User Contributed Dictionary
Noun
sugars- Plural of sugar
See also
Verb
sugars- third-person singular of sugar
Extensive Definition
Sugar (the word stems from the Sanskrit sharkara)
consists of a class of edible crystalline substances including
sucrose, lactose, and fructose. Sugar is made from
Sugar
Beets or Sugar Cane.
Human taste
buds interpret its flavor as sweet. Sugar as a basic food carbohydrate primarily
comes from sugar cane and
from sugar
beet, but also appears in fruit, honey, sorghum, sugar maple
(in maple
syrup), and in many other sources. It forms the main ingredient
in much candy. "Excessive"
consumption of sugar has been associated with increased incidences
of type 2 diabetes, of
obesity and of tooth
decay.
Terminology
Popular
In non-scientific use, the term sugar refers to
sucrose (also called
"table sugar" or "saccharose") — a white crystalline solid disaccharide. In this
informal sense, the word "sugar" principally refers to crystalline
sugars.
Humans most commonly use sucrose as their sugar
of choice for altering the flavor and properties (such as
mouthfeel,
preservation, and texture) of beverages and food.
Commercially produced table sugar comes either from sugar cane or
from sugar
beet. Manufacturing and preparing food may involve other
sugars, including palm sugar and
fructose, generally
obtained from corn (maize)
or from fruit.
Sugar may dissolve in water to form a syrup. A great many foods exist
which principally contain dissolved sugar. Generically known as
"syrups", they may also have other more specific names such as
"honey" or "molasses".
Scientific
Scientifically, sugar refers to any monosaccharide or
disaccharide.
Monosaccharides (also called "simple sugars"), such as glucose, store chemical energy
which biological
cells
convert to other types of energy.
In a list of ingredients, any word that ends with
"-ose" (such
as "glucose", "dextrose", "fructose", etc.) will likely denote a
sugar. Sometimes such words may also refer to any types of carbohydrates soluble in
water.
Culinary/nutritional
In culinary terms, the foodstuff known as sugar
delivers a primary taste
sensation of sweetness. Apart from the many
forms of sugar and of sugar-containing foodstuffs, alternative
non-sugar-based sweeteners exist, and these
particularly attract interest from people who have problems with
their blood sugar
level (such as diabetics) and people who wish
to limit their calorie-intake while still
enjoying sweet foods. Both natural and synthetic substitutes exist
with no significant carbohydrate (and thus
low-calorie) content: for instance stevia (a herb), and saccharin (produced from
naturally occurring but not necessarily naturally edible substances by inducing
appropriate chemical
reactions).
anchor History
History of sugar
Originally, people chewed the cane raw to extract
its sweetness. Indians discovered
how to crystallize sugar during the Gupta
dynasty, around 350 AD. John F. Robyt (1998) locates the two
most probable origins of sugar cultivation as North East
India or the South Pacific,
which provide evidence of sugarcane cultivation as early as 10,000
BC and 6,000 BC respectively. Further archaeological evidence
associates sugar with the Indus
valley. itself derived from Sanskrit Sharkara.
It came to English by way of French,
Spanish
and/or Italian,
which derived their word for sugar from the Arabic and Persian
shakar (whence the Portuguese
word açúcar, the Spanish word azúcar, the Italian word zucchero,
the Old French word zuchre and the contemporary French word sucre).
(Compare the OED.)
The Greek word
for "sugar", zahari, means "pebble". Note that the English word
jaggery (meaning "coarse brown Indian sugar") has similar ultimate
etymological origins (presumably in Sanskrit).
As a food
Originally a luxury, sugar eventually became
sufficiently cheap and common to influence standard cuisine.
Britain
and the Caribbean
islands have cuisines where the use of sugar became
particularly prominent.
Sugar forms a major element in confectionery and in
desserts. Cooks
use it as a food
preservative as well as for sweetening.
Human health
Some commentators have suggested links between
sugar consumption and health hazards, including obesity and tooth
decay.
Tooth decay
Tooth decay
has arguably become the most prominent health hazard associated
with the consumption of sugar. Oral bacteria such as Streptococcus
mutans live in dental plaque and metabolize sugars into
lactic
acid. High concentrations of acid may result on the surface of
a tooth, leading to tooth demineralization.
