June 5, 2025
An introduction to Tabular AI
Discover how Tabular AI can outperform classical ML with instant predictions and minimal manual effort.

Structured data stored in tables, also known as tabular data, is what drives most enterprise machine learning (ML) applications. Whether in finance, healthcare or commerce, organizations rely heavily on structured data that is arranged in rows and columns. In the domain of Commerce, for example, this includes customer profiles, transaction histories, product catalogs, and countless other structured records that power sales and daily operations. By leveraging this data effectively, ML models can automate critical business tasks such as sales forecasting, product recommendations, catalog optimization and more, ultimately boosting revenue, efficiency and competitive standing in the market.

Yet, despite the importance of tabular data, most ML pipelines built around it remain surprisingly manual and inefficient. As we’ll see in the next sections, traditional predictive workflows often lead to suboptimal results, relying on time- consuming steps that slow down development, require expert intervention, and limit scalability.

To address these limitations, a new learning paradigm has recently emerged: Tabular AI, a revolutionary approach designed specifically for raw tabular data. It allows for instant, accurate predictions while eliminating the inefficient, hand-engineered steps typical of conventional ML workflows.

The Problem with the Traditional ML Pipelines

A typical example of an industry-level ML workflow can be found in the domain of commerce, in the task of Product Categorization. The data for this task is in tabular format, where each row represents an entity such as a product, and each column describes attributes of that entity, like its name, price, or existing category label(see Figure 1 for illustration). This structured format is used as input to train a model, with the columns serving as features and the category to predict as the target label.

Fig. 1: An example of a tabular dataset for Product Categorization


However, despite its simple format, tabular data poses significant practical challenges when it comes to achieving high predictive accuracy. This is especially true in enterprise settings, where tabular data is far from perfect: missing values, inconsistent entries, typos, duplicates and noisy data are common and can severely undermine performance if not addressed properly. As a result, building traditional ML pipelines on this kind of data becomes a laborious task that involves multiple steps such as:

  • Exploratory Data Analysis: A time-consuming process that involves thoroughly understanding the data, handling missing values, detecting outliers and anomalies, exploring trends and distributions to make sure the data is accurate and reliable.
  • Data Preparation and Feature Engineering: Builds on the cleaned data by selecting or creating meaningful variables (features) based on domain knowledge (e.g., calculating average time between orders, total spending over a period, etc) to reduce noise and improve model performance. This step may also involve converting categories into numerical formats, scaling numerical features and other steps that may help the model learn effectively.
  • Model Selection and Training: Choosing and training a model, then experimenting with different algorithms (e.g., gradient boosting, random forests, logistic regression) to find the best-performing approach.
  • Model Validation and Evaluation:  Evaluating a model’s performance using relevant metrics depending on the task such as Precision, Recall, F1-score, or ROC-AUC to ensure generalizability.
  • Deployment and monitoring: Deploying the model into production environments and continuously monitoring for data drift, prediction errors, and performance degradation to maintain reliability over time.

It quickly becomes evident that a process like this is time-consuming, requires expert knowledge, and must be repeated with every information update (e.g., new products, attributes or customers), resulting in suboptimal and inefficient solutions.

Fig. 2: A traditional Machine Learning pipeline

The Solution: Tabular AI

This is where Tabular AI steps in, redefining the way we work and learn from structured data. At the heart of this transformation is the rise of Tabular Foundation Models: large, pre-trained models designed to understand and make predictions over tabular data with minimal manual effort.

Much like foundation models in natural language processing and computer vision, Tabular Foundation Models are trained on large sets of diverse table structures. As a result, they are capable of generalizing to new tasks with little to no task-specific tuning. Instead of relying on handcrafted features, complex preprocessing pipelines, and frequent manual updates, Tabular Foundation Models can learn directly from raw or semi-processed tables by capturing statistical patterns, structural relationships, and cross-column relationships that are inherently present in tabular datasets.

As a result, instead of spending several days or weeks on outdated and laborious ML pipelines you can now:

  • Feed your raw data into a model (no data analysis or feature engineering needed).
  • Fit the data into the model and let it automatically learn the patterns, relationships, and trends in a matter of seconds.
  • Get predictions faster and more accurately than traditional ML models.
Fig 3: Thanks to Tabular Foundation Models, making predictions from tabular datasets becomes possible in a matter of seconds.

The implications for the Industry

Tabular AI and Tabular Foundation Models are changing the game, dramatically simplifying ML workflows and making state-of-the-art predictions accessible even to teams without deep technical expertise.

At Neuralk-AI, we are proud to be leading this transformation. By developing the first Tabular Foundation Model for Commerce, we are helping businesses gain insights from their structured data faster, more reliably, and with less manual effort.

Stay tuned for upcoming releases. 🚀