Allah, Evolution, and the Universe: What Evolution Reveals About Our Origins

The story of life on Earth is written in the language of DNA. And that story tells of a time long before dinosaurs walked, before flowers bloomed or birds sang. When Earth was home to a tiny single-sellled survivor, replicating, mutating, and adapting across billions of years, branching into everything that breathes, crawls, swims, or thinks today.

This is the evolution. When you hear the word evolution, what's the first thing that comes to your mind? I'm sure for most people it's that familiar diagram, the one showing a monkey slowly transforming into a modern human.

This illustration is everywhere in textbooks, documentaries, and memes. and it has become the unofficial symbol of evolution. But as familiar as it is, the image is scientifically inaccurate.

And this image alone is enough to show just how deeply evolution has been misunderstood and misrepresented. Whenever evolution is discussed alongside religion, the conversation often becomes tense or overwhelming. Many assume the two are incompatible.

But interestingly, the Quran itself refers to a form of evolution. In surah Nu, prophet Noah says to his people, "What is the matter with you that you do not fear the majesty of Allah when he has created you in stages? " The Arabic word used here is, which means stages or phases.

In fact, atoiris is the plural of to, a word used in classical Arabic to describe evolution. This verse clearly points to the idea of life unfolding in successive stages, something that aligns remarkably well with the concept of evolution. This is just one verse that touches on evolution, but it's not the only one.

There are several others in the Quran that I'll explain as we move forward in this series. And this series is unlike anything else on YouTube dedicated to understanding evolution through the lens of the Quran. And because the topic is often misunderstood, I'll take my time to break it down as clearly and simply as possible.

Inshallah, you'll find some fascinating ideas in this journey. This episode, however, will mainly focus on laying the foundation for the series by explaining what evolution is and presenting the evidence that supports its reality. The word evolution means a gradual process of change or development over time.

especially towards something more advanced, complex, or improved. In biology, it specifically refers to the process by which living organisms change over successive generations through genetic variation, natural selection, and adaptation. Let's break it down.

Think about all the different species we're familiar with. Cats and dogs, wolves, lions, tigers, snakes slithering in the wild, birds flying overhead, insects buzzing around us, flowers blooming with fragrance, trees giving us shade, and of course, us humans. These are all distinct biological forms.

Yet, evolution tells us that despite our differences, we are all connected. We share a common biological history. Imagine a basic family tree.

A child comes from parents who came from grandparents and so on. This is something we all understand. Evolution extends this same idea across the entire tree of life.

It tells us that humans came from a prehuman species which itself came from an even earlier life form. And if we keep tracing backward far enough, we eventually reach the earliest, simplest building blocks of life that started the process. Evolution is in essence the grand family tree of all living things.

Take a look at the image on the screen. It presents a timeline of evolution showing how life gradually developed over the past 3. 5 billion years.

For the vast majority of that time, from 3. 5 billion to around 550 million years ago, life on Earth consisted of very simple organisms, mostly single-sellled creatures like bacteria. Then something remarkable happened around 550 million years ago, a period known as the Cambrian Explosion.

During this relatively short span in geological terms, life suddenly diversified at an incredible rate. We begin to see more complex organisms emerge. Fish, amphibians, reptiles, dinosaurs, birds, and eventually mammals.

Humans, compared to this timeline, arrived just moments ago. We are one of the most recent developments in a very long and detailed story of life on Earth. The process of evolution is often divided into two categories for easier understanding.

Microeolution and macroevolution. Microeolution refers to small changes that occur within a species like variations in color, size, or behavior. For example, two cats of the same species may have different fur colors due to genetic differences.

Macroevolution, on the other hand, refers to larger scale changes that occur over much longer periods, changes that result in the emergence of entirely new species. An example would be ancient fish gradually evolving into amphibians and eventually reptiles. Now microeolution is understandable.

Consider the analogy of parents and children. Children inherit traits from their parents like eye color, height, or facial features, but they're not exact copies. Small differences naturally appear in each generation.

Over time, as these differences accumulate and interact with the environment, they can lead to noticeable variation within a population. This is essentially what micro evolution describes. Small, gradual changes within a species that we can observe even in our everyday lives.

But macroeolution involves a species changing into an entirely new species over a period of time. And this in fact will be the main focus of this series. Now that you have a basic understanding of evolution, let's take a look at its history.

Before the Enlightenment period, which lasted roughly from the 17th to the 19th century, the idea of species having a common ancestor was practically unheard of. People believed that animals and plants were created as they were and didn't change over time. The main idea at the time was based on a belief called the great chain of being GCB.

