20131030

Scientific Faith vs. Religious Faith



Figure 1. Sidney Harris’s famous cartoon implying the difference between science and religion (Copyright credit: ScienceCartoonsPlus.com).

Most of today’s scientists consider the opposition between science and religion to be one of facts vs. faith. They are wrong. These folks simply have not thought deeply enough into what it is they are doing. Every line of thought always has beginning points. That is what logic is all about. It is just that the beginning points for science and religion are complete opposites. We cannot prove any of these beginning points beyond all doubt, that is, each beginning point constitutes a “faith,” not a fact. That is why there are, and always will be, interminable debates about which “faith” is correct.

Thus, when scientists say “there are material causes for all effects,” they are expressing a “faith,” not a “fact.” In an infinite universe, there is no way anyone could discover all of the causes for even one effect. Still, as scientists, we know that every effect must have a material cause; otherwise, we would not look for causes and would cease to be scientists. We do not believe in miracles (Figure 1), which are claimed to be without material causes. The “faith” expressed in the deterministic sentence leading this paragraph has never failed us—we have trillions of observations and experiments supporting our faith. Based on that faith, our observations and experiments done on the external world have led to facts and predictions having a high degree of precision and accuracy. Science has progressively enriched our lives, with average life spans, for instance, increasing from 40 years to 80 years. With all that support, why do I still insist that science is based on faith? I will get to that in a minute or two.

Although it is true that science has extremely strong support for its faith, the problem is, religion does too. Despite all the material advances by science, religion is still the biggest fish in the pond. Most religious folks live in a world containing a great deal of “evidence” that they are on the right track. Relatives, friends, politicians, and reporters all speak of imagined things as if they were real. Official-looking “sacred” books and well-meaning speeches pepper us with reminders that there may not be material causes for all effects. Schizophrenic folks report talking to god himself. There are severe penalties for those who, despite all this, begin to think that there is not enough material evidence to support their faith. Then too, religion supposedly has the advantage over science in that it gives meaning to it all. It turns out that the “meaning” usually involves “salvation,” which promises that living after dying amounts to more of the same, albeit with a bit more perfection and perhaps a few more virgins than were afforded the first time. Given the logical beginning points on which all this is based, religion is not illogical. It would only be illogical if one did not agree to use those beginning points.

To discover the differences between the scientific faith and the religious faith, we must uncover the foundations of those two divergent logical paths. And who does that? As a scientist, I was never much interested in this subject until I became aware of the Big Bang Theory, which hypothesizes the explosion of the universe out of nothing. Now, my training in science depended on a quite different proposition, conservation, that matter and the motion of matter can be neither created nor destroyed. Obviously, cosmologists were not following the logic that I was. There were inklings that the Big Bang Theory was just another creation myth, but that was hard to believe, what with all the support it got among cosmologists and physicists. The demathematized versions appearing in the mainstream press nevertheless tended to deobfuscate the theory, demonstrating its obvious contradictions. Curiosity got the better of me as I searched for the answer to a question bigger than I was.

As a mainstream scientist, I was reluctant to go against such a well-established theory and yet, I could not understand why otherwise logical folks could believe in the explosion of the entire universe out of nothing. Calling the initial state a mathematical “singularity” did not impress me. Kuhn[1] hinted at what was wrong by proposing his paradigmatic model, but failed to tell us how folks could think so differently. I discovered a better clue to clear thinking long ago when I studied geometry. In addition to emphasizing clear definitions, the authors of my text required us to begin with assumptions, statements that we “accept as true without proof.”[2]

That was it—different strokes for different folks! I set about finding out what those strokes were. I was evolving from a fact/faith guy to a faith/faith guy. Although I previously had passed it up many times in the U.C. Berkeley library, among the most important books I finally read on the basic problem was R.G. Collingwood’s “An Essay on Metaphysics.”[3]

He had five main points:
1.     All thinking begins with subconscious presuppositions;
2.     Presuppositions become assumptions as soon as they are brought into the light of day through vocalization or script;
3.     Fundamental assumptions are never completely provable;
4.     All fundamental assumptions have opposites that are untrue if the first is true;
5.     If you hold more than one assumption, they both must be consupponible. That is, they must not contradict one another.

