12 ASSERTIONS

I have hope that someday readers will visit Quora.com to look up meBilly Lee — to read my answers to hundreds — perhaps one day thousands — of questions asked by every kind of curious person from every part of the world.

I love to read and think about questions from unmet others — to encounter oddities that have never occurred to me to ask or answer.

It’s humbling to be confronted by the knowledge that not only do I not know the answers to thousands of questions, but I lack the breadth of mind to even imagine such questions; I am convicted by my own lack of curiosity and inability to think deeply about an almost infinite number of mysteries that other people of all types and backgrounds wonder about and seek to understand.

Hundreds of years ago, polymaths — the smartest and most energetic of them, anyway — could know and understand all that humankind ever dreamed. Today, the world is too complex; the depth of knowledge required to understand a narrow subject — like juice-carton safety-caps (I hold a patent) — takes years, maybe decades, to acquire.

Is it any wonder that smart people give up and go stupid?

No matter how much a Doctor of Philosophy knows about the rules of logic, he’s a dummy to every certified automobile mechanic he will ever meet — and vice-versa, right?

A way out of the dilemma is to practice the art of pontification. I pontificate based on a lifetime of experience; and reading; and wandering the world; and poking around in my backyard — to ponder why things are the way they seem to be.

Je connais beaucoup de merde, and I know a lot of nothing. When I write it down, well, magic happens. Resonate rings of truth rise which when later read render me reeling.

I’m unsure where-from the magic comes. It seems to fall from heaven to light the world. I’m driven to share with souls known only to God, because I have no way to know who reads my blog. I know only that some folks make the time, because WordPress stats say it’s so.

One of the things on Quora.com that seems to confuse a lot of people is the difference between momentum — a measure of the mass of an object multiplied by its velocity in a particular direction — and kinetic energy, which is a measure of the energy of an object that has been accelerated for a period of time in a particular direction, which enables it to do work.

Momentum is an object’s mass times its velocity; it is a measure of its inertia along a defined direction. It is measured in newton-seconds.

Kinetic energy is released by an object in units of acceleration that were initially induced by newtons of force. It is equal to half the quantity that is calculated by multiplying an object’s mass by its velocity squared. It is measured in units called joules, which are newton-meters.

Of course, spinning objects that aren’t moving in any direction have momentum and kinetic energy, too. The two are wrapped together in a concept called, torque.

Dear God, help me.

Now, I’m confused. Somebody, please, explain to me. I thought I understood until I started writing.  I did.  Really.

Another source of confusion concerns the nature of photons, which are tiny packets of oscillating electric and magnetic energy — from which light is made, right?

Photons seem to have no mass in the vacuum of space. When they pass through a material like glass, they leave a wake of disrupted electrons in the glass which belch out polaritons. These particles add mass to the photons and slow them down by as much as forty percent.

Polaritons can be described as light-matter waves

Does anyone believe it?

It’s God’s honest truth.

When photons exit the glass and enter the vacuum of space they leave the polaritons behind, lose their acquired mass, and jump to light speed, instantaneously.

Who knows for sure that it’s true?

Who understands why?

Here is an interesting thought:  if humans — limited in understanding by language and mathematics  — are unable to ever know why photons exist and behave as they appear to do, then who can? Who does understand?

Is all the complexity of the universe understood by no one? Is it possible that an unlikely universe can exist forever whose fundamentals cannot be articulated and which lies outside the experience and ability to comprehend of any sentient life-form whatever, whenever, wherever?

What kind of place do we live in, anyway?

Calm down. Take a breath.

Reality may not be as hopelessly inaccessible as it seems. Can it?

Here are some questions, which I’ve answered as truthfully as I know how. The answers are assertions of truth.


1 – How did a single cell organism eventually lead to complex life on earth, and does that mean that all life has a common ancestor (the single cell)?

This one is the 64-million-dollar question that no one has ever answered convincingly. Prokaryotic cells were established 3.5 billion years ago on the early Earth. They evolved to become the bacteria and archaea branches in the tree of life that exist to this day.

Here is the amazing part, at least for me:  Eukaryotic cells, which are the much larger and more tightly organized cells of all animals and plants, did not emerge until two billion years after prokaryotes. It took a long time to evolve cells capable of conjugating into more complex life.

For the past 1.5 billion years eukaryotic cells have evolved into life forms capable of civilization and space exploration. The time frame is amazingly long.

The thought that a lunatic could in a moment of bad judgment start a cascade of events that extinguishes all life is troubling.

When astronomers look into space they see no signatures of life as advanced as ours. Again, this is troubling, because it might be an indicator that the knowledge possessed by advanced life-forms may approach some asymptotic limit where self-annihilation becomes inevitable.

NO CODE

RISK


2 -What evidence would falsify the theory of evolution?

No one knows all the myriad ways that life evolves, only that it does. That life evolved from cells that were fully functional 3.5 billion years ago is an established fact, because of evidence found in rocks.

Scientists know that it took two billion years for these ancient cells to evolve into the much larger and more tightly organized eukaryotic cells that today are the foundational structures of all animals and plants.

No one knows how life as complex as cells was established on a hostile planet like the early Earth, but everyone has an opinion; these opinions are called conjectures and theories.

One scientist might say that life started on Mars and was transferred to Earth on space debris uplifted by a cataclysm on Mars. Another says no; all the stuff necessary to make prokaryotic (primitive) cells existed in abundance on a young Earth — perhaps near hot vents in the ocean floor. Other geologists say the earth was bone dry at one billion years. Oceans came later, so just what the heck does anyone know for sure, anyway?

Many conjectures purport to explain how life changed from unicellular eukaryotic forms 1.5 billion years ago into the space-exploring civilizations of today. Every conjecture thus far has already been falsified either by evidence or by competing conjectures that make as much sense but are different.

For example: some say mutations in DNA drive evolution. The problem is that mutations are too rare. Some say an eco-sphere of processes driven by a halo of molecules that cling to DNA drives evolution. They call it epigenetics. Others say, no. RNA drives evolution like colonies of intelligent ants who build hives. There are other explanations.



None are verifiable or generally accepted due to an insufficient body of proof that is able to overcome alternative ideas that are equally compelling.

