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Author SHA1 Message Date
Hermes Pipeline 8a052b328d Add Skill: unifai-workflow-execution
Extracted from: https://github.com/redhat-community-ai-tools/UnifAI.git
Score: 1.0
2026-08-05 15:45:08 +00:00
21 changed files with 76 additions and 575 deletions
+2 -2
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@@ -34,8 +34,8 @@ scout:
- 'rag agent workflow'
- 'tool calling workflow'
filters:
stars_min: 10
pushed_after: 2026-02-01
stars_min: 15
pushed_after: 2026-05-01
language: Python
archived: false
size_max_kb: 10000
-12
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@@ -52,18 +52,6 @@ def publish_skill(review_result, config):
subprocess.run(["git", "config", "user.email", "hermes@agent.local"], cwd=repo_dir)
subprocess.run(["git", "config", "user.name", "Hermes Pipeline"], cwd=repo_dir)
# Check for duplicates in skills/ directory
skills_dir = os.path.join(repo_dir, "skills")
existing_skills = []
if os.path.isdir(skills_dir):
existing_skills = [d for d in os.listdir(skills_dir) if os.path.isdir(os.path.join(skills_dir, d))]
if skill_name in existing_skills:
return {
"status": "SKIP",
"reason": f"Skill '{skill_name}' already exists in skills/ directory",
}
# Create skill directory
skill_dir = os.path.join(repo_dir, "skills", skill_name)
os.makedirs(skill_dir, exist_ok=True)
-2
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@@ -137,8 +137,6 @@ def main():
if publish_output.get("status") == "PUBLISHED":
print(f" ✓ Published! PR: {publish_output.get('pr_url', '')}")
results["published"] += 1
elif publish_output.get("status") == "SKIP":
print(f" ⏸ Skipped: {publish_output.get('reason', '')}")
else:
print(f" ! {publish_output.get('status', '?')}: {publish_output.get('message', publish_output.get('error', ''))[:100]}")
-84
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@@ -1,84 +0,0 @@
---
name: agent-supervisor
version: 1.0.0
description: Demonstrate a supervisor-worker architecture for intelligent task delegation
and real-time decision-making.
inputs:
- name: OPENAI_API_KEY
description: OpenAI API key for language models.
- name: TAVILY_API_KEY
description: Tavily API key for search functionality.
steps:
- step: 1
action: Load environment variables.
details: Set the OPENAI_API_KEY and TAVILY_API_KEY environment variables.
- step: 2
action: Configure LangChain tools.
details: Initialize TavilySearchResults and PythonREPLTool.
- step: 3
action: Define agent nodes.
details: Create functions for the Researcher and Coder agents that process state
through their respective tasks.
- step: 4
action: Set up supervisor agent.
details: Create a supervisor agent function that decides which worker should act
next based on user input.
- step: 5
action: Build state graph.
details: Construct the state graph with nodes for each agent and edges connecting
them to the supervisor node.
- step: 6
action: Add conditional edges.
details: Define conditions for transitioning between agents based on their responses.
- step: 7
action: Compile graph.
details: Compile the state graph into a runnable workflow.
- step: 8
action: Run example queries.
details: Stream through the workflow with example inputs to demonstrate its functionality.
outputs:
- name: 'Example 1: Code Hello World'
description: A demonstration of coding a simple hello world program.
- name: 'Example 2: Research Report'
description: A demonstration of researching and writing a brief report on pikas.
tags: []
metadata:
source_repo: https://github.com/extrawest/multi_agent_workflow_demo_in_langgraph.git
extracted_at: ''
confidence: 0.9
---
# agent-supervisor
Demonstrate a supervisor-worker architecture for intelligent task delegation and real-time decision-making.
## Steps
1. {'step': 1, 'action': 'Load environment variables.', 'details': 'Set the OPENAI_API_KEY and TAVILY_API_KEY environment variables.'}
2. {'step': 2, 'action': 'Configure LangChain tools.', 'details': 'Initialize TavilySearchResults and PythonREPLTool.'}
3. {'step': 3, 'action': 'Define agent nodes.', 'details': 'Create functions for the Researcher and Coder agents that process state through their respective tasks.'}
4. {'step': 4, 'action': 'Set up supervisor agent.', 'details': 'Create a supervisor agent function that decides which worker should act next based on user input.'}
5. {'step': 5, 'action': 'Build state graph.', 'details': 'Construct the state graph with nodes for each agent and edges connecting them to the supervisor node.'}
6. {'step': 6, 'action': 'Add conditional edges.', 'details': 'Define conditions for transitioning between agents based on their responses.'}
7. {'step': 7, 'action': 'Compile graph.', 'details': 'Compile the state graph into a runnable workflow.'}
8. {'step': 8, 'action': 'Run example queries.', 'details': 'Stream through the workflow with example inputs to demonstrate its functionality.'}
## Inputs
- {'name': 'OPENAI_API_KEY', 'description': 'OpenAI API key for language models.'}
- {'name': 'TAVILY_API_KEY', 'description': 'Tavily API key for search functionality.'}
## Outputs
- {'name': 'Example 1: Code Hello World', 'description': 'A demonstration of coding a simple hello world program.'}
- {'name': 'Example 2: Research Report', 'description': 'A demonstration of researching and writing a brief report on pikas.'}
## Failure Modes
- {'mode': 'Invalid API keys', 'description': 'The workflow may fail if the provided API keys are invalid or expired.'}
- {'mode': 'Insufficient permissions', 'description': 'The workflow may fail if the user does not have sufficient permissions to use the Tavily search functionality.'}
## Source
Extracted from: [https://github.com/extrawest/multi_agent_workflow_demo_in_langgraph.git](https://github.com/extrawest/multi_agent_workflow_demo_in_langgraph.git)
Confidence: 0.9
-6
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@@ -1,6 +0,0 @@
# Commands: agent-supervisor
## Available Commands
- `/skill agent-supervisor` — Load this skill
- `/run agent-supervisor` — Execute workflow
-10
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@@ -1,10 +0,0 @@
# Examples: agent-supervisor
## Usage Example
```python
# How to use this skill
# Inputs: {'name': 'OPENAI_API_KEY', 'description': 'OpenAI API key for language models.'}, {'name': 'TAVILY_API_KEY', 'description': 'Tavily API key for search functionality.'}
# Process: {'step': 1, 'action': 'Load environment variables.', 'details': 'Set the OPENAI_API_KEY and TAVILY_API_KEY environment variables.'} → {'step': 2, 'action': 'Configure LangChain tools.', 'details': 'Initialize TavilySearchResults and PythonREPLTool.'} → {'step': 3, 'action': 'Define agent nodes.', 'details': 'Create functions for the Researcher and Coder agents that process state through their respective tasks.'}
# Outputs: {'name': 'Example 1: Code Hello World', 'description': 'A demonstration of coding a simple hello world program.'}, {'name': 'Example 2: Research Report', 'description': 'A demonstration of researching and writing a brief report on pikas.'}
```
-81
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@@ -1,81 +0,0 @@
{
"name": "agent-supervisor",
"version": "1.0.0",
"goal": "Demonstrate a supervisor-worker architecture for intelligent task delegation and real-time decision-making.",
"inputs": [
{
"name": "OPENAI_API_KEY",
"description": "OpenAI API key for language models."
},
{
"name": "TAVILY_API_KEY",
"description": "Tavily API key for search functionality."
}
],
"steps": [
{
"step": 1,
"action": "Load environment variables.",
"details": "Set the OPENAI_API_KEY and TAVILY_API_KEY environment variables."
},
{
"step": 2,
"action": "Configure LangChain tools.",
"details": "Initialize TavilySearchResults and PythonREPLTool."
},
{
"step": 3,
"action": "Define agent nodes.",
"details": "Create functions for the Researcher and Coder agents that process state through their respective tasks."
},
{
"step": 4,
"action": "Set up supervisor agent.",
"details": "Create a supervisor agent function that decides which worker should act next based on user input."
},
{
"step": 5,
"action": "Build state graph.",
"details": "Construct the state graph with nodes for each agent and edges connecting them to the supervisor node."
},
{
"step": 6,
"action": "Add conditional edges.",
"details": "Define conditions for transitioning between agents based on their responses."
},
{
"step": 7,
"action": "Compile graph.",
"details": "Compile the state graph into a runnable workflow."
},
{
"step": 8,
"action": "Run example queries.",
"details": "Stream through the workflow with example inputs to demonstrate its functionality."
}
],
"outputs": [
{
"name": "Example 1: Code Hello World",
"description": "A demonstration of coding a simple hello world program."
},
{
"name": "Example 2: Research Report",
"description": "A demonstration of researching and writing a brief report on pikas."
}
],
"failure_modes": [
{
"mode": "Invalid API keys",
"description": "The workflow may fail if the provided API keys are invalid or expired."
},
{
"mode": "Insufficient permissions",
"description": "The workflow may fail if the user does not have sufficient permissions to use the Tavily search functionality."
}
],
"confidence": 0.9,
"explanation": "This workflow demonstrates a hierarchical multi-agent system where a supervisor agent makes routing decisions based on user input, delegating tasks to specialized worker agents (Researcher and Coder). It is designed to be reusable for similar task delegation scenarios.",
"source_repo": "https://github.com/extrawest/multi_agent_workflow_demo_in_langgraph.git",
"score": 1.0
}
-9
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@@ -1,9 +0,0 @@
# Tests: agent-supervisor
## Test Checklist
- [ ] Workflow has at least 3 steps
- [ ] All inputs are defined
- [ ] All outputs are defined
- [ ] Failure modes are documented
- [ ] Skill can be loaded without errors
@@ -1,96 +0,0 @@
---
name: langgraph-multi-agent-router
version: 1.0.0
description: Orchestrate a multi-agent workflow where specialized agents collaborate
sequentially to gather information, structure it, and generate a final response
inputs:
- User query string (e.g., destination location)
- BedrockModel configuration (model_id, temperature, top_p)
- Pre-configured agents with specific system prompts and tool sets
steps:
- Researcher agent executes with system prompt to gather raw destination facts (places,
history, accommodations, food, web pages) using BedrockModel and available tools
(calculator, current_time)
- Travel guide agent receives raw research output and structures it into labeled sections
(Must-See Attractions, Historical Highlights, Accommodation Areas, Culinary Delights,
Suggested Web Pages)
- Writer agent receives the structured guide and synthesizes it into a professional
client-facing response with clear formatting and emphasis on the suggested web pages
outputs:
- Raw research data (JSON string containing gathered facts)
- Structured guide content (markdown-formatted travel guide with labeled sections)
- Final client response (professional formatted response ready for delivery)
tags: []
metadata:
source_repo: https://github.com/omerbsezer/Fast-LLM-Agent-MCP.git
extracted_at: ''
confidence: 0.95
---
# langgraph-multi-agent-router
Orchestrate a multi-agent workflow where specialized agents collaborate sequentially to gather information, structure it, and generate a final response
## Setup
**Dependencies:**
```text
pip install langchain langgraph bedrock-model pydantic
```
**Setup steps:**
1. Install langchain and langgraph packages
1. Configure BedrockModel with desired parameters (model_id, temperature, top_p)
1. Create three Agent instances with specific system prompts and tool sets
1. Initialize LangGraph with the agent chain and run the workflow
## Key Files
- `agents/langchain_langgraph/00-basic-agent/agent.py`
- `agents/langchain_langgraph/02-agent-with-tools-structured-output/agent.py`
- `agents/langchain_langgraph/08-langgraph-multi-agents-sequential-pattern/agent.py`
## Steps
1. Researcher agent executes with system prompt to gather raw destination facts (places, history, accommodations, food, web pages) using BedrockModel and available tools (calculator, current_time)
2. Travel guide agent receives raw research output and structures it into labeled sections (Must-See Attractions, Historical Highlights, Accommodation Areas, Culinary Delights, Suggested Web Pages)
3. Writer agent receives the structured guide and synthesizes it into a professional client-facing response with clear formatting and emphasis on the suggested web pages
## Implementation Details
```python
Researcher agent uses BedrockModel with temperature=0.7, top_p=0.9 to gather destination facts
```
```python
Travel guide agent receives raw output and formats into 5 labeled sections
```
```python
Writer agent takes structured guide and writes professional client response
```
## Inputs
- User query string (e.g., destination location)
- BedrockModel configuration (model_id, temperature, top_p)
- Pre-configured agents with specific system prompts and tool sets
