line of symmetry
It has line symmetry (straight down the center) but not rotational symmetry.
There are three kinds of symmetries for a cube: planes of symmetry, lines of symmetry and a center of symmetry.A cube has:9 planes of symmetry13 lines of symmetry1 center of symmetry (at the center of the cube)
A circle has symmetry about any line drawn through its center. Your answer is, "yes".
A circle has infinite lines of symmetry, any line going through the center is a line for symmetry.
line of symmetry
It has line symmetry (straight down the center) but not rotational symmetry.
There are three kinds of symmetries for a cube: planes of symmetry, lines of symmetry and a center of symmetry.A cube has:9 planes of symmetry13 lines of symmetry1 center of symmetry (at the center of the cube)
The diameter of a circle is its line of symmetry and the lines can be infinite
A circle has symmetry about any line drawn through its center. Your answer is, "yes".
A circle has infinite lines of symmetry, any line going through the center is a line for symmetry.
It has 1 line of symmetry through its vertical center
radial symmetry
In 2-bromobutane, the carbon atom bonded to the bromine atom (CHBrCH3) is the stereogenic center. To determine its optical activity, you need to analyze if there is a plane of symmetry or a center of symmetry within the molecule. If the molecule is chiral (lacks a plane of symmetry or center of symmetry), it will be optically active.
The 'center' of the circle is.
In both cases, because of their symmetry, the center of gravity is in the geometric center.
A cone has infinitely many planes of symmetry because its base is a circle, which also has an infinite amount of planes of symmetry. Prove it by making a 3D model of it and they look at the number of vertexes.