Part A Algorithmic journal

Page 1

STUDIO AIR

SEMESTER 1 2015, CHEN CANHUI OLIVIA GUDE 641636

Part A Algorithm Journal


Algorithmic Sketchbook

Table of Contents Week 1

1.01 Lofting & State Capture

4-11

1.02 Triangulation Algorithms

12-13

1.03 Dimensional Voronoi

14-17

1.04 3 Dimensional Oct. Tree

18-21

Delaunay Experiment

22-23

Week 2 2.01 Mesh Geometry

24-29

2.02 Curve Menu

30-35

2.03 Transform

36-43

2.04 Contour & Sectioning

44-47

2.05 Curve Intersections

48-59

2.06 Driftwood Surface

60-61

Week 3 3.01 Creating a Gridshell

62-67

3.02 Patterning List

68-69

3.03 Rutten Webinar

70-71


1.01 Lofting & State Capture

The following iterations are created as either open of closed curves and lofted in Grasshopper. The spatial qualities of each iteration type responds to layering and folding. By rebuilding and manipulating the control points in Rhino, I have alternated a pulling and pushing motion along the edges to create a flowing like gesture to iteration type B in particular. Iteration C focuses upon layering more so. Iteration A was the first curve that I practiced and experimented with to see how the pushing / pulling of the control points would look when starting with a relatively smooth surface. Iteration B started as a flat surface, where I had manipulated the control points to create undulating surface, which eventually concluded to a folding like surface. Iteration C started as an underlating surface which eventually overlapped.

4

CONCEPTUALISATION

FIG.1: ITERATION TYPE A

FIG.1: ITERATION TYPE B

FIG.1: ITERATION TYPE C

CONCEPTUALISATION 5



8

CONCEPTUALISATION

CONCEPTUALISATION 9


10

CONCEPTUALISATION

CONCEPTUALISATION 11


1.02 Triangulation Algorithms 2 Dimensional

Triangluation algorithms required numerical inputs as points (As seen as crosses in the following figures). The 2D frames depict the Voronoi, Delaunay and Meta Ball formations that a created. The threshold component changes the formations and density of each patterning, which is a useful component to customize meshing.

12

CONCEPTUALISATION

CONCEPTUALISATION 13


1.03 Dimensional Voronoi

By using a three-dimensional form, I have applied Voronoi to subject in order to determine how triangulation forms around the geomtery. The resulting polysurface expresses a cratered like conglomerate caused by the varied density and distribution of points.

14

CONCEPTUALISATION

CONCEPTUALISATION 15


16

CONCEPTUALISATION

CONCEPTUALISATION 17


1.04

3 Dimensional Oc Tree

By controlling the seed for insertion, point count and square leaves I was able to understand how this might configure the form of a cubed Oc Tree formation, despite the incorrect outcome.

18

CONCEPTUALISATION

CONCEPTUALISATION 19


20

CONCEPTUALISATION

CONCEPTUALISATION 21


1.05 Delaunay Experiment

The triangulation method in this case did not succeed, due to the nature of my selected surface from week 1. The triangulation has attempted to form around the actual shape, as opposed to within the structure of the shape. I was however able to understand how the triangles form as a structure, creating the nearest possible connections to each point depending upon the count and seed.

22

CONCEPTUALISATION

CONCEPTUALISATION 23


2.01 Mesh Geometry

The creation of a mesh geomtry was started through referencing a Brep in grasshopper. The chosen brep was intentionally sharp edged in order to see a distinctive change of mesh smoothness whilst the brep was forming into an organic geometry. This effect resembles similar notions to the decomposition of organic food for example.

24

CONCEPTUALISATION

CONCEPTUALISATION 25


26

CONCEPTUALISATION

CONCEPTUALISATION 27


28

CONCEPTUALISATION

CONCEPTUALISATION 29


2.02

30

Curve Menu

CONCEPTUALISATION

CONCEPTUALISATION 31


32

CONCEPTUALISATION

CONCEPTUALISATION 33


34

CONCEPTUALISATION

CONCEPTUALISATION 35


2.03 Transform

The transform method included using a shaped created during Week 1 and applying to the algorithm in order to produce the following outcomes. The images displayed on page page 38 and 39, depict the result of ‘Piping’, intrestingly it atempted to form around the three-dimensional box as seen within the image below.

36

CONCEPTUALISATION

CONCEPTUALISATION 37


38

CONCEPTUALISATION

CONCEPTUALISATION 39


A mesh configuration as a result of morphing.

40

CONCEPTUALISATION

CONCEPTUALISATION 41


42

CONCEPTUALISATION

CONCEPTUALISATION 43


2.04 Contour & Sectioning

I included a ‘Piping’ component in this algorithm for an interesting outcome, as may been seen. The ‘Sectioning’ part did not appear to work as effectively with my shape, possibly due to its topography like shape.

44

CONCEPTUALISATION

CONCEPTUALISATION 45


46

CONCEPTUALISATION

CONCEPTUALISATION 47


2.05 Curve Intersections

By translating the sphere into a cone, I have referenced another shape in order to create a different outcome. The change of radius and offset has resulted in various outcomes.

48

CONCEPTUALISATION

CONCEPTUALISATION 49


50

CONCEPTUALISATION

CONCEPTUALISATION 51


52

CONCEPTUALISATION

CONCEPTUALISATION 53


54

CONCEPTUALISATION

CONCEPTUALISATION 55


56

CONCEPTUALISATION

CONCEPTUALISATION 57


58

CONCEPTUALISATION

CONCEPTUALISATION 59


2.06 Driftwood Surface

By inserting in a gradual curve I was able to extrude the contours of the given shape.

60

CONCEPTUALISATION

CONCEPTUALISATION 61


3.01 Creating a Grid Shell

62

CONCEPTUALISATION

CONCEPTUALISATION 63


Surface Count: 8

Surface Count: 58

The Gridshell technique was applied to the following shape, the surface count and shift number was changed accordingly to manipulate the surface pattern. Surface Count: 30 64

CONCEPTUALISATION

Surface Count: 100 CONCEPTUALISATION 65


Surface Count: 0

Surface Count: 100

Surface Count: 10

66

CONCEPTUALISATION

CONCEPTUALISATION 67


3.02 Patterning List

By manipulating the U and V sequence and cull pattern a variety of patterns were created.

68

CONCEPTUALISATION

CONCEPTUALISATION 69


3.03 Rutten Webinar

By manipulating the X,Y cull pattern and circle radius the outcome was able vary in contrast and density as a result.

Twiggy Portrait

Union Jack 70

CONCEPTUALISATION

CONCEPTUALISATION 71


72

CONCEPTUALISATION


STUDIO


Algorithmic Sketchbook

Table of Contents Week 1

Lofting & State Capture Triangulation Algorithms: 2d 3d Delaunay Experiment

Week 2

Mesh Geometry

Week 3

1-4


Week 1 Lofting & State Capture

Explain iterations - discuss spatial qualities How I /rebuild/ and changed points scheme

FIG.1: (EXPLAIN HERE & REFERENCE AT THE END OF YOUR DOCUMENT)



Triangulation Algorithms 2 Dimensional

Inputs are points Various distribution 2D Voronoi Delaunay Meta Ball


3 Dimensional Voronoi

By using a three-dimensional form, I have applied Voronoi to subject in order to determine how triangulation forms around the geomtery. The resulting polysurface expresses a cratered like conglomerate caused by the varied density and distribution of points.


3 Dimensional Oc Tree

Controlling the seed for insertion, point count and square leaves to understand how this might configure the form of an cubed Oc Tree formation.


Delaunay Experiment


Week 2 Mesh Geometry





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