Wei-Chieh Wang - Portfolio

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WEI-CHIEH WANG

PORTFOLIO

Architectural Designer

WORK EXPERIENCE

Gianni Ranaulo Design

Project Designer

https://linkedin.com/in/arch-wangweichieh (626) 383-9145

Los Angeles, CA 90005

09/2023 - Present

Los Angeles, CA

• Binhai Bay Outlet (SD to DD) Dongguan, China | 1.16 Million sqft | Super Regional Shopping Center

• Managed the five-story main shopping mall (788,700 sqft), including interior design and landscape

• Provided parametric optimization and solutions for complex geometry, such as canopy and skylight

• Contributed to the design development documents, including floor plans, wall sections, and details

• Communicated conceptual ideas with the design principal through sketches, drawings, and models

• Apartments on Spring St (SD) Los Angeles, CA | 165 Residential Units | Low-rise Apartments

• Programmed spaces by type and area based on functional requirements and the client’s needs

• Determined building envelope configuration and circulations to comply with planning guidelines

• Performed research on building codes and regulations to ensure compliance

• Toulon Shopping Center (Pre-design) Toulon, France | 893,100 sqft | Commercial and Office

• Conducted space planning and block planning of a 594,200 sqft retail area

• Leveraged conceptual modeling and rendering for a 298,900 sqft office design

MHC Architects

Project Designer

• NTU Sky Bridge (SD to CA) Taipei, Taiwan | 1,250 sqft | Campus Sky Bridge

03/2019 - 06/2021

Taipei, Taiwan

• Conducted regular site visits and wrote field reports in the Construction Administration phase, ensuring compliance with design intent specifications and identifying potential issues early

• Assessed contractor’s proposals for material and product substitutions to ensure design compatibility

• Developed comprehensive implementation plans, cost estimation, project schedules, and detailed progress reports to ensure timely delivery and project efficiency

• Assisted in the production of all phases of architectural documents and specifications

• Long-Ci Community Center (SD to CD) Taoyuan, Taiwan | 19,950 sqft | Community Hall

• Managed the development and implementation of BIM protocols and standards across team members

• Led sustainability team to develop monthly client presentations to target EEWH Silver certification

• Coordinate with clients and public agencies weekly, utilizing verbal communication skills and graphic presentations to ensure project requirements were clearly understood and met

• Evaluated building construction systems, means and methods, and materials to ensure the project stayed within constrained project budget requirements

EDUCATION

Southern California Institute of Architecture

Master of Architecture

Tamkang University

Bachelor of Architecture

SKILLS

09/2021 - 09/2023

Los Angeles, CA

09/2012 - 06/2017

Taipei, Taiwan

• Revit, AutoCAD, Rhino, Grasshopper, SketchUp, Enscape, V-Ray, Abobe Creative Suite, Microsoft Office Suite

ADDITIONAL INFORMATION

• Languages: English, Mandarin

• Certifications: LEED Green Associate (Credential ID: 11548981-GREEN-ASSOCIATE)

WEI-CHIEH WANG wangweichieh821024@gmail.com
WEI-CHIEH WANG wangweichieh821024@gmail.com Architectural Designer https://www.linkedin.com/in/arch-wangweichieh/ (626) 383-9145 Los Angeles, CA PROFESSIONAL PROJECTS Binhai Bay Outlet 01 Gianni Ranaulo Design | Project Designer Apartments on Spring St 09 Gianni Ranaulo Design | Project Designer NTU Skybridge 15 MHC Architects | Project Designer Long-Ci Community Center 21 MHC Architects | Project Designer ACADEMIC PROJECTS Shopping Universe 27 SCI-Arc | Graduate Thesis Design Mycelium 35 SCI-Arc | Vertical Studio Fuzzy Contunity 41 SCI-Arc | Design Studio Transfigured Opus 47 SCI-Arc | Advanced Material and Tectonics Mixed-used Folly 53 SCI-Arc | Revit Folly Scoria 55 SCI-Arc | CATIA and Intelligent Digital Systems Tectonics of Fluidity 59 Tamkang University | Undergraduate Thesis Design

BINHAI BAY OUTLET

PROFESSIONAL PROJECT

PROJECT INFORMATION

Architect: Gianni Ranaulo Design

Type: Shopping Mall (1,156,500 SF)

Location: Dongguan, China

ROLE Project Designer (Involved in SD and DD)

RESPONSIBILITIES

• Parametric Optimization

• Concept Rendering

• Facade Design

• Technical Drawings

• Consultation Coordination

ROLE ON PROJECT

Gianni Ranaulo Design proposed a shopping mall comprising three distinct areas: “Ring,” “Cluster,” and “Mall,” which together foster a new luxury lifestyle and shopping experience. I joined the project at the latter stage of the SD phase, primarily focusing on developing the five-story “Mall” section, encompassing 788,700 square feet, through to the DD phase. My role involved close collaboration with the LDI to adjust plans and elevations in compliance with building codes, which required meticulously examining structural and mechanical drawings to detail tectonic connections accurately. I also developed scripts to modularize and planarize the curved elements into a feasible design, such as the curtain wall and skylight. Additionally, I proposed several shading canopies at the outdoor junctions to enhance the overall architectural design.

