Pheromones and Semiochemicals of Laurencia intricata (Ceramiales: Rhodomelaceae)

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Semiochemicals of Laurencia intricata

Phylum:	Rhodophyta
Subphylum:	Eurhodophytina
Class:	Florideophyceae
Order:	Ceramiales
Family:	Rhodomelaceae
Subfamily:
Genus:	Laurencia
Tribe:	Laurencieae
Author:	Lamouroux

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Semiochemical(s):

Kasmiati T

2016

Chem. Sci. J.

aplysistatin

�Relative ratio of the component�

�(*) indicates that compound is active�

P �Category of the chemical signal

A -	Attractant
Al -	Allomone
K -	Kairomone
P -	Pheromone
Sy -	Synomone�

�Source of the chemical signal

F -	Female
H -	Host (could be of plant or animal origin)
L -	Lure
M -	Male
M&F -	Male and Female
S -	Solider
Q -	Queen
W -	Worker�

�Amount

pg -	Picogram
ng -	Nanogram
�g -	Microgram
mg -	Milligram
g -	Gram�

Indonesia

palisadin A

�Relative ratio of the component�

�(*) indicates that compound is active�

�Source of the chemical signal

F -	Female
H -	Host (could be of plant or animal origin)
L -	Lure
M -	Male
M&F -	Male and Female
S -	Solider
Q -	Queen
W -	Worker�

�Amount

pg -	Picogram
ng -	Nanogram
�g -	Microgram
mg -	Milligram
g -	Gram�

palisol

�Relative ratio of the component�

�(*) indicates that compound is active�

�Source of the chemical signal

F -	Female
H -	Host (could be of plant or animal origin)
L -	Lure
M -	Male
M&F -	Male and Female
S -	Solider
Q -	Queen
W -	Worker�

�Amount

pg -	Picogram
ng -	Nanogram
�g -	Microgram
mg -	Milligram
g -	Gram�

5b-hydroxypalisadin B

�Relative ratio of the component�

�(*) indicates that compound is active�

�Source of the chemical signal

F -	Female
H -	Host (could be of plant or animal origin)
L -	Lure
M -	Male
M&F -	Male and Female
S -	Solider
Q -	Queen
W -	Worker�

�Amount

pg -	Picogram
ng -	Nanogram
�g -	Microgram
mg -	Milligram
g -	Gram�

Mohammed KA

2004

J. Nat. Prod.

67:

2002

laurenditerpenol

�Relative ratio of the component�

�(*) indicates that compound is active�

P �Category of the chemical signal

A -	Attractant
Al -	Allomone
K -	Kairomone
P -	Pheromone
Sy -	Synomone�

�Source of the chemical signal

F -	Female
H -	Host (could be of plant or animal origin)
L -	Lure
M -	Male
M&F -	Male and Female
S -	Solider
Q -	Queen
W -	Worker�

�Amount

pg -	Picogram
ng -	Nanogram
�g -	Microgram
mg -	Milligram
g -	Gram�

Discovery Bay, Jamaica

Suzuki M

2002b

Phytochem.

60:

861

itomanallene A

�Relative ratio of the component�

�(*) indicates that compound is active�

P �Category of the chemical signal

A -	Attractant
Al -	Allomone
K -	Kairomone
P -	Pheromone
Sy -	Synomone�

�Source of the chemical signal

F -	Female
H -	Host (could be of plant or animal origin)
L -	Lure
M -	Male
M&F -	Male and Female
S -	Solider
Q -	Queen
W -	Worker�

�Amount

pg -	Picogram
ng -	Nanogram
�g -	Microgram
mg -	Milligram
g -	Gram�

Komesu, Itoman, Okinawa, Japan

itomanallene B

�Relative ratio of the component�

�(*) indicates that compound is active�

�Source of the chemical signal

F -	Female
H -	Host (could be of plant or animal origin)
L -	Lure
M -	Male
M&F -	Male and Female
S -	Solider
Q -	Queen
W -	Worker�

�Amount

pg -	Picogram
ng -	Nanogram
�g -	Microgram
mg -	Milligram
g -	Gram�

itomanol

�Relative ratio of the component�

�(*) indicates that compound is active�

�Source of the chemical signal

F -	Female
H -	Host (could be of plant or animal origin)
L -	Lure
M -	Male
M&F -	Male and Female
S -	Solider
Q -	Queen
W -	Worker�

�Amount

pg -	Picogram
ng -	Nanogram
�g -	Microgram
mg -	Milligram
g -	Gram�

Masuda M

2002

Phycol. Res.

