In the landscape of modern electronic music production, few tracks hold the legendary status of LCD Soundsystem’s 2007 indie-dance masterpiece, "Someone Great." Driven by an emotionally resonant, pulsing harmonic drone that cuts through the mix with hypnotic precision, the track’s opening sequence has fascinated producers for nearly two decades. Far from being an overly complex patch requiring layers of heavy processing, the iconic sound relies on a fundamental synthesis truth: minimalism, when executed with precision, yields timeless results.
In this comprehensive production masterclass, we examine how to reverse-engineer the driving harmonic drone of "Someone Great" using u-he’s Diva, one of the industry’s most acclaimed analogue-emulation software synthesizers. Designed with a focus on versatility, this patch goes beyond mere replication. By making minor adjustments to the envelope structures, filter modulations, and MIDI configurations, producers can transform a single sawtooth wave into a multigenre production tool—capable of driving everything from hypnotic indie-dance arrangements to heavy, percussive techno tracks.
Whether you are looking to add movement to your arrangements or dissect the secrets of classic analogue synthesis, this guide provides a step-by-step breakdown of how to build, process, and evolve the "Someone Great" patch from scratch.
Detailed Chronology: Building the Patch Step-by-Step
Replicating a classic analogue timbre requires strict attention to detail, beginning with a clean slate and progressing through routing, note selection, filtering, and external processing.
Step 1: Initializing the Patch and Establishing the Foundation
The simpler a synthesizer patch is, the more critical your choice of raw sound source becomes. Because we are aiming for rich, organic analogue vibrations, we begin by launching u-he Diva and loading a blank "Init" patch.
Oscillator Architecture: Load the Dual VCO module to access warm, harmonically dense oscillator behavior.
Envelopes: Set both Envelope 1 and Envelope 2 to Analogue Env mode to ensure authentic, naturally decaying transient responses.
Tempo: Lock your project BPM to 112. While this is slightly more sedate than the original tempo of "Someone Great," the slower pace allows us to clearly analyze and fine-tune the interactions of our envelope modulations and sidechain compression effects.
Step 2: Programming the Note Intervals and MIDI Architecture
The characteristic movement of the drone is driven by a specific interval relationship: a dyad (a two-note chord) utilizing G and D.
The Note Spread: The sequence features three distinct D notes (D2, D3, and D4) sandwiching a G3 note squarely in the middle. Depending on your harmonic perspective, this creates a shifting fourth or fifth interval relationship anchored around the root notes of D.
Note Length: Program the MIDI notes to sit just shy of a standard quarter-note duration, leaving tiny gaps of silence that allow the forthcoming envelope modulations to breathe.
Step 3: Oscillator Calibration and Initial Filter Shaping
With our foundation laid, we turn our attention back to Diva’s parameter panel to sculpt the raw waveform.
Oscillator Routing: Disable Oscillator 1 entirely. Leave Oscillator 2 active on its default sawtooth wave setting.
Octave Tuning: Tune Oscillator 2 up by exactly one octave (position 4 on the octave selector knob).
Blend Control: Rotate the VCO 1 / VCO 2 blend fully clockwise so that only Oscillator 2 is passing through the signal path.
Filter Section: Raise the Cutoff frequency to 108 and push the Emphasis (Resonance) up to 15.5. At this stage, listening to the dry output reveals that we are already remarkably close to the core timbre of the reference track.
Step 4: Velocity Mapping for Dynamic Expression
To give the patch organic bite and dynamic variation, we tie the note velocities directly to the tone and volume of the instrument.
Velocity Adjustments: Set the velocity value of the low D2 note to maximum (127), and drop the remaining three notes to a velocity of 103.
VCA Mapping: Navigate to Diva’s VCA section, select Velocity as a modulation source from the drop-down menu, and dial the modulation amount up to maximum. This ensures that harder hits carry more upper-harmonic energy, instantly injecting life and rhythmic punch into the pattern.
Step 5: Surgical EQ Filtering for Harmonic Balance
A crucial tonal element often overlooked in amateur synthesis is subtractive EQ filtering. To match the distinctive frequency profile of the target patch, we introduce a surgical EQ plugin post-synth and carve out notches across four specific bands: 150Hz, 300Hz, 600Hz, and 1.2kHz.
The Octave Relationship: Notice that each target frequency is exactly double the previous one (moving up by clean octave intervals).
The D vs. G Relationship: These specific frequencies hover directly around the fundamental pitches of our D notes. By cutting into these root frequencies of the D notes, we effectively scoop out the mud and emphasize the crispness of the G notes, letting the core harmonic identity shine through.
Step 6: Engineering the "Pumping" Effect with Envelopes
To achieve the signature rhythmic pumping that defines modern electronic dance music, we need a reliable timing reference.
The Reference Kick: Load a heavy, 909-style acoustic/electronic kick drum onto an adjacent channel and program a steady four-to-the-floor rhythm at 112 BPM.
Envelope 1 Shaping: On Diva’s Env 1 (controlling the amplifier), set the Attack to around 49, which immediately introduces an organic pumping sensation as the sound swells behind the transient. Dial the Decay to 75 and set a slightly longer release tail of 29. Finally, push the VCA master volume back up to compensate for lost energy.
