Mixing Metal for Beginners - The Ultimate Guide

Main ideas, concepts, and lessons (Metal mixing for beginners)

• Why people start and then quit: Metal mixing can feel frustrating at first. The instructor frames it as “worth it,” but also describes the early mental toll—like “crushing self-confidence.”
• The “3 cornerstones” for metal mixing:
  1. Equalization (EQ)
  2. Compression
  3. Saturation

Master these to get mixes that feel punchy, clear, and massive.

• Universal principles: Even when you use different plugins, the underlying audio principles stay the same.
• Metal-specific approach to separation: Metal generally needs some overlap between instruments to sound heavy/glued. You can’t achieve perfect separation.
• Workflow philosophy: Shape the whole mix first using buses/master, then refine per-instrument, and finally use automation to control dynamics and impact.

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Detailed methodology / instruction lists

1) Equalization (EQ)

A. Core controls

• Frequency (what part of the spectrum):
  • Boost or cut around a chosen frequency (example: boosting around ~250 Hz).
• Gain (how much boost/cut):
  • Boost adds information; cuts remove information.
• Q (bandwidth / precision):
  • Higher Q → narrower, more precise alteration (targets specific problems).
  • Lower Q → wider, smoother changes (often used for overall tone).

EQ shapes

• Bell: resonant boost/cut shape.
• Shelf:
  • Low shelf: boosts lows under a cutoff (example mentioned around ~112 Hz).
  • Can be narrowed/smoothed using Q.
• High pass / low cut: cuts everything below a cutoff (example mentioned around ~157 Hz).
• Low pass / high cut: complements the high cutoff (reduces highs).

B. “Tone” purpose

• EQ can shift things brighter or darker by adjusting tonal balance.
• Wider boost/cut is usually more natural for tonal changes.
• Narrow Q helps hone problem areas without introducing unnatural artifacts.

C. Analog vs. digital EQ (tone shaping rationale)

• Analog-style EQ often feels more traditional and may add subtle behavior beyond the main band (sometimes with a saturation-like character).
• Digital EQ is typically preferred for precision and for using spectrum visuals to solve specific issues.

D. “Problem solving” with EQ

• Notching/resonance control:
  • Use narrow cuts (high Q) to remove harsh resonances (e.g., symbol resonance).
• Fitting instruments into the mix:
  • Carve space so elements don’t clash too much.
  • In metal, accept overlap—aiming for the right amount to keep weight.

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2) Compression

A. Core controls

• Threshold:
  • Example: around -20 dB—above this level, the compressor acts.
• Ratio:
  • Higher ratio → stronger reduction when exceeding threshold.
  • Infinity:1 behaves like a brick-wall limiter (flattening everything above threshold).
• Attack:
  • How quickly compression engages after crossing the threshold.
  • Fast attack clamps peaks immediately (can reduce punch).
  • Slower attack lets the initial hit through (useful for snare “poke”).
• Release:
  • How long the compressor takes to return after the signal drops.
  • Faster release → more snappy compression.
  • Slower release → smoother, less aggressive recovery.

B. What compression is doing (metal context)

• Makes audio more even, improving audibility of quieter parts in dense mixes.
• Commonly used on rhythm guitars, drums, and as bus compression to glue everything together.

C. Compression for punch

• To increase punch:
  • Start with fast attack, then experiment—attack can destroy punch if too aggressive.
  • A described “sweet spot” in the example is around ~50 ms (compress while still letting some attack through).
• Watch for pumping when gain reduction changes noticeably.

D. Compression problem-solving targets

• More audible: reduce dynamic inconsistency.
• Less audible (taming): reduce unwanted spiky transients.
• Goal: keep elements present without harsh poking or disappearing.

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3) Saturation

A. Purpose in metal

• Adds vibe and glue, fills out sound, and smooths harshness.
• Works similarly to EQ/compression in practice, but via nonlinear harmonic distortion.
• For beginners, changes may seem subtle—but saturation is crucial for metal character.

B. Core controls

• Type of saturation:
  • Console saturation: console-style coloration.
  • Tape saturation: common in metal; described as adding low end and smoothing highs.
  • Tube saturation: a different flavor/“flare.”
• Drive:
  • More drive → more saturation → more texture/distortion and smoothing of spikes.
  • Turning saturation on/off demonstrates increased fullness and harmonics.

C. What saturation changes (“tone + behavior”)

• Can make mixes more punchy (depending on style).
• Helps instruments gel by reinforcing similar frequency content.
• Tradeoff:
  • More saturation → less separation/definition, but more vibe/glue.
  • No saturation → maximum definition, but can sound sterile/boring.

D. Problem solving with saturation

• Tames overbearing transients (e.g., snare pokiness).
• Unlike compression, saturation adds harmonic information while reducing harshness.

