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Alexandra Mendes

18 August, 2025

Min Read

Azure Service Fabric: What It Is and When to Use It

Illustration of developer using laptop with Azure Service Fabric logo, representing enterprise microservices on Azure.

Azure Service Fabric is Microsoft’s platform for building and running stateful and stateless microservices with high density and built-in lifecycle management. For enterprises evaluating what Azure Service Fabric is and when to use it, the platform delivers reliable orchestration, fast start-up, and simplified operations via Service Fabric Managed Clusters (SFMC).

Key benefits:

  • Scalability: elastic clusters handle growth and bursts.

  • Reliability: rolling upgrades, self-healing, health checks.

  • Operational simplicity (SFMC): managed resources cut admin toil.

  • Hybrid flexibility: run in Azure, on-prem, or mixed estates.

  • Cost efficiency: high density and rapid start-up reduce spend.
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What is Azure Service Fabric, and why should enterprises care?

For enterprise teams on Azure, Azure Service Fabric delivers reliable, high-density microservices with strong lifecycle control. 

Why enterprises care:

  • Reliability: automatic failover, health monitoring, safe rolling upgrades.

  • Scalability: elastic clusters, partitioning, fine-grained placement.

  • Operational simplicity (SFMC): managed resources reduce admin toil.

  • Workload flexibility: run containers and processes on Windows or Linux.

  • Low latency: keep data close to compute for stateful services.

How does Azure Service Fabric differ from a generic container orchestrator?

Service Fabric provides distributed systems orchestration for stateful and stateless workloads, with lifecycle and health built in. It runs guest executables and containers, enabling high density and rapid start-up, beyond a Kubernetes-only container orchestration model.

  • Native stateful services: replication and rebalancing without bolted-on stores.

  • Process + container model: not limited to containerised apps.

  • Lifecycle built in: health-driven upgrades, repairs, versioning.

  • High density: pack more services per node to optimise cost.

Managed operations: SFMC simplifies provisioning, certificates, and governance.

What problems does Service Fabric solve for stateful microservices?

Stateful microservices need availability, consistency, and speed without heavy custom plumbing. Service Fabric for enterprises adds the guardrails and automation to meet those needs on Azure.

  • High availability: replication, quorum, and leader election are handled by the platform.

  • Safe evolution: rolling upgrades with health gates and instant rollback.

  • Elastic scale: partitioning and rebalancing as load changes.

  • Data locality: co-locate state and compute to cut latency and egress.
  • Operational control: placement constraints plus fault/upgrade domains for resilience.

When should I choose Azure Service Fabric over Azure Kubernetes Service (AKS)?

Decide based on workload needs, not just platform fashion. Azure Service Fabric excels when you need stateful microservices, tight latency, and built-in lifecycle control; AKS shines for Kubernetes-native, portable container estates with a broad OSS toolchain.

What scenarios favour Azure Service Fabric (SF/SFMC)?

  • Stateful, low-latency services: keep data close to compute with native replication.

  • High density and fast start-up: pack more services per node to cut costs.

  • Mixed hosting models: run containers and processes (guest executables) side by side.

  • Lifecycle built in: health-gated rolling upgrades, safe rollback, and repair actions.

  • Enterprise governance: Service Fabric Managed Clusters (SFMC) simplify certs, scaling, and policy.

  • Windows-heavy estates: first-class support for Windows workloads that are not yet container-friendly.

  • Throughput-intensive or session-aware apps: consistent performance under bursty load.

What scenarios favour Azure Kubernetes Service (AKS)?

  • Kubernetes-native workloads: 12-factor apps, stateless services, and standard controllers.

  • Portability: run similar patterns across cloud or on-prem Kubernetes distributions.

  • Ecosystem leverage: Helm charts, Operators, and a wide OSS add-on market.

  • Team skills: existing Kubernetes/SRE practices and tooling fit out of the box.

  • Service mesh and API gateways: prefer Envoy/Istio/NGINX patterns for networking.

  • Autoscaling at pod level: standard HPA/VPA flows and container-first CI/CD.

How does Azure Service Fabric compare with AKS at a glance?

Azure Service Fabric vs AKS comparison table showing fit, workload types, state, lifecycle, security, and CI/CD.

