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Selected Projects / Junbin Lin

Curriculaum Vitae

Lin, Junbin Personal Information

DOB 17. 08. 1995 Nationality Taiwanese E-mail junbinLin1995@gmail.com Mobile +886 (0)939109345 (Taiwan) Instagram lin_junbin_27

EDUCATION February, 2019 - April, 2021

Master of Science, Major in Architecture and Urban Design, Score 110/110 Polytechnic University of Milan, Italy

September, 2013 - June, 2018

Bachelor of Architectural Studies, Major in Architecture Design, Score 84.12/100 Harbin Institute of Technology, China

EXPERIENCES February, 2021 - April, 2021

BIM modeling (ArchiCAD) for preservation of Church of San Michele Maggiore, Pavia Curricular Internship, Polytechnic University of Milan, Italy

Parametric Design BIM Oriented through Grasshopper + Rhino

March, 2019 - June, 2019

Curricular Internship, Polytechnic University of Milan, Italy

Assistance Designer, Architectural Internship

September, 2017 - December, 2017

Curricular Internship, Architectual Design and Research Institute of Tsinghua University, China August, 2014

International Conference for the Integration of Science, Technology and Society (ICISTS-KAIST) Korea Advanced Institute of Science and Technology, Korea

SKILLS

Expertise

Urban Design

Sketch

Office

GIS

Photoshop

SketchUp

Revit

Vray

Word

QGis

Cad

Illustrator

AutoCad

Rhinoceros

Lumion

Excel

InDesign

Grasshopper

Powerpoint

Chinese

English

Japanese

Italian

中

日

IT Basic

Interior

Render

Basic - N2 Certificate

Architecture

BIM & 3D Modeling

Proficient - IELTS 7.0

2D Modeling

Native

Arc

2D Design

AWARDS, ACTIVITIES & ACHIEVEMRNTS First Level Scholarship Third Prize for the Construction Competition of Harbin Institute of Technology First Prize for the Annual Innovation Project of Harbin Institute of Technology Outstanding Delegates of Model United Nation of Harbin Institute of Technology Outstanding Volunteer for Northeast Collegiate Programming Contest Volunteer Certification for Education Evaluation Session, Architectural Society of China Volunteer Certification for Heilongjiang Next Top Interior Designer Competition Second Level Scholarship Certificate for Level N2 Japanese-Languange Proficiency Test Certifying assessment of Power Usage Effectiveness Measurement and Verification

2013 , 2014, June, September, May, May, May, July, 2016, January, December,

2015 2014 2014 2015 2015 2015 2015 2017 2017 2021

House C Sustainable Dormitory / Curricular / Teamwork Revit / Sketchup + Best Energy

Acheng Center Reuse & Rennovation / Academic / Individual Revit / Sketchup

"Paper-cut" Opera House Opera House / Curricular / Individual Revit / Rhino+Grasshopper / Vray

Living Device Reuse Housing / Joint Studio / Individual Sketchup

Metropolis Pavilion Leisure Space / Curricular / Individual Sketchup

Qianhai Subscription

Contents

Exhibition Hall / Competition / Teamwork Sketchup

Other Works Residence / High-rise / Urban design / Sketch

House C Project Date

Advicer

September, 2019 - February, 2020

Prof. Daniale Fanzini Prof.

Location Rogoredo, Milan, Lombardy, Italy

Type & Software Dormitory / Sustainable Design / Curricular Project / Collaboration Revit / Sketchup / Best Energy

Description The aim of this design is to exercise the ability to integrate space, structure, detail drawing and energy consumption design through the a student dormitory project, and to strengthen the adaptability and design ability of future sustainable building design. The energy-saving design part mainly adopts the passive design concept by adapting to the advantageous volume, structure and suitable building materials.

Location

Milan, Lombardy, Italy

Rogoredo, Milan

Planning Strategy

The logic of volume generation is very important for a project. We start from the techno-economic indicator and functional requirements, to form the preliminary plan intention based on the urban texture. Then adjust the spatial relation based on the environment condition. 1. A preliminary plan formed according to the constraints of the site.

2. Open the enclosed volume to strengthen the connection. At the same time, the other volumes integrate together to better define the three parts of the exterior space.

3. Through the analysis of the sunlight trajectory, adjust the height of volumes to improve both interior and exterior environmental quality and energy saving effect.

4. Add the shape factor to the consideration, and review the current volume.

5. Finalize the shape of the architecture.

1:500

Detail Plan Roof External Wall

0.01

0.43

Thickness (s)

0.28

Solution Thickness (s) 1 Conductivity (λ)

Transmittance (U-Value) 0.26 Conductance (C)

Resistance (R)

0.03

0.71

23.69

0.04

Waterproof: MaterialEPDM Screed:Vermiculite:Cement Screed 6:1 Plaster Cork Insulation board LightInsulation: Silica Aerogel

0.01 (s) Thickness 0.06 0.01

0.02 (λ) Conductivity 0.21 0.43

2.20 (C) Conductance 3.48 43.10

0.45 (R) Resistance 0.29 0.02

0.04 0.02 0.03

0.47 0.27 1.45

MissouriConcrete FireclayCinder hollow Brick

0.08 0.06 0.02 0.05 0.40 0.15

0.34 1.00

0.85 6.69

2.14 3.75 0.69 0.11 1.18 0.15

Plaster

0.01

0.43

33.15 43.10

0.03 0.02

Thickness (s)

0.60 0.28

Material

Vaper Barrier:Air Extruded Gap polystyrene

energeto® 4000 Material

Thickness (s)

Af Frame Area6:1 0.06 Screed:Vermiculite:Cement Screed Uf Heat Transfer Coefficient of Frame/Frame Transmittance Insulation: Cork board 0.08

energeto® 4000 Material

0.01

0.43

Thickness (s)

0.60

Thickness

MarbleAg Glass Area 0.03 8:1 0.04 Ug HeatVermiculite:Cement Transfer CoefficientScreed of Glazing/Window's Transmittance Polyisocyanurate (PIR)Afinsulation board Frame Area

0.06

Materials Conductivity Douple 2.51 glazing 0.21gas with argon 0.02 PVC with thermal 1.05 sleeve

