Project

# Title Team Members TA Documents Sponsor
67 Aliased Water Illusion Screen (AWIS)
Chaoyu Zhou
Shan Zhao
Yixiong Li
Luke Wendt appendix0.zip
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final_paper0.docx
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presentation0.pptx
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idea sponsored by Luke Wendt

Team Members:
Chaoyu Zhou (czhou16)
Yixiong Li (yli161)
Shan Zhao (szhao27)

Project Description:
During the pitching session, we heard our TA Luke Wendt talked about the Aliased Water Illusion project. The project is based on the stroboscopic effect. Essentially by adjusting difference between sampling rate, we can create an illusion of objects floating in the air or flying up. We want to create a screening wall for interior house design.

Hardware Description
The undersampling of water is achieved by having a matching frequency for the vibration of water/falling objects and the observant (usually a frame rate of a camera or the rate of flickering light if you want it to be captured by human eye). Therefore I believe our system would consists of four parts.
1. a speaker (or a speaker array) that create the right amount of frequency with a water hose attached to it
2. Array of LED light for strobing effect
3. A water pump system so we can recycle the water.
4. And of course an control system that controls all of this.

Procedure by Steps
Rome ain’t got build in one day.
We project to work on this project in the following steps.
1. We would purchase the water pump, make sure water is running alright, preferably controlled by our controller. Get the easy part out of the way.
2. Meanwhile get LED and speaker. Connect it to the controller we design. Attempt to make levitating effect.
3. Evaluate remaining time, if we have time, implement the additional music component, if not, ready to proceed to encapsulation.
4. We would reserve enough time to make sure we get to design the illusion pattern for the droplets. Luke mentioned no one has done anything like this before, for example a drop going in a loop. Meanwhile evaluate the potential of doing other medium. (For example apply the system to an huge hourglass. (God that would be fun)
5. Wrap up, finish final report and presentation.

Significance of the Project
We do realize there has already been commercialized version of this effect. But we believe through the process of innovation, we can push this idea beyond what it currently could be.

The first argument we have is utility. Right now this “gadget” is just “a nifty thing” to have or to show off. But we believe it could be so much more. In architecture design, there exists the need for a screen to provide division and privacy between rooms. Nowadays we have wood/bamboo based screen as the dominating choice for screens, alternative choices includes having a beads curtain, or a fishtank. We believe our product can fill in the void of lacking of technology centered decoration and join the competition for screens. Using an array of levitating water droplets as a screen could grant the satisfactory division and privacy (we could incorporate a piece of mosaic glass as background) like the traditional screen provide, meanwhile give an modern taste to the whole room.

If we could finish this on time, we could add in an AUX input port, having our control system read the waveform of input music and help the droplets form a pattern with it. We could’ve also add in a speaker system into it if we are doing AUX input, but that’s out of the scope of our budget and not the focus of our research. We are merely pointing out the potential room for improvement if things go well and it gets commercialized.

Thank you for your time, and this is our project proposal.

Growing Degree Day Monitor

Anthony De Roo, John Habegger, Jay Zhaoyu Yao

Featured Project

The purpose is to create an inexpensive growing degree day monitor that records temperature and computes growing degree days for a specific farming field during a growing season. This monitor will be placed near a farm field where it will monitor temperature conditions during the growing season. It will record both the ambient air and soil temperatures over the course of day. These temperatures will then be used to calculate the growing degree days. The cumulative number of degree days will then be displayed on either a seven-segment display or this can be downloaded to a computer. This monitor will be powered through a combination of both solar and battery power.