Tag: details
BBC Perspectives: A ‘Balanced’ View of Genocide
© Cydonis Heavy Industries (C.H.I), Ltd (2025).
All rights reserved.
[SCENE START]
INT. BBC BROADCASTING HOUSE – STUDIO 4 – NIGHT (2025)
JONATHAN FINCH (50s, impeccably dressed, face a mask of strained professionalism) sits at a sleek, minimalist news desk. The studio is dark, save for the glow of monitors and a single spotlight on him. Opposite him is not a guest, but a curious device: a brass and Bakelite telephone, wires snaking from it into a humming server rack labelled ‘PROJECT CHRONOS’. The iconic BBC News globe spins on a screen behind him.
JONATHAN
(To camera, a practiced smile not quite reaching his eyes)
Good evening, and welcome to Perspectives. The program where we believe no issue is so settled it can’t be debated, and no voice so controversial it shouldn’t be heard. Our mission, as always, is to provide balance. To hear both sides.
He pauses, taking a slow breath.
JONATHAN (CONT’D)
Tonight, we take that mission to its ultimate conclusion. Using ‘Chronos’ technology, (which allows for audio communication across time), we will be speaking to a figure from history. A figure whose actions have, for eighty years, been presented from a single, overwhelmingly negative, viewpoint. In the interest of absolute impartiality, we are going to ask a simple question: were there any benefits to the Holocaust? And to answer, we are going live to the Wolf’s Lair, in November 1944, to speak with the German Chancellor, Adolf Hitler.
A nervous energy ripples through the off-camera crew. A junior producer is physically sick into a bin. Jonathan ignores it, his focus entirely on the antique telephone. A technician gives him a thumbs-up. The phone emits a crackle, then a series of clicks.
OPERATOR (V.O.)
(Filtered, distant)
…verbunden. Sie sind auf Sendung, mein Führer.
A voice, thin and reedy, yet bristling with a terrifying, familiar energy, cuts through the static.
HITLER (O.S. {On Screen.})
(In German, with English subtitles on screen)
Who is this? Who dares interrupt my strategic planning? Explain yourself.
Jonathan visibly swallows. His practiced neutrality is already being tested.
JONATHAN
Good evening, Chancellor. My name is Jonathan Finch. I’m a journalist with the British Broadcasting Corporation… calling from the year 2025.
There is a long pause. The only sound is the hiss of the time-stream.
HITLER (O.S.)
Sorcery. Is this a new weapon from Churchill? A psychological trick?
JONATHAN
No, sir, not at all. Think of it as… a very, very long-distance telephone call. We wanted to offer you an opportunity. History has, shall we say, judged your… racial purity project rather harshly. We at the BBC feel it is our duty to provide balance, to allow you to present your side of the argument. Specifically, on the, ah, perceived benefits of the Final Solution.
The word “benefits” hangs in the air, grotesque and obscene. Hitler, however, seems to process the request. The paranoia in his voice is replaced by intrigued arrogance.
HITLER (O.S.)
Benefits? Benefits! Of course, there are benefits! It is the most logical, most necessary act of national hygiene in human history! You speak from 2025? Then you must have seen the glorious result! A pure, strong Europe, free of the parasitic influence that has corrupted our blood and finance for centuries.
JONATHAN
(Nodding, taking a note on his tablet)
So, you would frame this primarily as a matter of… public health?
HITLER (O.S.)
It is the health of the Aryan soul! It is a spiritual cleansing! We remove the weak, the degenerate, the alien element, and the body politic thrives. Our economy, unburdened by their usury, becomes a marvel of efficiency. Our culture, unsullied by their decadent art and ideas, returns to its classical, heroic roots. We are creating a master race, and you ask me for benefits as if it is a choice between two brands of soap! It is destiny!
Jonathan’s professional veneer is cracking. His face is pale. He glances at his producer, ANNA, who is frantically drawing a finger across his throat.
JONATHAN
To play devil’s advocate, Chancellor… there was a significant human cost. Millions of… individuals were… negatively impacted. How do you square that circle from a utilitarian perspective?
HITLER (O.S.)
(A short, barking laugh)
“Individuals”? You sound like one of them. There is no individual, only the Volk. The Folk. Does a surgeon weep for the cancer cells he cuts from a body? No! He rejoices, for the body will live. We are the surgeons of humanity. The cost is irrelevant. The future is everything. I have freed Germany from a disease. Is that not a benefit your simple mind can grasp?
JONATHAN
But the methods… the industrial scale of the extermina— of the, uh, relocation. Many in our audience would find that morally… problematic.
HITLER (O.S.)
Your audience is weak! Corrupted by eighty years of lies! Morality is the will of the strong. Efficiency is a virtue! We proved that our methods were without peer. The scale was a testament to our conviction. It was a triumph of German logistics and will!
Jonathan stares into the middle distance. The concept of “balance” has revealed itself to be a black hole, sucking all decency and reason into its void. He is platforming pure evil, wrapping it in the language of a mundane policy debate. He abandons the script. His voice drops, losing its polished broadcasting tone.
JONATHAN
Did you ever visit the camps, Chancellor? Did you ever stand by the pits? Did you smell it?
The question is raw, human. It breaks the entire premise of the show. For the first time, Hitler is silent. The sneering confidence is gone. When he speaks again, his voice is a low, venomous hiss.
HITLER (O.S.)
What did you say?
JONATHAN
(Louder, firmer)
The smell. Of burning hair and flesh. Was that a ‘benefit’ as well? Or the sight of a child’s shoe in a pile of thousands? Was that a ‘logistical triumph’?
HITLER (O.S.)
(Screaming now, the voice distorting)
You! You are one of them! A Jewish trick! Lies! Slander! You will pay for this insolence! Germany will find you, even in the future! We will cleanse you all! We will—
The connection is abruptly severed. A technician rips off his headset, his face ashen. The studio is plunged into a deafening silence, broken only by Jonathan’s ragged breathing. He looks down at his hands, then up at the camera. The mask of the impartial journalist is gone, replaced by an expression of profound, soul-deep horror. He has provided “balance.” He has given “both sides” a voice. And in doing so, he has stared into the abyss, and dragged his entire audience in with him.
The red “ON AIR” light blinks off. But the damage is done.
[SCENE CONTINUES]
Anna rushes to his side. The studio door flies open and SIR DAMIAN HAWKSWORTH, the BBC’s Director-General, storms in, his face crimson.
SIR DAMIAN
Finch! Have you lost your mind? “The smell of burning flesh”? That wasn’t in the script! You were supposed to be a neutral conduit!
JONATHAN
(Standing, his voice trembling with rage)
Neutral? To that? We were asking for the benefits of genocide, Damian! The very notion of balance was the original sin!
SIR DAMIAN
Do you have any idea what you’ve unleashed? The phone lines are exploding. The network is crashing. The Home Secretary is on line one and I think he’s having an aneurysm!