This was like a ladder of life with God at the very top. God was seen as perfect and everything below him was considered less perfect. Below God were angels, then humans, followed by animals, plants, and at the bottom minerals.

This idea meant that species were fixed. A cat would always be a cat, a lion would always be a lion, and humans would always be humans. The idea of one species changing into another like a fish turning into a land animal was completely impossible according to this view.

So for a long time the idea of evolution as we know it today didn't fit into the way people understood the world. One of the biggest misconceptions about the theory of evolution is that it was created by Charles Darwin. That's not entirely true.

Ideas about evolution existed long before Darwin was even born. What Darwin did was develop the first detailed and scientifically supported theory of how evolution works. Before him, one of the earliest scientists to offer a structured explanation of evolution was a French biologist named Jean Baptiste Lamar.

He was among the first to suggest that species could change over time and even proposed a mechanism for how that change might happen. The theory of evolution is often seen as one of the strongest tools used by atheists to argue against the idea of a creator. But what many people don't realize is that the man most closely associated with this theory, Charles Darwin, was not an atheist himself.

That's why it's important to understand the history behind the theory before jumping to conclusions about what it does or doesn't mean for belief in God. Charles Darwin, despite being the face of evolutionary theory, was not an atheist. In fact, he once said that a person could be both an ardent theist and an evolutionist.

He disliked religious conflict and questioned the need for aggressive atheism. In a letter to atheist Edward Avaling in 1881, Darwin asked, "Why should you be so aggressive? Is anything gained by trying to force these new ideas upon the mass of mankind?

" However, Darwin's personal approach to religion was cautious. When he was in his 20s, his father advised him to keep his religious doubts private. And decades later, Darwin gave the same advice to his son.

In a letter to J. Brody Inis, the local vicer and his lifelong friend, Darwin once admitted, I hardly see how religion and science can be kept distinct. But he also believed that this didn't mean the two sides should be hostile.

as he wrote, "There is no reason why the disciples of either school should attack each other with bitterness. " Darwin began his life with a Christian faith, but over the years, his beliefs gradually changed. By the end of his life, he died as an agnostic, uncertain about the existence of God, but he never became an atheist.

I shared a bit of Darwin's personal story because much like his theory, he's one of the most misunderstood figures in history. Understanding who he was matters because his work has had a massive impact on how people view religion and faith since the 19th century. You can't talk about evolution without talking about Darwin, both as a scientist and as a person.

Whenever we discuss any idea, we naturally look for evidence and proof. And when it comes to evolution, there's no shortage of it. There's a vast amount of scientific evidence supporting the process of evolution from multiple fields.

The fossil record, which refers to the preserved remains of past species, provides some of the clearest evidence for the theory of evolution. The Earth's crust is layered, with each layer representing a different period in the planet's history. Through geological and chemical analyses, we can determine the age of these layers.

When a fossil is found in a specific layer, we can usually match it with the time period during which that organism existed. There are two key principles to understand when looking at the fossil record. First, older layers are found deeper in the ground.

So, the further down we dig, the further back in time we go. Second, there is a general trend of increasing complexity in organisms as we move from older layers to more recent ones. During Darwin's time, the fossil record was incomplete and had many gaps.

However, over the past century and a half, it has been significantly expanded, providing more substantial evidence for the gradual evolution of species. Take a look at the image on the screen. It shows the progressive evolution from the skeletal structure of pachetus, a fossil discovered in Pakistan to modern whales.

Over millions of years and through many small changes, Pacetus gradually evolved into a species with fins instead of legs. This is just one example of how the fossil record illustrates the gradual evolution of biological organisms. Evolutionary biologists have also used the gaps in the fossil record to make predictions about certain species.

One famous example is the discovery of tictalic. Based on the broad principles of evolution, scientists hypothesized that life began in the sea. Over millions of years, as fish evolved, some must have developed traits that allowed them to venture onto land.

Evolutionary biologists predicted that a transitional species would be found, an organism that exhibited features of both aquatic and land animals. The discovery of Tectalic was significant because it fit this prediction perfectly. It had features commonly found in fish such as scales and fins, but also possessed a primitive lung system, traits necessary for life on land.

Tectalic represents an important transitional fossil providing clear evidence of the shift from sea to land animals. Genetics provides some of the most definitive evidence for evolution. To understand how, let's consider a simple analogy.

Imagine a library full of books where each book represents a unique genetic code of a species. Over time, some of these books are read and rewritten. Each rewrite may change a word, remove a sentence, or add a new chapter.

