L’Oréal Explores Carbon-Derived Plastic for Packaging

Dioxycle partnership turns captured emissions into polyethylene

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Pressure to reduce the environmental impact of beauty products is pushing companies to explore alternative materials and manufacturing methods. One emerging approach—converting captured carbon emissions into useful chemicals—is beginning to attract commercial partnerships beyond the research phase.

French clean-chemicals startup Dioxycle recently announced a multi-year collaboration with cosmetics company L’Oréal focused on producing polyethylene from captured carbon emissions. The initiative centers on carbon electrolysis technology that converts carbon monoxide or carbon dioxide into ethylene, a core chemical used to manufacture polyethylene plastics.

For an industry that relies heavily on plastic packaging, the partnership highlights growing interest in technologies that could reduce reliance on fossil-based feedstocks while maintaining existing performance standards.

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Converting Captured Carbon into Chemical Feedstock

Polyethylene is among the most widely used plastics globally and is common in packaging for cosmetics and personal care products. Conventional production relies on petrochemical refining, where fossil fuels are processed to generate ethylene.

Dioxycle’s technology seeks to replace that fossil input with captured emissions. Through an electrochemical process, the company’s carbon electrolyzer converts CO or CO₂ into ethylene, which can then be used to produce polyethylene.

Because the resulting material is chemically identical to conventional polyethylene, it can be integrated into existing packaging production systems without requiring significant changes to manufacturing infrastructure.

The company positions the technology as an additional pathway alongside existing sustainability strategies. Mechanical recycling, chemical recycling, and bio-based materials remain central to packaging decarbonization efforts, but carbon-derived chemicals could offer another potential source of non-fossil carbon for industries where material properties are tightly specified.

Packaging and the Scope 3 Emissions Challenge

Packaging often represents a significant share of environmental impact for consumer brands. For many companies, Scope 3 emissions—those linked to purchased materials and supply chains—account for the largest portion of their overall carbon footprint.

Using polyethylene produced from captured carbon could help reduce the emissions associated with plastic packaging while maintaining durability, safety, and compatibility with existing product formats.

The collaboration also reflects a broader shift in how large consumer brands engage with emerging climate technologies. Partnerships between established manufacturers and early-stage startups can provide real-world markets for new materials, helping companies test whether technologies developed in laboratories can scale to industrial production.

Industry analysts increasingly view these types of partnerships as a key step in moving carbon-conversion technologies from demonstration to commercial deployment.

Dioxycle, founded in 2021, focuses on technologies designed to transform industrial emissions into chemical feedstocks. Beyond the L’Oréal collaboration, the company is developing systems intended to retrofit existing industrial facilities, allowing them to convert captured emissions into widely used chemicals such as ethylene.

The startup has raised roughly $40 million from investors including Breakthrough Energy Ventures, Lowercarbon Capital, and Gigascale Capital. Its approach aligns with a broader push toward circular carbon systems, where emissions from heavy industry are reused as inputs for manufacturing rather than released into the atmosphere.

If technologies like carbon electrolysis can scale effectively, they could alter how industries source basic chemical building blocks—potentially influencing supply chains that extend far beyond cosmetics packaging.

Environment + Energy Leader