Lagerstätte

A Fossil-Lagerstätte (German: [ˈlaːɡɐˌʃtɛtə], from Lager 'storage, lair' Stätte 'place'; plural Lagerstätten) is a sedimentary deposit that exhibits extraordinary fossils with exceptional preservation—sometimes including preserved soft tissues. These formations may have resulted from carcass burial in an anoxic environment with minimal bacteria, thus delaying the decomposition of both gross and fine biological features until long after a durable impression was created in the surrounding matrix. Fossil-Lagerstätten span geological time from the Neoproterozoic era to the present.

Well-preserved basal arthropod Opabinia from Burgess Shale Lagerstätte (Middle Cambrian)

Worldwide, some of the best examples of near-perfect fossilization are the Cambrian Maotianshan shales and Burgess Shale, the Ordovician Soom Shale, the Silurian Waukesha Biota, the Devonian Hunsrück Slates and Gogo Formation, the Carboniferous Mazon Creek, the Triassic Madygen Formation, the Jurassic Posidonia Shale and Solnhofen Limestone, the Cretaceous Yixian, Santana, & Agua Nueva formations and the Tanis Fossil Site, the Eocene Fur Formation, Green River Formation, Messel Formation & Monte Bolca, the Miocene Foulden Maar and Ashfall Fossil Beds, the Pliocene Gray Fossil Site, and the Pleistocene Naracoorte Caves & La Brea Tar Pits.

Types

Palaeontologists distinguish two kinds:^[1][2]

1. Konzentrat-Lagerstätten (concentration Lagerstätten) are deposits with a particular "concentration" of disarticulated organic hard parts, such as a bone bed. These Lagerstätten are less spectacular than the more famous Konservat-Lagerstätten. Their contents invariably display a large degree of time averaging, as the accumulation of bones in the absence of other sediment takes some time. Deposits with a high concentration of fossils that represent an in situ community, such as reefs or oyster beds, are not considered Lagerstätten.
2. Konservat-Lagerstätten (conservation Lagerstätten) are deposits known for the exceptional preservation of fossilized organisms or traces. The individual taphonomy of the fossils varies with the sites. Conservation Lagerstätten are crucial in elucidating important moments in the history and evolution of life. For example, the Burgess Shale of British Columbia is associated with the Cambrian explosion, and the Solnhofen limestone with the earliest known bird, Archaeopteryx.

Archaeopteryx specimen from Solnhofen Lagerstätte (Upper Jurassic)

Fossil specimen of Echinochimaera from the Bear Gulch Limestone (Middle Carboniferous)

Preservation

Konservat-Lagerstätten preserve lightly sclerotized and soft-bodied organisms or traces of organisms that are not otherwise preserved in the usual shelly and bony fossil record; thus, they offer more complete records of ancient biodiversity and behavior and enable some reconstruction of the palaeoecology of ancient aquatic communities. In 1986, Simon Conway Morris calculated only about 14% of genera in the Burgess Shale had possessed biomineralized tissues in life. The affinities of the shelly elements of conodonts were mysterious until the associated soft tissues were discovered near Edinburgh, Scotland, in the Granton Lower Oil Shale of the Carboniferous.^[3] Information from the broader range of organisms found in Lagerstätten have contributed to recent phylogenetic reconstructions of some major metazoan groups. Lagerstätten seem to be temporally autocorrelated, perhaps because global environmental factors such as climate might affect their deposition.^[4]

A number of taphonomic pathways may produce Konservat-Lagerstätten:^[5]

• Phosphatization (replacing soft tissues with phosphate, such as Orsten-type and Doushantuo-type preservations).
• Silicification (replacing or entombing soft tissues with silica, such as petrified wood or Bitter Springs-type preservation).
• Kerogenization (soft tissues converted into inert carbonaceous films, as found in Burgess Shale-type preservation).
• Aluminosilification (replacing or coating soft tissues with films of aluminosilicate minerals).
• Pyritization (replacing soft tissues with pyrite, such as the exquisite detail found in Beecher's trilobite-type preservation).
• Calcification (replacing or soft tissues with calcite minerals).
• Siderite or calcite nodules (chemicals released by decaying soft tissue modify the surrounding sediment into a siderite concretion or coal ball encasing the fossil, as found in the Mazon Creek fossil beds).
• Rapid sediment cementation (impressions of soft tissue preserved through casts and molds in the surrounding sediment, such as Ediacaran-type preservation facilitated by microbial mats).
• Amber (soft tissues encased in hardened tree resin).

The identification of a fossil site as a Konservat-Lagerstätte may be based on a number of different factors which constitute "exceptional preservation". These may include the completeness of specimens, soft tissue preservation, fine-scale detail, taxonomic richness, distinctive taphonomic pathways (often multiple at the same site), the extent of the fossil layer in time and space, and particular sediment facies encouraging preservation.^[5]

Notable Lagerstätten

See also: List of fossil sites

The world's major Lagerstätten include:

Precambrian

Site(s)	Age	Location	Significance	Notable fossils/organisms
Nonesuch Formation	1083-1070 Ma	Michigan, USA	An oxygenated Mesoproterozoic lake[6] containing exceptionally preserved limnic microbes.[7]
Lakhanda Lagerstätte	1030-1000 Ma	Uchur-Maya Depression, Russia	A site preserving a Mesoproterozoic community dominated by anaerobic bacteria.[8] The lagerstätte contains evidence of trophic interactions from the Boring Billion.[9][10]
Bitter Springs	1000–850 Ma	South Australia	Preserved fossils include cyanobacteria microfossils.	An early Stromatolite
Diabaig Formation	994 ± 48 Ma[11]	Scotland	A freshwater environment preserving phosphatic microfossils,[12] which represent some of the oldest known non-marine eukaryotes.[13]
Dolores Creek Formation	950 Ma	Yukon, Canada	An Early Tonian site containing pyritised macroalgal fossils.[14]
Chichkan Lagerstätte	775 Ma	Kazakhstan	A site from the transition between the prokaryote-dominated biota of the Early Neoproterozoic and the eukaryote-dominated biota of the Late Neoproterozoic and Phanerozoic.[15]
Doushantuo Formation	600–555 Ma	Guizhou Province, China	Spans the poorly understood interval between the end of the Cryogenian period and the late Ediacaran Avalon explosion.	An Ediacaran embryo-like fossil
Portfjeld Formation	570 Ma	North Greenland	A Middle Ediacaran biota from the continent of Laurentia exhibiting Doushantuo-type preservation.[16]
Mistaken Point	565 Ma	Newfoundland, Canada	This site contains one of the most diverse and well-preserved collections of Precambrian fossils.	Frondose ediacaran organisms
Itajai Biota	563 Ma	Brazil	An Ediacaran lagerstatte preserved by volcanism.[17]
Ediacara Hills	555 Ma	South Australia	The type location the Ediacaran period, and has preserved a significant amount of fossils from that time.	Spriggina floundersi, a worm-like organism
Shibantan Lagerstätte	551-543 Ma	Hubei, China	A terminal Ediacaran fossil assemblage preserving life forms living just before the Proterozoic-Phanerozoic transition.[18]
Gaojiashan Lagerstätte	551-541 Ma	Shaanxi, China	A lagerstätte documenting tube growth patterns of Cloudina.[19]
Jiucheng Member	551-543 Ma	Yunnan, China	A latest Ediacaran macrofossil biota dominated by giant, unbranching thallophytes.[20]
Khatyspyt Lagerstätte	544 Ma	Yakutia, Russia	A Late Ediacaran lagerstätte preserving an Avalon-type biota.[21]
Bernashivka open pit	? (Upper Vendian)	Vinnytsia Oblast, Ukraine	A Late Ediacaran lagerstätte with numerous soft-bodied animals, algae, microfossils, bacteria, and fungi, comprising a number of different geological formations.[22]

Cambrian

Site(s)	Age	Location	Significance	Notable fossils/organisms
Zhangjiagou	Fortunian	Shaanxi, China	A lagerstätte from the earliest Cambrian notable for its fossils of cnidarians,[23] cycloneuralians,[24][25] and the basal ecdysozoan Saccorhytus coronarius.[26]	Life restoration of Saccorhytus as it may have been seen through the lens of a microscope, living among grains of sand.
Xiaoshiba Lagerstätte	Cambrian Stage 2	Yunnan, China	A site known for its detailed preservation of Early Cambrian macroalgae.[27]
Maotianshan Shales (Chengjiang)	518 Ma	Yunnan, China	The preservation of an extremely diverse faunal assemblage renders the Maotianshan shale the world's most important for understanding the evolution of early multi-cellular life.	Haikouichthys, a primitive craniate
Qingjiang biota	518 Ma	Hubei, China	This site is particularly notable due to both the large proportion of new taxa represented (approximately 53% of the specimens), and the notable volume of soft-body tissue preservation.	Duplapex, a hymenocarine arthropod
Sirius Passet	523-518 Ma	Greenland	A site known for its fauna, and that they were most likely preserved by a death mask. It is a part of the larger Buen Formation, and has a fauna similar to the Maotianshan shales.	Kerygmachela, a dinocaridid-like lobopodian
Poleta Formation	519-518 Ma	Nevada, USA	The middle member of the formation preserves the Indian Springs Lagerstätte, one of the oldest such sites from former Laurentia. This site preserves a diversity of mineralized organisms such as trilobites and brachiopods, but also non-mineralized remains such as sponges, algae, and soft-bodied arthropods.[28]	The trilobite Nevadia
Sinsk Algal Lens	518 Ma	Yakutia, Russia	One of the oldest known Cambrian lagerstätten. The fauna of this site is unique, as it seems that they were adapted to living in dysaerobic conditions.[29]	A reconstruction of the large Lobopodian Siberion
Cranbrook Lagerstätte	Cambrian Stage 4	British Columbia	One of the oldest Burgess Shale-type biotas of North America.[30]
Tatelt Formation	515 Ma	High Atlas, Morocco	A layer in this formation has produced some of the most well-preserved trilobites ever discovered, with preserved internal organs, feeding structures, and articulated appendages. The trilobites were likely rapidly buried and preserved by a volcanic eruption.[31]	The trilobite Gigoutella mauretanica
Emu Bay Shale	513 Ma	South Australia	Noted soft tissue mineralization, most often of blocky apatite or fibrous calcium carbonate, including the oldest phosphatized muscle tissue.	Oestokerkus, a megacheiran arthropod
Parker Slate	513-511 Ma	Vermont, US	A Burgess Shale-type biota with rare but exceptionally preserved soft-bodied animals. The earliest Burgess Shale-type biota to be described, being documneted 25 years before the Burgess Shale itself.[32]
Kaili Formation	513–501 Ma	Guizhou, China	The middle part of the Kaili Formation, the Oryctocephalus indicus Zone, contains a Burgess Shale-type lagerstätte with many well-preserved fossils known collectively as the Kaili Biota.	Pararotadiscus a cambroernid animal
Murero Lagerstätte	511-503 Ma	Spain	Thanks to the paleontological content, mainly trilobites, fourteen biozones have been established, the most precise biozonation for this time interval in the world. It also records in detail the so-called Valdemiedes event, the mass extinction episode at the end of the Lower Cambrian.[33]	Eccaparadoxides trilobites showing sexual dimorphism
Blackberry Hill	~510–500 Ma	Central Wisconsin, US	This site preserves some of the oldest evidence of multicellular life walking out of the ocean, and onto dry land (in the form of large mollusks and euthycarcinoid arthropods). Other notable fossils include stranded scyphozoans, and some of the oldest true crustaceans (in the form of phyllocarids).	Mosineia, a euthycarcinoid arthropod
Henson Gletscher Formation	Wuliuan	North Greenland	A phosphatised lagerstätte preserving hatching priapulid larvae, pentastomids[34] and abundant bradoriid and phosphatocopid arthropods.[35]
Burgess Shale	508 Ma	British Columbia, Canada	One of the most famous fossil localities in the world. It is famous for the exceptional preservation of the soft parts of its fossils. At 508 million years old (middle Cambrian), it is one of the earliest fossil beds containing soft-part imprints.	Anomalocaris, a predatory radiodont
Spence Shale	507 Ma	Northeastern Utah, Southeastern Idaho, US	A site known for its abundant Cambrian trilobites and the preservation of Burgess Shale-type fossils. The type locality for this site is Spence Gulch in southeastern Idaho.	Hyoliths, most likely lophophorates
Linyi Lagerstätte	504 Ma	Shandong, China	A lagerstätte recognised for its exceptional preservation of arthropod limbs, intestines, and eyes.[36]	Restoration of the Linyi Lagerstätte
Ravens Throat River Lagerstätte	Drumian	Northwest Territories	A Burgess Shale-type biota coeval in age with the more famous Wheeler Shale and Marjum Formation.[37]
Wheeler Shale (House Range)	504 Ma	Western Utah, US	A world-famous locality known for its prolific agnostid and Elrathia kingii trilobite remains. Varied soft bodied organisms are also locally preserved, including Naraoia, Wiwaxia and Hallucigenia.	Elrathia sp. trilobites
Marjum Formation	502 Ma	Western Utah, US	A site known for its occasional preservation of soft-bodied tissue, and diverse assemblage.	Branchiocaris a pelagic hymenocarine
Weeks Formation	500 Ma	Western Utah, US	A site that is dominated by trilobites and brachiopods, but also comprising various soft-bodied organisms, such as Falcatamacaris.	Beckwithia, an aglaspidid trilobite relative
Kinnekulle Orsten and Alum Shale	500 Ma	Sweden	The Orsten sites reveals the oldest well-documented benthic meiofauna in the fossil record. Fossils such as microfossils of arthropods like free-living pentastomids are known. Multiple "Orsten-type" lagerstätten are also known from other countries.	Cambropachycope, a stem-group mandibulate arthropod

Ordovician

Site(s)	Age	Location	Significance	Notable fossils/organisms
Fezouata Formation	about 485 Ma	Draa Valley, Morocco	It was deposited in a marine environment, and is known for its exceptionally preserved fossils, filling an important preservational window beyond the earlier and more common Cambrian Burgess shale-type deposits.	Aegirocassis, a giant hurdiid radiodont
Cabrieres biota	Floian	Montagne Noire, France	A polar marine ecosystem from the Early Ordovician that likely served as a refuge from the high temperatures of the epoch.[38]
Liexi fauna	About 470 Ma (early-middle Floian)	Hunan Province, China	Preserves Early Ordovician fauna with soft tissue, includes not only Cambrian relics but also taxa originated during Ordovician.[39]
Castle Bank	About 461 Ma	Llandrindod Wells, Wales	A unique environment deposited during the middle Ordovician that possibly shows iconic groups from Cambrian lagerstättes, like Opabiniids and Megacheirans, survived for longer than what was thought.	Diagram of Mieridduryn, an opabiniid-like panarthropod
Douglas Dam Member[40]	460 Ma	Tennessee, US	Low-diversity assemblage of arthropod fossils, which are preserved well because of volcanic ash.	Chasmataspis, a horseshoe crab-like chasmataspid arthropod
Winneshiek Shale	460 Ma	Decorah, Iowa	A Middle Ordovician site confined to a large impact Crater that is known for exceptionally exquisite preservation of conodonts, bivalved arthropods, and the earliest eurypterids in the fossil record.[41]	Pentecopterus, the oldest known eurypterid
Beecher's Trilobite Bed	460? Ma	New York, US	Noted exceptionally preserved trilobites with soft tissue preserved by pyrite replacement. Pyritisation allows the use of X-rays to study fine detail of preserved soft body parts.	A pair of Triarthrus trilobites with pyritized soft-tissue
Harding Sandstone[40]	? (Sandbian)	Colorado, US	Although preservation is not excellent, this lagoonal site provides early vertebrate fossils such as Astraspis and Eriptychius.	Eriptychius, an early agnathan
Walcott-Rust Quarry	about 455? Ma	New York, US	This site is an excellent example of an obrution (rapid burial or "smothered") Lagerstätte. Unique preservation of trilobite appendages resulted from early cementation of the surrounding rock and spar filling of the interior cavity of the appendages.	Isotelus gigas, a large asaphid trilobite
Big hill Lagerstätte	about 450? Mya	Michigan, US	A site known for its preservation of soft-bodied medusae (jellyfish), as well as linguloid brachiopods, algae, and arthropods (namely chasmataspidids, leperditid ostracods, and eurypterids).	Hoplitaspis, chasmataspid arthropod
Brechin Lagerstätte	450 Ma	Ontario, Canada	Known for preserving one of the most diverse crinoid fauna of the Katian.[42]	Tomlinsonus, a marrellomorph
Soom Shale	450? Ma	South Africa	Known for its remarkable preservation of soft-tissue in fossil material. Deposited in still waters, the unit lacks bioturbation, perhaps indicating anoxic conditions.	Promissum, a conodont known from rare soft-tissues
Tafilalt Biota	? (Sandbian-middle Katian)	Tafilalt, Morocco	Known from range of non-biomineralised and soft-bodied organisms in polar environment.[43]	"Eldonia" barvera, an eldoniid
Cat Head Member[40]	? (middle Katian)	Manitoba, Canada	Fossils like algae, conulariids and trilobites are known from this site.
Georgian Bay Formation[40]	449-445.6 Ma	Manitoulin, Canada	Low-diversity assemblage of arthropod fossils.	Orcanopterus, a middle-sized waeringopterid eurypterid
William Lake (Stony Mountain Formation)[40]	445 Ma	Manitoba, Canada	Well-preserved fossils like jellyfish, xiphosurans, sea spiders are known from this site, it is important since many of the fossils are unknown in other Ordovician sites.	Lunataspis aurora, an early xiphosuran known in two sites
Airport Cove[40]	445 Ma	Manitoba, Canada	Fossils like eurypterids, algae and xiphosurans are preserved in this site.

