The Beretta 92FS Inox 9mm Semi-Auto Pistol combines durability, precision, and reliability in a sleek stainless steel design. Crafted with a stainless finish, this firearm is built for both performance and aesthetic appeal. It features a double/single action mechanism that provides a smooth and consistent shooting experience, making it suitable for both professional use and personal defense. The 92FS Inox is equipped with a 3-dot sight system for quick target acquisition and enhanced accuracy in various lighting conditions. Its alloy frame with black plastic grips ensures a comfortable and secure hold during use. The pistol comes with two 10-round magazines, providing ample capacity for extended shooting sessions or self-defense situations. With an overall length of 8.5 inches and weighing approximately 33.3 ounces, the 92FS Inox balances portability with stability. This model is manufactured in the USA and complies with California regulations, making it a versatile choice for a wide range of users. Whether you're an experienced shooter or a firearm enthusiast, the Beretta 92FS Inox offers dependable performance and enduring quality. Its robust construction and thoughtful features make it ideal for both duty and recreational shooting, delivering confidence with every shot fired.
Features:
- Made in USA: Crafted with high manufacturing standards for reliability and quality
- California Compliant: Meets state regulations for legal ownership and use
- Caliber: 9mm for versatile and effective performance
- Semi-Auto Action: Double and single action for smooth operation
- Capacity: 10+1 round magazine capacity for extended shooting
- Finish: Stainless steel for corrosion resistance and a sleek appearance
- Sights: 3-dot sight system for quick and accurate target acquisition
- Frame: Alloy frame with black plastic grips for durability and comfort
- Magazines Included: Two 10-round magazines for convenience and readiness
- Overall Length: 8.5 inches for a balanced profile
- Weight: Approximately 33.3 ounces for stability without sacrificing maneuverability
