Azure VMware Solution Tutorial: Architecture, Pricing, Use Cases, and Hands-On Guide for Compute

by

Category

Compute

1. Introduction

Azure VMware Solution is a first-party Azure service that lets you run VMware workloads (vSphere-based virtual machines) on dedicated Azure infrastructure, managed by Microsoft, using familiar VMware tools like vCenter and NSX.

In simple terms: it’s “VMware in Azure.” You keep using VMware operational practices and tooling, but you place the underlying hardware and many platform responsibilities into Azure so you can modernize, scale, or migrate with less change to your applications.

Technically, Azure VMware Solution provisions a VMware Software-Defined Data Center (SDDC)—including vSphere, vSAN, and NSX—on dedicated bare-metal hosts in an Azure region. You connect this private cloud to your Azure virtual networks and/or on-premises networks using ExpressRoute-based connectivity, then migrate or extend workloads using VMware-native methods (for example, HCX).

The core problem it solves is reducing the friction and risk of moving or extending VMware estates to Azure. You get a supported landing zone for VMware workloads while still integrating with Azure services for identity, monitoring, security, networking, and governance.

Naming note (important): “Azure VMware Solution” is the current Microsoft service name. Historically, there were partner-based offerings (for example, CloudSimple) that are not the same as today’s first-party Azure VMware Solution. If you encounter older blog posts referring to CloudSimple-era processes, treat them as legacy and verify in official docs.

2. What is Azure VMware Solution?

Official purpose
Azure VMware Solution (AVS) is an Azure service that runs VMware SDDCs on Azure and provides native connectivity to Azure services. It is designed to support lift-and-shift migrations, disaster recovery, data center extension, and modernization of VMware-based workloads—without requiring you to re-platform everything immediately.

Core capabilities – Deploy a VMware private cloud (SDDC) in an Azure region on dedicated bare-metal hosts. – Manage VMware resources using VMware tools (vCenter Server, ESXi/vSphere concepts, NSX, vSAN). – Connect privately to Azure VNets and on-prem networks using ExpressRoute-based connectivity. – Migrate workloads using VMware-native approaches (commonly HCX; exact options depend on your design and VMware tooling). – Integrate with Azure operational services (monitoring, logging, security, governance) at the Azure resource level, and use VMware operational tooling inside the SDDC.

Major components (high-level) – Azure VMware Solution private cloud: The Azure resource representing your VMware SDDC. – Clusters and hosts (nodes): Dedicated bare-metal capacity used for ESXi. – VMware vCenter Server: Central management for vSphere resources. – VMware vSAN: Software-defined storage for the cluster. – VMware NSX: Software-defined networking and security (segments, gateways, firewalling). – Connectivity: ExpressRoute-based connections between AVS and Azure, and optionally to on-premises.

Service type
Managed VMware SDDC service (dedicated infrastructure) delivered as an Azure resource in your subscription.

Scope model – Subscription-scoped management: You deploy AVS private clouds into an Azure subscription and resource group. – Regional: You choose an Azure region for the private cloud. Availability and host SKUs vary by region—verify in official docs.

How it fits into the Azure ecosystem – In Azure resource terms, AVS is a “Compute” service because it provides a compute platform for virtual machines—specifically VMware VMs—delivered through Azure. – It complements Azure IaaS (Azure Virtual Machines) and PaaS by providing a VMware-compatible landing zone. – It integrates with Azure networking (VNets, ExpressRoute gateways), Azure governance (Policy, tags), Azure monitoring (Azure Monitor/Log Analytics via diagnostic settings where supported), and Azure security services (Defender for Cloud scenarios vary—verify in official docs).

Official documentation hub: https://learn.microsoft.com/azure/azure-vmware/

3. Why use Azure VMware Solution?

Business reasons

  • Faster cloud migration with fewer application changes: Move VMware VMs to Azure without rewriting.
  • Data center exit: Replace or reduce on-prem hardware refresh cycles and data center leases.
  • M&A and divestiture support: Rapidly carve out, consolidate, or relocate VMware environments.
  • Hybrid strategy: Keep some workloads on-prem while bursting, extending, or modernizing in Azure.

Technical reasons

  • VMware compatibility: Preserve vSphere operational models and many VMware-based dependencies.
  • Low-latency connectivity to Azure services: Use private connectivity patterns between AVS and Azure VNets.
  • Modernization runway: Move now, modernize later (e.g., integrate with Azure databases, analytics, security tools).
  • Disaster recovery options: Use AVS as a DR target or as a recovery environment (design-dependent).

Operational reasons

  • Managed platform elements: Microsoft manages parts of the underlying infrastructure and the AVS service lifecycle (exact division of responsibility is documented—verify in official docs).
  • Familiar tooling: vCenter/NSX workflows remain central for virtualization admins.
  • Supportability: A supported, documented path for VMware in Azure rather than fully DIY hosting.

Security / compliance reasons

  • Dedicated hosts: Workloads run on dedicated bare-metal nodes (not shared with other customers).
  • Network segmentation: NSX micro-segmentation and gateway firewalling patterns (capabilities depend on your NSX design).
  • Azure governance: Apply Azure RBAC, tags, and policy to the AVS resource and connected Azure components.

Scalability / performance reasons

  • Scale by adding/removing hosts: AVS capacity scales at the cluster/host level (minimums apply).
  • Predictable resources: Dedicated capacity can help with performance consistency.

When teams should choose Azure VMware Solution

  • You have a significant VMware footprint and need to move to Azure quickly.
  • You need VMware-specific capabilities or operational continuity (vCenter/NSX/vSAN).
  • You want a hybrid architecture where VMware workloads remain VMware but integrate with Azure services.

When teams should not choose it

  • You can re-platform easily to Azure-native services (often cheaper and simpler long-term).
  • You only have a handful of VMs and no VMware operational dependency—Azure VMs may be simpler.
  • Your team cannot justify the cost of dedicated hosts (AVS typically has a meaningful baseline cost due to minimum host counts and continuous billing).

4. Where is Azure VMware Solution used?

Industries

  • Financial services, insurance, healthcare, government, manufacturing, retail—especially where VMware estates are large and change control is strict.
  • SaaS providers running legacy components on VMware while modernizing parts of the stack.

Team types

  • Infrastructure/platform teams managing vSphere/NSX environments.
  • Cloud platform engineering teams building hybrid landing zones.
  • Security and compliance teams needing segmentation, audit trails, and dedicated capacity.
  • SRE/operations teams responsible for uptime and incident response across hybrid environments.

Workloads

  • Line-of-business apps packaged as VMs.
  • Windows Server and Linux VM farms.
  • Multi-tier applications with strict networking policies.
  • Commercial off-the-shelf software that is certified on VMware and hard to re-platform.
  • VDI and virtualization-heavy workloads (design and sizing required—verify in official docs).

Architectures

  • Hybrid connectivity: on-prem VMware ↔ AVS ↔ Azure VNets.
  • Data center extension for gradual migration.
  • DR in Azure for on-prem environments (or vice versa).
  • “Island” AVS private clouds integrated into enterprise Azure landing zones.

Production vs dev/test usage

  • Production: Common, especially for lift-and-shift and business continuity.
  • Dev/test: Used when teams need VMware parity, but it can be expensive for dev/test compared with Azure-native alternatives. Consider strict scheduling and rapid cleanup, or smaller footprints where possible (minimum host count still applies).

