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  • Solar T-shirt II
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  • Stretch Sensitive Bracelet
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  • Wearable Sound Experiment
  • Wearable Toy Piano
  • Wearable Waste of Energy
  • Wireless JoySlippers
  • Wireless Tilt Sensing Bracelet

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  • anti-static arduino battery bend button circuit Communication component conductive Conductive Materials conductive thread connection crochet eeonyx example project fabric input knit material metal neoprene Non-Conductive Materials piano pouch power pressure resistive sensor Sensors solder solution sound stretch stretch conductive fabric t-shirt thread tilt tool trace velostat wearable wireless workshop Xbee yarn
    Content by Mika Satomi and Hannah Perner-Wilson


    Hannah is currently a graduate student in the MIT Media Lab's
    High-Low Tech research group


    Supported by Distance Lab

    Wearable Waste of Energy

    Sew together various soft electronic components to turn your favorite clothing item into a wearable waste of energy!

    Resistive Rubbers

    Conductive rubbers can be used for pressure, bend and stretch sensors. Because of their materiality they offer a nice haptic feedback, without the need for other squishy materials.

    JoySlippers

    A pair of slippers for drawing, playing games and exploring alternative input. These slippers are designed with two pressure sensors embedded in each sole and can sense the weight being shifted between the toe and heel of each foot. This information is fed into a computer where a drawing application translates this analog input into [...]

    Wireless JoySlippers

    This is the wireless version of the origianally wired JoySlippers. Using Xbee Direct (Multipul Xbee - Xbee- comp) communication connection, rather than spiral telephone cable.

    Sensitive Fingertips

    Intended for use by children and their piano teachers to visualize the difference between “p” piano (soft) and “f” forte (hard). The pressure sensitive layers of fabric in the fingertips of these gloves are stretchy so that they can fit tightly.

    Stickytape Sensors

    These sensors measure pressure and can also be designed and placed to measure bend. They work on the simple principal that Velostat reacts to pressure with a decrease in electrical resistance. When sandwiched between two conductive layers, this change in resistance can be easily measured and used as an indication of how much pressure is [...]

    Simple Fabric Pressure Sensors

    Variations of very simple fabric pressure sensors made from various resistive fabrics sandwiched between conductive layers. This is an ongoing experimentation. Similar to the neoprene Bend and Pressure Sensors and the Stickytape Sensors, these also make use of the resistive changes of various materials under pressure. Variations in pressure sensitivity and stability can be achieved [...]

    Neoprene Pressure Sensor Matrix

    Four separate pressure sensors not only give feedback about where I’m pressing, but also how hard.

    Neoprene Pressure Sensor

    also: neoprene pressure sensor, conductive thread Pressure Sensor
    Stitching conductive thread into neoprene to create a pressure sensitive pad. This sensor is very similar to the Fabric bend sensor or vis-versa. And also close to the Fabric Pressure Sensor, but the difference is that the conductive surface is minimized by stitching only a few stitches on [...]

    Fabric JoyPad

    This joypad is made up of four conductive thread pressure sensors. The analog transition between the directions (up, right, down and left) comes from the buffering material (in this case 3 cm thick squishy packing material) that absorbs and spreads the pressure from the user’s pushing, creating a gradual transition between the inputs.