3V0-752: VMware Certified Advanced Professional 7 - Desktop and Mobility Design certification video training course by prepaway along with practice test questions and answers, study guide and exam dumps provides the ultimate training package to help you pass.

VMware 3V0-752: Advanced Desktop Management Design Exam

Course Overview

The VMware 3V0-752 Advanced Desktop Management Design course is designed for IT professionals seeking to master the skills required to design and manage advanced VMware Horizon environments. This course provides in-depth knowledge of VMware Horizon architecture, advanced desktop management, and design principles to ensure scalable and efficient virtual desktop infrastructure.

The course prepares candidates for the 3V0-752 certification exam, focusing on both theoretical understanding and practical design skills. Participants will learn how to analyze requirements, evaluate design options, and implement solutions that align with organizational needs.

The course emphasizes real-world scenarios, best practices, and VMware-recommended design methodologies. Candidates will gain the expertise needed to make informed design decisions for complex desktop environments.

Learning Objectives

Participants in this course will achieve several key objectives. They will develop the ability to design advanced VMware Horizon environments that are reliable, scalable, and secure. They will learn to integrate Horizon with existing IT infrastructure and manage large-scale deployments efficiently.

The course also focuses on performance optimization, high availability, disaster recovery planning, and security considerations. Participants will understand how to select appropriate desktop and application delivery strategies. They will acquire knowledge to address common challenges in virtual desktop deployment and design.

By the end of the course, candidates will be able to create comprehensive design documents that meet business requirements, comply with industry standards, and align with VMware best practices.

Course Description

The VMware 3V0-752 training is a hands-on, instructor-led course tailored for advanced desktop management design. The course combines lectures, case studies, and lab exercises to provide a complete understanding of Horizon architecture and design principles.

The curriculum covers topics such as Horizon 8 architecture, advanced desktop deployment models, infrastructure sizing, capacity planning, and security considerations. It addresses both persistent and non-persistent desktop strategies, including linked clones, instant clones, and RDS-hosted desktops.

Participants will explore storage design, network requirements, load balancing, and integration with VMware vSphere and other VMware solutions. The course emphasizes decision-making processes based on business needs, operational efficiency, and cost-effectiveness.

Through lab exercises, students gain hands-on experience in designing environments, configuring Horizon components, and implementing design solutions that meet functional and non-functional requirements.

Who This Course is For

This course is intended for VMware professionals who are responsible for designing, deploying, or managing advanced Horizon environments. It is ideal for desktop architects, virtualization engineers, IT consultants, and system administrators with experience in VMware technologies.

Candidates should have experience in VMware Horizon deployments, vSphere administration, and desktop virtualization concepts. Knowledge of networking, storage, and security fundamentals is highly recommended.

The course is also suitable for IT professionals preparing for the VMware 3V0-752 certification exam who want to deepen their understanding of design methodologies and best practices for advanced desktop management.

Prerequisites

Before enrolling, participants should have foundational knowledge of VMware Horizon, vSphere, and basic networking. Experience in managing virtual desktops, configuring VMware solutions, and understanding desktop delivery methods is necessary.

Prior exposure to VMware vSAN, NSX, and other VMware ecosystem solutions will be beneficial for understanding advanced integration concepts. Candidates should also have experience with capacity planning, performance monitoring, and troubleshooting Horizon environments.

Course Modules Overview

The course is divided into multiple modules that cover every aspect of advanced desktop management design. Each module combines theory and practical exercises to provide a comprehensive learning experience.

The modules include VMware Horizon architecture, design principles, desktop and application deployment strategies, infrastructure sizing, storage and network design, security, and disaster recovery. Each module builds upon the previous one to provide a structured learning path.

The modules also cover operational aspects, such as monitoring, troubleshooting, and maintaining large-scale desktop environments. Participants learn to evaluate design decisions and recommend solutions that optimize performance, availability, and cost.

Module One: VMware Horizon Architecture

The first module introduces the VMware Horizon architecture in detail. Participants learn about the components of Horizon, including Connection Servers, Composer, Unified Access Gateway, and Horizon Agents.

The module explains how these components interact to provide virtual desktop and application delivery. Students will understand the role of vSphere in supporting Horizon infrastructure and the importance of integrating with existing IT systems.

