How to Pass the Microsoft Azure Exam in 2026: Premium AZ-700 Dumps
The landscape of enterprise IT is evolving at a breakneck pace, and as organizations aggressively transition their critical workloads into hybrid and multi-cloud environments, the demand for specialized cloud networking experts has skyrocketed. In 2026, simply knowing how to spin up a virtual machine is no longer enough. Enterprises require secure, scalable, and highly optimized network architectures to connect their global operations. This is exactly where the Microsoft AZ-700: Designing and Implementing Microsoft Azure Networking Solutions certification comes into play.
Earning the title of Microsoft Certified: Azure Network Engineer Associate proves that you possess the elite technical skills required to plan, implement, and maintain complex Azure networking infrastructures. However, mastering this exam requires more than just theoretical knowledge; it demands hands-on insight and strategic preparation.
Why Prepare with 2026 Latest AZ-700 Exam Dumps?
Because the AZ-700 leans heavily on complex case studies and intricate routing scenarios, relying solely on theoretical study guides is a massive risk. The most efficient way to bridge the gap between textbook knowledge and exam-day success is by utilizing the latest, professionally curated AZ-700 Exam Dumps from Pass4surexams.
Pass4surexams provides actual, verified questions that accurately reflect the current 2026 exam format. By practicing with these materials, you train your brain to quickly identify key technical requirements hidden within lengthy case studies. You will learn the specific phrasing Microsoft uses to test your knowledge, allowing you to manage your time effectively during the live exam and eliminate the anxiety that causes so many candidates to fail on their first attempt.
Complete AZ-700 Exam Overview and Specifics
The AZ-700 exam is meticulously designed by Microsoft to evaluate a candidate’s ability to handle real-world network engineering tasks within the Azure ecosystem. It is not an entry-level test; it is an associate-level examination that tests deep, scenario-based problem-solving.
Here are the critical exam specifics you need to know for your 2026 attempt:
Designing and Implementing Microsoft Azure Networking Solutions
Microsoft Certified: Azure Network Engineer Associate
Exam Cost
Approximately $165 USD. (Note: Pricing varies slightly depending on your geographical location and local taxes).
Duration
Candidates are allotted 120 minutes for the actual exam, with an additional 20–30 minutes dedicated to reading instructions, signing the NDA, and providing feedback.
Number of Questions
You can expect anywhere from 40 to 60 questions on your test.
Passing Criteria
The exam is scored on a scale of 1 to 1000. You must achieve a minimum score of 700 to pass and earn your certification.
Question Formats
Microsoft employs a rigorous mix of question types to prevent rote memorization. You will face:
Multiple-choice questions
Drag-and-drop scenarios
Build-list reordering
Hot-area selections
Extensive case studies requiring analysis of a fictional company's architecture and providing networking solutions
Testing Options
The exam is administered via Pearson VUE and can be taken at a physical testing center or online from the comfort of your home via a proctored environment.
Always verify details on the official Microsoft Learn portal prior to scheduling your exam.
Exam Prerequisites and Candidate Criteria
While Microsoft does not mandate that you hold any lower-level certifications before booking the AZ-700, jumping into this exam without the proper background is a recipe for failure. The ideal candidate must meet several distinct technical criteria and possess a strong baseline of both on-premises and cloud knowledge.
Recommended Experience and Knowledge
To succeed on the AZ-700 exam, candidates should ideally have:
Azure Administration Experience: It is highly recommended that you have knowledge equivalent to the AZ-104 (Azure Administrator) exam. You should be entirely comfortable navigating the Azure Portal, provisioning resources, and managing identity and access.
Fundamental Networking Fluency: You must have a rock-solid understanding of core networking concepts. This includes a deep knowledge of the OSI model, IPv4 and IPv6 addressing, subnetting calculations, Classless Inter-Domain Routing (CIDR), routing protocols (like BGP), and Domain Name System (DNS) resolution.
Hybrid Connectivity Understanding: A modern network engineer rarely works in a cloud-only vacuum. You must understand how on-premises data centers connect to the cloud via VPNs and dedicated circuits.
Deep Dive into the 2026 AZ-700 Exam Topics
To pass the AZ-700 exam, you must demonstrate proficiency across five distinct objective domains. Microsoft updates these weightages to reflect what is most important in the current industry. Here is the detailed breakdown of the syllabus:
Domain 1: Design and Implement Core Networking Infrastructure (25–30%)
This is the foundational domain of the exam. You will be tested on your ability to design scalable Virtual Networks (VNets). This includes planning private IP addressing spaces to ensure there are no overlapping subnets, configuring custom subnet delegations for Azure Platform-as-a-Service (PaaS) offerings, and managing both public and private DNS zones. Furthermore, you must know how to implement VNet peering (both regional and global) and configure custom User-Defined Routes (UDRs) to direct traffic exactly where it needs to go.
Domain 2: Design, Implement, and Manage Connectivity Services (20–25%)
This domain focuses heavily on hybrid networking—connecting on-premises environments to Azure. You will need to master the design and deployment of Site-to-Site (S2S) VPNs, Point-to-Site (P2S) client connections, and Azure ExpressRoute circuits for high-speed, dedicated private connections. Additionally, this section heavily tests your knowledge of Azure Virtual WAN (vWAN), requiring you to understand how to build global transit network architectures using vWAN hubs.
Domain 3: Design and Implement Application Delivery Services (15–20%)
Ensuring that applications are highly available and performant is a massive part of this job. Here, you will be evaluated on your ability to choose and deploy the correct load-balancing solution. You must understand the technical differences between Layer-4 internal and public Azure Load Balancers, and Layer-7 services like Azure Application Gateway. You will also be tested on global routing solutions like Azure Front Door and Azure Traffic Manager to deliver applications to global users with minimal latency.
