Industrial Carbonization Systems for Biochar or bio-carbon & Thermal Processing

Engineered carbonization process control, thermal reliability and industrial-
scale manufacturing.

Why Greenpower

Engineering Reliability at Industrial Scale

Process control & thermal engineering

Advanced oxidative reactions of pyrolysis gases management and temperature stabilization ensure eco consistent system performance and operational safety

Industrial-scale carbonization systems

Engineered for continuous bio-carbon production by high-capacity energy efficient conditions

In-house r&d, engineering & manufacturing

Full-cycle integration from design to fabrication guarantees quality control and technical consistency at every stage

Decarbonization

Our systems are designed to reduce emissions and improve energy efficiency in line with modern industrial environmental standards
Ready to Discuss Your Carbonization Project?

Ready to Discuss Your Carbonization Project?

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About GREENPOWER

GreenPower is an international engineering company specializing in industrial biomass pyrolysis and carbonization systems.

We design and manufacture complete thermal processing solutions, including pyrolysis units, raw material drying systems, combustion devices, and automated control systems (ACS) for precise process management.

Our portfolio includes mobile carbonization furnaces (EKKO-2iq), continuous dry pyrolysis systems (BIO-Carbon), and integrated supporting equipment designed for stable, high-capacity industrial operation.

GreenPower combines in-house engineering, manufacturing, and applied research in biochar and emission reduction technologies. With over 20 years of expertise and internationally protected solutions, we deliver reliable systems aligned with global industrial and environmental standards.

Royalty program

Embrace the Power of Clean Energy Investments

The Royalty Program by GreenPower invites partners to establish carbonization equipment production in their regions. Partners gain exclusive rights, technical documentation, and support for manufacturing high-quality furnaces like BIO-Carbon and EKKO-2iq. The program supports eco-friendly production while sharing innovative technologies globally.

Detailed description

Our certificates

International compliance & industrial standards
BIO-CARBON-3 and EBC requirements: how to ensure controlled combustion of pyrolysis gases
BIO-CARBON-3 and EBC requirements: how to ensure controlled combustion of pyrolysis gases

BIO‑CARBON‑3 meets the key engineering requirements of the EBC standard for pyrolysis plants when using pyrolysis gases and control modes: 1) The principle of handling pyrolysis gasesThe BIO-CARBON-3 utilizes a design that prevents pyrolysis gases from being released into the atmosphere without treatment: all steam and gas are directed to a high-temperature, two-stage afterburner. This

Fundamental Technological Approach to the Design of GREENPOWER Pyrolysis Systems
Fundamental Technological Approach to the Design of GREENPOWER Pyrolysis Systems

1. “Dry” Pyrolysis Process: Clean and Efficient All GREENPOWER systems are based on dry pyrolysis technology, which eliminates the formation of liquid by-products (such as wood tar and pyrolysis liquids) as production waste. All pyrolysis gases are directed to the combustion chamber and then to the afterburner, generating thermal energy required to sustain the process.

Dry pyrolysis system BIO-CARBON: 24/7 Without Stops, what Economics Look Like Without Cyclical Downtime
Dry pyrolysis system BIO-CARBON: 24/7 Without Stops, what Economics Look Like Without Cyclical Downtime

In charcoal and biochar production, downtime is often treated as inevitable. Batch systems require cooling, unloading, reheating, and operator intervention between cycles. Each stop reduces effective output, increases labor costs, and creates variability in product quality. Continuous production changes the economic model. BIO-CARBON, developed by GREENPOWER, operates 24/7 without technological stops. The carbonization process is

Ash Content Is Formed Before Carbonization: The Role of Air and Sealing
Ash Content Is Formed Before Carbonization: The Role of Air and Sealing

In industrial charcoal production, ash content is often treated as a result of raw material quality. In reality, ash levels are largely influenced by process control — and many problems begin before carbonization is complete. One of the main hidden factors affecting ash formation is uncontrolled air ingress. When oxygen enters the carbonization zone, partial

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Faq

Equipment for drying
EKKO-2 Pyrolysis Unit
BIO-CARBON Carbonization Unit
Which dryers does GreenPower offer?

The design of the drying equipment is determined by the choice of raw materials for drying.

