part of pirates of cyber states course on off grid living in cyberia

published on x.com

scale total consumption per hour population per capita
global 30 850 TW/h 3.52 TW 8 000 000 000 0.42 KW/h
cyber valley 40 000 KW/h 4.5 KW 40 0.11 KW/h

kardashev type 1 target

  • 500x - 2000x more for all
  • 1 000 000 000 for cyberia

main rule for autonomous energy system: diversification

{:height 548, :width 960}

energies

  • water: most fundamental resource

    • current cyber valley status
      • water generation
        • 1 000 000 m3 per year
        • 100 m3 per hour
      • water storage
        • 200 m3
    • how to?
      • how much you need?
        • As much as possible
        • we consume 1t per day minimum
        • 25 liters per human
      • rainy water collection and storage costs
        • depends on your soil => water holding capacity
        • don't store on closed containers (unless a lot of pollution) => quality the same, costs 5x - 10x
        • clay or stone: `MATH_PLACEHOLDER_010 m2 of the pond bottom
        • hdpe or ppr (not pvc) geomembrane: `MATH_PLACEHOLDER_15 m2 of the pond bottom
          • 2025-10-28 15.04.35.jpg
    • filtration
      • biofilter for water purification
      • image.png
      • schmutzdecke
      • gravel + sand + biochar + limestone
      • uv filter
      • basalt box
      • total costs: MATH_PLACEHOLDER_21000 per point of consumption
    • gray water
      • paperless toilets: drier and washer => MATH_PLACEHOLDER_3500
        • LOUPUSUO Smart Toilet,Tankless Toilets with Warm Water Sprayer and Dryer,  Foot Sensor Operation,Bidet with Heated Seat Smart with Bidet Built In  Fahrenheit LED Display - Amazon.com
      • do not use cosmetics => natural saponins
      • simple plastic septic: $100
  • sun

    • solar is the key: map
    • current citadel genesis status
      • image.png
      • 30 kw of solar generation which cant be reliable in our environment
        • image.png `
      • 30 kw of energy storage which is convenient for us
        • image.png
      • nominal power != real power output
    • needs
      • 1-2 kw of nominal power per human
    • costs:
      • panels: MATH_PLACEHOLDER_4500 per kw/h
      • batteries: ~$500 per kw of storage
    • alternative != sustainable
      • photovoltaics and lithium batteries does not seems like sustainable solution
      • sustainable is when energy system can run indefenetly
aspect solar panel lithium battery computer chip
lifetime 10–30 3–15 10-30
	- rough estimation of production complexity for staple energy system
aspect solar panel lithium battery computer chip
number of countries 10–15 8–12 10–12
number of companies 100–200 50–150 150–300
number of people involved 500,000 to 1 million 250,000 to 500,000 1 million to 1.5 million
  • bio (gas)

    • affordable everywhere, cheap, clean
    • costs: MATH_PLACEHOLDER_5200 per m3 => MATH_PLACEHOLDER_610k household
    • Biogas_plant.svg.png
      • R-290 Propane 2.5 5kg | Netherlands Industrial Gas Store
    • biogas generator
      • 5 KW/h of reserve power => $5k
      • 2025-10-28 15.52.40.jpg
      • remove noise
      • clean air
    • wood => come to carbon lecture tomorrow
  • air

    • low altitude winds
      • 2025-10-28 15.52.20.jpg
    • high altitude winds
      • Massive wind power "kite" generator to be tested by Germany's biggest  utility
    • current citadel genesis status
      • need next iteration
  • earth

    • topsoil geothermal: heat pumps + soil water batteries
      • How do thermal batteries work? - Ecohome
    • deep geothermal => high investments => heavy maintenance
      • Geothermal energy as electricity power from underground layer outline  diagram | Geothermal energy, Geothermal, Thermal energy

summary: 4 people needs

  • generation: $10k
  • storage: $5k
  • water system: $5k
  • total: $20k or ~4k per human

Connect

  • t.me/cybervalleyland

    • qr-code (4).svg
  • x.com/@mastercyb

    • qr-code (5).svg

other

  • two questions
    • how to bootstrap the system using still working supply chains?
    • how to design less complex, but more efficient energy system?
  • came into two phases
    • 1 fast phase: buy staple energy system
    • 2 slow phase: during lifetime replace with sustainable
      • cheap storage as heat in water, soil, sand or whatever
      • stirling engine is needed
      • components
        • at least 3 sources
          • solar heat collectors
          • 2 chamber stove
          • medium altitude kites
        • water and soil heat batteries
        • stirling engine
  • basalt road as heat collector, basalt cistern and surrounding soil as heat storage
    • 1 m2 of basalt road can charge 1 m3 of water in cistern over a 90-day dry season
    • double the road area, you halve the charging time
    • heat loss from the un-insulated cistern to surrounding soil is < 3 % per month at 2 m burial depth
    • that lost heat simply diffuses into the soil store and is not wasted
    • overall system cost is dominated by tubing and electrics pumps
    • all other materials are site stone, soil and manual labour
  • elements in the air: oxygen, nitrogen, carbon, argon

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