mhurhangee/ep-ind-claims huggingface dataset:
A spherical aberration correction device for non-descanned detection or detectors, comprising: a scanning microscope, preferably for multi-photon imaging, adapted for non-descanned detection; and an optical system including an enclosure, the enclosure housing a first port, a second port and a moving lens assembly including a moveable lens, wherein the optical system is adapted to select a convergence of illumination light on a back aperture of an objective, wherein, as the light changes from convergent to divergent, a focal point moves further away from the objective or vice versa, such that the convergence of illumination light corrects spherical aberration, wherein the light is collimated and reaches the moveable lens, which is configured to move along its optical axis, such that the position of the focal point along the optical axis of the light can be controlled with motion of the lens, and wherein the optical system is directly attached via the second port to an entrance port of the scanning microscope and the input illumination beam enters the optical system through the first port. a scanning microscope, preferably for multi-photon imaging, adapted for non-descanned detection; and an optical system including an enclosure, the enclosure housing a first port, a second port and a moving lens assembly including a moveable lens, wherein the optical system is adapted to select a convergence of illumination light on a back aperture of an objective, wherein, as the light changes from convergent to divergent, a focal point moves further away from the objective or vice versa, such that the convergence of illumination light corrects spherical aberration, wherein the light is collimated and reaches the moveable lens, which is configured to move along its optical axis, such that the position of the focal point along the optical axis of the light can be controlled with motion of the lens, and wherein the optical system is directly attached via the second port to an entrance port of the scanning microscope and the input illumination beam enters the optical system through the first port.
An antimicrobial solution comprising a glyceryl nitrate in combination with a chelator and/or a C 6-12 alkanoic acid, wherein if the chelator is citrate, citrate comprises 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19 or 20% or any range derivable therein.
Multiple disk brake for a rotatable element, having - a stator, - a number of primary disks, which are connected to the rotatable element for conjoint rotation and are rotatable relative to the stator, - a number of intermediate disks, which are each mounted on the stator between the primary disks fixedly or rotatably to a limited extent, - an application element, which is configured to press the primary disks against the intermediate disks in order to apply the multiple disk brake, characterized by - a restoring unit, which is configured to prestress at least one sensor disk of the intermediate disks mounted rotatably to a limited extent in respect of its rotary movement into an idle position relative to the stator, and - a sensor, which is designed to detect a rotation of the sensor disk from its idle position. - a stator, - a number of primary disks, which are connected to the rotatable element for conjoint rotation and are rotatable relative to the stator, - a number of intermediate disks, which are each mounted on the stator between the primary disks fixedly or rotatably to a limited extent, - an application element, which is configured to press the primary disks against the intermediate disks in order to apply the multiple disk brake, - a restoring unit, which is configured to prestress at least one sensor disk of the intermediate disks mounted rotatably to a limited extent in respect of its rotary movement into an idle position relative to the stator, and - a sensor, which is designed to detect a rotation of the sensor disk from its idle position.
