20160615 booosting digitaal vakmanschap in de architectuur - pieter stoutjesdijk (tud /...

PRODUCT DEVELOPMENT LABPIETER STOUTJESDIJK

PROCESS INGREDIENTS

1 MACHINE 1 MATERIAL 1 FILE

PROF. LAWRENCE SASS

CNC AZCMACHINE

1 CNC MACHINE CNC AZC1 MATERIAAL

CNC bewerkingscentrum 4-assen Merk: Biesse / SCM / HomagWerkveld: 5200*1200*300mm

Type bed: Flat Table

Randapperatuur:Vacuumpompen 2x250m3/h

Stofafzuiging 5000m3/hCompressor + Vriesdroger 10bar

Autoamtische belading / vacuumliftAutomatische belossing / rollerbank

PC

Totale kosten: €120.000-€450.000Totaal verbruik: 18-27kW

1 DATABASE

1 MACHINE

TOOLSEr zijn oneindig veel tools beschikbaar in allerlei vormen en materialen. Door het optimaal inzetten van de 3e en 4e as in combinatie met de vorm van de tool is vrijwel elke ‘2,5D’ vorm te produc-eren. Bewerking vindt wel altijd plaats aan de bovenzijde van het materiaal. Met deze limitatie moet dus slim worden omgegaan in het ontwerp.

16

22

STANDAARD FREES DIA16mm L221 snijder DIAMANTsnelheid 4m/min (bij MP Depth=22mm/pass)

STANDAARD FREES DIA16 L301 snijder DIAMANTsnelheid 3m/min(depth max=30mm/pass)16.0

50.0

19.0

4.675

KLEINE FREES DIA4.765 L194 snijders solid carbidesnelheid 0,5m/min(bij MP Depth=3mm/pass)

KLEINE FREES DIA5MM Lxx2 snijders hardmetaalsnelheid 0,5m/min(bij MP Depth=3mm/pass)

5.0

MEDIUM FREES DIA10mm L323 snijders hardmetaalsnelheid 2.5m/min (bij MP Depth=18mm/pass)

32.0

32.0

MEDIUM FREES DIA10mm L473 snijders hardmetaalsnelheid 2.5m/min (bij MP Depth=18mm/pass)

45 GRADEN FREES2 snijders carbidesnelheid = 4m/min (bij MP Depth=max 20mm)

20.9

23.070.00.

5

VLAK FREES DIA70 L0.52 snijderssnelheid 4m/min(bij MDF Depth=0,5mm/pass)

CNC MITER JOINT A2 snijders carbidesnelheid = 3m/min (bij MP Depth=max 20mm)

CNC MITER JOINT B2 snijders carbidesnelheid = 3m/min (bij MP Depth=max 20mm)

45 GRADEN INVERSE8 snijders hardmetaalsnelheid 2m/min(nabewerker)

BOLLE KANT FREES2 snijders carbidesnelheid 1m/min(nabewerker)

20.0

25.3

5.015

.0

6.0

19.0

Prijs

€150/m2 €0/m2

Duurzaamheid

LAAG HOOG

Milieubelasting

HOOG LAAG

Freesbaarheid

LAAG HOOG

Nabewerking

NODIG NIET NODIG

Leverbaarheid

SLECHT GOED

Vochtbestendigheid

LAAG HOOG

Belastbaarheid

LAAG HOOG

Gewicht

2000kg/m3 0kg/m3

CNC AZCMATERIAAL

ECOboard / OSB Multiplex Asco Timber Berken HPL BambooSpaanplaat Melamine Viroc WPC board Volkern