Concrete (4 Mix) of Frame/Frame Transmittance 0.40 Uf Heat Transfer Coefficient 0.04 Lg Acoustic Length ofInsulation：Rockwool Inside Edge of Frame Rockboard Profile/Visible Glazing0.03 Perimeter PVC with Ψg Linear Heat Transfer Coefficient of Insulated Glazing Edge Seal thermal sleeve Thickness (s)

Transmittance (U-Value) 0.22 0.26

Materials Conductivity (λ) Value Conductance (C) Douple 0.71 glazing 23.69 1.98 with argon 0.02gas 2.20 1.20 PVC with 0.21 3.48 0.35

thermal 0.04 sleeve Lg Length Inside Edge of Frame Profile/Visible Glazing0.02 Perimeter PVC with 0.03 Vaperof Barrier: Extruded polystyrene sleeve Ψg Linear Heat Concrete Transfer Coefficient Edge Seal thermal 0.34 Cinder of Insulated Glazing0.40 Plaster

Ground Slab Windows

0.02

Slate Tile

Ag Glass Area 0.03 Slate Tile Ug Heat Transfer Coefficient of Glazing/Window's Transmittance 0.01 Waterproof: EPDM

Windows Roof

43.10

0.56

Units Resistance (R) ㎡

0.04 W/㎡K0.45 ㎡ 0.29

0.47 1.20 W/㎡K2.14 1.45 5.80 m 0.69 0.85 0.03 W/mK 1.18 33.15

0.03

Transmittance (U-Value) 1.40 0.22 Transmittance (U-Value) Value Conductance

UnitsResistance

83.67 1.98 ㎡ 5.23 1.20 W/㎡K 0.37 0.35 ㎡

0.01

2.62 1.20 W/㎡K 1.45 5.80 m 0.03 W/mK

0.38

0.19 2.73 0.69

Transmittance (U-Value) 0.26 Transmittance (U-Value) 1.40

Ground Slab

Material

Thickness

Conductivity

Marble

0.03

2.51

Conductance 83.67

Resistance 0.01

Vermiculite:Cement Screed 8:1

0.04

0.21

5.23

0.19

Polyisocyanurate (PIR) insulation board

0.06

0.02

0.37

2.73

Concrete (4 Mix)

0.40

1.05

2.62

0.38

Acoustic Insulation：Rockwool Rockboard

0.03

0.04

1.45

0.69

Thickness (s)

