300-435 exam at a glance
Cisco Certified Automation Specialist – Enterprise Automation and Programmability · Professional level
Status: Active. ENAUTO v2.0 became effective on February 3, 2026 and the exam title was updated to Automating and Programming Cisco Enterprise Solutions.
| Exam code | 300-435 ENAUTO |
|---|---|
| Certification | Cisco Certified Automation Specialist – Enterprise Automation and Programmability; also satisfies a concentration exam requirement for CCNP Enterprise and CCNP Automation |
| Level | Professional |
| Duration | 90 minutes |
| Delivery | Pearson VUE; in person or online |
| Exam cost | US$300, or use Cisco Learning Credits |
| Languages | English, Japanese |
| Certification validity | 3 years |
| Retake policy | After a failed attempt, candidates must wait five calendar days, beginning the day after the failed attempt, before retaking the same exam. After passing, candidates must wait at least 180 days before taking the same exam number again. |
| Prerequisites | None |
Cisco identifies network engineers, systems engineers, wireless engineers, consulting systems engineers, technical solutions architects, network administrators, wireless design engineers, network managers, sales engineers, and account managers as audiences for the associated ENAUTO training. The exam assesses enterprise automation across device-level and controller-based network automation, operations, and AI in automation.
Skills measured and their weighting
| Skill area | Weight |
|---|---|
| Network Automation Foundation | 10% |
| Device-Level Network Automation | 25% |
| Controller-Based Network Automation | 30% |
| Operations | 20% |
| AI in Automation | 15% |
Source: cisco.com — official 300-435 ENAUTO exam page. The current official exam topics document is Automating and Programming Cisco Enterprise Solutions v2.0. Figures were checked against Cisco’s official documentation. Confirm current details there before booking.
The full bank covers every domain, with timed mode and per-domain scoring.
300-435-ENAUTO Practice Questions By Domains
4 domains covered1. Controller-Based Network Automation
15 free questions available
2. Device-Level Network Automation
9 free questions available
3. Network Automation Foundation
5 free questions available
4. Operations
1 free question available
Practice the full exam, not a sample
Unlock the full bank and practise every domain end to end.
Unlock all 120 questionsCisco 300-435 ENAUTO Practice Test
Preparing for the Cisco 300-435 ENAUTO exam means learning how software can help manage an enterprise network. A useful practice test helps you recognize the right tool for a task, read an API response, and think through an automation workflow. If you are comparing study options, See all available practice tests and look for material that matches the current ENAUTO objectives. This guide explains the subjects worth practicing, what a good review session looks like, and how to turn a missed question into a skill you can use. The topic guidance follows Cisco’s current ENAUTO training outline and Cisco’s ENAUTO exam topics page.
What does the Cisco 300-435 ENAUTO practice test help you learn?
Short answer: It helps you apply Python, APIs, data models, automation tools, and network controllers to everyday enterprise networking problems. A strong practice session asks you to understand a situation and choose a sensible next step. For example, you may need to decide whether to collect operational data, update configuration, test an API call, or investigate an error. You should be able to explain why your choice fits the task.
ENAUTO stands for Automating and Programming Cisco Enterprise Solutions. Cisco describes its current training as covering programming concepts, orchestration, telemetry, and automation tools across IOS XE, Catalyst Center, Catalyst SD-WAN, and Meraki. Its outline also covers AI assisted development and security issues. That range explains why studying one product interface alone is not enough: the common ideas must make sense across several platforms. Source: Cisco ENAUTO training.
The best audience includes network engineers learning Python, developers moving into network operations, and administrators who already know a little about enterprise networks but want to automate repeatable tasks. If words such as RESTCONF or webhook look unfamiliar, begin with the plain language explanations below. The aim is to recognize what a tool does before worrying about detailed syntax.
Official Cisco 300-435 ENAUTO v2.0 domains
Cisco publishes five weighted areas in its official ENAUTO v2.0 exam topics PDF, linked here alongside the Cisco Learning Network exam topics page. The percentages are topic weights, not a promise about the precise number of questions you will see. They add up to 100%.