Following Collingwood, I discovered ten fundamental assumptions that fulfilled his criteria.[4]

Surprise! Surprise! Among the most important is what I called the Fifth Assumption of Science, conservation (Matter and the motion of matter can be neither created nor destroyed). Its opposite, of course, is creation, which assumes that something could be created out of nothing. Another was the Eighth Assumption of Science, infinity (The universe is infinite, both in the microcosmic and macrocosmic directions). The opposite is finity, which assumes that the universe is finite. This one clearly fulfills the 3rd criterion—no one is going to travel to the end of the universe to obtain the ultimate proof or disproof of this particular “faith.” It turns out that the assumption of infinity solves the problem I had with the Big Bang Theory and its rejection of my belief in conservation. It also answers a question that bedeviled my youth: If there was a god that created the universe, then who or what created that god? And who or what created the god who created that god and why did she take so long? Infinity would not go away.  The answer, of course, is that the universe has always existed despite the contrary faith promulgated by cosmologists and men of the cloth.

Education and Faith

I found that most scientists, particularly cosmologists and physicists, seldom admit that they hold hidden presuppositions or a “faith” upon which their interpretations are based. They generally claim to have no preconceived notions about how things work. This naïve belief that they work without foundational assumptions underlies the hubris behind their “fact” vs. “faith” statements. Of course, no one can avoid preconceived notions. We all have a history. Like the religions, the scientific “faith” is derived from the environment that nurtured us. Protestants tend to beget protestants; Catholics tend to beget Catholics; and scientists tend to beget scientists. That is why half of all Nobelists have worked under Nobelists. To be a great scientist, associate with great scientists.

There is, however, one big difference between the scientific faith and religious faith: the depth and breadth of involvement with the natural world. That is why engineers and natural scientists are more skeptical of the Big Bang Theory than mathematicians and theoretical physicists. That is why education is the true enemy of religion.


Evolutionary biologist, Jerry Coyne, gives an example of the process in his Blog of 20131013:




“Most Orthodox Jews reject evolution. At TAM this year, I met two ex-Orthodox Jews who had been brought up to reject evolution and, in both cases, studied the subject to be able to attack it more effectively. And in both cases they became convinced of evolution’s truth, which undermined their faith, and then left the religion.”



That is right; exposure to the outside world (education) invariably produces folks who lean toward the scientific faith rather than the religious faith. That, of course, is why religions tend to avoid outside influence at all costs. It is the reason for cloisters, fellowships, religious grade schools, high schools, and colleges. The scientific faith thrives on exposure to the external world, while the religious faith does not.

Of course, there is religious “education” too, which mostly consists of continual repetition of the stories and anecdotes handed down by the elders in each sect. Experiments and observations that might add new information are not encouraged. Nonetheless, any exposure to the outside world does just that, stirring those still awake to propose reforms that handle some of the resulting contradictions. The evolutionary purpose of religion is to instill and enforce loyalty. Unfortunately, the defensive posture of the cloister is not always sufficient. The inevitable tendency for a particular social microcosm to expand puts it in jeopardy as it encroaches upon the territory of other sects. The current religious wars are good examples.

Any aggressive move by a particular sect may result in the annexation of new territory and resources, but it also risks exposure to the outside world. The most feudalistic, backward tribe must learn about the deterministic properties of modern weapons in order to prevail. Proselytizing of any sort faces the same contradiction: any exposure to the outside world becomes a teaching moment. Jehovah’s Witnesses, who come to your door, should not be ignored. They at least deserve a lesson in atheism.

Lessons from the external world, however, cannot change Collingwood’s main point: that fundamental assumptions are never completely provable. No matter how many material causes we discover, we can never discover all of them. Science’s claim that there are material causes for all effects must forever remain an unprovable assumption. That is why there is an interminable debate between science and religion; between determinism and indeterminism. Those who hold opposing assumptions must “agree to disagree,” because there is no possible final experiment or observation that could be used to decide which is correct. But, as mentioned, our assumptive choices will depend on our history. Scientists, who need to understand and predict phenomena, must choose deterministic assumptions, while the clergy, who need to fulfill the dreams of their parishioners, must choose indeterministic assumptions.

Nothing is lost if we wake up, finally agreeing that thinking begins with assumptions. Nonetheless, there are important reasons for the snooze to continue. The main one is the interminable philosophical struggle between determinism and indeterminism (aka, science and religion). The aftermath of the most recent phase of that conflict has left scientists with many presuppositions that are not scientific. Bringing those presuppositions and their contradictions into the light of day has taught me that replacement of the Big Bang Theory by the Infinite Universe Theory will be a big deal, removing the last vestiges of creation from our view of the world and of ourselves.


After all that, Rick Dutkiewicz, a determinist of the first order, still had this to say:

"Faith" implies an end to questioning and testing. "Assumption" implies room for tweaking the definition of our assumptions. Maybe I shouldn't think of it that way.

