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<strong>The</strong> <strong>customer</strong> <strong>magazine</strong> <strong>from</strong> <strong>BASF</strong> 1/<strong>2009</strong><br />

www.<strong>plastics</strong>-<strong>magazine</strong>.com<br />

Focus:<br />

Research<br />

<strong>BASF</strong> Plastics – key to your success


More layers – more savings<br />

with Styrodur C<br />

Now for multilayered<br />

insulation – for even<br />

better lambda values!<br />

Passive house insulation with Styrodur C<br />

Giving high compression resistance, low moisture<br />

absorbency and only air as cell gas. Excellent<br />

characteristics and an outstanding insulation performance<br />

make Styrodur ® C the ideal insulation<br />

material – even for passive houses.<br />

From the floor slab to the roof:<br />

Europe’s green insulation<br />

www.styrodur.de


Editorial<br />

“We are working<br />

on the future”<br />

Dr. Martin<br />

Brudermüller<br />

Dear Readers,<br />

<strong>The</strong> world is still in the throes of the economic<br />

crisis and the recovery will be slow<br />

to come. <strong>BASF</strong> is, of course, also affected<br />

by this recession. Our sales in the first quarter<br />

of <strong>2009</strong> fell by 23 percent in comparison<br />

to the previous year, and the EBIT dropped<br />

by a full 58 percent.<br />

“As for the future, your task is not to foresee<br />

it, but to enable it.” A nice quote <strong>from</strong> Antoine<br />

de Saint-Exupéry. Instead of trying to<br />

guess what the future has in store for us, we<br />

should work to make sure that new and better<br />

things will come along, things that translate<br />

into genuine progress. And what says<br />

“working hard for the future” better than research?<br />

Every year, <strong>BASF</strong> pours well over<br />

one billion euros into research. <strong>BASF</strong> researchers<br />

are constantly working on new or<br />

improved products and processes for their<br />

<strong>customer</strong>s, helping them deal with problems<br />

such as dwindling resources. Especially<br />

here, the <strong>plastics</strong> industry has quite a lot to<br />

offer – be it products that allow lightweight<br />

designs, that can replace metal or that contribute<br />

to energy-efficient construction and<br />

housing. After all, wherever energy consumption<br />

or weight can be reduced in the<br />

overall balance, resources and thus money<br />

can be saved.<br />

<strong>BASF</strong> Research has a number of novelties<br />

to showcase, as you will be able to read in<br />

this issue of “<strong>plastics</strong>”. We will also show<br />

you which research products have already<br />

made their way into new applications of our<br />

<strong>customer</strong>s, for instance, in the automotive,<br />

household and packaging sectors.<br />

Enjoy your reading,<br />

Dr. Martin Brudermüller<br />

Member of the Board of Executive Directors<br />

Responsible for the Plastics segment and<br />

the Asia, Pacific Rim region<br />

3


Contents<br />

Research means laying down the<br />

foundation for continued success in<br />

the future as well. Especially in<br />

these economically challenging<br />

times, <strong>BASF</strong> is working hard to<br />

find new plastic solutions for its<br />

<strong>customer</strong>s.<br />

Page 8<br />

Focus: Research<br />

Thinking ahead to develop 8<br />

the <strong>plastics</strong> of the future<br />

<strong>BASF</strong> Polymer Research seeking solutions<br />

for the world of tomorrow<br />

Interview 12<br />

With Dr. Christian Fischer,<br />

head of Polymer Research<br />

Content<br />

is<br />

linked!<br />

Automotive<br />

Faster towards new components 14<br />

Expanded CAE competence by <strong>BASF</strong><br />

Keeping sparks at bay 14<br />

Electrically conductive POM<br />

Ultramid in the fast lane 16<br />

Safety and esthetics for the Opel Insignia<br />

No problems with fuel 16<br />

New generation of quick connectors<br />

Boom in high-tech 17<br />

automatic transmissions<br />

Control units for dual-clutch transmissions<br />

Making brakes lightweight 17<br />

Compressed-air reservoirs for trucks<br />

An air-intake manifold – 18<br />

and more – for the Nano<br />

<strong>BASF</strong> solutions for the Tata Nano<br />

A hidden masterpiece: 19<br />

Polyamide ensures tire safety<br />

With adipic acid by <strong>BASF</strong><br />

Sporty and light with 20<br />

a body made of plastic<br />

With a lightweight body made of Polyurethane<br />

Sport<br />

Visionary shoe made of 22<br />

polyurethane: PURE 1.0<br />

Concept shoe shows the potentials of PUR<br />

Green as grass 23<br />

but less sensitive<br />

Artificial turf with a cusion made of Neopolen<br />

Region<br />

A region on the move 24<br />

<strong>The</strong> plastic industry in Central Europe<br />

has constantly grown<br />

Three questions to … 27<br />

Stefan Rotter, <strong>BASF</strong>’s head of sales for<br />

engineering <strong>plastics</strong> in Central Europe<br />

<strong>The</strong> Artega, a 300-horsepower<br />

sports car, is the first with a body<br />

made entirely of <strong>BASF</strong> polyurethane.<br />

It weighs a mere 3.72 kg/HP.<br />

Page 20<br />

4


PL<br />

Contents<br />

CZ<br />

SK<br />

AT<br />

H<br />

SLO<br />

HR<br />

BiH SRB<br />

MNE KS<br />

MK<br />

AL<br />

RO<br />

BG<br />

<strong>BASF</strong> is very active in Poland,<br />

the Czech Republic, Croatia and<br />

Slovenia. Based in these countries,<br />

companies such as Gorenje and<br />

Zelmer have set out to conquer the<br />

entire European market.<br />

Page 24<br />

Building + Construction<br />

Swimming quietly 28<br />

Basotect in the Beijing swimming stadium<br />

On the safe side 29<br />

Palusol SW fire-protection panels certified<br />

Feelgood factor for terraces 29<br />

With Luran S UV-resistant<br />

and unaffected by the environment<br />

Get active, build a passive house 30<br />

<strong>BASF</strong> insulating materials<br />

contribute energy saving<br />

Miniature passive house 30<br />

on its travels <br />

Mobile Energy Saving House by <strong>BASF</strong><br />

Insulation of roller shutter casings 31<br />

with the <strong>BASF</strong> foam Basotect<br />

Official approval for multilayer 31 <br />

XPS under foundation slab<br />

Household + Living<br />

Vegetation as inspiration 32<br />

Designer chair made of Miramid<br />

From windshield wipers 33<br />

to coffee machines<br />

New Ultradur types for contact with food<br />

Packaging<br />

Shrinking without wrinkles 34<br />

New application for Styrolux HS 70<br />

Milk on the light side 34<br />

Lightest half-liter polystyrene bottle in the world<br />

Well-anchored, no wobbling 35<br />

Stretch hoods made of Styroflex<br />

Iridescent like a rainbow 36<br />

Effect film Aurora for packaging<br />

Going shopping 37<br />

with renewable materials<br />

Biodegradable plastic Ecovio in<br />

ALDI shopping bags<br />

Miscellaneous<br />

Colorful flying machines 38<br />

made of Neopolen<br />

Drinking in the view 38<br />

Play to Win |<br />

Calender of Events |<br />

Flag<br />

Win a Polar watch 39<br />

Calendar of Events 39<br />

Trade fairs and events<br />

that <strong>BASF</strong> will attend<br />

Imprint 39<br />

<strong>The</strong> designers Bouroullec have developed<br />

a new chair that resembles<br />

the branches of a tree. It was made<br />

with Miramid polyamide employing<br />

the GIT process.<br />

Page 32<br />

5


Focus Research<br />

Thinking ahead to develop<br />

A very close view of<br />

Neopor and its foam<br />

structure<br />

6


Focus Research<br />

the <strong>plastics</strong> of the future<br />

<strong>BASF</strong> Polymer Research seeking solutions for the world of tomorrow<br />

7


Focus Research<br />

Urbanization, growing mobility and an<br />

ever-increasing demand for energy –<br />

these are the major trends that will decisively<br />

shape our future. As an innovationdriven<br />

company, we at <strong>BASF</strong> feel that we<br />

can be the masters of our future as we influence<br />

the developments that will impact upon<br />

our lives. It is these challenges and the ensuing<br />

requirements of our <strong>customer</strong>s that drive<br />

research at <strong>BASF</strong>. This is why <strong>BASF</strong> invested<br />

around 1.35 billion euros in research and<br />

development in 2008.<br />

“Earlier crises have shown that the companies<br />

that pursue innovation, precisely in difficult<br />

times, are the ones to emerge <strong>from</strong> a crisis<br />

even stronger,” explains Dr. Christian Fischer,<br />

head of Polymer Research at <strong>BASF</strong><br />

(see interview on page 12). “It is our aim to<br />

offer our <strong>customer</strong>s products with which they<br />

can stay one step ahead of the competition,<br />

for instance, <strong>plastics</strong> that help to reduce<br />

weight in the manufacture of cars or to tap<br />

into new market segments such as LED<br />

technology.”<br />

New plastic blends combine<br />

the best of two products<br />

One way to extract new qualities <strong>from</strong> known<br />

materials is to mix different plas tics. “<strong>The</strong><br />

idea is to combine the good properties of<br />

two polymers and to offset the less desirable<br />

ones,” elaborates Dr. Martin Weber, expert<br />

for blends at <strong>BASF</strong> Plastics Research. Most<br />

polymers are not really compatible with each<br />

other, which is why they break down into<br />

separate phases on the microscopic level.<br />

“<strong>The</strong> secret lies in controlling this separation<br />

in such a way that adhesion between the<br />

phases is retained.”<br />

A proven <strong>BASF</strong> product in this<br />

context is Terblend ® N, a mixture<br />

of ABS and<br />

polyamide<br />

(PA). This<br />

material<br />

combines<br />

the<br />

toughness of<br />

ABS with the<br />

thermal stability of polyamide, while reducing<br />

the disadvantageous aspects such as, for<br />

example, inadequate low-temperature impact<br />

resistance. <strong>BASF</strong> researchers have developed<br />

a new Terblend N that now combines polyamide<br />

with the more UV-resistant ASA<br />

rather than with ABS. As a result, the ASA-PA<br />

blend is very color-stable, opening up new<br />

applications in automotive construction, especially<br />

where parts are exposed to sun and<br />

thus had to be coated up until now.<br />

<strong>The</strong> type of polyamide used and the mixing<br />

ratio of the components also play a decisive<br />

role in increasing the flowability. “<strong>The</strong> new<br />

Terblend N NM-21 EF yields considerably<br />

larger and more complex parts without flow<br />

marks,” says Dr. Marko Blinzler, product<br />

manager. “Moreover, finely structured, matt<br />

surfaces can be made employing even<br />

lower pressures or lower mold temperatures.<br />

This, in turn, translates<br />

into a reduction in system<br />

costs and cycle<br />

times.”<br />

8


Focus Research<br />

Blindtext Blindtext<br />

Blindtext Blindtexext<br />

Blindtext Blindtext<br />

Blindtextext<br />

Blindtext Blindtext<br />

Blindtext<br />

Dr. Hans-Helmut<br />

Görtz, Dr. Dietrich<br />

Scherzer, Dr. Martin<br />

Klatt and Dr. Klaus<br />

Hahn (<strong>from</strong> left) discuss<br />

a result of the<br />

latest research<br />

Another way to discover attractive new sides<br />

of familiar polymers is to use new processing<br />

methods. <strong>BASF</strong> not only has decades of<br />

experience with all kinds of <strong>plastics</strong> but it<br />

also possesses vast expertise in processing<br />

them, for instance, in foaming polymers. This<br />

is evidenced by successful products such as<br />

Styropor and Neopor.<br />

Tried and true <strong>plastics</strong> for new foams<br />

“We merge these two competences as we<br />

strive to combine spe cific properties of <strong>plastics</strong><br />

with the low weight and insulating capacity<br />

of foams. In other words, we are making<br />

foams with <strong>plastics</strong> that had not been used<br />

in this way before,” explains Dr. Klaus Hahn,<br />

specialist for foams at Polymer Research.<br />

<strong>The</strong> new foams show a great deal of potential<br />

for the realm of automotive con struction,<br />

among others. As electric cars become more<br />

and more popular, the question arises, “How<br />

can you heat them in the winter?” Up until<br />

now, the heat dissipated by the internalcombustion<br />

engine has kept the feet of passengers<br />

warm. A battery, however, does not<br />

generate this heat automatically as a waste<br />

product. “This is why there will be an interest<br />

in moving away <strong>from</strong> passenger compartments<br />

made of metal, since its heat conductivity<br />

is too high,” explains Dr. Hahn. “<strong>The</strong><br />

idea is to find a foam that provides good<br />

thermal insulation and that is also very stable<br />

and temperature-resistant.” In addition to<br />

this, the new foam should also be able to<br />

absorb energy in case of a collision.<br />

AMSAN is the latest addition to the foam<br />

family. Up until now, this α-methyl-styreneacrylonitrile<br />

copolymer has been admixed, in<br />

unfoamed form, with ABS in order to improve<br />

its thermal stability. This is how heat-resistant<br />

Terluran HH for the automotive industry is<br />

made. “We managed to foam AMSAN, and<br />

in this process, we obtained a rigid foam that<br />

is thermally stable up to a temperature of<br />

110°C,” states Dr. Ingo Bellin, who was involved<br />

in developing this product at the Research<br />

Department. This new foam is also<br />

highly chemical-resistant.<br />

Modern internal-combustion engines are<br />

supposed to consume less fuel and yet deliver<br />

a high performance. Now that they are<br />

9


Focus Research<br />

<strong>The</strong> flowability can<br />

be shown with a<br />

flow spiral<br />

smaller and more compact, they become<br />

much hotter which, in turn, raises the requirements<br />

made of the material in the engine<br />

compartment.<br />

Plastics that are more heat-resistant<br />

replace metal<br />

Ultramid ® , <strong>BASF</strong>’s polyamide, has long since<br />

replaced metal for such components as<br />

intake manifolds and engine cov ers. “We are<br />

constantly working on further improving the<br />

temperature resistance of polyamide. This<br />

means that we are well prepared for the<br />

coming generation of high-performance<br />

engines,” adds Dr. Martin Klatt, responsible<br />

for the further development of engineering<br />

<strong>plastics</strong> at Polymer Research.<br />

One way to bring the properties of <strong>plastics</strong><br />

even closer to those of metal is to use continuous<br />

glass fibers. “We normally enhance<br />

the stiffness of <strong>plastics</strong> by a factor of about<br />

three by using short glass fibers. If we could<br />

succeed in incorpo rating continuous glass<br />

fibers into the plastic, then the stiffness could<br />

be increased much more,” explains Dr. Klatt<br />

enthusiastically, although with a caveat, “It<br />

is still early days; a few hurdles will have to<br />

be overcome before we have a commercial<br />

product.”<br />

Nanotechnology: miniscule particles<br />

for maximum effect<br />

From continuous filaments to nanoparticles:<br />

<strong>BASF</strong>’s <strong>plastics</strong> researchers have recently<br />

