Box 1:  Subject name of the root certificate. 

This is the value that should be configured as the system Remote ID for the VPN client on the sales department devices. The system Remote ID is used to identify the VPN server that the client is connecting to, and it must match the value that is configured on the VPN gateway in Azure. For Azure VPN Gateway, the system Remote ID is the subject name of the root certificate that is used for authentication1. Therefore, option C is correct.

A detailed explanation with references is as follows:

As mentioned in the scenario, the sales department devices are using Point-to-Site VPN connections to access Azure resources. A Point-to-Site VPN connection lets you create a secure connection to your virtual network from an individual client computer2. To configure a Point-to-Site VPN connection, you need to create a virtual network gateway of type VPN in Azure, and then install a VPN client on each device that needs to connect2. The VPN client configuration includes several settings, such as the VPN server address, the tunnel type, and the authentication method. One of these settings is the system Remote ID, which is used to identify the VPN server that the client is connecting to1. The system Remote ID must match the value that is configured on the VPN gateway in Azure, otherwise the connection will fail.

For Azure VPN Gateway, there are three authentication methods available for Point-to-Site VPN connections: certificate-based authentication, OpenVPN with Azure AD authentication, and OpenVPN with certificate-based authentication2. For certificate-based authentication, which is used in this scenario, the system Remote ID is the subject name of the root certificate that is used for authentication1. The root certificate is uploaded to Azure when creating a Point-to-Site VPN connection, and it must be installed on each device that needs to connect2. The subject name of the root certificate can be obtained by using PowerShell or OpenSSL commands1. For example, using PowerShell:

$cert = Get-ChildItem -Path Cert:\CurrentUser\My | Where-Object {$_.Subject -like “ContosoRootCert”} $cert.Subject

The output of this command will show the subject name of the root certificate that matches ContosoRootCert. This value should be configured as the system Remote ID for the VPN client on each device.

Box 2: Subject name of the client certificate

In the provided scenario, the sales department is using a VPN to connect to the corporate network, and the VPN server is configured to use certificate-based authentication. To troubleshoot the sales department issues, you should configure the system Local ID to use the subject name of the client certificate. The subject name of a client certificate uniquely identifies the client and is used during the certificate-based authentication process. This allows the VPN server to verify the client's identity and grant access to the corporate network.

This is the value that should be configured as the system Local ID for the VPN client on the sales department devices. The system Local ID is used to identify the VPN client that is connecting to the VPN server, and it must match the value that is configured on the VPN gateway in Azure. For Azure VPN Gateway, the system Local ID is the subject name of the client certificate that is used for authentication1. Therefore, option A is correct.

A detailed explanation with references is as follows:

As mentioned in the scenario, the sales department devices are using Point-to-Site VPN connections to access Azure resources. A Point-to-Site VPN connection lets you create a secure connection to your virtual network from an individual client computer2. To configure a Point-to-Site VPN connection, you need to create a virtual network gateway of type VPN in Azure, and then install a VPN client on each device that needs to connect2. The VPN client configuration includes several settings, such as the VPN server address, the tunnel type, and the authentication method. One of these settings is the system Local ID, which is used to identify the VPN client that is connecting to the VPN server1. The system Local ID must match the value that is configured on the VPN gateway in Azure, otherwise the connection will fail.

For Azure VPN Gateway, there are three authentication methods available for Point-to-Site VPN connections: certificate-based authentication, OpenVPN with Azure AD authentication, and OpenVPN with certificate-based authentication2. For certificate-based authentication, which is used in this scenario, the system Local ID is the subject name of the client certificate that is used for authentication1. The client certificate is generated from a root certificate that is uploaded to Azure when creating a Point-to-Site VPN connection, and it must be installed on each device that needs to connect2. The subject name of the client certificate can be obtained by using PowerShell or OpenSSL commands1. For example, using PowerShell:

$cert = Get-ChildItem -Path Cert:\CurrentUser\My | Where-Object {$_.Subject -like “ContosoClientCert”} $cert.Subject

The output of this command will show the subject name of the client certificate that matches ContosoClientCert. This value should be configured as the system Local ID for the VPN client on each device.

