Mia Lan Portfolio 2024

Portfolio Selected W o r k 2 0 17- 24

Mia T. Lan May 2024

I. Design Studio Project ............................................. 01 Rooting in the Ground ...... 02 - 13 The Heat Machinery ......... 14 - 21 II. Competition ........................................................... 23 Deep Couryards House ..... 24 - 29 III. Built Project ......................................................... 31 Multi-Family House on Rossbergstrasse .......... 32 - 39 A Restaurant by Lake Cauma ....................... 40 - 45 IV. Interior Design ...................................................... 46 Appartment in Beijing ...... 48 - 49 Rooftop House in HongKong ..................... 50 - 51 Indoor Playground ............ 52 - 53 V. Other Works ........................................................... 55 Case Study ........................ 56 - 57 Research Work .................. 58 - 59

D E SIGN ST U D IO PROJECT

01

ROOTING IN THE GROUND

Punt. Von der letzten Umbauphase 1927 stammt die angebaute Veranda auf der Südseite, welche anstelle der abgebrochenen Stallscheune den Bau gegen den Inn hin abschliesst. Entworfen wurde der Verandaanbau von Nikolaus Hartmann. Auf dem Giebeldach sitzen markante, individuell gestaltete Kamine.

The Engadine-Style House: Prototype

Site Plan

Könz, Iachen U. 1994. Das Engadiner Haus. Bern: Verlag: Bern, Haupt. p.

Masterarbeit Graduation Project HS 2023 Nostalgia Ecology II with Prof. Christoph Gantenbein Prof. Emanuel Christ Prof. Maarten Delbeke & Prof. Benjamin Dillenburger Assistants: Julien Bellot Cara Rachele & Angela Yoo

During my time at Plantahof, I was struck by the profound influence of the earth. We delved into the architectural 160 essence of traditional Engadin houses: their sturdy walls, whimsically adorned facades, and graceful gables exude a grounded sense of pride.

Situated amidst a flat expanse with distant low mountains, Plantahof embodies a connection to the land.

Its structures, typically two stories high, allow the earth to quietly assert its presence when unobstructed. We stand upon it, drawing sustenance to nurture crops, felling trees for å, and quarrying stones for construction. And ultimately, we return to it when our time here concludes.

Plan of A Engadine House in S-Chanf, GR, CH

Ansicht von Südos

S-chanf Siedlungsinventar

Patrizierhaus Nr. 48 Aussen Das Haus Nr. 48 steht giebelseitig zur Strasse und bildet mit einer monumentalen Traufseite den Abschluss der unterhalb der Durchgangsstrasse gelegenen Häuserzeile gegen den Freiraum zur Kirche hin. Es besitzt auf den drei Schauseiten einen groben, bräunlich-gelben Verputz um 1900 mit eingeritzten Eckquadern, denen wiederum kleinere Quader in roter Farbe eingeschrieben sind. Die Giebelfassade prägt eine anlässlich eines Umbaus um 1840 entstandene Regelmässigkeit.

Das steinerne Gewände des Sulèrtors sowie der in Sgraffito gerahmte Oculus stammen wohl von um 1740. An der Ostfassade erinnern lediglich die querliegenden Rechtecke der Dachgeschossfenster an den Klassizis mus. Ansonsten erinnert die Gliederung eher an Bauten der Spätrenaissance und insbesonders an die Chesa Merleda in La Punt. Von der letzten Umbauphase 1927 stammt die angebaute Veranda auf der Südseite, welche anstelle der abgebrochenen Stallscheune den Bau gegen den Inn hin abschliesst. Entworfen wurde der Verandaanbau von Nikolaus Hartmann. Auf dem Giebeldach sitzen markante, individuell gestaltete Kamine.

Kartuschenfeld an der Saaldecke

HAUS CARATSCH

Photo of A Engadine House in S-Chanf, GR, CH

Residing within the earth, thriving in harmony with it—this initiative aspires to seamlessly merge with the ethos of Plantahof Agricultural School, paying homage to and embodying the enduring vigor of the earth.

