The customer would like to deploy Microsoft Intune endpoint portal to manage their devices efficiently. Currently, all devices are Microsoft Entra hybrid joined, ensuring a seamless connection between on-premises Active Directory and Azure AD (Microsoft Entra Connect).

Here's a summary of the deployment process:

• License Provisioning:

  • Necessary licenses were provided to enable the deployment of Microsoft Intune endpoint management portal.

• Device Addition to Intune:

  • All devices, being Microsoft Entra hybrid joined, were automatically added to the Microsoft Intune endpoint management portal. However, during this process, individual devices with errors were identified and addressed on a case-by-case basis.

• Dynamic Group Configuration:

  • Dynamic groups were configured based on customer requirements. These dynamic groups play a crucial role in deploying Microsoft Defender for Endpoint and various security settings for both Windows and MacOS devices.

• Security Configurations Deployment:

  • Essential security configurations, encompassing both identity and device settings, were deployed for all devices. This initial deployment adheres to Microsoft's best practices for Windows devices.

• Sequential Deployment Phases:

  • The deployment strategy involves a phased approach. Mobile phones will be addressed in a separate phase, and advanced security configurations for Windows devices, MacOS, applications, and identity will be deployed in the subsequent phase.

This systematic approach ensures a gradual and thorough implementation of security measures, following best practices and aligning with the customer's specific requirements. By addressing errors, configuring dynamic groups, and deploying essential security settings, the customer is laying a robust foundation for device management and security within the Microsoft Intune environment.

The customer embarked on a comprehensive migration journey, transitioning from TFS Server to Azure DevOps, involving multiple phases and meticulous planning. Here's a summary of the key steps:

• TFS 2015 to DevOps Server 2022:

  • The initial migration from TFS 2015 to DevOps Server 2022 was carried out successfully. The process involved optimizing and converting all data to ensure compatibility with DevOps Server. While some adjustments were necessary during the migration due to settings or incompatibilities, the overall transition was completed successfully.

• Dedicated Server for Migration:

  • A dedicated server was deployed specifically for the migration process. This server was synchronized with Azure Site Recovery (ASR), allowing incremental backups every 5 minutes. This setup facilitated service cutover and the final migration, ensuring a smooth transition.

• Optimizations for Azure DevOps:

  • Following Microsoft's best practices, all necessary optimizations and compatibility checks were performed during the migration from DevOps Server 2022 to Azure DevOps. This step ensured that the transition to Azure DevOps was seamless and aligned with recommended configurations.

• Identity Migration:

  • Identity migration was a critical aspect, and it was ensured that all identities were successfully migrated, contributing to a coherent and unified environment.

• Deployment of On-premises Dedicated Server as Agent Pool:

  • The on-premises dedicated server was deployed as an agent pool with 8 dedicated agents to execute all pipelines. This setup provided the required resources for efficient pipeline execution.

• Additional Managed Agent Deployment:

  • In addition to the dedicated agents, the customer deployed another agent managed by Microsoft, enhancing the flexibility and scalability of the pipeline execution environment.

• Integration with Azure Services:

  • Azure DevOps was seamlessly integrated with Azure Kubernetes Service (AKS) and Azure Web App services. This integration ensured a holistic and interconnected development and deployment ecosystem.

As a result of these meticulous steps and strategic planning, the customer is currently operating as expected with Azure DevOps. The integration with additional Azure services enhances the overall development and deployment capabilities, providing a modern and efficient DevOps environment.

The customer's deployment of Azure Kubernetes Service (AKS) demonstrates a comprehensive and secure approach to managing containerized applications. Here's a summary of the key features and practices implemented:

• Pre-solicited Configurations:

  • AKS infrastructure is deployed with pre-solicited configurations, ensuring a standardized and optimized setup from the beginning.

• Network Integrations:

  • Network integrations with databases (DB), Azure Container Registry (ACR), and web applications for the front-end are configured, fostering efficient communication between services.

• Access Rights Management:

  • Azure IAM (Identity and Access Management) from Azure and Kubernetes RBAC (Role-Based Access Control) are utilized for managing access rights to the AKS cluster. This ensures a granular and secure access control mechanism.

