mhurhangee/ep-ind-claims huggingface dataset:
A neutron capture therapy system, comprising a neutron generating device and a beam shaping assembly, wherein the neutron generating device comprises an accelerator and a target, a charged particle beam generated through acceleration by the accelerator interacts with the target to generate neutrons, the neutrons form a neutron beam, and the neutron beam defines a main axis, wherein the beam shaping assembly comprises a moderator, a reflector, and a radiation shield, the moderator decelerates the neutrons generated from the target to an epithermal neutron energy region, the reflector surrounds the moderator and guides neutrons deviating from the main axis back to the main axis, to improve intensity of an epithermal neutron beam, and the radiation shield is used for shielding leaking neutrons and photons, to reduce a dose of a normal tissue not exposed to irradiation; and the beam shaping assembly further comprises a frame accommodating the moderator; characterized in that the moderator is adjustable, and the frame comprises a positioning member and a stopping member for fixing the moderator.
An indoor unit of an air conditioner comprising: a heat exchanger (10,20,30) for exchanging heat; a cartridge (21,31) combined to at a front of the heat exchanger (10,20,30); an air-cleaning means (24,34) detachably received by the cartridge (21,31), characterized in that the indoor unit further comprises a porous material (11,25,35) formed on one side of the heat exchanger in order to improve a heat-exchanging performance, wherein the cartridge (21,31) receives the porous material (11,25,35), and wherein the air-cleaning means (24,34) are formed at a front of the porous material (25,35) on the basis of an air flowing direction. a heat exchanger (10,20,30) for exchanging heat; a cartridge (21,31) combined to at a front of the heat exchanger (10,20,30); an air-cleaning means (24,34) detachably received by the cartridge (21,31), characterized in that the indoor unit further comprises a porous material (11,25,35) formed on one side of the heat exchanger in order to improve a heat-exchanging performance, wherein the cartridge (21,31) receives the porous material (11,25,35), and wherein the air-cleaning means (24,34) are formed at a front of the porous material (25,35) on the basis of an air flowing direction.
Process for the fractionation of seeds of oleaginous plants of the Asteraceae family in oil, solid residue and active substances comprising the steps of: (a) subjecting said seeds to at least one mechanical pressing operation, removing at least a portion of the oil and obtaining a first residue; (b) subjecting said first residue to extraction with a polar organic solvent and separating the remaining solid residue from the resulting liquid phase comprising oil and extracted active substances; (c) separating the active substances and oil from said liquid phase of step b), wherein the extraction of step b) is performed at temperatures above ambient temperature and below or equal to the boiling point of the solvent and wherein the weight ratio between the polar organic solvent and the first residue is of between 1:1 and 4:1. (a) subjecting said seeds to at least one mechanical pressing operation, removing at least a portion of the oil and obtaining a first residue; (b) subjecting said first residue to extraction with a polar organic solvent and separating the remaining solid residue from the resulting liquid phase comprising oil and extracted active substances; (c) separating the active substances and oil from said liquid phase of step b),
Method for the preparation of titanium dioxide particles in a cylindrical tubular reactor by reaction of titanium tetrachloride and an axially introduced, oxygen-containing gas and cooling of the particles in a subsequent reactor cooling section with the addition of scrub solids, characterized in that the titanium tetrachloride is introduced into the tubular reactor in the cross-sectional plane of the tubular reactor, but deviating from the radial direction, and that the flow velocity of the oxygen-containing gas is more than 20 m/s, in particular at least 40 m/s.
A method for determining the quantity of alkali metal or alkaline earth metal present in a material (7; 23) comprising the following steps: a) a step of quantitative reaction of the alkali metal or alkaline earth metal by contacting the latter with a liquid medium comprising a reagent carrying at least one -OH function, whereby dihydrogen and an alkali or alkaline earth metal hydroxide or oxide are formed; b) a step of collecting the quantity of dihydrogen emitted during step a); c) a step of determining the quantity of alkali metal or alkaline earth metal from the quantity of dihydrogen collected during step b). a) a step of quantitative reaction of the alkali metal or alkaline earth metal by contacting the latter with a liquid medium comprising a reagent carrying at least one -OH function, whereby dihydrogen and an alkali or alkaline earth metal hydroxide or oxide are formed; b) a step of collecting the quantity of dihydrogen emitted during step a); c) a step of determining the quantity of alkali metal or alkaline earth metal from the quantity of dihydrogen collected during step b).
A method for adjusting a phase step size of a clock data recovery, CDR, circuit (110, 410), comprising: sensing a frequency offset of the CDR circuit; comparing the sensed frequency offset with a threshold; generating an input signal based on the comparison; modulating the input signal with a modulator to generate a control signal; and adjusting the phase step size of the CDR circuit based on the control signal. sensing a frequency offset of the CDR circuit; comparing the sensed frequency offset with a threshold; generating an input signal based on the comparison; modulating the input signal with a modulator to generate a control signal; and adjusting the phase step size of the CDR circuit based on the control signal.
