In recent years, Intelligent Computing frameworks have been widely applied as Artificial Intelligence (AI) engineering implementation tools, and the reliability of Intelligent Computing framework is a key factor to the effectiveness of AI implementation. However, the reliability assurance of the Intelligent Computing Framework is challenging. On the one hand, the code iteration of Intelligent Computing Framework is fast, and testing such code is difficult. On the other hand, unlike traditional software, Intelligent Computing Framework involves a large number of tensor calculations, and its code specification lacks the guidance of software engineering theory. Existing research mostly employs fuzzy testing to localize defects in order to address this issue. However, such method can only accurately discover specific types of faults, and it is difficult to guide developers and let them focus on software quality in the development process. Therefore, this paper predicts the defects of the Intelligent Computing Framework at the code commit level. We use popular Intelligent Computing frameworks (Tensorflow, Baidu PaddlePaddle, etc.) and build a variety of commit-level features to construct datasets. Furthermore, we use LDA to mine code and commit semantic information as new features, and then use Random Forest as a classifier to perform Just-In-Time defect prediction, Results show that the average AUC-ROC performance of 0.77, and introducing semantic features slightly increases the performance. Finally, we use a machine learning model explanation technique called SHAP to analyze the influence of each feature on the prediction output of the model. We discover that (1) the influence of basic features on the model conforms to the characteristics of traditional software development, (2) code and commit semantic features are important in Just-In-Time Defect Prediction of Intelligent Computing frameworks, and (3) the contribution of different features in different systems to the output of the prediction model is also quite different.