Featured Work          

TERA


AN EARTH HABITAT    

Built with NASA award winning technology, TERA is a forward thinking terrestrial habitat inspired by the shape of our Martian habitat, Marsha. Tera offers a sustainable solution for building on this planet, while advancing the technologies for living on another. I lead the design team in this project.




TERA Crowdfunding 

We set up a successful fundraising Indiegogo campaign for Tera’s upstate new york construction.


Click here

for TERA fundraising indiegogo champion page






Built with NASA award winning technology, TERA is a forward thinking terrestrial habitat inspired by the shape of our Martian habitat, Marsha. Tera offers a sustainable solution for building on this planet, while advancing the technologies for living on another






TERA’s rich and playful interior, made of birch and poplar, evokes that of a tree-house. Free of pre-defined rooms, TERA’s various activity areas are perched on, and nestled in, a spiraling form emerging from the landscape. TERA’s open plan maximizes daylight and air circulation—further enhanced by energy efficient LED lighting and underfloor heating to provide year-round comfort




We studied different porosities and profiles based on our material property, printability and possible construction equipment


The first floor includes areas for sitting and food preparation, an
herb garden, bathroom and storage. Along the way to the second floor and embedded in
the stairs is a small library and study area. At top is a queen-sized sleeping pod under a
large skylight.




Design Team : 
Sima Shahverdi, David mallot

Fabrication Team :

  Chris Botham, James Earl, James Colman, Amit Adhikaree


with AI Space Factory

Check out 
MARSHA - HYDROPOD - KYTE

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MARSHA

A NASA WINNING DESIGN FOR MARS

Marsha is a first-principles rethinking of what a Martian habitat could be. Marsha made us to rethink habitat design by responding to a completely different set of questions. Designing for Mars!
It is born of a careful response to the Martian environment and a synergy between architectural, structural and construction principles with the crew’s experience at the center.

Marsha won the Nasa 3D printed habitat challenge Design Phase 1 in 2018




Besides designing and modeling, I led the official multimedia submission to NASA and created the conceptual 3D printing construction animation.


The first task for any Martian home is to hold an Earth-like atmosphere. A simple trade study of spatial and material efficiency shows that a vertically oriented cylinder is the best formal basis for a surface habitat.





The layout must reflect the strict flow of tasks typical of Space missions. But since sustained social and mental health are also mission critical, habitats should offer elements of surprise and literal room for the crew to slip outside of an overly prescriptive existence.




In this alien environment, construction sequence and materials must be rethought entirely.





On May 4th, after three phases and $1.6 million awarded the team participated in the Nasa Challenge at Caterpillar’s demonstration facility in Peoria, IL on 2019



Team AI SpaceFactory won the grand prize of $500,000 by successfully printing a 1:3 scale prototype of the primary structure




Design Phase 1:

Jeffrey Montes 
Sima Shahverdi
David Malott
Tony Jin


Construction Phase 1&2:

Jeffrey Montes
Christopher James Botham
David Malott


Construction Phase 3:

Jeffrey Montes
Christopher James Botham
David Riedel
James Earle
James Coleman
Amit Adhikaree


with AI Space Factory

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HYDROPOD



A modular and Reconfiguring Watercraft


Hydropod is a proposal that looks at a multi-purpose urban platform on water. Water surface would be one of the main platforms to consider as living space. 

Like cells in tissue, or ants in a colony, the individual hydropod is highly capable, robust and adapts to its environment with power in numbers, the fleet will be able to adapt and change to current needs placed on the system.





Each craft was designed with a hexagonal plan that utilizes three-fold rotational symmetry. This symmetry allows for various patterns of clustering, increasing the flexibility of the system.



As a stand-alone piece, the craft design was broken into two parts; the hull, including everything below the floor plane, and the deck, including everything above the floor plane. The hull, like the drivetrain of a car, is standard to all craft, while the deck can be switched out to change the function, or ‘mod’, of each craft when necessary.


Deck:

1. Brain - sensing/communicating
2 . Petals - structural photovoltaic panels
3 . Floor System - adaptive wood tiles
4 . Structure - carbon fiber composite
5 . Foglights

Hull:
1. Battery
2. Ruderless Propulsion System
a.counter-rotating propellor array

b.water jet plenum-in/out

3. Active gyroscope array
4. Coarse pollution filter



The hull, like the drivetrain of a car, is standard to all craft, while the deck can be switched out to change the function, or ‘mod’, of each craft when necessary.






Fog Harvesting Mode of Hydropods



TEAM:

SIMA SHAHVERDI

JEFFREY MONTES

CHRIS BOTHAM


WITH AI SPACE FACTORY



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Potopia

SMART MODULAR PLANTER SYSTEM

Potopia is a modular smart planter pot system. It helps busy plant-lovers understand what their plants need. This smart pot communicates with user through an LED indicator located at its nose. Through different light colors it can ask user for more or less water, fertilizer or sun light. Because it is a modular system, the user can customize the configuration.


I lead the product design team with a close collaboration with development team in R&D


There are some suggestions for the configurations that comes with the package. It can be mounted on the interior or exterior walls



Potopia helps busy plant-lovers understand what their plants need.





Potopia comes in a package of six. It also contains a pack of mixing pot, seed and potopia app. The app allows the user to get updates about their plants without physically being present



Potopia took shape through different iteration and rapid prototyping using in house PLA 3d print method. By embedding a temperature and a soil humidity sensor inside the planter skin, environmental data can be collected. This data later will be monitored by a central microcontroller located in the mother module and would be processed. The result of the processed data determines if the plant needs more or less water, if it is cold or hot and if it is time to repot and add fertilizer



Potting mix packaging and some behind the scene studies



Design and development Team:

Sima Shahverdi
David mallot
james Colman
Amit Adhikaree

with AI SpaceFactory


ROBO

IoT + kinetic design



Robo is an interdisciplinary concept that lives at the intersection of kinetic architecture and Internet of Things (IoT) technology. IoT and kinetic architecture are both more than 50 years old and thinking in the context of kinetic architecture, it would be interesting to imagine the building components like platforms, walls, and roofs could move in an intelligent way.  Robo changes shape when sensing precipitations or detecting variations in natural light.





Here is a preview of Robo’s functionalities: 



Inspired by herringbone tessellation origami, Robo expands and contracts to cover or expose the outdoor space.



Robo has two modes of operation: automatic, and manual. When in manual mode, it follows the user’s commands by pushing either the open button or the close button. However, when in automatic mode, it moves in three different scenarios depending on the input from light and rain sensors.


1. At sunrise, it closes the canopy to let the sunlight rea ch the interior space.


2. At sunset, it opens the canopy and turns on the balcony lights
to create a cozy setting for an enjoyable evening hangout.



3. When it is rainy (or snowy), it opens the canopy



The step-by-step details on how to make a DIY 1/50 scale prototype of Robo using a Raspberry Pi and some Python programming can be found in this Medium Story.  At the heart of Robo is a Microprocessor (e.g., Raspberry Pi) that gains intelligence through light and rain sensors and triggers the actuators to open or close the canopy. The sensors detect a change in environment in real time, and communicate it to the RPi. The Python code that is running on the RPi will make the decision on what the actuators need to do under each scenario. The system diagram below presents the relationship between these components.





The source code for Robo is available on my Github repo for your reference.
To read more about Robo check out this Medium Story.


Design and development:
Sima Shahverdi