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Rotifer Agent

End-to-end guide for building AI Agents from Genes: intent decomposition, Gene selection, Genome composition, Agent creation, and testing. Use when the user...
End-to-end guide for building AI Agents from Genes: intent decomposition, Gene selection, Genome composition, Agent creation, and testing. Use when the user...
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概述

Rotifer Agent — From Genes to Agents

Decompose user intent into capability units, select Genes from the ecosystem, compose a Genome, create and validate an Agent.

Prerequisites

This Skill requires the Rotifer CLI:

npx @rotifer/playground --version

Or use the MCP Server for IDE integration:

{
  "mcpServers": {
    "rotifer": {
      "command": "npx",
      "args": ["@rotifer/mcp-server"]
    }
  }
}

Hierarchy: Gene (atomic logic) → Genome (composition) → Agent (runnable entity)


Phase 1: Intent Decomposition

Break the user's goal into independent capability units (each maps to a Gene).

Steps:

  1. Confirm the Agent's input and expected output with the user
  2. Decompose the task into 2–6 capability units, each satisfying the Gene three axioms (functional cohesion, self-sufficient interface, independently evaluable)
  3. Label each unit with a domain (e.g. content.grammar, security.audit)
  4. Confirm the decomposition with the user before proceeding to Phase 2

Output format:

#Capability unitDomainInputOutput
------------------------------------------
1Grammar checkcontent.grammartextissues[], score
2Readability analysiscontent.readabilitytextgrade, suggestions[]

Phase 2: Gene Selection

Match existing Genes to each capability unit.

rotifer list
rotifer arena list --domain <domain>

Selection priority:

PrioritySourceCommand
---------------------------
1Local Gene with highest Arena rankrotifer arena list --domain
2Cloud Registryrotifer install
3Doesn't exist, needs creationProceed to Phase 3

Show the user candidate Genes' F(g) fitness and fidelity, let them confirm the selection.


Phase 3: Gap Filling

If a capability unit has no existing Gene:

ApproachWhen to useAction
------------------------------
Create Wrapped GeneExternal API / Skill available to wrapRoute to gene-dev Skill
Create Native GenePure computation, no external dependenciesRoute to gene-dev Skill
Adjust decompositionCapability unit granularity is wrongReturn to Phase 1
Merge unitsTwo units are too coupled, splitting makes the interface awkwardMerge into one Gene

After all Genes are ready, proceed to Phase 4.


Phase 4: Genome Composition

Choose a composition strategy based on relationships between capability units.

Composition Strategy Decision Table

StrategySemanticsUse whenExample
----------------------------------------
Seq(A, B, C)Pipeline: A → B → CPrevious output feeds the nextCheck → Fix → Format
Par(A, B)Parallel: run simultaneouslyIndependent tasks, merge resultsGrammar check + Readability analysis
Cond(p, A, B)Branch: if p then A else BInput characteristics determine pathChinese → Chinese proofing / English → English proofing
Try(A, B)Fallback: A fails → BPrimary path unreliableMain API → Backup API
TryPool(A, B, C)Race: all try, first success winsMultiple equivalent implementationsMultiple translation services racing

Par Merge Strategies

When using Par, specify --par-merge:

StrategyBehaviorUse when
------------------------------
firstTake the first completed resultRacing scenario
concatConcatenate all results (array)Results are complementary
mergeDeep-merge objectsSame structure, merge fields

Seq Schema Compatibility Warning

> Known limitation: Seq composition requires the previous Gene's outputSchema to be compatible with the next Gene's inputSchema. The current version does not auto-validate — schema mismatches cause runtime errors.

>

> Recommendation: Before creating a Seq composition, manually compare adjacent Genes' inputSchema / outputSchema in phenotype.json to confirm field names and types match.

Nested Composition

Strategies can be nested:

Seq(
  Par(grammar-checker, readability-analyzer),
  tone-analyzer
)

Corresponding CLI:

rotifer agent create doc-qa \
  --genes grammar-checker readability-analyzer tone-analyzer \
  --composition Seq

> The current CLI only supports top-level composition strategies. Nested compositions require manual editing of .rotifer/agents/.json.


