Exhibition · Vater- und Mutterstoff · Father & Mother
Light, matter & the living world
The solar father. The earthly mother.
For Schauberger, oxygen is the solar, fertilizing principle. Hydrogen and his “carbones” belong to the maternal, formative pole: the capacity to receive, bind and bring new forms into being.
Water is their meeting place: the “child” that becomes a mothering medium for further life.
Temperature and motion shape how these principles interact in Schauberger’s account. [1]
THE FATHER · ☉
Oxygen — the solar principle
He associates oxygen with the Sun’s fertilizing power: an influence that activates change. Its character depends on the conditions of its encounter. In his account, regulated oxygen participates in formation; intensified by heat, it becomes aggressive and promotes disintegration.
Father-substance · fertilization and transformation
THE MOTHER · ☽
Hydrogen and carbones — the formative principle
The maternal partner actively binds and transforms what it receives. Cooling, shelter and inward cycloid motion help bring the partners together. In his river discussion, Schauberger invokes Goethe’s “Eternally Female” and water’s “matriarchal rights”: the capacity to contain the active influence and turn it toward renewal. [1][5]
Mother-substances · binding, development and form
THE CHILD · ☿
Water — offspring and life-bearing medium
He calls water the “water-child” and the first-born blood of Earth. The relationship continues through another generation: water itself takes a predominantly maternal role, carrying the formative conditions from which further life can develop.
The offspring · a medium for further life
“solidified solar energy, chemically described as oxygen”
Viktor Schauberger · The Natural Reconversion of Seawater into Fresh Water · The Water Wizard, PDF p. 38
The same essay extends the image to Earth’s waters and an “ur-fertilising Sun.” [2] In Fire Under Water, Zimmermann describes the two principles as equal in value. [4]
A key to his language
“Carbone” reaches beyond carbon and hydrocarbons.
Coats’s editorial note explains the extra e: Schauberger’s “carbones” or “mother substances” encompass a broad range of elements and compounds, formally excluding oxygen and hydrogen. Hydrogen nevertheless joins the maternal side in the polarity passages. Werner Zimmermann also records that Schauberger sometimes includes it within his wider mother-substance concept. The usage is expansive and varies with context. [3][4]
Two questions extend the inquiry: how does solar energy sustain living chemistry, and could life—or its ingredients—arrive from beyond Earth?
Solar energy · a physical connection
The Sun as an activating source.
Photosynthesis gives the Sun–Earth relationship a concrete chemical expression. Plants and phytoplankton use sunlight to build sugars from carbon dioxide and water, releasing oxygen. Carbon-based matter stores energy and supplies the structures of growth.
In aerobic respiration, organisms use oxygen while breaking down those organic nutrients, releasing carbon dioxide, water and usable energy. Photosynthesis and respiration connect light, carbon, hydrogen and oxygen through a continuing exchange of matter and energy. NASA · The carbon cycle
The young Sun may also have helped prepare life's ingredients. In a 2023 study, proton irradiation simulating solar energetic particles produced amino acids and carboxylic acids in proposed early-atmosphere gas mixtures. This demonstrates a possible prebiotic pathway under laboratory conditions; it does not establish how life actually began.
Panspermia · the seeding hypothesis
Could life travel between worlds?
Panspermia proposes that life could spread through space—for example, microbes sheltered in rocks transferred between planets. It concerns transport and survival, and leaves the first origin of that life unexplained. It is not evidence that sunlight carries living seeds to Earth.
A separate, better-supported idea is the delivery of prebiotic ingredients. Analyses reported in 2025 found amino acids and all five DNA/RNA nucleobases in samples from asteroid Bennu. These are chemical building blocks, not organisms or evidence that Earth was seeded with living microbes.
The mother pole · translated into living chemistry
Matter that can hold, copy and transmit form.
Carbon and hydrogen form structures ranging from simple C–H frameworks to the complex molecules of living cells. Covalent bonds build these structures; reversible associations help molecules recognize, join and separate.
