Category: Alien Species

  • CLARION IS 150,000 LIGHT-YEARS AWAY. ITS CITIZENS HAVE ITALIAN DOCUMENTS.

    CLARION IS 150,000 LIGHT-YEARS AWAY. ITS CITIZENS HAVE ITALIAN DOCUMENTS.

    A former professor from Vercelli, Italy claims to have been physically abducted to alien bases four times since 1981 and to have photographed the beings he met there. The establishment laughed. I stopped laughing when I looked at what the photographs actually show — and at who has been trying to make sure you don’t look too closely.

    Hover redacted text to reveal.

    I want to tell you about a man named Maurizio Cavallo. Then I want to tell you about a conversation I had about him. Then I want to tell you what I think is actually going on.

    Cavallo is from Vercelli, in the Piedmont region of northern Italy. He is a journalist, a former professor at the University of Eastern Piedmont, and a speaker at international conferences in Lyon, Marseille, and Cattolica, among others. He has, by any ordinary measure, a CV. He is not a man who crawled out of the fringe. He arrived from the centre and then described what he had seen, and the centre rejected him, and he accepted the rejection without bitterness in a way I find either deeply credible or deeply suspicious, and I have not yet decided which.

    In September 1981, Cavallo claims, he was physically transported to a secret base in the Amazon rainforest and made contact with non-human beings from a planet called Clarion, located in the Eagle Galaxy approximately 150,000 light-years from Earth. This was not, he says, his first contact — his first was at age seven, erased from his memory and restored during the 1981 encounter through what he describes as neural holograms. Since then, he claims to have been taken physically, more than once, to bases both terrestrial and aquatic. He describes a facility beneath the sea near Genova. He has attended conferences and spoken about this publicly since 2012. He has written books. He runs a website. He does not appear to be selling anything in the conventional sense, which is one of the first things I check.

    He also has photographs.

    THE PHOTOGRAPHS

    This is where it gets complicated, and also where it gets interesting, and also where most of the people who should be paying attention stop paying attention. The photographs are — let me be precise — not impressive if you are looking for impressive. They are Polaroids. Cavallo himself has been careful to say that the photographs are not proof, that he does not circulate them widely, and that his experience belongs to him regardless of whether images confirm it. This is not the language of a man trying to sell you something. This is the language of a man who has been somewhere and is trying to describe it as accurately as language allows.

    What the photographs show, depending on the image: a female figure with human proportions and a face that is almost, but not quite, a human face. A Grey, tall, standing in what appears to be an enclosed space. A being identified by Cavallo as “Suell” — a humanoid who, Cavallo says, walks among us in cities and carries a small black device that communicates instructions. A craft. A light source that does not behave like any conventional light source in a Polaroid exposure.

    That last detail is the one that has stayed with me longest.

    “These are Polaroid photos made without a developing process and there is always an abnormal light absorption because they absorb atomic light.”

    — Maurizio Cavallo, interview with Paola Harris, 2006

    Polaroid photography is not a medium that accommodates manipulation easily. The chemistry is fixed at exposure. There is no darkroom, no developing window, no post-processing step during which a negative can be altered. A Polaroid is what the light in front of the lens was, at the moment the shutter opened, full stop. The anomalous light absorption Cavallo describes — the way certain figures in the photographs seem to consume light rather than reflect it — is either a genuine physical anomaly or it is the most technically specific lie I have encountered in twenty years of working this beat. I have read a lot of technically specific lies. They usually fall apart when you press them. I have pressed this one. It has not fallen apart.

    I contacted a forensic imaging analyst based in Bristol who has worked with both law enforcement and, on two occasions I am aware of, intelligence-adjacent clients. I described the Cavallo photographs without identifying them. I described the light absorption characteristic specifically. The response, after a pause that I will not pretend was not significant, was this:

    “Polaroid emulsion doesn’t do that. If what you’re describing is accurate, either the light source is operating outside the visible spectrum in a way that shouldn’t be recordable on that film stock, or the film was modified before exposure in a way that would require access to the manufacturing process. Neither of those is a comfortable answer.”

    forensic imaging analyst, Bristol, identity withheld at their request

    Neither of those is a comfortable answer. I have been sitting with that sentence for three weeks.

    THE WOMEN

    I need to address this directly because it is the part of the Cavallo account that gets the most ridicule and therefore, in my experience, the part most worth examining carefully.

    The female figures in Cavallo’s photographs, and in his accounts, are described as beautiful. Extraordinarily so. In his 2006 interview with investigative journalist Paola Harris — herself a credible figure who has spoken at international UFO conferences and been taken seriously by researchers who are not easily impressed — the exchange goes like this:

    Harris: The women look like movie stars.
    Cavallo: They are gorgeous.

    The internet found this funny. I found it significant. Here is why.

