Biomass Gasification System is also known as Biomass Gasification Power Generation or Biomass Power Generating System as it consists of gasifying a variety of solid biomass energy with low energy value such as organic waste, forestry and agricultural waste, etc. to produce biomass gas. It enters the gas generating set technology to produce energy after being cleaned and cooled. Finding a way to use biomass gasification to produce electricity can address both the environmental contamination caused by different organic wastes and the efficient use of renewable energy.
What makes up a Power Plant that Uses Biomass Gasification?
Biomass gasification internal combustion power production system is essentially consisted of gasification furnace, gas purification system and internal combustion generator:
An apparatus that transforms biomass energy from solid to gas is called a gasifier. Controlling the gasification furnace’s air supply allows biomass to partially burn, converting low-value biomass energy from a solid to a gaseous form and producing various byproducts including methane (CH4), carbon monoxide (CO), and hydrogen (H2). The process of gasifying biomass is completed by gases containing flammable components, such as carbon hydrocarbons (CnHm).
Gasification of Biomass Generator Set
The temperature of the gas produced by gasification varies depending on the kind of furnace used; it typically ranges from 350 to 650 degrees Celsius. The gas contains contaminants like partially broken dust and tar. Apply cooling and purifying procedures to bring the gas’s temperature down to less than 40 °C and regulate the amount of tar dust to less than 50 mg/Nm3. The gas will enter the internal combustion engine to produce electricity after it has been cleaned.
The internal combustion engine rotates its primary shaft at a high speed as a result of the gas mixture air burning, which also powers the generator to produce energy.
The Biomass Gasification Power Plant solves the problems of waste pollution and sensible energy use by converting various types of waste into treasure and producing high-quality electrical energy through the aforementioned procedure.
Biomass Gasification Power Generation are divided into 3 steps.
Gasification: Solid biomass is converted into gas fuel by the gasifier.
Gas Purification: A purification system is required to remove pollutants such as ash, coke, and tar from the biogas.
Gas Power Generation: Power is produced by the internal combustor or gas turbine powered by biogas. It is frequently combined with a steam turbine and waste heat boiler to increase efficiency.
Why Choose Kerone Biomass Power Generation Gasification System
Kerone is a worldwide known provider of thermal and sustainable energy solutions, with a long history spanning 50 years of expertise in engineering and manufacturing. Based on the values of creativity and honesty, Kerone has consistently pushed the limits of technology development to provide customized solutions that satisfy the changing demands of markets all over the world.
Choosing Kerone’s Biomass Power Generation Gasification System means investing in a proven, thermally efficient, and environmentally responsible power solution. Kerone’s deep expertise in thermal engineering ensures that each gasification system is optimized for maximum syngas calorific value, minimal tar formation, and consistent power output. The systems are designed for easy operation, reduced maintenance, and integration with existing power infrastructure. Kerone also provides end-to-end project support, from feedstock assessment and system design to installation, commissioning, and operator training, ensuring a smooth transition to biomass-based power generation.
Types and Features of Biomass Power Generation Gasification System
Feedstock Flexibility: Capable of processing agricultural waste, wood chips, sawdust, and other biomass materials.
Advanced Gasification Reactor: Efficient partial combustion and optimized syngas production.
Syngas Cleaning and Conditioning: Removal of tar, dust, and contaminants for safe engine operation.
Syngas Utilization:Suitable for engines, gas turbines, or combined systems.
Combined Heat and Power (CHP): Enables cogeneration for improved overall efficiency.
Modularity and Scalability: Systems can be customized for small to large-scale applications.
Resource Efficiency and Waste Management: Converts waste into valuable electrical energy while reducing environmental pollution.
Key Features
High gasification efficiency with syngas calorific value of 1000–1200 kcal/Nm³
Low maintenance and easy operation
Grid synchronization capability for seamless integration with utility or captive power systems
Fully adjustable and customizable process parameters
Refractory-lined reactor chambers designed for high-temperature stability and long service life
Automated biomass feeding and ash removal systems for continuous unattended operation
Powered by AI, ML & IoT
Future-Ready Engineering Driven by AI & IoT
Our advanced AI, ML, and IoT technologies, this solution delivers smarter automation, real-time insights, and predictive intelligence to enhance efficiency and drive future-ready growth.
Real-Time Monitoring & Control
Continuous tracking of process parameters with instant adjustments.
