What Was Putin Thinking?

Why did he miscalculate so badly? Greg Sargent of The Washington Post asked that question of historian Timothy Snyder, the author of Bloodlands: Europe Between Hitler and Stalin and On Tyranny: Twenty Lessons from the Twentieth Century:

Sargent: What is it about Putin’s way of seeing the world, and his understanding of his own mythologies, that made it inevitable that he’d underestimate the Western response?

Snyder: For me the most revealing text here is the victory declaration, which the Russian press agency accidentally published on Feb. 26. What they say is that the West just basically needed one more push to fall into total disarray.

If you watch Jan. 6 clips over and over again, you can get that impression. The Russians really have been fixated on Jan. 6.

They thought a successful military operation in Ukraine would be that nudge: We’d feel helpless, we’d fall into conflict, it would help D____ T____ in the U.S., it would help populists around the world.

Sargent: When you say Russia has been making a lot of Jan. 6 — what do they read into it?

Snyder: . . . T____’s attempt to overthrow the election on Jan. 6 made the American system look fragile. They think, “One more T____ and the Americans are done.” In invading Ukraine, they think they’re putting huge pressure on the Biden administration. They’re going to make Biden look weak.

That probably was their deep fantasy about the West: Successful military occupation in Ukraine; the Biden administration is totally impotent; we humiliate them; T____ comes back; this is a big strategic victory for us.

Sargent: There’s an essential through line from Jan. 6 to what we’re seeing now: Accountability for Jan. 6 becomes more important in this geopolitical context, where we’re reentering a conflict with Russia over whether liberal democracy is durable.

Snyder: . . . Putin’s idea about Ukraine is something like, “Ukrainian democracy is just a joke, I can overturn it easily. Everybody knows democracy and the rule of law are just a joke. What really matters are the capricious ideas of a tyrant. My capricious ideas happen to be that there are no Ukrainians. I’m going to send my army to make that true”.

That is much closer to the way T____ talks about politics than the way the average American talks about politics. I’m not saying T____ and Putin are exactly the same. But T____’s way of looking at the world — “there are no rules, nothing binds me” — that’s much closer to Putin. So there’s a very clear through line.

Sargent: . . . on some fundamental level, [Republicans aren’t] willing to forthrightly disavow Trump’s alignment with Putin and against Ukraine and the West.

Snyder: I have this faint hope that Ukraine allows some folks to look at domestic politics from a new angle.

When we were in the Cold War, one reason the civil rights movement had the success it did, and one reason we kept up a welfare state, was that we were concerned about the Soviet rival.

Russia is a radically anti-democratic country now. Not only has it done frightful things to its own society; it has invaded another country that happens to be an imperfect democracy. We’re also an imperfect democracy.

When you have to look straight at the reality that a big powerful country is aimed at taking imperfect democracies and wiping them out, that gives you pause. I’m hopeful the realization that democracy rises and falls internationally might change the conversation at some deeper level about how we carry out our own voting.

Sargent: Rising populism made Putin think Western liberal democracy was on the losing end of a grand struggle. But Biden and the Western allies may have seen that populism as a reason to get more galvanized and unified in response to the invasion.

Snyder: In Putin’s mind, there’s a kind of confusion of pluralism with weakness. He’s misjudged both Zelensky and Biden, who are both pluralists: They’re both willing to look at things from various points of view. That can look like a form of weakness.

But history also shows that you can be a resolute pluralist. . . . Zelensky and Biden both embody that: At the end of the day, this whole idea that we listen to each other is something that we’re going to defend.

People in Ukraine are used to being able to exchange views and listen or not listen to their own government. That’s the thing which makes them different from Russia right now. That’s not something Putin can see from a distance.

Sargent: You put your finger on something that’s been an anti-liberal trope for at least a century: That pluralism is in some sense crippling to the possibilities of resolute national action. Putin is steeped in that type of anti-liberal philosophy, isn’t he?

Snyder: Authoritarian regimes look efficient and attractive because they can make rapid decisions. But they often make rapid bad decisions — like the rapid bad decision to invade Ukraine. Putin made it with just a handful of people, so he could make that decision rapidly.

That’s the reason you want institutions, the rule of law and pluralism and public discussion: To avoid idiotic decisions like that.

He’s been working from a certain far-right Russian tradition — that the state and the leader are the same person, and there should be no institutional barriers to what the leader wants to do.

It’s important for us to see that this is the realization of a different model, which has its own logic.

Sargent: Paradoxically, we’re seeing that model’s decadence display itself.

