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Temporal Anomalies

Main Page

Discussing Time Travel Theory

Miscellany

Conversation

Other Films

Perpetual Barbecue

About the Author

Contact the Author

category of the

web log

elsewhere on this site.

Quick Jumps

Time as a Spreadsheet

Perpetual Change

Repetitive Change

Stability

What We Have Learned

Theory Pages

in no particular order

Discussing Time Travel Theory

A Primer on Time

The Science of Time Travel

The Two Brothers

The Spreadsheet Illustration

The Uncaused Cause

Mass Suicide and the Grandfather Paradox

Toward Two-Dimensional Time

A Critique of the Spreadsheet Theory

Response to A Critique

Temporal Theory 101

Temporal Theory Questions

(From The Examiner)

Temporal Theory 102

Movies Analyzed

in order examined

Terminator

Addendum to Terminator

Terminator 3: Rise of the Machines

Terminator Recap

Terminator Salvation

Terminator Genisys

Back To The Future

Back To The Future II

Back To The Future III

Millennium

Star Trek Introduction

Star Trek IV: The Voyage Home

Star Trek: Generations

Star Trek: First Contact

Star Trek (2009)

12 Monkeys

Addendum to 12 Monkeys

Flight Of The Navigator

Flight Of The Navigator Addendum

Army of Darkness

Lost In Space

Peggy Sue Got Married

Bill & Ted's Excellent Adventure

Bill & Ted's Bogus Journey

Frequency

Planet of the Apes

Kate and Leopold

Somewhere In Time

The Time Machine

Minority Report

Happy Accidents

The Final Countdown

Donnie Darko

S. Darko

Harry Potter and

the Prisoner of Azkaban

Deja Vu

Primer

Primer Questions

Bender's Big Score

Popular Christmas Movies

The Butterfly Effect

The Butterfly Effect 2

The Butterfly Effect 3: Revelations

The Last Mimzy

The Lake House

The Time Traveler's Wife

The Hot Tub Time Machine

Premonition

Los Cronocrimines a.k.a. TimeCrimes

Timeline

A Sound of Thundrer

Next

Frequently Asked Questions

About Time Travel

Source Code

Warlock

Blackadder Back & Forth

Watchmen

Teenage Mutant Ninja Turtles III

11 Minutes Ago

Men in Black III

La Jetée

Triangle

Midnight in Paris

Meet the Robinsons

Looper

H. G. Wells' The Time Machine

The Jacket

Safety Not Guaranteed

The Philadelphia Experiment

The Philadelphia Experiment II

Time After Time

TimeCop

About Time

Free Birds

X-Men: Days of Future Past

Edge of Tomorrow

Mr. Peabody & Sherman

Predestination

Project Almanac

41

Time Lapse

Synchronicity

Paradox

O Homem Do Futuro

a.k.a. The Man from the Future

Abby Sen

When We First Met

See You Yesterday

Mirage

Copyright Information

The temporal anomaly terminology used here is drawn from Appendix 11: Temporal Anomalies of

Temporal Anomalies in Time Travel Movies

unravels

The Spreadsheet Illustration of Temporal Anomalies

Throughout this site, time is discussed as if it were something that moves, carrying us along with it. Some of the more astute will observe that this is not the way time really is, if it is indeed a dimension. After all, space does not move; we move through space. So, too, time must be stationary. It is we who move.

In fact, I agree wholeheartedly. Seeing time as fixed, and events as being in their place along that medium, actually works better for the theory. It solves a lot of the confusion about why certain events don't happen sooner. For example, why doesn't Marty McFly instantly vanish the moment he has undone his own existence by preventing his father from meeting his mother? If his entire universe was at that instant undone (as indeed we ultimately conclude it was), how can he still exist now, and yet not exist later?

I find that the easiest way to perceive this is by considering something of a computer spreadsheet program. This example will show how events can change instantly and yet not immediately; and it may help to display the nature of our three basic anomalies for those who are having difficulty grasping them in the context of rewind and replace.

