Bad Cat Siamese Dual Harmonic Overdrive Pedal

£239.00

This is the Bad Cat Siamese Dual Harmonic Overdrive Pedal from Bad Cat, listed in Overdrive Pedals on Just Pedals. Read More below.

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The Bad Cat Siamese Dual Harmonic Overdrive Pedal brings the legendary clarity and dynamic response of a K-style circuit to your board — times two! With rich harmonics and gorgeous grit that feels alive under your fingers, this dual-channel overdrive is ready to become your new tonal powerhouse.

Key Features

  • Two K-style circuits in one: What’s better than one K-style pedal on your board? Two, of course! Run it into a clean amp and instantly transform your rig into a three-channel setup. Dial in one side for a clean boost or crunchy rhythm, and the other for cranked leads.
  • Standalone, stacked — it’s up to you: You can use each channel independently for two distinct drive flavours. Or stack them for a saturated, layered tone that slices through the mix with plenty of punch.
  • Built to turn heads: With its pearl white finish and custom graphics, the Bad Cat Siamese Drive doesn’t just sound incredible — it looks stunning on your pedalboard too.

Specifications

  • Controls: Gain, Tone, Output (Per Channel)
  • True Bypass: Yes
  • Power: 9–12V DC, Centre-Negative
  • Size: 5.75″ x 4.5″ x 2.75″ (146 x 114 x 70 mm)
  • Weight: 0.45 kg (1 lb)

Brand

Bad Cat

Category

Overdrive Pedals

Overdrive uses soft or moderate clipping to add harmonics and compression while retaining more of the original note shape than heavy distortion. Some circuits emphasise the midrange and trim bass before clipping; others remain broad, transparent or amplifier-like. Gain, clipping arrangement, headroom and tone filtering decide whether it supplies a light edge, a saturated drive sound or extra push into another gain stage.

Tags

True Bypass

Connects input directly to output through mechanical or relay switching when the effect is off, removing the active circuit from the audio path. It avoids buffer colour but leaves cable capacitance and switching design to influence high-frequency loss and possible switching noise.