mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting a message to a Customer Premises Equipment, CPE, the method comprising: establishing a first beamformed channel by using a first beamformed virtual antenna of a serving Base Transceiver Station, BTS; and, when one or more predetermined conditions are met: transmitting , from the serving BTS to one or more target BTSs, information pertinent to the CPE, the information including beamforming parameters; establishing , using the information received from the serving BTS, one or more second beamformed channels by using one or more second beamformed virtual antennas of the one or more respective target BTSs; and transmitting a plurality of signals comprising the message to the CPE via the first and the one or more second beamformed channels, wherein, the serving BTS and the one or more target BTSs work in collaboration when transmitting the plurality of signals to the CPE to enhance receiving signal strength or increase diversity of signals received by the CPE. transmitting , from the serving BTS to one or more target BTSs, information pertinent to the CPE, the information including beamforming parameters; establishing , using the information received from the serving BTS, one or more second beamformed channels by using one or more second beamformed virtual antennas of the one or more respective target BTSs; and transmitting a plurality of signals comprising the message to the CPE via the first and the one or more second beamformed channels, wherein, the serving BTS and the one or more target BTSs work in collaboration when transmitting the plurality of signals to the CPE to enhance receiving signal strength or increase diversity of signals received by the CPE.
A primer for use in a multistep amplification of a target nucleic acid molecule, comprising, in 5' to 3' order: a. a universal tag that does not comprise RNA nucleotides b. an RNA nucleotide c. a primer region that does not comprise RNA nucleotides and that hybridizes with a strand of the target nucleic acid molecule d. a further RNA nucleotide e. a further region that hybridizes with a strand of the target nucleic acid molecule f. a blocking group. a. a universal tag that does not comprise RNA nucleotides b. an RNA nucleotide c. a primer region that does not comprise RNA nucleotides and that hybridizes with a strand of the target nucleic acid molecule d. a further RNA nucleotide e. a further region that hybridizes with a strand of the target nucleic acid molecule f. a blocking group.
A tire comprising a tread part , wherein the tread part comprises an outermost layer constituting a tread surface, an innermost layer adjacent to an outer side of a belt layer in a tire radial direction, and one or more intermediate layers located between the outermost layer and the innermost layer, wherein each of the outermost layer, the innermost layer, and the intermediate layer is composed of a rubber composition comprising a rubber component, wherein the rubber component constituting the outermost layer comprises a styrene-butadiene rubber having a glass transition temperature of -80°C or higher and -40°C or lower, preferably -70°C or higher and -40°C or lower, more preferably -65°C or higher and -40°C or lower, further preferably-60°C or higher and -40°C or lower, particularly preferably -60°C or higher and-45°C or lower, wherein a glass transition temperature T, in °C, of a rubber composition constituting the outermost layer is -35 or higher, preferably -32 or higher, more preferably -29 or higher and 0 or lower, and wherein, when a complex elastic modulus at 30°C of the outermost layer is defined as E *T , in MPa, and a complex elastic modulus at 30°C of the innermost layer is defined as E *B , in MPa, E *T > E *B . wherein the tread part comprises an outermost layer constituting a tread surface, an innermost layer adjacent to an outer side of a belt layer in a tire radial direction, and one or more intermediate layers located between the outermost layer and the innermost layer, an outermost layer constituting a tread surface, an innermost layer adjacent to an outer side of a belt layer in a tire radial direction, and one or more intermediate layers located between the outermost layer and the innermost layer, wherein each of the outermost layer, the innermost layer, and the intermediate layer is composed of a rubber composition comprising a rubber component, wherein the rubber component constituting the outermost layer comprises a styrene-butadiene rubber having a glass transition temperature of -80°C or higher and -40°C or lower, preferably -70°C or higher and -40°C or lower, more preferably -65°C or higher and -40°C or lower, further preferably-60°C or higher and -40°C or lower, particularly preferably -60°C or higher and-45°C or lower, wherein a glass transition temperature T, in °C, of a rubber composition constituting the outermost layer is -35 or higher, preferably -32 or higher, more preferably -29 or higher and 0 or lower, and wherein, when a complex elastic modulus at 30°C of the outermost layer is defined as E *T , in MPa, and a complex elastic modulus at 30°C of the innermost layer is defined as E *B , in MPa, E *T > E *B .
