mhurhangee/ep-ind-claims huggingface dataset:
A dispensing apparatus comprising a dispenser for dispensing a liquid containing at least one cell and/or at least one particle and an optical detection device for optically detecting at least a region of the dispenser, wherein the optical detection device has a light source for emitting an illuminating light for illuminating the region and a deflection device for deflecting a detection light emanating from the region, characterised in that the deflection device deflects the detection light at least twice, in particular exactly twice.
A method for treatment of malicious objects on a computer, the method comprising: performing, by an antivirus software, an antivirus scan of a first plurality of objects associated with an operating system of the computer and a second plurality of objects requiring separate corresponding drivers to access; detecting, by the antivirus software, a malicious object on the computer; formulating at least one task for treatment of the detected malicious object; configuring and activating on the computer an antivirus driver of the antivirus software to execute the at least one formulated task for treatment of the detected malicious object; before rebooting the computer, checking an integrity of the at least one task by using another driver; upon detecting a modification of the at least one task by the detected malicious object, restoring the at least one task by using the other driver; rebooting the computer by the antivirus software; and loading the antivirus driver during boot-up of the computer to execute the at least one task for treatment of the detected malicious object at the instant of loading the antivirus driver. performing, by an antivirus software, an antivirus scan of a first plurality of objects associated with an operating system of the computer and a second plurality of objects requiring separate corresponding drivers to access; detecting, by the antivirus software, a malicious object on the computer; formulating at least one task for treatment of the detected malicious object; configuring and activating on the computer an antivirus driver of the antivirus software to execute the at least one formulated task for treatment of the detected malicious object; before rebooting the computer, checking an integrity of the at least one task by using another driver; upon detecting a modification of the at least one task by the detected malicious object, restoring the at least one task by using the other driver; rebooting the computer by the antivirus software; and loading the antivirus driver during boot-up of the computer to execute the at least one task for treatment of the detected malicious object at the instant of loading the antivirus driver.
A sliding element, comprising:- a first sliding element component for sliding engagement with a rotatable component; and a second sliding element (22,23) component for sliding engagement with the rotatable component; wherein the first sliding element component is coupled to the second sliding element component (22,23) by an adhesive; characterised in that the adhesive is a flexible adhesive comprising, in a cured state, an elongation at break of between about 100 percent and about 500 percent. a first sliding element component for sliding engagement with a rotatable component; and a second sliding element (22,23) component for sliding engagement with the rotatable component; wherein the first sliding element component is coupled to the second sliding element component (22,23) by an adhesive; characterised in that the adhesive is a flexible adhesive comprising, in a cured state, an elongation at break of between about 100 percent and about 500 percent.
A no-back device (10; 20; 30) for an aircraft screw actuator, the screw actuator comprising: a screw shaft for threaded engagement with an actuator output device such that rotation of the screw shaft causes linear movement of the actuator output device; and a motor for driving rotation of the screw shaft; the no-back device (10;20;30) being for restricting movement of the screw shaft in response to feedback torque applied due to external forces on the actuator output device, and the no-back device (10, 20, 30) comprising a brake (104, 108; 314, 308) and a brake controller (22; 212); the brake (104, 108; 314, 308) comprising a no-back device brake member (104; 314) for engagement with a screw shaft brake member (108; 308) connected to the screw shaft in order to generate a braking torque on the screw shaft when the brake members (104, 108; 314, 308) engage with one another, and a biasing device (102; 202; 302) for providing a force to urge the brake members (104, 108; 314, 308) to engage with one another when the motor is not activated, this force hence resulting in a braking torque that resists rotation of the screw shaft under feedback torque; and the brake controller (22; 212) being arranged to provide a force to urge the brake members (104, 108; 314, 308) to disengage with one another, this force being applied upon activation of the motor for rotating the screw shaft, in order that the braking torque is reduced when the motor is activated.
A method of SCell beam failure recovery, comprising: detecting, by a terminal device, beam failure on PDCCH associated with each TRP in a multi-TRP system in a SCell independently; further comprising: sending a beam failure recovery request, receiving, by the terminal device, the PDCCH from the each TRP on the SCell by assuming that a DMRS signal of the PDCCH is quasi collocated with a newly identified reference signal that is reported in the beam failure recovery request, after a positive response to the beam failure recovery request is received. detecting, by a terminal device, beam failure on PDCCH associated with each TRP in a multi-TRP system in a SCell independently; further comprising: sending a beam failure recovery request, receiving, by the terminal device, the PDCCH from the each TRP on the SCell by assuming that a DMRS signal of the PDCCH is quasi collocated with a newly identified reference signal that is reported in the beam failure recovery request, after a positive response to the beam failure recovery request is received. sending a beam failure recovery request, receiving, by the terminal device, the PDCCH from the each TRP on the SCell by assuming that a DMRS signal of the PDCCH is quasi collocated with a newly identified reference signal that is reported in the beam failure recovery request, after a positive response to the beam failure recovery request is received.
