mhurhangee/ep-ind-claims huggingface dataset:
A multiple-input multiple-output transmission method, wherein the method comprises: performing, by a first user equipment, cellular uplink communication with a base station; and performing, by the first user equipment, device-to-device communication with at least one second user equipment in a user equipment self-organized manner, wherein the same time-frequency resource is used in the cellular uplink communication and the device-to-device communication; wherein the transmission method further comprises: using, by the first user equipment, a first precoding matrix to perform precoding processing on data transmitted in the cellular uplink communication, so as to make interference of the cellular uplink communication to the device-to-device communication lower than a first specified threshold; and using, by the first user equipment, a second precoding matrix to perform precoding processing on data transmitted in the device-to-device communication, so as to make interference of the device-to-device communication to the cellular uplink communication lower than a second specified threshold; wherein the first and second precoding matrices are selected by the first user equipment. performing, by a first user equipment, cellular uplink communication with a base station; and performing, by the first user equipment, device-to-device communication with at least one second user equipment in a user equipment self-organized manner, wherein the same time-frequency resource is used in the cellular uplink communication and the device-to-device communication; wherein the transmission method further comprises: using, by the first user equipment, a first precoding matrix to perform precoding processing on data transmitted in the cellular uplink communication, so as to make interference of the cellular uplink communication to the device-to-device communication lower than a first specified threshold; and using, by the first user equipment, a second precoding matrix to perform precoding processing on data transmitted in the device-to-device communication, so as to make interference of the device-to-device communication to the cellular uplink communication lower than a second specified threshold; wherein the first and second precoding matrices are selected by the first user equipment.
A method of machining an internal bevel gear (22, 24) having teeth with a pitch angle greater than 90 degrees, said method comprising: providing at least one tool (42; 44) rotatable about a tool axis, said tool comprising a disc-shaped body having a periphery and at least one stock removing surface arranged about said periphery, rotating said at least one tool (42; 44) about a tool axis, feeding said at least one tool relative to said gear (22, 24), characterized by machining a first portion of a tooth slot including one tooth surface in said gear wherein said machining is carried out in a non-generating manner, wherein a single such rotary disc-shaped tool (42; 44), in form of a cutting tool having at least one cutting blade with a cutting edge or of a grinding wheel, is forming said first portion in a first machining position and the remaining portion of the tooth slot is formed in a second machine position after repositioning of the tool, or both first and second portions are formed by two interlocking cutters (42; 44), the tool(s) being positioned at the inside of the gear and having an inclination of less than 45° and a tip track moving away to the front of the gear. providing at least one tool (42; 44) rotatable about a tool axis, said tool comprising a disc-shaped body having a periphery and at least one stock removing surface arranged about said periphery, rotating said at least one tool (42; 44) about a tool axis, feeding said at least one tool relative to said gear (22, 24), characterized by machining a first portion of a tooth slot including one tooth surface in said gear wherein said machining is carried out in a non-generating manner, wherein a single such rotary disc-shaped tool (42; 44), in form of a cutting tool having at least one cutting blade with a cutting edge or of a grinding wheel, is forming said first portion in a first machining position and the remaining portion of the tooth slot is formed in a second machine position after repositioning of the tool, or both first and second portions are formed by two interlocking cutters (42; 44), the tool(s) being positioned at the inside of the gear and having an inclination of less than 45° and a tip track moving away to the front of the gear.
A method for reducing the tendency to vibrate of a thermal radiation shield of substantially uniform mass per unit area, said thermal radiation shield being configured to reduce a radiant thermal influx from a vacuum vessel to a magnet cold mass of a magnetic resonance imaging system, comprising the step of locally modifying the mass per unit area of the material of the thermal radiation shield, by local addition of mass to the thermal radiation shield by addition of extra material by applying a weld pool, in a random or pseudo-random pattern.