Box 1: Configure service endpoint for subnet on VNet2 and VNet3. 

This is what you should do to resolve issues accessing contosostorage1 from VNet2 and VNet3. A service endpoint is a feature that enables you to secure your Azure Storage account to a specific virtual network subnet1.

As mentioned in the scenario, contosostorage1 is a storage account that has firewall and virtual network settings enabled. This means that only requests from allowed networks can access the storage account2. By default, storage accounts accept connections from clients on any network, but you can configure firewall rules to allow or deny access based on the source IP address or virtual network subnet2.

In this scenario, you want to allow access to contosostorage1 from VNet2 and VNet3, which are peered with VNet1. To do this, you need to configure service endpoints for the subnets on VNet2 and VNet3 that need to access the storage account1. A service endpoint is a feature that enables you to secure your Azure Storage account to a specific virtual network subnet1. When you enable a service endpoint for a subnet, you can then grant access to the storage account only from that subnet1. This way, you can restrict access to your storage account and improve network performance by routing traffic through an optimal path.

To configure service endpoints for a subnet using the Azure portal, follow these steps1:

• In the Azure portal, navigate to the Virtual Network resource.
• Select Subnets, then select the subnet that needs to access the storage account.
• Under Service endpoints, select Microsoft.Storage from the drop-down list.
• Select Save to apply the changes.

To configure service endpoints for a subnet using the Azure CLI or PowerShell, see Enable a service endpoint.

After configuring service endpoints for the subnets on VNet2 and VNet3, you also need to grant access to contosostorage1 from those subnets. To do this, you need to modify the firewall rules on the storage account2.

To modify the firewall rules on the storage account using the Azure portal, follow these steps2:

• In the Azure portal, navigate to the Storage Account resource.
• Select Firewalls and virtual networks under Settings.
• Under Allow access from selected networks, select Add existing virtual network.
• Select the virtual network and subnet that have service endpoints enabled for Microsoft.Storage.
• Select Add to save the changes.

To modify the firewall rules on the storage account using the Azure CLI or PowerShell, see Configure Azure Storage firewalls and virtual networks.

Box 2: Configure the firewall settings on contosostorage1.

The issue reported is that on-premises connections to contosostorage1 are unsuccessful. The main reason for this could be that the firewall settings on the storage account are blocking the connections. By configuring the firewall settings on contosostorage1 to allow the on-premises IP addresses, you can ensure that the on-premises connections are successful.

As mentioned in the scenario, contosostorage1 is a storage account that has firewall and virtual network settings enabled. This means that only requests from allowed networks can access the storage account1. By default, storage accounts accept connections from clients on any network, but you can configure firewall rules to allow or deny access based on the source IP address or virtual network subnet1.

In this scenario, you want to allow access to contosostorage1 from the on-premises environment, which is connected to Azure using a Site-to-Site VPN connection. A Site-to-Site VPN connection lets you create a secure connection between your on-premises network and an Azure virtual network over an IPsec/IKE VPN tunnel2. To allow access to contosostorage1 from the on-premises environment, you need to configure the firewall settings on contosostorage1 to include the public IP address of your VPN device or gateway3.

To configure the firewall settings on contosostorage1 using the Azure portal, follow these steps1:

• In the Azure portal, navigate to the Storage Account resource.
• Select Firewalls and virtual networks under Settings.
• Under Allow access from selected networks, select Add existing virtual network.
• Select VNet1 and the subnet that has service endpoints enabled for Microsoft.Storage.
• Under Firewall, enter the public IP address of your VPN device or gateway under Address Range.
• Select Save to apply the changes.

To configure the firewall settings on contosostorage1 using the Azure CLI or PowerShell, see Configure Azure Storage firewalls and virtual networks.

Box 1 =  Use IP flow verify.

IP flow verify is a feature of Azure Network Watcher that checks if a packet is allowed or denied to or from a virtual machine. It can help diagnose connectivity issues caused by network security groups, user-defined routes, or Azure Virtual Network Manager rules1. IP flow verify can also return the name of the rule that denied the packet, which can be useful for troubleshooting2.

