I wrote this program while working on getting our new metamaterial designs developed. The fabrication process requires
CAD files of a specific type which makes it convenient to work in Autodesk AutoCAD. The thousands of small resonators
in a metamaterial deisgn makes the masks completely unfeasible to write by hand, and a lengthy, tedious process even using
AutoCAD's built-in tools. Fortunately it is possible to communicate with the autodesk instance and thus programatically create
the design, thus this tool.
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This was used to develop the masks for all of the metamaterial projects our lab has done at Brown.
A full metamaterial device layout:
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A close up: (note the resonator gaps are 2 um across
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I built this software while working on our active metamaterial projects. This type of metamaterial can be controlled to change its
material properties through the application of a voltage bias. In these devices we engineer separate metamaterial regions
which we want to address individually, 32 in all. For this I designed a system using the
Analog Devices AD5370, and I
built this application to communicate with the DAC, giving us control over the voltage outputs in a convenient way to carry
out the research experiments.
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This was an application I built to assist in the analysis of experimental time domain
data. It natively supports files acquired from the Picometrix 2000 and 4000 systems.
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My senior design project with 3 friends at Florida Tech. We won 1st place at the ECE Senior Design showcase.
The robot was designed to navigate an arena using ultra-sonic
sensors, identify Lego bricks and their orientation using stereo CMUcam3
cameras, use an arm implementing inverse kinematics with a claw to grasp a
brick and then move it to a new location.
The full design was not operational at the showcase, but multiple subsystems
were demonstrated to a high degree of completion. C# was used for the GUI.
The vision system utilized OpenCV in C++. An ATmega16A was used as the
on-robot microcontroller, communicating with a compass, ultrasonic sensors, the arm servos, the wheel motor controller, and Bluetooth communication modules.
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