Download Arista CloudVision

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Arista CloudVision Python Library. The Arista CloudVision Python library provides access to Arista's CloudVision APIs for use in Python applications. Documentation. API Documentation for this library can be found here. Documentation for CloudVision's Resource APIs can be found here.

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CloudVision Configuration Guide - CloudVision Studios - Arista

Simple example of idempotency would be a pair of on/off buttons for a machine - no matter how many times you push ‘on,’ the device will only turn on once.Unlike other tools, Ansible doesn’t use a proprietary communications mechanism or agent on the device being managed. Instead, it leverages industry-standard protocols for device access, including SSH and REST APIs. This also means that Ansible doesn’t require the setup of any unique infrastructure - it’s entirely possible to automate tasks using nothing but your laptop or desktop computer (but a central deployment server is recommended).Ansible describes tasks in a structured language called YAML. Unlike other languages such asJSON and XML, YAML was designed to be human-readable. YAML will be covered further later on in the sectionHow does Ansible work.By now, you can probably appreciate that we can use Ansible to automate many things. This document will focus only on using Ansible to provision Arista EOS devices with or without Arista CloudVision.What are the requirements to run Ansible?¶Ansible can run on almost anything, but in production scenarios, Ansible is typically deployed on a virtual Linux server, running on the customer’s preferred hypervisor. This Ansible server then communicates directly with the Arista network devices via eAPI or Arista CloudVision Portal, which in turn communicates with the Arista network devices. Controlling what Ansible does is typically done using an SSH terminal session to the Ansible server from the Operator’s computer.What is the arista.avd collection?¶Arista.avd is an Ansible collection for Arista Validated Designs. It’s maintained byArista and accepts third-party contributions on GitHub at aristanetworks/avd.While Ansible is the core automation engine, AVD is an Ansible Collection described above. It provides roles, modules, and pluginsthat allow the user to generate and deploy best-practice configurations to Arista based networks of various design types: Data Center, Campus and Wide Area Networks.The illustration above shows the arista.avd collection as a box with a red background on the right-hand side.When designing an EVPN/VXLAN L3LS fabric, you don’t need to spend hours reading through the Arista Design and Deployment Guides. Instead, the AVD collection will implement those rules and guidelines.AVD is an Designed network configuration without looking at individual network devices. An additional benefit of AVD is that by design, you always have a network configuration backup. Including automated documentation in markdown format, you no longer have to remember to update documentation about which interface is connected to which device, etc., whenever you change something on a device. Instead, it’s all done automatically based on the configuration built and applied to the network devices by Ansible every time you execute the playbooks.Below you will find two examples of documentation automatically created by Ansible AVD:Documentation for L3LS fabricA single leaf inside the fabric aboveHow do I use AVD?¶AVD comes with pre-built templates that you can either use as-is or adapt to your liking.Once the templates reflect your desired network configuration, you deploy the configuration either directly to the Arista EOS devices or toConfiglets within CloudVision. This is typically executed from the CLI - for example, from your Ansible AVD Examples directory.Using Ansible AVD with direct eAPI connectivity to the switches¶If you want to push to switches in the entire fabric using eAPI and your playbook looks as follows:---- name: Run AVD hosts: FABRIC gather_facts: false tasks: - name: Generate intended variables ansible.builtin.import_role: name: arista.avd.eos_designs - name: Generate device intended config and documentation ansible.builtin.import_role: name: arista.avd.eos_cli_config_gen - name: Deploy configuration to device ansible.builtin.import_role: name: arista.avd.eos_config_deploy_eapiYou would execute it using the following command if your playbook is called playbook.yml:ansible-playbook playbook.ymlThis will:Create a text file containing the device’s entire configuration.Create device-specific and fabric-wide documentation.Push the relevant configuration to each device using eAPI.Using Ansible AVD in conjunction with CloudVision¶If you want to push to switches in the entire fabric using CloudVision, your playbook looks as follows:---- name: Run AVD hosts: FABRIC gather_facts: false tasks: - name: Generate intended variables ansible.builtin.import_role: name: arista.avd.eos_designs - name: Generate device intended config and documentation ansible.builtin.import_role: name: arista.avd.eos_cli_config_gen- name: Push to CVP hosts: CVP gather_facts: false connection: local tasks: - name: Run CVP provisioning ansible.builtin.import_role: name: arista.avd.eos_config_deploy_cvp vars: container_root: 'DC1' configlets_prefix: 'AVD' execute_tasks: false state: presentYou would execute it using the same command:ansible-playbook playbook.ymlThis will:Create a CloudVision Configlet for each device in