PROGRAMS USED

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Revit, Rhinoceros, Grasshopper, AutoCAD, Enscape
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I created part of the 3D model, with renderings by Blue Ice Rendering.
3 A mall main entry rendering I generated using Enscape.
Ground Floor Plan: I assisted in adjusting the “Mall” building floor plans (green) with LDI.
4 A mall interior lobby rendering I generated using Enscape.
Second Floor Plan: I assisted in adjusting the “Mall” building floor plans (green) with LDI.
5 170.2 cm 318.5 cm D 147.2 cm 272.6 cm C 124.2 cm 226.7 cm B 180.8 cm A 101.2 cm 193.1 cm 364.4 cm E 216.1 cm 410.3 cm F 190.0 cm 250.0 cm G
I proposed a canopy of solar panels on the parking floor to reach the sustainable goal. I modularized and planarized solar panels on a free-form surface using Grasshopper to cut costs.

I designed multicolored cable canopies to provide shade and enhance the landscape.

I developed a Grasshopper script to iterate the design concept.

6 Iteration 1 N = 6 Height = 5 to 6m Radius = 3.5 to 6.6m Iteration 4 N = 12 Height = 8 to 10m Radius = 5.1 to 7.3m Iteration 3 N = 10 Height = 7 to 8.7m Radius = 5.1 to 8.7m Iteration 2 N = 8 Height = 6 to 7.3m Radius = 4.3 to 8.5m
7 1 Planter Type: 3*2 m 2 Flat Type: 3*2m / Top Panel 3 Flat Type: 3*2m / Bottom Panel 4 Flat Type: 2*2m / Top Panel 5 Flat Type: 2*2m / Bottom Panel 6 Curved Type: 3*2m / Top Panel / Side Stone Panel 7 Curved Type: 3*2m / Top Panel / Side MEP Louver 8 Curved Type: 3*2m / Bottom Panel / Side Stone Panel 9 Curved Type: 3*2m / Bottom Panel / Side MEP Louver The custom”Scallp Wall” family with multiple types I developed in Revit to streamline the “Ring“ facade configuration.
“Ring“
8 3.1 3.2 3.3 3.4 3.5 3.6 3.7 3.8 3.9 3.10 3.11 3.12 3.13 3.14 3.15 3.16 3.17 3.18 3.19 3.20 3.21 3.22 3.23 3.24 3.25 3.26 3.27 3.28 3.29 3.30 3.31 3.32 3.33 3.34 3.35 3.36 3.37
The unrolled elevations of
I created in Revit.
“Cluster”
“Cluster“

APARTMENTS ON SPRING ST

PROFESSIONAL PROJECT

PROJECT INFORMATION

Architect: Gianni Ranaulo Design

Type: Low-rise Apartments (165 Units)

Location: Los Angeles, CA

ROLE

Project Designer (Involved in SD)

RESPONSIBILITIES

• Massing Study

• Space Planning and Programming

• Facade Design

• Concept Rendering

• Circulation Analysis

ROLE ON PROJECT

Situated in Los Angeles’ Chinatown, this apartment complex serves as a tranquil retreat, offering residents a peaceful living environment far removed from the city’s daily commotion. I was involved in the project from the pre-design phase, beginning with a massing study and transitioning to various unit types’ designs. My role in this project included space planning and programming tailored to the client’s requirements. Concurrently, I crafted a coherent circulation system to efficiently organize the movement of tenants and vehicles across different spaces. After finalizing the spatial layout, I proposed designs for the internal facade and courtyard. Additionally, I contributed to design decisions and assisted in producing presentation materials for client meetings, including site analysis, plans, sections, elevations, area matrices, and renderings.

PROGRAMS USED

Rhinoceros, AutoCAD, Enscape

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I assisted in the design proposal by conducting massing study, space planning, modeling, and Enscape renderings.

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1 BR 2 BR 3 BR Floor plans with unit types I developed under supervision of the PA.
12 L1 L2 Car parking layout and circulation I designed per the Los Angeles Municipal Code.
Aerial View
13 1 BR*103 (83,031sqft) 2 BR*13 (15,764 sqft) 3 BR*10 (15,519 sqft) Store*17 (20,087 sqft) Lobby (5,328 sqft) Amenity (2,327 sqft) Pool (684 sqft) Corridor (27,055 sqft) Balcony Vertical Circulation (7,410 sqft) Green (16,622 sqft) Pavement (26,252 sqft) Driveway Parking Space Solar Panels (14,726 sqft) Total Project Area: 234,805 sqft L1 L2 L3 L4 L5 L6 RF Area matrix I produced for the client presentation.
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I proposed the internal facade and courtyard design.