I agree, you shouldn't. We have all been brainwashed with the fact/faith dichotomy. We need to get over it. The reality is that the stuff we argue over will never be decided by one more observation or experiment. Those debates, like the freewill vs. determinism debate, are nearly useless, as can be shown a zillion times. We just need to choose one or the other and see how it works for us. I choose determinism--I rather like observations, experiments, and predictions that really work. I think that works better for understanding the universe than all the phantasmagorical dreams of the indeterminist.

I guess I need to reemphasize my motivation for using the words “faith” and “assumption” instead of the word “fact” in describing the difference between science and religion. One reason is that is the correct way of doing it. The certainty assumed and connoted by the word “fact” simply does not exist.[5] Another reason is that the faith usage is pedagogically important at this historical moment. Major paradigm shifts require reexamination of fundamental assumptions. I am fully aware of all the bad connotations of the word “faith,” but that is the only way I can understand and explain the persistence of the Big Bang Theory. How else could trained scientists choose creation over conservation? They ignore that glaring contradiction or say that the “fact” that the universe is expanding requires that we chose creation. Some even have the temerity to say that the laws of physics were themselves products of that creation. As I have shown, the interpretation that the universe is expanding also is based on indeterministic assumptions. Once the paradigm shift is complete and the deterministic assumptions, conservation and infinity, have prevailed, folks will begin to think of the universe as infinite. Those assumptions will then take on the connotations of the word “fact.” There will be less reason for talk of the “scientific faith” once the dust settles. In the meantime, the cosmogonist’s denial that the Big Bang Theory is founded on “faith” or indeterministic assumptions will continue to be part of the philosophical struggle.




[1] Kuhn, T.S., 1970, The structure of scientific revolutions (2nd edition) (2 ed.): Chicago, University of Chicago Press, 210 p.


[2] Keniston, R.P., and Tully, Jean, 1953, Plane geometry: New York, Ginn and Company, 392 p.


[3] Collingwood, R.G., 1940, An essay on metaphysics: Oxford, Clarendon Press, 354 p.


[4] Borchardt, Glenn, 2004, The ten assumptions of science: Toward a new scientific worldview: Lincoln, NE, iUniverse, 125 p. . [Also Chapter 3 in: Borchardt, Glenn, 2007, The scientific worldview: Beyond Newton and Einstein ( http://www.scientificphilosophy.com/The%20Scientific%20Worldview.html ): Lincoln, NE, iUniverse, 411 p.]

[5] Ibid, p. 30.

20131023

Types of Redshift in an Aether Medium (Part 3)


Type IV  The Cosmic Redshift

The cosmic redshift (Figure 1) supposedly indicates that the universe is expanding. Once we confirm the true cause of this type of redshift, it will mean the end of the expansion hypothesis and the Big Bang Theory. According to neomechanics, we assume that the cosmic redshift cannot be a result of any one of the other types of redshift. In an infinite non-hierarchical universe, of course, with microcosms moving in all directions there still would be Doppler Effects. Half would be blueshifts and half would be redshifts.  The cosmic redshift cancels out some of the blueshift of light from objects moving toward us, and adds to the redshift of light from objects moving away from us. The cosmic redshift also must include the small redshift produced by all luminous objects as their light encounters denser aether when it leaves the baryonic-rich environs of the source.

The rest of each cosmic redshift obviously reflects the great distances involved. In neomechanics, no microcosm or motion of microcosms could travel from point A to B without losses. Perfect transmission of matter or the motion of matter, like perfectly empty space, is only an idealist’s dream—a dream that Hubble himself refused to accept. He totally rejected the oft-repeated claim by regressive physicists and cosmogonists that he had discovered that the universe was expanding. This put him squarely in the “tired light” camp, which eschews perfect light transmission.

As the holy grail of efforts to undermine the Big Bang Theory, there have been numerous attempts to explain the cosmic redshift because of tired light, without much success. One example is the Shapiro Effect, which is a time delay observed for light as it passes through the atmosphere of a cosmic body[3]. The Shapiro Effect, however, is simply another manifestation of the misnamed “gravitational redshift.” As I explained above, light slows down and is blueshifted as it nears a massive body and enters the atmosphere. It speeds up again and is redshifted when it leaves the massive body. The blueshift and redshift cancel each other out, although the atmospheric entrance and exit takes extra time causing the “Shapiro Delay.” It is true, as Jerrold Thacker says, that light probably will traverse many of these atmospheres during its 13.8-Ga travels. Again, that would cause a time delay, but would not cause a redshift.

