Abstract:
This patent application pertains to the optical laser microscopy field and proposes a simplified yet specific optical laser coupling method. The proposed method allows for a sensible reduction in size and complexity of laser based microscopes and related applications, especially in the area of nano particles detection and optical biosensing. Particularly the optical laser coupling proposed method can detect optical signals generated from sub-diffractive nanoparticles located in liquid solution on a standard glass coverslip. Thanks to the small size of the required components and to the usage of standard air-lens objective, without the presence of oil or special prism, this method can be easily embedded into a small, lightweight and portable device, which can properly operate even in absence of gravity.
Abstract:
According to one embodiment, an optical sensor includes a first substrate, a first insulating film and a light-shielding film. The first substrate has a light detecting region detecting fluorescence generated from a fluorescent material by light with which irradiation is performed from a lateral side. The first insulating film is provided on the first substrate. The light-shielding film is provided, at least, on a side surface of the first substrate to which the light enters, on a side surface of the first insulating film and above a region excluding a region corresponding to the light detecting region of the first insulating film.
Abstract:
A light intensity distribution comprises a carbon nanotube array located on a surface of a substrate, a reflector, an imaging element and a cooling device. The carbon nanotube array absorbs photons from a light source and radiates a visible light. The reflector reflects the visible light and is spaced from the carbon nanotube array. The imaging element images the visible light reflected by the reflector. The cooling device is used to cool the substrate to make a contact surface between the substrate and the carbon nanotube array maintain a constant temperature. The cooling device is located between the substrate and the imaging device. The imaging device is spaced from the cooling device.
Abstract:
A sensor is described comprising an assembly allowing for the adjustment of light through a plurality of lenses to magneto-optical defect center materials. In some implementations, an initial calibration is done on the sensor system to adjust the relative position of the optical excitation assembly to a base structure to benefit the final intended purpose of the sensor The optical excitation assembly for attachment to a base structure can be described as comprising a slot configured to adjust the optical excitation assembly in a respective linear direction relative to the base structure, an optical excitation source, a lens, and a drive screw mechanism. The drive screw mechanism can be configured to adjust a position of the lens relative to the optical excitation source.
Abstract:
A sensor apparatus has a substrate and a spectrally selective detection system, and a cover. The spectrally sensitive detection system is sandwiched between the substrate and the cover. The spectrally selective detection system includes a generally laminar array of wavelength selectors optically coupled to a corresponding array of optical detectors located within the substrate. It is emphasized that this abstract is provided to comply with the rules requiring an abstract that will allow a searcher or other reader to quickly ascertain the subject matter of the technical disclosure. It is submitted with the understanding that it will not be used to interpret or limit the scope or meaning of the claims.
Abstract:
A lighting apparatus includes a first semiconductor light source configured to produce a first primary light beam, a second semiconductor light source configured to produce a second primary light beam, a phosphor volume configured to at least partly convert primary light into secondary light, a first deflection element configured to deflect the first primary light beam onto the phosphor volume, a second deflection element configured to deflect the second primary light beam onto the phosphor volume, a first light sensor which is sensitive to at least the primary light, and a second light sensor. The first deflection element is partly transmissive for the first primary light beam. The first light sensor can be irradiated by the component of the primary light beam which is transmitted by the first deflection element. The second light sensor can be irradiated by light which can be emitted by the phosphor volume.
Abstract:
A radiation sensor apparatus for determining a position and/or power of a radiation beam, the radiation sensor apparatus including a chamber to contain a gas, one or more sensors, and a processor. The chamber has a first opening and a second opening such that a radiation beam can enter the chamber through the first opening, propagate through the chamber generally along an axis, and exit the chamber through the second opening. Each of the one or more sensors is arranged to receive and detect radiation emitted from a region of the chamber around the axis. The processor is operable to use the radiation detected by the one or more sensors to determine a position and/or power of the radiation beam.
Abstract:
The present invention discloses a detection system with quantum light source, it includes a quantum light source module and a detection module, wherein the quantum light source module is composed of plural quantum light sources and illuminating an object under test to generate an object image, while the detection module detects the object image and performs detection or analysis. With the implementation of the present invention, low implementation cost is made possible by dispensing with a complex production process and complicated manufacturing equipment; relatively small space taken up by the quantum light sources allows the detection system to be used in a variety of applications; accurate and high-intensity light output facilitates identification of the characteristics of a to-be-tested object, lowers the error rate of detection, and enhances detection efficiency substantially; and can be used to detect, identify, or discriminate physiological signals correctly.
Abstract:
The spot shape of a laser beam is detected by moving a table holding a detection substrate having a luminescent substance in an X direction and a Y direction with a laser beam focused by a lens applied to an area of the detection substrate where the luminescent substance is located. The intensity of light emitted from the luminescent substance is detected during the movement of the table, and a light intensity map is prepared indicating the light intensities detected in the light intensity detecting step at all of the X and Y coordinates of the luminescent substance. Spot shape images of the laser beam are formed according to a plurality of light intensity maps obtained by positioning the focusing lens at a plurality of detection positions changed in a Z direction perpendicular to a holding surface of the table.
Abstract:
A measurement wafer device for measuring radiation intensity and temperature includes a wafer assembly including one or more cavities. The measurement wafer device further includes a detector assembly. The detector assembly is disposed within the one or more cavities of the wafer assembly. The detector assembly includes one or more light sensors. The detector assembly is further configured to perform a direct or indirect measurement of the intensity of ultraviolet light incident on a surface of the wafer assembly. The detector assembly is further configured to determine a temperature of one or more portions of the wafer assembly based on one or more characteristics of the one or more light sensors.