The
American Dental Association sees tooth decay as caused "mostly"
by starchy foods like breadsticks, cereals and potato chips
that linger on teeth and prolong acid production, not by simple
sugars that dissolve rapidly in the mouth.
Diabetes
Diabetes, a
disease that causes the body to metabolize sugar poorly, occurs
when either:
- the body's cells ignore insulin, a chemical that allows the metabolizing of sugar (Type 2 diabetes)
- the body attacks the cells producing the insulin (Type 1 diabetes)
When glucose builds up in the bloodstream, it can
cause two problems:
- in the short term, cells become starved for energy because they do not have access to the glucose
- in the long term, frequent glucose buildup can damage many of the body's organs, including the eyes, kidneys, nerves and/or heart
Authorities advise diabetics to avoid sugar-rich
foods to prevent adverse reactions.
Obesity
In the United States of America, a scientific/health debate has started over the causes of a steep rise in obesity in the general population — and one view posits increased consumption of carbohydrates in recent decades as a major factor. Obesity can result from a number of factors including:- an increased intake of energy-dense foods — high in fat and sugars but low in vitamins, minerals and other micronutrients (see United Nations advice below); and
- decreased physical activity.
The National Health and Nutrition Examination
Survey I and Continuous indicates that the population in the United
States has increased its proportion of energy consumption from
carbohydrates and decreased its proportion from total fat while
obesity has increased. This implies, along with the United Nations
report cited below, that obesity may correlate better with sugar
consumption than with fat consumption, and that reducing fat
consumption while increasing sugar consumption actually increases
the level of obesity. The following table summarizes this study
(based on the proportion of energy intake from different food
sources for US Adults 20-74 years old, as carried out by the U.S.
Department of Health and Human Services, Centers for Disease
Control and Prevention, National Center for Health Statistics,
Hyattsville, MD):
Another study published in 2002 and conducted by
the
National Academy of Sciences over a 3-year period concluded:
“There is no clear and consistent association between increased
intakes of added sugars and BMI.” (BMI or "Body mass
index" measures body-weight and height.)
Gout
Researchers have implicated sugary drinks high in
fructose in a surge in cases of the painful joint disease gout.
United Nations nutritional advice
In 2003, four United
Nations agencies, (including the World
Health Organization (WHO) and the
Food and Agriculture Organization (FAO)) commissioned a report
compiled by a panel of 30 international experts. The panel stated
that the total of free sugars (all monosaccharides and
disaccharides added to foods by manufacturers, cooks or consumers,
plus sugars naturally present in honey, syrups and fruit juices)
should not account for more than 10% of the energy intake of a healthy diet,
while carbohydrates
in total should represent between 55% and 75% of the energy
intake.
Debate on extrinsic sugar
Argument continues as to the value of extrinsic
sugar (sugar added to food) compared to that of intrinsic sugar
(naturally present in food). Adding sugar to food particularly
enhances taste, but does increase the total number of calories, among other negative
effects on health and physiology.
In the United
States of America, sugar has become increasingly evident in
food products, as more food manufacturers add sugar or high
fructose corn syrup to a wide variety of consumables. Candy bars,
soft
drinks, chips, snacks, fruit juice,
peanut
butter, soups, ice cream,
jams, jellies, yogurt, and many breads have
added sugars. Five Alive,
for example, portrayed by its suppliers as "all natural" and
featuring pictures of five different types of fruit on its label,
comprises only 41% fruit juice, having high fructose corn syrup as
its primary ingredient.
Concerns of vegetarians and vegans
The sugar refining industry often uses bone char
(calcinated animal
bones) for decolorizing. This may concern some vegans and
vegetarians; about a quarter of the sugar in the U.S. gets
processed using bone char as a filter and the rest gets processed
with activated
carbon. As bone char does not get into the sugar, the relevant
authorities consider sugar processed this way as parve/kosher.
Production
Table sugar (sucrose) comes from plant sources.