Design considerations for scalability, redundancy, and high availability are discussed. Participants explore deployment topologies, including single-site and multi-site configurations, and learn how to select the appropriate topology for business requirements.

Module Two: Desktop Deployment Strategies

This module focuses on advanced desktop deployment strategies. Students explore persistent and non-persistent desktop models and understand the benefits and limitations of each.

Linked clones, instant clones, and full clones are examined in depth. Participants learn how to select the right desktop type based on performance, storage, and management requirements. The module also covers RDS-hosted desktops and published applications.

Real-world scenarios demonstrate how deployment strategies impact design decisions. Participants gain insight into balancing user experience with operational efficiency and resource utilization.

Module Three: Infrastructure Sizing and Capacity Planning

Infrastructure sizing and capacity planning are critical for successful Horizon deployments. This module provides guidelines for sizing compute, storage, and network resources.

Participants learn to estimate resource requirements based on user profiles, application workloads, and performance expectations. The module covers methods for calculating IOPS, CPU, memory, and network bandwidth needs.

Students also explore strategies for optimizing resource allocation, load balancing, and ensuring high availability. Best practices for scaling Horizon environments to meet growing business demands are emphasized.

Module Four: Storage Design and Network Requirements

This module focuses on the design of storage and network components for Horizon environments. Participants learn how to select the appropriate storage type, configure storage policies, and optimize I/O performance.

Networking considerations, including VLANs, firewall rules, load balancing, and security, are discussed in detail. The module emphasizes the integration of Horizon with existing network infrastructure and best practices for minimizing latency.

Students gain practical knowledge of designing environments that meet performance, availability, and scalability requirements. Case studies illustrate common challenges and solutions for storage and network design.

Module Five: Security and Disaster Recovery

Security and disaster recovery are essential aspects of advanced desktop management design. This module covers security best practices, including user authentication, access control, and data protection.

Participants learn how to design environments that comply with industry standards and organizational policies. Disaster recovery planning, backup strategies, and high availability configurations are explored.

The module emphasizes designing resilient environments that can withstand failures and ensure business continuity. Students learn to identify risks, mitigate threats, and implement effective recovery solutions.

Module Six: Operational Considerations

The final module focuses on operational aspects of managing Horizon environments. Participants learn best practices for monitoring performance, troubleshooting issues, and maintaining large-scale deployments.

Automation, scripting, and operational efficiency strategies are discussed. The module also emphasizes continuous improvement and lifecycle management of virtual desktops and applications.

Participants will understand how operational decisions impact design choices and overall system performance. The module equips students with the skills to maintain optimal environments and support business objectives.

VMware Horizon Architecture Components

Understanding the VMware Horizon architecture is critical to designing an advanced desktop management solution. Horizon environments consist of multiple components that work together to deliver desktops and applications efficiently. The Connection Server acts as the central management point for all Horizon clients, handling authentication, session management, and brokering connections to desktops. Connection Servers are deployed in clusters for high availability, ensuring that failure of a single server does not disrupt user access.

The Unified Access Gateway provides secure remote access to Horizon environments. It acts as a gateway between external clients and internal resources, enabling SSL encryption, two-factor authentication, and secure tunneling. Placement and sizing of the Unified Access Gateway are essential for maintaining performance and security in distributed deployments.

Horizon Agents are installed on virtual desktops and RDS hosts. They facilitate communication with the Connection Server, enable features like USB redirection, printing, and multimedia acceleration, and collect performance metrics. Proper agent deployment ensures consistent user experience across different desktop types.

The Composer server, though optional in some configurations, allows linked clone desktop creation. Composer reduces storage consumption by enabling desktops to share a common parent image while maintaining individual user data in separate delta disks. Understanding the interaction between Composer, vCenter, and the Connection Server is critical for efficient clone management.

vSphere forms the underlying infrastructure for Horizon deployments. Proper configuration of ESXi hosts, clusters, resource pools, and vSAN storage ensures that virtual desktops perform optimally. Networking considerations, including distributed switches and port groups, play a significant role in maintaining low latency and high throughput for desktop traffic.

