Researchers from Michigan State
University have discovered that plants have a rudimentary nerve
structure, which allows them to feel pain. According to the
peer-reviewed journal Plant Physiology, plants are capable of
identifying danger, signaling that danger to other plants and marshaling
defenses against perceived threats. According to botanist Bill Williams
of the Helvetica Institute, "plants not only seem to be aware and to
feel pain, they can even communicate."
This research has prompted the Swiss
government to pass the first-ever Plant Bill of Rights. It concludes
that plants have moral and legal protections, and Swiss citizens have to
treat them appropriately. The Penn State Vegetarians Club would do well
to investigate this data before claiming to be superior to those of us
who do not subscribe to the idea that eating meat is morally wrong.
Stephen Johnson
Plants Have Feelings!
One day, Backster connected a lie
detector to the leaves of a dracaena, commonly known as a “dragon tree.”
He wanted to see how long it would take for the leaves to react when he
poured water on the plant’s roots. In theory, a plant will increase its
conductivity and decrease its resistance after it absorbs water, and
the curve recorded on graph paper should have gone upward. But in
actuality, the line that was drawn curved downward. When a lie detector
is connected to a human body, the pen records different curves according
to the changes in the person’s mood. The reaction of the dragon tree
was just like the undulation of human mood swings. It seemed that it was
happy when it drank water.
Plants Have ESP
Backster wanted to see if the plant would
have any other reactions. According to past experience, Backster knew
that a good way to elicit a strong reaction from a person is to threaten
that person. So Backster dunked the leaves of the plant into hot
coffee. No reaction. Then he thought of something more terrifying: burn
the leaves that were connected to the lie detector. With this thought,
even before he went to get a match, a bullish curve rapidly appeared on
the graph paper. When he came back with a match, he saw that another
peak appeared on the curve. It was likely that when the plant saw he was
determined to start burning, it got frightened again. If he showed
hesitation or reluctance to burn the plant, the reactions recorded by
the lie detector were not so acute. And when he merely pretended to take
action to burn the leaves, the plant had almost no reactions. The plant
was even able to distinguish true intentions from false ones. Backster
nearly rushed out into the street to shout, “Plants can think! Plants
can think!” With this astonishing discovery, his life was changed
forever.
Later, when Backster and his colleagues
did experiments around the country with different instruments and
different plants, they observed similar results. They discovered that
even if leaves were picked off from a plant and cut into pieces, the
same reactions were recorded when these pieces were placed near the lie
detector electrodes. When a dog or an unfriendly person suddenly came
in, the plant reacted too.
Plants Are Experts at Detecting Lies
Generally for experiments involving lie
detectors, electrodes are connected to a suspect and then the suspect is
asked meticulously designed questions. Everyone has a clear-headed
side, which is usually called “conscience.” Therefore, no matter how
many reasons and excuses one gives, when lying or committing a bad deed,
that person knows clearly that it is a lie, a bad deed. Hence, the
body’s electric field changes, and this change is what is recorded by
the equipment.
Backster did an experiment in which he
connected the lie detector to a plant and then asked a person some
questions. As a result, Backster discovered that the plant could tell if
the person was lying or not. He asked the person what year he was born
in, giving him seven choices and instructing him to answer “no” to all
of them, including the correct one. When the person answered “no” to the
correct year, the plant reacted and a peak was drawn on the graph
paper.
Dr. Aristide Esser, the director of
medical research at the Rockland State hospital in New York, repeated
the experiment by asking a man to incorrectly answer questions in front
of a plant the man had nurtured and cared for since it was a seedling.
The plant did not cover up for its owner at all. Incorrect answers were
reflected on the graph paper. Esser, who had not believed Backster, saw
for himself that Backster’s theories were correct.
Plants Can Recognize People
In order to test how well a plant can
recognize things, Backster called on six students, blindfolded them, and
asked them to draw lots from a hat. One of the choices had instructions
to uproot one of the two plants in the room and destroy it by stomping
on it. The “murderer” had to do the deed alone, and no one else was to
know the culprit’s identity, including Backster. In that way, the
remaining plant could not sense who the “killer” was from other people’s
thoughts. The experiment was set up so that the plant would be the
exclusive witness.
When the remaining live plant was
connected to a lie detector, every student was asked to pass by it. The
plant had no reactions to five students. But when the student who had
committed the crime walked by, the electronic pen started drawing
frantically. This reaction indicated to Backster that plants are able to
remember and identify the person or thing that causes them harm.
Remote Sensitivity
Plants have close ties with their owners.
For example, when Backster returned to New York from New Jersey, he
found from the records on the graph paper that all his plants had
reactions. He wondered if the plants were indicating that they felt
“relieved” or were “welcoming” him back. He noticed that the time of the
plants’ reactions was the moment when he decided to return home from
New York.
Sensitivity to Life on a Microscopic Level
Backster discovered that the same fixed
curves would be drawn on the graph paper when plants seemed to sense the
death of any living tissue, even on the cellular level. He noticed this
by accident when he was mixed some jam into the yogurt he was going to
eat. Apparently, the preservatives in the jam killed some of the
lactobacilli in the yogurt, and the plants sensed this. Backster also
found that the plants reacted when he ran hot water in the sink. It
seemed they reacted to the death of bacteria in the drain. To test his
theory, Backster did an experiment and found that when brine shrimp were
put into boiling water via an automatic mechanism that did not require
human intervention, the plants had very strong reactions.