In summary: between Azure Service Fabric and AKS, choose Azure Service Fabric (and SFMC) for stateful, low-latency, high-density enterprise microservices and mixed hosting needs; choose AKS for Kubernetes-standard container estates, portability, and rich OSS integration.

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How does Azure Service Fabric architecture work at enterprise scale?

Azure Service Fabric architecture groups services into a resilient, high-density cluster with built-in health, upgrades, and placement control. It supports stateful and stateless microservices, partitions work for scale, and replicates data for reliability, fitting enterprises that need predictable SLOs and low-latency access to state.

What are stateless vs stateful services, and how do they behave?

  • Stateless services: multiple instances behind a gateway; easy horizontal scale; external stores hold state.

  • Stateful services: partitions split data/work; each partition keeps replicas (primary + secondaries) for availability and fast reads.

  • Consistency and failover: quorum-based replication with automatic reconfiguration on failure.

  • Performance: data stays close to compute, cutting network hops and egress.

  • Lifecycle: health-gated rolling upgrades and safe rollback reduce risk during releases.

What are clusters, node types, and upgrade domains in practice?

  • Cluster: a pool of nodes running the Azure Service Fabric runtime and your apps (on Windows or Linux).

  • Node types: isolated scale units (e.g., frontend stateless, backend stateful); set VM size, autoscale, and placement rules per type.

  • Placement and resilience: fault domains (hardware/rack awareness) and upgrade domains (safe, staged rollouts) protect uptime.

  • Governance and ops: with Service Fabric Managed Clusters (SFMC), certs, identity, and common ops are simplified; diagnostics and health events surface in one place.

  • Scalability and cost: pack services densely per node; scale node types independently to match load patterns.

In summary: Azure Service Fabric uses partitions, replicas, and policy-driven placement to deliver scalability, reliability, and low-latency access to state, while SFMC reduces operational overhead for enterprise teams.

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What are Service Fabric Managed Clusters (SFMC), and how do they simplify operations?

Service Fabric Managed Clusters are the managed way to run Azure Service Fabric. Microsoft manages the cluster’s supporting resources so teams can focus on deployment, lifecycle, and reliability rather than scaffolding. This is ideal for Service Fabric for enterprises that need speed, governance, and repeatability.

Why SFMC simplifies ops:

  • Encapsulated infrastructure: fewer moving parts to provision and patch.

  • Lifecycle baked in: safe rolling upgrades, health gates, and repair actions.

  • Security features: streamlined certificates/TLS, managed identities, policy control.

  • Cost and density: pack more services per node; scale only the node types you need.

  • Unified diagnostics: health, events, and logs in a single Azure view.

  • Faster onboarding: standardised patterns for Service Fabric deployment.

How does SFMC reduce operational toil in Azure?

  • Provisioning: create a managed cluster with opinionated defaults; avoid hand-wiring VMs, scalesets, and load balancers.

  • Certificates and TLS: upload/rotate once; apply at cluster scope without custom scripts.

  • Governance: use Azure RBAC and policies; separate node types for isolation.

  • Patch and upgrade flow: the platform handles upgrades with health checks and rollback.

  • Observability: plug into Azure Monitor and Service Fabric Explorer for status and alerts.

  • Security posture: align controls (TLS, identity, policies) with enterprise standards.

How do I operate SFMC day to day (scale, upgrades, certificates)?

  • Connect: connect to a Service Fabric managed cluster to authenticate and manage the cluster.

  • Scale: adjust node type capacity per workload (e.g., stateful back end vs stateless front end).

  • Deploy: use Azure DevOps or GitHub Actions with ARM/Bicep templates and Service Fabric tasks.

  • Upgrade: trigger rolling upgrades; watch health signals before promoting.

  • Certs: upload new certificates, bind to endpoints, and confirm cluster health.

  • Validate: check partitions/replicas, placement rules, and error events in Explorer.

  • Automate: codify policies and alerting for SLOs and incident response.

In summary: SFMC brings managed governance, security, and lifecycle control to Azure Service Fabric, reducing operational burden while improving reliability and time-to-value.

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How does Azure Service Fabric deliver scalability, reliability, and lifecycle management?

