PORTFOLIO
ARCHITECTURE PHOTOGRAPHY DESIGN
MAURITS STOFFER
ARCHITECTURE & URBANISM
CONTENT
1. OSDORP - AMSTERDAM
SPRING 2014
5. BUCKY LAB - ICONICS
WINTER 2015
6. THE NEW ARTHALL - ROT TERDAM
SPRING 2015
4. HIGH -RISE - THE HAGUE
SPRING 2016
3. RECIPROCAL FRAME - AMSTERDAM
FALL 2016
2. REDESIGN PATHÉ - ROT TERDAM
FALL 2015
CONTENT
DESIGNPHOTOGRAPHY
7. ‘MOODLIGHT’ - BRISBANE
2012
8. URBAN PANORAMA’S
2012
10. SOUND DIFFUSERS
SUMMER 2015
11. VACUUM FORMER
WINTER 2015
12. GRAPHIC DESIGN
2012 - PRESENT
9. NATURE & WILDLIFE
2010 - PRESENT
1. OSDORP - AMSTERDAM
DURATION
10 weeks
STRENGTHS
A great variety of residential building types.
Interesting relation between private- & public space.
Elevated ground level above the parkinglot for a more pleasent public space.
Did research and analysis on the demography of the neighborhood.
OPPORTUNITIES
Using better and more advanced 3D-moddeling programs.
Invest time in making accurate models.
Visit the location more often.
PROGRAMS USED
Revit Architecture 2012
Adobe Photoshop CS5
AutoCAD 2012
A NEW MASTERPLAN
INTERACTION PUBLIC- VS. PRIVATE SPACE - 1:150
RESIDENTIAL BUILDING 170 M2
A 1 2 1 3B
+ 3000
+ 6000
+ 9000
A 1 2 1 3B
+ 3000
+ 6000
+ 9000
A B
+ 3000
+ 6000
+ 9000
RESIDENTIAL BUILDING - 1ST FLOOR - 1:150 ELEVATION - 1:100
HORIZONTAL SECTIONS - 1:100
VERTICAL SECTIONS - 1:100
RESIDENTIAL BUILDING - 2ND FLOOR - 1:150
GROUND FLOOR + CONTEXT
VERTICAL SECTION - 1:200 ELEVATION - 1:200
FAÇADE REDESIGN
2. PATHÉ - ROTTERDAM
DURATION
5 weeks
STRENGTHS
Fast analysis of the existing situation.
Concept based on the needs of the Schouwburgplein.
Use of innovative openable windows.
Multiple configurations of the façade possible.
OPPORTUNITIES
The design variations needed acoustical testing.
Challenging to only change the existing façade without structural interventions.
PROGRAMS USED
SketchUp Pro
AutoCAD 2015
Adobe Photoshop CS6
Adobe Illustrator CS6
Adobe InDesign CS6
# 1
# 1
# 2
# 3
# 3
# 4
# 1
# 1
# 2
# 3
# 3
# 4
Acoustic Sound Diffusers Friedrichstrasse 40 Office Building, Berlin - Petersen Arch.
Research and Development Centre, Dogern - Ludloff+Ludloff Arch.
Leibniz Institute for Age research, JenaNina Vogler Kalzip roof cladding
REFERENCES CLIMATE SCHEMES
One of the principles of the sailfacade is that de sails roll up
in pairs. The sails are rolled up in each other and they are rolled
in or rolled out together.
On the side of the sunscreen, there are two motors which are able
to wind up the sails of the screen below or above. The sunscreens
can rotate clockwise as well as counter clockwise.
In these vertical sections, the system of rolling in and rolling out the sails is shown. The principle is based
on the powercord of a vacuum cleaner. The maximum tension of the sails is right before it gets to the turn.
When pushed a little further, the motors will get the signal to release the cord due to the decrease in tension.
The facade has 4 different
motors. The pattern shown
above is used in the entire
facade.
Two of the five sunscreen-
rails are locked. Three can
move from and towards
the building as shown in
the diagram to the right.