A wet strengthened fiber product, comprising: a fiber web; and an at least partially cured wet strengthening resin, wherein, prior to at least partially curing, the wet strengthening resin comprises: a polyamide-epihalohydrin resin comprising a reaction product of a polyamidoamine and an epihalohydrin; and a cationic styrene maleimide resin comprising a reaction product of a styrene maleic anhydride copolymer and an amine compound, a weight average molecular weight of 500 to 200,000, and a styrene to maleimide molar ratio of 1:1 to 5:1; wherein the cationic styrene maleimide resin is present in the wet strengthening resin in an amount of 5 wt% to 95 wt%, based on the combined weight of the polyamide-epihalohydrin resin and the cationic styrene maleimide resin; and wherein the wet strengthening resin is present in the wet strengthened fiber product in an amount of 0.05 wt% to 5 wt%, based on a combined weight of the polyamide-epihalohydrin resin and the cationic styrene maleimide resin relative to a dried weight of the wet strengthened fiber product. a fiber web; and an at least partially cured wet strengthening resin, wherein, prior to at least partially curing, the wet strengthening resin comprises: a polyamide-epihalohydrin resin comprising a reaction product of a polyamidoamine and an epihalohydrin; and a cationic styrene maleimide resin comprising a reaction product of a styrene maleic anhydride copolymer and an amine compound, a weight average molecular weight of 500 to 200,000, and a styrene to maleimide molar ratio of 1:1 to 5:1; wherein the cationic styrene maleimide resin is present in the wet strengthening resin in an amount of 5 wt% to 95 wt%, based on the combined weight of the polyamide-epihalohydrin resin and the cationic styrene maleimide resin; and wherein the wet strengthening resin is present in the wet strengthened fiber product in an amount of 0.05 wt% to 5 wt%, based on a combined weight of the polyamide-epihalohydrin resin and the cationic styrene maleimide resin relative to a dried weight of the wet strengthened fiber product. a polyamide-epihalohydrin resin comprising a reaction product of a polyamidoamine and an epihalohydrin; and a cationic styrene maleimide resin comprising a reaction product of a styrene maleic anhydride copolymer and an amine compound, a weight average molecular weight of 500 to 200,000, and a styrene to maleimide molar ratio of 1:1 to 5:1; wherein the cationic styrene maleimide resin is present in the wet strengthening resin in an amount of 5 wt% to 95 wt%, based on the combined weight of the polyamide-epihalohydrin resin and the cationic styrene maleimide resin; and wherein the wet strengthening resin is present in the wet strengthened fiber product in an amount of 0.05 wt% to 5 wt%, based on a combined weight of the polyamide-epihalohydrin resin and the cationic styrene maleimide resin relative to a dried weight of the wet strengthened fiber product.
A method for capturing a sequence of image frames in a thermal camera having a microbolometer detector, comprising: capturing a first sequence of image frames (I1, I2, I3, I4) with a shutter of the thermal camera being in a closed state and while switching an integration time of the microbolometer detector between a plurality of integration times (T1, T2) according to one or more first repetitions (R1, R2) of a temporal pattern of integration times, capturing a second sequence of image frames (I5, I6, I7, I8, I9, I10, I11, I12, I13, I14) with the shutter of the thermal camera being in an open state and while switching the integration time of the microbolometer detector between the plurality of integration times (T1, T2) according to one or more second repetitions (R3, R4, R5, R6, R7) of the same temporal pattern of integration times, and correcting, by subtraction, image frames (I5, I7, I9, I11, I13) in the second sequence that are captured when the integration time is switched to a particular position within the temporal pattern of integration times using image frames (11, I3) in the first sequence that are captured when the integration time is switched to the same particular position within the temporal pattern of integration times. capturing a first sequence of image frames (I1, I2, I3, I4) with a shutter of the thermal camera being in a closed state and while switching an integration time of the microbolometer detector between a plurality of integration times (T1, T2) according to one or more first repetitions (R1, R2) of a temporal pattern of integration times, capturing a second sequence of image frames (I5, I6, I7, I8, I9, I10, I11, I12, I13, I14) with the shutter of the thermal camera being in an open state and while switching the integration time of the microbolometer detector between the plurality of integration times (T1, T2) according to one or more second repetitions (R3, R4, R5, R6, R7) of the same temporal pattern of integration times, and correcting, by subtraction, image frames (I5, I7, I9, I11, I13) in the second sequence that are captured when the integration time is switched to a particular position within the temporal pattern of integration times using image frames (11, I3) in the first sequence that are captured when the integration time is switched to the same particular position within the temporal pattern of integration times.