developed a new method with which an additive<br />

in the form of so-called carbon nanotubes<br />

imparts the plastic POM (polyoxy-<br />

methylene) with high elec tric conductivity<br />

without altering its other properties (more on<br />

this on page 14). This modified POM is of<br />

interest in applications where electrostatic<br />

charging and thus the possibility of spark<br />

formation have to be prevented.<br />

Other nanoparticles, finely dispersed in the<br />

plastic matrix, can significantly lower the melt<br />

viscosity, so that the flowability can be doubled<br />

at times. <strong>The</strong> size of these additive<br />

particles is about 50 to 300 nanometers: one<br />

nanometer corres ponds to the length of<br />

merely four adjacent atoms in a piece of<br />

metal. In prin ciple, these miniscule particles<br />

function like the tree trunks used by the ancient<br />

Egyptians to roll across the land the<br />

giant stones needed for their pyramids – the<br />

individual polymer molecules slide past each<br />

other more easily and thus more smoothly<br />

into the injection molding tool. “We are currently<br />

working on more nanoadditives that<br />

influence other properties as well,” reports<br />

Dr. Hans-Helmut Görtz, who is the specialist<br />

in charge at Polymer Research.<br />

Beyond nanoadditives, “nanofoams” are<br />

also a subject of investigation for <strong>BASF</strong> researchers.<br />

“<strong>The</strong> cell gas is a key factor when<br />

it comes to improving today’s foams, which<br />

already have very good thermal insulating<br />

properties,” explains Dr. Jan Sandler, an<br />

expert in foams. <strong>The</strong> heat is dissipated, among<br />

other things, by the fact that the molecules<br />

of the cell gas strike each other. “This contributing<br />

factor to energy transmission can<br />

even be completely eliminated by reducing<br />

the foam cells to the nanometer range. This<br />

greatly lowers the overall thermal conductivity<br />

of a foam while markedly improving its<br />

insulating capacity.”<br />

10


Focus Research<br />

New light technique calls for thermally<br />

conductive <strong>plastics</strong><br />

Conventional light bulbs are on the way out.<br />

<strong>The</strong> state of the art now is the energy-saving<br />

light bulb. But for how long? It is very well possible<br />

that it will, in turn, be displaced by LEDs<br />

(light-emitting diodes), thus opening up a new<br />

mar ket for <strong>plastics</strong>. “LEDs are minuscule points<br />

of light. In order for them to gener ate sufficient<br />

brightness, their light has to be bundled and<br />

reflected by a reflec tor,” explains Dr. Martin<br />

Klatt. LEDs have been in use for several years<br />

now in high-end automobile headlights. <strong>The</strong><br />

reflectors are usually made of aluminum. LEDs,<br />

however, only function within a certain temperature<br />

range. Dr. Klatt goes on to say, “We<br />

are looking for heat-conductive <strong>plastics</strong> that<br />

can replace the aluminum and dissipate the<br />

heat generated by the LEDs, so that the<br />

tempera ture in the reflector does not rise too<br />

much, since this could cause the LEDs to fail.”<br />

Research is also being aimed at finding a<br />

plastic with which LED light bulbs can be produced<br />

on a large scale as a replacement for<br />

the energy-saving light bulbs. “In other words,<br />

the plastic has to be inexpensive and at the<br />

same time technically very advanced.”<br />

It is quite the exception when completely<br />

new structural polymers are discov<br />

ered in <strong>plastics</strong> research.<br />

Dr Hans-Helmut Görtz and<br />

his team have succeeded<br />

in doing exactly that:<br />

“One of our research<br />

goals is to utilize readily available<br />

carbon dioxide as a raw material. Catalytic<br />

polymerization has allowed us to meld carbon<br />

dioxide with an epoxide, giving rise to an<br />

aliphatic carbonate.” This material is biodegradable,<br />

transparent and has a glass-transition<br />

temperature of about 40°C. “When you<br />

hold the material in your hand, it gets softer,<br />

which is a very nice feeling. This could be of<br />

interest for designers.” Consumers, however,<br />

will have to wait a while before they can<br />

come across exciting designer articles made<br />

of this novel plastic – the new carbonate is<br />

still in its infancy.<br />

Seen through<br />

the microscope:<br />

crystalline<br />

caprolactam<br />

A new polymer: adaptable<br />

and biodegradable<br />

11


Focus Research<br />

Polymer Research:<br />

creativity on solid ground<br />

Dr. Christian<br />

Fischer,<br />

head of<br />

Polymer<br />

Research<br />

What are the trends in <strong>plastics</strong>?<br />

<strong>The</strong> trends in plastic research stem <strong>from</strong> the<br />

