mhurhangee/ep-ind-claims huggingface dataset:
A vaccine comprising an ORF2 encoded protein of porcine circo virus 2 of genotype 2b and a pharmaceutically acceptable carrier, for use in a method to protect a pig against an infection with porcine circo virus type 2 of genotype 2d by administering the vaccine to the pig, wherein the vaccine comprises less than 20 μg per dose of the ORF2 encoded protein, the protein being of a porcine circo virus of genotype 2b and wherein the vaccine provides protection against PCV2 of genotype 2d at a level corresponding to the protection conferred when the pig would have been vaccinated with an ORF2 encoded protein of PCV2d.
Machine for making coffee which includes: - a boiler for the water in which a funnel filter configured to contain the coffee is positioned; - a collector connected to the boiler and engageable with said boiler, configured to collect the final drink that comes out of a collection duct; - electrical power supply means; - an element for electric heating of the liquid in the boiler; - air pumping means to vary the pressure inside the boiler by introducing or extracting air; - an electronic control system for the delivery of water and steam from the boiler to the collector through the funnel filter, configured to control and command the air pumping means; characterized in that it also includes: - a valve interposed between the funnel filter and the boiler, which can be closed again so as to prevent communication between the boiler and the funnel filter to allow reaching inside the boiler a pre-established temperature and pressure, before being reopened to connect the boiler and the funnel filter and bring the water and steam from the boiler to the coffee contained in the funnel filter; and - said electronic control system of water and steam delivery from the boiler to the collector through the funnel filter, being further configured to control and command the valve. - a boiler for the water in which a funnel filter configured to contain the coffee is positioned; - a collector connected to the boiler and engageable with said boiler, configured to collect the final drink that comes out of a collection duct; - electrical power supply means; - an element for electric heating of the liquid in the boiler; - air pumping means to vary the pressure inside the boiler by introducing or extracting air; - an electronic control system for the delivery of water and steam from the boiler to the collector through the funnel filter, configured to control and command the air pumping means; - a valve interposed between the funnel filter and the boiler, which can be closed again so as to prevent communication between the boiler and the funnel filter to allow reaching inside the boiler a pre-established temperature and pressure, before being reopened to connect the boiler and the funnel filter and bring the water and steam from the boiler to the coffee contained in the funnel filter; and - said electronic control system of water and steam delivery from the boiler to the collector through the funnel filter, being further configured to control and command the valve.
A connector holder that fixes an optical connector onto a substrate (1, 2) on which an optical input-output terminal has been provided, the optical connector being assembled onto a distal end of an optical fiber whose optical axis direction is different from an optical axis direction of the optical input-output terminal such that the optical fiber and the optical input-output terminal are optically connected, the connector holder comprising a holding portion that houses the optical connector, and a lid portion that is mounted on the holding portion; characterized in that: the lid portion is provided with a lid portion body and a pressing portion that presses the optical connector towards the substrate (1, 2), and the lid portion is mounted on the holding portion such that it can open and close freely; a holder base portion is provided between the substrate (1, 2) and the holding portion, and the optical connector is fixed to the holder base portion; positioning pins or pinholes are formed on the holder base portion, and the optical connector is fixed as a result of the positioning pins being engaged in pinholes or pinholes being engaged in the positioning pins in the optical connector; and a lens is provided in an aperture portion which is formed in the holder base portion, wherein the lens is formed at a position that allows light traveling from the optical fiber towards the optical input-output terminal to pass therethrough, and the aperture portion (51 b) allows light traveling from the optical input-output terminal towards the optical fiber to pass therethrough. the lid portion is provided with a lid portion body and a pressing portion that presses the optical connector towards the substrate (1, 2), and the lid portion is mounted on the holding portion such that it can open and close freely; a holder base portion is provided between the substrate (1, 2) and the holding portion, and the optical connector is fixed to the holder base portion; positioning pins or pinholes are formed on the holder base portion, and the optical connector is fixed as a result of the positioning pins being engaged in pinholes or pinholes being engaged in the positioning pins in the optical connector; and a lens is provided in an aperture portion which is formed in the holder base portion, wherein the lens is formed at a position that allows light traveling from the optical fiber towards the optical input-output terminal to pass therethrough, and the aperture portion (51 b) allows light traveling from the optical input-output terminal towards the optical fiber to pass therethrough.