## Outputs
- Raw research data (JSON string containing gathered facts)
- Structured guide content (markdown-formatted travel guide with labeled sections)
- Final client response (professional formatted response ready for delivery)
## Failure Modes
- Researcher agent fails to gather sufficient data or returns incomplete results
- Travel guide agent fails to structure information correctly or produces unreadable output
- Writer agent fails to format the final response properly or loses key information from the guide
## Source
Extracted from: [https://github.com/omerbsezer/Fast-LLM-Agent-MCP.git](https://github.com/omerbsezer/Fast-LLM-Agent-MCP.git)
Confidence: 0.95
@@ -1,6 +0,0 @@
# Commands: langgraph-multi-agent-router
## Available Commands
- `/skill langgraph-multi-agent-router` — Load this skill
- `/run langgraph-multi-agent-router` — Execute workflow
@@ -1,10 +0,0 @@
# Examples: langgraph-multi-agent-router
## Usage Example
```python
# How to use this skill
# Inputs: User query string (e.g., destination location), BedrockModel configuration (model_id, temperature, top_p), Pre-configured agents with specific system prompts and tool sets
# Process: Researcher agent executes with system prompt to gather raw destination facts (places, history, accommodations, food, web pages) using BedrockModel and available tools (calculator, current_time) → Travel guide agent receives raw research output and structures it into labeled sections (Must-See Attractions, Historical Highlights, Accommodation Areas, Culinary Delights, Suggested Web Pages) → Writer agent receives the structured guide and synthesizes it into a professional client-facing response with clear formatting and emphasis on the suggested web pages
# Outputs: Raw research data (JSON string containing gathered facts), Structured guide content (markdown-formatted travel guide with labeled sections), Final client response (professional formatted response ready for delivery)
```
@@ -1,29 +0,0 @@
{
"name": "langgraph-multi-agent-router",
"version": "1.0.0",
"goal": "Orchestrate a multi-agent workflow where specialized agents collaborate sequentially to gather information, structure it, and generate a final response",
"inputs": [
"User query string (e.g., destination location)",
"BedrockModel configuration (model_id, temperature, top_p)",
"Pre-configured agents with specific system prompts and tool sets"
],
"steps": [
"Researcher agent executes with system prompt to gather raw destination facts (places, history, accommodations, food, web pages) using BedrockModel and available tools (calculator, current_time)",
"Travel guide agent receives raw research output and structures it into labeled sections (Must-See Attractions, Historical Highlights, Accommodation Areas, Culinary Delights, Suggested Web Pages)",
"Writer agent receives the structured guide and synthesizes it into a professional client-facing response with clear formatting and emphasis on the suggested web pages"
],
"outputs": [
"Raw research data (JSON string containing gathered facts)",
"Structured guide content (markdown-formatted travel guide with labeled sections)",
"Final client response (professional formatted response ready for delivery)"
],
"failure_modes": [
"Researcher agent fails to gather sufficient data or returns incomplete results",
"Travel guide agent fails to structure information correctly or produces unreadable output",
"Writer agent fails to format the final response properly or loses key information from the guide"
],
"confidence": 0.95,
"explanation": "This workflow demonstrates a reusable multi-stage agent pattern where specialized agents collaborate in sequence. The Researcher agent gathers raw information using a domain-specific model, the Travel Guide agent structures that information into a consistent format, and the Writer agent synthesizes the final output. This pattern can be adapted to other domains (e.g., code generation, data analysis, research workflows) by swapping the agent types and system prompts while maintaining the same three-step structure.",
"source_repo": "https://github.com/omerbsezer/Fast-LLM-Agent-MCP.git",
"score": 1.0
}
@@ -1,9 +0,0 @@
# Tests: langgraph-multi-agent-router
## Test Checklist
- [ ] Workflow has at least 3 steps
- [ ] All inputs are defined
- [ ] All outputs are defined
- [ ] Failure modes are documented
- [ ] Skill can be loaded without errors
@@ -1,83 +0,0 @@
---
name: langgraph-workflow-creation
version: 1.0.0
description: Create a LangGraph workflow to gather facts using SerperDevTool and process
them with an AI agent.
