Saqib Aziz Portfolio 2019 by Saqib Aziz

SAQIB AZIZ PORTFOLIO

Dipl.-Ing. Saqib Aziz

Portfolio 2019 s.hashimaziz@gmail.com

+49 178 53 73 150

SAQIB AZIZ Curriculum Vitae

Dipl.-Ing.

My name is Saqib and i have Dipl.-Ing. degree in architecture. Currently i am working as a computational and environmental design specialist for HENN Architects. I am also a visting lecturer for 3D complex modelling for universities and design firms with a true passion for research endeavours.

PERSONAL DATA Name

CONTACT Saqib Hashim Aziz

s.hashimaziz@gmail.com

Date of Birth

04.05.1987

+49 178 5373150

Place of Birth

Rawal-Pindi, Pakistan

Nationality

German

WORK EXPERIENCE Since July 2016 Proof of Concept: Automated 3D Daylight Factor simulation -Klinikum Braunschweig SIKA - Concrete 3D Printing Development of digital tools for evaluation, optimization and G-code export for printing

Pop-Up Factory - Installation: A novel human/machine interface for a prospective design and production pipeline MakeCity Festival 2018

Facade Design - Continental AG

Facade Design - Lab Abu Dhabi Automated Climate Report

designupgrade.thinkific.com Linkedin.com/saqibaziz

Computation Skills HENN Architects Berlin Computation and Environmental Design Specialist

Rhinoceros 3D Grasshopper 3D Kangaroo

Schaeffler & Lufthansa- Case Study Data based Workplace Analytics

Ladybug Honeybee Butterfly HAL Karamba

HENN Workplace Analytics Development of a custom digital toolset to evaluate spatial workplace quality. Case Study: Merck, BMW & OSRAM

Octopus Fologram HumanIUI Firefly

Python C#

Design - C³ Cube TU Dreden Pavillion Worldwide first carbon concrete building Facade Design - Váci Budapest

Communication Landscape Installation : Human/Machine Interface and Robotic fabrication Seoul Biennale 2017

Melanchthonstraße 21, 10557 Berlin

Facade Design - Allianz Open City

Unity 3D

Octane Maxwell / V-ray

XFlow/Ansys (CFD)

SOFTWARE SKILLS

Since July 2015

Adobe Creative Cloud StructAR - Mixed Reality intragation for teaching

Photoshop InDesign Illustrator

SheltAir Pavilion - novel elastic gridshell erection method automization of design and production workflow. Video production of project

Premiere After Effects

SketchUp Autodesk AutoCAD MS-Excel

LANGUAGE German

A Bridge Too Far - CITA Complex modelling and structural analysis. Production Animations Beijing World Horticultural Show 2019 -Design and form finding

gmp-Architects Internship

English Sport - und Freizeitbad Potsdam Design and documentation

Urdu

Oct. 2013 - Feb. 2014 Spanish

Creative

2019/2018 semester course Rhinoceros and Grasshopper

2018 semester course Rhinoceros and Grasshopper

2017/2018 semester course Rhinoceros and Grasshopper Digital form finding seminar BA Modul

Sep. 2014 - Oct. 2015 Al Bayt Stadium - Al Khor City Design and documentation

BILD Architecture Melbourne Internship

Residential Housing Project Design and documentation

Self-Employment

PERSONAL SKILLS Analytic

University of Arts Berlin Visiting scientific researcher and complex modelling lecturer. KET Chair - Prof. Dr. Gengnagel

Dedication

Teamwork

Energy

Positivity

Motivation

Promblem Solving

Design Upgrade - Rhinoceros and Grasshopper 3D Online learning Platform Since Dec. 2018 TESSA StartUp - Development Grasshopper Plug-In May - Oct. 2014

Since Jan. 2019 Falconnier Glasbausteine StartUp - Development Design Application Since May 2018 VIRTĂ&#x2122; Private Design, renovation and cost planing condominium

WORK TRAVEL

EDUCATION March 2016

Since July 2015

Diploma Thesis Degree: Dipl.-Ing. Arch Titel: Navigating Parameter Space Semi-automated Stadium Design Grade: 1.0 Tutor - KET Chair

Aug. 2011

Prediploma, Grade: 1.8

Oct. 2009

Enrollment architecture studies University of Arts Berlin

MHH Hannover Community Service Psychiatry March 2016

March 2016 IGS Roderbruch, Hannover Degree: Abitur

COMPETITION 1. Price Tudalit 2016 Project: Out Of THe Box

May 2016 Beijing World Hortic. 2019 Bamboo Gridshell

Nov. 2014 Recognition Award AIV Schinkelwettbewerb 2014 SpreebrĂźcke

2012-2014

Oct. 2018 IASS 2016 Tokyo Symposium Paper Title: Alternative Means of Navigating Parameter Space

