Optimize AI workflow design portfolio
Select one governed AI workflow graph per use case, maximizing risk-adjusted business value under hard control, success, latency and scenario-availability gates plus shared model/tool/review capacity, dependencies, implementation budget and economic-regret CVaR.
What it's for
Moves agent optimization from model shopping to whole-workflow design: which graph of models, tools, controls and reviews creates the most value without hiding shared bottlenecks or downside?
What you give it
Every tool is a pure function: it computes from what you pass it and reads nothing on its own. Inputs split into evidence you supply from your connected systems, calibration your team owns, and numerical controls that affect precision but never the result's meaning.
| Field | Type | Role | Required |
|---|---|---|---|
| beam_width | integer ≥ 1, ≤ 10000 | Numerical control | Optional |
| design_options | array of objects (14 fields) | Evidence | Yes |
| engineering_capacity_units | number ≥ 0 | Your calibration | Yes |
| exact_enumeration_limit | integer ≥ 1, ≤ 1000000 | Your calibration | Optional |
| implementation_budget | number ≥ 0 | Your calibration | Yes |
| max_detail_rows | integer ≥ 1, ≤ 500 | Numerical control | Optional |
| maximum_cvar_economic_regret | any | Your calibration | Optional |
| maximum_expected_economic_regret | any | Your calibration | Optional |
| minimum_expected_portfolio_net_value | any | Your calibration | Optional |
| resource_capacities | array of objects (3 fields) | Evidence | Yes |
| risk_aversion | number ≥ 0 | Your calibration | Optional |
| scenarios | array of objects (6 fields) | Evidence | Yes |
| tail_probability | number ≥ 0.001, ≤ 0.5 | Your calibration | Optional |
| workflows | array of objects (8 fields) | Evidence | Yes |
Each design_options
record
| Field | Type | Required |
|---|---|---|
| available_scenario_ids | array of string | Yes |
| cost_per_execution_scenarios | array of number (≥ 2 items) | Yes |
| dependency_option_ids | array of string | Yes |
| engineering_capacity_units | number (≥ 0) | Yes |
| evidence_verified | boolean | Yes |
| exclusion_option_ids | array of string | Yes |
| id | string (non-empty) | Yes |
| implementation_cost | number (≥ 0) | Yes |
| is_current_state | boolean | Yes |
| p95_trace_latency_ms_scenarios | array of number (≥ 2 items) | Yes |
| resource_demand_scenarios | object | Yes |
| satisfied_control_ids | array of string | Yes |
| success_probability_scenarios | array of number (≥ 2 items) | Yes |
| workflow_id | string (non-empty) | Yes |
{
"design_options": [
{
"available_scenario_ids": [
"base",
"stress"
],
"cost_per_execution_scenarios": [
0.1,
0.1
],
"dependency_option_ids": [],
"engineering_capacity_units": 0,
"evidence_verified": true,
"exclusion_option_ids": [],
"id": "current",
"implementation_cost": 0,
"is_current_state": true,
"p95_trace_latency_ms_scenarios": [
150,
180
],
"resource_demand_scenarios": {
"model-calls": [
1000,
1200
],
"review-hours": [
0,
0
]
},
"satisfied_control_ids": [
"audit-log"
],
"success_probability_scenarios": [
0.85,
0.82
],
"workflow_id": "support"
},
{
"available_scenario_ids": [
"base", Truncated for display — the full payload is 137 lines.
What you get back
This is the actual output of running the example above — computed by the same function the platform calls, not an illustration.
{
"assumptions": [
"Every design is prospectively validated against the same workflow outcome, horizon and scenario perimeter; current state is explicit and alternatives include all operating and implementation effects.",
"Required controls, minimum success, maximum latency and scenario availability are hard local constraints. Shared model, tool, review or other capacities are aggregated bottom-up before selection.",
"Expected value and regret compare only declared designs; exactness covers the finite option space and beam mode is a disclosed feasible heuristic.",
"Selection is not deployment, procurement, privacy/security/legal approval, a model/tool SLA, or a judgment about a provider, team or person."
],
"baseline_current_state": {
"expected_net_value": 534.72,
"expected_operating_cost": 116,
"option_ids": [
"current"
]
},
"constraints": {
"engineering_capacity_units": 10,
"implementation_budget": 100,
"maximum_cvar_economic_regret": null,
"maximum_expected_economic_regret": null,
"minimum_expected_portfolio_net_value": null,
"tail_probability": 0.1
},
"decision": "ai_workflow_design_portfolio_supported",
"failed_gates": [],
"method": "governed_ai_workflow_design_multiple_choice_portfolio_v1",
"option_diagnostics": [
{
"eligible": true,
"failed_gates": [],
"option_id": "current",
"workflow_id": "support"
},
{
"eligible": true,
"failed_gates": [],
"option_id": "redesigned",
"workflow_id": "support"
}
],
"resource_diagnostics": [
{
"capacity_by_scenario": [
2000,
2000 Truncated for display — the full payload is 129 lines.
How it works
Network & dependency analysis — Trace how load, failure and knowledge propagate through a graph of teams, services or components.
- 1 Compute scenario operating cost, success-adjusted value and declared model/tool/review resource loads for every current and alternative workflow graph.
- 2 Reject options missing controls, minimum success, latency or availability before economics; then enforce cross-workflow dependencies/exclusions, shared capacities, implementation cash and engineering capacity.
- 3 Enumerate the finite multiple-choice portfolio exactly when tractable or use a disclosed capacity-pruned beam, optimizing expected value minus CVaR regret and exposing the Pareto frontier plus scenario/resource diagnostics.
Before you trust it
Every tool in the catalog ships with the conditions under which its answer is meaningful — and the conditions under which it should abstain instead of guessing.
Assumptions & guardrails
- Nodes, edges, direction, time window, missing-link policy, and aggregation boundary represent the coordination or dependency mechanism of interest.
- Alternative workflow graphs are prospectively tested and comparable on the same outcome, horizon and common scenarios; resource demands, effects and full costs are executable rather than LLM estimates.
- Structural centrality, fragility, or clustering describes a modeled graph and must not be interpreted as intent, guilt, or personal value.
- Optimization ranks only declared validated graphs and is not deployment, procurement, privacy/security/legal approval, an SLA or a judgment about a provider, team or person.
Minimum evidence
- workflows: required and organization-defined
- scenarios: required and organization-defined
- resource_capacities: required and organization-defined
- design_options: required and organization-defined
- implementation_budget: required and organization-defined
- engineering_capacity_units: required and organization-defined
How to validate it
Validate on held-out periods or aggregate units, perturb edge definitions and missing links, and report sensitivity to graph construction before using structural rankings.
Calibrating it to your org
Same for everyone
The mathematical kernel, validation rules, method version, and JSON output semantics are organization-independent; no tenant-trained coefficients or company benchmark is embedded in the function.
Specific to you
- versioned multiple-choice workflow-design matrix joined to one coherent scenario set and independently verified control evidence, retaining current state, ineligible options and all model/tool/reviewer resource demand
- design comparability and prospective evidence, required controls, success/latency thresholds, common scenarios, resource capacity, dependencies/exclusions, full cost, value/loss, implementation budget, engineering capacity, regret appetite and production authority
Calibration workflow
- 1 Define the management decision, target outcome, aggregate unit, privacy boundary, cadence, and prediction/intervention horizon for this organization.
- 2 Build a tenant-scoped historical cohort using only information available before each prediction or decision; preserve zero periods, censoring, assignment probabilities, and unresolved outcomes when the method requires them.
- 3 Estimate statistical parameters on training history, but obtain costs, utilities, risk tolerance, practical-effect thresholds, capacity, and policy constraints from accountable decision owners.
- 4 Validate on later time windows or held-out aggregate units at the deployment grain, against a simple baseline and the function-specific validation strategy.
- 5 Deploy only if the returned decision clears evidence, overlap, calibration, robustness, and guardrail checks; warning, unsupported, schema-gap, and fallback decisions are abstentions.
- 6 Monitor realized outcomes, data drift, coverage, and decision regret; recalibrate at a governed cadence or after a detected regime/definition change, never merely because a stakeholder dislikes the result.
Call it from your AI
You don't wire up 388 tools in your MCP client. The GitRevio MCP server exposes 20 tools, three of which let an agent search the catalog, read a tool's schema, and run it — so the assistant finds this one on its own.
gitrevio_capabilities_search
{ "q": "select one governed ai workflow graph" }
→ finds "optimize_ai_workflow_design_portfolio"
gitrevio_capability_describe
{ "capability_id": "optimize_ai_workflow_design_portfolio" }
→ returns the input schema and agent guidance shown on this page
gitrevio_capability_run
{ "capability_id": "optimize_ai_workflow_design_portfolio", "arguments": { ... } }
→ returns the result shown above Works in Claude Desktop, Claude Code, Cursor, Cline, Continue.dev, Goose and Aider. See the MCP server.