mhurhangee/patent-ind-claim-en huggingface dataset:
A biofunctional multicomponent nanosystem comprising: (i) a CTC specific or non-specific antibody targeting cancer cells, preferably an anti-transferrin (Tf) or anti-EpCam antibody, or a biomolecule targeting cancer cells; (ii) iron oxide (Fe 3 O 4 ) nanoparticles; (iii) cyanine 5 NHS (Cy5) near infrared probe; (v) carbon allotropes for interaction with cancer cells; (vi) poly(N-isopropylacrylamide) (PNIPAM); (vii) fourth generation (G4) dendrimers or polymers selected from the group consisting of polyglycerols, polyamines and hyperbranched polymers; and (viii) glutathione (GSH) for specific targeting, isolation and imaging of circulating cancer cells. (i) a CTC specific or non-specific antibody targeting cancer cells, preferably an anti-transferrin (Tf) or anti-EpCam antibody, or a biomolecule targeting cancer cells; (ii) iron oxide (Fe 3 O 4 ) nanoparticles; (iii) cyanine 5 NHS (Cy5) near infrared probe; (v) carbon allotropes for interaction with cancer cells; (vi) poly(N-isopropylacrylamide) (PNIPAM); (vii) fourth generation (G4) dendrimers or polymers selected from the group consisting of polyglycerols, polyamines and hyperbranched polymers; and (viii) glutathione (GSH) for specific targeting, isolation and imaging of circulating cancer cells.
A steering device characterized by comprising: a turning shaft configured to turn a turning wheel of a vehicle, with dynamic power transmission being separated between the turning shaft and a steering wheel ; a turning motor configured to generate a turning force, the turning force being a torque that is given to the turning shaft for turning the turning wheel ; and a control device configured to control the turning motor such that an angle capable of being converted into a turning angle of the turning wheel follows a target angle that is calculated depending on a steering state of the steering wheel , characterized in that the control device is configured to execute a correction process of correcting the target angle such that the target angle is an angle within an angle region in which a force balance is capable of being kept, the force balance being a balance between a maximal turning force that is capable of being generated by the turning motor and an axial force that is generated in the turning shaft ; and the control device is configured to correct the target angle such that a degree of an increase in the target angle is slower as the target angle approaches a limit value of the angle region, when the target angle increases toward the limit value of the angle region in either of a vehicle stop state or an extremely low speed state. a turning shaft configured to turn a turning wheel of a vehicle, with dynamic power transmission being separated between the turning shaft and a steering wheel ; a turning motor configured to generate a turning force, the turning force being a torque that is given to the turning shaft for turning the turning wheel ; and a control device configured to control the turning motor such that an angle capable of being converted into a turning angle of the turning wheel follows a target angle that is calculated depending on a steering state of the steering wheel , characterized in that the control device is configured to execute a correction process of correcting the target angle such that the target angle is an angle within an angle region in which a force balance is capable of being kept, the force balance being a balance between a maximal turning force that is capable of being generated by the turning motor and an axial force that is generated in the turning shaft ; and the control device is configured to correct the target angle such that a degree of an increase in the target angle is slower as the target angle approaches a limit value of the angle region, when the target angle increases toward the limit value of the angle region in either of a vehicle stop state or an extremely low speed state.
