Recognising the importance of shellfish to First Nations peoples, Indigenous and Traditional Ecological Knowledge in aquaculture and coastal management in Australia
Mitchell C. Gibbs A , Laura M. Parker B , Elliot Scanes C and Pauline M. Ross D *A
B
C
D
Abstract
Throughout the world, there is a growing recognition of the importance and need for incorporation of Indigenous and Traditional Ecological Knowledge (TEK) of First Nations peoples in shellfish aquaculture and coastal management. In Australia, however, the incorporation of First Nations TEK of shellfish aquaculture and coastal management is in its infancy. This is a concern because the combined perspectives of Indigenous knowledge and Western Science are needed to restore culturally and economically significant shellfish and create successful, respectful and sustainable outcomes. The aims of this perspective piece are first to describe the evidence for the importance of shellfish aquaculture and management to First Nations peoples of Australia and second to highlight the opportunity to incorporate First Nations TEK in shellfish restoration and aquaculture in Australia. Already, models of successful incorporation of TEK of shellfish exist in Aotearoa, which provide an example for incorporation of TEK of shellfish in Australia. First Nations peoples of Australia hold a deep cultural connection with shellfish and Sea Country that has persisted for millennia. If we are to appropriately sustain and restore shellfish and manage our coasts, we must incorporate First Nations TEK and views, and respect and protect their ongoing connections to Sea Country.
Keywords: biodiversity, climate change, ecology, estuarine, Indigenous, Indigenous ecology, Indigenous restoration, invertebrates, mangroves, marine, molluscs, ocean acidification, restoration, salinity, salt marshes, wetlands.
Introduction
First Nations peoples possess important and valuable Indigenous and Traditional Ecological Knowledge (TEK) on shellfish aquaculture and coastal management (Reeder-Myers et al. 2022). It is now increasingly recognised that Indigenous knowledge and TEK combined with Western Science may provide the best solution to sustain, improve and restore shellfish populations, and importantly, give respect to First Nations custodianship of Sea Country (Kutay et al. 2021). Since Australia’s colonisation, the management of Sea Country resources have predominantly been based on Western Science and an exploitative mindset (Gibbs et al. 2023; Stelling-Wood et al. 2023). Only in the last decade has the essential need to incorporate Indigenous knowledge and TEK with Western Science been gaining momentum (Bartlett et al. 2012).
The aims of this perspectives piece are to firstly describe the importance of shellfish to First Nations peoples of Australia and the value of TEK in shellfish aquaculture and management, and secondly to highlight the opportunity to incorporate First Nations TEK in shellfish restoration and aquaculture in Australia. We also provide examples whereby incorporating First Nations TEK of shellfish and coastal management in Aotearoa (New Zealand) has led to more sustainable outcomes. Recognising TEK of shellfish is important given the challenges for shellfish at a time where less than 1% of shellfish reefs remain nationally and globally and there are multiple anthropogenic impacts on coastal management (Beck et al. 2011; Clark and Johnston 2017; Bolotov et al. 2018). If we are to improve our aquatic ecosystems, we need to restore iconic shellfish reefs that are in crisis and understand and respect traditional Sea Country management strategies of First Nations peoples of Australia, then we need to incorporate TEK with Western Science approaches.
The importance of shellfish to First Nations peoples of Australia
Shellfish have been an important source of food, trade and culture to First Nations people around the globe for thousands of years (Reeder-Myers et al. 2022). Archaeological evidence suggests that pre-colonial shellfish ecosystems were not ‘wild’, but rather a cultivated resource successfully managed by First Nations peoples over millennia (Fletcher et al. 2021; Reeder-Myers et al. 2022). The management and consumption of shellfish was part of a broader socio-ecological system that was disrupted by colonialism (Reeder-Myers et al. 2022). For First Nations peoples of Australia, shellfish provide an unbroken cultural connection to Sea Country. Evidence of the importance of shellfish as a sustainable food source for First Nations peoples of Australia has been found in studies of middens around Australia (Gillespie and Temple 1977; Cann et al. 1991; Frankel 1991; Clune and Harrison 2009; Tables 1 and 2).
Author of study | Geologic era and time | Location | Common name | Scientific name | |
---|---|---|---|---|---|
Campbell (1972) (NSW) | 4220 years BP | Clybucca | Sydney Cockle | Anadara trapezia | |
Sydney Rock Oysters | Saccostrea glomerata | ||||
4850 years BP | Connection Creek | Sydney Rock Oysters | Saccostrea glomerata | ||
Bowdler (1976) (NSW) | 2975 years BP | Bass Point | Mussel | Mytilus edulis | |
Spengler’s Trumpet | Cabestana spengleri | ||||
Twisted Necklace | Ninella torquata | ||||
Cart-rut Shell | Dicathias orbita | ||||
Stockton (1977) (NSW) | 6000 years BP | Pinney Beach | Spengler’s Triton | Cabestana spengleri | |
Large Turban Snail | Turbo torquata | ||||
Abalone–Mutton Fish | Haliotis rubra | ||||
Sydney Cockle | Anadara trapezia | ||||
Variegated Limpet | Cellana tramoserica | ||||
Scaly Limpet | Patellanax peronii | ||||
Black Elephant Snail | Scutus antipodes | ||||
Bouddi National Park Midden 1 | Spengler’s Triton | Cabestana spengleri | |||
Large Turban Snail | Turbo torquata | ||||
Abalone–Mutton Fish | Haliotis rubra | ||||
Cart-rut Shell | Dicathais orbita | ||||
Black Nerita | Nerita atramentosa | ||||
Hercules Club Whelk | Pyrazus ebeninus | ||||
Variegated Limpet | Cellana tramoserica | ||||
Tall-ribbed Limpet | Patelloida alticostata | ||||
Chiton | Chiton sp. | ||||
Black Elephant Snail | Scutus antipodes | ||||
Bouddi National Park Midden 2 | Spengler’s Triton | Cabestana spengleri | |||
Small Turban Snail | Lunella undulata | ||||
Abalone–Mutton Fish | Haliotis rubra | ||||
Cart-rut Shell | Dicathais orbita | ||||
Black Nerite | Nerita atramentosa | ||||
Sydney Rock Oyster | Saccostrea glomerata | ||||
Sydney Cockle | Anadara trapezia | ||||
Common Mussel | Mytulis planulatus | ||||
Variegated Limpet | Cellana tramoserica | ||||
Tall-ribbed Limpet | Patelloida alticostata | ||||
Chiton | Chiton sp. | ||||
Black Elephant Snail | Scutus antipodes | ||||
Lined Periwinkle | Austrocochlea constricta | ||||
Circular Tapestry Shell | Circe scripta | ||||
Milligans Cave | Large Turban Snail | Turbo torquata | |||
Sydney Rock Oyster | Saccostrea glomerata | ||||
Mud Oyster | Ostrea angasi | ||||
Sydney Cockle | Anadara trapezia | ||||
Hairy Mussel | Trichomya hirsuta | ||||
Common Mussel | Mytulis planulatus | ||||
Hercules Club Whelk | Pyrazus ebeninus | ||||
Mud Whelk | Batillaria australis | ||||
Chama | Chama sp. | ||||
Pipi | Plebidonax deltoides | ||||
Circular Tapestry Shell | Circe scripta | ||||
Newport | Spengler’s Triton | Cabestana spengleri | |||
Sydney Rock Oyster | Saccostrea glomerata | ||||
Mud Oyster | Ostrea angasi | ||||
Sydney Cockle | Anadara trapezia | ||||
Hairy Mussel | Trichomya hirsuta | ||||
Hercules Club Whelk | Pyrazus ebeninus | ||||
Mud Whelk | Batillaria australis | ||||
Spring Cove | Spengler’s Triton | Cabestana spengleri | |||
Large Turban Snail | Turbo torquata | ||||
Small Turban Snail | Turbo undulata | ||||
Black Nerite | Nerita atramentosa | ||||
Sydney Rock Oyster | Saccostrea glomerata | ||||
Hairy Mussel | Trichomya hirsuta | ||||
Variegated Limpet | Cellana tramoserica | ||||
Air-breathing Limpet | Siphonaria sp. | ||||
Reef Beach | Spengler’s Triton | Cabestana spengleri | |||
Large Turban Snail | Turbo torquata | ||||
Small Turban Snail | Turbo undulata | ||||
Abalone–Mutton Fish | Haliotis rubra | ||||
Cart-rut Shell | Dicathais orbita | ||||
Black Nerite | Nerita atramentosa | ||||