global challenges we face today: how can<br />

we utilize raw materials and energy more<br />

efficiently and thus more sustainably? We<br />

are working on quite a few different approaches.<br />

Our new generation of foams can<br />

offer a huge potential for saving energy and<br />

can open up new applications in lightweight<br />

construction. New drive concepts are a hot<br />

topic in the automotive sector for which we,<br />

as <strong>plastics</strong> researchers, intend to come up<br />

with solutions in the form of new polymer<br />

systems. We are focusing our efforts on<br />

another modern field of research, namely,<br />

the so-called bio-polymers. We see these<br />

biopolymers as a valuable addition to our<br />

product portfolio, rather than as a substitute<br />

for petroleum-based <strong>plastics</strong>.<br />

How can you guarantee that<br />

researchers do not run out of ideas?<br />

We are certainly not going to run out of ideas<br />

since <strong>plastics</strong> have what it takes to make a<br />

major contribution towards meeting the<br />

challenges the society is facing. At Polymer<br />

Research, we have built up a global and<br />

interdisciplinary network so as to ensure<br />

that we remain close to the market and to<br />

top-notch scientific partners in colleges and<br />

universities. Together with the business<br />

units, we organize innovation workshops<br />

with our <strong>customer</strong>s. Our more than 120<br />

cooperation undertakings yield ideas that<br />

allow a scientific novelty to evolve into a<br />

marketable product.<br />

How creative are <strong>BASF</strong><br />

researchers allowed to be?<br />

We set no limits on creativity since it is a<br />

fundamental prerequisite for our researchers.<br />

<strong>The</strong> important aspect is to channel this<br />

creativity towards the requirements of our<br />

<strong>customer</strong>s, in other words, we have to ask<br />

the right questions. We do not undertake<br />

research for the sake of merely acquiring<br />

knowledge but rather, in order to develop<br />

products that help our <strong>customer</strong>s and society<br />

at large.<br />

Which <strong>plastics</strong> still need<br />

to be invented?<br />

Plastics have to evolve <strong>from</strong> structural materials<br />

into intelligent materials. We have to<br />

think more in terms of (polymer) systems.<br />

For us, polymer systems are foams, composites,<br />

switchable polymers or nanostructured<br />

materials. Printed electronic components,<br />

a market of the future, are a good<br />

example of polymers in systems. We plan<br />

to develop not only semiconductive polymers<br />

but also printable polymeric semiconductor<br />

inks and make them ready for the market.<br />

Towards this end, we also have to know<br />

quite a lot about circuits and printing.<br />

12


Focus Research<br />

A few highlights*) of <strong>BASF</strong>’s<br />

plastic research<br />

1929 Development of<br />

industrial-scale<br />

styrene synthesis<br />

1940 Polyamide 6 made<br />

of caprolactam<br />

1940 New process for<br />

high-pressure polyethylene<br />

(Lupolen ® )<br />

1951 Process for foaming<br />

polystyrene<br />

(Styropor ® )<br />

1970s<br />

Development of the<br />

first fuel tank made<br />

of polyethylene<br />

1979 New melamine resin<br />

Basotect ®<br />

1980s<br />

Development of the<br />

first intake manifold<br />

made of polyamide<br />

1995 Development<br />

of Neopor ®<br />

1996 Highly elastic<br />

Styroflex ®<br />

1998 First biodegradable<br />

plastic Ecoflex ®<br />

based on naphtha<br />

2006 Biodegradable plastic<br />

Ecovio ® based<br />

on renewable raw<br />

materials<br />

2007 First engineering<br />

<strong>plastics</strong> with<br />

nanoadditives<br />

Nano structures of a<br />

foaming test<br />

*) Only the highlights are listed here.<br />

Hundreds of new types of already<br />

known <strong>plastics</strong>, <strong>customer</strong> projects,<br />

etc. have not been mentioned.<br />

13


Automotive<br />

Faster towards<br />

new components<br />

ULTRASIM: the new name for the expanded CAE competence<br />

Cost reduction, lightweight<br />

construction and the<br />

desire for design freedom<br />

– coupled with optimal mechanical<br />

properties of the<br />

components – are the driving<br />

forces behind the use of engineering<br />

<strong>plastics</strong> in vehicles.<br />

Plastic manufacturers are no<br />

longer just material suppliers that<br />

process the raw material in accordance<br />

with quality standards and deliver<br />

them on time. <strong>BASF</strong> offers applicationstechnology<br />

know-how that goes far beyond<br />

the material and accompanies the development<br />

of the component <strong>from</strong> the concept all<br />

the way to serial application – all combined<br />

under the new name ULTRASIM. This does<br />

not refer to a material like the tried-and-true<br />

engineering <strong>plastics</strong> Ultramid ® , Ultradur ® ,<br />

Ultraform ® and Ultrason ® . Rather, this name<br />

stands for <strong>BASF</strong>’s entire competence in<br />

cutting-edge CAE (computer-aided engineering)<br />

methods for developing innovative<br />

automotive parts made of <strong>BASF</strong> <strong>plastics</strong>.<br />

This evaluation of component concepts<br />

on a virtual basis starts with the<br />

material, continues with<br />

the manufacturing<br />

process<br />

and<br />

goes all the way<br />

to the finished part –<br />

ULTRASIM is not only the means to<br />

calculate the component properly but also to<br />

pave the way to the correctly designed part.<br />

Components can be quickly and reliably<br />

configured with an eye towards specific loadrelated<br />

factors such as strength or crash<br />

behavior.<br />

Strategic <strong>customer</strong> partnerships<br />

Within the scope of strategic partnerships,<br />

in recent years <strong>BASF</strong> has expanded the<br />

added value of its applications technology<br />

for each phase of the parts de-<br />

14<br />

Keeping<br />

sparks at bay<br />

Electrically conductive<br />

<strong>BASF</strong> plastic Ultraform<br />

with nanotubes being<br />

used by Bosch<br />

As a first, <strong>BASF</strong> is launching a plastic<br />

containing carbon nanotubes (CNT)<br />

onto the market. This material is Ultraform ®<br />

N2320 C, a polyoxymethylene (POM, also:<br />

polyacetal) that, thanks to the novel additives,<br />

acquires a high level of electric conductivity<br />

without much of a decrease in<br />

toughness. This material has gone into its<br />

first serial application at Bosch, for a fuel<br />

filter housing for the Audi A4 and A5. <strong>The</strong><br />

new type of plastic is available in commercial<br />

quantities on a worldwide basis.<br />

For its filter unit, however, Bosch demands<br />

compliance with the high requirements of<br />

SAE standard J1645 of August 2006, which<br />

can only be met by a conductive material.<br />

This standard of the Society of Automotive<br />

Engineers (SAE) recommends a maximum<br />

specific volume resistance of 10 6 ohm.cm<br />

for materials that will be used in components<br />

through which fuel flows. Under<br />

measuring conditions according to ISO<br />

3915 (four-point method), the conductive<br />

Ultraform attains a value of a mere 30 ohm.<br />

cm, making it 30,000 times more conductive<br />

than necessary, so that it meets the<br />

requirements of SAE J1645 with ease. This<br />

eliminates the risk of electrostatic charging<br />

and sparking as fuel flows through the<br />

filter.<br />

Thanks to the type of additives and the<br />

way they have been incorporated, the new


Automotive<br />

A lower bumper<br />

stiffner (LBS) as a<br />

finished part and in<br />

the simulation<br />

velopment. ULTRASIM now covers not<br />

only the so-called integrative simulation but<br />

also mathematical parts optimization,<br />

topological optimization and design optimization,<br />

including morphing. This makes<br />

ULTRASIM a key service module of a comprehensive<br />

and yet flexible <strong>BASF</strong> business<br />

model for engineering <strong>plastics</strong> tailored to<br />

individual <strong>customer</strong> requests. With ULTRASIM,<br />

sophisticated automotive parts made of<br />

thermo<strong>plastics</strong> can be developed very<br />

efficiently. Weight, costs and emissions can<br />

all be reduced and a high<br />

level of protection for passengers and<br />

pedestrians can be achieved even more<br />

quickly and reliably.<br />

Weight reduction by up<br />

to 50 percent<br />

A shining example is the so-called<br />

lower bumper stiffener<br />

(LBS), whose latest<br />

generation<br />

is<br />

now improving<br />

pedestrian safety in the Opel<br />

Insignia. This LBS was developed with<br />

the aid of ULTRASIM, which<br />

helped the Opel Insignia attain<br />

the highest score in the EuroN-<br />

CAP Lower Leg Test. Not only<br />

was the LBS validated with<br />

<strong>BASF</strong>’S support, but <strong>BASF</strong> was<br />

also instrumental in this achievement<br />

by contributing its know-how<br />

during serial production. After all, the<br />

technical challenges encountered<br />

during the manufacture of such large<br />

components are quite daunting. Other new<br />

applications are oil pans, structural chassis<br />

inserts and high-strength automotive engine<br />

bearings made of plastic, all of which reduce<br />

the weight by as much as 50 percent.<br />

e-mail: ultrasim@basf.com<br />

Ultraform has retained its POM-typical properties<br />

such as toughness, dimensional<br />

stability and elastic resilience.<br />

Also suitable for micro-electronic<br />

components<br />

Moreover, when this material comes into<br />

contact with fuels, it is stronger and more<br />

creep-resistant than conventional POM, in<br />

addition to which it is less costly than other<br />

conductive <strong>plastics</strong>. Thanks to its abrasion<br />

resistance, it is just right for the manufacturing<br />

processes employed for micro-electronic<br />

components where, under clean-room<br />

conditions, static charging has to be prevented<br />

and the absence of dust is paramount.<br />

This material is easily processed by laser<br />

welding and injection molding.<br />

<strong>The</strong> carbon nano tubes are firmly fixed in the<br />

plastic matrix and the material can be handled<br />

safely throughout its lifetime. <strong>BASF</strong> developed<br />

Ultraform N2320 C and optimized it<br />

for this application in a collaborative effort<br />

with Bosch. Various application-technology<br />

tools <strong>from</strong> <strong>BASF</strong>’s laboratory played a role<br />

in designing the component: parts calculation<br />

using the CAE instrument ULTRASIM,<br />

welding and burst-pressure experiments as<br />

well as creep-resistance tests.<br />

www.<strong>plastics</strong>portal.eu/ultraform<br />

Fuel filter housing made of Ultraform<br />

15


Automotive<br />

Ultramid in the fast lane<br />

Safety and esthetics for the Opel Insignia<br />

Following in the footsteps of the Opel<br />

Corsa, now the Opel Insignia also has a<br />

lower bumper stiffener (LBS) made of a<br />

crash-optimized <strong>BASF</strong> polyamide, namely,<br />

Ultramid ® B3WG6 CR. This part – developed<br />

by <strong>BASF</strong> using its expanded computer program<br />

for integrative simulation ULTRASIM<br />

– meets stringent requirements in terms of<br />

pedestrian safety.<br />

Other innovative components used in the<br />

Opel Insignia were also created with <strong>BASF</strong><br />

<strong>plastics</strong> and know-how, including the highly<br />

stressed torque brackets.<br />

Miramid ® B3EG3 GIT, a PA 6 with excellent<br />

surface quality that is suitable for gas injection<br />

technology (GIT), is now available in<br />

the interior colors (trim colors) used by<br />

automotive manufacturers. This material<br />

has already gone into serial production for<br />

the beige and black seat-adjustment levers<br />

of the Opel Insignia. Up until now, GIT grades<br />

had been considered to be difficult to<br />

color. Work is also under way on Miramid<br />

grades with improved tribological properties.<br />

<strong>The</strong> first variant of this new family is<br />

Miramid B3EG4 TR.<br />

No problems with fuel – new generation of quick connectors<br />

16<br />

U ltramid® T KR4357 G6, a partially aromatic,<br />

high-temperature resistant polyamide,<br />

is being used in a new application.<br />

<strong>The</strong> French company A Raymond, an international<br />

supplier of fastening systems for the<br />

automotive industry, is now using <strong>BASF</strong>’s<br />

specialty polyamide (PA6/6T) for its quick<br />

connectors for fuel lines. Almost every renowned<br />

car and truck manufacturer in Europe<br />

uses these quick connectors. <strong>The</strong>se exacting<br />

small parts are produced by means of highprecision<br />

injection molding.<br />

<strong>The</strong>se unassuming parts, weighing a mere<br />

15 grams, must be highly resistant to fuel and<br />

zinc chloride at temperatures in the exposure<br />

range of up to 130°C [266°F]. A special<br />

Sturdy quick connectors made of Ultramid T<br />

advantage of Ultramid T KR in this application<br />

is not only its low tendency to creep but also<br />

its outstanding combination of stiffness and<br />

toughness, which means it can withstand the<br />

impact of flying stones. <strong>The</strong>se properties<br />

place this plastic above conventional polyamide<br />

66 and allow it to replace PA 12.


Automotive<br />

Safeguarding pedestrian<br />

safety: the Opel<br />

Insignia with a lower<br />

bumper stiffner (LBS)<br />

behind the bumper<br />

Boom in high-tech automatic transmissions –<br />

new control units for dual-clutch transmissions<br />

Dual-clutch transmissions are among the<br />

most innovative automatic transmissions.<br />

And the same applies to their control<br />

units, which have been improved by Continental<br />

over the past five years since they<br />

were first used at Volkswagen. Now, the<br />

next generation of this complex family of<br />

components is being used in series production<br />

by numerous car manufacturers. <strong>The</strong><br />

plastic parts of the integrated control units<br />

for these dual-clutch transmissions used at<br />

VW, Audi, Ford and BMW are made of<br />

Ultramid ® A3WG6, a proven PA 66 produced<br />

by <strong>BASF</strong>. This material is highly heat-stabilized,<br />

oil-resistant and, when necessary, can<br />

be laser-written.<br />

<strong>The</strong> transmission control unit is a sophisticated,<br />

compact mechatronic component<br />

that is installed directly on the transmission<br />

and is thus surrounded by hot transmission<br />

oil. Consequently, the main requirement<br />

made of this plastic part – into which numerous<br />

sensors, molded interconnect devices<br />

and other metallic structures have to be<br />

securely integrated – is that it has to be<br />

chemically resistant to transmission oil<br />

within the temperature range <strong>from</strong> -40°C to<br />

+145°C [-40°F to +293°F]. It even has to be<br />

able to withstand brief peak temperatures<br />

of up to +170°C [+338°F] without sustaining<br />

damage. In this context, transmission oils<br />

pose quite a challenge since they are considerably<br />

more aggressive than motor oils.<br />

But even under such harsh conditions, this<br />

<strong>BASF</strong> material has no problem ensuring the<br />

requisite high level of dimensional stability.<br />

Making brakes lightweight – first serially produced compressed-air<br />

reservoirs made of plastic for use in trucks<br />

<strong>The</strong> first compressed-air reservoirs made<br />

of plastic for use in truck trailers have<br />

been developed by the Comat company of<br />

Kaiserslautern (Germany), using three precisely<br />

harmonized Ultramid ® types (PA: polyamide)<br />

<strong>from</strong> <strong>BASF</strong>’s product line-up. <strong>The</strong><br />

reservoir measures 1.2 meters in length, has<br />

a diameter of 32 cm and holds 80 liters. It<br />

serves for the compressed-air control of numerous<br />

mechanical functions in trucks, especially<br />

for the brake and air-suspension<br />

systems. Up until now, the compressedair<br />

reservoir had been made of<br />

metal.<br />

<strong>The</strong> novel multi-step process for<br />

the manufacture of these reservoirs<br />

makes use of a highviscosity<br />

Ultramid extrusion type<br />

(PA 6), a heat-stabilized Ultramid<br />

grade and a <strong>BASF</strong> polyamide for<br />

the cover. One advantage of these<br />

plastic compressed-air reservoirs in comparison<br />

to metal tanks is above all their corrosion<br />

resistance. “A weight reduction of 10 kg,<br />

along with costs that are comparable to those<br />

of the predecessors, was the main reason<br />

why we invested in this development,” explains<br />

Ralph Funck, CEO of Comat. “<strong>The</strong> new<br />

compressed-air reservoirs made of plastic<br />

meet the high requirements that we had also<br />

set for the earlier metal versions,” adds Mark<br />

Hengst, of Schmitz Cargobull AG, which<br />

introduced this component at the IAA Commercial<br />

Vehicles 2008. “This is a huge step<br />

towards using more plastic in trucks.”<br />

www.ultramid.com<br />

Massive and yet<br />

lightweight: the first<br />

plastic compressedair<br />

reservoirs for<br />

trucks<br />

17


Automotive<br />

An air-intake manifold – and more – for the Nano<br />

<strong>BASF</strong> contributed innovative solutions for the new Tata Nano<br />

By the help of its network of experts <strong>BASF</strong><br />

supplies products and engineering solutions<br />

which are needed by Tata Motors to<br />

One man’s car is another<br />

man’s watch<br />

One hundred thousand Indian rupees,<br />

approximately 1,500 euros – that is the<br />

price of the first one hundred thousand<br />

Tata Nanos sold in India. How else<br />

could these 1,500 euros be spent?<br />

How about an overnight stay in a suite<br />

at the upmarket hotel, <strong>The</strong> Dorchester,<br />

in London? Another option would be<br />

an appointment, together with your<br />

best friend, at Garren’s, New York’s star<br />

hair stylist. His clients include Victoria<br />

Beckham and Madonna – official price:<br />

US $700 per person per hair cut. On the<br />

other hand, a Breitling designer watch<br />

only starts at about 2000 euros. And<br />

for a Gucci handbag, the “New Jackie”<br />

model, you would have to shell out<br />

another 400 euros on top of the price<br />

for the Tata Nano. Or maybe you would<br />

prefer to eat same delicious caviar:<br />

1500 euros buys you 150 grams of the<br />

very delicate Beluga caviar <strong>from</strong> Iran<br />

(caught in the wild, of course)….<br />

improve its new model Nano and to reduce<br />

emissions and enhance fuel efficiency. “We<br />

believe that helping our <strong>customer</strong>s to be more<br />

successful is strategic to our future growth,”<br />

said Mr. Prasad Chandran, Chairman, <strong>BASF</strong><br />

Group in India and Head South Asia. “Hence<br />

<strong>BASF</strong> works closely with <strong>customer</strong>s and strives<br />

