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Mangroves and associated communities of Moreton Bay

The Moreton Bay region has approximately 20,000 hectares of intertidal communities, mostly mangroves and saltmarsh.

A program to monitor the mangroves and associated communities within Moreton Bay was established in 2011. This program includes two phases: the first being an extent change in mangrove and associated communities’ assessment detailed in Volume 1[2] (see table 1). The second phase, being the establishment of a network of permanent monitoring plots in Moreton Bay as a basis to monitor on-ground, structural and floristic changes within the mangrove, saltmarsh and claypan communities detailed in Volume 2[3].

Click on image to view the Moreton Bay mangrove and associated communities extent using interactive map viewer

Quick facts

7
of the recognised woody species of mangrove occur in Moreton Bay
3,400km2
of open and sheltered waterways and islands can be found in Moreton Bay.
Brochure
for print available:
Mangrove and associated communities of Moreton Bay, Queensland, Australia: change in extent 1955-1997-2012-2016-2021.

Change in extent between 1955 and 2021 of <em>Avicennia marina</em> subsp. <em>australasica</em> closed-forest, open-forest, woodland, low open-forest, low woodland, low open-woodland (1B(i)) Moreton Bay. Map by Queensland Government Moreton Bay (defined as the area from Caloundra to Southport)

The information provided below updates and replaces the previous report[1]. The 2024 report Mangroves and associated communities of Moreton Bay, Queensland, Australia: change in extent 1955-1997-2012-2016-2021[2] extends the period to include 1955-1997-2012-2021.

Intertidal ecosystems, including mangrove and saltmarsh communities, provide significant social, cultural, economic and ecological values.

While these communities are currently protected under legislation, they are vulnerable to impacts from coastal development as well as from changes to natural processes such as siltation, nutrient runoff and climate.

Mangrove communities have increased in area by 1,519 ha (10.9%) between 1955 and 2021 whereas saltmarsh communities (including samphire, marine couch and claypan) have lost 6,670 ha (70.4%) of their 1955 extent. Casuarina glauca communities have lost 425 ha (20.5%) of their area during the same period. The spatial extent of each mangrove and associated community are described for the period from 1955 to 2021.

The mangrove and associated communities within Moreton Bay area, Southeast Queensland, have been mapped to the same consistent standards and protocols twice over the last forty years[9][4]. These studies were based on 1974 aerial photographs and 1997 digital ortho photographs respectively. The same mapping classification and scale was applied in the above two studies providing a consistent baseline for monitoring the mangrove and associated communities of Moreton Bay. The floristic and structural classification used in these studies provides an important baseline to assess and quantify changes at a species level within mangrove communities as well as their distribution across Moreton Bay.

This study documents when and where these changes have occurred. To determine changes in the inter-tidal mangrove and associated communities a program of monitoring of these dynamic communities over time has been established. This program assesses both the health and the changes within the mangrove and associated communities within Moreton Bay. In addition to a snapshot in time, longer temporal changes need also to be monitored so that any changes can be understood and put into context. This report documents the change in extent of each mangrove and associated community from 1955 to 2021 for Moreton Bay. Supported by the 1955, 1974[9], 1997[4], and the more recent 2012, 2016 and 2021 mapping, the extent of the Moreton Bay mangrove and associated communities over this time period have been established.

The Dowling and Stephens[4] coastal wetland vegetation classification established a fine scale (some polygon areas are below 1000 square metres) suitable to 1:10 000 scale mapping detailing the structural and floristic variations that cannot be depicted at the 1:25 000 to 1:50 000 scale mapping currently presented in the Regional Ecosystems mapping of Queensland. These units equate to vegetation communities nesting within the existing regional ecosystems. The classification has been extended to incorporate condition and dieback of the different communities. The coastal wetland vegetation mapping delineates the wetland vegetation community extent for 1955, 1997, 2012, 2016 and 2021 using the relevant imagery and photo-pattern of the specific year to capture both the natural dynamics of these communities as well as the impacts of anthropogenic disturbance. This method has many similarities to the Regional Ecosystem mapping methodology[8], but differs in that pre-clearing vegetation communities are not mapped and therefore the classification of vegetation communities from the 1950's to 2021 doesn't always relate to the pre-clearing state. The Regional Ecosystem mapping methodology[8], maps and classifies the pre-clearing regional ecosystem extent, the 1997 remnant extent, and the remnant extent every two years thereafter through to 2021 remnant extent.

Table 1. Mangrove, Saltmarsh, Casuarina glauca and Associated Communities extent over time

Community Type Description 1955 (ha) 1997 (ha) 2012 (ha) 2016 (ha) 2020 (ha) 2021 (ha)
Mangrove communities

1A(i)

RE: 12.1.3a

Aegiceras corniculatum closed-scrub, open-scrub, low closed-scrub, low open-scrub

602

533

527

527

527

526

1B(i)

RE: 12.1.3b

Avicennia marina subsp. australasica closed-forest, open-forest, woodland, low closed-forest, low open-forest, low woodland, low open-woodland

3640

4713

5007

5008

5046

5043

1B(i)D

RE: 12.1.3g

Dieback impacted: Avicennia marina subsp. australasica closed-forest, open-forest, woodland, low closed-forest, low open-forest, low woodland, low open-woodland

0

1.3

13

4

9.2

10.8

1B(ii)a

RE: 12.1.3b

Avicennia marina subsp. australasica closed-scrub, open-scrub

4127

3868

4008

3944

3926

3907

1B(ii)aD

RE: 12.1.3g

Dieback impacted: Avicennia marina subsp. australasica closed-scrub, open-scrub that are dying. For example, due to waterlogging 12.4 71.4 20.9 22.8 41 78.4

1B(ii)b

RE: 12.1.3b

Avicennia marina subsp. australasica tall shrubland, tall open-shrubland

1021

1488

1667

1707

1723

1711

1B(ii)bD

RE: 12.1.3g

Dieback impacted: Avicennia marina subsp. australasica tall shrubland, tall open-shrubland that are dying

0

0

0.5

3.1

3.4

3.8

1B(iii)

RE: 12.1.3b

Avicennia marina subsp. Australasica low open-scrub, low shrubland, low open-shrubland

1151

983

900

976

1098

1095

1B(iii)D

RE: 12.1.3g

Dieback impacted: Avicennia marina subsp. Australasica low open-scrub, low shrubland, low open-shrubland that are dying

0

0

0

0.7

1.0

4.8

1C(i)

RE: 12.1.3c

Bruguiera gymnorhiza closed-forest, open-forest, low closed-forest, low open-forest

9

9

9

9

9

9

1C(i)D

RE: 12.1.3g

Dieback impacted: Bruguiera gymnorhiza closed-forest, open-forest, low closed-forest, low open-forest that are dying

0

0

0.9

0

0

0

1C(ii)

RE: 12.1.3c

Bruguiera gymnorhiza - Casuarina glauca closed-forest, open-forest

3

3

3

3

3

3

1D(i)

RE: 12.1.3d

Ceriops australis closed-scrub, open-scrub, tall shrubland, tall open-shrubland

896

894

801

797

793

793

1D(i)D

RE: 12.1.3g

Dieback impacted: Ceriops australis closed-scrub, open-scrub, tall shrubland, tall open-shrubland that are dying

0

0

10.6

12.9

12.9

12.9

1D(ii)

RE: 12.1.3d

Ceriops australis low open-scrub, low shrubland, low open-shrubland

477

362

360

347

347

348

1D(ii)D

RE: 12.1.3g

Dieback impacted: Ceriops australis low open-scrub, low shrubland, low open-shrubland that are dying

0

0

15.7

8.3

8

7.1

1E(i)