Sydney Rock Oyster | Saccostrea glomerata | ||||
Sydney Cockle | Anadara trapezia | ||||
Hairy Mussel | Trichomya hirsuta | ||||
Variegated Limpet | Cellana tramoserica | ||||
Tall-ribbed Limpet | Patelloida alticostada | ||||
Cap-shaped Limpet | Monfortula rugosa | ||||
Air-breathing Limpet | Siphonaria sp. | ||||
Chiton | Chiton sp. | ||||
Chama | Chama sp. | ||||
Lined Periwinkle | Austrocochlea constricta | ||||
Circular Tapestry Shell | Circe scripta | ||||
Balls Head | Sydney Rock Oyster | Saccostrea glomerata | |||
Mud Oyster | Ostrea angasi | ||||
Sydney Cockle | Anadara trapezia | ||||
Hairy Mussel | Trichomya hirsuta | ||||
Hercules Club Whelk | Pyrazus ebeninus | ||||
Mud Whelk | Batillaria australis | ||||
Air-breathing Limpet | Siphonaria sp. | ||||
Limpet | Notoacmea sp. | ||||
Chiton | Chiton sp. | ||||
Chama | Chama sp. | ||||
Periwinkle | Austrocochlea concamerata | ||||
Gymea Bay | Black Nerite | Nerita atramentosa | |||
Sydney Rock Oyster | Saccostrea glomerata | ||||
Mud Oyster | Ostrea angasi | ||||
Sydney Cockle | Anadara trapezia | ||||
Hairy Mussel | Trichomya hirsuta | ||||
Mud Whelk | Batillaria australis | ||||
Chama | Chama sp. | ||||
Lined Periwinkle | Austrocochlea constricta | ||||
Circular Tapestry Shell | Circe scripta | ||||
Wattamolla | Spengler’s Triton | Cabestana spengleri | |||
Large Turban Snail | Turbo torquata | ||||
Small Turban Snail | Turbo undulata | ||||
Abalone–Mutton Fish | Haliotis rubra | ||||
Cart-rut Shell | Dicathais orbita | ||||
Black Nerite | Nerita atramentosa | ||||
Sydney Rock Oyster | Saccostrea glomerata | ||||
Sydney Cockle | Anadara trapezia | ||||
Hairy Mussel | Trichomya hirsuta | ||||
Common Mussel | Mytulis planulatus | ||||
Hercules Club Whelk | Pyrazus ebeninus | ||||
Mud Whelk | Batillaria australis | ||||
Variegated Limpet | Cellana tramoserica | ||||
Scaly Limpet | Patellanax peronii | ||||
Tall-ribbed Limpet | Patelloida alticostata | ||||
Cap-shaped Limpet | Monfortula rugosa | ||||
Chiton | Chiton sp. | ||||
Black Elephant Snail | Scutus antipodes | ||||
Lined Periwinkle | Austrocochlea constricta | ||||
Pipi | Plebidonax deltoides | ||||
Bass Point | Spengler’s Triton | Cabestana spengleri | |||
Large Turban Snail | Turbo torquata | ||||
Cart-rut Shell | Dicathais orbita | ||||
Common Mussel | Mytulis planulatus | ||||
Currarong | Spengler’s Triton | Cabestana spengleri | |||
Large Turban Snail | Turbo torquata | ||||
Small Turban Snail | Turbo undulata | ||||
Abalone–Mutton Fish | Haliotis rubra | ||||
Cart-rut Shell | Thais orbita | ||||
Black Nerite | Nerita atramentosa | ||||
Sydney Rock Oyster | Saccostrea glomerata | ||||
Hairy Mussel | Trichomya hirsuta | ||||
Common Mussel | Mytulis planulatus | ||||
Hercules Club Whelk | Pyrazus ebeninus | ||||
Chiton | Chiton sp. | ||||
Lined Periwinkle | Austrocochlea constricta | ||||
Pipi | Plebidonax deltoides | ||||
Durras North | Triton | Charonia rubicunda | |||
Large Turban Snail | Turbo torquata | ||||
Small Turban Snail | Turbo undulata | ||||
Abalone–Mutton Fish | Haliotis rubra | ||||
Cart-rut Shell | Dicathais orbita | ||||
Black Nerite | Nerita atramentosa | ||||
Sydney Rock Oyster | Saccostrea glomerata | ||||
Sydney Cockle | Anadara trapezia | ||||
Common Mussel | Mytulis planulatus | ||||
Variegated Limpet | Cellana tramoserica | ||||
Scaly Limpet | Patellanax peronii | ||||
Chiton | Chiton sp. | ||||
Black Elephant Snail | Scutus antipodes | ||||
Lined Periwinkle | Austrocochlea constricta | ||||
Pipi | Plebidonax deltoides | ||||
Luebbers (1978) (SA) | 1470 years BP | Cape Northumberland | Limpets | Cellana | |
Snails | Subninella | ||||
1134 years BP | Canunda Rock | Limpets | Cellana | ||
Sea Snails | Dicathias | ||||
Turbo Snails | Subninella | ||||
2990 years BP | Mussels | Brachidontes | |||
3800 years BP | Pipi | Plebidonax | |||
1020 years BP | Mount Burr | Mussels | Brachidontes | ||
Abalone | Haliotis | ||||
8600 years BP | Mussels | Brachidontes | |||
760 years BP | Bevilaqua Cliffs | Snails | Subninella | ||
8250 years BP | Pipis | Plebidonax | |||
1020 years BP | Mount Burr | Mussels | Brachidontes | ||
Abalone | Haliotis | ||||
8600 years BP | Mussels | Brachidontes | |||
8700 years BP | Cape Martin | Mussels | Mytulis | ||
Cockles | Katelysia | ||||
Sullivan (1982) (NSW) | 500 years BP | Durras North | Mussels | Mytilus planulatus | |
800 years BP | Birubi | Mussels | Mytilus planulatus | ||
1000 years BP | Bowen Island | Mussels | Mytilus planulatus | ||
1100 years BP | Batemans Bay (North Head) | Mussels | Mytilus planulatus | ||
1200 years BP | Cemetery Point | Mussels | Mytilus planulatus | ||
1500 years BP | Gymea Bay | Mussels | Mytilus planulatus | ||
1900 years BP | Wattamolla | Mussels | Mytilus planulatus | ||
2000 years BP | Nundera Point | Mussels | Mytilus planulatus | ||
2800 years BP | Daleys Point | Mussels | Mytilus planulatus | ||
2800 years BP | Pambula Lake | Mussels | Mytilus planulatus | ||
2800 years BP | Newport | Mussels | Mytilus planulatus | ||
2800 years BP | Yowie Bay | Mussels | Mytilus planulatus | ||
2800 years BP | Curracurrong | Mussels | Mytilus planulatus | ||
2800 years BP | Bass Point | Mussels | Mytilus planulatus | ||
Hall and Bowen (1989) (SE Queensland) | 1600 years BP | The Toulkerrie midden | Pippi | Donax deltoides | |
Oyster | Saccostrea commercialis | ||||
Cockle | Anadara trapezia | ||||
Sand Snail | Polinices sordidus | ||||
Mud Whelk | Pvrazus ebeninus | ||||
Hairy Mussel | Trichomva hirsuta | ||||
Cann et al. (1991) (SA) | 840 years BP | Robe Midden | Turbo Snails | Subninella | |
7910 years BP | Cockles | Katelysia spp. | |||
Attenbrow (2010) (NSW) | 4000–6000 years BP | Abbortsford | Sydney Cockle | Anadara trapezia | |
Hercules Club Whelk | Pyrazus ebeninus | ||||
Sydney Rock Oyster | Saccostrea glomerata | ||||
Hairy Mussel | Trichomya hirsuta | ||||
Gold-mouthed Conniwink | Bembicium auratum | ||||
Mud Oyster | Ostrea angasi | ||||
Mud Whelk | Batillaria australis | ||||
Limpet | Limpet sp. unidentified | ||||
Lined Periwinkle | Austrocochlea constricta | ||||
Bearded Ark Clam | Barbatia pistachia | ||||
Bittium lacertinum | |||||
Circe trigone | |||||
Keyhole Limpet | Clypidina rugosa | ||||
Boring Venus Shell | Irus crenatus | ||||
Laternula craccina | |||||
Prothalotia comtessei | |||||
Balls Head | Sydney Cockle | Anadara trapezia | |||
Hercules Club Whelk | Pyrazus ebeninus | ||||
Sydney Rock Oyster | Saccostrea glomerata | ||||
Hairy Mussel | Trichomya hirsuta | ||||
Chama fibula | |||||
Mud Oyster | Ostrea angasi | ||||
Mud Whelk | Batillaria australis | ||||
Periwinkle | Austrocochlea concamerata | ||||
Common Conniwink | Bembicium melanostoma | ||||
Bittium lacertinum | |||||
Boring Venus Shell | Irus crenatus | ||||
Prothalotia comtessei | |||||
Pyrene sp. | |||||
Air-breathing Limpet | Siphonaria sp. | ||||
Heart Venerid | Timoclea cardioides | ||||
Bantry Bay | Sydney Cockle | Anadara trapezia | |||
Sydney Rock Oyster | Saccostrea glomerata | ||||
Hairy Mussel | Trichomya hirsuta | ||||
Mud Oyster | Ostrea angasi | ||||
Limpet | Limpet sp. unidentified | ||||
Moore’s Wharf | Sydney Cockle | Anadara trapezia | |||
Hercules Club Whelk | Pyrazus ebeninus | ||||
Sydney Rock Oyster | Saccostrea glomerata | ||||
Hairy Mussel | Trichomya hirsuta | ||||
Mud Oyster | Ostrea angasi | ||||
Milk Beach | Sydney Rock Oyster | Saccostrea glomerata | |||
Hairy Mussel | Trichomya hirsuta | ||||
Spengler’s Trumpet | Cabestana spengleri | ||||
Chama fibula | |||||
Black Nerite | Nerita atramentosa | ||||
Limpet | Limpet sp. unidentified | ||||
Sea Snail | Austrocochlea sp. | ||||
Mulberry Whelk | Morula marginalba | ||||
Mitra badia | |||||
Mount Trefle | Sydney Cockle | Anadara trapezia | |||
Hercules Club Whelk | Pyrazus ebeninus | ||||
Sydney Rock Oyster | Saccostrea glomerata | ||||
Hairy Mussel | Trichomya hirsuta | ||||
Spengler’s Trumpet | Cabestana spengleri | ||||
Variegated Limpet | Cellana tramoserica | ||||
Chama fibula | |||||
Cart-rut Shell | Dicathais orbita | ||||
Black Nerite | Nerita atramentosa | ||||
Mud Oyster | Ostrea angasi | ||||