A shift control device for a continuously-variable transmission, the shift control device comprising: operation condition detecting means (9, 10, 11, 12) for detecting operation conditions of a vehicle, including a vehicle speed and an accelerator opening; control means for controlling a transmission ratio of the continuously-variable transmission based on the operation conditions; acceleration demand identifying means for identifying whether acceleration is demanded by a driver; and linear mode setting means for setting a linear mode which provides the transmission ratio such that an input revolution speed of the continuously-variable transmission becomes high compared to a normal mode at a same vehicle speed, when the acceleration demand identifying means identifies that acceleration is demanded by the driver based on the accelerator opening and an accelerator opening speed, wherein the shift control device further comprises: front/rear G detecting means for detecting a front/rear G of the vehicle; and linear mode cancelling means for cancelling the linear mode when the acceleration demand identifying means identifies that acceleration is not demanded based on the fact that the front/rear G is smaller than a G reference value, even when the accelerator opening and the accelerator opening speed satisfy the conditions to carry out the linear mode. operation condition detecting means (9, 10, 11, 12) for detecting operation conditions of a vehicle, including a vehicle speed and an accelerator opening; control means for controlling a transmission ratio of the continuously-variable transmission based on the operation conditions; acceleration demand identifying means for identifying whether acceleration is demanded by a driver; and linear mode setting means for setting a linear mode which provides the transmission ratio such that an input revolution speed of the continuously-variable transmission becomes high compared to a normal mode at a same vehicle speed, when the acceleration demand identifying means identifies that acceleration is demanded by the driver based on the accelerator opening and an accelerator opening speed, wherein the shift control device further comprises: front/rear G detecting means for detecting a front/rear G of the vehicle; and linear mode cancelling means for cancelling the linear mode when the acceleration demand identifying means identifies that acceleration is not demanded based on the fact that the front/rear G is smaller than a G reference value, even when the accelerator opening and the accelerator opening speed satisfy the conditions to carry out the linear mode. front/rear G detecting means for detecting a front/rear G of the vehicle; and linear mode cancelling means for cancelling the linear mode when the acceleration demand identifying means identifies that acceleration is not demanded based on the fact that the front/rear G is smaller than a G reference value, even when the accelerator opening and the accelerator opening speed satisfy the conditions to carry out the linear mode.
An antibody or a synthetic or recombinant fragment thereof able to recognize and bind to an epitope comprised in the sequence from aa. 149 to aa. 161 of SEQ ID No. 1 of VEGFR-1, and not to prevent the binding of VEGF-A or PlGF to VEGFR-1, comprising: - a complementarity determining region 3 of the heavy chain (CDRH3) having the sequence YLGDY (aa. 118-122 of SEQ. ID No. 23), and - a complementarity determining region 2 of the heavy chain (CDRH2) having the sequence EIYPRNGNTNYDEKFKG (aa. 69-85 of SEQ. ID No. 23), and - a complementarity determining region 1 of the heavy chain (CDRH1) having the sequence GYIFTNYWMH (aa. 45-54 of SEQ. ID No. 23), and - a complementarity determining region 3 of the light chain (CDRL3) having the sequence FQGSHVPYT (aa. 113-121 of SEQ. ID No. 25), and - a complementarity determining region 2 of the light chain (CDRL2) having the sequence KVSNRFS (aa. 74-80 of SEQ. ID No. 25), and - a complementarity determining region 1 of the light chain (CDRL1) having the sequence RSSQSIVHSNGNTYLE (aa. 43-58 of SEQ. ID No. 25). - a complementarity determining region 3 of the heavy chain (CDRH3) having the sequence YLGDY (aa. 118-122 of SEQ. ID No. 23), and - a complementarity determining region 2 of the heavy chain (CDRH2) having the sequence EIYPRNGNTNYDEKFKG (aa. 69-85 of SEQ. ID No. 23), and - a complementarity determining region 1 of the heavy chain (CDRH1) having the sequence GYIFTNYWMH (aa. 45-54 of SEQ. ID No. 23), and - a complementarity determining region 3 of the light chain (CDRL3) having the sequence FQGSHVPYT (aa. 113-121 of SEQ. ID No. 25), and - a complementarity determining region 2 of the light chain (CDRL2) having the sequence KVSNRFS (aa. 74-80 of SEQ. ID No. 25), and - a complementarity determining region 1 of the light chain (CDRL1) having the sequence RSSQSIVHSNGNTYLE (aa. 43-58 of SEQ. ID No. 25).
A method of wireless communication operable at a scheduled entity, the method comprising: assigning a priority to each of a plurality of uplink control information, UCI, components, wherein the priority is assigned according to payload size respectively associated with each of the plurality of UCI components, and transmitting the plurality of UCI components based on the priority respectively assigned to each of the plurality of UCI components, including transmitting a first UCI component and a second UCI component in a same slot comprising a long burst and a short burst, the first UCI component being assigned a higher priority than the second UCI component, and wherein more resource elements are assigned for transmitting the first UCI component than for transmitting the second UCI component.
