SciTransfer
XTRACT · Project

Sustainable Metal Recovery from Mining Waste and Low-Grade Ores

environmentTestedTRL 4

Imagine using special plants and tiny microbes as natural vacuum cleaners to suck precious metals out of old mining waste. Instead of digging giant holes and using heavy chemicals, this method cleans up the land while recovering valuable materials. It's like turning a polluted wasteland into a profitable urban mine using nature's own tools.

By the numbers
2-3%
Global CO2 emissions contribution from mining industry
14
Partner organisations
5
Validation case studies
The business problem

What needed solving

Mining companies face pressure to decarbonize and manage waste, but recovering metals from low-grade tailings is often economically unfeasible using traditional methods.

The solution

What was built

A toolkit for tailings assessment, remote sensing monitoring systems, and bio-extraction processes using microbes and plants.

Audience

Who needs this

Mining company sustainability officersEnvironmental cleanup firmsCritical raw material procurement agenciesMine site owners with legacy waste
Business applications

Who can put this to work

Mining
enterprise
Target: Mining operator with legacy waste sites

If you are a mining operator dealing with unprofitable low-grade ore deposits — this project developed microinvasive technologies that allow for the recovery of high-tech elements where traditional extraction is too expensive.

Environmental Remediation
SME
Target: Land reclamation specialist

If you are a reclamation specialist dealing with abandoned mine sites — this project developed phytoremediation and biohydrometallurgy tools that clean the soil while extracting strategic metals.

Resource Management
mid-size
Target: Mineral asset manager

If you are an asset manager dealing with inaccurate waste pile valuations — this project developed a new assessment toolbox for stockpiles and tailings to improve financial planning and resource estimates.

Frequently asked

Quick answers

What is the cost or price of implementing these technologies?

Based on available project data, specific pricing or cost-per-ton figures are not provided; the project focuses on making extraction profitable in locations where it was previously unprofitable.

At what industrial scale are these solutions being tested?

The technologies are being validated across 5 case studies located in Germany, Sweden, Portugal, and Greece.

How is the IP handled or licensed for commercial use?

Based on available project data, the licensing terms are not specified, but the project involves 7 industry partners, including 4 SMEs, which typically indicates a path toward commercialization.

How does this help with environmental regulations?

It contributes to EU Climate Neutrality Goals by reducing CO2 emissions and providing a solution for mine waste remediation.

What is the timeline for deployment?

The project runs from December 2023 to May 2027, suggesting that validated results will be available by mid-2027.

Consortium

Who built it

The consortium is heavily weighted toward commercial application, with a 50% industry ratio (7 industry partners, including 4 SMEs). This balance between 4 universities and 3 research centers suggests a strong pipeline from lab-scale green tech to industrial validation, supported by a diverse geographic footprint across 9 European countries.

How to reach the team

Contact Technische Universität Bergakademie Freiberg

Next steps

Talk to the team behind this work.

Contact us to connect with the XTRACT consortium for early adoption of bio-mining tools.

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