Nadir Asteroid Impact Crater

Chicxulub and Nadir Asteroid Impact

One of the challenges to evolutionary theory is the principle of uniformitarianism–the assumption that no process has ever functioned on Earth that is not going on today. We are not talking about common disasters but events in Earth’s history that would have altered the course of evolution or stopped it entirely. For many years, scientists have known about the Chicxulub asteroid that struck the area that is now Mexico’s Yucatan Peninsula, probably causing the extinction of the dinosaurs. Such an event would have changed life’s future direction. Now, there is news of a Nadir asteroid impact crater.

BBC news reported that geologists discovered a possible asteroid crater off the coast of Guinea in west Africa. They call it the Nadir crater because it is at the Nadir (opposite lowest point) of the Chicxulub crater. This new crater is 8,500 meters wide and over 300 meters lower than the seabed. It is about the same age as Chicxulub but much smaller. The Chicxulub crater, caused by a larger asteroid, is 12,000 meters wide.

Both of these asteroid collisions would have violated uniformitarianism, dramatically affecting life on Earth. The Chicxulub asteroid impact would have caused major earthquakes, tsunamis, and a global firestorm. The result would have thrown enough dust into the atmosphere to plunge Earth into a deep freeze that dinosaurs could not have survived.

Since the Nadir asteroid impact crater is in an ocean environment, it would have caused a tsunami with a wall of water over 1000 meters high. The Nadir collision would have produced about 1,000 times more energy than Tonga’s recent (January 2022) volcano eruption. However, the energy from the Chicxulub impact would have been about 10 million times greater.

The textbook model of evolution is greatly simplified. We don’t fully understand how an asteroid collision would have affected life on Earth. It seems unlikely that most life forms could have survived the one-two punch of Chicxulub and Nadir asteroid impacts.

Genesis 1:1-3 indicates that there was a change in the Earth. An accurate translation of verse 2 is that Earth “became empty and wasted.” That is precisely what the asteroid collisions would have caused. This may have been God’s methodology of a final step to make Earth fit for human life. This new evidence supports the biblical account in ways we are only beginning to understand.

— John N. Clayton © 2022

References: BBC news August 19, 2022, and Science Advances

Synthetic Embryo and Synthetic Organs

Synthetic Embryo - Real Mouse Embryo
Real Mouse Embryo at 11 Days

Can a baby be produced in a laboratory without sperm and an egg? The answer for mice, at least, is a partial “yes.” Researchers at the Weizmann Institute of Sciences in Israel produced a “lab-created womb” in which they placed mouse stem cells producing a mouse embryo. The synthetic embryo “lived” for eight days.

Researchers could coax stem cells into a placenta or yolk sac by treating stem cells with chemicals. Then other stem cells developed into organs and tissues without intervention by the researchers. Some turned into beating heart tissue or a rudimentary nervous system. However, 99.5% of the stem cells failed.

This kind of research has a practical purpose beyond producing a synthetic embryo. For example, scientists hope to eventually grow human organs in a synthetic womb to replace diseased organs for which no donor is available. Scientists have already used this system to produce rudimentary artificial kidneys and hearts, but they are not yet suitable for medical use. Researchers are also hoping to find a way to nurture premature babies outside of the mother’s womb.

It is not true that all human stem cells come from aborted babies. Stem cells can be derived from various cells in the human body and can even be secured, under the right conditions, from a person who has just died. These stem cells are called “induced pluripotent stem cells.”

Like many efforts to produce life, researchers are copying natural processes to create a synthetic embryo of a mouse. Scientists and engineers have copied God’s creation for many practical uses. We have frequently shown how engineers have copied what they see in nature to produce everything from Velcro to jet engines. The debate among philosophers and ethics professionals concerns philosophical and ethical problems with this type of medical research.

