Abstract:
The present disclosure relates to a reflective optical sensor module, an optical sensing accessory, and an optical sensing device. A reflective optical sensor module comprises a light source (110) and a first encapsulant (111), a photodetector (120) and a second encapsulant (121), an electrode (170) and a substrate (140). The light source (110) is configured to convert electric power into radiant energy and to emit light to an object surface. The photodetector (120) is configured to receive the light from an object surface and to convert radiant energy into electrical current or voltage. The electrode (170) is configured to detect an external circuit formed by the contact with an object surface. The optical sensing accessory and the optical sensing device comprise the reflective optical sensor module and other electronic modules to have further applications.
Abstract:
The present application discloses a LED-based solar simulator light source having at least one LED array formed by multiple LED groups of LED assemblies, at least one field flattening device, at least one diffractive element, and at least one optical element configured to condition the broad spectrum light source output signal and direct the light source output signal to a work surface.
Abstract:
An object of the present invention is to provide a photosensor lens which, in the case of using a plurality of light emitting elements to form a reflective photosensor, can maximize the efficiency of light irradiation of the light emitting elements with a simple structure. Provided is a photosensor lens configured to condense irradiation light from a plurality of light emitting elements 2 housed in a unit case 1 in a detection region 3 outside the unit case 1, and to condense reflected light from the detection region 3 at a light receiving element 4 in the unit case 1. A single convex lens surface 5 is formed on one side of the photosensor lens, and a light-receiving convex lens surface 6 sharing an optical axis with the single convex lens surface 5, and a plurality of light-emitting convex lens surfaces 7 each having an optical axis in parallel with the optical axis of the light-receiving convex lens surface 6 are integrally formed on the opposite side of the photosensor lens.
Abstract:
The present invention relates to a light sensing system for sensing ambient light intensity, comprising a light sensing device with at least one light sensor and a calibration device for calibrating the sensor. The calibration device comprises at least one light source that emits light with a standard intensity. The invention is further related to a corresponding method for calibrating a light sensing device, comprising the illumination of the light sensor of the light sensing device with light that has a standard intensity, the comparison of the output intensity signal of the sensor with an expected signal that corresponds to the standard intensity, and the matching of the output intensity signal of the sensor to the expected signal by adjusting a gain parameter of the sensor.
Abstract:
An optical sensor that a deterioration of detecting accuracy is suppressed is provided, and an optical sensor that an increase of the number of components and an increase of a physical constitution are suppressed is provided. The optical sensor has a light receiving element (120) having a light receiving surface (120a) to receives light, a detector (140) detecting an inclination of the light receiving surface in the vertical direction, and a correction portion (150a) correcting an output signal of the light receiving element (120) based on an output signal of the detector (140). Furthermore, the optical sensor includes a raindrop detector (210) detecting a raindrop, a light detector (230) detecting an incident light, and a storage part (250) storing these things. The raindrop detector (210) includes a light emitting element (211), a first light receiving element (212), and a first lens (213). The light detector (230) includes a second light receiving element (31) and a second lens (33).
Abstract:
The disclosure provides a system (10) for calibrating a light source for simulating a spectrum of solar radiation. The system (10) includes: the light source (11) configured to emit radiation (12) including two or more different wavelength ranges to provide an output spectrum; a detection element (61) disposed opposite to the light source (11) and configured to detect the output spectrum, wherein said detection element (61) is a photovoltaic device; an evaluation module (62) connected to the detection element (61) and configured to determine, from the detected output spectrum, an amount of irradiance in one or more of the wavelength ranges; and a light source controller (13) connected to the evaluation module (62) and configured to adjust one or more radiation emission parameters of the light source (11) based on the determined amount of irradiance in the one or more of the wavelength ranges to amend the output spectrum.
Abstract:
A supplemental device (2) for attachment to an injection device (1) including a dosage window (13)covering a sleeve (19) on which dose values are marked is disclosed. The supplemental device (2) comprises a main body (20); an arrangement for supporting the main body of the supplemental device in a predetermined positional relationship with the injection device (1); a transparent protection window (80) located at a surface of the main body (20) that is aligned with the dosage window (13) of the injection device (1) when in use; a sensor arrangement (25) supported in the main body (20) and having a sensor directed at the protection window (80); an illumination arrangement (29a-d) comprising one or more sources of light, each of the one or more sources of light being directed at the protection window (80); and a non-transmissive part (85, 86) located on an optical path between a first one of the one or more sources of light.
Abstract:
The invention relates to a laser assembly (100) having a laser (L) for generating primary laser pulses (1), beam splitting optics (15) for splitting a primary laser pulse into a plurality of temporally staggered sub-pulses, and having focusing optics (17-19) for focusing the sub-pulses in or on an object (20) so that every sub-pulse is focused in a separate focus volume (F). The invention is characterized in that the reciprocal spatial and/or temporal relationship of the focus volumes (F) of the sub-pulses proceeding from a common primary laser pulse is variably adjustable. The invention also relates to a corresponding method.