From outside, a new sound penetrates the studio walls: the confused yelling of crowds, the shattering of glass, the rising wail of sirens. Anna holds up her phone, her hand shaking. The screen shows a live feed from Parliament Square. A mob is fighting with police. A banner is visible, bearing a twisted, ancient symbol. The headline reads: Far-right groups claim “vindication” after BBC Hitler broadcast.
JONATHAN
My God… they’re celebrating. They think he won the debate.
He looks at the Chronos device, the brass telephone now seeming like a totem of some forgotten, malevolent god. The fallacy wasn’t just in the question, but in the belief that some ideas could be safely debated at all.
JONATHAN
(His voice suddenly cold and clear)
We have to go back.
SIR DAMIAN
Absolutely not! The project is cancelled. The servers are being wiped.
JONATHAN
No. We opened this door. We have to show them what was on the other side. We can’t let his be the last word.
He looks past Sir Damian, his eyes finding the terrified young technician who cut the first feed.
JONATHAN (CONT’D)
I’m not asking. I’m telling you. Put me back on the air. And get me Auschwitz. January, 1945. Find someone who speaks Yiddish. I don’t care how. Do it now.
Sir Damian stares, apoplectic, but Jonathan is already sitting back at the desk, straightening his tie, his face no longer one of horror, but of terrible, righteous purpose. He is no longer providing balance. He is atoning.
JONATHAN (CONT’D)
(To Anna, his voice a low command)
And keep that camera rolling. Let them see all of it.
Anna, catching his look, nods slowly and speaks into her comms.
ANNA
We’re going live again. On all channels. This is no longer Perspectives. This is a public broadcast.
The technician, compelled by the sheer force of Jonathan’s will, begins frantically typing coordinates into the Chronos system. The Bakelite phone begins to hum once more. Outside, the sounds of chaos swell, a city teetering on the brink. The red “ON AIR” light flicks back on.
[SCENE END]
[SCENE START]
INT. BBC BROADCASTING HOUSE – STUDIO 4 – NIGHT (2025)
The red “ON AIR” light glows with an intensity that seems to suck the air from the room. On the monitors behind Jonathan, the BBC News globe is gone, replaced by a simple, stark caption: “LIVE BROADCAST”.
Jonathan leans into his microphone. The man who began the broadcast an hour ago—smug, professional, a slave to protocol—is gone. This new man is gaunt, his eyes burning with a zealot’s fire.
JONATHAN
(To camera, his voice low and raspy…)
What you just witnessed was a failure. Not a technical failure, but a moral one. My failure. I work for an organization that believes in balance, and I, like them, have worshipped that idea blindly. But some things have no balance. Some truths are absolute. We gave a platform to a great and terrible evil in the name of impartiality. And in the streets of this city, that evil has found new disciples.
He gestures vaguely towards the chaos outside.
JONATHAN (CONT’D)
There is only one way to answer a lie of that magnitude. It is not with debate, but with truth. We are going back. Not to a bunker, not to a seat of power, but to the end of the argument. To the place where all the theories of racial hygiene and national destiny found their final, logical expression. We are going to Auschwitz-Birkenau. January 27th, 1945. The day of its liberation.
Sir Damian stands frozen by the door, a silent, horrified statue. Anna whispers commands into her headset, her face a mixture of terror and fierce loyalty. The young technician’s fingers fly across his keyboard, his knuckles white.
The Bakelite phone crackles. It is not the clean connection of the Wolf’s Lair. This is a sound from hell. A wash of harrowing noise fills the studio: the thin, cutting wind whistling through barbed wire, a distant, rhythmic clang of metal on metal, and underneath it all, a sound that is almost subliminal, a low, collective moan of human misery.
On a side monitor, a video call connects. A frail, elderly man, PROFESSOR ELI WEINBERG, a Yiddish scholar from the University of London, appears. He looks bewildered.
ANNA (V.O.)
“Professor, just translate whatever you hear. Please.”
The technician isolates a thread of sound from the cacophony. It is a voice. A woman’s voice, so weak it is barely more than a whisper, humming a fractured melody.
JONATHAN
(His voice cracking)
“Can you… can you ask her name?”
Professor Weinberg swallows hard, his eyes welling up. He leans into his own microphone, and speaks in hesitant, gentle Yiddish.
(Subtitles appear on screen)
PROF. WEINBERG: Ken ikh fregn vehr du bist? (May I ask who you are?)
The humming stops. A long pause. The studio holds its breath. Then, the voice. It is thin, brittle as dry leaves.
LEAH (O.S.): Ikh heys Leah. Ikh gedenk nit mayn familia-nomen. (My name is Leah. I don’t remember my family name.)
Jonathan closes his eyes. He is no longer in a London studio. He is in the cold, the filth, the despair.
JONATHAN:
“Leah… My name is Jonathan. We are… listening. Can you tell us where you are? What do you see?”
Weinberg translates, his voice thick with emotion.
LEAH (O.S.): Ikh bin in der kazarme. Der shtank… der shtank iz umetum. (I am in the barracks. The smell… the smell is everywhere.) Di Rusn zaynen do. Zey hobn geefnet di toyern. (The Russians are here. They opened the gates.) Zey veynen. Di soldatn… zey veynen. (They are crying. The soldiers… they are crying.)
The screen behind Jonathan now shows the live feeds from London. The rioting is slowing. Confused faces are turning towards screens in shop windows, in pubs, in their hands. The hateful chants are faltering, replaced by an uneasy silence as the thin, Yiddish voice cuts through the night.
JONATHAN:
We heard another voice, Leah. A man who said what was done to you was… a benefit. That it was necessary.
The cruelty of the statement is immense, but Jonathan’s intent is clear. He is holding up the lie to the flame of her truth.
A sound comes through the speaker. A dry, rasping sound. It takes a moment for them to realise she is laughing. It is the most terrible sound any of them have ever heard.
LEAH (O.S.): A nutzen? (A benefit?) Ikh hob gezen mayn shvester’s shikh in a berg fun toyznter. (I saw my sister’s shoe in a mountain of thousands.) Mayn foter’s briln in a kasn. (My father’s spectacles in a box.) Der “nutzen” iz der roykh vos shtaygt fun di krematoryumes tog un nakht. (The “benefit” is the smoke that rose from the crematoria, day and night.) Zog dem man… zog im az zayn groyse daytchland iz geboyt gevorn af a barg fun kinder-beyner. (Tell this man… tell him his great Germany is built on a mountain of children’s bones.)
Professor Weinberg is openly weeping now, unable to translate for a moment. Anna has to prompt him. He takes a shaky breath and relays Leah’s words, each one a hammer blow to the studio’s silence.
JONATHAN:
(His own tears flowing freely)
Leah… what do you want us to know? What do you want us, in the future, to do?
There is a long silence on the line, only the whistling wind of that Polish January. When she finally speaks, her voice is not angry. It is exhausted. A soul scoured clean of everything but a single, final duty.