LOCKED
# 1
# 1
# 2
LOCKED
LOCKED
# 3
# 3
# 4
LOCKED
RESEARCH QUESTION:
How can a textile outer layer of a double skin facade has a positive influence on the total energy balance of the building and still contains acoustic suitability for the square?
HEAT EXCHANGER HEAT EXCHANGER
HEAT EXCHANGER HEAT EXCHANGER
Underground Thermal Energy Storage
HEAT PUMP
Hot water from
heat exchanger
past back to
heat pump
Hot water from
heat exchanger
past back to
heat pump
Hot water from
heat exchanger
past back to
heat pump
Hot air by the
draft in the facade
is passed to the
heat exchanger
Independent unities
Mecanical ventilation
Independent unities
Mecanical ventilation
Underground air inlet
Sails down for
sunshading
Asphalt collector
Underground Thermal Energy Storage
HEAT PUMP
Independent unities
Mecanical ventilation
Independent unities
Mecanical ventilation
Underground air inlet
Sails up to
collect warmth
Double facade
functions as a
buffer zone
Vent opened
Vent closed
Underground Thermal Energy Storage
HEAT PUMP
Hot air by the
draft in the facade
is passed to the
heat exchanger
Independent unities
Mecanical ventilation
Independent unities
Mecanical ventilation
Underground air inlet
Windows open
for natural
ventilation
Asphalt collector
Dynamic airflow through the sails
Windows are closed
Dynamic airflow through the sails
Windows are open for cross ventilation
The sails are completely closed and function as a
buffer zone. The warm zone will warm up the foyer.
The sails are closed which functions as sunshading
The sails are pulled up to collect the warmth of the sun Different varieties of sailpatterns are possible.
The width of the bufferzone can change, so that
there will be dynamic airflow inside the zone.
Asphalt collector
Hot water from
heat exchanger
past back to
heat pump
Underground Thermal Energy Storage
HEAT PUMP
Independent unities
Mecanical ventilation
Independent unities
Mecanical ventilation
Underground air inlet
Sails closed as
second skin
Double facade
functions as a
buffer zone
Vent closed
Asphalt collector
SUMMER
MORNING AFTERNOON
WINTER
FAÇADE LAYERING - 1:15
OFFICE FLOOR - 1:15 CLIMATE SCHEMES
MODEL
SPIDER GLASS HYDRAULICS - 1:15
SAIL CONNECTIONS - 1:15
INVESTIGATED TESSELLATIONS
IMPRESSIONS
CONFIGURATION SET-UP TESSELLATION MAPPING
RECTANGUL AR TRIANGUL AR TRIANGUL AR HE X AGONAL CIRCUL AR
SUSTAINABLE WORKSHOP ARCHITECTURE & TECHNOLOGY
3. RECIPROCAL FRAME CANOPY - AMSTERDAM
DURATION
11 weeks
STRENGTHS
Before going into detail a thorough analysis of the spatial and social challenges as well as potentials of the plot was made.
A strong integration between structure & façade. The façade design gave necessary structural boundaries.
All the investigated tessellations were parametrically scripted in Grasshopper.
Used Kangaroo Grasshopper to formfind the overall shape of the canopy.
Strong values and goals were set up in the early phase of the design project.
OPPORTUNITIES
Going more in depth of the joinery and connection to realise better structural performance.
If there was more time, various tessellations could be structurally analysed in order to find the optimized RF canopy.
PROGRAMS USED
Rhinoceros 3D
Grasshopper
GH Kangaroo
GH Karamba
Adobe Photoshop CC
Adobe Illustrator CC
Adobe InDesign CC
Autodesk AutoCAD 2015
FINAL TESSELLATION
SEGMENT ANALYSIS 2D SHEET ANALYSIS SIMPLIFIED FRAME ANALYSIS
RECIPROCAL FRAME MODEL
Malieveld
Pl
Binnen
South-East wind
MULTIDISCIPLINAIRY DESIGNPROJECT - COMPUTATIONAL DESIGNER
4. HIGH-RISE ‘DE HAAG’ - THE HAGUE
DURATION
11 weeks
STRENGTHS
Multidisciplinairy design project where everyone had it’s own role
In depth computational research is done on the overall design
Worked with a lot of programs - as well as plugins - to get qualitative results
A lot of variations on vertical façade fins are designed and analyses computationally
OPPORTUNITIES
Needed more time to optimize all the data derived from the analysis.
