| 1 |
Introduction to Software, Software Applications |
Software is a collection of programs that perform specific tasks. Software applications are used in business, education, healthcare, banking, and entertainment. |
| 2 |
Importance and Evolution of Software |
Software plays a vital role in automation and problem-solving. It has evolved from simple systems to complex web and cloud-based applications. |
| 3 |
Software Components and Characteristics |
Software includes programs, data, and documentation. Key characteristics are reliability, efficiency, usability, and maintainability. |
| 4 |
Software Crisis and Myths |
Software crisis refers to project failures due to poor planning. Common myths include easy development and effortless maintenance. |
| 5 |
Software Engineering Paradigms |
Paradigms define development approaches such as procedural, object-oriented, and component-based models. |
| 6 |
Software Engineering Principles and Processes |
Principles guide quality development while processes define systematic development activities. |
| 7 |
Software Quality Attributes |
Quality attributes include correctness, reliability, efficiency, integrity, usability, and maintainability. |
| 8 |
Comparison: Software Engineering vs Computer Science vs Engineering |
Software engineering focuses on process and quality, computer science on theory, and engineering on physical systems. |
| 9 |
Software Terminologies: Product, Process, Deliverables, Milestones |
Product is the final software, process is how it is developed, deliverables are outputs, and milestones track progress. |
| 10 |
Measures, Metrics and Indicators |
Metrics are quantitative measures used to evaluate software quality and productivity. |
| 11 |
Programs and Software Products |
Programs are individual instructions, while software products are complete systems. |
| 12 |
Software Development Life Cycle (SDLC) |
SDLC defines structured phases from requirement analysis to maintenance. |
| 13 |
SDLC Models – Overview |
SDLC models provide different approaches based on project needs and risks. |
| 14 |
Structured Analysis and Object-Oriented Analysis |
Structured analysis focuses on functions, while object-oriented analysis focuses on objects and classes. |
| 15 |
Software Requirement Specification (SRS) |
SRS is a formal document describing functional and non-functional requirements. |
| 16 |
Waterfall and Prototype Models |
Waterfall is linear; Prototype model uses early working versions to refine requirements. |
| 17 |
RAD and Spiral Models |
RAD emphasizes rapid development, while Spiral focuses on risk-driven iterations. |
| 18 |
Evolutionary and Iterative Enhancement Models |
These models support incremental development with continuous improvements. |
| 19 |
Software Design Fundamentals |
Design converts requirements into a blueprint for software construction. |
| 20 |
Design Methodologies: Structured and Object-Oriented Design |
Structured design uses functions, object-oriented design uses objects and classes. |
| 21 |
Design Verification |
Verification ensures the design meets specified requirements. |
| 22 |
Monitoring, Control and Coding |
Monitoring tracks progress, control manages deviations, coding implements design. |
| 23 |
Software Testing Fundamentals |
Testing ensures software correctness and reliability. |
| 24 |
White Box and Black Box Testing |
White box tests internal logic; black box tests functionality. |
| 25 |
Software Testing Strategies |
Strategies define systematic approaches for defect detection. |
| 26 |
Unit and Integration Testing |
Unit testing tests modules; integration testing tests module interactions. |
| 27 |
Validation and System Testing |
Validation ensures correct product; system testing evaluates the full system. |
| 28 |
Debugging, Metrics and Specifications |
Debugging removes errors; metrics measure quality; specifications define behavior. |
| 29 |
Fault Avoidance, Fault Tolerance and Exception Handling |
These techniques reduce failures and improve software reliability. |
| 30 |
Defensive Programming |
Defensive programming anticipates errors and prevents unexpected failures. |
| 31 |
Software Maintenance |
Maintenance modifies software after delivery to fix or enhance it. |
| 32 |
Maintenance Characteristics and Maintainability |
Maintainability indicates how easily software can be modified. |
| 33 |
Maintenance Tasks and Side Effects |
Maintenance tasks may introduce side effects if not properly managed. |
| 34 |
CASE Tools – Introduction and Importance |
CASE tools automate development activities and improve productivity. |
| 35 |
CASE Architecture, Building Blocks and Repository |
CASE architecture defines tool structure; repositories store project data. |
| 36 |
Characteristics and Categories of CASE Tools |
CASE tools are categorized as upper, lower, and integrated CASE. |
| 37 |
Software Certification: Requirements, Types and Third-Party Certification |
Certification ensures compliance with quality and industry standards. |
| 38 |
Software Re-Engineering and Reverse Engineering |
Re-engineering improves software; reverse engineering extracts design. |
| 39 |
Software Configuration Management and Version Control |
SCM controls changes; version control tracks revisions. |
| 40 |
Change Control Process |
Change control evaluates and approves software modifications. |
| 41 |
Software Project Estimation: Cost, Effort and Schedule |
Estimation predicts project resources, time, and cost. |
| 42 |
COCOMO, Resource Allocation, Software Risk Analysis and Management |
COCOMO estimates cost, resources are optimized, and risks are identified and managed. |
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