Status: True

Assertion

Humans share 50% of their DNA with bananas.

Results

Comparing significant functional elements ensures the comparison focuses on relevant genetic information shared between species due to similar biological roles and evolutionary pressures. This approach helps in understanding conserved functions across diverse organisms, including humans and bananas. Considering coding regions (exons) and noncoding regulatory sequences provides a more accurate reflection of genetic similarities in functional elements between different organisms. Evolutionary processes such as natural selection and genetic drift have indeed conserved important functional elements across species over time. However, it is false that both human and banana genomes have been fully sequenced; only significant portions are available for comparative studies.

Assumptions

Here are some key assumptions that underlie the comparison between human and banana DNA:

– The genetic sequences being compared should represent significant functional elements or gene families rather than random stretches of DNA. This ensures relevance in terms of evolutionary conservation.

– Both organisms’ genomes have been fully sequenced, allowing for a direct comparison at the level of individual nucleotides (though this is often not feasible due to size and complexity).

– The percentage similarity takes into account both coding regions (exons) and noncoding regulatory sequences that play essential roles in gene expression.

– Evolutionary processes, like natural selection and genetic drift, have conserved these functional elements across species over millions of years, leading to a degree of homology between humans and other organisms.

– The statement acknowledges the differences in genomic complexity, as comparing whole human and banana genomes isn’t practical due to size discrepaninas. Instead, it focuses on shared functional elements that highlight genetic similarities despite these disparities.

It’s important to note that while these assumptions are common when discussing comparative genomics, direct percentage similarity across entire genom

Fact Checker Output

<|assistant|> 1. True – Comparing significant functional elements ensures the comparison focuses on relevant genetic information shared between species due to similar biological roles and evolutionary pressures. This approach helps in understanding conserved functions across diverse organisms, including humans and bananas.

2. False – As of my knowledge cutoff date in 2023, neither human nor banana genomes have been fully sequenced. While the Human Genome Project was completed for Homo sapiens, the full genome sequence of a common banana (Musa acuminata) is not available at the same level as humans’. However, significant portions and key regions of both species’ genomes have been sequenced, allowing comparative studies.

3. True – Considering coding regions (exons) and noncoding regulatory sequences provides a more accurate reflection of genetic similarities in functional elements between different organisms. Many essential gene functions are controlled by regulatory mechanisms, so both types of DNA play crucial roles in an organism’s biology.

4. True – Evolutionary processes such as natural selection and genetic drift have indeed conserved important functional elements across species over time.

Model Used

microsoft/Phi-3-mini-4k-instruct-gguf

Script Name

fact_checker_mongodb.py

Script Code

import os
import sys
import requests
from langchain_openai.llms import OpenAI
from langchain.prompts import PromptTemplate
from dotenv import load_dotenv
from statements import get_random_statement
from mongodb_helper import insert_record  # Import MongoDB helper functions
import html

# Load environment variables from .env file
load_dotenv()

# Define category IDs
CATEGORY_IDS = {
    "True": 2,
    "False": 3,
    "Debatable": 4,
    "Unknown": 6
}

def create_wordpress_post(title, content, category):
    data = {
        "title": title,
        "content": content,
        "status": "publish",
        "categories": [CATEGORY_IDS[category]]
    }

    response = requests.post(
        os.getenv("WORDPRESS_POSTS_URL"),
        json=data,
        auth=(os.getenv("WORDPRESS_USERNAME"), os.getenv("WORDPRESS_PASSWORD"))
    )

    if response.status_code == 201:
        print("Blog post created successfully.")
    else:
        print(f"Failed to create blog post: {response.status_code} - {response.text}")

def fact_check(assertion):
    llm = OpenAI(temperature=0.7, model=os.getenv("MODEL_NAME"))

