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Architecture for Athens 2004 - Roof & Facade

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<strong>Roof</strong>&<br />

<strong>Facade</strong><br />

Asia<br />

OCTOBER<br />

<strong>2004</strong><br />

Volume 1 Number 8 MITA (P) 295/11/2003<br />

<strong>Architecture</strong> <strong>for</strong><br />

<strong>Athens</strong> <strong>2004</strong><br />

THE facilities <strong>for</strong> the <strong>2004</strong> Olympic<br />

Games and Paralympic Games in<br />

<strong>Athens</strong>, Greece, designed by the<br />

world-famous architect, Santiago<br />

Calatrava, stood out <strong>for</strong> their<br />

innovative structural <strong>for</strong>ms,<br />

especially the roofing systems.<br />

The Wall of Nations.<br />

© ATHOC/ Photo credit: C. Cunliffe.<br />

Facilities <strong>for</strong> <strong>2004</strong><br />

Olympic Games and<br />

Paralympic Games<br />

Tarchitect, to redesign the <strong>Athens</strong> Olympic<br />

HE Organising Committee <strong>for</strong> the Olympic<br />

Games <strong>Athens</strong> <strong>2004</strong>, in a joint ef<strong>for</strong>t with the<br />

Ministry of Culture in Greece, chose Dr<br />

Santiago Calatrava, the renowned Spanish<br />

Sports Complex (OAKA) and to carry out a series of other<br />

architectural works in the city of <strong>Athens</strong>.<br />

Combining, within a modern context, the<br />

environment, history and culture of Greece, particularly<br />

the spirit of the Olympic movement, Dr Calatrava has<br />

created a work of art that has left a permanent mark on<br />

contemporary <strong>Athens</strong>.<br />

Perhaps the identity of both the <strong>2004</strong> Games and the<br />

city of <strong>Athens</strong> is best reflected in the design OAKA.<br />

Key features of Dr Calatrava’s design include the<br />

suspended arches which partially cover the Olympic<br />

Stadium, the Velodrome and the entrances leading to the<br />

Continued on page 2 >>><br />

Contents<br />

October <strong>2004</strong><br />

Cover Story ................................................. 1<br />

Feature: Natural Stone Applications ....... 6<br />

Products & Services: Paints &<br />

Coatings ..................................................... 8<br />

Products & Services: Waterproofing .... 11<br />

Products & Services: Curtain Wall ....... 13<br />

News & Events ........................................16


<strong>Roof</strong>&<strong>Facade</strong> Asia Cover Story: <strong>Architecture</strong> <strong>for</strong> <strong>Athens</strong> <strong>2004</strong><br />

>>> Continued from page 1<br />

OAKA area. A semicircle is created between the<br />

competition venues, providing the same cover <strong>for</strong> the<br />

sponsors’ hospitality venue, the restaurants and the shops<br />

at the Games.<br />

In the post-Olympic era, the same area can host major<br />

events and exhibitions.<br />

Further, the Tower of the Olympic Flame was placed<br />

in a central square, in such a way that it was visible from<br />

each and every competition venue.<br />

Dr Calatrava’s skill in bringing design and<br />

engineering elements together in an innovative and<br />

creative way is reflected in his design <strong>for</strong> the OAKA.<br />

The paved central axis (the boulevard) which runs<br />

from east to west, provides a direct connection to the<br />

various Olympic venues.<br />

Suspended arched roofs partially cover the Olympic<br />

Stadium (the location <strong>for</strong> the opening and closing<br />

ceremonies, track and field events and the men’s soccer<br />

final) and the entrances, and fully cover the Velodrome<br />

(the location <strong>for</strong> the indoor cycling events). At the Arcade,<br />

curved shell structured steel arches and top cladding<br />

provided shade <strong>for</strong> spectators while allowing sunlight<br />

in.<br />

Indigenous vegetation was planted inside and outside<br />

the OAKA, while decorative water pools with light blue<br />

surfaces illuminated at night, enhanced the natural,<br />

relaxed atmosphere of the Games.<br />

Promenade areas with marble lanes, ponds and lightstreams<br />

completed the synthesis of the Agora.<br />

The Olympic Stadium.<br />

© ATHOC/ Photo credit: C. Voulgari.<br />

The Olympic Stadium<br />

In accordance with the architectural study per<strong>for</strong>med by<br />

Santiago Calatrava, the newly built roof partially covers<br />

the Olympic Stadium, mainly the terraces, over a total<br />

area of 25,000 sq m.<br />

The bearing construction is made of two double steel<br />

arcs which are positioned at the same height in pairs, and<br />

connected with extended cables. A system of diagonal<br />

connectors further strengthens the structure.<br />

The construction is completed with transverse girders<br />

which are connected to the lower arc and <strong>for</strong>m a grid on<br />

which polycarbonate was installed.<br />

The Velodrome<br />

The Olympic Velodrome is fully covered with a structure<br />

similar to the roof of the Olympic Stadium, with a steel<br />

bearing structure, the central zone of which is covered<br />

with solar controlling laminated glass and the rest with<br />

aluminium panels. The inner surface of the roof is lined<br />

with wooden panels.<br />

The Entrance Canopies<br />

The entrance canopies provided visitors with their first<br />

and final impressions of the complex. Spectators were<br />

able to clearly identify the Sports Complex OAKA by its<br />

glazed canopies which consist of steel structures<br />

supported by steel arches and topped with laminated<br />

glass.<br />

The Agora<br />

The Agora is a multi-purpose space which dominates the<br />

OAKA public areas, and comprises two main areas - the<br />

square and the arched promenade which provides shade<br />

<strong>for</strong> the public and at the same time, acts as a connective<br />

element between venues.<br />

The arched promenade consists of a series of steel<br />

arches, between which white wooden beams are placed.<br />

The roof provides shade and creates a pleasant<br />

atmosphere.<br />

The Wall of Nations<br />

The Wall of Nations is a huge sculptural creation made<br />

from steel tubes. These are motorised and can move in a<br />

wave-like manner. RnF<br />

The Olympic Stadium.<br />

© ATHOC/ Photo credit: C. Cunliffe.<br />

The Agora.<br />

© ATHOC/ Photo credit: G. Prinos.<br />

2 <strong>Roof</strong> & <strong>Facade</strong> Asia • October <strong>2004</strong>


Cover Story: <strong>Architecture</strong> <strong>for</strong> <strong>Athens</strong> <strong>2004</strong><br />

<strong>Roof</strong>&<strong>Facade</strong> Asia<br />

The Olympic Velodrome.<br />

© ATHOC/ Photo credit: C. Cunliffe<br />

<strong>Roof</strong> & <strong>Facade</strong> Asia • October <strong>2004</strong> 3


<strong>Roof</strong>&<strong>Facade</strong> Asia Cover Story: <strong>Architecture</strong> <strong>for</strong> <strong>Athens</strong> <strong>2004</strong><br />

A polycarbonate roof <strong>for</strong> the Olympic Stadium<br />

THE Olympic Stadium in <strong>Athens</strong>, named after Spyridon Louis, the Greek<br />

winner of the Marathon at the first modern Olympic Games in <strong>Athens</strong> in<br />

1896, was the venue of the Opening and Closing Ceremonies, all the track<br />

and field events and the men’s soccer final, at the <strong>2004</strong> Olympic Games.<br />

The roof of the arena, called the Calatrava Dome, can already claim three<br />

world records. It is not only the biggest stadium roof in the world, it is also<br />

the largest transparent roof ever built. Thirdly, it is the biggest roof ever to<br />

have been placed on top of a stadium after the stadium was completed.<br />

The roof sections are made of solid, highly transparent plastic sheets of<br />

MAKROLON polycarbonate from Bayer MaterialScience AG. The bluish<br />

shining panels provide <strong>for</strong> a friendly, open and bright atmosphere in the<br />

arena, and made it possible <strong>for</strong> the spectators to gaze up into the Greek<br />

summer sky.<br />

The roof is a dynamic suspension structure, defined by two metal arches,<br />

each 300 m long, with their apex rising to a height of 78 m. The arches span<br />

the stadium in the longitudinal direction and each carry a dome suspended<br />

on double-arch supports. In total, the roof structure weighs 17,000 tons,<br />

covers an area of nearly 25,000 sq m and can protect up to 75,000 spectators<br />

from direct sunshine and rain.<br />

Wire cables are connected to the two large metal arches, and it is to these<br />

that the 12 mm thick, nearly 5 m long and 1 m wide polycarbonate sheets<br />

are fixed. Sheets made of MAKROLON were chosen not only because of its<br />

high transparency but also on account of its lower weight when compared<br />

with that of glass. The sheets weigh just 14.4 kg/sq m. The favourable statics<br />

provided the architect with greater design scope.<br />

A special additive in the plastic kept the spectators cool despite the<br />

summer heat. This additive reflects the majority of the radiant heat from<br />

natural sunlight, but still allows the visible part of the light to pass through.<br />

As a result, the air mass in the stadium did not heat up as much. Another<br />

advantage of the plastic sheets, which have additionally been given a<br />

scratchproof finish, is their machinability. They can be sawed, drilled and<br />

cut without any problem. They do not break, which, together with their<br />

low weight, made handling during assembly much easier.<br />

Equally impressive was the procedure used <strong>for</strong> the construction of the<br />

stadium. So as not to interrupt the building work, the two halves of the<br />

roof were assembled separately next to the stadium. Once the main bulk of<br />

the work in the stadium had been concluded, the two 8,500 ton structures<br />

were each manoeuvred hydraulically on to the stadium on sliding blocks,<br />

using a special track-mounted system. Finally, the polycarbonate sheets were<br />

bolted into place. RnF<br />

Enquiry No: 10/101<br />

The world record-breaking Calatrava Dome is a roof of dynamic suspension structure, defined by two metal arches.<br />

<strong>Roof</strong>ing <strong>for</strong> the Stadium of<br />

Peace and Friendship<br />

THE Stadium of Peace and Friendship is located about<br />

25 km from the Olympic Village, in the Faliro Coastal<br />

Zone Olympic Complex, south of <strong>Athens</strong>.<br />

The venue <strong>for</strong> the volleyball matches at the <strong>2004</strong><br />