LEAH (O.S.): Gedenk unz. (Remember us.) Nit mit has, nit mit nekome. (Not with hatred, not with revenge.) Gedenkt nor az mir zaynen geven. Az mir hobn gelibt, un gelakht, un geveynkt. (Just remember that we were. That we loved, and laughed, and wept.) Zayt undzer zikorn. (Be our memory.)
The line goes dead.
The connection is gone. The studio is utterly silent. Jonathan looks up, directly into the camera lens. His face is a ruin, a testament to the horror he has channelled. There is nothing left to say. He has shown them the other side. He has destroyed the balance with the weight of a single soul.
He slowly, deliberately, reaches out and turns off his microphone.
On the screens behind him, the feed from Parliament Square shows the last of the mob quietly dispersing, their banners of hate now looking cheap and pathetic in the face of the abyss that had just been opened on national television. The sirens have stopped. London is quiet. The entire world seems to be holding its breath.
[SCENE END]
[SCENE START]
INT. BBC BROADCASTING HOUSE – STUDIO 4 – NIGHT (2025)
The silence in the studio is absolute, a vacuum where the horrors of the past and the chaos of the present have cancelled each other out. Jonathan Finch remains at the desk, his hand still resting on the microphone switch, a priest who has just concluded a terrible, necessary sacrament.
The spell is broken by the studio door crashing open. It’s not Sir Damian this time. Two men in dark suits, their faces grim and unreadable, flank a woman with severe grey hair and the unmistakable air of high government authority. This is the Home Secretary. Sir Damian shuffles behind them, looking like a ghost at his own funeral.
HOME SECRETARY
(Her voice is low, controlled fury)
“Jonathan Finch?”
Jonathan doesn’t stand. He simply turns his head to look at her. His eyes are empty of fear.
JONATHAN
“Yes.”
HOME SECRETARY
On behalf of His Majesty’s Government, you are under arrest. For misuse of state assets, incitement to public disorder, violation of the Official Secrets Act, and about a dozen other charges we’ll invent before breakfast. The Chronos Project is now a matter of national security. Everything is classified. Everyone in this room will be detained and debriefed for the rest of their lives.
She gestures to her men. They move towards Jonathan. Anna makes a move to step in front of him, but Jonathan raises a hand, stopping her.
SIR DAMIAN
(Stepping forward, his voice a pleading whisper)
“Minister, he… we… lost control. The broadcast… it was a mistake.”
JONATHAN
(Cutting him off, his voice clear and steady)
“No, Damian. The first broadcast was a mistake. The second was a correction.”
He finally stands, his gaze fixed on the Home Secretary.
JONATHAN (CONT’D)
“You can arrest me. You can classify this until the sun burns out. But you can’t make people un-hear it. You can’t erase Leah. For an hour, the entire world stopped arguing about what was true and simply listened to it. You can’t put that back in the box.”
The Home Secretary stares at him, a flicker of something unreadable in her eyes. She saw the feeds from the cities. She saw the riots stop. She heard the voice from 1945.
HOME SECRETARY
“You broke the world, Mr. Finch.”
JONATHAN
“No, Minister. I just held up a mirror to a world that was already broken.”
He offers his wrists to the men in suits. As they lead him out, he doesn’t look back at his producer or his disgraced boss. His last glance is at the Bakelite telephone, sitting silent on the desk, a relic that connected the present to its most profound and painful lesson.
[MONTAGE]
DAY 1: The UN Security Council in emergency session. The Russian ambassador, for the first time in decades, does not veto a British-led resolution. The resolution is simply a global commitment to broadcast Leah’s testimony, unedited, in every language, every year on January 27th.
WEEK 2: A university lecture hall. A history professor throws her syllabus in the bin. “Today,” she says to her stunned students, “we are going to talk about the difference between a fact and a truth.”
MONTH 3: Outside the real, preserved gates of Auschwitz-Birkenau. A small, simple plaque has been added to the memorial. It reads, in Yiddish and in English: Zayt undzer zikorn. Be our memory. A young backpacker, who looks German, quietly lays a single white rose at its base.
YEAR 1: A courtroom. Jonathan Finch, looking older, is sentenced. The judge’s words are conflicted, the expression on his face one of a deep inner turmoil. He speaks of law and order, but his voice falters when he mentions the “unprecedented nature of the evidence.” The sentence is unexpectedly light. Community service. A lifetime ban from broadcasting.
[FINAL SCENE]
EXT. A PRIMARY SCHOOL PLAYGROUND – DAY (A FEW YEARS LATER)
Jonathan Finch, greyer and softer around the edges, sits on a park bench, watching children play. He is no longer a public figure. He is just a man. He holds a small, worn book in his hands.
Anna approaches and sits beside him. She works as a freelance documentarian now, producing small, independent films about history and memory. They sit in comfortable silence for a moment.
ANNA
“They want to dismantle the Chronos device. Bury it in concrete a mile underground.”
JONATHAN
(Nodding slowly, not looking up from the playground)
“Good. It did its job.”
ANNA
“Do you ever regret it? Losing everything?”
Jonathan finally looks at her. The haunted look is gone from his eyes, replaced by a quiet, settled peace.
JONATHAN
“The man who started that broadcast lost everything. And he deserved to. But I didn’t lose anything that mattered. We asked a stupid, obscene question and got the only answer that has ever made sense.”
He looks back at the children, their innocent shouts of laughter filling the air.
JONATHAN (CONT’D)
She said, “Remember that we loved, and laughed, and wept.” She didn’t ask us to stop living. She asked us to be their memory.
He closes his eyes, and for a moment, he is not in a sunny playground in 2028, but in the whistling wind of a Polish winter, listening to a thin voice humming a fractured tune. And he remembers.
[FADE TO BLACK]
[Credits Roll; Set To Emotional, Ominous yet peaceful music.]
Patterns & Jeremy Lent
Discovering Jeremy Lent: A Guide to a deep thinker.
In an era when humanity faces unprecedented challenges—climate change, social inequality, mental health crises, and a pervasive sense of meaninglessness—one author stands out for offering not just diagnosis, but a profound reimagining of how we understand ourselves and our world. Jeremy Lent is a systems thinker and cultural historian whose work bridges ancient wisdom and cutting-edge science to reveal how our deepest assumptions about reality shape our collective future.
If you’ve ever wondered why technical solutions alone can’t seem to solve our biggest problems, or why so many people feel disconnected despite living in the most connected age in history, Lent’s work offers compelling answers. His books don’t just analyse what’s wrong with modern civilisation—they chart a path toward what he calls an “ecological civilisation” based on recognising our fundamental interconnectedness with all life.
Understanding Cognitive Patterns: The Hidden Forces Shaping Civilisation
At the heart of Lent’s work lies a deceptively simple but revolutionary concept: cognitive patterns. These are the largely unconscious frameworks that entire cultures use to make sense of reality. Think of them as invisible mental software that determines what we notice, value, and consider possible.
