Explaining our World in Terms of the Quantum Reality

If you read anything about general science in your spare time you know that physicists are presenting a variety of models as they try to explain our world in terms of the quantum reality that is the ground of our existence; it’s not easy. Most of their models are mathematical and based on a number of dimensions going far beyond the three we take as given and even the four that we can grasp. But this use of models needs to be understood in its larger frame: we all use models to explain the things we work with in the world; they frame how we see things, the type of questions we ask in research, and define appropriate actions.  And sometimes they are grounded in ideas and concepts far less tested than quantum physics.

There is little question that we have learned a lot with the analytical model we have used for most of the past eight Centuries to dissect out the organs, functions, and reactions of the human body. With this understanding we have developed drugs to modify the body’s reactions that are predictable in their effects, as is mandated by the FDA. But as the number of drug recalls suggests that is getting harder to do and researchers frustrated with the lack of workable understanding coming from the human genome project argue that we are likely at the limits of analysis. Like the physicists we need a different model.

Analysis dissects out reactions of interest and focuses on them, ignoring the complex matrix of reactions from which they were isolated. Most of the recalls come when the effect of the drug on these ignored connections later bites us in the rear with unintended consequences. Also typical of such thinking was the old one gene coding for one protein idea from the early days of genetics. Now we know that there are only 20 to 25,000 genes coding for the estimated 2 million proteins in the human body; thats about one gene for every eighty proteins and it doesn’t fit with the model. It’s an anomaly, in Thomas Kuhn’s sense of the word, that should drive us to a better model.

Despite the successes we have seen with the analytical model the body is obviously not a linear system. Such systems are mechanical, they have clear cause and effect relationships in their elements; they are predictable. That’s why we like them so much; we want to know that what we do will bring a desirable result. But the only way to do this is with large studies that find a statistical norm, which both robs us of our individuality and totally discounts human diversity, the diversity that is the sine qua non of a healthy system.

Biologists have switched to an evolutionary model that is nicer to the individual agent because it allows for their adaptation and honors their diversity. Most apparent in this model is the co-adaptation of the agent with its recyclers; advanced organisms adapt to survive while the recyclers adapt to get around those defenses and better metabolize the agent. Both sides in this battle adapt in ways that help them better survive—that’s what natural selection is all about. So rather than asking how a particular symptom works and finding ways to balance that process as current medical research continues to do, biologists are asking why the symptoms are expressed in the first place.

Natural selection underlies all our symptoms. Some of them are expressed because they give us a survival benefit. George Williams and Randy Nesse in their book, Why We Get Sick: the new Science of Darwinian Medicine, call these defenses.(1) In this view one asks why a symptom is present before jumping to treat. Many of the common and uncomfortable symptoms we all see and treat every day, when viewed in this light, turn out to be defenses that are better off honored and supported. A fever, for example, is a defense. Cold blooded animals that are artificially infected will move into the sunlight to raise their temperatures and will die more often if prevented from doing so. Warm blooded rabbits, experimentally infected and given the antipyretics commonly used on humans, will similarly die more often. Diarrhea and rhinorrhea are two washing defenses that are commonly treated with drugs, but blocking diarrhea is associated with more irritable and inflammatory bowel conditions, and there is a direct correlation between our use of antihistamines and decongestants, which hobble our nasal defense, and the increases we have experienced in upper respiratory allergies and infections since the early 1970s when these drugs were released for over-the-counter sales.(2) If we were to hobble the defense of our favorite football team they would lose the game; unfortunately it’s the same with us. If we find ways to help our defenses, as we do with oral rehydration that keeps the tank full so the GI defenses can do their work, we need less in terms of offenses.

The recyclers are not standing idle either. Microbes are the unquestioned champions of adaptation because of their numbers, their ability to speed up mutation, and their sharing of their successes by horizontal gene transfer with what ever other bacteria may have an interest;(3) and they do this with no hesitation or any indication of desire for the intellectual property rights that hamstrings our side of this arms race. So far our attempts to kill them and increase our survival have only made them more resistant and virulent; our tactics are not in our strategic interest. If we want to survive longer in this co-evolution it would behoove us to find a way to negotiate with the recyclers rather than focusing on building bigger bombs.  This is essentially the same argument used by Joseph Nye in his book, Soft Power. Hard power builds resistance; soft power builds alliances. And more to the point, it’s the same argument used by Paul Weald in his book, The Evolution of Infectious Disease.

