Name: Definitive Segment Routing for engineers
Price: 2367 GBP
Availability: InStock

Redhill

<h3><b>Hardening Cisco devices training course description</b></h3>
        <p>     
            A hands on course focusing on how to lock down Cisco
IOS routers and switches.</p> 
        
				<h5><b>What will you learn</b></h5>
				<ul>
				 
   <li>Harden Cisco devices.</li>
                  </ul>
        <h5>
         <b>Hardening Cisco devices training course details</b> </h5>
				<div>
					<div>
						<ul>
							<li><b> Who will benefit:</b> </li>
							
              <p>
  Technical network staff.<br />
                   Technical security staff.</p>
              
							<li><b>Prerequisites:</b></li>
							
               <p>TCP/IP foundation for engineers.</p>
              
							<li><b>Duration</b></li>
							
              <p>5 days</p>
              
							
              
              
						</ul>
					</div>
				</div>
			
				
				 <h3><b>Hardening Cisco devices training course content</b></h3>
      <ul>
				<li>Introduction </li><p>
Router security, Switch security, Cisco IOS, IOS versions, Cisco advisories, the management plane, control plane, data plane.
<br /><span>Hands on</span> Checking IOS versions and advisories.

</p><li>Access control </li><p>
Infrastructure ACLs, Transit ACLs.
<br /><span>Hands on</span> Restricting access to the device, Filtering data traffic.

</p><li>Management plane: Securing operations </li><p>
Passwords, privilege levels, AAA, TACACS+, RADIUS.
<br /><span>Hands on</span> Password management.

</p><li>Management plane: Other general hardening </li><p>
Logging best practices, secure protocols, encrypting management sessions, configuration management.
<br /><span>Hands on</span> Hardening the management plane.

</p><li>Control plane </li><p>
Disabling reception and transmission of certain messages, Limiting CPU impact of control plane traffic, securing routing protocols.
<br /><span>Hands on</span> Hardening the control plane.

</p><li>Data plane </li><p>
Transit ACLs, disabling unused services, disabling unnecessary protocols, anti spoofing, limiting CPU impact of data plane traffic, identifying and tracing traffic, Netflow, VLANs, port security.
<br /><span>Hands on</span> hardening the data plane.
<br />
</p>
      </ul>

Systems & Network Training

Network & Security

Network Engineer

Hardening Cisco Devices

General Admission

<h3><b>Essential SDN training course description</b></h3>
      <p>Software Defined Networking (SDN) has become one of the industries most talked technologies. This training course cuts through the hype and looks at the technology, architecture and products available for SDN along with looking at the impact it may have on your network.</p>
        
				<h5><b>What will you learn</b></h5>
				<ul>
				 
 <li>Explain how SDN works.</li>
              <li>Describe the architecture of SDN.</li>
              <li>Explain the relationship between SDN and OpenFlow.</li>
              <li>Recognise the impact SDN will have on existing networks.</li>
      </ul>
        <h5>
        <b>Essential SDN training course details</b> </h5>
				<div>
					<div>
						<ul>
							<li><b> Who will benefit:</b> </li>
							
              <p>Anyone wishing to know more about SDN.</p>
              
							<li><b>Prerequisites:</b></li>
							
              <p>None.</p>
              
							<li><b>Duration</b></li>
							
              <p>2 days
						</p>
              
							
              
              
						</ul>
					</div>
				</div>
      <h3><b>Essential SDN training course contents</b></h3>
      <ul>
				<li>Introduction </li><p> 	
					What is SDN? What is OpenFlow? SDN benefits. The SDN stack and architecture.
</p><li>SDN architecture </li><p>

SDN applications, SDN switches, SDN controllers, Network Operating Systems. Control plane, data plane. Control to Data Plane Interface (CDPI), Northbound interfaces. SDN components, control and data plane abstractions.
</p><li>Network Operating Systems </li><p>
Finding the topology, Global view, control program, configuration based on views, graph algorithm.

</p><li>OpenFlow </li><p>
Just one part of SDN. Open Networking Foundation, OpenFlow ports, Flow tables, OpenFlow Channels. The OpenFlow protocol, OpenFlow header, OpenFlow operations. OpenFlow versus OpFlex.

</p><li>SDN and open source </li><p>
OpenDaylight, OpenVSwitch, Open Networking Forum, Open Network Operating System. OpenStack Neutron.

