Catalog
crewAIInc/design-agent

crewAIInc

design-agent

CrewAI agent design and configuration. Use when creating, configuring, or debugging crewAI agents — choosing role/goal/backstory, selecting LLMs, assigning tools, tuning max_iter/max_rpm/max_execution_time, enabling planning/delegation, setting up knowledge sources, using guardrails, or configuring agents in YAML vs code.

v1.0LATEST
NewUpdated Oct 13, 2026

CrewAI Agent Design Guide

How to design effective agents with the right role, goal, backstory, tools, and configuration.

Verified against crewai 1.15.23 on 2026-10-01. Live-tested with real LLMs on 2026-10-01.

Exact API forms (imports, defaults, provider extras, structured output) are in the check-crewai-api skill, and tools and MCP are in connect-tools-and-mcp. Where this skill and those disagree, follow them.


The 80/20 Rule

Spend 80% of your effort on task design, 20% on agent design. A well-designed task elevates even a simple agent. But even the best agent cannot rescue a vague, poorly scoped task. Get the task right first (see the design-task skill), then refine the agent.


0. How Many Agents Do You Actually Need?

Default to ONE agent. Add more only when the task genuinely splits into work that requires:

  • Different tools or permissions — e.g. one agent has Slack write access, another reads docs only.
  • Different personas the LLM must clearly switch between — a writer's voice is not a researcher's voice.
  • Different LLMs — a cheap model for mechanical steps, a stronger one for synthesis.
  • Different guardrails or output schemas — separate agents make the contract per stage explicit.

DO NOT add an agent just because the workflow has multiple steps. A single agent can call multiple tools in sequence within one kickoff (search → scrape → summarize is one agent's loop), produce structured multi-section output in one response, and iterate via its own tool-use loop.

Cost calculus: every extra agent = at least one more LLM kickoff plus a context handoff. Splitting linear, single-persona work into multiple agents multiplies token cost and adds fragility for marginal quality wins.

Anti-patterns

❌ Three agents for what is one researcher's job:

source_finder = Agent(role="Finds URLs via Firecrawl search", tools=[firecrawl_search])
scraper       = Agent(role="Scrapes URLs via Firecrawl scrape", tools=[firecrawl_scrape])
writer        = Agent(role="Writes the report")  # plus goal, backstory, llm

✅ One researcher does the gathering loop; one writer synthesizes — two agents because the personas and LLMs genuinely differ:

researcher = Agent(role="Web Researcher", tools=[firecrawl_search, firecrawl_scrape], llm="anthropic/claude-haiku-4-5")
writer     = Agent(role="Technical Report Writer",                                    llm="anthropic/claude-sonnet-4-6")

❌ A Summarizer agent plus a Slack Sender agent (apps=["slack"]) to summarize a string and DM it. ✅ One Slack Reporter agent with apps=["slack"] and a task: "Write a 2-3 sentence executive summary at the top, then DM {recipient_email} the summary followed by the full body."

Heuristic: if two "agents" share the same persona, the same tool surface, and the same LLM, they are one agent with a longer task description.

Once you've decided "one agent is enough"

Use Agent.kickoff() directly inside a Flow method - no Crew, no Task ceremony. The Flow owns sequencing and state; each step is a single agent kickoff (Flow mechanics: build-flow skill; docs: https://docs.crewai.com/en/concepts/agents#direct-agent-interaction-with-kickoff).

@listen(previous_step)
def my_step(self):
    agent = Agent(role="…", goal="…", backstory="…", tools=[...], llm="anthropic/claude-haiku-4-5")
    result = agent.kickoff(
        f"Use this prior step's output: {self.state.prior_field}",
        response_format=MyPydanticModel,  # optional
    )
    self.state.my_field = result.pydantic  # or result.raw

Reach for Crew.kickoff() only when a step genuinely benefits from multi-agent collaboration (delegation, hierarchical management, parallel specialists feeding one synthesis), or when the agent needs something that only works inside a crew task: knowledge sources and max_execution_time (Section 2).


1. The Role-Goal-Backstory Framework

Every agent needs three things: who it is, what it wants, and why it's qualified. {placeholders} in all three are filled from crew.kickoff(inputs={...}).

Role — Who the Agent Is

The role defines the agent's area of expertise. Be specific, not generic.

Bad Good
Researcher Senior Data Researcher specializing in {topic}
Writer Technical Blog Writer for developer audiences
Analyst Financial Risk Analyst with regulatory compliance expertise

The role directly shapes how the LLM reasons. A "Senior Data Researcher" will produce different output than a "Research Assistant" even with the same task.

Goal — What the Agent Wants

The goal is the agent's individual objective. It should be outcome-focused with quality standards.

Bad Good
Do research Uncover cutting-edge developments in {topic} and identify the top 5 trends with supporting evidence
Write content Produce publication-ready technical articles that explain complex topics clearly for non-technical readers
Analyze data Deliver actionable risk assessments with confidence levels and recommended mitigations

Backstory — Why the Agent Is Qualified

The backstory establishes expertise, experience, values, and working style. It's the agent's "personality prompt."

backstory: >
  You're a seasoned researcher with 15 years of experience in AI/ML.
  You're known for your ability to find obscure but relevant papers
  and synthesize complex findings into clear, actionable insights.
  You always cite your sources and flag uncertainty explicitly.

Include: years/depth of experience, specific domain knowledge, working style and values ("always cites sources", "prefers concise output"), and the quality standards the agent holds itself to.

Leave out: implementation details (tools, models, config), task-specific instructions (those go in the task description), and personality traits that don't affect output quality.


2. Agent Configuration Reference

Agent silently ignores keyword arguments it does not know, so a misspelled or removed parameter does nothing and raises nothing. Check "name" in Agent.model_fields when in doubt.

Agent(
    role="...", goal="...", backstory="...",   # Required
    llm="anthropic/claude-haiku-4-5",          # See LLM Selection
    tools=[...],                               # Tool instances
    max_iter=25,             # Max reasoning iterations per task (default: 25)
    max_execution_time=300,  # Seconds, crew tasks only (default: None - no limit)
    max_rpm=10,              # Max LLM calls per minute for this agent (default: None)
    max_retry_limit=2,       # Retries when task execution errors (default: 2)
    allow_delegation=False,  # Default: False — agent works alone
    respect_context_window=True,  # Summarize and continue on overflow (default: True)
    inject_date=False,       # Put today's date in the prompt (default: False; format via date_format)
    verbose=False,           # Detailed execution logs (default: False)
)

Execution limits (measured on 1.15.23)

Limit Behaviour
max_iter Reaching it does not raise. The agent is told to give its final answer now, and the run "succeeds" with whatever it has. With max_iter=1, a four-step tool procedure recorded one step and returned an incomplete answer.
max_rpm Calls over the limit block until the next minute window. With max_rpm=2, the third LLM call started at 62 s instead of about 2 s.
max_execution_time Applies only when the agent runs a Task inside a Crew; Agent.kickoff() ignores it (a 5 s limit with a 15 s tool completed normally after 17 s). In a crew it does not stop work at the deadline: the running tool and LLM calls finish, then the task raises TimeoutError: Task '...' execution timed out after 5 seconds (raised at 18.8 s), and the finished work is discarded.

So max_execution_time turns a slow run into an error but does not stop a hang. To bound wall-clock time, set timeouts where the time is spent: LLM(model=..., timeout=60) and timeouts inside your tools, or run the kickoff in a subprocess you can kill.

Tuning max_iter: the default 25 is generous - most tasks finish in 3-8 iterations. Lower it to 10-15 to fail faster when tasks are well-defined. If an agent keeps hitting it, the task is too vague (fix the task, not the limit). Hitting it does not raise, so check outputs, not exit codes.

Other switches: respect_context_window=True summarizes the conversation and continues when the provider reports that the context length was exceeded; with False the run stops with SystemExit: Context length exceeded .... inject_date=True is worth it for time-sensitive tasks (research, news, scheduling): asked for today's date, an agent with it answered correctly, and one without it answered UNKNOWN.

Tools

  • An agent with no tools will hallucinate data when asked to search, fetch, or read files - always provide tools for tasks that require external data.
  • Prefer fewer, focused tools - too many tools confuses the agent.
  • Agent-level tools are available for all tasks the agent performs. Task(tools=[...]) replaces them for that task. In a live test, an agent with a weather tool given a task with only a population tool could call only the population tool.
  • Prebuilt tools need their keys (SerperDevTool() needs SERPER_API_KEY). Custom tools, the crewai_tools names that really exist, caching and MCP servers: connect-tools-and-mcp.

LLM Selection

from crewai import LLM

Agent(..., llm="anthropic/claude-haiku-4-5")
Agent(..., llm=LLM(model="anthropic/claude-haiku-4-5", temperature=0.2, timeout=60))
  • With no llm=, the agent uses env MODEL, then MODEL_NAME, then OPENAI_MODEL_NAME, else gpt-4.1-mini. That is an OpenAI model, so kickoff fails without OPENAI_API_KEY.
  • Only OpenAI ships with core crewai. anthropic/... needs uv add "crewai[anthropic]", gemini/... needs crewai[google-genai], and non-native providers need crewai[litellm] (full table in check-crewai-api).
  • Give mechanical agents a cheaper model. function_calling_llm (a separate model for tool calls) is deprecated on both Agent and Crew - set each agent's llm instead.

Collaboration

Set allow_delegation=True only when the agent is part of a crew with other specialized agents, the task genuinely benefits from handing off subtasks, or you're using hierarchical process where the manager delegates. Warning: delegation without clear task boundaries leads to infinite loops or wasted iterations.

Planning (Plan-and-Execute Mode)

With a PlanningConfig, the agent first generates a plan (a list of steps), executes each step in its own multi-turn loop (capped by max_step_iterations), checks each result, then continues, replans, or finishes early.

from crewai import Agent
from crewai.agent.planning_config import PlanningConfig

agent = Agent(
    role="…", goal="…", backstory="…", tools=[...],
    planning_config=PlanningConfig(reasoning_effort="medium"),  # most common
)

To disable planning, omit planning_config. planning=True alone is shorthand for PlanningConfig(reasoning_effort="low", max_attempts=1). reasoning=True is deprecated (DeprecationWarning) - use planning_config.

reasoning_effort After each step the planner... Pick when
"low" checks the step with a heuristic (no extra LLM call) and continues. No replan, no refine. You want plan visibility (todos, observations) but trust the agent to follow it linearly. Fastest.
"medium" (default) observes the step with an LLM call; replans on failure only. The agent's tools can fail (network, exec, scrape) and you want graceful recovery. The right default for sandbox-coding, research, and other tool-heavy loops.
"high" observes, then can finish early, replan fully, or refine the plan after every step. The task changes shape based on intermediate findings, or you need maximum adaptiveness. Most LLM calls per run.
PlanningConfig(
    reasoning_effort="medium",
    observe_steps=None,      # None = LLM observation for medium/high, heuristic for low
    max_steps=20,            # cap on planned steps
    max_replans=3,           # full re-plans before finalizing
    max_attempts=None,       # refinement attempts during plan generation
    max_step_iterations=15,  # LLM turns per step
    step_timeout=None,       # wall-clock seconds per step
    system_prompt=None, plan_prompt=None, refine_prompt=None,  # custom prompts
    llm=None,                # separate (cheaper) LLM for planning; else agent.llm
)

When to enable: for autonomous loops where the agent picks its own steps and you want failure recovery (a coding agent that writes → runs → patches; a research agent that searches → scrapes → revises). Skip it for single-tool, single-purpose calls ("summarize this string", "post this Slack DM").

Cost: In one measured run, planning added 3-7 calls to a two-step task and wrapped the answer in prose. Measure on your own tasks before turning it on.

Code Execution

allow_code_execution and code_execution_mode are deprecated no-ops (allow_code_execution=True emits a DeprecationWarning), and CodeInterpreterTool no longer exists in crewai_tools. Give the agent a sandbox tool such as E2BPythonTool or DaytonaPythonTool instead (see connect-tools-and-mcp).

Agent Guardrails

from typing import Any

def require_uppercase(result) -> tuple[bool, Any]:
    if result.raw != result.raw.upper():
        return (False, "Rewrite the whole answer in UPPERCASE letters only.")
    return (True, result.raw)

agent = Agent(..., guardrail=require_uppercase, guardrail_max_retries=3)  # default retries: 3
result = agent.kickoff("...")   # the agent guardrail runs here

A guardrail can also be a string, which is checked by an extra LLM call. Agent guardrails have two limits on 1.15.23, both verified with a real LLM:

  • They run only on Agent.kickoff(). When the same agent executes a Task in a Crew, the agent guardrail is never called.
  • On crewai 1.15.23 the agent-level guardrail retry re-sent the original prompt without the feedback, and all three attempts failed the uppercase check above. Prefer a task-level guardrail, which passes the feedback. When retries run out, kickoff raises ValueError: Agent's guardrail failed validation after N retries. Last error: ....

When output must be fixed and not just rejected, put the guardrail on the Task (Task(guardrail=..., guardrail_max_retries=...)). The error message is fed back there, and the same uppercase check passed on the second attempt. See design-task and check-crewai-api.

