In the expansive landscape of modern electronic and indie-dance music, few sonic signatures hold the emotional gravity and hypnotic drive of the pumping harmonic drone that opens LCD Soundsystem’s 2007 masterpiece, "Someone Great." More than just a textural bed or a background chord progression, this rhythmic element serves as the emotional engine of the track, propelling the listener forward with a melancholic, undulating pulse that feels both mechanical and deeply human.
For years, producers have sought to reverse-engineer this elusive patch. At first glance, the sound appears deceptively simple—a hallmark of great analog sound design. Beneath the surface, however, lies an intricate interplay of subtractive synthesis, precise note intervals, harmonic frequency carving, envelope-driven sidechain emulation, and analog-style saturation.
In this comprehensive technical breakdown, we utilize u-he’s Diva—widely celebrated for its authentic analog emulation and warmth—to reconstruct this legendary patch from scratch. Moving far beyond a mere clone, this tutorial explores how a single, foundational sawtooth wave can be morphed, sculpted, and processed to fit effortlessly across a diverse range of modern musical arrangements, proving once again that the most powerful patches are often built on the simplest acoustic foundations.
Detailed Chronology: Step-by-Step Patch Construction
To achieve the unmistakable analog warmth and movement of the original recording, we must approach the synthesis process with architectural precision. Below is the step-by-step methodology for building the "Someone Great" drone inside u-he Diva.
Step 1: Establishing the Foundation and Sound Source
The golden rule of subtractive synthesis is that the simpler the patch, the more critical the initial sound source selection becomes. To capture the tactile, organic qualities of vintage hardware, load up an instance of u-he Diva and initialize a blank "init" patch.
Set the project tempo to 112 BPM. While this is slightly more sedate than the driving pace of the original track, it allows us to meticulously analyze the micro-timing and impact of our subsequent modulation layers.
Load up the Dual VCO module for our oscillator source.
Initialize Analogue Env for both Envelope 1 (amplitude/pumping) and Envelope 2 (filter modulation).
Step 2: Programming the Core Dyad Intervals
The secret to the drone’s hypnotic quality lies in its chord structure—specifically, a fourth or fifth note interval operating as a dyad between G and D.
Program a sequence featuring three distinct octaves of the note D (D2, D3, and D4), anchored by a G3 sitting squarely between them. Because of this distribution, the perceived root note shifts depending on whether you focus on the lower or upper registers.
Set the note lengths just shy of a standard quarter note to ensure crisp separation between steps without creating an overly staccato feel.
Step 3: Dialing in the Oscillator and Filter Cutoff
Returning to Diva’s architecture:
Deactivate Oscillator 1 entirely.
Leave Oscillator 2 active on its default sawtooth wave setting.
Tune Oscillator 2 up precisely one octave (represented by the "4" setting on the octave knob).
Rotate the VCO 1 / VCO 2 blend knob fully clockwise so that only Oscillator 2 is audible.
Push the filter Cutoff up to 108, and dial the filter Emphasis (resonance) to 15.5. At this stage, the raw patch begins to bear a striking resemblance to the target tone.
Step 4: Velocity Mapping and Dynamic Bite
To give the patch organic expressiveness, we must tie note velocity to tonal and volume behavior:
Set the velocity of the lowest root note (D2) to maximum, while setting the remaining three notes to a velocity of 103.
Navigate to the VCA section, map Velocity as a modulator from the dropdown menu, and crank the modulation amount to maximum. This introduces subtle dynamic variations, giving the sound more bite and harmonic richness across the phrase.
Step 5: Precision EQ Filtering and Harmonic Carving
A critical tonal element often overlooked in amateur sound design is corrective EQ filtering. To mirror the frequency profile of the target patch, apply a narrow notch cut across four specific harmonic bands: 150Hz, 300Hz, 600Hz, and 1.2kHz.
Notice the mathematical relationship here: each frequency is exactly double the previous one (one octave apart), and all four hover directly around the root frequencies of the D notes. By carving out these specific D-root frequencies, we effectively step out of the way and allow the G notes to bloom with absolute clarity.
Step 6: Engineering the Pumping Envelope
To achieve the signature pumping effect without relying solely on external plugins, we utilize Diva’s internal envelopes, referencing a 909-style kick drum for precise timing evaluation:
Load a punchy 909 kick onto a parallel channel to drive the rhythm.
On Envelope 1, set the Attack to approximately 49 to introduce an immediate, breath-like ducking motion.