The Heartbeat of an Egg
Again by accident, Backster noticed plant
reactions one day when he cracked an egg. He decided to pursue this
experiment and connected the egg to his equipment. After nine hours, the
graph paper records indicated the heartbeats of an embryonic chick –
160 to 170 beats per minute – the same as a chick embryo that had stayed
in an incubator for three or four days. However, the egg was an
unfertilized egg that was bought from a store. There was no circulatory
system inside it either. How could Backster explain the egg’s pulse?
In experiments done at Yale University
Medical School during the 1930s to 1940s, the late professor Harold
Saxton Burr discovered that there were energy fields around plants,
trees, human beings, and cells. Backster thought Burr’s experiments
offered the only insight into his egg experiment. He decided to put his
plant experiments aside for a time to explore the implications of the
egg experiments and how his findings might relate to the issue regarding
the beginning of life.
The above article is summarized from these four articles from Zhengjian Net:
“Plants Can Think” – Exploration of the Secret Life of Plants I http://www.zhengjian.org/zj/articles/2001/3/9/9143.html
Plants Can Be Experts at Detecting Lies – Exploration of the Secret Life of Plants II http://www.zhengjian.org/zj/articles/2001/3/10/9196.html
Identifying the Murderer and Remote Sensing – Exploration of the Secret Life of Plants III http://www.zhengjian.org/zj/articles/2001/3/11/9197.html
No Difference Whether Life Is Big or Small – Exploration of the Secret Life of Plants IV http://www.zhengjian.org/zj/articles/2001/3/12/9198.html
It means even on the lower levels of
life, there is a profound consciousness or awareness that bonds all
things together. Published in 1973, The Secret Life of Plants
was written by Peter Tompkins and Christopher Bird. It is described as
“A fascinating account of the physical, emotional, and spiritual
relations between plants and man.” Essentially, the subject of the book
is the idea that plants may be sentient, despite their lack of a nervous
system and a brain. This sentience is observed primarily through
changes in the plant’s conductivity, as through a polygraph, as
pioneered by Cleve Backster. The book also contains a summary of
Goethe’s theory of plant metamorphosis.
That said, this book is about much more
than just plants; it delves quite deeply into such topics as the aura,
psychophysics, orgone, radionics, kirlian photography,
magnetism/magnetotropism, bioelectrics, dowsing, and the history of
science. It was the basis for the 1979 documentary of the same name,
with a soundtrack especially recorded by Stevie Wonder.
what plants talk about
This
program integrates hard-core science with a light-hearted look at how
plants behave, revealing a world where plants are as busy, responsive
and complex as we are. From the stunning heights of the Great Basin
Desert to the lush coastal rainforests of west coast Canada, scientist
J.C. Cahill takes us on a journey into the “secret world of plants“,
revealing an astonishing landscape where plants eavesdrop on each
other, talk to their allies, call in insect mercenaries and nurture
their young. It is a world of pulsing activity, where plants
communicate, co-operate and sometimes, wage all-out war.
Scientists Confirm that Plants Talk and Listen To Each Other, Communication Crucial for Survival:
However, new research, published in the
journal Trends in Plant Science, has revealed that plants not only
respond to sound, but they also communicate to each other by making
“clicking” sounds.
Using powerful loudspeakers, researchers at The University of Western Australia were able to hear clicking sounds coming from the roots of corn saplings.
Researchers at Bristol University also found that when they suspended the young roots in water and played a continuous noise at 220Hz, a similar frequency to the plant clicks, they found that the plants grew towards the source of the sound.
Using powerful loudspeakers, researchers at The University of Western Australia were able to hear clicking sounds coming from the roots of corn saplings.
Researchers at Bristol University also found that when they suspended the young roots in water and played a continuous noise at 220Hz, a similar frequency to the plant clicks, they found that the plants grew towards the source of the sound.
“Everyone knows that plants react to
light, and scientists also know that plants use volatile chemicals to
communicate with each other, for instance, when danger – such as a
herbivore – approaches,” Dr. Gagliano said in a university news release.
“I was working one day in my herb garden
and started to wonder if maybe plants were also sensitive to sounds –
why not? – so I decided as a scientist to find out.”
While it has been long known that plants
grow towards light, previous research from Exeter University found
cabbage plants emitted methyl jasmonate gas when their surfaces are cut
or pierced to warn its neighbors of danger such as caterpillars or
garden shears.
Researchers from the earlier study also
found that the when the volatile gas was emitted, the nearly cabbage
plants appeared to receive the urgent message that and protected
themselves by producing toxic chemicals on their leaves to fend off
predators like caterpillars.
However, new research, published in the
journal Trends in Plant Science, has revealed that plants not only
respond to sound, but they also communicate to each other by making
“clicking” sounds.
Scientists suspect that sound and vibration may play an essential role in the survival of plants by giving them information about the environment around them.
Researchers said sounds waves are easily transmissible through soil, and could be used to pick up threats like drought from their neighbors further away.
Gagliano said that the latest findings shows that the role of sound in plants has yet to be fully explored, “leaving serious gaps our current understanding of the sensory and communicatory complexity of these organisms”.
In addition to other forms of sensory response, “it is very likely that some form of sensitivity to sound and vibrations also plays an important role in the life of plants,” she added
Scientists suspect that sound and vibration may play an essential role in the survival of plants by giving them information about the environment around them.
Researchers said sounds waves are easily transmissible through soil, and could be used to pick up threats like drought from their neighbors further away.
Gagliano said that the latest findings shows that the role of sound in plants has yet to be fully explored, “leaving serious gaps our current understanding of the sensory and communicatory complexity of these organisms”.
In addition to other forms of sensory response, “it is very likely that some form of sensitivity to sound and vibrations also plays an important role in the life of plants,” she added
The private life of plants
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