Time

Time - Passage/perception

• Martin Seligman - CIA torture
• Alexis Carrol - old young
• Kozyrev - cage time perception

Introduction

Time in the bioenergetic framework is not merely an abstract measurement but a physical entity with energetic consequences. The experience and perception of time is governed by metabolic rate, while aging represents time's destructive function when cellular energy declines. Several researchers have explored time's relationship to consciousness, stellar energy, and biological renewal.

Time as a physical entity

Kozyrev's theory

The Russian astronomer Nikolai Kozyrev challenged the assumption that time is merely a statistical abstraction. In his doctoral dissertation (c. 1950), he proposed that time is physically real and asymmetric, arguing that the passage of time introduces energy into systems rather than simply measuring entropy.

"What if we assume that the universe is not just running down, that it wasn't created at one moment like someone winding up a clock only to run down... what if we assume that time physically is a real asymmetric factor in all systems." — Ray Peat, "Origin of Life" transcript

Kozyrev predicted that planetary bodies would emit heat in proportion to their mass rather than their distance from the sun. Satellite measurements in recent decades have confirmed anomalous heat emissions from Jupiter and other outer planets consistent with his predictions.

Kozyrev also conducted experiments measuring time production and absorption. He found that dissipating processes (those emitting heat) "produce time," while processes dropping in temperature can "absorb time."

The neutrino sea hypothesis

Horace Dudley proposed that time operates through a "neutrino sea" that associates with matter according to its mass. In this view, nuclear energy is not the conversion of mass to energy but rather the interaction of neutrinos with matter as it passes through time.

Dudley suggested that the crystalline structure of matter governs how neutrinos resonate, creating a "space-filling resonance" that could cause unpredicted nuclear reactions. The experimental physicist Anderson observed non-random nuclear decay in a monolayer of carbon isotopes on aluminum foil, which Dudley had predicted based on the orderly arrangement of matter interacting with the neutrino sea.

Ray Peat speculated that the brain's structure of "donor-acceptor activated gel of electrons" may similarly tap into the neutrino sea as a source of both energy and novelty.

Aristotle's definition

A quantum physicist's interpretation of Aristotle noted that the philosopher defined time as "the amount of potentiality that has converted to actuality for any given system." This definition aligns with the bioenergetic view that time represents developmental transformation rather than mere duration.

Time and consciousness

The metabolic basis of temporal experience

The experience of time is not fixed but varies with metabolic state. Higher metabolic rates correspond to richer, more expanded temporal perception, while low energy states collapse awareness into a narrowed present.

"The experience of time governs the way we behave, and our metabolism governs the way we experience time." — Ray Peat, "Consciousness, Nootropics and Progesterone"

Norbert Wiener's 1948 book Cybernetics placed time and biology at the center of his thinking, and that same year he published an article focused on "Time, communication, and the nervous system." The Russian physiologist P.K. Anokhin developed a parallel understanding, pointing out physiological processes incompatible with the telegraphic "all-or-none" model of nerve function that treated time as merely abstract.

Shannon's digital information theory, by contrast, implied that if consciousness is composed of digital signals (each with only "on" or "off" meaning), time has only abstract significance. The bioenergetic view holds that consciousness is embedded in flowing metabolism, making temporal experience inseparable from physiological state.

Time-spanning and insight

Time-spanning is essential to consciousness. Insightful perception depends on the ability to directly perceive patterns that extend through time. Consciousness requires time to complexify and generate insights.

"Time is needed for consciousness to complexify, to have insights. But eventually, this growth function of time is directly subverted by another function of time, which insulates, lowers energy, shortens the time span of perception, and causes tissue degeneration." — Ray Peat, "Energy and Structure in Biological Water"

This dual nature of time (developmental vs. degenerative) represents a central tension in the bioenergetic understanding.

Progesterone and temporal projection

Progesterone, as a central neurosteroid, shapes consciousness as it projects itself into time. Progesterone supports the structured, high-energy state of cellular water that enables coherent temporal perception. In low-progesterone states, consciousness becomes more fragmented and present-bound.

