Core Infrastructure Concept
Core Infrastructure Concept
Core Infrastructure Concept
MaterialCycle is built around a simple idea: one robust, reusable core that supports many different functions over time.
At its heart is a human-scale vertical tower anchored by a widely available 25-liter bucket that acts as both water reservoir and ballast for stability. From this base rise three structural conduits that quietly carry water, power, and support ā keeping everything protected, tidy, and easy to maintain.
At the top, a compact solar panel provides direct, real-time power. There are no batteries, no complex electronics, and no standby losses. When the sun shines, the system works. Power flows straight to a small pump housed inside the base reservoir, circulating water upward to serve whatever modules are attached.
Between the base and the solar cap, users clip on interchangeable modules. Each module taps into the same shared infrastructure ā water flow, solar energy, and structural support ā allowing the tower to transform its function without being rebuilt. Today this includes plant growing, with many extensions designed to follow: water distillation, filtration, food dehydration, microclimate control, acoustic tuning, carbon capture media, habitat modules, and more.
All wiring and plumbing remain hidden inside the tower, protected from weather and wear. Connections are designed to be intuitive, tool-light, and forgiving ā encouraging experimentation rather than perfection.
The result is a compact piece of ecological infrastructure that does more with less: minimal materials, minimal space, minimal cost ā yet maximum adaptability. One core. Many cycles. Endless configurations.
Plant Tower Cluster
A cluster of MaterialCycle plant towers working together as a single, integrated growing system. Multiple towers can be linked to share water and power, enabling dense, high-yield food production in a compact footprint.
In this setup, just two of the five towers are equipped with solar panels. These Power Towers supply energy to the shared pump system, while the remaining Core Towers focus entirely on plant growth. By sharing water and electricity, users can expand their growing area without duplicating equipment or driving up costs.
Water flows continuously between the connected base reservoirs, recirculating through all towers. When sunlight hits the solar panels, the system springs to lifeāno batteries, no controllers, no complicated electronics. Just sun, water, and plants, working in harmony whenever conditions allow.
Pictured above are two compact solar water distillation prototypes designed to turn dirty water or seawater into fresh, safe drinking water using only sunlight. When the sun shines, distilled water is produced ā with no filters, chemicals, batteries, or external power required.
Multiple distillation towers can be linked together, allowing output to scale naturally to match a userās daily water needs.
The prototype on the left features a half-moon transparent distillation chamber with an advanced vertical wick suspended inside. This geometry is designed to maximize evaporation and condensation efficiency while maintaining a minimal footprint.
The prototype on the right represents our latest flat-panel design. It uses a slim, 20 mm-thick transparent distillation chamber with a vertical wick suspended inside. We are particularly pleased with the performance of this configuration. Larger, scaled-up versions will be developed and tested in future to take full advantage of the towerās height.
These are early-stage, working prototypes and are not currently for sale. We warmly welcome ideas, feedback, and collaborations from anyone interested in helping refine and evolve this concept further.
Provide Modular Ecological Infrastructure, Products and Information to Optimize the MaterialCycle for People and the Environment
š MaterialCycle: The Story of a Bucket, a Dream, and a Tower That Does Stuff
It all started in a little backyard in Cape Town, South Africa.
Picture this: a regular human (not a billionaire, not a scientist, not a superhero) standing next to a sad-looking garden, staring at a plastic bucket. Somewhere between watering the plants and realizing that droughts, energy crises, and biodiversity collapse were all happening at once, a simple thought popped up:
āThere has to be a better way.ā
And just like that, the idea for MaterialCycle was born. Not with millions of dollars, not with cutting-edge labsājust with curiosity, common sense, and a deep respect for natureās way of doing things (which, letās be honest, has worked pretty well for a few billion years).
Chapter 1: The Bucket
Letās start at the bottomāthe literal base of this whole thing: the good old 25-liter black plastic bucket.
Life relies on water, right? Soā¦
Out of all the possible water containmentĀ vessels in the world, why this humble bucket?
Letās break it down:
Clay pots? Lovely, but they break faster than New Yearās resolutions.
Steel tanks? Strong but make your wallet cry.
Concrete? Great for buildings. Not so much for something you might want to move one day.
The bucket won because:
Itās cheap.
Itās everywhere (seriously, every corner of the planet has them).
It holds water (which is kind of the whole point).
But waitāthis isnāt just any old bucket collecting dust in the corner. In the MaterialCycle Tower, the bucket isnāt just for water.
Itās a base weight (so your tower doesnāt do a wobbly dance in the wind) and can double as a mini pondāhome to aquatic plants, frogs, or even tiny fish. Suddenly, itās not just storing water; itās hosting life, cleaning itself, and adding biodiversity.
Thatās called making materials work overtimeāand this bucket is the unsung hero of the whole story.
Chapter 2: The Tower Spine (PVC, Baby!)
Next question: How do you build up without spending down?
You need something:
Strong.
Cheap.
Lightweight.
Available in both big cities and small villages.
Enter the PVC pipeāplumberās best friend, now ecological innovator.
Itās not glamorous, but when you think like nature (first principles, people!), you realize:
Hollow cores are great for hiding pipes and wires.
Itās easy to cut, connect, and shape.
It lasts ages.
Plus, it gives your climbing beans and tomatoes something to hold onto.
One job? Nope. Multiple jobs? Always.
š Why not something else?
