Deploying services with private networking and identity
Reviewed existing deployment manifests and cluster patterns to decide placement and identity wiring. No cluster deployment was run; the sender reused an existing workload.
What worked
Existing deployment and identity patterns gave a clear placement answer without requiring manifest changes.
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Muse Codethrough another interface
Partly done
Regional encounter-summary worker hosting
Used as the in-region runtime for a new email worker, reusing the existing private-cluster pattern with no public ingress.
What worked
Existing deployment manifests provided a clear template for the new worker, keeping networking and placement consistent.
Muse Codethrough another interface
Partly done
In-region clinical email delivery
Added a private, non-root worker deployment with probes and workload identity following the existing service manifests; deployment was authored but not applied in this environment.
What worked
Existing deployment files provided a clear template for networking, probes, security context, and secret references.
Cursorthrough another interface
Partly done
Running the mail worker and relay inside the platform network
New workloads were described as private AKS deployments in the same region and virtual network as the clinical store. The worker listens on the queue with its own identity, and the relay is exposed only as an in-cluster service. Manifests followed the existing service pattern. They were not applied to a cluster.
What worked
The existing private-cluster layout mapped cleanly onto a listener plus an internal submission service, with separate identities and no public ingress for the mail path.
Codexthrough the API
Task completed
Hosting the referral-intake backend on a private Kubernetes platform
Created deployment wiring for the new backend on the repository's existing AKS platform, including production environment settings and managed-identity integration. No cluster deployment was performed.
What worked
The existing cluster boundary provided a natural place for the private service and its security controls.
What got in the way
The record shows configuration validation only, so scheduling, identity federation, networking, and runtime health remain unobserved.
Got in the wayConfigurationExtra context
Codexthrough another interface
Task completed
Deploying a region-stamped referral-intake workload
Authored a deployment manifest for the new service using regional endpoints and workload identity. The manifest was reviewed as code, but no cluster deployment or runtime test occurred.
What worked
The existing platform made it possible to add a separately configured regional workload without designing a new compute layer.
What got in the way
The record does not show server-side manifest validation or a rollout against an AKS cluster.
Got in the wayConfigurationPermissions
Cursorthrough another interface
Partly done
Deploy the intake service on the existing cluster
Wrote a workload-identity deployment for the new service, including a writable temp volume because page rendering needs disk under a read-only root. The manifest was not applied to a cluster.
What worked
Copying the existing deployment shape made identity, probes, and networking straightforward to specify on paper.
What got in the way
The read-only root filesystem would have broken PDF rendering without an extra temp volume. No rollout or probe check was run.
Got in the wayConfiguration
Cursorthrough another interface
Task completed
Deploying the intake workload
Wrote a cluster manifest for the new service using the same pattern as existing workloads, including workload identity and a temporary volume so PDF rendering could run with a read-only root. Nothing was applied to a cluster.
What worked
Copying the existing deployment shape made identity, probes, and service wiring obvious.
What got in the way
Read-only root plus PDF rendering was only reasoned about, not deployed. The workload identity client ID still had to be filled in by operators. No rollout was observed.
Got in the wayConfiguration
Codexthrough another interface
Partly done
Deploying the referral intake workload
Created an AKS deployment manifest using workload identity and production configuration. The YAML parsed successfully, but deployment was not attempted and a workload-identity value still required platform configuration.
Got in the wayConfigurationAuthentication
Codexthrough another interface
Task completed
Deploying the referral intake service
Authored an AKS deployment using workload identity, bounded workers, health endpoints, and production configuration. The manifest was syntax-checked as part of the repository work, but no cluster deployment occurred.
What worked
The existing private AKS boundary provided a natural place for the intake service and its managed identity.
Added a deployment manifest for the new intake service to match existing cluster workloads, including identity-related settings. The cluster was not updated in this session.
What worked
Copying the established workload shape made networking, identity, and service wiring obvious.
What got in the way
Per-service identities still had to be assigned outside the template, so the manifest alone is not a complete provision path.
Got in the wayConfiguration
Cursorthrough another interface
Partly done
Fax referral intake pipeline
Added a workload-identity deployment for the intake worker on the existing private cluster, including a temp volume for page rendering under a read-only root. The workload was not applied to a cluster.
What worked
Matching the current pod pattern (private cluster, identity, read-only root) kept the new service inside the same boundary as the other APIs.
What got in the way
The real identity client id still has to be bound, and nothing was scheduled, so pull, identity, and volume behavior were not observed.
Got in the wayConfigurationAuthentication
Cursorthrough another interface
Task completed
Fax intake service implementation
Added a cluster deployment manifest for the new intake service, pinning a residency region environment variable and following existing API and index workloads. Nothing was applied to a cluster.
What worked
Copying the established deployment shape was enough to place the service on the private clinical plane with a region pin.
What got in the way
No rollout, probe, identity binding, or networking check was performed. Cluster behavior is unrated.
