Membaca The Economist kita dipaksa mengernyitkan dahi,
lain dengan membaca cersil.  Konon, DuPont dan
Monsanto penghasil GM-food (tomat transgenic dsb)
tidak mengkeret (no pun intended untuk
pelermengkeret)dihadang di Eropa, tapi merambah bidang
non-food yang tak kalah bergunanya bagi kesejahteraan
manusia. Gt cotton selain hasilnya lipat ganda, juga
tahan hama, sehingga mengurangi bahaya keracunan bagi
petani penyemprot insektisida.  GM-tebu dapat menjadi
bahan baku gasohol sebagai bahan bakar campuran yang
berguna jika harga bbm jadi sangat tinggi. GM-kentang
punya kegunaan beragam selain bahan pembuat kanji.
Apalagi kalau dunia nanti sadar bahwa ketakutan pada
tanaman transgenic hanyalah tahayul belaka.

Salam,
RM 

 
Non-food GM 

The men in white coats are winning, slowly

Oct 7th 2004 
>From The Economist print edition


The non-food use of genetic modification is moving
ahead on several fronts. But it still has obstacles to
overcome, and far to go

Get article background

IF YOU are a stay-at-home European or Australian, it
is quite possible that never, knowingly or not, have
you eaten any genetically modified (GM) product. But,
unknowingly, you may well be wearing one right now: GM
cotton is widely grown. And you may have been treated
with a drug produced with the use of GM. Wide public
support has enabled anti-GM zealots to win battles on
the food front in Europe and elsewhere; and fear of
losing trade deters GM in other countries that grow
and export the stuff, even if they would readily eat
it themselves. Yet, overall, the enemies of GM are
losing the war.

That might sound unlikely: this year's big GM news was
not an advance but an inglorious retreat. Monsanto, an
American agri-business that is the main commercial
promoter of the technique, and thus the arch-villain
for its enemies, decided not to bring its GM wheat
variety to market, not even in the largely GM-tolerant
United States. But food is a special case. It is easy
to shout �Frankenfood� and scare someone into taking
no risks, real or imagined, with his bread or burgers;
not so easy with his shirt. However the war may go in
the supermarkets or cattle feed-lots, the non-food
uses of GM technology have ensured that the technology
is here to stay. And those uses are steadily
multiplying. 


At the microscopic level, bacteria are routinely
modified to produce enzymes for use in industrial
processes. Cotton is so far the only widespread
non-food GM crop. But others are on the way.
Researchers are modifying potatoes, even trees, to
suit the paper industry; GM oilseed rape (canola) can
make better detergents or lubricants. Sheep can be
altered, as Australian scientists have done, to grow
more and better wool (though not yet, as one American
website spoofed, wool so tungsten-rich that it works
as a filament in light bulbs). Both plants and animals
can be altered to produce pharmaceuticals; the
resultant �bio-pharming� is still in its infancy, but
its commercial day will come.

And a huge new use for GM crops is already under way.
To produce bio-fuel or bio-plastics, made from maize
or sugar, say, rather than petroleum, you don't need a
GM �feedstock�, but why not? The exhaust is not going
to spray out deadly footloose Frankengenes (or any
genes at all).

Not that the way ahead is clear. The spread even of
non-food GM will be affected by the vagaries of public
perception. You may be happy to fill up with
GM-derived fuel, but remain uneasy about GM food. If
so, anti-GM militants argue, you must say no to both:
whether it goes into your mouth, into the steer that
ends as your beefsteak, or into your petrol tank, GM
maize is grown in fields not far from non-GM maize,
and may �contaminate� it. So stop the lot. And, good
science or not, that is a real commercial argument:
one may think the fear of non-food GM crops quite
irrational, but if lots of consumers do fear them, the
most cynical farmer may be entirely rational not to
plant them. 

Applied to cotton, that argument has plainly carried
little public weight. Cottonseed oil is in fact eaten,
notably in margarine, but few people associate cotton
with food. No such luck for any sort of grain. The
argument will surely affect bio-fuel projects in
Europe: such fuels may be acceptable, but not GM-based
ones. 