• Helm Deployment:

  • Helm is deployed to facilitate AKS cluster management, allowing for custom package installations and parameterization. This enhances the manageability of the AKS environment.

• Access Security:

  • Strict access controls are enforced for different clients from diverse locations, ensuring that only authorized users have access to the AKS cluster.

• Scheduled Backups:

  • Velero Backup is configured for scheduled backups of all Azure resources related to AKS. This provides a reliable backup mechanism, aligning with best practices for disaster recovery.

• CI/CD Pipelines with Azure DevOps:

  • Azure DevOps is configured for Continuous Integration (CI) and Continuous Deployment (CD) pipelines, streamlining the deployment process and ensuring consistency in application updates.

• Security of Pods and Namespaces:

  • Pods and namespaces are secured to restrict access, allowing only the necessary services to interact with each other. This adds an extra layer of security to the containerized environment.

• Production-Ready Cluster:

  • The AKS cluster is currently in production, hosting more than 30 different nodes running on different node pools. Automatic scaling is implemented following Microsoft best practices, ensuring optimal resource utilization.

In conclusion, the deployment of AKS by the customer reflects a robust implementation with a focus on security, scalability, and automation. By incorporating Azure services, Kubernetes best practices, and industry-standard tools like Helm and Velero, the customer has established a production-ready container orchestration environment that aligns with modern DevOps practices.

The customer has expressed the need to implement and provide training on Copilot for Office 365 and Windows for an entire department. To initiate this process, the customer requires detailed information regarding the licensing costs, considering the premium nature of these licenses.

The next steps involve the procurement and application of the licenses, followed by comprehensive training sessions for employees. The training will focus on ensuring the correct utilization of Copilot across various Microsoft products, including Microsoft Word, Excel, Teams, Power Bi, Outlook, PowerPoint, OneNote, and Windows. The objective is to equip employees with the necessary skills and knowledge, aligning with Microsoft's best practices for optimal utilization.

This approach ensures that the customer not only invests in the licenses effectively but also maximizes the value by empowering their workforce to leverage Copilot across a range of essential applications, enhancing productivity and efficiency in line with industry standards.

I conducted testing on this innovative technology during its preview phase. Following a successful Proof of Concept (POC), the customer expressed a desire to implement this Secure Access Service Edge (SASE) solution in two of their data centers.

This deployment involved replacing the traditional VPN with Microsoft SASE Global Secure Private, particularly for Office 365 and public access. An agent was added to all corporate endpoints to facilitate secure and efficient access. Notably, this implementation enhanced client security by introducing an additional layer of complexity through conditional access for device and application validation.

Key improvements achieved through this deployment include:

• Enhanced Security: The use of Microsoft tunnels instead of public tunnels significantly improved security during access to public, Office 365, and private resources.

• Multi-Platform Support: The agent is available for all platforms, ensuring a seamless and consistent experience across diverse devices.

• Continuous Access Evaluation (CAE): CAE now provides real-time updates to tokens. For instance, if a device is compromised with malware, CAE promptly informs Azure Conditional Access, marking the device as insecure and non-compliant, thereby restricting access to resources.

• Improved Latency: Microsoft's globally distributed EDGE servers led to reduced client latency. This resulted in faster access times for teleworking employees and data centers situated farther from the primary data center.

A significant security enhancement comes from the deployment of Multi-Factor Authentication (MFA) as part of Microsoft Global Secure Access Private. This allows the customer to apply MFA to on-premises and legacy resources, including protocols such as SMB, RDP, and others.

In conclusion, the deployment of Microsoft Global Secure Access Private has not only addressed traditional VPN limitations but has also introduced cutting-edge security measures, improved latency, and provided a consistent and secure access experience across various platforms and resources.

Deploying Microsoft Purview Compliance for an organization with the goal of protecting data across various resources requires a strategic approach. Here's a step-by-step plan for the deployment:

• Define Data Classification Criteria:

  • Work closely with the customer to define and clarify data classification criteria. This includes sorting and classifying data based on encryption status, accessibility (internally vs. externally), and any other relevant factors.