Silurian

Site(s)	Age	Location	Significance	Notable fossils/organisms
Kalana Lagerstätte	~440 Ma Aeronian	Estonia	Known for well preserved fossils of algae and crinoids,[44] along with an osteostracan fossilised via an extremely unusual carbonaceous mode of preservation that was previously unknown among vertebrates.[45]	Kalanaspis, the earliest known osteostracan
Chongqing Lagerstätte (Huixingshao Formation)[46]	436 Ma	Chongqing, China	This site preserved complete fossils of earliest jawed vertebrates, as well as some galeaspids and eurypterids.	Xiushanosteus, the earliest placoderm
Waukesha Biota (Brandon Bridge Formation)	~435 Ma Early Silurian	Wisconsin, US	Well-studied site known for the exceptional preservation of its diverse, soft-bodied and lightly skeletonized fauna, includes many major taxa found nowhere else in strata of similar age. It was one of the first fossil sites with soft bodied preservation known to science.	Parioscorpio, an enigmatic arthropod
Herefordshire Lagerstätte (Coalbrookdale Formation)	~430 Ma	Herefordshire, UK	Known for the well-preserved fossils of various invertebrate animals many of which are in their three-dimensional structures. Fossils are preserved within volcanic ash, because of that sometimes this site has been compared to Pompeii.[47] Some of the fossils are regarded as earliest evidences and evolutionary origin of some of the major groups of modern animals.	Offacolus, a euchelicerate
Eramosa Lagerstätte	~425 Ma	Ontario & New York (state)	Known for preservation of both hard and soft bodied organisms in great detail, including early scorpions, eurypterids, agnathan vertebrates, and several other species.	Eramoscorpius, an early scorpion
Bertie Group	422.9-416 Ma	Ontario & New York State	This limestone have produced thousands of fossil eurypterids, such as giant Acutiramus and well-known Eurypterus, as well as other fauna like scorpions and fish.	Nerepisacanthus, an acanthodian
Tonoloway Formation[48]	~420 Ma	Pennsylvania, US	Known from exceptionally preserved mass assemblage of Eurypterus, the most abundant eurypterid in the fossil record.	Reconstruction of Eurypterus
Rochester Shale	415 Ma[49]	New York, US and Ontario, Canada	Echinoderms (such as crinoids) and trilobites are known from Lewiston Member in this shale.	Arctinurus, one of the trilobites from this site

Devonian

Site(s)	Age	Location	Significance	Notable fossils/organisms
Rhynie chert	400 Ma	Scotland, UK	The Rhynie chert contains exceptionally preserved plant, fungus, lichen and animal material (euthycarcinoids, branchiopods, arachnids, hexapods, etc) preserved in place by an overlying volcanic deposit and hot springs. As well as one of the first known fully terrestrial ecosystems.	Asteroxylon, an early vascular plant related to lycopods
Waxweiler Lagerstätte (Klerf Formation)	409-392 Ma	Eifel, Germany	Waxweiler Lagerstätte is known from well-preserved fossils of chelicerates, giant claw of Jaekelopterus rhenaniae shows the largest arthropod ever known.	Jaekelopterus, around 2.5 m-long eurypterid
Heckelmann Mill	395 Ma	Rhineland-Palatinate, Germany	Heckelmann Mill preserves well preserved rhinocaridid archaeostracan phyllocarids,[50] along with exceptionally abundant crinoid holdfasts from the late Emsian.[51]
Hunsrück Slates (Bundenbach)	390 Ma	Rheinland-Pfalz, Germany	The Hunsrück slates are one of the few marine Devonian lagerstätte having soft tissue preservation, and in many cases fossils are coated by a pyritic surface layer.	Schinderhannes bartelsi, the youngest known radiodont
Gogo Formation	380 Ma (Frasnian)	Western Australia	The fossils of the Gogo Formation display three-dimensional soft-tissue preservation of tissues as fragile as nerves and embryos with umbilical cords. Over fifty species of fish have been described from the formation, and arthropods.	Materpiscis, a ptyctodontid placoderm fish that is the oldest vertebrate known to give live birth
Miguasha National Park (Escuminac Formation)	370 Ma	Québec, Canada	Some of the fish, fauna, and spore fossils found at Miguasha are rare and ancient species. For example, Eusthenopteron is sarcopterygian that shares characters with early tetrapods.	Fossil of lungfish Scaumenacia and antiarch placoderm Bothriolepis
Kowala Lagerstätte	~368 Ma	Świętokrzyskie Voivodeship, Poland	A Late Devonian site known for its fossils of non-biomineralised algae and arthropods.[52]
Maïder Basin	368 Ma (for Thylacocephalan Layer)	Anti-Atlas, Morocco	Thylacocephalan Layer and Hangenberg Black Shale in this basin provides well-preserved fossils of Famennian fauna, including chondrichthyans and placoderms that preserved soft tissues.[53]	Amazichthys, pelagic placoderm with preserved soft tissue
Strud[54]	? (Late Famennian)	Namur Province, Belgium	Mainly juvenile placoderms are known, suggesting this site would be nursery site of placoderms.[55] Various biota like tetrapods, arthropods and plants are also known, Strudiella from this site may be the earliest insect, but its affinity is disputed.	Strudops, the earliest known notostracan.
Canowindra, New South Wales (Mandagery Sandstone)	360 Ma	Australia	An accidentally discovered lagerstätte known for its exceptional preservation of Sarcopterygian and Placoderm fish.	Mandageria, a lobe-finned fish that is the NSW State Fossil Emblem in Australia
Waterloo Farm Lagerstätte (Witpoort Formation)	360 Ma	South Africa	Important site that providing the only record of a high latitude (near polar) coastal ecosystem, overturning numerous assumptions about high latitude conditions during the latest Devonian.	Priscomyzon, the oldest known genus of lamprey

Carboniferous

Site(s)	Age	Location	Significance	Notable fossils/organisms
Granton Shrimp Bed	? (Dinantian)	Firth of Forth, Scotland	Dominated by well-preserved crustacean fossils, this site provided first body fossil of Clydagnathus which solved long-lasted mystery of conodont fossils.
East Kirkton Quarry[56]	335 Ma	West Lothian, Scotland	This site has produced numerous well-preserved fossils of early tetrapods like temnospondyls or reptiliomorphs, and large arthropods like scorpions or eurypterids.	Silvanerpeton, a possible reptiliomorph
Bear Gulch Limestone	324 Ma	Montana, US	A limestone-rich geological lens in central Montana. It is renowned for its unusual and ecologically diverse fossil composition of chondrichthyans, the group of cartilaginous fish containing modern sharks, rays, and chimaeras. Other animals like brachiopods, ray finned fish, arthropods, and the possible mollusk Typhloesus are also known from the site.	Falcatus, a holocephalian which males had large fin spine
Wamsutta Formation	~320-318 Ma	Massachusetts	A subhumid alluvian fan deposit that preserves ichnofossils, plants, invertebrates, and vertebrates.[57]
Bickershaw[58]	? (Langsettian)	Lancashire, England	This locality contains exceptionally preserved fossils within nodules. Arthropods have greater diversity, many of which are aquatic ones that lived in brackish environment.	Valloisella, a xiphosuran
Joggins Fossil Cliffs (Joggins Formation)	315 Ma	Nova Scotia, Canada	A fossil site that preserves a diverse terrestrial ecosystem consisting of plants like lycopsids, giant arthropods, fish, and the oldest known sauropsid, Hylonomus.	Hylonomus, the oldest known sauropsid in the fossil record
Castlecomer fauna	315-307	Kilkenny, Ireland	A konservat-lagerstätte with a high number of well-preserved spinicaudatan clam shrimp.[59][60]
Linton Diamond Coal Mine[61][62]	310 Ma	Ohio, US	A site known for its number of prehistoric tetrapods, like the lepospondyl Diceratosaurus.[63]	The lepospondyl tetrapod Diceratosaurus
Mazon Creek	310 Ma	Illinois, US	A conservation lagerstätte found near Morris, in Grundy County, Illinois. The fossils from this site are preserved in ironstone concretions with exceptional detail. The fossils were preserved in a large delta system that covered much of the area. The state fossil of Illinois, the enigmatic animal Tullimonstrum, is only known from these deposits.	Tullimonstrum, an enigmatic animal
Buckhorn Asphalt Quarry	~310 Ma	Oklahoma, USA	A quarry of the Boggy Formation known for its exceptionally rich orthocerid assemblage.[64]
Kinney Brick Quarry (Atrasado Formation)	around 307 Ma	New Mexico, US	This site is known from rich fish fossils with preserved soft tissues, that lived in lagoonal environment. Dozens of fish genera are known, ranging from chondrichthyans like ctenacanths and hybodonts, to actinopterygians and sarcopterygians.[65]	Dracopristis, a ctenacanth
Campáleo Outcrop	Gzhelian	Santa Catarina, Brazil	A fungal and palynological lagerstätte from Gondwana during Late Palaeozoic Ice Age.[66]
Montceau-les-Mines	300 Ma	France	Exceptional preservation of Late Carboniferous fossil biota are known, including various vertebrates and arthropods, as well as plants.[67][68]	Idmonarachne, an arachnid that is related to spiders
Hamilton Quarry	300 Ma	Kansas, US	This site is known for its diverse assemblage of unusually well-preserved marine, euryhaline, freshwater, flying, and terrestrial fossils (invertebrates, vertebrates, and plants). This extraordinary mix of fossils suggests it was once an estuary.	Spinoaequalis, a semi-aquatic diapsid
Carrizo Arroyo	? (Latest Gzhelian to earliest Asselian)	New Mexico, US	This site is known from exceptional preservation of arthropod fossils, mainly insects.[69]

Permian

Site(s)	Age	Location	Significance	Notable fossils/organisms
Taiyuan Formation	298 Ma	Inner Mongolia, China	Known from exceptionally well-preserved plant fossils in volcanic ash.[70][71]
Meisenheim Formation[72]	?(Asselian to early Sakmarian)[73]	Lebach, Germany	This site is well-known for the rich occurrence of fauna lived in large freshwater lakes, including fish, temnospondyls, insects and others.	Lebachacanthus, a large-sized xenacanth
Franchesse	292 Ma	Massif Central, France	A Sakmarian seymouriamorph lagerstätte from the Bourbon l'Archambault Basin in the French Massif Central containing hundreds of complete seymouriamorph specimens.[74]
Chemnitz petrified forest	291 Ma	Saxony, Germany	A petrified forest in Germany that is composed of Arthropitys bistriata, a type of Calamites, giant horsetails that are ancestors of modern horsetails, found on this location with never seen multiple branches. Many more plants and animals from this excavation are still in an ongoing research.[75]	Large trunks of Arthropitys at Chemnitz
Mangrullo Formation	about 285–275 Ma (Artinskian)	Uruguay	This site is known for its abundant mesosaur fossils. It also contains the oldest known konservat-lagerstätte in South America, as well as the oldest known fossils of amniote embryos.[76]	Stereosternum, an aquatic mesosaurid reptile
Chekarda (Koshelevka Formation)	about 283–273 Ma	Perm, Russia	Over 260 species of insect species are described from this site as well as diverse taxa of plants, making it one of the most important Permian konservat-lagerstätten.[77]	Tshekardocoleidae beetle larva
Toploje Member	273-264 Ma	Prince Charles Mountains, Antarctica	This site preserves a high-latitude fauna in exceptional position before the large extinctions that happened later in the Permian.[78]
Onder Karoo	266.9–264.28 Ma	Karoo Basin, South Africa	A high latitude, cool-temperate lacustrine ecosystem preserving detailed plant and insect fossils.[79]
Sakamena Group[80]	260–247 Ma	Madagascar	Lower Sakamena Formation (Permian) and Middle Sakamena Formation (Triassic) contain fossils of animals lived around wetland environment, such as semi-aquatic and gliding neodiapsids.	Claudiosaurus, aquatic neodiapsid reptile
Kupferschiefer	259–255 Ma	Central Europe	This site deposited in an open marine and shallow marine environment provides fossils of reptiles as well as many fish.	Weigeltisaurus, gliding weigeltisaurid reptile
Huopu Lagerstätte	~255 Ma	Guizhou, China	A plant fossil site documenting floral dynamics between the end-Guadalupian and end-Permian extinction events.[81]

Triassic

Site(s)	Age	Location	Significance	Notable fossils/organisms
Guiyang biota[82]	250.8 Ma	Guizhou Province, China	The oldest known Mesozoic lagerstätte (Dienerian). It preserves taxa belonging to 12 classes and 19 orders, including several species of fish.	Teffichthys elegans, a perleidiform ray-finned fish .
Paris biota[83]	~249 Ma	Idaho, Nevada, USA	This earliest Spathian aged assemblage preserves fossils belonging to 7 phyla and 20 orders, combining Paleozoic groups (e.g. leptomitid protomonaxonid sponges otherwise known from the early Paleozoic) with members of the Modern evolutionary fauna (e.g. gladius-bearing coleoids).	Ankitokazocaris triassica is a thylacocephalan from the Paris biota
Jialingjiang Formation[84]	249.2–247.2 Ma	Hubei Province, China	This site preserved aquatic reptiles soon after Permian extinction. Hupehsuchians are exclusively known from here, and already got unique ecology like filter feeding.	Eretmorhipis, a hupehsuchian that potentially had platypus-like ecology
Nanlinghu Formation[84]	248 Ma	Anhui Province, China	This site provides important fossils to show early evolution of ichthyosauriforms.	Cartorhynchus, a primitive ichthyosauriform
Petropavlovka Formation	248 Ma	Orenburg Oblast, Russia	A site known for preserving oligochaetes, whose fossil record is extremely sparse.[85]
Zarzaïtine Formation	Olenekian-Anisian	In Amenas, Algeria	A site with a high number of exceptionally well-preserved temnospondyl specimens, indicating of a seasonal climate with sudden droughts, with a freshwater ecosystem that could rapidly turn into a sebkha.[86]
Luoping Biota (Guanling Formation)[87]	~247-245 Ma	Yunnan, China	Various marine animals are preserved in this site, showing how marine ecosystem recovered after Permian extinction.[88]	Atopodentatus, a herbivorous marine reptile that possessed a hammer-shaped head.
Grès à Voltzia	245 Ma	France	A fossil site remarkable for its detailed myriapod specimens.[89] It also contains the earliest known aphid fossils.[90]
Fossil Hill Member	? (Anisian)	Nevada, US	One of many Anisian marine lagerstatte, the Fossil Hill Member represents an open-ocean environment with a well-preserved fauna largely dominated almost entirely by ichthyosaurs.[88]	The large ichthyosaur Thalattoarchon
Vossenveld Formation	? (Anisian)	Winterswijk,Netherlands	An exposure of this Muschelkalk formation in the Winterswijk quarry has a diverse assemblage of well-preserved marine reptiles, amphibians, fishes, and plants. It is the only marginal marine assemblage recorded from the earlier Triassic.[88]
Strelovec Formation	? (Anisian)	Slovenia	A formation with well-preserved Triassic horseshoe crabs.[91]
Saharonim Formation	Late Anisian/Lower Ladinian	Southern District, Israel	One brachiopod-dominated horizon of this formation documents the rapid burial of a community of exclusively juvenile Coenothyris brachiopods and ten different bivalve genera.[92]
Besano Formation[84]	242 Ma	Alps, Italy and Switzerland	This formation is designated as a World Heritage Site, as it is famous for its preservation of Middle Triassic marine life including fish and aquatic reptiles.[88][93]	Tanystropheus, a long-necked archosauromorph
Xingyi biota (Zhuganpo Formation)[84]	? (Upper Ladinian - Lower Carnian)	Guizhou and Yunnan, China	Previously considered as part of Falang Formation, this site yields many articulated skeletons of marine reptiles, as well as fish and invertebrates.	Keichousaurus, common sauropterygian from this site
Guanling biota (Xiaowa Formation)[84]	? (Carnian)	Guizhou, China	Like Xingi Biota, this site also yields well-preserved marine fauna, especially many species of thalattosaurs are known.	Odontochelys, an early pantestudine (relative of turtles)
Polzberg	233 Ma	Austria	A site from the Reingrabener Schiefer known for exceptional preservation of bromalites[94] and of cartilage,[95] deposited during the Carnian Pluvial Event.[96]	Fossil invertebrates from Polzberg
Madygen Formation	230 Ma	Kyrgyzstan	The Madygen Formation is renowned for the preservation of more than 20,000 fossil insects, making it one of the richest Triassic lagerstätten in the world. Other vertebrate fossils as fish, amphibians, reptiles and synapsids have been recovered from the formation too, as well as minor fossil flora.	Longisquama, a bizarre reptile with long growths protruding from its back
Cow Branch Formation	230 Ma	Virginia, US	This site preserves a wide variety of organisms (including Fish, reptiles, arachnids, and insects).	Mecistotrachelos, a gliding reptile distantly related to archosauromorphs, like crocodylians and dinosaurs
Alakir Çay	? (Norian)	southwest Turkey	A konservat-lagerstätte with exceptionally well-preserved Triassic corals, retaining much of their original aragonite skeletons.[97]

Jurassic

Site(s)	Age	Location	Significance	Notable fossils/organisms
Osteno (Moltrasio Formation)[98]	196-188 Ma	Italy	Several kinds of marine biota such as fish, crustaceans, cephalopods polychaetes, and nematodes have been recovered. This site is the only fossil deposit in Italy in which soft bodies are preserved other than Monte Bolca.	Ecological reconstruction in the site, showing thylacocephalan Ostenocaris and cephalopod Ostenoteuthis
Ya Ha Tinda	183 Ma	Alberta, Canada	A fossil site notable for containing abundant and extremely well-preserved vampire squid, being the largest concentration of vampire squid fossils outside the Tethys Ocean,[99] and for being deposited during the Toarcian Oceanic Anoxic Event (TOAE).[100][101][102]
Strawberry Bank	183 Ma	Somerset, England	A site from the TOAE documenting marine life during the recovery from the Triassic-Jurassic extinction event as well as the turmoil of the TOAE.[103] The oldest pseudoplanktonic barnacles in the fossil record,[104] near-complete ichthyosaur skeletons,[105] and evidence of ichthyosaur niche partitioning are preserved at this site.[106]
Holzmaden/Posidonia Shale	183 Ma	Württemberg, Germany	The Sachrang member is among the most important formations of the Toarcian boundary, due to the concentrations of exceptionally well-preserved complete skeletons of fossil marine fish and reptiles. It was also deposited during the TOAE.[107][108]	A specimen of the ichthyosaur Stenopterygius crassicostatus with preserved young
Cabeço da Ladeira	Late Bajocian	Portugal	A site known for exquisite preservation of microbial mats in a tidal flat.[109]
Monte Fallano	? (Bajocian-Bathonian)	Campania, Italy	This Plattenkalk preserves fossils of terrestrial plants, crustaceans and fish.[110]
Christian Malford	Callovian	Wiltshire, England	A site in the Oxford Clay Formation which preserves exceptionally detailed coleoid fossils.[111]
Mesa Chelonia[112]	164.6 Ma	Shanshan County, China	This site is notable because it contains a large turtle bonebed, containing specimens of the genus Annemys. This bonebed contains up to an estimated 36 turtles per square meter.
La Voulte-sur-Rhône	160 Mya	Ardèche, France	La Voulte-sur-Rhône, in the Ardèche region of southwestern France, offers paleontologists an outstanding view of an undisturbed paleoecosystem that was preserved in fine detail. Notable finds include retinal structures in the eyes of thylacocephalan arthropods, and fossilized relatives of the modern day vampire squid, like Vampyronassa rhodanica.	A rare well-preserved cephalopod, Rhomboteuthis
Shar Teeg Beds	160-145 Mya	Govi-Altay, Mongolia	Many of insect remains and some vertebrates like relatives of crocodilians are known from this site.[113]
Karabastau Formation	155.7 Ma	Kazakhstan	This site is an important locality for insect fossils that has been studied since the early 20th century, alongside the rarer remains of vertebrates, including pterosaurs, salamanders, lizards and crocodiles.	Sordes, small pterosaur with visible soft-tissues preserved
Tiaojishan Formation	165-153 Ma	Liaoning Province, China	It is known for its exceptionally preserved fossils, including those of plants, insects and vertebrates. It is made up mainly of pyroclastic rock interspersed with basic volcanic and sedimentary rocks.	Anchiornis, small feathered anchiornithid dinosaur
La Casita Formation	Kimmeridgian	Coahuila, Mexico	A marine konzentrat-lagerstätte deposited in a hemipelagic mud bottom during dysoxic conditions.[114]
Talbragar fossil site[115]	151 Ma	New South Wales, Australia	This bed is part of Purlawaugh Formation, and provided fauna like fish and insects that lived around the lake.	Cavenderichthys, a teleost known from this site
Cleveland-Lloyd Dinosaur Quarry	150 Ma	Utah, US	Jurassic National Monument, at the site of the Cleveland-Lloyd Dinosaur Quarry, well known for containing the densest concentration of Jurassic dinosaur fossils ever found, is a paleontological site located near Cleveland, Utah, in the San Rafael Swell, a part of the geological layers known as the Morrison Formation. Up to 15,000 have been excavated from this site alone.	Allosaurus, the largest predator of the quarry
Canjuers Lagerstätte	150 Ma	France	This site shows a high amount of biodiversity, including reptiles, invertebrates, fish, and other organisms.	Pleurosaurus, an aquatic rhynchocephalian
Agardhfjellet Formation	150-140 Ma	Spitsbergen, Norway	The formation contains the Slottsmøya Member, a highly fossiliferous unit where many ichthyosaur and plesiosaur fossils have been found, as well as abundant and well preserved fossils of invertebrates.	Pliosaurus funkei, a large thalassophonean pliosaurid which was informally known as "Predator X"
Solnhofen Limestone	149-148 Ma	Bavaria, Germany	This site is unique as it preserves a rare assemblage of fossilized organisms, including highly detailed imprints of soft bodied organisms such as sea jellies. The most familiar fossils of the Solnhofen Plattenkalk include the early feathered theropod dinosaur Archaeopteryx preserved in such detail that they are among the most famous and most beautiful fossils in the world.	The Berlin Specimen of Archaeopteryx lithographica
Owadów–Brzezinki site	~148 Ma	Łódź Voivodeship, Poland	A marine deposit of the Kcynia Formation similar to the Solnhofen Formation, with large numbers of preserved insect remains, numerous marine invertebrates, and vertebrates including fishes, marine reptiles, and pterosaurs.[116][117]	Fossil of the horseshoe crab Crenatolimulus darwini

