Giono et les Méditerranées: rencontre autour de Juan Ramón Jiménez, D. Bonnet, A.-A. Morello

Abstract

Questo documento è stato generato automaticamente il 18 settembre 2020. Studi Francesi è distribuita con Licenza Creative Commons Attribuzione-Non commerciale-Non opere derivate 4.0 Internazionale.

Three-Dimensional Printing of a Complete Lithium Ion Battery with Fused Filament Fabrication

“…These manufacturing technologies alleviate inherent form factor restrictions by creating small or thin batteries that can conform to the surface of an object. , On the other hand, structural batteries increase the energy and power density of the entire system by serving as a multifunctional structural component . Examples of structural batteries include reinforced electrode composites for use as body panels for electric vehicles and unmanned aerial vehicles. − ,− Other structural battery work integrates commercially available LIBs into a cavity in a panel that is then used as a multifunctional, structural component of a spacecraft or satellite. ,− Although there have been many recent advances in the creation of unconventional battery form factors, most prototype fabrication methods are limited to curved or flat surfaces. − ,− …”

“…Three-dimensional printing enables the creation of complex 3D objects as well as rapid changes in the design without requiring modifications to the manufacturing process. Incorporating conductive materials into the 3D printing process can even enable the creation of structural devices with integrated electronics. − For example, the Voxel8, a multimaterial 3D printer developed by a Lewis et al, is capable of producing functional electronic devices, such as quadcopters and watches, by using a combination of fused filament fabrication (FFF) and conductive inks to wire circuit components embedded in a 3D printed object . However, these 3D printed electronics must still be designed around conventional batteries, restricting the ability of designers to create a product in any shape or form.…”