To understand how powerful these patterns are, consider this example: Ancient Chinese thinkers saw reality as an interconnected web of relationships, leading to philosophies emphasising harmony and balance. Meanwhile, ancient Greek thought increasingly emphasised separation, analysis, and control—legacy thinking that would eventually give rise to our modern scientific method and industrial capitalism.
Neither approach is inherently right or wrong, but each creates different worlds. The Chinese approach fostered sustainable agricultural practices that lasted thousands of years. The Western approach enabled incredible technological advancement but also created systems that treat the natural world as a collection of resources to be exploited.
This isn’t abstract philosophy—these cognitive patterns have concrete consequences. Our economic system’s demand for infinite growth on a finite planet, our medical approach that treats symptoms rather than addressing whole-person health, our educational systems that fragment knowledge into isolated subjects—all these flow from cognitive patterns that see the world as made of separate, competing parts rather than interconnected, collaborative wholes.
*The Patterning Instinct*: A Cultural History of Human Meaning-Making
Lent’s first major work, *The Patterning Instinct: A Cultural History of Humanity’s Search for Meaning* (ISBN: 9781633882935), takes readers on an extraordinary journey through human history to reveal how different cultures have developed radically different ways of understanding reality, meaning, and purpose.
The book traces humanity’s story from our earliest ancestors to the present day, showing how each major civilisation developed its own cognitive patterns—what Lent calls “root metaphors”—that shaped everything from their art and religion to their political systems and relationship with nature. Winner of the 2017 Nautilus Silver Award, this comprehensive work demonstrates that our current world-view is not inevitable or universal, but rather one particular way of seeing that emerged from specific historical conditions.
What makes *The Patterning Instinct* particularly powerful is how it connects abstract ideas to lived experience. Lent shows how the cognitive patterns that emerged during the Scientific Revolution and Industrial Revolution—emphasising mechanism, reductionism, and endless growth—have created both incredible material progress and existential crises that threaten our survival. Showing how culture shapes values and values shape history, The Patterning Instinct provides a fresh perspective on crucial questions of the human story.
The book has received widespread critical acclaim for its scope and accessibility. The Patterning Instinct is professionally written and easy to read, even if the subject matter is difficult to comprehend. One reviewer noted that it presents “challenging and frightening conjectures, for example, that the ‘will of the people’, even in Western societies, is manipulated by a small elite group [of wealthy individuals]”, while another described it as “a truly wonderful exploration of the human search for meaning from the rise of human consciousness around 100,000 – 200,000 years ago through to today.”
Find detailed reviews of *The Patterning Instinct*:
– [GreenSpirit Book Reviews](https://www.greenspirit.org.uk/bookreviews2/2021/03/23/the-patterning-instinct-a-cultural-history-of-humanitys-search-for-meaning-by-jeremy-lent/)– [Ballarat Writers Review](https://ballaratwriters.com/book-review/book-review-the-patterning-instinct-by-jeremy-lent/)
– [Goodreads Reviews](https://www.goodreads.com/book/show/31670587-the-patterning-instinct)
*The Web of Meaning*: Integrating Science and Wisdom for a New World-view
Building on the foundation laid in his first book, Lent’s second major work, *The Web of Meaning: Integrating Science and Traditional Wisdom to Find Our Place in the Universe* (US ISBN: 9780865719545; UK ISBN: 9781788165648), moves from diagnosis to prescription. Jeremy Lent’s new book, The Web of Meaning, lays out a rich, coherent, world-view based on a deep recognition of connectedness.
This book addresses humanity’s deepest questions—who am I? why am I? how should I live?—by weaving together insights from modern systems science, evolutionary biology, and cognitive neuroscience with wisdom from Buddhism, Taoism, and indigenous traditions. The result is what one reviewer called “a magnificent manifesto for a regenerative culture and for an ecological civilisation.”
What distinguishes *The Web of Meaning* is its practical integration of scientific understanding with traditional wisdom. Rather than dismissing either modern knowledge or ancient insights, Lent demonstrates how they can work together to create a more complete understanding of human nature and our relationship with the living world. Award-winning author, Jeremy Lent, investigates humanity’s age-old questions – who am I? why am I? how should I live? – from a fresh perspective, weaving together findings from modern systems thinking, evolutionary biology and cognitive neuroscience with insights from Buddhism, Taoism and indigenous wisdom.
Critics have praised the book’s ambitious scope and accessibility. One reviewer noted, “I found it a hard book to review, simply because the information it presents is so vast and so comprehensive. But at the same time I found it the most efficiently structured book I have ever encountered. Lent has the rare ability to combine rigorous scholarship with high readability.” Another described it as “an audacious, valuable and at times mind-twisting synthesis of progressive thinking.”Find detailed reviews of *The Web of Meaning*:
– [GreenSpirit Book Reviews](https://www.greenspirit.org.uk/bookreviews2/2021/07/27/the-web-of-meaning-integrating-science-and-traditional-wisdom-to-find-our-place-in-the-universe-by-jeremy-lent/)
– [Earthrise Blog Review](https://www.earthriseblog.org/review-of-jeremy-lents-the-web-of-meaning/)
– [Goodreads Reviews](https://www.goodreads.com/book/show/55836847-the-web-of-meaning)
Why Lent’s Work Matters: Beyond Individual Transformation to Civilizational Change
What makes Jeremy Lent’s contribution unique is his recognition that our current crises—environmental destruction, social fragmentation, mental health epidemics—are symptoms of deeper cognitive patterns that shape how entire civilisations operate. This means that lasting solutions require more than policy changes or technological fixes; they require what he calls a “Great Transformation” of consciousness itself.
This might sound abstract, but Lent grounds his ideas in concrete examples. He shows how indigenous cultures that survived for thousands of years developed cognitive patterns emphasising reciprocity, cyclical time, and recognition of non-human intelligence. He explores how emerging movements—from regenerative agriculture to batesian biomimicry to participatory democracy—represent early experiments in what an ecological civilisation might look like.
Lent’s work is particularly valuable for understanding why so many well-intentioned efforts to address global challenges have fallen short. Environmental campaigns that focus solely on individual behaviour change, economic theories that ignore ecological limits, educational reforms that don’t address the fragmentation of knowledge—all these miss the deeper cognitive patterns that perpetuate the problems they’re trying to solve.
The Practical Implications: How Cognitive [and chiral] Patterns Shape Everything
Understanding Lent’s concept of cognitive patterns isn’t just intellectually interesting—it has profound practical implications for how we approach every aspect of life. Consider healthcare: Western medicine’s cognitive pattern of treating the body as a machine leads to interventions that target specific symptoms or organs, often missing the complex web of relationships between physical, mental, and social health. Traditional healing systems, operating from different cognitive patterns, often achieve better outcomes for chronic conditions by addressing the whole person within their community and environment.
