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Biotechnology – key technology of the 21st century

According to a study published by the German National Academy of Science and Engineering (acatech) on 5th April, biotechnology is a key technology of the 21st century and has huge innovation potential. What are the trends within the industry and what are the challenges we face?

Biotechnology is considered a key technology of the 21st century. It offers huge potential for economic value creation and the creation of highly skilled jobs, and therefore will play an important role now and in the future. © BIOPRO

Biotechnology is the use of cell components, cells and organisms for many different purposes such as producing goods and services, providing services or for research and development. Biotechnology makes gentler and more effective individualised therapies possible. It can also contribute to optimising industrial processes and helping agriculture adapt to climate change. Scientific breakthroughs such as the rapid improvement in the performance of genome sequencing and the development of new tools such as the CRISPR-Cas genome editing tool open up new areas and application possibilities. Trends can be seen in the areas of analysis, diagnostics, gene therapy, but also in cancer therapy and the use of induced pluripotent stem cells (iPS)1.

Biotechnology – Baden-Württemberg offers exciting opportunities


  • Biotechnology is the study of all processes involving life cells or enzymes for the transformation and production of certain substances.
  • Desoxyribonucleic acid (DNA) is a double-stranded, helical macromolecule encoding the genetic information of an organism.
  • A gene is a hereditary unit which has effects on the traits and thus on the phenotype of an organism. Part on the DNA which contains genetic information for the synthesis of a protein or functional RNA (e.g. tRNA).
  • Being lytic is the feature of a bacteriophage leading to the destruction (lysis) of the host cell upon infection.
  • There are two definitions for the term organism: a) Any biological unit which is capable of reproduction and which is autonomous, i.e. that is able to exist without foreign help (microorganisms, fungi, plants, animals including humans). b) Definition from the Gentechnikgesetz (German Genetic Engineering Law): “Any biological unit which is capable of reproducing or transferring genetic material.“ This definition also includes viruses and viroids. In consequence, any genetic engineering work involving these kinds of particles is regulated by the Genetic Engineering Law.
  • Pathogenity is the ability to cause a disease. One differentiates between human, animal, and plant pathogens which specifically cause a disease in either humans, animals or plants.
  • The somatic gene therapy is used to compensate gene defects. Therefore, the correct form of the mutated gene is transferred into somatic cells.
  • Transformation is the natural ability of some species of bacteria to take up free DNA from their surroundings through their cell wall. In genetic engineering, transformation denotes a process which is often used to introduce recombinant plasmids in E. coli, for example. This is a modified version of natural transformation.
  • A vaccine is a preparation of dead or weakened pathogens (or of derived antigenic determinants) used to induce immunity against the pathogen.
  • Pluripotent cells are able to differentiate into all cell types of the organism. Contrary to totipotent cells they cannot generate a new organism.
  • Stem cells are cells from the embryo, fetus or adult that that have the ability to divide for indefinite periods in culture and give rise to specialized cells. In Germany it is illegal to extract the stem cells from embryos.
  • Physiology is the study of the biochemical and physical processes in cells, tissues and organs of creatures.
  • Epigenetics deals with inherited changes in gene expression that are not encoded in the DNA sequence.

In the latest issue of IMPULSE, acatech draws attention to Germany’s outstanding position in science and research in the life sciences and biotechnology sectors. With its 156 biotechnology companies, Baden-Württemberg has positioned itself as a first-class location second only to Bavaria in a Germany-wide comparison. Baden-Württemberg offers exciting opportunities among the biotechnology trends listed in the acatech study.

One such interesting development involves the application of biotechnological processes for cancer treatment. Three companies focusing on cancer research and treatment are Sciomics GmbH, TherapySelect and biosyn Arzneimittel GmbH, and represent just a fraction of the many Baden-Württemberg biotechnology companies working in this area2. Another major priority is research in the field of diagnostics. Companies such as Curetis N.A., Hain Lifescience GmbH and SpinDiag GmbH have developed test systems for the early diagnosis of pathogens that enable the precise and rapid determination of disease-causing pathogens. These methods can be used to diagnose many diseases earlier and more effectively, thus improving the effectiveness of treatment3. However, progress in the field of life sciences and biotechnology is always associated with very long development and innovation cycles.