02

Ansicht von Südosten

Point Cloud Rendering - Site

Site Photos

Point Cloud Rendering - Street Facade

03

Site Model

Drawing insights from the ecological landscape: The presence of a highway on the eastern boundary of the site significantly impacts the ecological balance within the courtyard. To mitigate this, the linear arrangement of the buildings acts as a buffer, shielding the courtyard from the highway's effects while creating a cohesive street frontage.

Efforts will be made to transition the turf grass within the courtyard into a more organic habitat, incorporating natural grasses and shrubbery to enhance its ecological diversity.

Adapting to diverse programmatic needs: Plantahof hosts an extensive array of short-term courses, welcoming a steady influx of visitors who often stay briefly, alongside long-term students who reside on campus for one to two days each week, with seasonal variations between winter and summer. In response, this project endeavors to craft a versatile program capable of accommodating these fluctuating demands. Positioned strategicallyå the restaurant anchors one side of the newly conceived square, in close proximity to the main building and lecture hall. A seamless connection between the kitchen and restaurant is facilitated by a "sulèr," a covered, semi-public space that also serves as a storage hub. During the warmer months, this area transforms into a dynamic cooking studio, fostering engagement and culinary exploration.

Furthermore, the "sulèr" acts as a conduit linking vertical circulation with second-floor dormitories, ensuring efficient movement throughout the complex.

The Agricultural School

04

Low Density Housing

Husbandry

Railway & Industrial District

Expressway

Plantahof is an agricultural research station located in Graubünden, Switzerland. It serves as a center for agricultural research, education, and innovation in the region. The station focuses on various aspects of agriculture, including crop cultivation, livestock farming, and sustainable agricultural practices.

One of Plantahof’s key features is its extensive collection of plants, particularly those adapted to the alpine environment.

This collection serves as a resource for studying plant biodiversity, adaptation to climate change, and development of new agricultural varieties suitable for the region's specific conditions.

In addition to research activities, Plantahof offers educational programs, workshops, and events for farmers, st u d e n t s , a n d t h e g e n e r a l p u b l i c .

These initiatives help disseminate knowledge and promote best practices in agriculture, contributing to the long-term sustainability of the farming sector in Graubünden and beyond.

05

Section D-D: Long Section

Reference:

Section A-A: Dining Hall

Dachkonstruktionen: Die Entwicklung frühneuzeitlicher Holztragwerke zwischen 1650 und 1850 im reformierten Kirchenbau der Deutschschweiz (Diss., 2021) ©Schäfer, Jasmin

K. 21

1

1

5m

P

5m

Handaufmaß eines Bindergespärres, Spannweite 18.40 m

Tachymetrisches Aufmaß eines Bindergespärres, Spannweite 22.10 m P

Deriving insights from traditional K. 14 architecture, the two-story building, ensconced beneath a wooden roof, endeavors to maintain a low profile, closely tethered to the earth.

Spanning nearly 18 meters, conventional engineering practice would typically resort to laminated wood for support. However, in a conscientious effort to safeguard the environment, these structures eschew laminated wood, taking inspiration from time-honored wooden constructions, such as the expansive roof structures found in historic churches across German-speaking Switzerland.

Emulating this approach, the span is achieved using natural timber augmented by metal bolts, aligning with the environmental ethos of Plantahof.

06

Rendering: Dining Hall

07

Plan: Student Dormitory

Sulèr & Stube: Traditional Architectural Elements Historical Photo of a Sulèr

Methodology: Point Cloud Scanning We employed Point Cloud Scanning Technology to scan and analyze the Engadine houses. Specifically, I conducted a scan of Haus Jeuch in Klosters, which currently serves as the local library.

Point clouds are datasets comprising points that represent 3D objects or spaces. Each point includes x, y, and z coordinates, as well as attributes like color value or intensity. Leveraging point clouds enables swift and precise capture of spaces.

Historical Photo of a Stube Window

These spatial representations boast a remarkable level of detail density. Simultaneously, owing to their composition of uniform elements—the points—they inherently abstract reality. Consequently, point clouds pique our interest not only as measurement tools but also as representations that simplify reality.

