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

This toss creates the attracting force strong enough to hold all those positive protons together. The pion is called virtual because it lasts for such a short time; it's barely real. Is this strange enough? Maybe; but there's also a weak nuclear force.

What does this weak force do? It sets up a boundary around the proton-neutron bundle, the nucleus, but in spite of this boundary, an atom can still decay in two ways:

First, particles can develop enough energy to break into or out of the nucleus. This process may produce a chain-reaction as it does in stars keeping them cooking, and when a star becomes unbalanced with too much energy, it explodes. The light elements, hydrogen and helium rip apart and combine again into carbon and other heavier elements. The alchemists could have changed one kind of matter into something else; all they had to do was explode a star. Simple.

Second, the chances-are map allows a couple of protons to suddenly escape because of the uncertainty allowed when the time is right. The proton does a quantum leap to the outside of the nucleus which results in radioactivity. We'll describe radioactivity more in Chapter Seven. When a proton leaps, the atom of one kind of element automatically changes into an atom of another kind with no known cause. Even present-day alchemists aren't able to control the change.

Quantum mechanics explains why atoms stay together and why they don't.

WHAT'S INSIDE PROTONS AND NEUTRONS

We didn't like to have thousands of different kinds of atoms, so we narrowed the number to about one hundred different kinds of elements. Then we got down to three particles which was nice while it lasted. Now a whole bucketful of subatomic, exotic particles has come out of hiding.

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

Home

Prev Mark

Next Mark

First Mark

Mark This Page

Erase All Marks

Erase This Mark

Prev Page

Next Page

checkmark