Or consider education: our current system, built on cognitive patterns of separation and competition, fragments knowledge into isolated subjects and ranks students against each other. Alternative approaches based on cognitive patterns of interconnection and collaboration—like Montessori education or indigenous teaching methods—often produce students who are more creative, emotionally intelligent, and capable of systems thinking.
This isn’t about abandoning everything modern civilisation has achieved, but rather integrating its insights with wisdom from cognitive patterns that prioritise harmony, sustainability, and interconnection. Lent shows how this integration could lead to breakthrough solutions in everything from technology design to urban planning to conflict resolution.
Getting Started: A Reader’s Guide to Jeremy Lent
For newcomers to Lent’s work, I recommend starting with *The Patterning Instinct* to understand the historical foundation of his ideas, then moving to *The Web of Meaning* to explore how these insights can guide us toward a more sustainable and meaningful future. Both books are substantial—*The Patterning Instinct* runs 540 pages—but Lent’s clear writing style and engaging examples make complex ideas accessible to general readers.
You might also explore Lent’s website for articles, interviews, and additional resources that extend his book-length arguments. His writing regularly appears in publications addressing the intersection of consciousness, culture, and sustainability.
A New Story for Our Time
What ultimately makes Jeremy Lent’s work so compelling is his recognition that we are living through one of the great transition points in human history. The cognitive patterns that enabled the rise of industrial civilisation are now threatening our survival, but new patterns are emerging that could guide us toward what he calls an “ecological civilisation”—one that recognises our fundamental interconnectedness with all life and operates within natural limits while still enabling human flourishing.
This isn’t just about changing our minds; it’s about changing the deep structures of meaning that shape entire societies. As Lent demonstrates, this kind of transformation has happened before in human history, and it can happen again. The question is whether we can make the transition quickly enough to address the multiple crises we face.
Reading Lent’s work won’t give you easy answers, but it will give you new ways of seeing that can transform how you understand yourself, your relationships, and your role in the larger web of life. In a time when so many of our challenges seem intractable, his work offers something rare and precious: a coherent vision of how humanity might not just survive, but thrive by remembering who we really are.
—*Both of Jeremy Lent’s major works are available in multiple formats from major booksellers. The Patterning Instinct (ISBN: 9781633882935) is published by Prometheus Books, while The Web of Meaning is available in different editions: US edition (ISBN: 9780865719545) from New Society Publishers and UK edition (ISBN: 9781788165648) from Profile Books.*
YouTube
If you, dear reader, are time-poor, check out our YT channel for lots of great content @: https://www.youtube.com/@CydoniaPhysGeekGirl/videos
What Really Happens When Matter Falls Into a Black Hole? A Wild New Hypothesis
Just ‘one’ interpretation…
By © Cydonis Heavy Industries Ltd, 2024/2025.
Imagine you’re watching a friend slowly walk toward the edge of a cliff in the dark. From your perspective, they seem to slow down as they approach the edge, their movements becoming more and more sluggish until they appear to freeze completely right at the brink. But from your friend’s perspective, they simply step off the cliff and fall normally. This strange contradiction captures one of the most mind-bending puzzles in modern physics: what happens to matter when it falls into a black hole?
For decades, scientists have wrestled with this question, and the answers have led to some of the deepest mysteries in our understanding of the universe. But a fascinating new theoretical approach suggests something remarkable: maybe the matter doesn’t just disappear into our black hole at all. Maybe it gets redistributed across entirely different universes.
The Classic Black Hole Puzzle
To understand why this new idea is so intriguing, let’s first explore what we already know about black holes. Think of a black hole as nature’s ultimate point of no return. It’s a region in space where gravity has become so incredibly strong that nothing – not even light – can escape once it crosses a boundary called the event horizon.
When matter approaches this boundary, something strange happens with time and space themselves. From our perspective watching from a safe distance, that matter appears to slow down dramatically as it nears the event horizon. It gets stretched out like taffy due to the extreme gravitational forces, and its light becomes redder and dimmer until it seems to freeze at the boundary and fade from view.
But here’s the puzzle: from the perspective of the falling matter itself, nothing particularly special happens when it crosses the event horizon. It simply continues falling inward toward the black hole’s center, experiencing the journey as perfectly normal. This creates a fundamental contradiction in our understanding – the same event looks completely different depending on where you’re observing it from.
This contradiction has led to what physicists call the “information paradox.” In the quantum world, information cannot simply be destroyed – it’s one of the most fundamental rules of physics. Yet if matter falls into a black hole and the black hole eventually evaporates through a process called Hawking radiation, where does all the information that fell in go? It’s like having a library book disappear into thin air – the information has to go somewhere, but we can’t figure out where.
A Multiverse Solution
The new theoretical approach we explored suggests a radical solution: what if the matter isn’t really trapped in our black hole at all? What if it’s being redistributed across parallel universes in a vast multiverse?
“Different tracks, probable destinations…” 🚅🚃🚃🚃🚃🌌
Think of it this way: imagine our universe is just one room in an enormous cosmic hotel with infinite rooms. When matter falls past a black hole’s event horizon in our room, it doesn’t get destroyed or trapped – it gets transferred to other rooms in the hotel through some kind of cosmic redistribution system.
From our perspective in our particular room, the matter has effectively been annihilated – it’s completely gone from our local reality. But from the perspective of the entire hotel, nothing has been lost. The information and energy have simply been moved to different rooms according to some underlying rules we’re just beginning to understand.
This interpretation elegantly resolves the information paradox because it expands our accounting system. Instead of trying to balance the books within just our single universe, we’re balancing them across the entire multiverse. It’s like discovering that what looked like money disappearing from your checking account was actually being automatically transferred to savings accounts you didn’t know existed.
How the Cosmic Redistribution Might Work
The mathematics behind this idea involve what we might call “coupling mechanisms” – rules that govern how information and energy get transferred between different universes. Think of these as cosmic sorting algorithms that decide where matter goes when it falls into a black hole. Let me walk you through the key equations that describe these different possibilities, building from the basic concepts to the more sophisticated mathematical frameworks.
The Foundation: Quantum States and Information Transfer
When matter falls into a black hole, we can describe its initial quantum state mathematically as:
|ψ_initial⟩ = Σᵢ αᵢ|matter_state_i⟩
This equation tells us that the falling matter exists in multiple possible configurations simultaneously, with αᵢ representing the probability amplitudes for each configuration. Think of this like a coin spinning in the air – before it lands, it exists in a combination of both heads and tails states.
During the conversion process inside the black hole, the matter undergoes what we call a unitary transformation, preserving all information while converting matter to energy:
|ψ_converted⟩ = U_conversion|ψ_initial⟩ = Σᵢ αᵢ|energy_state_i⟩
This transformation is like translating a book from one language to another – the information content remains the same, but its form changes completely.
The Multiverse Distribution
Here’s where the truly fascinating part begins. Instead of this energy staying in our universe, the multiverse redistribution creates a state that spans multiple realities:
|Ψ_multiverse⟩ = Σⱼ βⱼ|universe_j⟩ ⊗ |redistributed_energy_j⟩
The βⱼ coefficients determine how the energy-information gets distributed across different universes. The ⊗ symbol represents what mathematicians call a tensor product, which is essentially a way of describing how quantum states in different universes become entangled with each other.
