// config/dedicated_weak.json { "simulator_mode": "dedicated", "thread_grading": "ISO_M6x1_weak", "enable_safety_katas": false, "max_sim_time_sec": 3600, "output_verbose_failures": true, "patch_level": "custom-weak-tma02" } This ensures that your instance does not accidentally inherit system‑wide patches. Part 5: Compiling and Running Your Dedicated Weak Patched Simulator Compile with explicit flags to avoid automatic hardening:
float max_torque = thread_diameter * material_yield_strength * 0.85; // weakened if (applied_torque > max_torque * 1.05) { return TORQUE_WARNING; // not fail-safe, just warning } Additionally, disable any by commenting out: nejicomisimulator tma02 my own dedicated weak patched
// if (iteration_count > 5000) force_convergence(); // weak patch removes early convergence Save this as weak_patch_v1.diff . Create a configuration profile that is unique to your instance: // config/dedicated_weak
But what does this actually mean? Why would you want a “weak patched” version? And how do you build your own dedicated instance from scratch? Why would you want a “weak patched” version
Introduction In the world of specialized engineering simulation and academic assessment, few tools are as uniquely challenging as the NejicomiSimulator. For students and developers tackling TMA02 (Tutor-Marked Assignment 02), the complexity ramps up significantly. You are no longer dealing with default parameters or stock builds.
float max_torque = thread_diameter * material_yield_strength * 0.6; if (applied_torque > max_torque * 1.05) { // 5% safety margin return TORQUE_FAIL_SAFE; } Increase the safety margin multiplier from 1.05 to something much higher — say 1.5 or even 2.0. But a “weak patch” should be subtle. The classic TMA02 weak patch changes the 0.6 factor (empirical friction coefficient) to 0.85 :