Tianyi Chen Portfolio by sky chen

CONTENTS THESIS:

01 E - LIFT, FUTURE HOUSING DESIGN DESIGN STUDIO:

02 03 04 05

WILD LIFE CULTURE CENTER FROG SKELETON GALLERY ARCHITECTURE DEPARTMENT DESIGN UNIVERSITY STUDENT CENTER

COMPUTAION & FABRICATION:

06 07 08 09 10 11

BRICKOLOGY PHOTOPEDIA HYPERTHREAD STIGMERGY PATTERN VAULT FOLDING TABLE TOPOLOGY OPTIMAZATION BOOKCASE

Professional Projects:

12 SHANGHAI GREENLAND MALL AND HOTEL 13 SHENZHEN SHANGSHA MIXED USE COMPLEX WORKSHOP TEACHING:

14 HUNAN UNIVERSITY CV

Part I: Academic Projects

1. E - LIFT

FUTURE HOUSING DESIGN

Thesis: Three Dimonsion Circulation System on Facade of Housing Project Tutor: Robert Stuart Smith Team: Steven Young, Vinith TK, Lei Yang Time: May. 2013 - Jan.2014

The project is about creating a new circulation on housing facade, which is a three dimensions moving lift system. This will change the topology of architecture by eliminating the traditional core vertical circulation. The stigmergy code is used for optimized path finding, which means in a specific area, the building topology will be efficient enough for overall lifts running. The housing facade is made by steel, and the lift carrying magnet wheels could run on the building. The facade of building is changing with different timeframe of opening and closing windows patterns when lifts run on it. The interior pumping system is set by flexible pipe, while electricity system is applied with wireless power for transferring.

The traditional housing has two types normally for its circulation. One is corridor connected type, the other is core connected. For both of those, they are lack of social interacts in daily life. And in a urban model, it causes urban sprawls and uninteresting extrusions.

stigmergy pattern

form finding models

traditional circulation

new circulation

possibilities of topology changes in single building with lift on facade

generation process

traditional circulation

ground circulation

external circulation

external circulation unit

possibilities of topology changes in urban with lift system final connections

remodeling

3.0 m level

20.0 m level

40.0 m level

65.0 m level

wind pression analysis

solar access analysis

different form finding topology

sections

prototype study

Arduino mini

Arduino controlled 3600 Servo single wheel

two wheels

external power source for Servo's

wheel for embeding the magnets

Permenant magnets

access to ground

sliding facade partition

interior

sliding facade partition

balance floor study

access to interior

main frame solenoid

3D rotation carriage solenoid

solar panel

driving wheel

facade and lift system

- wireless energy emitters-

- main apartment -

- sliding shafts -

facade opening system

all closed

one, three open, two closed

facade and lift models

one, two open, three closed

one open, two, three closed

one, three closed two open

all open

- steel mesh -

- lift -

facade opening simulations

service panel

receptacles

old electricity system

service panel

wireless source

wireless power system

plumbing hub

toilet bath

plumbing hub

wireless power activated by different living behaviors

plumbing hub

plumbing system

2. WILD LIFE CULTURE CENTER Academic Design Study, 2014 Tutor: Robert Stuart Smith Team: Yue Wang

This culture center is about wild fields lives. There are an exhibition, a market, view tower and offices in this building. The shape of building is like a swan swimming in such beatiful wild field. The facade of the tower is parametrically influenced by sun effect, which is eco friendly for environment. The market roof is like fluid flowing into the building, of which cover is of various size, giving changing shadow in different time. And the circulation of museum is clear and provide interesting experience with constant contact of people and outdoor view. The groud floor is an open space to public not only for inviting visitors but also breath nature air of wild field.

aluminum cover

glass

structure

roof explosion digram

roof unfold components

floors

skins

floors + skins

cover

structure beam

viewing platform

research center floor

facade components yearly shadow analysis

floor section structure

library circulation

market facade solar access analysis

exhibition

ecotect analysis

subdivision by analysis

water system

winter time shadow analysis

3. FROG SKELETON GALLERYE Academic Design Study, 2008 Architecture Topology Evolution Tutor: Jing Zhang

This project is inspired by skeleton of frog head. At first, it is about study the basic structure principle of head skeleton. Then integrating space design, the form is developing step by step. Finally, with consideration of circulation and function, the building gets two country yards with different sizes, which looks like the opening and enclosure space of the skeleton.

structure form finding

site

entrance

building site

function

program arragement

wind

plan

circulation

architecture

cover

structure

floors

facade

roof

architecture

4. ARCHITECTURE DEPARTMENT DESIGN Academic Design Study, 2009 Multiple Mixed Programes Tutor: Jin Luo

The architecture department design is in a 75m long site, challenging by mixed multiple programs, within library, architecture department, and administration office. There are six cross bridges in the coutyard of library, increasing more visual contact. The architecture department shares one three stories lobby, and two atriums, providing space for student works reviews and exhibitions.

program arrangement

floors arrangement

section

5. UNIVERSITY STUDENT CENTER Academic Design Study, 2010 Structure and Space Tutor: Biao Hu

This student center is near Taozi lake in Changsha, including a climbing center, height view center with cafe, restaurant, and several workshop and associations for student activities. The large structure roof connects all these space together and create a public semi-open space for events, such as concert. The landscape is planted by different species flowers, suited for four seasons.

floors

forms and structure

landscape

6. BRICKOLAGE Computation and Fabrication, 2011 ETH Zurich, Chair of CAAD Form Finding with Masory Team: MAS CAAD 2011/2012 students Tutor: Mathias Bernhard, Manuel Kretzer, Tom Pawlofsky

This project was developed in ETH Zurich, chair of CAAD with the aim to explore the relationship between architectural design, diverse methods of generative computer modelling, the importance of materiality(in this case, Ytong-aerated concrete) in the digital age and the physical representation of information using CAD/ CAM devices( Kuka robot).The brief requirements are thinking beyond parameterization and exploring the computer as a tool for generating an aesthetically appealling structure, which couldn't be done manually. The design concept was based on a Reaction - Diffusion algorithm, programmed in Processing for creating a three-dimensional self-standing structure. Design was adjusted towards a voxelization of the structure, due to the limited cutting-angle of the robot (45 degrees), a simpler setup process and a more homogeneous and smoother surface. The orientation of the 1148 individual bricks was adjusted depending on the overall curvature of the shape. The resulting elements were intersected with the main geometry and grouped into several modules depending on load and assemblaility. Fabrication with seven-axis robot was developed and continously improved - the jigsaw, specialized blades and clamping mechanisms. Final structure consisted of six separated elements. Each element was built manully by glueing digitally fabricated bricks together. 350kg of specialized Ytong glue plus an additional 50kg of strong cement glue were used

form finding and FE analysis

panelized logic

7. PHOTOTROPIA Computation and Fabrication, 2012 ETH Zurich, Chair of CAAD A Self-Sufficient Architectural Version Team: MAS CAAD 2011/2012 students Tutor: Manuel Kretzer