Three Different Redistribution Mechanisms
Now let me show you three different mathematical approaches for how this cosmic redistribution might actually work, each making different predictions about what we might observe.
Uniform Coupling Mechanism:
The first approach assumes that information can only transfer between universes with identical physical laws. The coupling strength between universes j and k is described by:
V̂ⱼₖ = g₀ δ(Λⱼ – Λₖ) × Î
Here, g₀ is a universal coupling constant that sets the overall strength of the redistribution process, δ(Λⱼ – Λₖ) is a mathematical function that equals zero unless the cosmological constants of the two universes match exactly, and Î represents the identity operator. This creates a redistribution probability of:
P(j→k) = |g₀|² × δ(Λⱼ – Λₖ) × ∫ |⟨ψₖ|ψⱼ⟩|² dτ
Think of this like having a cosmic postal system that can only deliver mail between cities with identical zip codes.
Hierarchical Coupling Mechanism:
A more sophisticated approach allows information transfer between similar but not identical universes:
V̂ⱼₖ = g₁ exp(-|Pⱼ – Pₖ|²/σ²) × F̂(Iⱼ, Iₖ)
In this equation, Pⱼ and Pₖ are vectors that describe the physical laws in each universe (things like particle masses and fundamental forces), σ controls how rapidly the coupling strength decreases as universes become more different, and F̂(Iⱼ, Iₖ) depends on the information content of both universes. This is like water flowing downhill – information flows preferentially to universes that are similar to ours but not identical.
Combinatorial Coupling Mechanism:
The most intriguing approach is based on information theory and entropy considerations:
V̂ⱼₖ = g₂ × (Nⱼ!Nₖ!)/((Nⱼ + Nₖ)!) × [Ω(Iⱼ + Iₖ)/Ω(Iⱼ)Ω(Iₖ)]^α
Here, Nⱼ and Nₖ represent the number of available quantum states in each universe, Ω(I) counts the number of ways to arrange information content I, and α controls how strongly the combinatorial factor influences the coupling. This mechanism seeks to maximize the total entropy increase when information moves between universes, like having a cosmic filing system that automatically organizes information as efficiently as possible.
Conservation Across the Multiverse
A crucial constraint ensures that information is never lost, just redistributed:
Σⱼ Iⱼ(t) = I_initial = constant
This equation tells us that the total information across all universes remains constant over time, even as individual universes gain or lose information through black hole processes.
The Modified Schrödinger Equation
The coupling between universes requires us to modify the fundamental equation that describes how quantum systems evolve:
iℏ ∂|Ψⱼ⟩/∂t = Ĥⱼ|Ψⱼ⟩ + Σₖ≠ⱼ V̂ⱼₖ|Ψₖ⟩
This extended equation includes terms that describe how the quantum state in universe j is influenced by states in all other universes k through the coupling operators V̂ⱼₖ. It’s like having sheet music where each note is influenced not just by the notes around it, but by corresponding notes in parallel symphonies playing in other dimensions.
Mass-Dependent Coupling
The coupling strength might depend on the black hole’s mass, potentially explaining why supermassive black holes play such important roles in cosmic evolution:
V̂ⱼₖ(M) = V̂₀,ⱼₖ × (M/M₀)^β
If β is positive, then more massive black holes would be much more effective at redistributing information across the multiverse, acting as cosmic information processors that reshape the fundamental structure of reality itself.
These equations work together to create a mathematical framework where black holes become cosmic redistribution centers rather than information destroyers, elegantly resolving the information paradox while opening up entirely new ways of understanding the nature of reality.
What This Means for Our Understanding of Reality
Choices… If this multiverse redistribution theory turns out to be correct, it would fundamentally change how we think about black holes and the nature of reality itself. Instead of being cosmic trash compactors that trap matter forever, black holes would be more like cosmic post offices, constantly redistributing the universe’s information content across multiple realities.
This perspective makes the apparent “destruction” of matter falling into black holes not a violation of conservation laws, but rather a limitation of our local perspective. We’ve been trying to understand a global process while only being able to see one small piece of it, like trying to understand a flowing river by only watching one small section.
The theory also suggests that black holes, especially the supermassive ones at the centers of galaxies, might play a much more active role in cosmic evolution than we previously thought. They could be acting as cosmic information processors, constantly reshuffling the multiverse’s information content and potentially influencing the development of parallel realities.
The Big Questions That Remain
While this multiverse approach offers elegant solutions to long-standing puzzles, it also raises profound new questions. How could we ever test such a theory if the other universes are by definition beyond our direct observation? What determines the rules that govern this cosmic redistribution? And perhaps most fundamentally, what does it mean for our understanding of our place in reality if our universe is just one of countless others, all connected through black hole information exchange?
These questions push us to the very edges of human knowledge and challenge our most basic assumptions about the nature of existence. They remind us that the universe is far stranger and more wonderful than our everyday experience suggests, and that some of the most important truths about reality might be hidden in the most extreme environments we can imagine.
While we may never be able to definitively prove whether matter falling into black holes gets redistributed across parallel universes, exploring these possibilities helps us think more deeply about the fundamental nature of information, energy, and reality itself. And sometimes, the most valuable insights come not from finding final answers, but from learning to ask better questions about the cosmic mysteries that surround us…
Clearing the Air: A Beginner’s Guide to Direct Air Capture.
By Cydonis Heavy Industries.
Climate change is one of the biggest challenges we face, and a big part of that challenge is the excess carbon dioxide (CO2) in our atmosphere. While reducing emissions is crucial, what about the CO2 that’s already there? That’s where Direct Air Capture (DAC) comes in.
Think of DAC as a giant vacuum cleaner for the sky, sucking CO2 directly out of the ambient air. It’s a technology that’s gaining attention as a potential tool to help us combat climate change. But what exactly is it, and what does it mean for industries like yours?
The Upside: Why DAC is Promising
Direct Air Capture offers several compelling benefits:
- Removing Past Emissions: Unlike technologies that capture emissions at the source (like a factory smokestack), DAC can remove CO2 that has been accumulating in the atmosphere for years. This makes it a unique tool for tackling “legacy” emissions.
- Location Flexibility: DAC plants can theoretically be built almost anywhere there’s a power source and a place to store or use the captured CO2. This is a big advantage over solutions tied to specific geographies.
- Measurable & Verifiable: The amount of CO2 captured by DAC is directly measurable and can be verified, which is important for carbon accounting and markets.
- Potential for Permanent Removal: When combined with geological storage (where CO2 is injected deep underground and mineralises into rock), DAC can offer a permanent way to remove CO2 from the atmosphere.
- Scalability: While still in its early stages, DAC technology has the potential to be scaled up to remove significant amounts of CO2.