Cretaceous

Site(s)	Age	Location	Significance	Notable fossils/organisms
Angeac-Charente bonebed	~141 Ma	Charente, France	A lagerstätte preserving both vertebrate and invertebrate fossils from the poorly represented Berriasian stage known for its taphonomic and sedimentological ‘frozen scenes’.[118]
El Montsec (La Pedrera de Rúbies Formation)	~140-125 Ma	Catalonia, Spain	Known from exceptional preservation of biota such as plants, fish, insects, crustaceans and even some tetrapods.[119]	Montsecosuchus, atoposaurid crocodylomorph
Lebanese amber	~130-125 Ma (Barremian)	Lebanon	Preserves a high diversity of insects from the Early Cretaceous, and is among the oldest known fossilized amber to contain a significant number of preserved organisms.[120] Includes many of the oldest known members of modern insect groups, and many of the youngest known members for extinct insect groups.[121]	Preserved larval lacewings (Tragichrysa ovoruptora)
Las Hoyas	about 125 Ma (Barremian)	Cuenca, Spain	The site is mostly known for its exquisitely preserved dinosaurs, especially enantiornithines. The lithology of the formation mostly consists of lacustarine limestone deposited in a freshwater wetland environment.	Concornis, an early enantiornithean
Yixian Formation	about 125–121 Ma (Barremian-Aptian)	Liaoning, China	The Yixian Formation is well known for its great diversity of well-preserved specimens and its feathered dinosaurs, such as the large tyrannosauroid Yutyrannus, the therizinosaur Beipiaosaurus, and various small birds, along with a selection of other dinosaurs, such as the iguanodontian Bolong, the sauropod Dongbeititan and the ceratopsian Psittacosaurus. Other biota included the troodontid Mei, the dromaeosaurid Tianyuraptor, and the compsognathid Sinosauropteryx.	Sinosauropteryx, the first non-avain dinosaur with evidence of feathers to have been recognized
Jiufotang Formation	about 122-119 Ma (Aptian)	Liaoning, China	This formation overlies the slightly older Yixian Formation and preserved very similar species, including a wide variety of dinosaurs such as the ceratopsian Psittacosaurus and the early bird Confuciusornis, both of which are also found in the Yixian Formation. Also notable are the very abundant specimens of the dromaeosaurid Microraptor, which is known from up to 300 specimens and is among the most common animals found here.	Microraptor had four wings and is believed to have evolved powered flight independently of true birds.
Khasurty Fossil Site	? (Aptian)	Buryatia, Russia	One of the largest fossil insect sites in northern Asia, with over 6000 fossilized insect specimens preserved in mudstones, representing over 16 orders and 130 families. Taxa have both Jurassic & Cretaceous affinities. Fossils of other invertebrates such as arachnids & crustaceans are also known, in addition to small plants and fragmentary vertebrate remains such as fish scales and bird feathers.[122]
Shengjinkou Formation	about 120 Ma	Xinjiang, China	Part of the finds from this site consisted of dense concentrations of pterosaur bones, associated with soft tissues and eggs. The site represented a nesting colony that storm floods had covered with mud. Dozens of individuals could be secured from a total that in 2014 was estimated to run into the many hundreds.	Hamititan, a large titanosaurian sauropod
Xiagou Formation	about 120–115? Ma	Gansu, China	This site is known outside the specialized world of Chinese geology as the site of a lagerstätte in which the fossils were preserved of Gansus yumenensis, the earliest true modern bird.	Gansus is among the earliest known modern birds
Paja Formation	130-113 Ma	Colombia	This site is famous for its vertebrate fossils and is the richest Mesozoic fossiliferous formation of Colombia. Several marine reptile fossils of plesiosaurs, pliosaurs, ichthyosauras and turtles have been described from the formation and it hosts the only dinosaur fossils described in the country to date; the titanosauriform sauropod Padillasaurus.	Desmatochelys, a protostegid and one of the oldest known turtle fossils
Koonwarra Fossil Bed[123]	around 118-115 Ma	Victoria, Australia	This site is composed of mudstone sediment thought to have been laid down in a freshwater lake. Arthropods, fish and plant fossils are known from this site.	Tarwinia, a large sized stem-flea
Crato Formation	113 Ma	northeast Brazil	The Crato Formation earns the designation of lagerstätte due to an exceedingly well preserved and diverse fossil faunal assemblage. Some 25 species of fossil fishes are often found with stomach contents preserved, enabling paleontologists to study predator-prey relationships in this ecosystem. There are also fine examples of pterosaurs, reptiles and amphibians, invertebrates (particularly insects), and plants. Also known from this site is Ubirajara, the first non-avian dinosaur from the southern hemisphere with evidence of feathers. Additionally, the formation abounds with evidence of plant-insect interaction.[124]	Tupandactylus, a fossil pterosaur that was preserved with feathers and other soft tissues intact
Amargosa Bed (Marizal Formation)	? (Aptian-Albian)	northeast Brazil	Fluvial site which preserved fish, crustacean and plant fossils.[125]
Pietraroja Plattenkalk	113-110 Ma	Campania, Italy	A konservat-lagerstätte famous for its diverse and well-preserved fish and plant fossils. Also known from this formation is Scipionyx, one of Europe's most well-preserved dinosaurs.[126][127]	Scipionyx, a small dinosaur with preserved internal organs.
Jinju Formation	112.4–106.5 Ma	South Korea	The Jinju Formation is notable for the post-Jehol Group insect assemblage,[128] as well as other fauna such as isopods and fish.[129][130] The site is also notable for its abundance and diversity of tetrapod trackways.[131]	Coptoclavidae beetle larva preserved at this locality
Tlayúa Formation	110 Ma	Puebla, Mexico	A marine lagerstätte preserving Albian actinopterygians and lepidosaurs.[132]	Cipactlichthys, example of fish from this site
Romualdo Formation	108–92 Ma	northeast Brazil	The Romualdo Formation is a part of the Santana Group and has provided a rich assemblage of fossils; flora, fish, arthropods insects, turtles, snakes, dinosaurs, such as Irritator, and pterosaurs, including the genus Thalassodromeus. The stratigraphic units of the group contained several feathers of birds, among those the first record of Mesozoic birds in Brazil.	Tapejara, a common pterosaur in Brazil during the Early Cretaceous
Muhi Quarry (El Doctor Formation)	? (Albian to Cenomanian, probably Late Albian)[133]	Hidalgo, Mexico	While this site produced limestones for construction, rocks in that locality contain a diverse Cretaceous marine biota such as fish, ammonites and crustaceans.	Motlayoichthys, a member of Pachyrhizodontidae
Puy-Puy Lagerstätte	100.5 Ma	France	A paralic site preserving a variety of ichnofossils,[134] along with some vertebrate remains.[135] The site preserves evidence of plant-insect interaction.[136]
Burmese amber	101-99 Ma (latest Albian/earliest Cenomanian)	Myanmar	More than 1,000 species of taxa have been described from ambers from Hukawng Valley. While it is important for understanding the evolution of biota, mainly insects, during the Cretaceous period, it is also extremely controversial by facing ethical issues due to its association with conflicts and labor conditions.	Oculudentavis, small-sized lizard
English Chalk	100-90 Ma (Cenomanian to Turonian)	England	Two subsections of England's famous chalk formation, the Grey Chalk Subgroup and the lower sections of the White Chalk Subgroup, yield three-dimensionally preserved fossils of marine fishes. This exquisite level of preservation is unlike fish fossils from other deposits from around the same time, which are only preserved as two-dimensional compression fossils.[137]	Fossil of the fish Aulolepis typus
Haqel/Hjoula/al-Nammoura	95-94 Ma	Lebanon	Famous Lebanese konservat-lagerstätten of the Late Cretaceous (middle to late Cenomanian) age, which contain a well-preserved variety of different fossils. Small animals like shrimp, octopus, stingrays, and bony fishes are common finds at these sites. Some of the rarest fossils from this locality include those of octopuses.[138]	Ichthyoceros, pycnodont actinopterygian
Komen Limestone	95-94 Ma	Komen, Slovenia	A Late Cenomanian locality in the Karst of Slovenia with a high diversity of articulated fossil fish, in addition to small reptiles and invertebrates.[139]	The marine lizard Carsosaurus
Hesseltal Formation	94–93 Ma	Saxony & North Rhine-Westphalia, Germany	Deposited during the anoxic conditions of the Cenomanian-Turonian boundary event, this formation has a high number of well-preserved, articulated fish skeletons, in addition to exceptionally preserved ammonites with soft parts.[140][141]	The billfish-like Rhamphoichthys
Vallecillo (Agua Nueva Formation)	94–92 Ma	Nuevo León, Mexico	The site is noted for its qualities as a konservat-lagerstätte, with notable finds including the plesiosaur Mauriciosaurus and the possible shark Aquilolamna.	Mauriciosaurus, a short-necked plesiosaur
Akrabou Formation (Gara Sbaa/Agoult & Goulmima)	? (Turonian)	Asfla, Morocco	Marine site known for exceptionally preserved, three-dimensional fish fossils.[142][143]	Grandemarinus, an early gar
Orapa diamond mine	Turonian	Botswana	An insect lagerstätte known for being one of the few entomofaunas from southern Africa, containing a variety of insects,[144] particularly beetles.[145][146]
New Jersey amber	91-89 Ma	New Jersey, US	Turonian-aged amber from the Raritan & Magothy Formations of New Jersey, with a high diversity of well-preserved insects, plants and fungi.[147]	Sphecomyrma, an early ant
Lower Idzików beds	87-86 Ma (Coniacian)	Lower Silesian Voivodeship, Poland	An exposure of these beds near Stary Waliszów contains a konzentrat-lagerstätte of numerous Cretaceous marine invertebrates in concretions, including decapods, molluscs and echinoderms, as well as well-preserved plant fossils that indicate a nearshore environment. Very well-preserved phosphatized decapod remains are known.[148]
Smoky Hill Chalk	87–82 Ma	Kansas and Nebraska, US	A Cretaceous konservat-lagerstätte known primarily for its exceptionally well-preserved marine reptiles. Also known from this site are fossils of large bony fish such as Xiphactinus, mosasaurs, flying reptiles or pterosaurs (namely Pteranodon), flightless marine birds such as Hesperornis, and turtles.	Xiphactinus is famous for being found with another fish (Gillicus) preserved in its stomach.
Ingersoll Shale	85 Ma	Alabama, US	A Late Cretaceous (Santonian) informal geological unit in eastern Alabama. Fourteen theropod feathers assigned to birds and possibly dromaeosaurids have been recovered from the unit.
Sahel Alma	~84 Ma	Lebanon	A Late Cretaceous (Santonian) konservat-lagerstätte with similar excellent preservation of marine organisms as the nearby, older Sannine Lagerstätte, but in a deep-water environment. Includes a high number of well-preserved shark body fossils, in addition to cephalopods and deepwater arthropods.[138]	Propristiophorus, an early sawshark
Auca Mahuevo	80 Ma	Patagonia, Argentina	A Cretaceous lagerstätte in the eroded badlands of the Patagonian province of Neuquén, Argentina. The sedimentary layers of the Anacleto Formation at Auca Mahuevo were deposited between 83.5 and 79.5 million years before the present and offers a view of a fossilized titanosaurid nesting site.	An egg from a titanosaurian sauropod
Ellisdale Fossil Site	79-76 Ma	New Jersey, US	A middle Campanian konzentrat-lagerstätte from the Marshalltown Formation with one of the most diverse Mesozoic vertebrate faunas of eastern North America, likely originating from a flood event. A high number of disarticulated bones of dinosaurs, fish, reptiles, amphibians, and small mammals is known, most of which are microfossils.[149]
Coon Creek Formation	76.8-76.0 Ma[150]	Tennessee and Mississippi, US	This late Campanian formation has some of the world's best-preserved remains of Cretaceous marine invertebrates (primarily mollusks and decapod crustaceans), with many retaining their original aragonitic shells and exoskeletons.[150][151]	The fossil crab Avitelmessus grapsoides, which occurs in great numbers at Coon Creek
Baumberge Formation	~75-72 Ma	North Rhine-Westphalia, Germany	A Late Campanian formation in the Baumberge of Germany with a high number of articulated fossil fish remains, in addition to shark body fossils.[140][152]	The paracanthopterygian fish Sphenocephalus
Nardò (Calcari di Melissano)[153]	~72-70 Ma (upper Campanian-lower Maastrichtian)	Apulia, Italy	This site is especially famous for its limestones containing abundant fossil fish remains.	Nardovelifer, the earliest lampriform
Harrana (Muwaqqar Chalk Marl Formation)	66.5-66.1 Ma (Late Maastrichtian)[154]	Jordan	Phosphatic deposits formed in this site are known to preserve vertebrate fossils with soft tissue, such as mosasaurs, plesiosaurs, sharks, bony fish, turtles and crocodylians.[155]	Postredectes, an example of fish fossil from this site
Zhucheng (Wangshi Group)	66 Ma	Shandong, China	Zhucheng has been an important site for dinosaur excavation since 1960. The world's largest hadrosaurid fossil (Shantungosaurus) was found in Zhucheng in the 1980s. Other dinosaurs known from the area include the ceratopsian Zhuchengceratops (2010), the sauropod Zhuchengtitan (2017) and the theropod Zhuchengtyrannus (2011) which have all been described from deposits near and named after Zhucheng.	Zhuchengtyrannus, an Asian relative of the larger Tyrannosaurus
Tanis[156]	66.0 Ma	North Dakota, US	Tanis is part of the heavily studied Hell Creek Formation, a group of rocks spanning four states in North America renowned for many significant fossil discoveries from the Upper Cretaceous and lower Paleocene. Tanis is a significant site because it appears to record the events from the first minutes until a few hours after the impact of the giant Chicxulub asteroid in extreme detail. This impact, which struck the Gulf of Mexico 66.043 million years ago, wiped out all non-avian dinosaurs and many other species (the so-called "K-Pg" or "K-T" extinction).	Fossil sturgeon from the Tanis site

Paleogene

Site(s)	Age	Location	Significance	Notable fossils/organisms
Baunekule Facies	64-63 Ma (Danian)	eastern Denmark	These facies of the Faxe Formation document an extremely well-preserved cold-water coral mound ecosystem dominated by Dendrophyllia corals, and also includes gastropods, tubeworms, bivalves, bryozoans and gastropods.[157]
Tenejapa-Lacandón Formation	~63 Ma	Chiapas, Mexico	A formation with a high number of well-preserved fish fossils indicative of mass mortality events.[158] One of the most important formations for documenting the recovery of ocean ecosystems in the wake of the K-Pg extinction, due to being deposited just a few million years after and being located only 500 kilometres (310 mi) away from the Chixculub impact site.[159]	Eekaulostomus, Kelmejtubus, and Paleoserranus, three unique fish
Menat	60 Ma	Auvergne, France	A Palaeocene maar lake containing three-dimensional plant remains.[160] It is particularly notable for preserving one of the oldest known bees.[161]
Danata Formation	56-53 Ma	western Turkmenistan	Outcropping in the Kopet Dag range, this formation preserves numerous fossil fish from a northeastern arm of the Tethys Ocean during the Paleocene-Eocene thermal maximum. 38 taxa from 13 orders are known, the vast majority of which are acanthomorphs.[162][163]	Eospinus, a bizarre tetraodontiform fish.
Fur Formation	55–53 Ma	Fur & Mors, Denmark	Preserves abundant fossil fish, insects, reptiles, birds and plants. The Fur Formation was deposited about 55 Ma, just after the Palaeocene-Eocene boundary, and its tropical or sub-tropical flora indicate that the climate after the Paleocene-Eocene Thermal Maximum was moderately warm (approximately 4-8 degrees warmer than today).	Tasbacka danica, immature sea turtle
London Clay	54–48 Ma	England, UK	Collected for close to 300 years, Plant fossils, especially seeds and fruits, are found in abundance. Some 350 named species of plant have been found, making the London Clay flora one of the world's most diverse for fossil seeds and fruits. The flora includes tropical taxa found in modern Asia, reflecting the much warmer climate of the early Eocene.	A Tynskya eocaena fossil
Eocene Okanagan Highlands	52 - 48 Ma	British Columbia, Canada & Washington, USA	Includes McAbee Fossil Beds, Princeton chert & Klondike Mountain Formation; Recognized as temperate/subtropical uplands right after the Paleocene–Eocene Thermal Maximum and spanning the Early Eocene Climatic Optimum, preserves highly detailed uplands lacustrine fauna and flora.	A Florissantia quilchenensis flower, an extinct malvaceous genus from western North America
Monte Solane	51-49 MA	Verona, Italy	Slightly older than the nearby, more well-known Monte Bolca site, the Monte Solane site also preserves numerous marine fish and plants, but documents an entirely different ecosystem that appears to be of a bathypelagic habitat, forming one of the few known lagerstätte to preserve a deep-sea ecosystem.[164]
Green River Formation	50 Ma	Colorado/Utah/Wyoming, US	An Eocene aged site that is noted for the fish fauna preserved. Other fossils include the crocodilians, birds, and mammals.	Diplomystus and Knightia
Monte Bolca	50-49 Ma	Verona, Italy	A fossil site with specimens of fish and other organisms that are so highly preserved that their organs are often completely intact in fossil form, and even the skin color can sometimes be determined. It is assumed that mud at the site was low in oxygen, preventing both decay and the mixing action of scavengers from harming the fossils.	A complete Archaeophis proavus
Messel Formation	47 Ma	Hessen, Germany	This site has significant geological and scientific importance. Over 1000 species of plants and animals have been found at the site. After almost becoming a landfill, strong local resistance eventually stopped these plans and the Messel Pit was declared a UNESCO World Heritage Site on 9 December 1995. Significant scientific discoveries about the early evolution of mammals and birds are still being made at the Messel Pit, and the site has increasingly become a tourist site as well.	Masillamys sp., an ischyromyid rodent
Baltic amber	47-35 Ma (Lutetian to Priabonian)	Pomeranian Voivodeship, Poland & Kaliningrad Oblast, Russia	The largest amber deposit on Earth, this amber is part of the Prussian Formation, and preserves a high diversity of exceptionally well-preserved fossil invertebrates, plants, and small vertebrates that inhabited eastern Europe during the warmer, subtropical conditions of the middle Eocene. It is the largest world's single largest repository of fossil insects.[165][166][167][168]	Yantarogekko, a gecko
Kishenehn Formation	46.2 Ma	Montana	A Middle Eocene site preserving exquisitely detailed insect specimens in oil shale.[169]
Mahenge	46 Ma	Tanzania	A terrestrial Middle Eocene lagerstätte preserving plant and arthropod fossils.[170][171]
Quercy Phosphorites Formation[172]	45-25 Ma	Occitania, France	This site qualifies as a lagerstätte because beside a large variety of mammals, birds, turtles, crocodiles, flora and insects, it also preserves the soft tissues of amphibians and squamates, in addition to their articulated skeleton in what has been called natural mummies.	Xenomorphia resurrecta parasitic wasps preserved in fly pupae
Na Duong	Priabonian	Northern Vietnam	A Late Eocene site notable for its highly detailed coprolite preservation.[173]
Bitterfeld amber	38-34 Ma	Saxony, Germany	One of three major Paleogene deposits of European amber, this deposit of the Cottbus Formation shares a similar biota to the Baltic Amber, indicating a concurrent formation, but appears to have a geologically distinct origin from Baltic amber.[168]	Pseudoscorpions from the Bitterfeld amber
Rovno amber	38-34 Ma	Rivne Oblast, Ukraine & Gomel, Belarus	One of three major Paleogene deposits of European amber, this deposit of the Obukhov Formation preserves a high diversity of invertebrates, many of which are shared with the Baltic amber but others of which are unique. A drier habitat compared to the Baltic amber is suggested based on some of the insect taxa preserved.[165]	Eocenomyrma ukrainica, an ant
Florissant Formation	34 Ma	Colorado, US	A late Eocene (Priabonian) aged site that is noted for the finely preserved plant and insect paleobiota. Fossils are preserved in diatom blooms of a lahar dammed lake system and the formation is noted for the petrified stumps of Sequoia affinis	A Palaeovespa florissantia
Canyon Ferry Reservoir	32.0 ± 0.1 Ma	Montana, US	A diverse Early Oligocene plant and insect fossil site.[174]
Rauenberg	30 Ma	Baden-Württemberg, Germany	A marine fossil site with an Arctic-like invertebrate fauna and a Paratethyan vertebrate fauna displaying evidence of intermittent anoxia.[175]
Sangtang Lagerstätte	~28 – 23 Ma	Guangxi, China	A section of the Late Oligocene Yongning Formation with one of the very few known Cenozoic assemblages of mummified plant fossils,[176] including mummified fruits.[177][178][179]
Enspel Lagerstätte	24.79-24.56 Ma	Rhineland-Palatinate, Germany	A Chattian maar deposit famous for its insect fossils.[180]
Aix-en-Provence	~24 Ma	Provence, France	A terminal Oligocene brackish palaeoenvironment.[181]

