mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing a fusion mixture for a transfer of a charged molecule into and/or through a lipid membrane with the steps: a) providing an initial mixture comprising a positively charged amphipathic molecule A, an aromatic molecule B with hydrophobic domain and a neutral, amphipathic molecule C, whereby the molecule types are at hand in a ratio A:B:C of 1 - 2 : 0.02 - 1 : 0 - 1 mol/mol, b) generating a fusogenic liposome by inclusion of the initial mixture in a watery solvent, c) providing a charged molecule, d) forming a complex from the charged molecule and a neutralizing agent, e) incubating the complex with the fusogenic liposome so that a fusion mixture is obtained, wherein step d) occurs in a manner that the complex has a zeta potential of -50 mV to 0 mV, wherein the charged molecule is DNA or RNA. a) providing an initial mixture comprising a positively charged amphipathic molecule A, an aromatic molecule B with hydrophobic domain and a neutral, amphipathic molecule C, whereby the molecule types are at hand in a ratio A:B:C of 1 - 2 : 0.02 - 1 : 0 - 1 mol/mol, b) generating a fusogenic liposome by inclusion of the initial mixture in a watery solvent, c) providing a charged molecule, d) forming a complex from the charged molecule and a neutralizing agent, e) incubating the complex with the fusogenic liposome so that a fusion mixture is obtained, wherein step d) occurs in a manner that the complex has a zeta potential of -50 mV to 0 mV, wherein the charged molecule is DNA or RNA. wherein step d) occurs in a manner that the complex has a zeta potential of -50 mV to 0 mV, wherein the charged molecule is DNA or RNA.
A method of wireless communication by a machine type communication user equipment, comprising: communicating using a first set of bundled resources for an uplink data channel; identifying a time difference between the first set of bundled resources and a second set of bundled resources; determining , based on the time difference between the first set of bundled resources and the second set of bundled resources, and based at least in part on a bundle size of the second set of bundled resources or a maximum bundle size of the first set of bundled resources, whether a second set of bundled resources for a downlink control channel comprises an uplink grant with a same hybrid automatic repeat request, HARQ, process identifier as the uplink data channel, an uplink grant with a different HARQ process identifier than the uplink data channel, or a downlink grant; and communicating using the second set of bundled resources based at least in part on the determining and the identifying. communicating using a first set of bundled resources for an uplink data channel; identifying a time difference between the first set of bundled resources and a second set of bundled resources; determining , based on the time difference between the first set of bundled resources and the second set of bundled resources, and based at least in part on a bundle size of the second set of bundled resources or a maximum bundle size of the first set of bundled resources, whether a second set of bundled resources for a downlink control channel comprises an uplink grant with a same hybrid automatic repeat request, HARQ, process identifier as the uplink data channel, an uplink grant with a different HARQ process identifier than the uplink data channel, or a downlink grant; and communicating using the second set of bundled resources based at least in part on the determining and the identifying.
Radiator fan of a motor vehicle, in particular main fan, having a fan wheel , which has a hub , and having an electric-motor rotor , which is attached nonpositively thereto, wherein on the rotor at least one connecting dome is formed integrally and the connecting dome protrudes through a corresponding aperture in the hub , characterized in that the connecting dome is widened in the form of a rivet at the free end in order to produce the nonpositive connection, wherein the widening is greater than the diameter of the corresponding aperture , and wherein the connecting dome is hollow.
A method for dynamic autopilot control of a projectile, comprising: obtaining sensor data from at least one on-board sensor, wherein said at least one sensor comprises an accelerometer , a temperature sensor , and a pressure sensor ; providing said sensor data to at least one processor coupled to said dynamic autopilot, wherein said processor calculates Mach and dynamic pressure ; guiding said projectile to a target using said dynamic autopilot control; characterized in tailoring parameters of said dynamic autopilot based upon the Mach and/or dynamic pressure, said dynamic autopilot parameters comprising at least one of: a roll control filter parameter ; a pitch/yaw filter parameter ; a guidance filter parameter . obtaining sensor data from at least one on-board sensor, wherein said at least one sensor comprises an accelerometer , a temperature sensor , and a pressure sensor ; providing said sensor data to at least one processor coupled to said dynamic autopilot, wherein said processor calculates Mach and dynamic pressure ; guiding said projectile to a target using said dynamic autopilot control; characterized in tailoring parameters of said dynamic autopilot based upon the Mach and/or dynamic pressure, said dynamic autopilot parameters comprising at least one of: a roll control filter parameter ; a pitch/yaw filter parameter ; a guidance filter parameter . a roll control filter parameter ; a pitch/yaw filter parameter ; a guidance filter parameter .
