Architecture Portfolio-Nava Yazdi Nejad

Page 1

Nava Yazdi Nejad

Architecture Portfolio

Selected Works 2020 - 2023

Hi, It’s Nava, a computational architect raised in Iran, a historical country with magical architecture. My main passion is for exploring innovative design solutions. I have developed a deep understanding of the complexities of architectural design throughout these years. Recently, I’ve decided to develop my skills by furthering my studies through a challenging graduate program. This unique experience will contribute to advancing my career.

Architectural Engineering

BSc, Shahid Beheshti University

Nava_yz@yahoo.com

+98 912 8866316

Tehran, Tehran, Iran

Machine Learning in Building Science

Graduate Certification, Minor Shahid Beheshti University

Architect & Detail Designer

“H & Manoosh Mahmoudi Architects and Associates” Architectural firm, Tehran, Iran

Internship

Shahid Beheshti University

Advisor: Ali Alai

Architect & Detail Designer

“Yellow cube” interior design firm, Tehran, Iran

Tutor

Simulation and Building Modeling with Autodesk Revit

Tutor

Building Information Modeling (BIM)

2023

Teacher Assistant

Supervisor: Ali Andaji Garmaroudi

Pars University of Art and Architecture, Tehran, Iran

Statistics Python Machine Learning Grasshopper Revit AutoCAD 2D Photoshop InDesign 2015 2016 2017 2018 2019 2020 2021
2022
Multifunctional High Rise P. 24 Artificial Evolutionary Design P. 32 Tensile Stadiums P. 08 Virtual Interactive Handicrafts P. 12 Abandoned Skyscraper P. 04 Wet Wool Thread Facade P. 16 Bending Wood P. 34 1 2 3 4 5 6 7 List of Contents

1Abandoned Skyscraper

Evolo 2022

Keywords

Self-Build Architecture, Growing Architecture, Flexible Architecture

Teammates

Hosna Salehi, Alireza Sadeghi, Sarah

Mousavi Nasab, Mahshid Emami

Instructors

Dr. Ali Andaji Garmaroodi, Iman Sheikh

Ansari

My Role

Doing Research on the Feasibilty of the Idea

4

The design proposes the multi-layer main core as a place for facilities. Unlimited slabs are designed to be responsive to the required performance. These slabs are mediums for people to create their own space based on their needs, perceptions, and thoughts. The function of the slabs- home, playground, farm, store, etc.- can be varied according to the user design. This freedom of action allows users to expand their structure based on their needs.

5
Guide
Site Plans
1. Neighbouring Buildings 2. Monuments (School, Hospital, Shrine) 3. Tourist attraction 4. Coal mines 5. Risky Zone (because of the probable flood) 6. Construction zone 7. Cores placement 8. Expandability of our constructions

There are two groups of printing robots in the project. The first group is located in the core and prints the main structure from the ground and other sub-cores. The second group is mobile ones. They are drones that can fly from other islands and cities for bringing materials or just simply printing the details and moving among the floors.

Each slab is left as an empty land that is available to users and they can form towers with different uses.

Special agricultural and crop production spaces are considered in certain parts of the towers so that they can be self-sufficient in this section according to the location of the site which is on the island and between the water

6 Robot
for
Printing Method
the Core of the Tower

Slabs are attached to the structural layer of the core along with structural arms that are optimized by topology optimization algorithms. Topology optimization is a mathematical method that optimizes material layout within a given design space, for a given set of loads, boundary conditions, and constraints to maximize the performance of the system-both for lightening the structure and decreasing the number of used materials.

7

2Tensile Stadiums

March 2021 - June 2021

Keywords

Minimal Surface, Form Finding

Teammates

Sarah Mousavi Nasab, Mahshid Emami, Alireza Sadeghi, Amirhossein Mohammadi

Instructor

Dr. Morteza Rahbar

My Role

Developing Form Creation Codes

8

This project is kind of a form-finding study. The concept of the minimal surface was what we focused on to develop our GH codes and to produce our 7 alternatives. Form number 7 was selected for further studies about digital fabrication techniques.