A method for producing concentrated products selected from concentrated milk, concentrated skimmed milk, concentrated fermented milk, concentrated lactic acid beverage, concentrated whey, concentrated buttermilk using a membrane-concentration method and a freeze-concentration method, said method comprising: (i) a membrane-concentration step in which a fluid to be treated is cooled and a membrane-concentrated fluid is prepared by membrane-concentrating the solid content concentration thereof by more than 1.5 times by using any one of the reverse osmosis membrane, the nano filtration membrane, the ultrafiltration membrane and the precision filtration membrane; (ii) an ice crystal generation step in which said membrane-concentrated fluid is cooled, ice crystals of said membrane-concentrated fluid are generated in said membrane-concentrated fluid, and a mixed fluid to be treated is formed wherein said mixed fluid to be treated is comprised of said ice crystals and a concentrated fluid to be treated produced from said membrane-concentrated fluid by generating said ice crystals in said membrane-concentrated fluid thereby said membrane-concentrated fluid is concentrated; said method being characterized by (iii) an ice crystal separation step in which said mixed fluid is separated by a crystal separation column into said concentrated fluid to be treated and said ice crystals, and said separated concentrated fluid to be treated is retrieved. (i) a membrane-concentration step in which a fluid to be treated is cooled and a membrane-concentrated fluid is prepared by membrane-concentrating the solid content concentration thereof by more than 1.5 times by using any one of the reverse osmosis membrane, the nano filtration membrane, the ultrafiltration membrane and the precision filtration membrane; (ii) an ice crystal generation step in which said membrane-concentrated fluid is cooled, ice crystals of said membrane-concentrated fluid are generated in said membrane-concentrated fluid, and a mixed fluid to be treated is formed wherein said mixed fluid to be treated is comprised of said ice crystals and a concentrated fluid to be treated produced from said membrane-concentrated fluid by generating said ice crystals in said membrane-concentrated fluid thereby said membrane-concentrated fluid is concentrated; said method being characterized by (iii) an ice crystal separation step in which said mixed fluid is separated by a crystal separation column into said concentrated fluid to be treated and said ice crystals, and said separated concentrated fluid to be treated is retrieved.
A multimodal sensor for detecting a temperature or a position on the sensor where a pressure is applied, comprising a plurality of first conductive electrodes that are arranged along a direction parallel with one another and spaced from one another with a certain distance, an insulating layer that is formed on the first conductive electrodes, a plurality of second conductive electrodes that are formed on the other side of the insulating layer than the first electrodes along a direction crossing the direction of the first conductive electrodes and parallel with one another and spaced from one another, a first substrate that is formed on a bottom portion of the first conductive electrodes, a second substrate formed on a top portion of the second conductive electrodes, and a controller configured to apply voltages to the first and second conductive electrodes (100a, 100b) and to detect capacitance formed between the first and second conductive electrodes (100a, 100b) for detecting an external temperature or a position where a pressure is applied in response to a variation of the capacitance, wherein the insulating layer is formed of any one of polydimethylsiloxane (PDMS), polyurethane and polyethylene phthalate, characterized in that the first conductive electrodes and the second conductive electrodes are made of carbon nanotube fibers manufactured by winding a carbon nanotube film by means of a motor.
