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Table of Contents Table of Contents Introduction 4 Chapter 1: Twentieth-Century Cosmology 22 Chapter 2: More Recent Developments in Cosmology 36 Chapter 3: Misconceptions about General Relativity, Cosmology, and the Big Bang 58 Chapter 4: Problems With the Big Bang 76 Chapter 5: Non-Biblical Alternatives to the Big Bang 86 Chapter 6: Creation-Based Cosmologies 92 Chapter 7: Conclusions and Recommendations 106 Appendix: Observational Astronomy: How We Know What We Know about the Stars 114 Endnotes 134 Answers to Chapter Questions 135 Index 138 3 CH AP ter One TWENTIETH- CENTURY COSMOLOGY Modern Physics For two centuries Newtonian physics had successes unparalleled in the history of science, but toward the end of the 19th century several experiments produced results that had not been anticipated. These results defied explanation with Newtonian physics, and this failure led in the ear- ly 20th century to what is called modern physics. Modern physics has two important pillars: quan- tum mechanics and general relativity. Quantum mechanics is the physics of small systems, such as atoms and subatomic particles. General relativity is the physics of very high speeds or of large con- centrations of mass or energy. Both of these realms 22 are beyond the scope of everyday experience, and that is supported by the pre-determined world so quantum mechanical and relativistic effects are of Newtonian mechanics. With Newtonian me- not usually noticed. In other words, Newtonian chanics if one knows all the properties, such as mechanics, which is the physics of everyday expe- location and velocities of particles at one time, all rience, is a special case of modern physics. such properties of the particles can be uniquely Some creation scientists view both quantum determined at any other time. This ability is called mechanics and general relativity with suspicion. determinism. It would appear that quantum Part of the suspicion of quantum mechanics stems mechanics leads to a fundamental uncertainty from the Copenhagen interpretation, a philo- that even God cannot probe. Uncertainty usually sophical view of quantum mechanics. In quantum results from ignorance, that is, we lack enough mechanics, the solution that describes location, input information to be able to calculate future velocity, and other properties of a particle is a states of a system. However, the uncertainty wave function. The wave function amounts to introduced by quantum mechanics is not one of a probability function. Where the value of the ignorance, and so we call this uncertainty funda- wave function is high, there is a high probability mental. By “fundamental uncertainty” we mean of finding the particle, and where the value of the that even if we had infinite precision of all the wave function is low, there is a small probability relevant variables, we would still fail to predict the of finding the particle. This result is pretty easy to outcome of future experiments. Possible responses understand when one considers a large number of to this objection are that either the Copenhagen particles — where the probability is high there is a interpretation is wrong or that quantum mechan- greater likelihood of finding more particles. ics is an incomplete theory. Phillip Dennis1 has However, how is one to interpret the result argued that quantum mechanics is probably an when considering only a single particle? The incomplete theory and that the uncertainty is no Copenhagen interpretation states that the particle problem for the Christian. exists in all possible states simultaneously. The One objection to modern relativity theory particle exists in this weird state as long as no one comes from the misappropriation of the term observes the particle. Upon observation we say by moral relativists. Moral relativists claim that that the wave function collapses and the particle everything is relative and that general relativity has assumes some particular state. If the experiment given physical evidence of this. General relativity is conducted often enough, the distribution of says no such thing. In fact, it says just the oppo- outcomes of the experiment matches the predic- site, that there are certain absolutes. Even if this tions of the probability function derived from the assertion were true, this is a specious argument. wave solution. Physical laws have no bearing upon morality and This suggests a fundamental uncertainty ethics. Another reservation about relativity that about the universe that runs counter to the some creationists have is its perceived intimate Christian view of the world and an omniscient relationship with the big-bang cosmogony. The God. An omniscient God would presumably reasoning seems to be that if the big bang is not know the outcome of any experiment, an idea true, then relativity is not true either. But the big 23 bang is just one possible result from relativity. situations of constant speeds near the speed of Creation-based cosmogonies could be generated light. Suppose that a space ship were moving at with relativity theory, as has been attempted by 60% the speed of light toward a stationary person. Russ Humphreys.2 Now suppose that the stationary person shined Those who doubt either or both pillars of a light toward the moving astronaut. One might modern physics also express discomfort with think that if the moving observer measured the them, feeling that they just defy “common sense.” speed of the light beam, that speed would be However, there are many things about the world 160% the speed of light. If, on the other hand, the that defy common sense. For instance, the au- space ship were moving away, one might expect thor of this book never ceases to be amazed by that the measured speed of the light would be Newton’s third law of motion, that when an object 40% of the normal speed of light. However, actual exerts a force upon another object, the second measurement reveals that the speed of light is a object exerts an opposite and equal force upon the constant no matter how much the observer may be first object. We shall see shortly that one of the moving. This sort of result was obtained by the fa- questions addressed by general relativity is how mous Michelson-Morley experiment in 1887. This gravitational force is transmitted through empty fact was one of the first experiments that showed space. Newtonian physics simply hypothesizes the failure of classical Newtonian mechanics. that the force instantly and mysteriously acts over Einstein took the invariance of the speed of great distances. This too defies common sense. light as a postulate and examined the consequenc- The important question for any theory is how well es. He found that near the speed of light, time it describes reality. must slow down as compared to time measured Both theories of modern physics have been by someone who is not moving. The length of the extensively tested in experiments and have proven spacecraft must decrease as speed increases, and to be very robust theories. These theories have the mass of the body must increase with increas- been better established than almost any others in ing speed. These effects are respectively called time the history of science. Therefore in what follows dilation, length contraction, and mass increase, it will be assumed that these models are correct, and all have been confirmed in numerous experi- if not complete. Both theories play important ments. Incidentally, special relativity predicts that roles in modern cosmology, but only relativity is mass increases toward infinity as speed approaches significant in the historical development of mod- the speed of light. Thus, to achieve light speed ern cosmology, so further discussion of quantum would require an infinite amount of energy. This is mechanics will be deferred until the next chapter. impossible, so no particle that has mass can move While many people worked on the founda- as fast as the speed of light. tion of modern relativity theory, Albert Einstein General relativity is concerned with accelerated usually receives most credit. His special theory of motion at high speeds. Unfortunately it requires relativity was published in 1905, followed by his the use of complicated mathematical abstractions, general theory in 1916. The special theory is not and so it is not easy to understand. While we that difficult to understand. It deals with the will not discuss any mathematical detail, we will 24 Mirror four dimensions of space. Any two dimen- Granite table sions of space could be represented as lines floating in mercury on graph paper, but instead of being flat Incoming like graph paper, the space is curved. The light Mirror mathematics of curved space is similar to that of a curved sheet of graph paper. Beam splitter What causes curvature of space? On a large scale it can be a property of space it- self, but on the local level curvature results from the presence of matter or energy. It takes a large amount of energy or matter to curve space. Greater mass or energy will curve Michelson - Morley space by a greater amount. The mathematical ex- experiment pressions of general relativity describe the amount of curvature present as a result of the mass or en- ergy. Keep in mind that space here refers to a four- dimensional manifold that includes time, so we Telescope should properly call it space-time. Objects move qualitatively describe what the theory attempts through space on straight paths called geodesics. If to do. the space-time through which an object moves is As stated earlier, one question that general flat, then that object will appear to us to move in a relativity attempts to explain is how gravitational straight line or remain at rest. If on the other hand force is transmitted through empty space. The there is much matter or energy present so that the sun is 93 million miles from the earth, and yet the space-time is curved, the straight trajectory of the earth somehow not only knows how far away the object through space-time will cause the object to sun is, but also in which direction the sun is and appear to accelerate as we observe it.
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