The Kervran experiment

Widur

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Hermetic Pilgrim
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Today ph 6.76, ec 954. I gave 2.5g of calcinite and 1.2g epsom salt. Also2.5ml of NaOH 50%, then 3ml of phosphoric acid to bring ph to 6.0.
One plant is dead, only a stump, one is big but Loks very much K lacking, but the other two are fine! One is small and finely green, one big and finely green! Both big ones, the lacking and the green, carry fruit! The green like normal, the lacking like typical more but smaller fruits.
I ripped of the stump.
2026-07-27 122604.jpg2026-07-27 122855.jpg
 

Appleheads

Terrae
Hermetic Pilgrim
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I appreciate this work you are doing, there is a company that sells 100 gallons of concentrated sea water, reduced down to a gallon of volume and desalinated. The company claims it contains so many trace minerals, etc.

I worked in a cannabis grow operation, and the weed bros would get into arguments over what the O.G. in OG Kush meant.

This one fella, said it was original gansta', but the most logical response I heard was that it was Ocean Grown. Sometimes the ocean will flood the coastlines, perhaps it is giving a special something to help the plants grow?

I think it is cool you are experimenting with these different salts. I always wanted to add my electrolyte water to plants and see what the results were.
 

Widur

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Hermetic Pilgrim
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Today ec is 1200 and ph 6.3. So fertilizer in 7l hardly lasts for a week. Great. I gave them 2.0g of calcinite and 1g of epsom salt today.
Also 1.5ml of NaOH 50%, thats like 90mg of Na per liter which should bring the Na in a level like proper K for fruit stage. or a bit more, like it should be. Every nutrition should be in proper area as far as you can stil say so. Only P should be very, very high, but tomatoes are tolerant of this. If fruits get bigger now transmutation is ultimately proved!
Since my handy is broken and I am waiting for my new one, photos will have to wait for next week, but theyll look good!!
Just one looks like K deficiency, other two are finely green.
 

Widur

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Hermetic Pilgrim
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Today ph 5.9, ec 1050. I gave 2.2g of calcinite, 1.2g epsom salt, 0.4g of sea salt and 12ml of Hesi root complex(micros), One is green and big and fruiting.One small and green, one big and has strong deficiencies but is fruiting, just fruits are small. The one which is dead I substituted by 2 little cannabis cuttings with roots. Lets see what happens20260811_132750.jpg20260811_132757.jpg20260811_132805.jpg20260811_132851.jpg.
 

Widur

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Hermetic Pilgrim
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588
So again its a week over. Oh no. 2 weeks. So Ill give 2.5g Calcinit, 1.2g epsom salt and 0.4g salt. Adjust ph to 6.0 later.
Cannabis hasnt really grown but its a calcium plant according to Kervran.

In Kervran’s classification, “silicon plants” are species whose ash contains a high proportion of silicon and whose physiology shows a strong tendency to use silicon as a starting point for elemental transformations. According to him, these plants consume calcium rather than accumulate it, tolerate sodium well, and can continue growing even when potassium is low. Their characteristic reaction is Si + C → Ca, meaning silicon is the primary “source element” and calcium the “product element.” Tomatoes are his main example: they accumulate silicon, draw calcium from the medium, and remain functional under sodium‑rich, potassium‑poor conditions.
They also do Na+O->K.

“Calcium plants,” in contrast, are species whose ash is dominated by calcium and which, in Kervran’s view, actively accumulate calcium during growth. These plants require high potassium, are sensitive to sodium, and cannot compensate for potassium deficiency. Their characteristic reactions are K + H → Ca and also Si + C → Ca, but calcium is the defining end‑element rather than silicon. Rice is his prime example: it builds up large amounts of calcium in seedlings, depends heavily on potassium, and collapses under sodium substitution. In Kervran’s system, silicon plants are flexible and sodium‑tolerant, while calcium plants are rigid, potassium‑dependent, and sodium‑intolerant.
K + H → Ca is in fact a bacteria reaction not performed by teh plant itself.
So Id need a different nutrient solution to test cannabis. But it has never been tested, who knows.
 

Widur

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Hermetic Pilgrim
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Kevrans reactions summary:
ReactionPlantsBacteriaAnimalsReversible?
Na + O → KYes (strong)NoYes(e.g. men, cows, henPartially
K + H → CaWeak/indirectYes (strong)Yes (hens)Yes
Mg + O → CaWeak/indirectYes (strong)IndirectYes
Si + C → CaYes (strong)NoNoNo

Reaktion chain net:
20260825_214041.jpg

Actual reaction chains:
1787686509179.png
So bacteria and and animals have either 2 reactions liked to a chain.
Although maybe animals can use bacteria to add the Mg+O<->Ca reaction to their chain,
Plants dont have any chain, but since they use the other two reactions via bacteria at their roots zhey are in fact the only ones being able to use a full chain of all 4 reactions.
Also the bacteria might be supplied by the plants, living symbiotically

Kervran’s Four Main Biological Transmutation Reactions (Final, Correct, Complete)​

1. Na + O → K​

Sodium + Oxygen → Potassium

Performed by:


  • Plants (strong)
  • Animals (strong)
  • Humans (strong — heat management, sweating)
  • NOT bacteria
Notes: Kervran explicitly says humans convert Na → K during:

  • heat stress
  • sweating
  • electrolyte imbalance
  • desert survival
This is the same reaction tomatoes use.


