Six Elements and Three Interactions

Six Elements and Three Interactions

You can find six elements in the cells of all living things: carbon, hydrogen, nitrogen, oxygen, phosphorus, and sulfur. Without all of those elements, life, as we know it, could not exist. Living things require many other elements to perform various functions to survive, but those six elements are the building blocks of living cells. Life depends on those six elements and three interactions.

What do those elements have in common? For one thing, they are all non-metals. More important is that those six elements have stable atoms that are not radioactive. Radioactive decay of the atoms of some elements releases alpha or beta particles, which are destructive to living tissue. When those particles enter living tissue, they cause the release of high-energy particles in the cells. That destroys DNA, causing disease and mutations.

We are exposed to some radiation every day, but the amount is usually small, and our cells have a remarkable ability to repair themselves. If any of the six elements released radiation particles, life could not exist. Why are these six elements so stable? We have to consider the six elements and three interactions.

Three carefully balanced forces or interactions work within every atom to give stability. They are the strong force, the weak force, and the electromagnetic force. The strong force binds protons together in the atomic nucleus. The weak force is responsible for radioactive decay. Electromagnetic interaction between the protons in the nucleus and the electrons holds those electrons in the atomic shell while allowing chemical interactions between elements.

The key to stability is the precise balance between the three forces. A change in the value of any of the three would upset the balance, making our atoms unstable and life impossible. Was it mere luck that caused the delicate balance of those forces? Is it possible that the balance and our existence are just chance accidents? We think a better explanation is that the Creator of the universe carefully designed the six elements and three interactions.

— Roland Earnst © 2021

Carbon Atom Design Makes Life Possible

Carbon Atom Design Makes Life Possible

The media seems to be constantly concerned about the harmful effects of our “carbon footprint.” That phrase refers to how much carbon we kick out into the world’s environment in our daily activities. With all the concern about carbon, it is easy to overlook the fact that the carbon atom design makes life possible and demonstrates God’s engineering wisdom.

The carbon atom is one of the lightest atoms in the periodic chart. The relative weight of the standard carbon atom is 12. Uranium, on the other hand, is 25 times heavier. Carbon’s low weight means that things made of carbon are relatively light. Other elements are structured like carbon, but their weights are much heavier. Silicon is twice as heavy, and germanium is six times as heavy.

The carbon atom design makes life possible. Carbon has six electrons, but they are carefully arranged, allowing carbon to have the properties essential to life. All atoms have electrons orbiting the nucleus at different energy levels as you move out from the nucleus. Scientists give these levels letter identifications because of the spectral lines they produce. In a chemistry book, you will see the letters s, p, d, and f used to describe the spectral lines for electron orbitals of all elements in the periodic chart. The d and f orbitals are incredibly complex, but for carbon with only six electrons, the structure is relatively simple.

Carbon has two electrons in the 1s orbital closest to the nucleus and two electrons in the 2s orbital. They orbit the nucleus in a circular path. The next level out from the carbon nucleus is the p orbital, where electrons move in a figure-eight path. Three energy paths are available for two electrons each, and they are at right angles to one another.

Since carbon has four of its six electrons in the first two orbitals, there are only two electrons in the p orbital. That means there are four available openings in the carbon atom’s p orbital, and it fills those spaces by sharing electrons with other elements. If carbon is bonded to hydrogen, which has only one electron in its first orbital, the two elements will share an electron. In that way, hydrogen has two electrons filling its first orbital, and carbon will have one more of the six it needs to fill its last orbital.

Carbon will have to combine with four hydrogen atoms to complete its p orbitals, and the result is methane (CH4). Oxygen has eight electrons, so it needs two electrons to fill its third orbital, and two oxygens will share electrons with one carbon atom giving us carbon dioxide (C02).

Organic chemistry is incredibly complex since many periodic chart elements can share electrons with carbon creating different organic chemicals. This complexity allows life to exist and makes possible all of the medicines and organic materials that are a part of our everyday life. Carbon atom design makes life possible because of the Creator’s engineering wisdom.

— John N. Clayton © 2020

How the Elements Were Created

How the Elements Were CreatedScience has made significant progress in understanding many things about the universe and our planet and the life on it. However, there are many, many things that we have not yet begun to understand. There are also many things we think we understand, but we are still working on better understandings. One question involves how the elements were created.

