Product description
AKG DMS100 professional digital wireless systems for performers and presenters combine signature AKG sound quality and four channels of rock-solid, license-free 2.4GHz operation with advanced security features, extended battery life and the ultimate ease-of-use. The DMS100 provides crisp, studio-quality sound with none of the interference found in analog wireless systems. Combined with ultra-low latency, these features make the DMS100 a joy for singers and instrumentalists. And with the signal security provided by AES 256-bit encryption, presenters can feel at ease in confidential settings. Unrivaled fidelity, security and performance make the AKG DMS100 the ideal digital wireless solution for performing musicians, corporate and government presenters, houses of worship, fitness instructors, educators and anyone who seeks both studio-quality sound and freedom of movement onstage.
Product features
- Plug and Play
DMS100 systems were designed from the ground up for intuitive operation. Channel pairing is push-button painless, with color-coding for easy identification. Adaptive channel selection takes the guesswork out of locating available wireless channels. And up to four DMS100 systems can be synced and used simultaneously. - A focus on fidelity
Enjoy pristine, studio-quality sound: the DMS100 handheld transmitter features an authentic AKG microphone capsule and acoustical engineering, and both the handheld transmitter and bodypack offer 24-bit, 48kHz resolution and a linear frequency response. Plus, digital transmission means you'll encounter none of the interference found in traditional analog wireless systems. - Secure communications
Sharing sensitive information? Trust the DMS100's built-in advanced AES 256-bit encryption to protect your signal and keep your wireless audio communications private. Perfect for confidential corporate or government settings. - Rock-solid 2.4GHz operation
The wireless universe is constantly evolving, posing challenges for operating analog wireless microphone systems within increasingly narrow frequency allocations.
