mhurhangee/ep-ind-claims huggingface dataset:
A charged particle beam irradiation system comprising: a synchrotron for accelerating a charged particle beam; a beam irradiation apparatus having a beam energy modulator and being arranged for irradiating an object with the charged particle beam which has been extracted from said synchrotron and has passed said beam energy modulator, wherein the beam energy modulator is adapted to be rotated and the thickness thereof in the axial direction differs in the rotational direction such as to be determined on the basis of the rotational angle of the beam energy modulator; and a controller configured for controlling the extraction intensity of the charged particle beam extracted from the synchrotron on the basis of the thickness of the beam energy modulator in the axial direction, while the charged particle beam is being extracted, and wherein the shape of the beam energy modulator is optimized for a charged particle beam of a predetermined first energy; characterized in that the controller is adapted to control the extraction intensity of a charged particle beam of a second energy lower than the predetermined first energy such as to reduce the extraction intensity whenever the charged particle beam passes the beam energy modulator in sections of smaller or zero thickness, as compared to in sections of larger thickness. a synchrotron for accelerating a charged particle beam; a beam irradiation apparatus having a beam energy modulator and being arranged for irradiating an object with the charged particle beam which has been extracted from said synchrotron and has passed said beam energy modulator, wherein the beam energy modulator is adapted to be rotated and the thickness thereof in the axial direction differs in the rotational direction such as to be determined on the basis of the rotational angle of the beam energy modulator; and a controller configured for controlling the extraction intensity of the charged particle beam extracted from the synchrotron on the basis of the thickness of the beam energy modulator in the axial direction, while the charged particle beam is being extracted, and wherein the shape of the beam energy modulator is optimized for a charged particle beam of a predetermined first energy;
An optical fiber comprising an optical core surrounded by an outer optical cladding said optical core comprising from the center to the periphery a central core and a depressed inner cladding, - said central core having a radius r 1, and a refractive index difference Δn 1 with respect to the outer optical cladding, wherein the radius r 1 of the central core is comprised between 3.8 and 7 μm, - said depressed inner cladding comprising at least a first and a second portion, - said first portion is adjacent to the central core and has a radius r 2, and a refractive index difference Δn 2 with respect to the outer optical cladding that is negative wherein the ratio r 2 /r 1 is comprised between 1.5 and 3.5, the refractive index difference Δn 1 -Δn 2 between the central core and the first portion of the depressed inner cladding is comprised between 3.9×10 -3 and 6.2x10 -3, and the refractive index difference Δn 2 is comprised between -7×10 -3 and -2×10 -3, - said second portion is adjacent to the first portion and has a radius r 3, r 3 being not larger than 19.94 μm and a refractive index difference Δn 3 with respect to the outer optical cladding that is negative, wherein the refractive index difference Δn 3 is more negative than the refractive index difference Δn 2 and is comprised between -16×10 -3 and -7×10 -3, wherein the depressed inner cladding comprises a third portion located between the second portion and the outer optical cladding, said third portion having a radius r 4 and a refractive index difference Δn 4 with respect to the outer optical cladding wherein the refractive index difference Δn 4 is less negative than the refractive index difference Δn 3 of the second portion, wherein the outer radius of the depressed inner cladding, which corresponds to the radius r 4 of the third portion, is between 28 and 40 μm, wherein the LP01 mode leakage losses at a wavelength of 1550 nm are less than 0.01 dB/km, and wherein the cable cut-off wavelength is less than 1530 nm. - said central core having a radius r 1, and a refractive index difference Δn 1 with respect to the outer optical cladding, wherein the radius r 1 of the central core is comprised between 3.8 and 7 μm, - said depressed inner cladding comprising at least a first and a second portion, - said first portion is adjacent to the central core and has a radius r 2, and a refractive index difference Δn 2 with respect to the outer optical cladding that is negative wherein the ratio r 2 /r 1 is comprised between 1.5 and 3.5, the refractive index difference Δn 1 -Δn 2 between the central core and the first portion of the depressed inner cladding is comprised between 3.9×10 -3 and 6.2x10 -3, and the refractive index difference Δn 2 is comprised between -7×10 -3 and -2×10 -3, - said second portion is adjacent to the first portion and has a radius r 3, r 3 being not larger than 19.94 μm and a refractive index difference Δn 3 with respect to the outer optical cladding that is negative,