to offer innovative and customized solutions.<br />

<strong>The</strong> Tata Nano project has been special to<br />

<strong>BASF</strong> as we were able to cross geographical,<br />

technical and intellectual boundaries to meet<br />

Tata’s specific needs.”<br />

Weight savings for better fuel efficiency<br />

<strong>The</strong> Nano’s air intake manifold will be produced<br />

by Tata Visteon and uses <strong>BASF</strong>’s<br />

Ultramid ® glass-fiber reinforced engineering<br />

plastic. By replacing aluminium with<br />

Ultramid leads to 40 percent weight<br />

saving which in turn leads to better<br />

fuel efficiency and lesser emission.<br />

<strong>BASF</strong> also provided development<br />

support ranging<br />

<strong>from</strong> computer simulations<br />

in the design phase to component<br />

tests in the trial<br />

phase.<br />

<strong>BASF</strong>’s most noticeable<br />

contribution to the Nano will<br />

be the color and luster of the<br />

vehicle’s exterior. <strong>BASF</strong> has been supplying<br />

automotive coatings to Tata Motors<br />

since 1998 for the company’s Indica, Sumo,<br />

Safari and Indigo. <strong>BASF</strong> also developed a<br />

catalytic converter for the Nano to meet<br />

India’s current emission standards. <strong>BASF</strong><br />

operates a catalyst manufacturing plant<br />

in Chennai, India. Additionally the<br />

seats will consist of <strong>BASF</strong> polyurethanes<br />

- more precisely<br />

a MDI and TDI based system<br />

specially developed<br />

for the Nano.<br />

“Innovative products,<br />

service and efficient<br />

3.1 meters long,<br />

1.5 meters wide and<br />

1.6 meters high:<br />

the Nano<br />

18


Automotive<br />

A hidden masterpiece:<br />

Polyamide ensures tire safety<br />

<strong>BASF</strong> adipic acid for Turkish global market leader<br />

processes are particularly<br />

important to supply a project like the<br />

Nano,” says Hermann Althoff, Group Vice<br />

President and head of <strong>BASF</strong>’s Automotive<br />

Industry Coordination Group in Asia Pacific.<br />

“<strong>BASF</strong> is well-positioned as a global<br />

system supplier of such programs. We have<br />

successfully developed <strong>plastics</strong>, catalysts<br />

and coatings solutions for manufacturers<br />

of innovative car concepts in Europe, North<br />

America and Asia. In doing so, our goal is<br />

not to just supply the cheapest product.<br />

Instead, we work with <strong>customer</strong>s to develop<br />

the most efficient, overall solution in<br />

terms of cost and performance.”<br />

www.automotive.basf.com<br />

Street scenery in India<br />

Automobile tires are extremely complicated<br />

structures whose numerous<br />

individual parts vanish under a rubber<br />

compound during vulcanization. One of<br />

the main components is the tire cord<br />

fabric, an extremely resilient material which<br />

ensures that the tire retains its shape even<br />

when subjected to high internal pressure.<br />

Kordsa Global is one of the leading<br />

manufacturer of these reinforcement products.<br />

Reliable deliveries and punctuality<br />

are important<br />

Kordsa Global is an integrated supplier<br />

with a wide range of products including<br />

high tenacity polyamide 6.6 and HMLS<br />

polyester yarns (HMLS = high modulus<br />

low shrinkage) <strong>from</strong> which it manufactures<br />

tire cord fabrics and reinforcement<br />

textiles. <strong>BASF</strong> recently began supplying<br />

Kordsa Global with the adipic acid<br />

required for polyamide production.<br />

“We chose <strong>BASF</strong> as our supplier because<br />

reliable deliveries and punctuality are<br />

main criteria for our production”, stated<br />

Bulent Bozdoğ an, Vice-President,<br />

Finance and Sourcing, Kordsa Global.<br />

“Today’s production is characterized<br />

by extreme flexibility in deliveries and<br />

shorter reaction times to changes. Reliability,<br />

worldwide presence and value<br />

added services are key criteria in<br />

supplier performance. We are expecting<br />

a more dynamic and supportive approach<br />

<strong>from</strong> our suppliers in today’s<br />

competitive environment.”<br />

At its parent plant in<br />

Ludwigshafen,<br />

<strong>BASF</strong> has an annual capacity of around<br />

270.000 tons of adipic acid for internal and<br />

external <strong>customer</strong>s, who primarily fabricate<br />

polyamide, polyurethane and plasticizers.<br />

Kordsa Global, which is part of the Turkish<br />

Sabanci Group, has 9 sites and 4500 employees<br />

across the world.<br />

www.kordsaglobal.com<br />

BACKGROUND<br />

<strong>The</strong> substructure<br />

guarantees safety<br />

Most automobile tires are similar in<br />

structure. <strong>The</strong> substructure, which is<br />

particularly important in terms of safety<br />

and resilience, is composed of several<br />

layers of thin, coated steel wires (the<br />

steel belt) above the tire cord (made<br />

<strong>from</strong> textile fabric). A rubber layer which<br />

surrounds the air in the tire is located<br />

right inside the tire. <strong>The</strong> entire substructure<br />

is vulcanized so that only the black<br />

“rubber” can still be seen.<br />

At the point where the tire touches the<br />

wheel rim, the substructure layers have<br />

a bundle of steel wires wrapped around<br />

them forming a kind of bead by means<br />

of which the tire grips the wheel rim. <strong>The</strong><br />

tire bead, also known as the base of the<br />

tire, must ensure that the tire sits firmly<br />

on the wheel rim even if the tire pressure<br />

decreases.<br />

Finally, the tire tread acquires a profile<br />

which ensures that the tire grips the<br />

road correctly and that the braking<br />

response is satisfactory.<br />

19


Automotive<br />

Sporty and light with a body<br />

made of plastic<br />

First series-production car with lightweight body entirely made of polyurethane<br />

Stunningly beautiful, comfortable and<br />

agile: with a power-to-weight ratio of<br />

3.72 kg/HP, the new German sports car<br />

Artega ® GT is setting new standards in the<br />

300 HP league. As if that were not enough,<br />

the agile two-seater is the first seriesproduction<br />

vehicle in the whole world to<br />

have a body completely made out of polyurethane<br />

(PU). Consistently relying on<br />

lightweight-construction, the airy chassis<br />

was developed by the creative hotbed for<br />

sports cars Artega – a subsidiary of the<br />

automotive supplier Pargon (located in<br />

Delbrück, Germany) in co-operation with<br />

the <strong>BASF</strong> subsidiary Elastogran. <strong>The</strong> breathtakingly<br />

styled coupé captivates with its unique<br />

synthesis of power development, consumption,<br />

cruising range and travel ability.<br />

300-HP, lightweight and<br />

direct-shift gearbox<br />

Although the Artega GT manufactured in an<br />

exclusive small series, is not a super sports<br />

car, with its vehicle dynamics it can certainly<br />

compete with them, and also has<br />

excellent long-distance and everyday qualities.<br />

With the exception of the 300 HP V6<br />

and sporty comfortable manual gearbox<br />

(both made by VW) everything on the<br />

Artega is new.<br />

<strong>The</strong> Elastogran experts were tasked to create<br />

the carbon fiber-reinforced PU component<br />

in the race-tested material combination<br />

of aluminium and high-tensile steel. <strong>The</strong> PU<br />

lightweight frame and body was developed<br />

in close co-operation with Elastogran. Today<br />

it is manufactured by expert partners such<br />

as Erwin Friedmann Kunststoffwerk GmbH<br />

20


Automotive<br />

(Offenburg, Germany) and Automobil- und<br />

Kunststofftechnik GmbH (Hörselberg, Germany).<br />

<strong>The</strong> mudgards, rear end, front and side parts<br />

of the sports car are made out of Elastolit ® ,<br />

the carbon fiber reinforced, microcellular PU<br />

system made by Elastogran. It stands out due<br />

to its enormous robustness and very good<br />

impact resistance even at extremely low temperatures.<br />

Thanks to the RIM technology<br />

(Reaction Injection Molding) established in<br />

frame-and-body construction, it is possible<br />

to realise thin prefabricated parts that have a<br />

distinct inherent rigidity. <strong>The</strong> low thermal expansion<br />

coefficient of the fiber reinforced<br />

Elastogran PU system ensures a high accuracy<br />

of fit and an extreme dimensional stability<br />

under heat. Due to its high surface quality<br />

the lightweight construction material is ideally<br />

suited for Class A finishes of visible freeform<br />

surfaces.<br />

For the PU body parts of the Artega manufactured<br />

with the RIM method the twocomponent,<br />

liquid and highly reactive PU<br />

system Elastolit is injected into a closed<br />

tool within the space of one second. After<br />

15 to 30 seconds consistently high quality<br />

finished components are demolded.<br />

Removed <strong>from</strong> the mold<br />

after 15 to 30 seconds<br />

Unlike in conventional injection molding<br />

processes PU RIM materials maintain a low<br />

viscosity and therefore possess an excellent<br />

flowability during the reaction time.<br />

<strong>The</strong>se facts are key to the production of<br />

complicated component geometries and<br />

sophisticated designs.<br />

Car body part made<br />

of Elastolit ® , the<br />

carbon fiber reinforced,<br />

microcellular<br />

PUR system of the<br />

Elastogran company<br />

(<strong>BASF</strong>-Group)<br />

BACKGROUND<br />

Technical data of the Artega GT<br />

Engine: rear-mounted V6<br />

with direct-fuel injection<br />

Engine capacity: 3.597 ccm,<br />

220 kW (300 HP)<br />

Dry weight: 1.116 kg<br />

Power-to-weight ratio: 3.72 kg/HP<br />

Transmission: 6-speed direct-shift gearbox<br />

Acceleration: 4.8 sec (0 to 100 km/h)<br />

Maximum speed: 270 km/h<br />

Consumption according to EU standard:<br />

8.9 liters (Super Plus grade)<br />

CO 2<br />

emissions: 211 g/km<br />

Dimensions (LxWxH): 401 x 188 x 118 cm<br />

Price: 75,000 euros<br />

21


Sport<br />

Visionary shoe made<br />

of polyurethane: PURE 1.0<br />

Concept shoe shows the potentials of PUR<br />

With the premiere of the concept shoe<br />

PURE 1.0 Elastogran has created a<br />

true surprise. From heel to sole, <strong>from</strong> tip to<br />

clasp: the futuristically designed study is<br />

made of 100 per cent polyurethane (PU).<br />

That is to say over a dozen PU applications<br />

demonstrated the technical and optical<br />

finesses which are feasible thanks to polyurethane.<br />

Over a dozen applications<br />

It took less than a year <strong>from</strong> the initial sketches<br />

to the birth of the “All-PU-Shoe“. PURE<br />

concentrates the comprehensive competence,<br />

cumulative knowledge and decades of experience<br />

of Elastogran, the <strong>BASF</strong> subsidiary<br />

specialized in Polyurethanes, in one product.<br />

Together with selected experts of the shoe<br />

industry <strong>from</strong> all over Europe specialists in<br />

the fields of polyurethane systems and thermoplastic<br />

PU have developed the design,<br />

feel and material variances of the more than<br />

a dozen individual parts.<br />

<strong>The</strong> manifold applications involved range<br />

<strong>from</strong> Elastopan-Climate Control, Keep Walking<br />

and Gel Comfort to Elastollan Supersoft,<br />

Non Woven and Breathable Film.<br />

“Even experts who know polyurethane well<br />

have discovered new applications and are<br />

very interested in our proposals“, say<br />

Dr. Diedrich Brand and Martin Vallo <strong>from</strong><br />

Elastogran, the project leaders who have<br />

driven the concept in co-operation with wellknown<br />

names of the shoe industry.<br />

Ideas for future shoes<br />

Dr. Uwe Hartwig, Group Vice President <strong>BASF</strong><br />

Polyurethanes Europe, who initiated the development<br />

of this study, explains the concept:<br />

“PURE is a vision of the polyurethane shoe<br />

of the future. It demonstrates in an impressive<br />

way the enormous design and development<br />

potential of polyurethane. <strong>The</strong> study also<br />

shows that we can put ourselves in the position<br />

of our <strong>customer</strong>s, understand their<br />

problems and requirements and develop<br />

intelligent targeted solutions for them.”<br />

BACKGROUND<br />

Awarded twice for Design<br />

<strong>The</strong> “IF International Forum<br />

Design“ honoured the<br />

Elastogran Concept Shoe<br />

with the “iF material award<br />

<strong>2009</strong>”. With this prize the<br />

International Forum paid<br />

tribute to its “innovative<br />

design; for without new material combinations<br />

and developments it will not be<br />

possible to generate novel products”.<br />

<strong>The</strong> invitation competition “Design Plus<br />

Material Vision“ by the German Design<br />

Council, rewarded the concept of the<br />

PURE with the “design plus” award. This<br />

prize is endowed for exceptional and<br />

highly innovative design. <strong>The</strong> German<br />

Design Council, founded in 1953, is<br />

one of the world’s leading competence<br />

centres for communication and<br />

knowledge transfer in design.<br />

22


Sport<br />

Green as grass<br />

but less sensitive<br />

A cushioning layer made of Neopolen for artificial turf<br />

<strong>The</strong> landscape at the training grounds of<br />

SpVgg Bayreuth, a German regional<br />

league football club, resembles a giant<br />

puzzle: the entire area is covered by hundreds<br />

of panels made of Neopolen ® P<br />

– <strong>BASF</strong>’s expanded polypropylene (EPP) –<br />

each measuring about one square meter.<br />

<strong>The</strong>y are shaped like puzzle pieces so that<br />

they can easily be joined together. Workers<br />

then roll out four-meter long strips of verdant<br />

green artificial grass over the panels and<br />

glue the individual strips to each other.<br />

First place made of XL TURF in Germany<br />

This is how Germany’s first football pitch<br />

made of artificial turf manufactured by the<br />

Swiss company XL TURF came into being;<br />

<strong>BASF</strong>’s foam Neopolen P played a major<br />

role in this undertaking. <strong>The</strong> new turf not<br />

only looks good but is also very durable,<br />

easy to maintain and comfortable: the<br />

20 mm-thick cushioning layer made of<br />

Neopolen absorbs the energy generated as<br />

the players run around on the field and it<br />

only gradually releases this energy. This is<br />

gentle on the joints of players,” explains<br />

Albert Beerli, the inventor and CEO of<br />

XL TURF.<br />

Artificial grass will become an increasingly<br />

important alternative in football stadiums<br />

since nowadays, playing fields are subject<br />

to ever greater wear and tear. More and<br />

more teams are training in the clubs, and<br />

on top of it all, they want to play in winter<br />

and summer. Only with intense maintenance<br />

and high expenditures can natural grass<br />

withstand the onslaught of the hordes of<br />

kids, adults and seniors who flock onto the<br />

fields.<br />

And yet, many clubs continue to shy away<br />

<strong>from</strong> switching over to artificial grass. “This<br />

has a lot to do with the way the shock absorption<br />

of fields is handled,” explains<br />

Beerli. Conventional artificial-turf pitches are<br />

in-filled with sand or rubber granules that<br />

are only applied after the turf has been laid.<br />

Like the clay on a tennis court, the granules<br />

shift over the course of time, which has a<br />

detrimental impact on the evenness of the<br />

field and thus on its playing characteristics.<br />

Ultimately, the entire surface has to be replaced<br />

and the old one has to be properly<br />

disposed of, all at great expense. With XL<br />

TURF, there is no need for such a complete<br />

overhaul. Individual pieces can be simply<br />

cut out with a carpet knife and replaced.<br />

Thanks to the outstanding recovery capacity<br />

of Neopolen, even such partial replacement<br />

is only necessary after 10 years at the<br />

earliest. Consequently, XL TURF’s service<br />

life is about four times longer than that of<br />

conventional artificial turf, so that the slightly<br />

higher acquisition costs are quickly recouped.<br />

Suitable for tennis, football<br />

and playgrounds<br />

XL TURF can be used not only in football<br />

pitches but also on tennis courts and playgrounds.<br />

<strong>The</strong> thickness and density of the<br />

shock-absorption layer made of Neopolen<br />

is adapted to the particular application so<br />

that the playing speed is not adversely affected.<br />

In Germany, the business potential<br />

is greatest for football. <strong>BASF</strong> anticipates that,<br />

in the future, as many as 50 fields per year<br />

will undergo a “facelift” with XL TURF.<br />

www.xlturf.ch<br />

www.neopolen.com<br />

23


Region<br />

Republic of Croatia Austria<br />

Republic of Bulgaria<br />

Republic of Albania Slovenia<br />

A region on the move<br />

During the last years, the economy of Central Europe has grown at cyberspeed.<br />

