Nanomembranes for Cell Scaffolding and Bio‐Analyses

Wu, Yue; You, Chunyu; Ke, Xinyi; Xu, Borui; Mei, Yongfeng

doi:10.1002/9783527813933.ch7

Cited by 1 publication

(1 citation statement)

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“…These nanomembranes can find extensive use in areas such as tissue engineering, biosensing, bioimaging, biorobotics, and regenerative medicine. 62 For instance, nanomembranes can serve as cell scaffolds, 63 providing a suitable environment for encapsulating and guiding cell growth. Moreover, they enable the detection and monitoring of cell behavior, facilitating research in cellular biology and tissue engineering.…”

Section: Discussionmentioning

confidence: 99%

Polymer-Based Fabrication of 2D Metallic and Ceramic Nanomaterials

Yao,

Zhu,

Teng

et al. 2024

Acc. Mater. Res.

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Metrics & MoreArticle RecommendationsCONSPECTUS: Since the ground-breaking achievement of successfully exfoliating singlelayer graphene in 2004, there has been significant and rapid development in the field of twodimensional (2D) nanomaterials. In the field of materials science, 2D nanomaterials are defined as freestanding nanomembranes with a thickness below 100 nm and other lateral dimensions that can extend to the millimeter scale or beyond. These materials exhibit exceptional mechanical, physical, and chemical properties due to their extremely high surface area to volume ratios, surpassing those of their bulk counterparts. As a result, numerous topdown and bottom-up methods have emerged over the past decades to synthesize novel 2D nanomaterials, catering to diverse applications. In this Account, we review the existing topdown methods, such as mechanical compression and mechanical exfoliation, as well as bottomup methods including hydrothermal induction/solvothermal synthesis, chemical vapor deposition synthesis, etc. We critically discuss the advantages and limitations of each method. Subsequently, we highlight our recently developed method known as polymer surface buckling enabled exfoliation (PSBEE). Unlike previous synthesis techniques, PSBEE is based on the chemical reaction between metals and polymers to fabricate 2D nanomaterials with unique nanostructures. This approach offers a simple, efficient, cost-effective, and environmentally friendly means of achieving large-scale production of 2D nanomaterials, featuring an extremely high lateral size to thickness ratio ranging from 10 6 to 10 7 . Notably, PSBEE eliminates the need for chemical etching and enables precise control over the morphology of the synthesized nanomaterials, allowing for transitions from 2D nanomembranes to 1D nanotubes. Through thermal annealing, some of the PSBEE-fabricated 2D nanomaterials, such as 2D gold nanomaterials, can undergo pyrolysis and transform into 0D gold nanoparticles. Furthermore, the versatility of PSBEE extends beyond 2D metallic nanomaterials to the synthesis of 2D ceramic nanomaterials, showcasing its broad applicability across diverse material systems. The unique nanostructures of PSBEE-fabricated 2D nanomaterials, usually featuring a network of nanosized ceramics and metals, contribute to their exceptional mechanical and functional properties. These include an outstanding elastic strain limit, superb strength, remarkable plasticity, superior fracture toughness, high electrocatalytic properties, and unique triboelectric performance. Consequently, these properties lead to novel applications of the PSBEE-fabricated nanomaterials, such as triboelectric sensing and 2D electrocatalysis. At the same time, the PSBEE method also offers notable advantages in terms of scalable production, high throughput efficiency, and low energy consumption, making it highly suitable for future industrial applications. In general, polymer-based fabrication of 2D nanomaterials opens up possibilities for producing diverse and technologica...

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Section: Discussionmentioning

confidence: 99%