mhurhangee/ep-ind-claims huggingface dataset:
A hadron therapy installation, comprising: - a support structure capable of rotating about an axis of rotation, - an irradiation unit supported by said support structure, so as to be able to rotate around a target volume centered on said axis of rotation, to deliver a treatment beam from different angles onto said target volume; - an imaging device (3, 4) movable between a retracted position and a deployed position; wherein said imaging device (3, 4) comprises a first driving means for a first piece of equipment of said imaging device (3, 4), said first driving means comprising: - a first arm supporting said first piece of equipment; - a cradle supporting said first arm, said first arm being connected to said cradle by means of an articulation; and - a guide device arranged alongside said irradiation unit and movable in rotation with the latter, so as to be able to guide said cradle in translation along said irradiation unit, in a direction essentially parallel to the direction of said treatment beam, to move said first piece of equipment from said retracted position, in which it is located laterally of said irradiation unit, into said deployed position, in which it is located laterally of said target volume; and - a pivoting device to pivot said first arm about said articulation, so as to cause said first equipment to move laterally away from said target volume, when said first piece of imaging equipment tends toward said deployed position. - a support structure capable of rotating about an axis of rotation, - an irradiation unit supported by said support structure, so as to be able to rotate around a target volume centered on said axis of rotation, to deliver a treatment beam from different angles onto said target volume; - an imaging device (3, 4) movable between a retracted position and a deployed position; - a first arm supporting said first piece of equipment; - a cradle supporting said first arm, said first arm being connected to said cradle by means of an articulation; and - a guide device arranged alongside said irradiation unit and movable in rotation with the latter, so as to be able to guide said cradle in translation along said irradiation unit, in a direction essentially parallel to the direction of said treatment beam, to move said first piece of equipment from said retracted position, in which it is located laterally of said irradiation unit, into said deployed position, in which it is located laterally of said target volume; and - a pivoting device to pivot said first arm about said articulation, so as to cause said first equipment to move laterally away from said target volume, when said first piece of imaging equipment tends toward said deployed position.
A method for preparing ammonia gas through a reaction between an ammonium salt and a silicate, comprising preparing ammonia gas through a reaction between an ammonium salt aqueous solution and a silicate in a reactor at a high temperature, wherein the temperature of the silicate is 80 to 600 °C, the reactor is a moving bed reactor or a fluidized bed reactor.
A microfluidic device, comprising: a disc-shaped body having a center region, a radius, an outer edge and a central axis, the disc-shaped body being configured for rotating about the central axis and further comprising: a fluid inlet port positioned in the center region of the disc-shaped body; a plurality of flow channels, each flow channel having a flow axis, a plurality of sample compartments in fluidic communication with the flow channel and offset from the flow axis, and an outermost region, wherein the outermost region of the flow channel is the region of the flow channel that is farthest from the center region, and wherein each flow channel is in fluidic communication with the fluid inlet port, and wherein the plurality of flow channels are arranged in parallel and/or are positioned in a radial fashion on the disc-shaped body; a fluid outlet port suitable to let excess liquid escape and in fluidic communication with each flow channel, wherein the distance from the center region to the fluid outlet port is smaller than the distance from the center region to the outermost region of the flow channels; and wherein the centre region is defined by a circle having a radius, and the ratio of the radius of the circle defining the centre region to the radius of the disk-shaped body is from 0.1:1 to 0.8:1; and a common fluid reservoir, wherein the common fluid reservoir is in fluidic communication with the outermost region of each of the flow channels and wherein the common fluid reservoir is in fluidic communication with the fluid outlet port. a fluid inlet port positioned in the center region of the disc-shaped body; a plurality of flow channels, each flow channel having a flow axis, a plurality of sample compartments in fluidic communication with the flow channel and offset from the flow axis, and an outermost region, wherein the outermost region of the flow channel is the region of the flow channel that is farthest from the center region, and wherein each flow channel is in fluidic communication with the fluid inlet port, and wherein the plurality of flow channels are arranged in parallel and/or are positioned in a radial fashion on the disc-shaped body; a fluid outlet port suitable to let excess liquid escape and in fluidic communication with each flow channel, wherein the distance from the center region to the fluid outlet port is smaller than the distance from the center region to the outermost region of the flow channels; and wherein the centre region is defined by a circle having a radius, and the ratio of the radius of the circle defining the centre region to the radius of the disk-shaped body is from 0.1:1 to 0.8:1; and a common fluid reservoir, wherein the common fluid reservoir is in fluidic communication with the outermost region of each of the flow channels and wherein the common fluid reservoir is in fluidic communication with the fluid outlet port.
