CIG 500ft Desalination

     

CIG 500ft Desalination - Complete

MEGASTRUCTURE 

Our Largest Scale Hose within a 2000 ft or taller building. Sky Scraper build 

Mass proeuction & Desalination spread between a row of buildings from 25-150 stories braced with base isolators at base. Deep grade construction & base isolators per floor 

A 2,000-foot skyscraper is approximately 150 stories tall, but this can vary. The Chicago Spire, a planned skyscraper that was never completed, was designed to be exactly 2,000 feet tall and 150 stories. The average height of a story is around 10-12 feet, which is a typical height for residential or office spaces. 

A simple angled in effort shooting up to the 500 ft complete diameter pressure point into filtered systems with perpetual motion as a megastructure for Salt Brine & Finds + Hydrogen Fuel Cell Filling 

At the ocean level there is a smaller filter system for marine ecosystems & biology then a sucking effect up to the 500 ft filtering through a turbo fountain effect which generates its own perpetual Energy & excess for the grid or storage

WATER VOLUME FOR PERPETUAL ENERGY DESALINATION & DISTRUBUTION 

The volume of water a 500-foot diameter hose can deliver per hour is not a single number, as it depends entirely on the flow velocity of the water. You must first determine the velocity before you can calculate the volume. 

How to calculate the volume 

The formula for volumetric flow rate is:

Q=A×vcap Q equals cap A cross v 𝑄=𝐴×𝑣 where: 

•Qcap Q 𝑄

= Volumetric flow rate (e.g., cubic feet per hour)

•Acap A 𝐴
= Cross-sectional area of the hose

•vv 𝑣
= Velocity of the water 

Step 1: Determine the radius
The hose diameter is 500 feet, so its radius (rr 𝑟) is 250 feet.

r=500 ft2=250 ftr equals the fraction with numerator 500 ft and denominator 2 end-fraction equals 250 ft 𝑟=500 ft2=250 ft

Step 2: Calculate the cross-sectional area
The area (Acap A 𝐴) of a circle is calculated as

A=πr2cap A equals pi r squared 𝐴=𝜋𝑟2.

A=π×(250 ft)2=62,500π ft2≈196,350 ft

2cap A equals pi cross open paren 250 ft close paren squared equals 62 comma 500 pi ft squared is approximately equal to 196 comma 350 ft squared

𝐴=𝜋×(250 ft)2=62,500𝜋 ft2≈196,350 ft2

Step 3: Determine the velocity

The velocity of the water depends on the water pressure and can be anywhere from a slow trickle to a rapid gush. For example, a typical velocity for a large-diameter pipe under average pressure might be around 12 feet per second (ft/s). For a high-flow industrial application, it could be much higher. 

For the following example, we will assume a velocity of 12 ft/s. 

Step 4: Calculate the volume per second

Now, use the volumetric flow rate formula (

Q=A×vcap Q equals cap A cross v
𝑄=𝐴×𝑣).

Q=196,350 ft2×12 ft/s=2,356,200 ft3/scap Q equals 196 comma 350 ft squared cross 12 ft/s equals 2 comma 356 comma 200 ft cubed / s 𝑄=196,350 ft2×12 ft/s=2,356,200 ft3/s

Step 5: Convert the volume to per hour

To get the volume per hour, multiply the volume per second by the number of seconds in an hour (60 seconds/minute x 60 minutes/hour = 3,600 seconds/hour).

Volume per hour = 2,356,200 ft3/s×3,600 s/hr≈8.48×109 ft3/hr2 comma 356 comma 200 ft cubed / s cross 3 comma 600 s/hr is approximately equal to 8.48 cross 10 to the nineth power ft cubed / hr 2,356,200 ft3/s×3,600 s/hr≈8.48×109 ft3/hr
 
Volume in other units 

For comparison, here is the hourly volume in U.S. gallons, using the conversion factor that 1 cubic foot equals 7.48 US gallons. 

Volume in gallons per hour = 8.48×109 ft3/hr×7.48 gallons/ft3≈6.34×1010 gallons/hr8.48 cross 10 to the nineth power ft cubed / hr cross 7.48 gallons/ft cubed is approximately equal to 6.34 cross 10 to the tenth power gallons/hr

8.48×109 ft3/hr×7.48 gallons/ft3≈6.34×1010 gallons/hr
 
Important note: This calculation shows that a precise answer requires knowing the water's velocity. Any result without this information would be purely theoretical. 

WATER REQUIRED FOR 300 KG OF HYDROGEN 

Standard Industry Equation

To produce 300 kg of hydrogen, approximately 6,000 to 9,000 liters (1,585 to 2,378 gallons) of water are typically required
. The exact amount depends on the production process used. 