Deployment Topologies

Horizon supports multiple deployment topologies. Single-site deployments are suitable for smaller environments with a limited number of users. These deployments require fewer Connection Servers and simplified networking, but redundancy and disaster recovery options must still be considered. Multi-site deployments support geographically dispersed users and provide disaster recovery options. Understanding the replication of Connection Servers, Unified Access Gateways, and vCenter servers is critical in these configurations.

A pod architecture is commonly used for scaling Horizon environments. Each pod contains its own Connection Servers, desktops, and resource management components. Multiple pods can be connected through a Cloud Pod Architecture, which allows users to access desktops across sites seamlessly. Decisions regarding pod placement and inter-pod connectivity must take into account latency, network bandwidth, and user experience.

Linked pods provide additional flexibility in multi-site deployments. Administrators can define pod priorities, configure global entitlements, and manage desktop assignments efficiently. Understanding the relationship between pods, global pools, and site-specific resources is essential for designing scalable and resilient environments.

Desktop Deployment Models

Advanced desktop management requires careful selection of desktop deployment models. Persistent desktops provide a dedicated virtual desktop to each user, allowing full customization and data persistence. These desktops are ideal for users with complex application requirements or who need personalized environments. Proper sizing and storage planning are necessary to support persistent desktops at scale.

Non-persistent desktops provide a fresh desktop at each login. These desktops reduce storage requirements, simplify patch management, and improve operational efficiency. Instant clones and linked clones are common non-persistent strategies. Instant clones provide rapid provisioning and minimal storage usage by leveraging memory sharing and delta disks. Linked clones reduce storage consumption but may introduce additional management overhead due to Composer dependencies.

RDS-hosted desktops and published applications are alternatives to VDI. These solutions centralize applications on a few RDS servers, allowing multiple users to share resources efficiently. The choice between full desktops and published applications depends on application compatibility, licensing constraints, and user experience requirements.

Design Considerations for Deployment

Selecting a desktop deployment model requires a careful analysis of business requirements, user profiles, and operational constraints. Factors such as the number of users, desktop performance expectations, application compatibility, and storage capacity influence the design decision. Administrators must evaluate the trade-offs between performance, cost, and manageability for each model.

High availability and redundancy must be incorporated into all design decisions. Persistent desktops require backup strategies to prevent data loss, while non-persistent desktops require rapid provisioning capabilities to ensure continuity. RDS-hosted solutions require load balancing and failover configurations to support multiple concurrent users without service disruption.

Storage performance is a critical consideration for desktop deployment. Persistent desktops rely on consistent IOPS to ensure smooth user experience. Non-persistent desktops require high write performance during provisioning and delta disk creation. Storage must be sized appropriately to support peak workloads while maintaining acceptable latency.

User Profiles and Application Delivery

Understanding user profiles is essential for designing efficient Horizon environments. Users can be classified based on application usage, desktop customization needs, mobility, and performance expectations. Knowledge workers may require persistent desktops with personalized settings, while task workers may benefit from non-persistent desktops with streamlined access to specific applications.

Application delivery strategies impact desktop design and storage planning. Applications can be installed directly on desktops, delivered via RDS hosts, or provided through VMware App Volumes. Each method has implications for resource consumption, management complexity, and user experience. Choosing the appropriate delivery method requires evaluating application dependencies, licensing constraints, and update frequency.

App Volumes enable dynamic application delivery without modifying base images. Applications are packaged into virtual disks that are attached to desktops at login. This reduces image sprawl, simplifies patching, and improves operational efficiency. Proper configuration of App Volumes, including writeable volumes and assignment rules, is crucial for seamless application delivery.

Infrastructure Sizing

Accurate infrastructure sizing ensures that the Horizon environment performs optimally under peak loads. Sizing includes calculating the number of vCPUs, memory, storage, and network bandwidth required for desktops and supporting infrastructure. User concurrency patterns, application workloads, and resource utilization trends inform sizing decisions.

Compute sizing involves determining the number of ESXi hosts, resource pools, and clusters needed to support desktops. Over-provisioning can lead to unnecessary costs, while under-provisioning can cause performance degradation. Properly configured resource pools ensure fair allocation of CPU and memory among desktops.

Memory sizing is critical for desktop performance, especially for memory-intensive applications. Techniques such as memory overcommit, transparent page sharing, and ballooning must be used cautiously to avoid impacting user experience. Horizon monitoring tools provide insights into memory utilization trends for capacity planning.

