SYSTEM MANUAL & ARCHITECTURE SPECIFICATION
OPERATIONAL MANUAL v2.4

Acoustic Vision Nexus Operating Manual

Complete architectural documentation, step-by-step operator workflows, and mathematical specifications for the world's foremost polyglot autonomous spatial audio & acoustic wavefield engineering suite.

Open Live Mission Control Start 3D Scan
Next.js 16.1.1 Turbopack
C++20 SIMD AVX-512 FDTD
Python 3.14 PyTorch Neural RIR
Mojo AI 24.5 MAX (1.25M rays/s)
Workflow Modules (6 Stages)
Pro Tip for Sound Engineers

Always configure boundary materials first before running the balloon pop test. Surface absorption directly governs the late reverberant energy tail.

STAGE 01

Calibrating Room Geometry & Boundary Materials

Precise enclosure volume and surface absorption coefficients determine baseline acoustic behavior.

Step-by-Step Instructions:

  1. Adjust Dimensions: Navigate to the Acoustic Vision Dashboard. Under the 3D canvas, adjust the sliders for Room Width (6m - 45m), Room Length (8m - 60m), and Ceiling Height (3.5m - 18m).
  2. Select Boundary Physics Material: On the right-hand panel, select the predominant surface finish:
    • Reinforced Concrete (α = 0.04): Live echo chamber, industrial reverberant space.
    • Italian Polished Marble (α = 0.01): Sacred cathedral profile with RT60 > 4.0s.
    • Acoustic Engineered Timber (α = 0.22): Symphonic concert hall warmth.
    • Studio Perforated Panels (α = 0.78): Broadcast studio clarity.
    • Nano-Aerogel Composite (α = 0.92): Anechoic test chamber.
  3. Observe Live Metric Computation: Watch the top metric cards automatically calculate effective Sabine/Eyring RT60, Speech Intelligibility (STI), and Audience SPL.
Expected Outcome

Accurate RT60 decay curve and boundary absorption metrics instantly mirrored into C++20 SIMD memory.

Operator Action

Click “Recalibrate Engine Tensors” in the Polyglot HUD to verify instant synchrony.