A catheter assembly comprising: a catheter hub with a catheter tube having a tube end, said catheter hub comprising a body comprising an interior surface defining an interior cavity comprising a first inside diameter section distal of a second inside diameter section and wherein said first inside diameter section is larger in dimension than said second inside diameter section; a needle hub with a needle having a needle tip, a nominal needle diameter, and a needle shaft projecting through the catheter hub and the catheter tube such that the needle tip extends distally of the tube end in a ready position; an elastic seal held against a shoulder in the interior cavity of the catheter hub, said elastic seal comprising an outside diameter and an inside diameter; a needle guard (114, 202, 212, 242, 272) for covering the needle tip in a protective position located in the interior cavity of the catheter hub and in contact with the elastic seal; characterized in that said inside diameter being sufficiently larger than the nominal needle diameter so that the needle shaft does not come in contact with the inside diameter of the elastic seal in the ready position, and that the needle guard (114, 202, 212, 242, 272) contacts the elastic seal in the ready position so that a seal for limiting fluid flow is formed between the needle guard (114, 202, 212, 242, 272) and the elastic seal, and that the seal terminates when the needle guard (114, 202, 212, 242, 272) moves in a proximal direction at which point fluid can freely flow through the inside diameter of the elastic seal. a catheter hub with a catheter tube having a tube end, said catheter hub comprising a body comprising an interior surface defining an interior cavity comprising a first inside diameter section distal of a second inside diameter section and wherein said first inside diameter section is larger in dimension than said second inside diameter section; a needle hub with a needle having a needle tip, a nominal needle diameter, and a needle shaft projecting through the catheter hub and the catheter tube such that the needle tip extends distally of the tube end in a ready position; an elastic seal held against a shoulder in the interior cavity of the catheter hub, said elastic seal comprising an outside diameter and an inside diameter; a needle guard (114, 202, 212, 242, 272) for covering the needle tip in a protective position located in the interior cavity of the catheter hub and in contact with the elastic seal; characterized in that said inside diameter being sufficiently larger than the nominal needle diameter so that the needle shaft does not come in contact with the inside diameter of the elastic seal in the ready position, and that the needle guard (114, 202, 212, 242, 272) contacts the elastic seal in the ready position so that a seal for limiting fluid flow is formed between the needle guard (114, 202, 212, 242, 272) and the elastic seal, and that the seal terminates when the needle guard (114, 202, 212, 242, 272) moves in a proximal direction at which point fluid can freely flow through the inside diameter of the elastic seal.
A compound for use in treating a cell proliferative disorder in a subject, said compound being the S-enantiomer of formula I: wherein: the dotted line represents a single or a double bond; R 5 and R 5 ' are independently H or OH; X is -CH 2 O, -CH 2 CH 2 O, -CH(CH 3)CH 2 O, or -CH 2 CH(CH 3)O; Z is -CH 2 CH 2 O, -CH(CH 3)CH 2 O, or -CH 2 CH(CH 3)O; m is 1; and n is 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19, 20, 21, 22, 23, 24, 25, 26, 27, 28, 29, 30, 31, 32, 33, 34, 35, 36, 37, 38, 39, 40, 41, 42, 43, 44, 45, 46, 47, 48, 49 or 50; or a pharmaceutically effective salt thereof wherein the cell proliferative disorder is colon cancer. the dotted line represents a single or a double bond; R 5 and R 5 ' are independently H or OH; X is -CH 2 O, -CH 2 CH 2 O, -CH(CH 3)CH 2 O, or -CH 2 CH(CH 3)O; Z is -CH 2 CH 2 O, -CH(CH 3)CH 2 O, or -CH 2 CH(CH 3)O; m is 1; and n is 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19, 20, 21, 22, 23, 24, 25, 26, 27, 28, 29, 30, 31, 32, 33, 34, 35, 36, 37, 38, 39, 40, 41, 42, 43, 44, 45, 46, 47, 48, 49 or 50; or a pharmaceutically effective salt thereof wherein the cell proliferative disorder is colon cancer.
A dispensing apparatus for dispensing a soft gel into a hatchling tray of poultry hatchlings, the apparatus comprising: a manifold provided with a plurality of nozzle openings spaced along the length of the manifold and sized to permit a soft gel to pass therethrough and be dispersed in the form of small beadlets when placed under pressure, the manifold being connected to a dispenser capable of dispensing a predetermined volume under pressure and the dispenser being connected to a reservoir for containing the soft gel in a flowable form having the therapeutic agent dissolved or suspended therein. a manifold provided with a plurality of nozzle openings spaced along the length of the manifold and sized to permit a soft gel to pass therethrough and be dispersed in the form of small beadlets when placed under pressure, the manifold being connected to a dispenser capable of dispensing a predetermined volume under pressure and the dispenser being connected to a reservoir for containing the soft gel in a flowable form having the therapeutic agent dissolved or suspended therein.
A cabin for transporting passengers for a hybrid cable/rail transportation system, wherein the transportation system comprises a first trolley, a second trolley, at least a system portion configured as cable transportation system with at least a cable and at least a system portion configured as rail transportation system with at least a rail upstream and/or downstream of the system portion configured as cable transportation system, the cabin being configured for being moved along the entire system, respectively hanging from the cable along the system portion configured as cable transportation system and resting on the rail along the system portion configured as rail transportation system, characterized in that the cabin comprises a roof, provided with a first coupling device for selectively coupling with a first trolley configured for being supported hanging from the cable, and a floor provided with a second coupling device for selectively coupling with a second trolley supported resting on the rail.
