Abstract: Embodiments of the application provide an on-board interactive assisted driving method, an on-board electronic device and a storage medium. The on-board interactive assisted driving method includes: obtaining dual-light image data acquired by an on-board camera, wherein the dual-light image data includes infrared image data and visible-light image data; determining a local display mode of a host end, and on the basis of the dual-light image data, displaying, on a display interface of the host end, a target-type on-board video corresponding to the local display mode; and after a communication connection with an intelligent terminal is established, determining a terminal display mode of the intelligent terminal, obtaining, on the basis of the dual-light image data, a target-type video source corresponding to the terminal display mode, and sending the target-type video source to the intelligent terminal for display.

Abstract: Three-light binoculars comprises: a binocular barrel, including a visible-light barrel, an infrared barrel, and a laser window; a core assembly, including a visible-light core assembly, an infrared core assembly, and a laser rangefinder; a system-on-chip board, connected to the visible-light core assembly, the infrared core assembly, and the laser rangefinder respectively, for processing and fusing the visible-light images and the infrared images, and receiving the ranging results; a housing, connected to the binocular barrel at its front end and to an eyepiece system at its rear end, forming a space for accommodating the core assembly and the system-on-chip board; and the eyepiece system, including two eyepieces, each of which is provided with a display in signal connection to the system-on-chip board.

Abstract: A vehicle-mounted driver-assistance instrument includes a host body and a bracket member. The host body includes a controller connected to an on-board camera, and a display screen, and the display screen is arranged on one side of the host body. The controller controls the display screen to display in-vehicle images generated from image data acquired by the on-board camera. The bracket member is rotatably connected to the host body, and rotates with respect to the host body to a stand state or a stowed state. When the bracket member rotates to the stand state, the bracket member and the host body form a mounting position for mounting an intelligent terminal device. When the bracket member rotates to the stowed state, the bracket member is stowed on the host body. The vehicle-mounted driver-assistance instrument integrates the host body with the bracket member, providing a storage function for the bracket member.

Abstract: A ballistic calculation method includes: in a front mode, displaying an aiming reference point in a front imaging picture; adjusting a movement amount of the front imaging picture in response to a movement adjustment operation for the front imaging picture to align the aiming reference point with a reticle center of a main scope, wherein an imaging light type of the front scope is different from an imaging light type of the main scope; acquiring a target distance value of an aiming target; and determining a current ballistic offset value for the aiming target based on the target distance value and ballistic table data, and displaying a ballistic calculation reticle in the front imaging picture based on the current ballistic offset value, thus allowing a sighting operation to be performed on the aiming target according to the position of the ballistic calculation reticle with respect to the reticle center.

Abstract: The present application provides a connection structure and an aiming device. The connection structure for connecting a first device and the second device comprises a first connection assembly and a quick-clamp assembly. The first connection assembly is used for connecting with the first device, and comprises a first connecting member and a first magnetic-attraction portion arranged on the first connecting member. The quick-clamp assembly is used for respectively connecting with the first connection assembly and the second device, and comprises a second magnetic-attraction portion. The second magnetic-attraction portion is used for attracting the first magnetic-attraction portion to fix the first connection assembly on a preset position of the quick-clamp assembly. The connection structure and the aiming device provide in the present application enables the aiming device to be quickly mounted onto a firearm, facilitating user operation.

Abstract: A thermal imager connecting device, includes a clamping member and a protective housing. The clamping member is rotatably connected to a front end of the protective housing. A lower Picatinny rail connecting portion is arranged at a lower end of the protective housing; and/or, an upper Picatinny rail connecting portion is arranged at an upper end of the protective housing; and/or, a side Picatinny rail connecting portion is arranged on a side of the protective housing, and each of the lower Picatinny rail connecting portion, the upper Picatinny rail connecting portion and the side Picatinny rail connecting portion is a Picatinny rail or a Picatinny rail slot. A smart display device is clamped by the clamping member, a thermal imager can be mounted and protected by the protective housing, and the protective housing is connected to an external device provided with a Picatinny rail slot or a Picatinny rail.

Abstract: A reticle adjusting structure includes a reticle plate, a beam combination lens, and a magnification variation lens set arranged in sequence along a visible-light optical axis, and a display module arranged outside of the visible-light optical axis. The beam combination lens includes a first light entry surface and a second light entry surface that are arranged opposite to each other and respectively face a visible light signal incidence direction and the display module. A visible light signal of a target field of view passes through the reticle plate to get incident on the first light entry surface, and is then transmitted to the magnification variation lens set. The reticle plate, the beam combination lens, the magnification variation lens set and the display module are interconnected together to form an integrated lens set that is collectively movable together, in order to realize collective adjustment during a reticle adjusting course.