inputs:
- API Key for SerperDevTool
- Search Query
steps:
- 'Step 1: Import necessary modules from langgraph and langchain libraries'
- 'Step 2: Create a LangGraph agent using `langgraph.create_react_agent` function
with SerperDevTool as the tool node'
- 'Step 3: Define the search query and pass it to the agent for fact gathering'
- 'Step 4: Process the gathered facts within the AI agent'
outputs:
- Processed Facts
tags: []
metadata:
source_repo: https://github.com/jkmaina/LangGraphProjects.git
extracted_at: ''
confidence: 0.95
---
# langgraph-workflow-creation
Create a LangGraph workflow to gather facts using SerperDevTool and process them with an AI agent.
## Setup
**Dependencies:**
```text
pip install langchain serperdev
```
**Setup steps:**
1. Install required libraries: pip install langchain serperdev
1. Add API key to .env file: OPENAPI_API_KEY=your_api_key
## Key Files
- `agent.py - Contains the LangGraph agent creation logic`
- `tool_node.py - Defines the SerperDevTool node`
## Steps
1. Step 1: Import necessary modules from langgraph and langchain libraries
2. Step 2: Create a LangGraph agent using `langgraph.create_react_agent` function with SerperDevTool as the tool node
3. Step 3: Define the search query and pass it to the agent for fact gathering
4. Step 4: Process the gathered facts within the AI agent
## Implementation Details
```python
import langgraph
from serperdev import SerperDevTool
def create_agent(api_key, query):
tool = SerperDevTool(api_key)
agent = langgraph.create_react_agent(tool=tool)
facts = agent.run(query)
return process_facts(facts)
```
## Inputs
- API Key for SerperDevTool
- Search Query
## Outputs
- Processed Facts
## Failure Modes
- API Key not provided
- Invalid Search Query
## Source
Extracted from: [https://github.com/jkmaina/LangGraphProjects.git](https://github.com/jkmaina/LangGraphProjects.git)
Confidence: 0.95
@@ -1,6 +0,0 @@
# Commands: langgraph-workflow-creation
## Available Commands
- `/skill langgraph-workflow-creation` — Load this skill
- `/run langgraph-workflow-creation` — Execute workflow
@@ -1,10 +0,0 @@
# Examples: langgraph-workflow-creation
## Usage Example
```python
# How to use this skill
# Inputs: API Key for SerperDevTool, Search Query
# Process: Step 1: Import necessary modules from langgraph and langchain libraries → Step 2: Create a LangGraph agent using `langgraph.create_react_agent` function with SerperDevTool as the tool node → Step 3: Define the search query and pass it to the agent for fact gathering
# Outputs: Processed Facts
```
@@ -1,26 +0,0 @@
{
"name": "langgraph-workflow-creation",
"version": "1.0.0",
"goal": "Create a LangGraph workflow to gather facts using SerperDevTool and process them with an AI agent.",
"inputs": [
"API Key for SerperDevTool",
"Search Query"
],
"steps": [
"Step 1: Import necessary modules from langgraph and langchain libraries",
"Step 2: Create a LangGraph agent using `langgraph.create_react_agent` function with SerperDevTool as the tool node",
"Step 3: Define the search query and pass it to the agent for fact gathering",
"Step 4: Process the gathered facts within the AI agent"
],
"outputs": [
"Processed Facts"
],
"failure_modes": [
"API Key not provided",
"Invalid Search Query"
],
"confidence": 0.95,
"explanation": "This workflow is specific to fact gathering and can be adapted for different search queries or tools.",
"source_repo": "https://github.com/jkmaina/LangGraphProjects.git",
"score": 1.0
}
@@ -1,9 +0,0 @@
# Tests: langgraph-workflow-creation
## Test Checklist
- [ ] Workflow has at least 3 steps
- [ ] All inputs are defined
- [ ] All outputs are defined
- [ ] Failure modes are documented
- [ ] Skill can be loaded without errors
+32 -66
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@@ -1,96 +1,62 @@
---
name: unifai-workflow-execution
version: 1.0.0
description: Execute a multi-agent workflow on the UnifAI platform using a specified
blueprint and user prompt.
description: Execute a multi-agent AI workflow defined in YAML or through the UI's
drag-and-drop editor.
inputs:
- blueprint_id or blueprint_name
- user_shortcut
- user_question
- name: blueprint_path
description: Path to the blueprint file (YAML) defining the multi-agent workflow.
