The BIOntier applications are designed to be easy to manufacture, test and recycle, incorporating advanced bioconstruction processes that optimise performance and durability. By bringing together major industries, SMEs, research centres and universities, BIOntier is a strategic alliance that aims to accelerate the time-to-market for high-performance bio-based solutions. This collaborative approach strengthens the European Union's ability to position itself as a leader in the bioeconomy and sustainable technology, with positive industrial and societal spin-offs, contributing to a more environmentally-friendly economy.

A STRATEGIC ALLIANCE
TO ACCELERATE MARKET UPTAKE

ABOUT BIOntier

PROJECT INFORMATION

  • Coordinator: FORTH – Foundation for research and technology-Hellas/ Greece

  • Beginning of the project: October 1st,2024

  • Project Duration: 36 months (3 years)

  • End of Project: September 2027

  • Total Grant Amount: € 8 345 472,50 

  • EU Contribution: € 7 017 866,00

  • Call: HORIZON-JU-CBE-2023-IA-07

  • Type of actions: Horizon-JU-IA

  • BIOntier seeks to develop novel bio-based materials, which is at the forefront of material science today. By using raw materials directly for manufacturing, we avoid resource-intensive refinery and emissions during manufacturing for virtually all industries.

  • Our project activities take place across Europe, consortium partners from 12 countries work together, find out more about who we are in our dedicated section.

  • Following a Kick-Off in October 2024, BIOntier runs for a total of 3 years and ends in September 2027. During the execution of the Project, different phases of development and test are planned. If you want to keep yourself informed, consider signing up to our quarterly Newsletter BIOntier.

One of BIOntier's key ambitions is to maximise the environmental and industrial impact of its innovations.

In order to meet the ambitions set by the project, the consortium's actions will be guided by

5 major objectives

Sustainable
and Circular Design

Develop innovative strategies for sustainability and circularity, integrating the "safety and sustainable by design" (SSbD) framework. This includes eco-design of high-performance components with reduced costs, minimal environmental impact, and multi-parameter optimisation to transfer solutions across segments.

Innovative and Sustainable
Materials

Demonstrate large-scale production of bio-based composite materials, including biodegradable polymers, bio-based reinforcement fibers, and advanced formulations. These materials will be validated for their performance, cost, recyclability, and compliance with end-user requirements.

Optimise high-throughput, low-cost manufacturing technologies by integrating material design, prototyping, and testing in relevant environments. The entire value chain, from suppliers to end-users, is involved to ensure greater efficiency.

Manufacturing Technologies and Prototyping

Sustainability Assessment and End-of-Life (EOL) Management

Implement Life Cycle Assessment (LCA), Life Cycle Cost Analysis (LCCA), and End Of Life (EOL) management strategies from the outset to develop greener and more circular materials and processes while ensuring the safety and sustainability of chemicals and materials.

Awareness and Market Adoption

Accelerate acceptance of bio-based solutions through increased awareness, clear specifications, and commercialisation plans. Encourage collaborative innovation to promote the adoption of bio-based materials across various sectors and maintain the EU's leadership in this field.

6 use cases to illustrate concrete applications

To meet these objectives, 6 use cases will be explored. These examples will showcase and highlight the versatility and advanced capabilities of bio-based composites. Among these are applications in vehicle components and high-value industrial equipment, emphasising their adaptability and potential for high-performance solutions.

1

Access panel for the Dawn Mk-II Aurora supersonic aircraft, adapted to the thermal and mechanical constraints of aviation.

2

Hive low-pressure hydrogen storage tank, designed to support the hydrogen economy with high resistance.

High-pressure tanks for reverse osmosis water filtration, designed to enhance the durability of purification processes.

3

Cockpit dashboard with semi-structural trim for the Jeep Renegade, combining aesthetic design and light weight.

4

Structural impact absorber for the Egea Hatchback model, designed to enhance safety in the event of a collision.

5

Battery pack housing, including top covers and base plate for several models (Jeep Avenger, BMW E-scooter, LUCID), designed to improve battery safety while remaining lightweight.

6