In seeking the cause of the cosmic redshift, we need not concern ourselves with corpuscular theory. That is because we assume light to be motion: a wave in the aether. For light to be transmitted as a wave for over 13 billion years without losing motion, each of those waves would have to be reproduced perfectly. That simply cannot happen. When it doesn’t, there is no mechanism by which a wave could gain energy, but the imperfection of the transmission guarantees many ways it could lose energy. In wave transmission, energy losses show up as increases in wavelength. Waves are always made up of individual microcosms, which transfer the motion from microcosm-to-microcosm as seen in Wikipedia demonstrations.[4] Each of those collisions is susceptible to the six neomechanical interactions that I outlined in TSW.[5] Because aether particles are extremely dense (Planck density is 1094g/cm3), the absorption of motion internally would be slight and would not be noticed for short distances. There have been apparently unverified claims (I have no scientific reference) that sound wave frequency decreases over distance even though the effect is tiny and seldom noticed.[6] According to neomechanics, all wave motion should be redshifted over distance—references anyone? In any case, the upshot is that the only thing preventing us from understanding the cosmic redshift is aether denial.]



Figure 1. Cosmic redshift showing spectra lines for various elements being shifted to the red (long wavelength) end of the spectrum. Note that the actual colors in this Wikipedia demonstration have not been changed. From: http://en.wikipedia.org/wiki/Redshift.



[3] Thacker, Jerrold, 2013, The Shapiro Effect: Why Light From Distant Galaxies Is Redshifted ( http://www.ourcivilisation.com/thacker/shapiro.htm ), v. 2013, no. 0831.


[5] Borchardt, Glenn, 2007, The Scientific Worldview: Beyond Newton and Einstein: Lincoln, NE, iUniverse, p. 127-151.





20131016

Types of Redshift in an Aether Medium (Part 2)


Type III Redshifts Produced by Changes in the Density of the Medium

In general, a dense medium conducts wave motion faster than a less dense medium. For instance, sound travels at 343 m/s in air, 1,484 m/s in water, and 5,120 m/s in iron. The main reason for this is the closeness of the particles involved. That is why you can hear a train coming 15 times earlier by putting your ear to the railroad track. According to neomechanics, the medium for light is aether. Light travels at nearly 300,000 km/s in vacuum, but at only 225,000 km/s in water. This is because crowding by water molecules allows less room for aether in water than in vacuum. Because of this reduction in aether density, the wavelength (l) of light traveling from air to water is reduced according to the equation: 

lwater = lair/n                  (1)

The
refractive index (n) for water is (300,000 km/s)/(225,000 km/s) = 1.333. The wavelength of light is shortened to 75% of what it would have been in vacuum. Thus, sodium light with a wavelength of 589 nm in air has a wavelength of 442 nm in water. The number of cycles per second (frequency), however, remains unchanged, but because the light is slower, it travels less distance during each cycle, resulting in a shorter wavelength. As an example, if a 100 cycle/s wave travelled in air at about 300,000 km/s, it would have a length of 3,000 km. If the 100 cycle/s wave travelled in water at 225,000 km/s, it would have a length of 2,250 km. After leaving the water for the aether-rich air, the wave again would have a length of 3,000 km. Again, during the transition from water-to-air, the number of cycles/s would not change—only the velocity of light would change due to the increased aether density in air. The color of light is dependent on the frequency, not the wavelength. Thus, red laser light entering and exiting a glass of water remains red throughout the process. Note that this is another proof that light is a wave and not a particle. If it were a particle, it would require a tremendous, inordinately mysterious force for it to accelerate instantaneously from 225,000 km/s to 300,000 km/s. Of course, regressive physicists have a nice song and dance for the gullible explaining how “light particles” maintain the 300,000 km/s velocity while spinning around and being absorbed and emitted by water molecules.

One of the most important Einsteinisms (predictions that come true, but for the wrong reason) is termed the “gravitational redshift.” By using his corpuscular theory of light, Einstein predicted that photons would gain energy under the "pull" of gravity, becoming blueshifted. Photons leaving a gravitational field would lose energy as they “fought against gravity,” becoming redshifted. A famous experiment performed by Pound and Rebka (1960)[1] at a 22.5-m tower at Harvard showed that electromagnetic radiation indeed was blueshifted when directed down the tower and redshifted when directed up the tower. Many subsequent experiments have confirmed the effect, with light emitted from all sources, such as galaxies and even galactic clusters being redshifted.

