Hallowscream

Harmony

Hazard

Helhand

Helixa

Hellaquik

Hellbrand

Hellion

High-Altitude / Near-Space Operations Suit

The High-Altitude / Near-Space Operations Suit is a specialized uniform system designed for extreme-altitude insertions, stratospheric operations, and short-duration vacuum exposure. It is primarily issued to the Meta-Mutant Tactical Division, with secondary use by the Aerial Security Division and tertiary allocation to the Eclipse Enforcement Agency, bridging the operational gap between conventional airspace, orbital platforms, and anomalous psionic zones. The suit integrates flight-suit flexibility with full environmental protection to allow personnel to operate safely in near-space conditions while maintaining combat or rescue effectiveness.

The suit features pressure stabilization to counter rapid altitude changes, partial vacuum sealing for temporary exposure to low-pressure environments, and radiation shielding for high-altitude cosmic and solar radiation. Inertial dampening systems are incorporated to mitigate sudden acceleration, high-G maneuvers, or rapid descent from stratospheric platforms. Reinforced joints, aerodynamic contours, and integrated oxygen flow and environmental monitoring indicators maintain mobility and physiological stability under extreme conditions. Helmets are fully enclosed with reflective visors for thermal and radiation protection, while the suit’s materials resist extreme cold, UV flux, and low-pressure stress. This combination of features allows near-space insertion, high-altitude reconnaissance, and anomalous field operations without requiring full spacecraft support.

Hirudinean

Hisţiriŷā

Hitch

Homo Magi

Hornet

Amara Nkemdilim - A Nigerian vigilante and investigator operating primarily from Calabar.

Fusing her background in materials engineering with stolen corporate biotech, she created a modular suit that grants her enhanced mobility, strength, and short-term miniaturization.

Known for her fearless pursuit of smugglers and exploitative corporations, Hornet straddles the line between hero and outlaw.

While her community respects her, authorities remain divided on whether she is a protector or a rogue agent.

House of Leadership

Howlan, Anatal

Anatal Red Cedar Howlan — Also known as "Keeper of the Flame," "The Watcher of Ktaqwe," and affectionately as "Sea-Mother" by local fishermen, Anatal Howlan (1810–1898) was a revered lighthouse keeper, herbalist, and spiritual figure based at the Ktaqwe Farmstead Lighthouse on Cape St. George, Ktaqmkuk & Beothuk Protectorate.

Of Mi'kmaq and Norse descent, with ancestral ties to the Beothuk and Viking settlers, Anatal embodied a rare cultural fusion and was believed to be a Natural-Born Gifted - her abilities awakened not by modern phenomena, but inherited and honed through generational lineage.

A local midwife and kelp-farmer, she became a living legend after surviving a near-fatal storm in 1830, during which her Gifts deepened.

A year later, she rescued and fell in love with an Atlantean Crown Prince, bearing their son Kalydor.

Known for her stoic grace, storm-calming rituals, and intricate spiritual practice blending Mi'kmaq animism with Norse lore, Anatal remained a community pillar until her death.

Her presence was quiet but immovable, and her legacy is preserved in folklore, journals written in Mi'kmaq syllabics and Old Norse runes, and local tales of her chants that could hold back tempests.

She is remembered not as a warrior or queen, but as a living threshold - between land and sea, past and future, the mortal and the mythic.

Hózhó’nah

Home Models

This earth-sheltered family home would consist of several subterranean levels integrated into the landscape, with natural materials used throughout.

It would be spacious, practical, and energy-efficient while maintaining a close connection to nature, with features that support health, comfort, and community well-being.

This inclusive family home would integrate accessibility, comfort, and flexibility.

It would be both open and welcoming for social gatherings, while also offering private spaces for relaxation.

The design would focus on easy mobility, ensuring universal accessibility while maintaining a cozy, harmonious environment.

Every element would be thoughtfully designed to meet various physical, emotional, and social needs.

Exterior & Entrance:
• Entrance:
• The main entrance would be a gravel-lined path or natural stone stairway leading up to a green-roofed structure that blends seamlessly with the surrounding landscape.
• The roof is covered with native grasses and succulent plants, serving as an insulator and rainwater collector while also providing a garden space for the family.
• Pet-friendly Features:
• A small, enclosed yard at the front of the house would be accessible for the pet, with native plants and water features designed to blend naturally into the environment.

