French Perfume
A Nose for Perfume
Row upon row of lavender flowers. Growing and harvesting flowers
is a very tedious occupation. No machine is used in the fields; the flowers are so delicate that automation
would destroy them.
Many perfume have been named after famous French
fashion designers, such as Yves Saint Laurent and Christian
Dior. Some well known persons in show
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business or sports have also lent their names to perfumes,
including actress Elizabeth
Taylor and tennis player Gabriella Sabatini.
The perfume industry in France has flourished since King
Louis XIV's reign. The Sun King and his courtiers did not take
much care of their personal hygiene.
Instead, they relied on
perfumes to mask odors. Today, although attention
to hygiene
is much better, the perfume industry is thriving and worth millions
of dollars a year. French perfumes are considered the
best in the world, and they are exported to more than one hundred
countries.
The town of Grasse in the South of France has been the
center of the perfume industry since the sixteenth century.
At that time, Grasse was also a center for leather tanning.
It became the perfume capital of the world when Catherine
de Medicis, queen of France, set the fashion for scented leather
gloves. Today, the leather tanneries are gone, but the forty
perfume houses founded in the eighteenth and nineteenth centuries
are still in business. Grasse is surrounded by field upon field
of flowers: lavender, mimosa, rose, orange blossom, ylang-ylang,
and jasmine. The flowers are handpicked, and it may take a group
of workers one whole hour to pick 15 pounds (7 kg) of roses.
Harvesting jasmine flowers is even more time-consuming: one
hour for 1 pound (0.5 kg) of flowers. To pick the flowers, the
workers have to be in the fields by 5:00 a.m.
A perfume is made from a combination of essences, extracts of
flowers, or other natural sources. Some perfumes require as
many as three hundred essences. The blending of essences in
exact quantities is the most important step; it gives life to
a perfume. The person who creates a perfume is called a "nose."
Noses are experts who can identify one scent from six
thousand smells with just one whiff. Very few people have the
ability to become a nose, and those who do have it are highly
sought after in the perfume industry.
It takes thousands of flowers to make a drop of essence. One
ton of roses yields only 4 pounds (1.8 kg) of essence. Various
methods are used to extract essence from flowers; all are very
painstaking: steam distillation, extraction by volatile solvents,
or enfleurage (ahn-fluh-RAHGE). The last method is used for
expensive or potent essences. Pungent blossoms are layered with
fats for several months until the fat has absorbed all the aroma
of the flowers. Then the oils are "washed" out with alcohol.
When the alcohol evaporates, it leaves the pure perfume
essence behind.
Extract from “Countries Of The World France”, Written by Roseline Ngcheong-Lum. Times Edition Pte Ltd. Singapore, 1999.
Amazon eBay: CHEMICALS IN PERFUMES:
A HEALTH AND ENVIRONMENTAL CONCERN
Two groups of hazardous or potentially hazardous chemicals commonly
used in perfumes and other personal care products are phthalate esters,
commonly known as phthalates, and synthetic (artificial or man-made)
musks. As a consequence of the extensive and high-volume use of these
chemicals in products, they have become widely distributed through
both the natural and the urban environment.The ubiquitous presence of
synthetic musks and phthalates in the environment and in consumer
products, many of which are very slow to break down, results in
continuous background exposures with unknown long-term
consequences. At the same time, personal care products that we apply
to our skin, including perfumes, provide a direct route of repeated
exposure to relatively concentrated doses and may be expected to
contribute substantially to our overall exposure to these chemicals.
Although data remain limited, there is evidence to suggest that the
phthalates and synthetic musks in common use may present us
with diverse health and environmental hazards. New evidence is
emerging all the time. Further details of the properties and
hazards of these chemicals are provided in the text boxes below.
DIETHYL PHTHALATE (DEP) AND OTHER PHTHALATE ESTERS
Diethyl phthalate (DEP) is one of many phthalate esters in common use. It is used in particular in a wide range of cosmetic and other
personal care products, primarily as a solvent and vehicle for fragrances and other cosmetic ingredients and as an alcohol denaturant
[making the alcohol unfit to drink] (SCCNFP 2003). Although DEP has generally been considered as having a low overall toxicity and
does not appear to exhibit the same level of reproductive toxicity displayed by certain other phthalates (notably DEHP), newly emerging
evidence raises significant concerns regarding its safety.