5. Top Use Cases and Scenarios

Below are realistic scenarios where Azure VMware Solution is a good fit. Each includes the problem, why AVS fits, and an example.

1) Lift-and-shift VMware migration to Azure

  • Problem: Hundreds of VMs must move off aging data center hardware with minimal downtime and code changes.
  • Why AVS fits: Provides a VMware SDDC in Azure with familiar tools and migration methods.
  • Example: A retail chain migrates vSphere clusters to AVS and keeps application topology unchanged while modernizing databases later.

2) Data center exit with phased modernization

  • Problem: The business must exit a data center by a fixed date, but app modernization won’t finish in time.
  • Why AVS fits: Move VMs first, then refactor gradually to Azure PaaS.
  • Example: A manufacturer moves ERP app servers to AVS and later replaces reporting with Azure analytics services.

3) Disaster recovery target for on-prem VMware

  • Problem: Secondary data center is too costly; DR needs a cloud-based option.
  • Why AVS fits: A VMware-based recovery environment can reduce complexity for VMware DR patterns (tooling-dependent).
  • Example: A healthcare provider uses AVS as a recovery site while keeping primary workloads on-prem.

4) Hybrid application with low-latency Azure service integration

  • Problem: An app must remain on VMware but needs private access to Azure services (e.g., AI/analytics).
  • Why AVS fits: Private connectivity to VNets enables integrated architectures.
  • Example: A bank keeps app servers on AVS but sends logs to Azure monitoring and uses Azure services for data processing.

5) M&A consolidation of VMware environments

  • Problem: Two companies need to merge infrastructure quickly without immediate data center consolidation.
  • Why AVS fits: AVS can be a neutral consolidation environment in Azure with controlled connectivity.
  • Example: The acquiring company deploys AVS and migrates select workloads from both estates, standardizing operations.

6) Legacy app dependency on VMware networking (NSX patterns)

  • Problem: Security policies and micro-segmentation are deeply implemented using NSX.
  • Why AVS fits: Preserves NSX-based segmentation approaches (design-specific).
  • Example: A SaaS provider migrates micro-segmented workloads and retains existing security controls with adjustments.

7) Rapid capacity expansion without buying hardware

  • Problem: Capacity needs spike for a project, but procurement lead times are too slow.
  • Why AVS fits: Scale by adding hosts when needed (within quotas and regional availability).
  • Example: A media company adds AVS capacity for peak processing and later rightsizes.

8) Running VMware-based appliances in Azure

  • Problem: Vendor appliances require VMware and are not supported on public cloud IaaS hypervisors.
  • Why AVS fits: VMware environment inside Azure can meet vendor support requirements (vendor-specific—verify).
  • Example: A security vendor appliance is deployed into AVS to support regional operations.

9) Regulated workloads needing dedicated hardware in Azure

  • Problem: Compliance requires dedicated hosts and strong isolation.
  • Why AVS fits: AVS uses dedicated bare-metal hosts for the private cloud.
  • Example: A financial institution deploys sensitive workloads on AVS and enforces strict network segmentation.

10) Modernize operations while keeping VMware

  • Problem: Ops tooling is fragmented; need centralized logging and monitoring.
  • Why AVS fits: Combine VMware tooling with Azure operations platforms (where supported).
  • Example: A platform team forwards relevant logs/metrics to Azure Monitor and standardizes alerting.

11) Geographic expansion using Azure regions

  • Problem: New regional presence is required; building a new vSphere data center is slow.
  • Why AVS fits: Deploy AVS private cloud in-region and connect to the corporate backbone.
  • Example: A global company adds a new region for customer latency needs using AVS.

12) Transitional step to containers and Kubernetes

  • Problem: Apps are VM-based today; containers are the target.
  • Why AVS fits: Stabilize the migration, then modernize selected workloads to AKS over time.
  • Example: Keep stateful legacy components on AVS; build new microservices on AKS with private connectivity.

6. Core Features

Feature availability can vary by region and SKU. Always validate against the official documentation: https://learn.microsoft.com/azure/azure-vmware/

1) VMware SDDC on dedicated Azure bare metal

  • What it does: Provides a VMware environment (vSphere/vSAN/NSX) running on dedicated hosts in Azure.
  • Why it matters: You can move VMware workloads to Azure without changing the hypervisor stack.
  • Practical benefit: Faster migration and operational continuity for VMware admins.
  • Caveats: Minimum host requirements and continuous billing typically apply.

2) vCenter-based management

  • What it does: You manage VMs and many virtualization constructs using VMware vCenter Server.
  • Why it matters: Familiar operational model for VMware teams.
  • Practical benefit: Existing runbooks and skills remain relevant.
  • Caveats: Some administrative actions are restricted in managed environments (for example, certain host-level operations). Verify in official docs.

3) NSX networking and security

  • What it does: Software-defined networking for segments, gateways, and security controls.
  • Why it matters: Enables segmentation, controlled routing, and security policies for east-west traffic.
  • Practical benefit: Micro-segmentation and policy consistency during migration.
  • Caveats: You must design IP addressing and routing carefully (avoid overlaps with on-prem/Azure).

4) vSAN storage for VMware datastores

  • What it does: Provides software-defined storage across the cluster.
  • Why it matters: Supports VM storage without external SAN management.
  • Practical benefit: Simplifies storage operations and scaling with hosts.
  • Caveats: Storage performance/capacity planning is tied to host count/SKU.

5) Built-in private connectivity to Azure (ExpressRoute-based)

  • What it does: Enables private network connectivity between AVS and Azure VNets.
  • Why it matters: Supports hybrid architectures and secure service consumption (private IPs, controlled routing).
  • Practical benefit: Access Azure services from VMware workloads without traversing the public internet (design-dependent).
  • Caveats: Requires careful setup of ExpressRoute gateways, route tables, DNS, and firewalling.

6) On-premises connectivity patterns (ExpressRoute / Global Reach patterns)

  • What it does: Connects AVS to on-prem networks using ExpressRoute-based designs (implementation varies).
  • Why it matters: Enables migration, hybrid operations, and DR patterns.
  • Practical benefit: Stable private connectivity for large-scale migrations.
  • Caveats: Enterprise networking complexity; coordination with network teams/providers.

7) VMware HCX migration enablement (commonly used)

  • What it does: Provides migration and mobility tooling commonly used to move workloads into AVS.
  • Why it matters: Supports bulk migrations with various mobility options (capability depends on HCX configuration/licensing).
  • Practical benefit: Reduced downtime migrations and phased cutovers.
  • Caveats: Requires network extension planning, firewall allowances, and version compatibility.

8) Cluster scaling (add/remove hosts)

  • What it does: Scale the private cloud by adjusting cluster host count.
  • Why it matters: Align cost and capacity with demand.
  • Practical benefit: Faster capacity changes compared to procuring on-prem hardware.
  • Caveats: Minimum host counts and scale granularity; lead times may apply.

9) Azure resource integration (RBAC, tags, ARM)

  • What it does: Manage AVS as an Azure resource using Azure Resource Manager, Azure RBAC, and tagging.
  • Why it matters: Brings AVS into standard Azure governance.
  • Practical benefit: Unified access control and operational workflows.
  • Caveats: Azure RBAC governs the Azure resource; VMware admin access is separate inside vCenter/NSX.

10) Monitoring/logging integration points

  • What it does: Allows integration with Azure monitoring/log analytics patterns (via diagnostic settings where available).
  • Why it matters: Centralize observability across Azure and VMware.
  • Practical benefit: Standard alerting and dashboards for hybrid operations.
  • Caveats: Exact log/metric availability depends on current AVS capabilities—verify in official docs.

