Yassi Kazemzadeh Portfolio 2024

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YASSI KAZEMZADEH

ARCHITECTURE + DESIGN PORTFOLIO

YASSI KAZEMZADEH

yassi.kazem@gmail.com +34672225556

Drafted architectural drawings using Vectorworks

Contributed to international design competition submission

Produced physical architectural models to scale

Conducted site visits and field measurements for

Product Design Engineer at CARVART, New York, NY, Dec 2017-May 2019

Worked directly with clients to develop concept and design

Standardized company’s product offering catalogue, supporting both internal and client-facing purposes

Produced digital and physical study models for Performa

Worked directly with clients to design and engineer custom solutions tailored to their specific needs

Developed and prototyped new and existing hardware systems in collaboration with manufacturers

EDUCATION

ADDITIONAL EDUCATION

Shop Technician at Columbia GSAPP Output Print Shop, New Operated 3D printers, laser cutters, plotters

Assistant Project Manager at Serett Metalworks, Brooklyn, NY, July-Sept 2017

Institute for Advanced Architecture of Catalonia, Barcelona, Spain

Drafted shop drawings for fabrication using AutoCAD and Rhino

The Bartlett, University College London Bio-Integrated Design, Sept 2021-June 2022

Generated estimates for private and commercial architectural projects

Masters of Advanced Architecture, graduating June 2024

Managed sales, inventory, print orders

YASSI KAZEMZADEH

Intern at Hariri & Hariri Architects, New York, NY, June-July 2015

EXPERIENCE

yassi.kazem@gmail.com

Intern at SOLID NYC, Brooklyn, NY, June-July 2017

Barnard College, Columbia University, New York, NY

MITxPro

Drafted architectural drawings using Vectorworks

Contributed to international design competition submission

+34672225556

Design Consultant at SOLID NYC, Washington, DC, June 2021

Product Design Engineer at CARVART, New York, NY, Dec 2017-May 2019

Standardized company’s product offering catalogue, supporting both internal and client-facing purposes

EXPERIENCE

Worked directly with clients to design and engineer custom solutions tailored to their specific needs

Developed and prototyped new and existing hardware systems in collaboration with manufacturers

Design Consultant at SOLID NYC, Washington, DC, June 2021

Assistant Project Manager at Serett Metalworks, Brooklyn, NY, July-Sept 2017

Drafted shop drawings in AutoCAD and digital 3D models in Rhino

Bachelor of Arts in Architecture, May 2017

SKILLS

Additive Manufacturing for Innovative Design and Production, May-Aug 2020

Conducted site visits and field measurements for ongoing projects

Worked directly with clients to develop concept and design

Produced digital and physical study models for Performa 17 NYC installation

Produced physical architectural models to scale

EDUCATION

Shop Technician at Columbia GSAPP Output Print Shop, New York, NY, Sept 2016-May 2017

Fabrication

Operated 3D printers, laser cutters, plotters

CNC Milling, Laser Cutting, 3D Printing Woodcraft, Sewing, Printmaking

Managed sales, inventory, print orders

Institute for Advanced Architecture of Catalonia, Barcelona, Spain

Masters of Advanced Architecture, graduating June 2024

Drafted shop drawings for fabrication using AutoCAD and Rhino

Product Design Engineer at CARVART, New York, NY, Dec 2017-May 2019

Generated estimates for private and commercial architectural projects

Standardized company’s product offering catalogue, supporting both internal and client-facing purposes

Worked directly with clients to design and engineer custom solutions tailored to their specific needs

Developed and prototyped new and existing hardware systems in collaboration with manufacturers

Intern at SOLID NYC, Brooklyn, NY, June-July 2017

Drafted shop drawings in AutoCAD and digital 3D models in Rhino

Digital

Intern at Hariri & Hariri Architects, New York, NY, June-July 2015 & June-July 2016