At the time of the cosmic creation event (widely called the “big bang”), there were atoms with one proton and one electron and some with twice that many. We call simplest element hydrogen, and two hydrogen atoms combine to form helium in the process of nuclear fusion. More and more fusion took place and still is happening in our Sun and other stars. The process requires intense heat and pressure to fuse the atomic nuclei into a heavier atom.

In stars much more massive than our Sun, heavier elements up to iron can are being formed by fusing more and more atoms together. When you go beyond iron, and all the way up to uranium, even the biggest, brightest, and hottest stars can’t squeeze those atoms together. Scientists believe that the heavier elements are created in exploding stars known as supernovae. When they explode, the theory goes, ripples of turbulence form as the supernovae toss their stellar material into the void of the universe. The forces in that turbulence press more and more atoms together to make the heavier elements. As those atomic elements fly off into space, gravity pulls them into lumps which eventually become planets, such as the one on which we live.

A problem with that explanation is that when the atoms are blasted from the supernovae, they are all traveling in the same direction at perhaps the same speed. How can that produce enough force and heat to fuse them together? An alternate explanation is that the explosion within the supernova is not symmetrical, creating areas of greater density. Ultradense and ultrahot regions concentrated in small areas of the exploding mass perhaps give a better explanation of how the elements were created. (See a paper on that published in the Proceedings of the National Academy of Sciences of the United States.)

Carbon is the basic building block of all living cells. Nitrogen and oxygen, which are the next steps above carbon, bond with it along with other atoms to form living molecules. A little higher on the atomic scale are sodium, magnesium, phosphorus, and other elements which are essential to life. Iron, nickel, copper, and other metals are in molecules within our bodies, and we use them in pure form to build our homes, cars, and electronics. The heavier radioactive elements such as uranium deep within the Earth generate the heat that creates a molten iron core that generates a magnetic field which surrounds and protects us. This is a very simple explanation of a very complex system that makes it possible for us to be here.

Science is only beginning to understand how the elements were created and how they are continuing to be created. How did this amazing, complex system come into being with the precision that put life on this planet? We could declare a god-of-the-gaps to say that we don’t understand it and therefore, God did it. It is much better for us to learn HOW God did it. As we begin to see the wisdom required to put this incredibly complex universe together, we become more in awe of the Creator. We don’t have a god-of-the-gaps who “zaps” things into existence like a magician. Our God is an engineer craftsman who creates complexity and beauty that leaves us without excuse. (See Romans 1:20.)
— Roland Earnst © 2019

CLEVER Planets

CLEVER Planets Include Earth
We have often mentioned many of the conditions that must exist to make a planet habitable. The number is large and growing as science learns more about Earth’s special life-supporting features. Now NASA has awarded $7,700,000 to Rice University to conduct a five-year study to see what it takes to create a “recipe for a habitable planet.” The project has been named CLEVER Planets, an acronym for Cycles of Life-Essential Volatile Elements in Rocky Planets.

The award comes from NASA’s Nexus for Exoplanet System Science (NexSS). The research team will include experts in astrophysics, atmosphere and climate science, geology, geochemistry, geophysics, and organic chemistry. The investigators are from Rice University, NASA’s Johnson Space Center, the University of California-Davis, UCLA, and the University of Colorado-Boulder. This will be the most in-depth study of what it takes to create a habitable planet.

The lead investigator of CLEVER Planets, Rajdeep Dasgupta of Rice, wrote: “A recipe for life as we know it requires essential elements like carbon, oxygen, nitrogen, hydrogen, phosphorus, and sulfur.” Of course, that is not all that is required to create a recipe for a life-supporting planet. There are also many other conditions including liquid water, the right temperature with stable conditions, a proper atmosphere, and shielding from dangerous radiation. Having an atmosphere requires a planet of the right size to have the right amount of gravity to sustain an atmosphere. To have liquid water and the right temperature requires that the planet must be the right distance from the right kind and size of star. The planet needs a magnetic field to shield from dangerous particles coming from the star. To have a magnetic field, there must be magnetic elements inside the planet. The list goes on and on.

We look forward to seeing the results of the CLEVER Planets study five years from now. The bottom line is that it is very, very difficult to get all of the right ingredients required to create the recipe for a habitable planet. Earth is an exceptional place in the universe.

It seems doubtful that we will find any other planet similar to Earth. But as we have said before, if there is any form of life anywhere else in the universe, that has nothing to do with the existence of God. We believe in a God who can do anything He chooses to do in keeping with His nature.
–Roland Earnst © 2018

Why Such a Huge Universe?