Domain 4: Design and Implement Private Access to Azure Services (10–15%)
Security is paramount in 2026. This domain tests your ability to lock down access to Azure PaaS resources (like Azure SQL databases or Storage Accounts). You must know exactly when and how to implement Azure Private Link and Private Endpoints to ensure traffic remains on the Microsoft backbone network, bypassing the public internet entirely. You will also need to configure Service Endpoints and manage service endpoint policies.
Domain 5: Secure and Monitor Azure Networks (15–20%)
The final domain ensures you can protect and observe your network. You will be tested on deploying and configuring Azure Firewall (including Standard and Premium SKUs) and managing rules via Azure Firewall Manager. You must also master Network Security Groups (NSGs) and Application Security Groups (ASGs). Finally, you need to know how to troubleshoot network issues using Azure Network Watcher tools like Connection Monitor, Packet Capture, and IP Flow Verify.
The Future Scope of the AZ-700 Certification
Investing your time and money into the AZ-700 certification yields massive long-term dividends. The future scope for Azure Network Engineers is incredibly bright, driven by several key industry trends in 2026:
The Rise of Hybrid Work: With remote and hybrid work models becoming permanent fixtures, companies are spending billions to ensure remote employees can securely and rapidly access corporate resources. Network engineers are the architects of this connectivity. AI and Big Data Integration: As enterprises deploy massive Artificial Intelligence and Machine Learning workloads in Azure, they require ultra-low latency, high-bandwidth networks to move data. AZ-700 certified professionals are uniquely positioned to build these data highways. Lucrative Salary Prospects: Because specialized cloud networking is a complex niche, supply often fails to meet demand. AZ-700 certified professionals regularly command salaries exceeding $130,000 to $150,000 USD annually, with senior architects earning significantly more. Stepping Stone to Expert Certifications: Earning this Associate badge builds the perfect technical foundation to pursue expert-level credentials, such as the Azure Solutions Architect Expert (AZ-305) or the Cybersecurity Architect Expert (SC-100).
The Pass4surexams Dual Package: Ultimate Preparation
To cater to every learning style, Pass4surexams has developed a highly effective Dual Package that combines the convenience of portable reading with the rigorous pressure of a simulated exam environment.
AZ-700 Study Materials
Available AZ-700 Prep Formats
Choose the learning material that best matches your current study phase.
Learning Material
Core Features & Benefits
Ideal Use Case
Premium PDF File
A highly portable, downloadable PDF containing hundreds of verified AZ-700 questions, complete with accurate answers and detailed logical explanations for why an answer is correct.
Perfect for studying on the go. Read it on your smartphone during your commute, print it out for highlighting, or use it for rapid review just hours before your exam.
Interactive Test Engine
State-of-the-art software that flawlessly mimics the actual Pearson VUE testing UI. It features customizable practice modes, timed mock exams, and performance tracking.
Best used to build test-taking endurance. It helps you conquer time-management issues, track your weak domains, and get comfortable with the pressure of a ticking clock.
Premium PDF File
Core Features & Benefits
A highly portable, downloadable PDF containing hundreds of verified AZ-700 questions, complete with accurate answers and detailed logical explanations for why an answer is correct.
Ideal Use Case
Perfect for studying on the go. Read it on your smartphone during your commute, print it out for highlighting, or use it for rapid review just hours before your exam.
Interactive Test Engine
Core Features & Benefits
State-of-the-art software that flawlessly mimics the actual Pearson VUE testing UI. It features customizable practice modes, timed mock exams, and performance tracking.
Ideal Use Case
Best used to build test-taking endurance. It helps you conquer time-management issues, track your weak domains, and get comfortable with the pressure of a ticking clock.
Frequently Asked Questions (FAQs) - AZ-700 Exam
Q1: Is the AZ-700 exam difficult for beginners?
Yes, it is considered one of the more challenging Associate-level exams in the Microsoft catalog. It bypasses basic administration to focus directly on advanced networking architecture, hybrid configurations, and multi-region deployment troubleshooting.
Q2: How many questions are on the AZ-700 exam, and what is the passing score?
The exam typically presents between 40 and 60 questions. You must secure a scaled score of 700 out of 1000 to pass.
Q3: What happens if Microsoft updates the AZ-700 syllabus after I purchase materials?
If you prepare with Pass4sureExams, your purchase includes 3 months of free updates. Any question modifications or syllabus changes made by Microsoft during those 90 days will automatically populate in your account at no extra charge.
Q4: How often do I need to renew my Azure Network Engineer Associate certification?
Microsoft certifications at the Associate level remain valid for exactly one year (12 months). However, you can renew the credential for free online via Microsoft Learn within six months of your expiration date by passing a shorter, unproctored assessment.
Microsoft AZ-700 Sample Questions
Question # 1
Task 4 You need to ensure that connections to the storage34280945 storage account can be made by using an IP address in the 10.1.1.0/24 range and the name storage34280945.pnvatelinlcblob.core.windows.net.
Answer: See the Explanation below for step by step instructions. Explanation: Here are the steps and explanations for ensuring that connections to the storage34280945 storage account can be made by using an IP address in the 10.1.1.0/24 range and the name stor-age34280945.pnvatelinlcblob.core.windows.net: To allow access from a specific IP address range, you need to configure the Azure Storage firewall and virtual network settings for your storage account. You can do this in the Azure portal by selecting your storage account and then selecting Networking under Settings1. On the Networking page, select Firewalls and virtual networks, and then select Selected networks under Allow access from1. This will block all access to your storage account except from the networks or resources that you specify. Under Firewall, select Add rule, and then enter 10.1.1.0/24 as the IP address or range. You can also enter an optional rule name and description1. This will allow access from any IP address in the 10.1.1.0/24 range. Select Save to apply your changes1. To map a custom domain name to your storage account, you need to create a CNAME record with your domain provider that points to your storage account endpoint2. A CNAME record is a type of DNS record that maps a source domain name to a destination domain name. Sign in to your domain registrar’s website, and then go to the page for managing DNS settings2. Create a CNAME record with the following information2: Save your changes and wait for the DNS propagation to take effect2. To register the custom domain name with Azure, you need to go back to the Azure portal and select your storage account. Then select Custom domain under Blob service2. On the Custom domain page, enter storage34280945.pnvatelinlcblob.core.windows.net as the custom domain name and select Save2.
