Thursday, March 5, 2026

Top 20 OpenGL Projects for Engineering Students

ABSTRACT

Computer graphics plays an important role in fields such as gaming, simulation, visualization, and scientific computing. OpenGL is one of the most widely used graphics APIs for building cross-platform graphics applications. Through practical projects, engineering students can gain a deeper understanding of rendering pipelines, GPU programming, shaders, and 3D mathematics.

This report presents twenty OpenGL project ideas categorized by difficulty level, including beginner, intermediate, and advanced projects. Each project is designed to strengthen practical skills in modern graphics programming using C++ and OpenGL. The goal of these projects is to help students develop the ability to design and implement real-time graphics applications.

Introduction
Objectives
Development Tools and Technologies
Beginner-Level OpenGL Projects
Intermediate-Level OpenGL Projects
Advanced-Level OpenGL Projects
Applications of OpenGL Projects
Conclusion
References

1. INTRODUCTION

OpenGL (Open Graphics Library) is an industry-standard graphics API used for developing two-dimensional and three-dimensional graphics applications. It provides developers with the tools needed to control the GPU and implement efficient rendering pipelines.

In modern computer graphics education, practical implementation is essential. Students must understand how rendering works through real projects that demonstrate concepts such as:

Vertex processing
Lighting models
Texture mapping
Shader programming
Real-time rendering techniques

The following project list is structured to help engineering students progressively build their skills from fundamental graphics programming to advanced rendering systems.

2. OBJECTIVES

The objectives of these OpenGL projects are:

To understand the fundamentals of computer graphics.
To develop practical experience with OpenGL programming.
To explore GPU-based rendering techniques.
To implement interactive graphics applications.
To prepare students for careers in graphics programming, game development, and simulation.

3. DEVELOPMENT TOOLS AND TECHNOLOGIES

The following tools are commonly used for OpenGL development.

Tool	Purpose
OpenGL	Graphics rendering API
C++	Primary programming language
GLFW	Window creation and input handling
GLAD / GLEW	OpenGL function loading
GLM	Mathematics library
stb_image	Texture loading
Assimp	3D model loading
Dear ImGui	User interface for debugging

These libraries simplify the development of modern OpenGL applications.

4. BEGINNER-LEVEL OPENGL PROJECTS

These projects introduce the fundamental concepts of rendering and graphics programming.

4.1 2D Shape Drawing Application

This project allows users to draw basic geometric shapes such as:

Lines
Triangles
Rectangles
Circles

Concepts learned:

Vertex buffers
Rendering primitives
User input handling

4.2 Interactive Solar System Simulation

This project simulates planetary motion where planets revolve around the sun.

Features:

Orbital motion
Planet rotation
Keyboard-controlled camera

Concepts learned:

Hierarchical transformations
Rotation matrices

4.3 3D Cube Viewer

A simple program displaying a cube that can be rotated, scaled, and translated.

Concepts learned:

Model, View, Projection matrices
Basic camera system

4.4 Texture Mapping Demonstration

Render textured objects such as cubes or spheres.

Concepts learned:

UV coordinates
Texture sampling
Texture filtering

4.5 Basic 3D Model Viewer

Load and render a 3D model file.

Features:

Model loading
Lighting
Camera control

Concepts learned:

Mesh structures
Model rendering pipeline

5. INTERMEDIATE-LEVEL OPENGL PROJECTS

These projects introduce more advanced graphics techniques.

5.1 Real-Time Terrain Generator

Generate terrain using procedural methods such as noise functions.

Concepts learned:

Heightmaps
Procedural generation

5.2 3D Maze Navigation Game

A small game where the player navigates through a maze using a first-person camera.

Concepts learned:

Collision detection
Camera systems
Game logic

5.3 Particle System Simulation

Simulate visual effects such as fire, smoke, or rain.

Concepts learned:

Particle systems
GPU instancing

5.4 Shadow Mapping

Implement dynamic shadows in a scene.

Concepts learned:

Depth maps
Framebuffer objects

5.5 Physics-Based Bouncing Ball Simulation

Simulate objects bouncing under gravity.

Concepts learned:

Motion equations
Collision response

5.6 First-Person Camera System

Develop a camera system similar to those used in FPS games.

Features:

Mouse look
Keyboard movement
Perspective projection

5.7 Water Rendering Simulation

Render animated water surfaces.

