WHAT ARE EXTREMOPHILES?

It doesn't "prove" that life began on earth before our sun was created. It doesn't even suggest that. The protoplanetary disc formed around the sun and the planets grew from that material. But I agree that these organisms and conditions under which they grow are are "fascinating".

I also find it fascinating what has recently been discovered: in the desert regions of Namibia, Oman and Saudi Arabia, research work has revealed special phenomena that can probably be traced back to the activity of an unknown microbiological life form.

Subfossil Fracture-Related Euendolithic Micro-burrows in Marble and Limestone

This is one scientific theory as to the creation of our solar system some 9 billion years after the creation of those first massive stars that lit up the darkness of the expanding space.
Whether or not a better theor y than that which we have today will develop, time will tell.

This theory would appear to support the biblical statement, that the process of the division of the waters above from the waters below, [See Genesis 1: 6; KJV] or the division of the solar nebula cloud from the greater Galactic nebula cloud, began some five billion years ago, and that the whole process began with the division of the waters (cloud) above, from the waters (Cloud) below from which the entire Solar system was created. This took just a few hundred million years, about 400 million years in fact, and the creation of our entire solar system was completed by about 4.6 billion years ago.

It was from the galactic nebular cloud, which was the residue of the heavier elements that were exploded off with the great super nova, which was the death of one of those gigantic earlier generation Stars, that our Milky-Way galaxy would be formed in the second creative period=day, as the active universal forces brought about a division of the Solar nebular cloud [The Waters Below] from the Galactic nebular cloud [The Waters Above].
The accretion of the galactic nebula disk, which was being attracted to the central Black Hole around which it had begun to orbit, transferred angular momentum outward as it transferred mass inward, it was this that caused our solar nebula to begin to rotate and condense inward, bringing a division of the solar cloud, from the galactic cloud, or the waters above from the waters below.

Within the greater nebular cloud, which was slowly beginning to revolve around the Black Hole that anchored it in space, a piece of the larger cloud complex started to collapse about five billion years ago. The cloud complex had already been "polluted" with dust grains from previous generations of stars, so it was possible to form the rocky terrestrial planets as gravity pulled the gas and dust together, forming a solar nebula. As the cloud=waters of the solar nebula collapsed, its slight rotation increased. This is because of the conservation of angular momentum.

Just like a dancer who spins faster as she pulls in her arms, the cloud began to spin as it collapsed. Eventually, the cloud grew hotter and denser in the centre, with a disk of gas and dust surrounding it that was hot in the centre but cool at the edges. As the disk got thinner and thinner, particles began to stick together and form clumps. Some clumps got bigger, as particles and small clumps stuck to them, eventually forming planets or moons. Genesis 1: 6—9. As the heavenly cloud was gathered together in one place, dry land, or rather planets began to form.
Near the centre of the condensing cloud, where planets like earth formed, only rocky material could stand the great heat. Icy matter settled in the outer regions of the disk along with rocky material, where the giant planets like Jupiter formed.

As the cloud continued to fall in, the centre would get so hot that it would eventually become a star and with a strong stellar wind, would blow away most of the gas and dust from which the planets of the solar system had been formed.

By studying meteorites, which are thought to be left over from this early phase of the solar system, scientists have found that the solar system is about 4.6 billion years old! As the solar nebula collapsed, the gas and dust heated up through collisions among the particles. The solar nebula heated up to around 3000 K so everything was in a gaseous form. The solar nebula's composition was similar to the present-day Sun's composition: about 93% hydrogen, 6% helium, and about 1% silicates and iron, and the density of the gas and dust increased toward the core where the proto-sun was: [PROTO SUN.]. The inner, denser regions collapsed more quickly than the outer regions.

PROTO-HUMANS WERE NOT HUMANS AND THE PROTO-SUN, WAS NOT YET OUR SUN.
Around Jupiter's distance from the proto-Sun the temperature was cool enough to freeze water (the so-called "snow line" or "frost line"). Further out from the proto-Sun, ammonia and methane were able to condense. There was a significant amount of water closer to the Proto-sun, but could not condense. When the solar nebula stopped collapsing it began cooling, though the core that would later form the Sun remained hot.

