Hello, I am a fourth-year architecture student dedicated to designing spaces that seamlessly blend functionality and creativity. I have a particular passion for the intricate details of architectural design, especially in crafting precise and thoughtful floor plans that bring concepts to life. I believe that great architecture is not only about aesthetics but also about creating spaces that enhance the lives of those who inhabit them. With a strong focus on problem-solving and attention to detail, I am committed to contributing to innovative and impactful designs that inspire and serve diverse communities.
CONTACT
isabellarocklin@gmail.com (818) 371-5113
www.linkedin.com/in/isabellarocklin
ISABELLA ROCKLIN
EDUCATION
CAL POLY POMONA
BACHELOR OF ARCHITECTURE
2021 - 2026
TAFT CHARTER HIGH SCHOOL
HIGH SCHOOL DIPLOMA
2017 - 2021
SKILLS
SOFTWARES
- RHINOCEROS 3D
- REVIT 2024
- AUTOCAD
- TWINMOTION
- ADOBE PHOTOSHOP
- ADOBE INDESIGN
- MICROSOFT OFFICE
PHYSICAL MODELING
- LASER CUTTING
- 3D PRINTING
- MACHINE OPERATION
EXPERIENCE
ARCHITECTURE INTERN
APEX IMAGING SERVICES
2024 - PRESENT
TIMBER-STRONG DESIGN BUILD COMPETITION
PROJECT MANAGER
2024 - PRESENT
ARCHITECTURAL LEAD 2023 - PRESENT
AWARDS
INTERM DESIGN SHOWCASE
FALL 2023 - MOUNT WILSON PROJECT
SCIENTIST’S RETREAT FALL 2023
SKYBRIDGE STUDENT LIVING SPRING 2024 THE FLOATING FALL
SCHOOL OF ARCHITECTURE SPRING 2023
TIMBER-STRONG DESIGN-BUILD FALL 2023
SCIENTIST’S RETREAT
MOUNT WILSON, CALIFORNIA
As the new site for Mount Wilson’s scientists, this project aims to blend the rich history of Mount Wilson with a new building designed for leisure and comfort. The new building’s central element consists of grand domes, a symbolic nod to the site’s observatories. This is also used to denote the communal spaces inside, which feature circles in plan. The largest dome stands high above the main lobby, where visitors enter and experience the grandeur of the skylight above. The lobby features a replica of the 100-inch Hooker telescope, which stands as a testament to Mount Wilson’s scientific discovery in the 1920s. With this understanding of the history of Mount Wilson’s site, the design prioritizes the transition between the “old” and the “new.” Elevation plays a crucial role, as it offers elevated views of the neighboring mountains and maximizes natural lighting. The orientation of the building strategically aligns to capture the radiant South facing light so that every bedroom can receive daylighting. This is made possible by the sprawling skylight that runs along the top of the entire roof.
SECTION C - C’
SECTION B - B’
SECOND FLOOR PLAN
ASSEMBLIES
DETAILED SECTION AND RENDER
SKYBRIDGE STUDENT LIVING
SANTA ANA, CALIFORNIA
Located in Santa Ana, this student housing project is part of a four-apartment development, designed to serve nearby institutions like Chapman University and Santa Ana College. The concept revolves around two housing towers connected by a vibrant, glass-encased communal bridge that serves as the focal point of the design. The bridge features color-coded spaces to differentiate student lounges, computer labs, and creative studios, fostering interaction and collaboration. Its transparency allows for views into each space and extends outward with a glass box, connecting the building to the site.
The design includes an open atrium at the center of the building, where students on upper levels can look down and engage with friends below. The residential units vary in type, with spacious corner lofts offering two-story layouts that encourage socialization among roommates and visitors. The podium level integrates amenities such as a gym, game room, and convenience store, creating a dynamic and supportive environment for student life. Together, these elements create a cohesive and interactive living space, designed to bring students together in both communal and private settings.
This section through the tower reveals the layout of the student lounge spaces and provides insight into the interior flow and interaction. The student lounges are designed to be open and inviting, with ample space for social gatherings and collaborative work. Each lounge has large windows that allow for natural light, creating a comfortable and energizing environment. The design prioritizes the connection between students, ensuring that the spaces encourage interaction and a sense of community.
The elevation highlights the building’s external materiality and visual hierarchy. The varying shades of gray used on the tower’s facade frame the more vibrant communal bridge, ensuring that the structure complements rather than competes with the focal point. The protruding elements are distinguished by these gradations of gray, while the bottom section features a brickbrown tone that ties in with the railings of the units, creating cohesion between the architectural elements. Large windows are strategically placed to maximize air flow, enhancing the building’s sustainability and student comfort.