A full-duplex communication method in a high efficiency wireless local area network (WLAN), the full-duplex communication method being performed by an access point (AP) in a WLAN network, the method comprising: transmitting to at least one station (STA), a trigger frame including Resource Unit (RU) allocation information of an Orthogonal Frequency Division Multiple Access (OFDMA) communication; receiving a High Efficiency Trigger Based Physical Protocol Data Unit (HE TB PPDU) from the at least one STA in a time period determined on the basis of the trigger frame through the allocated RU; and transmitting a High Efficiency Trigger Based Full Duplex Physical Protocol Data Unit (HE TB FD PPDU) to the at least one STA in the time period, wherein the HE TB PPDU and the HE TB FD PPDU are transmitted simultaneously, wherein the HE TB FD PPDU includes a null portion including a signal field in which no signal is transmitted or including a signal field for transmitting information that does not affect the demodulation processing in the HE TB PPDU, and wherein the HE TB PPDU is divided into a pre-HE modulated field and an HE modulated field, the pre-HE modulated field of the HE TB PPDU being aligned with the null portion of the HE TB FD PPDU, the pre-HE modulated field including a non-HE portion including a L-short training field STF and L-long training field LTF. transmitting to at least one station (STA), a trigger frame including Resource Unit (RU) allocation information of an Orthogonal Frequency Division Multiple Access (OFDMA) communication; receiving a High Efficiency Trigger Based Physical Protocol Data Unit (HE TB PPDU) from the at least one STA in a time period determined on the basis of the trigger frame through the allocated RU; and transmitting a High Efficiency Trigger Based Full Duplex Physical Protocol Data Unit (HE TB FD PPDU) to the at least one STA in the time period, wherein the HE TB PPDU and the HE TB FD PPDU are transmitted simultaneously, wherein the HE TB FD PPDU includes a null portion including a signal field in which no signal is transmitted or including a signal field for transmitting information that does not affect the demodulation processing in the HE TB PPDU, and wherein the HE TB PPDU is divided into a pre-HE modulated field and an HE modulated field, the pre-HE modulated field of the HE TB PPDU being aligned with the null portion of the HE TB FD PPDU, the pre-HE modulated field including a non-HE portion including a L-short training field STF and L-long training field LTF.
Torque transmission arrangement comprising a cylindrical friction element carrier and a snap-ring , wherein the friction element carrier is configured for carrying at least a pressing plate and a reaction plate of an outer friction-based torque-transmission mechanism rotationally secured to an outer surface of the friction element carrier and at least a pressing plate and a reaction plate of an inner friction-based torque-transmission mechanism rotationally secured to an inner surface of the friction element carrier , characterised in that the cylindrical friction element carrier comprises a plurality of through-holes distributed around the circumference of the friction element carrier , and in that the snap-ring comprises a plurality of radial projections distributed around the inner or outer circumference of the snap-ring and configured to extend through said through-holes when the snap-ring is mounted on the friction element carrier , such that the snap-ring when mounted on the friction element carrier protrudes in a radial direction beyond both the inner and outer surfaces of the friction element carrier for retaining the inner and outer reaction plates of the inner and outer friction-based torque-transmission mechanisms on the friction element carrier .
A scooter-type vehicle having an underfloor fuel tank with a fuel tank disposed on a front side of an engine , characterized in that a lengthwise direction of a canister is disposed to be oriented in a longitudinal vehicle direction, and hoses extend in the longitudinal vehicle direction of the canister , the canister is disposed at a position overlapping with the fuel tank in side view and is disposed below an uppermost end (38A3) of the fuel tank , a fuel filler port is provided at a front portion of the fuel tank , the fuel tank is formed to be inclined rearwardly downward from a front toward a rear of the fuel tank , the canister is disposed between the uppermost end (38A3) of the fuel tank and a division surface of the fuel tank in a vertical direction, characterized in that the canister is disposed at a rear portion of the fuel tank above the division surface and a charge hose connecting the fuel filler port and the canister is routed along the division surface of the fuel tank . characterized in that a lengthwise direction of a canister is disposed to be oriented in a longitudinal vehicle direction, and hoses extend in the longitudinal vehicle direction of the canister , the canister is disposed at a position overlapping with the fuel tank in side view and is disposed below an uppermost end (38A3) of the fuel tank , a fuel filler port is provided at a front portion of the fuel tank , the fuel tank is formed to be inclined rearwardly downward from a front toward a rear of the fuel tank , the canister is disposed between the uppermost end (38A3) of the fuel tank and a division surface of the fuel tank in a vertical direction, characterized in that the canister is disposed at a rear portion of the fuel tank above the division surface and a charge hose connecting the fuel filler port and the canister is routed along the division surface of the fuel tank .