Neogene

Site(s)	Age	Location	Significance	Notable fossils/organisms
Dominican amber	30–10 Ma	Dominican Republic	Dominican amber differentiates itself from Baltic amber by being nearly always[citation needed] transparent, and it has a higher number of fossil inclusions. This has enabled the detailed reconstruction of the ecosystem of a long-vanished tropical forest.[182]	A larval Amblyomma tick preserved in amber.
Riversleigh	25–15 Ma	Queensland, Australia	This locality is recognised for the series of well preserved fossils deposited from the Late Oligocene to the Miocene. The fossiliferous limestone system is located near the Gregory River in the north-west of Queensland, an environment that was once a very wet rainforest that became more arid as the Gondwanan land masses separated and the Australian continent moved north.	Reconstruction of the diprotodont marsupial Nimbadon lavarackorum.
Foulden Maar	23 Ma	Otago, New Zealand	These layers of diatomite have preserved exceptional fossils of fish from the crater lake, and plants, spiders, and insects from the sub-tropical forest that developed around the crater,[183] along with in situ pollen.[184]	The teleost fish species Galaxias effusus.
Ebelsberg Formation	23-22 Ma	Upper Austria, Austria	This Aquitanian-aged konservat-lagerstätte records an exceptional fossil assemblage of an enormous number of plants, fish, marine mammals, and marine invertebrates from a section of the central Paratethys Sea.[185]	Austromola, a sunfish
Chiapas amber	23-15 Ma	Chiapas, Mexico[186]	As with other ambers, a wide variety of taxa have been found as inclusions including insects and other arthropods, as well as plant fragments and epiphyllous fungi.	The holotype specimen of the millipede Anbarrhacus adamantis.
Clarkia fossil beds	20-17 Ma	Idaho, US	The Clarkia fossil beds site is best known for its fossil leaves. Their preservation is exquisite; fresh leaves are unfossilized, and sometimes retain their fall colors before rapidly oxidizing in air. It has been reported that scientists have managed to isolate small amounts of ancient DNA from fossil leaves from this site. However, other scientists are skeptical of the validity of this reported occurrence of Miocene DNA.	A leaf fossil from the beds after being exposed to oxygen.
Barstow Formation	19–13.4 Ma	California, US	The sediments are fluvial and lacustrine in origin except for nine layers of rhyolitic tuff. It is well known for its abundant vertebrate fossils including bones, teeth and footprints. The formation is also renowned for the fossiliferous concretions in its upper member, which contain three-dimensionally preserved arthropods.	A fossilized footprint made by a camel.
Shanwang Formation	18-17 Ma	Shandong Province, China	Fossils have been found at this site in dozens of categories, representing over 600 separate species. Animal fossils include insects, fish, spiders, amphibians, reptiles, birds and mammals. Insect fossils have clear, intact veins. Some have retained beautiful colours.	Fossil of Lusorex
Morozaki Group[187]	18-17 Ma	Aichi Prefecture, Japan	Known from well-preserved deep sea fauna including fish, starfish and arthropods like crabs, shrimps and giant amphiopods.
Sandelzhausen	16 Ma	Bavaria, Germany	A Middle Miocene vertebrate locality.[188]
McGraths Flat	~16-11 Ma	NSW, Australia	Deposited in unusual conditions that record microscopic details of soft tissues and delicate structures. Fossil evidence of animals with soft bodies, unlike the bones of mammals and reptiles, is rare in Australia, and discoveries at McGraths' Flat have revealed unknown species of invertebrates such as insects and spiders.[189]
Dolnja Stara	~15 Ma	Slovenia	A barnacle fossil site preserving barnacles shortly after settlement attached to mangrove leaves.[190]
Pisco Formation	15-2 Ma	Arequipa & Ica, Peru	Several specialists consider the Pisco Formation one of the most important lagerstätten, based on the large amount of exceptionally preserved marine fossils, including sharks (most notably megalodon), penguins, whales, dolphins, birds, marine crocodiles and aquatic giant sloths.	Reconstruction of the macroraptorial stem-physeteroid whale Acrophyseter.
Hindon Maar	14.6 Ma	New Zealand	A maar preserving a Southern Hemisphere lake-forest ecosystem, including body fossils of plants, insects, fish, and birds,[191] along with in situ pollen[184] and coprolites of both fish and birds.[191]
Ngorora Formation	13.3-9 Ma	Tanzania	The alkaline palaeolake deposits of the Ngorora Formation contains articulated fish fossils that died en masse from asphyxiation during episodic ash falls or from rapid acidification.[192]	Megistotherium was a large sized hyaenodont mammal
Pi Gros	13 Ma	Catalonia, Spain	An ichnofossil lagerstätte containing annelid, mollusc, and sponge trace fossils. The fossil site no longer exists due to having been quarried for the construction of an industrial park.[193]
Bullock Creek	12 Ma	Northern Territory, Australia	Among the fossils at the Bullock Creek site have been found complete marsupial crania with delicate structures intact. New significant taxa identified from the Bullock Creek mid Miocene include a new genus of crocodile, Baru (Baru darrowi), a primitive true kangaroo, Nambaroo, with high-crowned lophodont teeth; and a new species of giant horned tortoise, Meiolania. New marsupial lion, thylacine, and dasyurid material has also been recovered.
Tunjice	? (Middle Miocene)	Slovenia	This site is known worldwide for the earliest fossil records of seahorses.[194]	Two fossil seahorse species, Hippocampus sarmaticus and H. slovenicus from this site.
Ashfall Fossil Beds	11.83 Ma	Nebraska, US	The Ashfall Fossil Beds of Antelope County in northeastern Nebraska are rare fossil sites of the type called lagerstätten that, due to extraordinary local conditions, capture an ecological "snapshot" in time of a range of well-preserved fossilized organisms. Ash from a Yellowstone hotspot eruption 10-12 million years ago created these fossilized bone beds.	A bone-bed containing the fossils of the basal rhino Teleoceras and the three-toed horse Cormohipparion.
Alcoota Fossil Beds	8 Ma	Northern Territory, Australia	It is notable for the occurrence of well-preserved, rare, Miocene vertebrate fossils, which provide evidence of the evolution of the Northern Territory's fauna and climate. The Alcoota Fossil Beds are also significant as a research and teaching site for palaeontology students.	Miscellaneous fossils of several macropod marsupials
Saint-Bauzile	7.6-7.2 Ma	Ardèche, France	A Late Miocene site preserving articulated mammal skeletons with skin and fur impressions.[195]
Capo San Marco Formation	~7 Ma	Sardinia, Italy	A microbialite containing exceptionally preserved Girvanella-type filaments.[196]
Tresjuncos	6 Ma	Cuenca, Spain	A Late Miocene lacustrine konservat-lagerstätte containing fossils of diatoms, plants, crustaceans, insects, and amphibians.[197]
Gray Fossil Site	4.9-4.5 Ma	Tennessee, US	As the first site of its age known from the Appalachian region, the Gray Fossil Site is a unique window into the past. Research at the site has yielded many surprising discoveries, including new species of red panda, rhinoceros, pond turtle, hickory tree, and more. The site also hosts the world's largest known assemblage of fossil tapirs.	Fossil skull of Pristinailurus, a North American relative of the modern Red Panda
Willershausen	Late Pliocene	Lower Saxony, Germany	A lacustrine fossil site containing well preserved beetles.[198]

Quaternary

Site(s)	Age	Location	Significance	Notable fossils/organisms
The Mammoth Site	26 Ka	South Dakota, US	The facility encloses a prehistoric sinkhole that formed and was slowly filled with sediments during the Pleistocene era. As of 2016, the remains of 61 mammoths, including 58 North American Columbian and 3 woolly mammoths had been recovered. Mammoth bones were found at the site in 1974, and a museum and building enclosing the site were established.	Fossil skeleton of Arctodus simus, a large species of "short-faced" bear that was one of North America's largest predators during the Pleistocene.
Rancho La Brea Tar Pits	40–12 Ka	California, US	A group of tar pits where natural asphalt (also called asphaltum, bitumen, or pitch; brea in Spanish) has seeped up from the ground for tens of thousands of years. Over many centuries, the bones of trapped animals have been preserved. Among the prehistoric species associated with the La Brea Tar Pits are Pleistocene mammoths, dire wolves, short-faced bears, American lions, ground sloths, and, the state fossil of California, the saber-toothed cat (Smilodon fatalis).	Fossil skeleton of Mammuthus columbi excavated from the tar pits
Waco Mammoth National Monument	65–51 Ka	Texas, US	A paleontological site and museum in Waco, Texas, United States where fossils of 24 Columbian mammoths (Mammuthus columbi) and other mammals from the Pleistocene Epoch have been uncovered. The site is the largest known concentration of mammoths dying from a (possibly) reoccurring event, which is believed to have been a flash flood.	Fossil skeleton of a mammoth found at the Waco site
El Breal de Orocual	2.5–1 Ma	Monagas, Venezuela	The largest asphalt well on the planet. Like the La Brea Tar Pits, this site preserves a number of megafauna like toxodonts, glyptodonts, camelids, and the felid Homotherium venezuelensis.	Restoration of the environment at El Breal de Orocual, showing Glyptodon, Coragyps, Dasypus and Myrmecophaga
El Mene de Inciarte	28–25.5 Ka	Zulia, Venezuela	Another series of tar pits. These also preserve a similar assemblage of megafauna.
Naracoorte Caves	500-1 Ka	South Australia, Australia	A series of caves that preserve numerous pleistocene megafauna, like Thylacoleo, and is recognized as a World heritage site alongside the older, but geographically similar Riversleigh site.	Skeleton of Thylacoleo at the Naracoorte Caves
Mare aux Songes	4 Ka	Mauritius	A marsh that preserves a diversity of subfossil animals and plants, many of which were driven to extinction without proper documentation following human arrival, most notably the famous dodo. The mortality assemblages may have formed from a freshwater lake that was occasionally impacted by catastrophic droughts.[199]	Dodo skeleton from Mare aux Songes
Crawford Lake	800 Ya-present	Ontario, Canada	This lake is notable for its detailed preservation of rotifer and dinoflagellate fossils even after centuries, documenting the ecological shifts that occurred in and around the lake following the establishment of a Iroquoian village from 1268–1486 CE, and later following European colonization of the region in the early 19th century.[200]

See also

• List of fossil sites (with link directory)
• Hoard, a concentration of human artifacts useful for similar reasons in archaeology