RE: 12.1.3e

Rhizophora stylosa closed-scrub, open-scrub, tall shrubland, tall open-shrubland

835

800

833

820

831

831

1E(i)D

RE: 12.1.3g

Dieback impacted: Rhizophora stylosa closed-scrub, open-scrub, tall shrubland, tall open-shrubland that are dying

0

0

1.1

12.4

0.4

0.4

1F(i)

RE: 12.1.3a/12.1.3e/12.1.3c

Aegiceras corniculatum - Avicennia marina subsp. australasica - Rhizophora stylosa - Bruguiera gymnorhiza closed-scrub, open-scrub, low closed-scrub, low open-scrub

184

149

150

150

151 151

1F(ii)

RE: 12.1.3b/12.1.3a

Avicennia marina subsp. australasica - Aegiceras corniculatum closed-scrub, open-scrub

1005

1022

1050

1048

1052

1052

1F(ii)D

RE: 12.1.3g

Dieback impacted: Avicennia marina subsp. australasica - Aegiceras corniculatum closed-scrub, open-scrub that are dying

0

0

2

2.1

1.2

1.2

Total Mangrove (Live)

 

13950

14824

15315

15336

15506

15469

Saltmarsh communities (including samphire, marine couch and claypan)

2

RE: 12.1.2

Claypan of marine clay. Usually devoid of vegetation

2990

1632

1437

1349

1262

1258

3A(i)

RE: 12.1.2

Salicornia spp. - Suaeda australis - Suaeda arbusculoides succulent shrubland to open-succulent shrubland

1406

579

423

408

375

374

4A(i)

RE: 12.1.2

Sporobolus virginicus closed grassland, grassland

5004

1717

1249

1163

1085

1084

4B(i)

RE: 12.3.8

Paspalum vaginatum closed grassland, grassland

4

3

3

2

2

2

4C(i)

RE: 12.3.8

Phragmites australis closed grassland, grassland

66

112

93

94

82

82

4D(i)

RE: 12.1.2

Triglochin striatum - Sporobolus virginicus closed grassland, grassland

0

22

0

0

0

0

Total saltmarsh

 

9470

4065

3205

3016

2806

2800

Casuarina glauca communities

5A(i)a

RE: 12.1.1

Casuarina glauca open-forest, woodland

469

740

837

852

837

837

5A(i)aD

Dieback impacted: Casuarina glauca open-forest, woodland that are dying

0

0.4

12.8

19.5

52.7

52.7

5A(i)b

RE: 12.1.1

Casuarina glauca open-woodland

89

36

72

67

63

63

5A(i)bD Dieback impacted: Casuarina glauca open-woodland that are dying 0 0 0 1.3 5 4.9

5A(ii)a

RE: 12.1.1

Casuarina glauca low open-forest, low woodland

808

512

380

397

406

407

5A(ii)aD

Dieback impacted: Casuarina glauca low open-forest, low woodland that are dying

0

5.7

2.4

2.5

14.1

14.1

5A(ii)b

RE: 12.1.1

Casuarina glauca low open-woodland

475

128

108

88

87

87

5A(ii)bD

Dieback impacted: Casuarina glauca low open-woodland that are dying

0

1.8

7.3

10.1

8.5

8.5

5B(i)

RE: 12.1.1/12.3.5

Casuarina glauca - Melaleuca quinquenervia open-forest, woodland, low open-forest

157

202

180

184

186

185

5B(ii)

RE: 12.1.1/12.3.5

Casuarina glauca - Melaleuca quinquenervia open-forest, low open-forest (dying)

56

41

34

34

34

34

5C(ii)

RE: 12.1.1/12.1.3b

Casuarina glauca - Avicennia marina subsp. australasica  low open-forest

9

7

6

5

5

5

5C(iii)

RE: 12.1.1/12.1.3b/12.1.3a

Casuarina glauca - Avicennia marina subsp. australasica - Aegiceras corniculatum open-forest, woodland

8

13

26

28

28

28

6A(i)#

RE: 12.2.15

Juncus kraussii- Baloskion pallens closed-sedgeland, sedgeland

 