Large Turbo Snail | Turbo torquata | ||||
Mud Whelk | Batillaria australis | ||||
Lined Periwinkle | Austrocochlea constricta | ||||
Periwinkle | Austrocochlea concamerata | ||||
Sea Snail | Austrocochlea sp. | ||||
Oyster Drill | Bedeva hanleyi | ||||
Striped Mouth Conniwink | Bembicium nanum | ||||
Marine Snail | Bembicium sp. | ||||
Whelk | Cabestana sp. | ||||
Cardita excavata | |||||
Circular Tapestry Shell | Circe scripta | ||||
Ridged Lucine | Codakia rugifera | ||||
Dirty Sand Snail | Conuber sordidum | ||||
Prickly Slipper Limpet | Crepidula aculeata | ||||
Pipi | Plebidonax deltoides | ||||
Yellow Coated Clusterwink | Hinea brasiliana | ||||
Boring Venus Shell | Irus crenatus | ||||
Mitra badia | |||||
Common Mussel | Mytulis planulatus | ||||
Little Blue Periwinkle | Nodilittorina unifascata | ||||
Tenison Woods | Patelia chapmani | ||||
Doughboy Scallop | Pecten furnatus | ||||
Black Elephant Snail | Scutus antipodes | ||||
Denticulate Siphon Shell | Siphonaria denticulata | ||||
Small Keyhole Limpet | Tugali parmaphoidea | ||||
Small Turbo Snail | Turbo undulata | ||||
Venus Clams | Veneridea (fam) | ||||
Little Brown Mussel | Xenostrobus securis | ||||
Reef Beach | Sydney Cockle | Anadara trapezia | |||
Sydney Rock Oyster | Saccostrea glomerata | ||||
Hairy Mussel | Trichomya hirsuta | ||||
Spengler’s Trumpet | Cabestana spengleri | ||||
Variegated Limpet | Cellana tramoserica | ||||
Chama fibula | |||||
Cart-rut Shell | Dicathais orbita | ||||
Black Nerite | Nerita atramentosa | ||||
Large Turbo Snail | Turbo torquata | ||||
Black Keyhole Limpet | Amblychilepas nigrita | ||||
Lined Periwinkle | Austrocochlea constricta | ||||
Periwinkle | Austrocochlea concamerata | ||||
Oyster Drill | Bedeva hanleyi | ||||
Striped Mouth Conniwink | Bembicium nanum | ||||
Circular Tapestry Shell | Circe scripta | ||||
Keyhole Limpet | Clypidina rugosa | ||||
Abalone/Muttonfish | Haliotis rubra | ||||
Yellow Coated Clusterwink | Hinea brasiliana | ||||
Boring Venus Shell | Irus crenatus | ||||
Common Mussel | Mytulis planulatus | ||||
Oysters | Family Ostreidae | ||||
Tall-ribbed limpet | Patelloida alticostata | ||||
Triton Shells | Family Ranellidae | ||||
Denticulate Siphon Shell | Siphonaria denticulata | ||||
Air-breathing limpet | Siphonaria sp. | ||||
Chinaman’s Fingernail | Solen correctus | ||||
Small Turbo Snail | Turbo undulata | ||||
Colley (1997) (NSW) | 6900 years BP | Disaster Bay | Common Edible Mussel | Mytilus edulis planulatus | |
Triton | Cabes tana spengleri | ||||
Beaked Mussel | Austromytilus rostratus | ||||
Wavy Turban Shell | Turbo undulatus | ||||
Chitons | Class Polyplacophora | ||||
Cartrut Shell | Dicathias orbita | ||||
Sydney Rock Oyster | Saccostrea glomerata | ||||
Worm Shells | Family Venetidae | ||||
Limpets | Family Patellidae | ||||
Rock Barnacles | Crustacea | ||||
Mud Ark | Anadara trapezia | ||||
Large Turban Shell | Turbo torquata | ||||
Black Periwinkle | Nerita atramentosa | ||||
Abalone | Haliotis sp. | ||||
Venus Shell | Family Veneridae | ||||
Wavy Top Shell | Austrocochlea concamerata | ||||
Club Mud Whelk | Pyrazus ebeninus | ||||
Mussels | Family Mytilidae | ||||
Mud Oyster | Ostrea agnasi | ||||
Southern Mud Whelk | Batillaria australis | ||||
Periwinkles | Family Littorinidae | ||||
Elephant Snail | Scutus antipodes | ||||
Hairy Mussel | Trichomya hirsuta | ||||
Scallops | Family Pectinidae | ||||
Banded Kelp Shell | Bankivia sp. | ||||
Whelks | Family Buccinidae | ||||
Nassarius | Family Nassariidae | ||||
Creepers | Family Cerithiidae | ||||
Bailey’s Dog Winkle | Dicathais baileyana | ||||
Tenison’s False Dog Cockle | Limpopsis tenisoni | ||||
Ribbed Top Shell | Austrocochlea constricta | ||||
Bernbiciurn sp. | |||||
Dog Whelks | Family Nassidae |
Mutton Fish is an Indigenous name for abalone.
Class | Common name | Scientific name | |
---|---|---|---|
Polychaeta | Beach Worm | F. onuphidea | |
Polyplacophora | Chiton | Ischnochiton australis | |
Unidentified sp. | |||
Albida Chiton | Plaxiphora albida | ||
Bivalvia | Ark Shell | Barbatia bistachia | |
Beaked Mussel | Austromylitus rostratus | ||
Bivalve | Callista sp. | ||
Blue Sea Mussel | Mytulis planulatus | ||
Cobra | Teredo navalis | ||
Commercial Scallop | Pecten fumatus | ||
Freshwater Mussel | Hyridella sp. | ||
Hairy Mussel | Trichomya hirsuta | ||
Heart Cockle | Cardium racketti | ||
Jewel Box | Chama fibula | ||
Mud Oyster | Ostrea angasi | ||
Pacific Oyster | Crassostrea gigas | ||
Pipi | Plebidonax deltoides | ||
Razor Clam | Pinna sp. | ||
Scallop | Scaeochlamys peroniana | ||
Sydney Cockle | Anadara trapezia | ||
Sydney Rock Oyster | Saccostrea glomerata | ||
Tapestry Cockle | Tapes watlingi | ||
Tenison’s False Dog Cockle | Limopsis tenisoni | ||
Gastropoda | Australian Mud Whelk | Velacumantis australis | |
Banded Kelp Shell | Bankivia sp. | ||
Black Lip Abalone | Haliotis rubra | ||
Bonnet Shell | Phalium sp. | ||
Cart-rut Shell | Dicathais orbita | ||
Chapmans Limpet | Patella chapmani | ||
Common Periwinkle | Austrocochlea constricta | ||
Common Tent shell | Australium tentoriiformis | ||
Cone Shell | Conus papilliferus | ||
Dog Whelk | Nassarius jonasii | ||
Elephant Snail | Scutus antipodes | ||
False Baler Shell | Livonia mamilla | ||
Frasers Banded Snails | Sphaerospira fraseri | ||
Giant Triton | Monoplex australasiae | ||
Gold-mouthed Conniwink | Bembicium auratum | ||
Knobbed Triton | Charonia rubicunda | ||
Limpet | Patelloida mimula | ||
Margin Shells | Marginellid sp. | ||
Mitre Shell | Mitra contermina | ||
Moon Snail | Polinices melastomus | ||
Mud Whelk | Pyrazus ebeninus | ||
Nerite | Nerita atramontosa | ||
Peron’s Limpet | Patella peroni | ||
Ribbed Limpet | Patelloida alticostata | ||
Ribbed Limpet | Patelloida complanata | ||
Spengler’s Trumpet | Cabestana spengleri | ||
Topsnail | Clanculus sp. | ||
Turban Snail | Turbo spp. | ||
Variegated Limpet | Cellana sp. | ||
Cephalopoda | Octopus | Octopus sp. | |
Cuttlefish | Sepia sp. | ||
Squid | Nototodarus sp. | ||
Malacostraca | Bait Yabby | Callianassa australiensis | |
Bay Prawn | Metapenaeus bennettae | ||
Blue Swimmer Crab | Portunus pelagicus | ||
Cleft-fronted Shore Crab | Plagusia chabrus | ||
Eastern King Prawn | Merlicertus plebejus | ||
Eastern Rock Lobster | Sagmariasus verreauxi | ||
Freshwater Shrimp | Macrobrachium sp. | ||
Freshwater Yabby | Cherax destructor | ||
Mud Crab | Scylla serrata | ||
Reef Crab | Ozius truncatus | ||
School Prawn | Metapenaeus macleayi | ||
Shore Crab | Plagusia glabra | ||
Spanner Crab | Ranina ranina | ||
Swift-foot Shore Crab | Leptograpsus variegatus | ||
Echinoidea | Unidentified Sea Urchin | ||
Ascidiacea | Cunjevoi | Pyura stolonifera |
Middens provide a wealth of archaeological knowledge on the age, species and quantities of shellfish present (Table 1). Such knowledge provides insights into the diet of First Nations peoples of Australia, how it changed with the environment over time and how the abundance of shellfish varied among locations and timeframes. For example, Cann et al. (1991) found the lower levels of middens in the Robe Range within Little Dip Conservation Park in South Australia consisted of cockle (Katelysia) shells with radiocarbon dates of ~7910 years old and the upper levels consisted of Turbo shells with a radiocarbon date of 470 years old. Godfrey (1988, 1989) also used oxygen isotope analysis and radiocarbon dating of middens and found that pipis (Donax deltoides) had been fished for over 10 000 years in Discovery Bay, south-western Victoria, Australia, and were harvested at certain times of the year, particularly late winter. Middens also provide knowledge on how dietary patterns have changed over millennia (Luebbers 1978; Godfrey 1988, 1989; Cann et al. 1991). A midden site in South Australia identified two horizons. The first horizon being between 10 000 and 6000 years old and containing shellfish that were collected from the intertidal habitats indicated consumption largely of intertidal gastropods. The second horizon indicated that pipis and mussels were taken at that time, from the inter- and subtidal habitats (Luebbers 1978).
