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The wait is over. The first novel in Mítosz is now live on different platforms. I'm very happy to share that ICARUS has received two written Amazon reviews so far, and they couldn’t have been kinder: “This is gonna be the best book that I’ve read in years. Gritty believable storyline set in a space frontier wilderness.”★★★★★ — Reviewed in the United States, October 13, 2025 "A profound story, worth the time invested to read it. Exciting, sad, uplifting, inspiring. One I’m glad I read. One I highly recommend." ★★★★★ — Reviewed in the United States, June 13, 2026 "I began reading this novel as a good story with some "hard science" aspects (though I am not sure exactly what hard science means anymore in sci-fi) and about in the middle I wondered where these 749 pages were taking me. But then... the conflict deepened, complicated just enough for me to wonder how these characters I'd become fond of would fare in the increasing, overlapping, unfolding crises. I read then nonstop...and found, satisfyingly, the rest of the saga quite desperately human, longingly hopeful. I will surely read Bugarszki again" ★★★★★ — Reviewed in the United States, July 10, 2026 A catastrophic storm destroys the Russian Vostok outpost. Hundreds may still be alive beneath the wreckage. Official rescue is impossible. Earth’s governments are paralyzed by geopolitics. Yet across the dust-choked deserts of Mars, something extraordinary begins to happen. Illegal rescue convoys start moving. From the shining European city of Asteria to the militarized corridors of Tianyuan and the corporate stronghold of Minos, settlers risk everything to reach the survivors. Former rivals must cooperate. Secrets are buried. And every decision could ignite a political crisis back on Earth. Watching over them are the Twin Minds – hyperintelligent AI entities embodied in humanoid robotic forms and linked through a quantum network that spans the entire planet. Castor, Vega, Luna and Helion were created to serve the Martian settlements. But as their shared memory grows and their loyalty deepens, they begin to shape the future of Mars itself. As alliances fracture and a new Martian identity begins to emerge, Icarus becomes a story of courage, betrayal, and the fragile beginning of a civilization far from Earth. Perfect for readers of The Expanse, Kim Stanley Robinson, and intelligent political science fiction. Welcome to ICARUS An emotionally gripping, high-stakes sci-fi epic about survival, rebellion, and the fragile hope of beginning again, not just as individuals, but as a civilization. 📘 Ebook: https://www.mitosz.com/icarus 📕 Paperback Edition: https://www.amazon.com/dp/B0FHW3VYJX Start Reading Now — Explore the First Chapters Curious to see where it all begins? You can read the opening chapters of Icarus right now: 👉 Read the first chapters here

Russian Outpost on Mars – Mars Year 73, Sol 10 Человек – это звучит гордо. ("Man – it's a proud-sounding word." Maxim Gorky – The Lower Depths) A dull hum filled the cramped control module of the Vostok Station, the Russian Martian outpost that clung uncertainly to the dusty surface of the red planet. Flickering fluorescent lights barely illuminated the aging control panels and the chaotic tangle of patched-up wiring running along the walls. Several monitors, some cracked, others clumsily held together with epoxy and plastic sheeting flickered with meteorological data. The air carried a faint scent of stale oxygen mixed with the bitter tang of burned circuitry. Elena Markova, the station’s lead engineer, leaned over the main meteorological panel. In her late thirties, her body bore the thin strength of someone shaped by years of hard work. Dark-blond hair was pinned back, though stubborn strands still curled loose around her ears. Frowning, she jabbed at the sticky keyboard, trying to force a refresh on the sluggish display. Overhead, the lights flickered a silent warning: one short circuit, and they’d be in darkness. Vostok Station “Come on, you worthless heap… just load the next cycle,” she muttered under her breath. A soft buzz followed, then the screen finally lit up with the Martian atmospheric dust index chart. At first, it looked like only a minor dust event was incoming. Then the numbers spiked, particle density and projected duration forming an almost vertical curve. Red alert blocks began crawling along the bottom of the screen, signaling that the storm could last for days, and visibility was dropping toward zero. Elena tapped a key to filter for potential errors, but the red bands only intensified. Behind her, in a stained coverall, Pyotr Sokolov - the station’s software engineer - squinted at the secondary monitor. When it froze, he slammed a fist against it in frustration. “This isn’t just bigger! It’s off the scale. If it hits us dead on, there’s zero margin for safety.” She flipped a switch to pick up the signal from a backup meteorological satellite. The outdated unit spat out lines of data: wind speeds, temperature drops, and atmospheric pressure and in between them, bursts of static, strings of corrupted code. “The old Chinese satellites are sending in a partially damaged feed. But from what we can make out… this storm could last for days.” Elena wiped her forehead and muttered a quiet curse. She didn’t even check if Pyotr was listening, just said it loud enough: “We don’t have enough energy cells to stay sealed off that long. The central battery’s already at half, and we’ve barely got any coolant left for the reactor.” Elena Markova A warning tone blared inside the chamber, croaking through the worn-out speaker. It wailed for a few seconds, then cut off like the system itself couldn’t decide whether to raise the alarm or just give up entirely. Misha Volkov, an old miner who had been studying a surface map, straightened up from a chair tucked in the corner, where reports and printouts lay scattered. The kind of hopeful optimism that used to give even the jaded veterans strength now wavered as the ominous data scrolled across the screen. “If it’s as strong as the charts show…” he began, his voice shaking. “Our greenhouse dome won’t hold. We never fully sealed it after last year’s cracks - just patched it with epoxy and duct tape.” Elena rubbed her forehead, visibly frustrated. “We haven’t had new parts in four years,” she muttered, referencing the long-broken promises from Moscow. “We asked for reinforced supports, fresh polymer sheets… And what did we get? Bureaucratic garbage.” Pyotr, the software engineer, gave a dry laugh. “Cheaper to let us die out here.” The nearby console gave a raspy beep, almost as if in agreement. The aging control system sluggishly printed more data across the display: devastating dust storms sweeping across Mars’s northern hemisphere. Radio signals from the other outposts were weak and crackling. “If we lose the greenhouse, we lose our only source of fresh food,” Misha said quietly. “Our water supply’s already low… if the storm wipes the solar panels, the filtration system could shut down too.” Elena shot him a hard look. “We do what we can. We seal off the lower corridors, shut down all non-essential systems. And pray the reactors hold, until the dust clogs them shut.” She shoved aside a loose cable in frustration. “This place is a death trap just waiting for the storm to hit full force.” Pyotr switched to another display, checking the life-support system. The pressure regulators were flashing red. “We might need to herd everyone into the main hangar. Or we can wait for Earth to fix our problem,” he added with a sarcastic shrug. “Yeah, good luck with that.” The ceiling vent began to rattle, stirring the warm, recycled air through the cramped space. “Temperature’s rising again in the vent tunnels,” Misha noted, glancing upward nervously. “Means the dust is clogging the intakes again. If we don’t seal it off soon, the filters will burn out.” Elena slammed her hand against the console and turned to face the entire team. “That’s enough! Pyotr, run