The Corn-Crete House System

The main aspects of the Corn-Crete House system are the use of space, material efficiency and relationship to site. The way space is shaped influences human behaviour. According to a research paper done by KAYVAN MADANI NEJAD in 2007 the curvilinearity of interior design directly affects the way people feel inside them. It concluded that the more curvilinear a space is the more comfortable, safe, relaxed and friendly it feels. My project builds upon this argument. Research also shows that the concrete industry is a major environment pollutant. Cement is the most damaging ingredient. I am proposing a new system which will be using less concrete & less cement thanks to: 1) corn residues partially replacing aggregate making the structure lighter and more porous 2) casting around inflatables resulting in curvilinear architecture suitable for compression which requires less tensile strength.

Floating Azolla Farmhouses – Circular Agriculture & Living in Rotterdam


Azolla is a minuscule floating plant that forms part of a genus of species of aquatic ferns, also known as Mosquito Fern. It holds the world record in biomass producer – doubling in 2-3 days. The secret behind this plant is its symbiotic relationship with nitrogen fixing cyanobacterium Anabaena making it a superorganism. The Azolla Provides a microclimate for the cyanobacteria in exchange for nitrate fertiliser. Azolla is the only known case where a symbiotic relationship endures during the fern’s reproductive cycle and is passed on to the next generation. They also have a complimentary photosynthesis, using light from most of the visible spectrum and their growth is accelerated with elevated CO2 and Nitrogen.

Azolla is capable of producing natural biofertiliser, bioplastics because of its sugar contents and biofuel because of the large amount of lipids. Its growth requirements can accommodate many climates too, allowing it to be classified as a weed in many countries. I was able to study the necessary m2 of growing Azolla to sequester the same amount as my yearly CO2 emissions, resulting in 57% of a football field equivalent of growing Azolla to make me carbon neutral.

Why is this useful? Climate change will inevitably bring more adverse climate conditions that will put many world wide crops at risk and, as a consequence, will affect our lives. A crop that produces biomass at the speed of Azolla provides at advantage in flexibility: a soya bean can take months to grow until ready to be harvested, Azolla can be harvested twice a week. This plant has the potential to be used in the larger agricultural sector and diminish the Greenhouse Gas Emissions of one of the most pollutant sectors.



I contacted the Azolla Research Group at the University of Utrecht and they kindly accepted to give us a tour of their research facilities, providing us with an in-depth insight into the aquatic fern. I also decided to approach the Floating Farm with a proposal of using Azolla in their dairy process. They agreed to explore this and I put them in contact with the research team in the University of Utrecht, who are now cooperating with the dairy farm’s team in decreasing the carbon emissions of the cows on the farm.



Floating Azolla District Masterplan

The Floating Azolla District consists on a proposed community that emphasises a circular economy with a focus on sustainable agriculture in Rotterdam. It builds on to the existing Floating Farm found in the M4H area. It is formed of three areas:

1) Azolla – Dwellings combining a series of residential units for the increasing number of young entrepreneurs in the RID with three central cores growing stacked trays of Azolla as in vertical farming.

2) The Floating Farm which continues to produce dairy products and a Bamboo growing area to maintain the upkeep of floating platforms and construction of new dwellings. Floating rice paddies are grown in the warmer months in a closely monitored system of permaculture.

3) A production facility which concentrates on research and development into Azolla as well as retrieving the water fern’s byproducts such as bioplastics extracted from the sugars; biofuel, from the lipids; and bamboo plywood lumber for the construction of the expanding Floating District.

Floating Farm
Bamboo Growing Pods
Closed System in the Floating Azolla District

Floating Azolla District – Dwellings

Floating Azolla District – Dwellings

This section concentrates on the detail construction of the Azolla-Dwellings. These floating units are designed to be used as a combination of co-housing for entrepreneurs working in the Rotterdam Innovation District, where the Floating Farm is located, and indoor Azolla growing facilities which is then used further along in the masterplan. The growing areas are built on a series of building components that provide support for trays of Azolla to be grown in a vertical farming manner and provide support for the floor plates as well as anchoring for the entire dwelling.

