The answer is in the question! The orientation is the same as the preimage!
Same = Not different.
Because the image is not the same size as the preimage. To do a dilation all you do is make the image smaller or larger than it was before.
The smallest degree of rotation needed for an image to look the same is 360 degrees, which is a full rotation. This is because rotating an image by any multiple of 360 degrees will result in the image returning to its original orientation. Therefore, the smallest degree of rotation needed for the image to appear unchanged is a full rotation of 360 degrees.
That the image has moved in the same direction and distance of its outline
Well, honey, a reflection doesn't change the orientation of a shape. It simply flips it over a line, like checking yourself out in a mirror. So, if you're looking for a quick fix to change things up, a reflection is your go-to move.
Symmetrical
A translation
Well, honey, when we talk about the orientation of an image compared to the preimage, we're looking at whether the image is flipped, turned, or stayed the same. If the image is flipped, we call it a reflection; if it's turned, we call it a rotation. And if it stayed the same, well, that's just boring old identity. So, in a nutshell, the orientation can change through reflection or rotation, or it can stay the same.
The three types of dilations are an enlarged image (the image is larger than the preimage), a reduced image (the image is smaller than the preimage) and an equal image (the image is the same size as the preimage).
False
Because the image is not the same size as the preimage. To do a dilation all you do is make the image smaller or larger than it was before.
A translation of shape on the coordinated grid moves it in the same distance and in the same direction
If the orientation of the letter "e" on the slide is exactly the same as it appears in this response, then the image of the "e" would be an inverted reflection. In lamens terms, the "e" would be upside down inside the microscope.
In a plane mirror, your image is located directly behind the mirror at the same distance as you are from the mirror. The image appears to be the same size and orientation as the object but reversed left to right.
As an object moves closer to a convex lens, the size of the image increases. The orientation of the image remains the same, which means it is still upright if the object is upright and inverted if the object is inverted.
A flat mirror produces a virtual image that is upright, the same size as the object, and with the same orientation as the object. The image appears to be located behind the mirror at the same distance as the object is in front of the mirror.
The image in a plane mirror is laterally inverted, meaning left and right are flipped, but not top and bottom. The image appears to be the same distance behind the mirror as the object is in front of it. It is the same size as the object but not the same orientation.
An image in a plane mirror appears to be located behind the mirror at the same distance as the object is in front of the mirror. This creates the illusion that the image is a mirrored reflection of the object, with the same size and orientation.