Snyder: Of course the situation is dangerous right now. But a lot of the sparks that are flying out of Russian media are a result precisely of their own fear and their own sense of crisis.

Your word “decadence” is helpful here: When you’re decadent, what you say starts to depart more and more from the way the world actually is. Some Russian politicians are talking about how Poland needs to be taught a lesson. That’s alarming but it’s also unrealistic.

Sargent: I want to explore something you said to Ezra Klein: That in many ways, the response from the Western allies has been realistic and grounded, in that they aren’t trying to do too much. . . . 

Snyder: The thing that I’ve liked about the Biden administration is that they don’t have this metaphysical language that previous administrations have had about American power. They’ve stuck much closer to the ground.

They say, “We can’t do everything. But we can be creative and do a lot of things.”

By the way, that includes some stuff that we and others could go further on. We have to keep pouring arms into Ukraine, and the Europeans — now is the time to move forward on not buying oil and gas from Russia.

Sargent: What’s your sense of where this is all going?

Snyder: This war is happening because of the worldview and decisions of essentially one person. And I think it comes to an end when something shakes the worldview of that one person.

If the Ukrainians can get the upper hand and keep it for a few weeks, I think the worldview we have been talking about may start to shudder.

The right side has to be winning. That’s when we might have a settlement that ends this horrible war.

I’m Glad They Agree

If you express an opinion and somebody disagrees, they’ve given you an opportunity to change your mind. If the other person’s opinion is better than yours, you’ve learned something. That’s a positive outcome. There can also be a positive outcome if the other person agrees with you. It makes you feel good (although if you were wrong to begin with, agreement will just make the situation worse). 

I had two instances today where somebody agreed with me. This made me feel good (I’m going with the assumption that I wasn’t wrong to begin with).

First, the philosopher Justin E. H. Smith criticized the idea that we may be living in a computer simulation, in response to David Chalmers’s book Reality + (my contribution, not as elegant and with a lot fewer words, was “Reality, the Virtual Kind and the Unlikely Kind”):

According to Chalmers’s construal of the “it-from-bit” hypothesis, to be digital is in itself no grounds for being excluded from reality, and what we think of as physical objects may be both real and digital. One is in fact free to accept the first conjunct, and reject the latter, even though they are presented as practically equivalent. I myself am prepared to accept that a couch in VR [virtual reality] is a real couch — more precisely, a real digital couch, or at least that it may be real or reified in consequence of the way I relate to it. But this does not compel me to accept that the couch on which I am currently sitting is digital.

There is a persistent conflation of these two points throughout discussions of the so-called “simulation argument”, which Chalmers treats in several of his works but which is most strongly associated with the name of Nick Bostrom, who in 2003 published an influential article entitled “Are You Living in a Computer Simulation?” … Here I just want to point out one significant feature of it that occurs early in the introduction and that the author seems to hope the reader will pass over smoothly without getting hung up on the problems it potentially opens up. Consciousness, Bostrom maintains, might arise among simulated people if, first of all, “the simulations were sufficiently fine-grained”, and, second of all, “a certain quite widely accepted position in the philosophy of mind is correct.”

What is this widely accepted position, you ask? … It is, namely, the view, which Bostrom calls “substrate-independence”, that “mental states can supervene on any of a broad class of physical substrates. Provided a system implements the right sort of computational structures and processes, it can be associated with conscious experiences.” Arguments for functionalism or computationalism have been given in the literature, Bostrom notes, and “while it is not entirely uncontroversial, we shall here take it as a given.”

It is of course possible that conscious experiences may be realized in a silicon substrate or in a complex arrangement of string and toilet-paper rolls, just as they may be realized in brains. But do we have any evidence that the arrangements that we have come up with for the machine-processing of information are in principle the kind of arrangements that, as they become more and more complex or fine-grained, cross over into conscious experience? In fact, there is very good reason to think that the appearance of consciousness in some evolved biological systems is the result of a very different sort of developmental history than anything we have seen so far since the dawn of artificial intelligence in the mid-twentieth century….

Unquote.

Second, Michael Tomasky of The New Republic responded to the Republican National Committee’s characterization of what happened on January 6, 2021, as “legitimate political discourse”:

It’s now official: The Republican Party is no longer a political party in any known American sense. Honestly, it hasn’t been for a quite some time, but with last week’s resolution condemning Liz Cheney and Adam Kinzinger, the party made it official. We don’t always grasp the historic importance of events in real time, but rest assured that future historians, assuming the United States remains enough of a democracy to have honest ones, will point to Friday, February 4 as a pivotal day in the party’s war on democracy….

