Java Programming - Weekly Learning Objectives & Outcomes

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Course: 4343203 Java Programming | Semester 4 | 14 Weeks

🎯 Week 1: Java Foundation (Unit 1 - Lectures 1-3)

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Learning Objectives

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• Understand Java’s platform independence and “Write Once, Run Anywhere” philosophy
• Set up Java development environment (JDK, IDE)
• Comprehend JVM, JRE, and JDK relationships
• Write, compile, and execute basic Java programs

Key Concepts Covered

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• Java history, features, and applications
• JVM architecture and bytecode execution
• Environment setup and configuration
• Basic program structure and syntax

Learning Outcomes

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By end of Week 1, students will be able to:

• ✅ Explain Java’s key features and advantages
• ✅ Install and configure Java development environment
• ✅ Write and execute simple Java programs
• ✅ Understand compilation process from .java to .class

Assessment Methods

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• Lab Exercise: Environment setup and Hello World variations
• Quiz: Java fundamentals and platform independence

🎯 Week 2: Data Types & Operators (Unit 1 - Lectures 4-6)

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Learning Objectives

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• Master Java’s primitive and reference data types
• Understand type conversion, casting, and wrapper classes
• Apply various operators and understand precedence rules
• Implement basic control flow with selection statements

Key Concepts Covered

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• Primitive vs reference types, variables, constants
• Type conversion (implicit/explicit), wrapper classes
• Arithmetic, relational, logical, bitwise operators
• if-else statements, switch statements

Learning Outcomes

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By end of Week 2, students will be able to:

• ✅ Declare and initialize variables of appropriate types
• ✅ Perform type conversions and use wrapper classes
• ✅ Create complex expressions using multiple operators
• ✅ Implement decision-making logic with selection statements

Assessment Methods

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• Programming Assignment: Calculator program with type conversions
• Lab Quiz: Operator precedence and type compatibility

🎯 Week 3: Control Flow & Arrays (Unit 1 - Lectures 7-9)

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Learning Objectives

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• Master all loop constructs and their appropriate usage
• Implement 1D and 2D array operations
• Understand array memory layout and performance implications
• Begin object-oriented thinking with class concepts

Key Concepts Covered

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• for, while, do-while, enhanced for loops
• Break, continue, and labeled statements
• Array declaration, initialization, and manipulation
• Introduction to classes and objects

Learning Outcomes

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By end of Week 3, students will be able to:

• ✅ Choose appropriate loop construct for given scenarios
• ✅ Create and manipulate single and multi-dimensional arrays
• ✅ Optimize loop performance and avoid common pitfalls
• ✅ Understand basic class structure and object creation

Assessment Methods

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• Programming Project: Matrix operations using 2D arrays
• Code Review: Loop optimization and array manipulation

🎯 Week 4: Object-Oriented Fundamentals (Unit 2 - Lectures 10-12)

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Learning Objectives

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• Implement classes with proper encapsulation principles
• Create and use constructors for object initialization
• Understand method overloading and this keyword usage
• Apply access modifiers for data security

Key Concepts Covered

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• Class definition, instance variables, methods
• Constructor types and overloading
• Method overloading and parameter passing
• Access modifiers (private, public, protected, default)

Learning Outcomes

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By end of Week 4, students will be able to:

• ✅ Design classes with proper encapsulation
• ✅ Create multiple constructors for flexible object creation
• ✅ Implement method overloading for code reusability
• ✅ Apply appropriate access levels for class members

Assessment Methods

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• Design Exercise: Student/Employee class hierarchy design
• Coding Assignment: Banking account class with multiple constructors

🎯 Week 5: Advanced OOP & String Handling (Unit 2 - Lectures 13-15)

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Learning Objectives

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• Master String class and its immutability implications
• Implement static members and understand their lifecycle
• Understand inheritance basics and IS-A relationships
• Apply final keyword in various contexts

Key Concepts Covered

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• String class, String methods, StringBuffer, StringBuilder
• Static variables, methods, and initialization blocks
• Inheritance with extends keyword, super keyword
• final keyword for variables, methods, and classes

Learning Outcomes

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By end of Week 5, students will be able to:

• ✅ Efficiently handle string operations and memory management
• ✅ Use static members appropriately for shared functionality
• ✅ Implement basic inheritance hierarchies
• ✅ Apply final keyword to create immutable designs

Assessment Methods

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• Performance Analysis: String vs StringBuilder comparison
• Inheritance Project: Shape hierarchy implementation

🎯 Week 6: Polymorphism & Interfaces (Unit 2 - Lectures 16-19)

