mhurhangee/ep-ind-claims huggingface dataset:
A white light emitting device adapted to a dental lighting system, the white light emitting device comprising: a light-emitting diode emitting first light having a light emission intensity peak at a wavelength region of from 350 to 490 nm; and a phosphor layer emitting white light in response to excitation by the first light of the light-emitting diode, wherein the phosphor layer includes a plurality of phosphors which emit second lights by being excited by the first light, the second lights have light emission intensity peaks different from one another at a wavelength region of from 420 to 700 nm, and the white light is formed by the second lights, or the first light and the second lights, among a light emission spectrum of the light-emitting diode and each of the light emission spectra of the plurality of phosphors, it has at least one region where two or more light emission spectra are overlapped, a relative color temperature of the white light is 2500 K or more and 7000 K or less, and in a light emission spectrum of the white light, when an arbitrary local maximum value of a light emission intensity of the local maximum values existing in the wavelength region of from 350 to 780 nm of the white light is set to be "1", and a ratio of a local minimum value of the light emission intensity which is in closest proximity to said arbitrary local maximum value at a long wavelength side relative to said arbitrary local maximum value is set to an intensity ratio, all of the intensity ratios are 0.5 or more. a light-emitting diode emitting first light having a light emission intensity peak at a wavelength region of from 350 to 490 nm; and a phosphor layer emitting white light in response to excitation by the first light of the light-emitting diode, wherein the phosphor layer includes a plurality of phosphors which emit second lights by being excited by the first light, the second lights have light emission intensity peaks different from one another at a wavelength region of from 420 to 700 nm, and the white light is formed by the second lights, or the first light and the second lights, among a light emission spectrum of the light-emitting diode and each of the light emission spectra of the plurality of phosphors, it has at least one region where two or more light emission spectra are overlapped, a relative color temperature of the white light is 2500 K or more and 7000 K or less, and in a light emission spectrum of the white light, when an arbitrary local maximum value of a light emission intensity of the local maximum values existing in the wavelength region of from 350 to 780 nm of the white light is set to be "1", and a ratio of a local minimum value of the light emission intensity which is in closest proximity to said arbitrary local maximum value at a long wavelength side relative to said arbitrary local maximum value is set to an intensity ratio, all of the intensity ratios are 0.5 or more.
A method comprising: calculating, using a processor, location data for a location tag based on blink data received from the location tag, wherein the blink data comprises a tag signal transmitted by the location tag; determining sensor position calculation data based on position data or proximity data received from a sensor associated with the location tag; wherein the position data comprises data received from the sensor and does not comprise location data based on the blink data; wherein the proximity data comprises a sensed identity within a range of the sensor; characterized in that the method further comprises: determining an over-determined location based on the location data, the sensor position calculation data, and a location hierarchy, wherein the location hierarchy comprises a first priority for the location data, a second priority for the sensor position calculation data based on the position data, and a third priority for the sensor position calculation data based on the proximity data. calculating, using a processor, location data for a location tag based on blink data received from the location tag, wherein the blink data comprises a tag signal transmitted by the location tag; determining sensor position calculation data based on position data or proximity data received from a sensor associated with the location tag; wherein the position data comprises data received from the sensor and does not comprise location data based on the blink data; wherein the proximity data comprises a sensed identity within a range of the sensor; characterized in that the method further comprises: determining an over-determined location based on the location data, the sensor position calculation data, and a location hierarchy, wherein the location hierarchy comprises a first priority for the location data, a second priority for the sensor position calculation data based on the position data, and a third priority for the sensor position calculation data based on the proximity data.
