List of Fossils with Soft Tissues
Below is a list of Fossils discovered with soft tissues still remaining in a table format.
Why is this list important? The recent discovery of undecomposed soft tissues in fossils is extraordinarily strong evidence, arguably a proof, these dinosaurs did not die tens of millions of years ago as is commonly claimed from naturalists but instead the creature died no more than a few thousand years ago. This evidence also overthrows the previously held dates of the geologic column knowing the contents of the rocks cannot be younger than the rocks themselves.
If you have discovered a fossil online that has not been listed here, please feel free to add it to the list by linking to the news story or other reference, a short description of what soft tissues remain intact, the type of the fossil if provided, and the date of discovery if provided.
ICR List of Biomaterial Fossil Papers
This list is from the Institute of Creation Research at this link.
# | Year | Description | Secular Age | Reference | Link(s) | Vol (Issue), pp, DOI, etc. |
---|---|---|---|---|---|---|
122 | 2022 | Turtle blood vessels and osteocytes | 65MY | Voegele et al. Soft tissue and biomolecular preservation..., Biology | link | nan |
121 | 2021 | Caudipteryx chromatin/DNA | 125MY | Zheng et al. Nuclear preservation in the cartilage of Caudipteryx, Comm Biol | link | 22:45:00 |
120 | 2021 | Parts of proteins in titanosaur eggshell | ~70MY | Dhiman et al. Protein fragments in late Cretaceous eggshell, Paleontology | link | 7/13/2021:1-11 |
119 | 2021 | Nerve fragments, sheath, from Triceratops bone | 65MY | Armitage, First Report of Triceratops Occipital Condyle Nerves, Microsc Today | link | 29(2):20-25 |
118 | 2020 | Mongolemys osteocytes, blood vessels | 80MY | Cadena, Edwin-Alberto. In situ SEM/EDS of soft tissues in 3 fossil turtles | link | nan |
117 | 2020 | Dino eggshell peptide bonds and chelating ligands | 200MY | Norell, Wiemann, et al. The first dinosaur egg was soft, Nature | link | 583:406–410 |
116 | 2020 | Hypacrosaurus cartilage; apparent chromosomes | 75MY | Bailleul, Schweitzer et al. Evidence of proteins, chromosomes, DNA, NS Rev | link | doi.org/10.1093/nsr/nwz206 |
115 | 2020 | Triceratops blood clots, veins, valves, nerve fibers | 65MY | Armitage, Solliday, Dinosaur blood clots in vessel canals, Microscopy Today | link | 28(5):30-38 Sept 2020 |
114 | 2019 | Hadrosaur eumelanin, blood vessel, osteocytes | 66MY | Fabbri, Wieman. et al., Three-dimensional soft tissue, Palaeontology | link | 63(2):185–193, Mar 2020. |
113 | 2019 | Permian marker plant's lignin biopolymers | ~255MY | Tewari et al. Biomarker signatures of Glossopteris plant. Palaeogeography PP | link | 531, Part B |
112 | 2019 | T. rex cortical bone blood vessel structures | 66MY | Boatman, Schweitzer et al. Tissue and protein preserved in T. rex, N Sci Rep | link | SR9:15675 |
111 | 2019 | Precambrian chitin (from glucose) from fungi walls | ~950MY | Loron et al. Early fungi from the Proterozoic era in Arctic Canada, Nature | link | 10.1038/s41586-019-1217-0 |
110 | 2019 | Partially unracemized feather amino acids in amber | 99MY | McCoy, Collins et al. Amino acids from feathers in amber, Scientific Reports | link | 9(6420):1-8 |
109 | 2019 | Sugars from Cretaceous fungi in mudstones & coal | ~25-70MY | Marynoswki et al. Indicators of fungal metabolism, Int'l J of Coal Geology | link | May 2019, pp 51-61 |
108 | 2019 | Lebanon's hagfish fossil with skin protein remnants | ~100MY | Miyashita, et al. Hagfish from the Cretaceous Tethys Sea, Proc. Nat'l Acad Sci | link | 10.1073/pnas.1814794116 |
107 | 2019 | Edmontosaur osteocytes, blood vessels, collagen | 66MY | Ullmann, Nellermoe et al. Patterns of cellular preservation Cretaceous Res. | link | 99:1-13 |
106 | 2019 | Anchiornis feather keratin | 160MY | Pan, Schweitzer et al. Direct evidence of feather molecular evolution PNAS | link | 10.1073/pnas.1815703116 |
105 | 2018 | Flexible portions of skin layers, red-brown liver trace | 180MY | Lindgren, Schweitzer et al. Icthyosaur homeothermy and crypsis, Nature | link | 564:359–365 |
104 | 2018 | Bacteriochlorophyll (still pink & biological) pigments | 1.1GY | Gueneli et al 1.1-billion-year-old porphyrins, Proc. Nat'l Acad of Sciences | link | doi.org/10.1073/pnas.1803866115 |
103 | 2018 | Bivalve organics in the late Cretaceous | 66MY | Myers et al. Cretaceous Pinna organic matrix & shell microstructure, Geology | link | 46 (8):711-714 |
102 | 2018 | Dickinsonia lipid biomarkers showing cholesteroids | 558MY | Bobrovskiy et al. Steroids establish Ediacaran Dickinsonia as animal, Science | link | 361(6408):1246-1249 |
101 | 2018 | Starch (a polysaccharide) in a forest deposit | 280MY | Liu et al. Fossil starch reveals early plant–animal mutualism, Geology | link | 46(5):423-426 |
100 | 2017 | Sea turtle muscle protein, beta-keratin, pigment | 54MY | Lindgren, Schweitzer et al. Juvenile sea turtle, Nature: Scientific Reports | link | 7(13324):1-13 |
99 | 2017 | Bird preening (sebaceous) gland still containing oil | 48MY | O'Reilly et al. Uropygial gland lipids in 48MY-old bird, Proc. Royal Soc. B | link | 284(1865) |
98 | 2017 | Dinosaur eggshell color by protoporphyrin/biliverdin | 66MY | Wiemann et al. Dinosaur egg color: oviraptors laid blue-green eggs, PeerJ | link | PeerJ 5:e3706 |
97 | 2017 | Ginkgo leaves "full of organic molecules" | 200MY | Vajda et al. Molecular signatures of leaves unexpected, Nature Eco & Evol | link | s41559-017-0224-5 |
96 | 2017 | Melanin in nodosaurus dino (and other biologicals) | 112MY | Brown et al. Exceptionally preserved armored dinosaur, Current Biology | link | 27(16):2514-2521.e3 |
95 | 2017 | Tick-related mammalian "red blood cells" | 20-45MY | Poinar, Tick erythrocytes reveal piroplasms, Journal of Medical Entomology | link | 54(4):895-900 |
94 | 2017 | Nothosaurus coracoid vessel, hydroxyproline | ~225MY | Surmik et al. Intraosseous fossilized middle Triassic soft tissue, Sci of Nature | link | 104(3-4):25 |
93 | 2017 | Reconfirmation of B. canadensis dinosaur collagen | 80MY | Schroeter, Schweitzer et al. Expansion of sequence, J of Proteome Research | link | 16(2):920-932 |
92 | 2017 | Lufengosaurus rib collagen | 195MY | Lee et al. Collagen in an early Jurassic sauropod, Nature Communications | link | ncomms14220 |
91 | 2016 | Proteinaceous amide groups in chert | 1.88GY | