Why HybridOps?
Three problems that cloud-first infrastructure doesn't solve — and the operational model that does.
Always-on cloud burns budget. IaC without contracts drifts silently. Evidence collected as screenshots fails audits. HybridOps is built around the economics of on-prem primary with cloud on demand, execution that stays deterministic, and audit trails that are produced automatically.
The three problems
Each problem has a direct answer in the HybridOps execution model.
Always-on cloud DR is a tax, not a feature
Running warm standby infrastructure in the cloud 24/7 to handle scenarios that trigger once a year costs 60–80% more than it needs to. The cloud bill is not commensurate with the risk being hedged.
Most teams either over-provision cloud for safety, or skip standby entirely and discover the gap during an incident. Neither outcome is acceptable for steady-state workloads.
IaC that works once is not automation
Terraform and Ansible plans written once tend to accumulate environment-specific overrides, undocumented manual steps, and state that diverges from the plan. By the time an incident occurs, the automation is no longer trustworthy.
Without a contract that separates intent from implementation, there is no stable execution target to re-run or audit.
Screenshots and log files are not evidence
Post-incident reviews and compliance audits require structured, signed, reproducible outputs. A folder of screenshots and a hand-assembled runbook does not constitute evidence.
Teams that can't produce a structured evidence package for a DR drill cannot demonstrate operational readiness to assessors or stakeholders with confidence.
How HybridOps answers each problem
Each answer is baked into the execution model — not configured per team.
Cost-aware profiles: on-prem primary, cloud on demand
HybridOps profiles encode cost policy alongside operational defaults. Steady-state workloads run on-prem at hardware cost. Cloud capacity spins up for DR failover and burst — billed only when active.
The result is 60–80% cost reduction vs. always-on cloud standby, with the same recovery capability and faster activation because the blueprint is already rehearsed.
Contract-driven modules: intent separated from implementation
Every operation in HybridOps is expressed as a Module — a declarative intent contract that specifies what should be deployed, not how. The Driver handles execution. The Pack contains the actual Terraform or Ansible plan.
Contracts don't drift. Implementations are versioned and replaceable. Running the same blueprint six months later produces the same outcome because the contract is the stable reference, not the plan files.
Evidence envelopes: signed, structured outputs per run
Every HybridOps operation produces a signed, redacted evidence envelope: structured output, probe results, and timing records. Evidence is produced automatically — not assembled after the fact.
DR drill evidence packages are review-ready by the time the drill completes. Assessors and stakeholders receive structured artifacts, not screenshots.
Four primitives, deterministic output
Module (what) → Driver (how to execute) → Profile (policy and defaults) → Pack (the tool plan). Every run follows this chain. Every run produces evidence.
The hyops CLI wraps Terraform, Terragrunt, Ansible, Packer, and NetBox behind this model.
Teams get deterministic automation with audit trails without rewriting their existing toolchain.
The execution model
Every hyops run follows this four-primitive chain and produces a signed evidence envelope.
Cost-aware topology
On-prem carries steady-state workloads. Cloud activates on-demand for DR and burst.
How HybridOps compares
Against the two most common alternatives.
| Capability | Cloud-first | HybridOps hybrid | DIY IaC |
|---|---|---|---|
| DR standby cost | Always-on cloud spend | On-prem primary, cloud on demand | Varies — often always-on or skipped |
| Execution model | Cloud provider automation | Contract → Driver → Pack → Evidence | Ad-hoc Terraform / Ansible |
| Drift protection | Provider-managed state | Versioned module contracts | Manual state management |
| Evidence output | Cloud audit logs (partial) | Signed evidence envelopes per run | Manual documentation required |
| DR rehearsal | Varies by provider | Rehearsed blueprint with evidence | Manual runbooks, rarely rehearsed |
| IPAM integration | Cloud-native only | NetBox authoritative, synced on deploy | External tool, manual sync |
| Toolchain lock-in | High (vendor APIs) | Low (Terraform, Ansible, Packer) | Low but fragmented |
| Compliance readiness | Screenshots + cloud logs | Structured evidence bundle | Manual assembly required |
See the execution model in action
Walk through a DR drill, review the blueprints, or start with the Academy to build hands-on confidence.