A wireless communication device implemented method for locating another device , comprising: by the wireless communication device : receiving, via a first wireless communication interface, a transmission comprising an anonymous identifier associated with another device located proximate to the wireless communication device , where the anonymous identifier is only resolvable by devices with which the anonymous identifier and an item of identification information have been shared; detecting the anonymous identifier is known to the wireless communication device based on a match to a locally or remotely stored target identifier; waking a second wireless communication interface to perform wireless ranging in response to detecting the anonymous identifier is known; determining, using the second wireless communication interface, a range and a direction of the other device from the wireless communication device , wherein the range and the direction are determined, at least in part, using a wireless ranging operation; and presenting output information that indicates a location of the other device based at least in part on the range and the direction. receiving, via a first wireless communication interface, a transmission comprising an anonymous identifier associated with another device located proximate to the wireless communication device , where the anonymous identifier is only resolvable by devices with which the anonymous identifier and an item of identification information have been shared; detecting the anonymous identifier is known to the wireless communication device based on a match to a locally or remotely stored target identifier; waking a second wireless communication interface to perform wireless ranging in response to detecting the anonymous identifier is known; determining, using the second wireless communication interface, a range and a direction of the other device from the wireless communication device , wherein the range and the direction are determined, at least in part, using a wireless ranging operation; and presenting output information that indicates a location of the other device based at least in part on the range and the direction.
A system information transmission method, comprising: receiving, by a network device, a system information request sent by one or more terminals; transmitting , by the network device, system information SI, wherein SI transmitted for one terminal has a quasi co-location QCL with a portion of downlink signal blocks, and the portion of downlink signal blocks is a subset of all downlink signal blocks transmitted by the network device; and sending (S105), by the network device, first indication information, wherein the first indication information indicates a mapping between a downlink signal block and the SI, and the downlink signal block has a QCL with the SI corresponding to the downlink signal block; wherein for a specific terminal, wherein SI transmitted by the network device for the specific terminal has a quasi co-location QCL with a portion of downlink signal blocks, comprises: performing listen before talk LBT on an antenna port having a QCL with the portion of downlink signal blocks; and if the LBT passes, transmitting, by the network device, the system information SI having the QCL with the portion of downlink signal blocks. receiving, by a network device, a system information request sent by one or more terminals; transmitting , by the network device, system information SI, wherein SI transmitted for one terminal has a quasi co-location QCL with a portion of downlink signal blocks, and the portion of downlink signal blocks is a subset of all downlink signal blocks transmitted by the network device; and sending (S105), by the network device, first indication information, wherein the first indication information indicates a mapping between a downlink signal block and the SI, and the downlink signal block has a QCL with the SI corresponding to the downlink signal block; wherein for a specific terminal, wherein SI transmitted by the network device for the specific terminal has a quasi co-location QCL with a portion of downlink signal blocks, comprises: performing listen before talk LBT on an antenna port having a QCL with the portion of downlink signal blocks; and if the LBT passes, transmitting, by the network device, the system information SI having the QCL with the portion of downlink signal blocks.
Saddle bearing device , comprising: a saddle connecting element for connecting a saddle to the saddle bearing device ; a frame coupling element for connecting the saddle bearing device to a frame of a sports apparatus; and a bearing element , which joins the saddle connecting element to the frame coupling element ; the bearing element forming three axes of rotation arranged perpendicularly to each other, which intersect at one point and can rotate around the saddle connecting element relative to the frame coupling element , characterized in that the bearing element has a ball joint , which comprises a ball and a ball joint head rotationally holding the ball , wherein a pin , which is arranged along an axis of rotation of the ball , penetrates the ball and connecting elements arranged on each side of the ball and spacer bushings and fixes these on the ball , a saddle underframe of the saddle being fastened on the saddle bearing device by means of the connecting elements in the form of saddle clamps known per se, which form a saddle connecting element . a saddle connecting element for connecting a saddle to the saddle bearing device ; a frame coupling element for connecting the saddle bearing device to a frame of a sports apparatus; and a bearing element , which joins the saddle connecting element to the frame coupling element ; the bearing element forming three axes of rotation arranged perpendicularly to each other, which intersect at one point and can rotate around the saddle connecting element relative to the frame coupling element , characterized in that the bearing element has a ball joint , which comprises a ball and a ball joint head rotationally holding the ball , wherein a pin , which is arranged along an axis of rotation of the ball , penetrates the ball and connecting elements arranged on each side of the ball and spacer bushings and fixes these on the ball , a saddle underframe of the saddle being fastened on the saddle bearing device by means of the connecting elements in the form of saddle clamps known per se, which form a saddle connecting element .