QR Code for the PC Videos:

Sulèr + Circulation 08

Animated Section

Horizontal Section

Rendering: Dormitory Unit

Section B-B

Section C-C

09

Detail

Sprengwerksdach: Doppeltes Sprengwerksdach: Sparren 240mm x 120mm Pfetten 180mm x 120mm Hängesäulen 150mm x 200mm Spannriegel 150mm x 120mm Strebe 120mm x 120mm Holzkonstruktion: Skelettbau: Pfeiler 240mm x 240mm Balken 240mm x 240mm Balken unter Decke 140mm x 80mm Dachaufbau: Gipskartonplatte 20mm Dampfsperre 1mm Lattung 24mm x 48mm Wärmedämmung zwischen Sparren 200mm Unterspannbahn 1.5mm Lüftung 38.5mm Dachlattung 45mm x 50mm Dachlattung 24mm x 48mm Dachziegel 70mm Total 424mm Wandaufbau: Gipskartonplatte 20mm Dampfbremse 1mm Wärmedämmung mit Rahmenholz 180mm Wärmedämmung 120mm Äussere Platte 20mm Hinterlüftungslattung 40mm x 40mm Horizontale Holzleiste: 20mm Total 401mm Deckenaufbau: Holzparkett 20mm Unterlagsboden mit Fußbodenheizung 65mm Trennlage 1mm Trittschalldämmung 65mm Stahlbeton Deckenplatte 150mm Deckenschalung 20mm (Teilweise Wärmedämmung 180mm) Holzpaneel 20mm Total 421mm Sockelaufbau: Holzparkett 20mm Unterlagsboden 65mm Trennlage 1mm Wärmedämmung 100mm Stahlbeton 300mm Magerbeton 100mm Total 586mm

10

Explosion

Dormitory Unit Plan & Section

Rendering: the Upper Sulèr

Collective Living Space

11

Sustainable Material Experiment: Mycelium-Based Material as Isolation Layer

Material Samples for Mechanical Properties Test

Mycelium Cultivation Process Photos

12

13

THE HEAT MACHINERY

Hydropower Station Scheme

Semester Arbeit Design Studio FS 2022 Kraftwerk with Guest Prof. Corinna Menn Assistants: Cosimo Caccia & Tessa Vollmeier In Cooperation with Raphaela Dudler

Hydropower System in Poschiavo Valley - Section

Hydropower Station Palü St In the Swiss Alps, meltwater from ice and snow, along with precipitation brought by warm, moist air currents, joyfully cascades through the mountains, composing grand symphonies. Since the dawn of the second industrialization, Swiss people have harnessed hydropower, with numerous hydroelectric stations, both large and small, scattered throughout Switzerland's major valleys.

Grundriss 1:200 1959 m.ü.M.

Our focus is on the Poschiavo Valley, located in the southeastern corner of Switzerland, bordering Italy.

To fully utilize hydropower, a data center is to be built near the Robbia hydroelectric plant.

Grundriss 1:200 1954 m.ü.M.

We began with a field trip to visit the local hydropower system. Our case study is the Palü Station, a hydroelectric station built in 1926. It has two water pumps and generates electricity by utilizing the mountain's over 500-meter height difference. One intriguing aspect we discovered is that this building was constructed for machines, with the operational space for the machinery excavated underground, resembling a complex root system. The hydropower station was designed like a bunker, showcasing its mastery over nature.

Ansicht Süd 1:200

Grundriss 1:200 1946 m.ü.M.

1959 m.ü.M.

1954 m.ü.M.

1946 m.ü.M.

1924 m.ü.M.

Grundriss 1:200 1924 m.ü.M.

14

Ansicht Nord 1:200

Querschnitt 1:200

The hydropower system in the Poschiavo Valley is remarkable. From north to south, the valley descends from an altitude of 2,300 meters (7,500 feet) to 550 meters (1,800 feet), passing through various altitudinal zones that enrich the diversity of flora and fauna. This hydropower not only sustains Switzerland but also benefits neighboring countries like Italy, France, and Germany.

Under the global phenomenon of rising temperatures, the Alps region is expected to experience a significant increase in melting ice and rainfall, presenting new challenges and necessitating innovative strategies to address them.

