Anton Zasypkin CV|Portfolio 2012-2014

Anton Zasypkin

CV | PORTFOLIO 2012-2014

CURRICULUM VITAE Anton Zasypkin Architect, MA

Birth: 07.09.1989, Russia Live: Germany Status: married Skype: antonzasypkin E-mail: zasypkinanton@gmail.com Tel.: +49 174 6259243, Germany +7 918 3542045, Russia

EDUCATION: 2006 - 2012

Architect - urban planner

Faculty of Architecture and Design, Kuban State University Krasnodar, Russia 2012 - 2014

Master of architecture

Dessau Institute of Architecture (DIA), Anhalt University of Applied Sciences Dessau, Germany

PROFESSIONAL EXPERIENCE: 2008 - ongoing

Architect, own practice

Small scale architectural projects, interior design, prototyping, visualization, art Russia Feb. - Aug. 2011

Architect - urban planner

Urban planning shemes, working drawings | Land-use planning institute Krasnodar, Russia Sep. - Nov. 2011

Architect - urban planner, intern

Urban planning shemes, visualization | Grazjdanproject Krasnodar, Russia

COMPETITION: 2014

Robert Oxman prize, winner

Best thesis project | DIA, Anhalt University of Applied Sciences Dessau, Germany

SKILLS: CAD

ArchiCAD | AutoCAD

Graphical design

Adove Illustrator | Adobe Photoshop

Modelling

Maya | Rhino

Programming, scripting

Arduino | Grasshoper | Phyton | Processing

Rendering

Artlantis Studio | Maxwell Render | Rhino V-ray

LANGUAGE: English

Fluent speaker

German

Basic level

Russian

Native language

OTHER INTERESTS: 2008 - ongoing

Wine-making

Co-owner and wine-maker in small home winery

Prototyping, modeling in robotics and mechanics

Kinetic art (based on Arduino), building prototypes, mechanisms inventing

Traveling

TABLE OF CONTENT MASTER THESIS PROJECT

SKETCHBOX

06 2014

Human-machine interface for rapid prototyping CNC TECHNOLOGY EXPLORING

3DIA PRINTER

12 2014

Design, building, explore own 3D printer and extending its possibilities

CNC MILLING

15 2014

Detachable milling head for 3DIA printer INSTALLATION

16

THE CLOUD

2013

An interactive installation which responds to the sounds

17

INTERACTIVE INTERIOR

2013

Responsive, adaptive and interactive structures studies

MULTICELLULAR

20 2012

Material behavior and cell geometry studies in self-supporting multicellular structures URBAN PLANNING

RECONSTRUCTION

22 2012

Sedina street reconstruction in historic center of Krasnodar city RESIDENTIAL AND PUBLIC BUILDINGS

FUTURE OF THE EXISTING

26 2012

Revitalization of large-scale “Quelle” building RELEVANT SKILLS

30 2012

HAND DRAWINGS The set of academic drawings, design drafts and travel sketches

MASTER THESIS PROJECT

SKETCHBOX Task: Supervisors: Place: Date: Award: Video, more info:

Human-machine interface for rapid prototyping | Master thesis | Solo work Krassimir Krastev, Alexander Kalachev DIA, Anhalt University of Applied Sciences | Dessau, Germany Fall ’13 - Spring ‘14 Robert Oxman prize, winner | Best thesis project | DIA www.youtube.com, www.vimeo.com, www.issuu.com

THESIS ABSTRACT The aim of the SketchBox master thesis project is to improve, accelerate the architect's workflow process, significantly expand his capabilities by using. SketchBox human-machine interface is multifunctional environment for rapid prototyping and a platform for interaction between technologies. The interface is eliminating the way of traditional 2D manipulation interaction and manual data input, which are slowing down and limiting a designing process.

The SketchBox 3D environment has ability to “see”, sense user’s motions. Thus, users get ability of touchless data input for designing process, as well to edit or modify it. It gives an advantages in sketching process, outlining first ideas, building models and etc.

TEHCNOLOGIES UNDER THESIS RESEARCH - CNC subtracting/additive machines; - motion sensing input devices.

Handmaid sensor

3DIA printer

3DIA CNC milling Kinect

Arduino Leap Motion

STUDIO BRIEF Thesis research is exploring the impact of recent developments in open source software and hardware onto the discourses in contemporary architecture field.

