-
MICHAEL FORWARDÂ YEAR 4
UNIT
Y4 MF
THE ARCTIC TAP
@unit14_ucl
All work produced by Unit 14 Cover design by Charlie Harris www.bartlett.ucl.ac.uk/architecture Copyright 2019 The Bartlett School of Architecture, UCL All rights reserved. No part of this publication may be reproduced or transmitted in any form or by any means, electronic or mechanical, including photocopy, recording or any information storage and retrieval system without permission in writing from the publisher.
@unit14_ucl
MICHAEL FORWARD YEAR 4 Y5 MF
michaelforward@hotmail.co.uk @unit14_ucl
T H E A R CT I C TA P Tromsø, Norway
Situated in Tromsø, Norway, ‘The Arctic Tap,’ responds to the current cultural, climatic and economic position of Tromsø. The island serves as a cultural and economic hub of Norway’s’ Arctic region and the opening of 93 Oil and Gas elds for exploration o the coast has driven speculation of Tromsø becoming the new oil capital of Norway; replacing Stavanger in the South West of Norway. Tromsø’s core population of 70,000 doubles most months due to tourism, economic migration, educational migration and its key position as a festival destination within the Arctic. The harsh terrain of Norway has caused Tromsø to be poorly connected by road and rail. To reduce the detremental e ects of a population boom, the program integrates a Euroloop terminal, allowing high speed connections to Stavanger and other key cities within Europe. The topographical limitations have resulted in Norway not experiencing a key element of railway infrastructure seen within Europe, the railway pub. The Arctic Tap is partnered with Mack, the worlds northernmost brewery; located half a kilometre from the site and the building proposal serves as a hybrid of high speed infrastructure and a modern take on the traditional railway pub, acting as the gateway to the Arctic and a meeting point for cultural groups to intersect. Initial research into Norwegian Stave Churches uncovered their ability to withstand the testament of time and be protected from the Nordic elements. The study of historic dowel connections is paired with contemporary research into frictional timber welding enabling the fusion of lignin and the molecular bonding of two pieces of timber into one. This research prompted the development of a system which uses frictionally welded dowel laminated timber in both cross and linear lamella
directions to harness the optimum properties of both directions; whilst eliminating the necessity for resins and glues within the manufacture process.
00 00
01
02
The form of the building responds to the topographical opportunities of the site, creating architectural spaces, which respond to the environmental extremities of the site, notably the wind, thermal variances and extreme solar conditions. The general arrangement follows traditional pub and railway pub typologies, allowing for an optimal level of stimuli and privacy between ticket hall, pub, platform and external environment. The structural composition explores the hetrogenous relationship of linear and cross lamella frictionally dowel laminated timber. The integration of modern interpretations of Nordic vernacular elements facilitated the integration of overhangs, preventing snow melt and icicle formation and the elevation of the structure from the rock, allowing a non intrusive relationship between topography and building which facilitates snow build up in colder months allowing for additional insulation to be added, harnessing the insulation properties of snow. The facade lines resonate public infrastructrure, whilst carefully controlling conditions within the Arctic Tap and the pine tar coated roof eliminates the necessity for a contemporary waterproof membrane with an entirely sealed external skin proven to perform in such harsh environments. 01
02
03
04
05
06
07
08
09
10 00
01
02
03
03
GA PLAN L00 01
02
04 GA PLAN L-01
04
03
04
05
GA PLAN L-02 06
05
05
06
06
01 TICKET HALL
04 PRIMARY CIRCULATION
02 ARCTIC TAP BAR
05 EUROLOOP PLATFORM
03 WAITING ROOM/PUB SEATING
06 EUROLOOP TUNNEL
3
4
5
1. INITIAL RESEARCH
6
7
STAPLE INN- HOLBORN
TRUSS WALL PLATE QUATREFOIL TIMBERS BRACE HERRING BONE BRACING BRACE END FRAME
JETTY SPUR INFILL JETTY JETTY BRACKET STUD CILL-BEAM OR PLATE POST
BAY OF WALL FRAME
RIDGE BEAM
STAPLE INN ENTRANCE
COMMON RAFTERS
PURL WALL PLATE
TIE BEAM CRUCK BLADES CILL-BEAM OR PLATE BRICK INFILL PANELS
RIVER THAMES
NA VE
ARCADE POST
AR CA DE NA VE
WATTLE AND DAUB TIMBER FRAME TYPOLOGIES
TIMBER FRAMED LONDON A CHANGED CITY; LONDON 1666. CONSTRUCTION METHODS OF TIMBER FRAMED BUILDINGS IN A WOODEN LONDON BEFORE THE GREAT FIRE OF LONDON.
8
CITY WALL EXTENTS OF FIRE ROADS STAPLE INN SURVIVING BUILDINGS THE GREAT FIRE OF LONDON, 1666
BRITISH TIMBER FRAME JOINTS
JAPANESE FRAME JOINTS
TIMBER FRAME CONNECTIONS COMPARATIVE STUDY OF TIMBER FRAME JOINTS IN BOTH BRITISH CONSTRUCTION AND JAPANESE CONSTRUCTION. ALL DISPLAYED JOINTS ENSURE CONNECTION STRENGTH WITHOUT THE USE OF METAL ELEMENTS.
9
SPIRE
CENTRAL TOWER- DRAGON HEADS CLEANSE THE EVIL SPIRITS OF PAGAN WORSHIP
MAIN ROOF COVERED IN PINE SHINGLES
CIRCULAR WINDOWS REGULATE LIGHT
12 STAVES IN CENTRAL NAVE TO SUPPORT ROOF
CROSSES OF ST ANDREW ALTARPIECE LOCATION ASPE TOWER CROSS
EXTERNAL GALLERY ENTRANCE
WEST DOOR
TREE SELECTION
ASSEMBLY OF PIECES ON GROUND
ASSEMBLY OF PIECES ON GROUND
ASSEMBLY OF PIECES ON GROUND
28 REMAINING STAVE CHURCHES
TREE STRIPPED OF BRANCHES AND BARK; TREE ‘BLEEDS’ PINE RESIN STRENGTHENING IT
STAVES LINKED TOGETHER BY FOUNDATION BEAM
STAVS LIFTED UP TO PRODUCE A CENTRAL STANDING CUBE
BASE SILLS ELEVATED ON STONE PLINTHS; PREVENTING WATER DAMAGE TO WOOD
BORGUND STAVE CHURCH
BORGUND STAVE CHURCH 1180/1250 AD EARLY CHURCH IN NORWAY BUILT USING VIKING METHODS INITIALLY DISPLAYED IN SHIP BUILDING. THE CHURCHES ARE VERY ORNATE IN ACCORDANCE WITH THE PAGAN RELIGIOUS VIEWS AND THE INITIAL FRAME IS BUILT FROM A NUMBER OF COMPONENTS. THE CHURCHES SERVED AS A CULTURAL OUTPOST IN RURAL NORWAY, A PLACE FOR THE COMMUNITY TO CONGREGATE.
10
BORGUND GEOMETRIC STUDY
GOL
HEDDAL
URNES
BORGUND ANGULAR COMPOSITION
GOL
HEDDAL
URNES
BORGUND
GOL
HEDDAL
URNES
DRAGON HEADS
CARVED DRAGON HEADS- TECTONIC COMPOSITION USING DOWEL CONNECTIONS
STAVE CHURCH COMPOSITIONS GEOMETRIC ANALYSIS OF STAVE CHURCHES TO DISPLAY THE REPETITION BETWEEN LOCATIONS BOTH GEOMETRICALLY AND PROPORTIONALLY.. DETAILED STUDY OF THE CARVED DRAGONS HEADS TO WARN OFF EVIL; GENERATING A PARTICULAR INTEREST INTO DOWEL CONNECTIONS.
11
SILL jOINT- TENON AND MORTISE
SECONDARy SILL ATTACHMENT- 2 PEgS
SECONDARy SILL TO PRIMARy SILL
HALF LAP jOINT- HOLE FOR COLUMN
UNIqUE FLOOR SILL CONNECTION- gOL
FLOOR PLANkS- wOODEN DOwELS
THE PLANk ARCH
THE PLANk ARCH
STAVE wALL- HAND CARVED SHIP LAP
STAVE wALL AND ‘V’ DRAINAgE HOLE
THE CLAMPINg bRACE
THE kNEE bRACE
PINE TAR EXTRACTED FROM CHARCOAL IS USED TO PRESERVE STAVE CHURCHES
STAVE CHURCH CONSTRUCTION METHODS EXPLORATION INTO THE COMPONENTS, CONNECTIONS AND FINISHES OF THE BORGUND STAVE CHURCH. MOST NOTABLY THE USE OF ENTIRE TIMBER JOINTS AND PEGS WITHOUT THE NEED FOR METAL. THIS ALLOWS THE CHURCH TO EXPAND AND CONTRACT IN THE HARSH CLIMATE AND IS CREDIT TO THE AGE OF THE BUILDINGS.
12
PANEL MANUFACTURING PROCESS
DOWELLING MANUFACTURING PROCESS
ACOUSTIC SQUARE WITH WOOD FIBRE
FACTORY EDGE
SQUARE EDGE
FLUTED
ACOUSTIC ROUND
SAWTOOTH
CHAMFER
GAPPED
ACOUSTIC SQUARE WITH FELT
KERF
BULLNOSE
GAPPED WITH WOOD FIBRE
SERVICES INTEGRATION
DOWEL LAMINATED TIMBER WITH ACOUSTIC FELT
SERVICES INTEGRATION
CROSS DOWEL LAMINATED TIMBER
AESTHETIC OF DOWEL CONNECTION
HARDWOOD DOWELS WITH LOWER MOISTURE CONTENT SWELL TO SECURE BOARDS TOGETHER
DOWEL LAMINATED TIMBER (DLT) AN ENGINEERED TIMBER THAT USES WOODEN DOWELS TO JOIN LAMINATIONS FOR USE IN STRUCTURAL AND AESTHETIC APPLICATIONS. THE INTEREST IN DLT DERIVED FROM THE USE OF DOWELS AND PEGS IN BOTH TIMBER FRAMED
13
2
1 MECHANICAL TIMBER WELDING PROCESS
1 LINEAR TIMBER WELDING 2 ROUND TIMBER WELDING WELDED REGION
BY VIBRATING TWO PLANED SPECIMENS AT A PRE-DETERMINED FREQUENCY, UNDER A SPECIFIC COMPRESSIVE LOAD, FOR A SPECIFIC CYCLE TIME, THE LIGNIN MELTS AND INTERLOCKS ALONG THE JOINT LINE.
LIGNIN IS THE SECOND MOST PREVALENT BIOPOLYMER AFTER CELLULOSE AND IS PARTICULARLY IMPORTANT IN THE FORMATION OF CELL WALLS, ESPECIALLY IN WOOD AND BARK, BECAUSE THEY LEND RIGIDITY AND DO NOT ROT EASILY.
HARDWOOD
SOFTWOOD
LIGNIN
WOOD CELL STRUCTURE
LINEAR JOIN
DENSITY SCANS OF WELDED TIMBER
LEAST DENSE
LINEAR JOIN
FIBRES
INTERLOCKING OF LIGNIN AND FIBRES ON WELDED JOINT
LINEAR JOIN
RADIAL
MOST DENSE
LAMINATED APPEARANCE
FRICTIONAL TIMBER WELDING TIMBER WELDING CAN BE USED INSTEAD OF ADHESIVES IN CONSTRUCTION AND WOOD CRAFT. IT IS A NEW TECHNOLOGY AND THE WIDESPREAD QUESTION OF SCALABILITY IS NOT YET RESOLVED.
14
LUMEN
WASTE PRODUCT
LAMINATED APPEARANCE
CROSS LAMINATED TIMBER
CROSS DOWEL LAMINATED TIMBER
NATURAL SOLID TIMBER
DOWEL LAMINATED TIMBER
-ROOF, FLOOR AND WALL PANELS -STRUCTURAL ELEMENTS -HIGH RISE TIMBER BUILDINGS
-ROOF, FLOORS AND WALL PANELS -STRUCTURAL ELEMENTS -HIGH RISE TIMBER BUILDINGS
-BUILDING -STRUCTURAL USES -FORM WORK
-FLOORING AND ROOF APPLICATIONS -PRIMARY COLUMNS -MACHINABLE -PRIMARY BEAMS -INTEGRATED SERVICES -CURVED TIMBER ELEMENTS
GLUE LAMINATED TIMBER
PLYWOOD
LAMINATED VENEER LUMBER
-WALL AND FLOOR CONSTRUCTION -SECONDARY COLUMNS -FURNITURE -SECONDARY BEAMS -CABINETS -EDGE FORMING MATERIAL
PARTICLE BOARD
FIBRE BOARD
-STORAGE UNITS -WORK SURFACES -ALTERNATIVE TO MDF
-DISPLAY CABINETS -WALL PANELS -STORAGE UNITS
DESIRABLE QUALITIES WITHIN CURRENT ENGINEERED TIMBER TO BE ACHIEVED USING FRICTIONAL DOWEL LAMINATED TIMBER SYSTEM.
