AOT Industry White Paper 2026

Data Centers × Waste Tire Low-Temperature Pyrolysis × Distributed Energy × ESG Circular Economy

Prepared by: Applied Optivac Technology (AOT)
Date: May 2026

1. Executive Summary

Global data center energy demand is growing rapidly and has become a core issue in energy security, carbon emissions, and sustainable governance. At the same time, waste tires are among the most difficult solid wastes to manage, with more than 2 billion tires generated every year, placing enormous pressure on the environment.

AOT’s low-temperature pyrolysis technology provides a cross-industry integrated solution: converting waste tires into pyrolysis oil to supply power for data centers, forming a complete circular economy loop.

Integrated model: Data Centers × Waste Tires × Distributed Energy × ESG
Energy conversion models for 100 / 135 / 200 MW data centers
Carbon credits (AEC + ERC + efficiency-based) that are quantifiable, auditable, and monetizable
For 200 MW: 3.16–3.61 million tons CO₂e reduction per year
For 100 MW: 39–66 million waste tires processed per year
Creation of 2,000–3,000 green jobs per project

2. Global Context

2.1 Rapid Growth of Data Center Energy Demand

Data centers currently consume about 3–4% of global electricity, and this share may rise to 8% by 2030. AI, cloud computing, HPC, and large-scale model training are driving data centers to become the fastest-growing load in the global energy system.

Single large data center capacity: 100–300 MW
Annual electricity consumption: 1–2 TWh
Power reliability: Tier IV (99.995%)

Traditional grids can no longer fully support the growth of data centers, pushing the industry to seek: distributed energy, on-site generation, high-efficiency power technologies, and ESG solutions that are measurable and verifiable.

2.2 Global Waste Tire Crisis

More than 2 billion waste tires are generated worldwide every year. Due to their high elasticity, high calorific value, and resistance to degradation, they have become one of the most challenging solid wastes to manage.

Extremely high fire risk (stockpile fires can burn for weeks)
Incineration emissions: about 2.9 tons CO₂e per ton of tires
Breeding grounds for disease vectors (e.g., dengue, malaria)
Widespread illegal dumping

Waste tires have become a major challenge in global environmental governance.

3. AOT Low-Temperature Pyrolysis Technology

3.1 Technical Principle

AOT’s low-temperature pyrolysis operates at 350–450°C to decompose waste tires without combustion. As a result:

No black smoke
No odor
No dioxins
No NOx / SOx emissions

The process breaks carbon–hydrogen bonds in the tire material and converts them into: pyrolysis oil, syngas, recovered carbon black (rCB), and steel wire.

3.2 Product Yields

Pyrolysis oil: 40%
Recovered carbon black (rCB): 35%
Steel: 10–15%
Syngas: 5–10% (for internal use)

3.3 Technical Advantages

Low temperature, low pressure, high safety
Modular design suitable for distributed deployment
Can be deployed near data centers
Can be integrated with SOFC systems
ESG benefits and carbon credits are fully quantifiable

4. Energy Conversion Model (MW → Oil → Tires → 200 TPD)

4.1 Unified Assumptions

Data center capacity: 100 / 135 / 200 MW
Annual operating hours: 8,760 hours
Pyrolysis oil LHV: 40 MJ/kg
Power generation efficiency: ABB diesel 30%, Ceres SOFC 50%
Pyrolysis yield: 0.4 tons of oil per ton of tires
Average tire weight: 10 kg
200 TPD line: 73,000 tons of tires per year

4.2 Pyrolysis Oil and Waste Tire Mass Balance

Scale	ABB: Pyrolysis Oil (t/year)	ABB: Waste Tires (t/year)	Ceres: Pyrolysis Oil (t/year)	Ceres: Waste Tires (t/year)
100 MW	265,000	664,000	156,000	390,000
135 MW	358,000	896,000	211,000	528,000
200 MW	531,000	1,327,000	313,000	782,000

4.3 Number of Tires and 200 TPD Lines

Scale	ABB: Number of Tires (per year)	ABB: 200 TPD Lines	Ceres: Number of Tires (per year)	Ceres: 200 TPD Lines
100 MW	66 million	9	39 million	5.5
135 MW	90 million	12.5	53 million	7.5
200 MW	133 million	18	78 million	11

5. ESG Impact Assessment

5.1 Environmental Impact

AOT’s “waste tire low-temperature pyrolysis × distributed energy × SOFC” model creates large-scale environmental benefits that are fully quantifiable, auditable, and verifiable.

Reduction of waste tire stockpiles and incineration
For 100 MW: 39–66 million waste tires processed per year
Avoided emissions: ~2.9 tons CO₂e per ton of tires not incinerated
Fuel switching: pyrolysis oil replaces diesel / heavy fuel oil (0.4–0.6 kg CO₂e per kWh reduction)
High efficiency: SOFC is 40–60% more efficient than diesel engines

For a 200 MW data center:

Avoided incineration: ~2.26 million tons CO₂e / year
Fuel switching: ~0.7–1.05 million tons CO₂e / year
Efficiency gains: ~0.2–0.3 million tons CO₂e / year

Total: approximately 3.16–3.61 million tons CO₂e per year.

