Seymour Duncan Loomis Noumenon Bridge Reverse Zebra TB Pickup

Seymour Duncan Loomis Noumenon Bridge Reverse Zebra Pickup

The Seymour Duncan Loomis Noumenon Bridge is a hand-wound humbucker engineered for aggressive, articulate high-gain tones with clarity that cuts through dense mixes. This pickup delivers the signature responsiveness favored by modern metal and progressive players who demand definition without sacrificing output. The Reverse Zebra coil finish provides both aesthetic contrast and the sonic character associated with Seymour Duncan's refined winding techniques.

Tone & Output Characteristics

Built around an Alnico 8 magnet, this bridge pickup produces aggressive midrange punch and tight low-end definition ideal for palm-muted rhythms and lead articulation. The 12.66k ohms DCR delivers substantial output suitable for high-gain applications while maintaining clarity and string separation even at extreme saturation levels. On stage, this pickup maintains articulation and note definition in full band contexts, cutting through without muddiness or loss of pick attack.

Construction & Wiring

Each coil is hand-wound and pre-wax potted in Santa Barbara, California, ensuring consistent quality and microphonic feedback elimination for reliable live performance. The four-conductor wiring enables coil-splitting and phase-reversal mod compatibility, allowing players to expand the pickup's tonal range beyond its stock voice and adapt to different venues and mixing scenarios.

Key Features

• Type: Humbucker bridge pickup
• Magnet: Alnico 8
• DCR (Bridge): 12.66k ohms
• Hand-wound coils with pre-wax potting
• Four-conductor wiring for coil-splitting and phase-reversal
• P-mount route compatible
• Reverse Zebra coil finish
• Hand-made in Santa Barbara, California
• One-year manufacturer warranty

This pickup represents Seymour Duncan's commitment to articulate high-output performance, combining aggressive tone with versatile wiring options for gigging and touring musicians who need precision, power, and road-tested reliability.