
Hey , Is it hard to wake up in the class?
Don’t you find yourself keep nodding?
Put this NONOD HAT on! This hat can be a answer!
Control your sleep!
Instructable link
http://www.instructables.com/id/NO-NOD-Vibration-Hat-to-Wake-You-Up/

Hey , Is it hard to wake up in the class?
Don’t you find yourself keep nodding?
Put this NONOD HAT on! This hat can be a answer!
Control your sleep!
Instructable link
http://www.instructables.com/id/NO-NOD-Vibration-Hat-to-Wake-You-Up/
Some progress shots. Video to come! Instructable here!








I’ve been looking for a softer, less abrupt notification system than a vibration, sound, or light based notice. I couldn’t find anything that fit that criteria so I decided to make my own. Furthermore, I wanted my solution to incorporate my personal interests in clocks and the way we as a society think about time.
From that, Blüp, was born. I came up with the idea of using a bubble in a container of liquid to not only notify me of an event of my choosing, but to also use the time it takes for the bubble to rise to instill a sense of urgency in my response to the event. For example, if you were to receive a message from a boss or other important contact, the bubble would form and rise at a rate that would give you enough time to respond before it pops at the top.
You can find the full instructable on how to build this for yourself here:
http://www.instructables.com/id/Blüp-the-Bubble-Notifier/
I had a lot of fun in this class and especially building this project. I look forward to continuing to make things and share them with the community so expect more from me in the future!
Here is a draft of my instructable for my final project. I will update it as I determine how everything goes together!
This is my first instructable and I hope to create many more in the future. I was originally looking for a softer, less abrupt notification system than a vibration, sound, or light based notice. As I am also interested in clocks and adjusting the way we think about time, I wanted to incorporate this into my solution.
I came up with the idea of using a bubble in a container of liquid to first notify me of some event and then use the time it takes for the bubble to rise to provide a sense of urgency to how I should respond to that event. An example would be a message from a boss or important contact. The bubble would form and then rise at a rate that would give you enough time to respond before it pops at the top.
I’ll try to simplify the steps as much as possible so you can replicate this project at home but there is definitely some experimentation involved in getting it to work for you.
-Nano Air S1 pump
(http://www.amazon.com/Altum-Aquatic-Nano-Air-Pump/dp/B00LLZFFMQ)
-Clippard ET-2-6 normally closed, 6VDC electronic valve (http://www.clippard.com/part/ET-2-6)
-8ft Airline tubing
-Airline check valve
(http://www.amazon.com/gp/product/B007BVM874?psc=1&redirect=true&ref_=oh_aui_detailpage_o01_s00)
-Adafruit Huzzah ESP8266
(https://www.adafruit.com/products/2471)
-FTDI Cable
(https://www.adafruit.com/products/70)
-9VDC Power Adapter
(https://www.adafruit.com/product/63)
-Extension cord
-Air reservoir*
-Glass VOSS Still Water Bottle
I struggled to purchase the glass VOSS water bottle as most locations around me in NYC only sold the smaller plastic versions. I finally found them at Fairway. I bought the still water version because the cap was flatter than the sparkling water version.
Begin by scraping off the labeling using an Exacto blade. If you use the side of the blade instead of the tip, the process works a bit easier. I’ve been told that you can use acetone as well but I’m not sure it will cloud the glass at all. Give it a try and let me know!
After the bottle is clean, drill a ¼” hole through the center of the lid.
Cut 3 lengths of tubing to the following lengths:
TK
Connect one length of tubing from the pump to the reservoir inlet and another tube from the reservoir outlet to the solenoid. The last tube will connect from the solenoid outlet to the bottom of our water tank but we will do this step last.
Find a couple scraps of plywood and cut out the following pieces:
Next, cut a 1/16” thick sheet of acrylic into the following pieces:
Servo to board
Pump to relay to board
Sign up for an adrafruit.io account
IFTTT account
Place the electronics and air system into the base and feed the outlet tube from the tank cap through the acrylic cover to the outlet on the solenoid. After the tube is firmly attached, place the acrylic cover over the bottom compartment and secure with the 4 screws.
Next fill up the tank with the TK liquid and screw on the cap. Turnover and place the sealed tank into the base. Flip on the bottom switch and make sure the power indicator LED is lit. Then send a test to the device and make sure everything works correctly.