• Establish Tagging System:

  • Implement a tagging system based on the defined criteria. Tags should include categories like unencrypted data, internally encrypted data for employees only, and encrypted data for all (internally and externally). Consider adding dynamic tags if needed.

• Data Discovery and Classification:

  • Utilize Microsoft Purview Compliance tools to perform data discovery and classification across various repositories such as SharePoint Online, OneDrive, Exchange Online, and local file servers distributed globally. This step involves automatically or manually applying the defined tags to the identified data.

• Dynamic Tagging Implementation:

  • If dynamic tags are part of the classification criteria, implement and configure them in Microsoft Purview Compliance to ensure real-time data classification based on changing conditions.

• Collaboration with Stakeholders:

  • Collaborate with relevant stakeholders across the organization to ensure that the defined criteria and tags accurately represent the data landscape. This step may involve discussions with data owners, IT administrators, and security teams.

• Testing and Validation:

  • Conduct thorough testing and validation of the implemented tags in a controlled environment. Ensure that the classification accurately reflects the organization's data protection needs.

• Education and Training:

  • Provide training sessions to end-users, data owners, and administrators on the new data classification system. Ensure that everyone understands the importance of data protection and how the tagging system works.

• Rollout in Production:

  • Gradually roll out the data classification system in production environments, starting with less critical data and progressing to more sensitive information. Monitor the deployment closely to address any issues that may arise.

• Continuous Monitoring and Adjustment:

  • Implement continuous monitoring processes to ensure ongoing accuracy of data classifications. Periodically review and adjust tags based on changes in data or organizational requirements.

By following this deployment plan, the organization can effectively implement Microsoft Purview Compliance, protecting data across various resources while ensuring a systematic and well-managed approach to data classification.

To fulfill the customer's requirement of deploying Microsoft Power BI Pro, an on-premises Power BI Local Gateway, and a Power BI Gateway integrated with Azure VNet licenses, you've taken the following steps:

• Dedicated Server Deployment:

  • Set up a dedicated server in the customer's local data center to serve as the central hub for Power BI-related activities.

• Agent Installation:

  • Installed the Power BI Local Gateway agent on the dedicated server. This agent facilitates secure and efficient communication between Power BI services and on-premises data sources.

• Connection Configuration:

  • Configured the necessary connections within the Power BI Cloud to ensure seamless communication with on-premises and Azure-based data sources.

• TCP/IP Connectivity:

  • Ensured that the dedicated server has TCP/IP connectivity with all relevant SQL servers and other required data sources. This is crucial for the reporting teams to create Power BI reports successfully.

By implementing this setup, the customer's reporting teams can leverage Power BI Pro and establish secure connections between on-premises data sources and the Power BI Cloud. The use of the Power BI Local Gateway and the integration with Azure VNet ensures a robust and scalable solution for handling data securely and efficiently. This setup allows for the creation of insightful Power BI reports while maintaining connectivity with essential on-premises servers.

The migration process to Microsoft Azure involves several essential steps, as outlined below:

• Budgeting:

  • Create a detailed budget outlining the monthly and annual costs associated with the migration. This includes Azure subscription costs, storage, networking, and any additional services required for the migration.

• Analysis of Servers and Dependencies:

  • Perform a thorough analysis of all servers slated for migration, identifying dependencies, and understanding their interactions. This analysis informs the migration strategy and helps in planning for potential challenges.

• Connectivity Integration (Site-to-Site):

  • Establish a site-to-site tunnel from the customer's local data center to Microsoft Azure to ensure secure and reliable connectivity between on-premises infrastructure and the Azure cloud.

• Migration Tool Selection:

  • Based on your experience, choose an appropriate migration tool for the project. Both Azure Site Recovery (ASR) and Azure Migrate are robust solutions for server migration.

• Virtual Network Setup:

  • Before migration, create a virtual network in Azure, configure subnets, and implement Network Security Groups (NSGs) to control incoming and outgoing traffic. For medium to large infrastructures, consider deploying Azure Firewall for enhanced security.