Challenging to contribute with input that is useful for every role in the multidisciplinairy project.
PROGRAMS USED
Rhinoceros 3D
Grasshopper + multiple plug-ins
Adobe Photoshop CC
Adobe Illustrator CC
Adobe InDesign CC
Autodesk Revit Architecture
Autodesk AutoCAD 2015
Autodesk Flow Design
Google SketchUp Pro
Velux Daylight Visualizer 3
CONCEPT - SUN & GREENSPACE
ENVIRONMENTAL ANALYSIS - SHADING
CONCEPT - WIND - & URBAN DIRECTION
Base geometry
Side length: 75 m
BASE GEOMETRY CORNER FILLET EDGE CURVATURE FUNCTION SCALING
Corner fillet
Radius: 5 m
Corner fillet
Radius: 10 m
Corner fillet
Radius: 15 m
Edge curvature
Grid offset: - 7.5 m
Edge curvature
Grid offset: + 7.5 m
Edge curvature
Grid offset: + 3.75 m
Function scaling
Terrace width: 2.5 m
Function scaling
Terrace width: 3.75 m
Function scaling
Terrace width: 5.0 m
10
2
3
4
5
6
7
8
9
0 1
2
3
4
5
6
7
8
9
BASE GEOMETRY CORNER FILLET EDGE CURVATURE FUNCTION SCALING
269.5 m
71 Floors
265.5 m
70 Floors
197.1 m
51 Floors
326.7 m
87 Floors
366.3 m
98 Floors
229.5m
60 Floors
283.5 m
75 Floors
449.1 m
121 Floors
445.5 m
120 Floors
315.9 m
84 Floors
BASE GEOMETRY PARAMETERS BASE GEOMETRY TO BUILDING HEIGHT
SOLAR ANALYSIS
PREVEILING WIND DIRECTION DAYLIGHT PERFORM SIMULATION
PRODUCT USAGE
IMPROVING ACOUSTICAL COMFORT BY CONICAL SHAPED ELEMENTS
5. BUCKY LAB - DELFT
DURATION
20 weeks
STRENGTHS
A lot research on the acoustical performances of the cones - design by research.
Performed accurate acoustical tests of 3D-printed samples using an impedence tube.
Did a lot of prototyping - 3D-printing, turning wood lathe, concreet mold, vacuum forming.
Built our own vacuum forming machine to produce the cones efficiently.
The cones had unexpectedly high absorptioncoëfficients - close to 1 at multiple frequencyranges.
OPPORTUNITIES
Finding a way to make samples more efficient compared to 3D-printing.
PROGRAMS USED
Rhinoceros 3D
Grasshopper
Repetier & Slic3r - 3D printing
Adobe Photoshop CS6
Adobe Illustrator CS6
AutoCAD 2015
PROTOT YPING STRUCTURAL ANALYSIS
iCones
iCones
Spectrum of
human voice
0
0,2
0,4
0,6
0,8
1
0 200 400 600 800 1000 1200 1400 1600 1800
tneiciffeocnoitprosbadnuoS
Frequencies
REDESIGN
6. THE NEW ARTHALL - ROTTERDAM
DURATION
10 weeks
STRENGTHS
Strong dual division of the functions inside the building.
Program and routing based on surroundings.
High flexibility of the various arthalls.
Worked out structural- and climatological plans.
OPPORTUNITIES
More technical integration between the two building parts.
PROGRAMS USED
SketchUp Pro
V-ray 2013
AutoCAD 2015
Adobe Photoshop CS6
Adobe Illustrator CS6
CONTE X T 1:10 0 0
OLD SITUATION
NEW SITUATION
2
3
H
I
J
A
B
C
D
E
F
1
4
5
6
7
8
G
9
10
12
11
K
L
M
N
O
13
15
14
GROUND FLOOR
SECTION
WEST ELEVATION
2ND FLOOR - TECHNICAL PLAN
TRAFFIC PHOTOGRAPHED
7. MOODLIGHT
This portfolio was made for the course ‘Photomedia & Artistic Practice’ that I followed in Brisbane. In my portfolio I wanted to experiment with light
painting. Therefore I started shooting photographs of traffic by night. All the photographs share this principle and are all are based on lines. These
lines imply distance. The distance between my home country The Netherlands and Australia. I put intensity in the photographs by composition
and color and I wanted to convey the impression to the viewer that the center of the photograph is the part where all the emotions come together.