The money quote in this episode is the line in the resolution that condemns Cheney and Kinzinger for “participating in a Democrat-led persecution of ordinary citizens engaged in legitimate political discourse.” This is right out of 1984. When The New York Times reported that this meant that the RNC was referring to the January 6 insurrection as “legitimate political discourse,” RNC gauleiter Ronna McDaniel howled that of course she has condemned violence, and the legit discourse business referred to other stuff.

What other stuff, it’s hard to say. The text of the resolution didn’t leave room to interpretation. And the select committee on January 6 is not exactly investigating Republicans across the country who are, say, protesting mask mandates. In fact, it’s not investigating any kind of “discourse.” It’s looking specifically at actions by people on and around the date of the infamous riot….

The truth here is obvious: The party is talking out of both sides of its mouth. The obvious intent with that sentence is to minimize and legitimize what happened on January 6…. And now that T____ himself has said he may pardon everyone charged with January 6–related crimes, it was clear that McDaniel saw her job as aiding [him] in that project: If it’s the official party line that the insurrection was legitimate, then there’s nothing outrageous about pardons.

The Anti-Defamation League recently released a report finding that more than 100 Republican candidates on various ballots in 2022 have explicitly embraced extremism or violence … This is not some aberration that time will correct. It is a storm that will continue to gather strength, because it’s where the action and the money are, and no one in the GOP is opposing it—except the two people who were just essentially read out of the party….

The Republican Party … has become an appendage of T____ dedicated to doing his will and smiting his enemies. I had to laugh at the part of the resolution that denounced Joe Biden for his alleged pursuit of “socialism”…..

The Republican Party is further down the road to fascism than the Democrats are to socialism. And when, by the way, might Democrats start saying that? What are you waiting for, people? How much deeper does this crisis have to get before you start telling the American people the truth about what the GOP has become? It’s time to say it and to put Republicans on the defensive….We are at a moment of historical reckoning…. But Americans won’t know it, Democrats, unless you tell them.

Unquote. 

In other words: “When Do We All Get To Say They’re Fascists?”

Reality, the Virtual Kind and the Unlikely Kind

David Chalmers, the philosopher whose gravestone will probably say he came up with the phrase “the hard problem of consciousness”, has a new book out. It’s called Reality +: Virtual Worlds and the Problems of Philosophy. From the publisher’s blurb:

Virtual reality is genuine reality; that’s the central thesis of Reality+. In a highly original work of “technophilosophy,” David J. Chalmers gives a compelling analysis of our technological future. He argues that virtual worlds are not second-class worlds, and that we can live a meaningful life in virtual reality. We may even be in a virtual world already.

The Three Quarks Daily site linked to an interview Prof. Chalmers gave to promote the book. 

When discussing simulations (like what we could be living in already), it’s helpful to keep in mind that there are at least two kinds. The first kind is what’s usually called “virtual reality”. It can be described as “not physically existing as such, but made by software to appear to do so”. Despite what Chalmers’s interviewer says, this type of virtual reality doesn’t raise a bunch of deep philosophical questions. The machines that created the Matrix in the movies did an amazing job, but from a philosophical perspective, so what? When he was plugged into the Matrix, fully immersed in what Chalmers calls “digital reality”, Neo was still an organism with a physical body. In the future Chalmers envisions, many of us might spend most of our time in a “place” like that. But lots of people play video games. They make friends playing those games, they spend money, they laugh, they cry. So what?

The second kind of virtual reality would look like the Matrix, but it would be very different, so different that it would deserve to be called something other than “virtual reality” (maybe it already is). It’s the kind the philosopher Nick Bostrom referred to in his famous Simulation Argument (quoting from a 2003 article): “You exist in a virtual reality simulated in a computer built by some advanced civilization. Your brain, too, is merely a part of that simulation”.

Bostrom’s argument assumes that “what allows you to have conscious experiences is not the fact that your brain is made of squishy biological matter but rather that it implements a certain computational architecture . . . This assumption is quite widely (although not universally) accepted among cognitive scientists and philosophers of mind”.

Maybe I’m in the minority, but I don’t see any reason to think that consciousness is purely computational and that it could be created on a computer. Presumably, a being could be made out of silicon or whatever and be conscious (feel pain, for example) but I believe it would still require a physical body. Chalmers thinks otherwise, that “algorithmic creatures” that only exist as software running on a computer could be conscious. That assumes something about consciousness that isn’t necessarily true and is much different from saying you could build something like a human using non-standard material.

