The Enigma of the Mars Pyramid E-Book

Boris Bigalke

• Herausgeber: BoD - Books on Demand
• Kategorie: Fantasy und Science-Fiction
• Sprache: Englisch
• Veröffentlichungsjahr: 2024

Seitenzahl: 297

Beschreibung

In the desolate expanse of Mars, an international team of intrepid explorers stumbles upon relics that defy time and reason. A five-sided pyramid, etched with cryptic hieroglyphs, stands as a testament to an ancient Martian civilization. An alien stone face, its eyes holding forgotten memories, gazes upon them. And deep within the Martian pyramid lies an information library, holographic pages whispering tales of rise and fall. But the most enigmatic find is the gateway machine - a humming portal that promises both salvation and peril. There are also encounters with historical figures such as Galileo Galilei, Robin Hood and Socrates. Emotions (romances and rivalries) influence the astronauts on their mission to uncover the secrets of Mars.

Leseprobe

Professor Boris Bigalke, MD, MBA (Oxford, UK), LL.M. works as an attending and head of the DGK CardioMRI Qualification Center at the German Heart Center of the Charité (DHZC), Campus Benjamin Franklin, Clinic for Cardiology, Angiology and Intensive Care Medicine. He also practices complementary medicine with Traditional Chinese Medicine (TCM), Traditional Tibetan Medicine (TTM) and yoga movement theory as a sideline. Professor Bigalke is a specialist in internal medicine and holds specializations and additional qualifications in cardiology, acupuncture, nutritional medicine DAEM/DGEM® and magnetic resonance imaging.

After studying medicine at the Free University of Berlin, he continued his scientific and clinical career at the Eberhard-Karls-University of Tübingen. Further training led him to surgery at the LIJ Medical Center, Albert Einstein College of Medicine, New York, USA, to TCM at the WHO Collaborating Center, Beijing, China and to TTM at the Qusar Tibetan Healing Centre, Dharamsala, Himachal Pradesh, India.

During a long-term research stay, he also worked at King's College London, Division of College London, Division of Imaging Sciences and Biomedical Engineering London as an Assistant Professor/ Honorary Lecturer. He also completed a Master of Business Administration (MBA) Healthcare Management at Magna Carta College, Oxford, UK, and a Master of Laws (LL.M.) with a focus on medical law at the Dresden International University. In 2021, Professor Bigalke applied to become an astronaut for the European Space Agency (ESA). Out of more than 22,500 qualified applicants, he was one of the top 100 candidates in Germany. Even though he did not become an astronaut, he has always been fascinated and inspired by space travel and our neighboring planet Mars.

Professor Bigalke has been elected as one of Germany's top physicians in FOCUS-Gesundheit 2021 in the category of cardiological sports medicine, and in 2023 and 2024 in the categories of hypertension and nutritional medicine.

Cover photo and design: © Professor Boris Bigalke, MD Author‘s photo: © Professor Boris Bigalke, MD All figures inside the book: © Professor Boris Bigalke, MD

For everyone who wants to get inspired for Mars!

Contents

Introduction

Mars: The Red Planet with a Rich Historical and Cultural Legacy

Connection to Mesopotamia

Connection to Ancient Egypt

Ares or Mars in Ancient Greece and Rome

The Titius-Bode Law and the Missing Planet

Impact on Mars?