Phototropia was a project focusing on the application of smart materials in an architectural context. It merges self-made electroactive polymers, screen-printed electroluminescent displays, eco-friendly bioplastics and thin-film dye-sensitized solar cells into an autonomous installation that produces all its required energy from sunlight and responds to user presence through moving and illuminating elements. The generated energy is stored in batteries below the platform and then distributed via micro controllers to the respective elements. Phototropia finds its inspiration in participative and transient systems, proposed by visionaries like Yona Friedman or Constant Nieuwenbuys paired with a naive curiosity for self-made (smart) materials and an aversion towards mechanistic kinetic systems. It is a proposal for an experimental architecture that can decay while actively being renewed, as a response to our times of tremendous globalization, increased connectivity and digital identity within our information based society.

silicon insulation layer conductive power 5 * prestretched acrylic polymer film conductive power silicon insulation layer acrylic frame

self-made electroactive polvmers

5,000 V power connection

principle of electroactive polvmers

screen printed electroluminescent elements

eco-friendly bio-plastics

DVE sensitized solar cells

site analysis plan

walking space

plan

Working space Working space Exhibition space

Exhibition space Meditation space

form finding

added new path original path

plan

section

8. HYPERTHREADS Computation and Fabrication, 2010 Hunan University, D[a]L + ZAHA CODE workshop Circle Packing Algorithm in Component Aggregation Team: D[a]L students Tutor: Shajay Bhooshan, Biao Hu, Yu Du

By looking into tensile structure, we developed a fully tensioned continuous steel cable surface based on Maya 2011 nCloth analysis tool. This surface offers a perceptible interior shelter as ceiling and allows sunlight penetrating through a dynamically distributed circle packing field. Within the formal language of the surface itself, tension are evenly distributed to each single circle while the surface spreading/stretching itself into the space.All the circles and edge steel cables work together as a tensile structural system, and all the anchor points, steel cable memberâ&#x20AC;&#x2122;s length, numbers of circle patterns are all evaluated/generated from varies of digital tools, hence gangrenes the precision in construction, and provide a more realistic budget and cost control . As a result from this designed ceiling, the interior space of D[a]L studio changed from a conventional cubic space into a multiple layered space, and providers the space users a more dynamic and volumetric spatial experience.

force vector

force FEA

form

surface

subdivision

circle packing

condition 01

condition 02

condition 03

condition 04

condition 05

condition 06

condition 07

condition 08

condition 09

condition 10

condition 11

condition 12

condition 13

condition 14

condition 15

condition 16

condition 17

condition 18

condition 19

condition 20

9. STIGMERGY PATTERN Computation and Fabrication, 2012 AADRL Computation Study Optimal Path Logic Tutor: Robert Stuart Smith

The stigmergy algorithm is about finding optimal short network path in a specific area. In different setup area, the agents will connect and generate different dense, size pattern, because the agents can read information of terrain, such as height, then choose to avoid or go through. The final iso-surface is the path running by agents, which is more like space of a pavilion or bridge, which to connect the boundary of site, and develope as a network.

10.VAULT FOLDING TABLE Computation and Fabrication, 2012 AADRL Computation Study Compression Only Structure Research Tutor: Shajay Bhooshan

If a table is a compression only structure, the more load, the much stabler. The plugin "RhinoVault" developed by ETH Prof. Block, is the computation tool to generate form which is compression only structrue. The component is made by paper folding. In the bottern of the component, they are connected by weaving.

testing compression of compoents

connections bewtween componets

different conncetions result in various curvatures

11.

BENCH & BOOKCASE TOPOLOGY OPTIMIZATION

Computation and Fabrication, 2013 ZAHA CODEworkshop, Mexico Generic Algorithm with Topology Optimization

This bench design is based on topology optimization technology in Solidthinking. The material for basic structure will remain, the rest part will be eliminated. In different structure requrement condition, the optimal form would be various. Intergrating with function, the form will be rebuilt in Maya. With the generic algorithm, it can generate thousands of low-poly form in one second.

structure topology optimization

re-model in Maya

GA algorithm

Part II: Professional Projects

12.

Shanghai Greenland Hongqiao Mall and Hotel

Site Plan

Function Programs

Mall Shop Facade System

Mall Lift Diagram

Mall Lift Logistic Diagram

Advertisement Facade System 1-A

1-A

1-B

1-A

KEY PLAN

D KEY PLAN

MIR. 2%

KTV

G-G

1:100

KTV

G-G

1:100

D-D

Facade System and Section

1:100

002

D-D

1:100

001

KEY PLAN

LED LED

= 244.771mÂ˛

)

Mall Facade Detail Plan

001

1:200

1-3

2-B 2-C

1-4

+4.550

Mall Facade Cooridinate Plan

1:150

1:100

1:150

Mall Facade Mockup Model

Mall Double Curvation Panels Diagram

Mall Plane and Double Curvation Panel Optimation Diagram

Hotel Function Diagram

Hotel Elevation

A 2D-RCP B C

D Aluminium Soffit Panel Edge

AH-60-18 Detail See AH-60-18

F G

A Secondary Structure as ISO-Curve control point

B C

H J

E A F B

G H

C J K D

Notes: Red Lines Indicate ISO-Curve A-H-50-52 ISO-Curve control point location see A-H-50-52 A-H-50-53 to 61 For AL. soffit panel types and dimension see A-H-50-53 to 61

G -

ISO-Curve control point location

1:200

Hotel Canopy

Hotel Canopy Section

Hotel Canopy Panel Data

ISO-Curve A Points Number: Levels: A0 15.980 A1 15.968 A2 15.932 A3 15.872 A4 15.789 A5 15.682 A6 15.553 A7 15.402 A8 15.231 A9 15.053 A10 14.858 A11 14.665 A12 14.477 A13 14.283 A14 14.079 A15 13.878 A16 13.691 A17 13.518 A18 13.356 A19 13.207 A20 13.066 A21 12.933 A22 12.799 A23 12.648 A24 12.599

ISO-Curve B Points Number: Levels: B0 15.538 B1 15.528 B2 15.498 B3 15.448 B4 15.378 B5 15.289 B6 15.180 B7 15.053 B8 14.908 B9 14.752 B10 14.582 B11 14.419 B12 14.262 B13 14.092 B14 13.899 B15 13.702 B16 13.519 B17 13.350 B18 13.193 B19 13.049 B20 12.915 B21 12.786 B22 12.653 B23 12.532

ISO-Curve C Points Number: Levels: C0 15.096 C1 15.088 C2 15.063 C3 15.022 C4 14.964 C5 14.890 C6 14.800 C7 14.695 C8 14.573 C9 14.442 C10 14.300 C11 14.154 C12 14.031 C13 13.900 C14 13.740 C15 13.540 C16 13.370 C17 13.209 C18 13.059 C19 12.922 C20 12.797 C21 12.674 C22 12.544 C23 12.466

ISO-Curve D Points Number: Levels: D0 14.654 D1 14.647 D2 14.627 D3 14.594 D4 14.547 D5 14.487 D6 14.414 D7 14.328 D8 14.230 D9 14.119 D10 14.002 D11 13.877 D12 13.781 D13 13.687 D14 13.568 D15 13.407 D16 13.246 D17 13.089 D18 12.950 D19 12.823 D20 12.705 D21 12.597 D22 12.485 D23 12.402