The neomechanical explanation of the misnamed “gravitational redshift” denies that light can be affected by gravity, simply based on the assumption that light is motion, not matter. What is affected by gravity is the diluent contaminating the aether medium through which the light wave travels. As in the water example, the aether in Earth’s atmosphere is diluted by ordinary baryonic matter—mostly nitrogen and oxygen. Because there is less aether, light will travel slower near sea level than at high altitude where there is more aether. As we mentioned previously, aether pressure varies inversely with atmospheric pressure[2]. In this, Einstein once again got lucky. Even though light is not a particle, as he had assumed, gravity causes the macroscopic conditions that influence the transmission of light waves, but gravity does not directly affect the waves.
 
Now, this effect is tiny, with the index of refraction of Earth’s atmosphere at sea level being only 1.000277. This means that light under natural conditions in the atmosphere travels at (300,000 km/s) / 1.000277 = 299,917 km/s—0.0277% slower than in vacuum. For yellow light with a wavelength of 589 nm, the reduction in velocity due to Earth’s entire atmosphere would produce a reduction in wavelength of only 0.163 nm, which normally would be undetectable. Nonetheless, the Mossbauer setup used by Pound and Rebka was so sensitive that they were able to claim a frequency change of only 1 part in 1015 for the gamma rays they used. In terms of wavelength, this would be a reduction in the 589-nm wavelength of sodium light by only 5.89 X 10-13 nm. The wavelength of light going away from Earth would be increased by a similarly tiny amount, as the velocity of light increases due to increasing aether density. Now, Pound and Rebka were exceedingly clever in that they used flowing helium gas to displace the atmospheric gases that would have produced the above degree of natural refraction. Thus, their measurement involves no significant refraction because the refractive index of helium gas is negligible and, in any case, would not be expected to have a significant gravitational gradient within the 22.5 m used in the experiment. On the other hand, aether, being densest in the distal portion of the vortex formed by each rotating body, such as Earth, always has a pressure gradient. That is, after all, what produces gravity according to our Neomechanical Gravitation Theory. This means that the "gravitational redshift" is produced by two factors: 1) natural refraction in the atmosphere and 2) increases in distal aether density due to vortex rotation of the cosmic body in question.

The result is a redshift indeed, but it is not a direct effect of gravitation as Einstein supposed. It is simply due to refraction and/or the aether pressure gradient surrounding all massive bodies, the same petard that bedevilled Eddington’s “proof” that space was curved and that light was affected by gravity in 1919. As in the Eddington experiment, it certainly is no proof that light is a particle, as erroneously interpreted by Pound and Rebka and Einstein’s followers. The equation for the experiment can be expressed as:

                          c = lu                        (2)

Where:

c = velocity of light, 300,000 km/s
l = wavelength, nm
u = frequency, cycles/s

This implies that, if c is assumed constant, then frequency must increase whenever wavelength decreases. If c should actually decrease due to refraction, as it does in water, then the wavelength would decrease by the corresponding fraction while the frequency would not. However, by assuming that both c and l were constant, Pound and Rebka were forced to conclude instead that the frequency actually increased. Because there is no known reason for frequency to change during refraction, they then attributed the faux frequency shift to gravitation and its attendant “time dilation.” Thus if one erroneously assumes that time can dilate, each second would be slightly longer, the frequency would then remain the same, and c would too. This is the origin of "time dilation" in relativity, even though time is motion and cannot possibly dilate or contract. Dilation is invariably used to protect the constancy of and maintain the ruse that light does not need a medium. The upshot on Pound and Rebka: good data; bad interpretation.




[1] Pound, R.V., and Rebka, G.A., 1960, Apparent Weight of Photons: Physical Review Letters, v. 4, no. 7, p. 337-341.

[2] Borchardt, Glenn, and Puetz, S.J., 2012, Neomechanical gravitation theory ( http://www.worldsci.org/pdf/abstracts/abstracts_6529.pdf ), in Volk, G., Proceedings of the Natural Philosophy Alliance, 19th Conference of the NPA, 25-28 July: Albuquerque, NM, Natural Philosophy Alliance, Mt. Airy, MD, v. 9, p. 53-58.


