cad logic-tensile structure

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CAD LOGIC SS09 SLITTING Professor DIA Students Daniel Dendra Grisha Zotov Liu, Ko-cheng Master of Arc. Dessau Institute of Architecture Documentation Analysis Strategy

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DIA course

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Page 1: Cad logic-Tensile Structure

CAD

LOG

IC SS09 SLITTING

Professor

DIA

Students

Daniel Dendra

Grisha ZotovLiu, Ko-cheng

Master of Arc.Dessau Institute of Architecture

Docum

entation

Analysis

Strategy

Page 2: Cad logic-Tensile Structure
Page 3: Cad logic-Tensile Structure

SLITTINGTNESILE STRUCTURE

Page 4: Cad logic-Tensile Structure

Experiment 01 02 03

Fixing Point

Introduction

In the beginning of the course, we started to make experiments with different materials. What we were interested is the tensile struc-ture because it has the potential to create specific forms with tension. Therefore, we optimized all the experiments as three main ones with different types of cuts, but follow-ing the same strategy and set up in order to see the logic behind the structure.

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Page 5: Cad logic-Tensile Structure

Strategy

According to the fixing point, it can be adjusted up and down in one dimension. Once more and more fixing points are attached to the frame, we find that they can find their best position on their own becasue of the self-supporting system of the tensile structure.

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Strategy

02

Page 6: Cad logic-Tensile Structure

Docum

entation

Experiment 01___Verticle Cut

03

Plan

Material 16 CutsStockings

Page 7: Cad logic-Tensile Structure

01

PerspectiveSection

04

Page 8: Cad logic-Tensile Structure

Experiment 02___Horizontal Cut

05

Plan

Material 16 CutsStockings

Docum

entation

Page 9: Cad logic-Tensile Structure

01

PerspectiveSection

06

Page 10: Cad logic-Tensile Structure

Experiment 03___V - Shape Cut

07

Plan

Material 16 CutsStockings

Docum

entation

Page 11: Cad logic-Tensile Structure

01

PerspectiveSection

08

Page 12: Cad logic-Tensile Structure

09

Page 13: Cad logic-Tensile Structure

ANALYSISFROM MODEL INTO DIGITAL

10

Page 14: Cad logic-Tensile Structure

Analysis___Digital Model

11

Analysis

Page 15: Cad logic-Tensile Structure

Analysis

Based on previous experiments, we have better understanding of how the tensile structure works in the 3D dimension. In order to have broad learn-ing from it, we bring the same concept into com-puter program, construct more optimizing struc-ture (each point is fixed to five different sticks), and make an animation (the structure is com-pressed and streched by the time) to see how the cuts are performed and varied from each step.

12

Page 16: Cad logic-Tensile Structure

Analysis___Digital Model

13

Elevation

Plan

Analysis

Page 17: Cad logic-Tensile Structure

Operation

After the 3 experiments of our models, we take the idea of verticle cut as our fundamental digital model because it has more clear and performing logic. In terms of the operation of our digital model, we have 5 rails as the basic tracks for the movement of each points that it can move in one dimension flexibly.

Rail01

Rail02

Rail03

Rail04

Rail05

Diagram

14

Page 18: Cad logic-Tensile Structure

1 2 3

6 7 8

11 12 13

16 17 18

21 22 23

Animation___Transforming

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Page 19: Cad logic-Tensile Structure

4 5

9 10

14 15

19 20

24 25

16