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Virtual Desktop Architecture in Virtual Desktop Infrastructure

Virtual Desktop Architecture in Virtual Desktop Infrastructure

$251.00
Toolkit Included:
Includes a practical, ready-to-use toolkit containing implementation templates, worksheets, checklists, and decision-support materials used to accelerate real-world application and reduce setup time.
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Self-paced • Lifetime updates
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What does the Virtual Desktop Architecture in Virtual Desktop Infrastructure course cover?

Virtual Desktop Architecture in Virtual Desktop Infrastructure is covered here in 8 modules: Assessing Organizational Readiness and Use Case Alignment, Designing the Core Virtualization Platform, Storage Architecture for Scalable Desktop Delivery and 5 more. The outline lists 48 specific topics, opening with conducting a user segmentation analysis to classify workers into knowledge, task, and power user categories based on application and performance.

How do you approach Virtual Desktop Architecture in Virtual Desktop Infrastructure step by step?

The work is sequenced in 8 stages. It starts with Assessing Organizational Readiness and Use Case Alignment, moves through Designing the Core Virtualization Platform and Storage Architecture for Scalable Desktop Delivery, and ends at Hybrid and Cloud-Integrated VDI Deployments. Each stage carries its own topic list, so the sequence is followed rather than summarised.

What is in Module 1 of the Virtual Desktop Architecture in Virtual Desktop Infrastructure course?

Module 1 is Assessing Organizational Readiness and Use Case Alignment. It works through conducting a user segmentation analysis to classify workers into knowledge, task, and power user categories based on application and performance requirements., evaluating existing endpoint hardware capabilities to determine suitability for repurposing as thin clients or identifying replacement cycles., mapping legacy application dependencies to assess compatibility with centralized desktop delivery.

How is the Virtual Desktop Architecture in Virtual Desktop Infrastructure course delivered?

The Virtual Desktop Architecture in Virtual Desktop Infrastructure course is fully self-paced with immediate online access after enrolment. Access does not expire and future updates are included at no cost. It can be taken on any device, and a certificate of completion is issued by The Art of Service when you finish.

How much does the Virtual Desktop Architecture in Virtual Desktop Infrastructure course cost?

The Virtual Desktop Architecture in Virtual Desktop Infrastructure course is $251 as a one time payment. There is no subscription, no per seat licence and no hidden fee. Enrolment carries a 30 day satisfied or refunded guarantee, so it can be assessed in full before you commit.

Closely related courses: Desktop Virtualization in Virtual Desktop Infrastructure, Virtual Desktop Deployment in Virtual Desktop, Desktop Virtualization ROI in Virtual Desktop, Desktop Virtualization Tools in Virtual Desktop.

More answers: what you get with every course, refund policy, all help answers.

This curriculum spans the equivalent of a multi-workshop technical design engagement, covering the same architectural decisions, integration patterns, and operational controls required to deploy and manage enterprise-scale VDI across hybrid environments.

Module 1: Assessing Organizational Readiness and Use Case Alignment

  • Conducting a user segmentation analysis to classify workers into knowledge, task, and power user categories based on application and performance requirements.
  • Evaluating existing endpoint hardware capabilities to determine suitability for repurposing as thin clients or identifying replacement cycles.
  • Mapping legacy application dependencies to assess compatibility with centralized desktop delivery and identifying candidates for refactoring or containerization.
  • Performing network latency and bandwidth profiling across branch offices to validate feasibility of centralized VDI versus deploying local connection brokers.
  • Engaging application owners to negotiate packaging standards and update windows that align with non-persistent desktop image management cycles.
  • Documenting compliance requirements for data residency and session recording to influence desktop placement (on-premises vs. cloud-hosted).

Module 2: Designing the Core Virtualization Platform

  • Selecting hypervisor clustering configurations (e.g., vSphere HA/DRS or Hyper-V Failover Clustering) based on SLA requirements and maintenance window constraints.
  • Sizing host servers with balanced CPU, memory, and storage I/O ratios to prevent bottlenecks during boot storms and peak usage.
  • Implementing NUMA-aware VM placement policies to maintain predictable performance for high-end virtual desktops running CAD or financial modeling tools.
  • Configuring VM templates with standardized guest OS optimizations such as disabling visual effects, defragmentation, and unnecessary services.
  • Establishing VM naming conventions and Active Directory integration patterns that support automated provisioning and audit tracking.
  • Designing VM snapshot and backup exclusion policies to prevent performance degradation and storage bloat in persistent desktop environments.