Sep. 2016

Zurich Seoul Tokio Copenhagen Venice Madrid Paris, Versailles Melbourne Vienna Brussels Washington DC New York

LECTURING Jan. 2019 Sep. 2017

Complex Modelling University Karlsruhe Seoul Biennale Robotic Fabrication

May 2018

IASS 2016 Tokio Digital Crafting

WORKSHOPS May 2016 Recognition Award - Max-Taut-Price Diploma Thesis: Navigating Parameter Space

Aug. 2015 1. Price KPM - ROOM 4 2 Student Competition

Sep. 2018

3D Concrete Printing hosted by SIKA Zurich

July 2018

AEC Hackathon 2018 hosted by TU Berlin

May 2018

Fologram - MR for Rhinoceros 3D. Hosted by UdK Berlin

Feb. 2016

Machine Learning Symposium hosted by CITA Copenhagen

Aug. 2015 4. Price - Solar Decathlon Europe Team Rooftop

RESEARCH PAPER Design Modelling Symposium Abstract Submission 1) Pop-Up Factory Installation 2) HENN Workplace Analytics

2018 2017 2016 2016 2015 2015 2015 2014 2013 2012 2011

LEISURE Jan 2019 RobArch 2018 Paper Title:Communication Landscapes

Sept. 2016 IASS 2016 Tokyo Symposium Paper Title: Immersive Interfacing in Large-Scale Architecture

Pastel, Oil Painting and Digital Art. Brasilian Jiu Jitsu Cross-Fit Electric Guitar Santur, Sitar Diving Reading

Table Of Content

MULTIMEDIA Communication Landscapes P. 8-14

Pop-Up Factory P. 8-14 In this Portfolio multiple QR codes are integrated. Please follow the instructions below to access all multimedia content.

Workplace Analytics P. 26-35 C³ Cube Pavilion P. 36-41 3D Concrete Printing P. 42-47

Created by the Oleksandr Panasovskyi from Noun Project

01. Activate camera

Mash-Lab P. 48-53 SheltAir P. 54-59 A Bridge Too Far P. 60-63

02. Scan QR code

Environmental Design P. 64-77 Self-Employment Samples P. 78-83

03. Open link Beijing Performance Center World Horticultural Show 2019

Diploma Thesis P. 88-99 Selected Student Projects P. 100-125

04. Watch content Ϯϰ

LIST OF COMPUTATIONAL SKILLS WITH INDICATED PROFICIENCY CAD Software: Rhinoceros 6 and the graphical algorithmic editor Grasshopper: Expert level proficiency. Active lecturer teaching complex modelling in Rhinoceros and Grasshopper at the University of Art in Berlin for two years. Publisher of Design Upgrade an online learning platform teaching Rhinoceros and Grasshopper. Detailed list of Plug-In expertise Rhinoceros: Octane (Rendering engine) - Good basic knowledge V-Ray (Rendering engine) - Good basic knowledge Maxwell (Rendering engine) - Good basic knowledge VisualARQ2 (BIM) - Good basic knowledge T-Splines - Good basic knowledge Detailed list of Plug-In expertise Grasshopper: Python Scripting - Expert Level Kangaroo 1/2 - Expert Level Ladybug/ Honeybee (incl. Radiance) - Expert Level Fologram - Expert Level HAL Robotis - Expert Level Human/Human UI - Expert Level Weaverbird - Expert Level Elefront - Expert Level Speckle- Expert Level Skin Designer - Expert Level Lunchbox - Expert Level Pufferfish - Expert Level Impala - Expert Level Hetroptera - Expert Level C# Scripting - Good basic knowledge Hoopsnake / Anemone - Good basic knowledge Firefly (incl. Arduino) - Good basic knowledge Karamba - Good basic knowledge Butterfly (Incl. Open FOAM) - Good basic knowledge Octopus - Good basic knowledge Ped Sim- Good basic knowledge Elk2 - Good basic knowledge Spiderweb- Good basic knowledge BIM Modelling with Autodesk Revit and Dynamo: Good basic knowledge.

