
1-Enterprise Campus Design Principles
2-Hierarchical Design Architectures
3-Enterprise Campus: Access Layer
4-Typical Access Layer Switches Capabilities and Services
5-Enterprise Campus: Distribution Layer
6-Large Campus Network with a Core Layer
7-Enterprise Campus Two-Tier Layer Model
8-Enterprise Campus Three-Tier Layer Model
1-Modular Enterprise Campus Architecture
2-Modular Enterprise Campus with OSPF
3-Access-Distribution Block
4-Access-Distribution Block Design : Multitier
5-Access-Distribution Block Design : Virtual switch (switch clustering)
6-Access-Distribution Block Design : Routed Access Model
1-Enterprise Campus Design Principles - Flexibility
2-Campus Network Virtualization
3-Campus Network Virtualization Functional Architecture
4-Campus Network Virtualization Technologies : VLAN Assignment
5-Campus Network Virtualization Technologies : Virtual Routing and Forwarding
6-Campus Network Virtualization Path Isolation Techniques : Hop-by-hop VRF-Lite based
7-Campus Network Virtualization Path Isolation Techniques : Hop-by-hop easy virtual network (EVN) based
8-Campus Network Virtualization Path Isolation Techniques : Multihop GRE tunneling based
9-Campus Network Virtualization Path Isolation Techniques : Multihop MPLS core based
1-Enterprise Campus Design Principles - Resiliency
2-Enterprise Campus High-Availability Design Considerations
3-VLAN Design Recommendations
4-Trunking Design Recommendations
5-Link Aggregation Design Recommendations
6-Unicast Flooding with Spanned VLAN Across Access Switches
7-Optimized VLANs Design at the Access Layer
8-Optimized Trunk Convergence
9-EtherChannel Convergence
10-Optimized Link Aggregation with Stackwise Technology at the Access Layer
11-PAgP Performance Results Layer
12-MEC Member Link Failure Convergence
1-Enterprise Campus Design Principles - Resiliency
2-Enterprise Campus High-Availability Design Considerations
3-VLAN Design Recommendations
4-Trunking Design Recommendations
5-Link Aggregation Design Recommendations
6-Unicast Flooding with Spanned VLAN Across Access Switches
7-Optimized VLANs Design at the Access Layer
8-Optimized Trunk Convergence
9-EtherChannel Convergence
10-Optimized Link Aggregation with Stackwise Technology at the Access Layer
11-PAgP Performance Results Layer
12-MEC Member Link Failure Convergence
1-Scalable EIGRP Design Overview
2-EIGRP with Multiple Autonomous Systems Introduction
3-EIGRP Queries Introduction
4-Multiple EIGRP Autonomous System Drivers
5-EIGRP Multilayer Architectures Design Recommendation
6-Logical Zones and Choke Points Introduction
7-Design Optimization Using Choke Points and Summarization Introduction
8-EIGRP Two-Layer Hierarchy Architecture Design Recommendation
9-EIGRP Three-Layer Hierarchy Architecture Design Recommendation
10-EIGRP Alternate Paths at the Access Layer Design Recommendation
1-EIGRP Hub-and-Spoke Design Overview
2-Summarization Challenges Introduction
3-Route Summarization Black Holes Introduction
4-Route Summarization and Suboptimal Routing Introduction
5-EIGRP Hub-and-Spoke Scalability Optimization Introduction
6-EIGRP Stub Leaking Introduction
7-EIGRP Over Dual Hubs and Spokes with a Backdoor Link
8-EIGRP DMVPN Scaling
1-EIGRP Fast Convergence Design Considerations Overview
2-Bidirectional Forwarding Detection (BFD) Introduction
3-EIGRP Graceful Restart/NSF Considerations Introduction
1-OSPF Scalability Design Considerations Overview
2-Adjacent Neighbors Considerations Introduction
3-Routing Information in the Area and the Routed Domain Considerations Introduction
4-Numbers of Routers in an Area Considerations Introduction
5-Number of Areas per ABR Considerations Introduction
1-OSPF Area Design Considerations Overview
2-Partitioned Backbone Area Introduction
3-OSPF Hierarchy Introduction
4-OSPF Border Routers Placement Introduction
5-Area and Domain Summarization Introduction
6-Structured Summarizable IP Addressing Scheme Introduction
7-Approaches to Summarize Routes in OSPF Introduction
1-OSPF Full-Mesh Design Design Considerations
2-OSPF Hub-and-Spoke Design Considerations
3-OSPF ABR Placement in Hub-and-Spoke Design Considerations
4-OSPF over Hub and Spoke (Hub as ABR) Introduction
5-OSPF over Hub and Spoke (Spokes as ABR) Introduction
6-Number of Areas in OSPF Hub-and-Spoke Design Considerations