Carbon + hydrogen · covalent frameworks
Methane CH₄
One carbon · four hydrogens
Ethane C₂H₆
Two carbons · six hydrogens
Methane's four bonds point toward a tetrahedron's corners (about 109.5°). Its solid wedge comes toward you; its hashed wedge goes behind the plane. Ethane's flat projection shows connectivity, not bond angles. These are covalent bonds, not hydrogen bonds.
C + H · covalent structure
Hydrocarbons
A hydrocarbon contains carbon and hydrogen only. Carbon can make four covalent bonds and join to itself in chains, branches and rings, producing forms from methane to complex oils and aromatic structures. Living molecules often contain hydrocarbon regions, but adding oxygen, nitrogen, phosphorus or sulfur makes them other classes of compounds.
Inheritance · layered construction
DNA
Each DNA nucleotide contains a carbon-based deoxyribose sugar, a phosphate group and a nitrogen-containing base. Covalent bonds build the sugar–phosphate backbone; hydrogen bonds pair A with T and C with G across the strands. DNA is carbon-based, but it is not a hydrocarbon—and a hydrogen bond is not the same as a covalent C–H bond.
H⁺ · motion across a membrane
The proton gradient
Hydrogen also acts dynamically as the ion H⁺. Cells arrange hydrogen ions across membranes, then let them return through ATP synthase—molecular rotary machinery that manufactures ATP. Here hydrogen is not merely part of a structure; its controlled movement helps power life's continuous work.
Molecular oxygen and ozone respond to particular wavelengths of sunlight. The diagram follows the main ultraviolet reactions high in the atmosphere.
A high-altitude cycle · sunlight, O₂ and O₃
01 · Split molecular oxygen
O₂ + hν → 2 O
Shortwave UV, roughly λ < 242 nm, can dissociate O₂ into two oxygen atoms.
02 · Build ozone
O + O₂ + M → O₃ + M
A third collision partner, M—usually N₂ or O₂—carries away excess energy. It is not consumed.
03 · Absorb and dissociate
O₃ + hν → O₂ + O
An absorbed UV photon can split ozone, returning O₂ and an oxygen atom to the cycle.
hν means photon energy; λ means wavelength. This diagram shows the core Chapman reactions, not every atmospheric pathway.
Oxygen and ozone remove essentially all incoming UV-C; stratospheric ozone absorbs most UV-B, while most UV-A reaches the ground. Animation speed, ray spacing and layer shading are illustrative.
Near the ground · a different pathway
Sunlight can also create an air pollutant.
Ground-level ozone commonly forms when nitrogen oxides (NOₓ) and volatile organic compounds (VOCs) react in sunlight. Traffic, industry and other emission sources supply these ingredients. Ozone is not usually emitted directly in that pathway, and the resulting air pollution can harm lungs and vegetation. The molecule is still O₃; its location and exposure determine the outcome. EPA · Ground-level ozone
The “octave of light”: reading the analogy
Schauberger’s “octave” is pattern-language, rather than a chemical scale. Excited oxygen atoms can emit particular red and green wavelengths in airglow and aurora, but atomic oxygen, O₂ and O₃ are not rungs of a musical octave. Distinct energy states are measurable; the musical correspondence remains an interpretation.
Schauberger assigns temperature a decisive role in his account of water. His proposed boundary is stated in this passage:
"As long as the water-temperature is below +9 °C, its oxygen content remains passive. Under such conditions the oxygen assists in the building up of beneficial, high-grade micro-organisms and other organic life. However, if the water temperature rises above this level, then the oxygen becomes increasingly active and aggressive."
The Water Wizard
Move the slider to explore this historical model: a cool, receptive state below +9 °C and increasing activity above it. The animation's loosening bonds are symbolic; warming liquid water through this temperature does not split H₂O molecules.
Schauberger's model · H₂Oconceptual visualization · not a molecular simulation
0°4°9° threshold15°25°
Oxygen’s character
O — father-substance · seminal, solar, active
H — mother-substance · fecund, receptive
The bond — their offspring: water
From the historical image to dissolved gases
Oxygen in the water, and oxygen in the molecule.