TIMBER PRODUCTS OF INTEREST LENDING THEMSELVES TO USE OF DOWEL CONNECTIONS
CNC MACHINABLE NO HARMFUL RESINS FIRE COMPLIANT 100% WOOD
FLAT SAWN
RIFT SAWN
QUARTER SAWN
MOST ECONOMICAL, WIDE GRAIN VARIETY VISIBLE. USED FOR BATTENS AND LESS VISIBLE ELEMENTS.
MOST EXPENSIVE, LEAST GRAIN VARIETY. USED FOR INTERNAL LAYERS VISIBLE TO USERS AND INTEGRATED FURNITURE.
BALANCE BETWEEN GRAIN VARIETY AND ECONOMY. USED FOR LINEAR AND CROSS LAMELLA PRIMARY AND SECONDARY STRUCTURE.
RECYCLABLE STRONGER THAN GLUED COMPARATIVE
SHEAR FORCES
SHEAR FORCES
SHEAR FORCES
PERPENDICULAR FORCE TO DOWEL
WOOD SURFACES SEPARATE
WOOD SURFACES COME TOGETHER
45o
1
SHEAR & TENSION AT 45o
120o
90o
2 SHEAR AT 90o
75o
3 SHEAR & COMPRESSION AT 120o
60o
4 SHEAR & TENSION AT 75o
5 SHEAR & TENSION AT 60o
ACTING FORCES WELDED DOWELS BEAM 1
GLUED DOWELS BEAM FORCE (KN)
2 3 4 5
DISPLACEMENT (MM) SHEAR TESTS ON WELDED DOWEL CONNECTIONS
WELDED AND GLUED COMPARATIVE DOWEL CONNECTIONS
SECTION SHOWING DISTORTION OF WOODEN DOWELS UNDER SHEAR
45o
URVE
C NT OF TANGE
45o
EXPERIMENTAL DOWEL LAMINATED TIMBER
EXPERIMENTAL CROSS DOWEL LAMINATED TIMBER
SHEAR FORCES CAUSE LAMELLAS TO COME TOGETHER
FRICTIONAL DOWEL OPPORTUNITY RESEARCH PUBLISHED BY JOURNAL OF ADHESION SCIENCE AND TECHNOLOGY INTO THE CAPABILITIES OF WELDED DOWEL LAMINATED TIMBER AND ITS ADVANTAGES OVER NLT, CLT AND GLULAM. FURTHER SPECULATIVE RESEARCH INTO CURVED DOWEL LAMINATED TIMBER WHERE THE COMPOSITION HAS A LINEAR GRAIN, SIMILAR TO THAT FOUND IN GLULAM.
15
WESTERN RED
YELLOW CEDAR
SITKA SPRUCE
POPLAR
BEECH
DOUGLAS FIR
SOFTWOOD LAMELLA TIMBERS MOISTURE CONTENT 12-19%:
HARDWOOD DOWEL TIMBERS MOISTURE CONTENT 5-6%:
38X63MM
19X100 MM
38X89MM
FINGER JOINT ENABLES SPANS GREATER THAN 6M
COMPONENT SIZING AND FIXINGS
CROSS LAMELLA
LINEAR LAMELLA
LINEAR LAMELLA
LINEAR DOWEL INSERTION
STAGGERED DOWEL INSERTION
STAGGERED DOWEL INSERTION
MAXIMUM SPAN: 12M
FRICTIONALLY DOWEL LAMINATING SYSTEMICS SOFTWOOD LAMELLAS AND HARDWOOD DOWELS ALLOW FOR AN EQUILIBRIUM MOISTURE CONTENT CREATING A STRONG BOND. LAMELLA SIZES COMMONLY FOUND IN CLT AND DLT HAVE BEEN SELECTED DUE TO THEIR DEPTH INCREASING ABILITY FOR CURVE FORMATION.
16
MAXIMUM SPAN: 17M
MAXIMUM SPAN: 17M
RADIUS 6MM
RADIUS 10MM
MAXIMUM GAP: 3MM
KERF BENT ALTERNATE LAMELLA LAYERS MINIMUM RADIUS: 750MM
2 DIMENSIONS OF WOOD
KERF LOCATIONS ALLOW FOR SECURE, CENTRAL FIXINGS
MINIMUM RADIUS: 3800MM
CUSTOMISED SHAPE BEFORE BENDING
LINEAR LAMELLAS
KERF BENT TO INCREASE RADIUS OPPORTUNISING THE DOUBLE CURVE USING SINGLE CURVATURE
FRICTIONAL DOWEL LAMINATED CURVATURE CURVATURE GENERATED FROM TOPOGRAPHICAL RESPONSE MUST BE ANALYSED AND CATEGORISED AS SINGLE OR DOUBLE, THESE TWO CATEGORISATIONS ALLOW FOR DIFFERENT CONSTRUCTION SYSTEMS AND TECHNIQUES TO BE IMPLEMENTED.
17
DOUBLE CURVE OPPORTUNITIES USING DOUBLE CURVED GEOMETRY WITHIN THE CONSTRAINTS OF CONVENTIONAL TIMBER MATERIAL PROPERTIES AS AN OPPORTUNITY TO GENERATE ARCHITECTURAL FEATURES AND CONNECTIONS BETWEEN LEVEL SURFACES.
18
2. SITE AND BRIEF TROMSØ, NORWAY
TROMSØ, CAPITAL OF THE ARCTIC AND GATEWAY TO THE ARCTIC, FEATURING NORWAY’S OLDEST WOODEN CATHEDRAL.
19
00
01
02
03
04
05
06
07
08
09
10
11
00
00
01
01
02
02
03
03
04
04
05
05
06
06
7
9 8
07
07
12
08
08
6
09
09
10
10
10
1 11
2
3
11
11
5
12
12
4
13
13
14
14 00 1 2 3 4 5 6
01 TROMSØ BRIDGE TROMSØ TROMSØ PORT BJERKAKER STORE GRINDOYA HAKOYA
02 7 8 9 10 11 12
03
KVALOYSLETTA TROMSØ AIRPORT KROKEN TOMASJORD TROMSDALEN TROMSØ TUNNEL
TROMSØ REGION PLAN REGIONAL PLAN OF THE ISLAND OF TROMSØ AND ASSOCIATED LAND MASSES. VISIBLY EXPRESSING THE INFRASTRUCTURE AND BUILT DENSITY OF THE REGION.
20
04
05
06
07
08
09
10
11
INVESTMENTS: 2014-2022
EAST FINNMARK: 17.4 BN NOK WEST FINNMARK: 37.5 BN NOK TROMSØ, TROMS: 72.8 BN NOK HALOGALAND: 22.4 BN NOK BODO: 45.0 BN NOK
30 MINS RAIL
30 MINS ROAD
60 MINS ROAD
60 MINS RAIL
INFRASTRUCTURE: 38,953 BN NOK PUBLIC CONSTRUCTION: 21,328 BN NOK
PRIVATE: 211 BN NOK PUBLIC: 89 BN NOK
PORTS AND HARBOURS: 19.4 BN RAILWAYS: 167.8 BN NOK ROADS: 381.8 BN NOK
POPULATION DENSITY
TROMSØ
ROAD AND RAIL
BODO KOLARI
DOMESTIC FLIGHTS 1:20 LULEA 0:40
OULU
3:30 1:50 2:00
HELSINKI
STOCKHOLM LONDON
INTERNATIONAL FLIGHTS
SPECULATED RAILWAY ROUTES TO REDUCE TRAVEL TIMES AND CONNECTIVITY TO TROMSØ
CONNECTING TROMSØ TROMSØ SITS AS A THE AIR TRAVEL INTERCHANGE INTO THE NORTH. WITHIN THE NORTH IT IS ONE OF THE MOST DENSELY POPULATED CITIES AND SERVES AS A HUB FOR SURROUNDING CITIES, TOWNS AND LESS DENSELY POPULATED REGIONS.
21
AIRPORT
ROADS
BUS ROUTES
ZONING
CULTURAL & EDUCATIONAL SITES
LAND TYPOLOGY
COMMERCIAL RESIDENTIAL INDUSTRIAL EDUCATIONAL
GENDER DISPARITY
QUARRY WATER WOODLAND AGRICULTURE
AGE GROUPS
NATIONALITY
COUNTRY OF BIRTH
AGE DISTRIBUTION
POPULATION GROWTH 2015 76000
22
2010
STUDY INTO THE ZONING TYPOLOGIES AND INFRASTRUCTURES WITHIN TROMSØ. AS ONE OF THE MOST DENSELY POPULATED CITIES IN THE NORTH TROMSØ SERVES A WIDE SURROUNDING AREA WITH SCHOOLS, CULTURE, A KEY HOSPITAL AND UNIVERSITY. IT IS A HUB OF THE NORTH.
60-69
TROMSØ- A HUB OF THE NORTH
EUROPE
60000
80+ 70-79
65+
40-49
NORWAY
50-59
OTHER
NORWAY
20-29
OTHER
30-39
0-17 18-64
10-19
0-9
MALE FEMALE
TROMSØ - SOMMAROY BRIDGE BUILT: 1974 CAPACITY: 1 LANE- TRAFFIC LIGHTS LENGTH: 522M
TROMSØ AIRPORT BUILT: 1964 CAPACITY: 42,444 ANNUAL AIRCRAFT REPLACED SEA PLANE AERODROME
TROMSØ CITY TUNNEL NETWORK INCLUDES ROUNDABOUTS, PARKING AND STRETCHES UNDER WATER AT POINTS.
TROMSØ BRIDGE BUILT: 1960 CAPACITY: 2 LANES LENGTH: 1036 M
TROMSØ TUNNEL BUILT: 1994 CAPACITY: 4 LANES; BUILT TO EASE CONGESTION ON TROMSØ BRIDGE 3000 CARS PER HOUR IN EACH DIRECTION
TRAIN STATION REGION REGION PINPOINTED FOR CONSIDERED TRAIN CONNECTION
TRANSPORT INFRASTRUCTURE ANALYSIS OF THE CURRENT TRANSPORT INFRASTRUCTURE IN THE TROMSØ REGION AND ITS CAPACITY IN ORDER TO ASSES THE IMPLICATIONS OF AN INCREASED POPULATION LEVEL. THE HIGHLIGHTED REGION SHOWS THE PROPOSED AREA FOR RAIL INFRASTRUCTURE TO INFILTRATE THE CITY AND THE IMPLICATIONS IT MAY HAVE.
23
JANUARY
220,000
130,000
JULY
FEBUARY
160,000
130,000
AUGUST
MARCH
130,000
120,000
SEPTEMBER
APRIL
120,000
150,000
OCTOBER
MAY
120,000
130,000
NOVEMBER
JUNE
120,000
130,000
DECEMBER
RESIDENT EDUCATIONAL BUSINESS TOURISTS FESTIVAL GOERS CRUISE VISITORS OIL/GAS WORKERS (SPECULATIVE)
TROMSØ INTERNATIONAL FILM FESTIVAL DATES: JAN 14- JAN 20 ATTENDANCE: 60,000
ARCTIC LIGHT FESTIVAL DATES: 24 JAN- 3 FEB ATTENDANCE: 11,000
TROMSØ INTERNATIONAL FERRY TERMINAL
MIDNIGHT SUN MARATHON
DATES: ALL YEAR
DATES: 22 JUNE
ATTENDANCE: 126,000
ATTENDANCE: 2,000
MIGRATIONAL CAPITAL OF THE ARCTIC TROMSØ ACTS AS A HUB FOR MIGRATION IN THE ARCTIC, OFFERING A PLETHORA OF CULTURAL EVENTS AND FESTIVALS. MANY MONTH OF THE YEAR THE POPULATION OF TROMSØ WHICH IS 70,000 DOUBLES WITH TEMPORARY MIGRANTS FOR TOURISM, BUSINESS OR EDUCATIONAL PURPOSES.
