The infrastructure at Puran Murti Campus is specifically designed to function as a "Mini-Industry" ecosystem. In 2026, these labs are not just rooms with equipment; they are integrated hubs where students validate the complex physics of flight using the same standards as global aerospace firms.
The Wind Tunnel lab is the heart of experimental aerodynamics. Students use these tunnels to visualize and quantify how air moves over solid objects.
Force Measurement: Equipped with a 3-component balance, students measure Lift, Drag, and Pitching Moment on various airfoil models.
Flow Visualization: Using smoke generators or "tufts," students can physically see flow separation and turbulence, turning abstract equations from their textbooks into visible reality.
Pressure Mapping: Students use multi-tube manometers or digital sensors to map pressure distributions ($C_p$) across wing surfaces to identify stall characteristics.
Before touching a real cockpit, students master the "Nervous System" of an aircraft in the simulation lab.
Systems Integration: These simulators replicate the avionics suites of modern aircraft (like the Boeing 737 or Airbus A320), allowing students to study how navigation, communication, and engine monitoring systems interact.
Stability and Control: Students virtually "test fly" their own aircraft designs to see if they are inherently stable or if they require specialized control laws.
Emergency Protocols: The lab provides a safe environment to troubleshoot simulated "snags"—such as engine flameouts or sensor failures—essential for future Flight Test Engineers.
This is where the theoretical "Brayton Cycle" meets mechanical hardware. Puran Murti provides access to actual aircraft and engines for hands-on learning.
Engine Teardown: Students perform "hot-section" and "cold-section" inspections on jet and piston engines, learning the intricate assembly of turbine blades, compressors, and fuel injectors.
MRO Training: Following DGCA (Directorate General of Civil Aviation) standards, the live workshops teach students Maintenance, Repair, and Overhaul (MRO) procedures, including landing gear servicing and airframe structural repair.
Airworthiness Standards: Students learn to use precision tools like torque wrenches and borescopes to ensure every component meets safety certifications.
In 2026, aircraft are "flown" thousands of times digitally before they are ever built. The campus provides high-performance computing labs with industry-standard software.
CATIA (Computer-Aided Three-dimensional Interactive Application): This is the gold standard for Aircraft Design. Students use it to create "Digital Twins" of airframes, ensuring every rivet and spar fits perfectly within the 3D model.
ANSYS (CFD & FEA):
CFD (Computational Fluid Dynamics): Used to simulate airflow at high speeds, allowing students to optimize wing shapes for maximum fuel efficiency.
FEA (Finite Element Analysis): Used to "crash-test" components virtually, ensuring the wings won't snap under extreme G-forces.
Mastercam/SolidCAM: These tools bridge the gap between design and manufacturing, teaching students how to program CNC machines to carve aerospace parts out of solid titanium or aluminum blocks.