Over and over, the biblical writers challenge us to learn from the natural world. In Job chapters 38 to 41, we see God challenging Job to deal with the creation in which he was living. Proverbs 6:6 says, “Go to the ant, you sluggard; consider its ways and be wise.” In Proverbs 8:22-31, Wisdom challenges us to think about the design and planning of God’s creation.

The struggle to duplicate the design of reproduction that God built into living things shows us how impossible it is to believe that the original creation was the product of blind chance. As Paul wrote to the Romans, “We can know there is a God through the things He has made (Romans 1:20).

— John N. Clayton © 2022

Reference: Global Research

Arctic Whales Called Narwhals

Arctic Whales Called Narwhals

When they see an unusual physical characteristic in an animal, evolutionists try to find a sexual explanation for it. If your religious belief is “survival of the fittest” and reproduction is a major part of explaining who is fit and who isn’t, you look for sexual explanations for everything in the animal kingdom. We see an example of why sexual selection is not always the complete answer in Arctic whales called narwhals.

Narwhals can weigh up to 3000 pounds and reach over 15 feet long. Their unusual feature is the world’s longest tooth. The narwhal’s tooth is a spiraling, pointed tusk that can reach nine feet long. Since the tooth appears in male narwhals, evolutionists have said that it’s just another example of sexual selection. Females pick the males with the longest tusk. That explanation is similar to cases like the peacock, where the males have elaborate feathers, which they use to attract females. Another idea is that narwhals use the tusks as weapons in conflicts between males. However, no one has ever seen the tusks used that way, and no dead narwhals have been found with a wound that appears to have come from being stabbed by a tusk.

Researchers at the Smithsonian working with the Harvard School of Dental Medicine have studied the tusks under an electron microscope. They discovered millions of tubules leading from the surface to nerve endings deep inside the tusk. The researchers believe this system allows narwhals to detect changes in water pressure, temperature, and salinity. That information would enable the narwhals to tell when water is starting to freeze, allowing them to avoid getting trapped. It also may help them locate food. Of course, that leaves a question of why females don’t have tusks, but since they travel in groups, it may be that the tusks identify the leader.

We know that the Arctic whales called narwhals have a tusk like no other animal. We know it is a tooth in structure and form, but how it became an integral part of the species is a mystery to evolutionists. We suggest it is another example of God’s design in which every animal has what it needs to survive in a given environment. The Arctic Ocean is a place where narwhals might need special survival equipment.

— John N. Clayton © 2022

Reference: The Chronicle Review Volume 52, Issue 37, page B16.

Medical Benefits of Spiders

Medical Benefits of Spiders

The entertainment industry has done much to encourage arachnophobia (fear of spiders), and it starts at an early age. Remember, “Little Miss Muffet sat on a tuffet, eating her curds and whey. Along came a spider and sat down beside her and frightened Miss Muffet away.” It’s true that some spiders have venom that is dangerous to humans. However, we can’t let arachnophobia keep us from finding medical benefits of spiders.

There are many potential benefits of spider venom and secretions in medicine and agriculture. Here are five examples:

1) The venom of a Brazilian wandering spider has an ingredient that has been found helpful in treating erectile dysfunction.
2) The venom of a South American tarantula can calm an irregular heartbeat and may be used to treat atrial fibrillation.
3) Australia’s Blue Mountains funnel-web spider has a venom that attacks the nervous system of insects that eat crops but doesn’t affect humans.
4) Spider silk can be used as synthetic muscles for drug delivery systems or robotic devices.
5) Glue secreted by orbed web spiders gets stronger in the presence of water, possibly making it useful for surgery and underwater engineering.


God built these materials into the life processes of spiders so that they could survive and fulfill their purpose in the natural world. The medical benefits of spiders are not alone in the natural world. There are many plants and animals in the creation with chemicals that can have significant medical and agricultural benefits for humans. Science can recognize God’s chemical design and copy it to solve human problems.

In Proverbs 8:22-33, we find Wisdom personified by speaking and describing some of God’s actions in the creation process. The more we know of the creation, the more we understand God’s nature and wisdom.