Other middens have been found to contain mostly oysters. In Great Oyster Bay, Tasmania, Australia, the middens were dominated by flat oysters (Ostrea angasi) and mussels (Mytilus planulatus) (Lourandos 1968). However, dietary patterns were not consistent even within locations in close proximity. Just ~130 km from Great Oyster Bay in Eddystone Point the dominant species in the middens were abalone (Haliotis rubra) and turbo snails (Lunella undulata) (Lourandos 1968).
Today, Australia’s most popular choice of oyster is the Sydney rock oyster (Saccostrea glomerata). The Sydney rock oysters’ popularity extends back to First Nations peoples of Australia, far longer in time than European modern oyster aquacultural practices. For example, Sydney rock oysters have been found extensively in middens such as those on the Richmond River (New South Wales, Australia) where 98% of all molluscan shells were Sydney rock oysters (Bailey 1975). An in-depth study of middens along the central coast of New South Wales, Australia, also provides evidence of the importance of the Sydney rock oyster (S. glomerata), the flat oyster (O. angasi) and 28 other molluscs for First Nations peoples of Australia (Stockton 1977). Further, in south-east Queensland, investigations into the Toulkerrie midden resulted in the identification of 6 species of molluscs, including the Sydney rock oyster, and 10 species of fish (Hall and Bowen 1989). Overall, these archaeological studies of middens have a wealth of knowledge regarding the type and quantities of shellfish harvested and the importance of shellfish to First Nations peoples of Australia (Table 1). Table 1 provides a snapshot of archaeological studies that have identified an enormous range of edible molluscs, shellfish and invertebrates consumed by First Nations peoples of Australia across thousands of years, including prominently the Sydney rock oyster.
Middens also had an important role in communicating to other clans who travelled as part of seasonal practices, through the record of recently eaten species, the available shellfish resources and other marine animals, ensuring overharvesting did not occur and sustaining shellfish availability (Rowland 1994; Korff 2021; Table 2). Further, middens were a site of spiritual and sacred places for teaching and learning for First Nations peoples containing human remains and artefacts. Middens were also places where the next generation were taught how to read the seasons, how to understand which organisms to harvest and what practices were need to help the environment remain in balance.
Traditional Ecological Knowledge (TEK) and First Nations knowledge
Archaeological research from middens has highlighted the importance of shellfish to First Nations peoples of Australia. Shellfish reefs were also essential in building colonial settlements. Shellfish are also important today with oyster farming alone in Australia forming a A$138 000 000 year−1 industry (cf. Australian Bureau of Agricultural and Resource Economics and Sciences, see https://www.agriculture.gov.au/abares). Despite the importance of shellfish to all Australians, very few studies have attempted to describe the TEK of shellfish aquaculture and coastal management of marine resources (Bowdler 1976; Attenbrow 2010). TEK is a subset of Indigenous knowledge and is defined as ‘a cumulative body of knowledge, practice and belief evolving by adaptive processes and handed down through generations by cultural transmission, about the relationship of living beings (including humans) with one another and with their environment’ (Berkes et al. 2000, p. 1252). TEK has advantages over Western Science because it can provide local, long-term information on species, including their spatial and temporal distributions, life-history stages, behaviours, trends and responses to disturbances (both natural and human-induced). TEK also gives insight into the customary tools, practices and management systems used to cultivate, harvest and sustain species (Berkes et al. 1995; Johannes et al. 2000; Dulvy and Polunin 2004; Haggan et al. 2007; Johannes and Neis 2007; Moreira Moura and Sant’Ana Diegues 2009). Combined, Indigenous knowledge and Western Science has been described as ‘two-eyed seeing’ (Bartlett et al. 2012). Two-eyed seeing, first described in Canada, is a metaphor for when a person is familiar with both Indigenous knowledge and Western knowledge systems (McAllister et al. 2020) and is more ably prepared to meet a challenge or task at hand.
The recognition of the importance and incorporation of TEK in shellfish aquaculture and coastal management is particularly well developed in Canada (Treseder and Krogman 1999; Mascarenhas 2007; Beckford et al. 2010; Tsuji et al. 2020; Chan et al. 2021), Aotearoa–New Zealand (Wehi et al. 2013; Paul-Burke et al. 2018; Whaanga et al. 2018; Maxwell et al. 2020) and to a lesser extent in Kenya, Peru, Colombia, and Panama (Zimmerer 2012; Ulloa 2017; Weber and Tascón 2020). In Australia; however, TEK of shellfish aquaculture and coastal management is under studied and under incorporated. The lack of understanding and incorporation of TEK in shellfish aquaculture and coastal management is surprising given that First Nations peoples of Australia are the world’s oldest living culture, encompassing knowledge over 65 000 years and inhabiting a land with 34 000 km of mainland coastline. Among other reasons discussed later in this article, the lack of the incorporation of TEK in shellfish aquaculture and coastal management in Australia maybe because Western Science privileges written knowledge, and Indigenous knowledge was and is predominantly oral and lived, communicated intergenerationally through cultural stories, songs and dance (Benjamin et al. 2020; Veth et al. 2020; Hale et al. 2021; Wiseman et al. 2021). There are also examples of stories on social media platforms, including even YouTube.
Although limited, there is some information available on the TEK surrounding cultivation, harvest and management of shellfish from the Quandamooka people in Moreton Bay, Southern Queensland, Australia (Ross 1996). Shellfish were described as a key resource to the Quandamooka oyster farmers who created artificial oyster reefs within the bay, identifying natural high points in the water as a location to place dead shells for oyster spat to recruit. These artificial reefs were found on the west coast of North Stradbroke Island and played a fundamental role in maintaining water quality in the region (Ross 1996; Thurstan et al. 2019). To ensure that oysters were available throughout the year and that overharvesting did not occur, oyster beds were continuously monitored and in the event of a depletion of oysters in one bed, oysters from another bed were transferred to replace oysters that had died. Prior to European colonisation, the coastline of Morton Bay on Quandamooka Country was abundantly populated with reef-forming shellfish species (O’Rourke 2013). Over the last 125 years, however, overharvesting, hyposalinity and disease have led to a severe decline of shellfish populations (Diggles 2013). In response to this, the Moreton Bay region is now a site of shellfish reef restoration. The incorporation of some TEK of shellfish culture, harvest and management from the Quandamooka people (e.g. which substrate to use), the appropriate selection of restoration sites, and how to best monitor and manage restored reefs into the future has improved the outcomes of shellfish reef restoration projects. However, the continual monitoring and management practices of shellfish restoration of First Nations peoples have not been as well incorporated. Instead Western management models of shellfish restoration, primarily being to ‘lock away’ and ‘keep people out’, have been used. Debates continue today about which type of management practices should be used in the future. In other areas such as fire management, co-led design of projects with the Quandamooka people and stakeholders is creating respect, recognition, relatedness and reciprocity, which is actively bringing Quandamooka culture to the forefront of restoration (Fischer et al. 2019).
