Posts with «wearables» label

Make your first wearable with Arduino Gemma

Like the LilyPad Arduino boards, the Arduino Gemma is designed to create interactive projects you can wear. It can be sewn into clothing and other fabric with conductive thread and be connected to sensors and actuators.

After you explored the Getting Started page and learn how to move the first steps with it, it’s time to explore its features with a real project.

Becky Stern from Adafruit recently created a tutorial for making a vibrating mindfulness bracelet and learn the basics of wearables with Gemma! It’s like that “stand up every hour” feature you find on smart watches, but DIY.

The guide shows you how to solder up the circuit using an Arduino Gemma microcontroller, small pager motor, as well as how to whip up a cute linked leather bracelet to hold everything.

Build yourself a buzzing bracelet for subtle haptic feedback as time passes! It’s great for reminding yourself to get up and walk away from your desk for a few minutes each hour, or just as a way to have a new awareness of how the perception of passing time varies based on what you’re doing.

You’ll whip up a vibrating motor circuit using a transistor, resistor, and diode, and use GEMMA to control the frequency of vibration in between low-power microcontroller naps. The circuit lives inside a linked leather/rubber bracelet, but you could build it into whatever you please. This project involves some precision soldering, but is otherwise quite easy!

Read the bill of materials, follow the steps and create your Buzzing Mindfulness Bracelet on Adafruit.

Make your first wearable with Arduino Gemma

Like the LilyPad Arduino boards, the Arduino Gemma is designed to create interactive projects you can wear. It can be sewn into clothing and other fabric with conductive thread and be connected to sensors and actuators.

After you explored the Getting Started page and learn how to move the first steps with it, it’s time to explore its features with a real project.

Becky Stern from Adafruit recently created a tutorial for making a vibrating mindfulness bracelet and learn the basics of wearables with Gemma! It’s like that “stand up every hour” feature you find on smart watches, but DIY.

The guide shows you how to solder up the circuit using an Arduino Gemma microcontroller, small pager motor, as well as how to whip up a cute linked leather bracelet to hold everything.

Build yourself a buzzing bracelet for subtle haptic feedback as time passes! It’s great for reminding yourself to get up and walk away from your desk for a few minutes each hour, or just as a way to have a new awareness of how the perception of passing time varies based on what you’re doing.

You’ll whip up a vibrating motor circuit using a transistor, resistor, and diode, and use GEMMA to control the frequency of vibration in between low-power microcontroller naps. The circuit lives inside a linked leather/rubber bracelet, but you could build it into whatever you please. This project involves some precision soldering, but is otherwise quite easy!

Read the bill of materials, follow the steps and create your Buzzing Mindfulness Bracelet on Adafruit.

12 Tools We Can’t Live Without for Making Wearables

At the Social Body Lab we’re always on the hunt for the best tools for prototyping wearable electronics projects. Here are some of our favorites from 2014. LilyTiny + LED Strings A great shortcut for those who want some dynamic light patterns but don’t want to fuss with programming, Sparkfun’s LilyTiny board […]

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New Project: Make an EEG Beanie That Reads Your Mind

     Time required: A weekend Cost: $100 — $130 Ever wanted to visualize your brain activity? Electroencephalography (EEG) uses electrodes placed against the scalp to detect the tiny electrical changes that occur when neurons fire. By amplifying these signals through a computer, you can observe brain activity in real-time. Using an […]

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MAKE » Arduino 23 Jan 22:00

An Illustrated Guide to Wearable Components

Bodies aren’t static, they don’t have straight lines, and after a while they tend to get dirty. So wearable systems embedded in garments and accessories have to be robust, flexible, and, ideally, washable (or at least removable). Here’s a look under the hood — or hoodie, as it were — at the main components of wearable devices.