9
1 2 3 4 5 6 7

Alternative No. 01

Metal / Wood Strips

Creating a

Alternative No. 02 Elastic

Creating

Strips

Alternative No. 03

Tube Installation

Creating

We also did comprehensive research on the techniques by which the selected form could be fabricated. Finally, we ended up with technique number 5 which is explained further.

Alternative No. 04

Mesh & Air Blower

Shaping a metal mesh to shape it as we want by heating it

Alternative No. 05

Fabric

10
Metal Network with metal strips using metal pins at intersects Swirling Cloud: Bulletin Pavilion for BJFU Garden Festival, SUP Atelier an Elastic Network with elastic strips under tensile force A form finding study by christopher connock our shape by hanging a bunch of tubes in our desired form. Pavilion Number 2 designed by MSA team at the University of Mazandaran, iran, December 2017 Three Pillows by Kristi Swee Kuder Fabricating the perimeter frame with a solid material, and anchoring the fabric within it MATERIAL EQUILIBRIA: Installation at gallery in Copenhagen, Denmark
11

3Virtual Interactive Handicrafts

September 2021 - February 2022

Keywords

Virtual Reality, Interactive Design

Teammates

Alireza Sadeghi, Sarah Mousavi Nasab, Mahshid Emami

Instructors

Dr. Ali Andaji Garmaroodi, Dr. Iman Sheikh

Ansari

My Role

Developing Hand Detection Code

12

This project is proposing an interactive installation reacting to motion and heartbeat. The audience will experience creating handicrafts without being concerned about techniques. By evaluating the user’s emotional state through heartbeat rate, a specific color is assigned to the drawing. Since the more excited a user gets, the more the heartbeat rate will be, the color of volumes will change into a warmer spectrum like red.

How can we invite people to create art without being concerned about technics?

Pleasure of Creating Art Advantage of Digital Modeling Digital Handicraft +

The technical part of this installation consists of a heartbeat sensor, a camera, and an Arduino board. The sensor is located on a ring for heartbeat measurement. Thus, users have the choice of wearing it before starting their virtual journey. The camera will capture real-time hand movements for processing.

13

Part A

Python Code

OpenCV Library (Python): AI for Image Processing

MediaPipe Library (Python): ML for Hand Detection

Socket (Python): for Transferring Data from Python to Grasshopper

UDP_Client (GH): for Receiving Data from the Python Code

Part B

14
Heartbeat Rate Measurement with Sensor
15

4Wet Wool Thread Facade

September 2021 - February 2022

Keywords

Form Finding, Optimization, Evolutionary

Structure Design

Teammates

Fateme Molavifard

Instructor

Dr. Mohammadreza Matini

My Role

Developing Facade Code, Detail Design

16

This project is a form-finding one based on the natural way that shapes form. This natural-based technique of form finding is called Wet Wool Thread Algorithm. The process can be divided into three main phases. First, we physically experienced this technique with wet wools. This phase helped us to deeply understand the mechanism. This understanding was crucial for us to develop our code in further phases.

Scaling Floors + Rotating them

Creating

Lines

Presentation of the Final Simulation

In the next step, we tried to develop a code based on what we saw and read about the forces in this process. So, we simulate the forces with the Kangaroo plugin in Grasshopper.

17
GH Code Facade
First Geometry Modelling + 5 Floors Generation Optimizing Facade
Lines
Optimizing Line Lengths for Fabrication
Force Modelling, Kangaroo
18 A A
19 2 1
Section A-A
20
Detail No. 1

Flexible Joints

21
Joints between Facade Modules and Ceiling & Floor Detail of Flange The Connection between Facade Modules I-beam Joints in Angles square pipe Joints in Angles square pipe Detail No. 2
22
Selected Facade Modules for 3D-Print
23

5Multifunctional High Rise

September 2020 - February 2021

Keywords

Safety in Tower Design, Thermal Comfort in Towers, Evacuation in Towers, Accessibility in Towers, Space Syntax for Official Complexes

Teammate

Mahshid Emami

Instructors

Prof. Mahmood Golabchi, Dr. Matin Alaghmandan, Dr. Farzad Barazandeh, Dr. Amirreza Ardekani

My Role

Developing Structural Code, Creating Form Alternatives, Energy Analysis

24

In this project we were supposed to design a 70-storey commercial and official tower. We began our pre-design Stage by analyzing the site plan. Its accessibility, sun path, the direction of the dominant wind, and the place of existing trees were our subjects of comprehensive studies.

