mhurhangee/ep-ind-claims huggingface dataset:
A mounting system for an aircraft, comprising a jet engine, a wing and a strut, wherein the strut comprises: a plurality of engine mounts (312, 316); and a space frame truss supported from the wing and comprising a front portion and an aft portion, wherein the aft portion is coupled to the front portion, the front portion being coupled to and supporting the engine mounts (312, 316), the aft portion extending upwardly and rearwardly from an aft end of the front portion, wherein said aft portion comprises: a lower frame having an aft end, an upper frame having an aft end, and a U-shaped aft frame disposed at an aft end of the aft portion and coupling the aft end of the lower frame to the aft end of the upper frame; wherein the upper frame comprises: a rectangular frame, an upper skin defining an X-shaped pattern extending between diagonal corners of the rectangular frame, a pair of stiffeners disposed on an upper surface of the skin and forming a cross extending between diagonal corners of the frame. a plurality of engine mounts (312, 316); and a space frame truss supported from the wing and comprising a front portion and an aft portion, wherein the aft portion is coupled to the front portion, the front portion being coupled to and supporting the engine mounts (312, 316), the aft portion extending upwardly and rearwardly from an aft end of the front portion, wherein said aft portion comprises: a lower frame having an aft end, an upper frame having an aft end, and a U-shaped aft frame disposed at an aft end of the aft portion and coupling the aft end of the lower frame to the aft end of the upper frame; a lower frame having an aft end, an upper frame having an aft end, and a U-shaped aft frame disposed at an aft end of the aft portion and coupling the aft end of the lower frame to the aft end of the upper frame; wherein the upper frame comprises: a rectangular frame, an upper skin defining an X-shaped pattern extending between diagonal corners of the rectangular frame, a pair of stiffeners disposed on an upper surface of the skin and forming a cross extending between diagonal corners of the frame. a rectangular frame, an upper skin defining an X-shaped pattern extending between diagonal corners of the rectangular frame, a pair of stiffeners disposed on an upper surface of the skin and forming a cross extending between diagonal corners of the frame.
Apparatus for conveying organ packages to a processing station or stations, comprising a tray-conveyor having a series of trays movable in the conveying-direction, each tray arranged to receive an organ package, wherein the tray-conveyor has at least one discharge-station (6, 7) for the organ packages that are to be moved to the processing station or stations, wherein each discharge-station (6, 7) is provided with a sweeper-device for wiping an organ package out of the tray that passes the discharge-station (6, 7), characterized in that the sweeper-device comprises a pusher-plate that is arranged above the tray-conveyor, which pusher-plate in use moves at least in part transversely to the conveying direction and over or above the tray's supporting surface for the organ package and is arranged to move along with the tray in its conveying direction in a predefined part of the conveying-path of the tray.
A method for performing data encoding comprising: encoding data bits according to an outer convolutional code to produce outer encoded bits; processing the outer encoded bits using an interleaver to produce interleaved bits; processing the interleaved bits using a serial-to-parallel converter to group the interleaved bits into groups of J bits; processing the groups of J bits using a logical unit to produce intermediate bits, wherein the logical unit performs a single parity check to produce one of the intermediate bits for each group of J bits; encoding the intermediate bits according to an inner convolutional code to produce inner encoded bits, wherein the inner convolutional code is characterized by at least two states; and combining the data bits and the inner encoded bits to produce encoded outputs. encoding data bits according to an outer convolutional code to produce outer encoded bits; processing the outer encoded bits using an interleaver to produce interleaved bits; processing the interleaved bits using a serial-to-parallel converter to group the interleaved bits into groups of J bits; processing the groups of J bits using a logical unit to produce intermediate bits, wherein the logical unit performs a single parity check to produce one of the intermediate bits for each group of J bits; encoding the intermediate bits according to an inner convolutional code to produce inner encoded bits, wherein the inner convolutional code is characterized by at least two states; and combining the data bits and the inner encoded bits to produce encoded outputs.
