The Challenge

Across many agricultural regions, large volumes of crop residues are generated every year. These residues include rice straw, cassava pulp, sugarcane leaves, and livestock manure.

In many areas, agricultural residues are:

• openly burned in fields

• left to decompose unmanaged

• underutilized as a resource

These practices contribute to several environmental and economic challenges.

Open burning of crop residues is a major source of air pollution in agricultural regions. Smoke from residue burning can significantly increase particulate pollution, affecting both rural communities and nearby urban populations.

Unmanaged biomass decomposition can also produce methane emissions, contributing to climate change.

At the same time, valuable organic resources that could support soil restoration, renewable energy, and bio-based materials are lost.

A key reason for this situation is the absence of organized biomass supply chains.

Without reliable systems for collecting, aggregating, transporting, and storing agricultural residues, sustainable utilization pathways cannot scale.

The Solution

The BioSupplyChain Platform addresses this challenge by establishing integrated systems to collect and manage agricultural biomass.

Rather than focusing on a single technology, the platform focuses on building the upstream infrastructure required for biomass supply chains.

Key elements of the platform include:

• agricultural residue collection systems

• biomass aggregation hubs

• bale yards and storage areas

• biomass logistics networks

• farmer participation and supply agreements

• digital monitoring systems

By building the missing infrastructure for biomass supply chains, agricultural residues can be mobilized at scale and utilized sustainably.

The Platform

The platform connects agricultural production with circular biomass utilization systems.

The system operates through several key stages.

Agricultural Residue Collection

Farmers participate in structured biomass collection systems that allow residues to be collected rather than burned.

Residue collection may include:

• straw baling

• field residue collection

• biomass transport from farms to aggregation hubs

These systems allow agricultural residues to become part of a managed supply chain.

Biomass Aggregation Infrastructure

Biomass aggregation hubs serve as regional collection points where residues from surrounding farms are consolidated.

Aggregation infrastructure may include:

• biomass bale yards

• storage areas

• weighing facilities

• feedstock quality management systems

Aggregation hubs reduce logistics costs and enable biomass resources to be mobilized at scale.

Biomass Logistics Network

Efficient logistics are essential for biomass supply chains.

The platform develops logistics systems that connect farms, aggregation hubs, and downstream utilization facilities.

These systems may include:

• regional transport routes

• biomass transport trucks

• storage infrastructure

• logistics coordination systems

Digital Monitoring Systems

The platform integrates digital monitoring tools that track biomass flows and environmental impacts.

Monitoring systems help measure:

• biomass volumes collected

• avoided residue burning

• methane emissions reduction

Digital monitoring supports transparency and climate reporting.

Biomass Resources

The BioSupplyChain Platform is designed to aggregate multiple agricultural biomass resources.

These include:

Rice Straw

Rice straw is one of the most abundant agricultural residues in major rice-producing regions. The platform begins with rice straw supply chains due to its availability and the environmental challenges associated with straw burning.

Cassava Residues

Cassava pulp and residues from starch processing represent significant biomass resources that can be integrated into circular supply chains.

Sugarcane Residues

Sugarcane leaves and field residues represent additional biomass resources in agricultural landscapes.

Livestock Manure

Animal manure is an important organic resource that can support circular bioenergy systems.

The platform is designed as a multi-feedstock biomass network, capable of integrating different agricultural residues over time.

Circular Biomass Utilization

Once biomass supply chains are established, agricultural residues can support multiple sustainable utilization pathways.

These pathways allow biomass resources to contribute to a circular bioeconomy.

Organic Compost

Agricultural residues can be converted into organic compost that improves soil health.

Compost can help:

• increase soil organic matter

• improve soil structure

• enhance water retention

• support regenerative agriculture

Biomethane

Organic biomass and agricultural residues can support biomethane production through anaerobic digestion.

Biomethane can be used as a renewable gas for transport, industry, or energy systems.

Renewable Bioenergy

Agricultural biomass can support multiple renewable fuel pathways when appropriate infrastructure exists. Examples include bioLNG, biomethanol, and other renewable fuels that can replace fossil energy in transport, industry, and agriculture.

Bio-based Materials

Agricultural residues can also support future bio-based material pathways, including sustainable materials derived from biomass resources.

The BioSupplyChain Platform enables these pathways without locking biomass into a single utilization model.

Climate Impact

By organizing biomass supply chains, the BioSupplyChain Platform contributes to several environmental benefits.

Methane Reduction

Improved biomass management reduces methane emissions associated with unmanaged organic waste and residue decomposition.

Eliminating Residue Burning

By creating viable markets for agricultural residues, the platform enables farmers to avoid burning residues in fields.

Air Quality Improvement

Reducing agricultural burning can significantly improve regional air quality.

Soil Restoration

Compost production supports soil regeneration and improves agricultural sustainability.

Circular Bioeconomy

The platform transforms agricultural residues into valuable resources within a circular bioeconomy.

Impact Metrics

Measuring Impact

The BioSupplyChain Platform is designed to deliver measurable environmental and rural development benefits through organized biomass supply chains.

Target Impact (Initial Phase)

Biomass Aggregation
1–2 million tonnes of agricultural residues aggregated annually.

Residue Burning Reduction
Significant reduction in open burning of agricultural residues.

Methane Mitigation
Reduction of methane emissions from unmanaged biomass decomposition.

Farmer Participation
Thousands of farmers participating in organized biomass supply networks.

Soil Restoration
Large-scale production of organic compost supporting regenerative agriculture.

Circular Bioeconomy Development
Enabling multiple circular utilization pathways including compost, biomethane, and bio-based materials.

Implementation

The BioSupplyChain Platform is implemented in collaboration with:

CEV is a Thailand-based organization focused on developing circular biomass systems and regenerative agricultural supply chains. Working with farmers, local partners, and technology providers, CEV supports the development of biomass aggregation infrastructure and sustainable utilization systems.

Partnerships

The BioSupplyChain Platform welcomes collaboration with organizations working in climate mitigation, sustainable agriculture, and circular bioeconomy development.

Potential partners include:

• climate funds and development agencies

• agricultural organizations and farmer groups

• technology providers

• research institutions

• circular bioeconomy investors

Through collaboration, agricultural residues can be transformed from waste into valuable resources that support climate solutions, rural development, and sustainable agriculture.