will VLSM for 8 further subnets on Newton and 64 on Einstein.

On Newton: - Create two sub interfaces, for VLANs 10 and 20. - Enable dot1q trunking for each sub interface. (1 mark) - Using VLSM, split 172.16.0.0/24 into (see above selection method) further subnets. VLAN 10 will be in Subnet 0, VLAN 20 will be in Subnet 1. Create suitable interface IP addresses and subnet masks to reflect this configuration requirement. (1 mark) On Heisenberg: - Create VLANS 10 and 20 , associate interfaces 6 thru 12 with VLAN 10 and associate interfaces 13 thru 18 with VLAN 20. (1 mark) - Enable dot1q trunking for VLAN's 10 and 20 via Fa0/5. (1 mark) Working on PC0 as per figures 2 and 4 : - Connect PC0 to Fa0/6 and give it an IP address within Newton's Subnet 0, Ping from PC0 to 99.0.0.1 [Newton]. [your tutor must be able to also test this] (1 mark) On EInstein: - Create two sub interfaces, via Gi0/0/1 for VLANs 10 and 20 - enable dot1q trunking for each sub interface. (1 mark) - Using VLSM, split 192.168.0.0/24 into (see above selection method) further subnets. VLAN 10 will be in Subnet 0 , VLAN 20 will be in Subnet 1 . Create suitable interface IP addresses and subnet masks to reflect this configuration requirement. (1 mark) On Schrodinger: - Create VLANS 10 and 20, associate interfaces 6 thru 12 with VLAN 10 and associate interfaces 13 thru 18 with VLAN 20. (1 mark) - Enable dot1q trunking for VLAN's 10 and 20 via Fa0/5. (1 mark) Working on PC1 as per figures 2 and 4 : - Connect PC1 to Fa0/18 and give it an IP address within Einstein's Subnet 1, Ping from PC1 to 99.0.0.2 [Einstein]. [your tutor must be able to also test this] (1 mark) Note: at this stage, you can only 'successfully' ping the nearest router from each PC