Materiality Lab Portfolio

Page 1



METABOLIC WEAVE

Contents

Portfolio for Christopher Bamborough Student Number - 11091889 Tel - 0422564330

THEORETICAL CONTEXT DESIGN AMBITION PROTOTYPE PAVILION EYELET MODULE PRECEDENT ANALYSIS INITIAL PROTOTYPE EXPLORATION PROTOTYPE ASSEMBLAGE A PROTOTYPE DEVELOPMENT SECTIONAL PROTOTYPE FABRICATION STRATEGY SECTIONAL PROTOTYPE MODEL SECTIONAL PROTOTYPE RESPONSE


METABOLIC Theoretical Context WEAVE

The Materiality Lab studio sought to frame the cross scalar prototype project in a theoretical/ conceptual context in order to critique towards a design solution. In particular was an interest in 19th century / modernist theory with an ambition to readdress and reinterpret earlier generational intelligence.

“(Gotfried) Semper recognised and exploited architecture’s material limitation, the origin of its formal language in the arts and crafts, textiles,ceramics, metal works, carpentry and the oldest stone construction” Wilhelm Dilthey, 1924 Semper’s theory of metabolism identified that architecture could be rationally reducible to materials and the processes associated with their uses.

From these Semper identified 4 abstract categories of material production techniques, each having a particular associated aesthetic style.

From it he identified 4 basic elements of architecture.

s_e2

s_e1

s_e4

s_e3 s_e1_Pliable s_e2_Clay (Mouldable) s_e3_Stick like elements s_e4_Dense

s_pt1

s_pt2

s_pt3

s_pt4 s_pt1_Weaving s_pt1_Forming s_pt1_Tectonic s_pt1_Stereotomy


METABOLIC Design Ambition WEAVE

A project question was set in which to target investigation and use as a reference for analysis

Can the morphology of thin ply wood strips be manipulated with reference to Semper’s production techniques to achieve multiple material conditions and aesthetic effects? Metabolic Weave is an investigation into the form finding capacity of woven doubly curving 3mm plywood strips, their assemblage capability, and the expressive potential of their interaction. The project’s intention is to study the capacity for a considered assemblage to create multiple conditions of experience and effect the perception of material and light. The project is based on a process of invention, understood as a continuous process without a single predetermined outcome, always suspended between discovery and obsolescence.

http://vimeo.com/metabolicweave


METABOLIC Prototype Pavilion WEAVE

Prototype development led to the creation and deployment of the EyeLet unit within a pavilion. The parametric nature of the unit allowed a series of positions and connections to create an enclosure providing the inhabitant the contrasting experience of the tectonic (screen), textiles, and stereotomy (solid).

Opening

25mm

50mm

Stereotomy

75mm

100mm

Tectonic

Scissoring

25o

45o

60o

75o

75mm

100mm

Expansion

25mm

50mm

Weaving Transition


Tectonic Weave


METABOLIC EyeLet Module WEAVE

Two units exist, distinguished by their weave combination, EL_A / EL_B, provide the opportunity for an accurate lap joint connection between them, as well as visually allowing the woven strip to transfer from one unit to the other. A unit can be simply constructed from two shaped and drilled strips, 4 bracing acrylic bars, 2 x 1/8” 25mm nut and bolts, and 4 x 1/8” 12mm nuts and bolts. The EyeLet system was born from a process of prototype exploration each concerned with a particular aspect of the system, be it weaving, connection, adjustment or transition.

EL_A A_C4

A_C3 2 x 1/8” 25mm nut + bolt

2 x 1/8” 12mm

2 x 1/8” 25mm

2 x 1/8” 12mm EL_A1

EL_A

EL_A2 EL_A1 A_C1

A_C2

EL_A2

Sequence of adjustment bar attachment

EL_B

B_C4

B_C3

2 x 1/8” 12mm nut + bolt

2 x 1/8” 25mm nut + bolt

2 x 1/8” 12mm

2 x 1/8” 25mm

2 x 1/8” 12mm

EL_B1

EL_B

EL_B2

B_C1

B_C2

EL_B1

EL_B2


Solid Stereotomy


METABOLIC Precedent Analysis: 1:1 case models WEAVE Timber Fabric

Meta-Patch

Yves Weinand (IBOIS | EPFL | Lausanne)

Joseph Kellner, David Newton

LENGTH - 1200mm

HEIGHTDEFLECTION WIDTHTORSION FORCE 170mm STRIP WIDTH

As a point of trajectory the project looked towards precedents of timber use within innovative construction projects. An initial focus was placed on each system’s logic regarding the utilisation of a repeatable detail and structure.


METABOLIC Precedent Analysis: 1:1 case models WEAVE

The building 1:1 detail models of the precedent study was used as a means to understand the interaction of the parts to the whole within each system, analyse their material effects, to critique their success, and to start to develop efficiency in manipulating materials.

Serpentine 2005 Alvaro Siza and Souto Moura


METABOLIC Initial Prototype Exploration WEAVE

Multiple prototypes were developed from the three case studies with a focus on variation within their existing material systems. The prototypes offered opportunity to optimise, adapt or radically deviate from the 1:1 case study models.