20131009

Types of Redshift in an Aether Medium (Part 1)


Hi Glenn-

Was thinking about your model for redshifting-blueshifting while camping this weekend and had some thoughts for your consideration. If you do write a paper, I think it would be very helpful for you to include some graphic illustrations. It would help me (and others) follow your train of thought. Your model explains why redshifting is observed of external galaxies, but it also needs to include an explanation of why the Andromeda galaxy is blueshifted. As I understand your model, any light source arriving from space would show redshifting as it encounters the less aether-dense atmosphere around the earth.
Bill Howell

[GB: Bill:

Thanks for the comments and questions.

I am reminded of your previous astute question: How can there be a Doppler Effect without a medium?

Short answer:

Not possible.

Long answer:

The Doppler Effect can only occur in a medium. That is why everyday explanations of it always involve a medium and aether deniers need to gloss over the medium problem when discussing light. For instance, the sound of a train or vehicle may be high pitched (high frequency waves in air) coming toward you and low pitched (low frequency waves in air) going away from you.

Some basics:

Why waves form:

Waves are produced when the motions of a particular microcosm are transmitted to the macrocosm—imperfectly, as they must be. If the idealist’s solid matter really existed, then this motion would be transferred instantaneously. We get close to this kind of motion transfer when we poke a cue stick at a billiard ball. The motion of our hands is transferred to the stick and then to the billiard ball as if instantaneous even though we know that there must be atom-to-atom contact within the stick for that to occur. As stated by the Tenth Assumption of Science, interconnection (All things are interconnected, that is, between any two objects exist other objects that transmit matter and motion). Motion is always transferred microcosm-to-microcosm. This always involves some delay, even if only for a few nanoseconds. There is wave motion within the stick, although the rigidity of the stick may prevent us from noticing it. For a medium with less rigidity, such as water, for instance, wave motion becomes obvious. Above all, though, the velocity of the wave motion and its character is dependent on the character of the medium. You can hit the water as hard as you wish, but the waves will still take their own sweet time; you can turn up the bass as loud as you wish, but sound waves in air will still travel at only 343 m/s.  

Wave components and 3D:

Having a great deal of freedom, the molecules in media such as water and air cannot be forced to transmit all their motion unidirectionally. Only an impossibly direct hit between microcosms could do that. Nonetheless, when the transfer is nearly direct, a longitudinal wave is produced in the direction of motion (sometimes called a pressure wave or P wave). In the case of light, this is called radiation pressure. When the transfer is more oblique in such squishy media, the microcosms squirt off to the side. This produces a transverse wave, which on average appears perpendicular to the direction of motion. This is often called a shear wave, because the microcosms, rushing past each other, tend to be impeded on the sides touching each other. For each pair, the resulting drag forces some of the motion to be absorbed as spin when one of the microcosms ends up rotating clockwise and the other ends up rotating counter-clockwise. Here is a good demonstration of both types of waves. Because the universe is three dimensional, the motions produced by waves have three components: 1) back and forth, 2) up and down, and 3) side to side. Good thing light is wave motion too; otherwise, polarized glasses would not work.

Redshift Primer

There are four types of redshift.

Type I  Redshifts Produced by the Motion of the Observer

With the advent of relativity, there has been much confusion about the Doppler Effect. From a neomechanical standpoint, however, the Doppler Effect is quite simple, involving two points and the wave motion between them. Type I redshifts are the easiest to explain because you can produce them on almost any body of water. If I move toward the source, I will encounter the waves it produces much more quickly. This is an observer-produced blueshift. If I move away from the source, I will encounter the waves it produces much more slowly. This is an observer-produced redshift. The redshift observer will see the waves as further apart (an increase in wavelength) and will count fewer of them per minute (a decrease in frequency) than will the folks on shore.

Type II  Redshifts Produced by the Motion of the Source

If the source moves toward me, it will produce waves that will be closer together. This is a source-produced blueshift. Unlike the observer produced blueshift, these waves actually will be close together. Both you and I will agree that the waves become closer together as the source moves toward us. A redshift will be produced when the source moves away from us. In this regard, light from Andromeda is blueshifted, because it is moving towards us fast enough to counteract redshifts produced in other ways.


Figure 1. Wave lengths are blueshifted (shortened) in the direction of motion and redshifted (lengthened) in the opposite direction (from http://bork.hampshire.edu/~sam/extraordinary/HDF.htm). Here is another good demo of red and blue shifts.

20131002

Critique of "The Scientific Worldview": Part 6e The Ten Assumptions of Science: Inseparability

Universal time, specific time, space as matter, and time as motion.

I am ever so grateful to Bill Westmiller, whose comments are in bold. The quotes marked TSW are from "The Scientific Worldview[1]":

TSW: "... If the universe is material, then the volume or space it occupies must be regarded as matter."