Hydropower System in Poschiavo Valley - Plan

Bianco Lake

Lag

Palü Station

Kraft

Cavaglia Station

Kraftw

Wassersc

Wasserschloss Puntalta Machine Volume vs. Station Volume

Hydropower Impression

Robbia Station

Kraftw

Ansicht West 1:200

Ansicht Ost 1:200

Poschiavo Lake

Lago

Kraftwerk

Compocologno Station Längsschnitt 1:200

15

Som

aino

16 Poschiavino

STRUKTUR PUSCHLAV

Bergflanken

Via Nov

Berninastrasse

le

cipa Via Prin

Siedlungsstruktur

cipa

Via dal

Berninabahn

Prin

STRUKTUR PUSCHLAV

Bergflanken

Siedlungsstruktur

Berninastrasse

Poschiavino

Industrie und Produktion

Berninabahn

Ra vis cé

Raviscé

Ravis

Industrie und Produktion

Via

Robbia

Via da li Presi

Via

da Li

Gler

i

Site Plan Site Model 1:2500

Town Pattern of Upper Poschiavo - Current 1877 Map

cé

Bernina

le

Struktur oberes Puschlav | Ist

Town Pattern of Upper Poschiavo - Scenario 1967 Map

a

Struktur oberes Puschlav | Projekt

Synthesis

Robbia Data Center Terrain Section

Ingwer Muskat Ingwer Kurkuma Pfeffer Muskat

Chiavenna

Ingwer Muskat Pfeffer Zimt

Poschiavino

Raviscé (Poschiavo)

Ingwer Kurkuma Zimt

Ingwer Kurkuma Muskat Pfeffer Zimt

Muskat

Speicherkraftwerk Robbia 1078 m.ü.M.

Chur Luzern

WÄRMEMASCHINERIE Standseilbahn Sektionswechsel

Wasserschloss Puntalta 1650 m.ü.M.

Robbia Data Center Scheme

Regional / National / International Systems

2000

1800

Tirano Tirano

1600

GLOBALE VERNETZUNG

GLOBALE VERNETZUNG

REGIONALE VERNETZUNG

GLOBALE VERNETZUNG

Como

Liquid Cooling in the Data Center: Principle & Effects

1400

Datacenter und Gewürze im Kontext

1200

FUNKTIONSSCHEMA | RÄUMLICH

Air Drying & Consuming in the Greenhouse

NETZWERK PUNTALTA - ROBBIA 1:5'000

Robbia Data Center Terrain Model

Robbia Data Center System Wasser kalt Wasser warm Luft kalt

Puntalta Pilzzucht

Luft warm Standseilbahn

Elektrizität Standseilbahn

Kraftwerk

Reference of Natural Air Drying Application

Datacenter Abwärme Luft 30°C

Luft trocken

Trockenhaus Luft 30°C

Luft feucht

Gewächshaus Luft 25°C

Verkauf/Imbiss

Funktionsschema | Diagramm

17

ANSICHT 1:100

Section

LÄNGSSCHNITT 1:100

Plan

Rain Water Collection and Storage

Water and heat play a crucial role in the floor plan and section configuration.

The concept model illustrates the program: The existing canal, running straight along the road, and the new curved canal planned by the power plant operator are shown in blue.

The underground data center buildings, depicted in red, span between the two canals. Servers are cooled by water, maintaining room temperatures between 25 and 30 degrees Celsius.

SCHEMA OG | EINSPEISUNG REGENWASSER SCHEMA OG | EINSPEISUNG REGENWASSER SCHEMA OG | EINSPEISUNG REGENWASSER

Watering System

This temperature range is ideal for a drying house, which is why the drying buildings, shown in orange, are located directly above the server rooms. (Large data centers generate a lot of waste heat.)

Between them are the white greenhouses, as exotic herbs need soil to grow. The hot, humid air from the drying house is supplied to the greenhouse, maintaining a temperature of approximately 25 degrees Celsius. Water flows through the data center and is then used as warm water for irrigation.

The greenhouse water reservoir, located in the old canal, is supplied, and rainwater is collected.