Another problem is that no one knows if DNA life is all there is. DNA is a molecule that cannot be seen or worked with until it is amplified into a viewable goo.

Are there other undiscovered molecules no one knows how to amplify?

Understanding of the parameters and limits of life is incomplete and may perhaps mislead researchers. Humans might not yet know enough to figure out the dynamics of genomes. More needs to be discovered and understood.

Is there a shadow biosphere that is in a symbiotic relationship with DNA? Where is the dark DNA that biologists can’t find that is necessary to code for many of the proteins they know exist?

How were cells themselves established so quickly on Earth? It’s a question whose answer is discussed by countless experts and non-experts; no answer fully satisfies.

Darwin’s ideas about natural selection and survival of the fittest have their place. But he was just getting started, and he died a long time ago. Scientists have a lot of work left to do.

NO CODE


3 – Which Bible story is most objectionable when looked at in the context of modern morality?

All Scripture is God-breathed. To love and be loved by both God and people is why we were born; it’s what makes life precious and worth living. No one wants to die; no one wants to be hated.

The sad part is that everyone suffers; everyone is hated by someone; everyone hates someone; everyone dies after a life of blunders and sin. Christ Jesus came to save the lost, which by the looks of this thread is pretty much everyone.

We have hope. It’s something to hold onto as we grow weak and find ourselves ruined at the end of our minutes in the sun on our beloved Earth.

Jesus made a path for us. It cost him everything a human can pay. He somehow survived the Roman crucifixion that killed him to show the poor and overly burdened that in his power is the way, the truth, and the life.

There is a path to paradise; we — everyone of us — can find it by surrendering to the God who loved us, gave us life, and suffered to set right what we put wrong.

JESUS, THE CHRIST


4 – People say Newton’s third law, “For every action, there is an equal and opposite reaction,” is not accurate. Is it true?

Einstein said that only mass and energy exist; they are in fact equivalent; they are the same thing; two sides of the same coin. Energy gives rise to all other phenomenon and forces that scientists observe.

Stephen Hawking said that when mass (or energy) comes into existence a negative energy must emerge to balance it so that when added up everything in the universe sums to zero. It appears that Newton’s third law, equal and opposite, is not only accurate — it is a fundamental balancing principle that undergirds existence.

Mass is matter, which can be positive or negative and is referred to as matter or anti-matter.

The Billy Lee Conjecture claims that mass is pixelated (quantized) such that in the contest of emergence within the smallest spherical volume, matter or anti-matter (one or the other) will prevail due to a natural truncation of π in the putative spherical volume of the creation space.

An evenly divided ratio of matter and anti-matter within a spherical creation-space is physically impossible if π is truncated by pixelization. Matter and anti-matter will annihilate until a single piece of either matter or anti-matter remains after the creation event.

To maintain a zero-sum, balancing counter-energy will emerge according to speculation by the late Stephen Hawking.

Over long periods it seems that an extraordinary amount of matter has accumulated inside our own universe by surviving the natural annihilation of matter by anti-matter. This matter seems to have generated an enormous amount of counter-balancing energy — some of which Newton called gravity. Most of the energy remains undiscovered and is referred to as “dark.”

In our own universe, π seems to “round-off” near the precision of the Planck constant.

In universes outside our own — some of which seem to be pulling our universe apart in an accelerating expansion caused, perhaps, by their own gravitational forces — π may truncate to different values to generate in some cases a prevailing anti-matter and opposing energies that manifest qualities different from the energies found in our own universe.

If parallel universes disrupt the zero-sum strategy of our own, it may still be true that the principle of zero-sum or equal but opposite is operational, but humans are too small and the distances are too far for anyone to ever know for sure that it is true.

CONSCIOUS LIFE


5 – What are the major foreign policy issues that the United States of America is working on in 2018?

I’m writing this answer just after the meeting in Singapore between North Korea and the United States involving the Korean nuclear arsenal.

The Secretary of State, Pompeo, said yesterday that NK has two years to de-nuke. This delay might tempt the Japanese to convert their stockpile of 47 tons of plutonium into bombs. Japan and North Korea have issues related to the Japanese occupation of Korea from 1910 to 1945.

It takes ten pounds to make one bomb. The Japanese can make as many bombs as they want in as little as 24 hours.

A Japan armed with 10,000 nuclear bombs (they already have the missiles to launch them) is a clear and present danger to China, Russia, and Korea — not to mention the United States with whom Japan has a beef that goes all the way back to World War Two when the USA destroyed 67 of their cities with napalm; two cities by atomic bombs.

The USA has occupied Japan ever since. Some of the Japanese probably hate us — who knows for sure?

47 TONS

MKWA


6 – Can a photon’s speed be slowed down? I have heard that it can be slowed by a medium, but I have also heard that it is just the velocity being slowed as it “bounces” from particle to particle? I am not talking about Bose-Einstein condensation.

The current thinking is this: when a photon leaves the vacuum to enter a material object, it leaves a wake in its path that vibrates electrons in the medium. These oscillating (or disturbed) electrons generate polaritons, which are photon-like objects that can catch and add mass to the photon. With mass added, the photon slows down — as much as 40% in glass, for example, which enables more polaritons to pile on.

When the photon exits into the vacuum of space, it disentangles from the polaritons, and instantly resumes light speed.

I didn’t make this up.

It’s what some physicists are saying, and it explains a lot and leaves a lot unexplained — like all things physics when folks go just a little deeper into the abyss of understanding.



7 – What is the relation between light and darkness? Can one exist without the other?

Light is the action of certain wavelengths of electromagnetic radiation on structures in the eye, which trigger hallucinations in the brain that humans report as “light.”

An infinite range of frequencies are “out there.” Humans are blind to almost all of them. People who are unable to trigger hallucinations induced by electromagnetic radiation say that they are experiencing “darkness.”

Some frequencies of light are experienced as “heat.” Because the sensation is not accompanied by visual cues, people in hot rooms with no windows believe they are experiencing “darkness.”

The experience of heat is caused by the same electromagnetic waves that induce visual experience, but they are a tiny bit longer in length than those which induce the experience of the color “red” in humans.

The longer waves carry less energy and are invisible to people unless they view the ”infra-red” light through high-tech sensors. Local fire-departments use these sensors to identify ”hotspots” where fires might reignite.