Bayes and What He Hath Wrought

Thomas Bayes was an 18th century British statistician, philosopher and Presbyterian minister. He’s known today because he formulated Bayes’ Theorem, which has since given rise to Bayseian probability, Bayseian inference, Bayseian epistemology, Bayesian efficiency and Bayseian networks, among other things.

The reason I bring this up is that philosophers, especially the ones who concentrate on logic and the theory of knowledge, often mention something Bayseian, usually in glowing terms. It’s been a source of consternation for me. I’ve tried to understand what the big deal is, but pretty much failed. All I’ve really gotten out of these efforts is the idea that if you’re trying to figure out a probability, it helps to pay attention to new evidence. Duh.

Today, however, the (Roughly) Daily blog linked to an article by geneticist Johnjoe McFadden called “Why Simplicity Works”. In it, he offers a simple explanation of Bayes’ Theorem, which for some reason I found especially helpful. Here goes:

Just why do simpler laws work so well? The statistical approach known as Bayesian inference, after the English statistician Thomas Bayes (1702-61), can help explain simplicity’s power.

Bayesian inference allows us to update our degree of belief in an explanation, theory or model based on its ability to predict data. To grasp this, imagine you have a friend who has two dice. The first is a simple six-sided cube, and the second is more complex, with 60 sides that can throw 60 different numbers. [All things being equal, the odds that she’ll throw either one of the dice at this point are 50/50].

Suppose your friend throws one of the dice in secret and calls out a number, say 5. She asks you to guess which dice was thrown. Like astronomical data that either the geocentric or heliocentric system could account for, the number 5 could have been thrown by either dice. Are they equally likely?

Bayesian inference says no, because it weights alternative models – the six- vs the 60-sided dice – according to the likelihood that they would have generated the data. There is a one-in-six chance of a six-sided dice throwing a 5, whereas only a one-in-60 chance of the 60-sided dice throwing a 5. Comparing likelihoods, then, the six-sided dice is 10 times more likely to be the source of the data than the 60-sided dice.

Simple scientific laws are preferred, then, because, if they fit or fully explain the data, they’re more likely to be the source of it.

Hence, in this case, before your friend rolls one of the dice, there is the same probability that she’ll roll either one. With the new evidence — that she rolled a 5 — the probability changes. To Professor McFadden’s point, the simplest explanation for why she rolled a 5 is that she used the dice with only 6 sides (she didn’t roll 1, 2,3, 4 or 6), not the dice with 60 sides (she didn’t roll 1, 2, 3, 4, 6, 7, 8, 9, 10, . . . 58, 59 or 60).

Now it’s easier to understand explanations like this one from the Stanford Encyclopedia of Philosophy:

Bayes’ Theorem is a simple mathematical formula used for calculating conditional probabilities. It figures prominently in subjectivist or Bayesian approaches to epistemology, statistics, and inductive logic. Subjectivists, who maintain that rational belief is governed by the laws of probability, lean heavily on conditional probabilities in their theories of evidence and their models of empirical learning. Bayes’ Theorem is central to these enterprises both because it simplifies the calculation of conditional probabilities and because it clarifies significant features of subjectivist positions. Indeed, the Theorem’s central insight — that a hypothesis is confirmed by any body of data that its truth renders probable — is the cornerstone of all subjectivist methodology. . . .

To illustrate, suppose J. Doe is a randomly chosen American who was alive on January 1, 2000. According to the United States Center for Disease Control, roughly 2.4 million of the 275 million Americans alive on that date died during the 2000 calendar year. Among the approximately 16.6 million senior citizens (age 75 or greater) about 1.36 million died. The unconditional probability of the hypothesis that our J. Doe died during 2000, H, is just the population-wide mortality rate P(H) = 2.4M/275M = 0.00873. To find the probability of J. Doe’s death conditional on the information, E, that he or she was a senior citizen, we divide the probability that he or she was a senior who died, P(H & E) = 1.36M/275M = 0.00495, by the probability that he or she was a senior citizen, P(E) = 16.6M/275M = 0.06036. Thus, the probability of J. Doe’s death given that he or she was a senior is PE(H) = P(H & E)/P(E) = 0.00495/0.06036 = 0.082. Notice how the size of the total population factors out of this equation, so that PE(H) is just the proportion of seniors who died. One should contrast this quantity, which gives the mortality rate among senior citizens, with the “inverse” probability of E conditional on H, PH(E) = P(H & E)/P(H) = 0.00495/0.00873 = 0.57, which is the proportion of deaths in the total population that occurred among seniors.

