COMMODITIES - Morgan Stanley IQ · 1 Everyone thinks that they know what a commodity is until they...
Transcript of COMMODITIES - Morgan Stanley IQ · 1 Everyone thinks that they know what a commodity is until they...
A N I N T R O D U CT I O N FO R I N V ES TO RS
COMMODITIES
This brochure has been prepared solely for informational purposes
and is not an offer (or a solicitation of an offer) to buy or sell any of
the commodities or products mentioned in this document. Structured
Products may not be offered, sold, transferred or delivered directly
or indirectly in the United States to, or for the account or benefi t of,
any U.S. Person (as defi ned in Regulation S under the Securities
Act). This brochure is not a product of Morgan Stanley’s Research
Department and you should not regard it as a research report.
Please refer to the Important Information at the end of this
document. Morgan Stanley IQ is a service mark of Morgan Stanley;
all rights reserved. © Copyright 2007 Morgan Stanley.
Backed by strengths in research, sales and
trading, Morgan Stanley IQ puts the market
knowledge and infrastructure of Morgan Stanley
at your disposal.
Morgan Stanley IQ offers an attractive range of
products to investors, spanning all asset classes:
equities, interest rates, credit, FX, commodities,
real estate and hedge funds. We have committed
substantial resources to ensure the highest
possible levels of service for our clients.
Investors are invited to learn more by visiting
our website: www.MorganStanleyIQ.com
1
Everyone thinks that they know what a commodity is until they try to defi ne it.
Commodities are sometimes raw materials. More generally, they are
usually inputs to the creation of other goods. Commodities are often
physical assets but not always: less tangible commodities include
electricity and carbon emissions.
Tradeable commodities offer exciting and varied opportunities for
investors. For example, an individual may have specific views on a
commodity like oil and want a way to express it. On the other hand,
investors might use commodities to explore a particular investment theme:
those looking for access to industrial growth in China could consider
exposure to dry freight; those who believe that we will see increased water
shortages might take a view that this could lead to increased prices for
agricultural commodities.
By investing in commodities via structured products like Notes and
certificates, investors can benefit from movements in the price of
commodities without ever taking physical delivery of them. Morgan
Stanley IQ offers a wide range of products linked to individual commodities,
commodity indices or customised baskets tailored to capture specifi c
investment themes. Whether an investor has a positive, negative or neutral
outlook on commodity markets, structured products can offer compelling
investment opportunities.
This handbook is intended to introduce investors to the commodity markets
and give a basic overview of some of the most prominent commodities.
It is only a starting point, to help investors work out where their interest
lies, before doing the research needed to truly understand these
markets.
the case for commoditiesCOMMODITY INVESTING:
2
A CONSTANTLY EVOLVING MARKET
THE HISTORY OF COMMODITIES MARKETS
Although relatively new territory for many investors, the commodities
market has existed for centuries, if not millennia.
The roots of today’s commodities markets lie in the trading of agricultural
produce in the nineteenth century. Buyers and sellers wanted to manage
the risks they faced in harvesting and processing crops. Buyers were
seeking protection from a poor harvest and the resulting high prices.
Sellers wanted a guaranteed price at which they could sell their goods,
protecting them in case of over-supply. However, there was little
standardisation in terms of quality and delivery of goods and no
centralised storage.
In 1848, the Chicago Board of Trade opened to facilitate the trading of
grain between farmers and merchants. Procedures were established for
weighing and grading the grain and a central marketplace was created.
Prices were agreed in advance for delivery on future dates, allowing buyers
and sellers of corn to hedge their price risk. This marked the birth of the
modern futures markets, which quickly evolved to trade other commodities
such as metals, rubber, silk and hide.
Trading in commodities has not always been undertaken to reduce risk.
In the late 16th century, an active market for tulips developed in Holland.
Prices began to rise, and investors with limited knowledge of horticulture
piled in. The bubble infl ated and then burst. There is a debate about how
many people the market touched but it is undisputed that tulips achieved
prices far beyond their obvious physical value.
TODAY’S COMMODITY MARKETS
Markets can be used to layoff or put on risk. What was once considered
a hedging tool for raw material suppliers and merchants is now providing
access to commodities for a much wider audience. Over recent decades,
pension funds, hedge funds, investment banks, other institutional investors
and, increasingly, individual investors have become involved.
Today, commodities play an important role in many investment portfolios.
The increase in interest has led to a greater range of tradeable commodities
and a broader choice of ways to invest. The market continues to cover
energy, metals, minerals and agriculture but has evolved further to include
new assets such as carbon emissions and freight.
Although the market has grown, most commodities are nonetheless
restricted in supply. For example, it is estimated that if you poured all the
platinum that has been mined thoughout history into an Olympic size
swimming pool it would just reach the level of one’s ankles1. Many
commodities are also fi nding new uses in the 21st century. For example,
1 Source: Platinum Guild International
3
corn has traditionally been used as food, be it cattle feed or human
consumption. As the world has become more conscious of the
possible negative environmental effects from burning fossil fuels,
soft commodities like corn are increasingly being used in the
production of bio-fuel. Competing uses and contracting supplies
of commodities can create interesting dynamics in supply and
demand thereby affecting the prices at which they trade.
WHAT DOES THE FUTURE HOLD?
As populations grow and standards of living rise, demand for
various commodities can increase. If supply is relatively inelastic
then supply-demand pressures can lead to higher prices. Ongoing
development of trading activity combined with competing uses
of various commodities is shaping the landscape for the asset
class. As the market continues to evolve, will there be enough
opportunities to accommodate this growing interest? Will
increased environmental awareness further drive the development
of new, greener energies? How will the growth of global emerging
markets impact demand for raw materials, especially when many
resources are already scarce? Will new techniques such as
genetic-modifi cation alter the agricultural landscape? Issues and
developments such as these should continue to open new and
exciting opportunities for investors in the commodity markets.
COMMODITIES IN YOUR PORTFOLIO
Over the long term, commodities have displayed returns of
similar magnitude to equities. However, since the late 1990s,
the broad commodities market has outperformed the global
equity market.
Aside from the potential for attractive returns, commodity investing
can offer additional benefi ts within a portfolio:
Portfolio Diversifi cationCommodity returns have historically displayed low correlation with
equities or other asset classes. As equities and other traditional
assets perform well, commodities have tended to underperform
these asset classes. However, as other asset classes decreased
in value, commodities have sometimes provided positive returns
for investors. Commodities are often used to reduce portfolio risk
by adding diversifi cation.
Portfolio ProtectionHistorically, commodities are one of the few asset classes to have
benefi ted from rising infl ation. As demand for goods and services
increases, prices of those goods and services usually also rise,
as do the prices of the commodities used in their production.
Because commodity prices tend to rise in periods of infl ation,
investing in commodities can potentially provide some portfolio
protection against accelerating infl ation.
In addition, commodities have often proved more resilient than
other asset classes to geopolitical and macro-economic shocks.
For example, political crises in emerging markets have sometimes
tripped up stock markets but left the commodity market
relatively unaffected.
INVESTMENT CONSIDERATIONS
While commodities bring many positive attributes to a portfolio,
there are also risks that investors should consider.
VolatilityHistorically, commodities have been one of the more volatile asset
classes. It is important that investors consider their use carefully.
Volatility of commodity investments may be reduced either through
products offering capital protection, or by combining exposure to
commodities with exposure to other asset classes.
A Constantly Changing MarketCommodities markets continue to evolve. Changes in market
participants, traded commodities, and competing uses of
commodities all shape the market. Investors should be aware that
past performance and behaviour is not necessarily indicative of
how commodity markets might perform or behave in the future.
Performance of S&P GSCI vs. MSCI World, Jan 1970 - April 2007 (both rebased to 100 in 1969).
8000
6000
4000
2000
0
S&P GSCI INDEX (TR)MSCI WORLD (TR)
Source: Morgan Stanley / Bloomberg, August 2007. Past performance
is not a guide to future performance.
1970 1980 1990 2000
4
MORGAN STANLEY – YOUR PARTNER IN COMMODITIES
Morgan Stanley is one of the largest players in global commodities. We
have been committed to commodities market for over 23 years. We have
maintained a strong continuous market presence throughout this period
and are widely recognized as an industry leader.
Morgan Stanley’s involvement and understanding of the commodities
business ranges from active trading in numerous commodities to close
involvement with commodity production. For example, Morgan Stanley
owns and operates power plants in the US, Spain and Holland, provides
jet fuel to United Airlines and wholly owns TransMontaigne, a petroleum
products distribution and supply company. The fi rm is also active in the
freight market, chartering a range of freight vessels.
As commodity markets become more sophisticated, market experience is
crucial to successful investing. With a long and successful history in this
market, Morgan Stanley is the partner of choice for investing in the
commodities market. Our depth of experience and broad capability allows
us to offer creative ideas and products to our clients.
About Morgan Stanley IQBacked by strengths in research, sales and trading, Morgan Stanley IQ puts
the market knowledge and infrastructure of Morgan Stanley at your disposal.
Morgan Stanley IQ offers an attractive range of products to investors,
spanning all asset classes: equities, interest rates, credit, FX, commodities,
real estate and hedge funds. We have committed substantial resources to
ensure the highest possible levels of service for our clients.
Investors are invited to learn more by visiting our website:
www.MorganStanleyIQ.com
Alternatively, please contact your private bank, broker or fi nancial advisor.
MORGAN STANLEY & CO INTERNATIONAL PLC
25 CABOT SQUARE
CANARY WHARF
LONDON E14 4QA
TEL: +44 (0) 20 7677 8880
FAX: +44 (0) 20 7056 0404
EMAIL: [email protected]
MORGAN STANLEY RECOGNITION FOR COMMODITIES
Commodity Derivatives House of the Year
(Risk Magazine, 2007)
Energy Risk Manager of the Year, US Natural Gas
House of The Year and U.S. Power House of The Year
(Energy Risk Magazine, 2007)
“20 Year Pioneer in Energy Products”
(Risk Awards, 2007)
Bank of the Year for Commodities
(Investment Banking Awards, 2006)
Gold Award for Energy Trading
(Commodities Now, 2006)
5
HOW TO ACCESS COMMODITIES
Commodity investing should not be mistaken for investing in the
physical commodities themselves. Rather than buying and storing
crude oil or live cattle, investors can use structured products to
gain fi nancial exposure to the asset class. Structured products
may offer a return linked to an underlying commodity itself (a
“spot” price), but more often they are linked to futures contracts
on a commodity or a commodity index.
The Futures MarketFutures are standardised contracts between two parties for
delivery on a future date at a pre-agreed price. These contracts
are used by producers and consumers to manage the risk from
price movements in the underlying commodities. The futures
market also provides a speculative arena for hedge funds and
other professional investors, where they can speculate on future
price movements.
There are two ways to gain exposure via futures. Investors can
hold long-dated futures contracts until they approach expiry. At
this point, the non-commercial investor can take an off-setting
position, to avoid taking physical delivery of the underlying
commodity.
The other approach is to hold short-dated futures contracts, ie
those that are due to expire soon, and keep “rolling” them. The
roll process involves replacing contracts that are close to expiry
with longer-dated contracts.
When investors buy a structured product linked to commodity
futures, this “roll” is managed by the product issuer. In our
experience, products usually track the “near-month” or “prompt”
futures contract – the one closest to expiry – which tends to match
the underlying commodity price most closely.
Commodity IndicesInvestors generally look to indices to provide publicly available
benchmarks of a particular asset class, industry or sector. They
should be rules-based, transparent in their construction and liquid
to trade. Gaining exposure to an index equates to gaining exposure
to all the components of that index, in the proportions directed by
the index provider. For the investor to manage this exposure
themselves, this would mean rolling futures contracts (see above
under “Futures”) in each of the index components. When investing
in a structured product which is based on an index, the rolling of
future contracts is managed within the product itself.
Indices like the S&P GSCI, the Dow Jones-AIG Commodity Index
and the Rogers International Commodity Index have opened up
the commodity markets to investors and have attracted substantial
interest over the past fi ve years.
table of contents
5
PRECIOUS METALS
Platinum Page 10
Gold Page 12
Silver Page 14
BASE METALS
Aluminium Page 18
Copper Page 20
Lead Page 22
Nickel Page 24
Zinc Page 26
ENERGY
Natural Gas Page 30
Crude Oil Page 32
Coal Page 34
Electricity Page 36
Carbon Emissions Page 38
Biofuels Page 40
SOFT COMMODITIES
Cocoa Page 44
Coffee Page 46
Corn Page 48
Cotton Page 50
Rapeseed Page 52
Soybeans Page 54
Sugar Page 56
Wheat Page 58
LIVESTOCKLive Cattle Page 62
Lean Hog Page 64
FREIGHT Baltic Dry Index Page 66
COMMODITY INDICES Page 70
GLOSSARY Terms & Abbreviations Page 76
10
precious metals: platinum, gold, silver
11
10
Platinum is often referred to as the most precious of the precious metals: in the 18th century, King Louis XV of France declared it ‘the only metal fi t for a king’. Today, platinum also has a number of
more technical uses, owing to its hardness, resistance to corrosion and
effi ciency as a catalyst.
Deposits of platinum are extremely scarce and relatively low quantities
have been produced throughout history. Production is concentrated in very
few regions and among only a few mining companies. South Africa is by
far the largest producer, followed by Russia and North America.
The extraction process for platinum is highly labour-intensive and refi ning is
complex. An enormous amount of raw ore must be mined to produce just
ounces of pure metal. The process to produce pure platinum can include milling,
concentration (separating particles that contain platinum), smelting and refi ning
to remove impurities and other precious metals such as gold and silver.
PRINCIPAL USES
Autocatalyst: Around half the demand for platinum is for use in catalytic
converters for cars. Platinum is the catalyst that prompts hydrocarbons,
nitrogen oxides and carbon monoxide to turn into more environmentally
friendly emissions. Almost all new cars are fi tted with catalytic converters
and demand continues to rise, due to tightening emissions regulations and
increased demand for cars from developing markets.
Petroleum and plastics: Platinum catalysts are used to upgrade low
octane petroleum naphtha to high octane products for automobiles and
piston-engine aircraft. It is also used in the plastics industry.
Other industrial and electronic uses: Platinum has many specialist
applications due to its chemical resistance, ability to withstand high-
temperature and stable electrical properties. Uses range from the
magnetic layers of hard discs, to coatings for missile nose cones, to fuel
nozzles for jet engines.
Jewellery: Platinum is an ideal material for fi ne jewellery – it is hard
wearing, tarnish-resistant and hypoallergenic. Demand for platinum
jewellery is particularly strong in Asia.
Dentistry and medicine: Platinum can be used in electrodes for
pacemakers, guide wires in catheters used to treat heart disease, as well
as for dental equipment and fi llings. Platinum can also inhibit the division
of living cells. This characteristic, discovered in 1962, has led to the
development of drugs to treat cancers.
A fi nancial asset: Platinum has not historically been stored or used as a
reserve asset to the same extent as gold. However, during the 1980s the
rapid increase in the value of precious metals gave rise to the production
of a variety of bars and coins.
platinum
Common Futures contracts
New York Mercantile Exchange Platinum Futures
Quote: USD and US cents / troy ounce
Contract size: 50 troy ounces
Tokyo Commodity Exchange Platinum Futures
Quote: JPY / gram
Contract size: 500 grams
1 troy ounce is around 31.1g or 0.031kg
11
THE PLATINUM MARKET
The main exchanges for platinum trading are the New York Mercantile
Exchange (NYMEX) and the Tokyo Commodity Exchange (TOCOM).
Factors affecting the price of platinum could include the following:
Disruptions to supply: Unlike gold, there is little above-ground
platinum inventory. If supply and demand are not closely matched,
prices can become volatile. Because platinum production is
concentrated in so few countries, the political situation in those
countries can also impact supply. For example, labour market issues
such as strikes in South Africa could lead to supply disruption.
New technologies: Because of platinum’s cost and rarity, many users
of platinum autocatalysts are actively developing alternative technologies
or looking for substitutes. However, other new technologies may lead
to higher demand for platinum. For example, fuel cells, which convert
hydrogen and oxygen to electricity, use platinum as the catalyst.
Substitution with other metals: Rhodium and palladium can now
be substituted for platinum in autocalysts. Both palladium and white
gold are also used as platinum substitutes in jewellery. The prices
of these metals are therefore inter-related and the degree of
substitution can depend on the price differentials between them.
Notable Events
A. 1983-1988: The Isle of Man issues the fi rst platinum
coins, followed by Australia and Canada in 1988.
B. 1997: U.S. launches ‘The Platinum American Eagle’,
doubling investment demands from 1996 levels.
C. 2000: China introduces cleaner air restrictions on
vehicles.
Source: Morgan Stanley / Bloomberg as at July 2007. Price data based on front-month NYMEX futures
contracts. Past performance is not indicative of future performance.
Estimated World Platinum Mine Production 2006
Source: U.S. Geological Survey.
SZ - 77%
RU - 14%
CA - 3%
US - 2%
OTHER - 4%
INDEX
Platinum Price History 1987 - 2007
USD
/ T
RO
Y O
UN
CE
1600
1200
1000
800
600
400
200
0
PLATINUM PRICE
1987 1990 1993 2002 20051996 1999
B
A
C
12
For millennia, gold has been embraced as a valuable commodity, owing to its beauty, its chemical properties and also its role as a monetary asset.