11) Optional add-ons and ecosystem integration

  • What it does: Enables additional VMware ecosystem components depending on your needs (for example, DR tooling).
  • Why it matters: Completes enterprise requirements for backup/DR/security operations.
  • Practical benefit: Build production-grade platform patterns.
  • Caveats: Add-ons can significantly increase cost and complexity; validate support matrix.

7. Architecture and How It Works

High-level service architecture

Azure VMware Solution deploys a VMware SDDC into an Azure region. At a minimum: – You create an AVS private cloud (Azure resource). – Azure provisions dedicated hosts and installs VMware components. – You access vCenter and NSX management endpoints over private connectivity. – You connect AVS networking to Azure VNets (and optionally on-prem) using ExpressRoute-based connectivity.

Control plane vs data plane (conceptual)

  • Control plane
  • Azure control plane: creates/manages the AVS private cloud resource, host scaling, connectivity objects.
  • VMware control plane inside SDDC: vCenter/NSX manage virtualization and networking constructs.
  • Data plane
  • VM traffic inside AVS (east-west): handled by NSX switching/routing and distributed firewalling.
  • VM traffic to Azure/on-prem (north-south): routed through NSX gateways and ExpressRoute connectivity (design-specific).

Integrations with related Azure services

Common integrations include: – Azure Virtual Network (VNet): Where jumpboxes, shared services (DNS), and app tiers can live. – ExpressRoute gateway: Connects a VNet to ExpressRoute circuits (including AVS connectivity). – Azure Bastion: Secure remote access to Azure VMs used as management jump hosts. – Azure Monitor / Log Analytics: Centralize monitoring and logs where supported. – Microsoft Defender for Cloud: Posture management and recommendations (coverage varies—verify). – Azure Policy / tagging: Governance for AVS resources and connected Azure components. – Azure Backup: Primarily for Azure IaaS; VMware backup for AVS often uses VMware-compatible backup tools—design accordingly.

Dependency services

  • Azure subscription/resource group
  • Azure region capacity and AVS host availability
  • Networking dependencies: VNets, gateway subnets, ExpressRoute gateways, IP addressing, DNS

Security/authentication model (practical view)

  • Azure RBAC controls who can create/modify AVS private clouds and related Azure resources.
  • VMware SSO/vCenter roles control admin actions inside the SDDC.
  • NSX roles control networking/security configuration in NSX.
  • Plan for separate identity governance: Azure identities and VMware identities must both be managed.

Networking model (practical view)

You typically design for: – Management access: Admins access vCenter/NSX through a controlled path (jumpbox/Bastion/VPN/ExpressRoute). – Workload networks: NSX segments mapped to your application tiers. – Routing: Between AVS and Azure VNet via ExpressRoute gateway and NSX gateways. Route advertisement and filtering should be explicitly designed. – DNS: Critical for admin tooling, AD integration, and application function.

Monitoring/logging/governance considerations

  • Treat AVS as a platform layer with:
  • Azure resource logs/activities (who changed AVS settings).
  • VMware logs/events (vCenter tasks, NSX events).
  • Define:
  • Central logging destinations (Log Analytics, SIEM).
  • Alert rules for connectivity, capacity, and component health.
  • Change management for NSX firewall and routing.

Simple architecture diagram (Mermaid)

flowchart LR
  User[Admin user] -->|RDP/SSH| Jump[Jumpbox VM in Azure VNet]
  Jump -->|Private connectivity| VC[vCenter (AVS)]
  Jump -->|Private connectivity| NSX[NSX Manager (AVS)]
  subgraph Azure["Azure Subscription"]
    VNet[Azure VNet]
    Jump
    ERGw[ExpressRoute Gateway]
  end
  subgraph AVS["Azure VMware Solution Private Cloud"]
    VC
    NSX
    ESXi[ESXi Hosts + vSAN]
    VM[VMware VMs]
  end
  VNet --- ERGw
  ERGw ---|ExpressRoute-based| AVS
  VM -->|App traffic| VNet

Production-style architecture diagram (Mermaid)

flowchart TB
  subgraph OnPrem["On-Premises"]
    OPNet[Corporate Network]
    OPAAD[AD DS / DNS]
    OPUsers[Admins/Users]
  end

  subgraph Azure["Azure"]
    HubVNet[Hub VNet\n(Firewall, DNS, Bastion)]
    SpokeVNet1[Spoke VNet\n(App tier / shared services)]
    Bastion[Azure Bastion]
    AzFW[Azure Firewall / NVA]
    Log[Log Analytics / SIEM integration]
    ERGwHub[ExpressRoute Gateway\n(in Hub)]
  end

  subgraph AVS["Azure VMware Solution"]
    SDDC[AVS Private Cloud]
    VC2[vCenter]
    NSX2[NSX Manager]
    SegA[NSX Segment A]
    SegB[NSX Segment B]
    VMsA[VMs Tier A]
    VMsB[VMs Tier B]
  end

  OPUsers -->|VPN/ER + Bastion path| Bastion
  Bastion --> HubVNet
  HubVNet -->|Private| ERGwHub
  ERGwHub -->|ExpressRoute-based| SDDC

  OPNet -->|ExpressRoute connectivity (design-specific)| ERGwHub
  OPAAD -->|DNS/LDAP/Kerberos (as designed)| SDDC

  SDDC --> VC2
  SDDC --> NSX2
  NSX2 --> SegA --> VMsA
  NSX2 --> SegB --> VMsB

  VMsA -->|North-South via NSX + Hub controls| AzFW
  AzFW --> SpokeVNet1
  VC2 -->|Events/Logs (pattern)| Log
  NSX2 -->|Logs (pattern)| Log

8. Prerequisites

Azure account/subscription requirements

  • An Azure subscription where you can create:
  • Resource groups
  • Virtual networks
  • ExpressRoute gateways
  • Azure VMware Solution private clouds
  • AVS often requires quota/capacity availability in your chosen region. You may need to request quota increases or capacity reservations—verify in official docs.

Permissions / IAM roles

You typically need: – Ability to register the AVS resource provider (Microsoft.AVS) at the subscription level. – Permission to create and manage: – AVS private clouds – VNets/subnets – ExpressRoute gateways and connections – VMs for jumpbox management

Minimum roles vary by organization. Commonly: – Owner or Contributor on the resource group/subscription for lab work. – More restrictive environments may use built-in roles specific to AVS—verify role names and required permissions in official docs.

Billing requirements

  • AVS is a paid service with a substantial baseline cost (dedicated hosts, minimum nodes).
  • No general free tier is expected for AVS. Assume costs begin immediately after provisioning.

Tools

  • Azure Portal (browser)
  • Optional:
  • Azure CLI (helpful for automation; commands and extensions can change—verify)
  • PowerShell modules (optional)
  • VMware client tools as needed (vSphere Client is browser-based)

Azure CLI install: https://learn.microsoft.com/cli/azure/install-azure-cli

Region availability

  • AVS is not available in every Azure region.
  • Host SKUs and features vary by region.
  • Verify regional availability in official docs and in the Azure Portal during resource creation.

Quotas/limits

Common constraints to plan for: – Minimum number of hosts per private cloud/cluster (often 3 hosts minimum in many designs—verify current minimums). – Host availability capacity in region. – IP address planning constraints for management and workload networks.

