Sig Sauer Romeo 5 Gen II Green Dot - SOR5102

Sig Sauer SOR5102 ROMEO5 Gen II 1x20mm Green Dot Sight The Sig Sauer ROMEO5 Gen II 1x20mm Green Dot Sight SOR5102 is a compact durable red dot sight designed for quick target acquisition and accuracy. It features a 20mm lens with a 1x magnification and offers a versatile reticle with 2 MOA (Minute of Angle) dot for precise aiming. The Sig Sauer SOR5102 sight is equipped with an efficient auto-adjusting brightness setting and has a rugged waterproof design to withstand harsh conditions. It operates on a single CR2032 battery with a long battery life and includes easy-to-use controls for adjusting the reticle's brightness and windage/elevation settings. Overall it's a reliable option for both tactical and recreational shooting.Introducing the next evolution of SIG SAUER ELECTRO-OPTICS' acclaimed ROMEO5 series: the Sig Sauer ROMEO5 GEN II. This advanced sight features a bold new design and delivers a rugged 1x aiming solution for both civilian and professional use. Its crisp 2 MOA red or green dot powered by a readily replaceable CR2032 battery ensures precise targeting. Thanks to SIG SAUER's MOTAC technology the ROMEO5 GEN II offers an impressive 40000-hour battery life under standard conditions.The optic is equipped with top-mounted ambidextrous controls providing 10 daylight and 2 night vision settings to easily adapt to any environment. Designed to endure the harshest conditions the ROMEO5 GEN II is IPX7 rated for waterproof and fog-proof performance. The interchangeable I-BEAM Mount enhances situational awareness by providing a versatile mounting system.Elevate your shooting accuracy and reliability with the proven performance of SIG SAUER's ROMEO5 GEN II optic.Sig Sauer ROMEO5 GEN II Features:Ruggedized Industrial DesignI-BEAM Mount for maximizing situational awareness12 Settings (10 Day + 2 NV)40000 hrs Runtime with CR2032 Battery and MOTAC(TM) Motion ActivatedTop Mount Illumination Controls for Ambidextrous OperationDependable IPX7 Waterproof and Fog-Proof PerformanceParallax-Free Optical Design