METABOLIC Initial Prototype Exploration WEAVE

Development was achieved through smaller scale detail models to access the small scale relationships, and through digital modelling to review effects of assemblage.


METABOLIC Prototype Assemblage A WEAVE

A move towards a prototype assemblage was made early in order to assess the chosen prototypes success in creating multiple material and lighting effects when assembled. The ambition for this first large scale intervention was to transfer from a smooth screen element through to a jagged stacked configuration. Whilst the assemblage offered some successful elements it did highlight the need for focus regarding the connection, its ability to scissor (adjustment), the twist transition and the stacking ability of the unit.

Stereotomy Jagged Appearance

Connection Testing

Turning Moment Shear Capabilities

Connection Prototyping

Double Pivot Link Joint.

Tectonic Serpentine Precedent Double Weave exploration

Timber Weave Precedent



METABOLIC Prototype Development WEAVE

To move towards a successful unit prototypes were developed to explore the separate areas of 01_Connection, 02_ Stereotomy, 03_Transition and 04_Adjustment. Ideas were tested using laser cut ply wood and acrylic, with hand cut 3mm plywood strips to assess their success in the four areas of interest.

Prototype 01_Connection

Prototype 02_Stereotomy EL_A

EL_B

01_1

02_1

01_2

EL_A EL_A 02_2

01_3

02_1 = Cardboard Explorations 02_2 = Plywood Interlocking Wedges 02_3 = Acrylic Clips 02_4 = Acrylic Interlocking Wedges 02

01_4

01_5

= Interlocking Acrylic Strips

02_3

5/32� 38mm Copper Nut / Bolt

02_4

50mm diameter laser cut Acrylic disk

01_6

01

02



METABOLIC Prototype Development WEAVE

The successful prototypes were those used to develop the final pavilion, their success was based on their ability to create functional structural aims, as well as provide means for the intended material effects of the tectonic / stereotomy contrast.

Prototype 03_Transition

Prototype 04_Adjustment EL_A

A1 A2

Hardware 5/32” 38mm 1/8” 25mm

EL_A A1 A2

03_1

04_1

A1 A2

04_2

04_3

04_4

A1 A2

03_2

A1

A1

Connection Rules:

04_6

04_5

04_7

A1-A2 : 1/8” 25mm A1-A2-A1-A2 : 5/32” 38mm

03_3

04_1 = Cardboard Explorations 04_2 = Plywood strips 04_3 = Laser Cut strips 04_4 = Acrylic Strips 04_5 = Thinned out acrylic Strips 04_6 = Perforated laser cut strips 04_7 = Heat moulded acrylic strips 04 = Hidden acrylic strips

03

04



METABOLIC Sectional Prototype Design WEAVE Prototype_04

Adjustment

Prototype_02

Stereotomy

Prototype_01

Connection

Prototype_03

Transition Woven Floor

As proof of concept a sectional prototype was devised in order to deploy and showcase the EyeLet unit. As the pavilion deign employed a doubly curved tectonic aspect requiring the whole to support itself it was decided to create a simple enclosure that allowed transfer from floor, transition, tectonic to stereotomy and back to floor


METABOLIC Fabrication Strategy WEAVE

Production for the sectional model was carried out over a number of days and sought to use efficient hand making methods to avoid the expensive nature of laser cutting. Strips were mass produced using industrial cutting and drilling, while customisation of each eyelet was achieved through the production of laser cut adjustment bars which were then heat set into a curved form.

Timber Strip Components

Laser Cut Acrylic + heat forming 1:2 @ A3

810 mm

1220 mm

25mm 50mm

1/8” x 12mm

1/8” x 25mm

5/32” x 38mm

x 84

x 54 450mm

x 32 x 192

x 376

x 40

x6

25 x 3mm Premium Plywood Sheet @ $7.50 One side stained: Cabots Interior - Walnut 400 Strips Cut on Circular Saw

450mm

(16 x) 50mm x 1000mm Strips - cut against wood grain Approximate wastage = 18% ($1.35 per sheet)

25mm

x 84


METABOLIC Sectional Prototype Model WEAVE

The section prototype successfully showcased the contrasting nature of the tectonic and stereotomy and with it accentuated the woven nature of the plywood structure. In creating the model however a number of structural issues were identified which provided a trajectory for further prototype exploration.


METABOLIC Sectional Prototype: Response WEAVE

In stacking the eyelet unit it became apparent that after approximately 7 layers the strength of the plywood could not hold the structure. As a solution the configuration was moved onto its side in order to utilise its cross sectional compressive strength. As a result the tectonic aspect could no longer connect into the stereotomy. A proposed response would be to utilise the double curving capacity of the EyeLet for both structural and connection needs, this would use the woven strips of the unit in compression and tension creating a balance in structural forces. A transition at floor level could be achieved through the twisting of bracing strips that plug the stacked arrangement down into the lateral woven floor configuration.

Fixed position

Wall Connection

Triangulation of structure to secure tectonic into position.

TENSION COMPRESSION

Flo

or

Co

nn

ect

ion



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