A vehicle comprising: an internal combustion engine; a first rotating electric machine (MG1; MG) starting said internal combustion engine; a power control unit for operating said first rotating electric machine; and a battery for supplying electric power to said power control unit; characterized by a control device controlling said power control unit such that a voltage of said battery does not fall below a management lower-limit voltage, wherein when in HV running mode a change condition including a condition that said internal combustion engine is being operated is met, said control device setting said management lower-limit voltage at a value lower than while said internal combustion engine is at a stop in the HV running mode, but cranking by said first rotating electric machine (MG1; MG) may occur in order to start said internal combustion engine, said change condition further includes a condition that a magnitude of voltage change of said battery is less than or equal to a first threshold value in addition to the condition that said internal combustion engine is being operated, and said change condition further includes a condition that the voltage of said battery is higher than a second threshold value in addition to the conditions that said internal combustion engine is being operated and the magnitude of voltage change of said battery is less than or equal to said first threshold value. an internal combustion engine; a first rotating electric machine (MG1; MG) starting said internal combustion engine; a power control unit for operating said first rotating electric machine; and a battery for supplying electric power to said power control unit; characterized by a control device controlling said power control unit such that a voltage of said battery does not fall below a management lower-limit voltage, wherein when in HV running mode a change condition including a condition that said internal combustion engine is being operated is met, said control device setting said management lower-limit voltage at a value lower than while said internal combustion engine is at a stop in the HV running mode, but cranking by said first rotating electric machine (MG1; MG) may occur in order to start said internal combustion engine, said change condition further includes a condition that a magnitude of voltage change of said battery is less than or equal to a first threshold value in addition to the condition that said internal combustion engine is being operated, and said change condition further includes a condition that the voltage of said battery is higher than a second threshold value in addition to the conditions that said internal combustion engine is being operated and the magnitude of voltage change of said battery is less than or equal to said first threshold value.
A supply unit used in a printing device for performing a print process of a viscous fluid on a printing target to supply the viscous fluid in a supply operation direction, the supply unit comprising: an attachment section to and from which a cartridge accommodating the viscous fluid is attachable or detachable; a driving section configured to move the cartridge attached to the attachment section in the supply operation direction, characterized in that the supply unit comprises a restricting wall section configured to cover the cartridge and restrict access of an operator's hands into an inside of the printing device, and the driving section is configured to move the cartridge and the restricting wall section in the supply operation direction. an attachment section to and from which a cartridge accommodating the viscous fluid is attachable or detachable; a driving section configured to move the cartridge attached to the attachment section in the supply operation direction, characterized in that the supply unit comprises a restricting wall section configured to cover the cartridge and restrict access of an operator's hands into an inside of the printing device, and the driving section is configured to move the cartridge and the restricting wall section in the supply operation direction.
Locating device (1, 100) intended to be fixed to a spectacle frame in order to spatially locate said frame, said device (1, 100) having a transverse bar (2, 102), a central extension, two lateral markers and a central marker, each marker (3, 4) consisting of a light area and a darker area, said device comprising at least one mobile fixing member (7, 8) that is able to move along at least one slideway (9, 10) on the bar (2, 102) and two lateral lever arms that are each placed at one end of the bar (2, 102), each of said lever arms being deformable in the plane of the frame so as to adapt to a given frame length, and being nondeformable in a direction perpendicular to said plane, each lever arm having a rounded shape and being mounted so as to pivot on the bar (2, 102), characterized in that each lever arm is mounted rotatably on the bar (2, 102) by way of a connecting segment that can take up two rotational positions, and in that each rotary segment is designed to remain blocked on the bar (2, 102) in each of said two positions, and by virtue of this positioning flexibility that is made possible both by the elastic deformation of the lever arms and by the possibility of taking up these two distinct positions, the locating device (1, 100) can laterally clamp a wide range of frames of greater or lesser width, and having lenses with variable heights.