In contrast to the lack of recognition of TEK on shellfish and coastal management of First Nations peoples of Australia, there is a long history of recognition for their highly developed fishing skills. Examples of fishing skills include strategies used to attract dolphins, which in turn would scare fish into the shallow waters to be speared or caught in nets (Hall 1984). Other examples of fishing include poison on bark to stun fish, the use of lines and hooks (Bowdler 1976) and fire to attract fish at night that were then speared or caught in a net. There was even the mimicking of seagulls to scare fish into traps (Mountford 1939). These fishing skills were admired by early European settlers and records indicate a vibrant industry trading in shellfish and fish between European settlers and First Nations peoples of Australia (Kerkhove 2013, 2018).
The importance of First Nations knowledge of shellfish in Aotearoa
The lack of incorporation of First Nations TEK in Australia contrasts with the considerable incorporation of shellfish and coastal management TEK of the First Nations peoples of Aotearoa (New Zealand). Over the last decade, the Māori TEK on shellfish and shellfish cultivation, information on historical abundance, contemporary ecology and conservation of species in Aotearoa has been incorporated into management of coastal ecosystems (Geary et al. 2019).
For example, First Nations Aotearoa knowledge and practices have been used to revitalise fisheries, such as scampi (Metanephrops challengeri) (Ogilvie et al. 2018) and Koura (freshwater crayfish, Paranephrops planifrons or P. zealandicus) (Kusabs et al. 2018). One example from Aotearoa demonstrates the transition from ‘how to catch more’ to ‘how to reduce the impact of fishing on the environment’ by understanding First Nation knowledges regarding scampi that is grounded in First Nations TEK frameworks (Ogilvie et al. 2018). Kusabs et al. (2015) and Kusabs and Quinn (2009) also highlighted effective methods for harvesting Koura, a freshwater crayfish that is endemic to Aotearoa. There are two species of Koura: P. planifrons found on the North Island and in the north-west of the South Island, and P. zealandicus that is distributed along the eastern side of the South Island and on Stewart Island. Kusabs et al. (2018) explored First Nations methods of harvesting and cultivating Koura and showed that the method of using whakaweku (artificial habitats made from fronds of bracken ferns) resulted in higher catch rates of Koura and lower catch rates of bycatch compared to other techniques.
Further, Paul-Burke et al. (2018) illustrated the power of First Nations knowledge as a foundation for improving, enhancing and safeguarding mussel (Perna canaliculus) populations in Ōhiwa harbour. The outcome of this has become an incorporation of local Iwi (tribe) and government partnering in the creation of a Mussel Management Action Plan (MMAP), which has been grounded in the principles of First Nations ecological knowledge practices and their cultural relationships with the area. This plan also established a monitoring regime and a restoration plan for the mussel population in the Ōhiwa harbour area. In 2016, before the implementation of this action plan there had been a significant decline in the abundance of mussels; however, since 2018, there has been a steady increase in the abundance of mussels based on First Nations ecological practices (Radio New Zealand 2021). Interestingly, in an interview, Paul-Burke et al. (2018) stated that because of First Nations knowledge and practices of the local Iwi (tribe), shellfish beds were located using cultural landmarks that had previously been missed. Another benefit of the use of First Nations practices is based on natural substrata rather than plastics used commonly used in Western aquaculture. The use of TEK has led to the revitalisation of culture and also both reduced plastic pollution and increased the densities of mussel populations (Paul-Burke et al. 2018).
Like First Nations peoples of Australia, the importance of shellfish for First Nations Māori is also found in cultural oral traditions including the ancestral sayings or whakataukī described by Wehi et al. (2013) and Whaanga et al. (2018). Whakataukī provides an example of shellfish in everyday life. Ancestral sayings were used to describe the many physical features of fish and shellfish and the location of these species and how these changed over time. Wehi et al. (2009, 2013) described both the complexity of oral traditions of whakataukī (ancestral sayings) and separated these from pūrākau and kōrero (myths and stories), karakia (prayer), and waiata (song) about shellfish, and these were incorporated into understanding time and culture. Wehi et al. (2009, 2013) also explained that the names of organisms can be misunderstood using Western labels. In contrast to Western names, the name of shellfish in the language of First Nations peoples of Aotearoa is related to culture and creates meaning about the way it moves, or the way it eats, what it eats, where it lives and what it looks like. Understanding the shellfish name provides much more information than the name used in the western world. For example, Ngā kai a Tamatāhei ki a koe! Ehara tēnā, kei tua o Kapenga e haere ana, translates to ‘See the food of Tamatāhei for you!’, to which the reply would be ‘Never! It has passed on the other side of Kapenga.’ Within these phrases are references to Tamatāhei, which is the name of a place that is famous for the Manuka trees, which have traditionally been used for tool making, and Kapenga, the name of a large flax swamp tree from which is the flax of the garment has come from. This illustrates three very important features: (1) locations of importance; (2) the resources associated with specific locations; and (3) the use of the resources from these locations.
The incorporation of First Nations Aotearoa TEK has led to a reinvigoration of practices with embedded cultural values, highlighting the in-depth knowledge held by First Nations knowledge holders. Moller (2009), Moller et al. (2009a) and Taiepa et al. (1997) described the value of First Nations TEK or mātauranga Māori (Māori knowledge) as extensive and in-depth. Moller (2009) and Moller et al. (2000, 2004, 2009b, 2009c) also highlighted the importance of TEK for the sustainability and cultural practices and improved health of ecosystems. Clapcott et al. (2018) too argued for the importance of First Nation practices to assess aquatic environments, a notion that has now been supported by other studies (Crow et al. 2018; Hikuroa et al. 2018; Hopkins 2018). Crow et al. (2018) stated that Māori TEK can better inform the assessment of natural waterways and TEK combined with Western technology can be of great benefit to new fisheries practices.
Differences between First Nations knowledge in Australia and Aotearoa
Reasons for the differences between the more developed incorporation of TEK on shellfish in Aotearoa compared to the lack of incorporation of TEK in Australia in part may reflect the importance of shellfish to Māori culture and perhaps also stem from the signing of the treaty of Te Tiriti o Waitangi in 1840 and the dual absence of a treaty and voice for First Nations peoples of Australia. The Te Tiriti o Waitangi treaty demonstrated respect for the Māori people and the treaty symbolised and described the relationship between two cultures and two systems of law and morality. Te Tiriti affirmed and promised to uphold the mana (customary authority), tino rangatiratanga (leadership) and tikanga (law) of Māori, and commits to a relationship of equal partnership between Māori chiefs and the British Crown (Armstrong et al. 2019; Taylor et al. 2020).
The treaty cemented the intrinsic value of Māori culture in Aotearoa, which has been recognised by the New Zealand government for over 150 years. No such treaty or recognition in the constitution has occurred for First Nations peoples of Australia, although the Uluru Statement from the Heart recognises that ‘Aboriginal and Torres Strait Islander tribes were the first sovereign Nations of the Australian continent and its adjacent islands and possessed it under our own laws and customs’. The absence of rectification in treaty or through the constitution has led to fragmented government programs designed to assimilate and eliminate First Nations Australian culture and language, and with it, TEK of shellfish and shellfish management (Zuckermann et al. 2014). TEK was replaced with a colonial mindset of resource exploitation that has led Australia to losing 92% of Sydney Rock oyster (S. glomerata) and over 99% of flat oyster (O. angasi) reef systems (Gillies et al. 2018). Such cultural and environmental damage has only recently begun to be repaired. There are lessons to be learned from First Nations peoples of Australia. Concerted effort needs to be made to restore and recover the TEK of shellfish and coastal management that remains.
Recommendations and conclusions
Across the globe, many shellfish, shellfish reefs and coastal ecosystems are in ecological crisis (Beck et al. 2011). Continued anthropogenic pressure from habitat destruction and climate change continue to threaten shellfish and their habitats and create doubt about their resilience to persist (Parker et al. 2013; Scanes et al. 2020; Gibbs et al. 2021; Ross et al. 2023). If we are to appropriately restore shellfish resources including oysters, mussels, pipis, scallops (Pawley and Smith 2012; Howarth et al. 2015; Talman 2017) and abalone (Hobday et al. 2000; Shepherd et al. 2001; Jenkins 2004), and the valuable ecosystem services and aquaculture industries they provide, worth billions of dollars per annum (Food and Agriculture Organization of the United Nations 2016, 2020), then we need to understand and incorporate TEK of First Nations peoples of Australia before both TEK and shellfish are lost. We have seen the benefits of incorporating traditional TEK for Koura and mussel fisheries in Aotearoa and the use of fire management by the Quandamookas. Moving forward, our strongest option to sustain and restore shellfish and shellfish reefs and ultimately estuarine ecosystem health in Australia is to combine Western Science management and decision-making grounded in TEK. This requires partnerships built on respect, recognition, relatedness and reciprocity where Traditional Owners are the co-designers or lead-designers and where intellectual property rights are understood and protected (Gibbs et al. 2023). First Nations peoples of Australia have a culture that is centred around caring and protecting Land, Sea and Sky Country. This culture has largely been pushed to the background by government and other organisations. TEK and First Nations management practices create an opportunity to strengthen and resurrect connections of First Nations peoples of Australia to Sea Country (Gibbs et al. 2023). For modern society to restore and secure the future, we need to understand the past of the oldest living culture in the world and incorporate it into our future.