That’s it! I hope you enjoy and that everything works well for you. If you have any questions or changes that can be made to this setup, please post them below as I’d love to hear them! Thanks for stopping by.
The Mini Star-Shooter!
A fully controllable desktop disc launcher—
If you love to throw a disc (whether you call it Ultimate, Flatball, Fetch, or Frisbee) chances are you love it so much it’s hard to put the thing down before you go to sleep at night. You may even be one of those people that always has one in their bag, looking for any opportunity to toss during the day. But a 175 gram UltraStar can be hard to get away with throwing inside if you work in a tight office space. That’s probably one of the reasons DisCraft makes the Mini-Star, a 4.5” disc you can throw around in smaller spaces.
Mini-StarPhotoTK
Here, you’re going to learn to up your indoor disc game with the Mini Star-Shooter!
The Star-Shooter is a desktop disc launcher for all your indoor disc launching needs! Controlled with a Wii nunchuck plugged into an Arduino, the Star-Shooter is an accurate, 3 axis disc cannon built for your desk.
AwesomeVideoorAction Photo TK
Here’s What you’ll need:
Materials:
1+ Discraft Mini-Star Discs – Where to buy
4 ModelNumberTK Servo Motors – Where to buy
1 Nintendo Wii Nunchuck – Where to buy
1 WiiChuck Adapter for Arduino + header pins – Where to buy
Arduino Nano/Min/TK – Where to buy
Soldering Iron with Solder – Where to buy
Brushless DC motor – Where to buy
Structure Materials – Where to buy
Structure Materials – Where to buy
Structure Materials – Where to buy
Code:
PhotoMaterials TK
So, first things first! Gather the materials and take a look at what you’ve got and what you’ll be using it for!
Obviously, the disc is the projectile. Put it aside for now. Yes… I know it’s hard not to throw around when you’re procrastinating. It’s super cute and we love the Mini-Star. But you’ll have to curb your excitement just a little to focus on the task at hand!
Take a look at the nunchuck. This will be your command center. Before this is over, you’ll be able to use a combination of the joystick, trigger buttons, AND the accelerometer inside to precisely control your launcher. Don’t worry! You won’t have to damage the controller to get this done. Thanks to Tod at tidbit.com, you can plug it directly to your keyboard with the WiiChuck adapter.
InfographicphotoTK
What’s actually being controlled by the nunchuck is the servo motors and the DC motor.
Three of the servos run the three-axis movement of the launcher, the fourth drops the disc into a track, and the DC motor spins the disc out of the track. The functionality is pretty linear. Aim, start launcher, fire!
BasicDemoVideoTK
All of these functions funnel through an arduino board.
PhotoOfBoardHookedUpTK
So Let’s get started!
First, we’ll go through the construction of the structure and housing.
3 axis servo structure
Launcher electronics housing
hopper
launching track
Now that we’ve finished the housing parts, let’s construct the electronic portion, wire up the arduino, and fit the whole thing together.
We’re putting it together before coding it so we can make sure it functions correctly as we code.
Here’s how to put it all together correctly.
Now, here’s the code:
I’ll walk you through all of the different functions and what physical controls and processes they reflect.
Variables
Understanding the nunchuck functions
controlling servos
controlling the DC motor
Thanks for sticking it out through my Intructable, everyone! I hope to hear Mini-Star Sales start to go up in coming weeks. Please check back in as you make improvements or cool modifications! I’d love to see what anyone can do with this to make it even more fun!
Bonus track!
Trash Can Horse!

The bag looks aggressive? Not at all! Let’s do something to add more fun to the aggressive shape. Just think when you touch the spikes, they will retreat just like a snail’s antenna and several minutes later, they will gradually reach out again.
Here is the video.
This may makes us reflect on the relationship between being cool, isolated and more communication with people.
Wanna have your own snail antenna bag? Now it’s making time!
1. Let’s see the theory first
2. Tools and materials
3. Wiring
4. Coding
People have a mixture of emotional responses to the rain. Some people enjoy it, while others do not. However, if you consider rain as a friend who is just telling a story to you, then you will love the feeling of touching it. I think the rain has its own emotion and this jacket uses music and light to translate the rain’s emotion into a physical experience for people. With the changing color of the LED sewed onto the jacket and the tempo of the beats, you can immerse yourself in the rainy scene.
