Selected Works 2020-2022

Page 1

Kewei Xu Cornell University B.Arch. Candidate Selected Works 2020-2022

Architecture & Design

Object-Oriented Programming

Sustainability

& Building Performance

TABLE OF CONTENTS ACADEMIC WORK 01 TWO DOMES 05 THE WARP 04 FACADE SCANNER 06 BAMBOLOGY 03 MESHES 02 HOUSE TRI An Integrative Community Library design in Seneca Falls, NY A Structure model of the public installation An Environmental Systems research of window-to-wall ratio estimation for urban building energy modelings. A Moveable Modular House Design in Southeast Asia An “add-on” project on Lincoln center for memorizing San Juan Hill (New York, NY) A residiential housing design for a home of three (Ithaca, NY) RESEARCH & GROUP WORK

01 TWO DOMES

ARCH2102 Design IV - Integrative Design / Spring 2022

Instructor: Katharina Kral

The proposed project site is in Seneca Falls, New York, a historically significant location known as the birthplace of the women’s rights movement and situated along a branch of the Erie Canal. The town has experienced a population decrease of -9.37%, largely due to the outmigration of young residents. To create new opportunities for community gatherings, the proposed community library aims to weave together ancient memories and modern experiences.

The community library design incorporates two distinct structural systems: a traditional brick dome and a free-form brick vault. The library programs are visualized as a series of brick domes arranged in the plan configuration, with the free-form brick vault serving as a bridge connecting different programs and as the primary medium for book collections. The form-finding and structural detailing process is informed by environmental performance analysis, with a focus on passive design strategies to maximize the thermal performance of the brick material and dome form. Overall, the community library design aims to honor Seneca Falls’ history while providing a modern space for learning and gathering.

Orientation, function, and connection

Study models for brick vault’s form-finding (Clay, paper, and 3D-print resin)

“Two domes” in sketches and model-making

The roof orientation is switched from southwestern to northeastern to obtain consistent and diffuse daylight.

Southwestern facades will still be the best location to place PV panels.

PV panels are designed as an additional layer on the facing brick. The density of PV panels will vary based on the orientation. southwestern facades will have more PV Panels.

N PLAN 80 FT 40 60 20 1/16’’ = 1’0’’ PFALLST PFALL ST PBOUE DR PBOUE DR PTRINITYLN PUBLIC ENTRANCE (FIRST FLOOR) PUBLIC-COMMUNITY PLAZA OUTDOOR CLASSROOM COMMUNITY ENTRANCE (FIRST FLOOR) COMMUNITY ENTRANCE (SECOND FLOOR) PV PANEL ARRANGEMENT MAINLY TOWARDS SOUTHWEST PUBLIC ENTRANCE (FIRST FLOOR) CAYUGA ST
PUBLIC ENTRANCE (FIRST FLOOR) OUTDOOR CLASSROOM COMMUNITY ENTRANCE (FIRST FLOOR) COMMUNITY ENTRANCE (SECOND FLOOR) PV PANEL ARRANGEMENT MAINLY TOWARDS SOUTHWEST PUBLIC ENTRANCE (FIRST FLOOR) S N SOUTHERN/NORTHERN PV PANEL SKYLIGHT DETAILED SECTION FACING BRICK INSULATED GLASS RETAINING ANGLE SANTOPRENE GASKET CONDENSATE GUTTER CURB FLASHING INSULATION (ROCKWOOL) RECYLING BRICK BRICK WITH PV PANEL FACING BRICK RECYLING BRICK BRICK WITH PV PANEL S S N SOUTHERN/NORTHERN PV PANEL SKYLIGHT DETAILED SECTION DYNAMIC SHADING FIXED SHADING FACING BRICK INSULATED GLASS RETAINING ANGLE SANTOPRENE GASKET CONDENSATE GUTTER CURB FLASHING INSULATION (ROCKWOOL) RECYLING BRICK BRICK WITH PV PANEL LIMITED OPENING SIZE FACING BRICK RECYLING BRICK BRICK WITH PV PANEL
PBOUE DR
PASSIVE ENVIRONMENTAL DESIGN STRATEGIES (SUMMER) 2-B 2-A 2-D 2-C NE NE SW NE 2-A 2-B 1-B 1-C 1-A 3-A 3-B PASSIVE ENVIRONMENTAL DESIGN STRATEGIES (WINTER) 3-A 4-B 4-A 2-D 2-C 3-B 1-A The arch shape provides a natural curve for collecting water from the top to the drainage at the bottom of the column. 1-B The valley between brick cones also serves as the gutter for collecting water to the drainage at the bottom of the column. 1-A The valley between brick cones and the its curve shape could reduce the wind speed from northeastern. 2-A Sunlight through the low-E glazing system became one of the main solar gain sources. 2-B The vault space underneath provides a natural semi-closed space for hot air circulating and storing. 2-C Brick serves as a great thermal mass material for storing heat during the winter daytime. 2-D
night,
will
by the brick.
collected
reused for sanitary de-
2-A The brick shell shape a curve surface for cold wind. 2-B The operable skylight could release the hot during the summer. 2-C Brick serves as a mass material for heat during the summer. 2-D At summer night, removed by the natural 3-A The fixed shading could prevent over-heating during the summer. 3-B The dynamic shading could prevent over-heating during the summer. 3-A Skylights are all towards northeast to obtain and diffused daylight. facing brick 3-B The PV panel system mainly installed towards southwest to obtain. 4-A The sunlight through window became one main solar gain resources during the winter. 4-B The dynamic shading could allow sunlight through to provide during the winter.
SITE
OVERALL PERFORMANCE increased by 9.7% OVERALL PERFORMANCE increased by 18.8% MOST SUITBLE SURFACE PERFORMANCE increased by 11.0%
At winter
heat
be relased
1-C Rainwater could be
and
mands.
SOLAR FORM FINDING & RADIATION APPLICATION
PLAN
10 40 FT 20 N 1/8” = 1’0 FIRST FLOOR PLAN 30 1. 2. 11. 10. 8. 9. 3. 12. 13. 13. 13. 4. 7. 6. 5 1. PRIVATE STUDY SPACE 2. LECTURE HALL 3. CONFERENCE ROOM 4. OFFICE 5. BREAKOUT ROOM 6. KITCHENETTE 7. WRITER SPACE 8. LOBBY 9. FIRST AID 10. STORAGE 11. MULTIUSE CLASSROOM 12. OUTDOOR CLASSROOM 13. RESTROOM 14. ADA RESTROOM 14. 14. 2. 1. 3. A A C-1 C-2 B D D B B D B LONG SECTION