A fan blade comprising: a working region having a leading edge , a trailing edge , a pressure side , a suction side and a tip , wherein the working region has a thickness measured between the pressure side and the suction side; a transition zone located adjacent to the working region ; an attachment portion located adjacent to the transition zone opposite the working region ; and an array of depressions on the pressure side , wherein each of the depressions in the array has a depth (D) that locally reduces a thickness (T) of the fan blade by at least 50%, wherein the array of depressions in the working region is spaced from the transition zone such that a radially inward portion of the working region is free of depressions , and characterized in that the array of depressions has an inner boundary that is curved, such that the inner boundary at the trailing edge is located radially outward from the inner boundary at the leading edge . a working region having a leading edge , a trailing edge , a pressure side , a suction side and a tip , wherein the working region has a thickness measured between the pressure side and the suction side; a transition zone located adjacent to the working region ; an attachment portion located adjacent to the transition zone opposite the working region ; and an array of depressions on the pressure side , wherein each of the depressions in the array has a depth (D) that locally reduces a thickness (T) of the fan blade by at least 50%,
A system comprising: a direct radiating array antenna including plurality of elements disposed in an array , the elements configured to radiate radiofrequency, RF, energy to form a beam having multiple frequency channels ; and one or more processors configured to generate an excitation plan for powering the elements to form the beam , the excitation plan assigning multiple corresponding beamforming coefficients to each element in a first group of the elements , each beamforming coefficient designating power allocated to the assigned element for radiating RF energy at an associated frequency channel of the beam , wherein the excitation plan assigns the beamforming coefficients to provide a substantially uniform power distribution among the elements in the first group , and at least some of the elements in the first group have different allocations of power among the multiple frequency channels of the beam than other elements in the first group ; characterized in that the excitation plan partitions the elements in the array into the first group and a second group of multiple elements, whereby the excitation plan assigns beamforming coefficients to the elements in the second group to provide a substantially uniform power distribution among the elements in the second group at a different power level than a power level distributed to the elements in the first group. a direct radiating array antenna including plurality of elements disposed in an array , the elements configured to radiate radiofrequency, RF, energy to form a beam having multiple frequency channels ; and one or more processors configured to generate an excitation plan for powering the elements to form the beam , the excitation plan assigning multiple corresponding beamforming coefficients to each element in a first group of the elements , each beamforming coefficient designating power allocated to the assigned element for radiating RF energy at an associated frequency channel of the beam , wherein the excitation plan assigns the beamforming coefficients to provide a substantially uniform power distribution among the elements in the first group , and at least some of the elements in the first group have different allocations of power among the multiple frequency channels of the beam than other elements in the first group ; characterized in that the excitation plan partitions the elements in the array into the first group and a second group of multiple elements, whereby the excitation plan assigns beamforming coefficients to the elements in the second group to provide a substantially uniform power distribution among the elements in the second group at a different power level than a power level distributed to the elements in the first group.
A method for the removal of solid particles from air involving the following steps: - blowing the air through a channel in which a part of the particles in the air is ionized; - slowing down the air speed, for example through a diffuser ; - filtering the air with a class F9 filter or a suitable comparable filter ; - blowing the air that was filtered by the class F9 filter or the suitable comparable filter through an electrically charged filter unit that comprises one or more filters from the classes G1, G2 or G3, characterized in that the air that was filtered by the electrically charged filter unit is subsequently forced to flow to and through a class U15 filter . - blowing the air through a channel in which a part of the particles in the air is ionized; - slowing down the air speed, for example through a diffuser ; - filtering the air with a class F9 filter or a suitable comparable filter ; - blowing the air that was filtered by the class F9 filter or the suitable comparable filter through an electrically charged filter unit that comprises one or more filters from the classes G1, G2 or G3,
A method for assessing whether an infant is at enhanced risk for developing allergy, comprising determining the concentration and/or percentage of lactic acid based on total organic acids in faecal material obtained from the infant a. at a first time point when the infant or young child is about 3 to 17 weeks old, and b. at a second time point when the infant or young child is about 20 to 35 weeks old, and c. subsequently determining whether the concentration and/or percentage of lactic acid based on total organic acid in the faecal material has increased or decreased from the first to the second time point, wherein an increase in lactic acid indicates an enhanced risk for developing allergy in the infant. a. at a first time point when the infant or young child is about 3 to 17 weeks old, and b. at a second time point when the infant or young child is about 20 to 35 weeks old, and c. subsequently determining whether the concentration and/or percentage of lactic acid based on total organic acid in the faecal material has increased or decreased from the first to the second time point,
A method for receiving control information, comprising: sending (S22), by a network device, indication information of an uplink control channel to a terminal device, wherein the indication information of the uplink control channel indicates first-format information of the uplink control channel, and the first-format information comprises a time domain length parameter, a time domain repeat count parameter, and a power parameter; and receiving (S23), by the network device, uplink control information from the terminal device according to the indication information using the uplink control channel. sending (S22), by a network device, indication information of an uplink control channel to a terminal device, wherein the indication information of the uplink control channel indicates first-format information of the uplink control channel, and the first-format information comprises a time domain length parameter, a time domain repeat count parameter, and a power parameter; and receiving (S23), by the network device, uplink control information from the terminal device according to the indication information using the uplink control channel.