Gold has been an international currency for centuries. As late as 1900-
1933, during the period of the Gold Standard, paper money could be
converted into gold at a fixed price and central banks all held large
reserves. By the mid twentieth century, and the introduction of the Bretton
Woods System, paper currencies were pegged to the US dollar and, in
1971, President Nixon cancelled the convertibility of the dollar into gold.
However, gold is still a major component of central bank reserves and, in
many parts of the world, it retains its use as a form of payment and a
savings vehicle.
Gold has been mined since around 2000 BC. However, some of the largest
discoveries were in the 19th century: in California (sparking the Gold Rush)
and in South Africa. Mining gold, especially in the deep mines of South
Africa, is very capital intensive. As a result, mining activity and exploration
have tended to increase when the price of gold is high and the rewards
are greater. Currently the world’s largest producers of gold are South
Africa, Australia and the USA.
Supply to the gold market also comes from existing “above-ground”
stocks, including jewellery, investor holdings and central bank reserve
accounts. International agreements such as the Washington Accord have
set limits to the sale of gold by participating central banks.
Pure gold is usually hardened by creating an alloy with other metals. The
gold content of alloys is measured in carats (ct k). Pure gold is designated
as 24k – lower carats mean a lower percentage of gold. Historically, in
England, the carat was divisible into four grains, and each grain into four
quarts. Therefore, in 24 carats there are 96 grains or 384 quarts.
The Football World Cup Trophy is made of solid 18-carat gold, so 75%
pure gold.
PRINCIPAL USES
Jewellery: This is estimated to account for around two-thirds of global
demand for gold. The world’s largest market for gold jewellery is India - as
a result, the demand for gold jewellery tends to peak during festive
seasons such as the Indian wedding season, Christmas and the Hindu
festival Diwali.
Electrical products: Gold’s conductivity, malleability and resistance to
corrosion make it a useful metal in the production of a wide range of
electrical products, especially in telecommunications, information
technology and safety-critical applications. Demand for gold has increased
as a result of growth in these sectors.
gold
New York Mercantile Exchange Gold Futures
Quote: USD and US cents / troy ounce
Contract size: 100 troy ounces
Chicago Board of Trade Gold Futures
Quote: USD and US cents / troy ounce
Contract size: 100 troy ounces
Chicago Board of Trade Mini-Gold Futures
Quote: USD and US cents / troy ounce
Contract size: 33.2 troy ounces
Tokyo Commodity Exchange Gold Futures
Quote: JPY / gram
Contract size: 1 kilogram
1 troy ounce is around 31.1g or 0.031kg.
13
Dentistry: As a non-toxic and biologically inert metal, gold is often
used in dentistry in the form of alloys with other metals such as
platinum, silver, palladium or copper.
A fi nancial asset: Gold has historically had many attractions for
investors, not least as a “safe-haven” asset, and a hedge against
infl ation and fl uctuations in the US dollar. Its accessibility has
increased recently through the launch of investment vehicles such
as Exchange Traded Funds.
THE GOLD MARKET
The three largest exchanges to trade gold futures are the New
York Mercantile Exchange (NYMEX), the Chicago Board of Trade
(CBOT) and the Tokyo Commodity Exchange (TOCOM). The most
liquid gold contract in the world is traded on NYMEX and is used
by large commercial consumers, producers and fi nancial players.
The TOCOM and CBOT contracts can be traded electronically.
The spot price of gold is fi xed twice daily by members of the
London Bullion Market Association, at 10:30am and 3:00pm
London time. The afternoon fi xing is used as a reference for the
price of gold globally.
Factors that can affect the price of gold include demand for
jewellery, industrial demand and investor interest. Gold’s role as
a “safe haven” asset means that investment demand can increase
in times of uncertainty or instability.
Because a high proportion of gold is held by central banks and
investors as above-ground stocks, increased demand can often
be readily met with above ground supply, rather than by increasing
mining production. This is one reason why gold has tended to be
less volatile than many other commodities.
Notable Events
A. 1975: Gold is no longer used to settle international
accounts - price now determined by market.
B. 1979-1982: War in the Middle East, US recession
and period of”stagfl ation” lead to fl ight to quality.
C. 1987: “Black Monday”.
D. 1996: Belgian central bank and IMF announce
sizeable sales of gold.
Gold Price History 1975 – 2007
USD
/ T
RO
Y O
UN
CE
1000
800
600
400
200
0
1975 1980 1985 1990 1995 2000 2005 2007
GOLD PRICE
Source: Morgan Stanley / Bloomberg as at July 2007. Price data based on front-month NYMEX futures
contracts. Past performance is not indicative of future performance.
INDEX
OTHERRU ID CA US
PE CN AU ZA
3000
2000
1000
0
Source: U.S. Geological Survey.
1997 1999 2001 2003 2005
Annual World Gold Mine Production (tonnes)
C
A
D
B
14
One of the precious metals, silver is characterised by a brilliant white metallic shine with high light reflection and the ability to withstand extremes of temperature. Silver also has good thermal and
electrical conductivity. Importantly, silver’s physical properties make it
desirable for both decorative and industrial uses.
Compared with other precious metals, silver is the least expensive and the
most abundant. It has long been recognised as a precious metal and used
to make jewellery and religious ornaments. Silver is thought to have been
fi rst mined in Anatolia (now Turkey) in around 3000 BC. By the end of the
19th century, many of the world’s high grade silver mines had been depleted.
However, technological advances in both mining and refi ning have increased
production. These advances have included the effi cient extraction of silver
from lower grade base-metal ores (see “Lead”). Much of today’s silver
production is as a by-product of lead, copper and zinc mining. The majority
of the silver supply today comes from mines located in Peru, Mexico, China,
Australia and Chile. Silver supply also comes from secondary sources such
as government sales and scrap recovery. In 2006, these accounted for 9%
and 21% respectively of global supply2. Today the demand for silver is driven
mainly by electronic industries, photography, jewellery and silverware as
well as investor demand.
PRINCIPAL USES
Jewellery and silverware: This malleable metal can be used to create
jewellery, ornaments, medals and even high quality musical instruments
such as fl utes. These items are traditionally made from sterling silver, which
is an alloy of silver and copper that achieves a brilliant polish. Silver’s unique
refl ectivity (it is practically 100% refl ective after polishing) also makes it
useful in items such as mirrors.
Industrial and electronic: Silver is used in many electrical applications, including
switches, contacts and fuses in appliances such as microwave ovens, dishwashers,
television sets and telephones. It is also used in batteries, bearings and circuit
boards. Silver is used in household switch contacts as it is non-corrosive when
combined with other metals, thereby minimising the risk of overheating.
Photography: Silver is used extensively in photography. Photographic
paper is coated in an emulsion of silver halide, which is light sensitive.
A fi nancial asset: Silver has historically been used as a monetary asset as
well as a physical asset, as a store of value and a “safe haven” investment.
Coinage: Historically, silver coins were used as a medium of exchange.
The United Kingdom monetary unit, the ‘Pound’, originally had the value of
one troy pound of sterling silver. According to the World Silver Survey 2007,
coinage still represented around 4% of global demand in 2006.
Medical uses: Silver is thought to have anti-bacterial properties. Bandages
that emit silver ions are sometimes used in the treatment of burns.
silver
Common Futures contracts
New York Mercantile Exchange Silver Futures
Quote: USD and US cents / troy ounce
Contract size: 5,000 troy ounces
Chicago Board of Trade mini-Silver Futures
Quote: USD and US cents / troy ounce
Contract size: 1,000 troy ounces
Tokyo Commodity Exchange Silver Futures
Quote: JPY / 10g
Contract size: 60kg
1 troy ounce is around 31.1g or 0.031kg
2 Source: World Silver Survey 2006 / Silver Institute
15
THE SILVER MARKET
The most liquid silver futures contracts are the New York Mercantile
Exchange (NYMEX) silver contract and the Chicago Board of Trade (CBOT)
Mini-Silver contract, which is traded electronically.
Although the majority of paper contracts are traded in the US, London
remains the centre of the physical silver market. The spot price of silver
is still “fi xed” in London at 12:00pm each day.
The price of silver is driven not just by demand as a physical asset but by
investor activity. Indeed, the silver market has seen its share of large
investors. In the 1970s, Nelson Bunker Hunt and William Herbert Hunt fi rst
started investing in silver as a hedge against infl ation, but eventually
attempted to corner the silver market by accumulating a significant
proportion of the world’s deliverable supply. In the end, new margin
requirements, rising interest rates and then falling silver prices forced the
brothers to liquidate their positions and declare bankruptcy.
Changing usage can also be a factor in the silver market. Some industrial
uses of silver have declined as new materials are substituted. For example,
the use of silver in coinage has diminished, and the increased use of digital
prints could impact the use of silver in photography.
Silver Price History 1975 – 2007
USD
/ T
RO
Y O
UN
CE
50
40
30
20
10
0
SILVER PRICE
Notable Events
A. 1980: The price of silver reaches an all time high of US$ 49.45, then plummeted when exchanges
increased margins requirements. Large investors (notably Hunt brothers) forced to liquidate.
Source: Morgan Stanley / Bloomberg as at July 2007. Price data based on front-month NYMEX futures
contracts. Past performance is not indicative of future performance.
1975 1980 1985 1990 1995 20072000 2005
Mined Silver Production by Country
Source: World Silver Survey 2007/Silver Institute.
MX - 15% PL - 6%
PE - 19% CL - 8% CA - 5%
OTHER - 10%
INDEX
KZ - 4%
CN - 12% RU - 6%
AU - 9% US - 6%
Silver Usage
INDUSTRIAL APPLICATIONS - 48%
PHOTOGRAPHY - 16%
INDEX
SILVER WARE - 6%
JEWELLERY - 18%
COINS & MEDALS - 4%
NET GOVT. PURCHASES /
PRODUCER DE-HEDGING - 1%
IMPLIED NET INVESTMENT - 7%
Source: World Silver Survey 2007/Silver Institute.
A
base metals: aluminium, copper, lead, nickel and zinc
11
18
Aluminium is a lightweight metal with a silvery grey colour, and a very high resistance to corrosion. It is one of the most abundant elements in the earth’s crust. However, it took years of research to
unlock it from its raw form and produce the metal that is so widely used
today. It is a modern metal, both in its short history of commercial
production (less than one hundred and fi fty years) and in its uses.
Aluminium is primarily found in bauxite ore. The pure metal is extracted
through electrolysis, but fi rst the ore must be melted so that electricity
can fl ow through it. Because of the very high melting point (above 2,000
degrees Celsius), this is diffi cult and energy intensive. The melting point
is usually reduced to around 900 degrees Celsius by dissolving the ore in
molten cryolite (a mineral found in Greenland) or synthetic alternatives.
China is the largest producer of aluminium, followed by Russia, Canada
and the USA. Current world production stands at around 30 million metric
tonnes a year. As well as production from primary sources, aluminium
is one of the most commonly recycled metals. Worldwide recycling has
grown from practically zero in the 1950s to over 15 million tones a year
in 20043. Recycling uses far less energy than primary production. For
example, according to the US Aluminum Association, making new
aluminium cans uses 95% less energy than producing a can from primary
production.
Under certain conditions, minute particles of aluminium can ignite, making
it a useful component of rocket fuel for space exploration.
PRINCIPAL USES
Transportation: Aluminium’s use in transportation includes the
construction of cars, aircraft and ships. Aluminium structures are
signifi cantly lighter than equivalent steel structures, resulting in greater
fuel effi ciency and therefore lower environmental cost.
Construction: The corrosion resistant qualities of aluminium, together with
its light weight and high strength make it attractive to the construction
industry. It is widely used in buildings, including as cladding, which increases
the energy effi ciency of structures due to its refl ective nature. One downside
in using aluminium is that it has low fatigue strength. Engineers therefore
tend to design aluminium structures for a fi xed life span.
Packaging: Aluminium can be shaped into ultra-thin, light sheets to
package a range of foodstuffs, providing an absolute barrier to light,
moisture and oxygen. As a result, aluminium foil has become the most
versatile packaging material on the market today.
THE ALUMINIUM MARKET
Aluminium is the largest traded contract on the London Metal Exchange
(LME). There are four open outcry trading sessions daily and offi cial prices
aluminium
Common Futures contracts
London Metal Exchange Aluminium Futures
Contract size: 25 tonnes
Quote: USD / tonne
Aluminium Alloy Futures
Contract size: 20 tonnes
Quote: USD / tonne
NASAAC Aluminium Alloy Futures
Contract size: 20 tonnes
Quote: USD / tonne
New York Mercantile Exchange
Aluminum Futures
Contract size: 44,000 pounds
Quote: US cents / pound
3 Source: European Aluminium Association
19
are set during aluminium’s second trading session (or “ring”) of
the day, from 12.55 to 13.00. The LME is the primary futures
market for aluminium, although an alternative contract trades on
the New York Mercantile Exchange (NYMEX).
The LME has also introduced two contracts for aluminium alloy:
one standard contract and a North American Special Aluminium
Alloy contract (NASAAC) that meets the specifi cation of North
American manufacturers.
Factors that can affect the price of aluminium include the
following:
Energy costs: Because aluminium extraction is energy intensive,
profi tability of production (and therefore the level of supply to the
market) depends heavily on production costs, including the costs
of the energy consumed.
Carbon taxes: Since the aluminium extraction process is so
energy intensive, carbon taxes could impact production. Smelters
may be relocated to areas where carbon taxes are not imposed,
altering the structure of the global smelting industry.
Source: Morgan Stanley / Bloomberg as at July 2007. Price data based on front-month
futures contracts. Past performance is not indicative of future performance.
Aluminium Price and Inventory, 1998 - 2007
INVE
NTO
RY
(TO
NN
ES)
1800000
1500000
1200000
900000
600000
300000
0
20071998 1999 2000 2001 2002 2003 2004 2005 2006
PR
ICE
(USD
/ T
ON
NE)
6000
5000
4000
3000
2000
1000
0
LME INVENTORYLME ALUMINIUM FUTURES
CN - 26%
RU - 11%
US - 7%
AU - 6%
NO - 4%CA - 9%
BR - 5%
IN - 3%
Estimated World Smelting Production 2006
Source: U.S. Geological Survey.
OTHER - 29%
INDEX
20
This reddish metal was one of the fi rst metals to be mined and used by man. The use of copper, along with gold, marked the shift out
of the Stone Age. It continues to be used extensively today: after iron
and aluminium, copper is the third most widely used metal in the world.
It has excellent heat and electrical conductivity as well as the ability to
resist corrosion.
Copper can be found in its natural state on the earth’s surface but is
usually extracted from mineral ores. Copper is extracted from ore in a
smelting process, thought to have been developed in around 5000 BC.
Ores containing oxidised metals are heated together with a reducing
agent, commonly a carbon fuel, to remove the oxygen from the pure
metal. Other methods of extraction and purifi cation include acid leaching
of oxidized ores.
Although copper is found worldwide, the main producing regions are the
Americas (Chile, USA, Peru and Canada), Australia and Asia (Indonesia and
China). In the nineteenth century, when copper smelting began on an
industrial scale, the UK was the centre of production. However, as the
concentration of copper in ore has declined (requiring greater quantities
of ore), production has moved closer to the main mining regions.
PRINCIPAL USES
Construction: Copper is used in the production of pipes for plumbing,
guttering, heating and ventilation as well as building wire and sheet metal.
Due to its malleability, copper has also been used historically in decorative
construction: the Statue of Liberty is constructed from copper and has
suffered little corrosion during her hundred year history.
Electronics and electrical: The strong conductive quality of copper
makes it the metal of choice in the production of cable, wire and electrical
products. A few examples of copper’s wide usage include copper wire,
printed circuit boards, electromagnets, motors, generators, switches,
cathode ray tubes and magnetrons for microwave ovens.
In alloys: Copper in its pure form is soft and malleable – too soft for some
uses. Alloys of copper with other metals can be harder than pure copper.
Copper is alloyed with tin to produce bronze and with zinc to produce brass.
Coinage: Copper is frequently used in the production of coinage due to
its low corrosion properties.
THE COPPER MARKET
The majority of copper trades on the London Metal Exchange (LME).
Offi cial prices are set during copper’s second “ring” (open outcry trading
session) of the day, from 12.30 to 12.35.
copper
Common Futures contracts
London Metal Exchange Copper Futures
Contract size: 25 tonnes
Quote: USD / tonne
New York Mercantile Exchange
Copper Futures
Contract size: 25,000 pounds
Quote: US cents / pound
21
Copper is viewed by some economists as a good indicator of growth
– price rises have often preceded periods of economic expansion.
Factors that can affect the price of copper include the following:
Growth in China: Chinese imports for industrial production have
been a major factor in global demand for copper in recent years.
Supply constraints: Supplies of copper depend on raw materials,
smelting and refi ning capacity and, importantly, stock availability.
The LME reports daily on stock levels. Data on US inventories is
released by the US Department of Energy at 10.30 EST every
Thursday. Data on Asian stocks is published by the Shanghai
Futures Exchange on Fridays.
Change of usage: As new technologies develop, uses of raw
materials change.
Political risk: New supplies of copper could come from regions
of high political risk such as Central Africa.
Source: Morgan Stanley / Bloomberg as at July 2007. Price data based on front-month
futures contracts. Past performance is not indicative of future performance.
Copper Price and Inventory, 1998 - 2007
INVE
NTO
RY
(TO
NN
ES)
1200000
1000000
800000
600000
400000
200000
0
20071998 1999 2000 2001 2002 2003 2004 2005 2006
PR
ICE
(USD
/ T
ON
NE)
12000
10000
8000
6000
4000
2000
0
LME INVENTORYLME COPPER FUTURES
CL - 35%
US - 8%
ID - 5%
CN - 5%
ZM - 4%
PL - 3%
PE - 7%
RU - 5%
AU - 6%
CA - 4%
2006 World Mine Production for Copper (Estimated)
Source: U.S. Geological Survey.
OTHER - 18%
INDEX
22
Lead is a soft, dense metal. It is blue-white in colour but turns grey when exposed to air. Its availability, easy extraction, softness and low melting point have made it widely used throughout history. However, as lead’s toxic effects were recognised, its usage changed.
Lead is no longer used in paints or as a sweetener in food and wine but
it is still one of the most widely used and versatile metals. Lead has a
particularly high density, which makes it an effective shield against
radiation and sound waves.
Lead is abundant in the form of ore mixed with other metals. It is usually
smelted to produce lead bullion, then refi ned to remove other metals and
impurities. These can include gold, silver, antimony, arsenic, copper, tin
and zinc. Copper is usually the fi rst impurity to be removed. The lead is
heated to just above melting point, when solid copper rises to the surface
and is skimmed off. Other impurities are removed using a variety of
pyrometallurgical techniques in a furnace. Electrolytic methods are also
being used to purify lead and are regarded as cheaper than the
pyrometallurgical methods.
Australia, China and the US are the main producers of lead. Lead supply
comes from a combination of newly mined lead and recycled scrap, in
roughly even proportions.
PRINCIPAL USES
Batteries / auto industry: Lead’s main use today is in lead-acid batteries,
where it is used because of its resistance to chemical erosion. Lead-acid
batteries are used to start cars and other vehicles and also to power
electric vehicles and provide emergency power when electricity supply
fails. As other uses for lead have declined because of concerns about
toxicity, demand for lead in batteries has continued to grow.
Construction: Lead has a high resistance to corrosion and is therefore
ideal for weatherproofi ng buildings. Flexible lead sheets are attached to
the outsides of buildings to create a long-lasting coating.
Radiation shields: Lead’s high density makes it an ideal material in
laboratories, hospitals and the nuclear industry to shield against radiation.
Powdered lead can also be added to plastic and rubber sheets to
manufacture protective clothing.
Glass: Lead can be added to glass to create ‘Lead Crystal’. This provides
a superior shine and also makes the glass softer and easier to cut.
Piping: Although no longer used in the piping for domestic water supplies,
lead is used for pipes to transport corrosive chemicals due to its high
chemical resistance.
Ammunition: Lead is used widely in ammunition. However, other less
toxic substances are being investigated as alternatives.
lead
Common Futures contracts
London Metal Exchange Lead Futures
Quote: USD / tonne
Contract size: 25 tonnes
23
THE LEAD MARKET
Lead has been traded on the London Metal Exchange (LME) since
1903. The current lead contract was introduced in 1953.
Demand for car batteries: Increased use of cars, especially in
emerging markets such as China, drives much of the demand for lead.
Scrap metal supply: Lead is distinct from other base metals in
that supplies depend on scrap metal as well as primary production.
When lead prices are low, it may not be profi table to collect and
recycle scrap. Likewise, when prices are high, sourcing and
recycling scrap is more profi table. This can have an impact on
supply, and thereby on price.
Regulation and the environment: Concerns about the toxicity
of lead could lead to tighter controls in both primary production
and recycling facilities. Concerns about lead usage can also lead
to the substitution of lead with other materials such as plastics,
in some applications.
Supply/demand for other base metals: Where two metals are
produced in conjunction with each other, a fall in output of one could
lead to a fall in output of the other. For example, lead and zinc are
often produced together so supply patterns can be linked.
Source: Morgan Stanley / Bloomberg as at July 2007. Price data based on front-month futures
contracts. Past performance is not indicative of future performance.
Lead Price and Inventory, 1998 - 2007
INVE
NTO
RY
(TO
NN
ES)
250000
200000
150000
100000
50000
0
20071998 1999 2000 2001 2002 2003 2004 2005 2006
PR
ICE
(USD
/ T
ON
NE)
5000
4000
3000
2000
1000
0
LME INVENTORYLME LEAD FUTURES
CN - 31%
AU - 23%
US - 13%
PE - 10%
MX - 4%
2006 World Mine Production for Lead (Estimated)
Source: U.S. Geological Survey.
OTHER - 19%
INDEX
24
Nickel is a silvery white, hard metal. This abundant, natural element has many useful properties including high corrosion resistance, high melting point and durability. It is not only useful in its pure form
but can also be combined with other metals to form alloys and with other
non-metallic elements to form compounds.
Although only a small fraction of the composition of the earth’s crust,
nickel is much more abundant in the deeper core of the earth. There are
many different nickel ores, which require different extraction processes
depending on the composition of the ore. These processes are similar to
copper smelting, though nickel typically requires higher temperatures.
By-products of the nickel production process include cobalt, copper,
platinum and palladium.
The main producer of nickel is Canada. However, deposits are also found
in Russia, Australia, Cuba and Indonesia.
PRINCIPAL USES
Stainless steel: The biggest use of nickel is as an alloying metal, along
with chromium and other metals, in the production of stainless steel.
Stainless steel is used in transport and chemical processing, as well as
equipment for food processing. Many products in the home, such as sinks,
pots and other utensils are made from stainless steel due to their ease of
cleaning and shiny appearance.
Other alloys and compounds: Nickel can be combined with other
elements to produce plating material. Nickel plating offers strong
resistance to corrosion and high temperature, providing a durable coating
for industrial and electronic equipment.
Coinage: Nickel’s resistance to oxidisation makes it a useful material
in the manufacture of coins. In fact, the US five cents coin is commonly
called a nickel, in reference to the copper-nickel alloy from which it is
made.
THE NICKEL MARKET
Nickel started trading on the London Metal Exchange (LME) in 1979.
Offi cial prices are set during the second trading session (or “ring”) of the
day, from 13.00 to 13.05.
Factors that can affect the price of nickel include the following:
Growth in China: Demand for nickel has been influenced by strong
industrial production growth in China over recent years.
Supply constraints: The LME reports daily on nickel stock levels. Tight
inventories, together with limited smelting capacity, can affect the supply
and price of nickel.
nickel
Common Futures contracts
London Metal Exchange Nickel Futures
Quote: USD / tonne
Contract size: 25 tonnes
25
Demand for stainless steel: The majority of nickel is used in the
production of stainless steel. Therefore changes in demand for
stainless steel can potentially affect the nickel market.
Substitution with other metals: Recent high prices of nickel
resulted in a move towards the use of pig iron (raw iron) in
stainless steel production. Pig iron is a high-cost alternative to
nickel, so is only an economically viable alternative when nickel
prices are high.
Source: Morgan Stanley / Bloomberg as at July 2007. Price data based on front-month
futures contracts. Past performance is not indicative of future performance.
Nickel Price and Inventory, 1998 - 2007
INVE
NTO
RY
(TO
NN
ES)
70000
60000
50000
40000
30000
20000
10000
0
20071998 1999 2000 2001 2002 2003 2004 2005 2006
PR
ICE
(USD
/ T
ON
NE)
70000
60000
50000
40000
30000
20000
10000
0
LME INVENTORYLME NICKEL FUTURES
RU - 19%
CA - 15%
ID - 8%
NC - 6%
CN - 5%
BR - 4%AU - 12%
CO - 6%
CU - 4%
2006 Estimated Mine Production
Source: U.S. Geological Survey.
OTHER - 10%
INDEX
26
This blue-white metal is the fourth most common metal traded after iron, aluminium and copper. Zinc is usually produced from a mineral
called sphalerite, or zinc sulphide, which is often found in ores containing
other metals such as lead, silver and copper.
Zinc ore must fi rst be processed to remove any sulphur. By heating to
temperatures in excess of 900 degrees Celsius, sphalerite is separated
into sulphur and the more reactive zinc oxide. The sulphur can be converted
into sulphuric acid, a useful by-product. The zinc oxide is then processed
to produce the pure metal, either through electrolysis, where sulphuric
acid is used to dissolve the zinc content, or through pyrometallurgical
processes, where carbon is added into a smelting furnace to produce both
zinc and lead simultaneously.
At normal temperatures the metal is brittle and only becomes malleable
when heated or combined with other metals in alloys. Powdered zinc is
explosive and can ignite if stored in a damp place.
Over seven million tonnes of zinc were produced globally in 20064. The
largest zinc mines are found in China, Australia and Peru. However, zinc
can be recycled indefinitely without loss of its physical or chemical
properties. Consequently, a portion of the world’s annual zinc supply
comes from secondary, recycled sources.
PRINCIPAL USES
To galvanise steel: Nearly half of zinc production is used to galvanise
steel. This process involves dipping a metal object into molten zinc, which
forms a coating. Zinc’s chemical properties mean that it prevents corrosion
and thereby extends the life of steel used in construction.
As an alloy: Brass is an alloy of zinc combined with other metals, most
commonly copper. Brass is malleable and a good electrical conductor so
is used widely in electronic equipment.
Coinage: Zinc is the primary metal used in the production of American
one cent coins.
THE ZINC MARKET
Zinc trades on the London Metal Exchange (LME). Offi cial prices are set
during zinc’s second trading session (or “ring”) of the day, from 12.50 to
12.55.
zinc
Common Futures contracts
London Metal Exchange Zinc Futures
Contract size: 25 tonnes
Price Quote: USD / tonne
4 Source: U.S. Geological Survey
27
Factors that infl uence the price of zinc include the following:
Supply/demand for other base metals: As zinc ore contains deposits
of other metals, changes in markets for these metals can potentially affect
the quantities of zinc ore mined. For example, one of the zinc extraction
processes can also be used to extract pure lead from the raw material. If
the price of lead increases, more zinc ore may be processed, with
increased supply of zinc as a consequence.
Primary production: When demand outstrips supply, new production
capacity can emerge, including new mines or smelting plants, or the
reopening of existing plants. For example, high prices in recent years have
led to the reopening of several disused zinc mines worldwide.
Scrap metal supply: Zinc can be recycled from scrap metal. When prices
are low, it may not be cost-effective to collect and recycle scrap zinc. As
prices rise, it may become profi table to do so, resulting in increased
supply to the market.
Source: Morgan Stanley / Bloomberg as at July 2007. Price data based on front-month
futures contracts. Past performance is not indicative of future performance.
Zinc Price and Inventory, 1998 - 2007
INVE
NTO
RY
(TO
NN
ES)
1000000
800000
600000
400000
200000
0
0798 99 00 01 02 03 04 05 06
PR
ICE
(USD
/ T
ON
NE)
5000
4000
3000
2000
1000
0
LME INVENTORYLME ZINC FUTURES
CN - 13%
DE - 8%
IT - 6%
BE - 3%
ND - 3%
TW - 6%
IN - 3%US - 14%
HK - 5%
FR - 6%
UK - 3%
CN - 25%
AU - 14%
US - 7%
CA - 7%
MX - 5%
PE - 12% KZ - 5%
2006 Estimated Mine Production
Source: U.S. Geological Survey.
OTHER - 25%
INDEX
Zinc Imports by Country, by value, 2005
Source: United Nations Comtrade database,
DESA/UNSD.
OTHER - 31%
INDEX
energy: natural gas, crude oil, coal, electricity, carbon emissions and bio-fuels
11
30
Natural gas is a colourless, odourless gas that gives off large amounts of energy when burnt. It is cleaner than other fossil fuels,
emitting fewer greenhouse gases, and accounts for a signifi cant proportion
of worldwide energy use. Global production and consumption of natural
gas doubled between 1980 and 2006, according to estimates from the
U.S. Energy Information Administration.
Natural gas is found in reservoirs under the earth’s crust, often close to oil
fi elds or coal beds. Like oil and coal, it is a fossil fuel formed over millions
of years from decayed organisms. In its unrefi ned form, natural gas is a
mixture of several gaseous fossil fuels - primarily methane but also ethane,
butane, propane, carbon dioxide, nitrogen, helium and hydrogen sulphide.
Once extracted, natural gas is refi ned to remove impurities such as oil, water
and other hydrocarbons. The refi ned natural gas is mostly methane and
must be of a certain purity before it can be transported and used as a fuel.
The refi ning process usually takes place in the same region as extraction.
Once refi ned, natural gas is liquefi ed or compressed for transportation.
Liquefi ed natural gas (LNG) is easier to transport over long distances as
it is around 600 times lower in volume. However, liquefying involves cooling
to around -160ºC, an expensive process. Compressed Natural Gas (CNG)
has a lower cost of production and storage. Residential and smaller users
usually get CNG by pipeline while larger industrial users may receive LNG
by insulated tanker.
The main producers of natural gas are Russia, the United States and
Canada. However, there are also estimated to be signifi cant reserves
elsewhere, particularly in Iran and Qatar5.
An alternative source of methane is ‘landfi ll gas’. Some landfi lls discharge
a methane-rich gas that can be tapped and used to generate electricity.
PRINCIPAL USES
Power generation: Natural gas is used to generate electricity through
gas and steam turbines.
Hydrogen: Hydrogen can be produced from natural gas. Hydrogen is used as
an important ingredient for the chemical industry and increasingly in fuel cells.
Residential, commercial and industrial use: Natural gas is one of the
cheapest and most versatile forms of energy. Its many uses include
cooking, heating and air conditioning.
Vehicle fuel: Both LNG and CNG can be used as vehicle fuel and are
considered quieter and cleaner than diesel. Because of the cost of
converting vehicles and limited availability of natural gas at fi lling stations,
the use of natural gas vehicles is not yet widespread. However, it is
growing steadily as more countries offer tax incentives. CNG cars are
natural gas
Common Futures contracts
NYMEX Natural Gas Futures
Contract Size: 10,000 million British thermal units
Quote: USD / million British thermal units
ICE Natural Gas Futures
Contract Size: 1,000 thermal units
Quote: GB pence / thermal unit
5 Source: U.S. Energy Information Administration / World Oil
31
most widely used in Argentina, Brazil, Pakistan and Italy. LNG tends
to be used by large commercial vehicles as it must be kept in
insulated tanks that require large amounts of space.
THE NATURAL GAS MARKET
Natural gas futures contracts trade on the New York Mercantile
Exchange (NYMEX) and the Intercontinental Exchange (ICE) in
London. NYMEX futures are quoted based on delivery at the Henry
Hub (HH) in Louisiana, the junction of 16 intra- and inter- state
pipelines. Because most natural gas is transported by pipeline,
the North American and European markets tend to be quite
isolated from each other.
There are many factors that drive natural gas prices, including the
following:
Seasonality: The natural gas market is highly seasonal. Inventories
are built during the summer and drawn down during the winter, when
demand peaks. Data on US inventories is released by the Department
of Energy at 10.30 EST every Thursday.
Weather: Extreme weather such as hurricanes can cause severe
disruption to production and delivery.
Economic growth: A strong economy can drive increased
demand for natural gas for industrial and commercial use
Availability of equipment and infrastructure: Exploration and
drilling are costly, meaning that new sources of supply have to be
planned well in advance. In addition, new pipelines are often major
strategic investments - they can take years to build but can
radically alter supply when they come on line.
Prices of other fossil fuels: As natural gas deposits are often
found alongside coal and oil, an increase in supply of other fuels
can lead to higher natural gas inventories. In addition, some high
volume users of natural gas, such as electricity generators, can
switch between natural gas and other fuels as prices become
more or less favourable.
Notable Events
A. December 1996: Cold weather sends price to record
high.
B. December 2000: Cold weather forecast drive price
higher.
C. August 2005: Hurricane Katrina hits Mississippi.
D. September 2005: Hurricane RITA strikes in Gulf of
Mexico. Natural Gas infrastructure is damaged.
Natural Gas Price History 1990 – 2007
USD
/ M
ILLI
ON
BR
ITIS
H T
HER
MA
L U
NIT
S
16
14
12
10
8
6
4
2
0
2007
NATURAL GAS PRICE
Source: Morgan Stanley / Bloomberg as at July 2007. Price data based on front-month NYMEX futures
contracts. Past performance is not indicative of future performance.
1990 1992 1994 1996 1998 2000 2004 20062002
C
A
D
B
32
Crude oil is the world’s most actively traded commodity. This fossil fuel is a mixture of hydrocarbons, formed over millions of years from the remains of organisms. Crude oil ranges in colour from black and dark
brown to pale yellow. It is classifi ed by its source, for example West Texas or
Brent (from the Brent oil fi eld in the North Sea). It is also classifi ed by viscosity
(light, intermediate or heavy) and as either ‘sweet’ or ‘sour’ depending on the
level of sulphur it contains.
The most common method of extracting crude oil is through oil wells
drilled into underground oil deposits. Underground pressure brings around
20% of oil to the surface. As the oil pressure falls, secondary recovery
methods such as re-injecting natural gas can draw another 5 to 10% of
the oil in the well. Finally, injecting steam and carbon dioxide can reduce
the viscosity of oil, allowing more to be drawn to the surface. Crude oil is
then transported to refi neries, where it is converted into petrol, naptha,
kerosene, diesel and other products.