Dwellings Construction Sequence
Exploded Axo – Dwellings

The materials are a combination of local bamboo grown on a series of floating platforms that prevent the cold winter winds from affecting the overall masterplan and pallets sourced from neighbouring industrial facilities. Using the reciprocal building system developed in Brief 1, a series of stacked components are linked to form the vertical farming support for the Azolla. This system is then extended to support the floors for the dwellings.

Azolla Vertical Farming Support

Similar to an aperture ring on a camera, this mechanism uses the varying tide to automatically collect the Azolla from the vertical farming trays to then be used throughout the Masterplan. By displacing 2.5% of the area for each tray every tidal change, this mechanism collects 50% of the harvest every 10 days allowing for a continuous growth of Azolla.

Azolla Collection Mechanism
Azolla Vertical Farming Trays and Floor Support
Azolla Vertical Farming Trays and Floor Support

The dwellings’ facade is a result of a careful analysis of harmful and beneficial solar radiation. By setting an initial average temperature to monitory, the facade will block sun that naturally would drive the temperature above the chosen one and the beneficial would bring the temperature up. This shading serves a buffer zone that surrounds the internal living spaces and is used to grow vegetables for the residents.

Thermal Responsive Facade Options.

Semi-public spaces are located on the ground floor (open plan kitchen and living) and bedrooms are located on the first floor, surround a central spiral staircase for circulation.

Ground Floor Plan
First Floor Plan
Exterior View
Interior View

The same building system based on reciprocal structures is coated in azolla bioplastic preventing the wood from rotting and making the form waterproof. These are used as underwater columns which allow the dwellings and platforms to float. Each ‘column’ can support a load of 2011Kg.

Support Floating Columns


Floating Farm Rotterdam

Based on relationship between the University of Utrecht and the Floating Farm taking place outside the initially academic intention of the visit, I decided to use the Floating Farm as a site and a starting point for my proposal. The floating farm is intended to stand out and create an awareness of the possibility or idea of living on water and taking ownership of one’s food production, which seems to match the potential uses and benefits of Azolla. The researchers at the University of Utrecht expressed their need of getting the advantages of this plant to a wider public and this remained in my mind, possibly being the main reason behind my approach to the Floating Farm.

The Floating Farm sits in the Merwehaven area or M4H in the Port of Rotterdam. Highlighted below are the natural site conditions that determined the placement of the masterplan parts according to their function. Bamboo growing pods are placed southwards of the port to block the winter wind while allowing the summer winds from the west to navigate through.

Site Study

In 2007, Rotterdam announced its ambition to become 100% climate-proof by 2025 despite having 80% of its land underwater, therefore it was important to look at the flood risk and tidal change. The Merwehaven area in Rotterdam seems to have an average tidal change of 2 metres which I thought could be taken advantage of in a mechanical system mentioned previously.

Tidal Changes in the Floating Farm Rotterdam
Flood Risk & Tidal changes in Rotterdam



The reciprocal building system used in the construction of the dwellings began by looking into the Fern plant and its’ form. All ferns are Pinnate – central axis and smaller side branches – considered a primitive condition. The veins never coalesce and are known to be ‘free’. The leaves that are broadly ovate or triangular tend to be born at right angles to the sunlight.

Reciprocal Fern Building System

I then decided to model a leaf digitally, attempting to simulate the fractal nature found in a fern frond and the leaves to 3 degrees of fractals. I then simplified the fern frond to 2 levels to allow for easier laser cutting and structural stability. The large perimeter meant, therefore, there was a large amount of surface area for friction so I explored different configurations and tested their intersections.

Iteration 1 Component Study

I then selected the fern frond intersection I found to show the best stability out of the tested ones shown previously. By arraying them further, they began to curve. When pressure is applied to the top of the arch, the intersections are strengthened and the piece appears to gain structural integrity.

