Cloud Platforms

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Move workloads with less disruption, place applications in the right environment, and keep cloud costs, access, security, and governance aligned as usage grows.

Cloud Platforms Solutions

End-to-end cloud platform support across Azure, AWS, and Google Cloud designed to improve visibility, manage costs, and support modern workloads at scale.

Client OutcomeHow Paragon Micro Delivers

As AI-enabled software usage increased, a regional healthcare provider needed a more scalable and better-governed Azure environment to maintain visibility, control cloud costs and support growth across multiple locations.

The Situation

Different teams were managing cloud resources separately, making costs hard to track and control.
IT leaders lacked clear visibility into Azure subscriptions, workloads, and cloud usage across the organization.

The Outcome

Paragon Micro conducted a cloud cost optimization assessment as a first step to standardizing Azure governance, subscription management, and workload visibility across the organization.
The client gained better visibility, stronger cost control, and a scalable cloud platform designed to support future growth.
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Estimated Cloud Spend Reduction
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Subscription Governance Alignment
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Cloud Environment Visibility
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Estimated Cloud Spend Reduction
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Subscription Governance Alignment
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Cloud Environment Visibility

Solution Components: Azure Governance | Cloud Cost Optimization | Subscription Management | Workload Visibility | Consumption Monitoring

Customer Success Highlight

As we added locations and services, our Azure environment grew faster than our internal processes. Paragon Micro helped us simplify management and improve visibility across teams. - David Mercer, Senior Director of Infrastructure & Cloud Operations
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How We Help Build the Right Solution for You

Our cloud specialists turn cloud growth, governance gaps, and software spend into a practical operating plan built around your workloads, platforms, and goals, without the waste, tool sprawl, or one size fits all approach.

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Through dependable partnerships with industry leaders, Paragon Micro delivers resourceful, mission-ready technology solutions.
Microsoft Azure
AWS
Google Cloud
VMware (Broadcom)
Microsoft Azure
AWS
Google Cloud
VMware (Broadcom)
Microsoft Azure
AWS
Google Cloud
VMware (Broadcom)
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Cloud Platforms FAQs

Practical answers to help technical teams begin thinking about the right strategy, tools, and execution path for their environment.

FAQsCloud Strategy & Workload Classification

How do we classify cloud readiness at scale?

The key is discipline in the classification framework and a rapid assessment methodology that produces decisions rather than analysis. We use a structured classification model that evaluates each application against five dimensions: cloud readiness, business criticality, integration complexity, compliance requirements, and cost profile. Each dimension is scored against objective criteria, not subjective opinion. For large estates, we conduct the classification in waves organized by business function, which produces decisions on twenty-five to fifty applications per week rather than trying to assess everything at once. The output is a prioritized migration backlog with a clear recommendation for every application, such as lift and shift, refactor, replatform, rebuild, or retire, along with a defensible rationale that holds up under architecture review.

When should lift and shift give way to refactoring?

This is one of the most common tensions in cloud strategy, and it is resolved through financial modeling, not through architectural debate. We build a total cost of ownership model that projects the five-year cost of each migration approach for the same workload, including infrastructure, operational overhead, technical debt, and the cost of the eventual refactor that lift-and-shift almost always requires later. When the business owner sees the numbers, the conversation shifts from a preference argument to a capital-allocation decision. In cases where lift-and-shift is genuinely the right answer despite longer-term implications, we document the decision, the rationale, and the planned future state so the technical debt is visible rather than buried.

How do we align legacy standards with cloud architecture?

The answer is not a parallel rulebook. It is an updated architecture framework that integrates cloud patterns into the existing standards rather than alongside them. We work with your enterprise architecture team to review existing standards, identify where cloud introduces genuinely new patterns that need to be added, and update the rulebook to ensure there is a single authoritative source of truth. This is typically a six to eight-week engagement with your architecture team, not a multi-quarter rewrite. The goal is an architecture framework that is actually enforced, reflecting how the organization operates today rather than a legacy document that everyone works around.

FAQsCloud Architecture & Landing Zones

How do we design landing zones for different business units?

Retrofitting landing zone governance requires an approach different from greenfield design. The first step is a full audit of every existing subscription, which identifies the current network topology, identity configuration, security posture, and policy state across the environment. From there, we design a target landing zone architecture that represents where the environment needs to be, and sequence the migration path from the current state to the target state in phases that preserve operational continuity. Some workloads migrate into new subscriptions under the new governance model. Others have governance layered on top of existing subscriptions where migration is not feasible. The sequence is prioritized by risk, with the highest exposure workloads addressed first. The key is that governance improvement is continuous rather than waiting for a full environment rebuild.

