From configuration to recovery.
One connected service lifecycle.

Backend operations are often divided among deployment, observability, incident response, cloud management, security, status, analytics, and local automation. The operational problem appears where their state, permissions, identifiers, and recovery procedures meet.

The work starts with the application contract: commands, working directory, environment, port, health check, managed routes, and relevant operating policy. Supported supervised services need that external configuration, not an Infraveil SDK or instrumentation calls inside application logic.

Connect the host through the supported installation path. The launcher receives assigned settings and manages local agents; the agents prepare managed releases and start configured service processes. Package verification and the selected release-approval mode apply on the supported release path.

Once an application runs, supervision continues. Agents check its configured service processes and health, capture application output, report failures, and enforce restart limits. Shared host and workload context supports investigation and a scoped next action. Across hosts, placement, ordering, maintenance, capacity diagnostics, and selected-group commands extend that operating model to the fleet.

Configured managed gateway routes connect requests to services and apply supported rate limits and traffic/security rules. These controls apply where traffic reaches the gateway; bypass listeners and upstream volumetric protection remain separate concerns.

When health fails, the operating workflow connects the active release, service events, logs, request context, and available recovery controls. A restart budget can stop repeated attempts. A supported restore or rollback can run under the applicable policy, followed by health checks to observe its result.

Recovery has distinct mechanisms: process retry budgets, candidate stability and known-good package restoration, and separate agent-runtime canary/batch rollback. Configuration, persistent data, migrations, and dependencies still matter. These mechanisms do not restore a database, make application replacement zero-downtime, or provide automatic cross-host failover; a dispatched action still needs an observed result.

Customer-side source visibility supports inspection of the installed launcher and agent. It does not establish parity with a public snapshot, publish the proprietary hosted plane, or prove reliability without current test evidence.

Centralized authority creates concentration risk. Customers should assess tenant isolation, permissions, key handling, auditability, hosted-plane dependence, local continuity, removal paths, and recovery limits.

The proposed workflow benefit is less manual coordination between release delivery, supervision, managed traffic, incidents, and recovery. Measure that benefit in the actual environment; architecture alone does not establish lower cost, better availability, or faster response.

Keep specialist tools where their depth is useful. Existing integrations or suites may already coordinate operating work effectively; compare the remaining handoffs and supported local actions rather than declaring one packaging model superior.

A suite may coordinate these responsibilities or may retain separate state and support boundaries. Customers should inspect implemented behavior rather than infer cohesion from packaging.

Dashboard and MCP actions use the supported operating handlers. MCP clients can inspect state and request named changes under scoped authorization and preview/apply checks; they receive neither an unrestricted shell nor the release-signing key. Change history connects the request and authorization with reported execution and health; a receipt alone is not the operating outcome.

Exit planning should cover data export, customer-side packages, route changes, credential rotation, access removal, and any pre-existing hosted files. Fresh external attach may create a manifest-only active package while leaving pre-existing files in place.

Infraveil is designed to reduce coordination work within its configured scope. It does not claim to replace upstream volumetric protection for customer workloads, every specialist tool, or customer responsibility for application and infrastructure operation. OVHcloud and Cloudflare layers protecting configured Infraveil-hosted public paths complement rather than expand that scope.

Current, planned, internal-standard, contract-only, and unknown capabilities must remain separate. Fine-grained RBAC, SSO/SCIM, SOC 2, full air gap, self-hosting, residency, and SLA are not universal current claims.

The customer retains application correctness, infrastructure access, supporting runtimes, secrets, persistent data, backups, regulatory obligations, and policy decisions. The managed runtime is not a sandbox, an interpreter-level restriction on application code, or ownership of every service on the host.

New runtime hashes require the customer key. Manual, allowlist, and auto modes determine how signing occurs; they do not mean every action waits for a person.

Delivery and caches use encryption in defined places. The platform does not claim universal encryption at rest across every hosted and customer-controlled location.

A practical evaluation follows one service from configuration through startup, traffic, a failure, and supported recovery. Read the documentation and dedicated trust chapters for the component version, signing mode, failure behavior, privacy choices, and applicable agreement.