Abstract: A photoresist-removing composition includes a polar organic solvent, an alkyl ammonium hydroxide, an aliphatic amine not including a hydroxy group, and a monovalent alcohol. To manufacture a semiconductor device, a photoresist pattern may be formed on a substrate, and the photoresist-removing composition may then be applied to the photoresist pattern. To manufacture a semiconductor package, a photoresist pattern including a plurality of via holes may be formed on a substrate. A plurality of conductive posts including a metal may be formed inside the plurality of via holes, and the photoresist pattern may be removed by applying a photoresist-removing composition of the inventive concept to the photoresist pattern. A semiconductor chip may be adhered to the substrate between the respective conductive posts.

Abstract: A secure update is provided from a server to an end-point device. The server registers digital information, such as a name or a software package, and a verifiable key, such as a cryptographic hash, derived from the digital information. A publicly accessible transaction log stores the verifiable key in a block and provides an identifier of the block to the server. An end-point device receives the digital information and the identifier, and computes a separate verifiable key. The end-point device retrieves the verifiable key from the block of the publicly accessible transaction log, and compares the retrieved verifiable key to the separate verifiable key to determine whether the digital information has been compromised.

Abstract: A secure update is provided from a server to an end-point device. The server registers digital information, such as a name or a software package, and a verifiable key, such as a cryptographic hash, derived from the digital information. A publicly accessible transaction log stores the verifiable key in a block and provides an identifier of the block to the server. An end-point device receives the digital information and the identifier, and computes a separate verifiable key. The end-point device retrieves the verifiable key from the block of the publicly accessible transaction log, and compares the retrieved verifiable key to the separate verifiable key to determine whether the digital information has been compromised.

Abstract: A secure update is provided from a server to an end-point device. The server registers digital information, such as a name or a software package, and a verifiable key, such as a cryptographic hash, derived from the digital information. A publicly accessible transaction log stores the verifiable key in a block and provides an identifier of the block to the server. An end-point device receives the digital information and the identifier, and computes a separate verifiable key. The end-point device retrieves the verifiable key from the block of the publicly accessible transaction log, and compares the retrieved verifiable key to the separate verifiable key to determine whether the digital information has been compromised.

Abstract: An image processing apparatus includes an image acquiring unit and a controller. The image acquiring unit acquires a captured image capturing a subject illuminated by light from at least one light source. The controller generates adjustment information for adjusting an intensity of the light from the at least one light source on the basis of a size of a pupil of the subject determined from the captured image.

Abstract: The imaging apparatus comprises an image sensor and a controller. In the image sensor, charge accumulation and reading out in a plurality of pixels arranged in a two-dimensional array are controlled per line. The controller identifies one or more lines from lines of the image sensor to generate control information for controlling illumination light on the basis of the one or more lines identified.

Abstract: A mirror-attached imaging apparatus includes a semi-transmissive mirror through which at least some incident light can pass, an camera configured to capture a subject by receiving light passing through the semi-transmissive mirror, and a support configured to attach the semi-transmissive mirror and the camera to a vehicle body. The semi-transmissive mirror is movable relative to the support, and the camera is attached to the support.

Abstract: The imaging apparatus comprises an image sensor and a controller. In the image sensor, charge accumulation and reading out in a plurality of pixels arranged in a two-dimensional array are controlled per line. The controller identifies one or more lines from lines of the image sensor to generate control information for controlling illumination light on the basis of the one or more lines identified.

Abstract: A mirror-attached imaging apparatus includes a semi-transmissive mirror through which at least some incident light can pass, an camera configured to capture a subject by receiving light passing through the semi-transmissive mirror, and a support configured to attach the semi-transmissive mirror and the camera to a vehicle body. The semi-transmissive mirror is movable relative to the support, and the camera is attached to the support.

Abstract: An image processing apparatus includes an image acquiring unit and a controller. The image acquiring unit acquires a captured image capturing a subject illuminated by light from at least one light source. The controller generates adjustment information for adjusting an intensity of the light from the at least one light source on the basis of a size of a pupil of the subject determined from the captured image.

Abstract: A lens module includes: an optical element focusing a subject on an imaging device; a driver moving the optical element forward and backward along the optical axis direction when electric power is applied; and a holding section holding the optical element in at least two positions along the optical axis direction when the driver moves the optical element forward and backward.

Abstract: A lens module includes: an optical element focusing a subject on an imaging device; a driver moving the optical element forward and backward along the optical axis direction when electric power is applied; and a holding section holding the optical element in at least two positions along the optical axis direction when the driver moves the optical element forward and backward.