Design and application of tumor prediction model based on statistical method.
Shuting Shen1, Ziqiang Fan2, Qi Guo2
1a Health Science Center , Peking University , Peking , China.
Computer Assisted Surgery (Abingdon, England)
|October 18, 2017
Summary
This study introduces two tumor prediction models using logistic regression and BP neural networks, analyzing lung cancer risk factors. The models, implemented in R, offer a practical approach for early cancer detection.
Area of Science:
- Oncology
- Biostatistics
- Computational Biology
Background:
- Accurate tumor prediction is crucial for early cancer detection and treatment planning.
- Identifying key risk factors enhances the efficacy of predictive models.
Purpose of the Study:
- To develop and compare two distinct tumor prediction models: logistic regression and BP neural network.
- To conduct a sensitivity analysis of risk factors associated with lung cancer.
- To create a practical R language function for implementing these models and analyzing risk factor correlations.
Main Methods:
- Implementation of logistic regression and BP neural network models using the R programming language.
- Application of the models to lung cancer patient data for validation.
- Comparative analysis of model accuracy and feasibility.
- Development of an integrated R function for streamlined tumor prediction and risk factor assessment.
Main Results:
- Both logistic regression and BP neural network models demonstrated accuracy in tumor prediction.
- Sensitivity analysis identified significant risk factors correlating with lung cancer.
- The developed R function efficiently generated prediction models and assessed risk factor impact.
Conclusions:
- The proposed logistic regression and BP neural network models provide reliable tools for tumor prediction.
- The R-based approach offers a practical and efficient method for early cancer detection and risk factor analysis.
- This methodology holds potential for integration into clinical practice for improved cancer diagnostics.
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