Just how small are atoms?

Colossians 1:15 He is the image of the invisible God, the firstborn of all creation. 16 For by him all things were created, in heaven and on earth, visible and invisible, whether thrones or dominions or rulers or authorities—all things were created through him and for him. 17 And he is before all things, and in him all things hold together

Just how small are atoms? And what’s inside them? The answers turn out to be astounding, even for those who think they know. This fast-paced animation uses spectacular metaphors (imagine a blueberry the size of a football stadium!) to give a visceral sense of the building blocks that make our world.

Higgs Boson

From the” announced Rolf Heuer, director of the European Center for Nuclear Research (CERN) on July 4. “We have a discovery. We have observed a new particle that is consistent with a Higgs boson.” Thundering applause resounded from the packed auditorium in Geneva and at the 36th International Conference on High Energy Physics in Melbourne, Australia, which was linked by a live feed.4 Joe Incandela and Fabiola Gianotti, the heads of the two large teams of scientists at CERN, announced they have detected a new subatomic particle consistent with the elusive Higgs boson, commonly called the “god particle.”

The Standard Model of physics is the currently most-accepted model to explain how the physical universe works. Within the Standard Model, which involves quantum physics, some high-energy particles—like electrons and quarks, the tiny particles comprising protons and neutrons—have rest-mass, and other particles—photons, essentially particles of light energy—have no rest-mass. But the Standard Model has not found the reason some particles have rest-mass and others do not. Theoretically, the universe is filled with a Higgs field mediated by Higgs bosons that impart rest-mass to particles of matter as they interact with it.5 The Higgs boson thus is the theoretical—and now likely observed—subatomic particle that imparts rest-mass to matter.

Mass is a measure of how much matter something contains. Gravity acts on mass to give things weight and ultimately to hold the physical universe together.

Such a subatomic particle is extremely unstable. Therefore, in an effort to find proof of the existence of the elusive particle and then to study its characteristics, physicists have for several years been colliding beams of high-energy protons in the 17-mile long Large Hadron Collider under the Alps. They study the debris resulting from the collisions in search of subatomic particles. Now that a subatomic particle closely fitting the expected characteristics of the predicted Higgs boson has been repeatedly found by the two teams, they believe they’ve found it. Read more about the physics involved and the significance of the findings atBeams Collide Today in Expensive Hadron Collider.

Over the past months there have been rumors and hints that this discovery was imminent. In particle physics, for a discovery to be deemed truly “discovered,” it must be detected repeatedly such that there is only the remotest possibility that the signals detected could have resulted from random chance. This is called a “five –sigma” level of certainty, and that is the benchmark that has finally been reached. 6

Notably, as further testing examines the nature of this subatomic particle, physicists hope to learn more about the way the universe works. As with the results thus far, repeatable observations are made and the data interpreted and compared with hypotheses and predictions. This is an excellent example of how experimental science works and how science can help us understand the way God upholds His creation.

What these results do not (and will not) reveal, as many media pundits suggest, is how the universe originated. British scientist Peter Higgs—who was on hand in Geneva for the announcement6—postulated the existence of the Higgs field that produces the Higgs boson “as the way that matter obtained mass after the universe was created in the Big Bang.7 As one of the CERN researchers added, “Without it, or something like it, particles would just have remained whizzing around the universe at the speed of light.”7

Although many believe the collision of the proton beams in the LHC re-creates the conditions of the big bang and therefore claim the Higgs discovery will unlock the secret of how the universe blew into existence without God, it does no such thing. The ability to create a situation in a present-day well-designed and enormously expensive laboratory does not prove the situation ever came about naturally in the past or that such an event produced the universe in which we live. A discovery that deepens our understanding of the nature of matter and energy does not rule out a supernaturally created origin for that matter and energy.

“Thanks, nature!” Gianotti said to laughter, alluding to the unpopular layman’s term for the Higgs boson, the “god particle.” The term was coined by physicist Leon Lederman, much to the consternation of Higgs and many in the Higgs-hunting business,8 due to his book title, The God Particle: If the Universe is the Answer, What is the Question? But though the Higgs boson can help us better understand the way the physical universe works and fill in the gaps in the Standard Model of physics, it does not explain how the universe could come into existence without allowing “a divine foot in the door.”9

A walking biological laboratory…

From the000 germ species live in and on healthy people by Lauran Neergaard, AP Medical Writer

They live on your skin, up your nose, in your gut – enough bacteria, fungi and other microbes that collected together could weigh, amazingly, a few pounds.

Now scientists have mapped just which critters normally live in or on us and where, calculating that healthy people can share their bodies with more than 10,000 species of microbes.

Don’t say “eeew” just yet. Many of these organisms work to keep humans healthy, and results reported Wednesday from the government’s Human Microbiome Project define what’s normal in this mysterious netherworld.

One surprise: It turns out that nearly everybody harbors low levels of some harmful types of bacteria, pathogens that are known for causing specific infections. But when a person is healthy – like the 242 U.S. adults who volunteered to be tested for the project – those bugs simply quietly coexist with benign or helpful microbes, perhaps kept in check by them.
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