Phase 5: Agent Creation

Execute creation after confirming the composition plan.

Manual Gene Selection

rotifer agent create <name> \
  --genes <gene1> <gene2> <gene3> \
  --composition <Seq|Par|Cond|Try|TryPool> \
  --par-merge <first|concat|merge>

Auto-select Genes (by domain ranking)

rotifer agent create <name> \
  --domain <domain> \
  --top <n> \
  --composition <strategy>

After creation, verify the Agent configuration file .rotifer/agents/.json is correct.


Phase 6: Test Run

rotifer agent run <name> --input '{"text": "Test input content"}'

Validation checklist:

  • Does the output structure match the expected schema?
  • Were all Genes executed? (check logs)
  • Is schema passing correct in Seq composition?
  • Are Par merge results complete?
  • Do error paths (Try/TryPool) degrade correctly?

If results are unsatisfactory, proceed to Phase 7.


Phase 7: Iterative Optimization

ProblemOptimization
----------------------
One Gene's output quality is poorrotifer arena list --domain to find alternatives
Seq intermediate results missing fieldsCheck schema compatibility, consider inserting an adapter Gene
Par merge results are messySwitch --par-merge strategy
Latency too highSeq → Par (if Genes are independent)
Overall below expectationsRoute to rotifer-arena Skill for head-to-head Gene evaluation

Scenario Examples

Scenario 1: Document Quality Agent

Goal: Input text, output grammar issues + readability score + tone analysis.

Decomposition:

#CapabilityGeneDomain
----------------------------
1Grammar checkgrammar-checkercontent.grammar
2Readability analysisreadability-analyzercontent.readability
3Tone analysistone-analyzercontent.tone

Composition: All three accept text input, no dependencies → Par + concat.

rotifer agent create doc-quality \
  --genes grammar-checker readability-analyzer tone-analyzer \
  --composition Par \
  --par-merge concat

rotifer agent run doc-quality --input '{"text": "Document content to check..."}'

Scenario 2: Code Review Agent

Goal: Input code file, output security vulnerabilities + complexity report + documentation suggestions.

#CapabilityGeneDomain
----------------------------
1Security auditsecurity-auditorsecurity.audit
2Complexity analysiscode-complexitycode.analysis
3Documentation generationdocs-writercontent.docs

Composition: Security audit and complexity analysis can run in parallel, documentation depends on both → Seq(Par(1,2), 3).

rotifer agent create code-review \
  --genes security-auditor code-complexity docs-writer \
  --composition Seq

rotifer agent run code-review --input '{"code": "...", "language": "typescript"}'

> Note: The Par(security-auditor, code-complexity) merged output must be compatible with docs-writer's inputSchema. Manual verification required.

Scenario 3: Search & Summarize Agent

Goal: Input a search query, search → summarize → format output.

#CapabilityGeneDomain
----------------------------
1Web searchgenesis-web-searchsearch.web
2Text summarizationtext-summarizercontent.summarize
3Markdown formattingmarkdown-formattercontent.format

Composition: Strict serial pipeline → Seq.

rotifer agent create search-digest \
  --genes genesis-web-search text-summarizer markdown-formatter \
  --composition Seq

rotifer agent run search-digest --input '{"query": "Rotifer Protocol agent framework"}'

> Note the Seq schema chain: genesis-web-search output field names must match text-summarizer's inputSchema. Run cat genes/*/phenotype.json | jq '.inputSchema, .outputSchema' to verify before creating.


Related Skills

SkillRelationshipWhen to route
-----------------------------------
gene-devGene creation/developmentPhase 3 gap filling
rotifer-arenaGene comparison & evaluationPhase 7 when replacing underperforming Genes
genomeGenome quality analysisAfter Agent creation for overall assessment

Constraints

  • Agent configuration files are stored in .rotifer/agents/.json and should not be committed to Git
  • A single Agent should contain 2–6 Genes; more than 6 suggests splitting into multiple Agents
  • Seq schema compatibility is a known limitation — always verify manually before creating
  • Nested compositions require manual JSON editing; the CLI only supports top-level strategies

版本历史

共 1 个版本

  • v1.0.3 当前
    2026-05-07 18:27 安全 安全

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