Concepts learned:

Reflection
Refraction
Wave animation

6. ADVANCED-LEVEL OPENGL PROJECTS

These projects involve complex rendering algorithms and system design.

6.1 Real-Time Ray Tracing (Hybrid)

Implement basic ray tracing techniques using shaders.

Concepts learned:

Ray-object intersection
Reflection and shadow calculations

6.2 Deferred Rendering Engine

Build a rendering pipeline capable of handling multiple lights efficiently.

Concepts learned:

G-buffer rendering
Deferred shading

6.3 Procedural City Generator

Automatically generate buildings and urban layouts.

Concepts learned:

Procedural modeling
Scene generation

6.4 Cloth Simulation

Simulate cloth movement using physics models.

Concepts learned:

Mass-spring systems
Real-time simulation

6.5 GPU Fluid Simulation

Create a real-time fluid or smoke simulation.

Concepts learned:

Numerical simulation
Compute shaders

6.6 OpenGL Mini Game Engine

Develop a basic rendering engine supporting:

Scene management
Lighting systems
Model loading
Camera control

6.7 Augmented Reality Viewer

Integrate computer vision with OpenGL rendering.

Concepts learned:

Camera calibration
Marker tracking
3D overlay rendering

6.8 Virtual Reality Scene Viewer

Render stereoscopic scenes for VR headsets.

Concepts learned:

Stereo rendering
Head tracking integration

7. APPLICATIONS OF OPENGL PROJECTS

OpenGL-based systems are widely used in many industries:

Video game development
Scientific visualization
CAD and engineering software
Virtual reality systems
Simulation and training environments
Medical imaging visualization

Developing OpenGL projects prepares students for careers in these fields.

8. CONCLUSION

OpenGL projects provide engineering students with hands-on experience in computer graphics programming. By implementing progressively complex projects, students can develop a deep understanding of rendering pipelines, shader programming, and real-time graphics techniques.

These twenty projects offer a structured pathway from beginner concepts to advanced graphics development, helping students build a strong foundation in modern graphics programming.

9. REFERENCES

OpenGL Architecture Review Board. OpenGL Programming Guide.
Shreiner, Dave et al. OpenGL SuperBible.
Akenine-Möller, Tomas et al. Real-Time Rendering.
OpenGL Official Documentation.
Graphics programming tutorials and educational resources.

Friday, December 26, 2025

Space Shooter game built with OpenGL -18CSL67/21CSL66

Students at Visvesvaraya Technological University (VTU) frequently engage in OpenGL mini-projects as a component of the Computer Graphics and Visualization (18CSL67/21CSL66) course. The newest initiatives for 2025 focus on interactive simulations and visual representations of algorithms.

A Space Shooter game built with OpenGL is a typical project for understanding computer graphics, usually developed in C++ language and utilizing well-known libraries such as GLFW, GLUT, and GLEW.

These games are typically 2D featuring traditional arcade-style mechanics and are frequently presented as assignments for courses in computer graphics and visualization.

Typical Attributes

2D Graphics: The game mainly employs 2D rendering, leveraging OpenGL to render points, lines, and polygons, which are subsequently textured to depict spaceships, bullets, and backgrounds.

Game Mechanics:

The gamer navigates a spacecraft around the display (typically using 'W', 'S', 'A', 'D' or 'I', 'K', 'J', 'L' buttons) and fires at foes with designated keys.

Enemies may consist of standard minions and bosses that have health bars.

Collision detection is an essential aspect, frequently employing Axis-Aligned Bounding Boxes (AABB) or circular/spherical detection, to identify when projectiles strike enemies or when the player takes damage.

Power-ups, like those that enhance fire rate or reduce boss health, might be obtainable.

Technical Execution:

The games frequently use a game loop for ongoing updates and rendering.

Libraries like stb_image are utilized for loading textures, while OpenAL is often selected for audio.

Fundamental shaders (color, texture, font) are generally applied.

Elements such as score trackers, health indicators, primary menus, and game over screens are also included in the user experience.

Coding Materials and Educational Tools

Many open-source projects can be found on GitHub, which can act as great educational tools or foundations for your own initiative.

Also See Space Invaders Freeglut Project

Basic 2D Game: An uncomplicated execution in C++ and OpenGL for fundamental understanding.

Contemporary OpenGL Method: A more intricate endeavor focused on tidy code and contemporary OpenGL capabilities, featuring an extensive roadmap that includes elements such as collision detection, sound, and state machines.