Connection troubleshoot is another feature of Azure Network Watcher that helps reduce the time to diagnose and resolve network connectivity issues. However, it can only test TCP or ICMP connections from certain Azure resources, such as virtual machines, Azure Bastion instances, or application gateways3. Connection troubleshoot can also detect issues such as high VM CPU utilization, DNS resolution failures, or inability to open a socket at the specified source port3.

In this scenario, you need to collect the required logs for the SharePoint workload in VNet2. Since you are not testing a specific TCP or ICMP connection, but rather checking if packets are allowed or denied by any network configuration, IP flow verify is more suitable than connection troubleshoot. You can use IP flow verify to check the direction, protocol, local IP, remote IP, local port, and remote port of the packets and see which rule is blocking them12.

To use IP flow verify, you need to enable a network watcher in the same region as the virtual machines you want to troubleshoot. Then you can use the Azure portal, PowerShell, or Azure CLI to run IP flow verify and get the results24.

Box 2 =  Use Traffic analytics

To troubleshoot issues related to the SharePoint workload in VNet2, we can use Traffic Analytics. It is a networking monitoring solution that uses Network Watcher to analyze and report on traffic flows in your Azure virtual network. With Traffic Analytics, you could see information about the traffic flow patterns and security concerns detected across Azure subscriptions using network security group (NSG) flow logs. IP Flow Verify is used to verify if packets are flowing as expected between two endpoints within an Azure virtual network or between a public IP address and an endpoint inside an azure virtual network. But it doesn't provide visibility into overall traffic patterns or identify potential security threats. Connection Troubleshoot can be used when you have connectivity problems while interacting with a specific instance of a resource type being served out from Microsoft datacenters over Internet, but for troubleshooting SharePoint workloads related issue which might not necessarily correspond to internet routing/connectivity problems this may not apply.

Box 1: Assign the Contributor role to the team members.

In the given scenario, the team members are unable to create or manage resources in the Azure portal. To allow them to do so, you should assign the Contributor role to the team members. The Contributor role allows users to create and manage resources within the scope of their access, but they cannot grant access to others. The Reader role only provides read access to resources and does not allow creation or management of resources. The Reader and Data Access role is not a valid combined role in Azure. Reference: - Azure built-in roles: https://docs.microsoft.com/en-us/azure/role-based-access-control/built-in-roles

As mentioned in the scenario, the team members are unable to create resources in Azure Portal. This indicates that they do not have sufficient permissions to perform this operation. To grant them permissions, you need to assign them an Azure role that allows creating and managing Azure resources.

Azure roles are roles that can be assigned to users, groups, or applications to manage access to Azure resources1. Azure roles are based on Azure role-based access control (Azure RBAC), which is an authorization system that provides fine-grained access management of Azure resources2. With Azure RBAC, you can control access to resources by creating role assignments, which consist of three elements2:

• The security principal: The user, group, or application that you want to grant or deny access to the resource.
• The role definition: The predefined or custom set of permissions that you want to grant or deny on the resource. For example, read, write, delete, backup, restore, etc.
• The scope: The level at which you want to apply the role assignment. For example, at the management group, subscription, resource group, or individual resource level.

To assign an Azure role that allows creating and managing Azure resources, you can use the Contributor role. The Contributor role is a built-in role that has full access to all resources except granting access to others1. This means that users who are assigned the Contributor role can create and manage any type of Azure resource, such as virtual machines, storage accounts, web apps, etc.

To assign the Contributor role using the Azure portal, follow these steps3:

• In the Azure portal, navigate to the scope where you want to assign the role. For example, a subscription or a resource group.
• Select Access control (IAM), then select Add > Add role assignment.
• Under Role, select Contributor from the drop-down list.
• Under Assign access to, select User, group, or service principal.
• Under Select, find and select the users or groups that you want to assign the role to. You can type in the Select box to search the directory for display name or email address.
• Select Save to create the role assignment.

To assign the Contributor role using the Azure CLI or PowerShell, see Assign Azure roles using CLI or PowerShell.

