Is it really a jinn, or just an optical phenomenon? Many people and scientists are unsure how to explain this strange being or phenomenon known as "Abu Fanous" of the Saudi desert. Some even say the Prophet (peace and blessings of Allaah be upon him) spoke of it as "ogres"
or "ghouls." Here we will examine this strange object or phenomenon and explore its origins and nature.
Abu Fanous, also called Abu Nuwayra and Abu Siraj, is clearly linked to light in one way or another. It appears as a glare resembling car headlights at night, or as a ball of light when seen from a distance. Reportedly, in the early hours before sunrise it sometimes moves away or toward observers and then vanishes suddenly.
It is frequently seen in the Empty Quarter, the world’s largest sand desert and part of the Arabian Desert. Local residents say Abu Fanous’s aim is to mislead travelers; those who follow it do not return, supposedly wandering until they become trapped in quicksand.
Abu Fanous is also compared to the "Marfa Lights" and the "Min Min Lights," named for the places where these moving lights appear—Marfa in Texas and Min Min in Australia. Scientists and others have proposed the following explanations:
• Thunderstorms underground
In 2000, James Bunnell, a retired aerospace engineer, studied the Marfa Lights by placing surveillance cameras at multiple angles to distinguish between car headlights and genuine Marfa lights. He concluded that underground electrical discharges—underground lightning—create dusty plasma clusters that power these lights. According to Bunnell, the Marfa Lights result from tectonic stress discharges or underground lightning.
• The supermirage (Fata Morgana): car headlights
In 2004, physics students from the University of Texas investigated the Marfa Lights. They found the lights were closely linked to car headlights on the highway and appeared to move with them. This is explained by a superior mirage, known as a Fata Morgana, which can make distant lights appear higher and distorted when layers of air at different temperatures refract and scatter the light.
• Incandescent gases
These lights may result from leaks of phosphine and methane from swamps. Under certain temperatures and pressures, these gases can ignite on contact with oxygen, producing a glow known as marsh gas. This phenomenon occurs worldwide and can be expected in places with large reserves of oil, natural gas, and hydrocarbons such as methane, including Saudi Arabia.
Some say that "Abu Fanous" was referred to as "ghoul" or "ogres," terms used for types of jinn and demons that take many shapes, including forms of light. They are mentioned in two hadiths:
Jabir ibn Abdullah reported: The Messenger of Allah (peace and blessings of Allaah be upon him) said: "If you walk in the fertile, then enable the passengers to have its teeth, and do not bypass the houses, and if you walk in attraction, then beg for it, and you have to go to the daluj, the earth is folded at night, and when the ogres wandered for you, so take the initiative to call to prayer, and you and pray on the horse of the road, and descend on it, for it is the shelter of serpents, and the seventh, and the elimination of the need, for it is cursed."
It is proven from the Prophet (peace and blessings of Allaah be upon him) that he said: "There is no infection, no tira, no important, no zero, no petrel, no ghoul, and I like the omen."
In the first hadith, the Prophet commanded people to call for prayer and remember Allah when confronting ghouls (jinn). In the second hadith, he does not deny the existence of the jinn, but rather rejects the Arabs' claim that ghouls can deliberately mislead and harm travelers by causing them to become lost in the desert.
That alarming error may be the safety feature. When software stops you loudly instead of carrying on quietly, it is often preventing a worse mess than the one now blinking at you.
That is not much comfort when you are late for a meeting, your file will not save, or
a login screen suddenly acts like you are a burglar. But the first thing to know is this: a visible failure is often better than an invisible one.
Most protective error states follow the same plain sequence. The system detects a mismatch or uncertainty. It stops the normal flow. It blocks the action or asks for confirmation. That pause preserves something you care about: your data, your account, your money, or your last safe version of a document.
Designers of safety systems have known for a long time that warnings must break attention, not blend into the wallpaper. Human-factors expert Don Norman wrote in 1988 inThe Design of Everyday Thingsthat good systems make the right action visible and make risky actions harder to do by accident. In other words, the interruption is not rudeness. It is part of the control.