Storage sizing involves evaluating IOPS requirements, latency tolerance, and capacity needs. Flash storage can accelerate desktop performance, but careful planning is required to balance cost and performance. Non-persistent desktops benefit from deduplication and thin provisioning, while persistent desktops require more consistent write performance.

Network sizing ensures sufficient bandwidth for desktop traffic, including protocol overhead, multimedia, printing, and USB redirection. Horizon supports Blast Extreme, PCoIP, and RDP protocols, each with unique bandwidth and latency considerations. Network design must account for peak concurrent sessions and inter-site replication requirements.

High Availability and Redundancy

Designing for high availability is essential to ensure continuous access to desktops. Connection Servers should be deployed in pairs or clusters, with load balancing to distribute user sessions. Unified Access Gateways should be redundant across multiple sites to handle remote connections during failures.

Desktops themselves require resilience. Instant clones can be reprovisioned rapidly in case of failure, while persistent desktops need backup and replication strategies. RDS-hosted applications require multiple servers behind a load balancer to ensure availability for multiple concurrent users.

Disaster recovery planning should include offsite replication of critical components, automated failover procedures, and testing of recovery scenarios. Backup strategies for vSphere, vSAN, and Composer must be integrated into the overall design to prevent data loss and reduce downtime.

Security Considerations

Security is a fundamental aspect of desktop management design. Authentication methods, including Active Directory, RADIUS, and SAML, must be integrated with Horizon to control access. Two-factor authentication enhances security for remote access scenarios.

Network security involves segmenting desktop traffic, applying firewall rules, and encrypting communication between clients and servers. Unified Access Gateway ensures secure external access, while internal traffic should be isolated to protect sensitive resources.

Endpoint security is also critical. Horizon clients must run on supported platforms, with up-to-date antivirus and anti-malware solutions. Policies for USB redirection, printing, and clipboard access should be configured based on organizational requirements.

Application security involves controlling which applications are delivered to users, applying patches, and monitoring for vulnerabilities. App Volumes and RDS environments require proper isolation to prevent cross-user data access.

Monitoring and Operational Management

Effective monitoring ensures that the Horizon environment operates efficiently. Horizon provides dashboards for session monitoring, resource utilization, and performance metrics. Alerts can be configured to notify administrators of issues before they impact users.

Operational management includes patching, image updates, and application lifecycle management. Automation tools, such as PowerCLI and vRealize Operations, help streamline administrative tasks and reduce manual intervention.

Capacity planning should be continuous, based on monitoring data. Adjustments to compute, storage, or network resources may be required as user demand grows. Regular review of user profiles, application usage, and desktop performance ensures that the environment remains optimized.

Infrastructure Sizing Principles

Infrastructure sizing is critical to designing a Horizon environment that can handle peak workloads efficiently. Proper sizing begins with analyzing user requirements, application workloads, and concurrency patterns. Each type of desktop workload, whether task worker, knowledge worker, or power user, has unique resource needs. Resource allocation must align with these requirements to ensure performance.

Compute resources are sized based on the number of virtual desktops and the type of applications they run. ESXi hosts must be configured with adequate CPU and memory capacity. Overcommitting resources can reduce costs but may impact performance under heavy loads. Clustering hosts and leveraging resource pools ensure balanced distribution of workloads and resilience against host failures.

Memory sizing requires careful planning, especially for non-persistent desktops that utilize instant clones. Memory reclamation techniques such as ballooning and transparent page sharing can optimize usage, but excessive reliance can degrade performance. Persistent desktops need consistent memory allocation to support ongoing workloads and applications.

Storage sizing is a fundamental aspect of infrastructure design. Persistent desktops require consistent write performance for user data, while non-persistent desktops rely on read-intensive operations during provisioning. Calculating IOPS requirements, latency tolerance, and storage capacity ensures that desktops meet user performance expectations. Thin provisioning, deduplication, and compression techniques can help optimize storage efficiency.

Network sizing is equally important, particularly for environments using remote protocols like Blast Extreme, PCoIP, or RDP. Bandwidth allocation must account for peak concurrent sessions, protocol overhead, multimedia acceleration, USB redirection, and printing. Latency thresholds and jitter tolerance influence the selection of protocol and network design decisions.

