Comment on “Issachar Insight – Chuck Missler and Barry Setterfield”

I rarely comment on other’s videos. But in this case I felt compelled to do so. About 1 year ago I saw this Issachar Insight video of a discussion between Chuck Missler and Barry Setterfield regarding Setterfield’s physics. Please don’t interpret the following as being critical of a Christian brother, but of his theory only.

Bsetterfield

Barry Setterfield on Chuck Missler show

I know Mr Setterfield is a biblical creationist and he has developed his own ideas on various aspects of alternative physics to promote, in his mind, that the speed of light (c) was much faster back at Creation than it is now. The speed of light, c, allegedly slowed down to its current value, from the Creation to the present time, by a factor of something like 10 million times. This is referred to as c-decay or cdk.

His idea I once found very exciting as a potential solution to the biblical creationist starlight travel-time problem.  That was about 1980 and since then we have learned that basic experimental physics in the cosmos undermines it. The new detection of gravitational radiation from the merger of a black hole binary further strengthens the case against it.

Comments made after watching the video

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What impact does the detection of gravitational waves have on biblical creation?

The discovery of gravitational waves

Figure 1: The gravitational-wave event GW150914 observed by the LIGO Hanford (H1, left column panels) and Livingston (L1, right column panels) detectors. Times are shown relative to 14 September 2015 at 09:50:45 UTC. For visualization, all time series are filtered with a 35–350 Hz bandpass filter to suppress large fluctuations outside the detectors’ most sensitive frequency band, and band-reject filters to remove the strong instrumental spectral lines. Top row, left: H1 strain. Top row, right: L1 strain. GW150914 arrived first at L1 and 6.9 ms later at H1; for a visual comparison, the H1 data are also shown, shifted in time by this amount and inverted (to account for the detectors’ relative orientations). Second row: Gravitational-wave strain projected onto each detector in the 35–350 Hz band. Solid lines show a numerical relativity waveform for a system with parameters consistent with those recovered from GW150914 confirmed to 99.9% by an independent calculation (details in original). Shaded areas show 90% credible regions for two independent waveform reconstructions. One (dark gray) models the signal using binary black hole template waveforms. The other (light gray) does not use an astrophysical model, but instead calculates the strain signal as a linear combination of sine-Gaussian wavelets. These reconstructions have a 94% overlap. Third row: Residuals after subtracting the filtered numerical relativity waveform from the filtered detector time series. Bottom row: A time-frequency representation of the strain data, showing the signal frequency increasing over time. (Caption edited from the original, Ref. 6)

Figure 1: The gravitational-wave event GW150914 observed by the LIGO Hanford (H1, left column panels) and Livingston (L1, right column panels) detectors. Times are shown relative to 14 September 2015 at 09:50:45 UTC. For visualization, all time series are filtered with a 35–350 Hz bandpass filter to suppress large fluctuations outside the detectors’ most sensitive frequency band, and band-reject filters to remove the strong instrumental spectral lines. Top row, left: H1 strain. Top row, right: L1 strain. GW150914 arrived first at L1 and 6.9 ms later at H1; for a visual comparison, the H1 data are also shown, shifted in time by this amount and inverted (to account for the detectors’ relative orientations). Second row: Gravitational-wave strain projected onto each detector in the 35–350 Hz band. Solid lines show a numerical relativity waveform for a system with parameters consistent with those recovered from GW150914 confirmed to 99.9% by an independent calculation (details in original). Shaded areas show 90% credible regions for two independent waveform reconstructions. One (dark gray) models the signal using binary black hole template waveforms. The other (light gray) does not use an astrophysical model, but instead calculates the strain signal as a linear combination of sine-Gaussian wavelets. These reconstructions have a 94% overlap. Third row: Residuals after subtracting the filtered numerical relativity waveform from the filtered detector time series. Bottom row: A time-frequency representation of the strain data, showing the signal frequency increasing over time. (Caption edited from the original, Ref. 6.)

