Pipeline Engineering Detailed Syllabus for B.Tech third year second sem is covered here. This gives the details about credits, number of hours and other details along with reference books for the course.<\/p>\n
The detailed syllabus for Pipeline Engineering B.Tech 2016-2017 (R16) third year second sem is as follows.<\/p>\n
B.Tech. III Year II Sem. \u00a0 \u00a0 L\/T\/P\/C
\nCourse Code: PE611PE \u00a0 \u00a0 \u00a0 3\/0\/0\/3<\/p>\n
Course Objectives:<\/strong><\/p>\n Course Outcome:<\/strong> The students would get an understanding of the key steps in a pipeline\u2019s\u00a0lifecycle: design, construction, installation, asset management and maintenance.<\/p>\n UNIT-I\u00a0Elements of pipeline design:<\/strong> Fluid properties \u2013 Environment – Effects of pressure and UNIT-II\u00a0Natural gas transmission:<\/strong> General flow equation \u2013 Steady state – Impact of gas molecular UNIT-III\u00a0Gas compression and coolers:<\/strong> Types of compressors \u2013 Compressor drivers \u2013 Compressor station configuration \u2013 Thermodynamics of isothermal and adiabatic gas compression \u2013\n
\ntemperature – Supply \/ Demand scenario – Route selection – Codes and standards –\u00a0Environmental and hydrological considerations \u2013 Economics – Materials \/ Construction \u2013\u00a0Operation – Pipeline protection – Pipeline integrity monitoring.\u00a0Pipeline route selection, survey and geotechnical guidelines: Introduction – Preliminary\u00a0route selection – Key factors for route selection – Engineering survey – Legal survey –\u00a0Construction \/ As-built survey – Geotechnical design.<\/p>\n
\nweight and compressibility factor on flow capacity – Flow regimes – Widely used steady-state\u00a0flow equations \u2013 Summary of the impact of different gas and pipeline parameters on the gas\u00a0flow efficiency \u2013 Pressure drop calculation for pipeline in series and parallel \u2013 Pipeline gas\u00a0velocity \u2013 Erosional velocity \u2013 Optimum pressure drop for design purposes \u2013 Pipeline\u00a0packing \u2013 Determining gas leakage using pressure drop method \u2013 Wall thickness \/ pipe grade\u00a0\u2013 Temperature profile \u2013 Optimization process \u2013 Gas transmission solved problems.<\/p>\n
\nTemperature change in adiabatic gas compression \u2013 Thermodynamics of polytropic gas\u00a0compression \u2013 Gas compressors in series \u2013 Centrifugal compressor horsepower \u2013 Enthalpy \/\u00a0Entropy charts (Mollier diagram) \u2013 Centrifugal compressor performance curve \u2013 Influence of\u00a0pipeline resistance on centrifugal compressor performance-Reciprocating compressors \u2013 Gas\u00a0compression solved problems \u2013 Gas coolers \u2013 Air-cooled heat exchangers \u2013 Coolers heat\u00a0transfer equations \u2013 Fan air mass flow rate \u2013 Required fan power \u2013 Gas pressure drop in\u00a0coolers \u2013 Iterative procedure for calculations based on unknown T2.<\/p>\n