Consciousness and Plants

The Science of Plant Intelligence Takes Root

Jack Fox-Williams, New Dawn
Waking Times

For centuries, Western philosophy has viewed animals and plants as unthinking automatons. The famous 17th (century) scientist and philosopher, Rene Descartes, maintained that non-human organisms cannot reason or feel pain; they are robotic machines that purely act on impulse.1

While science has recently proven that animals are intelligent creatures, capable of logical thinking and emotional experience, the notion that plants possess a similar kind of intelligence is largely disregarded by the scientific community. It is assumed that because plants do not possess a brain, they have no conscious experience.

 

 

Goethe and other thinkers through history observed that plants constitute an intelligent life-form, develop symbiotic relationships with other organisms, and can respond to complex changes in the environment. While the scientific community explains the intelligence of plant behaviour in terms of electrical and chemical responses to sensory stimuli, others believe that plants could provide a valuable insight into other forms of consciousness.

One of the most famous scientists to observe plant intelligence was the English naturalist, geologist and biologist, Charles Darwin.2 While Darwin is most prominently known for the theory of evolution, he was deeply fascinated by the behaviour of plants and made a valuable contribution to the botanical sciences. Unlike many of his contemporaries, Darwin maintained that plants are not unthinking automatons but highly complex and receptive organisms. In one of his last works, The Power of Movement in Plants, published in 1880, Darwin suggests that the root of the plant operates in a similar way to the neural networks found in lower animals, receiving information about the external environment and communicating it to other areas of its structure, writing:

“It is hardly an exaggeration to say that the tip of the radicle thus endowed (with sensitivity) and having the power of directing the movements of the adjoining parts, acts like the brain of one of the lower animals; the brain being seated within the anterior end of the body, receiving impressions from the sense-organs and directing the several movements.”3

Unfortunately, Darwin’s observations were rejected by leading scientists of the time, particularly the eminent plant physiologist Julius Sachs. He labelled Darwin an amateur scientist who performed careless experiments and acquired misleading results. However, in-depth analysis of plants is beginning to reveal they possess highly developed neural systems and even utilise the same neurotransmitters we do.

Modern Science & Plant Intelligence

While it is easy to dismiss these findings as pseudoscience, more and more scientists are recognizing that plants exhibit brain like-functions and make sentient decisions. In 2009, researchers Dieter Volkmann, Stefano Mancuso, Peter W Barlow and Frantisek Baluska, published an article in the journal Plant Signal Behaviour entitled “The ‘root-brain’ hypothesis of Charles and Francis Darwin” in which they examined Darwin’s root hypothesis and whether current scientific literature supports his theory.

Based on complex analysis of scientific data, they concluded that “recent advances in chemical ecology reveal the astonishing complexity of higher plants as exemplified by the battery of volatile substances which they produce and sense in order to share information with other organisms about their physiological state.”4 According to the paper, plants can recognise self from non-self and roots, even secrete signalling exudates that “mediate kin recognition.” Moreover, plants are “capable of a type of plant-specific cognition, suggesting that communicative and identity re-cognition systems are used, as they are in animal and human societies, to improve the fitness of plants and so further their evolution.”

…  One of the most interesting scientists to have undertaken research into plant intelligence is Monica Gagliano, associate professor at the University of Western Australia. In 2014, she conducted a series of experiments using Mimosa Pudicas plants to work out whether plants ‘memorize’ changes in their environment.

In order to test her hypothesis, she placed the plants in pots and then loaded each one onto a specially designed plant-dropping device. Each plant was dropped from a height of six inches, sixty times in a row at five second intervals. The plants would fall onto a soft foam to prevent them from bouncing, with the drop quick enough to cause the plants to curl up their leaves. Since the plants were not harmed in any way, Gagliano wondered whether they would eventually realize the drop did not signify an external danger. After a short amount of time, she found that “some individuals did not close their leaves when fully dropped.”The plants realized that falling from six inches would not cause them any harm and no longer curled their leaves.

Members of the scientific community were cynical of Gagliano’s findings, suggesting the plants merely became exhausted. Gagliano disproved this theory by taking a group of plants and placing them in a shaker in order to deplete them of energy. She found that the plants still curled their leaves, indicating they only became unguarded when dropped from a height to which they had become accustomed.5

Gagliano’s research has significant implications in terms how we see plants. The fact that they respond differently to situations that present no harm to those that do, implies plants recall sensory information and ‘memorise’ changes around them. While there is much uncertainty as to how plants recall this information, Gagliano believes it could be representative of a distributed intelligence operating entirely different to the mammalian brain.

