New York, NY (617)-610-9229 avielaberkportfolio@gmail.com
Recent graduate at Parsons School of Design in Architectural Design with a dual minor in Communication Design and Coding. Academic focus and involvement geared towards a strong foundation in architecture, urban planning, woodworking, UI/UX design, and product design.
Education
2021 - 2025
2020
2019
Parsons School of Design - New York, NY
Bachelor of Fine Arts in Architectural Design
Graduated with Institutional and Department honors
Minor: Communication Design, Coding
GPA: 3.8
Activities and societies: Dean’s List, AIAS
Brewster Academy - Wolfeboro, NH
High School Diploma
GPA: 4.2
Activities and societies: Summa Cum Laude; National Honor Society; Math Tutor Center; Soccer; Captain of the Snowboarding team; Advanced Ceramic Pratt Institute - New York, NY
Pre-College Summer Program
Grade: A
Engaged in rigorous college-level courses as a high school student and earn elective college credits. Modeled after Pratt Institute’s undergraduate offerings in art, design, and architecture, taught by Pratt faculty, PreCollege courses immerse students in the creative process.
Experience
May 2023-May 2025
AVIELA BERK
My portfolio aims to showcase my commitment to designing functional, sustainable spaces that address both environmental and social challenges. Through thoughtful material choices and the integration of advanced technologies, I strive to create designs that promote connection, well-being, and innovation. My work reflects a belief that architecture can enhance lives and contribute to a more sustainable and equitable future.
Jul. 2024-Aug. 2024
The New School- New York, Student Assistant at the Welcome Center
Representing the university and creating a positive experience for all visitors. Assist in organizing admission events, contribute to various media such as editing videos, presentations, and the Instagram page.
Reuse Italy - Florence, IT
Workshop Attendee
The “Reuse the Ruin – Summer Architecture Program” is an intensive course in architectural restoration. In a group of eight, participated in a design studio focused on reconstructing the Rocca di Sala Fortress in Pietrasanta, Lucca. Our task was to design a contemporary art museum with exhibition spaces, a ticket office, café, and outdoor sculpture displays, reimagining outdoor areas as public spaces.
REI - New York, NY
Bike and Snow Shop Technician
Skilled in bike and snow sports equipment assembly, servicing, and repair to REI and vendor standards. Act as a customer facing service advisor, assessing customer needs and offering equipment advice, all while adapting within a high-paced retail environment.
Apr. 2023-May 2023
Richard M. Brodsky Foundation - New York, Graphic Designer
Designed and produced posters for a foundation event, ensuring impactful visual communication. Created a banner to thank sponsors and members. Edited a video for a previous event, showcasing Richard’s gratitude and providing an overview of the Richard M. Brodsky Foundation’s impactful work.
Exhibitions & Awards
2025 Venice Architecture Biennale
The Taiwan Pavilion at 2025 Venice Architecture Biennale to Explores the “Precarious Intelligens”
Reuse the Ruins 2024
2020-2025
Summer 2024 Workshop final exhibition and publication
Dean’s List
Parsons School of Design for academic excellence
Arthur J Mason Award 2020
Awarded for good sportsmanship on the playing fields, in the halls, in the classrooms, and among students, faculty, and others.
Summa Cum Laude 2020
Brewster Academy, grades of 92 or higher with all courses at the Accelerated or AP level
References
Miodrag Mitrašinovic - Parsons BFA Capstone Professor of Architecture - mitrasim@newschool.edu
Hyon Woo Scott Chung - Parsons BFA Professor of Architecture - chungh@newschool.edu
Skills
Ames Sustainability Lab (Cloud Lab)
Mountain View, CA, USA
AD Studio 6 - Spring 2025
Instuctor: Miodrag Mitrasinovic
Partner: Katina Chang
This project reimagines NASA’s Sustainability Base at Moffett Field as an educational research facility that makes sustainability systems visible and experiential. By exposing typically hidden infrastructure—like solar panels and water recycling—the building becomes a pedagogical tool promoting environmental awareness. The design includes a new interdisciplinary lab for climate-related sciences and relocates the daycare into the main building to support early science engagement. Through transparent façades and shared spaces, the project fosters cross-generational learning and public outreach, positioning architecture as an active agent in sustainability education and climate resilience.