As a part of thesis research, one of the goals was to design and build own 3D printer. Practical point of view gives much wider understanding of CNC technologies impact on architecture.

SketchBox

HUMAN-MACHINE INTERFACE FOR RAPID PROTOTYPING SKETCHBOX CONCEPT

6

3DIA PRINTER

MASTER THESIS PROJECT - SKETCHBOX

KINECT Kinect is a whole-body tracking device and has ability to recognize each part of the body individually.

Processing software allows to hack Kinect and use it as input data sensor for modeling.

Within the SketchBox project I assigned individual commands to some user’s body parts. In this way the user represent the operation controller itself.

CONCLUSIONS: + 1:1 scale modeling; + big open source base; - low presicion for finger’s tracking; - sensor needs minimal distance (min 0,8 m).

Right hand as additive mesh brush

Left hand as subtracting mesh brush

Dimention between hands as brush size

1:1 SCALE RAPID MODELING WITH KINECT

MOTION SENSING INPUT DEVICES Motion sensing technologies allows to track changing the position of an object in space relative to the sensor itself or its surroundings.

This technology was first applied as a photogrammetric analysis tool in biomechanics research and nowdays expanded in many fields. Motion sensing technologies offers rapid, real-time data input.

KINECT GASTURE CONTROLL SYSTEM

1:1 SCALE RAPID MODELING TEST WITH KINECT

7

MASTER THESIS PROJECT - SKETCHBOX

ALUMINIUM FOIL BOX Aluminium foil box is hand made motion sensor device, which allows to track movement of the hand.

Arduino translate interaction values between user's hand and electric field inside the box into input data stream. Then Processing script read this data and represent user’s hand as digital 3D brush.

ELECTRIC FIELD

INTERACTION WITH HAND

ALUMINIUM FOIL BOX RAPID MODELING TEST

8

ALUMINIUM FOIL BOX MOTION SENSOR DEVICE

USER’S HAND AS 3D BRUSH

CONCLUSIONS: + cheap parts, DIY sensor; + size of interaction area could be adapted as needed; + use open-source software and hardware; - needs higher precision (improve the circuit).

RAPID MODELING TEST RESULT

MASTER THESIS PROJECT - SKETCHBOX

LEAP MOTION Leap Motion is a table computer hardware sensor device that track user’s hands and fingers motions as input for interaction.

To increase the size of operating area I wrote the script in Processing. Within that script I am able to shift the operating area back and forward in space.

LEAP MOTION SENSOR DEVICE AS TOUCHLESS SCREEN

60 cm 8 cm

50 cm 35 cm

8 cm 15 dig

STANDART OPERATING AREA

LEAP MOTION RAPID MODELING TEST

y

SHIFTED AREA

MODELING WITH SHIFTED AREA

CONCLUSIONS: + very high presicion; - small and narrow area for interaction.

RAPID MODELING TEST RESULT

9

MASTER THESIS PROJECT - SKETCHBOX

A

STRUCTURE ANALYZE AND OPTIMIZATION By making use of structures deriving from nature, like the bone structure, it is possible to construct forms that have an innate optimal geometry. By combining the biomimicry with mathematic patterns for building technology some benefits have been explored.

The most important bone structure feature is high structural strength with minimum use of material. Practical use of bone structure logic in my project helps to save time for printing/prototyping, cut material costs, minimize waste.

6 weeks

23

104

230

MORPHOLOGICAL STUDY OF BONE DEVELOPMENT (A) The initial configuration becomes coarser and obtains more directionality when it matures.

(B) Initially the volume fraction (VF) rises sharply.

56

B BV / TV 0.4 vertebral & prox. tibial specimens 2 mm

HEALTHY BONE TISSUE

0.0

0

100

200

weeks of age

IMAGE, SCHEME: HTTP://WWW.ARNOPRONK.COM

INJURED BONE TISSUE

MICRO-FEM MODEL

FROM MESH MODEL TO OPTIMIZATED BONE STRUCTURE MODEL

BONE STRUCTURE OPTIMIZATION PROCESS

10

OPTIMIZATED MODEL TO PRINT

MASTER THESIS PROJECT - SKETCHBOX

SUBTRACTING WITH CNC MILLING CNC milling provide precise process of subtracting the physical model. We get the ability to immediately start editing just printed physical prototypes by editing digital 3D model.