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Learning Objectives

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• Implement method overriding and runtime polymorphism
• Create and use abstract classes for common functionality
• Design and implement interfaces for multiple inheritance
• Organize code using packages and understand access control

Key Concepts Covered

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• Method overriding, @Override annotation, dynamic method dispatch
• Abstract classes and abstract methods
• Interface definition, implementation, and multiple inheritance
• Package creation, import statements, and CLASSPATH

Learning Outcomes

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By end of Week 6, students will be able to:

• ✅ Implement polymorphic behavior using method overriding
• ✅ Design abstract classes for code reuse and consistency
• ✅ Create interfaces for achieving multiple inheritance
• ✅ Organize large applications using packages

Assessment Methods

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• Mid-term Examination: Comprehensive Unit 1 & 2 coverage
• Portfolio Project: Multi-package application with polymorphism

🎯 Week 7: Exception Handling (Unit 3 - Lectures 20-22)

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Learning Objectives

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• Understand Java’s exception hierarchy and handling mechanisms
• Implement robust error handling using try-catch-finally
• Create custom exceptions for application-specific errors
• Master thread creation and basic multithreading concepts

Key Concepts Covered

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• Exception hierarchy (Throwable, Error, Exception)
• try-catch-finally blocks, multiple catch blocks
• Checked vs unchecked exceptions, throws keyword
• Thread class, Runnable interface, thread creation methods

Learning Outcomes

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By end of Week 7, students will be able to:

• ✅ Handle exceptions gracefully with appropriate recovery strategies
• ✅ Create and throw custom exceptions for business logic
• ✅ Write robust code that handles various error scenarios
• ✅ Create and manage multiple threads in Java applications

Assessment Methods

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• Exception Handling Project: File processing with comprehensive error handling
• Threading Lab: Producer-consumer problem implementation

🎯 Week 8: Threading & File I/O (Unit 3 - Lectures 23-25)

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Learning Objectives

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• Implement thread synchronization for shared resource access
• Master file input/output operations using streams
• Understand byte streams vs character streams usage
• Apply proper resource management in file operations

Key Concepts Covered

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• Thread synchronization, synchronized keyword, wait/notify
• InputStream, OutputStream hierarchy
• FileInputStream, FileOutputStream, BufferedStream classes
• Reader, Writer hierarchy for character-based I/O

Learning Outcomes

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By end of Week 8, students will be able to:

• ✅ Implement thread-safe programs using synchronization
• ✅ Perform file operations using appropriate stream classes
• ✅ Choose between byte and character streams based on requirements
• ✅ Handle file exceptions and ensure proper resource cleanup

Assessment Methods

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• Concurrency Project: Thread-safe data structure implementation
• File I/O Assignment: Log file analyzer with multiple stream types

🎯 Week 9: Serialization & Collections Introduction (Unit 3 - Lectures 26-28)

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Learning Objectives

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• Implement object serialization for data persistence
• Understand Collections Framework architecture and design
• Master List interface implementations and their trade-offs
• Apply appropriate data structures based on performance requirements

Key Concepts Covered

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• Object serialization, Serializable interface, serialVersionUID
• Collections Framework hierarchy (Collection, List, Set, Map)
• ArrayList vs LinkedList vs Vector comparison
• Generic types and type safety

Learning Outcomes

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By end of Week 9, students will be able to:

• ✅ Serialize and deserialize objects for data persistence
• ✅ Choose appropriate List implementation based on usage patterns
• ✅ Use generic types for type-safe collections
• ✅ Analyze performance characteristics of different data structures

Assessment Methods

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• Serialization Lab: Save/load application state
• Collections Performance Analysis: Benchmark different implementations

🎯 Week 10: Advanced Collections & Generics (Unit 3 - Lectures 29-30)

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Learning Objectives

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• Master Set and Map implementations for different use cases
• Implement custom generic classes and methods
• Understand wildcards and bounded type parameters
• Apply Collections utility methods for common operations

Key Concepts Covered

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• HashSet, TreeSet, LinkedHashSet comparison
• HashMap, TreeMap, LinkedHashMap analysis
• Generic wildcards (? extends, ? super)
• Collections utility class methods (sort, search, etc.)