Diagram: Explaining Area Wild Life and Climate Issues
= 1/128”
Site Context
Moffett Field, located in Mountain View, California, sits at the heart of Silicon Valley—a region known for its wealth, technological innovation, and rapidly growing population. Once a U.S. Navy airbase, it is now operated by NASA Ames Research Center. Despite its prominence, the area faces increasing climate challenges such as prolonged droughts, extreme heat, and flood risks. These environmental pressures underscore the importance of sustainable, adaptive architecture. Moffett Field’s unique intersection of technology, research, and vulnerability makes it a compelling site for reimagining future-ready design.
Plan
Circuation Diagrams
Program
The original Sustainability Base primarily housed administrative offices and cubicles, serving as NASA’s model of hidden sustainable systems. In our reimagined design, we expand the program to include a sustainability lab with wet and dry labs, greenhouse, offices, conference rooms, and lounges, as well as new collaboration spaces for outside organizations to engage with NASA’s work. To strengthen site cohesion, we relocated the existing daycare into the Sustainability Base and introduced a new wing for offices and shared spaces. A central kitchen and dining area now connects old and new, while a circulation tunnel links both additions, doubles as a systems showcase, and ties the site together.
Footpath
While the original Sustainability Base already employs cradle-to-cradle certified and environmentally responsible materials, our project builds on this foundation by exploring more localized and updated alternatives. We prioritized materials that are regionally sourced, recycled, and recyclable, reducing emissions from transportation and minimizing environmental impact.
This material strategy directly informed our design decisions, most notably the lightweight metal mesh facade, which not only reduces structural load but is also easy to assemble, adapt, and reuse. Its flexibility allows us to control sunlight by day and transform the glass volume into a glowing, cloud-like lantern at night.
The original Sustainability Base relied on an external exoskeleton to achieve a column-free interior. While structurally ambitious, this approach created a heavy outer frame that visually obscured interior activity. In our redesign, we reinterpreted the skeleton system as an internal horizontal framework, redistributing loads across beams and trusses integrated into the building’s core. This structural shift enabled openspan ceilings and eliminated the need for perimeter columns, allowing the facade to be expressed primarily through large glass panels. By removing the external frame, the building becomes more transparent, showcasing its interior functions rather than concealing them—while still maintaining structural efficiency and lateral stability.
Laboratory Greenhouse
Materiality
This material strategy directly informed our design decisions, most notably the lightweight metal mesh facade, which not only reduces structural load but is also easy to assemble, adapt, and reuse. Its flexibility allows us to control sunlight by day and transform the glass volume into a glowing, cloud-like lantern at night. Complementing this, solar-integrated skylights and a reflective TPO roof improve energy performance, while dual-field dry glazed A36 steel thermal windows maximize visibility into the building’s interior, reinforcing the goal of transparency rather than enclosure. At the ground level, a polyurethane-based concrete mix with SCMs reduces embodied carbon while providing structural resilience, ensuring the building remains both durable and environmentally responsive.
Materiality Diagram
1’-0” = 3/32”
Systems
Our design treats the building itself as a working laboratory, an active demonstration of sustainable systems made visible for learning. The central tunnel doubles as circulation and exhibition space, with glass enclosures revealing the walls, ceilings, and underground infrastructure. A walkable roof integrates solar panels with access paths, while rainwater harvesting, solar energy storage, and battery storage systems are displayed as part of the architectural experience rather than hidden behind walls. The aluminum mesh facade regulates sunlight and natural ventilation, emphasizing performance through design. By exposing these systems, we position architecture as both an environmental engine and a public educator, accessible from all sides, allowing visitors to chart their own paths of discovery and directly engage with the sustainable technologies at work.