A method for purifying an immunoglobulin, comprising the steps of: (a) dissolving an immunoglobulin-containing plasma protein fraction II paste, followed by filtration to obtain a fraction II solution; (b) dialyzing and/or concentrating the obtained fraction II solution, subjecting the dialyzed and/or concentrated solution to anion exchange chromatography, and recovering a fraction not attached to a column of the anion exchange chromatography; (c) treating the recovered fraction with a solvent and/or a detergent to inactivate viruses, followed by subjecting the fraction to cation exchange chromatography to remove the solvent and/or the detergent, and thrombotic substances, wherein the cation exchange chromatography uses a ceramic cation exchange resin, wherein the cation exchange chromatography is performed at a salt concentration of 400-600 mM; (d) dialyzing and/or concentrating an eluate obtained from the cation exchange chromatography, wherein a salt concentration of the eluate obtained from the cation exchange chromatography column in the step (c) is maintained at 50-150 mM in order to maintain the content of polymers during dialysis and/or concentration; and (e) filtering the dialyzed and/or concentrated solution, thereby obtaining a purified immunoglobulin. (a) dissolving an immunoglobulin-containing plasma protein fraction II paste, followed by filtration to obtain a fraction II solution; (b) dialyzing and/or concentrating the obtained fraction II solution, subjecting the dialyzed and/or concentrated solution to anion exchange chromatography, and recovering a fraction not attached to a column of the anion exchange chromatography; (c) treating the recovered fraction with a solvent and/or a detergent to inactivate viruses, followed by subjecting the fraction to cation exchange chromatography to remove the solvent and/or the detergent, and thrombotic substances, wherein the cation exchange chromatography uses a ceramic cation exchange resin, wherein the cation exchange chromatography is performed at a salt concentration of 400-600 mM; (d) dialyzing and/or concentrating an eluate obtained from the cation exchange chromatography, wherein a salt concentration of the eluate obtained from the cation exchange chromatography column in the step (c) is maintained at 50-150 mM in order to maintain the content of polymers during dialysis and/or concentration; and (e) filtering the dialyzed and/or concentrated solution, thereby obtaining a purified immunoglobulin.
A packaged pre-assembled valved conduit, comprising: a valved conduit including a bioprosthetic valve with bioprosthetic tissue, the valve having been treated such that the tissue may be stored dry for extended periods without degradation of functionality of the valve, the bioprosthetic valve being coupled to the conduit sealed with a bioresorbable medium; a valve holder attached to commissure posts of the bioprosthetic valve, wherein an elongated delivery handle extends from the holder out of an outflow end of the valved conduit; and a packaging for the valved conduit including at least one sterile container in which the valved conduit is stored without a preserving solution; wherein the packaging comprises a primary storage container comprising a molded storage tray and a sheet-like gas-permeable lid; wherein a series of cooperating brackets provided in the cavity of the tray firmly holds the handle in position in the tray, while the valved conduit is suspended within an enlarged cavity of the tray, securing the valved conduit from movement therein and preventing the valved conduit from touching any inner surfaces of the tray. a valved conduit including a bioprosthetic valve with bioprosthetic tissue, the valve having been treated such that the tissue may be stored dry for extended periods without degradation of functionality of the valve, the bioprosthetic valve being coupled to the conduit sealed with a bioresorbable medium; a valve holder attached to commissure posts of the bioprosthetic valve, wherein an elongated delivery handle extends from the holder out of an outflow end of the valved conduit; and a packaging for the valved conduit including at least one sterile container in which the valved conduit is stored without a preserving solution; wherein the packaging comprises a primary storage container comprising a molded storage tray and a sheet-like gas-permeable lid; wherein a series of cooperating brackets provided in the cavity of the tray firmly holds the handle in position in the tray, while the valved conduit is suspended within an enlarged cavity of the tray, securing the valved conduit from movement therein and preventing the valved conduit from touching any inner surfaces of the tray.
A wireless transmit/receive unit, WTRU, comprising: a receiver configured to receive a system information block, SIB, in a system information broadcast from an evolved Node B, eNB, wherein the SIB comprises a cell identity, ID, of a new cell, a tracking area code, TAC, of the new cell, and a public land mobile network identification, PLMN-ID, of the new cell; a processor configured to identify a tracking area of the new cell using the TAC and the PLMN-ID included in the SIB, detect whether the identified tracking area matches one of a plurality of currently registered tracking areas, and generate a tracking area update, TAU, request message when the processor detects that the identified tracking area does not match one of the plurality of currently registered tracking areas; a transmitter configured to transmit the TAU request message the eNB; the receiver configured to receive, in response to the TAU request message, a TAU Accept Message, wherein the TAU Accept Message comprises a list of accepted tracking areas; and the processor configured to remove at least one tracking area from a forbidden tracking area list based on the at least one tracking area being included in the list of accepted tracking areas. a receiver configured to receive a system information block, SIB, in a system information broadcast from an evolved Node B, eNB, wherein the SIB comprises a cell identity, ID, of a new cell, a tracking area code, TAC, of the new cell, and a public land mobile network identification, PLMN-ID, of the new cell; a processor configured to identify a tracking area of the new cell using the TAC and the PLMN-ID included in the SIB, detect whether the identified tracking area matches one of a plurality of currently registered tracking areas, and generate a tracking area update, TAU, request message when the processor detects that the identified tracking area does not match one of the plurality of currently registered tracking areas; a transmitter configured to transmit the TAU request message the eNB; the receiver configured to receive, in response to the TAU request message, a TAU Accept Message, wherein the TAU Accept Message comprises a list of accepted tracking areas; and the processor configured to remove at least one tracking area from a forbidden tracking area list based on the at least one tracking area being included in the list of accepted tracking areas.
