Diagnosis of Prostate Cancer using Soft Computing Paradigms

α
Samuel S. Udoh
Samuel S. Udoh
σ
Uduak A. Umoh
Uduak A. Umoh
ρ
Michael E. Umoh
Michael E. Umoh
Ѡ
Mfon E. Udo
Mfon E. Udo
σ University of Uyo University of Uyo

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Diagnosis of Prostate Cancer using Soft Computing Paradigms

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Abstract

The process of diagnosing of prostate cancer using traditional methods is cumbersome because of the similarity of symptoms that are present in other diseases. Soft Computing (SC) paradigms which mimic human imprecise data manipulation and learning capabilities have been reviewed and harnessed for diagnosis and classification of prostate cancer. SC technique based on Adaptive Neuro-Fuzzy Inference System (ANFIS) facilitated symptoms analysis, diagnosis and prostate cancer classification. Age of Patient (AP), Pains in Urination (PU), Frequent Urination (FU), Blood in Semen (BS) and Pains in Pelvic (PP) served as input attributes while Prostate Risk (PR) served as output. Matrix laboratory provided the programming tools for system implementation. The practical function of the system was assessed using prostate cancer data collected from the University of Uyo Teaching Hospital. A 95% harmony observed between the computed and the expected output in the ANFIS model, showed the superiority of the ANFIS model over the fuzzy model. The system is poised to assist medical professionals in the domain of diagnosis and classification of prostate cancer for the promotion of management and treatment decisions.

References

26 Cites in Article
  1. P Agu,R Muhammad,J Ahmad,R Aliasi,O Atiq,H Azmi,A Mohd (2005). Generation of Fuzzy Rules with Subtractive Clustering.
  2. A Ajape,A Babata,O Abiola (2009). Knowledge of Prostate Cancer Screening Among Native African Urban Population in Nigeria..
  3. O Akinyonkun (2007). Social Cost-Benefit Analysis: Evaluation of Resource Development Projects.
  4. M Arslan,D Arlan,B Hasnedar (2018). Training ANFIS System with Genetic Algorithm for Diagnosis of Prostate Cancer.
  5. Y Atınç,A Kürşat (2011). Comparison with Sugeno Model and Measurement Of Cancer Risk Analysis By New Fuzzy Logic Approach.
  6. Luigi Benecchi (2006). Neuro-fuzzy system for prostate cancer diagnosis.
  7. D Bob,R Mesut,Z Alexandre,S Christian,S Peter (2002). Novel Artificial Neural Network for Early Detection of Prostate Cancer.
  8. Georgina Cosma,Giovanni Acampora,David Brown,Robert Rees,Masood Khan,A Pockley (2016). Prediction of Pathological Stage in Patients with Prostate Cancer: A Neuro-Fuzzy Model.
  9. B Ganesh,T Sanjay,M Umesh,S Sushama,S Shyam (2013). Prostate Cancer: A Hospital-Based Survival Study from Mumbai, India.
  10. G Ifere,G Ananaba (2012). Emergent trends in the reported incidence of prostate cancer in Nigeria.
  11. K Javed,W Jun,R Markus,S Lao,L Marc,W Frank (2001). Classification and Diagnostic Prediction of Cancers Using Gene Expression Profiling and Artificial Neural Networks.
  12. C Joseph,David Wishari (2006). Application of Machine Learning in Cancer Prediction and Prognosis.
  13. R Kuo,M Huang,W Cheng,C Lin,Y Wu (2015). Application of a Two-Stated Fuzzy Neural Network for a Prostate Cancer Prognosis.
  14. A Kurhe,S Satonkar,P Khanale,A Shinde (2011). BIOINFO Soft Computing.
  15. O Leonard (2008). Roots of Prostate Cancer in African-American Men.
  16. M Gupta (1970). Fuzzy Logic and Intelligent Systems.
  17. E Mamdani,S Assilian (1975). An experiment in linguistic synthesis with a fuzzy logic controller.
  18. Maysama Feddie,H (2007). Application of Artificial Intelligence to Management of Urological Cancer.
  19. Edward N. Udo,Etebong B. Isong,Emmanuel E. Nyoho (2017). Intelligent Software-Aided Contact Tracing Framework: Towards Real-Time Model-Driven Prediction of Covid-19 Cases in Nigeria.
  20. H Misop,B Peter,B Jeffrey,Alan (2001). Evaluation of Artificial Neural Networks for the Prediction of Pathologic Stage in Prostate Carcinoma.
  21. B Mustain,I Nazrul (2016). An Early Diagnosis System for Predicting Lung Cancer Risk Using Adaptive Neuro Fuzzy Inference System and Linear Discriminant Analysis.
  22. Okure Obot,Samuel Udoh (2013). A framework for fuzzy diagnosis of hepatitis.
  23. A Thomas (2011). The changing pattern of prostate cancer in Nigerians: Current status in the Southeastern states.
  24. Enikanselu Adekunle,Balogun Adedoyin,Ewetumo Theophilus,A. A. Osinowo,Margaret Ogundare,Ashiru Raheemat,James Abe,A. S. Ifanegan,Babatande Okunlola (2016). Exploration of Wind-Wave Energy Potentials for Renewable Energy Development in Parts of Ondo Coastal and Offshore Locations, Southwestern Nigeria.
  25. S Udoh,O Akinyokun,U Inyang,O Olabode,G Iwasokun (2017). Discrete event based hybrid framework for petroleum products pipeline activities classification.
  26. L Zadeh (1965). Fuzzy sets.

Funding

No external funding was declared for this work.

Conflict of Interest

The authors declare no conflict of interest.

Ethical Approval

No ethics committee approval was required for this article type.

Data Availability

Not applicable for this article.

How to Cite This Article

Samuel S. Udoh. 2019. \u201cDiagnosis of Prostate Cancer using Soft Computing Paradigms\u201d. Global Journal of Computer Science and Technology - D: Neural & AI GJCST-D Volume 19 (GJCST Volume 19 Issue D2): .

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Issue Cover
GJCST Volume 19 Issue D2
Pg. 19- 26
Journal Specifications

Crossref Journal DOI 10.17406/gjcst

Print ISSN 0975-4350

e-ISSN 0975-4172

Keywords
Classification
GJCST-D Classification: F.1.1
Version of record

v1.2

Issue date

May 18, 2019

Language
en
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The process of diagnosing of prostate cancer using traditional methods is cumbersome because of the similarity of symptoms that are present in other diseases. Soft Computing (SC) paradigms which mimic human imprecise data manipulation and learning capabilities have been reviewed and harnessed for diagnosis and classification of prostate cancer. SC technique based on Adaptive Neuro-Fuzzy Inference System (ANFIS) facilitated symptoms analysis, diagnosis and prostate cancer classification. Age of Patient (AP), Pains in Urination (PU), Frequent Urination (FU), Blood in Semen (BS) and Pains in Pelvic (PP) served as input attributes while Prostate Risk (PR) served as output. Matrix laboratory provided the programming tools for system implementation. The practical function of the system was assessed using prostate cancer data collected from the University of Uyo Teaching Hospital. A 95% harmony observed between the computed and the expected output in the ANFIS model, showed the superiority of the ANFIS model over the fuzzy model. The system is poised to assist medical professionals in the domain of diagnosis and classification of prostate cancer for the promotion of management and treatment decisions.

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Diagnosis of Prostate Cancer using Soft Computing Paradigms

Samuel S. Udoh
Samuel S. Udoh
Uduak A. Umoh
Uduak A. Umoh University of Uyo
Michael E. Umoh
Michael E. Umoh
Mfon E. Udo
Mfon E. Udo

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