Table of Contents

Preface

1. Scientific Theories and Laws

2. The First Decade (1936-1946)

3. Relativity

4. The Second Decade (1946-1956)

5. Quantum Mechanics

6. The Third Decade (1956-1966)

7. The Big Bang

8. The Fourth Decade (1966-1976)

9. The Non-Bang

10. The Fifth Decade (1976-1986)

11. The Never-Bang

12. The Sixth Decade (1986-1996)

13. Evolution

14. The Seventh Decade (1996-2006)

15. The Theory of More than Everything

16. The Eighth Decade (2006-2016)

17. Now What?

18. The Ninth Decade (2016-2026)

Appendix A Paintings

Appendix B TTOMTE and a Steady State Universe

Appendix C Musical Compositions

Bibliography

Chapter 0-Page 0

These gross numbers are for convenience only; the actual odds might be 99.99999999999999 in 100. Why aren't the odds one hundred in a hundred in the circle next to the center? It's because the electron can leap to the farthest circle out with one in one hundred chances. That's the big deal about quantum leaps; we don't know where the electron will go next. Why not?

It's not because we can't measure accurately but because nature itself is not sure. There's a certain amount of uncertainty to the whole thing, and pure chance gets involved suggesting there can be an effect without a cause. If you don't like this idea, you're in good company; Einstein didn't like uncaused events either. On the plus side, we possibly just got our free will back. By the way, the above chances-are map is not quite accurate because it indicates that the electron can never be outside the container. However, the electron can end up five billion miles away the next time we see it. But the chances are so close to zero, the map is about as accurate as it can be with rounded numbers.

Appendix A: 02 Chance

Before we leave the chances-are map, here's one more step away from reality we can throw at you. The formula tells us the electron may even be in two places at once, but it also says if we take a look, we'll find it in only one place. Isn't this fun? We'll get to more details about these contradictions in the next section.

Chance affects nature; we can only know the future, sort of.

HOW DOES A QUANTUM ATOM ACT

Years ago, people used to listen to music on a phonograph record; some still do. The record has a circular, spiraling groove with music etched into the sides of the groove. While the record spins, a needle stays in the groove and vibrates with the sides.

Chapter 0-Page 0

Sections

WHAT'S INSIDE MATTER

WHAT'S INSIDE ATOMS

WHAT IS LIGHT, REALLY

CAN WE PREDICT THE FUTURE

HOW DOES A QUANTUM ATOM ACT

CAN PARTICLES ACT LIKE WAVES

DO TWO SLITS MAKE SENSE

HOW DO QUANTUM NUCLEI ACT

WHAT'S INSIDE PROTONS/NEUTRONS

FINAL THOUGHTS

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