BW: Confusing, given your definitions. Objects have volume and occupy space, but motion also requires space between the objects to differentiate them as objects. It doesn't have to be "absolutely empty" space, just a separation that gives each object a distinct identity. In my conception, that separation is also a "thing" in the "universe". So, I don't think it's correct to say:

TSW: "The term space, used is this way, becomes another abstraction for 'all things,' i.e., matter."

BW: Space (both occupied by matter and the separation between material objects) is a thing and therefore a part of the universe. It can't be that "all things" ... the universe ... is matter. If that were the case, the entire universe would be ONE solid object. Apparently, it isn't.

[GB: Glad to see that you agree that space is matter. Thanks also for bringing up the common “universe as one solid object” misconception. We will get into this more when we discuss the Tenth Assumption of Science, Interconnection (All things are interconnected, that is, between any two objects exist other objects that transmit matter and motion)[2]. The solid object misconception is similar to the idealization required to produce the solid matter of the imagined finite particle. Let me mention that I am pretty much a believer in the “what you see is what you get” view of the universe. There is space between everything I have observed so far, but that space is always filled with other things. There is space between you and me, but that space is filled with matter: air, Earth, or cosmic particles, depending on where you are. For microcosms to move through the macrocosm, they must be bigger, denser, and/or faster than the microcosms that block their way. This obtains at all scales, with baryonic matter pushing aether-1 around and aether-1 pushing aether-2 around, ad infinitum as we argued in UCT[3]. The upshot is that there are two idealizations that the universe cannot abide: perfectly empty space and perfectly solid matter.]
 
TSW: "For the determinist, space is something; for the indeterminist, space is nothing."

BW: Odd. Didn't you just say that space is NOT a "thing"? Yes, space is "some thing" in the universe, but I don't think it is characteristic of indeterminism to assert that "space is nothing". It might be a characteristic of idealism, which imagines "perfectly empty" space, but idealists can also be determinists ... characterized by Gottfried Leibniz:

"... despite Leibniz's protestations, his God is more the architect and engineer of the vast complex world-system than the embodiment of love ..."
http://en.wikipedia.org/wiki/Gottfried_Wilhelm_Leibniz#cite_note-30

[GB: I sure hope that I never said “space is not a thing.” It sure isn't in TSW. Classical determinists, of course, were plagued by idealism of all sorts, starting with Newton’s imagined “body at rest.” It is indeed too bad that these co-inventors of the calculus could not follow up with the logical conclusion brought forth by the Eighth Assumption of Science, infinity (The universe is infinite, both in the microcosmic and macrocosmic directions).] 

TSW: "Only in ideality could matter and space be considered opposites."

BW: Agreed, but idealism is not the same as immaterialism or indeterminism. I don't think any of the advocates would say that matter and space are "opposites", only that matter occupies some space and not other space. Aside from the pure idealist, they would all agree with you that space "evinces varying degrees of solidity and emptiness".

[GB: Hey, for once we agree! As I have mentioned many times before, I avoided including idealism in the dialectical opposition I posed in TTAOS[4]. That is because, as a scientist, I used idealism all the time. When I was young, I went a bit overboard, actually thinking that ideal minerals really existed. Nothing ideal, of course, can exist, but those idealizations nonetheless help us think, prepare models, and predict reactions.]      

TSW: "Time is motion ... we measure time by measuring the motion of things."

BW: I don't think it's correct to equate the two, even if time requires motion. Nor do I think it's satisfactory to define time as something that exists only because we measure it. That's subjectivism, made explicit by Einstein: "Time has no independent existence apart from the order of events by which we measure it." This kind of definition implies that time doesn't exist until (or unless) humans measure it: a variant of Copenhagen mysticism.

[GB: Reread my blog on “Time is Motion.” My replies to many of the comments should help you out. It is good that you are starting to give up the solipsism that infected Einstein and his regressive compatriots. On the other hand, he wasn’t all that far off when I use the proper editorial chop: “Time has no…existence…”, although, unfortunately, I don’t believe that is really what he meant.”]

BW: My attempt: Time is the relationship between a past and present state of matter. If there were no distinction between the two states, time would not exist. We *quantify* the distinction by reference to some objectively cyclical motion, usually characterized as a clock. Universally, time exists independent of clocks, since there is and always has been some change in the state of some matter. If all things in existence were static, there would be no distinction between past and present states and there would be no time.