Optimistically, there have been changes to legislation that recognise Indigenous knowledge and TEK. For example, amendments were made in 2010 to the New South Wales Fisheries Management Act 1994 (NSW FMA), which highlights the economic and social importance of traditional aquatic resources for First Nations peoples of Australia and their cultural and spiritual significance (Schnierer 2011). The amendments to the NSW FMA in 2010 established the New South Wales Aboriginal Fishing Advisory Council (NSW AFAC) to advise the Minister and New South Wales Department of Primary Industries (NSW DPI) of culturally appropriate management protocols. However, it is clear that legislation alone will not lead to the development of culturally appropriate management practices. So far, legislation has made very little difference to the incorporation of Indigenous cultural practices into shellfish restoration projects, and more is required (Gibbs et al. 2023).
We are only just at the beginning of a journey in Australia to understand the importance of shellfish, and to document and incorporate TEK held by First Nations peoples of Australia, to sustain shellfish, restore shellfish reefs, and respect views of First Nations peoples of Australia in shellfish aquaculture and value their coastal and cultural management strategies. If we are to successfully combine Western Science and TEK to appropriately manage and restore our coasts, then we need to create bonds of trust with Nations Australians TEK, identify and understand their viewpoints on restoration, shellfish aquaculture and coastal management, and finally respect and protect their connections to Sea Country.
Data availability
Data sharing is not applicable as no new data were generated or analysed during this study.
Conflicts of interest
M. C. Gibbs and L. M. Parker are guest editors of the ‘Science in Sea Country’ collection of papers for Marine and Freshwater Research, but did not at any stage have editor-level access to this manuscript while in peer review, as is the standard practice when handling manuscripts submitted by an editor to this journal. Marine and Freshwater Research encourages its editors to publish in the journal and they are kept totally separate from the decision-making processes for their manuscripts. The authors have no further conflicts of interest to declare.
Acknowledgements
The authors thank Raphaela Rotolo-Ross for reading and commenting on sections of this text.
References
Armstrong D, Ellis L, Hohneck M, Irons C, Knight J, Littin K, MacDonald E, Maclaurin J, Speedy J, Steeves T, Watene K, Wehi P, Parke E, Russell J (2019) Predator free New Zealand: social, cultural, and ethical challenges. BioHeritage Challenge Bioethics Panel 2019. (New Zealand’s Biological Heritage) Available at https://bioheritage.nz/wp-content/uploads/2019/04/2019-MAY-Bioethics-Report.pdf
Bailey GN (1975) The role of molluscs in coastal economies: the results of midden analysis in Australia. Journal of Archaeological Science 2(1), 45-62.
| Crossref | Google Scholar |
Bartlett C, Marshall M, Marshall A (2012) Two-Eyed Seeing and other lessons learned within a co-learning journey of bringing together indigenous and mainstream knowledges and ways of knowing. Journal of Environmental Studies and Sciences 2, 331-340.
| Crossref | Google Scholar |
Beck MW, Brumbaugh RD, Airoldi L, Carranza A, Coen LD, Crawford C, Defeo O, Edgar GJ, Hancock B, Kay MC, Lenihan HS, Luckenbach MW, Toropova CL, Zhang G, Guo X (2011) Oyster reefs at risk and recommendations for conservation, restoration, and management. BioScience 61(2), 107-116.
| Crossref | Google Scholar |
Beckford CL, Jacobs C, Williams N, Nahdee R (2010) Aboriginal environmental wisdom, stewardship, and sustainability: lessons from the Walpole Island First Nations, Ontario, Canada. The Journal of Environmental Education 41(4), 239-248.
| Crossref | Google Scholar |
Benjamin J, O’Leary M, McDonald J, Wiseman C, McCarthy J, Beckett E, Morrison P, Stankiewicz F, Leach J, Hacker J, Baggaley P, Jerbić K, Fowler M, Fairweather J, Jeffries P, Ulm S, Bailey G (2020) Aboriginal artefacts on the continental shelf reveal ancient drowned cultural landscapes in northwest Australia. PLoS ONE 15(7), e0233912.
| Crossref | Google Scholar |
Berkes F, Hughes A, George PJ, Preston RJ, Cummins BD, Turner J (1995) The persistence of aboriginal land use: fish and wildlife harvest areas in the Hudson and James Bay Lowland, Ontario. Arctic 48(1), 81-93.
| Crossref | Google Scholar |
Berkes F, Colding J, Folke C (2000) Rediscovery of Traditional Ecological Knowledge as adaptive management. Ecological Applications 10(5), 1251-1262.
| Crossref | Google Scholar |
Bolotov IN, Makhrov AA, Gofarov MY, Aksenova OV, Aspholm PE, Bespalaya YV, Kabakov MB, Kolosova YS, Kondakov AV, Ofenböck T, Ostrovsky AN, Popov IY, von Proschwitz T, Rudzīte M, Rudzītis M, Sokolova SE, Valovirta I, Vikhrev IV, Vinarski MV, Zotin AA (2018) Climate warming as a possible trigger of keystone mussel population decline in oligotrophic rivers at the continental scale. Scientific Reports 8(1), 35.
| Crossref | Google Scholar | PubMed |
Bowdler S (1976) Hook, Line, and Dilly Bag: an interpretation of an Australian Coastal Shéll Midden. Mankind 10(4), 248-258.
| Crossref | Google Scholar |
Campbell V (1972) Some radiocarbon dates for aboriginal shell middens in the lower Macleay River Valley, New South Wales. Mankind 8(4), 283-286.
| Crossref | Google Scholar |
Cann JH, De Deckker P, Murray-Wallace CV (1991) Coastal aboriginal shell middens and their palaeoenvironmental significance, Robe Range, South Australia. Transactions of the Royal Society of South Australia 115(4), 161-175.
| Google Scholar |
Chan HM, Fediuk K, Batal M, Sadik T, Tikhonov C, Ing A, Barwin L (2021) The first nations food, nutrition and environment study (2008–2018) – rationale, design, methods and lessons learned. Canadian Journal of Public Health 112(S1), 8-19.
| Crossref | Google Scholar |
Clapcott J, Ataria J, Hepburn C, Hikuroa D, Jackson A-M, Kirikiri R, Williams E (2018) Mātauranga Māori: shaping marine and freshwater futures. New Zealand Journal of Marine and Freshwater Research 52(4), 457-466.
| Crossref | Google Scholar |
Clune G, Harrison R (2009) Coastal shell middens of the Abydos coastal plain, Western Australia. Archaeology in Oceania 44(S1), 70-80.
| Crossref | Google Scholar |
Colley SM (1997) A pre- and post-contact Aboriginal shell midden at Disaster Bay, New South Wales south coast. Australian Archaeology 45, 1-19.
| Crossref | Google Scholar |
Crow SK, Tipa GT, Booker DJ, Nelson KD (2018) Relationships between Maori values and streamflow: tools for incorporating cultural values into freshwater management decisions. New Zealand Journal of Marine and Freshwater Research 52(4), 626-642.
| Crossref | Google Scholar |
Diggles BK (2013) Historical epidemiology indicates water quality decline drives loss of oyster (Saccostrea glomerata) reefs in Moreton Bay, Australia. New Zealand Journal of Marine and Freshwater Research 47(4), 561-581.
| Crossref | Google Scholar |
Dulvy NK, Polunin NVC (2004) Using informal knowledge to infer human-induced rarity of a conspicuous reef fish. Animal Conservation forum 7(4), 365-374.
| Crossref | Google Scholar |
Fischer MD, Burns D, Bolzenius J, Costello C, Low Choy D (2019) Quandamooka Country: the role of science and knowledge in Traditional Owner-led land and sea management. In ‘Moreton Bay Quandamooka and Catchment’. (Eds IR Tibbetts, PC Rothlisberg, DT Neil, TA Homburg, DT Brewer, AH Arthington) pp. 3–28. (The Moreton Bay Foundation)
Fletcher M-S, Hamilton R, Dressler W, Palmer L (2021) Indigenous knowledge and the shackles of wilderness. Proceedings of the National Academy of Sciences 118(40), e2022218118.
| Crossref | Google Scholar |
Frankel D (1991) First-order radiocarbon dating of Australian shell-middens. Antiquity 65(248), 571-574.
| Crossref | Google Scholar |
Geary AF, Nelson NJ, Paine G, Mason W, Dunning DL, Corin SE, Ramstad KM (2019) Māori traditional harvest, knowledge and management of sooty shearwaters (Puffinus griseus) in the Marlborough Sounds, New Zealand. New Zealand Journal of Ecology 43(3), 3384.
