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Colour Images
Colour Images 1. Table 3.4 : Figures generated by using blue prints BLUE PRINT
GENERATED FIGURES
The Sun (Blue print)
The Sun
Leaves (Blue print)
Leaves
The Goddess Subhadra (Blue print)
The Goddess Subhadra
247
L-System Fractals
248
Peacock (Blue Print)
Peacock
Flower (Blue print)
Flower
The Mountain (Blue print)
The Mountain
Colour Section
249
Tree (Blue print)
Tree
Fountain (Blue print)
Fountain
L-System Fractals
250
The thorn (Blue print)
The thorn
A Bird (Blue print)
A bird
The flame (Blue print)
The flame
Colour Section
251
Rock (Blue print)
Rock
Sierpinski gasket (Blue print)
Sierpinski gasket
Cancer (Blue print)
Cancer
L-System Fractals
252
Grass (Blue print)
Grass
Leaves (Blue print)
Leaves
As discussed in chapter 3, beautiful and colourful fractals can be generated out of different equations, represented through a blue print of the concerned fractal. The table of colourful fractal images are shown in the table above with corresponding blue prints against them. This has been reproduced with colours from the paper written by the authors titled “Generation of self similar graphical images using iterated function system” from the Proceedings of Conference on Information Technology, Bhubaneswar, Orissa, 2002, 300-301 [10]. 2. Table 8.1: Figures from the thesis of Hansrudi NOSER Many interesting figures have been generated using the concept discussed in the PhD thesis of H. NOSER titled “A Behavioral Animation System Based on L-systems and Synthetic Sensors for Actors” in the area of application of L-systems in animation and generation of synthetic sensors for actors [55]. These colourful figures have been given in the table below as a token of illusion and perception about 3D animation. This has been discussed in chapter 8 section 8.7 in detail.
Colour Section
Figure 8.2: A whirlwind in a forest
Figure 8.4: Butterflies
Figure 8.6: Bouncing balls
Figure 8.8:Terminalia by C. Cestonaro
253
Figure 8.3: School of Fish
Figure 8.5: Surreal L-structures
Figure 8.7: Palms by E. Frey
Figure 8.9:Nicotinia by C. Cestonaro
254
L-System Fractals
Figure 8.10:Tabebuia by C. Cestonaro
Figure 8.12: Ferns
Figure 8.14: Growing forest
Figure 8.16:Vision based 2D navigation
Figure 8.11:Picea abies by P. Prochet
Figure 8.13:Quartz by N. Durant de Saint Andre
Figure 8.15:Berillium by N. Durant de Saint Andre
Figure 8.17:Vision based 3D navigation
Colour Section
Figure 8.18: Walking on sparse foothold locations
255
Figure 8.19: Walking on sparse foothold locations
Figure 8.20: Imported actor trajectories
Figure 8.21:Escaping from a maze
Figure 8.22:Walking through a flower field
Figure 8.23:Navigating humanoids
Figure 8.24: Actors of a tennis game
Figure 8.25:Tennis game
256
L-System Fractals
Figure 8.26:VLNET tennis stade
Figure 8.28:Autonomous referee and player
Figure 8.30:Force field - tree interaction
Figure 8.27:VLNET racket picking
Figure 8.29:VLNET tennis game
Figure 8.31:Future animation with humanoids
GENERATED FIGURES
The Sun (Blue print)
The Sun
Leaves (Blue print)
Leaves
The Goddess Subhadra (Blue print)
The Goddess Subhadra
247
L-System Fractals
248
Peacock (Blue Print)
Peacock
Flower (Blue print)
Flower
The Mountain (Blue print)
The Mountain
Colour Section
249
Tree (Blue print)
Tree
Fountain (Blue print)
Fountain
L-System Fractals
250
The thorn (Blue print)
The thorn
A Bird (Blue print)
A bird
The flame (Blue print)
The flame
Colour Section
251
Rock (Blue print)
Rock
Sierpinski gasket (Blue print)
Sierpinski gasket
Cancer (Blue print)
Cancer
L-System Fractals
252
Grass (Blue print)
Grass
Leaves (Blue print)
Leaves
As discussed in chapter 3, beautiful and colourful fractals can be generated out of different equations, represented through a blue print of the concerned fractal. The table of colourful fractal images are shown in the table above with corresponding blue prints against them. This has been reproduced with colours from the paper written by the authors titled “Generation of self similar graphical images using iterated function system” from the Proceedings of Conference on Information Technology, Bhubaneswar, Orissa, 2002, 300-301 [10]. 2. Table 8.1: Figures from the thesis of Hansrudi NOSER Many interesting figures have been generated using the concept discussed in the PhD thesis of H. NOSER titled “A Behavioral Animation System Based on L-systems and Synthetic Sensors for Actors” in the area of application of L-systems in animation and generation of synthetic sensors for actors [55]. These colourful figures have been given in the table below as a token of illusion and perception about 3D animation. This has been discussed in chapter 8 section 8.7 in detail.
Colour Section
Figure 8.2: A whirlwind in a forest
Figure 8.4: Butterflies
Figure 8.6: Bouncing balls
Figure 8.8:Terminalia by C. Cestonaro
253
Figure 8.3: School of Fish
Figure 8.5: Surreal L-structures
Figure 8.7: Palms by E. Frey
Figure 8.9:Nicotinia by C. Cestonaro
254
L-System Fractals
Figure 8.10:Tabebuia by C. Cestonaro
Figure 8.12: Ferns
Figure 8.14: Growing forest
Figure 8.16:Vision based 2D navigation
Figure 8.11:Picea abies by P. Prochet
Figure 8.13:Quartz by N. Durant de Saint Andre
Figure 8.15:Berillium by N. Durant de Saint Andre
Figure 8.17:Vision based 3D navigation
Colour Section
Figure 8.18: Walking on sparse foothold locations
255
Figure 8.19: Walking on sparse foothold locations
Figure 8.20: Imported actor trajectories
Figure 8.21:Escaping from a maze
Figure 8.22:Walking through a flower field
Figure 8.23:Navigating humanoids
Figure 8.24: Actors of a tennis game
Figure 8.25:Tennis game
256
L-System Fractals
Figure 8.26:VLNET tennis stade
Figure 8.28:Autonomous referee and player
Figure 8.30:Force field - tree interaction
Figure 8.27:VLNET racket picking
Figure 8.29:VLNET tennis game
Figure 8.31:Future animation with humanoids