Iteration 2 Double Curvature Study

When a full revolution is completed, the components appear to gain their maximum structural integrity. Since I had decided to digitally model the fern frond, I was able to decrease the distance between the individual leaves in the centre of each frond through grasshopper. By doing this, the intersections connecting a frond with another were less tight in the centre than on the extremities of each frond, allowing for double curvature.

Iteration 2 Double Curvature Study – Stress Test
Iteration 2 Double Curvature Study – Stress Test Findings

I continued to iterate the leave by decreasing any arching on the leaf and finding the minimum component, the smallest possible component in the system. By arraying a component formed of 3 ‘leaves’ on one hand and 2 on the other, I would be able to grow the system in one direction as before due to the reciprocal organisation and in the other direction by staggering the adjacent component. The stress tests of this arrangement showed a phased failure of the ‘column’. Instead of breaking at once, row by row of components failed with time, outwards-inwards.

Iterations 3, 4, 5 Minimum Building Component
Iteration 5 Minimum Building Component – Stress Test
Iteration 5 Minimum Building Component – Stress Test Findings

I extracted the minimum possible component from the previous iterations and attempted to merge the system with firstly, 3d printed PLA bioplastic components and then with an algae bioplastic produced at home. I became interested in the idea of being able to coat the wood in an algae bioplastic substituting the need for any epoxy for waterproofing. The stress tests for this component showed a surprising total of 956 kg-force for it to fail.

Agar Bioplastic Test

Here, I began combining different quantities of vegetable glycerine, agar agar (extracted from red algae and used for cooking) and water. By changing the ratios of agar and glycerine I was able to create 2 different bioplastics: one being brittle and the other flexible. See above for the flexible sample and below for the brittle sample. Both samples appeared to fail under the same 7 Kg-force.

Agar Bioplastic Tensile Test

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Gum City Summary

Gum Arabic is a natural adhesive grown on the Senegalia Senegal tree. This tree grows in 6 years and only requires 100-200ml of water a year, this is a tree which has evolved to survive in the desert.

How can a third world country like Sudan can use a natural adhesive to act as a binder? How can we use the natural terrain as a framework for creating complex and controllable design?

Below the images illustrate how the construction process works. – Sucking Mechanism

I have designed a time-based construction programme. It begins with a setting out plan where string is used to determine where an industrial hoover (which usually transfers sand) sucks out sand and it is spewed out elsewhere. When my mix has been added to these cone shape voids the hoovering process is repeated but this time a thick layer of the Gum Arabic, Clay and Sand mix. The mixture is then lightly misted with salt water which causes the Gum Arabic to act as the binder. The Desert’s scorching sun then does the rest to solidify the material. Excavation around the land enables a structure which stands upright.

After exploring this method myself I discovered some interesting variations depending on whether I suck the sand first or pour it

I explored these forms digitally.

If you are wondering how I got to this point, well I will jump back to the beginning.

It started in Kew Gardens London, where I chose to study a plant and look into the early stages of bio-mimicry. I chose to study the Lotus Pod (Nelumbo Nucifera) found in Asia.

I wanted to find consistency between the holes of the flowers. Therefore I purchased 40 flower heads and begun experiments to study the arrangement of holes and the parameters within the plant. After experimenting I discovered that flower heads sized between 50-60mm have a gradient like effect where the largest hole is 3.5 times larger than the smallest. I therefore used Frei Ottos sand draining technique to explore what forms can be achieved with the arrangement of holes being that of the Lotus Pod.

After designing and building a smart box I began a matrix study.

I then Explored the parameters of each of these and found out that this sand grain drains at 30 degrees.

From this point I went on to look at how to solidify sand in its current form and that is when I discovered the properties of the Gum Arabic and began to explore. I had began to mix the mixture with sand and clay.

I then explored a site based on where Gum Arabic is produced and where sand and clay is in abundance. Therefore leaving me with Al-Fashir Sudan.

