Interpretable Machine Learning with an Ensemble of Gradient Boosting Machines
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Abstract (arXiv)
A method for the local and global interpretation of a black-box model on the basis of the well-known generalized additive models is proposed. It can be viewed as an extension or a modification of the algorithm using the neural additive model. The method is based on using an ensemble of gradient boosting machines (GBMs) such that each GBM is learned on a single feature and produces a shape function of the feature. The ensemble is composed as a weighted sum of separate GBMs resulting a weighted sum of shape functions which form the generalized additive model. GBMs are built in parallel using randomized decision trees of depth 1, which provide a very simple architecture. Weights of GBMs as well as features are computed in each iteration of boosting by using the Lasso method and then updated by means of a specific smoothing procedure. In contrast to the neural additive model, the method provides weights of features in the explicit form, and it is simply trained. A lot of numerical experiments with an algorithm implementing the proposed method on synthetic and real datasets demonstrate its efficiency and properties for local and global interpretation.
Key facts. Cited by 14 papers in the map (data through 7 Oct 2026). First posted on arXiv 14 Oct 2020.
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Citing papers per year: 2021: 4; 2022: 0; 2023: 3; 2024: 3; 2025: 1; 2026: 3.
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- 2021SurvNAM: The machine learning survival model explanationcited by 16
- 2021Ensembles of Random SHAPscited by 8
- 2024A Survey of Explainable Knowledge Tracingcited by 7
- 2021An Imprecise SHAP as a Tool for Explaining the Class Probability Distributions under Limited Training Datacited by 6
- 2021Attention-like feature explanation for tabular datacited by 3
- 2023Interpretable Ensembles of Hyper-Rectangles as Base Modelscited by 2
- 2024Implementing local-explainability in Gradient Boosting Trees: Feature Contributioncited by 2
- 2026An AI Framework for Microanastomosis Motion Assessmentcited by 1
- 2023Customer Churn Prediction Model using Explainable Machine Learningcited by 0
- 2023SurvBeNIM: The Beran-Based Neural Importance Model for Explaining the Survival Modelscited by 0
- 2024Dual feature-based and example-based explanation methodscited by 0
- 2025Kinematic-Based Assessment of Surgical Actions in Microanastomosiscited by 0
- 2026An Integrated Video-AI Platform for Action-Level Microanastomosis Training and Performance Feedback6 Sep 2026
- 2026ParamBoost: Gradient Boosted Piecewise Cubic Polynomials20 Apr 2026
- 2026An AI Framework for Microanastomosis Motion Assessment28 Jan 2026
- 2025Kinematic-Based Assessment of Surgical Actions in Microanastomosis30 Dec 2025
- 2024A Survey of Explainable Knowledge Tracing12 Mar 2024
- 2024Implementing local-explainability in Gradient Boosting Trees: Feature Contribution14 Feb 2024
- 2024Dual feature-based and example-based explanation methods29 Jan 2024
- 2023SurvBeNIM: The Beran-Based Neural Importance Model for Explaining the Survival Models11 Dec 2023
- 2023Interpretable Ensembles of Hyper-Rectangles as Base Models15 Mar 2023
- 2023Customer Churn Prediction Model using Explainable Machine Learning2 Mar 2023
- 2021Attention-like feature explanation for tabular data10 Aug 2021
- 2021An Imprecise SHAP as a Tool for Explaining the Class Probability Distributions under Limited Training Data16 Jun 2021
2 more
- 2021SurvNAM: The machine learning survival model explanation18 Apr 2021
- 2021Ensembles of Random SHAPs4 Mar 2021
- 2021SurvNAM: The machine learning survival model explanationcited by 16
- 2021Ensembles of Random SHAPscited by 8
- 2024A Survey of Explainable Knowledge Tracingcited by 7
- 2021An Imprecise SHAP as a Tool for Explaining the Class Probability Distributions under Limited Training Datacited by 6
- 2021Attention-like feature explanation for tabular datacited by 3
- 2023Interpretable Ensembles of Hyper-Rectangles as Base Modelscited by 2
- 2024Implementing local-explainability in Gradient Boosting Trees: Feature Contributioncited by 2
- 2026An AI Framework for Microanastomosis Motion Assessmentcited by 1
- 2023Customer Churn Prediction Model using Explainable Machine Learningcited by 0
- 2023SurvBeNIM: The Beran-Based Neural Importance Model for Explaining the Survival Modelscited by 0
- 2024Dual feature-based and example-based explanation methodscited by 0
- 2025Kinematic-Based Assessment of Surgical Actions in Microanastomosiscited by 0
12 most cited of 14 All 14 (JSON)
- 2026An Integrated Video-AI Platform for Action-Level Microanastomosis Training and Performance Feedback6 Sep 2026
- 2026ParamBoost: Gradient Boosted Piecewise Cubic Polynomials20 Apr 2026
- 2026An AI Framework for Microanastomosis Motion Assessment28 Jan 2026
- 2025Kinematic-Based Assessment of Surgical Actions in Microanastomosis30 Dec 2025
- 2024A Survey of Explainable Knowledge Tracing12 Mar 2024
- 2024Implementing local-explainability in Gradient Boosting Trees: Feature Contribution14 Feb 2024
- 2024Dual feature-based and example-based explanation methods29 Jan 2024
- 2023SurvBeNIM: The Beran-Based Neural Importance Model for Explaining the Survival Models11 Dec 2023
- 2023Interpretable Ensembles of Hyper-Rectangles as Base Models15 Mar 2023
- 2023Customer Churn Prediction Model using Explainable Machine Learning2 Mar 2023
- 2021Attention-like feature explanation for tabular data10 Aug 2021
- 2021An Imprecise SHAP as a Tool for Explaining the Class Probability Distributions under Limited Training Data16 Jun 2021
12 newest of 14 All 14 (JSON)