This is an ongoing project of self-study/improvement where I create
notebooks/markdowns of the techniques I’m learning. The initial idea is
to have a cheat-sheet with notes for my own reference.
Code created for the papers are listed at the end of this
page.
Study/Portifolio
- Survival Analysis: [Jupyter
Notebook] [GitHub]
- Language: Python
- Library: LifeLines
- Methods: Kaplan-Meier, Weibull, Exponential, LogNormal
- Evaluation of covariates: Weibull and Cox Proportional
Hazards models.
- Bee Images Classification: [Jupyter
Notebook] [GitHub]
- Language: Python
- Features: HOG and Color pixel intensities (vector size of
31296 elements)
- Feature transform: PCA (the best number of components was
analyzed)
- Classifier: SVM (linear kernel, binary classification)
- Evaluation: Accuracy, ROC curve and AUC ROC
Papers
For a complete list of publications check my
Google
Scholar.
Sensitivity Analysis of Stroke Predictors Using Structural Equation
Modeling and Bayesian Networks
Decision Support for Infection Outbreak Analysis: the case of the
Diamond Princess cruise ship
A cross-cutting approach for tracking architectural distortion locii
on digital breast tomosynthesis slices
Exploratory learning with convolutional autoencoder for
discrimination of architectural distortion in digital mammography
Reduction of false-positives in a CAD scheme for automated detection
of architectural distortion in digital mammography
Validation of no-reference image quality index for the assessment of
digital mammographic images
- Conference: SPIE Medical Imaging 2016: Image
Perception, Observer Performance, and Technology
Assessment
- DOI: 10.1117/12.2217229
Use of Wavelet Multiresolution Analysis to Reduce Radiation Dose in
Digital Mammography
Feasibility study of dose reduction in digital breast tomosynthesis
using non-local denoising algorithms
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