Box 2: Assign the Storage Blob Data Contributor role to the team members. 

A detailed explanation with references is as follows:

As mentioned in the scenario, the team members are unable to perform backups and restores of blob data. This indicates that they do not have sufficient permissions to access blob storage resources. To grant them permissions, you need to assign them an Azure role that allows read/write/delete permissions to blob storage resources.

Azure roles are roles that can be assigned to users, groups, or applications to manage access to Azure resources2. Azure roles are based on Azure role-based access control (Azure RBAC), which is an authorization system that provides fine-grained access management of Azure resources3. With Azure RBAC, you can control access to resources by creating role assignments, which consist of three elements3:

• The security principal: The user, group, or application that you want to grant or deny access to the resource.
• The role definition: The predefined or custom set of permissions that you want to grant or deny on the resource. For example, read, write, delete, backup, restore, etc.
• The scope: The level at which you want to apply the role assignment. For example, at the management group, subscription, resource group, or individual resource level.

To assign an Azure role that allows read/write/delete permissions to blob storage resources, you can use the Storage Blob Data Contributor role. The Storage Blob Data Contributor role is a built-in role that has full access to blob storage resources except granting access to others1. This means that users who are assigned the Storage Blob Data Contributor role can perform backups and restores of blob data.

To assign the Storage Blob Data Contributor role using the Azure portal, follow these steps4:

• In the Azure portal, navigate to the scope where you want to assign the role. For example, a storage account or a container.
• Select Access control (IAM), then select Add > Add role assignment.
• Under Role, select Storage Blob Data Contributor from the drop-down list.
• Under Assign access to, select User, group, or service principal.
• Under Select, find and select the users or groups that you want to assign the role to. You can type in the Select box to search the directory for display name or email address.
• Select Save to create the role assignment.

To assign the Storage Blob Data Contributor role using the Azure CLI or PowerShell, see Assign Azure roles using CLI or PowerShell.

Box 1: Enable access to Azure Resource Manager for template deployment.

In the given scenario, you are trying to resolve Azure VM deployment issues. To configure an Azure Key Vault access policy setting for VM deployment, you need to enable access to Azure Resource Manager for template deployment. This will allow the VM deployment process to access the secrets and certificates stored in the Key Vault during the deployment of the VM using an ARM (Azure Resource Manager) template. Reference: - https://docs.microsoft.com/en-us/azure/key-vault/general/tutorial-net-create-vault-azure-web-app

BoX 2: Grant the Microsoft.KeyVault/vaults/deploy/action permission

 This is the permission that you should configure on an RBAC Key Vault role to resolve the Azure virtual machine (VM) deployment issues. This permission allows Azure Resource Manager to retrieve secrets from the key vault when deploying resources using an ARM template1. Therefore, option C is correct.

A detailed explanation with references is as follows:

As mentioned in the scenario, the Azure virtual machine (VM) deployment issues are caused by the inability of Azure Resource Manager to retrieve secrets from the key vault when deploying resources using an ARM template. To resolve this issue, you need to configure an RBAC Key Vault role that grants Azure Resource Manager the permission to access the key vault.

RBAC Key Vault roles are roles that can be assigned to users, groups, or applications to manage access to key vault secrets, keys, and certificates2. RBAC Key Vault roles are based on Azure role-based access control (Azure RBAC), which is an authorization system that provides fine-grained access management of Azure resources3. With Azure RBAC, you can control access to resources by creating role assignments, which consist of three elements3:

• The security principal: The user, group, or application that you want to grant or deny access to the resource.
• The role definition: The predefined or custom set of permissions that you want to grant or deny on the resource. For example, read, write, delete, backup, restore, etc.
• The scope: The level at which you want to apply the role assignment. For example, at the management group, subscription, resource group, or individual resource level.

To configure a role assignment that allows Azure Resource Manager to retrieve secrets from the key vault when deploying resources using an ARM template, you need to grant the Microsoft.KeyVault/vaults/deploy/action permission1. This is a special permission that grants Azure Resource Manager a limited permission to get secrets from the key vault during resource deployment1. This permission does not grant any other permissions to Azure Resource Manager on the key vault or its contents1.