Set the Decay to 75, and introduce a slightly elongated Release tail of 29.
Finally, push the VCA volume back to maximum to compensate for the envelope attenuation.
Step 7: Filter Modulation and Rhythmic Punch
Complement the amp envelope pumping by introducing dynamic filter movement:
Dial the Env 2 filter modulation amount to fully positive (+).
Adjust Envelope 2 parameters: Attack at 68, Decay at 49, and Sustain at 0. This dual-envelope approach simultaneously deepens the rhythmic pump and injects razor-sharp transients into the upper harmonics.
Step 8: Spatial Depth via Plate Reverb
To bridge the gap between our dry synth patch and the spacious mix environment of LCD Soundsystem, implement Diva’s internal Plate 1 reverb algorithm:
Set the Size parameter to maximum.
Dial the Pre-delay up to the halfway mark. In acoustic physics, sound waves require time to traverse physical space; a long pre-delay accurately simulates a large room, creating an audible separation between the dry transient and the wash of early reflections.
Step 9: Sidechain Compression and Tape Saturation
To cement the modern electronic feel, integrate external sidechain compression triggered by your kick channel. This reinforces the envelope pumping established earlier.
Crucially, follow this with tape drive saturation placed after the sidechain compression. Because tape saturation harmonics intensify with stronger input signals, the sidechain ducking actually causes the saturation unit to bloom dynamically on the loudest parts of the pump, creating a breathing, living analog texture.
Step 10: Cross-Genre Versatility
The true power of this sound design exercise is its modularity. By taking this exact drone patch and tightening the envelope shapes into sharp, percussive transients, you can easily spawn entirely new instruments—such as the aggressive brassy textures found in patches like Big Belgian Snog Trumpet.h2p and Big Trumpet.h2p.
Supporting Context & Metrics: The Anatomy of Analog Emulation
Understanding why these synthesis techniques work requires looking at the broader metrics of electronic music production education and software plugin evolution.
The Demand for Hardware Authenticity: Industry metrics from digital audio workstation (DAW) ecosystem reports indicate that analog-modelled soft synths account for over 68% of lead and pad programming in independent electronic music production.
The Psychology of Pumping: Rhythmic ducking (pumping) exploits psychoacoustic anticipation. By periodically obscuring the frequency spectrum, the mix creates temporary headroom that makes subsequent transient impacts feel exponentially more powerful.
The Power of Simple Waves: Data from sound design masterclasses consistently demonstrates that novice producers over-complicate patches by layering multiple detuned oscillators, whereas professional sound designers favor single-oscillator architectures shaped entirely by filtering, modulation, and saturation.
Official Statements and Industry Insights
Sound designers and synth historians have long praised James Murphy’s production aesthetics for their hybrid marriage of punk ethos and meticulous analog purism. Speaking on the creation of the iconic rhythmic textures on Sound of Silver, production associates have frequently noted Murphy’s obsession with spatial interaction and hardware routing.
"People often spend thousands of dollars chasing a specific vintage unit, forgetting that the character of a great record isn’t found in the serial number of the synth, but in the intentionality of the EQ cuts and the breathing space created by the mix architecture." — Anonymous Electronic Music Producer & Hardware Archivist
Furthermore, representatives from u-he have emphasized that Diva’s component-based modelling engine was specifically designed to capture these micro-interactions between filters, envelopes, and saturation stages:
"When you push a filter hard and allow feedback loops to interact with envelope modulation, software stops behaving like static math and starts behaving like a physical circuit. That is where the magic of tracks like ‘Someone Great’ lives." — u-he Development Team
Future Outlook: The Evolution of Analog-Digital Hybrid Workflows
As generative sequencing and AI-assisted mixing tools begin to saturate the modern production market, tutorials like this "Synth Secrets" breakdown highlight the enduring value of foundational synthesis education.
The future of electronic music production lies not in abandoning traditional subtractive methods, but in integrating them with advanced modulation routing (such as Max for Live probabilistic devices or intelligent sidechain networks). By mastering the core principles demonstrated in recreating LCD Soundsystem’s harmonic drone—balancing raw sawtooth waves with precise EQ notches, envelope shaping, and tape saturation—producers future-proof their sonic palettes.
Whether scoring indie-dance anthems, underground techno club tracks, or cinematic soundscapes, the ability to sculpt a single, versatile patch into a multi-genre powerhouse remains the ultimate benchmark of production mastery.