NTU SKYBRIDGE

PROFESSIONAL PROJECT

PROJECT INFORMATION

Architect: MHC Architects

Type: Institutional - University (1,250 SF)

Location: Taipei, Taiwan

ROLE

Project Designer (Involved in SD, DD, CD, Bidding, CA)

RESPONSIBILITIES

• Parametric Optimization

• Sustainable Strategies

• Detail Development and Specifications

• Client and Consultation Coordination

• Permit Set and Construction Documents

• Cost Estimation

• Site Observation

ROLE ON PROJECT

The skybridge connected the north and south halls of the Department of Psychology at National Taiwan University. I was the only designer working on this project. Therefore, I gained comprehensive exposure to all design phases, rapidly acquiring knowledge of the relevant codes and regulations. Collaborating closely with the principal, I helped transform the project into a feasible proposal. My efforts were focused on enriching the design’s character and tectonic expression to complement the historic campus. Specifically, I scripted the free-form shell, managed the detailed design, conducted area analyses, wrote specifications, estimated construction costs, prepared the permit set and construction documents, and performed site observations.

PROGRAMS USED

Rhinoceros, Grasshopper, AutoCAD

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Photograph of the completed skybridge by me.

Elevations of beam I generated using Grasshopper to communicate with manufacturers.

17 A A B 1 2 3 4 B 5 C A A’ Geometric Center
Existing Building Department of Psychology (North Hall)
45 46 47 48 49 50 51 52 53 54 55 56 57 58 59 60 61 62 63 64 Second Floor Plan
Existing Building Department of Psychology (South Hall)
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Photographs of the completed skybridge by me. Photograph of the walkway by me.

Section I developed for the permit set.

I developed the details in close coordination with structural engineers and MEP consultants.

19 1 2 3 4 5 6 7 8 Roof Level +746.5 cm 2nd Floor Level +395 to +434 cm Ground Level ±0 cm 1 H Beam 250 x 250 x 9 x 14 mm 2 15mm Steel Plate 3 Φ141.3 mm Horizontal Steel Tube 4 Φ219.3 mm Inclined Steel Tube 5 H Beam 400 x 200 x 8 x 13 mm + 8 mm Plate x 2 6 Φ355.6 mm Steel Tube Column 7 Skylight Component 8 6 mm Fiber Cement Ceiling Panel 1 15 mm Steel Plate 2 M12 Bolt 3 15 mm Galvanized Steel Plate 4 5 mm Steel Joint Plate 5 5 mm Steel L Profile 6 M8 x 50 mm Hexagon Head Bolt 7 6+6 mm Laminated Glass 8 5 mm Steel T Profile 9 3 mm Stainless Steel Gutter 10 LED Linear Lighting 6 7 8 9 10 5 1 2 3 4

I performed site observation on a weekly basis.

I wrote field report during site observation. I participated in mock-up testing and review in the CA phase.

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LONG-CI COMMUNITY CENTER

PROFESSIONAL PROJECT

PROJECT INFORMATION

Architect: MHC Architects

Type: Institutional - Community (19,950 SF)

Location: Taoyuan, Taiwan

ROLE

Project Designer (Involved in SD, DD, CD)

RESPONSIBILITIES

• BIM Management

• Sustainable Strategies

• Permit Set

• Construction Drawings

• Consultation and Client Coordination

ROLE ON PROJECT

The design goal for the community center was to create a signature public space where citizens could exercise. I joined the project during the pre-design phase to manage the Revit model through to the CD phase. With only myself and a project architect unfamiliar with Revit on this project, I assumed responsibility for documentation and integrating design strategies using Revit. This BIM integration required coordinating with the structural engineer and curtainwall manufacturer to accurately detail the relationships between each sloping roof and curtain wall. To attain EEWH Silver certification, I proposed sustainable strategies focusing on energy efficiency and material selection. For instance, I utilized the roof to exhaust heat to improve climate control. Additionally, I contributed to design decisions and presented our progress in client meetings.

PROGRAMS USED

Revit, AutoCAD, Lumion

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Conceptual renderings I created using Lumion.

