In vitro Somatic Embryogenesis in Two Major Rattan Species: Calamus merrillii and Calamus subinermis

Occurrence of somatic embryogenesis in in vitro cultures of Calamus merrillii and Calamus subinermis, two major large-caned rattan species, was scientifically demonstrated for the first time. Tissue responsiveness varied markedly according to the species and the type of primary explants used when in...

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Veröffentlicht in:In vitro cellular & developmental biology. Plant 2001-05, Vol.37 (3), p.375-381
Hauptverfasser: GOH, D. K. S, BON, M.-C, ALIOTTI, F, ESCOUTE, J, FERRIERE, N, MONTEUUIS, O
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container_issue 3
container_start_page 375
container_title In vitro cellular & developmental biology. Plant
container_volume 37
creator GOH, D. K. S
BON, M.-C
ALIOTTI, F
ESCOUTE, J
FERRIERE, N
MONTEUUIS, O
description Occurrence of somatic embryogenesis in in vitro cultures of Calamus merrillii and Calamus subinermis, two major large-caned rattan species, was scientifically demonstrated for the first time. Tissue responsiveness varied markedly according to the species and the type of primary explants used when initiated on$10.4-31.2 \mu M$picloram-enriched Murashige and Skoog callus induction media. In C. merrillii, within 6 wk after inoculation, 84% of the leaf and 90% of the zygotic embryo explants produced friable embryogenic calluses, by contrast with those formed by 74% of the root explants. In C. subinermis, callogenesis was observed only 6 mo. after inoculation in 68% of root and 48% of zygotic explants. Leaf explants did not respond at all. Only root-derived calluses developed into nodular embryogenic structures. Irrespective of these initial differences, the further steps of the somatic embryogenesis developmental pattern was similar for both species. Histological analyses established that callus formation took place in the perivascular zones, and could give rise to embryogenic isolated cells from which the proembryos were derived. Reducing the picloram concentration stimulated the maturation process resulting ultimately in the germination of somatic embryos that exhibited bipolar development, despite an apparent lack of starch and protein reserves. The somatic embryo-derived plantlets of C. merrillii, overall more prone to somatic embryogenesis than C. subinermis in the given conditions, were successfully acclimatized to outdoor conditions.
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Tissue responsiveness varied markedly according to the species and the type of primary explants used when initiated on$10.4-31.2 \mu M$picloram-enriched Murashige and Skoog callus induction media. In C. merrillii, within 6 wk after inoculation, 84% of the leaf and 90% of the zygotic embryo explants produced friable embryogenic calluses, by contrast with those formed by 74% of the root explants. In C. subinermis, callogenesis was observed only 6 mo. after inoculation in 68% of root and 48% of zygotic explants. Leaf explants did not respond at all. Only root-derived calluses developed into nodular embryogenic structures. Irrespective of these initial differences, the further steps of the somatic embryogenesis developmental pattern was similar for both species. Histological analyses established that callus formation took place in the perivascular zones, and could give rise to embryogenic isolated cells from which the proembryos were derived. Reducing the picloram concentration stimulated the maturation process resulting ultimately in the germination of somatic embryos that exhibited bipolar development, despite an apparent lack of starch and protein reserves. The somatic embryo-derived plantlets of C. merrillii, overall more prone to somatic embryogenesis than C. subinermis in the given conditions, were successfully acclimatized to outdoor conditions.</abstract><cop>Wallingford</cop><pub>CABI Publishing</pub><doi>10.1007/s11627-001-0066-2</doi><tpages>7</tpages><oa>free_for_read</oa></addata></record>
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subjects Biological and medical sciences
Biotechnology
Callus
Callus formation
Developmental Biology/Morphogenesis
Embryonic cells
Embryonic growth stage
Embryos
Eukaryotic cell cultures
Fundamental and applied biological sciences. Psychology
Histology
In vitro propagation: entire plant regeneration from tissues and cell cultures
Methods. Procedures. Technologies
Plant cells and fungal cells
Plantlets
Plants
Rattan work
Somatic embryogenesis
Somatic embryos
title In vitro Somatic Embryogenesis in Two Major Rattan Species: Calamus merrillii and Calamus subinermis
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