Why Such a Huge Universe?
Here are some questions that are often asked by those who are skeptical of the existence of God: Why such a huge universe? How can we believe that a Creator cares about us when we are so insignificant in this vast cosmos? Those questions are worth considering.

There is no doubt that the cosmos is fantastically large. The Hubble Space Telescope aimed at a small area of sky no larger than one-tenth of the diameter of the Moon to take this Hubble eXtreme Deep Field photograph. The few bright spots with points of light radiating are stars. All the rest are galaxies—more than 10,000 of them in this picture! Some of them are as far away as 13 billion light-years, meaning that they were among the first galaxies formed.

If there are 10,000 plus galaxies in this tiny area of sky, that means there are 200 billion galaxies in the visible universe. Each of those galaxies contains an average of 200 billion stars. So why such a huge universe?

There were two critical factors at the beginning of cosmic existence—mass and expansion rate. If the total mass of protons and neutrons had been any less during the first moments of creation, hydrogen would not have fused into any elements heavier than helium. Then the nuclear furnaces of the stars could not have generated the elements carbon, nitrogen, oxygen, phosphorus, sodium, and potassium, which are essential for life. If the mass of protons and neutrons had been any greater at the cosmic creation, all of the original hydrogen would have fused into heavier elements like iron, and life would not have been possible.

The mass also affects the expansion rate. If the cosmic mass density had been less, the expansion rate would have been too fast to form stars like the Sun and planets like Earth. If the density had been greater, the expansion rate would have slower and all stars would have been much more massive than the Sun and would give off radiation too intense for any orbiting planets to sustain life.

In other words, the universe was fine-tuned from the moment it began! Why such a huge universe? Because it had to be. It has just the right mass and expansion rate for us to be here. We don’t think that was an accident. Through the study of astronomy and astrophysics, we can see HOW God created the universe we live in, and HOW He made it possible for us to live in it. The creation of the universe is not magic. It’s a feat of astounding engineering from the very moment of creation.
–Roland Earnst © 2018

Electrons Are Essential for Life

Electrons Are Essential in the Elements of Life
Everyone knows that electrons allow us to have computers and other electrical devices, but you may not realize how many ways electrons are essential. The mass, charge, magnetic properties, and spin of electrons are all designed to make life possible. It is amazing that something far too small for us to see is so important.

The changing momentum of electrons creates light which is essential for life. Electrons are also the fundamental cause of all that happens in chemistry. Atoms bond with other atoms to make molecules by exchanging or by sharing electrons. The complex organic molecules in your body, including DNA, are held together by electrons. The properties of every element in the universe are determined by how its electrons are arranged around the nucleus.

The oxygen atom with eight electrons joins with two single-electron hydrogen atoms to form water. The arrangement of the electrons in the oxygen atom causes the oxygen/hydrogen union to form in a way that gives water its unusual properties. The arrangement of electrons and the way the atoms bond causes water to dissolve salts, freeze from the top down, form crystals when freezing, and have surface tension. Without these unique properties of water, life would not be possible on Earth.

The arrangement of the six electrons in the carbon atom allows it to form enormous numbers of carbon compounds in various patterns. Because carbon can build so many organic compounds, our carbon-based life can exist. Without the particular arrangement of electrons in oxygen and carbon, life would not be possible.

Add to carbon and oxygen more than 90 other elements and their electron arrangements, and you can see that the probability of all of this happening by chance is not reasonable. We can be sure that a Master Designer created this complex system in which electrons are essential.
–Roland Earnst © 2018

Natural Elements of the Periodic Table

Natural Elements of the Periodic Table
One of the things high-school chemistry students have to learn is how to use a periodic table of the elements. As we worked with the chart, I almost always had a student ask me how the natural elements of the periodic table came into existence. Our textbook simply said that the elements were produced by “the event that produced the universe.”

Dr. Timothy C. Beers is the chair of astrophysics in the College of Science at the University of Notre Dame. The Notre Dame Magazine for Autumn 2017 contains an interesting article about his efforts to understand the processes that formed the natural elements of the periodic table. Dr. Beers calls it “Galactic Archaeology.”

