Wow, dude! It appears like someone's been reading a lot of sci-fi lately.
All of that sounds like the classic "throw everything futuristic-sounding at the wall and see what sticks" approach to investment pitches. You know, like
self-sustaining Bishop Rings housing
billions of spacefaring humanoids powered by
a functionally encrypted data-voice-holographic video carrying satellite broadband. Honestly, who wouldn't want to invest in a project that sounds like that. And all this for a measly $155 million? Sign me right up!
Again I must state the fact: you are a massively ignorant fellow. $155 million is required just for deploying a testnet with 10 satellites. To realize our highest aspiration and full potential of Heim AI-Spacenet Network we will have to invest $4 trillion over the next 12 years.
Okay, then teach me. How did you come up with those numbers? Do you have any whitepapers, research papers, or even a napkin sketch with some calculations to back this up? Because frankly, throwing around a "$4 trillion dream" sounds more like a bad sci-fi pitch than a serious project.
If you want people to take you seriously, lay out some concrete details. Show some evidence that this Heim AI-Spacenet Network isn't just a fantasy you cooked up. Otherwise, you risk sounding like someone who just discovered PowerPoint and thinks bigger numbers equal bigger ideas.
I am adding here some pieces of visual technical information on the foundational space-based technology and science behind the autonomic self of Suprahuman-level self-reflective self-identifying hyperconscious computing network powering a permanent space-based human colony on a galactic voyage and token-related information on Heim (symbol: HAI) Tokens of Heim Spacenet Network for prospective token buyers/investors.
Approximate financial cost to build a Near Earth Bishop Ring for a human colony of 2 billion humans
Building a Bishop Ring with self-propelling upgradable Antimatter-catalyzer thermonuclear
pulse space propulsion engines habitat for permanently hosting a colony of 2 billion people
to be initially parked at Sun-Earth L4 Lagrangian point involves a complex array of
infrastructural requirements and associated costs, including in-space manufacturing and
robotic self-assembly. Given the hypothetical nature of such a project and the lack of specific
cost data in the provided sources, I will outline the general categories of costs and
requirements based on the information available and extrapolate from known technologies
and space missions.
Infrastructural Requirements:
1. Materials and Construction: The Bishop Ring would use carbon nanotubes instead of
steel, allowing for a much larger habitat. The construction would involve in-space
manufacturing of these materials and the assembly of the habitat's structure.
2. Artificial Gravity and Atmosphere Retention: The habitat would spin to produce
artificial gravity and retain atmosphere through atmosphere retention walls. This requires
sophisticated engineering and materials science to ensure structural integrity and
atmospheric containment.
3. Power Generation and Storage: The habitat would need a combination of solar panels
on the outer rim and solar power satellites for power generation. Storage solutions would be
necessary to manage energy supply and demand.
4. Life Support Systems: Including water recycling, air filtration, and food production
facilities.
5. Robotic Self-Assembly: The construction of the habitat would require advanced robotic
systems capable of assembling the structure in space.
6. Communication and Data Transmission: High-speed communication links would be
necessary for maintaining contact with Earth and for data transmission.
7. Environmental Control: Systems for temperature regulation, air quality, and waste
management.
8. Habitation and Recreation: Infrastructure for living spaces, work areas, and recreational
facilities.
Associated Costs:
1. Materials and Manufacturing: The cost of carbon nanotubes and other advanced
materials, as well as the cost of manufacturing these materials in space.
2. Construction and Assembly: The cost of designing, building, and assembling the habitat
in space, including the use of robotic self-assembly systems.
3. Launch and Orbital Insertion: The cost of launching the materials and construction
equipment to the Sun-Earth L4 Lagrangian points.
4. Operational Costs: Including power generation, life support systems, and maintenance of
the habitat.
5. Communication and Data Transmission: The cost of maintaining high-speed
communication links with Earth.
6. Environmental Control Systems: The cost of maintaining the habitat's environmental
conditions.
7. Life Support Systems: The cost of water recycling, air filtration, and food production
facilities.
8. Robotic Systems: The cost of developing and deploying advanced robotic systems for
construction and maintenance.
Estimated Cost:
Given the scale of the project and the advanced technologies required, the costs would be
astronomical. For example, the cost of launching materials to space is already in the tens of
billions of dollars, and the development of advanced materials and robotic systems would
add significantly to this. The operational costs would be substantial, including the cost of
maintaining the habitat, power generation, and life support systems.
The cost of engineering and operating such a colossal space-based permanent human
colony and its economy will be approximately US$4 trillion( Assumption: March 2024
purchasing power of USD) over a timeline of 12 to 15 years.
Continuous Time Crystal of Godel Hypercomputing Processor/Supraturning Hypercomputer, the brain of Heim capable of embodying suprahuman-level self-identifying consciousness and intelligence
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