</p><li>SDN implications </li><p>
Separation of control and data plane, NOS running on servers, Emphasis on edge complexity, core simplicity, OpenvSwitch, Incremental migration, importance of software. SDN vs NVF.</p>
      </ul>

Essential SDN for engineers

<h3><b>STP alternatives training course description</b></h3>
        <p>The Spanning Tree Protocol (STP) dates from 1985.
This course explores the technologies that can be used
as an alternative to STP, including FabricPath, SPB
and TRILL.

</p>
        
				<h5><b>What will you learn</b></h5>
				<ul>
				 
                        <li>Explain how STP and RSTP work.</li>
					<li>Explain how TRILL works.</li>
					<li>Explain how SPB works.</li>
                    <li>Explain how FabricPath works.</li>
                  </ul>
        <h5>
        <b>STP alternatives training course details</b> </h5>
				<div>
					<div>
						<ul>
							<li><b> Who will benefit:</b> </li>
							
              <p> Technical network staff.</p>
              
							<li><b>Prerequisites:</b></li>
							
							<p>Definitive Ethernet switching for engineers</p>
              
							<li><b>Duration</b></li>
							
              <p>1 day</p>
              
							
              
              
						</ul>
					</div>
				</div>
      <h3><b>STP alternatives training course contents</b></h3>
      <ul>
				<li>Introduction</li><p>
Layer 2 versus Layer 3, STP problems: One path,
convergence, MAC explosion, STP alternatives.
</p><li>STP</li><p>
802.1D, how STP works, root bridge, convergence
times, single path.
</p><li>RSTP</li><p>
802.1w, Improvements, convergence times.
</p><li>Link aggregation</li><p>
802.3ad, Multi system Link aggregation.
</p><li>IS-IS</li><p>
Concepts, Discovery, topology exchange, flooding.
Changes for TRILL, FabricPath and SPB.
</p><li>FabricPath</li><p>
Overview, architecture, control plane protocols,
DRAP, STP interactions, packet forwarding,
configuration.
</p><li>TRILL</li><p>
Concepts, RBridge, TRILL frames, control plane,
data plane, learning MAC addresses.
	</p><li>SPB</li><p>
802.1aq, Node ID, Backbone Edge Bridges,
Backbone MAC address, customer MACs, I-SID,
forwarding database.

</p>

      </ul>

STP alternatives

<h3><b>CCNP training course description</b></h3>
        <p>The Implementing and Operating Cisco Enterprise
Network Core Technologies (ENCOR) v1.2 course
provides the knowledge and skills needed to configure,
troubleshoot, and manage enterprise wired and
wireless networks. You'll learn to implement security
principles within an enterprise network and how to
overlay network design using solutions such as SDAccess and SD-WAN. Course content includes 3 days
of self-study material. This course helps you prepare for
the 350-401 Implementing Cisco Enterprise Network
Core Technologies (ENCOR) exam</p>
        
				<h5><b>What will you learn</b></h5>
				<ul>
				 
     <li>Configure, troubleshoot, and manage enterprise
wired and wireless networks</li>
<li> Implement security principles within an enterprise
network</li>
<li> Prepare you prepare to take the 350-401
Implementing Cisco Enterprise Network Core
Technologies (ENCOR) exam
</li>
 
                  </ul>
        <h5>
        <b>CCNP training course details</b> </h5>
				<div>
					<div>
						<ul>
							<li><b> Who will benefit:</b> </li>
							
              <p>
   Mid-level network engineers, Network administrators,
Network support technicians, Help desk technicians.</p>
              
							<li><b>Prerequisites:</b></li>
							
              <p>Implementation of Enterprise LAN networks. Basic
understanding of Enterprise routing and wireless
connectivity, and Python scripting</p>
              
							<li><b>Duration</b></li>
							
              <p>5 days</p>
              
							
              
              
						</ul>
					</div>
				</div>
			
				 <h3><b>CCNP training course content</b></h3>
				
      <ul>
				<li>Cisco Enterprise Network Architecture:</li>

 Access,
distribution, core in the hierarchical network.
Cisco Switching Paths: Switching mechanisms, TCAM,
CAM, process switching, fast switching, and CEF.
		  <li>
Implementing Campus LAN Connectivity:</li> Troubleshoot
L2 connectivity using VLANs and trunking<br />
		  <b>Building Redundant Switched Topology:</b> STP<br />
		  