2. K + H → Ca​

Potassium + Hydrogen → Calcium

Performed by:


  • Bacteria (strong)
  • Animals (hens — eggshell formation)
  • Humans (yes, according to Kervran)
  • Plants (weak, only via microbes)
Notes: Kervran attributes this reaction to:

  • hens forming eggshells
  • mammals forming bone
  • bacteria in soil
  • humans under certain metabolic conditions
It is reversible:

Ca−H→K

3. Mg + O → Ca​

Magnesium + Oxygen → Calcium

Performed by:


  • Bacteria (strong)
  • Animals (indirect)
  • Humans (indirect)
  • Plants (only via microbes)
Notes: Also reversible:

Ca−O→Mg
This is a microbial reaction that increases Ca in soils and animal tissues.


4. Si + C → Ca​

Silicon + Carbon → Calcium

Performed by:


  • Plants (strong)
  • NOT bacteria
  • NOT animals
  • NOT humans
Notes: This is the only strictly plant‑intrinsic reaction. It is not reversible.

It defines silicon‑plants like tomato.


Kervran’s Two Plant Classes (Final Table)​

1. Silicon‑Plants (true plant reactions)​

Intrinsic reactions:

  • Si + C → Ca (strong, plant‑intrinsic)
  • Na + O → K (plant‑intrinsic)
Nutrient behavior:

  • tolerate sodium
  • survive low potassium
  • consume calcium
  • accumulate silicon
  • function even in sterile DWC
Examples (Kervran):

  • Tomato
  • some grasses
  • some Cucurbitaceae (pumpkin family)
  • Amaranthus (in Soviet agronomy)
  • Dandelion
Why they work in sterile hydroponics: They perform their own reactions without microbes.


2. Calcium‑Plants (no intrinsic reaction)​

Intrinsic reactions:

  • none
  • they do not perform Si + C → Ca strongly
  • they do not perform Na + O → K
  • they do not perform K + H → Ca themselves
Depend on microbial reactions:

  • K + H → Ca (bacterial + animal + human reaction)
  • Mg + O → Ca (bacterial reaction)
Nutrient behavior:

  • require high potassium
  • accumulate calcium
  • are sodium‑intolerant
  • collapse in sterile DWC without K
  • rely on soil biofilm for Ca formation
Examples (Kervran):

  • Rice
  • Wheat
  • Barley
  • Maize
  • Rye
  • Oats
  • Cannabis (by nutrient profile)
Why they fail in sterile hydroponics: Their defining reactions are microbial, not plant‑intrinsic.


Kervrans other transmutation reaction(not strong proved, not sure partially, not that good investigated as the main 4)
ReactionPlantsBacteriaAnimalsReversible
Ca − C → SiWeak claimNoNoClaimed
N + O → PWeakYesNoUnknown
C + O → SWeakYesNoUnknown
Na + H → MgNoWeakNoUnknown
K + O → FeWeakWeakNoUnknown
Ca + C → FeNoWeakWeakUnknown
Si + N → PWeakWeakNoUnknown
S + O → CaNoYesNoUnknown
Na + C → MgNoWeakNoUnknown
 

Widur

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Hermetic Pilgrim
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I am currently looking for feedback in more specialised reddits. They should be able to tell us if wonder or totally normal!
They're answering a lot, Just not yet people who really calculate things through. But I hope there will be really interesting answers.
 
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Widur

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Hermetic Pilgrim
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Feb 15, 2024
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588
Today I had ec 1700 so gave no fertilizer. Ph was up tob7 again, so I downed it to 5.5.
But there you see how much nitrate the plants eat, from the upping ph.20260907_160526.jpg20260907_160458.jpg20260907_160449.jpg
As you see just one plant is big AND green. But they're having lots of tomatoes. I'll keep the stuff going as long as warmth makes it possible.
Next year I'll try something without any K from the beginning, for absolute proof.
 

Widur

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Hermetic Pilgrim
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588
EC wass still 1900 today, ph over 7, so I am diluting and adjusting ph.
I am going to make a new solution without so much chloride(fresh salt) and with some new plants!
Lets see how they do without K at all!
 

Widur

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Hermetic Pilgrim
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Feb 15, 2024
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588
The tomatoes are still growing. Next year I'll weigh them all to have stronger proof.
Today I just adjusted ph because ec is still 15-1600 microsiemens.20261002_115955.jpg
Only the tomatoe on top in the middle is from a plant not in the Kervran experiment. All others are Kervran.20261002_120002.jpg20261002_120011.jpg20261002_120016.jpgThe plant with red tomatoes is nicely green. The yellow tomatoes plant looks like K deficiency. For next year Ive taken seeds from the red plant. I'll test them without K at all. 20261002_120019.jpg