Beers was the first scientist to identify “carbon-enhanced metal-poor stars.” These stars appear to have formed very early in the creation of the universe, and thus they give a window into the past. When the universe was created, only hydrogen and helium were present. Beers and his fellow researchers are working to understand what is called a rapid neutron-capture process. When neutrons bombard the lighter elements, some of those neutrons latch on and create heavier elements. As we watch that process taking place, we see that producing the elements heavier than hydrogen and helium requires a more complex process than anyone could imagine.

The Bible simply says, “In the beginning, God created the heavens (outer space) and the earth (elements that make up our planet).” God doesn’t tell us how He did it, but Genesis 2:3 tells us that God created (did a miraculous event that humans cannot do) and made (did an event that we can do and understand). The team that Dr. Beers leads is trying to understand how God did it.

Understanding how God created the stuff that makes up our bodies is a part of seeing the handiwork of God. Dr. Beers says, “I think human beings want to know the story,” and he says that his work will surely produce a religious response. The design of the natural elements of the periodic table is amazing. Learning how God formed them is a rich source of data about God’s design and creative wisdom.

In Proverbs 8:22-23 wisdom speaks of the creation, “The Lord possessed me in the beginning of His way, before His works of old. I was set up from everlasting, from the beginning, or ever the Earth was.” Knowing how God did the marvelous creation we see around us includes the very large such as the Grand Canyon and the very small such as quarks. Understanding how He made the elements is one of the most astounding evidences of design we can see in the cosmos.
–John N. Clayton © 2017

Coccolithophores and Carbon

Coccolithophores in the Black Sea
Coccolithophores in the Black Sea

In our day of concern over carbon emissions and global warming, it is always good to see something positive taking place in the environment. Every day there is a new view in space posted by NASA at the website apod.nasa.gov. On April 24, 2017, there was a photograph taken from space of the Black Sea showing a bloom of coccolithophores. So what are they and why should you care? Coccolithophores are phytoplankton, tiny organisms that live in the large bodies of water such as oceans and seas around the world.

Why should you care? The answer to that has to do with carbon dioxide in the atmosphere. There are also viruses called coccolithoviruses that attack the coccolithophores. To protect themselves, they absorb carbon dioxide from the air and combine it with calcium to make shells of calcium carbonate–chalk. The White Cliffs of Dover are made of this chalk material that was produced by coccolithophores. In the process of protecting themselves, these organisms remove carbon dioxide from the air. It appears they may have been the agents that allowed oxygen to rise in our atmosphere to the level where animal life could exist.

The coccolithophores are very complex, and the process is good solid chemistry. The bloom that is visible from space of the coccolithophores in the Black Sea tells us that there are balances built into the earth to help reduce greenhouse gasses. It also says that this is a designed tool to allow life to exist on planet Earth. Everywhere we look on this planet, we see that a wonder-working hand has gone before. Even looking back at the Earth from outer space we can see what that hand has done and continues to do to allow us to survive.
–John N. Clayton © 2017

God’s Carbon Sink

Carbon Element Periodic Table
In our age of scary stories about global warming when alarmists are warning that humans are destroying the Earth by our huge carbon footprint, it is always good to hear something positive. That is especially true when that positive thing is something people have held up as negative for a very long time. I have stood on the edge of a huge swamp in the southern part of the United States and wondered what possible use an area like that would have. You can talk about providing a home for insects, birds, or rare tropical plants, but the swamp still looks like a wasteland with its mile after mile of muck and dead vegetation.

Imagine a swamp that covers 56,000 square miles and has a depth of 20 feet of ugly black muck. Why would God create a place like that? What possible use can it have? That huge swamp is the Cuvette Centrale peatlands in Africa’s central Congo Basin, and it has been accumulating for nearly 11,000 years. We now know that this particular swamp is a huge carbon sink. Recent measurements by scientists show that this one swamp holds about thirty billion tons of carbon. That’s the equivalent of 20 years of United States fossil fuel emissions. Satellite measurements have shown this swamp is sixteen times larger than previous estimates. Chemical studies show it is highly acidic and devoid of oxygen so it traps carbon that would otherwise escape into the atmosphere.

Planet Earth can sustain the amount of life it does because it is was engineered with a design anticipating the various cycles and conditions that are needed for life to continue. There seems to be a number of design features that help to balance our carbon footprint. Caring for a place like this huge swamp means being careful about how we use what God has given us. Reference: The Week, February 3, 2017, page 19, and https://www.theguardian.com/environment/2017/jan/11/worlds-largest-peatland-vast-carbon-storage-capacity-found-congo.
–John N. Clayton © 2017