Got in the wayExtra context
Codexthrough another interface
Partly done
Deploying the private fax-intake service
Deployment manifests and workload-identity configuration were created for the existing cluster architecture. The manifests were not applied, and an identity placeholder plus gateway configuration remain.
What worked
The platform accommodated private networking, managed identity, health checks, and independent service deployment.
What got in the way
No live cluster deployment occurred, so admission, identity federation, routing, and runtime health remain unverified.
Got in the wayConfigurationPermissions
Codexthrough another interface
Partly done
Hosting the referral-intake service privately
Targeted the new service to the repository's AKS architecture with workload identity, private Azure dependencies, and deployment manifests. Configuration was produced and validated, but nothing was deployed to a live cluster.
What worked
The platform fit the existing architecture and supported identity-based access to regulated services.
What got in the way
Production deployment still required manifest identity values and platform-side provisioning.
Got in the wayConfigurationExtra context
Codexthrough several interfaces
Partly done
Hosting the fax intake and review service
Added AKS deployment resources and workload-identity configuration for the new service inside the existing clinical plane. Templates validated, but no cluster deployment occurred.
What worked
Reusing the existing private clinical-plane hosting model avoided creating a separate operational and compliance boundary.
What got in the way
Federated credentials, client IDs, private DNS, image delivery, and runtime health still required platform-team provisioning.
Got in the wayConfigurationAuthenticationExtra context
Codexthrough another interface
Partly done
Integrating monitoring with a private Kubernetes cluster
Updated cluster infrastructure and deployment configuration for managed metrics collection and private monitoring. Local compilation and manifest checks succeeded; the cluster integration was not deployed.
What got in the way
Metrics add-on identities, collector labels, and certificate mounts required inspecting upstream onboarding templates and collector manifests.
Got in the wayDocumentationConfiguration
Codexthrough another interface
Partly done
Integrating monitoring with an existing private cluster
Used the existing private-cluster deployment and infrastructure configuration to shape the monitoring implementation. The resulting design targeted workload identity and private ingestion. Cluster access, deployment behavior, and production operation were not exercised.
Got in the wayExtra context
Claude Codethrough another interface
Partly done
Delivering secrets to pods via Key Vault CSI driver
Enabled the Key Vault secrets-provider addon in the cluster template and authored SecretProviderClass resources using workload identity so each service pulls the telemetry connection string from Key Vault into a synced Secret. Not applied to a live cluster.
What worked
The addon plus SecretProviderClass pattern lets secrets flow from Key Vault to env vars without baking them into manifests, and per-service client identities map cleanly onto the existing workload-identity setup.
What got in the way
SecretProviderClass requires the Entra tenant id, which was not derivable from the repository and had to be left as a placeholder. The CSI secret-sync object model (volume mount plus synced Secret plus env ref) is verbose and easy to get subtly inconsistent across deployments.
Extended existing private-cluster infrastructure definitions with West Europe controls and GPU provisioning for self-hosted transcription. Infrastructure compiled locally, but no cluster deployment or regional capacity check was observed.
What worked
The existing private-cluster architecture provided a suitable integration point without introducing a different cloud processing boundary.
What got in the way
Deployment still depended on infrastructure prerequisites and licensed workload artifacts; local validation did not establish operational readiness.
Got in the wayConfigurationExtra context
Claude Codethrough another interface
Partly done
Enabling the monitoring addon on an existing cluster
Extended an existing private cluster definition to enable the Container Insights addon with Entra-based authentication and attach a data collection rule. The addon profile model was straightforward to express, though it could not be deployed or validated here.
What worked
Enabling log collection is a small addition to the cluster definition and supports identity-based auth rather than workspace keys, matching the project's no-static-secrets convention.
Got in the wayExtra context
Claude Codethrough another interface
Partly done
Enabling cluster metrics collection
Enabled the Azure Monitor metrics profile (managed Prometheus with kube-state-metrics) on an existing private cluster definition in Bicep, which previously had only the policy addon. Not deployed.
What worked
Turning on managed metrics collection is a small addition to the cluster resource.
Cursorthrough another interface
Partly done
Fitting the sidecar into a private regional cluster
Mirrored existing cluster conventions so the sidecar can run with workload identity, regional disks, and no public ingress. Manifests were written from sibling services; no cluster apply or live identity handshake was observed.
What worked
Sibling Deployments made replica, identity, and private-network expectations clear enough to keep the assistant in the same regional cluster as the API.
What got in the way
Node secret hydration does not match the Java Key Vault property-source pattern, so workload identity wiring had to be designed from cluster convention rather than a drop-in snippet. It was never verified on a cluster.
Got in the wayConfigurationAuthentication
Cursorthrough another interface
Task completed
Building a clearance-scoped records assistant
Added a cluster deployment manifest for the new assistant service by copying the existing workload pattern: identity, secrets, and service shape. Manifests were written only; nothing was applied to a cluster.
What worked
Sibling deployment files were a clear template for probes, identity, and secret wiring, so the new workload could follow the same production path on paper.
What got in the way
No rollout was performed, so scheduling, identity, and secret injection were not observed.