Also in the fast lane: the local <strong>plastics</strong> industry<br />

<strong>The</strong> construction cranes that dot the skyline<br />

of many Central European cities like<br />

Warsaw, Bucharest and Prague announce<br />

the emergence of this region stretching <strong>from</strong><br />

the Baltic Sea to the Black Sea. Since the<br />

political changes of 1989, no other region in<br />

Europe has seen such high growth rates.<br />

Whereas the gross domestic product in the<br />

euro zone rose by 2.5 percent in 2008, Central<br />

Europe experienced a growth of 4 percent.<br />

More and more Western European companies<br />

are taking advantage of this opportunity to<br />

invest in the region. Central Europe’s proximity<br />

to the established Western European<br />

market and to the new Eastern European<br />

market makes it an attractive production<br />

location for foreign companies. Besides, a<br />

skilled labor force, moderate wages and low<br />

taxes speak for themselves.<br />

Skilled technical personnel, low taxes<br />

Within the scope of the eastern enlargement<br />

of the European Union, several nations that<br />

have joined the EU since 2004 – Poland, the<br />

Czech Republic, Slovakia, Hungary, Romania,<br />

Bulgaria and Slovenia – are all places<br />

where <strong>BASF</strong>’s Business Center Europe<br />

Central has operations. <strong>The</strong>se countries<br />

have not only dismantled bureaucratic<br />

hurdles and increased foreign direct investments<br />

(FDI), but they also offer good prospects<br />

for the <strong>plastics</strong> industry in the region:<br />

the annual per capita consumption of <strong>plastics</strong><br />

in Central Europe amounts to approximately<br />

50 percent of the value in the Western<br />

markets. “Consequently, there is still a<br />

lot of room for growth. Even if the effects of<br />

the global economic crisis are certainly perceptible<br />

at the moment since a high percentage<br />

of the <strong>plastics</strong> production is earmarked<br />

for export, the long-term forecasts for this<br />

region remain good,” explains Stefan Rotter,<br />

<strong>BASF</strong> head of sales for engineering <strong>plastics</strong><br />

in Central Europe.<br />

Luran S and polystyrene are used for the frame of the porthole<br />

doors of washing machines and the linings of refrigerators<br />

Slovenia: Gorenje household<br />

products conquer<br />

the Western European<br />

market<br />

Aspiring domestic companies are responsible<br />

for a growing demand for polymers<br />

in Central Europe. <strong>The</strong>se include Gorenje, a<br />

Slovenian manufacturer of large household<br />

appliances, which exports 90 percent of<br />

its products. <strong>BASF</strong>’s assortment of<br />

<strong>plastics</strong> has numerous application<br />

possibilities: polystyrene is used for<br />

the linings of refrigerators, Luran ® (SAN)<br />

for the frame of the porthole doors of<br />

washing machines, foams for safe<br />

transportation of the products and PUR<br />

foams as insulating material. “<strong>The</strong> collaboration<br />

with Gorenje has been extraordinary.<br />

In recent years, our joint<br />

activities have increased markedly,”<br />

reports Mihael Vodenik, in charge of<br />

polystyrene <strong>plastics</strong> in Slovenia and<br />

Croatia.<br />

24


Region<br />

Slovakia<br />

Kosovo<br />

Serbia<br />

PL<br />

BACKGROUND<br />

Central Europe<br />

(Business Center <strong>BASF</strong>)<br />

<strong>The</strong> region: 15 countries located between<br />

the Baltic Sea and the Black Sea (Poland,<br />

Austria, Czech Republic, Slovakia, Hungary,<br />

Romania, Bulgaria, Slovenia, Croatia,<br />

Serbia, Kosovo, Montenegro, Bosnia and<br />

Herzegovina, Albania, Macedonia)<br />

Languages: 13<br />

Currencies: 11<br />

Inhabitants: 130 million<br />

GDP growth in 2008: 4 percent<br />

CZ<br />

SK<br />

AT<br />

H<br />

SLO<br />

HR<br />

BiH SRB<br />

MNE KS<br />

MK<br />

AL<br />

RO<br />

BG<br />

Czech Republic: Automotive-interior made<br />

of polyamide and polyurethane<br />

Along with ongoing economic growth, the<br />

consumption of <strong>plastics</strong> in the Czech<br />

Republic has also risen by an average of six<br />

to seven percent in recent years, reaching a<br />

figure of almost 800,000 tons in 2008.<br />

<strong>The</strong> industries generating the highest demand<br />

are multinational OEMs and their suppliers.<br />

Hyundai and Kia, for instance, have opened<br />

new production sites in the Czech-Slovakian<br />

border region. <strong>The</strong> entire European market<br />

will be supplied <strong>from</strong> there.<br />

Reducing weight with Ultramid<br />

<strong>BASF</strong> engineering <strong>plastics</strong> are now being used<br />

in the Czech Republic in the Skoda Octavia<br />

and the Skoda Superb. Cadence Innovation,<br />

a <strong>BASF</strong> <strong>customer</strong>, develops and produces the<br />

armrests for these car models. <strong>The</strong> pivoting<br />

arm and the sliding block, which serve to position<br />

the armrest, are made of fiberglass-reinforced<br />

Miramid ® , the base of<br />

Ultramid ® – both are <strong>BASF</strong> polyamides. <strong>The</strong>se<br />

materials replace aluminum, thus reducing<br />

costs and weight while also cutting the CO 2<br />

emissions.<br />

Investments for a prompt and competent<br />

local sercive<br />

<strong>The</strong> automotive supplier industry as well as<br />

many other branches of industry are also the<br />

driving force behind the demand for polyurethane<br />

(PU) system solutions in Central Europe.<br />

<strong>The</strong>se are used in cars, for example, in dashboards,<br />

in car bodies as well as in head-rests<br />

and seats. <strong>BASF</strong> is the leading supplier of PU<br />

system solutions world-wide and, in Central<br />

and Eastern Europe, it already has production<br />

sites in Hungary and Russia. In order to meet<br />

In the PU System Houses of <strong>BASF</strong> for example<br />

dashboards are manufactured<br />

the requirements of the fast-growing markets<br />

in the Czech Republic, Slovakia and Poland,<br />

<strong>BASF</strong>’s subsidiary Elastogran will start up<br />

two new PU System Houses in Bratislava and<br />

Poznan. Like all other System Houses, these<br />

two have production, sales and development<br />

units so that they can offer <strong>customer</strong>s fast<br />

and competent local service. “With these<br />

investments, we are solidifying our leading<br />

position in polyurethanes and demonstrating<br />

to our <strong>customer</strong>s that we will be there for<br />

them as they grow in all regions of the globe,”<br />

explains Jonathan Mawbey, responsible for<br />

the construction of the new PU System<br />

Houses.<br />

25


Region<br />

Republic of Hungary Montenegro Romania Czech Republic Poland<br />

<strong>The</strong> speciality<br />

plastic Terlux adds<br />

a splash of colour<br />

to Zelmer’s vacuum<br />

cleaners<br />

Poland: Putting electrical devices<br />

in a brilliant perspective<br />

With its 38 million inhabitants, Poland<br />

is the largest sales market for <strong>plastics</strong><br />

in Central Europe: Since Poland joined the<br />

European Union, its demand for <strong>plastics</strong><br />

has almost doubled, allowing it to surpass<br />

the Scandinavian region in <strong>plastics</strong> processing.<br />

<strong>The</strong> demand is being<br />

driven primarily by<br />

the packaging<br />

and construction<br />

industries;<br />

Poland<br />

is using<br />

approximately<br />

30<br />

percent of<br />

its thermo<strong>plastics</strong><br />

as<br />

it improves its<br />

infrastructure to<br />

catch up with the rest<br />

of the European Union. This<br />

country is on the move, as can be<br />

seen <strong>from</strong> the fact that Poland and the<br />

Ukraine have been chosen to host the European<br />

Football Championship in 2012.<br />

This means that <strong>plastics</strong> will play a crucial<br />

role in the construction of new stadiums in<br />

Warsaw and Gdansk for the European<br />

championship.<br />

<strong>The</strong> electrical and electronics industry is<br />

another major market for <strong>plastics</strong> in Poland.<br />

An up-and-coming Polish company in this<br />

sector is Zelmer, which manufactures<br />

vacuum cleaners and small kitchen appliances.<br />

Zelmer has already been recognized<br />

a number of times for its product design<br />

and advertising, receiving the Good Design<br />

Award and the Effie Award in 2007.<br />

Terlux and Luran S create mother-ofpearl<br />

effects and deep colors<br />

<strong>BASF</strong> <strong>plastics</strong> such as Terlux ® (MABS) or<br />

Luran ® S (ASA) ensure that Zelmer’s products<br />

are making such a brilliant impression.<br />

Terlux is used for the cover of the Zelmer<br />

vacuum cleaners. Extraordinary visual effects<br />

can be realized with this specialty<br />

plastic: deep colors, mother-of-pearl or<br />

glitter effects. Moreover, Terlux is easy to<br />

process and can be printed on without difficulty.<br />

<strong>The</strong> UV resistance of Luran S translates<br />

into household products with longlasting,<br />

glossy colors.<br />

No yellowing of<br />

household products<br />

with Luran S and its<br />

extraordinary ultraviolet<br />

resistance<br />

26


Region<br />

Bosnia<br />

Republic of Macedonia<br />

Croatia: Clear view<br />

in ticklish situations<br />

U ltrason® , a PESU (polyether sulfone) made<br />

by <strong>BASF</strong>, is being used in an exceptional<br />

application in Croatia. <strong>The</strong> Croatian<br />

company PAB, a manufacturer of safety equipment,<br />

is employing the highly transparent<br />

variant of this material for the visor of its<br />

highly heat-resistant firefighting helmet FIRE<br />

HT 04. Together with the visor, this helmet<br />

has to be able to withstand a temperature of<br />

250°C [482°F] for 30 minutes, and even 1000°C<br />

[1832°F] for 10 seconds. Ultrason E, with its<br />

glass transition temperature of 225°C [437°F],<br />

is superbly suited for this purpose. This plastic<br />

also stands out for its inherent fire safety<br />

and its high resistance to breaking.<br />

Ultrason E typically has an intrinsic yellow<br />

color and would actually have been unsuitable<br />

for the helmet visor. But <strong>BASF</strong> has succeeded<br />

in optimizing the production conditions<br />

for the manufacture of a highly transparent<br />

variant of this material: the new Ultrason<br />

E2010 HC. “Our cooperation<br />

with PAB exemplifies the efforts<br />

of our employees to<br />

find the right plastic for<br />

every application,” explains<br />

Bogdan Konec,<br />

in charge of engineering<br />

<strong>plastics</strong> in Croatia<br />

and Slovenia.<br />

10 seconds,<br />

1000 °C [1832°F]:<br />

<strong>The</strong> helmet visor<br />

made of Ultrason<br />

E2010 HC is able<br />

to cope with these<br />

extreme conditions<br />

Three questions to …<br />

Stefan Rotter, <strong>BASF</strong>’s head of sales for<br />

engineering <strong>plastics</strong> in Central Europe<br />

What is the impact of the present economic crisis<br />

on the situation in Central Europe?<br />

This crisis is inhibiting economic growth and hampering investment<br />

activities of Western European producers of <strong>plastics</strong> parts<br />

in the region since capacities are not being fully utilized. Nevertheless,<br />

we would like to take advantage of the opportunities<br />

afforded by this slowdown period. For example, we are talking<br />

with potential <strong>customer</strong>s whose plants are not running at full<br />

throttle right now so that we can move forward with producing<br />

samples and obtaining approvals for our products. Moreover,<br />

<strong>customer</strong>s can now make greater use of our applications consultancy<br />

for product design, be it to optimize injection-molding<br />

processes or regarding our expertise in the virtual development<br />

of plastic components – a tool which has recently been named<br />

Ultrasim TM (see more page 14)<br />

What strategy is <strong>BASF</strong> pursuing for the Central<br />

European market?<br />

Our highest priority is to be available to our <strong>customer</strong>s locally.<br />

That way, we can promptly and efficiently handle and meet<br />

their needs and desires in today’s difficult environment. Customers<br />

can consult with experienced account managers who<br />

speak the language of the country and who can tap into the<br />

know-how available within <strong>BASF</strong>’s worldwide integrated network.<br />