| Crossref | Google Scholar |
Gibbs MC, Parker LM, Scanes E, Byrne M, O’Connor WA, Ross PM (2021) Adult exposure to ocean acidification and warming leads to limited beneficial responses for oyster larvae. ICES Journal of Marine Science 78(6), 2017-2030.
| Crossref | Google Scholar |
Gibbs M, Ross P, Scanes E, Gibbs J, Rotolo-Ross R, Parker L (2023) Extending conservation of coastal and oyster reef restoration for First Nations cultural revitalization outcomes. Conservation Biology 37, e14158.
| Crossref | Google Scholar |
Gillespie R, Temple RB (1977) Radiocarbon dating of shell middens. Archaeology and Physical Anthropology in Oceania 12(1), 26-37 Available at https://www.jstor.org/stable/40386275.
| Google Scholar |
Gillies CL, McLeod IM, Alleway HK, Cook P, Crawford C, Creighton C, Diggles B, Ford J, Hamer P, Heller-Wagner G, Lebrault E, Le Port A, Russell K, Sheaves M, Warnock B (2018) Australian shellfish ecosystems: past distribution, current status and future direction. PLoS ONE 13(2), e0190914.
| Crossref | Google Scholar | PubMed |
Godfrey MCS (1988) Oxygen isotope analysis: a means for determining the seasonal gathering of the pipi (Donax deltoides) by Aborigines in prehistoric Australia. Archaeology in Oceania 23(1), 17-21.
| Crossref | Google Scholar |
Godfrey MCS (1989) Shell midden chronology in southwestern Victoria: reflections of change in prehistoric population and subsistence? Archaeology in Oceania 24(2), 65-69.
| Crossref | Google Scholar |
Haggan NB, Neis B, Baird IG (2007) Part II: Indigenous and artisanal fisheries. In ‘Fishers’ knowledge in fisheries science and management.’ Coastal Management Sourcebooks 4, p. 147–349. (UNESCO) Available at https://unesdoc.unesco.org/ark:/48223/pf0000150580
Hale JC, Benjamin J, Woo K, Astrup PM, McCarthy J, Hale N, Stankiewicz F, Wiseman C, Skriver C, Garrison E, Ulm S, Bailey G (2021) Submerged landscapes, marine transgression and underwater shell middens: comparative analysis of site formation and taphonomy in Europe and North America. Quaternary Science Reviews 258, 106867.
| Crossref | Google Scholar |
Hall J, Bowen G (1989) An excavation of a midden complex at the Toulkerrie Oystermens Lease, Moreton Island, S.E. Queensland. Queensland Archaeological Research 6, 3-27.
| Crossref | Google Scholar |
Hikuroa D, Clark J, Olsen A, Camp E (2018) Severed at the head: towards revitalising the mauri of Te Awa o te Atua. New Zealand Journal of Marine and Freshwater Research 52(4), 643-656.
| Crossref | Google Scholar |
Hobday AJ, Tegner MJ, Haaker PL (2000) Over-exploitation of a broadcast spawning marine invertebrate: decline of the white abalone. Reviews in Fish Biology and Fisheries 10(4), 493-514.
| Crossref | Google Scholar |
Hopkins A (2018) Classifying the mauri of wai in the Matahuru Awa in North Waikato. New Zealand Journal of Marine and Freshwater Research 52(4), 657-665.
| Crossref | Google Scholar |
Howarth LM, Roberts CM, Hawkins JP, Steadman DJ, Beukers-Stewart BD (2015) Effects of ecosystem protection on scallop populations within a community-led temperate marine reserve. Marine Biology 162(4), 823-840.
| Crossref | Google Scholar |
Jenkins GP (2004) The ecosystem effects of abalone fishing: a review. Marine and Freshwater Research 55(6), 545-552.
| Crossref | Google Scholar |
Johannes RE, Freeman MMR, Hamilton RJ (2000) Ignore fishers’ knowledge and miss the boat. Fish and Fisheries 1(3), 257-271.
| Crossref | Google Scholar |
Kerkhove R (2013) Aboriginal trade in fish and seafoods to settlers in nineteenth-century South-East Queensland: a vibrant industry? Queensland Review 20(2), 144-156.
| Crossref | Google Scholar |
Kerkhove R (2018) Aboriginal camps as urban foundations? Evidence from southern Queensland. Aboriginal History 42(42), 141-172.
| Crossref | Google Scholar |
Korff J (2021) Guide to Aboriginal sites and places. Discover the multitude of Aboriginal sites and places and how Aboriginal people used them, sometimes for generations. (Creative Spirits). Available at https://www.creativespirits.info/aboriginalculture/land/guide-to-aboriginal-sites-and-places
Kusabs IA, Quinn JM (2009) Use of a traditional Maori harvesting method, the tau kōura, for monitoring kōura (freshwater crayfish, Paranephrops planifions) in Lake Rotoiti, North Island, New Zealand. New Zealand Journal of Marine and Freshwater Research 43(3), 713-722.
| Crossref | Google Scholar |
Kusabs IA, Quinn JM, Hamilton DP (2015) Effects of benthic substrate, nutrient enrichment and predatory fish on freshwater crayfish (kōura, Paranephrops planifrons) population characteristics in seven Te Arawa (Rotorua) lakes, North Island, New Zealand. Marine and Freshwater Research 66(7), 631-643.
| Crossref | Google Scholar |
Kusabs IA, Hicks BJ, Quinn JM, Perry WL, Whaanga H (2018) Evaluation of a traditional Māori harvesting method for sampling kōura (freshwater crayfish, Paranephrops planifrons) and toi toi (bully, Gobiomorphus spp.) populations in two New Zealand streams. New Zealand Journal of Marine and Freshwater Research 52(4), 603-625.
| Crossref | Google Scholar |
Kutay C, Leigh E, Herkess S (2021) First peoples engineering – creating cultural spaces. In ‘REES AAEE 2021 conference: Engineering Education Research Capability Development’, 5–8 December 2021, Perth, WA, Australia. pp. 893–902. (Engineers Australia: Perth, WA, Australia) Available at https://search.informit.org/doi/10.3316/informit.354784738163704
Lourandos H (1968) Dispersal of activities: the east Tasmanian Aboriginal sites. Papers and Proceedings of The Royal Society of Tasmania 102, 41-46.
| Crossref | Google Scholar |
Mascarenhas M (2007) Where the waters divide: First Nations, tainted water and environmental justice in Canada. Local Environment 12(6), 565-577.
| Crossref | Google Scholar |
Maxwell KH, Ratana K, Davies KK, Taiapa C, Awatere S (2020) Navigating towards marine co-management with Indigenous communities on-board the Waka-Taurua. Marine Policy 111, 103722.
| Crossref | Google Scholar |
McAllister T, Beggs J, Ogilvie S, Kirikiri R, Black A, Wehi P (2020) Kua takoto te mānuka: mātauranga Māori in New Zealand ecology. New Zealand Journal of Ecology 43(3), 3393.
| Crossref | Google Scholar |
Moller H (2009) Matauranga Maori, science and seabirds in New Zealand. New Zealand Journal of Zoology 36(3), 203-210.
| Crossref | Google Scholar |
Moller H, Berkes F, Lyver PO, Kislalioglu M (2004) Combining science and traditional ecological knowledge: monitoring populations for co-management. Ecology and Society 9(3), 2.
| Crossref | Google Scholar |
Moller H, O’Blyver P, Bragg C, Newman J, Clucas R, Fletcher D, Kitson J, McKechnie S, Scott D, Rakiura Titi Islands Administering Body (2009a) Guidelines for cross-cultural Participatory Action Research partnerships: a case study of a customary seabird harvest in New Zealand. New Zealand Journal of Zoology 36(3), 211-241.
| Crossref | Google Scholar |
Moller H, Charleton K, Knight B, Lyver P (2009b) Traditional Ecological Knowledge and scientific inference of prey availability: harvests of sooty shearwater (Puffinus griseus) chicks by Rakiura Maori. New Zealand Journal of Zoology 36(3), 259-274.
| Crossref | Google Scholar |
Moller H, Kitson JC, Downs TM (2009c) Knowing by doing: learning for sustainable muttonbird harvesting. New Zealand Journal of Zoology 36(3), 243-258.
| Crossref | Google Scholar |
Moreira Moura GG, Sant’Ana Diegues AC (2009) Traditional and scientific knowledge of the Saco do Arraial, Patos Lagoon (RS). Boletim do Instituto de Pesca 35(3), 359-372.
| Google Scholar |
Mountford CP (1939) Aboriginal methods of fishing and cooking as used on the Southern Coast of Eyre’s Peninsula, South Australia. Mankind 2(7), 196-200.
| Crossref | Google Scholar |
Ogilvie S, Major R, McCarthy A, Paine G, Paine R, Connor G, Connor S, Taylor D, Jeffs A, Heasman K, Batstone C, Chambers B, Allen W (2018) Mātauranga Māori driving innovation in the New Zealand scampi fishery. New Zealand Journal of Marine and Freshwater Research 52(4), 590-602.