Additionally, there is a publicly accessible snack bar/café and direct sales area, as well as a warehouse and an office building for the data center.

18

QUERSCHNITT 1:100

SCHEMA EG | BEWÄSSERUNG SCHEMA EG | BEWÄSSERUNG SCHEMA OG | EINSPEISUNG REGENWASSER

Liquid Cooling System

SCHEMA UG | KÜHLUNG SCHEMA UG | KÜHLUNG SCHEMA OG | EINSPEISUNG REGENWASSER

Construction Model

Soap Model - Function

19

Data Center + Drying Atelier

Vertical System

Crotti: Traditional Food and Wine Storage Huts in Poschiavo

Gabion Wall & Stone Wall

Gabion Application: Dominus Winery in California

20

LÄNGSSCHNITT 1:100

Isometric Drawing: Construction

The building is oriented towards the street, with access and delivery directly from there.

Additionally, there is an internal pathway system within the greenhouse, enabling the direct delivery of fresh herbs to the drying houses or for direct sale.

Construction: The structure consists of a two-story solid modular concrete frame filled with local rubble stone. The head part provides longitudinal reinforcement (see structural model). The greenhouse is integrated as a lightweight metal structure in between. Concrete buildings serve as supports and provide sun QUERSCHNITT protection for the greenhouse.

1:100 Various climatic zones are established within the greenhouse, ranging from sunny to shady, deep or humid, allowing different spice plants to thrive optimally according to their needs – pepper, ginger, nutmeg trees, etc.

Buildings have varying degrees of openness depending on their needs/functions and are discernible from the facade - the drying house is concealed yet well-ventilated (to prevent herbs/ spices from fading during the drying process), while the snack bar/café is public and directly connected to the greenhouse. The greenhouse can also serve as an event space. The office of the Data Center is private.

Detail: Vertical permeability within the building is crucial. A filtering layer enables the rising heat to penetrate the drying house, where the herbs hang, while protecting the machinery from condensation and moisture.

Interior: Darkness is characteristic as the drying process must be shielded from sunlight. The visual connection between the drying house and the data center remains visible. Additionally, the ribbed construction and porous rubble stone filling are apparent.

21 DETAIL 1:33

22

COMPETITION

23

DEEP COURTYARDS HOUSE

Site Plan

“百花深处好，世人皆 不晓。小院半壁阴，老庙 三尺草。秋风未曾忘，又 将落叶扫。此处胜桃源， 只是人将老。” —— 《题百花深处》 顾城

Competition BaiTaSi International Competition 2017 Final List In Cooperation with Zhimin Yuan & Lianbing Xu

Deep Courtyards

Site Model 1:200 The courtyard is central to living in Chinese, quadrangles, with the Hutong , texture reflecting social relationships.

Our project, inspired by the "sharing" , collective memory of , traditional , Hutong life, reorganizes the spatial layout to distinguish between public Courtyard is the core to live in Chinese quadrangles, and the Hutong and private spaces. This texture presents social relationships.

Basedapproach on the “ Sharing ” collective memory of traditional Hutong life, through the spatial aims to preserve traditional neighborly reorganization, our project distinguishes different qualities between public and private spaces:while trying to maintain the traditional relations creating quiet and neighborly relations meanwhile creating each apartment a quiet and independent independent living spaces for each living space.

Distributed apartment. yards and the treatment of the façade resolve the whole architecture into environmental scale volumes while a continuous roof managed different levels courtyards and buildings in one system. Not only maintain the old ridges alsocareful creative a new spatial Distributed yardsbutand experience. The main courtyard is in the middle and corresponding façade treatments break down the small yard living spaces, for the social requirement, while the connected to the private room, in order to create a quiet corner, which architecture into environmentally only belongs to the owner.

scaled volumes, while a continuous Deep Courtyards roof integrates courtyards and buildings into a cohesive system. This design not only preserves the old ridges but also creates a new spatial experience. The main courtyard, located in the center, serves the social needs of the residents, while smaller yards connected to private rooms provide quiet, personal corners for the owners.