CloudVision Configuration Guide - CloudVision as-a-Service - Arista

AVD and Ansible Overview¶Day 1 Operation¶Imagine being asked to configure a layer 3 leaf spine (L3LS) network from scratch:Traditionally, one would configure the switches manually using a laptop, console cable, and USB key to load the correct EOS software image and configuration. Of course, the configuration would be manually generated using snippets from the relevant Arista design guides or copied/pasted from existing devices. Configurations must be manually adapted to every device, which is time-consuming and error-prone. Imagine a new pair of leaf switches or new VRFs/VLANs were added to the network; changes would need to be made to most of the devices.Using Arista Validated Designs (AVD), this task is automated, greatly simplified, and made considerably faster. All the basic network configuration is guaranteed to be identical across the entire fabric from day one. No longer do you have to manually inspect each device for errors or differences. AVD will ensure the consistency and accuracy of your configuration not only for initial deployment but for all subsequent network changes.AVD is based on best practices from Arista Design and Deployment Guides, meaning you get the full benefit of Arista’s experience deploying large-scale leaf spine fabrics. AVD fully integrates with Arista CloudVision, which adds a change control workflow, continuous compliance check, network topology overview, real-time streaming telemetry including flow-based data, and more.What is Ansible?¶The Red Hat® Ansible® Automation Platform is an open-source tool, released in 2012 and acquired by Red Hat in 2015. Ansibleis an automation engine that can be used for many purposes including:Server software provisioningConfiguration managementApplication deploymentIt’s easily extended through the use of Ansible Collections - essentially prepackaged groups of Ansible components such as playbooks, roles, modules and plugins - that are distributed through Ansible Galaxy.Between the core Ansible software and third-party-contributed collections, we can use Ansible to carry out almost anyautomated task on a network, server, or cloud platform in a consistent, secure, and distributed way.Consistency of tasks carried out is assured through idempotency - that the outcome of an operation is only performed once and only if necessary, no matter how many times that process is carried out. A. Arista CloudVision Python Library. The Arista CloudVision Python library provides access to Arista's CloudVision APIs for use in Python applications. Documentation. API Documentation for this library can be found here. Documentation for CloudVision's Resource APIs can be found here. Upgrading CloudVision Portal (CVP) Note: While upgrading CVP, refer to the latest release notes available at Arista Software Download page; CloudVision Configuration Guide - Upgrading CloudVision Portal (CVP) - Arista