Aging as time's destructive function

Electric charge gradients

Harold Burr and later Robert Becker found that organ development is governed by an electric charge gradient in the organism. This gradient declines with age.

"Individual cells drift toward the inefficient oxygen-wasting mode of metabolism with increasing age. Tissue electrical resistance increases with age. Accumulation of material between cells and disorganization of cell water probably contribute to the poor conductivity." — Ray Peat, "Energy and Structure in Biological Water"

The high concentration of free electrons at high elevations may increase lifespan by helping maintain the high-efficiency cell structure associated with youth. Vitamin C, as a source of high-energy electrons, supports normal fetal development even in the presence of drugs that block respiration.

Carrel's experiments on environmental renewal

Alexis Carrel demonstrated the importance of environmental factors in aging by keeping chicken cells alive and functioning for many years beyond the chicken's normal lifespan. The key was frequent changes of the growth medium.

Hans Selye performed a complementary experiment: he implanted glass tubes under rats' skin, where a filament of tissue grew isolated from the circulatory system. When left undisturbed, this tissue underwent rapid aging. But when Selye drained the fluid at frequent intervals, age-changes were prevented, and even when the rats died of old age, the filaments appeared young.

Young vs. old blood

Blood serum from young animals supports better cell growth in vitro than serum from older individuals. Two clear differences have been found:

1. Albumin in old blood is in a more oxidized state
2. Red blood cells in older individuals are paradoxically "younger" (more fragile, replaced sooner)

Another gerontologist rejuvenated an extremely old dog by removing its blood, discarding the serum, and replacing the cells in saline solution. The dog regained all normal functions.

Recent research has shown that simply diluting old blood (while keeping albumin constant) produces the same anti-aging effects as parabiosis, suggesting that accumulated factors (likely including free fatty acids and cellular debris) are responsible for aging's effects rather than the absence of "youth factors."

Lecomte du Noüy's healing equations

Lecomte du Noüy developed equations describing regenerative activity at different ages. A 21-year-old person heals twice as quickly as a 40-year-old. Carrel connected this to changes in blood serum:

"The proteins of blood serum become more abundant and their characters are modified. It is chiefly the fats which give to serum the property of acting upon certain cell types and of diminishing the rapidity of their multiplication. These fats increase in quantity and change in nature during life." — Alexis Carrel, cited in "Regeneration and the Anti-Adaptogens"

The rate of living theory (debunked)

A persistent myth holds that higher metabolic rate leads to shorter lifespan, like a candle burning brighter but shorter. This "rate of living" theory dominated early 20th century thinking and influenced caloric restriction research.

However, within a given species, higher metabolic rate typically corresponds to greater longevity:

"A study of 18 strains of mice found a clear association between a higher metabolic rate and greater longevity." — Ray Peat, Generative Energy

Birds generally live longer than mammals of the same weight despite higher body temperatures (104°F vs. 98°F) and faster metabolisms. A medium-sized parrot lives about 70 years compared to 2 years for a rat of similar size. According to H. Rahn, the total energy per gram of tissue per lifespan is about four times higher in passerine birds than in mammals.

The confusion arises from comparing different-sized animals across species (elephants vs. mice) rather than metabolic variations within species. Children have metabolic rates at least 50% higher than adults, which likely explains their superior resilience, learning ability, and recovery from injury.

Methylation and the imprinting of helplessness

Learned helplessness involves epigenetic imprinting that turns off genes of renewal. Excess methylation shuts down adaptive gene expression, and this process accelerates with aging.

"Too much methylation turns off the genes of renewal. There are lots of products pushing the idea that we need more methylation. One of the main methyl donors is methionine... if you deprive animals of a major part of their normal methionine, they live 30 or 40 percent longer." — Ray Peat, KMUD interview on longevity

This connects learned helplessness to aging itself: both involve the progressive silencing of developmental potential.

See also

• Consciousness
• Aging
• Learned helplessness
• Progesterone
• Metabolic rate
• Enriched environment