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4MP MIPI Low-Light Camera Module

AC-001-OS04A10

A 4MP MIPI camera module for low-light imaging, HDR scenes, and enhanced near-infrared response

Built around the OmniVision OS04A10 image sensor, AC-001-OS04A10 combines 2688 × 1520 output, 2.9 μm × 2.9 μm pixels, 1/1.79-inch optical format, and F1.0 optics in a compact camera module for AI vision, security, robotics, UAV, and industrial inspection.

Key Module Highlights

Core imaging characteristics defined directly by the released datasheet.

1/1.79" Optical Format

A large optical format and 7.84 mm × 4.45 mm imaging area provide a stronger light-capture foundation for low-light scenes.

2.9 μm Pixels

The sensor uses 2.9 μm × 2.9 μm pixels to improve sensitivity, control noise, and preserve image detail under dim lighting.

F1.0 Lens System

The module ships with an F1.0 lens, M16 × P0.5 mount, manual focus, and a 4.37 mm effective focal length.

HDR + NIR Ready

Supports single-, dual-, and triple-exposure HDR modes, with enhanced NIR QE for low-light and infrared-assisted imaging.

AC-001-OS04A10 module front view

Core Imaging Capabilities

What the module is designed to do according to the current datasheet and sensor capabilities.

// LOW LIGHT / HDR / NIR

Ultra-Low-Light Imaging

Built around OS04A10 with Nyxel near-infrared enhancement and large 2.9 μm pixels to maintain usable image output in dim and weak-light environments.

HDR Imaging

Supports HDR RAW output with single-, dual-, and triple-exposure HDR modes for scenes with strong contrast, backlight, or mixed illumination.

Enhanced NIR Response

Optimized for near-infrared imaging and suitable for 850 nm or 940 nm IR illumination scenarios where night visibility matters.

Compact System Integration

Designed with MIPI output, SCCB control, M16 lens interface, manual focus, and compact packaging for practical integration into intelligent systems.

Technical Specifications

Sensor Specifications

SensorOmniVision OS04A10
Resolution4MP
Effective Pixels2688 × 1520
Pixel Size2.9 μm × 2.9 μm
Optical Format1/1.79"
Imaging Area7.84 mm × 4.45 mm
Scan TypeProgressive Scan
Shutter TypeRolling Shutter
Output Format12-bit RAW / HDR RAW
HDR ModesSingle / Dual / Triple Exposure HDR
Max Frame Rate30 fps @ 1520p (Triple-Exposure HDR)
Image InterfaceMIPI CSI-2 (up to 4 lanes) / LVDS
Control InterfaceSCCB (I2C-compatible)
Operating VoltageAnalog 2.8 V / Digital 1.2 V / IO 1.8 V
Power ConsumptionApprox. 300 mW
Operating Temperature-30°C to +85°C
CRA
NIR PerformanceEnhanced NIR QE supported

Optical Specifications

Matched Resolution2688 × 1520 (4MP)
Matched Format1/1.8"
Lens Structure1G7P
FocusManual
Minimum Object Distance2.0 m
MountM16 × P0.5
Effective Focal Length4.37 mm ±5%
F NumberF1.0 ±10%
TTL22.3 mm ±0.2 mm
OBFL4.47 mm ±0.2 mm
MBFL4.0 mm ±0.2 mm
Image CircleØ9.2 mm (Max)
FOVH 109.0° / V 57.5° / D 131.6°
Relative Illumination38.30%
Lens CRA14.62°
TV Distortion-16.70%
Optical Distortion-54.70%

MIPI CSI-2 Interface And Integration

Module-side interface, control signals, and integration points drawn from the released AC-001-OS04A10 datasheet.

Image Data Interface

MIPI CSI-2 output with 4 data lanes and 1 clock lane; LVDS support is also available at the sensor level.

Control Signals

Configuration via I2C/SCCB, with dedicated CAM_RST, POWER_DOWN, and INCK input signals for system control.

Power Input

Module-side input is VDD_5V0, supplied through multiple parallel power pins, with multiple dedicated ground pins.

Hardware Notes

Main signal paths reserve 0R series resistors for tuning and impedance adjustment during integration and validation.

Target Applications

Search-relevant deployment scenarios supported by the module positioning and published hardware capabilities.

UAV Vision Systems
Security Monitoring
AI Recognition Devices
Robot Vision
Industrial Inspection
Intelligent Access Control

Integration Notes

Final image performance depends on the complete system stack, not only the sensor itself.

Lens aperture, transmittance, and stray-light control all affect the final low-light result.
IR filter characteristics and day/night switching strategy directly influence NIR performance.
Main platform ISP tuning for denoise, HDR merge, sharpening, and color processing remains critical.
IR illuminator wavelength, power, divergence angle, and installation position affect night-time output.
Exposure, gain, frame rate, and shutter configuration should be validated at system level.

Need A 4MP Low-Light MIPI Camera Module?

Contact AIMORELOGY for datasheet access, evaluation support, and integration guidance for security, robotics, UAV, and industrial vision projects.