I saw what I saw. Nobody "told" me to see it. I turned around, and saw it, with 20/10 vision, at well under 100 yards, on a brightly lit winter's day, for almost 10 seconds. I saw just a little more height on it sticking up over the log, than you'd see on a military "F" target.
Denial is when you fabricate acceptable sounding reasons to explain away what you've seen, i.e. "This can't be happening to me" so that you don't have to deal with the reality of the situation.
Well,
what if it is happening, as advertised?
I think what we're really saying around here is, "Well I've been out in the bush lots of times, and I haven't seen anything, so therefore you haven't seen anything." Well, that doesn't logically follow and is irrational. We've had somewhat different outdoor experiences. For 20 years, I was in your shoes. Until I changed shoes one morning. There are supposed to be 6,000 mountain lions in the Sierra Nevadas, but I've never happened upon even one footprint or sighting in 3 decades of hunting. Therefore, they don't exist!
wrong
I had too good a look at this creature to be mistaken. This leaves only 2 possibilities: I'm either lieing like hell, or I really saw a fur covered "person". I simply don't believe it could have been a hoaxer.
It isn't impossible for some animals to see IR and UV light. It is established, scientific fact:
Taken from
http://en.wikipedia.org/wiki/Bird_vision
[I took this info about birds, because as a bird hunter, how my potential quarry is able to perceive me, is interesting and useful for me to know. Speaking as a mammal, I can myself see into the near infrared. It looks like a dull, dim red ro me. This from the IR illuminator on a Russian 1st gen. night vision device.]
Magnetic fields
"The perception of magnetic fields by migratory birds has been suggested to be light dependent. Birds move their head to detect the orientation of the magnetic field, and studies on the neural pathways have suggested that birds may be able to "see" the magnetic fields. The right eye of a migratory bird contains photoreceptive proteins called cryptochromes. Light excites these molecules to produce unpaired electrons that interact with the Earth's magnetic field, thus providing directional information."
"Migratory songbirds use the Earths magnetic field, stars, the Sun, and polarised light patterns to determine their migratory direction. An American study showed that migratory Savannah Sparrows used polarised light from an area of sky near the horizon to recalibrate their magnetic navigation system at both sunrise and sunset. This suggested that skylight polarisation patterns are the primary calibration reference for all migratory songbirds. However, it appears that birds may be responding to secondary indicators of the angle of polarisation, and may not be actually capable of directly detecting polarisation direction in the absence of these cues."
Ultraviolet
"The Common Kestrel can detect the ultraviolet trail of its vole prey.Some birds can perceive ultraviolet light, which is involved in courtship. Many birds show plumage patterns in ultraviolet that are invisible to the human eye; some birds whose sexes appear similar to the naked eye are distinguished by the presence of ultraviolet reflective patches on their feathers. Male Blue Tits have an ultraviolet reflective crown patch which is displayed in courtship by posturing and raising of their nape feathers. Male Blue Grosbeaks with the brightest and most UV-shifted blue in their plumage are larger, hold the most extensive territories with abundant prey, and feed their offspring more frequently than other males do.
"The bills appearance is important in the interactions of the Blackbird. Although the UV component seems unimportant in interactions between territory-holding males, where the degree of orange is the main factor, the female responds more strongly to males with bills with good UV-reflectiveness.
"A UV receptor may give an animal an advantage in foraging for food. The waxy surfaces of many fruits and berries reflect UV light that might advertise their presence. Common Kestrels are able to locate the trails of voles visually. These small rodents lay scent trails of urine and faeces that reflect UV light, making them visible to the kestrels, particularly in the spring before the scent marks are covered by vegetation."
Some reptiles see infrared. This is a fun article on infrared sensing in snakes for our snake lovers:
http://en.wikipedia.org/wiki/Infrared_sensing_in_snakes
Yes, it isn't particularly relevant, but just illustrates that some animals do indeed see in this portion of the electromagnetic spectrum.
This next one is just for fun. As a blurb, it mentions that some animals can see in "total darkness". Surely, that's a good trick:
http://www.eyes-and-vision.com/how-animals-see-the-world.html
This is from a guy who purports to be a biologist, directly addressing the question of mammal IR vision:
http://www.askabiologist.org.uk/answers/viewtopic.php?id=1979
From an online ecology site
http://webecoist.momtastic.com/2009/01/14/animal-vision-color-detection-and-color-blindness/
"Old world monkeys and apes mainly see as humans do they are trichomats, so they pick up red, green, and blue. But many new world monkeys do not. There is no real pattern among species. In fact, in the same family of monkeys there can be up to six different types of color blindness or vision. As with their human cousins, color blindness is more common in males than in females."
Mammall sensitivity to low light, taken from Animaleyecare.com:
Sensitivity to Light
"The canine and feline visual systems are adapted for performance under low light conditions. These animals have large corneas and pupils to collect more light in dim light conditions. They also have a reflective structure at the back of the eye called the tapetum which reflects light back out of the eye. This way, the retina gets two chances to capture each photon of light. A cat's tapetum reflects 130 times more light than the human eye. This is why we see the shiny dog and cat eyes in photographs and at night when headlights or other types of light enter the eyes. Cats can detect light that is 6 times dimmer than that which normal humans can detect. Dogs also detect much lower levels of light than humans (but not as low as cats).
"Dogs and cats are also very sensitive to motion, especially when compared to an object that is not moving. Some dogs were shown to recognize a moving object at 800-900 meters. If the same object was stationary they only recognized it at 500 meters. People are also more sensitive to motion than to objects that are standing still."
I guess we all knew about sensitivity to motion. I think it works because it is like more bites at the apple--as the object moves, its optical image in the perceiver's eye crosses multiple rods and cones, firing them off sequentially, yielding a much more successively sustained signal. Kind of like how a little kid gets your attention by tugging non-stop at your coat, saying, "Daddy Daddy Daddy Daddy Daddy.."
This thread is wild-- the Pro side has sketchy, unsatifying evidence which we seem to cling to, and the Anti side is just as emotional in clinging to its skepticism. In the light of this, and with little likelihood of any future change, I suggest we relax a little, and enjoy this thread. It has a ton of potential to provide interesting "ghost stories" which will at least have some entertainment value. I expected to google a law where Calif. made it illegal to shoot one. I couldn't find any such restriction, but don't think for one minute that you can drag in a body with your bullet holes in it, and escape beaurocratic prosecution. They'll say "no open season" or some such, and get you on that, if nothing else.
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For my next technical feat, I will attempt to partially explain the "bad feeling" some report. I think I've figured out the mechanism. If you yourself have a scientific theory, feel free to volunteer it. I'm engaging in guess work here.