INSILICO

INSILICO: a bio-platform for true plastics circularity

NSILICO works on engineered enzymes to safely turn plastic waste into raw materials for new high-quality plastic – with lower resource requirements and emissions, at competitive prices.
INSILICO’s engineered enzymes safely turn plastic waste, including plastic-containing mixed and otherwise difficult-to-handle waste streams, into inputs for new virgin-grade plastic – a true plastics circularity.
INSILICO uses genetically modified microbes to produce custom active proteins (enzymes) that work to depolymerize plastic into its constituent components, which can be retrieved and used for producing new high-quality plastic.
Using specialized enzymes ensures that the process is highly selective (which means less pre-processing for plastic waste), runs at lower temperatures (which means lower energy demands), and results in ~40% less CO2 emissions. The fact that the outputs are plastics precursors means that there’s no degradation in quality over the entire cycle, opening the doors for a potentially infinitely looped plastics economy.
INSILICO works as a “pluggable” process into the existing plastics value chains.

https://enzymity.com

 

INSILICO’s expectations from the acceleration programme:

  • Structure, know-how and networking to bring the technology to demo-readiness
  • Develop the business plan and iterate on the technology

DigiCirc financial support: €117,500

The grant has provided additional runway and more opportunities to extend both technology development (e.g. consumables and equipment) and market validation (e.g. industry events).

Entities

Country
Latvia
Country
Latvia

Meet the team

Andrii Shekhirev

MSc Management and Finance; coordination, business development

Aleksejs Kolpakovs

MSc Innovation Management; cross-functional leadership, finance

Alise Pizika

MBA. BA Public Relations sustainability and circular strategy

Inga Berkovica

MSc Human Decision Science; marketing and communications

Janis Liepins

PhD Microbiology and Biotechnology; microbial growth and metabolism

Elina Dace

PhD Environmental Engineering; plastics circularity