Here is a breakdown of the water needed for hydrogen production: 

• Theoretical minimum: The electrolysis of water, based purely on the chemical reaction, requires 9 liters of water to produce 1 kg of hydrogen. This is because water (

H2Ocap H sub 2 cap O
𝐻2𝑂) has two hydrogen atoms and one oxygen atom. Oxygen is 16 times heavier than hydrogen, so for every 1 kg of hydrogen produced, 8 kg of oxygen and 9 kg of water are needed.

• Calculation for theoretical minimum: 300 kg of hydrogen × 9 kg of water per kg of hydrogen = 2,700 kg of water, or 2,700 liters.

• Practical (Electrolysis): In a real-world electrolysis facility, additional water is needed for purification and cooling the system. This can increase the total water usage to 20–30 liters per kg of hydrogen.

• Calculation for practical electrolysis:

• Low estimate: 300 kg of hydrogen × 20 liters per kg = 6,000 liters.

• High estimate: 300 kg of hydrogen × 30 liters per kg = 9,000 liters.

• Other production methods: Water requirements also depend on the source of the hydrogen. For example, steam-methane reforming, which uses fossil fuels, can require between 6 and 13 liters of water per kg of hydrogen. This process also produces carbon dioxide as a byproduct. 
In summary, for 300 kg of green hydrogen produced via electrolysis, a plant would need thousands of liters of water to operate efficiently and safely.

THIS WILL ALLOW US WHAT WE NEED 

If this facility works we will scale up others versus smaller options in different counrries for our mass scale Salt Bring - Hydrogen + production facilities 

H.I.3 put together allows us to accomplish & work around Open Source VS Patents & Copyright or Trademark. Ours or theirs then a cast perpetual grid system effect as a result

New Brunswick in Canada is a potential site for a Megastructure of this size with CIG connected to a smaller scale operation like in British Columbia separate from other countries yet Ontario & Manitoba can join as well. Our Ocean shipping vessel fleet of newly 12+ for 2026-2027 can ship to other countries & return empty Cells  

CIG USA. CIG China. CIG European International including Australia & New Zealand like CIG Canada will integrate these options on a global scale catering to domestic & international markets 

PROTECTIVE HOUSING

Subsidized or Geared to Income

Subsidy geared to income wait list capped or hybrid capped housing rentals should be disregarded from Ontario's rental change laws protecting those that cannot afford boom based or greed based influxuations from $1200 - 3200 at end of month or 6 months or 12 month leases

Subsidized should be a 1.5% maximum increase then 2.5 for average & 3% on specifics creating prorate tier scales

Open market & hybrid capped & capped then subsidy for 1-2 Tiers & Threat Tier 1 housing rentals not mortgage or fractional share mortgage if not ownership 

With Hydrogen scaled we will always have more supply then demand with stockpiles to ensure pricing remains competitive with other entrants yet initial infrastructure is going to be a piggybacked excess place to put money essentially for CIG as an aid to Copper & Sodium then other Commotities haul

If we need 2 Billion fuel cells we will have 5 Billion on hand & a perpetual filled effort so more than 2 Billion are always available upon depletion for refilling 

Our 3/2 buffer means 3 billion are available as 2 billion depleat

This is not a just what we need design process. This is economics with supply & demand control

Some fuel cells may end up damaged or an event could cause loss so we have to ramp back up to the 5 Billion mark to manage effectively yet that offers an Emergency buffer & guarantee 

Larger facilities are $25 Billion then down to $2-10 then external connected infrastructure runs from $500,000 - $125 Million then our Fuel Cells running at $2500 - 12,000 for a tri-lay up design while other connected components are in vehicle 

$12.5 Trillion at $2500 per Fuel-Cell for 5 Billion units 

A flat US $13 Trillion covers infrastructure for this effort & it can be easily managed against others connecting as a piggybacked effort spread between domestic & international stakeholders creating a perpetual energy system

1000 stakeholders & US $13 Billion each with equal spread unless others in a global spread with CIG & externals

This is the start 

We then upscale this & create a low cost piggyback maintenance effort & grow beyond for over 6 Billion interests in different areas while other Zero Emissions efforts compliment in our new perpetual sustainable model using H.I.3 as a guideline additive

Hydrogen becomes a global foundational clean energy system while slingshots get us up to space 

You will earn back your US $13 Billion in time in a slow pace low risk investment while catering to a new world. You will then begin to profit from in fair tiers

Anti-theft & tracking efforts then insurance for vehicles & swap stations will be integrated with strict laws protecting infrastructure. We expect averages of $2500 per cell or less & up to $12,000 on speciality models for Motion & Stationary is treated differently 

There were over 283 million registered vehicles in the U.S. as of December 2022, including private, commercial, and public vehicles. Of these, 278.9 million were private and commercial vehicles. This number represents a continuous increase in vehicle ownership, with a significant majority of U.S. households owning at least one automobile.  

