This portfolio, titled Infrastructural Poetics, approaches architecture as a medium of sensation and symbolism beyond structure or function. It interprets infrastructure as poetic, exploring rhythm and atmosphere through repetition, material transformation, and generative geometry. Each project emerges at the intersections of art and engineering, memory and ecology, the digital and the hand drawn, developing a layered architectural language shaped by experimentation, iteration, and coexistence.
Robotic Hatchery 01
Spring 2025, Pratt Institute
Academic, Collaborative Work, Partner: Jonathan Lee
Professor: Fabian Llounch
Automatic Robotic System + Billion Oyster Project
Location: Brooklyn Army Terminal, Brooklyn, New York
Software: Rhino + Vray + Adobe Suite
Deep Sea Nautilus Diagrams showing external shell and internal chambered anatomy
How should architecture be designed for new oyster farming infrastructure?
This project encompasses infrastructure for automated oyster farming, reef production and maintenance, as well as public programs for education. Based on biological metaphors, we approached the design with a systems-thinking mindset rooted in scalable and selfsustaining biological processes.
Functioning as a local landmark, the building operates like a living organism—grafted onto existing structures and adapting to its surrounding environment.
3/16”=1’-0” Physical Model
Airbrushed PLA, UV Resin, PVC, Cast Acrylic, Plywood, Framing Lumber, HDU, 25” x 74” x 50”
Selected for 2025 Pratt Show Archived at Pratt Institute School of Architecture
Sea Level Mapping - Global
Sea Level Mapping - Site
This project focuses on oyster cultivation as a means of water purification. Research at both local and global scales shows that climate change and sea level rise are driving marine pollution. Building on the Billion Oyster Project, the site is proposed as a testing ground for an automated, globally adaptable purification system.
ADDED AQUA ROBOTICS PROGRAM
GIVEN
EARLY ED. ROBOTICS PROG. VENTURE CAPITAL BILLION OYSTER PROJECT
The taxonomy diagram, integrated with the bug models, illustrates the flow of thought from site, building, and program research to the identification of issues, potentials, and design solutions. On the left, the 24 bug models represent iterations of program, building conditions, and design ideas, which converge into a cohesive narrative. This narrative unfolds into program organization, design language, and the relationship between people and infrastructure, ultimately extending beyond function and renovation toward metaphor, symbolism, and the role of the building as a landmark.
The intersection of fabrication technologies, aquarobotic systems, and human-centered spaces generates a new kind of spatial experience distinct from conventional design approaches.
At these points of convergence, automated systems and human environments are intricately interwoven, producing complex spaces where technological precision and sensory engagement coexist.
Perpective View of Underwater
Viewing Steps
Intersecting Space
Sectional Physical Model, 3/16”=1’-0”
Air brushed PLA, UV Resin, PVC, Cast Acrylic, Plywood, Framing Lumber, HDU, 25” x 74” x 50”
Selected for 2025 Pratt Show
Archived at Pratt Institute School of Architecture
Water Elevation
The building is conceived as a single organism composed of multiple “organs” where the expandable oyster-farming automation system intersects with public programs. Within these organs, the moving objects interact and form relationships. The three model images on the upper left illustrate how people experience the building as part of this flowing system, and how new organs connect to the existing structure and evolve into design.
Summer 2025, Pratt Institute
Academic, Individual Work
Professor: Erich Schoenenberger, Alex Tahinos
Program: Hydro-Infrastructure, Mobility Network, Community Center
Location: Coyoacan, Mexico City, Mexico
Software: Rhino + Enscape, D5 + Adobe Suite
Speculative
This project is located near the Norte Stadium in Mexico City and speculates on the city’s future conditions before and after large-scale events such as the upcoming World Cup. It addresses the paradoxical challenges of water scarcity and flooding that affect the city, reconnects pedestrian networks fragmented by road infrastructure, and provides new public space. More importantly, through a speculative lens, the project extends beyond problem-solving to propose an experimental framework that reimagines how infrastructure and urban life can generate new possibilities for community activation and resilience.
Arial Perspective View Rhino, D5
Connecting Spots, Collecting Water
The design begins by identifying and connecting multiple potential spots around the site. Public programs, positioned alongside an activated pedestrian network, transform these points into key urban nodes. At the same time, rainwater collected from the building’s surfaces and a flood-responsive plaza serve as passive strategies to address both water scarcity and flooding.