An electronic entity comprising: - a body in which there is formed a cavity emerging on one face of this body , said face of the body forming a face of the entity, - a module inserted into this body by occupying said cavity , - a microcircuit forming part of this body , - a direct current source forming part of this body , and - an electronic component forming part of the module and accessible from the outside through said face of the entity , this electronic component being connected electrically to the microcircuit and having to be supplied with direct current by the direct current source , characterized in that the body comprises a first antenna connected to the direct current source through an oscillator and in that the module also comprises a second antenna connected to this electronic component through a rectifier circuit , this first antenna and this second antenna being electromagnetically coupled, ensuring a wireless radiofrequency powering of the electronic component of the module by the direct current source of the body and electrically connecting this electronic component to the microcircuit . - a body in which there is formed a cavity emerging on one face of this body , said face of the body forming a face of the entity, - a module inserted into this body by occupying said cavity , - a microcircuit forming part of this body , - a direct current source forming part of this body , and - an electronic component forming part of the module and accessible from the outside through said face of the entity , this electronic component being connected electrically to the microcircuit and having to be supplied with direct current by the direct current source ,
A medical device adapted for use with a delivery device , the medical device comprising: a handle (202; 602; 802; 2725) including at least one actuator (222; 622; 822; 2222; 2500; 2722); a body (210; 610; 810; 2050; 2150; 2610) adapted to releasably mount to a distal portion of the delivery device , the body supporting a pair of jaws (212, 214; 612, 614; 2612, 2614) rotatably coupled to the body; and a control wire (216, 420; 616, 617; 2510; 2615) coupled to the pair of jaws and the actuator; wherein the actuator (222; 622; 822; 2222; 2500; 2722) is configured to open and close the pair of jaws (212, 214; 612, 614; 2612, 2614); characterised in that the actuator (222; 622; 822; 2222; 2500; 2722) is a first actuator, and the medical device further comprises: at least one clip (891-896; 1191; 1200; 1400; 1600; 1700; 1801, 1802; 2001-2006; 2101-2105; 2691-2696; 2801, 2802; 2901, 2902) positioned around an exterior surface of the body; a tripwire (833; 2511; 2633) releasably coupled to the at least one clip and extending from the body to the handle; and a second actuator (2300; 2400; 2500), wherein actuation of the second actuator is configured to deploy the at least one clip from the body. a handle (202; 602; 802; 2725) including at least one actuator (222; 622; 822; 2222; 2500; 2722); a body (210; 610; 810; 2050; 2150; 2610) adapted to releasably mount to a distal portion of the delivery device , the body supporting a pair of jaws (212, 214; 612, 614; 2612, 2614) rotatably coupled to the body; and a control wire (216, 420; 616, 617; 2510; 2615) coupled to the pair of jaws and the actuator; wherein the actuator (222; 622; 822; 2222; 2500; 2722) is configured to open and close the pair of jaws (212, 214; 612, 614; 2612, 2614); characterised in that the actuator (222; 622; 822; 2222; 2500; 2722) is a first actuator, and the medical device further comprises: at least one clip (891-896; 1191; 1200; 1400; 1600; 1700; 1801, 1802; 2001-2006; 2101-2105; 2691-2696; 2801, 2802; 2901, 2902) positioned around an exterior surface of the body; a tripwire (833; 2511; 2633) releasably coupled to the at least one clip and extending from the body to the handle; and a second actuator (2300; 2400; 2500), wherein actuation of the second actuator is configured to deploy the at least one clip from the body. at least one clip (891-896; 1191; 1200; 1400; 1600; 1700; 1801, 1802; 2001-2006; 2101-2105; 2691-2696; 2801, 2802; 2901, 2902) positioned around an exterior surface of the body; a tripwire (833; 2511; 2633) releasably coupled to the at least one clip and extending from the body to the handle; and a second actuator (2300; 2400; 2500), wherein actuation of the second actuator is configured to deploy the at least one clip from the body.
A method for sending system information, comprising: receiving , by a user equipment, a broadcast message from a base station, the broadcast message comprises one or more sending occasions for on-demand system information, SI, and indication information for the on-demand SI, wherein the indication information indicates the user equipment to send a system information request to acquire the on-demand SI; sending , by the user equipment, a system information request to the base station for acquiring the on-demand SI; selecting, by the user equipment, a nearest sending occasion of the one or more sending occasions after sending the system information request to the base station for acquiring the on-demand SI; and, receiving, by the user equipment, the on-demand SI on the nearest sending occasion of the one or more sending occasions. receiving , by a user equipment, a broadcast message from a base station, the broadcast message comprises one or more sending occasions for on-demand system information, SI, and indication information for the on-demand SI, wherein the indication information indicates the user equipment to send a system information request to acquire the on-demand SI; sending , by the user equipment, a system information request to the base station for acquiring the on-demand SI; selecting, by the user equipment, a nearest sending occasion of the one or more sending occasions after sending the system information request to the base station for acquiring the on-demand SI; and, receiving, by the user equipment, the on-demand SI on the nearest sending occasion of the one or more sending occasions.