To create a well-daylight space (illuminance target:800-1800), southern opening size need to reduced and northern openings need to be large. Original large, eye-level wiindow is reduced and move up. It could avoid more direct sunlight for improving both UDI and glare.Adding fixed shading on arch windows; Adding dynamic shading on rectangular windows(for different program demands).

40 FT 20 30 10 40 FT 20 N 1/8” = 1’0 FIRST FLOOR PLAN SECOND FLOOR PLAN CONFERENCE ROOM 10 OFFICE MULTI-USECLASSROOM DIGITALCOMMON 30 STUDYPRIVATEPLACE MECHANICALSPACE MECHANICALSPACE OFFICE WRITERSPACE CO-WORKINGSPACE CHILDRENPROGRAM 1. READING SPACE 2. MULTIUSE CLASSROOM 3. CO-WORKING SPACE 2. 1. 1. 1. 1. 3. A A A C-1 C-2 B D D B TOTAL OCCUPANCY LOAD:145 REQUIRED EGRESS NUMBER: 2 REQUIRED EGRESS STAIR SIZING:43 IN SECOND FLOOR ACTUAL EGRESS NUMBER: 2 ACTUAL EGRESS STAIR SIZING:44IN ACTUAL EGRESS NUMBER: 4 ACTUAL EGRESS STAIR SIZING:44IN TOTAL OCCUPANCY LOAD:28 REQUIRED EGRESS NUMBER: 2 REQUIRED EGRESS RAMP SIZING:44 IN FENESTRATION / SHADING SYSTEM OPTIMIZATION
Southwestern facade (base case) Southwestern facade (iteration #1) Southwestern facade (iteration #2) BASE CASE #0 ITERATION #1

1-A

1-A

The arch shape provides a natural curve for collecting water from the top to the drainage at the bottom of the column.

The arch shape provides a natural curve for collecting water from the top to the drainage at the bottom of the column.

1-B

1-B

The valley between brick cones also serves as the gutter for collecting water to the drainage at the bottom of the column.

The valley between brick cones also serves as the gutter for collecting water to the drainage at the bottom of the column.

1-C

1-C

Rainwater could be collected and reused for sanitary demands.