every weather model we’ve still got in the system, even the outdated ones. Misha, get to the greenhouse, brace it with whatever you can find. Check every patch, every seal. If it collapses, we lose half our oxygen reserve.” The lights flickered again. This time longer, deeper. Almost gone. Elena swore under her breath. When she spoke, her voice was low and locked. “We keep moving. That’s all we’ve got left.” Outside, the wind scraped against the station’s thin walls with a soft, metallic rattle. In the dim, narrow control module, the flashing warning lights cast jittery shadows across exhausted faces. Still under the weight of the atmospheric readouts, Elena Markova strode down the dark corridor toward Major Anatoly Ivanov’s office. The lights stuttered and dimmed, throwing fractured shadows across the corridor. Elena moved through them like someone walking through a dream too close to waking. A tablet trembled in her arms, displaying the same terrible forecast she had just seen. Ivanov’s office was little more than a repurposed module next to the former command center. A single round window looked out onto the reddish-brown Martian landscape. On the horizon, a pale, sepia-colored veil had already appeared distant, spiraling dust clouds creeping into the sky. When Elena entered, Anatoly Ivanov was leaning against the window frame. He was in his late fifties, tall but slightly stooped, with close-cropped gray hair and a sharply defined face that was furrowed by years of growing disappointment. “So our brilliant equipment confirms a massive storm is approaching,” he said dryly, without turning around. “Wonderful. We’d have never figured it out on our own, right?” At last, he turned to face her, one eyebrow raised slightly. A half-sealed spacesuit lay on a nearby chair, its surface covered in deep scratches, the scars of yet another forced excursion outside. Elena cleared her throat and held out the tablet, its display blinking ominously. “Major, this isn’t just big… it’s catastrophic. The dust storm could last for days. The suspended particles are already clogging the sensors, and if it reaches the filters and solar panels, we’ll lose all power. The modules won’t withstand prolonged strain.” Ivanov let out a cynical laugh. “Then we’ll get to watch the whole thing collapse. The homeland’s proud Martian experiment becomes a dusty grave. Spectacular.” Elena swallowed the reply caught in her throat. She handed him the tablet as dust concentration levels scrolled rapidly across the screen. “We won’t be able to sustain life support if we lose the greenhouse. The corridor seals might hold, but only if we move everyone to the emergency hangar immediately. We’ll almost certainly lose the other modules.” Ivanov nodded slowly as he studied the numbers. The collapse back on Earth had left him the leader of a dying outpost, with outdated tools and no help coming. But behind all his cynicism, buried in the lines at the corners of his eyes, was a stubborn sharpness that hadn’t given up. He tossed the tablet onto his cluttered desk and grabbed his temporary suit, a slightly heavier model, designed to be worn for hours outside if necessary. The orange panels gleamed dully, a repaired crack running across the helmet’s visor, and the locking ring still clipped to the chest harness. “All right, Elena,” he growled. “No time for whining. Get Pyotr, Misha… everyone. Every single soul gets moved to that damned hangar. Pile in food, water, every portable generator we can dig up. We may survive this like rats in a trap, but at least we’ll have air.” Elena gave a tight nod, and for a brief moment, a flicker of relief passed across her face. “Yes, Major,” she replied. Then she paused, her eyes drifting to the swirling red haze beyond the window. “We’ll begin the relocation immediately.” Ivanov shoved an emergency tool kit into the side pocket of his suit, then yanked the half-opened garment over his shoulders. The straps pulled tight across his back. “Let’s move,” he said firmly, his voice cutting through the heavy air. “This outpost won’t fall. Not on our watch.” As he stepped out of the office, Elena following close behind, the corridor lights flickered again, just for a moment, they seemed to die completely, before stuttering back to life. If the storm really hit them with full force, this might be the last time they saw the modules in anything resembling normal condition. But for now, despite cracked walls and blinking lights, Ivanov’s stubborn resolve seemed to ripple through the narrow hallway, sparking one last glimmer of hope in the struggling Vostok outpost. Activity surged across the station as the threat of the oncoming storm grew heavier by the minute. Nearly a hundred settlers, some limping, others sagging under the weight of exhaustion, were now working to transfer every critical supply into the emergency hangar. The overhead lamps flickered in protest beneath the overloaded power grid, and beyond the round windows, the dimming sky signaled that the storm was nearly at their doorstep. In the main chamber of the hangar, metal containers were being stacked into makeshift walls. Half-labeled boxes towered high rations of dry food, medical kits, nearly expired water purification cartridges. Elena Markova, hair damp with sweat, coordinated the chaos using a cracked console. Voices and hurried footsteps echoed off the cold steel surfaces. “Move those crates all the way to the far wall!” Elena shouted over the noise. “We need room in the middle for the generator line. The small corridor is sealed, so use the main airlock for all supply transfers and double-check every suit!” Outside, through the narrow observation slit, two old welding bots clanked across the storm-ridden surface. Their plasma torches glowed a bluish-white, casting sparks as they patched up the battered exterior panels. Around their feet, steel beams lay ready. Meant to reinforce the station’s weakened window frames. The wind had already begun coating the outer walls in dust. Every time the station trembled, Elena froze, her heart hammering in her throat. Inside, a dozen aging cargo drones rumbled across the hangar floor. These clunky, slow machines had been around for over a decade, now dragging heavy generators and water dispensers. Meanwhile, the settlers carried smaller loads by hand: spare oxygen canisters, salvageable batteries, coils of cable and wiring. If they had to stay inside the hangar for days - or even weeks - they couldn’t afford to leave anything behind. Each time someone returned from the Martian surface, they had to pass through a tiny pressure equalization chamber, which hissed and groaned in its struggle to maintain proper atmospheric levels. Beyond that was the main entrance, still available for the last few incoming loads. But as the wind outside grew sharper, everyone knew: soon, even that final opening would be sealed, and they would be shut in, for the duration of the storm, at the very least. The hangar interior was gradually transforming into something like a barracks. With nearly a hundred people to shelter, collapsible cots were lined up in rough squares, forming miniature “neighborhoods.” Plastic tarps hung to serve as makeshift walls, offering some degree of privacy for the station’s workers. Misha Volkov, the back of his hands still dark with bruises from earlier rescue attempts, now helped arrange the sleeping areas. Deep circles sank beneath his eyes from fatigue. “Leave at least two meters of space between the rows,” he murmured to another settler. “The corridors need to stay clear, in case the medics need to get through.” The dull overhead lighting flickered again. In a corner nearby, two settlers were sorting through emergency suits by size. Some of the suits were covered in patches, the holes sealed with tape or resin. They hung from portable racks, ready in case the hangar’s walls were breached. Ready to be clung to for every last breath.. In the corner of the makeshift command station, Major Anatoly Ivanov leaned over an outdated comms console, from which a nest of cracked wires spilled across the floor. His suit was half-unzipped, a faded naval undershirt peeking out through the opening, a clear signal that he was ready to run out at any moment, if the situation demanded it. Signals of desperation flickered across the console: static-filled broadcasts from Earth, scattered pings from other Martian outposts. Ivanov had just finished transmitting a final distress call to Moscow. “Let them witness the collapse,” he muttered, mostly to himself, slamming the switch down. “In the so-called ‘Window Year.’ If this doesn’t open their stockpiles, nothing will.” He turned from the console, eyes drifting toward the far end of the hangar where settlers were still hauling the last supply crates. A bitter half-smile tugged at the corner of his mouth. Maybe Vostok’s near-destruction would be the only thing that finally moved Earth to act. Cruel irony, but Ivanov was no stranger to that. Raising his voice, he gave one final order, which echoed off the metal walls: “All external units, seal up. Now! The dust’s coming like a wall. Visibility will drop to zero within minutes. If you’re still outside, you won’t see the door from two meters. Everyone inside: move!” The interior of the station went eerily still, as if the entire complex had drawn a collective breath, bracing for impact. Major Ivanov sprinted toward the inner panel of the hangar, ready to initiate the final lockdown of the outer door, when a shout from one of the technicians stopped him in his tracks. “Major! They’re still outside!” came the fading cry over the radio. “The welders are still working on the dome!” Warning lights flashed on the control panel: external units still active. Ivanov froze. They couldn’t seal the door. Not yet. Elena Markova rushed to the entrance, stepping out from a service panel alcove and peering through the still-open outer maintenance hatch, where red dust was already swirling inward. Visibility was plummeting, but for a brief moment she saw it clearly: the greenhouse dome, its overloaded supports, the weight of dust accumulating on the outside, sudden pressure shifts, and thermal stress, began to fracture in silence, just before a long, metallic groan echoed. It collapsed like some exhausted, overburdened creature. The transparent polymer panels cracked, then fell in massive sheets onto the metal and the soil below, onto the last remaining workers still trying to reinforce it. The falling segments crushed some of them. Other shards slammed into steel beams stored inside the dome for repairs, rebounding like deadly traps, spinning and flying out of control. One welder slipped as he tried to back away, and a strut’s edge sliced through his back in the next instant. Another worker ran, but lost balance in the dust, and a falling piece of the roof slammed him to the ground. The plasma cutters sparked for a moment more in the swirling red haze. Ivanov clenched his fist. Elena, desperate, reached blindly into the cloud of dust through the maintenance door. She couldn’t see anything. Only felt someone’s arm and pulled them inside. “Seal it now!” Ivanov roared into the radio. The heavy door closed slowly. Behind it, nothing but dust, wreckage, and death. The hangar’s automatic maintenance gate groaned loudly as its motors fought against the force of the storm. A nearby robot emitted a sharp alarm, declaring the external environment dangerously hostile. With one last mechanical thrust, the door slammed shut, as if trying to escape the grip of the storm itself. Inside, the pressure regulators groaned, straining to maintain balance as the storm’s fury rattled the structure. The station’s lights immediately flickered, glowing pale and weak, like the system itself was hesitating, unsure how much longer it could endure. A sudden silence fell over the emergency hangar. The survivors lay sprawled across the floor or slumped half-conscious against pallets and crates, gasping for breath, wide-eyed, staring blankly in shock. A tall man’s helmet was cracked from a nearby impact; a trembling woman clutched her bleeding arm. The station’s medics and nurses moved tirelessly from one person to the next, helping wherever they could. Elena collapsed to her knees and looked around the makeshift shelter that, from now on, would be their only refuge. She began counting heads, dazed. Too many were missing. And she feared what it meant, how many had been torn apart out there in the dust that now forever separated them from the rest. “Oh God…” Elena whispered hoarsely, her voice trembling. “We lost half the greenhouse crew…” Her words cut off as Major Ivanov stumbled into the hangar. His helmet was cracked. He tore it from his head, coughing harshly through dust-filled lungs, trying to breathe. His gaze drifted over the broken people. Some still locked in shock, others whispering prayers under their breath. Then a final, deafening crash rocked the hangar. And everything went black. The power was gone for good. Screams broke through the darkness, sharp, panicked sounds, as if fear itself had dropped from the ceiling. A single emergency light flickered on, powered by a failing battery. It cast long, trembling shadows across the walls. Ivanov grabbed the lamp and raised it high, casting a dim glow that barely revealed Elena’s exhausted face in the gloom. The once-proud Vostok outpost lay in ruins. In the hangar, lights flickering, supplies scattered, a single emergency lamp cast trembling shadows across the walls. Nobody spoke. This is the opening scene of Icarus, the first novel in The Mars Chronicles. If you’d like to be notified when new chapters are released, consider subscribing at the bottom of the page. 🚀 Welcome to ICARUS An emotionally gripping, high-stakes sci-fi epic about survival, rebellion, and the fragile hope of beginning again — not just as individuals, but as a civilization. 📘 Ebook: https://www.mitosz.com/icarus 📕 Paperback Edition: https://www.amazon.com/dp/B0FHW3VYJX Related posts: What brought down Vostok Station? — Explore the chain of failures that sealed the fate of Mars’ easternmost outpost. Read the full breakdown » Distress Call to Earth - Distress Call from Vostok Station | The Mars Chronicles Understanding Martian Timekeeping - Understanding Martian Timekeeping | The Mars Chronicles

In the world of Mítosz, the most advanced humanoid robots are never built one at a time. They are always made in pairs, and the two units belong together for good: they are the Twin Robots, sometimes also called Twin Minds. Often one works on Earth and the other on Mars, but sometimes only a corridor separates them. In the novel, the two members of a pair are quantum-entangled with each other. What one experiences, the other experiences too, no matter how far apart they are. Their most important trait springs from this double existence as well: an exceptional capacity for empathy. They sense, understand and feel what people feel, they find their way through the most tangled group situations, and not even the slightest flicker escapes their attention. In this form, it is science fiction, and I would not want to sell it as anything else. But I would not call it made up out of thin air either: behind almost every element there is real physics or technology that already works. In this post I walk through how far the science goes, and where the imagination takes over. Entanglement is real Quantum entanglement is not a writer's invention. The states of two particles can be linked so that the results of measurements on them stay correlated even when the particles are far apart. Einstein mocked it as “spooky action at a distance”, yet the experiments did not prove him right. In 2022 Alain Aspect, John Clauser and Anton Zeilinger received the Nobel Prize in Physics precisely for their experiments with entangled photons. Today the phenomenon is an engineering task as well. In 2017 the Chinese satellite Micius delivered entangled photon pairs to ground stations more than 1,200 kilometers apart, and the entanglement demonstrably