This corresponds with Rupert Sheldrake’s ‘morphic resonance’ hypothesis that memories are not stored in the brain but in a universal informational field. …   Examples like this suggest memory may not be an entirely neurological phenomenon but exists in other forms; this may explain why plants are able to memorise information without possessing a physical brain structure.6

The notion that plants operate within a wider intelligence network is supported by recent experiments in plant communication. …

Plant Sentience in Shamanic Cultures

The belief that plants constitute an intelligent life form is commonplace in shamanic cultures, particularly those found in South America. As Michael Winkelman, Associate Professor at Arizona State University states, “the self-identifications with the broader universe, particularly personification of the sentient cosmos which is a hallmark of ecopsychology, is a fundamental aspect of shamanism.” 

…  Many people who have ingested Ayahuasca, an entheogenic brew made from the Banisteriopsis caapi vine in South America, report telepathic communication with plants, animals and people during the experience; the natural world becomes personified as an animated fractal intelligence that is constantly adapting, changing and evolving. …

In this sense, recent experiments into plant intelligence prove what shamanistic cultures have known all along – that plants are intelligent, sensitive and sentient life-forms.9 By observing their behaviour, we can learn more about the natural world and the complexity of all living things. Although modern science provided us with tremendous technological innovation and development, the reductionist belief that animals and plants are ‘mechanical’ in their nature, rather than a dynamic expression of intelligence and consciousness, has disconnected us from our environment and thus ourselves.

A Challenge to Outmoded Paradigms & Thinking

There are significant social, philosophical and religious implications for plant intelligence. It challenges the anthropocentric and monotheistic view that humans are the only species with a mind and a soul – we are not the most important entity in the universe but part of an interconnected web of life.

…(he independent scholar, author, teacher, and speaker on sacred plant medicine Stephen) Buhner notes:

“The older, reductive, mechanistic paradigm that looked at the earth as a ball of non-sentient resources, we do with as we please, has reached its limits. It is destroying the ability of most life forms to endure, and the eco-systems of the planet. Younger and less mentally restrictive scientists in every field are finding that the world around us is far different than the picture that reductionists have created and taught us to believe. All life is intelligent, none of it is mechanical, and you cannot use the ecosystems of the planet as resources for unlimited extraction.”11

Plant intelligence also forces us to reconsider the nature of consciousness. Mainstream science currently posits the idea that consciousness is an epiphenomenon of the brain (it is generated by the brain). When we die, the brain ceases to operate, and consciousness switches off. In this reductionist perspective, plants and animals possess a very limited consciousness since their brains are not as neurologically complex. But the fact of the matter stands that modern science does not understand the mystery of consciousness and the process by which neural pathways, which are non-conscious, become self-aware as a complex web of connections in the brain. If plants have the ability to recall sensory information, socially communicate with each other, and respond to complex changes in the environment, we are forced to rethink our current models of consciousness. It may be the case that the human brain constitutes a very specific expression of consciousness, and intelligence manifests across a broad spectrum of life with plants possessing their own unique form of awareness which modern science does not currently understand.

To conclude, there is increasing evidence suggesting plants are an intelligent life-form. Recent scientific experiments indicate that plants are able to retain sensory information, respond to complex changes in their environment and even communicate with one another via complex biological networks. While we have yet to fully understand how plant intelligence works, these experiments challenge the orthodox scientific view that plants are non-sentient, and intelligence only emerges via neural pathways in the brain.

An interview with Stephen Harrod Buhner accompanies this article and can be read inside the same issue of New Dawn.

from:    https://www.wakingtimes.com/2020/07/01/the-science-of-plant-intelligence-takes-root/

Good Guys Are Survivors

Survival of the … Nicest? Check Out the Other Theory of Evolution

A new theory of human origins says cooperation—not competition—is instinctive.
posted May 03, 2013
Hugging Salt Shakers photo by Harlan Harris

Photo by Harlan Harris.

A century ago, industrialists like Andrew Carnegie believed that Darwin’s theories justified an economy of vicious competition and inequality. They left us with an ideological legacy that says the corporate economy, in which wealth concentrates in the hands of a few, produces the best for humanity. This was always a distortion of Darwin’s ideas. His 1871 book The Descent of Man argued that the human species had succeeded because of traits like sharing and compassion. “Those communities,” he wrote, “which included the greatest number of the most sympathetic members would flourish best, and rear the greatest number of offspring.” Darwin was no economist, but wealth-sharing and cooperation have always looked more consistent with his observations about human survival than the elitism and hierarchy that dominates contemporary corporate life

Nearly 150 years later, modern science has verified Darwin’s early insights with direct implications for how we do business in our society. New peer-reviewed research by Michael Tomasello, an American psychologist and co-director of the Max Planck Institute for Evolutionary Anthropology in Leipzig, Germany, has synthesized three decades of research to develop a comprehensive evolutionary theory of human cooperation. What can we learn about sharing as a result?