Drafted architectural drawings using Vectorworks

Advanced in Rhino, Illustrator, InDesign, Microsoft Office, Google Workspace

Contributed to international design competition submission

Produced physical architectural models to scale

Barnard College, Columbia University, New York, NY

Bachelor of Arts in Architecture, May 2017

Conducted site visits and field measurements for ongoing projects

Assistant Project Manager at Serett Metalworks, Brooklyn, NY, July-Sept 2017

Intermediate in Grasshopper, RhinoCAM, Photoshop Beginner in Python

Drafted shop drawings for fabrication using AutoCAD and Rhino

Worked directly with clients to develop concept and design

SKILLS

Generated estimates for private and commercial architectural projects

Produced digital and physical study models for Performa 17 NYC installation

EDUCATION

Language

ADDITIONAL EDUCATION

Fabrication

Shop Technician at Columbia GSAPP Output Print Shop, New York, NY, Sept 2016-May 2017

Intern at SOLID NYC, Brooklyn, NY, June-July 2017

Native Fluency in English, French, Farsi Proficient in Spanish

Operated 3D printers, laser cutters, plotters

Drafted shop drawings in AutoCAD and digital 3D models in Rhino

Conducted site visits and field measurements for ongoing projects

Managed sales, inventory, print orders

Worked directly with clients to develop concept and design

Produced digital and physical study models for Performa 17 NYC installation

Intern at Hariri & Hariri Architects, New York, NY, June-July 2015 & June-July 2016

Drafted architectural drawings using Vectorworks

Institute for Advanced Architecture of Catalonia, Barcelona, Spain

Masters of Advanced Architecture, graduating June 2024

Barnard College, Columbia University, New York, NY

Bachelor of Arts in Architecture, May 2017

CNC Milling, Laser Cutting, 3D Printing Woodcraft, Sewing, Printmaking

The Bartlett, University College London Bio-Integrated Design, Sept 2021-June 2022

Digital

MITxPro

Additive Manufacturing for Innovative Design and Production, May-Aug 2020

Advanced in Rhino, Illustrator, InDesign, Microsoft Office, Google Workspace

Shop Technician at Columbia GSAPP Output Print Shop, New York, NY, Sept 2016-May 2017

Contributed to international design competition submission

Operated 3D printers, laser cutters, plotters

Produced physical architectural models to scale

Managed sales, inventory, print orders

Intern at Hariri & Hariri Architects, New York, NY, June-July 2015 & June-July 2016

EDUCATION

Drafted architectural drawings using Vectorworks

Contributed to international design competition submission

Produced physical architectural models to scale

Institute for Advanced Architecture of Catalonia, Barcelona, Spain

Masters of Advanced Architecture, graduating June 2024

EDUCATION

Barnard College, Columbia University, New York, NY

Bachelor of Arts in Architecture, May 2017

Institute for Advanced Architecture of Catalonia, Barcelona, Spain

Masters of Advanced Architecture, graduating June 2024

SKILLS

Barnard College, Columbia University, New York, NY

Fabrication

Bachelor of Arts in Architecture, May 2017

CNC Milling, Laser Cutting, 3D Printing Woodcraft, Sewing, Printmaking

Digital

Advanced in Rhino, Illustrator, InDesign, Microsoft Office, Google Workspace

Intermediate in Grasshopper, RhinoCAM, Photoshop

ADDITIONAL EDUCATION

The Bartlett, University College London

Bio-Integrated Design, Sept 2021-June 2022

MITxPro

ADDITIONAL EDUCATION

SKILLS

Fabrication

CNC Milling, Laser Cutting, 3D Printing Woodcraft, Sewing, Printmaking

Digital

Advanced in Rhino, Illustrator, InDesign, Microsoft Office, Google

Additive Manufacturing for Innovative Design and Production, May-Aug 2020

The Bartlett, University College London

Bio-Integrated Design, Sept 2021-June 2022

MITxPro

Workspace

Intermediate in Grasshopper, RhinoCAM, Photoshop Beginner in Python

Language

Native Fluency in English, French, Farsi Proficient in Spanish

Additive Manufacturing for Innovative Design and Production, May-Aug 2020

Intermediate in Grasshopper, RhinoCAM, Photoshop Beginner in Python

Language

Native Fluency in English, French, Farsi Proficient in Spanish

in
Beginner
Python
SKILLS Fabrication CNC Milling, Laser Cutting, 3D Printing Woodcraft, Sewing, Printmaking
Design Consultant at SOLID NYC, Washington, DC, June 2021
Drafted shop drawings in AutoCAD and digital 3D models in Rhino
ongoing projects
17 NYC installation