- name: execution_mode
description: 'Execution mode: ''local'' or ''distributed''.'
steps:
- 'Step 1: Resolve the blueprint ID from either direct ID or name lookup (resolve_blueprint_id
method)'
- 'Step 2: Create a new session from the blueprint (create_session method)'
- 'Step 3: Submit the session for background execution with the user prompt (submit_session
method)'
- 'Step 4: Poll session status until execution completes (poll_session_status method)'
- step_name: Load Blueprint
description: Parse and validate the blueprint file to ensure it conforms to expected
structure.
- step_name: Initialize Execution Engine
description: Set up the execution engine based on the selected mode ('local' or
'distributed').
- step_name: Execute Workflow
description: Run the multi-agent workflow, streaming node-by-node output as NDJSON
over HTTP.
- step_name: Stream Results
description: Render and stream results in real time to clients subscribing to the
event stream.
outputs:
- session_id
- workflow_id
- name: execution_results
description: The output of the executed workflow, streamed as NDJSON over HTTP.
tags: []
metadata:
source_repo: https://github.com/redhat-community-ai-tools/UnifAI.git
extracted_at: ''
confidence: 0.95
confidence: 0.9
---
# unifai-workflow-execution
Execute a multi-agent workflow on the UnifAI platform using a specified blueprint and user prompt.
## Setup
**Dependencies:**
```text
pip install requests urllib3
```
**Setup steps:**
1. Install required dependencies using pip install requests urllib3
1. Ensure the environment variables are set correctly (BLUEPRINT_ID, BLUEPRINT_NAME, USER_SHORTCUT, POLLING_INTERVAL, UNIFAI_BASE_URL)
## Key Files
- `scripts/execution_workflow.py - Main script for workflow execution`
Execute a multi-agent AI workflow defined in YAML or through the UI's drag-and-drop editor.
## Steps
1. Step 1: Resolve the blueprint ID from either direct ID or name lookup (resolve_blueprint_id method)
2. Step 2: Create a new session from the blueprint (create_session method)
3. Step 3: Submit the session for background execution with the user prompt (submit_session method)
4. Step 4: Poll session status until execution completes (poll_session_status method)
## Implementation Details
```python
resolve_blueprint_id(client: UnifAIClient) -> str
{...}
# Resolve the blueprint ID from either direct ID or name lookup.
```
```python
create_session(client: UnifAIClient, blueprint_id: str) -> str
{...}
# Create a new session from the blueprint.
```
```python
submit_session(client: UnifAIClient, session_id: str) -> dict
{...}
# Submit the session for background execution with the user prompt.
```
1. {'step_name': 'Load Blueprint', 'description': 'Parse and validate the blueprint file to ensure it conforms to expected structure.'}
2. {'step_name': 'Initialize Execution Engine', 'description': "Set up the execution engine based on the selected mode ('local' or 'distributed')."}
3. {'step_name': 'Execute Workflow', 'description': 'Run the multi-agent workflow, streaming node-by-node output as NDJSON over HTTP.'}
4. {'step_name': 'Stream Results', 'description': 'Render and stream results in real time to clients subscribing to the event stream.'}
## Inputs
- blueprint_id or blueprint_name
- user_shortcut
- user_question
- {'name': 'blueprint_path', 'description': 'Path to the blueprint file (YAML) defining the multi-agent workflow.'}
- {'name': 'execution_mode', 'description': "Execution mode: 'local' or 'distributed'."}
## Outputs
- session_id
- workflow_id
- {'name': 'execution_results', 'description': 'The output of the executed workflow, streamed as NDJSON over HTTP.'}
## Failure Modes
- Blueprint name not found or not unique - error during blueprint resolution
- Session creation fails - error from API response
- Session submission fails - error from API response
- Polling session status fails - error from API response
- {'mode_name': 'Invalid Blueprint', 'description': 'Blueprint file is not valid YAML or does not conform to expected structure.'}
- {'mode_name': 'Execution Engine Initialization Failure', 'description': 'Failed to initialize the execution engine due to configuration issues or missing dependencies.'}