Time as a Spreadsheet

If the reader is not familiar with the way spreadsheets work, I trust this will still be clear enough. Imagine opening a spreadsheet program--Excel is the common one for most computer users, although Lotus 1-2-3 is the one on which I first learned, I think. You see a gridwork of what are called cells, in numbered rows and lettered columns. Thus there is a block near the top left corner of the work area which is in the first row and the first column. The first column is designated *A*, and the first row is designated *1*, so that block is known as *A1*. The block below it would be *A2*, and the block beside it would be *B1*

We will imagine that we've typed a value into A1. There is now a number there. What that number is does not matter at this point.

In A2, we're going to enter a formula. A formula is a mathematical equation which calculates the value for that cell. The beauty of a spreadsheet program is that you can use in a formula the value of any other cell, and that's what we're going to do. We're going to create a formula which makes the value of A2 dependent on the value of A1. For example, we could say that A2=A1+1. Now we know that if A1 is 1, then A2 will display as 2. Similarly, if A1 is 365, then A2 will be 366. The formula is not displayed; only the value is displayed.

We will do the same thing in A3, making it dependent on A2; and A4 will be dependent on A3, and on down the column, until we reach A100, which will be dependent on A99.

Now we'll come back to the top and enter a formula in B1 that is dependent on A100, that is, B1=A100-100, or something like that.

A moment ago we said that the value of A1 didn't matter; there is a sense in which that's still true. However, whatever you've imagined that value to be, now imagine that it changed. That is, let us suppose that the value of A1 was 1; erase that and type 2. What happens? With a good modern spreadsheet program and a decent computer, the value of B1 also changes. That is, if we suppose every cell from A2 through A100 is adding one to the previous value, such that A2 equals (A1+1=)2 and A100 equals (A99+1=)100, and then B1 equals A100-100, then when A1 showed 1, B1 showed 0; but when A1 showed 2, B1 showed 1.

It's important to note that this change was, in strictly theoretical terms, instantaneous. The instant the value of A1 changed, the value of B1 changed. It doesn't matter if you've got a slow computer or a slow program and you didn't see the change immediately; it doesn't matter if you're aware that there's an imperceptible delay for processing time; it doesn't matter if you've used very complicated formulae which slow the machine. At the instant A1 changed, B1 changed. B1 was no longer equal to 0; it was instantly equal to 1.

Yet it is equally important to note something else. We could say that B1 changed because A1 changed; but there is a stricter sense in which that is not true. B1 changed because A100 changed; A100 changed because A99 changed; A99 changed because A98 changed. Every step in the chain had to be altered before B1 could be altered. In a sense, it is absolutely true that B1 changed *after* A100 changed; yet that is not a *temporal* sense, it is merely a *causal* sense. When A1 changed, every item after A1 also changed. They changed in sequence, one after another; yet they did so instantly, without passage of time.

Time is like that, or at least it is so understood by many. If you were to change an event at point A1, it would immediately change an event at point B1. All those intervening moments would have been instantly altered. Yet they would have been altered *in sequence*, and it is a sequence we can only discover by moving through time.

Now, imagine that your fantasy computer is capable of something of which no computer is capable: imagine that you could make A1 dependent on B1 without causing an error. That is what time travel is like. Normally each moment in history is dependent for its "value" on the moment that preceded it in time. When someone, or something, travels from the future to the past, suddenly that moment's value is dependent on the value of a future event, one which is itself dependent on the value of the past event. Every time the value of A1 changes, the value of B1 must compensate; and every time the value of B1 compensates, the value of A1 changes.

Our three anomalies can each be illustrated from this.

Perpetual Change

In the example we've just described, after all the events presented, B1 always winds up equal to A1-1. If A1 is 1, B1 is 0. What happens if we make our formula in A1, *A1=B1*?

It should be evident that if A starts at 0, B1 will come to -1; but at that moment, A1 will change to -1, causing B1 to drop to -2, causing A1 to go to -2, B1 to -3, and spiraling downward, repeating the loop perpetually forever without ever repeating any of the data. Also, not only do these two numbers change, all the steps between them are undergoing similar changes. The entire line we've created cannot stabilize.