SENSING THE UNIVERSE

WHY SOMETHING, NOT NOTHING?


8 – Given an opportunity to pass through one or two slits with no detection, will a quantum object always pass through both?

If the slits are in the right position and are cut to the right size and are at the right distance from the source, a pattern on a detector screen will evolve over time to look as if waves are passing through the slits and interfering in a predictable way with each other.

Of course, it’s not true, because the particles are shot one at a time and the duration of the experiment can be hours to weeks long. The shots land one dot at a time. After thousands of shots, a pattern that resembles what one would expect of waves interfering is formed by the particles as they accumulate on the detector backstop.

No one knows why. The phenomenon is inexplicable.

BELL’S INEQUALITY


9 – Is Jesus a hoax? Jesus has not walked on Earth in 2,000 years. How can a man 2,000 years ago save anyone?

I was hungry and you gave me something to eat, I was thirsty and you gave me something to drink, I was a stranger and you invited me in,
I needed clothes and you clothed me, I was sick and you looked after me, I was in prison and you came to visit me.

The righteous will say, ‘Lord when did we do these things?’

My answer will be, ‘Everything you did to help suffering people, you did for me.’

The preceding is a paraphrase of part of Matthew 25, a book in the Bible.

Read it. Why not?

The answer is in the sense that it is not a hoax that the “least of these” walk the earth when we do. How we treat unfortunates is, in the view of Jesus, the way we treat him. He will return to us the same courtesies when finally we give GOD an account of our lives.

JESUS, THE CHRIST


10 – Can RNA or DNA think?

RNA, in its many forms, behaves like ant colonies which swarm over the DNA pile to do a number of tasks that seem to involve a lot of decision making.

RNA selects out of billions of bases a few thousand which it strings together to make “genes” that it transfers to ribosomes — which are made almost entirely of RNA and are among the oldest structures in cells.

At a ribosome, the genes are coupled to RNA that carries amino acids; the amino acids are then ejected from the ribosome to be strung together like necklace beads; they are transported to Golgi structures where they are folded into proteins.

A process this complex — and it’s actually far more complex than this summary implies — can be orchestrated without intelligence; it’s possible, but without intelligence of some form, the process seems, at least to me, to border on the miraculous.

After all, what is the result?

It is a conscious thinking life-form who can, in cooperation with others, figure out its own origins.

It’s amazing, right?

NO CODE


11 – How do Quantum spins get affected by Quantum entanglement?

All atoms with electron shells that are home to more than one electron have entangled electrons. The spins tend to oppose each other. With bosonic particles, down conversion techniques produce photons that have opposite polarization.



Most physicists think that spin is induced during measurement; the spin is transmitted oppositely to the entangled partner instantly — no matter how far separated.

For this reason, a pair of entangled particles can be envisioned as a single particle that behaves as if one of its dimensions (the distance between its endpoints) is missing.

The distance between the entangled pair behaves as if it is zero — when it is known to be non-zero.

BELL’S INEQUALITY

QUANTUM ENTANGLEMENT


12 – What is the viability of colonies on other planets?

The two planets closest to Earth are the most viable places for colonies simply because they are the easiest to resupply. They are Mars and Venus.

Neither can sustain colonies, because they lack magnetospheres, which are essential for deflecting high energy particles emitted by the Sun (called the solar wind). These particles are deadly to life. The molten iron-nickel cores of Mars and Venus froze millions of years ago on both planets, which collapsed their magnetospheres.

Venus has a highly toxic atmosphere, which is another reason to rule out colonization there.

Beyond Mars are gas giants. Only their rocky moons are candidates for human colonies. All the moons appear to be too cold to operate the machinery necessary to sustain human life. Most lack protection from the solar wind.

FINDING LIFE IN THE UNIVERSE


Bonus Assertion – Does a photon consist of (f) quantized energy packets each of (h) joules?

A photon seems to be a packet of vibrating electric and magnetic energy, each part of which exerts its energy at a right angle to the other. The energy in the packet is proportional to vibrational frequency alone. A photon has no mass or acceleration. It travels along at a constant speed in space-time. The electric portion of the energy is about seven times the energy of the magnetic portion.

Photons can become more intense (that is, brighter) when they pile up. Pile ups don’t happen to electrons, protons, and neutrons because they obey an exclusion principle that forbids them from occupying the same space at the same time.

Photons can pile up, but their intensity (or energy) can only be transferred into electrons that are in an energy state that resonates with the frequency of the incoming photons. Non-resonate electrons ignore un-matched photons, so photons pass through non-resonate electrons unimpeded.

The energy of an individual photon can be expressed as its kinetic energy and  shown to equal Planck’s constant times the photon’s frequency, which always results in a very small number.

When expressed in terms of its wavelength (λ), photon energy equals the Planck constant (h) times the speed of light (c) divided by the wavelength (λ) of the photon. Notice that the mass term is missing due to a simple manipulation of the relevant equations — which anyone who is interested can find in the following link.

PHOTON

Momentum might not be an appropriate metric for a force carrying boson like a photon, because momentum is based on mass, which many physicists say photons in a vacuum don’t possess.

Another reason momentum could be an inappropriate metric is that the velocity of photons in a vacuum is independent of any reference frame, right? Momentum is a vector quantity that is always measured in relationship to a particular reference frame or the momentum of another particle.

There is a theory that claims that photons pick up mass when they pass through materials like glass. They seem to leave a wake that shakes up electrons in the material. The vibrating electrons release polaritons, which by a mechanism analogous to superposition add mass to the photon and slow it down. When the photon exits and returns to vacuum, it sheds the polaritons, becomes massless, and returns to light speed instantly.

Perhaps photons in the vacuum of space acquire mass by interacting with virtual particles that emit virtual polaritons.  Notions about the nature of the universe would be changed radically if such a notion were confirmed by evidence.

Because h and c are constants, they can be multiplied together to give a constant that is very close to 2E-25. Dividing 2E-25 by the wavelength of a photon will give its energy in joules. Of course, all units are SI, which stands for standard international units, correct?

Since E = hf or (hc / λ) , the energy is always a multiple of h, which is the Planck constant. The word “multiple” is a simple way to say “quantized”.

