Latest from Industrial

ID 111118982 © Korn Vitthayanukarun | Dreamstime.com
pcie_dreamstime_l_111118982
ID 153085892 © Wellphotos | Dreamstime.com
robotarm_dreamstime_l_153085892
Dreamstime_Monsit-Jangariyawong_117103442
dreamstime_monsitjangariyawong_117103442
ID 87787174 © Mark Andrews | Dreamstime.com
robot_arm_dreamstime_l_87787174
Dreamstime_Alexander-Mironov_5248764 and Microchip
dreamstime_alexandermironov_5248764
Tony Vitolo/Electronic Design
promo1920x1080
Dreamstime_artemegorov_102780563
663d0e10d9073870a29219f2 Dreamstime Artemegorov 102780563

Carbon-Based Components: A Solution for Sustainability? (Download)

May 9, 2024

Read this article online.

This story of future electronic component materials begins in the distant past. Consider the Stone Age that lasted for millions of years, when mankind was limited to tools made of, well, stone. Just a few thousand years ago, the Bronze Age brought in metalworking using copper and tin. What followed in the relatively more modern Iron Age was basically iron alloyed with carbon to make steel. These phases of early technology have very short bills of material.

Fast forward to today, where microelectronics is based on complex thin films that are typically, but not exclusively, on silicon substrates. These devices may incorporate dozens of chemical elements and many more chemical compounds. One such list that covers just semiconductor materials, compound materials, and alloys made of between one and four chemical elements numbers over 100. The necessary peripheral components like passives and interconnect add even more.