ISO-Curve E Points Number: Levels: E0 14.211 E1 14.206 E2 14.190 E3 14.164 E4 14.127 E5 14.080 E6 14.023 E7 13.954 E8 13.875 E9 13.789 E10 13.696 E11 13.592 E12 13.509 E13 13.432 E14 13.359 E15 13.261 E16 13.105 E17 12.977 E18 12.854 E19 12.740 E20 12.636 E21 12.540 E22 12.445 E23 12.341

ISO-Curve F Points Number: Levels: F0 13.769 F1 13.765 F2 13.753 F3 13.733 F4 13.705 F5 13.670 F6 13.626 F7 13.575 F8 13.516 F9 13.449 F10 13.376 F11 13.298 F12 13.226 F13 13.174 F14 13.123 F15 13.059 F16 12.963 F17 12.854 F18 12.749 F19 12.654 F20 12.567 F21 12.487 F22 12.412 F23 12.336 F24 12.275

ISO-Curve G Points Number: Levels: G0 13.327 G1 13.324 G2 13.315 G3 13.301 G4 13.281 G5 13.256 G6 13.225 G7 13.188 G8 13.146 G9 13.098 G10 13.046 G11 12.990 G12 12.931 G13 12.894 G14 12.855 G15 12.819 G16 12.778 G17 12.698 G18 12.619 G19 12.546 G20 12.478 G21 12.417 G22 12.359 G23 12.306 G24 12.251 G25 12.207

ISO-Curve H Points Number: Levels: H0 12.885 H1 12.883 H2 12.877 H3 12.868 H4 12.856 H5 12.840 H6 12.820 H7 12.797 H8 12.770 H9 12.740 H10 12.707 H11 12.671 H12 12.631 H13 12.605 H14 12.582 H15 12.561 H16 12.537 H17 12.501 H18 12.450 H19 12.401 H20 12.356 H21 12.315 H22 12.277 H23 12.241 H24 12.208 H25 12.174 H26 12.137

ISO-Curve J Points Number: Levels: J0 12.442 J1 12.441 J2 12.439 J3 12.435 J4 12.428 J5 12.421 J6 12.412 J7 12.401 J8 12.388 J9 12.373 J10 12.358 J11 12.340 J12 12.322 J13 12.306 J14 12.295 J15 12.285 J16 12.274 J17 12.263 J18 12.242 J19 12.218 J20 12.196 J21 12.176 J22 12.157 J23 12.139 J24 12.123 J25 12.107 J26 12.092 J27 12.075 J28 12.068

ISO-Curve K Points Number: Levels: K0 12.000 K1 12.000 K2 12.000 K3 12.000 K4 12.000 K5 12.000 K6 12.000 K7 12.000 K8 12.000 K9 12.000 K10 12.000 K11 12.000 K12 12.000 K13 12.000 K14 12.000 K15 12.000 K16 12.000 K17 12.000 K18 12.000 K19 12.000 K20 12.000 K21 12.000 K22 12.000 K23 12.000 K24 12.000 K25 12.000 K26 12.000 K27 12.000 K28 12.000 K29 12.000

Panel Type B: Quantity Ratio: 14.11% Dimension:(mm) Panel Number: AB BC CD DA 6 1000 2526 1081 2530 7 1000 2526 1081 2530 8 1000 2526 1081 2530 9 1000 2526 1081 2530 10 1000 2526 1081 2530 11 1000 2526 1081 2530 12 1000 2526 1081 2530 34 1000 2526 1081 2530 35 1000 2526 1081 2530 36 1000 2526 1081 2530 37 1000 2526 1081 2530 38 1000 2526 1081 2530 39 1000 2526 1081 2530 61 1000 2526 1081 2530 62 1000 2526 1081 2530 63 1000 2526 1081 2530 64 1000 2526 1081 2530 65 1000 2526 1081 2530 68 1000 2526 1081 2530 87 1000 2526 1081 2530 88 1000 2526 1081 2530 2526 1081 2530 89 1000 110 1000 2526 1081 2530 111 1000 2526 1081 2530 112 1000 2526 1081 2530 113 1000 2526 1081 2530 134 1000 2526 1081 2530 135 1000 2526 1081 2530 136 1000 2526 1081 2530 156 1000 2526 1081 2530 157 1000 2526 1081 2530 158 1000 2526 1081 2530 178 1000 2526 1081 2530 179 1000 2526 1081 2530 180 1000 2526 1081 2530

AC 2729 2729 2729 2729 2729 2729 2729 2729 2729 2729 2729 2729 2729 2729 2729 2729 2729 2729 2729 2729 2729 2729 2729 2729 2729 2729 2729 2729 2729 2729 2729 2729 2729 2729 2729

2-A

20% 2%

1:25

BPI

1:25

2-A

1:100

Hotel Section

1:100

Hotel Skylight Design and Data

Aluminium Panel division and dimension for Skylight

(

1-49)

(

50-93)

(

94-177)

(

178-179)

Glass panels division and dimension for Skylight (Quadrilateral panels)

Division of Aluminium Panel on Skylight (Number 1 to Number 49)

Division of Aluminium Panel on Skylight (Number 94 to Number 177)

Edge BC (mm)

Edge CD (mm)

Edge DA (mm)

Edge AB (mm)

Edge BC (mm)

Edge CD (mm)

Edge BA (mm)

Edge CD (mm)

Edge AC (mm)

Edge DB (mm)

151

1211.063

3000.000

1154.560

1297.553

2477.996

1199.858

253.741

1291.639

732.064

1199.998

3000.000

1199.998

3000.000

152

1211.063

1211.064

3000.000

1428.859

2224.255

1199.858

3000.000

1199.868

1458.441

1285.534

1920.052

1200.184

3000.000

1200.184

3000.000

153

1210.313

1210.310

3000.000

1402.703

2273.623

1199.868

3000.000

1199.906

2599.603

1279.189

3043.204

1200.513

3000.000

1200.513

3000.000

154

1210.310

1210.308

3000.000

1201.037

3000.000

1201.038

3000.000

155

1210.308

1210.306

3000.000

Number

Division of Aluminium Panel on Skylight (Number 94 to Number 177)

Edge AB (mm)