References

1. The term was originally coined by Adolf Seilacher in: Seilacher, A. (1970). "Begriff und Bedeutung der Fossil-Lagerstätten: Neues Jahrbuch fur Geologie und Paläontologie". Monatshefte (in German). 1970: 34–39.
2. The term was redefined by Julien Kimmig and James D. Schiffbauer in: Kimmig, Julien; James D. Schiffbauer (25 April 2024). "A modern definition of Fossil-Lagerstätten". Trends in Ecology and Evolution. 39 (6): 621–624. doi:10.1016/j.tree.2024.04.004. PMID 38670863.
3. Briggs et al. 1983; Aldridge et al. 1993.^{[full citation needed]}
4. Retallack, G. J. (2011). "Exceptional fossil preservation during CO₂ greenhouse crises?". Palaeogeography, Palaeoclimatology, Palaeoecology. 307 (1–4): 59–74. Bibcode:2011PPP...307...59R. doi:10.1016/j.palaeo.2011.04.023.
5. Kimmig, Julien; Schiffbauer, James D. (2024). "A modern definition of Fossil-Lagerstätten". Trends in Ecology & Evolution. 39 (7): 621–624. doi:10.1016/j.tree.2024.04.004. PMID 38670863.
6. Slotznick, Sarah P.; Swanson-Hysell, Nicholas L.; Zhang, Yiming; Clayton, Katherine E.; Wellman, Charles H.; Tosca, Nicholas J.; Strother, Paul K. (22 August 2023). "Reconstructing the paleoenvironment of an oxygenated Mesoproterozoic shoreline and its record of life". Geological Society of America Bulletin. doi:10.1130/B36634.1. ISSN 0016-7606. Retrieved 21 May 2024 – via GeoScienceWorld.
7. Strother, Paul K.; Wellman, Charles H. (30 November 2020). "The Nonesuch Formation Lagerstätte: a rare window into freshwater life one billion years ago". Journal of the Geological Society. 178 (2): 1–12. doi:10.1144/jgs2020-133. S2CID 229003508.
8. Duda, Jan-Peter; König, Hannah; Reinhardt, Manuel; Shuvalova, Julia; Parkhaev, Pavel (8 December 2021). "Molecular fossils within bitumens and kerogens from the ~ 1 Ga Lakhanda Lagerstätte (Siberia, Russia) and their significance for understanding early eukaryote evolution". PalZ. 95 (4): 577–592. doi:10.1007/s12542-021-00593-4. ISSN 0031-0220.
9. Shuvalova, J. V.; Nagovitsin, K. E.; Parkhaev, P. Yu. (26 February 2021). "Evidences of the Oldest Trophic Interactions in the Riphean Biota (Lakhanda Lagerstätte, Southeastern Siberia)". Doklady Biological Sciences. 496 (1): 34–40. doi:10.1134/S0012496621010105. PMID 33635488. S2CID 254411264. Retrieved 30 April 2023.
10. Podkovyrov, Victor N. (September 2009). "Mesoproterozoic Lakhanda Lagerstätte, Siberia: Paleoecology and taphonomy of the microbiota". Precambrian Research. 173 (1–4): 146–153. Bibcode:2009PreR..173..146P. doi:10.1016/j.precamres.2009.04.006. Retrieved 30 April 2023.
11. Turnbull, Matthew J. M.; Whitehouse, Martin J.; Moorbath, Stephen (November 1996). "New isotopic age determinations for the Torridonian, NW Scotland". Journal of the Geological Society. 153 (6): 955–964. doi:10.1144/gsjgs.153.6.0955. ISSN 0016-7649. Retrieved 21 May 2024.
12. Battison, Leila; Brasier, Martin D. (February 2012). "Remarkably preserved prokaryote and eukaryote microfossils within 1Ga-old lake phosphates of the Torridon Group, NW Scotland". Precambrian Research. 196–197: 204–217. doi:10.1016/j.precamres.2011.12.012. Retrieved 7 July 2024 – via Elsevier Science Direct.
13. Nielson, Grace C.; Stüeken, Eva E.; Prave, Anthony R. (February 2024). "Estuaries house Earth's oldest known non-marine eukaryotes". Precambrian Research. 401: 107278. doi:10.1016/j.precamres.2023.107278. hdl:10023/28949. Retrieved 21 May 2024 – via Elsevier Science Direct.
14. Maloney, Katie M.; Schiffbauer, James D.; Halverson, Galen P.; Xiao, Shuhai; Laflamme, Marc (13 April 2022). "Preservation of early Tonian macroalgal fossils from the Dolores Creek Formation, Yukon". Scientific Reports. 12 (1): 6222. Bibcode:2022NatSR..12.6222M. doi:10.1038/s41598-022-10223-x. PMC 9007953. PMID 35418588.
15. Sergeev, Vladimir N.; Schopf, J. William (1 May 2010). "Taxonomy, paleoecology and biostratigraphy of the late Neoproterozoic Chichkan microbiota of South Kazakhstan: The marine biosphere on the eve of metazoan radiation". Journal of Paleontology. 84 (3): 363–401. Bibcode:2010JPal...84..363S. doi:10.1666/09-133.1. S2CID 140668863. Retrieved 30 April 2023.
16. Willman, Sebastian; Peel, John S.; Ineson, Jon R.; Schovsbo, Niels H.; Rugen, Elias J.; Frei, Robert (6 November 2020). "Ediacaran Doushantuo-type biota discovered in Laurentia". Communications Biology. 3 (1): 647. doi:10.1038/s42003-020-01381-7. PMC 7648037. PMID 33159138.
17. Becker-Kerber, Bruno; El Albani, Abderrazak; Konhauser, Kurt; Abd Elmola, Ahmed; Fontaine, Claude; Paim, Paulo S. G.; Mazurier, Arnaud; Prado, Gustavo M. E. M.; Galante, Douglas; Kerber, Pedro B.; da Rosa, Ana L. Z.; Fairchild, Thomas R.; Meunier, Alain; Pacheco, Mírian L. A. F. (3 March 2021). "The role of volcanic-derived clays in the preservation of Ediacaran biota from the Itajaí Basin (ca. 563 Ma, Brazil)". Scientific Reports. 11 (1): 5013. doi:10.1038/s41598-021-84433-0. ISSN 2045-2322. PMC 7930025. PMID 33658558.
18. Xiao, Shuhai; Chen, Zhe; Pang, Ke; Zhou, Chuanming; Yuan, Xunlai (12 October 2020). "The Shibantan Lagerstätte: insights into the Proterozoic–Phanerozoic transition". Journal of the Geological Society. 178: 1–11. doi:10.1144/jgs2020-135. S2CID 225242787. Retrieved 30 April 2023.
19. Cai, Yaoping; Hua, Hong; Schiffbauer, James D.; Sun, Bo; Yuan, Xunlai (April 2014). "Tube growth patterns and microbial mat-related lifestyles in the Ediacaran fossil Cloudina, Gaojiashan Lagerstätte, South China". Gondwana Research. 25 (3): 1008–1018. Bibcode:2014GondR..25.1008C. doi:10.1016/j.gr.2012.12.027. Retrieved 18 June 2023.
20. Feng, Tang; Chongyu, Yin; Pengju, Liu; Linzhi, Gao; Wenyan, Zhang (7 September 2010). "A New Diverse Macrofossil Lagerstätte from the Uppermost Ediacaran of Southwestern China". Acta Geologica Sinica - English Edition. 82 (6): 1095–1103. doi:10.1111/j.1755-6724.2008.tb00709.x. ISSN 1000-9515. Retrieved 21 May 2024.
21. Duda, Jan-Peter; Love, Gordon D.; Rogov, Vladimir I.; Melnyk, Dmitry S.; Blumenberg, Martin; Grazhdankin, Dmitriy V. (3 September 2020). "Understanding the geobiology of the terminal Ediacaran Khatyspyt Lagerstätte (Arctic Siberia, Russia)". Geobiology. 18 (6): 643–662. Bibcode:2020Gbio...18..643D. doi:10.1111/gbi.12412. PMID 32881267. S2CID 221477265.
22. National Museum of Natural History, National Academy of Sciences of Ukraine (Kyiv, Ukraine); Grytsenko, Volodymyr (2 October 2020). "Diversity of the Vendian fossils of Podillia (Western Ukraine)". Geo&Bio. 2020 (19): 3–19. doi:10.15407/gb1903.{{cite journal}}: CS1 maint: multiple names: authors list (link)
23. Shao, Tiequan; Tang, Hanhua; Liu, Yunhuan; Waloszek, Dieter; Maas, Andreas; Zhang, Huaqiao (March 2018). "Diversity of cnidarians and cycloneuralians in the Fortunian (early Cambrian) Kuanchuanpu Formation at Zhangjiagou, South China". Journal of Paleontology. 92 (2): 115–129. doi:10.1017/jpa.2017.94. ISSN 0022-3360. Retrieved 14 May 2024 – via Cambridge Core.
24. Shao, T. Q.; Qin, J. C.; Shao, Y.; Liu, Y. H.; Waloszek, D.; Maas, A.; Duan, B. C.; Wang, Q.; Xu, Y.; Zhang, H. Q. (October 2020). "New macrobenthic cycloneuralians from the Fortunian (lowermost Cambrian) of South China". Precambrian Research. 349: 105413. doi:10.1016/j.precamres.2019.105413. Retrieved 14 May 2024 – via Elsevier Science Direct.
25. Liu, Yunhuan; Qin, Jiachen; Wang, Qi; Maas, Andreas; Duan, Baichuan; Zhang, Yanan; Zhang, Hu; Shao, Tiequan; Zhang, Huaqiao (19 October 2018). Zhang, Xi-Guang (ed.). "New armoured scalidophorans (Ecdysozoa, Cycloneuralia) from the Cambrian Fortunian Zhangjiagou Lagerstätte, South China". Papers in Palaeontology. 5 (2): 241–260. doi:10.1002/spp2.1239. ISSN 2056-2799. Retrieved 14 May 2024 – via Wiley Online Library.
26. Han, Jian; Morris, Simon Conway; Ou, Qiang; Shu, Degan; Huang, Hai (9 February 2017). "Meiofaunal deuterostomes from the basal Cambrian of Shaanxi (China)". Nature. 542 (7640): 228–231. doi:10.1038/nature21072. ISSN 0028-0836. PMID 28135722. Retrieved 14 May 2024.
27. Lan, Tian; Yang, Jie; Zhang, Xi-guang; Hou, Jin-bo (15 June 2018). "A new macroalgal assemblage from the Xiaoshiba Biota (Cambrian Series 2, Stage 3) of southern China". Palaeogeography, Palaeoclimatology, Palaeoecology. 499: 35–44. doi:10.1016/j.palaeo.2018.02.029. ISSN 0031-0182. Retrieved 13 September 2024 – via Elsevier Science Direct.
28. English, Adam M.; Babcock, Loren E. (1 September 2010). "Census of the Indian Springs Lagerstätte, Poleta Formation (Cambrian), western Nevada, USA". Palaeogeography, Palaeoclimatology, Palaeoecology. 295 (1): 236–244. doi:10.1016/j.palaeo.2010.05.041. ISSN 0031-0182.
29. Ivantsov, Andrey Yu.; Zhuravlev, Andrey Yu.; Leguta, Anton V.; Krassilov, Valentin A.; Melnikova, Lyudmila M.; Ushatinskaya, Galina T. (2 May 2005). "Palaeoecology of the Early Cambrian Sinsk biota from the Siberian Platform". Palaeogeography, Palaeoclimatology, Palaeoecology. 220 (1–2): 69–88. Bibcode:2005PPP...220...69I. doi:10.1016/j.palaeo.2004.01.022. Retrieved 12 November 2022.
30. Caron, Jean-Bernard; Webster, Mark; Briggs, Derek E. G.; Pari, Giovanni; Santucci, Guy; Mángano, M. Gabriela; Izquierdo-López, Alejandro; Streng, Michael; Gaines, Robert R. (13 December 2023). "The lower Cambrian Cranbrook Lagerstätte of British Columbia". Journal of the Geological Society. 181 (1). doi:10.1144/jgs2023-106. ISSN 0016-7649. Retrieved 7 July 2024 – via Lyell Collection Geological Society Publications.
31. Weisberger, Mindy (9 July 2024). "'Prehistoric Pompeii' reveals 515 million-year-old sea bugs' anatomy in pristine 3D". CNN. Retrieved 13 July 2024.
32. Pari, Giovanni; Briggs, Derek E.G.; Gaines, Robert R. (22 February 2021). "The Parker Quarry Lagerstätte of Vermont—The first reported Burgess Shale–type fauna rediscovered". Geology. 49 (6): 693–697. doi:10.1130/g48422.1. ISSN 0091-7613.
33. Gámez Vintaned, J. A.; Liñán, E. y Gozalo, R. (2013) «Los trilobites cámbricos de la Biota de Murero (Zaragoza, España)». Cuadernos de Paleontología Aragonesa, 7: 5-27
34. Peel, John S. (3 April 2022). "The oldest tongue worm: a stem-group pentastomid arthropod from the early middle Cambrian (Wuliuan Stage) of North Greenland (Laurentia)". GFF. 144 (2): 97–105. doi:10.1080/11035897.2022.2064543.
35. Department of Earth Sciences (Palaeobiology), Uppsala University, Sweden.; Peel, John S. (7 June 2023). "A phosphatised fossil Lagerstätte from the middle Cambrian (Wuliuan Stage) of North Greenland (Laurentia)". Bulletin of the Geological Society of Denmark. 72: 101–122. doi:10.37570/bgsd-2023-72-03. Retrieved 7 July 2024.{{cite journal}}: CS1 maint: multiple names: authors list (link)
36. Sun, Z.; Zhao, F.; Zeng, H.; Luo, C.; Van Iten, H.; Zhu, M. (2022). "The middle Cambrian Linyi Lagerstätte from the North China Craton: a new window on the Cambrian evolutionary fauna". National Science Review. 9 (7): nwac069. doi:10.1093/nsr/nwac069. PMC 9273334. PMID 35832778. Retrieved 2 April 2023.
37. Kimmig, Julien; Pratt, Brian R. (29 July 2015). "Taphonomy of the middle Cambrian (Drumian) Ravens Throat River Lagerstätte, Rockslide Formation, Mackenzie Mountains, Northwest Territories, Canada". Lethaia. 49 (2): 150–169. doi:10.1111/let.12135. ISSN 0024-1164.
38. Saleh, Farid; Lustri, Lorenzo; Gueriau, Pierre; Potin, Gaëtan J.-M.; Pérez-Peris, Francesc; Laibl, Lukáš; Jamart, Valentin; Vite, Antoine; Antcliffe, Jonathan B.; Daley, Allison C.; Nohejlová, Martina; Dupichaud, Christophe; Schöder, Sebastian; Bérard, Emilie; Lynch, Sinéad; Drage, Harriet B.; Vauchier, Romain; Vidal, Muriel; Monceret, Eric; Monceret, Sylvie; Lefebvre, Bertrand (9 February 2024). "The Cabrières Biota (France) provides insights into Ordovician polar ecosystems". Nature Ecology & Evolution. 8 (4): 651–662. doi:10.1038/s41559-024-02331-w. ISSN 2397-334X. PMC 11009115. PMID 38337049.
39. Fang, Xiang; Mao, Yingyan; Liu, Qi; Yuan, Wenwei; Chen, Zhongyang; Wu, Rongchang; Li, Lixia; Zhang, Yuchen; Ma, Junye; Wang, Wenhui; Zhan, Renbin; Peng, Shanchi; Zhang, Yuandong; Huang, Diying (13 July 2022). "The Liexi fauna: a new Lagerstätte from the Lower Ordovician of South China". Proceedings of the Royal Society B: Biological Sciences. 289 (1978). doi:10.1098/rspb.2022.1027. ISSN 0962-8452. PMC 9277276. PMID 35858062.
40. Young, Graham; Rudkin, David; Dobrzanski, Edward; Robson, Sean; Cuggy, Michael; Demski, Matthew; Thompson, Deborah (2012). "Great Canadian Lagerstätten 3. Late Ordovician Konservat-Lagerstätten in Manitoba". Geoscience Canada. 39 (4): 201–213. ISSN 0315-0941.
41. Liu, Huaibao P.; Bergström, Stig M.; Witzke, Brian J.; Briggs, Derek E. G.; McKay, Robert M.; Ferretti, Annalisa (28 February 2017). "Exceptionally preserved conodont apparatuses with giant elements from the Middle Ordovician Winneshiek Konservat-Lagerstätte, Iowa, USA". Journal of Paleontology. 91 (3): 493–511. Bibcode:2017JPal...91..493L. doi:10.1017/jpa.2016.155. S2CID 132698401.
42. Selina R. Cole; David F. Wright; William I. Ausich (1 May 2019). "Phylogenetic community paleoecology of one of the earliest complex crinoid faunas (Brechin Lagerstätte, Ordovician)". Palaeogeography, Palaeoclimatology, Palaeoecology. 521: 82–98. Bibcode:2019PPP...521...82C. doi:10.1016/j.palaeo.2019.02.006. S2CID 135129430.
43. García-Bellido, Diego C.; Gutiérrez-Marco, Juan Carlos (29 October 2022). "Polar gigantism and remarkable taxonomic longevity in new palaeoscolecid worms from the Late Ordovician Tafilalt Lagerstätte of Morocco". Historical Biology. 35 (11): 2011–2021. doi:10.1080/08912963.2022.2131404. ISSN 0891-2963. S2CID 253297071.
44. Ausich, William I.; Wilson, Mark A.; Tinn, Oive (14 May 2019). "Kalana Lagerstätte crinoids: Early Silurian (Llandovery) of central Estonia". Journal of Paleontology. 94 (1): 131–144. doi:10.1017/jpa.2019.27. S2CID 181399467. Retrieved 27 April 2023.
45. Tinn, Oive; Lang, Liisa; Märss, Tiiu; Vahur, Signu; Kirsimäe, Kalle (6 May 2022). "A demineralized osteostracan fossil from the Silurian Kalana Lagerstätte of Estonia: revealing its internal anatomy and uncovering a unique type of fossilization". Lethaia. 55 (1): 1–13. doi:10.1111/let.12452.
46. Zhu, You-an; Li, Qiang; Lu, Jing; Chen, Yang; Wang, Jianhua; Gai, Zhikun; Zhao, Wenjin; Wei, Guangbiao; Yu, Yilun; Ahlberg, Per E.; Zhu, Min (2022). "The oldest complete jawed vertebrates from the early Silurian of China". Nature. 609 (7929): 954–958. Bibcode:2022Natur.609..954Z. doi:10.1038/s41586-022-05136-8. ISSN 1476-4687. PMID 36171378. S2CID 252569910.
47. BBC. "Fossils found in 425 million year old 'Pompeii'". www.bbc.co.uk. Retrieved 7 October 2023.
48. Vrazo, Matthew B.; Trop, Jeffrey M.; Brett, Carlton E. (2014). "A New Eurypterid Lagerstätte from the Upper Silurian of Pennsylvania". PALAIOS. 29 (7/8): 431–448. Bibcode:2014Palai..29..431V. doi:10.2110/palo.2014.003. ISSN 0883-1351. JSTOR 43683811. S2CID 30066085.
49. Taylor, Wendy L. (28 October 1999), "Middle Silurian Rochester Shale of Western New York, USA, and Southern Ontario, Canada", Fossil Crinoids, Cambridge University Press, pp. 87–92, doi:10.1017/cbo9780511626159.012, ISBN 9780521450249, retrieved 9 October 2023
50. Poschmann, Markus J. (3 February 2021). "A new phyllocarid (Crustacea, Archaeostraca) from the Early Devonian (late Emsian) Heckelmann Mill Fossil-Lagerstätte (Lahn Syncline, Rhineland-Palatinate, SW-Germany)". PalZ. 95: 27–36. doi:10.1007/s12542-020-00535-6. S2CID 231793893. Retrieved 29 April 2023.
51. Poschmann, Markus J. (15 July 2019). "Pelmatozoan "rooting grounds" from the Early Devonian (late Emsian) Heckelmann Mill Fossil-Lagerstätte (Lahn Syncline, Rhineland-Palatinate, SW-Germany): morphological, palaeoenvironmental and taphonomic aspects". PalZ. 94 (2): 311–325. doi:10.1007/s12542-019-00454-1. S2CID 198137119. Retrieved 29 April 2023.
52. Zatoń, Michał; Filipiak, Paweł; Rakociński, Michał; Krawczyński, Wojciech (25 March 2014). "Kowala Lagerstätte: Late Devonian arthropods and non-biomineralized algae from Poland". Lethaia. 47 (3): 352–364. doi:10.1111/let.12062. Retrieved 29 June 2023.
53. Frey, Linda; Pohle, Alexander; Rücklin, Martin; Klug, Christian (2020). "Fossil-Lagerstätten, palaeoecology and preservation of invertebrates and vertebrates from the Devonian in the eastern Anti-Atlas, Morocco". Lethaia. 53 (2): 242–266. doi:10.1111/let.12354. ISSN 0024-1164. S2CID 210627752.
54. Denayer, Julien; Prestianni, Cyrille; Gueriau, Pierre; Olive, Sébastien; Clément, Gaël (2016). "Stratigraphy and depositional environments of the Late Famennian (Late Devonian) of Southern Belgium and characterization of the Strud locality". Geological Magazine. 153 (1): 112–127. Bibcode:2016GeoM..153..112D. doi:10.1017/S001675681500031X. ISSN 0016-7568. S2CID 129070535.
