Generate Multi-Subscription Azure Cost Reports Using REST API and PowerShell

Managing cloud costs is like trying to diet at a buffet. Tempting services everywhere, and one bad decision can blow your budget wide open. So, I was tasked for a breakdown of Azure usage across 50+ subscriptions for the month of June, I knew this wasn’t going to be a quick Azure Portal copy-paste job.

Instead, I rolled up my sleeves and built a PowerShell script that uses the Azure REST API to automatically:

  • Query all accessible subscriptions
  • Fetch usage-based cost data for a given time range
  • Export it into a clean Excel report

And I made it smart enough to handle throttling too. Here’s how it all came together.

Goals

  • Pull Azure cost data from multiple subscriptions
  • Offer flexible time range selection (this month, last month, custom, etc.)
  • Authenticate securely with Entra ID (Service Principal)
  • Export to Excel in a way leadership can digest (bonus points if it opens without errors)

Authentication with Entra ID

I created a Service Principal and assigned it the “Global Billing Reader” role at the billing account level. The script uses the client_credentials flow to authenticate and obtain an access token.

Yes, I temporarily stored the client secret in a plain text variable $clientSecretPlain = 'ENTER_SECRET' because I was still prototyping. Don’t judge me. But for production? Vault it or a managed identity.

Handling Throttling (429 Errors)

Azure’s APIs like to throw shade when you hit them too hard. I added retry logic with exponential backoff and jitter.

PowerShell Script

# Author: Kumaran Alagesan

# Requires: Az CLI, ImportExcel module (Install-Module -Name ImportExcel)
# Authenticate using Entra Application (Service Principal)

$clientId = 'ENTER_APP_ID'
$tenantId = 'ENTER_Tenant_ID'
$clientSecretPlain = 'ENTER_SECRET'

# Get access token using Service Principal
$body = @{
    grant_type    = "client_credentials"
    client_id     = $clientId
    client_secret = $clientSecretPlain
    scope         = "https://management.azure.com/.default"
}
$tokenResponse = Invoke-RestMethod -Method Post -Uri "https://login.microsoftonline.com/$tenantId/oauth2/v2.0/token" -Body $body -ContentType "application/x-www-form-urlencoded"
if (-not $tokenResponse.access_token) {
    Write-Host "Failed to acquire token. Check credentials." -ForegroundColor Red
    exit 1
}
$token = @{ accessToken = $tokenResponse.access_token }


$selection = $null
while (-not $selection) {
    $selection = Read-Host "Select time range: `n1) This month`n2) Last month`n3) This quarter`n4) Last quarter`n5) This year`n6) Last 6 months`n7) Last 12 months`n8) Custom`nEnter number"
    if ($selection -notmatch '^[1-8]$') {
        Write-Host "Invalid selection. Please enter a number from the list (1-8)." -ForegroundColor Yellow
        $selection = $null
    }
}

$today = Get-Date
switch ($selection) {
    '1' { # This month
        $startDate = Get-Date -Year $today.Year -Month $today.Month -Day 1
        $endDate = $today
    }
    '2' { # Last month
        $lastMonth = $today.AddMonths(-1)
        $startDate = Get-Date -Year $lastMonth.Year -Month $lastMonth.Month -Day 1
        $endDate = (Get-Date -Year $lastMonth.Year -Month $lastMonth.Month -Day 1).AddMonths(1).AddDays(-1)
    }
    '3' { # This quarter
        $quarter = [math]::Ceiling($today.Month / 3)
        $startMonth = (($quarter - 1) * 3) + 1
        $startDate = Get-Date -Year $today.Year -Month $startMonth -Day 1
        $endDate = $today
    }
    '4' { # Last quarter
        $currentQuarter = [math]::Ceiling($today.Month / 3)
        if ($currentQuarter -eq 1) {
            $lastQuarterYear = $today.Year - 1
            $lastQuarter = 4
        } else {
            $lastQuarterYear = $today.Year
            $lastQuarter = $currentQuarter - 1
        }
        $startMonth = (($lastQuarter - 1) * 3) + 1
        $startDate = Get-Date -Year $lastQuarterYear -Month $startMonth -Day 1
        $endDate = (Get-Date -Year $lastQuarterYear -Month $startMonth -Day 1).AddMonths(3).AddDays(-1)
    }
    '5' { # This year
        $startDate = Get-Date -Year $today.Year -Month 1 -Day 1
        $endDate = $today
    }
    '6' { # Last 6 months
        $startDate = $today.AddMonths(-5)
        $startDate = Get-Date -Year $startDate.Year -Month $startDate.Month -Day 1
        $endDate = $today
    }
    '7' { # Last 12 months
        $startDate = $today.AddMonths(-11)
        $startDate = Get-Date -Year $startDate.Year -Month $startDate.Month -Day 1
        $endDate = $today
    }
    '8' { # Custom
        $startDate = Read-Host "Enter start date (yyyy-MM-dd)"
        $endDate = Read-Host "Enter end date (yyyy-MM-dd)"
        try {
            $startDate = [datetime]::ParseExact($startDate, 'yyyy-MM-dd', $null)
            $endDate = [datetime]::ParseExact($endDate, 'yyyy-MM-dd', $null)
        } catch {
            Write-Host "Invalid date format. Exiting." -ForegroundColor Red
            exit 1
        }
    }
}