  • Chamber dryer for drying wood (firewood) and charcoal briquettes.
  • Drum dryer for small raw materials – sawdust, wood chips, etc. 
  • Shaft dryer can be used for wood chips and wood.
What can a chamber dryer be used for?

Chamber dryer can be used for: 

  • Wood drying, for the carbonization process in carbonization furnace of the ЕККО type.
  • Pre-drying the wood significantly shortens the carbonization process in the carbonization furnace and improves the quality of the charcoal. Which in general increases the productivity of furnaces. Optimum drying temperature <200°C. The duration of the drying process corresponds to the duration of the carbonization process in the furnace.
  • Wood drying for fireplaces. Promotes improvement of burning and storage of wood. Typically, the moisture content is adjusted to 15-20%. Optimum drying temperature <150°C.
  • Drying charcoal briquette for BBQ or hookah. Briquetting line included. Optimum drying temperature <100°C.
  • Heating of industrial or household premises. It is possible to receive both hot water and hot air.
What is the heat carrier (where does the heat come from) for the chamber dryer?
  • Separate fire chamber device or a gas (liquid-fuel) burner, for example when using a dryer for fireplace wood 
  • Excess heat from the carbonization furnace EKKO, with a pre-drying system, is used in this case to increase the furnace capacity to pre-dry the wood.
  • Excess heat from the carbonization furnace BIO-KILN, with system for extracting excess heat from the furnace is used to dry charcoal briquette for BBQ or hookah. It is also possible for heating industrial and household premises.
What is the efficiency of GreenPower dryers?

Drum dryer. The maximum effect of the drying plant is ensured by supplying the same amount of thermal energy to each individual piece of raw material. This process is maximally provided by the design of drum drying, where the raw material is in a pseudo-suspended state. However, the use of drum drying for wood is almost impossible due to large pieces of raw materials.

Chamber dryer. In chamber dryers, this effect is ensured by the efficient mixing of heat in the chamber. And also due to the use of recirculation – the repeated use of heat for the chamber, that is, heat is chasing around, moisture is periodically ejected from the chamber.

Main scope of GreenPower dryers?

Dryers are used for: 

  • preparation of raw materials for the carbonization process, which significantly reduces the production cycle time and improves the quality characteristics of charcoal;
  • production of dry firewood for use in fireplaces;
  • preparation of raw materials for the briquetting process.
Who are the main consumers (Unit buyers) of EKKO-2? 
  • Logging and woodworking enterprises (with their own feedstock or waste products).
  • Producers of fuel wood and energy crops (eucalyptus, bamboo, energy willow, etc.).
  • Agricultural enterprises, orchards, and agro-biomass processors (subject to feedstock preparation and applicability for chamber carbonization).
  • Companies generating plant-based biomass/carbon-containing feedstock (including some lump waste).
  • Investors/operators of BIOCHAR projects (carbon removal projects, soil improvement, ESG) requiring stable quality and process parameter traceability.
Who are the main consumers of the finished product (charcoal / biochar)? 
  • BBQ/HoReCa and retail market.
  • Metallurgy.
  • Silicon production.
  • Activated carbon production.
  • BIOCHAR as a soil conditioner/eco-friendly fertilizer (depending on application standards).
  • Other industries requiring carbon materials (sorbents, filtration, etc. — based on the customer’s technical specifications).
What is EKKO-2 and what is its operating principle?

EKKO-2 is a semi-continuous chamber carbonization (slow pyrolysis) unit equipped with two technological chambers. The process is based on controlled heat supply and the complete neutralization of pyrolysis gases. The thermal energy generated during the neutralization of pyrolysis gases is used for drying the feedstock and maintaining the pyrolysis process, which reduces the need for additional fuel once a stable operating mode is reached.

The main purpose of the EKKO-2 fixed-bed pyrolysis unit is the production of lump charcoal with a minimal content of fine fractions.

What processes take place “outside the Unit” and “inside the Unit”? 