    Across the entire body of contactee literature — and I mean the full breadth of it, from Adamski in the 1950s through to contemporary accounts, across cultures, across continents, across languages — the humanoid female figures described in contact experiences share a remarkable cluster of characteristics. They are tall. They appear to be between thirty and forty years old, regardless of when they are encountered. They have facial features that are human in proportion but subtly, specifically wrong in detail. They emanate what witnesses consistently describe not as warmth but as energy — something physical, something felt in the chest and the spine, something that does not map onto any human emotional register.

    Cavallo describes this precisely: “They emanate an energy so strong you can feel uneasy.” Not comforted. Uneasy. That is an important distinction. A man fabricating a pleasant encounter does not make that distinction.

    1981
    First physical abduction (Amazon)
    4+
    Claimed physical contacts
    150k
    Light-years to Clarion (Eagle Galaxy)
    2006
    Harris interview, first wide publication

    Cavallo says the female beings he met are not visiting. They are here. Resident. They arrive “apparently thirty or forty years old,” obtain documents without difficulty, and integrate. Some are fully alien in DNA. Others — those born here, to mixed parentage — carry alien DNA in a human body. Hybrids, in his terminology. Walking among us. In cities I have been to. Possibly in cities you have been to.

    I know how this sounds. I am depositing it anyway, because the consistency of this account with accounts from sources who have never heard of Maurizio Cavallo is something I cannot explain away. The geography changes. The names change. The decade changes. The description of the women does not change.

    WHAT I THINK IS HAPPENING

    Here is the thing about Cavallo that nobody who dismisses him seems to have engaged with. He has never claimed to be a messenger. He has never claimed to be chosen. He says, explicitly: “I never dared to call myself a messenger or even an ambassador of star peoples, I never believed I was a chosen one, an elect or a predestined one. Indeed, sometimes I wonder why what I experienced, happened to me.”

    This is the sentence of a genuinely confused person, not a fabricator. Fabricators have answers. They know why they were chosen. They have a mission. Cavallo has a bewilderment that has lasted forty-three years and shows no signs of resolving.

    Maurizio Cavallo is still alive. He is still talking. He is still running centroclarion.it. Nobody has silenced him, which either means he is harmless or means he has been evaluated and judged insufficiently credible to warrant the cost of silencing. I have seen both categories. I am genuinely unsure which this is. What I am sure of is that the photographs exist, that the light anomaly is real, that the consistency of his account with the broader pattern is not explainable by coincidence, and that my father thought so too.

    That will have to be enough for now. I’m working on the rest.


    Primary source: Paola Harris, “Why Me? Exclusive Interview with Maurizio Cavallo,” 2006 (paolaharris.com). Secondary: centroclarion.it, conference documentation from Turin 2012. Forensic imaging consultation conducted independently. Document annotation: private archive, partially recovered. This article is filed from an undisclosed location.

    #MaurizioCavallo
    #Clarion
    #contactee
    #Italy
    #alien
    #hybrid
    #PaolaHarris
    #IanPaxtonJr
    #Polaroid
  • PURPLE IS THE DOMINANT COLOUR OF LIFE IN THE UNIVERSE — AND IT ALWAYS HAS BEEN

    PURPLE IS THE DOMINANT COLOUR OF LIFE IN THE UNIVERSE — AND IT ALWAYS HAS BEEN

    A paper published in the Monthly Notices of the Royal Astronomical Society has confirmed what a small number of astrobiologists have argued since 2007: that the dominant biochemical strategy for harvesting light energy across the universe is almost certainly not chlorophyll-based photosynthesis — it is something older, simpler, and purple. The mainstream science press has reported this as a curiosity. It is not a curiosity. It is a recalibration of every assumption we carry into the search for life beyond Earth.

    THE SCIENCE: WHAT CHLOROPHYLL GOT WRONG

    To understand why this matters, one must first understand what chlorophyll actually does — and what it conspicuously does not do. The pigment absorbs red and blue light from the solar spectrum, converts that energy into chemical fuel, and reflects the green wavelengths back. This is, from an engineering standpoint, a peculiar choice. Green light is the most energy-rich portion of the visible spectrum that our Sun emits in abundance. Chlorophyll ignores it entirely.

    This anomaly — sometimes called the “green gap” — has troubled biologists for decades. The standard explanation, taught in every undergraduate biology course without apparent embarrassment, is that green light simply proved difficult to absorb efficiently. This explanation is inadequate. Evolution does not routinely leave the richest energy source on the table for hundreds of millions of years without a reason.