The use of oil as a source of energy raises a number of environmental
issues. Many petroleum products give off carbon dioxide when burnt, while
the burning of sulphur-heavy ‘sour’ oil can cause acid rain. Oil drilling and
exploration can also disturb natural habitats, though modern remote
sensing technologies have lessened the impact. Oil spills from tankers -
such as the Exxon Valdez spill in Alaska in 1989 - have had major
environmental consequences.
The global supply of crude oil is heavily infl uenced by the actions of the
Organisation of the Petroleum Exporting Countries (OPEC). OPEC was founded
in 1960, to unify and coordinate members’ petroleum policies. Its 12 member
countries meet regularly to fi x production quotas and to try to promote stability
in the oil market. Current members are Algeria, Angola, Indonesia, Iran, Iraq,
Kuwait, Libya, Nigeria, Qatar, Saudi Arabia, United Arab Emirates and
Venezuela. The Energy Information Administration (EIA) estimates that OPEC
members account for around 40% of world oil production, and about two-
thirds of the world’s proven oil reserves. Other significant oil producing
countries include Russia, the US, the UK and Norway.
The process of breaking down heavy crude oil into useful fractions such
as petrol is known as “cracking”. The “crack spread” is the difference
between the price of crude oil and the price of refi ned oil products.
PRINCIPAL USES
Energy: Crude oil is used mainly to produce energy. It is converted at
refi neries into a range of energy-rich fuels including petrol and diesel.
Fertilizers: Several of the by-products of crude oil refi ning can be used
in the production of fertilizers.
Plastics: Petrochemical by-products of the refi ning process are used in
the manufacture of many plastics and waxes.
crude oil
Common Futures contracts
ICE Futures Europe Brent Crude Oil
Contract size: 1,000 barrels
Quote: USD / barrel
NYMEX West Texas Intermediate (WTI) Futures
Contract Size: 1,000 barrels
Quote: USD / barrel
33
Bitumen: This is a by-product of the refi ning process and is used
for road surfacing.
THE CRUDE OIL MARKET
The two most common oil futures contracts are Brent Crude and
West Texas Intermediate. These two contracts are used to price
over 65% of the world’s oil. As West Texas Intermediate is focused
primarily on the American market, Brent Crude futures are
considered the international oil price benchmark. Although Brent
has traditionally traded at a discount to West Texas Intermediate,
this is not always the case.
Factors driving the crude oil market can including the following:
Global demand: In recent years, increased demand from fast-
growing and energy intensive emerging economies such as China
have infl uenced oil prices. Coupled with tight inventories, and
limited production and refi ning capacity, this demand has pushed
up (and may continue to push up oil prices).
Weather disruptions: Adverse weather conditions in producing
and refi ning countries can affect supply. Recent examples include
hurricanes Katrina and Rita in 2005, which damaged a number of
processing plants and oil rigs in the US.
Seasonality: Demand for crude oil is somewhat cyclical – for
example, the US “driving season” can lead to increased demand
in summer, while unseasonably warm winter weather can reduce
demand for heating oil.
Geopolitical events: Oil is commonly referred to as ‘black gold’
and is an extremely valuable asset to many oil producing nations.
This can create political tensions as competition grows for an
increasingly scarce resource.
Supply: If demand outstrips supply and processing capacity is
limited, inventories of crude oil may decrease, infl uencing the price.
The decisions of OPEC can significantly impact prices. Every
Wednesday at 10.30am EST, the US Department of Energy releases
data on oil inventories. Increases (“builds”) are bearish whereas
decreases (“draws”) are bullish for the price of oil.
Source: Morgan Stanley / Bloomberg as at July 2007. Price data based on front-month futures contracts.
Past performance is not indicative of future performance.
Notable Events
A. 1990 - 1991: Gulf War.
B. December 1997: OPEC increases quota, despite
decline in Asian consuption.
C. 1999: Series of OPEC quota reductions.
D. March 2003: Start of war in Iraq.
WTI and Brent Crude Price History, 1989 - 2007
USD
/ B
AR
REL
100
80
60
40
20
0
1989 1991 1993 1995 1997 1999 2001 200720052003
WTIBRENT
C
B
D
A
34
Coal is the world’s most abundant fossil fuel and is widely used to generate energy and electricity. It is found naturally, formed from
organic matter in the same way as other fossil fuels and composed mainly
of carbon, hydrogen and oxygen.
Coal varies in composition depending on its age. Over time, coal tends to
develop lower moisture, a higher carbon content and more heat producing
energy – this is referred to as ‘higher rank coal’. The highest ranking coal,
graphite, is diffi cult to ignite and therefore not commonly used as fuel.
Lower ranking coals such as lignite and sub-bituminous coal can be used
for steam-electric power generation, whereas bituminous coal and
anthracite can be used for heating.
Coal has been used throughout history, but it was during the Industrial
Revolution in the 18th and 19th centuries that demand surged. The modern
steam engine, invented by James Watt and patented in 1769, triggered the
use of coal in steamships and trains. In the 1960s, following huge growth
in global transportation, oil overtook coal as the largest source of primary
energy. Even so, coal still plays a vital role, accounting for 40% of global
electricity production, more than double the next largest source6.
Like crude oil, coal is under fi re for its environmental impact, including the
carbon dioxide and sulphur dioxide it produces when burnt. However, there
are ongoing technological developments that could make coal-fi red power
generation cleaner and more effi cient in the future. Some examples of
“clean coal technology” include the following:
Gasifi cation: Coal is transformed through a chemical process into a
synthetic hydrogen gas that can be burnt cleanly to generate power.
Carbon capture: Carbon dioxide produced in power stations is pumped
into disused coal fi elds or oil fi elds.
Coal washing: Washing coal before it is burnt can remove some of the
impurities that cause pollution.
Supercritical boilers: These allow power plants to operate at far higher
temperatures, resulting in greater effi ciency and lower emissions per
unit generated.
Coal is a well-supplied global industry. There are reserves in over 70
countries, although three-quarters of the world’s total reserves are in the
USA, Russia, China, India and Australia. It has been estimated that there
are over 900 billion tonnes of proven coal reserves worldwide, This means
that at the current production levels, there is enough coal to last us over
160 years7.
Compared with some other fossil fuels and many renewable energy sources,
coal is easily stored. Since energy prices can be volatile, the ability to
purchase supplies and keep them in reserve can be advantageous.
coal
Common Futures contracts
NYMEX Central Appalachian (CAPP) Coal Futures
Contract Size: 1,550 tons
Quote: USD per ton
6, 7 Source: Energy Information Administration
35
Coal is the object of many superstitions: carrying a small lump is meant
to bring luck to sailors and standing on the stage of a theatre and throwing
a piece into the gallery is said to bring success to a performance.
PRINCIPAL USES
Generating electricity: Burning coal to generate electricity is a relatively
new usage. Coal was fi rst used to generate electricity in steam turbines
only in the 1880s. Since then, new combustion technologies have improved
the thermal effi ciency of coal power stations, allowing more electricity to
be produced from less coal.
Construction: By-products of coal-fi red power stations such as fl y ash
can by used to make concrete and in road construction.
Production of coke: Lower ranking bituminous coal produces vast
quantities of smoke when burned. However, it can be baked to remove
the smoke-producing elements. The resulting “coke” is used in blast
furnaces for the production of iron and steel. By-products of this process
include coke gas, tars and oils.
Production of steel: Around two-thirds of worldwide steel production is
from coal-powered furnaces8.
Other uses: Products that use coal or its by-products include
pharmaceuticals, solvents, silicone lubricants and materials such as
carbon fi bre, rayon and nylon.
THE COAL MARKET
Coal prices are affected by numerous variables, including but not limited
to the following:
Weather: Weather patterns can impact both coal production and delivery.
Demand can also be seasonal, with coal being used to generate energy
for air conditioning in summer and heating in winter.
Environmental concerns: When coal is burnt, it gives off carbon dioxide
plus pollutants such as sulphur, nitrogen oxide and mercury. Although
technologies are now being developed to reduce these effects (see above),
environmental concerns remain. Legislation on greenhouse gases could
potentially have a signifi cant impact on the price of coal.
Prices of other energy commodities: The price of other energy
commodities such as natural gas and oil as well as other renewable forms
of energy could infl uence the price of coal.
Global demand: As countries like China expand their production capacitiy,
they have an increased need for more raw materials, including coal and
other fossil fuels.
8 Source: World Coal Institute.
World Coal Reserves
US - 27%
RU - 17%
AU - 9%
SA - 5%
RS - 2%
Source: U.S. Energy Information Administration.
OTHER - 8%
INDEX
CN - 13% UA - 4%
IN - 10% KZ - 3%
PL - 2%
World Coal Consumption, 2006 Estimates
CN - 36%
US - 17%
DE - 4%
RU - 4%
ZA - 3%
Source: U.S. Energy Information Administration.
OTHER - 25%
INDEX
IN - 8% JP - 3%
36
Electricity is a controllable and convenient source of energy, of great importance to our everyday lives. Generators at power plants
transform other forms of energy into electrical energy. Renewable sources
of energy used to general electricity include solar energy, wind power,
water power, geothermal energy and biomass. Non-renewable sources
include fossil fuels and nuclear power. The source of energy used in any
particular region will depend on the natural resources and processing
facilities available. While different types of power plant have different levels
of effi ciency levels, most are only around 35% effi cient, meaning that for
every hundred units of energy generated, only 35 are converted into
electricity.
There is currently no known way to store large amounts of electricity. Once
generated, it must be transported straight to where it is needed, as a
‘current’ or ‘fl ow’ of energy through cables. The two main ways to transmit
electricity are as direct current (DC), when the current flows in one
direction, and alternating current (AC), when it switches direction many
times per second.
Until recently, DC had to be transmitted at low voltage, which limited its
use: low voltages require much thicker wire to transmit the same power
so high voltage is more cost effective, especially over long distances.
AC can be transformed readily from low to high voltage and back again.
As a result, most transmitted power is AC, However, HVDC (high voltage
direct current) has now been developed and is used in, for example,
submarine cables.
Electricity is measured in units called ‘Watts’, in reference to James Watt,
the inventor of the modern steam engine. 750 Watts is the same as one
horsepower, and 1,000 watts is referred to as a ‘kiloWatt’. Electricity
usage is measured in terms of kiloWatt hours: for example, a 40 Watt
lightbulb in use for 48 hours constantly would require 2 kiloWatt hours (40
x 48 / 1,000) of electricity.
PRINCIPAL USES
Domestics and industrial use worldwide: Electricity is used in almost every
aspect of modern life, for heating, lighting, and air conditioning, in many every
day tasks and as part of the essential infrastructure of most communities.
Direct currrent: DC is used in many low voltage applications, including
car electrics, computers, some railways. Many household appliances also
work on DC, using adaptors to convert mains AC supply.
Alternating current: AC is the most common mains electricity supplied
by most national grid networks.
THE ELECTRICITY MARKET
Electricity contracts are traded in a similar way to other commodities.
electricity
Common Futures contracts
ICE Futures Electricity (example contracts)
UK Base Electricity Futures
UK Peak Electricity Futures
Quote: GBP / MegaWatt Hour
NYMEX Electricity Futures (example contracts)
ISO New England peak Daily Futures
NYISO A Peak Daily Futures
NYISO G Peak Daily Futures
NYISO J Peak Daily Futures
Cinergy Hub Peak Daily Futures
Quote: USD / MegaWatt Hour
37
However, there is no single commonly used futures contract -
because electricity cannot be stored, futures contracts are often
specifi c to a particular delivery region (eg New England, USA) and
delivery time (eg peak, off-peak).
The cost of electricity will vary in different regions at different
times depending on a number of factors:
Source of electricity: Some sources of electricity are more cost-
effi cient than others. For example, a region with a mild climate,
no geothermic activity and no nuclear facilities may need to rely
on the burning of fossil fuels to generate electricity. Other regions
may have access to an abundance of renewable resources and
may therefore be able to generate electricity from a number of
cheaper sources.
Prices of fossil fuels: For electricity that is generated from fossil
fuel combustion, the price of these fossil fuels may directly
infl uence the price of the resulting electricity.
Demand: As electricity cannot be stored, short-term changes in
demand can infl uence price. In the longer term, demographic
changes and growing economies could result in increased demand
for electricity.
Environmental legislation: As environmental awareness
increases, economies may increasingly look to generate
electricity from greener, renewable sources, such as solar or
nuclear power. Burning fossil fuels not only has an environmental
impact. In countries where governments have implemented green
legislation, it may also result in a direct cost to the polluting
company as they will need to purchase carbon credits for their
carbon dioxide emissions.
38
“Greenhouse gases”, and their potential impact on the environment and climate, are a growing global issue. These gases are mainly a by-product of burning fossil fuels in electricity power plants, industry, aeroplanes and road vehicles.
International treaties such as the Kyoto Protocol set limits on the amount
of greenhouse gases – including carbon dioxide - that countries can
produce. Participating countries can delegate part of achieving their
obligation onto the business community through the creation of cap and
trade schemes. In these schemes, individual businesses are given carbon
credits equal to their respective emissions caps. One credit gives the
owner the right to emit one tonne of carbon dioxide. Those that are over
their caps must buy credits for their additional emissions, while businesses
that are below their caps can sell their unused credits.
Carbon credits are a mechanism to incentivise businesses to reduce
greenhouse emissions by giving a monetary value to the cost of polluting
the air. The existence of a market for these credits allows businesses for
which it would be diffi cult or expensive to cut their emissions to effectively
pay another market participant to make reductions on their behalf. For
example, a seller of carbon credits might be an organisation that
undertakes projects that reduce carbon emissions, such as switching from
coal-generated to biomass-generated electricity.
THE KYOTO PROTOCOL
In 1997, world leaders met in Kyoto, Japan to agree a plan to reduce
global greenhouse gas emissions. The Kyoto Protocol, which came into
force in 2005, sets emission limits and reduction obligations for six gases.
Of these, carbon dioxide is the most prominent, followed by methane and
nitrous oxide. The Protocol requires an overall reduction in greenhouse
gases by 5.2% from the 1990 level, calculated as an average over the
period from 2008 to 2012. Different countries have different targets. For
example, the United Kingdom agreed to reduce emissions by 12.5%,
whereas Spain was actually allowed to increase emissions by 15%.
Some of the largest global economies, notably the US, have not ratifi ed
the protocol. There is also concern amongst climate change specialists
that the targeted reduction of 5.2% is not sufficiently aggressive.
Nevertheless, the Kyoto Protocol has created a systematic framework for
reducing emissions and also led to the creation of a new market in the
trading of carbon credits.
THE CARBON CREDITS MARKET
The EU Emissions Trading Scheme (ETS) is the largest “cap and trade”
scheme in the world. Within the scheme, quotas for permitted emissions
are set at a national level and are typically passed on to industry. Around
10,000 installations across the EU, including power plants, oil refi neries,
combustion plants, iron and steel plants and factories, are required to
carbon emmissions
Common Emissions contracts
ICE Futures Europe ECX Carbon Financial
Instruments Future
Contract size: 1,000 tones of carbon dioxide equivalent gas
Quote: EUR / tonne
39
submit carbon credits for emissions produced and must buy
credits for any additional emissions over their quota limit. In the
same way, businesses that are below their quotas can sell their
unused credits.
The ETS began in 2005, with a fi rst phase running from 2005 to 2007
and a second phase from 2008 to 2012. Credits are not transferable
between the fi rst two phases, but thereafter can be banked between
phases without restriction. Phase III is likely to run from 2012 to 2020
and should also include airlines for the fi rst time.
EU carbon credits and related futures trade on the Intercontinental
Exchange (ICE), in partnership with the European Climate
Exchange. Factors that could impact the price of emissions futures
include the following:
ETS quota levels: The market plunged in May 2006, when it
became apparent that that many businesses were on track to meet
their targets and would not need to purchase credits. For the
second phase (2008 – 2012), the EU has cut the proposed carbon
credit allocations for most participating countries.
Global emission forecasts: If emission forecasts continue to
rise over time, cap and trade schemes may require greater cuts
in emissions, driving demand for credits.
New market participants: Increased interest from outside
participants such as hedge funds, Exchange Traded Funds and
offsetting schemes could impact demand.
Notable Events
A. April 2006: Market responds to news that Phase 1
quotas are too generous.
B. April 2007: 21 EU nations have their Phase II
allowances cut by an average 9.5%.
Emissions Price History 2005 - 200735
30
25
20
15
10
CARBON CREDIT PRICE
Source: Morgan Stanley / Bloomberg as at August 2007. Price data based on ICE Futures Europe
ECX Dec 2009 contract. Past performance is not indicative of future performance.
EUR
/ T
ON
NE
APR 05 OCT 05 APR 06 OCT 06 APR 07
A
B
40
Bio-fuels are combustible gas, liquid or solid fuels derived from biological matter (biomass). They provide an alternative energy source that is generally cleaner than traditional fossil fuels. Biomass
is organic material made from plants, animals and their by-products (e.g.
wood, manure, garden waste, commercial garbage and crop residues).
The automotive, mining and marine industries are the main potential end
users of bio-fuels.
The principal of harnessing biomass for fuel is not new. Manure has been
dried and burnt as fuel for millennia. Early car pioneers such as Henry Ford
and Rudolph Diesel designed cars and engines to run on bio-fuels. Before
World War II, the UK and Germany both sold bio-fuels mixed with petrol or
diesel. However, the availability of cheap oil made it uneconomical.