So, the energy of a photon bunch or pile can be expressed as a multiple of the number of photons of a certain wavelength in that bunch. The energy in each individual photon is its wavelength (or frequency, if you like) multiplied by the Planck number — a constant equal to 6.626E-34.

It takes a pile-up — or bunch — of about 7 photons with wavelengths close to 2.5 one-hundred-thousandths of an inch long (635 nanometers) to carry enough energy to light up the sensors in a human eye.

How much energy is in those seven photons? It is seven times 2E-25 / 635E-9 —  in joules, right?

It’s 2.2E-18 joules. Converted to an easier metric befitting its scale, the energy is nearly 14 electron volts, which is equivalent to the energy held in 14 electrons.

People say that photons with wavelengths that measure 635 nanometers create the color yellow-orange in their minds.

SENSING THE UNIVERSE


Billy Lee

FASTER THAN LIGHT COMMUNICATION


FTL Communication

Communicating with distant spacecraft in the solar system is cumbersome and time consuming because the distances are huge and no one can send signals faster than the speed-of-light. A signal from Earth can take from three to twenty-two minutes to reach Mars depending on the position of the two planets in their orbits. Worse, the Sun blocks signals when it lies in their path.

As countries explore farther from Earth to Mars and beyond, these delays and blockages will become annoying. The need to develop a technology for instantaneous communication that can penetrate or bypass the Sun will become compelling.

Quantum particles are known for their ability to “tunnel” through or ignore barriers — as they clearly do in double-slit experiments where electrons are fired one at a time to strike impossible locations. So, looking to quantum processes for signaling might be good places to start to find solutions to long-range communication problems.


NOTE FROM THE EDITORIAL BOARD, May 8, 2019: Sixteen months after Billy Lee published this post, the Chinese launched the Mozi satellite. It successfully carried out the first in a series of experiments with entangled quantum particles over space-scale distances. This technology promises a quantum encrypted network by the end of 2020 and a global web built on quantum encryption by 2030. The Chinese seem to be on the cusp of both FTL communication (through teleportation of information) and quantum encryption. 


If scientists and engineers are able to develop quantum signaling over solar-system-scale distances, they might discover later that adding certain tweaks and modifications will render the Sun transparent to our evolving planet-to-planet communications network.

Indeed, the Sun is transparent to neutrinos — the lightest (least massive) particles known. In 2012, scientists showed they could use neutrinos to send a meaningful signal through materials that block or attenuate most other kinds of subatomic particles.

But this article is about faster than light (FTL) communication. Making the Sun transparent to inter-planetary signaling is best left for another article.

Quantum entanglement is the only phenomenon known where information seems to pass instantly between widely placed objects. But because the information is generated randomly, and because it is transferred between objects that are traveling at speeds at or below the speed-of-light, it seems clear to most physicists that faster-than-light (FTL) messaging can’t come from entanglement, certainly, or any other process — especially in light of Einstein’s assertion of a cosmic speed-limit.

Proposals for FTL communications based on technologies rooted in the quantum process of entanglement are usually dismissed as crack-pot engineering because they seem to be built on fundamental misunderstandings of the phenomenon.

Difficulties with the technology are often overlooked — such as spontaneous breaking and emergence of entanglement; progress seems impossible to skeptics. Nevertheless, there may be ways to make FTL happen, possibly. The country that develops the technology first will accrue advantages for their space exploration programs.

In this essay I hope to explain how FTL messaging might work, put my ideas into a blog-bottle and throw it into the vast cyber-ocean. Yes, the chances are almost zero that the right people will find the bottle, but I don’t care. For me, it’s about the fun of sharing something interesting and trying to explain it to whoever will listen.

Maybe a wandering NSA bot will detect my post and shuffle it up the chain-of-command for a human to review. What are the odds? Not good, probably.

Anyway, two serious obstacles must be overcome to communicate instantly over astronomical distances using quantum entanglement. The first is the problem of creating a purposeful signal. (To learn more about entanglement click the link in this sentence to go to Billy Lee’s essay, Bell’s Inequality. The Editors)

The second problem is how to create the architectural space to send signals instantly to a distant observer. Knowledgeable people who have written about the subject seem to agree that both obstacles are insurmountable.


image
Most scientists say FTL communication is impossible. This post suggests a way to engineer around the impossibility.

Why?  It’s because the states of an entangled pair of subatomic particles are not determined until one of the particles is measured. The states can’t be forced; they can only be discovered — and only after they are created by a measurement.

Once one particle’s state is created (randomly) through the mechanism of a measurement, the information is transferred to the entangled partner-particle instantly, yes, but the particles themselves are traveling at the speed-of-light or less. The randomly generated states carried by these entangled particles aren’t going anywhere for very long faster than the speed-limit of light.

How can these difficulties be overcome?

Although the architectural problem is the most interesting, I want to address the purposeful-signal problem first. A good analogy to aid understanding might be that of an old-fashioned typewriter. Each key on a typewriter when pressed delivers a unique piece of information (a letter of the alphabet) onto a piece of paper. A person standing nearby can read the message instantly. Fair enough.

Imagine setting up a device which emits entangled pairs of photons; rig the emissions so that half the photons when measured later will be polarized one way, half the other. No one can know which photons will display which state, but they can predict the overall ratio of the two polarities from a “weighted” emitter.

Call the 50/50 ratio, letter “A”.   Now imagine configuring another emitter-system to project 3 of 4 photons polarized one way; 1 of 4 another — after measurement. Call the 3 to 1 ratio “B”.  If engineers are able to construct and rig weighted emitters like these, they will have solved half of the FTL communication problem.

Although no one can know the state of any single particle until after a measurement, engineers could identify the ratio of polarization states in a large number sent from any of the unique emitter-configurations they design.

This capability would permit them to build a kind of typewriter keyboard by setting up photon emitters with enough statistical variation in their emission patterns to differentiate them into as many identifiable signatures as needed — perhaps an entire alphabet or — better yet — some other symbolic coding array like a binary on-off signaling system perhaps. In that case, one configuration of emitter would suffice, but designers would need to solve other technical problems involving rapid signal-sequencing.