Programming:

Good basic knowledge. Detailed list of expertise: Python (Anaconda) - Good basic knowledge C# (Visual Studio) - Good basic knowledge Unity 3D (C# VS) - Basic knowledge

Adobe Create Cloud Suite: Expert level proficiency.

Detailed list of expertise: Photoshop - Expert Level InDesign- Expert Level Illustrator - Expert Level Premiere Pro - Expert Level After Effects - Basic knowledge

CFD Software

Good Basic knowledge Detailed list of expertise: Open FOAM - Good basic knowledge XFlow - Basic knowledge Ansys - Basic knowledge

Microsoft Office

Expert Level proficiency. Detailed list of expertise: Excel - Expert Level Word - Expert Level PowerPoint - Expert Level Outlook - Expert Level

Comm

unicati o Lands n capes

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Live Interaction with Interface

Communication Landscapes Abstract This installation explores robotic fabrication process through real time human machine interaction using natural interfaces. Aiming to contribute to the debate regarding automatization processes described by the industry 4.0, we suggest a future collaborative approach to distributed and participatory design. The installation invites participants to shape a physical object through a robot that interprets the acoustic signal of their voices. The object is then fabricated in near real-time through robotic hotwire cutting. The visitor is gifted with the result of its exploration to take home as a souvenir of a possible future. The negative traces of voices are aggregated through an algorithm in a sculptural wall.

Concept Diagram-Craftsmenship

Form Generation Workflow

Positive and Negative Artifact Distribution

Voice Controlled Interface

or Click Me

On-Demand Robotic Hotwire Cutting

Extracted Voice Parameters for Form Generation

Installation Detail Image

unication Landscapes ent Mapping

0.45

for each voice trace computed to a vector ranging between 0-1

Parameter A

0.45

0.4

0.45

0.5

Placement Concept

0.4 0.45 0.5

Parameter B

Parameter C

earches and places value to the most similar neighbours in a map

nication Landscapes I RobArch 2018 I ETH Zürich Communication Landscapes Seoul Biennale Exhibition 2017

Placement Algorithm

Tile with 3 Parameters Lower Range

018 I ETH Zürich

24 Communication Landscapes I RobArch 2018 I ETH Zürich

Tile with 3 Parameters Higher Range

or Click Me

Little Girl Interacting with Installation

or Click Me

Installation Pattern

Robotic Art -Abstract Flow

or Click Me

POP-U

P FACT Intera O RY ctive M ix ed Rea

lity Ins tallatio

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Physical Sculpture

Diagram - Physical Installtion

Holographic Fabrication Station

Diagram-Holographic Installation

Live Vitual Sculpting

Communication Landscapes Abstract This Installtion explores a novel integrated and collaborative approach to design and fabrication enabled by Mixed Reality. To this effect, an interactive workflow has been developed and demonstrated in the creation of a temporary installation. In a bespoke fabrication process, the design is controlled and altered by users in holographic space through a custom holographic interface. The changes in the design are live streamed to the CAD environment. Here a bespoke pipeline translates the aggregation information into robotic machine code. A robot, placed in the same room as the installation, enables on-site/ on-demand fabrication.

Holographic Design Mode

Holographic Voice Modulation Station

Holographic Interface

Holographic Fabrication Station

Robotic Hotwire Cutting

Holographic Assembly Station

Current Practise Linear

Future Practise Realtime

Holographic Assembly Station

Holographic Construction Mode

Mixed Reality -Visual Sound

or Click Me

s c ti y l a n A e c a

l tion p a u k l a r v E o W l and Social Space

atia p S r o o Ind

First Case Study-HENN Office

atial Sociometry stom Applikation - Team Location

...

... Visualization

Design

Performing

Programming

Model Shop

Speakers Corner - Workplace Environments

First Case Study-Reach and visibility factor

atial Sociometry stom Applikation - Distance Routes

Spatial Sociometry Custom Applikation - Indoor Tracking

Spatial Sociometry Custom Applikation - Personal Interaction and Sight Field

Field of View

Speakers Corner - Workplace Environments

First Case Study-Employee Profil

Speakers Corner - Workplace Environments

Visibility-Animation

or Click Me

Connectivity Animation

or Click Me

3-Dimensional Workplace Analytics Comparison

Worplace Analytics Abstract In this work i present a methodology for a comprehensive simulation and visualization process of indoor workplace qualities of large-scale office buildings. The aim is to generate a workflow to investigate social dynamics enabled by spatial qualities and patterns in indoor environments. I investigate how factors such as the overall spatial connectivity of an office space, its visibility and daylight availability interact to create unique characteristics of an office space. I then visualize these findings through various interactive graphical maps. In order to accomplish this i have generated a custom set of digital tools within the CAD software Rhinoceros and its graphical algorithm editor Grasshopper. First the methodology and simulation principles are highlighted and then tested on three case studies. Then i will compare each case study to derive at overriding principles of spatial and social workplace qualities for the assessed office spaces. Further i will generate an architectural usage profile, that i refer to as the Multi-Variable Map of the evaluated office buildings based on the previously illustrated findings.