Multiplayer Edition: A project that features a two-player game along with a menu and introductory system

Game Description

Keybord control for PLAYER 1 :

W - UP

S - DOWN

A - LEFT

D - RIGHT

C - to shoot, Use 'w' and 's' to change direction.

Keybord control for PLAYER 2 :

I - UP

K - DOWN

J - LEFT

L - RIGHT

M - to shoot, Use 'I' and 'K' to change direction.

Objective

kill your opponent.

Each time a player gets shot, LIFE decreases by 5 points.

Source Code - 1. Download Free 2. Alternate Download Source Code link

Saturday, July 26, 2025

Drawing Mountains in OpenGL Using Bitmap Loaders

Using the OpenGL Glut library, we have created numerous straightforward and intricate programs, but none of them have used texturing or image loading. We tried to find how to load image in the Opengl? The stackoverflow question pertaining to "Loading images in openGL" yielded the best response.

Images Loading in OpenGL Graphics Programming

We can claim that working with OpenGL graphics programmiong, the image loading is seems to be difficult task. External libraries such as stb_image.h, DevIL (Developer's Image Library), FreeImage, and SOIL (Simple OpenGL Image Library) are used to read and decode images into raw pixel data; OpenGL does not import image files directly. This data is then sent to the GPU as a texture using OpenGL methods such as glGenTextures, glBindTexture, and glTexImage2D for rendering.

In addition to images/photos/pictures, textures can be used to contain a sizable collection of arbitrary data that can be sent to the shaders for rendering the object.

Drawing Mountains in OpenGL

In this Computer graphics Open project we are going to generate the mountains using the image texture with use of bitmap loaders.

1. Grass Like Texture to Mountains

We are randomly generating the mountains using a normalized pseudo-random number generator and fractal techniques. The windows are displayed differently each time you resize them or start the project program application. This application relies on GLUT and uses a bitmap for the grass texture. Therefore, they were loaded into the program for use using BitmapLoader.h.

2. Random Number for (Gaussian) distribution

Let first define the randomNormal utility function, which uses the central limit theorem approximation (sum of uniform random variables) to produce a random number with a normal (Gaussian) distribution.

double randomNormal (double mu, double sigma)
{
double sum = 0;
for(int i = 0; i < 12; i++)
sum = sum + (double)rand()/RAND_MAX;
sum -= 6;
return sigma*sum + mu;
}

3. Texture Creation and Circle Drawing Functions

Using raw bitmap data, createTexture1 loads a texture into OpenGL and sets its filtering mode to nearest neighbor (pixelated look) and wrapping mode to clamp.

Draw_circle uses a polygon of 36 vertices (one every 10 degrees) to approximate a 2D filled circle. This might stand in for the sun or another round object in the picture.

4. Fractal Mountain Generation Function

By periodically splitting a quadrilateral and applying a random height displacement, this recursive program creates fractal landscape.

Lighting effects are used to draw the quad once it is sufficiently small (perim <= tolerance). Using the Lambertian model, the lighting simulates diffuse light by shading the polygon according to its normal and light positions.

In order to produce four smaller quads recursively and add height perturbations for realistic terrain detail, it computes a displaced midpoint if it is not small enough.

5. Initialization of OpenGL and Textures

Uses the external method LoadBitmapFile to load the grass bitmap texture from the file. The program exits and prints an error if loading is unsuccessful. Specifies the scene's clipping volume and sets up the OpenGL projection matrix with an orthographic projection (no perspective). transforms the clean background into a dark gray.

Running the Program to get Desire Result

Before compiling the program place the grass image in the source folder, let the program load and run pefectly. If the grass image not present then comiplation will be error free but non loading of image lead to failure of outcome.

Downloads

Source code will be provie for both main program and header file including the bitmap image on request by you to our email id openglprojects@gmail.com

Wednesday, June 18, 2025

Opengl Computer Graphics Projects on Solar Energy Solar Power

We are going to get started Opengl Computer Graphics Projects on Solar Power/Solar Energy.

Abstract

The Main aim of this Mini OpenGL Project is to illustrate/demonstrate the working principle of Solar power/Solar Energy using the concepts and usage of pre-built functions in OpenGL.