1.0 Network Automation Foundation — 10%
This domain is the language of model driven automation. Cisco names OpenConfig, IETF, and native YANG models. A model describes which network settings and operational values a system makes available. Learn what a YANG tree tells you about where a value sits, and distinguish the model from the method used to request data. Cisco also specifies NETCONF and RESTCONF, so compare how they interact with modelled information.
The blueprint goes beyond recognizing names: it includes building JSON and XML payloads from a YANG model with tools such as YANG Suite and pyang, and interpreting a YANG module tree produced according to RFC 8340. A helpful practice task is to inspect a short model tree, find the correct field, and explain why the data you send must match that structure. You can then check whether a sample payload represents the intended configuration or the wrong part of the tree.
2.0 Device-Level Network Automation — 25%
Device level means working directly with a network device rather than using a central controller as the primary entry point. Cisco lists Python solutions using Netmiko, ncclient, and RESTCONF to manage and monitor configuration. Know which approach a scenario is using, what information it retrieves or changes, and how you would verify its result. Cisco also includes Ansible for configuration management, Day 0 provisioning, and troubleshooting NETCONF, RESTCONF, and YANG based workflows.
Another part of this domain is on-box automation: Embedded Event Manager (EEM), Guest Shell, and Python running on the device. Put each choice in a simple story. If an event on the device should trigger an action, an event driven feature may fit. If a new device needs its starting configuration, think about provisioning. If a Python script is reading many devices, consider how it handles a device that does not respond. Practice the whole workflow, not just the tool name.
3.0 Controller-Based Network Automation — 30%
This is the largest domain in Cisco’s v2.0 blueprint. It covers Day 0 provisioning through controllers, Python solutions for managing and monitoring configurations, and Ansible used with controllers. It also calls for advanced Jinja2 templates, including loops, conditionals, output modifiers, and filters. Understand why a reusable template needs both a trusted pattern and accurate values for each device or site.
Security automation appears here too: Cisco names policy enforcement, compliance monitoring, and network segmentation. For example, an automated process could check whether a site follows an approved policy or apply a change that separates network traffic. Before choosing a workflow in a practice question, identify the policy goal and the evidence that it worked. The domain also covers troubleshooting REST APIs, so learn to inspect authentication, request format, the target resource, and returned errors. Cisco’s exam description names Catalyst Center, SD-WAN, Meraki, and Identity Services Engine among the relevant technologies; check the platform in each scenario rather than assuming every controller behaves alike.
4.0 Operations — 20%
Operations asks what happens after an automation idea becomes a working service. The blueprint includes testing and validation with Cisco platform APIs, network topology simulations, controller based software version management, and controller based network health monitoring. Think about the evidence you would want before and after a change: the expected state, the actual state, and any signs that the change affected users or devices.
Cisco also specifies model driven telemetry subscriptions on IOS XE using the CLI, NETCONF, or RESTCONF, and webhook based monitoring through controllers. Telemetry supplies ongoing observations; a webhook sends a notification when an event occurs. A good practice scenario may ask whether you need a stream of measurements, an alert, or an on demand status check. Read the requirement carefully before selecting the method.
5.0 AI in Automation — 15%
The fifth domain concerns AI in controller based platforms, AI assisted code development, and the security risks of AI based network automation. Learn to review a generated suggestion for incorrect assumptions, overly broad permissions, and missing validation. Being able to describe a safe review step matters more than assuming a generated script is ready to run.
Cisco also explicitly lists constructing an MCP server with Python FastMCP that provides network information to an AI agent. At a student level, first identify what information the server exposes, which component requests it, and how access should be controlled. Then try a small lab to connect those parts. This topic belongs to the current v2.0 blueprint; older ENAUTO domain lists may omit it.