24
NORTHERN LIGHTS FESTIVAL
TROMSØ UNIVERSITY
INSOMNIA FESTIVAL
DATES: JAN 25- FEB 3
DATES: AUGUST-JUNE
DATES: 13-16 OCTOBER
ATTENDANCE: 10,000
ATTENDANCE: 10,000
ATTENDANCE: 10,000
93 OIL AND GAS FIELDS OPENED FOR EXPLORATION
OIL/ GAS WORKERS TOURISTS
FESTIVAL GOERS
LOCALS
EUROPEAN NATIONALS
2017-2060 OIL AND GAS
STUDENTS TROMSØ
STAVANGER: OIL CAPITAL OF EUROPE
COMPANIES: 400
POPULATION: 123,000
OIL AND GAS DISCOVERIES: DOWN
HOUSE PRICES: DOWN
STAVANGER OSLO 1970-2020 OIL AND GAS
EMPLOYMENT: DOWN
PRIMARY LOCATION OF COMPANIES PREDICTED MIGRATION FROM STAVANGER TO TROMSØ
OIL AND GAS MIGRATION
3 MPH 2 MPH
6500 BC
15 MPH
5000 BC
9 MPH
4000 BC
12 MPH
3500 BC
30 MPH
3100 BC
55 MPH
300 BC
15 MPH
1769
15 MPH
1817
65 MPH
1886
600 MPH HELSINKI OSLO
STOCKHOLM
STAVANGER
760 MPH
1903 2013
EXAMPLE ROUTE ANALYSIS: STAVANGER TO TROMSØ DRIVE TIME: 30H FLIGHT TIME: 3H EUROLOOP TIME: 1H13M OSLO TO TROMSØ DRIVE TIME: 22H25M FLIGHT TIME: 1H50 EUROLOOP TIME: 55M
WARSAW
LONDON
HELSINKI TO TROMSØ DRIVE TIME: 16H54M FLIGHT TIME: 1H55M EUROLOOP TIME: 49M STOCKHOLM TO TROMSØ DRIVE TIME: 18H49M FLIGHT TIME:1H50 EUROLOOP TIME: 55M WARSAW TO TROMSØ DRIVE TIME: 32H FLIGHT TIME: 4H15M EUROLOOP TIME: 1H36M LONDON TO TROMSØ
MONACO
DRIVE TIME: 39H FLIGHT TIME: 3H25M EUROLOOP TIME: 1H50 MONACO TO TROMSØ DRIVE TIME: 44H FLIGHT TIME: 5H50M EUROLOOP TIME: 2H20M
e ur l op EUROPE POPULATION DENSITY MAP
HIGH SPEED INFRASTRUCTURE NORWEGIAN GOVERNMENT AND PRIVATE FUNDS INDICATE AN INCREASED SPENDING ON TRANSPORT INFRASTRUCTURE IN THE NORTH. THIS MARRIED WITH OIL AND GAS FIRMS INVESTMENTS IN INFRASTRUCTURE LENDS ITSELF TO A HIGH SPEED METHOD OF TRAVEL ELIMINATING THE NEED FOR MASS EXPANSION WITHIN THE CITY OF TROMSØ AND VARIETY AS TO WHERE WORKERS LIVE.
25
NORWAY SWITZERLAND FRANCE SWEDEN LONDON IRELAND NETHERLANDS SPAIN GREECE RUSSIA AUSTRIA BELGIUM GERMANY
Graff / Gulating Tromsøpalmen Bayersk Pils RATING: 2.94
TURKEY
NR
CZECH REPUBLIC Lauvanger / Gulating Tromsøpalmen RATING: 2.71
PRICE PER 0.5L
NR Bådin Bodø 2016 RATING: 2.84
NR
Mosjøen Ratæskank RATING: 3.00
NR
Austmann Ale of Trones Imperial Stout RATING: 3.54
NR
Ægir Lynchburg Natt RATING: 3.98
10
Lindheim Farmer's Reserve : Sour Cherry 2014 RATING: 3.84
Lindheim Farmer's Reserve : Coolship Cherry RATING: 3.82
32
39
Nøgne Ø Imperial Stout RATING: 4.05
Nøgne Ø Dark Horizon Fifth Edition RATING: 4.04
Nøgne Ø Eternal Rest (2017) RATING: 4.04
4
6
7
Nøgne Ø Imperial Stout Cognac Barrel RATING: 3.95
Terrapin Imperial Rye Porter RATING: 3.93
Nøgne Ø # 100 (Batch 100) RATING: 3.91
17
20
22
Nøgne Ø Quadrupel (Red Wine Barrel Edition) RATING: 3.89
Nøgne Ø Dragonwort Stout RATING: 3.88
Nøgne Ø Porter RATING: 3.82
24
26
36
Nøgne Ø Dragonwort Stout 2nd Edition RATING: 3.82
Nøgne Ø God Jul RATING: 3.81
37
40
Nøgne Ø # 500 Imperial India Pale Ale (Batch 500) RATING: 3.81
Nøgne Ø India Pale Ale RATING: 3.80
Nøgne Ø Imperial Stout Barrel Aged 2012 RATING: 3.80
44
45
41
Nøgne Ø / La Chingoneria / Central Cervecera M.O.L.E. RATING: 3.80
46
Nøgne Ø Imperial Aquavit Porter RATING: 3.79
Nøgne Ø Nødingen RATING: 3.79
48
50
Ego The Executioner RATING: 3.82
38
Egge Gård Iseple RATING: 3.93
Amundsen Cookie Monster RATING: 3.97
19
HaandBryggeriet Odin's Tipple RATING: 3.91
23
13
HaandBryggeriet Fatlagret Porter (Akevitt Porter) RATING: 3.85
31
HaandBryggeriet / Cervisiam / Frontaal Death by Disco RATING: 3.81
42
HaandBryggeriet Dark Force RATING: 3.79
47
Amundsen Marshmellow Psycho - Cognac BA RATING: 3.83
28
33
Lervig Brewers Reserve Barley Wine Aged in Bourbon Barrels (13%) RATING: 4.05
Lervig Once You Go Black RATING: 4.02
Hoppin' Frog Sippin' Into Darkness RATING: 4.01
Lervig CocoNutz Kake Bourbon Barrel Aged RATING: 3.98
Lervig SuperSonic RATING: 3.97
5
8
9
11
12
Lervig Coconuts RATING: 3.96
Evil Twin Big Ass Money Stout 2 RATING: 3.93
Lervig Toasted Maple Stout RATING: 3.91
Lervig Barley Wine 2016 RATING: 3.87
Lervig Tasty Juice RATING: 3.86
15
16
18
21
Lervig / Cloudwater There’s A Cold Beer In My Fridge, And I Need A Drink RATING: 3.89
27
29
Lervig Barley Wine 2015 Jack Daniels BA RATING: 3.85
Lervig Brewers Reserve Konrads Stout RATING: 3.83
Lervig Toasted Maple Stout Bourbon Barrel RATING: 3.81
30
34
Lervig / Surly 1349 Black Ale Bourbon Barrel Edition RATING: 3.83
Lervig / Surly 1349 Black Ale Bourbon Barrel & Sour Cherry Edition RATING: 3.79
Hoppin' Frog Sippin' Into Darkness Barrel Aged RATING: 4.18
Barley Wine 2017 BA Bourbon RATING: 4.09
Way 3 Bean Stout RATING: 4.06
1
2
3
Lervig Liquid Sex Robot RATING: 3.97
Way 3 Bean Stout Bourbon BA RATING: 3.96
14
35
NORWEGIAN CULTURE NORWEGIAN TAX ON BEER HAS DEVELOPED A NATION OF HOME BREWERS WITH AN INTEREST IN BEER FLAVOURS AND REGIONAL VARIANCES WITHIN WATER AND CROPS USED TO MAKE BEER. THIS SERVES AS A MEANS OF CONNECTING LOCALS WITH FOREIGN WORKERS WITHIN TROMSØ AT THE HYPERLOOP TERMINAL.
26
Amundsen Bourbon BA Pecan Psychosis RATING: 3.86
43
49
25
309 PUBS 5.2 MILLION PEOPLE
48,350 PUBS 66 MILLION PEOPLE
2
11 3
1
NUMBER OF PUBS IN REGION
4
4
RAILWAY LINES IN NORWAY
6
2
2
2 2 3 6 2
8
5 8 5 3
3
5
2
3 6
2
9
8
3
5
ANNUAL BEER CONSUMPTION PER CAPITA
9
11
GERMANY FINLAND
2 3
5 11
48
5
2
3
UK NORWAY
2
3
13
SWEDEN
7
FRANCE
19
3
ITALY
14
= 10 LITRES
THE GREAT EUROPEAN RAILWAY PUBS
THE SHEFFIELD TAP
STALYBRIDGE STATION
STAZIONE DI MAGLIE
BRAUHAUS 1516
YORK TAP
EUSTON TAP
SAMARKANDA
SHEFFIELD STATION UNITED KINGDOM
STALYBRIDGE STATION UNITED KINGDOM
BISTROCAFÉ STAZIONE DI MAGLIE MAGLIE, PUGLIA, ITALY
AUGSBURG STATION GERMANY
YORK STATION UNITED KINGDOM
EUSTON STATION UNITED KINGDOM
EUSTON STATION UNITED KINGDOM
ABSENCE OF 'THE RAILWAY PUB' NORWAY HAS A LIMITED RAIL SYSTEM AS A RESULT OF ITS CHALLENGING TERRAIN. THE INTRODUCTION OF A HYPERLOOP TERMINAL DRAWS RISE TO A MODERN INTERPRETATION OF 'THE RAILWAY PUB' KEY TO THE HERITAGE OF MANY EUROPEAN COUNTRIES RAIL NETWORKS.
27
TROMSØ e u r
l
op TERMINAL
YOUR GATEWAY TO THE ARCTIC . . .
Timber
in partnership with:
PROUDLY SPONSORED BY:
28
“
WE HAVE BEEN LOOKING TO INVEST IN ECO FRIENDLY INFRASTRUCTURE PROJECTS; THIS FITS THE BILL!
WE HAVE BEEN IN TROMSØ SINCE 1877- IF VISITORS LOVE THE BEER, THEY KEEP COMING BACK. ITS GREAT FOR THE ECONOMY
SOVEREIGN FUND
MACK BREWERY
“
“
“
OIL AND GAS COMPANIES
“
AS A CULTURAL AND ECONOMICAL HUB OF THE ARCTIC, WE ARE ALWAYS LOOKING FOR GROWTH AND BETTER INFRASTRUCTURE.
“
“
GOVERNMENT
“
ITS GREAT TO SEE THE LOCALS MEETING AND INTERACTING WITH TOURISTS AND BUSINESS MIGRANTS.
“
I MUST BE IN TROMSØ FOR WORK, NOW MY FAMILY DOESN’T HAVE TO RELOCATE
TOURIST BOARD
“
CONNECTING TROMSØ CREATES A CULTURAL OUTPOST ON THE FRINGE OF SOCIETY. WE ARE ALL ABOUT CONNECTING!
“
“
EUROLOOP
eur l op
A CULTURAL MEETING POINT THE EUROLOOP CREATES A CULTURAL COLLISION OF DIFFRENT GROUPS. IT SERVES AS A MEETING POINT FOR LOCALS, TOURISTS, FESTIVAL GOERS, OIL WORKERS AND BUSINESS VISITORS. THE FUNDING COLLABORATION BETWEEN MACK, THE WORLDS NORTHERNMOST BREWERY AND THE NORWEGIAN SOVEREIGN FUND PROVIDING FUNDING FOR THE INFRASTRUCTURAL ELEMENTS OF THE PROJECT.
29
1.
THE NORWEGIAN SOVEREIGN FUND (AKA) THE OIL FUND
50% 1969
STATE OWNED
STABLE POLITICAL SITUATION
OIL/ GAS DISCOVERY
OIL/ GAS WELLS
50%
STATOIL FORMED TO COMPETE WITH FOREIGN COMPANIES
78% TAX RATE
PRIVATELY OWNED
TAX REVENUES USED TO FORM SOVEREIGN FUND
9,000 BNOK (1.15 BN USD) 8,000 BNOK
EQUITY / INVESTMENTS
7,000 BNOK
6,000 BNOK
REAL ESTATE
5,000 BNOK 4,000 BNOK
FIXED INCOME ASSETS
3,000 BNOK 2,000 BNOK 1,000 BNOK
1999
2018
0 BNOK
DEIVESTMENT FROM COAL
67% GOVERNMENT OWNED
6%
HELD IN OIL AND GAS
1.3%
ALL GLOBAL STOCKS
RENEWABLE INFRASTRUCTURE
CALL FOR DIVERSIFICATION OF FUND
2019 OIL/ GAS REMOVED FROM FUND
eu r l op
NEW PALE LAGER LAUNCHED EXCLUSIVE TO THE ARCTIC TAP
7%
OF NORWEGIAN BREWING MARKET
LARGEST INDEPENDENT BREWERY IN NORWAY
2.
MACK BREWERY, TROMSØ 6% HELD IN OIL AND GAS
PUBLIC PRIVATE FUNDING HYBRID THE DUAL PURPOSE OF THE ARCTIC TAP ALLOWS FOR A SPLIT BETWEEN PUBLIC AND PRIVATE FUNDING. THIS IS OFTEN SEEN IN LARGER PUBLIC PROJECTS. THE PUBLIC FUNDING, FROM THE SOVEREIGN FUND WILL PAY FOR THE INFRASTRUCTURE ELEMENTS WHILE MACK WILL PAY FOR THE ARCTIC PUB.