A process for the preparation of a compound of formula and salts thereof; which comprises the reaction of a compound of formula with a compound of formula wherein X is a halogen atom; in the presence of a catalyst, a ligand and a base; wherein said catalyst is a Pd catalyst complex and said ligand is an organophosphoric compound of formula 4,5-Bis-(diphenylphosphino)-9,9-dimethyl-xantene; and provided that the base potassium phosphate in an amount of 3 equivalents being excluded.
A charging assembly, comprising a passenger tray table; a first and second moveable member interconnected to the passenger tray table; a tray electronics card assembly disposed within the tray table and compring a wireless charging device configured to wirelessly charge a personal electronics device when the passenger tray is in a deployed position; characterized in that the tray electronics card assembly is a removably connected tray electronics card assembly; and the wireless charging device is configured to wirelessly charge a personal electronics device when the passenger tray table is in a stowed position and charge the PED when the passenger tray is in a deployed position. a passenger tray table; a first and second moveable member interconnected to the passenger tray table; a tray electronics card assembly disposed within the tray table and compring a wireless charging device configured to wirelessly charge a personal electronics device when the passenger tray is in a deployed position; characterized in that the tray electronics card assembly is a removably connected tray electronics card assembly; and the wireless charging device is configured to wirelessly charge a personal electronics device when the passenger tray table is in a stowed position and charge the PED when the passenger tray is in a deployed position.
Lighting device comprising - a base made out of a heat conducting material, - an LED lighting element (30, 32) arranged at said base, - and a collimator reflector arranged to direct light emitted from said LED lighting element (30, 32), said collimator reflector comprising at least a first reflector surface with at least one straight border line, where said collimator reflector is arranged to reflect light from said LED lighting element (30, 32) such that a cut-off is formed by said border line, - where said first reflector surface is a surface of said base - and where said base comprises a cavity, and said LED lighting element (30, 32) is mounted in said cavity, characterized in that - an insert (60, 60') is at least partly received in said cavity, - and said collimator reflector further comprises at least a second reflective surface (64, 66a, 66b), said second reflective surface (64, 66a, 66b) being a surface of said insert (60, 60'). - a base made out of a heat conducting material, - an LED lighting element (30, 32) arranged at said base, - and a collimator reflector arranged to direct light emitted from said LED lighting element (30, 32), said collimator reflector comprising at least a first reflector surface with at least one straight border line, where said collimator reflector is arranged to reflect light from said LED lighting element (30, 32) such that a cut-off is formed by said border line, - where said first reflector surface is a surface of said base - and where said base comprises a cavity, and said LED lighting element (30, 32) is mounted in said cavity, - an insert (60, 60') is at least partly received in said cavity, - and said collimator reflector further comprises at least a second reflective surface (64, 66a, 66b), said second reflective surface (64, 66a, 66b) being a surface of said insert (60, 60').
