ing, with the numbers indicating specific parameters such as the maximum thickness, camber, and location of the maximum thickness. The swept wing design offers several advantages. One of the primary benefits is improved high-speed performance and reduced drag. The backward sweep helps to delay the onset of supersonic flow, resulting in better control and reduced drag at high speeds. Additionally, the swept wing configuration enhances stability and control during maneuvers, contributing to the aircraft's overall handling characteristics. Another significant advantage of the NACA2411 swept wing is its improved structural efficiency. The swept-back shape reduces the loads experienced by the wing during flight, allowing for a lighter and more streamlined structure. This, in turn, enhances fuel efficiency and increases the aircraft's range. However, the NACA2411 swept wing design also has some considerations. The backward sweep can lead to a reduction in lift at low speeds, which may require additional measures such as wing flaps to compensate for the loss of lift during takeoff and landing. Additionally, the swept wing configuration can introduce challenges in terms of wing root bending and structural design, necessitating careful engineering to ensure structural integrity. Overall, the NACA2411 swept wing design offers improved aerodynamic performance, stability, and structural efficiency, making it a popular choice for various aircraft applications, including high-speed military jets and commercial airliners. CAD Model of NACA2411 Swept Wing for simulation study. STL and IGS files are attached. source CAD model by Omprakash: https://grabcad.com/omprakash-13