8. URBAN PANORAMA’S
BRISBANE - SOUTHBANK VIEW
BRISBANE - STORY BRIDGE VIEW
SYDNEY
I often look for opportunities to explore and develop myself. I did so when studying in Brisbane, Australia for one semester. This period I developed
a revived interest in photography, which resulted in staying up late and waking up early to get the most out of the shots. Below you can find a few
of my panorama’s. The greyscale photo on the next page was shot by the Tamron AF 18-250mm f/3.5-6.3 Di || with a Canon 40D body. The other
panorama’s as well as the panorama on top of Ben Lomond in Queenstown New Zealand was shot with the Sigma 8-16mm f/4.5-5.6 DC HSM.My
main interest in photography is actually not urban panorama’s, but has more to do with landscapes, nature, wildlife, and deserted sceneries. A few
of those shots can be found on the next pages.
AUSTRALIAN CITIES
9. NATURE & WILDLIFE
ROMA STREET PARK - BRISBANE, AUSTRALIAKOALA BEAR
LAKE VIEW MT. BEN LOMOND - QUEENSTOWN, NEW ZEALAND
SPIDER GOLD COAST, AUSTRALIA
AUSTRALIA & NEW ZEALAND
10. SOUND DIFFUSERS
Diffusion, in acoustics and architectural engineering, is the efficacy by which sound energy is spread evenly in a given environment. A perfectly
diffusive sound space is one that has certain key acoustic properties which are the same anywhere in the space. Diffusers are used to treat sound
aberrations in rooms such as echoes. They are an excellent alternative or complement to sound absorption because they do not remove sound
energy, but can be used to effectively reduce distinct echoes and reflections while still leaving a live sounding space. I worked out various types of
diffusers, for example the ‘primitive root diffuser’. The bandwidth of these diffusers have a range from 573 Hz to 4047 Hz. The acoustical panels
are made of wood because of sustainability reasons, the appearance and the better performance compared to the general alternatives such as
plastics and polymers.
OWN PROJECT
11. VACUUM FORMER
STEP BY STEP
1.
5.
8.
2.
6.
9.
3. & 4.
7.
10.
LOCK THE POLYST YRENE INTO THE FRAMES
WAIT FOR THE ST YRENE TO BECOME FLE XIBLE
PRESS THE ST YRENE SLOWLY OVER THE MOULD
SCREW THE FRAMES TOGETHER
PL ACE THE MOULD ON THE VACUUM BOX
DRY WITH COMPRESSED AIR & UNSCREW
TURN ON THE HE ATER & SET TIMER TO 3 MIN.
TURN ON THE VACUUM CLE ANERS
REMOVE PL ASTIC SHEET FROM THE MOULD
12. GRAPHIC DESIGN
Radius & bevel - form tool
OPERATIONSTOOLS
Principle DIAGRAM
3d CONSTRUCTION
Scraping
shearing
Cutting
TURNING WOOD LATHE
Parting - cut off tool
External threading - threading tool
Turning: cut tool / round nose tool
Dead centreLive centreLathe spindle Headstock Tailstock sleeveWorkpiece - wood Tool
The lathe is a machine tool which holds the work-
piece between two rigid and strong supports
called centers or in a chuck or face plate which
revolves. The cutting tool is rigidly held and
supported in a tool post which is fed against the
revolving work. The work will shape line symme-
trical in its center.
The lathe hasn't changed in principle since it was
a primitive, bow-powered tool that is said to have
been invented in ancient Egypt.
