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21: Engineering Applications II

  • Page ID
    604
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    Learning Objectives
    • Module Goal: To highlight some of the important applications of phase behavior in production operations.
    • Module Objective: To highlight the use of phase behavior for the description of gas pipelines, gas metering and hydrate systems.

    • 21.1: Natural Gas Pipeline Modeling
      This page covers the transportation of natural gas, focusing on pipeline design's role in delivery and cost management. It details phase behavior and P-V-T data crucial for pipeline engineering, contrasting the transport of dry and wet gases. Key design variables include gas volumes, delivery pressure, friction losses, and elevation.
    • 21.2: The Hydrate Problem
      This page discusses natural gas hydrates, which are crystalline compounds formed under low temperatures and high pressures, resembling snow and being less dense than ice. It highlights the importance of "free" water, temperature, and turbulence in their formation and emphasizes the need for gas dehydration to prevent hydrate issues. Various methods, including heating and additives like methanol and glycol, are suggested as critical solutions for industrial applications involving hydrates.
    • 21.3: Gas Metering
      Gas measurement is another area of hydrocarbon engineering where accurate prediction of the P-V-T properties of the working fluid is especially critical. One of the most widely used meters used in the measurement of gas flow is the orifice meter. Orifice meters are classified as inferential meters because the gas volume is calculated from readings of pressure variation as the gas passes through an orifice, and it is not obtained by a direct reading.
    • 21.4: Action Item
      This page provides a problem set that asks students to write an essay applying course knowledge to the petroleum and natural gas industry, using specific examples. The task focuses on demonstrating the relevance of course concepts in real-world scenarios, enhancing understanding of interdisciplinary connections and practical applications of theoretical knowledge in operational settings.


    This page titled 21: Engineering Applications II is shared under a CC BY-NC-SA 4.0 license and was authored, remixed, and/or curated by Michael Adewumi (John A. Dutton: e-Education Institute) via source content that was edited to the style and standards of the LibreTexts platform.