Poor Eyesight?

composed of loblolly pine and shortleaf pine produced from 0 to nearly 5 million sound pine seeds per hectare. Over this period, there were six bumper, five poor, and nine good seed crops, when evaluated for production of adequate seedlings for natural forest reproduction.

If you suffer from blurry vision, nearsightedness, glaucoma, or AMD...

There's a new medical discovery you need to know about right away.

It comes from one of the country's top Medical Doctors...

And it's a simple, but scientifically proven way to strengthen your vision FAST...

Without spending a penny on glasses, contacts, or risky surgery.



The best part is...

This MD's discovery is 100% natural...

Yet it stimulates the cells in your eyes...

Which causes them to immediately self-repair.

Some people who use this method see improvements in their vision in just 7 days...

Which is probably why a group of 10 medical doctors were recently quoted...

As saying this is "the most important vision breakthrough of the 21st century."

Cl!ck here now to see the DIY vision-repair protocol that's shocking the medical community...

Before the billion-dollar eyecare industry gets it censored from the web.

Sincerely,

Mary Lewis
Better Vision Initiative

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  Complex eyes can distinguish shapes and colours. The visual fields of many organisms, especially predators, involve large areas of binocular vision to improve depth perception. In other organisms, eyes are located so as to maximise the field of view, such as in rabbits and horses, which have monocular vision.\\r\\n\\r\\nThe first proto-eyes evolved among animals 600 million years ago about the time of the Cambrian explosion. The last common ancestor of animals possessed the biochemical toolkit necessary for vision, and more advanced eyes have evolved in 96% of animal species in six of the ~35 main phyla. In most vertebrates and some molluscs, the eye works by allowing light to enter and project onto a light-sensitive panel of cells, known as the retina, at the rear of the eye. The cone cells (for colour) and the rod cells (for low-light contrasts) in the retina detect and convert light into neural signals for vision. The visual signals are then transmitted to the brain via the optic nerve. Such eyes are typically roughly spherical, filled with a transparent gel-like substance called the vitreous humour, with a focusing lens and often an iris; the relaxing or tightening of the muscles around the iris change the size of the pupil, thereby regulating the amount of light that enters the eye, and reducing aberrations when there is enough light. The eyes of most cephalopods, fish, amphibians and snakes have fixed lens shapes, and focusing vision is achieved by telescoping the lens—similar to how a camera focuses.\\r\\n\\r\\nCompound eyes are found among the arthropods and are composed of many simple facets which, depending on the details of anatomy, may give either a single pixelated image or multiple images, per eye. Each sensor has its own lens and cell(s). Some eyes have up to 28,000 such sensors, which are arranged hexagonally, and which can give a full 360° field of vision. Compound eyes are very sensitive to motion. Some arthropods, including many Strepsiptera, have compound eyes of only a few facets, each with a retina capable of creating an image, creating vision. With each eye viewing a different thing, a fused image from all the eyes is produced in the brain, providing very different, high-resolution images.\\r\\n\\r\\nPossessing detailed hyperspectral colour vision, the Mantis shrimp has been reported to have the world\\\'s most complex colour vision system. Trilobites, which are now extinct, had unique compound eyes. They used clear calcite crystals to form the lenses of their eyes. In this, they differ from most other arthropods, which have soft eyes. The number of lenses in such an eye varied, however: some trilobites had