Tapering - round nose tool
Facing - facing tool
Necking - square nose tool
Knurling - knurling tool
Boring - boring tool
+
-
Put on the belt
Choose the block-function Adjust the scope of the bubble Play the instrument
Open the screen towards you Turn on the device
SoundShade
S
S
S
S
S
1 2 3
654
Secondary function:
Block the sound from
inside the bubble
INFOGRAPHIC SOUNDSHADE INFOGRAPHIC TURNING WOOD LATHE
GEOMETRICAL NUMBERS
PORTFOLIO
ARCHITECTURE PHOTOGRAPHY DESIGN
MAURITS STOFFER

Portfolio 2016 - Maurits Stoffer

  • 1.
  • 2.
    ARCHITECTURE & URBANISM CONTENT 1.OSDORP - AMSTERDAM SPRING 2014 5. BUCKY LAB - ICONICS WINTER 2015 6. THE NEW ARTHALL - ROT TERDAM SPRING 2015 4. HIGH -RISE - THE HAGUE SPRING 2016 3. RECIPROCAL FRAME - AMSTERDAM FALL 2016 2. REDESIGN PATHÉ - ROT TERDAM FALL 2015
  • 3.
    CONTENT DESIGNPHOTOGRAPHY 7. ‘MOODLIGHT’ -BRISBANE 2012 8. URBAN PANORAMA’S 2012 10. SOUND DIFFUSERS SUMMER 2015 11. VACUUM FORMER WINTER 2015 12. GRAPHIC DESIGN 2012 - PRESENT 9. NATURE & WILDLIFE 2010 - PRESENT
  • 4.
    1. OSDORP -AMSTERDAM DURATION 10 weeks STRENGTHS A great variety of residential building types. Interesting relation between private- & public space. Elevated ground level above the parkinglot for a more pleasent public space. Did research and analysis on the demography of the neighborhood. OPPORTUNITIES Using better and more advanced 3D-moddeling programs. Invest time in making accurate models. Visit the location more often. PROGRAMS USED Revit Architecture 2012 Adobe Photoshop CS5 AutoCAD 2012 A NEW MASTERPLAN INTERACTION PUBLIC- VS. PRIVATE SPACE - 1:150 RESIDENTIAL BUILDING 170 M2
  • 5.
    A 1 21 3B + 3000 + 6000 + 9000 A 1 2 1 3B + 3000 + 6000 + 9000 A B + 3000 + 6000 + 9000 RESIDENTIAL BUILDING - 1ST FLOOR - 1:150 ELEVATION - 1:100 HORIZONTAL SECTIONS - 1:100 VERTICAL SECTIONS - 1:100 RESIDENTIAL BUILDING - 2ND FLOOR - 1:150 GROUND FLOOR + CONTEXT
  • 6.
    VERTICAL SECTION -1:200 ELEVATION - 1:200 FAÇADE REDESIGN 2. PATHÉ - ROTTERDAM DURATION 5 weeks STRENGTHS Fast analysis of the existing situation. Concept based on the needs of the Schouwburgplein. Use of innovative openable windows. Multiple configurations of the façade possible. OPPORTUNITIES The design variations needed acoustical testing. Challenging to only change the existing façade without structural interventions. PROGRAMS USED SketchUp Pro AutoCAD 2015 Adobe Photoshop CS6 Adobe Illustrator CS6 Adobe InDesign CS6
  • 7.
