To address the high operating temperature of ammonia gas sensors, this study successfully constructs an NixC/ZnO-1 porous, flake-like heterojunction sensing component via a hydrothermal method, achieving room-temperature ammonia detection. Under room-temperature conditions, the fabricated NixC/ZnO-1 sensor demonstrates a response value of 7.20 to 100 ppm ammonia, representing 1.55- and 1.46-fold higher than those of pure NixC and ZnO sensors, respectively. Particularly, the NixC/ZnO-1 sensor demonstrates excellent selectivity toward 100 ppm ammonia, with the response to ammonia being at least 4.76-fold higher than those to other interfering gases. DFT simulations demonstrate that the NixC-decorated ZnO heterostructures exhibit an enhanced adsorption capacity for ammonia gas, with an adsorption energy reaching -1.99956 eV. And the NixC/ZnO-1 sensor also demonstrates excellent stability and repeatability, showing promising application prospects and offering feasible methodological strategies and technological routes with innovative thinking in the process of creating high-performance ammonia gas sensors under room temperature circumstance.
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Zhu et al. (Thu,) studied this question.
www.synapsesocial.com/papers/69d894526c1944d70ce0541b — DOI: https://doi.org/10.1039/d5nr04197j
Hongmin Zhu
Yuan Li
M. H. Dai
Nanoscale
Northeastern University
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