5.2 Social Impact

Each 200 TPD line creates 40–60 direct jobs
A 200 MW project can create 2,000–3,000 green jobs
Reduction of illegal dumping and tire stockpile fires
Reduction of vector-borne disease risks (e.g., dengue)
Lower waste management costs for local governments

5.3 Governance Impact

MRV (Measurement, Reporting, Verification) is fully supported
Covers Scope 1, 2, and 3 emissions
Eligible for international carbon credit schemes (Verra, Gold Standard, ACR, etc.)
Improves ESG ratings and sustainability reporting quality

6. Circular Economy Model

6.1 Closed-Loop System

AOT’s model forms a complete circular economy loop: Waste Tires → Pyrolysis Oil → Electricity → Data Centers → Heat Recovery → By-Product Utilization.

Zero incineration
Zero landfilling
Zero waste (all outputs have value)
All by-products can be reused or sold

6.2 By-Product Utilization

Recovered carbon black (rCB): partial substitute for commercial carbon black
Steel: recycled into steel products
Syngas: used internally for process heat
Heat: can be used for data center cooling (e.g., absorption chillers)

7. Carbon Credits

7.1 Avoided Emissions Credits (AEC)

Waste tire incineration emissions:

1 ton of tires ≈ 2.9 tons CO₂e

For 200 MW (Ceres SOFC):

782,000 tons of tires × 2.9 ≈ 2,267,800 tons CO₂e / year

≈ 2.26 million tons CO₂e per year of AEC.

7.2 Emission Reduction Credits (ERC)

Pyrolysis oil replacing diesel / heavy fuel oil:

1.75 TWh × 0.5 kg CO₂e/kWh ≈ 875,000 tons CO₂e / year

≈ 0.7–1.05 million tons CO₂e per year of ERC.

7.3 High-Efficiency Credits

SOFC’s 40–60% higher efficiency than diesel engines yields: ≈ 0.2–0.3 million tons CO₂e per year of additional reductions.

7.4 Carbon Credit Summary

Type	Annual Volume (200 MW)
Avoided Emissions (AEC)	≈ 2.26 million tons CO₂e
Emission Reductions (ERC)	≈ 0.7–1.05 million tons CO₂e
High-Efficiency Credits	≈ 0.2–0.3 million tons CO₂e
Total	≈ 3.16–3.61 million tons CO₂e / year

7.5 Carbon Monetization

Assuming a conservative price of USD 20 per ton:

3.16–3.61 million tons × 20 ≈ USD 630–720 million per year

A single 200 MW project can generate about USD 0.6–0.7 billion in carbon value annually.

7.6 Eligibility for Certification

Verra VCS
Gold Standard
ACR (American Carbon Registry)
CAR (Climate Action Reserve)
Taiwan Carbon Exchange (TCX)
EU ETS (with CCUS integration)

7.7 Carbon Credits as Strategic Assets

AOT’s model transforms data centers from “energy consumers” into “ESG asset generators.”

8. Deployment Strategy

8.1 Modular Deployment

100 MW: 5–9 × 200 TPD lines
135 MW: 7–12 × 200 TPD lines
200 MW: 11–18 × 200 TPD lines

Modular deployment reduces initial CAPEX, construction risk, and engineering complexity, while shortening implementation timelines.

8.2 Energy Park Around Data Centers

AOT recommends establishing an “Energy Park” near data centers, integrating:

Waste tire pyrolysis systems
SOFC power generation
Heat recovery and cooling systems
rCB processing and sales
Carbon credit MRV and data center

8.3 Global Deployment

North America: large waste tire volumes + dense data centers
EU: high carbon prices + strict ESG regulations
Southeast Asia: strong demand for waste tire treatment
Taiwan: fast-growing data centers + tightening ESG rules

9. Risk Assessment

9.1 Technical Risks

Long-term operational stability of pyrolysis equipment
Durability and maintenance costs of SOFC systems
Market acceptance and quality of by-products (e.g., rCB)

9.2 Regulatory Risks

Differences in waste and environmental regulations across countries
Changes in carbon credit standards and international frameworks
Regulatory adjustments for data center energy and emissions

9.3 Supply Chain Risks

Stability of waste tire collection and logistics
Price volatility in rCB and related markets
Fluctuations in international transport and energy prices

9.4 ESG Audit Risks

Completeness and integrity of MRV data
Compliance with ISO 14064 and similar standards
Requirements from third-party auditors and verifiers

10. Conclusion

AOT’s model—combining data centers, waste tire low-temperature pyrolysis, distributed energy, and ESG—is one of the few system-level solutions that can simultaneously address:

Energy challenges
Waste management challenges
Carbon emission challenges
ESG regulatory and audit challenges

Its core values include:

For 200 MW: ~3.16–3.61 million tons CO₂e reduction per year
For 100 MW: ~39–66 million waste tires processed per year
~USD 0.6–0.7 billion in annual carbon value per 200 MW project
Creation of 2,000–3,000 green jobs
A complete circular economy loop

AOT’s model is not only a technological innovation, but also a future direction for energy, environmental management, and industrial governance.