Two important sugar crops predominate: sugarcane (Saccharum spp.) and
sugar
beets (Beta vulgaris), in which sugar can account for 12% to
20% of the plant's dry weight. Some minor commercial sugar crops
include the date palm
(Phoenix dactylifera), sorghum (Sorghum vulgare), and
the sugar
maple (Acer saccharum). In the financial
year 2001/2002, worldwide production of sugar amounted to 134.1
million tonnes.
The first production of sugar from sugarcane took
place in India. Alexander
the Great's companions reported seeing "honey produced without the
intervention of bees" and it remained exotic in Europe until the
Arabs started cultivating it in Sicily and Spain. Only after the
Crusades
did it begin to rival honey as a sweetener in Europe. The Spanish
began cultivating sugarcane in the West Indies
in 1506 (and in Cuba in 1523). The
Portuguese
first cultivated sugarcane in Brazil in
1532.
Most cane sugar comes from countries with warm
climates, such as Brazil, India, China, Thailand, Mexico and Australia, the
top sugar-producing countries in the world. Brazil overshadows most
countries, with roughly 30 million tonnes of cane sugar produced in
2006, while India produced 21 million, China 11 million, and
Thailand and Mexico roughly 5 million each. Viewed by region, Asia
predominates in cane sugar production, with large contributions
from China, India and Thailand and other countries combining to
account for 40% of global production in 2006. South America comes
in second place with 32% of global production; Africa and Central
America each produce 8% and Australia 5%. The United States, the
Caribbean and Europe make up the remainder, with roughly 3%
each.
Beet sugar comes from regions with cooler
climates: northwest and eastern Europe, northern Japan, plus some
areas in the United States (including California). In the northern
hemisphere, the beet-growing season ends with the start of
harvesting around September. Harvesting and processing continues
until March in some cases. The availability of processing plant
capacity, and the weather both influence the duration of harvesting
and processing - the industry can lay up harvested beet until
processed, but frost-damaged beet becomes effectively
unprocessable.
The European
Union (EU) has become the world's second-largest sugar
exporter. The Common
Agricultural Policy of the EU sets maximum quotas for members'
production to match supply and demand, and a price. Europe exports
excess production quota (approximately 5 million tonnes in 2003).
Part of this, "quota" sugar, gets subsidised from industry levies,
the remainder (approximately half) sells as "C quota" sugar at
market prices without subsidy. These subsidies and a high import
tariff make it difficult
for other countries to export to the EU states, or to compete with
the Europeans on world markets.
The United States sets high sugar prices to
support its producers, with the effect that many former consumers
of sugar have switched to corn syrup
(beverage manufacturers) or moved out of the country
(candymakers).
The cheap prices of glucose
syrups produced from wheat and corn (maize) threaten the traditional
sugar market. Used in combination with artificial
sweeteners, they can allow drink manufacturers to produce very
low-cost goods.
Cane
Since the 6th century BC cane sugar producers
have crushed the harvested vegetable material from sugarcane in
order to collect and filter the juice. They then treat the liquid
(often with lime (calcium
oxide)) to remove impurities and then neutralize it. Boiling
the juice then allows the sediment to settle to the bottom for
dredging out, while the scum rises to the surface for skimming off.
In cooling, the liquid crystallizes, usually in the process of
stirring, to produce sugar crystals. Centrifuges
usually remove the uncrystallized syrup. The producers can then
either sell the resultant sugar, as is, for use; or process it
further to produce lighter grades. This processing may take place
in another factory in another country. Sugar cane appears fourth in
the list for agriculture in China.
Beet
Beet sugar producers slice the washed beets, then
extract the sugar with hot water in a "diffuser". An alkaline solution
("milk
of lime" and carbon
dioxide from the lime kiln) then serves to precipitate
impurities (see carbonatation). After
filtration, evaporation concentrates the juice to a content of
about 70% solids, and controlled crystallisation extracts the
sugar. A centrifuge removes the sugar crystals from the liquid,
which gets recycled in the crystalliser stages. When economic
constraints prevent the removal of more sugar, the manufacturer
discards the remaining liquid, now known as molasses.
Sieving the resultant white sugar produces
different grades for selling.