A damping link assembly for bleed valve of a gas turbine engine comprising: a bleed valve ring having a link aperture ; a mechanical fastener disposed in the link aperture; and a damping guide link operatively coupled to the mechanical fastener at one end for rotation about a first axis of the mechanical fastener and the damping guide link being operatively coupled to an idler bracket at an opposite end for rotation about a second axis, characterized in that the damping guide link being capable of elastic twisting in a direction about a third axis different from the first axis and the second axis when the bleed valve ring is rotated from a first position corresponding to a closed bleed valve position to a second position corresponding to an open bleed valve position, wherein the damping guide link is designed to be flexible about its axis of twisting and stiff about its axis of rotation and comprises a flexible portion that is more flexible about the third axis than a portion of the damping guide link proximate the first axis and/or the second axis, the elastic twisting in the direction provides a preload or bias to the damping guide link which assists in returning the damping guide link to an untwisted configuration corresponding to the closed bleed valve position. a bleed valve ring having a link aperture ; a mechanical fastener disposed in the link aperture; and a damping guide link operatively coupled to the mechanical fastener at one end for rotation about a first axis of the mechanical fastener and the damping guide link being operatively coupled to an idler bracket at an opposite end for rotation about a second axis, characterized in that the damping guide link being capable of elastic twisting in a direction about a third axis different from the first axis and the second axis when the bleed valve ring is rotated from a first position corresponding to a closed bleed valve position to a second position corresponding to an open bleed valve position, wherein the damping guide link is designed to be flexible about its axis of twisting and stiff about its axis of rotation and comprises a flexible portion that is more flexible about the third axis than a portion of the damping guide link proximate the first axis and/or the second axis, the elastic twisting in the direction provides a preload or bias to the damping guide link which assists in returning the damping guide link to an untwisted configuration corresponding to the closed bleed valve position.
Profile (P) where a longitudinal direction (X), a transversal direction (Y) and a height direction (Z) are defined, the directions (X, Y, Z) being perpendicular therebetween, the profile being a structural beam of a vehicle, the profile (P) having a Ω-shaped cross-section, such that therein are defined: - two end wing portions having substantially the transversal direction (Y); - two lateral wall portions having substantially the height direction (Z); - a frontal wall portion having substantially the transversal direction (Y); - two curved transition zones (R1, R2) between the lateral wall portions and the frontal wall portion ; - two curved transition zones (R3, R4) between the end wing portions and the lateral wall portions ; characterised in that a specific portion (l1, l2) of each curved transition zones (R1, R2) between the lateral wall portions and the frontal wall portion have a tensile strength lower than the tensile strength of the rest of the cross-section, wherein the portions sum up a cross-section length (l) such that: 0,07 ⋅ l ≤ l 1 + l 2 ≤ 0,26 ⋅ l 0,03 ⋅ l ≤ l 1 0,03 ⋅ l ≤ l 2 11 and l2 being the length of the specific portions (l1, l2). - two end wing portions having substantially the transversal direction (Y); - two lateral wall portions having substantially the height direction (Z); - a frontal wall portion having substantially the transversal direction (Y); - two curved transition zones (R1, R2) between the lateral wall portions and the frontal wall portion ; - two curved transition zones (R3, R4) between the end wing portions and the lateral wall portions ;
An aerosol-generating system, the system comprising: a liquid storage portion for storing liquid aerosol-forming substrate; a vaporiser comprising a heating element having a structure defining an open-ended internal passage; a micro pump configured for delivering liquid aerosol-forming substrate from the liquid storage portion to the internal passage of the heating element; and a tubing segment through which the liquid aerosol-forming substrate is delivered from the micro pump to the vaporiser; wherein the heating element comprises a conical heating element extending from the tubing segment in a longitudinal direction and the vaporiser is configured for heating the delivered liquid aerosol-forming substrate at the internal passage to a temperature sufficient to volatilize at least a part of the delivered liquid aerosol-forming substrate. a liquid storage portion for storing liquid aerosol-forming substrate; a vaporiser comprising a heating element having a structure defining an open-ended internal passage; a micro pump configured for delivering liquid aerosol-forming substrate from the liquid storage portion to the internal passage of the heating element; and a tubing segment through which the liquid aerosol-forming substrate is delivered from the micro pump to the vaporiser; wherein the heating element comprises a conical heating element extending from the tubing segment in a longitudinal direction and the vaporiser is configured for heating the delivered liquid aerosol-forming substrate at the internal passage to a temperature sufficient to volatilize at least a part of the delivered liquid aerosol-forming substrate.