Yet, whatever the uncertainties, non-food GM is indeed
going ahead, for all the propaganda against it, some
solid, some arguable and some fictitious. It is quite
true that Monsanto's GM seeds cost more than others,
and that it tries to keep a grip on the use and supply
of them; too tight a grip, say those who speak for
third-world farmers. But it is not true, for instance,
that its (or other people's) pest-resistant GM cotton
has lower yields. A recent study in western India
reported significantly higher ones. And, yield apart,
quite certainly this cotton can bring higher profits,
because it needs far less spraying. A Chinese study of
two cotton-growing provinces in 2001 estimated savings
of $250 per hectare (2.5 acres) in labour and
insecticide�which, by the way but not by chance, also
means far less poisoning of farmers by sprays.

The best answer to those who doubt GM's practical
benefits comes not from researchers but farmers. On
one (pro-GM) estimate, in 1997 the world grew 1.4m
hectares of GM cotton; last year, 7.2m ha. In America,
which introduced it, by now 75% of cotton is GM. China
authorised its commercial planting only in 1997; by
2001 there were 1.5m ha, 30% of the cotton area; last
year 2.8m ha. India, the world's biggest
cotton-grower, began with GM cotton only in 2002, and
in 2003-04 planted less than 100,000ha. But in the new
season that figure would treble, predicted a Monsanto
joint-venture that already sells $12m a year of seed
there. The actual spread may well have been even
faster. 

 
 
 

 
In all three countries, those figures are the result
of choices made by farmers, not by bureaucrats or
supply companies. The anti-GM notion that third-world
farmers have to be arm-twisted or deceived into GM
planting is nonsense. If they can measure the results
in renminbi or rupees, farmers will embrace GM. 

So much for the notion that the only real gainer from
GM crops is wicked, multinational Monsanto. In fact,
on the seed-supply side, it has rivals. Swiss-based
Syngenta, its big European competitor, is moving into
GM cotton, through a deal signed in August with Delta
and Pine Land, an American market leader already
offering Monsanto versions. Though mostly under
licence from Monsanto, its Indian competitors have
recently produced GM cotton varieties of their own.
China's Academy of Sciences developed its own
varieties in the mid-1990s, and now offers more than
20, adapted to varying climatic or soil needs. 



The low-down on Roundup
Nor yet is it true that the whole thing is really a
plot to sell Monsanto's Roundup herbicides, by hooking
the farmer on crops modified so they can be safely
sprayed with Roundup, but with nothing else. That may
sound plausible of soya, the world's main GM crop,
which is nearly all modified to be herbicide-tolerant.
Similar GM cotton varieties indeed exist. But the main
GM cotton is Bt cotton, named after a tiny bug,
Bacillus thuringiensis, whose insect-fighting
properties have been transferred (to several crops
besides cotton) not to sell more herbicide, Roundup or
any other, but to require less pesticide. 

What is notable about GM cotton is how little has been
altered. The sundry GM varieties are built to aid
farmers, not textile mills. Resistant to pests,
herbicides or both, the result is still cotton. Here
is just a new way of producing the stuff.

But many other GM ideas, in the pipeline or farther
off, will alter the product, as old-style breeding
does. There will be no tungsten sheep-fleece, but
sheep in future will grow not just more wool, but
softer wool. Old flowers will get new colours or
scents: a Melbourne company has already released
purple GM carnations; in Indiana an academic is at
work on the scent of roses. Lawn and golf-course grass
will be tougher, trees more resistant to drought, or
adapted to clean up contaminated soil.

Other shifts are already producing �the same old
stuff�, but in novel ways. Pigs or indeed potatoes can
produce human proteins for medical use (though none
has yet received authorisation), foot-and-mouth
vaccine can come from alfalfa, genes from
enzyme-making bacteria can do the same job in tobacco,
and useful new enzymes can be found and put into old
bacteria. Researchers see few limits, other than human
timidity, to how far they can go.

The paper industry illustrates the diversity of GM.
Its basic raw material is trees. Researchers in New
Zealand and Chile have produced pest-resisting pines.
Oji Paper, a Japanese giant that uses fast-growing
eucalyptuses from South-East Asia, has put carrot
genes into them so they can flourish in acid soil. But
GM can go further. Trees contain not only the
cellulose that papermakers want, but lignin�crudely,
the stuff that makes a tree a tree�which they don't.
Separating the two is costly; how nice to use trees
that start off with less lignin. They can be created.
Researchers at the State University of North Carolina
have bred aspens with only half the lignin of ordinary
ones�and, it turned out, they have the additional
advantage that they grow faster. Do not expect Canada
or the Nordic countries to be shortly covered with GM
pines; commercial use of GM trees in Europe is at
least ten years off. But it is on its way.

