Javascript must be enabled to continue!
Quantitative Method for Evaluating Shale Oil Resources Based on Movable Oil Content
View through CrossRef
The light hydrocarbon content (
S
1
) of shale oil is lost in aboveground experimental measurements, which do not accurately reflect actual underground light hydrocarbon content and cannot meet the demands of resource quantity calculation. Based on field and laboratory experimental data from the second member of the Kongdian Formation in the Cangdong Sag, Bohai Bay Basin, the retained oil and movable oil contents in shale were calculated using a mathematical formula, and the total resources were quantified. The correction coefficient of
S
1
from pyrolysis and the adsorption of oil by the total organic carbon (TOC) were determined to be 1.25 and 100 mg/g, respectively. The calculated parameter movable oil content (
S
movable
) and the corresponding calculation formula of
S
1
are proposed. The lower limit of
S
1
is 100 mg HC/g rock, the TOC content is 4 wt % and 6 wt %, and the corrected movable oil content of 3 mg/g and 6 mg/g, respectively, will be of great significance in shale oil geology and engineering. The optimal geological and engineering settings are divided into three categories and eight subcategories on the basis of these findings. Methods for evaluating total, movable, and recoverable oil resources from shale are discussed, which elucidate a new method for quantitative evaluation and ranking of shale oil resources. This approach is suitable for application in other shale oil exploration and development areas globally.
Title: Quantitative Method for Evaluating Shale Oil Resources Based on Movable Oil Content
Description:
The light hydrocarbon content (
S
1
) of shale oil is lost in aboveground experimental measurements, which do not accurately reflect actual underground light hydrocarbon content and cannot meet the demands of resource quantity calculation.
Based on field and laboratory experimental data from the second member of the Kongdian Formation in the Cangdong Sag, Bohai Bay Basin, the retained oil and movable oil contents in shale were calculated using a mathematical formula, and the total resources were quantified.
The correction coefficient of
S
1
from pyrolysis and the adsorption of oil by the total organic carbon (TOC) were determined to be 1.
25 and 100 mg/g, respectively.
The calculated parameter movable oil content (
S
movable
) and the corresponding calculation formula of
S
1
are proposed.
The lower limit of
S
1
is 100 mg HC/g rock, the TOC content is 4 wt % and 6 wt %, and the corrected movable oil content of 3 mg/g and 6 mg/g, respectively, will be of great significance in shale oil geology and engineering.
The optimal geological and engineering settings are divided into three categories and eight subcategories on the basis of these findings.
Methods for evaluating total, movable, and recoverable oil resources from shale are discussed, which elucidate a new method for quantitative evaluation and ranking of shale oil resources.
This approach is suitable for application in other shale oil exploration and development areas globally.
Related Results
EffectiveFracturing Technology of Normal Pressure Shale Gas Wells
EffectiveFracturing Technology of Normal Pressure Shale Gas Wells
ABSTRACT
There is abundant normal pressure shale gas resource in China. However, it is hard to acquire commercial breakthroughs because of the relative low initia...
Synthèse géologique et hydrogéologique du Shale d'Utica et des unités sus-jacentes (Lorraine, Queenston et dépôts meubles), Basses-Terres du Saint-Laurent, Québec
Synthèse géologique et hydrogéologique du Shale d'Utica et des unités sus-jacentes (Lorraine, Queenston et dépôts meubles), Basses-Terres du Saint-Laurent, Québec
Le présent travail a été initié dans le cadre d'un mandat donné à l'INRS-ETE par la Commission géologique du Canada (CGC) et le Ministère du Développement durable, de l'Environneme...
Effect of Shale Reservoir Characteristics on Shale Oil Movability in the Lower Third Member of the Shahejie Formation, Zhanhua Sag
Effect of Shale Reservoir Characteristics on Shale Oil Movability in the Lower Third Member of the Shahejie Formation, Zhanhua Sag
AbstractTo reveal the effect of shale reservoir characteristics on the movability of shale oil and its action mechanism in the lower third member of the Shahejie Formation (Es3l), ...
Geological Characteristics of Shale Reservoir of Pingdiquan Formation in Huoshaoshan Area, Junggar Basin
Geological Characteristics of Shale Reservoir of Pingdiquan Formation in Huoshaoshan Area, Junggar Basin
Unconventional oil and gas, represented by shale gas and shale oil, have occupied an important position in global energy. The rapid growth of shale gas and shale oil production sho...
STUDY OF MICROSCALE PORE STRUCTURE AND FRACTURING ON THE EXAMPLE OF CHINA SHALE FIELD
STUDY OF MICROSCALE PORE STRUCTURE AND FRACTURING ON THE EXAMPLE OF CHINA SHALE FIELD
Accurate characterization of pores and fractures in shale reservoirs is the theoretical basis for effective exploration and development of shale oil and gas. Currently, the scienti...
Multi-Interbedded Continental Shale Reservoir Evaluation and Fracturing Practice
Multi-Interbedded Continental Shale Reservoir Evaluation and Fracturing Practice
ABSTRACT:
Continental shale oil resources are abundant in Sichuan Basin in China, according to multiple limestone interbeds and variable longitudinal stress chara...
Future of Oil Shale Developement in Egypt
Future of Oil Shale Developement in Egypt
Abstract
Today, the biggest challenge faces energy sector is to meet rising demand for energy, and depletion of crude oil resources. So, great efforts should be devo...
Chemical structure changes of marine shale caused by supercritical carbon dioxide
Chemical structure changes of marine shale caused by supercritical carbon dioxide
The interaction between shale and CO2 is of great significance to CO2 storage and shale gas production; however, there are few reports on chemical changes after CO2 injection into ...