Exactly.

Does Consciousness Reside in the Brain’s Electromagnetic Field?

At bottom, it all seems to be a bunch of fields:

In the modern framework of the quantum theory of fields, a field occupies space, contains energy, and its presence precludes a classical “true vacuum”. This has led physicists to consider electromagnetic fields to be a physical entity, making the field concept a supporting paradigm of the edifice of modern physics [Wikipedia].

So maybe consciousness is a special type of field generated by brains. Johnjoe McFadden is a professor of molecular genetics in England. He’s written about his electromagnetic field theory of consciousness for Aeon:

Just how do the atoms and molecules that make up the neurons in our brain . . . manage to generate human awareness and the power of thought? In answering that longstanding question, most neurobiologists today would point to the information-processing performed by brain neurons. . . . This [begins] as soon as light and sound [reach the] eyes and ears, stimulating . . . neurons to fire in response to different aspects of [the] environment. . . .

Each ‘firing’ event involves the movement of electrically charged atoms called ions in and out of the neurons. That movement triggers a kind of chain reaction that travels from one nerve cell to another via logical rules, roughly analogous to the AND, OR and NOT Boolean operations performed by today’s computer gates, in order to generate outputs such as speech. So, within milliseconds of . . . glancing at [an object], the firing rate of millions of neurons in [the] brain [correlates] with thousands of visual features of the [object] and its [surroundings]. . . .

Yet information-processing clearly isn’t sufficient for conscious knowing. Computers process lots of information yet have not exhibited the slightest spark of consciousness [note: or so we believe]. Several decades ago, in an essay exploring the phenomenology of consciousness, the philosopher Thomas Nagel asked us to imagine what it’s like to be a bat. This feature of being-like-something, of having a perspective on the world, captures something about what it means to be a truly conscious ‘knower’. In [a] hospital room watching my son’s EEG, I wondered what it was like to be one of his neurons, processing the information [from] the slamming of a door [in the hall]. As far as we can tell, an individual neuron knows just one thing – its firing rate.

It fires or doesn’t fire based on its inputs, so the information it carries is pretty much equivalent to the zero or one of binary computer language. It thereby encodes just a single bit of information. The value of that bit, whether a zero or a one, might correlate with the slamming of a door, but it says nothing about the door’s shape, its colour, its use as a portal between rooms or the noise of its slamming – all features that I’m sure were part of my son’s conscious experience. I concluded that being a single neuron in my son’s brain would not feel like anything.

Of course, you could argue, as neurobiologists usually do, that although a single neuron might know next to nothing, the collection of 100 billion neurons in my son’s brain knew everything in his mind and would thereby feel like something. But this explanation bumps into what’s known as the binding problem, which asks how all the information in millions of widely distributed neurons in the brain come together to create a single complex yet unified conscious perception of, say, a room . . .

Watching those wiggly lines march across the EEG screen gave me the germ of a different idea, something that didn’t boil down to pure neuronal computation or information-processing. Every time a neuron fires, along with the matter-based signal that travels down its wire-like nerve fibre, it also projects a tiny electromagnetic (EM) pulse into the surrounding space, rather like the signal from your phone when you send a text. So when my son heard the door close, as well as triggering the firing of billions of nerves, its slamming would have projected billions of tiny pulses of electromagnetic energy into his brain. These pulses flow into each other to generate a kind of pool of EM energy that’s called an electromagnetic field – something that neurobiologists have neglected when probing the nature of consciousness.

Neurobiologists have known about the brain’s EM field for more than a century but have nearly always dismissed it as having no more relevance to its workings than the exhaust of a car has to its steering. Yet, since information is just correlation, I knew that the underlying brain EM field tremors that generated the spikes on the EEG screen knew the slamming of the hospital door, just as much as the neurons whose firing generated those tremors. However, I also had enough physics to know that there was a crucial difference between a million scattered neurons firing and the EM field generated by their firing. The information encoded by the million discrete bits of information in a million scattered neurons is physically unified within a single brain EM field.

The unity of EM fields is apparent whenever you use wifi. Perhaps you’re streaming a radio documentary . . . on your phone while another family member is watching a movie, and another is listening to streamed music. Remarkably, all this information, whether movies, pictures, messages or music, is instantly available to be downloaded from any point in the vicinity of your router. This is because – unlike the information encoded in discrete units of matter such as computer gates or neurons – EM field information is encoded as immaterial waves that travel at the speed of light from their source to their receiver. Between source and receiver, all those waves encoding different messages overlap and intermingle to become a single EM field of physically bound information with as much unity as a single photon or electron, and which can be downloaded from any point in the field. The field, and everything encoded in it, is everywhere.