Abstract: The application provides a sighting control method based on human detection, a product, a device and a medium. The sighting control method based on human detection includes: acquiring a current scene image in a current field of view of a sighting device; determining whether there is a human target currently being aimed according to a target recognition result of the current scene image and the position of an aiming mark in the current scene image; detecting whether a shooting action occurs if it is determined that there is a target human currently being aimed at; and controlling the sighting device to self-destroy if a shooting action occurs.

Abstract: A reticle adjusting structure includes a reticle plate, a beam combination lens, and a relay lens assembly arranged in sequence along a visible-light optical axis, and a display module arranged outside of the visible-light optical axis. The beam combination lens includes a first light entry surface and a second light entry surface that are arranged opposite to each other and respectively face a visible light signal incidence direction and the display module. A visible light signal of a target field of view passes through the reticle plate to get incident on the first light entry surface of the beam combination lens, and is then transmitted to the relay lens assembly. The reticle plate, the beam combination lens, the relay lens assembly and the display module are interconnected together to form an integrated lens set that is collectively movable together, in order to realize collective adjustment during a reticle adjusting course.

Abstract: The application provides a sighting control method based on human detection, a product, a device and a medium. The sighting control method based on human detection includes: acquiring a current scene image in a current field of view of a sighting device; determining whether there is a human target currently being aimed according to a target recognition result of the current scene image and the position of an aiming mark in the current scene image; detecting whether a shooting action occurs if it is determined that there is a target human currently being aimed at; and controlling the sighting device to self-destroy if a shooting action occurs.

Abstract: A human detection and warning method includes: acquiring a current scene image within a current field of view of a sighting device; determining whether there is a human target being currently aimed at and/or whether there is currently target tracking of a human target, based on a target recognition result of the current scene image and a position of an aiming mark in the current scene image; and triggering the sighting device to enter an abnormal aiming mode if there is a human target being currently aimed at and/or there is currently target tracking of a human target.

Abstract: A human detection and warning method includes: acquiring a current scene image within a current field of view of a sighting device; determining whether there is a human target being currently aimed at and/or whether there is currently target tracking of a human target, based on a target recognition result of the current scene image and a position of an aiming mark in the current scene image; and triggering the sighting device to enter an abnormal aiming mode if there is a human target being currently aimed at and/or there is currently target tracking of a human target.

Abstract: The present application provides a dual-light fusion night vision device, comprising a first display lens assembly, a second display lens assembly, and a bridge bracket assembly. The first display lens assembly includes: a first barrel; a first low-light objective group, disposed along a first low-light optical axis on the first barrel; and an infrared lens group, disposed along an infrared optical axis on the first barrel. The second display lens assembly includes: a second barrel; and a second low-light objective group, disposed along a second low-light optical axis on the second barrel. The bridge bracket assembly connects the first display lens assembly and the second display lens assembly in such a way that the first low-light optical axis is parallel to the second low-light optical axis. The first display lens group employs a dual-light fusion solution, achieving the visual effect of fused low-light imaging and infrared imaging.

Abstract: An infrared image processing method, apparatus and device, and a storage medium are provided. The infrared image processing method includes: acquiring an infrared image; performing target detection on the infrared image to determine target objects within the infrared image and obtaining a target detection result that include a category of each of the target objects; determining a target object of interest from the target objects; determining a contour area of the target object of interest; performing true-color processing on the contour area to highlight the target object of interest. By highlighting the target object of interest in the infrared image through true-color processing, the target object of interest can be displayed more prominently with different colors and textures according to its category, so that the target object of interest can be presented more clearly in the infrared image clearer and easier for the human eye to observe and recognize.

Abstract: A low-light night vision device includes a first monocular assembly. The first monocular assembly includes: a housing including a lens barrel and a front cover plate mounted to the lens barrel; a low-light objective lens group mounted on the front cover plate; an image intensifier bracket arranged at a rear end of the low-light objective lens group, and including a mounting barrel, an adjustment thread ring and an elastic member, the mounting barrel configured to allow an image intensifier to be mounted therein; an eyepiece group arranged at the rear end along the low-light optical axis. The adjustment thread ring is connected to the front cover plate and the mounting barrel, respectively, with threaded connections in opposite directions, so that the mounting barrel and the front cover plate move toward or away from each other along the low-light optical axis upon rotation of the adjustment thread ring.

Abstract: Three-light binoculars comprises: a binocular barrel, including a visible-light barrel, an infrared barrel, and a laser window; a core assembly, including a visible-light core assembly, an infrared core assembly, and a laser rangefinder; a system-on-chip board, connected to the visible-light core assembly, the infrared core assembly, and the laser rangefinder respectively, for processing and fusing the visible-light images and the infrared images, and receiving the ranging results; a housing, connected to the binocular barrel at its front end and to an eyepiece system at its rear end, forming a space for accommodating the core assembly and the system-on-chip board; and the eyepiece system, including two eyepieces, each of which is provided with a display in signal connection to the system-on-chip board.