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{alias:wedge} \\ {panel} Author: Rajesh Bhaskaran, Cornell University {color:#ff0000}{*}Problem Specification{*}{color} [1. Create Geometry in GAMBIT[Problem Specification|FLUENT - Supersonic Flow Over a Wedge - StepProblem 1Specification]\\ [21. MeshPre-Analysis Geometry in GAMBIT& Start-up|FLUENT - Supersonic Flow Over a Wedge- Step 21]\\ [32. Specify Boundary Types in GAMBITGeometry|FLUENT - Supersonic Flow Over a Wedge- Step 32]\\ [43. Set Up Problem in FLUENT|SIMULATION:Mesh|FLUENT - Supersonic Flow Over a Wedge - Step 3]\\ {color:#ff0000}{*}4. *New]Setup(Physics)*{color}\\ [5. Solve\!Solution|SIMULATION:FLUENT - Supersonic Flow Over a Wedge - Step 5 (FLUENT 6.3.26)]* New]\\ [6. Analyze Results|FLUENT - Supersonic Flow Over a Wedge- Step 6]\\ [7. VerifyVerification & ResultsValidation|FLUENT - Supersonic Flow Over a Wedge- Step 7] {panel}\\ h2. Problem Specification !wedge2sm.jpg! Consider a 15° angle wedge at zero angle of attack. The incoming flow conditions are: M{~}1~=3, p{~}1~=1 atm, T{~}1~=300 K. Use FLUENT to obtain the flowfield over the wedge. Compare the pressure coefficient on the wedge surface with the corresponding analytical result for an oblique shock. Go to [Step 1: Create Geometry in GAMBIT|FLUENT - Supersonic Flow Over a Wedge- Step 1] [See and rate the complete Learning Module|FLUENT - Supersonic Flow Over a Wedge] Go to [all FLUENT Learning Modules|FLUENT Learning Modules] |
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