Where Did the Universe’s Energy Come From?

When the books don't balance

There’s a striking image in recent scientific conversation: “So where do you find all of that negative energy, as it were, to balance the books on this?” That phrase captures the heart of a physical puzzle. We see bright stars, matter, light—“we see a tremendous amount of positive energy in the universe in the form of matter”—and yet some arguments say the universe’s total could still be zero.

"For the wrath of God is revealed from heaven against all ungodliness and unrighteousness of men..." — Romans 1:18

Behind the Words: Paul wrote Romans to urban Gentile and Jewish Christians confronting a culture that suppressed truth about God. He argued that nature itself reveals God’s power and character, even when people deny Him.

The Heart of It: Creation itself testifies to a Creator; denying the clear testimony of the world is a refusal of the evidence placed before us.** That testimony isn’t a full map to everything God has done, but it’s not silent.

Try This: Picture the night you first saw a comet streaking through the sky—your neighbors’ porch light off, the air still. Instead of explaining the streak away, consider it an invitation to ask who set the laws in motion that allow such motion at all.

We do not need to be anti-science to insist on intellectual integrity. The first law (energy conservation) and second law (entropy increases) are not quaint; they’re the bedrock of how physical systems behave. If energy cannot be created or destroyed, and entropy trends upward, a universe without a beginning looks untenable. That’s why many thinkers say a beginning is required. But then clever proposals appear.

One such proposal says the total energy of the universe could be zero—"Before the universe began, you had zero energy. After it began, you still have zero energy." The sentence is simple and seductive: it suggests you can have a universe without net energy change, sidestepping conservation worries.

But that phrase hides assumptions. To claim zero total energy we must identify clearly what counts as energy, how gravitational energy is measured (it’s negative in some formulations), and how quantum fluctuations behave on cosmological scales. Those are not mere bookkeeping details; they’re the difference between a testable claim and philosophical hope.

The Heart of It: If a claim invokes things not observable or not in evidence, treat it as provisional, not proof.** Behind the Words: scientists sometimes use speculative mathematical models to fill gaps; that’s not the same as empirical demonstration.

Try This: Name what would count as evidence for a zero-total-energy universe and ask whether we have it.

Hard Saying to Unpack: "It's just sad to me that people will stake their eternal destinies gambling on that hope." That line stings because it forces a pastoral question: are we trusting transient scientific fashions more than the witness of creation and Scripture? We must neither denigrate science nor make it an idol. Our calling is to test ideas, not people, and to hold the line between reasonable inference and metaphysical leap.

The ledger image—balancing the books on energy—helps us remember this is a ledger problem: not just math but metaphysics. It’s also human to notice the scientist behind an idea, the person wrestling with wonder, and not to mistake personal warmth for decisive proof.

Why thermodynamics still points to a beginning

The laws of thermodynamics consistently describe how energy behaves in every testable system. If we run the clock backward in a closed system long enough under these laws, disorder diminishes and eventually becomes physically impossible without a beginning.

The second law says usable energy degrades. If the universe were infinitely old, it would have reached maximum entropy already—no stars, no structures, no life. Yet we observe structure and energy gradients. That tension drives many scholars to a beginning.

Behind the Words: In the ancient world, people often read cosmic origins as cyclical or eternal. The Apostle Paul addressed audiences who could argue that nature reveals a creator; thermodynamics gives modern science a way to quantify that revelation.

The Heart of It: Laws that reliably predict physical behavior are also pointers to a beginning when extrapolated honestly.** Because these laws govern cause-and-effect, they demand an adequate cause for the cosmos’ low-entropy start.

Try This: Imagine a perfectly ordered clockwork on your workbench slowly winding down. The quiet is not evidence that it wound itself; it points to a winder, a designer, or a first cause.

Practically, ask how well a proposed naturalistic origin explains low initial entropy. Models that rely on special pleading or unobserved processes are weaker than models that describe mechanisms we can test.

Scientists sometimes respond by suggesting exotic mechanisms or that the equations we trust break down at the earliest instant. That could be true—physics evolves. But theory evolution isn’t the same as evidence that naturalism explains everything. We must be careful not to flip from healthy scientific curiosity into faith in speculation.

Is the multiverse a scientific answer to fine-tuning?

The universe shows remarkable fine-tuning: small changes in constants would make galaxies, stars, or life impossible. One proposed escape hatch is the multiverse—an infinity of universes where, given enough trials, one lands with the right ticket.

That idea is tempting because it reframes improbability as inevitability. But there’s a critical difference between a mathematical possibility and empirical science. We have no evidence for other universes; we simply have this one universe we can investigate.

If a claim postulates realms forever beyond possible observation, it slips into metaphysics rather than empirical science. The anthropic reasoning that highlights our conditional observation can be a helpful reminder, but it doesn’t by itself establish an unseen ensemble of worlds.

Behind the Words: The Anthropic Principle arose because scientists noticed fine-tuning and sought explanations. Historically it functioned as a cautionary note: our observations are conditioned by our existence.

The Heart of It: Invoking unobservable entities to avoid the design question is a philosophical choice, not a scientific necessity.** Science does not outlaw metaphysics, but good science marks the boundary between what is testable and what is not.

Try This: Picture a vast casino with endless roulette wheels; betting that one will land a jackpot somewhere is not the same as finding the jackpot on the table before you. If someone claims an unseen roulette factory exists to make your table’s improbable winning spin inevitable, ask for evidence you could, in principle, test.

There’s a pastoral edge here. The multiverse is an attractive narrative for those uncomfortable with purpose. But beauty or intellectual comfort does not establish truth. We can appreciate creativity while insisting on standards of evidence.

How we live with questions

We live where wonder and doubt meet. Science gives tools and theories—some rock-solid, some speculative. Scripture gives a faithful framework: creation testifies to its Creator, and the call of Romans and the Psalms is to respond in trust and inquiry, not fearful retreat.

"The heavens declare the glory of God, and the sky above proclaims his handiwork." — Psalm 19:1

Behind the Words: Psalm 19 was written by a shepherd-poet who watched the skies and found theology in the cosmos. It’s poetic witness to the same conviction Paul later argued logically: nature speaks.

The Heart of It: Scientific discovery deepens worship when we see laws and constants as expressions of divine order.** When we measure a constant, we aren’t merely cataloging data—we’re reading a sentence written into creation.

Try This: Next time you learn about a cosmic constant or law, pause and name one thing you can thank God for because that law makes possible.

Skepticism toward speculative science is not hostility. We honor God when we steward truth—scientific and theological—carefully. That means asking hard questions, holding theories lightly when they lack evidence, and refusing to let fashionable ideas become the measure of faith.

We should also be humble. Physics advances; some mysteries will be better understood in years to come. But humility does not require abandoning clear reasoning. We can be both curious and anchored.

Let us keep asking the big questions—about energy, about origins, about fine-tuning—without making our confidence depend on the latest speculative theory. Read the heavens. Read the Word. Practice gentle discernment with friends who worry or who marvel. Above all, let our faith be rooted not in a passing model but in the God whom creation and conscience point to.

Remember the ledger image—when the books don't balance, we do not invent phantom entries to hide the gap. We look for the Author who set the accounts in motion.