I then Explored the construction techniques using the gravity. Using the terrain as a natural formwork which can be moulded.

I then continued to design a construction process which requires less labour and would achieve high quality design attributes. Which is where I began with the hoovering process.

Growth From The Ger


‘Growth From The Ger’ seeks to analyse the vernacular structure of the traditional nomad home and use parametric thinking to create a deployable structure that can grow by modular.

‘Ger’ meaning ‘home’ is a Mongolian word which describes the portable dwelling. Commonly known as a ‘yurt’, a Turkish word, the yurt offered a sustainable lifestyle for the nomadic tribes of the steppes of Central Asia. It allowed nomads to migrate seasonally, catering to their livestock, water access and in relation to the status of wars/conflicts. An ancient structure, it has developed in material and joinery, however the concept prominently remaining the same.


Growing up in London, I fell in love with the transportable home when I first visited Mongolia at the age of 17. The symmetrical framework and circulating walls create a calm and peaceful environment. In the winter it keeps the cold out and in the summer keeps the heat out. The traditional understanding of placement and ways of living within it, which seems similar to a place of worship, builds upon the concept of respect towards life and its offerings.

Understanding the beauty of the lifestyle, I also understand the struggles that come with it and with these in mind, I wanted to explore ways of solving it whilst keeping the positives of the lifestyle it offers.

Pros: Deployable, transportable, timber, vernacular, can be assembled and dissembled by one family, can vary in size/easily scaleable depending on user, low maintenance, sustainable, autonomous.

Cons: Difficult to sustain singularly, not water proof, no privacy, no separation of space, low ceiling height, can’t attach gers together, low levels of security.

A digital render produced on Rhino, showing the steps of building a ger in elevation.

Lattice Analysis and Testing

To understand the possibilities of the lattice wall, I created a 1:20 plywood model using 1mm fishing wire as the joinery. This created various circular spirals and curves. The loose fit of the wire within the holes of timber pieces allowed such curves to happen and created an expanding body. The expansion and flexible joinery allows it to cover a wider space in relation to the amount of material used.

A series of photos showing the expansion and various curves of the lattice model.

I created the same latticework at 1:2 scale to see if the same curvature was created.

1:2 plywood model testing flexible joinery and curvature at large scale.

Locking the curve to create a habitable space. I did this by changing the types of joints in different parts of the structure.

A series of images showing the deployment of the structure and locked into place.

To create a smoother and more beautiful curve I change the baton to a dowel and densify the structure.

Model photo of curve in full expansion.

To lock the lattice curve in expansion I extrude legs that meet the ground and tie together.

Model photo of curve in full expansion and locked in place.

Manufacturing and assembly

Diagram of the construction sequence of model.
A series of photos showing 1:2 scale model being deployed.
1:2 prototype made from 18mmx18mm square plywood sticks joined together by twine.

The model made from sheet plywood cost approximately £30 and took one working day to make for one person. However, a more sustainable material and process needed to be considered as the process of making plywood contradicted this.

Photo showing the modular growth of the module. Models made from 18x18mm square sticks of softwood timber and joined together with twine.

This model can be made by one person with the use of a wood workshop. The timber pieces were bought at 18mm x 95mm x 4200mm, 13 pieces of these were enough to make three modules, roughly costing £170 in total. Each module takes approximately 5 hours to construct, this involves the tying of the measured length twine joints. The structure is lightweight and each module is easily transportable by one person.

Growth from the ger: modular growth

Digital render of modules arrayed together at angles, produced on Grasshopper and Rhino.
Perspective view.
Digital render of modules arrayed together at angles, produced on Grasshopper and Rhino.
Perspective view.
Digital render of modules arrayed together at angles, produced on Grasshopper and Rhino.
Plan view.
Digital render of modules arrayed together at angles, produced on Grasshopper and Rhino.
Diagram showing the plan functions of each space and modules.

