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Scientist says Big Bang theory is wrong... as they reveal how universe REALLY began

Scientist says Big Bang theory is wrong... as they reveal how universe REALLY began

Daily Mail​26-04-2025

A controversial new theory about how the universe began rejects the widely-held belief that it started with a giant cosmic eruption known as the Big Bang.
One scientist suggests that the cosmos grew through numerous rapid-fire bursts rather than a single, massive explosion.
This alternative explanation, published by professor Richard Lieu of The University of Alabama in Huntsville, challenges one of the most foundational, long-standing theories in all of cosmology.
Lieu argues that each of these bursts, known as 'temporal singularities,' blasted new matter and energy out into space, which become planets, stars, galaxies, and everything in-between.
The Big Bang theory, by comparison, proposes that the universe began as an infinitely small, hot point of densely packed matter and energy.
That point then exploded into a flood of matter and energy that rapidly expanding, and is still expanding today, though the cause of the initial explosion remains unknown.
This has been the prevailing explanation for the origin of the universe since the 1960s. But despite its prominence, this theory is challenged by new investigations into concepts like dark matter and dark energy, which invisible particles scientists believe fill the universe.
The Big Bang model cannot work without the presence of these elusive particles. But so far, scientists have not been able to prove that they exist.
Lieu believes his theory overcomes this limitation, offering a new framework for the birth of the universe that does not require dark matter or dark energy.
The temporal singularities proposed in his new paper, published in the journal Classical and Quantum Gravity, aren't confined to a single explosive beginning (like the Big Bang).
Rather, they have continued sending bursts of energy and matter out into the cosmos throughout history.
Their collective impact has pushed the universe to expand and flooded it with the materials that make up all the cosmic structures we see today.
These random bursts happen rarely and quickly, dissipating before they can be detected by current technologies like telescopes, according to Lieu.
This theory could explain the structure of the universe we see today, and why it's expanding rapidly, without the need for dark matter or dark energy.
According to the Big Bang theory, dark matter is the invisible scaffolding that holds all the structures of the cosmos in place, while dark energy is the undetectable force that is pushing the universe to expand faster and faster.
Unless we assume that these mysterious substances exist, this theory begins to fall apart.
Without dark matter, the early universe wouldn't have had enough gravitational pull for galaxies and galaxy clusters to form so soon after the Big Bang, as modern observations suggest they did.
Dark energy is needed to explain why observations show the universe's expansion rate is increasing, with scientists theorizing that it acts as a repulsive force pushing the cosmos to stretch out faster and faster.
To sum up, assuming these pulling and pushing forces exist is essential to making the Big Bang theory match what we actually see in the universe.
Lieu has attempted to rework the model of the universe so that it aligns with the known laws of physics and the observable universe without relying on forces we have not been able to directly prove.
But while his temporal singularities offer an intriguing alternative, this theory comes with its own limitations.
For one, these fleeting bursts are, by definition, unobservable. Much like dark matter and dark energy, there's no direct evidence to support their existence.
What's more, there is far more indirect evidence to support dark matter and dark energy than temporal singularities.
Lieu's theory also fails to explain what causes temporal singularities, and it still needs to be validated with experimental evidence.
To accomplish the latter, he plans to use ground-based telescopes to look for 'jumps' in redshift, a phenomenon where light from a distant object shifts toward the red end of the visible light spectrum as it moves further away.
Astronomers use redshift to calculate the expansion rate of the universe, and 'jumps' in redshift could support Lieu's claim that brief bursts of energy are driving the universe's expansion.

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Universe may have started inside black hole, not from Big Bang
Universe may have started inside black hole, not from Big Bang

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Universe may have started inside black hole, not from Big Bang