Let's expand our spreadsheet a bit. Let us suppose that B1 is the beginning of a new decade. B2 is the next event. Just as the value of A2 is dependent on the value of A1, so the value of B2 is dependent on the value of B1. What is the value of B1? Its value is in flux; it is constantly changing. B2 cannot have a value, because it cannot derive a value from B1. This is different from A1, which is situated in the chain such that, from its perspective, the value of B1 is momentarily stable. B1 only changes *after* (sequentially) A1 changes. B2 cannot proceed from B1 because it's outside the loop.

If you have not recognized it, this is the **Sawtooth Snap**. In this pristine mathematical environ, it is perpetual, never resolving to either N-jump or Infinity Loop. Although this is the simplest to create on a spreadsheet, it's a lot more complicated in reality. In reality, we're not only changing the values--sometimes we're also changing the formulae.

Repetitive Change

The next example is a bit tougher to set up. Let us suppose, however, that the starting value of A1 is 1 (as it was in our original example). Let us also suppose that through the wonders of math, the outcome of our loop is *B1=-A1*, that is, if A1 is one, B1 is negative one. Now, let A1 equal B1. What happens?

A1 started at 1, and resulted in B1 being -1. That, however, changed A1 to -1. Our contracted formula tells us that B1 must equal -(-1), which is of course equal to 1. Now A1 is back to 1, B1 to -1; A1 becomes -1 and B1 becomes 1.

We have not constructed the intermediate numbers this time; however, it's clear that however they're derived, they, too, are constantly changing. However, they're not changing in the same perpetually different manner as they were a moment ago. They are merely switching between two values, that which springs from A1=1 and that which springs from A1=-1.

It is also clear that once again our continuation in B2 is impossible, because we have no fixed value for B1.

This is of course an **Infinity Loop**. Although a bit tricky to create in the example, it proves to be the easiest to create in reality. The most common way it is created is that the value of A1 is alternately made dependent on or independent of B1; that's beyond the ability of the illustration, but clearly a hazard of reality.

Stability

This is hardest to imagine in the spreadsheet program, because of the involvement of math in the process. However, it can be demonstrated.

Let us suppose that we're back to our original formula, where A1 starts at 1 and B1 winds up being equal to A1-1. Now, let us insert in A1 the formula A1=B1+1. What is this result?

For the mathematically inclined, let me quickly suggest that if A1=B1+1 and B1=A1-1, then A1=(A1-1)+1; solve for A1 and we get A1=A1.

For those for whom that was more confusing than enlightening, what we've just done is create a string of formulae which result in A1 not changing. Whatever the initial value inserted in A1, when it is replaced by the formula it retains that value. Since it retains the value, all of the equations dependent on it also retain their values, including B1.

Since B1 is no longer changing to keep pace with A1, B2 has a stable value from which to proceed.

This illustrates the **N-jump**. Although the *cause* of the value at A1 has changed, the *value itself* has remained the same, and all the values springing from it are likewise preserved. Although this did not require much effort on our parts in the spreadsheet, it is a very difficult object to achieve in reality--and the only one truly desirable.

What We Have Learned

Before anyone writes to me about fault protections and overflow errors, let me again clarify that I understand these examples won't work on our computers. I just got those error messages yesterday, as I was making changes in a spreadsheet which, in the order I made them, resulted in reflexive references. Those of you who understand computer spreadsheet programs must accept that this is some sort of fantasy program that runs properly despite those errors.

It hopefully is clear that the theory of time presented in these pages is not dependent on an idea of time as in motion. Time can easily be perceived as the playing field against which these events occur. Events still occur in causal sequence, and it can be said that causally the effects are instantaneous. That does not alter the fact that we normally will encounter the changes temporally, because we have to arrive at Noon on Tuesday--or at Cell A25--before we know the value there.

It is also hoped that by seeing these three anomalies in this context will help some to understand how and why they do what they do.

It should also be explained again that this is an illustration; it is not the theory. The theory was developed and expounded for quite a number of years before this particularly illustration was devised. Don't fall into the error of thinking that because this particular illustration shows so much so well that it is the source of the ideas. It is a relatively late way of presenting the ideas.

As always, questions will be entertained by e-mail.