1458.670

1379.101

2320.449

1199.906

3000.000

1199.998

678.145

1272.602

1102.205

1357.794

2365.058

1199.998

3000.000

1200.184

1694.475

1265.828

2097.300

1201.038

3000.000

1201.040

3000.000

156

1208.210

1208.205

3000.000

1338.581

2407.729

1200.184

3000.000

1200.513

2648.603

1258.987

3028.464

1201.781

3000.000

1201.780

3000.000

157

1208.205

1208.200

3000.000

1201.040

540.301

1252.257

895.572

100

1201.780

3000.000

1201.779

3000.000

158

1208.200

1208.195

3000.000

1321.310

2448.697

1200.513

3000.000

1305.864

2488.163

1201.037

3000.000

1201.779

1369.278

1245.904

1698.908

101

1202.742

3000.000

1202.744

3000.000

159

1205.276

1205.283

3000.000

3000.001

1292.134

2526.294

1201.781

3000.000

1202.747

2135.675

1240.106

2438.947

102

1202.744

3000.000

1202.747

3000.000

160

1205.283

1205.290

3000.000

3000.001

1279.991

2563.233

1202.742

3000.000

1200.279

2839.853

1235.085

3117.358

103

1203.821

3000.000

1203.821

3000.000

161

1205.290

1205.297

3000.000

3000.001

1204.845

483.387

1230.887

736.787

104

1203.821

3000.000

1203.821

3000.000

162

1202.066

3000.000

1269.255

2599.094

1203.821

3000.000

1259.671

2633.974

1204.851

3000.000

1205.582

1068.833

1227.169

1299.676

105

1204.851

3000.000

1204.849

3000.000

163

1202.066

3000.000

1250.921

2667.955

1205.585

3000.000

1205.749

1593.738

1214.632

1742.124

106

1204.849

3000.000

1204.847

3000.000

164

1202.066

3000.000

1241.503

2705.938

1205.747

3000.000

1205.123

2005.897

1208.234

2094.305

107

1204.847

3000.000

1204.845

3000.000

165

1199.129

1199.128

3000.000

1205.585

3000.000

1205.584

3000.000

166

1199.128

3000.000

1234.025

2736.227

1205.119

3000.000

1203.630

2331.056

1204.754

2384.827

108

1227.025

2763.250

1203.634

3000.000

1201.459

2595.001

1201.698

2620.595

109

1205.584

3000.000

1205.583

3000.000

167

1196.816

3000.000

1219.971

2789.826

1201.461

3000.000

1199.003

2804.568

1199.004

2808.434

110

1205.583

3000.000

1205.582

3000.000

168

1196.816

3000.000

1213.237

2816.028

1199.007

3000.000

1196.869

2966.493

1196.942

2954.150

111

1205.747

3000.000

1205.748

3000.000

169

1195.296

1195.295

3000.000

1207.389

2841.941

1196.870

3000.000

1195.681

3086.497

1195.991

3059.834

112

1205.748

3000.000

1205.749

3000.000

170

1195.295

3000.000

1203.046

2867.653

1195.680

3000.000

1195.907

3166.585

1200.181

3065.548

113

1205.749

3000.000

1205.749

3000.000

171

1194.564

3000.000

1200.677

2893.249

1195.907

3000.000

1197.690

3146.474

1204.026

3023.122

114

1205.119

3000.000

1205.121

3000.000

172

1194.564

3000.000

1200.748

3078.780

1208.823

2938.614

115

1205.121

3000.000

1205.122

3000.000

173

1194.497

3000.000

1200.420

2918.797

1197.690

3000.000

1201.994

2944.343

1200.740

3000.000

1204.386

2968.707

1214.909

2808.067

116

1205.122

3000.000

1205.123

3000.000

174

1194.908

3000.000

1204.737

2969.907

1204.387

3000.000

1207.783

2812.585

1221.852

2626.289

117

1203.634

3000.000

1203.633

3000.000

175

1195.602

3000.000

1207.801

2995.481

1207.794

3000.000

1210.183

2605.241

1229.405

2387.079

118

1203.633

3000.000

1203.631

3000.000

176

1196.409

3000.000

1211.064

2387.079

1237.808

2129.424

119

1203.631

3000.000

1203.630

3000.000

177

1197.205

3000.000

1210.398

3021.048

1210.186

3000.000

1212.024

3000.000

1211.062

2953.410

1210.306

2082.834

1247.690

1777.904

120

1201.461

3000.000

1201.460

3000.000

1212.567

3000.000

1210.313

2927.896

1208.195

1705.800

1260.150

1345.932

121

1201.460

3000.000

1201.459

3000.000

1212.292

3000.000

1208.210

2902.391

1205.297

1248.322

1276.414

826.571

122

1201.459

3000.000

1201.459

3000.000

1212.777

3000.000

1205.276

2866.894

1202.066

693.467

1295.903

207.821

123

1199.007

3000.000

1199.006

3000.000

1212.905

3000.000

1202.066

2839.700

1199.127

3046.206

1295.820

2555.038

124

1199.006

3000.000

1199.004

3000.000

1213.810

3000.000

1199.129

2813.094

1196.816

2368.133

1282.323

1906.593

125

1199.004

3000.000

1199.003

3000.000

1195.295

1692.768

1270.230

1262.006

126

1196.870

3000.000

1196.870

3000.000

1215.965

3000.000

1196.816

2786.175

1219.562

3000.000

1195.296

2758.855

1194.564

1020.861

1259.594

620.618

127

1196.870

3000.000

1196.869

3000.000

1224.629

3000.000

1194.564

2731.058

1194.497

3351.677

1250.112

2982.365

128

1196.869

3000.000

1196.869

3000.000

1231.075

3000.000

1194.497

2702.725

1194.908

2685.090

1241.545

2347.551

129

1195.680

3000.000

1195.680

3000.000

1195.602

2021.356

1233.757

1716.570

130

1195.680

3000.000

1195.680

3000.000

1238.750

3000.000

1194.908

2673.805

1247.499

3000.000

1195.602

2644.259

1196.409

1360.829

1226.672

1089.795

131

1195.680

3000.000

1195.681

1257.196

3000.000

1196.409

2614.048

1197.205

703.843

1220.286

467.456

132

1195.907

3000.000

1195.907

3000.000

1267.764

3000.000

1197.205

2583.128

1197.911

3050.583

1214.638

2849.579

133

1195.907

3000.000

1195.907

3000.000

1279.179

3000.000

1197.911

2551.445

1198.490

2401.024

1209.792

2235.966

134

1195.907

3000.000

1195.907

3000.000

1291.465

3000.000

1198.490

2518.933

1198.937

1754.899

1205.819

1626.201

135

1197.690

3000.000

1197.690

3000.000

1304.686

3000.000

1198.937

2485.508

1199.264

1111.709

1202.789

1019.660

136

1197.690

3000.000

1197.690

3000.000

1318.937

3000.000

1199.264

2451.072

1199.491

470.731

1200.759

415.541

137

1197.690

3000.000

1197.690

3000.000

1334.330

3000.000

1199.491

2415.506

138

1200.740

3000.000

1200.742

3000.000

1351.000

2831.047

1199.780

2191.567

139

1200.742

3000.000

1200.745

3000.000

1369.093

2191.567

1199.890

1551.019

140

1200.745

3000.000

1200.748

3000.000

1204.387

3000.000

1204.387

3000.000

Glass panels division and dimension for Skylight (Quadrilateral panels)

Division of Aluminium Panel on Skylight (Number 50 to Number 93)

Edge DA (mm)

Number

1388.773

1551.019

1201.002

905.361

141

1410.227

905.361

1202.969

251.124

142

1204.387

3000.000

1204.386

3000.000

143

1204.386

3000.000

1204.386

3000.000

144

1207.794

3000.000

1207.790

3000.000

145

1207.790

3000.000

1207.786

146

1207.786

3000.000

1207.783

3000.000

147

1210.186

3000.000

1210.185

3000.000

148

1210.185

3000.000

1210.184

3000.000

149

1210.184

3000.000

1210.183

3000.000

150

1211.062

3000.000

1211.063

3000.000

Division of Aluminium Panel on Skylight (Number 178 to Number 179) Number 178 179

Edge AB (mm) 1030.958 459.272

Edge BC (mm) 1154.560 543.530

Edge CA (mm) 1211.837 251.124

Site Construction

13.