0.56

Transmittance (U-Value) 0.26

ŕŐŕłōġŇōŐŐœ Ĳįıı Ĳįıı Ĵįıı ĲĲįĳı ĴĴįķı Ĳįıı ĺįıı Ĵįıı ĴĵįĲı ĲıĳįĴı Ĳįıı Ĳįıı Ĵįıı ĲĲįĳı ĴĴįķı Ĳįıı Ĳıįıı Ĵįıı ĴĵįĶı ĲıĴįĶı ĳįıı Ķķįĺı Ĳĸıįĸı Thickness (s) 0.32 Thickness (s) Ĵįıı Transmittance (U-Value) 0.24 ĳįıı ĶķįĺıTransmittance (U-Value) Ĳĸıįĸı Ĳįıı ĲĲįıı ĸıįıı ĳĲıįıı Ĳįıı Ĵįıı Ĵįıı 0.38 ĲĲįĶı ĴĵįĶı0.22 Ĵįıı ĲĲįĶı ĴĵįĶı Ĳįıı Ĳĳįıı Ĵįıı ĴĵįĲı ĲıĳįĴı Ĳįıı ĵįıı Ĵįıı ĹĲįĲı ĳĵĴįĴı Solution Solution 3 Conductivity (λ) Ĳĵįĵı ĵįıı ĹĲįĲı Ĳįıı Ķįıı ĵĴįĳı (R) ŕŐŕłōġŇōŐŐœ Thickness (s) 2 Conductivity (λ) Conductance (C) Resistance (R) Thickness (s) Ĵįıı Conductance (C) ĳĵĴįĴı Resistance Material Material Ķįıı 0.02 Ĳĵįĵı102.50 ĵĴįĳı Ĳįıı ķįıı Ĵįıı 2.05 ĴĶįıı ĲıĶįıı Ĳįıı Ĳįıı Ĵįıı ĲĲįĳı ĴĴįķı 0.04 1.05 26.15 0.04 0.01 Ceramic Tile （Pyroceram 9608） Concrete stone tiles 1:60 1:100 ŇŊœŔŕ ķįıı ĴĶįıı ĲıĶįıı Ĳįıı ĸįıı Ĵįıı Ĳĸįıı ĶĲįıı 0.04 (s) 1.10 (λ) Conductance 27.50 (C) Resistance 0.04 (R) 0.02 (s) Ĵįıı 0.50 (λ) Ķķįĺı 25.10 (C) Ĳĸıįĸı 0.04 (R) Screed Water proof: Ĳįıı High-density Thickness Conductivity Thickness Conductivity Conductance Resistance Material Material polyethylene ĳįıı ŇŊœŔŕ ŇōŐŐœ ĸįıı 0.04 Ĵįıı 1.10 Ĳĸįıı 27.50 ĶĲįıı Ĳįıı Ĺįıı ĲıĸįĶı ĴĳĳįĶı Ĳįıı Ĵįıı Ĵįıı ĲĲįĶı ĴĵįĶı 0.02 0.04 2.67 0.38 0.04 Felt membrane Screed 0.01 0.43 43.10 0.02 0.01 0.43 43.10 0.02 Plasterwaterproof Plaster ŇōŐŐœ Ĺįıı 0.12 ĲıĸįĶı ĴĳĳįĶı Ĳįıı ĺįıı Ĵįıı 0.03 Ĳĸįıı 0.24 ĶĲįıı Ĳįıı ĵįıı Ĵįıı ĹĲįĲı ĳĵĴįĴı Extruded Polystyrene Open cell silicone panel 0.22 0.06 0.27 3.67 4.14 0.18 0.34 1.86 0.54 0.10 0.32 3.13 Concrete Cinder block Phenolic Foam Panel ĺįıı Ĵįıı Ĳĸįıı ĶĲįıı Ĳįıı Ĳıįıı ĴĶįıı ĲıĶįıı Ĳįıı Ĵįıı 0.03 Ĳĵįĵı 1.45 ĵĴįĳı 0.01 0.02 2.20 0.45 0.69 Polyetlhylene Vapor Barriere VaperLightweight Barrier: Extruded polystyrene Concrete Alumina Brick (20 P) Ķįıı 0.02 0.12 0.04 0.29 3.43 0.26 0.21 0.79 1.26 Rock Wool panel Ĳıįıı ĴĶįıı ĲıĶįıı Ĳįıı ĲĲįıı Ĵįıı Ĵĵįıı Ĳıĳįıı Ĳįıı ķįıı Ĵįıı ĴĶįıı ĲıĶįıı 0.30 1.05 3.49 0.29 0.45 0.75 1.67 0.60 Reinforced Concrete Concrete 0.01 0.43 43.10 0.02 0.01 0.43 43.10 0.02 Plasterslab Plaster ĲĲįıı Ĵĵįıı Ĳıĳįıı Ĳįıı Ĳĳįıı Ĵįıı Ĵĵįķı ĲıĴįĹı ŇŊœŔŕ Ĳįıı ĸįıı Ĵįıı Ĳĸįıı ĶĲįıı 0.01 0.43 43.10 0.02 Plaster Ĳĳįıı Ĵĵįķı ĲıĴįĹı Ĳįıı ĲĴįıı Ĵįıı ĸıįıı ĳĲıįıı ŇōŐŐœ Ĳįıı Ĺįıı Ĵįıı ĲıĸįĶı ĴĳĳįĶı ĲĴįıı ĸıįıı ĳĲıįıı ExternalĲįıı Wall Ĳįıı Ĳĵįıı Ĵįıı ĴĵįĲı ĲıĳįĴı ĺįıı Ĵįıı Ĳĸįıı ĶĲįıı Thickness (s) 0.64 Thickness (s) Ĵįıı Transmittance (U-Value) 0.20 0.18 0.32 0.38 0.24 0.22 Ĳįıı Ĳĵįıı Ĵįıı 0.67 ĴĵįĲıTransmittance (U-Value) ĲıĳįĴı ŕŐŕłōġŇōŐŐœ Ĳįıı Ĳıįıı ĴĶįıı ĲıĶįıı ŕŐŕłōġŇōŐŐœ Ĳįıı Ĳįıı Ĵįıı ĲĲįĳı ĴĴįķı Ĳįıı ĲĲįıı Ĵįıı Ĵĵįıı Ĳıĳįıı Materials Value energeto® 4000 Ĳįıı Ĳįıı Ĵįıı ĲĲįĳı ĴĴįķı (R) Thickness (s) Materials Conductivity (λ) Value Conductance (C) Units Resistance (R) Thickness (s) Ĵįıı Conductivity (λ) Ĵĵįķı Conductance (C) Units Resistance Material Material Term Ĳįıı Ĳĳįıı ĲıĴįĹı ĳįıı Ķķįĺı Ĳĸıįĸı Agtiles Glass Area Ag Glass Area ĳįıı 0.02 Ķķįĺı102.50 1.98 ㎡ĳĲıįıı Ĳĸıįĸı Ĳįıı ĲĴįıı Ĵįıı ĸıįıı Ĳįıı Ĵįıı Ĵįıı 2.05 ĲĲįĵı Ĵĵįĳı 0.04 1.05 26.15 1.98 m2 0.04 0.01 Ceramic Tile （Pyroceram 9608） Concrete stone Double 1.10 glazing Douple 0.50 glazing ĴĵįĲı Ĵįıı ĲĲįĵı 25.10 1.10 W/㎡K Ĵĵįĳı Ĳĵįıı Ĵįıı ĲıĳįĴı Ĳįıı ĵįıı Ĵįıı ĸĲįĺı ĳĲĶįĸı UgWater Heat Transfer Coefficient of Glazing/Window's Transmittance Ug Heat Transfer Coefficient 0.04 27.50 1.20 W/m2K0.04 0.02 0.04 Screed of Glazing/Window's Transmittance proof: Ĳįıı High-density polyethylene ĵįıı 0.04 ĸĲįĺı 27.50 0.35 ㎡ĲĶĸįĶı ĳĲĶįĸı Ĳįıı Ķįıı Ĵįıı 1.10 ĶĳįĶı Area Af Frame Area 0.02 0.04 2.67 0.35 m2 0.38 0.04 ScreedAf