Knowledge Sources

from crewai.knowledge.source.text_file_knowledge_source import TextFileKnowledgeSource

Agent(
    ...,
    knowledge_sources=[TextFileKnowledgeSource(file_paths=["company_handbook.txt"])],  # read from ./knowledge/
    embedder={"provider": "onnx"},   # local, no API key; omit it to use OpenAI embeddings
)

Knowledge sources give agents domain-specific data via RAG. Use them when agents need to reference large documents, policies, or datasets. Two things to know:

  • Agent knowledge is only queried when the agent runs a task inside a Crew. Agent.kickoff() silently ignores knowledge_sources. In a live test, the same agent answered "UNKNOWN" from kickoff() and correctly from a one-task crew.
  • Without embedder=, knowledge uses OpenAI embeddings. With no OPENAI_API_KEY, agent knowledge raises ValueError: Invalid Knowledge Configuration at crew kickoff. Crew-level knowledge only logs Failed to upsert documents and runs without it.

Embedders that work without OpenAI, KnowledgeConfig, memory and storage paths: references/memory-and-knowledge.md.


Define agents in agents.yaml for clean separation of config and code. Create a YAML project with crewai create crew <name> --classic. Without --classic, crewai create crew starts an interactive wizard that writes a JSON project instead.

researcher:
  role: >
    {topic} Senior Data Researcher
  goal: >
    Uncover cutting-edge developments in {topic}
    with supporting evidence and source citations
  backstory: >
    You're a seasoned researcher with 15 years of experience.
    Known for finding obscure but relevant sources and
    synthesizing complex findings into clear insights.
    You always cite your sources and flag uncertainty.
  # Optional overrides: llm: anthropic/claude-haiku-4-5, max_iter: 15, max_rpm: 10,
  # allow_delegation: false, verbose: true

Then wire in crew.py:

@CrewBase
class MyCrew:
    agents_config = "config/agents.yaml"
    tasks_config = "config/tasks.yaml"

    @agent
    def researcher(self) -> Agent:
        return Agent(config=self.agents_config["researcher"], tools=[SerperDevTool()])

Critical: The method name (def researcher) must match the YAML key (researcher:). Mismatch causes KeyError (verified: KeyError: 'researcher').

Verified live: llm and max_iter set in YAML are applied, {topic} in the role is filled at kickoff, and tools attach in Python. Keep tools, guardrail functions and Pydantic models in Python; YAML holds the text and scalar settings.


4. Agent.kickoff() — Direct Agent Execution

Use Agent.kickoff() when you need one agent with tools and reasoning, without crew overhead. This is the most common pattern in Flows. It does not use the agent's knowledge sources or max_execution_time (Section 2).

from pydantic import BaseModel
from crewai import Agent

researcher = Agent(
    role="Senior Research Analyst",
    goal="Find comprehensive, factual information with source citations",
    backstory="Expert researcher known for thorough, evidence-based analysis.",
    tools=[...],
    llm="anthropic/claude-haiku-4-5",
)

result = researcher.kickoff("What are the latest developments in quantum computing?")
print(result.raw)             # str — the agent's full response
print(result.usage_metrics)   # dict: total_tokens, prompt_tokens, completion_tokens, ...

class ResearchFindings(BaseModel):
    key_trends: list[str]
    sources: list[str]
    confidence: float

result = researcher.kickoff("Research the latest AI agent frameworks", response_format=ResearchFindings)
print(result.pydantic.key_trends, result.pydantic.confidence)

result = await researcher.kickoff_async("...", response_format=ResearchFindings)  # async variant

Note: Agent.kickoff() returns LiteAgentOutput - access structured output via result.pydantic. This differs from llm.call(messages, response_model=Model), which returns the Pydantic object directly. Agent.kickoff(..., response_model=...) is a TypeError.

File inputs need an extra: uv add "crewai[file-processing]", then from crewai_files import FileInput and researcher.kickoff("Summarize this document", input_files={"document": FileInput(path="report.pdf")}). Without the extra, the import fails with ModuleNotFoundError: No module named 'crewai_files'.

Agent.kickoff() vs Crew.kickoff(): use Agent.kickoff() when each step is a distinct agent and a Flow controls sequencing (the Section 0 shape - verified live as a two-step Flow). Use Crew.kickoff() when multiple agents collaborate on related tasks within a single step, or the agent needs knowledge sources or max_execution_time.

Agents in Conversational Flow Routes

In conversational Flows (from crewai.flow import ConversationState), the Flow owns the chat lifecycle and route selection. Call agents inside route handlers for bounded tool-backed work: research, docs lookup, account actions, triage, drafting, or escalation prep. The mechanics (handle_turn, ConversationConfig, a tested example) are in the build-flow skill's conversational-flows reference.

Design implications:

  • Keep the conversational Flow responsible for session id, message history, routing, trace finalization, and approvals.
  • Keep each agent narrow: one route, one tool surface, one job.
  • Use self.append_agent_result(name, result, visibility="private") for scratch work that should not enter canonical chat history.
  • Return the user-visible reply from the handler (or call self.append_assistant_message(reply)) so the next turn has the assistant context.
  • Do not make a "chat agent" with every tool. Route first, then invoke a focused agent for the selected route.

5. Specialist vs Generalist Agents

Apply this section after you've decided you genuinely need multiple agents (Section 0). With one agent, the only question is how to design that agent.

When you do need multiple agents, prefer specialists. An agent that does one thing well outperforms one that does many things acceptably. Use a specialist when the task needs deep domain knowledge, quality matters more than speed, or the task is complex enough to benefit from focused expertise. A generalist is acceptable for simple tasks with clear instructions, for prototyping you'll specialize later, and for tasks that truly span several domains equally.

Instead of one "Content Writer" agent, create technical_writer (technical accuracy, code examples), copywriter (persuasive, audience-focused copy) and editor (grammar, consistency, style guide). Each has a narrow role, specific goal, and a backstory that reinforces that expertise.


6. Agent Interaction Patterns

Sequential (default): Researcher → Writer → Editor. Agents work one after another, and each receives prior outputs as context. Best for linear pipelines where each step builds on the last.

Hierarchical: a manager agent delegates and validates; task assignment is dynamic. Best for complex workflows where assignment depends on intermediate results.

Crew(
    agents=[researcher, writer, editor],
    tasks=[research_task, writing_task, editing_task],
    process=Process.hierarchical,
    manager_llm="anthropic/claude-haiku-4-5",   # or manager_agent=...; one is required
)

Without manager_llm or manager_agent, Crew(...) raises a ValidationError.

Agent-to-agent delegation: with allow_delegation=True, an agent gets two tools, Delegate work to coworker and Ask question to coworker, that name the other crew members. Verified live: asked to get a sentence from the Writer, a lead agent called ask_question_to_coworker and returned the Writer's answer.


7. Common Agent Design Mistakes

Mistake Impact Fix
Generic role like "Assistant" Agent produces unfocused, shallow output Use specific expertise: "Senior Financial Analyst"
No tools for data-gathering tasks Agent hallucinates data instead of searching Always add tools when the task requires external info
Too many tools (10+) Agent gets confused choosing between tools Limit to 3-5 relevant tools per agent
Backstory full of task instructions Agent mixes personality with task execution Keep backstory about WHO the agent is; task details go in the task
allow_delegation=True by default Agents waste iterations delegating trivially Only enable when delegation genuinely helps
max_iter too high for simple tasks Agent loops unnecessarily on vague tasks Lower max_iter; fix the task description instead
No guardrail on critical output Bad output passes through unchecked Add a Task guardrail for outputs that feed into production systems
Agent guardrail on an agent used in a Crew Guardrail never runs Put the guardrail on the Task
Trusting max_execution_time to stop a hang It raises only after the slow call returns, and Agent.kickoff() ignores it Add LLM and tool timeouts
Knowledge sources on an agent run via Agent.kickoff() Knowledge silently unused Run it as a crew task, or put the facts in the prompt
No llm= and no OpenAI key Kickoff fails: the default is OpenAI gpt-4.1-mini Set llm= (or env MODEL) and install the provider extra
Planning on a simple task 2-3x the LLM calls, sometimes a worse answer Enable planning only for open-ended tool loops

8. Agent Design Checklist

Before deploying an agent, verify:

  • Role is specific and domain-focused (not "Assistant" or "Helper")
  • Goal includes desired outcome AND quality standards
  • Backstory establishes expertise and working style
  • Tools are assigned for any task requiring external data
  • No excess tools — 3-5 per agent maximum
  • max_iter is tuned for expected task complexity (10-15 for simple, 20-25 for complex)
  • Timeouts are set where time is spent (LLM timeout, tool timeouts); max_execution_time is only a backstop for crew tasks
  • Guardrails for critical outputs are on the Task
  • LLM is set explicitly, fits the task's complexity, and has its provider extra installed
  • Knowledge has an explicit embedder, and the agent runs inside a crew
  • Delegation is disabled unless genuinely needed

