| Literature DB >> 36188697 |
Zhen Hong1, Qin Xu2, Xin Yan1, Ran Zhang1, Yuanfang Ren3, Qian Tong3.
Abstract
Big data in health care has gained popularity in recent years for disease prediction. Breast cancer infections are the most common cancer in urban Indian women, as well as women internationally, and are impacted by many events across countries and regions. Breast malignant growth is a notable disease among Indian women. According to the WHO, it represents 14% of all malignant growth tumors in women. A couple of studies have been directed utilizing big data to foresee breast malignant growth. Big data is causing a transformation in healthcare, with better and more ideal results. Monstrous volumes of patient-level data are created by using EHR (Electronic Health Record) systems data because of fast mechanical upgrades. Big data applications in the healthcare business will assist with improving results. Conventional forecast models, then again, are less productive in terms of accuracy and error rate because the exact pace of a specific calculation relies upon different factors such as execution structure, datasets (little or enormous), and kinds of datasets utilized (trait-based or picture based). This audit article looks at complex information mining, AI, and profound learning models utilized for recognizing breast malignant growth. Since "early identification is the way to avoidance in any malignant growth," the motivation behind this audit article is to support the choice of fitting breast disease expectation calculations, explicitly in the big information climate, to convey powerful and productive results. This survey article analyzes the precision paces of perplexing information mining, AI, and profound learning models utilized for distinguishing breast disease on the grounds that the exactness pace of a specific calculation relies upon different factors such as execution structure, datasets (little or enormous), and dataset types (quality based or picture based). The reason for this audit article is to aid the determination of suitable breast disease expectation calculations, explicitly in the big information climate, to convey successful and productive outcomes. Thus, "Early discovery is the way to counteraction in the event of any malignant growth."Entities:
Mesh:
Year: 2022 PMID: 36188697 PMCID: PMC9525194 DOI: 10.1155/2022/3373553
Source DB: PubMed Journal: Comput Intell Neurosci
Figure 1Classification of breast cancer.
Figure 2Preventing breast Cancer stats аccоrding WCRFI [20].
Comparison of breast cancer data mining, machine learning, predictive deep learning techniques [19].
| S. no | Author name | Method | Tools | Dataset | Data type | No. of attribute | Performance |
|---|---|---|---|---|---|---|---|
| 1. | Venkateshwara Rao, Mary Gladence | Classification techniques SVM, Naïve Bayes | Weka | UCI machine learning | Numeric attributes | 296 | Higher accuracy 85% |
| 2. | Madhu kumara, Vijhendra Singh | Classification supervised machine learning algorithm | MAtlab | Wisconsin breast cancer | Numeric | 700 | KNN classifier with 100% |
Figure 3Statistical comparison of data mining, machine learning, and deep learning methods for breast cancer prediction over the last 5 years (2016–2020).