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23 1 2 16 5 6 9 8 11 12 13 14 15 7 10 4 3 A’ A 1 Multi-Sport Court 2 Front Desk 3 Stage 4 VIP Lounge 5 Conference Room 6 Table Tennis Room 7 Telecom Room 8 Lactation Room 9 Men’s Restroom 10 Women’s Restroom 11 Accessible Restroom 12 Electrical Room 13 Generator Room 14 Fire Pump Room 15 AHU Room 16 Parking Lot Site Plan
24 8 42 Muiti-sport Court 6 69 78 m Table Tennis Room 37 32 m Conference Room Stage 6 0 VIP Lounge 0 4 m 9.27 m2 Nursing Room 30 6 m Women's Restroom Men's Restroom 4 84 m Generator Room 0 40 Pump 5 93 Electrical Room 7 Accessible Restroom 3 07 Telecom Room 08 m Shaft 2 68 m Shaft 3 1 Storage 48 49 m Lobby 60 m Circulation Public Space 44 0 Circulation Cycling Studio 2 5 m Men’s Restroom 2 29 m Women’s Restrrom 5 88 m Storage 2 66 m Storage 77 Shaft 管道間 2 Level 2 Area Calculation 5.15 m2 410.38 m2 1771.42 m2 144.01 m2 8.54 m2 Shaft Level 2 Total Circulation Storage Level 2 84.81 m2 142.82 m2 12.75 m2 12.29 m2 Aerobics Studio Cycling Studio Men’s Restroom Women’s Restroom 1 Level 1 Area Calculation 14.84 m2 10.40 m2 3.76 m2 1361.04 m2 Generator Room 3.07 m2 Telecom Room 15.93 m2 Electrical Room Fire Pump Room Shaft Level 1 123.70 m2 3.11 m2 30.14 m2 30.61 m2 9.27 m2 7.11 m2 Circulation 48.49 m2 Lobby Storage Men’s Restrrom Women’s Restroom Nursing Room Accessible Restroom Level 1 Multi-sport Court 758 42 m2 52.33 m2 16.01 m2 26.74 m2 37.32 m2 169.78 m2 Stage VIP Lounge Front Desk Conference Room Table Tennis Room West Elevation 4 3 1 5 6 7 8 9 10 11 12 13 14 15 16 17 2 Roof Level +890 cm Roof Level +480 cm Ground Level +0 cm 4 3 1 5 6 7 8 9 10 11 12 13 14 15 16 17 2 Roof Level +890 cm Roof Level +480 cm Ground Level +0 cm Room tags and area schudeules I generated in Revit. East Elevation
25 Model View of Multi-sport Court in Revit
26 Roof Level +820 cm 2nd Floor Level +480 cm Ground Level ±0 cm Foundation Level -180 cm Multi-Sport Court Table Tennis Room Gym Detail A Detail B 8 11 12 13 10 9 2 1 3 4 5 7 6 1 Z-Furring Channel 2 Galvanized Flashing 3 0.568mm ZAM Coated Steel + 1.5 mm Waterproof Non-Woven Fabric + 1 mm Galvanized Steel 4 50 mm Rock Wool Blanket 5 0.4 mm Corrugated Steel Sheet 6 Reinforced Concrete Beam 7 Structural Metal C Stud 150 mm x 65 mm x 0.3 mm 8 ZAM Steel Composite Panel 9 Hollow Steel Section 10 28 mm Insulating Glass Units 11 Hat Channel 12 25 mm Wood Wool Cement Board 13 Structural Metal C Stud 150 mm x 65 mm x 0.3 mm Sloped roof and wall details I developed in close collaboration with manufacturers and structural engineers. Section

SHOPPING UNIVERSE

ACADEMIC PROJECT

PROJECT INFORMATION

Graduate Thesis Design, SCI-Arc, 2023

Type: Shopping Mall

Instructor: Elena Manferdini

Partner: Meng-Jung Ho

DESIGN CONCEPT

We investigated the intricate relationship between consumption and manufacturing, illuminated by globalization. The concealed transportation process behind consumption revealed that most consumers are unaware of a product’s entire lifecycle at the point of purchase. This consumption pattern led to an oversight of the pollution and waste generated throughout the complex manufacturing and transportation chain.

In light of the mall’s contribution to significant waste, we recognized the need to scrutinize the spectacle of consumerism. Hence, our shopping center design integrated three fundamental elements: the production space, the commercial space, and the third place. These areas were seamlessly blended with a pivotal concept: a community-based recycling system, fostering a dynamic and symbiotic environment.

By unveiling the lifecycle of products, our shopping mall design championed environmentally responsible building practices. It introduced a circular production chain that encouraged a symbiotic relationship between production and consumption, aiming for sustainability.

PROGRAMS USED

Rhinoceros, Grasshopper, AutoCAD, Unreal Engine

27

We generated the rendering in Unreal Engine to visualize the design concept.

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Circulation

After people drop off their unwanted waste on-site, the waste is then sorted in the material recovery facility. Automated circulation redistributes the sorted waste to different reprocessing facilities over the roof. After reprocessing into ready-to-use materials, these raw materials are available for designers to use.

29 1 3 4 2 6 7 5 1 Material Recovery Facility 2 Textile Reprocessing Facility 3 Paper Reprocessing Facility 4 Glass Reprocessing Facility 5 Plastic Reprocessing Facility 6 Industrial Space 7 Storage Facilities and Circulation
30 3 4 6 7 8 5 1 2 9 1 Feeder and Hopper 2 Pre-Sorting Station 3 OCC Screen and Glass Breaker Screen 4 ONP Screen 5 Finishing Screen 6 Optical Plastic Sorting Machine 7 Magnetic Separator 8 Eddy Current Spearator 9 Baler Material Recovery Facility 1 2 3 4 5 6 7 1 Sorting Station 2 Washing Machine 3 Shredder 4 Yarn Winding Machine 5 Weaving Machine 6 Sewing Machine 7 Circular Knitting Machine Textile Reprocessing Facility 3 2 4 1 5 1 Industrial Space 2 Storage for Sorted Raw Material 3 Storage for Reprocessed Material 4 Conveyor 5 Moving Walkway Industrial Space and Storage 1 2 3 1 Pulping Machine 2 De-Inking Machine 3 Paper Milling Machine Paper Reprocessing Facility 1 2 3 1 Washing Machine 2 Melting Machine 3 Storage Glass Reprocessing Facility 1 2 3 4 5 1 Washing Machine 2 Shredder 3 Drying Machine 4 Melting Machine 5 Extruder Plastic Reprocessing Facility
31 N N
32 Roof Plan Ground Floor Plan
33 Vertical circulation for recycled materials.
A close-up rendering demonstrated the intertwined circulations between industrial and commercial spaces.
34 Moving belt and skywalk