To send a purposeful-signal, engineers might select an array of emitters and rapid-fire photons from them. If they selected an “A” (or perhaps an “on”) emitter, 50% of the photons would register as being in a particular polarization state after they were measured. If they chose “B”, 75% would register, and so on. After measurements on Earth, the entangled bursts of particles on their way to Mars would take on these ratios instantly.

I believe it might be possible to build emitter-systems someday — emitter systems with non-random polarization ratios. If not, then as is sometimes said at NASA, Houston, we have a problem.  FTL communication may not be designable.

On the other hand, if engineers build these emitters, then we can know for sure that when measured on Earth, the entangled photon-twins in the Mars-bound emitter-bursts will display the same statistical patterns; the same polarization ratios. Anyone receiving bundles of entangled-photons from these encoded-emitters will be able to determine what they encode-for by the statistical distribution of their polarities.

Ok. Assume engineers build these emitter-systems and set up a keyboard. How might they ensure that when someone presses a key the letter sent is seen immediately by a distant observer? 

How might the architectural geometry of the communication space be configured?

This part is the most interesting, at least to me, because its success doesn’t depend on whether anyone sends a single binary-signal or a zoo of symbols — and it’s the most critical.

It does no one any good to instantly communicate polarization states to bunches of photons traveling at the speed of light to Mars. The signals take three to twenty-two minutes to get there, whoever tells them instantly what state to be in or not. We want the machines on Mars to receive messages at the same time we send them.

How can we do that?

Maybe the method is becoming obvious to some readers. The answer is: photons in Earth-bound labs aren’t measured until their entangled twins have had time enough to travel to Mars (or wherever else they might be going).  Engineers will entrap on Earth the photons from each “lettered” emitter and send their entangled twins to Mars. The photons from each “lettered” emitter on Earth will circulate in a holding bin (a kind of information-capacitor), until needed to construct a message.

As entangled twins reach the Mars Rover (for example), anyone can “type-out” a message by measuring the Earth-bound photons in the particular holding bins that encode the “letters” —  that is, they can start the process that takes measurements that will induce the polarization-ratios of the “lettered” emissions used to “type” messages. Instantly, the entangled particle-bursts reaching Mars will take on these same polarization-ratios.

I hear folks saying, Wait a minute! Stop right there, Billy Lee! No one can hold onto photons. You can’t store them. You can’t trap or retain them, because they are impervious to magnets and electrical fields. No one can delay measurements for five milliseconds, let alone five minutes or five days.

Well, to my mind that’s just a technical hurdle that clever people can jump over, if they set their minds to it. After all, it is possible to confine light for for short periods with simple barriers, like walls.

Then again, electrons or muons might make better candidates for communication. Unlike photons, they are easily retained and manipulated by electromagnetic fields.

Muons are short-lived and would have to be accelerated to nearly light-speed to gain enough lifespan to be useful. They are 207 times heavier than electrons, but they travel well and penetrate obstacles easily. (Protons, by comparison, are nine times heavier than muons.)

The National Security Agency (NSA) photographs every ship at sea with muon penetrating technology to make sure none harbor nuclear weapons. Muons are particles some engineers are already comfortable manipulating in designs to give the USA an edge over other countries.

We also have a lot of experience with electrons. Electrons are long-lived — they don’t have to be accelerated to near light-speeds to be useful. Speed doesn’t matter, anyway.

Entangled particles don’t have to travel at light-speed to communicate well, nor do they have to live forever. Particles only need enough time to get to Mars (or wherever they’re going) before designers piggyback onto their Earth-bound entangled partners to transmit instant-messages.


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Inability to communicate instantly with distant probes like the Mars Rover is degrading our ability to conduct successful missions inside the solar system.

Even if it takes days or weeks for bursts of entangled-particles to travel to Mars (or wherever else), it makes no difference. Engineers can run and accumulate a sufficiently robust loop of streaming emissions on Earth to enable folks, soon enough, to “type” out FTL messages in real time whenever necessary.

As long as control of and access to the emitted particle-twins on Earth is maintained, people can “type out” messages (by measuring the captive Earth-bound twins at the appropriate time) to impose and transfer the statistical configuration of their rigged polarization ratios (or spins in the case of electrons or muons) to the Mars-arriving particle-bursts, creating messages that a detector at that far-away location can decode and deliver, instantly.

The challenge of instant-return messaging could be met by employing the same technologies on Mars (or wherever else) as on Earth. The trick at both ends of the communication pipe-line is to store (and if necessary replenish) a sufficient quantity of the elements of any possible communication in streaming particle-emission capacitors.

Tracking and timing issues don’t require the development of new technologies; the engineering challenges are trivial by comparison and can be managed by dedicated computers.

Discharging streaming information capacitors to send ordered instant messages in real-time is new — perhaps a path forward exists that engineers can follow to achieve instant, long-range messaging through the magic of quantum entanglement.

The technical challenges of designing stable entanglement protocols that will enable an illusion of instant messaging that is both useful and practical are formidable, but everything worth doing is hard — until it isn’t.

Billy Lee

BELL’S INEQUALITY

UPDATE: 18 December 2022:  Royal Swedish Academy of Sciences on 4 October 2022 awarded the Nobel Prize in Physics to: 

Alain Aspect
Institut d’Optique Graduate School – Université Paris-
Saclay and École Polytechnique, Palaiseau, France


Alain Aspect, winner of 2022 Nobel Prize in Physics

John F. Clauser
J.F. Clauser & Assoc., Walnut Creek, CA, USA

Anton Zeilinger
University of Vienna, Austria

“for experiments with entangled photons, establishing the violation of Bell inequalities and pioneering quantum information science”


UPDATE: September 5, 2019:  I stumbled across this research published in NATURE during December 2011, where scientists reported entanglement of vibrational patterns in separated diamond crystals large enough to be viewed without magnification. Nature doi:10.1038/nature.2011.9532


UPDATE: May 8, 2018: This video from PBS Digital Studios is the best yet. Click the PBS link to view the latest experimental results involving quantum mechanics, entanglement, and their non-intuitive mysteries. The video is a little advanced and fast paced; beginners might want to start with this link.


UPDATE: June 17, 2016:   Ali Sundermier published a description of quantum entanglement for non-scientists. Here is the link.

Another beginner’s overview of quantum mechanics by Cathal O’Connell is in this link.