 

 

 

   

Total Casuarina glauca (Live)

 

2071

1679

1643

1655

1646

1646

Other
9# Other non-wetland vegetation communities or rural/urban areas, cleared, plantation            
Water

10A(i)b Free standing water – saline and brackish

RE: 12.1.3f

  190 229 247 275 252 253

Total

 

25681

20797

20410

20282

20210

20168

# Not monitored or not in the study area

Changes in extent of mangrove communities from 1955 to 2021

Mangroves in Moreton Bay Photo by Queensland Herbarium
  • 10,909 ha were stable
  • 3,041 ha were lost, either changing to another community type or being lost due to anthropogenic causes
    • 1,065 ha were lost by changing to another community type
    • 1,976 ha were lost due to anthropogenic causes
  • 4,560 ha were gained by encroachment into other communities or onto newly established sediments
    • 3,795 ha were gained by encroachment into other communities
    • 765 ha were gained by encroachment into newly established sediments
  • Some mangrove community types have increased where others have decreased
  • 1,519 ha overall net gain of mangroves, and
  • the net rate of mangrove encroachment into saltmarsh and Casuarina glauca communities was 50% lower in the later period of 1997-2012 in comparison to the earlier period of 1955-1997.

Changes in extent of mangrove communities from 2016 to 2021

  • During the period 2016-2021 there was net gain of 164 ha of mangrove communities in Moreton Bay. That is 40 ha loss of mangrove communities (32%) losses due to anthropogenic causes (e.g. roads) mainly in Brisbane City government area (75%) predominantly due to road works. Mangrove losses due to change to other community type such as: free standing water – saline and brackish community 47%, saltmarsh communities 21% and Casuarina glauca communities 0.2%.
  • During this period 204 ha of mangrove communities were gained by encroachment into: saltmarsh communities 93% gain; free standing water – saline and brackish community 22% gain; Casuarina glauca communities 4% gain; and other 3% gain. These mangrove communities gained by encroachment into other communities occurred in the Moreton Bay Regional 16%, Brisbane City 24%, Gold Coast 16%, Redland 12% and Sunshine Coast 5%.

Changes in extent of saltmarsh communities including samphire, marine couch and claypan from 1955 to 2021

Claypan, Photo by Queensland Herbarium
  • Moreton Bay saltmarsh communities are part of the subtropical and temperate coastal saltmarsh ecological communities that are listed as vulnerable under the Commonwealth EPBC Act 1999
  • 2,345 ha were stable
  • 7,223 ha either changed to another community type or were lost due to anthropogenic causes
  • 553 ha were gained by dieback of other community types or in newly formed sediment areas
  • There was a large decrease across all the saltmarsh community types
  • There was a 6,670 ha overall net loss, and
  • Saltmarsh community invasion by mangrove and Casuarina glauca communities was 3,159 ha in the 1955–1997 period in comparison to 824, 163 and 226 ha in the periods 1997–2012, 2012–2016 and 2016-2021 respectively.

Changes in extent of saltmarsh communities including samphire, marine couch and claypan from 2016 to 2021

  • During the period 2016-2021 there was 226 ha loss and 28 ha gain leading to a net loss of 198 ha of Saltmarsh communities in Moreton Bay. That is 83.2% loss due to mangrove communities’ encroachment; 8.3% by encroachment of Casuarina glauca communities; 7.2% as a result of ponding and changing to free standing water – saline and brackish community and 2% losses due to anthropogenic causes mainly roads. Loss occurred in the Moreton Bay Regional 40%,
    Gold Coast 28% Brisbane City 20%, Redland 8%, and Sunshine Coast 3% local government areas.
  • 28 ha of saltmarsh community gain were as a result of encroachment: free standing water – saline and brackish community 33% gain, Casuarina glauca communities 30.4% gain, mangrove communities 29.2% gain, and other 7.1% gain.