Azure Service Fabric (including Service Fabric Managed Clusters) is designed for enterprise-grade microservices that must scale predictably, stay available, and ship updates safely. It blends partitioning, replication, and health-driven rollouts to meet SLOs while keeping operations simple for Service Fabric for enterprises.

How does Azure Service Fabric scale and stay reliable under load?

  • Horizontal scale with partitioning: split workload/data across partitions for linear growth.

  • High availability by design: quorum-based replication with automatic failover and reconfiguration.

  • Data locality for throughput: keep state close to compute to cut latency and egress.

  • Density and fast start-up: pack more services per node to optimise cost at scale.

  • Placement policies: control collocation/anti-affinity across fault and upgrade domains.

What lifecycle features support day-2 operations?

  • Health-gated deployments: rolling upgrades pause/rollback on unhealthy signals.

  • Safe versioning: side-by-side versions and staged rollouts reduce change risk.

  • Built-in repair actions: automated healing tasks shorten MTTR.

  • Observability: unified health/events via Explorer and Azure Monitor for quick triage.

  • CI/CD integration: Azure DevOps, GitHub Actions, Jenkins, or Octopus pipelines for repeatable Service Fabric deployment.

In summary: Azure Service Fabric achieves scalability, reliability, and controlled lifecycle through partitioning, replication, health signals, and automated rollouts, giving enterprises predictable performance with lower operational overhead.

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How secure is Azure Service Fabric for regulated environments?

Azure Service Fabric supports enterprise-grade controls for Microsoft Azure microservices that must meet strict compliance. It enforces encryption in transit, tight identity and access control, and governed operations, ideal for Service Fabric for enterprises in finance, healthcare, or the public sector.

How do TLS, certificates, and secrets management work?

  • TLS by default: secure cluster and app endpoints; strong cypher policies.

  • Certificate lifecycle: central upload/rotation at cluster scope; SFMC streamlines binding and renewal.

  • Secrets management: store keys/secrets in Azure Key Vault; reference at deploy time.

  • Integrity and upgrades: health-gated rollouts prevent drifting into insecure states.

How do identity, network, and compliance controls apply?

  • Identity and RBAC: Azure AD/RBAC for cluster access; managed identities for services calling Azure APIs.

  • Network isolation: VNets, subnets, NSGs, and (optionally) private endpoints for admin planes.

  • Policy and audit: Azure Policy for guardrails; logs/metrics to Azure Monitor or your SIEM for audit trails.

  • Resilience domains: fault/upgrade domains reduce blast radius during change.

  • Compliance mapping: align encryption, identity, and logging controls to frameworks (e.g., UK NCSC principles).

In summary: Azure Service Fabric provides encryption, identity, network isolation, and policy-driven governance, backed by SFMC to simplify certificate management and audits, so regulated enterprises can meet security requirements without slowing delivery.

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What are the top enterprise use cases for Azure Service Fabric today?

Azure Service Fabric suits mission-critical, always-on systems. It powers stateful and stateless Microsoft Azure microservices that need low latency, high density, and safe lifecycle control, making it an ideal Service Fabric for enterprises.

Which enterprise scenarios benefit most?

  • Session-aware platforms: shopping baskets, user sessions, chat, and real-time collaboration.

  • High-throughput transaction services: payments, trading, risk, fraud scoring.

  • Event and stream processing: telemetry ingestion, IoT gateways, real-time analytics.

  • Scheduling and orchestration engines: batch pipelines, workflow coordinators.

  • Configuration and metadata services: low-latency reads with strong consistency.

  • Mixed estates: Windows processes alongside containers during modernisation.

What vertical examples show impact?

  • Banking and fintech: stateful ledgers, order books, fraud detection with strict SLOs.

  • Telecoms and media: session management, policy control, and near-real-time mediation.

  • Retail and e-commerce: baskets, pricing caches, recommendations close to the edge.

  • Healthcare and public sector: regulated workloads with audit, identity, and encryption.

  • Manufacturing and IoT/edge: device fleets, local processing, intermittent connectivity.

In summary: choose Azure Service Fabric when applications need stateful microservices, predictable latency, and safe upgrades at scale, standard requirements across finance, telecoms, retail, healthcare, and IoT.

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Can Azure Service Fabric integrate with AI and data platforms on Azure?