$startDateStr = $startDate.ToString("yyyy-MM-dd")
$endDateStr = $endDate.ToString("yyyy-MM-dd")

# Set headers for REST calls using the service principal token
$headers = @{
    'Authorization' = "Bearer $($token.accessToken)"
    'Content-Type'  = 'application/json'
}

# Get all subscriptions
$subsUrl = "https://management.azure.com/subscriptions?api-version=2020-01-01"
$subscriptions = Invoke-RestMethod -Uri $subsUrl -Headers $headers -Method Get | Select-Object -ExpandProperty value

Write-Host "Fetching cost data for $($subscriptions.Count) subscriptions: " -NoNewline

$totalCost = 0
$results = @()

foreach ($sub in $subscriptions) {
    $costQueryBody = @{
        type       = "Usage"
        timeframe  = "Custom"
    timePeriod = @{
        from = $startDateStr
        to   = $endDateStr
    }
    dataSet    = @{
        granularity = "None"
        aggregation = @{
            totalCost = @{
                name     = "Cost"
                function = "Sum"
            }
        }
    }
} | ConvertTo-Json -Depth 10

    $costUrl = "https://management.azure.com/subscriptions/$($sub.subscriptionId)/providers/Microsoft.CostManagement/query?api-version=2024-08-01"

    $maxRetries = 7
    $retryDelay = 5
    $attempt = 0
    $success = $false

    while (-not $success -and $attempt -lt $maxRetries) {
        try {
            $costData = Invoke-RestMethod -Uri $costUrl -Headers $headers -Method Post -Body $costQueryBody

            $subscriptionCost = 0
            if ($costData.properties.rows -and $costData.properties.rows.Count -gt 0) {
                $subscriptionCost = $costData.properties.rows[0][0]
            }

            $results += [PSCustomObject]@{
                'Subscription Name' = $sub.displayName
                'Total Cost'        = [math]::Round([double]$subscriptionCost, 2)
            }

            $totalCost += $subscriptionCost
            Write-Host "." -NoNewline
            $success = $true
        }
        catch {
            if ($_.Exception.Response.StatusCode.value__ -eq 429 -and $attempt -lt ($maxRetries - 1)) {
                # Add random jitter to delay
                $jitter = Get-Random -Minimum 1 -Maximum 5
                $sleepTime = $retryDelay + $jitter
                Write-Host "`n429 received, retrying in $sleepTime seconds..." -ForegroundColor Yellow
                Start-Sleep -Seconds $sleepTime
                $retryDelay *= 2
                $attempt++
            }
            else {
                Write-Host "x" -NoNewline
                Write-Host "`nError getting cost for subscription $($sub.displayName): $($_.Exception.Message)" -ForegroundColor Red
                $success = $true
            }
        }
    }
}

# Export results to Excel
$excelPath = Join-Path -Path $PSScriptRoot -ChildPath ("AzureCostReport_{0}_{1}.xlsx" -f $startDateStr, $endDateStr)
if ($results.Count -gt 0) {
    # Do not pre-format 'Total Cost' as string; keep as number for Excel formatting