Uitstraling

LAAGWAARDIG HOOGWAARDIG

1 CNC MACHINE CNC AZC1 MATERIAAL 1 DATABASE

ECOboard van plantaardige landbouwoverschotten, OSB in E0 verkrijgbaar

Sterk afhankelijk van type

Alle vezels van reststromen

Afgewerkte HPL versie verkrijgbaar

Slechts 1 leverancier

Watervast verlijmd, zet nauwelijks uit

Witte variant direct leverbaar, kleur heeft plaktijd nodig van enekel dagen

Witte variant direct leverbaar, kleur heeft plaktijd nodig van enekel dagen

Watervast verlijmde soort verkrijgbaar

Speciaal vochtbestendige soort verkrijgbaar

Olie nodig

Zeer bros, oppervlak zeer hard

Cement in plaat is zeer slecht voor machine

Zeer hard, zeer hoge toolcosts

Product uit Spanje, beperkte voorraad in NL, slechts in dikte 12

Nog geen Europese importeurs

Vezels nemen water op

Grote afname doorgaans levertijd van 7 weken

Plaat is splijtgevoelig

1 MATERIAL

1 MACHINE 1 MATERIAL 1 FILE

EXTREMEINTEGRATION

DESIGNING ENGINEERING MAKING

DESIGNING ENGINEERING

MAKING

ADVANTAGES

THE NEXT INDUSTRIAL REVOLUTION

DIGITAL CRAFT, ORNAMENT AESTHETICS

LOCAL PRODUCTION SHARED COLLECTIVE O.S. INTELLIGENCE

INTEGRATING DESIGN & MAKING

INTEGRATING ART & SCIENCE

DEMOCRATIZING INNOVATIONS

MASS CUSTOMIZATION

4.3 A NEW KIND OF ORNAMENTATION4.1 MICRO MASS-CUSTOMIZATION

4.2 COMPUTER GENERATED PATTERNS, MATHEMATICS

3.1 DEFINITION3.2 CULTURAL PRODUCTION

3.3 OTHER INDUSTRIES

3.4 MASS CUSTOMIZATION IN ARCHITECTURE

2.1 DEMOCRATIZE THE OPPORTUNITY TO CREATE

2.2 PERSONAL AND SHARED FABRICATION TOOLS

2.3 FABRICATION SUPPORTING WEB-BASED TOOLS

2.4 REDEFINING THE NATURE OF ECONOMY

2.5 TAPPING THE LONG TAIL OF TALENT

2.6 SATISFACTION IN THE CREATIVE PROCESS

2.7 RELATED TO HUMANITARIAN AID

8.3 ANALYZING AND SELCTION TOOLS

8.4 BIM, ONE INTEGRAL MODEL

8.5 PERFORMATIVE ARCHITECTURE

8.6 THE MASTER BUILDER: CENTRAL HUB

8.1 HISTORY OF SEPARATION

7.4 THE MASTER BUILDER: ARTIST + CRAFTSMAN 7.3 PROCESS: FILE TO FACTORY

7.2 OTHER INDUSTRIES: SPACECRAFT, SHIPBUILDING

7.1 HISTORY OF SEPARATION

6.5 POTENTIAL FOR ARCHITECTURE

6.1 DIGITAL BLUEPRINTS OF PHYSICAL OBJECTS

6.2 OPEN SOURCE HARDWARE5.1 PRODUCTION BACK FROM EAST

5.2 CLOSING RESOURCE CYCLES 5.3 LOCAL DESIGN INTERVENTION

6.3 THE NEW O.S. BUSINESS MODEL

6.4 EXAMPLE PROJECTS

8.2 HUGE AMOUNTS OF DATA

2.8 RELATED TO ARCHITECTURE

INTELLIGENCE FROM SOFTWARE

INTELLIGENCE FROM AMATEURS

SOFT TYPES OF DATA

MOST DATA ALREADY DIGITAL

PETABYTE

POTENTIAL FOR NEW ARCHITECT

ARCHITECTS LOST IN VISIONARY CULTURE

GREATER RESPONSIBILITY > GREATER REWARDS

IMPROVED EFFICIENCY REDUCING MISTAKES

BLOBS: EARLY RE-EMERGING

GAP BETWEEN DESIGN AND CONSTRUCTION

SEPARATION IN THE RENAISSANCEARCHITECT WAS BOTH DESIGNER AND BUILDER

OPEN ARCHITECTURE NETWORK GLOBAL VILLAGE CONSTRUCTION SET

OS CAR

QUIRKY

GREAT PART ALREADY BUILD BY AMATEURS

MORE INFLUENCEKNOWLEDGE OF MAKING

SEPARATION BY ECOLE DES BEAUX ARTS

FURTHER FRAGMENTATION THROUGH SPECIALISTS

QUALITY

FLEXIBILITY

DIGITAL BUILDING INDUSTRY

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APP STORE FAB STORESOFTWARE + HARDWARE

