Networking Automation (NA) represents the process of automating the management and provisioning of a network. It involves utilizing software to automate the process of configuring, managing, testing, deploying, and operating physical and virtual devices within a network. The essence of NA embraces several secondary concepts, which include network orchestration, network configuration automation, and software-defined networking.

Note: Unlock the power of Networking Automation (NA) with an innovative SaaS management platform. Gain full visibility over SaaS expenditures and seamlessly integrate cloud apps into your network automation strategy. Check out Torii’s AI-Powered SaaS Management Platform

But have you ever wondered what makes network automation a cardinal aspect of today’s IT operations? Well, the answer lies in its extensive roster of sub-disciplines.

Setup and Customization: Network programmability, for instance, allows for customization, while network provisioning deals with the setup, configuration, and management of a network resource. These automations contribute to faster, more efficient, and impeccably predictable network operations.

Standardize Procedures: Critical components such as network automation ensure a concerted operation. A network automation framework is used to standardize procedures and maintain consistency across the network. We find network workflow automation among its vast toolkit for streamlining and managing network tasks or processes, enabling more efficient execution of repetitive tasks.

Network Automation: Have you ever wondered about network policy and infrastructure automation? Policy automation helps in automating the application and enforcement of network security policies. On the other hand, infrastructure automation ensures automated tasks within the network’s physical hardware or virtual aspects, including network virtualization.

Network Management and Autonomicity: When further improving networking operations, practices like network intent-based management and network autonomicity take center stage. Intent-based networking (IBN) uses machine learning and advanced analytics to automate administrative tasks. The concept of network autonomicity goes a step further by enabling the network to manage, configure, heal, and protect itself autonomously.

Network Monitoring and Change Management: What if issues arise? The answer rests with network change management alongside network monitoring automation. They play a pivotal role in detecting and resolving network issues and reducing manual labor. Network troubleshooting automation likewise allows professionals to identify and fix network-related problems automatically.

Network Optimization and Security Automation: Finally, network optimization and security automation sectors focus on enhancing network performance and safeguarding networking assets against potential threats. Network optimization improves network speed, reliability, and capacity, while network security automation implements measures to protect the network from cyber threats.

Networking Automation is an encompassing term that signifies the confluence of numerous subsets that collectively contribute to a frictionless, automated, and efficient networking environment.

Examples of Networking Automation (NA)

Cisco Systems Inc.

In Cisco Systems Inc., network automation is implemented using software-defined networking (SDN). SDN has eliminated the tedious manual workload of configuring its extensive network infrastructure, enhancing its capability to swiftly adapt to changing business needs. The software swiftly spots network issues, decreases downtime, and curbs the risk of human errors in configuration tasks.

Google’s Site Reliability Engineering

Another networking automation utilization case is in Google’s Site Reliability Engineering (SRE). SRE work in Google involves creating a self-healing infrastructure incorporating machine learning and automation. This allows for operations like traffic shifting, automatic error identification, and automated rollouts to be handled by systems, not people, reducing the chance of human error.

Amazon Web Services (AWS)

Amazon Web Service’s (AWS) Cloud Development Kit (CDK) presents a real-world example of networking automation. It enables developers to define cloud infrastructure in code and provision it through AWS CloudFormation. It eliminates the need for manual workloads and enables consistency in resource provision. It allows developers to build, deploy, and manage applications rapidly, simplifying operations and reducing time-to-market.

Best Practices for Networking Automation (NA)

Starting your journey towards network automation requires a systematic and thorough understanding of best practices.

1. Explore Network Configuration Automation

The first step is exploring network configuration automation. This involves the use of software tools to change network device settings. Doing so ensures consistency across your system and eliminates the potential for human error. Network automation tools like Python, Ansible, and Chef streamline this process, giving your IT team more time to focus on strategic tasks rather than routine network administration.

1. Implement Network Programmability

Next, consider implementing network programmability. This refers to configuring, managing, troubleshooting, and optimizing network devices programmatically. The concept is closely related to software-defined networking, where network control is decoupled from hardware and given to a software application. Network programmability allows for rapid adaptation to ever-changing IT requirements and business goals.

1. Deploy Network Automation Framework

Deployment of a resilient network automation framework is critical as it provides the structure for your automation tasks. Key elements of this framework include network scripting for automating frequent commands, network policy automation for implementing rules across your network, and network workflow automation for orchestrating complex sequences of tasks.

1. Setup Networks with Network Provisioning

With network orchestration, you unify all processes under one central system, making management more straightforward and efficient. This includes network provisioning, where new systems are set up and configured according to a pre-set template, and network virtualization, which allows for the efficient use of network resources.

1. Integrate Network Intent-Based Management

Next, consider integrating network intent-based management, a system that implements high-level business policies and automates network operations to achieve those policies. Compliment this with network autonomicity, where the network self-manages and repairs itself with minimum human intervention.

1. Use of SaaS Management Tool

One way to achieve this is with a SaaS management platform like Torii. Torii offers visibility over SaaS expenditures and allows building custom plugins and integrations for cloud apps, which can positively impact your network automation strategy.

1. Network Monitoring and Optimization

Finally, consider network monitoring, troubleshooting, optimization, and security automation. These allow for real-time detection and response to network anomalies. Network self-service also enables users to establish and manage their devices on the network autonomously.

Remember that network automation requires a committed and methodical approach and will take time to see measurable results. Don’t rush the process -rigorously test each stage before moving on to the next. Appropriately done, network automation will save time, reduce errors, boost productivity, and provide valuable insights into your networking environment.