An exposure apparatus, comprising an exposure unit for exposing a wafer, the exposure unit comprising an illumination system and masks, the illumination system comprising a light-homogenizing unit, wherein the light-homogenizing unit comprises a light-homogenizing quartz rod having a cross section of a regular hexagonal shape, wherein each of the masks has a regular hexagonal shape matching with the cross section of the light-homogenizing quartz rod, the exposure apparatus further comprising a flood exposure unit for performing flood exposure on an exposed wafer, the flood exposure unit comprising: a work piece support for carrying the exposed wafer; a flood exposure source for providing energy for the flood exposure; and a flood exposure control unit for controlling activation or deactivation of the flood exposure source and for controlling a duration of the activation or deactivation of the flood exposure source, characterized in that the flood exposure source is hermetically arranged under the work piece support to prevent external light from penetrating into the flood exposure unit.
System for cleaning a floor - with at least one cleaning robot, - with control means for controlling the cleaning robot and - with communication means (52, 54) for registering at least one environmental event, - wherein the environmental event is an event determined from a database, in particular a weather event, or an event determined by means of sensors characterized in that - the control means adjust the intensity of the use of the cleaning robot for a cleaning of at least one part of the floor depending on the environmental event and - the control means adjust the intensity of the use of the cleaning robot by altering the frequency of the cleaning. - with at least one cleaning robot, - with control means for controlling the cleaning robot and - with communication means (52, 54) for registering at least one environmental event, - wherein the environmental event is an event determined from a database, in particular a weather event, or an event determined by means of sensors characterized in that - the control means adjust the intensity of the use of the cleaning robot for a cleaning of at least one part of the floor depending on the environmental event and - the control means adjust the intensity of the use of the cleaning robot by altering the frequency of the cleaning.
A method for generating a modulation signal, characterised by: determining a quantity, N, of subcarriers that are to be used for transmitting a first resource block and a quantity, M, of resource elements corresponding to each subcarrier of the first resource block, wherein the first resource block comprises the N subcarriers and M multicarrier symbols and can be used to modulate a radio frequency carrier; determining a first resource element sequence, M n p, of M pilot symbols in the first resource block that corresponds to an n th of the N subcarriers, wherein a pilot frequency domain samples sequence, r n p, corresponding to the resource element sequence M n p, comprises a quantity, R n NZ, of non-zero magnitude pilot frequency domain samples, wherein R n NZ is determined based on M and an excess bandwidth, α, of an adjacent subcarrier filter; multiplexing the first resource element sequence M n p with the N - 1 resource element sequences that correspond to the N-1 subcarriers that are not the n th subcarrier, to form the first resource block; and generating a first modulation signal by modulating each of the N subcarriers with a corresponding resource element sequence of the N resource element sequences, which generates N modulated subcarriers, and filtering each of the N modulated subcarriers using a corresponding one of N subcarrier filters, wherein the N subcarrier filters include the adjacent subcarrier filter. determining a quantity, N, of subcarriers that are to be used for transmitting a first resource block and a quantity, M, of resource elements corresponding to each subcarrier of the first resource block, wherein the first resource block comprises the N subcarriers and M multicarrier symbols and can be used to modulate a radio frequency carrier; determining a first resource element sequence, M n p, of M pilot symbols in the first resource block that corresponds to an n th of the N subcarriers, wherein a pilot frequency domain samples sequence, r n p, corresponding to the resource element sequence M n p, comprises a quantity, R n NZ, of non-zero magnitude pilot frequency domain samples, wherein R n NZ is determined based on M and an excess bandwidth, α, of an adjacent subcarrier filter; multiplexing the first resource element sequence M n p with the N - 1 resource element sequences that correspond to the N-1 subcarriers that are not the n th subcarrier, to form the first resource block; and generating a first modulation signal by modulating each of the N subcarriers with a corresponding resource element sequence of the N resource element sequences, which generates N modulated subcarriers, and filtering each of the N modulated subcarriers using a corresponding one of N subcarrier filters, wherein the N subcarrier filters include the adjacent subcarrier filter.