30
20
19
4
5 3
1
2 22 6
7
8
24 23
18 9
10
11
25 26 12 13
21
27
14
16 15
17
N 0m
1 2 3 4 5 6
VERDENSTEATRET (TIFF) KYSTENS HUS POLAR MUSEUM NORDLYSFESTIVALEN PERSPECTIVE MUSEUM CINEMA
7 8 9 10 11 12
PUBLIC LIBRARY LAVHAUGEN BYGDEMUSEUM TROMSØ DOMKIRKE NORDNORSK KNUSTMUSEUM FREIGHT STORAGE PASSENGER TERMINAL (COMP. 2018)
13 14 15 16 17 18
NERSTRANDA RETAIL CENTRE MS POLSTJERNA POLAR AQUARIUM ARCTIC RESEARCH CENTRE HALOGALAND TEATER FOOTBALL STADIUM
19 20 21 22 23 24
SECONDARY SCHOOL OIL REFINERY FERRY TERMINAL TROMSØ BRIDGE KONGEPARKEN SECONDARY SCHOOL
40m
100m
200m
25 STORGARTA 26 BUS TERMINAL 27 OLHALLEN
PROPOSED SITE
TROMSØ CAPITAL WATERFRONT TROMSØ CAPITAL WATERFRONT ANALYSIS OF BUILDING TYPOLOGIES. WITH A NEW FERRY PASSENGER TERMINAL COMPLETED IN 2018 THE AREA HOSTS NUMEROUS CULTURAL AND ARTS BUILDINGS AND THE MUNICIPALITY CONTINUES TO INVEST IN MORE. TROMSØ WATERFRONT IS TRANSFORMING INTO THE CULTURAL CAPITAL OF NORTHERN NORWAY.
31
3. DESIGN DEVELOPMENT
32
COLUMNS SPLITTING TO FORM INHABITABLE SPACES
DOWEL CROSS LAMINATED TIMBER; CURVED ON ONE AXIS
STRUCTURE SPLITTING TO FORM INTERSECTING STRUCTURAL ELEMENTS
CROSS DOWEL INTERSECTIONS EXPLORING POTENTIAL FOR HYBRID LINEAR AND CROSS DOWEL LAMINATED TIMBER AND THE SPATIAL QUALITIES ACHIEVABLE. CHALLENGING THE AESTHETIC POTENTIAL OF ONE AXIS CURVED SURFACES.
33
INTERPRETATION OF TECTONIC MODEL ONTO GEOLOGICALLY ENRICHED MODEL.
COASTAL ROCK FORMATIONS
TROMSØ COASTAL ROCK FORMATIONS ARCTIC ROCK FORMATIONS FOUND IN TROMSØ ALLOW FOR A MORE FRAGMENTED APPROACH TO MASSING WHICH EMPHASISES AND CELEBRATES AN IMPORTANT PART OF NORWAY’S GEOLOGY.
34
ERODED PINK GRANITE FORMATIONS
HIGHLAND ROCK FORMATIONS
ERODED FACE
STACKED EDGE
RAVINE
BOULDER
CLIFF
FALL AWAY
LEDGE
SPLITTING CANYON
CANYON
ARCTIC ROCKS ARCHITECTURAL FORM DERIVED FROM USING ROCK FORMATIONS TYPICAL OF TROMSØ TO INFORM FORM. THIS CREATES A MULTI LAYERED AESTHETIC WHICH SEEKS TO PRESERVE AND CELEBRATE THE DISTINCT GEOLOGICAL ROCK FORMATIONS OF TROMSØ.
35
EXTERNAL WALKWAY
PRIVATE AREA
PRIMARY CIRCULATION BAR AREA
PRIVATE AREA
PRIMARY CIRCULATION
BAR AREA
PRIVATE AREA
PRIMARY CIRCULATION
PRIMARY CIRCULATION BAR AREA
BAR AREA PRIMARY CIRCULATION
PRIVATE AREA
SPATIAL QUALITIES GENERATED FROM EXPLORATION INTO THE POTENTIAL OF A FRICTIONAL DOWEL LAMINATED TIMBER SYSTEM WITH PARTICULAR EMPHASIS ON EARLY DEVELOPMENT OF PRIVATE SPACES AND LANDSCAPE TRANSITIONS.
36
EXTERNAL WALKWAY
LANDSCAPE OPPORTUNITY
VIEWING FEATURE
SHELTERED WALKWAY
PRIMARY CIRCULATION BAR AREA
TAXONOMIES OF SPACE
SERVICE VOID
LANDSCAPE OPPORTUNITY
SHELTERED WALKWAY
PRIVATE AREA VIEWING FEATURE
LANDSCAPE OPPORTUNITY
PRIVATE AREA
VIEWING FEATURE
WALKWAY
CONTINUOUS ROOF ELEMENT
BAR AREA
FENESTRATIONS
3
LA YE R
S
SEATING
LAMELLA DIRECTION AND INTERSECTION
5 LAYERS
CONTINUOUS CONDITION
TECTONIC CORNER EXPLORATION OF CORNER PIECE FACILITATED BY CROSS LAMINATION AND INTERSECTION OF LAMELLAS. IT OPPORTUNISES A CONTINUOUS SWEEP OF FACADE/ROOF CONDITION THROUGH A 45 DEGREE ROTATION.
37
LLANBERIS
SHEFFIELD
STALYBRIDGE
YORK
DINGWALL
BRIGHTON
RAILWAY PUBS TRACKS STATION AMENITIES RETAIL PLATFORMS
THE RAILWAY PUB STUDY OF TRADITIONAL RAILWAY PUBS AND ADJACENCIES TO RAILWAY TRACKS AND STATION AMENITIES.
38
TRADITIONAL PUBLIC HOUSE LAYOUT USES THE BAR AS A CENTRAL FEATURE, THIS REQUIRES PATRONS TO PASS THROUGH SEATING/ STANDING AREAS BEFORE REACHING THE BAR.
THE TRADITIONAL PUB ARRANGEMENT AND PROPORTIONS OF PUB REVEAL THE NECESSITY TO PASS THROUGH SEATING AREAS BEFORE REACHING THE BAR.. SERVICES AND FACILITIES ARE LOCATED EITHER BELOW OR ON THE PERIPHERAL OF THE PLAN.
39
PREFERRED VISUAL CONNECTION AND PRIVACY
LIMITED OPPORTUNITY FOR PRIVACY
LIMITED VISUAL CONNECTION INTERSECTING QUALITIES
1
PEDESTRIAN ACCESS
A NEW PLATFORM TYPOLOGY
2M WIDTH
PEDESTRIAN ACCESS
LIMITED VISUAL CONNECTION ADJACENT RELATIONSHIP
REFUSE 15 M LENGTH8M OPENING TICKET HALL SPATIAL ADJACENCY STUDY WC
WC
WC
PLANT
DELIVERIES
KEG STORE
MAIN BAR AREA
EUROLOOP WAITING AREA/ PUB SEATING
PR
IMA RY C
IRC
1
UL
PLATFORM
TICKET GATES EXTERNAL TERRACE
GROUND FLOOR TICKET HALL PRIMARY CIRCULATION EXTERNAL TERRACE
PUBLIC TICKETED
ENCLOSED
PUBLIC ACCESS
PRIVATE
OPEN
PRIVATE ACCESS
SPATIAL ADJACENCY
ADJACENCY STUDY ADJACENCY STUDY DRIVEN BY USER EXPERIENCE AND VISUAL CONNECTION BETWEEN THE EUROLOOP TERMINAL AND ARCTIC PUB ENSURING A CONNECTIVITY IS PROMINENT, HOWEVER ZONES OF PRIVACY AND DISCONNECTION ARE PRESENT.
BOAT ACCESS
WATERSIDE ACCESS
40
TICKETED LINE
ATIO N
LEVEL -1 MAIN BAR AREA 3 X WC PLANT KEG STORE REFUSE STORE
LEVEL -2 EUROLOOP WAITING AREA/ PUB SEATING WATERSIDE ACCESS BOAT ACCESS TICKET GATES PLATFORM
PROGRAMMATIC DISTRIBUTION BY LEVEL
ARCTIC PUB ARCTIC PUB INTERSECTION ELEMENT EUROLOOP END STATION
EUROLOOP END STATION INTERSECTION ELEMENT EXTERNAL TERRACE WATER ACCESS
WATER ACCESS
ASYMMETRIC PERPENDICULAR ARRANGEMENT
SYMMETRIC PERPENDICULAR ARRANGEMENT
ARCTIC PUB
ARCTIC PUB EUROLOOP END STATION INTERSECTION ELEMENT EXTERNAL TERRACE INTERNAL VIEWING AREA WATER ACCESS
EUROLOOP END STATION INTERSECTION ELEMENT EXTERNAL TERRACE INTERNAL VIEWING AREA WATER ACCESS
ASYMMETRIC KINKED ARRANGEMENT
SYMMETRIC KINKED ARRANGEMENT
ARCTIC PUB EUROLOOP END STATION INTERSECTION ELEMENT EXTERNAL TERRACE INTERNAL VIEWING AREA WATER ACCESS
SYMMETRIC KINKED ARRANGEMENT
GEOMETRIC MASSING MASSING USING A PERPENDICULAR OR KINKED INTERSECTION BETWEEN THE ARCTIC PUB AND EUROLOOP STATION CREATING PERPENDICULAR CIRCULATION FLOWS.
41
N
N
N
W
E
W
W
E
S
E
FEBRUARY
E
W
E
S
E
S
JULY
E
N
W
E
S
SEPTEMBER
S
N
W
S
AUGUST
E
JUNE
N
W
W
MAY
N
W
E
S
APRIL
N
N
W
S
MARCH
N
E
W
S
S
JANUARY
N
N
W
E
S
OCTOBER
S
NOVEMBER
DECEMBER
PREDOMINANT WIND DIRECTIONS ARE NORTH EASTERLY AND SOUTHERLY. THESE WIND DIRECTIONS ARE ADDRESSED BY THE FORM OF THE BUILDING AS SHOWN BELOW. N
N
N
N
INITIAL MASSING MODEL
NORTH EASTERLY WINDS ADDRESSED
SOUTHERLY WINDS ADDRESSED
NORTHERLY WINDS ADDRESSED
INITIAL MASSING MODEL OF SPATIAL ARRANGEMENT.
BUILDING PLANES THAT INTERFACE NORTH EASTERLY WINDS HAVE BEEN TILTED ALLOWING FOR A FLOW OF WIND OVER THE BUILDING AS OPPOSED TO CREATING A RESISTANT FORCE UPON A VERTICAL SURFACE.
BUILDING PLANES THAT INTERFACE SOUTHERLY WINDS HAVE BEEN TILTED ALLOWING FOR A FLOW OF WIND OVER THE BUILDING AS OPPOSED TO CREATING A RESISTANT FORCE UPON A VERTICAL SURFACE.
NORTHERLY WINDS EXPERIENCED IN THE SUMMER ARE AIDED BY THE TILTING OF THE NORTH SIDE OF THE BUILDING AND ALSO DIRECTED BY THE TOPOGRAPHY.
THE BUILDING RESPONDS TO THREE KEY WIND DIRECTIONS BY GEOMETRIC ALTERATION ENABLING THE FLOW OF WIND OVER THE BUILDING. THE NECESSITY TO MAXIMISE THE SCARCITY OF LIGHT ON THE SOUTH-EASTERN FACADE HAS CREATED LESS RESPONSE TO SOUTHERLY WINDS THAN NORTH EASTERLY OR NORTHERLY.
WIND
60 DAYS PER ANNUM 24 HOURS SUNLIGHT 60 DAYS PER ANNUM 24 HOURS DARKNESS >25
24 22
>20
20
>15
18
>10
14
16 12
>5
10
>0
8 6
0
4
<-5
2 >12
<-10
J
<-15
J
F
M
A
M
J
J
A
S
O
N
F
M
A
M
J
J
A
S
O
N
60 DAYS PER ANNUM 24 HOURS SUNLIGHT
D
60 DAYS PER ANNUM 24 HOURS DARKNESS SUNLIGHT HOURS
AVERAGE ANNUAL TEMPERATURE OF TROMSÃ&#x2DC;
MARCH 21ST
JUNE 21ST
SEPTEMBER 22ND
THE SITE EXPERIENCES A MODERATE BREEZE THROUGHOUT THE YEAR FROM BOTH THE NORTHEAST AND SOUTHWEST DIRECTIONS. THE BUILDING FORM RESPONDS TO THIS BY CLOSING ITS FACADE TO THE NORTH EAST, WHILE MOST WIND FROM THE SOUTH WEST IS DIFFUSED BY THE PROPOSED DEVELOPMENT OR PROTECTED BY THE FACADE.