The universe may not have begun with the Big Bang as is generally thought but from the collapse of a massive black hole, a new theory suggests. Current observations of our universe appear to support the Big Bang and cosmic inflation theories, which say that the early universe sprang into existence from a singular moment in space and time and rapidly blew up in size. The theories, however, leave many fundamental questions unanswered. For one, in the Big Bang model, the universe begins with a singularity, a point of infinite density where the laws of physics break down, making it difficult to understand what existed before the beginning. Two, after the explosion, the universe is said to have undergone accelerating expansion powered by yet unknown forces with strange properties. That is to say this model of cosmology explains the origin of the universe by introducing new forces and factors that have never been directly observed while still not explaining where everything came from. The new theory, described recently in the journal Physical Review D, probes what happens when the early universe's dense collection of matter collapses under gravity instead of tracing back how it all began. This is a process similar to what happens when stars collapse into black holes, but exactly what is inside these dense cosmic entities remains a mystery. Current theories state that, under typical conditions, the collapse of extremely dense matter inevitably leads to a singularity. But how exactly the rules of quantum mechanics, which dictate the behaviour of tiny particles, apply at the ultrasmall scales of a singularity is unknown. The new theory proposes that a gravitational collapse does not necessarily have to end in a singularity. It uses mathematical equations to show a collapsing cloud of matter can become extremely dense and then 'bounce' and rebound outward into a new expanding phase. 'The bounce is not only possible, it's inevitable under the right conditions,' study author Enrique Gaztanaga writes in The Conversation. 'The cosmological implication of this new approach is a novel understanding of the origin of the universe that emerges from the collapse and subsequent bounce of a spherically symmetric matter distribution.' The theory combines the framework of general relativity, which applies to largescale cosmic objects like stars and galaxies, with the principles of quantum mechanics that dictate how tiny atoms and particles behave. Crucially, it explains an early state universe without implying the existence of mysterious forces. The new theory is also testable as it predicts that the universe is not flat but slightly curved like the surface of the Earth, researchers say. If future observations can confirm that the shape of the universe indeed has a small curvature, it could suggest that it all began from a bounce. 'The smoking gun for our bouncing scenario is the presence of a small spatial curvature,' researchers write. Scientists hope further development of the theory can shed more light on current cosmic mysteries like the origin of monster black holes, the nature of dark matter, and factors influencing the evolution of galaxies. 'The black hole universe also offers a new perspective on our place in the cosmos,' Dr Gaztanaga writes. 'In this framework, our entire observable universe lies inside the interior of a black hole formed in some larger 'parent' universe.'

Scientists claim the Big Bang theory is WRONG - as they reveal how the universe really began
Scientists claim the Big Bang theory is WRONG - as they reveal how the universe really began

Daily Mail​

time3 days ago

  • Daily Mail​

Scientists claim the Big Bang theory is WRONG - as they reveal how the universe really began

For decades, almost every scientist has agreed that the universe began in an enormous explosion known as the Big Bang. But one group of researchers now controversially claims that everything we think about the birth of the cosmos might be wrong. In a radical new research paper, Professor Enrique Gaztanaga, of the University of Portsmouth and his co-authors have proposed a new theory they call the 'Black Hole Universe'. They claim that the universe was formed by a gravitational crunch, forming a massive black hole that then 'bounced' outwards. Professor Gaztanaga claims this theory can explain everything we know about the structure of the universe without the need for any exotic elements such as dark energy. Importantly, the theory also predicts that space should be slightly curved rather than completely flat as the Big Bang model suggests. 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This so-called 'standard model of cosmology' works well for explaining many big questions such as why galaxies are where they are, but Professor Gaztanaga wasn't satisfied. The problem was that the standard model only works well when scientists make some big assumptions about how the world might work. For example, to explain why the universe is still accelerating scientists have been forced to add mysterious 'dark energy' to the picture - a force that is pushing against gravity but has never been directly observed. So, instead of looking at the expanding universe and trying to work out where it comes from, the researchers looked at what happens when matter collapses in on itself. The Black Hole Universe Theory The Black Hole Universe theory claims that the cosmos did not begin with the Big Bang. The Big Bang theory says the universe exploded outwards from a single, infinitely dense point. The Black Hole Universe suggests that the universe we now see started after a cloud of matter collapsed into a black hole. At a certain point that black hole couldn't compress any more and started to bounce outwards. Our entire universe is inside this black hole, which is nested inside a larger host universe. When large stars collapse in on themselves, they form black holes - objects so dense that not even light can escape their gravitational pull. According to the standard view proposed by Stephen Hawking and British physicist Roger Penrose, when this happens gravity squishes matter down into an infinitely dense point. This would mean that singularities, like the one in the Big Bang theory, are a natural and inevitable part of the universe. However, some scientists now think that the rules of quantum physics mean you can't keep squishing matter together forever. According to quantum physics, you can't pin down a quantum particle to a single point and two particles can't occupy the exact same location. This means that black holes must stop collapsing before gravity squishes matter into a single infinitely dense point. Professor Gaztanaga told MailOnline: 'Infinities may appear in mathematics, but they have no physical meaning. Nature doesn't work with infinite masses or infinite precision.' Therefore, when a cloud of matter like the universe collapses under gravity it will squeeze on itself until it forms a black hole before hitting this limit and bouncing back. What forms out of that bounce is a universe which looks remarkably like our own, suggesting this could be a possible way our universe began. Professor Gaztanaga says this Black Hole Universe Theory is better than the Big Bang because it solves some 'major questions the Big Bang model leaves unanswered'. 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Meet Britain's 'smartest' siblings who joined Mensa
Meet Britain's 'smartest' siblings who joined Mensa

Glasgow Times

time31-05-2025

  • Glasgow Times

Meet Britain's 'smartest' siblings who joined Mensa

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