Cane versus beet
Little perceptible difference exists between
sugar produced from beet and that from cane. Chemical tests can
distinguish the two, and some tests aim to detect fraudulent abuse
of European
Union subsidies or to aid in the detection of adulterated
fruit
juice.
The production of sugarcane needs approximately
four times as much water as the production of sugar beet, therefore
some countries that traditionally produced cane sugar (such as
Egypt) have
seen the building of new beet sugar factories recently. On
the other hand, sugar cane tolerates hot climates better. Some
sugar factories process both sugar cane and sugar beets and extend
their processing period in that way.
The production of sugar results in residues which
differ substantially depending on the raw materials used and on the
place of production. While cooks often use cane molasses in food preparation,
humans find molasses from sugar beet unpalatable, and it therefore
ends up mostly as industrial fermentation
feedstock (for example in alcohol distilleries), or as
animal
feed. Once dried, either type of molasses can serve as fuel for
burning.
Culinary sugars
So-called raw sugars comprise yellow to brown
sugars made by clarifying the source syrup by boiling and drying
with heat, until it becomes a crystalline solid, with minimal
chemical processing. Raw beet sugars result from the processing of
sugar beet juice, but only as intermediates en route to white
sugar. Types of raw sugar include demerara,
muscovado, and
turbinado. Mauritius and
Malawi
export significant quantities of such specialty sugars.
Manufacturers sometimes prepare raw sugar as loaves rather than as
a crystalline powder, by pouring sugar and molasses together into
molds and allowing the mixture to dry. This results in sugar-cakes
or loaves, called jaggery or gur in India,
pingbian tang in China, and panela, panocha, pile, piloncillo and
pão-de-açúcar in various parts of Latin America. In South America,
truly raw sugar, unheated and made from sugarcane grown on farms,
does not have a large market-share.
Mill white sugar, also called plantation white,
crystal sugar, or superior sugar, consists of raw sugar where the
production process does not remove colored impurities, but rather
bleaches them white by exposure to sulfur
dioxide. Though the most common form of sugar in
sugarcane-growing areas, this product does not store or ship well;
after a few weeks, its impurities tend to promote discoloration and
clumping.
Blanco directo, a white sugar common in India and
other south Asian countries, comes from precipitating many
impurities out of the cane juice by using phosphatation — a
treatment with phosphoric
acid and calcium
hydroxide similar to the carbonatation technique used in beet
sugar refining. In terms of sucrose purity, blanco directo is more
pure than mill white, but less pure than white refined sugar.
White refined sugar has become the most common
form of sugar in North
America as well as in Europe. Refined
sugar can be made by dissolving raw sugar and purifying it with a
phosphoric
acid method similar to that used for blanco directo, a carbonatation process
involving calcium hydroxide and carbon dioxide, or by various
filtration strategies. It is then further purified by filtration
through a bed of activated
carbon or bone char
depending on where the processing takes place. Beet sugar
refineries produce refined white sugar directly without an
intermediate raw stage. White refined sugar is typically sold as
granulated sugar, which has been dried to prevent clumping.
Granulated sugar comes in various crystal sizes —
for home and industrial use — depending on the application:
- Coarse-grained sugars, such as sanding sugar (also called "pearl sugar", "decorating sugar", nibbed sugar or sugar nibs) adds "sparkle" and flavor for decorating to baked goods, candies, cookies/biscuits and other desserts. The sparkling effect occurs because the sugar forms large crystals which reflect light. Sanding sugar, a large-crystal sugar, serves for making edible decorations. It has larger granules that sparkle when sprinkled on baked goods and candies and will not dissolve when subjected to heat.
- Normal granulated sugars for table use: typically they have a grain size about 0.5 mm across
- Finer grades result from selectively sieving the granulated
sugar
- caster (or castor) (0.35 mm), commonly used in baking
- superfine sugar, also called baker's sugar, berry sugar, or bar sugar — favored for sweetening drinks or for preparing meringue
- Finest grades
- Powdered sugar, 10X sugar, confectioner's sugar (0.060 mm), or icing sugar (0.024 mm), produced by grinding sugar to a fine powder. The manufacturer may add a small amount of anticaking agent to prevent clumping — either cornstarch (1% to 3%) or tri-calcium phosphate.
