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Computational Mathematics - Complete Study Notes
This folder supports two different ways to study Computational Mathematics for MCA Semester I:
- Guided beginner lessons teach prerequisites in small concept blocks with intuition, examples, checkpoints, programming links, and practice.
- University module notes are compact exam references for the official six modules. A module is not intended to be completed as one short lesson.
Each module follows three learning layers:
- Simple idea: plain language and a familiar analogy.
- Worked example: a small, step-by-step problem.
- Technical meaning: correct definitions, tables, and exam points.
A small running example is reused across modules to keep ideas consistent: the Campus graph for graph theory, a fixed 2x2 / 3x3 matrix example for linear algebra, and small propositions p, q, r for logic.
Beginner Learning Path
This path builds mathematical prerequisites before the university modules. Each lesson uses plain English, analogies, worked problems, programming connections, and practice checkpoints. Complete only one concept block at a time and check your answer before continuing.
| Lesson | Topic | Status |
|---|---|---|
| 1 | Algebra Review - Building the Foundation | Available |
| 2 | Functions and Coordinate Graphs | Continue after completing Lesson 1 |
| 3 | Powers, Logarithms, Limits, and Basic Calculus | Planned prerequisite |
| 4 | Matrices and Determinants | Planned |
| 5 | Systems of Linear Equations | Planned |
| 6 | Vectors | Planned |
| 7 | Eigenvalues and Eigenvectors | Planned |
| 8 | Numerical Methods and Interpolation | Planned |
| 9 | Numerical Differentiation and Integration | Planned |
| 10 | Probability | Planned |
| 11 | Statistics | Planned |
| 12 | Graph Theory and Discrete Mathematics | Planned |
| 13 | Optimization | Planned |
Complete the checkpoints and exercises in one lesson before moving to the next.
Module-wise study method
- Review the module prerequisites and learning outcomes.
- Complete one 10-15-minute study block at a time.
- Rework calculations without looking at the example.
- Attempt the mini quiz and practice ladder before revealing solutions.
- Mark the module
Masteredonly after scoring at least 80% without notes.
Module Index
| Module | Topic | File |
|---|---|---|
| 1 | Logic: propositional and predicate calculus, Boolean algebra, natural deduction | Module 1 |
| 2 | Well-formed formulae and computable type checking | Module 2 |
| 3 | Graphs and trees: terminology, MST, Eulerian walking | Module 3 |
| 4 | Matrices: operations, algebra, geometric interpretation | Module 4 |
| 5 | Vector spaces and subspaces: bases, independence, transformations | Module 5 |
| 6 | Eigenvalues and eigenvectors, similarity, geometric interpretation | Module 6 |
Deep-Dive Articles
| Module | Article |
|---|---|
| 1 | Module-1-Article |
| 2 | Module-2-Article |
| 3 | Module-3-Article |
| 4 | Module-4-Article |
| 5 | Module-5-Article |
| 6 | Module-6-Article |
Revision Tools
- Quick Revision - last-minute review of all modules.
- Cheat Sheet - rules, formulas, and procedure summaries.
- Important Questions - exam questions with answer points.
- MCQ - multiple-choice practice by module.
- Glossary - important terms in alphabetical order.
- Web Resources - official and high-quality external references.
- PDF-Based Study Notes - consolidated notes from the available Modules 1-4 PDFs.
- Internal Exam 1 - 23-question paper with 8 sections and answer key.
- Practice Test 1 - revision test for Modules 1-2.
- Practice Test 2 - revision test for Modules 3-4.
How to use this folder
- Read the matching module note first.
- Open the matching article for a deeper explanation and extra examples.
- Use the cheat sheet for fast revision of formulas.
- Practice the MCQs and important questions without looking at the notes.
Running examples
- Logic:
p = "It is raining",q = "The ground is wet",r = "I carry an umbrella". - Graph: the Campus graph
G = ({A,B,C,D,E}, {AB, BC, CD, DE, EA, AC})with weights, used for spanning tree and MST. - Matrices:
M = [[2,1],[1,2]]andA = [[1,2,3],[0,1,4],[5,6,0]]reused for determinant, inverse, and eigenvalue work.