Olympic Games has a concave-shaped roof that offered<br />

protection to the approximately 14,000 spectators and<br />

players, from the extreme summer heat.<br />

Further, since the roof was supported solely by pillars<br />

at its perimeter, television viewers and spectators alike,<br />

were provided with an unobstructed view of the<br />

volleyball court.<br />

However, since the 35 m high stadium is located<br />

directly at the harbour, it is subject to the torrid heat in<br />

summer and the near-freezing temperatures in winter,<br />

varying wind strengths and salt-laden air.<br />

Sarnafil TS 77-15 - RAL 7040, a flexible polyolefin<br />

from Sarnafil, was used in the refurbishment of the<br />

existing roof, due to its special <strong>for</strong>mulation and the fact<br />

that it does not contain any plasticiser. The product has<br />

good chemical resistance, even at higher temperatures.<br />

These characteristics were decisive <strong>for</strong> the Greek<br />

contractors, since protection of the stadium needed to<br />

be long-term. Sarnafil-trained installers passed on<br />

expertise and knowledge to their Greek counterparts, a<br />

step that was crucial to the completion of the enormous<br />

installation. Together, they covered a surface as large as<br />

two soccer pitches.<br />

Sarnafil was also involved in building the<br />

Beach Volleyball Centre and other stadiums <strong>for</strong> the<br />

Games. RnF<br />

Enquiry No: 10/102<br />

The Stadium of Peace and Friendship: The concave-shaped roof offered protection to the spectators and players from the extreme summer heat.<br />

4 <strong>Roof</strong> & <strong>Facade</strong> Asia • October <strong>2004</strong>


Cover Story: <strong>Architecture</strong> <strong>for</strong> <strong>Athens</strong> <strong>2004</strong><br />

<strong>Roof</strong>&<strong>Facade</strong> Asia<br />

<strong>Roof</strong>ing structures completed by<br />

Taiyo Membrane Corporation<br />

The Karaiskaki Stadium (on top), with a capacity to seat 33,000 spectators, and the two tension membrane entrance structures, at the <strong>Athens</strong> Olympic Sports<br />

Complex (above left and right).<br />

THE 28,000 sq m, white coloured, membrane roof <strong>for</strong> columns, special red-white night lighting, and red laser<br />

Karaiskaki Stadium in <strong>Athens</strong>, which was the venue <strong>for</strong> beams to project the Olympaikos emblem in the middle<br />

the soccer matches at the <strong>2004</strong> Olympic Games, was of the field, augment the club colours <strong>for</strong> the stadium.<br />

engineered and manufactured by Taiyo Membrane TMC also completed two tension membrane entrance<br />

Corporation (TMC).<br />

structures at the <strong>Athens</strong> Olympic Sports Complex. Each<br />

After the Olympics, the stadium, which has the structure used approximately 500 sq m of Mehler FR900<br />

capacity to seat 33,000 spectators, will be the home PVC membrane. RnF<br />

stadium <strong>for</strong> the Olympaikos league team.<br />

Fourteen red towers, 70 white intermediate steel Enquiry No: 10/103<br />

<br />

<br />

<br />

<br />

<br />

<br />

<br />

<strong>Roof</strong> & <strong>Facade</strong> Asia • October <strong>2004</strong> 5


<strong>Roof</strong>&<strong>Facade</strong> Asia<br />

Feature: Natural Stone Applications<br />

The use of stone in curtain walls<br />

[This is an edited excerpt from a publication produced by Internazionale Marmi e Macchine<br />

Carrara SpA (IMM). Well-known all over the world <strong>for</strong> the promotion of marble and other<br />

stone materials, IMM has, over the last few years, expanded its range of activities. The<br />

company’s objective is to acquaint people with the qualities of stone and all its possible uses].<br />

