الذّرَّة .. تحصي على المخلوقات أعمارها .. كتاب في سبيل موسوعة علمية، الدكتور أحمد ذكي

Maize ..
Counting the ages of creatures...

Yes, it is as if all of these living things, whether animal, human, or plant, die at one time, and even inanimate objects, which neither live nor die, carry in their atoms hours, which begin to be full as their spring intensifies, and then begin to empty slowly over time. Even when the nuclear scientist came to it after a thousand and a thousand years, he examined its taut spring, and estimated how much it had relaxed, and how much the clock had finished. From this estimate, a calculation comes out of how many hours this hour spent while it was emptying, and how many years, or even how many centuries.

- A visit to the corn laboratory:

The professor, the archaeologist, came to the professor, the atomic scientist, in his laboratory, with a bag in his hand. He opened it and took out a piece of wood from it.

Professor of Atom: This is the sample?
Professor of Archeology: Yes, we have obtained it.
Professor of Corn: Don't tell me, or you'll spoil the matter for me.
Professor of Archeology: This is another sample that differs from that
The other..
Professor Corn: Leave them all with me, and I'll tell you when
Empty estimation of their ages.

- From coal every living thing:

(From water every living thing)
This is right. Water enters, through elements (adrogen and oxygen), into the structures of every living being. But also another element enters, that of carbon. Carbon is nothing but extremely pure coal. Plants derive their carbon (coal) from its oxide, which is created in the atmosphere, in a form that chemists call carbon dioxide, but what you need to know about this name and its causes. It's coal oxide and that's enough.

For this reason, if the wood burns, for example, and it does not finish
It burned, charred, and its black carbon appeared. It is, of course, correct to say: (From water is every living thing.) But it is also correct to say: (And from coal is every living thing).

Trees therefore have two sources: they derive their water from the soil of the earth, and they derive their carbon, i.e. charcoal, from the air.

The first wood sample in the hands of scientists:

The corn professor gave the first wood sample, which the archeology professor had given him, to his assistants in the laboratory.
The first thing they performed chemical operations on was to extract carbon (pure coal) from this sample.

They knew that this carbon is like all carbon
Extracted from a living plant (and even the carbon that is present
In the form of carbon dioxide in the air), there are two types:

This type has no radioactivity, so it is inert.
It is an active type, from which radiation emits pulses, and you shine the carbon on special detectors, which reveal these pulses completely, and make you hear them minute after minute. Or it turns into a movement in a hand that indicates it, or into a counting device that counts it. This detector is called a “Geiger counter,” named after its inventor. If you bring carbon with a lot of radiation, the timer will ring a few beats, and if you bring carbon with little radiation, the timer will ring a few beats.

The scientists placed an amount of carbon that they extracted from the first wood sample on a Geiger counter, and the counter started ticking. They counted its beats, and they were
(1000) beats or beats per hour, coming out of every one gram of carbon.

They repeated the experiment with another amount of the same sample, then another, and they counted the beats, and they were all 100 beats or so.

That's roughly, for every gram of it. Some of the scientists looked at each other, with suspicion in their eyes, and a smile on their lips.

These thousand beats come from one gram.

(Atomic. It has 3 samples for which it can be dated, except for the electronic timer, which counts the pulses of single radiation. It is immune to the intense radiation that reaches it from the outside, especially cosmic radiation.)

Rather, it is from fresh wood, cut this year, or the year before or earlier (a few years do not weaken the radiation much), and it is not from ancient antiquities leftover wood. So the archeology professor had instigated this plot of wood on them, and he must have gone away laughing heartily.

- The second wood sample in the hands of scientists:

They went to the second sample and did with it what they did with the first. They counted the ticks per gram of carbon, so the average number was 500 ticks. What this meant to them was that the carbon in this sample of wood, which had been cut from its tree a long time ago, had continued to lose its radiation all these years, a pulse, until it lost half of its radiation.

The chimes decreased from a thousand chimes per hour, which is the chimes that come out of carbon made from modern wood, to 500, which is half a thousand.

But they knew from many other previous experiments, and the calculations that accompanied them, that radioactive carbon loses half of its radiation after 5,568 years!

So this second archaeological sample of wood is 5568 years old!

The year was 1947 AD. This archaeological wood sample was cut from its tree approximately 5568 BC - 1947 - 3621 years ago.

The archeology professor returns:

The archeology professor came to the atomic laboratory.
Yes, yes, he deliberately made the first sample of fresh wood, and he wanted to say this to the corn professor when he brought the sample, but the corn professor interrupted him and did not allow him to continue the conversation. As for the second sample, it was actually found in the tomb of one of the ancient Egyptians. Archaeologists have verified that it He lived around this date in time, around the thirty-eighth century and the fortieth century BC.

- Like hitting:

This is like his stroke, I presented it for clarification. It did not occur exactly with these details, but its origins occurred, and its quasi-numbers occurred.