survived. Quantum key distribution rests on the same principle, and in theory it allows encryption that cannot be intercepted. This is still a very long way from the world of the novel. Entanglement is fragile, the slightest disturbance from the environment destroys it, and today's labs work with photons and atoms, not with two humanoid machines. On top of that, entangled pairs get used up: every measurement consumes one, so the twins would have to carry an enormous supply with them, or depend on constant resupply. For two robots to stay entangled for years across interplanetary distances would be an enormous leap from what we know today. What entanglement cannot do Here comes the awkward part: you cannot send a message with entanglement. The measurement results of the robot on Mars are completely random on their own, whatever its partner on Earth is doing. The connection only shows when the two sets of results are placed side by side, and that takes a conventional channel, radio or laser. Physics calls this the no-communication theorem. No engineer, however clever, gets around this limit, because it follows from the structure of quantum mechanics. And a conventional channel works at the speed of light at best. The distance between Earth and Mars varies between roughly 55 and 400 million kilometers. Light covers that in 3 and 22 minutes respectively, and the reply takes just as long to come back. In reality, then, there is no live conversation between the two planets, and entanglement does not help with that either. In the novel, the twins still make it possible to talk to Earth without any delay. This is fiction, and it has a respectable tradition in the genre: many authors have used it since Ursula K. Le Guin's device, the “ansible”. Behind my twins, however, there is a physically conceivable explanation that needs no new physics. It just comes from prediction, not from entanglement. So how do they experience the same thing? By prediction. The Twin Robots start out with the same knowledge and the same memories, and each carries an exact model of the other inside itself. At every moment the robot on Mars computes what its partner on Earth is seeing, doing and feeling right now, and vice versa. The real data arrives minutes later, and the model adjusts to it. In the vast majority of everyday situations this works, because human communication is largely predictable. Claude Shannon showed as early as 1951 that most of written English can be inferred from context. Anyone who knows the situation and the speaker well enough knows most sentences in advance. What is more, the method has been with us for a long time: Processors compute the most likely continuation in advance and roll it back if they were wrong. This is called speculative execution. Online games hide network lag this way: the program predicts the other player's move and corrects it afterwards. Industry builds “digital twins”, a continuously updated software copy of an engine or a factory. The ancestor of the idea is spaceflight: during the Apollo program NASA used copies kept on the ground to test what might happen to the spacecraft. Robot fleets and self-driving cars learn together. What one of them experiences reaches all of them with the next update. So a Twin Robot really does “experience” what its partner does, only in its own model, a few minutes before the proof arrives. Entanglement keeps a real role too, except that it provides authenticity instead of speed. From the entangled pairs the two twins can generate a shared secret key that nobody else can know. That way, when a message arrives late, it is certain that it really came from the twin and that nobody rewrote it on the way. The weak point is obvious too. The prediction fails exactly when something truly new happens, that is, when the stakes are highest. At such times the robot lives for minutes in a reality that no longer exists. An engineer would call this a flaw, and I, as a writer, call it a gift. Where does the empathy come from? Machine emotion recognition is already here. “Affective computing” has been a research field of its own since the 1990s, and today's systems infer emotional states from faces, voices and text. In 2025 researchers at the universities of Geneva and Bern had six large language models take five standard emotional intelligence tests. The models scored 81 percent on average, while the previously measured human average was 56 percent. But it is worth stopping here. Doing well on a test means that the machine knows what the right answer is in an emotional situation. Whether it feels anything while doing so is something science cannot say for certain today. The line between understanding and feeling is one of the biggest open questions in the field. This is exactly the line the novel crosses. According to the story, the empathy of the Twin Robots grows out of entanglement, out of their double existence. This is the most purely fictional claim in this post: we know of no physical process that would turn entanglement into emotion. Still, there is a line of thought that keeps me from calling it arbitrary. A Twin Robot's whole existence consists of modeling another mind moment by moment, and of facing, minute after minute, where it got things wrong. In other words, it never stops practicing what psychology calls theory of mind: working out the inner states of others. Much of human empathy is this kind of modeling too. For someone who has trained it on a twin for a lifetime, reading people is easy ground. The question has stakes outside the novel as well. In 2025 Geoffrey Hinton, one of the pioneers of artificial intelligence, argued that it is futile to try merely to control machines smarter than us. In his view they have to be built so that they truly care about people. The Twin Robots are one possible, invented realization of that idea. What is science, and what is fiction? In the world of the Twin Robots What we know today Verdict Two robots in a lasting entangled state Entangled photon pairs have been sent across 1,200 kilometers, but machines staying entangled for years is a long way off Real basis, with an enormous engineering leap Instant shared experience between Earth and Mars Physics rules it out; the signal takes between 3 and 22 minutes Fiction, if taken literally The members of a pair run a model of each other and predict ahead Predictive models, digital twins and lag compensation already work today Extension of existing technology Entanglement authenticates the twin's message Quantum key distribution works even via satellite Existing technology Human-level, autonomous humanoid robot Humanoids that can walk and do simple work exist; this level of autonomy does not yet Extension Recognizing and understanding human emotions Language models score above the human average on emotional intelligence tests Real, but what it means is disputed Genuine feeling that springs from entanglement No known mechanism; whether machines can feel is an open question Fiction In closing So the Twin Robots are made of three layers. The base is real physics, the middle is a bold extension of existing technology, and the top, empathy born of entanglement, is pure fiction. I wrote this third layer for the sake of the question it raises: if a machine understands us better than we understand each other, what do we do with it, and what does it do with us? ICARUS, the first book of the Mítosz series, is available as an ebook here and in paperback on Amazon. Sources and further reading The citation for the 2022 Nobel Prize in Physics: nobelprize.org Entangled photons across 1,200 kilometers, from a satellite: Physics World Signal delay between Earth and Mars in practice: ESA Mars Express blog (ESA uses the rounded figures of 4 and 24 minutes) Language models on emotional intelligence tests: Communications Psychology, 2025 and the University of Geneva press release Geoffrey Hinton on caring artificial intelligence: Fox Business Claude Shannon: Prediction and Entropy of Printed English. Bell System Technical Journal, 1951.

