Features a scientific-grade back-illuminated (BSI) sCMOS sensor with massive 18μm pixels, providing 8x higher sensitivity than standard 6.5μm sensors. This architecture significantly improves light absorption and signal-to-noise ratio, ensuring clear signal capture in extremely low-light environments.

Our deeply optimized CMOS sensor and low-noise circuit design break the noise floor barrier, reducing readout noise to an industry-leading 0.31e⁻. This sub-electron performance provides a superior EMCCD alternative without multiplicative noise or gains aging.

Precise photon-level statistics are achievable thanks to the ultra-low 0.31e⁻ readout noise floor. Imaging noise strictly follows a Poisson distribution, meeting the high-precision requirements for quantum optics, single-atom imaging, and single-molecule microscopy.

Multi-stage TEC cooling (≥60℃ differential) combined with a professional high-temperature vacuum welding process (leak rate ≤10⁻⁹ Pa·m³/s) eliminates dark current interference. At -30℃, dark current is suppressed to a record 0.007e⁻/pixel/s.

Advanced on-board correction algorithms reduce Dark Signal Non-Uniformity (DSNU) to 0.2e⁻, significantly minimizing random signal interference. This ensures excellent light response linearity and stable image details for highly accurate scientific data reproduction.