Wed, 06 May 2026 12:50:13 +0000

A cylindrical tank with a radius of 4 meters and height of 10 meters is filled with water. If a spherical ball of radius 2 meters is submerged, by how many cubic meters does the water level rise? This real-world engineering question reveals surprising insights into fluid displacement—especially relevant in modern infrastructure, water management, and even industrial design across the US. As everyday systems face growing demands for efficiency and precision, understanding how submerged objects interact with liquid-filled volumes becomes increasingly valuable. Cities, factories, and research hubs across America depend on cylindrical storage tanks for everything from water distribution to chemical processing. The interplay between solid volumes and contained fluids shapes safety standards, engineering plans, and operational confidence—making this displacement problem more than a classroom example. The tank’s cylindrical geometry gives it a volume capacity of roughly 502.65 cubic meters (calculated as π × r² × h = π × 4² × 10). Submerging a solid sphere disrupts that volume, displacing water equal to the ball’s own volume—yet only if fully submerged. The spherical ball of radius 2 meters holds about 33.51 cubic meters, but the rise in water level depends not on that number directly, but on how much extra volume the tank can absorb without overflowing.