CONTENTS

STUDIO PROJECTS

BREEZIN SITE SPECIFICITY

PRESCRIBED DECAY VALLCARCA CANE PARK NATIONAL BLACK THEATER

PROFESSIONAL PROJECTS GLASSCUBE

MINI PROJECTS VALLDAURA BENCH NESTED

BALANCING ACT APERTURE BUILDING 05 10 12 17 22 27 30 32 34 36

STUDIO PROJECTS

BREEZIN

Mallorca, Spain

Instructors: Edouard Cabay, Raimund Krenmueller, Yue Wu

Partners: Sbusiso Bhembe, Anouk Eil

2023

BreezIn is located in Talaia D’Albertux on the NE coast of Mallorca, a popular windsurfing location where 4 strong winds meet. The space features rotating walls that adjust to airflow, resulting in a variety of spatial conditions according to the wind’s direction, speed, and frequency. A thick fabric connects the panels, creating a system that simultaneously harnesses and manipulates the wind in order to create predetermined and predictable configurations.

5 YASSI KAZEMZADEH STUDIO PROJECTS
MORE INFO

This study model explores the relationship between wind, light, and space. A series of rotating reflective panels installed on a floating grid interact with surrounding light and airflow, producing patterns of movement and reflection. The standardized grid and panel dimensions impose a framework onto the system that renders its seemingly random and chaotic performance trackable and almost predictable.

6 YASSI KAZEMZADEH STUDIO PROJECTS BREEZIN Wind
Study
GROUP 7 MAA22/23 SELF SUFFICIENT BUILDINGS 248.00 72.50 80.00 82.50 80.00 25.00 Mediumreflectingpanel FAN 2 Axis - 5 AxisD 3.00 Axis - 1 FRONT VIEW 248.00 Axis - 3 50.00 LASER 2 25.00 80 00 LASER 1 Large eflec ng panel 10000 140 00 82.50 AxisC Axis - 2 Axis - 4 50.00 72.50 140 00 Small refecting panel 80.00 72.50 600.00 500.00 80 00 AxisE 10000 72.50 72.50 AxisB 72.50 72.50 400.00 72.50 AxisF 72.50 FAN 1 72.50 AxisA 8 0 0 0 AxisG 140 00 10000 8 0 0 0 GROUP 7 MAA22/23 SELF SUFFICIENT BUILDINGS 248.00 72.50 80.00 82.50 80.00 25.00 Mediumreflectingpanel FAN 2 Axis - 5 AxisD 3.00 Axis - 1 FRONT VIEW 248.00 Axis - 3 50.00 LASER 2 25.00 80 00 LASER 1 Large eflec ng panel 10000 140 00 82.50 AxisC Axis - 2 Axis - 4 50.00 72.50 140 00 Small refecting panel 80.00 72.50 600.00 500.00 80 00 AxisE 10000 72.50 72.50 AxisB 72.50 72.50 400.00 72.50 AxisF 72.50 FAN 1 72.50 AxisA 8 0 0 0 AxisG 140 00 10000 8 0 0 0

Wind-Based Spatial Program

7 YASSI KAZEMZADEH BREEZIN STUDIO PROJECTS circulation
6000 mm 35 m
8 YASSI KAZEMZADEH BREEZIN STUDIO PROJECTS 5mm wooden stick paper wooden stick paper pocketing 5.00 29.77 11.50 250.00 245.00 170.00 420.00 420.00 490.00 22.00 5mm wooden stick paper wooden stick paper pocketing 5.00 29.77 11.50 250.00 245.00 170.00 420.00 420.00 490.00 22.00 5mm wooden stick paper wooden stick paper 420.00 420.00 490.00 420.00 420.00 420.00 490.00 pocketing PLAN BENDING PANEL INTERIOR TYPICAL PANEL PANEL W/ MOVABLE WALL pocketing
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KAZEMZADEH BREEZIN STUDIO PROJECTS
YASSI

SITE SPECIFICITY

New York, NY

Instructor: Pooneh Maghazehe 2017

Installed in the stairwell between the third and fourth floors of Columbia University’s Prentis Hall, this piece amplifies its surrounding environment by interacting with the various combinations of light, wind, and sound that move through the space. Each metal sheet has a rod welded exactly at its centerline, allowing the panels to balance horizontally when suspended.