To grant the Microsoft.KeyVault/vaults/deploy/action permission using the Azure portal, follow these steps1:

• In the Azure portal, navigate to the Key Vault resource.
• Select Access control (IAM), then select Add > Add role assignment.
• Under Role, select a built-in or custom role that includes the Microsoft.KeyVault/vaults/deploy/action permission. For example, you can select Key Vault Administrator or Key Vault Secrets User.
• Under Assign access to, select Azure AD user, group, or service principal.
• Under Select, enter Azure Resource Manager in the search field and select it.
• Select Save to create the role assignment.

To grant the Microsoft.KeyVault/vaults/deploy/action permission using the Azure CLI or PowerShell, see Grant permissions for template deployment.

BOX 1: Run the command: nslookup -type=a www.contoso.com 8.8.8.8

nslookup is a command-line tool that queries DNS servers for information about domain names and IP addresses. It can be used to troubleshoot DNS issues and verify DNS configurations1.

The -type option specifies the type of DNS record to query. The -type=a option queries for A records, which map domain names to IPv4 addresses1. The www.contoso.com argument specifies the domain name to query. The 8.8.8.8 argument specifies the DNS server to use for the query, which is a public DNS server provided by Google 2.

By running this command, you can verify if the Azure Public DNS zone is configured according to the requirements by checking if the A record for www.contoso.com matches the expected IPv4 address. If the A record is missing or incorrect, you can use the Azure portal, PowerShell, or Azure CLI to create or update it in your DNS zone 3.

Box2: Create NS records

NS (Name Server) records are used to delegate a domain or subdomain name to a set of authoritative DNS servers, which can provide information about that domain. In this scenario, there appears to be an issue with resolving the domain in question via public DNS lookup since it's only resolving locally on one server and not across all networks. By creating NS records for the domain, authoritative nameservers will be identified and designated as responsible for providing accurate information about the specific zone. This will ensure your domain is properly distributed on various different network zones and help users globally reach your website without any delays or connectivity problems. Alternatively, SRV (Service locator) record is used when you have multiple servers offering similar services such as email or SIP but want to use a weight system indication greater trustworthiness/proximity of datacenters within providers dns infrastructure. And SOA (Start Of Authority) - indicates who in control ofthe DNS zone and provides other related information such as the serial number and default TTL values. Therefore, option A. Create NS records would be the best solution for resolving public DNS lookup issues in this scenario. References: - "NS record," Microsoft Docs, accessed March 27, 2023. [Online]. Available: https://docs.microsoft.com/en-us/windows-server/networking/dns/deploy/create-a-dns-record-for-domain-access#ns-record - "SRV record," Cloudflare Help Center, accessed March 27, 2023. [Online]. Available: https://support.cloudflare.com/hc/en-us/articles/216672888-SRV-Record-Setup - "SOA record," DigitalOcean Product Documentation, accessed March 27, 2023. [Online]. Available: https://www.digitalocean.com/community/tutorials/how-to-manage-dns-using-the-digitalocean-control-panel#start-of-authority-record

Box 1: Verify that VNet1 is configured to use the built-in Azure resolution

As mentioned in the scenario, you need to troubleshoot and resolve the reverse DNS lookup issues. Reverse DNS lookup is a process of resolving an IP address to a host name2. For example, if you have a virtual machine with an IP address of 10.0.0.4 and a host name of vm1.contoso.com, you can use reverse DNS lookup to find the host name from the IP address.

One way to perform reverse DNS lookup in Azure is to use the built-in Azure resolution. The built-in Azure resolution is a feature that allows reverse DNS lookup (PTR DNS queries) for virtual machine IP addresses by default1. This feature works for both IPv4 and IPv6 addresses, and it supports both public and private IP addresses. The built-in Azure resolution uses the host name of the virtual machine as the reverse DNS record.

To use the built-in Azure resolution, you need to configure your virtual network to use the default Azure-provided DNS servers. These are the DNS servers that are automatically assigned to your virtual network when you create it3. You can verify or change the DNS server settings of your virtual network using the Azure portal, PowerShell, CLI, or REST API.