Start with the problem an automation tool is solving
Network teams often repeat the same work: checking devices, applying consistent settings, recording changes, and responding to alerts. Automation replaces some repeated manual steps with a defined process. It can make results more consistent, but only when the process includes checks and useful error handling. A practice test can help you separate a sensible workflow from a script that changes things without verifying the outcome.
Think of a new branch office. The team needs to prepare devices, apply approved settings, and confirm that the network is healthy. One task might call for initial provisioning. Another might call for a configuration template. A third might require reading health data from an API. Those are different jobs even though each is part of the same project. Cisco’s course distinguishes device automation, controller based provisioning, configuration management, and monitoring for this reason.
As you review a practice question, identify four things: the system involved, the information you have, the requested outcome, and the safest way to verify success. This habit helps when two answers both sound technically possible. The best answer usually matches the exact stage of the workflow described.
Core programming ideas: Python and structured data
Python is useful because a short program can collect information, compare results, and call an API many times. You do not need to treat every Python question as a memory contest. Understand basic variables, lists, dictionaries, loops, functions, and exceptions. If an API returns a list of devices, can you find the one with a certain status? If one request fails, can you tell where the error should be handled? Those are practical ways to check your understanding.
Network automation also relies on structured data. JSON commonly represents API responses as keys and values; YAML is often used for readable configuration or automation files; XML appears in model driven workflows. A learner should be able to see the difference between a whole response and the field a script needs. A practice prompt might describe an inventory response and ask which value tells you whether a device is reachable. Read the data structure first, then consider the code.
Version control belongs in this conversation too. Git helps a team review proposed changes and recover earlier versions of scripts and templates. A good study exercise is to explain what should happen before a configuration change is deployed: review the proposed file, test its effect where possible, and keep a record of the result. Cisco explicitly includes Python, Git, JSON/YAML, and automation tools in its ENAUTO training description.
APIs: learn to read the request and the response
An application programming interface, or API, gives software a defined way to ask another system for information or request an action. In an enterprise network, an API might return a device inventory, report a site’s health, or start a management task. When practicing, ask: Which system receives the request? What permission is needed? Is the request reading information or changing it? What does the response actually confirm?
Pay attention to authentication. A request can fail even when its path and data are correct because its credentials are missing, expired, or unsuitable for that action. A different failure may mean that a resource cannot be found or that the request body has the wrong form. Reading the returned status and message is more useful than repeating the same call blindly. Cisco’s ENAUTO objectives explicitly include troubleshooting controller API authentication and requests.
Also distinguish the response to a request from the final state of the network. Some controller tasks continue after the first response. If a question says an action has been accepted but a device is not yet updated, look for the job status or a later verification step. This is a general way to reason through automation questions without needing to memorize a particular request path.
YANG, NETCONF, and RESTCONF in simple terms
YANG describes the shape and meaning of network data. It is like a structured map of which values a device exposes and how those values relate. NETCONF and RESTCONF are ways software can work with modelled device data. The main study goal is to know how a model, a protocol, and a device fit together. The data model describes the information; the protocol carries a request; the device supplies data or processes a change.
NETCONF and RESTCONF should not collapse into one vague idea in your notes. Cisco’s ENAUTO training asks learners to compare their operations, workflows, and appropriate uses, then monitor both configuration and operational data. A useful practice test should therefore check whether you can tell a read of current state from a change to intended configuration, recognize a mismatch between payload and model, and investigate connectivity or permission errors.
Try drawing a small example on paper: an interface has a configured description, while its operational state says whether it is currently up. If a prompt asks why traffic is failing, reading the configured description alone will not answer it. If the task is to standardize descriptions, operational status alone is not the needed target. This simple distinction will help with many model driven questions.
Device automation with IOS XE
Cisco IOS XE is one of the platforms Cisco names in its ENAUTO course. Its outline includes Python and Netmiko for CLI automation, NETCONF and RESTCONF for model driven tasks, and on box features such as EEM, Guest Shell, and zero touch provisioning. You do not need to confuse these with one another. A CLI script sends commands to a device; a model driven workflow addresses structured data; an on box mechanism runs automation on or near the device; initial provisioning helps a device get started.
