Yunnan Northern Aolide

Digital sights are next-generation, intelligent optoelectronic aiming devices that integrate optical lenses, image sensors, embedded processing units, and high-definition display modules, setting them apart from traditional all‑optical observation equipment. By capturing real‑world imagery and applying advanced algorithms, the device overlays digital markings, environmental data, and calculated information onto the display, enabling visualized, intelligent observation. The product combines image acquisition, digital reticle marking, environmental sensing, and image storage in a single platform. It supports high‑definition daytime observation as well as imaging in low‑light conditions, meeting the demands of all‑weather, long‑range surveillance tasks, and is suitable for a wide range of professional applications requiring fixed‑point monitoring, long‑range target identification, and on‑site recording.

Traditional optical observation equipment is highly dependent on ambient illumination, and in conditions such as nighttime, overcast skies, tree shade, or low‑light blind spots, it suffers from blurred vision, loss of fine details, and an inability to identify targets—making it difficult to meet operational standards for all‑weather, routine surveying, inspection, and security monitoring.

AR/VR/MR constitute the core technologies of the next-generation XR—extended reality. By integrating computer vision, 3D modeling, spatial positioning, real-time rendering, and human–computer interaction, they transcend the limitations of traditional two-dimensional screens, enabling deep fusion between real-world scenes and virtual data, real-time synchronization, and immersive interaction. Compared with conventional text‑and‑image or video‑based presentation methods, mixed‑reality technology can precisely overlay data, models, instructions, and annotations onto physical spaces or fully realistic virtual environments, significantly enhancing operational visualization, task accuracy, and information‑transfer efficiency. It is widely deployed in specialized applications such as hands‑on training and simulations, on‑site operations, remote assistance, visual inspection, and digital sandbox modeling.

A head-mounted display (HMD) is the core visual interface of AR/VR/MR extended reality systems, integrating a miniature display module, an optical system, multi-axis motion sensors, environmental‑sensing cameras, and an embedded image‑processing unit. Unlike fixed screens, the device synchronously tracks and responds to head movements, projecting digital information—such as images, parameters, gauges, and 3D models—directly into the user’s field of view. This frees the hands, enabling real-time data access, overlaid annotations, and scene‑based simulations during operations.

FPV, or First-Person View, is a system comprising a front-end image‑capture unit, a wireless transmission link, a receiving terminal, and a display module. Unlike traditional fixed‑point observation, FPV can be mounted on a mobile platform, capturing dynamic scene imagery in sync with the vehicle’s movement. It transmits live video back to a ground‑based receiver or a helmet‑mounted display with low latency, allowing operators to experience the scene as if they were aboard the platform, thereby enabling remote, complex‑terrain scene monitoring, target identification, and environmental reconnaissance.

The VF electronic viewfinder is a built-in visual display unit for electro‑optical imaging systems, integrating a miniature display chip, an optical magnification module, and a drive‑processing unit. Unlike traditional optical viewfinders, the EVF directly presents the real‑time image captured by the image sensor and can simultaneously overlay various sensor data and digital annotations. With its compact form factor, it can be seamlessly incorporated into digital sights, FPV receivers, and head‑mounted observation devices, enabling operators to view live imagery, parameter information, and superimposed markings through the eyepiece—unaffected by intense ambient light.

AMOLED microdisplays (silicon-based OLEDs, 0.5–1.5 inches) are core components of medical near-eye displays and portable imaging devices, meeting stringent clinical requirements and supporting precision diagnostics and minimally invasive procedures.

It is a precision quality inspection for high‑PPI silicon‑based OLED microdisplays used in AR/VR (0.5–1.5 inches), conducted throughout the manufacturing process and during mass production to ensure yield and near‑eye display image quality.