
Product Development: Full Software Engineering Program
- 22 Sections
- 241 Lessons
- 5 Assignments
- 0m Duration
Module 1: Computer Science & Software Engineering Foundations
Module 2: Computer Organization and Architecture (COA)
- Introduction to Computer Organization and Architecture (COA)
- Basics of Computer Architecture
- Classifications of Computer Architecture
- Introduction to Memory
- Memory Hierarchy & Interfacing
- Memory Interfacing – Solved PYQs
- Introduction to Cache Memory
- Direct Memory Mapping
- Direct Memory Mapping – Solved Examples
- Direct Memory Mapping – Solved PYQs (Part 1)
- Direct Memory Mapping – Solved PYQs (Part 2)
- Direct Memory Mapping – Solved PYQs (Part 3)
- Direct Memory Mapping – Hardware Implementation
- Associative Mapping
- Associative Mapping – Solved Examples
- Associative Mapping – Solved PYQ
- Set Associative Mapping
- Set Associative Mapping – Solved Examples (Part 1)
- Set Associative Mapping – Solved Examples (Part 2)
- Set Associative Mapping – Solved PYQs (Part 1)
- Set Associative Mapping – Solved PYQs (Part 2)
- Cache Memory Mapping – A Comparative Study
- Cache Memory Mapping – Solved PYQ
- Set Associative Mapping – Bonus PYQs
- Cache Design - An Overview
- Cache Replacement Policies - RR, FIFO, LIFO, & Optimal
- Cache Replacement Policies - MRU, LRU, Pseudo-LRU, & LFU
- LRU Cache Replacement Policy - Solved PYQs
- Cache Coherence Problem & Cache Coherency Protocols
- Snooping-based Cache Coherency Protocol
- Directory-based Cache Coherency Protocol
- Introduction to Primary Memory
- Primary Memory – Architecture of ROM (Part 1)
- Primary Memory – Architecture of ROM (Part 2)
- Primary Memory – Architecture of ROM (Part 3)
- Primary Memory – Architecture of ROM (Part 4)
- ROM – Solved Examples
- Primary Memory – RAM
- Primary Memory – Solved Example
- Introduction to Secondary Memory
- Secondary Memory – Hard Disk Drives
- Hard Disk Drives (Solved Problems) - Set 1
- Hard Disk Drives – Recording Density & Rotational Speed
- Hard Disk Drives (Solved Problems) - Set 2
- Hard Disk Drives (Solved Problems) - Set 3
- Hard Disk Drives (Solved Problems) - Set 4
- Hard Disk Drives (Solved Problems) - Set 5
- Secondary Memory – Solid State Drives
- Introduction to Number Systems
- Binary Number System
- Octal Number System
- Hexadecimal Number System
- Conversion to Decimal Number System
- Conversion from Decimal Number System
- Number System – Solved Problems (Set 1)
- Number System – Solved Problems (Set 2)
- Number System – Solved Problems (Set 3)
- Number System – Solved Problems (Set 4)
- Introduction to Complementary Number Systems
- Complementary Number Systems - Examples
- Diminished Radix and Radix Complement
- Subtraction in Diminished Radix Complement
- Subtraction in Radix Complement
- Representations of Binary Numbers
- Representations of Binary Numbers - Solved Problems
- Sign bit Extension (Part 1)
- Sign bit Extension (Part 2)
- Overflow in Signed and Unsigned Numbers
- Introduction to Binary Codes
- 8421, Excess-3, and 3321 Codes
- Binary Codes - Solved Problems
- BCD Addition
- BCD Adder
- Excess-3 Addition
- Gray Code
- Error Detection
- Error Correction
- Problem of Encoding in Error Detection and Correction
- Hamming Code
- Hamming Code – Solved Problems
- Floating Point Numbers
- Representations of Floating Point Numbers
- Explicit vs. Implicit Normalization of Floating Point Numbers
- Floating Point Numbers - Solved Problems