APP STORE FAB STORE


DATABASE

APP STORE

OPEN SOURCE & REGULATED

EXPONENTIAL GROWTH EXPONENTIAL GROWTH

CONTRIBUTIONSCONTRIBUTIONS

REGULATIONSREGULATIONS

FAB STORE


DATABASE

APP STORE

OPEN SOURCE & REGULATED

EXPONENTIAL GROWTH

DIGITAL PHYSICALENTERTAINMENT HOUSESINFORMATION PAVILIONSCOMMUNICATION OFFICES

EXPONENTIAL GROWTH

CONTRIBUTIONSCONTRIBUTIONS

REGULATIONSREGULATIONS

FAB STORE


PARAMETRIC ADJUSTMENTS

APP STORE FAB STORE

GENERAL SETTINGS + SETTINGS OF COMPONENTS

2.4M 3.6M 4.8M

2.4M 3.6M 4.8M

SLOPING

SLOPING

SPECIALS

BALLUSTRADEH=0.6 WINDOW SMALL

H=0.6 WINDOW LARGE

SLOPE 1:3 FILL CORNER

SLOPE 1:3CORNER

SLOPE 1:3 FILL H=200

SLOPE 1:3END

SLOPE 1:3ANGLE 18

SLOPING

SLOPE 1:2ANGLE 27

SLOPE 1:1ANGLE 45

SLOPE 1:1END

SLOPE 1:2END



SLOPE 1:2FILL CORNER


SLOPE 1:2CORNER

SLOPE 1:1CORNER

STANDARD .6

H=2.4CORNEROUTER

CORNERINNER WINDOW MEDIUM

STANDARD 0.6

H=3.0

WINDOW MEDIUMCORNERINNER

CORNEROUTER WINDOW LARGE WINDOW LARGE BOTTOM DOOR STANDARD

DOOR STANDARDWINDOW LARGE BOTTOM

H=3.6

STANDARD 0.6 WINDOW MEDIUM WINDOW LARGE WINDOW LARGE BOTTOM DOOR STANDARDCORNERINNER

CORNEROUTER

STANDARD

STANDARD

SIDE L

SIDE L

TERRACE

STANDARD

BEAM

BEAM HALF

SMALL

SMALL

SMALL SIDE L

SMALL SIDE L

FLOOR

BLOCK BASE POINT = BOTTOM LEFT LOWER CORNERBLOCK NAME = CATEGORY - SUB CATAGORY - DESCRIPTIONWALL

FABFIELD 1.0

FABFIELD 1.0

2.4M 3.6M 4.8M

2.4M 3.6M 4.8M

SLOPING

SLOPING

SPECIALS


H=0.6 WINDOW LARGE


SLOPE 1:3CORNER


SLOPE 1:3END

SLOPE 1:3ANGLE 18

SLOPING

SLOPE 1:2ANGLE 27

SLOPE 1:1ANGLE 45

SLOPE 1:1END

SLOPE 1:2END





SLOPE 1:2CORNER

SLOPE 1:1CORNER

STANDARD .6

H=2.4CORNEROUTER


STANDARD 0.6

H=3.0




H=3.6


CORNEROUTER

STANDARD

STANDARD

SIDE L

SIDE L

TERRACE

STANDARD

BEAM

BEAM HALF

SMALL

SMALL

SMALL SIDE L

SMALL SIDE L

FLOOR


FABFIELD 1.0

FABFIELD 1.0

2.4M 3.6M 4.8M

2.4M 3.6M 4.8M

SLOPING

SLOPING

SPECIALS


H=0.6 WINDOW LARGE


SLOPE 1:3CORNER


SLOPE 1:3END

SLOPE 1:3ANGLE 18

SLOPING

SLOPE 1:2ANGLE 27

SLOPE 1:1ANGLE 45

SLOPE 1:1END

SLOPE 1:2END





SLOPE 1:2CORNER

SLOPE 1:1CORNER

STANDARD .6

H=2.4CORNEROUTER


STANDARD 0.6

H=3.0




H=3.6


CORNEROUTER

STANDARD

STANDARD

SIDE L

SIDE L

TERRACE

STANDARD

BEAM

BEAM HALF

SMALL

SMALL

SMALL SIDE L

SMALL SIDE L

FLOOR


FABFIELD 1.0

FABFIELD 1.0

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IMAGE: NICK VAN DER KNAAP

ASSEMBLY 1.0 FABFIELD 1.4PREFABRICATED MODULAR HOME

ISOMETRIC VIEW OF BUILDING BLOCKS DESIGN YOUR OWN! > FABFIELD.COM

CHARACTERISTICS

MAPA ARCHITECTS

THE NEW MAKERS MERGING THE DIGITAL AND PHYSICAL WORLDS NO RIGHTS MAY BE DERIVED FROM THE INFORMATION AND CALCULATED VALUES CONTAINED IN THIS DOCUMENT

