Brain & Artificial neurons. Tears. Smiles.

Photo by Spiros Kakos from Pexels

Brain functions are made possible by circuits of spiking neurons, connected together by microscopic, but highly complex links called synapses. In this new study, published in the scientific journal Nature Scientific Reports, the scientists created a hybrid neural network where biological and artificial neurons in different parts of the world were able to communicate with each other over the internet through a hub of artificial synapses made using cutting-edge nanotechnology. This is the first time the three components have come together in a unified network. (1)

Natural. Artificial.

It matters not.

For in a fake cosmos.

At the end everything will die.

And only then will you see…

That beyond the still surface.

Nothing is more alive…

A gentle touch.

A true smile.

Through Skype.

Can you hold your tears and cry?

Natural. Unnatural. How natural…

Photo by Jess Vide from Pexels

To find out which sights specific neurons in monkeys ‘like’ best, researchers designed an algorithm, called XDREAM, that generated images that made neurons fire more than any natural images the researchers tested. As the images evolved, they started to look like distorted versions of real-world stimuli. (1)

Round and round we go. Trying to understand where we are by getting away from where we are. Can you find anything not made by wood inside a forest?

See the unnatural. It will catch your attention.

Not because it is unnatural.

But because of how natural it looks!

That is the greatest secret nature taught us. A secret we once knew. A secret we chose to forget. Look at the great mysteries of life. Behold the great occurrences of randomness inside a cosmos governed by change…

There is nothing natural… nature whispers in the night.

But we do not trust the night anymore. We worship the sun.

We opened our eyes to see. And we saw a different cosmos.

Stable. Full of patterns. Laws. Order.

We like that cosmos now. Too afraid to let it go.

But one day, we will sleep tired.

Floating on the silvery moon light…

One day we will dream again…

Knowing that light only creates shadows…

One day we will stand in the midst of nature.

One day, nature will look so unnatural…

The last white rhino…

Rhino embryos made in lab to save nearly extinct subspecies. The development is an early step toward the much more distant goal of resurrecting the northern white rhinoceros, whose last male died this year. (1)

Being the last of your kind.

A sad moment. A lonely moment.

Those eyes. Full of lust for life.

In the face of death, longing for some more moments of existence. (Humans want to resurrect them now) And yet, they fail to see that they were never more alive. In that last gaze… (Humans will eventually die. And let the rhinos be)

Small little insects… Making the ocean move… Modern science… Shrimps laughing…

Scientists have demonstrated how some of the smallest creatures in the ocean could have the same outsized impact under the waves – with swarms of marine organisms inadvertently producing powerful currents that mix and churn a turbulent undersea environment.

“Right now a lot of our ocean climate models don’t include the effect of animals, or if they do it’s as passive participants in the process”. Strength in numbers, it turns out, as swarms of the creatures migrate daily in vertical columns, feeding at the ocean surface by night, before retreating hundreds of metres deep by day.

“You have this massive migration vertically every day of literally trillions of organisms”, Dabiri told NPR. “As they start swimming upward, each of them kicks a little bit of fluid backward”. The team discovered the animals’ passing didn’t just distribute water in small, localised regions, but churned significant volumes of proxy ocean pretty much everywhere they went.

So far, these effects have only been demonstrated in the lab, but if the same thing is taking place out in the real world, biologists and oceanographers will need to rethink how marine life contributes to ocean turbulence – especially since the same thing could be happening with bigger animals, such as jellyfish, squid, fish, and even large mammals. (1)

Ancient civilizations thought of the cosmos as something alive.

Then came Descartes, Galileo and modern science.

And we “discovered” the “objective” world of phenomena…

We suddenly “knew” we lived in a cold lifeless cosmos.

And we developed great science…

While shrimps were laughing at us…

The cosmos is still alive.

It always was.

It is just us who died.

Watch that shrimp you are cooking. It is not a shrimp.

It is the universe itself. Boiling with fierce power.

Just… add a pinch of salt.

Yes. Now it’s better.

Now come on.

Let’s eat my daughter…

Plants “deciding”. Death and Life.

Animals facing competition have been shown to optimally choose between different behaviors, including confrontation, avoidance and tolerance, depending on the competitive ability of their opponents relative to their own. For example, if their competitors are bigger or stronger, animals are expected to “give up the fight” and choose avoidance or tolerance over confrontation.

Similar responses are documented for plant as well. Plants can detect the presence of other competing plants through various cues, such as the reduction in light quantity or in the ratio of red to far-red wavelengths (R:FR), which occurs when light is filtered through leaves. Such competition cues are known to induce two types of responses: confrontational vertical elongation, by which plants try to outgrow and shade their neighbors, and shade tolerance, which promotes performance under limited light conditions. Some plants, such as clonal plants, can exhibit avoidance behavior as a third response type: they grow away from their neighbors.

To learn if plants can choose between these responses and match them to the relative size and density of their opponents, researchers used the clonal plant Potentilla reptans in an experimental setup that simulated different light-competition settings. They used vertical stripes of transparent green filters that reduce both light quantity and R:FR and could therefore provide a realistic simulation of light competition.

The results demonstrated that Potentilla reptans can indeed choose its response to competition in an optimal way. (1)

We have named simple interactions “decisions”.

And yet, a decision is not to do what you are programmed to do. A decision is not to just obey to your genes or your… chemistry. True decisions are those made against all genetics or environmental input. True decisions are those made against the result of “laws” or rules.

Imagine a cold universe.

Full of plants. Full of interactions.

A universe dark and empty.

A lifeless universe.

True decisions are the rare moments when rules are rendered unimportant due to the sheer will to decide. True decisions are those made independently of the “interactions”. When you decide to die for what you believe, even though everything and everyone tells you the opposite. When you decide to love someone, even though everything in your brain tells you this is crazy.

Imagine a cold universe.

Full of plants. Full of interactions.

A universe dark and empty.

This universe will never be alive.

Until a person decides to die in it…

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