Dissolved oxygen is O₂ carried in water, distinct from the oxygen chemically bound in H₂O. Gas exchange, mixing, photosynthesis, respiration and nutrient conditions help determine the amount actually present. The Whirlpool explores oxygen and flow in living waters.
Measured water: the curve behind the metaphor
This curve shows freshwater in equilibrium with air near sea-level pressure. Cooler water can hold more dissolved oxygen; warming lowers that saturation capacity. Rivers, lakes and pipes require direct measurement of the oxygen actually present.
Reference values near one atmosphere: about 14.6 mg/L at 0 °C and 8.4 mg/L at 25 °C. Pressure and salinity alter saturation.
Reading the comparisonThe curve changes smoothly through +9 °C, with no universal oxygen-character switch at that temperature. Many chemical and biological rates still increase as water warms, while aeration also affects oxygen supply. Schauberger’s threshold belongs to his historical model.
Inside the body · electron transfer
Oxidation, free radicals, and the work of living cells.
When a substance loses electrons, it is oxidized; the partner gaining them is reduced. These paired processes are called redox. Oxygen often accepts electrons, but oxidation does not require oxygen and does not automatically produce free radicals.
Controlled respiration · net half-reaction
O₂ + 4 e⁻ + 4 H⁺ → 2 H₂O
At the end of the mitochondrial electron-transport chain, oxygen is reduced to water. The coupled process helps maintain the proton gradient used to make ATP. Nutrient oxidation and oxygen reduction are different sides of the same controlled energy transfer.
One-electron reduction · a different product
O₂ + e⁻ → O₂•⁻
Some reactions partially reduce oxygen, producing superoxide. Mitochondria are one source; regulated oxidase enzymes are another. These species can enter further reactions, including formation of hydrogen peroxide.
“Radical” describes electron pairing; “reactive oxygen species” describes a chemical family.
Example
Radical?
Why the distinction matters
Superoxide · O₂•⁻
Yes
Has an unpaired electron; produced by one-electron reduction of oxygen.
Hydroxyl · •OH
Yes
Highly reactive and capable of damaging nearby biological molecules.
Hydrogen peroxide · H₂O₂
No
A reactive oxygen species (ROS) with paired electrons; can participate in signalling and other reactions.
ROS are part of normal physiology. A classic experiment measured superoxide production by human white blood cells, linking this chemistry to immune defence. In zebrafish larvae, researchers found a hydrogen-peroxide gradient at an injury that helped recruit immune cells; blocking its production impaired that response. These are specific biological findings, not a reason to treat every oxidant as either a poison or a cure.
The effect depends on the chemical species, its amount, location and duration. Antioxidant enzymes and repair systems regulate the response. Oxidative stress arises when oxidant activity overwhelms those defences or disrupts normal redox control, potentially damaging lipids, proteins and DNA. These processes provide a biological connection to the constructive and disruptive roles that interest Schauberger. Explore the wider context in the Radicals exhibit.
Viktor Schauberger, The Water Wizard: The Extraordinary Properties of Natural Water, translated and edited by Callum Coats (1997). References below use the PDF viewer’s page count for the 220-page edition.
High-Frequency Water · PDF pp. 31–32. A short piece collected in The Water Wizard. It describes oxygen as seminal or fertilizing matter, hydrogen and carbones as fecund matter, and the role of cycloid movement in the formative life-principle.
The Natural Reconversion of Seawater into Fresh Water · PDF pp. 38–40. Oxygen as solar energy; the water-child; Earth’s waters and the fertilizing Sun.
Coats’s editorial note 6 · PDF p. 25. The meaning and spelling of “carbone,” translated from Schauberger’s Kohle-stoffe.
Fire Under Water · PDF pp. 43–45. Werner Zimmermann’s report on Schauberger, including the complementary father/mother pairing and hydrogen’s variable placement within “mother-substance.”
Water, cooling and the maternal principle · PDF p. 94. Goethe’s “Eternally Female,” carbones, and water’s “matriarchal rights.”