2. Pedestrian Network + Vendor Market
4. Flood Responsible Plaza Water-collecting Roof and Walkaways
1. Important Spot & Possibility
Bridge
Hub
Community Center
3. Enhancing Spots with Roofing Programs
Site Physical Model, 1:2500 Spray Paint on PLA, 14” x 20”x 5”
Base on Function as footbridge, Roof, Program, Rain Harvesting
Through a formal study exploring forms suitable for a system that simultaneously addresses pedestrian networks and water collection and storage programs, the design has evolved into a form that not only meets these requirements but also enables the system to operate effectively.
Axonometric Building Section Rhino, Enscape
Infrastructure for People and Water
The floor plan not only performs the system of water collection, filtration, storage, and distribution but is also designed to adapt to both everyday conditions and large-scale events such as the World Cup, where massive crowds gather and disperse. The second floor primarily functions as a circulation level; on ordinary days, it accommodates a vendor market and provides space for the local community to stroll and gather. During events, however, all spaces can be cleared to accommodate large flows of people.
Diagram
Similar to the second floor, the ground floor is developed not only to operate the rain harvesting system but also to adapt to conditions before and after flooding. During floods, the plaza functions as a pond that retains water; in everyday situations, it becomes a public park; and during events, it transforms into a gathering space for people. In the diagram, the contrasting shading illustrates the difference in occupancy density between event periods and ordinary days.
The ground space condition diagram illustrates a porous form carved by human movement, revealing unique spatial qualities shaped through circulation. Unlike the uncomfortable underpasses of conventional footbridges, this serves as a strong example of how pedestrian infrastructure can be integrated with architecture to function more effectively.
How can we experience architecture that is integrated with infrastructure? From its earliest planning stages, this project has focused on the flows of water and people. Just as water is collected, filtered, stored, and redistributed through a sequence of processes, the movement of people is aligned with this sequence, allowing them to directly experience each stage of rain harvesting within the building. Through this, residents can transform negative associations with water into new experiences, while the building itself functions as both a community hub and a device for shifting perception.
Typical Building Section
Small
Vendor Market & Pedestrian Network Public Park
Small Stadium Court Yard Rhino, D5
Interior View with Water Fiteration and Storage Column Rhino, D5
Inhale-Exhale 03
Fall 2024, Pratt Institute
Academic, Individual Work
Professor: Alex Tahinos
Program: Housing, Public Park + CO2 Capturing
Location: 395 Broome St, New York
Software: Rhino + Enscape + Adobe Suite
Arial
Axonometiric View of Building Rhino, Enscape, Photoshop
Urban Sampling
This project explores the integration of CO₂-capturing technology with urban elements such as small parks in New York City. Its goal is to merge futuristic technology with familiar spaces, creating a new architectural experience where past and future intersect. Through this process, the project investigates how emerging technologies can organically embed themselves within the urban environment.
Step 1: Hybrid Experimentation
In the initial stage, the project analyzed the functional aspects of CO₂ capturing and processing devices and explored their potential to merge seamlessly with architectural forms. Through 3D modeling experiments, elements of urban parks—such as benches, streetlights, plantings, and paving—were sampled and combined with new technological devices in a hybrid modeling process. This experiment went beyond simply visualizing technical performance, aiming instead to explore how urban spaces might acquire new aesthetic and atmospheric qualities in the era of climate change.
1. Whole 3D Model Studies
2. Sectional & Partial Studies
CO2 Gas Storage
Park Entrance
Cluster Section
Greenarce Park, New York
2nd Generation
CO2 Processing Facility
3rd Generation
1st Generation
CO2 Capturing and Processing by Climeworks
Urban Sampling
Water Stream Wall
Cascaded Waterfall
Original Model
3. Hybrid Experiments
Entrance for CO2 Free Park
CO2 filtering Machinary Tree
CO2 Free Shelter
Park Entrance + Snack Bar + CO2 Storage
Tree + Bench + CO2 Filtering Machine
Canopy Shelter + CO2 Filtering Machine
CO2 Facility Deck
CO2 Free Wind Fall (Selected)
CO2 Processing Wall (Selected)
Open Park + CO2 Facility
Cascaded Waterfall + CO2 Capturing Cluster
Water Stream Wall + CO2 Processing Facilty
Modeling Experiment
Hybrid Experiment
CO2 Free Wind Fall
Flexible, Curved Public Space, Free Form Angular, Rectangular Housing, Modular
Step 2: Selection on Hybrid Object
Among the various hybrid models, objects suitable for residential and public programs were selected. The multi-family housing is composed as if made of modular units, resonating with the logic of windfall. Meanwhile, the park is envisioned not as a standardized or efficiency-driven space, but as a place where people can linger and relax—integrated with CO₂ processing casings. These hybrids embody both functional and sculptural qualities, visualizing how CO₂-capturing technology can naturally permeate the urban context. Renderings of the selected hybrids present concrete spatial images, revealing a new hybrid atmosphere within familiar cityscapes.
