Structural Design | D-BAUG

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1 Structural Design | D-BAUG Pierluigi D‘Acunto · Ole Ohlbrock Philippe Block · Joseph Schwartz

Transcript of Structural Design | D-BAUG

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Structural Design | D-BAUGPierluigi D‘Acunto · Ole OhlbrockPhilippe Block · Joseph Schwartz

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17.09.2020 Lecture 1: Introduction (Overview Course and Graphic Statics)24.09.2020 Exercise: Graphic Statics 24.09.2020 Digital Workshop (optional): Rhino/Grasshopper01.10.2020 Lecture 2: Theory of Plasticity, strut-and-tie models, design strategies 08.10.2020 Exercise: Strut-and-tie design08.10.2020 Digital Workshop (optional): CEM

15.10.2020 Exercise and Presentation of Task 122.10.2020 Submission / Review of Task 1 and Presentation of Task 222.10.2020 Digital Workshop (optional): RhinoVAULT 229.10.2020 Exercise and Processing of Task 205.11.2020 Submission / Review of Task 2 and Presentation of Task 312.11.2020 Exercise and Processing of Task 319.11.2020 Submission / Review of Task 3 and Presentation of Task 426.11.2020 Exercise and Processing of Task 403.12.2020 Processing of Task 4 and Presentation of Task 510.12.2020 Exercise and Processing of Task 5 17.12.2020 Submission and Final Review

Structural Design | D-BAUG

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Structural Design | D-BAUG

Course Schedule

DESIGN EXERCISE

“Staircase FHNW Building Muttenz”

L1 – Introduction

E1 – Graphic statics E2 – Strut-and-tie

design

WORKSHOP 1 (optional)

Rhinoceros + GrasshopperWORKSHOP 2 (optional)

CEM

LE

CT

UR

ES

EX

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CIS

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WO

RK

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L2 – Theory ofplasticity, strut-and-tie models, design strategies

WORKSHOP 3 (optional)

RhinoVAULT 2

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Structural Design | D-BAUG

Course Schedule

DESIGN EXERCISE

“Staircase FHNW Building Muttenz”

L1 – Introduction

E1 – Graphic statics E2 – Strut-and-tie

design

WORKSHOP 1 (optional)

Rhinoceros + GrasshopperWORKSHOP 2 (optional)

CEM

LE

CT

UR

ES

EX

ER

CIS

ES

WO

RK

SH

OP

S

L2 – Theory ofplasticity, strut-and-tie models, design strategies

WORKSHOP 3 (optional)

RhinoVAULT 2

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Design Exercise

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Pool Architekten: FHNW, Muttenz (Switzerland), 2018

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The aim of the design exercise is to develop a proposal for a new connection system inthe main hall of the FHNW Muttenz.

The connection system is additional to the existing standard staircases and elevators in thecores of the building. The main function is to provide a quick connection betweendifferent levels of the building and to increase the interaction between the various users ofthe building. For this reason, the connection system should also include some publicprogram like, for example, some seating areas (max. 20 people), a small cafe area (max. 10people) or a small open auditorium (max. 20 people).

All the first four levels (0-3) of the building should be linked to the new connectionsystem. The connection system should be supported according to the given boundaryconditions.

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Structural Design | D-BAUG

Autumn Semester 2020 – Design Exercise Schedule

TASK 1

Reference Study

15.10. & 22.10.

TASK 2

Design 2D

29.10. & 5.11.

TASK 3

Design 3D

12.11. & 19.11.

TASK 4

Materialization

26.11. & 03.12.

TASK 5

FINAL REVIEW

10.12 & 17.12.

DESIGN EXERCISE

“Staircase FHNW Building Muttenz”

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Task 4

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Task 4 – Refine Design Concept 3D

Conceptual design of a connection system for the FHNW Muttenz as 3D schemes (Submission by Wednesday, 2.12.2020, 24:00, on the Polybox)

a) Refine your 3D strut-and-tie model with a more precise distribution of the vertical applied loads (in particular considering self-weight).

b) Describe in words how your structure can also resist asymmetric loads (Textbox page 1)

c) Build a 3D digital or a “working” physical model of your connection system.

d) Represent your connection system in a precise way, in section (page 1 in 1:200), the most relevant plan (page 2 in 1:200) and axonometric view or perspective (page 3). Indicate the access to the connection system, the vertical connections, as well as the architectural program. Add annotations that specify the material(s).

e) Overlay your 3D strut-and-tie model developed in step a) on top of the three drawings as mentioned in d) (page 4, 5, 6).

f) Develop the force diagram of at least two relevant nodes of the 3D strut-and-tie model (page 7).

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Examples

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12Previous semesters

Beer Gianmaria,Taccoz Coralie,Truffer Nando

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13Previous semesters

Gabriel Belser, Philippe Hilger, Julian Hofmann

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14Previous semesters

Birundthan Suntharalingam, Oliver Schweizer, Marco Neuenschwander

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15Previous semesters

Mingpeng Zhu, Johaness Rüegg, Julian Hofer

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16Previous semesters

Minu Lee

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