To verify that VNet1 is configured to use the built-in Azure resolution using the Azure portal, follow these steps:

• In the Azure portal, navigate to the Virtual Network resource.
• Select DNS servers under Settings.
• Check if Default (Azure-provided) is selected under DNS servers. If not, select it and click Save to apply the changes.

After configuring your virtual network to use the built-in Azure resolution, you can test the reverse DNS lookup using tools such as nslookup or dig. For example, you can use the following command to perform a reverse DNS lookup for an IP address of 10.0.0.4:

nslookup -type=PTR 10.0.0.4

The output should show the host name of the virtual machine that has that IP address.

Box 2: Create an in-addr.arpa private DNS zone and link it to VNet1, VNet2, and VNet3.

Reverse DNS lookup issues are related to resolving IP addresses to their corresponding hostnames. In the given scenario, the issue is with reverse DNS lookups for the resources in the three virtual networks. Creating an in-addr.arpa private DNS zone and linking it to VNet1, VNet2, and VNet3 would ensure that the reverse DNS lookups can be resolved correctly across all three virtual networks. Reference: 1. Azure Private DNS: https://docs.microsoft.com/en-us/azure/dns/private-dns-overview 2. Reverse DNS lookup in Azure: https://docs.microsoft.com/en-us/azure/dns/private-dns-reverse-public-ip

No, Yes, No

Graphical user interface, application Description automatically generated

Graphical user interface Description automatically generated with low confidence

"az network vnet subnet" and "disable-private-link-service-network-policies" More info on: https://learn.microsoft.com/en-us/azure/private-link/disable-private-link-service-network-policy

To troubleshoot the connection issue, you should do first identify the shared key by running this PowerShell cmdlet: Get-AzVirtualNetworkGatewayConnectionSharedKey. According to 1, this cmdlet returns the shared key that is used for authentication between an Azure virtual network gateway and a local network gateway. You can use this cmdlet to verify that the shared key matches on both sides of the VPN connection.

Therefore, you should choose A. Identify the shared key by running this PowerShell cmdlet: Get-AzVirtualNetworkGatewayConnectionSharedKey.

Graphical user interface, application Description automatically generated

$ckt = Get-AzExpressRouteCircuit -Name "ExpressRouteARMCircuit" -ResourceGroupName "ExpressRouteResourceGroup" Set-AzExpressRouteCircuit -ExpressRouteCircuit $ckt https://learn.microsoft.com/en-us/azure/expressroute/reset-circuit

According to Microsoft, Azure Load Balancer health probes originate from the IP address 168.63.129.16 and must not be blocked for probes to mark your instance as up. The AzureLoadBalancer service tag identifies this source IP address in your network security groups and permits health probe traffic by default1. https://learn.microsoft.com/en-us/azure/load-balancer/load-balancer-custom-probe-overview

Azure AD doesn’t generate or store password hashes in the format that’s required for NTLM or Kerberos authentication until you enable Azure AD DS for your tenant. Therefore, Azure AD can’t automatically generate these NTLM or Kerberos password hashes based on users’ existing credentials.

For cloud-only environments with no on-premises synchronization, you need to instruct users to change their password in Azure AD after enabling Azure AD DS. This will generate the required password hashes and sync them to Azure AD DS within 20 minutes.

To allow the on-premises environment to access the Azure SQL Database named SQL1 over a site-to-site (S2S) VPN in SubnetB, you should deploy a private endpoint for SQL1. A private endpoint is a network interface that connects you privately and securely to a service powered by Azure Private Link. Private Link allows you to access Azure PaaS services (for example, Azure Storage and SQL Database) and Azure-hosted customer/partner services over a private endpoint in your virtual network. So the correct answer is D. Deploy a private endpoint for SQL1.

You can find more information about private endpoints in the official Microsoft documentation.

Requirement: Clients that resolve malicious domain names. Query: DNS Security

The DNS Security query shows the DNS clients that have attempted to resolve malicious domain names, such as those associated with malware, phishing, or crypto mining. The query also shows the number of malicious queries, the threat type, and the threat level for each client1.