Changes in extent of Casuarina glauca communities from 1955 to 2021

Casuarina glauca open-woodland, Photo by Queensland Herbarium
  • Moreton Bay Casuarina glauca communities are part of the Forest of New South Wales and South East Queensland ecological communities that are listed as Endangered under the Commonwealth EPBC Act 1999
  • 963 ha were stable
  • 1,106 ha either changed to another community type or were lost due to anthropogenic causes
  • 681 ha were gained by encroachment
  • some Casuarina glauca communities have decreased in area where others increased
  • 425 ha overall net loss
  • Casuarina glauca communities’ encroachment into mangrove and saltmarsh communities was 459 ha in the 1955-1997 period in comparison to 179, 33 and 25 ha in the periods 1997–2012, 2012–2016 and 2016 respectively.

Changes in extent of Casuarina glauca communities from 2016 to 2021

  • During the period 2016-2021 there was 15.2 ha losses and 49 ha gain leading to a net gain of 34 ha, of Casuarina glauca communities in Moreton Bay. That is, loss of Casuarina glauca communities due to; 56.1% loss, and encroachment of saltmarsh communities, 14.9% loss, and encroachment of other grasses and Melaleuca spp., 14.4% loss, and mangrove communities’ encroachment, 10.1% loss due to anthropogenic causes, and 4.6% loss, and ponding and free standing water – saline and brackish community. The loss of Casuarina glauca communities have occurred mainly in Gold Coast (63%), Moreton Bay (24%) and Brisbane (9%) local government areas.
  • 49 ha gain by encroachment: other grasses and Melaleuca spp. communities 58% gain, saltmarsh 41% gain, and mangrove communities and free standing water – saline and brackish community 1% gain. The gain Casuarina glaucacommunities have occurred mainly in Gold Coast (68%), Moreton Bay (21%) and Sunshine coast (4%) local government areas.

Moreton Bay Mangrove Monitoring Program and Report Cards

A program to monitor the mangroves and associated communities within Moreton Bay was established in 2011. This program includes two phases: the first being an extent change in mangrove and associated communities’ assessment detailed in Volume 1[2]. The second phase, being the establishment of a network of permanent monitoring plots in Moreton Bay as a basis to monitor on-ground, structural and floristic changes within the mangrove, saltmarsh and claypan communities detailed in Volume 2[3].

This program of mangrove and associated communities’ structure and floristics assessment is unique in providing a temporal long-term on-ground site-based monitoring of both the health and the changes within mangrove and associated communities across Moreton Bay, including a full floristic and structural assessment of these communities. Mangrove and their associated communities are essential for both fisheries production as well as for coastal and marine health. While these communities are currently protected from development and destruction under the Fisheries Act 1994, they are vulnerable to effects from adjacent onshore developments (anthropogenic) as well as from natural causes such as siltation, runoff and climate change induced effects (such as more severe droughts and sea level rise). The evaluation of blue carbon has lifted the profile of mangrove and other coastal and intertidal zone communities for their capacity to store large amounts of carbon and to mitigate increasing levels of carbon in the atmosphere[6][7].

The network of permanent monitoring plots that has been set up as part of this program, has been revisited every three years. There are 24 plots within the Bay, which were first surveyed in 1997 by Dowling and Stephens[5] as part of the Southeast Queensland Coastal Plan. These include 12 plots on the mainland and 12 plots on islands within Moreton Bay. The plots are distributed across Moreton Bay from Tripcony Bight in the north to Coomera Island in the south. Following the first period of monitoring from 2011 to 2013, it was concluded that the communities that are most endangered are the saltmarsh communities[1]. This led to the establishment of seven additional permanent monitoring plots in saltmarsh communities across Moreton Bay. This Report[3], documents change in the structural and floristic composition of the mangroves and associated communities across the Bay at two levels. The assessment is first done at the vegetation communities level, followed by an assessment at the site-specific level, producing individual report cards for each of the 31 Queensland Biodiversity Ecological Information System (QBEIS) monitoring plots (previously known as CORVEG plots). A map showing site locations across the bay is presented below.