Question # 2
Task 6 You need to ensure that all hosts deployed to subnet3-2 connect to the internet by using the same static public IP address. The solution must minimize administrative effort when adding hosts to the subnet.
Answer: See the Explanation below for step by step instructions. Explanation: Here are the steps and explanations for ensuring that all hosts deployed to subnet3-2 connect to the internet by using the same static public IP address: To use the same static public IP address for multiple hosts, you need to create a NAT gateway and associate it with subnet3-2. A NAT gateway is a resource that performs network address translation (NAT) for outbound traffic from a subnet1. It allows you to use a single public IP address for multiple private IP addresses2. To create a NAT gateway, you need to go to the Azure portal and select Create a resource. Search for NAT gateway, select NAT gateway, then select Create3. On the Create a NAT gateway page, enter or select the following information and accept the defaults for the remaining settings: Select Review + create and then select Create to create your NAT gateway3. To associate the NAT gateway with subnet3-2, you need to go to the Virtual networks service in the Azure portal and select your virtual network. On the Virtual network page, select Subnets under Settings, and then select subnet3-2 from the list. On the Edit subnet page, under NAT gateway, select your NAT gateway from the drop-down list. Then select Save.
Question # 3
Task 2 You need to ensure that you can deploy Azure virtual machines to the France Central Azure region. The solution must ensure that virtual machines in the France Central region are in a network segment that has an IP address range of 10.5.1.0/24.
Answer: See the Explanation below for step by step instructions. Explanation: To deploy Azure virtual machines to the France Central region and ensure they are in a network segment with an IP address range of 10.5.1.0/24, follow these steps: Step-by-Step Solution Step 1: Create a Virtual Network in France Central Navigate to the Azure Portal. Search for “Virtual networks” in the search bar and select it. Click on “Create”. Enter the following details: Click on “Next: IP Addresses”. Step 2: Configure the Address Space and Subnet In the IP Addresses tab, enter the address space as 10.5.1.0/24. Click on “Add subnet”. Enter the following details: Click on “Add”. Click on “Review + create” and then “Create”. Step 3: Deploy Virtual Machines to the Virtual Network Navigate to the Azure Portal. Search for “Virtual machines” in the search bar and select it. Click on “Create” and then “Azure virtual machine”. Enter the following details: Click on “Next: Disks”, configure the disks as needed, and then click on “Next: Networking”. In the Networking tab, select the virtual network (VNet-FranceCentral) and subnet (Subnet-1) created earlier. Complete the remaining configuration steps and click on “Review + create” and then “Create”. Explanation Virtual Network: A virtual network in Azure allows you to create a logically isolated network that can host your Azure resources. Address Space: The address space 10.5.1.0/24 ensures that the VMs are in a specific network segment. Subnet: Subnets allow you to segment the virtual network into smaller, manageable sections. Region: Deploying the virtual network and VMs in the France Central region ensures that the resources are physically located in that region By following these steps, you can ensure that your Azure virtual machines in the France
Central region are deployed within the specified IP address range of 10.5.1.0/24.
Question # 4
Task 11 You are preparing to connect your on-premises network to VNET4 by using a Site-to-Site VPN. The on-premises endpoint of the VPN will be created on a firewall named Firewall 1. The on-premises network has the following configurations: • Internal address range: 10.10.0.0/16. • Firewall 1 internal IP address: 10.10.1.1. • Firewall1 public IP address: 131.107.50.60. BGP is NOT used. You need to create the object that will provide the IP addressing configuration of the onpremises network to the Site-to-Site VPN. You do NOT need to create a virtual network gateway to complete this task.
Answer: See the Explanation below for step by step instructions. Explanation: Here are the steps and explanations for creating the object that will provide the IP addressing configuration of the on-premises network to the Site-to-Site VPN: The object that you need to create is called a local network gateway. A local network gateway represents your on-premises network and VPN device in Azure. It contains the public IP address of your VPN device and the address prefixes of your on-premises network that you want to connect to the Azure virtual network1. To create a local network gateway, you need to go to the Azure portal and select Create a resource. Search for local network gateway, select Local network gateway, then select Create2. On the Create local network gateway page, enter or select the following information and accept the defaults for the remaining settings: Select Review + create and then select Create to create your local network gateway2.
Question # 5
Task 3 You plan to implement an Azure application gateway in the East US Azure region. The application gateway will have Web Application Firewall (WAF) enabled. You need to create a policy that can be linked to the planned application gateway. The policy must block connections from IP addresses in the 131.107.150.0/24 range. You do NOT need to provision the application gateway to complete this task.
Answer: See the Explanation below for step by step instructions. Explanation: Here are the steps and explanations for creating a policy that can be linked to the planned application gateway and block connections from IP addresses in the 131.107.150.0/24 range: To create a policy, you need to go to the Azure portal and select Create a resource. Search for WAF, select Web Application Firewall, then select Create1. On the Create a WAF policy page, Basics tab, enter or select the following information and accept the defaults for the remaining settings: On the Custom rules tab, select Add a rule to create a custom rule that blocks connections from IP addresses in the 131.107.150.0/24 range2. Enter or select the following information for the custom rule: On the Review + create tab, review your settings and select Create to create your WAF policy1. To link your policy to the planned application gateway, you need to go to the Application Gateway service in the Azure portal and select your application gateway3. On the Web application firewall tab, select your WAF policy from the drop-down list and select Save
Question # 6
Task 7 You need to ensure that hosts on VNET2 can access hosts on both VNET1 and VNET3. The solution must prevent hosts on VNET1 and VNET3 from communicating through VNET2.
