In the modern landscape of electronic music production, the pursuit of complex, multi-layered sound design often overshadows the profound power of simplicity. Modern virtual instruments offer thousands of wavetables, intricate modulation matrices, and infinite routing possibilities. Yet, some of the most enduring and emotionally resonant hooks in contemporary music history are built on surprisingly sparse foundations.
A prime illustration of this phenomenon can be found embedded in the DNA of LCD Soundsystem’s 2007 indie-dance masterpiece, "Someone Great." From its opening seconds, the track captivates listeners with a rich, hypnotic, pumping harmonic drone. Far from being a dense, heavily processed wall of sound, this iconic sonic texture relies on a single sawtooth wave, carefully selected intervals, targeted EQ notches, and precise envelope modulation.
This tutorial-style journalistic breakdown explores how to rebuild this legendary patch from scratch using u-he’s Diva, a softsynth celebrated for its remarkably authentic analogue emulation. By examining the interplay between raw waveforms, subtractive filtering, velocity mapping, and spatial processing, producers can not only clone a piece of alternative dance history but also unlock a versatile patch adaptable to multiple genres and arrangement contexts.
To successfully reverse-engineer the "Someone Great" harmonic drone, we must approach the synthesis process with surgical precision. Using u-he Diva, we break down the creation of the patch into ten granular steps, transitioning from a blank initialization preset to a fully mixed, genre-ready instrument.
Step 1: Initializing the Patch and Setting the Foundations
The cardinal rule of subtractive synthesis is that the simpler a patch is, the more critical it is to choose the correct foundational sound source. Because we want a rich, warm, analogue character, we begin by loading u-he Diva and initializing a blank "init" patch.
Next, we configure the architecture:
Load the Dual VCO module for our oscillators.
Select Analogue Env for both Envelope 1 and Envelope 2.
Set the session BPM to 112. While this is slightly more sedate than the driving tempo of the original LCD Soundsystem recording, a slower tempo allows us to clearly analyze the nuanced impact of our modulation parameters as we build the patch.
Step 2: Programming the Core Dyad and Note Intervals
With our synth architecture prepped, we turn our attention to the MIDI arrangement. The hypnotic quality of the drone stems from a specific chord interval—a dyad combining G and D notes.
Upon closer inspection, the composition features an intriguing interval relationship: we have three D notes (D2, D3, and D4) playing in tandem with a G3 note sitting squarely between them. Whether this is interpreted as a fourth or a fifth interval depends entirely on which D note is treated as the root. In the piano roll, program these notes so their lengths sit just shy of a clean quarter note, establishing the rhythmic backbone of the part.
Step 3: Oscillator Calibration and Filter Tuning
Returning to Diva’s front panel, we refine our oscillator and filter settings:
Disable Oscillator 1 entirely.
Leave Oscillator 2 active on its default sawtooth wave setting.
Tune Oscillator 2 up precisely one octave (indicated by the number 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 Emphasis (resonance) to 15.5.
Even at this early stage, before any complex routing or spatial effects are applied, the raw character of the patch begins to mirror the target reference track.
Step 4: Velocity Mapping for Dynamic Bite
To ensure the synth patch feels organic and expressive rather than static and mechanical, we incorporate note velocity as a key performance modulator.
Adjust the velocities within your MIDI clip: set the D2 note to maximum velocity (127), and the remaining three notes to 103.
Navigate to the VCA section in Diva, select Velocity from the modulation source dropdown menu, and map it to control overall note volume at maximum modulation depth.
This subtle adjustment introduces natural dynamics into the performance, giving the patch sharper transient bite when struck harder.
Step 5: Surgical EQ Filtering for Harmonic Balance
One of the most critical yet frequently overlooked steps in cloning this sound is subtractive EQ filtering. To replicate the distinct tonal profile of the original recording, we introduce a multi-band parametric EQ to carve out specific frequencies.
We make targeted notch cuts across four distinct bands: 150Hz, 300Hz, 600Hz, and 1.2kHz.
Observing these frequencies reveals two vital properties:
Each frequency is exactly double the previous one, meaning they sit precisely one octave apart.
They all hover directly around the fundamental frequencies of the D notes in our arrangement.
By cutting the root frequencies of those D notes, we effectively step out of the way and allow the G note to cut through the mix with absolute clarity.
Step 6: Introducing Envelope Pumping and Rhythm
To achieve the characteristic "pumping" motion that defines dance-punk and indie electronica, we rely on amplitude modulation. To accurately judge the timing of our pump, load a robust, 909-style kick drum into an adjacent channel and let it loop continuously.
