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We're here to help you find itThe Implementing Cisco Service Provider Advanced Routing Solutions (SPRI) course is designed for learners aiming to enhance their skills in service provider network routing. This course covers the critical routing technologies and protocols specific to service provider networks, ensuring that participants can manage modern, scalable, and reliable networks.
Module 1: Unicast Routing delves into comparing and troubleshooting OSPF and IS-IS for both IPv4 and IPv6, BGP Scalability, performance, and fault-finding, as well as IPv6 Tunneling and Fast Convergence Techniques.
Module 2: Multicast Routing focuses on the principles and practices of multicast routing, including PIM-SM operations and related troubleshooting.
Module 3: Routing Policy and Manipulation examines Routing Policy Languages, Conditional Matching, and the intricacies of Route Manipulation for both IGPs and BGP.
Finally, Module 4: MPLS and Segment Routing offers insights into troubleshooting MPLS, implementing segment routing, and understanding the Traffic Engineering and segment routing v6 (SRv6) aspects.
By completing the SPRI course, learners will be well-equipped with the know-how to implement and troubleshoot advanced routing services, significantly benefiting their careers in the service provider industry.
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Disclaimer- Koenig is a Cisco Learning partner who is authorized to deliver all Cisco courses to customers residing in India, Bangladesh, Bhutan, Maldives, Nepal.
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Cisco Learning Credits : 43
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♱ Excluding VAT/GST
Classroom Training price is on request
You can request classroom training in any city on any date by Requesting More Information
To ensure a successful learning experience in the Implementing Cisco Service Provider Advanced Routing Solutions (SPRI) course, participants should have the following minimum required knowledge:
These prerequisites are intended to provide a foundation on which the course content will build. A solid grasp of these concepts will enable learners to fully engage with the course material and gain maximum benefit from the training.
The Implementing Cisco Service Provider Advanced Routing Solutions (SPRI) course is tailored for networking professionals enhancing their skillset in complex routing technologies and services.
Target Audience for the SPRI Course:
The Implementing Cisco Service Provider Advanced Routing Solutions (SPRI) course equips learners with skills to implement and troubleshoot advanced routing technologies and services. It covers OSPF, IS-IS, BGP, multicast, policy manipulation, MPLS, and Segment Routing.
IPv4 and IPv6 are versions of the Internet Protocol, which is a set of rules for sending data across the internet. IPv4 uses 32-bit addresses, allowing for about 4 billion unique addresses. This limitation led to the development of IPv6, which uses 128-bit addresses, greatly expanding the number of possible addresses to accommodate the growth of the internet. IPv6 also improves routing and network auto-configuration abilities, ensuring the internet continues to operate efficiently as more devices connect to it. Transitioning from IPv4 to IPv6 is a gradual process to ensure continuous internet service.
BGP Scalability refers to the ability of Border Gateway Protocol (BGP), a system that manages how packets of data are routed across the internet, to effectively manage an increasing amount of routing information. This is crucial to handle the growing complexity of global internet infrastructure. Scalability involves techniques like route aggregation and the use of BGP communities to control routing policies efficiently. The goal is to ensure robust, scalable internet performance without overloading network resources, maintaining timely and accurate delivery of routing information across varied and extensive networks.
IPv6 tunneling is a method used to send IPv6 traffic over an existing IPv4 network. This technique is necessary because the internet is still transitioning from IPv4 to IPv6, which are incompatible protocols. By encapsulating IPv6 data within IPv4 packets, IPv6 tunneling enables the communication between IPv6 devices through an IPv4 infrastructure, ensuring connectivity and interoperability during the transition period. This process is crucial for networks that have not yet fully adopted IPv6 but need to support modern devices that use the new protocol.
Fast Convergence Techniques in networking aim to quickly restore network service after a failure. By minimizing downtime, these methods ensure data flows with minimal interruption, enhancing reliability and performance. Principle strategies include pre-calculating alternate paths, using fast reroute protocols to switch traffic to backup paths instantly, and employing rapid network convergence mechanisms to recalibrate routes efficiently. This is crucial for critical applications where even slight delays can lead to significant issues, ensuring continuous smooth operation of services.
Multicast routing is a method used in network communications where data is simultaneously sent from one source to multiple destinations. This technique conserves bandwidth by allowing a server to transmit a single stream of data to many recipients. It's particularly effective for applications like video conferencing, live broadcasts, and other real-time services where the same data needs to be delivered to multiple users at once. In a multicast system, the network routers manage the distribution paths to ensure that data packets reach all intended recipients efficiently without unnecessary duplication of the data traffic over the network.
Routing Policy Languages are specialized languages used to define the rules that govern the flow of data across networks. Essentially, these rules help to control how data is forwarded by network devices like routers to ensure it travels along optimal paths. These languages enable network administrators to manage traffic more efficiently, prioritize certain types of data, enforce security protocols, and respond dynamically to network conditions. They are crucial for maintaining network performance and reliability, especially in complex networks.
Conditional Matching refers to the process used in computing and data analysis where items are compared to identify or group together those that meet specific conditions or criteria. This technique is commonly utilized in search functions, data filtering, and pattern recognition systems where the goal is to find entities—like documents, images, or database entries—that satisfy predefined conditions set by the user or system logic, enabling more efficient data management and decision-making processes.
Route manipulation involves altering the path that data packets take across a network, usually to optimize performance or enhance security. Networking devices use various protocols and methods to manage and redirect data flow. Typical techniques include changing routing information or priorities to control how traffic is directed between different networks or within a large system. This can help avoid congestion, enhance bandwidth utilization, and ensure that data takes the most efficient path to its destination, enhancing overall network efficiency and reliability.
Segment Routing (SR) simplifies how data paths are managed within a network, enhancing both performance and efficiency. By assigning a specific sequence of instructions, or a segment list, to packets, SR allows data to follow preset paths through the network. This methodology simplifies network operations, improves resource utilization, and decreases overhead, especially in large networks like those operated by internet service providers. Cisco, a leading network technology provider, integrates SR into its products, optimizing compatibility and performance across various networking environments. This makes networks more agile and easier to manage, with increased scalability and reduced complexity.
Traffic Engineering is the application of engineering and mathematical principles to optimize the flow and performance of data across a network. The goal is to ensure efficient data transmission by avoiding or minimizing congestion, ensuring data reaches its destination quickly and reliably. Traffic engineering involves analyzing traffic patterns, predicting behavior, and creating rules or configurations on routers and switches to control the path that data takes through the network. This helps in maximizing the use of existing network resources, improving user experience, and maintaining quality of service for critical applications.
The Implementing Cisco Service Provider Advanced Routing Solutions (SPRI) course is tailored for networking professionals enhancing their skillset in complex routing technologies and services.
Target Audience for the SPRI Course:
The Implementing Cisco Service Provider Advanced Routing Solutions (SPRI) course equips learners with skills to implement and troubleshoot advanced routing technologies and services. It covers OSPF, IS-IS, BGP, multicast, policy manipulation, MPLS, and Segment Routing.
