astronomy Creation/evolution Physics

Earth created from water

The Bible teaches that God first created the earth from a ball of water.  “And the earth was without form, and void; and darkness was upon the face of the deep. And the Spirit of God moved upon the face of the waters.” (Genesis 1:2)

About 70% of the earth’s surface is covered in water and much water is found in the mantle also. Ref. 3. Credit: PBworks Service

To the contrary, the dominant evolutionary theory for many decades has been that the earth’s water was derived from ice-rich comets or asteroids, which allegedly hit the planet after it formed 4.5 billion years ago. Now new research overturns those notions and brings the ‘official’ secular creation story closer to the Genesis account. A team of scientists found evidence that,

Earth has had water since the beginning of its formation,” according to planetary scientist Lydia Hallis, who led the team.1

Their recent paper,published in Science, has the following abstract:

The hydrogen-isotope [deuterium/hydrogen (D/H)] ratio of Earth can be used to constrain the origin of its water. However, the most accessible reservoir, Earth’s oceans, may no longer represent the original (primordial) D/H ratio, owing to changes caused by water cycling between the surface and the interior. Thus, a reservoir completely isolated from surface processes is required to define Earth’s original D/H signature. Here we present data for Baffin Island and Icelandic lavas, which suggest that the deep mantle has a low D/H ratio (δD more negative than -218 per mil). Such strongly negative values indicate the existence of a component within Earth’s interior that inherited its D/H ratio directly from the protosolar nebula. (emphasis added)

This claimed discovery and its interpretation were boldly announced in the online Earth & Space Science News with the headline “Earth’s Water Came from Space Dust During Planetary Formation.” The article translates the science thus:

A new analysis of lava from the deep mantle indicates that water-soaked dust particles, rather than a barrage of icy comets, asteroids, or other bodies, delivered water to the newly forming Earth.1

Hallis and the team looked at the ratio (D/H) of the heavy form of hydrogen (deuterium) to the ordinary form. In the rocks (lava from deep in the mantle) they found a value of D/H much lower than that found in the earth’s oceans. They then interpreted this low value as strongly indicative of Earth’s water being derived from the alleged solar nebula, of gas and dust, from which it is alleged that the sun, the planets and all the smaller bodies in our solar system formed.

astronomy Cosmology Creation/evolution Physics

Dark Matter and the Standard Model of particle physics—a search in the ‘Dark’

The Standard Model of particle physics (SM) has been very successful at describing the elementary particles and the forces that bind them together. However, the Standard Model presents some significant problems for big bang theorists. This is because the SM does not contain any Dark-Matter particles, and the neutrinos in it are described as exactly massless. Which means that in its present form, it is in clear contradiction with the big bang model as required by various observations.

Those observations have led to the need to include Dark Matter in the standard (ΛCDM1) big bang model, particularly during the period of nucleosynthesis, just after the big bang beginning when the light elements were allegedly formed from hot hydrogen. Therefore, the Standard Model of particle physics is in stark disagreement with the requirements necessary for the formation of the first elements in the alleged big bang.

Where are the Dark-Matter particles?

All challenges to the standard ΛCDM big bang model have been met and overcome, so far, by assuming ‘unknowns’ particularly Dark Matter and Dark Energy, wherever and whenever needed. Astronomical observations have led big bang astronomers and cosmologists to look for these new unknown Dark-Matter particles to solve many of their problems resulting from such observations; for example, the formation of stars, galaxies and galaxy clusters, the testing of the big bang model with type Ia supernova measurements, the angular power spectrum of the CMB anisotropies, galaxy rotation curves, and in particular, as focussed on here, Big Bang Nucleosynthesis (BBN).2