Brown sugars
come from the late stages of sugar refining, when sugar forms fine
crystals with significant molasses content, or from coating white
refined sugar with a cane molasses syrup. Their color and taste
become stronger with increasing molasses content, as do their
moisture-retaining properties. Brown sugars also tend to harden if
exposed to the atmosphere, although proper handling can reverse
this.
The World Health Organisation and the Food and
Agriculture Organization of the United Nations expert report (WHO
Technical Report Series 916 Diet, Nutrition and the Prevention of
Chronic Diseases) defines free sugars as all monosaccharides and
disaccharides added to foods by the manufacturer, cook or consumer,
plus sugars naturally present in honey, syrups and fruit juices.
This includes all the sugars referred to above. The term
distinguishes these forms from all other culinary sugars added in
their natural form with no refining at all.
Natural sugars comprise all completely unrefined
sugars: effectively all sugars not defined as free sugars. The WHO
Technical Report Series 916 Diet, Nutrition and the Prevention of
Chronic Diseases approves only natural sugars as carbohydrates for
unrestricted consumption. Natural sugars come in fruit, grains and
vegetables in their natural or cooked form.
Chemistry
Biochemists
regard sugars as relatively simple carbohydrates. Sugars
include monosaccharides, disaccharides, trisaccharides and the
oligosaccharides
- containing 1, 2, 3, and 4 or more monosaccharide units
respectively. Sugars contain either aldehyde groups (-CHO) or
ketone groups (C=O),
where there are carbon-oxygen double bonds,
making the sugars reactive. Most simple sugars (monosaccharides)
conform to (CH2O)n where n is between 3 and 7. A notable exception,
deoxyribose, as its
name suggests, has a "missing" oxygen atom. All saccharides with
more than one ring in their structure result from two or more
monosaccharides joined by glycosidic bonds with the resultant loss
of a molecule of water (H2O) per bond.
As well as using classifications based on their
reactive group, chemists may also subdivide sugars according to the
number of carbons they contain. Derivatives of trioses (C3H6O3) are
intermediates in glycolysis. Pentoses
(5-carbon sugars) include ribose and deoxyribose, which form part
of nucleic
acids. Ribose also forms a component of several chemicals that
have importance in the metabolic process, including
NADH and ATP.
Hexoses (6-carbon sugars) include glucose, a universal substrate
for the production of energy in the form of ATP. Through photosynthesis plants
produce glucose, which
has the formula C6H12O6, and then convert it for storage as an
energy reserve in the form of other carbohydrates such as starch, or (as in cane and beet)
as sucrose (table
sugar). Sucrose has the chemical formula C12H22O11.
Many pentoses and hexoses can form ring
structures. In these closed-chain forms, the aldehyde or ketone
group remains unfree, so many of the reactions typical of these
groups cannot occur. Glucose in solution exists mostly in the ring
form at equilibrium,
with less than 0.1% of the molecules in the open-chain form.
Monosaccharides in a closed-chain form can form
glycosidic bonds with
other monosaccharides, creating disaccharides (such as sucrose) and
polysaccharides (such as starch). Enzymes must
hydrolyse or
otherwise break these glycosidic bonds before such compounds become
metabolised. After
digestion and absorption. the principal monosaccharides present in
the blood and internal tissues include glucose, fructose, and
galactose.
The prefix "glyco-" indicates the presence of a
sugar in an otherwise non-carbohydrate substance. Note for example
glycoproteins,
proteins connected to one or more sugars.
Monosaccharides include fructose, glucose, galactose and mannose. Disaccharides occur
most commonly as sucrose (cane or beet sugar - made from one
glucose and one fructose), lactose (milk sugar - made from
one glucose and one galactose) and maltose (made of two glucoses).
These disaccharides have the formula C12H22O11.
Hydrolysis can
convert sucrose into a syrup of fructose and glucose, producing
invert
sugar. This resulting syrup, sweeter than the original sucrose,
has uses in making confections because it does not crystallize as
easily and thus produces a smoother finished product.
If combined with fine ash, sugar will burn with a
blue flame.
