by Peter Ripota
April 25, 2025
from Medium Website

 

 

 

 


Combat everywhere.

Or is it the beginning of a lasting friendship?

Photo © Birger Strahl on Unsplash
 


'The world is a constant battle, and nature is red in tooth and claw',

...as the English poet Alfred Tennyson put it in 1850.

 

Isn't that true?

 

We only need to watch animal films on television.

Cheetahs hunt antelopes to devour them afterwards, if hyenas are not faster.

 

Hyenas, in turn, are mercilessly hunted by lions, who also fight each other to death.

 

Eagles eat snakes, snakes strangle eagles, and giant snakes will swallow a whole pig.

Fighting everywhere!

However, the first animal films came from Walt Disney's workshop, and he was a gifted storyteller. Today, these films follow the usual Hollywood formula of sex and crime...:

hot kisses and sharp shots.

Because Americans are still as prudish as the English were in Queen Victoria's time, there is not much sex to be seen.

 

So that leaves the crime part, exploited to the full.

That's why we see so many hunts and fights in these films.

 

Or would you like to see what the animals are doing - dozing and sleeping for 23 hours of the day?

But see for yourself what is going on in nature.

 

As I write this, I sit in a meadow before a bull enclosure.

Bees and other insects are busily collecting nectar; ants are marking a road with their scents, and butterflies are fluttering from flower to flower, drunk with the smell they inhale.

 

Two bulls are measuring their strength, head to head, but it doesn't look like a fight, more like a game.

 

A few crows are sitting on posts and watching with interest, and the black cat is sniffing the deep grass, maybe catching a grasshopper now and then.

Where is the fight for existence?

Even in the jungle, things are not as the movies would have us believe.

If an anaconda swallows a pig, it will last half a year, maybe even a year.

 

However, if you want, you can find fighting and extermination everywhere, even in the extremely courteous, extraordinarily peace-loving and helpful Arabian Grey Thrush (Turdoides squamiceps).

 

These nice birds outdo each other in friendliness.

 

They, too, have a hierarchy:

the nicer someone is, the higher they get.

The adults raise the young together, feed each other, pet each other, warm each other at night, and it is an honor to take on the dangerous post of guard against eagles and snakes.

This honor is only given to the highest-ranking male, but others are welcome.

How did the inconspicuous flycatchers become so extremely altruistic, especially since the groups are by no means only made up of related individuals?

 

Why did Dawkins' "selfish genes" allow such apparent misbehavior?

 

Why does everyone stick to these rules when cheating would only benefit the cheater?

Biologist Amotz Zahavi from Tel Aviv University investigated the matter and found some Darwinian explanations.

 

His findings culminate in the astonishing statement:

Altruism is a selfish activity.

You have to let a sentence like that sink in. You surely know the work of English author Eric Blair, who published "1984" in 1948 under the pseudonym George Orwell.

 

In it, he describes a totalitarian state characterized by "doublethink" and thus produces such beautiful sayings as "war is peace" or "freedom is slavery."

 

And now, the biologist mentioned above, representing many of his profession, has found another saying from the world of the thought police:

Altruism is egoism...

And that is science?

But we wanted to say something constructive.

 

Well then, it looks as if the engines of evolution are not egoism and fighting but communication and cooperation ("double-c" or c²), i.e.,

talking to each other and working together.

The German philosopher Friedrich Nietzsche already recognized this:

In nature, there is not a state of need but abundance and waste, even to the point of senselessness.

 


Cooperation everywhere.

Photo © Getty Images via Unsplash



A Russian anarchist essentially advocated the c² idea, Count Piotr Alexeyevich Kropotkin, at the beginning of the 20th century.

 

As an army officer in Siberia, he observed flora and fauna there for five years.

 

The result of his observations:

the main factor for survival in the harsh northern climate is not rivalry but mutual help.

Because:

If we ask nature, who is the most capable:

those who are always at war with each other, or those who support each other?

Then we immediately see that those animals that help each other are the best adapted - the fittest.

 

They have a better chance of survival and reach the highest level of intelligence and body structure.

The social revolutionary Kropotkin also identified mutual help as a rule among people.

 

He predicted a trend in the modern world back to decentralized, apolitical, and cooperative societies in which everyone could be creative without the influence of bosses, soldiers, priests, and other rulers.

 

This is very modern, indeed.

We owe the big breakthrough of the c² idea to a woman. Lynn Margulis applied the c² concept to cells.

Biologists have long been puzzled by one component of cells.

 

Mitochondria, the energy suppliers of every cell, have their hereditary structure. They pass on their genes through the maternal line.

 

Margulis concluded that mitochondria were originally independent life forms absorbed by other living beings, but not eaten.

 

The two communicated and formed an alliance to cooperate:

the larger cell protected the smaller one, which in turn gave energy to the larger one.

