they are reflected at an equal opposing angle on a first-surface mirror. on a second surface (bathroom mirror) they are also reflected, but some are absorbed/disbursed by impurities and inconsistencies in the glass.
Some of the letters don't have a line of symmety because some are not equally the same size.
It is the same as in shapes, the ability to be divided into two equal halves either vertically or horizontally. Not all letters have a line of symmetry, and some have two (H, X, O).
Everything that is seen as a plane mirror reflection is left/right reversed. This reversal might not be as apparent, with some shapes. A sphere for example, might require very close scrutiny to see that its reflection is left/right reversed, but it is always so. The same reasoning may be applied to any object with left/right symmetry.
Of course. Mirrors do not reflect every color the same. Usually you would not notice this, because mirrors are desireable because of the lack of color in the reflection. Mirrors can be made of many things, copper (used for lasers), aluminum (used for telescopes), rhodium (used for some optical devices). They each have characteristic reflectivity at various wavelengths. Spacecraft often have mylar coated with gold reflective insulation because it has great reflectivity in the infrared to reflect the heat from the Sun. Of course it looks golden-yellow-green to us. To directly view the colors of various mirrors, simply observe various metal samples. For example, compare the color of a silver spoon with a stainless steel spoon, and hold both near a flat piece of aluminum foil. Mirrors made from the same metals will show these same colors.
Some letters that look the same in the mirror are A, H, I, M, O, T, U, V, W, X, and Y. These are symmetric either horizontally or vertically, making them look the same when reflected in a mirror.
Some examples of words that look the same in the mirror as they do on paper are "MOM," "DAD," "NOON," and "EYE." These words have symmetry either horizontally or vertically, allowing them to appear the same when reflected in a mirror.
To see the image of an object in a plane mirror, the object must be in front of the mirror, the observer must be able to see both the object and its mirrored image by looking directly at the mirror, and the observer and the object must be in the same line perpendicular to the mirror surface.
Some letters are: T, A, l, I, O, o, i, Y, W, w, H, X, x, V, v As you can see, there are a lot of letters. Depending on how you write some letters, there could be more or less.
they are reflected at an equal opposing angle on a first-surface mirror. on a second surface (bathroom mirror) they are also reflected, but some are absorbed/disbursed by impurities and inconsistencies in the glass.
It is reflected. Depending on the shape of the mirror, this can be at a variety of angles. Assuming the question refers to a flat mirror that is hung on a wall; a plane (flat) mirror has an imaginary straight line at a right-angle to it, called the normal. A ray of light hits the mirror at an angle to the normal, but is reflected at the same angle that it hits the mirror in the opposite direction. So if a ray hits the mirror at 45 degrees from the normal, it will be reflected at 45 degrees from the normal in the opposite direction.
A concave mirror converges light rays to a focal point, where they meet and form a real or virtual image depending on the position of the object. This mirror can magnify or reduce the size of the object being reflected. The light rays are reflected towards the focal point when they hit the mirror, resulting in an inverted image for a concave mirror.
You can see objects in a mirror because light bounces off the objects and reflects into the mirror, then bounces off the mirror into your eyes. This allows you to see a reflected image of the objects in the mirror.
When sunlight is reflected off a mirror onto a surface, the reflective surface acts as a focusing lens, concentrating the light onto a smaller area which makes it appear brighter. This concentrated light increases the intensity of the light reaching the surface, making it seem much brighter compared to the surrounding sunlight.
When you look in a mirror, the light rays bounce off you, hit the mirror, and get reflected back to your eyes. This reflection creates a virtual image of yourself that appears to be behind the mirror.
When light hits a reflective surface, it bounces off the surface at the same angle it approached. This is known as the law of reflection. The smoothness and angle of the surface determine the quality of reflection.
Because glass is not perfectly transparent, some of the light is reflected