Prerequisite services and design decisions

Before deploying, decide: – IP ranges for AVS management/workload segments that do not overlap with: – Azure VNets – On-premises networks – Other connected networks – Connectivity method: – AVS ↔ Azure only, or AVS ↔ Azure ↔ on-prem – DNS strategy: – Where will DNS live (Azure VM-based DNS forwarders, Azure DNS Private Resolver, on-prem DNS)? – What name resolution do you require for vCenter/NSX and domain services?

9. Pricing / Cost

Pricing changes and varies by region, host SKU, and commercial agreement. Do not rely on static blog numbers.

Official pricing page: https://azure.microsoft.com/pricing/details/azure-vmware-solution/
Azure pricing calculator: https://azure.microsoft.com/pricing/calculator/

Pricing dimensions (how you are charged)

Azure VMware Solution cost typically includes: – AVS host (node) charges: Billed per host based on SKU and duration (hourly usage is common; reserved term discounts may be available). – Optional add-ons: Some VMware ecosystem capabilities may be priced separately (depends on what you enable—verify). – Azure networking components: – ExpressRoute gateway in Azure VNets (Azure gateway charges) – Azure Firewall/NVA if deployed – Data transfer/egress where applicable – Storage/backup tooling: If you add third-party backup appliances or additional storage services, those have separate costs. – Operational services: – Log Analytics ingestion and retention – SIEM costs (e.g., Microsoft Sentinel) if used – Monitoring alerts and data retention

Free tier

  • No typical free tier for AVS private clouds due to dedicated host requirements.

Primary cost drivers

  • Number of hosts (and minimum required hosts).
  • Host SKU (CPU/memory capabilities).
  • Uptime duration (AVS clusters are generally billed while provisioned).
  • Networking architecture (ExpressRoute gateways, firewalls, egress patterns).
  • Log volume (Log Analytics can become significant if you ingest verbose VMware logs without filtering).

Hidden/indirect costs to watch

  • Always-on cost: Even if VMs are idle, the host capacity remains allocated and billed.
  • Connectivity: ExpressRoute gateways and network virtual appliances can be persistent costs.
  • Egress: Data leaving Azure (to internet or other clouds) can incur charges.
  • Tooling: Backup, DR orchestration, and security tooling may require licensing.

Network/data transfer implications

  • Traffic between AVS and Azure VNets uses private connectivity patterns; however:
  • Costs depend on the exact architecture and Azure billing for gateways and data movement.
  • Cross-region designs can increase cost and complexity.
  • Internet egress from Azure is billable; plan content delivery and patching strategies accordingly.

How to optimize cost (practical)

  • Right-size host count: Start with the minimum viable cluster size for the workload, then scale.
  • Use reserved options where appropriate: If workloads are steady-state, reserved commitments may reduce cost (verify availability and terms).
  • Reduce logging noise: Send only required logs to Log Analytics; set retention appropriately.
  • Avoid unnecessary always-on NVAs: Use hub networking efficiently; avoid over-provisioned firewall SKUs.
  • Modernize selectively: Move eligible workloads to Azure-native compute (Azure VMs, AKS, PaaS) to reduce AVS footprint over time.
  • Schedule dev/test: If dev/test must use AVS, enforce strict lifecycle management and teardown.

Example low-cost starter estimate (model, not numbers)

Because exact prices vary, think in components: – Minimum host count (often 3) × host hourly rate × hours in month – + ExpressRoute gateway hourly – + jumpbox VM cost (small) – + Log Analytics ingestion (small if filtered) – + optional firewall/NVA

Use the pricing calculator to model: 1) AVS hosts (choose your region + SKU)
2) ExpressRoute gateway in the hub VNet
3) Any Azure VMs and storage
4) Monitoring/log analytics

Example production cost considerations (what changes)

In production you often add: – Additional clusters/hosts for HA, performance, and growth – DR environment (another AVS private cloud or region) – Firewalls and inspection – Backup tooling and storage targets – Centralized SIEM and longer retention – Higher bandwidth requirements and redundant connectivity paths

10. Step-by-Step Hands-On Tutorial

This lab walks through a realistic “first deployment” workflow: create an Azure VMware Solution private cloud, connect it to an Azure VNet, and validate you can reach vCenter from a secured jumpbox. It is designed to be executable, but AVS is not a low-cost service, so treat this as a tightly time-boxed lab and clean up immediately.

Objective

  • Provision an Azure VMware Solution private cloud in a supported Azure region.
  • Establish private connectivity to an Azure VNet.
  • Deploy a management jumpbox VM in Azure.
  • Validate access to the AVS vCenter endpoint and basic connectivity.

Lab Overview

You will create: 1. Resource group + Azure VNet (hub or simple VNet) 2. Azure VMware Solution private cloud 3. ExpressRoute gateway in the VNet 4. Connection between the VNet and AVS 5. Jumpbox VM (Windows or Linux) to access vCenter/NSX privately 6. Validation checks (connectivity + portal status) 7. Cleanup (delete resources to stop billing)

Expected total time: 2–6+ hours (AVS provisioning can take a long time).
Expected cost: High relative to typical labs. Plan to delete ASAP.

Step 1: Pre-flight checks (region, IP plan, provider registration)

1) Choose an AVS-supported region – In Azure Portal, search for Azure VMware Solution and begin the “Create” flow to see available regions. – Outcome: You know which region you can deploy to.

2) Plan non-overlapping CIDR ranges Plan address spaces that do not overlap with: – Your Azure VNet – On-prem networks (if you will connect later) – Other VNets you peer with

A simple lab plan example (adjust to your standards): – Azure VNet: 10.10.0.0/16 – GatewaySubnet: 10.10.255.0/27 (example size; follow ExpressRoute gateway requirements) – Jumpbox subnet: 10.10.1.0/24 – AVS management/workload ranges: choose separate non-overlapping ranges during AVS creation (exact requirements are prompted in the portal).

3) Register the AVS resource provider In Azure CLI (optional but fast):

az login
az account set --subscription "<SUBSCRIPTION_ID>"

# Register the AVS provider
az provider register --namespace Microsoft.AVS

# Verify registration status (may take a few minutes)
az provider show --namespace Microsoft.AVS --query "registrationState"
  • Expected outcome: Registered

If you prefer Portal: – Subscriptions → your subscription → Resource providers → search Microsoft.AVS → Register

Step 2: Create a resource group and VNet (with GatewaySubnet)

1) Create a resource group:

az group create \
  --name rg-avs-lab \
  --location "<REGION>"

2) Create a VNet and subnets:

# Create VNet
az network vnet create \
  --resource-group rg-avs-lab \
  --name vnet-avs-lab \
  --location "<REGION>" \
  --address-prefixes 10.10.0.0/16 \
  --subnet-name snet-jumpbox \
  --subnet-prefixes 10.10.1.0/24

# Create GatewaySubnet (required naming)
az network vnet subnet create \
  --resource-group rg-avs-lab \
  --vnet-name vnet-avs-lab \
  --name GatewaySubnet \
  --address-prefixes 10.10.255.0/27
  • Expected outcome: A VNet exists with a dedicated GatewaySubnet.

Step 3: Create the Azure VMware Solution private cloud

Use the Azure Portal for this step (most beginner-friendly and matches official guided experience).