    # 1 # 1 #2 # 3 # 3 # 4 # 1 # 1 # 2 # 3 # 3 # 4 Acoustic Sound Diffusers Friedrichstrasse 40 Office Building, Berlin - Petersen Arch. Research and Development Centre, Dogern - Ludloff+Ludloff Arch. Leibniz Institute for Age research, JenaNina Vogler Kalzip roof cladding REFERENCES CLIMATE SCHEMES One of the principles of the sailfacade is that de sails roll up in pairs. The sails are rolled up in each other and they are rolled in or rolled out together. On the side of the sunscreen, there are two motors which are able to wind up the sails of the screen below or above. The sunscreens can rotate clockwise as well as counter clockwise. In these vertical sections, the system of rolling in and rolling out the sails is shown. The principle is based on the powercord of a vacuum cleaner. The maximum tension of the sails is right before it gets to the turn. When pushed a little further, the motors will get the signal to release the cord due to the decrease in tension. The facade has 4 different motors. The pattern shown above is used in the entire facade. Two of the five sunscreen- rails are locked. Three can move from and towards the building as shown in the diagram to the right. LOCKED # 1 # 1 # 2 LOCKED LOCKED # 3 # 3 # 4 LOCKED RESEARCH QUESTION: How can a textile outer layer of a double skin facade has a positive influence on the total energy balance of the building and still contains acoustic suitability for the square? HEAT EXCHANGER HEAT EXCHANGER HEAT EXCHANGER HEAT EXCHANGER Underground Thermal Energy Storage HEAT PUMP Hot water from heat exchanger past back to heat pump Hot water from heat exchanger past back to heat pump Hot water from heat exchanger past back to heat pump Hot air by the draft in the facade is passed to the heat exchanger Independent unities Mecanical ventilation Independent unities Mecanical ventilation Underground air inlet Sails down for sunshading Asphalt collector Underground Thermal Energy Storage HEAT PUMP Independent unities Mecanical ventilation Independent unities Mecanical ventilation Underground air inlet Sails up to collect warmth Double facade functions as a buffer zone Vent opened Vent closed Underground Thermal Energy Storage HEAT PUMP Hot air by the draft in the facade is passed to the heat exchanger Independent unities Mecanical ventilation Independent unities Mecanical ventilation Underground air inlet Windows open for natural ventilation Asphalt collector Dynamic airflow through the sails Windows are closed Dynamic airflow through the sails Windows are open for cross ventilation The sails are completely closed and function as a buffer zone. The warm zone will warm up the foyer. The sails are closed which functions as sunshading The sails are pulled up to collect the warmth of the sun Different varieties of sailpatterns are possible. The width of the bufferzone can change, so that there will be dynamic airflow inside the zone. Asphalt collector Hot water from heat exchanger past back to heat pump Underground Thermal Energy Storage HEAT PUMP Independent unities Mecanical ventilation Independent unities Mecanical ventilation Underground air inlet Sails closed as second skin Double facade functions as a buffer zone Vent closed Asphalt collector SUMMER MORNING AFTERNOON WINTER FAÇADE LAYERING - 1:15 OFFICE FLOOR - 1:15 CLIMATE SCHEMES MODEL SPIDER GLASS HYDRAULICS - 1:15 SAIL CONNECTIONS - 1:15
  • 8.
    INVESTIGATED TESSELLATIONS IMPRESSIONS CONFIGURATION SET-UPTESSELLATION MAPPING RECTANGUL AR TRIANGUL AR TRIANGUL AR HE X AGONAL CIRCUL AR SUSTAINABLE WORKSHOP ARCHITECTURE & TECHNOLOGY 3. RECIPROCAL FRAME CANOPY - AMSTERDAM DURATION 11 weeks STRENGTHS Before going into detail a thorough analysis of the spatial and social challenges as well as potentials of the plot was made. A strong integration between structure & façade. The façade design gave necessary structural boundaries. All the investigated tessellations were parametrically scripted in Grasshopper. Used Kangaroo Grasshopper to formfind the overall shape of the canopy. Strong values and goals were set up in the early phase of the design project. OPPORTUNITIES Going more in depth of the joinery and connection to realise better structural performance. If there was more time, various tessellations could be structurally analysed in order to find the optimized RF canopy. PROGRAMS USED Rhinoceros 3D Grasshopper GH Kangaroo GH Karamba Adobe Photoshop CC Adobe Illustrator CC Adobe InDesign CC Autodesk AutoCAD 2015
  • 9.
    FINAL TESSELLATION SEGMENT ANALYSIS2D SHEET ANALYSIS SIMPLIFIED FRAME ANALYSIS RECIPROCAL FRAME MODEL
  • 10.