Requirement: Clients that exceed threshold for lookup requests. Query: DNS Clients

The DNS Clients query shows the DNS clients that have sent queries to the DNS servers, along with the number of queries, the average response time, and the percentage of failed queries. The query can be filtered by a threshold value to show only the clients that exceed a certain number of queries2.

Requirement: Changes made to the DNS servers. Query: Configuration Events

The Configuration Events query shows the changes made to the DNS servers, such as adding or deleting zones, records, or forwarders. The query also shows the user who made the change, the time of the change, and the event ID3.

1: DNS Analytics solution in Azure Monitor 2: DNS Analytics solution in Azure Monitor 3: DNS Analytics solution in Azure Monitor

To use FQDN filtering in network rules, you must enable DNS Proxy on the firewall policy and configure the virtual machines to use the Azure Firewall as their DNS server1. This way, the firewall can resolve the FQDNs and apply the appropriate network rules based on the IP addresses returned by the DNS server2. Upgrading to the Azure Firewall Premium SKU, creating a DNAT rule, or configuring the firewall for a negative cache are not required for FQDN filtering in network rules.

1: Azure Firewall policy DNS settings 2: Azure Firewall FQDN filtering in network rules

The proposed solution of configuring a route table with route propagation disabled will not meet the goal of making the new subnet unreachable from the on-premises network.

Route tables in Azure are used to control traffic flow within a virtual network and between virtual networks. By default, each subnet in an Azure virtual network is associated with a system-generated route table, which contains a default route that enables traffic to flow to and from all the subnets within the virtual network.

Disabling route propagation in a custom route table would prevent any new routes from being propagated to the associated subnets. However, it would not prevent traffic from the on-premises network from reaching the new subnet since traffic between the virtual network and the on-premises network would still use the default route in the system-generated route table.

To meet the goal of making the new subnet unreachable from the on-premises network, you would need to create a new route table with a route that sends traffic destined for the new subnet to a null interface. This would cause the traffic to be dropped and the subnet to be effectively unreachable from the on-premises network.

Tool: B. psping Port: B. 443

To troubleshoot the issues that scheduling agents report accessing Alpine Ski House resources, you need to test the network latency by using the psping tool and the port 443. The psping tool is a command-line utility that can measure network performance and connectivity by sending TCP or UDP packets to a target host and reporting the round-trip time (RTT) and other statistics. The port 443 is the default port for HTTPS, which is the protocol used by Alpine Ski House to secure their web traffic. By using the psping tool with the port 443, you can test the latency of the HTTPS connection from VM3 to Alpine Ski House and compare it with the expected latency. If the latency is higher than expected, it could indicate a network issue that affects the performance of accessing Alpine Ski House resources.

• Connection: VNet1-VNet4 Parameters are: AllowGatewayTransit: Enabled

• Connection: VNet4-VNet1 Parameters are: UseRemoteGateways: Enabled

To resolve the connectivity issues for VM1 to Contoso Suites, you need to configure the peering connections between VNet1 and VNet4 correctly. The peering connection from VNet1 to VNet4 should have the AllowGatewayTransit parameter enabled, which allows VNet1 to use the virtual network gateway in VNet4 as a transit point for traffic. The peering connection from VNet4 to VNet1 should have the UseRemoteGateways parameter enabled, which allows VNet4 to use the remote gateway in VNet1 for traffic destined to Contoso Suites. The IP Allocation parameter should be set to Dynamic for both peering connections, which allows Azure to assign IP addresses from the address space of the peered virtual network. The ServiceEndpoint parameter should be set to None for both peering connections, as there is no need to enable service endpoints for this scenario.

To resolve the issue with VM10, you need to remove the inbound security rule that has a priority of 100 in NSG10, which is blocking ICMP traffic from ASG1 to ASG10. The rule has a source of Any, a destination of VirtualNetwork, a protocol of ICMP, and an action of Deny. This means that any ICMP traffic from outside the VNet4 address space will be denied by NSG10, which is attached to subnet4. This prevents VM1 from pinging VM10 by using ICMP, as VM1 is in VNet1 and not in VNet4. By removing this rule, you can allow ICMP traffic from ASG1 to ASG10, as there is no other rule in NSG10 that explicitly denies it. Alternatively, you could also modify the rule to change the source to VirtualNetwork or the action to Allow, but removing the rule is simpler and more effective.