3DIA CNC milling system construction allows to appear only when its needed, by moving up and down in Z-axis on the same plate as extruder.

SKETCHBOX CNC MILLING SCENARIO: - select/upload mesh model; - by manipulating with hands choose zone for CNC milling to define subtracting zone (red); - put the physical prototype back to CNC machine; - run CNC milling process; - enjoy the result.

SKETCHBOX CNC MILLING

SKETCHBOX CNC MILLING SCENARIO

11

CNC TECHNOLOGY EXPLORING

3DIA PRINTER Task: Team members: Own role in team: Supervisor: Place: Date: Video, more info:

Design, build, explore own 3D printer, extending its possibilities | Team work Anton Zasypkin, Maria Jose Rubira, Zuzanna Kotecka Designing, elaboration, building the construction, wiring, partly coding Krassimir Krastev DIA, Anhalt University of Applied Sciences | Dessau, Germany Fall ‘13 - Spring ‘14 www.youtube.com, www.vimeo.com

DESIGN After theoretical reseach, the aim was to create own 3D printer to explore CNC technology more deeply and its limitations from a practial point of view.

The main design parameters were big size and the ability to adapt the machine to other purposes besides 3D printing.

Based on that next step was to extend possible applications of that machine.

BASIC CHARACTERISTICS: - type of printing: FDM; - material: ABS plastic; - max model: 20x20x40 (cm), adjustable 40x40x70 (cm).

3D SECTION

12

FRAME

X, Y AXES MOVEMENT SYSTEM

Z AXIS MOVEMENT SYSTEM

CNC TECHNOLOGY EXPLORING - 3DIA PRINTER

MOVEMENT SYSTEM DEVELOPMENT. COMPARISON AND CONCLUSIONS During the development of 3DIA printer we tested three diffrent types of movement system for Y and X axes: gear, belt and rod. First two occured to be failure because of pretty big span of 3DIA printer and required substantial improvements. For Z axis we chose rod system as well. Such system allows to move pretty heavy parts with high precision and high fixation of the position.

GEAR SYSTEM

BELT SYSTEM

ROD SYSTEM

+ evenly distributed loads on the motors; + suitable for any span of the rails; + rails easy to expand; + needs low power motors; - high wooden gear wear; - backlash, poor precision; - high rail/gear parts fabrication accuracy required.

+ light weight; + needs small space; + good for small size CNC machines; - precise installation; - high power motors required; - expensive parts; - irregularly distributed loads on the motor.

+ evenly distributed loads on the motors; + suitable for any size of CNC machines; + inexpensive parts compare to other tested systems; + high precision; + suitable for all 3 axes; - high motor connectors fabrication accuracy required.

13

CNC TECHNOLOGY EXPLORING - 3DIA PRINTER

MICROCONTROLLERS AND THE CIRCUIT Components on Arduino board interface between the microcontroller, parts and the computer.

RAMPS 1.4: - process G-code instructions; - control the four step motor controllers; - control the temperature of the hot-end and monitor the hot-end thermistor; - passing signal from end stops; - control the temperature of the heated bed and monitor the heated bed termistor.

Hot end power supply

Arduino MEGA 2560 RAMPS 1.4

ARDUIINO AND RAMPS MICROCONTROLLERS

X axis endstop

Extruder motor

Y axis endstop Z axis endstop

1 Modeling software

Z axis motor #1

Heated bed power supply

Z axis motor #2

2 Firmware and G-code

3 Slicing software

Main power supply

4 G-code sender

SOFT SEQUENCE

14

3DIA PRINTER CIRCUIT

Heated bed thermistor Hot end thermistor

Y axis motor

X axis motor

CNC TECHNOLOGY EXPLORING

CNC MILLING Task: Extend possibilities of 3DIA printer | Solo work Place: DIA, Anhalt University of Applied Sciences | Dessau, Germany Date: Spring ‘14

Support structure with rails

DESIGN 3DIA CNC milling system as the new option within the same machine.

There is two ways to use milling spindlehead on the same platform as extruder: use universal connection points for both systems to be able to change between them or put one next to another. I chose second option as it allows to not reload CNC machine all the time.

Milling spindlehead is fixed on mechanism which allows moving up and down in Z-axis to come up only when it needs.

