Abstract:
An imaging apparatus in an embodiment includes lens optical systems each including a lens whose surface closest to the target object is shaped to be convex toward the target object, imaging regions which respectively face the lens optical systems and output a photoelectrically converted signal corresponding to an amount of light transmitting the lens optical systems and received by the imaging regions, and a light-transmissive cover which covers an exposed portion of the lens of each of the lens optical systems and a portion between the lens of one of the lens optical systems and the lens of another one of the lens optical systems adjacent to the one of the lens optical systems, the cover having a curved portion which is convex toward the target object. The optical axes of the lens optical systems are parallel to each other.
Abstract:
A display system includes a display surface and a display mirror. The display surface is configured to display image P1 based on a captured image. The display mirror is configured to reflect, as reflection image P2, only a partial area in the image displayed on the display surface. The display system is configured so that a position of reflection image P2 changes as a point of view of a subject viewing the display mirror moves.
Abstract:
An imaging apparatus includes a lens optical system, a color image sensor that includes at least first pixels and second pixels, and a first optical element array disposed between the lens optical system and the color image sensor. In the imaging apparatus, the lens optical system includes optical regions, and the optical regions include a first optical region and a second optical region that differ in terms of at least one selected from the group of spectral transmittance characteristics and transmissive polarization characteristics. The first pixels include respective spectral filters having mutually different spectral transmittance characteristics, and the second pixels include respective spectral filters having at least one type of spectral transmittance characteristics. The first optical element array directs light that has passed through the first optical region to the first pixels and directs light that has passed through the second optical region to the second pixels.
Abstract:
A display system includes a display unit, a housing, and a reflecting optical system. The display unit displays an image based on a captured image. The housing includes a housing room that houses the display unit and the reflecting optical system. The reflecting optical system reflects the image displayed on the display unit, thereby outputting the reflected image through an opening of the housing to the outside of the housing.
Abstract:
An imaging apparatus comprises a lens optical system including a lens and having first through nth optical regions (n is an integer equal to or greater than 2), an image sensor including pixel groups each including first through nth pixels, an optical element array disposed between the lens optical system and the image sensor and including optical components each guiding light that has passed through the first through nth optical regions to the respective first through nth pixels in each of the pixel groups, and an optical absorption member on which light reflected by the imaging surface of the image sensor is incident. The optical absorptance of the optical absorption member is substantially uniform across the entire wavelength bands of light that passes through the first through nth optical regions and is substantially uniform across the entire optical absorption member.
Abstract:
An imaging device includes: an optical system having a lens and a diaphragm; an image sensor having a first pixel and a second pixel which a light that has passed through the optical system enters; and an optical element array positioned between the optical system and the image sensor, the optical system has an optical filter including a first region and a second region having different optical characteristics, the optical element array makes the light that has passed through the first region enter the first pixel and makes the light that has passed through the second region enter the second pixel, and an entrance pupil of the optical system is located between the diaphragm and an object.
Abstract:
An imaging apparatus according to one aspect of the present disclosure includes an optical system, an image sensor, an optical element array which is positioned between the optical system and the image sensor, a memory that stores a group of coefficients configured with a matrix of n rows and n columns in which elements are expressed by Rik (i and k being integers that satisfy 1≦i≦n and 1≦k≦n), and a processor that receives the group of coefficients from the memory and calculates n converted pixel signals x′1, x′2, . . . , x′n from n pixel signals x1, x2, . . . , xn by the following equation. ( x 1 ′ x 2 ′ ⋮ x n ′ ) = ( R 1 , 1 R 1 , 2 … R 1 , n R 2 , 1 R 2 , 2 … R 2 , n ⋮ ⋮ ⋱ ⋮ R n , 1 R n , 2 … Rn , n ) ( x 1 x 2 ⋮ x n )
Abstract translation:根据本公开的一个方面的成像装置包括光学系统,图像传感器,位于光学系统和图像传感器之间的光学元件阵列,存储器,其存储由n个矩阵构成的系数组 行和n列,其中元素由Rik表示(i和k是满足1≦̸ i≦̸ n和1≦̸ k≦̸ n)的整数;以及处理器,其从存储器接收系数组,并计算n个转换的像素信号 x'1,x'2,。 。 。 ,从n个像素信号x1,x2,x'n。 。 。 ,xn通过以下等式。 (x 1'x 2'⋮xn')=(R 1,1 R 1,2 ... R 1,n R 2,1 R 2,2 ... R 2,n⋮⋮⋱⋮R n,1 R n, 2 ... Rn,n)(x 1 x 2⋮xn)