There would also be easy-to-navigate paths within the yard for those with mobility aids to enjoy the outdoors.

Wheelchair Accessible Pathways:
• The exterior would feature a wide, smooth, and gently sloping path leading to the main entrance, designed for wheelchair access or ease of movement for those with limited mobility.
• This path would be surrounded by native plants and would avoid stairs, offering a welcoming environment for everyone.
Elevated Planters:
• Raised garden beds would allow easy access for family members of all abilities, including those with mobility challenges or advanced age, to participate in gardening.

Underground Levels:
• Primary Living Space:
• The heart of the home would be an open-plan living space that feels airy and expansive, despite being underground.
• The ceilings are vaulted, creating a sense of spaciousness, and made from natural stone or wood, with large, circular skylights at the highest points, allowing for natural light to filter down into the lower floors.
• The living room, dining, and kitchen would be designed with flat, non-slip flooring made from bamboo, reclaimed wood, or natural stone, all chosen for durability and ease of movement.
• The floor would be spacious enough to accommodate wheelchairs, walkers, or other mobility aids.
• Natural Light:
• Sunlight would be channeled into the home through light wells or vertical garden shafts, which provide a direct connection to the surface and allow plants to grow inside, bringing in greenery and fresh air.
• Living Room:
• The family would have a cozy but open living room area with a low, circular hearth (perhaps made from stone or clay), allowing for natural warmth and a communal gathering space.
• Comfortable seating would be designed to accommodate the family’s needs, with recycled fabric upholstery.
• Kitchen/Dining Area:
• The kitchen would be equipped with state-of-the-art eco-appliances, like a zero-energy fridge and solar-powered stove, designed to be as energy-efficient as possible.
• The adjustable countertops, sinks, and cabinetry would be crafted from sustainable wood and can be raised or lowered based on the user’s height or physical needs, and native stone would be used for the sinks and surfaces.
• The stove would include easy-to-operate burners, and appliances would be designed for accessibility, with large, easy-to-read controls and voice-command features for those with visual impairments.
• Open Shelving:
• Shelves would be at easy-to-reach heights, and cabinets would have push-to-open features to accommodate those with limited hand strength or dexterity.
• Dining Area:
• The dining area would be adjacent to the kitchen, with a large, communal wooden table for family meals, adorned with indoor herb gardens and eco-friendly lighting (like solar-powered pendant lights).
• The dining table would be adjustable to fit the family's varying needs, whether it’s a seated dinner or for use in activities like arts and crafts.
• The layout would ensure space for mobility aids and ensure all family members are included.
• Family Room/Activity Area:
• A large space for family activities, entertainment, and home-schooling would have modular seating and a flexible layout, allowing the family to transform it into whatever space they need, from study to game room.
• Natural Ventilation:
• Strategically placed ventilation shafts would allow for cross-breeze airflow, ensuring the home stays cool in summer and warm in winter without relying on traditional HVAC systems.
• Minimal Barriers:
• The home would feature wide doorways and open layouts to ensure there are no physical barriers to movement between rooms.
• Curved or rounded edges on furniture and walls would help prevent accidents for those with limited mobility or visual impairments.
• Adjustable Lighting:
• The home would include smart lighting with adjustable brightness and color tones to accommodate different needs, such as dimmer lights for relaxation or brighter settings for visual accessibility.
• Social Space for Extroverts & Private Areas for Introverts:
• The layout would feature an open-plan social space for family interaction, but with designated quiet zones or personal alcoves for introverts or those seeking solitude.
• These could include quiet nooks with soft seating, privacy screens, and natural light to provide peace and personal space.

