Creationism in Crisis - More Elegant Grandeur That The Little Gods' Prophets Never Told Us About

Part of the Sagittarius C region near the Milky Way’s core, revealing a dense star-forming area with numerous protostars and infrared-dark clouds.

NASA’s James Webb Space Telescope

Hidden Wonders: Webb Space Telescope Detects Unexplained Structures in Heart of Milky Way

How is it that hardly any major religion has looked at science and concluded, “This is better than we thought! The Universe is much bigger than our prophets said, grander, more subtle, more elegant?” Instead, they say, “No, no, no! My god is a little god, and I want him to stay that way.” A religion, old or new, that stressed the magnificence of the Universe as revealed by modern science might be able to draw forth reserves of reverence and awe hardly tapped by the conventional faiths.

Carl Sagan,
Pale Blue Dot: A Vision of the Human Future in Space

The Universe as described in Genesis 1: 6-10

Compare the following images taken by NASA's James Webb Space Telescope with the way the founding prophets of the Abrahamic religions described the Universe.

The full view of the James Webb Space Telescope’s NIRCam (Near-Infrared Camera) instrument reveals a 50 light-years-wide portion of the Milky Way’s dense center. An estimated 500,000 stars shine in this image of the Sagittarius C (Sgr C) region, along with some as-yet-unidentified features. A vast region of ionized hydrogen, shown in cyan, wraps around an infrared-dark cloud, which is so dense that it blocks the light from distant stars behind it. Intriguing needle-like structures in the ionized hydrogen emission lack any uniform orientation. Researchers note the surprising extent of the ionized region, covering about 25 light-years.

Credit: NASA, ESA, CSA, STScI, Samuel Crowe (UVA)

There's never been any infrared data on this region with the level of resolution and sensitivity we get with Webb, so we are seeing lots of features here for the first time. Webb reveals an incredible amount of detail, allowing us to study star formation in this sort of environment in a way that wasn’t possible previously.

Samuel Crowe, the observation team’s principal investigator
University of Virginia, Charlottesville, VA, USA

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The galactic center is the most extreme environment in our Milky Way galaxy, where current theories of star formation can be put to their most rigorous test.

Professor Jonathan Tan
University of Virginia, Charlottesville, VA, USA

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The galactic center is a crowded, tumultuous place. There are turbulent, magnetized gas clouds that are forming stars, which then impact the surrounding gas with their outflowing winds, jets, and radiation. Webb has provided us with a ton of data on this extreme environment, and we are just starting to dig into it.

Rubén Fedriani, a co-investigator of the project
Instituto Astrofísica de Andalucía, Andalucia, Spain.

Amid the estimated 500,000 stars in the image is a cluster of protostars – stars that are still forming and gaining mass – producing outflows that glow like a bonfire in the midst of an infrared-dark cloud. At the heart of this young cluster is a previously known, massive protostar over 30 times the mass of our Sun. The cloud the protostars are emerging from is so dense that the light from stars behind it cannot reach Webb, making it appear less crowded when in fact it is one of the most densely packed areas of the image. Smaller infrared-dark clouds dot the image, looking like holes in the starfield. That’s where future stars are forming.

Approximate outlines help to define the features in the Sagittarius C (Sgr C) region. Astronomers are studying data from NASA’s James Webb Space Telescope to understand the relationship between these features, as well as other influences in the chaotic galaxy center.

Credit: NASA, ESA, CSA, STScI, Samuel Crowe (UVA)

This image of Sagittarius C (Sgr), captured by Webb’s Near-Infrared Camera (NIRCam), shows compass arrows, scale bar, and color key for reference. The north and east compass arrows show the orientation of the image on the sky. Note that the relationship between north and east on the sky (as seen from below) is flipped relative to direction arrows on a map of the ground (as seen from above).
The scale bar is labeled in light-years, which is the distance that light travels in one Earth-year. (It takes 3 years for light to travel a distance equal to the length of the scale bar.) One light-year is equal to about 5.88 trillion miles or 9.46 trillion kilometers. The field of view shown in this image is approximately 50 light-years long.
This image shows invisible near-infrared wavelengths of light that have been translated into visible-light colors. The color key shows which NIRCam filters were used when collecting the light. The color of each filter name is the visible light color used to represent the infrared light that passes through that filter.

Credit: NASA, ESA, CSA, STScI, Samuel Crowe (UVA)

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