Implementing Layer 2 Port Aggregation<br />
Troubleshoot link aggregation using Etherchannel<br />
EIGRP<br />
Implement and optimize OSPFv2/v3, including
adjacencies, packet types, and areas, summarization,
and route filtering for IPv4/v6<br />
Implement EBGP interdomain routing, path selection,
and single and dual-homed networking<br />
		  <b>Implementing Network Redundancy:</b> HSRP and VRRP<br />
Implement static and dynamic NAT<br />
Virtualization Protocols and Techniques<br />
		  <b>VPNs and Interfaces:</b> Overlay technologies such as VRF,
GRE, VPN, and LISP
		  <b>Wireless Principles:</b> RF, antenna characteristics, and
wireless standards.<br />
<b>Wireless Deployment:</b> Models available, autonomous AP
deployments and cloud-based designs within the
centralized Cisco WLC architecture<br />
Wireless Roaming and Location Services<br />
<b>Wireless AP Operation:</b> How APs communicate with
WLCs to obtain software, configurations, and centralized
management<br />
<b>Wireless Client Authentication:</b> EAP, WebAuth, and PSK
wireless client authentication on a WLC.<br />
Troubleshoot wireless client connectivity issues using
various available tools<br />
Troubleshoot networks using services such as NTP,
SNMP, Cisco IP SLAs, NetFlow, and Cisco IOS EEM
Explain network analysis and troubleshooting tools,
which include show and debug commands, as well as
best practices in troubleshooting<br />
<b>Multicast Protocols:</b> IGMP v2/v3, PIM DM/SM and RPs
<b>Introducing QoS:</b> Concepts and features.<br />
Implementing Network Services: Secure administrative
access for Cisco IOS devices using CLI access, RBAC,
ACL, and SSH, and device hardening concepts to secure
devices from less secure applications<br />
Using Network Analysis Tools<br />
<b>Infrastructure Security:</b> Scalable administration using
AAA and the local database, features and benefits<br />
Enterprise Network Security Architecture: VPNs,
content security, logging, endpoint security, personal
firewalls, and other security features.<br />
Automation and Assurance with Cisco DNA Center:
Purpose, function, features, and workflow. Intent-Based
Networking, for network visibility, proactive monitoring,
and application experience<br />
<b>Cisco SD-Access Solution:</b> Nodes, fabric control plane,
and data plane, VXLAN gateways<br />
<b>Cisco SD-WAN Solution:</b> Components and features of
Cisco SD-WAN solutions, including the orchestration,
management, control, and data planes<br />
	<b>Basics of Python Programming:</b> Python components
and conditionals with script writing and analysis<br />
Network Programmability: NETCONF and RESTCONF
		  APIs in Cisco DNA Center and vManage<p></p>

<li>Labs: </li><p>
Investigate the CAM. Analyze CEF. Troubleshoot
VLAN and Trunk Issues. Tuning STP and Configuring
RSTP. Configure MSTP. Troubleshoot EtherChannel.
Implement Multi-area OSPF. Implement OSPF Tuning.
Apply OSPF Optimization. Implement OSPFv3.
Configure and Verify Single-Homed EBGP.
Implementing HSRP. Configure VRRP. Implement
NAT. Configure and Verify VRF. Configure and Verify a
GRE Tunnel. Configure Static VTI Point-to-Point
Tunnels. Configure Wireless Client Authentication in a
Centralized Deployment. Troubleshoot Wireless Client
Connectivity Issues. Configure Syslog. Configure and
Verify Flexible NetFlow. Configuring Cisco IOS EEM.
Troubleshoot Connectivity and Analyze Traffic with
Ping, Traceroute, and Debug. Configure and Verify
Cisco IP SLAs. Configure Standard and Extended
ACLs. Configure Control Plane Policing. Implement
Local and Server-Based AAA. Writing and
Troubleshooting Python Scripts. Explore JSON Objects
and Scripts in Python. Use NETCONF Via SSH. Use
RESTCONF with Cisco IOS XE. 
</p>
      </ul>

CCNP core

<h3><b>4G training course description</b></h3>
      <p>  This course is designed to give the delegate an
understanding of the technologies used within a 3G
UMTS mobile network. During the course we will
investigate the UMTS air interface and the use of
Wideband-Code Division Multiple Access (WCDMA) to
facilitate high speed data access, together with HSPA
to offer mobile broadband services. We will describe
the use of soft handover rather than hard handover
procedures and soft capacity sharing. The course
includes a brief exploration of the UMTS protocol stack
and the use of PDP Context and QoS support features.</p>
        