CloudVision Configuration Guide - CloudVision Topology - Arista

Role window displaying all information related to the corresponding role. Figure 3. Edit Role Pop-Up Window Modify the required Information. Click Save. Removing User Roles Complete these steps to remove a user role: Navigate to the Access Control page. Under Access Control in the left menu, click Roles. The Roles page lists all current user roles. Select the required user roles for removal. Click Remove Role/Remove Roles at the upper right corner of the Roles page. The system prompts to confirm removal. Figure 4. Remove User Role Click Delete. Roles Mapping from SAML to CloudVisionCreating an attribute for your SAML provider allows you to pass CloudVision roles fromthe corresponding identity provider to CloudVision. This allows CloudVision useraccounts to be automatically created with these roles when a new user logs in with thatprovider. To use this feature, the Allow Roles Mapping with Providers toggle must be enabledin General Settings. Roles mapping can be set up for a new or existing SAMLidentity provider. You will need to configure attributes in the identity provider andthen add the corresponding provider to CloudVision or edit the provider if it is alreadyconnected to CloudVision. Mapping RolesTo map roles from a SAML provider, you need to configure a custom attributefor CloudVision roles and enter the details in Providers.Register CloudVision with a SAML provider or reconfigure an existing SAMLprovider.Create a custom field that lists CloudVision roles in the SAML provider’suser profiles.Tip: User profiles contain informationsuch as first name, last name, email, phone number, and otherfields.Note: CloudVision role names must be enteredexactly as they appear in CloudVision, for instancenetwork-operator, network-admin, no-access.Assign a role to a user in the SAML provider.Note: To enable mapping provider roles toCloudVision roles, extra steps are required to create a customattribute. The created attribute name can be anything, butcv_roles is a recommended default. CloudVision requiresthe The structured EOS configuration in YAML format as its input(generated by arista.avd.eos_designs) and outputs the following:EOS configuration in CLI format.Device Documentation in Markdown format.Running the play described above would result in several files containing the configuration and documentation for the devices in scope - in this case, DC1_FABRIC. Then, to apply the configuration to the actual devices, you would run additional roles such as:eos_config_deploy_cvp, which deploys the EOS configuration via the CloudVision Management platform, including change control with RBAC and full rollback capability.eos_config_deploy_eapi, which deploys the EOS configuration directly to Arista devices using config replace. This option provides no change control and no rollback capability.While this play shows both the eos_designs and eos_cli_config_gen roles used together, it’s entirely possible to make use of just eos_cli_config_gen by itself - this would allow (for example) generation of management configuration that could potentially be merged into an existing network as discussed earlier.System of Record¶In a legacy network where configuration isn’t administered centrally, you have very little control of the relationship between the configuration you intend to be applied to the network and the configuration running on the network. You might have centralized low-level design documents describing how the network should function in great detail, but you don’t have much but the best intentions to ensure that your entire network is working as you intended. As a result, it takes only a single configuration mistake on a single device to create havoc.Since operating many networking devices also typically results in having many networking engineers, there is even more room for error. Different people do things differently, and repetitive tasks aren’t always executed in the same manner.With AVD, you define not only the topology of your network centrally but also which services are used where in a central repository of text files. Furthermore, because this data is stored in text files, it’s possible to apply version control (for example, using tools like git, subversion, or mercurial) to this System of Record, giving you visibility of when the intended configuration was changed and by whom.This System of Record means you have a complete overview of your

CloudVision - Upgrading CloudVision Portal (CVP) - Arista

Roles Attribute Name to be an array of strings. Enable the Allow Roles Mapping with Providers toggle in GeneralSettings.Add the SAML provider to CloudVision or edit the provider if it has alreadybeen added. In Providers, enter the attribute name that was created for the SAMLprovider in the Roles Attribute Name field and fill in theUsername Attribute Name field. The Username AttributeName allows you to map usernames from the SAML provider toCloudVision by specifying how the provider identifies the username inthe SAML assertion. For most providers, this will be user or username.Note: When mapping roles from Launchpad to CloudVision, youwill also need to enter an Organization Attribute Name.New users signing in with that identity provider will have their CloudVision useraccount automatically created and the roles defined in the corresponding SAMLprovider automatically assigned to them. Action Execution PermissionThe role permission, Action Execution, is available to control the execution ofcustom actions when they are run in isolation, such as via Studio Autofill actions andstandalone executions in the Action editor. A custom action is a user-created actionthat has either been installed via a package or has been created using python script andarguments. The Action Management and Action Execution permissions must beset to Read & Write for a user to modify and execute a custom action viastandalone execution or using the Studio Autofill actions. Note: Due to existing role-based access control permissions forChange Control and Studios, the Action Execution Permission does not limit anyfunctionality in those workflows.Enabling Action Execution PermissionTo enable the Action Execution permission, Navigate to Settings > RolesSelect a role. Under Provisioning, select a permission level forAction Execution.There are three permissions: No Access: The user will not be able to execute customactions in isolationRead Only: The user will be able to access details ofprevious executions and their associated logs via rAPIs.Read and Write:

Arista CloudVision and Intentionet Batfish Brief - Arista

Mario Arista Sr., 71, passed away on January 1, 2025 at his home in Rock Springs, Wyoming.He was born on November 21st,1953 in Eagle Pass, Texas, the son of Ramiro Arista and Armandina Urrabaso, one of 15 children. He was the second oldest of his 8 brothers and had 7 sisters.Mario married Brigett Snyder in Rock Springs, Wyoming on June 4, 1980.Mr. Arista worked as a Union laborer until his retirement in 2019.Mario was a member of Grace Baptist Church.He enjoyed spending his time being outdoors, doing yardwork, and helping others. He shoveled many snow covered sidewalks for the elderly as a service to them. He loved telling jokes, listening to his music loudly and dancing around the house. Mario was a great dancer and won many competitions in Mexico growing up. He also enjoyed being in plays, he once portrayed Zorro in a play. He taught himself how to speak English. Mario Sr. enjoyed cooking and making tamales with Brigett. He was always delighted when his kids and grandchildren would come over and eat homemade tortillas and chile with him. Often times he was gifting tortillas and chile to family, friends and neighbors. Survivors include his wife Brigett Arista of Rock Springs, Wy; son/in law Serjio Arista of Salt Lake City UT, Rex Mols of Okinawa Japan and Shane Griffin of Rock Springs WY; daughters SeLinda AristaMols of Okinawa, Japan; DeLuvia Griffin of Holladay, UT; YoLanda Arista of Rock Springs, WY; grandchildren DeLia, AyLaya, Elias, and IiLaycia Griffin.He was preceded in death by his parents, several siblings and his son Mario Arista Jr.Funeral services will be held at 1:00 pm, Wednesday, January 29th, 2025 at Grace Baptist Church, 100 Willow Street, Rock Springs, WY. Pastor Hodges will be officiating.Interment will take place in the Rock Springs Municipal Cemetery.Donations to help the family with funeral expenses can be made to the Fox Funeral Home, 307-362-3876. Condolences can be left at www.foxfh.com. To order memorial trees or send flowers to the family in memory of Mario Arista Sr., please visit our flower store.. Arista CloudVision Python Library. The Arista CloudVision Python library provides access to Arista's CloudVision APIs for use in Python applications. Documentation. API Documentation for this library can be found here. Documentation for CloudVision's Resource APIs can be found here. Upgrading CloudVision Portal (CVP) Note: While upgrading CVP, refer to the latest release notes available at Arista Software Download page; CloudVision Configuration Guide - Upgrading CloudVision Portal (CVP) - Arista

The CloudVision Journey - Arista Networks

Cumulative evidence that is automatically correlated over time.Go beyond alerts and leverage the platform to autonomously investigate threats and enable security teams to visualize the entire incident kill chain across entities, protocols, and time.Automate threat hunts and build custom detection models for unique risks that enable security analysts to resolve threats contextually.Deliver faster, more effective reactionAccess actionable information regarding the entities that pose the most business risk and respond effectively.Access comprehensive, descriptive, and investigative answers that give context to threats and event details.Provide forensic artifacts and timelines to equip defenders with meaningful evidence.Share insights with IT and security infrastructure teams to enhance existing investments.Built to deploy in a few hours, Arista NDR enables organizations to further their zero trust journey. As Arista NDR integrates seamlessly with existing security investments, security teams can easily view high-risk incidents and compromised entities on a single pane of glass right from the start without the need for agents, manual configuration, or complex integrations.Download the Arista NDR whitepaper to know more. The Arista NDR PlatformBuilt-in sophistication and “thinking” ability that empowers organizations to successfully uncover and respond to zero day threatsThe Arista NDR platform analyzes enterprise network traffic and autonomously identifies, assesses, and processes threats—giving actionable insights for the organization’s security teams to respond effectively.The platform that thinks before it actsThe Arista NDR platform deploys with:AVA Sensors: Get enhanced visibility and detailed traffic analysis from the core and perimeter to IoT and cloud.Continuously monitor enterprise devices, users, and applications wherever they are, even as IP

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User5159

Simple example of idempotency would be a pair of on/off buttons for a machine - no matter how many times you push ‘on,’ the device will only turn on once.Unlike other tools, Ansible doesn’t use a proprietary communications mechanism or agent on the device being managed. Instead, it leverages industry-standard protocols for device access, including SSH and REST APIs. This also means that Ansible doesn’t require the setup of any unique infrastructure - it’s entirely possible to automate tasks using nothing but your laptop or desktop computer (but a central deployment server is recommended).Ansible describes tasks in a structured language called YAML. Unlike other languages such asJSON and XML, YAML was designed to be human-readable. YAML will be covered further later on in the sectionHow does Ansible work.By now, you can probably appreciate that we can use Ansible to automate many things. This document will focus only on using Ansible to provision Arista EOS devices with or without Arista CloudVision.What are the requirements to run Ansible?¶Ansible can run on almost anything, but in production scenarios, Ansible is typically deployed on a virtual Linux server, running on the customer’s preferred hypervisor. This Ansible server then communicates directly with the Arista network devices via eAPI or Arista CloudVision Portal, which in turn communicates with the Arista network devices. Controlling what Ansible does is typically done using an SSH terminal session to the Ansible server from the Operator’s computer.What is the arista.avd collection?¶Arista.avd is an Ansible collection for Arista Validated Designs. It’s maintained byArista and accepts third-party contributions on GitHub at aristanetworks/avd.While Ansible is the core automation engine, AVD is an Ansible Collection described above. It provides roles, modules, and pluginsthat allow the user to generate and deploy best-practice configurations to Arista based networks of various design types: Data Center, Campus and Wide Area Networks.The illustration above shows the arista.avd collection as a box with a red background on the right-hand side.When designing an EVPN/VXLAN L3LS fabric, you don’t need to spend hours reading through the Arista Design and Deployment Guides. Instead, the AVD collection will implement those rules and guidelines.AVD is an