Answer: See the Explanation below for step by step instructions. Explanation: Here are the steps and explanations for ensuring that hosts on VNET2 can access hosts on both VNET1 and VNET3, but hosts on VNET1 and VNET3 cannot communicate through VNET2: To connect different virtual networks in Azure, you need to use virtual network peering. Virtual network peering allows you to create low-latency, high-bandwidth connections between virtual networks without using gateways or the internet1. To create a virtual network peering, you need to go to the Azure portal and select your virtual network. Then select Peerings under Settings and select + Add2. On the Add peering page, enter or select the following information: Select Add to create the peering2. Repeat the previous steps to create peerings between VNET2 and VNET1, and between VNET2 and VNET3. This will allow hosts on VNET2 to access hosts on both VNET1 and VNET3. To prevent hosts on VNET1 and VNET3 from communicating through VNET2, you need to use network security groups (NSGs) to filter traffic between subnets. NSGs are rules that allow or deny inbound or outbound traffic based on source or destination IP address, port, or protocol3. To create an NSG, you need to go to the Azure portal and select Create a resource. Search for network security group and select Network security group. Then select Create4. On the Create a network security group page, enter or select the following information: Select Review + create and then select Create to create your NSG4. To add rules to your NSG, you need to go to the Network security groups service in the Azure portal and select your NSG. Then select Inbound security rules or Outbound security rules under Settings and select + Add4. On the Add inbound security rule page or Add outbound security rule page, enter or select the following information: Select Add to create your rule4. Repeat the previous steps to create inbound and outbound rules for your NSG that deny traffic between VNET1 and VNET3 subnets. For example, you can create an inbound rule that denies traffic from 10.0.1.0/24 (VNET1 subnet 1) to 10.0.3.0/24 (VNET3 subnet 1), and an outbound rule that denies traffic from 10.0.3.0/24 (VNET3 subnet 1) to 10.0.1.0/24 (VNET1 subnet 1). To associate your NSG with a subnet, you need to go to the Virtual networks service in the Azure portal and select your virtual network. Then select Subnets under Settings and select the subnet that you want to associate with your NSG5. On the Edit subnet page, under Network security group, select your NSG from the drop-down list. Then select Save5. Repeat the previous steps to associate your NSG with the subnets in VNET1 and VNET3 that you want to isolate from each other.
Question # 7
Task 3 You need to ensure that hosts on VNET1 and VNET2 can communicate. The solution must minimize latency between the virtual networks.
Answer: See the Explanation below for step by step instructions. Explanation: To ensure that hosts on VNET1 and VNET2 can communicate with minimal latency, you can use Virtual Network Peering. This method connects the two virtual networks directly through the Microsoft backbone network, ensuring low-latency and high-bandwidth communication. Step-by-Step Solution Step 1: Set Up Virtual Network Peering Navigate to the Azure Portal. Search for “Virtual networks” and select VNET1. In the left-hand menu, select “Peerings” under the “Settings” section. Click on “Add” to create a new peering. Enter the following details: Click on “Add”. Step 2: Configure Peering on VNET2 Navigate to VNET2 in the Azure Portal. In the left-hand menu, select “Peerings” under the “Settings” section. Click on “Add” to create a new peering. Enter the following details: Click on “Add”. Explanation Virtual Network Peering: This feature connects two virtual networks in the same or different regions, allowing resources in both networks to communicate with each other as if they were part of the same network. The traffic between peered virtual networks uses the Microsoft backbone infrastructure, ensuring low latency and high bandwidth12. Allow Virtual Network Access: This setting ensures that the virtual networks can communicate with each other. Allow Forwarded Traffic: This setting allows traffic forwarded from a network security appliance in the peered virtual network. Allow Gateway Transit: This setting allows the peered virtual network to use the gateway in the local virtual network. By following these steps, you can ensure that hosts on VNET1 and VNET2 can communicate with minimal latency, leveraging the high-speed Microsoft backbone network.
Question # 8
Task 10 You plan to deploy several virtual machines to subnet1-2. You need to prevent all Azure hosts outside of subnetl-2 from connecting to TCP port 5585 on hosts on subnet1-2. The solution must minimize administrative effort.
Answer: See the Explanation below for step by step instructions. Explanation: To prevent all Azure hosts outside of subnet1-2 from connecting to TCP port 5585 on hosts within subnet1-2, you can use a Network Security Group (NSG). This solution is straightforward and minimizes administrative effort. Step-by-Step Solution Step 1: Create a Network Security Group (NSG) Navigate to the Azure Portal. Search for “Network security groups” and select it. Click on “Create”. Enter the following details: Click on “Review + create” and then “Create”. Step 2: Create an Inbound Security Rule Navigate to the newly created NSG. Select “Inbound security rules” from the left-hand menu. Click on “Add” to create a new rule. Enter the following details: Click on “Add” to create the rule. Step 3: Associate the NSG with Subnet1-2 Navigate to the virtual network that contains subnet1-2. Select “Subnets” from the left-hand menu. Select subnet1-2 from the list of subnets. Click on “Network security group”. Select the NSG you created (NSG-Subnet1-2). Click on “Save”. Explanation Network Security Group (NSG): NSGs are used to filter network traffic to and from Azure resources in an Azure virtual network. They contain security rules that allow or deny inbound and outbound traffic based on source and destination IP addresses, port, and protocol1. Inbound Security Rule: By creating a rule that denies traffic on TCP port 5585 from any source outside of subnet1-2, you ensure that only hosts within subnet1-2 can connect to this port. Association with Subnet: Associating the NSG with subnet1-2 ensures that the security rules are applied to all resources within this subnet. By following these steps, you can effectively prevent all Azure hosts outside of subnet1-2 from connecting to TCP port 5585 on hosts within subnet1-2, while minimizing administrative effort.