You can see the same logic in everyday software. A browser hits a website with a certificate problem, which means it cannot confirm the site is really the site it claims to be. Instead of loading the page as if all is well, the browser throws up a warning and makes you stop. Annoying, yes. Also exactly what you want if the other option is quietly sending your password to the wrong place.
This is the difference that matters: loud failure versus silent failure. Loud failure delays you. Silent failure can lock you out later, leak data, overwrite work, or let a fake site collect your login while everything looks normal.
Take the plain old “unsaved changes” prompt. You close a document or a browser tab, and up comes the harsh red or bright warning state that yanks your eyes off autopilot. That color is doing a job. High-contrast warning colors are used because people scan screens quickly, and a normal-looking message gets ignored.
Here is the step-by-step version. You edited something. The system sees that the copy in memory no longer matches the last saved version on disk or on the server. You try to close the window. The software interrupts you before the action destroys the only newer version of your work.
That interruption can feel petty. You already know you were closing the file, thanks very much. But the prompt is protecting the last safe state. Without it, one stray click could turn ten minutes of work into nothing, or replace a newer draft with an older one.
Jakob Nielsen’s usability work has pushed this idea for years: prevent errors when you can, and help users recover when you cannot. A good unsaved-work warning does both. It stops the risky action and gives you a clean choice before the damage happens.
Visible stop versus silent corruption.
Blocked close versus vanished edits.
A nagging prompt versus an overwritten document you cannot get back.
But let’s be honest: an error message can also feel like proof the system already failed. If the software were well made, you might think, none of this should be visible. Good technology should just work and stay out of the way.
Sometimes that complaint is fair. Something may indeed have gone wrong at one layer. A password may have been mistyped. A site certificate may be expired. A storage location may be full. But the design question is not only whether something went wrong. It is whether the system failed safely and visibly before the trouble spread.
That is the flip. A login lockout after repeated wrong passwords is evidence that the system is refusing to keep guessing forever. A certificate warning is evidence that identity cannot be confirmed. A failed save that leaves the old file intact is better than a half-written file that pretends it saved properly.
The scary part on screen is often the crash barrier, not the cliff. You hit it, you spill your coffee, you mutter at the machine. Still better than going over the edge.
Start with account security. Many sites slow you down, require a second code, or temporarily block sign-in after too many failed password attempts. That can be maddening when the only attacker is your own tired fingers. It is also one of the oldest and simplest ways to make mass password guessing harder.
Now the work side. A failed save or sync conflict can look like the software is broken. Sometimes it is. But a clean failure that says, in effect, “I could not safely write this” is far better than software that keeps going and leaves you with two mismatched copies, a damaged file, or missing changes.
Here is the mini self-check that matters more than the wording on the screen: did the system stop, warn, and preserve the last safe state, or did it continue silently and corrupt, send, delete, or overwrite? If it stopped and preserved, you are looking at a safety control, even if the message itself has the bedside manner of a parking ticket.
None of this means every error screen deserves applause. Plenty are vague, late, or lazy. “Something went wrong” is not helpful. Neither is a warning that appears after the damage is already done, or one that blames the user for a server problem.
Good protective errors tell you what was blocked, why the system lost confidence, and what safe action comes next. Bad ones dump a code on the screen and leave you to play detective. Visibility alone does not prove a system is well built.
This is where people get understandably sour. They are not wrong to hate bad error design. The fairer way to think about it is to separate the warning from the wording. The warning may still be doing honest protective work even when the message explaining it is clumsy.
When an alarming error appears, do four things in order. First, stop clicking. Fast repeat attempts often make account lockouts, duplicate submissions, or file conflicts worse.
Second, read for the blocked action, not the dramatic tone. Is it stopping a login, a save, a connection, a delete, or a send? That tells you what the system is trying to protect.
Third, look for the safe state. Is your old file still there? Was the payment not submitted? Did the browser refuse to load the page rather than load it anyway? That is useful information, not fluff.
Fourth, choose the next move based on the type of protection. Retry if it looks temporary. Verify details if identity or destination is in doubt. Get help if the message is vague and the action involves money, accounts, or important files.