Rainwater could be collected and reused for sanitary demands.

PASSIVE DESIGN STRATEGIES (SUMMER)

1-A

The valley between brick cones and the its curve shape could reduce the wind speed from northeastern.

1-A The valley between brick cones and the its curve shape could reduce the wind speed from northeastern.

2-A

Sunlight through the low-E glazing system became one of the main solar gain sources.

2-A Sunlight through the low-E glazing system became one of the main solar gain sources.

2-B

2-B

The vault space underneath provides a natural semi-closed space for hot air circulating and storing.

The vault space underneath provides a natural semi-closed space for hot air circulating and storing.

2-C

2-C

Brick serves as a great thermal mass material for storing heat during the winter daytime.

Brick serves as a great thermal mass material for storing heat during the winter daytime.

2-D

At winter night, heat will be relased by the brick.

2-D At winter night, heat will be relased by the brick.

PASSIVE DESIGN STRATEGIES (WINTER)

2-B 2-A 2-D 2-C NE SW NE NE 2-A 2-B 1-B 1-C 1-A 1-A 3-A 2-D 2-C
2-B 2-A 2-D 2-C NE SW NE NE 2-A 2-B 1-B 1-C 1-A 1-A 3-A 2-D 2-C

facing brick

facing brick

2-A

2-A

SKYLIGHT DETAILING OPTIMIZATION

BASE CASE #0

The brick shell shape provides a curve surface for introducing cold wind.

The brick shell shape provides a curve surface for introducing cold wind.

2-B

External Temperature: -10ºC

2-B The operable skylight system could release the hot wind during the summer.

The operable skylight system could release the hot wind during the summer.

2-C

2-C

The steel angle and frame create the thermal bridge since it crossed through the inside and outside.

INSULATED GLASS RETAINING ANGLE

Brick serves as a great thermal mass material for releasing heat during the summer.

Brick serves as a great thermal mass material for releasing heat during the summer.

CURB FRAME CURB FLASHING

Due to the continuous connection between the curb and the insulation layer, the PSI value has a mediocre performance.

2-D

At summer night, heat will be removed by the natural wind.

2-D At summer night, heat will be removed by the natural wind.

Facade U-Value = 0.716 W/(m2K)

Roof U-Value = 0.466 W/(m2K)

Corner PSI-Value = 0.390 W/(mK)

3-A

The fixed shading system could prevent over-heating during the summer.

3-A The fixed shading system could prevent over-heating during the summer.

3-B

3-B

The dynamic shading system could prevent over-heating during the summer.

The dynamic shading system could prevent over-heating during the summer.

Temperature Performance

3-A

3-A

ITERATION #1

thermal bridge

Heat Flux Performance

Skylights are all towards the northeast to obtain consistent and diffused daylight.

Skylights are all towards the northeast to obtain consistent and diffused daylight.

3-B

3-B

Internal Temperature: 20ºC

External Temperature: -10ºC

The PV panel system are mainly installed towards the southwest to obtain.

The PV panel system are mainly installed towards the southwest to obtain.

4-A

4-A

By adding the gasket and continuous curb, the skylight was lifted up, and the steel was blocked outside by the new continuous curb, so the thermal bridge is reduced.

The sunlight through the window became one of the main solar gain resources during the winter.

The sunlight through the window became one of the main solar gain resources during the winter.

4-B

4-B

Facade U-Value = 0.248 W/(m2K)

Roof U-Value = 0.466 W/(m2K)

The dynamic shading system could allow sunlight to come through to provide solar power during the winter.

The dynamic shading system could allow sunlight to come through to provide solar power during the winter.

Corner PSI-Value = 0.097 W/(mK) (Reduced by 75.1%)

Temperature Performance

Heat Flux Performance

SW NE SW SW 3-A 3-B 4-B 4-A 3-B
SW NE SW SW 3-A 3-B 4-B 4-A 3-B
INSULATION STRUCTURE BRICK FACING BRICK RETAINING ANGLE FASTENER INSULATED GLASS RETAINING ANGLE CURB FRAME CURB FLASHING INSULATION STRUCTURE BRICK FACING BRICK RETAINING ANGLE FASTENER INSULATED GLASS RETAINING ANGLE SANTOPRENE GASKET CURB FRAME CURB FLASHING INSULATION STRUCTURE BRICK FACING BRICK RETAINING ANGLE FASTENER Internal Temperature: 20ºC