A method of preparing a halftone phase shift photomask blank having a halftone phase shift film on a transparent substrate, the method comprising the step of depositing a layer containing silicon and nitrogen on the transparent substrate, as a part or the entirety of the halftone phase shift film, by reactive sputtering in a chamber using a silicon-containing target, an inert gas, and a nitrogen-containing reactive gas, wherein the step of depositing a layer containing silicon and nitrogen includes a transition mode sputtering step of sputtering in a hysteresis region of reactive gas flow rate conditions, and wherein in a part or the entirety of the transition mode sputtering step, at least one parameter selected from the power applied across the target, the flow rate of the inert gas, and the flow rate of the reactive gas is increased or decreased continuously or stepwise, said hysteresis region being determinable by applying a power across the target, feeding the reactive gas into the chamber, carrying out a sweep of the reactive gas flow rate by increasing and then decreasing the flow rate of the reactive gas, measuring a sputtering voltage or current value during the sweep, and plotting the sputtering voltage or current value versus the flow rate of the reactive gas during the increase and decrease to identify an upper limit and lower limit of the region. the step of depositing a layer containing silicon and nitrogen includes a transition mode sputtering step of sputtering in a hysteresis region of reactive gas flow rate conditions, and wherein in a part or the entirety of the transition mode sputtering step, at least one parameter selected from the power applied across the target, the flow rate of the inert gas, and the flow rate of the reactive gas is increased or decreased continuously or stepwise, said hysteresis region being determinable by applying a power across the target, feeding the reactive gas into the chamber, carrying out a sweep of the reactive gas flow rate by increasing and then decreasing the flow rate of the reactive gas, measuring a sputtering voltage or current value during the sweep, and plotting the sputtering voltage or current value versus the flow rate of the reactive gas during the increase and decrease to identify an upper limit and lower limit of the region.
A method for wireless communications performed by a user equipment, UE, comprising: identifying a first uplink transmission parameter associated with an uplink transmission timeline for an upcoming uplink communication to a base station, the first uplink transmission parameter associated with an amount of data to be transmitted in the upcoming uplink communication; initiating processing of the uplink transmission prior to receiving an uplink grant from the base station based on the identified first uplink transmission parameter; receiving the uplink grant from the base station; transmitting, responsive to receiving the uplink grant, the uplink communication to the base station according to the uplink transmission timeline; receiving a feedback communication from the base station that indicates the uplink communication was unsuccessfully received at the base station and receiving a retransmission uplink grant from the base station, the retransmission uplink grant having a second uplink transmission parameter associated with a second uplink transmission timeline, the second uplink transmission timeline being reduced relative to the uplink transmission timeline; preparing a retransmission of the uplink communication responsive to the feedback communication; and retransmitting, responsive to receiving the uplink retransmission grant, a retransmission of the uplink communication according to the second uplink transmission timeline, wherein the transmission and retransmission of the uplink communication are completed within a predetermined latency budget. identifying a first uplink transmission parameter associated with an uplink transmission timeline for an upcoming uplink communication to a base station, the first uplink transmission parameter associated with an amount of data to be transmitted in the upcoming uplink communication; initiating processing of the uplink transmission prior to receiving an uplink grant from the base station based on the identified first uplink transmission parameter; receiving the uplink grant from the base station; transmitting, responsive to receiving the uplink grant, the uplink communication to the base station according to the uplink transmission timeline; receiving a feedback communication from the base station that indicates the uplink communication was unsuccessfully received at the base station and receiving a retransmission uplink grant from the base station, the retransmission uplink grant having a second uplink transmission parameter associated with a second uplink transmission timeline, the second uplink transmission timeline being reduced relative to the uplink transmission timeline; preparing a retransmission of the uplink communication responsive to the feedback communication; and retransmitting, responsive to receiving the uplink retransmission grant, a retransmission of the uplink communication according to the second uplink transmission timeline, wherein the transmission and retransmission of the uplink communication are completed within a predetermined latency budget.