24

Master Plan

, ,

Courtyard is the c texture presents collective memo reorganization, o public and private relations meanwh living space.

Distributed yards architecture into e managed differen only maintain th experience. The living spaces, fo connected to the only belongs to th

Street Facade & Entrance

+ 4.700

+ 2.900

+ 0.000

Street Entrance Facade 1:50

Isometric View

Ground Floor Plan 420 mm

C

-(

B

, 15 mm , 20 mm , 50 mm , 5 mm , 120 mm 200 mm , 10 mm)

courtyard house

C

-1 345 mm

B

+ 0.100

en chise crissier, Crissier, CH + 0.700

-(

+ 0.700

( , 15 mm , 50 mm

, 140 mm

, 140 mm , 10 mm)

a Burkhalter Sumi architekten, 2015 competition, 1st prize, internship work focus on drawings and 3D rendering

-2 -(

+ 0.100

+ 0.700

+ 0.700

+ 0.100

Deep Courtyards

,

-1 960 mm

, -

a

,

+ 0.100

,

+ 0.000

, 20 mm 20 mm , 40 mm , 80 mm , 200 mm

-

b

c 0.100 ++0.700 + 0.100

A

N

0

Master Plan 1:500

5

10

20 m

A

+ 0.700 + 0.000

, 20 mm , 600 mm 50 mm x 500 mm , 60 mm , 140 mm , 200 mm

Courtyard is the core to live in Chinese quadrangles, and the Hutong texture presents social relationships. Based on the “ Sharing ” collective memory of traditional Hutong life, through the spatial reorganization, our project distinguishes different qualities between public and private spaces: trying to maintain the traditional neighborly relations meanwhile creating each apartment a quiet and independent living space.

Distributed yards and the treatment of the façade resolve the whole architecture into environmental scale volumes while a continuous roof managed different levels courtyards and buildings in one system. Not only maintain the old ridges but also creative a new spatial experience. The main courtyard is in the middle and corresponding living spaces, for the social requirement, while the small yard connected to the private room, in order to create a quiet corner, which only belongs to the owner.

-2 360 mm

+ 0.100

-

,

+ 0.000

+ 0.000

325 mm

( ), 120 mm , 15 mm , 50 mm , 140 mm , 10 mm)

b

c + 0.700 + 0.100

A

C

+ 0.700

B

Technical-economic indices

Construction Cost Estimate 0

A Apartment usable area 32.5 m2 23.5 m2 24.5 m2 14.5 m2

C

a Typology b Typology c Typology Common Area

1

2

5m area m2

RMB/m2

Site area Ground Floor area Building height Eaves height FAR

190 m2 114 m2 4.7 m 2.9 m 0.6 20%

Demolition

145

Foundation Engineering

190

Constructional Engineering

114

B 1

2

32.5 m2 23.5 m2 24.5 m2

RMB/m2

area m2

cost RMB

RMB/m2

area m2

cost RMB

40

45,600

Decoration

114

400

45,600

Ventilation Engineering

300

57,000

Water Supply and Drainage Engineering

114

150

17,100

Landscape

76

600

45,600

2000

228,000

Heating Engineering

82

100

8,200

Roofv Construction

124

1500

186,000

1:50 Electrical Engineering

114

500

57,000

Fire Protection Engineering

114

100

11,400

114

5m

25

partment usable area a Typology b Typology c Typology

cost RMB 21,750

150

NRMB Plan Total Cost Estimate:Ground 711,850 Floor 0

C-C Detailing Section and Facade C-C 1:25

N

+ 4.700

+ 4.700

+ 4.700

C

Site Photos

B

N 0

1

2

5m

Ground Floor Plan 1:50

Section B-B

+ 4.700

+ 4.700

+ 2.900

+ 2.900

+ 0.700

+ 0.700

+ 0.000

26

- 0.040

+ 0.100

+ 0.000

- 0.040

+ 0.000

Apartment usable area a Typology b Typology c Typology Common Area

32.5 m2 23.5 m2 24.5 m2 14.5 m2

Section A-A

+ 4.700

+ 4.700

+ 2.450

+ 0.700

+ 0.700

+ 0.000

+ 0.100

- 0.060

27

28

420 mm

Detailed Section C-C

-(

, 15 mm , 20 mm , 50 mm , 5 mm , 120 mm 200 mm , 10 mm)

