@article { ISI:000252563300006,
	title = {Selective oxidation of ethane over Mo-V-Al-O oxide catalysts: insight to the factors affecting the selectivity of ethylene and acetic acid and structure-activity correlation studies},
	journal = {Catalysis Letters},
	volume = {121},
	number = {1-2},
	year = {2008},
	month = {FEB},
	pages = {39-51},
	publisher = {SPRINGER},
	address = {233 SPRING STREET, NEW YORK, NY 10013 USA},
	abstract = {<p>Catalysts of general formula, MoVAlOx were prepared with the initial elemental composition of 1:0.34:0.167 (Mo:V:Al) at a pH value in the range of 1-4. The elemental analysis showed that the final composition of the catalysts is pH dependant. The performance of the catalysts was tested for selective oxidation of ethane to give ethylene and acetic acid. While all of them were active for ethane oxidation with a moderate conversion, the catalyst prepared at pH 2 showed a highest activity with 23\% ethane conversion and a combined selectivity of 80.6\% to ethylene and acetic acid. The catalyst prepared at pH 4 was least selective to ethylene and acetic acid. Various techniques like powder XRD, SEM, Raman, UV-Vis and EPR were used to characterize the catalysts and to identify the active phases responsible for the selective oxidation of ethane. The powder XRD data showed that the catalysts prepared at pH 1 and 2 contain mainly of MoO3 and MoV2O8 along with traces of Mo4O11. The amount of MoO3 was slightly higher in the catalyst prepared at pH 1. However, the catalyst prepared at pH 3 contains mainly of MoV2O8 with no trace of MoO3. The catalyst prepared at pH 4 showed V2O5 as the major phase along with MoVAlO4 phase. The Raman data corroborated the XRD results. EPR and UV-Vis studies indicated the presence of traces of V-4 in pH 1 and 2 catalysts and significant amount of Mo5+ in all the catalysts. Thus, the high activity and selectivity to ethylene and acetic acid are attributed to the presence of MoV2O8 phase and other reduced species like Mo4O11 phase supported on MoO3. The presence of V and Mo ions in a partially reduced form seems to play a crucial role in the selective oxidation of ethane.</p>},
	keywords = {Acetic acid, ethane, Ethylene, mixed metal oxide, Selective oxidation},
	issn = {1011-372X},
	doi = {10.1007/s10562-007-9289-0},
	author = {Sankaranarayanan, T. M. and Ingle, Rohit H. and Gaikwad, T. B. and Lokhande, S. K. and Raja, T. and Devi, R. N. and Ramaswamy, V. and Manikandan, Palanichamy}
}
@article {45614,
	title = {Squaraine-linked metalloporphyrin two-dimensional polymer photocatalyst for hydrogen and oxygen evolution reactions},
	journal = {Chemical Communications},
	volume = {55},
	year = {2019},
	month = {JAN},
	pages = {1627-1630},
	type = {Article},
	abstract = {Efficient water splitting photocatalysts are an energetically demanding and cost-effective method for generating renewable energy. Significant research has been reported to advance this approach. However, the use of organic photocatalysts and the presence of residual catalysts trapped in the porous frameworks present major concerns about the efficiency of this strategy. Herein, we report the photocatalytic evolution of H2 and O2 by a multi-hydroxyl group-decorated metalloporphyrin-based two-dimensional catalyst developed via metal catalyst-free synthetic route. Though metalloporphyrins have long been used for catalytic functions, a heterogeneous photocatalyst delivering both H2 and O2 has not yet been realized. This polymer catalyst design enables the photocatalytic diatomic O2 release, a bottleneck in water splitting, in a facile way. Photocatalytic release of H2 as well as O2 occurs with long-term durability of 20 cycles in 300 days with negligible decrease in efficiency, thus demonstrating the excellent performance of this new catalyst.},
	doi = {10.1039/C8CC09132C},
	author = {Ranjeesh, K. C. and George, L. and Wakchaure, V. C. and Goudappagouda and Devi, R. N. and Babu, S. S.}
}
