The Molecule That Holds Every Human Being Together Is Shaped Like a Cross (Laminin)
Laminin, a crucial protein in the extracellular matrix, binds cells to tissues and organs, literally holding the human body together as a key cell adhesion molecule. Electron microscope images often depict laminin in a cross-like configuration with four arms that connect to other proteins and cell surfaces.
This structure enables laminin to form networks in basement membranes, anchoring organs and supporting cell function.
Popularized by speaker Louie Giglio, the cross shape draws parallels to Colossians 1:17: “In Him all things hold together,” inspiring faith reflections on God’s design.
While depictions emphasize the cross for illustration, scientific models confirm laminin’s T or cross form suits its binding role perfectly. The Human Brain vs Supercomputers
The human brain runs on about 12 watts of power — roughly the energy used by a small LED light bulb.
Yet with that tiny amount of energy, it can:
• Process vision, sound, and touch in real time
• Recognize faces instantly
• Generate emotions, creativity, and consciousness
• Control trillions of biochemical reactions
• Learn, adapt, and reason abstractly
To replicate even parts of these functions, modern supercomputers require millions of watts of continuous power, massive cooling systems, and entire buildings filled with hardware.
And still — they don’t come close to human intuition, creativity, or self-awareness.
This isn’t just about efficiency.
It’s about architecture.
The brain isn’t just fast — it’s elegantly optimized, massively parallel, self-repairing, and information-dense beyond anything human engineers have built.
Random processes can generate complexity.
But efficiency, integration, and purpose point to something deeper.
When extraordinary capability is achieved with minimal energy,
that’s not wasteful chaos.
That’s intelligent design.SCIENCE BRINGS YOU CLOSER TO GOD
Dr. James Tour, one of the world’s leading synthetic chemists, builds molecules for a living. He works at the very edge of chemistry, nanotechnology, and materials science—where theory meets brutal experimental reality.
And his conclusion isn’t arrogance.
It’s awe.
After decades of hands-on research, Tour openly says that the deeper he studies molecular systems, the more overwhelming their complexity becomes. Life isn’t simple. It isn’t easy. It isn’t something you casually assemble in a lab.
The chemistry required for even the simplest living system is staggeringly precise—far beyond what blind trial-and-error can reasonably explain.
That’s why Tour says his faith increased through research, not despite it.
Science doesn’t eliminate God.. . . . . .
During a recent conversation, Harvard University scientist Dr. Willie Soon explained why mathematics has increasingly convinced him that reality is not accidental — but intentional.
He openly admits he didn’t start out as a believer. In his own words, he describes himself as skeptical, even rebellious, demanding proof rather than blind faith. What changed his mind wasn’t religion first — it was physics and mathematics.
Dr. Soon points out that mathematics is often considered a “pure” abstract world, seemingly disconnected from physical reality. Yet again and again, mathematical structures developed on paper mysteriously turn out to perfectly describe the real universe.
One of the most famous examples is the work of Paul Dirac, the Cambridge physicist who formulated an equation describing electrons. When Dirac solved his equation, it produced a strange result — a negative solution that mathematically behaved exactly like an electron, but with opposite charge.
At the time, many scientists mocked the idea. Dirac refused to back down.
Years later, experiments confirmed the existence of the positron — antimatter.
A real particle predicted purely by mathematics before it was ever observed.
Dr. Soon asks a simple but profound question:
How does abstract mathematics know what exists in nature before we discover it?
This isn’t an isolated case. He also references advanced geometric structures, such as those later used in string theory, where complex mathematical ideas developed independently later turned out to describe real properties of spacetime itself.
According to Dr. Soon, these discoveries force humility.
The deeper scientists go, the more they encounter laws, symmetry, balance, and mathematical elegance that look written, not random.
He argues that this persistent alignment between mathematics and reality points toward an ever-present order behind the universe — something that doesn’t arise from chaos alone.
In his view, mathematics acts like a form of light, guiding human understanding. And rather than giving humans authority to dominate nature or claim moral superiority, it should inspire restraint, humility, and responsibility.
Dr. Soon concludes that before humanity claims the right to redesign the planet, control nature, or dictate absolute moral authority, it should first answer a deeper question:
Where did these laws come from?
Why does the universe obey them so precisely?
For him, the answer increasingly points beyond matter itself.
Mathematics doesn’t just describe the universe.
It reveals intention behind it.
For many scientists who truly understand the difficulty of life at the molecular level, it does the opposite—it points beyond nature, not away from it.
If science were truly hostile to belief, why does deeper knowledge so often lead to humility instead of certainty?