This meant that the outer parts of the solar nebula cooled off more than the inner parts closer to the hot proto-Sun. Only metal and rock materials could condense (solidify) at the high temperatures close to the proto-Sun. Therefore, the metal and rock materials could condense in all the places where the planets were forming. Volatile materials (like water, methane and ammonia) could only condense in the outer parts of the solar nebula.

Because the density of the solar nebula material increased inward, there was more water at Jupiter's distance than at the distances of Saturn, Uranus, or Neptune. The greater amount of water ice at Jupiter's distance from the proto-Sun helped it grow larger than the other planets. Although, there was more water closer to the proto-Sun than Jupiter, that water was too warm to condense. Material with the highest freezing temperatures condensed to form the chondrules that were then incorporated in lower freezing temperature material. Chondrules (from Ancient Greek chondros, meaning grain) are round grains found in chondrites. Chondrules form as molten or partially molten droplets in space before being accreted to their parent asteroids.

Any material that later became part of a planet underwent further heating and processing when the planet differentiated so the heavy metals sunk to the planet's core and lighter metals floated up to nearer the surface.
Because of its great compression, the core of the proto-Sun finally reached about 10 million Kelvin and after the planets of the solar system had been created, the hydrogen nuclei started fusing together to produce helium nuclei and a lot of energy. It was then that the proto-Sun "TURNED ON" and became our Sun, which produced the strong winds called T-Tauri winds named after the prototype star in the constellation Taurus.

These winds swept out the rest of the nebula that was not already incorporated into the planets. With most of the cocoon gas blown away, the new star itself becomes visible to the outside for the first time. This whole process took just a few hundred million years and was finished by about 4.6 billion years ago. At the distance of about one light year from the earth, is the great icy Dome, that is the boundary of the firmament of our heavens, in which the sun, moon, and planets of our solar system were created.

But that doesn't show that life on earth existed before the sun. I think you're trying to read too much into the creation story in Genesis. There are elements in nearly all creation myths which might be liberally interpreted as analogous to various scientific theories. Fire, water, wind, land, stars, and life are all great raw materials which, when mixed together with imagination, can yield countless narratives. And some statements, in isolation, may be congruent with aspects of modern knowledge.

The bible states that life had begun to evolve on earth before the condensing super hot solar nebula finally reached about 10 million Kelvin and after the planets of the solar system had been created, the hydrogen nuclei started fusing together to produce helium nuclei and a lot of energy. It was then that the proto-Sun "TURNED ON" and became our Sun.

And science now agrees that Life on earth did not need sunlight in order to evolve.

No. It doesn't.

And survived the subsequent condensing super hot ten millionºK solar nebula? I doubt it. Now, certain chemical precursors and potentiators of future biological evolution were formed before the universe was a couple of billion years old – but they weren't alive.

James Webb Space Telescope spies earliest complex organic molecules in the universe

The chemicals reside within a galaxy that formed when the universe was about 10% of its current age.


space

And having survived the subsequent condensing super hot ten millionºK solar nebula, the life that was evolving on earth continued to survive and evolve after the condensing super hot ten millionºK solar nebula started fusing the hydrogen nuclei together to produce helium nuclei and a lot of energy and the condensing super hot ten millionºK solar nebula, finally became our sun.

Extremophiles, fascinating organisms that thrive in extreme environments, are believed to have first appeared on Earth billions of years ago. I would say about 4.6 billion years ago, shortly before the creation of our sun, which completed the creation of our solar system.
Some scientists suggest that life may have originated around hydrothermal vents deep beneath the ocean's surface. These vents release hot, mineral-rich water, creating an environment where extremophiles could thrive without sunlight, relying instead on chemosynthesis for energy2.
Their resilience and adaptability have made them a key focus in understanding the origins of life on Earth and the potential for life in extreme conditions elsewhere in the universe.

I believe, if life is to be found in this solar system apart from that which has evolved on earth, it will be found in the water ocean on Enceladus, a moon that orbits the planet Saturn, which is about 6 miles (10 kilometers) deep and lies beneath a shell of ice 19 to 25 miles (30 to 40 km) thick, researchers said. Further, it's in direct contact with a rocky seafloor, theoretically making possible all kinds of complex chemical reactions — such as, perhaps, the kind that led to the rise of life on Earth.
What heat must radiate from that rocky seafloor to maintain a liquid ocean 10 kilometre’s deep beneath a shell of ice 19 to 25 miles (30 to 40 km) thick.