1 |
Direct Conversion of Biomass Carbohydrates to Platform Chemicals: 5-Hydroxymethylfurfural (HMF) and Furfural Mittal A, Pilath HM, Johnson DK Energy & Fuels, 34(3), 3284, 2020 |
2 |
Modelling solids friction for fluidized dense-phase pneumatic conveying Sharma K, Mallick SS, Mittal A, Wypych P Particulate Science and Technology, 38(4), 391, 2020 |
3 |
A study of energy loss due to particle to particle and wall collisions during fluidized dense-phase pneumatic transport Sharma K, Mallick SS, Mittal A Powder Technology, 362, 707, 2020 |
4 |
An agent-based approach to modeling zero energy communities Mittal A, Krejci CC, Dorneich MC, Fickes D Solar Energy, 191, 193, 2019 |
5 |
Stability and phase space analysis of fluidized-dense phase pneumatic transport system Kaur B, Mittal A, Jana S, Mallick SS, Wypych P Powder Technology, 330, 190, 2018 |
6 |
On developing improved modelling for particle velocity and solids friction for fluidized dense-phase pneumatic transport systems Sharma K, Mallick SS, Mittal A, Pan RH Powder Technology, 332, 41, 2018 |
7 |
On developing improved modelling and scale-up procedures for pneumatic conveying of fine powders Kaur B, Mittal A, Wypych P, Mallick SS, Jana S Powder Technology, 305, 270, 2017 |
8 |
Manganese-cobalt mixed oxide film as a bifunctional catalyst for rechargeable zinc-air batteries Davari E, Johnson AD, Mittal A, Xiong M, Ivey DG Electrochimica Acta, 211, 735, 2016 |
9 |
Direct Production of Propene from the Thermolysis of Poly(beta-hydroxybutyrate) (PHB). An Experimental and DFT Investigation Clark JM, Pilath HM, Mittal A, Michener WE, Robichaud DJ, Johnson DK Journal of Physical Chemistry A, 120(3), 332, 2016 |
10 |
An investigation into the transition of flow mechanism during fluidized dense-phase pneumatic conveying of fine powders Mittal A, Mallick SS, Wypych PW Particulate Science and Technology, 34(1), 23, 2016 |