Introduction<br />

The use of thin stone in curtain wall systems<br />

is becoming more widespread in Europe.<br />

Aside from their traditional structural<br />

function, stone materials are now being recognized<br />

<strong>for</strong> characteristics which compare<br />

favourably with those of many other building<br />

materials used <strong>for</strong> cladding purposes.<br />

These include aesthetic qualities; the ability<br />

of the stone to act as a barrier to prevent<br />

atmospheric and polluting elements from<br />

entering the internal environment; the minimal<br />

requirement <strong>for</strong> maintenance or renovation;<br />

their capacity to increase the degree<br />

of internal com<strong>for</strong>t, thanks to the possibility<br />

of creating ventilated curtain wall systems;<br />

and their ability to provide greater<br />

sound reduction in lightweight cladding<br />

systems, due to the mass of the materials.<br />

In order to exploit the above characteristics<br />

and maintain adequate safety levels, especially<br />

in the use of thin stone <strong>for</strong> large<br />

buildings subjected to adverse environmental<br />

conditions, the important considerations<br />

include the correct choice of stone, the accurate<br />

design of stone fixing systems, and<br />

the accurate installation of stone.<br />

Criteria in the choice of stone<br />

<strong>for</strong> cladding<br />

As the use of stone <strong>for</strong> cladding purposes<br />

is a solution <strong>for</strong> the lifespan of the<br />

building, the choice of the stone should<br />

be on the basis of technical and design<br />

aspects. These apply both generally and<br />

in the specific case of curtain wall systems.<br />

Architectural and aesthetic factors will<br />

determine the initial selection of the stone.<br />

These are dependent upon the vein<br />

patterns and/or grains; the extensive<br />

colour spectra; the proposed cladding<br />

layout which divides units into various<br />

shapes and sizes; and the surface finishes<br />

which best enhance the inherent aesthetic<br />

qualities of the cladding.<br />

The main factors determining the ultimate<br />

choice of stone include the production<br />

technology available <strong>for</strong> processing stones,<br />

the chemical-physical properties of the<br />

stones and their suitability under the environmental<br />

conditions at the location of the<br />

project, the mechanical properties of the<br />

stones and whether they will enable the material<br />

to withstand the stresses caused by the<br />

load conditions and the fixing systems used,<br />

and the total cost of the cladding.<br />

Stone fixing systems<br />

After completing the theoretical and practical<br />

tests to assess the quality and chemicalphysical-mechanical<br />

properties of the stone<br />

materials selected, and after taking into account<br />

the architectural design of the cladding<br />

and the environmental and loading<br />

conditions, it is necessary to select the most<br />

suitable stone fixing system.<br />

This involves the study of the design and<br />

distribution of the various notches possible,<br />

to accommodate the mechanical fixing elements<br />

in the stone units.<br />

In addition to the mechanical aspects, the<br />

fixing system depends on the cladding construction.<br />

If the cladding system uses trussbacked<br />

panels, a decision must be made as<br />

to whether or not it is better to fix the back<br />

of the stone slabs or their edges to the truss,<br />

depending on whether the truss is prefabricated<br />

on a horizontal or vertical plane.<br />

If the prefabricated panels are to be transported<br />

or handled in a position that is different<br />

from their position on the building,<br />

the fixing system must be able to compensate<br />

<strong>for</strong> such handling, or extra fixing elements<br />

should be used <strong>for</strong> this purpose.<br />

The replacement of stone units, where<br />

necessary, is also a consideration. Last, but<br />

not least in the order of importance, is the<br />

cost of the fixing system.<br />

There are two main types of fixing systems<br />

- isostatic and hyperstatic. In the<br />

isostatic system, the stone units are fixed<br />

at very few points, such that it is sufficient<br />

to guarantee the statics. This is the classical<br />

system with four pins inserted into<br />

four holes positioned on two opposing<br />

sides of rectangular panels. Owing to inaccuracies<br />

in the manufacture and installation<br />

of the material, only three out of the<br />

four pins work at any one time, except<br />

when the stone elements and the main<br />

support structure undergo great de<strong>for</strong>mations.<br />

Under the hyperstatic system, the<br />

stone units are fixed to the main structure<br />

using numerous fixing points on the reverse<br />

side of the units, using continuous<br />

profiles fixed at the edges or by gluing the<br />

units to the back support, as in the application<br />

of very thin stone on to panels in a<br />

honeycomb structure.<br />

The main difference between the two<br />

types of fixing, lies in their static behaviour.<br />

In the isostatic system defined by ‘local fixing’,<br />

the design of the stone units and the<br />

metal fixing elements must take into account<br />

the fact that if a fixing point fails, then the<br />

stone unit may detach itself from the supporting<br />

structure and fail. This may require<br />

the use of thicker panels or even the application<br />

of a rein<strong>for</strong>cement to the reverse side<br />

of the panels, which comes into play if the<br />

panels break. This fixing system makes the<br />

stone units independent of the supporting<br />

structure which is de<strong>for</strong>med by the external<br />

<strong>for</strong>ces (loads, temperature variations and<br />

other differentials). On the other hand, in the<br />

hyperstatic system defined by ‘spread fixing’,<br />

where the stone panels are fixed at numerous<br />

points, it may be possible to prevent<br />

the panels from falling, if they break. This<br />

system permits the use of thinner panels but<br />

they could then become de<strong>for</strong>med in the<br />

same way as the supporting structure.<br />

Safety in the application of stone<br />

materials <strong>for</strong> cladding<br />

The use of stone materials <strong>for</strong> cladding<br />

purposes, from the point of view of safety,<br />

is partly determined by the static and dynamic<br />

loads applied, the consequent internal<br />

stress conditions, the reaction of<br />

stone materials to environmental conditions,<br />

and the mechanical resistance to<br />

stone, and partly determined by the professional<br />

expertise employed during the<br />

design of the fixing systems, the production<br />

processes used on the stone, and the<br />

installation of the materials.<br />

In order to maintain the necessary<br />

safety levels, while still respecting the<br />

project requirements, it is essential to bear<br />

in mind the factors directly concerning the<br />

stone material itself, the fixing system and<br />

the installation. The uncertainty regarding<br />

the loading conditions has practically been<br />

eliminated by the norms which impose<br />

much greater loads than those which occur<br />

in reality and by tests such as those<br />

conducted in the wind tunnel. The uncertainty<br />

regarding the internal stress of stone<br />

materials is minimised by very accurate<br />

structural analysis carried out with the aid<br />

of sophisticated computer programs.<br />

As the results of surveys carried out on<br />

a number of buildings in the US have<br />

shown, the main causes <strong>for</strong> the collapse of<br />

stone elements in curtain wall systems are<br />

not directy linked to the inherent mechanical<br />

properties of the stone. They are due,<br />

rather, to the corrosive agents present in the<br />

environment; the unsuitable design of the<br />

fixing systems (as a result of not fully taking<br />

into account the mechanical properties<br />

of the stone around the fixing points); the<br />

inexactness in the cutting of the stone elements,<br />

so great sometimes, that the resistance<br />

around the fixing points is reduced, as<br />

in the case of oversized holes to accommodate<br />

metal fixing pins with axes that do not<br />

respect the project guidelines; the technological<br />

processes which cause micro-cracks<br />

in the material, thereby weakening it; and<br />

inadequate installation by workers who do<br />

not possess the required skills.<br />

All these factors can be checked by<br />

closely examining the behaviour of the materials<br />

selected, in similar projects and under<br />

similar conditions, and by running a<br />

series of tests on the materials, both be<strong>for</strong>e<br />

the start of production and during production.<br />

These tests are even more important<br />

<strong>for</strong> new materials as it is necessary to verify<br />

their suitability and the limits <strong>for</strong> their application<br />

in curtain wall systems. An even<br />

more effective way of controlling such factors,<br />

is by carrying out quality control procedures,<br />

both at the production and installation<br />

stages, and developing the ‘fail-safe’or<br />

‘safe-life’ design criteria on the basis of the<br />

fixing system chosen.<br />

Fail-safe systems involve a high degree<br />

of hyperstaticity and prevent the total collapse<br />

of the stone elements in the event of<br />

breakage, by keeping them fixed to the support.<br />

Moreover, it is possible to discover and<br />

replace broken stone elements during normal<br />

maintenance operations (cleaning). In<br />

the case of safe-life systems that are mainly<br />

adopted in isostatic systems, the fixing systems<br />

are designed to exclude any breakage<br />

of the systems themselves or of the stone<br />

elements. This makes the cladding as longlasting<br />

as the building itself.<br />

Safety criteria<br />

Safety criteria in the use of curtain wall<br />

systems are of paramount importance if<br />

designers are to be convinced to use stone<br />

in preference to other materials. The absence<br />

of complete in<strong>for</strong>mation regarding<br />

the chemical-physical-mechanical properties<br />

of stone materials (available <strong>for</strong> industrial<br />

products) tends to dissuade many<br />

designers from specifying their use.<br />

Un<strong>for</strong>tunately there are no current<br />

laws to establish minimum safety standards<br />

on the basis of the data available regarding<br />

the behaviour of stone materials.<br />

There are no ‘resistance criteria’ <strong>for</strong><br />

stone materials, in order to calculate the<br />

ideal stress, or the breakage point, and to<br />

compare it to an allowable stress taken<br />

from the results of tests on the materials.<br />

What actually happens is that either<br />

the designer or whoever draws up the<br />

project specifications, or the technical adviser<br />

on the end-use, has to determine not<br />

only the ultimate stress but also the acceptable<br />

one. The result is that the same project<br />

conditions can generate a variety of different<br />

safety factors and analysis criteria,<br />

based on the results of the tests.<br />

One answer to this is the ‘stone safety<br />

criteria’. As far as resistance is concerned,<br />

to calculate the ultimate stress, reference<br />

is made to the Huber-Von Mises criterion,<br />

but in some cases involving shear stress,<br />

this proves to be unfavourable.<br />

For example, marble’s ultimate shear<br />

strength, when cut, can even be double its<br />

tensile stress, and so here, HV Mises’s<br />

theory could be replaced by Rankine’s or<br />

Mohr’s, both of which are more suitable<br />

<strong>for</strong> materials with limited plastic properties.<br />

As regards the definition of the permissible<br />

stress, reference is made to the<br />

normal distribution of probability, and in<br />

accordance with the current rule by which<br />

it is governed, the average value and the<br />

standard deviation are calculated, on the<br />

basis of the results of the tests referring to<br />

the resistance of the stone material. In this<br />

way, the k values are defined, depending<br />

on the stress fractile, the number of results<br />

available and the safety factor laid down<br />

by the project specifications. The safety<br />

factors which differ according to whether<br />

they refer to the overall resistance of the<br />

stone element or just to the resistance<br />

around the fixing points, are given a wide<br />

range of variability. They can however be<br />

given minimum values, close to those<br />

under existing regulations governing<br />

usual building materials, if quality control<br />

procedures are carried out during production<br />

and installation of the materials, and<br />

fixing systems are accurately designed.<br />

Design and execution aspects<br />

Curtain wall systems allow <strong>for</strong> the manufacture<br />

of prefabricated panels at the<br />

workshop. This has several advantages.<br />

It is possible to manufacture lightweight<br />

panels with a metal truss. This facilitates<br />

installation operations and the sizing<br />

of the perimeter structure of buildings,<br />

especially when they are high-rise buildings<br />

located in seismic areas. Production<br />

is more accurate as all the machines in the<br />

workshop can be made use of, in carrying<br />

out delicate operations such as the waterproof<br />

sealing of joints, and there is better<br />

quality control indoors.<br />

Manufacturing times are reduced and<br />

productivity is increased. The prefabricated<br />

panels can be made immediately after work<br />

on the main structure of the building has<br />

begun, and installed soon after, there<strong>for</strong>e<br />

anticipating the internal finishing operations.<br />

The assembly of the panels in the<br />

workshop as opposed to the building yard<br />

increases production, with the additional<br />

benefit that weather conditions do not affect<br />

the process.<br />

Continued on page 7 >>><br />

6 <strong>Roof</strong> & <strong>Facade</strong> Asia • October <strong>2004</strong>


