95 - 100 |
HIGH-EFFICIENCY TECHNOLOGY FOR OIL SHALE PROCESSING Volkov EP |
101 - 116 |
GEOCHEMICAL INVESTIGATION OF LACUSTRINE OIL SHALE IN THE LUNPOLA BASIN (TIBET): IMPLICATIONS FOR PALEOENVIRONMENT AND PALEOCLIMATE Sun T, Wang CS, Li YL, Wang LC, He JL |
117 - 135 |
GEOCHEMICAL CHARACTERISTICS OF HIGH-QUALITY HYDROCARBON SOURCE ROCKS IN THE NANPU SAG OF THE BOHAI BAY BASIN, CHINA Zhu GY, Wang ZJ, Su J |
136 - 146 |
OIL SHALE PYROLYSIS AND EFFECT OF PARTICLE SIZE ON THE COMPOSITION OF SHALE OIL Khalil AM |
147 - 156 |
APPLICATION OF HIGH-LOW BED CFB COMBUSTION TECHNOLOGY TO OIL SHALE COMBUSTION Wang Q, Liu HP, Bai JR, Qin H, Yang W |
157 - 172 |
STUDY OF THE COMBUSTION MECHANISM OF OIL SHALE SEMI-COKE WITH RICE STRAW BASED ON GAUSSIAN MULTI-PEAK FITTING AND PEAK-TO-PEAK METHODS Wang Q, Wang XD, Liu HP, Jia CX |
173 - 183 |
SHALE HOLD TIME FOR OPTIMUM OIL SHALE RETORTING INSIDE A BATCH-LOADED FLUIDIZED-BED REACTOR Shawabkeh AQ, Al-Naafa MA |
184 - 192 |
HEAT CAPACITY OF KUKERSITE OIL SHALE: LITERATURE OVERVIEW Savest N, Oja V |