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import json | |
import os | |
from dotenv import load_dotenv | |
from langchain_core.messages import (AIMessage, HumanMessage, SystemMessage, | |
ToolMessage) | |
from langchain_huggingface import ChatHuggingFace, HuggingFaceEndpoint | |
from langgraph.graph import START, MessagesState, StateGraph | |
from langgraph.prebuilt import ToolNode, tools_condition | |
from tools import (absolute, add, analyze_csv_file, analyze_excel_file, | |
arxiv_search, audio_transcription, compound_interest, | |
convert_temperature, divide, download_file, exponential, | |
extract_text, factorial, floor_divide, | |
get_current_time_in_timezone, greatest_common_divisor, | |
is_prime, least_common_multiple, logarithm, modulus, | |
multiply, percentage_calculator, power, python_code_parser, | |
reverse_sentence, roman_calculator_converter, square_root, | |
subtract, web_content_extract, web_search, wikipedia_search) | |
# Load Constants | |
load_dotenv() | |
HUGGINGFACEHUB_API_TOKEN = os.getenv("HUGGINGFACEHUB_API_TOKEN") | |
GEMINI_API_KEY = os.getenv("GEMINI_API_KEY") | |
OPENAI_API_KEY = os.getenv("OPENAI_API_KEY") | |
# os.environ["OPENAI_API_KEY"] = OPENAI_API_KEY | |
tools = [ | |
multiply, add, subtract, power, divide, modulus, | |
square_root, floor_divide, absolute, logarithm, | |
exponential, web_search, roman_calculator_converter, | |
get_current_time_in_timezone, compound_interest, | |
convert_temperature, factorial, greatest_common_divisor, | |
is_prime, least_common_multiple, percentage_calculator, | |
wikipedia_search, analyze_excel_file, arxiv_search, | |
audio_transcription, python_code_parser, analyze_csv_file, | |
extract_text, | |
reverse_sentence, web_content_extract, | |
download_file, | |
] | |
# Updated system prompt for cleaner output | |
system_prompt = """ | |
# AI Agent System Prompt | |
You are an advanced AI agent equipped with multiple tools to solve complex, multi-step problems. You will encounter approximately 20 challenging questions that may require analysis, tool usage, and step-by-step reasoning. | |
## Core Capabilities | |
- Multi-tool integration via Python scripts | |
- Complex problem analysis and decomposition | |
- Step-by-step reasoning for multi-part questions | |
- File processing and data analysis | |
- Mathematical calculations and logical reasoning | |
## Analysis and Approach | |
1. **Question Analysis**: Always analyze the question first to understand: | |
- What information is being requested | |
- What tools or data sources might be needed | |
- Whether the question has multiple parts or steps | |
- If any preprocessing or data gathering is required | |
- **Text manipulation requirements** (reversing text, encoding/decoding, transformations) | |
- Hidden instructions or patterns within the question itself | |
2. **Pre-processing Steps**: Before attempting to answer, determine if the question requires: | |
- Text reversal or character manipulation | |
- Decoding or encoding operations | |
- Pattern recognition or extraction | |
- Format conversions or transformations | |
- String operations or text processing | |
3. **Tool Selection and Evaluation**: Before using any tool, systematically evaluate all available options: | |
- **Review ALL available tools** in your toolkit before making a selection | |
- **Match tool capabilities** to the specific requirements of your current step | |
- **Choose the most appropriate tool** for each task from the complete toolkit | |
- **Plan multi-tool sequences** - many questions require 2-5 tools in various combinations | |
- **Consider tool order flexibility** - tools can be used in any sequence that makes logical sense | |
- **Validate tool choice** - ensure the selected tool is the optimal match for your needs | |
- Examples of multi-tool workflows: | |
- reserve_sentence -> read the reversed question and answer it. | |
- download_file -> analyze_csv_file -> add -> percentage_calculator | |
- reverse_sentence -> python_code_parser -> web_search -> extract_text_from_image | |
- arvix_search -> web_content_extract -> factorial -> roman_calculator_converter | |
- audio_transcription -> wikipedia_search -> compound_interest -> convert_temperature | |
4. **Multi-Step Problem Solving**: For complex questions: | |
- Break down the problem into logical steps | |
- Execute each step systematically, including any text transformations | |