FrameŕŐŕłōġŇōŐŐœ Felt membrane waterproof Ĳįıı Ķįıı Ĵįıı ĶĳįĶı ĲĶĸįĶı ķįıı 0.12 Ĳĸįıı 0.24 1.20 W/㎡K ĶĲįıı Ĳįıı Ĵįıı ĲĲįĳı ĴĴįķı uPVC 0.06 PVC 0.03 Uf HeatExtruded Transfer CoefficientPanel of Frame/FrameĲįıı Transmittance Uf Heat Open Transfer of Frame/Frame Transmittance Polystyrene cellCoefficient silicone panel 0.22 0.27 1.30 W/m2K3.67ŔņńŐŏŅ 4.14 ķįıı Ĵįıı 0.03 Ĳĸįıı 1.45 5.80 mĲĸıįĸı ĶĲįıı Ĳįıı ĸįıı ĲĴĲįĵı Ĵĺĵįĳı Ĳįıı Ķķįĺı Inside Edge of Frame Profile/Visibleĳįıı Glazing0.02 PerimeterĴįıı Lg LengthPolyetlhylene of Inside EdgeVapor of Frame Profile/Visible Glazing0.01 Perimeter 0.02 2.20 5.80 m 0.45ŔņńŐŏŅ 0.69 Barriere Vaperof Barrier: Extruded polystyrene ŇōŐŐœ Lg Length ĸįıı Edge SealĴįıı ĲĴĲįĵı Ĵĺĵįĳı Ĳįıı Coefficient Ĺįıı Ĵįıı ĲĸįĹı 1.67 0.03 W/mK ĶĴįĵı Ĳįıı ĲĲįĵı Ĵĵįĳı PVC 0.75 Transfer Glazing Ψg Linear Heat Transfer of Insulated Glazing 0.30 Edge Seal uPVC 1.05 3.49 0.04 W/mK 0.29 ŇōŐŐœ Ψg Linear Heat 0.45 0.60 Reinforced Concrete of InsulatedĴįıı ConcreteCoefficient slab Ĺįıı ĲĸįĹı ĶĴįĵı Ĳįıı ĺįıı Ĵįıı ĴĶįıı ĲıĶįıı Ĳįıı ĵįıı Ĵįıı ĸĲįĺı ĳĲĶįĸı 0.01 0.43 43.10 0.02 Plaster ĺįıı Ĵįıı ĴĶįıı ĲıĶįıı Ĳįıı Ĳıįıı Ĳĸįıı ĶĲįıı Ĳįıı Ķįıı Ĵįıı ĶĳįĶı ĲĶĸįĶı Roof Ĳįıı Ĳıįıı Ĳĸįıı ĶĲįıı Ĳįıı ĲĲįıı Ĵįıı Ĵĵįĵı ĲıĴįĳı ķįıı Ĵįıı Ĳĸįıı ĶĲįıı ŔņńŐŏŅ Transmittance 1.20 Thickness (s) 0.64 Thickness (s) Ĵįıı 0.67 Transmittance (U-Value) (U-Value) 1.30 0.20 Transmittance (U-Value) (U-Value) 0.18 ĲĲįıı ĴĵįĵıTransmittance ĲıĴįĳı Ĳįıı Ĳĳįıı ĸıįıı ĳĲıįıı Ĳįıı ĸįıı Ĵįıı ĲĴĲįĵı Ĵĺĵįĳı CONSTRUCTION AND SUSTAINABILITY DESIGN STUDIO ŇōŐŐœ Ĳĳįıı ĸıįıı ĳĲıįıı Ĳįıı ĲĴįıı Ĵįıı ĴĴįĺı ĲıĲįĸı Ĳįıı Ĺįıı Ĵįıı ĲĸįĹı ĶĴįĵı AND SUSTAINABILITY DESIGN STUDIO Materials Materials Value Units energeto® ŕŐŕłōġŇōŐŐœ 4000 CONSTRUCTION Thickness Conductivity Value Conductance UnitsResistance Thickness Conductivity ĴĴįĺı Resistance Material Term Material Ĳįıı ĲĴįıı Ĵįıı ĲıĲįĸı Ĳįıı ĺįıı Ĵįıı ĴĶįııConductance ĲıĶįıı 0.01 Plank woodAg panel 0.03 0.34 11.43 1.98 m2 0.09 Ceramic Tile （Pyroceram 9608） Glass Area Ag Glass Area ŕŐŕłōġŇōŐŐœ Ĳįıı Ĳįıı 0.02 Ĵįıı 2.05 ĺĸįĳı102.50 1.98 ㎡ĶĲįıı ĳĺĲįķı Ĳįıı Ĳıįıı Ĵįıı Ĳĸįıı 0.02 Cement motar screed 0.05 34.60 1.20 W/m2K0.03 0.04 Screed of Glazing/Window's Double 1.73 glazing Douple 1.73 glazing Ĵĵįĵı Ĳįıı Ĳįıı Ĵįıı ĺĸįĳı ĳĺĲįķı Ug Heat TransferĲįıı Coefficient Transmittance Ug Heat Transfer Coefficient of Glazing/Window's Transmittance ĲĲįıı Ĵįıı ĲıĴįĳı ĳįıı ĲĹįıı 43.25 1.10 W/㎡K Ķĵįıı 0.06 0.04 0.67 0.35 m2 1.50 3.13 PolystyreneAfpanel 0.10C O N Rigid Ĳįıı Polyurethane PanelArea E N Ĳĳįıı ĳįıı ĲĹįıı Ķĵįıı Ĵįıı ĳĲıįıı EĴįıı RGY S U P0.03 T I O Nĸıįıı D A T0.32 A 0.35 ㎡ Ĳįıı Af Frame Ĵįıı Ĵĵįĺı Ĳıĵįĸı Frame Area CONSTRUCTION AND SUSTAINABILITY DESIGN STUDIO 0.50 0.60 1.30 W/m2K1.67 0.53 Concrete slab of Frame/Frame Transmittance 0.40C O N Concrete Slab E N ĲĴįıı ETransmittance RGY S U P0.75 T I O NĴĴįĺı D A T1.88 A 1.20 W/㎡K Ĵįıı Ĵįıı Ĵĵįĺı Ĳıĵįĸı Ĳįıı Ĵįıı ĲıĲįĸı Ĳįıı ĵįıı ĲıĹįĲı ĴĳĵįĴı uPVC 0.30 PVC Uf HeatReinforced Transfer Coefficient of Frame/Frame Uf Heat Transfer Coefficient 0.69 0.69 0.04 1.45 5.80 m ĵįıı ĲıĹįĲı Ĳĸįĺı 1.45 5.80 m ĴĳĵįĴı ĶĴįĸı ŕŐŕłōġŇōŐŐœ Lg Acoustic Length ofInsulation：Rockwool InsideĲįıı Edge of Frame Rockboard Profile/Visible Ķįıı Glazing0.03 Perimeter Ĵįıı 0.04 Lg Acoustic Length ofInsulation：Rockwool Inside Edge of Frame Rockboard Profile/Visible Glazing0.03 Perimeter ŕŉŊœŅ Ψg Linear HeatŎŰůŵũ ĶįııŉŦŢŵŪůŨ Ĳĸįĺı 43.10ńŰŰŭŪůŨ ĶĴįĸı Ĳįıı ķįıı Ĵįıı ĲĹįıı Ķĵįıı 0.02 Ĳįıı ĺĸįĳı ĳĺĲįķı 0.01 Plaster 0.04 W/mK PVC 0.43 0.03 W/mK Transfer Coefficient of InsulatedĲįıı Glazing Edge SealĴįıı Ψg