Concerns about both the environment and the fi nite supply of fossil fuels
have now put the spotlight back on bio-fuels. Governments have been
working to reintroduce bio-fuels, particularly for transport. For example,
the British Government’s Renewable Transport Fuel Obligation requires 5%
of fuels sold at the pump by 2010 to be bio-fuels, while the US 2005
Energy Policy Act aims to double the use of bio-fuels in transport by 2012.
The 2003 EU Bio-fuels Directive also aims to promote the use of biofuels
in transport. According to the US Energy Information Administration, global
biofuel production has tripled between 2000 and 2007.
WHY BIO-FUELS?
Bio-fuels are considered “renewable” as the fuel source can be rapidly
replaced (fossil fuels take millions of years to be regenerated).
Bio-fuels may offer environmental benefi ts, including reduced greenhouse
gas emissions. Although bio-fuels emit carbon dioxide when burnt, this is
generally offset by the carbon dioixide absorbed from the air by the crops
that produce them. The overall impact of bio-fuels on the environment,
compared with fossil fuels, may not yet be fully understood – additional
considerations include the energy required to produce the fuel and the
impact on land use and biodiversity.
Bio-fuels allow governments to diversify their energy supply and reduce
dependency on foreign oil supplies.
WHAT ARE THE MAIN BIO-FUELS?
The most common types of bio-fuels are ethanol, bio-diesel and bio-butanol.
Ethanol is a clear colourless alcohol based fuel made primarily from the
starch found in corn grains and sugar cane. Other crops such as barley,
wheat, rice, sorghum, sunfl ower, potatoes and sugar beets can also be used
to produce ethanol. It is made by fermenting any biomass high in carbohydrates
through a process similar to beer brewing. The US and Brazil account for
most ethanol production and usage. The US produces corn-derived
ethanol whereas ethanol from Brazil comes mainly from sugar cane.
bio-fuels
41
Ethanol can be used as a total or partial replacement for petrol.
Petrol containing up to 10% ethanol can usually be used in ordinary
petrol engines. The use of petrol with a higher concentration of
ethanol, such as E85 (85% ethanol, 15% petrol), requires engine
modifi cations. Using ethanol cuts down carbon monoxide and
other smog-causing emissions. It also increases octane content,
keeping engines running smoothly without the need for lead or
other chemical additives. Although ethanol is cheaper to produce
than many other bio-fuels, there is a trade off with the cost of
modifying machinery if higher concentrations are used.
Bio-diesel is made by fi ltering, heating, reacting and distilling
vegetable oil (for example: soya, cottonseed, rapeseed), animal
fat, or recycled cooking grease. Bio-diesel can be blended with
petroleum diesel in ratios of 2% (B2), 5 % (B5), or most typically
20% (B20). It can also be used in pure form as an alternative fuel
for diesel engines (B100). Blended bio-diesel fuels can generally
be used in traditional diesel vehicles without any modifi cations.
Compared to petroleum diesel, bio-diesel results in lower
emissions of almost every pollutant, including carbon dioxide,
sulphur oxide, particulates, carbon monoxide and unburned
hydrocarbons. The bio-diesel market is centred in Europe, with
Germany as the biggest producer followed by France and Italy9.
Bio-butanol is made through the fermentation of biomass. It uses
similar feedstocks to those used for bio-ethanol, including corn,
wheat, sugar beet, sugar cane, sorghum, cassava and agricultural
by-products such as straw and corn stalks. The US is the biggest
market in terms of consumption and production. Bio-butanol can
be blended into standard grade petrol, petrol-ethanol blends or
diesel. It is compatible with existing vehicle technology and has
the potential to be incorporated into the existing fuel supply
infrastructure. Unlike ethanol, bio-butanol can be shipped through
existing fuel pipelines. However, bio-butanol production is currently
more expensive than ethanol so it has not been commercialised
on a large scale.
Please refer to the “Soft Commodities” section for information on
some of the main bio-fuel feedstocks: corn, soybeans, sugar,
rapeseed and wheat.
9 Source: European Biodiesel Board.
soft commodities: cocoa, coffee, corn, cotton, rapeseed, soybeans, sugar and wheat
44
Cocoa originated in Central and South America and was harvested from as early as 600 AD. During the Mayan civilisation, cocoa was a
valuable commodity, used as a currency and traded in exchange for other
goods. Cocoa pods were also symbols of life and fertility and were used
in religious ceremonies.
Cocoa reached Europe in the 16th century, when Spanish explorers like
Columbus and Cortes encountered the Aztecs, who were partial to a spicy,
unsweetened cocoa drink. Cocoa was consumed only as a drink until the
late 18th century, when techniques were developed for making chocolate.
HOW IS COCOA PRODUCED?
Cocoa is derived from the seeds, or beans, of the cacao tree. The trees
produce large pods that contain beans and a sweet pulp. It is the dried,
fermented beans that are processed and traded as cocoa.
Climate – both rainfall and temperature – is critical for cocoa crops. As a
result, production is concentrated in a very limited zone close to the
equator. The largest producers are Cote d’Ivoire, Ghana and Indonesia.
Much of the world’s cocoa supply is grown by small landholders in
developing countries where cocoa can be a signifi cant factor in the local
economy. For example, data from the World Bank suggests that cocoa
accounts for 22% of GDP in Cote d’Ivoire.
PRINCIPAL USES
Cocoa’s main use is for human consumption. Cocoa butter (the fat
extracted from cocoa) is also used in cosmetics.
THE COCOA MARKET
Cocoa is traded in both London and New York, in bean, butter and powder
form. Cocoa bean futures contracts are traded on ICE Futures U.S. and
on NYSE Euronext LIFFE.
Factors affecting supply and demand of cocoa, and therefore the market
price, include the following:
Weather conditions: The cocoa harvest is highly dependent on weather
conditions. Because the market is so geographically concentrated, poor harvests
in one of the major production zones can have a major impact on supply.
Political environment: Geographical concentration also means that
supply is sensitive to political conditions in the producing countries. For
example, the peaks in cocoa futures prices in late 2002 and early 2003
coincided with civil war in Cote d’Ivoire.
The cocoa growing cycle: The life cycle of cocoa trees has an important
impact on the cocoa market. Falling cocoa prices can lead to a reduction
cocoa
Common Futures contracts
ICE Futures US Cocoa Futures
Contract size: 10 tonnes
Quotation: USD / tonne
NYSE Euronext LIFFE Cocoa Futures
Contract size: 10 tonnes
Quotation: GBP / tonne
45
in planting, so that demand eventually outstrips supply. As prices increase,
growers plant more cocoa trees. However, it is usually at least three years
before newly planted trees begin to produce. If demand has slumped by
the time the trees mature, oversupply can lead to falling prices. This time
lag is key to some of the cyclical patterns in cocoa prices.
Technology: Fertilisers and chemicals can signifi cantly improve yields
and reduce disease. However, due to the high cost for growers, they are
not always widely employed.
Human consumption patterns: Demand for cocoa depends heavily on
the economies of its main consumers – in particular, the OECD countries.
Regulation and quality control: These can affect both the supply and demand
dynamics. There is increasing quality control at the export point in many cocoa
producing countries. At the same time, consumer countries regulate on permitted
ingredients and quality levels for chocolate. Some consumer countries, including
the UK, France, Russia, and several US states, are also implementing regulation
to limit the availability of chocolate bars in school vending machines.
World Consumption 2004/2005
Source: UNCTAD based on data from the
International Cocoa Association.
MX - 3%
IT - 5%
RU - 8%
CA - 3%
BE - 2%ES - 4%UK - 9%
PL - 3%BR - 4%FR - 10%
JP - 6%
DE - 12%
US - 33%
INDEX
World Production: 2005/2006 Estimates
CI - 38%
GH - 21%
NG - 5%
CM - 4%
EC - 3%
Source: UNCTAD based on data from
International Cocoa Organisation.
OTHER - 10%
INDEX
ID - 13% BR - 4%
MY - 1%
Cocoa Price History 1986 - 2007
USD
/ T
ON
NE
3000
2500
2000
1500
1000
500
0
1986 1991 1996 2001 2006
COCOA PRICE
Notable Events
A. 1999: Mid-season harvest is larger than anticipated.
C. September 2002: Attempted Coup D’Etat in Cote D’Ivoire , followed by several years of
intermittent civil war.
Source: Morgan Stanley / Bloomberg as at July 2007. Price data based on front-month ICE U.S.
Futures contracts. Past performance is not indicative of future performance.
B
A
46
Coffee plants are the source of one of the world’s most popular beverages. The plants produce berries, which must be processed before
they are ready to be consumed. The ripe, bright-red berries are picked
and the fruit removed to reveal two seeds. It is these seeds, or ‘beans’ as
they are more commonly known, from which we get the coffee we drink.
The beans are dried and roasted at high temperatures to caramelise their
sugars – this process gives coffee its distinctive fl avour and colour.
Robusta and Arabica are the two most common varieties of bean. Arabica
is known to provide a better fl avoured bean. However, Robusta is less
susceptible to disease and can therefore be grown more widely than
Arabica. Both types of bean need certain conditions to fl ourish: a tropical
climate, high altitude and an abundance of water.
Coffee is produced across the tropical regions of the globe, including parts
of Latin America, such as Brazil and Columbia, and regions of Africa and
Asia. For many producing countries, coffee accounts for a considerable
component of export income. Fluctuations in the price of coffee can
therefore have a substantial impact on the economies of these countries.
Coffee plays an important role in many societies throughout the world.
From the coffeehouses of the 16th century to modern day cafes, coffee
continues to be consumed widely. Since 1973, global production has
grown by over 80%10.
PRINCIPAL USES
Consumption: Coffee can be purchased in bean, ground or instant format
for preparation as a beverage.
Composting: Used coffee granules are an excellent plant fertilizer due
to their high nitrogen content. Many coffee shops give their used coffee
granules to gardeners for this purpose.
THE COFFEE MARKET
Coffee has traded on ICE Futures U.S. (formerly the New York Board of
Trade) since 1882, when it was created to bring order to a volatile
market. ICE Futures U.S. provides electronic trading systems as well as
a grading facility that compares the quality of Arabica coffee against the
Coffee “C” contract.
Coffee has historically been one of the more volatile commodities. Factors
that can affect its price include the following:
Weather: Like most agricultural commodities, coffee yields are highly dependent
on favourable weather conditions. Negative weather conditions can severely
disrupt crop supply. For example, in 1986, frosts in Brazil decimated coffee
crops and pushed prices to an all time high. Even forecasts of droughts in a
producing region (as well as droughts themselves) can impact coffee prices.
coff ee
Common Futures contracts
ICE Futures U.S. Coffee “C” Futures
Contract size: 37,500 pounds
Price quote: US cents / pound
NYSE Euronext LIFFE Coffee Robusta Futures
Contract size: 5 tonnes
Price quote: USD / tonne
10 Source: U.S. Department of Agriculture, June 2007
47
Regulation: Historically, a series of International Coffee
Agreements have aimed to stabilise coffee prices by creating and
enforcing production quotas on producing countries. This quota
system was suspended in 1989, after which coffee prices
plummeted. Supply outstripped demand, eventually leading to the
start of the “Coffee Crisis” in 2001, when prices hit a 30-year low.
This undermined the economic stability of a number of producing
nations. New mechanisms or regulation to control supply or price
could, if adopted, impact the future price behaviour of coffee.
Political factors: Coffee production is geographically
concentrated in developing countries around the equator and
forms a large part of many of these economies. Supply is therefore
sensitive to political conditions in producing countries.
The retail market for coffee actually tends to be dislocated from the
commodity market. The price you pay for your morning cup bears
little relation to the cost of the beans harvested for its production.
One reason for this is that both retailers and producers can vary
the quality of coffee in response to price changes. If prices are low,
the more highly regarded Arabica bean may be cultivated less widely
due to its higher production cost, meaning coffee blends could
contain a higher proportion of Robusta beans.
Notable Events
A. 1986: Prices peak owing to frosts in Brazil
damaging crops.
B. December 1986: Prices fall below the trigger point
for the reintroduction of quotas and controls under
International Coffee Agreement.
C. October 1987: Quotas and controls were
reintroduced.
D. 4 July 1989: Quota system suspended.
E. October 1994: New International Coffee Agreement
comes into force, which does not set out to regulate prices.
F. 1997: Price surges due to cold weather in Brazil.
G. 2001-2004: Coffee Crisis.
H. October 2001: New International Cofee Agreement
comes into force.
Coffee Price History 1986 - 2007
US
CEN
TS /
PO
UN
D (
LB)
300
250
200
150
100
50
0
1986 1991 1996 2001 2006 2007
COFFEE PRICE
Source: Morgan Stanley / Bloomberg as at July 2007. Price data based on front-month ICE Futures U.S.
contracts. Past performance is not indicative of future performance.
PE - 3%
HN - 2%
GU - 3%
ID - 6%
MX - 4%
CO - 10%
IN - 4%
ET - 4%
VT - 12%
BR - 35%
Coffee Exports by Region 2006
Source: International Coffee
Association.
OTHER - 16%
INDEX
C
A
B
D
E
F
H
G
48
Corn, or maize as it is also known, is one of the most widely cultivated crops in the world. It grew in popularity as a farmed
commodity in the 15th century, spreading from central Mexico. Corn has
a distinct appearance, characterized by tall stems sporting many nodes,
casting off fl ag leaves at every node. While there are hundreds of varieties
of corn hybrids, they fall into six broad categories: fl int, fl our, dent, pop,
sweet and waxy. Some varieties can grow up to 7 metres high; sweetcorn
is one of the shorter varieties.
Corn is a cold-intolerant plant and therefore must be planted in spring. It has
a shallow root system so is heavily dependent on soil moisture. Corn is usually
harvested in late autumn, although this varies depending on the subspecies.
Corn is an important food source for people and livestock, but its uses
are becoming increasingly diversifi ed.
PRINCIPAL USES
Livestock feed: In Canada and the US, the primary use for corn is as
feed for livestock. Dent corn is the most common variety, as it tends to
have a higher oil content and thus higher caloric value. Livestock are fed
grain or silage (fermented, chopped corn stalks).
Human consumption: Corn is a staple part of the diet in many regions
and a core ingredient in foods like porridge, breakfast cereal and tortillas.
Grain alcohols, such as bourbon whiskey, are also traditionally derived
from corn.
Bio-fuel: The search for innovative and serious alternatives to petroleum
has led to growing demand for corn to produce bio-fuel, particularly
ethanol. Home-heating furnaces have also been developed that use corn
kernels as a fuel.
Industrial uses: Corn grain is becoming increasingly used to produce
biomaterial as part of the trend to fi nd alternative, “greener” ways of living.
It can be used to produce plastics and fabrics.
THE CORN MARKET
Corn futures trade on the Chicago Board of Trade (CBOT). According to
the CBOT, the earliest forward contract, for 3,000 bushels of corn, was
recorded in 1851.
The price of corn is generally driven by numerous factors, including the following:
Weather: Some of the biggest fl uctuations in the price of corn are caused
by weather. Drought or frost can completely destroy harvests. Even the
expectation of bad weather can impact heavily on price. Corn is particularly
dependent on water. Weather can also explain some of the cyclical trends
in corn prices over the year.
corn
Common Futures contracts
Chicago Board of Trade Corn Futures
Contract size: 5,000 bushels
Quote: US cents / bushel
A bushel or corn is 56 pounds, or approximately 25.4kg.
Corn is weighed after husks and cobs are removed.
49
Pests and disease: These can have a major impact on yields. Their
prevalence can be affected by the weather.
New consumer demand: Demand from emerging markets is a signifi cant
factor in longer term prices trends, as is the increased demand from developing
countries. For example, China is emerging as a net importer of corn, having
been one of the largest exporters.
Ethanol demand: The growing US ethanol industry has become a major driver
of corn demand. Ethanol is used at low concentrations as an additive in petrol
and specially adapted cars can now run on far higher concentrations.
Prices for other agricultural commodities: Corn, soybean and wheat
have many uses in common and can act as substitutes for each other.
Increased demand for one can therefore drive up the price of another.
Seasonality: Demand for corn is highest in winter when cattle most need
feed. Demand then tends to decline steadily and is lowest in the summer
months, when cattle are grazing. The risk of crop failure can also lead to
cyclical patterns as higher risk commands a premium. This risk is highest
in spring, when the crop is just planted but the weather conditions for the
growing season are uncertain.
U.S
. C
ENTS
/ B
USH
EL
Corn Price History 1985 – 2007
800
600
400
200
0
CORN PRICE
A. 1992: Record harvest in the US.
B. 1996: Heavy rain delays US planting.
C. 2005: The US Energy Policy Act (EPACT) creates a national Renewable Fuels Standard.
Source: Morgan Stanley / Bloomberg as at July 2007. Price data based on front-month
CBOT futures contracts. Past performance is not indicative of future performance.
1985 1990 1995 2000 2005
US - 33%
CN - 20%
BR - 6%
MX - 4%
IN - 2%
EU - 8% JP - 2%
CA - 2%
Global Consumption by Region 2006/2007
Source: U.S. Department Of Agriculture.
OTHER - 24%
INDEX
US - 38%
CN - 21%
BR - 7%
AR - 3%
MX - 3%
EU - 8% MX - 3%
Global Production by Region 2006/2007
Source: U.S. Department Of Agriculture.