10 YASSI KAZEMZADEH STUDIO PROJECTS
11 YASSI KAZEMZADEH SITE SPECIFICITY STUDIO PROJECTS

PRESCRIBED DECAY

Instructors : Nina Jotanovic, Javier Ruiz Rodriguez, Andreas Korner, Pradeep Devadass, Anete Salmane

Partners: Laetitia Morlie, Natalia Piorecka

Nov 2021 - Feb 2022

Prescribed Decay explores the concept of time-based architecture, only reaching its final form through the process of its own degradation. The enzymes embedded in its construction materials act as catalysts for this transformation, as they eat away at the initial structure and reveal a new, yet expected result. This method of subtractive manufacturing takes place at a biological scale and invites new growth such as fungi and bacteria to colonize the eroded building. Located in Dungeness, UK, this project, over time, becomes fully integrated into its environment’s unique topography and microclimate by way of decay and bioreceptivity.

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STUDIO PROJECTS

Starch-Based Biomaterial, acts as main structure

Carrier Material, introduces amylase enzyme that breaks starch down

The amylase enzyme breaks starch down into glucose molecules (simple sugars)

The enzyme is not itself consumed in the chemical reaction. So long as it is in a favorable environment, it will continue to further break down the substrate

Starch-Based Biomaterial

Parameters: high strength (to survive wind pressure), high starch presence (to achieve a more accentuated decay), insoluble state (to be decayed by enzymes and not water), 3D printability for fabrication purposes.

In further explorations, the material’s pH should also be taken into account as this affects enzyme activity. All enzymes have different pH and temperature conditions and necessitate the presence of water to reach optimum activity. The optimal pH for a-amylase from bacillys lichenform, used here, is approx. 6.0-6.5 (Ivanova, Dobreva and Emanuilova, n.d.)

Starch Breakdown

Testing how temperature affects the amylase enzyme’s efficacy in degrading the starch into glucose molecules. Iodine was used as an indicator as it becomes a dark color in the presence of starch and returns to its original color once the starch is fully broken down, highlighting starch presence and enzyme activity.

Observations:

At 10 degrees Celcius, the starch did not break down after 16 mins. At 20 degrees Celcius, all starch was broken down after approximately 9.5 mins.