— John N. Clayton © 2022

Reference: Discover magazine Volume 32 #2, page 80.

Mussel Superglue and Human Problems

Mussel Superglue and Human Problems  Blue Mussels
Blue Mussels attached to rocks

Have you ever tried to glue something underwater? I needed to do that in several situations, and I have tried everything on the market. The various commercial glue and epoxy products don’t last very long underwater. That is especially true when subject to vibration or stress. Somehow, barnacles and mussels firmly attach themselves to boats and rocks underwater. How does this mussel superglue work?

A mussel has glands in its slug-like feet that secrete a glue that hardens into a filament that attaches it to a rock or hard surface in less than five minutes. Within a few days, it has a cable of several hundred such threads that will withstand years of pounding surf. Measurements show it can withstand a force of a thousand pounds per square inch and even stick to Teflon.

The U.S. Navy spends millions of dollars each year trying to find ways to stop crustaceans and mollusks from fouling their underwater equipment. Dr. Herbert Waite, a marine biochemist at the University of California studying mussel superglue, discovered that a mussel has two separate compartments to produce its glue. One compartment contains resin-like proteins, and the second produces chemicals that act like hardeners. When the two come in contact, the proteins harden in minutes.

The mussel superglue contains various adhesive proteins with different functions. Some are catalysts, while others act to separate the filaments. Some contain an amino acid called dopa that makes gels that bond filaments together. These gels have gotten significant attention from dentists and surgeons who need materials that will bond in wet environments.

Undoing mussel glue is another issue that scientists are studying. Understanding how mussel superglue works could lead to anti-glues. Dentists could apply them to teeth to prevent the buildup of dental plaque. Doctors could use anti-glues to prevent cardiovascular stents from becoming clogged. Mussel superglue is another case where studying what God has designed can give us answers to human problems.

— John N. Clayton © 2022

Reference: Discover magazine for February 2003, pages 22-23.

The Amazing Chickadees

The Amazing Chickadees

If you have a bird feeder on your property, you are probably familiar with the amazing chickadees found throughout the United States, Canada, and Mexico. The six North American chickadee species do not have large fat reserves like some birds, such as finches. Instead, their trim size gives them more mobility to evade predators such as cats or sharp-shinned hawks. However, it also means chickadees must find enough fuel daily to maintain their metabolism.

One way chickadees survive is by lowering their body temperature at night. A chickadee’s daytime body temperature is 108 degrees Fahrenheit, but it drops to around 86 degrees at night. This controlled hypothermia is a nocturnal semi-hibernation that slows their metabolism by about 25%. The next day, they must find enough food to maintain their daytime metabolism while replacing fat lost the previous night.

Besides the seeds at our bird feeders, chickadees eat caterpillars, insects, spiders, and conifer seeds. Since chickadees don’t migrate south for the winter, they store food for use during the cold months. Their stockpiles exist in various places, such as wedged into pine needle clusters or tree bark or even pounded into the ground. They store food in the lower branches of conifer trees, so it will be available when the upper branches are covered with snow. Chickadees prepare insects for storage by removing the heads of larvae and the wings of moths.

Storing food for later use requires remembering where it is, and studies have shown that chickadees can remember where they stored items for months. The hippocampus is the area of the brain involved in memory and spatial learning. In the fall, when food storage moves into high gear, the chickadee brain grows new neurons in the hippocampus. Their brain stores visual cues such as the spatial relationship between significant landmarks, allowing them to remember their cache locations from fall until the following spring.

Those of us who maintain bird feeders frequented by chickadees notice that they are not as shy around people as most birds are. The complexity of the amazing chickadees is extraordinary. They are another example of God’s design in the natural world, enabling the survival of a small creature we take for granted. This design speaks eloquently of the fact that we “can know there is a God through the things He has made” (Romans 1:20).

— John N. Clayton © 2022

Reference: National Wildlife magazine February/March 1998, pages 24 -28.