• Server Synchronization with ASR or Azure Migrate:

  • Use either Azure Site Recovery (ASR) or Azure Migrate to synchronize on-premises servers with Azure. This ensures a smooth transition and minimizes downtime during the migration process.

• Cut-off Day:

  • Establish a cut-off day for migration activities. Perform a final check on connectivity and dependencies to ensure a seamless transition.

• Active Directory Considerations:

  • As a recommendation, deploy at least one Active Directory server directly in Azure, either as a service (Azure AD DS) or infrastructure (Azure VM). Synchronize this server with other on-premises Active Directory servers to maintain directory services continuity.

By following these steps, the migration process is structured and covers critical aspects such as budgeting, analysis, connectivity, tool selection, network setup, synchronization, and Active Directory considerations. This approach ensures a well-planned and executed migration to Microsoft Azure, minimizing disruptions and optimizing the overall cloud infrastructure.

Implementing Microsoft Sentinel as a SIEM (Security Information and Event Management) solution for the customer is a strategic choice, considering the existing licenses and security services incorporated with Microsoft. Automation capabilities, especially when integrated with Azure AD products like Identity and Defender, further make Sentinel an attractive option. However, it's noted that one drawback is the non-real-time nature of Microsoft Sentinel.

Here's an overview of the implementation process:

• License and Security Services Assessment:

  • Leveraging the customer's existing licenses and security services incorporated with Microsoft.

• Cost Estimation:

  • Carefully estimating the approximate monthly and yearly costs associated with Microsoft Sentinel, considering its separation by different technologies (Sentinel, Log Analytics storage) and connectors.

• Previous Project Deployment:

  • Referring to the deployment of all Microsoft security solutions for the customer, as detailed in the "All my projects" section.

• Onboarding and Activation:

  • Initiating the onboarding/activation of all necessary data connectors required for Microsoft Sentinel.

• Alert Configuration:

  • Activating analytics or future alerts deemed necessary for the customer's security posture.

• Automation Implementation:

  • Configuring automation for the activated alerts through Azure Logic Apps, ensuring a streamlined response process.

• Skill Requirements:

  • Emphasizing the importance of having knowledge in Kusto Query Language (KQL) and the configuration of Azure Logic Apps to maximize the effectiveness of Microsoft Sentinel.

• Cost Complexity:

  • Acknowledging the complexity of determining the exact cost of Sentinel due to its separation by different technologies and connectors.

By systematically going through these steps, the implementation of Microsoft Sentinel aims to provide the customer with a robust and efficient SIEM solution, leveraging their existing Microsoft ecosystem. The emphasis on automation and skill requirements ensures that the technology is utilized to its full potential, enhancing the overall security posture of the organization.

To enhance the Microsoft Security Score for the customer and achieve the target of 90%, a comprehensive approach has been adopted, focusing on Identity, Data, Devices, and Applications. The project is designed for a longer duration to ensure a thorough implementation. Here's an overview of the strategy:

• Current State:

  • The customer currently has a Microsoft Secure score of 40%.

• Benchmarking:

  • Comparatively, organizations similar to the customer have a security score of 41%.

• Project Duration:

  • Acknowledging that this is a substantial project, the timeline is set for a longer duration.

• Prioritization:

  • Initiatives began with improving the Application and Data categories, which required less configuration compared to Identity and Device categories.

• Leveraging Existing Tools:

  • Microsoft Intune, deployed a few months ago, serves as a foundation for automated configurations, especially for Device and Identity categories.

  • Manage Engine is utilized for deploying smaller configurations that can be implemented quickly, complementing the efforts made through MS Intune.

• Automation:

  • Configuration settings for Device and Identity categories are automated through Microsoft Intune, streamlining the deployment process.

• One Year Goal:

  • The target is to achieve an 80% score in the Microsoft Security Portal within one year.

• Continuous Improvement:

  • Regular monitoring and adjustments are made to keep pace with evolving security requirements.

  • Training and awareness programs are implemented to ensure end-users are aligned with security best practices.

By systematically addressing each category, leveraging existing tools, and implementing a phased approach, the customer aims to significantly improve their Microsoft Security Score over the course of the project. The focus on automation and continuous improvement ensures a sustainable and resilient security posture.