This locally available <strong>customer</strong> management allowed us<br />

to achieve two-digit annual growth rates in Central Europe<br />

between 2006 and 2008.<br />

In the past, Poland and the Czech Republic have been<br />

the driving forces behind the growth in the region. In your<br />

opinion, which countries will play a major role in Central<br />

Europe in the future?<br />

<strong>The</strong> Polish and Czech economies are quite robust at a high<br />

level. <strong>The</strong> know-how of their employees continues to make<br />

these countries attractive. Since Poland is comparatively less<br />

dependent on the automotive industry, it could recover more<br />

quickly. As a result, the relative significance of the Central European<br />

<strong>plastics</strong> industry within the overall European market<br />

will continue to rise.<br />

27


Building + Construction<br />

Swimming quietly<br />

<strong>The</strong> Beijing swimming<br />

stadium is also named<br />

„Water Cube“<br />

<strong>BASF</strong> specialty foam as decorative and functional sound<br />

protection in the Beijing swimming stadium<br />

<strong>BASF</strong>’s specialty foam Basotect ® is being<br />

used in the Beijing swimming stadium<br />

in order to clad the interior of the<br />

building with flame-retardant and environmentally<br />

friendly acoustic insulation. <strong>The</strong><br />

National Aquatics Center has been fitted<br />

with a specially developed ceiling structure<br />

made of large Basotect panels that not<br />

only provide sound protection but fulfill additional<br />

prerequisites: <strong>The</strong> lightweight panels<br />

blend in with the architectural design<br />

and meet the environmental requirements.<br />

<strong>The</strong>y are load-bearing, flame-retardant and<br />

able to withstand high levels of humidity.<br />

<strong>The</strong> first competitions to take place in the<br />

stadium were the swimming competitions<br />

of the Olympic Games in 2008.<br />

Novel and invisible<br />

cladding construction<br />

<strong>The</strong> <strong>BASF</strong> melamine resin foam stands out<br />

for its extraordinary acoustic properties.<br />

Thanks to its open-cell and fine foam structure,<br />

the sound-absorption values in the<br />

medium and high frequency ranges are<br />

particularly good. Moreover, the lightweight<br />

material is easy to process. For instance,<br />

the ventilation conduits under the ceiling<br />

were wrapped in such a way that the suspension<br />

structure for the cladding is not<br />

visible.<br />

<strong>The</strong> installation is made of Basotect panels<br />

of different sizes, some of which span more<br />

than two meters. Securing these panels over<br />

such a distance called for their reinforcement<br />

with tubes. This resulted in a novel construction<br />

that is sufficiently stiff and can expand<br />

in response to temperature fluctuations. <strong>The</strong><br />

entire installation was tested for its loadbearing<br />

capacity, sound protection and fire<br />

safety in a series of examinations. <strong>The</strong> company<br />

Entech (Shanghai) has processed the<br />

Basotect panels for this purpose.<br />

www.basotect.com<br />

28


White and certified:<br />

Palusol fire-protection<br />

panels on the<br />

inside of doors<br />

Building + Construction<br />

On the safe side<br />

BACKGROUND<br />

Preventive fire protection<br />

Palusol SW fire-protection panels certified<br />

according to British standard<br />

Palusol fire-protection panels have been<br />

officially approved for use in construction<br />

for over 30 years; they are rated A2<br />

in accordance with German standard<br />

DIN 4102 and provide passive fire<br />

protection, for example, in fire doors,<br />

fire-retardant glazing, safety cabinets<br />

and fireproof bulkheads. Palusol consists<br />

essentially of sodium silicate and<br />

glass fibers that are coated with epoxy<br />

resin and cured. At temperatures above<br />

100°C [212°F], the panels expand under<br />

foaming pressure, giving rise to a finecell,<br />

compression-resistant, non-flammable<br />

and thermally insulating foam.<br />

This foam then fills joints and gaps, thus<br />

preventing the propagation of heat, fire<br />

and smoke for a certain period of time.<br />

<strong>BASF</strong>’s Palusol ® S W fire-protection<br />

panels have now been certified according<br />

to the British standard: fire-protection<br />

doors made with Palusol SW have been<br />

successfully tested for their capacity to<br />

withstand fire for 30 and 60 minutes. Thanks<br />

to the approval obtained by <strong>BASF</strong>, door<br />

manufacturers that supply markets with<br />

British fire-protection standards can now<br />

save money when it comes to their own<br />

development work and the statutory firesafety<br />

testing of their doors.<br />

Withstand fire for 30 and 60 minutes<br />

In Europe, door manufacturers have to test<br />

the fire safety of every type of door. <strong>The</strong><br />

stipulations vary <strong>from</strong> country to country.<br />

With the British approval of Palusol SW, that<br />

is to say, Palusol fire-protection panels as a<br />

sandwich system with high-density fiberboard<br />

(HDF), different types of doors can be produced<br />

and different fire-protection stipulations<br />

can be met. <strong>The</strong> certificates pertain to<br />

British Standard 476 (Part 22) and apply to<br />

single-leaf and double-leaf doors. All of the<br />

certificates are based on the testing of real<br />

paneled doors (flat or raised and fielded).<br />

<strong>The</strong> door systems that withstand fire for 30<br />

and 60 minutes were tested and certified in<br />

softwood layout.<br />

Only HDF panels belonging to Emission Class<br />

E1/E0 and having a formaldehyde limit<br />

value of 0.1/0.05 ppm go into Palusol SW.<br />

www.palusol.com<br />

Feelgood factor for terraces and verandas<br />

With Luran S: UV-resistant and unaffected by the environment<br />

Warm colors, a natural texture, matte<br />

gloss: wooden floors lend a very special<br />

ambience not just for indoor rooms but also<br />

for outdoor verandas and terraces. In the<br />

USA, many homeowners create their own<br />

decks: a wooden terrace which – often built<br />

on stilts – extends out into the garden.<br />

However, traditional wooden floorboards<br />

require a great deal of care: sanding, sealing,<br />

and repeated painting or staining. Recent<br />

advancements in wood plastic composite<br />

decks create a smooth surface, but over time<br />

they tend to fade in color and stain.<br />

Elegance and functionality combined<br />

Anyone who still wishes for the ambience of<br />

wood will find that Genovations TM is the perfect<br />

choice. <strong>The</strong>se PVC deckboards made<br />

by the American company, Genova, combine<br />

elegance with great functionality: eliminating<br />

warpage, breakage, splitting, and staining.<br />

<strong>The</strong>ir outstanding resistance to the effects<br />

of weathering comes <strong>from</strong> the plastic Luran ® S<br />

(ASA), a styrene-acrylonitrile copolymer <strong>from</strong><br />

<strong>BASF</strong>, impact-modified with acrylic ester<br />

rubber. “Genovations is based on coextrusion<br />

technology: <strong>The</strong> PVC substrate gives<br />

the deckboard its strength, but it is coated<br />

with a thin layer of Luran S, which adds the<br />

finishing touch“, says Joe Lynch, Business<br />

Director for the Luran S ASA product line in<br />

Florham Park (USA, New Jersey).<br />

<strong>BASF</strong> and Genova worked closely together<br />

to develop this new floor covering, which is<br />

available in four earth tone shades. “<strong>BASF</strong>’s<br />

advanced material technology and the expertise<br />

and assistance of their associates<br />

has been invaluable in the development of<br />

our next generation decking product”,<br />

stresses Dwight Van Steenkiste, CEO of<br />

Genova.<br />

No need for sanding, sealing or painting:<br />

PVC deckboards with a surface made of<br />

Luran ® S<br />

29


Building + Construction<br />

Get active, build a passive house<br />

<strong>BASF</strong> insulating materials contribute to energy savings<br />

passive house can make do without conventional<br />

heating and air-conditioning and<br />

A<br />

yet it stays cool in the summer and warm in<br />

the winter. Passive houses not only save energy<br />

but have also been proven to offer a<br />

better living climate than conventional buildings.<br />

A bill currently before the European Union<br />

calls for the passive-house standard to become<br />

the mandatory energy standard required of<br />

all new construction in the future. Typical aspects<br />

of this construction technique are wellinsulated<br />

building shells and an ingenious<br />

ventilation and heat-recovery system. <strong>The</strong><br />

energy expenditures are low and, as defined<br />

by the Passive-House Institute in Darmstadt,<br />

Germany, the total primary energy used to<br />

generate supplementary heat and to supply<br />

hot water and electricity has to be less than<br />

120 kWh per square meter per year.<br />

One of the first passive houses with a load-<br />

bearing wooden structure consisting of stacked<br />

board elements and façade insulation using<br />

<strong>BASF</strong>’s Neopor ® has now been completed.<br />

Timber construction of<br />

a passive house using Neopor<br />

New Neopor plant started up<br />

<strong>BASF</strong> has started up its new plant for<br />

Neopor ® in Ludwigshafen, Germany. <strong>The</strong><br />

plant has a yearly production capacity of<br />

90,000 metric tons and works with a new<br />

process: In contrast to the suspension<br />

method employed so far, the extrusion<br />

process of the new plant will yield more<br />

uniformly sized granules and will permit<br />

a targeted setting of the panel properties,<br />

e.g. compression resistance.<br />

This free-standing duplex house, which is<br />

located in the town of Weinheim, in the German<br />

state of Baden-Württemberg, has a<br />

stacked board wall that is exposed on the<br />

inside and, thanks to its arched roof that makes<br />

a transition to a slanted wall, it efficiently utilizes<br />

the construction space available. <strong>The</strong><br />

thermal insulation composite system made of<br />

Neopor (EPS: expandable polystyrene) is a<br />

mere 30 centimeters thick and has a very high<br />

insulating capacity. This is why the panels are<br />

as much as 20 percent thinner than those<br />

made of conventional EPS. Neopor is instrumental<br />

in reducing heat losses and in lowering<br />

CO 2<br />

emissions. This certified passive house<br />

has a supplementary heat demand of 13 kWh<br />

per square meter per year, which corresponds<br />

to a heating value of 1.3 liters of heating oil.<br />

Interior insulation no longer necessary<br />

Model of a passive<br />

house with a<br />

timber construction<br />

and Neopor<br />

insulation<br />

An arched roof and an east wall that is slanted<br />

by 5° towards the outside give this house<br />

the silhouette of a traditional German wicker<br />

beach chair while also optimally utilizing the<br />

space available. This house demonstrates<br />

that the thermal insulation composite system<br />

made of Neopor is simpler and faster to install<br />

on the smooth wood construction than other<br />

insulating materials are. Moreover, Neopor<br />

makes interior insulation superfluous: the<br />

exposed wood walls inside the house, together<br />

with the ventilation system, ensure a<br />

comfortable living climate.<br />

As is typical of passive houses, the living areas<br />

Miniature passive house on its travels<br />

<strong>The</strong> mobile energy-saving<br />

house<br />

(MESH) shows<br />

<strong>BASF</strong> insulating<br />

products at trade<br />

fairs<br />

<strong>BASF</strong> and partners present the Mobile Energy-Saving House at trade fairs<br />

In <strong>2009</strong>, <strong>BASF</strong> will be sending the Mobile Energy-Saving<br />

House (MESH) out on its travels across<br />

Germany. It is designed to be a passive house<br />

and, over an area of 24 square meters, offers all<br />

of the relevant solutions required for the design<br />

of such a low-energy house: innovative insulation<br />

with the <strong>BASF</strong> products Neopor ® and Styrodur ® C,<br />

intelligent air-conditioning technology and energysaving<br />

windows. <strong>The</strong> partners for the MESH are<br />

r-m-p architects (Mannheim), the window and door<br />

manufacturer Ludwig Häußler GmbH (Speyer), the<br />

building systems provider Nilan Deutschland<br />

GmbH (Rödental), the manufacturer of stay-inplace<br />

formwork and floor panels with Styrodur C<br />

Lohr Element (Gemünden). Inholz GmbH (Mannheim)<br />

has built MESH.<br />

30


Building + Construction<br />

Cross section of<br />

a roller shutter<br />

casing with<br />

Basotect thermal<br />

insulation<br />

Insulation of roller shutter casings<br />

with the <strong>BASF</strong> foam Basotect<br />

In order to retrofit roller shutter casings with<br />

thermal and acoustic insulation, BOSIG<br />

GmbH, Germany, has turned to <strong>BASF</strong>’s<br />

Basotect ® . This lightweight, flame-retardant<br />

foam is used in the Rolaflex ® system, which<br />

simply and cost-effectively provides built-in<br />

or walled-in roller shutter casings with energy-efficient<br />

thermal and acoustic insulation.<br />

Thus, Basotect is making a contribution towards<br />

meeting the standards for passive and<br />

low-energy houses. So homeowners can<br />

lower their heating costs and reduce CO 2<br />

emissions.<br />

<strong>The</strong> gray, specially coated Basotect strips<br />

have a thermal conductivity of < 0.035 W/m•K,<br />

so they reliably prevent so-called thermal<br />

bridges, in other words, heat losses that can<br />

occur when roller shutter casings are inadequately<br />

insulated. This measure also improves<br />

the living climate, eliminates drafts and reduces<br />

sound transmission.<br />

Quick installation<br />

Moreover, it prevents mold growth on the walls<br />

due to condensation brought about by wide<br />

fluctuations in temperature. Rolaflex is quick<br />

and easy to apply: the roller shutter casings<br />

are lined with one or more layers of Basotect<br />

and the strips are fastened with a pasty, solventfree<br />

adhesive. It is not necessary to replace<br />

the windows or roller shutter casings.<br />

www.basotect.com<br />

and bedrooms are ventilated with fresh air that<br />

flows through the halls and is exhausted <strong>from</strong><br />

the bathrooms and kitchen. <strong>The</strong> woodaluminum<br />

composite windows are tripleglazed.<br />

<strong>The</strong> basement is made of precast<br />

concrete components and is insulated with<br />

<strong>BASF</strong>’s compression-resistant and waterrepellant<br />

polystyrene Styrodur ® C (XPS) rigid<br />

foam panels. <strong>The</strong>y serve as perimeter insulation<br />

under the foundation slab and in the area<br />

that comes into contact with the ground. All of<br />

these measures contribute towards making<br />

this house largely independent of fossil fuels.<br />

Styrodur C<br />

panels for<br />

sophisticated<br />

construction<br />

projects<br />

www.mesh.basf.com<br />

Official approval for multilayer XPS<br />

under foundation slab<br />

<strong>The</strong> German Institute for Construction<br />

Technology (Deutsches Institut für Bautechnik),<br />

Berlin has given its official approval<br />

to multiple layers of <strong>BASF</strong>’s Styrodur ® 3035 CS,<br />

Styrodur 4000 CS and Styrodur 5000 CS<br />

used under the foundation slab. For the first<br />

time, this approval extends the use of the<br />

green extruded polystyrene rigid foam panels<br />

(XPS) to two or three layers as load-bearing<br />

thermal insulation under the foundation slab.<br />

<strong>The</strong> thickness of each sheet can be up to<br />

120 mm, the total thickness of the insulation<br />

layer can be up to 300 mm. <strong>The</strong> multiple layers<br />

of high compressive strength Styrodur C<br />

can provide a simpler and less expensive<br />

solution in demanding construction applications<br />

with stringent thermal insulation requirements,<br />

for example passive houses.<br />

31


Household + Living<br />

Vegetation as inspiration<br />

Miramid plastic in the Vegetal chair made by Ronan and Erwan Bouroullec for Vitra<br />