Yes. Azure Service Fabric runs microservices that call Azure AI Services, Azure OpenAI, and Azure Machine Learning endpoints, and it connects cleanly to Microsoft Fabric/OneLake, Azure Data Lake, Event Hubs, and Azure SQL. This suits Service Fabric for enterprises that need low-latency inference, governed data, and safe rollouts.

How do microservices call Azure AI and ML endpoints securely?

  • Identity first: use managed identities for service-to-service auth; avoid embedded keys.

  • Secret storage: keep fallback keys in Azure Key Vault; reference at deploy time.

  • Private access: use private endpoints and VNet integration to keep traffic off the public internet.

  • Front-door control: place API Management in front of AI endpoints for throttling, quotas, and schema validation.

  • Resilience patterns: add timeouts, retries, and circuit breakers; cache model metadata to cut latency.

  • Data hygiene: redact PII, log prompts/responses safely, and apply content filters where needed.

How are models versioned, deployed, and monitored (MLOps) with Service Fabric?

  • Version control: register models in Azure ML Model Registry; reference versions from config.

  • Progressive delivery: use rolling upgrades and placement policies for canary/A-B releases of inference services.

  • Rollback safety: health-gated rollouts revert on error budgets or quality drops.

  • Observability: emit App Insights traces, custom metrics (latency, token use, accuracy proxies), and logs to Log Analytics.

  • Data/feature governance: track lineage with Microsoft Purview; store features in a governed store; monitor data drift.

  • CI/CD: wire Azure DevOps/GitHub Actions to build, sign, and deploy images plus config (model version, thresholds).

How does Service Fabric connect to analytics and real-time data?

  • Ingest and stream: consume from Event Hubs, IoT Hub, or Kafka; persist to ADLS/OneLake for downstream analytics.

  • Operational stores: use Azure SQL, Cosmos DB, or embedded stateful services when ultra-low latency is required.

  • Batch/ETL orchestration: trigger Data Factory or Fabric pipelines from microservices; publish outcomes as events.

  • Performance control: apply backpressure and partitioning; keep hot paths stateful for speed and move heavy analytics out of the request path.

In summary: Azure Service Fabric integrates natively with Azure AI/ML and Microsoft Fabric data services, combining secure connectivity, governed MLOps, and low-latency service patterns that enterprises need for production AI.

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How do I deploy and operate Azure Service Fabric from dev to production?

Azure Service Fabric deployment is a clear path: build locally, automate CI/CD, then promote to Service Fabric Managed Clusters (SFMC) with health-gated rollouts. Keep everything as code (manifests + ARM/Bicep) and use Azure DevOps or GitHub Actions for repeatable releases.

What’s the path from local cluster to SFMC?

  1. Set up local dev: install the Service Fabric SDK, tools, and a local cluster.

  2. Create services: choose stateful or stateless; define Application and Service manifests.

  3. Package and version: produce an application package; bump version on each release.

  4. Smoke test locally: deploy to the local cluster; verify in Service Fabric Explorer (SFX).

  5. Provision SFMC: create a managed cluster; define node types (e.g., stateless front end, stateful back end).

  6. Secure the cluster: upload TLS certificates; use managed identities and Azure Key Vault for secrets.

  7. Wire CI/CD: build image/artefacts; deploy with Azure DevOps Service Fabric tasks or GitHub Actions; store infra in ARM/Bicep.

  8. Promote with gates: deploy to staging first; use health checks and rolling upgrades; approve and promote to production.

  9. Operate to SLOs: set autoscale for node types; apply placement policies; review density and cost.

Tip: keep a single, parameterised pipeline that targets dev, staging, and prod; switch only environment variables, secrets, and capacity.

How do I enable diagnostics, logging, and health monitoring?

  • Health model first: use built-in health events; block upgrades when services are unhealthy.

  • Observability: send logs and metrics to Application Insights and Log Analytics; watch request rate, latency, errors, and replica health.

  • SFX checks: confirm partitions, replicas, and placement after each deployment.

  • Alerts and SLOs: set alerts for quorum loss, slow failover, high CPU/memory, and queue backlogs.

  • Release safety: enable automatic rollback on failed health signals; keep canary or ring deployments for critical paths.

  • Cost and scale: review density per node; right-size node types; use scheduled or reactive scaling.