Location: Khovardin Blvd, Tehran, Iran

Building Type: Commercial and Official Tower

Height: 318 m (64 Floors: Offices, 7 Floors: Parking, 3 Floors: Commercials, 2 Floors: Mechanical Rooms)

Wind-Rose

Tehran Mehrabad-IRN

1 JAN 1:00 - 31 DEC 24:00

Hourly Data: Wind Speed (m/s) Calm for 22.9% of the time = 2007 hours.

Each closed polyline shows frequency of 1.1% = 99 hours.

Optimum Orientation

Location: Tehran, Iran radiation based on average daily incident radiation on a vertical surface.

Underheated Stress: 974.0

Overheated Stress: 634.0

Compromise: 175.0

Critical Criteria for Designing a Safe, Sustainable Tower

Natural Ventilation

Providing Interior Atriums

Sky-Bridge

For more convenient evacuation

Structure

Diagrid Facade

25

Each of these alternatives was mainly focused on one criterion. Most of them, therefore, could not be the best choice since they only had one or two positive aspects while having obvious deficiencies in other crucial aspects. For completing our conceptual design phase, we chose the 4 best forms through a multi-objective selection process which consisted of sun analyzes, the minimum number of resisting facades before prevailing winds, and the number of cut-down trees by placing them in various possible locations in the site plan.

26
12 19 22 15
27
The final form was selected based on their shading on other site plans. This analysis was done by Ladybug and HoneyBee in the Grasshopper.

The selected conceptual form, then, was developed in order to reach a more dynamic form. Next, we produced various volumes, and on the advice of instructors, we ended up with the straight form as the best choice for structural reasons.

Ladybug Radiation Analysis that we did on our tower, showed that this high-rise is capable of producing sufficient energy for the official sector. We, therefore, suggested Building Integrated Photovoltaics which can be fitted into our digraid structure.

Grasshopper Code - Solar Radiation Analysis with Ladybug

28
29 1 2
Detail No. 1 Detail No. 2 Detail No. 3
3 4
Detail No. 4

Space Syntax

Space Syntax exploring various alternatives with Space Syntax Plugin in Grasshopper

30
Official Plan Type A Official Plan Type B Official Plan Type C Official Plan Type D Official Plan Type E Official Plan Type F Natural Vetilation Atriums Plan Layouts
31

6Artificial Evolutionary Design

September 2020 - February 2021

Keywords

Evolutionary Design, Generative Design, Optimization

Teammate

Mahshid Emami, Alireza Sadeghi, Amirhossein Mohammadi

Instructors

Dr. Mohammad Reza Matini, Dr. Mohammad Zare

My Role

Developing Generative and Optimization Codes

32

Process Generating Variations in Grasshopper Evaluating Variations Selection

Dividung the target tower into nine tubes

Sorting alternatives by desired parameters

By simulating evolution and natural selection

Main variable: Heights of each tower (30 m, 60 m, 90 m)

Floor area

Neighbour shadow area

Park shadow area

52,488 alternative variations

Total shadow area

The middle tube (Core) which provides vertical circulation: always equals the highest one

Sorting variations numerically on a scale of 0 to 1

33

7Bending Wood July 2022

Keywords

Kurfing Pattern, Wood Properties

34

This project is a research on the impact of patterns on the properties of wood. Wood is an unflexible material, and because of its inherent properties, it is a common material in industrial design and construction. Exploring ways of bending this material to reach more dynamic forms has always been an interesting topic. One technique is the kerfing pattern which is chosen here. Various patterns have been computationally explored and finally, one was selected. It was implemented on the wood panel by a laser cut machine, and you can see the result of the pannels’ ability for being curved below.

35 +
Thanks. Nava_yz@yahoo.com

Turn static files into dynamic content formats.

Create a flipbook
Issuu converts static files into: digital portfolios, online yearbooks, online catalogs, digital photo albums and more. Sign up and create your flipbook.