That refers to the three coordinates in space.
15,25
y-y1=m(x-x1) m is the slope x1 is x of the given point y1 is y of the given point y stays as y x stays as x ex: P(1,2) m=2 y-2=2(x-1)
What is the next letter? A Z B Y C X D
(y * x) - y = y * (x - 1)
y axis ___________________________________ The letters X, Y and Z often refer to unknown or "variable" quantities, and the purpose of solving the algebra problem is to determine the precise value of these variables.
The "names" assigned to p orbitals are x y z so since there are 3 orbitals in the p orbital, _ _ _ x y z similarly for d orbitals there are 5 _ _ _ _ _ x y xy yz xz i tried to label properly, but on a test, that is how they should be labelled.
p Orbitals
p orbitals
P-orbitals have dumbbell shape.their X & Y orientation is same as the X & Y coordinate axis and that of Z is represented making 45 degree to X and Y
They are like dumbbells, unlike the spherical s orbitals, p orbitals have a definite direction on the x, y, and z axis.
they are used as variables. usually as an identified number.
There are a total of three p orbitals for an atom with principal quantum number n = 2: px, py, and pz. These orbitals are oriented along the x, y, and z axes.
P orbitals at the same energy level have the same energy but differ in their spatial orientation. There are three p orbitals at each energy level (labeled as px, py, pz) that are oriented along the x, y, and z-axes, respectively. These orbitals have the same energy, but they have different spatial shapes and orientations.
It's x = 0. Consider a point of the plane, P=(x, y), in cartesian coordinates. If P is a point belonging to x-axis, then P=(x, y=0); if P is a point belonging to y-axis, then P=(x=0, y).
Subscripts such as y and xz in atomic orbitals indicate the orientation of the orbital in space. They correspond to the orientation of the lobes or regions of high electron density around the nucleus along different axes in three-dimensional space. The specific subscripts provide information about the spatial distribution and symmetry of the orbital.
Suppose you are given a side X unit and perimeter P units of length.Suppose the other pair of sides are Y units long.Then P = 2*(X+Y) so that Y = (P-2X)/2 or (P/2 - X) units.And so, the area = X*Y = X*(P/2 - X) or XP/2 - X2square units.Suppose you are given a side X unit and perimeter P units of length.Suppose the other pair of sides are Y units long.Then P = 2*(X+Y) so that Y = (P-2X)/2 or (P/2 - X) units.And so, the area = X*Y = X*(P/2 - X) or XP/2 - X2square units.Suppose you are given a side X unit and perimeter P units of length.Suppose the other pair of sides are Y units long.Then P = 2*(X+Y) so that Y = (P-2X)/2 or (P/2 - X) units.And so, the area = X*Y = X*(P/2 - X) or XP/2 - X2square units.Suppose you are given a side X unit and perimeter P units of length.Suppose the other pair of sides are Y units long.Then P = 2*(X+Y) so that Y = (P-2X)/2 or (P/2 - X) units.And so, the area = X*Y = X*(P/2 - X) or XP/2 - X2square units.
The shape of the p subshell is predicted to be dumbbell or peanut-shaped. It is composed of three p orbitals, each oriented along one of the three coordinate axes (x, y, z). These orbitals have two lobes of electron density with a node at the center.