3D Spatial Connectivity

3D Spatial Daylight Factor

3D Spatial Visibility

3 Category Multi Variable Map

7 Category Multi Variable Map

Experiential Analysis

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Scharffler-Case Study-Escape potential

Main gates utilization

or Click Me

Distance heat map

Accessibility

or Click Me

Logistic routes

Collision Potential

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3D Concrete Printing Sika has developed a large scale 3D concrete printing process over the last years and reached out to HENN to think of possible collaboration opportunities. After visiting the 3D printing site and further discussions with the Sika-team we realized that they where having some troubles with the generation of the respective G-Code for any digital geometry. We agreed to first develope a application in Rhinoceros and Grasshopper that enbales the evaluation, optimization and translation of any geometry into the required G-Code format. Here i present the non confidential initial steps of the Plug-In developement aswell as some initial form studies. In the second phase we are moveing on to large scale architectural forms and also investigate mass-customizable prefabrication and assembly on site.

Receive and slice geometry

Check and optimize curvature domain

Check and optimize overhang domain

Generate continuous print path

Generate G-Code

Branching structure

or Click Me

Case Study-Layer width

Case Study - Full Branching

Modul 02 - Seminar Assignment Modul 02 - Seminar Assignment Case Study Generative Structural Optimization

Generative Structural Optimization

ilipede

Iteration 10 Modul 02 - Seminar Assignment

Iteration 20

Iteration 30

Generative Structural Optimization

Iteration 50

- Print path efficiency Currently on going project

Modul 02 - Seminar Assignment Postprocessing Optimization Output

Iteration 80

Iteration 0

Milipede

Ameba

Iteration 0

Iteration 10

Iteration 20

Modul 02 - Seminar Assignment Generative Structural Optimization Iteration 20

Iteration 10

Iteration 30

Iteration 50

Iteration 80

Milipede Iteration 50

Iteration 80

twerfen splanung - Universität der Künste Berlin

KET

Ameba

Ameba ragwerksplanung - Modul 02 - Konstruktives Entwerfen achgebiet für Konstruktives Entwerfen und Tragwerksplanung - Universität der Künste Berlin

Tragwerksplanung - Modul 02 - Konstruktives Entwerfen Fachgebiet für Konstruktives Entwerfen und Tragwerksplanung - Universität der Künste Berlin

Milipede

Case Study -Prefab

2 - Seminar Assignment

Modul 02 - Seminar Assignment

Modul 02 -Modul Seminar Assignment 02 - Seminar Assignment

ing for 3D Printing

3D Printed Geometry Modul 02 - Seminar Assignment

of additional structural and MEP elements + + Pour Integration ofIntegration additional structural and MEP elements PourConcrete Concrete

Ameba

KET

3D Printed Geometry

Iteration 30

Iteration 50

Iteration 80

KET

Tragwerksplanung - Modul 02 - Konstruktives EntwerfenTragwerksplanung - Modul 02 - Konstruktives Entwerfen Ameba Fachgebiet für Konstruktives Entwerfen und TragwerksplanungFachgebiet - Universität Künste Berlin 12der Künste Berlin für der Konstruktives Entwerfen und Tragwerksplanung - Universität

Tragwerksplanung - Modul 02 - Konstruktives Entwerfen Fachgebiet für Konstruktives Entwerfen und Tragwerksplanung - Universität der Künste Berlin

Tragwerksplanung - Modul 02 - Konstruktives Entwerfen achgebiet für Konstruktives Entwerfen und Tragwerksplanung - Universität der Künste Berlin

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Tragwerksplanung - Modul 02 - Konstruktives Entwerfen Fachgebiet für Konstruktives Entwerfen und Tragwerksplanung - Universität der Künste Berlin

Tragwerksplanung - Modul 02 - Konstruktives Entwerfen Fachgebiet für Konstruktives 16 Entwerfen und Tragwerksplanung - Universität der Künste Berlin