50:

135

okamurallene

�Relative ratio of the component�

�(*) indicates that compound is active�

P �Category of the chemical signal

A -	Attractant
Al -	Allomone
K -	Kairomone
P -	Pheromone
Sy -	Synomone�

�Source of the chemical signal

F -	Female
H -	Host (could be of plant or animal origin)
L -	Lure
M -	Male
M&F -	Male and Female
S -	Solider
Q -	Queen
W -	Worker�

�Amount

pg -	Picogram
ng -	Nanogram
�g -	Microgram
mg -	Milligram
g -	Gram�

Chinzei, Saga, Japan

Suzuki M

1993a

Phytochem.

33:

651

intricatetraol

�Relative ratio of the component�

�(*) indicates that compound is active�

P �Category of the chemical signal

A -	Attractant
Al -	Allomone
K -	Kairomone
P -	Pheromone
Sy -	Synomone�

�Source of the chemical signal

F -	Female
H -	Host (could be of plant or animal origin)
L -	Lure
M -	Male
M&F -	Male and Female
S -	Solider
Q -	Queen
W -	Worker�

�Amount

pg -	Picogram
ng -	Nanogram
�g -	Microgram
mg -	Milligram
g -	Gram�

Bikuni, Hokkaido, Japan

Suzuki M

1991

Chem. Lett.

20:

deoxyokamurallene

�Relative ratio of the component�

�(*) indicates that compound is active�

P �Category of the chemical signal

A -	Attractant
Al -	Allomone
K -	Kairomone
P -	Pheromone
Sy -	Synomone�

�Source of the chemical signal

F -	Female
H -	Host (could be of plant or animal origin)
L -	Lure
M -	Male
M&F -	Male and Female
S -	Solider
Q -	Queen
W -	Worker�

�Amount

pg -	Picogram
ng -	Nanogram
�g -	Microgram
mg -	Milligram
g -	Gram�

Bikuni, Hokkaido, Japan

isookamurallene

�Relative ratio of the component�

�(*) indicates that compound is active�

�Source of the chemical signal

F -	Female
H -	Host (could be of plant or animal origin)
L -	Lure
M -	Male
M&F -	Male and Female
S -	Solider
Q -	Queen
W -	Worker�

�Amount

pg -	Picogram
ng -	Nanogram
�g -	Microgram
mg -	Milligram
g -	Gram�

okamurallene

�Relative ratio of the component�

�(*) indicates that compound is active�

�Source of the chemical signal

F -	Female
H -	Host (could be of plant or animal origin)
L -	Lure
M -	Male
M&F -	Male and Female
S -	Solider
Q -	Queen
W -	Worker�

�Amount

pg -	Picogram
ng -	Nanogram
�g -	Microgram
mg -	Milligram
g -	Gram�

Cardellina JH

1982

Can. J. Chem.

60:

2675

bermudenynol

�Relative ratio of the component�

�(*) indicates that compound is active�

P �Category of the chemical signal

A -	Attractant
Al -	Allomone
K -	Kairomone
P -	Pheromone
Sy -	Synomone�

�Source of the chemical signal

F -	Female
H -	Host (could be of plant or animal origin)
L -	Lure
M -	Male
M&F -	Male and Female
S -	Solider
Q -	Queen
W -	Worker�

�Amount

pg -	Picogram
ng -	Nanogram
�g -	Microgram
mg -	Milligram
g -	Gram�

Castle Harbour, Bermuda

bermudenynol acetate

�Relative ratio of the component�

�(*) indicates that compound is active�

�Source of the chemical signal

F -	Female
H -	Host (could be of plant or animal origin)
L -	Lure
M -	Male
M&F -	Male and Female
S -	Solider
Q -	Queen
W -	Worker�

�Amount

pg -	Picogram
ng -	Nanogram
�g -	Microgram
mg -	Milligram
g -	Gram�

Horsley SB

1981

J. Org. Chem.

46:

5033

bicyclolaurencenol

�Relative ratio of the component�

�(*) indicates that compound is active�

P �Category of the chemical signal

A -	Attractant
Al -	Allomone
K -	Kairomone
P -	Pheromone
Sy -	Synomone�

�Source of the chemical signal

F -	Female
H -	Host (could be of plant or animal origin)
L -	Lure
M -	Male
M&F -	Male and Female
S -	Solider
Q -	Queen
W -	Worker�

�Amount

pg -	Picogram
ng -	Nanogram
�g -	Microgram
mg -	Milligram
g -	Gram�

Castle Harbour, Bermuda

White RH

1978

Phytochem.

