Qingze Huo, John A Rogers, Kyung-In Jang, Yonggang Huang, Yihui Zhang, Young Min Song, Chi Hwan Lee, Daeshik Kang, Seungyong Han, Hyeong Min Jin, Nuri Oh, Jeonghyun Kim, Anthony Banks, Bowen Ji, Di Wu, Seunghwan Min, Bong Hoon Kim, Xueju Wang, Fei Liu, Jong Yoon Lee, Kun Hyuck Lee, Do Hoon Kim, Arin Ryu, Yechan Lee, Ji Yoon Jeong, Hokyung Jang, Youn Kyoung Cho, Yongjoon Yu, Jan-Kai Chang, Zhaoqian Xie, Sang Min Won, Jungyup Lee
Journal: ACS nano 2019;12(5):4164-4171
PMID: 29641889
Recently developed approaches in deterministic assembly allow for controlled, geometric transformation of two-dimensional structures into complex, engineered three-dimensional layouts. Attractive features include applicability to wide ranging layout designs and dimensions along with the capacity to integrate planar thin film materials and device layouts. The work reported here establishes further capabilities for directly embedding high-performance electronic devices into the resultant 3D constructs based on silicon nanomembranes (Si NMs) as the active materials in custom devices or microscale components released from commercial wafer sources. Systematic experimental studies and theoretical analysis illustrate the key ideas through varied 3D architectures, from interconnected bridges and coils to extended chiral structures, each of which embed n-channel Si NM MOSFETs (nMOS), Si NM diodes, and p-channel silicon MOSFETs (pMOS). Examples in stretchable/deformable systems highlight additional features of these platforms. These strategies are immediately applicable to other wide-ranging classes of materials and device technologies that can be rendered in two-dimensional layouts, from systems for energy storage, to photovoltaics, optoelectronics, and others.
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