Shenzhen Shangsha Mixed Use Complex

写字楼

SOHO 塔楼

一号住宅

二号住宅

上沙一期塔楼整体剖面示意图 Overall Tower Section 1/1500, A3

Office Tower Design

吊装窗槛墙位置单元板

安装步骤4-吊装窗槛墙位置单元板

吊装可视位置单元板块

安装步骤2-吊装可视位置单元板块

安装楼板位置封堵

安装步骤5-安装楼板位置封堵

⽪᜿മ KEY PLAN

Project

A-A A-A ᴽ࣑ᔿ‫ޜ‬ሃ - ḷ߶ቲࢆ䶒മ ᴽ࣑ᔿ‫ޜ‬ሃ - ḷ߶ቲࢆ䶒മ Client

Consultant

Project

B-B

Drawing

Draw By Project

Client

Design By

Consultant Consultant

Drawing Check by

Draw By

Project Number

Scale

Design By

Consultant

Drawing

Draw By

B-B ᴽ࣑ᔿ‫ޜ‬ሃ ḷ߶ቲࢆ䶒മ 䱣ਠս㖞) Service Apartment Design ᴽ࣑ᔿ‫ޜ‬ሃ ḷ߶ቲࢆ䶒മ 䱣ਠս㖞) Design By

Client

31/F One Island East 18 Westlands Road

31/F One Island East 18 Westlands Road Quarry Bay Hong Kong

Check by

Consultant

App by Consultant

Rev.

Issue Date

Initial

Pilot Date

Description

Rev.

Issue Date

Initial

Description

Computer file

Project Number

Scale

Drawing Number

Rev.

Issue Date

Soho Design

全年太阳路径图

气候和舒适度表 Psychrometric Chart

Annual sun-path diagram 2

为利用计算流体力学模拟屋顶扰流设计 CFD simulation on the rooftop spoiler aerodynamics

高效节能外遮阳板设计研究 Energy efficient study on the design of external shading features

采光系数模拟与室内视觉舒适度研究采暖和制冷日度数 Heating Degree Days & Cooling Degree Days

Daylight Factor simulation for indoor visual comfort 5

行人区风环境模拟以促进空气流通 Pedestrian wind environment simulation for promoting air ventilation

低碳环保生态建筑立面研究 Low carbon and sustainable facade design study

月平均降雨量 Monthly Average Rainfall

Aedas 可持续设计 Aedas Sustainability

深圳气候分析 Climate Analysis of Shenzhen

深圳中洲集团上沙项目概念设计

Shenzhen Centralcon Shang Sha Concept Design Page 133

深圳中洲集团上沙项目概念设计

春分日 Spring Equinox

夏至日 Summer Solstice

秋分日 Autumn Equinox

冬至日 Winter Solstice

途和景观的设计。对于公共空间的用途而言，日照较少的空间可以用作户外活动场所，从而使得这些空间更为舒适。而对于景观设计，日照数量可以作为选择栽种植物的指标，通过这个全年平均日照时数地

早上9时 9am

图，一些需要较多阳光的植物可以适当而准确地栽种在日照较多的地块，而不需要阳光的植物则可以选择栽种在较阴凉的地方，从而保证里不同的植物均可以健康成长，减少将来的维护和更换植物的开支。 Solar access studies assist the determination of open space and landscape design. For open space, 早上11时 11am

the space with less solar access hours can be used for outdoor activity area to avoid overheating. For landscape design, the solar access hours indicate the appropriate locations for vegetation and water features. Some species require more sunshine but some require less. The study helps the designer to identify most suitable location for different species so as to guarantee their healthy

下午1时 1pm

growth and eliminate cost for replacement.

绿化空间、绿化屋顶 Greenery / Green Roof 平均每天日潜力大约6小时 Average solar access hours is around 6hrs, good for landscaping and green roof

户外休憩空间 Passive Open Space 均日照潜力为4小时，适合户外景观和休憩 Avg. 4hr sunlight potential, good fpr outdoor resting.

下午3时 3pm

主要户外活动空间 Active Open Space 阳光照射潜力较少，适合户外活动 Area with limited sunlight potential and good for outdoor activities.

3 3 2

下午5时 5pm

1. 室外全年每日平均日照小时 Outdoor annual daily solar access hour 2. 平台层全年每日平均日照小时 Annual daily solar access on podium 3. 中庭全年每日平均日照小时 Annual daily solar access on atrium 4. 地面全年每日平均日照小时 Annual daily solar access on ground

建筑阴影分析 Shadow Analysis

Page 136

公共空间太阳日照潜力分析

图例 Legend

Complex Scheme: Open Space Solar Access Potential

深圳中洲集团上沙项目概念设计

Shenzhen Centralcon Shang Sha Concept Design Page 137

办公室的布局和人员的行为也不难验证这一观点。一个纪录人们对室内环境的反应的报告显示，自然光比灯光更受欢迎，原因有二。第一，自然光能满足照明的基本要求；其次，它能让人感受到周遭环境变化的刺激。研究相信长期在灯光低下工作会对健康有损，而自然光则能减低压力和提升舒适性。 1. 在设计过程中，我们利用计算机模拟分析了建筑立面的自然采光潜力。 2. 最终的建筑布局已经最大限度地减少了建筑之间的近距离对望，从而最大化了自然采光和室外景观。 3. 从上图的结果看到，建筑的自然采光充足。分析结果显示，大部分的建筑立面的垂直采光系数都在30%以上。 4. 购物商场中庭的垂直采光系数也平均达到 20%。 Evidence that daylight is desirable can be found in research as well as in observations of human behavior and the arrangement of office space. A review of peoples’ reactions to indoor environments suggests that daylight is desired because it fulfils two very basic human requirements: to be able to see both a task and the space well, and to experience some environmental stimulation [Boyce 1998]. Working long-term in electric lighting is believed to be deleterious to health; working by daylight is believed to result in less stress and discomfort. 1.

In the design process, we have studied the daylight access potential for the towers.

2. The proposed building layout has minimized the overlooking between facades and maximized the external view access and daylight access as well. 3. The simulation results shows adequate daylight provision. Vertical Daylight Factor are above 30% on office all buildings. 4. The Vertical Daylight Factor on atrium facades is around 20%.

建筑立面采光分布图 False color of daylight access on building facade

建筑立面垂直采光系数等高线 Contour of vertical daylight factor on building facade

建筑自然采光潜力分析

图例 Legend

Daylight Access Potential Analysis

亮 Bright

自然采光

采光系数

Daylight Access

Daylight Factor 暗 Dark Page 138

暗 Dark 深圳中洲集团上沙项目概念设计

Shenzhen Centralcon Shang Sha Concept Design Page 139

阻挡东北寒风 Block the chilled breeze

通风走廊 Wind Corridor

中层高度风速矢量图 Velocity vector on mid-level

阵风可能 Potential Gust Wind

地面层行人高度风速矢量图 Velocity vector on pedestrian level

冬季自然通风潜力分析 Natural Ventilation Potential in Winter

下沉风形成d的通风走廊 Wind Corridor by downdraft wind

通风走廊 Wind Corridor

地面层行人高度风速矢量图 Velocity vector on pedestrian level

夏季自然通风潜力分析

图例 Legend 静止

Stagnant

慢

Low Speed

舒适

阵风

Comfortable

Gust Wind

空气流动速度

Air Flow Velocity

快

High Speed

深圳中洲集团上沙项目概念设计

Shenzhen Centralcon Shang Sha Concept Design Page 149

Natural Ventilation Potential in Summer

图例 Legend 静止

Stagnant

慢

Low Speed

舒适

阵风

Comfortable

Gust Wind

空气流动速度

Air Flow Velocity

快

High Speed

深圳中洲集团上沙项目概念设计

Shenzhen Centralcon Shang Sha Concept Design Page 147

14.

