Flat Earth: The Strongest Inferior Mirage

Heath Carmody | Flat Earth: The Strongest Inferior Mirage - part 3 @heathcarmody2867 | Uploaded September 2020 | Updated October 2024, 3 hours ago.
The rest of the time lapse footage highly sped up, from 4 different camera heights. The subtitles for the 1 meter elevation segment and 30 cm elevation are switched! The video took over an hour to render so I didn't want to redo it just for that. It goes 2 meters, 1 meter, 30cm (1 foot), 5 meters. All heights are approximate.

The purpose of this video is to show that inferior mirage conditions maintained from all elevations despite the temperature going from significantly colder to much warmer than the water over the course of the 5 hour observation. To me this strongly suggests that upward refraction (sinking, inferior mirage) conditions are the norm except under very specific conditions.

$Flat Earth: The Strongest Inferior Mirage - part 3 The rest of the time lapse footage highly sped up, from 4 different camera heights. The subtitles for the 1 meter elevation segment and 30 cm elevation are switched! The video took over an hour to render so I didnt want to redo it just for that. It goes 2 meters, 1 meter, 30cm (1 foot), 5 meters. All heights are approximate. The purpose of this video is to show that inferior mirage conditions maintained from all elevations despite the temperature going from significantly colder to much warmer than the water over the course of the 5 hour observation. To me this strongly suggests that upward refraction (sinking, inferior mirage) conditions are the norm except under very specific conditions.$

$See Zero Black swans are certainly not rare here. If measured by apparent radius, a small concave Earth is a common appearance, even at much higher camera heights. In fact, its generally an everyday occurrence - if I can outlast the broad inferior mirage phase as the air is warming up rapidly. This very warm sunny April day, I felt the apparent concavity should be greater than it was, even though it was quite strong from all camera heights for most of the 8 hour observation. I havent analyzed most of the footage though, so that could change. Now I think I know why it never appears concave above a certain height, and rarely appears flat shortly above that height range. I mean, Ive been thinking this for years, and showing bits and pieces in my videos, but finally I have the footage I need to put it all together and explain a few very important things, the way I see them. Not in this video though. This video gives a very rough geometric comparison of each model (using my earlier less compressed reference shot, cropped to the actual water level) to the apparent image assuming approximate eye level, but thats not the main point. Theres something going on with refraction here but it might not be exactly what you think. I want to know what my subscribers see and who has been thinking the same things I have, especially about refraction gradients. If nobody sees what I see, then I have more explaining to do than I thought. But I expect a few to pick up on it.. I may start doing live streams again, or at least narrating some videos. Ill see.$

In-Ferry-Or Mirage Day 10 - The Long Wait

$InFerryOr Mirage 2022 #2 - Another Fairly Smooth Transition Getting all the easy videos done first. From Shelter Bay observation #3. Same location as the last one, far dock at 5 km, close land about 1.1 km. Camera heights from 6 inches to 10 inches. The point of these repeat observations is to document a change in refraction conditions with time, over a short distance. At some point I will make a video better explaining the ferry dimensions and far dock height, in case anyone wants to use these as evidence for a particular Earth shape. From these heights there would be less than a meter of the ferry (and ~2 high meter fairy dock) hidden at the far shore on a globe. The angle of visible water past the 1.1 km point is a better indicator of horizon (or inferior mirage) distance. It should be small on FE and almost undiscernible on GE with standard refraction, especially with the later wider FOV.$

$Refraction Rainbow! Sort of.$ $High Treefraction Time Lapse (4K)$