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September 1966
LSD and the Third Eye
After twelve years as a
stockbroker in New York, Mr. Bleibtreu's curiosity about comparative religion
and animal behavior impelled him to leave business and take up the writing of
fiction and nonfiction. He is particularly interested, as this essay shows, in
efforts to close the "two cultures gap" between science and culture. His
researches have produced a book, THE PARABLE OF THE BEAST, to be published in
England by Gollancz.
by John N. Bleibtreu
The current popularity of such writers as William Burroughs, Genet, and others,
who specialize in the baroque recesses of human behavior, makes it seem as if,
in this age of reason, we feel ourselves constrained within the confines of
sanity and yearn for vicarious release.
The belief that in madness there may exist a core of numinous knowledge is a
commonplace in all human societies. In the Western tradition, the doctrine that
truth may be obtained through a state of mind in which reason is dislocated, a
state of ecstatic revelation, is generally supposed to have originated with the
Thracian worship of Dionysius, later becoming synthesized by Pythagorus, and to
have received its most complete elaboration in the dialogues of Plato.
The class of drugs of which LSD-25 is the most potent member may prove for our
time to be a very useful tool in exploring, via the scientific method, the
roots of this age-old dilemma concerning the nature of perceived reality. That
madmen may often be capable of incredible accomplishment should be obvious to
everyone living in this century, whose history has been so monstrously deformed
by the activities of an undeniable madman, Adolf Hitler. This one terrible
example should quench all disputations concerning the correlations between
mental aberration and accomplishment. These disputations most frequently arise
in connection with accomplishment in the creative arts, where the biographies
of many greatly talented people are replete with histories of bizarre behavior
of one kind or another. It is impossible, however, to make such correlations on
any kind of statistical basis, since for every "mad artist" on the model of Van
Gogh, one can point to two equally creative, original, and productive artists
on the sane and sober models of J. S. Bach or T. S. Eliot.
In addition to the artificially induced LSD state, there are other, naturally
occurring temporary states in which there is a collapse of the normal routines
by which the mind ordinarily processes the information it receives of the
outside world. Not only Hitler but before him Alexander the Great, Julius
Caesar, and Napoleon Bonaparte all reportedly suffered from mysterious
seizures which overtook them at seemingly random times--often inconveniently.
Dostoevsky also suffered from these states, and his reports of them are
sufficiently detailed to permit a more certain medical diagnosis of his
affliction--some kind of psycho-motor epilepsy. As he describes the "aura"
which precedes his seizures, the language is remarkably similar to that used by
LSD subjects. Dostoevsky wrote: "For a few moments I experience such happiness
as is impossible under ordinary circumstances and of which other people can
have no notion. I feel complete harmony in myself and in the world and this
feeling is so strong and sweet that for several seconds of such bliss, one
would give ten years of one's life; indeed, perhaps one's whole life." Others
have reported on these aura states as well. Along with the feelings of peace
and euphoria, there is a general impression of a clear and golden shimmering
light. Quite often there is a sense of cerebral clarity as well, and solutions
of a lovely simplicity appear for the most intractably knotted problems.
None of the names used to describe the class of drugs to which LSD belongs and
which produce these peculiar states of altered consciousness is completely
satisfactory. When they were first developed, they were called psychotomimetic
(imitative of psychosis), but this term rang unhappily in the ears of many who
felt that the word implied pathology and thus made a negative value judgment.
Another name for them, hallucinogenic, was unfortunate in that it rendered an
epistemological judgment--hallucinations being by definition unreal or
untrue--and if one is to maintain a proper stance of scientific objectivity,
one must suspend judgment regarding the reality of reality, for it is just
possible that in some way these drugs augment our sense receptors or in some
way so alter the mechanism of their functioning that another dimension of
reality is made manifest. This last notion is the one implied in the term
psychedelic (mind manifesting), which seems gradually to be coming into general
use to describe both the class of drugs and those states of mind with which
they are associated.
