4.7 Article

Remarkable promotion effect of lauric acid on Mn-MIL-100 for non-thermal plasma-catalytic decomposition of toluene

Journal

APPLIED SURFACE SCIENCE
Volume 503, Issue -, Pages -

Publisher

ELSEVIER
DOI: 10.1016/j.apsusc.2019.144290

Keywords

Non-thermal plasma-catalysis; Mn-MIL-100 material; Lauric acid modulation; Toluene; Decomposition performance

Funding

  1. National Natural Science Foundation of China [21677114, 21876139, 21922606]
  2. Key RAMP
  3. D Program of Shaanxi Province [2019SF-244, 2019ZDLSF05-0502]
  4. Shaanxi Natural Science Fundamental Shaanxi Coal Chemical Joint Fund [2019JLM-14]
  5. National Key RAMP
  6. D Program of China [2016YFC0204201]
  7. Fundamental Research Funds for the Central Universities [xjj2017170]
  8. Innovation Capability Support Program of Shaanxi [2018PT-28, 2017KTPT-04]
  9. K.C. Wong Education Foundation

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Here, lauric acid (LA) with a remarkable tailoring property of pore structure and porosity was adopted as modulator for the synthesis of Mn-MIL-100. Results reveal that LA amount has a significant effect on the morphology, crystal size and porous structure of prepared materials. The synthesized catalysts were coupled with a dielectric barrier discharge reactor to improve toluene decomposition performance. We found that the introduction of catalysts can remarkably enhance toluene removal efficiency (TRE), CO2/CO3, selectivity and energy yield (EY), and simultaneously inhibit the generation of O-3 and NOx compared with the non-thermal plasma (NTP) system as the presence of catalysts with developed hierarchical porous structure and well-dispersed crystal particle provides abundant adsorbed centers and active sites for surface reactions. Amongst, LA-8 sample shows the best catalytic performance with TRE, CO2 and COx selectivity of 94.7%, 44.9% and 92.4%, respectively (specific energy density (SED) of 473 J L-1), much higher than the NTP system (respectively; 63.3%, 34.2% and 73.6%). Moreover, the EY of NTP-Catalysis system (5.19 g kWh(-1)) is also obviously higher than that of single NTP (1.94 g kWh(-1)) at SED of 262 J L-1. This work paves a way for application of MOFs in NTP-Catalysis system for VOC decomposition.

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