Radial probability distribution for p and d orbital
Radial and Angular wave function:
the radial part of wave function depends upon quantum no. n and l and gives the distribution of electron w. r. t distance .it is governed mainly exponential term
e^-Zr/na°(a not)
here
e based on natural log.
Z Atomic number
r distance from nucleus
n principal quantum no. or radial quantum no.
a° 0.529A° for hydrogen ( Bohr radii)
the exact mathematical expression for radial part of wave function for 1s or 2s and 2p orbitals.
n= 1 ,l=0
s orbital
R(r) =2× (z/a°) ^3/2 ×(2-zr/a°) ×e^-zr/2a°
n= 2 ,l=0
2s orbital
R(r) = (z/a°) ^3/2 ×(2-zr/a°) ×e^-zr/2a°
n= 2 ,l=1
2p orbital
R(r) = 1√3×(z/2a°) ^3/2 ×(zr/a°) ×e^-zr/2a°
the radial wave function can be represented by plotting radial function R(r) apart distance(r)
Radial and Angular wave function:
the radial part of wave function depends upon quantum no. n and l and gives the distribution of electron w. r. t distance .it is governed mainly exponential term
e^-Zr/na°(a not)
here
e based on natural log.
Z Atomic number
r distance from nucleus
n principal quantum no. or radial quantum no.
a° 0.529A° for hydrogen ( Bohr radii)
the exact mathematical expression for radial part of wave function for 1s or 2s and 2p orbitals.
n= 1 ,l=0
s orbital
R(r) =2× (z/a°) ^3/2 ×(2-zr/a°) ×e^-zr/2a°
n= 2 ,l=0
2s orbital
R(r) = (z/a°) ^3/2 ×(2-zr/a°) ×e^-zr/2a°
n= 2 ,l=1
2p orbital
R(r) = 1√3×(z/2a°) ^3/2 ×(zr/a°) ×e^-zr/2a°
the radial wave function can be represented by plotting radial function R(r) apart distance(r)
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