Abstract: Provided in the present application are a camera module and a manufacturing method therefor. The camera module includes: a photosensitive assembly including a circuit board; a first lens structure, which is provided on a photosensitive path of the photosensitive assembly; a second lens structure, which is provided between the first lens structure and the photosensitive assembly, wherein the first lens structure and the second lens structure are jointly used for imaging, and the first lens structure is provided farther away from the photosensitive assembly than the second lens structure; a focusing assembly, which is electrically connected to the circuit board, and which is used to constrain the movement of the second lens structure along the optical axis direction of the first lens structure; and an anti-shake assembly, which is electrically connected to the circuit board, and which is used to drive the photosensitive assembly to move on a plane perpendicular to the optical axis of the first lens structure.

Abstract: The present application relates to an optical image stabilization camera module, comprising: a lens; a photosensitive assembly having a photosensitive chip; a first driving part adapted to drive the lens to translate in x-axis and y-axis directions; and a second driving part comprising a second basic portion and a second movable portion, the second driving part having four side surfaces, wherein each side surface is provided with two interlaced SMA wires, and both ends of each SMA line are connected to a fixed end of the second basic portion and a fixed end of the second movable portion, respectively; each of the fixed ends is located at a corner area of the second basic portion or the second movable portion.

Abstract: Provided is an adjustable optical assembly (900), including a bearing base (921), a driving mechanism (910), a zoom optical assembly (200), and a compensating optical assembly (300). The driving mechanism (910) includes: a bracket (911) having a bottom end connected to the bearing base (921) and a top end having a top groove (911a) open upwards; guide rods (912, 913) supported on the top groove (911a), the guide rods (912, 913) coinciding with the direction of optical axes of the zoom optical assembly (200) and the compensating optical assembly (300); a zoom bearer (914); a compensating bearer (915); a zoom driving assembly; and a compensating driving assembly. The zoom bearer (914) and the compensating bearer (915) are both mounted on the guide rods (912, 913) and slidable along the guide rods (912, 913). Also provided are a corresponding periscopic optical zoom module and an assembly method therefor.

Abstract: This invention provides a camera module having a chamfer, a photosensitive assembly, a preparation method, and an electronic device. The photosensitive assembly of the camera module having the chamfer includes: a photosensitive element; a circuit board, wherein the photosensitive element is electrically connected and attached to the circuit board, and wherein the circuit board has a circuit board chamfer; and a molded body having a light window and a molded body chamfer, wherein the molded body chamfer and the circuit board chamfer are correspondingly arranged to form a chamfer portion suitable for forming a chamfer structure of the camera module, and wherein the molded body is molded on the circuit board and encapsulates the photosensitive element, so that the camera module may be installed at a corner of the electronic device, thereby increasing the screen-to-body ratio.

Abstract: Provided is a periscopic camera module, which includes a first reflective element mounted on a first base, an optical lens mounted on a second substrate, a second reflective element mounted on a third substrate, and a photosensitive chip mounted on a fourth substrate. Particularly, the first reflective element is used to reflect the incident light to make it longitudinally turned; the optical lens is used to receive the reflected light which is longitudinally turned and output an imageable light beam; the second reflective element is a second prism, which is adapted to laterally turn the imageable light beam at least once and has a reflecting surface located on a side surface of the second prism; and the photosensitive chip is adapted to receive the imageable light beam laterally turned by the second reflective element. Also provided is a corresponding electronic device.

Abstract: An optical lens (1000), comprising a first lens element (110) and a second lens component (200). The first lens element (110) has a first surface (112) located on an object side and a second surface (117) located on an image side, wherein a central region of the first surface (112) protrudes toward the object side to form a protruding portion (111), a top surface (113) of the protruding portion (111) forms an optical area (113a), the first surface (112) further has a first structured area (115) surrounding the protruding portion (111), and a side surface (114) connects the optical area (113a) and the first structured area (115). The second lens component (200) comprises a second lens barrel (220) and at least one second lens element (210) mounted inside the second lens barrel (220), and the at least one second lens element (210) and the first lens element (110) together constitute an imageable optical system.

Abstract: Disclosed is a periscopic camera module, including: a first reflective element including a first reflective surface and used to reflect incident light and make the incident light longitudinally turn; an optical lens used to receive the light reflected by the first reflective element and output an imageable light beam to an image space; a second reflective element including at least one second reflective surface and adapted to make the imageable light beam transversely turn at least once; and a photosensitive chip adapted to receive the transversely turned imageable light beam, wherein at least one of all optical surfaces of the first reflective element and the second reflective element is provided with a light blocking structure, and the light blocking structure is arranged at an edge region of the at least one optical surface; and the optical surface includes a reflective surface, an incident surface, or an eixt surface.

Abstract: This invention provides a camera module having a chamfer, a photosensitive assembly, a preparation method, and an electronic device. The photosensitive assembly of the camera module having the chamfer includes: a photosensitive element; a circuit board, wherein the photosensitive element is electrically connected and attached to the circuit board, and wherein the circuit board has a circuit board chamfer; and a molded body having a light window and a molded body chamfer, wherein the molded body chamfer and the circuit board chamfer are correspondingly arranged to form a chamfer portion suitable for forming a chamfer structure of the camera module, and wherein the molded body is molded on the circuit board and encapsulates the photosensitive element, so that the camera module may be installed at a corner of the electronic device, thereby increasing the screen-to-body ratio.

Abstract: A camera module with chamfer, a photosensitive component and an electronic device are provided. The camera module includes at least one chamfer portion suitable for being installed at a corner of the electronic device frame; an optical lens; and a photosensitive component, wherein the photosensitive component has a second chamfer portion, wherein the second chamfer portion is for forming the chamfer portion, wherein the photosensitive component includes a photosensitive element, a circuit board and a lens holder, wherein the photosensitive element is electrically connected to the circuit board, and the lens holder supports the optical lens in the photosensitive path of the photosensitive element, wherein the lens holder has a light window arranged on a photosensitive path of the photosensitive element, so that the camera module is suitable for being installed in a corner of a frame of the electronic device, which increases the screen-to-body ratio.

Abstract: The present invention discloses a trans-seasonal cold-storage heat-storage system, comprising an ice-source heat pump, an ice-making machine set, a trans-seasonal energy-storage tank, an exergonic heat exchanger, an air conditioning pump and a cooling heat-storage pump, wherein the condenser in the ice-source heat pump communicates sequentially with the cooling heat-storage pump and the cooling tower via a circulation pipeline, the condenser in the ice-source heat pump further communicates sequentially with the cooling heat-storage pump and the trans-seasonal energy-storage tank via a circulation pipeline, the condenser in the ice-source heat pump further communicates sequentially with the air conditioning pump and the air conditioning cold and heat terminal via a circulation pipeline, to form a circulation loop for supplying heat to the air conditioning cold and heat terminal in winter.

Abstract: The present invention discloses a trans-seasonal cold-storage heat-storage system, comprising an ice-source heat pump, an ice-making machine set, a trans-seasonal energy-storage tank, an exergonic heat exchanger, an air conditioning pump and a cooling heat-storage pump, wherein the condenser in the ice-source heat pump communicates sequentially with the cooling heat-storage pump and the cooling tower via a circulation pipeline, the condenser in the ice-source heat pump further communicates sequentially with the cooling heat-storage pump and the trans-seasonal energy-storage tank via a circulation pipeline, the condenser in the ice-source heat pump further communicates sequentially with the air conditioning pump and the air conditioning cold and heat terminal via a circulation pipeline, to form a circulation loop for supplying heat to the air conditioning cold and heat terminal in winter.