A method for manufacturing a bag by blow film extrusion, said bag comprising main walls each comprising, on an internal face (13, 23), a closing assembly (10, 20) comprising a series of complementary profiles (14, 24, 14a, 24a, 14b, 24b, 14c) which extend in parallel in a main direction extending along a longitudinal axis, the manufacturing method comprising the following steps: - extruding plastic material so as to form an annular film comprising the closing assemblies, said annular film being intended to form the walls of the bag, and - blowing the annular film so as to form a jacket, the manufacturing method being characterised in that each closing assembly (10, 20) comprises at least three complementary profiles (14, 24) and in that, during the extrusion step, the at least three complementary profiles (14, 24, 14a, 24a, 14b, 24b, 14c) of each of the closing assemblies (10, 20) are integrally formed with a same base (18, 28, 18a, 28a, 18b, 28b), connected to the annular film by means of a connecting rod (19, 29, 19a, 29a, 19b, 29b) extending in parallel to the longitudinal axis between the annular film and the base (18, 28, 18a, 28a, 18b, 28b) and adapted to keep the base (18, 28, 18a, 28a, 18b, 28b) at a distance from the annular film. - extruding plastic material so as to form an annular film comprising the closing assemblies, said annular film being intended to form the walls of the bag, and - blowing the annular film so as to form a jacket,
A method of wireless communications for receiving primary and additional data, comprising: receiving a spectrum of tones that include additional data on tones the intensity of which is boosted or amplified to exceed a threshold that indicates the normal operational intensity level, wherein the additional data includes information that overwrites a tone initially encoded to carry primary data; ascertaining whether a tone intensity of a received tone included in the spectrum of tones exceeds the threshold; decoding information included in the received tones the intensity of which exceeds the threshold to extract the additional data; and decoding information included in one or more remaining tones that fail to exceed the threshold to extract primary data. receiving a spectrum of tones that include additional data on tones the intensity of which is boosted or amplified to exceed a threshold that indicates the normal operational intensity level, wherein the additional data includes information that overwrites a tone initially encoded to carry primary data; ascertaining whether a tone intensity of a received tone included in the spectrum of tones exceeds the threshold; decoding information included in the received tones the intensity of which exceeds the threshold to extract the additional data; and decoding information included in one or more remaining tones that fail to exceed the threshold to extract primary data.
Apparatus for management of communications resources of a moving platform (130, 230) comprising an on-board communications system configured to effect wireless data communication between said moving platform and another node, said communications resources comprising a plurality of wireless communications links (503, 604, 605) and a plurality of antennas (501, 502, 601, 602, 603) associated therewith, the apparatus comprising an antenna analysis and selection module (504, 606) residing with said communications system and configured to: - receive, during a mission from one or more systems/subsystems (12, 14, 16, 18, 20, 708) and/or functions of said moving platform, attribute data representative of said emissions control criteria, said attribute data comprising (i) location data representative of a specified emissions control region, and (ii) position and/or attitude and/or velocity data representative of an adversary node defining an emissions control region; - determine, using said attribute data and based on said emissions control criteria, suitability of one or more on-board antennas and/or portions of aperture antenna for supporting said communications requirement; - for each of a plurality of antennas/portions of aperture antenna determined to be suitable for supporting said communications requirement based on said emissions control criteria, determine a quality metric, said quality metric being indicative of a respective performance criterion; and - select one or more of said suitable antennas/portion of aperture antenna having a highest performance criterion, for facilitating said communications requirement. - receive, during a mission from one or more systems/subsystems (12, 14, 16, 18, 20, 708) and/or functions of said moving platform, attribute data representative of said emissions control criteria, said attribute data comprising (i) location data representative of a specified emissions control region, and (ii) position and/or attitude and/or velocity data representative of an adversary node defining an emissions control region; - determine, using said attribute data and based on said emissions control criteria, suitability of one or more on-board antennas and/or portions of aperture antenna for supporting said communications requirement; - for each of a plurality of antennas/portions of aperture antenna determined to be suitable for supporting said communications requirement based on said emissions control criteria, determine a quality metric, said quality metric being indicative of a respective performance criterion; and - select one or more of said suitable antennas/portion of aperture antenna having a highest performance criterion, for facilitating said communications requirement.
A foam-forming composition comprising (a) an azeotropic or azeotrope-like mixture of cis-1,1,1,4,4,4-hexafluoro-2-butene and methyl formate, and (b) an active hydrogen-containing compound having two or more active hydrogens, wherein azeotrope-like is defined as a difference in dew point pressure and bubble point pressure of less than or equal to 3 percent (based upon the bubble point pressure).
A single-crystal silicon pulling silica container comprising an outer layer made of opaque silica glass containing gaseous bubbles and an inner layer made of transparent silica glass that does not substantially contain the gaseous bubbles, the container also comprising: a bottom portion, a curved portion, and a straight body portion, wherein continuous grooves are formed on a surface of the inner layer from at least part of the bottom portion to at least part of the straight body portion through the curved portion.