Access the full text.
Sign up today, get DeepDyve free for 14 days.
A. Willis, R. Groves (1991)
Temperature and Light Effects on the Germination of Seven Native Forbs.Australian Journal of Botany, 39
I. Lunt (2003)
A Protocol for Integrated Management, Monitoring, and Enhancement of Degraded Themeda triandra Grasslands based on Plantings of Indicator SpeciesRestoration Ecology, 11
(1992)
Longevity, viability and dormancy
C. Baskin, J. Baskin (1998)
Seeds: Ecology, Biogeography, and, Evolution of Dormancy and Germination
S. McIntyre, S. Lavorel, R. Tremont (1995)
Plant life-history attributes: their relationship to disturbance response in herbaceous vegetation.Journal of Ecology, 83
P. Gibson‐Roy, John Delpratt, G. Moore (2007)
Restoring Western (Basalt) Plains grassland. 2. Field emergence, establishment and recruitment following direct seedingEcological Management and Restoration, 8
D. Bell (1999)
THE PROCESS OF GERMINATION IN AUSTRALIAN SPECIESAustralian Journal of Botany, 47
Marjorie Hall, John Delpratt, P. Roy (2006)
Viability Testing of Victorian Western Plains GrassesAustralasian plant conservation : journal of the Australian network for plant conservation, 15
(1998)
Establishment of native forbs in natural and contrived grasslands
(2000)
An investigation of the germination and establishment potential of selected species from the basalt plains grassland community as indigenous seed mixtures
(1997)
The tetrazolium estimated viability test for seeds of native plants. In: National Proceedings, Forest and Conservation Nursery Associations (eds
Bell Bell (1999)
Turner Review No.1: The process of germination in Australian speciesAustralian Journal of Botany, 47
A. Cochrane, A. Kelly, K. Brown, S. Cunneen (2002)
Relationships between seed germination requirements and ecophysiological characteristics aid the recovery of threatened native plant species in Western AustraliaEcological Management and Restoration, 3
(2005)
The grassy groundcover research project. Ecological Management & Restoration 6
J. Morgan (1998)
Comparative Germination Responses of 28 Temperate Grassland SpeciesAustralian Journal of Botany, 46
A. Hill (1934)
Germination of Seeds*Nature, 133
Seed Science and Technology, 27
J. Denslow (1986)
Seed EcologyBrittonia, 38
(1994)
Germination characteristics of eight common grassland and woodland Forbs
I. Lunt (1990)
The soil seed bank of a long-grazed Themeda triandra grassland in Victoria., 102
K. Maze, T. Koen, L. Watt (1993)
Factors Influencing the Germination of Six Perennial Grasses of Central New South WalesAustralian Journal of Botany, 41
Mortlock Mortlock (2000)
Local seed for revegetation: Where will all that seed come from?Ecological Management & Restoration, 1
Native grass restoration in the Australian Capital Territory water catchment: Maximising seed germination. Australian National Botanical Gardens, online
E. Jurado, M. Westoby (1992)
Germination biology of selected central Australian plantsAustral Ecology, 17
(2006)
Seed resources for grassland restoration
W. Mortlock (2000)
Local seed for revegetationEcological Management and Restoration, 1
(1934)
The Life Form of Plants
(1992)
The role of temperature in germination ecophysiology
(2003)
A Census of the Vascular Plants of Victoria, 7th edn. National Herbarium of Victoria
P. Clarke, E. Davison, Lindsay Fulloon (2000)
Germination and dormancy of grassy woodland and forest species: effects of smoke, heat, darkness and coldAustralian Journal of Botany, 48
G. Lodge, R. Whalley (1981)
Establishment of Warm- and Cool-Season Native Perennial Grasses on the North-West Slopes of New South Wales. I. Dormancy and GerminationAustralian Journal of Botany, 29
R. Tremont, S. McIntyre (1994)
Natural grassy vegetation and native forbs in temperate Australia: structure, dynamics and life histories.Australian Journal of Botany, 42
M. Fenner, K. Thompson (2005)
The Ecology of Seeds: References
A. Steiner, M. Kruse, H. Fuchs (1999)
A re-assessment of the comparison of tetrazolium viability testing and germination testingSeed Science and Technology, 27