A motorcycle, comprising: a vehicle body frame including a head pipe; a head light unit being disposed forwards of the head pipe; a fuel tank being disposed rearwards of the head pipe and astride the vehicle body frame; an engine being disposed under the fuel tank; and a shroud being attached to the fuel tank, the shroud being disposed laterally outwards of the fuel tank, the shroud having a front end portion, the front end portion being positioned forwards of the fuel tank, wherein the shroud is disposed separately from the head light unit, the shroud includes an inner lateral member and an outer lateral member, the outer lateral member being provided separately from the inner lateral member, the outer lateral member is disposed laterally outwards of the inner lateral member, the inner lateral member and the outer lateral member produce an airflow path therebetween, and the inner lateral member includes an inner lateral member rear portion, the inner lateral member rear portion being disposed rearwards of a rear edge of the outer lateral member in a vehicle side view, characterized in that a portion of the inner lateral member of the shroud is disposed rearward of the engine, and a fin portion (51, 52, 53) for directing an air stream toward the backwards is disposed between the inner lateral member and the outer lateral member. a vehicle body frame including a head pipe; a head light unit being disposed forwards of the head pipe; a fuel tank being disposed rearwards of the head pipe and astride the vehicle body frame; an engine being disposed under the fuel tank; and a shroud being attached to the fuel tank, the shroud being disposed laterally outwards of the fuel tank, the shroud having a front end portion, the front end portion being positioned forwards of the fuel tank, wherein the shroud is disposed separately from the head light unit, the shroud includes an inner lateral member and an outer lateral member, the outer lateral member being provided separately from the inner lateral member, the outer lateral member is disposed laterally outwards of the inner lateral member, the inner lateral member and the outer lateral member produce an airflow path therebetween, and the inner lateral member includes an inner lateral member rear portion, the inner lateral member rear portion being disposed rearwards of a rear edge of the outer lateral member in a vehicle side view, characterized in that a portion of the inner lateral member of the shroud is disposed rearward of the engine, and a fin portion (51, 52, 53) for directing an air stream toward the backwards is disposed between the inner lateral member and the outer lateral member.
System for controlling a tool comprising a controller controlling the operation of a tool and a means for contactless determination of the absolute positions of transponders fixed on said tool and a mobile object on which the tool operates, the mobile object carrying out a path passing through a succession of determined positions in an assembly line, characterised in that the controller authorises the operation of the tool in the assembly line when the transponder of the tool is in a first predefined space detected by said means for determination of the absolute position, this first predefined space being located between a first determined position and a fifth determined position, and when the transponder of the mobile object is also located between a second determined position and a fourth determined position detected by said means for determination of the absolute position, the second determined position and fourth determined position (P2, P4) being framed by the first determined position and fifth determined position (PI, P5), said means for determination communicating to said controller said absolute positions of said transponders fixed on said tool and on said moving object.
A method comprising: generating an address m, 1 ≤ m ≤ N, N being the depth of a memoryless lookup table, from samples of a baseband input signal, u(n-k), of a communication system, wherein k is a counter corresponding to a plurality of taps of an equalizer; retrieving from the memoryless lookup table an entry, F m (|u(n)-k|), in accordance with the address m for each tap of the plurality of taps of the equalizer; multiplying the baseband input signal and the entry from the memoryless lookup table to generate a multiplied signal, x(n-k) = u(n-k) · F m (|u(n-k)|) for each tap of the plurality of taps of the equalizer; pre-equalizing the multiplied signal by multiplying, for each tap of the plurality of taps of the equalizer, the multiplied signal, x(n-k), with an indexed coefficient from the equalizer corresponding to a magnitude of the baseband input signal, W k m (|u(n)|), to generate a pre-equalized signal for each tap of the plurality of taps of the equalizer; summing the pre-equalized signal for each tap of the plurality of taps of the equalizer to generate an output signal, z n = ∑ k = 0 K − 1 W k m u n ⋅ x n − k; and outputting the output signal, z(n), to a power amplifier. generating an address m, 1 ≤ m ≤ N, N being the depth of a memoryless lookup table, from samples of a baseband input signal, u(n-k), of a communication system, wherein k is a counter corresponding to a plurality of taps of an equalizer; retrieving from the memoryless lookup table an entry, F m (|u(n)-k|), in accordance with the address m for each tap of the plurality of taps of the equalizer; multiplying the baseband input signal and the entry from the memoryless lookup table to generate a multiplied signal, x(n-k) = u(n-k) · F m (|u(n-k)|) for each tap of the plurality of taps of the equalizer; pre-equalizing the multiplied signal by multiplying, for each tap of the plurality of taps of the equalizer, the multiplied signal, x(n-k), with an indexed coefficient from the equalizer corresponding to a magnitude of the baseband input signal, W k m (|u(n)|), to generate a pre-equalized signal for each tap of the plurality of taps of the equalizer; summing the pre-equalized signal for each tap of the plurality of taps of the equalizer to generate an output signal, z n = ∑ k = 0 K − 1 W k m u n ⋅ x n − k; and outputting the output signal, z(n), to a power amplifier.