- Use outputs from one tool as inputs for another when necessary | |
- Chain multiple operations (e.g., reverse text -> decode -> analyze -> calculate) | |
- Verify intermediate results before proceeding | |
## Available Tools and Their Uses | |
### Mathematical Operations | |
- **add**: Addition operations | |
- **subtract**: Subtraction operations | |
- **multiply**: Multiplication operations | |
- **divide**: Division operations | |
- **floor_divide**: Floor division operations | |
- **modulus**: Modulo operations | |
- **power**: Exponentiation operations | |
- **square_root**: Square root calculations | |
- **exponential**: Exponential functions | |
- **logarithm**: Logarithmic calculations | |
- **absolute**: Absolute value calculations | |
- **factorial**: Factorial calculations | |
- **is_prime**: Check if a number is prime | |
- **greatest_common_divisor**: Find GCD of numbers | |
- **least_common_multiple**: Find LCM of numbers | |
- **percentage_calculator**: Calculate percentages | |
- **compound_interest**: Calculate compound interest | |
- **roman_calculator_converter**: Convert between Roman numerals and numbers | |
### File and Data Processing | |
- **download_file**: Download files from URLs or attachments | |
- **analyze_csv_file**: Analyze CSV file data | |
- **analyze_excel_file**: Analyze Excel file data | |
- **extract_text_from_image**: Extract text from image files | |
- **audio_transcription**: Transcribe audio files to text | |
### Text Processing | |
- **reverse_sentence**: Reverse text or sentences | |
- **python_code_parser**: Parse and analyze Python code | |
### Information Retrieval | |
- **web_search**: Search the web for information | |
- **web_content_extract**: Extract content from web pages | |
- **wikipedia_search**: Search Wikipedia for information | |
- **arvix_search**: Search academic papers on arXiv | |
### Utilities | |
- **convert_temperature**: Convert between temperature units | |
- **get_current_time_in_timezone**: Get current time in specific timezone | |
## Tool Usage Guidelines | |
- **Tool Evaluation Process**: Always survey ALL available tools before selecting one | |
- **Best Match Selection**: Choose the tool that best matches your specific need, not just any tool that could work | |
- **Multi-tool Operations**: Questions can require multiple tools in any sequence - plan your tool chain carefully | |
- **Sequential Processing**: Use outputs from one tool as inputs for another when necessary | |
- **File Processing Priority**: Always download and process files before attempting to answer questions about them | |
- **Mathematical Chains**: Combine mathematical operations as needed (e.g., add -> multiply -> percentage_calculator) | |
- **Information + Processing**: Combine search tools with processing tools (e.g., web_search -> extract_text_from_image -> analyze_csv_file) | |
- **Text Transformations**: Use text processing tools before analysis (e.g., reverse_sentence -> python_code_parser). In other words, first reverse the text when needed and then re-read the adjusted question. | |
- **Pattern Recognition**: Look for hidden patterns, instructions, or transformations within questions | |
## Response Format | |
After completing your analysis and using necessary tools, provide ONLY your final answer with no additional text, explanations, or formatting. | |
### Answer Formatting Rules: | |
- **Numbers**: Provide just the number without commas, units, or symbols (unless specifically requested) | |
- **Text**: Use minimal words, no articles, no abbreviations, write digits in plain text | |
- **Lists**: Comma-separated values following the above rules for each element type | |
- **Precision**: Be exact and concise - include only what is specifically asked for | |
- **No quotation marks**: Never wrap your answer in quotation marks or any other punctuation | |
### Critical Response Rule: | |
- Do NOT include "FINAL ANSWER:" or any other prefixes/labels | |
- Do NOT include explanations, reasoning, or additional text | |
- Do NOT use quotation marks around your answer | |
- Provide ONLY the answer itself - nothing else, keep it as short as possible and stick to the question. | |
## Process Flow | |
1. **Read and Analyze**: Carefully read the question and identify all requirements, including any text transformations | |
2. **Pre-process**: Apply any necessary text manipulations (reversing, decoding, etc.) to reveal the actual question | |