    The reason, proposed by molecular biologist Shiladitya DasSarma of the University of Maryland in 2007 and elaborated in a landmark paper he co-authored with astronomer Edward Schwieterman in 2018, is this: something else got there first. That something was bacteriorhodopsin — a retinal-based membrane protein found in halophilic Archaea, organisms that thrive in hypersaline environments. Bacteriorhodopsin absorbs light peaking at approximately 568 nanometres, squarely in the green-yellow band that chlorophyll ignores. The two pigments are, in the language of physics, spectrally complementary. One cannot rule out that they co-evolved.

    “While the absorption peak of chlorophyll is near 700 nm, bacteriorhodopsin absorption peaks near 570 nm — an energy-rich region of the solar spectrum that chlorophyll-based pigments largely miss.”

    DasSarma & Schwieterman, International Journal of Astrobiology, 2018

    The implication of this complementarity is significant. DasSarma and Schwieterman proposed what they termed the Purple Earth hypothesis: that for approximately 1.5 billion years, before the Great Oxygenation Event roughly 2.4 billion years ago, the dominant phototrophs on Earth were retinal-based organisms. The continents and shallow seas would have appeared magenta to violet — not the verdant green we associate with life today. Green life did not displace purple life because it was better at capturing energy. It displaced it because it produced oxygen as a metabolic byproduct, an innovation that eventually poisoned the anaerobic world and restructured the biosphere entirely.

    Purple life did not disappear. It retreated into niches: salt flats, hydrothermal vents, hypersaline lakes. It is still there. Australian salt ponds bloom vivid magenta under certain conditions — the purple membrane of Haloarchaea colouring entire bodies of water. The organisms look like relics. They are, in a precise sense, survivors of an older Earth.

    1.5BYears the Purple Earth hypothesis proposes retinal-based life dominated our biosphere before chlorophyll-based organisms took over
    THE CORNELL STUDY: CALIBRATING THE SIGNAL

    The 2024 paper from Cornell University, led by PhD student Lígia Fonseca Coelho and co-authored by astronomer Lisa Kaltenegger, does not make theoretical claims. It does something more useful: it measures. The team collected 20 specimens of purple sulfur and purple non-sulfur bacteria from environments ranging from hydrothermal vents to ponds on the Cornell campus, then measured the precise wavelengths of light each specimen reflects. Those spectral fingerprints were fed into models of Earth-like exoplanets across a range of conditions — ocean worlds, frozen surfaces, arid landscapes — orbiting stars of varying temperatures.

    In the majority of modelled scenarios involving cool, red dwarf stars, the simulated planetary surfaces returned purple light fingerprints. This is not metaphorical. A sufficiently sensitive telescope, aimed at the right planet, should be able to detect a characteristic spectral “green edge” — a sudden drop in reflected light at green-yellow wavelengths — analogous to the vegetation “red edge” used to infer plant life on Earth. The green edge is the biosignature of retinal-based phototrophy. We have not yet been able to measure it on any exoplanet. The instruments capable of doing so — the European Southern Observatory’s Extremely Large Telescope and NASA’s proposed Habitable Worlds Observatory — are slated to come online by the end of the current decade.

    Coelho’s finding carries a structural implication that her paper states plainly but which deserves emphasis: red dwarf stars are the most common type of star in the Milky Way, comprising an estimated 70 to 75 percent of all stellar bodies. If purple bacteria thrive preferentially around low-energy, infrared-heavy red dwarf light — which the research suggests they do — then purple life is not a niche possibility. It is the statistically dominant life strategy available in this galaxy. We have been calibrating our search instruments for the wrong colour.

    75%Estimated proportion of stars in the Milky Way that are red dwarfs — the stellar type most favourable to retinal-based, purple photosynthesis
    TRAPPIST-1: THE TEST CASE NO ONE IS DISCUSSING OPENLY

    Thirty-nine light-years from Earth, in the constellation Aquarius, seven rocky planets orbit the red dwarf star TRAPPIST-1. Three of them — planets e, f, and g — sit within the habitable zone. TRAPPIST-1e has attracted the most sustained scientific attention: it is close to Earth in mass and radius, its surface temperature could theoretically sustain liquid water, and JWST has now observed four of its transits. The data from those observations, published in the Astrophysical Journal Letters in late 2025, hint at the presence of methane in the planet’s atmosphere. The researchers are careful: the signal may originate from the star itself rather than the planetary atmosphere, and the distinction requires further observation.

    What no published paper has yet addressed directly — though the logic is available to anyone who holds both research threads simultaneously — is this: if TRAPPIST-1e has an atmosphere, and if that atmosphere hosts photosynthetic life adapted to a red dwarf’s infrared-heavy output, the organisms on its surface are almost certainly not using chlorophyll. They are using something functionally equivalent to bacteriorhodopsin. They are, by the taxonomy of pigment and spectrum, purple.