1) Portal → Create a resource → search Azure VMware Solution → Create 2) Select: – Subscription – Resource group: rg-avs-lab – Region: <REGION> (supported) – Private cloud name: avs-pc-lab 3) Configure required networking/IP blocks as prompted. 4) Choose cluster sizing: – Select the required host SKU and number of hosts (minimum applies; often 3—verify current minimum). 5) Review + Create.

  • Expected outcome: Deployment starts. Portal shows the AVS private cloud resource provisioning.
  • Verification: Resource group contains the AVS private cloud resource; provisioning state eventually becomes Succeeded.

Common issue: “Insufficient quota/capacity.”
Fix: Request AVS quota/capacity in the region (process varies—verify official docs and your Microsoft account team).

Step 4: Create an ExpressRoute gateway in the VNet

To connect AVS to an Azure VNet, you typically need an ExpressRoute gateway in the VNet (hub). Exact steps and required SKU can change; follow the current Azure ExpressRoute gateway documentation.

Portal path (typical): – VNet → Subnets → ensure GatewaySubnet exists – Create resource → Virtual network gateway – Gateway type: ExpressRoute – VPN type: Route-based (often default for VNet gateway creation flows; follow current guidance) – SKU: Choose per requirements

  • Expected outcome: ExpressRoute gateway is deployed to your VNet.
  • Verification: Virtual network gateway resource shows Succeeded.

Gateway creation can take 30–60+ minutes.

Step 5: Connect AVS private cloud to the Azure VNet

The AVS private cloud provides an ExpressRoute-based connectivity option to Azure. The general pattern is: – Obtain an authorization key (or equivalent) from the AVS private cloud connectivity blade. – Create an ExpressRoute connection from your VNet gateway using that key.

Because portal labels and flow can change, follow the AVS documentation section for “connect to Azure virtual network” while using the steps below as a map: – AVS private cloud → Connectivity (or similar) → ExpressRoute → generate/copy authorization key – VNet gateway → Connections → add ExpressRoute connection → paste authorization key and choose peering (as applicable)

  • Expected outcome: Connection state becomes Connected (or equivalent).
  • Verification:
  • AVS connectivity shows a healthy state
  • VNet gateway connection shows connected/provisioned

If you cannot find the exact blade names, start from the official AVS docs hub and navigate to the “Connectivity” tutorials: https://learn.microsoft.com/azure/azure-vmware/

Step 6: Deploy a jumpbox VM for management access

You should not expose vCenter/NSX management endpoints to the public internet. Use a jumpbox VM inside the connected Azure VNet.

Option A: Windows jumpbox (common for vSphere admin workflows) – Create a Windows Server VM in subnet snet-jumpbox – Disable public IP if you will use Azure Bastion, or restrict it heavily with NSGs and just-in-time access (defense in depth)

Option B: Linux jumpbox – Works for testing connectivity and SSH-based tooling; vSphere access remains browser-based.

Azure CLI example (Windows VM; adjust image/size to your standards):

az network nsg create -g rg-avs-lab -n nsg-jumpbox -l "<REGION>"

# Allow RDP from your public IP only (replace <YOUR_PUBLIC_IP>/32)
az network nsg rule create -g rg-avs-lab --nsg-name nsg-jumpbox \
  -n AllowRDP --priority 1000 --access Allow --direction Inbound --protocol Tcp \
  --source-address-prefixes "<YOUR_PUBLIC_IP>/32" --source-port-ranges "*" \
  --destination-address-prefixes "*" --destination-port-ranges 3389

az network nic create -g rg-avs-lab -n nic-jumpbox --vnet-name vnet-avs-lab \
  --subnet snet-jumpbox --network-security-group nsg-jumpbox

az vm create -g rg-avs-lab -n vm-jumpbox \
  --nics nic-jumpbox \
  --image "MicrosoftWindowsServer:WindowsServer:2022-datacenter:latest" \
  --size "Standard_D2s_v5" \
  --admin-username "azureadmin" \
  --admin-password "<STRONG_PASSWORD>" \
  --public-ip-sku Standard
  • Expected outcome: A VM is running in the VNet, reachable securely from your admin workstation.
  • Verification: RDP/SSH into the jumpbox.

Better practice: use Azure Bastion and remove public IPs. For a lab, the above is acceptable if locked to a single source IP and deleted immediately afterward.

Step 7: Validate access to vCenter

1) In the AVS private cloud resource in Azure Portal, locate the vCenter endpoint information and credentials workflow (how you retrieve credentials is documented; do not store credentials in plaintext). 2) From the jumpbox: – Resolve the vCenter FQDN (if provided) or use the management IP – Open browser → vCenter URL (typically https://<vcenter-address>/)

Connectivity checks from the jumpbox: – Windows PowerShell:

# DNS test (if FQDN is provided)
nslookup <vcenter-fqdn>

# TCP connectivity test to HTTPS
Test-NetConnection <vcenter-fqdn-or-ip> -Port 443
  • Linux:
nslookup <vcenter-fqdn>
curl -kI https://<vcenter-fqdn-or-ip>/
  • Expected outcome:
  • DNS resolves (if using FQDN)
  • Port 443 connectivity succeeds
  • vCenter login page loads

Validation

Use this checklist: – [ ] AVS private cloud provisioning state: Succeeded – [ ] ExpressRoute gateway provisioning state: Succeeded – [ ] AVS ↔ VNet connection state: Connected/Provisioned – [ ] Jumpbox VM can reach vCenter over HTTPS – [ ] You can authenticate into vCenter (with appropriate credentials)

Troubleshooting

Issue: AVS deployment fails due to quota/capacity – Symptoms: Deployment error mentioning capacity, quota, or host availability. – Fix: Request quota/capacity in region; consider alternate region; coordinate with Microsoft support/account team. Verify process in official docs.

Issue: Connection not established between AVS and VNet – Symptoms: ExpressRoute connection shows “Not connected” or stuck provisioning. – Fixes: – Ensure the VNet gateway is ExpressRoute type and in the same region as required. – Verify authorization key is correct and not expired (if applicable). – Check that route tables/propagation and gateway settings match the documented AVS connectivity steps.

Issue: Cannot resolve vCenter DNS name – Symptoms: nslookup fails; browser cannot resolve. – Fixes: – Configure DNS on the jumpbox to use the appropriate resolver. – If using custom DNS, ensure conditional forwarding for AVS management domains (design-dependent). – Verify name resolution guidance in AVS docs.

Issue: TCP 443 is blocked – Symptoms: Test-NetConnection fails. – Fixes: – Verify NSG rules on jumpbox subnet/NIC. – Verify firewall rules (Azure Firewall/NVA) if present. – Verify NSX gateway firewall rules if you are traversing AVS segments.

Issue: Overlapping IP ranges – Symptoms: Routing issues, unreachable endpoints. – Fix: Redesign address spaces to ensure no overlap between AVS networks, Azure VNets, and on-prem.

Cleanup

To avoid ongoing charges, delete resources as soon as you finish.

1) Delete the AVS private cloud (this stops host billing after deletion completes): – Portal → AVS private cloud → Delete
or delete the entire resource group (if it contains only lab items).

2) Delete the ExpressRoute gateway: – Portal → Virtual network gateway → Delete

3) Delete jumpbox VM and related resources (public IP, NIC, disks) if not deleted already.

Fast cleanup via resource group deletion:

az group delete --name rg-avs-lab --yes --no-wait
  • Expected outcome: All resources in the lab resource group are scheduled for deletion.
  • Verification: Resource group no longer exists after deletion completes.