Moths Are Incredibly Beautiful Creatures

Moths Are Incredibly Beautiful Creatures such as Antheraea polyphemus
Antheraea polyphemus moth

Most of us probably have negative connotations about moths. We know that moths can cause problems in agriculture and can infest clothes left unattended in a closet. Moth balls have been in our history for a very long time. But it isn’t adult moths that eat holes in your clothing. It’s their larvae. In reality, moths are incredibly beautiful creatures, and perhaps you have not seen the most beautiful specimens because they are nocturnal.

One moth species known as Antheraea polyphemus can have a six-inch wingspan. The name comes from Homer’s epic “The Odyssey,” in which a giant called Polyphemus ate people. The giant polyphemus moth does not eat people, and neither does any other moth species. There are over 160,000 species of moths, and many of them produce larvae that eat crops that humans grow. However, adult moths have no mouths because they don’t eat anything in their adult stage.

Moths are incredibly beautiful creatures, and like virtually all living things, they are essential for humans in various ways. The domesticated silkworm in America is the larva of the moth Bombyx mori, and there are different species in different countries. Moths pollinate plants that open at night. For example, in the Himalayan ecosystem, they are primary pollinators essential to plant survival.

Some moths dig into the ground, and their larvae support underground ecosystems. The Mopane worm is a moth larva harvested as an important food source in regions of Africa. In the Congo, people eat moth larvae from thirty different species.

There are far more moth species than butterfly species – 160,000 compared to 17,500. As is true of just about everything in the natural world, we must learn how to manage and protect this resource. Mass pesticide spraying is not a positive way to manage this valuable resource God has given us.

— John N. Clayton © 2022

Reference: The Spokesman-Review for 8/4/22.

Fetal Development in the Womb

 Fetal Development in the Womb

One thing that can get lost in the rhetoric about abortion is what happens in the fetal development in the womb. The story begins around the 14th day of a 28-day menstrual cycle when an ovary releases an egg. When the sperm fertilizes the egg, the zygote, as it’s called, contains a mixture of genetic information from both parents. Fertilization usually occurs in the fallopian tube near the ovary that produced the egg.

This already growing zygote must travel to the uterus to implant itself. If the zygote lodges in the wrong place, such as in a fallopian tube, the result is a medical emergency called an ectopic pregnancy. Such a pregnancy can rupture the tube, leading to internal bleeding that can cause the mother’s death.

Once the zygote attaches in the uterus, the mother produces the hormones that nourish and protect it, allowing the growth process to continue. What might be considered a “heartbeat” can be detected long before there are chambers and valves that make up the human heart. Specialized cells create a heart tube that produces a fluttering electrical activity that can be heard with a stethoscope or detected by an ultrasound machine.

When pain signals come from the senses, they must travel to the brain’s cortex which develops at about weeks 24 or 25 of pregnancy. It is amazing that by the end of the first trimester, the developing baby has every organ it will ever have throughout its life. They merely continue to grow and develop.

People used to justify slavery by saying that blacks were humans but not persons. Nobody can support such a distinction from a scientific or moral standpoint. Yet, some have used the same failed logic to justify abortion.

The complexities of reproduction are so massive that there is still much that science doesn’t understand. Nevertheless, it is incredible that an atheist can look at the fetal development in the womb and not be amazed at the beauty and wonder of its design. “For it was you who created my inward parts; you knit me together in my mother’s womb. I will praise you because I have been remarkably and wondrously made” (Psalms 139:13-14a CSB).

— John N. Clayton © 2022

References: Science News for July 16 & 30, 2022, page 6-7; Skeptic Magazine, Volume 27 # 2 2022, page 22.

How Can a Woodpecker’s Brain Survive the Hammering?

How Can a Woodpecker’s Brain Survive the Hammering? - Pileated Woodpecker
Pileated Woodpecker

We live in Michigan with massive numbers of trees all around, allowing us to watch various wildlife. The design that allows our woods to survive involves many animals that plant seeds, prune plants, and control insect populations. One of the leading players in the control of insects is our Michigan woodpeckers. That raises the question, “How can a woodpecker’s brain survive the hammering?”