A light directing article, comprising: a structured layer comprising multiple microstructured elements that is opposite a major surface; an adhesive sealing layer having a first region and a second region wherein the second region is in contact with the structured layer; and a barrier element at the first region; wherein the first region with the barrier element and second region have sufficiently different properties to form a low refractive index layer between the adhesive sealing layer and the structured layer; wherein the barrier element comprises a crosslinked polymeric matrix having a modulus of elasticity less than 4.8 GPa. a structured layer comprising multiple microstructured elements that is opposite a major surface; an adhesive sealing layer having a first region and a second region wherein the second region is in contact with the structured layer; and a barrier element at the first region; wherein the first region with the barrier element and second region have sufficiently different properties to form a low refractive index layer between the adhesive sealing layer and the structured layer; wherein the barrier element comprises a crosslinked polymeric matrix having a modulus of elasticity less than 4.8 GPa.
A receiver using antenna beam forming for tracking a transmitter signal comprising a beam forming network comprising at least one beam forming channel (10, 12) for weighting each of N signals received from a N-element antenna array with an assigned weighting factor (Wi) for forming a beam for tracking a transmitter signal of a certain transmitter, and calibration means (20, 22, 24, 26) for calibrating the weighting factor assigned to a signal (i) selected from the N signals by determining an average phase difference (ΔΦ) between consecutive samples of the carrier frequency of the selected signal (i) and consecutive samples of the carrier frequency of a reference signal obtained from one of the N signals and adapting the weighting factor (Wi) of the selected signal depending on the determined average phase difference (ΔΦ).
A method for detecting the presence of lung and/or colorectal cancer, comprising the steps of (a) obtaining a test sample of bodily fluid comprising a nucleic acid from a subject; (b) measuring the expression level of the cancer gene marker DUSP6; (c) normalizing the expression level of said cancer gene marker to a housekeeping gene; (d) applying the normalized expression level of said cancer gene marker to a logistic regression prediction model which calculates the probability of cancer and/or cancer recurrence risk; and (e) determining the presence of lung and/or colorectal cancer based on the calculated probability. (a) obtaining a test sample of bodily fluid comprising a nucleic acid from a subject; (b) measuring the expression level of the cancer gene marker DUSP6; (c) normalizing the expression level of said cancer gene marker to a housekeeping gene; (d) applying the normalized expression level of said cancer gene marker to a logistic regression prediction model which calculates the probability of cancer and/or cancer recurrence risk; and (e) determining the presence of lung and/or colorectal cancer based on the calculated probability.
A method for transmitting the configuration mode of MBMS carrier frequency time slots, characterized in that the method comprising the steps of: obtaining the configuration mode of each time slot on a carrier frequency that carries MBMS service (11, 21, 31); setting information on whether or not there are time slots configured as chip combining mode into a message that will be transmitted to a terminal (12, 22, 32); transmitting the message to the terminal (13, 23, 33); the terminal receiving the message (11', 21', 31') and determining whether or not there are time slots configured as chip combining mode (12', 22', 32'); in the case there are time slots configured as chip combining mode, the terminal determining whether or not the terminal itself is capable of chip combining (13', 23', 33'); if the terminal is capable of chip combining, then the terminal reading data of the MBMS service at neighboring cells for performing chip combining, and performing chip combining (14', 24' 34'); in the case there are no time slots configured as chip combining mode, or if the terminal is incapable of chip combining, then the terminal terminating the reading of data of the MBMS service at neighboring cells for performing chip combining. obtaining the configuration mode of each time slot on a carrier frequency that carries MBMS service (11, 21, 31); setting information on whether or not there are time slots configured as chip combining mode into a message that will be transmitted to a terminal (12, 22, 32); transmitting the message to the terminal (13, 23, 33); the terminal receiving the message (11', 21', 31') and determining whether or not there are time slots configured as chip combining mode (12', 22', 32'); in the case there are time slots configured as chip combining mode, the terminal determining whether or not the terminal itself is capable of chip combining (13', 23', 33'); if the terminal is capable of chip combining, then the terminal reading data of the MBMS service at neighboring cells for performing chip combining, and performing chip combining (14', 24' 34'); in the case there are no time slots configured as chip combining mode, or if the terminal is incapable of chip combining, then the terminal terminating the reading of data of the MBMS service at neighboring cells for performing chip combining.