Question # 9
Task 2 You need to create an Azure Firewall instance named FW1 that meets the following requirements: • Has an IP address from the address range of 10.1.255.0/24 • Uses a new Premium firewall policy named FW-pohcy1 • Routes traffic directly to the internet
Answer: See the Explanation below for step by step instructions. Explanation: To create an Azure Firewall instance, you need to go to the Azure portal and select Create a resource. Type firewall in the search box and press Enter. Select Firewall and then select Create1. To assign an IP address from the address range of 10.1.255.0/24 to the firewall, you need to select a public IP address that belongs to that range. You can either create a new public IP address or use an existing one1. To use a new Premium firewall policy named FW-policy1, you need to select Premium as the Firewall tier and create a new policy with the name FWpolicy12. A Premium firewall policy allows you to configure advanced features such as TLS Inspection, IDPS, URL Filtering, and Web Categories3. To route traffic directly to the internet, you need to enable SNAT (Source Network Address Translation) for the firewall. SNAT allows the firewall to use its public IP address as the source address for outbound traffic4.
Question # 10
Task 5You need to archive all the metrics of VNET1 to an existing storage account.
Answer: See the Explanation below for step by step instructions. Explanation: To archive all the metrics of VNET1 to an existing storage account, you can use Azure Monitor’s diagnostic settings. Here’s how you can do it: Step-by-Step Solution Step 1: Navigate to VNET1 in the Azure Portal Open the Azure Portal. Search for “Virtual networks” and select VNET1 from the list. Step 2: Configure Diagnostic Settings In the VNET1 blade, select “Diagnostic settings” under the “Monitoring” section. Click on “Add diagnostic setting”. Step 3: Set Up the Diagnostic Setting Enter a name for the diagnostic setting (e.g., VNET1-Metrics-Archive). Select the metrics you want to archive. You can choose from various metrics like TotalBytesReceived, TotalBytesSent, etc. Under “Destination details”, select “Archive to a storage account”. Choose the existing storage account where you want to archive the metrics. Configure the retention period if needed. Step 4: Save the Configuration Review your settings to ensure everything is correct. Click on “Save” to apply the diagnostic setting. Explanation Diagnostic Settings: These allow you to collect and route metrics and logs from your Azure resources to various destinations, including storage accounts, Log Analytics workspaces, and Event Hubs. Metrics: Metrics provide numerical data about the performance and health of your resources. Archiving these metrics helps in long-term analysis and compliance. Storage Account: Using an existing storage account ensures that the metrics are stored securely and can be accessed for future analysis. By following these steps, you can ensure that all the metrics of VNET1 are archived to your existing storage account, enabling you to monitor and analyze the performance and health of your virtual network over time.
Question # 11
Task 8 You need to ensure that the storage34280945 storage account will only accept connections from hosts on VNET1
Answer: See the Explanation below for step by step instructions. Explanation: Here are the steps and explanations for ensuring that the storage34280945 storage account will only accept connections from hosts on VNET1: To restrict network access to your storage account, you need to configure the Azure Storage firewall and virtual network settings for your storage account. You can do this in the Azure portal by selecting your storage account and then selecting Networking under Settings1. On the Networking page, select Firewalls and virtual networks, and then select Selected networks under Allow access from1. This will block all access to your storage account except from the networks or resources that you specify. Under Virtual networks, select + Add existing virtual network. Then select VNET1 from the list of virtual networks and select the subnet that contains the hosts that you want to allow access to your storage account1. This will enable a service endpoint for Storage in the subnet and configure a virtual network rule for that subnet through the Azure storage firewall2. Select Add to add the virtual network and subnet to your storage account1. Select Save to apply your changes1.
Question # 12
Task 11 You need to ensure that only hosts on VNET1 can access the slcnage42150372 storage account. The solution must ensure that access occurs over the Azure backbone network.
Answer: See the Explanation below for step by step instructions. Explanation: To ensure that only hosts on VNET1 can access the slcnage42150372 storage account and that access occurs over the Azure backbone network, you can use Azure Private Endpoints. This method secures the connection by assigning a private IP address from your virtual network to the storage account, ensuring that traffic does not traverse the public internet. Step-by-Step Solution Step 1: Create a Private Endpoint for the Storage Account Navigate to the Azure Portal. Search for “Storage accounts” and select the slcnage42150372 storage account. In the storage account blade, select “Networking” under the “Security + networking” section. Under “Private endpoint connections”, click on “Add private endpoint”. Enter the following details: Click on “Next: Resource”. Step 2: Configure the Resource Select “Target sub-resource”: Choose the storage service you want to connect to (e.g., blob, file, queue, table). Click on “Next: Virtual network”. Step 3: Select the Virtual Network and Subnet Select the virtual network: Choose VNET1. Select the subnet: Choose the appropriate subnet within VNET1. Click on “Next: Configuration”. Step 4: Configure DNS Integration (Optional) Configure DNS settings if needed to ensure proper name resolution within your virtual network. Click on “Next: Tags”, add any tags if necessary, and then click on “Review + create”. Review your settings and click on “Create”. Step 5: Restrict Public Network Access Navigate back to the storage account. Select “Networking” under the “Security + networking” section. Under “Firewalls and virtual networks”, select “Selected networks”. Ensure that only VNET1 is listed under the virtual networks section. Click on “Save”. Explanation Private Endpoints: These provide secure connectivity to Azure services by assigning a private IP address from your VNet to the service, ensuring that traffic stays within the Azure backbone network12. Firewall and Virtual Networks: Configuring the storage account to allow access only from selected networks (VNET1) ensures that no other network can access the storage account3. By following these steps, you can ensure that only hosts on VNET1 can access the slcnage42150372 storage account, and that all access occurs over the secure Azure backbone network.
Question # 13
Task 9 You plan to use VNET4 for an Azure API Management implementation. You need to configure a policy that can be used by an Azure application gateway to protect against known web attack vectors. The policy must only allow requests that originate from IP addresses in Canada. You do NOT need to create the application gateway to complete this task.