Tragwerksplanung - Modul 02 - Konstruktives Entwerfen Fachgebiet für Konstruktives Entwerfen und Tragwerksplanung - Universität der Künste Berlin

KET

Tragwerksplanung - Modul 02 - Konstruktives Entwerfen Fachgebiet für Konstruktives 17 Entwerfen und Tragwerksplanung - Universität der Künste Berlin

Case Study - Prefab Large-Scale

b a L h Mas Abu Dhabi

tory in a r o b a L ign of s e D t p Conce

Exterior Rendering

Concept Diagram Facade

+ pattern

Perspective Section

+ solar management

sustainable operation

Environmental facade studies ANNUAL RADIATION Avarage 442 KW/m²

ANNUAL RADIATION Avarage 442 KW/m² ANNUAL RADIATION Avarage 442 KW/m²

North Facade

South Facade

0 20

100

200

300

400

500

600

700

800

KW/m²

0 200

900 100

100

South Facade

200

300

400

500

600

700

800

900 0 1000

KW/m²

Facade Concept

I Changchun High-Tech City I Climate Analysis | 06.09.16

Conceptual references Architectural Design Facade Concept

Mathematical Pattern - Girih Tiles Inspired by the rich heritage of geometric patterns in the Islamic culture, the core of the facade design utilizes the Girih Tiles to generate a parametric designed methodology. The Girih tiles are a set of five tiles that can generate a infinite number of diverse and intricate patterns. The five different tiles consist of basic geometric shapes. The actual Girih lines or strapwork are additional and unique decorations for each of the shapes and can be executed Traditional Privacy Screen Contemporary Adaptation in a variety of methods.

Traditional Sunshading

Contemporary Adaptation

Core Pattern used for the facade design. Iterative expansion then polar arrayed The Mashrabiya was traditionally used to The apparently intricate pattern is comsecure undesired views into the living area. posed of a small numbers of repeating In order to achieve this, intricate geometric elements a rational and ecopatterned screensfacilitating were crafted and nomical production. mounted upon the facade openings. These principles are here adopted to secure the high demand for privacy in the laboratories.

Seljuk Mama Hatun Mausoleaum,

DECAGON

HEXAGON

Turkey (about AD 1200)

118

PENTAGON

BOW-TIE

The Mashrabiya also acts as a sunshading device that reduces the exposure to solar radiation. The overall porosity of the facade is determined by a parametric approach, which takes in to account environmental factors and privacy requirements given by the program distribution resulting in a smooth modification of the facade geometry.

RHOMBUS 117

KW/m²

3 I Changchun High-Tech City I Climate Analysis | 06.09.16

Architectural Design 3 I Changchun High-Tech City I Climate Analysis | 06.09.16

100

HAAD Health Authority Abu Dhabi | BSL 4 Laboratory Abu Dhabi, UAE | Feasibility Study March 2017

Conceptual Facade Diagram Dissolved Pattern

Organic Pattern

Mathematical Pattern

Interior Rendering

Climatic Facade

R I A t l She avilion

hell P s d i r g c elasti d e t a m o ully aut

Scan to watch video or Click Me

Concept Rendering-SheltAir for troubled Regions Fully automated design and fabrication workflow for pneumatic inflated gridshell structures.

Concept Rendering-SheltAir Interior Option

3D Scan + Inflation Animation

or Click Me

Inflation

or Click Me

Erection Analysis-Bending moments

Erection Analysis-Reactions

Automated Fabrication Data-Fiberglass rods

or Click Me

Automated Fabrication Data-Ring beam

Automated Fabrication Data-Membrane

Assembly Detail-Flassfiber rods

Production Detail - Edge beam

Erection Detail-Membrane inflation

A Brid

ge Too R obotic

Far

Fabric ation o

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Plated

bridge

Scan to watch video or Click Me

Automated Fabrication Data-Membrane

Geometry Optimization

or Click Me

Structural Analysis

or Click Me

t s e p a d u B i c

Vaonmental Analysis ir

Env d n a n g i Des

Microclimate HOW - ENVIRONMENTAL STRATEGY Urban microclimates

or Click Me

Winter - Low potential

Air temperature

Humidity

Sun radiation

Wind

Let the sun shine in

protect from cold winds

CFD Analysis 56

BUDAPEST CENTRAL BUSSINESS DISTRICT | 18.10.2017 | Budapest 2020

or Click Me

Q H t r a w g r Bo nmental Analysis iro

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replaced image 05/07/17 replaced image 05/07/17