On Env 1 (our amplitude envelope):
Set the Attack to around 49, which instantly introduces a soft, sweeping pump.
Set the Decay to 75 to control how quickly the sound drops back down.
Configure a slightly longer Release tail of 29 to smooth out the note endings.
Raise the VCA master volume back up to compensate for any perceived gain reduction.
Step 7: Layering Filter Envelope Modulation
To complement the amplitude pumping and add another layer of rhythmic interest, we integrate filter modulation.
Dial the Env 2 filter modulation control fully to the positive (+) direction.
Navigate to Env 2 and dial in the following values: Attack 68, Decay 49, and Sustain 0.
This configuration ensures that every time a note is triggered, the filter opens up and quickly snaps shut, simultaneously reinforcing the rhythmic pump and injecting sharp, biting tonal character into the upper harmonics.
Step 8: Spatial Processing via Plate Reverb
To bridge the gap between our synthesized patch and James Murphy’s polished studio production, we must account for acoustic space.
Set the Size parameter to maximum and push the pre-delay up to the halfway mark.
The inclusion of a long pre-delay is acoustically significant: in real-world environments, sound waves take time to travel across physical distances before hitting boundary walls and reflecting back to the listener’s ears as reverb. Simulating this delay gap prevents the reverb tail from washing over and muddying the dry synth transients.
Step 9: Sidechain Compression and Tape Saturation
For the final polish, we look to external mixing techniques. Introduce a sidechain compressor on the synth channel, routed to trigger from our 909 kick drum channel. This hardware-style compression blends seamlessly with the envelope-controlled pumping we established in Step 6.
Finally, apply tape drive saturationafter the sidechain compression stage. Because tape saturation harmonics increase in intensity when fed stronger signals, positioning it after the compressor means the sidechain pumping action actively generates richer, warmer harmonics precisely on the loudest parts of the pump cycle.
Step 10: Versatility in Practice
As emphasized from the outset, the true beauty of this patch lies in its inherent flexibility. By simply modifying the percussive envelope shapes, the exact same core drone patch can be radically repurposed for entirely different instruments within an arrangement—demonstrated by presets such as Big Belgian Snog Trumpet.h2p and Big Trumpet.h2p.
Supporting Context & Metrics: The Engineering Behind the Sound
Understanding why this patch works requires looking at psychoacoustics and vintage synthesizer architecture.
Why Sawtooth Waves Dominate Electronic Music
The sawtooth wave is the holy grail of subtractive synthesis. Unlike sine waves (which contain only a fundamental frequency) or square waves (which contain only odd harmonics), a sawtooth wave contains both even and odd whole-integer harmonics (1f, 2f, 3f, 4f, etc.). This mathematical richness makes it an ideal raw material for subtractive filtering. By starting with a sound that possesses every possible harmonic frequency, a producer can selectively carve away unwanted elements—such as the octave notches performed in Step 5—leaving behind a bespoke, highly stylized timbre.
The Role of Analogue Emulation in Modern DAWs
While digital wavetable synths can generate pristine sawtooth waves, virtual analogue instruments like u-he Diva excel because they model the microscopic imperfections of vintage hardware. Component drift, filter non-linearities, and envelope response curves introduce subtle phase shifts and micro-fluctuations that prevent the sound from feeling static. In the context of a repetitive harmonic drone like "Someone Great," these micro-variations prevent ear fatigue over extended listens.
Official Statements and Industry Insights
Sound designers and mixing engineers frequently cite LCD Soundsystem’s production style as a masterclass in blending organic instrumentation with electronic minimalism. James Murphy’s reliance on vintage analog gear—ranging from EMS Synthi units to ARP Odysseys—cemented a philosophy where gear limitation breeds creative ingenuity.
Industry analysts note that patches like the one reverse-engineered above represent a broader shift in electronic music pedagogy:
"The most enduring sounds in modern production are rarely the most complicated ones. By focusing on fundamental waveshapes, precise envelope shaping, and intentional dynamic control, producers can achieve professional, mix-ready results that stand the test of time without relying on endless plugin chains."
Future Outlook: The Evolution of Retro-Analogue Synthesis
As music production technology continues to advance into the era of machine learning, neural synthesis, and hyper-complex generative platforms, the demand for tactile, hardware-emulated workflows remains remarkably resilient.
Producers are increasingly returning to foundational subtractive synthesis techniques—not out of a rejection of modern tools, but as a deliberate creative constraint. By mastering the fundamentals of single-oscillator routing, filter modulation, and harmonic carving (as demonstrated through u-he Diva), modern artists are well-equipped to design timeless, genre-fluid patches that will continue to shape the sound of alternative electronic music for decades to come.