Feature: Natural Stone Applications<br />

<strong>Roof</strong>&<strong>Facade</strong> Asia<br />

>>> Continued from page 6<br />

The above points lead to obvious economic<br />

advantages. There are other economic<br />

advantages to be gained from the fact that<br />

external scaffolding is not necessary, and less<br />

material management is required in the yard<br />

(less storage space, less handling, fewer installation<br />

workers required etc).<br />

Owing to the great progress made in the<br />

field of processing technology over the last<br />

20 years, stone materials can now be successfully<br />

used in prefabricated curtain wall<br />

systems, taking into account several design<br />

and execution aspects, including typology<br />

of panels to be used; de<strong>for</strong>mability of the<br />

support structure of the curtain wall system,<br />

based on the system used to fix the panels<br />

to the structure of the building; the prefabrication<br />

method used <strong>for</strong> the panels; the system<br />

used <strong>for</strong> fixing the stone to the panel<br />

structure; the construction tolerance with<br />

regard to the stone elements; accuracy in<br />

stone installation; and handling and transportation<br />

methods.<br />

The building technique <strong>for</strong> curtain wall<br />

systems allows <strong>for</strong> the production of very<br />

light, metallic support structures, necessary<br />

to satisfy the technical specifications of<br />

projects, which sometimes permit elastic<br />

de<strong>for</strong>mation of these structures over 1 / 250<br />

of the clear span of deflection. The very lightweight<br />

structures are generally flexible and<br />

the way they de<strong>for</strong>m, which also depends<br />

on the type of structure and the relative fixing<br />

system, is fundamental to the use of<br />

stone materials <strong>for</strong> cladding purposes.<br />

There are two basic curtain wall systems.<br />

In one, the panels are positioned vertically,<br />

from level to level, and are fixed directly on<br />

to the slab edges. In the other, the panels are<br />

arranged horizontally, from column to column,<br />

and are fixed vertically to the columns<br />

and horizontally to the columns and the<br />

floor slabs in between. The way in which<br />

the panels de<strong>for</strong>m, once they have been installed,<br />

is different in each case. In the first<br />

system, due to the action of the wind, the<br />

flexural de<strong>for</strong>mation of the mullions predominates,<br />

accompanied by differential vertical<br />

movements of one mullion compared<br />

to the adjacent ones, due to the flexure of<br />

the slabs in the vertical plane. In the second<br />

system, the flexural-torsional de<strong>for</strong>mation<br />

is more significant, due to the assymetrical<br />

distribution of the lateral fixing points.<br />

Consequently, the fixing elements can<br />

produce interaction between the panel structure<br />

and the stone elements whose flexuraltorsional<br />

rigidity, due to their size, is comparable<br />

to, if not greater than, that of the<br />

components of the metallic structure. This<br />

interaction can become so strong that it<br />

causes critical loading conditions at the<br />

stone’s fixing points.<br />

Two possible cases of this interaction are<br />

considered. The first is caused by the de<strong>for</strong>mation<br />

in a vertical direction of the frame<br />

on its plane, due to the fixing point between<br />

the frame and the slab and the flexure of the<br />

slab. The second arises from the flexural-torsional<br />

de<strong>for</strong>mation of the same frame subjected<br />

to the action of the wind.<br />

Significant stress states appear around<br />

the fixing points, whose tension values, analysing<br />

the second case, prove to be much<br />

higher than those obtained <strong>for</strong> the same<br />

stone slabs isostatically fixed to the frame.<br />

In addition, the use of stone <strong>for</strong> lightweight<br />

cladding with prefabricated panels,<br />

must take into account the prefabrication<br />

technique used, since as has already been<br />

explained previously, this determines the<br />

fixing system to adopt. Both methods are<br />

generally conditioned by the architectural<br />

design of the cladding, as sometimes, if this<br />

is particularly complicated, the stone panels<br />

cannot be positioned either horizontally<br />

or vertically, as desired.<br />

In some cases, panels can be installed<br />

only vertically because of the particular design.<br />

In the case considered, the cladding,<br />

composed of flat rectangular elements with<br />

a surface area of approximately 1.2 m and a<br />

30 mm thickness, was fixed, according to the<br />

spread fixing system on the lower and upper<br />

edges by means of metal profiles, to a<br />

sufficiently rigid frame. In this way, the<br />

frame does not show de<strong>for</strong>mation under<br />

loading conditions, to create interaction with<br />

the stone. In the case shown, cladding with<br />

a more elaborate design, was fixed using the<br />

local fixing system. It there<strong>for</strong>e determines<br />

the behaviour of the fixing points <strong>for</strong> the<br />

stone elements, to make it independent of<br />

the de<strong>for</strong>mation of the metallic support<br />

frame.<br />

The metallic frame is itself fairly flexible<br />

under the loading conditions, considering<br />

its great size, not only after the installation<br />

on the building, but also during handling,<br />

transport and lifting operations.<br />

In these building systems, the joints between<br />

the storeys, play an extremely important<br />

role, as they have to be sized to allow<br />

<strong>for</strong> the relative movements between the<br />

stone units, which are due to the elastic de<strong>for</strong>mation<br />

of the load-bearing structure and<br />

the thermal expansion of the individual<br />

units of the entire curtain wall. These joints<br />

must be both water- and air- tight and so<br />

must be sealed with a synthetic sealant<br />

which does not have an adverse effect on<br />

contact with the stone, and which has a low<br />

elasticity modulus so as not to overstrain the<br />

joint.<br />

The use of stone in prefabricated systems<br />

with metal structures requires the production<br />

of stone units to be extremely accurate<br />

given the mechanical nature of the main<br />

support frames, especially when these are<br />

composed of extruded metal pieces.<br />

This applies not only to the overall dimensions<br />

but also to the size and positioning<br />

of the notches which house the fixing<br />

elements. Finally, accurate installation is required<br />

together with effective quality control<br />

procedures. RnF<br />

Enquiry No: 10/104<br />

<strong>Roof</strong> & <strong>Facade</strong> Asia • October <strong>2004</strong> 7


<strong>Roof</strong>&<strong>Facade</strong> Asia<br />

Paints & Coatings<br />

Fluoropolymer<br />

powder coatings<br />

<strong>for</strong> architectural<br />

projects<br />

Heavy duty aluminised roof coating<br />

VULKEM 801 from TREMCO, is<br />

a liquid-applied, one-part, polyurethane<br />

coating system that has been<br />

<strong>for</strong>mulated to have high tensile<br />

strength, tear strength and elongation.<br />

The coating <strong>for</strong>ms a tough, weatherresistant,<br />

waterproof, elastomeric<br />

coating <strong>for</strong> application over old, builtup,<br />

roofing systems.<br />

VULKEM 801 is suitable <strong>for</strong><br />

application on built-up roofing<br />

systems that have had loose ballast<br />

completely removed and major defects<br />

repaired and levelled by conventional<br />

methods.<br />

VULKEM 801 has good resistance<br />

to ponded water and to most acids,<br />

alkalis, salts, fats and solvents. RnF<br />

Enquiry No: 10/106<br />

FLUOROSET FP was applied as a protective coating on the Tauranga Yacht Club, New Zealand, in<br />

1991 and has proven to per<strong>for</strong>m under the aggressive marine environment in the coastal area.<br />

FLUOROSET FP is a thermosetting<br />

fluoropolymer (PVF3) powder coating<br />

designed specifically <strong>for</strong> prestigious and<br />

monumental architectural projects where<br />

long-term colour stability, remarkable gloss<br />

retention, high mar resistance, low grime<br />

pick-up, quality of coating finish and<br />

extension of life to first maintenance are top<br />

priorities. The easy-to-apply single-coat<br />

powder coating imparts good resistance to<br />

chemicals and solvents as well as mechanical<br />

properties and abrasion resistance.<br />

Manufactured by Orica Powder<br />

Coatings, a division of Orica Coatings,<br />

FLUOROSET FP has been developed as a<br />

high quality surface finish that offers longterm<br />

protection <strong>for</strong> steelworks and<br />

architectural aluminium works, which<br />

include window and door frames, panel<br />

cladding, extrusions, louvres, mullions,<br />

grilles, sunscreens, canopies and various<br />

other aluminium fittings, <strong>for</strong> commercial,<br />

residential, institutional and industrial<br />

buildings.<br />

It has been proven that FLUOROSET FP<br />

which was released in 1991, can retain its<br />

gloss and colour <strong>for</strong> many years in the severe<br />

tropical climates of Asia and under extreme<br />

UV exposure and coastal conditions as in<br />

Australia and New Zealand. FLUOROSET<br />

FP is <strong>for</strong>mulated using advanced<br />

fluoropolymer resin technology, and utilises<br />

high per<strong>for</strong>mance exterior durable<br />

pigments. This tough resilient and low<br />

maintenance coating is available in a range<br />

of aesthetic, made-to-order colours<br />

including metallic and pearlescent colours,<br />

from satin to semi-gloss finishes.<br />

FLUOROSET FP is factory-applied over<br />

a suitably pretreated aluminium substrate<br />

such as extrusions and panels. It can also be<br />

used on specially pre-primed steelworks.<br />

FLUOROSET FP uses no solvents in the<br />

manufacturing or coating process, thus<br />

contributing to environment-friendliness,<br />

and it does not pose a fire hazard.<br />

The thermosetting FLUOROSET FP<br />

powder coating is fully cross-linked during<br />

the curing process, thus resulting in a robust<br />

and hard-wearing surface coating that is<br />

suitable <strong>for</strong> use in high traffic zones such as<br />

building entrances and shopfront areas<br />

where PVF2/PVDF coating systems are<br />

often not used because of concerns of high<br />

mechanical damage. FLUOROSET FP gives<br />

an ultra thin and smooth film appearance.<br />

It is thus suitable <strong>for</strong> panelworks and sheets<br />

that have been traditionally coated using<br />

PVF2/PVDF paint.<br />

FLUOROSET FP con<strong>for</strong>ms/exceeds the<br />

requirements of the international recognised<br />

standard AAMA2605-98 (the newly<br />

upgraded specification of AAMA 605.2<br />

released <strong>for</strong> Superior Per<strong>for</strong>ming Organic<br />

Coatings) and the regional standards of AS<br />

3715 and BS 6496. Orica offers the extended<br />

15 years/20 years film integrity and colour<br />

stability warranty <strong>for</strong> FLUOROSET FP on<br />

aluminium works so long as it is applied<br />

only by Orica Registered Applicators.<br />

Orica Coatings is an integral part of Orica<br />

Australia Pty Ltd which was established in<br />

February 1998, to take over the operations<br />

of ICI Australia, a world leader in paint<br />

technology and architectural surface<br />

coatings <strong>for</strong> 80 years. RnF<br />

Enquiry No: 10/105<br />

The external facade of The Belle Forte, a 20-storey condominium in Singapore, was<br />

finished with AcraTex Texture Coating System from Orica. The system comprising one<br />

coat of 501/2 AcraPrime Sealer, one coat of 957 Granitti Sorrento – SO 004, and two<br />

coats of 956/2 AcraGlaze Silicone Clear, provides a high quality, aesthetically pleasing<br />

and durable textured stone finish.<br />

AcraTex High Per<strong>for</strong>mance<br />

Texture Systems<br />

THE protective qualities and aesthetic appeal of AcraTex High Per<strong>for</strong>mance<br />

Texture Systems from Orica Texture Coatings, have contributed to their<br />

popularity in the Australian, New Zealand and, more recently, the Asian<br />

texture coatings markets.<br />

AcraTex High Per<strong>for</strong>mance Texture Systems are easy to apply, retain<br />

their colour, and guard against dirt pick-up, carbonation, as well as mould<br />

and algae growth.<br />

They come in a large selection of fashionable colours and profiles.<br />

Individual products are <strong>for</strong>mulated <strong>for</strong> specific per<strong>for</strong>mance characteristics<br />

including resistance to water ingress, acid rain, environmental pollution,<br />

scuffs and stains, as well as heavy wear and tear. RnF<br />

Enquiry No: 10/107<br />

8 <strong>Roof</strong> & <strong>Facade</strong> Asia • October <strong>2004</strong>


Paints & Coatings<br />

<strong>Roof</strong>&<strong>Facade</strong> Asia<br />

Aesthetic and<br />

durable coatings<br />

from DNT<br />

Singapore<br />

The aesthetic value of residential buildings is enhanced with<br />

DNT coatings. Rivervale Crest, Singapore: This condominium is<br />

finished with Carboseal S and two coats of Carboshine #100.<br />

SINCE its incorporation in 1972, DNT Singapore has established itself as a leading<br />

paint manufacturer. The company has since extended itself as a regional base in<br />

Southeast Asia, covering China including Hong Kong SAR, Indonesia, Myanmar,<br />

Philippines, Thailand and Vietnam.<br />

Owned 100% by Dai Nippon Toryo Co. Ltd., the third largest paint<br />

manufacturer in Japan, DNT Singapore has a dedicated team of professionals and<br />

advanced manufacturing facilities <strong>for</strong> quality products that con<strong>for</strong>m to<br />

international standards.<br />

DNT offers coating <strong>for</strong>mulations in ready-mixed or custom matched colours<br />

with proven durability and pleasing aesthetics. The products are generally<br />

classified into four groups – Architectural Coatings, Protective Coatings, Decorative<br />

Coatings, and Industrial Coatings.<br />

The Architectural and Decorative coatings are best suited <strong>for</strong> renovation, or<br />

new construction work, relating to commercial buildings including hotels, as well<br />

as residential developments. As the external surfaces of these buildings are<br />

constantly subjected to wear and tear on account of their exposure to the natural<br />

elements, DNT’s products are made to last, whilst enhancing the aesthetic value.<br />

One of DNT’s durable products, Dyufnar#100 Baking Fluorocarbon is<br />

recommended <strong>for</strong> aluminium works like curtain wall systems including panels,<br />

extrusions, louvres, mullions, grilles, sunscreens, canopies, windows and doors.<br />

It is based on a structurally tough HYLAR 5000 / KYNAR 500 polyvinylidene<br />

fluoride (PVDF) resin which offers long-term protection. RnF<br />

Enquiry No: 10/108<br />

Carboseal S, Carboshine #200, and Carboshine #100 have been applied on the exterior of Casa<br />

