Arcade machines have evolved significantly over the years, incorporating advanced physics simulations to create immersive gaming experiences. One of the most challenging aspects is handling dynamic soft body physics, which involves simulating deformable objects like cloth, fluids, or squishy characters in real time.

To achieve this, arcade games often rely on optimized physics engines tailored for performance. These engines use simplified algorithms to approximate soft body behavior without overloading the hardware. Techniques like mass-spring systems or position-based dynamics are commonly employed to balance realism and computational efficiency.

Additionally, arcade machines leverage specialized hardware, such as GPUs with parallel processing capabilities, to handle complex calculations quickly. Developers also use precomputed animations or hybrid approaches, combining physics with predefined motions to reduce runtime overhead.

The result is a seamless blend of realism and responsiveness, ensuring players enjoy dynamic interactions without lag or visual glitches. From bouncing balls to wobbly jelly creatures, arcade machines continue to push the boundaries of real-time soft body physics in gaming.