UPDATE: February 4, 2016:  Here is a link to the August 2015 article in Nature, which makes the claim that the last testable loophole in Bell’s Theorem has been closed by experiments conducted by Dutch scientists. Conclusion: quantum entanglement is real.

UPDATE: Nov. 14, 2014:    David Kaiser proposed an experiment to determine Is Quantum Entanglement Real?  Click the link to redirect to the Sunday Review, New York Times article. It’s a non-technical explanation of some of the science related to Bell’s Theorem. 


Someone nominated Irish physicist, John Stewart Bell, (1928-1990) for a Nobel Prize during the year he died from a sudden brain hemorrhage. Nobel rules prevent the awarding of prizes to people who have died. Bell never learned of his nomination.

John Stewart Bell‘s Theorem of 1964 followed naturally from the proof of an inequality he fashioned (now named after him), which showed that quantum particle behavior violated logic.

It is the most profound discovery in all science, ever, according to Henry Stapp—retired from Lawrence Berkeley National Laboratory and former associate of Wolfgang Pauli and Werner Heisenberg. Other physicists like Richard Feynman said Bell simply stated the obvious.


Beta Barium Borate crystals can be used to ”down-convert” photons into entangled pairs.

Here is an analogy I hope gives some idea of what is observed in quantum experiments that violate Bell’s Inequality: Imagine two black tennis balls—let them represent atomic particles like electrons or photons or molecules as big as buckyballs.



The tennis balls are created in such a way that they become entangled—they share properties and destinies. They share identical color and shape.  [Entangled particles called fermions display opposite properties, as required by the Pauli exclusion principle.]

Imagine that whatever one tennis ball does, so does the other; whatever happens to one tennis ball happens to the other, instantly it turns out. The two tennis balls (the quantum particles) are entangled.

[For now, don’t worry about how particles get entangled in nature or how scientists produce them.  Entanglement is pervasive in nature and easily performed in labs.]


According to optical and quantum experimentalist Mark John Fernee of Queensland, Australia, ”Entanglement is ubiquitous. In fact, it’s the primary problem with quantum computers. The natural tendency of a qubit in a quantum computer is to entangle with the environment. Unwanted entanglement represents information loss, or decoherence. Everything naturally becomes entangled. The goal of various quantum technologies is to isolate entangled states and control their evolution, rather than let them do their own thing.”

In nature, all atoms that have electron shells with more than one electron have entangled electrons. Entangled atomic particles are now thought to play important roles in many previously not understood biological processes like photosynthesis, cell enzyme metabolism, animal migration, metamorphosis, and olfactory sensing. There are several ways to entangle more than a half-dozen atomic particles in experiments.



Imagine particles shot like tennis balls from cannons in opposite directions. Any measurement (or disturbance) made on a ball going left will have the same effect on an entangled ball traveling to the right.

So, if a test on a left-side ball allows it to pass through a color-detector, then its entangled twin can be thought to have passed through a color-detector on the right with the same result. If a ball on the left goes through the color-detector, then so will the entangled ball on the right, whether or not the color test is performed on it. If the ball on the left doesn’t go through, then neither did the ball on the right. It’s what it means to be entangled.

Now imagine that cannons shoot thousands of pairs of entangled tennis balls in opposite directions, to the left and right. The black detector on the left is calibrated to pass half of the black balls. When looking for tennis balls coming through, observers always see black balls but only the half that get through. 


Spin is one of the characteristics of a quantum object, much like yellow is a characteristic of a tennis ball.

Spin describes a particle property of quantum objects like electrons — in the same way color or roundness describe tennis balls. The property is confusing, because no one believes electrons (or any other quantum objects) actually spin. The math of spin is underpinned by the complex-mathematics of spinors, which transform spin arrows into multi-dimensional objects not easy to visualize or illustrate. Look for an explanation of how spin is observed in the laboratory later in the essay. Click links for more insight.


Now, imagine performing a test for roundness on the balls shot to the right. The test is performed after the black test on the left, but before any signal or light has time to travel to the balls on the right. The balls going right don’t (and can’t) learn what the detector on the left observed. The roundness-detector is set to allow three-fourths of all round tennis balls through.

When round balls on the right are counted, three-eighths of them are passing through the roundness-detector, not three-fourths. Folks might speculate that the roundness-detector is acting on only the half of the balls that passed through the color-detector on the left. And they would be right.

These balls share the same destinies, right? Apparently, the balls on the right learned instantly which of their entangled twins the color-detector on the left allowed to pass through, despite all efforts to prevent it.

So now do the math. One-half (the fraction of the black balls that passed through the left-side color-detector) multiplied by three-fourths (the fraction calibrated to pass through the right-side roundness-detector) equals three-eighths. That’s what is seen on the right — three-eighths of the round, black tennis balls pass through the right-side roundness-detector during this fictionalized and simplified experiment.


Polarization is another characteristic of a quantum particle, much like roundness is for a tennis ball.
Polarization is a term used to describe a wave property of quantum objects like photons.  Polarizing filters are rotated in experiments to determine some of the properties of atomic particles, like spin.

According to Bell’s Inequality, twice as many balls should pass through the right-side detector (three-fourths instead of three-eighths). Under the rules of classical physics (which includes relativity), communication between particles cannot exceed the speed of light.

There is no way the balls on the right can know if their entangled twins made it through the color detector on the left. The experiment is set up so that the right-side balls do not have time to receive a signal from the left-side. The same limitation applies to the detectors.

The question scientists have asked is: how can these balls (quantum particles) — separated by large distances — know and react instantaneously to what is happening to their entangled twins? What about the speed limit of light? Instantaneous exchange of information is not possible, according to Einstein.

The French quantum physicist, Alain Aspect, suggested his way of thinking about it in the science journal, Nature (March 19, 1999).


Alain Aspect
Alain Aspect, French physicist, is best known for his work on quantum entanglement.

He wrote: The experimental violation of Bell’s inequalities confirms that a pair of entangled photons separated by hundreds of meters must be considered a single non-separable object — it is impossible to assign local physical reality to each photon.

Of course, the single non-separable object can’t have a length of hundreds of meters, either. It must have zero length for instantaneous communication between its endpoints. But it is well established by the distant separation of detectors in experiments done in labs around the world that the length of this non-separable quantum object can be arbitrarily long; it can span the universe.