Module 3: Storage Architecture for Scalable Desktop Delivery

  • Choosing between tiered SAN, hyperconverged infrastructure, or cloud object storage based on IOPS demands and growth projections.
  • Implementing storage QoS policies to isolate desktop workloads from backend infrastructure operations like backups or antivirus scans.
  • Deploying write-cache mechanisms such as RAM or SSD-based logging for non-persistent desktops to absorb transient user writes.
  • Integrating storage replication and deduplication technologies while validating impact on login times and clone operations.
  • Designing golden image storage workflows that minimize delta disk sprawl and streamline patching cycles.
  • Monitoring storage latency metrics at the LUN and VM level to proactively detect contention before user impact occurs.

Module 4: Network Infrastructure and Connectivity Optimization

  • Segmenting VDI traffic using VLANs or micro-segmentation to enforce security boundaries between brokers, desktops, and user access networks.
  • Configuring QoS policies on routers and switches to prioritize display protocol traffic (e.g., PCoIP, Blast Extreme, or RDP) over best-effort applications.
  • Deploying WAN optimization appliances or SD-WAN solutions to reduce bandwidth consumption for remote site connectivity.
  • Implementing UDP-based display protocols with fallback to TCP in environments with asymmetric or lossy network paths.
  • Validating firewall rule sets to allow dynamic port ranges for audio, USB redirection, and multi-monitor support without exposing unnecessary services.
  • Planning for DNS and DHCP scalability to support rapid provisioning of hundreds of desktop VMs during peak deployment phases.

Module 5: Desktop Delivery and Session Management

  • Selecting provisioning models (linked clones, full clones, or instant clones) based on storage efficiency, patching cadence, and user personalization needs.
  • Configuring connection brokers to enforce load balancing across host clusters and failover behavior during host outages.
  • Integrating multi-factor authentication with the access gateway while preserving single sign-on to published applications and desktops.
  • Setting session timeout and reconnection policies to balance user convenience with license and resource utilization.
  • Deploying application layering solutions (e.g., App Layering or MSIX) to decouple applications from OS images and reduce image sprawl.
  • Managing user profile size and synchronization behavior using FSLogix or UE-V to prevent login delays and profile corruption.

Module 6: Security, Compliance, and Access Governance

  • Enforcing encryption for desktop VMs at rest using hypervisor-level or guest-based full-disk encryption mechanisms.
  • Implementing role-based access control (RBAC) for administrative consoles to limit configuration changes to authorized personnel.
  • Configuring antivirus and EDR solutions with scan scheduling and exclusions to avoid performance degradation during peak hours.
  • Integrating session recording and auditing tools for regulated workloads, ensuring storage and retention policies meet compliance standards.
  • Applying group policies to restrict clipboard redirection, file transfer, and printing based on user risk classification.
  • Establishing incident response procedures for compromised desktop VMs, including isolation, snapshot analysis, and rebuild workflows.

Module 7: Monitoring, Performance Tuning, and Lifecycle Management

  • Deploying synthetic transaction monitoring to simulate login sequences and detect performance degradation before user reports.
  • Correlating hypervisor, broker, and user experience metrics to isolate root causes of slow logins or display lag.
  • Establishing baseline performance thresholds for CPU, memory, and disk latency to trigger automated alerts and capacity planning.
  • Executing periodic image recomposition to apply OS patches and application updates with minimal user disruption.
  • Decommissioning stale persistent desktops and reclaiming storage and license resources through automated lifecycle policies.
  • Conducting quarterly architecture reviews to evaluate scaling limits, technology refresh needs, and cloud migration feasibility.

Module 8: Hybrid and Cloud-Integrated VDI Deployments

  • Evaluating Azure Virtual Desktop, AWS WorkSpaces, or Google Cloud VDI services against on-premises TCO and data sovereignty constraints.
  • Designing hybrid identity models using Azure AD Connect or federation to support seamless user authentication across environments.
  • Implementing cloud burst strategies that dynamically provision desktops in public cloud during peak demand periods.
  • Configuring cross-cloud networking with ExpressRoute, Direct Connect, or secure VPN tunnels to maintain consistent user experience.
  • Managing license mobility for Microsoft Windows and Office in cloud-hosted scenarios under Microsoft’s licensing terms.
  • Establishing unified monitoring and logging pipelines that aggregate events from on-premises and cloud VDI components for centralized analysis.
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