2025-04-21
User5771

Designed network configuration without looking at individual network devices. An additional benefit of AVD is that by design, you always have a network configuration backup. Including automated documentation in markdown format, you no longer have to remember to update documentation about which interface is connected to which device, etc., whenever you change something on a device. Instead, it’s all done automatically based on the configuration built and applied to the network devices by Ansible every time you execute the playbooks.Below you will find two examples of documentation automatically created by Ansible AVD:Documentation for L3LS fabricA single leaf inside the fabric aboveHow do I use AVD?¶AVD comes with pre-built templates that you can either use as-is or adapt to your liking.Once the templates reflect your desired network configuration, you deploy the configuration either directly to the Arista EOS devices or toConfiglets within CloudVision. This is typically executed from the CLI - for example, from your Ansible AVD Examples directory.Using Ansible AVD with direct eAPI connectivity to the switches¶If you want to push to switches in the entire fabric using eAPI and your playbook looks as follows:---- name: Run AVD hosts: FABRIC gather_facts: false tasks: - name: Generate intended variables ansible.builtin.import_role: name: arista.avd.eos_designs - name: Generate device intended config and documentation ansible.builtin.import_role: name: arista.avd.eos_cli_config_gen - name: Deploy configuration to device ansible.builtin.import_role: name: arista.avd.eos_config_deploy_eapiYou would execute it using the following command if your playbook is called playbook.yml:ansible-playbook playbook.ymlThis will:Create a text file containing the device’s entire configuration.Create device-specific and fabric-wide documentation.Push the relevant configuration to each device using eAPI.Using Ansible AVD in conjunction with CloudVision¶If you want to push to switches in the entire fabric using CloudVision, your playbook looks as follows:---- name: Run AVD hosts: FABRIC gather_facts: false tasks: - name: Generate intended variables ansible.builtin.import_role: name: arista.avd.eos_designs - name: Generate device intended config and documentation ansible.builtin.import_role: name: arista.avd.eos_cli_config_gen- name: Push to CVP hosts: CVP gather_facts: false connection: local tasks: - name: Run CVP provisioning ansible.builtin.import_role: name: arista.avd.eos_config_deploy_cvp vars: container_root: 'DC1' configlets_prefix: 'AVD' execute_tasks: false state: presentYou would execute it using the same command:ansible-playbook playbook.ymlThis will:Create a CloudVision Configlet for each device in

2025-04-21
User6141

AVD and Ansible Overview¶Day 1 Operation¶Imagine being asked to configure a layer 3 leaf spine (L3LS) network from scratch:Traditionally, one would configure the switches manually using a laptop, console cable, and USB key to load the correct EOS software image and configuration. Of course, the configuration would be manually generated using snippets from the relevant Arista design guides or copied/pasted from existing devices. Configurations must be manually adapted to every device, which is time-consuming and error-prone. Imagine a new pair of leaf switches or new VRFs/VLANs were added to the network; changes would need to be made to most of the devices.Using Arista Validated Designs (AVD), this task is automated, greatly simplified, and made considerably faster. All the basic network configuration is guaranteed to be identical across the entire fabric from day one. No longer do you have to manually inspect each device for errors or differences. AVD will ensure the consistency and accuracy of your configuration not only for initial deployment but for all subsequent network changes.AVD is based on best practices from Arista Design and Deployment Guides, meaning you get the full benefit of Arista’s experience deploying large-scale leaf spine fabrics. AVD fully integrates with Arista CloudVision, which adds a change control workflow, continuous compliance check, network topology overview, real-time streaming telemetry including flow-based data, and more.What is Ansible?¶The Red Hat® Ansible® Automation Platform is an open-source tool, released in 2012 and acquired by Red Hat in 2015. Ansibleis an automation engine that can be used for many purposes including:Server software provisioningConfiguration managementApplication deploymentIt’s easily extended through the use of Ansible Collections - essentially prepackaged groups of Ansible components such as playbooks, roles, modules and plugins - that are distributed through Ansible Galaxy.Between the core Ansible software and third-party-contributed collections, we can use Ansible to carry out almost anyautomated task on a network, server, or cloud platform in a consistent, secure, and distributed way.Consistency of tasks carried out is assured through idempotency - that the outcome of an operation is only performed once and only if necessary, no matter how many times that process is carried out. A