OTHER - 17%
INDEX
C
A
B
50
Cotton is the world’s biggest non-food crop. The plants have soft,
fi brous seed cases called “bolls”. When the seeds, protein and wax are
removed from the bolls, the result is a strong, durable and absorbent
cellulose fi bre, or lint, ideal for spinning into textiles.
Cotton needs specifi c conditions for optimal growth: heavy soil, a long
frost-free period and plenty of sunshine. The plants suck up large quantities
of water from the soil – yields are therefore heavily dependent on rainfall.
Growing cotton without suffi cient water can result in desertifi cation, as
has occurred in large areas of Uzbekistan.
Cotton was being cultivated in India as far back as 3,000 BC. The modern
textile industry took off in Europe, and the UK specifi cally, during the
Industrial Revolution in the late 18th and early 19th century, with invention
of spinning machinery and the emergence of large cotton mills.
Today, cotton is the most widely used natural fi bre cloth. A high proportion
of current production is from genetically modifi ed varieties that are more
resilient to disease and less heavily dependent on pesticides. The main
production areas are China, India and the United States. China is also the
main importer of cotton fi bre, followed by Turkey.
PRINCIPAL USES
Textile products: Cotton is used to make a wide variety of textiles,
including terrycloth, denim, corduroy, seersucker and cotton twill and in
industrial applications including fi shing nets. Cotton can also be blended
with other fi bres, such as rayon and polyester.
Cotton fi bres are usually separated from the cotton seeds early in the
process and packed into bales for sale. Cotton seeds are traded separately
to cotton and have a variety of different uses:
Oil: Cotton seeds can be crushed to produce a vegetable oil used in cooking.
The cottonseed meal that is left over is generally fed to livestock.
Paper and plastics: Cotton linters, which are short, silky fi bres that
adhere to the seeds of the cotton plant during processing, are traditionally
used in the manufacture of paper. The cellulose in linters is also used
for plastics and explosives.
Bio-fuel: Cottonseed oil can be used in the production of bio-diesel.
THE COTTON MARKET
Cotton futures are traded on ICE Futures U.S. The contracts are for bales
of cotton fi bres, after separation from cotton seeds. Futures for cottonseed
oil trade separately.
Some of the main factors affecting the price of cotton include the following:
cotton
Common Futures contracts
ICE Futures U.S. Cotton No.2
Contract size: 50,000 pounds net weight
(approximately 100 bales)
Quote: US cents / pound
51
Weather: Cotton is one of the most water intensive crops, requiring 7,000
- 29,000 litres of water per kg of crop, several times the requirement of
corn or wheat. Any water supply disruption or drought can have a direct
impact on crop yield and harvest.
Demand from developing countries: Rising income in developing
countries, and the sheer size of the consumer base, can infl uence demand
for cotton. China and India have particularly large textile industries.
Land scarcity: Although cotton production has more than doubled in the
past few decades, this has been attributed more to improved technology
and higher yields than to increased acreage. Competition from other crops
can reduce available acreage and limit supply.
Alternative textiles: Cotton shares many of its uses with synthetic fi bres
such as polyester. The demand for cotton is therefore infl uenced by its price
relative to these alternative fi bres. As most synthetic fi bres are produced
from petroleum products, their costs are highly correlated with oil prices.
Trade policy: Subsidy programmes or government constraints on imports
can impact the price of cotton.
Cotton Price History 1986 to 2007
U.S
. C
ENTS
/ P
OU
ND
140
120
100
80
60
40
20
0
COTTON PRICE
Notable Events
A. March 1995: Strong demand for U.S. cotton, as much of crop in China, Pakistan and India is
destroyed by insects.
B. July 1995: Prices slip as record price curbs demand, and good weather prompts
higher USDA forecast.
C. October 2001: Cotton hits 29 year low, when record forecasts coincide with
consumption concerns following September 11 terrorist attacks.
D. October 2003: Cotton surges after US gets largest export order from China since 1995.
Source: Morgan Stanley / Bloomberg as at July 2007. Price data based on front-month
ICE Futures U.S. contracts. Past performance is not indicative of future performance.
1986 1991 1996 2001 2006
CN - 29%
TR - 10%
ID - 6%
TH - 6%
MX - 4%
RU - 4%
BD - 7% PK - 6%
Global Imports by Region 2006/2007
Source: U.S. Department Of Agriculture.
OTHER - 29%
INDEX
CN - 27%
IN - 18%
US - 18%
PK - 8%
BR - 6%
UZ - 5%
Global Production by Region 2006/2007
Source: U.S. Department Of Agriculture.
OTHER - 18%
INDEX
C
A
B
52
Rapeseed, or oilseed rape, is an annual crop in the Brassica family, related to mustard, broccoli, cabbage, caulifl ower and turnip. The
plants are sown in winter or spring and can grow from three to fi ve feet
tall. They have distinctive yellow fl owers that produce small black seeds.
The seeds are pressed to produce vegetable oil and the left over meal is
usually used for animal feed.
Rapeseed has become an important global crop only in the past few
decades. The original varieties contained high quantities of erucic acid
and glucosinolates – this made the oil toxic, bitter-tasting and unsuitable
for human or animal consumption. Since the 1960s, more palatable strains
have been developed. Much of the rapeseed crop is now “double low” or
“00”, meaning low acid and low glucosinolate. In Canada, low acid
rapeseed is known as “Canola” (Canadian Oilseed, Low Acid). Higher acid
varieties are still grown for some specifi c industrial applications.
Rapeseed has also undergone signifi cant genetic modifi cation, to give, for
example, higher concentrations of Vitamin A or different amounts of fatty
acid. Genetically modifi ed rapeseed is used extensively in Canada but its
use in Europe is restricted to trials.
Leading producers of rapeseed include China, Canada, the EU and India. These
are also the main consumers. Worldwide production of rapeseed has grown
by over 50% over the past 10 years to reach 47 million tonnes in 200611.
PRINCIPAL USES
Human consumption: Rapeseed oil is low in saturated fat and high in
healthier monounsaturated fat. Refi ned rapeseed oil is used for cooking
and to make margarine. Rapeseed leaves and stems are also edible and
sold as greens.
Animal feed: When rapeseed is processed, the products are oil and a
protein-rich meal. This meal can be used to feed cattle, pigs and chickens.
Livestock may also graze on the raw plants during the winter.
Biodiesel: Rapeseed is the main feedstock for biodiesel production in Europe.
Industrial: Traditional and industrial uses of rapeseed have been for lamp
oils, soap making, lubricating oils, hydraulic fl uids and plastics manufacturing.
These applications tend to use higher acid varieties of rapeseed.
THE RAPESEED MARKET
NYSE Euronext LIFFE’s rapeseed futures contract is the main European
benchmark for rapeseed. The contract was launched in 1994 in close
co-operation with ONIDOL (Organisation Nationale Interprofessionnelle des
Oléagineux) and is for “00” variety rapeseed. It is actively traded by
producers, cooperatives, merchants, exporters, importers, trade houses,
and processors such as crushers and bio-diesel manufacturers. Rapeseed
rapeseed
Common Futures contracts
NYSE Euronext LIFFE Rapeseed Futures
Contract size: 50 tonnes
Quote: EURO cents / tonne
11 Source: U.S. Department of Agriculture
53
oil futures are also traded, on both NYSE Euronext LIFFE and,
since June 2007, China’s Zhengzhou Commodity Exchange.
Factors affecting the price of rapeseed can include the following:
Weather: This is an important element in the production of
rapeseed. It is susceptible to cold or poorly drained soils, so frost
and water shortages can cause supply concerns.
Bio-diesel demand: Demand for bio-diesel could become an
increasingly important component of demand for rapeseed.
Rapeseed oil tends to be the preferred oil stock for biodiesel
production in Europe.
Alternative crops: Rapeseed shares some of its uses with other
crops. For example, vegetable oil and biodiesel can be sourced
from soybeans and corn. Thus the price and demand for alternative
crops can have a direct impact on the price of rapeseed.
Trade policy: Subsidy programmes, government constraints on
imports and other structural reforms can impact the price of
rapeseed. For example, farmers in the EU are allowed to grow
rapeseed on set-aside land as long as the rapeseed is for non-food
(ie bio-fuel) use.
Disease and pests: Rapeseed is susceptible to both. Production
can require heavy use of pesticides and herbicides.
FR - 9%
DE - 11%
CA - 19%
CN - 28%
IN - 12%
Global Production by Region 2006/2007
Source: U.S. Department of
Agriculture.
OTHER - 21%
INDEX
Rapeseed Price History 1999 - 2007
US
CEN
TS /
PO
UN
D (
LB)
400
350
300
250
200
150
100
50
0
RAPESEED PRICE
Source: Morgan Stanley / Bloomberg as at July 2007. Price data based on front-month ICE Futures
contracts. Past performance is not indicative of future performance.
1999 2000 2003 2004 20072001 2002 2005 2006
Notable Events
The Biodiesel boom has driven the price of rapeseed
to an all time high.
54
The soybean or soya bean is part of the legume family. The beans are found in pods hidden under the green leaves of the soya plant, which grows successfully in climates with hot summers. Soybeans can
be various sizes and colours, including black, brown, blue, yellow and mottled.
Soybeans are usually crushed into dry soymeal or bean oil (liquid).
The soybean was fi rst cultivated in eastern Asia several thousand years
ago, where the bean and products made from the bean were an important
part of the diet. Today it is a major global crop with some diverse uses -
from an alternative protein source for vegetarians to use in the manufacture
of some plastics.
According to data from U.S. Department of Agriculture, the US is the major
producer of soybeans However, Brazil and Argentina have become
increasingly important producers and together account for more than the
US. China has overtaken the European Union to become the main importer
of soybeans, accounting for 42% of global imports in 2006/7.
PRINCIPAL USES
Human consumption: The main use of the soybeans is as a foodstuff.
Soybean oil is widely used in cooking. Tofu (or soya bean curd) is popular
in many Asian cuisines. Soybeans can also be made into fl our, infant formula,
vegetable oil and, as the name suggests, soy sauce. Additionally, due to its
high protein content, soy products provide an important alternative to meat
and dairy products for vegetarians, vegans or those with allergies. There
has been much research into the health benefi ts of soybeans. Potential
benefi ts can include reduced cholesterol and a lower incidence of heart
disease.
Livestock feed: Any surplus from processing soybeans, such as soybean
husks, can be used as animal feed.
Bio-fuel: Soybeans can be made into biodiesel – one bushel of soybeans
makes around one and a half gallons of biodiesel. Biodiesel can be used
to power cars with suitably modifi ed engines and is becoming a major
driver of soybean production.
Industrial products: The soybean is found as an ingredient in many
industrial products including oils, soap, cosmetics, plastics, inks, crayons,
solvents and clothing. In fact Henry Ford promoted the soybean and used
two bushels in the production of every Ford car, demonstrating that auto
body panels can be made from soy-based plastics.
THE SOYBEAN MARKET
The main futures contract for soybeans is for yellow soybeans, traded on
the Chicago Board of Trade (CBOT). There are also separate contracts
traded on soybean oil and soymeal – for example a soybean oil contract
trades on CBOT and soymeal contracts trade in Mumbai and Tokyo.
soybeans
Common Futures contracts
Chicago Board of Trade Soybean Future
Contract size: 5,000 bushels
Quote: US cents / bushel
A bushel of soybeans is 60lb (around 27.2kg)
55
Some of the main factors affecting the price of soybeans include the following:
Weather: This is an important element in soybean production. Harsh
weather conditions can wipe out entire harvests. The soybean is particularly
susceptible to cold and drought, so frost and water shortages can create
major concerns over supply.
Demand from developing countries: Rising per capita income can lead
to growing usage of soybean products such as vegetable oil. China
accounted for almost half global demand in 2006/2007.
Biodiesel demand: As demand for biodiesel grows, it should become an
increasingly important factor in the demand for soybeans.
Alternative crops: Soybeans and corn can be grown in similar climates
and can therefore be in direct competition for land. As a result, demand
for corn and corn prices will influence the area that is available for
soybeans, and vice-versa. In countries like the US, where land use is
already stretched, increased supply may need to come from higher yields.
Vegetable oil (one of the major uses of soybeans) can be sourced from
other oilseed crops, including rape, sunfl ower, cotton seed and palm.
Supply of these alternatives could affect demand for soybeans.
Soybean Price History 1985 - 2007
U.S
. C
ENTS
/ B
USH
EL
1200
1000
800
600
400
200
0
SOYBEAN PRICE
Notable Events
A. May - June 1988: drought reduces US soybean crop.
B. March 2004: US stocks fall to lowest in 15 years.
C. April 2004: Prices soar higher as Brazil and Argentina reduce their crop forecasts.
D. May - July 2004: Hedge funds and speculators sell soybean exposure.
Source: Morgan Stanley / Bloomberg as at July 2007. Price data based on front-month
CBOT futures contracts. Past performance is not indicative of future performance.
1985 1990 1995 2000 2005
CN - 42%
EU - 23%
JP - 6%
MX - 6%
TW - 3%
Global Imports by Region 2006/2007
Source: U.S. Department Of Agriculture.
OTHER - 20%
INDEX
US - 37%
BR - 25%
AR - 20%
CN - 7%
IN - 3%
PY - 3%
Global Production by Region 2006/2007
Source: U.S. Department Of Agriculture.
OTHER - 5%
INDEX
CA
B D
56
Sugar is a widely used carbohydrate with a sweet taste. It comes in many different forms, including glucose, fructose, sucrose, lactose, dextrose and maltose. Some of these types of sugar occur
naturally in foods such as fruit, while some are processed and refi ned from
two sources: sugar cane, which can be shredded and crushed to extract
sugar, and sugar beet.
Cane sugar is grown in regions with a tropical or sub-tropical climate. The
largest producers include Brazil, India and China. Sugar beet, which
accounts for around 25% of total sugar production, can be grown in both
warm and colder climates. In warm climates, beets are winter crops. In
the colder climates of the northern hemisphere, the beet-growing season
starts in the spring and ends in the autumn. Top producers of beet sugar
include Europe, Japan and the US. Although they have different sources,
there is little perceptible difference between the sugar produced from beet
and cane.
PRINCIPAL USES
Human consumption: Sugar can be consumed in a number of forms,
including cubed, granulated, caster and syrup. Sugar is also widely used in
cooking. Sugar can be used as a preservative, sweetener, bulking agent
and to speed up the fermentation process caused by yeast in baking.
Bio-fuel: Sugar is also being developed as an energy commodity, for the
production of ethanol. The Brazilian Ministry of Agriculture estimates that,
in 2008, over 60% of the country sugar cane crop will be used for
ethanol.
THE SUGAR MARKET
Both raw and white (refi ned) sugar contracts can be traded. Sugar futures
are the largest market on ICE Futures U.S. (previously the New York Board
of Trade) and began trading there in 1914. In addition, NYSE Euronext
LIFFE trades sugar contracts on its electronic platform.
Some of the factors affecting the price of sugar include the following:
Weather: This is an important factor in the price of sugar as adverse
weather can affect the yield. Frost can destroy a crop of sugar beet. Sugar
cane needs a warm climate with a certain amount of rainfall.
Ethanol Demand: Roughly half the global supply of sugar is used in the
production of ethanol. If demand for bio-fuel continues to grow, this could
become an even more important component of sugar demand.
Technology: In order to extract sugar from either cane or beet, the
sugar
Common Futures Contracts
ICE Futures U.S.
World Sugar No.11(SM)
Contract size: 112,000 lbs
Price quote: US cents / pound
Domestic Sugar No.14 (SM)
Contract size: 112,000 lbs
Price Quote: US cents / pound
NYSE Euronext LIFFE
White Sugar Futures
Contract size: 50 tonnes
Price quote: US / tonne
Raw Sugar Futures
Contract size: 112,000 lbs
Price Quote: US cents / pound
57
harvested crop needs to be processed in specially designed
processing facilities. Improvements in technology can increase
the capacity and effi ciency of these processing plants.
Health impact: Consumers and governments are becoming more
aware of the possible negative impacts of excessive consumption
of refined sugar products, including obesity and diabetes.
Competition from alternative sweeteners, such as High Fructose
Corn Syrup (HFCS) could impact the demand for sugar for human
consumption.
BR - 20%
IN - 17%
a.f. - 5%
US - 5%
MX - 3%
m.e. - 3%
e.u. - 11%
e.m. EU - 5%
CN - 8%
TH - 4%
Notable Events
A. 1990: US places a fl oor on sugar imports and
introduces the 1990 Farm Act.
B. 2004: India becomes net importer after 2 years of
failed harvests.
C. 2005/2006: Prices soar as Brazil devotes half its crop
to ethanol to meet a goal to eliminate gas-fueled cars.
D. 2006/2007: Bumper crops in Brazil and India.
Sugar Price History 1986 - 2007
U.S
. C
ENTS
/ P
OU
ND
25
20
15
10
5
0
SUGAR PRICE
Source: Morgan Stanley / Bloomberg as at July 2007. Price data based on front-month ICE Futures U.S.
contracts. Past performance is not indicative of future performance.
1986 1990 1994 1998 2002 2006
Production of Raw Sugar by Region 2006/2007
Source: U.S. Department of
Agriculture.
OTHER - 23%
INDEX
A
B
C D
58
Wheat is a grass that is widely cultivated across the globe. It can grow
to two metres in height and turns golden when ripe. Wheat is thought to have
originated in the Middle East several thousand years ago, in an area in modern
day Iraq known as the Fertile Crescent.