Life and Living on Mars

The Drake Equation and the Fermi Paradox

Terraforming Mars: Transforming the Red Planet into a New Earth

Crew Members’ Designation and Biography

Spaceship Description

Spaceship Design

Artificial Gravity Ring

Living Quarters and Laboratories

Engineering Challenges

Command Center and Bridge

Life Support and Sustainability

Conclusion

Chapter 1: Departure

The Launch

The View from Above

Chapter 2: The Long Haul

The Cosmic Routine: Work

Rest and Recreation

Camaraderie

The Psychological Strain

Chapter 3: Lecture sessions

Destination: Excursion into Volcanology

Pyramids

Hierogylphs

Longevity

Chapter 4: Love and Rivalry

The First Kiss

The Unveiling Moment

Celestial Chemistry

Stellar Conversations

Forbidden Moments

The Martian Ball

Celestial Rivalry

Stellar Showdown

Chapter 5: Descent

Approach to Mars

Navigating the Martian Gravitational Field

Orbital Insertion: The Critical Maneuver

Visual and Sensory Experience: The Martian Encounter

Touchdown

Chapter 6: The New Home

The Pyramid of Needs

Solving a Dilemma Sitation

The Tempest

Chapter 7: The Martian Pyramid

The Exterior: Awe-Inspiring Architecture

The Symbols and Hieroglyphs

Scenes of Daily Life

Technological and Architectural Marvels

Celestial Exploration and Astronomy

Cultural and Spiritual Practices

Mysteries and Enigmatic Symbols

Drawing Conclusions

Chapter 8: The Alien Stone Face

The Eyes

The Brow and Forehead

The Cheeks and Nose

The Mouth

The Jawline and Chin

The Overall Impression

The Carvings and Symbolism

Discovering the Entrance

Chapter 9: The Cosmic Library

The Passageway

The Pyramid Chamber

Chapter 10: Love and Rivalry

Clear-cut conditions or not?

Rekindled Hearts

Emily’s Patience Rewarded

Chapter 11:

"

MacGyverisms"

First Challenge: The Holographic Guardian

Inguinity and Improvisation Required

Second Challenge: The Resonant Trap

Improvisation Takes Shape

Third Challenge: The Shifting Floor

The Makeshift Solution

Chapter 12: The Mysteries of Laniakea

The Discovery

The Hub of Harmony

Overcoming Obstacles

Chapter 13: Cracking the Code

The Gateway Mechanism

The Celestial Codex

Chapter 14: The Betrayal

Uncovering the Gateway’s Secret

The Night Before

The Act of Betrayal

The Aftermath

Chapter 15: Wei's Journey

The Transition

Arrival in the New World

The Alien Landscape

The Ancient City

The Gateway Nexus

The Guardian of Knowledge

The Trials of Worth

The First Challenge: Chamber of Intellect

The Second Challenge: Chamber of Courage

The Third Challenge: Chamber of Integrity

The Forth Challenge: Chamber of Focus

The Fifth Challenge: Chamber of Knowledge

The Revelation and Return

Chapter 16: Reestablishing Contact

Finding Communication Tools

Contact Reestablished

Chapter 17: The A'kara Civilization

Unveiling the A'kara History

Chapter 18: The Hidden Chamber

The First Artifact

The Second Artifact

The Third Artifact

Chapter 19: The Celestial Council

The Grand Chamber

The First Encounter

Rise of the A'kara

The Approach of Entropy

The Catastrophic Event

The Plan for Transcendence

The Great Transition Ceremony

The Emergence of the Celestial Council

The Legacy of Immortality

The Cosmic Key

Reflections and Resolutions

Chapter 20: The Time Machine Gate

The Discovery

The First Step

Chapter 21: The Temporal Passage

The Pyramid's Whispers

The Great Transition

The Wisdom of Eryon

Chapter 22: The Time Portal into the History of Mankind

The Alignment

The Jump Back in Time

The Forbidden Conversation

Chapter 23: Galileo’s Trial (1633)

Arrival in Rome

The Inquisition Begins

Sophie's Support

The Turning Point

The Verdict

Return to Mars

Chapter 24: Encounter with Legendary Robin Hood (12

th

Century)

Nottingham and the Rescue of Maid Marian

The Plan

Infiltrating the Castle

The Rescue Mission

The Fight

Meeting Friar Tuck

Meeting the Legend: Robin Hood and his Merry Men in Sherwood Forest

The Meaning of Archery

Motivation to Take Action

Chapter 25: Exploring Ancient Greece (399 BC)

A Glimpse into Antiquity

Arrival in the Cradle of Civilization

The Market Chase

Capture of Emily

Imprisonment

Strategic Retreat: Temple of Defense

The Interrogation

Rescue and Reunion

Finding Socrates

A Philosophical Encounter

The Discussion Begins

The Meaning of Life

Chapter 26: The Longevity Pod

Chapter 27: A Divergent Path

The Rift Emerges

Ivan's Dilemma

Preparing for Departure

The Final Farewell

A New Beginning

Epilogue: A New Dawn on Mars — and on Earth

A New Chapter for Sophie and Ivan

Life on Mars

Life on Earth

Wei’s Destiny

The Weight of Knowledge

Reconnecting with Family

Moving Forward

A New Dawn

Commander Harris

Return to Earth as a Widower

Support from Friends and Colleagues

A Chance Encounter

A Blossoming Friendship

Legacy of the A'kara

Klaus's Contribution to Transhumanism

Defining the Research Goals

Experimentation and Innovation

Cognitive Enhancement

Sensory Augmentation

Ethical Considerations

Impact and Legacy

The deep bond between Emily and Klaus

A Bright Future

A Message to Future Generations

Introduction

Mars: The Red Planet with a Rich Historical and Cultural Legacy

Mars, the fourth planet from the Sun in our solar system, has captivated human imagination for millennia. Known as the "Red Planet" due to its distinctive reddish appearance, Mars has been a prominent feature in the night sky and has played a significant role in various cultures throughout history.