A method for three-dimensional printing, comprising: obtaining a native file of a computer-aided design application; identifying, within the native file, a first 3D shape associated with a 3D infill pattern; generating a slicer description language file comprising: a first section specifying the 3D infill pattern; and a second section (116A, 116B) comprising instructions, the instructions including a reference to the first section to print the first 3D shape filled with multiple instances of the 3D infill pattern, wherein the first section and the second section (116A, 116B) are specified independently in the slicer description language file; and sending the slicer description language file to a 3D printer for printing the first 3D shape filled with the 3D infill pattern. obtaining a native file of a computer-aided design application; identifying, within the native file, a first 3D shape associated with a 3D infill pattern; generating a slicer description language file comprising: a first section specifying the 3D infill pattern; and a second section (116A, 116B) comprising instructions, the instructions including a reference to the first section to print the first 3D shape filled with multiple instances of the 3D infill pattern, wherein the first section and the second section (116A, 116B) are specified independently in the slicer description language file; and a first section specifying the 3D infill pattern; and a second section (116A, 116B) comprising instructions, the instructions including a reference to the first section to print the first 3D shape filled with multiple instances of the 3D infill pattern, wherein the first section and the second section (116A, 116B) are specified independently in the slicer description language file; and sending the slicer description language file to a 3D printer for printing the first 3D shape filled with the 3D infill pattern.
A computer-implemented method for determining a position of an X-ray emitter of a mobile X-ray device, comprising: - receiving (i) a camera-acquired image originating from a camera that monitors a patient in an X-ray imaging session, wherein the camera is registered to an origin of the X-ray emitter, (ii) a reference X-ray image of an internal body structure to be examined in the X-ray examination, and (iii) position information of an X-ray detector; - detecting and localizing a plurality of anatomical landmarks in the camera-acquired image; - determining a distance from the X-ray emitter to the patient based on the camera-acquired image; characterised in that - generating a virtual X-ray image of the internal body structure based on the plurality of detected anatomical landmarks, the distance from the X-ray emitter to the patient, and the position information of the X-ray detector; - producing a pseudo density image of the patient based on the plurality of detected anatomical landmarks; and - projecting the pseudo density image of the patient to the X-ray detector based on a camera position of the camera, the distance from the X-ray emitter to the patient, and position information of the X-ray detector using a cone-beam projection to obtain the virtual X-ray image of the internal body structure, - registering the virtual X-ray image of the internal body structure with the reference X-ray image of the internal body structure; and - determining at least one parameter to adjust the position of the X-ray emitter based on a result of registration. - receiving (i) a camera-acquired image originating from a camera that monitors a patient in an X-ray imaging session, wherein the camera is registered to an origin of the X-ray emitter, (ii) a reference X-ray image of an internal body structure to be examined in the X-ray examination, and (iii) position information of an X-ray detector; - detecting and localizing a plurality of anatomical landmarks in the camera-acquired image; - determining a distance from the X-ray emitter to the patient based on the camera-acquired image; characterised in that - generating a virtual X-ray image of the internal body structure based on the plurality of detected anatomical landmarks, the distance from the X-ray emitter to the patient, and the position information of the X-ray detector; - producing a pseudo density image of the patient based on the plurality of detected anatomical landmarks; and - projecting the pseudo density image of the patient to the X-ray detector based on a camera position of the camera, the distance from the X-ray emitter to the patient, and position information of the X-ray detector using a cone-beam projection to obtain the virtual X-ray image of the internal body structure, - registering the virtual X-ray image of the internal body structure with the reference X-ray image of the internal body structure; and - determining at least one parameter to adjust the position of the X-ray emitter based on a result of registration.
An overcoatable primer coating composition comprising (i) a solvent-borne epoxy functional acrylic binder formed from glycidyl methacrylate and at least one further ethylenically unsaturated monomer; (ii) a crosslinker comprising a polyamine; and (iii) a further binder comprising an epoxy functional binder. (i) a solvent-borne epoxy functional acrylic binder formed from glycidyl methacrylate and at least one further ethylenically unsaturated monomer; (ii) a crosslinker comprising a polyamine; and (iii) a further binder comprising an epoxy functional binder.
A total heat exchanging element paper which comprises a paper containing natural pulp beaten to a Canadian modification freeness of not more than 150 ml, wherein the Canadian modification freeness is the value obtained by carrying out a measurement in accordance with Canadian standard freeness testing method of JIS P8121, except that 0.5 g of a pulp in absolute dry weight is used and a plain weave bronze wire of 80 mesh is used as a sieve, which additionally contains a moisture absorbing agent and has a density of not less than 0.9 g/cm 3.