Structure System Diagram

SKYLIGHT SYSTEM PV PANEL SYSTEM FACING BRICK (NEW +LOCAL RECYLED) TRIPLE GLAZED SKYLIGHT BRICK UNIT WOOD FACADE STRUCUTRAL BRICK + WOOD FRAME RAILING/BOOKSHELF ADA RAMP WOOD FRAME + STEEL FRAME BRICK SHELL & GROUND BRICK SHELL DETAILED SECTION BRICK CONE / BRICK SHELL LOAD PATH DIAGRAM RAILING/BOOKSHELF ELEVATION SOUTHERN/NORTHERN FACADE S N S N SOUTHERN/NORTHERN PV PANEL SKYLIGHT DETAILED SECTION STRUCTURAL BRICK + TILE FOOTING BRICK CONE/BRICK SHEEL(CONCRETE) 15MM JOINT WOOD BOOKSHELF SPACING 16”(HEIGHT) SPACING 48”(WIDTH) DYNAMIC SHADING RETAINING ANGLE FLASHING INSULATION (ROCKWOOL) RECYLING BRICK NO FIXED SHADING

1

1 SKYLIGHT

2 BRICK CONE (FACADE)

3 BRICK CONE (ARCH)

4 WOOD FACADE (GLAZING SYSTEM)

5 WOOD FACADE (SLIDING DOOR)

6 FACADE-BRICKSHELL CONNECTION

7 BRICK SHELL (INTERIOR FINISHES)

8 BRICK SHELL (STRUCUTURAL LAYERS)

9 BRICK SHELL (EXTERIOR FINISHES)

10 GROUND

11 FOOTING (BASEMENT)

12 FOOTING (BRICK SHELL)

INSULATED GLASS ALUM. RETAINING ANGLE CONDENSATE GUTTER CURB FRAME FASTENER

100MM/200MM/70MM STRUCTUAL BRICK 1650MM SOFT INSULATION (ROCKWOOL) VAPER BARRIER RETAINING ANGLE BITUMEN 100MM/200MM/70MM RECYCLING BRICK

100MM/200MM/70MM STRUCTUAL BRICK 1650MM SOFT INSULATION (ROCKWOOL) 100MM/200MM/70MM RECYCLING FACING BRICK GUTTER

LOW-E TRIPLE GLAZING SYSTEM DYNAMIC SHADING(WOOD PANEL)

LIVINGWOOD LIFT AND SLIDE TIMBER DOORS (LEVEL SYSTEM)

WOOD CURB THERMAL BREAK SYSTEM

1/2” BRICK TILE HEATING PIPE SCREED

1/2” BRICK TILE - 3/4” BRICK TILE SCREED HEATING PIPE RAMMED EARTH

1/2” BRICK TILE - 3/4” BRICK TILE SCREED HEATING PIPE RAMMED EARTH

3/4” BRICK TILE FINESAND FINE GRAVEL COARSE GRAVEL GEOTXTILE MAT

POROUS BOARDS COARSE GRAVEL DRAINAGE POROUS PIPE LEAN CONCRETE

POROUS BOARDS CONCRETE DRAINAGE LEAN CONCRETE

2 4 6 8 FT 1/2"- 1’0
2 4 5 6 7 8
11 3 2 6
10 12
10 12 DETAILED SECTION
INTERIOR PERSPECTIVE
PERSPECTIVE

02 HOUSE TRI

ARCH2101 DESIGN III - “LIGHTNESS” / Fall 2021

Instructor: Roz Barr

The design of the project explores the concept of “in-between” moments in our daily life, symbolized by the name “Tri,” which represents the transition between different states. This discourse of “tri-status” is evident in the transition between workplace and home, the creation of “personal corners” for the three family members, and the relationship between inhabitants and nature.

The project also places emphasis on the concept of “lightness,” achieved through optimized fenestration strategies and facade materials choices that balance light performance and privacy. By carefully considering the balance between light and privacy, the design aims to create a harmonious and inviting space that is both functional and aesthetically pleasing.

Located in Ithaca, New York, the “House Tri” project is a residential housing project designed for a family consisting of a man, a child, and a dog. The project aims to create a space that functions as both a public workshop and private residence for the client, a work-at-home carpenter.

Wood in texture, construction, and environment.

Study models of the threshold

Concept Diagram of material and fenestration, and its application in model-making.