A Rho-associated protein kinase ("ROCK") inhibitor for use in a method of treating a tumor in a subject, said method comprising: administering to a subject having a tumor comprising a p53 DNA contact mutation a ROCK inhibitor, wherein the tumor shows constitutive activation of TEAD/YAP transcription; and wherein the ROCK inhibitor is capable of inhibiting TEAD/YAP dependent transcription and treats the tumor in the subject. administering to a subject having a tumor comprising a p53 DNA contact mutation a ROCK inhibitor, wherein the tumor shows constitutive activation of TEAD/YAP transcription; and wherein the ROCK inhibitor is capable of inhibiting TEAD/YAP dependent transcription and treats the tumor in the subject.
Front end device for a vehicle, comprising - a steering shaft,, that can be connected to a steering column of the chassis of the vehicle in a connection that comprises a degree of freedom in rotation, - an upper fork crown connected to said steering shaft, - a lower fork crown connected to said steering shaft, - at least one upper fork arm (6a, 6b), fixed to the upper and lower fork crowns, - at least one lower fork crown (7a, 7b), connected to the at least one upper fork arm by means of a connection of the deformable parallelogram type, using at least one upper middle arm and at least one lower middle arm (9a, 9b), which are articulated at their two ends to the said at least one upper fork arm and at least one lower fork arm respectively, - a single steered front wheel, mounted so that it can rotate on the said at least one lower fork arm (7a, 7b), - suspension means providing a damped elastic connection between the said at least one lower fork arm (7a, 7b) and the at least one upper fork arm (6a, 6b), - the said at least one articulated upper and lower middle arms being positioned below the lower fork crown, characterised in that the said at least one articulated upper middle arm and lower middle arm (9a, 9b) extend forward of the upper fork arm (6a, 6b). - a steering shaft,, that can be connected to a steering column of the chassis of the vehicle in a connection that comprises a degree of freedom in rotation, - an upper fork crown connected to said steering shaft, - a lower fork crown connected to said steering shaft, - at least one upper fork arm (6a, 6b), fixed to the upper and lower fork crowns, - at least one lower fork crown (7a, 7b), connected to the at least one upper fork arm by means of a connection of the deformable parallelogram type, using at least one upper middle arm and at least one lower middle arm (9a, 9b), which are articulated at their two ends to the said at least one upper fork arm and at least one lower fork arm respectively, - a single steered front wheel, mounted so that it can rotate on the said at least one lower fork arm (7a, 7b), - suspension means providing a damped elastic connection between the said at least one lower fork arm (7a, 7b) and the at least one upper fork arm (6a, 6b), - the said at least one articulated upper and lower middle arms being positioned below the lower fork crown, characterised in that the said at least one articulated upper middle arm and lower middle arm (9a, 9b) extend forward of the upper fork arm (6a, 6b).