Related Tools for Networking Automation (NA)

• Cisco DNA Center: A comprehensive network automation platform that simplifies networking device deployment, management, and troubleshooting.
• Ansible: An open-source automation tool that allows network administrators to automate repetitive tasks and configurations.
• Puppet: A configuration management and automation tool that helps maintain consistency and scalability in network environments.
• Chef: A powerful automation platform that enables network administrators to define infrastructure as code and automate network configurations.
• NetBrain: A network automation platform that provides end-to-end network visibility, documentation, and troubleshooting capabilities.
• SolarWinds Network Automation Manager: A network management tool that offers automation features for network discovery, configuration backup, and compliance management.
• Juniper Network Automation: Juniper’s network automation solution simplifies network provisioning, configuration management, and troubleshooting.
• Riverbed SteelConnect: A software-defined WAN (SD-WAN) solution that automates the deployment and management of network infrastructure.
• Arista CloudVision: A network automation and orchestration platform that provides centralized management and visibility into multi-vendor networks.
• Torii: A SaaS management platform that helps IT professionals gain visibility and control over their software-as-a-service (SaaS) tools and licenses.

Related Concepts in Networking Automation (NA)

• Network Orchestration: Automating and coordinating various network functions, such as provisioning new devices, optimizing network performance, and implementing security policies through a centralized management system.
• Network Programmability: The ability to configure and manage network devices using software-based techniques and protocols, allowing for greater flexibility and customization.
• Software-defined networking (SDN): A network architecture that separates the control plane from the data plane, enabling centralized control and programmability of network devices.
• Network Automation Tools: Software tools and platforms that automate tasks such as network configuration, provisioning, monitoring, troubleshooting, and security management.
• Network Configuration Automation: Using automation tools to streamline and expedite configuring network devices, reducing the risk of human error.
• Network Provisioning: The automated process of deploying and configuring network resources, such as switches, routers, and firewalls, based on predefined requirements and policies.
• Network Scripting: Writing and executing scripts to automate network tasks, including configuration changes, monitoring, and troubleshooting.
• Network Automation Framework: A set of reusable tools, libraries, and guidelines that provide a foundation for automating network management tasks.
• Network Workflow Automation: The automation of end-to-end network processes, from initial design and deployment to ongoing management and optimization.
• Network Policy Automation: Automating the implementation and enforcement of network policies and access controls, ensuring consistency and security across the network.
• Network Infrastructure Automation: The use of automation tools to manage and provision network infrastructure components, such as switches, routers, and load balancers.
• Network Virtualization: Creating virtual network resources, such as virtual networks, switches, and firewalls, using software-based techniques.
• Network Self-Service: Empowering users to request and configure network services on-demand without manual intervention.
• Network Intent-Based Management: A network management approach that focuses on defining the desired outcome or intent rather than specifying the detailed configuration, allowing for automated provisioning and optimization.
• Network Autonomicity: The ability of a network to operate autonomously, making decisions and taking actions based on predefined policies and rules.
• Network Change Management: The automated management of network changes, including assessing impacts, approval workflows, and rollback mechanisms.
• Network Monitoring Automation: The automation of network monitoring tasks, such as collecting and analyzing network performance data, detecting anomalies, and generating alerts.
• Network Troubleshooting Automation: Using automated tools and techniques to diagnose and resolve network issues reduces the time and effort required for troubleshooting.
• Network Optimization Automation: Using automation tools and algorithms to optimize network performance, capacity, and resource allocation continuously.
• Network Security Automation: The automation of security tasks and mechanisms, such as firewall configuration, threat detection, and access control, to enhance network security and reduce the risk of breaches.

FAQs: Networking Automation (NA)

Q: What is networking automation?

A: Networking automation uses technology to perform tasks and manage network infrastructure automatically, such as configuration, monitoring, and troubleshooting, without human intervention.

Q: Why is networking automation critical?

A: Networking automation can significantly improve network management efficiency, reduce human errors, and enhance scalability, as it automates repetitive and time-consuming tasks, leading to faster deployment and better resource utilization.

Q: How does networking automation work?

A: Networking automation leverages software-defined networking (SDN) principles and network orchestration tools to centralize and automate network configuration, policy enforcement, and performance monitoring, and streamlining administrative tasks.

Q: What are the benefits of networking automation?

A: Networking automation offers benefits like increased operational efficiency, faster provisioning of network resources, improved network security, reduced downtime, simplified network management, and better overall performance.

Q: What are some standard networking automation tools?

A: Popular networking automation tools include Ansible, Puppet, Chef, Cisco DNA Center, Juniper Paragon Automation, and Arista CloudVision, among others.

Q: How does networking automation affect job roles in IT?

A: Networking automation can shift IT job roles, requiring network professionals to acquire new skills like programming and script-writing and a deeper understanding of network automation technologies to manage and maintain automated networks effectively.

Q: What are the challenges of implementing networking automation?

A: Some challenges of implementing networking automation include the complexity of network infrastructure, legacy systems that are not automation-friendly, network security concerns, initial investment costs, and the need for skilled personnel.

Q: Can networking automation replace human network administrators?

A: Networking automation can only partially replace human network administrators. While automation can handle routine tasks, network administrators are still essential for strategic decision-making, troubleshooting complex issues, and ensuring the network’s overall health.

Q: Are there any risks with networking automation?

A: Networking automation can introduce risks if not correctly implemented or managed. Potential hazards include misconfigurations leading to network outages, security vulnerabilities, reliance on a single point of failure, and the need for ongoing monitoring and maintenance.

Q: How can I get started with networking automation?

A: To get started with networking automation, you can assess your network infrastructure, identify areas for automation, research and select appropriate automation tools, acquire relevant skills and training, and gradually plan and implement automation use cases in a controlled and iterative manner.