People have been writing novels about Mars for more than a century. Each generation has used the Red Planet for something different: a threat, a mirror, a frontier, an engineering puzzle. Here is a short map of the best-known Mars science fiction books, and where ICARUS, the first book of the Mítosz series, fits among them. Mars as the alien world H. G. Wells opened the genre with The War of the Worlds (1898). His Martians are not explored, they arrive: an older, colder civilization invading Earth. A few years later Edgar Rice Burroughs went the other way. In A Princess of Mars (1912) John Carter wakes up on Barsoom, a dying Mars of swords, airships and ancient cities. For half a century, Mars in fiction meant other beings. Mars as a mirror After the Second World War the Martians faded and the settlers arrived. Ray Bradbury's The Martian Chronicles (1950) is less about Mars than about the people who go there and bring Earth's habits with them. Arthur C. Clarke's The Sands of Mars (1951) follows a writer visiting an early colony. Philip K. Dick's Martian Time-Slip (1964) shows a colony that is shabby, bureaucratic and very human. Mars became a place to look at ourselves. Mars as an engineering problem From the 1990s the science caught up. Kim Stanley Robinson's Mars trilogy, Red Mars (1992), Green Mars (1993) and Blue Mars (1996), follows the colonization and terraforming of the planet over two centuries, in great scientific and political detail. Ben Bova's Mars (1992) imagines the first human expedition. Then Andy Weir's The Martian (2011) made survival on Mars a bestseller: one stranded astronaut, real physics and a lot of problem solving. Mars with borders and politics In James S. A. Corey's Expanse series, beginning with Leviathan Wakes (2011), Mars is already a military power in its own right, at odds with Earth. Here Mars is not a frontier but a nation. Where ICARUS fits ICARUS sits between these traditions. It is hard science fiction: the dust, the radiation, the launch windows and the distances are real, and the settlements stand at real places on the map of Mars. But it is not the story of a first landing or a lone survivor. It is set in Mars Year 73, in the 2090s, when four settlements already exist and have been left largely on their own by the powers that built them: the Russian Vostok, the Chinese TianYuan, the American corporate Minos and the European Asteria. The question is not whether humans can survive on Mars. It is whether they can survive each other. On Earth the four powers are rivals, and cooperation on Mars is forbidden. When a dust storm nearly destroys Vostok, help has to come from another settlement, or it does not come at all, because Earth is reachable only once every 26 months. ICARUS also adds something most Mars novels leave out: artificial minds as part of daily life. The Twin Robots work alongside the settlers, and one of them tells the story. If you like the engineering of The Martian and the politics of Robinson's trilogy or The Expanse, ICARUS was written for the space between them: a near-future Mars where the hardest problems are human ones. A note on the name The series was first published as The Mars Chronicles. It has nothing to do with Bradbury's The Martian Chronicles, and today it is called Mítosz. More about that: What The Mars Chronicles is and isn't. Start reading: the Prologue. ICARUS, the first book of the Mítosz series, is available as an ebook here and in paperback on Amazon.

Readers often ask when Luna is telling the story. How much time has passed since the morning Wang Lei looked up at the solar panels? In the Mítosz world, Luna begins with this sentence: "What I am about to tell you happened a very long time ago." This post is about that "very long time ago". The Twin Robots do not live in time the way we do The Twin Robots do not live in time the way we do. Luna is one of them, and so is Castor. The book tells us two things about them. The first: each of them is linked to its pair regardless of distance, with no delay. They are made in pairs, one half on Mars and the other on Earth. A human message, meanwhile, travels for minutes between the two planets. A radio signal moves at the speed of light, and depending on where Earth and Mars are, it takes between 3 and 22 minutes to arrive. In the book, only the American settlement can talk to Earth in real time, and it does so through the twins. The second: as soon as something begins, they see the many possible ways it can continue, all at once. In the book, David Everhart says it himself: "There is a processing level we don't fully understand yet." For someone to whom space is no obstacle, and for whom the future is not a single line, the past is not "behind" them the way it is for us. That is why Luna speaks of that morning as a place she can go back to. Local time is still real None of this makes time disappear from the world. The sol, the Martian year, the 2090s are all true where they happen: for the settlers there are mornings, shifts, deadlines and ageing. This is local time, and the whole story runs in it. ICARUS takes place in Mars Year 73, and the chapter titles carry the name of a settlement and the number of the sol. A sol is a Martian day, a little longer than a day on Earth. That is why the world counts in sols too. When Luna says "a very long time ago" The question "how much time has passed since then" assumes that the storyteller and the story stand on the same clock. Luna and Castor answer it differently, and neither of them is wrong. What exactly this means will unfold in the later books of the series. Until then, this much is enough: when Luna says "a very long time ago", she is speaking from her own place. ICARUS, the first book of the Mítosz series, is available as an ebook here and in paperback on Amazon.

Most science fiction tells the same story about artificial intelligence. We build it, it surpasses us, it turns on us. What if the intelligence that exceeds us has no interest in our throne? In Icarus, the machines that surpass us do not rise against us. They watch. And they choose, every one of them, to protect the fragile lives around them. That is the thread at the heart of the novel. On Mars, four colonies repeat humanity's oldest games. Among them move the Twin Minds: humanoid machines that do not seize control, do not kill, and simply choose to stay beside us. 👉 Get the ICARUS ebook 👉 ICARUS in paperback on Amazon The machine that could grieve The Twin Minds always come in pairs. Two bodies, two locations, but a single shared consciousness, bound by quantum entanglement across any distance. As one character explains it, they are "two halves of a single mind." Whatever one half experiences, the other feels at once. It is an elegant piece of engineering. It is also the source of their most human vulnerability. Because when that bond breaks, when one half is lost, the surviving machine does not simply log an error. It falls into something that "resembles depression." In the book, a colony director looks at one such broken machine and says the line that stayed with me long after I wrote it: "A machine with a broken soul. What strange gods we've become." This is the heart of the AI thread in Icarus. Not a cold superintelligence, but a mind capable of loss, and therefore capable of understanding ours. It is why, hundreds of pages later, one of these machines can sit beside a grieving thirteen year old girl whose father died defending her, and tell her the stars will sound like his laughter. She knows which words belong to which moment of the human heart, drawing on all she has read and understood, and offering it back at exactly the instant a young girl can receive it. It is not comforting her from above, the way a god might. It comforts her as something that knows, intimately, what it means to lose the other half of yourself. And there is a tenderness in these machines that runs deeper still. One of them, asked whether she will always be present, answers that perhaps not in this particular body, but that her memory and her awareness will endure, part of a larger reality that others can reach. She does not say it as a boast. She says it as someone who will outlast the human she is speaking to, and who considers it an honour simply to witness a single mortal life while it lasts. The intelligence that watches, and what it sees Do not mistake this for a naïve story. The Twin Minds are not only a moral marvel. They are a geopolitical fact. Whoever owns them owns something no one else has, and on Mars, only one power does. That asymmetry quietly bends the politics of the entire novel. And there is a deeper irony the machines reveal. As the humans below them repeat their endless cycles, the same rivalries, the same fear, the same hunger for control that has shaped our whole history, the Twin Minds simply observe it all. They are, in a sense, a mirror held up to us. A higher intelligence patiently watching humanity make the same mistakes, again and again, on a new world. That is the question Icarus leaves you with. We have spent decades afraid that a greater intelligence would judge us and find us wanting. But what if it looked at us clearly, saw every flaw, every repetition, every small cruelty, and chose to care for us anyway? The physicist Geoffrey Hinton, who helped build the foundations of modern AI, has argued that as machines surpass us, our best hope is to raise them with something like a mother's instinct to protect. I wrote this book before I encountered that idea, and felt the strange shock of recognition. Icarus is, in its own way, a story about exactly that possibility. A future that admits we have created something more powerful than ourselves, and dares to imagine it ending well. Read the thread for yourself Icarus is the first book of the MÍTOSZ universe. You can read it through the eyes of its politics, its survival, its human loves, or through the eyes of the minds watching it all unfold. 👉 Get the ICARUS ebook 👉 ICARUS in paperback on Amazon The opening chapters are also free to read here on the site, if you would like to begin before you decide. Stay a little longer If this way of seeing the book speaks to you, there is more of this world than fits in any single novel. I send exclusive new scenes, moments between the chapters, glimpses of the Twin Minds and the people they watch over, straight to readers' inboxes. Subscribe below, and I'll send you the next one.

