
Converting parasites into symbionts

For decades, hospitals have been complaining about the problem of antibiotic resistance – the fact that many bacteria commonly found in hospitals are resistant to treatment with antibiotics. This is one reason why many patients have major problems when they are treated in hospitals, catching other infections in addition to the indication for which they are hospitalised. At the moment infection with antibiotic-resistant bacteria is the second most frequent global cause of death. A study from November 2022 has shown that 7.7 million people worldwide have died from the pathogens since 2019 – probably more than from Covid-19.[i]

Medical scientists have been thinking about this problem and wondering how to solve it. Some have developed new antibiotics to which the bacteria are not yet resistant. However, this does not solve the general problem – one day the bacteria will probably also become resistant to these new antibiotics. This is simply due to natural selection: Some bacteria develop mutations that make them resistant, and these bacteria reproduce more frequently than the other bacteria, creating a population of bacteria that is mostly resistant to antibiotics.

I have developed a different idea. My idea is not to use antibiotics to kill bacteria, but to use a series of biological techniques to reprogramme or re-educate bacteria. I call these techniques “symbiont conversion” because they change cells that exhibit parasitic behaviour and transform them into symbionts. Parasites harm the host organism, whereas symbionts have effects that benefit the host organism. For example, a symbiont could produce hormones that have a positive effect on the host organism.

The same approach can be used in cancer therapy. Cancer cells are also a type of parasite. By modifying these cells, they could be transformed into normal tissue.

There are some researchers who have already tried to reprogramme bacteria[ii] or cancer cells[iii]. So they have confirmed that my approach actually makes sense and could work. Nevertheless, there is still a long way to go before symbiont conversion becomes common in clinical practice.

One way of reprogramming bacteria would be to use viruses that specifically target bacteria, known as bacteriophages. They would be able to modify the bacterial genome and, ideally, overwrite the parts of the genome responsible for the production of bacterial toxins with genes that have a positive effect.

Basically, my idea of symbiont conversion represents a new research programme. Unfortunately todays’ scientific community is rather conservative, hard to tolerate innovators[iv]. As a result science is slowing down[v]. The latest study, published in Nature, finds science is becoming less innovative. As Bob Lownie commented on this in UnHerd:
“A larger volume of material is being produced but scientific research is becoming increasingly specialised, to the point of esotericism and to the detriment of significant advances. What’s more, the Nature paper finds that recent studies are “less likely to connect disparate areas of knowledge”. Using data from 45 million papers and 3.9 million patents, it provides examples of pharmaceuticals and semiconductors as areas of study which are regressing.The implications of this are damaging to the development of health and security policy, and to economic progress more broadly”[vi].
In this state of affairs it is questionable whether they will take up my ideas and actually endeavour to find out how symbiont conversion can be put into clinical practice. But I will not give up hope that symbiont conversion will be taken up by science and will save the lives and health of millions of people.
Here is my original paper.
[i] Antibiotika-resistente Bakterien: Zweithäufigste Todesursache weltweit, MDR.DE Wissen, 25. November 2022, 17:16 Uhr; https://www.mdr.de/wissen/antibiotika-resistente-bakterien-zweithaeufigste-todesursache-weltweit-100.html.
[ii] Hood, L. Reprogramming bacteria instead of killing them could be the answer to antibiotic resistance, Published: December 13, 2017 11.19am CET; https://theconversation.com/reprogramming-bacteria-instead-of-killing-them-could-be-the-answer-to-antibiotic-resistance-88726.
[iii] Gong, L. et al., Cancer cell reprogramming: a promising therapy converting malignancy to benignity, Cancer Communications volume 39, Article number: 48 (2019); https://cancercommun.biomedcentral.com/articles/10.1186/s40880-019-0393-5.
[iv] Zerubavel, A. The Elephant in the Room: Silence and Denial in Everyday Life, Oxford University Press, 2007.
[v] Piper, K. Why is science slowing down? VOX, Jan 11, 2023, 10:00am EST; https://www.vox.com/future-perfect/2023/1/11/23549993/science-research-progress-studies-disruption-technology-artificial-intelligence-biotechnology.
[vi] Lownie, B. Study finds science is becoming less innovative, UnHerd, January 5, 2023 – 5:00pm; https://unherd.com/newsroom/study-finds-science-is-becoming-less-innovative/.
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