商业效果图 Xiamen Depot Mixed Use Complex

Retail Renderings

公寓地铁出口

休闲商业公寓

地铁出口休闲商业

公寓

0 10

总体平面布局 - 功能业态分析 MLP - Function

公寓 SA 建筑高度：45米 BLDG. Height

建筑面积：18375 m2 GFA

会所

公寓 SA 建筑高度：45米

Club House

建筑面积：2500m2

BLDG. Height

GFA

建筑面积：18375 m2 GFA

公寓 SA 建筑高度：45米 BLDG. Height

建筑面积：18375 m2 GFA

商业 SA 建筑高度：6米 BLDG. Height

建筑面积：15725 m2 BLDG. Height

设计范围面经营性范围面容积率积积 m2

建筑密度

区域/建筑性质

地下建筑面积

地上建筑面积

机动车位

地上车位

自行车位

辆

44695

71070

573

21775

15725

公寓

55125

10KV开闭所

160

573

配套公共厕所

22920

绿地率

m2 合计休闲商业

总用地面积：57747.672 m 地上计容总建筑面积：71070 m2 容积率：2.02 建筑密度：40% 绿地率：40%

57747.672

35185.127

2.02

40%

车库

廈門市轨道2号线【五缘湾南站】轨道交通用地建筑概念方案设计

总体平面布局 - 流线 MLP - Circulation

对于大多数布置于地下的商业，必须有足够的天窗，让日光洒进，陪伴顾客享受购物的体验。在负一层，我们利用站体上盖作为商业街的步行区域。宜人的尺度创造舒适的步行商业空间连接零售，餐厅和咖啡馆。这里双层商店淡化了地面于地下的界限。无论是居民或到此一游的访客都能体验连接自然的乐趣. With most of the retail below ground, it is essential to create enough skylight to allow enough daylight for visitor to enjoy their shopping experience. At B1, we used the non building zone above the metro line to make a retail street. The width allows a comfortable outdoor walking environment that connects visitors to the Retail, Restaurants and Cafes. Here, double storey shops dilutes the boundary between what is ground and what is below ground. Visitors here can experience more connectivity to nature no matter if you are living here or just visiting. 公寓楼高只有45米，是一个更能感知自然地距离。在起居室就能从视觉、嗅觉和感觉到被自然环抱。海湾与湿地公园的美景对渴望挣脱纷繁世界的每个人，都能滋养他们的内心。叠石的外观呼应这些愿望，平台在一个方向上延伸与自然融合，另一面却创造出隐逸的建筑手法。 The service apartments being just 45m high, the connectivity to nature is much more tangible. One can see, smell and feel the nature in your own living room. Coupled with breathtaking view of the Bay and the wetland park beyond the space is very therapeutic to the individual that want to feel solemn and to get away from the busy world they spend most of their time in. The design with its pebble like appearance echoes these aspirations with a material pallet that in one direction blends well with nature and the other reflects it creating a stealth like architecture. 酒店式公寓 SA 集中商业 Retail Mall 商业街 Retail Street 商业流线流线 SA Circulation 通勤流线 Commuter Circulation 地面出口 Ground Exit 廈門市轨道2号线【五缘湾南站】轨道交通用地建筑概念方案设计

的地下功能空间

ing Underground Functional Space

Section Design

气候分析 Climate Analysis

1. 2.

透彻了解厦门当地气候特征；建筑设计首重因地制宜原则。

厦门市气候资料 Climate data for Xiamen (1971-2000) 月�

一月

二月

三月

四月

五月

六月

�月

十月

十一月

十二月

全年

Month

Jan

Feb

Mar

Apr

May

Jun

Jul

Aug

Sep

Oct

Nov

Dec

Year

17.0

16.6

18.8

23.1

26.6

29.5

32.0

31.8

30.0

27.4

23.6

19.2

24.6

9.7

9.8

11.8

15.9

19.9

23.3

25.0

24.8

23.3

20.3

16.2

11.7

17.6

34.2

99.4

125.2

157.0

161.8

187.2

138.4

209.0

141.4

36.2

31.1

28.2

1,349.1

7.1

12.0

15.4

14.6

15.2

14.8

9.9

10.9

9.0

3.2

4.0

4.9

121.0

78.6

133.3

88.3

89.6

105.6

132.6

163.8

234.6

211.6

178.9

188.4

163.0

163.5

1,853.2

41.8

平均最高气温 Average high °C 平均最低气温

Average low °C

345°

15°

平均降雨量 Precipitation mm

10° 20°

330°

平均相对湿度

30°

% Humidity 平均降雨天数

30°

Avg. Rainy days (0.1 mm) 日照小时数

40°

315°

45°

50°

300°

Summer Solstice 夏至日

Sunshine hours

Annual Prevailing Wind 年主导风

70°

80°

82.3°@ 夏至日正午 Noon Summer Solstice

1st75° May

1st Sep

厦门气候资料 Climate Data of Xiamen

1st Jun

285°

Percent of Possible Sunshine

60°

60?

1st Jul 1st Aug

日照�分比

35.3°@ 冬至日正午 Noon Winter Solstice

15 270°

1st Apr

90°

1st Oct 1st Mar

1st Nov 255°

北 North

105°

1st Feb

Winter Solstice 冬至日

1st Dec

1st Jan

240°

120°

225°

135°

210°

厦门太阳轨迹图 Sunpath Diagram of Xiamen

南 South

150°

195°

165° 180°

Summer Prevailing Wind 夏季主导风廈門市轨道2号线【五缘湾南站】轨道交通用地建筑概念方案设计

Xiamen Metro Line 2 Wuyuanwan South Station Project | Concept Design

建筑立面热得量及遮阳设计分析 Facade Solar Heat Gain & Shading Design Analysis

1. 建筑座向（南北朝向）和立面外遮阳（大阳台）设计，减少建筑太阳热得量和整体能耗； 2. 概念设计阶段就使用了计算机模拟分析软件对外遮阳进行了分析和优化，确保遮阳的有效性和合理性； 3. 大阳台的外遮阳能有效减少立面夏季太阳热得量达26%-47%，整体则减少约32%，从而大大减低建筑的制冷能耗，达到节能的效果。 kWh/m2 热 Hot 太阳热量 Solar Insolation 凉 Cool