A control device for a hybrid vehicle, comprising: a compressor provided for an air-conditioning device and driven by a vehicle drive source, wherein the vehicle drive source includes an engine and a motor; a condenser provided for the air-conditioning device in a front side of the hybrid vehicle; and a controller configured to: determine a request torque to the vehicle drive source as a sum of an air-conditioning load which is spent for driving the compressor and a running torque necessary to drive the hybrid vehicle by a drive wheel; calculate the running torque based on an accelerator manipulation of a driver; and read a range-position signal indicating a selected range position; characterized in that the controller is further configured to correct the request torque at the time of reverse running of the hybrid vehicle to be increased as compared with that at the time of forward running of the hybrid vehicle, by calculating the air-conditioning load in a manner that a value of the air-conditioning load when the air-conditioning device is in operation and the range position is in a Reverse-range is relatively large as compared with a value of the air-conditioning load when the range position is in a Drive-range with respect to an identical refrigerant pressure of the air-conditioning device. a compressor provided for an air-conditioning device and driven by a vehicle drive source, wherein the vehicle drive source includes an engine and a motor; a condenser provided for the air-conditioning device in a front side of the hybrid vehicle; and a controller configured to: determine a request torque to the vehicle drive source as a sum of an air-conditioning load which is spent for driving the compressor and a running torque necessary to drive the hybrid vehicle by a drive wheel; calculate the running torque based on an accelerator manipulation of a driver; and read a range-position signal indicating a selected range position; determine a request torque to the vehicle drive source as a sum of an air-conditioning load which is spent for driving the compressor and a running torque necessary to drive the hybrid vehicle by a drive wheel; calculate the running torque based on an accelerator manipulation of a driver; and read a range-position signal indicating a selected range position; the controller is further configured to correct the request torque at the time of reverse running of the hybrid vehicle to be increased as compared with that at the time of forward running of the hybrid vehicle, by calculating the air-conditioning load in a manner that a value of the air-conditioning load when the air-conditioning device is in operation and the range position is in a Reverse-range is relatively large as compared with a value of the air-conditioning load when the range position is in a Drive-range with respect to an identical refrigerant pressure of the air-conditioning device.
A method of preparing a ligand functional substrate comprising the steps of: a) providing a substrate, b) free-radically grafting the substrate with a guanidinyl-functional (meth)acryloyl monomer of the formula: or wherein R 1 is H or C 1 -C 4 alkyl; R 2 is a (hetero)hydrocarbyl group; each R 3 is independently H or hydrocarbyl; R 4 is H, C 1 -C 12 alkyl or -N(R 3) 2; R 5 is H or hydrocarbyl; X 1 is -O- or -NR 3 -; o is 0 or 1, and n is 1 or 2; using a Type II photoinitiator selected from benzophenone, 4-(3-sulfopropyloxy)benzophenone sodium salt, Michler's ketone, benzil, anthraquinone, 5,12-naphthacenequinone, aceanthracenequinone, benz anthracene-7,12-dione, 1,4-chrysenequinone, 6,13-pentacenequinone, 5,7,12,14-pentacenetetrone, 9-fluorenone, anthrone, xanthone, thioxanthone, 2-(3-sulfopropyloxy)thioxanthen-9-one, acridone, dibenzosuberone, acetophenone, and chromone. a) providing a substrate, b) free-radically grafting the substrate with a guanidinyl-functional (meth)acryloyl monomer of the formula: or wherein R 1 is H or C 1 -C 4 alkyl; R 2 is a (hetero)hydrocarbyl group; each R 3 is independently H or hydrocarbyl; R 4 is H, C 1 -C 12 alkyl or -N(R 3) 2; R 5 is H or hydrocarbyl; X 1 is -O- or -NR 3 -; o is 0 or 1, and n is 1 or 2; using a Type II photoinitiator selected from benzophenone, 4-(3-sulfopropyloxy)benzophenone sodium salt, Michler's ketone, benzil, anthraquinone, 5,12-naphthacenequinone, aceanthracenequinone, benz anthracene-7,12-dione, 1,4-chrysenequinone, 6,13-pentacenequinone, 5,7,12,14-pentacenetetrone, 9-fluorenone, anthrone, xanthone, thioxanthone, 2-(3-sulfopropyloxy)thioxanthen-9-one, acridone, dibenzosuberone, acetophenone, and chromone. R 1 is H or C 1 -C 4 alkyl; R 2 is a (hetero)hydrocarbyl group; each R 3 is independently H or hydrocarbyl; R 4 is H, C 1 -C 12 alkyl or -N(R 3) 2; R 5 is H or hydrocarbyl; X 1 is -O- or -NR 3 -; o is 0 or 1, and n is 1 or 2;
