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We're here to help you find itThe Implementing Converged SDN Transport Solutions (SPSDNTXP) v1.0 course is designed to prepare network professionals for the evolving landscape of network infrastructure. This course covers Converged SDN Transport fundamentals, introducing learners to the principles and deployment of software-defined networking and segment routing within modern networks.
Through a series of modules, participants will dive into Segment Routing and its applications, Topology-Independent Loop-Free Alternative (TI-LFA), and Traffic Engineering (TE) for efficient path computation and network resilience. The course also explores Multidomain SR-TE, providing insights into seamless interconnection across network domains.
Learners will gain an understanding of VPNs, with a focus on EVPN Layer 2 Basics and Layer 3 VPNs, crucial for modern service providers. The curriculum emphasizes operational simplification and the foundational aspects of Automation.
Moreover, the course includes practical exposure to Network Orchestration using Cisco's Network Services Orchestrator (NSO) and Network Automation with Cisco WAN Automation Engine (WAE), equipping professionals with skills to optimize network operations.
Lab sessions reinforce theoretical knowledge, allowing hands-on experience with configuring and verifying segment routing, SR-TE, EVPN, Layer 3 VPNs, and automation tools. This comprehensive training empowers network engineers to implement and manage cutting-edge SDN transport solutions effectively.
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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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You can request classroom training in any city on any date by Requesting More Information
Certainly! To ensure that students have the foundational knowledge necessary for the Implementing Converged SDN Transport Solutions (SPSDNTXP) v1.0 course, the following prerequisites are recommended:
These prerequisites are meant to provide a solid foundation for the course material. While previous experience with segment routing, traffic engineering, and network automation is beneficial, it is not mandatory for enrollment in the course. The course is designed to build upon your existing networking skills and expand your expertise in the latest SDN technologies and solutions.
The SPSDNTXP v1.0 course covers converged SDN transport solutions, ideal for network professionals seeking advanced skills.
Gain expertise in implementing SDN Transport solutions with the SPSDNTXP v1.0 course, focusing on segment routing, traffic engineering, VPNs, network automation, and orchestration.
Network orchestration involves managing and automating tasks across a computer network to optimize its efficiency and functionality. This process simplifies the deployment, configuration, and management of network resources. It plays a critical role in complex networks, ensuring that various network components such as routers, switches, and firewalls work together seamlessly. Network orchestration aims to reduce manual efforts and errors, improve responsiveness, and enhance service delivery through streamlined operations. This is increasingly relevant as networks grow in complexity and scale, particularly with the adoption of software-defined networking (SDN) technologies.
Network Automation involves using software and technologies to automate the management, operation, and provisioning of network devices and services. It aims to increase efficiency, reduce human error, and simplify the maintenance of complex and dynamic networks. By automating routine and repetitive tasks, network professionals can focus on more strategic areas that require innovation and critical thinking. This modern approach supports the rapid demands of current and advancing network environments, ensuring agility and improved performance within organizational IT structures.
SDN, or Software-Defined Networking, transport solutions focus on making the network more flexible and manageable. By separating the control plane (which makes decisions about where traffic is sent) from the data plane (which forwards traffic to its destination), SDN allows network managers to centrally control routing and policy decisions via software. This centralization enables quicker adjustments and optimizations in response to changing network conditions, improving efficiency and performance. SDN transport solutions can be learned through various SDN online classes or SDN training online, enhancing skills in managing next-generation networking challenges.
Converged SDN (Software-Defined Networking) Transport is a networking approach that simplifies and unifies service delivery over a single network infrastructure. It merges various types of network traffic such as data, voice, and video, which traditionally operate on separate networks. By using SDN technology, converged SDN transport offers dynamic, cost-efficient, and scalable network management and operations. This ensures optimal resource use and improved performance across the entire network, facilitating easier maintenance and upgrade paths, as well as enhanced service quality.
Segment Routing (SR) simplifies network operations by allowing routers to define paths through a network using a list of predetermined segments. These segments represent specific physical or logical paths that packets can follow, effectively creating a clear, efficient route that avoids the complexities of traditional IP routing. By applying these predefined segments, Segment Routing enhances network performance, scalability, and the ability to implement robust policy enforcement and traffic engineering, all of which are critical for extensive networks in businesses and service providers.
Topology-Independent Loop-Free Alternative (TI-LFA) is a sophisticated mechanism used in computer networking to ensure continuous and reliable data transfer even if certain network segments fail. It operates within Segment Routing frameworks by preemptively calculating alternative backup paths that automatically take over whenever the usual path encounters issues, like a link failure. This method is designed to rapidly reroute traffic and avoid data loss, enhancing network resilience and reliability without significant overhead or complex configurations. TI-LFA is especially valuable in large-scale and mission-critical networks where maintaining uninterrupted service is crucial.
Traffic Engineering (TE) in networking is the process of optimizing the performance and efficiency of data transport across a network. It involves managing and controlling the routing of network traffic to avoid congestion, ensure reliable data delivery, enhance utilization of network resources, and improve overall network performance. TE employs various methods, such as selecting the most efficient data paths, prioritizing traffic based on type and importance, and preemptively adjusting routes to balance load and prevent bottlenecks. This technique is crucial for maintaining quality of service (QoS) in complex network environments.
Multidomain Segment Routing Traffic Engineering (SR-TE) is a technique used in advanced networking to optimize and control the flow of data across multiple domains, such as different parts of a large network controlled by distinct administrative authorities. It enhances the efficiency and performance of network traffic, ensuring data takes the most optimal path through various sections of a network. This is crucial in modern environments where network reliability and speed are paramount, particularly in complex networks that span across multiple regions or functions.
EVPN Layer 2 refers to a network technology that enhances traditional VPN (Virtual Private Network) services. It allows different sites to connect through a shared network using Ethernet connectivity, enabling a layer 2 bridging extension across a distributed network. Essentially, EVPN Layer 2 standardizes the method for Ethernet broadcasting, multicasting, and MAC address sharing, supporting improved scaling and load balancing across systems, simplifying network management, and enhancing overall network resilience and performance. This technology is fundamental in modern data centers and enterprise networks aiming to streamline operations and connectivity efficiently.
Layer 3 VPNs (Virtual Private Networks) enable different sites of a business to connect over a public infrastructure like the internet securely. Using Layer 3, the VPN can route data packets based on IP addresses, making data exchanges among offices in various locations safe and efficient. This setup also simplifies network management and enhances security as traffic is encrypted and routes are dynamically managed to optimize performance. The technology is essential for businesses with geographically dispersed sites requiring reliable, secure connectivity to access corporate resources and services.
Automation refers to the technology-driven process where machines or software perform tasks that typically require human input, thereby increasing efficiency and reducing the need for manual labor. It involves using control systems and information technologies to handle different processes and machinery in industries to increase reliability and production output. Automation can be applied in various sectors, including manufacturing, transportation, and even routine office tasks, significantly streamlining operations and improving overall productivity. This enables businesses to focus more on strategic tasks by reducing the workload on repetitive and time-consuming activities.
The SPSDNTXP v1.0 course covers converged SDN transport solutions, ideal for network professionals seeking advanced skills.
Gain expertise in implementing SDN Transport solutions with the SPSDNTXP v1.0 course, focusing on segment routing, traffic engineering, VPNs, network automation, and orchestration.