Stop, read what is being blocked, identify what the system is protecting, and only then decide whether to retry, verify, or get help.
You could say the most astonishing fact about the universe is that it had a beginning. All matter, energy, space, and even time itself originated from a single point: the Big Bang. This was not an explosion like fireworks in the sky, but an expansion of space from a state
of unimaginable density and heat. About 13.8 billion years ago, that "bang" set everything in motion. The staggering question is what came before — which, in conventional terms, might literally have been nothing: not empty space, but a quantum void with no space and no time. Yet that "nothingness" may have held the possibility of everything. Quantum physics allows for virtual particles and energy fluctuations that could, in principle, lead to the spontaneous emergence of entire universes. Scientific instruments such as the Planck observatory have helped us map the cosmic microwave background, the faint glow of the Big Bang. Those delicate patterns confirm that our universe once existed as an almost uniform sea of energy that slowly coalesced into galaxies, stars, planets, and, eventually, life. The audacity of all we know emerging from a microscopic singularity is both perplexing and beautiful.
That leads to a fact that feels almost poetic: the universe has developed the ability to observe and understand itself through beings like us. Every atom in the human body was forged in the hearts of stars. The calcium in our bones, the iron in our blood, the carbon in every cell — all of it once formed inside ancient suns that burned through their fuel, exploded as supernovae, and scattered their elements across space. Over time those materials gathered into planets, and through a long chain of chemistry and evolution, life appeared. Life did not stop at cells and instincts; it became conscious, curious, and self-aware. Human intelligence lets us explore space, probe atomic structures, and even question our own existence. In a sense, the universe, governed by impersonal physical laws, has produced beings who fall in love, paint dreams on canvases, and gaze at the stars. This is a striking truth: we are the eyes and mind of the universe. The atoms that once drifted as stardust now form thoughts about the very stars that made them. Within us, the universe reaches a stage of self-reflection. And it is not only humans — the search for extraterrestrial intelligence hopes to show that this capacity for contemplation may not be unique, but a feature of cosmic evolution.
While the observable universe spans about 93 billion light-years across, that visible horizon is not a limit but the distance light has had time to travel since the Big Bang. Beyond it, the universe may extend indefinitely, perhaps even infinitely, with regions governed by different physical laws. This idea leads to the concept of the multiverse: the possibility that our universe is one "bubble" in a vast cosmic foam, each bubble a separate universe. Those other universes might contain different particles, forces, or even dimensions. Although speculative, the multiverse arises naturally from inflation theory, which describes how space expanded rapidly at the universe’s birth. If true, the implications are staggering: the laws of nature that make human life possible — the strength of gravity or the charge of the electron, for example — might vary from universe to universe. Our existence in this universe might not be surprising because it is unique, but because it is one among many where conditions allow sentient beings. The scale and scope of a multiverse would surpass understanding, yet it broadens our sense of wonder: the diversity of existence may exceed what our instruments can see and our minds can grasp. Still, in this tiny corner of infinity, consciousness has emerged.
Time seems straightforward — it moves forward, moment by moment. But physicists have found that time is far more complex than our senses suggest. Einstein’s theory of relativity showed that time is flexible: it passes more slowly for objects in strong gravity or moving at high speed. For astronauts orbiting Earth, time passes slightly differently than for people on the ground. Near a black hole, time may almost stand still, theoretically letting someone witness centuries pass elsewhere in moments. In quantum mechanics, time becomes stranger still. The fundamental equations that govern particles are time-symmetric; they work the same forward or backward. That implies the "arrow of time" we experience — where causes precede effects — may be an emergent property, not a fundamental one. Some ideas go further, suggesting past, present, and future coexist in a four-dimensional spacetime "loaf," and our consciousness experiences only a slice at a time. From this view, everything that has happened — and will happen — already exists, and we trace a linear story out of what is actually a timeless structure. These discoveries reshape our understanding of physics and challenge how we think about life. If time is not absolute, then memory, fate, and choice may be more intertwined than we have imagined. Each moment of our lives is not merely fleeting but part of a cosmic puzzle still being pieced together.
