Influence of elevated temperature and gas atmosphere on coke abrasion resistance. Part one: Pilot oven cokes

- Lomas, Hannah, Roest, Richard, Mahoney, Merrick R., Tahmasebi, Arash, Sakurovs, Richard, Wu, Hui, Jiang, Zhengyi, Khoshk Rish, Salman, Brooks, Brody, Hill, Tori, Anderson, Aaron, Edwards, Anthony

Influence of elevated temperature and gas atmosphere on coke abrasion resistance. Part two: Blast furnace cokes

- Lomas, Hannah, Roest, Richard, Sakurovs, Richard, Edwards, Anthony, Wu, Hui, Jiang, Zhengyi, Brooks, Brody, Mahoney, Merrick R., Tahmasebi, Arash

Using xenon K-edge subtraction to image the gas-accessible porosity distribution within metallurgical cokes and their partially reacted products

- Mayo, Sheridan, Sakurovs, Richard, Jenkins, David, Mahoney, Merrick

Comparison of a laboratory-scale coke and a pilot-scale coke from matched coal

- Lomas, Hannah, Roest, Richard, Wells, Adam, Thorley, Tizshauna, Wu, Hui, Jiang, Zhengyi, Sakurovs, Richard, Fetscher, Robert, Xing, Xing, Mahoney, Merrick R.

Estimating coke fracture toughness using acoustic emissions and changes in coefficient of friction during scratch testing

- Lomas, Hannah, Roest, Richard, Wells, Adam, Wu, Hui, Jiang, Zhengyi, Sakurovs, Richard, Stuart, Russell, North, Lauren, Thorley, Tizshauna, Mahoney, Merrick R.

Tribological testing of metallurgical coke: coefficient of friction and relation to coal properties

- Lomas, Hannah, Roest, Richard, Thorley, Tizshauna, Wells, Adam, Wu, Hui, Jiang, Zhengyi, Sakurovs, Richard, Wotherspoon, Sharna, Pearson, Richard A., Mahoney, Merrick R.