				<h5><b>What will you learn</b></h5>
				<ul>
				 
				<li>Explain the 3G UMTS architecture.</li>
																				<li>Describe the role of a Drifting &amp; Serving RNC.</li>
                    <li>Explain the use of ARQ &amp; HARQ for mobile broadband.</li>
                    <li>Describe how IMS integrates into the architecture.</li>
                    <li>Describe the use of Media Gateway Controllers.</li>
                    <li>Identify the temporary identities used within 3G UMTS.</li>
                  </ul>
        <h5>
        <b>4G training course details</b> </h5>
				<div>
					<div>
						<ul>
							<li><b> Who will benefit:</b> </li>
							
              <p>Anyone working within the telecommunications area,
especially within the mobile environment.</p>
              
							<li><b>Prerequisites:</b></li>
							
              <p>Mobile communications demystified<br />Telecommunications Introduction
							</p>
              
							<li><b>Duration</b></li>
							
              <p>2 days
						</p>
              
							
              
              
						</ul>
					</div>
				</div>
      <h3><b>4G training course contents</b></h3>
      <ul>
				<li>LTE Introduction </li><p>
The path to LTE, 3GPP. LTE to LTE advanced.

</p><li>LTE Architecture </li><p>
The core, Access, roaming. Protocols: User plane, Control plane. Example information flows. Bearer management. Spectrum allocation.

</p><li>LTE technologies </li><p>
Transmission, reception, OFDMA, multiple antenna, MIMO.

</p><li>LTE Air interface </li><p>
Air interface protocol stack. Channels, Resource Grid, cell acquisition. Up and downlink controls. Layer 2 protocols.

</p><li>Cell acquisition </li><p>
Power on, selecting networks and cells. RRC connection. Attach procedure.
 
</p><li>Mobility management </li><p>
Roaming, RRC_IDLE, RRC_CONNECTED, cell reselection, handover, interoperation with UMTS and GSM networks.

</p><li>Voice and text </li><p>
IMS, QoS, policy and charging.</p>
      </ul>

4G demystified

<h3><b>LTE training course description</b></h3>
      <p>  This course is designed to give the delegate an
understanding of the technologies used within a 3G
UMTS mobile network. During the course we will
investigate the UMTS air interface and the use of
Wideband-Code Division Multiple Access (WCDMA) to
facilitate high speed data access, together with HSPA
to offer mobile broadband services. We will describe
the use of soft handover rather than hard handover
procedures and soft capacity sharing. The course
includes a brief exploration of the UMTS protocol stack
and the use of PDP Context and QoS support features.</p>
        
				<h5><b>What will you learn</b></h5>
				<ul>
				 
				<li>Explain the 3G UMTS architecture.</li>
																				<li>Describe the role of a Drifting &amp; Serving RNC.</li>
                    <li>Explain the use of ARQ &amp; HARQ for mobile broadband.</li>
                    <li>Describe how IMS integrates into the architecture.</li>
                    <li>Describe the use of Media Gateway Controllers.</li>
                    <li>Identify the temporary identities used within 3G UMTS.</li>
                  </ul>
        <h5>
        <b>LTE training course details</b> </h5>
				<div>
					<div>
						<ul>
							<li><b> Who will benefit:</b> </li>
							
              <p>Anyone working within the telecommunications area,
especially within the mobile environment.</p>
              
							<li><b>Prerequisites:</b></li>
							
              <p>Mobile communications demystified<br />Telecommunications Introduction
							</p>
              
							<li><b>Duration</b></li>
							
              <p>2 days
						</p>
              
							
              
              
						</ul>
					</div>
				</div>
      <h3><b>LTE training course contents</b></h3>
      <ul>
				<li>LTE Introduction </li><p>
The path to LTE, 3GPP. LTE to LTE advanced.

</p><li>LTE Architecture </li><p>
The core, Access, roaming. Protocols: User plane, Control plane. Example information flows. Bearer management. Spectrum allocation.

</p><li>LTE technologies </li><p>
Transmission, reception, OFDMA, multiple antenna, MIMO.

</p><li>LTE Air interface </li><p>
Air interface protocol stack. Channels, Resource Grid, cell acquisition. Up and downlink controls. Layer 2 protocols.

</p><li>Cell acquisition </li><p>
Power on, selecting networks and cells. RRC connection. Attach procedure.
 
</p><li>Mobility management </li><p>
Roaming, RRC_IDLE, RRC_CONNECTED, cell reselection, handover, interoperation with UMTS and GSM networks.