When bacteria are threatened with antibiotics they develop resistance to those antibiotics; they also developed what Nesse and Williams call manipulations that help them recycle us faster than we wish.  While diarrhea is fundamentally a defense it is also sometimes manipulated by a toxin elaborated by the bacteria, as in the one causing cholera, to be excessive to the point that we die of dehydration trying to wash it out. The defense of a fever is similarly manipulated in malaria to be so high the exhausted patient becomes an unresisting meal for hungry mosquitoes. In both cases our defenses are tricked into helping the infecting agent spread.  Ewald, in his book, shows that most effective way of  countering these manipulations is using commonly available means to make it harder for the infecting agent to get around.(4) Clean water (for cholera), bed nets (for malaria), condoms (for STDs), hand washing (for communicable diseases), and improved nasal hygiene (for URIs, allergies, and asthma) either block the transmission of infectious agents or help our bodies wash them out prior to any defensive signaling; and, as Ewald points out with numerous examples, assisting defenses in this way applies pressure on the the infecting agents to adapt toward commensalism, toward living with the agent in an alliance, the same kind of thing that happens when we use soft power in foreign relations. Ewald is optimistic that this approach can end our losing battle with the microbes that actually are the Titans of life on this Earth  Williams and Nesse introduced these ideas, already firm in the biological world, into the medical world in 1994 but there has been little interest there in seeing differently. Research in the medical world is still, and will likely remain, stuck in linear thinking and the analytical cause and effect model as long as it remains profitable.

We need to see differently; we need a new model. The biological model encourages to ask why a particular symptom is expressed;  it’s always a good idea before jumping to treat it, no matter how bothersome it may be. And finding ways to optimize, not just our structure, but all of our other defenses, is a challenge that is not too difficult to surmount; in my own practice I helped to develop a nasal spray that optimizes our defenses there.(5)  As in physics where the ground of quantum mechanics has replaced the analytical, mechanical Newtonian model, our outdated mechanical model in medicine needs a radical updating.  Systems theory provides some information on how different elements work together and provides a framework for the models. There is a scale of systems that extends from a simple mechanical interaction, which is easily understood and totally predictable, to the adaptation of living systems that creates a completely unpredictable novelty very much in line with Nancy Pelosi’s comment about the Health Reform Bill: “We have to pass it so that we can see what it does.”

Fundamental to this scale are the number of elements in the system and their arrangement. Simple mechanical systems are arranged linearly and are easily understood and totally predictable, even with numerous elements.  When the elements start interacting with each other to form networks, however, it gets harder. The three-body problem in physics is where one needs precise information for a moon landing and must consider the forces of the earth as well as the sun as they affect the moon. Solutions to this kind of problem are best and easiest obtained with simulation programs and their accuracy and reliability is dependent on the how well we understand the interacting elements and how many of them we overlook. As with predicting the weather we get mostly percentages and probabilities for results.

Living systems are a step further. Not only are they complex and highly networked but they can read and adapt to their own environments; they are called complex adaptive systems. Even bacteria, the simplest of life forms, can respond to threatening environments, like antibiotics, by ramping up their mutation rate and developing resistance. All life forms adapt in this way by natural selection but the process takes a long time, except for the bacteria which are able to counter the time by their numbers.

Then there are the systems that adapt in non-genetic ways. Children are able over a few years to adapt their brains and behaviors to fit into the variety of human cultures into which they are born. Most rapid of adaptations is our conscious gaming of the various economic, social, and political environments with which we are all surrounded. It is the realization of the importance and the prevalence of this adaptive gaming that made Pelosi’s often denigrated comment so appropriate.

Just one example of the shift that would occur if we switched our model from the analytical mechanical one we now use, to one that recognizes that we humans are adaptive is our use of placebos. They are now used in placebo controlled trials to control for our ability to adapt. But if we recognize and acknowledge that adaptation is a characteristic of living agents and something we all do, this new view allows us to see the placebo, not as an unethical treatment, but as an agent with very powerful drug effects that can improve our health at little expense and a great deal more safety.


1. Williams, GC, Nesse RM. Why We Get Sick: The New Science of Darwinian Medicine. 1994.

2. Jones AH. Why the Increases in Upper Respiratory Problems? Med Hypotheses. 2001; 57(3): 378-381.

3. Jain R, Rivera MC, Moore JE, Lake JA. Horizontal gene transfer in microbial genome evolution. Theor Popul Biol. 2002 Jun;61(4):489-95.

4. Ewald, Paul. The Evolution of Infectious Disease. Oxford University Press. 1994.

5. Jones AH, with Jerry Bozeman. The Boids and the Bees: Guiding Adaptation to Improve our Health, Healthcare, Schools, and Society. The Institute for the Study of Coherence and Emergence. 2009.

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