The wheat grown today is a mutated form of the original. Intense cultivation
in the past few hundred years has led to the development of many different
variants to suit different climates or to ripen in different seasons.
According to data from the U.S. Department of Agriculture, the main wheat
producers are the European Union, China and India, followed by the US. These
regions are also the main consumers. This is in contrast with corn, where
both production and consumption are heavily concentrated in the US.
PRINCIPAL USES
Human consumption: Whilst wheat is second to corn in terms of overall
production, it is the most important grain for human consumption and is
a staple food in many diets. It is a very versatile food ingredient – it can
be powdered into fl our, germinated and dried to create malt, crushed to
produce cracked wheat or processed into semolina and pasta. Wheat can
be found in bread, breakfast cereals and many other staple foods.
Fermented wheat can also be used to make alcohol.
Livestock feed: The grain, the bran (the residue from milling) and the vegetable
parts of the wheat plant are all used for feed. Dried wheat can also be used as
fodder. Additionally, wheat damaged by poor weather may be less suitable for
human consumption but can often still be used as livestock feed.
Bio-fuel: Wheat has been increasingly used to produce bio-fuel.
THE WHEAT MARKET
Wheat futures are traded on numerous exchanges. The contract traded
on the Chicago Board of Trade covers several grades and varieties.
There are also contracts traded for specifi c wheat varieties. For example,
hard red winter wheat (used in bread) is traded on the Kansas City Board
of Trade. The US Department of Agriculture releases regular production
forecasts and crop ratings.
Factors affecting the price of wheat can include the following:
Weather: Although excessive rainfall can alter some of its properties and
therefore affect its usage, wheat is one of the more resilient crops. This
is because different varieties are planted in different hemispheres and
climatic regions - when there is a production shortfall in one region, other
regions can respond to the demand.
Economic growth: Wheat is a staple or “inferior good” in economic
terms. This suggests that, as income increases, people may favour more
wheat
Common Futures contracts
Chicago Board of Trade Wheat Futures
Contract size: 5000 bushels
Quote: US cents / bushel
A bushel of wheat is 60lb, or around 27.2kg.
59
“luxury” food items. For example, per capita wheat consumption in the US
declined in the early 20th century as wheat flour was increasingly
substituted by sugar in the diet. As income per capita grows in developing
countries, this may impact the demand for wheat.
Cyclicality: As wheat shares many uses with other crops such as corn
or soybean, demand for wheat is related to demand for these other crops.
For example, wheat is usually more expensive than corn. However, in
summer, when winter wheat has been harvested but corn has not, the
price gap can narrow.
Demand for ethanol: As bio-fuel becomes a more important end use for
wheat, it should have a greater impact on price.
Trade policies: These can infl uence exports and imports, even if production
and consumption remain similar. The fl uctuation in China’s wheat imports in
the past two decades can partly be attributed to government policy.
RU - 6%
US - 5%
TR - 3%
IN - 12% PK - 4%
Wheat Price History 1985 – 2007
U.S
CEN
TS /
BU
SHEL
800
600
400
200
0
WHEAT PRICE
Notable Events
A. March/May 1993: Prices slump on news that U.S. food aid package to Russia is in
jeopardy.
B. 1996: Heavy rainfall in the U.S. delays planting of wheat leading to supply concerns.
C. April 1996: U.S inventories at record low.
D. May 1996: Wheat plummets as dry weather fi nally allows planting.
E. October 2006: U.S. forecasts lowest grain investory for 22 years.
Source: Morgan Stanley / Bloomberg as at July 2007. Price data based on front-month
CBOT futures contracts. Past performance is not indicative of future performance.
1985 1990 1995 2000 2005
EU - 21%
CN - 18%
US - 8%
RU - 8%
PK - 4%
TR - 3%
IN - 12% CA - 4% AR - 3%
Global Production by Region 2006/2007
Source: U.S. Department Of Agriculture.
OTHER - 20%
INDEX
EU - 20%
CN - 16%
Global Consumption by Region 2006/2007
Source: U.S. Department Of Agriculture.
OTHER - 34%
INDEX
livestock: live cattle and lean hog
62
There are an estimated 1 billion cattle worldwide12 and many different breeds. “Live cattle” as a traded commodity covers cattle of
many different breeds that are market ready, i.e., of slaughter weight. This
is an active market for both industry participants and speculators that is
very focused in the U.S.
Before cows reach market weight, there is a long breeding and maturing
cycle. Female cows do not usually breed until they are 14 to 18 months
old and the gestation period is a further 9 months. New-born calves are
weaned for up to 8 months and, after a grazing period of two to four
months, reach 600 to 800 pounds, ‘feeder weight’.
At this stage, cattle are sold to feedlots. These are typically small
independent operations that fatten up feeder cattle to their market weight
of 1,050 to 1,200 pounds. It usually takes four to eight months before
cattle reach slaughter weight and can be traded as ‘Live Cattle’. The length
of this process means that changes in herd size can take time: a cycle of
expansion and reduction typically takes around 12 years.
There is also an active market for feeder cattle. As feedlot operators
have some fl exibility over how many cattle to buy and when, supply and
demand do not always match so this market tends to be more volatile.
For example, when profi t margins or expected demand are high, feedlot
operators can increase their number of cattle and vice versa. Disease
and parasite problems are more likely to occur in younger cattle. The
market for live cattle tends to be much more closely correlated to the
end market for beef.
PRINCIPAL USES
Cattle have many uses, including the production of dairy products and as
draught animals. However, live cattle are traded simply for slaughter and
the production of beef. The remaining parts can be used in the production
of leather, soaps, animal feed and other products.
THE LIVE CATTLE MARKET
Because of the seasonal aspects of beef production, the futures market
has been important for producers to remove uncertainty and secure
prices. When the Chicago Mercantile Exchange (CME) introduced live cattle
futures in 1964, it was the first futures contract on a non-storable
commodity. Since 1971, feeder cattle futures have also traded on the
CME. In addition, the Brazilian Bolsa de Mercadorias & Futuros (BM&F)
trades both live and feeder cattle futures.
Many factors infl uence the price of live cattle, including the following:
Weather: Uncertain or adverse weather conditions can affect feed costs,
availability of feed and forage, conception rates, survival rates of young
animals and transportation of cattle.
live cattle
Common Futures contracts
CME Live Cattle Future
Contract size: 40,000 pounds
Quote: US cents / pound
CME Feeder Cattle Future
Contract Size: 50,000 pounds
Quote: US Cents / pound
12 Source: U.S. Department of Agriculture.
63
Disease: Outbreaks of bovine diseases can result not only in the
immediate slaughter of those animals but also in lower consumer
demand. For example, Bovine Spongiform Encephalopathy (more
commonly known as BSE or ‘Mad Cow Disease’), and suspected
links to Creutzfeldt-Jacob Disease in humans, dented consumer
confi dence in the cattle industry amid fears that the disease could
be passed to humans through consumption of beef.
Import/export restrictions: These are often driven by outbreak
of disease. For example, beef exports from the US to South Korea
were banned following the BSE outbreak in 2003.
Agricultural commodity prices: The price of grain is a major
cost component for feedlots and therefore directly affects the
demand for feeder cattle as well as the future supply of live cattle.
In addition, as agricultural commodity prices increase, more land
is dedicated to the cultivation of these commodities, leaving less
land available for the grazing of feeder cattle. For example, the
expanding ethanol production in the U.S. might have an impact on
cattle prices as land allocated for cattle feed is taken away,
resulting in higher costs for cattle producers.
Notable Events
A. December 2003: Discovery of “Mad Cow Disease”
in the US.
B. October 2005: Outbreak of foot and mouth
disease in Brazil.
Live Cattle Price History 1988- 2007
U.S
. C
ENTS
/ P
OU
ND
(LB
)
140
120
100
80
60
40
20
0
FEEDER CATTLE PRICE
Source: Morgan Stanley / Bloomberg as at July 2007. Price data based on front-month futures contracts.
Past performance is not indicative of future performance.
1988 1992 20021996 2000 2006
LIVE CATTLE PRICE
AB
64
Lean hogs are domesticated pigs. There are around 150 breeds and around 870 million lean hogs worldwide, of which approximately 500 million13 are in China. However, the lean hog market, as a traded
commodity, is focused very much in the US.
Female pigs (or sows) do not breed until they are 8 to 18 months old. They
have an average of nine piglets per litter, with a gestation period of 16
weeks. Although hogs can be raised from birth to slaughter at one location
(classifi ed as ‘Farrow to Finish’), they can also start life with specialist
feeder pig producers moving to feeder pig fi nishers when they reach
feeder weight (10 - 60 pounds). Finishers bring feeder pigs to slaughter
weight - this is typically 240 – 270 pounds and is usually achieved at 22-
26 weeks.
Typically, piglets are born around March, making them available for
slaughter six months later in August and September. The availability of
modern environmentally modifi ed facilities has made the lean hog market
less vulnerable to this seasonality by creating confi ned environments
protected from weather changes.
In 1995, as large new producers emerged with year-round processing
capacity, the US became a net exporter of lean hogs. Today, the US is the
world’s third largest producer. The total US hog herd is estimated to be
60 million, of which the majority live in the “Corn Belt” area, near to the
food supply (grains and soymeal).
Hogs will scavenge and eat almost any food. However, farmed hogs are
fed mostly on grains such as corn, barley or wheat, supplemented by
oilseed for protein. The cost of this feed plays an important role in supply
decisions. Feed makes up a signifi cant proportion of total costs and can
be quite volatile.
PRINCIPAL USES
Human consumption: Lean hogs are commonly raised for consumption
as pork. World pork consumption is expected to exceed 100 million tones
in 2007, a 12% increase since 200314.
By-products: Lean hogs, like live cattle can also be used to produce
leather, which is widely used for furnishings, shoes, clothing and
accessories.
THE LEAN HOG MARKET
Lean hog futures and options have traded on the Chicago Mercantile
Exchange (CME) since 1966. The contract size of 40,000 pounds is the
amount of meat produced from around 200 hogs.
There are many factors affecting the market for lean hogs, including the
following:
lean hog
Common Futures contracts
CME Lean Hog Future
Contract size: 40,000 pounds
Quote: U.S. cents / pound
13, 14 Source: U.S. Department of Agriculture
65
Demand for pork: Changes to preferences and diets, as well
as cost relative to other foodstuffs, can all affect demand.
Consumption of protein rich foods such as pork and beef are
typically linked to growing GDP.
Lean hog supply: The size of the hog ‘crop’ is a key indicator
of the supply pipeline. Because of the gestation period and time
to achieve slaughter weight, supply is already fi xed 9-10 months
prior to slaughter so can lag changes in demand.
Price of feed: The price of grain is a major component of lean
hog production costs. If agricultural commodity prices increase
(for example due to increased demand for bio-fuels) this could
impact lean hog production costs and market price.
Weather: Although lean hog producers can use environmentally
modified conditions to reduce the effect of adverse weather
conditions, changeable weather may still affect feed costs and
supply.
Notable Events
A. 1995/1996: Lower inventories and higher corn
prices.
B. 1996: Increased use of bacon by fast food
restaurants in the US.
C. December 1996: Prices fall amid concern that
hogs held back by bad weather could fl ood the market.
D. December 1998: Prices crash as supply outstrips
meatpackers’ processing capacity.
E. December 2002: Governor of Iowa urges farmers
to cut losses and bring hogs to market early.
Lean Hog Price History 1990 - 2007
US
CEN
TS /
PO
UN
D (
LB)
100
80
60
40
20
0
LEAN HOG PRICE
Source: Morgan Stanley / Bloomberg as at July 2007. Price data based on front-month futures contracts.
Past performance is not indicative of future performance.
1990 1992 20021994 1998 20061996 2000 2004
US - 9%
KO - 11%
BR - 19%
RU - 28%
CA - 12%
Lean Hog Production (Pig Crop), 2006
Source: U.S. Department of
Agriculture.
OTHER - 21%
INDEX
MX - 11%VN - 28%
JP - 11%E.U. 25 - 28%
PH - 11%CN - 28%
CB
D
E
A
freight
68
Sea freight is at the core of global trade. Vast quantities of fuel, agricultural products, fertilisers, construction materials and other raw goods are transported by sea between producers, manufacturers and consumers. There are three main types of sea freight: “dry”, “wet” and “container”.
Dry freight is the transportation of loose, dry material, including
grain, ore, coal and industrial metals.
Wet freight is the transportation of wet material primarily crude oil
and fuel products. Routes are classifi ed as either clean or dirty. Clean
products include kerosene, gasoline and naphtha. Dirty products include
crude and fuel oils.
Container freight includes goods packed in containers, rather than
loose in the hold.
Global demand for freight is strongly linked to industrial growth and, in
particular, the demand for commodities in developing countries such as
China. Seaborne freight has grown from 2.5 billion tons in 1970 to over
7 billion tons in 2005. Much of this growth has been in dry freight, which
has increased by over 300% since 197015.
THE FREIGHT MARKET
World trade fl ow relies heavily on available shipping capacity and the ability
for shipbrokers, shipowners and charterers to agree prices for freight.
London’s Baltic Exchange is the main freight exchange globally. It originated
in the 18th century and now provides a self-regulated market for the chartering,
sale and purchase of ships. The Exchange also provides independent market
information for the trading and settlement of freight contracts, both physical
contracts and derivatives such as forward freight agreements.
Investors can access this market via a series of indices created by the
Baltic Exchange to track shipping rates Index levels are determined by a
panel of shipbrokers, who assess the value of freight on a standardised
set of shipping routes.
Beyond demand for transported goods, the freight market itself is
infl uenced by numerous additional factors:
Fuel prices: Fuel is a signifi cant portion of the cost of running a vessel.
Record oil prices in 2007, are putting pressure on seaborne freight rates.
Availability of ships: The number and size of available ships is key to
global capacity. Longer term considerations include the number of new
vessels being built and the likely longevity of current vessels.
Port congestion: During 2007 there has been major congestion at ports
in both Australia and Brazil. Congestion can tie up valuable capacity and
freight
15 Source: UNCTAD, “Review of Maritime Transport 2006”
69
increase the risks from adverse weather as ships wait outside
port.
Route congestion: Many of the world’s main shipping routes have
physical convergence points – for example, the Panama and Suez
canals. With shipping lanes already crowded, congestion or closure
of these strategic routes, for political or operational reasons,
could quickly impact global shipping movements.
Weather: Adverse weather conditions can have a big impact on
the shipping market. Certain routes carry specifi c weather-related
risks such as ice in ports or river levels.
Seasonality: Demand for freight can be seasonal, especially if
the commodity being transported is also seasonal. For example,
grain freight can be impacted by the timing of harvests and coal
freight by seasonal peaks and troughs.
COMMON FREIGHT INDICES
Baltic Exchange Dry Index
Sub Indices
Baltic Capesize Index
Baltic Panamax Index
Baltic Supramax Index
Baltic Handysize Index
Baltic Exchange Dirty Tanker Index
Baltic Exchange Clean Tanker Index
Baltic International Tanker Routes
Notable Events
A. August - December 2003: Chinese demand for
raw materials began pushing the Baltic Dry Freight Index
to record levels in late 2003.
B. August 2006: Increasing demand for freight
together with an ageing fl eet and port congestion in
Australia and South America push freight rates higher.
Baltic Dry Index Performance 1997 - 2007
IND
EX L
EVEL
(U
SD)
8,000
7,000
6,000
5,000
4,000
3,000
2,000
1,000
0
BDI PERFORMANCE
Source: Morgan Stanley, Bloomberg, August 2007. Past performance is not indicative of future performance.
AUG1997
AUG1998
AUG2003
AUG1999
AUG2001
AUG2007
AUG2000
AUG2002
AUG2005
AUG2006
AUG2004
B
A
commodity indices
71
Indices are a convenient way to access a group of commodities. Indices can represent the asset class as a whole or a particular sub-sector, such as energy, agriculture or precious metals.
Commodity indices differ in the rules used to gain exposure to the asset
class. Does the index track futures prices or spot prices? How often is the
index rebalanced? Are there minimum and maximum weightings for
different sectors or individual commodities? Investors should be aware of
these rules before investing in structured products linked to indices.
This section describes the components and methodologies of some of the
main commodity indices. Some of the key features are outlined below.
Number of Commodities Covered16
Weighting Recomposition
Dow Jones AIG Commodity Index
19
Liquidity and
production
based
Annual
S&P GSCI Family
24World
productionMonthly
Reuters Jefferies CRB Index
19
Equally
weighted within
broad sectors
Irregular
recomposition, with
monthly reweighting
Rogers International Commodity Index
36
At discretion
of RICI
committee
Annual
recomposition with
monthly reweighting
16 As at November 2007.
Source: Morgan Stanley / Bloomberg, November 2007. Past performance is not indicative of
future performance.
Commodity indices: Historical performance 31st Aug 1998 – 31st Oct 2007
PER
FOR
MA
NC
E (%
)
180
160
120
80
40
0
-40
SEP98
SEP99
SEP00
SEP01
SEP02
SEP07
SEP03
SEP04
SEP06
SEP05
S&P GS COMMODITY INDEX (ER)ROGERS INTNL. COMMODITY INDEX (RICI)
DOW JONES AIG COMMODITY INDEXREUTERS/JEFFERIES CRB INDEX
72
DOW JONES AIG COMMODITY INDEXSM
The Dow Jones-AIG Commodity IndexSM is a liquid and diversifi ed benchmark
for the commodity market. It was created to provide investors with broad
exposure to the commodity market and the diversifi cation benefi ts it can
offer.