MYCELIUM

ACADEMIC PROJECT

PROJECT INFORMATION

Vertical Studio, SCI-Arc, 2022

Type: Biotech Research Center

Instructor: Elena Manferdini

Partner: Meng-Jung Ho

DESIGN CONCEPT

Climate change, health crises, scarcity or excess of resources, luxury and poverty, technology and inventions—all reinforced our understanding that humans are integral parts of a relational ecosystem, which includes other beings, biospheres, and environments. In our once globalized and hyper-connected world, we were increasingly exposed to complex phenomena and an expanded network of representation. To comprehend and address these challenges, we realized that managing large quantities and qualities of data was essential. Without data, we were unable to understand the world we lived in.

Our project engaged in a comprehensive building type while posing some foundational disciplinary questions: What was the form of contemporary participation in the construction of scientific knowledge? How could architecture provide a space where expanded agency could be effective? How could we design architecture that facilitated a network of stakeholders and allowed them to collaborate effectively? Could architecture promote awareness and active communication regarding technological investments? Specifically, could a BIOTECH facility act more like a parliament of negotiations, rather than just a lobby for a shared workplace?

PROGRAMS USED

Rhinoceros, Grasshopper, AutoCAD, Unreal Engine

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We generated the rendering in Unreal Engine to visualize the design concept.

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Design Approach: A.I. GAN Training

The concept of the project originated from A.I. GAN training. We trained a GAN using images of fungi and flowers that aligned with the specific scientific purposes of the building. The images of environments were produced by mistraining the GAN to create unexpected environments, or unexpected versions of expected environments.

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39 1 1 4 3 3 4 3 3 5 5 2 6 9 8 7 10 11 11 13 12 12 1 Wet Lab 2 Dry Lab 3 Storage 4 Disposal Room 5 Freezer Room 6 Lounge 7 Men’s Restroom 8 Women’s Restroom 9 Handicapped Restroom 10 Balcony 11 Large Fungi Farm 12 Small Fungi Farm 13 Vertical Ecological Core 14 Exhibition Space 3rd Floor Plan 10 1 1 4 3 3 4 3 3 5 5 2 6 9 7 1 1 4 3 3 4 3 3 5 5 2 6 9 8 7 10 10 1 1 4 3 3 4 3 3 5 5 2 6 9 7 8 8 14 14 14 14

Experimental Fungi Farm

Based on experimentation and the orientation of research, the labs aimed to provide a unique experience for preparing the emergent Martian exploration. Therefore, the labs were designed to be open, flexible, automated, connected, and collaborative spaces. The futuristic labs were also part of the creation and maintenance of fungi that cultivated and took care of different species

Cuboid Fractal

The geometric strategy of the facade was a cuboid fractal, where the surfaces constituted an ecological life. Mushrooms grew on the platforms and were collected by drones. The variation of color and metallic texture throughout the building reclaimed a bright characteristic as an essential identity for the labs, emphasizing the colorful and unique fungi.

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FUZZY CONTUNITY

ACADEMIC PROJECT

PROJECT INFORMATION

Design Studio, SCI-Arc, 2021

Type: Elementary School

Instructor: Soomeen Hahm

Partner: Wei-Hung Chen

DESIGN CONCEPT

The core objective was to provide children with dynamic and inspiring places to explore and unleash their creativity. In this project, students were encouraged to take an active role in shaping their own educational experiences, defining the ways they played and the knowledge they acquired. By challenging elementary architectural principles, this initiative sought to break free from the structural norms that had governed the design of conventional buildings.

Through the incorporation of non-linear design processes and a deliberate embrace of fragmentation, this project manifested a captivating form of controlled chaos. This chaos gave rise to a sense of fuzzy continuity, encompassing two distinct meanings. Firstly, it abolished the specific boundaries separating interior classrooms from exterior playgrounds within the school premises. Secondly, continuity underscored the concept of sequential spaces, prioritizing the interconnectedness of different areas over their segregation. By interweaving indoor classrooms with outdoor playgrounds, this design allowed students to effortlessly transition between learning and play, seamlessly blending these activities into a cohesive and immersive experience.

PROGRAMS USED

Rhinoceros, Grasshopper, Cinema 4D, Octane

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A top view rendering we produced in Cinema 4D and Octane.

Design Approach: Furniture

This project began with furniture design that encouraged children to occupy the spaces with more freedom. The chairs were not meant to limit educational activities. Instead, the functions of the chairs were defined by the children themselves. The unlimited possibilities implied a sense of breaking the norm of traditional furniture. In other words, the chairs allowed students to occupy the classrooms with different postures, thereby stimulating more activities.

Blurred Boundary

As an extension of the furniture concept, the cluster of buildings was designed to maintain a continuous and fluid relationship between the surrounding landscape and the interior spaces. Blurred boundaries facilitated smooth transitions for various educational events within the learning environment.

Formations such as undulations, bifurcations, creases, inflections, aggregation, and fragmentation transformed the playground surfaces and exterior canopies into an architectural landscape. These elements guided and directed children through different levels of the interior spaces.