An integrated circuit for an electronic pen , the integrated circuit comprising: a first terminal (C1P) that is configured to be connected to a first end of a first capacitor (VC); a second terminal (C1M) that is configured to be connected to a second end of the first capacitor (VC); a plurality of second capacitors (Cb) connected in parallel between the first and second terminals (C1P); a plurality of switches (H) respectively disposed in series with the second capacitors (Cb); a control circuit which, in operation, is adapted to control an on state and an off state of each of the switches (H); and a memory comprising a capacitor bit area storing values indicating whether each of the switches (H) is to be placed in an on or off state; wherein the integrated circuit is characterized in that each of the switches (H) is formed of a fuse element in a connected state, and in that the control circuit is configured to generate a control signal (BC1) for cutting the fuse elements to disconnect associated second capacitors (Cb) from the integrated circuit in accordance with the values stored in the capacitor bit area. a first terminal (C1P) that is configured to be connected to a first end of a first capacitor (VC); a second terminal (C1M) that is configured to be connected to a second end of the first capacitor (VC); a plurality of second capacitors (Cb) connected in parallel between the first and second terminals (C1P); a plurality of switches (H) respectively disposed in series with the second capacitors (Cb); a control circuit which, in operation, is adapted to control an on state and an off state of each of the switches (H); and a memory comprising a capacitor bit area storing values indicating whether each of the switches (H) is to be placed in an on or off state; wherein the integrated circuit is characterized in that each of the switches (H) is formed of a fuse element in a connected state, and in that the control circuit is configured to generate a control signal (BC1) for cutting the fuse elements to disconnect associated second capacitors (Cb) from the integrated circuit in accordance with the values stored in the capacitor bit area.
A robotic arm assembly comprising: a robotic arm comprising a link , a control rope operable with the link , and an attachment section , the control rope extending at least partially through the attachment section ; and an actuator pack attached to, or positioned adjacent to, the attachment section of the robotic arm , the actuator pack including an actuator , the actuator operable with the control rope and including a motor defining a pivot axis , the motor configured to move about the pivot axis to displace the control rope ; wherein the actuator further includes an actuator arm operable with the control rope , wherein the motor is configured to rotate the actuator arm about the pivot axis such that the actuator arm displaces the control rope ; the actuator arm of the actuator includes an extension and an interface member, wherein the extension extends between a first end and a second end, wherein the first end of the extension is coupled to the motor and the second end of the extension is coupled to the interface member, wherein the interface member is configured to contact the control rope without being fixedly attached to the control rope . a robotic arm comprising a link , a control rope operable with the link , and an attachment section , the control rope extending at least partially through the attachment section ; and an actuator pack attached to, or positioned adjacent to, the attachment section of the robotic arm , the actuator pack including an actuator , the actuator operable with the control rope and including a motor defining a pivot axis , the motor configured to move about the pivot axis to displace the control rope ; wherein the actuator further includes an actuator arm operable with the control rope , wherein the motor is configured to rotate the actuator arm about the pivot axis such that the actuator arm displaces the control rope ; the actuator arm of the actuator includes an extension and an interface member, wherein the extension extends between a first end and a second end, wherein the first end of the extension is coupled to the motor and the second end of the extension is coupled to the interface member, wherein the interface member is configured to contact the control rope without being fixedly attached to the control rope .
A method in a first network node , the method comprising: sending (S202) a context setup request message to a second network node , the context setup request message not comprising a wireless device, WD, aggregate maximum bit rate, AMBR, value associated with a WD ; determining (S206) that the first network node has not previously provided the WD AMBR value to the second network node in the context setup request message; sending (S208) a resource setup request message to the second network node, the resource setup request message comprising the WD AMBR value associated with the WD. sending (S202) a context setup request message to a second network node , the context setup request message not comprising a wireless device, WD, aggregate maximum bit rate, AMBR, value associated with a WD ; determining (S206) that the first network node has not previously provided the WD AMBR value to the second network node in the context setup request message; sending (S208) a resource setup request message to the second network node, the resource setup request message comprising the WD AMBR value associated with the WD.
