Not change, from the frame of reference of the object, that being more or less the whole point of special relativity.
From the point of view of an outside observer, it will contract along the direction of motion.
Yes. Light has a speed, electric impulses from the retina to the brain have speeds and the neurons in the brain have speeds.
The Answer is color. Because color has to do with light and physical properties.
No. The speeds of convection and conduction vary, but they are nowhere near the speed of light.
The shadow will fall on the opposite side that the light hit the object. Assuming that the object is a solid object that you cannot see through, there would be no light on the other side, hence causing the shadow.
No. As long as radio, light, and X-rays are all traveling through the same stuff, their speeds are the same.
No, length is a relative measure. If an object is travelling close to the speed of light it undergoes Lorenz contraction.
Reflects all light beams which have the wave length of the color of that object. Each color has a particular wave length in the electromagnetic spectrum.
The relationship between the size of a shadow of an object and the distance of light source from the object is indirectly proportional. A short distance will make the shadow big while making the distance long will reduce the size of the shadow.
Einsteins theory of relativity
An object moving at the speed of light.
A car speeds up as a traffic light turns green.
Electrons are able to travel close to speed of light.
The light source moves strait above the object
The angle of the light passed the edge of the object is greater, creating a larger shadow.
The length of an object's shadow is determined by ... -- the length of the object, -- the angle between the object's length and the surface on which its shadow appears, -- the distance between the object and the surface on which its shadow appears, -- the angular size of the light source as seen from the object, -- the angle between the direction to the light source and the normal to the object.
The close object reflects light to eyes when a flashlight shines on the object.
When you're looking at a near object, the light rays converge at a point behind the retina so the focal length of your eye increases so that the parallel rays of light converge on the back of the retina. Therefore, if you're looking from a near object to a far object, the focal length of your eye should decrease back to its normal, relaxed size.