EAST

WEST/
ELEVATIONS ISOMETRIC VIEW
2 1 0 4 3 5 M 1. 2. 4. 3. GROUND FLOOR PLAN
SHORT SECTION
LONG SECTION LONG ELEVATION

Tri-relationship between inhabitants and nature.

03 MESHES

ARCH3101 DESIGN V - “PUBLIC | SERVICE” / Fall 2022

Instructor: Sydney Maubert

This project seeks to challenge the Lincoln Center, a symbolic space of power and authority, by reconstructing the abandoned areas between its enormous constructions. By questioning whether the gigantism of architecture serves culture or authority itself, the design aims to reconstruct the space in a way that brings back the potential San Juan Hill culture and the neighborhood’s sense of place.

The design incorporates a timber-mesh construction as a threshold that intrudes into Lincoln Center. By rearranging the space’s vertical and horizontal divisions, the reconstruction aims to reconcile the enormous scales of Lincoln Center. The timber frame systems serve as the foundational approach for a dynamic threshold, while the meshes serve as a public medium for displaying the neighborhood’s artworks, propaganda, and statements. Through the deconstruction and reversal of spatial and political relationships, this project aims to explore the potential of architecture as a form of undemonstrative rebellion.

(late 19th century- 1950s)

SITE ANALYSIS
NYC African American Migration Patterns in the 20th Century(Center). SAN JUAN HILL GREENWICH VILLAGE HARLEM Abandoned Spaces in Lincoln Center and Amsterdam House(Left & Right).
ISOMETRIC PERSPECTIVE & CIRCULATION To Lincoln Center From W 64TH ST From Amsterdam House SITE PLAN MetropolitanOpheraHouse Amsterdam Ave. forNewYorkPublicLibrary PerformingArts and LincolnCenterTheater ofFiorelloH.LaGuardiaHighSchool Music&ArtandPerformingArts ART LIFE MARKETPLACE PERFROMANCE STAGE “THRESHOLD” DabidSamuelB.andBuildingRose IreneTheJuilliardSchoolDiamondBuilding DamroschPark

ELEVATION (From Amsterdam Ave)

SPACE DIVISION

From building-scale to human-scale

SPACE REUTILIZATION

Redesign “abandoned” spaces like rooftop and building gaps

PERFROMANCE
New York Public Library for Performing Arts and Lincoln Center Theater
SPACE
<Samuel B. and Dabid Rose Building

SKIN OF SPACE

Architecture as public art / statement / propaganda ...

CIRCULATION

From both sides of Amsterdam Ave

&
THRESHOLD
GALLERY CONTINUOUS MARKETPLACE
“ W 64TH. ST”
Metropolitan Ophera House -> Damrosch Park

TYPICAL PLAN

A B A B ENTRANCE 01 482 FT
1. Continuous Market Place 2. Liftable Stage 3. Welcome Center 4. Bathroom 5. Threshold & Gallery 6. Rooftop Garden 7. Formal Performance Space 8. Rooftop Restaurant 9. City Balcony 10. Casual Performance Space 11. Rooftop Cafe 1. 3. 4. 6. 2.
C C 80 FT 60 40 20 1:200 E N T R A N C E 0 3 ENTRANCE 02
7. 8. 9.
5.
10. 11.
SECTION A-A Amstrerdam House Metropolitan Ophera House Continuous Market
SECTION C-C Performance Space
York
Continuous Market
Fiorello H. LaGuardia High School of Music & Art and Performing Arts New
Public Library for Performing Arts and Lincoln Center Theater
CONTINUOUS
SECTION B-B (“W 64TH. ST”)
MARKETPLACE

THE THRESHOLD URBAN ELEVATION

FACADE SCANNER

A WINDOW-TO-WALL RATIO ESTIMATION FOR ENERGY MODELING

Group Work with Jiayu Su, Zhisui Ren, and Tony Liu

Instructor: Timur Dogan

This project aims to investigate the optimization of methods for collecting window-to-wall ratio data of existing buildings on an urban scale for future building retrofits. The study employs multi-disciplinary methods, including the generation of photogrammetry models using drone-captured photos and the utilization of machine learning techniques to automatically identify windows on building walls.

