Semiconductor & Battery Manufacturing

Biotechnology is driving more sustainable innovation in semiconductor and battery
manufacturing. By using bio-based materials, bio-inspired processes, and advanced
engineering, these industries can create smarter electronics, cleaner energy storage,
and new solutions for healthcare and the environment.

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Powering Innovation

Biotechnology can make semiconductor and battery manufacturing more sustainable, efficient, and functional. Through biofunctional coatings, engineered surfaces, and microbial or enzymatic processes, these industries can improve device performance, support greener production, recover valuable materials, and reduce waste for the next generation of electronics, biosensors, and energy storage technologies.

Semiconductor & Battery Manufacturing opportunities

Developing bio-based and bio-inspired

Biotechnology can support the development of
innovative materials for semiconductor and
battery applications, including bio-derived polymers, biomolecular coatings, conductive
bio-materials, and biomass-based carbon materials. These solutions can improve device functionality, biocompatibility, or sustainability
while reducing reliance on fossil-based or resource-intensive materials. Bio-inspired design
also offers opportunities to create advanced
surfaces and structures with speciﬁc chemical,
electrical, or mechanical properties.

Enabling biosensors and bioelectronic

Semiconductor technologies play an important
role in the development of biosensors, lab-on-chip systems, and bioelectronic devices. By integrating biological recognition elements
such as enzymes, antibodies, nucleic acids, or
cells with microelectronic platforms, it is
possible to detect biological signals with high
sensitivity and precision. These technologies
support applications in diagnostics, environmental monitoring, food safety, and
personalized healthcare.

Sustainable processing and resource recovery

Biotechnological processes can contribute to
more sustainable semiconductor and battery
manufacturing by supporting waste treatment,
metal recovery, and recycling strategies. Microorganisms and enzymes can be used to recover valuable metals, treat industrial effluents, or transform waste streams into useful resources. These approaches can help reduce environmental impact, improve circularity, and support cleaner production models for advanced technology industries.