Predictive Maintenance
Intelligent fault detection to prevent failures before they occur.
Adaptive Process Optimization
Dynamic tuning of operations for maximum output and efficiency.
Cloud Dashboards & Analytics
Unified access to real-time insights and performance trends.
Energy & Resource Savings
Smarter utilization of energy to cut costs and reduce waste.
Secure IoT Connectivity
Encrypted data flow with seamless integration across plant systems.
Applications of Biomass Power Generation Gasification System
Kerone’s Biomass Power Generation Gasification Systems are extensively used in energy generation and industrial decarbonization. Typical applications include:
Captive power generation for agro-processing industries, textile mills, and food processing plants
Rural electrification projects utilizing locally available biomass resources
Combined heat and power (CHP) systems for industrial and institutional facilities
Grid-connected renewable energy plants under biomass power purchase agreements
Replacement of diesel generators in off-grid locations to reduce fuel costs
Waste-to-energy projects converting municipal solid waste and biomass blends into electricity
Kerone’s biomass power generation gasification system solutions deliver unmatched reliability, high efficiency, and precision engineering. Each system is designed to address industry-specific challenges while ensuring optimized productivity, safety, and sustainability. Kerone’s commitment to engineering excellence, comprehensive project support, and robust after-sales service makes its gasification systems the preferred choice for sustainable power generation worldwide.
Seamless Export Connections Global & Local
Our Global Footprint in Industrial Excellence
Delivering world-class industrial and process solutions across countries with precision, innovation, and reliability.
Peru
Chile
Argentina
Mexico
Colombia
Brazil
USA
Canada
United Kingdom
France
Germany
Spain
Italy
Netherlands
Sweden
Switzerland
Poland
Portugal
Ireland
Czechia
Romania
Hungary
Austria
Greece
Kazakhstan
Uzbekistan
Turkmenistan
Algeria
Egypt
Nigeria
Kenya
South Africa
Saudi Arabia
UAE
Israel
Russia
India
China
Japan
South Korea
Thailand
Vietnam
Malaysia
Singapore
Indonesia
Philippines
Australia
New Zealand
Pan-India Presence. Local Expertise.
Raipur
Bilaspur
Panaji
Vasco da Gama
Gandhinagar
Ahmedabad
Surat
Chandigarh
Gurgaon
Shimla
Manali
Bengaluru
Mysore
Kochi
Pune
Mumbai
Thane
Navi Mumbai
Hyderabad
Chennai
Coimbatore
Kolkata
Lucknow
Jaipur
Udaipur
Jodhpur
Dehradun
Haridwar
Bhubaneswar
Product Gallery
Frequently Asked Questions (FAQ)
The system works well with wood chips, coconut shells, rice husk, sugarcane bagasse, municipal solid waste, and other biomass with moisture content below 15–20%. Feedstock-specific customization is available.
Kerone's systems range from 20 kWe for small rural applications to several megawatts for industrial power plants, with configurations scalable to specific project requirements.
The syngas passes through cyclones for particulate removal, then wet scrubbers and dry filters to remove tar and moisture, producing clean engine-grade gas suitable for internal combustion engines and turbines.
Typical overall electrical efficiency ranges from 18–28%, and combined heat and power (CHP) efficiency can exceed 75% when waste heat is also utilized for thermal applications.
Yes, Kerone's systems can be configured for grid synchronization with appropriate voltage and frequency control, suitable for both captive and grid-export power arrangements.
The system produces significantly lower emissions compared to direct biomass combustion, with CO, NOx, and particulate levels well within CPCB and international environmental standards.
Gasification converts biomass into a combustible gas before extracting energy through an internal combustion engine or gas turbine, generally achieving higher electrical efficiency than direct combustion paired with a steam cycle, particularly at the small to medium scale where steam turbine efficiency is limited. Gasification also produces significantly lower particulate and certain pollutant emissions compared to direct combustion, since much of the ash and tar is removed from the gas stream before combustion in the engine rather than remaining in a single combustion exhaust stream. Direct combustion with steam generation remains more practical for very large-scale power generation and for biomass with characteristics poorly suited to gasification, such as very high ash or moisture content. For distributed, small to medium-scale power generation using relatively consistent biomass feedstock, gasification's efficiency and emissions advantages generally make it the preferred technology choice over direct combustion.