</p><li>Voice and text </li><p>
IMS, QoS, policy and charging.</p>
      </ul>

Essential LTE

<h3><b>Network management technologies course description</b></h3>
        <p>A comprehensive tour of the available network
management technologies available for todays
networks. The course starts with basic tools such as
syslog along with Python network automation. SNMP is
then covered with the *flow technologies and streaming
telemetry. Configuration management with ansible,
Python, NETCONF and RESTCONF is then studied.
The final part of the course looks at SDN. Hands on
sessions are used throughout to reinforce the theory
rather than teach specific manufacturer equipment.
Note that sections are available as individual courses.
</p>
        
				<h5><b>What will you learn</b></h5>
				<ul>
				 
     <li> Evaluate network management technologies.</li>
           					 <li> Evaluate network management technologies.</li>
<li> Recognise the weaknesses of SNMP versus
NETCONF and streaming telemetry.</li>
<li>Explain the role of NETCONF and RESTCONF.</li>
<li>Compare &amp; contrast *flow and streaming telemetry.</li>
<li> Explain the role of SDN in network management.</li>
<li>Automate network configuration with ansible and
Python.
</li>
                  </ul>
        <h5>
        <b>Network management technologies course details</b> </h5>
				<div>
					<div>
						<ul>
							<li><b> Who will benefit:</b> </li>
							
							<p>Those wishing to manage networks.<br />(Previous Python experience is NOT needed)
</p>
              
							<li><b>Prerequisites:</b></li>
							
              <p>Intro to data comms</p>
              
							<li><b>Duration</b></li>
							
              <p>5 days</p>
              
							
              
              
						</ul>
					</div>
				</div>
			
				 <h3><b>Network management technologies course content</b></h3>
				<h4>Basic network management</h4>

				 <ul>
		<li>Network management</li><p>
What is network management? Benefits, issues.
FCAPS model. Fault management, Configuration
management, accounting, performance, security.
What to manage, what not to manage. Managing
network devices, managing servers.</p>
				</ul>
<h4>Monitoring networks</h4> <ul>					 
<li>Traditional network tools</li><p>
Ping..., SSH, syslog, TFTP for configurations.
nmap. Wireshark. CLI. Web based management.
Splunk. Nessus, snort, Kali. 
<br /><span>Hands on</span> syslog, network inventories.

</p> </ul> <ul><li>Network automation using the CLI</li><p>
Programming and automating networks, netOps.
Python, Git. Python network modules, SSH,
paramiko, netmiko. EVE-NG.
<br /><span>Hands on</span>Python
network modules.

</p></ul> <ul><li>Structured versus unstructured data</li><p>
				
Problems with automation and unstructured data.
XML, JSON, YAML. The role of YANG. <br /><span>Hands on</span>
Parsing data.
				
</p></ul> <ul><li>SNMP</li><p>
SNMP architecture, SNMP MIBs, SMI, the SNMP
protocol, polling security. Configuring SNMP.
SNMPv1, v2, v3, SNMP security. Which version
should you use? MIBs and MIB structure. mib-2,
extra parts of mib-2, Private enterprise MIBs.
Summary: What SNMP is good/bad at.<br /><span>Hands on</span>
Configuring agents and a NMS. MIB browsing.
				
</p></ul> <ul><li>Server management</li><p>
Microsoft, Linux, application polling. WMI vs
SNMP. Hands on: Application polling.</p></ul>
				
<h4>Performance management</h4>
 <ul><li>*flow</li><p>
Polling, push vs pull, netflow, sflow, IPFIX, *flow.
Flows. Where to monitor traffic. Comparing *flow
with SNMP. Architecture: Generators and
collectors. When flows are exported. NetFlow
reporting products. SolarWinds. <br /><span>Hands on</span> Netflow
configuration. Collectors.

</p></ul> <ul><li>Streaming telemetry</li><p>
Model driven telemetry, periodic/on change.
Structured data. Telemetry protocol stack. gRPC
and gNMI. Protobuf. gNMI operations. Telemetry
architecture. Telegraf, databases, Grafana. <br /><span>Hands on</span> Telemetry example.
</p></ul>		
<h4>Configuration management</h4>
 <ul><li>Configuration management tools</li><p>
Chef, puppet, ansible, saltstack. Ansible
architecture, controlling machines, nodes,
agentless, SSH, modules. Inventories, playbooks,
modules, network modules, jinja2 templates.
<br /><span>Hands on</span> Network configuration with ansible.
	
</p></ul> <ul><li>NETCONF</li><p>
What is NETCONF? Protocol stack, Data stores,
traffic flows, validating configurations, rollback.
YANG data models and how YANG is used by
NETCONF. XML. Explorers and other tools.
<br /><span>Hands on</span> anx, Python and NETCONF.

