What are biosolutions?

Biosolutions FAQ

Biosolutions are products, processes, and services that use living organisms or their components (e.g., bacteria, fungi, enzymes, algae, plant cells, animal cells) to perform functions that are currently dominated by traditional chemistry and conventional manufacturing.

The key word is function: Biosolutions do not describe a single technology but a set of capabilities. They can produce, enhance or enable food ingredients, medicines, materials, and fuels without the use of fossil fuels, often in new, disruptive and combinatorial ways.

They harness biological mechanisms evolved over hundreds of millions of years, mechanisms that are inherently renewable, often biodegradable, and increasingly economically competitive with the synthetic, fossil-based alternatives they replace.

Biology offers in most times safer, more resilient, regionally sourced and competitive solutions to existing and emerging challenges and problems. Biosolutions.


Our current economy is built on fossil fuels. That era is ending. Biosolutions are what comes next: processes powered by living organisms that grow, cycle, and renew rather than extract and deplete.

  • Producing synthetic fertilizer to feed the world consumes more energy than most countries generate. Nitrogen-fixing bacteria can replace it pulling what crops need directly from the air.
  • Precision fermentation already produces insulin, dairy proteins, and food enzymes without animals or fields, the majority of that produced in Europe, not overseas.
  • Industrial enzymes have quietly displaced toxic chemistry in detergents, textiles, and paper for decades.
  • Bio-based materials are replacing oil-derived plastics and open completely new areas of application like energy or data storage, self-repairing constructions and new functionalities.
  • Where industry has caused damage, environmental biotechnology can repair it and add to it, replace it, or enhance it, allowing transitions and hybrid solutions.

The implications run deeper than sustainability. Europe imports its energy, its fertilizer precursors, and much of its industrial chemistry and the cost of that dependency, in euros and in strategic autonomy, has never been clearer than in the past decade.

Biosolutions represent a paradigm shift: production coupled with biology and converging with AI and automation, on fermentation rather than refining, on scientific capacity rather than resource extraction contributing to a sovereign, resilient and sustainable industry in Europe – likely commencing the beginning of a new industrial age, if we choose to.


Biosolutions span a wide range of technologies, and safety considerations differ significantly between them. What they share is that they are among the most rigorously tested categories of innovation in modern science.

Industrial enzymes, precision fermentation ingredients, and microbial soil treatments have decades of safe commercial use behind them. We eat, drink and consume them every day. The enzymes in today’s detergents and food products have been assessed, approved, and used safely at global scale for generations.

Modern technologies such as New Genomic Techniques, cultivated foods and novel fermentation-derived ingredients go through detailed regulatory assessment before they reach consumers or the environment. In the EU for example, novel food ingredients require safety authorisation from the European Food Safety Authority. Microorganisms intended for environmental release are subject to rigorous risk assessment.

The honest answer is that no technology is without risk, and biosolutions are not exempt from that. What distinguishes the field is the quality of the safety science applied to it and the transparency with which that science is conducted. DTU researchers contribute directly to that work: developing the testing methods, safety frameworks, and analytical tools that regulators and industry rely on to make sound decisions.


Several biosolutions are mature commercial technologies deployed at significant global scale: industrial enzymes in food processing, textiles, paper, and detergents; energy materials like ethanol that makes the E10 in our gasoline, aviation fuel or bio-diesel; fermentation-derived pharmaceutical and food ingredients; microbial soil treatments in agriculture; biological wastewater treatment.

Others are advancing rapidly toward commercial viability such as alternative proteins, bio-based materials, and agricultural biologics, like biological fertilizers or pesticides, for smallholder farmers in low-income markets as well as global crop farmers.

And some, e.g. cultivated meat at commodity scale, advanced biological carbon capture and utilization, fully synthetic biology-designed organisms for industrial use, remain genuine research frontiers with substantial technical and economic challenges still to resolve.

DTU is engaged across the full spectrum, from fundamental discovery to pilot-scale engineering to market-ready application.


Denmark is a world leader in biosolutions. It has been at the forefront of industrial biotechnology for over a century, leads global industrial enzyme production, the third-largest aquafeed industry worldwide, has built one of the world's most advanced pharmaceutical fermentation sectors, and its agricultural and food science is relied upon by industries across the globe.

The skills and infrastructure that produced those industries are precisely what the next wave of biosolutions requires.

DTU sits at the centre of this ecosystem. Ranked as Europe´s best technical university, and consistently ranked among the world's top five biotechnology research institutions, it produces research in biotechnology, fermentation, synthetic biology, and environmental science at the highest international level. The university is also deeply committed to research collaboration with industry, government, and society to translate scientific excellence into solutions that work in the real world.

