Trinnov
Trinnov WaveForming Technology

Redefining Low-Frequency Reproduction

WaveForming eliminates room modes at the source. Instead of fighting standing waves with EQ and absorption, it prevents them from forming in the first place.

Trinnov WaveForming propagation demonstration showing coherent wavefronts from front and rear subwoofer arrays

Why Bass Sounds Different in Every Seat

In any enclosed room, low frequencies bounce between parallel walls, creating standing waves or room modes. This physical phenomenon causes specific frequencies to amplify or cancel out depending on where you sit.

Traditional solutions rely on heavy acoustic absorption or basic equalization. EQ can only fix the frequency response for a single seat, often making other seats worse, and it cannot fix the fundamental problem: long decay times that make bass sound boomy or muddy.

Without WaveForming

  • Inconsistent bass across seats
  • Long decay times (boomy sound)
  • EQ cannot fix time-domain issues

With WaveForming

  • Flat response in every seat
  • Fast decay (tight, impactful bass)
  • Active control of room acoustics

Four Innovations Working Together

01

3D Acoustic Field Measurement

Every individual subwoofer is sampled across a 9-to-25 point grid using Trinnov's 3D microphone. The dense spatial map captures the full temporal and spectral behaviour of every transducer relative to every seat.

02

3D Wavefront Synthesis

By tightly coordinating the phase, amplitude and timing of every front-wall sub, individual spherical sources merge into one coherent planar wavefront.

03

Acoustic Reshaping

Using the 3D map, the algorithm computes inverse filters that abruptly halt modal decay, producing exceptional transient definition and uniform decay across every seat.

04

MSMC Active Absorption

Front subs emit the planar wavefront; rear subs receive it and emit a phase-inverted cancellation signal that annihilates the incoming wave.

What WaveForming Delivers

Low Decay Times

Eliminates room modes, resulting in a dramatic reduction in bass reverberation. Experience unprecedented clarity, tightness, and physical impact.

Seat-to-Seat Consistency

Designed to improve low-frequency consistency across the listening area; final performance depends on room implementation, calibration, and measurement.

Predictable Results

WaveForming is not just an algorithm; it's a holistic design approach. Following placement guidelines creates repeatable, predictable outcomes.

Subwoofer Layout Options

WaveForming supports multiple configuration strategies depending on your room constraints and performance goals.

Planar WaveForming

Regular grid layouts dispatched by room size. Highest spatial resolution and seat consistency.

Cylindrical WaveForming

Typically two subwoofers placed on the floor at quarter points. A simpler, highly effective setup for rooms where height placement is impossible.

Irregular & Reduced Arrays

Asymmetric layouts for HVAC, screen-channel or processor-channel constraints. Front-array density is always prioritised over rear.

WaveForming
Interactive Tool

Design & Predict Your WaveForming System

Enter your room dimensions, pick subwoofer hardware, and dial in boundary treatment. The planner computes the recommended array topology and a lower-bound SPL prediction at the listening seat.

WaveForming
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WaveForming
Drag to explore
5.00 m W x 7.00 m L x 2.70 m H
5.00 m
7.00 m
2.70 m

Performance Results

Total Subs12
Control BW102.9Hz
Tiermaximum

Dimensions are within a layout transition zone (±15cm of a breakpoint). Consider stepping up to the next array density to maintain planar control bandwidth.

Primary Axial Modes

24.5Hz
L
34.3Hz
W
49Hz
L
63.5Hz
H
68.6Hz
W

SPL Prediction (WaveForming Lower-Bound)

Floor assumed perfectly reflective. Side walls are modelled symmetrically per the white-paper assumptions.

4.00 m
2.5 m20 m
Q_tot
2.26m³/s
SPL @ MLP (30Hz)
127dB
20–100 Hz avg
127dB

Predicted band-average SPL meets the 115 dB project-model target at the primary listening seat.

SPL vs Frequency (at MLP)127126 dB
107113119125131RP22 115dB20406080100Frequency (Hz)SPL (dB)
SPL vs Distance from Front Wall (50 Hz)127127 dB
107113119125131RP22 115dB13579Distance (m)SPL (dB)

Per Trinnov white paper Eq. 6 (Moleron & Haguet, 2026). Predictions assume ideal WaveForming operation — actual measured SPL will vary by ±2 dB due to filter-amplitude variance and unmodelled boundary impedance.

Layout topology follows the Trinnov WaveForming placement guide; SPL is estimated via the lower-bound model from Estimating Room SPL with WaveForming. Predictions assume ideal WaveForming operation; measured results may vary by +/-2 dB. See the Trinnov subwoofer guidelines for hardware selection. Final calibration requires the Optimizer and 3D measurement microphone.

What Industry Leaders Say

"Watching movie scenes that we have seen 100's of times left us with shivers and mouths open. Frequencies that traveled right through my body created sensations I had never felt."
Mick Stillone
Sydney HiFi Mona Vale
"WaveForming is a huge step forward in low frequency definition and impact. The sound is the same regardless of where you sit."
Anders Uggelberg
Co-founder, Procella Audio
"It is not often I use the term Game Changer... but after experiencing the new Trinnov technology at Krix Headquarters recently, that was precisely the term I used."
Scott Stay
West Coast

Frequently Asked Questions

Common questions about Trinnov WaveForming technology, subwoofer placement, and processor requirements.

What is Trinnov WaveForming and how does it work?
WaveForming is Trinnov's active acoustics technology. A regular array of subwoofers on the front wall synthesises a forward-propagating planar wavefront, while a matched rear array actively absorbs the wave when it arrives.
How many subwoofers do I need for WaveForming?
The required number depends on room width, height, and the layout strategy. Full Planar WaveForming typically uses matched front and rear arrays. Use the interactive planner for your exact room.
How is the SPL in a WaveForming room predicted?
The planner estimates SPL from the WaveForming lower-bound model, using subwoofer cone area, excursion, room cross-section, boundary absorption, and listening distance.
Why do I need Sd and Xmax to predict SPL?
Volume velocity is the acoustic strength of a subwoofer. It depends on cone area and excursion, so datasheets that publish both values allow a more useful SPL prediction.
Which Trinnov processor supports WaveForming?
WaveForming is available on Trinnov Altitude-platform processors including Altitude32, Altitude16, and AltitudeCI.
Does WaveForming work in every room?
Best performance is achieved in rectangular rooms with parallel walls and enough space for regular front and rear subwoofer arrays. Challenging rooms may need adapted layouts.
What is the difference between Planar and Cylindrical WaveForming?
Planar WaveForming uses matched front and rear wall arrays to control multiple room axes. Cylindrical WaveForming is a simpler floor-based approach for rooms where wall arrays are not practical.
Can I install WaveForming myself?
The planner explains placement logic, but final calibration requires Trinnov Optimizer software, measurement, and commissioning expertise.

Ready to Experience WaveForming?

Our team designs WaveForming-compatible cinema systems from room geometry through to final commissioning.