</p></ul> <ul><li>RESTCONF</li><p>
The REST API, HTTP, What is RESTCONF?
Tools including Postman. Comparison with
NETCONF. <br /><span>Hands on</span> Configuration with
RESTCONF.
	
</p></ul> <ul><li>Python network automation: configuration</li><p>
SSH issues. Using structured data. Jinja2.
ncclient, requests, NAPALM, Nornir. Automated
testing. <br /><span>Hands on</span> Python network device
configuration with nornir.</p></ul>
	
<h4>Software Defined Networks and orchestration</h4>
 <ul><li>Classic SDN</li><p>
What is SDN? benefits. SDN architecture. SDN
applications, SDN switches, SDN controllers,
Network Operating Systems. Control plane, data
plane. Northbound interfaces. SDN components.
Southbound interfaces. OpenFlow. ONF,
OpenFlow ports, Flow tables.
	
</p></ul> <ul><li>Network virtualization</li><p>
Virtual networks, virtual switches, NfV. Service
chaining. NfV and SDN.
	
</p></ul> <ul><li>SDN implementations</li><p>
Classic SDN, Hybrid SDN, SDN via APIs, SDN
via overlays. Data centre SDN, VXLAN, Service
Provider SDN, SD WAN, Enterprise SDN, WiFi.
	
</p></ul> <ul><li>SDN and open source</li><p>
OpenDaylight, OpenVSwitch, Open Networking
Forum, Open Network Operating System.<br /><span>Hands on</span>OpenStack.
	
</p></ul> <ul><li>SD-WAN</li><p>
What is SD-WAN? Architecture: Edge, gateway,
orchestrator, controller. Overlay and underlay.
Use of MPLS, 4G/5G. Benefits and features.
Secure Access Service Edge (SASE).
</p>
     
      
				
				
				   </ul>

Network management technologies

<h3><b>WAN training course description</b></h3>
        <p>A hands on Introduction to Wide Area Networks for
          engineers. This course covers all current major WAN
          technologies from a perspective of design, evaluating
          technologies available as well as hands on to
          consolidate the theory</p>
        
				<h5><b>What will you learn</b></h5>
				<ul>
				 
        <li>Describe the seven-layer model and realise how it applies to the real world.</li>
        <li>Evaluate and describe WAN technologies.</li>
        <li>Describe the architecture of WANs in the core.</li>
        <li>Use WANS to interconnect LANS.</li>
        </ul>
        <h5>
        <b>WAN training course details</b> </h5>
				<div>
					<div>
						<ul>
							<li><b> Who will benefit:</b> </li>
							
              <p>Technical staff wishing to find out more about how their WAN works.</p>
              
							<li><b>Prerequisites:</b></li>
							
              <p> Intro to data communications &amp; networking</p>
              
							<li><b>Duration</b></li>
							
              <p>5 days</p>
              
							
              
              
						</ul>
					</div>
				</div>
      <h3><b>WAN training course contents</b></h3>
      <ul>
        <li>Introduction</li>
        <p>
          LANs, MANS and WANS, protocols, the OSI seven
          layer model, ITU-T, ETSI, DTE, DCE, and the
          overall picture.</p>
        <li>WAN architectures</li>
        <p>Service providers, core, access, DTE, DCE, CPE, 
          dialup, circuit switched, packet switched, how to
          choose a WAN, common bandwidths, site to site,
          remote access.<br />
          <span>Topologies:</span> Star, Full mesh, partial
          mesh.</p>
        <li>History of WANs </li>
        <p>Before IP was ubiquitous, The PSTN, Dial up
          networks, modems, ISDN, Stat mux, TDM, 64k,
          N*64, E1, X25, Frame Relay</p>
        <li>The role of IP and routers</li>
        <p> The growth of IP, the role of routers, routing tables,
          routing protocols.<br />
          <span>Hands on:</span> IP and routing.</p>
        <li>Layer 1 Physical</li>
        <p>Copper, Fibre, Wireless, Microwave, Phone lines,
          FTTC, FTTH, mobile networks. </p>
        <li>Service provider technologies </li>
        <p>The transport plane, SDH, SONET, DWDM.</p>
        <li>WAN access</li>
        <p>Phone lines, leased lines, xDSL, WiMax, satellite, 
          the role of PPP.</p>
        <li>Broadband</li>
        <p>adband
          xDSL, ADSL, SDSL, local loops, DSLAM, DSL
          architecture.</p>
        <li>ATM </li>
        <p> Cell switching principles, ATM switching, Virtual
          paths, QOS, CBR, VBR, ABR, UBR, AAL1 to
          AAL5, MPOA, LANE, Voice over ATM.</p>
        <li>The Internet </li>
        <p>VPNs, IPSEC, QOS. </p>
        <li>What is MPLS?</li>
        <p> Core MPLS, MPLS and the 7 layer model, MPLS
          protocol, MPLS standard, MPLS runs on routers,
          MPLS history, Why MPLS?</p>
        <li>MPLS architecture</li>
        <p> LSRs, PE and P router roles, FEC, swapping
          labels, MPLS packet format, Loops, TTL control.</p>
        <li>Ethernet </li>
        <p>What is Ethernet? LANs, MANs, WANs, Ethernet
          and switches in the LAN. Traditional LAN/WAN
          integration, routers. The Ethernet interface for the
					WAN. <br /><span>Standards:</span> Transporting carrier Ethernet. </p>
      </ul>