To enhance security on all endpoints, the customer has opted to deploy Microsoft Windows Hello, following Microsoft's best practices. After the successful deployment of Windows Hello PIN, the following tasks need to be addressed:

• Deprovision Traditional VPN with Password:

  • Consider migrating away from traditional VPNs with passwords.

  • Deploy a more secure solution, such as Azure VPN or another VPN with certificate-based authentication, eliminating the use of passwords for improved security.

• Deploy Single Sign-On (SSO) for Devices with Azure Active Directory (AAD):

  • Implement Single Sign-On for devices using Azure Active Directory for token validation.

  • Ensure that devices with valid tokens can seamlessly access on-premises servers, like File Servers, for a more efficient and secure authentication process.

By addressing these issues, the customer's endpoints will not only benefit from the enhanced security provided by Windows Hello but also from a more robust and modern authentication infrastructure aligned with Microsoft's best practices.

The customer sought to transition from traditional Worldwide VPNs to a more modern and secure setup incorporating authentication, conditional access, and Multi-Factor Authentication (MFA). The chosen solution was Azure VPN.

In this implementation, we configured four virtual networks, each with Network Security Group (NSG) settings applied to the required subnets for point-to-site gateways. The setup included one virtual network for each region, utilizing Azure authentication as the preferred authentication method.

To ensure seamless connectivity, we applied all necessary routing rules and established peerings with other virtual networks. Additionally, a site-to-site connection was implemented based on the customer's specifications, allowing access to all their resources securely.

This transition to Azure VPN not only modernizes the authentication process but also enhances security through conditional access and Multi-Factor Authentication, providing the customer with a more robust and secure networking solution.

The customer needs to create a Business Continuity and Disaster Recovery (BCDR) plan and due to our recommendation they chose Microsoft Azure Site Recovery (ASR) as their BCDR solution.

ASR is the best solution for Hyper-V infrastructures or physical machines. It is also a good and recommended solution for VMware infrastructures.

In this project we had to synchronize all Hyper-V machines and some older physical machines with ASR based on WW locations (EU, USA and APAC).

To make this possible, we installed an agent on each Hyper-V and also deployed a new server with ASR agent for physical machines in the right zone, close to the physical machines.

The customer can choose the type of disk and virtual machine needed for each ASR-synchronized virtual machine.

We automate the synchronization as incremental every 5 minutes with 15 days retention.

We also set up the static private IP address for all virtual machines and the necessary connections and dependencies.

It has been approximately 2 years since this project was completed and the customer is working correctly as expected with ASR.

The customer required protection for access from the Edge browser to any unsecured or unauthorized websites specifically for the entire finance department. To address this, we opted for the Microsoft Edge feature known as Edge Application Guard, leveraging the same technology the client had previously deployed.

The deployment, enabling, and configuration of this feature were executed through Microsoft Intune, aligning with the client's business requirements. The configuration essentially directs the use of Microsoft Edge for secure portals and internal websites, while automatically employing Edge Application Guard as the default browser for all external, other, or unknown websites.

Here's how it works: When browsing with Microsoft Edge and attempting to open an external or unknown website, Edge Application Guard will automatically open the website instead of the Microsoft Edge browser. Importantly, various restrictions have been imposed, including the prevention of copying, printing, and direct access from Edge Application Guard to the client machine.

Edge Application Guard operates as if it were a virtual machine isolated from the physical one. Therefore, the client machine running Edge Application Guard must meet specific hardware requirements recommended by Microsoft. The Edge Application Guard also includes a temporary repository for storing downloads and other documents, enhancing security and isolation measures. This implementation effectively enhances the security posture of the finance department's web browsing activities.

The client sought assistance in fulfilling the prerequisites for the ISO 27001 audit. Over the course of several months, comprehensive support has been extended across various domains crucial for the auditor's requirements. This support included the creation of documentation, implementation of security measures for on-premises and Azure networks, establishment of perimeters, and development of disaster recovery plans.

The certification process emphasized the programming department of a multinational company, which comprises over 200 employees in this specialized area. To enhance the audit process, several automated reports have been generated, providing insights and documentation essential for compliance.

