Abstract: A manufacturing method of an image sensor structure including the following steps is provided. A substrate structure is provided. A first patterned hard mask layer is formed on the substrate structure. The first patterned hard mask layer has a first opening. A first ion implantation process is performed on the substrate structure by using the first patterned hard mask layer as a mask to form a first isolation region in the substrate structure. A first hard mask layer is formed on the first patterned hard mask layer. The first hard mask layer is formed in the first opening to form a first recess. The width of the first recess is smaller than the width of the first opening. A second ion implantation process is performed on the substrate structure by using the first hard mask layer as a mask to form a doped region in the substrate structure.

Abstract: An intrusion detection apparatus and method thereof are provided. The intrusion detection apparatus includes a status detection device, a front-end signal processor, a delay device, and a signal sampler. The status detection device is configured to generate an indicating signal according to an opened status of the case. The front-end signal processor receives the indicating signal and performs a noise filtering function on the indicating signal so as to generate a processed indicating signal. The delay device delays the processed indicating signal to generate a delayed indicating signal. The signal sampler samples the processed indicating signal to generate a detection result according to the delayed indicating signal.

Abstract: A detection circuit, including a first connecting terminal, an SPI bus, and a security component, is provided. The first connecting terminal is configured to be detachably connected to the main board. The security component is coupled to the first connecting terminal and the SPI bus. The security component forms a first loop with the main board, and is configured to detect a loop state of the first loop. The security component locks the SPI bus when the first loop is being detected by the security component to be disconnected.

Abstract: A detection circuit, including a first connecting terminal, an SPI bus, and a security component, is provided. The first connecting terminal is configured to be detachably connected to the main board. The security component is coupled to the first connecting terminal and the SPI bus. The security component forms a first loop with the main board, and is configured to detect a loop state of the first loop. The security component locks the SPI bus when the first loop is being detected by the security component to be disconnected.

Abstract: A method for designing an optical device which includes a lens and a microlens array is disclosed. A point spread function (PSF) of the lens including rotationally symmetrical aberration coefficients is formulated, wherein the PSF presents various spherical spot sizes. A virtual phase mask having phase coefficients is provided and the phase coefficients are added to the PSF of the lens, such that the various spherical spot sizes are homogenized. The virtual phase mask is transformed into a polynomial function comprising high and low order aberration coefficients. A surface contour of the lens is determined according to the rotationally symmetrical aberration coefficients and the low order aberration coefficients, and a sag height of each microlens in the microlens array is determined according to the high order aberration coefficients. An optical device using the design method is also disclosed.

Abstract: A method for designing an optical device which includes a lens and a microlens array is disclosed. A point spread function (PSF) of the lens including rotationally symmetrical aberration coefficients is formulated, wherein the PSF presents various spherical spot sizes. A virtual phase mask having phase coefficients is provided and the phase coefficients are added to the PSF of the lens, such that the various spherical spot sizes are homogenized. The virtual phase mask is transformed into a polynomial function comprising high and low order aberration coefficients. A surface contour of the lens is determined according to the rotationally symmetrical aberration coefficients and the low order aberration coefficients, and a sag height of each microlens in the microlens array is determined according to the high order aberration coefficients. An optical device using the design method is also disclosed.

Abstract: A multi-stack storage module board assembly includes a host board having an electric connector, multiple brackets mounted on the host board and fastened to one another in a stack, multiple multimedia storage devices respectively mounted in the brackets, and adapter modules mounted on support arms in the brackets to electrically connect the multimedia storage devices to the connector of the host board. Each adapter module has a first connector, which receives one multimedia storage device, a second connector connectable to the connector of the host board, and a third connector for receiving the second connector of another adapter module.