Answer: See the Explanation below for step by step instructions. Explanation: To configure a policy in Azure API Management that can be used by an Azure Application Gateway to protect against known web attack vectors and only allow requests from IP addresses in Canada, follow these steps: Step-by-Step Solution Step 1: Create or Access Your API Management Instance Navigate to the Azure Portal. Search for “API Management services” and select your API Management instance. Step 2: Configure the Policy In the API Management instance, go to the “APIs” section. Select the API you want to apply the policy to. Go to the “Design” tab. Select “All operations” if you want to apply the policy to all operations, or select a specific operation. Step 3: Add the Inbound Policy In the Inbound processing section, click on “+ Add policy”. Select “IP filter” from the list of policies. Add the IP address ranges for Canada. You can find the IP ranges for Canada from a reliable source or use a service that provides this information. Here is an example of the XML configuration for the policy: Save the policy to apply the changes. Explanation IP Filter Policy: This policy allows you to filter incoming requests based on their IP addresses. By specifying the IP ranges for Canada, you ensure that only requests originating from these IPs are allowed. Inbound Processing: Applying the policy in the inbound section ensures that the requests are filtered before they reach your API. By following these steps, you can configure a policy in Azure API Management that restricts access to your API to only those requests originating from IP addresses in Canada, thereby enhancing security and compliance
Question # 14
Task 4 You need to ensure that the owner of VNET3 receives an alert if an administrative operation is performed on the virtual network.
Answer: See the Explanation below for step by step instructions. Explanation: To ensure that the owner of VNET3 receives an alert whenever an administrative operation is performed on the virtual network, you can set up an Activity Log Alert in Azure Monitor. Here’s how you can do it: Step-by-Step Solution Step 1: Create an Activity Log Alert Navigate to the Azure Portal. Search for “Monitor” and select it. In the Monitor blade, select “Alerts” from the left-hand menu. Click on “New alert rule”. Step 2: Configure the Alert Rule Select the Scope: Define the Condition: Set the Alert Details: Configure the Action Group: Review and Create: Explanation Activity Log Alerts: These alerts notify you when specific operations are performed on your Azure resources. By setting up an alert for administrative operations, you ensure that any changes to VNET3 are promptly reported. Action Groups: These define the actions to take when an alert is triggered. You can configure notifications via email, SMS, or other methods to ensure the owner of VNET3 is informed immediately. Administrative Operations: Monitoring these operations helps in tracking changes and maintaining the security and integrity of your virtual network. By following these steps, you can ensure that the owner of VNET3 receives timely alerts for any administrative operations performed on the virtual network, helping to maintain oversight and security.
Question # 15
Task 6 You have two servers that are each hosted by a separate service provider in New York and Germany. The server hosted in New York is accessible by using a host name of ny.contoso.com. The server hosted in Germany is accessible by using a host name of de.contoso.com. You need to provide a single host name to access both servers. The solution must ensure that traffic originating from Germany is routed to de contoso.com. All other traffic must be routed to ny.contoso.com.
Answer: See the Explanation below for step by step instructions. Explanation: To provide a single host name that routes traffic based on the origin, you can use Azure Traffic Manager. This service allows you to route traffic to different endpoints based on various routing methods, including geographic routing. Navigate to the Azure Portal. Search for “Traffic Manager profiles” and select it. Click on “Create”. Enter the following details: Click on “Create”. Navigate to the newly created Traffic Manager profile. Select “Endpoints” from the left-hand menu. Click on “Add” to add a new endpoint. Enter the following details: Click on “Add” to save the endpoint. Repeat the process to add the second endpoint: Navigate to the Traffic Manager profile. Select “Configuration” from the left-hand menu. Under “Geographic routing”, adjust the regions: Use a DNS query tool to test the routing. From a location in Germany, query the Traffic Manager profile’s DNS name and ensure it resolves to de.contoso.com. From a location outside Europe, query the Traffic Manager profile’s DNS name and ensure it resolves to ny.contoso.com. Azure Traffic Manager: This service uses DNS to direct client requests to the most appropriate endpoint based on the routing method you choose. Geographic routing ensures that traffic is directed based on the origin of the request. Geographic Routing: This method allows you to route traffic based on the geographic location of the DNS query origin, ensuring that users are directed to the nearest or most appropriate endpoint. Step-by-Step SolutionStep 1: Create a Traffic Manager ProfileStep 2: Configure EndpointsStep 3: Adjust Geographic RoutingStep 4: Test the ConfigurationExplanationBy following these steps, you can provide a single host name that routes traffic to de.contoso.com for users in Germany and to ny.contoso.com for users from other locations, ensuring efficient and appropriate traffic management.
Question # 16
Task 9You need to ensure that subnet4-3 can accommodate 507 hosts.
Answer: See the Explanation below for step by step instructions. Explanation: Here are the steps and explanations for ensuring that subnet4-3 can accommodate 507 hosts: To determine the subnet size that can accommodate 507 hosts, you need to use the formula: number of hosts = 2^(32 - n) - 2, where n is the number of bits in the subnet mask1. You need to find the value of n that satisfies this equation for 507 hosts. To solve this equation, you can use trial and error or a binary search method. For example, you can start with n = 24, which is the default subnet mask for Class C networks. Then, plug in the value of n into the formula and see if it is too big or too small for 507 hosts. If you try n = 24, you get number of hosts = 2^(32 - 24) - 2 = 254, which is too small. You need to increase the value of n to get a larger number of hosts. If you try n = 25, you get number of hosts = 2^(32 - 25) - 2 = 510, which is just enough to accommodate 507 hosts. You can stop here or try a smaller value of n to see if it still works. If you try n = 26, you get number of hosts = 2^(32 - 26) - 2 = 254, which is too small again. You need to decrease the value of n to get a larger number of hosts. Therefore, the smallest value of n that can accommodate 507 hosts is n = 25. This means that the subnet mask for subnet4-3 should be /25 or 255.255.255.128 in dot-decimal notation1. To change the subnet mask for subnet4-3, you need to go to the Azure portal and select your virtual network. Then select Subnets under Settings and select subnet4-3 from the list2. On the Edit subnet page, under Address range (CIDR block), change the value from /24 to /25. Then select Save2.