Connection to Mesopotamia

The Sumerians, who lived in Mesopotamia around 3500 BC, are one of the earliest known civilizations to carry out and record astronomical observations. The Sumerians observed the five planets known at the time (Mercury, Venus, Mars, Jupiter and Saturn) and gave them names. Mars was named "Nergal" after their god of war.

Connection to Ancient Egypt

In ancient Egypt, Mars was known as "Her Desher", meaning "The Red One", a direct reference to its color. The Egyptians meticulously tracked Mars's orbit, which contributed to their understanding of celestial mechanics. The name of the Egyptian capital Cairo (Arabic: , pronounced "al-Qāhira") does have an interesting connection to the planet Mars. The name "al-Qāhira" means "The Conqueror" or "The Vanquisher", and it was given to the city when it was founded in 969 AD. Mars was rising in the sky at the time of the city's foundation, and the name was chosen to reflect the planet's perceived influence and to symbolize strength and victory.

Ares or Mars in Ancient Greece and Rome

The planet's reddish hue also influenced the ancient Greeks and Romans. The Greeks named it "Ares" after their god of war, symbolizing its blood-red color and the violence and destruction associated with warfare. Similarly, the Romans named it "Mars" after their own god of war, reflecting their cultural emphasis on martial prowess and conquest. This naming convention has persisted into modern times, and Mars continues to evoke themes of conflict and aggression in cultural references.

Beyond its mythological and cultural significance, Mars has been a focal point of scientific inquiry. Its similarities and differences with Earth make it a prime candidate for studying planetary formation, climate, and the potential for extraterrestrial life.

The Titius-Bode Law and the Missing Planet

In the 18th century, the Titius-Bode law, an empirical rule suggesting a pattern in the distances of planets from the Sun, predicted a planet should exist between Mars and Jupiter. When astronomers did not find a planet there but discovered the asteroid belt instead, it led to the hypothesis that a planet might have once existed but was destroyed or failed to form.

The asteroid belt contains numerous small bodies that orbit the Sun between Mars and Jupiter. The largest objects in the asteroid belt are Ceres, Vesta, Pallas, and Hygiea, with Ceres being classified as a dwarf planet. The combined mass of the asteroid belt is still much less than that of Earth's moon, which suggests that if a planet did exist there, it must have been relatively small.

Impact on Mars?

The idea that a destroyed planet in the asteroid belt might have had catastrophic effects on Mars is intriguing but largely speculative. There are several ways this could have theoretically happened:

Asteroid Impacts

If a planet in the asteroid belt was disrupted, its fragments could have collided with Mars, causing extensive cratering and potentially affecting its climate and geology. Mars' surface shows evidence of massive impacts, such as the Hellas and Argyre basins, which could be linked to such events.

Gravitational Perturbations

The destruction of a planet-sized body in the asteroid belt could have created gravitational disturbances. These perturbations might have altered the orbits of asteroids and comets, increasing the likelihood of impacts on Mars and other inner planets.

Atmospheric and Geological Effects

Repeated impacts from large asteroids could have contributed to the loss of Mars' atmosphere and the disruption of its magnetic field, both of which are critical for maintaining stable, habitable conditions.

Life and Living on Mars

One of the most compelling reasons for studying Mars is the search for water and life. Evidence of past liquid water, such as dried-up riverbeds and minerals that form in the presence of water, suggests that Mars once had conditions suitable for life. To date, missions aimed to discover whether microbial life ever existed on Mars.

The Drake Equation and the Fermi Paradox

The Drake Equation and the Fermi Paradox are central concepts in the discussion about the probability of extraterrestrial life and intelligent civilizations in the universe. The Drake Equation was developed to estimate the number of technologically advanced civilizations in our galaxy that might be capable of communicating with us. But many of these parameters are still highly uncertain and based on estimates.

