Additive and Laser Manufacturing for Multifunctional Electronics on High‐Performance Polymers

Laser‐induced graphene (LIG) is a novel multifunctional material fabricated from a single‐step laser scribing process on a variety of polymers. LIG electronics display exceptional conducting, heating, and sensing properties, which are desirable for customizable circuits within 3D‐printed structures....

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Main Authors: Joshua Vandervelde, Yeowon Yoon, Rifat Shahriar, Stephen B. Cronin, Yong Chen
Format: Article
Language:English
Published: Wiley-VCH 2025-06-01
Series:Small Science
Subjects:
Online Access:https://doi.org/10.1002/smsc.202500022
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author Joshua Vandervelde
Yeowon Yoon
Rifat Shahriar
Stephen B. Cronin
Yong Chen
author_facet Joshua Vandervelde
Yeowon Yoon
Rifat Shahriar
Stephen B. Cronin
Yong Chen
author_sort Joshua Vandervelde
collection DOAJ
description Laser‐induced graphene (LIG) is a novel multifunctional material fabricated from a single‐step laser scribing process on a variety of polymers. LIG electronics display exceptional conducting, heating, and sensing properties, which are desirable for customizable circuits within 3D‐printed structures. However, the properties of LIG on high‐performance additive manufacturing (AM) materials, such as polyetherimide (PEI, trade name Ultem) and polyether ether ketone (PEEK), have not been thoroughly investigated. In this study, LIG is scribed by a blue laser on pure and 3D‐printed PEI and PEEK. Remarkably, the LIG's electrical performances represent several of the lowest sheet resistances reported on PEI‐ and PEEK‐derived LIG to date. These minimal values (1.02 Ω sq−1) and their high conductivities (45.4 S cm−1) are also among the best electrical characteristics studied on any LIG precursor. The versatility of LIG electronics for AM is further demonstrated on 3D‐printed specimens with laser‐scribed heaters and strain gauges. LIG heaters show impressive operating ranges and excellent electrothermal properties; LIG strain gauges exhibit large gauge factors and minimal drift. In these findings, an effective approach to fabricate facile electronics in AM structures by integrating additive and laser manufacturing processes is presented.
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issn 2688-4046
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publisher Wiley-VCH
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spelling doaj-art-048b02177aef4822aada899c79e5b3f72025-08-20T02:39:40ZengWiley-VCHSmall Science2688-40462025-06-0156n/an/a10.1002/smsc.202500022Additive and Laser Manufacturing for Multifunctional Electronics on High‐Performance PolymersJoshua Vandervelde0Yeowon Yoon1Rifat Shahriar2Stephen B. Cronin3Yong Chen4Center for Advanced Manufacturing University of Southern California Los Angeles CA 90007 USACenter for Advanced Manufacturing University of Southern California Los Angeles CA 90007 USADepartment of Electrical Engineering University of Southern California Los Angeles CA 90089 USADepartment of Electrical Engineering University of Southern California Los Angeles CA 90089 USACenter for Advanced Manufacturing University of Southern California Los Angeles CA 90007 USALaser‐induced graphene (LIG) is a novel multifunctional material fabricated from a single‐step laser scribing process on a variety of polymers. LIG electronics display exceptional conducting, heating, and sensing properties, which are desirable for customizable circuits within 3D‐printed structures. However, the properties of LIG on high‐performance additive manufacturing (AM) materials, such as polyetherimide (PEI, trade name Ultem) and polyether ether ketone (PEEK), have not been thoroughly investigated. In this study, LIG is scribed by a blue laser on pure and 3D‐printed PEI and PEEK. Remarkably, the LIG's electrical performances represent several of the lowest sheet resistances reported on PEI‐ and PEEK‐derived LIG to date. These minimal values (1.02 Ω sq−1) and their high conductivities (45.4 S cm−1) are also among the best electrical characteristics studied on any LIG precursor. The versatility of LIG electronics for AM is further demonstrated on 3D‐printed specimens with laser‐scribed heaters and strain gauges. LIG heaters show impressive operating ranges and excellent electrothermal properties; LIG strain gauges exhibit large gauge factors and minimal drift. In these findings, an effective approach to fabricate facile electronics in AM structures by integrating additive and laser manufacturing processes is presented.https://doi.org/10.1002/smsc.202500022additive manufacturingsheaterslaser‐induced graphenespolyether ether ketonespolyetherimidesstrain sensors
spellingShingle Joshua Vandervelde
Yeowon Yoon
Rifat Shahriar
Stephen B. Cronin
Yong Chen
Additive and Laser Manufacturing for Multifunctional Electronics on High‐Performance Polymers
Small Science
additive manufacturings
heaters
laser‐induced graphenes
polyether ether ketones
polyetherimides
strain sensors
title Additive and Laser Manufacturing for Multifunctional Electronics on High‐Performance Polymers
title_full Additive and Laser Manufacturing for Multifunctional Electronics on High‐Performance Polymers
title_fullStr Additive and Laser Manufacturing for Multifunctional Electronics on High‐Performance Polymers
title_full_unstemmed Additive and Laser Manufacturing for Multifunctional Electronics on High‐Performance Polymers
title_short Additive and Laser Manufacturing for Multifunctional Electronics on High‐Performance Polymers
title_sort additive and laser manufacturing for multifunctional electronics on high performance polymers
topic additive manufacturings
heaters
laser‐induced graphenes
polyether ether ketones
polyetherimides
strain sensors
url https://doi.org/10.1002/smsc.202500022
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AT yeowonyoon additiveandlasermanufacturingformultifunctionalelectronicsonhighperformancepolymers
AT rifatshahriar additiveandlasermanufacturingformultifunctionalelectronicsonhighperformancepolymers
AT stephenbcronin additiveandlasermanufacturingformultifunctionalelectronicsonhighperformancepolymers
AT yongchen additiveandlasermanufacturingformultifunctionalelectronicsonhighperformancepolymers