BIOLOOP

Efficient mobilization and a well-organized supply chain are crucial for converting residual streams into high-value products. Thanks to its strategic location and extensive logistical infrastructure, Flanders is in a strong position to translate bio-economic innovations into economically viable models.

Context

Flanders has put forward an ambitious plan to catalyze the transition towards a more biobased economy. Within the region, there is extensive know-how and expertise in biomass valorization, (bio)catalysis, green chemistry and industrial biotechnology. There are also large amounts of undervalorized biomass, geographically spread over the region. Organizing the effective and efficient mobilization of biomass residues is one of the key drivers for the successful performance of the cascading biorefinery approach. In many cases, efficient supply chains are key to turning bioeconomy innovations into economically viable success stories. Thanks to its central location within Europe, Flanders is an international leader when it comes to logistics, transport infrastructure and knowhow.  

Aim

The main aim of the BIOLOOP project is to create a knowledge framework to support the design and optimization of biobased supply chains in Flanders. To reach this ambitious goal BIOLOOP will generate new insights into the mobilization of (residual) biomass and how technological, economic and social parameters and constraints shape existing and new supply chains. All the knowledge and rules will be integrated into four new generic decision support models (DSMs) to simulate and optimize the mobilization of biomass feedstock dealing with multi-feedstock and multi-high value applications and considering circular and sustainable principles, novel business models and collaboration strategies. 

Project Overview

BIOLOOP is an Intercluster Strategic Basic Research project that develops a knowledge framework for designing and optimizing biomass-based supply chains in Flanders. It investigates how technological, economic, ecological, and social factors influence the mobilization of residual biomass and how both existing and new supply chains can be structured more efficiently.

These insights are translated into four Decision Support Models (DSMs) that simulate and optimize the logistics of biomass raw materials. They take into account various raw materials and applications and integrate principles such as sustainability, the circular economy, and innovative collaborations. This is done in close cooperation with the Industrial Advisory Council and spearhead cluster organizations.

BIOLOOP thus contributes to Flanders' transition to a bio-based economy and supports the deployment of existing and new technologies to improve the efficiency of biomass supply chains. Objective

The BIOLOOP project aims to narrow the gap between supply and demand and pave the way for high-quality bio-based applications in various sectors. By strategically positioning Flanders as a logistics hub within the bio-economy, the project strengthens regional competitiveness.

The project develops a widely applicable knowledge framework that supports companies in designing and optimizing bio-based supply chains. This leads to more efficient use of resources, improved logistics processes, and optimal alignment with market needs.

BIOLOOP integrates circular and sustainable principles and explores innovative business models and collaboration strategies that strengthen partnerships between industries and stakeholders. In this way, the project contributes to a more sustainable and circular economic model.

Key Milestones

1. Defining input parameters: Identify and prioritize the most decisive techno-economic, environmental and social criteria to improve biomass demand-supply matching.
2. Developing optimization models: Integrate circularity and collaboration concepts into a multi-objective optimization model for bio-based supply chain design.
3. Validating models: Apply and validate the BIOLOOP DSM through three case studies, optimizing logistics chains from biobased raw materials to high-value end products.
4. Assessing collaboration options: Explore novel collaboration and gain-sharing models for biomass mobilization and logistics.
5. Evaluating model complexity: Compare outcomes of different model complexity levels to identify the trade-off between effort and prediction power.

Impact and benefits

BIOLOOP accelerates Flanders' transition to a bio-based economy by:

• More efficient use of biomass: Optimally mobilizing and deploying underutilized biomass resources.
• Developing sustainable supply chains: Establishing efficient and environmentally friendly logistics structures.
• Stimulating innovative collaborations: Supporting new business models and partnerships in the bio-economy.
• Maximizing the valorization of raw materials: Optimally utilizing biomass through a stepwise biorefinery approach.
• Stimulating economic growth: Converting innovations into sustainable and profitable business models.