In contrast, the Fermi Paradox refers to the apparent contradiction between the high probability of extraterrestrial civilizations (based on the Drake Equation and the vast size of the universe) and the lack of clear evidence for, or contact with, such civilizations.

Some possible explanations for the Fermi Paradox include:

Rare Earth Hypothesis: Complex life is extremely rare, and the conditions that led to life on Earth are unique.

The Great Filter: There is a stage or several stages in the development of life that are extremely unlikely, so few civilizations ever reach the point of sending interstellar signals.

Self-Destruction: Technological civilizations tend to destroy themselves (e.g., through wars, environmental destruction, or other catastrophes) before they can reach interstellar communication.

Isolation and Inaccessibility: Civilizations might deliberately isolate themselves or are technologically incapable of sending or receiving signals.

Technological Limitations: Our technology might not be advanced enough to detect or recognize signals from other civilizations.

Temporal Discrepancies: Civilizations might have existed or will exist, but are too far apart in time, so their signals haven't reached us yet or have already passed by.

Terraforming Mars: Transforming the Red Planet into a New Earth

Mars is the prime target for future human exploration due to its relative proximity and the potential for habitability. The primary objective of terraforming Mars is to create an environment where humans can survive and thrive. This involves increasing the planet's temperature, thickening its atmosphere, and introducing water and oxygen. One approach to warming Mars is to introduce greenhouse gases like carbon dioxide (CO2), methane (CH4), and fluorocarbons into the atmosphere. These gases would trap heat from the Sun, raising the planet's temperature. Another method involves placing large mirrors in orbit around Mars to reflect sunlight onto the surface, directly increasing the temperature. Heating the polar ice caps could release large quantities of water, forming lakes and possibly rivers, thereby creating a more Earth-like hydrological cycle.

The transformation of Mars into a second Earth represents not just a monumental scientific endeavor but also a profound statement of human ingenuity and aspiration.

Crew Members’ Designation and Biography

In the not-so-distant future, when Earth's technological marvels reached their zenith, the United Mars Expedition set its sights on the crimson orb that had tantalized humanity for centuries.

Humanity stood on the precipice of its greatest adventure. Six astronauts, handpicked from different corners of the globe, embarked on a perilous journey that would redefine our existence. Their destination: Mars – the enigmatic red planet that had tantalized generations with its secrets. Their diverse backgrounds and conflicting personalities create a volatile mix.

The selection of the six astronauts for this unprecedented mission to Mars was no ordinary process. Each member of the team was meticulously chosen not just for their exceptional skills, but for their ability to adapt, innovate, and collaborate under extreme conditions. The mission required a unique blend of talents: scientific acumen, engineering prowess, physical endurance, and, above all, the mental fortitude to face the unknown.

The journey of these six astronauts began long before they set foot on Mars. It started with their rigorous training and the unyielding selection process that tested not only their abilities but their resolve and unity as a team. They were more than just colleagues; they were a family bound by a shared mission to explore the unknown and uncover the mysteries of Mars.

Their elite selection was not just a testament to their individual capabilities but to their potential as a cohesive unit. Each member brought something unique to the table, and together, they were greater than the sum of their parts. As they embarked on this groundbreaking mission, they carried with them the hopes and dreams of humanity, ready to face whatever challenges lay ahead with courage, innovation, and teamwork.

The beginning of their journey marked the dawn of a new era in space exploration, one that would test the limits of human endurance and ingenuity. This journey promised discoveries that would reshape our understanding of the universe. And it was this elite team of six astronauts who stood at the forefront of this monumental quest, ready to make history.

Let's delve into their journey!

Designation (Nationality):Cmdr. John Harris (USA)

Position:Mission Commander

Duties:Overall mission success, safety of crew and spacecraft

Biographic characteristics:

A seasoned air force pilot, John Harris is a no-nonsense leader. He is a highly decorated military officer. He lost his wife in a traffic accident, which still haunts him, but with the help of his military career, in which he had to experience many tragic blows, he has coped well and even emerged stronger. His brawny build conceals a heart that yearns for adventure beyond Earth's boundaries.

Designation (Nationality):Dr. Emily Clarke (UK)

Position:Pilot, First Officer

Duties:Main control of spacecraft, scientific analysis and experiments in geology

Biographic characteristics:

Emily Clarke is an experienced pilot and the team's geologist. She has an amazing number of publications and research grants in the field of volcanology. She is a nerd and has gone through life very results and goal oriented. She is determined to uncover the secrets that lie beneath the surface of Mars, and perhaps beneath her personal surface as well, because she still hasn't found a life partner.

