[ { "model_name": "nicl", "model_type": "Tabular Foundation Model", "model_description": "Our in-house tabular foundation model based on an in-context learning architecture." }, { "model_name": "xgboost", "model_type": "Decision Trees", "model_description": "A highly efficient and scalable gradient boosting framework that improves performance with regularization and handles large tabular datasets effectively." }, { "model_name": "xgboost_ensemble", "model_type": "Decision Trees", "model_description": "(Ensembled Version) A highly efficient and scalable gradient boosting framework that improves performance with regularization and handles large tabular datasets effectively." }, { "model_name": "catboost", "model_type": "Decision Trees", "model_description": "A high-performance gradient boosting algorithm that handles categorical features natively and requires minimal preprocessing." }, { "model_name": "catboost_ensemble", "model_type": "Decision Trees", "model_description": "(Ensembled Version) A high-performance gradient boosting algorithm that handles categorical features natively and requires minimal preprocessing." }, { "model_name": "modern-nca", "model_type": "Neural Networks", "model_description": "An advanced extension of Neighborhood Component Analysis (NCA) that employs deep neural networks with stochastic neighborhood sampling to learn complex feature interactions for tabular data." }, { "model_name": "tabpfn2.5", "model_type": "Tabular Foundation Model", "model_description": "A transformer-based model that performs in-context learning by approximating Bayesian inference for tabular classification on small datasets." }, { "model_name": "realmlp", "model_type": "Neural Networks", "model_description": "An enhanced MLP optimized with strong default parameters, achieving competitive performance on tabular data. Note that due to computate limitation, we used the simple version of realmlp." }, { "model_name": "tabicl", "model_type": "Tabular Foundation Model", "model_description": "A transformer-based model that performs feature compression before doing in-context learning on tabular data by conditioning on labeled support examples to predict unseen queries without task-specific training." }, { "model_name": "lightgbm", "model_type": "Decision Trees", "model_description": "A fast gradient boosting framework that builds decision trees using histogram-based learning for scalable, high-performance tabular modeling." }, { "model_name": "lightgbm_ensemble", "model_type": "Decision Trees", "model_description": "(Ensembled Version) A fast gradient boosting framework that builds decision trees using histogram-based learning for scalable, high-performance tabular modeling." }, { "model_name": "tabm", "model_type": "Neural Networks", "model_description": "A deep learning model that efficiently imitates an Neural Networks, enhancing performance on tabular data tasks without the overhead of training multiple models." } ]