Neumann KH870 II AES67 2×10″ Reference Studio Subwoofer with AoIP Network Interface
Unlock the full potential of your studio sound with the Neumann KH870 II AES67 2×10″ Reference Studio Subwoofer with AoIP Network Interface. It is crafted to deliver powerful, deep bass down to 16 Hz with pristine clarity. This subwoofer brings the low-end presence that ensures every track hits with precision and impact.
Powerful Reference-Quality Bass for Immersive Audio
Firstly, the KH870 II AES67 offers unmatched bass extension through its innovative long-throw 10” woofers with Extremely Linear Force Factor (ELFF™) technology. Thus, ensuring deep, tight bass with exceptionally low distortion, even at high sound pressure levels. Whether you are mixing stereo or elaborate surround formats up to 7.1.4, it adapts perfectly with its unique Bass Manager.
Flexible Connectivity for Professional Setups
Moreover, with analog and AES3 outputs supporting up to 11 studio monitors, plus redundant AES67 audio-over-IP connectivity boasting 12 input channels, this subwoofer fits seamlessly into any studio environment. This extensive connectivity flexibility makes it ideal for complex immersive audio workflows demanding high reliability and precision.
Robust Design with Advanced DSP and Room Calibration Support
Additionally, it is constructed with a rigid cabinet and a highly efficient bass reflex system. Therefore, it is tuned for tight reproduction and inaudible port noise. Also, includes a protective grille guarding the drivers against damage. Lastly, the DSP control enhances sonic precision and supports the MA 1 Automatic Monitor Alignment (sold separately). Consequently, allowing easy room correction for optimal listening conditions.
- Deep and extremely powerful bass down to 16 Hz
- Flexible Bass Manager for systems up to 7.1.4
- DSP-controlled for unparalleled precision
- Analog and AES3 outputs for up to 11 monitors
- Redundant AES67 AoIP connectivity with 12 input channels
- Durable construction with protective grille and bass reflex system