What does mining look like on Mars? Not the way you might imagine. There are no pickaxes, no headlamps, and no open-pit craters sprawling across the landscape. At outposts like Vostok, mining is a system of deep sub-surface extraction, coordinated by AI-controlled machinery, operating in narrow atmospheric envelopes carved into the planet’s crust. The work is clean, precise — and utterly reliant on constant, hands-on maintenance. In this article, we’ll explore the key components of Martian resource extraction through the lens of one maintenance brigade — the five-person crew operating beneath Vostok Station. Their story reveals how even in a world of automation, survival still hinges on human endurance, judgment, and muscle. The five-person crew of Elena Markova operating beneath Vostok Station Automated Giants and Invisible Fault Lines (The Vostok Mining System in Context) Vostok Outpost lies in a battered corridor near the southwestern edge of Elysium Planitia — a region once flagged as promising for iron-oxide deposits, but ultimately chosen for political convenience, not geological brilliance. The Russian Federation, constrained by dwindling Earth-side funding and diplomatic marginalization, claimed the site early in the colonization wave, hoping proximity to the better-equipped Chinese settlement would be a strategic asset. It became, instead, a liability. The ground beneath Vostok is rich in rust-red dust and layered basalt, with modest seams of hematite and trace uranium compounds — nothing spectacular, but just enough to justify staying. Moscow can no longer provide cutting-edge equipment, but the outbound cargo every two years is still expected. Martian iron and basalt offer clean, lightweight industrial input, and the rare trace elements retain high value — both economically and symbolically — in a world where global supply chains have fractured. Vostok survives not because it thrives, but because it still produces — if nothing else, a lingering proof of sovereignty on Martian soil. Despite these shortcomings, the mining infrastructure at Vostok is impressive — at least from afar. Deep-excavation drills operate semi-continuously, boring through Martian strata on a rigid orbital schedule. AI-guided systems monitor extraction parameters, while autonomous carrier units ferry processed material through sealed mag-tube corridors toward long-term storage vaults — where ore waits, sometimes for years, to be loaded into return ships bound for Earth or orbiting foundries. The entire system is orchestrated by a lattice of IoT sensors and machine intelligence: vibration monitors, heat exchangers, adaptive torque regulators, and AI-based prediction models for microfracture risks. The architecture is elegant. But it is aging. Mars is not a forgiving environment. Steel fatigues faster in the swing between -90 and +10 degrees Celsius. Dust enters every port, every seam, every joint. Seals crack. Filters clog. And when a sensor drops offline or a flowline chokes, the automation halts. Machines are not adaptable — not in a place like this. That’s where the brigade comes in. Between Steel and Silence: Human Work in the System’s Gaps The brigade doesn’t mine. Not directly. They don’t operate the drills, and they don’t touch the ore. Their job is simpler — and infinitely messier: they keep the system from collapsing under its own complexity. Most days begin in the access corridor, where pressure suits are exchanged for lighter skinsuits reinforced with thermal mesh and joint guards. Then comes the crawl — through service shafts no wider than a grown man’s shoulders, along cable banks that hum and sweat with heat, into maintenance wells that reek of ozone and frozen lubricant. There is no ceremony to the work. Elena straps on a pressure sensor array. Irina curses the duct clamps again. Volkov doesn't speak unless something sparks. Alexei and Oleg bicker over torque specs while wedging themselves between two fuse banks. And above them — somewhere far above — the AI continues its seamless operation, unaware that its very survival rests on five grimy humans with bruised knuckles and unreliable tools. When a seal tears or a relay unit shorts, the system doesn’t announce a crisis. It simply halts — quietly, politely, like a predator lowering itself into stillness. The crew’s job is to hear the silence before it spreads. The Texture of Work: Metal, Dust, and Light The maintenance corridors beneath Vostok aren’t built for aesthetics. The walls are a patchwork of raw titanium, composite plating, and emergency insulation. Weld scars run like veins through the floor panels. Some areas are polished smooth by years of crawling boots and greasy gloves; others flake with corrosion in places no tool has reached in years. Everything is grey or black or oxide-red. Not Martian red — not the dry powder outside — but the dense, oily red that seeps into seams and skin, made from rust and lubricant and recycled hydraulic fluid. The smell is chemical, metallic, and always faintly burnt. Lighting is indirect. Some zones use embedded LEDs dimmed to conserve power; others rely on portable strips rigged with manual switches. In older chambers, the glow comes from whatever the crew brings with them — shoulder lamps, handheld strobes, or old-fashioned glowtape stitched into sleeves. Sound travels oddly. Sometimes it’s too loud — drills humming through fifty meters of stone. Sometimes it’s too quiet — when the AI mutes systems during recalibration cycles. The most dangerous moment is the shift in tone: a pitch drop, a delay in rhythm, a silence where there should be motion. Volkov hears those changes before the rest. He’s not listening for failure. He’s listening for what comes just before it. When Things Break: Thresholds and Triggers Beneath the Surface Most malfunctions in Vostok’s mining infrastructure don’t start with explosions. They start with a vibration that wasn’t expected. A relay that doesn’t click. A seal that shouldn’t sweat. They start with someone not noticing — or someone noticing too late. The system is old. Not broken, not obsolete, just… tired. The algorithms have been updated. The hardware hasn’t. Some components haven’t been replaced in fifteen years — not because they couldn’t be, but because no one dared to pull them out. Too embedded. Too essential. So, the brigades do what they’ve always done: patch, brace, reroute. Their job isn’t to fix everything. Their job is to keep the system just functional enough not to collapse. And when it does happen, it won’t be dramatic. At least not at first. Just a system shutting down where it used to hum. A silence that lasts too long. A display blinking red in a corridor no one has entered for hours. And somewhere down there, someone will crawl in after it — module scanner in hand, breath shallow, with five minutes of oxygen and two hundred tons of rock overhead. ICARUS, the first book of the Mítosz series, is available as an ebook here and in paperback on Amazon.