13 YASSI KAZEMZADEH Material Studies: A Layered Approach STUDIO PROJECTS PRESCRIBED DECAY
Observations Sample Composition Strength 50% Shrinkage 0% 3D printability 60% Solubility not tested Opacity 70% Potato Starch 1g Sodium Bicarbonate 1g Water 10g Sodium Alginate 1.5g Calcium Chloride (CaCl2) bath Observations Sample Composition Strength 50% Shrinkage 0% 3D printability 60% Solubility not tested Opacity 70% Potato Starch 1g Sodium Bicarbonate 1g Water 10g Sodium Alginate 1.5g Calcium Chloride (CaCl2) bath Observations Sample Composition Strength 60% Shrinkage 0% 3D printability 60% Solubility 70% Opacity 100% Potato Starch 8g Sodium Bicarbonate 16g Water 17g Sodium Alginate 1.5g Calcium Chloride (CaCl2) bath Observations Sample Composition Strength 60% Shrinkage 0% 3D printability 60% Solubility 70% Opacity 100% Potato Starch 8g Sodium Bicarbonate 16g Water 17g Sodium Alginate 1.5g Calcium Chloride (CaCl2) bath Observations Sample Composition Strength 70% Shrinkage 0% 3D printability 60% Solubility 7% Opacity 80% Shape remained intake under water but starch over time. Potato Starch 24g Sodium Bicarbonate 0g Water 17g Sodium Alginate 1.5g Calcium Chloride (CaCl2) bath Observations Sample Composition Strength 70% Shrinkage 0% 3D printability 60% Solubility 7% Opacity 80% Shape remained under water but starch over time. Potato Starch 24g Sodium Bicarbonate 0g Water 17g Sodium Alginate 1.5g Calcium Chloride (CaCl2) bath Observations Sample 7 Composition Strength 50% Shrinkage 0% 3D printability 50% Solubility 70% Opacity 95% Potato Starch 16g Sodium Bicarbonate 8g Water 17g Sodium Alginate 1.5g Calcium Chloride (CaCl2) bath Observations Sample 7 Composition Strength 50% Shrinkage 0% 3D printability 50% Solubility 70% Opacity 95% Potato Starch 16g Sodium Bicarbonate 8g Water 17g Sodium Alginate 1.5g Calcium Chloride (CaCl2) bath Observations Sample 1a Composition Strength 80% Shrinkage 0% 3D printability 0% Solubility 70% Opacity 100% Tapioca Starch 8g Sodium Bicarbonate 16g Water 12g Observations Sample 1a Composition Strength 80% Shrinkage 0% 3D printability 0% Solubility 70% Opacity 100% Tapioca Starch 8g Sodium Bicarbonate 16g Water 12g Observations Sample 1b Composition Potato Starch 8g Sodium Bicarbonate 16g Water 17g Strength 80% Shrinkage 0% 3D printability 0% Solubility 70% Opacity 100% Observations Sample 1b Composition Potato Starch 8g Sodium Bicarbonate 16g Water 17g Strength 80% Shrinkage 0% 3D printability 0% Solubility 70% Opacity 100% Observations Sample Composition Strength 70% Shrinkage 40% 3D printability 20% Solubility 70% Opacity 100% Potato Starch 4g Sodium Bicarbonate 8g Water 22g Sodium Alginate 1g Calcium Chloride (CaCl2) bath Observations Sample Composition Strength 70% Shrinkage 40% 3D printability 20% Solubility 70% Opacity 100% Potato Starch 4g Sodium Bicarbonate 8g Water 22g Sodium Alginate 1g Calcium Chloride (CaCl2) bath Observations Sample 3 Composition Strength 50% Shrinkage 20% 3D printability 20% Solubility 70% Opacity 100% Potato Starch 5g Sodium Bicarbonate 6g Water 11g Sodium Alginate 1g Calcium Chloride (CaCl2) bath Observations Sample 3 Composition Strength 50% Shrinkage 20% 3D printability 20% Solubility 70% Opacity 100% Potato Starch 5g Sodium Bicarbonate 6g Water 11g Sodium Alginate 1g Calcium Chloride (CaCl2) bath

Wind Simulations

After studying the local architecture and landscape, we conducted wind simulations on a variety of iterations of fisherman’s huts to better understand their abilities to withstand the strong Dungeness winds. These were done using the highest mean wind speed at 10m on the site of 13.51 knots in the month of January. The lowest is of 9.49 knots in the month of July.

LOCAL ARCHITECTURE

14 YASSI KAZEMZADEH PRESCRIBED DECAY STATIC PRESSURE ITERATIONS VELOCITY MAGNITUDE
LANDSCAPE
Decaying Fisherman’s Hut Modern Vacation Home Fisherman’s Hut
52 52 52 52 52 52 STUDIO PROJECTS
Artist’s Residence

INITIAL FORM + FABRICATION

Based on CFD studies

WIND EROSION

Abrasion and Deflation, Mechanical erosion

DECAY - ENZYMES

Activation of the enzymatic degradation, breaking down the carrier material

INHABITABLE FORM

Result of complementary studies, enzymatic and wind degradation simulations

(UN)WANTED GROWTH

Accumulation of broken down by enzymes nutrients

NEW HOME FOR MICROBES

Continuous growth breaks down the structure, creating a new habitat for other organisms and vegetation

15 YASSI KAZEMZADEH Timeline
STUDIO PROJECTS PRESCRIBED DECAY

Barcelona, Spain

Instructors: Rodrigo Aguirre, Uri Lewis

Partners: Rocio Sagastegui, Maryam Ashraf, Dimitra Roumelioti, Miguel Gimenez Perez

2022

The Vallcarca Cane Park is an urban farm aimed towards reconnecting the communities that make up its diverse and historically fragmented neighborhood. Located in an urban void north of the Ronda de Dalt in Barcelona, the structure is built using cane, a vernacular material, and traditional fabrication methods such as active bending. The farm is primarily irrigated by the seasonal river that runs directly through the site. Often posing a threat of flooding to the area, this river has been redirected using computational tools to optimize water flow based on direction, slope, and spatial programming. This project would eventually develop into a modular system to connect local urban voids and cultivate a communal farming network unified by water distribution.