It is called Vegetal, looks like an exotic<br />

plant, can also be used prosaic as a chair<br />

for indoor as well as outdoor. <strong>The</strong> new object<br />

was created by designers Ronan and<br />

Erwan Bouroullec in co-operation with Vitra,<br />

the renowned Swiss furniture manufacturer.<br />

<strong>The</strong> chair is made entirely of <strong>BASF</strong>’s<br />

plastic Miramid ® by means of the so-called<br />

GIT process, a special injection molding<br />

technique. Since mid-<strong>2009</strong> it is offered in<br />

six different colors.<br />

<strong>The</strong> chair and its idea<br />

In developing their new chair, the Bouroullec<br />

brothers were inspired by a<br />

fashion dating back to the beginning<br />

of the 20 th century: in<br />

North America, systematic<br />

pruning and painstaking<br />

care of young<br />

trees made them<br />

grow in the shape<br />

of chair-like<br />

structures.<br />

<strong>The</strong> central<br />

BACKGROUND<br />

<strong>BASF</strong>’s designfabrik: A service concept for design in <strong>plastics</strong><br />

Good design helps manufacturers differentiate<br />

their products <strong>from</strong> those of<br />

their competitors. With its service platform<br />

designfabrik, <strong>BASF</strong> is aiming to help<br />

its <strong>customer</strong>s to turn design ideas into<br />

successful products more quickly. <strong>BASF</strong><br />

assists designers in the various phases of<br />

product development: ranging <strong>from</strong> the<br />

idea phase to the concept phase up to the<br />

implementation phase. Co-operating with<br />

further <strong>BASF</strong> experts, the <strong>BASF</strong> industrial<br />

designers provide their <strong>customer</strong>s advice<br />

with regard to applications engineering<br />

and design geared towards plastic. <strong>The</strong>y<br />

also help to select the suitable processing<br />

method and to choose the right material.<br />

In the color library of the designfabrik<br />

designers looking for inspiration can find<br />

approximately 20,000 color samples with<br />

various haptics.<br />

www.designfabrik.basf.com<br />

element of the Vegetal chair is a seat shell<br />

that looks like branches of different thicknesses<br />

woven together. This universal chair<br />

lends itself for indoor and outdoor use,<br />

which is why it has to be made of very<br />

sturdy plastic.<br />

<strong>The</strong> plastic and<br />

its processing<br />

<strong>The</strong> creation of this weatherresistant<br />

designer chair called<br />

for a reinforced polyamide<br />

that, on the one hand, could<br />

be processed by means<br />

of the GIT method and<br />

that, on the other hand,<br />

could easily be dyed in<br />

the desired earth colors.<br />

This led to the choice<br />

of Miramid B3EG3<br />

GIT. <strong>The</strong> Miramid GIT<br />

grades in <strong>BASF</strong>’s<br />

range of engineering<br />

<strong>plastics</strong> are specially<br />

optimized for gas injection<br />

technology (GIT)<br />

and they meet the high<br />

requirements made in<br />

terms of the surface quality,<br />

even in special colorations.<br />

Gas injection technology<br />

allows the manufacture<br />

of very lightweight and yet<br />

stable plastic parts: after the<br />

classic injection-molding process,<br />

compressed air then blasts the<br />

not-yet hardened plastic out of<br />

certain portions of the chair structures,<br />

making the four legs and part<br />

of the seat shell of the Vegetal chair<br />

hollow and particularly stable. As<br />

a result, the chair weighs a mere<br />

5.5 kilograms.<br />

This sturdy and UV-resistant chair is<br />

made up of three components: the seat<br />

shell and the two front legs are formed in<br />

a single processing step while the two rear<br />

legs follow in a second step.<br />

www.miramid.com<br />

32


Household + Living<br />

From windshield wipers to coffee machines<br />

New Ultradur types for contact with food<br />

Spatulas, cans, coffee machines, candy<br />

bar wrappers – <strong>plastics</strong> find wide-spread<br />

use in the food sector. But before <strong>plastics</strong><br />

are allowed to be used here, they have to<br />

meet a number of statutory food-safety requirements<br />

laid down in EU regulations and<br />

directives and, particularly in Germany, in the<br />

Consumer Goods Act. <strong>BASF</strong> has developed<br />

several Ultradur ® types (PBT) that are specifically<br />

suited for contact with food products.<br />

Resists high temperatures<br />

to high temperatures and pressures, also<br />

electric kettles, deep fryer lids and packaging<br />

as well as toothbrush bristles. <strong>The</strong>se<br />

considerations also apply to the valves used<br />

in toilet flushing tanks since components<br />

that are part of the drinking water system<br />

also have to comply with all regulations<br />

pertaining to materials that come into contact<br />

with food. Uncompounded Ultradur<br />

BACKGROUND<br />

Legislation: high demands on <strong>plastics</strong><br />

can be employed in multilayered composite<br />

films for beverage cartons as well as for<br />

candy bar wrappers in combination with<br />

polypropylene. This material allows <strong>customer</strong>s<br />

to reduce the transparency of the packaging<br />

film as desired. Another conceivable<br />

application is the coating of aluminum coils<br />

with Ultradur for use in the production of<br />

beverage and food cans.<br />

Ultradur is an engineering plastic that, aside<br />

<strong>from</strong> being used in the automotive sector,<br />

is constantly making inroads into new areas<br />

of daily life such as household appliances,<br />

packaging films or coatings that come into<br />

contact with food. <strong>The</strong>re are three nonreinforced<br />

and undyed basic polymers<br />

(Ultradur B2550 FC, Ultradur B4500 FC and<br />

Ultradur B6550 FC) as well as compounded<br />

PBT grades for injection-release applications,<br />

including non-reinforced Ultradur ®<br />

B4520 FC with a mold-release agent and<br />

the fiberglass-reinforced Ultradur B4300<br />

G6 FC (30% glass fibers), which is also<br />

available with 20% glass fibers. A highly<br />

reinforced version with 50% glass fibers<br />

(G10) is still in the experimental stage. All<br />

of the reinforced products are offered undyed<br />

or in black.<br />

Typical areas of application are components<br />

of coffee machines that are briefly exposed<br />

Food-safety legislation is based on three sets<br />

of regulations that have to be observed for<br />

<strong>plastics</strong> that come into contact with food. As<br />

the basic set of regulations, (EC) Framework<br />

Regulation 1935/2004 stipulates the fundamental<br />

requirements made of materials and<br />

of articles intended to come into contact with<br />

food. (EC) Regulation 2023/2006/EU provides<br />

information about good manufacturing<br />

practices (GMP) for materials and articles intended<br />

to come into contact with food. This<br />

GMP regulation went into effect on August<br />

1, 2008. It requires a quality-assurance and<br />

quality-control system in every link of the<br />

delivery chain. <strong>The</strong> third set of regulations is<br />

EU Directive 2002/72/EC. It contains specific<br />

rules for <strong>plastics</strong> that come into contact with<br />

food: only monomers and additives listed<br />

there are approved for the manufacture of<br />

such <strong>plastics</strong>. In Germany, this directive has<br />

been implemented in the Consumer Goods<br />

Act (Bedarfsgegenstände-Verordnung).<br />

<strong>The</strong> <strong>plastics</strong> that <strong>BASF</strong> makes for the food<br />

sector have long been produced to meet<br />

high safety standards. Nevertheless, the new<br />

regulations require plastic manufacturers to<br />

select special materials, to additionally obtain<br />

approvals for these materials and to undertake<br />

even more comprehensive measures in<br />

terms of documentation and quality assurance.<br />

<strong>BASF</strong> provides its <strong>customer</strong>s with the<br />

requisite written certificates substantiating EU<br />

conformity. For applications that involve contact<br />

with food, <strong>BASF</strong> is now marketing GMP<br />

grades that bear the FC designation, indicating<br />

suitability for food contact. Almost all of<br />

these FC types have already received the applicable<br />

approvals <strong>from</strong> the Food and Drug<br />

Administration (FDA), which is required for the<br />

American market.<br />

33


Packaging<br />

Shrinking without wrinkles<br />

New serial application for Styrolux HS 70<br />

S tyrolux® HS 70, an innovation showcased<br />

at the K 2007 <strong>plastics</strong> trade fair in<br />

Düsseldorf, Germany, has now gone into<br />

one of its first serial productions in Europe,<br />

at AXIAL, an Italian film manufacturer. AXIAL<br />

has just started to produce shrink films made<br />

of <strong>BASF</strong>’s SBC (styrene butadiene copolymer),<br />

and is distributing the material to the<br />

main converters, not only in Italy.<br />

Shrink film without smile effect<br />

Sutter, e.g., an Italian producer of cleaning<br />

products, is using them to sleeve-wrap its<br />

bottles. AXIAL decided in favor of the new<br />

film material because of its optimized shrinkage<br />

behavior in comparison to the commercially<br />

available SBC/PS blends. Films made<br />

of the new material can reach final shrinkage<br />

values of up to 80 percent, which allows<br />

containers having a wide array of shapes to<br />

be tightly sleeve-wrapped. “Our <strong>customer</strong><br />

Sutter, which so far had shrink-wrapped its<br />

bottles with a PET shrink film, is now introducing<br />

our film made of Styrolux ® HS 70.<br />

This eliminates the so-called ‘smile effect’<br />

– folding, for example, at the neck of the<br />

bottle – that up to now had been encountered<br />

at the transition <strong>from</strong> large radii to small radii<br />

in objects having a complex geometry,”<br />

explains Marco Ruspa, technical manager<br />

at AXIAL. Moreover, this very lightweight<br />

material yields about 30 percent more film<br />

per kilogram of plastic than is the case with<br />

PVC or PET. Besides, unlike PET, Styrolux<br />

HS 70 does not require any pre-drying<br />

during processing, which means that<br />

this material is an energy-efficient and<br />

cost-effective alternative.<br />

www.basf.de/styrolux<br />

Thanks to<br />

Styrolux films:<br />

complex<br />

geometries<br />

without<br />

folds<br />

Milk on the light side<br />

Lightest half-liter polystyrene bottle in the world<br />

<strong>BASF</strong> recently succeeded in using a conventional<br />

stretch blow-molding machine<br />

to create the lightest half-liter polystyrene<br />

bottle ever: it weighs a mere 7.5 grams. This<br />

innovation project gave <strong>BASF</strong> the opportunity<br />

to see<br />

how extremely<br />

lightweight<br />

bottles for dairy<br />

products<br />

can be made of<br />

polysty-<br />

rene using stretch<br />

blow-molding methods. After all, less weight<br />

always translates into lower costs and less<br />

consumption of resources. Since polystyrene<br />

has a lower density than PET, it can be used<br />

to produce bottles that weigh<br />

less but have the same wall<br />

thickness. Owing to the special<br />

properties of this plastic, <strong>BASF</strong><br />

recommends the new polystyrene<br />

type (PS BX 3580) specifically for<br />

containers used for milk products.<br />

www.<strong>plastics</strong>portal.eu/polystyrol<br />

34


Packaging<br />

Well-anchored, no wobbling<br />

Stability on pallets: serial production of film for stretch hoods<br />

made of highly elastic Styroflex<br />

highly elastic styrene-butadiene copolymer<br />

(SBC) Styroflex ® 2G66 provided by<br />

A<br />

<strong>BASF</strong> is now also used in stretch hoods and<br />

protecting their cargo against slipping.<br />

BISCHOF + KLEIN, a manufacturer of packaging<br />

material with worldwide operations, is<br />

now using Styroflex to produce the stretch<br />

hood films of its SmartFlex ® SE series, and<br />

at almost the same time, two of its major<br />

international <strong>customer</strong>s as well as the German<br />

company PCI Augsburg have switched<br />

over to this film for packaging their cargo.<br />

<strong>The</strong> new stretch hood films consist of several<br />

layers, the core layer being made of<br />

Styroflex 2G66. “We chose Styroflex for our<br />

films because, in addition to being very easy<br />

to process, it also displays good recovery<br />

properties. Tests have shown that the film<br />

containing Styroflex wraps tightly around the<br />

load, holding it securely on the pallet, even<br />

after being stretched by as much as 220<br />

percent. Films made of pure polyethylene, in<br />

contrast, can only be stretched between 20<br />

and 50 percent in industrial use since otherwise<br />

they do not recover sufficiently”, explains<br />

Ulrich Drögsler, head of sales for industrial<br />

packaging at BISCHOF + KLEIN.<br />

Stable pallets,<br />

lower costs<br />

Thanks to its high puncture resistance, the<br />

Styroflex film can be even thinner than pure<br />

PE films, which are usually <strong>from</strong> 80 µm to 120<br />

µm thick. This entails a two-fold benefit for<br />

<strong>customer</strong>s since greater stretchability and less<br />

thickness reduce the film weight per pallet<br />

while the improved pallet stability lowers insurance<br />

and logistics costs. <strong>The</strong> PCI Augsburg<br />

company – a manufacturer of building chemicals<br />

located in Augsburg (Germany) and a<br />

<strong>BASF</strong> subsidiary – is utilizing the advantages<br />

of this film especially in order to package items<br />

with sharp edges which are otherwise difficult<br />

to wrap with film; these products include tile<br />

adhesives in buckets and footfall-insulation<br />

panels. Tear resistance and recovery capacity<br />

ensure that the film continues to stabilize<br />

the packaged goods even if the pallet is tilted<br />

by up to 35 percent, thus greatly enhancing<br />

the stability of the load. Besides, a single film<br />

tube size can accommodate different packaging<br />

tasks and pallet sizes. This saves not only<br />

storage costs but also cuts the time needed<br />

for retooling.<br />

www. styroflex.de<br />

Styroflex stretch hoods secure the load, even when tilted by 35 percent<br />

35


Packaging<br />

Iridescent like a rainbow<br />

Special-effect film Aurora puts packaging and labels into the limelight<br />

Up to 30,000 products vie for <strong>customer</strong>s’<br />

attention on supermarket shelves. On<br />

average, a single article has one-sixth of a<br />

second to catch the eye of the consumer.<br />

During this brief moment in time, what counts<br />

most is the outward appearance: the packaging<br />

is an effective way to make one product<br />

stand out above the competition. Here,<br />

<strong>BASF</strong>’s Aurora ® – a special effect film made<br />

of polymers such as PET – opens up a wide<br />

array of possibilities. <strong>The</strong>se films can be<br />

used for labels and packaging, for laminated<br />

cardboard and laminated film as<br />

well as for bags. Moreover, they are processed<br />

into glitter for the cosmetics industry.<br />

<strong>The</strong>se films are sold by BTC<br />

Specialty Chemical Distribution GmbH<br />

(see box).<br />

Soap bubbles and mother-of-pearl<br />

as source of inspiration<br />

<strong>The</strong> Aurora films irradiate colors and<br />

mother-of-pearl iridescence even<br />

though they themselves are not dyed<br />

with pigments or colorants. Like soap<br />

bubbles, they appear in a myriad<br />

of colors, depending on the<br />

viewing angle. <strong>The</strong> broad color<br />

spectrum and many combination<br />

possibilities with differently<br />

dyed substrates – ranging<br />

<strong>from</strong> paper and cardboard<br />

all the way to plastic – yield a<br />

multitude of effects.<br />

<strong>The</strong> films consist of two outer<br />

layers surrounding the so-called<br />

optical core. It is in this core that<br />

the color impressions are created,<br />

while the outer shell accounts for<br />

the mechanical properties of the film.<br />

For instance, Aurora is tearproof, resistant<br />

to moisture and solvents, and<br />

Aurora films are an<br />

eye-catching feature of<br />

packaging made by the<br />

Beiersdorf company<br />

can also adapt to the complex contours of<br />

packaging such as cream jars.<br />

Optical core made up of more than<br />

100 polymer layers<br />

<strong>The</strong> iridescence of the film stems <strong>from</strong> the<br />