55. Olive, Sébastien; Clément, Gaël; Daeschler, Edward B.; Dupret, Vincent (23 August 2016). "Placoderm Assemblage from the Tetrapod-Bearing Locality of Strud (Belgium, Upper Famennian) Provides Evidence for a Fish Nursery". PLOS ONE. 11 (8): e0161540. Bibcode:2016PLoSO..1161540O. doi:10.1371/journal.pone.0161540. ISSN 1932-6203. PMC 4994939. PMID 27552196.
56. Fraser, Nicholas C.; Sues, Hans-Dieter (2017). Terrestrial Conservation Lagerstätten: Windows Into the Evolution of Life on Land. Dunedin Academic Press. ISBN 978-1-78046-014-7.
57. Knecht, Richard J.; Benner, Jacob S.; Swain, Anshuman; Azevedo-Schmidt, Lauren; Cleal, Christopher J.; Labandeira, Conrad C.; Engel, Michael S.; Dunlop, Jason A.; Selden, Paul A.; Eble, Cortland F.; Renczkowski, Mark D.; Wheeler, Dillon A.; Funderburk, Mataeus M.; Emma, Steve L.; Knoll, Andrew H.; Pierce, Naomi E. (9 September 2024). "Early Pennsylvanian Lagerstätte reveals a diverse ecosystem on a subhumid, alluvial fan". Nature Communications. 15 (1): 7876. doi:10.1038/s41467-024-52181-0. ISSN 2041-1723. PMC 11383953. Retrieved 17 September 2024.
58. Anderson, Lyall I.; Dunlop, Jason A.; Horrocks, Carl A.; Winkelmann, Heather M.; Eagar, R. M. C. (1997). "Exceptionally preserved fossils from Bickershaw, Lancashire UK (Upper Carboniferous, Westphalian A (Langsettian))". Geological Journal. 32 (3): 197–210. doi:10.1002/(SICI)1099-1034(199709)32:3<197::AID-GJ739>3.0.CO;2-6.
59. Orr, Patrick J.; Briggs, Derek E. G.; Parkes, Matthew A. (1996). "The 'Castlecomer Fauna': A New Konservat-Lagerstätte from the Upper Carboniferous of Ireland". Irish Journal of Earth Sciences. 15: 93–106. ISSN 0790-1763. JSTOR 30002319.
60. Orr, P. J.; Briggs, D. E.G.; Kearns, S. L. (1 May 2008). "Taphonomy of Exceptionally Preserved Crustaceans from the Upper Carboniferous of Southeastern Ireland". PALAIOS. 23 (5): 298–312. doi:10.2110/palo.2007.p07-015r. ISSN 0883-1351.
61. "Direct Evidence of Food Chains at the Linton Lagerstatte". gsa.confex.com.
62. Dunne, Emma M. (1 July 2020). Patterns and drivers of tetrapod diversity and biogeography in the late Palaeozoic and early Mesozoic (d_ph thesis). University of Birmingham.
63. Hook, Robert W.; Baird, Donald (19 June 1986). "The Diamond Coal Mine of Linton, Ohio, and its Pennsylvanian-age vertebrates". Journal of Vertebrate Paleontology. 6 (2): 174–190. Bibcode:1986JVPal...6..174H. doi:10.1080/02724634.1986.10011609. ISSN 0272-4634.
64. Niko, Shuji; Seuss, Barbara; Mapes, Royal H. (1 January 2018). "Desmoinesian (Middle Pennsylvanian) Orthocerid Cephalopods from the Buckhorn Asphalt Lagerstätte in Oklahoma, Midcontinent North America". Paleontological Research. 22 (1): 20–36. doi:10.2517/2017PR008. ISSN 1342-8144. Retrieved 12 May 2024 – via BioOne Digital Library.
65. M. Hodnett, John-Paul; Lucas, Spencer G. "Review Of The Late Pennsylvanian Fish Assemblage From The Kinney Brick Quarry, New Mexico". New Mexico Museum of Natural History and Science Bulletin. 84: 359–390.
66. Boardman, Daiana Rockenbach; Souza, Paulo A.; Scomazzon, Ana Karina; Félix, Cristina Moreira; Mori, Ana Luisa Outa; Weinschütz, Luiz Carlos (January 2024). "Palynological analysis (biochronostratigraphy and paleoenvironments) from a fossil-Lagerstätte section within the Late Paleozoic Ice Age unit of the Paraná Basin (Itararé Group), Western Gondwana". Sedimentary Geology. 459: 106543. doi:10.1016/j.sedgeo.2023.106543. Retrieved 8 June 2024 – via Elsevier Science Direct.
67. Perrier, V.; Charbonnier, S. (2014). "The Montceau-les-Mines Lagerstätte (Late Carboniferous, France)". Comptes Rendus Palevol. 13 (5): 353–67. Bibcode:2014CRPal..13..353P. doi:10.1016/j.crpv.2014.03.002.
68. Heyler, Daniel; Poplin, Cecile M. (1988). "The Fossils of Montceau-les-Mines". Scientific American. 259 (3): 104–111. Bibcode:1988SciAm.259c.104H. doi:10.1038/scientificamerican0988-104. ISSN 0036-8733. JSTOR 24989233.
69. "NMGS 2016 Guidebook Details". New Mexico Geological Society. doi:10.56577/ffc-67.377. Retrieved 18 December 2023.
70. Schmitz, Mark D.; Pfefferkorn, Hermann W.; Shen, Shu-Zhong; Wang, Jun (1 November 2021). "A volcanic tuff near the Carboniferous–Permian boundary, Taiyuan Formation, North China: Radioisotopic dating and global correlation". Review of Palaeobotany and Palynology. Wuda Tuff Flora: A Permian peat-forming T0 fossil plant assemblage from Wuda Coalfield, Inner Mongolia. 294: 104244. doi:10.1016/j.revpalbo.2020.104244. ISSN 0034-6667.
71. Wang, Jun; Hilton, Jason; Pfefferkorn, Hermann W.; Wang, Shijun; Zhang, Yi; Bek, Jiri; Pšenička, Josef; Seyfullah, Leyla J.; Dilcher, David (16 March 2021). "Ancient noeggerathialean reveals the seed plant sister group diversified alongside the primary seed plant radiation". Proceedings of the National Academy of Sciences. 118 (11). doi:10.1073/pnas.2013442118. ISSN 0027-8424. PMC 7980368. PMID 33836571.
72. Schoch, Rainer R. (23 March 2021). "Osteology of the Permian temnospondyl amphibian Glanochthon lellbachae and its relationships". Fossil Record. 24 (1): 49–64. doi:10.5194/fr-24-49-2021. ISSN 2193-0066.
73. Poschmann, Markus J.; Nel, André; Raisch, Manfred (1 March 2024). "Diversity and variability of grylloblattidan insects (Grylloblattida) from the early Permian Meisenheim Formation of the Saar-Nahe Basin (SW-Germany)". PalZ. 98 (1): 67–84. doi:10.1007/s12542-023-00672-8. ISSN 1867-6812.
74. Steyer, J.-Sébastien; Sanchez, Sophie; Debriette, Pierre J.; Valli, Andrea M. F.; Escuille, François; Pohl, Burkhard; Dechambre, Roger-Paul; Vacant, Renaud; Spence, Christopher; De Ploëg, Gaël (1 December 2012). "A new vertebrate Lagerstätte from the Lower Permian of France (Franchesse, Massif Central): palaeoenvironmental implications for the Bourbon-l'Archambault basin". Bulletin de la Société Géologique de France. 183 (6): 509–515. doi:10.2113/gssgfbull.183.6.509. Retrieved 29 April 2023.
75. Luthardt, Ludwig; Rößler, Ronny; Schneider, Joerg W. (1 January 2016). "Palaeoclimatic and site-specific conditions in the early Permian fossil forest of Chemnitz—Sedimentological, geochemical and palaeobotanical evidence". Palaeogeography, Palaeoclimatology, Palaeoecology. 441: 627–652. Bibcode:2016PPP...441..627L. doi:10.1016/j.palaeo.2015.10.015. Retrieved 8 June 2022.
76. Piñeiro, G.; Ramos, A.; Goso, C. S.; Scarabino, F.; Laurin, M. (2012). "Unusual Environmental Conditions Preserve a Permian Mesosaur-Bearing Konservat-Lagerstätte from Uruguay". Acta Palaeontologica Polonica. 57 (2): 299–318. doi:10.4202/app.2010.0113.
77. Khramov, Alexander V.; Naugolnykh, Sergey V.; Węgierek, Piotr (12 September 2022). "Possible long-proboscid insect pollinators from the Early Permian of Russia". Current Biology. 32 (17): 3815–3820.e2. doi:10.1016/j.cub.2022.06.085. ISSN 0960-9822. PMID 35858616.
78. Slater, Ben J.; McLoughlin, Stephen; Hilton, Jason (June 2015). "A high-latitude Gondwanan lagerstätte: The Permian permineralised peat biota of the Prince Charles Mountains, Antarctica". Gondwana Research. 27 (4): 1446–1473. Bibcode:2015GondR..27.1446S. doi:10.1016/j.gr.2014.01.004.
79. Prevec, Rosemary; Nel, André; Day, Michael O.; Muir, Robert A.; Matiwane, Aviwe; Kirkaldy, Abigail P.; Moyo, Sydney; Staniczek, Arnold; Cariglino, Bárbara; Maseko, Zolile; Kom, Nokuthula; Rubidge, Bruce S.; Garrouste, Romain; Holland, Alexandra; Barber-James, Helen M. (30 October 2022). "South African Lagerstätte reveals middle Permian Gondwanan lakeshore ecosystem in exquisite detail". Communications Biology. 5 (1): 1154. doi:10.1038/s42003-022-04132-y. PMC 9618562. PMID 36310243.
80. Benton, M. J. (6 November 1989). "Mass extinctions among tetrapods and the quality of the fossil record". Philosophical Transactions of the Royal Society of London. B, Biological Sciences. 325 (1228): 369–386. Bibcode:1989RSPTB.325..369B. doi:10.1098/rstb.1989.0094. ISSN 0080-4622. PMID 2574883.
81. Neregato, R.; D'Apolito, C.; Glasspool, I. J.; Wang, S.-J.; Liu, F.; Windslow, P.; Lu, J.; Shao, L.; Hilton, J. (15 May 2016). "Palynological constraints on the provenance and stratigraphic range of a Lopingian (Late Permian) inter-extinction floral lagerstätte from the Xuanwei Formation, Guizhou Province, China". International Journal of Coal Geology. 162: 139–150. Bibcode:2016IJCG..162..139N. doi:10.1016/j.coal.2016.06.005. S2CID 132822933. Retrieved 18 June 2023.
82. Dai, Xu; Davies, Joshua H.F.L.; Yuan, Zhiwei; Brayard, Arnaud; Ovtcharova, Maria; Xu, Guanghui; Liu, Xiaokang; Smith, Christopher P.A.; Schweitzer, Carrie E.; Li, Mingtao; Perrot, Morgann G.; Jiang, Shouyi; Miao, Luyi; Cao, Yiran; Yan, Jia; Bai, Ruoyu; Wang, Fengyu; Guo, Wei; Song, Huyue; Tian, Li; Dal Corso, Jacopo; Liu, Yuting; Chu, Daoliang; Song, Haijun (2023). "A Mesozoic fossil lagerstätte from 250.8 million years ago shows a modern-type marine ecosystem" (PDF). Science. 379 (6632): 567–572. Bibcode:2023Sci...379..567D. doi:10.1126/science.adf1622. PMID 36758082. S2CID 256697946.
83. Brayard, Arnaud; Krumenacker, L. J.; Botting, Joseph P.; Jenks, James F.; Bylund, Kevin G.; Fara, Emmanuel; Vennin, Emmanuelle; Olivier, Nicolas; Goudemand, Nicolas; Saucède, Thomas; Charbonnier, Sylvain; Romano, Carlo; Doguzhaeva, Larisa; Thuy, Ben; Hautmann, Michael; Stephen, Daniel A.; Thomazo, Christophe; Escarguel, Gilles (2017). "Unexpected Early Triassic marine ecosystem and the rise of the Modern evolutionary fauna". Science Advances. 3 (2): e1602159. Bibcode:2017SciA....3E2159B. doi:10.1126/sciadv.1602159. PMC 5310825. PMID 28246643.
84. Flannery Sutherland, Joseph T.; Moon, Benjamin C.; Stubbs, Thomas L.; Benton, Michael J. (27 February 2019). "Does exceptional preservation distort our view of disparity in the fossil record?". Proceedings of the Royal Society B: Biological Sciences. 286 (1897): 20190091. doi:10.1098/rspb.2019.0091. ISSN 0962-8452. PMC 6408902. PMID 30963850.
85. Shcherbakov, Dmitry; Tarmo, Timm; Tzetlin, Alexander B.; Vinn, Olev; Zhuravlev, Andrey (April 2020). "A probable oligochaete from an Early Triassic Lagerstätte of the southern Cis-Urals and its evolutionary implications". Acta Palaeontologica Polonica. 65 (2): 219–233. doi:10.4202/app.00704.2019. S2CID 219097612. Retrieved 28 April 2023.
86. Dahoumane, Anissa; Nedjari, Ahmed; Aït-Ouali, Rachid; Taquet, Philippe; Vacant, Renaud; Steyer, Jean-Sébastien (2016). "A new Mastodonsauroid Temnospondyl from the Triassic of Algeria: Implications for the biostratigraphy and palaeoenvironments of the Zarzaïtine Series, northern Sahara". Comptes Rendus Palevol (in French). 15 (8): 918–926. doi:10.1016/j.crpv.2015.09.005.
87. Hu, Shi-xue; Zhang, Qi-yue; Chen, Zhong-Qiang; Zhou, Chang-yong; Lü, Tao; Xie, Tao; Wen, Wen; Huang, Jin-yuan; Benton, Michael J. (7 August 2011). "The Luoping biota: exceptional preservation, and new evidence on the Triassic recovery from end-Permian mass extinction". Proceedings of the Royal Society B: Biological Sciences. 278 (1716): 2274–2282. doi:10.1098/rspb.2010.2235. ISSN 0962-8452. PMC 3119007. PMID 21183583.
88. Liu, Jun; Martin Sander, P. (1 January 2019). "The Vossenveld Formation and biotic recovery from the Permo-Triassic extinction". Staringia. 16 (1): 147–152. ISSN 0165-2354.
89. Shear, W. A.; Selden, Paul A.; Gall, Jean-Claude (June 2009). "Millipedes from the Grès à Voltzia, Triassic of France, with comments on Mesozoic millipedes (Diplopoda: Helminthomorpha: Eugnatha)". International Journal of Myriapodology. 2 (1): 1–13. doi:10.1163/187525409X462395. hdl:1808/8337. Retrieved 18 June 2023.
90. Szwedo, Jacek; Nel, André (1 December 2011). "The Oldest Aphid Insect from the Middle Triassic of the Vosges, France". Acta Palaeontologica Polonica. 56 (4): 757–766. doi:10.4202/app.2010.0034. ISSN 0567-7920. Retrieved 31 October 2024 – via BioOne Digital Library.
91. Bicknell, Russell D. C.; Zalohar, Jure; Miklavc, Primoz; Celarc, Bogomir; Kriznar, Matija; Hitij, Tomaz (2021). "Revisiting horseshoe crab fossils from the Middle Triassic (Anisian) Strelovec Formation Konservat-Lagerstätte of Slovenia". Palaeontologia Electronica. doi:10.26879/1168. ISSN 1094-8074.
92. Feldman, Howard R. (2005). "Paleoecology, Taphonomy, and Biogeography of a Coenothyris Community (Brachiopoda, Terebratulida) from the Triassic (Upper Anisian–Lower Ladinian) of Israel". American Museum Novitates (3479): 1. doi:10.1206/0003-0082(2005)479[0001:PTABOA]2.0.CO;2. ISSN 0003-0082.
93. Klug, Christian; Spiekman, Stephan N. F.; Bastiaans, Dylan; Scheffold, Beat; Scheyer, Torsten M. (4 March 2024). "The marine conservation deposits of Monte San Giorgio (Switzerland, Italy): the prototype of Triassic black shale Lagerstätten". Swiss Journal of Palaeontology. 143 (1): 11. doi:10.1186/s13358-024-00308-7. ISSN 1664-2384. PMC 10912274. PMID 38450287.
94. Lukeneder, Alexander; Surmik, Dawid; Gorzelak, Przemysław; Niedźwiedzki, Robert; Brachaniec, Tomasz; Salomon, Mariusz A. (25 November 2020). "Bromalites from the Upper Triassic Polzberg section (Austria); insights into trophic interactions and food chains of the Polzberg palaeobiota". Scientific Reports. 10 (1): 20545. doi:10.1038/s41598-020-77017-x. PMC 7689505. PMID 33239675.
95. Lukeneder, P.; Lukeneder, A. (2022). "Mineralized belemnoid cephalic cartilage from the late Triassic Polzberg Konservat-Lagerstätte (Austria)". PLOS One. 17 (4): e0264595. Bibcode:2022PLoSO..1764595L. doi:10.1371/journal.pone.0264595. PMC 9020720. PMID 35442996.
96. Lukeneder, Alexander; Lukeneder, Petra (17 August 2021). "The Upper Triassic Polzberg palaeobiota from a marine Konservat-Lagerstätte deposited during the Carnian Pluvial Episode in Austria". Scientific Reports. 11 (1): 16644. Bibcode:2021NatSR..1116644L. doi:10.1038/s41598-021-96052-w. PMC 8370992. PMID 34404880.
97. Frankowiak, K.; Mazur, M.; Gothmann, A. M.; Stolarski, J. (15 July 2013). "Diagenetic Alteration of Triassic Coral from the Aragonite Konservat-Lagerstatte in Alakir Cay, Turkey: Implications for Geochemical Measurements". PALAIOS. 28 (6): 333–342. doi:10.2110/palo.2012.p12-116r. ISSN 0883-1351.
98. Duffin, Christopher J.; Garassino, Alessandro; Pasini, Giovanni (19 May 2023). "Squaloraja Riley 1833 (Holocephala: Squalorajidae) from the Lower Jurassic of Osteno Konservat-Lagerstätte (Como, NW Italy)". Natural History Sciences. 10 (1). doi:10.4081/nhs.2023.642. ISSN 2385-0922. S2CID 258822179.
99. Marroquín, Selva M.; Martindale, Rowan C.; Fuchs, Dirk (7 February 2018). "New records of the late Pliensbachian to early Toarcian (Early Jurassic) gladius-bearing coleoid cephalopods from the Ya Ha Tinda Lagerstätte, Canada". Papers in Palaeontology. 4 (2): 245–276. doi:10.1002/spp2.1104. S2CID 135120464. Retrieved 8 April 2023.
100. Martindale, Rowan C.; Aberhan, Martin (15 July 2017). "Response of macrobenthic communities to the Toarcian Oceanic Anoxic Event in northeastern Panthalassa (Ya Ha Tinda, Alberta, Canada)". Palaeogeography, Palaeoclimatology, Palaeoecology. 478: 103–120. Bibcode:2017PPP...478..103M. doi:10.1016/j.palaeo.2017.01.009. Retrieved 29 April 2023.
101. Martindale, Rowan C.; Them, Theodore R.; Gill, Benjamin C.; Marroquín, Selva M.; Knoll, Andrew H. (1 July 2017). "A new Early Jurassic (ca. 183 Ma) fossil Lagerstätte from Ya Ha Tinda, Alberta, Canada". Geology. 45 (3): 255–258. Bibcode:2017Geo....45..255M. doi:10.1130/G38808.1. hdl:10919/81874. S2CID 56182151.
102. Muscente, A. D.; Martindale, Rowan C.; Schiffbauer, James D.; Creighton, Abby L.; Bogan, Brooke A. (4 November 2019). "Taphonomy of the Lower Jurassic Konservat-Lagerstätte at Ya Ha Tina (Alberta, Canada) and Its Significance for Exceptional Fossil Preservation During Oceanic Anoxic Events". PALAIOS. 34 (11): 515–541. Bibcode:2019Palai..34..515M. doi:10.2110/palo.2019.050. S2CID 208268686. Retrieved 29 April 2023.
103. Williams, Matt; Benton, Michael James; Ross, Andrew (15 July 2015). "The Strawberry Bank Lagerstätte reveals insights into Early Jurassic life". Journal of the Geological Society. 172 (6): 683–692. Bibcode:2015JGSoc.172..683W. doi:10.1144/jgs2014-144. hdl:1983/a7fc8bb4-889c-4fe9-b049-86d284141316. S2CID 52971056. Retrieved 18 June 2023.
104. Little, Crispin T. S.; Gale, Andy; Williams, Matt; Hammer, Øyvind; Fernandez, Vincent (24 January 2023). "Bivalve-barnacle pseudoplanktonic colonisation of wood from the Toarcian, Lower Jurassic, Strawberry Bank Lagerstätte, Somerset, UK". Acta Palaeontologica Polonica. 68 (1): 133–142. doi:10.4202/app.01018.2022. S2CID 256258263. Retrieved 18 June 2023.
105. Srdic, Alexander; Beardmore, Susan; Lomax, Dean R. (10 September 2019). "A rediscovered Lower Jurassic ichthyosaur skeleton possibly from the Strawberry Bank Lagerstätte, Somerset, UK". Historical Biology. 33 (6): 814–822. doi:10.1080/08912963.2019.1663840. S2CID 203358919. Retrieved 18 June 2023.