11. Best Practices

Architecture best practices

  • Use a hub-and-spoke network in Azure:
  • Hub VNet: connectivity, firewall, DNS, Bastion
  • Spokes: app VNets and shared services
  • Connect AVS to the hub, then route to spokes as needed
  • Plan IP addressing early:
  • Avoid overlaps across on-prem, Azure, and AVS segments
  • Keep room for growth (future segments, DR)
  • Separate management and workload access paths:
  • Admin access to vCenter/NSX should be constrained and audited.
  • Design for failure domains:
  • Plan host/cluster sizing for HA requirements.
  • If DR is required, design multi-region or dual-environment strategies.

IAM/security best practices

  • Least privilege in Azure RBAC for AVS resource management.
  • Separate roles:
  • Azure administrators (resource lifecycle, connectivity)
  • VMware administrators (vCenter, NSX, VM operations)
  • Use privileged access workflows:
  • Just-in-time access where possible
  • Break-glass accounts with strong controls
  • Centralize secrets:
  • Store administrative secrets in a secure vault (e.g., Azure Key Vault) and limit access.

Cost best practices

  • Treat AVS as a capacity commitment:
  • Right-size initial host counts; scale intentionally.
  • Modernize to reduce AVS footprint:
  • Move supporting services (monitoring, patch repositories, CI/CD runners) to Azure-native where appropriate.
  • Control log ingestion:
  • Filter noisy logs; tune retention.

Performance best practices

  • Size hosts and clusters for workload needs (CPU, memory, storage IOPS).
  • Avoid chatty cross-boundary traffic:
  • If an app tier is on AVS and its database is in Azure PaaS, ensure latency is acceptable.
  • Use appropriate NSX design:
  • Keep routing simple where possible; document firewall rules.

Reliability best practices

  • Automate backups and test restores regularly (tooling depends on your solution).
  • Define RTO/RPO and validate DR procedures end-to-end.
  • Monitor connectivity (ExpressRoute health, gateway metrics).

Operations best practices

  • Standardize monitoring: alerts for gateway health, capacity, and key VMware alarms.
  • Patch management:
  • Follow AVS lifecycle guidance for platform components (managed)
  • Maintain guest OS patching separately via your standard tooling
  • Document runbooks:
  • Connectivity troubleshooting
  • VM provisioning
  • Network changes (NSX)
  • Incident response

Governance/tagging/naming best practices

  • Use consistent naming:
  • avs-pc-<env>-<region>
  • vnet-hub-<region>, vnet-spoke-<app>-<region>
  • Tag Azure resources:
  • CostCenter, Environment, Owner, DataClassification
  • Apply Azure Policy where appropriate:
  • Enforce tagging
  • Restrict public IPs on jumpboxes
  • Restrict regions (if aligned with AVS availability)

12. Security Considerations

Identity and access model

  • Azure RBAC:
  • Controls AVS private cloud creation, deletion, scaling, and connectivity configuration in Azure.
  • VMware identities:
  • vCenter authentication/authorization for VM and cluster operations.
  • NSX role-based access for network and security changes.
  • Recommendation:
  • Integrate VMware admin access with enterprise identity where supported (often via AD/LDAP/SAML patterns). Verify supported identity integration methods in official docs.
  • Enforce MFA and conditional access on Azure identities; use privileged identity management processes.

Encryption

  • At rest: Storage encryption is platform-managed at the infrastructure layer; guest OS encryption remains your responsibility.
  • In transit: Use TLS for management endpoints; ensure admin access is over private networks.
  • Recommendation:
  • Use encrypted protocols internally (SMB signing, TLS, SSH).
  • For sensitive data, consider guest-level encryption and key management.

Network exposure

  • Do not expose management endpoints publicly.
  • Use:
  • Jumpbox with restricted access
  • Azure Bastion
  • Private connectivity to on-prem via ExpressRoute
  • Enforce:
  • NSGs for Azure subnets
  • NSX firewall rules for AVS segments
  • Central inspection (Azure Firewall/NVA) where required

Secrets handling

  • Store secrets in a centralized vault.
  • Rotate admin credentials and audit access.
  • Avoid embedding credentials in scripts.

Audit/logging

  • Enable:
  • Azure Activity Logs for AVS resource operations
  • VMware event/task logging and NSX logging (export to your SIEM pattern if supported)
  • Set retention based on compliance needs.
  • Monitor for:
  • Privileged role assignments
  • Network policy changes
  • Unexpected admin logins

Compliance considerations

  • AVS inherits aspects of Azure compliance posture at the infrastructure level, but your compliance responsibilities include:
  • Guest OS hardening
  • Identity governance
  • Network segmentation and controls
  • Data residency (choose region accordingly)
  • Always validate compliance mappings in official Microsoft compliance documentation and AVS-specific guidance—verify in official docs.

Common security mistakes

  • Over-permissive Azure RBAC on AVS resources
  • Public IP exposure on jumpboxes
  • Overlapping networks leading to unintended routing
  • Weak DNS/security boundaries between management and workload networks
  • Lack of change control around NSX firewall policies

Secure deployment recommendations (minimum baseline)

  • Use hub-and-spoke with Azure Firewall or equivalent inspection.
  • Use Bastion (no public IPs).
  • Separate admin networks and restrict vCenter/NSX to admin subnet only.
  • Export logs to a central SIEM with alerting.
  • Implement least privilege in both Azure and VMware role models.

13. Limitations and Gotchas

Always confirm current constraints in the official docs because limits can change.

Common limitations/constraints

  • Minimum host count for a private cloud/cluster (commonly at least 3).
  • Regional availability is limited; not all Azure regions support AVS.
  • Host SKU availability varies by region and may be capacity-constrained.
  • Managed service restrictions:
  • Certain low-level vSphere/ESXi operations may be restricted.
  • Platform patching and lifecycle steps follow AVS-managed processes.

Quotas

  • Host quota/capacity is a frequent blocker for first deployments.
  • Plan lead time for quota approvals.

Pricing surprises

  • AVS hosts are typically billed continuously while provisioned.
  • ExpressRoute gateways and NVAs can be persistent costs.
  • DR duplication (second environment) can roughly double baseline costs.

Compatibility issues

  • Migration tooling compatibility (versions of vSphere/HCX/NSX) must be validated.
  • Vendor software certification: some vendors require explicit certification for “VMware on Azure VMware Solution”—verify with vendor.

Operational gotchas

  • DNS and routing issues are the #1 cause of early friction.
  • NSX firewall defaults can block traffic unexpectedly.
  • Overlapping CIDR ranges can force redesign after deployment.

Migration challenges

  • Large migrations need bandwidth planning, change windows, and rollback strategies.
  • L2 network extension can complicate security and routing if overused—prefer L3 designs when possible.

Vendor-specific nuances

  • Some VMware ecosystem add-ons may have different support or licensing models in AVS—validate before committing.

14. Comparison with Alternatives

Azure VMware Solution is one option among many for running compute workloads in Azure. The “best” choice depends on how much you want to preserve VMware and how much you can modernize.

Key alternatives to consider

  • Azure Virtual Machines (IaaS): Rehost apps to Azure-native VMs instead of VMware.
  • Azure Kubernetes Service (AKS): Re-platform apps to containers.
  • Azure Stack HCI: For on-prem or edge virtualization with Azure integration (not “VMware in Azure”).
  • Azure Arc-enabled VMware vSphere: Manage VMware VMs with Azure Arc while they remain on your VMware infrastructure (management layer, not hosting).
  • VMware Cloud on AWS / Google Cloud VMware Engine: Similar managed VMware offerings in other clouds.
  • Self-managed VMware in a colocation: Full control, but you manage everything.