Linear Heat Transfer Coefficient of Insulated Glazing Edge Seal uPVC ŎŰůŵũ ŉŦŢŵŪůŨ Ĵįıı ŕŉŊœŅ ŇōŐŐœ ķįıı ĲĹįıı ńŰŰŭŪůŨ Ķĵįıı Ĳįıı ĸįıı ķĶįĸı ĲĺĸįĲı Ĳįıı ĳįıı ĲĹįıı ŋŢů ĴĹĺıĶįĶķ Ĵįıı ıįıı Ķĵįıı ŇōŐŐœ GroundĲįıı ĸįıı ķĶįĸı ĲĺĸįĲı Ĳįıı Ĵįıı Ĳĸįĳı ĶĲįķı0.22 Slab E N EĴįıı RĹįıı GThickness Y C O(s)NĴįıı SUPT DAT A ıįıı (U-Value) Ĳıĵįĸı ŋŢů ĴĹĺıĶįĶķ ŇŦţ ĳĸĺĶıįĶĵ Thickness (s) 0.67 0.60I O N Ĵĵįĺı Transmittance Transmittance (U-Value) 0.24 Ĺįıı Ĳĸįĳı ĲĲĸįĸķ ĶĲįķı Ĳįıı ĺįıı Ĵįıı Ĳĸįıı ĶĲįıı Ĳįıı ĵįıı Ĵįıı ĲıĹįĲı ĴĳĵįĴı ŇŦţ ĳĸĺĶıįĶĵ ıįıı ŎŢų ĲıĸĶĳįķĲ Transmittance (U-Value) 1.30 Transmittance (U-Value) 1.20 ĺįıı Ĵįıı Ĳĸįıı ĶĲįıı Ĳįıı Ĳıįıı Ĳĸįĳı Ĳĵĺķįıĳ ĶĲįķı Ĳįıı Ķįıı Ĳĸįĺı ŎŢų ĲıĸĶĳįķĲ ĲĲĸįĸķ ĶĴįĸı łűų ĶĳĶĸįĹĹ Ĵįıı ŎŰůŵũ ŉŦŢŵŪůŨ Ĳıįıı Ĳĸįĳı ńŰŰŭŪůŨ ĶĲįķı Ĳįıı ĲĲįıı Ĵįıı Ĵĵįĺı Ĳıĵįĸı ŕŉŊœŅ Ĳįıı ķįıı ĲĹįıı łűų ĶĳĶĸįĹĹ Ĳĵĺķįıĳ ŎŢź ıįıı Ĵįıı ĹĲĸĴįıĴ Ķĵįıı Thickness Conductivity Conductance Resistance Thickness Conductivity Conductance Resistance Material Material ĲĲįıııįıı Ĵįıı Ĵĵįĺı ĲĵĹķĲįĲĸ Ĳıĵįĸı Ĳįıı Ĳĳįıı Ĵįıı Ĳĸįıı ĶĲįıı ŇōŐŐœ Ĳįıı ĸįıı ķĶįĸı ĲĺĸįĲı ŎŢź ĹĲĸĴįıĴ ŋŶů ŋŢů ĴĹĺıĶįĶķ ıįıı 0.01 Plank wood panel 0.03 0.34 11.43 0.09 0.02 Ceramic TileĲįıı （Pyroceram 9608） Ĳĳįıııįıı Ĵįıı 2.05 Ĳĸįıı102.50 ĶĲįıı ŕŐŕłōġŇōŐŐœ Ĳįıı Ĺįıı Ĵįıı Ĳĸįĳı ĶĲįķı ŋŶů ĲĵĹķĲįĲĸ ŋŶŭġ ĳĶĵıĹįĳĹ ŇŦţ ĳĸĺĶıįĶĵ ıįıı 0.02 Cement motar screed 0.05 1.73 34.60 0.03 0.04 1.73 43.25 Screed ŕŐŕłōġŇōŐŐœ ŋŶŭġ ĳĶĵıĹįĳĹ Ĳįıı ĺįıı Ĳĸįıı ĲĹĸķĺįıĶ łŶŨ ıįıı Ĵįıı ŎŢų ĲıĸĶĳįķĲ ĲĲĸįĸķ ĶĲįıı 0.06 0.04 0.67 1.50 3.13 Ĳįıı ĳįıı ıįıı Ĵįıı 0.03 ĲĹįıı 0.32 Ķĵįıı Polystyrene panel 0.10 Rigid łŶŨ Polyurethane Panel ĲĹĸķĺįıĶ ŔŦű ĹĸĵĸįķĶ ĶĲįķı Ĳįıı Ĳıįıı Ĳĸįĳı łűų ĶĳĶĸįĹĹ Ĵįıı Ĳĵĺķįıĳ Ĳįıı ĳįıı Ĵįıı 0.75 ĲĹįıı Ķĵįıı ĴįııĵķķĸįĲĹ Ĵĵįĺı 1.88ĹĸĵĸįķĶ Ĳıĵįĸı 0.50 0.30 0.60 1.67 0.53 Concrete slab 0.40 Reinforced Concrete Slab ŔŦű ıįıı ŰŤŵ ĸķĳįķĲ Ĳıĵįĸı Ĳįıı ĲĲįıı Ĵįıı Ĵĵįĺı ŎŢź ıįıı ĹĲĸĴįıĴ Ĳįıı Ĵįıı Ĵįıı 0.04 Ĵĵįĺı Ĳıĵįĸı ĵįıı ĲĹįıı 1.45ĸķĳįķĲ Ķĵįıı 0.69 œŐŐŇ 0.69 Acoustic Insulation：Rockwool Rockboard 0.03 0.04 1.45 0.03 Acoustic Insulation：Rockwool Rockboard Ĳĳįıı ŰŤŵ ĵķķĸįĲĹ ŏŰŷ ĲĹĵĺĹįĴĺ ıįıı ĶĲįıı Ĳįıı Ĵįıı Ĳĸįıı ŋŶů ıįıı ĲĵĹķĲįĲĸ ĵįıı Ĳįıı Ķįıı Ĵįıı 0.43 ĲĹįıı 43.10 ıįıı Ķĵįıı œŐŐŇ ŏŰŷ ĲĹĵĺĹįĴĺ ŅŦŤ ĴĴĴĲĴįĳĶ 0.02 ŕŐŕłōġŇōŐŐœ 0.01 Plaster ŋŶŭġ ıįıı ĳĶĵıĹįĳĹ Ķįıı ĲĹįıı ĸĹĴĴĶįĶķ Ķĵįıı Ĳįıı ķįıı Ĵįıı Ĵĵįĺı ŅŦŤ ĴĴĴĲĴįĳĶ ıįıı Ĳıĵįĸı ŕŰŵŢŭ ĲĴĺĴĵĶįĵı łŶŨ ıįıı ĲĹĸķĺįıĶ ķįıı Ĵĵįĺı ĸĹĴĴĶįĶķĶĵįıı Ĳıĵįĸı Ĳįıı ĸįıı Ĵįıı ĲĹįıı Ķĵįıı Ĳįıı ĳįıı ĲĹįıı ŕŰŵŢŭ ĲĴĺĴĵĶįĵı ŔŦű ıįıı (s) Ĵįıı 0.60 ĹĸĵĸįķĶ(U-Value) 0.22 Thickness (s) 0.67 Thickness Transmittance Transmittance (U-Value) 0.24 Ĳįıı ĸįıı Ĵįıı ĲĹįıı Ķĵįıı ŕŐŕłōġŇōŐŐœ Ĳįıı Ĵįıı Ĵĵįĺı ŰŤŵ ĵķķĸįĲĹ Ĵįıı ĸķĳįķĲ Ĳıĵįĸı Ĳįıı ĵįıı œŐŐŇ ĸĲĲĺįĺı E ŕŐŕłōġŇōŐŐœ VA L U ŕŐŕłō A TĲĹĵĺĹįĴĺ I O N O FĴįıı E P I A N DĲĹįıı EĳĴĸĴįĴı P LIM I T Ķĵįıı ŏŰŷ ıįıı Ĳįıı Ķįıı ĸĲĲĺįĺı E VA L U ŕŐŕłō A TĴĴĴĲĴįĳĶ I O N O FĴįıı E P I A N DĲĹįıı EĳĴĸĴįĴı P LIM I T Ķĵįıı ŅŦŤ ıįıı Ĳįıı ķįıı Ĵįıı Ĵĵįĺı ĸĹĴĴĶįĶķ Ĳıĵįĸı ņűŪġŭŪŮŪŵ ŕŰŵŢŭ ĲĴĺĴĵĶįĵı Ĳįıı ĸįıı ņűŪġŭŪŮŪŵ Ĵįıı ĲĹįııņ Ķĵįıı ŕŐŕłōġŇōŐŐœ ĳĲıĲįıı ņ ĳĵıĵįıı Ĵıııįıı Ľıįĳ Ĵĵįıı ĵķįĹı ĳĴĸĴįĴı ĸĲĲĺįĺı E VA L U ŕŐŕłō A T I O N O FĳĲıĲįıı E P I A N D ĳĵıĵįıı EĴĹįĴĲ P L I M I T Ĵıııįıı Ľıįĳ ıįĵķ Ĵĵįıı ĴĹįĴĲ ĵķįĹı ĶĵįĵĴ ķıįķĹ ĸĳįĺĹ ıįĵķ Ŀıįĺ ĶĵįĵĴ ķıįķĹ ĸĳįĺĹ ĹĹįıı ĺĸįĵĵ ĲĲķįıı ņűŪġŭŪŮŪŵ Ŀıįĺ ĹĹįıı ĺĸįĵĵ ĲĲķįıı ņ ņű ĳĲıĲįıı ĳĵıĵįıı Ĵıııįıı ņűĴĵįıı ņőľŒűİŴİɻŨ Ľıįĳ ĴĹįĴĲ ĵķįĹı ņőľŒűİŴİɻŨ Œũ ĲĴĺĴĵĶįĵı ĶĵįĵĴ ķıįķĹ ĸĳįĺĹ ŵŰŵŢŭ ıįĵķ Œũ ŒũİŔ ĲĴĺĴĵĶįĵı ĶĹįĸĲ ĹĹįıı ĺĸįĵĵ ĲĲķįıı ŵŰŵŢŭ Ŀıįĺ ŒũİŔ ĶĹįĸĲ Ŕ ĳĴĸĴįĴı ɄŔJ ĳĴĸĴįĴı ıįĺĹ ņű ɄJ ıįĺĹ ņű ĶĺįĺĲ ņőľŒűİŴİɻŨ ņű ĶĺįĺĲ ņűġŭŪŮŪŵ ķıįķĹ Œũ ĲĴĺĴĵĶįĵı ŵŰŵŢŭ ņűġŭŪŮŪŵ ķıįķĹ ŒũİŔ ĶĹįĸĲ

