design strategies for lightweight bridges in a

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Design strategies for lightweight bridges in a contemporary context Ir.-arch. Kostas ANASTASIADES International week

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Page 1: Design strategies for lightweight bridges in a

Design strategies for lightweight bridges in a contemporary context

Ir.-arch. Kostas ANASTASIADES

International week

Page 2: Design strategies for lightweight bridges in a

Current bridges

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urban mining

manufacturing assembly service life

mining earth’s resources

Page 3: Design strategies for lightweight bridges in a

Need?

3Image credit to JD Hancock, Flickr

Preservation of our planet

► resource management

►waste management

►GHG-emissions reduction

► pollution reduction

► energy management

Page 4: Design strategies for lightweight bridges in a

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recycling from different process

assembly

repair

refurbishmentmanufacturing

recycling

recycling to different process

service life

mining earth’s resources

energy recovery

composting

Cir

cula

r e

con

om

y

Page 5: Design strategies for lightweight bridges in a

Circular economy

Reduce

Reuse

Recycle

Recover

micro-scale / material

meso-scale / construction / bridge

macro-scale /

eco-city

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Page 6: Design strategies for lightweight bridges in a

Circularity assessment

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Reduce

Reuse

Recycle

Recover

Morphologicalindicators

?

Page 7: Design strategies for lightweight bridges in a

Reuse

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Page 8: Design strategies for lightweight bridges in a

Reuse

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Page 9: Design strategies for lightweight bridges in a

Reuse

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Page 10: Design strategies for lightweight bridges in a

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Reuse

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Reuse

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Reuse

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Reuse

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? ??

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Reuse RepairRefurbish

Recycle

Reuse

Page 15: Design strategies for lightweight bridges in a

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Reuse

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Reuse

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Reuse

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Reuse RepairRefurbish

Recycle

Reuse

? ? ?

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Reuse

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Reuse

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Reuse

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Reuse

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Reuse

urban mining

Heijmans circular bridge concept

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Design for Adaptability

Reuse

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Design for Disassembly

Design for Adaptability

Reuse

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Morphological standardisation ?

Design for Adaptability

Design for Disassembly

Design for Reuse

Reuse Construction components

Page 27: Design strategies for lightweight bridges in a

Morphological standardisation

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meso-scale / building / construction

Transportability

Page 28: Design strategies for lightweight bridges in a

Morphological standardisation

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meso-scale / building / construction

girderpanelframe + mechanical connections

Page 29: Design strategies for lightweight bridges in a

Container box

Modified container

Extendable container

Morphological standardisation

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Page 30: Design strategies for lightweight bridges in a

Morphological standardisation

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Page 31: Design strategies for lightweight bridges in a

Morphological standardisation

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micro-scale / component / material

Morphological standardisation

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micro-scale / component / material

Morphological standardisation

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Morphological standardisation

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Morphological standardisation

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Morphological standardisation

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Morphological standardisation

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Morphological standardisation

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Morphological standardisation

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micro-scale / component / material

Morphological standardisation

Lengths ?

Connections ?

Standard sections

Morphological standardisation

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micro-scale / component / material

Morphological standardisation

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micro-scale / component / material

Morphological standardisation

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micro-scale / component / material

Morphological standardisation

Page 44: Design strategies for lightweight bridges in a

Question

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How do we handle this further morphological standardisation?

Page 45: Design strategies for lightweight bridges in a

Thank you

Kostas ANASTASIADES (PhD student)

University of Antwerp

Faculty of Applied Engineering: Building Sciences

Energy & Materials in Infrastructure and Buildings

[email protected]

Supervisors: prof.dr. ir. Amaryllis AUDENAERT, dr. ing. Johan BLOM

design for disassembly

design for adaptability

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