7-OSPF Network Types in Hub-and-Spoke Design Design Considerations
1-OSPF Convergence Design Introduction
2-OSPF Optimization Techniques Introduction
3-OSPF Event Detection Introduction
4-OSPF Event Propagation Introduction
5-OSPF Event Processing Introduction
6-OSPF Flooding Reduction Introduction
7-OSPF Database Overload Protection Introduction
1-IS-IS Protocol Overview
2-IS-IS Characteristics Introduction
3-Integrated IS-IS Routing Introduction
4-Connectionless Network Service (CLNS) Introduction
5-End systems Introduction
6-Intermediate systems Introduction
1-IS-IS Hierarchical Architecture Overview
2-IS-IS Router and Link Types Introduction
3-IS-IS Adjacencies Introduction
1-Similarities Between IS-IS and OSPF Overview
2-OSPF and IS-IS Characteristics Overview
3-Integrated IS-IS and OSPF Area Designs Overview
1-IS-IS Addressing Overview
2-IS-IS packets and data flow Overview
3-IS-IS network types and operation Overview
4-IS-IS LSP flooding and LSDB synchronization Overview
5-IS-IS Protocol Operations Overview
6-Level 1 and Level 2 LSPs and IIHs Overview
7-IS-IS Link-State Packets Flooding Overview
8-IS-IS LSDB Synchronization Overview
1-IS-IS Routing Logic Overview
2-IS-IS Route Leaking Overview
3-IS-IS Interarea/Level Routing Default Behavior Overview
4-Optimal IS-IS Routing Overview
5-IS-IS Route Leaking and Loop Prevention Overview
6-Asymmetric Versus Symmetric IS-IS Routing Overview
7-IS-IS Suboptimal (Asymmetrical) Routing Overview
8-IS-IS Optimal (Symmetrical) Routing Overview
1-IS-IS Routing over NBMA Hub-and-Spoke Design Recommendation
2-IS-IS Routing over a Full-Mesh Network Design Recommendation
3-Flat IS-IS Routing Design Design Recommendation
4-Hierarchal IS-IS Design Design Recommendation
5-IS-IS Routes Summarization Design Recommendation
1-Integrated IS-IS for IPv6 Overview
2-IS-IS Single-Topology Restrictions introduction
3-Multitopology IS-IS for IPv6 introduction
4-Integrated IS-IS for IPv6 Design Recommendation
1-BGP Speaker Types Overview
2-BGP Loop Prevention and Split-Horizon Rule Overview
3-EBGP Loop Prevention Overview
4-IBGP Split-Horizon Rule Overview
5-BGP Path Attributes Types Overview
6-BGP Best Path Selection Overview
1-Designing Scalable iBGP Networks Overview
2-iBGP Scalability Limitations Overview
3-IBGP Scalability Solutions Overview
4-BGP Route Reflectors Overview
5-IBGP Design Optimization with BGP RR Overview
6-IBGP Speaker Types in an RR Environment Overview
7-BGP Confederations Overview
8-BGP Confederations Versus BGP Route Reflectors Overview
1-Route Reflector Split-Horizon Rule Overview
2-BGP Route Reflectors Redundancy Design Options and Considerations
3-Route Reflector Clusters Overview
4-Route Reflector Cluster ID Overview
5-Congruence of Physical and Logical Networks Overview
6-Impact of Physical Links on RR Design Introduction
7-Optimized Physical Network Design to Support Redundant RR Design
8-Hierarchical Route Reflector Design Overview
9-Route Reflector Potential Network Design Issues Introduction
1-BGP Community Attribute Overview
2-Well-Known BGP Communities Overview
3-BGP Named Community List Overview
4-Planning for the Use of BGP Communities Introduction
1-Enterprise BGP Policy Requirements Introduction
2-BGP Community Solution Design Introduction
3-Solution Detailed Design and Traffic Flow Introduction
4-Planning for the Use of BGP Communities Introduction
1-BGP Load-Sharing Design Introduction
2-Single-Homing Versus Multihoming Design Recommendation
3-Dual-Homing and Multihoming Design Considerations
4-Single-Homed, Multiple Links Design Recommendation
5-Dual-Homed to One ISP Using a Single Local Edge Router Design Recommendation
6-Dual-Homed to One ISP Using Multiple Edge Routers Design Recommendation
7-Multihoming with Two ISPs Using a Single Local Edge Router Design Recommendation
8-Multihoming with Two ISPs Using Multiple Local Edge Routers Design Recommendation
1-IPv6 Deployment and Design Considerations Introduction
2-Business and Network Discovery Phase Introduction
3-Assessment Phase Introduction
4-Planning and Design Phase Introduction
5-Implementation and Optimization Phases Introduction
1-Considerations for Migration to IPv6 Design Introduction
2-Acquiring IPv6 Prefixes Introduction
3-Provider Independent Versus Provider Assigned Introduction
4-Where to Start the Migration?