    # Check if file is locked
    $fileLocked = $false
    if (Test-Path $excelPath) {
        try {
            $stream = [System.IO.File]::Open($excelPath, 'Open', 'ReadWrite', 'None')
            $stream.Close()
        } catch {
            $fileLocked = $true
        }
    }
    if ($fileLocked) {
        Write-Host "Excel file is open or locked: $excelPath. Please close it and run the script again." -ForegroundColor Red
    } else {
        $results | Export-Excel -Path $excelPath -WorksheetName 'CostReport' -AutoSize -TableName 'CostSummary' -Title "Azure Cost Report ($startDateStr to $endDateStr)" -TitleBold -ClearSheet
        Write-Host "Excel report saved to: $excelPath"
        # Optionally open the file
        if ($IsWindows) {
            Start-Sleep -Seconds 2
            Invoke-Item $excelPath
        }
    }
}

If you want to email the output as a table in the body to a mailbox, you can replace the ‘Export results to Excel’ section with the code below. Yup! I know Send-MailMessage is obsolete and ideally I’d run this script with in an Azure automation account and set app permissions for the identity to be able to send emails. I’ll cover it in a later post.

# Prepare HTML table for email
if ($results.Count -gt 0) {
    # Add $ symbol to each Total Cost value
    $resultsWithDollar = $results | ForEach-Object {
        $_ | Add-Member -NotePropertyName 'Total Cost ($)' -NotePropertyValue ('$' + [math]::Round([double]$_.('Total Cost'), 2)) -Force
        $_
    }

    $htmlTable = $resultsWithDollar | Select-Object 'Subscription Name', 'Total Cost ($)' | ConvertTo-Html -Property 'Subscription Name', 'Total Cost ($)' -Head "<style>table{border-collapse:collapse;}th,td{border:1px solid #ccc;padding:5px;}</style>" -Title "Azure Cost Report"
    $htmlBody = @"
<h2>Azure Cost Report ($startDateStr to $endDateStr)</h2>
$htmlTable
<p><b>Total Cost (all subscriptions):</b> $([string]::Format('${0:N2}', [math]::Round([double]$totalCost,2)))</p>
<p style='color:gray;font-size:small;'>This is an automatically generated email - Please do not reply.</p>
"@

    # Email parameters (update these as needed)
    $smtpServer = "smtpserver@domain.com"
    $smtpPort = 587
    $from = "alerts@domain.com"
    $to = "emailaddress@domain.com"
    $subject = "Azure Cost Report ($startDateStr to $endDateStr)"

    Send-MailMessage -From $from -To $to -Subject $subject -Body $htmlBody -BodyAsHtml -SmtpServer $smtpServer -Port $smtpPort
    Write-Host "Cost report sent via email to $to"
} else {
    Write-Host "No results to send."
}

What You’ll Get

The final Excel report displays each subscription’s name alongside its total cost for your chosen time period. Whether you’re reviewing it manually or feeding it into FinOps tools, the format is designed for quick analysis and clean presentation.

Practical Applications

ScenarioHow It Helps
Automation and schedulingSupports routine reporting via scheduled tasks or DevOps flows
Multi-subscription environmentsConsolidates cost data across departments or teams
Governance and FinOpsEnables proactive budget tracking and reporting

With just a PowerShell script and the Azure Cost Management API, you can unlock instant insights into your cloud spend across all Azure subscriptions. Whether you’re part of a DevOps team, driving FinOps initiatives, or simply managing cloud budgets, this automation makes cost visibility one less thing to worry about.

Lessons Learned

  • Azure Cost Management API is powerful, but throttling is real.
  • Microsoft will be retiring the Consumption Usage Details API at some point in the future and does not recommend that you take a new dependency on this API.
  • Export-Excel is a lifesaver, especially when you want your report to actually be readable.

Room for Improvement

  • Add Azure MeterCategory per subscription in the email report to give a better idea of where the cost usage is
  • Move secrets to Azure Key Vault or use Managed Identity
  • Add monthly trend analysis and forecasting
  • Push the data to Power BI for richer dashboards

Final Thoughts

This script is now my go-to tool for quickly generating Azure cost reports across environments. It’s flexible, reliable, and gives my leadership team the visibility they need to make informed decisions, without logging into the portal.

Because let’s face it: if you’re managing Azure at scale, you shouldn’t be clicking through billing blades. You should be scripting your way to clarity.

Keep those costs in check, one API call at a time.

Thanks for stopping by. ✌

RBAC vs. ABAC in Azure: Why You Need Both for Cloud Access Control That Actually Works

Let’s cut to the chase, cloud access control isn’t just a checkmark on your compliance list anymore. It’s a daily battlefield. With global teams, hybrid workloads, and rising security risks, who can do what and under what conditions is now a core pillar of IT strategy.