Definitive WANs for engineers

<h3><b>Essential EVPN training course description</b></h3>
        <p>Ethernet VPN (E-VPN) and Provider Backbone
Bridging E-VPN (PBB-EVPN) are emerging
technologies providing Ethernet services over MPLS.
This course studies the technologies in
E-VPN/PBB-EVPN providing multi-homing, multi
pathing, auto discovery, multicast, forwarding and fast
convergence.




</p>
        
				<h5><b>What will you learn</b></h5>
				<ul>
				 
           <li>Differentiate between E-VPN and PBB-EVPN.</li>     
                 <li>Explain how E-VPN operates.</li>
                  <li>Explain how PBB-EVPN operates.</li>
                  <li>Explain how E-VPN provides:
                  <br />Multi homing<br />
                    Multi pathing<br />
                      Auto discovery.</li>
				
       </ul>
        <h5>
        <b>Essential EVPN training course details</b> </h5>
				<div>
					<div>
						<ul>
							<li><b> Who will benefit:</b> </li>
							
              <p>Network engineers. Staff working for carriers.</p>
              
							<li><b>Prerequisites:</b></li>
							
							<p>Definitive Ethernet switching for engineers<br />
							Concise MPLS for engineers
							</p>
              
							<li><b>Duration</b></li>
							
              <p>2 days</p>
              
							
              
              
						</ul>
					</div>
				</div>
      <h3><b>Essential EVPN training course contents</b></h3>
      <ul>
				
<li>Introduction to EVPN</li> <br />
				<li>Network virtualization</li><p>
What Is network virtualization? types of virtual networks,
network tunnelling, the consequences of tunnelling,
packet load balancing, network interface card behaviour.
maximum transmission unit, lack of visibility, VXLAN,
protocols to implement the control plane, support for
network virtualization technologies, merchant silicon
				Software, standards.</p>
<li>The building blocks of Ethernet VPN</li><p>
A brief history of EVPN, architecture and protocols for
traditional EVPN deployment, EVPN in the data center
BGP constructs for Virtual networks, address family
indicator/subsequent address family indicator, route
distinguisher, route target, RD, RT, and BGP processing,
route types, modifications to support EVPN over eBGP,
keeping the NEXT HOP unmodified, retaining route
targets, FRR support for EVPN, automatic propagation of
NEXT HOP, RT/RD derivation, what Is not supported in
FRR.
</p><li>Bridging with Ethernet VPN</li><p>
An overview of traditional bridging, overview of bridging
with EVPN, what Ifs, why does NVE L3 get an
advertisement for MACA? handling BUM packets,
handling MAC moves, support for dual-attached hosts,
the host-switch Interconnect, VXLAN model for
dual-attached hosts, switch peering solutions, handling
Link failures, duplicate multi-destination frames, ARP/ND
suppression.
</p><li>Routing with Ethernet VPN</li><p>
The case for routing in EVPN, routing use cases in the
data center, routing models, where is the routing
performed? centralized routing, distributed routing, how
routing works in EVPN, asymmetric routing, symmetric
routing, VRFs in EVPN routing, summarized route
announcements, BGP support for EVPN routing,
comparing asymmetric and symmetric models, vendor
support for EVPN routing.
</p><li>Configuring and administering Ethernet VPN</li><p>
The sample topology, configuration cases, configuring
the MTU, the end first: complete FRR configurations,
the Invariants: configuration for the spines, firewall, and
servers, centralized routing, asymmetric distributed
routing, symmetric routing, dissecting the configuration,
configuring the underlay, configuring the overlay: FRR
configuring the overlay: interfaces, examining an EVPN
network, show running configuration, show BGP
summary, show EVPN VNIs and VTEPs, identify which
VTEP advertised a MAC address, comparing FRR and
Cisco EVPN configurations, considerations for deploying
				EVPN in large networks.</p>