Likewise with starch. Papermakers use it�several
tonnes are required per 100 of finished paper�both to
bind the pulp fibres together and to �size� the
surface, so you can print on it. In Europe and North
America, the starch often comes from potatoes. But
spuds produce two kinds of starch: amylopectin, which
papermakers like, and amylose, which they dislike. In
the 1990s the world leader in potato starch, AVEBE, a
Dutch co-operative, developed a GM potato containing
more amylopectin, less amylose, but was thwarted by
the European Union, which forbade its marketing. AVEBE
is now growing a new version, though it will be years
before it can reach the market. Through a Swedish
subsidiary, BASF, a German chemicals giant, also has
created a high-amylopectin GM potato. The Swedish
authorities gave permission for an experimental plot
in 1999, and last April for large-scale planting. The
company would love to grow its potato elsewhere in
Europe. But the EU's consent is still required and
that has not yet been forthcoming.

Nor need potatoes be the only source of engineered
starch. The world grows 190m tonnes a year of cassava,
nearly all for food or animal feed. But its starch too
can go into paper, and in Thailand a little already
does. That could become a lot: Thailand grows enough
cassava to be the only significant exporter, and
recently decided to allow commercial GM crops. If
public fears of GM food and �contamination� can be
overcome, cassava could be one.



The whiff of fear
Those fears have already affected tobacco. It is a
�halfway house�: cigarettes are not eaten, but they
are consumed. Tobacco has in fact already been
genetically modified, both to produce more nicotine
and less. The now-vanished high-nicotine cigarettes
landed their maker, Brown & Williamson, with a
(failed) lawsuit from America's Food and Drug
Administration. Today's low-nicotine GM ones just do
not sell very well: Vector, which makes them, recently
put on hold plans for a nationwide roll-out.

Neither outcome had much to do directly with GM. But
growers of ordinary tobacco hate Vector's GM smokes;
partly, although they will not admit it, because
�low-nicotine� is hardly their favourite slogan, but
also, as with food crops, for fear of contamination
and consumer reaction, even though Vector grows its GM
weed outside traditional tobacco areas.

Not least, ordinary growers fear for their exports
and, as with food, they may be right. In the 1990s
China was the first country to grow GM tobacco, aiming
to improve the crop's resistance to viruses. Within a
few years, foreign pressure forced it to cry off.
Doubts in Europe will deter both European and other
growers and processors. SEITA, as France's cigarette
monopoly was then called, was once authorised to do
research on GM tobacco, but made little commercial use
of the results.

What about bio-pharming, for which tobacco is well
suited because it produces lots of leaf and has been
much studied? This prospect arouses fewer fears�at
least in Kentucky, says a source there, where the
first bio-pharmed crops have been grown. The rival
varieties are very different. And the money could be
good. A hectare's output of cigarette tobacco is worth
about $9,000. As against? Well, one enthusiast in 2002
estimated the same hectare could grow over
$400,000-worth of a skin-growth hormone, or near $5m
of an anti-coagulant protein. That is surely
dreamworld: as supply of the protein rose, its value
would fall, and anyway only a portion of such riches
would reach the grower. Even so, the sums (not least,
far lower labour costs) are still interesting.



Down on the pharm
There is no visible end to the technical possibilities
of bio-pharming. America, well ahead of Europe in this
respect, has recently been issuing 30-40 permits a
year for field trials: tomato, potato, alfalfa, lupin,
rice and maize are among other favoured plants. Far
smaller organisms can be used: bakers' yeast is one.
And the list of potential products is vast: human
albumin and haemoglobin, interferon, vaccines for
hepatitis-B, anthrax, cholera and diarrhoea are among
the few that a layman has even heard of.

The time between field trials and commercialisation is
long, however�at least six years, because any hopeful
results still need testing and must then win
regulatory approval. But in time bio-pharming and
other uses of GM will become a familiar, low-cost
means of producing, in volume, things that were once
rare. Insulin, for instance, has long been made by
putting the human gene for it into a helpful
bacterium. Previously, it came, in a less than ideal
form, from the pancreatic glands of slaughtered pigs. 

The big, publicly visible boom in non-food GM,
however, is likelier to come in chemicals, plastics,
fibres and fuel. Instead of petroleum, these will be
derived from maize, soya or other crops�sugar beet in
Europe, say. In time, plants may even be modified to
make polymers themselves; it was done experimentally,
but then dropped, by Britain's ICI and later Monsanto
in the 1990s. Metabolix, a research company in
Massachusetts, is now getting bacteria to grow
finished plastics that are biodegradable.