Practice the purpose of each choice. Suppose a set of switches already exists and the team wants to check whether their routing settings match a standard. That calls for collecting and comparing information. Suppose new equipment has just been connected and needs its first approved configuration. That is an initial provisioning problem. A question becomes easier once you name the task in ordinary language.
Make verification part of your mental workflow. After sending a change, read back the result or check relevant operational state. If a script can partially succeed, decide how you would identify the affected devices. This is especially helpful for scenario questions involving many devices instead of just one.
Ansible, templates, and keeping configuration consistent
Ansible helps describe and carry out repeatable automation across devices or controllers. Templates allow shared configuration patterns with values that vary by site or device. Cisco covers Ansible for configuration management, drift detection, compliance, resource modules, and safe rollout; it also includes advanced Jinja template.
Configuration drift means that the actual setting has moved away from the approved setting. A sensible study scenario starts with a source of truth, compares it with the network, and decides what should be corrected. Do not assume that every difference should be applied immediately. A maintenance plan, change review, validation, and rollback path can matter when many devices share a policy.
For practice questions, explain the difference between reusing a pattern and hard coding the same lines everywhere. A template can insert site specific values into a reviewed pattern. A poorly managed copy and paste process makes it easy for two sites to diverge. When an answer mentions a template, check that the variable values and intended device group are also controlled.
Controller based workflows: Catalyst Center, SD-WAN, and Meraki
Cisco’s current ENAUTO course works across Catalyst Center, Catalyst SD-WAN Manager, and Meraki. These systems expose different management workflows, so read the product named in a scenario before picking an API or tool. The transferable idea is that a controller can manage a larger environment and provide a central place to provision, configure, monitor, or inspect devices.
Catalyst Center scenarios can involve initial device onboarding, configuration templates, software management, network health, and events. Cisco’s Catalyst Center API documentation describes its API lifecycle and notes that API versions can change; use documentation for the version of the platform in your lab. If a practice item names a feature, identify its goal first: an inventory lookup, a site health check, an image update, or an event subscription are separate tasks.
SD-WAN Manager scenarios ask you to reason about controller based management of a wide area network. Meraki scenarios use dashboard based management and APIs. Cisco’s lab outline includes device configuration and health monitoring for all three environments. Rather than trying to remember every possible endpoint, learn the pattern: authenticate, choose the relevant resource, make an appropriately scoped request, inspect the response, and confirm what changed.
When a question mentions a feature name you have never seen, avoid guessing from a familiar product. Compare it with the named platform’s official documentation. Older notes may use previous product names. The current Cisco course uses Catalyst Center and Catalyst SD-WAN Manager, so those names make useful search terms when checking a modern workflow.
Telemetry, webhooks, and network health
Automation is not only about changing configuration. It also helps teams see what is happening. Telemetry is data reported by devices or systems over time; a webhook can notify another service when a relevant event occurs. Controller APIs can also provide health information when a script asks for it. Cisco’s outline covers controller health APIs, streaming telemetry, and webhooks, along with testing and validation.
Imagine that users report intermittent problems in a branch. A single configuration snapshot may look normal. Health data over time could show when the problem started, while an event notification could trigger a review. In practice material, ask whether the scenario requires an immediate alert, a historical trend, or an on demand lookup. That tells you whether an event, telemetry stream, or API query is the better fit.
Do not treat receiving data as the end of the job. Check whether the data is relevant, whether it is recent, and what action it supports. A question about monitoring is often really asking you to connect an observation to a measured outcome, such as a changed health status or a confirmed alert.
AI assisted automation and security
Cisco’s current course also includes AI capabilities in network controllers, AI assistance when developing code, security risks in AI based automation, and Python FastMCP support for AI agents. These are current topics in Cisco’s ENAUTO training; they should not be silently excluded because an older study PDF lacks them.