A method of coating a can or packaging comprising: a) preparing a latex emulsion by a method comprising: i) mixing in the presence of a base comprising ammonia, dimethylethanolamine, 2-dimethylamino-2-methyl-1 propanol or a mixture thereof, an ethylenically unsaturated monomer component and a stabilizer comprising a strong acid, wherein the strong acid is selected from dodecylbenzene sulfonic acid, dinonylnaphthalene sulfonic acid, dinonylnaphthylenedisulfonic acid, bis(2-ethylhexyl)sulfosuccinic acid and mixtures thereof, in a carrier to form a monomer emulsion; and ii) reacting the monomer emulsion with an initiator to form the latex emulsion; b) reacting the latex emulsion with a neutralizer to form a coating composition; and c) applying the coating composition to the can or packaging. a) preparing a latex emulsion by a method comprising: i) mixing in the presence of a base comprising ammonia, dimethylethanolamine, 2-dimethylamino-2-methyl-1 propanol or a mixture thereof, an ethylenically unsaturated monomer component and a stabilizer comprising a strong acid, wherein the strong acid is selected from dodecylbenzene sulfonic acid, dinonylnaphthalene sulfonic acid, dinonylnaphthylenedisulfonic acid, bis(2-ethylhexyl)sulfosuccinic acid and mixtures thereof, in a carrier to form a monomer emulsion; and ii) reacting the monomer emulsion with an initiator to form the latex emulsion; i) mixing in the presence of a base comprising ammonia, dimethylethanolamine, 2-dimethylamino-2-methyl-1 propanol or a mixture thereof, an ethylenically unsaturated monomer component and a stabilizer comprising a strong acid, wherein the strong acid is selected from dodecylbenzene sulfonic acid, dinonylnaphthalene sulfonic acid, dinonylnaphthylenedisulfonic acid, bis(2-ethylhexyl)sulfosuccinic acid and mixtures thereof, in a carrier to form a monomer emulsion; and ii) reacting the monomer emulsion with an initiator to form the latex emulsion; b) reacting the latex emulsion with a neutralizer to form a coating composition; and c) applying the coating composition to the can or packaging.
An apparatus for remotely determining acupuncture point, wherein the apparatus comprises a first controller, an image acquisition module, a first image transport module and a positioning mark generation module, the image acquisition module used for taking a target image of a part of the body of a target person on which the acupuncture point is required to be determined; the first image transport module used for transmitting the target image to a remote device and receiving the target image marked with a first mark from the remote device; the first image transport module further used for transmitting the received target image marked with a first mark to the first controller; the first controller is configured to determine a position coordinate of the acupuncture point according to the target image marked with the first mark, and is configured to control the positioning mark generation module to generate a second mark at the position coordinate of the acupuncture point according to the position coordinate, wherein the position coordinate of the acupuncture point is a three-dimensional coordinate, and the first controller comprises a control unit and a three-dimensional coordinate conversion unit, wherein the control unit is configured to control the three-dimensional coordinate conversion unit to convert a two-dimensional coordinate of the first mark in the target image marked with the first mark to the three-dimensional coordinate within a space in which the target person is located, wherein the image acquisition module is configured to further take in real time a reference image of the part of the body of the target person on which the acupuncture point is required to be determined, the first controller further comprises a deciding unit, wherein the deciding unit is used for deciding whether the reference image is consistent with the target image and sending a signal indicating consistency to the controller unit when the reference image and the target image are consistent, the controller unit, after receiving the signal indicating consistency, is configured to send a signal indicating start of conversion to the three-dimensional coordinate conversion unit, and the three-dimensional coordinate conversion unit is configured to convert the two-dimensional coordinate of the first mark to the three-dimensional coordinate after receiving the signal indicating start of conversion.