Tomasello holds that there were two key steps that led to humans’ unique form of interdependence. The first was all about who was coming to dinner. Approximately two million years ago, a fledgling species known as Homo habilis emerged on the great plains of Africa. At the same time that these four-foot-tall, bipedal apes appeared, a period of global cooling produced vast, open environments. This climate change event ultimately forced our hominid ancestors to adapt to a new way of life or perish entirely. Since they lacked the ability to take down large game, like the ferocious carnivores of the early Pleistocene, the solution they hit upon was scavenging the carcasses of recently killed large mammals. The analysis of fossil bones from this period has revealed evidence of stone-tool cut marks overlaid on top of carnivore teeth marks. The precursors of modern humans had a habit of arriving late to the feast.

However, this survival strategy brought an entirely new set of challenges: Individuals now had to coordinate their behaviors, work together, and learn how to share. For apes living in the dense rainforest, the search for ripe fruit and nuts was largely an individual activity. But on the plains, our ancestors needed to travel in groups to survive, and the act of scavenging from a single animal carcass forced proto-humans to learn to tolerate each other and allow each other a fair share. This resulted in a form of social selection that favored cooperation: “Individuals who attempted to hog all of the food at a scavenged carcass would be actively repelled by others,” writes Tomasello, “and perhaps shunned in other ways as well.”

This evolutionary legacy can be seen in our behavior today, particularly among children who are too young to have been taught such notions of fairness. For example, in a 2011 study published in the journal Nature, anthropologist Katharina Hamann and her colleagues found that 3-year-old children share food more equitably if they gain it through cooperative effort rather than via individual labor or no work at all. In contrast, chimpanzees showed no difference in how they shared food under these different scenarios; they wouldn’t necessarily hoard the food individually, but they placed no value on cooperative efforts either. The implication, according to Tomasello, is that human evolution has predisposed us to work collaboratively and given us an intuitive sense that cooperation deserves equal rewards.

The second step in Tomasello’s theory leads directly into what kinds of businesses and economies are more in line with human evolution. Humans have, of course, uniquely large population sizes—much larger than those of other primates. It was the human penchant for cooperation that allowed groups to grow in number and eventually become tribal societies.

Humans, more than any other primate, developed psychological adaptations that allowed them to quickly recognize members of their own group (through unique behaviors, traditions, or forms of language) and develop a shared cultural identity in the pursuit of a common goal.
“The result,” says Tomasello, “was a new kind of interdependence and group-mindedness that went well beyond the joint intentionality of small-scale cooperation to a kind of collective intentionality at the level of the entire society.”

What does this mean for the different forms of business today? Corporate workplaces probably aren’t in sync with our evolutionary roots and may not be good for our long-term success as humans. Corporate culture imposes uniformity, mandated from the top down, throughout the organization. But the cooperative—the financial model in which a group of members owns a business and makes the rules about how to run it—is a modern institution that has much in common with the collective tribal heritage of our species. Worker-owned cooperatives are regionally distinct and organized around their constituent members. As a result, worker co-ops develop unique cultures that, following Tomasello’s theory, would be expected to better promote a shared identity among all members of the group. This shared identity would give rise to greater trust and collaboration without the need for centralized control.

Moreover, the structure of corporations is a recipe for worker alienation and dissatisfaction. Humans have evolved the ability to quickly form collective intentionality that motivates group members to pursue a shared goal. “Once they have formed a joint goal,” Tomasello says, “humans are committed to it.” Corporations, by law, are required to maximize profits for their investors. The shared goal among corporate employees is not to benefit their own community but rather a distant population of financiers who have no personal connection to their lives or labor.

However, because worker-owned cooperatives focus on maximizing value for their members, the cooperative is operated by and for the local community—a goal much more consistent with our evolutionary heritage. As Darwin concluded in The Descent of Man, “The more enduring social instincts conquer the less persistent instincts.” As worker-owned cooperatives continue to gain prominence around the world, we may ultimately witness the downfall of Carnegie’s “law of competition” and a return to the collaborative environments that the human species has long called home.

from:    http://www.yesmagazine.org/issues/how-cooperatives-are-driving-the-new-economy/survival-of-the-nicest-the-other-theory-of-evolution