Bedrooms & Private Spaces:
• Parents’ Bedroom:
• This would be a spacious, cozy room with a natural stone fireplace and wooden walls with large, low-profile furniture for easy access and mobility.
• The bed frame might be made from reclaimed wood and include natural fabrics like linen and wool, and be designed for comfort, but it would also have adjustable features to accommodate physical needs.
• A height-adjustable bed could be used to ensure ease of entry and exit, especially for those with advanced age or mobility challenges.
• The room would have soft ambient lighting provided by solar-powered lights, and a green wall filled with air-purifying plants all controlled by voice, touch, or remote which could be installed, allowing easy adjustments for varying needs.
• This would help seniors or those with visual impairments control the lighting without getting up.
• Wide Doorways & Low Thresholds:
• The bedroom would have wide doorways and a no-threshold design so that movement from room to room is easy for people with assistive devices or limited mobility.
• Children’s Bedrooms:
• Each child's room would be spacious and personalizable, allowing each child to express themselves while keeping accessibility in mind.
• The rooms would have built-in shelving for toys, books, and clothes made from natural fibers.
• Beds would be lower to the ground and low-profile, allowing for easy access and creating a feeling of openness.
• Easily reachable storage solutions would be provided (drawers or shelves that don't require excessive bending).
• Each room would include a small personal garden or plant space, helping children learn about plants and sustainable living.
• Flexible Spaces:
• For extroverted children, there might be areas for shared play, while for introverted children, cozy corners or quiet reading nooks could be incorporated, each with a small indoor garden or natural elements.
• Pet Area:
• A designated area for the family pet (perhaps a dog or cat) would be built into the living space.
• This could be an underground nook in the hallway or a corner with a pet bed and eco-friendly pet accessories.
• For a dog, there could be a small indoor garden for play, and a chilled-out space for resting.

Functional Spaces:
• Bathroom:
• The bathroom would be spacious and eco-conscious, with a low-flow shower, water-efficient toilet, and a bathtub made of natural stone.
• The space would also include plant shelves, where aloe vera and herbs might grow.
• The bathroom could feature a natural clay or bamboo sink, and recycled glass would be used for mirror frames and lighting fixtures.
• Universal Design:
• Bathrooms would feature walk-in showers with grab bars and low-curb entries, making them fully accessible for anyone, regardless of mobility.
• The sink would be designed to allow easy access for wheelchair users, with under-sink clearance to prevent obstruction.
• Temperature Control:
• A touchless temperature control system could be installed in the bathroom, allowing family members to easily adjust the water temperature with a voice command or remote.
• Smart Toilets:
• High-tech, self-cleaning, and heated toilets would be included, with bidet functionality for convenience and comfort.
• Non-Slip Flooring:
• Slip-resistant flooring made from natural stone or rubberized material would make the bathroom safe for people with mobility challenges.
• Storage & Utility Spaces:
• The home would be equipped with built-in shelving, hidden storage areas, and energy-efficient laundry spaces, using greywater recycling systems to minimize water waste.
• There would also be an underground storage area for seasonal items, ensuring that all tools, bicycles, or extra materials are kept out of sight.

Sustainability Features:
• Energy:
• The home would run on solar power, with photovoltaic cells placed on the exterior of the roof to collect sunlight, ensuring the family’s energy needs are met sustainably.
• Energy-efficient appliances like low-energy lighting, smart thermostats, and wind-powered generators could supplement this energy grid.
• Water Management:
• The home would include a rainwater harvesting system, with cisterns to store water for daily use.
• Water used in the home would be filtered and recycled for garden irrigation, and a composting toilet system would minimize water waste.
• The family would follow a zero-waste lifestyle, composting all organic matter and ensuring that plastic and other non-recyclables are kept to an absolute minimum.
• The home might also feature an indoor composting system and have separate waste storage for recycling.
• Environmental Control Systems:
• Given the earth-sheltered design, the home would be naturally thermoregulated, with the temperature staying constant throughout the year.
• If needed, the family could use earth ducts for passive cooling or heating, ensuring they stay comfortable without relying on conventional energy sources.
• The home would be equipped with smart systems that monitor air quality, humidity, and temperature, adjusting automatically based on personal preferences.
• This helps to maintain comfort without requiring much physical effort.
• Eco-Friendly Materials:
• Sustainability would be key, with natural materials used in all finishes—wood, bamboo, cork, and recycled glass. The home would have solar panels, rainwater collection, and geothermal heating to ensure it remains environmentally friendly while being self-sustaining.
• Voice-Controlled Tech:
• All tech, from lights to appliances, would be voice-activated or controlled via a central hub that can be easily accessed by anyone, regardless of mobility.
• Smart Furniture:
• Some furniture would be designed with height-adjustable features, such as tables, desks, and countertops, ensuring that all family members can interact with their environment comfortably.