Mey<strong>for</strong>t, Singapore.<br />

<strong>Roof</strong> & <strong>Facade</strong> Asia • October <strong>2004</strong> 9


<strong>Roof</strong>&<strong>Facade</strong> Asia<br />

Paints & Coatings<br />

Intumescent coating combining<br />

fire-protection with decoration<br />

FM-900 was developed to solve the problems relating to fire<br />

protection, whilst maintaining architectural freedom.<br />

Applicator of fluorocarbon coatings<br />

The fluorocarbon finish <strong>for</strong> the aluminium facade of Kandang Kerbau Hospital in Singapore was applied by JASMET.<br />

JAS Metal Coatings Pte Ltd (JASMET) was<br />

established in 1984 to provide high-quality metal<br />

finishing services to the aluminium industries in<br />

Singapore, Southeast Asia and the Pacific Rim.<br />

In recognition of JASMET’s advanced facility,<br />

technical knowledge and its ability to consistently<br />

provide quality coatings that comply with<br />

international standards (ASTM, AAMA, ASCA, JIS<br />

and BSS), the company has been awarded Approved<br />

Applicator Licences by practically all major<br />

producers of fluorocarbon coatings including PPG<br />

Industries Inc (USA), DeSoto Inc (USA), Taubmans<br />

(Australia), Dulux (Australia), DNT (Japan) and<br />

Nippon Paint (Japan).<br />

Further, JASMET is said to be the only coating<br />

company outside the US, to be admitted as a full<br />

member of the Architectural Spray Coaters<br />

Association of America (ASCA).<br />

In 1989, the company moved into its present<br />

factory which is equipped with two parallel,<br />

independent, multi-stage paint lines, with a<br />

coating capacity of 1,200 sq m <strong>for</strong> every eight-hour<br />

shift.<br />

JASMET’s painting services have been utilised<br />

by clients in Australia, Brunei, China including<br />

Hong Kong SAR, Guam, Indonesia, Japan,<br />

Malaysia, Philippines, Spain, Sri Lanka, Taiwan,<br />

Thailand and the UK. RnF<br />

Enquiry No: 10/110<br />

FIRE safety is of fundamental importance in the<br />

design, management and operation of buildings,<br />

industrial plants and transportation systems.<br />

Regulations there<strong>for</strong>e require certain elements of the<br />

structure to be fire-resistant.<br />

With the increasing complexity of modern design<br />

and the need <strong>for</strong> greater space utilisation, designers<br />

and architects often have to make difficult<br />

compromises between design aspirations and<br />

regulatory constraints.<br />

FIRECUT FM-900 intumescent, mastic coating<br />

was developed to solve the problems relating to fire<br />

protection, whilst maintaining architectural<br />

freedom.<br />

As part of a complete intumescent system, FM-<br />

900 provides up to 2 hours of fire-resistance to<br />

structural steel with a smooth surface.<br />

When the temperature rises to 200º C, FM-900<br />

will begin to react and gradually <strong>for</strong>ms a cake-like<br />

char layer that is 100 times the initial volume. The<br />

char layer insulates against the conduction of heat,<br />

thereby protecting the steel structure.<br />

The features of FM-900 include good fireresistance,<br />

suitability <strong>for</strong> spray-on applications, ease<br />

of application, a smooth and pleasant appearance,<br />

avoidance of asbestos in its <strong>for</strong>mulation, and<br />

con<strong>for</strong>mance to international standards.<br />

With just 0.34 mm dry film thickness, FM-900 can<br />

meet the requirements of the 1 hour fire resistance<br />

rating, on a 3-sided beam.<br />

The wet film can reach 1000 microns without<br />

sagging. It is touch-dry in half an hour and harddry<br />

in 4 hours.<br />

The coating is fully cured in 7 days. The interval<br />

between coats is 4 hours by spray and 1 hour by<br />

spray and brush.<br />

After the complete application of the FM-900<br />

coating system, the surface becomes smooth and<br />

even. Further, various colours can be incorporated<br />

in the topcoat, thus combining fire-protection with<br />

aesthetics.<br />

FM-900 has been tested at Warrington Fire<br />

Research Centre (WFRC) and Loss Prevention<br />

Centre (LPC), in the UK, and has been certified to<br />

BS476 Part 21 ‘Loaded beam and Loaded column at<br />

2 hour fire-resistance rating’. The product has also<br />

been tested and certified in Singapore by PSB.<br />

As an applicator of the FIRECUT FM-900<br />

intumescent coating, Singapore-based Industrial<br />

Contracts Marketing (2001) provides a comprehensive<br />

‘supply-apply’ system starting from initial<br />

survey and inspection, to application and after-sales<br />

service including maintenance. RnF<br />

Enquiry No: 10/109<br />

10 <strong>Roof</strong> & <strong>Facade</strong> Asia • October <strong>2004</strong>


Waterproofing<br />

<strong>Roof</strong>&<strong>Facade</strong> Asia<br />

Aesthetic and protective<br />

waterproofing membranes<br />

THE internationally active Sarna Group which is headquartered in Sarnen,<br />

Switzerland, focuses on two core activities.<br />

The Sarnafil Division develops and manufactures high quality polymer<br />

products <strong>for</strong> a wide range of demanding applications in the building and<br />

construction industry, including roofing, waterproofing and civil engineering.<br />

The Sarnamotive Division serves the automotive industry. Sarnafil International<br />

Limited has its regional headquarters <strong>for</strong> Asia in Singapore.<br />

Since 1964, Sarnafil has manufactured more than 325,000,000 sq m of<br />

thermoplastic roofing and waterproofing membrane in Switzerland, China, and<br />

the US. Sarnafil roofing and waterproofing systems protect a wide range of<br />

buildings and structures, including schools and universities, libraries,<br />

museums, hospitals, office towers, sports stadiums, green roofs and<br />

international airports.<br />

The company guarantees the good service life and per<strong>for</strong>mance of the<br />

waterproofing systems employed. The latest polymer blends <strong>for</strong>m the basis <strong>for</strong><br />

Sarnafil’s numerous developments. The majority of the company’s products<br />

are recyclable. Eco-friendly production is also an integral part of Sarnafil’s<br />

environmental management policy.<br />

The company offers customers, besides the membranes, accessory products<br />

and a comprehensive range of expert consultancy and other services, as well.<br />

Sarnafil membranes are loosely laid and ballasted when used on utility decks<br />

such as roof gardens and roof terraces. They can also be adhered to flat or<br />

pitched roofs of practically any shape or configuration, and are designed to<br />

fulfil high aesthetic requirements, in both new constructions and re-roofing<br />

work.<br />

In modern, light-weight roof designs, usually employing widespan,<br />

trapezoid sections, Sarnafil offers the Sarnabar linear attached system and the<br />

Sarnafast lap fastening system. These are mechanically fastened, exposed roof<br />

designs. RnF<br />

The roof of Suzhou Stadium, Suzhou, China, is covered with Sarnafil’s Traffic <strong>Roof</strong> System.<br />

Enquiry No: 10/111<br />

The modern, light-weight roof of the Tempodrom in Berlin, Germany, uses Sarnafil’s high-quality<br />

waterproofing membranes.<br />

TREMCO offers waterproofing products<br />

TREMPROOF 60 fluid-applied water-proofing membrane is a single-component,<br />

bitumen modified, moisture-curing polyurethane. It is suitable <strong>for</strong> water-proofing<br />

different areas in buildings, including roof terraces.<br />

TREMPROOF 3000 is a torch-applied, waterproofing membrane <strong>for</strong> roofs and<br />

other parts of buildings. It is a heavy-duty, 180 g /sq m high-strength, non-woven<br />

polyester mat impregnated and coated with a tough APP modified bitumen<br />

compound. According to the manufacturers, TREMPROOF 3000 possesses several<br />

advantages that make it particularly suitable <strong>for</strong> the climatic conditions in Southeast<br />

Asia. It has a temperature resistance up to 140° C. There is less risk of on-site damage<br />

because of the high strength of the membrane. TREMPROOF 3000 has resistance to<br />

hydrostatic pressure up to 40 m of water. Furthermore, it is easy to apply in tight<br />

areas such as corners and penetrations. RnF<br />

Enquiry No: 10/112<br />

<strong>Roof</strong> & <strong>Facade</strong> Asia • October <strong>2004</strong> 11


<strong>Roof</strong>&<strong>Facade</strong> Asia<br />

Waterproofing<br />

Waterproofing at Esplanade<br />

AROUND 30,000 sq m of the flat roof area at<br />

Esplanade – Theatres on the Bay, was covered with<br />

EVALON, the thermoplastic roof waterproofing<br />

membrane manufactured by alwitra GmbH & Co,<br />

Trier, Germany and supplied by Elmich (Far East)<br />

Pte Ltd.<br />

The EVALON membrane is vapour permeable<br />

which makes it ideal <strong>for</strong> the highly humid climate<br />

in Singapore. The product has a British Board of<br />

Agrément (BBA) durability rating of more than 25<br />

years.<br />

EVALON single-ply waterproofing is suitable on<br />

all types of flat roof configurations. The high<br />

molecular weight polymer alloy, consisting of<br />

ethylene vinyl acetate (EVA) terpolymer and<br />

polyvinyl chloride (PVC), provides EVALON with<br />

special features. A homogeneous elastic membrane,<br />

EVALON incorporates a high content of high<br />

molecular weight solids that remain permanently<br />

stable. This ensures consistent quality, durability,<br />

and optimal balance between tensile strength and<br />

elongation, and also guarantees resistance to both<br />

high heat and mechanical impact. The bright and<br />

smooth surface repels dirt, reflects radiant heat, and<br />

resists high levels of ultraviolet radiation and<br />

environmental chemicals. It does not require<br />

protective surface coatings. EVALON meets the<br />

requirements <strong>for</strong> resistance to flying sparks and<br />

radiant heat as stipulated in DIN 4102 part 4/7.<br />

EVALON membranes are compatible with<br />

bitumen and can be installed without any separation<br />

layer directly on to standard roof insulation<br />

materials including rigid polystyrene foam boards.<br />

Available without backing, with polyester or glass<br />

fleece backing, or with a self-adhesive backing layer,<br />

EVALON sheet membranes are easily and<br />

homogeneously welded together utilising hot air or<br />

solvent-based installation methods. RnF<br />

Enquiry No: 10/113<br />

Esplanade – Theatres on the Bay, Singapore: Around 30,000 sq m of the flat roof area was covered with EVALON membrane.<br />