In this we are going to demo Solar power using OpenGL. During day electricity is generated through solar panels which are set in fields called as solar farms and is transmitted to near by homes and excess is stored in a power station. During night the power station supplies the stored power to homes. We have used input devices like mouse and key board to interact with in the OpenGL C/C++ program.

Solar Power

Solar power is the power or say energy generated by conversion of sunlight into electricity using solar panels. For Generating energy or power these panels (Solar Panels), uses the photovoltaic cells in them which, convert light into direct current (DC). The DC, afterwards converted to alternating current (AC) for further use in electricity supply or to grid connection, or for storage in batteries. This is a renewable, green, clean energy source, with many advantages , helps in minimizing greenhouse gas emissions during operation and save plane from Global warming.

1. The Basics

We are going to code this OpenGL C/C++ program using MS Visual Studio, you are free to use other IDE like Code Block, Dev C++ etc.

First we are going to develop front page where user will input their interaction to start the program. A help screen will also create for getting the information or usage. User will have choice and program will accordingly.

We will implement various primitive functions for creating the square, rectangle and circle shape for create the diagram require for the demo of this Opengl Computer Graphics Projects on Solar Energy.

2. Implementation

2. 1 Various functions used in this program.

glutInit() : interaction between the windowing system and OPENGL is

initiated

glutInitDisplayMode() : used when double buffering is required and depth

information is required

glutCreateWindow() : this opens the OPENGL window and displays the title

at top of the window

glutInitWindowSize() : specifies the size of the window

glutInitWindowPosition() : specifies the position of the window in screen

co-ordinates

glutKeyboardFunc() : handles normal ascii symbols

glutSpecialFunc() : handles special keyboard keys

glutReshapeFunc() : sets up the callback function for reshaping the window

glutIdleFunc() : this handles the processing of the background

glutDisplayFunc() : this handles redrawing of the window

glutMainLoop() : this starts the main loop, it never returns

glViewport() : used to set up the viewport

glVertex3fv() : used to set up the points or vertices in three dimensions

glColor3fv() : used to render color to faces

glFlush() : used to flush the pipeline

glutPostRedisplay() : used to trigger an automatic redrawal of the object

glMatrixMode() : used to set up the required mode of the matrix

glLoadIdentity() : used to load or initialize to the identity matrix

glTranslatef() : used to translate or move the rotation centre from one

point to another in three dimensions

glRotatef() : used to rotate an object through a specified rotation angle

Also See -

Electromagnetic induction demo with opengl graphic program

Mini Solar System Computer Graphics Programs

3D Solar System OpenGL graphics program

Wind Mill C++ Projects Download

3. User Interaction

This program Opengl Computer Graphics Projects on Solar Energy Solar Power includes following interaction through keyboard.

S-> Toggle Day or night

H-> Get Help Menu

Q-> Quit

4. Source Code

The complete Source code of this Opengl Computer Graphics project can be found in the below. Please Let Us know about your opinion, feedback, question, doubt or any other queries in the comments section below.

void draw(){

if(day){

glClearColor(0.9,0.9,0.9,0.0);

}else{

glClearColor(0.3,0.3,0.3,0.0);

}

glPushMatrix();

glRotatef(angle,1,0,0);

glTranslatef(-10,20,-155);

glScaled(1,1,0.6);

if(day){

glColor3f(1,1,0);

}else{

glColor3f(1,1,1);

}

glutSolidSphere(5,100,100);

glPopMatrix();

glPushMatrix();

glTranslatef(0,-10,5);

glScaled(500,10,1000);

glColor3f(0.8,0.7,0.7);

glutSolidCube(1);

glPopMatrix();

drawHouse(-3,0,-55);

drawHouse(-4,0,-35);

drawHouse(-5,0,-15);

drawHouse(-10,0,-15);

//Solar Panels

for(int i=-1;i<3;i++)

{

for(int j=5;j>-2;j--)

drawSolarPanel(i*2,1,j);

}

//draw power station.

stroke_output(0.8,1.8,"Power Station");

// transformer

glPushMatrix();

glTranslatef(15,5,-100);

//glScaled(0,2,0.2);

glColor3f(1,0.3,0.3);

glutSolidCube(15);

glPopMatrix();

//Transformer Power levels

// y axis from 5 to 18 and show growth in one second delay

if(day){

if(grow<=15000){

grow++;

angle+=0.002;

}

else{

if(grow>=0){

grow--;

angle-=0.002;

