Molecular Orbital Theory Organic Chemistry Introduction

[@yahiamohamed1211]

I bet this is the best explanation ever
I was really confused and tried to search for vedios ending up hear thank you soooooooo much

[@janithhewage2373]

that's a very good explanation.can understand your language pronounce very well

[@tenton2000k]

Wow. Outstanding video. The textbook is so much more confusing.

[@piyushkumarsingh0694]

it made my understanding of MOT , more clear

[@rassimsimou1594]

Good

[@renukamurugesan3257]

These lectures are very useful and easy to understand...sir, can u upload pericyclic reactions?thank you so much...

[@Hlehle_Mal]

Wow this video was so insightful, thank you

[@Knowbee]

You are very welcome

[@drudru5992]

Where are the notes

[@jollyjokress3852]

I like the lectures! I found it confusing though that you left the electrons in the mid-section of the wave-diagram. It looks like there are 4 electrons in the h2... :)

[@see937]

many thanks , this's magnificent

[@simondobbs4480]

Superb exposition, as always.

[@ayushpravinkumarpatel5944]

Now, I understand the concept of MOT

[@elizabethreyna8354]

What does it mean that electrones are in a destrictive phase, is it that electrones of Hidrogen are in diferent places in the atom so they can not bond?

[@anjanchakraborty1665]

Could you help me to solve this question: how many atomic orbitals are required to construct the molecular orbital for 1.CH3- ,C2H2(ACETYLENE), CH2O(FORMALDEHYDE) by using STO-3G basis set ?

[@philsaspiezone]

So the bond order in the ionised hydrogen molecule H2+ is 0.5 because the bond order is the number of electrons in bonding molecular orbitals subtracted from the number of electrons in the anti bonding molecular orbitals divided by 2 and if there is only one electron in the bonding molecular orbital and none in the anti bonding molecular orbitals 1-0 = 1/2 =a bond order of 0.5.

[@GabrielKelly98]

Thank youuuuu God bless your life

[@sanakazmi2407]

just one question, PLEASE ANSWER
if only 1 electron is moved to antibonding molecular orbital by absorbing energy, would it break the bond? or both electrons needs to be in antibonding orbital for the bond to be broken?

[@henearxernog3163]

yes, it'll break the bond.

[@tanmaybisht_iitbhu]

Very nice content....

[@mukeshpatel3795]

Thank you so much!!!!!!

[@Eric-sq4hd]

I hope you can teach me HOMO / LUMO!!

[@MMNayem-dq4kd]

Great explanation

[@mulesubbareddy1160]

good mng

[@christinahaile8782]

so helpful

[@ezekielgutierrez514]

Electrons rule!