Prescribed Decay explores the concept of time-based architecture, only reaching its final form through the process of its own degradation. The enzymes embedded in its construction materials act as catalysts for this transformation, as they eat away at the initial structure and reveal a new, yet expected result. This method of subtractive manufacturing takes place at a biological scale and invites new growth such as fungi and bacteria to colonize the eroded building. Located in Dungeness, UK, this project, over time, becomes fully integrated into its environment’s unique topography and microclimate by way of decay and bioreceptivity.

17 YASSI KAZEMZADEH STUDIO PROJECTS
VALLCARCA CANE PARK
MORE INFO

41.418612, 2.135477

18 YASSI KAZEMZADEH VALLCARCA CANE PARK STUDIO PROJECTS
Bike line €20.000 yearly income Discontinuous land coverage 30%-50% Education Proposed connections Ronda de Dalt Public and administration Public and administration Discontinuous land coverage <30% Parks and urban spaces Voids occupied for gardening Voids occupied for social gathering Unoccupied voids Vallcarca Viaduct Metro Station Bus Stop Roda de Dalt €15.000 yearly income Discontinuous land coverage 50%-80% Public and administration Educational spaces Site €10.000 yearly income Continuous land coverage>80% Habitation Casc Antic Analysis Strategy Transportation Socioeconomic Urban Fabric Land Use Connection Context
Vallcarca i Els Penitents Barcelona, Spain

Existing vegetation and access points

Engage the community

Provide a space for dialogue and exchange within the neighborhood

Sustainable land rehabilitation

Create a continuous and cohesive network of urban gardens

Address flooding problem

Redirect and slow down the water flow, integrate hydroponic water system

Local means and methods

Use vernacular materials such as cane and building techniques like active bending

19 YASSI KAZEMZADEH VALLCARCA CANE PARK STUDIO PROJECTS
Slope
Noise, wind, pollution Water Flow 0-5 ° 5-15 ° 15-30 ° >=30 ° 50-55 db 55-60 db 60-65 db Water Flow Access and circulation Project zoning Noise and pollution border Noise border Gathering spaces Access Circulation Structures zoning Water ponds Water canals 50-55 db 55-60 db 60-65 db
Analysis Strategy Objectives Site