Omnis Stellae

Omnis Stellae – Redrawing your own constellation

“Only in the darkness can you see the stars”
Martin Luther King


This project involves the conception and design of a new way of mapping constellations, based on subdivision processes like Stellation. It explores how subdivision can define and embellish architectural design with an elaborate system of fractals based on mathematics and complex algorithms.

Example of Stellation diagram on a platonic polygon

An abstracted form of galaxy is used as an input form to the subdivision process called Stellation. In geometry, meaning the process of extending a polytope in n dimensions to form a new figure. Starting with an original figure, the process extends specific elements such as its edges or face planes, usually in a symmetrical way, until they meet each other again to form the closed boundary of a new figure.

Omnis Stellae – Daytime interior render view

The material used for this installation will be timber sheets of 1/3 of an inch thickness that will be laser-cut.The panels will be connected to each other with standard connection elements which have already been tested structurally based on an origami structure.

The lighting of the installation will consist on LED strips that will light with burners interactions.

Omnis Stellae – Daytime exterior render view

Although stars in constellations appear near each other in the sky, they usually lie at a variety of distances away from the observer. Since stars also travel along their own orbits through the Milky Way, the constellation outlines change slowly over time and through perspective.

There are 88 constellations set at the moment, but I would like to prove that there are infinite amount of stars that have infinite amount of connections with each other.The installation will show you all the possible connections between this stars, but will never rule which connection is the one you need to make.

Omnis Stellae – Daytime interior render view from the ground

I would like burners to choose their own stars and draw their own constellations. Any constellation that they can possibly imagine from their one and only perspective, using coloured lights that react to their touch.

The end result will have thousands of different geometries/constellations that will have a meaning for each one of the burners and together will create a new meaningful lighted galaxy full of stars.


Omnis Stellae – Nightime exterior render view

On a clear night, away from artificial light, it’s possible to see over 5000 stars with the naked eye. These appear to orbit the Earth in a fixed pattern, as if they are attached to a giant sphere that makes one revolution a day.This stars though are organised in Constellations.

The word “constellation” seems to come from the Late Latin term cōnstellātiō, which can be translated as “set of stars”. The relationship between this sets of stars has been drawn by the perspective of the human eye.

Omnis Stellae – Daytime interior render view from above

“Omnis Stellae” is a manifestation of the existence of different perspectives. For me, there is great value in recognising different perspectives in life, because nothing is really Black and White, everything relates to the point of view and whose point of view and background that is.

As a fractal geometry this installation embodies an endless number of stars that each person can connect and imagine endless geometries, that will only make sense from their own perspective. The stellated geometry will show you all the possible connections but will never impose any.

Omnis Stellae – Daytime and Nightime

“Omnis Stellae” is about creating your own constellations and sharing them with the rest of the burners, is about sharing your own perspective of the galaxy and create some meaningful geometries that might not mean anything to other people but would mean the world to you.

Omnis Stellae – Daytime interior render view

The grand finale is if it could become the physical illustration of all the perspectives of the participants at Burning Man 2018 shown as one.

With Love,





The Fractal Hourglass

The Fractal Hourglass counts down to the singularity, the moment that artificial super-intelligence triggers an unprecedented shift in human civilisation. The concept of recursively self-improved AI is portrayed by a tower of iterated fractal trusses, in which time is measured by a cascade of light.

Triangular steel trusses array to form a 15-foot tall hourglass silhouette, where scaled repetitions within each truss form a lattice of increasing complexity and infinite bounds. The visual density of each truss intensifies at each fractal iteration, culminating in the filling of the lower hourglass bulb, representing the finite time remaining until the singularity. At night, a dynamic cascade of LEDs will flow on and off from the upper to the lower bulb, a spectacle alluding to sand pouring through an hourglass.

burning man -blog1.jpg

The steel tubes forming the piece range from a diameter of 1.5″ in lengths from 1 to 3-feet, which are hammered flat and bolted to form the main structure, and 0.5″ diameter tubes welded inside to form the decorative fractal repetitions.