Outdoor Features:
• Patio and Outdoor Space:
• There would be an outdoor courtyard, partially open to the sky, where the family could enjoy time together, garden, or host guests.
• This courtyard would have a vegetable garden, and various native flowers, all designed to attract beneficial insects and maintain local biodiversity.
• Tree Planting and Community Green Areas:
• Surrounding the home, native trees and shrubs would help provide shade, protect against winds, and serve as a buffer for wildlife.
• This would integrate the family’s home into a larger green community that values communal spaces and nature.

Perfect Home for the Family:
• This 4-person family home is designed with eco-consciousness in mind, offering an underground refuge that feels open and connected to nature, with sustainable energy, waste management, and water systems.
• The use of natural materials, such as stone, wood, and earth, ensures a harmonious living environment with minimal impact on the land, while providing the comforts of modern life.
• It’s a home built for resilience, efficiency, and connection to both the land and the community.

Conclusion:
• This inclusive family home for four people, with attention to mobility issues, different personalities, and the needs of a diverse household, provides comfort, accessibility, and personalization.
• With adjustable features, eco-friendly technology, and designs for both extroverts and introverts, it promotes a harmonious balance of private comfort and family connection.
• The integration of universal accessibility ensures that all family members can enjoy their space with ease, independence, and comfort.

Huáng ào bó lún

Humanity Underground

How Deep Can Humans Live Underground?

The biggest challenge for an underground civilization is geothermal heat and pressure, not just structural integrity.

Depth Limit: Around 5 km (3.1 miles) max for long-term human habitation.

Why?

Eden's geothermal gradient increases temperature by 25–30°C per km.

At 5 km deep, temperatures hit 125–150°C (257–302°F), making cooling and ventilation a huge problem.

Rock pressure increases, making tunnels harder to maintain safely.

Feasible Underground Civilization Depths

1–3 km (0.6–1.9 miles) → Doable with advanced engineering, heat management, and ventilation.

3–5 km (1.9–3.1 miles) → Extreme challenges but possible with future tech.

5+ km (3.1+ miles) → Unlivable without exotic materials and cooling methods.

How Deep Can Humans Build an Underwater City?

Water pressure increases by 1 atmosphere (atm) per 10 meters (33 feet).

Current Tech Limit: 1,000 meters (3,280 feet / ~100 atm)

Military submarines can reach this depth, and deep-sea research labs exist at 600-1,000 meters.

Material Challenge: Even titanium alloys struggle beyond this.

Theoretical Limit: 4,000–6,000 meters (13,000–19,700 feet / 400–600 atm)

Special reinforced carbon composites, graphene, and high-strength alloys could work.

Needs extreme pressure-resistant domes and flexible structures to absorb stress.

Absolute Maximum: 11,000 meters (36,000 feet / 1,100 atm, Mariana Trench)

Almost impossible with current materials.

Any city here would require exotic materials, anti-pressure fields, or hydrostatic balance technology (like a liquid-filled environment inside the habitat to equalize pressure).

Conclusion: Best Depths for Civilization

Underground: 1–3 km deep

Underwater: 600–1,000 meters deep, with future potential for 4,000–6,000 meters.

Extreme depths (5 km+ underground, 6,000m+ underwater) require sci-fi level technology.

Concept: Improvised Civilian Underground Settlements (2040–2050)

These are not sterile fallout shelters — they’re living ecosystems of survival built from repurposed materials, scavenged machinery, and organic integration.

Imagine entire subway systems, mining tunnels, metro basements, and caverns retrofitted by civilians using Tesla-style free-energy nodes, geothermal vents, and salvaged tech.

You’d get a steampunk-meets-biotech aesthetic — copper coils, condensation collectors, moss filtration, solar piping, fungal light sources, steam heat exchangers.

Nothing is perfect; everything is patched.

But it works because every pipe, vent, and turbine has a story behind it - some mechanic, botanist, or tinkerer made it work.

These places hum with life - imperfect, gritty, real.

Hunters

Huntsman

Hyperstreak