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Mens Agitat Molem "Mind Moves Matter"

Sep 30
7 min read

"spiritus intus alit, totamque infusa per artus mens agitat molem et magno se corpore miscet".

"An inner spirit nourishes, and mind, infused through the limbs, agitates the mass and mixes with the great body". - Virgil





The "mind over matter" philosophy has puzzled and fascinated people for generations. Could it be part of the senses that can't be scientifically provable like the 'six sense'? And what happens when the body actually appears to influence the body?


These questions bring us to one of medicine's most fascinating phenomena: the placebo effect.



The phrase “mind over matter” expresses the idea that mental determination can influence how we respond to physical challenges. Its roots can be traced to 19th-century discussions of the relationship between mind and physical reality, with the wording becoming established in English during the 1800s. The phrase is closely associated with philosophical ideas about consciousness, willpower, and the power of thought. Today, “mind over matter” is commonly used to describe resilience, mental strength, and overcoming physical or psychological obstacles.


Could the placebo effect be evidence that there are still aspects of the relationship between consciousness, perception, and the body that we don't fully understand?


Is it possible that the mind has more influence over our physical state than we once believed?


Science has uncovered some remarkable answers, it has also uncovered even more questions.


We traditionally learn that humans have five basic senses: taste, smell, vision, hearing, and touch.


But it doesn't end there, scientists recognize several other sensory systems that allow us to experience and navigate the world.


Proprioception - the ability to sense where our body parts are and how they are moving without having to look at them.


When closing your eyes and touching your nose, you generally know where your hand is even though you can't see it.


The nervous system is continuously receiving information from muscles, joints, and other tissues to help your brain keep track of the body's position.


The same thing happens when you type on a keyboard. You don't have to look at every individual finger to know approximately where the keys are.



Proprioception is the body’s ability to sense the position and movement of its own body without relying on vision. Often called the “sixth sense,” it comes from sensory receptors in muscles, tendons, joints, and connective tissues that send information to the brain. Proprioception helps you walk without watching your feet, maintain balance, coordinate movements, and know where your limbs are in space. This remarkable sensory system works constantly, helping the human body move smoothly and respond to its surroundings.


Vestibular sense - helps us maintain balance, detect movement, and understand our orientation relative to gravity.


This system is closely connected to structures in the inner ear and works together with vision and proprioception.


Interoception - the ability to sense what is happening inside our own bodies.


Hunger, thirst, heartbeat, breathing, temperature, the sensation of a full stomach, and many other internal signals are examples of information that our nervous system monitors.


We are not simply sensing the outside world; our brains are constantly receiving information about the inside of our bodies as well.


And this is where things become especially interesting, our brains don't merely receive information, they interpret it.


A sensation arrives, the brain compares it with previous experiences and expectations, and our perception of what is happening can be influenced by that interpretation.


This is one reason the placebo effect is so fascinating.



The vestibular sense is the body’s internal system for detecting balance, head movement, and spatial orientation. Located in the inner ear, the vestibular system uses fluid-filled semicircular canals and tiny sensory organs to detect rotation, acceleration, and changes in head position. It works closely with the eyes and proprioception to help you stand, walk, maintain balance, and keep your vision stable while moving. This remarkable system allows the brain to understand how the body is moving through space.







So, what exactly is the placebo effect? A placebo is generally an inactive treatment used as a comparison in medical research. It might be a pill without the active drug being tested, for example.


The placebo effect, however, is more complicated than simply swallowing a sugar pill and believing that it works.


Expectations can influence how people experience symptoms, particularly pain. Previous experiences, conditioning, verbal suggestions, the appearance of a treatment, the setting in which it is given, and the relationship between a patient and healthcare provider can all contribute to placebo responses.


In other words, the brain is not sitting on the sidelines while the body is being treated.

It is part of the process.


Researchers have found particularly strong evidence for placebo effects in the perception of pain. In some circumstances, expecting pain relief can activate the brain's own pain-regulation systems, including mechanisms involving endogenous opioids—the body's naturally produced opioid chemicals.