On 14 September 2015 at 09:50:45 UTC the two gravitational wave detectors of the Laser Interferometer Gravitational-Wave Observatory (LIGO)—one at Hanford, Washington and the other at Livingston, Louisiana—simultaneously observed a transient gravitational-wave signal. The signal exhibited the classic waveform predicted by Einstein’s general relativity theory for a binary black hole merger, sweeping up in frequency from 35 to 250 Hz, and exhibited a peak gravitational-wave strain of 1.0 × 1021 at the detectors.1

The two detectors recorded the same signal, which matched the predicted waveform for the inspiral and merger of a pair of black holes and the ringdown of the resulting single black hole. The signal was observed with a matched-filter signal-to-noise ratio of 24 and a false alarm rate estimated to be less than 1 event per 203,000 years, equivalent to a statistical significance greater than 5.1σ (where 1σ represents 1 standard deviation).2 In other words, the detection is highly likely to be real.

The source lies at a luminosity distance of about 1.3 billion light-years corresponding to a redshift z ≈ 0.09.3 The two initial black hole masses were 36 M and 29 M,4,5 and the final black hole mass is 62 M, with the equivalent of 3 M radiated as gravitational waves. The observations demonstrate for the first time the existence of a binary stellar-mass black hole system but, more importantly, the first direct detection of gravitational waves and the first observation of a binary black hole merger. Continue reading

A question on the Anisotropic Synchrony Convention

IDL TIFF file

Hubble Ultra-Deep Field Credit: NASA

I received the following question on the Anisotropic Synchrony Convention (ASC) a timing convention. The ASC is a timing convention used in biblical creationist models of Jason Lisle and myself. It relies on the language of appearance, that the Author of the events in Creation week used such language in describing when events occurred. God said He made the stars on Day 4, so if any observer was on the earth then (which there wasn’t, of course) he would have seen the stars appear in the night sky of that day. Read the Related Reading below for a full explanation. The writer’s comments are in blue indented text and my response in grey text.

I have been ruminating and now I am ventilating. :^)

Intellectuals who study the heavens are the modern priests of the religion of Science. They speak to the world through esoteric formulas, computers, telescopes, satellites, space probes, deep solar system images, and advanced degrees that few humans can attain to but which are the credentials of entrance into a very elite religion. These modern priests step out of their ivory towers with scientific pronouncements based upon data that 99% of the population has no means of refuting, or even discussing. They are on the cutting edge of discovery and unbiased reality and matter-of-fact truth. Words from an ancient book, the youngest writings of which are nearly 2000 years old, coming from a time when transportation at its best was by foot or animal or wind, are impartially assessed as archaic, factually shallow, imaginatively intriguing, but, in veracity, vacuous. Miracles of authenticity in 2016 come from science, but the miracles of God are only found on the pages written in the progressively improbable antiquated past. Continue reading

Hairy dark matter is still dark matter, which is still a fudge

The solar system might be a lot hairier than we thought.” So says a recent report1 on a new theoretical study soon to be published in the Astrophysical Journal by Gary Prézeau2 from NASA’s Jet Propulsion Laboratory. His theory proposes the existence of long filaments of dark matter, which have a form similar to “hairs.” See Fig. 1 reproduced from the published report. If you thought dark matter couldn’t get any stranger you would be wrong. But what is driving these type of theoretical investigations?

earthmightha

Figure 1: Artist illustration showing Earth surrounded by hypothesized theoretical filaments of dark matter called “hairs.” Credit: NASA/JPL-Caltech

Pie Dark Matter Dark Energy

Figure 2: Pie chart showing the alleged dark matter and dark energy percentages in the Universe

Dark matter is the alleged invisible, mysterious matter that comprises 24% of the total mass/energy content of the Universe. The matter that we are all familiar with, they say, comprises only about 5% of the mass/energy content of the Universe. The remaining 71% is the alleged dark energy, a strange anti-gravity-type energy that is allegedly driving the accelerating expansion of the Universe. See Fig. 2. Continue reading