- IEEE Standard for Floating-Point Arithmetic (IEEE 754)
- IEEE 754 - Single and Double Precision
- IEEE 754 - Solved Problems (Set 1)
- IEEE 754 - Solved Problems (Set 2)
- Binary Multiplication
- The Concept of Booth’s Algorithm
- The Implementation of Booth’s Algorithm
- Binary Division
- The Concept of Restoring Division
- Implementation of Restoring Division
- Improving the Hardware of Restoring Division
- Non-Restoring Division
Module 3: Linear Algebra for Computing
Module 4: Linear Algebra for Computing (Essence of Linear Algebra)
- Vectors | Chapter 1, Essence of linear algebra
- Chapter 2: Linear combinations, span, and basis vectors
- Chapter 3: Linear transformations and matrices
- Chapter 4: Matrix multiplication as composition
- Chapter 5: Three-dimensional linear transformations
- Chapter 6: The determinant
- Chapter 7: Inverse matrices, column space and null space
- Chapter 8: Nonsquare matrices as transformations between dimensions
- Chapter 9: Dot products and duality
- Chapter 10: Cross products
- Chapter 11: Cross products in the light of linear transformations
- Chapter 12: Cramer's rule, explained geometrically
- Chapter 13: Change of basis
- Chapter 14: Eigenvectors and eigenvalues
- Chapter 15: A quick trick for computing eigenvalues
- Chapter 16: Abstract vector spaces
Module 5: Discrete Math (Sets, Logic, Proofs, Probability, Graph Theory, etc)
- Intro to Discrete Math
- Intro to Sets | Examples, Notation & Properties
- Set-Roster vs Set-Builder notation
- The Empty Set & Vacuous Truth
- Cartesian Product of Two Sets A x B
- Relations between two sets | Definition + First Examples
- The intuitive idea of a function
- Formal Definition of a Function using the Cartesian Product
- Example: Is this relation a function?
- Intro to Logical Statements
- Intro to Truth Tables | Negation, Conjunction, and Disjunction
- Truth Table Example: ~p V ~q
- Logical Equivalence of Two Statements
- Tautologies and Contradictions
- 3 Ways to Show a Logical Equivalence | Ex: DeMorgan's Laws
- Conditional Statements: if p then q
- Vacuously True Statements
- Negating a Conditional Statement
- Contrapositive of a Conditional Statement
- The converse and inverse of a conditional statement
- Biconditional Statements | "if and only if"
- Logical Arguments - Modus Ponens & Modus Tollens
- Logical Argument Forms: Generalizations, Specialization, Contradiction
- Analyzing an argument for validity
- Predicates and their Truth Sets
- Universal and Existential Quantifiers, ∀ "For All" and ∃ "There Exists"
- Negating Universal and Existential Quantifiers
- Negating Logical Statements with Multiple Quantifiers
- Universal Conditionals P(x) implies Q(x)
- Necessary and Sufficient Conditions
- Formal Definitions in Math | Ex: Even & Odd Integers
- How to Prove Math Theorems | 1st Ex: Even + Odd = Odd
- Step-By-Step Guide to Proofs | Ex: product of two evens is even
- Rational Numbers | Definition + First Proof
- Proving that divisibility is transitive
- Disproving implications with Counterexamples
- Proof by Division Into Cases
- Proof by Contradiction | Method & First Example
- Proof by Contrapositive | Method & First Example
- Quotient-Remainder Theorem and Modular Arithmetic
- Proof: There are infinitely many primes numbers
- Introduction to sequences
- The formal definition of a sequence.
- The sum and product of finite sequences
- Intro to Mathematical Induction
- Induction Proofs Involving Inequalities.