Detail Section

Materials and Energy Calculation

őŐœŅņŏŐŏņőŐœŅņŏŐŏņ őŐœŅņŏŐŏņ

Plaster

L Ψ

ĳĴ ĳĴ

ĳĴ

West Elevation 1:350

East Elevation 1:350

Acheng Center Project Date

Advicer

February, 2017 - June, 2017

Prof. Liu Daping Prof. Wang Yan

Location Acheng D.C., Harbin, Heilongjiang, China

Type & Software Culture center / Conservation / Academic / Individual Revit / Sketchup

Description Existing buildings carry the memory of the regions. The reuse of existing buildings is a potential deirection of architecture design, and will also help to strengthen the sense of regional identity. The relationship between the old and new is also significant of architects in planning and design. This design intends to reuse the abandoned Acheng Sugar Factory, with implantable space and functions, planning and designing into a cultural center for locals, and revitalizing the surrounding space.

Location

Heilongjiang, PRC

Harbin, Heilongjiang

Acheng D.C., Harbin

Planning Strategy Step 1 清 Remove the wasted elements of the site and leave the core part of the sugar factory building.

Step 2 收 Introduce the oblique volume to form a semi-enclosed space in order to gather people. The new volume mainly designed with glass curtain walls, and the penetrability of the material ensures the visual continuity of the old factory facade.

Step 3 聚

The sunken square will further strengthen the cohesion of the place, and the area becomes the center of the whole exterior space.

Step 4 应 Insert a new volume in between the two parts of the factory in order to strengthen the coherent in terms of architecture, making it more suitable for the activities in the local climatic conditions.

