E3D: Harvesting Energy from Everyday Kinetic Interactions Using 3D Printed Attachment Mechanisms
Article No.: 84, Pages 1 - 31
Abstract
The increase of distributed embedded systems has enabled pervasive sensing, actuation, and information displays across buildings and surrounding environments, yet also entreats huge cost expenditure for energy and human labor for maintenance. Our daily interactions, from opening a window to closing a drawer to twisting a doorknob, are great potential sources of energy but are often neglected. Existing commercial devices to harvest energy from these ambient sources are unaffordable, and DIY solutions are left with inaccessibility for non-experts preventing fully imbuing daily innovations in end-users. We present E3D, an end-to-end fabrication toolkit to customize self-powered smart devices at low cost. We contribute to a taxonomy of everyday kinetic activities that are potential sources of energy, a library of parametric mechanisms to harvest energy from manual operations of kinetic objects, and a holistic design system for end-user developers to capture design requirements by demonstrations then customize augmentation devices to harvest energy that meets unique lifestyle.
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- E3D: Harvesting Energy from Everyday Kinetic Interactions Using 3D Printed Attachment Mechanisms
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Published: 27 September 2023
Published in IMWUT Volume 7, Issue 3
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