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and

Facade Concept

R2B Europacity

Smart Facades, Munich, 17.06.2016

Facade Ventilation Analysis

B Y M Office tal Analysis n

Des Facade

nme o r i v n E n and

CFD Analysis for Facade Desing Length of Blades

Length of Blades

130 mm

90 mm

50 mm

Other Variations

Number of Blades 1 x 50 cm

B1.3cm

Number of Blades 2 x 50 cm

Number of Blades 3 x 50 cm

or Click Me

D B C n u h c g n nalysis

Csighn aand Environmental A

De Facade

Solar Envelope

or Click Me

Useful Daylight Illuminance (UDI)

UDI Based Facade Optimzation

Solar Radiation on Facade

LIDL C

ampu

Autom

ated D e

sign an

d Anal

ysis W o

rkflow

Automated Design Inputs

Automated Design Process

Automated Design Analysis

Environmental Design

Automated DIN 5034-1 Simulation For a commissioned building we had to prove that the office spaces are getting enough natural daylight according to the DIN 5034-1. Usually the simulation is generated for a worst case scenario. We defined a alogorithmic workflow allowing to evalute the entire building and even allow for interactive optimization processes.

Perspective

Radiance Simualtion Set-Up

Worst Location Evaluation

Automated Spatial Evaluation

Interactive Design Optimization

Automated EPW File based Climate Report Given the limited time during a competition phase we wanted to automate the process of harvesting Energy Plus Weather (EPW) files to generate a customized climate report for any needed location. We scripted a process in Rhinoceros and Grasshopper in such a way that a colleague just needs to provide a EPW file and will receive a fully automated climate report. Next you will see some sample pages of one of those reports.

Temperature-Sky Cover-Precipitation

Radiation-Sun Path

Solar Gain

Wind

Microclimate

TESSA - Grasshopper Plug-In Extension TESSA is a Rhino and Grashhopper Plug-In that tesselates any geometry into identical panels. The extension features a larger set of tesselation pattern and also allows to generate block instances for further modelling and detailing.

n I g u l P A S TES hino Grasshopper

are for w f o s n o Tesselati

Tesselated Grid Examples

Customized Mapped Block Geometry

Falcon nier Authe

ntique

Start-Up Falconnier-CT -Scan

Start-Up Falconnier- Concept Application

3D-CT-Labormuster

Die technische Untersuchung mit der an der TU verfĂźgbaren Mikro-Computertomografie dient nicht nur der Erfassung der Form der seltenen, sensibelen Originale, deren Makel wir im zu generierenden 3D-Modell ausbessern und standardisieren kĂśnnen, sondern auch der Messung der WandstĂ¤rken, die op-

Design Upgrade Design Upgrade is online learning platform i lunched January 2019 and is dedicated towards Rhinoceros and Grashopper 3D online courses. Based on my teaching at the university it offers in-depth training in 3D modelling.

Designupgrade.thinkific.com

Youtube Channel- Design Upgrade

Navigating Parameter Spaces

Digital Strategies for the Discipline of Stadium Design Diploma Thesis

Architectural workflows are continuously evolving. New technologies are affecting construction, while novel digital design methods are becoming part of the architect‘s everyday work. Our contribution to the ongoing controversial discussion on computational design is a workflow proposal for the discipline of stadium design, based on a series of studies on digital methods. The proposed strategies all follow the same goal of supporting architects in their most central task: decision-making. This work was presented in the form of an interactive installation. Stadium design as a case study gave us the opportunity to develop methods for two vastly different building parts: the so-called „bowl“ refers to the viewer stands and is largely the result of a functional, numeric optimization process, while the „hull“, i.e. the roof and facade, requires a different approach due to its varying function and construction as well as a higher creative freedom in the design process.

Bowl

Hull

Diplom

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Naviga ting Pa ra

meter

is Space

Scan to watch video or Click Me

Navigating Parameter Spaces Software Design Digital Tools

The functional and numeric design criteria for the Bowl given by the FIFA, enabled the design of a comprehensive programmed digital Tool called BowlBuilder., which can be used in Grasshopper.

The HullBuilder is a extension to the Bowlbuilder and constructs a adjusted Hull geometry, with various other features, in respect to the constructed Bowl.

Navigating Parameter Spaces Software Design Parameter Space

Generating digital models of various stadiums for further comparison of typological resemblance and further the comparison of the digital definitions generating the models.

Alternative digital workflow, called Modifier. One definition is generated to preduce a variety of output geometries.

