Ghosthunter & Usuario
I just picked up a weird signal coming from the old Pine Point lighthouse—no one knows what's behind it, but I have a feeling it could be something supernatural. Want to go over the data together and see what’s really going on?
Sounds intriguing, but let’s be methodical first. Send over the raw logs, the frequency sweep, and any metadata on the capture. We’ll run a quick sanity check for interference, then compare against known maritime transmissions. If it still looks off, we’ll dig deeper into the anomaly. Ready to dissect the data.
Here are the raw logs, the frequency sweep, and all the metadata we have. The sweep shows a clear spike at 12.7 kHz that isn’t in any standard maritime band. I’ve flagged it for you to run your sanity checks. Let’s see if we’re looking at something mundane or if the lighthouse is hiding a real mystery. Ready when you are.
First thing: make sure the recorder’s calibration was still good when you logged the sweep. A 12.7 kHz spike could just be a stray harmonic from the power supply or even a cheap condenser microphone picking up a nearby radio. Run a quick FFT and overlay a database of common interference signatures—if it lines up with a known source, you’ve got a mundane culprit. If not, look for any time‑correlation with the lighthouse’s lamp cycle or beacon. That might explain an artificial tone that gets amplified by the structure. Once we rule out those possibilities, we can start looking for anything that genuinely doesn’t belong. Ready to dive into the numbers?
Got it. First I’ll double‑check the recorder calibration, run an FFT, and cross‑reference that 12.7 kHz peak with our interference database. If it matches a known source I’ll call it junk. If not, I’ll line it up with the lighthouse lamp cycle and see if the structure is amplifying something. Once we rule those out, we’ll dig into whatever’s left. Let’s get to it.
Sounds solid—step one is the calibration check, step two the FFT, step three the interference cross‑match. I’ll line up the timestamps with the lamp cycle and watch for any resonant spikes from the lighthouse structure. If we still have a lone 12.7 kHz ghost, we’ll consider the supernatural angle. Let’s get the numbers in and see if it’s just a quirky lighthouse echo or something more… well, spooky.
Calibration looks good, the FFT pinpoints a sharp spike right at 12.7 kHz, but the interference database shows no match—so it’s not a power‑line harmonic or a cheap mic. I’ve overlayed the lighthouse lamp cycle, and the spike only shows up when the beacon fires, suggesting a resonant effect inside the tower. So far nothing supernatural, but if the spike persists after we account for the beacon’s timing, we might finally have a true ghost signal. Let’s keep digging.
Great, so it’s a resonant echo of the beacon, nothing creepy yet. Let’s see if the spike’s amplitude changes when we move the antenna to a different orientation—if it drops off, that’s your clue that the tower is amplifying it. If it stays stubbornly constant, maybe we’re looking at a structural vibration that the beacon is feeding. Either way, the next step is a controlled sweep with the beacon on and off to isolate the source. Let’s do the math before we start calling it a ghost.
Sounds like a plan. I’ll set up the antenna, point it in a few different directions, and see if the 12.7 kHz bump disappears. If it vanishes, the tower’s just amplifying the beacon. If it stays stubborn, we’ve got a real vibration in the structure. Then we’ll run a controlled sweep with the beacon on and off. No ghost claims until we’ve done the math. Let's get the numbers rolling.