Stakeholder tiers may be more than 1000. More close to upper, mid level & lower level interests at 25,000 in a fair spread between for our 5 Billion initial haul for 2026-2027

CLEAN ENERGY 

Plug & Charge
Hydrogen
Wind-Tunnel Piston-Punch
Unlimited Range EV

Solar. Wind. Hydrogen. Electricity. Perpetual Electric & Air. Geothermal 

At 25,000 we have 520 Million each devided in tiers with more or less invested then a growing fund piggybacking all other efforts with complimenting as a sustainable cycle for clean Energy

OUR GLOBAL UPSCALE MANAGED

If you put all of H.I.3 Meta: Facebook & Blogger profiles together as one with www.sydneys.space as will be available in a slow transition before 2029-2030 in raw & professional form on www.sydneybennettgroup.com for the new 3 part CIG global website you see a trend & expansion managed 

MANUFACTURING

Raw & Repurposed Material

Safe environmental - health controlled emissions controlled cycle processing A - B

Zero Emissions - Zero Cycle to arrive at Net Zero then Co2 / Emissions Capture to ground & store for atmospheric to ground, water & core preservation for biological life & health

Atmospheric Atmosphere

Dream on. Outta your league. Never happening. Yet this is.

Mass market scale

Safe non-carcinogenic fire retardants & non-toxic material

Hydrogen vs. Gasoline Leak and Ignition Test- which is safer?

https://youtu.be/OA8dNFiVaF0?si=pyqTooNQoqgGQNGU

The Emergency Safety System includes a Purge Exhaust channel containing any form of fire or explosion out the back & upward like this vintage YouTube video reference above

An impact system with protects our cab, cargo & chassis from danger associated

The system has an Energy shut-off effort to isolate risk

A lot of defence weapons can be transformed into hydrogen including hydrogen rotating detonation for 2000+ MPH or less

A GLOBAL PETITION

If we gain a large enough petition by December 15, 2025 we will green lit the larger scale up separate from our planned scale up in North America & internationally 

INDUSTRY COST 

The cost of hydrogen fuel per kilogram varies significantly by location and production method, but retail prices at a refueling station can range from approximately $14.70 to over $36 per kg. Production costs are lower, with green hydrogen (from renewable electricity) ranging from $3-$8 per kg and hydrogen from natural gas costing around $0.50-$1.70 per kg. However, the final price at the pump is much higher due to the significant costs of compression, distribution, and station infrastructure. 

Retail costs

Canada: Approximately $14.70/kg in British Columbia.

United States: Retail prices have been quoted as high as $36/kg in California, though prices can vary widely by station.

Europe: Approximately 14 euros/kg ($15.50/kg in USD, as of late 2024). 

Production costs (before infrastructure and distribution)

Green hydrogen: $3 to $8 per kg, with expectations for future costs to drop significantly.

Blue hydrogen: $1 to $2 per kg, using natural gas with carbon capture.

Grey hydrogen: $0.50 to $1.70 per kg, produced from natural gas without carbon capture. 

Key factors affecting cost

Production method: Electrolysis of water with renewable electricity is currently more expensive than using natural gas.

Infrastructure: The costs of compressing, storing, and transporting hydrogen to refueling stations make up the majority of the retail price (about 85%).

Location: Electricity prices and natural gas prices vary by region, impacting production costs. 

Our CIG Piggybacking effort will drop cost & price down to EV 2025 Alberta or lower rates on a global scale

To cut costs in grid efforts farther from the Ocean we will have larger scale hydrogen options that can then refill individual cells which travel between regions in a larger bulk haul

 

Hydrogen refueling vehicles, or Fuel Cell Electric Vehicles (FCEVs), use compressed hydrogen gas to generate electricity on-board via a fuel cell to power an electric motor, producing only water vapor as a tailpipe emission. Refueling is fast, comparable to gasoline cars, taking 3-5 minutes to fill a tank and offering a driving range of 300 to over 600 kilometers on a single tank. While the infrastructure is expanding, hydrogen stations are still limited to specific regions. 

How it works

Hydrogen gas is stored in a high-pressure tank.The hydrogen is fed into a fuel cell, where it reacts with oxygen from the air.