Question # 17
Task 1 You need to ensure that virtual machines on VNET1 and VNET2 are included automatically in a DNS zone named contoso.azure. The solution must ensure that the virtual machines on VNET1 and VNET2 can resolve the names of the virtual machines on either virtual network
Answer: See the Explanation below for step by step instructions. Explanation: To achieve the task of ensuring that virtual machines on VNET1 and VNET2 are included automatically in a DNS zone named contoso.azure, and that they can resolve the names of the virtual machines on either virtual network, you can follow these steps: Step-by-Step Solution Step 1: Create a Private DNS Zone Navigate to the Azure Portal. Search for “Private DNS zones” in the search bar and select it. Click on “Create”. Enter the DNS zone name as contoso.azure. Select the appropriate subscription and resource group. Click on “Review + create” and then “Create”. Step 2: Link VNET1 and VNET2 to the DNS Zone Go to the newly created DNS zone (contoso.azure). Select “Virtual network links” from the left-hand menu. Click on “Add”. Enter a name for the link (e.g., VNET1-link). Select the subscription and virtual network (VNET1). Enable auto-registration to ensure that VMs are automatically registered in the DNS zone. Click on “OK”. Repeat the process for VNET2. Step 3: Configure DNS Settings for VNET1 and VNET2 Navigate to VNET1 in the Azure Portal. Select “DNS servers” under the “Settings” section. Ensure that the DNS server is set to “Default (Azure-provided)”. Repeat the process for VNET2. Step 4: Verify Name Resolution Deploy a virtual machine in VNET1 and another in VNET2. Connect to the virtual machines using Remote Desktop Protocol (RDP) or Secure Shell (SSH). Test name resolution by pinging the VM in VNET2 from the VM in VNET1 using its hostname (e.g., ping <VM-name>.contoso.azure). Explanation Private DNS Zone: This allows you to manage and resolve domain names in a private network without exposing them to the public internet. Virtual Network Links: Linking VNET1 and VNET2 to the DNS zone ensures that VMs in these networks can register their DNS records automatically. Auto-registration: This feature automatically registers the DNS records of VMs in the linked virtual networks, simplifying management. DNS Settings: Using Azure-provided DNS ensures that the VMs can resolve each other’s names without additional configuration. By following these steps, you ensure that virtual machines on VNET1 and VNET2 are included automatically in the DNS zone contoso.azure and can resolve each other’s names seamlessly.
Question # 18
Task 7 You plan to deploy 100 virtual machines to subnet4-1. The virtual machines will NOT be assigned a public IP address. The virtual machines will call the same API. which is hosted by a third party. The virtual machines will make more than 10,000 calls per minute to the API. You need to minimize the risk of SNAT port exhaustion. The solution must minimize administrative effort.
Answer: See the Explanation below for step by step instructions. Explanation: To minimize the risk of SNAT port exhaustion for your 100 virtual machines in subnet4-1, while ensuring minimal administrative effort, you can use an Azure NAT Gateway. This service provides scalable and resilient outbound connectivity for virtual networks, dynamically allocating SNAT ports to avoid exhaustion. Navigate to the Azure Portal. Search for “NAT gateways” and select it. Click on “Create”. Enter the following details: Click on “Next: Outbound IP”. Choose whether to use existing public IP addresses or create new ones. Click on “Next: Subnet”. Click on “Associate subnet”. Select the virtual network that contains subnet4-1. Select subnet4-1 from the list of subnets. Click on “OK”. Review your settings to ensure everything is correct. Click on “Review + create” and then “Create”. Azure NAT Gateway: This service provides outbound connectivity for virtual networks, dynamically allocating SNAT ports across all VM instances within a subnet. This dynamic allocation helps prevent SNAT port exhaustion, especially in scenarios with high outbound connection volumes12. Dynamic SNAT Port Allocation: Unlike static allocation methods, NAT Gateway dynamically allocates SNAT ports based on demand, ensuring efficient use of available ports and reducing the risk of exhaustion2. Step-by-Step SolutionStep 1: Create a NAT GatewayStep 2: Configure Outbound IP AddressesStep 3: Associate the NAT Gateway with Subnet4-1Step 4: Review and CreateExplanationBy following these steps, you can ensure that your 100 virtual machines in subnet4-1 can make the necessary API calls without running into SNAT port exhaustion, all while minimizing administrative effort.
Question # 19
Task 5 You need to ensure that requests for wwwjelecloud.com from any of your Azure virtual networks resolve to frontdoor1.azurefd.net.
Answer: See the Explanation below for step by step instructions. Explanation: Here are the steps and explanations for ensuring that requests for wwwjelecloud.com from any of your Azure virtual networks resolve to frontdoor1.azurefd.net: To use a custom domain with your Azure Front Door, you need to create a CNAME record with your domain provider that points to the Front Door default frontend host. A CNAME record is a type of DNS record that maps a source domain name to a destination domain name1. To create a CNAME record, you need to sign in to your domain registrar’s website and go to the page for managing DNS settings1. Create a CNAME record with the following information1: Save your changes and wait for the DNS propagation to take effect1. To verify the custom domain, you need to go to the Azure portal and select your Front Door profile. Then select Domains under Settings and select Add2. On the Add a domain page, select Non-Azure validated domain as the Domain type and enter wwwjelecloud.com as the Domain name. Then select Add2. On the Domains page, select wwwjelecloud.com and select Verify. This will check if the CNAME record is correctly configured2. Once the domain is verified, you can associate it with your Front Door endpoint. On the Domains page, select wwwjelecloud.com and select Associate endpoint. Then select your Front Door endpoint from the drop-down list and select Associate2.
Question # 20
Task 1 You plan to deploy a firewall to subnetl-2. The firewall will have an IP address of 10.1.2.4. You need to ensure that traffic from subnetl-1 to the IP address range of 192.168.10.0/24 is routed through the firewall that will be deployed to subnetl-2. The solution must be achieved without using dynamic routing protocols.
