Inductive representation learning on feature rich complex networks for Churn prediction in Telco
Inductive representation learning on feature rich complex networks for Churn prediction in Telco
In the mobile telecommunication industry, call networks have been used with great success to predict customer churn. These social networks are complex and rich in features, because the telecommunications operators have a lot of information about their customers. In this paper we leverage a novel framework called GraphSAGE for inductive representation learning on networks with the goal of predicting customer churn. The technique has an advantage over previously proposed representation learning techniques because it leverages node features in the learning process. It also features a supervised learning process, which can be used to predict churn directly, as well as an unsupervised variant which produces an embedding. We study how the number of node features impacts the predictive performance of churn models as well as the benefit of a complete learning process, compared to an embedding with supervised machine learning techniques. Finally, we compare the performance of GraphSAGE to that of standard local models.
Call network, Churn prediction, Representation learning, Supervised learning
845-853
Óskarsdóttir, María
1622b6dd-5d25-4228-9418-a1729e9577e0
Cornette, Sander
1d5d39c6-0c7d-42e2-a3df-63fd3972a672
Deseure, Floris
26ff40e0-786f-4f26-98fb-77797b16598a
Baesens, Bart
f7c6496b-aa7f-4026-8616-ca61d9e216f0
2020
Óskarsdóttir, María
1622b6dd-5d25-4228-9418-a1729e9577e0
Cornette, Sander
1d5d39c6-0c7d-42e2-a3df-63fd3972a672
Deseure, Floris
26ff40e0-786f-4f26-98fb-77797b16598a
Baesens, Bart
f7c6496b-aa7f-4026-8616-ca61d9e216f0
Óskarsdóttir, María, Cornette, Sander, Deseure, Floris and Baesens, Bart
(2020)
Inductive representation learning on feature rich complex networks for Churn prediction in Telco.
Cherifi, Hocine, Gaito, Sabrina, Mendes, José Fernendo, Moro, Esteban and Rocha, Luis Mateus
(eds.)
In Complex Networks and Their Applications VIII - Volume 1 Proceedings of the 8th International Conference on Complex Networks and Their Applications, COMPLEX NETWORKS 2019: COMPLEX NETWORKS 2019: Complex Networks and Their Applications VIII.
vol. 881 SCI,
Springer.
.
(doi:10.1007/978-3-030-36687-2_70).
Record type:
Conference or Workshop Item
(Paper)
Abstract
In the mobile telecommunication industry, call networks have been used with great success to predict customer churn. These social networks are complex and rich in features, because the telecommunications operators have a lot of information about their customers. In this paper we leverage a novel framework called GraphSAGE for inductive representation learning on networks with the goal of predicting customer churn. The technique has an advantage over previously proposed representation learning techniques because it leverages node features in the learning process. It also features a supervised learning process, which can be used to predict churn directly, as well as an unsupervised variant which produces an embedding. We study how the number of node features impacts the predictive performance of churn models as well as the benefit of a complete learning process, compared to an embedding with supervised machine learning techniques. Finally, we compare the performance of GraphSAGE to that of standard local models.
Text
graphSageChurn
- Accepted Manuscript
More information
Accepted/In Press date: 17 October 2019
e-pub ahead of print date: 26 November 2019
Published date: 2020
Additional Information:
Publisher Copyright:
© 2020, Springer Nature Switzerland AG.
Keywords:
Call network, Churn prediction, Representation learning, Supervised learning
Identifiers
Local EPrints ID: 437099
URI: http://eprints.soton.ac.uk/id/eprint/437099
ISSN: 1860-949X
PURE UUID: f5e498bd-5cc2-4918-aa2d-e0312f9f4e0b
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Date deposited: 17 Jan 2020 17:30
Last modified: 17 Mar 2024 05:13
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Contributors
Author:
María Óskarsdóttir
Author:
Sander Cornette
Author:
Floris Deseure
Editor:
Hocine Cherifi
Editor:
Sabrina Gaito
Editor:
José Fernendo Mendes
Editor:
Esteban Moro
Editor:
Luis Mateus Rocha
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