Egyptian oil shale from Wadii El-Nakhil, Red sea region was upgraded using enhanced gravity separation. The oil shale sample was characterized physically and chemically to determine its mineral content and characteristics. The sample includes quartz, siderite, apatite, anhydrite and calcite. The clay mineral is mainly represented by kaolinite while the organic matter is 30%. The ground sample (less than 50 microns) was classified into two fractions. The coarser was higher than 25 µm while the finer was less than 25 µm. The lower and upper levels of both the centrifugal force and water pressure have been suggested to construct the design for Falcon Concentrator type SB-40. The coarse concentrate of 42% kerogen with 94.35% recovery was achieved at 60 Hz (equivalent to G-force 176) and water pressure of 4 Psi from feed of 29% kerogen. The fine concentrate of 38.46% kerogen with 85.4% recovery was achieved at 70 Hz (equivalent to G-force 243) and water pressure of 2 Psi from feed of 33% kerogen.
| Published in | Industrial Engineering (Volume 1, Issue 1) |
| DOI | 10.11648/j.ie.20170101.11 |
| Page(s) | 1-7 |
| Creative Commons |
This is an Open Access article, distributed under the terms of the Creative Commons Attribution 4.0 International License (http://creativecommons.org/licenses/by/4.0/), which permits unrestricted use, distribution and reproduction in any medium or format, provided the original work is properly cited. |
| Copyright |
Copyright © The Author(s), 2024. Published by Science Publishing Group |
Oil Shale, Energy Minerals, Enhanced Gravity Separation, Kerogen, Falcon Concentrator
| [1] | Na J. G., Im C. H., Chung S. H. and Lee K. B., 2012, Effect of oil shale retorting temperature on shale oil yield and properties, Fuel, 95, 131–5 |
| [2] | Martins M. F., Salvador S., Thovert J. F. and Debenest G., 2010, Co-current combustion of oil shale-Part 1: characterization of the solid and gaseous products. Fuel, 89, 144–51 |
| [3] | Bhargava S., Awaja F. and Subasinghe N. D., 2005, Characterization of some Australian oil shale using thermal, X-ray and IR techniques, Fuel, 84, 707–15 |
| [4] | Chen S. B., Zhu Y. M., Wang H. Y., Liu H. L., Wei W. and Fang J. H., 2011, Shale gas reservoir characterization: a typical case in the southern Sichuan Basin of China. Energy, 36 (11) 6609-16 |
| [5] | Jiang X. M., Han X. X. and Cui Z. G., 2007, New technology for the comprehensive utilization of Chinese oil shale resources. Energy, 5 (32) 772-7 |
| [6] | Wang S., Jiang X., Han X. and Tong J., 2012, Investigation of Chinese oil shale resources comprehensive utilization performance, Energy 42 – 224-232. |
| [7] | Dolbear S. A., 1920, A method of concentrating oil shale. US patent: 2510983 |
| [8] | Parkingson M., 1982, New ways to process oil shale, Chem. Eng., 6: 3643. |
| [9] | Sun W., Ke L. and Sun L., 2013, Study of the application and mechanism of benzo hydroxamic acid in the flotation of cassiterite, Journal of China University of Mining & Technology, 42 (1): 62–8 |
| [10] | Luo E. and Hu Y., 2013, A study of non-Darcy transient flow in triple porosity media with low permeability reservoir, Journal of China University of Mining & Technology, 42(1):100–4 |
| [11] | Qiao K., 2013, Asynchronous fluctuation of coal enterprise management and stock yield. Journal of China University of Mining & Technology, 42(1):157–60. |
| [12] | Larson O. A., Schulta C. W. and Michaels E. L., 1981, Oil shale tar sand and related materials. In: ACS Symposium Series, Las Vegas. |
| [13] | Zhao F., Sun H. and Liu N., 2013, Evaluation of Soxhlet leaching experiment of acid producing potential of rock from coal bearing measures. Journal of China University of Mining & Technology, 42 (2): 214–20. |
| [14] | Mostafa R. and Younes M. A., 2001, Significance of organic matter in recording paleo environmental conditions of the Safa Formation coal sequence Maghara area, North Sinai, Egypt. Intern J Coal Geol, 47: 9–21. |
| [15] | Sunil Koppalkar, 2009, Effect of operating variables in Knelson concentrators: A pilot-scale study, Ph. D. Thesis, Faculty of Graduate Studies and research, Dept. of Mining and Materials Engineering, McGill University, Montreal. |
| [16] | Honaker R. Q., Wang D. and Hot K., 1996, Application of the falcon concentrator for fine coal cleaning, Minerals Engineering, 9, 11, 1143-1156. |
| [17] | Adams M. J., Awaja F., Bhargava S., Grocott S. and Romeo M., 2005, Prediction of oil yield from oil shale minerals using diffuse reflectance infrared Fourier transform spectroscopy, Fuel, 84, 1986–91 |
| [18] | Altun N. E., Hwang J. Y. and Hicyilmaz C., 2009, Enhancement of flotation performance of oil shale cleaning by ultrasonic treatment. Int. J. Miner. Process., 91, 1–13 |
| [19] | Al-Otoom A. Y., Shawabkeh R. A., Al-Harahsheh A.M. and Shawaqfeh A. T., 2005, The chemistry of minerals obtained from the combustion of Jordanian oil shale, Energy, 30, 611–9 |
| [20] | Sun Y., Bai F., Liu B., Liu Y., Guo M., Guo W., Wang Q., Lü X., Yang F. and Yang Y., 2014, Characterization of the oil shale products derived via topo-chemical reaction method, Fuel, 115, 338–346 |
