Algae Cultivation Optimisation Consultancy

What We Offer

We offer algae cultivation optimisation consultancy including algae growth optimisation and strain improvement, scale-up and downstream process.

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Growth optimisation studies

We conduct together with our partners experiments to optimise your cultivation approach

Facility planning and optimisation

We aid to plan and optimise your facility, advise you on choosing the most suitable equipment and cultivation approaches

Dewatering and drying

We help you to choose the best dewatering and drying technique for your facility and application

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Strain development

We create proprietary strains that suit your application and production approach. We work together with partners practising non-GMO or GMO approaches

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AI-based automation

We aid building-up an automation of your production to maximise production and biocompound production

Waste water treatment

We aid conducting studies, assess social, economic and environmental impacts and facility planning

Biocompound induction

We optimise cultivation towards maximum target biocompound content, maximising quality of biomass produced

Innovation management

We develop together with you the most promising R&D strategies to get most out of your resources

Cultivating Success in Algae Production

Algae production is an exciting and rapidly evolving field that holds great promise for sustainable production of food and feed ingredients, nutraceuticals, cosmetics or bio-stimulants. This process involves nurturing various algae species under controlled conditions to maximize their growth and the production of valuable compounds. Let’s explore the key aspects that are critical to successful algae cultivation.

Growth Conditions

The foundation of algae cultivation lies in creating the ideal growth conditions. This includes the right balance of light, temperature, pH, and nutrients. Light is particularly crucial for phototrophic cultivation as it drives the photosynthetic machinery of algae. Researchers and cultivators work meticulously to optimize these parameters to ensure robust algal growth. In many cases, altering the environmental conditions may induce the synthesis of key components and high value bio-active ingredients.  We tailored this fine art of cultivation protocols to produce these components to your needs and cultivation systems.

Strain Improvement

Not all algae are created equal when it comes to their utility in cultivation. Strain improvement involves selecting or *genetically modifying algae to enhance desirable traits such as higher growth rates, greater resilience, or increased production of specific compounds. The genetic modification can come in a form of random mutagenesis. This process is not considered to be GMO by any regulation authority and thus the random mutagenized organism can be used freely. This selective process is akin to breeding the best crops in agriculture.

Scale-Up

Taking algae cultivation from the lab bench to commercial scale is a challenge that requires innovative solutions. Scale-up involves the transition of cultivation practices from small, controlled environments to larger, often outdoor systems. This step is critical for the economic viability of algae-based products. At this point there are many variables that need to be considered. CAPEX, OPEX, strain adaptation, physical location , the cultivation systems and methods. All of which are crucial for the success of your algae entrepreneurship.

Downstream Processing

Being successful in mass culturing and achieving biomass is not enough. The harvested algae must undergo downstream processing. This stage is all about extracting and purifying the valuable compounds from the biomass. Techniques such as centrifugation, filtration, drying and extraction, are employed to process the algae for various applications.

Algae in Wastewater Treatment

Algae play a crucial role in wastewater treatment by removing nutrients and pollutants while sequestering CO2. Their ability to grow rapidly under controlled conditions makes them an efficient and sustainable option for treating wastewater from various sources.