| Crossref | Google Scholar |
O’Rourke T (2013) Aboriginal camps and ‘villages’ in Southeast Queensland. In ‘Proceedings of the Society of Architectural Historians, Australia and New Zealand 30’, 2–5 July 2013, Gold Coast, Qld, Australia. (Eds A Brown, A Leach) pp. 851–863. (Society of Architectural Historians Australia & New Zealand: Gold Coast, Qld, Australia) Available at https://www.griffith.edu.au/__data/assets/pdf_file/0037/349795/S17_03_ORourke_Aboriginal-Camps-and-Villages.pdf
Parker LM, Ross PM, O’Connor WA, Pörtner HO, Scanes E, Wright JM (2013) Predicting the response of molluscs to the impact of ocean acidification. Biology 2(2), 651-692.
| Crossref | Google Scholar | PubMed |
Paul-Burke K, Burke J, Bluett C, Senior T (2018) Using Māori knowledge to assist understandings and management of shellfish populations in Ōhiwa Harbour, Aotearoa New Zealand. New Zealand Journal of Marine and Freshwater Research 52(4), 542-556.
| Crossref | Google Scholar |
Radio New Zealand (2021) Saving mussel beds with a bi-cultural approach. In RNZ News, 29 January 2021. Available at https://www.rnz.co.nz/news/national/435432/saving-mussel-beds-with-a-bi-cultural-approach
Reeder-Myers L, Braje TJ, Hofman CA, Elliott Smith EA, Garland CJ, Grone M, Hadden CS, Hatch M, Hunt T, Kelley A, LeFebvre MJ, Lockman M, McKechnie I, McNiven IJ, Newsom B, Pluckhahn T, Sanchez G, Schwadron M, Smith KY, et al. (2022) Indigenous oyster fisheries persisted for millennia and should inform future management. Nature Communications 13, 2383.
| Crossref | Google Scholar | PubMed |
Ross A (1996) Aboriginal approaches to cultural heritage management: a Quandamooka case study. In ‘Australian Archaeology ’95: Proceedings of the 1995 Australian Archaeological Association Annual Conference’, 6–9 December 1995, Lawes, Qld, Australia. (Eds S Ulm, I Lilley, A Ross) Tempus, vol. 6, pp. 107–112. (Anthropology Museum, University of Queensland: Brisbane, Qld, Australia) Available at https://espace.library.uq.edu.au/view/UQ:238662c/Tempus_Vol6.pdf?dsi_version=34fd454f2bf4a219ca53de6981183e05
Ross PM, Scanes E, Byrne M, Ainsworth TD, Donelson JM, Foo SA, Hutchings P, Vengatesen T, Parker LM (2023) Surviving the anthropocene: the resilience of marine animals to climate change. In ‘Oceanography and marine biology: annual review’. (Eds SJ Hawkins, BD Russell, PA Todd) Vol. 61, pp. 35–80. (CRC Press) doi:10.1201/9781003363873-3
Rowland MJ (1994) Size isn’t everything. Shells in mounds, middens and natural deposits. Australian Archaeology 39(1), 118-124.
| Crossref | Google Scholar |
Scanes E, Scanes PR, Ross PM (2020) Climate change rapidly warms and acidifies Australian estuaries. Nature Communications 11(1), 1803.
| Crossref | Google Scholar | PubMed |
Schnierer S, Egan H (2016) Composition of the Aboriginal harvest of fisheries resources in coastal New South Wales, Australia. Reviews in Fish Biology and Fisheries 26, 693-709.
| Crossref | Google Scholar |
Shepherd SA, Rodda KR, Vargas KM (2001) A chronicle of collapse in two abalone stocks with proposals for precautionary management. Journal of Shellfish Research 20(2), 843-856.
| Google Scholar |
Stelling-Wood TP, Gribben PE, Birch G, Bishop MJ, Blount C, Booth DJ, Brown C, Bruce E, Bugnot AB, Byrne M, Creese RG, Dafforn KA, Dahlenburg J, Doblin MA, Fellowes TE, Fowler AM, Gibbs MC, Glamore W, Glasby TM, et al. (2023) A deep dive into the ecology of Gamay (Botany Bay, Australia): current knowledge and future priorities for this highly modified coastal waterway. Marine and Freshwater Research 74(12), 1003-1025.
| Crossref | Google Scholar |
Stockton ED (1977) Middens of the Central Coast, New South Wales. Australian Archaeology 7, 20-31.
| Crossref | Google Scholar |
Sullivan ME (1982) Aboriginal shell middens in the coastal landscape of New South Wales. PhD thesis, Australian National University, Canberra, ACT, Australia. Available at https://openresearch-repository.anu.edu.au/bitstream/1885/110345/2/b13186607-Sullivan_M.pdf
Taiepa T, Lyver P, Horsley P, Davis J, Brag M, Moller H (1997) Co-management of New Zealand’s conservation estate by Maori and Pakeha: a review. Environmental Conservation 24(3), 236-250.
| Crossref | Google Scholar |
Talman S (2017) Draft Fisheries (Victorian Pipi) Notice 2017 Consultation Plan. (Victorian Fisheries Authority) Available at https://vfa.vic.gov.au/featured/current-consultation/2017-consultations/draft-fisheries-victorian-pipi-notice-2017-consultation-plan
Taylor CN, Russell JC, Russell KJ (2020) A strategic social impact assessment for Predator-Free Rakiura, New Zealand, with a human–ecological approach. Socio-Ecological Practice Research 2(2), 161-174.
| Crossref | Google Scholar |
Thurstan RH, Fraser K, Brewer D, Buckley S, Dinesen Z, Skewes T, Courtney T, Pollock B (2019) Fishers and fisheries of Moreton Bay. In ‘Moreton Bay Quandamooka & Catchment: Past, present, and future’. (Eds IR Tibbetts, PC Rothlisberg, DT Neil, TA Homburg, DT Brewer, AH Arthington) pp. 521–536. (The Moreton Bay Foundation)
Treseder L, Krogman NT (1999) Features of First Nation forest management institutions and implications for sustainability. The Forestry Chronicle 75(5), 793-798.
| Crossref | Google Scholar |
Tsuji LJS, Tsuji SRJ, Zuk AM, Davey R, Liberda EN (2020) Harvest programs in First Nations of Subarctic Canada: the benefits go beyond addressing food security and environmental sustainability issues. International Journal of Environmental Research and Public Health 17(21), 8113.
| Crossref | Google Scholar |
Ulloa A (2017) Perspectives of environmental justice from Indigenous peoples of Latin America: a relational Indigenous environmental justice. Environmental Justice 10(6), 175-180.
| Crossref | Google Scholar |
Veth P, McDonald J, Ward I, O’Leary M, Beckett E, Benjamin J, Ulm S, Hacker J, Ross PJ, Bailey G (2020) A strategy for assessing continuity in terrestrial and maritime landscapes from Murujuga (Dampier Archipelago), North West Shelf, Australia. The Journal of Island and Coastal Archaeology 15(4), 477-503.
| Crossref | Google Scholar |
Weber SM, Tascón MA (2020) Pachamama—La Universidad del ‘Buen Vivir’: A First Nations Sustainability University in Latin America. In ‘Universities as living labs for sustainable development’. (Eds W Leal Filho, et al.) pp. 849–862. (Springer International Publishing) 10.1007/978-3-030-15604-6_52
Wehi PM, Whaanga H, Roa T (2009) Missing in translation: Maori language and oral tradition in scientific analyses of traditional ecological knowledge (TEK). Journal of the Royal Society of New Zealand 39(4), 201-204.
| Crossref | Google Scholar |
Wehi P, Cox M, Roa T, Whaanga H (2013) Marine resources in Māori oral tradition: He kai moana, he kai mā te hinengaro. Journal of Marine and Island Cultures 2(2), 59-68.
| Crossref | Google Scholar |
Whaanga H, Wehi P, Cox M, Roa T, Kusabs I (2018) Māori oral traditions record and convey indigenous knowledge of marine and freshwater resources. New Zealand Journal of Marine and Freshwater Research 52(4), 487-496.
| Crossref | Google Scholar |
Wiseman C, O’Leary M, Hacker J, Stankiewicz F, McCarthy J, Beckett E, Leach J, Baggaley P, Collins C, Ulm S, McDonald J, Benjamin J (2021) A multi-scalar approach to marine survey and underwater archaeological site prospection in Murujuga, Western Australia. Quaternary International 584, 152-170.
| Crossref | Google Scholar |
Zimmerer KS (2012) The Indigenous Andean Concept of Kawsay, the Politics of Knowledge and Development, and the Borderlands of Environmental Sustainability in Latin America. Publications of the Modern Language Association of America 127(3), 600-606.
| Crossref | Google Scholar |
Zuckermann G, Shakuto-Neoh S, Quer GM (2014) Native Tongue Title: compensation for the loss of Aboriginal languages. Australian Aboriginal Studies 2014(1), 55-71.
| Google Scholar |