Deep Learning Framework for Multi-Round Service Bundle Recommendation in Iterative Mashup Development

TL;DR

This paper introduces a deep learning framework called DLISR for multi-round service bundle recommendation in iterative mashup development, effectively updating suggestions based on developer interactions and content.

Contribution

It proposes a novel deep learning-based recommendation framework with attention mechanisms and hybrid models to improve multi-round service recommendations.

Findings

HISR outperforms existing methods in real-world datasets.

The attention mechanism improves recommendation accuracy.

Hybrid models effectively capture interaction perspectives.

Abstract

Recent years have witnessed the rapid development of service-oriented computing technologies. The boom of Web services increases software developers' selection burden in developing new service-based systems such as mashups. Timely recommending appropriate component services for developers to build new mashups has become a fundamental problem in service-oriented software engineering. Existing service recommendation approaches are mainly designed for mashup development in the single-round scenario. It is hard for them to effectively update recommendation results according to developers' requirements and behaviours (e.g. instant service selection). To address this issue, the authors propose a service bundle recommendation framework based on deep learning, DLISR, which aims to capture the interactions among the target mashup to build, selected (component) services, and the following service to recommend. Moreover, an attention mechanism is employed in DLISR to weigh selected services when recommending a candidate service. The authors also design two separate models for learning interactions from the perspectives of content and invocation history, respectively, and a hybrid model called HISR. Experiments on a real-world dataset indicate that HISR can outperform several state-of-the-art service recommendation methods to develop new mashups iteratively.