A dispenser for charging an electric vehicle, comprising: a housing; a first set of one or more power modules (115A, 115B) included within the housing, wherein each of the first set of one or more power modules (115A, 115B) is capable of supplying an amount of power for charging the electric vehicle; a first power bus that provides charging output for the dispenser and that is switchably connected to the first set of one or more power modules (115A, 115B) and switchably connected to a second set of one or more power modules (115C, 115D) that are located remotely from the dispenser in a different dispenser, and wherein the first set of one or more power modules (115A, 115B) are switchably connected to a second power bus that provides charging output for the different dispenser; and a control unit that is coupled to the first set of one or more power modules (115, 115B), wherein the control unit is configured to: cause the first set of one or more power modules (150A, 150B) and the second set of one or more power modules (150C, 150D) to switchably connect and disconnect from the first power bus to dynamically allocate the first set of one or more power modules (150A, 150B) and the second set of one or more power modules (150C, 150D) between the dispenser and the different dispenser. a housing; a first set of one or more power modules (115A, 115B) included within the housing, wherein each of the first set of one or more power modules (115A, 115B) is capable of supplying an amount of power for charging the electric vehicle; a first power bus that provides charging output for the dispenser and that is switchably connected to the first set of one or more power modules (115A, 115B) and switchably connected to a second set of one or more power modules (115C, 115D) that are located remotely from the dispenser in a different dispenser, and wherein the first set of one or more power modules (115A, 115B) are switchably connected to a second power bus that provides charging output for the different dispenser; and a control unit that is coupled to the first set of one or more power modules (115, 115B), wherein the control unit is configured to: cause the first set of one or more power modules (150A, 150B) and the second set of one or more power modules (150C, 150D) to switchably connect and disconnect from the first power bus to dynamically allocate the first set of one or more power modules (150A, 150B) and the second set of one or more power modules (150C, 150D) between the dispenser and the different dispenser.
Working machine of sheet materials, comprising: - a supporting frame; - a supporting head connected to said supporting frame; - working means with rotary tools; - waterjet cutting means; - a work bench suitable for supporting the sheet to be worked; machine characterized in that it comprises fast-coupling means (12, 13; 21, 31) comprising first and second male fast-coupling means (21, 31) and first and second female fast-coupling means (12, 13); said first and second female fast-coupling means (12, 13) being disposed on the supporting head; said first male fast-coupling means being disposed on the working means with rotary tools; the second male fast-coupling means being disposed on the water cutting means; the female fast-coupling means (12, 13) disposed on the supporting head being configured in such a way as to alternatively permit the coupling with the first male fast-coupling means disposed on the working means with rotary tools, or with the second male fast-coupling means disposed on the water cutting means. - a supporting frame; - a supporting head connected to said supporting frame; - working means with rotary tools; - waterjet cutting means; - a work bench suitable for supporting the sheet to be worked;
A method performed by a first terminal in a communication system, the method comprising: identifying second sidelink control information, SCI, for transmitting sidelink data; identifying first SCI for transmitting the sidelink data based on the second SCI; identifying resources for the first SCI and the second SCI; and transmitting, to a second terminal, the first SCI and the second SCI on the identified resources, wherein the resource for the second SCI is identified based on a number of coded symbols for the second SCI, wherein the number of coded symbols for the second SCI is identified based on a sum of a parameter γ and a minimum value identified based on between O SCI 2 + L SCI 2 ⋅ β offset SCI 2 R ⋅ Q m and α ∑ l = 0 N symbol PSSCH − 1 M SC SCI 2 l, wherein the parameter γ is a number of one or more remaining resource elements, onto which the second SCI is not mapped, in a resource block to which a last coded symbol for the second SCI is mapped, and wherein O SCI 2 is a number of bits of the second SCI, L SCI 2 is a number of a cyclic redundancy check, CRC, bits for the second SCI, β offset SCI 2 is a beta offset, α is a parameter for controlling the number of coded symbols for the second SCI, R is a coding rate of a physical sidelink shared channel, PSSCH, corresponding to the sidelink data, Q m is a modulation order of the PSSCH, N symbol PSSCH is a number of orthogonal frequency division multiplexing, OFDM, symbols for the PSSCH, and M SC SCI 2 l is a number of one or more resource elements which is capable of being used for transmitting the second SCI in the l-th OFDM symbol. identifying second sidelink control information, SCI, for transmitting sidelink data; identifying first SCI for transmitting the sidelink data based on the second SCI; identifying resources for the first SCI and the second SCI; and transmitting, to a second terminal, the first SCI and the second SCI on the identified resources, wherein the resource for the second SCI is identified based on a number of coded symbols for the second SCI, wherein the number of coded symbols for the second SCI is identified based on a sum of a parameter γ and a minimum value identified based on between O SCI 2 + L SCI 2 ⋅ β offset SCI 2 R ⋅ Q m and α ∑ l = 0 N symbol PSSCH − 1 M SC SCI 2 l, wherein the parameter γ is a number of one or more remaining resource elements, onto which the second SCI is not mapped, in a resource block to which a last coded symbol for the second SCI is mapped, and wherein O SCI 2 is a number of bits of the second SCI, L SCI 2 is a number of a cyclic redundancy check, CRC, bits for the second SCI, β offset SCI 2 is a beta offset, α is a parameter for controlling the number of coded symbols for the second SCI, R is a coding rate of a physical sidelink shared channel, PSSCH, corresponding to the sidelink data, Q m is a modulation order of the PSSCH, N symbol PSSCH is a number of orthogonal frequency division multiplexing, OFDM, symbols for the PSSCH, and M SC SCI 2 l is a number of one or more resource elements which is capable of being used for transmitting the second SCI in the l-th OFDM symbol.