If you’re working in Azure, you’ve likely heard of RBAC (Role-Based Access Control) and ABAC (Attribute-Based Access Control). But what you may not know is that these aren’t mutually exclusive instead they’re better together.

Let’s unpack what each model does, where they shine (and struggle), and how to combine them for airtight, scalable access governance in Azure.

What is Azure Role-Based Access Control (RBAC)?

Azure RBAC helps you control access by assigning roles to security principals (users, groups, service principals, or managed identities) at a specific scope (subscription, resource group, or resource).

Each role is a bundle of permissions, think of them as job descriptions for Azure resources.

Example RBAC Use Cases

  • A user who can manage only virtual machines in the Dev subscription.
  • A group assigned the Reader role at the resource group level.
  • An app given Contributor access to only one storage account.

RBAC works well when your access needs are role-based and relatively straightforward. But as organizations scale and become more dynamic, things can get messy fast.

Where RBAC Falls Short

RBAC starts to creak when:

  • You need to create roles for every unique mix of region, team, and resource.
  • You end up with a Frankenstein monster of roles like:
    • VP - Europe
    • Manager - Asia
    • SalesRep - NorthAmerica - Junior
  • You have hierarchical or multi-tenant data structures that don’t fit RBAC’s flat model.

The result? Role sprawl, administrative pain, and security gaps.

What is Azure Attribute-Based Access Control (ABAC)?

ABAC adds contextual smarts to access control. Instead of relying solely on roles, it factors in attributes of:

  • The user (e.g., department = HR)
  • The resource (e.g., tag = Project:Alpine)
  • The environment (e.g., access during business hours only)

In Azure, ABAC is implemented through role assignment conditions that filter RBAC permissions.

ABAC in Action

  • “Chandra can read blobs only if they’re tagged with Project=Cascade.”
  • “Support engineers can impersonate users only during a help session.”
  • “Users can access data only in their assigned region or cost center.”

This kind of fine-grained access is powerful, flexible, and crucial in multi-tenant, regulated, or fast-moving environments.

RBAC + ABAC: Not a Choice – A Collaboration

Here’s the mindset shift: RBAC and ABAC are not competing models. They’re complementary.

RBAC defines what actions are allowed.
ABAC defines under what conditions those actions are allowed.

By combining the two, you can:

  • Keep your role structure simple and understandable.
  • Layer on access conditions that reflect real-world business rules.

Common Hybrid Patterns

ScenarioRBAC RoleABAC Condition
Multi-tenant appTenant AdminOnly for tenant_id=X
Regional accessSales ManagerRegion = “North America”
Subscription tiersPremium UserAccess feature only if plan=premium
File accessEditorOnly owner=user_id or shared_with=user_id
Support scenariosSupport AgentImpersonation allowed if user_in_session=true

Best Practices for RBAC and ABAC in Azure

Let’s bring it home with the golden rules:

RBAC Best Practices

  • Least Privilege Always: Grant only the permissions needed—nothing more.
  • Limit Subscription Owners: Three max. The fewer, the safer.
  • Use PIM for Just-in-Time Access: With Microsoft Entra PIM, elevate access temporarily.
  • Assign Roles to Groups: Not individuals. Makes scaling and auditing easier.
  • Avoid Wildcards in Custom Roles: Be explicit with Actions and DataActions.
  • Script with Role IDs, Not Names: Avoid breakage from renamed roles.

ABAC Best Practices

  • Tag Strategically: Use meaningful tags like Project, Environment, or Classification to enable ABAC.
  • Use Conditions to Reduce Role Sprawl: Filter access with precision.
  • Start Small: Pilot with blob storage conditions before scaling ABAC elsewhere.
  • Don’t Replace RBAC: Use ABAC as a filter, not a replacement.

Recap: When to Use What

FeatureRBACABACRBAC + ABAC
Simplicity
Contextual Flexibility
Scalability⚠️ (sprawl risk)
Multi-Tenant Scenarios⚠️
Least Privilege Enforcement✅✅

Final Thoughts

RBAC gives you structure. ABAC gives you nuance. In Azure, using both gives you power and precision.