THERE is a vast literature running back for thousands of years which describes
psychedelic experiences, long before 1938, when Albert Hofmann first
synthesized d-lysergic acid dyethylamide. Some of the literature describes
attacks, sudden, spontaneous, and totally unexpected, like that attack which
overcame St. Paul on the road to Damascus. Other traditions in the literature
describe states that were induced by fasting, by the sensory deprivation
resulting from disciplined meditation (the willful exclusion of sensory input),
by hysteria through frenzied dancing or orgiastic sexuality, by hypnosis, or by
the use of various natural psychedelic intoxicants. Reports of these kinds of
exalted states have come to us not only through the literature of religious
fanaticism; such accomplished scientists as Pascal and Newton have written of
being overcome by mystic trances to which they attribute many of their creative
insights. William James well understood that the mystic was often able to
effect an almost miraculous synthesis between this world of "imagined" reality
and the world of phenomena. In recent years, psychology has tended, to its
discredit, to ignore these elements of William James's thought. One of the
happy by-products of LSD has been the revival of interest in William James on
the part of academic psychologists who had previously thought that these
concerns of his were a cranky eccentricity in the body of his worthwhile work.
Two famous reports of modern times of this kind of correlation--between the
hard factual world of science and the dreamworld of the psychedelic state--are
those of Friedrich Kekule, the German chemist who has written that he was
"presented with" the closed-chain theory of the structure of the benzene
molecule during one such dream-trance state, and Otto Loewi, who wrote that in
1921 he awakened from a dream in which was described to him the means by which
chemical transfer was accomplished between nerve and effecter cells. Loewi
rushed down to his laboratory, where he proceeded to prove the reality of the
dream--an accomplishment which led to the Nobel Prize.
From the time of Dionysius to the time of Plato, the cultures of the
Mediterranean consented to this doctrine that claimed the existence of an order
of ultimate reality which lies beyond apparent reality, and that this
"paranormal" reality is accessible to the consciousness only when the "normal"
routines of mental data processing are dislocated. It was Plato's pupil
Aristotle who spoiled his master's game. Following upon Aristotle, Western
philosophy became bifurcated. The philosophical temper of our civilization,
being scientifically and technically oriented, is basically Aristotelian.
No such rational figure as Aristotle arose in the Orient to a position of equal
eminence. Regardless of the reasons, Indian anatomists and zoologists, who were
no doubt just as curious as the Greeks about the origins of life, and as
skilled in dissection, did not feel compelled to set their disciplines up in
opposition to metaphysics. Metaphysical philosophy and natural philosophy
remained joined like Siamese twins. As a result, that discipline which became
medicine in the West evolved into a system known as Kundilini Yoga in the Hindu
culture. This was a system designed to produce in those who followed its
teachings a condition of controlled "creative" madness.
In Western terms, Kundilini Yoga can be understood as a biological statement
couched in the language of poetic metaphor. The system made a heroic attempt to
join together the seeming disparate entities of body and mind. It is a very
complicated doctrine; in oversimplified terms, the system encourages the
practitioner to progress through the control of six stages, called chakras, of
body-mind coordination. The sixth, the highest and most exalted state, is
called the sahasrara.
The physiological site of this sixth chakra, the sahasrara, is located in the
center of the forehead; it is symbolized by an eye--the so-called third eye,
the inner eye, or the eye of the mind. When this eye is opened, a new and
completely other dimension of reality is revealed to the practitioner of yoga.
Western scholars when they first came upon this literature took the third eye
to be an appropriately poetic metaphor and nothing else.
But in the middle of the nineteenth century, as the subcontinent of Australia
and its surrounding territory came to be explored, a flurry of zoological
interest centered upon a lizard native to the area, the tuatara (Sphenodon
punctatum). This animal possessed, in addition to two perfectly ordinary eyes
located on either side of its head, a third eye buried in the skull which was
revealed through an aperture in the bone, covered by a transparent membrane,
and surrounded by a rosette of scales. It was unmistakably a third eye, but
upon dissection it proved to be nonfunctional. Though it still possessed the
structure of a lens and retina, these were no longer in good working order;
also lacking were appropriate neural connections to the brain. But the presence
of this eye in the tuatara still poses a puzzle to present-day evolutionists,
for almost all vertebrates possess a homologous structure in the center of
their skulls. It is present in many fish, all reptiles, birds, and mammals
(including humans). No functional role whatever could be imagined for this
structure in humans, and it remained merely an anatomical curiosity until 1898,
when Otto Heubner, a German physician, wrote a paper associating cancers of
this organ with instances of precocious puberty in children. Heubner's
observation was confirmed many times over in the intervening years and gave
rise to a number of theories concerning the role of the pineal organ as a
regulator of sexual maturity. Those who adhered to these theories considered
the pineal to be a gland, but since no secretions could be isolated or
identified as emanating from this organ, the theories remained unsubstantiated
by clinical evidence.
