There can be a lot of data. It’s not enough to simply scrape information from competitors’ websites – you still need to convert it into a convenient format for further analysis. Different approaches can be used for analysis – everything will depend on the context, goals, objectives, and the structure of the data itself. Fortunately, we live in the era of booming artificial intelligence. It’s hard to overestimate AI’s contribution to information analysis. AI for data analytics can not only speed up data conversion from one format to another, but also help with summarization, indexing, searching for hidden patterns, and drawing conclusions in other tasks.
At the same time, it’s important to remember that AI is not a “holy grail” – it can’t answer all your questions at once. Every neural network model has its own niche and area of application, and therefore a specific set of practical tasks it can solve. Let’s dive into this issue in as much detail as possible: we’ll break down how AI for data analytics is used, what approaches and tools exist, and which one to choose for your needs.
Scraping is the process of collecting information – ideally with immediate conversion into a convenient format so the data is easy to work with in other programs, systems, and applied solutions. For example, the output info can be stored in databases, in CSV or XML, in JSON format, in Excel tables, etc. But scraping itself does not perform analysis; it only provides the foundation for it. “Raw” data has no inherent meaning on its own.
And this is where the first issue appears: what exactly do we want to obtain after scraping, and why? This will determine the dataset, its format, structure, completeness, timeliness, and other parameters. Data can be very different – just like the analysis process. For example, if we monitor competitors, scraping may be periodic – once a month or more often – and it can be convenient to store the data in tables or databases, logically collecting product prices and names. Then the aggregated information can be used for business analytics – displayed in dashboards and BI systems.
Check the Top 8 tools with AI for data analysis
But if we’re assessing market trends and customer sentiment, “numbers” alone won’t be enough – we’ll need to work with text: comments, mentions, meaning, sentiment, etc. These require completely different scraping and analysis mechanics. For instance, using AI agents for trend analysis or process reviews becomes a natural fit.
In general, the context of post–scraping analysis is formed at the intersection of three factors: data type, business goals, and the complexity of processing. This context is exactly what determines which AI tools for data analytics make sense: BI systems, AutoML, and/or LLMs.
In practice, three fundamentally different approaches are used most often: BI systems, AutoML platforms, and large language models (LLMs). They solve different problems, rely on different types of data, and require different levels of expertise.
BI is a class of analytics systems designed for visualizing data, aggregating it, embedding it into workflows, and enabling timely control of key performance indicators. BI tools work primarily with already structured data: tables, metrics, and databases. At the same time, they can also include data preparation capabilities – normalization, formatting, transformation, etc. For this reason, modern BI systems actively integrate data analytics elements to automate a range of routine tasks.
BI answers the questions “what is happening?” and “how are the indicators changing over time?” In the context of web scraping, BI is used for:
In essence, BI turns cleaned and normalized data into a clear picture of the current state of the market or business. The most suitable neural networks to pair with BI are specialized AI tools for analytics and data preparation.
The limitations are built into BI systems. They are essentially a dashboard of indicators. A BI system does not answer “why did this happen?” – it only shows a snapshot at a specific point in time. Digging into details and drawing conclusions must be completed by an experienced manager or analyst. Even the best AI for data analytics can make mistakes because it can only rely on the metrics available in BI and does not see the full picture.
Read also: Data collection without chaos – a systematic workflow for scraping.
AutoML is a class of platforms and tools designed to automatically build and evaluate machine–learning models. Unlike BI, AutoML is not about visualizing metrics – it focuses on discovering relationships, forecasting, and identifying influencing factors. The core focus of AutoML is turning data into structured inputs for business tasks – for example, metrics, features, or historical observations (linked sets of facts).
AutoML answers the questions “why is this happening?” and “what is most likely to happen next?” In the context of scraping, AutoML is used for:
In essence, AutoML turns the accumulated post–scraping data into insights and forecasts that can support management decisions and planning. The best AI companions for AutoML are classic ML models and automated pipelines.
All chain links: proxies, scrapers, and pipelines in data processing.
AutoML limitations are tied to configuration complexity and abstraction. Models often act as a “black box,” which makes it harder to interpret outputs and understand the reasons behind conclusions. Also, AutoML depends critically on input data quality: scraping errors, missing values, and bias directly affect the resulting forecasts. AutoML does not work with raw text and does not understand meaning – you need numeric representations only.
Data cleaning after scraping: why it matters so much.
LLMs are a class of neural–network models designed to work with text, context, and meaning. In data analysis, LLMs don’t function as classic analytics systems – instead, they act as an intelligent layer for interpretation, summarization, and interaction with information. They are especially effective when working with unstructured or semi–structured data.
