I've been working on LLM applications that need information from live webpages, and I kept running into a simple limitation. An LLM can process web content when it is provided to the model, but it does not automatically turn an arbitrary URL into clean, usable source data. Even when browsing is available, the result can contain page structure, navigation, ads, scripts, or content that is irrelevant to the task.
For an application that needs consistent web data, I needed more control over what reaches the model. The goal was to extract the actual page content, clean it, and keep the structure that matters for the LLM.
I used Geekflare's Web Scraping API with Python to handle that part. The interesting question was how much of the web-to-LLM process could be handled before the data ever reached the model.
Why Scrape the Web Before Sending It to an LLM?
When I first tried using webpages as input for an LLM, the problem wasn't the model. The problem was the data I was giving it. A URL doesn't give my application a clean document I can control. The page can contain navigation, ads, scripts, cookie notices, and content that has nothing to do with the question I want the model to answer.
I needed a layer between the website and the LLM. Scraping gave me that control. I could fetch the actual page content, remove the noise, preserve useful structure, and decide exactly what should reach the model.
That became the starting point for my web-to-LLM pipeline.
What I Needed From the Web Layer
Once I separated the web side from the LLM side, I wanted the web layer to handle as much of the messy work as possible. I didn't always need an entire webpage either. For some tasks, I only needed specific information from a page. Sending everything to the model would only add more noise.
Access was another issue. Some pages were restricted based on location, some content depended on JavaScript, and some sites had bot protection or CAPTCHA challenges. I also needed proxy support for requests that had to originate from a particular country.
Most importantly, I wanted the output in a format that worked well with LLMs. If the web layer could take care of extraction, access, filtering, and formatting, I could spend my time on the part that actually mattered to the application: building the LLM workflow.
That became my requirement for the web layer. Give me the data I need, in a form my LLM can use, and let me focus on the model.
Turning a Web Page Into LLM-Ready Data
With those requirements in mind, I started looking for a web scraping tool that could handle the web side for me while I focused on the LLM application.
I came across Geekflare's Web Scraping API, and it matched the requirements quite closely. It can handle JavaScript rendering, ad blocking, proxy routing, stealth mode, country based proxy selection, device emulation, and delayed page capture for content that loads after the initial request.
The output options were another reason I chose it. The API supports Markdown, HTML, JSON, plain text, and LLM focused formats such as markdown-llm, html-llm, and text-llm. That gave me a way to get the web data into a representation that fits the next stage of the application.
The Python SDK made the first test simple:
pip install geekflare-api
from geekflare_api.client import GeekflareClient
from geekflare_api.models import WebScrapeDto
with GeekflareClient(api_key="YOUR_API_KEY") as client:
result = client.web_scrape(
WebScrapeDto(
device="desktop",
format=["markdown", "html-llm"],
render_j_s=True,
block_ads=True,
stealth=False,
url="https://geekflare.com/"
)
)
print(result)
The API also gives me control over how the page is retrieved. I can choose the device, block ads, control JavaScript rendering, set a wait time, enable stealth mode, route requests through a proxy, and select a proxy country.
It also supports CSS and XPath extraction, ready made product and contact templates, and custom extraction schemas when I need structured data rather than the complete page.
At that point, I had the web layer I needed. I could control how the page was fetched and, more importantly, what data came out of it.
Turning Web Pages Into LLM-Ready Data
I wanted to test two different cases before sending the data into my LLM application. The first was a case where I needed the page itself as source material. The second was a case where I only needed specific information from the page.
For the first case, I used markdown-llm:
result = client.web_scrape(
WebScrapeDto(
url="https://docs.geekflare.com/endpoint/webscraping",
format=["markdown-llm"]
)
)
This gives me structured Markdown that I can use as input for tasks such as RAG, question answering, or summarization.
For cases where I don't need the complete page, Geekflare's AI Extraction can process the scraped Markdown and return the result under aiResult. The current API provides six aiPrompt modes:
-
prompt— ask a question about the webpage -
schema— extract custom structured data -
listing— extract multiple items from a category or search page -
summary— generate a focused summary -
sentiment— analyze overall or aspect based sentiment -
keywords— extract keywords, entities, and tags
For example, I can ask a direct question about a page:
ai_prompt={
"type": "prompt",
"query": "What authentication methods are supported?"
}
Or I can define the exact structure I need:
ai_prompt={
"type": "schema",
"schema": {
"type": "object",
"properties": {
"title": {"type": "string"},
"price": {"type": "number"},
"currency": {"type": "string"}
}
}
}
This gave me two ways to handle web data. I can take the page as LLM-ready source material with markdown-llm, or extract the specific information my application needs before it reaches the next stage.
Sending the Extracted Data to an LLM
Once I had the web content in a usable format, the next step was to connect it to the LLM. I kept the web scraping and model call as two separate parts of the application.
For a page based question, I can use the markdown-llm result as the context for the model:
context = markdown_result["data"]
prompt = f"""
Answer the question using only the following webpage content.
{context}
Question: {question}"""
The model now receives the cleaned webpage content instead of the original HTML. For a large page, I would process the content further and retrieve only the relevant sections before creating the prompt.
The AI Extraction approach is useful for a different workflow. If Geekflare has already extracted a specific answer or structured data, I can pass that result to the rest of my application without sending the entire webpage to another model.
Where This Fits in an LLM Application
Once the web data is clean and usable, the same approach can support several LLM workflows. The implementation does not need to change much. The main difference is what the application does with the extracted data.
For RAG, I can store the markdown-llm output, split it into chunks, create embeddings, and retrieve the relevant sections when a user asks a question.
For webpage Q&A, I can retrieve the page, pass its relevant content to the model, and ask it to answer from that source.
For structured data applications, AI Extraction can return the fields I need as structured data. My application can then store, compare, filter, or pass those results to another LLM workflow.
This also gives me a useful separation of responsibilities. The scraping layer deals with getting the right information from the web. My Python application controls how that information is processed. The LLM handles the reasoning task on top of it.
Conclusion
This approach cut short the time I spent fetching, cleaning, and filtering web data before it reached my LLM. It also let me spend more time on the actual LLM workflow instead of building and maintaining the web processing layer myself.
If you're building an LLM application that needs information from live webpages, I recommend trying the Geekflare Web Scraping API. It gave me the control I needed on the web side and made the overall pipeline much simpler.
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