Circulation Ramp Section CC
Lab Facade at Night
(BMS)
NASA Ames Child Care Center
Systems Rooms
Water Collection Solar Energy Storage Electrical Panel/Switchgear and Energy Monitoring System
Gym + Spa Center
(健身水療中心)
Tainan City, Taiwan
AD Studio 5 - Fall 2024
Instuctor: Brian McGrath
Located in Tainan City, Taiwan, this blocklogy project aims to integrate a public co-ed gym and a private women-only spa into an urban block. Inspired by Taiwan’s fitness boom and the area’s lack of fitness facilities, the gym offers a reception area, café, locker rooms, and a top-floor weight and cardio area. The spa caters to the elite “techie wives” of Tainan’s thriving tech industry, featuring private showers, treatment rooms, saunas, and rooftop pools with panoramic views, providing a luxurious retreat for its clientele.
This project explores the redesign of the Tainan block Sweet Potato Hill, to address challenges such as climate, social inclusion, equity, and affordability through shared, adaptable architecture. The block, shaped by Tainan’s layered history—from Qing Dynasty urban forms to the Japanese colonial grid— reflects centuries of social, natural, and technological change. The redesign integrates regenerative building materials such as modern timber, salvaged materials, and bio-fabricated products while rethinking the block as a unit for mutual aid and care post-COVID. By examining the evolution of Tainan’s blocks, we developed detailed architectural solutions that transform the block into a spatial matrix of shared social, natural, and technical programs.
Site Context
Site Model- all thirteen student projects shown within block
Tainan, a key hub for Taiwan’s tech industry, has grown rapidly due to its prominence in microchip production. A guest professor from Taiwan introduced the concept of “techie wives”, a group of elite, wealthy women married to tech tycoons who often socialize selectively based on their husbands’ professional affiliations. This was an inspiration for designing the spa as a women-only luxurious retreat and social hub for a unique demographic.
Taiwan’s decade-long fitness boom has been driven by local celebrities and global brand marketing, causing gym revenues to increase 406% from 2013 to 2020. Women now lead fitness spending, outspending men on average by 80%, further inspiring decisions to create a women-focused space. Despite three nearby hotels, the area lacks fitness facilities, making the gym a valuable addition for locals and tourists.
G. Men’s Locker Room
H. Women’s Locker Room
I. Spa Resturant
J. Sky Bridge
K. Weight Room
L. Cardio Room
M. Steam Room
N. Sauna
O. Hot Tub + Cold Plunge
Cafe
Locker Room
Weight Room
Sauna
Exposed Structure
The surrounding arcades and visibility into the original vacant buildings inspired the column-frame structure. Incorporating exposed framing, the design builds on existing columns while adding new ones to support additional weight, seamlessly blending structural necessity with aesthetic intent. The design emphasizes a predominantly wooden program to showcase the columns and beams as integral visual elements. This approach reflects a common practice in the neighborhood, where newer additions are visibly distinguished by their materials, creating a layered narrative. The slanted frames further emphasize the verticality and distinct relationship between the gym and spa, while celebrating the beauty of exposed structural elements.
Pool + Plunge
Retro Ramp
Newfane, VT, USA
Personal Project - Winter 2020 Brewster Academy: Interim Studies
During senior year of high school, as the COVID-19 pandemic shut down the world, a childhood dream came to life through the design and construction of a mini ramp. Combining passions for skateboarding, design, and construction, a personal concept was transformed into a functional structure. The project required meticulous planning, including researching dimensions and sourcing materials. Construction of the ramp was done entirely by hand, balancing costs, logistics, and aesthetics
Material Quantity and Cost
With limited access to materials and aiming to reduce store trips, thorough calculations were made to determine the required materials, tools, and quantities before beginning the project.
Material Total = $589.10
Framing Construction
To ensure functionality and durability, the construction process begins with calculating the ramp’s transition radius and determining the appropriate framing spacing, followed by assembling the quarter pipes and flat bottom.