Designation (Nationality):Dr. Ivan Petrov (Russia)

Position:Physician, Second Officer, Copilot

Duties:Crew‘s healthcare, supportive control of spacecraft

Biographic characteristics:

Ivan Petrov, a medical doctor and military pilot, possesses an athletic build and a brooding demeanor. He completed his doctorate in medicine in Germany. He is a dual medical specialist as a surgeon and cardiologist. He is very talented to play traditional folk music on the classical guitar with passion, which gives you an insight into his melancholy Russian soul. His past holds scars that even the vast Martian landscape can't erase.

Designation (Nationality): Dr. Wei Li (China)

Position: Mission Specialist

Duties: Mission specific interpretation of prehistoric archeological relics

Biographic characteristics:

Li Wei, an engineer and linguist, defies stereotypes. Her tiny frame belies her fierce determination. She is a former Olympic champion in archery. She is fluent in eight modern languages and well-versed in classical "dead" languages such as Sumerian and ancient Egyptian. She deciphers ancient hieroglyphs with ease, unlocking the past. For physical balance, she practices Shaolin kungfu regularly.

Designation (Nationality):Lt. Col. Sophie Dubois (France)

Position:Flight Engineer, Copilot

Duties:Technical maintenance, supportive control of spacecraft

Biographic characteristics:

Sophie Dubois is a helicopter pilot with an elite university diploma in engineering. She has a 2nd Dan black belt in Shotokan Karate and has mastered all 27 katas (prescribed shadow boxing moves). She is drawn to the mysteries of Mars like a moth to a flame.

Designation (Nationality):Professor Klaus Müller (Germany),

Position:Science Officer

Duties:Scientific analysis and experiments of exobiology

Biographic characteristics:

Bald-headed and unassuming, Klaus Müller is a biologist and chemist. He is one of the pioneers to develop a novel approach to treat resistant pathogens and find ways to promote longevity research. Thanks to his humanist education, he is proficient in Latin and Ancient Greek, but also speaks five modern foreign languages (German, English, Spanish, Mandarin, Russian). Due to his knowledge of Mandarin, he automatically has special access to Wei Li and vice-versa. So does this have potential for more? His stoic exterior conceals a passion for understanding life - both earthly and extraterrestrial.

Spaceship Description

Let's delve into the details of the spacecraft, a sleek state-of-the art interplanetary shuttle. She is designated as The Ares Horizon in honor of the ancient Greek name of the god of war, the Roman pendant called Mars.

Spaceship Design

The Ares Horizon utilizes a cutting-edge propulsion system that combines magnetic principles and reaction wheels. Here's how it works:

Magnetic Propulsion:

The spacecraft features a series of powerful electromagnets strategically placed along its hull. These magnets interact with Earth's magnetic field and the solar wind.

By adjusting the polarity of these magnets, The Ares Horizon can maneuver without traditional propellants. It can attract or repel itself from nearby celestial bodies, alter its attitude, and even spin - all without expending fuel.

Ion Thrusters:

For long-duration interplanetary travel, The Ares Horizon relies on ion thrusters.

These engines accelerate ions (usually xenon) to high speeds, generating efficient thrust.

Ion propulsion minimizes fuel consumption and extends mission endurance.

Reaction Wheels:

The Ares is equipped with a set of precision-engineered reaction wheels. These gyroscopic devices allow the spacecraft to change its orientation by altering the angular momentum.

When the crew needs to adjust their trajectory or stabilize the ship, the reaction wheels spin up or slow down, exerting torque on the spacecraft.

This system eliminates the need for conventional thrusters, reducing mass and streamlining operations.

Artificial Gravity Ring

Encircling the central hub of The Ares Horizon is a massive rotating ring, aptly named the "Gravity Ring." Here's how it functions:

Centrifugal Force:

The Gravity Ring spins at a constant rate, creating centrifugal force that simulates gravity for the crew inside.

As the astronauts move outward from the hub, they experience increasing gravitational pull. At the outer edge of the ring, the force approximates Earth's gravity (1 g).

This gradual transition mitigates the discomfort associated with rapid changes in gravity.

Living Quarters and Laboratories

The Gravity Ring houses living quarters, laboratories, and recreational areas. Each section is oriented radially, allowing occupants to walk along the inner surface.

