PERFECTWAVE AudioQuest Vodka Optical

While optical cables are not our first choice for connecting high-performance audio gear together, it is a ubiquitous interface in the world of video and home entertainment. Using AudioQuest Vodka optical to connect your PerfectWave 2-channel system to a television or cable-box brings new life to movies and television programs.

PERFECTWAVE AudioQuest Vodka Optical

While optical cables are not our first choice for connecting high-performance audio gear together, it is a ubiquitous interface in the world of video and home entertainment. Using AudioQuest Vodka optical to connect your PerfectWave 2-channel system to a television or cable-box brings new life to movies and television programs.

Imperfections in standard optical fiber scatter the light information, leading to sound with less clarity and a need for more error correction The superior fiber and finely polished optical interface of AudioQuest Vodka fiber-optic cable avoids these problems.

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Design

The almost complete solution to this problem is to use hundreds of much smaller fibers in a 1.0mm bundle. Because each fiber is limited as to what angle of input can enter the fiber, there is far less variety, and far less dispersion over time. AudioQuest Vodka Optical cables provide PerfectWave products with less dispersion in the fiber (better polymers and ultimately quartz), and less dispersion by filtering the input angle. How simple is that! Listen and enjoy.

Application

When the question is “how can a fiber-optic cable change the sound?” The answer is easier to explain than for almost any other type of cable. If the light source were a coherent laser, firing into a vacuum, all the light would stay straight, arriving at its destination at the same time. Even if the LED light source in a Toslink system were coherent, the light entering a fiber-optic cable is scattered and dispersed by imperfections and impurities in the fiber. This can be measured as a loss of amplitude, but amplitude is not the problem: a 50% true loss would have no effect on sound quality.

Technology

217 Narrow-Aperture Synthetic Fiber
Finely Polished Optical Interface
The problem is that the dispersed light does get through the cable, but only after it has taken a longer path, like a pool ball bouncing off the side-rails, causing it to arrive later. This delayed part of the signal prevents the computer charged with decoding this information from being able to decode properly, or even at all. The inability to decode shows first at higher frequencies (not audio frequencies, this is a mono stream of digital audio information), so reduced bandwidth is a measurable signature of light being dispersed by a fiber. The punch line: The less dispersion in the fiber, the less distortion in the final analog audio signal presented to our ears. Using 217 Narrow-Aperture Synthetic Fiber, AudioQuest's Vodka optical cables inhibit signal-dispersion and make a great match for PerfectWave digital products.
A revolution in fiber optic cable design, Vodka optical uses several highly polished polymer fibers instead of a single plastic conductor. These polymer fibers are more efficient at conducting light (information) giving Vodka optical greater resolution and improved tonality over every other optical cable we’ve tried. Vodka preserves optical's vanishingly low noise and offers dynamic range. Compared to standard TosLink cables, Vodka optical is a revelation, with surprising transient performance and excellent dynamic gradations.

Questions?

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1-800-PSAUDIO

Join the hi-fi family

Stop by for a tour:
4865 Sterling Dr.
Boulder, CO 80301

Join the hi-fi family

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