A stationary virtual reality apparatus to direct locomotion in a virtual reality environment, comprising: two separate footpads moveably coupled to an axle at a substantially central point along the two separate footpads' length, each footpad being suitable for being moved by use of the heel and ball of a user's foot, wherein the axle is supported by a stanchion, wherein the two footpads independently move relative to at least one axis defined by the axle; a plurality of sensors (825, 830) that detect the independent movement of each footpad; and a controller (805, 815) configured for receiving and transmitting signals from the plurality of sensors to a virtual reality system, wherein the signals comprise the detected independent movement of each footpad. two separate footpads moveably coupled to an axle at a substantially central point along the two separate footpads' length, each footpad being suitable for being moved by use of the heel and ball of a user's foot, wherein the axle is supported by a stanchion, wherein the two footpads independently move relative to at least one axis defined by the axle; a plurality of sensors (825, 830) that detect the independent movement of each footpad; and a controller (805, 815) configured for receiving and transmitting signals from the plurality of sensors to a virtual reality system, wherein the signals comprise the detected independent movement of each footpad.
A coated transparent substrate having a major surface bearing a low-emissivity coating, the coating comprising, from said major surface outwardly: a) a first transparent dielectric film region; b) a first infrared-reflection film region comprising silver; c) a second transparent dielectric film region; d) a second infrared-reflection film region comprising silver; e) a third transparent dielectric film region; f) a third infrared-reflection film region comprising silver; g) a fourth transparent dielectric film region; wherein the coated substrate is part of a multiple-pane insulating glazing unit that includes another substrate, wherein the major surface bearing the low-emissivity coating is exposed to a space between the two substrates (12, 12'), wherein the first, second and third infrared-reflection film regions have a combined thickness greater than 4.25 x 10 -8 m, the coating having a first reflection-region ratio defined as the thickness of the first infrared-reflective film region divided by the thickness of the second infrared-reflective film region, the coating having a second reflection-region ratio defined as the thickness of the second infrared-reflective film region divided by the thickness of the third infrared-reflective film region, both the first and second reflection region ratios being less than 0.83, and at least one of the first and second reflection-region ratios being less than 0.80. a) a first transparent dielectric film region; b) a first infrared-reflection film region comprising silver; c) a second transparent dielectric film region; d) a second infrared-reflection film region comprising silver; e) a third transparent dielectric film region; f) a third infrared-reflection film region comprising silver; g) a fourth transparent dielectric film region;
A packaging material (21; 31) for a retortable package, adapted for co-sterilization of the package and its contents, including a layer of a coated paperboard material, which is further laminated to outermost layers of plastics, wherein the coated paperboard material comprises a base board having a top side provided with a pigment coating to form a surface for printing, wherein the top side coated with the pigment coating is printed with a decorative artwork of printing ink, which pigment coating comprises a pigment mixture, at least one binder and a zirconium-based cross-linker, wherein the pigment mixture comprises at least 40 wt- % calcium carbonate and at least 10 wt- % clay.
A contactless datalink for transmission of data between a rotating part and a stationary part, rotatable around an axis of rotation the datalink comprising a ring shaped dielectric waveguide, which is split into two components, wherein a first dielectric waveguide component is mounted at the rotating part and a second dielectric waveguide component is mounted at the stationary part, the ring shaped dielectric waveguide having a center axis aligned with the axis of rotation, the ring shaped dielectric waveguide having a gap between the first dielectric waveguide component and the second dielectric waveguide component, the stationary waveguide component and the rotating waveguide component are in close proximity with each other such that signals are coupled between the stationary and rotating waveguides, the first dielectric waveguide component comprises at least one first rotating waveguide section (133, 134, 135, 136), having two ends wherein one end is connected to at least one of a transmitter (111, 113, 124,128, 151, 161, 173, 181, 191, 202, 204, 212, 214, 216), a receiver (112, 114, 125, 141, 164,171, 182, 192, 201, 203, 211, 213, 215), or an absorber (122,123, 126, 127, 143, 144, 153, 154) and the other end is connected to at least one of a transmitter (111, 113, 124,128, 151, 161, 173, 181, 191, 202, 204, 212, 214, 216), a receiver (112, 114, 125, 141, 164,171, 182, 192, 201, 203, 211, 213, 215), or an absorber (122, 123, 126, 127, 143, 144, 153, 154), the second dielectric waveguide component comprises at least one first stationary waveguide section (131, 132), having two ends wherein one end is connected to at least one of a transmitter (111, 113, 124,128, 151, 161, 173, 181, 191, 202, 204, 212, 214, 216), a receiver (112, 114, 125, 141, 164,171, 182, 192, 201, 203, 211, 213, 215), or an absorber (122,123, 126, 127, 143, 144, 153, 154) and the other end is connected to at least one of a transmitter (111, 113, 124,128, 151, 161, 173, 181, 191, 202, 204, 212, 214, 216), a receiver (112, 114, 125, 141, 164,171, 182, 192, 201, 203, 211, 213, 215), or an absorber (122,123, 126, 127, 143, 144, 153, 154).