24 HOURS
ENVIRONMENTAL DEVELOPMENT
23-24 HOURS
SOLAR/ THERMAL
22-23 HOURS
21-22 HOURS
20-21 HOURS
19-20 HOURS
18-19 HOURS
17-18 HOURS
16-17 HOURS
15-16 HOURS
14-15 HOURS
13-14 HOURS
12-13 HOURS
11-12 HOURS
10-11 HOURS
9-10 HOURS
8-9 HOURS
6-7 HOURS
7-8 HOURS
5-6 HOURS
4-5 HOURS
3-4 HOURS
2-3 HOURS
1-2 HOURS
0-1 HOURS
HOURS OF SUNLIGHT ON SITE- ANALYSIS USING LADYBUG GRASSHOPPER PLUG-IN
42
0
MIDNIGHT SUN
0-1 HOURS
DECEMBER 22ND
1-2 HOURS
2-3 HOURS
THIS ANALYSIS HIGHLIGHTS THE SENSITIVE SUNLIGHT CONDITIONS AND THE NECESSITY OF THE BUILDING TO RESPOND TO THESE. A PUB HAS VERY SPECIFIC LIGHTING REQUIREMENTS WHICH MUST BE MET.
D
1.
TOPOGRAPHICAL ANALYSIS
4.
EUROLOOP PLATFORM AREA
THE TOPOGRAPHY SERVES AS A PRIMARY DESIGN DRIVER FOR THE FORM AND SPATIAL ARRANGEMENT.
LOCATION FOR EUROLOOP PLATFORM AREA WITH DIRECT ACCESS TO TRAINS ESTABLISHED
7.
SERVICES AREA DENOTED FOR KEG STORE, W/Câ&#x20AC;&#x2122;S AND OTHER SERVICING FACILITIES.
10.
TOPOGRAPHICAL RESPONSE
13.
EXTERNAL TERRACES
ACCOMMODATING THE VARYING TOPOGRAPHY CREATES OPPORTUNITIES FOR ARCHITECTURAL SPACE.
EXTERNAL TERRACES ADDED TO PROVIDE SOUTH FACING TERRACES FOR SUMMER MONTHS.
2.
PLANES OF OPPORTUNITIES
5.
ARCTIC PUB
TOPOGRAPHICAL ANALYSIS TO DERIVE PLANES WHICH WOULD SERVE AS MORE APPROPRIATE BUILDING REGIONS
LOCATION OF ARCTIC PUB DEFINED BY EARLIER STUDIES AND ASSESSMENT OF RAILWAY PUB TYPOLOGIES
8.
CIRCULATION THE PRIMARY CIRCULATION CORRIDOR CREATES A CONTINUAL CONNECTION BETWEEN DIFFERENT BUILDING FUNCTIONS AND ENVIRONMENT.
11.
WIND CONSIDERATIONS
14
SOLAR RESPONSIVE FACADE SYSTEM
WIND DIRECTIONS AND TOPOGRAPHICAL RESPONSE INFLUENCE FORM ON NORTH-EASTERN AND SOUTH-EASTERLY AREAS.
THE FACADE SYSTEM ALLOWS FOR THE CONTROL OF INTERNAL CONDITIONS AND ATMOSPHERES FROM EXTREMITIES OF THE SOLAR EXPOSURE.
3.
EUROLOOP INFRASTRUCTURE
6.
TICKET HALL
EUROLOOP INTEGRATION BY EUROLOOP AUTHORITY. THE BUILDING MUST CONNECT TO THIS AS A PREMISE FOR FURTHER SPATIAL ARRANGEMENT.
TICKET HALL SERVES AS THE PRIMARY ENTRANCE TO THE BUILDING, HOWEVER IT IS NOT NECESSARY TO BUY A TICKET TO VISIT THE ARCTIC TAP
9.
WATERSIDE ACCESS JETTY ADDED FOR ACCESS BY BOAT TO THE SITE.
12.
OVERHANGS
15.
PEDESTRIAN ACCESS
EXTREME CLIMATIC CONDITIONS HAVE BEEN ADDRESSED WITH OVERHANGS TO PREVENT SOLAR GAINS AND SNOW MELT.
APPROPRIATE PEDESTRIAN ACCESS ROUTE OVER TOPOGRAPHY ESTABLISHED WITH MINIMAL TOPOGRAPHICAL INTERFERENCE.
DESIGN GENESIS THE ARCTIC TAP FORM WAS DRIVEN BY TYPOLOGICAL, PROGRAMMATIC, TOPOGRAPHICAL AND ENVIRONMENTAL FACTORS. THESE FACTORS CONTRIBUTED TO THE DEVELOPMENT OF THE FORM.
43
A1
A2
A3
C1
D1
D2
D3
D4
D5 D6 D7 D8 D9 D10 D12 D13 D14 D15 D16
B1
44
B2
B3
D17
D18
A1: ENTRANCE A2: TICKET DESK A3: TICKET INFORMATION BOARD B1: EXTERNAL TERRACE B2:INTEGRATED TABLE B3: INTEGRATED BENCH C1: EUROLOOP TUNNEL EXCAVATED D1: INTEGRATED SEATING AREAS D2: MACK MASCOT POLAR BEAR EMBOSSED INTO TIMBER D3: PRIMARY CIRCULATION STAIRCASE D4: MACK BRANDING OPPORTUNITY D5: PINE TAR COATED TILES D6: ROOF BATTENS D7: 5 X CROSS FRICTIONALLY DOWEL LAMINATED LAMELLAS D8:125MM WOOD FIBRE INSULATION D9: 19X100 LAMELLA INTERNAL LAYER D10: CHALKBOARD
E1 E2
E3
E4
E5
D11: BEER DISPLAY BLACKBOARD D12 PRIMARY LINEAR LAMELLA STRUCTURE D13: 100+ MACK BEERS ON OFFER D14: BAR COUNTER TOP D15: COPPER FALLS D16: BAR KICK BOARD D17: MACK BRANDING OPPORTUNITY ON GLAZING D18: EXTERNAL TERRACE E1:EUROLOOP TRAIN E2: PLATFORM EDGE WARNING E3: LIGHT VARIABLE FACADE FINS E4: PLATFORM E5: EUROLOOP DEPARTURE BOARD E6: TOPOGRAPHICALLY VARIABLE FOUNDATION SYSTEM F1:MACK BARREL DELIVERED BY BOAT F2: JETTY FOR PLEASURE CRAFT F3: MACK EXECUTIVE YACHT
E5
F1
F2
F3
45
4. DETAILED DESIGN
46
PRIMARY STRUCTURE PRIMARY OVERHANG STRUCTURE
PRIMARY STRUCTURE
SECONDARY STRUCTURE SECONDARY OVERHANG STRUCTURE
SECONDARY INFILL PANELS
TICKET HALL ENTRANCE
TERRACE
ARCTIC TAP
TERRACE
PRIMARY CIRCULATION ROUTE
EUROLOOP PLATFORM
JETTY
ROOF RELATIONSHIP TO STRUCTURE
STRUCTURAL COMPOSITION COMPOSITION OF PRIMARY LINEAR LAMELLA FRICTIONALLY DOWEL LAMINATED ELEMENTS AND SECONDARY CROSS LAMELLA FRICTIONALLY DOWEL LAMINATED INFILL PANELS.
47
2
1
PRIMARY STRUCTURE PRIMARY OVERHANG STRUCTURE
19 X 200 MM LAMELLA 8MM PILOT HOLE
19 X 200 MM LAMELLA 8MM PILOT HOLE
10MM DIA DOWEL FRICTIONALLY INSERTED
10MM DIA DOWEL FRICTIONALLY INSERTED
19 X 110 MM LAMELLA
19 X 110 MM LAMELLA
EXPLODED EDGE PROFILE
1
EXPLODED EDGE PROFILE
IN THE TICKET HALL, THE LOADS ARE TRANSFERRED USING A 4M GRID. THE OVERHANG PRIMARY STRUCTURE USES A 2M GRID THROUGHOUT THE BUILDING, ONLY BROKEN IN CERTAIN PARTS. AREA FOR SECONDARY CONNECTION
AREA FOR SECONDARY CONNECTION
VERTICAL LAMELLAS INCREASE BEAM DEPTH AND STRENGTH
VERTICAL LAMELLAS INCREASE BEAM DEPTH AND STRENGTH
2
DUAL CONNECTING PROFILE
EDGE PROFILE
CONNECTING PROFILE
PRIMARY STRUCTURE PROFILE
DUAL CONNECTING PROFILE
EDGE PROFILE
DUAL CONNECTING PROFILE
PRIMARY OVERHANG PROFILE
4M GRID TIMBER FRAMED GRID STRUCTURE TRANSFERS LOADS TO GROUND. PLEASE NOTE THE OVERHANGS TRANSFER LOADS TO THE PRIMARY STRUCTURE .
INDICATIVE LOAD PATHS PRIMARY PERPENDICULAR CONNECTION
1a.
1b. 10MM DIA DOWEL PRIMARY OVERHANG STRUCTURE
SECONDARY LOAD BARING PRIMARY STRUCTURE
8MM DIA PRE DRILLED HOLES
MAIN LOAD BEARING PRIMARY STRUCTURE
MAIN LOAD BEARING PRIMARY STRUCTURE
PRIMARY TO PRIMARY OVERHANG
2a.
2b. 10MM DIA DOWEL
PRIMARY OVERHANG STRUCTURE
PRIMARY OVERHANG STRUCTURE
8MM DIA PRE DRILLED HOLES
MAIN LOAD BEARING PRIMARY STRUCTURE
PRIMARY STRUCTURAL SYSTEM THE PRIMARY STRUCTURAL SYSTEM COMPRISES OF FRICTIONALLY DOWEL LAMINATED LINEAR LAMELLA TIMBER, WHICH IS PROFILED TO ACCEPT THE SECONDARY INFILL PANELS.
48
MAIN LOAD BEARING PRIMARY STRUCTURE
SECONDARY STRUCTURE SECONDARY OVERHANG STRUCTURE
LINEAR LAMELLA PRIMARY STRUCTURE
UPPER LAMELLA FORMS INTERNAL FLOOR SURFACE 19X100MM LAMELLA SIZE 8MM DIA PILOT HOLE 1MM DIA FRICTIONALLY WELDED DOWEL
DIRECTION 2
DIRECTION 1
THE UPPER LAYER OF CROSS LAMELLA TIMBER ACTS AS A SURFACE FINISH AS WELL AS STRUCTURAL COMPONENT. THIS IS TRANSFERRED THROUGHOUT THE SECONDARY STRUCTURAL SYSTEM. THE DIRECTIONALITY ENCOURAGES OR DE-COURAGES SPEED OF FLOW THROUGH SPACES.
EXPLODED COMPOSITION OF SECONDARY STRUCTURE
DOWEL DENSITY CHANGES RESPONDING TO FORCES VOID FOR BUILD UP 5 LAMELLA CROSS DOWEL LAMINATED PRIMARY STRUCTURE
PLANAR CONDITIONS PRIMARY TO SECONDARY CONNECTIONS
5 LAMELLA CROSS DOWEL LAMINATED TIMBER PRIMARY STRUCTURE
SINGLE CURVED CONDITIONS INTERNAL LOAD PATHS WITHIN CROSS LAMELLA TIMBER FORMATION
SECONDARY STRUCTURAL SYSTEM THE SECONDARY STRUCTURAL SYSTEM PROVIDES THE CROSS BRACING REQUIRED AND IS COMPRISED AS CROSS LAMELLA FRICTIONALLY DOWEL LAMINATED TIMBER. THEY ARE ORIENTATED AT 90 DEGREES AND 5 LAMELLAS THICK.
49
1
A
EXISTING EUROLOOP TUNNEL SHOWING STANDARDISED CONNECTION DETAIL USING STEEL AND BOLTS.
B
2
C
D
REINFORCEMENT OF THIS ELEMENT AS SPECIFIED BY STRUCTURAL LOAD WOULD ALLOW A FIXING PLATE TO ACCOMMODATE THE FOUNDATION STRUCTURE.
E F
THE ACCURACY OF THE BORING PROCESS WOULD MEAN A FIXED/ NON VARIABLE FOUNDATION METHOD COULD BE USED.
