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Inkjet Printing of MoS 2
A simple and efficient inkjet printing technology is developed for molybdenum disulfide (MoS 2 ), one of the most attractive two‐dimensional layered materials. The technology effectively addresses critical issues associated with normal MoS 2 liquid dispersions (such as incompatible rheology, low con...
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Published in: | Advanced functional materials 2014-11, Vol.24 (41), p.6524-6531 |
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Language: | English |
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container_end_page | 6531 |
container_issue | 41 |
container_start_page | 6524 |
container_title | Advanced functional materials |
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creator | Li, Jiantong Naiini, Maziar M. Vaziri, Sam Lemme, Max C. Östling, Mikael |
description | A simple and efficient inkjet printing technology is developed for molybdenum disulfide (MoS
2
), one of the most attractive two‐dimensional layered materials. The technology effectively addresses critical issues associated with normal MoS
2
liquid dispersions (such as incompatible rheology, low concentration, and solvent toxicity), and hence can directly and reliably write uniform patterns of high‐quality (5–7 nm thick) MoS
2
nanosheets at a resolution of tens of micrometers. The technology efficiency facilitates the integration of printed MoS
2
patterns with other components (such as electrodes), and hence allows fabricating various functional devices, including thin film transistors, photoluminescence patterns, and photodetectors, in a simple, massive and cost‐effective manner while retains the unique properties of MoS
2
. The technology has great potential in a variety of applications, such as photonics, optoelectronics, sensors, and energy storage. |
doi_str_mv | 10.1002/adfm.201400984 |
format | article |
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2
), one of the most attractive two‐dimensional layered materials. The technology effectively addresses critical issues associated with normal MoS
2
liquid dispersions (such as incompatible rheology, low concentration, and solvent toxicity), and hence can directly and reliably write uniform patterns of high‐quality (5–7 nm thick) MoS
2
nanosheets at a resolution of tens of micrometers. The technology efficiency facilitates the integration of printed MoS
2
patterns with other components (such as electrodes), and hence allows fabricating various functional devices, including thin film transistors, photoluminescence patterns, and photodetectors, in a simple, massive and cost‐effective manner while retains the unique properties of MoS
2
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2
), one of the most attractive two‐dimensional layered materials. The technology effectively addresses critical issues associated with normal MoS
2
liquid dispersions (such as incompatible rheology, low concentration, and solvent toxicity), and hence can directly and reliably write uniform patterns of high‐quality (5–7 nm thick) MoS
2
nanosheets at a resolution of tens of micrometers. The technology efficiency facilitates the integration of printed MoS
2
patterns with other components (such as electrodes), and hence allows fabricating various functional devices, including thin film transistors, photoluminescence patterns, and photodetectors, in a simple, massive and cost‐effective manner while retains the unique properties of MoS
2
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2
), one of the most attractive two‐dimensional layered materials. The technology effectively addresses critical issues associated with normal MoS
2
liquid dispersions (such as incompatible rheology, low concentration, and solvent toxicity), and hence can directly and reliably write uniform patterns of high‐quality (5–7 nm thick) MoS
2
nanosheets at a resolution of tens of micrometers. The technology efficiency facilitates the integration of printed MoS
2
patterns with other components (such as electrodes), and hence allows fabricating various functional devices, including thin film transistors, photoluminescence patterns, and photodetectors, in a simple, massive and cost‐effective manner while retains the unique properties of MoS
2
. The technology has great potential in a variety of applications, such as photonics, optoelectronics, sensors, and energy storage.</abstract><doi>10.1002/adfm.201400984</doi><tpages>8</tpages></addata></record> |
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title | Inkjet Printing of MoS 2 |
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