Occasionally, the book stays the same, but with each change, the story gradually evolves. Now, imagine a future reader discovering these books and trying to reconstruct the history of changes that led to the current versions. Since each book change is small and incremental, the reader can trace back through the edits, piecing together how the story evolved over time.

This is similar to how genetic changes work in evolution. Just as small modifications in the books accumulate over time, genetic variations in organisms build up, leading to new species. By studying genetic differences and similarities across species, scientists can trace the evolutionary history and identify how small changes led to the diversity of life we see today.

One compelling aspect of genetics is the presence of non-functional genes known as pseudo genes. These are genetic remnants that are passed down through generations and species serving as unique markers of biological lineage. Humans and chimpanzees, for example, share very similar pseudo genes, which strongly supports the idea of a common ancestor between the two species.

This genetic similarity provides further evidence for the theory of evolution and the interconnectedness of life through shared ancestry. Biological homology is another piece of evidence. It is the study of similarities and the features of different species that can be traced back to a common ancestor.

When a species evolves, its descendants might branch off into different directions, adapting to different environments. As a result, these offspring species may develop distinct features. However, some of the basic structures from the parent species can still be found in the offspring species, though they might look different or serve different purposes due to the environmental pressures each species faced.

Take a look at the image on the screen, which shows the skeletal structures of a human, a dog, a whale, and a bat. Although humans have hands, dogs have legs, whales have fins, and bats have wings, there are still striking similarities in their bone structure, especially in the arrangement and number of bones in the forlim. These structural similarities show that these species once shared a common ancestor.

Even though each species looks and functions very differently, the similar bone structure suggests that they evolved from a common ancestor that had a similar skeletal layout. Over time, as each species adapted to its own environment, their features changed to suit their needs. For example, human hands are adapted for gripping and manipulating objects, while bat wings are adapted for flying.

These shared features, despite their differences in function, are a key piece of evidence for evolution. We've been discussing how species evolve into more advanced forms and sometimes even into entirely new species. But this raises an important question.

If species evolve through the process of evolution, how did the very first species come into existence? Darwin's theory of biological evolution doesn't address this question. It doesn't attempt to explain how the first life, likely a simple single-sellled organism, came to be.

Instead, Darwin's theory focuses on how new forms of life emerge from simpler pre-existing ones over time. It provides a framework for understanding how life evolves and diversifies. But the origin of the first life remains a separate mystery.

However, back in the 1860s and 1870s, many biologists believed that they could easily come up with a materialistic explanation for how life first began. Why? Because they thought life was made up of a simple substance called protoplasm.

This protoplasm they assumed could be created by simply combining and recombining basic chemicals like carbon dioxide, oxygen and nitrogen. Ernst Heckle, a German biologist, referred to this idea as otoy, the idea that life could arise spontaneously from non-living substances, similar to how crystals form naturally from inorganic materials. His English counterpart th Huxley proposed a simple two-step process to explain how the first cell could have formed.

He suggested that just like salt can be created by combining sodium and chloride, a living cell could be formed by combining a few basic chemicals which would then react spontaneously to create the protoplasmic substance they believed to be the essence of life. In the 1920s and 1930s, the Russian biochemist Alexander the First Oparin developed a more advanced version of what's called the chemical evolution theory. The idea that life began through a long series of chemical reactions.

Earlier scientists like Ernst Heel and Thomas Huxley had already suggested that life could come from simple chemical processes. But Operin expanded on this by proposing that many more chemical changes and reactions were involved taking place over hundreds of millions of years. He included these extra steps because he understood better than those before him how complex the chemistry inside a living cell actually is, especially the complicated processes of metabolism.

However, at that time in the 1930s, neither Operin nor anyone else fully understood just how incredibly complex the molecules that make life possible truly are, particularly DNA, RNA, and proteins. These molecules don't just perform chemical functions. They also carry specific information like instructions that living cells need to build and operate properly.

This key aspect, the information content was not yet known. Operin's theory seemed to get a big boost in 1953 when scientist Stanley Miller ran a famous experiment. Miller simulated what he thought early Earth's atmosphere was like and showed that simple organic molecules like amino acids, the building blocks of proteins, could form naturally under those conditions.

At first, this seemed like solid experimental support for Opin's idea. But over time, researchers realized there were big problems. For one, scientists now believe that Miller's experiment didn't accurately reflect the real atmosphere of the early Earth.

Meaning his results might not tell us much about how amino acids actually arose in nature. More importantly, even if you can get amino acids, that's just the very first step. To make functional proteins, you need amino acids arranged in very precise sequences, like letters in a sentence.

