and the electrode contacting the signal terminal S among the pattern electrodes (110, 111, 112, 113, 114) are formed integrally with each other and have a ring shape. a pattern electrode part module (100,300); and a pin terminal part module (200, 400),
A photoluminescent guide for an aircraft emergency lighting system, the guide comprising a housing and a photoluminescent insert received within the housing, the housing having a length and a width and the insert being sealed within the housing to extend from one end to the other end and from one side to the other side, characterised in that the insert is an integral, one piece composite member including a base element, a photoluminescent element and a cap element, the cap element comprising a coloured light transmitting film, the photoluminescent element being disposed between the base element and the cap element for receiving and emitting light through the cap element and a light transmitting portion of the housing, and wherein the photoluminescent element comprises a polymeric material in which photoluminescent material is suspended and the cap element comprises a film of sheet plastics.
A light controlling apparatus (100, 200, 300) comprising: a first electrode unit (110, 210, 310) and a second electrode unit (120, 220, 320) facing each other, the first electrode unit comprising a first substrate (111, 211, 311), the second electrode unit comprising a second substrate (121, 221, 321), and at least one of the electrode units comprising at least one patterned electrode (112, 112a, 122, 122b, 212a, 213, 223, 222b, 312, 322); a liquid crystal unit (130, 230, 330) between the first electrode unit and the second electrode unit, the liquid crystal unit (130, 230, 330) including: a liquid crystal (130a, 230a, 330a); a wall (160, 260, 360) having a first polymer being polymerized from a first monomer, the first monomer having a higher diffusion speed and/or lower polymerization rate in the liquid crystal (130a, 230a, 330a) than that of a second monomer; and a network (170, 270, 370) having a second polymer being polymerized from the second monomer, the second monomer having a lower diffusion speed and/or higher polymerization rate in the liquid crystal (130a, 230a, 330a) than that of the first monomer. a first electrode unit (110, 210, 310) and a second electrode unit (120, 220, 320) facing each other, the first electrode unit comprising a first substrate (111, 211, 311), the second electrode unit comprising a second substrate (121, 221, 321), and at least one of the electrode units comprising at least one patterned electrode (112, 112a, 122, 122b, 212a, 213, 223, 222b, 312, 322); a liquid crystal unit (130, 230, 330) between the first electrode unit and the second electrode unit, the liquid crystal unit (130, 230, 330) including: a liquid crystal (130a, 230a, 330a); a wall (160, 260, 360) having a first polymer being polymerized from a first monomer, the first monomer having a higher diffusion speed and/or lower polymerization rate in the liquid crystal (130a, 230a, 330a) than that of a second monomer; and a network (170, 270, 370) having a second polymer being polymerized from the second monomer, the second monomer having a lower diffusion speed and/or higher polymerization rate in the liquid crystal (130a, 230a, 330a) than that of the first monomer. a liquid crystal (130a, 230a, 330a); a wall (160, 260, 360) having a first polymer being polymerized from a first monomer, the first monomer having a higher diffusion speed and/or lower polymerization rate in the liquid crystal (130a, 230a, 330a) than that of a second monomer; and a network (170, 270, 370) having a second polymer being polymerized from the second monomer, the second monomer having a lower diffusion speed and/or higher polymerization rate in the liquid crystal (130a, 230a, 330a) than that of the first monomer.
A computer-implemented system comprising the following computer-executable components: a mobile unit (125; 404) with GPS capabilities for acquiring GPS data, wherein the acquired GPS data indicates a motion of the mobile unit; and an error mitigation system for verifying the GPS data associated with the mobile unit, wherein the error mitigation system further comprises a detection component that detects signals from one or more signal sources and a comparator component that determines differences in signal strength at different times, the error mitigation system evaluates signal strength from the one or more signal sources to infer a motion of the mobile unit and if a difference in signal strength at different times has changed beyond a predetermined threshold, infer a dynamic position of the mobile unit and accept the GPS data, and if the difference in signal strength at different times has not changed beyond the predetermined threshold, infer a static position of the mobile unit and discard the GPS data indicating an erratic motion, wherein the one or more signal sources are a base station or a communication tower. a mobile unit (125; 404) with GPS capabilities for acquiring GPS data, wherein the acquired GPS data indicates a motion of the mobile unit; and an error mitigation system for verifying the GPS data associated with the mobile unit, wherein the error mitigation system further comprises a detection component that detects signals from one or more signal sources and a comparator component that determines differences in signal strength at different times, the error mitigation system evaluates signal strength from the one or more signal sources to infer a motion of the mobile unit and if a difference in signal strength at different times has changed beyond a predetermined threshold, infer a dynamic position of the mobile unit and accept the GPS data, and if the difference in signal strength at different times has not changed beyond the predetermined threshold, infer a static position of the mobile unit and discard the GPS data indicating an erratic motion, wherein the one or more signal sources are a base station or a communication tower.
Bistable solenoid valve for a fluid system, wherein the bistable solenoid valve has: an armature, which is movable in an axial direction between a first armature position and a second armature position, a first core for supporting the armature in the first armature position, and a second core for supporting the armature in the second armature position, wherein the armature is formed to be supported on in each case one of the cores (12, 14) so as to form an air gap with respect to the other core (14, 12), a first valve device (8, 9), closed in the first armature position, and a second valve device (10, 11), closed in the second armature position, a permanent magnet device for forming a first permanent magnetic field, which runs across a magnetic yoke (20, 21), the first core and the armature, and a second permanent magnetic field, which runs across the magnetic yoke (20, 21), the second core and the armature, a first electromagnet device for forming a first electromagnetic field, which runs across the magnetic yoke, the first core and the armature, a second electromagnet device for forming a second electromagnetic field, which runs across the magnetic yoke (20, 21), the second core and the armature, characterized in that the permanent magnet device is magnetized in the radial direction relative to the axial direction. an armature, which is movable in an axial direction between a first armature position and a second armature position, a first core for supporting the armature in the first armature position, and a second core for supporting the armature in the second armature position, wherein the armature is formed to be supported on in each case one of the cores (12, 14) so as to form an air gap with respect to the other core (14, 12), a first valve device (8, 9), closed in the first armature position, and a second valve device (10, 11), closed in the second armature position, a permanent magnet device for forming a first permanent magnetic field, which runs across a magnetic yoke (20, 21), the first core and the armature, and a second permanent magnetic field, which runs across the magnetic yoke (20, 21), the second core and the armature, a first electromagnet device for forming a first electromagnetic field, which runs across the magnetic yoke, the first core and the armature, a second electromagnet device for forming a second electromagnetic field, which runs across the magnetic yoke (20, 21), the second core and the armature, characterized in that the permanent magnet device is magnetized in the radial direction relative to the axial direction.