    Malieveld Pl Binnen South-East wind MULTIDISCIPLINAIRY DESIGNPROJECT- COMPUTATIONAL DESIGNER 4. HIGH-RISE ‘DE HAAG’ - THE HAGUE DURATION 11 weeks STRENGTHS Multidisciplinairy design project where everyone had it’s own role In depth computational research is done on the overall design Worked with a lot of programs - as well as plugins - to get qualitative results A lot of variations on vertical façade fins are designed and analyses computationally OPPORTUNITIES Needed more time to optimize all the data derived from the analysis. Challenging to contribute with input that is useful for every role in the multidisciplinairy project. PROGRAMS USED Rhinoceros 3D Grasshopper + multiple plug-ins Adobe Photoshop CC Adobe Illustrator CC Adobe InDesign CC Autodesk Revit Architecture Autodesk AutoCAD 2015 Autodesk Flow Design Google SketchUp Pro Velux Daylight Visualizer 3 CONCEPT - SUN & GREENSPACE ENVIRONMENTAL ANALYSIS - SHADING CONCEPT - WIND - & URBAN DIRECTION
  • 11.
    Base geometry Side length:75 m BASE GEOMETRY CORNER FILLET EDGE CURVATURE FUNCTION SCALING Corner fillet Radius: 5 m Corner fillet Radius: 10 m Corner fillet Radius: 15 m Edge curvature Grid offset: - 7.5 m Edge curvature Grid offset: + 7.5 m Edge curvature Grid offset: + 3.75 m Function scaling Terrace width: 2.5 m Function scaling Terrace width: 3.75 m Function scaling Terrace width: 5.0 m 10 2 3 4 5 6 7 8 9 0 1 2 3 4 5 6 7 8 9 BASE GEOMETRY CORNER FILLET EDGE CURVATURE FUNCTION SCALING 269.5 m 71 Floors 265.5 m 70 Floors 197.1 m 51 Floors 326.7 m 87 Floors 366.3 m 98 Floors 229.5m 60 Floors 283.5 m 75 Floors 449.1 m 121 Floors 445.5 m 120 Floors 315.9 m 84 Floors BASE GEOMETRY PARAMETERS BASE GEOMETRY TO BUILDING HEIGHT SOLAR ANALYSIS PREVEILING WIND DIRECTION DAYLIGHT PERFORM SIMULATION
  • 12.
    PRODUCT USAGE IMPROVING ACOUSTICALCOMFORT BY CONICAL SHAPED ELEMENTS 5. BUCKY LAB - DELFT DURATION 20 weeks STRENGTHS A lot research on the acoustical performances of the cones - design by research. Performed accurate acoustical tests of 3D-printed samples using an impedence tube. Did a lot of prototyping - 3D-printing, turning wood lathe, concreet mold, vacuum forming. Built our own vacuum forming machine to produce the cones efficiently. The cones had unexpectedly high absorptioncoëfficients - close to 1 at multiple frequencyranges. OPPORTUNITIES Finding a way to make samples more efficient compared to 3D-printing. PROGRAMS USED Rhinoceros 3D Grasshopper Repetier & Slic3r - 3D printing Adobe Photoshop CS6 Adobe Illustrator CS6 AutoCAD 2015
  • 13.
    PROTOT YPING STRUCTURALANALYSIS iCones iCones Spectrum of human voice 0 0,2 0,4 0,6 0,8 1 0 200 400 600 800 1000 1200 1400 1600 1800 tneiciffeocnoitprosbadnuoS Frequencies
  • 14.
    REDESIGN 6. THE NEWARTHALL - ROTTERDAM DURATION 10 weeks STRENGTHS Strong dual division of the functions inside the building. Program and routing based on surroundings. High flexibility of the various arthalls. Worked out structural- and climatological plans. OPPORTUNITIES More technical integration between the two building parts. PROGRAMS USED SketchUp Pro V-ray 2013 AutoCAD 2015 Adobe Photoshop CS6 Adobe Illustrator CS6 CONTE X T 1:10 0 0 OLD SITUATION NEW SITUATION
  • 15.
  • 16.
    TRAFFIC PHOTOGRAPHED 7. MOODLIGHT Thisportfolio was made for the course ‘Photomedia & Artistic Practice’ that I followed in Brisbane. In my portfolio I wanted to experiment with light painting. Therefore I started shooting photographs of traffic by night. All the photographs share this principle and are all are based on lines. These lines imply distance. The distance between my home country The Netherlands and Australia. I put intensity in the photographs by composition and color and I wanted to convey the impression to the viewer that the center of the photograph is the part where all the emotions come together.