Other āverticalā options were on the table:
Wooden poles (but termites and rot would have had a field day- particularly with the bottom end submerged in water),
Metal pipes (strong but prone to rust and way too expensive),
Concrete posts (solid but heavy enough to break both the bank and a few backs), or even
Bamboo (great on Instagram, less great when it splits and rots before your modular ecological infrastructure vision is realized).
In the end, PVC verticals simply made sense: affordable, durable, easy to find, and happy to handle a bit of sun and rain without drama. Not glamorous, not fancyājust quietly dependable, which is exactly whatās needed when building something thatās meant to last like: Modular Ecological Infrastructureā
āļø Chapter 3: The Invisible Worker
Ā Now comes the fun part: making water do stuff.
Instead of just sitting there (like most water tanks), the MaterialCycle Tower uses a small solar panel to lift water up to the top whenever the sun is shining. No fancy electronics. It simply works whenever its sunny.
Why? Because once its up there, gravity takes over. And gravity, unlike batteries, never runs out or needs replacing.
Itās like having a little invisible worker who:
Never takes lunch breaks.
Never asks for a raise.
Lifts almost 2 tons of water weight every single sunny day.
And all this for the price of, say, two fancy coffees.
Itās not rocket scienceāitās bucket science. And it works.
Now letās talk looks. Because, honestly, nobody wants a tower that looks like an upside-down drainpipe.
The answer? Papyrus cladding.
Itās local and grows super fast.
Itās renewable.
 It looks⦠kinda classy.
Papyrus not only gives the tower an earthy, natural vibe but also:
Insulates the water.
Prevents solar degradation of the plastic bucket.
Can be easily grown within the Material Cycle Tower itself and harvested regularly.
Cleans and oxygenates the water in which it grows.
Can be chopped up and used as a super hydro mulch in subsequent plant towers.
Can be composted when it wears out (unlike plastic that sits around for 500 years).
Provides habitat for beneficial insects.
Why not plastic panels or fancy composites? Because weāre keeping it simple, affordable, practical, and beautifulākind of like nature does.Ā
Hereās where the tower really starts showing off.
Depending on what you need, you can clip on:
A solar still for turning yuck water into clean water.
Vertical grow tubes and plant support rings for veggies.
A bee hotel (complete with free honey and pollination).
Even USB chargers powered by the same sun lifting your water.
It's like eco-Lego: stack it, snap it, use it however you need.Ā
The big āaha!ā behind MaterialCycle is this:
Nothing in nature stands alone.
Water flows. Plants grow. Energy moves. Waste feeds life.
So, this isnāt just a garden or a water tank. Itās a tiny ecosystem, designed to be:
Circular (not linear like most human systems).
Self-supporting (no need for constant inputs).
Expandable (one tower, ten towers, a whole eco-village⦠you decide).
Make Clean Water
Make Useful Biomass
Make Beneficial Life
Make Food
Create Opportunity
Reduce Poverty
Key Design Principles
š§© Modular & Scalable
Modular: Build ecosystems like Lego with modular human-sized components.
Expandable: Modular components link together to create larger systems.
Stackable: Designed to be stackable, whenever possibleāparticularly water vessels.
Collapsible: Collapsible components can be deconstructed and reconstructed.
āļø Efficient by Design
Low Cost: Each element of our technology seeks to minimize cost.
Low Maintenance: Simple designs. Minimal or no electronics. Easy to replace or repair.
Speed of Manufacture: Reduced complexity allows rapid production in a small space.
Mass Production: Designed with future mass production in mind.
Space Efficient: Small footprint for transport and in final position. Vertical space is used.
Configuration Shape Flexibility: Linked components conform to installation site shape.
šļø User Experience
Aesthetically Pleasing: As aesthetically pleasing as possible (barring other key priorities).
Availability: Components used in our technology should be readily available.
š Transport & Deployment
Easily Transportable: Components are designed to be easily transportable.
Lightweight: Lightweight components reduce cost and effort of transport and handling.
Self-Contained: "Plug n Play" components ready to use in remote locations.
Human-Sized: Components sized to be easily manageable by a single person.
ā»ļø Materials & Sustainability
Natural Materials: Wherever possible are used in products.
Long Life Expectancy: Use long-life materials. Alternatively, organic/biodegradable in nature.
Durability: As durable as possible. Able to withstand natural elements.
š§ Functional Philosophy
Agile Design Philosophy: Focus on continual improvement. Ensuring designs don't stagnate.
Multi-Function Components: Individual components shall serve multiple purposes wherever possible.
Closed-Loop: Water is recirculated and loss minimized.
Money in a bank is just a promiseāa number on a screen. Water, however, is tangible, life-sustaining, and priceless. But the MaterialCycle Tower takes this value even further. It doesnāt just store waterāit puts water to work.
Unlike typical tanks where water just sits, the MaterialCycle system lifts water whenever the sun shines, immediately using that elevation to perform useful tasksāwhether thatās irrigating plants, desalinating salt or dirty water, oxygenating water and supporting ecosystems, supporting passive heating or cooling, or powering gravity-fed flows.
This means the water isnāt just storedāitās an active resource, constantly converting sunlight into mechanical work that benefits your home, garden, or community in real time.
While today the system lifts and uses waterās potential energy on the spot, the design is future-ready: attachments can be added later to store water at elevation, holding potential energy for use even when the sun isnāt shining.
In this way, the MaterialCycle Tower transforms simple water into a living, working assetāturning every drop into a renewable source of power and resilience
Investing in MaterialCycle means investing in productive water managementānot just saving water, but unlocking its potential to do continuous, useful work.
Because real wealth isnāt just about holding resourcesāitās about making those resources work for you, every day.