Head of an examination object in head imaging via a magnetic resonance device, the method comprising: performing an overview scan of the head of the examination object, wherein overview measurement data is acquired in the overview scan; administering a contrast agent; and performing various diagnostic scans (Mb2, Mb3, Mb4, Mb5, Mb6, Mb7, Mb8, Mb9) of the head of the examination object based on the acquired overview measurement data, wherein diagnostic measurement data is acquired in the various diagnostic scans, wherein a number of the various diagnostic scans is at least eight and at least first and second diagnostic scans of the various diagnostic scans have different contrasts, wherein at least one of the various diagnostic scans has a T1 contrast, at least one of the various diagnostic scans has a T2 contrast, at least one of the various diagnostic scans has a FLAIR contrast, at least one of the various diagnostic scans has a susceptibility contrast, at least one of the various diagnostic scans has a GM-WM-T1 contrast in which the contrast between Gray Matter and White Matter is greater compared to the T1 contrast, at least one of the various diagnostic scans has a diffusion-weighted contrast, and wherein the performing the various diagnostic scans performs at least three diagnostic scans chronologically before the administration of the contrast agent and performs at least two diagnostic scans chronologically after the administration of contrast agent, and at least one of the at least two diagnostic scans which are performed chronologically after the administration of contrast agent is insensitive to the contrast agent administered, and at least one of the at least two diagnostic scans which are performed chronologically after the administration of contrast agent is sensitive to the contrast agent. performing an overview scan of the head of the examination object, wherein overview measurement data is acquired in the overview scan; administering a contrast agent; and performing various diagnostic scans (Mb2, Mb3, Mb4, Mb5, Mb6, Mb7, Mb8, Mb9) of the head of the examination object based on the acquired overview measurement data, wherein diagnostic measurement data is acquired in the various diagnostic scans, wherein a number of the various diagnostic scans is at least eight and at least first and second diagnostic scans of the various diagnostic scans have different contrasts, wherein at least one of the various diagnostic scans has a T1 contrast, at least one of the various diagnostic scans has a T2 contrast, at least one of the various diagnostic scans has a FLAIR contrast, at least one of the various diagnostic scans has a susceptibility contrast, at least one of the various diagnostic scans has a GM-WM-T1 contrast in which the contrast between Gray Matter and White Matter is greater compared to the T1 contrast, at least one of the various diagnostic scans has a diffusion-weighted contrast,
Self-closing pourer comprising a lower part that can be connected to a container, said lower part comprising at least one pouring opening, and an upper part that is connected in an articulated manner to the lower part so as to close the pouring opening, wherein the upper part comprises a lid section that in the closing position closes the pouring opening and that can be rotated around an axis of rotation so as to reveal the pouring opening, and wherein the upper part moreover comprises a resilient section that is fixedly connected to the lid section, said resilient section being located in relation to the axis of rotation on the side of the upper part that lies opposite the lid section, and said resilient section comprises in a portion a curvature that is open towards the lower part, wherein it is possible by means of exerting pressure on the resilient section to change the opening angle of the curvature and thereby to increase the resilient tension in that by exerting pressure the free end of the resilient section being remote from the axis of rotation can be moved outwards of an edge of the lower part delimiting the closing position, and wherein the free end of the resilient section is guided when opening after exceeding the edge delmenting the closing position along a guiding section that is arranged on the lower part so that in each position from the closing position to the open position the resilient tension of the resilient section extends between the axis of rotation and the free end of the resilient section, thereby providing a lever length that remains uniform, characterized in that a bevelling extends from the edge of the lower part delimiting the closing position in the direction of the axis of rotation, wherein the angle between the bevelling and the horizontal is smaller than the angle between the guiding section and the horizontal.
Particle for 3D printing which comprises a core made of aluminium, covered successively with: - a stack of one of more metallic layers (4, 5, 6), the stack comprises at least one continuous layer completely covering the core of the particle, the continuous layer being made of zirconium, zinc, silicon or nickel, - an external layer formed from metal nanoparticles or carbon nanotubes. - a stack of one of more metallic layers (4, 5, 6), the stack comprises at least one continuous layer completely covering the core of the particle, the continuous layer being made of zirconium, zinc, silicon or nickel, - an external layer formed from metal nanoparticles or carbon nanotubes.
A bicycle frame comprising a seat tube and seat struts, further comprising a frame damper having a damping element arranged between the seat tube and the seat struts, wherein the frame damper is configured to elastically couple the seat struts to the seat tube and comprises a guide assembly having at least two guides for coupling the seat struts and the seat tube to each other, wherein the guides being spaced apart from each other in parallel and comprise an arrangement including a projection (5',5") and a corresponding receptacle (7',7"), respectively, wherein the projection (5',5") and the receptacle (7',7") are provided to the other one of the seat tube and the seat struts, respectively, wherein the frame damper connects the seat struts and the seat tube in a torsionally rigid manner, characterized in that the frame damper further comprises removable bushings (6',6") which are insertable into the receptacles (7',7").
A protective product, comprising: at least one expandable slit paper sheet in an expanded state, characterized in that it comprises an embossed paper sheet facing said expanded slit paper sheet and fixed to said expanded slit paper sheet along at least a portion of a length in an expansion direction of said expanded slit sheet paper, said embossed paper sheet having a plurality of embossings that increase the rigidity of said embossed paper sheet, whereby inhibiting deformation of said embossed paper sheet that is fixed to said expanded slit sheet paper.