Refractory linings within the gasification reactor typically require relining every 3 to 7 years depending on operating temperature, feedstock ash characteristics, and thermal cycling frequency from startup and shutdown events. Structural reactor components and gas cleaning vessels, built from appropriate corrosion and heat-resistant materials, generally last 15 to 20 years with proper maintenance. Gas engines running on syngas typically require major overhaul at intervals shorter than engines running on cleaner fuels, often in the range of 20,000 to 40,000 operating hours depending on syngas cleanliness and engine design, with overall engine block life extending well beyond that through successive overhauls. Buyers should budget for these component-specific replacement and overhaul cycles as part of total cost of ownership rather than assuming the entire system maintains constant performance throughout its operating life without scheduled component renewal.
A common misconception is that any biomass material works equally well as gasification feedstock, when moisture content, particle size, and ash content significantly affect gasifier performance, and feedstock outside the system's design specification can cause poor gas quality, excessive tar formation, or operational instability. Some buyers assume gasification systems require constant expert supervision, when modern systems with automated feeding, ash removal, and process control require considerably less hands-on operation than older manual designs, though qualified operators remain necessary. Another misconception is that gasification eliminates all environmental concerns associated with biomass utilization, when proper gas cleaning and combustion are still necessary to keep emissions within regulatory limits, and ash and char byproducts still require appropriate handling. Understanding gasification as a well-engineered but still technically demanding process, rather than a simple drop-in replacement for any waste disposal challenge, sets more realistic expectations for system performance and operational requirements.
Ash generated during gasification, depending on feedstock composition, is typically removed through automated systems and can often be used as a soil amendment or in some cases as a raw material input for other industrial processes, subject to testing for heavy metal content and other characteristics relevant to its intended secondary use. Char, partially gasified solid material that hasn't fully converted to gas, can sometimes be recovered and sold or used as a solid fuel or soil conditioning product depending on its specific properties and the regulatory framework governing its use. Disposal as general waste remains an option where beneficial reuse isn't practical, though this represents lost value compared to finding an appropriate secondary use. Kerone evaluates the specific ash and char characteristics expected from a client's chosen feedstock during the design phase to help identify the most economically and environmentally favorable handling approach for that project's byproducts.
Yes, Kerone designs gasification installations with modular reactor trains where additional gasifier and engine units can be added in parallel as power demand increases, rather than requiring replacement of the entire system to add capacity. Civil infrastructure, fuel storage, and electrical interconnection are typically planned with reserve capacity for anticipated expansion phases even when only the initial capacity is installed immediately. Feedstock supply chain capacity needs to be evaluated alongside any expansion plan, since additional generation capacity requires a proportionally larger and reliable feedstock supply to operate at full utilization. This modular approach allows facilities to start with a capacity matched to current confirmed feedstock availability and demand, then add capacity incrementally as both feedstock supply arrangements and power demand grow, rather than committing to a single large installation upfront based on uncertain future projections.
Requirements vary by jurisdiction but typically include environmental clearance covering air emissions and waste handling, consent to establish and operate from the relevant pollution control authority, and electrical safety and grid interconnection approval if the system will export power or synchronize with utility infrastructure. Fire safety clearance is often required given the combustible nature of both biomass feedstock storage and the syngas handling process. For systems exceeding certain capacity thresholds, more extensive environmental impact assessment may be required before approval. Kerone's project support typically includes assistance navigating the specific permit requirements applicable to the installation's location and capacity, since requirements differ significantly between jurisdictions and project scale. Buyers should factor permit approval timelines into their overall project schedule from the outset, since regulatory approval processes can take several months and run in parallel with, rather than after, the engineering and procurement phases of the project.
Kerone’s custom-designed heating and processing solutions are built to meet the demands of your growing operations. Whether you’re upgrading equipment, expanding production, or need a tailor-made solution
Peru
Chile
Argentina
Mexico
Colombia
Brazil
USA
Canada
United Kingdom
France
Germany
Spain
Italy
Netherlands
Sweden
Switzerland
Poland
Portugal
Ireland
Czechia
Romania
Hungary
Austria
Greece
Kazakhstan
Uzbekistan
Turkmenistan
Algeria
Egypt
Nigeria
Kenya
South Africa
Saudi Arabia
UAE
Israel
Russia
India
China
Japan
South Korea
Thailand
Vietnam
Malaysia
Singapore
Indonesia
Philippines
Australia
New Zealand