The floor of the ring becomes the "downward" direction due to the centrifugal force, providing a familiar sense of gravity.

Crew members exercise, eat, and sleep in this environment, maintaining physical health during long space missions.

Engineering Challenges

Constructing the Gravity Ring requires advanced materials to withstand the immense stresses of rotation.

Engineers carefully balanced the ring to prevent wobbling or vibrations.

The inner core remains stationary, housing critical systems like the command center, propulsion controls, and life support.

Command Center and Bridge

Located in the stationary core, the command center houses critical systems:

Navigation:

Advanced star trackers, radar, and optical sensors guide The Ares Horizon through space.

Communication:

High-frequency transceivers maintain contact with Earth and other spacecraft.

Piloting:

A panoramic viewport allows the crew to observe celestial bodies during manual maneuvers.

Life Support and Sustainability

The Ares Horizon prioritizes crew well-being:

Oxygen Generation:

Algae-based bioreactors produce oxygen through photosynthesis.

Water Recycling:

Filtration systems purify wastewater, ensuring a sustainable supply.

Hydroponics:

The ship's garden provides fresh produce and psychological comfort.

Emergency Systems:

Escape Pods: Distributed around the hull, these small capsules allow rapid evacuation in case of critical failure.

Radiation Shields:

Deployable panels protect against solar flares and cosmic rays during interplanetary travel.

Conclusion

The Ares Horizon represents humanity's pinnacle of engineering — a sleek state-of-the-art vessel that bridges worlds, defies gravity, and carries the hopes of six astronauts who are ready to unravel the mysteries of Mars.

Chapter 1: Departure

The countdown echoed through the control room, each digit a drumbeat of anticipation. Commander John Harris, his uniform crisp, stood at the center of the command module. His eyes swept across the banks of monitors, each screen displaying vital data — the fusion engines' status, life support systems, and the trajectory that would carry them beyond Earth's grasp.

Beside him, Dr. Emily Clarke, the red-haired geologist, adjusted her spectacles. Her fingers traced the outline of Mars on the star chart. "We're really doing this," she murmured. "Leaving our home."

Dr. Ivan Petrov, the athletic Russian doctor and pilot, nodded. His jaw clenched, betraying the mix of excitement and nerves. "Da," he said. "To the crimson world."

Dr. Wei Li, the tiny Chinese engineer and linguist, checked the communication array.

"Our families," she whispered. "They're watching."

Lt. Col. Sophie Dubois, the slim Frenchwoman with a penchant for adventure, twirled a lock of her blond hair.

"Adventure awaits," she declared. "And mysteries beyond imagination."

Professor Klaus Müller, the baldheaded German biologist and chemist, clutched his notebook.

"Our mission," he said, "is to unravel those mysteries."

The Launch

The gantry retracted, revealing The Ares Horizon. Its sleek hull gleamed under the harsh floodlights. The crew strapped themselves into their acceleration couches, their hearts pounding in sync with the countdown.

"Engines online," Ivan reported.

Commander Harris gripped the armrests. "Ignite, and… liftoff!"

The fusion engines roared to life, their blue flames swallowing the launchpad. Earth's gravity released its grip, and The Ares Horizon ascended - a silver arrow piercing the sky.

The astronauts felt the familiar pressure pushing them into their seats.

Emily's breath hitched.

Wei's knuckles turned white.

Sophie hummed a tune — a French ballad her grandmother used to sing.

Klaus scribbled notes, capturing the raw data of their ascent.

And Ivan?

He grinned, adrenaline surging through his veins.

"We're leaving," he said. "Leaving it all behind."

The View from Above

For several months the team has trained for this moment. At last, now they have made it!

As the atmosphere thinned, the blue orb of Earth shrank. The astronauts unstrapped, floating in microgravity.

Emily pressed her face against the viewport.

"Look," she whispered. "Our home."

Klaus joined her and said: "Yes, it is awesome, such a blue beauty! It is a pity that we still wage wars and make environmental pollution on such a jewel. Politicians should definitely get up here to reconsider their actions."

Emily enjoyed that she could share her impression with Klaus. She liked being in his company, had already felt that during the training missions on Earth. However, he remained level-headed and coolheaded with his emotional reactions — would that last?

Wei also enjoyed the breathtaking view, but also noticed the togetherness of Emily and Klaus. She couldn't rationally explain why this actually bothered her. She wiped the thought away and surrendered to the feeling of weightlessness.