burning man- blog2.jpg

On approach, the tense drama of time running out is visible through the concentration of material in the bottom of the hourglass, provoking an instinct to stall the process. Burners have a choice of how to experience the hourglass- whether that is to ascend the structure to experience the inversion of the hourglass as the bulb empties, where ascension serves as a sanctuary from the saturation of technology and AI in the lower bulb. Or they can recline on the ground and let their eyes weave through the layers of trusses and bathe in the saturation and complexity of technological advancement. Or simply to turn away and let what effectively has become a natural process to take its course. At night, the cascading light display forms an even more immersive encounter with the hourglass, as waves of light repeat the process of time as it funnels through and fills the lower bulb, swarming anyone who is inside.


The finite nature of fractals in the hourglass represents the capacity for infinite artificial intelligence- each increment provides an equally stable steel structure, whilst having the capacity to use less and less material, but only to a point. It is not possible for this fractal to reach infinity and be constructed at a human scale. This poses the question of, at which point on the way to infinity do humans get before their intelligence can be overtaken by AI- the moment of the singularity. Is it too late to invert the hourglass and, given the choice, would you want to?

The Fractal Hourglass allows for Burners to take a moment to relish on their existence as humans, with the capacity to orchestrate their own experience, something which AI’s currently don’t possess. Artificial intelligence is currently an opportunity to shape a future experience where humans can outsource themselves, freeing up valuable time and energy. The hourglass serves as a visual symbol that human existence is fleeting so long as AI is permeating our lives, and provides a timer for the impending singularity, a moment that will transform the world as we know it, a reminder that we still have the alluring capacity to define and create.


‘The first ultra-intelligent machine is the last invention that man need ever make, provided that the machine is docile enough to tell us how to keep it under control.’

I J Good



Resonance cryptograph

A2-wide angle perspective.jpgJohann Wolfgang von Goethe says Architecture is frozen music. Albert Einstein believes the key to unlocking the universe is through the hidden geometry and mathematics.  This design seeks to unlock the geometry of Sound making sound visible through 3-dimensional volume and lights.

Johann Wolfgang von Goethe says Architecture is frozen music. Albert Einstein believes the key to unlocking the universe is through the hidden geometry and mathematics.

Sound is a hidden code when it unlocks allows us to perceive it as a set of geometrical patterns. The mechanic of sound is translated visually through frequency and amplitude represents itself with beautiful geometries as code from the universe. My design recreates Sound’s geometries into a physical symbolic Sanctuary for users to retreat their senses in the desert,to unravel meaning behind the symbol of Sound by deconstructing it and re-dressing it with physical form, making Sound visible.

 This design seeks to unlock the geometry of Sound making sound visible through 3-dimensional volume and lights.


The structure measures 13.77 feet in length &12.8 feet in height. The material for the structure would be paneled by birch plywood(4ft. x 2ft. panel).2-D dimensional geometry is translated into 3-Dimensional form by folding and joining edges.The sanctuary is made up of three mirroring layers, stacking vertically. The construction of the structure is to explore double curvature design with single curvature paneling and assembly. The ground storey encourages private space for reflection; individual sitting and resting area are carved inwards towards the air-well  ,in contrast, the upper storey is the communal area within the enclosure where users can access from a ladder. Pocket of windows are generated by the stacking and mirroring of sound vibration patterns.  Users enters into the enclosure and view the desert from within.

Resonance cryptograph-night.jpg

Live feeding of Sound and the changing LED lights


In the night, live feeding of sound is captured when in contact with the surfaces of the sanctuary. With a contact microphone attaches onto the surface, it captures the sound amplitude when a user touches or tap as sound travels through the surface as a medium. The device(computer coding with Arduino) then translates the amplitude variation (loudness) into changing colours of LED lights. The lights are attached on the rim of the panels.



Studies of Sound patterns through water




Eigen vector