In summary: standardise your Azure Service Fabric deployment with manifests, ARM/Bicep, and CI/CD; promote through SFMC with health-gated rollouts, and run to SLOs with SFX, Application Insights, and Log Analytics.

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How do I migrate from Cloud Services (Extended Support) to Service Fabric Managed Clusters?

Moving from Cloud Services (Extended Support) to Azure Service Fabric (SFMC) is a structured modernisation. Keep the path simple: map roles to services, standardise deployment, and protect users with staged rollouts. This suits Service Fabric for enterprises that need safer change with tight SLOs.

What’s the minimum viable migration plan and risk controls?

  1. Inventory and classify: list all web/worker roles; mark stateless vs stateful behaviour, dependencies, and SLOs.

  2. Choose hosting model: map each role to a guest executable or container; defer deep refactors.

  3. Design cluster topology: define node types (front end, back end), VM sizes, and placement rules.

  4. Security baseline: plan TLS, certificates, and managed identities; store secrets in Key Vault.

  5. Networking: set VNets/subnets, NSGs, and any private endpoints.

  6. Data approach: decide what becomes stateful services vs external stores (SQL/Cosmos); plan partition keys.

  7. Infra as code: create ARM/Bicep for SFMC, node types, policies, and networking.

  8. CI/CD: add Azure DevOps/GitHub Actions pipelines with Service Fabric tasks; version apps and manifests.

  9. Staged releases: run canary/ring deployments with health gates and auto rollback.

  10. Observability: wire SFX, Application Insights, and Log Analytics; alert on errors, latency, and replica health.

Risk controls to apply

  • Feature flags for toggling new code paths.

  • Shadow traffic to validate behaviour before cutover.

  • Budgeted error windows tied to automatic rollback.

  • Game days for failover and certificate rotation.

What are common pitfalls and how do we avoid them?

  • Treating SF as a drop-in: rewrite deployment/lifecycle to use manifests, health, and rolling upgrades.

  • Skipping partition strategy: choose keys for stateful services early; test rebalancing under load.

  • Under-scoping security: plan certificate rotation, managed identities, and least-privilege RBAC up front.

  • Overpacking nodes: start conservative; tune density after observing CPU, memory, and queue depth.

  • Ignoring placement rules: use fault/upgrade domains and anti-affinity for resilience.

  • No failover drills: rehearse node loss and primary replica moves before launch.

  • Windows/Linux mismatch: validate runtime needs; pin images and libraries.

  • Weak rollback plan: mandate ring deployments with health thresholds and a tested rollback artefact.

  • Cost surprises: right-size node types, scale on schedules, and review egress from external stores.

  • Governance gaps: enforce Azure Policy (TLS, SKU, tagging); audit changes in pipelines.

In summary: keep migration pragmatic and reversible: map roles to services, standardise Service Fabric deployment with CI/CD and IaC, and use SFMC plus health-gated releases to protect uptime while you modernise.

What’s the decision checklist to validate Azure Service Fabric for my organisation?

Evaluate Azure Service Fabric with a short, testable checklist so you can confirm fit for enterprise-grade microservices, stateful workloads, and SFMC operations before scaling.

What readiness questions should architects answer first?

  • Workload fit: do we need stateful microservices, low latency, or mixed processes + containers?

  • SLOs: target P95/P99 latency, availability, and failover objectives realistic for our users?

  • Platform choice: Windows/Linux mix, container strategy, and legacy process needs defined?

  • Topology: initial node types, VM sizes, and placement policies planned?

  • Data model: partition keys, replica counts, and co-location of state vs external stores chosen?

  • Security and compliance: TLS/certificates, managed identities, Key Vault, audit trails, and policy guardrails set?

  • Delivery: ARM/Bicep + Azure DevOps/GitHub Actions ready for repeatable Service Fabric deployment?

  • Observability: Service Fabric Explorer, App Insights, Log Analytics, and alerting mapped to SLOs?

  • Costs: density targets, scaling rules, and egress assumptions modelled?

  • Skills and support: ops ownership, enablement plan, and rollback playbooks agreed?

What KPIs define success for a 90-day pilot?

  • Latency and throughput: P95/P99 vs baseline after data locality.

  • Reliability: failover RTO/RPO, quorum loss incidents, and MTTR.