Now she started to execute a somersault, her laughter echoing.

"We're weightless," she said. "Like cosmic dancers."

Sophie joined her, twirling.

"Next stop," she said, "Mars."

Chapter 2: The Long Haul

Despite advances in propulsion technology, the journey between Earth and Mars takes around 6 to 9 months. The time slot for the mission has been chosen according to the closest distance between Earth and Mars, known as opposition, which occurs roughly every 26 months. However, the distance at each opposition varies due to the elliptical nature of both planets' orbits. The closest oppositions, known as perihelic oppositions, occur when Mars is near its perihelion (the point in its orbit closest to the Sun) while Earth is near its aphelion (the point in its orbit farthest from the Sun). These perihelic oppositions happen approximately every 15 to 17 years. During long journeys, astronauts are exposed to cosmic radiation from two main sources:

Galactic cosmic radiation: this consists of high-energy particles coming from other parts of our galaxy, mainly protons and heavier ions. This radiation is continuously present and difficult to shield.

Solar particle events: These occur when the sun ejects large amounts of charged particles, mainly protons, into space. These events are difficult to predict and can produce particularly intense bursts of radiation.

The Cosmic Routine: Work

Scientific research:

Emily spent hours analyzing rock samples from Martian meteors brought back from Earth.

She meticulously cataloged the mineral composition and searched for clues to the geological history of Mars.

Klaus, the biologist, studied the effects of cosmic radiation on microorganisms. His petri dishes floated in the lab, revealing the resilience of life even in space.

Engineering Maintenance:

Wei tinkered with the spacecraft's systems. She recalibrated sensors, and ensured the fusion reactors ran smoothly. Her tiny frame squeezed into tight spaces, her toolkit floating alongside her.

Navigation and Course Corrections:

Commander Harris and Ivan collaborated on trajectory adjustments. They calculated gravitational slingshots around planets, optimizing fuel consumption. Their conversations were a blend of physics and intuition.

Rest and Recreation

Sleep Cycles:

The crew adhered to a strict sleep schedule. In the dimly lit crew quarters, they floated in their sleeping bags, tethered to the walls. Dreams of Earth—familiar faces, grassy fields—visited them in microgravity.

Virtual Reality:

Sophie escaped into virtual landscapes. She'd swim in digital oceans, climb pixelated mountains, and dance with avatars of loved ones. The line between reality and simulation blurred.

Reading and Films:

Ivan devoured classic Russian literature. Tolstoy's War and Peace floated beside him, its pages carefully turned.

Emily watched old Earth films — nostalgia for a world they'd left behind.

Camaraderie

Shared Meals:

The galley became their communal hub.

Wei prepared stir-fried noodles, Klaus brewed coffee, and Sophie told stories of French cafes. They laughed, swapped memories, and savored freeze-dried delicacies.

Personal Journals:

Each astronaut maintained a digital journal:

Commander Harris chronicled leadership challenges, whereas Emily wrote poetry about Martian sunsets, and Wei recorded her dreams — strange visions of alien landscapes.

Lccture Sessions:

On jeur-fixe dates, the crew members would give lectures to the others from their field of research and experience, except for Commander Harris. Although he has graduated from military academy with the rank of an officer, he is not a typical researcher or scientist. Therefore, he preferred to act as a host during these sessions.

Music:

Ivan's guitar echoed through the corridors and became the heart of their journey. He played melancholic tunes, folk songs, and improvised melodies. The crew gathered, floating, their eyes closed, lost in the music. Sometimes Sophie sang, her voice hauntingly beautiful. But Sophie also sang a cappella, for example old sea shanties or lilting tunes of French chansons.

Emily, with her geologist's precision, tapped out rhythms on the hull, turning the spacecraft into an impromptu drum set.

Wei, her fingers dancing over invisible keys, composed celestial tunes with the rhythmic beats of Chinese ballads.

And Klaus, during quiet nights, improvised harmonies with his lab equipment — a beaker as a bell, a pipette as a flute. Their music wove together the disparate threads of their cultures, creating a cosmic symphony that resonated across the light-years. Sophie and Ivan harmonized perfectly as an ensemble.

Stargazing:

In the quiet moments between experiments and calculations, the crew gathered in the observation dome. Earth, a distant blue orb, shrank with each passing day. Mars, a reddish speck on the horizon, beckoned. Emily marveled at the constellations — the same stars that had guided sailors across oceans for centuries. She pointed out Orion, Ursa Major, and the Southern Cross. In contrast Ivan shared stories of the cosmos — tales passed down through generations.