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Mixing workflow demonstrated (from scratch using only EQ + Compression + Saturation)

Step 1: Choose overall mix style

• Target in this example: heavy sound, lots of saturation, emphasizing weight/meatiness over surgical definition.

Step 2: Start with mix-ready source material

• Drums: a “one kit wonder” metal kit already balanced from roughly ~40 Hz to ~20 kHz.
• Bass: a finished/baked base tone preset used as a learning shortcut.
• Guitars:
  • Rhythm guitar: basic DI through an amp sim.
  • Extra “radio”/filtered guitar layer via copying the amp sim and applying high-pass + low-pass filtering.

Step 3: Create a grouped bus (instrumental bus)

• Route drums + bass + rhythm guitars into an instrumental bus.
• Apply:
  1. Saturation first (console style; drive pushed toward “red”).
  2. Bus compression next (example: aiming for about ~3 dB gain reduction on snare).
• Purpose:
  • Immediate glue/cohesion so snare punch is integrated, not poking out.

Step 4: Master out bus processing (final loudness shaping + glue)

• Use maximizer/limiter behavior to shave peaks (peak shaving).
• Add tape saturation on stereo/master bus (slightly into red as a starting point).
• Purpose:
  • Make the raw mix louder and more cohesive before detailed per-track work.

Step 5: Instrument-by-instrument refinement (starting with drums)

Drums

• Add EQ to increase snare attack (example targeting around ~200 Hz, band widened appropriately).

Bass

• EQ: reduce overbearing low end using a low shelf.
• Compression: keep initial hits controlled/consistent:
  • Use slow attack so the attack remains audible.
  • Use release to control how each note’s initial hit is affected.
  • Match input/output levels by ear (loudness can mislead).
• Add tape saturation to make low end fat/nice.
• Automation example:
  • Reduce volume on high-note spikes (example: ~2 dB reduction on high notes).

Rhythm guitars

• EQ: reduce harsh “radiy” areas.
• Notch problematic parts:
  • Bell EQ to remove low-mid mud.
• Add saturation + compression (copy similar compression settings from bass), then additional EQ:
  • Add back low end around ~100 Hz (careful: avoid restoring mud).
  • Remove harshness around ~3,000 Hz when noticed.
• Use additional notching if a bass problem area appears:
  • Identify frequencies using the EQ graph.

Step 6: Melody loop, percussion, and layered elements

Melody loop

• High-pass filter to remove sub-100 Hz content.
• EQ boost to make it pop and become more audible.
• Remove harsh areas to reduce clash with rhythm guitars.
• Add saturation, then compression.
• Use opto-style compression for smooth, even layering behavior (vocals-like).

Percussion layer

• EQ: remove low end so drums and bass own the low end.
• Add tape saturation and compression:
  • Enable limiting/peak cuts so percussion doesn’t compete with the snare.

Step 7: Automation (dynamic impact control)

• Automate the first downbeat hits on the instrumental bus for stronger impact.
• Add multiple automation points after major hits to emphasize sections.
• Adjust parts that stick out too much (e.g., bring bass high notes down).
• Result:
  • Engaging tape saturation increases fatness and glue, reducing separation.

Step 8: Final “finishing” moves (still using EQ + Compression)

Guitars

• Add extra bottom end around ~60 Hz.

Drums

• Add analog-style EQ for snare punch (example: ~2 dB mentioned).
• If snare becomes too “blippy,” compress to smooth while keeping some attack poking through and increasing sustain.

Step 9: Master bus EQ referencing and subtle correction

• Use references (e.g., Metric AB) to compare.
• If mix sounds too muddy:
  • Find/remove mud frequencies.
• If more bite/high presence is needed:
  • Add around ~4,000 Hz and ~15 kHz.
• Rule of thumb:
  • Master EQ should be subtle. Big master EQ changes usually mean deeper issues earlier in the chain.

Step 10: Export / provide template

• Export the song.
• Provide a mixing-along template (via Patreon).

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Speakers / sources featured

• Speaker: The video’s instructor/creator (name not provided in the subtitles).
• Referenced software/plugin companies/sources:
  • Slate Digital (e.g., Virtual Mix Rack; analog EQ; FG Gray/FGX; Metric AB reference)
  • QBbase / QBase (primary DAW/plugin environment in the tutorial)
  • Neural DSP (amp simulator mention)
  • GGD / GGD Drums (“one kit wonder” metal kit)
  • PLX Digital / “PL digital” (tape saturation; Virtual Tape Machine)
  • Cubase (routing discussed)
• Other platforms:
  • Patreon (template and raw/multitracks mentioned)
  • YouTube (implied by the content format)