There are many other examples of this type of endosymbiosis:

  • Bacteria and archaea (primitive life forms similar to bacteria) merged to form mitochondria, the power plants of cells.

     

    While most bacteria can absorb dissolved organic compounds and use them to generate energy for their metabolism, archaea lack these transport systems in their membranes.

     

    Bacteria and archaea probably first attached themselves to one another, and the latter used the bacteria's waste products to generate energy.

     

    Before the relationship could become more intimate, the bacteria had to transfer their genes for the membrane's transport systems to the archaea.

     

    Only now were the archaebacteria able to absorb dissolved organic compounds themselves, which ensured the bacteria's survival in the host cell.

     

    Over time, the bacteria passed more and more of their genes to the host so that only a few genes remained, as in the case of the mitochondrion.

     

  • Algae and cyanobacteria merged to form higher plants.

     

    A host cell absorbed cyanobacteria. The host cell could lead a different life by ingesting the photosynthetically active symbiont because it could suddenly live on light, water, and CO2.

     

  • The organelles of many algae have three or four membranes. The researchers assume that cells were repeatedly devoured but not digested, etc...

 


The emergence of

mitochondria and chloroplasts via "symbiogenesis".

The big cell (left) captured but did not digest

a special bacterium protected by an additional membrane.

 Image by author
 

 

In all life forms, there is genuine cooperation between individuals.

 

Here are a few examples:

  • When conditions become evil for a certain species of amoeba (Dictyostelium discoideum), they do not eat each other until the fittest remain.

     

    On the contrary, they join a highly cooperative activity called slime mold aggregation. They form a fruiting body in which numerous individuals climb on top of each other until a kind of superpenis is formed.

     

    Around 20% of the individuals that form this stem die; the rest turn into spores blown away by the wind and - hopefully - one day find fertile soil.

     

    The amoebas that formed the hardcore and died sacrificed themselves entirely unselfishly.
     


Slime mold (Comatricha nigra).

Source: Creative Commons

 

  • Yeast cells die a selfless suicide (scientifically: apoptosis) for altruistic reasons, namely when nutrients become scarce, and everyone is in danger of starving.

     

    Through such a mass suicide, one in ten cells or just one in a million cells can survive.

     

  • The most fantastic manifestation of c², however, is the complex cities built by mindless microorganisms - in your mold!

     

    These structures, known as biofilms, are built by bacteria, algae, fungi, and single-celled organisms (e.g., paramecia).

     

    They join together in colonies, check the environmental conditions, count their neighbors, and create three-dimensional city structures comparable in complexity to modern cities, which, as one scientist once enthusiastically noted, "look like Manhattan at night."

     

    There are water pipes, sewers, shipping channels, and assembly areas. An extreme example is the colonies that live in the stomachs of cows.

     

    Five forms of bacteria ensure the breakdown of cellulose:

Strain 1 converts cellulose into glucose. Strain 2 uses glucose to make butyrate.

 

This substance is transformed by the 3rd strain into acetate, which Strain 4 feeds on and produces methane as a byproduct.

 

Oxygen is poisonous for all four strains, and there is much of it in a cow's stomach.

 

Therefore, a fifth type of bacteria creates a protective film around the other four so that they can work and live undisturbed.

Not only are the life forms that build such cities extremely primitive (according to our anthropocentric point of view), but they also belong to different species that certainly do not "speak" the same language.

 

These life forms are extreme examples of communication (they must agree on who builds and manages what) and cooperation (they manage and supply their city together).

How do they do it - and above all, why...?

 

Where is the selection pressure, the supposedly everywhere effective struggle for existence, the ruthless selection of the weak, the survival of the strong?

 

Why do selfish genes allow such mixing?

 


Scanning electron micrograph of a biofilm.

© Krzysztof A. Zacharski,

Creative Commons
 


Finally,

the ability to communicate and cooperate also seems to guarantee the economic survival of people and nations.

At least, that is what the Japanese-American economist Francis Fukuyama ("The End of History") claims, and he puts forward good arguments.

 

The northern and central European peoples are doing well economically:

their c² ability is very well developed...

This applies to the Americans and Japanese but not to southern Italians and Chinese.

 

Where everyone distrusts everyone else and only their family members are trustworthy, neither a flourishing economy nor a cultural life can develop.

 

In these countries, there are only three powerful institutions:

  • the state

  • the church (in China, the party)

  • the mafia

Therefore, according to Fukuyama,

the Chinese will never become an economic competitor to other states despite their vast human resources and hard work, despite everybody else telling us otherwise...

The old ruling dynasty of the Habsburgs knew about this principle.

Instead of perpetual wars, they pursued a successful marriage policy as a secondary strategy.

Hence the saying:

"Others may wage wars, but you, happy Austria, marry!"

Conclusion:

The ability to cooperate seems to offer long-term survival advantages...!