3DIA PRINTER WITH CNC MILLING SYSTEM

Filament pull motor

Z-axis movement motor

Spindlehead DC motor Extruder The drill SKETCHBOX CNC MILLING SYSTEM AND 3DIA PRINTER EXTRUDER

CNC MILLING SYSTEM

CNC MILLING HIDING

15

INSTALLATION

THE CLOUD Task: Team members: Supervisors: Location: Date: Video, more info:

DESCRIPTION The Cloud is an interactive installation which responds to the sound in real-time.

Main structure consist out of two long spring steel wires.

Movement system operate with 9 motors and called by different sound frequency.

Frequency range gives variety of reaction from the slight motion of flappng parts to dramatic shaking and shrinkage of the whole structure.

1

2 3

3

2 1

Flapping parts MOVEMENT SCHEME

CIRCUIT SCHEME

16

Vibration

Installation for Interactive Shanghai Exhibition ‘13 | Team work Anton Zasypkin, Arina Agieva, Dmitry Zhuikov Prof. Neil Leach, Alexander Kalachev, Karim Soliman DIA, Anhalt University of Applied Sciences | Dessau, Germany Spring ‘13 www.vimeo.com

INSTALLATION

INTERACTIVE INTERIOR Task: Team members: Supervisors: Place: Date: Video, more info:

Installation for Interactive Shanghai Exhibition ‘13 | Team work Anton Zasypkin, Arina Agieva, Dmitry Zhuikov Prof. Neil Leach, Alexander Kalachev, Karim Soliman DIA, Anhalt University of Applied Sciences | Dessau, Germany Spring ‘13 www.youtube.com, www.vimeo.com Kinect

STUDIO BRIEF The aim of the studio is to design and builld a series of proto-architectural studies consisting of a responsive environment that can adapt and change according to particular requirements.

The overall objective of the studio is to design a responsive or interactive environment, to fabricate it, and to activate it using robotic fabrication technologies.

The studio was divided into six distinctive phases: 1. Computation workshops 2. Biomimetic studies 3. Initial design development 4. Advanced design development 5. Fabrication and assembly 6. Exhibition installation

Interaction zone

Noise adaptaion

Light adaptaion

Size adaptaion

INTERIOR ADAPT TO AMOUNT OF PEOPLE

ORIGAMI STRUCTURE FOLDING SIMULATION

ORIGAMI FOLDING STRUCTURE STUDIES

17

INSTALLATION - INTERACTIVE INTERIOR

INTERACTIVE INTERIOR IDEA The interest in responsiveand adapting environment bring us to idea of the interactive structure as a part of interior.

This structure can be actuate by user’s requirments accroding to its function.

Before came up with idea of “The Cloud”, during the studies we tested various responsive systems and used different materials for each of them.

INTERACTIVE AGGREGATION Sound responsive surface which activating according to sound frequency range. Structure consist of multiple curved tail-like units based on origami logic. Each tail actuates in accordance to particular audio frequency.

PIANO TAILS FOLDING AGGREGATION C1

C2

C3

C4

C5

C6

C7

C8

OFF

ON

Piano Voice Hand clap PIANO TAILS MOVEMENT SHEME

18

PROTOTYPE TEST

TABLE OF PIANO TAILS RESPONSE TO SOUND FREQUENCY

INSTALLATION - INTERACTIVE INTERIOR

VISUALIZATION OF THE SOUND WITH PROCESSING APPLICATION

SOUND AS AN INPUT As the main input for studies we chose sound. To activate our intercative structures we used Arduino to translate signals from microphones through Processing to mechanics.

SOUND SENSITIVE STRUCTURE SPRING STEEL WIRE EXPERIMENTS

LIST OF WORKS: - material behaviour studies (spring steel wire, tissue tension...); - origami folding structures studies; - digital sound visualization (Processing); - Nitinol wire experiments.

Nitinol shape memory alloy wire NITINOL WIRE AND ARDUINO CIRCUIT

SOUND SENSITIVE STRUCTURE PROTOTYPE

ORIGAMI FOLDING STRUCTURE STUDIES - DOUBLE CURVED TAIL

ORIGAMI FOLDING STRUCTURE STUDIES - SPRING TAIL

INTERACTIVE CELL AGGREGATION

19

INSTALLATION

MULTICELLULAR Task: Team members: Supervisor: Place: Date: Video, more info:

Multicellular structure from homogeneous cells | Team work Anton Zasypkin, Alexander Amirov, Petrit Pasha, Cves Xiao Alexander Kalachev DIA, Anhalt University of Applied Sciences | Dessau, Germany Fall ‘12 www.vimeo.com

DESIGN BRIEF The final task was to build self-supporting structure out of homogeneous cell units. The aim was to study interconnection in material behaviour with particular cell geometry.