BVO 20.16 m2 Freestijd 43.1 uur

NVO 16.02 m2 Prefab assemblage 75.2 manuren

VVO 17.88 m2 2 personen 5 dagen

On-site montage 81.8 manuren

Prefab geleverd €29,592.76 2 personen 5.5 dagen

On-site gebouwd €38,284.57

Prijs/m2 prefab €1,467.89 Transportvolume 66.4 m3

Prijs/m2 on-site €1,899.04 Totaal gewicht ex gevel 8858 kg

CO2 opslag ex gevel 4.7 ton

Gevel Transportdichtheid 133 kg/m3

Oppervlakte 117 m2 Suggested transport

Prijs On-site €3,333.79 Round trips 9

Locatie Fabriek Delft Afstand tot FabFac 63 km

Bestemming (voorbeeld) Amsterdam Huurkosten 2 dagen

Daghuur €73.00 elke €314.12 (incl. km-toeslag)

40 km Benzinekosten €123.04

Benzinekosten/km €1.95 CO2 transport 190 kg

CO2 productie/km 3.0 kg

Eternit golfplaten

Ford Transit 8m3





Prefab geleverd €29,592.76 2 personen 5.5 dagen














Eternit golfplaten

Ford Transit 8m3

FABFIELD 1.4


NO RIGHTS MAY BE DERIVED FROM THE INFORMATION AND CALCULATED VALUES CONTAINED IN THIS DOCUMENT THE NEW MAKERS MERGING THE DIGITAL AND PHYSICAL WORLDS

ASSEMBLY 4.0MARIANNE BORGE ARCHITECTSWOODY 15





Prefab geleverd €19,963.76 2 personen 3 dagen


Prijs/m2 prefab €815.51 Transportvolume 43.5 m3












Eternit golfplaten

Mercedes Vito (D)







Prijs/m2 prefab €815.51 Transportvolume 43.5 m3












Eternit golfplaten

Mercedes Vito (D)

FABFIELD 1.4


NO RIGHTS MAY BE DERIVED FROM THE INFORMATION AND CALCULATED VALUES CONTAINED IN THIS DOCUMENT

ASSEMBLY 3.0VEGA COTTAGE KOLMAN BOYE ARCHITECTS

THE NEW MAKERS MERGING THE DIGITAL AND PHYSICAL WORLDS



















Eternit golfplaten

Mercedes Vito (D)



















Eternit golfplaten

Mercedes Vito (D)

ROOF PANEL

GUTTER

WALL PANEL

TOP PANEL

TOP BRACKET

BOTTOM BRACKET

IMAGE: JEROEN VAN VEEN

36 MM

8 MM

21 MM

6 MM

10 N/MM 2

-24N/MM 2


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DIGITAL FABRICATION PROCESS

1:1

1:10

4 - 26 en-938819/5

4.5 Programming Movements4.5.1 Linear Interpolation

G01Z Y

XOP

G01 Linear interpolation at theprogrammed feed rate.

The programmed point is reached by alinear path at the programmed feed rate.

The path is a combination of all the axismovements programmed in the block.

Programmable axes:- X, Y, Z primary axes,- U, V, W secondary axes,- A, B, C rotary axes.

Syntax

N.. [G90/G91] G01 [R+/R-] X.. Y.. Z.. [F..]

G90/G91 Programming in absolute or incremental dimensions.

G01 Linear interpolation at the programmed feed rate.

R-/R+ The position is before or after the programmed point.The distance is equal to the tool radius declared.

X.. Y.. Z.. End point:- Point coordinates with G90.- Value of the movement with G91.

F.. Feed rate (see Sec. 4.7).

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A

C

B

D


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DESIGNING ENGINEERING

MAKING

21ST CENTURYMASTER BUILDERS

MASTER BUILDER

MASTER BUILDER

RENAISSANCE

MASTER BUILDER

RENAISSANCE

INTEGRATED BY DIGITAL FABRICATION

BUILDING DE IGNINGS

MASTER BUILDER

RENAISSANCE

‘ECOLE DES BEAUX ARTS’


BUILDING DE IGNINGS

MASTER BUILDER

INTEGRATED BY DIGITAL COMPUTATION

RENAISSANCE

‘ECOLE DES BEAUX ARTS’


ART SCIENCE

BUILDING DE IGNINGS

20160615 booosting digitaal vakmanschap in de architectuur - pieter stoutjesdijk (tud /...

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