      </ul>

Essential EVPN

<h3><b>Definitive Segment Routing course description</b></h3>
      <p>This Segment Routing (SR) training course is a
comprehensive program designed to equip network
professionals with the knowledge and skills needed to
implement and manage SR in modern networking
environments. Segment Routing is a cutting-edge
network architecture that enhances network flexibility,
scalability, and efficiency. This course offers in-depth
coverage of SR principles, protocols, and practical
implementation techniques. Hands on sessions are
used to reinforce the theory rather than teach specific
manufacturer equipment.
</p>
        
				<h5><b>What will you learn</b></h5>
				<ul>
				 
      <li>Explain packet paths when implementing SLB.</li>
					<li>Explain how Segment Routing works.</li>
<li>Explain the relationship between SR and MPLS.</li>
<li>Use SR for Traffic Engineering.</li>
<li>Troubleshoot Segment Routing.</li>
<li>Implement TI-LFA using Segment Routing</li>
                  </ul>
       
        <h5>
        <b>Definitive Segment Routing course details</b> </h5>
				<div>
					<div>
						<ul>
							<li><b> Who will benefit:</b> </li>
							
              <p>This course is ideal for network engineers, architects, and
administrators who want to stay up-to-date with the latest
networking technologies and enhance their expertise in
Segment Routing.</p>
              
							<li><b>Prerequisites:</b></li>
							
              <p> Concise MPLS for engineers </p>
              
							<li><b>Duration</b></li>
							
              <p>3 days
						</p>
              
							
              
              
						</ul>
					</div>
				</div>
      <h3><b>Definitive Segment Routing course contents</b></h3>
      <ul>
	  
		  
<li>Introduction to Segment Routing (SR)</li><p>
What is SR? Source based routing, SPRING,
history, segments, why SR? SR benefits.SR usage:
Traffic Engineering, Shortest path, local protection.
Relationship between SR and MPLS, SRv6. <br /><span>Hands on</span>  Investigating the base network.
</p><li>Segment Routing architecture</li><p>
SR domains, SR paths, SR segments. Segment
types. Segment IDs, combining segments, IGP
extensions, control plane components. <br /><span>Hands on</span> 
Configuring SR, exploring how SR works,
</p><li>Segment Routing protocols</li><p>
SR-MPLS. MPLS label stack operations. Segment
Routing Global Block (SRGB). SRLB. IS-IS and
OSPF extensions for SR. Prefix segments,
adjacency segments. SRGB/IGP interactions.
Multidomain SR policies. SPF, Strict SPF. <br /><span>Hands on</span> Analysing IGP SR extension operation.
Investigating the SRGB.
</p><li>Segment Routing Traffic Engineering</li><p>
RSVP-TE versus SR-TE. SR policies. Anycast and
binding SIDs. SR flexible algorithm flex-algo,
Performance measurement delay. <br /><span>Hands on</span>
Optimising network paths for various applications.
</p><li>SR integration with 'older' technologies</li><p>
MPLS and LDP integration with SR. <br /><span>Hands on</span> 
Integration.
</p><li>Topology Independent Loop Free Alternative</li><p>
Classic LFA and IP/MPLS protection mechanisms.
TI-LFA protection options. <br /><span>Hands on</span> TI-LFA
operation with SR and LDP traffic.
</p><li>Scenarios</li><p>
SDN. Managing SR with SR controllers. Analyse,
optimise, automate. Network slicing.
</p><li>BGP peering segments</li><p>
Path Computation Elements, BGP Link State. BGP
prefix segments, BGP peer segments. Egress peer
engineering. SR enabled VPNs. <br /><span>Hands on</span>BGP
segment routing.
</p><li>Troubleshooting Segment Routing</li><p>
IP toolkit: ping and traceroute. MPLS toolkit: MPLS
ping, MPLS echo request/reply, MPLS ping, MPLS
traceroute and path discovery. Router show
commands. <br /><span>Hands on</span> Used throughout the course
during exercises.
</p><li>SRv6</li><p>
Note this is an optional extra day. See our one
day SRv6 course for details. IPv6 headers review,
routing headers, IPv6 segment, SRv6 segment
Identifiers. IPv6 Segment Routing Header. SRH
procedures.<br /><span>Hands on</span> Configuring SRv6,
Analysing SRv6 operation.
</p>
      </ul>

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