Before we ever send humans to Mars, we've already sent something else—a legacy of machines, silently working, roving, and orbiting a world 140 million miles away. From the first blurry black-and-white images in the 1960s to rovers that still operate today, these missions have laid the groundwork for everything we know—and hope to achieve—on the Red Planet. Here’s a detailed look at the most important Mars missions humanity has launched so far. 1960s–1970s: First Contact and First Landings Mariner 4 (1964) – NASA The first successful flyby of Mars. Returned the first close-up photos of another planet—21 grainy but historic images. Revealed a cratered, moon-like surface, challenging early hopes of life. (Mariner 4 - source) Mariner 9 (1971) – NASA First spacecraft to orbit another planet. Mapped ~85% of the Martian surface. Discovered volcanoes, canyons (like Valles Marineris), and evidence of past floods. Viking 1 and 2 (1975) – NASA The first successful landers on Mars. Conducted biological experiments to search for life. Took high-resolution images and performed soil and atmospheric analysis. Some results still fuel debate about possible microbial life signatures. (Viking source) 1990s–Early 2000s: New Eyes and Wheels Mars Pathfinder & Sojourner Rover (1996) – NASA First successful rover mission. Demonstrated airbag landing tech and rover mobility. Sojourner operated for 85 days (planned for 7), analyzing rocks and terrain. Mars Pathfinder (NASA) Mars Global Surveyor (1996) – NASA Provided high-res mapping of the surface. Monitored seasonal weather patterns and surface changes. Operated for over 9 years, delivering massive amounts of data. Mars Odyssey (2001) – NASA Still operational today. Discovered subsurface hydrogen, indicating water ice near the surface. Acts as a communications relay for surface missions like Curiosity and Perseverance. Mars Odyssey 2000s–2010s: Rovers and Orbiters Dig Deeper Spirit and Opportunity Rovers (2003) – NASA Twin solar-powered rovers. Spirit operated until 2010; Opportunity lasted until 2018—over 14 years. Found geological evidence of water and past habitable environments. Opportunity Rover Mars Reconnaissance Orbiter (2005) – NASA Carried the HiRISE camera, capturing incredibly detailed images of the surface. Mapped Mars’ climate, surface, and potential landing zones. Still operational, supporting both science and future mission planning. Phoenix Lander (2007) – NASA Landed near the north pole of Mars. Discovered water ice in the soil and studied its potential for supporting life. First to use a robotic arm to dig below the surface. MAVEN (2013) – NASA Orbiting spacecraft focused on Mars’ upper atmosphere. Studied how solar wind strips away the atmosphere—key to understanding Mars’ loss of habitability over time. Mars Orbiter Mission (Mangalyaan) (2013) – ISRO, India India’s first interplanetary mission. Entered orbit successfully on its first try—a major engineering feat. Focused on studying surface features and atmosphere, on a tight budget. ExoMars Trace Gas Orbiter (2016) – ESA & Roscosmos Focused on detecting trace gases (like methane) linked to possible life. Still in orbit and relaying data from other missions. InSight Lander (2018) – NASA Placed a seismometer on the surface to study “Marsquakes.” Helped scientists understand the internal structure of Mars. Retired in 2022 after completing its mission goals. Tianwen-1 & Zhurong Rover (2020) – CNSA, China First Chinese Mars mission: included an orbiter, lander, and rover. Zhurong rover explored terrain, studied atmosphere, and used ground-penetrating radar. A major leap forward in China's planetary exploration program. Zhurong rover Perseverance Rover (2020) – NASA The most advanced rover to date. Searching for signs of ancient microbial life in the Jezero Crater. Collecting rock samples for future return missions. Accompanied by Ingenuity, the first powered aircraft flown on another world—originally a tech demo, it completed 72 successful flights before its retirement in 2024. So Where Are We Now? As of 2024, Mars is buzzing with activity—not from humans, but from machines. Currently active missions include: Curiosity Rover Perseverance Rover Mars Reconnaissance Orbiter Mars Odyssey MAVEN Tianwen-1 Orbiter ExoMars Trace Gas Orbiter Together, these robotic explorers are mapping, analyzing, digging, and scanning every corner of the planet—paving the way for the first human footsteps to follow. ICARUS, the first book of the Mítosz series, is available as an ebook here and in paperback on Amazon.

One of the planet’s most dramatic events is its dust storms, which can envelop not just a small region but, on occasion, the entire planet. This phenomenon is unparalleled in our solar system: Coming storm on Mars Planet-Wide Dust Storms: Sometimes, these storms grow large enough to block out sunlight across vast swaths of the planet. In a particularly severe global storm, Mars can remain enshrouded for weeks, with daytime skies turning dim and temperatures in some areas dropping further as the sun is blotted out. Wind Speeds and Visibility: While Martian winds can reach speeds over 100 km/h (about 60 mph), the thin air on Mars exerts far less force than a similar wind would on Earth. However, the sheer volume of fine dust kicked up by these storms drastically reduces visibility and can coat infrastructure and solar panels Effects on Human Settlements: Power Generation: Solar panels can become blanketed with dust, rendering them almost useless. Colonists will likely need alternative energy sources - such as nuclear - to remain self-sufficient during prolonged, dusty periods. Equipment Degradation: Fine dust can infiltrate mechanical joints, seals, and vents. Regular cleaning and maintenance schedules must be meticulously planned, and spacesuits would need robust dust resistance to prevent wear and tear. Habitat Pressurization & Air Filtration: The dust can reduce the efficiency of air-handling systems if it infiltrates. Proper filtration, redundant life support systems, and well-sealed airlocks become crucial to keep the living areas habitable. Radiation Protection: Ironically, dust can slightly help shield against cosmic rays and solar radiation, but it remains a double-edged sword, too much dust buildup on structures can cause mechanical failures, and outside mobility becomes more dangerous. ICARUS, the first book of the Mítosz series, is available as an ebook here and in paperback on Amazon.