Specialised services in waterproofing<br />

Uniseal provided specialised waterproofing solutions <strong>for</strong> the National University Hospital (NUH) in Singapore.<br />

SINCE 1998, Uniseal has been providing<br />

specialised waterproofing solutions <strong>for</strong> roofs,<br />

facades and other areas, in new building projects,<br />

as well as in restoration and refurbishment<br />

works. To date, the company has undertaken<br />

more than 2,000 projects in Singapore, which<br />

include commercial, residential, industrial and<br />

institutional buildings. Uniseal has also<br />

expanded overseas, by setting up offices in India,<br />

Malaysia and the Philippines.<br />

The portfolio of work undertaken by the<br />

company includes the waterproofing of new and<br />

old roofs, covered with clay tiles, metal or<br />

concrete, and the weatherproof painting of<br />

external walls.<br />

Uniseal’s team of workers has been trained<br />

and certified by Singapore’s Construction<br />

Industry Training Institute (CITI). Uniseal<br />

obtained the ISO 9001:2000 certification in Year<br />

2002 and is the first waterproofing company<br />

to attain the Singapore Quality Class (SQC)<br />

Award in Year 2003. The company is also<br />

accredited under the Building and<br />

Construction Authority’s (BCA’s) L4 category<br />

<strong>for</strong> waterproofing installation and Singapore<br />

Concrete Institute’s (SCI’s) W1 category <strong>for</strong><br />

waterproofing. Being members of the National<br />

<strong>Roof</strong>ing Contractors Association (NRCA)<br />

of the US and Singapore Waterproofing<br />

Trades Association, Uniseal is able to<br />

constantly update itself on the latest<br />

developments, as part of ongoing ef<strong>for</strong>ts to<br />

obtain breakthroughs in waterproofing<br />

technology and solutions.<br />

Besides carrying its own range of products,<br />

Uniseal is also well-supported by various other<br />

major suppliers in the industry. RnF<br />

Enquiry No: 10/114<br />

12 <strong>Roof</strong> & <strong>Facade</strong> Asia • October <strong>2004</strong>


Curtain Wall<br />

<strong>Roof</strong>&<strong>Facade</strong> Asia<br />

A full range<br />

of facade<br />

sealants and<br />

adhesives<br />

by Sika<br />

Prominent in cladding<br />

and curtain wall work<br />

ESTABLISHED in 1978, Seiko Architectural Wall Systems Pte Ltd is a specialist in<br />

the areas of aluminium and steel cladding and curtain walling; glazing; granite<br />

cladding; sunscreens and security screens; skylights and louvres; and windows and<br />

doors. Important projects completed by the company in Singapore, include DBS<br />

Towers 1 and 2, Republic Plaza, KK Hospital and SIA Building. RnF<br />

Enquiry No: 10/116<br />

The SIA Building at Robinson Road, Singapore.<br />

<br />

IN January <strong>2004</strong>, Sika acquired the<br />

engineering sealant business from<br />

Wacker whose products ideally<br />

complement Sika’s product range <strong>for</strong><br />

facades.<br />

Well-known <strong>for</strong> its polyurethane<br />

technology, Sika now combines<br />

Wacker’s strength and leadership in<br />

silicone technology, as well. As a<br />

result, Sika hopes to serve the curtain<br />

wall industry as a one-stop sealing<br />

and bonding specialist <strong>for</strong><br />

applications on glass, metal and<br />

natural stone facades.<br />

Apart from silicone weatherseals,<br />

structural glazing sealants and<br />

insulating glass sealants, adhesives,<br />

polyurethanes and PU hybrids can<br />

also be offered now, to consultants<br />

and applicators, giving them a wider<br />

choice.<br />

It has become possible, there<strong>for</strong>e,<br />

to purchase the full range of facade<br />

adhesives and sealants from a single<br />

supplier. RnF<br />

Enquiry No: 10/115<br />

SG 500 Structural Sealant, SG 20 Structural<br />

Sealant, and EL 300/305 Weatherseal were<br />

applied on the curtain walls of the NTUC<br />

Centre, Singapore.<br />

<strong>Roof</strong> & <strong>Facade</strong> Asia • October <strong>2004</strong> 13


<strong>Roof</strong>&<strong>Facade</strong> Asia<br />

Curtain Wall<br />

Curtain wall specialist <strong>for</strong><br />

Odeon Towers<br />

THE Focchi Group of Italy is a reputed name in the<br />

curtain wall sector, with the ability to provide<br />

technical solutions and exclusive profiles and<br />

systems, con<strong>for</strong>ming to architects’specifications, in<br />

the design and construction of financial centres,<br />

hotels, airports, commercial buildings, malls and<br />

condominiums.<br />

The group has been involved in many prestigious<br />

projects, working with world-renowned architects such<br />

as Kenzo Tange, Norman Foster and Renzo Piano.<br />

Focchi Singapore Pte Ltd specialises in the design,<br />

manufacture, supply and installation of curtain walls,<br />

cladding, windows, doors, stone facades and<br />

associated architectural products, <strong>for</strong> the local and<br />

regional markets.<br />

In Singapore, the company completed the Additions<br />

and Alterations (A & A) work at Odeon Towers and<br />

the HSBC @ Collyer Quay project. Focchi Singapore<br />

designed the curtain walls and windows <strong>for</strong> Ardmore<br />

Park Condominium; manufactured the curtain walls<br />

and windows <strong>for</strong> China Square Centre Parcel ‘F’ and<br />

Haig Court Condominium; and designed,<br />

manufactured and installed curtain walls and windows<br />

<strong>for</strong> the Moulmein Rise Condominium. Currently,<br />

Focchi Singapore is involved in the Hillview Regency<br />

Condominium project. Overseas, the company<br />

participated in the construction of Brunei Mall in<br />

Brunei.<br />

For the A & A Work at Odeon Towers, the signage<br />

area uses Focchi’s spider-clamp glass system. The new<br />

podium uses the company’s proprietary Lingotto<br />

curtain wall system which has also been used in the<br />

Lingotto Exhibition Centre in Turin, Italy (designed by<br />

Renzo Piano), the Orange Telecom Centre in<br />

Darlington, UK, as well as the Mercedes Benz Centre<br />

in Rome, Italy.<br />

The Lingotto system’s main characteristic is its<br />

ability to achieve a clear height of 12 m without<br />

intermediate support, by using the bigger version of<br />

custom-made aluminium structural mullions. For<br />

Odeon Towers, the smaller Lingotto version has been<br />

used. Special aluminium castings provide the<br />

connection between the glazing and the support<br />

system. The glass is completely transparent, in order<br />

to allow the clearest view of the load-bearing structural<br />

details and the interior decor of the building. RnF<br />

Enquiry No: 10/117<br />

The new podium of Odeon Towers, Singapore (above right) uses<br />

Focchi’s Lingotto system. Focchi Singapore participated in the Brunei<br />

Mall project in Brunei (below). Another recent A & A project <strong>for</strong><br />

Focchi was HSBC @ Collyer Quay, Singapore (below right).<br />

14 <strong>Roof</strong> & <strong>Facade</strong> Asia • October <strong>2004</strong>


Curtain Wall<br />

<strong>Roof</strong>&<strong>Facade</strong> Asia<br />

Non-stain / Non-bleed silicone sealant<br />

SILPRUF NB SCS 9000 Silicone Sealant, from GE<br />

Silicones, is a one-part, neutral cure, medium modulus,<br />

100% silicone polymer sealant, used <strong>for</strong> butt, expansion<br />

and lap shear joints in weatherproofing, glazing and<br />

curtain wall applications.<br />

Available in eight standard colours and in<br />

customised colours, SILPRUF NB SCS 9000 Silicone<br />

Sealant has a + or –50% joint movement capability.<br />

It has been specially <strong>for</strong>mulated to reduce or<br />

eliminate dirt pick-up and substrate staining from<br />

plasticiser bleed (fluid migration).<br />

The reduced dirt pickup characteristic allows<br />

SILPRUF NB SCS 9000 Silicone Sealant to be used as a<br />

substitute <strong>for</strong> organic sealants, with traditional silicone<br />

weatherability and long-life per<strong>for</strong>mance.<br />

It has good adhesion to a wide variety of materials,<br />

including glass, metal and plastics; marble, granite and<br />

other stones; concrete; and masonry.<br />

SILPRUF NB SCS 9000 Silicone Sealant may be<br />

factory- or field- applied. RnF<br />

Enquiry No: 10/118<br />

SILPRUF sealants are <strong>for</strong>mulated to provide good weathersealing<br />

protection to buildings.<br />

<br />

SILPRUF sealants have good adhesion to a wide<br />

variety of materials.<br />

Marble-like<br />

crystallised glass<br />

NEOPARIÉS crystallised glass was<br />

developed by Nippon Electric Glass Co<br />

Ltd after years of research. The<br />

manufacturing process involves a<br />

specialised glass crystallisation<br />

technique <strong>for</strong> producing needle-shaped<br />

crystals called wollastonite (CaO.SiO 2<br />

)<br />

which gives the glass a soft colour and a<br />

marble-like texture.<br />

Since its introduction into the market<br />

in 1974, Neopariés has received<br />

enthusiastic acceptance from architects,<br />

as a material <strong>for</strong> the exterior and interior<br />

walls of modern buildings.<br />

Neopariés is said to combine the<br />

lustre of marble, with greater hardness,<br />

lower weight, higher resistance to<br />

weathering, zero water absorption, and<br />

ease of <strong>for</strong>mation into curved panels. RnF<br />

Enquiry No: 10/119<br />

Neopariés crystallised glass has a marble-like<br />

texture.<br />

<strong>Roof</strong> & <strong>Facade</strong> Asia • October <strong>2004</strong> 15


