
Explore coupled oscillator dynamics through interactive Algodoo simulations, enhancing understanding of complex physical systems and their behavior.

Solve key numerical problems for petrol and Otto cycles in engineering thermodynamics, focusing on fuel-air mixtures and essential calculations for first-year students.

Explore mechanics of hierarchical porous materials, from design to prediction. Gain insights into damage and fracture in complex systems, inspired by natural structures.

Explore particle-laden flows through simulations and data-driven modeling techniques, gaining insights into complex fluid dynamics and engineering applications.

Explore the physics behind front-wheel vs. rear-wheel drive car acceleration through calculations and Python code analysis.

Explore geomechanical studies in Northern Iraq with Dr. Hamed Soroush, focusing on practical applications and regional insights for petroleum engineering.

Explore mechanical earth modeling essentials, from geological data to hydraulic fracturing, enhancing reservoir understanding and optimization strategies.

Explore the derivation of cantilever beam depression, material properties, and engineering physics concepts for BTech, BSc, and JEE preparation.

Explore Python-based physics modeling to simulate a Porsche 911's quarter-mile acceleration, using real data to analyze power, friction, and motion dynamics.

Simulate complex robot actions like picking up and dropping objects in Unity. Learn to create advanced UGV robot behaviors using C# programming and Unity's physics engine.

Dive deeper into Godot 4 game development, mastering advanced enemy AI, vehicles, pathfinding, animations, and sound implementation for a polished 2D project.

Explore the journey of creating custom AR headsets, from initial development to final mechanics. Learn about microcontrollers, displays, optics, and the learning process behind this innovative project.

Explore neural language models and few-shot learning for efficient processing of automotive engineering requirements in model-driven software engineering.

Explores advanced quantum coding theory, focusing on homological quantum rotor codes for encoding logical information. Discusses applications in superconducting devices and potential hardware implementations.

Explore BEXHI, a novel mechanical structure for prototyping expandable and bendable handheld devices, combining bend and expansion capabilities for innovative interface design.

Explore CANtact, an open-source tool for automotive network analysis. Learn to view, decode, and manipulate CAN traffic for reverse engineering and security testing of vehicle systems.

Explore the mechanics of airborne disease transmission and learn how advanced fluid dynamics can revolutionize our approach to preventing epidemics and infectious outbreaks.

Explore Tesla's security model, focusing on the Ludicrous speed upgrade process for Model S. Learn about CAN bus architecture, battery management, and potential vulnerabilities in vehicle upgrades.

Unveils vulnerabilities in automotive remote keyless entry systems, demonstrating how attackers can exploit flaws to gain unauthorized access to vehicles from major manufacturers.

Explore automotive firmware extraction and analysis techniques, focusing on fault injection and emulation for uncovering vulnerabilities in vehicle security systems.

Explore advanced techniques for injecting CAN messages into vehicle networks, bypassing restrictions on physical control systems like brakes, steering, and acceleration.