more than 100 polymer layers that make<br />

up the optical core. “<strong>The</strong> polymer layers<br />

reflect some of the white light that strikes<br />

the film. <strong>The</strong> thickness of the optical core<br />

determines the way the film reflects color,”<br />

explains Dirk Kinzel of BTC.<br />

This is how it works: humans perceive light<br />

in different colors whenever light is in the<br />

wavelength range between 400 nanometers<br />

(violet) and 700 nanometers (red). <strong>The</strong> multilayered<br />

structure of the film breaks white<br />

light into several complementary colors:<br />

the individual polymer layers each reflect<br />

parts of the incident light. Interactions among<br />

the rays additionally amplify some wavelengths<br />

and attenuate others. This creates<br />

iridescent color reflections that look like a<br />

rainbow.<br />

BACKGROUND<br />

BTC Speciality Chemical<br />

Distribution GmbH<br />

BTC Specialty Chemical Distribution<br />

Europe is the sales organization of<br />

the <strong>BASF</strong> Group for all of Europe and<br />

it caters to small and medium-sized<br />

<strong>customer</strong>s who buy specialty chemicals,<br />

care chemicals and performance<br />

polymers. An essential cornerstone of<br />

BTC Europe is BTC Specialty Chemical<br />

Distribution GmbH, which is headquartered<br />

in Cologne, Germany and<br />

active on a global scale. BTC supplies<br />

more than 3000 finishing chemicals<br />

to the market segments comprising<br />

cleansers and detergents, formulators,<br />

automotive applications and oil,<br />

textiles, coatings, <strong>plastics</strong>, printing inks<br />

and special dyes as well as adhesives<br />

and construction materials.<br />

36


Packaging<br />

Going shopping<br />

with renewable materials<br />

Biodegradable plastic Ecovio in German ALDI shopping bags<br />

<strong>The</strong> large German discount supermarket<br />

chain ALDI SÜD is now offering its German<br />

<strong>customer</strong>s shopping bags made of<br />

<strong>BASF</strong>’s biodegradable plastic Ecovio ® . <strong>The</strong>se<br />

bags are manufactured for ALDI by the<br />

VICTOR Güthoff & Partner Group, headquartered<br />

in Kerpen, Germany.<br />

<strong>The</strong> plastic Ecovio consists of Ecoflex ® and<br />

of polylactic acid (PLA), which is obtained<br />

<strong>from</strong> corn, a renewable raw material. Ecoflex<br />

is a petrochemical-based polyester.<br />

And yet, thanks to its special molecular<br />

structure, it can be digested<br />

by microbes under precisely defined<br />

conditions: it is completely<br />

biodegradable according to European<br />

standard EN 13432. Whereas<br />

Ecoflex makes the bag flexible, tearresistant,<br />

waterproof and suitable<br />

for printing – giving it the<br />

properties of a classic<br />

plastic – the stiff PLA contributes the renewable<br />

raw material.<br />

Bags with tailor-made properties, thanks<br />

to Ecovio and Ecoflex<br />

<strong>The</strong> combination of Ecovio and Ecoflex<br />

allows film manufacturers such<br />

as VICTOR to produce plastic<br />

bags and other<br />

film products with<br />

tailor-made<br />

properties<br />

– a higher percentage of Ecoflex renders the<br />

film more flexible whereas a higher percentage<br />

of Ecovio renders it stiffer.<br />

Biodegradable shopping bags offer <strong>customer</strong>s<br />

an additional advantage: they not only are<br />

strong enough to be used multiple times as<br />

a shopping bag, but at the end of their days,<br />

they can also serve as a bag for collecting<br />

and disposing of organic kitchen garbage – in<br />

most of the German communities this is already<br />

permitted.<br />

www.<strong>plastics</strong>portal.eu/ecoflex<br />

Not only for<br />

grocery shopping<br />

but also for composting:<br />

bags made<br />

of Ecovio<br />

37


Miscellaneous<br />

Colorful flying machines<br />

made of Neopolen<br />

<strong>The</strong> “Libray” cuts quite a figure as it takes<br />

off <strong>from</strong> the water: this bright yellow flying<br />

boat becomes airborne effortlessly. Another<br />

model, the “Piper Cepp” overshadows the<br />

competition as it takes to the skies, where it<br />

executes loops and rotates with elegance<br />

around its own axis.<br />

<strong>The</strong>se model aircraft embarked on their<br />

maiden flight in Baindt, near Lake Constance<br />

in Germany, where Franz Bormann and four<br />

colleagues design and produce<br />

remote-controlled model aircraft as well<br />

as UAVs (unmanned aerial vehicles) for industrial<br />

applications such as, for instance, surveying<br />

cameras.<br />

Neopolen ® P, a <strong>BASF</strong> plastic, is always on<br />

board. <strong>The</strong> model planes manufactured by<br />

the Borjet company are made almost exclusively<br />

of this polypropylene foam (EPP). Its<br />

impact<br />

resistance<br />

ensures that<br />

no damage occurs<br />

even in the<br />

case of rough crash<br />

landings. And yet<br />

these model planes are lightweight:<br />

despite a wingspan of one<br />

meter, the Piper Cepp, for example,<br />

tips the scales at a mere 220 grams. “It<br />

was not only these properties, but also<br />

the broad range of colors of Neopolen ® P<br />

that won us over. For example, the<br />

Neopolen variants in saturated<br />

blue and vibrant yellow are<br />

perfect for the Libray, which<br />

is modeled after the so-called<br />

‘Dornier amphibious aircraft’”, explains Franz<br />

Bormann.<br />

Milling instead of foaming<br />

Moreover, Neopolen ® P is also available in<br />

stoplight red and raspberry red as well as<br />

green. “We decided in favor of these bright<br />

colors in addition to the standard black, white<br />

and grey in order to tap into new markets. This<br />

has allowed us to acquire new <strong>customer</strong>s,<br />

especially in the leisure and<br />

toy sectors,” elaborates Christian<br />

Mühlbauer, responsible for the product<br />

management of Neopolen P at <strong>BASF</strong>.<br />

Borjet’s airplanes are made using hot-wire<br />

machines: once a design has been set<br />

on paper, the contours are refined<br />

on the computer and digitally sent<br />

to the cutting machines, which then<br />

fully automatically mill the individual<br />

components of the model plane out of<br />

the colorful Neopolen panels. “For our production,<br />

it is very important for us to be able to<br />

cut filigree parts out of this material without<br />

having to foam them,” explains Bormann. This<br />

allows us to use one and the same machine<br />

for each of our new models, and even to offer<br />

tailor-made solutions in large as well as small<br />

production runs. Borjet sells about 300 aircraft<br />

per month, mainly to wholesalers. Those who<br />

want to try their hand at air acrobatics with<br />

the Piper Cepp or to practice water take-offs<br />

with the Libray can also order a model for<br />

themselves <strong>from</strong> the Borjet shop.<br />

www.borjet.com<br />

www.neopolen.com<br />

Drinking in the view<br />

<strong>The</strong> straw winds its way around the<br />

drinkware like a mini rollercoaster,<br />

and drinks flow through it in bright<br />

colors. Unusual shapes characterize<br />

drinkware under the Krazy Straw ® brand<br />

<strong>from</strong> the manufacturer Fun-Time International<br />

<strong>from</strong> Philadelphia. At the same time,<br />

they are highly durable and cost-effective.<br />

To combine these two characteristics, Fun-<br />

Time International set out to find a new plastic<br />

capable of replacing the conventional PET<br />

and PC materials used in the drinkware. <strong>The</strong><br />

company opted for Styrolux ® 3G46 (SBC)<br />

<strong>from</strong> <strong>BASF</strong>. First, this material has the necessary<br />

high transparency needed to ensure that<br />

the contents in the straw are visible. Second,<br />

it is very easy to print lettering and<br />

logos on the material. As Styrolux also has<br />

a density which is 30 percent less than that<br />

of PET or PC, the material is less expensive<br />

and easier to process. Lastly, Styrolux 3G46<br />

is compliant with the US Food and Drug<br />

Administration (FDA) for contact with food.<br />

In short, it is a plastic offering undiluted drinking<br />

fun.<br />

38


Win a Polar watch<br />

It’s summer, the weather is great, our bodies are<br />

geared up for activity – why not get out there for<br />

some exercise? If you want to check whether<br />

your body is functioning properly and to monitor<br />

your heart rate, put on a Polar watch when you<br />

go jogging, biking or mountain climbing.<br />

This watch measures your heart rates and stores<br />

the data. <strong>The</strong> display also shows your calorie<br />

expenditure and, of course, also the time. You<br />

Polar Running and Multisport Computer<br />

RS 300X Run<br />

don’t have a Polar watch? Visit our Plastics-<br />

Portal at the Internet to have a chance to win<br />

one!<br />

www.<strong>plastics</strong>-<strong>magazine</strong>.com<br />

P.S. You can also order the brochures<br />

about the published topics on our<br />

website www.<strong>plastics</strong>-<strong>magazine</strong>.com<br />

Calendar of Events<br />

Trade fairs and events that <strong>BASF</strong> will attend:<br />

expojc<br />

Shanghai International Energy Saving &<br />

Advanced Building Material Exhibition,<br />

Shanghai, China<br />

August 18 to 21, <strong>2009</strong><br />

www.expojc.com/<br />

Fakuma<br />

<strong>The</strong> international trade fair for <strong>plastics</strong>,<br />

Friedrichshafen, Germany<br />

Oktober 13 to 17, <strong>2009</strong><br />

www.fakuma-messe.com<br />

USGBC Greenbuild<br />

U.S. Green Building Council; Greenbuild<br />

International Conference and Expo,<br />

Indianapolis, IN, USA<br />

November 11 to 13, <strong>2009</strong><br />

www.greenbuildexpo.org/<br />

NordBau<br />

<strong>The</strong> greatest building trade fair in Northern<br />

Europe, Neumünster, Germany<br />

September 10 to 15, <strong>2009</strong><br />

www.nordbau.de/<br />

Bâtimat<br />

Le Salon International<br />

de la Construction,<br />

Paris, France<br />

November 2 to 7, <strong>2009</strong><br />

www.batimat.com/<br />

Editorial Office:<br />

Karen Kling,<br />

(in charge)<br />

Jutta Schmidt,<br />

(in charge)<br />

Dr. Julia Endres<br />

David Baumgart,<br />

Dr. Ulla Biernat,<br />

Hannes Wulf,<br />

<strong>BASF</strong> SE;<br />

Publisher:<br />

<strong>BASF</strong> SE<br />

KT/KC – E 100<br />

67056 Ludwigshafen,<br />

Germany<br />

Distribution:<br />

<strong>BASF</strong> SE<br />

All articles in the <strong>magazine</strong> as well as the complete<br />

<strong>magazine</strong> are available for download in .pdf format<br />

at www.<strong>plastics</strong>-<strong>magazine</strong>.com<br />

WMN: KST 0907 BE<br />

Dr. Sylvia Kaufmann,<br />

Elastogran GmbH<br />

Chris Wilson,<br />

<strong>BASF</strong> UK;<br />

Kathy Dennis,<br />

<strong>BASF</strong> North America;<br />

Ian DeSouza,<br />

Beverly Tan,<br />

<strong>BASF</strong> South East Asia.<br />

Tel.:+49 621 60-20191<br />

Fax: +49 621 60-49497<br />

Layout:<br />

Spektrum,<br />

Ludwigshafen<br />

Photo credits:<br />

Cover and Pages<br />

3, 6-17, 27-31, 34-35, 36, 38 : <strong>BASF</strong> SE<br />

Page 16: Adam Opel GmbH<br />

Page 18-19: TATA MOTORS<br />

Pages 18, 33, 37, 39: Spektrum<br />

Pages 20-22, 25: Elastogran GmbH<br />

Page 23: XL TURF AG<br />

Page 24: Gorenje, d.d.<br />

Page 26: Zelmer Trading Sp. z o.o.<br />

Page 29: Genova<br />

Page 32: Paul Tahon/Ronan&Erwan Bouroullec<br />

Page 38: Borjet

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