Don’t fall into the “either/or” trap. The real magic happens when you combine the predictability of RBAC with the intelligence of ABAC to build access models that scale with your business.

Thanks for stopping by. ✌

Azure’s Default Outbound Access Is Being Retired: What Cloud Admins Need to Know (and Do)

If you’re an Azure architect or admin and thought “default outbound access” was your silent wingman for VM connectivity, surprise! Microsoft is retiring it. After September 30, 2025, all new virtual networks in Azure will no longer support default outbound Internet access. Translation? If you’re spinning up VMs and expecting magic public IP access without configuring anything, those days are numbered.

Let’s break down what’s happening, why it matters, and how to prepare without losing your mind.

What’s Being Retired?

Historically, Azure has provided what’s called default outbound access to virtual machines that don’t have an explicitly defined method of reaching the internet. Think of it as Azure tossing a temporary, shared public IP behind the scenes so your VM can connect out.

But that’s going away for all new VNETs after September 30, 2025.

  • Existing VNETs using default outbound access? You’re safe… for now.
  • New VNETs? You’ll need to be explicit.

No more “it just works” surprises. And honestly? That’s a good thing.

Why Is Microsoft Doing This?

Because “default” often equals “risky.” Here’s why the implicit setup has been problematic:

  • Unowned IPs: The IP addresses used for default outbound access are owned by Microsoft, not you. If they change, your workloads can break. And good luck explaining that to your CISO.
  • Lack of Visibility: These IPs aren’t traceable to your tenant, complicating logging and egress controls.
  • Zero Trust FTW: The shift aligns with modern security practices, explicit is better than implicit. You want to control your perimeter, not let Azure make assumptions for you.

This is a “secure by design” decision. We’re moving away from “let’s hope it works” to “I know exactly what’s happening and why.”

What You Need to Do Now

If you’re still relying on default outbound access in existing deployments: start transitioning. For all new virtual networks, you’ll need to plan outbound access explicitly. Microsoft recommends one of the following methods:

Explicit MethodWhen to Use It
Azure NAT GatewayBest practice for scalable, consistent outbound IP
Standard Load Balancer (SLB)Use when you already load-balance traffic
Public IP on NICUse when only one VM needs public connectivity

Bonus: Disable Default Access Explicitly

Even before the cutoff, you can preemptively disable default outbound access by enabling “Private Subnet” on your VNET or via PowerShell/CLI/ARM templates. Here’s the PowerShell approach:

$resourceGroupName = "<your-rg>"
$vnetName = "<your-vnet>"

$vnet = Get-AzVirtualNetwork -ResourceGroupName $resourceGroupName -Name $vnetName

foreach ($subnet in $vnet.Subnets) {
$subnet.DefaultOutboundAccess = $false
}

Set-AzVirtualNetwork -VirtualNetwork $vnet

Why do this? Because some services like Windows Update and Windows Activation require explicit outbound connectivity anyway. Plus, it’s future-proof.

Gotchas to Watch Out For

  • Fragmented packets & ICMP: Not supported with default outbound IPs.
  • Multiple NICs or VMSS: IPs can change unpredictably when scaling.
  • NIC-level detection: Azure Advisor will still report default outbound usage unless the VM is rebooted after changing egress method.

Also note: Flexible orchestration mode for VMSS never uses default outbound. It’s already secure-by-default.

What’s Next?

Microsoft is nudging (okay, shoving) us toward better security hygiene. This is your nudge to revisit those old Terraform templates, ARM deployments, and quick-and-dirty test setups that assumed default behavior.

Checklist before September 30, 2025:

  • Inventory VMs using default outbound access
  • Decide on your preferred outbound method (NAT Gateway is a strong default)
  • Update IaC templates
  • Communicate with app teams about the change
  • Test egress-dependent services (patching, activation, APIs)

Final Thoughts

This isn’t just another checkbox compliance update, this is about control, visibility, and security. By requiring explicit egress, Microsoft is giving you more authority over your architecture.

It’s also a good reminder: just because something works “by default” doesn’t mean it should.

Thank you for stopping by. ✌️

Understanding billing account for Microsoft Customer Agreement (MCA)

Let’s be honest, cloud billing isn’t exactly the most exciting topic. But do you know what’s worse? Opening your Azure bill and feeling like you need a detective’s magnifying glass to figure out what’s going on.