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Continuous Circulation

This project defied conventional architectural principles, pioneering a transformative approach to educational spaces. It challenged the notion of compartmentalized environments, encouraging freedom and flexibility in student movement. The dynamic and harmonious design fostered organic exploration and empowered students to discover their passions

Learning Environment

By nurturing imagination, innovation, and collaboration, this visionary architectural endeavor aspired to create an educational setting that not only facilitated the acquisition of knowledge but also ignited a lifelong love for learning. It propelled young minds to surpass perceived limits and reach unprecedented heights of intellectual and creative achievement.

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TRANSFIGURED OPUS

ACADEMIC PROJECT

PROJECT INFORMATION

Advanced Material and Tectonics, SCI-Arc, 2021

Instructor: Randy Jefferson, Dwayne Oyler

Partner: Freeland Livingston, Meng-Jung Ho, Wei-Hung Chen

DESIGN CONCEPT

Tectonics in architecture, blending the science and art of construction, is essential for understanding and shaping the design of complex building envelopes in contemporary architecture. Our project took a deep dive into the Opus by Zaha Hadid Architects, analyzing and documenting the sophisticated tectonics of its subsystems to uncover the nuances of structural and aesthetic design. This exploration provided the foundation for our reinterpretation of these tectonic elements within the Uppsala Concert and Congress Hall by Henning Larsen Architects, integrating technical expertise with an appreciation of the cultural dimensions of facade design.

Our approach expanded the scope of tectonics beyond mere construction techniques, encompassing materials, methods, sequences, and tolerances while embracing architectural expression through geometry and technique. This comprehensive perspective aimed to create a nuanced understanding of tectonics and highlight its role in both the functional and expressive realms of architectural design.

PROGRAMS USED

Rhinoceros, Grasshopper, AutoCAD

47 A1

A view of the 3D chunk model to showcase how we blended the two projects together in terms of tectonics.

48 Primary Structure A2 A4 + Alucobond System A5 A3 + Glazing System A4 A2 + Substructure A3
49 1 Horizontal Mullion 2 Vertical Mullion 3 Thermal Insulation 4 28mm Flat Insulating Glass Units with Patterned Coated Surface 5 Thermal Insulation 6 Gutter 7 LED Luminaire 8 Silicone Foam Warm Edge Spacer 9 Structural Silicone 10 Drainage Conduit Cassette 11 Drainage Conduit 12 Steel Tube 13 Fixed Bracket 14 Hollow Steel Section 15 28mm Freeform Cold Bending Glass Units with Low-E Coating 16 Prefabricated Unitized Frame 17 4mm Alucobond ACM Panel 18 Prefabricated Unitized Frame 19 Hollow Steel Section 20 Weep and Ba e 21 7.5mm Exterior Sheathing 22 Weather Barrier 23 85mm Mineral Wool Insulation 24 Steel Tube (Beyond) 25 Aluminum Cap 26 Floor Transform 27 Smoke Sealant 28 Fixed Support 29 28mm Flat Insulating Glass Units with Patterned Coated Surface 30 Firespan Spandrel Insulation 1 Roof Transform 2 28mm Flat Insulating Glass Units with Patterned Coated Surface 3 Vertical Mullion 4 Floor Transform 5 28mm Freeform Cold Bending Glass Units with Low-E Coating 6 4mm Alucobond ACM Panel with Patterned Coated Surface 7 Steel Tube 8 Spandrel Hollow Steel Section 9 Primary Hollow Steel Section 10 Tapered Steal Beam 11 Roller Blind 1 4 3 11 2 7 6 8 Wall Section Details 18 19 16 20 22 21 5 17 15 24 23 9 10
50 2 3 C4 C3 C2 4 5 1 1 Roof Transform 2 6mm Alucobond ACM Panel 3 28mm Freeform Cold Bending 4 Glass Units with Low-E Coating Prefabricated Unitized Frame 5 Steel Tube Substructure 1 2 3 4 5 6 7 8 C1 1 6mm Alucobond ACM Panel 2 Thermal Insulation 3 Roof Transform 4 6mm Alucobond ACM Panel (Flat) 5 Metal Floor Decking 6 28mm Flat Insulating Glass Units with Patterned Coated Surface 7 Bracing 8 Floor Transform 1 2 26 27 30 29 3 4 8 7 9 11 12 13 14 28 10 25 6 5 B2 B1
51 1 2 3 4 5 6 7 8 9 10 1 2 3 4 5 6 7 1 9 10 2 3 4 5 6 7 8 C1 C2 C3 1 2 3 4 5 6 7 1 50mm Finished Floor 2 6mm Alucobond ACM Panel 3 100mm Steel Joist 4 Aluminum Cap 5 Metal Floor Decking 6 Smoke Sealant 7 Safing Insulation 8 28mm Flat Insulating Glass Units with Patterned Coated Surface 9 Vertical Mullion 10 FireSpan Spandrel Insulation 1 6mm Alucobond ACM Panel 2 Gutter 3 28mm Flat Insulating Glass Units with Patterned Coated Surface 4 Prefabricated Unitized 5 Mineral Wool Insulation 6 Steel Tube Substructure 7 Fix Bracket 1 28mm Freeform Cold Bending Glass Units with Low-E Coating 2 6mm Alucobond ACM Panel 3 Prefabricated Unitized Frame 4 Mineral Wool Insulation 5 Steel Tube Substructure 6 Fixed Bracket 7 Steel Hollow Section 1 6mm Alucobond ACM Panel 2 7.5mm Exterior Sheating Gypsum Board 3 Mineral Wool Insulation 4 Prefabricate Unitilized Frame 5 Steel Tube Substructure (Parrellel to Floor Slab) 6 Steel Tube Substructure (Parrellel to Roof Division) 7 Mineral Wool Insulation 8 C Stud Metal Frame 9 16mm Fire Rated Gypsum Board 10 200mm Metal Floor Decking