[GB: Let’s analyze your statement: “If there were no distinction between the two states, time would not exist.” Once again, you are at least being consistent, hypothesizing matter without motion. If that idealization could be correct in reality, then you are right that time would not occur. Everything you mention here illustrates that time simply is motion. Again, for clear thinking, you need to abandon the idea that “time exists.” It does not have xyz dimensions and location with respect to things--our definition of existence. If you think that it exists and therefore is material, please send me some so I can finish my next book!] 

TSW: "Universal time is the motion of each thing relative to all other things."

BW: Roughly the same thing as my explication, but you seem to be objectifying "A Superior Time" as distinct from, but dependent upon, the composite of ALL times (ie: all possible relationships). From my perspective, there is no singular Universal Time, nor any singular, universal clock.

[GB: Silly, that idealization was just a way of making folks realize that time is necessarily universal, being what all things in the universe do. I was not proposing that a universal clock was possible. Time is specific to each microcosm. For once, I agree with Einstein that each clock samples only a specific measure of universal time.]

TSW: "Speculations about going 'back in time' are mere amusements in science fiction."

BW: Agreed, but I think my definition makes it clearer that a change in the relationship of two states has no plus or minus values and the *quantification* by reference to a clock is always cumulative.

[GB: Right, univironmental motion is always unidirectional, as will be explained later under the Seventh Assumption of Science, irreversibility (All processes are irreversible).]

TSW: "But dimensionality is a property of matter; it is not a property of motion because motion does not exist; it occurs."

BW: I like this, but I think it would be more precise to say that dimensional quantities objectively exist in matter, while the quantification of time (used to measure motion) is only *fabricated* by reference to a clock. As noted earlier, I don't think it's proper to say motion (or time) do *not exist* as things, amid all things (the universe), including objects.

[GB: For the life of me, I cannot see how you could agree with that statement and still say that motion or time exists. Have you been a moderator for too long?]

TSW: "... dialectical nature of the world ..."

BW: I'll just repeat my assertion that dialectics is a useful procedure for humans to pursue truth, but that is a statement about our ability to form and modify valid concepts ... it is not a characteristic of nature. I'm not a fan of Georg Wilhelm Friedrich Hegel.

[GB: As I mentioned before, dialectics is one of the foremost characteristics of all things and you don’t have to be a fan of Hegel to make that observation.]

TSW: "... four types of errors of logic...

1. That matter could occur without motion ..."

BW: Matter doesn't "occur" as an event in time, whether it's moving or not. Conservation requires that it always existed, in one state or another. Conservation also requires that it only moves when it is moved; it only changes it's relationship to other objects as the result of a collision "event" with another object. It doesn't "not exist" until it collides with another object, nor cease to exist when the collision ends.

[GB: Good catch. Thanks so much. The proper word is “exist,” not “occur.”]
 
TSW: "2. That motion could occur without matter ..."
"3. That matter is motion
"4. That motion is matter

BW: Agreed, though #4 seems to contradict your earlier proposition that motion is not a "thing" distinct from matter.

[GB: I don’t quite get what you mean by that. Remember that these four statements illustrate common mistakes, not truths. I stand by my assumption that motion is not matter.]

BW: In general, there's very little to disagree with in this chapter (in spite of my prolific notes on syntax and terminology). At worst, we disagree on whether motion "creates" matter or that matter "requires" motion for its existence.

[GB: Disagree. It seems that you disagree with at least half of the essentials of inseparability despite your wonderfully conciliatory tone. If I ever said that motion “creates” matter, please let me know where that was. We must agree to disagree on whether matter requires motion for its existence. I suspect that you may never realize that there can be no matter without motion. I predict that your inability to accept this will give us plenty of trouble in the rest of your review.]

Next: Conservation

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[1] Borchardt, Glenn, 2007, The scientific worldview: Beyond Newton and Einstein ( http://www.scientificphilosophy.com/The%20Scientific%20Worldview.html ): Lincoln, NE, iUniverse, 411 p.


[2] Borchardt, Glenn, 2004, The ten assumptions of science: Toward a new scientific worldview ( http://www.scientificphilosophy.com/assumptions.html ): Lincoln, NE, iUniverse, 125 p.


[3] Puetz, S.J., and Borchardt, Glenn, 2011, Universal cycle theory: Neomechanics of the hierarchically infinite universe: Denver, Outskirts Press ( www.universalcycletheory.com ), 626 p.


[4] Borchardt, Glenn, 2004, The ten assumptions of science: Toward a new scientific worldview ( http://www.scientificphilosophy.com/assumptions.html ): Lincoln, NE, iUniverse, 125 p.