ARM-Net

ARM-Net: An Overview ARM-Net is a framework designed to analyze structured data. It utilizes a technique called adaptive relation modeling, which allows it to select and model feature interactions dynamically based on the input tuple. The goal is to increase accuracy and interpretability of predictions. ARM-Net is also lightweight, which is useful for processing large amounts of data. Technical Details To achieve its purpose, ARM-Net transforms input features into exponential space. It then

AutoInt

AutoInt is a deep learning method used for modeling high-order feature interactions of input features, both numerical and categorical. It can be applied in various industries and fields, such as finance, healthcare, and e-commerce, to name a few. AutoInt maps both numerical and categorical features into the same low-dimensional space and uses a multi-head self-attentive neural network with residual connections to model the feature interactions in the low-dimensional space. Overview of AutoInt

Bidirectional LSTM

A **Bidirectional LSTM** is a type of sequence processing model that uses two Long Short-Term Memory (LSTM) layers to process information in both the forward and backward directions. This type of model is effective in understanding the context surrounding a given word or phrase, by taking into account not only the words that come before it, but also those that come after it. Introduction to LSTMs LSTMs are a type of recurrent neural network that excel at understanding sequences of data. Examp

Boost-GNN

Boost-GNN: A Powerful Architecture for Effective Machine Learning Understanding Boost-GNN Machine learning has come a long way in recent years. Various architectures have been proposed to address different challenges posed by the data. Boost-GNN is one such architecture. Boost-GNN combines two powerful machine learning models: Gradient Boosting Decision Trees (GBDT) and Graph Neural Networks (GNN). The GBDT model is excellent for dealing with highly heterogeneous features, while the GNN mode

DCN-V2

What is DCN-V2? DCN-V2 is a type of architecture that is used in learning-to-rank. It is an improvement over the original DCN model. The main idea behind DCN-V2 is to learn explicit feature interactions through cross layers and combine them with a deep network to learn other implicit interactions. This architecture is capable of learning bounded-degree cross features. How Does DCN-V2 Work? The architecture of DCN-V2 involves two important components: explicit and implicit feature interaction

DNN2LR

Introduction to DNN2LR As technology advances, the amount of data we collect and analyze also increases, and it can be a challenge to find meaningful insights from all that data. That's where the DNN2LR method comes in. DNN2LR is a technique that helps machines sift through big data by finding meaningful patterns, or interactions, between different features, or characteristics, of the data. In this article, we'll explore what DNN2LR is, how it works, and why it's useful. What is DNN2LR? DNN2

FT-Transformer

FT-Transformer is a new approach to analyzing data in the tabular domain. It is an adaptation of the Transformer architecture, which is typically used for natural language processing tasks, and has been modified for use in analyzing structured data. This model is similar to another model called AutoInt. FT-Transformer primarily focuses on transforming both categorical and numerical data into tokens that can be more easily processed by a stack of Transformer layers. What is FT-Transformer? FT-

GrowNet

What is GrowNet? GrowNet is a new technique that combines the power of gradient boosting with deep neural networks. It creates complex neural networks by incrementally building shallow components. This unique approach ensures that the machine learning tasks can be performed efficiently and accurately across a wide range of domains. How does GrowNet Work? GrowNet is a versatile framework that can be adapted to various machine learning tasks. The algorithm first builds shallow models, which ar

Hierarchical Multi-Task Learning

Hierarchical MTL: A More Effective Way of Multi-Task Learning with Deep Neural Networks Multi-task learning (MTL) is a powerful technique in deep learning that allows a machine learning model to perform multiple tasks at the same time. In MTL, the model is trained to perform multiple tasks by sharing parameters across the tasks. This technique has been shown to improve model performance, reduce training time, and increase data efficiency. However, there is still room for improvement. That’s wh

MATE

MATE is a type of Transformer architecture that has been specifically designed to help people model web tables. Its design is centered around sparse attention, which enables each head to attend to either the rows or the columns of a table in an efficient way. Additionally, MATE makes use of attention heads that can reorder the tokens found either at the rows or columns of the table, and then apply a windowed attention mechanism. Understanding Sparse Attention in MATE The sparse attention mech

Network On Network

Overview of Non-Linear Interactions in Network On Network (NON) Network On Network (NON) is a powerful tool used in practical tabular data classification to make accurate predictions. Deep neural networks have been essential in making significant progress in various methods. However, most of these methods ignore intra-field information and non-linear interactions between operations, such as neural networks and factorization machines. Intra-field information refers to the information that featu

Neural Oblivious Decision Ensembles

Overview of NODE: Neural Oblivious Decision Ensembles Neural Oblivious Decision Ensembles (NODE) is an innovative technology that leverages differentiable oblivious decision trees (ODT) to create a tabular data architecture. NODE is trained using an end-to-end backpropagation technique, which makes it a robust and accurate machine learning tool. What is NODE? Neural Oblivious Decision Ensembles is a machine learning methodology that is designed to work with tabular data. The core building bl

online deep learning

The Challenge of Learning with Deep Neural Networks For many years, deep neural networks (DNNs) have been trained using a technique called backpropagation. This technique requires all the training data to be provided upfront, which becomes a challenge for real-world scenarios with new data arriving continuously. What is Online Deep Learning (ODL)? ODL, or Online Deep Learning, is a technique used to train DNNs on the fly in an online setting. Unlike traditional online learning, which often o

SAINT

Understanding SAINT: A Revolutionary Approach to Tabular Data Problems SAINT, which stands for "Self-Attentive INTeraction model", is a cutting-edge deep learning approach to solving tabular data problems. Developed by Google, SAINT performs attention over both rows and columns, making it a versatile solution that can handle a broad range of structured data formats. In this article, we'll explore the key features of SAINT and how they allow it to achieve state-of-the-art performance on various

SCARF

SCARF is a powerful and effective technique for contrastive learning that has proven to be widely-applicable in modern machine learning. This technique involves forming views by corrupting a random subset of features, helping deep neural networks to pre-train and improve classification accuracy on real-world, tabular classification datasets. The Basics of SCARF SCARF, which stands for Sub-Sampling of Convolutions for Augmenting Representation Features, is a simple yet effective technique for

Self-Normalizing Neural Networks

Overview of Self-Normalizing Neural Networks (SNNs) If you've ever heard of neural networks, you may understand that they can be a powerful tool in the world of artificial intelligence. But have you heard of self-normalizing neural networks? These types of networks are paving the way for more advanced, efficient, and robust artificial intelligence systems. What are Self-Normalizing Neural Networks? Self-normalizing neural networks, or SNNs, are a type of neural network architecture that aim

StruBERT: Structure-aware BERT for Table Search and Matching

StruBERT: The Power of Combining Textual and Structural Information for Table Retrieval and Classification In today's world of big data, tables are often used to store a vast amount of information. Retrieval of such data tables has always been of utmost importance, especially in cases where users want to find tables that are relevant to their queries. However, previous methods only treated each source of information independently. This resulted in the neglect of the essential connection between

TABBIE

The study of Machine Learning is constantly evolving and giving birth to new and efficient techniques to analyze and comprehend data. One of these techniques is TABBIE, which has emerged as a cutting-edge pretraining objective that employs tabular data exclusively. What is TABBIE? TABBIE is an acronym for "Tables are Better than Bits in Embedding machines" and is a pretraining objective used to learn embeddings of all table substructures in tabular data. Unlike other conventional approaches t

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