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MAKE » Arduino 14 Jan 18:55

Arduino sensors let ballerinas 'paint' with their pointes

What if you could paint with your shoes? Electronic Traces is a pair ballet pointe shoes that sends a dancer's movements to a nearby smartphone. Using Lilypad Arduinos, they record pressure and movement whenever they touch the ground. This data can then be visualized by an accompanying app, allowing dancers to view their performances after the fact, or compare them to others'.

Filed under: Wearables

Comments

Via: Prosthetic Knowledge, Make

Source: Lesia Trubat

Tags: arduino, ballet, elisava, lesia trubat, lilypad arduino, pointe, pointe shoes, pointe technique

Engadget 10 Nov 11:19
wearables  

Arduino sensors let ballerinas 'paint' with their pointes

What if you could paint with your shoes? Electronic Traces is a pair ballet pointe shoes that sends a dancer's movements to a nearby smartphone. Using Lilypad Arduinos, they record pressure and movement whenever they touch the ground. This data can then be visualized by an accompanying app, allowing dancers to view their performances after the fact, or compare them to others'.

Filed under: Wearables

Comments

Via: Prosthetic Knowledge, Make

Source: Lesia Trubat

Tags: arduino, ballet, elisava, lesia trubat, lilypad arduino, pointe, pointe shoes, pointe technique

Engadget 10 Nov 11:19
wearables  

Arduino sensors let ballerinas 'paint' with their pointes

What if you could paint with your shoes? Electronic Traces is a pair ballet pointe shoes that sends a dancer's movements to a nearby smartphone. Using Lilypad Arduinos, they record pressure and movement whenever they touch the ground. This data can then be visualized by an accompanying app, allowing dancers to view their performances after the fact, or compare them to others'.

Filed under: Wearables

Comments

Via: Prosthetic Knowledge, Make

Source: Lesia Trubat

E-Traces: Ballet Slippers That Make Drawings From The Dancer’s Movements

See the big picture when it comes to dance moves with an ingenious piece of wearable electronics by designer Lesia Trubat González called E-Traces.

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Announcing a wearable collaboration with Adafruit: Arduino Gemma

Arduino Gemma preview – Final board coming late autumn

During his saturday morning presentation at Maker Faire Rome, Massimo Banzi gave a preview of a new collaboration and a new board: Adafruit Gemma becomes officially Arduino Gemma, a tiny but powerful wearable microcontroller board in a 27mm diameter package.

Powered by an Attiny85 and programmable with the Arduino IDE over USB, anyone will be able to easily create wearable projects with all the advantages of being part of the Arduino family. The board will be default-supported in the Arduino IDE, equipped with an on/off switch and a microUSB connector.

 

 

 

 

 

The Attiny85 is a great processor because despite being so small, it has 8K of flash and 5 I/O pins, including analog inputs and PWM ‘analog’ outputs. It was designed with a USB bootloader so you can plug it into any computer and reprogram it over a USB port (it uses 2 of the 5 I/O pins, leaving you with 3). Ideal for small & simple projects sewn with conductive thread, the Arduino Gemma fits the needs of most of entry-level wearable creations including reading sensors and driving addressable LED pixels.
After the fruitful joint effort developing Arduino Micro, once more the Arduino Gemma has been developed in collaboration with Adafruit Industries, one of the main leaders of the Maker movement. Arduino Gemma will be available for purchase on the Arduino Store and Adafruit Industries starting late autumn 2014.

Technical specifications:
Microcontroller: ATtiny85
Operating Voltage: 3.3V
Input Voltage (recommended): 4-16V via battery port
Input Voltage (limits): 3-18V
Digital I/O Pins: 3
PWM Channels: 2
Analog Input Channels: 1
DC Current per I/O Pin: 40 mA
DC Current for 3.3V Pin: 150 mA
Flash Memory: 8 KB (ATtiny85) of which 2.5 KB used by bootloader
SRAM: 0.5 KB (ATtiny85)
EEPROM: 0.5 KB (ATtiny85)
Clock Speed: 8 MHz
MicroUSB for USB Bootloader
JST 2-PH for external battery