A method for processing signals in an electronic weighing measuring device, in particular a scale, having a measurement transducer that generates a measurement signal, which corresponds to a force acting on the measurement transducer and which is fed, optionally by way of a pre-processing stage, to a display function (F A), which assigns output values corresponding to the values of the measurement signal, which are then displayed or sent on for further processing, the input range of the display function (F A) including a capture range, so that the values of the measurement signal that lie within the capture range are assigned a common output value (A*) by the display function (F A), characterized in that the position of the capture range within the input range is controlled dependent upon the measurement signal.
Water-guiding household appliance, in particular laundry treatment appliance for washing and/or drying laundry, with a treatment area, a reservoir which is designed to receive a quantity of a treatment agent which suffices for a plurality of treatment processes, and a valve via which the treatment agent can be guided out of the reservoir at least indirectly into the treatment area, wherein the valve has a valve seat body which is designed so as to be at least partially plate-shaped, and an, in particular circular, valve closure body, such that the valve closure body is applied against the valve seat body at least by a closure force and such that a sealing seat is formed between the valve seat body and the valve closure body, characterised in that an actuating body is provided, which, in order to open the sealing seat formed between the valve seat body and the valve closure body, actuates the valve closure body against the closure force and in that the actuating body has an opening via which the treatment agent, when the sealing seat is open, flows out of the reservoir and at least indirectly into the treatment area. wherein the valve has a valve seat body which is designed so as to be at least partially plate-shaped, and an, in particular circular, valve closure body, such that the valve closure body is applied against the valve seat body at least by a closure force and such that a sealing seat is formed between the valve seat body and the valve closure body, characterised in that an actuating body is provided, which, in order to open the sealing seat formed between the valve seat body and the valve closure body, actuates the valve closure body against the closure force and in that the actuating body has an opening via which the treatment agent, when the sealing seat is open, flows out of the reservoir and at least indirectly into the treatment area.
Method for visualizing replacement parts, in particular for visualizing replacement parts of a passenger transport system, comprising: - displaying a list of possible replacement parts on a screen of a processor-controlled mobile device and prompting for selection of a specific replacement part from the displayed list; - downloading 3D data of the specifically selected replacement part from an external server via a network, wherein the 3D data contain spatial information regarding visually discernible properties of the specifically selected replacement part; - displaying a perspective view of the specifically selected replacement part with its visually discernible properties on the screen of the processor-controlled mobile device from an initial viewing angle; - detecting a change in the orientation of the processor-controlled mobile device to an altered orientation, wherein the change in the orientation of the processor-controlled mobile device is detected using signals provided by acceleration sensors in the processor-controlled mobile device; and - displaying a perspective view of the specifically selected replacement part with its visually discernible properties on the screen of the processor-controlled mobile device from an altered viewing angle corresponding to the altered orientation. - displaying a list of possible replacement parts on a screen of a processor-controlled mobile device and prompting for selection of a specific replacement part from the displayed list; - downloading 3D data of the specifically selected replacement part from an external server via a network, wherein the 3D data contain spatial information regarding visually discernible properties of the specifically selected replacement part; - displaying a perspective view of the specifically selected replacement part with its visually discernible properties on the screen of the processor-controlled mobile device from an initial viewing angle; - detecting a change in the orientation of the processor-controlled mobile device to an altered orientation, wherein the change in the orientation of the processor-controlled mobile device is detected using signals provided by acceleration sensors in the processor-controlled mobile device; and - displaying a perspective view of the specifically selected replacement part with its visually discernible properties on the screen of the processor-controlled mobile device from an altered viewing angle corresponding to the altered orientation.