  • Change quality: change failure rate, time to rollback via health-gated upgrades.

  • Efficiency: services-per-node (density), start-up time, and cost per 1,000 requests.

  • Operational load: toil hours saved via SFMC (provisioning, certs, patching).

  • Pipeline speed: build → deploy lead time and release frequency.

What scope and safeguards should the pilot include?

  • SFMC baseline: one production-like managed cluster with two node types (stateless front end, stateful back end).

  • Security first: enforce TLS, rotate certs, and use managed identities for all service calls.

  • Controlled rollout: canary/ring deployments with automatic rollback on health failure.

  • Governance: Azure Policy for TLS, SKU, tagging; RBAC for least privilege.

  • Runbooks: failover, certificate rotation, and capacity scaling documented and tested.

  • Exit criteria: promote on KPI success; revert if SLOs or cost targets are missed.

In summary: validate Azure Service Fabric architecture, benefits, scalability, reliability, and deployment flow in a small, production-like pilot, measuring density, latency, and change safety before broader rollout.

Final Thoughts

Azure Service Fabric is a strong fit when you need stateful microservices, high density, and health-gated releases, with SFMC to cut operational toil. If that matches your roadmap, move from research to a pilot and prove it against your SLOs.

Kick-off now: Book an AI Readiness Assessment to validate fit, confirm architecture, and scope a production-like pilot tailored to your workloads.

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Frequently Asked Questions

What is Azure Service Fabric used for?

Azure Service Fabric is used to build and run stateful and stateless microservices that need low latency, high density, and built-in lifecycle management on Azure. Typical uses include:

  • Transaction processing and real-time session state

  • Event/stream ingestion and processing

  • Workflow/scheduling engines

  • Mixed estates running containers and processes side by side

What are the use cases of Microsoft Fabric?

Different product. Microsoft Fabric is a unified analytics platform (Power BI, Data Factory, Data Engineering, Real-Time Intelligence, Data Warehouse, OneLake). Common uses:

  • Lakehouse analytics and governed self-service BI

  • Real-time dashboards and alerts

  • ETL/ELT pipelines and data orchestration across the Microsoft data stack

Note: Azure Service Fabric (microservices/app platform) ≠ Microsoft Fabric (analytics platform).

Is Service Fabric the same as Kubernetes?

No. Azure Service Fabric supports stateful services and runs processes and containers with health-driven upgrades built in. Kubernetes (AKS) is a container orchestration platform focused on portability and a broad OSS ecosystem.

  • Choose Service Fabric for stateful, low-latency, high-density workloads and mixed hosting.

  • Choose AKS for Kubernetes-standard, portable container estates and rich OSS add-ons.

What components are included in Azure Service Fabric?

If you mean Azure Service Fabric, it includes: clusters, node types, partitions and replicas, a built-in health and upgrade model, naming/communication services, Service Fabric Explorer, and Service Fabric Managed Clusters (SFMC) for managed operations. These deliver scalability, reliability, secure communications, and simpler day-2 operations.

Is Azure Service Fabric still relevant and supported?

Yes. Azure Service Fabric powers enterprise-grade microservices, including stateful apps, and remains supported on Azure, with Service Fabric Managed Clusters (SFMC) simplifying operations.

What operating systems and workloads are supported?

Windows and Linux. Run containers and guest executables side by side, useful for Windows-heavy or mixed estates.

How do teams connect and manage a managed cluster (SFMC)?

Authenticate, then use Service Fabric Explorer, Azure CLI/PowerShell, or pipelines. Manage certificates, scale node types, and perform rolling upgrades with health gates.

What programming models can I use?

Build stateless or stateful services. Use .NET, Java, and containerised stacks. Expose HTTP/gRPC endpoints and use platform naming/communication APIs where needed.

Is Service Fabric secure enough for regulated workloads?

Yes. Use TLS, certificate rotation, managed identities, private networking, and Azure Policy. SFMC streamlines hardening and audit readiness.

Can I start with stateless containers and add state later?

Yes. Many teams begin with stateless services on containers, then introduce stateful services for low-latency paths as needs evolve.

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Alexandra Mendes
Alexandra Mendes

Content writer with a big curiosity about the impact of technology on society. Always surrounded by books and music.

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