106. Jamison-Todd, Sarah; Moon, Benjamin C.; Rowe, Andre J.; Williams, Matt; Benton, Michael James (29 September 2022). "Dietary niche partitioning in Early Jurassic ichthyosaurs from Strawberry Bank". Journal of Anatomy. 241 (6): 1409–1423. doi:10.1111/joa.13744. PMC 9644957. PMID 36175086.
107. Ruebsam, W.; Schmid-Röhl, A.; Al-Husseini, M. (2023). "Astronomical timescale for the early Toarcian (Early Jurassic) Posidonia Shale and global environmental changes". Palaeogeography, Palaeoclimatology, Palaeoecology. 623: 111619. Bibcode:2023PPP...62311619R. doi:10.1016/j.palaeo.2023.111619. S2CID 258545235. Retrieved 10 July 2023.
108. Röhl, Hans-Joachim; Schmid-Röhl, Annette; Oschmann, Wolfgang; Frimmel, Andreas; Schwark, Lorenz (1 January 2011). "The Posidonia Shale (Lower Toarcian) of SW-Germany: an oxygen-depleted ecosystem controlled by sea level and palaeoclimate". Palaeogeography, Palaeoclimatology, Palaeoecology. 165 (1–2): 27–52. doi:10.1016/S0031-0182(00)00152-8. Retrieved 1 July 2023.
109. Carvalho, Carlos Neto de; Pereira, Bruno Claro; Klompmaker, Adiel; Baucon, Andrea; Moita, José António; Pereira, Pedro; Machado, Susana; Belo, João; Carvalho, Jorge M. F.; Mergulhão, Lia (3 May 2016). "Running crabs, walking crinoids, grazing gastropods: behavioral diversity and evolutionary implications in the Cabeço da Ladeira lagerstätte (Middle Jurassic, Portugal)". Comunicações Geológicas: 39–54. ISSN 0873-948X. Retrieved 8 June 2024.
110. Bravi, Sergio; Garassino, Alessandro; Bartiromo, Antonello; Audo, Denis; Charbonnier, Sylvain; Schweigert, Günter; Thévenard, Frédéric; Longobardi, Cristiano (1 April 2014). "Middle Jurassic Monte Fallano Plattenkalk (Campania, southern Italy): first report on terrestrial plants, decapod crustaceans and fishes". Neues Jahrbuch für Geologie und Paläontologie - Abhandlungen. 272: 79–107. doi:10.1127/0077-7749/2014/0398.
111. Hart, Malcolm B.; De Jonghe, Alex; Page, Kevin N.; Price, Gregory D.; Smart, Christopher W. (1 May 2016). "EXCEPTIONAL ACCUMULATIONS OF STATOLITHS IN ASSOCIATION WITH THE CHRISTIAN MALFORD LAGERSTÄTTE (CALLOVIAN, JURASSIC) IN WILTSHIRE, UNITED KINGDOM". PALAIOS. 31 (5): 203–220. doi:10.2110/palo.2015.066. ISSN 0883-1351. Retrieved 12 May 2024 – via GeoScienceWorld.
112. Wings, Oliver; Rabi, Márton; Schneider, Jörg W.; Schwermann, Leonie; Sun, Ge; Zhou, Chang-Fu; Joyce, Walter G. (2012), "An enormous Jurassic turtle bone bed from the Turpan Basin of Xinjiang, China", Naturwissenschaften, 114 (11): 925–35, Bibcode:2012NW.....99..925W, doi:10.1007/s00114-012-0974-5, PMID 23086389, S2CID 17423081
113. Ponomarenko, A. G.; Aristov, D. S.; Bashkuev, A. S.; Gubin, Yu. M.; Khramov, A. V.; Lukashevich, E. D.; Popov, Yu. A.; Pritykina, L. N.; Sinitsa, S. M.; Sinitshenkova, N. D.; Sukatsheva, I. D.; Vassilenko, D. V.; Yan, E. V. (1 December 2014). "Upper Jurassic Lagerstätte Shar Teg, southwestern Mongolia". Paleontological Journal. 48 (14): 1573–1682. doi:10.1134/S0031030114140160. ISSN 1555-6174.
114. Zell, Patrick; Beckmann, Seija; Stinnesbeck, Wolfgang (December 2014). "Age and depositional conditions of the marine vertebrate concentration Lagerstätte at Gomez Farías, southern Coahuila, Mexico". Journal of South American Earth Sciences. 56: 91–109. doi:10.1016/j.jsames.2014.08.009. Retrieved 8 June 2024 – via Elsevier Science Direct.
115. Frese, Michael; Gloy, Gerda; Oberprieler, Rolf G.; Gore, Damian B. (5 June 2017). "Imaging of Jurassic fossils from the Talbragar Fish Bed using fluorescence, photoluminescence, and elemental and mineralogical mapping". PLOS ONE. 12 (6): e0179029. Bibcode:2017PLoSO..1279029F. doi:10.1371/journal.pone.0179029. ISSN 1932-6203. PMC 5459505. PMID 28582427.
116. Kin, Adrian; Gruszczyński, Michał; Martill, David; Marshall, Jim D.; Błażejowski, Błażej (2013). "Palaeoenvironment and taphonomy of a Late Jurassic (Late Tithonian) Lagerstätte from central Poland". Lethaia. 46 (1): 71–81. doi:10.1111/j.1502-3931.2012.00322.x. ISSN 0024-1164.
117. Błażejowski, Błażej; Weryński, Łukasz; Wierzbowski, Andrzej; Michalska, Monika; Hryniewicz, Krzysztof; Uchman, Alfred; Kugler, Stanisław; Bącal, Paweł; Hołda-Michalska, Aleksandra (2023). "Summary of a decade of research at the Owadów–Brzezinki Lagerstätte (Tithonian, central Poland): A review and perspectives for the future". Volumina Jurassica. 21: 83–98. ISSN 1731-3708.
118. Rozada, Lee; Allain, Ronan; Vullo, Romain; Goedert, Jean; Augier, Dominique; Jean, Amandine; Marchal, Jonathan; Peyre de Fabrègues, Claire; Qvarnström, Martin; Royo-Torres, Rafael (23 January 2021). "A Lower Cretaceous Lagerstätte from France: a taphonomic overview of the Angeac-Charente vertebrate assemblage". Lethaia. 54 (2): 141–165. doi:10.1111/let.12394. S2CID 234299378. Retrieved 29 June 2023.
119. Gil-Delgado, Alejandro; Delclòs, Xavier; Sellés, Albert; Galobart, Àngel; Oms, Oriol (17 April 2023). "The Early Cretaceous coastal lake Konservat-Lagerstätte of La Pedrera de Meià (Southern Pyrenees)". Geologica Acta. 21: 1–XIII. doi:10.1344/GeologicaActa2023.21.3. hdl:2445/201820. ISSN 1696-5728.
120. Sánchez-García, Alba; Peñalver, Enrique; Delclòs, Xavier; Engel, Michael S. (2019). Smith, Andrew (ed.). "Jumping bristletails (Insecta, Archaeognatha) from the Lower Cretaceous amber of Lebanon". Papers in Palaeontology. 5 (4): 679–697. doi:10.1002/spp2.1261. hdl:2445/163385. ISSN 2056-2799.
121. Sibelle, Maksoud; Dany, Azar (2023). "Lebanese Amber: A Fantastic Journey into the Time of Dinosaurs" (PDF). Journal of Gems & Gemmology. 25 (4): 136–145. doi:10.15964/j.cnki.027jgg.2023.04.012. ISSN 2096-9120.
122. Kopylov, D. S.; Rasnitsyn, A. P.; Aristov, D. S.; Bashkuev, A. S.; Bazhenova, N. V.; Dmitriev, V. Yu.; Gorochov, A. V.; Ignatov, M. S.; Ivanov, V. D.; Khramov, A. V.; Legalov, A. A.; Lukashevich, E. D.; Mamontov, Yu. S.; Melnitsky, S. I.; Ogłaza, B. (1 December 2020). "The Khasurty Fossil Insect Lagerstätte". Paleontological Journal. 54 (11): 1221–1394. doi:10.1134/S0031030120110027. ISSN 1555-6174.
123. Poropat, Stephen F.; Martin, Sarah K.; Tosolini, Anne-Marie P.; Wagstaff, Barbara E.; Bean, Lynne B.; Kear, Benjamin P.; Vickers-Rich, Patricia; Rich, Thomas H. (3 April 2018). "Early Cretaceous polar biotas of Victoria, southeastern Australia—an overview of research to date". Alcheringa: An Australasian Journal of Palaeontology. 42 (2): 157–229. Bibcode:2018Alch...42..157P. doi:10.1080/03115518.2018.1453085. ISSN 0311-5518. S2CID 133845914.
124. Filho, Edilson Bezerra dos Santos; Adami-Rodrigues, Karen; Lima, Flaviana Jorge de; Bantim, Renan Alfredo Machado; Wappler, Torsten; Saraiva, Antônio Álamo Feitosa (9 August 2019). "Evidence of plant–insect interaction in the Early Cretaceous Flora from the Crato Formation, Araripe Basin, Northeast Brazil". Historical Biology. 31 (7): 926–937. doi:10.1080/08912963.2017.1408611. ISSN 0891-2963. Retrieved 21 May 2024 – via Taylor and Francis Online.
125. Voltani, Cibele Gasparelo; Osés, Gabriel Ladeira; Freitas, Bernardo Tavares; Prado, Gustavo Marcondes Evangelista Martins; Rohn, Rosemarie; Pacheco, Mírian Liza Alves Forancelli; Anelli, Luiz Eduardo; de Almeida, Renato Paes; Simões, Marcello Guimarães; Caldeira do Prado, Ludmila Alves; Araripe, Rilda Verônica Cardoso de; Galante, Douglas; Rangel, Elidiane Cipriano (2023). "Taphonomy of fish, invertebrates and plant remains in the first Tethyan-South Atlantic marine ingression along Cretaceous rift systems in NE-Brazil". Cretaceous Research. 147: 105508. doi:10.1016/j.cretres.2023.105508. ISSN 0195-6671.
126. "Vertebrates from the uppermost stratigraphic sequence of the Pietraroja plattenkalk (Early Cretaceous, Southern Italy)". iris.unito.it. Retrieved 12 July 2024.
127. Bartiromo, Antonello (1 November 2013). "Plant remains from the Lower Cretaceous Fossil-Lagerstätte of Pietraroja, Benevento, southern Italy". Cretaceous Research. 46: 65–79. doi:10.1016/j.cretres.2013.08.013. ISSN 0195-6671.
128. Lee, Soo Bin; Li, Yan-Da; Cai, Chenyang; Engel, Michael S.; Nam, Gi Soo; Park, Jong Kyun; Nel, André; Jenkins Shaw, Josh; Jouault, Corentin; Legalov, Andrei; Kundrata, Robin (June 2024). "Cretaceous beetles of the Jinju Formation (Coleoptera): An overview of the Jinju Formation, its coleopteran diversity, and past and future research". Journal of Asia-Pacific Entomology. 27 (2): 102236. doi:10.1016/j.aspen.2024.102236. Retrieved 8 June 2024 – via Elsevier Science Direct.
129. Kim, Haang-Mook; Chang, Mee-Mann; Wu, Feixiang; Kim, Yang-Hee (1 January 2014). "A new ichthyodectiform (Pisces, Teleostei) from the Lower Cretaceous of South Korea and its paleobiogeographic implication". Cretaceous Research. 47: 117–130. doi:10.1016/j.cretres.2013.11.007. ISSN 0195-6671.
130. Park, Tae-Yoon; Wilson, George D. F.; Lee, Dong-Chan; Choi, Duck K. (2012). "Occurrence of the isopod Archaeoniscus coreaensis new species from the Lower Cretaceous Jinju Formation, Korea". Journal of Paleontology. 86 (4): 626–640. doi:10.1666/11-131R.1. ISSN 0022-3360.
131. Kim, Kyung Soo; Lockley, Martin G.; Lim, Jong Deock; Kim, Dong Hee (April 2019). "The oldest known anuran (frog) trackways from the Jinju Formation, Lower Cretaceous, Korea". Cretaceous Research. 96: 142–148. doi:10.1016/j.cretres.2018.12.008. Retrieved 8 June 2024 – via Elsevier Science Direct.
132. Than-Marchese, Bruno Andrés; Alvarado-Ortega, Jesús (October 2022). "Armigatus felixi sp. nov. An Albian double armored herring (Clupeomorpha, Ellimmichthyiformes) from the Tlayúa lagerstätte, Mexico". Journal of South American Earth Sciences. 118: 103905. Bibcode:2022JSAES.11803905T. doi:10.1016/j.jsames.2022.103905. Retrieved 29 June 2023.
133. López-Palomino, Isabel; González-Rodríguez, Katia Adriana; Schultze, Hans-Peter; Palma-Ramírez, Arturo; Contreras-Cruz, Diana (1 November 2021). "Ammonites from the La Negra Facies (El Doctor Formation, late Albian) of the Muhi Quarry, Hidalgo, central Mexico". Journal of South American Earth Sciences. 111: 103400. doi:10.1016/j.jsames.2021.103400. ISSN 0895-9811.
134. Néraudeau, Didier; Vullo, Romain; Bénéfice, Pierre; Breton, Gérard; Dépré, Éric; Gaspard, Danièle; Girard, Vincent; Le Couls, Matthieu; Moreau, Jean-David; Nel, André; Perrichot, Vincent; Solórzano-Kraemer, Mónica M.; Wappler, Torsten (July 2020). "The paralic Albian–Cenomanian Puy-Puy Lagerstätte (Aquitaine Basin, France): An overview and new data". Cretaceous Research. 111: 104124. Bibcode:2020CrRes.11104124N. doi:10.1016/j.cretres.2019.03.022. S2CID 133649140. Retrieved 18 June 2023.
135. Vullo, Romain; Néraudeau, Didier; Dépré, Eric (October 2013). "Vertebrate remains from the Cenomanian (Late Cretaceous) plant-bearing Lagerstätte of Puy-Puy (Charente-Maritime, France)". Cretaceous Research. 45: 314–320. Bibcode:2013CrRes..45..314V. doi:10.1016/j.cretres.2013.06.002. Retrieved 18 June 2023.
136. Santos, Artai A.; Xiao, Lifang; Labandeira, Conrad C.; Néraudeau, Didier; Dépré, Eric; Moreau, Jean-David; Perrichot, Vincent; Wappler, Torsten (1 July 2022). "Plant–insect interactions from the mid-Cretaceous at Puy-Puy (Aquitaine Basin, western France) indicates preferential herbivory for angiosperms amid a forest of ferns, gymnosperms, and angiosperms". Botany Letters. 169 (4): 568–587. doi:10.1080/23818107.2022.2092772. S2CID 250241945. Retrieved 18 June 2023.
137. Friedman, Matt; Beckett, Hermione T.; Close, Roger A.; Johanson, Zerina (2016). "The English Chalk and London Clay: two remarkable British bony fish Lagerstätten". Geological Society, London, Special Publications. 430 (1): 165–200. doi:10.1144/SP430.18. ISSN 0305-8719.
138. George, Hady; Bazzi, Mohamad; Hossny, Tamara El; Ashraf, Nida; Saad, Pierre Abi; Clements, Thomas (29 April 2024). "The famous fish beds of Lebanon: the Upper Cretaceous Lagerstätten of Haqel, Hjoula, Nammoura, and Sahel Aalma". Journal of the Geological Society. 181 (5). doi:10.1144/jgs2023-210. ISSN 0016-7649.
139. Palci, Alessandro; Jurkovšek, Bogdan; Kolar-Jurkovšek, Tea; Caldwell, Michael W. (2008). "New palaeoenvironmental model for the Komen (Slovenia) Cenomanian (Upper Cretaceous) fossil lagerstätte". Cretaceous Research. 29 (2): 316–328. doi:10.1016/j.cretres.2007.05.003. ISSN 0195-6671.
140. Cawley, John; Lehmann, Jens; Wiese, Frank; Kriwet, Jürgen (2020). "Njoerdichthys dyckerhoffi gen. et sp. nov. (Pycnodontiformes, lower Turonian) northward migration caused by the Cretaceous Thermal Maximum". Cretaceous Research. 116: 104590. doi:10.1016/j.cretres.2020.104590. ISSN 0195-6671. PMC 7611863. PMID 34690488.
141. Klug, Christian; Riegraf, Wolfgang; Lehmann, Jens (2012). "Soft–part preservation in heteromorph ammonites from the Cenomanian–Turonian Boundary Event (OAE 2) in north–west Germany". Palaeontology. 55 (6): 1307–1331. doi:10.1111/j.1475-4983.2012.01196.x. ISSN 0031-0239.
142. Cooper, Samuel L. A.; Martill, David M. (1 December 2020). "Pycnodont fishes (Actinopterygii, Pycnodontiformes) from the Upper Cretaceous (lower Turonian) Akrabou Formation of Asfla, Morocco". Cretaceous Research. 116: 104607. doi:10.1016/j.cretres.2020.104607. ISSN 0195-6671. PMC 7442934. PMID 32863512.
143. Martill, David M.; Ibrahim, Nizar; Brito, Paulo M.; Baider, Lahssen; Zhouri, Samir; Loveridge, Robert; Naish, Darren; Hing, Richard (2011). "A new Plattenkalk Konservat Lagerstätte in the Upper Cretaceous of Gara Sbaa, south-eastern Morocco". Cretaceous Research. 32 (4): 433–446. doi:10.1016/j.cretres.2011.01.005. ISSN 0195-6671.
144. Brothers, D. J.; Rasnitsyn, A. P. (1 September 2003). "Diversity of Hymenoptera and other insects in the Late Cretaceous (Turonian) deposits at Orapa, Botswana : a preliminary review". African Entomology. 11 (2): 221–226. ISSN 1021-3589. Retrieved 8 June 2024 – via Sabinet.
145. Woolley, Christopher (6 June 2016). "The first scarabaeid beetle (Coleoptera, Scarabaeidae, Melolonthinae) described from the Mesozoic (Late-Cretaceous) of Africa". African Invertebrates. 57 (1): 53–66. doi:10.3897/AfrInvertebr.57.8416. ISSN 2305-2562. Retrieved 8 June 2024.
146. Mnguni, Sandiso; McKay, Ian James; Badenhorst, Shaw (29 April 2024). "A Fossil Paederinae from a Lacustrine Deposit at Orapa Diamond Mine in Botswana1". Journal of Entomological Science. doi:10.18474/JES23-99. ISSN 0749-8004. Retrieved 8 June 2024.
147. Grimaldi, David; Agosti, Donat (5 December 2000). "A formicine in New Jersey Cretaceous amber (Hymenoptera: Formicidae) and early evolution of the ants". Proceedings of the National Academy of Sciences. 97 (25): 13678–13683. doi:10.1073/pnas.240452097. ISSN 0027-8424. PMC 17635. PMID 11078527.
148. Trzęsiok, Dawid; Krzykawski, Tomasz; Niedźwiedzki, Robert; Brom, Krzysztof; Gorzelak, Przemysław; Salamon, Mariusz A. (1 May 2014). "Palaeoenvironment of the Upper Cretaceous (Coniacian) concretion-bearing Lagerstätten from Poland". Palaeogeography, Palaeoclimatology, Palaeoecology. 401: 154–165. doi:10.1016/j.palaeo.2014.02.030. ISSN 0031-0182.
149. Brownstein, Chase Doran (1 April 2019). "First Record of a Small Juvenile Giant Crocodyliform and its Ontogenetic and Biogeographic Implications". Bulletin of the Peabody Museum of Natural History. 60 (1): 81. doi:10.3374/014.060.0104. ISSN 0079-032X.
150. Self-Trail, Jean M.; Gardner, Kristina F.; O'Keefe, Jennifer; Mason, Patricia H.; Puckett, Mark; Gibson, Michael A.; McCarty, M. Maeve (2024). "Microfossils and biostratigraphy of the Upper Cretaceous Coon Creek Formation Lagerstätte, Mississippi Embayment, USA". Geological Society, London, Special Publications. 545 (1). doi:10.1144/SP545-2023-137. ISSN 0305-8719.
151. Vrazo, M. B.; Diefendorf, A. F.; Crowley, B. E.; Czaja, A. D. (2018). "Late Cretaceous marine arthropods relied on terrestrial organic matter as a food source: Geochemical evidence from the Coon Creek Lagerstätte in the Mississippi Embayment". Geobiology. 16 (2): 160–178. doi:10.1111/gbi.12270. ISSN 1472-4677. PMID 29350453.
152. "PBDB". paleobiodb.org. Retrieved 12 July 2024.
153. Paparella, Ilaria; Palci, Alessandro; Nicosia, Umberto; Caldwell, Michael W. (2018). "A new fossil marine lizard with soft tissues from the Late Cretaceous of southern Italy". Royal Society Open Science. 5 (6): 172411. doi:10.1098/rsos.172411. ISSN 2054-5703. PMC 6030324. PMID 30110414.
154. Jagt, John W.M.; Jagt-Yazykova, Elena A.; Kaddumi, Hani F.; Lindgren, Johan (2 October 2018). "Ammonite dating of latest Cretaceous mosasaurid reptiles (Squamata, Mosasauroidea) from Jordan—preliminary observations". Alcheringa: An Australasian Journal of Palaeontology. 42 (4): 587–596. doi:10.1080/03115518.2017.1308011. ISSN 0311-5518.