When calculating experimental results, it’s as if a dimension (in this case, distance or length) has gone missing. It’s eerily similar to the holographic effect of a black hole where the three-dimensional information that lives inside the event-horizon is carried on its two-dimensional surface. (See the technical comment included at the end of the essay.)


Schematic of physicist Alan Aspect's experimental apparatus which verified that the act of measurement influenced distant entangled calcium electrons instantaneously.
Here is a drawing of an apparatus the French physicist, Alain Aspect, designed to quickly change the angle of polarity-measurements for emitted photons. In experiments, he used the logic of Bell’s Inequalities and the speed of his switches to show that it was not possible for photons to carry specific (or unique) polarity-angles until after they were measured by the polarization detectors.  Once measured, Alain showed that the new, narrowly defined polarity states of his photons always propagated to their distant entangled twins, instantly.  


Another way physicists have wrestled with the violations of Bell’s Inequality is by postulating the concept of superposition. Superposition is a concept that flows naturally from the linear algebra used to do the calculations, which suggests that quantum particles exist in all their possible states and locations at the same time until they are measured.

Measurement forces wave-particles to “collapse” into one particular state, like a definite position. But some physicists, like Roger Penrose, have asked: how do all the super-positioned particles and states that weren’t measured know instantaneously to disappear?

Superposition, a fundamental principle of quantum mechanics, has become yet another topic physicists puzzle over. They agree on the math of superposition and the wave-particle collapse during measurement but don’t agree on what a measurement is or the nature of the underlying reality. Many, like Richard Feynman, believe the underlying reality is probably unknowable.

Quantum behavior is non-intuitive and mysterious. It violates the traditional ideas of what makes sense. As soon as certainty is established for one measurement, other measurements, made earlier, become uncertain.

It’s like a game of whack-a-mole. The location of the mole whacked with a mallet becomes certain as soon as it is struck, but the other moles scurry away only to pop up and down in random holes so fast that no one is sure where or when they really are.

Physicists have yet to explain the many quantum phenomena encountered in their labs except to throw-up their hands to say — paraphrasing Feynman — it is the way it is, and the way it is, well, the experiments make it obvious.


Feynman
Richard Feynman (1918-1988) downplayed Bell’s Inequality because, he said, it simply pointed out what was already obvious from experiments.

But it’s not obvious, at least not to me and, apparently, many others more knowledgeable than myself. Violations of Bell’s Inequality confound people’s understanding of quantum mechanics and the world in which it lives. A consequence has been that at least a few scientists seem ready to believe that one, perhaps two, or maybe all four, of the following statements are false:

1) logic is reliable and enables clear thinking about all physical phenomenon;

2) the universe exists independently of any conscious observer;

3) information does not travel faster than light.

4) a model can be imagined to explain quantum phenomenon.

I feel wonder whenever the idea sinks into my mind that at least one of these four seemingly self-evident and presumably true statements could be false — possibly all four — because repeated quantum experiments suggest they must be. Why isn’t more said about it on TV and radio?


Quantum mechanics (1)
Some scientists think non-physicists cannot grasp quantum mechanics. This little girl disagrees.

The reason could be that the terrain of quantum physics is unfamiliar territory for a lot of folks. Unless one is a graduate student in physics — well, many scientists don’t think non-physicists can even grasp the concepts. They might be right.

So, a lot is being said, all right, but it’s being said behind the closed doors of physics labs around the world. It is being written about in opaque professional journals with expensive subscription fees.

The subtleties of quantum theory don’t seem to suit the aesthetics of contemporary public media, so little information gets shared with ordinary people. Despite the efforts of enthusiastic scientists — like Brian CoxSean M. CarrollNeil deGrasse Tyson and Brian Greene — to serve up tasty, digestible, bite-size chunks of quantum mechanics to the public, viewer ratings sometimes fall flat.

When physicists say something strange is happening in quantum experiments that can’t be explained by traditional methods, doesn’t it deserve people’s attention? Doesn’t everyone want to try to understand what is going on and strive for insights?  I’m not a physicist and never will be, but I want to know.

Even me — a mere science-hobbyist who designed machinery back in the day — wants to know. I want to understand. What is it that will make sense of the universe and the quantum realm in which it rests?  It seems, sometimes, that a satisfying answer is always just outside my grasp.

Here is a concise statement of Bell’s Theorem from the article in Wikipedia — modified to make it easier to understand: No physical theory about the nature of quantum particles which ignores instantaneous action-at-a-distance can ever reproduce all the predictions about quantum behavior discovered in experiments.


laser-controlled-polarization
Familiarity with concepts like wave polarization and particle-spin can help demystify some aspects of quantum mechanics. One aspect that can’t be demystified: in experiments quantum objects display the properties of both waves and particles.

To understand the experiments that led to the unsettling knowledge that quantum mechanics — as useful and predictive as it is — does indeed violate Bell’s proven Inequality, it is helpful not only to have a solid background in mathematics but also to understand ideas involving the polarization of light and — when applied to quantum objects like electrons and other sub-atomic particles — the idea of spin.  Taken together, these concepts are somewhat analogous to the properties of color and roundness in the imaginary experiment described above.

This essay is probably not the best place to explain wave polarization and particle spin, because the explanation takes up space, and I don’t understand the concepts all that well, anyway.  (No one does.)

But, basically, it’s like this: if a beam of electrons, for example, is split into two and then recombined on a display screen, an interference pattern presents itself. If one of the beams was first passed through a polarizer, and if experimenters then rotate the polarizer a full turn (that is, 360°), the interference pattern on the screen will reverse itself.  If the polarizer-filter is rotated another full turn, the interference pattern will reverse again to what it was at the start of the experiment.

So, it takes two spins of the polarizer-filter to get back the original interference pattern on the display screen — which means the electrons themselves must have an intrinsic “one-half” spin. All so-called matter particles like electrons, protons, and neutrons (called fermions) have one-half spin.

Yes, it’s weird. Anyway, people can read-up on the latest ideas by clicking this link. It’s fun. For people familiar with QM (quantum mechanics), a technical note is included in the comments section below.

