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What is Whole rock analysis? 


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Whole rock analysis involves assessing the geochemical properties of various natural materials by analyzing the entire rock sample as a whole. This method allows for the comprehensive evaluation of major and trace elements present in the rock, aiding in the identification of different rock units and their characteristics. Techniques such as laser-ablation inductively coupled plasma mass spectrometry (LA-ICP-MS) are commonly used for whole rock analysis, providing detailed information on a wide range of elements with high precision. Whole rock analysis can also be utilized to determine the type and abundance of organic matter in rocks, aiding in the evaluation of hydrocarbon potential and source rock properties. Overall, whole rock analysis is a valuable tool in geochemistry, petrology, and hydrocarbon exploration, offering insights into the composition and characteristics of various rock formations.

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Whole rock analysis involves determining the concentrations of multiple elements in a rock sample. In the context of the study, it was used to differentiate component units of a low accommodation fluvial reservoir.
Whole rock analysis involves statistical methods to evaluate type and abundance of organic matter in rocks. It provides fast, cost-effective, and direct analysis compared to kerogen microscopic detection.
Whole rock analysis involves assessing total hydrocarbon content in liquid-rich rocks, comprising both free and sorbed hydrocarbons, aiding in identifying producible hydrocarbon intervals in exploration campaigns.
Whole rock analysis involves using laser ablation-ICP-MS to analyze a wide range of trace elements in geological samples, enabling petrological and geochemical discussions based on quantitative values.
Whole rock analysis involves assessing the geochemical properties of natural and synthetic materials using ICP-OES and LA-ICP-MS instruments, as discussed in the evaluated methods at Istanbul University-Cerrahpasa Geological Engineering Department.

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