How do we design landing zones for different business units?

The pattern that works is a hub-and-spoke model with tiered governance, where shared services such as identity, network connectivity, logging, and security monitoring are centralized in a hub. Business unit workloads sit in spoke subscriptions, with governance baselines inherited from the hub and additional controls applied based on each business unit’s specific compliance requirements. This preserves central control over the things that benefit from standardization while allowing business unit-specific requirements to be addressed without creating a separate architecture for every group. We also design the policy framework with explicit exception management processes, because rigid policies that cannot be overridden for legitimate business reasons create shadow IT within weeks.

Should hybrid hub and spoke give way to cloud first networking?

The right answer depends on where the majority of your traffic is going and where the majority of your workloads will live over the next three to five years. For organizations with a stable or growing on-premises footprint and significant east-west traffic between on-premises and cloud, the on-premises hub model remains valid. For organizations actively exiting the data center with most workloads already in the cloud, a cloud-native hub model using Azure Virtual WAN or AWS Transit Gateway typically reduces complexity and costs significantly. We model the network traffic patterns against your workload roadmap and make recommendations based on where the environment is heading, not where it is today. In many cases, the right answer is a phased transition from an on-premises hub to a cloud-native hub as the workload distribution shifts.

FAQsMigration Planning & Execution

How do we identify workload dependencies before cutover?

Dependency discovery is one of the most commonly underinvested parts of migration planning and the root cause of most production incidents at cutover. We use automated dependency-mapping tools that observe actual network traffic between systems over a representative period, producing a dependency map based on real behavior rather than outdated documentation. That map is validated against the application team’s knowledge to surface dependencies that tools miss, particularly batch jobs, scheduled integrations, and cross-system authentication flows. Every dependency is classified by migration impact, which drives the migration sequence and identifies where workloads must move together rather than independently. The goal is to make the cutover day the least eventful day of the migration, since every dependency has been addressed before production traffic touches the new environment.

How do we cut over when downtime is not acceptable?

This is where the migration strategy gets technical. For workloads that cannot tolerate downtime and cannot run fully in parallel, the migration pattern typically uses database replication combined with application level traffic shifting. The application layer is deployed in the cloud and runs alongside the on-premises deployment. Data is replicated continuously between the two environments. Traffic is gradually shifted from on-premises to the cloud using a load balancer or DNS-based approach, with the ability to roll back instantly if issues arise. The cutover is complete when 100% of traffic has been on the cloud for a validation period, at which point the on-premises environment is decommissioned. This pattern requires careful design of the replication layer, particularly for transactional workloads where data consistency during the transition is critical.

What do we do when workloads fail validation after migration?

This is exactly why we do not decommission anything until cloud replacement is proven. Every migrated workload goes through a defined validation period where performance, cost, and operational behavior are monitored against pre-migration baselines. If a workload fails validation, the decision is made based on the specific failure mode. If it is a performance problem, we identify whether the issue is architectural, configuration-based, or a fundamental fit problem with the target platform. Configuration and architectural issues are remediated, and the validation period restarts. Fit problems trigger a reassessment of the workload classification and, potentially, a change in the migration strategy. The key is that the on-premises environment remains operational throughout this process, so reverting a workload that genuinely does not work in the cloud is an operational option, not a crisis.

FAQsMulti-Cloud & Hybrid Architecture

Is multi-cloud strategy or just sprawl?

The honest answer is that most multi-cloud environments delivered more complexity than value, and that was accidental. Strategic multi-cloud is real and justified when each platform is being used for what it is genuinely best at, with the operational overhead of managing multiple platforms outweighed by the architectural benefit. Accidental multi-cloud rarely meets that test. We assess your current multi-cloud position by evaluating each workload to determine whether the platform it runs on is the right one for its specific requirements, or whether it ended up there for historical reasons that no longer apply. The output is typically a consolidation plan that reduces platform sprawl while preserving genuine strategic multi-cloud where it is justified.

How do we unify on premises and cloud operations?

Unified operations across hybrid environments require three things: consistent identity, consistent policy enforcement, and consistent observability. Identity means that every user, service, and workload authenticates against the same identity plane, regardless of where it runs, typically Azure AD or an equivalent identity provider integrated with both environments. Policy means the same governance rules apply to workloads regardless of location, enforced by tooling that operates across both environments, such as Azure Arc or AWS Outposts. Observability means monitoring, logging, and cost data flow into a single operational view, regardless of source. When those three layers are aligned, on premises, and cloud genuinely feel like one environment to operate. When they are not, the operational overhead of the split dominates every decision.