(1990)
Germination in eight native species of herbaceous dicot and implications for their use in revegetation
(1986)
The Establishment of Native Herbaceous Plants via Direct Seeding
(1985)
Handbook of Seed Technology for Genebanks: Principles and Methodology. International Board For Plant Genetic Resources
Z. Peishi, J. Plummer, D. Bell, D. Turner, D. Choengsaat (1999)
LOW- AND HIGH-TEMPERATURE STORAGE EFFECTS ON VIABILITY AND GERMINABILITY OF SEEDS OF THREE AUSTRALIAN ASTERACEAEAustralian Journal of Botany, 47
A. Gravina, S. Bellairs (2000)
Viability testing of Australian native species using tetrazolium
(1996)
Seed orchard systems for herbaceous indigenous wildflowers
Gibson‐Roy Gibson‐Roy (2005)
The grassy groundcover research projectEcological Management & Restoration, 6
P. Clarke, E. Davison (2004)
Emergence and survival of herbaceous seedlings in temperate grassy woodlands: Recruitment limitations and regeneration nicheAustral Ecology, 29
(2000)
Hume Freeway F2 Link: Craigieburn To Metropolitan Ring Road -Review of Route Options and Environmental Measures
I. Lunt (1995)
Seed Longevity of Six Native Forbs in a Closed Themeda triandra GrasslandAustralian Journal of Botany, 43
S. Naeem (1998)
Species Redundancy and Ecosystem ReliabilityConservation Biology, 12
A. Willis, R. Groves, J. Ash (1997)
Seed Ecology of Hypericum gramineum, an Australian ForbAustralian Journal of Botany, 45
Summary The Victorian Western (Basalt) Plains grassland is one of Australia's most threatened plant communities. Practitioners using seed for its restoration need to know whether seed can be sown fresh or whether it requires an after‐ripening period. This study assessed the viability and germination of freshly harvested wild seed from 64 grassland species indigenous to the Basalt Plains of western Victoria. The seed was collected as part of a broader experiment that examined the potential of direct‐sown complex seed mixes for the restoration of grassland communities. The germination of fresh seed at 25°C varied widely between species. Comparisons with tetrazolium viability tests for each species indicated varying levels of dormancy within the species pool. Germination separated into three broad responses at day 28. One‐third of the species failed to germinate, one‐third germinated at 1% to 50% and the remaining species germinated between 51% and 100%. Therefore, if the aim of a sowing was the rapid and synchronous establishment of most of the sown species, the use of fresh seed in restoration could be problematic. After 3 months of dry storage, eight species were re‐tested for germination. Each of the selected species had shown high viability but low initial germination. Only two species significantly increased their total germination at 25°C. The annual species, Triptilodiscus pygmaeus, increased its total germination from 6% as fresh seed to 99% after dry storage. Testing the viability and germination capacity of freshly harvested seed from a large and diverse sample of native grassland species demonstrated that many of the species were unlikely to germinate rapidly or synchronously when sown in complex seed mixes soon after harvest. This finding has implications for the scheduling and management of restoration projects that rely on the use of such seed.
Ecological Management & Restoration – Wiley
Published: Aug 1, 2007
Read and print from thousands of top scholarly journals.
Already have an account? Log in
Bookmark this article. You can see your Bookmarks on your DeepDyve Library.
To save an article, log in first, or sign up for a DeepDyve account if you don’t already have one.
Copy and paste the desired citation format or use the link below to download a file formatted for EndNote
Access the full text.
Sign up today, get DeepDyve free for 14 days.
All DeepDyve websites use cookies to improve your online experience. They were placed on your computer when you launched this website. You can change your cookie settings through your browser.