2025-04-09
User3878

Role window displaying all information related to the corresponding role. Figure 3. Edit Role Pop-Up Window Modify the required Information. Click Save. Removing User Roles Complete these steps to remove a user role: Navigate to the Access Control page. Under Access Control in the left menu, click Roles. The Roles page lists all current user roles. Select the required user roles for removal. Click Remove Role/Remove Roles at the upper right corner of the Roles page. The system prompts to confirm removal. Figure 4. Remove User Role Click Delete. Roles Mapping from SAML to CloudVisionCreating an attribute for your SAML provider allows you to pass CloudVision roles fromthe corresponding identity provider to CloudVision. This allows CloudVision useraccounts to be automatically created with these roles when a new user logs in with thatprovider. To use this feature, the Allow Roles Mapping with Providers toggle must be enabledin General Settings. Roles mapping can be set up for a new or existing SAMLidentity provider. You will need to configure attributes in the identity provider andthen add the corresponding provider to CloudVision or edit the provider if it is alreadyconnected to CloudVision. Mapping RolesTo map roles from a SAML provider, you need to configure a custom attributefor CloudVision roles and enter the details in Providers.Register CloudVision with a SAML provider or reconfigure an existing SAMLprovider.Create a custom field that lists CloudVision roles in the SAML provider’suser profiles.Tip: User profiles contain informationsuch as first name, last name, email, phone number, and otherfields.Note: CloudVision role names must be enteredexactly as they appear in CloudVision, for instancenetwork-operator, network-admin, no-access.Assign a role to a user in the SAML provider.Note: To enable mapping provider roles toCloudVision roles, extra steps are required to create a customattribute. The created attribute name can be anything, butcv_roles is a recommended default. CloudVision requiresthe

2025-04-20
User1646

The structured EOS configuration in YAML format as its input(generated by arista.avd.eos_designs) and outputs the following:EOS configuration in CLI format.Device Documentation in Markdown format.Running the play described above would result in several files containing the configuration and documentation for the devices in scope - in this case, DC1_FABRIC. Then, to apply the configuration to the actual devices, you would run additional roles such as:eos_config_deploy_cvp, which deploys the EOS configuration via the CloudVision Management platform, including change control with RBAC and full rollback capability.eos_config_deploy_eapi, which deploys the EOS configuration directly to Arista devices using config replace. This option provides no change control and no rollback capability.While this play shows both the eos_designs and eos_cli_config_gen roles used together, it’s entirely possible to make use of just eos_cli_config_gen by itself - this would allow (for example) generation of management configuration that could potentially be merged into an existing network as discussed earlier.System of Record¶In a legacy network where configuration isn’t administered centrally, you have very little control of the relationship between the configuration you intend to be applied to the network and the configuration running on the network. You might have centralized low-level design documents describing how the network should function in great detail, but you don’t have much but the best intentions to ensure that your entire network is working as you intended. As a result, it takes only a single configuration mistake on a single device to create havoc.Since operating many networking devices also typically results in having many networking engineers, there is even more room for error. Different people do things differently, and repetitive tasks aren’t always executed in the same manner.With AVD, you define not only the topology of your network centrally but also which services are used where in a central repository of text files. Furthermore, because this data is stored in text files, it’s possible to apply version control (for example, using tools like git, subversion, or mercurial) to this System of Record, giving you visibility of when the intended configuration was changed and by whom.This System of Record means you have a complete overview of your

2025-03-25

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