For a beginner, the main principle is straightforward: an AI suggestion still needs review. A generated script may look plausible while selecting the wrong network, requesting too much access, or changing more devices than intended. Check inputs, permissions, proposed actions, and output before trusting it. An agent that is allowed to retrieve network information should have a clear boundary around what it can access. Understanding this basic control is more valuable than memorizing a buzzword.
If a mock assessment mentions an MCP server or client, first work out the direction of the interaction. What information is a tool making available? Which component asks for it? How do permissions and validation protect the network? Cisco’s course specifically includes constructing an example with Python FastMCP, so hands on exploration can make the vocabulary easier to remember.
How to use a Cisco 300-435 ENAUTO practice test well
A practice test is most useful when you treat its result as feedback. Take one focused set, then review every explanation. Sort your mistakes by concept: Python and data, device models, API troubleshooting, Ansible, controller workflows, monitoring, or security. If the same concept appears in several missed answers, read the relevant official Cisco material and try a small lab or documentation example. Then return to a different question on the same idea.
Give yourself a reason for each choice before you reveal the answer. For a scenario involving an API error, state whether you suspect authentication, request format, target resource, or a job that is still running. For a configuration task, state how you would confirm the new state. This makes a practice session a reasoning exercise, not a search for familiar words.
Use at least two passes through challenging subjects. On the first pass, build a simple definition of each tool. On the second, compare similar tools in a real situation. For example, distinguish a device CLI command from a controller API action, or a webhook notification from a health query. You can Explore more Cisco certification practice when you need to compare available Cisco assessments and choose material that matches your own goal.
What focused preparation gives you here
Good preparation gives you a repeatable way to check understanding: attempt an exam aligned assessment, inspect the reasoning behind the answers, identify a weak area, and revisit its official documentation. The most useful result is the list of concepts you can now explain clearly. If a practice platform provides explanations or topic based review, use those features to make each attempt more informative. Check the listed features and current availability before relying on any specific test format.
Keep a short error log in your own words. Write, for instance, “I mixed up configuration with operational state” or “I treated acceptance of an API task as proof that it finished.” Add the source you used to resolve the confusion and one way to verify the result in a lab. This creates a more practical record than a page of copied answers. You can Find more exam resources on Edurely if you are planning study across additional technology topics.
Frequently asked questions about ENAUTO practice
Is ENAUTO mainly a Python test?
Python is important, but Cisco’s training covers more than programming language basics. It also includes data models, model driven protocols, configuration management, controller APIs, network monitoring, and newer AI related workflows. A balanced practice test should help you connect Python to the networking job it performs. Source: Cisco ENAUTO training.
Do I need to understand each Cisco platform?
Understand the role of IOS XE, Catalyst Center, Catalyst SD-WAN Manager, and Meraki in the course. You do not have to assume they expose identical workflows. When practicing, identify which platform a scenario names, then use its current documentation to confirm the relevant feature or API. Source: Cisco ENAUTO training overview.
What should I do when two answers both appear possible?
Read the requested outcome again. One answer may retrieve data while another changes settings; one may start a task while another verifies its completion. Check the platform, permissions, stage of the workflow, and evidence of success. These details often explain which choice fits best.
Are older ENAUTO study guides still useful?
They can help explain stable concepts, but compare their coverage with Cisco’s current course outline and official exam topics. Cisco’s present training includes AI assistance and FastMCP alongside familiar automation topics. Avoid treating an older domain breakdown as the current blueprint without checking the version.
Can practice tests replace hands on work?
Practice assessments can show where your reasoning needs attention. A small lab helps you see the actual response, error, or state change behind an explanation. Cisco’s course lists labs for Python, NETCONF, RESTCONF, Ansible, controller APIs, telemetry, and other workflows. Pairing these activities helps turn a recognized answer into a skill you understand. Source: Cisco ENAUTO lab outline.