- A Source of CO2: Captured CO2 isn’t just waste. It can be used as a raw material for various products, including synthetic fuels (e-fuels), building materials, and in industries like food and beverage.
The Hurdles: Downsides & Technological Limitations
Despite its promise, DAC faces significant challenges:
- High Cost: Currently, capturing CO2 from the air is expensive. The concentration of CO2 in the atmosphere is very low (around 0.04%), so moving vast amounts of air and separating the CO2 requires a lot of energy and sophisticated technology.
- Energy Intensive: DAC processes require substantial energy. For DAC to be truly beneficial for the climate, this energy must come from low-carbon or renewable sources. If fossil fuels are used, it could negate the climate benefits.
- Technological Maturity & Scale: DAC is still a relatively young technology. While there are operational pilot and demonstration plants, widespread, large-scale deployment is still some way off. Significant innovation and investment are needed to improve efficiency and reduce costs.
- Land Use: Large-scale DAC facilities will require land, though generally less than some nature-based solutions for equivalent carbon removal.
- Storage Security: Ensuring that captured CO2, if stored geologically, remains permanently locked away is crucial. This requires careful site selection and monitoring.
- Moral Hazard Concerns: Some critics worry that focusing on DAC could distract from the urgent need to reduce emissions at their source, potentially giving polluting industries a perceived license to continue emitting.
Who’s Leading the Way? Key Players in DAC.
Several companies are pioneering DAC technology research and development. Some of the major names include:
- Climeworks (Switzerland): Known for its modular DAC systems and projects like “Orca” and “Mammoth” in Iceland, which store CO2 geologically.
- Carbon Engineering (Canada, acquired by Occidental Petroleum): Developing large-scale DAC technology, often with a view to using captured CO2 for synthetic fuels or permanent sequestration.
- Global Thermostat (USA): Focuses on DAC solutions that can be integrated with industrial processes or powered by waste heat.
- Heirloom Carbon Technologies (USA): Developing a process that uses minerals to pull CO2 from the air, aiming for lower costs.
- 1PointFive (USA, a subsidiary of Occidental Petroleum): Focused on commercializing DAC technology, including building large-scale DAC plants.
- Verdox (USA): Working on an electrically driven DAC system aimed at improving energy efficiency.
Cydonis Heavy Industries, Ltd. & The DAC Opportunity
For a company like Cydonis Heavy Industries, Ltd., the rise of DAC presents several potential avenues for engagement and benefit:
- Strategic Partnerships & Investment:
- Collaborate with DAC technology developers or project implementers. This could involve direct investment, joint ventures, or providing industrial expertise for scaling up DAC facilities.
- If Cydonis has access to low-cost renewable energy or waste heat, it could partner to power DAC operations, reducing a key cost component for DAC companies.
- Carbon Credit Trading & Offsetting:
- Purchasing High-Quality Credits: As pressure mounts for companies to decarbonize, Cydonis can purchase carbon removal credits generated by DAC projects to offset its own hard-to-abate emissions. DAC credits are often considered high-quality due to their permanence and measurability.
- Investing in Credit-Generating Projects: By investing in or co-developing DAC projects, Cydonis could secure a future supply of carbon credits or even become a seller of these credits in the growing voluntary carbon market, potentially creating a new revenue stream.
- Supply Chain & Infrastructure Development:
- Heavy industries often have expertise in large-scale engineering, procurement, and construction (EPC), as well as manufacturing complex components. This expertise could be valuable in building and deploying DAC plants.
- Cydonis could explore opportunities in developing or supplying specialized materials or equipment needed for DAC systems. The possibility of capturing other GHG’s (greenhouse gases, such as methane) for device feedstock also exists, (though our preliminary goal will be just CO2 as a starting point).
- Utilizing Captured CO2:
- Depending on Cydonis’s specific industrial processes, there might be opportunities to utilize captured CO2 as a feedstock.
- Enhancing Corporate Sustainability & Reputation:
- Engaging with DAC technology can significantly enhance Cydonis’s environmental credentials and demonstrate a proactive approach to climate change, appealing to investors, customers, and employees.
- Pioneering CO2 Disposal and Energy Regeneration (A Cydonis Specialty):
- Beyond conventional storage or utilization, Cydonis Heavy Industries, Ltd. is at the forefront of developing a revolutionary approach to carbon management. We are working on a patent-pending technology (details available under a Non-Disclosure Agreement) that utilizes a controlled nuclear fusion/micro-singularity process. This device is designed to take captured CO2, processed into large cylindrical pellets, and effectively annihilate it.
- This groundbreaking technology offers a potential game-changer for the DAC industry by providing a novel and potentially highly efficient way to deal with the “waste” CO2 captured by DAC companies, moving beyond long-term storage concerns for a portion of captured carbon.
- Furthermore, the process is designed to be regenerative. The significant waste heat generated by the device could be harnessed to drive steam turbines for electricity generation or be used for district heating, creating a closed-loop system that not only disposes of CO2 but also produces valuable energy. This positions Cydonis as a potential key partner for DAC facilities looking for innovative and comprehensive carbon management solutions.
The Path Forward
Direct Air Capture is not a silver bullet for climate change, but it’s a promising technology that can play an important role alongside aggressive emissions reductions. For forward-thinking companies like Cydonis Heavy Industries, Ltd., understanding and strategically engaging with the DAC sector now—especially with innovative, proprietary solutions—could offer both environmental benefits and significant long-term competitive advantages. Exploring partnerships, understanding the carbon markets, and identifying synergies with existing operations are key first steps.
(More^2) Lunar Dreams…
Fuelling a Lunar Dream: Could Water Launch a Probe from Shetland?
Imagine a rocket standing tall on one of the rugged Shetland Islands, ready to embark on an incredible journey. It’s destination? A free return trajectory around the Moon. And it’s fuel? Water, split into its fundamental components, hydrogen and oxygen, using renewable energy from the very winds and sun of the islands.
It might (to some) sound like science fiction, but the concept of using water as a propellant source for hydrolox (liquid hydrogen and liquid oxygen) engines is very real. The question is: how much water would you actually need to send a 100kg probe on such a mission from a place like Shetland?
Let’s dive into the fascinating physics and engineering challenges involved! ^_^v
The Rocket Science Behind the Splash.
Launching anything into space, especially towards the Moon, requires overcoming Earth’s powerful gravity and achieving immense speeds. This is where the concept of Delta-v (Δv) comes in. Think of Δv as the total “change in velocity” capability your rocket needs to have. For a lunar free return trajectory, starting from Earth’s surface, the required Δv is substantial – thousands of meters per second. Launching from a higher latitude like Shetland means you get slightly less help from the Earth’s spin compared to equatorial launch sites, potentially increasing that Δv requirement a little.
The efficiency of a rocket engine is measured by its Specific Impulse (Isp). Hydrolox engines are known for having high Isp, meaning they get a lot of thrust for the amount of propellant they consume. Our hypothetical engine has a 40% efficiency. This efficiency factor impacts the effective Isp the engine can achieve in the real world, making it lower than the theoretical maximum.