Ramp Layering
Once the framing is complete, the ramp is layered with two sheets of 3/8” plywood and a top layer of 1/4” masonite, ensuring staggered seams for even weight distribution. Each layer is attached flush against the coping using 1 5/8” screws, working from top to bottom and left to right. A challenge faced was holding the plywood in place to start the first screws, a task which would typically require assistance to force the sheet along the curve, but was managed alone. Masonite sheets are spaced 1/16” to 1/8” apart using spacers, such as pennies, to prevent warping from temperature changes. Shims were additionally added near the coping to align the masonite surface, and the screws were countersunk for a smooth finish.
Finishing Touches
The final step was painting the ramp and the surrounding walls. As someone who has never considered myself a skilled painter, the most challenging part of the project was developing design ideas for the painting. Drawing inspiration from retro patterns of the 1980s, the design features a bright, playful aesthetic that embodies the project’s sense of fun and creativity. Serving as a hangout spot for friends, the space was crafted to feel vibrant and inviting, enhancing its overall atmosphere of enjoyment and community.
Newburgh Micro-City
Newburgh, NY, United States
AD Studio 4 - Spring 2024
A project designed to tackle Newburgh’s water quality crisis by creating a sustainable, water-focused smart technology micro-city. Incorporating atmospheric water generators, greywater systems, radiant heating, rainwater collection, constructed wetlands, and water-efficient fixtures, the city promotes efficient water circulation, minimizes waste, and reduces reliance on external sources. Additionally, it serves as an educational hub, raising awareness about the water crisis and fostering community engagement.
Instuctor: Hyon Woo Scott Chung
Newburgh, has faced persistent water quality challenges, rooted in contamination of its primary water source, Washington Lake. The city’s water supply has been impacted by pollutants, such as PFAS (perand polyfluoroalkyl substances), chemicals linked to health issues and notoriously difficult to remove from water. These contaminants were traced to firefighting foam used at the nearby Stewart Air National Guard Base, highlighting the environmental risks posed by industrial and military activities. The community has since relied on temporary water sources and implemented emergency measures to address the issue. Efforts to improve water quality involve testing, remediation, and exploring sustainable alternatives. The crisis underscores the broader need for infrastructure investment, stronger environmental policies, and community engagement to ensure safe and reliable water for all residents.
Site Context
Newburgh in reference to the River
Hub of the Program
Located in the center of the site is the community hub, serving as a central resource for residents and the surrounding public. This building houses Orange County organizations dedicated to cleaning and improving water quality and quantity. It features offices, conference rooms, research labs and galleries, all aimed at restoring Newburgh’s water to its proper quality. Each floor includes public restrooms and common areas, inviting Newburgh residents to engage and learn about the sanitation process. Additionally, the hub includes a small market offering essentials to aid in emission reduction efforts in Newburgh.
In designing the micro-city, preserving the natural topography was a priority, influencing decisions on massing shapes and site usage. By considering natural water flow and strategically placing water pumps, the buildings are centralized around rainwater collection courtyards and gardens.
This layout minimizes disruption to the land and maintains accessibility for existing residential neighborhoods. Buildings are accessible via top-floor entrances on the west side, with bridges connecting each structure for easy navigation.
The design incorporates carefully planned waterways that play a crucial role in managing water flow and supporting the sustainability of the site.
These waterways are strategically integrated into the landscape to channel rainwater runoff into rainwater collection systems and constructed wetlands.
By directing water through the site, these channels help reduce flooding and create an aesthetically pleasing environment with flowing streams, small ponds, and water features that enhance the public spaces.
The integration of these waterways promotes biodiversity, supports local ecosystems, and reinforces the educational aspect of the project by demonstrating sustainable water management techniques.
Rainwater Collection
Water used in sinks, showers and dishwashers throughout the building drain to a 550-gallon greywater tank in the basement prior to treatment
Treatment involves a three-stage filtration process (Zeolite to Activated Carbon to 35um Carbon), followed by a two-stage ultra violet light disinfection process
Approximately 0.4 gallons of finished (treated) greywater is used per toilet flush throughout the building