5-Migration Models and Design Considerations Introduction
6-IPv6 Island Model Introduction
7-IPv6 WAN Model Introduction
1-IPv6 Transition Mechanisms Overview
2-Dual Stack Overview
3-Manual Tunnels Overview
4-Tunnel Brokers Overview
5-6 Rapid Deployment(6RD) Overview
1-Dual-Stack Lite (DS-Lite) Overview
2-Locator/ID Separation Protocol (LISP) Overview
3-LISP Connecting IPv6 Islands Overview
4-Connecting Non-LISP IPv6 Internet Users to Hosted IPv6 Content over the IPv4 Internet Overview
5-Final Thoughts on IPv6 Transition Mechanisms
1-IPv6 Services Overview
2-Name Services Overview
3-Name Services Implementation Recommendations
4-Addressing Services Overview
5-Addressing Services Implementation Recommendations
6-Security Services Overview
1-Link Layer Security Considerations Overview
2-Application Support Design Considerations
3-Application Adaptation Design Considerations
4-Application Workarounds Design Considerations
5-Control Plane Security Overview
6-Dual-Stack Security Design Considerations
7-Tunneling Security Design Considerations
8-Multihoming Design Considerations
1-Choosing Your WAN Connection Introduction
2-WAN connection Considerations about Convergence
3-WAN connection Considerations about Scalability
4-WAN connection Considerations about Quality of service (QoS)
5-WAN connection Considerations about Service-level agreement (SLA) and reporting
6-WAN connection Considerations about Supported traffic
7-WAN connection Considerations about MTU size
8-WAN connection Considerations about Access coverage and media type
9-WAN connection Considerations about Inter-AS MPLS VPN
10-WAN connection Considerations about Managed CE service
1-MPLS VPN Architecture Introduction
2-Customer network Introduction
3-Customer edge (CE) router Introduction
4-Provider (P) network Introduction
5-Provider edge (PE) router Introduction
6-P router Introduction
1- QoS Overview
2- IntServ vs DiffServ Models
3- Classification and Marking
4- Layer 2 Marking (IEEE 802.1Q/p CoS)
5- Layer 3 Marking (IP ToS and DSCP)
1- " How Does IP Multicast Work " Review
2- Multicast in Action Review
3- Unicast in Action Review
1- Multicast Group Review
2- Multicast addresses in IPv4 Review
3- Multicast addresses in IPv6 Review
1- First-hop routers (FHR) Review
2- Last-hop routers (LHR) Review
3- Multicast Distribution Trees Review
4- IP Multicast Service Model Review
1- Functions of a Multicast Network Review
2- The key steps for a properly functioning multicast network Review
1- Multicast Protocols Overview
2- Intradomain Multicast Protocol Overview
3- Interdomain Multicast Protocol Overview
1- Outgoing Interface List (OIL) Overview
2- Reverse Path Forwarding (RPF) Overview
3- Multicast Forwarding Overview
1- RPF Check Failure Case Study Overview
2- RPF Check Succeeds Case Study Overview
1- Source Distribution Tree Overview
2- Shared Distribution Tree Overview
3- Dense Mode Multicast Routing Protocol Overview
4- Sparse Mode Multicast Routing Protocol Overview
1- Source-specific multicast (SSM) Overview
2- SSM characteristics Overview
3- Source-specific Multicast Example Overview
Enterprise environments require networks designed for performance, availability, and scalability to achieve outcomes. Seasoned IT professionals with progressive end-to-end network design expertise are crucial in ensuring networks deliver to meet today’s requirements while future-proofing investments.
For senior network design engineers, principal system engineers, network/solution architects, and CCDA professionals looking to build on your fundamental Cisco network design expertise, the Cisco CCDP certification program focuses on advanced addressing and routing protocols, WANs, service virtualization, and integration strategies for multilayered enterprise architectures.
Students will be able to design and understand the inner workings of all elements within the common enterprise network, including internal routing, BGP routing, modern WAN connectivity, modern data center and data center interconnect, basic network security considerations, advanced quality-of-service design, transition to IPv6, and multicast routing design.
Designing Cisco Network Service Architectures enables network designers, engineers, architects, and CCDP candidates to perform the conceptual, intermediate, and detailed design of a network infrastructure that supports desired network solutions over intelligent network services to achieve effective performance, scalability, and availability.
By applying solid Cisco network solution models and recommended design practices, this course enables learners to provide viable, stable enterprise internetworking solutions. This book presents concepts and examples necessary to design converged enterprise networks.
Also, this course has content addressing software-defined networks (SDNs). You will learn additional aspects of modular campus design, advanced routing designs, WAN service designs, enterprise data center design, and security design.