computer science

Running head: CMSC 405 PROJECT 2 1

JOGL OpenGL Project–Project 2

Student Name

CMSC 405 7981 Computer Graphics (2175)

Professor: Lauren King

Due November 19, 2017 11:59 PM

2

PROJECT 2

User Guide Project 2 was to develop a unique 3 graphics scene composed of JOGL OpenGL.

The project requirements stated: using Netbeans or Eclipse, develop a JOGL OpenGL

application that displays a unique 3D scene. The scene has the following specifications:

a) Size: minimum 640x480

b) Includes at least 6 different shapes

c) Uses at least 6 different transformation methods

Getting Started 1. The JoglProject.java file requires the Camera.java class to run, ensure they are in the

same folder.

2. Launch JoglProject.java. The following window will appear in the center of your

monitor:

Picture 1: Initial Window

3. The animation will run in loops while the window is open. The following animation will

occur:

a) Wire Torus rotate 180 degrees on y axis

b) Cylinder rotate 45 degrees on z axis

c) Cube rotate 270 degrees counter clock on x axis

d) Sphere rotate 20 degrees on y axis

e) RhombiDodecahedron rotate 45 degrees counter clock on z axis

f) Octahedron rotate 45 degrees on x axis

g) Teapot rotate counter clock on y axis

h) Base rotate clock wise on y axis

i) Red orb rotate on y axis

j) Green orb rotate on x axis

k) Blue orb rotate with a faster speed on z axis

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PROJECT 2

4. At the bottom of the screen are three Checkboxes that allows the user to stop and restart

the animation. The second Checkbox allows the user to turn on / off the base. Third

checkbox turns lights on / off.

5. Click and hold on the screen, then drag your mouse around to move the point of view.

Project Requirements

1. Size: minimum 640x480

2. Includes at least 6 different shapes

a) Octahedron (yellow)

b) Wire Torus (red)

c) Cylinder (orange/brown)

d) Cube (light blue)

e) Sphere (green)

f) RhombiDodecahedron (blue)

g) Teapot

h) Base

i) Spheres (red, green, blue)

3. Uses at least 6 different transformation methods

a) Wire Torus rotate 180 degrees on y axis – Scale in size

b) Cylinder rotate 45 degrees on z axis – Scale in size

c) Cube rotate 270 degrees counter clock on x axis – Scale in size

d) Sphere rotate 20 degrees on y axis – Scale in size

e) RhombiDodecahedron rotate 45 degrees counter clock on z axis – Scale in

size

f) Octahedron rotate 45 degrees on x axis – Scale in size

g) Teapot rotate counter clock on y axis

h) Base rotate clock wise on y axis

i) Red orb rotate on y axis

j) Green orb rotate on x axis

k) Blue orb rotate with a faster speed on z axis

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PROJECT 2

Test Plan

Test Input Performance Output Result Result

1 Setting Eclipse up for

Jogl OpenGL

Download and install the

library .jar file jogamp-

all-platforms, java

documentations, native

library glugen-javadoc,

and jogl javadocs.

Eclipse is

running and

able to use

jogl library.

Figure 1 Pass

2 Create Wire Torus and

have it translate and rotate

in 180 degrees on y axis.

Scale it size

Wire Torus is red, it

translates and rotates 180

degree around y axis, and

it scales it size.

Wire Torus is

red, it

translates and

rotates 180

degree around

y axis, and it

scales it size.

Figure 2 Pass

3 Create Cylinder and have

it translate and rotate 45

degrees on z axis. Scale it

size.

Cylinder is orange/brown,

it translates and rotates 45

degrees on z axis.

Cylinder size is scaled.

Cylinder is

orange/brown,

it translates

and rotates 45

degrees on z

axis. Cylinder

size is scaled.

Pass

4 Create Cube and have it

translate and rotate 270

degrees counter clock on

y axis. Scale it size.

Cube is light blue it

translates and rotate 270

degrees counter clock on

y axis. Cubes size is

scaled.

Cube is light

blue it

translates and

rotate 270

degrees

counter clock

on y axis.

Cubes size is

scaled.

Figure 3 Pass

5 Create Sphere and have it

translate and rotate 20

degree on y axis. Scale it

size.

Sphere is blue; it

translates and rotates 20

degree on y axis. Scaled

in size.

Sphere is

green; it

translates and

rotates 20

degree on y

axis. Scaled in

size.

Figure 4 Pass

6 Create

RhombiDodecahedron

and have it translate and

rotate 45 degrees counter

clock on z axis. Scale it

size.

