Your M28U is producing irregular cracking noises and making random noises when you shift it.
Your M28U is producing irregular cracking noises and making random noises when you shift it.
Occasionally, my Gigabyte M28U makes cracking noises. They mainly occur when I power on or off my monitor, though they can happen at other times too. According to what I’ve read, this is likely due to thermal expansion and is generally fine, particularly during colder months. How often these sounds appear matters for determining if something’s wrong. Capturing them is difficult because they’re sporadic, but I’m planning to record them. The audio seems similar to the video you shared about moving the monitor—it happens briefly, mostly when it shifts. Does this kind of cracking sound normal when I tilt or move the screen? I thought it was typical, but I want to be sure. After removing the plastic and foam around my monitor, I tried unscrewing and reattaching it, which reduced the frequency but didn’t eliminate it entirely. Is this a problem? The sounds you described are popping noises, which differ from cracking. While they’re not unusual in some cases, I’m still trying to understand if cracking is acceptable for my setup.
The video isn’t loading. It seems like a small issue might be at play. These items are constructed from molded plastic, which is big and mostly flat. Any sound will likely become louder. The plastic bends slightly under pressure, and when two pieces slide against each other, noise occurs. As long as it functions properly, everything should work fine.
Refers to poor quality material or inadequate construction. Asking about the fit being too restrictive.
Heh. Wait until your hearing fades. I’ll explain how ears function. The key point is that sometimes you catch a clear, crisp tone that quickly disappears. It sounds like a tuning fork being struck. Our ears contain a natural amplifier. Inside, there are structures with long, delicate “strings.” Each one has a tiny door at the top; when sound arrives, it nudges the string, letting it vibrate. All this happens in a fluid filled with chemicals that help transmit signals. When the vibration reaches a certain point, some chemicals pass through, and if the string snaps, the door swings wide open—revealing the pure tone. Your brain then filters out the sound so you don’t remember it. High frequencies usually break first, which is why teen speaker systems are designed that way—they’re built to handle that wear. For older listeners, this can happen faster because more of those delicate parts fail. A cochlear implant replaces this system with 128 channels, enough to decode speech clearly.