Skip to content

What Is Network Automation?

Get the latest news, invites to events, and much more

Network automation refers to the practice of using software tools, scripts, and technologies to automate the configuration, management, and operation of computer networks. It involves creating a systematic approach to managing and controlling network devices and services, reducing the need for manual intervention and improving operational efficiency.

In the rapidly evolving landscape of information technology, Network Automation has emerged as a transformative process, leveraging software to optimize the planning, deployment, operation, testing, configuration, and optimization of both physical and virtual devices within a network. By automating these processes, organizations can significantly boost efficiency, reduce operating costs, and minimize the risk of human errors associated with manual network management.

Definition and Architecture:

Network automation refers to the practice of employing software tools, scripts, and advanced technologies to automate the configuration, management, and operation of computer networks. This systematic approach aims to minimize manual intervention, improve operational efficiency, and ensure a consistent and reliable network infrastructure. The architecture typically involves a centralized controller or management platform that orchestrates the automation workflows, communicates with network devices, and ensures synchronization across the entire network.

Key Tasks in Network Automation:

1. Configuration Management:
Automating the configuration of network devices ensures consistency and adherence to defined policies and standards, reducing the risk of errors in devices configuration.

2. Provisioning and Deployment:
Automated provisioning of new network resources, such as VLANs and virtual networks, streamlines the deployment of services, enhancing the management of networks.

3. Monitoring and Management:
Automation tools monitor network health, performance, and security in real-time, triggering alerts and responses based on predefined thresholds or patterns, ensuring a secure network infrastructure.

4. Troubleshooting and Remediation:
Identifying and resolving network issues are streamlined through the automation of diagnostic scripts, log analysis, and corrective actions, reducing the time-consuming nature of manual interventions.

5. Scaling and Load Balancing:
Automation facilitates the scaling of network resources based on demand, along with load balancing to evenly distribute traffic, optimizing the performance of network devices.

6. Security and Compliance:
Automated security measures, such as updating firewall rules and ensuring compliance with regulatory standards, are implemented for enhanced network security and compliance management.

7. Backup and Recovery:
Automated backup processes for network configurations and data, coupled with efficient recovery mechanisms, reduce downtime in case of failures, minimizing the risk associated with network infrastructure disruptions.

8. Orchestration:
End-to-end workflows involving multiple network devices and services are automated, enabling the setup of new networks for applications or services through a comprehensive network automation solution.

Advanced Integration:

Continuous Integration and Continuous Deployment (CI/CD):

Network automation aligns seamlessly with CI/CD principles, supporting the continuous integration of changes and the deployment of updates. This iterative process minimizes disruptions, enhances reliability, and accelerates the delivery of new services and features in an open-source environment.

Machine Learning and Artificial Intelligence Integration:

Advanced network automation leverages machine learning (ML) and artificial intelligence (AI) algorithms to optimize decision-making processes, predict potential issues, and enable self-healing networks. ML algorithms analyze historical network data to identify patterns, predict potential issues, and recommend optimizations, enhancing the intelligence of the network infrastructure.

Self-Service Portals and Cross-Platform Compatibility:

Network automation includes the development of self-service portals for end-users, empowering them to request and manage network services independently. Additionally, ensuring compatibility with various vendors and technologies allows seamless integration with different networking equipment, protocols, and APIs, promoting cross-platform compatibility in network management.

Network Automation Architecture:

The backbone of network automation is a robust architecture that seamlessly integrates various components. A centralized controller or management platform orchestrates automation workflows, communicates with network devices, and ensures synchronization, providing a holistic view of the network for efficient management and control of network devices.

Dynamic Policy Enforcement and Compliance Auditing:

Automation enables dynamic policy enforcement based on real-time conditions, crucial for adapting to changing requirements. Furthermore, compliance auditing ensures adherence to industry standards and regulations, automatically rectifying deviations or generating alerts for manual intervention, contributing to efficient network security and compliance management.

Integration with DevOps Practices and Human-Machine Collaboration:

Network automation aligns closely with DevOps practices, fostering collaboration between development and operations teams. Automation pipelines integrated into the DevOps toolchain facilitate seamless collaboration between human operators and automated systems, ensuring efficient monitoring, troubleshooting, and decision support in the management of network devices.

Training and Skill Development:

As organizations embrace network automation, there is a growing need for skilled professionals capable of designing, implementing, and maintaining automated networks. Training programs and certifications in network automation tools, programming languages, and related technologies are essential to bridge the skills gap and ensure the workforce possesses the expertise required to harness the full potential of automation.

Network Automation Benefits:

Achieving network automation involves a combination of scripting languages, automation frameworks, configuration management tools (e.g., Ansible, Puppet, Chef), software-defined networking (SDN), and application programming interfaces (APIs) provided by networking devices and platforms. Automating networks has become increasingly necessary as the digital world evolves, addressing the complexity of modern networks efficiently.

If network tests and daily functions are automated, the network service’s accessibility improves. API-based automation replaces manual CLI (command-line instructions) to configure each networking device. The APIs can be triggered directly or funneled through a programming language like Python or Java, offering flexibility in network configuration management.

Network Automation is also delivered as part of solutions to automate an ecosystem, e.g., Cloud, SD-WAN, Security, using schedulers or orchestrators. Modern network automation includes an extensive list of tasks, ranging from updating software to providing insight into reports. It also offers additional benefits for cybersecurity concerns, as it can help alert network operators to security breaches such as DDoS attacks, phishing, malware, and other network-threatening occurrences in real-time.

Ensuring end-user ease-of-use is one of the primary considerations of network automation, as many users these days specifically expect their networking between devices to “just work.” Automated networking makes this demand an easy request for networking providers to fulfill. Network automation can range from simple access management solutions to more complex deployments designed to capture considerable usage data for scalability and analysis concerns.

Network Automation Platform and Services:

The evolution of network automation is further amplified through the integration of specialized network automation platforms and services. These platforms, exemplified by the Red Hat Ansible Automation Platform, provide a centralized and comprehensive approach to network automation. The platform facilitates streamlined configuration, management, and orchestration of network devices, offering a cohesive solution for diverse automation tasks.

Red Hat Ansible Automation Platform, as an exemplary network automation platform, simplifies and enhances the deployment of network automation services. It acts as a robust automation solution, incorporating open-source principles and embracing an extensive library of pre-built modules for various network devices. This platform empowers network engineers and administrators to efficiently manage networks, reduce the risk of errors, and ensure real-time monitoring and response.

In conclusion, network automation is a dynamic and multifaceted discipline that continues to evolve alongside advancements in technology. As organizations navigate the complexities of modern networks, embracing comprehensive automation strategies becomes instrumental in achieving agility, reliability, and security in network operations. Specialized network automation platforms and services, such as the Red Hat Ansible Automation Platform, further elevate the capabilities of network automation, providing a centralized and efficient solution for organizations seeking to optimize their network infrastructure.