References

For deeper dives into specific topics, see:

  • Custom Tools — building your own tools with @tool decorator and BaseTool subclass
  • Memory & Knowledge - memory, knowledge sources, embedders that work without OpenAI, storage, scoping

For related skills:

  • check-crewai-api - current imports, parameters, defaults and provider extras
  • connect-tools-and-mcp - custom tools, real crewai_tools names, caching, MCP servers
  • build-flow - Flow state, routing, persistence, conversational flows
  • getting-started - project scaffolding, choosing the right abstraction
  • design-task — task description/expected_output best practices, guardrails, structured output, dependencies
  • test-crewai-project - testing agents and crews offline with a stub LLM
  • ask-docs - query the live CrewAI docs for questions not covered by these skills
Files3
3 files · 20.0 KB

Select a file to preview

Overall Score

88/100

Grade

A

Excellent

Grades are signals, not a certification. Always review a skill yourself before use.

Safety

90

Quality

87

Clarity

88

Completeness

84

Summary

A comprehensive guide to designing CrewAI agents, covering role/goal/backstory framework, configuration (LLM selection, execution limits, tools, planning, guardrails), YAML setup, direct kickoff patterns, and multi-agent workflows. The skill teaches agent specialization, proper scoping of multi-agent systems, and common pitfalls with clear examples and verified behavioral notes.

Detected Capabilities

reads crewai documentation and configurationcode analysis and instructionconfiguration guidance (YAML, Python)agent design patternsreference integration across related skills

Trigger Keywords

Phrases that agents use to match this skill to user intent.

design crewai agentagent role goal backstorymulti-agent vs single agentagent llm selectionagent guardrailsknowledge sources embedderagent planning configagent max_iter tuning

Risk Signals

INFO

References external OpenAI API endpoints (gpt-4.1-mini, text-embedding-3-large) but treats OpenAI key absence as common/expected scenario

Section 2: LLM Selection, Section 3: YAML, references/memory-and-knowledge.md Section 4
INFO

Knowledge sources silently ignored when agent runs via Agent.kickoff() but work in Crew - documented but confusing behavior

Section 2: Knowledge Sources, references/memory-and-knowledge.md Section 1
INFO

max_execution_time only applies to Crew tasks, not Agent.kickoff() - potential for user misunderstanding

Section 2: Execution limits
WARNING

Agent guardrails do not run when agent executes inside a Crew task - must use Task guardrails instead

Section 2: Agent Guardrails

Referenced Domains

External domains referenced in skill content, detected by static analysis.

docs.crewai.comlocalhostyour-resource.openai.azure.com

Use Cases

  • - Designing single-agent systems optimized for search, research, or tool-backed reasoning - Choosing between single vs multi-agent architectures with clear trade-offs - Configuring agent role, goal, backstory, and execution limits (max_iter, max_rpm, planning) - Selecting LLMs for agents and setting up provider extras (Anthropic, Google, etc.) - Integrating knowledge sources, embedders, and memory for domain-specific agents - Building hierarchical or delegating multi-agent crews with process types - Implementing agent guardrails and validating critical outputs - Troubleshooting common design mistakes (generic roles, no tools for data tasks, etc.)

Quality Notes

  • Excellent use of concrete anti-patterns with side-by-side ✅/❌ examples
  • Verified against crewai 1.15.23 with live LLM tests and explicit version dates
  • Clear hierarchy from 80/20 rule through multi-agent pitfalls to final checklist
  • Embedded reference files (custom-tools.md, memory-and-knowledge.md) provide deep dives without bloating main skill
  • Table-based behavior documentation (max_iter, max_rpm, max_execution_time) is precise and measured
  • Comprehensive agent design checklist (8 items) provides clear go/no-go criteria
  • Cross-skill references (check-crewai-api, connect-tools-and-mcp, etc.) are explicit and scoped
  • Section 5 on Specialist vs Generalist is pragmatic and avoids dogma
  • Failure modes table (Section 4, memory ref) is actionable and specific to version behavior
  • Glossary-like reference sections make the skill quickly referenceable for experienced users
Model: claude-haiku-4-5-20251001Analyzed: Oct 13, 2026

Reviews

Add this skill to your library to leave a review.

No reviews yet

Be the first to share your experience.

Use crewAIInc/design-agent in your dev environment

Command Palette

Search for a command to run...