17:

939

intricenyne

�Relative ratio of the component�

�(*) indicates that compound is active�

P �Category of the chemical signal

A -	Attractant
Al -	Allomone
K -	Kairomone
P -	Pheromone
Sy -	Synomone�

�Source of the chemical signal

F -	Female
H -	Host (could be of plant or animal origin)
L -	Lure
M -	Male
M&F -	Male and Female
S -	Solider
Q -	Queen
W -	Worker�

�Amount

pg -	Picogram
ng -	Nanogram
�g -	Microgram
mg -	Milligram
g -	Gram�

Key Largo, Florida, USA

White RH

1975

Phys. Chem. Sci. Res. Rep.

633

cyclodebromoacetoxyintricatol

�Relative ratio of the component�

�(*) indicates that compound is active�

P �Category of the chemical signal

A -	Attractant
Al -	Allomone
K -	Kairomone
P -	Pheromone
Sy -	Synomone�

�Source of the chemical signal

F -	Female
H -	Host (could be of plant or animal origin)
L -	Lure
M -	Male
M&F -	Male and Female
S -	Solider
Q -	Queen
W -	Worker�

�Amount

pg -	Picogram
ng -	Nanogram
�g -	Microgram
mg -	Milligram
g -	Gram�

McMillan JA

1974

Tetrahedron Lett.

15:

2039

acetoxyintrincatol

�Relative ratio of the component�

�(*) indicates that compound is active�

P �Category of the chemical signal

A -	Attractant
Al -	Allomone
K -	Kairomone
P -	Pheromone
Sy -	Synomone�

�Source of the chemical signal

F -	Female
H -	Host (could be of plant or animal origin)
L -	Lure
M -	Male
M&F -	Male and Female
S -	Solider
Q -	Queen
W -	Worker�

�Amount

pg -	Picogram
ng -	Nanogram
�g -	Microgram
mg -	Milligram
g -	Gram�

Key Cargo, Florida, USA

Reference(s):

Kasmiati, T., Yoshioka, Y., Okamoto, T., and Ojika, M. 2016. Anti-phytopathogenic and anti-cytotoxic brominated sesquiterpenes from the Indonesian red seaweed Laurencia intricata. Chem. Sci. J. 7:3.

Mohammed, K.A., Hossain, C.F., Zhang, L., Bruick, R.K., Zhou, Y.D., and Nagle, D.G. 2004. Laurenditerpenol, a new diterpene from the tropical marine alga Laurencia intricata that potently inhibits HIF-1 mediated hypoxic signaling in breast tumor cells. J. Nat. Prod. 67:2002-2007.

Suzuki, M., Takahashi, Y., Mitome, Y., Itoh, T., Abe, T., and Masuda, M. 2002b. Brominated metabolites from an Okinawan Laurencia intricata. Phytochem. 60:861-867.

Masuda, M., Kawaguchi, S., Abe, T., Kawamoto, T., and Suzuki, M. 2002. Additional analysis of chemical diversity of the red algal genus Laurencia (Rhodomelaceae) from Japan. Phycol. Res. 50:135-144.

Suzuki, M., Matsuo, Y., Takeda, S., and Suzuki, T. 1993a. Intricatetraol, a halogenated triterpene alcohol from the red alga Laurencia intricata. Phytochem. 33:651-656.

Suzuki, M., Kondo, H., and Tanaka, I. 1991. The absolute stereochemistry of okamurallene and its congeners, halogenated C15 nonterpenoids from the red alga Laurencia intricata. Chem. Lett. 20:33-34.

Cardellina, J.H., II., Horsley, S.B., Clardy, J., Leftow, S.R., and Meinwald, J. 1982. Secondary metabolites from the red alga Laurencia intricata: halogenated enynes. Can. J. Chem. 60:2675-2677.

Horsley, S.B., Cardellina, J.H., and Meinwald, J. 1981. Secondary metabolites from a red alga (Laurencia intricata): sesquiterpene alcohols. J. Org. Chem. 46:5033-5035.

White, R.H., and Hager, L.P. 1978. Intricenyne and related halogenated compounds from Laurencia intricata. Phytochem. 17:939-941.

White, R.H., and Hager, L.P. 1975. A biogenetic sequence of halogenated sesquiterpenes from Laurencia intricata. Phys. Chem. Sci. Res. Rep. 1:633.

McMillan, J.A., Paul, I.C., White, R.H., and Hager, L.P. 1974. Molecular structure of acetoxyintricatol: a new bromo compound from Laurencia intricata. Tetrahedron Lett. 15:2039-2042.

Citation: El-Sayed AM 2024. The Pherobase: Database of Pheromones and Semiochemicals. <http://www.pherobase.com>.
Ⓒ 2003-2024 The Pherobase - Extensive Database of Pheromones and Semiochemicals. Ashraf M. El-Sayed.
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