1. View template from deployment history
Go to the resource group for your new resource group. Notice that the portal shows the result of the last deployment. Select this link.

2. You see a history of deployments for the group. In your case, the portal probably lists only one deployment.
Select this deployment.

The portal displays a summary of the deployment. The summary includes the status of the deployment and its operations and the values that you provided for parameters. To see the template that you used for the deployment, select View template.

References: https://docs.microsoft.com/en-us/azure/azure-resource-manager/resource-manager-export- template

To inspect or capture network traffic between two Azure virtual machines (VM1 and VM2) within the same virtual network, Azure provides specialized network diagnostic tools - Azure Network Watcher, Connection Monitor, and Packet Capture - rather than Windows Performance Monitor.
The Performance Monitor (PerfMon) tool on Windows is used to collect metrics such as CPU, memory, and disk I/O performance counters, not network packet data or traffic analysis between VMs. While you could use PerfMon to track bandwidth usage or network throughput locally, it cannot capture or inspect packet-level communication or determine the content or flow between two Azure VMs.
According to the Microsoft Azure Administrator documentation (AZ-104 study guide), the correct method to analyze and inspect network traffic between Azure virtual machines includes:
Enabling Azure Network Watcher in the target region.
Using Packet Capture under Network Watcher to capture inbound and outbound packets.
Optionally using Connection Monitor to monitor connectivity metrics between endpoints.
Packet Capture allows you to define capture filters (e.g., source/destination IP, ports, protocols) and run it for a specific duration, such as three hours, as required in this scenario. The capture file is stored in Azure Storage or locally for later analysis with tools like Wireshark.
Therefore, creating a Data Collector Set (DCS) in Performance Monitor does not meet the requirement to inspect network traffic between VM1 and VM2.

Explanation:
Based on the file named Deploy.json and the cmdlet you ran, here are the answers to your statements:
You can deploy a virtual machine to RGI. = No
You can deploy a virtual machine to RG2. = No
You can manually create a resource group named RG3. = Yes
Let me explain why:
The Deploy.json file defines a template for creating a resource group and a virtual machine in Azure. The template has two parameters: resourceGroupName and vmName. The template also has two resources: one for the resource group and one for the virtual machine. The resource group resource has a property called name, which is set to the value of the resourceGroupName parameter. The virtual machine resource has a property called location, which is set to the value of the location parameter of the deployment cmdlet.
The cmdlet you ran specifies the location as westus and the template file as Deploy.json. However, it does not specify any values for the resourceGroupName and vmName parameters. Therefore, the cmdlet will prompt you to enter those values interactively before creating the deployment.
If you enter RGI as the value for the resourceGroupName parameter and VM1 as the value for the vmName parameter, then the cmdlet will create a resource group named RGI and a virtual machine named VM1 in the westus location. Therefore, you can deploy a virtual machine to RGI.
However, if you enter RG2 as the value for the resourceGroupName parameter, then the cmdlet will fail with an error. This is because RG2 already exists in your subscription and you cannot create a resource group with the same name as an existing one. Therefore, you cannot deploy a virtual machine to RG2 using this template and cmdlet.
You can manually create a resource group named RG3 by using another cmdlet: New-AzResourceGroup.
This cmdlet takes two parameters: Name and Location. For example, you can run the following cmdlet to create a resource group named RG3 in westus:
New-AzResourceGroup -Name RG3 -Location westus

NET Core 3.0: Windows and Linux ASP .NET V4.7: Windows only PHP 7.3: Windows and Linux Ruby 2.6:
Linux only Also, you can't use Windows and Linux Apps in the same App Service Plan, because when you create a new App Service plan you have to choose the OS type. You can ' t mix Windows and Linux apps in the same App Service plan. So, you need 2 ASPs. Reference: https://docs.microsoft.com/en-us/azure/app- service/overview

Explanation:

Azure Bastion is a fully managed service that provides secure and seamless RDP/SSH connectivity to your virtual machines directly through the Azure portal - without exposing those VMs to public IP addresses.
To meet the stated requirements, let's evaluate each configuration point using verified Azure documentation principles:
1## Support for host scaling:
Host scaling (auto-scale) is available only in the Standard SKU of Azure Bastion. The Basic SKU supports a single Bastion host instance and does not scale. Therefore, to support scaling, we must use the Standard SKU.
2## Support uploading and downloading files:
The file upload/download (RDP/SSH clipboard transfer) feature is supported only by the Standard SKU of Azure Bastion. The Basic SKU does not support these advanced capabilities.
3## Support for VMs in both VNet1 and VNet2:
Since VNet1 and VNet2 are in the same region (East US) and are peered, one Bastion host can be deployed in VNet1 and used to connect to VMs in both VNets. Cross-VNet connectivity for Bastion requires VNet peering and the Standard SKU.
4## Minimize the number of addresses on the Azure Bastion subnet:
Azure Bastion requires a dedicated subnet named AzureBastionSubnet.
* The minimum supported subnet size is /26 for the Standard SKU (as it supports scaling and multiple instances).
* The Basic SKU can use /27, but since we are using Standard SKU (for scaling and file transfer), the minimum possible subnet size is /26.This meets the requirement to minimize address space usage while supporting scaling.
5## Public IP requirements:
* The Standard SKU Bastion requires a Public IP address of SKU = Standard with Static allocation.
* Basic SKU Bastion can work with Basic Public IPs, but not Standard SKU Bastion.Hence, we must use a Standard SKU Public IP with Static allocation.
# Final Verified Configuration (per Microsoft Azure Administrator Documentation):
* Subnet size: /26
* Public IP: Standard SKU with a static allocation
Rationale Summary:
This configuration supports scaling, file transfer, cross-VNet connectivity, and minimal address consumption, satisfying all requirements as per official Azure documentation on Azure Bastion Standard SKU and Bastion network design guidelines.