-(

( ), 120 mm , 15 mm , 50 mm , 140 mm , 10 mm)

-1 345 mm -(

( , 15 mm , 50 mm

, 140 mm

, 140 mm , 10 mm)

-2

325 mm

-1 960 mm , 20 mm , 600 mm 50 mm x 500 mm , 60 mm , 140 mm , 200 mm -

-2 360 mm -

Technical-economic indices Technical-economical

indices

Site area Ground Floor area 2 Site area: 190mheight Building Eaves height 2 Ground Ffloor A R area: 114m

Building height: 4.7m Eaves height: 2.9m FAR: 0.6 Green rate: 20%

, 20 mm 20 mm , 40 mm , 80 mm , 200 mm

RMB/m2

190 m2 114 m2 4.7 m 2.9 m 0.6 20%

C-C Detailing Section and Facade C-C 1:25

Construction Cost Estimate Construction Cost Estimate

Demolition

145

area m2 150

Demolition Foundation Engineering 190 300 Fondation engineering Constructional Engineering 114 2000 Constructional engineering Decoration Total Cost Estimate: 711,850 RMB Water supply and drainage engineering Heating engineering

cost RMB 21,750 57,000 228,000

RMB/m2

m2 RMB RMB/m2 Decoration 114 145 150 21‘750 Water Supply and Drainage Engineering 114 190 300 57‘000 Heating Engineering 82 114 2000 228‘000 Electrical Engineering 114 114 400 45‘600 114 150 17‘100 82 100 8‘200

area m2

cost RMB

RMB/m2

RMB/m2 Ventilation Engineering 114 400 45,600 114 Electrical engineering Landscape 76 150 17,100 114 Ventilation engineering Roofv Construction 124 100 8,200 76 Landscape Fire Protection Engineering 114 500 57,000 124 Roof construction 114 Fire protection engineering Total Cost Estimate

area m2

m2 40 500 600 400 1500 600 100 1500 100

cost RMB

RMB 57‘000 45,600 45‘600 186,000 45‘600 11,400 186‘000 11‘400 711‘850 45,600

29

30

BUILT PROJECT

31

MULTIFAMILY HOUSE ON ROSSBERGSTRASSE Built Project Lilin Architekten GmbH with Daniel Bünzli Urs Oechslin Regula Hunn & Carles Martí Internship Focusing on - Detailed Drawing - 3D Modeling - 3D Rendering

32

Facade Detail

Model 1:50

From the outset, it was evident that only an extraordinary house could occupy this plot. The sculptural volume formed by the steeply rising terrain, the Gründerzeit houses along Mutschellenstrasse, the topography, the vegetation of the tree protection zone, and the exposed concrete extension of the neighboring building set along the boundary complements the building regulations. The height difference along the longitudinal axis necessitates a splitlevel design, allowing all five apartments to be accessed directly from the elevator. The large windows facing the courtyard create a seamless transition between indoor and outdoor spaces.

From Rossbergstrasse, existing tall trees provide privacy from direct views. The concept of a "jewel box in the garden" is realized through a high-quality building envelope featuring a reddish-brown clinker facade combined with green windows and copper plumbing work.

This color and material scheme reflects the earthy-green color diversity of the surroundings.

Satellite Photo

Site Plan

33

Ground Floor Plan

34

Upper Floor Plan

Construction Detail & Facade Detail

North Facade

35

Short Section

Staircase Idea

Construction Section

36

South Facade

37

North Facade

Facade Color Palette

Facade Color Reference

38

次标题

Location: Rossbergstrasse 49, 8002 Zurich Client: Agruna AG Procurement: Direct Contract Assignment: New Construction Construction Period: 2023-2024 Plan Period: 2019-2022 Services: General Planner Mandate for 57.5% Partial Services SIA Project Management: Esther Jiménez Ruiz Construction Management: Rebobau AG, Fehraltdorf Structural Engineering: suisseplan Ingenieure AG, Zurich Electrical Engineering: WSMAG Walter Salm, Meier & Partner AG, Zurich HVAC Engineering: pleis gmbh, Regensdorf Landscape Architecture: Cadrage Landschaftsarchitekten, Zurich Building Physics: Bauphysik Meier AG, Dällikon Fire Protection: Osterwalder Lehmann Ingenieure und Geometer AG, Männedorf Geology: Jäckli Geologie AG, Zurich Tree Care: Tilia Baumpflege AG, Frick Surveying: Keller + Steiner AG, Zurich Visualizations: Virtual Design Unit, Zurich 39