SECTION 1
SOUTHWEST ELEVATION
STUDIO FLOOR PLAN (ADA) - TYPE A
LOFT FLOOR PLAN - LEVEL ONE
STUDIO FLOOR PLAN - TYPE B
2 BED, 2 BATH FLOOR PLAN -TYPE C
INTERIOR RENDER OF LOFT
THE FLOATING FUTURE
HONOLULU, HAWAII
This project, a collaborative effort with Jaquelyn Rosenbrock, explores a futuristic and modular design language, inspired by a skeletal aesthetic that embodies a post-apocalyptic world where adaptability and sustainability are essential for survival. The design utilizes 6’ precast concrete modules, which serve as both a structural element and a design feature. The panels are thoughtfully varied in shape and opacity depending on the privacy required by each space. For example, bathroom panels feature recessed openings for controlled light and privacy, while the living room panels are large and open, allowing seamless interaction with the environment and panoramic views of the surrounding water.
The central design concept is informed by a circular grid, which divides the space into functional, harmonious zones. The skeletal, modular design of the units ensures that this structure can evolve over time, adapting to new environmental and social challenges. This forward-thinking approach to architecture envisions a sustainable, efficient, and flexible way of living on water, where the form of the building and its materials align with the changing needs of its residents. The design creates a space that celebrates both functionality and aesthetic appeal, ensuring that each unit is a part of a resilient and unified community.
TRAFFIC DIAGRAM
TSUNAMI EVACUATION ZONE
WATER DEPTH DIAGRAM
SITE AXONOMETRIC
Created by Jaquelyn Rosenbrock
This floating community development, located near Neal S. Blaisdell Park in Honolulu, Hawaii, responds to rising sea levels and housing shortages through water-based living. It consists of 120 residential units arranged in a phased grid system, with five clusters of 24 units each, allowing for gradual expansion over time. The islands integrate stone pathways, dirt surfaces, and grass patches that meander around the units.
In the smallest unit (Unit A), the layout prioritizes space efficiency without sacrificing comfort, featuring a conversation pit to promote communal interaction. This design choice fosters intimacy and maximizes the unit’s limited square footage. Unit C, the largest unit, introduces a double-height living room and central courtyard, emphasizing openness and grandeur. The triangular grid structure allows for distinct zones while creating dynamic visual experiences.
UNIT A FLOOR PLAN
C SECTION
UNIT
UNIT B SECTION
VIGNETTE
Created by Jaquelyn Rosenbrock
SCHOOL OF ARCHITECTURE
DOWNTOWN POMONA, CALIFORNIA
Standing tall in Downtown Pomona, this new building aspires to serve as a vibrant focal point and foster a sense of community through its communal spaces on its plinth. The intent of the project is to invite community members to engage with each other by meandering throughout the site, exploring different program along the way. The curving paths, thoughtfully designed as accessible ramps, guide visitors to different levels of the site. These paths allow movement but also converge at the main vertical core and lobby. This vertical core can also bring users up to the towering structure, which is a space for architecture students to explore and innovate. The implementation of curving ramps, inspired from the conceptual process, introduces circular geometry to aid in the design of meandering pathways. Intersecting circles create a connection between spaces, uniting spaces such as the courtyard area or administrative spaces. The tower also utilizes the conceptual process’s geometry to provide multiple balcony spaces and contribute to the overall harmony of the structure. In essence, this architectural piece integrates form and function to create a space for community engagement.
TOWER CHUNK
CONCEPTUAL PROCESS
TWELFTH FLOOR PLAN
GROUND FLOOR PLAN
EXTERIOR RENDER
UNROLLED FACADE
TIMBER-STRONG DESIGN BUILD
POMONA, CALIFORNIA
Timber-Strong Design Build is an annual competition that challenges teams to design, model, and construct a two-story, light wood-framed shed. This multidisciplinary effort brings together architects, civil engineers, and construction teams to collaboratively create a unique and innovative design.
The 2024 shed design proudly represents Cal Poly Pomona’s identity and heritage. Its dark emerald green facade honors the university’s colors and displays its name on the front. Protruding wooden window frames with X-shaped accents create a barn-inspired aesthetic, reflecting the campus’s agricultural roots. The roof features two sloped panels that meet to create a distinctive architectural element and visual appeal. A strategically placed window on the panel allows natural light to fill the space. This design balances functionality and creativity, adhering to Timber-Strong’s regulations while showcasing unique architectural elements that celebrate Cal Poly Pomona’s legacy.
