RTU Kota B.Tech AI 3rd Semester Object Oriented Programming Question Paper 2026

RTU Artificial Intelligence Object Oriented Programming 2026 Paper Review

Preparing for the Rajasthan Technical University B.Tech Object Oriented Programming (OOP) exam requires a strong understanding of software design architecture and class-level coding. For Artificial Intelligence and Computer Science students, OOP forms the core methodology used to build scalable machine learning libraries and complex data models. Languages like C++ and Python rely heavily on these concepts. The 2026 paper tests your ability to write efficient code, manage memory dynamically, and design logical class hierarchies. Reviewing this specific branch paper shows you exactly how examiners structure the questions and allocate marks among the programming modules. This preparation allows you to approach your third-semester exam confidently.

Understanding the AI Branch Exam Pattern

The RTU theory examination is a three-hour paper worth 70 marks. The paper consists of three distinct sections designed to evaluate both theoretical clarity and practical coding capability.

• Part A: This section contains ten compulsory questions worth two marks each. You must write short definitions, explain the purpose of specific keywords like virtual or friend, or find the output of a small code snippet under 30 words.
• Part B: You will find seven questions here. You must answer five of them. Each question is worth four marks. Your answers require writing short C++ functions, differentiating between concepts like function overloading and overriding, or explaining memory allocation.
• Part C: This section offers five major questions. You need to answer three. Each question carries ten marks. These require writing complete programming scripts, designing complex inheritance structures, and explaining advanced concepts like exception handling.

Core Topics Evaluated in the AI Paper

The 2026 question paper covers several critical modules that form the backbone of modern software development. Focus your study time on these specific areas to maximize your score.

Classes, Objects, and Constructors

This module tests your fundamental understanding of encapsulation. You must know how to define a class, create objects, and use access specifiers (private, public, protected) correctly. Practice writing code for different types of constructors, including default, parameterized, and copy constructors. Examiners frequently ask you to explain the role of a destructor and how it frees up dynamically allocated memory when an object goes out of scope.

Polymorphism and Overloading

Polymorphism is a highly scoring section. You must understand compile-time polymorphism. Practice writing programs demonstrating function overloading, where multiple functions share the same name but take different parameters. The paper consistently features a major question on operator overloading. You must write the exact syntax to overload unary and binary operators. Make sure you understand how to overload operators using both member functions and friend functions.

Inheritance and Class Hierarchies

You need to understand how to reuse code through inheritance. Study the syntax for single, multiple, multilevel, hierarchical, and hybrid inheritance. The 2026 paper evaluates your ability to resolve ambiguities. You must understand the "diamond problem" in multiple inheritance and know how to solve it using virtual base classes. Expect questions asking you to predict the order of constructor and destructor execution in an inherited class structure.

Pointers and Dynamic Binding

This section bridges the gap between memory management and dynamic code execution. You must understand how to use pointers with objects and arrays. Study the this pointer thoroughly. The core of this module is run-time polymorphism. You will frequently face a ten-mark question asking you to explain virtual functions, pure virtual functions, and abstract classes. You must write a complete C++ program showing how a base class pointer can call a derived class method using the virtual keyword.

Templates and Exception Handling

You must memorize the syntax for generic programming. Practice writing function templates and class templates to handle different data types with a single block of code. For exception handling, understand the structural flow of try, throw, and catch blocks. The paper often asks you to write a program that catches a specific error, such as a division-by-zero exception, to demonstrate your understanding of robust code design.

Answer Writing Strategy for High Marks

RTU evaluators look for clean syntax, correct indentation, and clear theoretical explanations in your answer booklet. Use a blue pen for your general explanations and a black pen for writing formal code blocks and syntax definitions.

In Part A, answer directly. If the question asks for the definition of encapsulation, define it simply as the wrapping up of data and functions into a single unit called a class. Keep your answers factual and precise.

In Part B, accompany your text with a short code example. When differentiating between a structure and a class, use a comparison table to list the default access specifiers and then provide a three-line code snippet showing how each is declared.

In Part C, logic execution is essential. When solving a ten-mark inheritance or operator overloading question, do not just write the theoretical concept. Start with the class diagram or algorithm, then write the complete C++ program with iostream headers and a main() function. Add brief comments explaining your constructor calls and pointer assignments. After writing the code, provide a sample input and the expected console output. Draw a prominent box around your final output text to make it visible to the examiner.

Time Management During the Exam

Allocate 20 minutes to Part A. Spend 40 minutes on Part B. Reserve the remaining 120 minutes for the three long-answer questions in Part C. Writing full C++ programs, managing pointer syntax, and ensuring all braces are closed requires substantial time. This distribution provides you with 40 minutes per major question, giving you ample time to check your logic and verify your variable scopes. Use the final 10 minutes to verify your code syntax, ensure all class definitions end with a semicolon, and check that all keywords are used correctly.