G
3
A- STAINLESS STEEL FLITCH PLATE AND 4 DOWEL CONNECTIONS B- RETRACTABLE STAINLESS STEEL COVER C- ADJUSTMENT POINT- REMOVABLE LEVER D- THREADED ELEMENT TO ALLOW ADJUSTMENT E- STAINLESS STEEL PIVOT F- FOOTING PLATE G-SCREWS SUITABLE FOR CALC-SILICATE-GNESS ROCK
INDICATIVE LOAD PATHS HIGHLIGHTED TRANSFERRING LOAD FROM STRUCTURE INTO GROUND.
MANUALLY ADJUSTABLE STAINLESS STEEL GROUND CONNECTIONS
1.
STRUCTURE ABOVE EUROLOOP TUNNEL
J F M A M J J A S O N D
3.
J F M A M J J A S O N D
WIND REDISTRIBUTES SNOWFALL
USING SNOW AS INSULATION BLANKET 30CM OF SNOW HAS A SIMILAR INSULATING VALUE AS A 2X4 WALL FILLED WITH FIBREGLASS INSULATION.
TOPOGRAPHICALLY VARIABLE FOUNDATIONS THE FOUNDATION SYSTEM RESPONDS TO THE TOPOGRAPHICAL CONDITIONS AND SNOW DEPTHS. THE SNOW DEPTHS CAN REACH 115CM AT PEAK. THE OVERHANGS ON THE BUILDING ADDRESS LIGHT CONDITIONS, HOWEVER ALSO SNOW FALLING TOO CLOSE TO FOUNDATIONS AND STRUCTURAL TIMBERS.
50
2.
SUMMER- BASE INSULATION
J F M A M J J A S O N D
SNOWFALL (500-1000MM)
4.
J F M A M J J A S O N D
BUILDING WRAPPED IN INSULATING SNOW BLANKET
18
11
10
10
16 16 16 16 16
22
22
16 16
16
09 09
14
16
16
16
16
16
13
20 20
04
12
02
03
13
04
02 03
04 04 04 04
01- 2 PCS 02- 2 PCS 03- 2 PCS 04- 6 PCS 05- 3 PCS 06- 7 PCS 07- 3 PCS 08- 4 PCS 09- 2 PCS 10- 2 PCS 11- 2 PCS 12- 3 PCS 13- 2 PCS 14- 2 PCS 15- 2 PCS 16- 15 PCS
17- 4 PCS 18- 3 PCS 19- 3 PCS 20- 2 PCS 21- 3 PCS 22- 2 PCS 23- 11 PCS 24- 2 PCS INDIVIDUAL
21
21
18 18 11 23 23
05
06
06
05 06 06
17 24
17
24
17
17 07
07 07 15 08 15 08 08 08 23
14
05
06
23 23 23 23 23
06
23 23 12
06 12 01
MAXIMUM DUPLICATE PIECES: 15 68% DUPLICATE PIECES
01
01- 2 PCS 02- 2 PCS 03- 2 PCS 04- 6 PCS 05- 3 PCS 06- 7 PCS 07- 3 PCS 08- 4 PCS 09- 2 PCS 10- 2 PCS 11- 2 PCS 12- 3 PCS 13- 2 PCS 14- 2 PCS 15- 2 PCS 16- 15 PC
DUPLICATION OF COMPONENTS
1
2
4
5
6
5
6
ROBOTIC FABRICATION SEQUENCE OF LINEAR LAMELLA PRIMARY STRUCTURE 1
2
3
4
ROBOTIC FABRICATION SEQUENCE OF CURVED CROSS LAMELLA SECONDARY STRUCTURE TOOL
CIRCULAR SAW
DRILL
ROBOTIC HEAD ATTACHMENTS
FRICTIONAL DOWEL LAMINATING 1200 RPM
PROCESS STAGE
TOOL
PROCESS STAGE
1
DELIVERY OF TIMBER
4
ARRANGEMENT OF TIMBER
2
CUTTING TIMBER TO SIZE
5
HOLES DRILLED
3
KERF BENDING IF NECESSARY
6
FRICTIONAL DOWEL LAMINATION
PREFABRICATION OF COMPONENTS THE MAJORITY OF THE BUILDING WILL BE PREFABRICATED OFF SITE USING ROBOTICS, THIS ALLOWS FOR A HIGH LEVEL OF ACCURACY
51
UTILISING WATERSIDE ACCESS CRANE WEIGHT CAPACITY: 125 TONNES BARGE WEIGHT CAPACITY: 1500 TONNES MAXIMUM REACH: 64 METERS BARGE SIZE: 12000 X 42000 MM BARGE CARGO DECK: 12000 X 35000
PIECE 5 LOADABLE AREA OF CRANE BARGE
PIECE 6
PIECE 2
PIECE 4
PIECE 3
PIECE 1
PIECE 7
DIVISIBILITY OF STRUCTURE TO FIT ON BARGE IN MINIMUM NUMBER OF PREFABRICATED PIECES
FOCUSED CONSTRUCTION SEQUENCE OF PIECE 1
1.
EUROLOOP BORING
4.
PRIMARY FOUNDATION ADJUSTMENT
7.
SECONDARY STRUCTURE ADDED
BORING OF EUROLOOP TUNNEL- UNDERTAKEN BY EUROLOOP CONTRACTOR.
GROUND TEAM ALIGN FOUNDATIONS, ADJUST FOOTINGS AND SECURE TO ROCK. WEIGHT IS HELD IN PLACE USING CRANE.
CROSS FRICTIONALLY DOWEL LAMINATED PANELS ARE GUIDED INTO PLACE AND SECURED BY WORKFORCE.
DELIVERY AND CONSTRUCTION THE DELIVERY AND CONSTRUCTION SYSTEM SEEKS TO UTILISE PREFABRICATION AND WATERSIDE ACCESS TO SITE. THE USE OF CRANE BARGES ELIMINATES RESTRICTED SIZES OF LOAD TRANSPORTATION BY ROAD. THIS ALLOWS THE CONSTRUCTION SEQUENCE TO BE SPED UP IN ORDER TO DELIVER THE BUILDING WITHIN A FOUR MONTH PERIOD.
52
2.
PRIMARY TRANSPORTATION
5.
TEMPORARY PROPS INSERTED
8.
BUILD UPS
PRIMARY STRUCTURE IS TRANSPORTED TO SITE USING A CRANE BARGE. THIS ALLOWS FOR REACH OF ALL BUILDING AREAS.
TEMPORARY STEEL PROPS SUPPORT ELEMENTS WHILST OTHER PRIMARY COMPONENTS ARE LIFTED INTO PLACE COMPLETING THE STRUCTURAL SYSTEM.
CLADDING, INSULATION AND BATTENS ARE ADDED IN REMAINING AREAS.
3.
6.
9.
PRIMARY LIFTING PRIMARY STRUCTURE IS LIFTED INTO PLACE USING CRANE BARGE. THIS IS GUIDED BY GROUND WORKFORCE.
INACCESSIBLE BUILD-UPS CLADDING, INSULATION AND BATTENS ARE ADDED IN REGIONS THAT WILL BE INACCESSIBLE ONCE SECONDARY STRUCTURE IS FITTED.
INTERNAL TIMBER UNDERSIDES INTERNAL, NON STRUCTURAL TIMBER SURFACES ARE FITTED BY WORKFORCE.
SPARK PLUG
CASING
RECHARGE BATTERY
1200 RPM
FUEL CARTRIDGE COMBUSTION CHAMBER FAN MIXES AIR AND FUEL WELDED REGION
HYDRAULIC PLUNGE HYDRAULIC REGULATOR SPRING LOADING TRIGGER
ROTATIONAL MOTOR RELEASE DOWEL MAGAZINE
FUSION OF LIGNIN
8MM DIA RADIUS
SOLE PLATE
DOWEL FOR WELDING
1.
2.
3.
4.
BATTERY AND GAS
1200 RPM ROTATION
COMBUSTION CHAMBER FILLED
SPARK PLUG/ COMBUSTION
5. DOWNWARDS MOTION
6. DOWEL INSERTED INTO TIMBER
BATTERY AND FUEL TANK MUST BE CHECKED BEFORE DAILY USE.
MOTOR CREATES 1200 RPM OF ROTATION, NEEDED FOR FRICTIONAL DOWEL CONNECTIONS.
AIR AND FUEL ARE MIXED USING THE FAN WITHIN THE COMBUSTION CHAMBER
SPARK PLUG TRIGGERS THE OCCURRENCE OF COMBUSTION WITHIN THE CHAMBER.
ENERGY FROM COMBUSTION SPARKS ENOUGH ENERGY TO DRIVE HYDRAULIC INTERNAL PISTON, LOWERING DOWEL INTO DRILLED HOLE.
FRICTIONAL DOWEL LAMINATION OCCURS, ONCE FULLY INSERTED THE DEVICE MUST RELEASE THE DOWEL WHILE STILL IN ROTATION.
N/A
1 SECOND TO SPEED
INSTANTANEOUS
INSTANTANEOUS
2 SECONDS
2 SECONDS
ON SITE FRICTIONAL DOWEL FIXING PROCESS
FRICTIONAL DOWEL LAMINATION TOOL DEVELOPMENT OF A HAND HELD TOOL FOR FRICTIONAL DOWEL LAMINATION ON SITE. THIS ALLOWS FOR ON SITE DOWEL LAMINATION OF ELEMENTS WHICH CANNOT BE PREFABRICATED.
53
150MM 170MM
PINE STRAW PINE TIMBER
460MM
EARTH WALLS
CLAY GROUND BARREL
THE TAR KILN USES HEAT TO EXTRACT THE PINE TAR FROM THE WOOD AS IT BLEEDS OUT UNDER HIGH TEMPERATURES. THIS IS THEN COLLECTED IN A BARREL.
STANDARD TILE DIMENSION
TILE ARRANGEMENT ON ROOFING BATTENS
WARMTH CAUSES PINE SHINGLES TO OPEN UP
PINE TAR APPLIED TO SURFACE
TEMPERATURE DROPS, WOOD CLOSES CAUSING PINE TAR TO FORM AN IMPENETRABLE MOISTURE BARRIER
DIAGONAL SURFACES ALLOWS WATER TO FLOW OFF ROOF
FLAT TILED SURFACES ALLOW THE WATER TO REST, WITHOUT ANY DAMAGE TO THE TIMBER BEFORE BEING EVAPORATED.
PROCESS OF PINE TAR EXTRACTION THE PROCESS OF PINE TAR COATING WILL BE USED AS AN ALTERNATIVE TO CONTEMPORARY WATERPROOF MEMBRANES
19MM COATED WEATHERED LARCH INSULATED OVERHANG TO PREVENT SNOW MELT AND ICICLE FORMATION
19X38MM ROOF BATTEN 15MM PINE TAR TILES CROSS FRICTIONALLY DOWEL LAMINATED TIMBER PANELS PRIMARY STRUCTURE PRIMARY OVERHANG STRUCTURE ZINC GUTTER 5MM OFFSET DRIP NOTCH
PINE TAR COATED TILES LARCH CLAD OVERHANGS TOPOGRAPHIC SEATING BAR/ WAITING ROOM
PRIMARY CIRCULATION ZONE
INSULATED OVERHANGS TO PREVENT FACADE HEAT LOSS FROM MELTING SNOW AND FORMING ICICLES
INSULATED FLOOR CAVITIES
GAP BETWEEN GROUND AND BUILDING ENABLES SNOW BUILD UP
PINE TAR COATED ROOF PINE TAR EXTRACTED FROM PINE IS USED TO COAT THE ROOF, PROVIDING A WATERPROOF BARRIER AND ELIMINATING THE NECESSITY FOR A WATERPROOF MEMBRANE IN THE BUILD UP.
54
TEXTURED HEAT RETENTION
WIND DIFFUSED
WIND DIFFUSED
WIND CONTINUOUS FLOW WIND
RADIANT HEAT LOSS
WIND
WIND
RADIANT HEAT LOSS
RADIANT HEAT LOSS
TEST 1: SMOOTH SURFACE
TEST 2: TILES ON 150 MM BATTEN SPACING
TEST 2: TILES ON 75 MM BATTEN SPACING
COOLING EFFECTIVENESS
COOLING EFFECTIVENESS
COOLING EFFECTIVENESS
MATERIAL COST/ USAGE
MATERIAL COST/ USAGE
MATERIAL COST/ USAGE
CONSTRUCTION COST/ TIME
CONSTRUCTION COST/ TIME
CONSTRUCTION COST/ TIME
AS THE WIND FLOWS OVER THE TILED SURFACE, THE TEXTURE DIFFUSES THE WIND, REDUCING HEAT LOSS FROM BUILDING SKIN AND SUBSEQUENT STRUCTURE.
SMOOTH ROOF SURFACE
TILED ROOF SURFACE
HEAT LOSS HEAT RETAINED
HEAT LOSS HEAT RETAINED
INDICATIVE ZONES OF MAXIMUM HEAT LOSS FROM STRUCTURE
THE DISTURBED WIND FLOW OVER THE TILED SURFACE REDUCES HEAT LOSS DUE TO WIND FLOW.