A. Processes outside the pyrolysis Unit: 

  1. Feedstock size reduction: cutting and splitting, and in some cases crushing and chopping, i.e. reducing the material to an acceptable fraction, which facilitates thermal processes and loading of feedstock into the trolleys;
  2. Loading feedstock into the trolleys;
  3. Pre-drying of feedstock: forced drying using excess heat from the EKKO-2 process;
  4. Charging the trolley into the chamber and removing the trolley with hot charcoal from the chamber;
  5. Cooling the charcoal in the trolleys without oxygen access;
  6. Discharging charcoal from the trolley, and if required, charcoal stabilization and packaging.

B. Processes inside the pyrolysis Unit: 

  • Final drying and initial stage of pyrolysis (100–250°C): removal of moisture and primary pyrolysis products;
  • Carbonization (250–450°C);
  • Calcination (approximately 450–550°C): applied when higher fixed carbon content is required (Cfix > 83%).

*Transitions between modes occur according to the ACS algorithms and/or by the operator’s decision;

What operating modes of the chambers are provided? 

Pre-drying mode: control of the maximum allowable drying temperature of the feedstock, preventing the onset of pyrolysis reactions in the material;

Typical pyrolysis chamber modes: “DRYING”, “PYROLYSIS START”, “PYROLYSIS END”, “CHARCOAL READY”, “RELOADING”.

What is BIO-CARBON and what is its purpose?General Questions about BIO-CARBON

BIO-CARBON is a vertical moving-bed unit for continuous dry carbonization of biomass. Based on patented technology and full automation, the unit is an industrial asset that produces:

• High-quality charcoal with fixed carbon content (Cfix) from 82% to 95%
• Biochar for agricultural applications
• Industrial charcoal for metallurgy, activated carbon production, semiconductors, and silicon production
• High-potential thermal energy as a by-product

The unit operates 24/7 without technological shutdowns and ensures environmentally friendly production through full neutralization of pyrolysis syngas. 

What are the advantages of BIO-CARBON compared to traditional charcoal production methods?

 The main advantages of BIO-CARBON include: 

  • Environmental friendliness: Emissions to the atmosphere consist only of water vapor and CO₂. Pyrolysis gases are fully neutralized at temperatures above 1300°C, eliminating harmful emissions. Compared to traditional methods, which produce up to 4 tons of harmful emissions per 1 ton of charcoal.
  • 100% automation: Minimal personnel involvement (1 operator + 1 assistant per shift). Automatic control of all parameters via the 2026 control system.
  • Continuous operation: 365 days a year, 24 hours a day, 7 days a week without technological shutdowns.
  • Stable product quality: The automated control system ensures consistent characteristics of the produced charcoal.
  • Energy efficiency: The unit operates on its own pyrolysis gas; additional fuel is only required during startup (25–50 liters of propane-butane gas). Generates excess heat of 300–1000 kW.
  • Low power consumption: BC-2: 8 kW; BC-3: 13.6 kW.
  • Compactness: Small footprint with high productivity.
  • High reliability: 100% refractory materials, service life of 5–10 years.
What BIO-CARBON models are available?

There are two main unit models, differing in capacity and dimensions: 

ModelProductivity (t/month)Productivity (t/year)Energy consumption (kW/h) 
BIO-CARBON-2 (BС-2)40-70*440-7708
BIO-CARBON-3 (BС-3)80-120*880-132013.6

*Note: productivity is specified for a fixed carbon content (Cfix) 82-95%

In which countries are BIO-CARBON unit units used? 

GreenPower unit is officially operated in more than 39 countries worldwide, including countries in Europe, Asia, Africa, South America, and North America. The unit has obtained environmental operating permits in all of these regions.

What factors affect the unit’s productivity? 

The productivity of BIO-CARBON depends on the following key factors: 

  1. unit model: BIO-CARBON-2: 60–100 t/month; BIO-CARBON-3: 80–140 t/month
  2. Fixed carbon content (Cfix) in the final product: The lower the required Cfix, the higher the productivity. For example, for the BIO-CARBON model:
  • At Cfix 80–85%: up to 120–140 t/month
  • At Cfix 90–95%: up to 80 t/month
  1. Bulk density of the feedstock: Depends on the material density and its particle size. As bulk density increases, the unit productivity increases.
  2. Feedstock moisture content: Should be below 15% (maximum 20%). Lower moisture increases productivity, while higher moisture decreases it. Optimal moisture: 10–12%.
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