| [21] | Yehia A., El-Hosiny F. I., Ibrahim S. S., Abdel Khalek M. A. and Amin R. A., 2017, Characteristics and Upgrading of Egyptian Oil Shale, Petroleum Science and Engineering, 2 (2): 30-36 |
| [22] | Sunil Koppalkar, 2009, Effect of operating variables in Knelson concentrators: A pilot-scale study, Ph. D. Thesis, Faculty of Graduate Studies and research, Dept. of Mining and Materials Engineering, McGill University, Montreal. |
| [23] | Douglas C. Montgomery, 2013, Design and Analysis of Experiments, 8th Ed., John Wiley & Sons Inc. |
| [24] | Gul Akar Sen, 2016, Application of Full Factorial Experimental Design and Response Surface Methodology for Chromite Beneficiation by Knelson Concentrator, Minerals, 5; doi:10.3390/min 6010005. |
| [25] | Aslan N., 2007, Application of response surface methodology and central composite rotatable design for modeling the influence of some operating variables of a Multi-Gravity Separator for coal cleaning, Fuel 86, 769 - 776. |
| [26] | Muhammad F., El Salmawy M. S., Abdelaala A.M. & Sameah S., 2011, El-Nakheil Oil Shale: Material characterization and Effect Of Acid Leaching, Oil Shale, Vol. 28, No. 4, pp. 528–547. |
| [27] | Sen S., 2010, Gold Recovery by KC from grinding circuit of Bergama CIP plant. Rem Rev. Esc. Minas, 63,539–545. |
APA Style
Ahmed Yehia, Fouad I. El-Hosiny, Suzan S. Ibrahim, Mohamed A. Abdel Khalek, Rasha Amin, et al. (2017). Upgrading of Egyptian Oil Shale Using Enhanced Gravity Separation. Industrial Engineering, 1(1), 1-7. https://doi.org/10.11648/j.ie.20170101.11
ACS Style
Ahmed Yehia; Fouad I. El-Hosiny; Suzan S. Ibrahim; Mohamed A. Abdel Khalek; Rasha Amin, et al. Upgrading of Egyptian Oil Shale Using Enhanced Gravity Separation. Ind. Eng. 2017, 1(1), 1-7. doi: 10.11648/j.ie.20170101.11
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Download@article{10.11648/j.ie.20170101.11,
author = {Ahmed Yehia and Fouad I. El-Hosiny and Suzan S. Ibrahim and Mohamed A. Abdel Khalek and Rasha Amin and Ahmed H. El-Menshawy},
title = {Upgrading of Egyptian Oil Shale Using Enhanced Gravity Separation},
journal = {Industrial Engineering},
volume = {1},
number = {1},
pages = {1-7},
doi = {10.11648/j.ie.20170101.11},
url = {https://doi.org/10.11648/j.ie.20170101.11},
eprint = {https://article.sciencepublishinggroup.com/pdf/10.11648.j.ie.20170101.11},
abstract = {Egyptian oil shale from Wadii El-Nakhil, Red sea region was upgraded using enhanced gravity separation. The oil shale sample was characterized physically and chemically to determine its mineral content and characteristics. The sample includes quartz, siderite, apatite, anhydrite and calcite. The clay mineral is mainly represented by kaolinite while the organic matter is 30%. The ground sample (less than 50 microns) was classified into two fractions. The coarser was higher than 25 µm while the finer was less than 25 µm. The lower and upper levels of both the centrifugal force and water pressure have been suggested to construct the design for Falcon Concentrator type SB-40. The coarse concentrate of 42% kerogen with 94.35% recovery was achieved at 60 Hz (equivalent to G-force 176) and water pressure of 4 Psi from feed of 29% kerogen. The fine concentrate of 38.46% kerogen with 85.4% recovery was achieved at 70 Hz (equivalent to G-force 243) and water pressure of 2 Psi from feed of 33% kerogen.},
year = {2017}
}
TY - JOUR T1 - Upgrading of Egyptian Oil Shale Using Enhanced Gravity Separation AU - Ahmed Yehia AU - Fouad I. El-Hosiny AU - Suzan S. Ibrahim AU - Mohamed A. Abdel Khalek AU - Rasha Amin AU - Ahmed H. El-Menshawy Y1 - 2017/05/24 PY - 2017 N1 - https://doi.org/10.11648/j.ie.20170101.11 DO - 10.11648/j.ie.20170101.11 T2 - Industrial Engineering JF - Industrial Engineering JO - Industrial Engineering SP - 1 EP - 7 PB - Science Publishing Group SN - 2640-1118 UR - https://doi.org/10.11648/j.ie.20170101.11 AB - Egyptian oil shale from Wadii El-Nakhil, Red sea region was upgraded using enhanced gravity separation. The oil shale sample was characterized physically and chemically to determine its mineral content and characteristics. The sample includes quartz, siderite, apatite, anhydrite and calcite. The clay mineral is mainly represented by kaolinite while the organic matter is 30%. The ground sample (less than 50 microns) was classified into two fractions. The coarser was higher than 25 µm while the finer was less than 25 µm. The lower and upper levels of both the centrifugal force and water pressure have been suggested to construct the design for Falcon Concentrator type SB-40. The coarse concentrate of 42% kerogen with 94.35% recovery was achieved at 60 Hz (equivalent to G-force 176) and water pressure of 4 Psi from feed of 29% kerogen. The fine concentrate of 38.46% kerogen with 85.4% recovery was achieved at 70 Hz (equivalent to G-force 243) and water pressure of 2 Psi from feed of 33% kerogen. VL - 1 IS - 1 ER -
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