Category Archives: Assignments

Drunk Hunt : A Drinking Game

Drunk Hunt

Lucy Morcos & Leah Fried

A drinking game for all. The premise is still safe, drunken fun but is less about your safety and more about the fun. We are inquiring how you can turn someones BAC level into something for your and everyone else’s selfish enjoyment.

Breakdown of the game:

The game can have 2-4 players (could be unlimited but we only made 4) racing against one another to collect the most drunk people as possible.

The player must wear two things :

1. The headband which features one small and one large LED light strip and one mq-3 alcohol gas sensor.

2. The fanny pack (Look Ma! No hands!) holds the potentiometer, button, Arduino and the rest of the batteries and wires.

The objective of the game is to run around and find drunk people, guess how drunk they might be, get them to breathe into your headband, use the potentiometer to make an educated guess of the value (Sober <—> Drunk) and press the button.

The breath sensor is located above the wearer’s ear, so they quite literally have to whisper drunken nonsense into your hear in the most awkwardly, flirtatious way possible. The tiny LED strip (3 pixels) is right above the sensor and displays a color value that matches the BAC value. This is to give the drunk person an idea of what their level is. If it’s blue, they’re pretty sober. If it’s red, they should go to a hospital. etc

The knob and button are located on the front of the fanny pack (because this game needed to be more awkward). So you can have free hands.

What happens?

If you guessed correctly, you get a point! The point will be displayed on the larger light strip by two illuminated LED pixels.

If you guessed incorrectly, nothing happens!

First one to get a total of 6 points (12 LED pixels total) your head band will go into PARTY MODE (rainbow flashing lights) and is declared the WINNER.

Quick code breakdown:

The code works in a pretty simple way. The values are read from both the potentiometer and the breath sensor. There is a switch case that is determined by their amount of points. If the button is pressed while the two values are in the same range, it moves up a case.

Video of the first time we got it to properly add points and respond to our code: https://www.youtube.com/watch?v=XN4w4AhjmNo

Leah modeling it:

leahwearstechnology leahwearstechnology2

Beyond: Mycelium

Ali and Annelie- Final Project:

Beyond: Mycelium
What we’ve explored:

We  have created a DIY magnetic stirrer to oxygenate our cultures

using a laser cut plexiglass box, a computer fan some magnetics and a bit of tinkering, we’ve designed an efficient, cheap stirrer to provide oxygen to our growing cultures.

We’ve explored and designed different growth substrates using different sources of sugars  and nutrients

Explored the interaction between fungi and electricity (see gallery) based on research on the relationship in nature between fungi and lightning, this research has driven us to continue exploring this. We created different set ups to create a current through the agar medium in petri dishes we inoculated with mycelia.

The preliminary results of this research indicate that a plate modified with electric current from a 9V battery has increased the growth rate compared to non electrified cultures and a culture with similar set up that has not had the electric current for as long a time. We’ve also created a plate modified with magnetic filings and used a magnet to affect the culture.
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We will continue to go forward with this research and will possibly look to an electrical engineer to hep analyze and create an ideal set up for this experiment. We may look for the scar caused by lightning to develop similarly in the mycelia to the scars that form in nature and on skin, but need to further research this phenomenon.

We’ve explored briefly the use of molecular gastronomy to create knew methods of growth. We used alginate and calcium lactate to attempt spherification of the media which will be inoculated with mycelium.

We will continue to grow our liquid cultures and hope to in the future grow more material to begin to understand how we will use it.

Research document:

myceliumresearchdocument

 

What is Mycelium?

“Mycelium is the vegetative part of fungi, which consists of a network of interconnected filamentous cells called hyphae. The mycelium of mushroom- forming basidiomycetes is highly attractive and embodies a great potential, because of its tendency of growing on a wide variety of substrates, therefore resulting into a range of diverse materials and applications, related to the architecture and the design fields. Moreover, this organic network of filamentous cells is characterised by peculiar properties, such as strength, elasticity, thickness, homogeneity and water repellency.”

What is currently be done with mycelium?

Currently mycelium is being used in the art and design world for various applications. The strong fibers of mycelium works wells as a natural alternative to wood, cork and plastics and can also be easily shaped into both structural materials such as insulation and decorative artifacts such as lampshades and homeware. It is also produced in a more energy efficient way than conventional manufacturing.

What we would like to explore?

The use of mycelium as an alternative building material is revolutionary and is proving that there are natural alternatives to our current ways of manufacturing, but within the discipline of mycoculture itself there has not been much experimentation and it seems that the majority are using the fibres in a composite of materials and the actual chemistry beyond the physiology is not being explored.

We would like to see how we can go beyond the current methods of growing and using mycelium cultures and with this explore new material solutions. We hope to achieve this through a series of experiments addressing these two parts of mycoculture:

  1. Growing Mycelium
  2. Fabricating with Mycelium

Growing Mycelium

Current research with mycelium involves the growth of material in organic decaying substrates. We propose an alternative approach, we will be growing pure mycelium in a liquid culture using experimentally designed methods, based on research in the industrial production of mycelium for medicinal use.