To troubleshoot the issue with SRV2, you need to run the Get-MsolServicePrincipalCredential PowerShell cmdlet, which returns the credentials that are associated with a service principal in Azure AD. The service principal is an identity that represents an application or a service that interacts with Azure AD. In this case, the service principal is used by the NPS extension for Azure AD MFA to communicate with Azure AD and perform MFA requests. The credentials of the service principal include a certificate and a key that are used to authenticate the service principal to Azure AD. If the credentials are expired or invalid, the MFA requests will fail with a security token error. To resolve this issue, you need to renew the credentials of the service principal by using the New-MsolServicePrincipalCredential cmdlet.

Location in Azure: B. Get-AzVirtualNetworkGateway

Location on Client Computer: D. ipconfig /all

To troubleshoot the issues reported by User1, you need to use the Get-AzVirtualNetworkGateway PowerShell cmdlet in Azure and the ipconfig /all command on the client computer. The Get-AzVirtualNetworkGateway cmdlet returns information about the virtual network gateways in a subscription or a resource group. You can use this cmdlet to verify the status and configuration of the VNetGW virtual network gateway, which provides point-to-site VPN connectivity for User1. The ipconfig /all command displays the IP configuration information for all network adapters on the client computer. You can use this command to check the IP address, subnet mask, default gateway, and DNS servers assigned to User1 when connected to the point-to-site VPN. This can help you identify any misconfiguration or connectivity issues that affect User1’s access to Azure resources.

Audit Logs

Azure AD connect logs

To resolve the problem reported by User2, you need to assign an Azure AD Premium P1 license to User2. User2 is a member of the warehouse group, which is enabled for the self-service password reset (SSPR) feature. However, User2 cannot register for SSPR because they do not have a valid license that supports SSPR. To use SSPR, a user must have one of the following licenses: Azure AD Premium P1, Azure AD Premium P2, Enterprise Mobility + Security (EMS) E3 or EMS E5. By assigning an Azure AD Premium P1 license to User2, you can enable them to use the SSPR feature and reset their password without contacting the helpdesk

To resolve the issue reported by Admin2, you need to disassociate NSG5 from NIC4, which is the network interface of VM4. NSG5 is a network security group that has an inbound security rule that denies traffic from ASG2 to ASG5 over port 80. This rule prevents Admin2 from connecting to the web server public IP address on VM4 from VM2, as VM2 is in ASG2 and VM4 is in ASG5. By disassociating NSG5 from NIC4, you can remove the rule that blocks the traffic and allow Admin2 to access the web server on VM4. Alternatively, you could also modify or remove the rule in NSG5, but disassociating NSG5 from NIC4 is simpler and more effective.

The error 8344 insufficient access rights to perform the operation indicates that the Azure AD Connect service account does not have the required permissions to synchronize the Admin1 account. This could be because the Admin1 account is in an organizational unit (OU) that has security inheritance disabled, which prevents the service account from inheriting the necessary permissions from the parent OU. To resolve this issue, you should enable security inheritance in AD DS for the OU that contains the Admin1 account. This will allow the service account to synchronize the Admin1 account to Azure AD. Alternatively, you could also grant the service account explicit permissions on the Admin1 account, but this would be more tedious and less scalable than enabling security inheritance.

To troubleshoot the issue reported by Blue Yonder Airlines, you need to review the IKEDiagnosticLog, which contains information about the Internet Key Exchange (IKE) protocol that is used to establish IPsec VPN connections. The IKEDiagnosticLog can help you identify the cause of the VPN disconnections and IPsec failure to connect errors, such as mismatched authentication parameters, incorrect pre-shared keys, or network connectivity issues. You can enable and download the IKEDiagnosticLog from the Azure portal or by using PowerShell commands