A method for stabilizing a freeze dried bacterial extract for cell free protein synthesis, the method comprises: i. combining a bacterial extract comprising lysed bacterial components, wherein the extract is able to synthesize a target protein from a template nucleic acid encoding the target protein in cell free protein synthesis, and a carbohydrate composition, wherein the carbohydrate composition constitutes 20-100% (% of the total carbohydrate composition) sucrose and 0-80% (% of the total carbohydrate composition) non-sucrose carbohydrate comprising mannitol, sorbitol, dextran, or mixtures thereof to yield a mixture; and ii. freeze-drying the mixture to produce the stable, freeze dried bacterial extract having an 0.6-2:1 (w/w) ratio of carbohydrate to dried bacterial components. i. combining a bacterial extract comprising lysed bacterial components, wherein the extract is able to synthesize a target protein from a template nucleic acid encoding the target protein in cell free protein synthesis, and a carbohydrate composition, wherein the carbohydrate composition constitutes 20-100% (% of the total carbohydrate composition) sucrose and 0-80% (% of the total carbohydrate composition) non-sucrose carbohydrate comprising mannitol, sorbitol, dextran, or mixtures thereof to yield a mixture; and ii. freeze-drying the mixture to produce the stable, freeze dried bacterial extract having an 0.6-2:1 (w/w) ratio of carbohydrate to dried bacterial components.
A method for producing a component connection, characterised by the following steps: - providing a first component, - providing a first sphere, - pressing the first sphere against the first component by means of a sonotrode, - causing the first sphere to vibrate by means of the sonotrode, such that material of the first sphere and/or material of the first component melts and welds the first sphere to the first component, - providing a second sphere, - pressing the second sphere against the first sphere by means of the same sonotrode or another sonotrode, - causing the second sphere to vibrate by means of the same sonotrode or the other sonotrode, such that material of the second sphere and/or material of the first sphere melts and welds the second sphere to the first sphere, characterised in that the causing of the second sphere to vibrate produces a double sphere formed by the two spheres (5, 6) connected together. - providing a first component, - providing a first sphere, - pressing the first sphere against the first component by means of a sonotrode, - causing the first sphere to vibrate by means of the sonotrode, such that material of the first sphere and/or material of the first component melts and welds the first sphere to the first component, - providing a second sphere, - pressing the second sphere against the first sphere by means of the same sonotrode or another sonotrode, - causing the second sphere to vibrate by means of the same sonotrode or the other sonotrode, such that material of the second sphere and/or material of the first sphere melts and welds the second sphere to the first sphere, characterised in that the causing of the second sphere to vibrate produces a double sphere formed by the two spheres (5, 6) connected together.
Cabin, hereafter referred to as "first-order CAB," for a service mobile with a vehicle mount, wherein the first-order CAB comprises: - a predefined first interface for reversible mechanical attachment of the first-order CAB to the vehicle mount, - a predefined second interface for reversible mechanical attachment of the first-order CAB to a second cabin, hereafter referred to as "second-order CAB," and - is characterized by equipment for providing a first family of services (D2, D5, D7) in the service mobile while the service mobile is traveling, - wherein the second-order CAB provides equipment for providing a first service of the family of services (D2, D5, D7) in the service mobile while the service mobile is traveling, and - wherein the predefined first interface is configured to provide, in conjunction with the predefined second interface, a spatial determination of the second-order CAB relative to the vehicle mount. - a predefined first interface for reversible mechanical attachment of the first-order CAB to the vehicle mount, - a predefined second interface for reversible mechanical attachment of the first-order CAB to a second cabin, hereafter referred to as "second-order CAB," and - is characterized by equipment for providing a first family of services (D2, D5, D7) in the service mobile while the service mobile is traveling, - wherein the second-order CAB provides equipment for providing a first service of the family of services (D2, D5, D7) in the service mobile while the service mobile is traveling, and - wherein the predefined first interface is configured to provide, in conjunction with the predefined second interface, a spatial determination of the second-order CAB relative to the vehicle mount.