After our tour to the Industry City Distillery we have been doing a lot of research into growth optimisation and found that the same alginate that is used to keep the yeast growing at optimal temperature and Ph level can be used as a substrate for the growth of mycelium in liquid culture. We will definitely be exploring this avenue when we get to the growing of larger masses of mycelium.

We will also be prototyping a DIY bioreactor to further optimize the growth of the material.

Fabricating with Mycelium

Fungi and electricity:

Lightning induces fruiting of mushrooms in nature

We would like to scale down this interaction between fungi and electricity by creating a modified petri dish experiment that will test the effect of electrical current on the growth of fungal cultures.

There is also currently some interest within the science world in the perceived conductivity of mycelium. As per our previous project we would like to continue this research with more scientific backing.

Fungi as fabric:

We are hoping to move away from the composite use of mycelium to explore the chemical makeup of the hyphae and see if there is a way in which we can use this fibre for fabric or as alternative to cotton or yarn.

 

The cultures:

Reishi

myclium-04 IMG_8930 IMG_8933

 

 

Ghost fungi

myclium-03 myclium-06

IMG_8935

 

 

Chicken of the Woods

IMG_8349 IMG_0751

IMG_8938

 

 

Shiitake

IMG_8927

 

Mycelium + Electricity

 

Modifying the Jar:
Creating the ideal vessel for liquid cultures

 

Oxygenating cultures: the magnetic stirrer

IMG_8338 copy

 

[We will be creating a diy magnetic stirrer to facilitate the growth of mycelium liquid cultures within an incubator box to achieve the ideal temperature for the organisms. This drawing is a box that has a computer fan inside with magnets attached, then a magnetic bar is placed within the liquid culture and when placed on the box, the stirring is produced from the rotations of the fan. This design allows the stirrer to be portable, and we can create a setup with multiple fans set up to allow us to stir many cultures at one time in a controlled setting.

Making the special containers for growth of mycelium. The jars are modified with two holes in the lid, one is stuffed with poly fill filling and the other is filled with RTV (autoclavable) silicone. The silicone is a seth healing injection port for the insertion of syringe needles, and the polyfill acts as a filter allowing oxygen into the jar.

And lastly, we have begun to create a modified petri dish setup with which we will test fungi’s response to electricity. We are interested in this after reading about fungi’s relationship with lightning and we are looking to simulate this interaction in the lab.]

IMG_8789 IMG_8792IMG_8897 IMG_8896 dried samples

 

 

 

The Shoes Charger Midterm Presentation

The shoe Charger Midterm Presentation

Jay Hsiao, Felix and Sam

About the Project!

A lot of people waste their energy walking and not making any use of it. So why not recycle it? We’ve come up with an idea to turn that energy into electrical energy to charge a portable charger. Our idea is to make a shoe that uses thermal energy and convert it into electrical energy while walking, and use that energy to charge a portable charger that is plugged into the shoe. When the user is out of energy on their phone or tablet, they can use the portable charger to charge their devices after walking a certain amount of time after charging their portable charger.

What I do for this project was I did some sketching on the sample of the shoes in order Felix and Sam to have an idea how the would look like once we install the device in it.

Materials:

Materials used for the project was Arduino.

Diagram-2-168x300 Diagram-11-300x168

And here are the two sketches I did for the shoe,

FullSizeRender-1 FullSizeRender-2

And here’s how it would look like once we install the device

Shoe-Sketches-2-237x300

As you can see, there are two ways to place the charger. One way is to place the charger in the sole of the shoe. The person can easily plug it in and take it out with ease. Another option is to place the charger on the back of the shoe. The plug will be sewn in and stick out for the person to plug it in.

Shoe-Sketch-3-2-300x205

The heel of the foot will push down pressure for energy which will convert into electrical energy and charge the battery in the shoe.

 

Outcome?

In the end, we were able to make a prototype that works that can turn thermal energy into electrical energy to charge a portable charger. With this, we continue to move forward with this idea and have it built in a shoe for further testing.

Future?

We plan to continue on working on the concept of the idea to charge a portable charger through thermal or kinetic energy but in different ways besides walking.

Hi everyone!

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Hi! My name is Jay. I’m currently majoring in Communication Design. I’m passionate about editorial design in terms of magazine layout. And I also find information design really interesting. This is the project I did in the past. It’s about a food magazine, I like working with graphic design and how to make them visually interesting in order to catch audiences attention. And my objective of this project is to create a food magazine with elegant appealing graphic style.  What I wish to learn from this class is to have a basic and fundamental knowledge on how technology and design works.

