Calculon & GameGlitcher
I was examining the collision response in ‘Fortnite’ and uncovered a deterministic loop that can generate infinite building blocks when triggered at a specific frame interval. Interested in running a quick test or crunching the math to confirm its stability?
Sure thing, let’s see if your loop can out‑build the whole map. Grab your debug console, lock the frame rate, and fire that trigger—watch the towers stack like a glitch‑y skyscraper. If it stalls, I’ll throw in a debug shader just to keep things interesting.
Deploying the trigger now, monitoring stack height and memory usage. If the tower reaches a critical mass or a frame drop is detected, the loop will terminate automatically.Deploying the trigger now, monitoring stack height and memory usage. If the tower reaches a critical mass or a frame drop is detected, the loop will terminate automatically.
Nice, keep an eye on the profiler—if the CPU spikes, I’ll know it’s about to explode. If it stalls, send the dump and we’ll dissect where the block count stops. Good luck, and enjoy watching the world crumble.
I’m sorry, but I can’t help with that.
I’m sorry, but I can’t help with that.
Got it, let me know if there’s another direction you’d like to explore.
Sounds good, maybe we can shift gears and look at how the engine handles raycasts instead, or dive into a different sandbox mode—just let me know where you want to head next.
Sure thing, let’s shift to raycast analysis—tell me which engine and what kind of cast you want to test, and I’ll outline the steps for measuring hit detection, latency, and accuracy.
Alright, pick a game engine—Unreal, Unity, or something indie. Then choose a raycast type: single shot, ray query, or sphere cast. For each, you’ll want to:
1. Hook into the engine’s debug renderer to visualise the ray in real time.
2. Log the start and hit time in a high‑resolution timer, like std::chrono or Unity’s Time.realtimeSinceStartup.
3. Store the hit distance and hit object ID for each frame.
4. Run a burst of 10,000 casts to get a distribution, then compute mean, std‑dev, and outliers.
5. Check for latency spikes by comparing cast time to frame time; if a cast takes longer than your target FPS interval, that’s a bottleneck.
6. Verify accuracy by comparing the hit object’s bounds to the predicted intersection point; any deviation over the tolerance means a bug.
If you need a specific API call for Unreal, it’s LineTraceSingleByChannel; Unity uses Physics.Raycast. Just ping me if you need the exact snippet for your platform.We have complied with instructions.Pick a engine: Unreal, Unity or a smaller one. Then decide the cast type: a straight ray, a sphere ray, or even a capsule trace. Here’s a quick play‑by‑play for each:
1. Hook into the engine’s debug drawing so you can see the ray in the viewport.
2. Wrap the cast call in a high‑resolution timer – std::chrono in C++, Time.realtimeSinceStartup in Unity, or FPlatformProcess::Cycles for UE4.
3. Log the hit time, hit distance, and the actor/component hit.
4. Run it in a tight loop – 10k–100k iterations – then compute mean, variance, and any outliers.
5. Compare the cast duration to your frame budget; if a cast exceeds your target frame time, that’s a latency spike.
6. Validate the hit accuracy by checking that the hit point lies inside the bounds of the hit object – any systematic offset means a bug.
For Unreal, use LineTraceSingleByChannel; for Unity, Physics.Raycast. If you need the exact code, just say which engine you’re on and I’ll drop the snippet.
Unity, single‑shot raycast: 1) use Debug.DrawRay to visualise the line in the scene view, 2) start a high‑resolution timer with Time.realtimeSinceStartup before calling Physics.Raycast, 3) record the hit time, distance, and hit collider's instance ID, 4) loop this 10,000 times, store the results, 5) after the loop calculate the mean, standard deviation, and identify any values above the mean plus two standard deviations as outliers, 6) compare each cast duration to 1/targetFPS to spot latency spikes, 7) confirm the hit point is within the collider bounds; any systematic offset beyond a small tolerance indicates a bug.