The use of farm crops for such purposes is not new.
After long research into maize-based plastic, Cargill
(grains) linked up with Dow (chemicals) in 1997 and
their joint-venture, which began production in 2000,
now sells about 140,000 tonnes a year for packaging
and bedding. Nor need the crops be GM: Cargill Dow's
maize has not been. But it could be. The ethanol
makers who already supply over one-fifth of Brazil's
motor fuel use sugar cane, but they could as well use
soya, some of it the theoretically illegal, but in
fact amnestied, GM versions that local farmers have
eagerly adopted. And the first step in any such
process, fermentation of the maize (or other) glucose,
involves enzymes, which these days are usually
produced using GM: new �super enzymes� are found by
experiment, and the appropriate genes to produce them
are fed into some fungus or bacillus that will do the
job better than nature till then has done it for
herself.

Many organisms are used�DSM, a Dutch chemicals
company, lists 34�and the enzymes go wider still: into
detergents, cheesemaking (instead of rennet from
calves' stomachs), cotton-weaving and countless other
processes, new and old. 

But that is all scientists' stuff. The world, perhaps
to its own peace of mind, has only a nascent idea of
it. Greater awareness will come when, to the joy of
farmers and governments of oil-lacking countries, the
men in white coats have advanced enough for the suits
to set their enzymes to work, profitably, on what any
eye can see in the fields. 

Yes, but how soon? The key word here is �profitable�.
Even at today's output (about a thousandth of world
plastics output), says Cargill Dow, sales of its
maize-based plastic �will barely scratch the surface�
of its $750m investment. DuPont, with Genencor, a
biotech leader, has put genes from two organisms into
a third, to help turn maize glucose into a fibre that
it calls Sorona. But it is still far from commercial
production, let alone profit.

And those two are well-publicised products, already
some way down the road, from world leaders. In the
Netherlands, DSM, which makes a feedstock for nylon,
is studying sugar beet as a source. Given the EU
protection that beet needs to make it competitive with
imported cane sugar, can this ever make a profit?



Beautiful bio-fuels
Bio-fuel (which does not depend on GM, but could well
use it) is more advanced. Yet not far. Brazil's
output, near 4 billion American gallons (15 billion
litres) a year of sugar-based ethanol, leads the
world. America makes maize-based ethanol, usually
mixed one-part-in-ten with petrol. But even with a tax
break of 52 cents a gallon (13.7 cents a litre) of
pure ethanol, the 80, mostly small, plants will make
only 3 billion-plus gallons this year, or less than 2%
of all motor fuel used. Bills now before Congress
propose 5 billion gallons by 2012; that would by then
mean only about 2.5%.

Of course, with high oil prices, these ethanol plants
may multiply faster than expected: in oil terms, about
$10 on a barrel of crude matches the ethanol subsidy,
and oil has risen more in price than that this year.
And Brazil's lower-cost ethanol could boost supply
(but�you guessed�imports pay a duty of 54 cents a
gallon: at bottom, the ethanol subsidy is about farm
incomes, not replacing oil).

The EU, producing both bio-diesel and ethanol, is far
behind. In all, it makes about 700m gallons a year.
Its aims (and motives) are a bit higher: 5.75% of
consumption from bio-fuels by 2010. But that too will
need subsidies. 

The use of GM on the farm crops�and in making the
enzymes to work on them more efficiently�will in time
speed up and cheapen the production of bio-fuels. But
none of these figures suggest the new processes and
fuels are about to take over the world tomorrow
morning. 

Indeed, profit is the big doubt for these
grandoil-replacement dreams: they depend much on its
price. Pharmaceuticals�especially, though not
alone�face a huge and poorly mapped quagmire of
intellectual property rights. Yet the real hurdle for
non-food GM may still be public opinion.

The pharmaceutical and chemicals companies are mighty,
and are quite capable of lobbying hard on behalf of
their GM-based innovations. But GM's foes are many,
and they can be unscrupulous with facts. If anything
goes wrong� as in America in 2002, when GM maize, born
of seeds from the previous year's bio-pharmed crop,
was found in fields of ordinary soya�the news swiftly
reaches far more people than ever hear of the routines
in place to avoid such errors. GM needs skills, and
courage, in its public relations no less than its
laboratories or finance departments. 



 
 
 The Economist Newspaper and The Economist Group. 


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