The Dow Jones-AIG Commodity IndexSM is a rolling index composed of
futures contracts on 19 physical commodities. It uses dollar-adjusted
production data to determine its individual component weightings. This
means that, rather than offering a family of targeted indices like the S&P
Goldman Sachs Commodity Index, the DJ-AIG Commodity IndexSM offers
one index with broad commodity exposure. The index applies the following
selection rules:
No commodity sub-sector (e.g., energy, precious metals, livestock
and grains) may constitute more than 33% of the Index.
No single commodity may constitute less than 2% of the Index.
OTHER INDEX FACTS
Index Calculator: Dow Jones
Currency: USD, EUR and JPY
Rebalancing Frequency: Annual (January)
Weightings: Production and Liquidity weighted
Futures Listing: Chicago Board of Trade
Precious MetalsGold
Silver
Base Metals
Aluminium
Copper
Nickel
Zinc
Energy
Natural Gas
Crude Oil
Unleaded Gas
Heating Oil
Soft Commodities
Corn
Cotton
Soybeans
Soybean Oil
Wheat
LivestockLive Cattle
Lean Hog
73
S&P GSCI (GOLDMAN SACHS COMMODITY INDEX)
The S&P Goldman Sachs Commodity Indices represent long-only, unleveraged
exposure to commodity futures. The indices include commodities from all
commodity sectors: energy, base metals, precious metals, agriculture and
livestock.
As well as providing a benchmark for commodity performance, the indices
are designed to be ‘tradeable’ indices, accessible to investors wanting to
capture broad commodity exposure in their portfolios.
The S&P GSCI has a relatively high exposure to energy. S&P offers other
indices in the same family that have the same 24 commodities but lower
energy exposure: the S&P GSCI Reduced, S&P GSCI Light and S&P GSCI
UltraLight Energy have ½, ¼ and 1/8, respectively, of the energy weighting
of the S&P GSCI.
OTHER INDEX FACTS:
Index Calculator: S&P
Currency: USD
Rebalancing Frequency: Monthly
Weightings: On a world-production weighting basis
Futures Listing: Chicago Mercantile Exchange
The S&P GSCI family of indices are calculated for three types of returns:
Spot Index: Based on the spot price movements of the relevant
commodities.
Excess Return Index: Adds the returns from rolling the short term futures
from month to month.
Total Return Index: The returns on a fully collateralised investment in
the GSCI Index (i.e., the gains of the ER Index, plus t-bill interest earned
on the capital invested).
Precious MetalsGold
Silver
Base Metals
Aluminium
Copper
Lead
Nickel
Zinc
Energy
Natural Gas
Crude Oil
Brent Crude Oil
Unleaded Gas
Gasoil
Heating Oil
Soft Commodities
Corn
Cotton
Soybeans
Sugar
Coffee
Cocoa
Red Wheat
Wheat
Livestock
Live Cattle and
Feeder Cattle
Lean Hog
The family also includes the following 14
sub-indices:
Energy
Non-Energy
Industrial Metals
Precious Metals
Agriculture
Livestock
Petroleum
Grains
Energy and Metals
Gold
Non-livestock
Live Cattle
Natural Gas
WTI
74
REUTERS JEFFERIES CRB (COMMODITIES RESEARCH BUREAU) INDEX
This is one of the longest running commodity indices, with a history dating
back to 1957. Originally designed to replicate performance of the
commodities markets and provide information on broad trends, the
components and methodology have been periodically adjusted to ensure
that the index has retained this role over time.
Initially comprising 28 commodities, the index now has 17 components,
equally weighted.
The calculation methodology for the index is unique, attempting to capture
a ‘three-dimensional’ view of the commodities markets. It looks at average
prices across different commodities and also across time within each
commodity sub-sector. The calculation process is as follows:
1. The 17 component commodities are arithmetically averaged using
prices for each of the contract months which expire up to 6 months from
the current date.
2. These 17 fi gures are then geometrically averaged.
3. The resulting single figure is multiplied by an adjustment factor
(necessary because of the revisions made to the index since its inception
in 1957) and multiplied by 100 to give a percentage.
OTHER INDEX FACTS
Index Calculator: Bridge Information System, Inc.
Currency: USD
Rebalancing Frequency: Monthly
Weightings: Equal
Futures Listing: ICE Futures U.S.
Precious Metals
Platinum
Gold
Silver
IndustrialsCotton
Copper
Energy
Natural Gas
Crude Oil
Heating Oil
Soft Commodities
Cocoa
Coffee
Orange Juice
Sugar
Grains And Oil Seeds
Corn
Soybeans
Wheat
LivestockLive Cattle
Lean Hog
75
ROGERS INTERNATIONAL COMMODITY INDEX (RICI)
This index was developed in 1998 by Jim Rogers, one of the world’s
leading authorities on commodity investing, in order to meet the need for
a broad based international commodities vehicle for investment. The index
represents the value of a basket of 36 commodity future contracts from
11 different exchanges globally. This overall index is supplemented by
individual indices on different commodity sub-sectors.
Only contracts that meet the following criteria are eligible for inclusion in
the index:
Must be on one of 15 recognised international exchanges.
Must have played a significant role in worldwide consumption,
measured via tracking international imports and exports and domestic
consumption of the worlds prime commodity consumers.
Must have suffi cient liquidity to be tradeable.
An investment committee chaired by Jim Rogers meets each December
to determine whether index components and weights should change.
Component weights are set according to their importance in international
commerce.
OTHER INDEX FACTS
Index Calculator: RICI Committee
Currency: USD
Rebalancing Frequency: Annual
Weightings: Set by methodology
Current Index Compostition
Crude Oil
IPE Brent
Wheat
Aluminium
Copper
Corn
Heating Oil
IPE Gasoil
RBOB Gasoline
Natural Gas
Cotton
Soybeans
Gold
Live Cattle
Coffee
Zinc
Silver
Lead
Rice
Soybean Oil
Platinum
Lean Hog
Sugar
Azuki Beans
Cocoa
Nickel
Tin
Greasy Wool
Rubber
Lumber
Barley
Canola
Orange Juice
Oats
Palladium
Soybean Meal
76
A
Actuals: Physical or cash commodities, as distinguished
from commodity futures contracts.
Afl oat: Commodities in transit in vessels or in harbour.
Ask: The price at which a market participant is willing to sell
(also called the “offer”).
B
Back Months: The futures or options being traded that are
furthest from expiration.
Backwardation: A market where prices are lower in the
back month futures contracts than in the nearby month
contracts.
Basis: The difference between the cash price for a
commodity and the price of a particular futures contract.
The futures price plus the basis is the cash price.
Bear: An individual who believes prices will move lower.
Bear Market: A market in which prices are falling
Beta: A measure of the sensitivity of an asset’s price to a
group of assets or index.
Bid: The price at which a market participant is willing to
buy.
Board of Trade: See Contract Market.
Bull: An individual who expects prices to rise.
Bull Market: A market in which prices are rising.
Buying Hedge (or Long Hedge): Buying contracts, such
as futures, to protect against price increases in commodities
that will be needed in the future. See also Hedging.
C
Carry: The cost of fi nancing (borrowing to buy) a position in
fi nancial instruments. A position is said to have “positive”
carry if the cost of fi nancing is less than the return on the
instrument, and “negative” carry if the cost of fi nancing is
higher than the return.
Carrying Cost: Those costs incurred in warehousing the
physical commodity, generally including interest, insurance
and storage.
Carry-Over: Commodity supplies that are left over from the
previous production or marketing season.
Cash Commodity: The actual physical commodity as
distinguished from a futures contract (see Actuals).
Cash Market: A market for the purchase and sale of physical
commodities, as opposed to futures. Cash markets for
commodities can include cash sections of commodity
exchanges (where there may also be futures conracts trading)
or, for example, central stockyards in the livestock industry.
Certifi ed Stock: Stocks of a commodity that are stored at
a designated delivery point and that have been inspected
and found to meet the quality standards specifi ed by futures
contracts and are stored at a designated delivery point.
CIF (Cost, Insurance and Freight): A selling price that
includes all shipping and other carriage charges, plus
insurance, to a named destination port.
Close: The period at the end of the trading session.
CME: The Chicago Mercantile Exchange.
Commodity Credit Corporation (CCC): A corporation
established in 1933 by the US government to help stabilise
and protect US farm income and agricultural commodity
prices. The CCC is wholly government-owned.
CFTC (Commodity Futures Trading Commission): The
glossary
77
government agency responsible for regulating the commodity
futures industry in the United States.
Commodity Pool: A fund that pools contributions from
numerous investors to trade commodity futures or options
contracts, particularly in the United States.
Commodity Pool Operator (CPO): An individual or organisation
responsible for the assets in a Commodity Pool. In the United
States, CPOs usually need to be registered with the Commodity
Futures Trading Commission.
Commodity Trading Advisor (CTA): An individual or
organisation that trades or advises on commodity futures and
options on behalf of a customer account. For example, a
Commodity Pool Operator may hire a Commodity Trading
Advisor to manage and trade a pool of assets. In the United
States, CTAs usually need to be registered with the Commodity
Futures Trading Commission.
Contango: A market where prices are higher in the back
month futures contracts than in the nearby month
contracts.
Contract: The unit of trading in commodity futures. A futures
contract specifi es the exact grade, amount and month of
delivery of the commodity.
Contract Grades: Standards or grades of cash
commodities deliverable against futures contracts. There
may be discounts and premiums for delivery of commodities
of lower or higher quality than the contract grade.
Contract Month: The month specifi ed in a futures contract
when delivery is to be made.
Contract Unit: The actual amount of a commodity stipulated
for delivery against a given futures contract.
Convergence: The tendency of futures prices to approach
cash market values as contracts near expiration.
Cover: To offset a previous futures transaction with an equal
and opposite transaction. “Short-Covering” is the purchase
of futures contracts to cover an earlier sale of an equal
number of the same delivery month. “Liquidation” is the sale
of futures contracts to offset the obligation to take delivery
of an equal number of futures contracts of the same delivery
month purchased earlier.
Crack Spread: A type of commodity trade involving the
purchase of crude oil futures and the sale of petrol and
heating oil futures.
Crush Spread: A type of commodity trade involving the
purchase of soybean futures and the sale of soybean meal
and soybean oil futures.
Current Delivery (Month): The futures contract due to
expire and become deliverable during the current month;
also called a Spot Month.
D
Day Order: An order that expires at the close of a day’s
trading. If not fi lled during that day, it is withdrawn.
Day Trading: Establishing and liquidating the same position
or positions within one day’s trading, thus ending the day
with no established position in the market.
Dealer: An individual or organisation that acts as principal
in transactions.
Dealer Option: A put or call on a physical commodity that
is not subject to the rules of an exchange but is written by
a dealer fi rm.
Default: In futures markets, the theoretical failure of a party
to a futures contract to either make or take delivery of the
physical commodity.
Deferred Delivery: The more distant months in which
futures trading is taking place, as distinguished from the
Nearby futures delivery months.
78
Delivery: This word has a very specific meaning in
connection with futures contracts. Delivery refers to the
changing of ownership or control of a commodity under the
terms and procedures established by the exchange upon
which the contract is traded. The commodity must usually
be delivered to an approved storage facility and inspected.
The storage facility then issues a transferable receipt or
certifi cate. After receipt of this receipt or certifi cate, the
new owner can arrange with the storage facility to take
possession of the physical commodity.
Delivery Points: The locations specifi ed by a commodity
exchange where stocks of a commodity may be delivered to
fulfi l a future contract.
Differentials: Price differences between classes, grades
and locations of different stocks of the same commodity.
Discount: specifi cally for futures contracts, a downward
adjustment in price allowed for delivery of a lower grade of
commodity than specifi ed in the futures contract.
E
Expiration Date: The last day of trading for a futures
contract, or the last day that an option may be exercised
into its underlying futures contract.
F
Flat: When a trader has no open positions.
Floor Broker: An exchange member who executes orders on
behalf of clearing members of an exchange or their customers.
Floor Trader: An exchange member who generally trades
only for his/her own account. Also referred to as a “local.”
Full Carrying Charge Market: When the difference in
futures prices between delivery months refl ects the full costs
of interest, insurance and storage.
Futures: Contracts agreed on an exchange for the future
purchase and sale of financial instruments or physical
commodities.
H
Hedge: The purchase or sale of a futures contract as a
temporary substitute for a cash market transaction to be
made at a later date, or to reduce the risk of that transaction.
A “Long” hedge is the purchase of a future contract in
anticipation of an actual purchase in the cash market and is
used by processors or exporters to protect themselves from
rising prices. A “Short” hedge involves the sale of a futures
contract in anticipation of the sale of a commodity so is
usually used by producers to lock in current prices or protect
against falling prices.
L
Limit Order: An order given to a broker by a customer that
specifies a price; the order can be executed only if the
market reaches or betters that price.
Limit Price: (See Maximum Price Fluctuation).
Liquidation: Any transaction that offsets or closes out a
long or short futures position.
Liquidity: The ability for market participants to quickly enter
or exit positions at a price close to the last traded price. A
liquid market usually requires a large number of traders
willing to buy and sell in a particular commodity market.
Long: Buying a futures contract without an offsetting
position; the opposite of short.
M
Margin (or Performance Bond): Funds that a customer
must deposit with a broker ( or a broker with a clearing
member, or a clearing member with the Clearing House)
before trading futures. Customers may need to make
additional payments (maintenance margin) depending on their
futures positions.
79
Mark-To-Market: The daily adjustment of margin accounts
to refl ect profi ts and losses.
Maximum Price Fluctuation: The maximum amount that
contract price can move up or down during one trading
session, as stipulated by an exchange’s rules.
Minimum Price Fluctuation: The smallest allowable
price movement for a given contract, often referred to as
a “tick.”
N
Nearby Month: The nearest active trading month of a futures or
options on futures contract. Also referred to as “lead month.”
O
Offer: Also called “ask”, the price at which a market
participant is willing to sell.
Offsetting: Taking out a futures contract opposite to one’s
current position, ie selling if one has bought, or buying if one
has sold.
Open Interest: The total number of futures contracts that
have not yet been offset or fulfi lled by delivery. The level of
Open Interest can indicate the depth or liquidity of a market
and the use of a market.
Open Order: An order to a broker that is good until it is
cancelled or executed.
Open Outcry: Method of public auction for making verbal
of fers in the trading pi ts or r ings of commodity
exchanges.
P
Premium: Specifi cally for commodity futures contracts, an
updward adjustment in price allowed for delivery of a higher
grade of commodity than specifi ed in the contract.
R
Rally: An upward movement of prices following a decline;
the opposite of a reaction.
Reaction: A decline in prices following a rise (the opposite of rally).
S
Scalping: Trading for small gains. Scalping usually involves
establishing and quickly liquidating a position.
Short: Selling a futures contract without an offsetting
position; the opposite of long.
Speculator: Someone who attempts to profi t from buying
and selling futures contracts by anticipating prices changes.
Speculators usually have no connection with the production
or processing of a commodity and do not usually take
physical delivery.
Spot: The cash market price of a commodity; or a commodity
that is available for immediate delivery.
T
Tick: Refers to a change in price by a specifi ed increment,
either up or down.
80
AR: Argentina
AU: Australia
BD: Bangladesh
BE: Belgium
BR: Brazil
CA: Canada
CL: Chile
CM: Cameroon
CN: China
CO: Colombia
CU: Cuba
DE: Germany
EC: Ecuador
ET: Ethiopia
FR: France
GH: Ghana
GU: Guam
HK: Hong Kong
HN: Honduras
ID: Indonesia
IN: India
IT: Italy
JP: Japan
KR: Korea
KZ: Kazakhstan
MX: Mexico
MY: Malaysia
NC: New Caledonia
NL: Netherlands
NG: Nigeria
PE: Peru
PH: Phillipines
PK: Pakistan
PL: Poland
PY: Paraguay
RS: Serbia
RU: Russian Federation
SZ: Swaziland
TH: Thailand
TR: Turkey
TW: Taiwan
UA: Ukraine
UK: United Kingdom
US: United States
VT: Vietnam
ZA: South Africa
ZM: Zambia
Abbreviations
a.f: Africa
e.u: European Union
country code index
ISO 3166 two letter country codes used in this document.
IMPORTANT INFORMATION
Approved for issue by Morgan Stanley & Co. International plc (25
Cabot Square, Canary Wharf, London E14 4QA). This information
has been prepared by sales, trading, banking or other non-research
personnel of Morgan Stanley & Co. International plc (together with
its affi liates “Morgan Stanley”) solely for information purposes. It
is not an offer or a solicitation to buy or sell any commodity,
commodity investment, structured product or other investment or
trading strategy (“Products”). Certain assumptions may have been
made in the analysis that resulted in any information and returns/
results detailed herein. No representation is made that any returns/
results indicated would be achieved or that all assumptions in
achieving these returns/results have been considered. Past
performance is not necessarily indicative of future results. We
make no representation or warranty with respect to the accuracy
or completeness of this brochure nor are we obliged to update
information in respect of the Products mentioned herein.
Any investment decision should be made only upon receiving all
relevant information, including the prospectus for the relevant
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