Integrating superconducting van der Waals materials on paper substrates
arXiv:2105.03487 · doi:10.1039/D1MA00118C
Abstract
Paper has the potential to dramatically reduce the cost of electronic components. In fact, paper is 10 000 times cheaper than crystalline silicon, motivating the research to integrate electronic materials on paper substrates. Among the different electronic materials, van der Waals materials are attracting the interest of the scientific community working on paper-based electronics because of the combination of high electrical performance and mechanical flexibility. Up to now, different methods have been developed to pattern conducting, semiconducting and insulating van der Waals materials on paper but the integration of superconductors remains elusive. Here, the deposition of NbSe2, an illustrative van der Waals superconductor, on standard copy paper is demonstrated. The deposited NbSe2 films on paper display superconducting properties (e.g. observation of Meissner effect and resistance drop to zero-resistance state when cooled down below its critical temperature) similar to those of bulk NbSe2.
arXiv comment6 figures in main text, 8 figures in Supp. Info
References in corpus (10)
- Strongly enhanced charge-density-wave order in monolayer NbSe
- Characterization of collective ground states in single-layer NbSe2
- Water-based and Biocompatible 2D Crystal Inks: from Ink Formulation to All- Inkjet Printed Heterostructures
- Low-voltage 2D materials-based printed field-effect transistors for integrated digital and analog electronics on paper
- Unusual suppression of the superconducting energy gap and critical temperature in atomically thin NbSe2
- Spectroscopy of bulk and few-layer superconducting NbSe with van der Waals tunnel junctions
- Inkjet Printed 2D-Crystal Based Strain Gauges on Paper
- MoS-on-paper optoelectronics: drawing photodetectors with van der Waals semiconductors beyond graphite
- Integrating van der Waals materials on paper substrates for electrical and optical applications
- Magnetoresistance Anisotropy in Amorphous Superconducting Thin Films: A Site-Bond Percolation Approach