We have a variety of woodpeckers, but the most interesting to me are the pileated woodpeckers and flickers. These birds not only peck at trees removing insects that could damage the plants, but they also use their pecking to mark territories. One woodpecker hammers on the flashing of the chimney that vents our furnace. The sound is so loud that it wakes me up in the morning. But it also sends a territorial message to all other woodpeckers in the area.

The frequency of the hammering of woodpeckers is around 20 hits a second. Their heads move so fast it is hard to see the motion with the naked eye, and even a photograph at a high shutter speed shows only a blur of the woodpecker’s head. So, the big question is, “How can a woodpecker’s brain survive the hammering?”

The textbooks say that a spongy bone in the woodpecker’s skull acts as a shock absorber to protect the brain. However, recent research has shown that isn’t the case. Not only does a dissection of the woodpecker’s head not show any such bone structure, but high-speed video of three different species of woodpeckers shows that the bird’s brain decelerates at the same rate as the beak. There is no cushion for the bird’s brain.

So that does not answer the question, “How can a woodpecker’s brain survive the hammering?” The answer seems to be in the design of the bird’s brain, not in the area that surrounds the brain. Dr. Sam Van Wassenbergh at the University of Antwerp says that the woodpecker’s brain is so small and of such light-weight construction that the pecking does not generate enough pressure to damage it.

The problem with that explanation is that the woodpecker has the same functions as all other birds and does not show symptoms of a deficient brain. We also know from human studies that brain size is not directly related to intelligence. The design of a woodpecker’s brain to enable it to hammer on trees and other objects (such as chimney flashing) is an example of engineering design. Scientists need to do more research to fully understand the design God put into these birds and perhaps learn what practical applications it might have for us.

— John N. Clayton © 2022

Reference: The Week for August 5, 2022, page 21.

World’s Strongest Pinching Force

Coconut Crab with World’s Strongest Pinching Force
Coconut Crab

If you were to guess the animal with the strongest bite, you might say lions or great white sharks. However, probably no one would suggest a crustacean known as the coconut crab (Birgus latro). Charles Darwin called this animal “monstrous,” and people who live in the South Pacific can tell amazing stories about the strength of this crab. However, it’s not the jaws but the claws of the coconut crab that have the world’s strongest pinching force.

The coconut crab is the largest arthropod on Earth. It can weigh more than nine pounds (4.1 kg) and grow to a width of three feet (1 m) from the tip of one leg to the other. Its claws are so powerful that they can exert a greater pinching force compared to its size than any other animal except alligators. The coconut crab is nocturnal and can use its claws to climb trees and even hang in one position for hours. They also use their claws, known as chelae, to defend against predators.

Other animals can’t break open a coconut, but coconut crabs can do that with their powerful chelae, making that food available to them. Although they are called coconut crabs and live on islands in the Indian and Pacific oceans where coconut palms grow, coconuts are not their primary food. Instead, they eat various fruits, nuts, seeds, the pith of fallen palm trees, carrion, and any organic matter they find on the ground. If they find something that interests them, they will grab it and carry it away, earning them the name “robber crabs.”

Some of the most important animals on Earth are those that cleanup waste. They include birds that eat carrion, insects that use dung in various ways, and many other life forms. Coconut crabs use the world’s strongest pinching force to process organic debris, so it will not cover Earth’s surface. 

An area of the planet with trees that produce tough materials like coconuts would eventually become buried in debris without animals that clean up the mess. Coconut crabs are so efficient that they eat their own exoskeleton when they molt, leaving nothing to contaminate the environment. Coconut crabs are one example of the many animals that recycle organic material. 

— John N. Clayton © 2022

Reference: Encyclopedia Britannica, Wikipedia, and PLOS ONE