Imagine cleaning a centuries-old painting or stabilizing an ancient glass vase without using toxic chemicals that harm the planet. This work replaces harsh solvents with nature-inspired recipes and bio-based materials. It also creates a smart way to manage museum temperatures so they don't waste electricity keeping rooms freezing or humid.
Cultural heritage preservation currently relies on toxic chemicals and energy-heavy climate control. This creates a conflict between preserving the past and meeting modern environmental sustainability goals.
["A digital web-app for evaluating the environmental impact of conservation treatments.", "A decision-making model for 'green thinking' in conservation practices.", "Bio-based and green chemistry cleaning and stabilization methods for metals, glass, and paintings."]
If you are a chemical producer dealing with the phase-out of toxic solvents — this project developed green cleaning solutions and bio-inspired reagents that provide sustainable alternatives for metal and glass stabilization.
If you are a service provider dealing with high energy bills in museums — this project developed new damage functions and a decision-making model that allow for more flexible environmental control to improve energy efficiency.
If you are a software developer dealing with a lack of sustainability metrics for the arts — this project developed a digital web-app that helps professionals evaluate the environmental impact of their conservation actions.
Based on available project data, there is no specific pricing or cost information provided for the web-app or materials.
The project tested benchmark methods and identified bio-based materials, but based on available project data, industrial scaling capacity is not yet specified.
Based on available project data, the specific licensing terms for the historical recipes and green chemistry methods are not mentioned.
The project focused on collecting end-user requirements and creating a workflow to help conservators find greener alternatives; specific technical integration details are not provided.
The project runs from 2022-10-01 to 2026-09-30, with current work focusing on refining prototypes and publishing parameters.
The consortium is heavily research-oriented with 6 universities and 4 research institutes, but it maintains a practical link to the market through 2 industry partners and 3 other organizations. With a 13% industry ratio, the project is designed to bridge the gap between academic green chemistry and real-world museum application across 8 countries.
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Contact us to connect with the GoGreen consortium for licensing green conservation materials.
