Why is that? How can you decide that S1 has to be the root bridge or S3 cannot be the root bridge. To decide the root bridge in a network with the default switch values which are the same brand you need the MAC addresses of the switches. According to the video no one can decide the root bridge. What you are watching in the video is just an example. Only one of the probabilities is simulated there.
I really like this video but I have one question/comment. All things being equal in your diagram, when STP gets implemented, won't the packet at 3:18 get dropped at switch S3's outgoing interface instead of at switch S1's incoming interface? With all values defaulted, switch S1 will be the root bridge which will put all its interfaces in a forwarding state correct?
@johnmacward thanx
MrAnsh1991 11 months ago
@MrAnsh1991 Nope, this is done pretty in depth in CCNA. In CCNP I here it's an entire book!
johnmacward 1 year ago
Better than the Netacad webite !
sexydiverguy 1 year ago
Extremely easy to follow. Thanks
rajanalak 1 year ago
@akimali
Why is that? How can you decide that S1 has to be the root bridge or S3 cannot be the root bridge. To decide the root bridge in a network with the default switch values which are the same brand you need the MAC addresses of the switches. According to the video no one can decide the root bridge. What you are watching in the video is just an example. Only one of the probabilities is simulated there.
magawla 1 year ago
I really like this video but I have one question/comment. All things being equal in your diagram, when STP gets implemented, won't the packet at 3:18 get dropped at switch S3's outgoing interface instead of at switch S1's incoming interface? With all values defaulted, switch S1 will be the root bridge which will put all its interfaces in a forwarding state correct?
akimali 1 year ago
wow!
DANIAMINE100 1 year ago
is this is for ccnp silabus
MrAnsh1991 1 year ago
Great video. Easy to understand. You're a legend.
ryotNZ 1 year ago
Thank you!
luigiman83 1 year ago