A power screw driver with a vacuum screw pick-up feature, comprising a housing connectable to a vacuum source, a motor driven screw bit, a nose piece with a screw guiding nozzle, wherein the nose piece is movably supported on the housing and exposed to a suction force generated by the vacuum source, and a spring arranged to bias the nose piece towards an extended position, characterized in that the housing is provided with a valve device for adjustment of the suction force acting on the nose piece wherein said valve device comprises an air inlet passage communicating at one end with the atmosphere and at an opposite end with an activation chamber, and a movable valve element arranged to control the flow of atmospheric air through said air inlet passage to thereby adjust the vacuum level in said activation chamber.
A fusion protein comprising: (a) a Pseudomonas aeruginosa type A flagellin adjuvant or a Pseudomonas aeruginosa type B flagellin adjuvant, wherein the flagellin adjuvant comprises a TLR5 recognition site; (b) a Pseudomonas aeruginosa OprF antigen and a Pseudomonas aeruginosa OprI antigen, wherein the Pseudomonas aeruginosa antigens are an N-terminal extension of the flagellin adjuvant and the fusion protein is able to activate the TLR5 pathway; wherein the fusion protein is an OprF 311-341 -OprI-Flagellin construct. (a) a Pseudomonas aeruginosa type A flagellin adjuvant or a Pseudomonas aeruginosa type B flagellin adjuvant, wherein the flagellin adjuvant comprises a TLR5 recognition site; (b) a Pseudomonas aeruginosa OprF antigen and a Pseudomonas aeruginosa OprI antigen, wherein the Pseudomonas aeruginosa antigens are an N-terminal extension of the flagellin adjuvant and the fusion protein is able to activate the TLR5 pathway;
An oral cavity cleaning device, comprising: a sonic motor, comprising a motor body and a power output shaft, wherein the motor body has an output axis extending in a power output direction, the power output shaft is a columnar object extending along the output axis and penetrating through the motor body, the power output shaft is configured to cooperate with the motor body and transmit output power of the motor body, and the power output shaft has an axial channel parallel to the output axis and a first inlet and a first outlet communicating with the axial channel; a fluid mechanism, having a fluid inlet and a fluid outlet, wherein the fluid outlet communicates with the first inlet; a housing, extending in an axial direction of the power output shaft and forming a tubular structure with a hollow interior, wherein the housing comprises a core mounting part, a mounting rack is arranged in the core mounting part and has a motor chamber and a pump chamber, the sonic motor is mounted in the motor chamber, and the fluid mechanism is mounted in the pump chamber; characterised in that, a front cushion, arranged at a front end of the sonic motor in a sleeved manner, wherein the front end of the sonic motor is mounted in the core mounting part by the front cushion; and a rear cushion, arranged at a rear end of the sonic motor in a sleeved manner, wherein the rear end of the sonic motor is mounted in the motor chamber by the rear cushion. a sonic motor, comprising a motor body and a power output shaft, wherein the motor body has an output axis extending in a power output direction, the power output shaft is a columnar object extending along the output axis and penetrating through the motor body, the power output shaft is configured to cooperate with the motor body and transmit output power of the motor body, and the power output shaft has an axial channel parallel to the output axis and a first inlet and a first outlet communicating with the axial channel; a fluid mechanism, having a fluid inlet and a fluid outlet, wherein the fluid outlet communicates with the first inlet; a housing, extending in an axial direction of the power output shaft and forming a tubular structure with a hollow interior, wherein the housing comprises a core mounting part, a mounting rack is arranged in the core mounting part and has a motor chamber and a pump chamber, the sonic motor is mounted in the motor chamber, and the fluid mechanism is mounted in the pump chamber; characterised in that, a front cushion, arranged at a front end of the sonic motor in a sleeved manner, wherein the front end of the sonic motor is mounted in the core mounting part by the front cushion; and a rear cushion, arranged at a rear end of the sonic motor in a sleeved manner, wherein the rear end of the sonic motor is mounted in the motor chamber by the rear cushion.