Criteria of the cell: - made out of square piece of chosen material; - individual stability; - assembling in structure; - maximum use of material (avoid cutting out, overlapping).

DIGITAL MODEL OF MULTICELLULAR PROJECT

STRUCTURE Within donut-like design we were able to test multiple loads (tension, compression, stretching, external loads) on choosen cell geometry in particular and to the structure as a whole.

With simple cuts on flexible material, the cell can be bended according to provided diagram. As the material for cells we choose plastic sheets. Plastic is very flexible in bending and gives stability to the cell. To connect cells together we used plastic connectors.

CELL UNITS ASSEMBLAGE DIAGRAM

20

INSTALLATION - MULTICELLULAR

Split the surface

Surface to populate cells

GRASSHOPER DEFINITION Cell units geometry is variable according to location in structure and specified loads. To calculate geometry of each cell we used Grasshoper plugin for Rhino which allowed us to create the sript for particular task. After calculation it gives proper cutting map, joints position for each cell.

Map cells on surface

CELL UNIT DESIGN Number the cell units

GRASSHOPER DEFINITION

FINAL MODEL CONSTRUCTION PROCESS

21

URBAN PLANNING

SEDINA STREET RECONSTRUCTION Task: Supervisor: Place: Site location: Date:

Reconstraction of Sedina street in Krasnodar city | Graduate thesis | Solo work Irina Goloverova Faculty of Architecture and Design, KubSU | Krasnodar, Russia Krasnodar, Russia Fall ‘11 - Spring ‘12

DESCIPTION Thesis project propose reconstruction of Metrophana Sedina street in central historic area of Krasnodar city.

The main focus of the project is an architectural monuments heritage. There are 24 historical monuments of architecture within the area under reconstruction.

Street development design is interrelated in functional and visual connections with the main street of Krasnodar - Krasnaya street. Thesis project propose expressed as overall spatial-volumetric solution with more detailed design for major parts of Sedina street.

3

1

SPATIAL-VOLUMETRIC SOLUTION OVERVIEW

SEDINA STREET EAST SIDE VIEW

22

2

URBAN PLANNING - SEDINA STREET RECONSTRUCTION

SITE INFORMATION Krasnodar (former Ekaterinodar) city was founded in 1793 as Cossack military fortification and located on a bend of Kuban river.

Urban layout in the historical area of the city reminds Roman style of city planning structure and formed by a rectangular grid of streets with major highways in meridional direction. City blocks are square shape with 300 meters length of the sides.

4

Superstructure within the historic building

Creating a silhouette building

New building in dense row of historical ones

Introduction of new structure in the historic ensemble

Neutral-style background for historic buildings

Annex a new volume to the stand apart historic building

METHODS OF INTRODUCTION INTO HISTORICAL ENVIRONMENT

AIMS OF THE PROJECT: - city new multifunctional attractive points; - design solutions based on historical building surroundings; - restoring, conservation and development of architectural ensembles along the street; - new pedestrian, functional and visual linkages to the main city street - Krasnaya; - blocks layout based on historical principles of formation; - developing by small sections accroding to land cadastre (non-condradiction method); - forming building line.

23

URBAN PLANNING - SEDINA STREET RECONSTRUCTION

MEDICAL UNIVERSITY ENSEMBLE RESTORING (A)

MEDICAL UNIVERSITY ENSEMBLE RESTORING Nowadays, unformed ensemble represented by the main Medical Academy building and multi-style surroundings. Design solution is to balance site surroundings relative to the main point of ensemble perception (street perspective) and to the Academy building itself.

RENOVATION DEVELOPMENT METHOD Urban planning proposal consider so-called “non-contradiction method of renovation in city historical area”. It based on land cadastre plan and offering an individual design solutions for each land section according to historical site development. This approach allows to preserve a historical environment within dense site coverage.

