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Sandalwood Biblio - Cropwatch

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in association with Eucalyptus stands. It is suggested that the water-shedding properties of the<br />

granite exposures are less important to sustaining sandalwood than the presence of preferentially<br />

parasitised host species.<br />

George, A. S. (1984). “Santalum.” in Flora of Australia, vol. 22. Bureau of Flora and Fauna.<br />

Australian Government Publishing Service. Canberra, Australia.<br />

George, A.S 1996) “<strong>Sandalwood</strong>s and quandongs of Australia.” Australian Plants 13, 318-319<br />

Gearon V. (2000) at<br />

http://www.essentiallyoils.com/Newsletters/October_2000_Newsletter/october_2000_newsletter.h<br />

tml<br />

Gearon V. (2002) Aromatherapy Today 24, Dec 2002 p21<br />

Gowda D. (2008) “Detergents“Decline in the Supply of Natural <strong>Sandalwood</strong> oil: deforestation,<br />

adulteration and synthetics.” <strong>Sandalwood</strong> Conference 2008 at The Kimberley Grande,<br />

Kununurra, W. Australia 13-15 May 2008. <strong>Cropwatch</strong> Comments: Gowda maintains that in spite<br />

of the official figures, the current (2008) annual production of sandalwood is 3,000 - 4,000 tons<br />

and for sandalwood oil is 120-150 tons, of which 80 tons/annum of sandalwood oil is consumed<br />

by the domestic market. Gowda is employed by Karnataka Soaps & Detergents Ltd. (KSDL) once<br />

the largest producers of sandalwood oil E.I. Gowda informs us that sandalwood oil distillation<br />

commenced in 1916 in Mysore, and 2 years later the essential oil was incorporated into<br />

sandalwood soap by KSDL. Gowda lists polyethylene glycols, African sandalwood oil, castor oil<br />

and coconut oil amongst the adulterants of E.I. Sandalwod oil.<br />

Grant, W.J.R. & Buttrose, M.S. (1978) "Domestication of the quandong, Santalum<br />

acuminatum.”" Australian Plants 9, 316-318<br />

Harbaugh D. (2007) "A taxonomic revision of Australian northern sandalwood (Santalum<br />

lanceolatum, Santalaceae)." Australian Systematic Botany 20(5) 409–416. Abstract. A previously<br />

published molecular phylogenetic analysis of the sandalwood genus, Santalum L. (Santalaceae),<br />

identified that the Australian endemic northern sandalwood, S. lanceolatum R.Br., is not<br />

monophyletic and contains a distinct, yet cryptic, lineage within it as currently circumscribed. This<br />

study examines nuclear ribosomal gene sequences of additional specimens from across its<br />

geographic range, and 30 morphological characters, in order to revise the taxonomy of S.<br />

lanceolatum sensu lat. (s.l.) and the segregate species that should bear the name S. leptocladum<br />

Gand. Santalum lanceolatum sensu stricto (s.s.) is distributed in the humid to subhumid regions<br />

of northern Australia north of 20°S latitude, whereas S. leptocladum occurs in the arid and<br />

temperate regions of central and southern Australia. Putative interspecific hybrids were<br />

discovered in two localities, and may represent either natural or human-mediated hybridisation.<br />

The results of this study have major economic and conservation implications because S.<br />

lanceolatum s.s., which is known to have higher levels of fragrance compounds than S.<br />

leptocladum, has a much more restricted range than previously thought.<br />

Harbaugh D.T. (2008) "Polyploid and Hybrid Origins of Pacific Island <strong>Sandalwood</strong>s (Santalum,<br />

Santalaceae) Inferred from Low-Copy Nuclear and Flow Cytometry Data." Int. J Plant Sci.<br />

169(5), 677–685. Abstract. It has been argued that polyploids are better adapted than diploids for<br />

long-distance dispersal to and establishment on oceanic islands. To address this issue in a<br />

molecular phylogenetic framework, the extensive history of auto- and allopolyploidization in<br />

Santalum (Santalaceae), the sandalwood genus, was studied by sequencing the low-copy<br />

nuclear gene waxy and investigating the ploidy level of all 16 species. Ploidy level was estimated<br />

by measuring the C value (total amount of DNA per nucleus) using flow cytometry and calibrating<br />

it by known chromosome numbers and new root-tip chromosome counts of several taxa. Results<br />

indicate four ploidy levels in Santalum: diploid (n=10), tetraploid (n=20), hexaploid (n=30), and<br />

octoploid (n=40). The waxy phylogeny suggests that at least six independent polyploid events<br />

occurred in the history of Santalum: two allopolyploid events between distantly related species<br />

12

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