3D Physics Simulation & Structural Load Paths (v1.3.2)
All Will Fall is governed by deterministic 3D physics on a 0.5m voxel socket grid where every placed block adds real physical mass and tests lower foundation limits.
Interactive 0.5m voxel socket heatmap simulator. Model downward load paths, storm wind-shear torque, tidal erosion, and cascading collapse risks in real-time with URL blueprint sharing and AI solver.
In All Will Fall (v1.1.3), your colony's survival depends on genuine structural engineering. Unlike grid-builders with "infinite support," every block here has a Support Capacity. If the weight above exceeds this capacity, the block collapses, potentially triggering a cascading failure that destroys your entire base. Use the simulator to model building layouts before deploying them on procedural maps like the **Oil Rig** or **Crumbling City**.
Physics in All Will Fall are strict. Every block applies its weight to the block directly below. Use Steel Pylons to create load-bearing columns.Temporary Scaffolds: Use lightweight Structural Scaffolding (0.5 WGT) to create temporary support frames during remodeling phases. Since v1.1.3, scaffolding can be painted to keep your base layout clear.Metas: Community experts recommend keeping a strict 3:1 support pylon ratio for stable structures, especially on high-altitude layouts like the **Oil Rig**.Cascading Collapses: If a lower block fails (Critical Load > 100%), all blocks directly above it will instantly collapse.
Stable (0-40%): Your structure is rock solid. You can safely build much higher or add heavy machinery here.
Strained (41-75%): Significant load detected. Be cautious about adding more weight vertically without adding more pylons.
Critical (76-100%): Extreme collapse risk. Any further weight will cause structural failure of the blocks below.
The Structural Stability Calculator is a professional-grade simulation tool designed for All Will Fall players who want to master the game's complex physics. From deep-sea foundations to sky-piercing turbines, every decision counts.
Every block has a fixed Support Capacity. This represents the total vertical weight (WGT) it can hold from all floors above it. If you stack heavy industrial machines, you must ensure the pillars below have enough total capacity to prevent a chain collapse.
Storms aren't just visual effects. In "Storm Mode," vertical towers catch more wind-shear, adding a multiplier to the stress of every block based on its height (Y-coordinate). Building wide and low is the safest strategy for high-storm planets.
Building on coastlines is dangerous. High tides submerge your foundations, reducing their effective support capacity by 60%. Always use reinforced Steel Pylons for any structure that might touch the water line.
Scaffolding Buffers: Deploy Structural Scaffolding during vertical construction. Paint sections to trace load routes visually.
Oil Rig Optimization: On Oil Rig setups, use dense Steel Pylon arrays to counter the lack of horizontal land.
3:1 Support Rule: Maintain at least one vertical support beam column for every three horizontal floor units.
Crumbling City Repair: Keep the Stress Overlay active to prioritize structural reinforcement of damaged blocks.
All Will Fall is governed by deterministic 3D physics on a 0.5m voxel socket grid where every placed block adds real physical mass and tests lower foundation limits.
Cumulative weight load relative to supporting capacity. Above 100% indicates immediate catastrophic collapse.
Lateral displacement from the central foundation axis. High offset causes cantilever failure during storms.
Balance Scrap Wood (1kg/8kg), Reinforced Wood (2kg/18kg), Metal Grates (4kg/40kg), and Steel Pylons (5kg/60kg) with seabed Deep Anchors (120kg) and Dual-Core Pylons (100kg) to survive 50ft storm swells.
All calculations are based on verified data extracted from All Will Fall Patch v1.1.3 game files. We cross-reference values with in-game testing and empirical community measurements.
Submerged foundation blocks suffer a 60% load-bearing penalty during high-tide swells.
Structures above 6 floors experience +12% lateral wind-shear torque per floor level.
Truss girders and braced beams redistribute 30% of downward load across adjacent socket columns.