RESTAURANT BY LAKE CAUMA

Site Photos

Ongoing Project Corinna Menn GmbH with Corinna Menn & Susanne Sauter Internship Focusing on - Detailed Drawing - 3D Modeling - 3D Rendering - Model Making

40

Historical Drawing of the Cauma Lake

Caumasee is a lake near Flims, in the Grisons, Switzerland. The lake's level varies by approximately 4 to 5 meters, depending on the fluctuating underground water flow throughout the year. Therefore, the lake typically reaches its minimum level by the end of April and its maximum level by mid-July.

Located within a vast forest, the lake is accessible only by footpath, which is wheelchair accessible. Alternatively, visitors can use the Caumasee-Lift, a funicular built in 1939 and refurbished in 1988, which operates on its original tracks from May to October.

To enhance functionality, we designed a versatile facade/sun shading panel/balcony combination using hanging waterproof panels. During the operational season of the funicular, these multifunctional panels serve as the outdoor leisure area of the restaurant and provide shading for the kitchen floor. In winter, the panels close to protect the restaurant's interior.

The restaurant features a large timber roof that elegantly captures the essence of the surrounding forest. The design incorporates cantilever beams and tilted columns to optimize material usage while maximizing views of the stunning Cauma Lake.

A self-contained structure, square in shape with a steeply pitched roof, serves as a focal point, aligning with other lakeside buildings at its current location. Positioned slightly away from the water's edge, nestled within the forest, its minimal footprint allows for the natural expansion of the lakeside area. A wooden walkway running along the water naturally divides the lakeside space for bathers and visitors, offering room for additional activities.

Site Plan

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Third Floor: Restaurant

Second Floor: Operational Space

Ground Floor: Buffet

South East Facade

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North West Facade

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Section

The straightforward wooden structure features a solid core at its center, serving both as structural support and a spatial divider, containing all vertical access points. The facade design harmonizes with the project's typology and construction.

By vertically stacking the program across three floors, different functions and their corresponding access points are discretely separated from the exterior. The top floor accommodates the restaurant, complete with a kitchen and an adjoining three-sided terrace.

Access is available year-round via the forest path. The middle floor, nestled into the northern terrain, logically houses delivery, storage, and technical rooms. On the ground floor, to the south, a self-service buffet with outdoor seating arranged on three sides encircles the building.

These are accessed from the cashier's house.

Sanitary and storage facilities are located towards the rear.

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INTERIOR DESIGN

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APPARTMENT INTERIOR DESIGN IN BEIJING Private Project February, 2021 Dabai Design, Beijing - Interior Design - 3D Modeling - 3D Rendering

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ROOFTOP HOUSE IN HONGKONG Private Project April 2022 Dabai Design, Beijing - Interior Design - 3D Modeling - 3D Rendering

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INDOOR CHILDREN PLAYGROUD INTERIOR DESIGN Commercial Project June 2022 Dabai Design, Beijing - Interior Design - System Design - 3D Modeling - 3D Rendering

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OTHER WORKS

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COLONIA GÜELL CRYPTA

spatial isometry

Case Study Design Studio HS 2019 with Prof. Christian Kerez Assistants: Joni Kacani Michelle Nägeli & Nadia Dias In Cooperation with Lisa Kusaka & Cyrill Wechsler

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columns isometry

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Mia T. Lan MSc ETH Arch Dipl. Arch. ETH Email: mialan.design@gmail.com Tel: +1 (669) 264 - 6520 Sunnyvale, CA94085

May 2024