01. Whole Parts of Hybrid Objects
02. Details of Hybrids Objects
Kinetic Element
Inlet and Outlet Connection
Whole System Section
Phase 3: Architectural Integration
In the final stage, these hybrid objects were fused with actual architecture. As seen in the contrast between the floor plan and the axonometric building section, CO₂-capturing machines equipped with filters are integrated into residential units, supplying purified air to the interior. At the same time, the filtered air is released into the CO₂ Free Park, where it merges with kinetic devices to generate an entirely new type of park atmosphere. Through this process, people are able to sense, observe, and experience the act of filtration directly.
Axonometric Building Section Rhino, Enscape
In the final stage, the project is articulated as a single building operating in dialogue with its context. At the rear of the site, where the balconies of adjacent buildings face inward, the CO₂ Free Park is strategically placed in respect to this condition. The surrounding buildings emphasize a repetitive verticality, which the design both acknowledges and reinterprets. This results in a gradually recessed, cave-like entrance at the front, contrasted by a vastly open public park at the rear. The strong juxtaposition of these elements produces a spatial drama, allowing the building to operate as an architectural form that resonates with its context while offering a new type of public space.
Broom St (3 Lane Road)
Eye Level Building Perspecitve View Rhino, Enscape
Perspecitve View of CO2 Free Public Public Park Rhino, Enscape
Vertical Dynamics 04
Fall 2024, Pratt Institute
Academic, Individual Work
Professor: Fabian Llonch
Proseminar: Skins
Location: 110 Prince St, New York
Software: Midjourney, Rhino, Enscape, Adobe Suite
Eye Level Building Perspective View Rhino, Enscape
Phase 1: AI Generative Image
Mid Journey
Based on images obtained through Midjourney’s blending feature, this project explores the potential of functioning as a skin by extracting forms, separating similar elements, and layering them.
Phase 2: Respect of Verticality
110 Prince St, Soho, Manhattan
With the goal of designing dynamism while respecting the strongly vertical context, the project was gradually developed by varying density, scale, layering, and assembly.
AI Generative Image
Think about Verticality Blurring Geometry
Different Density, Scale
Image to 3D Modeling Making Inital Geometry
Building Elevation Rhino, Enscape
Phase 3: Methaphor of Water Fall
The final façade, shaped through layering and density testing, metaphorically resembles a waterfall. It introduces a pocketpark quality into the city’s vertical monotony, with each layer abstracting elements of flowing water—streams, stones, and mist—turning the skin into both structure and poetic image.
Vertical Rain String Diagonal Prism
Dripping (up)
Arial Axonometric View Rhino, Enscape
3/16”=1’-0” Study Models
3/16”=1’-0” Physical Model
PLA, 18” x 18” x 20” Archived at Pratt Institute School of Architecture
PLA, 4” x 4”
Victory of Jagalchi Market 06
Spring 2021, PNU
Academic, Individual Work
Professor: Jaehoon Jook
Program: Cultural Complex
Location: Jagalchi Market, Busan, Republic of Korea
A-A’ ground section 1950s 1970s gathering people forming market begining of fish trade
The first market is created when people gather to buy and sell daily necessities and various items. Over time, buildings are erected and streets become organized, and the variable and temporary characteristics of the market fade away. The physical market becomes standardized and loses its sensitivity. What is the role of architecture in preserving the traditional market and its unique sensibilities? A hint could be found in the objects used in the formation of the first market, such as tents.
Deformation structure
After establishing a basic box-shaped volume, each corner is pulled outward to induce a tent-like deformation, generating a tensile spatial condition. This transformation operates as a strategy to shift the initial cubic mass into a more fluid and dynamic form.
The left sectional model serves as a mock-up test to evaluate this concept, incorporating the membrane structure, supporting tension cables, and the human figure within. Through this model, both the spatial tension and the usability of the interior environment are examined simultaneously.
The first market is created when people gather to buy and sell daily necessities and various items. Over time, buildings are erected and streets become organized, and the variable and temporary characteristics of the market fade away. The physical market