AudioQuest ThunderBird BiWire Jumpers

w/ 500 Series Connectors

ThunderBird BiWire Jumpers employ Direction-Controlled Solid Perfect-Surface Copper+ (PSC+) covered with a Conductive Carbon-loaded extrusion that reduces RF pick-up. Available with AudioQuest's 500-Series Hanging-Silver plated Purple Copper spades or bananas on either end — simplifying the connection where the speaker cable is attached.

Key Features & Technology Explained

Solid Perfect-Surface Copper+ (PSC+)

Solid Perfect-Surface Copper+ (PSC+) conductors employ the same process as Perfect-Surface Copper (PSC) conductors but with the highest grade of copper available, maximizing the performance of a copper conductor.

Carbon-Based Noise-Dissipation

Alternating layers of metal and carbon-loaded synthetics "shield the shield," minimizing RF noise before it reaches the layer attached to ground.

Done right, BiWiring enables better sound for less money.

However, for various reasons, there are times when BiWiring may not be possible. For those times, AudioQuest BiWire Jumpers deliver significantly improved performance over the common stamped jumpers that are included with most BiWireable loudspeakers.

ThunderBird BiWire Jumpers employ Direction-Controlled Solid Perfect-Surface Copper+ (PSC+) covered with a Conductive Carbon-loaded extrusion that reduces RF pick-up.

ThunderBird BiWire Jumpers are 8" long and available with AudioQuest's 500-Series Hanging-Silver plated Purple Copper spades or bananas on either end — simplifying the connection where the speaker cable is attached.

• Solid Perfect Surface Copper Conductors: Solid conductors prevent electrical and magnetic strand-interaction. PSC+ Solid-Copper minimizes distortion caused by grain boundaries and maximizes linear RF Noise-Dissipation.
• Carbon Based Noise-Dissipation: Carbon-Based Noise-Dissipation minimizes radio-frequency noise masking effects.
• Direction Controlled Conductors: A fundamental aspect of AudioQuest's multifaceted Noise-Dissipation technology, Direction-Controlled Conductors ensure induced noise is dissipated and drained properly.