The collaborative efforts undertaken in securing network infrastructure, creating comprehensive documentation, and formulating disaster recovery strategies aim to ensure that the client is well-prepared and in compliance with ISO 27001 standards for information security.

The client sought assistance in fulfilling the prerequisites for the HIPAA audit. Over several months, comprehensive support has been provided across all areas crucial for the contracted auditor's requirements. This support involved the creation of documentation and the implementation of all necessary measures and requirements to ensure compliance with HIPAA regulations. The goal is to establish robust safeguards for the protection of sensitive health information and demonstrate adherence to HIPAA standards during the audit process.

The client requires the management of their on-premises servers from Microsoft Azure, involving monitoring Microsoft updates and utilizing Windows Management Center (Preview) technology, with the specific goal of avoiding the use of traditional VPNs for this purpose.

To facilitate this, Azure Monitor agents have been deployed on these servers along with the configuration of alerting rules. The deployment of Azure Arc to on-premises servers was executed seamlessly through a script, and the onboarding process to Azure Arc presented no significant challenges.

Notably, the Azure Arc service currently incurs no additional costs, at least for the moment, providing an added advantage to the client's Azure management strategy.

The client requires the deployment of server monitoring solutions for both their on-premises and Azure cloud servers. Opting for Azure Monitor, the chosen solution capitalizes on the existing distribution of servers, with some in Azure and others on-premises running Windows Server.

Following Microsoft's best practices and considering the obsolescence of the old Log Analytics agent, it is recommended to deploy the new Azure Monitor agent through Azure Arc. Importantly, this deployment incurs no additional cost, aligning with efficient and cost-effective monitoring practices.

The client aims to centrally manage all updates for both on-premises and Azure servers. Capitalizing on the Azure network hosting the servers and the predominance of Windows servers on-premises, the proposed solution is to employ Azure Update Manager.

In light of Microsoft's outdated approach to updating servers through an automation account, the customer is advised to transition to the newer Azure feature, Azure Update Management. To facilitate this, the Azure Arc agent has been deployed on all client servers. Following this installation, dynamic groups have been established to define update rules.

Given the global distribution of approximately 100 servers across various data centers, the client has necessitated the creation of multiple rules, tailored to different time zones. This strategic implementation ensures a comprehensive and centralized approach to server updates.

The client is seeking support in identifying a system or program for centralized management, control, and acquisition of all their certificates, particularly for their Azure Infrastructure as a Service (IaaS) virtual machines and over 60 web apps.

A recommended solution is to leverage the Azure Key Vault service. 

In this approach, appropriate permissions are assigned to both web apps and Azure servers, and all certificates are stored within the Key Vault. 

As certificates approach expiration, updates are made systematically. 

This method establishes a centralized repository for all certificates, streamlining updates and benefiting from the versioning capabilities inherent in Azure Key Vault.

The customer aimed to seamlessly extend their device and user certificates from on-premises AD CS to all Intune-managed devices, facilitating secure access to certified WiFi and VPN profiles. To realize this, we orchestrated the deployment on a new server, ensuring it established a direct line to AD CS with the necessary permissions post Intune Agent installation.

In subsequent steps, we orchestrated the deployment of certificate profiles across all devices managed by Intune. The newly implemented on-premises server efficiently liaised with AD CS, initiating the certificate request, and seamlessly transmitted it to Intune for swift and comprehensive deployment across the entire device landscape.

The customer's deployment of Azure Kubernetes Service (AKS) reflects a well-considered and secure approach to managing containerized applications. Here's an overview of the key aspects of the deployment:

• Latest AKS Version (1.29):

  • The customer prioritized staying up-to-date by deploying AKS to the latest version (1.29) in Microsoft Azure. This ensures access to the latest features, improvements, and security updates.

• Global Deployment Strategy:

  • Although developers are located in India, the AKS Cluster is strategically deployed in Europe to align with dependencies on databases and web apps in the same region. This regional alignment optimizes performance and data transfer.

