Video summary

What makes a ROCK / METAL BASS sound GREAT? (with Sheldon Dingwall)

Main summary

Key takeaways

Product Review

Product reviewed

A Dingwall / multiscale fan-fret metal bass guitar (with Sheldon Dingwall explaining how Dingwall designs achieve a “great” rock/metal bass sound—especially for modern low tunings). No single exact “model” name is stated, but the video highlights key technologies and design choices.

Key features (what makes it sound great)

  1. Multiscale / fan-fret design (Noax fan fret system)

    • The guitar uses different string lengths across the fretboard (compared to piano string behavior).
    • Goal: improve pitch stability, high-end clarity, and mix transparency, particularly for the low strings.

  2. String engineering optimized per scale length

    • The video claims a “world’s first multiscale bass string set.”
    • Example tunings/scale targets mentioned:
      • B string engineered for 37” (rather than 34”/35”)
      • E string engineered for 36.25”
    • Each string is engineered so its tension and behavior match its designed scale length.

  3. Focus on fundamentals + controlled harmonics

    • The design emphasizes that the bass fundamental is strong “for free.”
    • Harmonics are highlighted as the musical information where the ear is most sensitive (described as aligned with human vocal-range perception).
    • The goal is adding saturation/saturation-like character to the right frequencies—clear bottom end with saturated mids, without turning the tone into “mess.”

  4. Improved attack handling for aggressive modern metal

    • Modern metal bass needs to handle fast and heavy attack while staying punchy and playable.
    • The instrument is framed as a better “partner” for faster practice/performance.

  5. Onboard preamp collaboration (RNP / Rupert Neve Designs)

    • Mentions a world’s first onboard Rupert Neve Designs bass preamp, made specifically for Dingwall basses.
    • The engineering team reportedly swapped/tailored components to shape the preamp/EQ around Dingwall bass behavior.

Pros (benefits mentioned)

  • More transparent in the mix: longer-scale behavior improves high-end pitch alignment and reduces frequency clutter.
  • Less “squashing” other instruments: bass can sit in the mix without taking over.
  • Better low-string performance for low tunings: the design is described as pushing gear beyond typical limits.
  • Consistency across strings: avoids the common issue of one string sounding dull/thin and being hard to correct.
  • Easier recording/engineering: fewer EQ compromises thanks to multiscale behavior and matched string response.
  • More stable pitch when played hard: a “sweet spot” between tension and pitch sensitivity supports aggressive technique without pitch wandering.
  • Inspiration/performance improvement: wood/setup affects feel, which can help players perform better.
  • Saturation integrates better: clean bass may stick out too much, but appropriate saturation helps it blend.

Cons / limitations mentioned (implied rather than explicit)

  • Wood/tone specifics may be less audible at distance: wood mostly impacts feel/performance, not necessarily the listener’s ultimate tone.
  • Some instruments can’t be “fixed” with EQ if the fundamentals/string/instrument behavior is fundamentally wrong—implying limits of EQ versus hardware fundamentals.
  • The video avoids direct negative claims about Dingwall; instead it stresses that wrong instruments can’t produce the right metal tone.

Comparisons / related references

  • Classic rock expectations: Sheldon notes classic rock bass often isn’t perfectly clean—there’s usually overdrive/edge.
  • Adam “Nolly” Getgood reference: discussed as an example of a distinctive distorted clanky metal bass tone that reached a modern audience.
  • Piano/string analogy: design is compared to piano string behavior and concert-hall resonance, where longer strings support clearer separation.
  • Live/mixing challenge: bass frequencies are described as hardest to control live; multiscale is positioned as a solution.

User experience / playability notes

  • Multiscale/fan frets and optimized string engineering help the bass respond predictably to hard playing and fast passages.
  • “Feels right” is tied to setup and wood, where less instrument “fight” can improve technique and results.

Verdict / recommendation

Recommended for rock/metal players—especially those using low tunings—because the video centers multiscale design and matched string engineering as drivers of:

  • Pitch stability
  • Mix transparency
  • Controlled aggression

It also suggests recording and live mixing can be easier thanks to more consistent tonal behavior across strings and reduced reliance on heavy EQ.

Unique points mentioned (deduplicated)

  • Longer strings: tighter/clearer pitch; shorter strings: muted high end and more diffuse pitch
  • Longer = easier to mix: less frequency “room” taken up; less “squashing”
  • Metal/modern metal low tunings “push gear to the limits,” and bass frequencies are hardest to control/mix live
  • Metal bass needs wide attack handling for heavy, punchy, fast playing
  • “Piano wire” sustain/qualities as a sign of strong low-string behavior
  • Fundamental vs harmonics: bass fundamentals are strong; harmonics carry musical information (vocal-range sensitivity)
  • Distortion works best when it saturates the right harmonics while keeping the fundamental clear
  • Scale length affects tone and mixing; longer increases clarity/transparency
  • Tension/pitch relationship: a sweet spot allows hard attacks without pitch rise/fall
  • Multiscale “Noax fan fret” changes string length by fret region (longer/shorter strings per note area)
  • String set engineered to scale targets (explicit 37” B and 36.25” E examples)
  • Wrap-around mass impacts string speed/tone: too much can break strings; too little tension can make strings pitchy
  • Wood/setup affects player feel and performance (audiences may not directly hear it, but it changes how you play)
  • Pickups + preamps matter: Dingwall is framed as using a more metal-compatible midrange character than scooped “bedroom” tones
  • “One bad string” problems are reduced via instrument consistency, lowering EQ headaches
  • Neck stiffness and string/body interaction affect tone (stiffer tends to produce more string tone, less wood tone)
  • Collaboration on onboard Rupert Neve Designs preamp/EQ tailored to Dingwall basses
  • Clean bass can stand out too much; saturation/compression helps it blend
  • Creative/technical context: piano influence and research into harmonic alignment/overtones
  • Named references: Adam “Nolly” Getgood tone; additional integration/master-class framing references

Speakers / perspectives

  • Sheldon Dingwall (main expert): explains the physics and design rationale (scale length, tension, harmonics), why this matters for metal mixing, and how Dingwall’s multiscale/string/preamp approach supports it.
  • Christian (host/other speaker): asks questions, adds framing, mentions recording DI/guitar humbucker context, and transitions into the onboard Rupert Neve Designs preamp discussion.

Original video