HARNESSING THE INSULATION PROPERTIES OF SNOW SNOW GUARD
SNOW BUILD UP
SNOW GUARD IS USED TO RETAIN SNOW ON ROOF ALLOWING IT TO PROVIDE INSULATION LAYER AND ALSO PREVENT SNOW FALLING ONTO BUILDING, PEOPLE OF GROUND BELOW.
TIMBER SNOW GUARD
PINE TAR COATED TILES
SNOW GUARD CONSTRUCTION
PREVENTING SNOW MELT MATERIAL:
THERMAL CONDUCTIVITY
SNOW TILES BATTENS INSULATION CLT
0.023 W/MK 0.14 W/MK 0.14 W/MK 0.04 W/MK 0.13 W/MK
THICKNESS 500MM 15MM 38MM 124MM 95MM
THERMAL RESISTANCE 21.7 M2K/W 0.10 M2K/W 1.27 M2K/W 3.10 M2K/W 0.73 M2K/W
U VALUE: 0.04 THIS CALCULATION ENSURES THAT THE CORRECT INSULATION PROPERTIES ARE MET UTILISING SNOW AS AN INSULATOR. IT ALSO ENSURES THAT BUILDING REGULATIONS WOULD BE MET AND THAT SNOW WILL NOT MELT ON THE ROOF.
ROOF SYSTEM PERFORMANCE THE ROOF SYSTEM AS PREVIOUSLY EXPLAINED NOT ONLY PROVIDES A WATERPROOF COATING BUT TAKES ENVIRONMENTAL CONSIDERATION TO DIFFUSE THE WIND FLOW REDUCING THE HEAT LOSS OF THE BUILDING AND STRUCTURE.
55
GLAZING FRAME SECURED TO PRIMARY STRUCTURE
MULLIONS AT SAME LINE AS FINS TO CREATE CONTINUITY
GLAZING LINE OFFSET FROM FINS
GLAZING FRAME PROFILE CONTROLS DRIPS
OVERHANGS MUST BE INSULATED GLAZING FRAME ATTACHED TO PRIMARY STRUCTURE
1
1
PUB AREAS
OPEN FIN; DOWEL CONNECTION
FIN IN CLOSED POSITION
FIN SIZE: 59X800MM IN THE PUB, THE FINS ALLOW OBLIQUE VIEWS TO THE OUTSIDE, CONTROL LIGHT AND ATMOSPHERE BOTH INSIDE THE BUILDING AND OUTSIDE, REDUCING LEVEL OF GLARE.
DIRECTIONAL WAY-FINDING OPEN TO MAXIMISE LIGHT/ VIEWS
2
CLOSED DURING WINTER MONTHS/ NIGHT
2
OBLIQUE VIEWS 3
CIRCULATION/ TRANSPORTATION AREAS FIN SIZE: 59X400MM IN THE PUBLIC AREAS, THE FINS ARE ANGLED TO ASSIST WAY-FINDING AND DIRECTIONAL FLOW THROUGH THE BUILDING. THEIR SIZE ALLOWS A CONSTANT CONNECTION TO THE EXTERNAL ENVIRONMENT.
DOWEL PIVOT CONSTRUCTED FROM 19X100MM FRICTIONALLY DOWEL LAMINATED TIMBER.
CLOSED POSITION VOID
TRIPLE GLAZED INTEGRATION 6MM GLAZING 16MM VACUUM 4MM GLAZING 18MM VACUUM
OPEN TO MAXIMISE LIGHT/ VIEWS
4MM GLAZING
INTERNAL ATMOSPHERE THE VERTICALITY OF FINS CREATES AN AMBIANCE OF PUBLIC SPACE. THE ROTATIONAL POTENTIAL ALLOWS FOR REGIONS OF GREATER I INTIMACY, SUCH AS THE ARCTIC TAP BAR, TO BE CLOSED IN COLDER WINTER MONTHS FROM THE OUTSIDE.
ATMOSPHERIC PRINCIPLES
FACADE DESIGN PRINCIPLES ENVIRONMENTAL AND ATMOSPHERIC PRINCIPLES OF VERTICAL FINS INTEGRATED BEHIND FACADE LINE.
56
CLOSED DURING WINTER MONTHS/ NIGHT
ENVIRONMENTAL PRINCIPLES
CONSTRUCTION ELEMENTS
MARCH 21ST
0 HOURS 12 HOURS DAYLIGHT PENETRATION ANALYSIS
24 HOURS 10AM
LOW ANGLE LIGHT CAN PASS THROUGH TO INTERNAL SPACES, HIGH ANGLE LIGHT IS BLOCKED.
4PM
LOW ANGLE LIGHT CAN PASS THROUGH TO INTERNAL SPACES, HIGH ANGLE LIGHT IS BLOCKED.
JUNE 21ST
0 HOURS
12 HOURS
LARGE LEVELS OF HIGH ANGLE SUNLIGHT IS BLOCKED REDUCING SOLAR GAIN OF INTERNAL SPACES.
24 HOURS
DAYLIGHT PENETRATION ANALYSIS
10AM
LOW ANGLE LIGHT CAN PASS THROUGH TO INTERNAL SPACES, HIGH ANGLE LIGHT IS BLOCKED. 4PM
SEPTEMBER 22ND
0 HOURS
12 HOURS
24 HOURS
DAYLIGHT PENETRATION ANALYSIS
10AM
LARGE LEVELS OF LOW ANGLE SUNLIGHT PASSES THROUGH THE FACADE LIGHTING INTERNAL SPACES.
NO SUNLIGHT PRESENT 4PM
DECEMBER 22ND
0 HOURS
12 HOURS
NO SUNLIGHT PRESENT
24 HOURS
DAYLIGHT PENETRATION ANALYSIS
10AM
NO SUNLIGHT PRESENT 4PM
SOLAR ANALYSIS SOLAR ANALYSIS OF LIGHT PENETRATION INTO INTERNAL SPACES. THIS ALLOWS FOR THE CAREFUL INTEGRATION OF ARTIFICIAL LIGHTING WHERE NECESSARY.
57
1 EXAMPLE BUILD UP PINE TAR COATED ROOFING
2 EXAMPLE BUILD UP VERTICAL LARCH CLAD WALL
3 EXAMPLE BUILD UP OVERHANG WITH TERRACE
F E
E
D
D
D
C
C
C
B
B
B
A
A
A
A
19X100MM INTERNAL LAMELLA
A
19X100MM LARCH CLADDING
A
19X100MM INTERNAL LAMELLA
B
125MM WOOD-FIBRE INSULATION
B
19X38MM CROSS GRID BATTENS
B
125MM WOOD-FIBRE INSULATION
C
125X50MM TIMBER STUD
C
125X50MM TIMBER STUD
C
125X50MM TIMBER STUD
D
19X100MM 5 CROSS LAMELLA TIMBER
D
125MM WOOD-FIBRE INSULATION
D
19X100MM 5 CROSS LAMELLA TIMBER
E
19X38MM CROSS GRID BATTENS
E
19X100MM 5 CROSS LAMELLA TIMBER
E
19X38MM CROSS GRID BATTENS
F
15MM THICK PINE TAR COATED SHINGLES
F
19X100MM LARCH CLADDING
1: ARCTIC TAP BAR SPATIAL HIERARCHY
2: PRIMARY CIRCULATION
3
THE ARCTIC TAP: SECTIONAL STUDY SECTIONAL STUDY OF SPATIAL HIERARCHY WITHIN THE ARCTIC TAP AND ADJACENT CIRCULATION, SERVICES AND EXTERNAL SPACES.
58
F
E
3: SEATING/ WAITING ROOM
1
4: KEG STORE
2
5 LAMELLA 19X100MM FRICTIONALLY DOWEL LAMINATED TIMBER 125MM WOOD FIBRE INSULATION 125X50MM TIMBER BATTEN
SERVICES PIPE 12.5MM DIAMETER BEER LINES AFFIXED TO TRAYS VENTILATION PIPE 50X50MM TIMBER FRAME 8MM DIAMETER HOLES DRILLED 10MM DIAMETER DOWELS TO BE FRICTIONALLY AFFIXED INTO PLACE
BEER TAPS
BAR SURFACE
MISC SERVICES BEER LINES 19X100 MM INTERNALLY VISIBLE LAMELLA PRIMARY STRUCTURE
AIR VENTILATION
PRESSURISED CONNECTION POINTS BEER KEGS
125MM WOOD FIBRE INSULATION
SERVICE INTEGRATION THE FRICTIONALLY DOWEL LAMINATED CONSTRUCTION SYSTEM ALLOWS FOR THE CONCEALMENT OF INTEGRAL SERVICES WITHIN THE STRUCTURE USING A SIMPLE SYSTEM. THIS IS KEY FOR VENTILATION PIPES, ELECTRICS, WATER AND MOST IMPORTANTLY FOR THE ARCTIC TAP; BEER.
59
COPPER TAP FALLS
4MM COPPER VENEER 10MM DIA HARDWOOD DOWELS 20MM THICK TIMBER LAMELLA 38MM THICK TIMBER LAMELLA 8MM PRE DRILLED HOLES 38X38MM PROFILED TIMBER
20MM SHELVING
10MM DIA HARDWOOD DOWELS 8MM PRE DRILLED HOLES 8MM TIMBER LETTERING 260X260X19MM TIMBER 260X260X19MM TIMBER
38X38X712MM TIMBER SQUARE PROFILE 45O CORNER MITRE JOINT 800X150X19 TIMBER KICK BOARD 1000X100X19MM MILLED PROFILED TIMBER 50X50MM TIMBER STUD
10MM RADIUS HARDWOOD DOWELS
25X350X140MM TIMBER
25X350X1OOOMM KERF BENT TIMBER 50X50MM TIMBER STUD 8MM DIA PRE DRILLED HOLE 3MM DIA TIMBER NAIL 8MM CNC MILLED LETTERING
CNC MILLED 8MM TIMBER DETAILING
8MM CNC MILLED LETTERING 70X25X975MM KERF BENT TIMBER
10MM RADIUS HARDWOOD DOWELS
FRICTIONAL DOWEL LAMINATED PUB TYPOLOGIES ELEMENTS OF TRADITIONAL PUB TYPOLOGIES HAVE BEEN DESIGNED CHALLENGING THE USE OF HETEROGENEOUS ELEMENTS USING THE FRICTIONAL DOWEL LAMINATION SYSTEM.
60
21 20 19 18
17 16 22
15 14 13 12 11
23
10
24
9 8
25 26
7
27 28
6 5
4
3
2
1
1
ADJUSTABLE FOUNDATIONS
8
SERVICES WITHIN SERVICE VOID
15
CFDLT PREFABRICATED PANELS 5 LAMELLA
2
LARCH CLADDING
9
KEG STORE
16
19X38MM BATTENS
3
CFDLT PREFABRICATED PANELS*
10
ARCTIC TAP MAIN BAR
17
19X100 LARCH CLADDING
4
125MM WOOD FIBRE INSULATION
11
WALL MOUNTED BEER TAPS
18
CFDLT PREFABRICATED PANELS 5 LAMELLA
5
LINEAR LAMELLA PRIMARY STRUCTURE
12
19X100MM INTERNAL FINISH
19
19X38MM BATTENS
6
SERVICES COVERING/ WALL SURFACE
13
125MM WOOD-FIBRE INSULATION
20
19X38MM BATTENS
7
CFDLT PREFABRICATED PANELS*
14
125X50MM TIMBER STUDS
21
PINE TAR COATED PINE ROOF SHINGLES
*CFDLT = CROSS FRICTIONALLY DOWEL LAMINATED TIMBER
22
INSULATED OVERHANG
23
LARCH OVERHANG CLADDING
24
LARCH OVERHANG CLADDING
25
FACADE SYSTEM W/ FINS
26
GLAZED TERRACE BALUSTRADE
27
PRIMARY CIRCULATION STAIRS
28
WAITING/ PUB SEATING AREA
THE ARCTIC TAP: ASSEMBILY STUDY ASSEMBILY STUDY OF THE ARCTIC TAP AND HIERARCHY OF COMPONENTS.
61
1
2
ELECTROMAGNETIC SYSTEMS ALIGHTING/ WAITING AREA
LED INFORMATION BOARD
PLATFORM LEVEL
KEY FRICTIONAL DOWEL CONNECTION SOFFIT DRAINAGE INTEGRATED IN PROFILE
1
TOP FIXING
KEY FIXING: EUROLOOP TUBE TO PLATFORM: STEEL TO TIMBER
USING FRICTIONALLY WELDED DOWEL CONNECTIONS TURNING THE EUROLOOP TUNNEL INTO A FLITCH LIKE CONNECTION. THE CONNECTION FACILITATES DRAINAGE AND FROM PLATFORM SIDE THERE IS AN ALL TIMBER AESTHETIC.