Form Finding Aggregation Material

Donax

• perennial herbaceous: fast-growing + long-lasting

• “invasive” specie native to site

• hollow: lightweight + sturdy

• 2-8m height

20 YASSI KAZEMZADEH VALLCARCA CANE PARK
Technology Construction Roof Direction Central Incline Secondary Height Primary STUDIO PROJECTS CONCAVE connectornode connectornode connectornode
Incline Secondary LENGTH TYPEFUNCTION CONVEX COMBINATION 1 COMBINATION 2 Height Primary Central Roof Directionality
connectornode
Arundo
CONCAVE Typical Asymmetrical Narrow Wide ARCH VARIATIONS CONVEX CONCAVE Typical Asymmetrical Narrow Wide ARCH VARIATIONS CONVEX CONCAVE Typical Asymmetrical Narrow Wide ARCH VARIATIONS CONVEX CONCAVE Typical Asymmetrical Narrow Wide ARCH VARIATIONS CONVEX CONCAVE connectornode connectornode connectornode connectornode Incline Secondary LENGTH TYPEFUNCTION CONVEX COMBINATION 1 COMBINATION 2 Height Primary Central Roof Directionality CONCAVE connectornode connectornode connectornode connectornode Incline Secondary LENGTH TYPEFUNCTION CONVEX COMBINATION 1 COMBINATION 2 Height Primary Central Roof Directionality Asymmetrical Narrow Wide gathering spaces pathway node connector secondary space space A Spatial Cluster Aggregation Cluster Connections Spatial Hierarchy Scaling Typical Connection Program and Circulation LOW POLY DISTORT HIGH POLY space C space B space D area 1 primary space area 2 Asymmetrical Narrow Wide gathering spaces pathway node connector secondary space space A Spatial Cluster Aggregation Cluster Connections Spatial Hierarchy Scaling Typical Connection Program and Circulation LOW POLY DISTORT HIGH POLY space C space B space D area 1 primary space area 2 Asymmetrical Narrow Wide gathering spaces pathway node connector secondary space space A Spatial Cluster Aggregation Cluster Connections Spatial Hierarchy Scaling Typical Connection Program and Circulation LOW POLY DISTORT HIGH POLY space C space B space D area 1 primary space area 2 Asymmetrical Narrow Wide gathering spaces pathway node connector secondary space space A Spatial Cluster Aggregation Cluster Connections Spatial Hierarchy Scaling Typical Connection Program and Circulation LOW POLY DISTORT HIGH POLY space C space B space D area 1 primary space area 2 Asymmetrical Narrow Wide gathering spaces pathway node connector secondary space space A Spatial Cluster Aggregation Cluster Connections Spatial Hierarchy Scaling Typical Connection Program and Circulation LOW POLY DISTORT HIGH POLY space C space B space D area 1 primary space area 2 Asymmetrical Narrow Wide gathering spaces pathway node connector secondary space space A Spatial Cluster Aggregation Cluster Connections Spatial Hierarchy Scaling Typical Connection Program and Circulation LOW POLY DISTORT HIGH POLY space C space B space D area 1 primary space area 2 Asymmetrical Narrow Wide gathering spaces pathway node connector secondary space space A Spatial Cluster Aggregation Cluster Connections Spatial Hierarchy Scaling Typical Connection Program and Circulation LOW POLY DISTORT HIGH POLY space C space B space D area 1 primary space area 2 Asymmetrical Narrow Wide gathering spaces pathway node connector secondary space space A Spatial Cluster Aggregation Cluster Connections Spatial Hierarchy Scaling Typical Connection Program and Circulation LOW POLY DISTORT HIGH POLY space C space B space D area 1 primary space area 2 Asymmetrical Narrow Wide gathering spaces pathway node connector secondary space space A Spatial Cluster Aggregation Cluster Connections Spatial Hierarchy Scaling Typical Connection Program and Circulation LOW POLY DISTORT HIGH POLY space C space B space D area 1 primary space area 2
Design
Active Bending
21 YASSI KAZEMZADEH VALLCARCA CANE PARK STUDIO PROJECTS Flex Dining restrooms dining Flex restrooms workshop classroom B classroom A Education Flex Cooking Dining storage kitchen restrooms dining Flex Cooking Dining storage kitchen restrooms dining Master Plan KITCHEN DINING seating area WC FLEX SPACE EDUCATION classroom A classroom B cooking area storage workshop

NATIONAL BLACK THEATER

Instructor: Bradley Samuels

Partners: Samina Gagne, Nicole Staake 2016

The National Black Theater is a historical landmark, located at the corner of 125th street and 5th avenue in Harlem, NY that has served as both a performance space and community center since 1968. Their performances and exhibits are centered around creating moments of interaction and exchange between artists and spectators, fostering transformation and growth through shared experience. To celebrate and foster more transformative interactions, this design proposal focuses on circulation throughout the theater. The NBT’s entry plaza becomes an extension of the sidewalk, part of the street’s natural flow. It mirrors the iconic Harlem stoop, as it functions both as private property and a public space to convene. The community is invited to move organically through the building as it is a part of their neighborhood’s landscape and cultural identity.

22 YASSI KAZEMZADEH STUDIO PROJECTS

Organic flexibility of community RAMPS Actors, spectators, visitors collide

Drawing 3.1

SUPERSTRUCTURE

Institutional presence of NBT

23 YASSI KAZEMZADEH NATIONAL BLACK THEATER
STUDIO PROJECTS
and Model Studies
CABLE
Material
24 YASSI KAZEMZADEH NATIONAL BLACK THEATER STUDIO PROJECTS Program and Circulation DN A UP 5th ave 125th st N A UP A DN A BASEMENT SECOND FLOOR FIRST FLOOR THIRD FLOOR superstructure archive/research ramp flex space staircase black box lobby black box theater residential lobby 5th ave 125th street program x entry lobby admin office
25 YASSI KAZEMZADEH NATIONAL BLACK THEATER STUDIO PROJECTS
SECTION A

New York, NY

Company: Carvart

Carvart’s glassCUBE is a freestanding wall system, perfect for creating semi-private spaces in larger communal areas. The ease of install, variety of accessories, and flexible configurations are unique features of this system. The glassCUBE brochure, detailing the entire product profile from technical details to performance capabilities, is part of a larger catalogue produced during an overall effort to standardize Carvart’s full product offering. We developed a set of standard dimensions, configurations, applications for each system. The following pages are excerpts of the glassCUBE brochure.