A program to be read and executed by a computer to allow the computer to execute a control method of an imaging apparatus for diagnosis, the imaging apparatus for diagnosis being configured to create an ultrasound tomographic image and an optical tomographic image inside an examination target object to which an imaging core moves by performing scanning using a probe that houses the imaging core provided with an ultrasound transceiver and an optical transceiver by moving the imaging core along an axial direction of the probe while rotating the imaging core, the control method comprising: a process of obtaining ultrasound line data oriented in a radial direction from a rotation center on the basis of a signal obtained by executing the scanning; a process of obtaining optical interference line data oriented in a radial direction from the rotation center on the basis of a signal obtained by executing the scanning; wherein the control method is characterized by further comprising: a process of identifying a line or a group of lines having the same feature out of each line data of the ultrasound tomographic image and the optical tomographic image; a process of determining segmentation positions for a bundle of lines corresponding to at least a single frame included in each tomographic image from each line data of the ultrasound tomographic image and the optical tomographic image with respect to the identified line or group of lines; and a process of creating a tomographic image from the determined bundle of lines. a process of obtaining ultrasound line data oriented in a radial direction from a rotation center on the basis of a signal obtained by executing the scanning; a process of obtaining optical interference line data oriented in a radial direction from the rotation center on the basis of a signal obtained by executing the scanning; wherein the control method is characterized by further comprising: a process of identifying a line or a group of lines having the same feature out of each line data of the ultrasound tomographic image and the optical tomographic image; a process of determining segmentation positions for a bundle of lines corresponding to at least a single frame included in each tomographic image from each line data of the ultrasound tomographic image and the optical tomographic image with respect to the identified line or group of lines; and a process of creating a tomographic image from the determined bundle of lines.
An optical measurement apparatus comprising: an optical system comprising: a source arranged to generate, when in use, a measurement probe beam of electromagnetic radiation, the optical system being arranged to direct, when in use, the measurement probe beam of electromagnetic radiation to a location to be measured, wherein the measurement probe beam of electromagnetic radiation comprises an alignment image; a detector arranged to receive, when in use, a reflected measurement probe beam from the location to be measured; and a feedback arrangement arranged to receive, when in use, the reflected measurement probe beam comprising the alignment image from the location to be measured and to provide feedback information in response to receipt of the reflected beam, the feedback information being indicative of degree of alignment of the location to be measured with the optical system; wherein the location to be measured is a location of a feature of an eye; the feedback arrangement is further arranged to direct at least part of the reflected measurement probe beam back to the eye, the redirected reflected measurement probe beam constituting the feedback information. an optical system comprising: a source arranged to generate, when in use, a measurement probe beam of electromagnetic radiation, the optical system being arranged to direct, when in use, the measurement probe beam of electromagnetic radiation to a location to be measured, wherein the measurement probe beam of electromagnetic radiation comprises an alignment image; a detector arranged to receive, when in use, a reflected measurement probe beam from the location to be measured; and a feedback arrangement arranged to receive, when in use, the reflected measurement probe beam comprising the alignment image from the location to be measured and to provide feedback information in response to receipt of the reflected beam, the feedback information being indicative of degree of alignment of the location to be measured with the optical system; wherein a source arranged to generate, when in use, a measurement probe beam of electromagnetic radiation, the optical system being arranged to direct, when in use, the measurement probe beam of electromagnetic radiation to a location to be measured, wherein the measurement probe beam of electromagnetic radiation comprises an alignment image; a detector arranged to receive, when in use, a reflected measurement probe beam from the location to be measured; and a feedback arrangement arranged to receive, when in use, the reflected measurement probe beam comprising the alignment image from the location to be measured and to provide feedback information in response to receipt of the reflected beam, the feedback information being indicative of degree of alignment of the location to be measured with the optical system; wherein the location to be measured is a location of a feature of an eye; the feedback arrangement is further arranged to direct at least part of the reflected measurement probe beam back to the eye, the redirected reflected measurement probe beam constituting the feedback information.
A device, by means of which an optical splitting and modulation of monochromatic coherent electromagnetic radiation is carried out, containing a radiation source, by means of which a beam is generated, an acoustic-optical element, which is loaded by electrical signals of a contained signal generator and using which a beam splitting into a number of part beams is carried out, and further containing an acoustic-optical modulator, which is controlled using high-frequency electrical signals, wherein the acoustic-optical element is arranged in the beam path between the radiation source and the acoustic-optical modulator, wherein the beam is split into the part beams (L1, L2, L3, L4) by means of the acoustic-optical element, characterised in that these part beams (L1, L2, L3, L4) are fed to the acoustic-optical modulator, and in that a phase modulation circuit is arranged between the signal generator, which generates electrical signals (F1, F2, F3, F4) with different frequencies, and the acoustic-optical element, using which phase modulation circuit, the phases of the electrical signals (F1, F2, F3, F4) of the mentioned signal generator are shifted independently and also coupled with one another such that a temporal fluctuation of the signal amplitudes of the individual part beams (L1, L2, L3, L4) is minimised by means of the electrical signals thus formed.