If you’ve got a Microsoft Customer Agreement (MCA), understanding your billing account is key to keeping your cloud costs in check and avoiding any surprise charges. So, grab a coffee, and let’s break it down in a way that actually makes sense.

What is an MCA Billing Account (And Why Should You Care)?

Think of your MCA billing account as the command center for all your Azure charges. It’s where you manage invoices, payments, and who gets to see (or mess with) your billing details. If Azure billing were a Netflix account, your billing account would be the primary profile, the one that controls everything.

Key Things Your MCA Billing Account Lets You Do:

  • View and manage invoices and payment methods
  • Set up multiple billing profiles for different teams or departments
  • Assign roles and permissions (so not everyone can max out the budget!)
  • Track spending across subscriptions

If you’re managing an MCA billing account, congrats! You’ve got the keys to the financial kingdom, use them wisely.

Azure Billing Account: The Big Picture

Your Azure Billing Account is the home base for all things billing-related in your MCA. It’s where invoices, payments, and spending details live. If you think of Azure like a streaming service, your billing account is your main subscription, everything starts from here.

What You Can Do with an Azure Billing Account:

  • View and manage invoices
  • Set up and control billing profiles
  • Assign billing roles to different users
  • Track spending across all subscriptions

This is your financial cockpit, control it wisely!

Billing Profiles: Keeping Budgets Organized

A Billing Profile is like a separate tab on your credit card statement for different teams, projects, or departments. Instead of one giant invoice that makes your head spin, you can split up costs for better organization.

Why Billing Profiles Matter:

  • They generate separate invoices for different teams.
  • You can set up different payment methods for each profile.
  • They help track spending more effectively.

So, if your company has an AI research team and a DevOps team, they can each have their own billing profile, no messy financial mix-ups!

Invoice Sections: Breaking Down Costs Clearly

Under each Billing Profile, you have Invoice Sections. Think of these as subfolders inside your billing profiles, perfect for breaking down costs by project, department, or even specific environments (like Dev vs. Production).

How Invoice Sections Help:

  • You can group charges logically (e.g., marketing vs. engineering).
  • It makes cost tracking super clear.
  • Helps with financial reporting—no more guessing where money went!

If Billing Profiles are the different tabs on your statement, Invoice Sections are like itemized charges, they give you a clearer breakdown.

Subscriptions: Where the Magic Happens

Your Azure Subscriptions are where your actual cloud services live, virtual machines, databases, AI services, you name it. But each subscription needs to be linked to a Billing Profile to be paid for.

Key Things to Know About Subscriptions:

  • They inherit billing settings from their assigned billing profile.
  • You can have multiple subscriptions under one billing account.
  • Each subscription can be assigned to an Invoice Section for better tracking.

Think of it like multiple mobile lines on a family plan. Each line (subscription) has its own usage, but they all roll up into the main bill (billing profile).

Optimizing and Tracking Azure Costs

To effectively manage and optimize your Azure expenditures, consider the following practices:

  • Strategic Structuring: Align your billing profiles and invoice sections with your organization’s hierarchy or project structure. This alignment ensures that invoices reflect your internal financial organization, simplifying reconciliation and reporting.
  • Role-Based Access Control: Assign appropriate roles to team members based on their responsibilities. Azure offers various billing roles, such as Billing Account Owner, Billing Profile Owner, and Invoice Section Owner, each with specific permissions. Implementing role-based access ensures that individuals have the necessary access to perform their tasks without compromising security.
    • Billing Account Owner – The supreme leader of the billing universe. Full access.
    • Billing Profile Owner – Controls billing for one profile (but not the entire account).
    • Billing Profile Contributor – Can manage invoices and payments but not assign roles.
    • Billing Reader – Can see invoices but can’t touch them (great for finance teams!).
  • Regular Monitoring: Utilize Azure’s cost management tools to monitor spending across different billing profiles, invoice sections, and subscriptions. Regular analysis helps in identifying trends, detecting anomalies, and making data-driven decisions to optimize costs.
  • Budgeting and Alerts: Set up budgets and configure alerts for your billing profiles and invoice sections. Proactive notifications enable you to address potential overspending promptly, ensuring adherence to financial plans.

Pro Tips to Avoid Billing Headaches

  1. Assign Roles Wisely – Not everyone needs full access! Keep spending power in the right hands.
  2. Use Billing Profiles for Better Organization – Split billing by department or project to track spending easily.
  3. Enable Cost Management Tools – Azure has built-in cost tracking to help you avoid end-of-month surprises.
  4. Regularly Review Invoices – Set up a habit of checking your invoices to catch any unexpected charges.

