AI for Customer Journeys: A Transformer Approach

When analyzing a sequence of customer interactions, it is important for firms to understand how these interactions align with key objectives, such as generating qualified customer leads, driving conversion events, or reducing churn. The authors introduce a transformer-based framework that models customer interactions in a sequence similar to how a sentence is modeled as a sequence of words by large language models. They propose a heterogeneous-mixture multihead self-attention mechanism that captures individual heterogeneity in touchpoint effects. The model identifies self-attention patterns that reflect both population-level trends and the unique relationships between touchpoints within each customer journey. By assigning varying weights to each attention head, the model accounts for the distinctive aspects of the journey of each user. This results in more accurate predictions, enabling precise targeting and outperforming existing approaches such as hidden Markov models, point process models, and long short-term memory (LSTM) models. This empirical application in a multichannel marketing context demonstrates how managers can leverage the model's features to identify high-potential customers for targeting. Extensive simulations further establish the model's superiority over competing approaches. Beyond multichannel marketing, the transformer-based model also has broad applicability in customer journeys across other domains.

Authors

Publication Details

Journal
Journal of Marketing Research
Published
2025-05-22
DOI
https://doi.org/10.1177/00222437251347268
Citations
3
Primary Topic
Big Data and Business Intelligence
Type
article
Field-Weighted Citation Impact
6.85
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article

AI for Customer Journeys: A Transformer Approach

Zhenghua Lu, P. K. Kannan
3 citations
Journal of Marketing Research
Big Data and Business Intelligence
6.85
article

AI for Customer Journeys: A Transformer Approach

Zhenghua Lu, P. K. Kannan
article en
3 citations

Abstract

When analyzing a sequence of customer interactions, it is important for firms to understand how these interactions align with key objectives, such as generating qualified customer leads, driving conversion events, or reducing churn. The authors introduce a transformer-based framework that models customer interactions in a sequence similar to how a sentence is modeled as a sequence of words by large language models. They propose a heterogeneous-mixture multihead self-attention mechanism that captures individual heterogeneity in touchpoint effects. The model identifies self-attention patterns that reflect both population-level trends and the unique relationships between touchpoints within each customer journey. By assigning varying weights to each attention head, the model accounts for the distinctive aspects of the journey of each user. This results in more accurate predictions, enabling precise targeting and outperforming existing approaches such as hidden Markov models, point process models, and long short-term memory (LSTM) models. This empirical application in a multichannel marketing context demonstrates how managers can leverage the model's features to identify high-potential customers for targeting. Extensive simulations further establish the model's superiority over competing approaches. Beyond multichannel marketing, the transformer-based model also has broad applicability in customer journeys across other domains.

Journal of Marketing ResearchVol. 63(1)
Openalex Percentile: Top 4%
Big Data and Business Intelligence
6.85
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