<strong>Roof</strong>&<strong>Facade</strong> Asia<br />

News & Events<br />

URA implements plans to link<br />

the Southern Ridges<br />

A VIEW FROM PAVILION AT MOUNT FABER<br />

LOOKING SOUTH<br />

The selected scheme <strong>for</strong> Henderson Crossing, The Surface Bridge.<br />

A VIEW FROM HENDERSON ROAD TOWARDS<br />

TELOK BLANGAH HILL PARK<br />

A VIEW FROM MOUTH FABER LOOKING NORTH<br />

THE Urban Redevelopment Authority (URA) of Singapore<br />

is all set to implement plans to link up the Southern Ridges<br />

and enhance it as an attractive recreational place <strong>for</strong> both<br />

Singaporeans and tourists.<br />

It recently announced the designs selected <strong>for</strong> the two<br />

bridges, one at Henderson Crossing and the other at<br />

Alexandra Link. URA will also begin planning the construction<br />

of a foot-trail which will take pedestrians from the<br />

Harbour Front MRT station right up to the cable car station<br />

at Mount Faber. From there, the visitor can use the soon-tobe-constructed<br />

bridges to explore the hill parks or take a<br />

ride to Sentosa via cable car.<br />

By 2007, when the bridges and foot trail are completed,<br />

visitors will be able to explore the entire stretch of green<br />

from Mount Faber Park to Alexandra Park. The bridges will<br />

link the Southern Ridges to the islandwide network of connected<br />

parks, allowing more people to enjoy Singapore’s<br />

natural areas easily.<br />

The two schemes were selected by a six-member selection<br />

panel, comprising representatives from URA, National<br />

Parks Board and Building and Construction Authority.<br />

The Surface Bridge at Henderson Crossing, was the<br />

submission of RSP Architects Planners & Engineers (Pte)<br />

Ltd in collaboration with IJP Corporation Ltd (UK).<br />

The Mile-a-Minute Bridge and Walkway was the concept<br />

put <strong>for</strong>ward by LOOK Architects and ECAS-EJ Consultants<br />

Pte Ltd.<br />

The selected teams will be appointed as Project Consultants<br />

<strong>for</strong> the respective bridges.<br />

The Surface Bridge will be about 274 m long, 8 m wide<br />

and 36 m high above the road carriageway. It will offer an<br />

interesting sculptural <strong>for</strong>m which would be appreciated<br />

when walking on the bridge deck or when viewed from the<br />

parks and the road. The bridge will be made up of five undulating<br />

curved ribs <strong>for</strong>ming alcoves that alternately rise<br />

over and under the bridge deck. The curved ribs <strong>for</strong>ming<br />

alcoves will function as shelters with seats within. The<br />

bridge will not be enclosed and the views of the surroundings<br />

change as one moves along the curved bridge.<br />

The Mile-a-Minute Bridge will be about 90 m long, 4 m<br />

wide and 5.4 m high above the Alexandra Road carriageway.<br />

The meandering walkway from the bridge to Telok<br />

Blangah Hill Park will be about 2.3 km long and 2 m wide.<br />

The scheme used the metaphor of the “tile-a-minute” plant<br />

to conceptualise the design of the bridge and walkway. The<br />

bridge will relate to the topography and vegetation of the<br />

site. It will be designed to cater <strong>for</strong> mass events, with an<br />

elevated walkway <strong>for</strong> pedestrians and a ground trail <strong>for</strong><br />

cyclists. RnF<br />

The selected scheme <strong>for</strong> Alexandra Link, The Mile-a-Minute Bridge: A rendering of the bridge across Alexandra Road (left) and the<br />

walkway to Telok Blangah Hill Park (right).<br />

Product Trademarks<br />

WITHIN its editorial sections, this publication<br />

will generally capitalise all words known to be<br />

trademarks that have been registered or that have<br />

yet to be registered. The publisher wishes to state<br />

that the use of the trademarked names within its<br />

editorial sections, is only <strong>for</strong> editorial purposes,<br />

and there<strong>for</strong>e there is no intent whatsoever to<br />

infringe on any trademark.<br />

Within its advertising and advertorial sections,<br />

this publication will use the material submitted<br />

by the advertisers without any alterations.<br />

Product First editorial Owner of trademark/<br />

mention registered trademark<br />

Makrolon ® Page 4 Bayer MaterialScience<br />

Fluoroset ® Page 8 Orica<br />

Vulkem ® Page 8 Tremco Incorporated<br />

AcraTex ® Page 8 Orica<br />

Hylar 5000 ® Page 9 Solvay Solexis<br />

Kynar 500 ® Page 9 Arkema<br />

Tremproof ® Page 11 Tremco Incorporated<br />

EVALON ® Page 12 alwitra GmbH & Co.<br />

SilPruf ® Page 15 General Electric Company<br />

Saflex ® Page 19 Solutia<br />

The location plan <strong>for</strong> Henderson Crossing and Alexandra Link.<br />

Vanceva TM Page 19 Solutia<br />

16 <strong>Roof</strong> & <strong>Facade</strong> Asia • October <strong>2004</strong>


News & Events<br />

<strong>Roof</strong>&<strong>Facade</strong> Asia<br />

Laminated glass interlayers <strong>for</strong><br />

demanding applications<br />

ROOF & FACADE ASIA met<br />

with Dr Luc De Temmerman, Senior<br />

Vice President and Chief Operating<br />

Officer, Solutia Inc, manufacturers of<br />

laminated glass interlayers, during<br />

a recent trip he made to Singapore,<br />

and asked him about the company’s<br />

business prospects, product<br />

offerings and projects.<br />

R&F Asia: Briefly, what is the Dr Luc De Temmerman.<br />

strategy that Solutia has adopted<br />

<strong>for</strong> the medium-term, regarding business and product<br />

application, on a worldwide basis?<br />

Dr Luc De Temmerman: Solutia’s Laminated Glazing<br />

Interlayers business is focused globally on maintaining<br />

its role as the most reliable partner and the most<br />

innovative product and process provider in the<br />

marketplace. In short, this means both laminators and<br />

glass companies, as well as architects and designers, have<br />

complete confidence that Solutia’s interlayers are the best<br />

available in the world. In addition, they can rely on<br />

Solutia to provide the next generation of products with<br />

the benefits and enhancements they seek, to solve<br />

problems or raise the bar in design and execution.<br />

Globally, we started with safety and security products.<br />

We have in the recent past, added products with improved<br />

aesthetics including colour, acoustics, and solar and<br />

hurricane protection benefits to our range. The solar control<br />

products have been developed, particularly <strong>for</strong> customers<br />

in Asia. And more innovations are on the way.<br />

R&F Asia: From the point of view of the demand <strong>for</strong><br />

Solutia’s products, which are the important markets in<br />

Asia?<br />

Dr Luc De Temmerman: As regards the Asia Pacific region, our<br />

focus is on increasing the penetration of PVB in emerging<br />

markets like India, ASEAN, and China, and we offer products<br />

with additional benefits <strong>for</strong> the developed markets like Japan<br />

and Australia.<br />

The Asia Pacific markets remain very important to Solutia’s<br />

overall business strategy. It is our fastest growing region. We<br />

predict laminated glass demand in Asia Pacific will be growing<br />

6.5% to 7.5% annually over the next 4 to 5 years. Most of the<br />

growth will be in China. With respect to our growth, the Asia<br />

Pacific region has been growing close to 15% per year.<br />

R&F Asia: In this region, what specific products find<br />

application, and <strong>for</strong> what types of buildings?<br />

Dr Luc De Temmerman: Globally speaking, our<br />

architectural products are used in many different types<br />

of applications.<br />

Safety and Security are the drivers <strong>for</strong> both emerging<br />

markets such as China and India and <strong>for</strong> developed<br />

markets such as Australia and Japan, and this is mostly<br />

code driven.<br />

In the past, we had seen very high growth rates in<br />

China <strong>for</strong> use in bullet proof glass <strong>for</strong> banks. Aesthetics<br />

is an additional need and we are seeing steady growth in<br />

demand <strong>for</strong> the colour interlayers of our Vanceva range.<br />

Our high-per<strong>for</strong>mance Hurricane interlayers have<br />

been in great demand in the US, due to code requirements<br />

which will hopefully be implemented in other parts of<br />

the world, including the Asia Pacific region.<br />

We have seen increasing emphasis <strong>for</strong> Energy<br />

Conservation/ Green technology in the developed<br />

markets with solar being a driver and <strong>for</strong> which we have<br />

developed our Vanceva advanced solar control range of<br />

PVB products.<br />

Further, with the industry focus on protecting people<br />

and property, we have seen strong interest in our Saflex<br />

and Vanceva interlayers <strong>for</strong> security applications.<br />

Most of our Saflex and Vanceva interlayers go into<br />

facades in the commercial segment of the market – in<br />

high-rise office buildings, shopping centres, restaurants,<br />

showrooms, and in entertainment complexes, museums,<br />

airports etc.<br />

R&F Asia: Please explain how the company’s<br />

‘debottlenecking’ ef<strong>for</strong>ts help to meet the needs of customers<br />

in Asia.<br />

Dr Luc De Temmerman: As a result of a seamless,<br />

collaborative ef<strong>for</strong>t between Solutia’s technology and<br />

manufacturing teams, the Laminated Glazing Interlayers<br />

business is now benefiting from its ongoing<br />

debottlenecking ef<strong>for</strong>t at plant sites worldwide. More<br />

importantly, the results are helping Solutia to provide<br />

better service to its customers.<br />

For Asia, this means our laminator partners benefit<br />

from increased overall supply, supply confidence, and<br />

greater product and process innovation as they grow and<br />

expand their product offerings in the region.<br />

One example of our ef<strong>for</strong>ts in Asia is the increased<br />

emphasis we have put on our Singapore Finishing Centre,<br />

which ensures supply security in the region. The<br />

efficiency of the SFC is a main reason that Solutia<br />

continues to improve its impressive 95% On Time<br />

Delivery rate and earn strong customer satisfaction<br />

ratings in that category.<br />

R&F Asia: What are some of the recent, interesting<br />

projects where Solutia products have been used?<br />

Dr Luc De Temmerman: We have been involved in almost<br />

all the major airport projects that have come up in the<br />

region – Changi Terminal 1 and Terminal 2, Shanghai<br />

Pudong Airport, Guangzhou Airport, Chong Quing<br />

Airport, and the upcoming New Bangkok Airport Project,<br />

and we hope to be involved in the new ones coming up,<br />

such as Beijing Airport and Changi Terminal 3.<br />

We have been involved in sports infrastructure, like<br />

the World Cup Football stadium in France, facilities <strong>for</strong><br />

the Sydney Olympics, facilities <strong>for</strong> the Winter Olympics<br />

in Salt Lake City and the Flemington Race course in<br />

Australia. The Futian Sports Centre coming up in<br />

Shenzhen, China, will use Vanceva to achieve the five<br />

colours of the Olympic rings.<br />

We have seen increasing use of colour in the Asia<br />

PRODUCT ENQUIRY FORM<br />

(In<strong>for</strong>mation is provided free-of-charge) <strong>Roof</strong> acade<br />