A compound of formula: where Ar is C 5 heteroaryl, optionally substituted by a group selected from a) OH, SH, NH 2, OMe, SMe, NHMe, NMe 2, OEt, NHCN, Me; b) CN, CO 2 H; c) SO 2 Me, SO 3 - Na +; d) CH 2 Q 1, where Q 1 is selected from OH, OMe, CI, CN, NHCOMe, SO 3 H, NR N1 R N2, where R N1 and R N2 are either H or Me; e) C 2-3 alkyl substituted by OH; where a N-ring heteroatom may additional bear a methyl group. where Ar is C 5 heteroaryl, optionally substituted by a group selected from a) OH, SH, NH 2, OMe, SMe, NHMe, NMe 2, OEt, NHCN, Me; b) CN, CO 2 H; c) SO 2 Me, SO 3 - Na +; d) CH 2 Q 1, where Q 1 is selected from OH, OMe, CI, CN, NHCOMe, SO 3 H, NR N1 R N2, where R N1 and R N2 are either H or Me; e) C 2-3 alkyl substituted by OH; a) OH, SH, NH 2, OMe, SMe, NHMe, NMe 2, OEt, NHCN, Me; b) CN, CO 2 H; c) SO 2 Me, SO 3 - Na +; d) CH 2 Q 1, where Q 1 is selected from OH, OMe, CI, CN, NHCOMe, SO 3 H, NR N1 R N2, where R N1 and R N2 are either H or Me; e) C 2-3 alkyl substituted by OH; where a N-ring heteroatom may additional bear a methyl group.
A method for modifying a graphene nanoplatelet comprising: injecting carbon dioxide in a liquid state into a reactor having the graphene nanoplatelet; exfoliating the graphene nanoplatelet by temperature-raising and pressure-raising carbon dioxide to 20 to 50°C and 73 to 200 atm, respectively; pressure-releasing and cooling an exfoliated graphene; and recovering the carbon dioxide discharged from the pressure-releasing and cooling of the exfoliated graphene so that the carbon dioxide is reused; recovering the pressure-released graphene by a recovering bath filled with deionized water. injecting carbon dioxide in a liquid state into a reactor having the graphene nanoplatelet; exfoliating the graphene nanoplatelet by temperature-raising and pressure-raising carbon dioxide to 20 to 50°C and 73 to 200 atm, respectively; pressure-releasing and cooling an exfoliated graphene; and recovering the carbon dioxide discharged from the pressure-releasing and cooling of the exfoliated graphene so that the carbon dioxide is reused; recovering the pressure-released graphene by a recovering bath filled with deionized water.
A system for assigning aircraft to routes, the system comprising: a fleet of aircraft, each aircraft including: a fuel efficiency data manager to obtain information related to fuel efficiency for the aircraft and at least one aircraft engine installed on the aircraft, and at least one wireless communication unit (118/120), coupled to the fuel efficiency data manager; and a ground-based computer system communicatively coupled to the fleet of aircraft, the computer system including: a datastore of information related to fuel efficiency of each aircraft and aircraft engine of the fleet of aircraft and information related to routes serviced by the fleet of aircraft, and an optimizer component to determine an assignment of aircraft and engine combinations to the routes serviced by the fleet of aircraft based on the information stored in the datastore, wherein, the fuel efficiency data manager is arranged to transmit information related to fuel efficiency for the aircraft and the at least one aircraft engine via the wireless communication unit (118/120) from the aircraft to the ground-based computer system where they are collected in the datastore. a fleet of aircraft, each aircraft including: a fuel efficiency data manager to obtain information related to fuel efficiency for the aircraft and at least one aircraft engine installed on the aircraft, and at least one wireless communication unit (118/120), coupled to the fuel efficiency data manager; and a fuel efficiency data manager to obtain information related to fuel efficiency for the aircraft and at least one aircraft engine installed on the aircraft, and at least one wireless communication unit (118/120), coupled to the fuel efficiency data manager; and a ground-based computer system communicatively coupled to the fleet of aircraft, the computer system including: a datastore of information related to fuel efficiency of each aircraft and aircraft engine of the fleet of aircraft and information related to routes serviced by the fleet of aircraft, and an optimizer component to determine an assignment of aircraft and engine combinations to the routes serviced by the fleet of aircraft based on the information stored in the datastore, a datastore of information related to fuel efficiency of each aircraft and aircraft engine of the fleet of aircraft and information related to routes serviced by the fleet of aircraft, and an optimizer component to determine an assignment of aircraft and engine combinations to the routes serviced by the fleet of aircraft based on the information stored in the datastore, wherein, the fuel efficiency data manager is arranged to transmit information related to fuel efficiency for the aircraft and the at least one aircraft engine via the wireless communication unit (118/120) from the aircraft to the ground-based computer system where they are collected in the datastore.