A method for controlling total average transmission power of a radio base station, the method being performed by a control device, the method comprising: performing, for a current discrete time value t, control of total average transmission power 〈 P tot 〉( t) of the radio base station according to a back-off power control loop, wherein the total average transmission power 〈 P tot 〉( t) is computed over an averaging time window T of the present value of momentary transmission power and the N - 1 values of momentary transmission power preceding the present value of momentary transmission power; evaluating, for a future discrete time value less than, or equal to, t + T, the total average transmission power, setting that values of momentary transmission power for all discrete time values from t up to t + T, starting at the future discrete time value t + 1, is limited to a minimum value of said momentary transmission power; and limiting the momentary transmission power to the minimum value for at least the next future discrete time value when the evaluated total average transmission power, for any of the future discrete time values, exceeds a power threshold value based on a regulatory limit. performing, for a current discrete time value t, control of total average transmission power 〈 P tot 〉( t) of the radio base station according to a back-off power control loop, wherein the total average transmission power 〈 P tot 〉( t) is computed over an averaging time window T of the present value of momentary transmission power and the N - 1 values of momentary transmission power preceding the present value of momentary transmission power; evaluating, for a future discrete time value less than, or equal to, t + T, the total average transmission power, setting that values of momentary transmission power for all discrete time values from t up to t + T, starting at the future discrete time value t + 1, is limited to a minimum value of said momentary transmission power; and limiting the momentary transmission power to the minimum value for at least the next future discrete time value when the evaluated total average transmission power, for any of the future discrete time values, exceeds a power threshold value based on a regulatory limit.
A modulation method for an envelope tracking power supply, wherein an output of a multi-level switch regulator in the envelope tracking power supply is connected in parallel with an output of a linear regulator through an inductor, the method comprising: generating a first control signal according to a current signal obtained from a first reference level signal which is an input envelope signal, wherein the first control signal controls a change trend of an output current of the multi-level switch regulator; comparing of a second reference level signal (206, 2061) obtained from the first reference level signal with at least three grades of levels (602, 603, 604), selecting an upper grade level and a lower grade level which is one grade below the upper grade level, outputting either the selected upper grade level or the selected lower grade level as a second control signal based on the level of the first control signal; outputting, by the multi-level switch regulator, a voltage level signal according to the second control signal, and applying the level to the inductor to output an inductive current; and linearly adjusting, by the linear regulator, the first reference level signal to obtain a voltage output of the power supply to be applied to a load. generating a first control signal according to a current signal obtained from a first reference level signal which is an input envelope signal, wherein the first control signal controls a change trend of an output current of the multi-level switch regulator; comparing of a second reference level signal (206, 2061) obtained from the first reference level signal with at least three grades of levels (602, 603, 604), selecting an upper grade level and a lower grade level which is one grade below the upper grade level, outputting either the selected upper grade level or the selected lower grade level as a second control signal based on the level of the first control signal; outputting, by the multi-level switch regulator, a voltage level signal according to the second control signal, and applying the level to the inductor to output an inductive current; and linearly adjusting, by the linear regulator, the first reference level signal to obtain a voltage output of the power supply to be applied to a load.
Syringe for medical applications with a hollow cylindrical syringe body extending along an axial axis, at the distal end of which a hollow cylindrical end piece is formed which has a passage channel, wherein the syringe body comprises a storage area for a medium intended for administration, wherein in a rest state, the storage area is spaced from the passage channel of the hollow cylindrical end piece along the axial axis by a distal spacing area and a first plug separates the storage area from the distal spacing area, wherein, in a dispensing state, a fluidic connection for the medium between the storage area and the passage channel can be opened via a bypass channel by displacing the first plug into the distal spacing area, wherein an axial length of the bypass channel extends at least over an axial length of the distal spacing area, characterized in that in a rest state before use of the syringe the storage area is filled with the medium intended for administration and no medium intended for administration is present in the distal spacing area.