A mitral valve prosthesis configured to be implanted at a native mitral valve of a heart , the native mitral valve having native mitral valve leaflets , the mitral valve prosthesis comprising: an expandable valve frame ; a first arm having a first end attached to the valve frame and a second end configured to extend farther radially from a central axis of the valve frame than the valve frame extends from the central axis when the valve frame is in an expanded configuration; and an anchoring device comprising a coil that defines an inner space for holding the valve frame when the valve frame is in the expanded configuration in the inner space of the coil; wherein when the mitral valve prosthesis is implanted, the native mitral valve leaflets are positioned between the anchoring device and the valve frame and the anchoring device is positioned radially between the first arm and the valve frame . an expandable valve frame ; a first arm having a first end attached to the valve frame and a second end configured to extend farther radially from a central axis of the valve frame than the valve frame extends from the central axis when the valve frame is in an expanded configuration; and an anchoring device comprising a coil that defines an inner space for holding the valve frame when the valve frame is in the expanded configuration in the inner space of the coil; wherein when the mitral valve prosthesis is implanted, the native mitral valve leaflets are positioned between the anchoring device and the valve frame and the anchoring device is positioned radially between the first arm and the valve frame .
A method of generating a transpositional modulation signal, comprising the steps of: receiving a carrier signal ; receiving an input signal ; generating quarter-cycle waveforms based on the input signal, adjacent quarter-cycle waveforms having complementary values so that a constant amplitude exists between the negative peak value and the positive peak value of each cycle; and assembling the generated quarter-cycle waveforms into a continuous output signal , wherein the output signal includes a first inflection (a1, a2, b1, b2, c1, c2) between adjacent quarter-cycles forming a segment of the output signal between a first negative peak (Pk1) and a positive peak (Pk+), and wherein the output signal includes a second inflection (a1, a2, b1, b2, c1, c2) between adjacent quarter-cycles forming a segment of the output signal between the positive peak (Pk+) and a second negative peak (Pk-), wherein said first and second inflections represent a level of said input signal. receiving a carrier signal ; receiving an input signal ; generating quarter-cycle waveforms based on the input signal, adjacent quarter-cycle waveforms having complementary values so that a constant amplitude exists between the negative peak value and the positive peak value of each cycle; and assembling the generated quarter-cycle waveforms into a continuous output signal , wherein the output signal includes a first inflection (a1, a2, b1, b2, c1, c2) between adjacent quarter-cycles forming a segment of the output signal between a first negative peak (Pk1) and a positive peak (Pk+), and wherein the output signal includes a second inflection (a1, a2, b1, b2, c1, c2) between adjacent quarter-cycles forming a segment of the output signal between the positive peak (Pk+) and a second negative peak (Pk-), wherein said first and second inflections represent a level of said input signal.
A method of transmitting data by a first base station, BS, in a wireless communication, the method comprising: receiving control information including information related to transmission of a reference signal, RS, of a second BS from the second BS adjacent to the first BS, wherein the control information includes first information on a second resource used by the second BS in transmitting the RS and second information indicating whether the second resource used by the second BS in transmitting the RS is equal to a first resource used by the first BS; identifying the second resource used by the second BS in transmitting the RS based on the control information; performing a muting operation on the first resource corresponding to the second resource; transmitting interference control information to a user equipment, UE, including the first information and the second information; and transmitting data to the UE, wherein the muting operation includes one of an operation of transmitting data of which transmission power is set as "0", an operation of not performing data transmission, and an operation of not allocating data to the first resource, and wherein a type of RS of the first BS is different from a type of RS of the second BS, and wherein the second information is included in the control information when the first BS transmits a request for the second information to the second BS. receiving control information including information related to transmission of a reference signal, RS, of a second BS from the second BS adjacent to the first BS, wherein the control information includes first information on a second resource used by the second BS in transmitting the RS and second information indicating whether the second resource used by the second BS in transmitting the RS is equal to a first resource used by the first BS; identifying the second resource used by the second BS in transmitting the RS based on the control information; performing a muting operation on the first resource corresponding to the second resource; transmitting interference control information to a user equipment, UE, including the first information and the second information; and transmitting data to the UE, wherein the muting operation includes one of an operation of transmitting data of which transmission power is set as "0", an operation of not performing data transmission, and an operation of not allocating data to the first resource, and wherein a type of RS of the first BS is different from a type of RS of the second BS, and wherein the second information is included in the control information when the first BS transmits a request for the second information to the second BS.