  • 17.
    8. URBAN PANORAMA’S BRISBANE- SOUTHBANK VIEW BRISBANE - STORY BRIDGE VIEW SYDNEY I often look for opportunities to explore and develop myself. I did so when studying in Brisbane, Australia for one semester. This period I developed a revived interest in photography, which resulted in staying up late and waking up early to get the most out of the shots. Below you can find a few of my panorama’s. The greyscale photo on the next page was shot by the Tamron AF 18-250mm f/3.5-6.3 Di || with a Canon 40D body. The other panorama’s as well as the panorama on top of Ben Lomond in Queenstown New Zealand was shot with the Sigma 8-16mm f/4.5-5.6 DC HSM.My main interest in photography is actually not urban panorama’s, but has more to do with landscapes, nature, wildlife, and deserted sceneries. A few of those shots can be found on the next pages. AUSTRALIAN CITIES
  • 18.
    9. NATURE &WILDLIFE ROMA STREET PARK - BRISBANE, AUSTRALIAKOALA BEAR LAKE VIEW MT. BEN LOMOND - QUEENSTOWN, NEW ZEALAND SPIDER GOLD COAST, AUSTRALIA AUSTRALIA & NEW ZEALAND
  • 19.
    10. SOUND DIFFUSERS Diffusion,in acoustics and architectural engineering, is the efficacy by which sound energy is spread evenly in a given environment. A perfectly diffusive sound space is one that has certain key acoustic properties which are the same anywhere in the space. Diffusers are used to treat sound aberrations in rooms such as echoes. They are an excellent alternative or complement to sound absorption because they do not remove sound energy, but can be used to effectively reduce distinct echoes and reflections while still leaving a live sounding space. I worked out various types of diffusers, for example the ‘primitive root diffuser’. The bandwidth of these diffusers have a range from 573 Hz to 4047 Hz. The acoustical panels are made of wood because of sustainability reasons, the appearance and the better performance compared to the general alternatives such as plastics and polymers. OWN PROJECT
  • 20.
    11. VACUUM FORMER STEPBY STEP 1. 5. 8. 2. 6. 9. 3. & 4. 7. 10. LOCK THE POLYST YRENE INTO THE FRAMES WAIT FOR THE ST YRENE TO BECOME FLE XIBLE PRESS THE ST YRENE SLOWLY OVER THE MOULD SCREW THE FRAMES TOGETHER PL ACE THE MOULD ON THE VACUUM BOX DRY WITH COMPRESSED AIR & UNSCREW TURN ON THE HE ATER & SET TIMER TO 3 MIN. TURN ON THE VACUUM CLE ANERS REMOVE PL ASTIC SHEET FROM THE MOULD
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    12. GRAPHIC DESIGN Radius& bevel - form tool OPERATIONSTOOLS Principle DIAGRAM 3d CONSTRUCTION Scraping shearing Cutting TURNING WOOD LATHE Parting - cut off tool External threading - threading tool Turning: cut tool / round nose tool Dead centreLive centreLathe spindle Headstock Tailstock sleeveWorkpiece - wood Tool The lathe is a machine tool which holds the work- piece between two rigid and strong supports called centers or in a chuck or face plate which revolves. The cutting tool is rigidly held and supported in a tool post which is fed against the revolving work. The work will shape line symme- trical in its center. The lathe hasn't changed in principle since it was a primitive, bow-powered tool that is said to have been invented in ancient Egypt. Tapering - round nose tool Facing - facing tool Necking - square nose tool Knurling - knurling tool Boring - boring tool + - Put on the belt Choose the block-function Adjust the scope of the bubble Play the instrument Open the screen towards you Turn on the device SoundShade S S S S S 1 2 3 654 Secondary function: Block the sound from inside the bubble INFOGRAPHIC SOUNDSHADE INFOGRAPHIC TURNING WOOD LATHE GEOMETRICAL NUMBERS
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