155. Lindgren, Johan; Kaddumi, Hani F.; Polcyn, Michael J. (10 September 2013). "Soft tissue preservation in a fossil marine lizard with a bilobed tail fin". Nature Communications. 4 (1): 2423. doi:10.1038/ncomms3423. ISSN 2041-1723. PMID 24022259.
156. DePalma, Robert; et al. (2 April 2019). "A seismically induced onshore surge deposit at the KPg boundary, North Dakota". Proceedings of the National Academy of Sciences of the United States of America. 116 (17): 8190–8199. Bibcode:2019PNAS..116.8190D. doi:10.1073/pnas.1817407116. PMC 6486721. PMID 30936306.
157. Lauridsen, B. W.; Bjerager, M. (15 December 2021). "The fauna of a Danian fossil Conservation Lagerstätten from the cold-water coral mound complex at Faxe, Denmark". Palaeogeography, Palaeoclimatology, Palaeoecology. 584: 110700. doi:10.1016/j.palaeo.2021.110700. ISSN 0031-0182.
158. Cantalice, Kleyton Magno; Martínez-Melo, Alejandra; Romero-Mayén, Violeta Amparo (30 August 2019). "The paleoichthyofauna housed in the Colección Nacional de Paleontología of Universidad Nacional Autónoma de México". Zoosystematics and Evolution. 95 (2): 429–452. doi:10.3897/zse.95.35435. ISSN 1860-0743.
159. Alvarado-Ortega, J; Cuevas-García, M; Melgarejo-Damián, M; Cantalice, KS.; Alaniz-Galvan, A; Solano-Templos, G; Than-Marchese, B (2015). "Paleocene fishes from Palenque, Chiapas, southeastern Mexico". Palaeontologia Electronica. doi:10.26879/536. ISSN 1094-8074.
160. Wedmann, Sonja; Uhl, Dieter; Lehmann, Thomas; Garrouste, Romain; Nel, Andre; Gomez, Bernard; Smith, Krister T.; Schaal, S. F. K. (June 2018). "The Konservat-Lagerstätte Menat (Paleocene; France) – an overview and new insights". Geologica Acta. 16 (2): 189–213. doi:10.1344/GeologicaActa2018.16.2.5. Retrieved 29 April 2023.
161. Michez, Denis; De Meulemeester, Thibaut; Rasmont, Pierre; Nel, André; Patiny, Sébastien (18 February 2009). "New fossil evidence of the early diversification of bees: Paleohabropoda oudardi from the French Paleocene (Hymenoptera, Apidae, Anthophorini)". Zoologica Scripta. 38 (2): 171–181. doi:10.1111/j.1463-6409.2008.00362.x. ISSN 0300-3256. Retrieved 7 July 2024 – via Wiley Online Library.
162. Friedman, Matt; Carnevale, Giorgio (2018). "The Bolca Lagerstätten: shallow marine life in the Eocene". Journal of the Geological Society. 175 (4): 569–579. doi:10.1144/jgs2017-164. ISSN 0016-7649.
163. Bannikov, A. F.; Erebakan, I. G. (2023). "On the Evolution of Some Groups of Marine Bony Fishes in the Cenozoic of the Tethys and Paratethys". Paleontological Journal. 57 (5): 475–490. doi:10.1134/S0031030123050015. ISSN 0031-0301.
164. Giusberti, Luca; Bannikov, Alexander; Boscolo Galazzo, Flavia; Fornaciari, Eliana; Frieling, Joost; Luciani, Valeria; Papazzoni, Cesare Andrea; Roghi, Guido; Schouten, Stefan; Sluijs, Appy; Bosellini, Francesca R.; Zorzin, Roberto (1 June 2014). "A new Fossil-Lagerstätte from the Lower Eocene of Lessini Mountains (northern Italy): A multidisciplinary approach". Palaeogeography, Palaeoclimatology, Palaeoecology. 403: 1–15. doi:10.1016/j.palaeo.2014.03.012. hdl:1874/309076. ISSN 0031-0182.
165. Perkovsky, E. E.; Rasnitsyn, A. P.; Vlaskin, A. P.; Taraschuk, M. V. (2007). "A comparative analysis of the Baltic and Rovno amber arthropod faunas: representative samples". African Invertebrates. 48 (1): 229–245.
166. Rikkinen, Jouko; Schmidt, Alexander R. (2018), "Morphological Convergence in Forest Microfungi Provides a Proxy for Paleogene Forest Structure", Transformative Paleobotany, Elsevier, pp. 527–549, doi:10.1016/b978-0-12-813012-4.00022-x, ISBN 978-0-12-813012-4, retrieved 12 July 2024
167. Heinrichs, Jochen; Feldberg, Kathrin; Bechteler, Julia; Regalado, Ledis; Renner, Matthew A.M.; Schäfer-Verwimp, Alfons; Gröhn, Carsten; Müller, Patrick; Schneider, Harald (2018), "A Comprehensive Assessment of the Fossil Record of Liverworts in Amber", Transformative Paleobotany, Elsevier, pp. 213–252, doi:10.1016/b978-0-12-813012-4.00012-7, ISBN 978-0-12-813012-4, retrieved 12 July 2024
168. Wolfe, Alexander P.; McKellar, Ryan C.; Tappert, Ralf; Sodhi, Rana N.S.; Muehlenbachs, Karlis (2016). "Bitterfeld amber is not Baltic amber: Three geochemical tests and further constraints on the botanical affinities of succinite". Review of Palaeobotany and Palynology. 225: 21–32. doi:10.1016/j.revpalbo.2015.11.002. ISSN 0034-6667.
169. Greenwalt, Dale E.; Rose, Tim R.; Siljestrom, Sandra M.; Goreva, Julia S.; Constenius, Kurt N.; Wingerath, Jonathan G. (24 June 2014). "Taphonomy of the Fossil Insects of the Middle Eocene Kishenehn Formation". Acta Palaeontologica Polonica. 60 (4): 931–947. doi:10.4202/app.00071.2014. S2CID 53364401.
170. Herendeen, Patrick S.; Jacobs, Bonnie F. (September 2000). "Fossil Legumes from the Middle Eocene (46.0 Ma) Mahenge Flora of Singida, Tanzania". American Journal of Botany. 87 (9): 1358–1366. doi:10.2307/2656727. JSTOR 2656727. PMID 10991905. Retrieved 29 June 2023.
171. Schlüter, Thomas (2018). "Eocene insects from a Maar Lagerstätte at Mahenge, northern Tanzania". Entomologia Generalis. 37 (3–4): 375–392. doi:10.1127/entomologia/2017/0653. S2CID 91844938. Retrieved 29 June 2023.
172. Lalloy, F.; Rage, J. C.; Evans, S.E.; Boistel, R.; Lenoir, N.; Laurin, M. (2013). "A re-interpretation of the Eocene anuran Thaumastosaurus based on microCT examination of a 'mummified' specimen". PLOS One. 8 (9): 1–11. Bibcode:2013PLoSO...874874L. doi:10.1371/journal.pone.0074874. PMC 3783478. PMID 24086389.
173. Halaçlar, Kazım; Rummy, Paul; Liu, Jia; Hunt, Adrian P.; Van Do, Truong; Minh, Nguyen Trung; Deng, Tao (15 September 2023). "Exceptionally well-preserved crocodilian coprolites from the Late Eocene of Northern Vietnam: Ichnology and paleoecological significance". iScience. 26 (9): 107607. doi:10.1016/j.isci.2023.107607. PMC 10470398. PMID 37664591.
174. CoBabe, E. A. (1 June 2002). "A new insect and plant Lagerstatte from a Tertiary lake deposit along the Canyon Ferry Reservoir, southwestern Montana". Rocky Mountain Geology. 37 (1): 13–30. doi:10.2113/gsrocky.37.1.13. ISSN 1555-7332. Retrieved 8 June 2024 – via GeoScienceWorld.
175. Maxwell, Erin E.; Alexander, Stefanie; Bechly, Günter; Eck, Kristina; Frey, Eberhard; Grimm, Kirsten; Kovar-Eder, Johanna; Mayr, Gerald; Micklich, Norbert; Rasser, Michael; Roth-Nebelsick, Anita; Salvador, Rodrigo B.; Schoch, Rainier R.; Schweigert, Günter; Stinnescbeck, Wolfgang; Wolf-Schwenniger, Karin; Ziegler, Reinhard (1 December 2016). "The Rauenberg fossil Lagerstätte (Baden-Württemberg, Germany): A window into early Oligocene marine and coastal ecosystems of Central Europe". Palaeogeography, Palaeoclimatology, Palaeoecology. 463: 238–260. Bibcode:2016PPP...463..238M. doi:10.1016/j.palaeo.2016.10.002. Retrieved 29 April 2023.
176. Quan, Cheng; Fu, QiongYao; Shi, GongLe; Liu, YuSheng; Li, Long; Liu, XiaoYan; Jin, JianHua (9 January 2016). "First Oligocene mummified plant Lagerstätte at the low latitudes of East Asia". Science China Earth Sciences. 59 (3): 445–448. doi:10.1007/s11430-015-5250-z. ISSN 1674-7313.
177. Shi, Xiang-Gang; Fu, Qiong-Yao; Jin, Jian-Hua; Quan, Cheng (21 June 2017). "Mummified Oligocene fruits of Schima (Theaceae) and their systematic and biogeographic implications". Scientific Reports. 7 (1): 4009. doi:10.1038/s41598-017-04349-6. ISSN 2045-2322. PMC 5479851. PMID 28638066.
178. Fu, Qiong-Yao; Li, Long; Jin, Jian-Hua; Liu, Xiao-Yan; Quan, Cheng (17 May 2017). "Mummified fruits of Choerospondias nanningensis sp. nov. (Anacardiaceae) from the upper Oligocene of a low latitude site in East Asia". Journal of Systematics and Evolution. 55 (5): 477–483. doi:10.1111/jse.12255. ISSN 1674-4918. Retrieved 12 May 2024 – via Wiley Online Library.
179. Han, Meng; Manchester, Steven R.; Wu, Yan; Jin, Jianhua; Quan, Cheng (2 August 2017). "Fossil fruits of Canarium (Burseraceae) from Eastern Asia and their implications for phytogeographical history". Journal of Systematic Palaeontology. 16 (10): 841–852. doi:10.1080/14772019.2017.1349624. ISSN 1477-2019. Retrieved 12 May 2024 – via Taylor and Francis Online.
180. Wedmann, Sonja; Poschmann, Markus; Hörnschemeyer, Thomas (19 November 2009). "Fossil insects from the Late Oligocene Enspel Lagerstätte and their palaeobiogeographic and palaeoclimatic significance". Palaeobiodiversity and Palaeoenvironments. 90: 49–58. doi:10.1007/s12549-009-0013-5. S2CID 84729592.
181. Gaudant, Jean; Nel, André; Nury, Denise; Véran, Monette; Carnevale, Giorgio (August–September 2018). "The uppermost Oligocene of Aix-en-Provence (Bouches-du-Rhône, Southern France): A Cenozoic brackish subtropical Konservat-Lagerstätte, with fishes, insects and plants". Comptes Rendus Palevol. 17 (7): 460–478. Bibcode:2018CRPal..17..460G. doi:10.1016/j.crpv.2017.08.002. S2CID 134885555. Retrieved 29 June 2023.
182. George Poinar, Jr. and Roberta Poinar, 1999. The Amber Forest: A Reconstruction of a Vanished World, (Princeton University Press) ISBN 0-691-02888-5
183. Lee, Daphne E.; Kaulfuss, Uwe; Conran, John G.; Bannister, Jennifer M.; Lindqvist, Jon K. (11 August 2016). "Biodiversity and palaeoecology of Foulden Maar: an early Miocene Konservat-Lagerstätte deposit in southern New Zealand". Alcheringa: An Australasian Journal of Palaeontology. 40 (4): 525–541. Bibcode:2016Alch...40..525L. doi:10.1080/03115518.2016.1206321. S2CID 132004293. Retrieved 29 April 2023.
184. Kaulfuss, Uwe; Bannister, Jennifer M.; Conran, John G.; Kennedy, Elizabeth M.; Mildenhall, Dallas C.; Lee, Daphne E. (April 2023). "Review of flowers and inflorescences with in situ pollen from the Miocene Foulden and Hindon Konservat-Lagerstätten, southern New Zealand". Review of Palaeobotany and Palynology. 311: 104830. Bibcode:2023RPaPa.31104830K. doi:10.1016/j.revpalbo.2022.104830. S2CID 255325092. Retrieved 29 April 2023.
185. Grunert, Patrick; Harzhauser, Mathias; Rögl, Fred; Sachsenhofer, Reinhard; Gratzer, Reinhard; Soliman, Ali; Piller, Werner E. (2010). "Oceanographic conditions as a trigger for the formation of an Early Miocene (Aquitanian) Konservat-Lagerstätte in the Central Paratethys Sea". Palaeogeography, Palaeoclimatology, Palaeoecology. 292 (3–4): 425–442. doi:10.1016/j.palaeo.2010.04.001. ISSN 0031-0182.
186. Riquelme, Francisco; Hernández-Patricio, Miguel; Martínez-Dávalos, Arnulfo; et al. (2014). "Two Flat-Backed Polydesmidan Millipedes from the Miocene Chiapas-Amber Lagerstätte, Mexico". PLOS One. 9 (8): e105877. Bibcode:2014PLoSO...9j5877R. doi:10.1371/journal.pone.0105877. PMC 4146559. PMID 25162220.
187. Mah, Christopher L.; Blake, Daniel B. (27 April 2012). "Global Diversity and Phylogeny of the Asteroidea (Echinodermata)". PLOS ONE. 7 (4): e35644. Bibcode:2012PLoSO...735644M. doi:10.1371/journal.pone.0035644. ISSN 1932-6203. PMC 3338738. PMID 22563389.
188. Moser, Markus; Rössner, Gertrud E.; Göhlich, Ursula B.; Böhme, Madelaine; Fahlbusch, Volker (7 February 2009). "The fossil lagerstätte Sandelzhausen (Miocene; southern Germany): history of investigation, geology, fauna, and age". PalZ. 83: 7–23. doi:10.1007/s12542-009-0012-x. S2CID 55172519. Retrieved 29 April 2023.
189. McCurry, Matthew; Cantrill, David; Smith, Patrick; et al. (2022). "A Lagerstätte from Australia provides insight into the nature of Miocene mesic ecosystems". Science Advances. 8 (1): eabm1406. Bibcode:2022SciA....8.1406M. doi:10.1126/sciadv.abm1406. PMC 8741189. PMID 34995110.
190. Kočí, Tomáš; GašParič, Rok; Buckeridge, John; KočOvá Veselská, Martina; šOster, Aleš (29 May 2023). "The first record of a Konservat-Lagerstätten in which early post-settlement stages of fossil archaeobalanids (Cirripedia: Balanomorpha) are preserved". Integrative Zoology. 19 (2): 200–223. doi:10.1111/1749-4877.12728. ISSN 1749-4877. PMID 37248329. Retrieved 12 May 2024 – via Wiley Online Library.
191. Kaulfuss, Uwe; Lee, Daphne E.; Wartho, Jo-Anne; Bowie, Elliot; Lindqvist, Jon K.; Conran, John G.; Bannister, Jennifer M.; Mildenhall, Dallas C.; Kennedy, Elizabeth M.; Gorman, Andrew R. (1 July 2018). "Geology and palaeontology of the Hindon Maar Complex: A Miocene terrestrial fossil Lagerstätte in southern New Zealand". Palaeogeography, Palaeoclimatology, Palaeoecology. 500: 52–68. Bibcode:2018PPP...500...52K. doi:10.1016/j.palaeo.2018.03.022. S2CID 134962038. Retrieved 29 April 2023.
192. Rasmussen, Cornelia; Reichenbacher, Bettina; Lenz, Olaf; Altner, Melanie; Penk, Stefanie B. R.; Prieto, Jerome; Brüsch, Dennis (28 December 2015). "Middle–late Miocene palaeoenvironments, palynological data and a fossil fish Lagerstätte from the Central Kenya Rift (East Africa)". Geological Magazine. 154 (1): 24–56. doi:10.1017/S0016756815000849. S2CID 130521301. Retrieved 29 June 2023.
193. Belaústegui, Zain; Domènech, Rosa; Martinell, Jordi (16 January 2018). "An Ichnofossil-Lagerstätte From the Miocene Vilanova Basin (NE Spain): Taphonomic and Paleoecologic Insights Related to Bioerosion Structures". PALAIOS. 33 (1): 16–28. Bibcode:2018Palai..33...16B. doi:10.2110/palo.2017.082. S2CID 135386238. Retrieved 1 May 2023.
194. Žalohar, Jure; Hitij, Tomaž (1 April 2017). "The first known fossil record of pipehorses (Teleostei: Syngnathidae: Haliichthyinae) from the Miocene Coprolitic Horizon from the Tunjice Hills, Slovenia". Annales de Paléontologie. 103 (2): 113–125. doi:10.1016/j.annpal.2017.04.001. ISSN 0753-3969.
195. Métais, Grégoire; Sen, Sevket (August–September 2018). "The late Miocene mammals from the Konservat-Lagerstätte of Saint-Bauzile (Ardèche, France) Conservation exceptionnelle de mammifères du Miocène supérieur à Saint-Bauzile (Ardèche, France)". Comptes Rendus Palevol. 17 (7): 479–493. doi:10.1016/j.crpv.2018.05.001. S2CID 134016889.
196. Saint Martin, Jean-Paul (April–June 2010). "The Girvanella-like remains from Messinian marine deposits (Sardinia, Italy): Lagerstätten paradigm for microbial biota?". Annales de Paléontologie. 96 (2): 33–50. doi:10.1016/j.annpal.2010.10.002. Retrieved 12 May 2024 – via Elsevier Science Direct.
197. Bustillo, María Ángeles; Díaz-Molina, Margarita; López-García, María José; Delclòs, Xavier; Peláez-Campomanes, Pablo; Peñalver, Enrique; Rodríguez-Talavera, Rosario; Sanchiz, Borja (3 August 2017). "Geology and paleontology of Tresjuncos (Cuenca, Spain), a new diatomaceous deposit with Konservat-Lagerstätte characteristics from the European late Miocene". Journal of Iberian Geology. 43 (3): 395–411. doi:10.1007/s41513-017-0032-4. hdl:2445/163339. S2CID 133950518. Retrieved 29 April 2023.
198. Kolibáč, Jiří; Adroit, Benjamin; Gröning, Elke; Brauckmann, Carsten; Wappler, Torsten (8 August 2016). "First record of the family Trogossitidae (Insecta, Coleoptera) in the Late Pliocene deposits of Willershausen (Germany)". PalZ. 90 (4): 681–689. doi:10.1007/s12542-016-0316-6. ISSN 0031-0220. Retrieved 8 June 2024 – via Springer Link.
199. Rijsdijk, Kenneth F.; Hume, Julian P.; Bunnik, Frans; Florens, F. B. Vincent; Baider, Claudia; Shapiro, Beth; van der Plicht, Johannes; Janoo, Anwar; Griffiths, Owen; van den Hoek Ostende, Lars W.; Cremer, Holger; Vernimmen, Tamara; De Louw, Perry G. B.; Bholah, Assenjee; Saumtally, Salem (1 January 2009). "Mid-Holocene vertebrate bone Concentration-Lagerstätte on oceanic island Mauritius provides a window into the ecosystem of the dodo (Raphus cucullatus)". Quaternary Science Reviews. 28 (1): 14–24. doi:10.1016/j.quascirev.2008.09.018. ISSN 0277-3791.
200. Krueger, Andrea; McCarthy, Francine (2016). "Great Canadian Lagerstätten 5. Crawford Lake – A Canadian Holocene Lacustrine Konservat-Lagerstätte with Two-Century-Old Viable Dinoflagellate Cysts". Geoscience Canada. 43 (2): 123–132. doi:10.12789/geocanj.2016.43.086. ISSN 0315-0941.

Further reading

• Penney, D. (ed.) 2010. Biodiversity of Fossils in Amber from the Major World Deposits. Siri Scienfic Press, Manchester, 304 pp.
• "Fossil Lagerstätten". Department of Earth Sciences, University of Bristol. 2003. Archived from the original on 12 June 2007. Retrieved 21 November 2005. – A catalogue of sites of exceptional fossil preservation produced by MSc palaeobiology students at University of Bristol's Department of Earth Sciences.
• Orr, Patrick J.; David J. Siveter (1 January 2000). "Three-dimensional preservation of a non-biomineralized arthropod in concretions in Silurian volcaniclastic rocks from Herefordshire, England". Journal of the Geological Society. 157 (1): 173–86. Bibcode:2000JGSoc.157..173O. doi:10.1144/jgs.157.1.173. S2CID 129635160. Retrieved 26 October 2006.
• Kimmig, Julien; James D. Schiffbauer (25 April 2024). "A modern definition of Fossil-Lagerstätten". Trends in Ecology and Evolution. 39 (6): 621–624. doi:10.1016/j.tree.2024.04.004. PMID 38670863. Retrieved 5 May 2024.