01 / 20
Introduction
Zero Waste Vision · 2024

Myco-Acoustics

From Nature to Industry

Engineering Sustainable Bio-Composites from Forest Waste

02

Redefining the Industrial Lifecycle.

🌲
Forest Waste
🍄
Bio-Process
🏗️
Insulation

Our mission is to convert high-risk forest combustible waste into high-value industrial insulation, replacing toxic synthetics with a 100% biodegradable biological matrix.

♻️Circular Economy
🌿Zero Toxins
🔬Bio-Engineering
03
The Environmental Crisis · Part 1

The Forest Fire Hazard.

🔥
+300%
Wildfire intensity increase

Accumulated pine needles create a "combustible carpet" on forest floors.

Significantly increases the intensity and spread of seasonal wildfires.

Current management involves "controlled burns" which release massive CO₂.

04
The Environmental Crisis · Part 2

The Synthetic Waste Legacy.

🧱
500+
Years for Fiberglass to decompose
Causes respiratory & skin irritation
📦
30%
Of global landfill space
Styrofoam (EPS) — non-recyclable
⚠️

Urgency: Industrial construction requires a non-toxic, circular alternative.

05
The Biological Solution

Nature's Self-Assembling Bio-Glue.

HUB Hypha Hypha

Mycelium is the vegetative root structure of fungi. It consists of a dense network of "hyphae" that act as a microscopic binding agent.

1km²
Hyphae per gram of soil
5–7
Days to full growth
0%
Energy required
06
Scientific Theory

From Cellulose to Chitin.

🌿
Substrate
Pine Needles
(Lignin/Cellulose)
+
🍄
Inoculum
Fungal Spawn
(Enzymes)
Bio-Synthesis
🧱
Bio-Composite
Chitinous Matrix
(Structural)

The process involves fungal enzymes digesting the lignin/cellulose in pine needles and replacing them with a structural chitinous matrix.

Chemical Logic: Substrate + Inoculum → Bio-Composite
07
Substrate Selection

Optimizing the Substrate.

🌲
Pinus sylvestris
💪
High lignin content provides structural rigidity to the final composite.
♾️
Natural abundance ensures a zero-cost raw material supply chain.
🔊
Fibrous texture allows for superior sound wave trapping (Acoustic Absorption).
08
The Process

The Bio-Manufacturing Workflow.

01
✂️
Pre-Processing
Harvest & Sterilize
02
🧫
Inoculation
Add Spawn
03
🌱
Incubation
5–7 Days Growth
04
🔥
Stabilization
Bake at 90°C
Stage 1 of 4
09

Harvesting and Sterilization.

✂️
80°C
Pasteurization

Pine needles are chopped to increase surface area and pasteurized at 80°C to eliminate competing bacteria, ensuring a clean growth environment.

Collect pine needles from forest floor
Mechanical chopping to 2–5cm lengths
Pasteurize at 80°C for 1–2 hours
Cool to room temperature in sterile environment
Stage 2 of 4
10

Introducing the Biological Catalyst.

🧫
Pleurotus ostreatus
Oyster Mushroom

The sterile substrate is mixed with Pleurotus ostreatus (Oyster Mushroom) spawn. This strain is selected for its aggressive growth and dense fiber network.

Mix spawn at 10–15% by weight ratio
Ensure uniform distribution throughout substrate
Transfer to custom molds immediately
Seal to maintain sterile conditions
Stage 3 of 4
11

Low-Energy Manufacturing.

🌱
0%
Energy Used

Mixture is packed into custom molds. Over 5–7 days in dark, humid conditions, the mycelium weaves through the needles, solidifying the panel.

Growth Progress
Day 1Day 3Day 5Day 7
🌡️20–25°C
💧85–95% RH
🌑Dark
Stage 4 of 4
12

Deactivation and Hardening.

🔥
90°C
Stabilization Bake

Panels are baked at 90°C. This kills the fungus, removes moisture, and results in a lightweight, shelf-stable, and inert industrial product.

✓ Fungus Deactivated
✓ Moisture Removed
✓ Shelf-Stable
✓ Inert Product
13
Performance Metrics

Superior Noise Reduction.

Noise Reduction Coefficient (NRC)
0.75
0.85
0.00.250.500.751.0
0.75 – 0.85 ≈ Top-tier commercial fiberglass
Myco-Acoustics
0.82
Fiberglass
0.80
Styrofoam
0.25
14
Safety Profile

Safety Without Chemicals.

🛡️
Fire Retardancy
Natural fire retardancy due to the high chitin content in mycelium — no chemical additives required.
🌡️
Thermal Insulation
Excellent R-value thermal insulation properties for energy-efficient green buildings.
🔬

Chitin — the same biopolymer found in crustacean shells — forms a naturally flame-resistant structural matrix.

15
Comparative Analysis

Bio-Composite vs. Traditional Synthetics.

Feature 🍄 Myco-Acoustics 🧱 Fiberglass 📦 Styrofoam
💰 Cost Low Medium Low
🏥 Health Impact Safe Irritant Toxic
♻️ Biodegradability Yes ✓ No ✗ No ✗
🔊 NRC Rating 0.75–0.85 0.80 0.25
🌍 Carbon Impact Negative High +CO₂ High +CO₂
16
Impact & Scalability

Zero Waste Life Cycle.

🌲
Forest Waste
Input
🏗️
Building Material
Output
🌱
Garden Compost
End-of-Life
🍄
Bio-Process
Transform
ZERO
LANDFILL

Input is forest waste. Output is a building material. End-of-life is garden compost. No landfill requirement at any stage.

17
Carbon Analysis

A Carbon-Negative Solution.

🍄
Myco-Acoustics
Carbon Sequestered
Sequesters carbon within the material during the growth phase
VS
🏭
Traditional Insulation
CO₂ Emitted
Emits CO₂ during energy-intensive manufacturing process
18
Market Opportunity

Scaling Across Industries.

🏛️
Architecture
Soundproofing for studios and offices
$12B market
📦
Logistics
Biodegradable protective packaging
$8B market
🚗
Automotive
Sustainable interior door panels
$5B market
19
Engineering Solutions

Addressing Industrial Limitations.

⚠️ Challenge
Moisture sensitivity of the final panel
✅ Solution
Natural beeswax coating as a hydrophobic barrier
⚠️ Challenge
5–7 day growth time limits throughput
✅ Solution
Vertical farming / Multi-stack incubation systems
20

Building a Greener Tomorrow.

🏭
Take · Make · Waste
Linear Economy
Myco-Acoustics
🌿
Nature · Industry · Regenerate
Circular Economy

By merging fungal biology with industrial engineering, we move from a "take-make-waste" model to a regenerative "nature-to-industry" future.

← → Arrow keys to navigate