IN 1948 no one was paying any attention to the pineal organ. A hematologist,
Maurice Rapport, working in the Cleveland Clinic was engaged in the search for
that substance in blood serum which could be related to the tendency of blood
to clot, and which might also cause the constriction of blood vessels. He
eventually found just such a substance; it tended to make blood form clots, and
it tended to be a muscle- as well as a vaso-constrictor. Rapport named this
substance serotonin; it is manufactured quite profusely by specialized cells
lining the wall of the gut, and it is presumed to play a role of some kind in
the peristaltic movements.
Directly as Rapport announced his discovery, the new chemical came under
intensive scrutiny; biochemists were eager to find means of augmenting its role
as a clotting agent and vasoconstrictor; they were also eager to find means of
blocking these functions. It was E. J. Gaddum, a professor of pharmacology at
the University of Edinburgh, who seems to have been one of the first to note a
connection between serotonin and mental states of being. In a paper published
in 1953, he pointed out the odd fact that LSD-25 was a potent antagonist to
serotonin. Two biochemists working at the Rockefeller Institute, D. W. Woolley
and E. Shaw, were similarly struck by this odd coincidence. They tested a
number of other chemicals antagonistic to serotonin and wrote in a rather
startled tone "Among each of these compounds are some that cause mental
aberrations....If this be true, then the naturally occurring mental
disorders--for example schizophrenia--which are mimicked by these drugs may be
pictured as being the result of a cortical serotonin deficiency arising from
metabolic failure rather than from drug action."
This announcement produced a thrill of excited hope, which was short-lived;
there were other antagonists to serotonin just as potent as LSD which had no
effect whatever on mental states. Serotonin also refused to pass through the
so-called "blood-brain barrier." If it was injected into the bloodstream of an
animal (or a human), it did not seem to pass into the brain. But the medical
profession accommodated itself easily to this particular disappointment; for
this discovery and a series of others which occurred during the same period
gave rise to a whole new set of concepts concerning the roles of various
chemical compounds manufactured within the brain. Many of them were molecules
of a type known as amines. They were not, strictly speaking, hormones, since
they were not produced and secreted by glandular tissue, but by scattered
specialized cells, including nerve cells. They came to be called, in a quaint
reversion to eighteenth-century diction, neurohumors. According to Webster, a
humor is a fluid or juice of an animal or plant, specifically one of the four
fluids--blood, phlegm, choler, and melancholy--conceived as entering into the
constitution of the body and determining, by their relative proportions, a
person's health and temperament; hence one's disposition, or state of mind,
whether constitutional, habitual, or temporary. The discovery of the chemical
nature of these humors led to the development of chemicals antagonistic to them
and thus to entire families of humor-regulating drugs--the tranquilizers,
anti-depressants, nervous-system stimulants, and so on.
But despite this new knowledge, the mystery of the LSD-serotonin antagonism
persisted. Serotonin is not an unusual chemical in nature; it is found in many
places--some of them odd, like the salivary glands of octopuses; others
ordinary: it abounds in plants; bananas, figs, plums are especially rich in it.
What was it doing in the brains of humans? What was its evolutionary history?
In 1958 a Yale Medical School professor of dermatology named Aaron B. Lerner
published a paper on the pineal gland which placed this elusive substance in
some vague kind of historical perspective and provided for it a real functional
role in the brains of mammals.