RhombiDodecahedron in

green translates and

rotates 45 degrees counter

clock on z axis. It is

scaled in size.

RhombiDodec

ahedron in

blue translates

and rotates 45

degrees

counter clock

on z axis. It is

scaled in size.

Figure 5 Pass

7 Create Octahedron and

have it translate and rotate

45 degrees on x axis.

Scale in size.

Octahedron created in

yellow that translate and

rotates 45 degrees on x

axis. Object scaled in

size.

Octahedron

created in

yellow that

translate and

rotates 45

Figure 6

Pass

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PROJECT 2

degrees on x

axis. Object

scaled in size.

8 Create Teapot and let it

rotate counter clock on y

axis.

Teapot rotate counter

clock on y axis.

Teapot rotate

counter clock

on y axis.

Figure 7 Pass

9 Create Base for Teapot

and let it rotate clock wise

on y axis.

Base for Teapot is

rotating clock wise on y

axis.

Base for

Teapot is

rotating clock

wise on y axis.

Figure 8 Pass

10 Let red orb rotate on y

axis

Red orb (spheres) rotates

on y axis.

Red orb

(spheres)

rotates on y

axis.

Pass

11 Let green orb rotate on x

axis.

Green orb (spheres)

rotates on x axis.

Green orb

(spheres)

rotates on x

axis.

Pass

12 Let blue orb in a faster

speed rotate on z axis

Blue orb (spheres) rotates

with a faster speed on z

axis.

Blue orb

(spheres)

rotates with a

faster speed on

z axis.

Figure 9 Pass

13 Create three Checkboxes

that allows the user to

stop and restart the

animation. Second

Checkbox allows to user

to turn on / off the base.

Third Checkbox turns

lights on / off.

Three Checkboxes

created. First allows the

user to stop and restart the

animation. Second

Checkbox allows to user

to turn on / off the base.

Third Checkbox turns

lights on / off.

Three

Checkboxes

created. First

allows the user

to stop and

restart the

animation.

Second

Checkbox

allows to user

to turn on / off

the base. Third

Checkbox

turns lights on

/ off.

Figure 10 Pass

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PROJECT 2

Screenshots of Successful Compiling and Running

Screenshots are from Eclipse Version: Oxygen.1a Release (4.7.1a).

Test1: Download and install the library .jar file jogamp-all-platforms, java documentations,

native library glugen-javadoc, and jogl javadocs.

Figure 1 – Test 1

Test 2: Create a red Wire Torus and have it translate and rotate in 180 degrees on y axis. Scale it

size

Figure 2 – Test 2

Test 3: Create an orange / brown Cylinder and have it translate and rotate 45 degrees on z axis.

Scale it size.

Test 4: Create a light blue Cube and have it translate and rotate 270 degrees counter clock on y

axis. Scale it size.

Figure 3 – Test 4

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PROJECT 2

Test 5: Create a blue Sphere and have it translate and rotate 20 degree on y axis. Scale it size.

Figure 4 – Test 5

Test 6: Create a green RhombiDodecahedron and have it translate and rotate 45 degrees counter

clock on z axis. Scale it size.

Figure 5 – Test 6

Test 7: Create a yellow Octahedron and have it translate and rotate 45 degrees on x axis. Scale in

size.

Figure 6 – Test 7

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PROJECT 2

Test 8: Create Teapot and let it rotate counter clock on y axis.

Figure 7 – Test 8

Test 9: Create Base for Teapot and let it rotate clock wise on y axis.

Figure 8 – Test 9

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PROJECT 2

Test 10: Create red orb (sphere) and have it translate and rotate in y axis.

Test 11 Create green orb (sphere) and have it translate and rotate in y axis.

Test 12: Create blue orb (sphere) and have it translate and rotate in y axis.

Figure 9 – Test 12

Test 13: Create three Checkboxes. First checkbox allows the user to stop and restart the

animation. Second checkbox allows to user to turn on / off the base. Third checkbox turns lights

on / off.

Figure 10 – Test 12

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PROJECT 2

Lessons Learned

1. I spend almost one week on getting Netbeans to work. I was finally successful with

Eclipse and able to install the library .jar file jogamp-all-platforms, java documentations,

native library glugen-javadoc, and jogl javadocs;

2. Order of things – the order you put your code will change what visualizations appear. I

enjoyed playing around with the placement of scale, translate, and rotate to see how

different ordering provided much different results.

3. In order to complete this 3D spinning, transformations, timers and colors using OpenGL

and GLUT, you need to know the basics of programming.

4. Continued development – I would be interested in continuing develop projects that render

graphic images and animate three-dimensional objects.