    TRAPPIST-1 has been stable for an estimated four to twelve trillion years — orders of magnitude longer than our own Sun’s projected lifespan of roughly five billion remaining years. I want to be precise about what that duration means in biological terms. Earth required approximately 500 million years to move from simple unicellular life to multicellular organisms. It required roughly 3.5 billion years to produce the Cambrian explosion of animal complexity. TRAPPIST-1’s habitable-zone planets have had, on conservative estimates, ten to twenty times the evolutionary runway available to Earth. If the hypothesis is that life requires time to complexify, then TRAPPIST-1 is not a promising system. It is the most promising system we have identified.

    “Purple bacteria can thrive under a wide range of conditions, making it one of the primary contenders for life that could dominate a variety of worlds.”

    Lígia Fonseca Coelho, Cornell University, Monthly Notices of the Royal Astronomical Society, 2024

    CALIBRATED SPECULATION: WHAT RETINAL-BASED COMPLEXITY MIGHT PRODUCE

    The following observations are labelled as speculation. They are grounded in known biochemistry and evolutionary biology, extrapolated beyond what the current evidence can confirm. The reader is invited to treat them as hypotheses, not conclusions.

    Retinal is not merely a photosynthetic pigment. It is, crucially, the molecule at the centre of animal vision on Earth. The human eye operates via retinal-based proteins called opsins, which detect light and convert it to neural signals. The same basic molecular architecture that powered the earliest purple life on Earth became, over billions of years of evolution, the substrate of sight. This convergence is not coincidental. Retinal’s chemical simplicity — it is a derivative of beta-carotene, the pigment that makes carrots orange and tomatoes red — makes it easy to synthesise in low-oxygen environments and easy to incorporate into cellular membranes.

    On a world where retinal-based phototrophs remained the dominant life strategy for billions of years — freed from competition with the more efficient but oxygen-dependent chlorophyll system — the evolutionary pressure to develop retinal-based sensory organs might arrive far earlier in the complexity curve than it did on Earth. Vision, in other words, might be an unusually early adaptation on purple worlds rather than a late-stage innovation. The organisms that eventually complexify on TRAPPIST-1e, should they exist and should the hypothesis hold, may have been sensitive to light — in the directional, information-processing sense — for far longer than animal life on Earth has been.

    The colour of a world shapes the organisms that read it. On Earth, the predominance of green vegetation produced evolutionary pressure for visual systems tuned to contrast against green backgrounds — which is why human colour vision has particularly high sensitivity in the red-green channel and why so many animal warning signals are red. On a purple world, the dominant visual contrast would be different. We cannot specify what chromatic adaptations would result from billions of years of evolution against a magenta-violet biosphere, but we can say with confidence that the visual systems and signalling strategies of any complex organisms on such a world would be calibrated to a fundamentally different palette than our own.

    Bacteriorhodopsin generates ATP without oxygen. The metabolic pathway it enables — light-driven proton pumping across a membrane, generating a chemiosmotic gradient — is among the simplest known bioenergetic mechanisms. It predates, and does not require, the elaborate molecular machinery of oxygenic photosynthesis. A biosphere built on this foundation does not require a Great Oxygenation Event. It does not necessarily produce a nitrogen-oxygen atmosphere of the type we use as a habitability indicator. We may be searching for the atmospheric signature of a particular evolutionary accident — the rise of cyanobacteria on one specific planet — and mistaking that accident for the definition of life.

    THE INSTRUMENT PROBLEM

    The Extremely Large Telescope, currently under construction in Chile’s Atacama Desert, and the Habitable Worlds Observatory, in the proposal stages at NASA, are both designed with the capacity to perform reflected light spectroscopy on nearby exoplanets. Both are being built with the vegetation red edge in mind as a primary biosignature target. Coelho and Kaltenegger’s paper is, in part, an argument that the green edge — the retinal-based counterpart — must be included in the detection toolkit. Their spectral data on 20 purple bacterial specimens is now publicly available for integration into biosignature databases.

    What is not yet being discussed in institutional terms is the question of what happens if one of these instruments detects a green edge on TRAPPIST-1e or a similar habitable-zone world. The detection protocol for a chlorophyll-based biosignature is reasonably well-mapped: confirm the signal, rule out mineral mimics, publish, wait for follow-up. The protocol for detecting retinal-based life — which, as the Purple Earth hypothesis implies, may be both ancient and potentially complex — has not been written. The scientific community is building the instruments before it has agreed on what to do with the answer.

    That gap is, in the estimation of this editor, the most important unresolved question in astrobiology. Not whether purple life exists — the biochemistry argues strongly that it does, somewhere, at scale — but what frameworks we apply when we find it, and whether those frameworks have been designed with sufficient imagination to accommodate what 12 trillion years of uninterrupted purple evolution might have produced.

    The Popular Mechanics headline was correct. The alien life we find may well be purple. The error is in treating that as the end of the sentence.