EUROLOOP TUBE PROFILE
EUROLOOP PLATFORM EXPLORATION INTO KEY CONNECTION BETWEEN STEEL EUROLOOP TUNNEL AND TIMBER BUILDING. THIS CONNECTION IS KEY TO THE ARCTIC TAP AND SERVES AS THE MEETING POINT BETWEEN TROMSÃ&#x2DC; AND NATIONAL AND INTERNATIONAL VISITORS.
62
2
BOTTOM FIXING
KEY FIXING: EUROLOOP TUBE TO PLATFORM: STEEL TO TIMBER
THIS KEY CONNECTION UTILISES RESEARCH INTO FLITCH PLATE CONNECTIONS IN ORDER TO USE TIMBER FRICTIONALLY WELDED DOWEL CONNECTIONS TO CONNECT THE EUROLOOP TUBE TO THE ARCTIC TAP PLATFORM AREA.
EUROLOOP TUBE PROFILE
EUROLOOP TUNNEL
1 DRAINAGE STRATEGY
2
DRAINAGE GUTTER
RECESSED LIGHTING STRATEGY RECESSED CASING
1 3
3 LED STRIP LIGHT
INTEGRATED ACOUSTIC STRATEGY INTERNAL AESTHETIC
WOOD FIBRE ACOUSTICS TIMBER PROFILE
SNOW ACTS AS AN INSULATING LAYER, PROVIDING ADDITIONAL INSULATION IN MONTHS WHERE NECESSARY. INTEGRATED ACOUSTICS CONTROL NOISE LEVELS
PINE TAR COATED ROOF PROVIDES WATERPROOF COATING TO BUILDING OVERHANG PREVENTS THERMAL GAIN BY BLOCKING HIGH ANGLE SUNLIGHT SNOW GUARDS INTEGRATED INTO ROOF INSULATED OVERHANG PREVENTS SNOW MELT FROM FACADE HEAT LOSS AND ICICLES FORMING
ROTATING FACADE FINS OPTIMISE LIGHTING CONDITIONS WITHIN THE INTERNAL SPACES SKYLIGHT DRAWS LIGHT INTO DARKER SPACES
2
PINE TAR COATED ROOF PROVIDES WATERPROOF COATING TO BUILDING INTEGRATED LIGHTING SOLUTION AUTOMATICALLY VARIES ACCORDING TO LIGHT CONDITION INSULATED OVERHANG PREVENTS SNOW MELT FROM FACADE HEAT LOSS AND ICICLES FORMING
ROTATING FACADE FINS OPTIMISE LIGHTING CONDITIONS WITHIN THE INTERNAL SPACES
ELEVATED BUILDING ALLOWS INSULATING SNOW TO FORM UNDERNEATH
ADEQUATE INSULATION PREVENTS SNOW MELT UNDER BUILDING UNDERFLOOR HEATING SYSTEM PROVIDES A CONSISTENT AND LOW ENERGY SOLUTION TO HEATING THE ARCTIC TAP
SNOW ACTS AS AN INSULATING LAYER, PROVIDING ADDITIONAL INSULATION IN MONTHS WHERE NECESSARY.
ENVIRONMENTAL SECTIONAL STUDY STUDY OF KEY SECTION AND ITS ENVIRONMENTAL FEATURES THAT ENABLE THE ARCTIC TAP TO PERFORM IN A REGION OF CLIMATIC EXTREMITIES.
63
5. FINAL DRAWINGS
64
65
66
67
A1
A2
A3
C1
D1
D2
D3
D4
D5 D6 D7 D8 D9 D10 D12 D13 D14 D15 D16
B1
68
B2
B3
D17
D18
A1: ENTRANCE A2: TICKET DESK A3: TICKET INFORMATION BOARD B1: EXTERNAL TERRACE B2:INTEGRATED TABLE B3: INTEGRATED BENCH C1: EUROLOOP TUNNEL EXCAVATED D1: INTEGRATED SEATING AREAS D2: MACK MASCOT POLAR BEAR EMBOSSED INTO TIMBER D3: PRIMARY CIRCULATION STAIRCASE D4: MACK BRANDING OPPORTUNITY D5: PINE TAR COATED TILES D6: ROOF BATTENS D7: 5 X CROSS FRICTIONALLY DOWEL LAMINATED LAMELLAS D8:125MM WOOD FIBRE INSULATION D9: 19X100 LAMELLA INTERNAL LAYER D10: CHALKBOARD
E1 E2
E3
E4
E5
D11: BEER DISPLAY BLACKBOARD D12 PRIMARY LINEAR LAMELLA STRUCTURE D13: 100+ MACK BEERS ON OFFER D14: BAR COUNTER TOP D15: COPPER FALLS D16: BAR KICK BOARD D17: MACK BRANDING OPPORTUNITY ON GLAZING D18: EXTERNAL TERRACE E1:EUROLOOP TRAIN E2: PLATFORM EDGE WARNING E3: LIGHT VARIABLE FACADE FINS E4: PLATFORM E5: EUROLOOP DEPARTURE BOARD E6: TOPOGRAPHICALLY VARIABLE FOUNDATION SYSTEM F1:MACK BARREL DELIVERED BY BOAT F2: JETTY FOR PLEASURE CRAFT F3: MACK EXECUTIVE YACHT
E5
F1
F2
F3
69
70
71
6. GENERAL ARRANGEMENT DRAWINGS
72
73
00
01
02
03
04
05
02
03
04
05
00
GA
SE CT ION
A
01
02
03
04
05
06
07 00
GA PLAN; ROOF PLAN 1:200@ A2 THE ARCTIC TAP, TROMSÃ&#x2DC;, NORWAY
74
01
06
07
08
09
10
SE CT IO N
B
00
GA
01
02
03
04
05
06
N
0 06
07
5000
10000 08
15000
20000 09
25000
07 10
75
00
01
02
03
04
05
00
GA
SE CT ION
A
01
02
03
04
0
03
01
02
06
04
05
05
06
07 00
GA PLAN; GROUND FLOOR 1:200@ A2 THE ARCTIC TAP, TROMSÃ&#x2DC;, NORWAY
76
01
02
03
04
05
06
07
08
09
10
GA SE CT ION B
00
01
02
03
07
04
05
06
01 PATHWAY TO SITE
04 ARCTIC TAP MAIN BAR
02 TICKE HALL
05 TERRACE
03 TICKET DESK
06 PRIMARY CIRCULATION 07 ARCTIC TAP TERRACE N
REGIONS OF INSULATED SNOW FILL
0 06
07
5000
10000 08
15000
20000 09
25000
07 10
77
00
01
02
03
04
05
00
GA
SE CT ION
A
01
02
04
03
03
05
02 01
04
05
06
07 00
GA PLAN; LEVEL -01 1:200@ A2 THE ARCTIC TAP, TROMSÃ&#x2DC;, NORWAY
78
01
02
03
04
05
06
07
08
09
10
GA SE CT IO
NB
00
01
07 06
02
08
03
04
05
06
01 WAITING ROOM/PUB SEATING
05 PRIMARY CIRCULATION
02 RAISED PUB SEATING LEVEL
06 EUROLOOP PLATFORM
03 TOILETS
07 EUROLOOP BOARDING
04 KEG STORE
08 WATERSIDE ACCESS N
REGIONS OF INSULATED SNOW FILL
0 06
07
5000
10000 08
15000
20000 09
25000
07 10
79
00
01
02
03
04
05
00
GA
SE CT ION
A
01
05
02
03
02
01
04
05
06
07 00
GA PLAN; LEVEL -02 1:200@ A2 THE ARCTIC TAP, TROMSÃ&#x2DC;, NORWAY
80
01
02
03
04
05
06
07
08
09
10
GA SE CT IO
NB
00
01
04 03
02
06
03
04
05
06
01 WAITING ROOM/PUB SEATING
04 EUROLOOP BOARDING
02 PRIMARY CIRCULATION
05 EUROLOOP TUNNEL
03 EUROLOOP PLATFORM
06 WATERSIDE ACCESS N
REGIONS OF INSULATED SNOW FILL
0 06
07
5000
10000 08
15000
20000 09
25000
07 10
81
00
01
02
03
04
05
00
01
02
03
GA PLAN L00 02
01 04 GA PLAN L-01
04
03
GA PLAN L-02
05
06
07 00
GA SECTION A 1:100 @ A2 THE ARCTIC TAP, TROMSÃ&#x2DC;, NORWAY
82
01
02
03
04
05
06
07
08
09
10 00
01
02
03
04
05
05
06
01 KEG STORE
04 PRIMARY CIRCULATION
02 ARCTIC TAP BAR
05 WATER LEVEL
03 WAITING ROOM/PUB SEATING REGIONS OF INSULATED SNOW FILL
0 06
07
2500
5000 08
7500
10000 09
1250
07 10
83
00
01
02
03
04
05
00
01
02
03
GA PLAN L00 01
02
04 GA PLAN L-01
03 GA PLAN L-02
05
06
07 00
GA SECTION B 1:100@ A2 THE ARCTIC TAP, TROMSÃ&#x2DC;, NORWAY
84
01
02
03
04
05
06
07
08
09
10 00
01
02
03
04
04
05
06
05
06
01 TICKET HALL
04 PRIMARY CIRCULATION
02 ARCTIC TAP BAR
05 EUROLOOP PLATFORM
03 WAITING ROOM/PUB SEATING
06 EUROLOOP TUNNEL
REGIONS OF INSULATED SNOW FILL
0 06
07
2500
5000 08
7500
10000 09
1250
07 10
85
All work produced by Unit 14 Unit book design by Charlie Harris www.bartlett.ucl.ac.uk/architecture Copyright 2019 The Bartlett School of Architecture, UCL All rights reserved. No part of this publication may be reproduced or transmited in any form or by any means, electronic or mechanical, including photocopy, recording or any information storage and retreival system without permission in writing from the publisher.
86
UNIT @unit14_ucl
87
M O D E R N C O U R A G E
2019
A
t the center of Unit 14’s academic exploration lies Buckminster Fuller’s ideal of the ‘The Comprehensive Designer’, a master-builder that follows Renaissance principles and a holistic approach. Fuller referred to this ideal of the designer as somebody who is capable of comprehending the ‘integrateable significance’ of specialised findings and is able to realise and coordinate the commonwealth potentials of these discoveries while not disappearing into a career of expertise. Like Fuller, we are opportunists in search of new ideas and their benefits via architectural synthesis. As such Unit 14 is a test bed for exploration and innovation, examining the role of the architect in an environment of continuous change. We are in search of the new, leveraging technologies, workflows and modes of production seen in disciplines outside our own. We test ideas systematically by means of digital as well as physical drawings, models and prototypes. Our work evolves around technological speculation with a research-driven core, generating momentum through astute synthesis. Our propositions are ultimately made through the design of buildings and through the in-depth consideration of structural formation and tectonic constituents. This, coupled with a strong research ethos, will generate new and unprecedented, viable and spectacular proposals. They will be beautiful because of their intelligence - extraordinary findings and the artful integration of those into architecture. Inspired by the audacity of the modernist mind the unit’s work aspires to reinstate the designer’s engagement with all aspects of our profession. Observation and re-examination of every aspect of current civilizatory development enables to project near future scenarios and positions the work as avant garde in the process of designing a comprehensive vision for the future. Societical, technological, cultural, economic as well as political developments propel the investigations with a deep understanding of how they interlink to shape strategies and astute synthesis to determine a design approach. We believe in the multi-objectivity of our design process, where the negotiation of the different objectives becomes a great source of architectural novelty and authorship. We will fight charlatanism with the aid of practical experimentation, scientific knowledge and technology. We find out about how human endeavour, deep desire and visionary thought interrelate as well as advance cultural and technological means while driving civilisation as a highly developed organisation. The underlying principle and observation of our investigations will be that futurist speculation inspires and ultimately brings about significant change. Supported by competent research the work is the search for modernist courage aiming to amplify found nuclei into imaginative tales with architectural visions fuelled by speculation. Thanks to: RSHP, Zaha Hadid Architects, DKFS Architects, Heatherwick Studio, Amanda Levete Architects, Seth Stein Architects, Cundal Engineering, DaeWha Kang Design, Uni Stuttgart ITKE
UNIT 14 @unit14_ucl
All work produced by Unit 14 Unit book design by Charlie Harris www.bartlett.ucl.ac.uk/architecture Copyright 2019 The Bartlett School of Architecture, UCL All rights reserved. No part of this publication may be reproduced or transmited in any form or by any means, electronic or mechanical, including photocopy, recording or any information storage and retreival system without permission in writing from the publisher.