A transmission device for transmitting a radio signal over a radio channel, the transmission device comprising: a radio signal generator , configured to generate a radio signal in time-frequency domain; a channel state information, CSI interface , configured to receive CSI of the radio channel; a pilot generator , configured to compose a pilot signal from at least one pre-defined pilot signal comprising a pre-defined base pilot pattern and an optional set of pre-defined dynamic pilot patterns , wherein a number and a location of the at least one pre-defined pilot signal in the composed pilot signal is determined based on a latency requirement and the received CSI ; a pilot insertion unit , configured to insert the composed pilot signal into the radio signal ; and a transmission unit configured to transmit the radio signal comprising the inserted composed pilot signal . a radio signal generator , configured to generate a radio signal in time-frequency domain; a channel state information, CSI interface , configured to receive CSI of the radio channel; a pilot generator , configured to compose a pilot signal from at least one pre-defined pilot signal comprising a pre-defined base pilot pattern and an optional set of pre-defined dynamic pilot patterns , wherein a number and a location of the at least one pre-defined pilot signal in the composed pilot signal is determined based on a latency requirement and the received CSI ; a pilot insertion unit , configured to insert the composed pilot signal into the radio signal ; and a transmission unit configured to transmit the radio signal comprising the inserted composed pilot signal .
A method of making an integrally bladed rotor, comprising thermally processing a titanium alloy rotor disk comprising 15-50% by volume of primary alpha grains with a grain size less than 10 μm and secondary alpha grains with a grain size less than 1.0 μm; positioning a blade comprising an airfoil and a base such that a base surface is in contact with an outer rim surface of the disk ; and applying heat, pressure, and motion between the blade and the disk to friction weld the base surface to the disk outer rim surface; characterised in that : the secondary alpha grains comprise Widmanstatten grains. thermally processing a titanium alloy rotor disk comprising 15-50% by volume of primary alpha grains with a grain size less than 10 μm and secondary alpha grains with a grain size less than 1.0 μm; positioning a blade comprising an airfoil and a base such that a base surface is in contact with an outer rim surface of the disk ; and applying heat, pressure, and motion between the blade and the disk to friction weld the base surface to the disk outer rim surface; characterised in that : the secondary alpha grains comprise Widmanstatten grains.
A rotor-blade system , comprising: a rotor blade ; and a span-balancing system , the span-balancing system comprising: a span-balance pocket in a surface of the rotor blade ; a cover covering the span-balance pocket , wherein the cover is flush with the surface of the rotor blade when covering the span-balance pocket ; one or more span-balance weights attached to the cover to span-balance the rotor blade , wherein each of the one or more span-balance weights is attached to the cover with one or more weight fasteners , the cover comprising a cover boss that is integral with the cover and in physical contact with an outboard edge of the span-balance pocket for reacting centrifugal force of the cover into the rotor blade; and characterised by one or more weight bosses attached to the cover and extending through the one or more span-balance weights , each of the one or more span-balance weights being in physical contact with one of the one or more weight bosses and wherein the one or more weight bosses react centrifugal force of the span-balance weights to the cover and ultimately to the rotor blade , without any of the one or more weight fasteners reacting centrifugal force of the span-balance weights to the cover . a rotor blade ; and a span-balancing system , the span-balancing system comprising: a span-balance pocket in a surface of the rotor blade ; a cover covering the span-balance pocket , wherein the cover is flush with the surface of the rotor blade when covering the span-balance pocket ; one or more span-balance weights attached to the cover to span-balance the rotor blade , wherein each of the one or more span-balance weights is attached to the cover with one or more weight fasteners , the cover comprising a cover boss that is integral with the cover and in physical contact with an outboard edge of the span-balance pocket for reacting centrifugal force of the cover into the rotor blade; a span-balance pocket in a surface of the rotor blade ; a cover covering the span-balance pocket , wherein the cover is flush with the surface of the rotor blade when covering the span-balance pocket ; one or more span-balance weights attached to the cover to span-balance the rotor blade , wherein each of the one or more span-balance weights is attached to the cover with one or more weight fasteners , the cover comprising a cover boss that is integral with the cover and in physical contact with an outboard edge of the span-balance pocket for reacting centrifugal force of the cover into the rotor blade; and characterised by one or more weight bosses attached to the cover and extending through the one or more span-balance weights , each of the one or more span-balance weights being in physical contact with one of the one or more weight bosses and wherein the one or more weight bosses react centrifugal force of the span-balance weights to the cover and ultimately to the rotor blade , without any of the one or more weight fasteners reacting centrifugal force of the span-balance weights to the cover .