The Cosmological Information Heredity & Exchange
A new book by Mohmmad Hasan Algarhy
What
if the universe remembers?
For
centuries, humanity has asked not just how the universe began, but why
it has the shape, laws, and structures we observe today. We have learned that
the universe expands, that galaxies cluster and drift apart, that stars are
born and die, and that space and time themselves are woven into the fabric of
reality by gravity. We have even learned that information — the smallest
building blocks of physical reality — behaves in ways that defy our everyday
intuitions. Yet the deepest question remains unanswered by standard cosmology: does the
universe forget its past, or does it carry memory forward into its future?
In
the prevailing Big Bang framework, the universe begins at a singular point —
infinite density, infinite temperature, and no record of anything “before.”
Time itself is said to begin at that instant. But this picture raises a
persistent tension: the laws of physics in our universe seem timeless, yet the
origin story suggests a beginning where even time does not exist. What if this
narrative is incomplete? What if the universe does not truly begin
or end?
What if it remembers?
Recent developments in theoretical physics — from quantum gravity to information theory — suggest a radical reformulation of cosmology. Instead of viewing the cosmos as arising from a singular beginning with no antecedent, a new paradigm thinks of the universe as an eternal, self-renewing system of phases. In this view, information is neither created nor destroyed: it undergoes transformation, redistribution, and periodic re-expression under different physical conditions. This perspective implies that the universe preserves a kind of cosmic memory — a deep informational continuity that transcends individual cosmological epochs.
To
understand this idea more fully, we must examine three core insights:
1. Information is physical. The laws of
quantum mechanics demand that information — the patterns and correlations in
the state of a system — is conserved even when the system undergoes dramatic
changes. This principle is not merely philosophical but emerges from the unitarity
of quantum evolution, which insists that no information about the state of a
closed system is ever truly lost.
2. Entropy does not imply erasure.
In thermodynamics, entropy is often associated with disorder and loss of
structure. But high entropy does not mean nonexistence of information; it means
that information becomes hidden, frozen, or inaccessible to ordinary
thermodynamic processes. This distinction opens the door to the possibility
that the universe could carry latent memory through phases of extreme entropy.
3. Cosmic transitions may re-mobilize dormant information.
If the universe ever transitions from one phase to another — whether through
contraction, a defreeze mechanism, or a non-singular rebound — previously
inaccessible information may become dynamically relevant again. In such a
scenario, the universe does not restart from scratch but inherits
its informational past and expresses it in new forms of physical law and
structure.
These
themes form the backbone of what this book calls The Cosmic Memory,
a framework where the universe retains and repurposes its informational
heritage through cycles of evolution. In this picture, the cosmos is both
ancient and continuous: no phase is the absolute beginning, and no phase is the
final end. Instead, the universe carries forward memory — the record of all
past states — even as it changes form.
Throughout
this book, we will explore how these ideas intersect with classical and modern
cosmology, information theory, black-hole physics, and fundamental questions
about the nature of time, laws, and reality itself. We will ask:
·
What does it
mean for the universe to remember?
·
How can
information survive cosmic evolution?
·
What happens
to information near black holes, in the deep freeze of a heat-death universe,
or through a hypothetical cosmic “bounce”?
·
Could the
universe be seen as a kind of self-evolving system, akin to a biological
process in its inheritance and variation?
In
answering these questions, we do not abandon the rigorous structure of physics;
we extend
it. We draw upon information theory, thermodynamics, quantum mechanics, and
cosmology — not as isolated disciplines, but as a unified lens through which to
see the universe as a coherent, evolving informational entity.
At
times, the journey will challenge our intuition. At times, it will require
thinking in new conceptual frameworks. But the destination is a deeper
understanding of the universe not merely as a collection of matter and energy,
but as a living archive — a cosmos that remembers.