Horizon Infrastructure Planning

Infrastructure planning extends beyond raw resource allocation. Connection Server placement must consider geographic distribution, high availability, and user density. Deploying multiple servers in a cluster improves resilience and load distribution. Unified Access Gateways should be strategically positioned to optimize remote user access while maintaining security.

vCenter integration plays a key role in managing virtual desktops. vCenter clusters support ESXi hosts, storage, and network resources. Configuring proper DRS, HA, and vSAN policies ensures optimal performance and availability. Proper alignment of vSphere resource pools with desktop workloads is essential to prevent resource contention.

Composer servers, when used, must be placed strategically to minimize network latency and optimize clone creation performance. Understanding the interaction between Composer, vCenter, and Connection Servers is critical to ensure rapid provisioning and desktop updates.

Capacity planning must include future growth. Organizations must anticipate changes in user numbers, application requirements, and data retention needs. Designing with scalability in mind ensures that the environment can expand without major reconfiguration or downtime.

Storage Design Strategies

Storage design directly impacts desktop performance, scalability, and cost. Persistent desktops require high IOPS and consistent low-latency storage. Flash storage accelerates read and write operations, improving user experience. Storage policies can enforce performance and redundancy levels based on desktop profiles.

Non-persistent desktops benefit from deduplication and thin provisioning. Linked clones and instant clones reduce storage footprint, allowing organizations to deploy larger numbers of desktops without proportional increases in storage capacity. Storage arrays supporting VAAI and VMware APIs for storage integration can improve clone provisioning times and reduce management overhead.

Storage layout and datastore selection affect performance and operational efficiency. Separating user data, OS disks, and application volumes onto different datastores can optimize IOPS distribution and simplify backup strategies. Monitoring storage performance continuously helps identify bottlenecks before they impact end users.

Storage redundancy is critical for high availability. vSAN provides built-in redundancy and simplifies storage management for Horizon environments. Configuring fault domains and replication policies ensures data availability even in the event of disk or host failure. Backup and replication strategies complement high availability by protecting against data corruption or catastrophic failure.

Network Design Principles

Network design underpins performance, security, and user experience. Horizon environments require careful segmentation of management, desktop, and application traffic. VLANs can isolate traffic types, reducing congestion and improving security. Load balancers distribute sessions across Connection Servers and Unified Access Gateways, ensuring seamless access and high availability.

Protocol selection influences network design. Blast Extreme provides efficient video and multimedia performance over WAN connections, while PCoIP excels in LAN environments with high-fidelity graphics. RDP may be suitable for simple, low-bandwidth scenarios. Network QoS policies ensure that protocol traffic receives the appropriate priority, maintaining responsiveness for end users.

External access requires secure perimeter configurations. Unified Access Gateways provide SSL encryption, VPN-less access, and two-factor authentication. Firewalls and DMZ placements protect internal resources while allowing users to connect remotely. Network latency and jitter must be monitored to optimize protocol selection and end-user experience.

Internal network redundancy ensures availability during hardware failures or maintenance. Multiple uplinks, redundant switches, and properly configured routing prevent single points of failure. Network monitoring tools provide insights into traffic patterns, bottlenecks, and protocol performance.

Integration with Existing Infrastructure

Advanced Horizon environments often need to integrate with existing IT infrastructure. Active Directory provides authentication and policy enforcement. Integrating with enterprise DNS, DHCP, and LDAP services ensures seamless desktop provisioning and user access.

Storage arrays must integrate with vSphere and Horizon through APIs and protocols that optimize clone operations and VM provisioning. SAN or NAS configurations should align with storage policies, ensuring appropriate performance and redundancy. Backup systems must be configured to support desktop images, persistent user data, and App Volumes.

Network integration includes configuring firewalls, routing, and VPN access to align with corporate standards. Load balancers must distribute sessions across multiple pods and sites to maintain high availability. External access should comply with corporate security policies, including logging, monitoring, and multi-factor authentication enforcement.

Monitoring and management tools must integrate with Horizon to provide end-to-end visibility. vRealize Operations and Horizon Performance Tracker enable administrators to monitor desktops, servers, storage, and network health. Alerts and dashboards provide actionable insights for performance optimization and troubleshooting.

