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Extraterrestrial building blocks of life discovered in UK meteorite

Meteorites, fragments of asteroids that blaze across our skies as shooting stars, are more than just celestial spectacles. They are frozen time capsules, preserving the building blocks of life and the primordial elements from which our solar system originated.

These cosmic relics offer invaluable insights into the mysteries of matter and life’s emergence on Earth.

Secrets of life in the Winchcombe meteorite

A recent pioneering study, led by Dr. Christian Vollmer from the Institute of Mineralogy at Münster University, in collaboration with British researchers, has made a groundbreaking discovery using the Winchcombe meteorite.

This particular meteorite, observed falling in England in February 2021 and swiftly collected, is a pristine witness to the solar system’s birth, untainted by life and Earth’s varying climates.

Dr. Vollmer’s team achieved a remarkable feat in the analysis of this meteorite. They became the first to precisely identify vital nitrogen compounds, including amino acids and heterocyclic hydrocarbons, within the meteorite without resorting to chemical treatments.

“Normally, meteorites are tracked down in the cold and hot deserts on Earth, where the dry climate means that they don’t weather very fast, but they do change as a result of humidity,” says Vollmer.

“If a meteorite fall is observed soon after the event and the meteorite is quickly collected, as was the case in Winchcombe, they are important ‘witnesses’ for us regarding the birth of our solar system — which makes them especially interesting for research purposes.”

New era in meteorite analysis

The traditional approach to studying meteorites involves extracting and enriching molecules like amino acids and hydrocarbons, the building blocks of life, using solvents or acids.

This process, while effective, often alters the fragile substances under study. Dr. Vollmer’s team, however, utilized a cutting-edge, high-resolution electron microscope at the SuperSTEM laboratory in Daresbury, England.

This “super-microscope” not only offers atomic resolution imaging of high-carbon compounds but also features a novel detector design for chemical analysis.

“Demonstrating the existence of these biologically relevant organic compounds in an untreated meteorite is a significant achievement for research,” says Vollmer, emphasizing the importance of this discovery.

“It shows that these building blocks of life can be characterized in these cosmic sediments even without chemical extraction.”

Implications for extraterrestrial research

This advancement is a major leap in understanding meteorites. It also holds immense potential for analyzing extraterrestrial specimens returned from space missions, like the dust particles from asteroids collected by Hayabusa2 (Japanese Space Agency) and OSIRIS-REx (NASA).

This method preserves the integrity of these delicate substances, offering a more authentic glimpse into the early solar system and the origins of life on Earth.

In summary, the origins of life on our planet remain an enigma, with some scientists hypothesizing that life’s essential components were delivered via meteorites over four billion years ago.

The Winchcombe meteorite, with its unaltered state and the advanced technology used in its analysis, brings us closer to unraveling this mystery.

The research furthers our understanding of our cosmic beginnings, while demonstrating new methods for studying extraterrestrial matter, potentially answering some of the most profound questions about our existence in the universe.

More about the building blocks of life

Life, in its diverse and complex forms, is built upon a foundation of relatively simple yet fascinating elements known as the building blocks of life.

These fundamental components, working in harmony, create the incredible tapestry of living organisms we observe on Earth.

Amino acids: The alphabet of life

At the heart of these building blocks are amino acids, often hailed as the “letters” of the biological alphabet.

Amino acids combine to form proteins, the workhorses of cells, executing a plethora of functions from catalyzing biochemical reactions to providing structural support.

Proteins are not just functional entities; they play a crucial role in signaling and regulation within organisms, orchestrating the symphony of life processes.

Genetic pioneers: DNA and RNA

Nucleic acids, comprising DNA and RNA, form another critical component. DNA holds the genetic blueprint of an organism, passing on hereditary information from one generation to the next.

RNA, on the other hand, serves as the messenger and the translator, converting the genetic code into functional proteins. Together, these nucleic acids ensure the continuity and diversity of life.

Lipids: The unsung heroes in cellular structure

Lipids, often underappreciated, are essential for constructing cell membranes, the protective barriers that encase cells.

These fatty compounds are not just structural elements; they play a vital role in energy storage, signaling, and acting as secondary messengers in various biological processes.

Carbohydrates: The fuel of life

Carbohydrates, the primary energy source for most organisms, are vital for life. These sugars and starches fuel cellular activities, provide structural integrity to cells, and are involved in cell recognition and signaling processes.

Trace elements and vitamins, though required in smaller quantities, are indispensable for the proper functioning of enzymes and various biochemical reactions.

They act as cofactors, ensuring that biological processes proceed efficiently and effectively.

A journey into life’s molecular marvels

Understanding these building blocks is not just a scientific endeavor; it’s a journey into the essence of life itself.

Each component, while simple in isolation, contributes to the complex and dynamic nature of living organisms.

This knowledge not only deepens our appreciation of life but also fuels advancements in medicine, biotechnology, and our quest to understand the origins and possibilities of life beyond Earth.

The full study was published in the journal Nature Communications.


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