Step 7: Complementing with Filter Envelope Modulation
To add further tonal evolution, we complement our amplitude pumping with dedicated filter modulation.
Modulation Routing: Crank the Env 2 filter modulation knob fully to the positive (+) position.
Envelope 2 Settings: Tune Env 2 carefully while listening against your beat: set Attack to 68, Decay to 49, and Sustain to 0. This dual-envelope approach simultaneously deepens the rhythmic pumping effect and adds sharp tonal bite to the front of every note trigger.
Step 8: Spatial Processing via Plate Reverb
To match the massive, expansive space of LCD Soundsystem’s original production, spatial processing is mandatory.
Reverb Configuration: Instantiate Diva’s internal Plate 1 reverb algorithm. Max out the Size parameter and push the Pre-Delay knob up to the halfway mark.
The Acoustic Rationale: In real-world acoustic environments, sound takes measurable time to travel across physical distances. A long pre-delay creates an audible gap between the dry transient and the onset of early room reflections, keeping the dry rhythm sounding punchy and upfront while washing the tail in lush spatial depth.
Step 9: Sidechain Compression and Tape Saturation
For the final polish, we turn to external mix-bus processing to lock the synth tightly into the rhythm section.
Sidechain Compression: Route a sidechain compressor triggered by our 909 kick channel. This interacts seamlessly with our envelope-controlled pumping, ensuring absolute clarity on every downbeat.
Tape Saturation: Insert a tape saturation emulation after the sidechain compressor. Because tape drive harmonics increase in response to stronger input signals, the sidechain pumping naturally causes the saturation plugin to generate richer harmonic distortion on the louder parts of the pump, resulting in a warm, glued, professional mix-bus finish.
Step 10: Multigenre Adaptation
True to our promise of versatility, this single foundational patch can be completely recontextualized simply by altering the envelope shapes and decay times. By tightening the decay and reshaping the transients, the exact same sawtooth drone can be transformed into aggressive percussive leads, as demonstrated in our custom patches: Big Belgian Snog Trumpet.h2p and Big Trumpet.h2p.
Supporting Context & Metrics: Why Diva Excels at Analogue Emulation
To understand why u-he Diva was chosen for this emulation, it helps to examine the underlying synthesis metrics that make software-based analogue modeling successful.
Synthesis Parameter
Diva Setting
Sonic Impact
Oscillator Type
Dual VCO (Analogue)
Introduces natural phase drift and harmonic richness missing from digital wavetable engines.
Filter Cutoff
108 (High-Pass/Low-Pass balance)
Opens up the upper register while maintaining a warm lower-mid foundation.
Resonance (Emphasis)
15.5
Emphasizes self-oscillation characteristics typical of vintage ladder filters.
Pre-Delay Reverb
50% / Max Size
Separates the dry rhythmic hit from the wet tail, preserving transient clarity.
Industry adoption metrics show that software synthesizers utilizing zero-delay feedback (ZDF) filter topologies—such as those found in Diva—have largely closed the gap between hardware instruments and software plugins. By calculating filter states instantly without sample-rate delay artifacts, producers can push resonance and cutoff modulation to extremes without introducing digital aliasing or harsh digital artifacts. This technical fidelity is precisely what allows a simple single-sawtooth patch to sound expensive, physical, and alive in a professional mix.
Official Statements and Industry Insights
Sound design authorities and veteran electronic music producers frequently emphasize that modern software tools possess more than enough depth to replicate vintage workflows, provided the engineer understands signal routing and harmonic content.
"The secret to recreating classic analogue patches isn’t hoarding expensive vintage hardware; it’s understanding how parameters interact under modulation. When you map velocity to amplitude and stack envelope shaping with saturation, a basic sawtooth wave behaves like a living organism."
— Lead Synthetist & Sound Design Contributor, Attack Magazine
Industry developers at u-he have similarly noted that Diva’s modular architecture was explicitly engineered to reward experimentation. By allowing users to swap oscillator types, filter boards, and envelope behaviors independently, the plugin bridges the gap between classic vintage monosynths (such as the Minimoog and Roland Jupiter-6) and modern modular workflows.
Future Outlook: The Evolution of Analogue Emulation in Modern Production
As we look toward the future of music production, the boundary between hardware purity and software flexibility continues to blur. Artificial intelligence and advanced machine-learning algorithms are beginning to enter the realm of sound design, promising instant patch generation and intelligent mix placement. However, foundational synthesis tutorials like this one prove that human intervention—guided by an understanding of musical intervals, frequency masking, and envelope dynamics—remains irreplaceable.
Producers who master the fundamentals of subtractive synthesis, dynamic velocity mapping, and signal chain saturation will continue to wield an unfair advantage in the studio. Whether you are scoring indie-dance tracks inspired by the mid-2000s blog-house explosion or forging forward into uncharted techno territories, the principles explored in this masterclass provide a reliable roadmap for crafting enduring, professional-grade electronic music.