Pattern on the Elevation

The coated pattern consists of mirror-like dots of various diameters. The highly reflective strip pattern creates a pulsating e ect on the facade and provides the best performance in the hot climate.

Back-drained Cassette System

The skylight and so t areas are built with a back-drained cassette system with a carrier frame to enhance shape control and o er protection of the edges during handling.

52 1 2 3 4 5 6 7 8 9 10 11 10 1 85mm Mineral Wool Insulation 2 7.5mm Exterior Sheating 3 6mm Alucobond ACM Panel 4 Aluminum Cap 5 Finish Floor 6 C Stud Metal Frame 7 Smoke Sealant 8 Floor Transform 9 Safing Insulation 10 FireSpan Spandrel Insulation 11 28mm Flat Insulating Glass Units with Patterned Coated Surface 1 28mm Freeform Cold Bending Glass Units with Low-E Coating 2 6mm Alucobond ACM Panel 3 Flashing 4 Gutter 5 Aluminum Extrusion 6 C Stud Metal Frame 7 Mineral Wool Insulation 8 Prefabricated Unitized Frame 9 Drainage Conduit Cassette 10 Insulation Sheating 11 Steel Tube Substructure D1 Unitized Frame Insulation Substructure Insulation Substructure Section 1 Glazing Unit 2 Precast Metal Tube for Cabling Route 3 LED Luminaire Dimensions 8mm (H) 100mm (L) 20mm (D) 4 Single Fixing Bracket Mounted to IGU Luminaire Mounting Detail 1 2 3 4

MIXED-USE FOLLY

ACADEMIC PROJECT

PROJECT INFORMATION

Revit Folly, SCI-Arc, 2023

Type: Hotel

Instructor: Andrea Cadioli

Partner: Diba Ghazia, Jessie Ho, Wendy Chen

DESIGN CONCEPT

We explored Revit with Veras (an AI-powered visualization add-in for Revit) in this project. We embarked on a journey to envision a future where buildings coexist harmoniously with green spaces. The project encompasses four hotel levels, and we integrated eight sturdy columns into the design that serve a dual purpose, providing both functionality and enhancing the aesthetic appeal of the interiors. Additionally, our design incorporates multiple garden spaces within the tower, achieving a balance between solid and void spaces, fostering an environment where nature seamlessly blends with the built environment.

PROGRAMS USED

Revit, Enscape, Veras

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Exploded IsometricDiagram Veras Rendering
54 Relaxation Room Detail Level 5 Floor Plan IsometricDiagram Perspective Section

SCORIA

ACADEMIC PROJECT

PROJECT INFORMATION

CATIA and Intelligent Digital Systems, SCI-Arc, 2023

Type: Shelter

Instructor: Kerenza Harris

Partner: Meng-Jung Ho

DESIGN CONCEPT

We investigated a specific design process that addresses the complexities of architectural forms and assemblies, with CATIA as the pivotal tool for design, optimization, and documentation in architecture projects.

This exploration included assessing new paradigms for architectural creation, emphasizing the shift from conventional design workflows to a novel methodology that harnesses technology innovatively to advance the field.

The project highlighted our advanced expertise in utilizing CATIA 3DEXPERIENCE, evidenced by our creation of parametric digital models employing Power Copies (PC), User Features (UF), and Knowledge Patterns (KP). Furthermore, we adeptly managed these parametric models, demonstrating a comprehensive grasp of their application in architectural practice.

Overall, our work illustrated the integral role of CATIA in the contemporary design and execution of architecture projects, showcasing its potential to enhance the architectural profession through technological integration.

PROGRAMS USED

CATIA

A shelter we designed in CATIA 3DEXPERIENCE.

B-1. Color Variation 1

PC\THICK_U.Color = RU + “,” + GU + “,” + BU

PC\THICK_D.Color = RD + “,” + GD + “,” + BD

PC\THICK_BRIDGE.Color = RB + “,” + GB + “,” + BB

PC\THICK_U.Color = RHU + “,” + GHU + “,” + BHU

of the PowerCopy are defined, the PowerCopy unit can be instantiated on the surface according to the grid points. The height and color of each units change according to the distance between itself and the { F = InstantiateTemplate

F.SetAttributeObject(“Pt_Coord_0”, F.SetAttributeObject(“Pt_Coord_1”, F.SetAttributeObject(“Pt_Coord_2”, F.SetAttributeObject(“Pt_Coord_3”, F.SetAttributeObject(“Pt_Attractor”, EndModifyTemplate(F) i = i+1 }