Otherwise, my analogy is useful enough, probably. In actual experiments, physicists measure more than two properties, I’m told. Most common are angular momentum vectors, which are called spin orientations. Think of these properties as color, shape, and hardness to make them seem more familiar — as long as no one forgets that each quality is binary; color is white or black; shape is round or square; hardness is soft or hard.


Crystals can be used to “down-convert” photons into  entangled pairs.

Spin orientations are binary too — the vectors point in one of two possible directions. It should be remembered that each entangled particle in a pair of fermions always has at least one property that measures opposite to that of its entangled partner.

The earlier analogy might be improved by imagining pairs of entangled tennis balls where one ball is black, the other white; one is round, the other square; add a third quality where one ball is hard, the other soft. Most important, the shape and color and hardness of the balls are imparted by the detectors themselves during measurement, not before.

Before measurement, concepts like color or shape (or spin or polarity) can have no meaning; the balls carry every possible color and shape (and hardness) but don’t take on and display any of these qualities until a measurement is made. Experimental verification of these realities keep some quantum physicists awake at night wondering, they say.

Anyway, my earlier, simpler analogy gets the main ideas across, hopefully. And a couple of the nuances of entanglement can be found within it. I’ve added an easy to understand description of Bell’s Inequality and what it means to the end of the essay.

Here are two additional links with more depth: CHSH Inequality; Bell Test Experiments.


A carbord cut-out of a cat imaged by photons that never went through the cut-out itself. Credit: Gabriela Barreto Lemos
This cardboard cut-out of a cat was imaged by entangled photons. Lower energy photons interacted with the cut-out while their higher energy entangled twins interacted with the camera to create the picture.
Credit: Gabriela Barreto Lemos

In the meantime, scientists at the Austrian Academy of Sciences in Vienna recently demonstrated that entanglement can be used as a tool to photograph delicate objects that would otherwise be disturbed or damaged by high energy photons (light). They entangled photons of different energies (different colors).

They took photographs of objects using low energy photons but sent their higher energy entangled twins to the camera where their higher energies enabled them to be recorded. New technologies involving the strange behavior of quantum particles are in development and promise to transform the world in coming decades.

Perhaps entanglement will provide a path to faster-than-light communication, which is necessary to signal distant space-craft in real time. Most scientists say, no, it can’t be done, but ways to engineer around the difficulties are likely to be developed; technology may soon become available to create an illusion of instantaneous communication that is actually useful. Click on the link in this paragraph to learn more.

Non-scientists don’t have to know everything about the individual trees to know they are walking in a quantum forest. One reason for writing this essay is to encourage people to think and wonder about the forest and what it means to live in and experience it.

The truth is, the trees (particles at atomic scales) in the quantum forest seem to violate some of the rules of the forest (classical physics). They have a spooky quality, as Einstein famously put it.


remu warrior night scene 3
The quantum forest is a spooky place, Einstein said. 

Trees that aren’t there when no one is looking suddenly appear when someone is looking. Trees growing in one place seem to be growing in other places no one expected. A tree blows one way in the wind, and someone notices a tree at the other end of the forest — where there is no wind — blowing in the opposite direction. As of right now, no one has offered an explanation that doesn’t seem to lead to paradoxes and contradictions when examined by specialists.


Henry Stapp, Amazon.com
Henry Stapp, Amazon.com

John Stewart Bell proved that the trees in the quantum forest violate the laws of nature and logic. It makes me wonder whether anyone will ever know anything at all that they can fully trust about the fundamental, underlying essence of reality.

Some scientists, like Henry Stapp (now retired), have proposed that brains enable processes like choice and experiences like consciousness through the mechanism of quantum interactions. Stuart Hameroff and Roger Penrose have proposed a quantum mechanism for consciousness they call Orch Or.

Others, like Wolfgang Pauli and C. G. Jung, have gone further — asking, when they were alive, if the non-causal coordination of some process resembling what is today called entanglement might provide an explanation for the seeming synchronicity of some psychic processes — an arena of inquiry a few governments are rumored to have already incorporated (to great effect) into their intelligence gathering tool kits.

In a future essay I hope to speculate about how quantum processes like entanglement might or might not influence human thought, intuition, and consciousness.

Billy Lee

P.S.  A simplified version of Bell’s Inequality might say that for things described by traits A, B, and C, it is always true that A, not B; plus B, not C; is greater than or equal to: A, not C.  

When applied to a room full of people, the inequality might read as follows: tall, not male; plus male, not blonde; is greater than or equal to: tall, not blonde.

Said more simply: tall females and dark haired men will always number more than or equal to the number of tall people with dark hair. 

People have tried every collection of traits and quantities imaginable. The inequality is always true, never false; except for quantum objects.


wave equation schrodinger
Schrödinger’s Wave Equation describes how the quantum state of a physical system changes with time. It can be used to calculate quantized properties and probability distributions of quantum objects.

One way to think about it: all the ”not” quantities are, in some sense, uncertain in quantum experiments, which wrecks the inequality. That is to say, as soon as ”A” is measured (for example) ,”not B” becomes uncertain. When ”not B” is measured, ”A” becomes uncertain.

The introduction of uncertainties into quantities that were — before measurement — seemingly fixed and certain doesn’t occur in non-quantum collections where individual objects are big enough to make uncertainties not noticeable. The inability to measure both the position and velocity of small things with high precision is called the uncertainty principle and is fundamental to physics. No advancement in the technology of measurement will ever overcome it.

Uncertainty is believed to be an underlying reality of nature. It runs counter to the desire humans have for complete and certain knowledge; it is a thirst that can never be quenched.

But what’s really strange: when working with entangled particles, certainty about one particle implies certainty about its entangled twin; predicted experimental results are precise and never fail.

Stranger still, once entangled quantum particles are measured, the results, though certain, change from those expected by classical theory to those predicted by quantum mechanics. They violate Bell’s Inequality and the common sense of humans about how things should work. 

Worse: Bell’s Theorem seems to imply that no one will ever be able to construct a physical model of quantum mechanics to explain the results of quantum experiments.  No ”hidden variables” exist which, if anyone knew them, would explain everything. 

Another way to say it is this: the underlying reality of quantum mechanics is unknowable.  [A technical comment about the mystery of QM is included in the comments section.]

Billy Lee