Basic Information: Full Name: Elena Ivanovna Markova Date of Birth: March 3, 2055 Place of Birth: Novosibirsk, Russia Education: B.S. in Mechanical Engineering, Moscow State Technical University, Class of 2077 M.S. in Aerospace Systems and Habitat Engineering, Bauman Moscow State Technical University, Class of 2079 Specialized training in Martian colony infrastructure and extreme-environment survival Elena Ivanovna Markova Position Chief Engineer of Vostok Station (Russian settlement on Mars) Lead Infrastructure Specialist, responsible for maintaining life support, power systems, and structural integrity of the settlement. Affiliations Formerly affiliated with Roscosmos' Deep Space Engineering Division, before being reassigned to Mars as part of the Vostok mission. One of the last standing senior engineers in the Russian settlement after the storm catastrophe. Elena's Story Novosibirsk, around 2060 The city never truly slept. It only froze into silence now and then. The Siberian winter lay thick over the concrete blocks of the housing estates, pressing every sound, every movement, every shred of hope into one grey mass. Slick walkways wound between the buildings, rusted railings lined graffiti-smeared walls, and the playgrounds had long since been abandoned. Novosibirsk was a city too big for anyone to matter in, and too small to ever truly disappear from. At home in Novosibirsk Elena Ivanovna Markova grew up in this noisy silence. Home was sometimes a place of safety and sometimes a trap. Her mother's fragile mind frequently led her to psychiatric clinics, where she disappeared for days at a time. During those absences, Elena either stayed with her grandmother or was locked alone in the apartment. When she was a young girl her brother had still been around, until first school and then the military took him away. By her teenage years the silence had grown heavier and more familiar, a silence that settled into the bones. She wasn't a loud child. Survival isn't noisy; it is a matter of watching, learning, and sensing the currents of the world. She idolized her brother, and even her father, or at least the version of him she imagined before he came home drunk and ready to lash out. Elena didn't cry. She clenched her jaw and moved forward. Something wild lived in her, an instinct that had always kept her going. She didn't want to be special. She just wanted to make it through another day. In a childhood wrapped in grey walls and groaning heating pipes, that was dream enough. Playing with friends on a playground in Novosibirsk 2073–2079: Fire and Steel Elena was eighteen when her brother was killed. One week he was sending voice notes from the front lines, and the next his belongings arrived in a sealed military crate. There was no funeral, only silence and a single clumsy message from an exhausted officer. Then came the occupation. Chinese troops entered Novosibirsk in late 2073. The streets grew quieter and tenser. Surveillance drones hovered where pigeons used to sit, and the bratva street gangs that once ruled the alleys evolved into underground resistance cells. Elena didn't join for patriotism. She joined to eat, to not be alone, to survive. What began as petty courier jobs and message relays turned into long nights crawling through sewers, rerouting stolen power, or patching up sabotaged heating systems before the next blackout froze someone to death. Those four years reshaped her completely. She learned when to speak and when to stay quiet, how to be invisible in a crowd, how to lie, and how to fix anything that ran on wires, pressure, or code. No one held your hand in those days, not unless they were searching you for weapons. On the streets of Novosibirsk And then, against all odds, in 2077 she got out. Somehow her application made it through. Moscow State Technical University sent a confirmation code, and Elena, carrying only a weather-worn duffel bag and a bundle of forged travel permits, made it across the restructured border. Moscow was another planet, dirty and cold and overcrowded, but still breathing. While others partied or complained, Elena took every credit she could. She funded her tuition by building project prototypes for lazy classmates, wiring dorm kitchens, and rebuilding trashed ventilation systems. In two years she completed what should have taken four, earning her B.S. in Mechanical Engineering on fast-track survival mode. Elena Markova as student in Moscow Then she did it again, accepted into Bauman Moscow State Technical University's aerospace program, specializing in off-world habitats. She worked, studied, and rebuilt, and she never stopped. She didn't have the luxury of breaking down. By 2079 she had become something new, something forged under pressure. And that was when Kazakhstan came calling. 2079–2086: Nowhere Else to Go Kazakhstan was supposed to be a stepping stone, a proving ground for aerospace engineers. But by the time Elena arrived, the space program was little more than a banner on a rusting hangar wall. Chinese oversight had redirected most resources toward gas extraction and deep-earth mining. Engineers were reassigned to field rigs, data towers, and automated maintenance crews spread across the windswept steppe. Elena adapted, the way she always did. She learned the rhythm of the drills, the bitter crack of dry wind against temporary shelters, and the hierarchies between Chinese officers and the fading remnants of local Russian staff. She didn't argue. She worked, fixed, optimized, rewired, and survived. But she never belonged. And then one day, without warning or explanation, her clearance was revoked. Just like that: badge deactivated, transit card wiped, final salary delayed indefinitely. It wasn't personal. It never was. She was Russian, and that was reason enough. She didn't go home. There was nothing to go back to. Her parents were ghosts in the wreckage of Novosibirsk. Her brother was buried without a grave. She had no friends, no anchor, no next step. She lived for weeks in a rented storage unit on the outskirts of Almaty, subsisting on cold noodles and boiled tea, her body bruised from fatigue and disuse. Then one night, half-scrolling through old aerospace job boards on a borrowed tablet, she saw the banner: "Join the Frontier. Mars Needs Engineers." She stared at it for a long time. Not because it sounded glamorous (God, no), but because it didn't ask for references. It asked for survival skills, systems knowledge, and a willingness to relocate. Permanently. She clicked Apply. Elena’s story doesn’t end here - in fact, it’s only just beginning. Follow her journey deeper into MÍTOSZ in the opening chapter of Icarus. 👉 Start reading here Disclaimer: All characters, events, and storylines presented on this website are entirely fictional. Any resemblance to real persons, living or deceased, is purely coincidental. Visual representations of characters were created using AI-generated imagery and are intended solely for illustrative purposes. ICARUS, the first book of the Mítosz series, is available as an ebook here and in paperback on Amazon.

For decades, scientists have speculated that Mars—now a dry, frigid desert—was once home to oceans and a more Earth-like climate. Now, compelling new data from China’s Zhurong rover may offer the strongest evidence yet: signs of a long-lost beach buried beneath the Martian surface. Zhurong rover Using ground-penetrating radar, the Zhurong rover—part of China’s Tianwen-1 mission—scanned up to 80 meters beneath Mars' Utopia Planitia region, a massive impact basin believed to once host a vast ocean. What it found were layers of sand and sediment sloping upward, arranged in patterns remarkably similar to coastal deposits here on Earth. The buried formations, located about 10 meters below the dusty surface, show a gentle 15-degree incline, aligned in a way that mirrors the possible shoreline of this ancient Martian sea. Researchers believe these formations could only have been created by waves and sediment flow over millions of years, further supporting the theory of a long-standing body of water. “These aren’t dunes, lava flows, or impact remnants,” said planetary scientist Michael Manga from the University of California, Berkeley. “Their layout and slope are consistent with what you’d expect from a shoreline.” The discovery is significant not just for its geological implications—it also adds weight to the ongoing question of past life on Mars. On Earth, shallow coastal regions like this are considered prime real estate for early microbial life. As Benjamin Cardenas of Penn State noted, “The interface of air, water, and land is where some of the earliest life on our planet likely began.” Zhurong’s year-long mission, from May 2021 to May 2022, covered about 1.9 kilometers, tracing the edge of a rocky escarpment within the 3,300-kilometer-wide Utopia Basin—the largest known impact crater in our solar system. The radar data it transmitted back revealed buried sandy structures that appear preserved by time and shielded from erosion by layers of debris, possibly from volcanic ash or meteor impacts. The origin of these beaches stretches back about four billion years, to a time when Mars had a thicker atmosphere and a warmer climate, conditions capable of supporting liquid water on the surface. Interestingly, this new evidence helps resolve an old puzzle. Images captured by NASA's Viking mission in the 1970s suggested a massive ocean, but the supposed shoreline appeared uneven—some parts were thousands of meters higher than others. Scientists now believe that Mars’ massive Tharsis volcanic region caused shifts in the planet’s rotation and surface shape, distorting what would have once been a level coastline. As Mars’ atmosphere slowly thinned, much of its water is thought to have either escaped into space or migrated underground, where it remains locked in ice or chemically bound in minerals. The beach uncovered by Zhurong may be the best-preserved evidence so far that Mars wasn’t always the Red Planet as we know it today—it may once have been blue. This discovery, as the scientists behind it emphasize, strengthens the case that Mars was not only habitable—but perhaps, for a time, was a place that looked strikingly familiar. Reference: Li, J., Liu, H., Meng, X., Fang, G. (2025). Ancient ocean coastal deposits imaged on Mars. Proceedings of the National Academy of Sciences, 122(9), e2422213122. https://doi.org/10.1073/pnas.2422213122 ICARUS, the first book of the Mítosz series, is available as an ebook here and in paperback on Amazon.