Part A. PowerCopy and Color Variation Rule
Pt (-0.5,0.5,0.5) Attractor Pt (-0.25,0.5,0.25)
B-2. Color Variation 2 Attractor

InstantiateTemplate (“RT_UNIT”, Result)

F.SetAttributeObject(“Pt_Coord_0”, oList0.GetItem(i))

F.SetAttributeObject(“Pt_Coord_1”, oList1.GetItem(i))

F.SetAttributeObject(“Pt_Coord_2”, oList2.GetItem(i))

F.SetAttributeObject(“Pt_Coord_3”, oList3.GetItem(i))

F.SetAttributeObject(“Pt_Attractor”, Input\Pt_Attractor)

EndModifyTemplate(F)

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Ellipse Major Radius = 8 m Minor Radius = 4 m
Boundary Hexagon A
Framework for Roof E-3. Framework for Roof
Base Surface for Roof E-5. Framework for Supports E-6. Framework for Supports
Framework for Supports E-8. Overall Framework E-12. Structure and Surfaces
Line Attractor Point Bezier Curve Surface
Part C. Shelter Design
E-1.
E-2.
E-4.
E-7.
Quadrangle

TECTONICS OF FLUIDITY

ACADEMIC PROJECT

PROJECT INFORMATION

Undergraduate Thesis Design, Tamkang University, 2017

Type: Temple

Instructor: Ying-Chang Yu

Partner: Individual Work

DESIGN CONCEPT

In my research, I delved into fluidity—a concept reflecting the universe’s inherent state of constant change—as it manifests in mechanics, substances, and spaces like water, landscapes, and organic structures. This fluidity is also evident in architecture, transitioning from medieval arches and domes to contemporary free-form designs with concrete shells and curved cladding. Despite its aesthetic appeal, free-form architecture presents significant challenges, particularly in fabricating double curvature panels, which impact cost and quality.

Recognizing these challenges, I focused on developing an accurate and efficient method for manufacturing double curvature façades from flat pieces of materials, given their increasing significance in contemporary architecture with the rise of computational design. My work closely intertwined architecture and tectonics, analyzing them through the prism of fluidity and investigating the relationship between materials and geometry from an aesthetic standpoint. I provided detailed insights into the practicalities of producing double curvature panels, supported by a collection of detailed drawings and parameterized construction systems.

PROGRAMS USED

Rhinoceros, Grasshopper, AutoCAD, V-Ray

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I created part of the 3D model, with renderings by Blue Ice Rendering.

Design Approach: Kerf Bending and Form-resistant Structure

Most of the industrialized materials are linear and planar for the purpose of standardization and efficiency. Therefore, the first challenge in this design is transforming planar materials into double curvature units. The idea involves kerf bending, which is the process of removing thin sections from the flat panel that makes the panel loses ots rigidness and becomes flexible.

The unit is designed to be form-resistant structure to maintain free-form shape. A pair of kerf bent MDF panels are connected by bolts and casings.

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Materiality

Materials other than MDF are also experimented in this phase.

A - B Aluminum

C - D Acrylic: The sub-structure increase the rigidity.

E - F Concrete: The MDF panels are the formwork of the posttensioned concrete system, and the bolts and casings serve as reinforcement.

62 C D B F A E
1 Lobby 2 Gallery 3 Pool 4 Event Space 5 Cafeteria 6 O ce 7 Atrium 8 Chapel 9 Lounge Ground Floor Plan 1 2 3 5 4 6 8 9 10 7

Concept

The concept of fluidity is based on the previous research on double curvature panel manufacture. The integral morphological development of space is derive from the fluid phenomenon Forming mechanics of five fluid phenomena are analyzed and reinterpreted along with the spatial development.

Form-finding

Fluid phenomena are redefined and applied to form-finding. Given the initial points and direction, the form develops under the consideration of attraction and repulsion among particles. The centers of the obstacle are redefined as open spaces; some of the turbulent areas become semi-exterior spaces. In addition, the trials of fluid motion assimilate into the landscape.

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66 10 10mm Insulated Glass Unit 11 SRC Column 12 200×100×6mm - Channel Steel Beam 13 Steel Bracing 14 Finished Floor 15 Self-leveling Concrete 16 Floor Concrete 17 18 GA Composite Steel deck 18 Edge trim 1 Post Tension Concrete Unit 2 Aluminum Living Hinge Panel 3 Aluminum Gutter 4 200 × 100mm Rectangular Steel Beam 5 150 × 20mm Cedar Blind 6 Blind jointer 7 300 × 100mm Channel Steel Beam 8 Exterior Aluminum Gutter 9 Aluminum Fasicia Panel 19 H Beam 300 x 100 x 9 x 14 mm 20 Galvanized metal stud 21 6 mm Fiber Cement Ceiling Panel 22 H Beam 250 x 100 x 8 x 13 mm 23 Ø50mm - Steel pipe 24 3mm THK Channel beam 25 FRP 26 3mm THK steel plate - CNC production 4 22 23 20 21 7 9 5 6 10 11 18 24 25 26 19 2 14 15 16 17 1 13 12 8 3

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