PROVEN INDUSTRIAL PROCESS ARCHITECTURE

Industrial High-Temperature Waste-to-Syngas Infrastructure

Continuous high-temperature gas-phase conversion architecture (1200โ€“1500ยฐC)

Controlled syngas generation for modular distributed energy systems

>95% Conversion Efficiency (process-dependent)
5 MW Energy Output from 3 t/h Feedstock
Controlled Gas Cleaning & Emissions Profile (Pre-utilization gas treatment)
Process Overview

Validated Process Performance

The technology is based on real industrial operation and tested process conditions

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Tested on RDF, biomass, plastics

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Continuous high-temperature regime

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Stable process behavior

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Real equipment operation footage

Waste is not a cost center. It's your next profit engine.

Traditional methods make you pay twice. DAVER turns these losses into double revenue.

Waste Problem

What You Are Losing Now

  • Direct Losses: High gate fees.
  • Energy Dependency: Buying expensive grid power.
  • Risks: Regulations, fines.
DAVER Solution

What You Gain with DAVER

  • Double Revenue: Gate fees + Energy Sales.
  • Autonomy: Reduce OpEx by 30โ€“50%.
  • Fast ROI: 9โ€“15 months payback.

High-Temperature Gas-Phase Conversion Architecture

Continuous controlled thermochemical conversion with high-temperature gas-phase processing and pre-utilization syngas cleaning.

Not a conceptual model. Based on real industrial process implementation and validated operating conditions.

Technology Schema
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Controlled temperature regime >1200ยฐC

Thermal suppression of dioxins under stable operating conditions.

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Clean syngas output

Minimal tar formation under controlled process conditions.

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Energy self-sufficiency

System operates using internally generated syngas, reducing external energy dependency.

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Chlorine handling

Chlorine compounds are stabilized into non-volatile mineral form under controlled conditions.

Global Market: Potential >$2 Trillion

RDF

RDF (Focus #1)

Non-recyclable MSW, plastics.

3 t/h โ†’ 5 MW el. + 10 MW heat
Tires

Tires

Passenger, truck, mining tires.

2 t/h โ†’ 5 MW el. + Products
Agro

Agro Sector

Manure, litter, sawdust, slaughterhouse waste.

Energy autonomy & savings
Industrial

Industry

Oil sludge, PVC, medical waste.

Safe disposal + Fees

Liquid Waste: Water as a Resource

EC0STRACTOR Module. Dehydration without membranes.

  • Not Membranes: No clogging, no filters.
  • Not Evaporation: No boiling costs.
  • Physics-driven: ~10 W/(L/h) vs 640 W analogs.

Result:

Input: Diluted waste. Output 1: ๐Ÿ’ง Pure Water (90%). Output 2: ๐Ÿ“ฆ Concentrate. Closed Loop: Concentrate feeds DAVER Converter.

Ecostractor Schema
Leadership Team

Leadership built for technology, deployment and capital

DAVERAI combines deep engineering expertise, industrial execution capability, and capital structuring experience required to scale infrastructure deployments.

IG
Field Expertise

Indika Gallage

Strategic Partner ยท Head of Field

Mechanical Eng Lead (Enerfab). 15+ years exp in NA/Sri Lanka. Bridges theory & rugged reality.

IM
Industrial Deployment

Igor Moiseev

Chief Operations Officer (Industrial Deployment)

20 years in industrial projects. Turns pilots into plants. Responsible for integration.

VD
Finance

Vitali Dzemidovich

Finance & Infrastructure Investment Structuring

Architect of financial models. Makes the deal bankable and structured.

Proven Track Record

Validated Industrial Operation โ€” Ontario Eco-Park (Canada)

Technology validated under real industrial conditions, with over 1,800 hours of stable continuous operation.

Real Industrial Operation Footage

Canada Demo
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Site overview.

Ecostractor Demo
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EC0STRACTOR Module.

Operational Metrics โ€” Ontario Eco-Park

  • โฑ >1,800 hours of validated continuous operation
  • โ™ป๏ธ Feedstock: Multiple waste streams (biomass, plastics, industrial residues)
  • ๐Ÿ’ง Water: EC0STRACTOR concentrating liquids
  • โšก Energy Output: 1.2 MW electricity + 2.4 MW thermal energy (continuous operation)
  • ๐ŸŒก๏ธ Operating temperature:1200โ€“1500ยฐC (controlled regime)
  • ๐Ÿ“‰ Residue: Inert mineral fraction <1% (by mass)
Map Canada Site Plan

๐Ÿ‡ฑ๐Ÿ‡ฐ Operational Validation โ€” Distributed Bio-Energy Network (Sri Lanka)

Operational since 2005, demonstrating long-term process stability and scalability from manual systems to automated DAVERAI-based configurations.

Demonstrated continuous operation and temperature stability under real operating conditions

200 kW Operational Unit (2017)

Operational 200 kW unit demonstrating continuous process operation, temperature stability, and verified load connection (~145 kW).

  • โœ” Continuous process operation
  • โœ” Stable temperature regime (1200โ€“1500ยฐC)
  • โœ” Operation under load
  • โœ” Real-time instrumentation data

Economic Value of the Process

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Conversion of waste into energy value

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Reduction of disposal costs

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Stable energy output

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Integration into industrial infrastructure