And Opin's model offered no explanation for how such specific, meaningful sequences could arise on their own. Finally, Opin also didn't explain where the information stored in DNA or RNA came from. information that tells cells how to build proteins in the first place.

Without addressing the origin of this molecular instruction code, the chemical evolution theory remains incomplete when it comes to explaining the full origin of life. A group of scientists had a debate about how genetic information is stored in DNA and how it relates to the origin of life. All of the scientists on the panel agreed on one point.

Current theories about how life might have started chemically were failing to explain how the genetic information required for life came to be. Some of the scientists thought that origin of life research simply needed more time and effort. They believed that eventually scientists would be able to come up with an explanation within the framework of current scientific thinking which focuses on materialistic, physical and chemical processes.

However, there were others who felt that the problem was much bigger than simply needing more time. They thought that the way scientists were approaching the problem needed to change. Specifically, they believed that researchers should consider a new approach, one that recognized the role of intelligence in producing information.

This was because the information in DNA, which is essential for life, seemed to require something more than just chemical reactions. One scientist who supported this new way of thinking was professor Dean Kenyon. He was a well-known expert in chemical evolutionary theory and the scientific study of the origin of life.

Kenyan had a PhD in bioysics from Stanford, had done research at NASA and had written many scientific papers on the subject. In 1969, he co-authored an influential book called Biochemical Predestination, which became one of the leading texts on chemical evolution. By 1985, the book had become the best-selling advanced level text on the topic.

In biochemical predestination, Kenyon and his co-author Gary Steinman proposed that life could have started when important protein molecules formed on their own. They believed that these proteins might have self-organized naturally without needing instructions from DNA because of chemical forces that attracted the smaller amino acids, the building blocks of proteins, to one another. Many scientists in the field of origin of life research saw this as a promising and bold theory.

It was considered one of the best explanations for how life could have originated through natural processes. However, by the late 1970s, Kenyon himself began to have doubts about his own theory. As more and more experiments were conducted, they showed that proteins couldn't just assemble themselves from their amino acid building blocks without some kind of guidance or instructions.

That guidance, Kenyon realized, had to come from something, specifically DNA, which carries the genetic information needed to build and organize proteins. As Kenyan continued to study DNA, he came to an important realization. The information inside DNA could not have come together by chance or self-organized through chemical forces alone.

He compared it to something much simpler. It would be like saying that a newspaper headline could just appear because of the way ink and paper interact chemically. This seemed absurd because of course, a headline doesn't form by accident.

It requires intelligence, an idea, and a plan. In a public talk in Dallas, Kenyon made a dramatic and important statement. He completely rejected his own previous theory of biochemical predestination and explained that the idea of life and DNA coming together by accident without some form of intelligence behind it didn't make sense.

Kenyon also began to have doubts about other chemical evolutionary theories that were trying to explain the origin of life. He argued that the current naturalistic materialistic theories were unable to explain where the information in DNA came from and how it could have come together on its own. To this day, science has not been able to answer the most fundamental questions.

How did the first single-sellled organism come into existence? Despite all our advancements, the origin of life remains a mystery. In the Quran, Allah the Almighty declares, "The originator of the heavens and the earth.

" When he decrees a matter, he only says to it, "Be and it is. " This verse gives us the true starting point. The story of life on earth began with the command of Allah.

There is certainly a science behind how that command unfolded, how it manifested in the material world. We may not yet understand it, but perhaps in the near future, human knowledge will progress enough to uncover more of this divine process. What's truly shocking, however, is the arrogance with which some in the atheist community speak.

They don't know where life came from. Their science cannot explain consciousness. Yet, they still insist that God does not exist.

It's been said that Satan's greatest trick was making people believe he doesn't exist. But maybe his second greatest trick was making people believe that God doesn't exist either. You'll notice that on average, children tend to resemble their parents, but they also have their own unique features.

Biology helps explain why that happens. Every living organism has something called genes, which are the basic units of heredity. These genes make up our DNA which acts like a blueprint for how our bodies are built and how they function.

It influences everything from our appearance like hair color or height to certain behaviors and even our health. When children are born, they inherit this DNA from both parents in the form of chromosomes. Half comes from the mother and half from the father.

This is why children often look like a blend of both parents, similar but not identical. Here it helps to understand two key terms, genotype and phenotype. The genotype refers to the genetic code an organism carries, its DNA.

The phenotype is the set of observable traits that result from that code. When a gene is activated and shows itself in the organism's appearance or function, it's called gene expression. For instance, if a child inherits the genetic code for black hair and that gene is expressed, the child will have black hair.