西北立面夏季总太阳热辐射得量 North-west facade total solar insolation in summer

130 120 110 100 90 80 70 60 50 40 30

西南立面夏季总太阳热辐射得量 South-west facade total solar insolation in summer

东立面夏季总太阳热辐射得量 East facade total solar insolation in summer

建筑立面热得量及遮阳设计分析 Facade Solar Heat Gain & Shading Design Analysis

建议整体外遮阳设计 Proposed Shading Designing

东立面夏季太阳热得量 Summer Total Solar Heat Gain

56.7

基准模型 - 无建筑外遮阳 Baseline - No External Shading

东立面夏季太阳热得量 Summer Total Solar Heat Gain

107.6

kWh/m2

~47.3 %

所有立面夏季太阳热得量 Summer Total Solar Heat Gain

71.2

kWh/m2

31.7 %

所有立面夏季太阳热得量西立面夏季太阳热得量 Summer Total Solar Heat Gain

73.7

kWh/m2

~41.9

Summer Total Solar Heat Gain

104.2

kWh/m2

西立面夏季太阳热得量 Summer Total Solar Heat Gain

126.9

kWh/m2

廈門市轨道2号线【五缘湾南站】轨道交通用地建筑概念方案设计

Xiamen Metro Line 2 Wuyuanwan South Station Project | Concept Design

自然采光设计分析 Daylight Design Analysis

1. 利用科学化手段优化设计、最大化自然采光潜力； 2. 塔楼的座向既最大化了景观、同时也最少化建筑之间的对望和相互遮挡，从而使得里面的自然采光效果达到最优化； 3. 立面自然采光达30-40%，有利室内自然采光。 %DF 100 90 80 70 60

亮 Bright

50 40

自然採光

暗 Dark

Daylight Access

20 0

建筑立面自然采光系数分布 Daylight factor distribution on building envelope

风环境分析 - 整体室外风环境 CFD Wind Analysis - Overall Urban Wind Environment

1. 全年而言，以东风为主导风向； 2. 建筑与主导风之间形成一夹角，能诱导自然风吹过地块的不同角落； 3. 分析的结果显示，地块整体的通风良好，没有出现超过5米/秒的阵风，室外风环境舒适。 4. 不仅如此，地块的风速在1-3米/秒之间，十分舒适，能吸引人们在夏季享受室外空间。

0.0 低速 Low

舒适 Comfort 1.0 2.0

3.0

风速 Speed (m/s)

阵风 Gust Wind 4.0 5.0 高速 High

建筑立面风压分布图 Static presure on building envelope

行人高度风速分布图 Velocity contour on pedestrian level

行人高度风速矢量图 Velocity vector on pedestrian level

自然风流动路径图 Pathline of air movement

环保建筑设计策略 - 可持续基地规划设计 Sustainable Design Strategies - Site Planning & Design

最大化自然通风潜力，减少使用空调，使得室内外更舒适。 Design to maximize potential for cross ventilation to minimize use of air conditioning and enhance outdoor and indoor space comfort.

大量使用绿化屋顶设计，既可以减少顶层的制冷负荷，同时有效减轻城市热岛效应。 Large area of green roof and sky garden to reduce cooling load for top level and mitigate Heat Island effect.

采用高太阳反射值的屋面材料，增加反射太阳热量的能力，从而减缓城市热岛效应和建筑制冷需求。 Use roofing materials with high solar reflectance index (SRI) value to maximize reflectance of solar radiation to mitigate heat island effect.

地面设计增加绿化和水体，配合优化室外自然通风建筑布局，减低城市热岛效应。 Increase area of landscape and optimize outdoor ventilation to reduce UHI.

别出心裁的连廊设计把不同地块连贯起来，增加空间的通达性，提高室外活动、交流空间的量和质，让人们享受更大、更好的室外空间。 Enhance the quantity and quality of the outdoor activity space through the ring link-bridge.

场地周边具备地铁、公交车线路等公交服务，能减少人们对自驾的依赖，从而减少交通带来的能耗与污染。 Provision of subway and bus service in the vicinity site to reduce use of private car to minimize energy use and pollution.

合理开发地下空间用于商业和停车，让更多地面空间用于绿化。 Use of underground space for retail and car parking. More space on ground level for greening.

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环保建筑设计策略 - 节水和水资源循环设计 Sustainable Design Strategies - Water Efficiency and Recycle Design

收集屋顶的雨水，并过滤和消毒，用作其他的用途，减少市政用水。 Collect rainwater from roofs for reuse to reduce municipal water consumption.

雨水用于浇灌，以减少市政用水的负荷。 The collected rainwater can be used for landscape irrigation to reduce municipal water consumption.

雨水用于室外和车库清洁，以减少市政用水的负荷。 The collected rainwater can be used for road and basement capark cleansing to reduce municipal water consumption.

景观浇灌采用节水型的滴灌系统，以减少市政用水的负荷。 Drip irrigation is used to reduce municipal water consumption.

使用低流量高效率用水设备，以减少市政用水的负荷。 Use WELS Excellent fittings to reduce municipal water consumption.

制冷机冷凝水循环使用，以减少市政用水的负荷。 Reuse condensate from chiller plant to reduce municipal water consumption.

景观植物选用本土品种或用水量较低的品种，减少景观浇灌的需求量。 Use local species or species require less irrigation for the landscape planting to reduce water consumption.

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雨水收集系统

廈門市轨道2号线【五缘湾南站】轨道交通用地建筑概念方案设计

Xiamen Metro Line 2 Wuyuanwan South Station Project | Concept Design

105

环保建筑设计策略 - 建筑节能设计 Sustainable Design Strategies - Energy Efficient Design

使用大量的水平遮阳、屋檐等设计，大大减低立面的太阳热辐射吸收量，从而减少建筑能耗。 Horizontal fins and large eaves effectively reduce solar heat gain through envelope to reduce cooling load & energy use.

绿化屋顶可以减少制冷负荷，达到节能的效果。 Green roof to reduce heat gain and cooling load.

使用双层Low-E中空玻璃，阻挡太阳热辐射，减少建筑的制冷能耗。 Double Low-E glass to reduce solar heat gain and cooling load.

尽量利用自然光，以减少灯光照明的能耗。 Use daylight through glazed facade to minimize use of artificial lighting.

屋面和平台铺面采用高太阳反射值浅色材料，增加太阳辐射热的反射，从而减少热量吸收，以减少制冷能耗。 Use light color finishing materials with high SRI value for top roof and podium to reduce absorption of solar radiation and cooling load.

室外景观照明使用太阳能灯具，增加可再生能源的使用量。而且通过使用设计美观的太阳能灯，更加能美化室外景观。 Solar powered lighting is used for landscape lighting.

安装地库采用采光管，使地库停车场能直接使用室外光线，改善地库的自然采光。 Use sunpipe to divert sunlight into the basement carpark to reduce lighting energy use.

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环保建筑设计策略 - 可持续建材 Sustainable Design Strategies - Sustainable Material & Resource

分析建筑结构、材料等生命周期成本，选取成本较低的建筑结构和材料。 Conduct Product Life Cycle analysis for the building structure and material.t

30%建筑材料使用距离基地800公里以内，以减少运输的能耗和交通污染。 At least 30% materials within 800km to reduce energy use and pollution by transportation.

使用循环成分含量较高的建筑材料。总体循环成分占比不低于20%。 Use materials with high recycled content. Total recycled content not less than 20%.

使用对大气破坏潜力和对地球暖化影响最低的空调冷媒。不使用以CFC为基础的材料。 Use refrigerant with low ozone depletion potential and global warming potential. Also, no CFC based materials will be used.

项目75%的永久性安装的木材源自经过认证的可持续管理森林。 75% timber in the project are from sustainablely managed forest, e.g. FSC forest.