Year: 1912

Medical Academy (1898) Year: 1899

Year: 1905

3

Year: 1910 Year: 1888 2

- existing - historical - new

Year: 1819

A 1

Year: 1819

MEDICAL UNIVERSITY AREA DESIGN PROPOSAL

24

Year: 1920 Year: 19th c

4

URBAN PLANNING - SEDINA STREET RECONSTRUCTION

MEDICAL UNIVERSITY (EPARCHIAL SCHOOL), 1918

ARCHITECTURAL ENSEMBLES RESTORING: 1 - Medical Academy ensemble (was built in 1898, unfinished); 2 - Cossack’s wine-distillery ensemble (factory was founded in 1902, unfinished); 3 - St. Catherine cathedral ensemble (was built in 1900, spoiled by Soviet Government church persecution, visually hidden); 4 - St. Georgy church ensemble (was built in 1910, unformed and ensemble destructed under surroundigns impact).

Year: 1819 MASTERPLAN

Year: 1848

DEVELOPMENT OF ARCHITECTURAL ENSEMBLE During the urban development city streets falls in parts under many different architectural styles influence. Some of this styles are contradicting one another and cause upset to the principle of continuity. Thus, Sedina street took uneven development as well.

Thesis design proposal goal is to find lost links between architectural styles and to build foundation for future city development.

Year: 1899 KRASNODAR CITY PLANNING LAYOUT DEVELOPMENT

25

RESIDENTIAL AND PUBLIC BUILDINGS

FUTURE OF THE EXISTING Task: Team members: Supervisor: Place: Site location: Date:

Revitalization of the large-scale «Quelle» building | Team work Anton Zasypkin, Alexander Amirov Prof. Johannese Kister DIA, Anhalt University of Applied Sciences | Dessau, Germany Nurnberg, Germany Fall ‘12

STUDIO BRIEF The „Quelle“ building was designed by Ernst Neufert for the mail order company „Quelle“ in the 1950-ties. There are 10.000 people who had been working there.

But new forms of distribution have succeeded the classic ways of customer service that the mail order business has been in crisis. The building is 20.000 m2, empty and without any function now.

The task is to incorporate the sustainable urban development aspect and include the building’s structure as a monument.

QUELLE BUILDING BACKYARD Quelle tower Recreation area Storage and delivery

“QUELLE” - FORMER MAIL ORDER COMPANY

26

For deliveries Quelle gas station

For deliveries

Mail order offices

Cafeteria Quelle shopping center

UNIVERSITY AS IDEA The large-scale “Quelle” building represented as a city in the city. One day the city disappeared. The phisical body was left as a memory of the place.

The main idea is to revive this relationships with new function. The idea is to create scientific center - “Quelle unversity”.

RESIDENTIAL AND PUBLIC BUILDINGS - FUTURE OF THE EXISTING Laboratories/workshops

Dormitories Public spaces

University/school

QUELLE BUILDING OVERVIEW (EXISTING STATE)

FRAMEWORK (BEAMS, COLUMNS)

Classrooms 14880 m2 9600 students

Dormitories, hotel 11400 m2 520 places

Laboratories 7200 m2 540 scientists

Offices, shops 6700 m2 149 workers

DESIGN PROPOSAL - “QUELLE UNIVERSITY” FUNCTIONAL ZONES

ATRIUMS Ecotect test shows us low level of insolation in wide areas.

Openings-atriums through the building allowed to reach the required value and at the same time preserve the structure.

LAYOUT - “QUELLE UNIVERSITY”

FLOOR SLABS

VERTICAL COMMUNICATION

ECOTECT DAYLIGHT ANALYSIS (EXISTING BUILDING STATE)

27

RESIDENTIAL AND PUBLIC BUILDINGS - FUTURE OF THE EXISTING

QUELLE UNIVERSITY Large-scale “Quelle” building is a well organized city, fine mechanism. Its location, developed basic infrastructure, convenient vertical and horizontal communication system and the history of the building gave us an idea to convert it to university campus. Neufert’s strusture design is very adaptable for it.

The system of atriums gives necessary amount of natural lighting up to ground floor and work as a big public space.

“QUELLE UNIVERSITY” ATRIUMS

28

RESIDENTIAL AND PUBLIC BUILDINGS - FUTURE OF THE EXISTING

“QUELLE UNIVERSITY” GROUND FLOOR PLAN

“QUELLE UNIVERSITY” OVERVIEW

29

RELEVANT SKILLS

HAND DRAWINGS

30

RELEVANT SKILLS

31

2014