A method for milling structures in a target containing one or more fiducial marks near a region of interest using a focused ion beam system comprising an ion column and a multiplicity of beam-defining apertures, comprising: selecting a first beam-defining aperture to produce an ion beam having a first current; configuring a gun lens in the ion column to a first gun voltage, for focusing ions emitted from an ion source, and a main lens to a first main lens voltage, for focusing the ion beam having the first current onto the target; directing the ion beam having the first current onto the target; scanning the ion beam having the first current across the fiducial marks to form an image using secondary electrons, and using said image to determine the positions of the fiducial marks relative to the axis of the ion column; selecting a second beam-defining aperture to produce an ion beam having a second current, the second current being greater than the first current; directing the ion beam having the second current onto the target; and deflecting the ion beam having the second current in a pre-determined pattern to perform a milling process at the region of interest, the beam deflection taking into account the positions of the fiducial marks relative to the axis of the ion column as determined by the ion beam having the first current; characterized by: directing the ion beam having the second current onto the target without reconfiguring the first gun voltage on the gun lens or the first main lens voltage on the main lens in the ion column to mill the sample. selecting a first beam-defining aperture to produce an ion beam having a first current; configuring a gun lens in the ion column to a first gun voltage, for focusing ions emitted from an ion source, and a main lens to a first main lens voltage, for focusing the ion beam having the first current onto the target; directing the ion beam having the first current onto the target; scanning the ion beam having the first current across the fiducial marks to form an image using secondary electrons, and using said image to determine the positions of the fiducial marks relative to the axis of the ion column; selecting a second beam-defining aperture to produce an ion beam having a second current, the second current being greater than the first current; directing the ion beam having the second current onto the target; and deflecting the ion beam having the second current in a pre-determined pattern to perform a milling process at the region of interest, the beam deflection taking into account the positions of the fiducial marks relative to the axis of the ion column as determined by the ion beam having the first current; directing the ion beam having the second current onto the target without reconfiguring the first gun voltage on the gun lens or the first main lens voltage on the main lens in the ion column to mill the sample.
A transmission line (100; 100a; 100b; 100c; 100d; 100e; 100f; 100g) for radio frequency, RF, signals, wherein said transmission line (100; 100a; 100b; 100c; 100d; 100e; 100f; 100g) comprises a substrate comprising a first dielectric material having a first relative permittivity, and at least one conductor arranged on a first surface of said substrate, wherein at least one edge (122, 124) of said at least one conductor is covered with a second dielectric material having a second relative permittivity, wherein a thickness (Td) of said second dielectric material is smaller than about a thickness (Ts) of said substrate, wherein said second dielectric material is a fluid (146, 156).
A method for manufacturing a piston for a vehicle engine, comprising: a piston assembling step of forming a piston assembly by assembling a first piston part (110, 510, 610, 710, 810), a bonding member and a second piston part (120, 520, 620, 720, 820), wherein the first piston part has two or more bonding surfaces (112, 113, 512, 513, 612, 613, 712, 713, 812, 813) separated from each other and extended in a circumferential direction and a first groove between the first and second bonding surfaces for forming a cooling gallery, and the second piston part has two or more bonding surfaces (122, 123, 522, 523, 622, 623, 722, 723, 822, 823) separated from each other and extended in the circumferential direction and a second groove between the third and fourth bonding surfaces for forming said cooling gallery; a piston diffusion brazing step of diffusion brazing the first piston part, the bonding member and the second piston part under an open atmosphere by heating the formed piston assembly; and a piston cooling step of cooling a piston unit formed by diffusion brazing the first piston part, the bonding member and the second piston part, wherein the piston assembly comprises a locking part (127, 517, 627, 750, 850) for maintaining a position at which the first and second piston parts are assembled, and wherein the method further comprises a locking part removing step of removing the locking part from the cooled piston unit. a piston assembling step of forming a piston assembly by assembling a first piston part (110, 510, 610, 710, 810), a bonding member and a second piston part (120, 520, 620, 720, 820), wherein the first piston part has two or more bonding surfaces (112, 113, 512, 513, 612, 613, 712, 713, 812, 813) separated from each other and extended in a circumferential direction and a first groove between the first and second bonding surfaces for forming a cooling gallery, and the second piston part has two or more bonding surfaces (122, 123, 522, 523, 622, 623, 722, 723, 822, 823) separated from each other and extended in the circumferential direction and a second groove between the third and fourth bonding surfaces for forming said cooling gallery; a piston diffusion brazing step of diffusion brazing the first piston part, the bonding member and the second piston part under an open atmosphere by heating the formed piston assembly; and a piston cooling step of cooling a piston unit formed by diffusion brazing the first piston part, the bonding member and the second piston part, wherein the piston assembly comprises a locking part (127, 517, 627, 750, 850) for maintaining a position at which the first and second piston parts are assembled, and wherein the method further comprises a locking part removing step of removing the locking part from the cooled piston unit.