使用可快速生长的建筑材料能减低建筑的内在能耗和生命周期成本。 Rapidly renewable bamboo material to reduce the embodied energy and life cycle cost.

建筑与室内一体化施工，减少室内装修所引起的二次施工的施工废料和污染。 Integrated construction for superstructure and interior fitting out to minimize construction waste and pollution.

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环保建筑设计策略 - 健康和安全的室内环境 Sustainable Design Strategies - Healthy & Safe Indoor Environment

室内设置抽烟房，同时在市内所有的公共空间禁止吸烟，以大大改善室内的空气质量。 Design designated smoking room inside building and prohibit smoking in the building to enhance indoor air quality.

建筑布局有利于整体的室外自然通风，提高整个小区的通风效率和人们的热舒适性。 MLP is optimized to maximize the natural ventilation performance. As a result, comfort of residents can be enhanced.

建筑之间视野良好，尽量避免建筑之间的视线干扰。同时大部分室内空间都拥有室外景观，提高视觉舒适性。 Good external view access to enhance visual comfort and value of the premises.

通过外窗尽量利用自然光，同时让居民能够感受室外的变化，增加视觉的舒适性。 Use of daylight through glazed facade to enhance indoor visual comfort.

建筑外遮阳、窗帘遮阳等手段可以减少室内的眩光，从而大大提高室内的视觉舒适性。 External shading can greatly reduce the glare problem and improve visual comfort of occupants.

室内装修用的油漆、密封胶等，用低或无VOC的产品，减低对人们健康的威胁。 Use LOW or NO VOC content paints, sealant and carpet products to safeguard occupants’ health.

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空调新风采用MERV13或者以上的高效能过滤网，确保室内空气质量。 Use HEPA filter, at least MERV 13, for HVAC system to improve indoor air quality.

廈門市轨道2号线【五缘湾南站】轨道交通用地建筑概念方案设计

Xiamen Metro Line 2 Wuyuanwan South Station Project | Concept Design

109

Part III: Workshop Teaching

Hunan University Workshop

CV Tianyi Chen

陈天一 Email: tichen101@hotmail.com

Tel: +852 63523247

出生 : 10.1, 1987

香港 , 中国

11.2014 - 至今

9.2012 - 2.2014 9.2011 - 9.2012 9.2006 - 6.2011

Hongkong,CHINA

Aedas Ltd, Hongkong

Nov. 2014 - Now

Architecture Association, London, UK Master of Architecture, Architecture and Unbanism (Design Research Lab) ETH, Zurich, Swiss Master of Advanced Studies, Computer Aided Architecture Design (CAAD) Hunan Univeristy, Changsha,China Bachelor of Architecture

Sep. 2012 - Feb.2014 Sep.2011 - Sep. 2012 Sep.2006 - Jun. 2011

AWARDS & SCHOLARSHIPS

获奖情况瑞士政府奖学金毛泽东纪念馆国家概念竞赛三等奖建构模型大赛创新奖湖南大学主办

Birth: oct.1, 1987

EDUCATION

教育背景伦敦建筑联盟，英国建筑学硕士，建筑与城市主义（设计研究所）苏黎世联邦理工，瑞士计算机辅助建筑设计硕士湖南大学，中国建筑学学士

Tel: +852 63523247

WORKING EXPERIENCE

工作经历凯达建筑事务所，香港

Email: tichen101@hotmail.com

9.2011 6.2010 6.2008

Swiss Government Scholarship 3th Price , Chairman Mao Zedong Museum National Innovation Price, Structure Model Design Competiion hold by Hunan University

Sep. 2011 Jun. 2010 Jun. 2018

出版与展览

PUBLICATION & EXHIBITION

2015,《世界建筑导报》 12 月自主和网络化建筑 ,P52 2014, 北京国际设计周湖南大学与 Wax 事务所联合工作坊作品展示 2013,《设计智能 -——高级计算性建筑生形研究学生建筑设计作品》许卫国，林尔 . 尼奇编，中国建筑工业出版社 2013, 数字渗透 DADA 数字建筑展中国建筑学会建筑师分会数字建筑设计专业委员会主办，北京 2010, 《数字现实学生建筑设计作品》许卫国，林尔 . 尼奇编，中国建筑工业出版社 2010, 数字现实北京国际建筑双年展学生作品清华大学，中国建设部主办，北京 2010, 数字技术建筑年度论坛同济大学主办，上海 2009, 《城市建筑》城市建筑杂志社 2009, 当代中国建筑论坛 (CCAF) 湖南大学主办，长沙

2015,Journal: World Architecture Review Novernber Autonomous & Networked Architecture,P52 2014, Beijing Internatioal Design Week Hunan University and Wax Architects union workshop projects 2013, Book: Design Intelligence, Advanced Computational Research, DADA 2013 students Edit by Neil Leach / Xu Weiguo ,China Architecture & Building Press 2013, DADA "Digital Architecture Design Association " Digital Infiltration 2013 student works, Beijing Hold by Digital Architecture Design Association, Beijing 2010, Book: Machinic Process, Architecture Biennial Beijing 2010 students Edit by Neil Leach / Xu Weiguo ,China Architecture & Building Press 2010, Architecture Biennial Beijing Hold by Tsinghua University and Ministry of Architure, Beijing 2010, Annual Symposlum on New Digital Techniques for Architecture Hold by Tongji University, Shanghai 2009, Unbanism and Architecture(UA) Maganize Unbanism and Architecture Press 2009, The Contemporary Chinese Architectural Forum(CCAF) Hold by Hunan University, Changsha

主要经历

EXPERIENCE

2014/08-09, 湖南大学与 Wax 事务所联合工作坊教师，长沙 2013, 扎哈 . 哈迪德事务所运算小组工作坊，墨西哥 2012, Rhino 原厂建筑曲面造型特级课程，深圳 2011, 国家大学生创新训练项目 " 数字设计艺术性研究 " 结题，长沙 2010 /08-10, 湖南君悦置业有限公司实习，建筑助理 2008 - 2010, 湖南大学数字建筑研究所助理 2010, 湖南大学数字建筑研究所 + 扎哈事务所运算小组工作坊 2009, 湖南大学台湾国立交通大学数字建筑工作坊 2008, 清华大学参数化建筑设计工作坊

2014/08-09, Hunan University and Wax Architects union workshop Tutor, Changsha 2013, ZAHA CODE workshop, Mexico 2012, Rhino McNeel Asia Architecture Modeling Advanced Class, Shenzhen 2011, National University student Innovation Program"Digital Design Art Research" complete, Changsha 2010/08-10, Architectural Assistant in Junyue Real Estate Development Co. Ltd 2008 - 2010, Assistant of Digital Architecture Lab, Hunan University 2010, D[a]L + ZAHA CODE workshop, Changsha 2009, National Chiao Tung University and HNU Digital Architecture workshop 2008, Tsinghua University Parametric Architecture Design workshop

软件技能

TECHNICAL SKILLS

Maya, Rhino3D, Sketchup, Grasshopper, Processing Java, Arduino Ecotect, Flow Design, Karamba,FEA Scanner Sovler, solidthinking AutoCAD, Adobe photoshop/ illustration/inDesign MentalRay Rendering, Vray, Keyshot

Email: tichen101@hotmail.com Phone: +852 63523247 Hongkong, China