IT had been known since 1917 that if crushed pineal glands were introduced into
water in which tadpoles were swimming, the skin color of the tadpoles would
turn light. The chemical substance melanin is the pigment which darkens skin
color. It is located in specialized cells scattered through the topmost layer
of skin. Pineal extract caused these cells to contract in tadpole skin and in
certain other reptiles which change their skin color in response either to mood
or environmental setting. Lerner was interested in melanomas, cancers of the
pigment cells of human skin; he was curious to find out if there was any
possible connection between this skin-lightening substance found in pineals and
cancer. After an incredible four-year project, during which time he dissected
over 250,000 cattle pineal glands supplied to him by the Armour Company, he
finally isolated the substance responsible, calling it melatonin, since it
caused the contraction of melanin-producing cells.
He proved that melatonin was a hormone, that it was produced specifically by
the pineal organ, and that therefore this organ was a true, functioning gland,
not merely a vestigial sight organ, a relic from our reptilian past. He
discovered, moreover, how melatonin was manufactured by the pineal--by the
action of certain enzymes on a precursor chemical which must pre-exist in the
pineal in order for it to be transformed into melatonin. This precursor
chemical turned out to be serotonin.
But try as he would, Lerner could find no connection between melatonin and the
pigment cells of mammalian skin. In fact, he could find no use whatever for
melatonin in the body economy of mammals. The task of exploring the role played
by melatonin in the bodies of mammals was undertaken by a brilliant biochemist,
Julius Axelrod, working at the National Institutes of Health in Bethesda,
Maryland, in the company of several young associates, notably Richard Wurtman
and Solomon Snyder. They discovered the basic biochemical sequences performed
by the pineal in the manufacture of melatonin; they found that it was produced
from serotonin by the action of two enzymes, an acetylating enzyme and a
methoxylating enzyme. By blocking or augmenting the action of these enzymes,
Axelrod and his assistants were able, most ingeniously, to stimulate or
suppress the organism's own manufacture of melatonin. In the course of this
work, it became apparent that Otto Heubner's old contention that the pineal
produced a substance which interfered with sexual development was very close to
the truth. Melatonin did, in fact, suppress physiological sexuality in mammals.
If test animals were stimulated to manufacture excessive amounts of melatonin,
their gonads and ovaries tended to become reduced in size, to shrink, to
atrophy. The estrous, or fertility, cycle in females could likewise be altered
experimentally by doses of melatonin.
Now, two most curious functions had been attributed to the pineal gland, the
third eye, the eye of the mind. It had now been established that this organ
produced a chemical which had, indirectly at least, been associated with
psychedelic states. It also produced a chemical which suppressed functional
sexuality. The literature of religious mysticism in all ages and all societies
has viewed the mystical passion of ecstasy as being somehow analogous to, or
involved with, carnal passion. In the pineal gland, in the eye of the mind,
were discovered a hormone and a neurohumor which were functionally associated
with both kinds of passion.
Axelrod and his co-workers also discovered another incredible fact. The pineal
gland produces its chemicals according to a regular oscillating beat, the basis
of this beat being the so-called circadian rhythm. This pulse remains constant
if darkness and light follow one another through the course of the day in a
regular alternation. They found that the pineal responded somehow to light
conditions, that by altering light conditions they could extend, contract, even
stabilize the chemical production rhythms of the pineal.
How does the pineal perceive light, directly, by being a light sensor itself,
still performing some of the functions of an eye; or indirectly, via the
central nervous system? The evidence is still not conclusive. Light does
penetrate bone and brain to reach the pineal in significant amounts. This was
proved by a University of California zoologist, W. F. Ganong, who implanted
photocells adjacent to the site of the pineal in sheep and got altered readings
from his instruments depending on whether the animals were standing in direct
sunlight or in shade. On the other hand, if animals are blinded, or have the
nerves connecting the eye to the brain severed, some of the pineal rhythms are
dampened, just as though the animals were being maintained in continual
darkness. But there is still a sufficient number of discrepancies in the
evidence to leave the question of direct light sensing by the pineal open for
the moment. Axelrod and Wurtman believe that there are other, undiscovered
chemicals being manufactured by the pineal, for they see signs of enzyme
activity which cannot be accounted for by either serotonin or melatonin.
The fact that the pineal responds to light, even if this response is indirect
via the central nervous system, has some fascinating and far-reaching
conceptual applications. There are many behavioral changes which overtake
animals as the seasons change, and which can be produced out of season in the
laboratory by simulating the appropriate span of artificial daylight. Do such
seasonal changes in mood and behavior persist in humans?