Learning Outcomes

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By end of Week 10, students will be able to:

• ✅ Select optimal Set/Map implementation for specific requirements
• ✅ Create type-safe generic classes and methods
• ✅ Use advanced generic features like wildcards effectively
• ✅ Apply Collections utility methods for efficient operations

Assessment Methods

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• Generic Programming Project: Type-safe data structure library
• Collections Framework Comprehensive Test

🎯 Week 11: Advanced Features I (Unit 4 - Lectures 31-33)

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Learning Objectives

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• Master wrapper classes and autoboxing/unboxing mechanisms
• Implement various types of inner classes appropriately
• Understand JVM memory model and garbage collection process
• Apply memory optimization techniques for better performance

Key Concepts Covered

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• Wrapper classes (Integer, Double, Boolean, etc.)
• Autoboxing, unboxing, and performance implications
• Inner classes, local classes, anonymous classes
• JVM memory areas (heap, stack, method area), GC process

Learning Outcomes

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By end of Week 11, students will be able to:

• ✅ Use wrapper classes efficiently with primitive-object conversion
• ✅ Implement appropriate inner class patterns for specific scenarios
• ✅ Understand memory allocation and garbage collection behavior
• ✅ Write memory-efficient Java applications

Assessment Methods

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• Memory Management Lab: Profiling and optimizing Java applications
• Inner Classes Design Exercise: Event handling implementation

🎯 Week 12: Advanced Features II (Unit 4 - Lectures 34-36)

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Learning Objectives

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• Handle command-line arguments and system properties
• Apply Java coding best practices and conventions
• Implement common design patterns in Java
• Understand code quality metrics and refactoring techniques

Key Concepts Covered

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• Command-line argument processing, System properties
• Coding standards, naming conventions, documentation
• Singleton, Factory, Observer design patterns
• Code smells, refactoring techniques, SOLID principles

Learning Outcomes

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By end of Week 12, students will be able to:

• ✅ Create command-line applications with proper argument handling
• ✅ Write maintainable, well-documented Java code
• ✅ Apply common design patterns to solve recurring problems
• ✅ Refactor existing code for better quality and maintainability

Assessment Methods

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• Design Patterns Project: Implement multiple patterns in a cohesive system
• Code Quality Review: Refactor legacy code assignment

🎯 Week 13: Project Development I (Unit 5 - Lectures 37-39)

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Learning Objectives

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• Design and implement a complete Java application
• Apply object-oriented design principles to real-world problems
• Integrate multiple concepts (OOP, collections, file I/O, threading)
• Use version control and collaborative development practices

Key Concepts Covered

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• Software design process, requirements analysis
• Class diagram design, relationship modeling
• Multi-tier application architecture
• Integration of threads, collections, and file persistence

Learning Outcomes

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By end of Week 13, students will be able to:

• ✅ Design complete applications using OOP principles
• ✅ Integrate multiple Java concepts in a cohesive solution
• ✅ Apply software engineering practices to development projects
• ✅ Handle complex inter-object relationships and data flow

Assessment Methods

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• Major Project Phase 1: Banking/E-commerce system design and core implementation
• Peer Code Review: Collaborative development exercise

🎯 Week 14: Project Development II & Course Wrap-up (Unit 5 - Lectures 40-42)

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Learning Objectives

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• Complete comprehensive Java application development
• Implement testing strategies including unit testing
• Apply debugging and performance optimization techniques
• Prepare for advanced Java technologies and frameworks

Key Concepts Covered

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• Unit testing with JUnit, test-driven development
• Debugging techniques, profiling tools
• Performance optimization, code review practices
• Advanced Java topics preview (Spring, web development)

Learning Outcomes

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By end of Week 14, students will be able to:

• ✅ Develop complete, tested, and optimized Java applications
• ✅ Apply professional development practices including testing
• ✅ Debug and optimize Java applications effectively
• ✅ Demonstrate mastery of core Java programming concepts

Assessment Methods

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• Final Project Presentation: Complete application demonstration
• Comprehensive Final Examination: All units coverage
• Portfolio Review: Complete semester work evaluation

📊 Overall Learning Assessment Strategy

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Continuous Assessment (40%)

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• Weekly lab assignments and quizzes
• Programming projects and code reviews
• Class participation and peer collaboration

Major Assessments (60%)

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• Mid-term examination (20%)
• Final project (20%)
• Final comprehensive examination (20%)

Learning Outcome Verification

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• Technical Skills: Programming proficiency demonstration
• Problem Solving: Complex application development
• Professional Practices: Code quality, documentation, testing
• Conceptual Understanding: Comprehensive examination results

🚀 Preparation for Advanced Studies

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Next Semester Prerequisites

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• Advanced Java (Spring Framework, Web Development)
• Database Programming (JDBC, ORM frameworks)
• Software Engineering Practices

Industry Readiness Skills

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• Object-oriented design and development
• Multi-threaded application development
• Data structure selection and optimization
• Professional coding standards and practices

This comprehensive learning plan ensures students gain both theoretical understanding and practical skills essential for Java development careers.