While watching my son’s EEG marching across the screen, I wondered what it was like to be his brain’s EM field pulsing with physically bound information correlating with all of his sense perceptions. I guessed it would feel a lot like him.

Locating consciousness in the brain’s EM field might seem bizarre, but is it any more bizarre than believing that awareness resides in matter? Remember Albert Einstein’s equation, E = mc2. All it involves is moving from the matter-based right-hand side of the equation to energy located on the left-hand side. Both are physical, but whereas matter encodes information as discrete particles separated in space, energy information is encoded as overlapping fields in which information is bound up into single unified wholes. Locating the seat of consciousness in the brain’s EM field thereby solves the binding problem of understanding how information encoded in billions of distributed neurons is unified in our (EM field-based) conscious mind. It is a form of dualism, but a scientific dualism based on the difference between matter and energy, rather than matter and spirit.

Awareness is then what this joined-up EM field information feels like from the inside. So, for example, the experience of hearing a door slam is what an EM field perturbation in the brain that correlates with a door slamming, and all of its memory neuron-encoded associations, feels like, from the inside.

But why? Whether neurons are firing synchronously should make no difference to their information-processing operations. Synchrony makes no sense for a consciousness located in neurons – but if we place consciousness in the brain’s EM field, then its association with synchrony becomes inevitable.

Toss a handful of pebbles into a still pond and, where the peak of one wave meets the trough of another, they cancel out each other to cause destructive interference. However, when the peaks and troughs line up, then they reinforce each other to make a bigger wave: constructive interference. The same will happen in the brain. When millions of disparate neurons recording or processing features of my desk fire asynchronously, then their waves will cancel out each other to generate zero EM field. Yet when those same neurons fire synchronously, then their waves will line up to cause constructive interference to project a strong EM signal into my brain’s EM field, what I now call the conscious electromagnetic information (cemi) field. I will see my desk.

I’ve been publishing on cemi field theory since 2000, and recently published an update in 2020. A key component of the theory is its novel insight into the nature of what we call ‘free will’. . . . Most non-modern people . . . probably believed that [a] supernatural soul was the driver of . . . willed actions. When . . . secular philosophers and scientists exorcised the soul from the body, voluntary actions became just another motor output of neuronal computation – no different from those that drive non-conscious actions such as walking, blinking, chewing or forming grammatically correct sentences.

Then why do willed actions feel so different? In a 2002 paper, I proposed that free will is our experience of the cemi field acting on neurons to initiate voluntary actions. Back then, there wasn’t much evidence for EM fields influencing neural firing – but experiments by David McCormick at Yale University School of Medicine in 2010 and Christof Koch at Caltech in 2011 have demonstrated that neurons can indeed be perturbed by weak, brain-strength, EM fields. At the very least, their experiments suggest the plausibility of a wifi component of neuronal information processing, which I claim is experienced as ‘free will’.

The cemi field theory also accounts for why our non-conscious and conscious minds operate differently. One of the most striking differences between the two is that our non-conscious mind can do many things at once, but we are able to engage in only one conscious task at a time. [Try to] divide a number like 11,357 by 71 while concentrating on a game of chess. Our non-conscious mind appears to be a parallel processor, whereas our conscious mind is a serial processor that can operate only one task at a time.

The cemi field theory accounts for these two modes by first accepting that most brain information-processing – the non-conscious sort – goes solely through its neuronal ‘wires’ that don’t interact through EM fields. This allows different tasks to be allocated to different circuits. In our distant past, all neural computation likely took this parallel-processing neuronal route. . . . However, at some point in our evolutionary history, our ancestors’ skulls became packed with more and more neurons such that adjacent neurons started to interfere with each other through their EM field interactions. Mostly, the interference would have impaired function. Natural selection would then have kicked in to insulate neurons involved in these vital functions.

Occasionally, electrical interference might have been beneficial. For example, the EM field interactions might have conferred the ability to compute with complex joined-up packets of EM field information, rather than mere bits. When this happened, natural selection would have pulled in the other direction, to increase EM field sensitivity. Yet there was also a downside to this way of processing information. Remember the pebbles tossed into the pond: they interfere with one another. Different ideas dropped into the brain’s cemi field similarly interfere with one another. Our conscious cemi-field mind inevitably became a serial computer that can do only one thing at a time.