Given their widespread use in consumer goods, exposure to phthalates can occur through a variety of routes (Koo et al. 2002, Fromme
et al. 2004). Since DEP is an ingredient of perfumes and other personal care products, it appears that inhalation may be a significant
route of exposure (Adibi et al. 2003). Absorption through the skin is also likely to be a contributory factor.
Although DEP is rapidly metabolised in the human body to its monoester form (MEP) and does not appear to accumulate in tissues, it is clear
that when applied to the skin DEP rapidly penetrates it and becomes widely distributed around the body following each exposure (WHO 2003).
MEP has been reported at up to 30 times higher concentrations in human urine than metabolites of any other phthalate ester (Duty et al. 2003).
One study (Silva et al. 2004) has recently shown that, whereas levels of certain other phthalate metabolites excreted in the urine are generally
higher in children than in adults, levels of MEP are commonly twice as high in young adults as they are in children, with the highest levels of all in
women, possibly reflecting differences in frequency of use of personal care products, such as hair care products, cosmetics and perfumes.
The long-term effects of such repeated direct exposure to DEP are not well understood. However, some recent evidence indicates that
changes to the DNA of sperm cells are more prevalent in individuals who also show high levels of MEP in their urine (Duty et al.
2003); further studies are necessary to determine if there is a causal relationship. More recently still, research has identified a possible
link between exposure to two phthalate metabolites, namely MEP and MBP (monobutyl phthalate), measured in urine samples, and
restricted lung function in adult men (Hoppin et al. 2004).
A number of other phthalates identified in the perfume samples, albeit at far lower levels than DEP, are also of toxicological concern.
Of particular note are dibutyl phthalate (DBP) and diethylhexyl phthalate (DEHP), both of which are classified in the EU as toxic to
reproduction (Category 2) (EU 2003).
AN INVESTIGATION OF CHEMICALS IN
36 EAUX DE TOILETTE AND EAUX DE PARFUM
6 | CHEMICALS IN PERFUME REPORT
SYNTHETIC MUSKS
Synthetic musks are man-made aromatic compounds that are used in place of more expensive natural musks.They are added to many
everyday products, including laundry detergents, air fresheners, hand creams, soaps and perfumes (OSPAR 2004).
The term synthetic musks encompasses three broad chemical groups: nitromusks, polycyclic musks and macrocyclic musks. Due to
toxicological concerns, nitromusk production has been in decline in Europe for a number of years. Only two nitromusks are of
importance today: musk xylene (MX) and musk ketone (MK).These, along with two polycyclic musks, galaxolide (HHCB) and tonalide
(AHTN) account for 95% of the European market for synthetic musks (OSPAR 2004).
Synthetic musks are environmentally persistent chemicals and, as a consequence of this and their extensive use in products, have become
widely distributed in the environment, especially in aquatic and marine systems (Eschke 2004, Leonards and de Boer 2004, Bester et al.
1998) but also in the atmosphere (Peters 2003) and inside buildings (Kallenborn and Gatermann 2004).
A study commissioned by Greenpeace Netherlands of chemicals in rainwater within the Netherlands found synthetic musk compounds in
virtually all rainwater samples (Peters 2003).While HHCB was found to be distributed fairly evenly, there was a clear peak in levels of
AHTN in the centre of the country.This peak coincided with the location of a chemical company that produces synthetic musk compounds.
Significantly, the nitromusk musk ambrette (MA), which has been banned in the EU since 1995, was found at 34% of the rainwater
collection points, suggesting long-term environmental persistence.
Synthetic musks can concentrate in living tissues; indeed, musks used in perfumes have also been found contaminating human blood and
breast milk (Rimkus and Wolf 1996, Peters 2004).There is increasing evidence emerging that some nitromusks and polycyclic musks,
including those commonly used in perfumes, may be capable (either as parent compounds or as metabolites) of interfering with hormone
communication systems in fish (Schreurs et al. 2004), amphibians (Dietrich and Hitzfeld 2004) and mammals (Bitsch et al. 2002,
Schreurs et al. 2002), and may exacerbate the effects of exposure to other toxic chemicals (Smital et al. 2004).
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