Challenges in the biotechnology sector

Development cycles of more than 20 years are not unusual in this sector. In 1976, Harald zur Hausen, winner of the 2008 Nobel Prize in Physiology and Medicine, came up with the hypothesis that human papillomaviruses (HPV) play a key role in the development of cervical cancer. His suspicion was confirmed in the early 1980s. He was the first to succeed in isolating HPV 16 and HPV 18 in a cervical tumour. HPV vaccines have been on the market since 2006 and offer completely new prospects for prevention4.5.

However, it can take a long time before basic research findings result in practical applications such as new medicines and industrial processes. And sometimes processes that were previously considered appropriate need to be revised. An example of this is the theory of transformation published by Jean-Baptiste de Lamarck some 200 years ago. In it, Lamarck describes a mechanism by which change is gradually introduced into species and passed on through the offspring. Lamarck’s conviction has recently achieved greater recognition among geneticists. For some years now, it has been known that environmental influences can leave their mark in the DNA in the form of epigenetic modifications6. These examples show how dynamic this field is and the kind of challenges that arise due to the complexity of biological processes. Stable conditions and continuous funding are thus indispensable. The acatech study has also found that digitization will be followed by the next revolution in the world of business and society, namely the broad application of biotechnology in medicine, agriculture and industry. Biotechnology offers tremendous potential for the creation of economic value and highly skilled jobs, and will therefore also play an important role in the future. Public awareness and understanding of the benefits of biotechnology is required in order for biotechnological innovations to be accepted. BIOPRO Baden-Württemberg has contributed to this for many years by providing valuable information in the biotechnology and other sectors.

"We provide a wide range of information in our specialist portals on the healthcare industry and the bioeconomy, as well as in the BIOPRO Magazin, which also provide insights into advances in the life sciences and answers to major societal challenges, also for those who have not studied biology," says Dr. Barbara Jonischkeit, Head of Communication at BIOPRO Baden-Württemberg.


acatech7 – the National Academy of Science and Engineering – represents the German engineering sciences in Germany and abroad in a self-determined, independent and public-oriented way. As a working academy, acatech provides advice to government and the public on engineering science and engineering policy issues. In addition, acatech aims to support the transfer of knowledge between science and industry as well as promoting the new generation of engineering scientists. acatech focuses on four main areas:

  • Scientific recommendations: acatech provides advice on technology-related issues based on state-of-the-art research to government and the public.
  • Practical transfer: acatech offers a platform for exchanges between science and industry.
  • Promotion of up-and-coming scientists: acatech is committed to young engineering scientists
  • Voice of the engineering sciences: acatech represents the interests of the engineering sciences on the national and international level


1 http://www.acatech.de/fileadmin/user_upload/Baumstruktur_nach_Website/Acatech/root/de/Publikationen/Stellungnahmen/IMPULS_Biotechnologie_KF_final.pdf

2 https://www.gesundheitsindustrie-bw.de/de/presse/pressemitteilungen/neue-ansatze-gegen-krebs-gewunscht/

3 https://www.gesundheitsindustrie-bw.de/de/fachbeitrag/pm/fruhdiagnostik-aus-baden-wurttemberg-hilft-sie-zu-stoppen/

4 https://www.gesundheitsindustrie-bw.de/de/fachbeitrag/pm/nobelpreis-fuer-medizin-an-harald-zur-hausen/

5 https://www.gesundheitsindustrie-bw.de/de/fachbeitrag/aktuell/humane-papillomviren-und-gebaermutterhalskrebs-ueber-die-zusammenhaenge-aufklaeren/

6 https://www.gesundheitsindustrie-bw.de/de/fachbeitrag/pm/epigenetische-veraenderungen-sind-selten-von-dauer/

7 http://www.acatech.de/

Original publication:

Website address: https://www.gesundheitsindustrie-bw.de/en/article/news/biotechnology-key-technology-of-the-21st-century/