That doesn't mean the pain was imaginary. The experience of pain is real. What can change is how the nervous system processes and regulates that experience.


This distinction is important.


The placebo effect doesn't mean that “everything is in your head.”


It means that the brain and body are constantly communicating, and our expectations can sometimes influence that communication.



The human brain remains one of science’s greatest mysteries. Although researchers understand many of its structures and functions, scientists are still working to explain how billions of neurons and trillions of connections produce consciousness, memories, emotions, thoughts, and a sense of self. How subjective experience emerges from physical brain activity remains an open scientific question. From dreams and creativity to perception and consciousness, the brain continues to challenge researchers and reveal how much remains to be discovered about the human mind.


There is another side to the placebo effect called the nocebo effect, instead of improvement a person expects something to go wrong. For example, if someone becomes convinced that a treatment will cause a particular side effect, that expectation can influence what they experience.


This doesn't mean the person is pretending.


The symptoms can be genuine. The placebo and nocebo effects therefore raise an extraordinary question: How much of our physical experience is influenced by what our brains expect to happen?


The answer isn't “everything.” But apparently, it isn't nothing either.



The human brain remains one of science’s greatest mysteries. Although researchers understand many of its structures and functions, scientists are still working to explain how billions of neurons and trillions of connections produce consciousness, memories, emotions, thoughts, and a sense of self. How subjective experience emerges from physical brain activity remains an open scientific question. From dreams and creativity to perception and consciousness, the brain continues to challenge researchers and reveal how much remains to be discovered about the human mind.







What about the "sixth sense"? This is where science and speculation begin to separate. People have talked about a “sixth sense” for centuries.


We often use the expression to describe intuition—the feeling that something is about to happen or that something is wrong even though we can't immediately explain why.


Some experiences are mysterious without necessarily being supernatural.


Your brain processes enormous amounts of information, much of it outside conscious awareness. A person may notice subtle facial expressions, changes in someone's voice, body language, environmental sounds, smells, or other cues without consciously realizing that they noticed them.


The resulting feeling may simply be: “Something doesn't feel right.” We call that intuition.


That doesn't prove that intuition is an extrasensory ability.


It does, however, show how much information the brain can process without us consciously noticing every individual detail.


Then there are claims that go much further.


Premonitions, precognition, telepathy, clairvoyance, and other forms of extrasensory perception have been proposed as possible abilities beyond the recognized senses.


These ideas are fascinating, but they have not been established as additional human senses by mainstream scientific research.


That distinction matters. There is nothing wrong with asking whether something might be possible.


But asking a question is different from proving the answer, and sometimes the most interesting place to be is right there in between.



Despite remarkable advances in neuroscience, the human brain continues to raise profound questions. Scientists can map brain regions, measure electrical activity, and observe how neural networks communicate, yet many aspects of human experience remain difficult to explain. Why do we dream? How are memories formed and retrieved? What creates imagination, awareness, and our individual sense of identity? The brain is both the instrument we use to study the universe and one of the greatest mysteries within it.







Can the mind actually change the body? This is where the science becomes especially intriguing. Researchers have demonstrated that expectations can influence measurable aspects of human physiology—not merely what someone says they feel.


One particularly interesting Stanford study examined what happened when people were given information about their supposed genetic ability for exercise.


The participants were actually tested for their genetics, but researchers then randomly gave them information suggesting that they either had a genetic variant associated with better exercise capacity or one associated with poorer exercise capacity.


The fascinating part was what happened next.


People who were told they had the poorer genetic profile showed changes in their exercise performance and physiological responses consistent with that expectation.


Meanwhile, people who were told they had the more favorable profile responded differently.


The effects were observed even when the information people received did not accurately reflect their actual genetic status.


In other words, what people believed about their biology could influence how their bodies responded.


That doesn't mean thoughts can rewrite your DNA.


