Skip to main content
Machine Learning & Computer Vision
  1. Notes/

Machine Learning & Computer Vision

History of Computer Vision

Computer Vision: Emulates the human visual system, interpreting images via sensing. Applications include self-driving cars, surveillance, and biomedical imaging.

Classical Era vs. Deep Era

  • Classical Era (1960s–2000s): Based on mathematical principles and handcrafted features (e.g., stereovision, projective geometry, SIFT). Rule-based and explicit.
  • Deep Learning Era (2012+): Neural network–driven, data-centric, and end-to-end learning.

Computer Vision vs. Machine Learning

  • Computer Vision (CV) is a subfield of Machine Learning (ML).
  • Features: Measurements for object identification. In classical CV, features are handcrafted; in ML-based CV, models learn them automatically from data.
CV/ML overview Example

ML-based CV vs. Classic CV

ML-based CV: Train/test workflow; models learn mappings from data to results. CV/ML Comparison Example

Classic CV: Predefined feature extraction + simpler classifiers.

Classical CV Feature Space Example

Factors Leading to ML Rise

  • Improved AI algorithms.
  • GPUs enabling massive parallelism (3–4 orders of magnitude faster than CPUs).
  • Large datasets (e.g., ImageNet).
  • Open-source libraries (Jupyter, TensorFlow, PyTorch).

Computer Vision

Overview of Computer Vision

Overview of Computer Vision

Core concepts in computer vision and machine learning

cv ml
History of Computer Vision

History of Computer Vision

How computer vision evolved through feature spaces

cv
ImageNet Large Scale Visual Recognition Challenge

ImageNet Large Scale Visual Recognition Challenge

ImageNet's impact on modern computer vision

cv ml
Region-CNNs

Region-CNNs

Traditional ML vs modern computer vision approaches

ml cv

Distributed Systems

Overview of Distributed Systems

Overview of Distributed Systems

Fundamentals of distributed systems and the OSI model

distributed-systems
Distributed Systems Architectures

Distributed Systems Architectures

Common design patterns for distributed systems

distributed-systems
Dependability & Relevant Concepts

Dependability & Relevant Concepts

Reliability and fault tolerance in distributed systems

distributed-systems
Marshalling

Marshalling

How data gets serialized for network communication

distributed-systems
RAFT

RAFT

Understanding the RAFT consensus algorithm

distributed-systems
Remote Procedural Calls

Remote Procedural Calls

How RPC enables communication between processes

distributed-systems
Servers

Servers

Server design and RAFT implementation

distributed-systems
Sockets

Sockets

Network programming with UDP sockets

distributed-systems

Machine Learning (Generally Neural Networks)

Anatomy of Neural Networks

Anatomy of Neural Networks

Traditional ML vs modern computer vision approaches

ml cv
LeNet Architecture

LeNet Architecture

The LeNet neural network

ml cv
Principal Component Analysis

Principal Component Analysis

Explaining PCA from classical and ANN perspectives

data ml

Cryptography & Secure Digital Systems

Symmetric Cryptography

Symmetric Cryptography

covers MAC, secret key systems, and symmetric ciphers

cryptography
Hash Functions

Hash Functions

Hash function uses in cryptographic schemes (no keys)

cryptography
Public-Key Encryption

Public-Key Encryption

RSA, ECC, and ElGamal encryption schemes

cryptography
Digital Signatures & Authentication

Digital Signatures & Authentication

Public-key authentication protocols, RSA signatures, and mutual authentication

cryptography
Number Theory

Number Theory

Number theory in cypto - Euclidean algorithm, number factorization, modulo operations

cryptography
IPSec Types & Properties

IPSec Types & Properties

Authentication Header (AH), ESP, Transport vs Tunnel modes

cryptography