The great religious holy days of all faiths tend to cluster around the times of
the solstices and equinoxes. Is it possible that the human pineal gland
responds to these alterations in the length of daylight, and by changing the
balance of neurohumors in the brain, perhaps effects a greater incidence of
psychedelic states in certain susceptible individuals just at these crucial
times? This possibility provides an entirely new potential dimension to our
secular understanding of the religious experience.
Since Lerner had done his original pineal research at Yale, his colleagues
belonging to various disciplines had become fascinated with his work even
before it was published. As a result, Yale had a kind of head start in pineal
research. Among the first to pursue the trail of pineal hormones and
neurohumors was Nicholas Giarmin, a professor of pharmacology who had been a
former student of Gaddum's at Edinburgh and remembered the connection Gaddum
had made five years previous between LSD and serotonin. With him worked a
professor of psychiatry, Daniel Freedman, who had become fascinated by the
whole new field of pharmacology and states of mind. They began by measuring the
serotonin contents of the various parts of the human brain at autopsy. In order
to make these measurements, one must exploit the very limits of our
technological capacities. Neurohumors exist in the brain in infinitesimally
small amounts. They are measured by a unit known as the nanogram, which is one
billionth of a gram. Not only are assay procedures highly critical, but since
drastic chemical changes occur between that state which we call life and that
which we define as death, it is difficult to prove that the amounts of any
given entity found on autopsy are the same as those which might be found in the
same tissue in the flush of life. Giarmin and Freedman confirmed that the human
brain manufactures serotonin at various sites other than the pineal. It is
produced in scattered isolated cells, but the density of these cells varies
with their location in the brain. For example, in the thalamus, they discovered
61 nanograms of serotonin per gram of tissue; in the hippocampus, 56 ng.; in
the central gray section of the midbrain, they found 482 ng. But in the pineal,
they found 3140 ng. of serotonin per gram of tissue. The pineal was
unmistakably the richest site of serotonin in the brain!
Since the pineal seems to produce serotonin in excess of its needs for
melatonin production, what happens to this excess? Does the gland provide a
kind of serotonin reservoir for the brain as a whole? Can one make a
correlation between pineal serotonin and mental disorder? As its name would
imply, the pineal looks like a miniature pine cone sitting in the middle of the
brain atop a stalklike appendage. The vascular and neural connections between
it and the rest of the body run down this 2 stalk into the spinal column and
the central nervous a system, not into the brain proper. If serotonin from the
pineal does get back into the brain proper, it a must do so through such a
circuitous route that many workers discredit this possibility.
Though their work only accidentally impinged on making such correlations,
Giarmin and Freedman did find that the pineals of certain deceased mental
patients who had suffered from specified mental disorders showed a considerable
excess of serotonin in their pineals. The average amount of serotonin found in
the pineals of normal persons is about 3.52 micrograms per gland. One
schizophrenic was found to have a pineal containing 10 micrograms of serotonin,
while another patient, a sufferer from delirium tremens, had a pineal
containing 22.82 micrograms of serotonin. Owing to the difficulties of
obtaining the brains of the recently dead for autopsy, the Giarmin-Freedman
sample is pathetically small, consisting only of thirteen cases. The same
difficulties which confronted them also confront other workers who might be
tempted to confirm these findings on a larger scale.
Strong suspicion has fallen now on serotonin as being one of the principal
agents of the psychedelic experience, but whatever its role, it is certain that
other neurohumors are additionally involved in the chemical transactions which
produce the state. It is likely that LSD itself produces certain effects quite
on its own. Studies made with tracer elements and the electron microscope now
reveal that LSD strikes like a chemical guerrilla, entering into receptor
granules in brain cells swiftly, and then leaving swiftly after a very short
time, perhaps ten or twenty minutes (in animals). This initial period coincides
with the onset of the most violent symptoms of the LSD state as it is observed
in test animals. But when the twenty minutes are done, and the bulk of the LSD
has left the receptor granules, it is replaced by what seems to be excessive,
or supernormal, amounts of serotonin. Since the LSD state lasts for some ten
hours, and during this time serotonin can be measured (again at autopsy) in
supernormal amounts in receptor granules, it must be considered one of the
important participants of that chemical transaction which produces the state.