Comparison table

Option Best For Strengths Weaknesses When to Choose
Azure VMware Solution VMware lift-and-shift, hybrid, DR, data center exit with minimal changes VMware-native tooling, dedicated hosts, private connectivity to Azure Higher baseline cost, capacity/quota constraints, managed restrictions You need VMware SDDC in Azure and want minimal refactoring initially
Azure Virtual Machines (IaaS) Rehosting without VMware dependency Broad availability, flexible sizing, typically lower baseline cost App changes sometimes required; VMware-specific tooling not applicable You can move from VMware to Azure VMs and standardize on Azure IaaS
AKS Cloud-native modernization Scalability, efficient compute usage, DevOps-friendly Requires containerization and architecture changes You’re ready to re-architect to microservices/containers
Azure Arc-enabled VMware vSphere Unified management while staying on-prem Governance/visibility in Azure; doesn’t require moving workloads Does not host VMware in Azure You want Azure management/governance while keeping VMware on-prem
Azure Stack HCI On-prem/edge virtualization with Azure integration Local control, Azure hybrid services Not VMware; primarily on-prem Regulatory/latency constraints require on-prem, but you want Azure integration
VMware Cloud on AWS VMware on AWS Strong AWS integration patterns Not Azure; different ecosystem Your org standardizes on AWS or needs AWS-native integrations
Google Cloud VMware Engine VMware on Google Cloud Google Cloud integration Not Azure You need VMware in GCP for proximity to GCP services
Self-managed VMware (colo) Maximum control Full customization Highest ops burden; long procurement cycles You require full control and can’t use managed VMware services

15. Real-World Example

Enterprise example: regulated financial services migration

  • Problem: A financial services company must exit a data center in 9 months. Hundreds of VMware VMs run business-critical workloads. Refactoring is not feasible within the timeline, and compliance requires strong segmentation and auditability.
  • Proposed architecture:
  • Deploy AVS private cloud in a compliant Azure region.
  • Hub-and-spoke networking with Azure Firewall and centralized DNS.
  • ExpressRoute connectivity to on-prem during migration phase.
  • NSX segments for tier separation and micro-segmentation.
  • Central logging into SIEM (Azure-native or existing) with retention controls.
  • Why Azure VMware Solution was chosen:
  • Minimal change migration path for VMware VMs.
  • Dedicated hosts and private connectivity patterns.
  • Ability to modernize gradually after the data center exit.
  • Expected outcomes:
  • Meet the data center exit deadline.
  • Reduce hardware lifecycle burden.
  • Improve operational visibility by integrating logs and monitoring.

Startup/small-team example: SaaS with a VMware-only vendor appliance

  • Problem: A small SaaS team depends on a third-party appliance that must run on VMware and must be near Azure-hosted app components for latency reasons.
  • Proposed architecture:
  • Small AVS private cloud footprint sized for the appliance and a few supporting VMs.
  • Azure VNet for app tier and databases; private connectivity between AVS and Azure.
  • Strictly limited admin access using Bastion and least privilege.
  • Why Azure VMware Solution was chosen:
  • Vendor requirement for VMware.
  • Ability to keep most of the system on Azure-native services while hosting the appliance on VMware.
  • Expected outcomes:
  • Meet vendor support requirements.
  • Keep latency low to Azure services.
  • Avoid building a dedicated on-prem environment for a single dependency.

16. FAQ

1) Is Azure VMware Solution the same as running VMware on Azure VMs?

No. Azure VMware Solution runs VMware SDDC on dedicated bare-metal hosts as a managed service. Running nested virtualization on Azure VMs is a different pattern and generally not the same operationally or support-wise.

2) Do I still use vCenter with Azure VMware Solution?

Yes. vCenter is central to managing VMware resources in AVS.

3) Is AVS considered “Compute” in Azure?

Yes in the sense that it provides a compute platform for virtual machines—specifically VMware VMs—delivered as an Azure managed service.

4) Does AVS require ExpressRoute?

Connectivity between AVS and Azure VNets is ExpressRoute-based. You typically deploy an ExpressRoute gateway in your VNet to connect. Exact requirements depend on the scenario—verify current documentation.

5) Can I connect AVS to on-premises networks?

Yes, commonly via ExpressRoute-based designs. The exact design depends on your existing network architecture and providers.

6) What’s the minimum size for an AVS deployment?

There is typically a minimum host count per cluster/private cloud (often 3). This can change by offering and region—verify in official docs.

7) Can I pause or stop AVS to save cost?

AVS is generally billed while provisioned because the hosts are dedicated. Cost-saving is usually achieved by scaling down host count (within minimum limits) or deleting the private cloud.

8) Who patches the VMware platform components?

AVS is a managed service; Microsoft manages parts of the platform lifecycle while you manage guest OS and applications. The exact responsibility split is documented—verify in official docs.

9) How do I migrate VMs to AVS?

Commonly with VMware HCX and other VMware-native migration methods. Approach depends on your source environment, downtime constraints, and network plan.

10) Can I use Azure-native monitoring with AVS?

You can use Azure monitoring for the Azure resource layer and integrate logs/metrics based on supported diagnostic options. VMware-level monitoring is also available through VMware tooling. Verify current integration points in official docs.

11) Is AVS secure for regulated workloads?

It can be, but security depends on your architecture: identity, segmentation, logging, and access controls. Use dedicated connectivity, least privilege, and validated compliance mappings.

12) Can AVS workloads access Azure PaaS services privately?

Often yes using private networking patterns (for example, Private Endpoints in Azure VNets) if routing/DNS is designed correctly. Validate the network path and name resolution.

13) Do I need VMware skills to operate AVS?

Yes. AVS is best operated by teams familiar with VMware vSphere/NSX concepts, alongside Azure networking and governance skills.

14) Is AVS cheaper than Azure IaaS?

Not usually for small or simple workloads. AVS has a dedicated-host baseline cost. It can still be cost-effective when it avoids re-platforming costs, reduces risk, or accelerates timelines.

15) When should I choose Azure Arc for VMware instead of AVS?

If you want Azure-based governance/management while keeping workloads on your existing VMware infrastructure, Arc-enabled VMware can be suitable. If you want VMware workloads to run in Azure, AVS is the hosting option.

16) Can I use my existing VMware licenses?

AVS pricing typically includes VMware licensing as part of the service. Licensing terms are specific—verify with the official pricing/licensing documentation.

17) How long does AVS provisioning take?

It can take hours. Plan deployment windows and do not assume it is instantaneous like creating an Azure VM.

