Climate & Circular Bioeconomy

Using biology as a pathway for carbon utilization

Cyvora is developing biological systems that can use CO₂ as an input to biological production rather than treating carbon management solely as a storage or disposal challenge.

A close view through the wall of a tall cultivation tube, dense green algae culture lit from behind by daylight.

Our primary platform is controlled microalgae cultivation. Algae use photosynthesis to incorporate inorganic carbon into biomass while producing biological material that can subsequently be harvested and processed into useful products.

Cyvora's work focuses on integrating cultivation systems with suitable CO₂ sources, improving carbon transfer and biological uptake, optimizing cultivation conditions, and increasing biomass productivity. The resulting biomass creates an additional economic pathway for carbon utilization through applications in feed, fertilizer and other bio-based products.

This approach connects carbon management with productive biological manufacturing, creating the potential for climate technologies that generate useful outputs rather than relying on carbon capture as the only value proposition.

Circular bioeconomy

Cyvora develops biological processes that recover value from organic materials, residual biomass and other underutilized biological resources.

Separated heaps of banana stems, vegetable trimmings and dried crop residue laid out on a swept concrete yard beside woven baskets and crates, with an open-sided shed behind.

Rather than treating these materials solely as waste requiring disposal, we investigate their composition, biological properties and potential for conversion into useful resources. Depending on the feedstock and target application, biological processing can recover nutrients, generate biomass, produce biological intermediates or create inputs for agriculture, animal nutrition and energy applications.

Our circular bioeconomy approach integrates feedstock assessment, microbial and biological conversion, separation, recovery, stabilization and product formulation. This enables resources to remain within productive cycles for longer while reducing the amount of organic material lost from the economy.

The platform is designed to accommodate different feedstocks and applications, making it adaptable to agricultural, food-processing, industrial and community-scale resource streams.

Applications include
industrial CO₂ utilization, algae-based carbon conversion, biological carbon management, carbon-to-biomass production, organic resource recovery, nutrient recycling, biomass production, agricultural inputs, feed ingredients and biological intermediates.
Technology stage
Functional pilot systems and technology development.

Pipeline

The programmes behind this work.

Where each one has reached, and what it can honestly be said to do today, is on the pipeline page.

  • Cyvora Carbon

    Biological carbon capture and utilisation using algae.

Technology

The capabilities it draws on.

  • Carbon capture

    Biological pathways that use carbon dioxide as an input to productive systems, rather than treating it only as an emission.

  • Algae cultivation

    Controlled cultivation systems for algae and other photosynthetic microorganisms, covering reactor or pond design, nutrient management, harvesting and biomass optimisation.

  • Bioconversion

    Microbial and biological processes (such as fermentation and composting) that turn organic waste into stable, useful intermediates and products.

Let's build what comes next.

Buying in volume, setting up an aquaponics system, or exploring a research or commercial partnership: talk to us.

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