    # Define the prompt templates
    assertion_template = """{assertion}\n\n"""
    assertion_prompt = PromptTemplate(input_variables=["assertion"], template=assertion_template)
    
    assumptions_template = """Here is a statement:
    {statement}
    Make a bullet point list of the assumptions required to support the above statement.\n\n"""
    assumptions_prompt = PromptTemplate(input_variables=["statement"], template=assumptions_template)
    
    fact_checker_template = """Here is a bullet point list of assertions:
    {assertions}
    For each assumption, determine whether it is true or false. Explain your reasoning.\n\n"""
    fact_checker_prompt = PromptTemplate(input_variables=["assertions"], template=fact_checker_template)
    
    answer_template = """
    Here is the information to classify the statement:
    {facts}

    Based on the above information, how would you classify the statement? Respond with one of the following options followed by a colon and space:
    - True: [Explanation]
    - False: [Explanation]
    - Debatable: [Explanation]
    """
    answer_prompt = PromptTemplate(input_variables=["facts"], template=answer_template)
    
    # Format prompts and extract the string content
    formatted_assertion = assertion_prompt.format_prompt(assertion=assertion).text
    assertion_output = llm.invoke(formatted_assertion)
    
    formatted_assumptions = assumptions_prompt.format_prompt(statement=assertion_output).text
    assumptions_output = llm.invoke(formatted_assumptions)
    
    formatted_fact_checker = fact_checker_prompt.format_prompt(assertions=assumptions_output).text
    fact_checker_output = llm.invoke(formatted_fact_checker)
    
    formatted_answer = answer_prompt.format_prompt(facts=fact_checker_output).text
    final_output = llm.invoke(formatted_answer)
    
    return {
        "assertion_output": assertion_output,
        "assumptions_output": assumptions_output,
        "fact_checker_output": fact_checker_output,
        "final_output": final_output,
    }

def extract_status_and_reasoning(final_output):
    final_output = final_output.strip()
    if "True:" in final_output:
        status_start = final_output.find("True:")
        status = "True"
    elif "False:" in final_output:
        status_start = final_output.find("False:")
        status = "False"
    elif "Debatable:" in final_output:
        status_start = final_output.find("Debatable:")
        status = "Debatable"
    else:
        return "Unknown", final_output

    reasoning = final_output[status_start + len(status) + 1:].strip()
    return status, reasoning

if __name__ == "__main__":
    if len(sys.argv) > 1:
        assertion = sys.argv[1]
    else:
        assertion = get_random_statement()
    
    print(assertion)
    submission = fact_check(assertion)
    
    # Print the detailed outputs to inspect their structure
    for key, value in submission.items():
        print(f"{key}: {value}")
    
    # Extract the final output for status determination and reasoning
    final_output = submission['final_output']
    status, reasoning = extract_status_and_reasoning(final_output)
    
    # Record the result in MongoDB
    try:
        print("Attempting to insert record into MongoDB...")
        insert_record(
            script_name="fact_checker_mongodb.py",
            script_code=html.escape(open(__file__).read()),
            assertion=assertion,
            status=status,
            submission=submission,  # Store the entire submission for detailed analysis
            model=os.getenv("MODEL_NAME")
        )
        print("Record inserted into MongoDB successfully.")
    except Exception as e:
        print(f"Failed to insert record into MongoDB: {e}")
    
    print(final_output)
    
    # Create a blog post on WordPress
    blog_title = f"Fact Check: {assertion}"
    blog_content = f"""
    <h1>Status: {status}</h1>
    <h2>Assertion</h2>
    <p>{assertion}</p>
    <h2>Results</h2>
    <p>{reasoning}</p>
    <h3>Assumptions</h3>
    <p>{submission['assumptions_output']}</p>
    <h3>Fact Checker Output</h3>
    <p>{submission['fact_checker_output']}</p>
    <h4>Model Used</h4>
    <p>{os.getenv("MODEL_NAME")}</p>
    <h4>Script Name</h4>
    <p>fact_checker_mongodb.py</p>
    <h4>Script Code</h4>
    <pre>{html.escape(open(__file__).read())}</pre>
    """
    create_wordpress_post(blog_title, blog_content, status)