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Laplace-Tech/README.md

MASTER ROAD

Two Core Texts. One Serious Learning Track.
Building real competence in machine learning and deep learning through study, implementation, experiments, and written evidence.

Master Road Banner


Overview

MASTER ROAD is a long-term learning track focused on building practical and theoretical competence in machine learning and deep learning.

This is not a reading list.
Each stage must leave visible evidence: notes, code, solved exercises, experiments, mistakes, and retrospectives.


Current Active Stage

Stage 01 — ISLP

Status: Active
Primary Text: An Introduction to Statistical Learning with Applications in Python

I am currently building a strong foundation in statistical learning before moving deeper into modern deep learning.

Current focus

  • Supervised learning
  • Model evaluation
  • Bias-variance tradeoff
  • Overfitting and regularization
  • Linear models
  • Classification
  • Resampling methods
  • Tree-based methods
  • Ensembles
  • Core statistical learning concepts

Goal

Build strong machine learning foundations through:

  • structured reading notes
  • Python implementation
  • solved exercises
  • small reproducible experiments
  • written summaries and retrospectives

Next Stage

Stage 02 — Dive into Deep Learning

Status: Next
Primary Text: Dive into Deep Learning

After establishing the machine learning foundation, I will move into deep learning through hands-on implementation and model training.

Planned focus

  • Neural networks
  • Backpropagation
  • Optimization
  • Multilayer perceptrons
  • Convolutional neural networks
  • Modern deep learning workflows
  • Practical model training
  • Reproducible experiments

Goal

Connect theory to implementation through notebooks, small projects, model training, and experiment records.


Stage Map

Stage Topic Status
Stage 01 ISLP Active
Stage 02 Dive into Deep Learning Next
Stage 03 Locked Locked
Stage 04 Locked Locked
Stage 05 Locked Locked
Stage 06 Locked Locked

Study Standards

Every stage must leave behind:

  • structured reading notes
  • solved exercises
  • concept summaries
  • implementation code or notebooks
  • experiment records and result comparisons
  • mistakes, limitations, and lessons learned
  • a written retrospective after completion

Evidence Standard

The goal is not to simply read famous books and feel productive.

The goal is to turn study into evidence:

  • concepts I can explain
  • code I can run
  • experiments I can reproduce
  • mistakes I can learn from
  • systems I can eventually build

This roadmap exists to make learning visible, disciplined, and cumulative.


Repositories


Current Direction

The first priority is depth, not speed.

For each chapter or topic, the minimum output should be:

  1. read and summarize the core ideas
  2. implement the important concepts in Python
  3. solve selected exercises
  4. record mistakes and confusions
  5. write a short retrospective
  6. connect the topic to future projects

Long-Term Goal

Build a serious ML/DL foundation that can support:

  • research-oriented project work
  • medical AI experiments
  • backend-integrated AI services
  • reproducible model development
  • stronger technical writing
  • long-term engineering competence

Pinned Loading

  1. capstone-cxr capstone-cxr Public

    2026. Deep learning-based chest X-ray reading assistance research prototype with DenseNet121 classification and Grad-CAM explainability.

    Python 1 2

  2. CheXpert CheXpert Public

    CheXpert-based chest X-ray multi-label classification PoC with DenseNet121, AUROC/AUPRC evaluation, threshold tuning, and Grad-CAM visualization.

    Python 1

  3. kyonggi-auth-k8s kyonggi-auth-k8s Public

    Production-style Spring Boot authentication subsystem featuring OTP signup, JWT access tokens, refresh token rotation, and Kubernetes-ready ops.

    Java 1