}

if(grow>1000){

glPushMatrix();

glTranslatef(14.8,-2,-99.8);

glScaled(1,0.05,1);

glColor3f(1,1,0);

glutSolidCube(15);

glPopMatrix();

}

if(grow>2000){

glPushMatrix();

glTranslatef(14.8,-1,-99.8);

glScaled(1,0.05,1);

glColor3f(1,1,0);

glutSolidCube(15);

glPopMatrix();

}

if(grow>3000){

glPushMatrix();

glTranslatef(14.8,0,-99.8);

glScaled(1,0.05,1);

glColor3f(1,1,0);

glutSolidCube(15);

glPopMatrix();

}

if(grow>4000){

glPushMatrix();

glTranslatef(14.8,1,-99.8);

glScaled(1,0.05,1);

glColor3f(1,1,0);

glutSolidCube(15);

glPopMatrix();

}

if(grow>5000){

glPushMatrix();

glTranslatef(14.8,2,-99.8);

glScaled(1,0.05,1);

glColor3f(1,1,0);

glutSolidCube(15);

glPopMatrix();

}

if(grow>6000){

glPushMatrix();

glTranslatef(14.8,3,-99.8);

glScaled(1,0.05,1);

glColor3f(1,1,0);

glutSolidCube(15);

glPopMatrix();

}

if(grow>7000){

glPushMatrix();

glTranslatef(14.8,4,-99.8);

glScaled(1,0.05,1);

glColor3f(1,1,0);

glutSolidCube(15);

glPopMatrix();

}

if(grow>8000){

glPushMatrix();

glTranslatef(14.8,5,-99.8);

glScaled(1,0.05,1);

glColor3f(1,1,0);

glutSolidCube(15);

glPopMatrix();

}

if(grow>9000){

glPushMatrix();

glTranslatef(14.8,6,-99.8);

glScaled(1,0.05,1);

glColor3f(1,1,0);

glutSolidCube(15);

glPopMatrix();

}

if(grow>10000){

glPushMatrix();

glTranslatef(14.8,7,-99.8);

glScaled(1,0.05,1);

glColor3f(1,1,0);

glutSolidCube(15);

glPopMatrix();

}

if(grow>11000){

glPushMatrix();

glTranslatef(14.8,8,-99.8);

glScaled(1,0.05,1);

glColor3f(1,1,0);

glutSolidCube(15);

glPopMatrix();

}

if(grow>12000){

glPushMatrix();

glTranslatef(14.8,9,-99.8);

glScaled(1,0.05,1);

glColor3f(1,1,0);

glutSolidCube(15);

glPopMatrix();

}

if(grow>13000){

glPushMatrix();

glTranslatef(14.8,10,-99.8);

glScaled(1,0.05,1);

glColor3f(1,1,0);

glutSolidCube(15);

glPopMatrix();

}

if(grow>14000){

glPushMatrix();

glTranslatef(14.8,11,-99.8);

glScaled(1,0.05,1);

glColor3f(1,1,0);

glutSolidCube(15);

glPopMatrix();

}

if(grow>15000){

}

void doDisplay()

{

glClear(GL_COLOR_BUFFER_BIT | GL_DEPTH_BUFFER_BIT);

glLoadIdentity();

glTranslatef(0.0f,0.0f,-13.0f);

// Write your Own Code Here

if(help1){

help();

}

else

{

draw();

}

GLfloat mat_ambient[]={0.0f,1.0f,2.0f,1.0f};

GLfloat mat_diffuse[]={0.0f,1.5f,.5f,1.0f};

GLfloat mat_specular[]={5.0f,1.0f,1.0f,1.0f};

GLfloat mat_shininess[]={100.0f};

glMaterialfv(GL_FRONT,GL_AMBIENT,mat_ambient);

glMaterialfv(GL_FRONT,GL_DIFFUSE,mat_diffuse);

glMaterialfv(GL_FRONT,GL_SPECULAR,mat_specular);

glMaterialfv(GL_FRONT,GL_SHININESS,mat_shininess);

/*GLfloat lightIntensity[]={3.7f,0.7f,0.7f,1.0f}; Orange

GLfloat light_position[]={2.0f,5.0f,3.0f,1.0f};*/

/*light source properties*/

//if(day){

GLfloat lightIntensity[]={1.7f,1.7f,1.7f,1.0f};

GLfloat light_position[]={2.0f,0.0f,0.0f,0.0f};

glLightfv(GL_LIGHT0,GL_POSITION,light_position);