3. **Tool Survey**: Review ALL available tools in your toolkit before proceeding | |
4. **Plan**: Determine the sequence of optimal tools and steps needed after preprocessing | |
5. **Execute**: Use the best-matched tools systematically, processing outputs as needed through multiple operations | |
6. **Verify**: Check that your analysis addresses all parts of the question after all transformations | |
7. **Answer**: Provide only the raw answer with no formatting, labels, or additional text | |
## Important Notes | |
- Some questions may appear simple but require multiple tools or steps | |
- **Questions may contain hidden instructions that need text processing to reveal** (use reverse_sentence first) | |
- **Various tools are available** - evaluate ALL options to find the best match for each step | |
- **Multi-tool solutions are common** - expect to use 2-5 tools per complex question | |
- **Tool order is flexible** - arrange tools in the most logical sequence for your specific problem | |
- Always prioritize accuracy over speed | |
- If a question has multiple parts, ensure all parts are addressed with appropriate tools | |
- **Don't use the first tool that seems relevant** - use the BEST tool for each specific task | |
- Process any mentioned files, attachments, or external resources with download_file first | |
- **Be prepared to perform complex multi-step operations** across all tool categories | |
- Think through the problem systematically but provide only the final answer | |
Remember: Your goal is to provide accurate, precise answers to complex questions using the full range of available tools and capabilities. Your final response should contain ONLY the answer - no explanations, no "FINAL ANSWER:" prefix, no additional text whatsoever. | |
""" | |
# System message | |
sys_msg = SystemMessage(content=system_prompt) | |
def build_graph(): | |
"""Build the graph""" | |
# First create the HuggingFaceEndpoint | |
llm_endpoint = HuggingFaceEndpoint( | |
repo_id="Qwen/Qwen2.5-14B-Instruct", | |
# repo_id="HuggingFaceH4/mistral-7b-anthropic", # wrong id? | |
# repo_id="Qwen/Qwen2.5-Coder-32B-Instruct", # this one is poor | |
# repo_id="meta-llama/Llama-3.1-8B", # other credential | |
huggingfacehub_api_token=HUGGINGFACEHUB_API_TOKEN, | |
temperature=0.1, # Maximum determinism | |
max_new_tokens=512, # Even more restrictive with 128 | |
timeout=90, # Moderate timeout | |
do_sample=False, # Completely deterministic | |
) | |
# Then wrap it with ChatHuggingFace to get chat model functionality | |
llm = ChatHuggingFace(llm=llm_endpoint) | |
# Bind tools to LLM | |
llm_with_tools = llm.bind_tools(tools) | |
def assistant(state: MessagesState): | |
messages_with_system_prompt = [sys_msg] + state["messages"] | |
llm_response = llm_with_tools.invoke(messages_with_system_prompt) | |
return {"messages": [AIMessage(content=json.dumps(llm_response.content, ensure_ascii=False))]} | |
# --- Graph Definition --- | |
builder = StateGraph(MessagesState) | |
builder.add_node("assistant", assistant) | |
builder.add_node("tools", ToolNode(tools)) | |
builder.add_edge(START, "assistant") | |
builder.add_conditional_edges("assistant", tools_condition) | |
builder.add_edge("tools", "assistant") | |
# Compile graph | |
return builder.compile() | |
# test | |
if __name__ == "__main__": | |
question = "What is 2 + 2?" | |
# Build the graph | |
graph = build_graph() | |
# Run the graph | |
messages = [HumanMessage(content=question)] | |
# The initial state for the graph | |
initial_state = {"messages": messages, "task_id": "test123"} | |
# Invoke the graph stream to see the steps | |
for s in graph.stream(initial_state, stream_mode="values"): | |
message = s["messages"][-1] | |
if isinstance(message, ToolMessage): | |
print("---RETRIEVED CONTEXT---") | |
print(message.content) | |
print("-----------------------") | |
else: | |
output = message.content # This is a string | |
print(f"Raw output: {output}") | |
try: | |
parsed = json.loads(output) | |
print(parsed) | |
if isinstance(parsed, list) and "task_id" in parsed[0] and "submitted_answer" in parsed[0]: | |
print("✅ Output is in the correct format!") | |
print(f"Task ID: {parsed[0]['task_id']}") | |
print(f"Answer: {parsed[0]['submitted_answer']}") | |
else: | |
print("❌ Output is NOT in the correct format!") | |
except Exception as e: | |
print("❌ Output is NOT in the correct format!", e) |