Is workload portability realistic or over engineered?

Workload portability is a legitimate goal only if there is a defined business driver, such as regulatory requirements that could force platform changes, vendor-negotiation leverage at renewal, or disaster recovery patterns that require cross-cloud failover. Portability for its own sake is one of the most common forms of over-engineering in multi-cloud environments, and the cost is high. The platform abstractions required to maintain portability introduce complexity, limit access to cloud native services, and create operational overhead that persists long after the original design decision is forgotten. We help you evaluate whether portability is genuinely required or whether it is aspirational, and when it is required, we design the abstraction layer deliberately so the tradeoff is managed rather than accidental.

FAQsFinOps & Cost Optimization

How do we turn FinOps recommendations into action?

FinOps fails as a reporting exercise and succeeds as an accountability model. The recommendations from a cost optimization tool are only useful if someone is accountable for implementing them and is measured on cloud cost outcomes rather than just deployment velocity. We help you build an accountability framework where cloud costs are an engineering team metric, not a finance team metric, with defined ownership for cost per workload or per service. Recommendations flow into the engineering team backlog with the same priority as security findings or performance issues. Implementation is tracked, measured, and reported up. The cultural shift is the hard part. The tooling is the easy part. Most failed FinOps programs skip the first and double down on the second.

How do we handle reserved capacity without overcommitting?

A reserved capacity strategy in evolving environments requires a tiered commitment approach rather than a single, large commitment decision. We analyze your workload patterns to identify a stable baseline that is highly likely to persist, which is then committed to three-year reserved capacity for maximum discount. We identify a second tier of workloads with moderate stability, which gets committed to one year of reserved capacity. The remainder runs on an on-demand or savings plan, providing flexibility without a full commitment. The tier allocation is reviewed quarterly as workload patterns become clearer. The result is significant savings on the predictable portion of the environment without the flexibility loss of committing everything, even workloads that might not still exist in the same form next year.

How do we make cost allocation change behavior?

The model that influences behavior is one where engineering teams can see their own costs in the tools they use daily and take action on them without going through finance. We implement cost allocation using resource tagging that maps every resource to a business unit, application, and environment. Cost data flows into dashboards that engineering teams own and use as part of their operational review, not as an after-the-fact report. Budget alerts fire when teams approach defined thresholds, giving them the opportunity to respond before the spend lands on a finance statement. The governance framework ties these thresholds to performance reviews and team metrics, so cost accountability is built into how engineering success is measured. When those pieces are in place, engineering behavior changes within a quarter.

FAQsSecurity & Compliance Architecture

How do we unify cloud policy enforcement without disruption?

Consistent policy enforcement in an inconsistent environment requires staged implementation rather than a blanket policy push. We audit the current state across every subscription, document where existing workloads depend on configurations that would be blocked by a stricter policy, and design a target policy framework that represents where the environment needs to be. The migration path implements the target policies in audit mode first, which logs violations without blocking them, giving teams visibility into what will break before it does. Remediation of existing violations occurs within a defined timeline, with engineering team accountability. Once remediation is complete, the policies move from audit to enforcement mode. This approach improves the security posture without triggering the wave of production incidents that blanket policy pushes typically cause.

How do we handle multiple compliance frameworks without duplicate controls?

Multi-framework compliance requires a unified control library rather than separate control sets per framework. We map the control requirements of every applicable framework into a consolidated control library that identifies where the same underlying control satisfies multiple requirements. That is typically the case because frameworks share significant overlap in encryption, access management, logging, and change management requirements. Framework-specific controls are implemented only where they represent genuinely unique requirements. Compliance reporting is then generated from the unified control library for each framework rather than maintaining separate compliance programs. This reduces the operational overhead significantly and produces a more consistent compliance posture across frameworks.

How do we keep security baselines current as cloud platforms evolve?

Security baselines require active maintenance, not a one-time definition. We establish a baseline review cadence, typically quarterly, that evaluates new service releases against the existing baseline and determines whether they should be included, restricted, or blocked. New services default to restricted status until a security review is completed, preventing engineering teams from using services that have not been evaluated. The review process is deliberately lightweight for most services to avoid becoming a bottleneck, but rigorous for services that handle sensitive data or introduce a new attack surface. The governance model also includes an exception process for teams that need access to a service before the full baseline review is complete, with compensating controls documented for the exception period. This keeps the baseline current without slowing down engineering velocity.

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Connect with Paragon Micro to plan, design, and deliver solutions aligned to your environment, your priorities, and what comes next.