This process of genes shaping traits is happening constantly across all living things in the biological world. A key part of evolution is how the environment influences which traits survive and spread in a species. Imagine a population of mice that comes in two colors, black and white, and they live in an area where the ground is mostly dark colored.

One of their main predators is a species of eagle that hunts from above. In this setting, black mice have a clear survival advantage because they blend into the dark terrain, making them harder for eagles to spot. On the other hand, white mice stand out against the black background, making them easy targets.

As a result, more white mice are likely to be eaten, and fewer will survive to reproduce. Over time, the population of white mice will shrink, while the number of black mice will grow. Eventually, the genes responsible for white fur will become less common in the gene pool, while those for black fur will dominate.

This shift shows how environmental pressures can shape the genetic traits of a population, favoring those that improve the chances of survival and reproduction. This process is called natural selection. Put simply, natural selection is the idea that depending on the environment, nature favors the individuals that are best suited to survive and reproduce.

Those with traits that help them thrive in a specific setting are more likely to pass those traits on to the next generation. To understand this better, consider an example with giraffes and tall trees. Giraffes rely on leaves from tall trees as their main food source.

If a giraffe has a short neck, it won't be able to reach the leaves and will struggle to survive. In contrast, giraffes with longer necks can access the food more easily and are more likely to stay healthy and reproduce over generations. This means that the long neck trait becomes more common in the population.

In essence, natural selection acts like a filter, allowing traits that enhance survival to pass through while filtering out those that don't. This is what people mean by the phrase survival of the fittest. Not necessarily the strongest, but the most suited to the environment.

Now that we have a basic understanding of how evolution works, it's important to clarify a few key points. First, evolution is far more complex than the simple examples we discussed earlier. Scenarios like the black and white mice are simplified cases meant to illustrate the core concept.

In reality, environments are influenced by a wide range of factors, multiple predators, varying climates, changing resources, and more. These layers of complexity make it much harder to predict exactly which traits will become dominant in a given population. Second, the phrase survival of the fittest should not be misunderstood to mean that only the strongest or genetically superior individuals survive.

Evolution works on probabilities, not certainties. A trait that increases the chances of survival doesn't guarantee survival. It just improves the odds.

Survival is always relative. A trait that helps in one environment may be a disadvantage in another. For example, consider our earlier scenario of black and white mice.

If we move a mixed population of these mice from a dark terrain to a snowy white environment, the advantage flips in the new environment. The white mice are better camouflaged and thus more likely to survive predators. Over time, if all else remains constant, white fur will become the dominant trait in the population.

This shows that fitness depends entirely on context. Third, evolution is driven by both predictable and unpredictable factors. The predictable or deterministic part is natural selection.

If an environment favors certain traits, individuals with those traits are more likely to survive and reproduce. This process steadily shapes the population. However, the unpredictable or random part comes from genetic mutations.

These are changes in the genetic code that can occur for a variety of reasons. Exposure to radiation, chemical damage, or even random copying errors during DNA replication. Mutations vary in scale.

Some are minor while others are significant. Most importantly, mutations are the primary source of genetic variation, which is essential for evolution to happen. Some mutations are beneficial, some are harmful, and many are neutral.

Whether a mutation leads to a new evolutionary pathway depends on many factors. How often mutations occur, when they occur, where in the genome they happen, and what changes they cause. This randomness adds a layer of unpredictability to the otherwise patterned process of natural selection.

In short, evolution is a complex interaction of both order and chance. Natural selection sets the direction while mutations provide the raw material and randomness that make each evolutionary journey unique. Given how evolution works, it's important to understand that it's not a quick process.

Evolution happens slowly across extremely long periods of time. In fact, before the development of modern geology, many people believed that Earth was only a few thousand years old, around 6,000 years, based largely on interpretations from the biblical narrative. However, as geology became a more advanced science, this view changed.

Using modern dating techniques, scientists have determined that Earth is actually about 4. 6 billion years old. The earliest evidence of life, simple single-sellled organisms, dates back to about 3.

5 billion years ago. These findings are based on reliable methods like raditric dating, which measure the decay of radioactive elements in rocks to determine their age. In geology, when we talk about such massive time scales, millions or billions of years, we use the term deep time.

And it's this deep time that makes the process of evolution possible. Without these enormous stretches of time, there simply wouldn't have been enough time for all the slow changes, adaptations, and diversifications of life to take place. So, the timeline of Earth's history and the appearance of life fits well with what we would expect if evolution were true.

It gives us the space and time needed for simple life to gradually evolve into the complex forms we see today. That wraps up our exploration of the concept of evolution. I hope you now have a clear idea of what it is.

If you still have any questions, feel free to leave them in the comments below.