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.
A cochlear lead comprising: a plurality of electrodes (465, 470) configured to stimulate an auditory nerve from within a cochlea; a plurality of wires and a flexible body encapsulating the plurality of wires characterised in that the cochlear lead further comprises an integrated wire carrier which is separate from the plurality of electrodes and which has a cavity along its longitudinal axis configured to contain the plurality of wires and shape the plurality of wires into a wire bundle; wherein the plurality of wires is configured to connect the plurality of electrodes (465, 470) to an internal processor; and the flexible body encapsulates the integrated wire carrier. a plurality of electrodes (465, 470) configured to stimulate an auditory nerve from within a cochlea; a plurality of wires and a flexible body encapsulating the plurality of wires characterised in that the cochlear lead further comprises an integrated wire carrier which is separate from the plurality of electrodes and which has a cavity along its longitudinal axis configured to contain the plurality of wires and shape the plurality of wires into a wire bundle; wherein the plurality of wires is configured to connect the plurality of electrodes (465, 470) to an internal processor; and the flexible body encapsulates the integrated wire carrier.
A method for mixing liquids using an automated liquid handling system, the method comprising: aspirating liquid volumes of a first liquid and a second liquid from alternating ones of a first liquid supply and a second liquid supply into a mixing volume such that the aspirated liquid volumes form a liquid stack including a series of alternating, interfacing layers of the first and second liquids (C1, C2) in the mixing volume; permitting the interfacing layers of the first and second liquids (C1, C2) to mix with one another by diffusion in the mixing volume to form a mixture liquid; and dispensing the mixture liquid from the mixing volume. aspirating liquid volumes of a first liquid and a second liquid from alternating ones of a first liquid supply and a second liquid supply into a mixing volume such that the aspirated liquid volumes form a liquid stack including a series of alternating, interfacing layers of the first and second liquids (C1, C2) in the mixing volume; permitting the interfacing layers of the first and second liquids (C1, C2) to mix with one another by diffusion in the mixing volume to form a mixture liquid; and dispensing the mixture liquid from the mixing volume.
A fill level measuring system configured for capturing a topology of a filling material surface, comprising: a first fill level measuring device which is designed as a master device; a second fill level measuring device (102, 103) which is designed as a slave device and is to be connected to the master device at a spatial distance from the master device, wherein the slave device (102, 103) is designed for capturing an echo curve, from which the distance between the slave device and the filling material surface is determinable; and wherein the slave device is designed for transmitting the echo curve or data derived therefrom by the slave device to the master device; wherein the master device is designed for transmitting control signals to the slave device for controlling the slave device; wherein the master device is designed for capturing an echo curve from which the distance between the master device and the filling material surface can be determined; wherein the master device is designed for calculating the topology of the filling material surface from the echo curves transmitted from all slave devices (102, 103) to the master device, or the data derived therefrom by all slave devices and subsequently transmitted to the master device, as well as from its own captured echo curve. a first fill level measuring device which is designed as a master device; a second fill level measuring device (102, 103) which is designed as a slave device and is to be connected to the master device at a spatial distance from the master device, wherein the slave device (102, 103) is designed for capturing an echo curve, from which the distance between the slave device and the filling material surface is determinable; and wherein the slave device is designed for transmitting the echo curve or data derived therefrom by the slave device to the master device; wherein the master device is designed for transmitting control signals to the slave device for controlling the slave device; wherein the master device is designed for capturing an echo curve from which the distance between the master device and the filling material surface can be determined; wherein the master device is designed for calculating the topology of the filling material surface from the echo curves transmitted from all slave devices (102, 103) to the master device, or the data derived therefrom by all slave devices and subsequently transmitted to the master device, as well as from its own captured echo curve.