The Tyranny of the Rocket Equation!
The core principle governing how much propellant you need is the Tsiolkovsky Rocket Equation:
Δv=Isp⋅g0⋅ln(mf/m0)
Where:
- Δv is our required change in velocity.
- Isp is the engine’s effective specific impulse.
- g0 is standard gravity.
- m0 is the initial mass of the rocket (with propellant).
- mf is the final mass of the rocket (without propellant), also called the dry mass.
The crucial part here is the mass ratio (mf:m0). This equation tells us that to achieve a certain Δv with a given engine efficiency (Isp), you need a specific mass ratio. The higher the Δv or the lower the Isp, the larger the mass ratio must be. This means the vast majority of your rocket’s initial mass has to be propellant.
Figure 1:
This graph illustrates how the required mass ratio (initial mass / final mass) escalates rapidly with increasing Delta-v for a fixed engine efficiency (Specific Impulse). Achieving higher speeds requires a disproportionately larger amount of propellant to climb out of Earth’s gravity well, and escape the monstrous ‘homo sapiens singularis’ below.
The Dry Mass Challenge.
The dry mass (mf) isn’t just the 100kg probe. It includes the rocket’s structure, engines, fuel tanks, guidance systems, and importantly, the equipment needed to split the water and power the process using renewables. We’re assuming a structural mass fraction of 1/8. In rocketry terms, this usually relates the mass of the structure to the total mass or dry mass, and a fraction like 1/8 suggests a very lightweight structure relative to the total vehicle or dry mass. In our water-splitting scenario, we also need to account for the mass of the electrolysis unit and the power generation/storage system (solar panels, wind turbine components, batteries).
The electrolysis efficiency (~37%) tells us how much of the energy input actually goes into splitting the water. A lower efficiency means you need a more powerful, and likely heavier, power system to produce the required amount of hydrogen and oxygen within a reasonable timeframe for fuelling. This adds to the dry mass.
Putting Numbers to the Dream (An Illustrative Example).
Let’s try a simplified calculation based on some assumptions, similar to how engineers start to size a rocket:
- Target Δv: Let’s assume a challenging but plausible Δv requirement of 10,000 m/s for this mission from Shetland.
- Effective Isp: Using a typical hydrolox vacuum Isp and considering the 40% engine efficiency (interpreted as an overall efficiency factor applied to the theoretical Isp potential), let’s work with an effective Isp of around 400 seconds.
- Payload Mass: 100 kg.
- Dry Mass Estimate: This is the trickiest part. The structural mass fraction of 1/8 is very optimistic if applied to the whole vehicle. Let’s instead estimate the combined mass of the structure, engine, tanks, guidance, plus the electrolysis and power equipment. For a mission like this, this supporting mass could easily be several times the payload mass. Let’s illustrate by assuming this combined mass is 5 times the payload, or 500 kg.
- So, the estimated dry mass (mf) = Payload (100 kg) + Structure & Equipment (500 kg) = 600 kg.
“No magic conjures, no void finds, mind(s) travels, light shines…”
Now, using the Tsiolkovsky equation to find the required mass ratio for Δv=10000 m/s and Isp=400 s:
ln(mf/m0)=Isp⋅g0Δv=400 s⋅9.81 m/s210000 m/s≈2.55
mf/m0=e2.55≈12.8
The required mass ratio is about 12.8. This means the initial mass (m0) must be 12.8 times the dry mass (mf).
m0=12.8⋅mf=12.8⋅600 kg=7680 kg.
The propellant mass (mp) is the difference between the initial mass and the dry mass:
mp=m0−mf=7680 kg−600 kg=7080 kg.
This 7080 kg is the total mass of hydrogen and oxygen needed. Since water (H₂O) splits into hydrogen (H₂) and oxygen (O₂) in a mass ratio of approximately 1:8, the total mass of water required to produce this propellant is also 7080 kg (mass is conserved in the splitting).
Finally, converting mass to volume using the density of water (approx. 1 kg/litre):
Volume of water = 7080 kg/1 kg/litre=7080 litres.
The Verdict (with *Big* Caveats!)
Based on our illustrative calculation with several key assumptions (especially about the required Δv and the mass of the rocket structure and equipment), you would need on the order of 7,000 litres of water to fuel a rocket launching a 100kg probe on a free return trajectory to the Moon from the Shetland Islands using hydrolox derived from that water.
This figure is an estimate, not a precise engineering number. A real mission design would involve complex trajectory analysis, detailed mass breakdowns of every component (including the renewable power system and electrolysis unit, influenced by the 37% efficiency), and careful optimisation. A structural mass fraction of 1/8, it seems, is likely very optimistic for a real-world rocket capable of this mission profile.
Nevertheless, our concept is compelling – harnessing local, renewable resources in a unique location like the Shetland Islands to reach for the Moon. It highlights the incredible engineering challenges and the vast quantities of propellant needed for space travel, even for relatively small payloads.
Should we be trying to save the Earth Instead of Trying To Escape From It?
Thoughts from a Sunday morning coffee break… ☕
Firstly, the initial premise of the question, (I would contend) is somewhat logically faulty. The Earth is ~4.5by (billion years) old, and was trundling along in her orbit and spinning rather finely without the advent of human life that came along with the first bipedal and opposable-y thumbed skinny and podgy little apes, that were the nascent beginnings of our ancestral lineage some roughly 1.2my (million years) ago.
So in combatting the climate crisis by switching our power supplies to more renewable and sustainable solutions, insulating our homes, engaging in more sustainable construction practices, and shouting from the rooftops about the desperate human need for net zero, what we’re really doing is trying to save a (omni+)suicidal species from themselves – saving the human race (one that does not want, nor asks to be saved, and fights tooth and nail against any form of change [nimby-ism, concern for nature as a form of dog whistling over actualised real estate value concerns], etcetera) from within. Although they demonstrate time and again, thanks to religious, dogmatic, literalist, eschatology, quite often people and organisations make the task far, far more difficult, sometimes near-impossible, even, than it needs to be.Choices…
Secondly, the pursuit of the scientific method and pure research is not an either/or question. It is and always has been a symbiotic trickle down relationship between both activities.“Why not both?” – Ask any child. (Whether it’s Haribo, Ice cream flavours, or geo-engineering options…) 🐥👶🏻🤱🏻⚖
Gaia (another ancient name for Earth) is quite happy to shake us off like a smelly dog with a bad case of fleas, and nurture once again another species from scratch, or just have a world ruled over by bacteria around sub-sea fumaroles and radiation eating, cenote dwelling archea.
So we will most likely attempt both, with the time we have left, before the climate crisis swings beyond all possible opportunities for applicable remediation. 🪦📈📊📉🪨🌎
“panem et circenses…”
—Juvenal, Satire 10.77–81.
