In the book “In Search of the Miraculous”, an account of
Gurdjieff’s teaching by P.D.Ouspensky, is a section relating how Gurdjieff
stated that “time is breath”.
Ouspensky began to elaborate on that hint by starting with the
human breath. An inhalation and expiration elapse in 3 seconds. In a day and
night, this amounts to 28,400 breaths. Dividing 28,400 days and nights by 365 (a
year) gives about 79 years, which could be the sleeping and waking time – the
lifetime – of a human.

← Gurdjieff's diagram of all living. "Each square denotes a level of being" he said. "The 'Hydrogen' in the lower circle shows what the given class of creatures feeds on. The 'hydrogen' in the upper circle shows the class which feeds on these features. The 'hydrogen' in the middle circle is the average 'hydrogen' of this class showing what these creatures are."
In the next kingdom below the animals, that of plant life, the
duration of one breath is a day and night. Plants inhale in the day and
exhale in the night. For the Plant Kingdom, therefore, a day and a night by
similar division would be 79 years.
Extending into other kingdoms, from the atom to the galaxy, he found the
number 284,000 to be a constant factor between living worlds in the three
categories - breath, day and night, and life.
A fourth category can be made by dividing a breath (3 sec.) by 28,400, which gives 0.00010... of a second. This period of time could be considered as the shortest period of impression for a human, just an electric spark or a flash of light. For the cellular world, 1/10,000 second could represent a breath, or a lifetime for a molecule.
Just to make the concept of time more graphic: for the sun a
human lifetime might be perceived as a spark, just long enough to receive an
impression.
Ouspensky made these calculation during World War I, which were meant as an
outline for a “time is breath” statement. In the early spring of 1947 he took
his last breath.
Rodney Collin began to reconstruct Ouspensky's teaching for
himself in “The Theory of Celestial Influence". In the chapter “The Times of the
Universe”,
Collin describes his version of “time is breath” by a proposal:
“Time is created
by rotation about the vital center of a higher world”.
An example is Johannes Kepler's third law, in which he shows
that the relation between distances from the sun (line) and the periods of
rotation about the sun (time) is the relation between square roots and cube
roots.
Collin extended this law to other cosmoses, using the method of deduction.
A
general principle is deduced by applying these laws in various specialized cases
to see if it works. We will try to implement the above general law on lower
worlds such as Earth and Nature.
We have a general relation between line (linear space, radii)
and time (duration, life span). Kepler's third law states that linear space
develops by cubes, duration develops by squares.
Kepler's method is by induction. He examines phenomena by gathering multiple
facts, classifying them, and attempting to infer laws and principles from them
by means of mathematic. This is the method generally used by science and Kepler
was one of the first since Pythagoras to demonstrate its effectiveness.
To make the calculation simple, Collin applied the Pi factor,
since this mathematical constant, together with the radius, is implicit in
describing[u2] circles.
The base will be a human, which linear space can be set to 1 meter - the radius
from the heart to the fingertip. The duration, life span, is set to be 80 years.
| Linear space - radii - Pi 3 = 31.8 | Classes of beings | Duration – life span - Pi2 → factor 10 |
| 1 meter | Human | 80 years |
| 3.18 centimetes | Small animal | 8 years |
| 1 millimeter | Insects & plants | 10 months |
| 0.03 millimeter | Larges cells | 1 month |
| 0.001 millimeter | Small cells | 3 days |
A similar chart for organisms bigger than man can be made, e.g. large trees, whose linear space should be 31.8 meter with a life span of 800 years. The progression up to celestial beings does not show an exact fit. Other laws are involved, but it shows that linear space has significance for life span.
The point is, however, that the number of breaths is about the same, though the
rate of breathing is different.
A helpful reader, Julian
Robbins, has mailed this comments:" I’ve heard of
life spans as being related to number of heartbeats rather than breaths. A
parrot, a tortoise and an elephant may all have a life span of around 100 years,
but they are very different in size."
Man is literally revolving about the center of Earth, which is a vital center of a higher world, and this revolution takes a day and night - a period of waking and rest. The next smaller cosmos is a cell, for instance, a blood cell. The vital center it revolves about is the heart.
Another method to estimate the relation between time and life span can be made by looking at the time a blood cell travels from the heart to a distant part of the body. It takes between 8 to 18 seconds to make the circulation, leaving its load of oxygen before returning with carbon dioxide. It takes about 6 seconds to return by traveling the little circuit from the heart through the lungs and back to the big heart chamber for the new cycle in the body.
An analogy to man's period of waking and rest can be made by
considering a "workday" for the blood cell to be 18 seconds and the rest period
6 seconds.
A proportion in seconds between blood cell and man is: 24 / life of a blood cell
= 86400 / 25228800000, which equals 700,800 seconds = 8.1 days, the lifetime of
a blood cell.
If we use the previously mentioned cube-square formula and we
estimate the radius for the red blood cell at 1/2500 centimeters, with a more
exact 130 centimeters radius for a man, we have a size factor of 325,000 times,
which relates to time as cube to square.
The time factor will be about 4727. The human life span is estimated at 80
years. The lifetime of the blood cell is 1/4727 of the human's, which equals 6.2
days.
The different methods give 8.1 days and 6.2 days for the life of a blood cell. These disparities are small considering the recent knowledge's about blood cells, whose average lifetime is 120 days from the time they are produced in the bone marrow to their decay in the spleen.
Although these linear-space calculations do not show an exact correspondence with life span, I find the theory interesting; it gives another perspective over the perception of time.
Thomas Hightower, September 2003-9.