 

Study area showing the network of permanent monitoring plots - numbers refer to number of sites at each location Image by Queensland Herbarium

 

Report cards

The report cards provide details of:

Sampling method - further details available in Neldner <i>et al.</i> 2022 Image by Queensland Herbarium[8]

  • Full floristics details by strata as recorded for QBEIS plots (50 m x 10 m) (for further details see Neldner et al. 2023[8]).
  • Crown Cover, recorded using the line intercept method.
  • Projected Foliage Cover (PFC) recorded using a densitometer.
  • Measurement of tree heights and Diameter at Breast Height (DBH) to calculate biomass using multi-stem allometric equations.
  • Measurement of pneumatophore height, girth and density within the QBEIS plots.
  • Measurement of the recruitment of canopy species as well as other shrub and ground species.
  • Soil surface elevations were measured along the centre line of the plots, and in some cases beyond the boundary of the plot, at 10 m intervals.
  • Eight photographs, taken at 0⁰, 45⁰, 90⁰, 135⁰, 180⁰, 225⁰, 270⁰ and 315⁰ to the alignment of the plot, were taken at 0 m and at 25 m interval along the centre line of the plot.

This study has established an individual report card for each site while assessing the condition of each site against similar sites with the same vegetation classification and the same structural formation. The monitoring in Avicennia marina subsp. australasica communities has highlighted mainly healthy communities with only a few sites of poor condition. More, of concern sites, were found in the Ceriops australis, marine couch and saltmarsh communities than elsewhere.

All the saltmarsh and marine couch sites showed evidence of invasion by Avicennia marina subsp. australasica and/or Casuarina glauca in either the emergent layer, tree layer, shrub layer or the ground layer. The density and the occurrence of the Avicennia marina subsp. australasica and Casuarina glauca has shown to be increasing over time. The shrub layers, in all but one site, show change in species composition over time. All sites have shown species composition changes over time in the ground layer. The ground layer species mainly have combinations of Suaeda arbusculoides, Suaeda australis, Salicornia quinqueflora subsp. quinqueflora, Sporobolus virginicus, Sesuvium portulacastrum, Tecticornia halocnemoides and Avicennia marina subsp. australasica. During the wetter years a larger diversity of ground species was recorded including the occurrence of Juncus kraussii and Fimbristylis polytrichoides in some of the sites and the rare occurrence of Schinus terebinthifolius, Myoporum debile and Aegiceras corniculatum at site Lota 3. In some of saltmarsh and marine couch sites, the soil levels have remained unchanged whereas in other sites the soil levels have shown considerable erosion over time.

Further information is available in the Volume 2 report[3].

Report cards are available below, ordered by vegetation community type:

A1. Avicennia marina subsp. australasica communities 1B(i) report card

A2. Avicennia marina subsp. australasica communities 1B(ii)a report card

A3. Avicennia marina subsp. australasica communities 1B(ii)b report card

A4. Avicennia marina subsp. australasica communities 1B(iii) report card

B1. Ceriops australis communities 1D(i) report card

B2. Ceriops australis communities 1D(ii) report card

C1. Claypan, communities 2 report card

D1.Saltmarsh and Marine Couch, communities 3A(i) and 4A(i) report card

Additional information


References

  1. ^ a b Accad, A, Li, J, Dowling, R & Guymer, G (2016), Mangrove and associated communities of Moreton Bay, Queensland, Australia: change in extent 1955-1997-2012. [online], Queensland Herbarium, Brisbane. Available at: https://www.publications.qld.gov.au/dataset/mangrove-and-associated-communities-of-moreton-bay.
  2. ^ a b c Accad, A, Li, J, Dowling, R & Kelley, J (2024a), Mangrove and associated communities of Moreton Bay, Queensland, Australia: change in extent and floristic assessment 1955-1997-2012-2016-2021. [online], Queensland Herbarium and Biodiversity Science, Department of Environment, Science and Innovation. Available at: https://qldgov.softlinkhosting.com.au/liberty/opac/search.do?mode=BASIC&modeRadio=TITLE&=AUTHOR&=TITLE&queryTerm=Intertidal%20communities%20of%20Moreton%20Bay%2C%20Queensland%2C%20Australia%20%3A%20Volume%201&=BASIC&operator=AND&timeScale=ANY_TIME&activeMenuItem=false.
  3. ^ a b c d Accad, A, Dowling, R, Li, J & Kelley, J (2024b), Mangrove and associated communities of Moreton Bay, Queensland, Australia: Volume 2: Mangrove and associated communities’ structure and floristics assessment 2011-2023. [online], Queensland Herbarium and Biodiversity Science, Department of Environment, Science and Innovation. Available at: https://qldgov.softlinkhosting.com.au/liberty/opac/search.do?mode=BASIC&modeRadio=TITLE&=AUTHOR&=TITLE&queryTerm=Intertidal%20communities%20of%20Moreton%20Bay%2C%20Queensland%2C%20Australia%20%3A%20Volume%202&=BASIC&operator=AND&timeScale=ANY_TIME&activeMenuItem=false.
  4. ^ a b c Dowling, R & Stephens, K (2001), Coastal Wetlands of South East Queensland. mapping and Survey, February 2001., vol. 1, Queensland Government Environmental Protection Agency, Brisbane.
  5. ^ Dowling, RM & Stephens, KM (2002), 'Changes in the area of mangroves and the health of coastal wetlands in south-east Queensland', Landscape Health of Queensland, pp. 87-97, Royal Society of Qld, eds. A J Franks, J Playford & A Shapcott.
  6. ^ Kelleway, JJ, Serrano, O, Baldock, JA, Burgess, R, Cannard, T, Lavery, PS, Lovelock, CE, Macreadie, PI, Masqué, P, Newnham, M, Saintilan, N & Steven, ADL (July 2020), 'A national approach to greenhouse gas abatement through blue carbon management', Global Environmental Change. [online], vol. 63, p. 102083. Available at: https://linkinghub.elsevier.com/retrieve/pii/S0959378019304017 [Accessed 10 November 2020].
  7. ^ Lovelock, CE, Adame, MF, Bradley, J, Dittmann, S, Hagger, V, Hickey, SM, Hutley, L, Jones, A, Kelleway, JJ, Lavery, P, Macreadie, PI, Maher, DT, McGinley, S, McGlashan, A, Perry, S, Mosley, L, Rogers, K & Sippo, JZ (26 May 2022), 'An Australian blue carbon method to estimate climate change mitigation benefits of coastal wetland restoration', Restoration Ecology. [online] Available at: https://onlinelibrary.wiley.com/doi/10.1111/rec.13739 [Accessed 16 June 2022].
  8. ^ a b c d Neldner, VJ, Wilson, BA, Dillewaard, HA, Ryan, TS, Butler, DW, McDonald, WJF, Richter, D, Addicott, EP & Appelman, CN (2023), Methodology for surveying and mapping regional ecosystems and vegetation communities in Queensland - Version 7.0. [online], p. 143, Queensland Herbarium, Department of Environment and Science. Available at: https://www.qld.gov.au/__data/assets/pdf_file/0033/459186/methodology-mapping-surveying-v7.pdf.
  9. ^ a b R.M. Dowling (1986), The Mangrove Vegetation of Moreton Bay, vol. 6, Queensland Department of Primary Industries, Brisbane.

Last updated: 20 June 2024

This page should be cited as:

Department of Environment, Science and Innovation, Queensland (2024) Mangroves and associated communities of Moreton Bay, WetlandInfo website, accessed 25 June 2024. Available at: https://wetlandinfo.des.qld.gov.au/wetlands/ecology/components/biota/flora/flora-structural/mangroves/mangrove-moreton.html

Queensland Government
WetlandInfo   —   Department of Environment, Science and Innovation