They traced imaginary lines between stars, connecting their own journey to the ancient myths.

Sports in Zero-G:

The microgravity of the spacecraft allowed for playful activities. Wei, privileged by her tiny figure, executed a perfect somersault, her laughter echoing through the metal corridors. Sometimes she met with Sophie to spar and practise Asian martial arts; Wei was trained in Shaolin kungfu, Sophie in Shotokan karate.

Klaus floated effortlessly, attempting bicycle kicks and mid-air somersaults. They played modified versions of soccer, basketball, and even synchronized swimming. Commander Harris refereed their matches, occasionally joining in for a zero-G slam dunk.

Sophie challenged everyone to a zero-G race, her competitive spirit undiminished by the vastness of space. Moreover, she was also able to inspire Ivan to take martial arts lessons together, she as a black belt karateka and he as a Systema specialist. The two of them seemed to be a good ensemble, and not just in the musical field. The vibes between them obviously worked out fine on different levels. They literally had a close contact…

The Psychological Strain

The Ares Horizon hurtled through space, its crew finding solace in these simple pleasures.

However, as weeks turned into months, isolation gnawed at their minds. Earth was a distant memory, a pale blue dot. They missed rain, wind, and the smell of soil.

Ivan confided in Sophie, "I dream of birch trees."

She nodded, understanding the ache and added: "And I miss the sound of the waves from the sea, the chirping of birds and the smells of mother nature."

Sophie felt the need to hug Ivan. She made a cautious approach and he let her. The hug was good for both of them. Ivan said to Sophie, "You know that this releases the cuddle hormone oxytocin, so we'll both feel better again quickly. However, our embrace could be dangerous if dopamine and vasopressin are also released, then I can't guarantee anything." He winked at her and Sophie laughed briefly.

Sophie did indeed feel better quickly, but hid the fact that she was now experiencing feelings of familiarity and inner affection.

Was it perhaps even dopamine and vasopressin already?

Is this all just a simple biochemical explanation, therefore, really just a hormonal reaction?

Either way, she enjoyed the moment and left the melancholy thoughts behind her.

And so, they clung to each other — their cosmic family — finding solace in shared laughter, whispered confessions, and the distant promise of Mars.

Chapter 3: Lecture Sessions

As previously described, during the long flight from Earth to Mars, the crew has an organized program to pass time. One of the jeur-fixe dates are the lecture sessions.

Destination: Excursion into Volcanology

Today it is Emily‘s turn to give her geological view on the destination.

"Please fasten your seatbelt, our flight‘s destination will be Cydonia Mensae", Emily started the lecture.

"Doesn‘t this sound like a seaside resort, does it? I can‘t wait to enjoy sun, beach, drinks and palm trees with background Caribbean music", Klaus interjected.

"I must disappoint you about this, Klaus", Emily answered. "The Cydonia region on Mars is located in the planet's northern hemisphere, within the transition zone between the heavily cratered southern highlands and the smoother northern plains."

"Where does the name Cydonia come from, by the way?", Ivan asked.

Emily stopped for a moment and uttered: "Um, er…"

Klaus sprang to help, as he had enjoyed a classical language education at high school:

"The name "Cydonia" originates from the ancient Greek word for the city of Kydonia (modern-day Chania) on the island of Crete. In

Greek mythology, Kydonia was associated with a type of fruit that later became known as the quince."

Emily continued slightly impressed with a reddish color flush in her face:"However, this region is characterized by mesas (flat-topped hills with steep sides) and buttes (similar to mesas but smaller). For example, buttes are also found on Earth in Monument Valley, Utah, and have been often used for primitive American Western movie sets."

"Your haughty tone shows a kind of disrespect to our cultural heritage", Commander Harris said a little tarnished in honor.

"Well, the British history is just much more profound and insignificantly older, isn‘t it?", Emily retorted.

"I protest", injected Wei, "China has definitely the oldest and richest cultural history among all of us here."

"Yeah, both of you are right. Don‘t mind, keep going on", Commander Harris nodded towards Emily.

"These formations in the Cydonia region are believed to have been shaped by erosion caused by wind, water, and possibly volcanic activity", Emily continued her lecture. "The region of interest for our mission is the following volcano and its surroundings", she projected the following picture to the wall.

Sophie awakened from a sleepy condition and asked: