The XTR Series XTR12SWD2 from Orion is an exceptional 12-inch shallow subwoofer that delivers a potent combination of deep bass and high power in a design optimized for spaces where depth is limited. This powerhouse subwoofer boasts a substantial 500W RMS and an impressive peak capacity of 2000W MAX, offering robust performance that satisfies even the most demanding audio enthusiasts. Equipped with dual 2 ohm voice coils, it provides flexible wiring options and enhances system efficiency, allowing for optimal power handling and quality sound reproduction.
Designed specifically for installations with space constraints, such as small trunks or under-seat areas in vehicles, the XTR12SWD2 excels in delivering rich, impactful bass without the bulk of traditional subwoofers. Its shallow mount configuration ensures that it can be integrated seamlessly into various types of vehicles without sacrificing sound quality or bass depth.
Constructed with high-grade materials and built to withstand intense bass output, the XTR12SWD2 features durable components that resist wear and tear over time, ensuring long-lasting performance. This subwoofer is the perfect choice for car audio system upgrades, providing powerful, precise bass that enhances the overall audio experience, making every drive more enjoyable and immersive. If you're looking to enhance your vehicle's sound system with deep, dynamic bass, the Orion XTR Series XTR12SWD2 shallow subwoofer stands out as a top-tier option that skillfully balances power, design, and exceptional sound quality.
- Dual 2 Ohm Voice Coils: Flexible wiring options with 3" copper-wound coils for enhanced durability.
- UV-Coated Paper/Fiber Cone: Delivers rigidity and superior sound responsiveness.
- NBR Rubber Surround: Provides excellent durability and allows extensive cone movement.
- Exclusive Heavy-Gauge Stamped Steel Basket: Increases structural integrity and reduces vibration.
- Nickel-Plated Push Terminals: Ensures reliable and easy connections.
- Shallow Mount Design: Perfect for installation in tight spaces without sacrificing performance.
