摘要:
A laser module includes a substrate 1, a first laser element 2 placed on the substrate 1, a second laser element 3 placed with an output surface opposed to the first laser element 2 on the substrate 1, and a mirror 7 placed between the first laser element 2 and the second laser element 3. The mirror 7 has a reflective surface capable of reflecting output light from the first laser element 2 or the second laser element 3 in a predetermined direction, and is placed so as to move or rotate between a first position capable of reflecting the output light from the first laser element 2 and a second position capable of reflecting the output light from the second laser element 3. Thus, a laser module can be provided in which high precision, low cost, and miniaturization can be realized.
摘要:
The invention provides a night-vision imaging apparatus including: a light emission unit that emits infrared light; a solid-state imaging device that converts the infrared light into a first signal; a light-emission control unit that allows the light emission unit to emit the infrared light which is modulated according to a temporally pseudo-random first modulation; and an extraction unit that extracts, according to the first modulation, a signal corresponding to the infrared light emitted by the light emission unit from the first signal.
摘要:
The image-capturing device according to the present invention includes a solid-state imaging element, an infrared LED which emits infrared light, a light-emission controlling unit which causes the infrared LED to emit infrared pulsed light on a per frame time basis, and a signal processing unit which extracts, from the solid-state imaging element, a color visible-light image signal in synchronization with a non-emitting period and an infrared image signal in synchronization with an emitting period of the infrared LED. The solid-state imaging element includes an image-capturing region in which unit-arrays are two-dimensionally arranged, and each of the unit-arrays has a pixel for receiving green visible light and infrared light, a pixel for receiving red visible light and infrared light, a pixel for receiving blue visible light and infrared light, and a pixel for receiving infrared light.
摘要:
A solid-state imaging device which includes a color filter having excellent color reproduction, a manufacturing method thereof and a camera are provided.A color filter in a solid-state imaging device 1 having an optical film thickness of approximately ¼ of a set wavelength λ, being sandwiched by a third layer and a fourth layer which are spacer layers in which only 3 layers are laminated and which consist of two types of layers (first layers and a second layer) with different refractive indexes, and further, having a structure that is sandwiched by a film, a first layer, which has a film thickness approximately equal to the above λ/4. Between the two types of layers having different refractive indexes, the first layers are composed of high refractive index material, and the second layer is composed of low refractive index material. The third layer and the fourth layer have an optical film thickness according to the light which passes through, and the material film thickness of the entire color filter also differs for each color of light.
摘要:
Provided is a solid-state imaging device which is able to achieve reductions in size and in thickness of the device, while being also able to have an auxiliary function of imaging lenses, an infrared cut filter, an antireflection function, a dust preventing function for downsizing of packaging, and an infrared light imaging function for capturing images at night. The solid-state imaging device includes: a light-collecting element which collects incident light; and a transparent thin film formed above the light-collecting element, and an air gap is formed between the light-collecting element and the transparent thin film. On the transparent thin film, the auxiliary function of imaging lenses, the infrared cut filter, the antireflection function, the dust preventing function for downsizing of packaging, and the infrared light imaging function for capturing images at night are integrated.
摘要:
The present invention provides a solid-state imaging device which compensates a field curvature which occurs due to an aberration of the optical imaging system and surely receive light incident with a wide angle.Each pixel (pixel size of 2.2 μm square) in a solid-state imaging device includes a light-transmitting film with the first effective refractive index distribution and a light-transmitting film with the second effective refractive index distribution, a light-receiving element, a wiring, a wavelength selection filter, and a Si substrate. A pixel (1) is a pixel placed an approximate center of the solid-state imaging device. A pixel (n) is a pixel placed in the periphery of the solid-state imaging device, and a pixel (n-x) is a pixel that are placed between the pixel (1) and the pixel (n). The light-transmitting film of each pixel has approximately same effective refractive index distribution. Θ0, which is a main light angle on the light-receiving element side, is approximately same. A main light angle in the optical imaging system is represented as Θ1, Θn-x, and Θn. The light-transmitting film varies for each pixel so that a condition Θ0/Θ1>Θ0/Θn-x
摘要:
The present invention provides a contact-type solid-state imaging apparatus which realizes high resolution and high sensitivity, and also implements downsizing and lowering the cost of the contact-type solid-state imaging apparatus. Each pixel includes a protection glass plate, a light-collecting device, a light-receiving device, a semiconductor integrated circuit, a light emitting diode (LED) and a mounting package. The light-collecting apparatus has two kinds of distributed index lens (o lens and convex lens), and Sin (N=2) film, which is a two-stage concentric structure, is embedded in SiO2 (N=1.45) film.
摘要:
The image-capturing apparatus according to the present invention is an image-capturing apparatus including a solid-state imaging device which generates a first image by image-capturing a subject using a first exposure time, a predicted-flare generating unit which generates a predicted-flare image showing a flare component included in the first image, a subtracting unit which generates a difference image by subtracting the predicted-flare image from the first image, and an amplifying unit which generates an amplified image by amplifying the difference image.
摘要:
To provide a solid-state imaging device that can capture an image which is bright through to its periphery, even when used in a single-lens reflex digital camera that accepts various interchangeable lenses from wide-angle to telephoto. The solid-state imaging device includes a two-dimensional array of unit pixels each of which includes a light-collecting element. A light-collecting element in a unit pixel is a combination of circular-sector-shaped light-collecting elements having different concentric structures. A central axis of the concentric structures is perpendicular to a light-receiving plane of the light-collecting element. Each of the circular-sector-shaped light-collecting elements is divided into concentric zone areas of a width equal to or smaller than a wavelength of incident light. Thus, an image which is bright through to its periphery can be captured even when light incident on a unit pixel changes from wide-angle to telecentric (chief rays are approximately parallel to an optical axis).
摘要:
The present invention provides a solid-state imaging apparatus and the like which is able to support an optical system whose incident angle is wide. Each pixel is 2.25 μm square in size, and includes a distributed index lens 1, a color filter (for example, for green) 2, an Al interconnections 3, a signal transmitting unit 4, a planarized layer 5, a light-receiving device (Si photodiodes) 6, and an Si substrate 7. The two-stage concentric circle structure of the distributed index lens is formed by SiO2 (n=2) with the film thickness 1.2 μm (“grey color”), the film thickness 0.8 μm (“dots pattern”) and the film thickness of 0 μm (“without pattern: white color”), and the medium surrounding the distributed index lens 1 is air (n=1).