Measuring sugar
Dissolved sugar content
Scientists and the sugar
industry use degrees Brix (symbol °Bx),
introduced by Antoine
Brix, as units of measurement of the mass ratio of dissolved
substance to water in a liquid. A 25 °Bx sucrose solution has 25
grams of sucrose per 100 grams of liquid; or, to put it another
way, 25 grams of sucrose sugar and 75 grams of water exist in the
100 grams of solution.
An infrared Brix sensor measures the vibrational
frequency of the sugar molecules, giving a Brix degrees
measurement. This does not equate to Brix degrees from a density or
refractive index measurement because it will specifically measure
dissolved sugar concentration instead of all dissolved solids. When
using a refractometer, one should report the result as
"refractometric dried substance" (RDS). One might speak of a liquid
as having 20 °Bx RDS. This refers to a measure of percent by weight
of total dried solids and, although not technically the same as
Brix degrees determined through an infrared method, renders an
accurate measurement of sucrose content, since sucrose in fact
forms the majority of dried solids. The advent of in-line infrared
Brix measurement sensors has made measuring the amount of dissolved
sugar in products economical using a direct measurement.
Purity
Technicians usually measure the purity (sucrose
content) of sugar by polarimetry — the
measurement of the rotation of plane-polarized
light by a solution of sugar.
Baking weight/mass volume relationship
Different culinary sugars have different
densities due to differences in particle size and inclusion of
moisture.
The Domino Sugar Company has established the
following volume to weight conversions:
* Granular sugar 1 cup = 200g = 7.06 oz *
Powdered sugar 1 cup = 120g = 4.23 oz * Brown sugar 1 cup = 195g =
6.88 oz
Trade and economics
Historically one of the most widely-traded
commodities in the world, sugar accounts for around 2% of the
global dry cargo market. International sugar prices show great
volatility, ranging from around 3 to over 60 cents per pound in the
past
50 years. Of the world's 180-odd countries, around 100 produce
sugar from beet or cane, a few more refine raw sugar to produce
white sugar, and all countries consume sugar. Consumption of sugar
ranges from around 3 kilograms per person per annum in Ethiopia to
around 40 kg/person/yr in Belgium. Consumption per capita rises
with income per capita until it reaches a plateau of around 35kg
per person per year in middle income countries.
Many countries subsidize sugar production
heavily. The European Union, the United States, Japan and many
developing countries subsidize domestic production and maintain
high tariffs on imports. Sugar prices in these countries have often
exceeded prices on the international market by up to three times;
today, with
world market sugar futures prices currently
strong, such prices typically exceed world prices by two
times.
Within international trade bodies, especially in
the World
Trade Organization, the "G20"
countries led by Brazil have long argued that because these sugar
markets essentially exclude cane sugar imports, the G20 sugar
producers receive lower prices than they would under free trade.
While both the European
Union and United States maintain trade agreements whereby
certain developing and less
developed country (LDCs) can sell certain quantities of sugar
into their markets, free of the usual import tariffs, countries
outside these preferred trade régimes have complained that these
arrangements violate the "most
favoured nation" principle of international trade. This has led
to numerous tariffs and levies in the past.
In 2004, the WTO sided with a group
of cane sugar exporting nations (led by Brazil and Australia) and
ruled the EU sugar-régime and the accompanying ACP-EU Sugar
Protocol (whereby a group of African, Caribbean, and Pacific
countries receive preferential access to the European sugar market)
illegal. In response to this and to other rulings of the WTO, and
owing to internal pressures on the EU sugar-régime, the European
Commission proposed on 22 June 2005 a
radical reform of the EU sugar-régime, cutting prices by 39% and
eliminating all EU sugar exports. The African, Caribbean, Pacific
and least
developed country sugar exporters reacted with dismay to the EU
sugar proposals,. On 25 November
2005 the Council of the EU agreed to cut EU sugar prices by 36% as
from 2009. In 2007 it seemed that the U.S.
Sugar Program could become the next target for reform. However,
some commentators expected heavy lobbying from the U.S. sugar
industry, which donated $2.7 million to US House and US Senate
incumbents in the 2006 US election, more than any other group of US
food-growers. Especially prominent lobbyists include The
Fanjul Brothers, so-called "sugar barons" who made the single
largest
individual contributions of soft money to
both the Democratic and Republican parties in the political system
of the United States of America.