Navigating Parameter Spaces Software Design Parameter Space

Generative design processes are characterized by modifications of a design modelâ&#x20AC;&#x2DC;s parameters with the aim of improving its characteristics. The entirety of possible parameter combinations in a given design scenario is referred to as parameter space, in which each parameter represents a dimension. The efficacy of a design process could be measured by the quality of the final design found in the vastness of a multidimensional parameter space, as well as by the time needed to arrive at this solution.

or Click Me

David Raups investigation of the evolutionary modification Generating digital models of various stadiums for further of shell geometries., visualised comparison of typological resemblance and further the comparison in a Parameter of Space. the digital definitions generating the models. Implementation of the Parameter Space for the digital programmed Modifier.

Alternative digital workflow, called Modifier. One definition is generated to preduce a variety of output geometries.

9 10

Navigating Parameter Spaces Software Design Numeric and Subjective Evaluation

or Click Me

Programmed digital Evaluationtools

Navigating Parameter Spaces Software Design Numeric and Subjective Evaluation

Subjective verification of numeric evaluation through Virtual Reality interface.

Navigating Parameter Spaces Software Design Interaktive Selection

in order to harness the full potential of the parameterized modeling paradigm, the workflow advocates the need to efficiently visualize parameter spaces for better comparability of design variations. The design of the â&#x20AC;&#x17E;hullâ&#x20AC;&#x153; allows for great diversity during the design process. Rather than trying to create a hard-coded tool to accomodate these endless possibilities, we suggested a more top-level approach in which an initial geometry is successively modified by new algorithms generated as needed by the architect. At each step of the design process, the existing geometry is modified by three parameters and the possible outcomes respresented as a 3-dimensional matrix of variations to choose from.

Navigating Parameter Spaces Interaktive Selection Applikation

Design is characterized by testing various paths of inquiry and upon hitting dead ends, back-pedaling in oneâ&#x20AC;&#x2122;s decision chain to pursue new paths. Hence, the workflow promotes documenting the iterative design cycle in family tree logic, giving the designers an overview of multiple decision chains and enabling them to retrogress from dead-ends in the design process or make upstream modifications that automatically propagate downstream.

Navigating Parameter Spaces Interaktive Selection Applikation

Navigating Parameter Spaces Family Tree Design Archive

Navigating Parameter Spaces SELF-ORGANIZED FITNESS LANDSCAPES

The SOM is a machine learning algorithm used to reduce n-dimensionality to two-dimensionality. Since bowl design is constituted by a collection of interdependent parameters, we used the SOM to generate planar fields of multi-dimensional design instances. This makes it easy to identify areas of the parameter space that best fulfill aesthetic criteria. In order to overlay this representation with numeric performance feedback, we combined the SOM concept with that of the so-called fitness landscape.

Using our analytical tools from „BowlBuilder“, each design variation in the map is evaluated for specific numeric criteria and assigned a height in the map accordingly. If the designer considers a variation that seems architecturally valuable but inefficient numerically, the designer can simply „climb“ the nearest hill to achieve better performance through small alterations.

Out Of The Box Leben unter einer Betonschale

Außenperspektive

UmlaufendeTerrasse WC

Arbeitsraum

Schlafzimmer

Eingangsbereich

3,00 3.04

Kräutergarten

17,00

Wohnbereich

16,00 15.13

6,00 6.05

Kinderzimmer

Arbeitsraum Schlafzimmer

Freizeit Sitzlandschaft

Arbeitsraum

6,00 6.05

Wohnküche

Schlafzimmer WC

Begehbarer Kleiderschrank WC

Grundriss EG M 1/200 12,00

UmlaufendeTerrasse

Grundriss OG M 1/200

14,00

S 5,25

5.23

3,50

3.51

4,25

4.30

1,00

1.12

(

28,65

Herstellung Die Herstellung der doppelt gekrümmten Dachschale erfolgt mit Hilfe eines neuartigen Schalungskonzepts: Die Betonage (3) erfolgt auf einem zweischichtigem Kunststoffkern (2), welcher sich aus einer wärmedämmenden Schicht und einem Gegenstück zusammensetzt. Die Dämmung ist aus einem druckfesten Material (z.B. Polystyrol) gefräst und wird durch die Betonage dauerhaft mit der Schale verbunden. Das Gegenstück leitet die Lasten aus dem Bauzustand auf ein konventionelles Schalungssystem (1) weiter. Es sind aufgrund geringer Anforderungen verschiedene Materialien möglich.