PROFESSIONAL PROJECTS
GLASSCUBE
2017- 2019

MINI PROJECTS

Barcelona, Spain

Instructors: Tom Svilans, Shyam Zonca

Partners: Anastasija Vidovic, Asja Osmanovic, Gabriel Wosiack Teixeira, Ingrid Vaz, Julius Morgenstern, Martino Degasperi, Michael Sinzinger, MuHuai Liu, Paing Su Ko, Raghav Jhawar, Rocio Sagastegui Vazquez, Sbusiso Bhembe, Sebastian Oliver Dahl 2023

Designed for IAAC’s Valldaura campus, this timber bench provides a private area for students to occasionally detach from their shared working and living space. It can be expanded with more “privacy pods” as the walls are made of simple interlocking beams. All components were CNC milled, including the curved framing beams that were then glue laminated together, as well as the base pieces of the bench that were milled to match the 3D scans of the boulders they each rest on.

30 YASSI KAZEMZADEH MINI PROJECTS
VALLDAURA BENCH
MORE INFO
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KAZEMZADEH VALLDAURA BENCH MINI PROJECTS
YASSI

NESTED

Instructors: Tom Svilans, Shyam Zonca

Partners: Gabriel Teixeira, Sbusiso Bhembe

2023

Nested proposes a standardized joint system that connects and actively bends non-standard pieces of raw wood. Using 3D scanning and CNC milling, this project studies the effect that varying degrees of customization have on the larger structure’s scalability and ease of installation. Creating new, more accessible applications for unprocessed raw wood has the potential to decrease waste wood and carbon emissions that come from current timber standardization processes.

32 YASSI KAZEMZADEH MORE INFO
MINI PROJECTS
33 YASSI KAZEMZADEH NESTED 3D Scanning and CNC Milling
Handcut Test Joints Base Joints Standard 3D scanned
MINI PROJECTS
Standard Connector Joints

Instructor: Ricardo Mayor

Partners: Maryam Ashraf, Federico Lacasia, Sbusiso Bhembe

This project explores how to stack columns out of standard timber segments using the ABB robotic arm, with the “pick and place” method. The column is designed to push the robot to its limit while taking advantage of its precision: each module (3 layers) is rotated 15 degrees, minimizing overlap between pieces and maximizing need for accurate placement and balance.

34 YASSI KAZEMZADEH
BALANCING ACT
2023
MORE INFO MINI PROJECTS
35 YASSI KAZEMZADEH BALANCING ACT 15° rotation 15° rotation 15° rotation 15° rotation 15° rotation 15° rotation 670mm 810mm 737mm 1092mm 360° 20mm 585mm MINI PROJECTS

APERTURE BUILDING

Mallorca, Spain

Instructors: Rodrigo Aguirre, Laukik Lad

Partners: Anouk Eil, Sbusiso Bhembe

2023

This project combines the use of computational tools and environmental data in order to optimize a building’s overall exposure to sun radiation. This process takes place in two phases: defining first the ideal placement on the site in Palma, Mallorca, then the ideal geometry of the structure itself.

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MORE INFO MINI PROJECTS

Parameters: roof height, diameter, angle, orientation 1. Generate Geometry Iterations

Place geometry on site. Lady Bug: determine solar radiation on geometry in site location

Fitness Value = highest placement on terrain + highest percentage of visible terrain

Fitness Value = Minimum amount of solar radiance on structure in designated site

37 YASSI KAZEMZADEH APERTURE BUILDING Process PHASE 2 PHASE 1 CREATE SITE CREATE GEOMETRY Phase 1
Contour Mesh
1. Create Site
Surface
Galapagos
z z Height Based off of Z- Value Field of View Based on % of Visible Terrain
2. Evaluate Site 2. Evaluate Solar Radiation 3. Determine Optimal Geometry Galapagos 3. Determine Optimal Placement on Site
MINI PROJECTS

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