Small quantities of sugar, especially specialty
grades of sugar, reach the market as 'fair trade'
commodities; the fair trade
system produces and sells these products with the understanding
that a larger-than-usual fraction of the revenue will support small
farmers in the developing world. However, whilst the Fairtrade
Foundation offers a premium of USD 60.00 per tonne to small farmers
for sugar branded as "Fairtrade", government schemes such the U.S.
Sugar Program and the ACP
Sugar Protocol offer premiums of around USD 400.00 per tonne
above world market prices. However, the EU announced on 14 September
2007 that it had offered "to eliminate all duties and quotas on the
import of sugar into the EU".
The Sugar
Association has launched a campaign to promote sugar over
artificial substitutes. The Association now
aggressively challenges many common beliefs regarding negative side
effects of sugar consumption. The campaign aired a high-profile
television commercial during the 2007 Prime
Time Emmy Awards on FOX Television. The Sugar Association uses
the trademark tagline "Sugar: sweet by nature."
See also
- Barley sugar
- Biobutanol
- Brown sugar
- Brix
- Caramel
- Corn syrup
- Fermentation
- Glycomics
- Golden syrup
- Holing cane
- List of unrefined sweeteners
- Maple sugar
- Natural brown sugar
- Palm sugar
- Rock candy
- Stevia
- Sugar plantations in the Caribbean
- Sugar loaf
- Sugar packet
- Sugar substitute
- The Hawaiian Vibora Luviminda trades union
- Saccharophilic pathogen
Notes
References
- A C Hannah, The International Sugar Trade, Cambridge: Woodhead, 1996. ISBN 1-85573-069-3
- William Dufty, Sugar Blues, ISBN 0-446-34312-9
External links
sugars in Afrikaans: Suiker
sugars in Arabic: سكر طعام
sugars in Bengali: চিনি
sugars in Min Nan: Thn̂g
sugars in Belarusian: Цукар
sugars in Belarusian (Tarashkevitsa):
Цукар
sugars in Bulgarian: Захар
sugars in Catalan: Sucre
sugars in Chechen: Шекар
sugars in Welsh: Siwgr
sugars in Danish: Sukker
sugars in German: Zucker
sugars in Modern Greek (1453-): Ζάχαρη
sugars in Spanish: Azúcar
sugars in Esperanto: Sukero
sugars in Basque: Azukre
sugars in French: Sucre
sugars in Galician: Azucre
sugars in Korean: 설탕
sugars in Croatian: Šećeri
sugars in Ido: Sukro
sugars in Indonesian: Gula
sugars in Icelandic: Matarsykur
sugars in Italian: Zucchero
sugars in Hebrew: סוכר
sugars in Javanese: Gula
sugars in Swahili (macrolanguage): sukari
sugars in Lithuanian: Cukrus
sugars in Latin: Saccharon
sugars in Lojban: sakta
sugars in Hungarian: Cukor
sugars in Macedonian: Шеќер
sugars in Malay (macrolanguage): Gula
sugars in Dutch: Tafelsuiker
sugars in Japanese: 砂糖
sugars in Norwegian: Sukker
sugars in Norwegian Nynorsk: Sukker
sugars in Narom: Chucre
sugars in Occitan (post 1500): Sucre
sugars in Polish: Cukier spożywczy
sugars in Portuguese: Açúcar
sugars in Romanian: Zahăr
sugars in Quechua: Asukar
sugars in Russian: Сахар
sugars in Albanian: Sheqeri
sugars in Simple English: Sugar
sugars in Slovak: Sacharid
sugars in Slovenian: Sladkor
sugars in Sundanese: Gula
sugars in Finnish: Sokeri
sugars in Swedish: Socker
sugars in Tagalog: Asukal
sugars in Tamil: சீனி
sugars in Thai: น้ำตาล
sugars in Turkish: şeker
sugars in Ukrainian: Цукор
sugars in Walloon: Souke
sugars in Yiddish: צוקער
sugars in Contenese: 糖
sugars in Samogitian: Sokros
sugars in Chinese: 砂糖