Final Thoughts: Take Control of Your Azure Billing

Understanding your MCA Billing Account isn’t just about paying bills, it’s about controlling costs, organizing expenses, and making sure your finance team doesn’t hunt you down.

So next time you log into Azure, don’t panic at your invoice. Instead, think:

  • Is my billing organized?
  • Am I using Billing Profiles and Invoice Sections properly?
  • Do I need to adjust roles to keep spending in check?

Thanks for stopping by. ✌

Guide to Azure Private Endpoint vs Service Endpoint

In the realm of Azure networking, two pivotal features enhance the security and accessibility of your resources: Azure Private Endpoints and Azure Service Endpoints. Understanding their functionalities and differences is crucial for architecting secure and efficient cloud solutions.

Azure Service Endpoints

Azure Service Endpoints extend your virtual network’s identity to Azure services over the Azure backbone network. When a service endpoint is enabled on a subnet, traffic from that subnet to the Azure service remains within Microsoft’s network, reducing exposure to the public internet.

Key Features:

  • Simplified Security: Service endpoints allow you to secure Azure resources to specific virtual networks, enhancing control over which subnets can access particular services.
  • Optimized Routing: Traffic is routed directly through the Azure backbone, potentially reducing latency compared to routes over the public internet.
  • Integration with Network Security Groups (NSGs): You can leverage NSGs to control access, ensuring that only designated subnets or virtual networks can communicate with specific services.

Considerations:

  • Public Endpoint Usage: Despite routing over the Azure backbone, service endpoints connect to the service’s public endpoint, which may not meet stringent security requirements.
  • Azure-Only Access: Service endpoints are designed for traffic originating within Azure. On-premises resources cannot utilize service endpoints and must access services over the public internet.

Azure Private Endpoints

Azure Private Endpoints assign a private IP address from your virtual network to an Azure service, effectively bringing the service into your private address space. This setup ensures that traffic between your virtual network and the service remains entirely within the Azure network, eliminating exposure to the public internet.

Key Features:

  • Private IP Connectivity: Services are accessible via a private IP address within your virtual network, ensuring that all traffic stays within the private network.
  • Enhanced Security: By eliminating public internet exposure, private endpoints are ideal for sensitive data and applications requiring stringent security measures.
  • DNS Integration: Private endpoints require proper DNS configuration to resolve the service’s private IP address. Azure provides automatic DNS resolution, but custom configurations are also supported.

Considerations:

  • Complexity and Cost: Implementing private endpoints can be more complex and may incur additional costs due to the need for DNS configuration and management of private IP addresses.
  • Broader Access: Private endpoints allow access from on-premises networks and other virtual networks, provided they are connected, facilitating hybrid cloud architectures.

Comparison of Azure Service Endpoints and Private Endpoints

FeatureService EndpointsPrivate Endpoints
Connection TypeExtends VNet identity to the service’s public endpoint over Azure backboneAssigns a private IP from your VNet to the service
Security LevelEnhanced security by restricting access to specific VNets; still uses public endpointHighest security with no exposure to public internet
DNS ConfigurationNo changes required; uses public DNSRequires DNS updates to resolve private IPs
Access ScopeOnly from within Azure VNetsAccessible from on-premises and other VNets via private IP
Supported ServicesLimited to specific Azure servicesSupported by a broader range of Azure and third-party services
Use CaseSuitable for scenarios where enhanced security is needed without complex setupIdeal for sensitive data and applications requiring complete isolation

Choosing Between Service Endpoints and Private Endpoints

  • Opt for Service Endpoints if:
    • You need a straightforward way to enhance security for Azure services accessed from within Azure.
    • Your applications do not require complete isolation from the public internet.
    • You prefer minimal configuration without the need for DNS management.
  • Opt for Private Endpoints if:
    • Your applications handle sensitive data necessitating complete isolation from the public internet.
    • You require secure access from on-premises networks or other virtual networks.
    • You are prepared to manage the additional complexity and costs associated with private IP configurations and DNS management.

In summary, both Azure Service Endpoints and Private Endpoints serve to secure access to Azure services, but they cater to different security requirements and use cases. Assess your application’s specific needs to determine the most appropriate solution.