1:1000

Ground Floor Plan 1:1000

Sections 1:400

First Floor Axonometric View

Sections 1:400

"Paper-Cut" Opera House Project Date

Advicer

February, 2017 - June, 2017

Prof. Xu Hongpeng A/Prof. Yang Gang A/Prof. Yu Zhinan

Location Mount. Dabie, Xinyang, Henan, China

Type & Software Opera House / Curricular Project / Individual Revit / Rhino+Grasshopper / Vray

Description The purpose of this design is to exercise the design ability of large-scale exhibition space, interior acoustic environment and architectural form in a dominated natural environment. The design takes the local paper-cutting art in Henan as the cutting point and integrates it into the façade design; the building conforms to the trend of the Dabie Mountains in terms of volume, and naturally forms the assessible roof platform.

Location

Henan, PRC

Xinyang, Henan

Mount. Dabie, Xinyang

Concept Interpretation Screen Screen is a white curtain. When acting, the artists behind the screen control opera characters.

Glass material on facade

Opera characters They are silhouettes made of leather and cardboard, and are the actors of the shadow play.

Facade texture, visitors

Light It is the medium. The stor y is interpreted through light transmittance difference between silhouettes and the light curtain.

Interior light and environmental light

Interior

Exterior

During the day, visitors indside are the audience. Eenvironmental light serves as the medium and shows the "play" of exterior through the facade.

Exterior

On the night time, visitors outside are the audience. The interior light penetrates to the exterior and shows the "play" of interior.

1:1200

Ground Floor Plan 1:600

Auditorium Acoustics Analysis

Renderings

Elevations 1:800

Living Device Project Date

Advicer

July, 2015 - August, 2015

Miguel Gentil Fernández， (bau)m Arquitectura

Location Daowai D.C., Harbin, China

Type Reconstruction Design / International Joint Workshop / Individual

Description Daowai D.C. is this district where is abundent of Harbin's charateristic architecture, though most of them are in disrepair and endangered. This workshop aimed to provide a feasible approach to reutilize those old buildings by doing some break through on the living units, and we finally came up with the design that can attract various groups of generations to participate in the mixed lifestyle of the courtyard to re-activate the place.

New Spaces

Site Plan

I Propose two concepts on the interior courtyard. The first proposal is to install glass structure suspended on both sides of the corridor in order. Then the second suggestion will be adding extra corridor to suround the interior courtyard on the uppor floor for the sake of the improving connection towards habitants.

Design Processes There are three principal processes to architectural generation including removing provisional constructions, building public facilities, creating joint boxes.

Remove provisional constructions The step is to clear the interior yard in order to furnish the activities for floks, and also for the imminent reconstruction.

Add exterior horizontal and vertical connection

Introduce "Glass Boxes" & reconstruct

The step is to create intimate atmosphere among the residents, they will have easier access to their neighbors and some public spaces inside the courtyard.

The step is to join some joint glass boxes into interior space to create public spaces, also the remake of the discarded theater can be the public center of the community.

General Plan

10 12

7 14

6 6

4 5

1. 入口大廳 2. 厠所

15 1

3. 儲存空間 4. 互動區域

5. 休息區域 6. 住商戶型

7. 套房 -1 8. 玻璃盒子 -1

9. 玻璃盒子 -2 10. 玻璃盒子 -3

11. 套房 -2 12. 可變式居住單元

13. 套房 -3 14. 圍合内院

Facade The traditional facade has been preserved with some new units added inside, which the facade can be more vibrant. 9.600 7.700

3.900

±0.000

1:400

Theater Reconstruction Strategies

The reconstruction mainly remains the original structure and the pattern of interior. Some measures are taken to strengthen the existing structures, and the interior functional arrangement chiefly obeys the originality of the previous theatre in order to manifest the sense of historical inhertitance.

Topping Layer Cement Mortar Layer Triple-Layers Insulation Window Insulation Layer Water Barrier Sloping Leveling Layer Structure Layer

Metropolis Pavilion Project Date

Advicer

April, 2014 - June, 2014

A/Prof. Liang Jing

Location Taichung, Taiwan

Type Leisure Architecture Design / Curriculum / Individual

Description This was a city public recreation center design, and I defined that the theme will be an art pavilion due to the fact that the double axises that I conceived on the begining of the course. Therefore this was not only a specific exercise of typical type of architecture, but also the initiation of macro urban composition design. Also, the theme of my design was multi-level of traffic flow for visitors. This was a stimulating experiment of vertical connections.

Project Area

Site Generation Hsitun District, Taichung, Taiwan

Hsitun District, Taichung, Taiwan

? Ⅰ . Site The base is a desolation space near the CBD of Taichung.

Ⅱ . Remain The base retains part of naturally occuring virescence. City Hall

Location: Taichung, Taiwan Taichung is the political, economical and the cultural center of middle Taiwan. The Art museum is located in the 8th Development Zone of the city, where currently municipal government and the Taichung Opera House are located.

City Council Ⅲ . Horizontal Volume The remaining restricts and determine the scale of the design in plane.

Taichung Opera House

Taichung Opera House Taichung City Hall

Ⅳ . Urban Axis Administration axis which connect city hall and city council is nearby.

City Hall

City Council Ⅴ . Cultural Axis Extend reachability of the pavilion to create a cultural axis create connection to Taichung Opera House that is perpendicular to the axis

Ⅵ . Convergence Area Height difference of the field compares to that of the surrounding can express the distinctive of territorial feeling.

Ⅶ . Roof Design Control the gradient of the roof to make sure that the accessibility of the visitors to enrish the spacial experience.

Ⅷ . Final Solution According to the previous steps, the architecture is designed generally, and some deteils are followed in the next designing process.

ART MUSEUM

Taichung City Council

Privacy Principle According to the four rules showed on the right, the interior of the art museum can be differentiate into two main parts, that is public space and private space. None of the inner space can be excluded from the rules, thus the interior space is of decipline.

Rule 1

Rule 3

When contact with the curtain wall of the architecture facade, then the space nearby will be public zone. Nevertheless, the specially designated space will not contain the whole interior unobstructed space.

Vertical connections of the interior such as stairs and rampways will be recognised as public space. Some of them will place some facilities to enhence the possibilities of event occurence.

Rule 2

Rule 4

When the specially designated space is surrounded by the public space, then the specially designated space will be the private zone, and the delimit boundary will be decorated by some mild partition, e.g., glass wall, facilities.

When one specially designated space is of single entrance and the sole connection is distinguished as the public zone, then the specially designated space will be recognised as the private space.

