“First,” England said, his tone friendly and unassuming, “let me just say that this theory is not
For the next three minutes, the physicist outlined his new idea, which—like most paradigm-altering concepts—was unexpectedly simple.
Jeremy England’s theory, if Langdon understood it correctly, was that the universe functioned with a singular directive. One goal.
To spread energy.
In the simplest terms, when the universe found areas of
Langdon suddenly understood why Edmond had asked him about the world’s Creation myths—all of which contained imagery of energy and light spreading out infinitely and illuminating the darkness.
England believed that there was a twist, however, which related to
“We know the universe promotes entropy and disorder,” England said, “so we may be surprised to see so many examples of molecules
On the screen, several images that had appeared earlier now returned—a tornado vortex, a rippled riverbed, a snowflake.
“All of these,” England said, “are examples of ‘dissipative structures’—collections of molecules that have arranged themselves in structures that help a system disperse its energy more efficiently.”
England quickly illustrated how tornadoes were nature’s way of dispelling a concentrated area of high pressure by converting it into a rotational force that eventually exhausted itself. The same held true for rippled riverbeds, which intercepted the energy of fast-moving currents and dissipated it. Snowflakes dispersed the sun’s energy by forming multifaceted structures that reflected light chaotically outward in all directions.
“Simply stated,” England continued, “matter self-organizes in an effort to better disperse energy.” He smiled. “Nature—in an effort to promote
Langdon had never thought of it until now, but England was right; the examples were everywhere. Langdon pictured a thundercloud. When the cloud became organized by a static electric charge, the universe created a bolt of lightning. In other words, the laws of physics created mechanisms to disperse energy. The lightning bolt dissipated the cloud’s energy into the earth, spreading it out, thereby increasing the overall entropy of the system.
Langdon wondered absently if nuclear bombs might be considered entropic tools—small pockets of carefully organized matter that served to create chaos. He flashed on the mathematical symbol for entropy and realized that it looked like an explosion or the Big Bang—an energetic dispersion in all directions.
“So where does this leave us?” England said. “What does entropy have to do with the origins of life?” He walked over to his chalkboard. “As it turns out,
England drew an image of the sun radiating energy down onto a tree.
“A tree, for example, absorbs the intense energy of the sun, uses it to grow, and then emits infrared light—a much less focused form of energy. Photosynthesis is a very effective entropy machine. The concentrated energy of the sun is dissolved and weakened by the tree, resulting in an overall increase in the entropy of the universe. The same can be said for all living organisms—including humans—which consume organized matter as food, convert it to energy, and then dissipate energy back into the universe as heat. In general terms,” England concluded, “I believe life not only
Langdon felt a thrill as he pondered the logic, which seemed quite straightforward: If blazing sunlight hit a patch of fertile dirt, the physical laws of the earth would create a plant to help dissipate that energy. If deep-ocean sulfur vents created areas of boiling water, life would materialize in those locations and disseminate the energy.
“It is my hope,” England added, “that one day we’ll find a way to prove that life indeed spontaneously emerged from lifeless matter … a result of nothing more than the laws of physics.”