17. Top Online Resources to Learn Azure VMware Solution

Resource Type Name Why It Is Useful
Official documentation Azure VMware Solution documentation Primary source for deployment, networking, operations, and supported features: https://learn.microsoft.com/azure/azure-vmware/
Official pricing Azure VMware Solution pricing Current pricing model and region/SKU variations: https://azure.microsoft.com/pricing/details/azure-vmware-solution/
Pricing tool Azure Pricing Calculator Model host + networking + monitoring costs: https://azure.microsoft.com/pricing/calculator/
Architecture center Azure Architecture Center (search AVS) Reference architectures and design patterns (browse/search): https://learn.microsoft.com/azure/architecture/browse/?terms=Azure%20VMware%20Solution
Networking documentation ExpressRoute documentation Required for many AVS connectivity patterns: https://learn.microsoft.com/azure/expressroute/
Identity documentation Azure RBAC documentation Securely manage access to AVS resources: https://learn.microsoft.com/azure/role-based-access-control/
Monitoring documentation Azure Monitor documentation Central monitoring patterns: https://learn.microsoft.com/azure/azure-monitor/
Security documentation Microsoft Defender for Cloud documentation Cloud security posture guidance (coverage varies): https://learn.microsoft.com/azure/defender-for-cloud/
Product updates Azure updates (search “Azure VMware Solution”) Track new capabilities and regional expansions: https://azure.microsoft.com/updates/
Community (high-level) Microsoft Tech Community (search AVS) Practical experiences and announcements; validate against docs: https://techcommunity.microsoft.com/

18. Training and Certification Providers

Institute Suitable Audience Likely Learning Focus Mode Website URL
DevOpsSchool.com Cloud/DevOps engineers, architects Azure + DevOps + platform engineering fundamentals (check AVS-specific availability) Check website https://www.devopsschool.com/
ScmGalaxy.com Beginners to intermediate DevOps, SCM, and cloud foundations Check website https://www.scmgalaxy.com/
CLoudOpsNow.in Cloud operations teams Cloud ops practices, monitoring, incident response Check website https://www.cloudopsnow.in/
SreSchool.com SREs, platform engineers Reliability engineering, observability, operations Check website https://www.sreschool.com/
AiOpsSchool.com Ops and monitoring teams AIOps concepts, automation, analytics for ops Check website https://www.aiopsschool.com/

19. Top Trainers

Platform/Site Likely Specialization Suitable Audience Website URL
RajeshKumar.xyz DevOps/cloud training content (verify specific AVS coverage) Beginners to experienced engineers https://rajeshkumar.xyz/
devopstrainer.in DevOps training and workshops DevOps engineers, cloud engineers https://www.devopstrainer.in/
devopsfreelancer.com Freelance/contract DevOps help and enablement Teams needing short-term coaching https://www.devopsfreelancer.com/
devopssupport.in DevOps support and training resources Ops/DevOps teams https://www.devopssupport.in/

20. Top Consulting Companies

Company Name Likely Service Area Where They May Help Consulting Use Case Examples Website URL
cotocus.com Cloud/DevOps consulting (verify AVS specialization) Architecture, migration planning, DevOps enablement AVS connectivity design review; migration runbook creation; monitoring integration https://cotocus.com/
DevOpsSchool.com Training + consulting services Cloud adoption, DevOps processes, platform enablement Build hybrid landing zone; automate AVS resource provisioning workflows; operational readiness https://www.devopsschool.com/
DEVOPSCONSULTING.IN DevOps consulting CI/CD, cloud ops, reliability practices Implement governance, IaC pipelines, monitoring/alerting for hybrid environments https://www.devopsconsulting.in/

21. Career and Learning Roadmap

What to learn before Azure VMware Solution

1) Azure fundamentals – Subscriptions, resource groups, RBAC, Azure Policy, tagging 2) Azure networking – VNets/subnets, NSGs, route tables (UDRs), DNS basics – ExpressRoute concepts and VNet gateways 3) VMware fundamentals – vSphere concepts (clusters, datastores, port groups/segments) – vCenter administration basics – NSX high-level concepts (segments, gateways, firewalling)

What to learn after Azure VMware Solution

  • Migration specialization
  • HCX-based migration patterns
  • Cutover planning, rollback strategies
  • Security
  • NSX micro-segmentation design
  • SIEM integration, threat modeling
  • Modernization
  • Moving components from AVS to Azure-native (Azure VMs, AKS, PaaS)
  • Automation
  • Infrastructure as Code (Bicep/Terraform) for Azure-side resources
  • Configuration management for guest OS and apps

Job roles that use it

  • Cloud Solutions Architect (hybrid infrastructure)
  • Cloud/Platform Engineer
  • VMware Administrator transitioning to cloud
  • Network Engineer (ExpressRoute, routing, segmentation)
  • Security Engineer (segmentation, logging, governance)
  • SRE/Operations Engineer (monitoring, incident management)

Certification path (if available)

  • Start with Azure Fundamentals (AZ-900) for baseline.
  • Consider Azure Administrator (AZ-104) and Azure Solutions Architect (AZ-305) for Azure platform skills.
  • VMware certifications (VCP track) remain relevant for vSphere/NSX operations.
  • For AVS-specific credentialing, availability can change—verify in official Microsoft and VMware training catalogs.

Project ideas for practice

  • Build a hub-and-spoke network and simulate AVS connectivity using the same governance controls (even if you can’t deploy AVS often).
  • Create an “AVS operations runbook”:
  • onboarding/offboarding admins
  • connectivity checks
  • incident response steps
  • Cost modeling exercise:
  • baseline AVS host costs + gateway + logging
  • compare against Azure VM rehosting for a representative app

22. Glossary

  • AVS (Azure VMware Solution): Microsoft-managed VMware SDDC hosted on dedicated Azure infrastructure.
  • Private Cloud (AVS): The AVS resource representing your VMware SDDC in an Azure region.
  • SDDC: Software-Defined Data Center; virtualized compute, storage, and networking managed by software.
  • vSphere / ESXi: VMware’s hypervisor platform and host software.
  • vCenter Server: VMware management plane for vSphere environments.
  • vSAN: VMware software-defined storage, aggregating host disks into shared datastores.
  • NSX: VMware software-defined networking and security platform used for segments, gateways, and firewalling.
  • ExpressRoute: Azure private connectivity service (via partner circuits) used for private network connectivity patterns.
  • Virtual Network Gateway: Azure resource that provides VPN or ExpressRoute gateway capabilities for a VNet.
  • Hub-and-spoke network: Azure network topology with a shared “hub” for connectivity/security and “spokes” for workloads.
  • NSG (Network Security Group): Azure L4 filtering (stateful) for subnets/NICs.
  • UDR (User Defined Route): Custom route table entries in Azure.
  • CIDR: IP address range notation (e.g., 10.10.0.0/16).
  • Jumpbox: A secured administrative VM used to access private management endpoints.
  • RTO/RPO: Recovery Time Objective / Recovery Point Objective for disaster recovery planning.
  • SIEM: Security Information and Event Management system (centralized security logging and alerting).

23. Summary

Azure VMware Solution is Azure’s managed VMware SDDC offering in the Compute category, providing VMware-compatible compute, storage, and networking on dedicated Azure hosts. It matters because it gives organizations a practical way to migrate or extend VMware workloads into Azure with fewer application changes, while enabling integration with Azure networking, governance, and operational tooling.

Cost and security are central design factors. AVS typically has a significant baseline cost due to minimum host counts and always-on dedicated infrastructure, plus indirect costs like ExpressRoute gateways, firewalls, and logging. Security requires disciplined identity separation (Azure RBAC vs VMware roles), private management access, and strong network segmentation.

Use Azure VMware Solution when you need VMware continuity in Azure (migration speed, operational familiarity, vendor constraints, or hybrid DR). Prefer Azure-native compute when you can re-platform or when costs and simplicity favor IaaS/PaaS.

Next step: read the official AVS documentation hub and follow the connectivity and operational guidance end-to-end, then build a production-ready hub-and-spoke network design before migrating real workloads: https://learn.microsoft.com/azure/azure-vmware/