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You are an octillionaire

An academic poem about electrons, cellular energy, and a worth that does not depend on how much we give.

You are an octillionaire. Octillions of electrons. One extraordinary you. OpenHealthcare.org. Luminous opalescent waves and points of light swirl against a lavender-blue background.
Luminous octillionaire wave poster · AI-generated artwork from the Healing Images collection.

Before you finish reading this line,
your body has continued its work:
a pulse, a breath,
the quiet keeping of a world.

Within the atoms of you, electrons—
far beyond an ordinary counting—
help give matter its bonds,
and molecules their possibilities. [1]

Across a cell’s thin boundary,
ions gather unevenly.
A difference becomes a voltage;
channels open,
and a signal travels. [2]

Within mitochondria,
electrons pass between carriers.
Their transfer helps lift protons
across a membrane.
The return flow turns a molecular machine:
ATP, made for the work of living. [3]

Such small exchanges.
Such an immense belonging.

You are an octillionaire—
a phrase for the wonder,
not an exact census of a person.

And on the days you feel depleted,
you do not owe the world a brighter spark.
You may rest.
You may receive care.
Your worth was never measured
in how much energy you could give.

The science beneath the poem

  1. How many electrons? An octillion means 10²⁷ here—a one followed by 27 zeros. There is no single electron count for every person; mass and composition matter. To illustrate the scale, a hypothetical 70 kg quantity of water contains about 2.3 × 10²⁸ electrons—roughly 23 octillion. That calculation uses about 18 grams per mole of water, 10 electrons per neutral water molecule, and Avogadro’s constant. It is an illustrative calculation, not a measured human-body count; a body is not entirely water. We therefore use “octillions” rather than claiming exactly seven. [1, 4]
  2. Cellular batteries. Pumps maintain ion concentration differences, while selective membrane permeability helps establish voltage. Around −70 millivolts is a familiar example for a resting neuron, not a universal value for every cell or moment. Nerve and muscle electrical signals involve moving ions, rather than electrons flowing through a wire. [2]
  3. The ATP factory. In mitochondria, electron transfers in the respiratory chain help pump protons across the inner membrane. Their return through ATP synthase drives ATP production. This is a way cells convert chemical energy; simply possessing electrons does not provide an unlimited energy supply. [3]
  4. Continuous chemistry. Electrons participate in the bonds and reactions of biological molecules, including DNA and proteins. Many remain associated with atoms and stable bonds; not every electron is continually being passed along a metabolic pathway. The body is approximately electrically neutral overall. [1]

Artwork is an abstract interpretation of microscopic abundance, not a scientific depiction of electron positions or motion.

References

  1. Alberts B, et al. Molecular Biology of the Cell, 4th edition: The Chemical Components of a Cell. NCBI Bookshelf Garland Science; 2002. https://www.ncbi.nlm.nih.gov/books/NBK26883/ ↩
  2. Physiology, Resting Potential. StatPearls, NCBI Bookshelf https://www.ncbi.nlm.nih.gov/books/NBK538338/ ↩
  3. Alberts B, et al. Molecular Biology of the Cell, 4th edition: The Mitochondrion. NCBI Bookshelf Garland Science; 2002. https://www.ncbi.nlm.nih.gov/books/NBK26894/ ↩
  4. SI Units — Amount of Substance. National Institute of Standards and Technology https://www.nist.gov/pml/owm/si-units-amount-substance ↩

    The mole contains exactly 6.02214076 × 10²³ specified entities.

References checked October 29, 2026.

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