An iron chelating agent, wherein the chelating agent is a compound represented by the following formula or a salt thereof wherein, ring Z represents an aromatic hydrocarbon ring or an aromatic heterocyclic ring wherein the -OH group and the -R 1 -NR 2 -CHR 3 -COOH group are bonded to carbon atoms of ring Z in the ortho-position; R 1 represents a methylene group; R 2 is a group having chelating ability and is selected from the group consisting of a carboxyalkyl group, a hydroxyalkyl group, a carbamoylalkyl group, a pyridylalkyl group, a pyrazinylalkyl group, a pyrimidinylalkyl group, a pyrrolylalkyl group, an imidazolylalkyl group, a benzoimidazolylalkyl group or a pyrazolylalkyl group; and R 3 is a group having chelating ability and is selected from the group consisting of a hydroxymethyl group, a 1-hydroxyethyl group, a (p-hydroxyphenyl)methyl group, an indolylmethyl group, a carbamoylmethyl group, a 2-carbamoylethyl group, a carboxymethyl group, a 2-carboxyethyl group, a 4-aminobutyl group, a (1H-imidazol-4-yl)methyl group, a 3-guanidinopropyl group, a mercaptomethyl group or a 2-methylthioethyl group; wherein the sum of the coordination of groups represented by R 2 and R 3, when bound to iron, is 2. wherein, ring Z represents an aromatic hydrocarbon ring or an aromatic heterocyclic ring wherein the -OH group and the -R 1 -NR 2 -CHR 3 -COOH group are bonded to carbon atoms of ring Z in the ortho-position; R 1 represents a methylene group; R 2 is a group having chelating ability and is selected from the group consisting of a carboxyalkyl group, a hydroxyalkyl group, a carbamoylalkyl group, a pyridylalkyl group, a pyrazinylalkyl group, a pyrimidinylalkyl group, a pyrrolylalkyl group, an imidazolylalkyl group, a benzoimidazolylalkyl group or a pyrazolylalkyl group; and R 3 is a group having chelating ability and is selected from the group consisting of a hydroxymethyl group, a 1-hydroxyethyl group, a (p-hydroxyphenyl)methyl group, an indolylmethyl group, a carbamoylmethyl group, a 2-carbamoylethyl group, a carboxymethyl group, a 2-carboxyethyl group, a 4-aminobutyl group, a (1H-imidazol-4-yl)methyl group, a 3-guanidinopropyl group, a mercaptomethyl group or a 2-methylthioethyl group;
A method, comprising: in a living organ in which a time-varying ambient pressure varies as a function of time, sensing the time-varying ambient pressure using a pressure sensor, which is fitted in the living organ and which has a capacitance that varies in response to the time-varying ambient pressure, so as to produce a time-varying sensor-output waveform; applying to the pressure sensor, whilst the pressure sensor is measuring the time-varying ambient pressure in the living organ, a calibration voltage that further modifies the capacitance and thus the time-varying sensor-output waveform; processing the time-varying sensor-output waveform so as to isolate and measure a contribution of the calibration voltage to the time-varying sensor-output waveform; and calibrating a dependence of the capacitance on the time-varying ambient pressure using the measured contribution of the calibration voltage; wherein applying the calibration voltage comprises automatically identifying one or more time intervals in which the time-varying sensor-output waveform meets a predefined criterion, and applying the calibration voltage during the identified time intervals. in a living organ in which a time-varying ambient pressure varies as a function of time, sensing the time-varying ambient pressure using a pressure sensor, which is fitted in the living organ and which has a capacitance that varies in response to the time-varying ambient pressure, so as to produce a time-varying sensor-output waveform; applying to the pressure sensor, whilst the pressure sensor is measuring the time-varying ambient pressure in the living organ, a calibration voltage that further modifies the capacitance and thus the time-varying sensor-output waveform; processing the time-varying sensor-output waveform so as to isolate and measure a contribution of the calibration voltage to the time-varying sensor-output waveform; and calibrating a dependence of the capacitance on the time-varying ambient pressure using the measured contribution of the calibration voltage; wherein applying the calibration voltage comprises automatically identifying one or more time intervals in which the time-varying sensor-output waveform meets a predefined criterion, and applying the calibration voltage during the identified time intervals.
Two- or multicomponent system comprising at least one polyester component 1 which comprises i. at least one unsaturated polyester, ii. at least one ethylenically unsaturated monomer, iii. at least one inorganic thickener, and iv. at least one wetting and dispersing agent which inhibits the thickening effect of the inorganic thickener; and at least one initiator component 2 which comprises i. at least one component which is able at least partly to eliminate the inhibition of the thickening effect of the inorganic thickener, and ii. at least one initiator which is able to trigger the polymerization of components i. and ii. of the polyester component 1; and the wetting and dispersing agent being nonreactive toward components i. and ii. of the polyester component 1. i. at least one unsaturated polyester, ii. at least one ethylenically unsaturated monomer, iii. at least one inorganic thickener, and iv. at least one wetting and dispersing agent which inhibits the thickening effect of the inorganic thickener; i. at least one component which is able at least partly to eliminate the inhibition of the thickening effect of the inorganic thickener, and ii. at least one initiator which is able to trigger the polymerization of components i. and ii. of the polyester component 1; and