## Source
Extracted from: [https://github.com/redhat-community-ai-tools/UnifAI.git](https://github.com/redhat-community-ai-tools/UnifAI.git)
Confidence: 0.95
Confidence: 0.9
+3 -3
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@@ -4,7 +4,7 @@
```python
# How to use this skill
# Inputs: blueprint_id or blueprint_name, user_shortcut, user_question
# Process: Step 1: Resolve the blueprint ID from either direct ID or name lookup (resolve_blueprint_id method) → Step 2: Create a new session from the blueprint (create_session method) → Step 3: Submit the session for background execution with the user prompt (submit_session method)
# Outputs: session_id, workflow_id
# Inputs: {'name': 'blueprint_path', 'description': 'Path to the blueprint file (YAML) defining the multi-agent workflow.'}, {'name': 'execution_mode', 'description': "Execution mode: 'local' or 'distributed'."}
# Process: {'step_name': 'Load Blueprint', 'description': 'Parse and validate the blueprint file to ensure it conforms to expected structure.'} → {'step_name': 'Initialize Execution Engine', 'description': "Set up the execution engine based on the selected mode ('local' or 'distributed')."} → {'step_name': 'Execute Workflow', 'description': 'Run the multi-agent workflow, streaming node-by-node output as NDJSON over HTTP.'}
# Outputs: {'name': 'execution_results', 'description': 'The output of the executed workflow, streamed as NDJSON over HTTP.'}
```
+39 -16
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@@ -1,30 +1,53 @@
{
"name": "unifai-workflow-execution",
"version": "1.0.0",
"goal": "Execute a multi-agent workflow on the UnifAI platform using a specified blueprint and user prompt.",
"goal": "Execute a multi-agent AI workflow defined in YAML or through the UI's drag-and-drop editor.",
"inputs": [
"blueprint_id or blueprint_name",
"user_shortcut",
"user_question"
{
"name": "blueprint_path",
"description": "Path to the blueprint file (YAML) defining the multi-agent workflow."
},
{
"name": "execution_mode",
"description": "Execution mode: 'local' or 'distributed'."
}
],
"steps": [
"Step 1: Resolve the blueprint ID from either direct ID or name lookup (resolve_blueprint_id method)",
"Step 2: Create a new session from the blueprint (create_session method)",
"Step 3: Submit the session for background execution with the user prompt (submit_session method)",
"Step 4: Poll session status until execution completes (poll_session_status method)"
{
"step_name": "Load Blueprint",
"description": "Parse and validate the blueprint file to ensure it conforms to expected structure."
},
{
"step_name": "Initialize Execution Engine",
"description": "Set up the execution engine based on the selected mode ('local' or 'distributed')."
},
{
"step_name": "Execute Workflow",
"description": "Run the multi-agent workflow, streaming node-by-node output as NDJSON over HTTP."
},
{
"step_name": "Stream Results",
"description": "Render and stream results in real time to clients subscribing to the event stream."
}
],
"outputs": [
"session_id",
"workflow_id"
{
"name": "execution_results",
"description": "The output of the executed workflow, streamed as NDJSON over HTTP."
}
],
"failure_modes": [
"Blueprint name not found or not unique - error during blueprint resolution",
"Session creation fails - error from API response",
"Session submission fails - error from API response",
"Polling session status fails - error from API response"
{
"mode_name": "Invalid Blueprint",
"description": "Blueprint file is not valid YAML or does not conform to expected structure."
},
{
"mode_name": "Execution Engine Initialization Failure",
"description": "Failed to initialize the execution engine due to configuration issues or missing dependencies."
}
],
"confidence": 0.95,
"explanation": "This workflow is specific to the UnifAI platform and its multi-agent system, but can be adapted for similar systems with a similar architecture.",
"confidence": 0.9,
"explanation": "This workflow is designed to execute multi-agent AI workflows defined in YAML blueprints or through the UI's drag-and-drop editor, providing real-time streaming of results.",
"source_repo": "https://github.com/redhat-community-ai-tools/UnifAI.git",
"score": 1.0
}