Few countries are better placed than Denmark to lead the global biosolutions expansion. DTU is its scientific engine and a committed partner in creating a more sustainable society.


Key concepts explained

What is synthetic biology?

Synthetic biology, also referred to as Engineering Biology or Constructive Biology, applies engineering principles to living systems.

Researchers design and assemble biological components, such as genes and metabolic pathways, to give organisms new or improved functions.

Where traditional biotechnology modifies existing biology, synthetic biology builds from the ground up, making it possible to program cells to produce materials, ingredients, and solutions that nature alone cannot provide efficiently or at scale.

What is precision fermentation and process intensification?

Precision fermentation uses microorganisms such as yeast or bacteria as highly controlled living factories.

By providing them with specific genetic instructions, we can produce proteins, fats, enzymes, vitamins, and other compounds with consistency and purity, without relying on animals or conventional agriculture.

Process intensification takes this further by designing production systems that deliver more output with fewer resources, less energy, and a smaller physical footprint.

Together, they form the backbone of modern industrial biosolutions. For example the industrial enzymes found today in our detergents or food ingredients have been derived from that.

What is alternative proteins and cultivated foods?

Alternative proteins are food ingredients derived from plants, microorganisms, or cell cultures rather than conventional livestock.

Cultivated foods, including meat, dairy, and seafood produced directly from cells, use fermentation and bioprocessing to replicate the taste, texture, and nutritional value of animal products.

These technologies address food security, reduce the environmental burden of food production, and open new markets for bio-based ingredients on an industrial scale.

While on first hand difficult to grasp, the value this approach provides is substantial: resilient, safe, scalable and new markets.

 

What is New Genomic Techniques?

New Genomic Techniques, NGT, are a family of modern tools for editing the DNA of plants, animals, and microorganisms with high precision.

Unlike older genetic modification methods, many NGT approaches make targeted changes that could also arise through conventional breeding, but far faster and with greater control.

In agriculture and food systems, NGT enables the development of crops and organisms with improved yields, resilience, and reduced need for chemical inputs.

Regulatory frameworks for NGT are actively evolving across the EU and globally with many countries already applying them in vast numbers. Think of pit-less blackberries, easy to peel tangerines or short stature maize.

What is industrial enzymes?

Enzymes are proteins that accelerate chemical reactions, biocatalysis. Industrial enzymes bring this biological efficiency into manufacturing, replacing harsh chemical processes with gentler, more targeted biological ones.

They are used across food and beverage production, textiles, detergents, paper, and biofuels to reduce energy consumption, cut waste, and improve product quality.

Most industrial enzymes are produced through fermentation, making them a direct expression of biotechnology at commercial scale.

Denmark is home to the world's largest industrial enzyme producer, a legacy that has shaped global biomanufacturing for over seven decades.

What is bio-based materials and bioplastics?

Bio-based materials are produced from renewable biological sources rather than fossil fuels. Bioplastics, biodegradable packaging, bio-based coatings, and sustainable fibres are among the products emerging from this field.

Advances in synthetic biology and fermentation are expanding the range of materials that can be produced biologically, often with a significantly lower carbon footprint than their conventional equivalents.

These materials are increasingly relevant to industries seeking credible, science-backed alternatives to petrochemical inputs.

Beyond packaging and textiles, bio-based approaches are now reaching into information technology, with DNA data storage and even biologically derived energy storage in development.

What is biomanufacturing and bioprocessing?

Biomanufacturing is the production of goods using living cells or biological processes rather than conventional chemistry. Bioprocessing encompasses the full set of techniques used to cultivate, control, and harvest biological systems at scale, from fermentation vessels and downstream purification to quality monitoring and process optimisation.

Together they represent the industrial infrastructure that converts biological research into products. Scaling bioprocessing efficiently is one of the central challenges in translating Biosolutions from laboratory to market.

Besides classical scale-up in volume and throughput, new concepts investigate scale-out, modularization and de-centralization.

What is environmental biotechnology?

Environmental biotechnology applies biological systems to protect, restore, and monitor natural environments.

Applications include bioremediation of contaminated soils and water, development of microbial solutions for sustainable agriculture, carbon capture through engineered organisms, and biological treatment of industrial wastewater. In aquaculture, environmental biotech supports healthier and more sustainable production systems.

As planetary health pressures intensify, environmental biotechnology is moving from a niche discipline to a central pillar of the green transition.