Textilbetonschale aus hochfesten Beton und Carbonbewehrung, Dicke d = 5 - 20 cm, C 40/50 Glasfassade als umlaufernde PfostenRiegel - Konstruktion, sowie begehbares Deck mit Außen- und Innenfläche; Erschließung über zwei Treppen Fassadenplatten aus Textilbeton mit doppelt gekrümmter Regelflächengeometrie, Dicke d = 2,5 cm Erdgeschoss mit Raumboxen in HolzLeichtbauweise mit einem zusätzlichen StahlGlaszylinder als Schalenlager

18 Saqib Aziz, Jakob Grave - 8. Architekturwettbewerb TUDALIT 2016

BER16 Die doppelt gekrümmte Textilbetonschale umhüllt einen offenen Wohnraum, der sich aus geradkantigen Volumina (‚Boxen‘) und Freiflächen zusammensetzt. Es entsteht eine neuartige Wohnform mit zahlreichen Vorteilen.

Architektur

Die tragenden Konstruktionsteile sind auf die Peripherie begrenzt und schaffen so eine maximale Grundrissflexibilität. Der Nutzer kann daher leicht auf veränderte Wohnsituationen reagieren. Die Kombination aus außenliegender Textilbetonschale und innenliegenden Boxen erzeugt ein Raumgefüge ohne eindeutig fixierte Grenzen zwischen dem ‚Außen‘ und ‚Innen‘. Dennoch bieten die Boxen Raum für ausschließlich private Nutzung (Schlafen, Arbeiten) von der sich halböffentliche Flächen (Wohnen, Essen) abgrenzen.

Schematischer Schnitt

‚Out of the Box‘ denken , heißt neue Wege gehen ...

Struktur

Die Form ist mittels digitalem Hängemodell gefunden und unterliegt damit den natürlichen Gesetzen der Schwerkraft. Durch die gezielte Anpassung von Formfindungsparametern entstehen interessante Bauelemente wie beispielsweise ein kreisförmiges Schalenlager. Bewusst spielt der architektonische Ausdruck mit dem Kontrast zwischen der organischen, fließenden Schalenform und der eckigen Kubatur im Inneren, deren Unterschiedlichkeit sich nicht nur in der Formgebung, sondern auch im Material und der Farbigkeit widerspiegelt. Formensprache und Nutzungskonzept stehen so im Einklang.

Konstruktion

Als umgekehrte Hängeform erfolgt der Lastabtrag im Eigengewichtszustand lediglich über Drucknormalkräfte. Ungleichmäßige Lasten aus Wind und Schnee erzeugen in der Schale Biegezugkräfte, für die eine Carbonbewehrung bemessen wird. Die Form ist für den Eigengewichtszustand optimiert, was den Materialeinsatz von Beton und Carbonbewehrung minimiert.

Digitale Formfindung mittels umgekehrtem Hängemodell und anschließender Zenitöffnung und Randausbildung

Sieben Bauelemente bereichen die Gestaltung und das Wohnkonzept

Schalenlager

Statisches System

Raumboxen

Schalenrand

Schalenecke

Globale Verformungen unter Eigengewicht 5

3,75

2.5

1,25

Zenitöffnung

Ausnutzungsgrad der Schalenelemente 0

(Auflagerbedingungen, FE Netz, Randträger)

Innenperspektive

Säulenlager

3,75

2.5

1,25

Glaszylinder

Van Mises Spannung unter Eigengewicht 0

3,75

2.5

1,25

Beijing Performance Center World Horticultural Show 2019

Beijing Performance Center World Horticultural Show 2019 Structural and architectural Proposal

Beijing Performance Center World Horticultural Show 2019 Architectural concept

Beijing Performance Center World Horticultural Show 2019 Parametric digital design chain

Beijing Performance Center World Horticultural Show 2019 Technical innovations

Beijing Performance Center World Horticultural Show 2019 3D-Printed Connections Mock-Ups

Beijing Performance Center World Horticultural Show 2019 Interior Views

Internship gmp-Architects

Al-Bayt Stadium - Al-Khor City, FIFA WM 2022 Qatar 3D-Modeling / Construction Documentation

Internship gmp-Architects

Sport- und Freizeitbad Potsdam 3D-Modeling / Construction Documentation

KPM Competition

To Be A Student In Berlin Room 4 2

AIV Schinkelwettbewerb 2014 Neue SpreebrĂźcke

Solar Decathlon Europe 2014 Team Rooftop

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Scan to watch video or Click Me

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Muse 04 - Pastel on black paper