ATI Cavalry 20 Gauge 2.75" 2-Round Walnut Stock Over/Under Shotgun

The ATI Cavalry 20 Gauge 2.75" 2-Round Walnut Stock Over/Under Shotgun delivers reliable, time-tested performance for hunters, sport shooters, and tactical operators seeking a lightweight, versatile platform. Built by American Tactical Inc., this over/under design has earned respect in the field for its smooth cycling, manageable recoil profile, and quick follow-up shot capability inherent to the exposed-hammer configuration. Whether deployed for upland game, clay sports, or home defense scenarios, the Cavalry platform bridges affordability with dependable firearm engineering.

The 20-gauge chambering significantly reduces recoil energy compared to 12-gauge alternatives, making rapid, accurate shot placement more achievable for shooters of varying experience levels and physical builds. The walnut stock provides both traditional aesthetics and functional ergonomics—natural wood absorbs vibration effectively while the grip geometry encourages consistent mounting. At 7.2 pounds and 31.3 inches overall length, this shotgun balances maneuverability in tight spaces with sufficient weight distribution for stable aim and controlled recoil mitigation. The two-round capacity ensures focused, deliberate shooting appropriate for hunting regulations and tactical training disciplines where ammunition discipline matters.

This shotgun appeals to upland bird hunters, sport shooters competing in over/under disciplines, and responsible citizens prioritizing home-defense preparation without excessive ammunition capacity concerns. The exposed hammer system provides immediate, tactile confirmation of firing status—a critical advantage during dynamic scenarios where visual verification of readiness is secondary to trigger-control confidence. Standard 2.75-inch shells dominate the 20-gauge market, ensuring ammunition availability and cost-effectiveness. The compact footprint makes it suitable for vehicle storage, ranch work, and training environments where maneuverability exceeds the need for magazine-fed platform complexity.