- Strong Induction // Intro and Full Example
- Recursive Sequences
- The Miraculous Fibonacci Sequence
- Prove A is a subset of B with the ELEMENT METHOD
- Proving equalities of sets using the element method
- The union of two sets
- The Intersection of Two Sets
- Universes and Complements in Set Theory
- Using the Element Method to prove a Set Containment w/ Modus Tollens
- Power Sets and the Cardinality of the Continuum
- Relations and their Inverses
- Reflexive, Symmetric, and Transitive Relations on a Set
- Equivalence Relations - Reflexive, Symmetric, and Transitive
- check every spot for reflexivity, symmetry, and transitivity
- Introduction to probability // Events, Sample Space, Formula, Independence
- Example: Computing Probabilities using P(E)=N(E)/N(S)
- What is the probability of guessing a 4 digit pin code?
- Counting with Triple Intersections // Example & Formula
- Permutations: How many ways to rearrange the letters in a word?
- The summation rule for disjoint unions
- Counting formula for two intersecting sets: N(A union B)=N(A)+N(B)-N(A intersect B)
- Combinations Formula: Counting the number of ways to choose r items from n items.
- How many ways are there to reorder the word MISSISSIPPI? // Choose Formula Example
- Counting and Probability Walkthrough
- Intro to Conditional Probability
- Two Conditional Probability Examples (what's the difference???)
- Conditional Probability With Tables | Chance of an Orange M&M???
- Bayes' Theorem - The Simplest Case
- Bayes' Theorem Example: Surprising False Positives
- Bayes' Theorem - Example: A disjoint union
- IS CHESS A GAME OF CHANCE? Classical vs Frequentist vs Bayesian Probability
- Intro to Markov Chains & Transition Diagrams
- Markov Chains & Transition Matrices
- Intro to Linear Programming
- Intro to Graph Theory | Definitions & Ex: 7 Bridges of Konigsberg
- Properties in Graph Theory: Complete, Connected, Subgraph, Induced Subgraph
- Degree of Vertices | Definition, Theorem & Example | Graph Theory
- Euler Paths & the 7 Bridges of Konigsberg | Graph Theory
- The End of Discrete Math - Congrats! Some final thoughts
- Discrete Mathematics by Shanghai Jiaotong University
Module 6: Programming Fundamentals with Python
Practical Assignments 1
Module7: Data Structures & Algorithms + Object-Oriented Programming
Module 8: Object-Oriented Programming (OOP) in Python
Module 9: Integrating Data Structures with OOP
Practical Assignments 2
Module 10: Web Development (Front-End)
Module 11: Web Development (Back-End)
Module 12: Integrating Front-End and Back-End (MERN Stack)
Practical Assignments 3
Module 13: DevOps, Cloud, and Deployment
Practical Assignments 4
Module 14: Cybersecurity & Secure Software Development
Module 15: Agile Product Development & Software Lifecycle
Software Development Life Cycle (SDLC) Overview
Tools for Agile and SDLC Management
Module 15: Capstone Project & Portfolio Building
The Product Development: Full Software Engineering Program is a comprehensive, project-driven training designed to elevate beginners into fully-equipped software professionals. Over approximately 9-11 months, learners gain expertise across four key domains:
- Foundational Engineering – mastering programming (Python & JavaScript), data structures, algorithms, and software architecture.
- Full‑Stack Development – building responsive, user-friendly front‑ends (React), scalable back‑ends (Node.js/Express), and database integration (SQL/NoSQL).
- Security, DevOps & Cloud – applying cybersecurity best practices, containerization (Docker), orchestration (Kubernetes), CI/CD pipelines, and cloud deployment.
- Product-Centered Software Delivery – embracing Agile methodologies (Scrum/Kanban), product lifecycle management, and cross-functional collaboration.
Learners progress through theory-rich lessons and hands-on assignments, culminating in a capstone project that blends technical implementation, product thinking, documentation, and deployment.
Graduates emerge as well-rounded professionals ready for roles such as Full‑Stack Engineer, DevOps Engineer, Product Engineer, or Technical Product Manager.