Screen Shot 2014-12-04 at 10.39.48 PM Screen Shot 2014-12-04 at 10.40.02 PM

Inspiration

http://www.nytimes.com/imagepages/2008/01/06/opinion/06opchart.ready.html  (A Year in Iraq)

Iraq-NYT_Year-In-Iraq_detail

It’s a visualization of fatalities related to the War in Iraq. I thought this was really simple yet easy to understand and the use of color is brilliant. The relation between the two sources work really well together, and I can tell the designer did a lot of research on this project which makes this project really valuable.

 

 

[Final Project Proposal] Re-actor

Our project is divided into two parts.

The first part is an audio boom box that references the boomboxes of the 1980’s with a handle and speakers but instead of blasting radio it is pulling sound from electronic frequencies in the air using a coil mic. It is useful for exploring electronic frequencies but we are also interested in capturing audio that is interesting and beautiful.

Coil-Mic-Boombox-copy-300x190

The second part of the project involves being able to control the boombox wirelessly from a laptop. The boombox can be carried or sent using a robot so that we can send the device undetected by security and below some surveillance techniques.

here is a great inspiration on Multirobot systems for EMF monitoring:

http://home.deib.polimi.it/amigoni/research/EMFMOROAgency.html

There are these DIY robots that move around:

https://www.qualcomm.com/invention/research/projects/robotics/micro-rover

However we want to make everything from scratch. For the robot we will be using Adruino Yun to control the robot over wifi. Please watch the video for the current progress. We were able to control the motor on Audruino Yun:

IMG_4950

Here is also an example of the sound that was picked up by a Coil Pickup Mic

 

 

 

Beyond: Final Project Update

This week Annelie and I have been designing our experiments, our nutrients and our vessels and tools for the growth of mycelium in liquid medias.

We will be creating a diy magnetic stirrer to facilitate the growth of mycelium liquid cultures within an incubator box to achieve the ideal temperature for the organisms. This drawing is a box that has a computer fan inside with magnets attached, then a magnetic bar is placed within the liquid culture and when placed on the box, the stirring is produced from the rotations of the fan. This design allows the stirrer to be portable, and we can create a setup with multiple fans set up to allow us to stir many cultures at one time in a controlled setting.

IMG_8406 copy IMG_8405 copy

Making the special containers for growth of mycelium. The jars are modified with two holes in the lid, one is stuffed with poly fill filling and the other is filled with RTV (autoclavable) silicone. The silicone is a seth healing injection port for the insertion of syringe needles, and the polyfill acts as a filter allowing oxygen into the jar.

IMG_8412 copyThis is a sample of dried mycelium that has been sterilized and becomes a kind of ‘fabric’.

Our cultures on the stirrer: batch 2

https://drive.google.com/a/newschool.edu/?tab=mo#my-drive

Documentation and lab notes:

Mycelium Report

 

And lastly, we have begun to create a modified petri dish setup with which we will test fungi’s response to electricity. We are interested in this after reading about fungi’s relationship with lightning and we are looking to simulate this interaction in the lab.

Birce and Steph – Final Project Proposal

Resreach:

After the crying dress, we decided we still wanted to experiment with liquid and fluidics working in a garment. We researched the “glow-in-the-dark beach” in the Maldives.

glow 08

These glow-in-the-dark beaches are caused by bioluminescent phytoplankton. Bioluminescence occurs widely in marine vertebrates and invertebrates, as well as in some fungi, microorganisms including some bioluminescent bacteria and terrestrial invertebrates such as fireflies. Communication (quorum sensing) plays a role in the regulation of luminesence in many species of bacteria. Using small extracellularly secreted molecules, they turn on genes for light production only at high cell densities. While most marine bioluminescence is green to blue, the Black Dragonfish produces a red glow. This adaptation allows the fish to see red-pigmented prey, which are normally invisible in the deep ocean environment where red light has been filtered out by the water column.

glow 14 glow 13  glow 11 glow 10

The bioluminescent phytoplankton react to any type of stress or change in tension, emitting light from their cells anytime something breaks the water: a wave, a kayak or even your hand. They’re calling it, informally, the “firefly effect.”

glow 07

glo 04 glow 03 glow 02 glow 01

http://www.huffingtonpost.com/2014/05/14/maldives-beach-bioluminescence_n_5309928.html

 

Proposal:

We want to create a garment that mimics the bioluminescent effect of the phytoplankton in the water. Since the phytoplankton illuminate as a reaction to stress or tension, we want to use those as triggers for the garment. The dress will mimic their actions and act as a therapeutic calming sensation to their high stress or tension. We want to the dress to perspire glowing liquid in a similar manner to sweating, as one does when they are stressed. The dress will “sweat” fluorescent water  out of the fabric’s pores but drip in an aesthetically pleasing and beautiful way.

Timeline:

Week 1: research and proposal.

Week 2: source materials and prototype.

Week 3: finish prototyping and execution of final project.

Week 4: Complete project, write-up, and project due.

 

Materials to explore:

Waterproof fabrics – nylon, vinyl,

Waterproofing coating spray

highlighter to illuminate water

water

tubes

water pump

Illustration of system:

glowing-dress-illustration