Private Space Public Space

Section The whole design is based on the usage of vertical connections. All these connections serve for different functions such as spacial partition, part of the signage system 14.600

10.400

6.400 4.200 3.000 1.300 ±0.000

1:250

First Floor Plan 1:600

11 10

1. 2. 3. 4. 5. 6.

Resting Area Office Exhibition Room 1 Toilet Exhibition Room 2 Exhibition Room 3

7. Rampway 8. Entrance Hall 9. Exhibition Room 4 10. Resting Area 11. Souvenir Shop 12. Device Room

Second Floor Plan 1:600

4 5

3 6 7

1. 2. 3. 4. 5. 6.

Flowing Space 1 7. Rampway Flowing Space 2 8. Resting Area Exhibition Room 5 9. Exhibition Room 6 Toilet 10. Resting Area Storage Mobile Exhibition Space

Qianhai Subscription Project Date

Advicer

April, 2016 - August, 2016

Prof. Luo Peng

Location Qianhai D.C., Shenzhen, China

Type Museum Design / Competition / Collaboration

Description How to balance the paradox between urban development and existing culture patterns presevation is on the top of a majority of city decision makers' agenda. And Qianhai Subscription was an avant-garded attempt to this hot topic with the introduction of the 3-Dimensional recording technology and virtual reality to reappear the past and the developing process of the district.

Introduction

Time Line

Concept

Qianhai D.C. is a newly-developed unrban zone in Shenzhen, China. Before the exploit plan of the area had been decided by the urban planner, Qianhai was a small fishing village with its distinctive both natural and cultural features. Thus, with the rapid development, the area will face the following problems,

Year 1573 The Birth of Shenzhen.

1. Existing features are dying

Year 1978 Chinese Reform caused great changes in the city.

Present

Year 2013 The city lost memories of its past while its economy boomed. Qianhai D.C. was newly planned.

Past

According to the research, the fishing culture is dying and the aborigines are forced to move out, this will cause severe cultural vacuum to the area which will be adverse to the future development and regional identifiability. However, it is inevitable to dismiss the urbanization process cause the ever-increasing materialistic demand of the public. The existing lifestyle and economical structure are of low effectiveness, so the replacement is irrevocable. Therefore designing a existing culture container will be on the top of our agenda, and designing an architecture combining the usage of virtual reality technology will be a good choice for us. 2. The feasibility of using VR Before we started this project, we had a profound research on the technology of VR, because we need to collect the data of the native living styles and the developing process of the city, the VR cameras must have weather resistance and outstanding stability. Finally we found that the device is strong enough.

Site Plan 1:3000

This museum is based on the situation that the area is under an enormous change. Thus we intriduce a new concept of using visual technology such as VIRTURAL REALITY and AUGMENTED REALITY to compare with present view. Also we introduce a new notaion to fit in this new type of museum, that is the structure of WECHAT, defining the features of this software and analogy to the space of the museum. Finally we combine all of them together and a new museum is generated.

R, Reality AR, Augmented Reality VR, Virtural Reality

Future Villages and vernacular buildings of Qianhai will be pulled down. Measures msut have taken to prevent the city from becoming a strange place

Exploded View

Roof Roof windows provide vertical eye contact and vertical ventilation.

Exhibition Area The area provides various routes for visitors to choose , and the exhibition boxes are the place where we compare the difference between past and present by using VR and AR.

Space Logic

Info Pushing The exhibition part. This area uses the technology of VR. People will see the temporary scenery of the city and see what was going on in the past by VR. This provides a straightforward comparison between now and past.

Chatting+Info Pushing A Regional Center that serves for the connection between different exhibition halls and other space.

Info Pushing+Share with

General Asile This element is the "INDEX" of the museum which can guide the visitors to all the different part of the museum by connecting to every regional center

This space is a private sharing facility that provides space for visitors to share with some friends. Share With When visitors see something interesting, record and share it in this particular "space of network" in the museum. It is an another exhibition where veryone's sharing will be showed in the area. Info Pushing+Share With This space combines Share With and Info Pushing. The space is a chatting room for visitors whos share the similar opinions with each other. Chatting

Carrier The carrier of Qianhai Substitution is a pedestrian bridge of the Qianhai D.C.. This type of museum can be duplicated to different places.

The type provides space for visitors to have brief chat. This is a space of permeability and a little installation.

Interior Intention map Several possible activities for the interior due to the fact of flexible inner space.

Sectional View There are several "boxes" adhereing inside the museum, these are the room for VR observers, they can easily get the view of every recorded era by the device of VR, and they can compare the past and present by switching from the scene of VR to reality.

34.500

29.000

24.000 22.600 20.500 18.000 17.000 15.000 13.000

6.000

Floor Plan Demonstration

Lambrate Inclusive Housing Project Date

Advicer

March, 2019 - July, 2020

Prof. Daniale Fanzini Prof.

Location Lambrate, Milan, Lombardy, Italy

Type & Software Mix Generation Apartment / Inclusive Design / Curricular Project / Individual Revit / Vray

Section

Housing Typologies Demonstration

Bedroom

Bathroom

Social Space

Living Typology D-1 Typology Code Interior Area Applicable Group

Two Bedrooms with Individual Bathrooms Suite 61.2 ㎡ Small family with one child Two people / couples

1. Serves for groups of people who want to have full living functions. 2. Better privacy by the design of two individual bathrooms for bedrooms. 3. Shared social area 4. Individual balconies

B C

Structure Concept The building adopts the suspended structure system, with giant steel truss columns (located at the four corners) and structural transfer floors (every five floors) as the main structure. The loads of the other floors are connected to each structural transfer floor above by means of suspension structure. The suspension system ensures the continuity of the floor, making the layout more flrxible, and the giant steel truss column serves as the vertical traffic space and auxiliary function of the building.

City Epitome Project Date

Advicer

November, 2016 - January, 2017

A/Prof. Lian Fei

Location Daoli D.C., Harbin, Heilongjiang, China

Type & Software Office / High-Rised Design / Curricular Project / Individual Sketchup

Section

Elevation

On-Line City Urban Design

Term Type Tutor

2016.9 - 2016.11 Curriculum Design A/Pro. Xue Binxia

Sketch

Grasshopper Modeling