Answer: See the Explanation below for step by step instructions. Explanation: To deploy a firewall to subnetl-2, you need to create a network virtual appliance (NVA) in the same virtual network as subnetl-2. An NVA is a virtual machine that performs network functions, such as firewall, routing, or load balancing1. To create an NVA, you need to create a virtual machine in the Azure portal and select an image that has the firewall software installed. You can choose from the Azure Marketplace or upload your own image2. To assign the IP address of 10.1.2.4 to the NVA, you need to create a static private IP address for the network interface of the virtual machine. You can do this in the IP configurations settings of the network interface3. To ensure that traffic from subnetl-1 to the IP address range of 192.168.10.0/24 is routed through the NVA, you need to create a user-defined route (UDR) table and associate it with subnetl-1. A UDR table allows you to override the default routing behavior of Azure and specify custom routes for your subnets4. To create a UDR table, you need to go to the Route tables service in the Azure portal and select + Create. You can give a name and a resource group for the route table5. To create a custom route, you need to select Routes in the route table and select + Add. You can enter the following information for the route5: To associate the route table with subnetl-1, you need to select Subnets in the route table and select + Associate. You can select the virtual network and subnet that you want to associate with the route table5.
Question # 21
Task 8 You plan to deploy an appliance to subnet3-2- The appliance will perform packet inspection and will have an IP address of 10.3.2.100. You need to ensure that all traffic to the internet from subnet3-1 is forwarded to the appliance for inspection.
Answer: See the Explanation below for step by step instructions. Explanation: To ensure that all traffic to the internet from subnet3-1 is forwarded to the appliance in subnet3-2 for packet inspection, you can use User-Defined Routes (UDRs) to direct the traffic. Here’s how you can do it: Navigate to the Azure Portal. Search for “Route tables” and select it. Click on “Create”. Enter the following details: Click on “Review + create” and then “Create”. Navigate to the newly created route table. Select “Routes” from the left-hand menu. Click on “Add” to create a new route. Enter the following details: Click on “OK” to add the route. Navigate to the route table. Select “Subnets” from the left-hand menu. Click on “Associate”. Select the virtual network that contains subnet3-1. Select subnet3-1 from the list of subnets. Click on “OK”. User-Defined Routes (UDRs): These allow you to control the routing of traffic within your virtual network. By defining a route that directs all internet-bound traffic to the appliance, you ensure that the traffic is inspected before it reaches the internet1. Virtual Appliance: This is a network appliance that performs specific functions, such as packet inspection, and is treated as a next hop in the routing table2. Route Table Association: Associating the route table with subnet3-1 ensures that all traffic from this subnet follows the defined routes. Step-by-Step SolutionStep 1: Create a Route TableStep 2: Add a Route to the Route TableStep 3: Associate the Route Table with Subnet3-1ExplanationBy following these steps, you can ensure that all internet-bound traffic from subnet3-1 is forwarded to the appliance in subnet3-2 for inspection, thereby enhancing your network security.
Question # 22
You need to configure VNET1 to log all events and metrics. The solution must ensure that you can query the events and metrics directly from the Azure portal by using KQL.
Answer: See the Explanation below for step by step instructions. Explanation: Here are the steps and explanations for configuring VNET1 to log all events and metrics and query them by using KQL: To enable logging for VNET1, you need to create a diagnostic setting that collects the platform metrics and logs from the virtual network and routes them to one or more destinations. You can choose to send the data to a Log Analytics workspace, a storage account, an event hub, or a partner solution1. To create a diagnostic setting, you need to go to the Azure portal and select your virtual network. Then select Diagnostic settings under Monitoring and select + Add diagnostic setting1. On the Add diagnostic setting page, enter or select the following information: Select Save to create your diagnostic setting1. To query the events and metrics from the Azure portal by using KQL, you need to go to the Log Analytics workspace that you selected as the destination. Then select Logs under General and enter your KQL query in the query editor3. For example, you can use the following KQL query to get the top 10 network security group events for VNET1 in the last 24 hours: NetworkSecurityGroupEvent | where TimeGenerated > ago(24h) | where ResourceId contains "VNET1" | summarize count() by EventID | top 10 by count_ Copy Select Run to execute your query and view the results in a table or a chart3.
Question # 23
Note: This question is part of a series of questions that present the same scenario. Each question in the series contains a unique solution that might meet the stated goals. Some question sets might have more than one correct solution, while others might not have a correct solution. After you answer a question in this section, you will NOT be able to return to it. As a result, these questions will not appear in the review screen. You have an Azure subscription that contains the following resources: * A virtual network named Vnet1 * A subnet named Subnet1 in Vnet1 * A virtual machine named VM1 that connects to Subnet1 * Three storage accounts named storage1, storage2, and storage3 You need to ensure that VM1 can access storage1. VM1 must be prevented from accessing any other storage accounts. Solution: You create a network security group (NSG) and associate the NSG to Subnet1. Does this meet the goal?
A. Yes B. No
Answer: B
Question # 24
You have an Azure subscription that contains 100 network security groups (NSGs). You need to ensure that you log the application of specific NSG rules. Which type of log should you configure?
A. flow log B. activity log C. Azure resource log D. audit log
Answer: A
Question # 25
You have an Azure subscription that is linked to an Azure Active Directory (Azure AD) tenant named contoso.onmicrosoft.com. The subscription contains the following resources: * An Azure App Service app named App1 * An Azure DNS zone named contoso.com * An Azure private DNS zone named private.contoso.com * A virtual network named Vnet1 You create a private endpoint for App1. The record for the endpoint is registered automatically in Azure DNS. You need to provide a developer with the name that is registered in Azure DNS for the private endpoint. What should you provide?
A. app1.privatelink.azurewebsites.net B. app1.contoso.com C. app1.contoso.onmicrosoft.com D. app1.private.contoso.com
Answer: A
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Sun Hao
Some scenario questions about VNet peering were interesting.
Sun Hao
Some scenario questions about VNet peering were interesting.
Frederik Klein
Those usually test Azure networking and connectivity concepts.