Full Name: (Dr/Mr/Mrs/Ms)<br />

Designation (Job title):<br />

Name of Organisation:<br />

Address:<br />

State/City: ____________________ Postal Code: ____________________ Country: __________________<br />

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Signature: ___________________________ Date: ____________________<br />

PRODUCT INFORMATION<br />

I wish to have more in<strong>for</strong>mation on the products corresponding to the following Editorial Enquiry Numbers<br />

Please list the numbers in the space below, eg. 04/101, 04/102, etc<br />

Pacific region. For East Century Park in Taipei, Vanceva<br />

color in 10 different colours was used. Other projects<br />

using Vanceva color are Dalian Commercial Centre in<br />

China, Black Pearl in Taipei, Cyber Port Project in Hong<br />

Kong, and Changi Village Hotel in Singapore.<br />

Internationally, Media Market in Holland and Maestro<br />

Nicolau Street in Barcelona are some projects which use<br />

Vanceva color interlayers <strong>for</strong> facades.<br />

Our Vanceva interlayers with enhanced solar benefits<br />

were used in the recently inaugurated Guangzhou<br />

Airport project. We are doing a number of exciting<br />

projects with solar interlayers in Australia, like the Philips<br />

Street project.<br />

Our metallic interlayers from our Vanceva range have<br />

been used in facades in Okinawa by leading Japanese<br />

architect Shin Takamatsu.<br />

A good example of a facade application, is the Palmas<br />

building in Mexico that used Vanceva metallic and<br />

Vanceva color.<br />

R&F Asia: In summary, what distinguishes Solutia as a<br />

company?<br />

Dr Luc De Temmerman: We would claim several features.<br />

Firstly, we invest to produce quality products <strong>for</strong><br />

laminators. Secondly, in terms of customer service, we<br />

ensure on-time delivery of the products that architects,<br />

designers, facade consultants and other specifiers want,<br />

at the right price and with the highest quality. Thirdly,<br />

we employ the right people to provide technical service<br />

to customers. We also look <strong>for</strong>ward to working creatively<br />

with customers, to bring out new products. They<br />

determine what they need. We are there to develop these<br />

products and develop the market with them. RnF<br />

(Photocopies may be used as additional enquiry <strong>for</strong>ms. Please cut along dotted line)<br />

Fax to: (65) 6296 1719 or Mail to: Medialink Technology Pte Ltd, 39 Ubi Road 1, #06-01,<br />

World Publications Building, Singapore 408695<br />

<br />

&<br />

Enquiry No: 10/120<br />

F<br />

Asia<br />

<br />

<br />

<strong>Roof</strong> & <strong>Facade</strong> Asia • October <strong>2004</strong> 17


<strong>Roof</strong>&<strong>Facade</strong> Asia<br />

16 to 19 November <strong>2004</strong><br />

EQUIP’BAEI<br />

Windows, Doors, Shutters and Solar Protection International<br />

Exhibition<br />

Venue: Paris Expo, Porte de Versailles, Paris, France<br />

Contact: Reed Expositions France, Paris, France<br />

Tel: + 33 (1) 47 56 51 72 Fax: + 33 (1) 47 56 08 18<br />

Email: info@equipbaei.com<br />

ADVERTISERS’ INDEX<br />

○<br />

APPLICAD AUSTRALIA......PAGE 9<br />

BLUESCOPE LYSAGHT ..... PAGE 20<br />

News & Events<br />

○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○<br />

20 to 24 November <strong>2004</strong><br />

THE BIG 5<br />

International Exhibition <strong>for</strong> Building, Water Technology<br />

& Environment, Air Conditioning & Refrigeration,<br />

Cleaning & Maintenance, Glass & Metal<br />

Venue: Dubai World Trade Centre, Dubai, UAE<br />

Contact: DMG World Media Dubai Ltd, Dubai, UAE<br />

Tel: + 971 (4) 331 9688 Fax: + 971 (4) 331 9480<br />

Email: dmg@emirates.net.ae<br />

24 to 27 November <strong>2004</strong><br />

FENESTRATION CHINA <strong>2004</strong><br />

Beijing International Exhibition on Windows<br />

– Euro-Windoor Pavilion<br />

Venue: China International Exhibition Center, Beijing, China<br />

Contact: Nürnberg Global Fairs GmbH, Nürnberg, Germany<br />

Tel: + 49 (911) 8606 8695 Fax: + 49 (911) 8606 8694<br />

Email: info@nuernbergglobalfairs.com<br />

EVENTS SCHEDULE<br />

17 to 22 January 2005<br />

BAU 2005<br />

16th International Trade Fair <strong>for</strong> Building Systems,<br />

Building Renovation<br />

Venue: New Munich Trade Fair Centre, Munich,<br />

Germany<br />

Contact: Messe München GmbH, Munich, Germany<br />

Tel: + 49 (89) 9492 0720 Fax: + 49 (89) 9492 1419<br />

Email: newsline@messe-muenchen.de<br />

21 to 23 January 2005<br />

FACADES & ROOFING SOLUTIONS 2005<br />

An Exclusive Expo on <strong>Facade</strong>s/<strong>Roof</strong>ing Technologies<br />

and Allied Products<br />

Venue: Kanteerava Stadium, Bangalore, India<br />

Contact: Convention & Fairs (India) Pvt Ltd, Mumbai,<br />

India<br />

Tel: + 91 (22) 2206 0808 Fax: + 91 (22) 2208 0171<br />

Email: conventions@vsnl.com<br />

○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○<br />

REHAU ............................ PAGE 11<br />

SIKA ................................ PAGE 13<br />

<strong>Roof</strong>&<br />

F<br />

P U B L I S H E R<br />

acade<br />

Asia<br />

Medialink Technology Pte Ltd<br />

39 Ubi Road 1, #06-01<br />

World Publications Building<br />

Singapore 408695<br />

Tel: (65) 6296 1913; Fax: (65) 6296 1719<br />

roofnfacadeasia@medialink-mail.com<br />

E D I T O R I A L<br />

Editor: T. Bhaskaran<br />

bhaskaran@medialink-mail.com<br />

Assistant Editor: Aishah Hussein<br />

aishah@medialink-mail.com<br />

C I R C U L A T I O N<br />

Circulation Manager: Chew Kok Ann<br />

circulation@medialink-mail.com<br />

P R O D U C T I O N<br />

Production Executive: Pamela De Silva<br />

pamela@medialink-mail.com<br />

<br />

CONVENTIONS & FAIRS<br />

(INDIA) .......................... PAGE 19<br />

GE PACIFIC ...................... PAGE 15<br />

TAIYO MEMBRANE<br />

CORPORATION ................. PAGE 5<br />

ZAMIL STEEL..................... PAGE 7<br />

A D V E R T I S I N G<br />

Roland Ang<br />

roland@medialink-mail.com<br />

Violet Ng<br />

violet@medialink-mail.com<br />

O P E R A T I O N S<br />

Kim Quek<br />

kim@medialink-mail.com<br />

BPA Worldwide Membership<br />

Applied For October <strong>2004</strong><br />

Please mail to:<br />

Medialink Technology Pte Ltd<br />

39 Ubi Road 1<br />

#06-01<br />

World Publications Building<br />

Singapore 408695<br />

<strong>Roof</strong>&<strong>Facade</strong> Asia is a monthly trade<br />

publication distributed free-of-charge to a<br />

qualified readership within the building industry<br />

in Asia. The readers include developers,<br />

building owners, architects, main contractors,<br />

specialist subcontractors including facade<br />

contractors and applicators, roofing contractors<br />

and applicators, civil & structural engineers,<br />

facade consultants, environmental engineers,<br />

quantity surveyors, property managers, testing<br />

and certification agencies, government<br />

departments, academics, embassies and trade<br />

missions, manufacturers and suppliers of<br />

building materials, among others.<br />

Disclaimer<br />

Whilst every ef<strong>for</strong>t shall be taken to ensure the<br />

accuracy of in<strong>for</strong>mation at the time of printing,<br />

the Publisher and Editor are unable to accept<br />

any liability <strong>for</strong> errors or omissions that may<br />

occur. Further, the insertion of advertisements,<br />

advertorial and editorial within the magazine<br />

does not constitute an endorsement by the<br />

Publisher and Editor of <strong>Roof</strong>&<strong>Facade</strong> Asia of<br />

the contents therein.<br />

Copyright<br />

All rights reserved. The contents of this<br />

publication may not be reproduced, either in its<br />

entirety, or even partially, without the<br />

documented permission of the publisher.<br />

Printed by Ad Graphic Pte Ltd, Singapore.<br />

<br />

18 <strong>Roof</strong> & <strong>Facade</strong> Asia • October <strong>2004</strong>


News & Events<br />

<strong>Roof</strong>&<strong>Facade</strong> Asia<br />

<strong>Roof</strong> & <strong>Facade</strong> Asia • October <strong>2004</strong> 19


News & Events<br />

<strong>Roof</strong>&<strong>Facade</strong> Asia<br />

<strong>Roof</strong> & <strong>Facade</strong> Asia • October <strong>2004</strong> 19

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