ECOBIK® benefits

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5 opportunities to increase profit​

a single technology!

Free of charge!​

Reduction of specific heat consumption (fuels)
Reduction of greenhouse gas emissions (ghg)
Reduction of pollutant emissions
Reduction of corrosion processes
Increasing load availability​

No capital costs!

ECOBIK® creates the conditions to operate the combustion equipment at maximum efficiency

Performs significant reductions of pollutant emissions and greenhouse gas emissions

Strictly specialized and customized applications

Technology – 100% Romanian

• 4 patents granted in Romania;
• Patents granted outside Romania: European patent, Eurasian patent (former USSR), USA, China, Korea, Canada
• Romanian brand since 1993
• International brand since 2003
• Applications in Romania, USA, India, Germany, Bulgaria

The beneficiary of the ECOBIK® application will not have capital costs

Guaranteed results

The guaranteed results will be ascertained after a first interval of at least 500 operating hours and will be found in the evolution of the operating data.

Fuel savings​

Sources of savings the fuel consumptionmaximized by applying the ECOBIK® Process

Reduction of excess air and flue gas temperature

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min

%

max

Correction of incomplete combustion

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min

%

max

Reduction of losses by heating water from air humidity

%

min

%

max

Removal of deposits from heat exchange surfaces

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min

%

max

Reduction of heat loss through discharged residues

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min

%

max

Total reduction in fuel consumption​

%

min

%

max

Reduction of GHG​

The effects of using the ECOBIK® Processon the acquisition of CO2 allowances

(example for 10,000 tons of fuel / year – source – EU Regulation No. 601/2012) (certified price – as an example of calculation – EUR 40 / t)

Fuel Emission factor Calorific value Emiss. factor CO2 allowances cost ECOBIK® effect Saving
[tCO2/TJ] [TJ/Gg] [tCO2/tcombustibil] EUR [%] [EUR]
Natural gas 56,1 48,0 1,17 468.000 4 18.720
Residual gases 57,6 49,5 1,16 464.000 5 23.200
Petroleum fuel 77,4 40,4 1,92 768.000 8 61.440
Coke gas 44,4 38,7 1,15 460.000 9 41.400
Bituminous coal 94,6 25,8 3,67 1.468.000 10 146.800
Sub-bituminous coal 96,1 18,9 5,08 2.032.000 10 203.200
Lignite 101,0 11,9 5,34 2.136.000 10 213.600
Petroleum coke 97,5 32,5 3,00 1.200.000 8 96.000

 

Reduction of pollutant emissions​

 

Fuel CO SO2 SO3 Nox COV PM
[%] [%] [%] [%] [%] [%]
Natural gas 15–40 – – 20–60 – >50
Residual gases 20–75 40–60 80–95 20–60 50–95 >50
Petroleum fuel 30–60 25–50 60–95 20–60 50–90 30–70
Coke gas 25–50 20–40 40–80 20–40 30–70 >50
Bituminous coal 25–50 10–25 50–90 20–50 30–70 20–50
Sub-bituminous coal 20–40 10–30 50–90 20–50 30-60 15–40
Lignite 20–40 25–40 40–75 15–30 40–60 15–30
Petroleum coke 20–40 25–40 60–85 20–40 50–70 30–50

Combustion of combustibles

Classic combustion​

Kinetic: (internal combustion engines, gas turbines)

• Premixing the fuel with the oxidizer
• High reaction speeds
• High temperatures
• Less residue
• Advanced decomposition of molecules, including pollutants
• Unburned or partially unburned molecules due to the short time of the engine cycle and due to the “rich” mixture

Diffusion controlled: (boilers, furnaces)

• Fuel and combustion air meet in the combustion chamber in adjacent/concentric jets
• Combustion air and fuel mix gradually, more completely towards the top of the flame
• In the “plasma” zone – different temperatures of the participating molecules
• Molecules with different decomposition energies
• Time spent in the high temperature zone too short for complex, cyclic and polycyclic molecules
• Unburned molecules, or partially unburned – will adhere to heat exchange surfaces
• Combustion is purely oxidative, the electron deficiency is partially compensated by electrons extracted from the crystal lattice of the metal of the heat exchangers

CLASSIC COMBUSTION IS PURE OXIDATIVE => LOSS OF ELECTRONS!

REDUCING COMBUSTION – COMBUSTION WITH ECOBIK®

Controlled reducing combustion process inside an oxidative atmosphere….

Initialization:

• Starts at approx. 400 °C with continuous generation of O2- ions => new reaction chains => modifications of classic combustion process
• Reaction promoters are formed
• Hydride ions (H-) are generated and other donor ions are activated from the “ion soup” from the “plasma” => transient reducing zones appear (by trimolecular collisions, but most likely at the walls of the heat exchangers)

Combustion:

• Significant increase in temperature in “plasma” => the level of energy required to break the bonds of complex molecules (especially cyclic and polycyclic) is reached
• Increases the formation speed and the CO pressure => it is “expelled” from the fuel jet and meets O2 faster
• CO rapidly converted to CO2 increases the peripheral temperature of the “plasma” (50 kcal / gCO) and reaches the temperature levels necessary to initialize the decomposition of complex molecules

Reduction:

• Donors obtained with ECOBIK® will reduce, step by step, through effective collisions, the oxidation state of the “core” of pollutant molecules.
• Sulfur is reduced to elemental sulfur
• Corrosion-affected metal areas restore their electronic balance of the metal crystal lattice

     ECOBIK® creates a surplus of electrons during combustion => reducing combustion process!

    What does ECOBIK® mean

    Nano treatments to maximize performance of
    industrial combustion equipment …

    performing:

    Acceleration of combustion processes
    by means of combustion air…

    resulting in:

    Controlled reducing combustion inside an oxidative atmosphere….