BUILDING DATA COLLECTION

PHOTOGRAMMETRY MODEL GENERATION

Double-Grid Capture

Photo/video source -> “dense cloud-mesh-texture” workflow -> 3D model with geolocation

BUILDING DATA COLLECTION

PHOTOGRAMMETRY MODEL GENERATION

GEOLOCATION-BASED AUTOCROPPING

TEXTURE MAP OPTIMIZATION

GEOLOCATION-BASED AUTOCROPPING

TEXTURE MAP OPTIMIZATION

Quad Remesh

Rebuild UV Mapping

Bake New Texture

3D model with WGS-format geolocation

Project the model from WGS to UTM coordinates system

Relocate the model on UTM-based map

Crop the model according to the footprint infomation

TEXTURE & LABELING

BEFORE AFTER

triangular surfaces are randomly distributed on the model.

The texture is messy and unstructured.

Rectangular and evenly-distributed orthogonal surfaces are easier for future model clearance.

WINDOW ELEMENT DETECTION THROUGH CONDITIONAL GAN TESTS (PIX2PIX)

WINDOW-TO-WALL RATIO CALCULATION & MESH SURFACE SEPARATION

TRAINED MODEL

The clean structured texture is easier for labeling and machine learning.

ENERGY MODEL GENERATION & APPLICATION

xx.xxxx°N xx.xxxx°W xx.xxxx°N xx.xxxx°W XX.XX M WGS UTM

WINDOW ELEMENT DETECTION THROUGH CONDITIONAL GAN TESTS (PIX2PIX)

TEXTURE MAP (INPUT)

LABELING (SOURCE)

PREDICTED IMAGE (OUTPUT)

WINDOW-TO-WALL RATIO CALCULATION & MESH SURFACE SEPARATION

glazing area: 130.4 sqm2

gross exterior wall area: 462.7 sqm2

window to wall ratio: 21.98%

Methodology:

Utilizing python script through Blender to separate the mesh into different parts by identifying their texture properties.

Application:

1. Different building elements(facade, roof, window..) are categorized.

2. window-to-wall ratio could be calculated based on category area information.

BUILDING DATA COLLECTION

PHOTOGRAMETRY MODEL GENERATION

GEOLOCATION-BASED AUTOCROPPING

TEXTURE MAP OPTIMIZATION

OTHER ROOF FACADE WINDOW

TEXTURE & LABELING

ENERGY MODEL GENERATION & FUTURE APPLICATION

Medium Office

EUI - 226 kWh/m2/yr

Baseline - 284 kWh/m2/yr

Based on the existing research of “Structure-aware Building Mesh Simplification,” we could reconstruct the mesh into a clean, effective building model for energy analysis.

We expect this methodology could be applied to urban-scale building data collection and environmental analysis. It optimizes the currently available methods of energy modeling for building retrofits and aims to contribute to a sustainable future.

WINDOW ELEMENT DETECTION THROUGH CONDITIONAL GAN TESTS (PIX2PIX)

WINDOW-TO-WALL RATIO CALCULATION & MESH SURFACE SEPARATION

TRAINED MODEL

ENERGY MODEL GENERATION & APPLICATION

SEPARATION

THE WARP

Structure Model

ARCH2613 Structure Systems / Fall 2021

Group Work with Jiayu Su and Xuanyin Lin

Research on Structure System

Original structure (in constrcution process)

Structure model

REASON OF DECISION

PROCESS PHOTOS

REASON OF DECISION

ORIGINAL WORK
UNIVERSITY OF
KONG
BY OLIVIER OTTEVAERE & JOHN LIN + THE
HONG
18
Jiayu Su_js3498 / Kewei Xu_kx64 / Xuanyin Lin_xl473
19

BAMBOLOGY

A Moveable Modular House Design in Southeast Asia

Group Work with Jiayu Su and Xuanyin Lin

This project aims to create an environmental-friendly, low-budget, and easy-to-assemble house that would help promote the equality and sustainability of the construction environment. Located in southeast Asia, the buildings are mainly constructed using bamboo, a local material that is easy to get and manipulate. We learn from the traditional local bamboo building and develop a modular unit, which could later be combined in different ways to accommodate for different sites. Users could choose different facade panels with embedded furniture to construct their houses.

Bamboo lives in symbiosis with the landscape and surrounding nature. At the same time, as a natural material, bamboo could be easily disassembled and reused or recycled. Together with the photovoltaic panels, rainwater collection system, and roof overhang to block summer sunlight, both the operational and construction energy is reduced.

PERSPECTIVE OF THREE LIVING SCENARIOS CONNECTION
CONNECTION DETAILS GIRDER EXTENSION COLUMN EXTENSION RESIDENTIAL UNIT PASSIVE DESIGN STRATEGIES

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