Method for operating a locating device, which comprises a waveguide laid along a track segment in order to locate a rail vehicle on the track segment, wherein in the method, electromagnetic pulses (Pin) are fed into the waveguide in succession and backscattering patterns (Rm1-Rm3) produced by backscattering of the electromagnetic pulse (Pin) are received and evaluated for each emitted pulse, characterised in that - the waveguide has at least one extension section along the track segment, in which extension section the length of the waveguide is longer than the section of the track segment associated with said extension section by an excess length, - the temporal backscattering pattern length of the received backscattering pattern (Rm1-Rm3) is measured, - the additional duration of the backscattering pattern (Rm1-Rm3) resulting from the passage over the extension section in comparison with the backscattering pattern length before or after the extension section is determined and - the additional duration is used to generate an error signal or to calibrate the locating device. - the waveguide has at least one extension section along the track segment, in which extension section the length of the waveguide is longer than the section of the track segment associated with said extension section by an excess length, - the temporal backscattering pattern length of the received backscattering pattern (Rm1-Rm3) is measured, - the additional duration of the backscattering pattern (Rm1-Rm3) resulting from the passage over the extension section in comparison with the backscattering pattern length before or after the extension section is determined and - the additional duration is used to generate an error signal or to calibrate the locating device.
Energy supply device having a supercapacitor and a rechargeable battery, wherein an electrode coating is applied on to a surface of the supercapacitor, which forms a first battery electrode, and wherein the supercapacitor comprises multiple rod-shaped capacitor portions, characterized in that the capacitor portions each comprise an electrically-conductive nanowire or a nanofiber, wherein the nanowires or the nanofibers of the capacitor portions are connected to one another in an electrically-conductive manner and form a first supercapacitor electrode, wherein the first supercapacitor electrode is surrounded by a dielectric and wherein an electrically-conductive coating is applied on to the dielectric, which forms a second supercapacitor electrode, an in that the rechargeable battery comprises carbon nanotubes forming the second battery.
A cistern for a sanitary device, comprising a block valve arranged thereon, comprising a connecting piece, which can be connected to the block valve on one end and to a water pipe on another end, wherein the cistern has an opening in a wall of a tank body, wherein the connecting piece is mounted in an accommodating device, which is fastened to the opening on the tank body, inside the tank body so as to be secured against being pulled out, wherein the accommodating device has a passage, in which the water pipe can be inserted into the cistern from the outer side of the cistern, characterized in that the accommodating device has a slide, which, in a first position, connects the connecting piece to the accommodating device so as to be secured against being pulled out, and, in a second position, releases the connecting piece at least in an axial direction.
A drone docking station configured to receive at least one drone, the docking station comprising: a docking shaft sized to engage with the at least one drone, the docking shaft having a drone entrance end and a drone exit end opposite the drone entrance end; and a drone guiding portion helically disposed along the docking shaft, the drone guiding portion configured to engage with a corresponding guiding region on the at least one drone to allow the at least drone to move along the drone guiding portion from the drone entrance end to the drone exit end. a docking shaft sized to engage with the at least one drone, the docking shaft having a drone entrance end and a drone exit end opposite the drone entrance end; and a drone guiding portion helically disposed along the docking shaft, the drone guiding portion configured to engage with a corresponding guiding region on the at least one drone to allow the at least drone to move along the drone guiding portion from the drone entrance end to the drone exit end.
A semiconductor drift detector (200, 300, 400) for detecting radiation, the semiconductor drift detector comprising a semiconductor substrate in which signal charge carriers are generated during operation of the semiconductor drift detector, a radiation entrance window on a first side of the semiconductor substrate, at least one read out contact (201, 301, 401), a plurality of drift elements configured for driving the generated signal charge carriers towards the read out contact, wherein the semiconductor drift detector is configured to focus signal charge carriers which are generated in the substrate towards the read out contact, wherein the plurality of drift elements and the read out contact are located on a second side of the substrate, wherein the second side is opposite of the first side of the substrate, wherein the semiconductor drift detector is configured to apply a respective voltage to each of the plurality of drift elements, wherein the semiconductor drift detector is configured to apply the respective voltage to the plurality of drift elements such that a voltage gradient between the drift elements towards the read out contact is applied, wherein at least the drift element out of the plurality of drift elements to which the highest voltage is applied does not entirely surround the read out contact and characterized in that at least one of the plurality of drift elements is arranged in such a way that this drift element carryihg a lower voltage as compared to other drift elements carrying a higher voltage entirely surrounds all the drift elements carrying higher voltages.
A mechanical splice connector (10, 10', 10"), comprising: a body for receiving at least one field optical fiber, the body having at least one groove and/or bore along an optical axis for receiving and aligning the at least one field optical fiber in the body; a mechanical retention component for securing the at least one optical field fiber to the body, wherein the mechanical retention component rotates about an axis for clamping the at least one optical field fiber to the body; and at least one lens attached to the body in at least one bore of the body. a body for receiving at least one field optical fiber, the body having at least one groove and/or bore along an optical axis for receiving and aligning the at least one field optical fiber in the body; a mechanical retention component for securing the at least one optical field fiber to the body, wherein the mechanical retention component rotates about an axis for clamping the at least one optical field fiber to the body; and at least one lens attached to the body in at least one bore of the body.