LLMs answer the questions “what are the data talking about?” and “what conclusions can we draw from it?” In the context of scraping, LLMs are used for:
In essence, LLMs transform textual data into analytic entities that can then be used in BI and AutoML. The best for data analytics alongside LLMs are widely used language models with API access, as well as agent–based architectures and vector–database functionality. And anything that classic LLMs are missing can be implemented via intermediary services or frameworks.
Learn more about the LangChain and LangGraph libraries for scraping.
LLM limitations are tied to the lack of strict mathematical precision (there can be no guarantees here). Models may produce logical errors, distortions, or “hallucinations.” In addition, LLMs are not intended for accurate calculations or forecasting – they don’t replace BI and AutoML, they complement them. Output quality depends directly on prompts, context, and data sources.
Related: What is AI-based scraping, and what is its main drawback?
|
Criterion |
BI (Business Intelligence) |
AutoML (Automated Machine Learning) |
LLM (Large Language Models) |
|
Type of analytics |
Descriptive analytics (states facts) |
Predictive and explanatory analytics (forecasts and finds patterns) |
Interpretive and exploratory analytics (summarizes and interprets data) |
|
Key question of AI for data analytics |
What is happening? |
Why is it happening, and what will happen next? |
Why is it happening, and what will happen next? |
|
Input data type |
Structured data (tables, metrics, databases) |
Structured and semi–structured, but obligatorily numeric |
Unstructured and semi–structured data (texts, documents) |
|
Data preparation |
Normalization, aggregation, and cleaning |
Strict feature engineering, maintaining a history of observations |
Ideally, labeling + extracting meaning when possible |
|
Forecasting |
Limited or absent |
Core function |
Indirect (hypotheses and scenarios, not precise forecasts) |
|
Finding hidden patterns |
Limited |
Primary task |
At the level of meaning and context |
|
Computational accuracy |
High, deterministic |
High if the input data are correct |
Not guaranteed; distortions are possible |
|
AI for data analytics Role |
Assistant and analytics accelerator |
Core of the analytics process |
Intelligent interpretation layer |
|
Typical user of that AI for data analytics |
Executive, business analyst |
Data analyst, advanced user |
Analyst, researcher, manager |
|
Entry barrier |
Low |
Medium |
Low in interface terms, high in methodology |
|
Main limitations |
Doesn’t explain causes and doesn’t forecast |
Harder interpretability; strong dependence on data quality |
No strict verification; “hallucinations” possible |
|
Best AI for data analytics use cases |
Reporting, monitoring, and KPI control |
Forecasting, factor analysis, scenario planning |
Review analysis, trend detection, ad–hoc research |
In real life, a hybrid approach almost always wins. The reason is that AI for data analytics is never used as the system’s only “node.” They’re just one component responsible for specific tasks and actions within a larger pipeline. The solutions discussed above – BI, AutoML, and LLM – are specialized tools meant to help managers and businesses in particular situations. You can’t say that relying on only one tool will deliver maximum efficiency. On the contrary, these systems can and should be combined so they complement one another.
With the right combination of BI, AutoML, and LLM, leaders can:
If you choose only one AI for data analytics approach, you’ll cover only part of this cycle.
BI + AutoML. AutoML builds forecasts and explains the drivers behind changes, while BI captures the metrics and visualizes the data.
BI + LLM. BI provides the “numerical” view based on metrics, while the LLM interprets the data and helps draw conclusions.
AutoML + LLM. AutoML calculates and forecasts, while the LLM explains results and helps form hypotheses and scenarios.
BI + AutoML + LLM (full loop). The strongest and most effective model: BI answers “what is happening?”, AutoML answers “why and what’s next?”, and LLM answers “how should we interpret and use this?”.
Perfect proxies for accessing valuable data from around the world.
It won’t be a surprise to anyone that adopting any of the solutions discussed is directly tied to a business’s maturity and level of digitalization. The more data flowing through a company, the harder it becomes to work with it. Equally important are data completeness, reliability, and timeliness. Setting up and maintaining such systems can be quite costly, so using AI for data analytics is not always justified everywhere. Still, it’s neural networks and AI for data analytics tools that often deliver the highest impact and efficiency.
As a reminder, scraping – the foundation for collecting data for subsequent analysis – requires a certain infrastructure and software stack. On our side, we can offer reliable residential, mobile, and datacenter proxies that ensure stable scraper operation and reduce the risk of access blocks.
We also provide ready-to-use scrapers so you can receive structured data outputs for one-time or recurring tasks and then use AI for data analytics.