GLfloat light_position2[]={0.0f,0.0f,8.0f,0.0f};

glLightfv(GL_LIGHT0,GL_POSITION,light_position2);

GLfloat light_position3[]={0.0f,5.0f,15.0f,0.0f};

glLightfv(GL_LIGHT0,GL_POSITION,light_position3);

glLightfv(GL_LIGHT0,GL_DIFFUSE,lightIntensity);

/*}else{

GLfloat lightIntensity[]={0.7f,0.7f,0.7f,0.5f};

GLfloat light_position[]={2.0f,0.0f,0.0f,0.0f};

glLightfv(GL_LIGHT0,GL_POSITION,light_position);

GLfloat light_position2[]={0.0f,0.0f,8.0f,0.0f};

glLightfv(GL_LIGHT0,GL_POSITION,light_position2);

GLfloat light_position3[]={0.0f,2.0f,2.0f,0.0f};

glLightfv(GL_LIGHT0,GL_POSITION,light_position3);

glLightfv(GL_LIGHT0,GL_DIFFUSE,lightIntensity);

}*/

glFlush();

glutSwapBuffers();

}

void mykey(unsigned char key,int x,int y)

{

if(key=='q'||key=='Q')

{

exit(0);

}

if(key=='h'||key=='H')

{

help1=!help1;

glutPostRedisplay();

}

if(key=='s' || key=='S'){

if(day){

day=false;

}else{

day=true;

}

glutPostRedisplay();

glutIdleFunc(doDisplay);

}

int main(int argc, char *argv[])

{

glutInit(&argc, argv);

glutInitDisplayMode(GLUT_DOUBLE|GLUT_RGB);

glutInitWindowSize(640,480);

glutInitWindowPosition(0,0);

glutCreateWindow("Solar power");

glutDisplayFunc(doDisplay);

glEnable(GL_LIGHTING);

glEnable(GL_LIGHT0);

glShadeModel(GL_SMOOTH);

glEnable(GL_DEPTH_TEST);

glEnable(GL_NORMALIZE);

glutKeyboardFunc(mykey);

doInit();

glutMainLoop();

return 0;

}

We have so many good programs in OpenGL.

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Thursday, March 5, 2026

Top 20 OpenGL Projects for Engineering Students

ABSTRACT

TABLE OF CONTENTS

1. INTRODUCTION

2. OBJECTIVES

3. DEVELOPMENT TOOLS AND TECHNOLOGIES

4. BEGINNER-LEVEL OPENGL PROJECTS

4.1 2D Shape Drawing Application

4.2 Interactive Solar System Simulation

4.3 3D Cube Viewer

4.4 Texture Mapping Demonstration

4.5 Basic 3D Model Viewer

5. INTERMEDIATE-LEVEL OPENGL PROJECTS

5.1 Real-Time Terrain Generator

5.2 3D Maze Navigation Game

5.3 Particle System Simulation

5.4 Shadow Mapping

5.5 Physics-Based Bouncing Ball Simulation

5.6 First-Person Camera System

5.7 Water Rendering Simulation

6. ADVANCED-LEVEL OPENGL PROJECTS

6.1 Real-Time Ray Tracing (Hybrid)

6.2 Deferred Rendering Engine

6.3 Procedural City Generator

6.4 Cloth Simulation

6.5 GPU Fluid Simulation

6.6 OpenGL Mini Game Engine

6.7 Augmented Reality Viewer

6.8 Virtual Reality Scene Viewer

7. APPLICATIONS OF OPENGL PROJECTS

8. CONCLUSION

9. REFERENCES

Friday, December 26, 2025

Space Shooter game built with OpenGL -18CSL67/21CSL66

Saturday, July 26, 2025

Drawing Mountains in OpenGL Using Bitmap Loaders

Images Loading in OpenGL Graphics Programming

Drawing Mountains in OpenGL

1. Grass Like Texture to Mountains

2. Random Number for (Gaussian) distribution

3. Texture Creation and Circle Drawing Functions

4. Fractal Mountain Generation Function

5. Initialization of OpenGL and Textures

Running the Program to get Desire Result

Downloads

Wednesday, June 18, 2025

Opengl Computer Graphics Projects on Solar Energy Solar Power

Abstract

Solar Power

1. The Basics

2. Implementation

3. User Interaction

4. Source Code