• Best Practices Configuration:

  • The AKS Cluster is deployed, configured, and secured following Microsoft's best practices. Adhering to these guidelines ensures a standardized and secure foundation for containerized applications.

• IAM Custom Role Groups:

  • Different IAM (Identity and Access Management) custom role groups are created for cluster management. This allows for fine-grained control over access permissions, enhancing security and governance.

• Integration with Key Services:

  • Successful integration is established with Key Vault, Azure Container Registry (ACR), Azure DevOps, and other requested services. This integration streamlines workflows, improves collaboration, and enhances the overall efficiency of the AKS environment.

• Velero Backup Policy:

  • A Velero backup policy is implemented, ensuring regular and reliable backups of the AKS environment. This practice aligns with best practices for disaster recovery and data protection.

• Network Policies:

  • Network policies are implemented to manage and control communication within namespaces and pods. This provides a robust mechanism to allow or deny communication based on defined rules, enhancing security and network segmentation.

The customer's deployment showcases a comprehensive and secure AKS environment that considers performance optimization, access control, integration with key services, and data protection. By aligning with Microsoft's best practices, the customer has established a solid foundation for container orchestration in a globally distributed and secure manner.

The client sought assistance in fulfilling the prerequisites for the SOC 2 Type I and II audit. Over the past few months, comprehensive support has been delivered across various domains to meet the auditor's specifications. 

This involved the creation of necessary documentation and the implementation of measures and requirements essential for compliance.

The client required the establishment of a Business Continuity and Disaster Recovery (BCDR) plan, and upon our recommendation, they opted for Microsoft Azure Site Recovery (ASR) as their BCDR solution. ASR is a highly regarded solution, particularly for VMware infrastructures.

In this project, the challenge was to synchronize all of the customer's VMware virtual machines located in the European data center. To achieve this, we deployed new virtual machines and installed the ASR agent in close proximity to the VMware machines, enabling communication through various protocols.

To offer flexibility, the customer was given the autonomy to select the disk type and virtual machine specifications for each ASR-synchronized virtual machine. Automation was implemented for synchronization, set to incremental updates every 5 minutes with a retention period of 15 days.

Furthermore, we established static private IP addresses for all virtual machines, ensuring stable connections and addressing necessary dependencies. It's noteworthy that approximately four years since the completion of this project, the customer continues to operate seamlessly with ASR, meeting expectations effectively.

The client sought assistance in meeting the prerequisites for deploying Windows 365 Cloud PC through Intune to enhance security access and prevent data leaks regarding company data. Initially, we conducted a comparison between Windows 365 and Azure Virtual Desktop. After assessing the client's requirements, they chose Windows 365.

We then proceeded to deploy Windows 365 in three different regions: the US, EU, and APAC (specifically, Hong Kong and India), resulting in approximately 110 deployed Windows 365 Cloud PCs. To ensure smooth integration, we linked Windows 365 with various regional VNets and established groups for provisioning based on region and license.

Furthermore, we customized Windows 11 images to meet the specific needs of the financial and developer departments.

The client enlisted our help to meet the prerequisites for deploying Microsoft Azure Windows Virtual Desktop on Microsoft Azure, aiming to enhance security access and prevent data leaks concerning company data for the IT Developers frontend department located in the India region.

After analyzing and approving the estimated costs for 40 users, we deployed three WVD instances as multi-session type, with each chosen VM size capable of accommodating up to 15 users per WVD instance, in line with the established requirements. Following the configuration and application of the initial image to meet business requirements, several front-end developers commenced testing WVD with secure HTTPS access, seamlessly accessing two to three screens simultaneously without encountering any issues.

The client sought assistance in meeting the prerequisites for deploying Microsoft Azure Windows Virtual Desktop on Microsoft Azure, with the goal of enhancing security access and preventing data leaks for the operations and finance departments located across WW offices.

After analyzing and approving the estimated costs for numerous users, we deployed the requested instances near the office locations as single-session setups, ensuring all data was destroyed upon user logoff.

Following the configuration and application of the initial image to meet business requirements, we initiated POC testing for WVD with 15 users securely accessing via HTTPS. The users seamlessly accessed two to three screens simultaneously without encountering any issues.