This electrochemical reaction produces electricity to power the vehicle's electric motor.

The only byproduct is water vapor and heat, making it a zero-emission vehicle at the tailpipe.

A small battery stores energy for acceleration and recaptures energy during braking. 

Advantages of hydrogen refueling

Fast refueling: Refueling a hydrogen vehicle takes about 3-5 minutes, similar to a conventional gasoline car.

Long driving range: Many FCEVs have a driving range that is competitive with or exceeds many battery-electric vehicles.

Zero tailpipe emissions: FCEVs emit only water vapor, contributing to cleaner air.

Performance: Hydrogen fuel cells are efficient and perform well in cold weather, unlike some battery-electric vehicles that can lose significant range in cold temperatures. 

Challenges and limitations

Limited infrastructure: The number of hydrogen refueling stations is still limited, primarily concentrated in specific geographic areas.

Cost: The vehicles can be expensive, with manufacturers taking initial losses on some models to encourage adoption.

Hydrogen production: The environmental benefit depends on how the hydrogen fuel is produced. While a clean energy carrier, producing it often relies on fossil fuels, so a transition to cleaner production methods is needed for full sustainability.

HYDROGEN FUEL CELL REFILLING

Dedicated trucks with separated containers which can then be transferred to fuel cells after filling from Ocean facilities

Larger flat bed & 5 ton or equivalent transfers then cargo flight efforts to increase options for refilling without having to ship all depleted cells to the ocean facilities 

CIG is turning Hydrogen Refilling into a Low-cost option where refilling is net positive as a piggybacked effort costing positive yields not a break even or loss yet transport & infrastructure delivery costs create the fees associated with use

Simple 3 part process

Transportation from Ocean facilities
Delivery Fee Swapping cells
Delivery Fee - Refilling cells 

It's either fuel cells to & from the ocean facility or containers delivered in & out via truck for storage & refilling like gasoline or diesel to ensure we always have enough on hand 

Only approved skilled personnel can place fuel cells in the automated refilling effort to container then transfer to the semi-autonated swapping station

CIG - C/M HYDROGEN

Unlike filled attempts & dangerous efforts with no Emergency Safety System C/M employes the use of Hydrogen Tank (Fuel cells) Swapping in their system voiding any form of Hydrogen Hose from main tank contact in refilling

This safer System ensures Swapping leaves no risk

 

Hydrogen VS Gasoline or Diesel 

https://youtu.be/OA8dNFiVaF0?si=vzjt5blHBoaTUJRx

MOBILE REFILLING

Hydrogen Mobile Refueling Station

With the demonstration and promotion of hydrogen fuel cell vehicles, we provide hydrogen fuel refueling services for them to provide mobile, fast and timely hydrogen refueling guarantees for hydrogen fuel cell vehicles at home and abroad. It is a hydrogen refueling vehicle and a mobile skid-mounted hydrogen refueling facility; the mobile skid-mounted type can be designed to integrate all equipment in one skid or multiple skids according to customer requirements to form an integrated or split type of two mobile hydrogen refueling stations. It has the advantages of flexibility, high filling capacity, reliable performance, simple and convenient use.

https://hydratechcorp.com/hydrogen-technology/hydrogen-mobile-station/

Swapping is in-out quick. Safer. & faster

Desalination & creating Hydrogen costs nothing or you profit from with C/M Energy infrastructure if you put all of H.I.3 together 

Industry reference:

6-8 Kg tanks

As of 2025, the latest model of the Hyundai NEXO fuel-cell vehicle has a hydrogen tank capacity of 6.69 kilograms. A full tank allows for a driving range of over 435 miles (700 kilometers). 

With C/M pricing should be $20-30 for a refill or less on scale up. Canadian Dollars fitting most vehicles with heavier weight commercial being slightly higher in cost & price 

The 300 Standard refills 37.5-50 tanks as a refilling station fized or mobile yet we always keep double if 37.5-50 are out as a buffer to control pricing in the event of an event or damaged units 

As a local vehicle is registered into the infrastructure pool we account for their existence then a buffer on travel between local & regions domestically or internationally which ensures the ability to provide Swapping for those vehicles or units in the pool 

GRID DELIVERY OPTIONS FOR SWAPPING

Unlike with fuel Stations for Gasoline & Diesel. A controlled pricing delivery effort will exist with consistency more gauged by delivery costs 

Revival. 

https://schedulebennett8519.blogspot.com/2025/10/resurgence-revival-hydrogen-car-doesnt.html

S.B.G & CIG