So, here are the parts you should prepare:
A piece of DotStar digital LED stipe, Adafruit Pro Trinket, Lithium lon polymer Battery, etape liquid level sensor, resistors, Arduino Uno
1, Connect one end of the battery to the LED strip and the other end of the resister.
Complete the circuit by connecting the resister to the LED strip.
2, Sew the LED strip on the edge of the raincoat.
3, Prepare a plastic tube and dig a tiny hole on the bottom of it.
4, connected all the circuits with the etape in, then put it into the tube.
5, We should also made a small 3d printing triangle model which could be sewed on the top of the raincoat. It will help the tube collecting rain. Because the quantity of the rain will controls how fast the beats creates.
6, Now we come to the most difficult part – to write the programs in your Arduino.
Now, wearing your raincoat, Let’s embrace the rain.
Documentation:
– write use case
– write narrative of product use
– document each stage of the process
Prototype Code:
– create IFTTT recipe (weather to Adafruit feed)
– @ morning, afternoon and evening
– understand weather data received by Adafruit feed
– isolate desired data set
– temperature, precipitation, sunlight
– establish wifi connection to arduino
Prototype Display:
– create icons
– prototype for scale (Chipboard)
– measure installation space
– design model
– assemble model
– prototype for illumination (ABS)
– model icons
– print icons
– design LED circuit
– solder circuit
– install prototype
– connect to scale model?
Final Model:
– link data to LED circuit
– design final form
– material?
– assemble model
Documentation:
– revisit product use case and narrative
– collect all documentation
– create film
– finalize instructables post
Impress your potential employers by adding a theatrical element to the business card exchange.
This project takes you through the steps of how to create a box that will light up and open when it hears a specific knock.
There is an internal button that will allow you to reprogram the knock.
Here is a video to support the design:
Important Notes:
Step 1: Tools, Supplies, and Skills
Time:
Based on your level of experience this project could take several hours to complete.
Skills:
To complete this project you should have a working knowledge of:
Tools:
Materials:
Case:
This case was 3d printed, but you can make a box out of any material. I have outlined the steps of how to do the 3d modeling in step KP and also include the .stl file below. You can use the .stl file to directly output to a 3d printer. If you do not have access to a printer you can have it out sourced to companies like Shapeways.
Step 2: Program the Arduino
First, you should open up the Arduino program and attach your microcontroller to your computer. We are uploading the sketch first so that we can test the electronics during each step up the wiring set up.
#1: Download the sketch
Download the file xxxxx.pde at the bottom of this section, copy it to your sketchbook and upload to your Arduino.
Code overview:
Step 3: Lay Out and Test the Circuit
This step will outline how to breadboard the electronics. I have provided a schematic to diagram the breadboard. Since the code is already uploaded to the Arduino, you can test each element as you go to see if you did it correctly.
#1 Wire the Piezo Sensor
Connect the Piezo speaker between Analog pin 0 and the ground. Make sure to interrupt the connection with a 1M ohm resistor.
#2 Wire the LEDs
Connect the red LED to digital pin 4 and the green LED to digital pin 5. Make sure to put a 560 ohm resister in line with each of the LEDs.
#3 Wire the programming button
Attach the button to your breadboard and connect one side to 5v. The other side should be connected to digital pin 2 with a 10K resistor inline to the ground.
#4 Wire the stepper motor
Step 4: Model the Case
Next I will take you through the steps outlining how to model the case. If you do not want to use my box design, I have also attached a drawing that illustrates how the case functions so that you can apply the mechanics to another material. I have also attached the .stl file so that you can print the box yourself.
Step 5: Assemble
Now that your circuit is assembled and box printed, all you have left to do is put it all together.
Hey guys,
Is it hard to wake up in the class? Don’t you find yourself keep nodding? Put this W-hat on! This hat can be a answer!
Step 1: Prepare all the materials
Arduino Uno
Accelerometer sensor
Adafruit Feather 32u4
Small battery
vibrating motor
wires,soldering iron
cap or hat
Step 2: Mount the Accelerometer sensor to a small breadboard
Follow the steps outlined in the Adafruit website:
https://learn.adafruit.com/adafruit-lis3dh-triple-axis-accelerometer-breakout/assembly
Step 3 : Attach accelerometer to your arduino
Step 4: Wire vibrating motor to circuit
Step 5: Upload code and test
Step 6: Put it altogether