It means that information, expectation, and mindset can sometimes influence physiological processes.


That is a much more scientifically defensible—and arguably more fascinating—idea.



Scientists have conducted fascinating experiments showing how expectations and beliefs can influence physical performance. In a 2018 Stanford study led by psychologist Alia Crum, participants were given genetic information that was randomly assigned and could suggest either better or poorer exercise capacity, regardless of their actual genetics. Those told they had a lower-capacity variant performed worse on a treadmill test, with changes in measures such as breathing efficiency and endurance. The research adds to the study of placebo, nocebo, and mind-body effects.


Could we eventually learn to use this?


If expectations can influence pain perception, exercise performance, stress responses, and other aspects of physiology, how much more will we learn about the relationship between the brain and the rest of the body?


Could future medicine learn how to deliberately harness some of these mechanisms?


Not by replacing medicine with positive thinking. Not by telling someone with a serious disease that they simply need to "think positive."


But perhaps by learning how to use the brain's own regulatory systems alongside conventional treatments.


Researchers are already investigating the biological mechanisms behind placebo responses.


Scientists have identified neural pathways involved in placebo pain relief, and research continues into how expectations, learning, conditioning, and context influence the nervous system.


The goal isn't to abandon medicine, it may be to understand medicine more completely.


Perhaps one day we will know much more about how expectation influences hormones, neurotransmitters, immune signaling, pain perception, behavior, and recovery.


Perhaps we will discover that some of the things we currently describe as separate processes are actually pieces of one enormous biological communication system.


Or perhaps some of the ideas we find fascinating today will eventually be shown to have much simpler explanations.



In a fascinating experiment, scientists used controlled heat to study how expectations can change the experience of pain. Participants were given visual cues that had previously been paired with either low or high levels of heat. Later, everyone received the same moderate heat stimulus, but their pain responses differed depending on the cue they saw. Cues associated with lower heat produced less discomfort, while those linked to higher heat increased discomfort. The findings show how learning and expectation can influence the way the brain processes physical sensations.







That's the beauty of science. It allows us to be curious without pretending that we already know the answer.


For a long time, people have talked about the mind and body as though they were two completely separate things.


But modern neuroscience and physiology make that separation increasingly difficult to maintain.


The brain is part of the body, the body constantly sends information to the brain, the brain constantly sends information back, our expectations can affect our perceptions.


Our perceptions can affect our behavior, our behavior can affect our physiology, and our physiology can send new information back to the brain.


It is a continuous conversation and maybe “mind over matter” isn't quite the right phrase.


Maybe it is mind and matter communicating with one another, and that might be even more remarkable.



In 2013, MIT researchers Steve Ramirez, Xu Liu, and Susumu Tonegawa published a groundbreaking study in Science called “Inception of a False Memory by Optogenetic Manipulation of a Hippocampal Memory Engram.” Working with mice, researchers identified brain cells involved in a specific memory and used light-sensitive proteins to reactivate those cells later in a different environment. The mice then showed a fear response to the new setting, suggesting researchers had artificially triggered an association resembling a false memory.







In conclusion, there is no conclusion! These ideas are fun because they keep the sense of awe about life alive.


Science isn't supposed to destroy our curiosity.


If anything, it gives us better questions to ask.


We should be willing to challenge old ideas—but we should also be willing to challenge our own assumptions.


There is a difference between something being unexplained and something being supernatural.


There is also a difference between an intriguing possibility and a scientifically demonstrated fact.


The placebo effect gives us something remarkable in between those extremes.


It is real enough to study, mysterious enough to keep us curious, and complicated enough to remind us that we probably still have a lot to learn about ourselves.


Maybe the future will reveal that the brain is capable of influencing the body in ways we are only beginning to understand.


Maybe some ideas will be confirmed.


Maybe others will disappear under better evidence.


Either way, our curiosity is what keeps science moving.


So here's to the future—and to the discoveries we haven't made yet.


Cheers to the questions, the experiments, and whatever comes next.










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