However, melatonin possesses the same basic indole molecular structure as the
LSD molecule. It is not at all difficult to imagine how this substance could be
metamorphosed into a psychedelic material. But so far, injections of melatonin
have produced no altered mental states in humans.
The use of LSD in exploring these strange dislocated states of mind is most
convenient because the effects are invariably reliable, and within certain
limits quite predictable. All the neurohumors tend to alter, in one way or
another, the data processing programming of the brain. LSD is one of the keys
which open the compartment into which this drastic new programming can be
introduced. Fasting as a means of altering body chemistry and so producing this
kind of psychedelic state seems to be effective only among those who are
marginally nourished in the first place. Sensory deprivation IS effective, and
for those who can will themselves into a state of such intense meditation as
will exclude incoming signals from the environment, the computer model provides
a simple analogy. The brain is always working, but as these outside signals
cease coming through, the brain begins processing peripheral data, memories
from the past, sense impressions of such subtlety that they are normally
bypassed in favor of more vivid input signals which affect survival and so
on.
For most of us, most of the time, our world is a Darwinian environment. We must
manipulate ourselves within it, or attempt to manipulate it in order to
survive. These survival needs tend to color our appreciation of this world, and
we are continually making judgments about it. Some, of these judgments are
based on prior personal experience, others are provided by the culture. This
"recognition system" is one of the elements disrupted by the psychedelic state.
Normally we anticipate that water will feel wet. To the madman, or the person
entranced by LSD, the wetness of water can come as an incredible surprise.
The principal question concerning psychedelic estates remains: How much
disruption can the system tolerate? "Cowper came to me," writes William Blake,
"and said: 'O that I were insane always.... Can you not make me truly insane? I
will never rest till I am so. O that in the bosom of God I was hid. You retain
health and yet are as mad as any of us--over us all.'"
The problem of how to maintain a certain madness while at the same time
functioning at peak efficiency has now captured the attention of many
psychiatrists. There seems to be a point at which "creative" madness becomes
degenerative, impeding function rather than stimulating it. The mental
hospitals are filled with patients who passed from transient, or occasional,
psychedelic states into perpetual psychosis. Freedman, with the help of another
Yale colleague, Malcolm Bowers, has collected a number of case histories of
persons who were admitted into mental institutions for various acute psychotic
seizures. But as they speak and write about the onset of their illness, they
describe psychedelic experiences. Why did they not "pass through" the
experience to be enriched by it, as did William Blake? Here, for example, is
the report of a twenty-one-year-old student who was removed to a mental
hospital in "a severely agitated delusional state":
"I [began to be] fascinated by the little insignificant things around me. There
was an additional awareness of the world that would do artists, architects and
painters good. I ended up by being too emotional, but I felt very much at home
with myself, very much at ease....it was not a case of seeing more broadly, but
deeper. I was losing touch with the outside world, and lost my sense of
time....I could see more deeply into the problems other people had and would go
directly into a deeper subject with a person. I had the feeling that I loved
everybody in the world. Sharing emotions was like wiping the shadow away,
wiping away a false face."
Bowers and Freedman do not tell us the final history of this patient. We do
know, however, that Cowper asked for insanity and got it. He died a gibbering
idiot, while Blake lived on into a ripe and irritable old age, still working,
still writing, still slipping in and out of his mysterious states which allowed
him a clear and brilliant vision of a world which, if the rest of us see at
all, we see as through a glass darkly.
Man is unique by virtue of being possessed by intuitions concerning the scope
of the mysterious universe he inhabits. He has devised for himself all manner
of instruments to probe the nature of this universe. Now at last, with the
molecule of this strange acid, he has found an instrument which opens the inner
eye of the mind and which may hopefully allow him to explore the vast interior
spaces where the history of millions of years of memories lie entangled among
the roots of the primordial self. Through it we may find a means of
understanding more clearly the roots of madness and of helping the insane to
return to the world of commonplace reality.
Copyright © 1966 by John N. Bleibtreu. All rights
reserved.
The Atlantic Monthly; September 1966; LSD and the Third Eye; Volume 218, No. 3;
pages 64-69.
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