High Availability and Disaster Recovery Design

High availability and disaster recovery are fundamental considerations for enterprise deployments. Connection Servers should be deployed in clusters, with load balancing to distribute traffic. Unified Access Gateways should be deployed in pairs across multiple sites to support remote user access during outages.

Desktops themselves must be resilient. Instant clones can be reprovisioned rapidly, ensuring minimal disruption. Persistent desktops require replication and backup strategies to prevent data loss. RDS-hosted applications need multiple servers with load balancing to support concurrent sessions and failover scenarios.

Disaster recovery planning includes offsite replication, automated failover procedures, and regular testing. Critical components such as vCenter, Composer, and Unified Access Gateways should be replicated or backed up to a secondary site. Recovery time objectives and recovery point objectives must be defined to meet business continuity requirements.

Operational procedures must include documented failover steps, validation tests, and ongoing maintenance schedules. Testing the environment regularly ensures that DR plans work as expected and that users experience minimal disruption during outages.

Security and Compliance

Security is a core component of desktop design. Authentication should leverage Active Directory, RADIUS, SAML, or multi-factor options. Users should be restricted based on roles and policies, ensuring least-privilege access to desktops and applications.

Data protection involves encrypting traffic between clients and servers, securing storage, and implementing access controls. Persistent desktops require additional backup and encryption strategies to prevent unauthorized access to sensitive data. Non-persistent desktops can enforce stricter policies since user data is ephemeral.

Endpoint security measures protect client devices. Anti-virus, anti-malware, and patch management policies reduce risks from infected endpoints. USB redirection, clipboard, and printing policies should be configured to prevent data leakage. App Volumes and RDS environments must be properly isolated to ensure application-level security.

Compliance requirements, such as GDPR, HIPAA, or ISO standards, influence design decisions. Logging, monitoring, and reporting tools must be configured to support regulatory audits. Security policies should be enforced consistently across all desktop types, applications, and access methods.

Operational Management Strategies

Operational management ensures that Horizon environments remain stable, performant, and aligned with business requirements. Monitoring performance across desktops, Connection Servers, and storage helps identify trends, bottlenecks, and potential failures.

Automation reduces manual effort and improves consistency. PowerCLI scripts, orchestration tools, and vRealize Automation can streamline provisioning, patching, and application delivery. Scheduled maintenance, image updates, and App Volumes management are easier to coordinate in automated workflows.

Capacity planning must be continuous. As user demand, application usage, or desktop workloads change, administrators need to adjust compute, storage, and network resources accordingly. Regular reviews of user profiles, application performance, and system metrics help maintain an optimized environment.

Troubleshooting procedures should be standardized. Administrators must be able to quickly identify root causes of performance degradation, connection issues, or storage bottlenecks. Knowledge of Horizon logs, vSphere performance metrics, and network monitoring tools is essential.

Case Study: Enterprise Horizon Deployment

An enterprise organization with 10,000 knowledge workers required a scalable Horizon deployment across multiple sites. The design included persistent desktops for power users and non-persistent desktops for general employees.

Compute clusters were sized based on peak CPU and memory utilization metrics. Flash storage arrays supported persistent desktops with high IOPS requirements, while instant clones leveraged deduplicated storage to reduce footprint. Network segmentation ensured optimal performance for internal and remote users.

Connection Servers were deployed in redundant clusters at each site. Unified Access Gateways were deployed at the perimeter with load balancing and two-factor authentication. RDS hosts were used to deliver shared applications for specific teams, optimizing resource usage.

Monitoring and operational management relied on vRealize Operations for performance tracking and automated alerts. Backup and disaster recovery strategies included offsite replication, failover testing, and continuous monitoring. Security policies ensured compliance with enterprise standards, including encryption, role-based access, and endpoint protection.

This case study illustrates the integration of sizing, storage, network, security, and operational management into a cohesive design. Real-world scenarios like this reinforce the importance of applying best practices and VMware-recommended methodologies.

Prepaway's 3V0-752: VMware Certified Advanced Professional 7 - Desktop and Mobility Design video training course for passing certification exams is the only solution which you need.