A method of transmitting, by a user equipment, UE, a physical uplink control channel, PUCCH, carrying uplink control information, UCI in a wireless communication system, the method comprising: transmitting, to a base station, BS, a reference signal, RS, used for a demodulation of the PUCCH using a plurality of uplink beams, transmitting, to the BS , the PUCCH using the plurality of uplink beams, characterized in that each of the plurality of uplink beams corresponds to a different one of a plurality of specific resource units, respectively, and in each of the plurality of specific resource units, the RS and the PUCCH are transmitted through the corresponding uplink beam, and wherein each specific resource unit indicates a specific number of orthogonal frequency division multiplexing, OFDM, symbols for that specific resource unit in which the corresponding uplink beam for transmitting the PUCCH and RS remains the same, wherein the UCI is coded at a specific coding rate, the coded UCI is mapped to the specific number of OFDM symbols and the mapping of the coded UCI is repeated within a PUCCH resource in which the PUCCH is transmitted. transmitting, to a base station, BS, a reference signal, RS, used for a demodulation of the PUCCH using a plurality of uplink beams, transmitting, to the BS , the PUCCH using the plurality of uplink beams, characterized in that each of the plurality of uplink beams corresponds to a different one of a plurality of specific resource units, respectively, and in each of the plurality of specific resource units, the RS and the PUCCH are transmitted through the corresponding uplink beam, and wherein each specific resource unit indicates a specific number of orthogonal frequency division multiplexing, OFDM, symbols for that specific resource unit in which the corresponding uplink beam for transmitting the PUCCH and RS remains the same, wherein the UCI is coded at a specific coding rate, the coded UCI is mapped to the specific number of OFDM symbols and the mapping of the coded UCI is repeated within a PUCCH resource in which the PUCCH is transmitted.
Top head housing for a current transformer , which is to be mounted on top of an insulating column of the current transformer, and forming a chamber for windings of the current transformer , said top head housing being made of two parts fixed one to the other, and comprising two openings through each of which a conductor penetrates the chamber, said openings being symmetrically opposed with reference to a main vertical axis (A) of the top head housing , the two parts of the top head housing consisting of two half shells comprising identical bodies , wherein each part comprises a base and a hollow body extending vertically from the base , said body comprising an end edge which is to come in contact with the end edge of the body of the other part , wherein each part comprises a flange extending radially, with respect to said main vertical axis (A) of the top head housing , from the end edge of the body , and wherein the two parts are made of metal, characterized in that the two parts are electrically connected by an external U-shaped connector attached to the flanges which overlaps the flanges . said top head housing being made of two parts fixed one to the other, and comprising two openings through each of which a conductor penetrates the chamber, said openings being symmetrically opposed with reference to a main vertical axis (A) of the top head housing , the two parts of the top head housing consisting of two half shells comprising identical bodies , wherein each part comprises a base and a hollow body extending vertically from the base , said body comprising an end edge which is to come in contact with the end edge of the body of the other part , wherein each part comprises a flange extending radially, with respect to said main vertical axis (A) of the top head housing , from the end edge of the body , and wherein the two parts are made of metal, characterized in that the two parts are electrically connected by an external U-shaped connector attached to the flanges which overlaps the flanges .
Pesticide composition comprising: i) at least one pesticide compound, ii) at least one microfibrillated cellulose and iii.) at least one surfactant, wherein the raw material for the at least one microfibrillated cellulose is not cellulose of bacterial origin, and wherein the amount of the at least one microfibrillated cellulose in the composition is 0.001 to 0.1% by weight. i) at least one pesticide compound, ii) at least one microfibrillated cellulose and iii.) at least one surfactant,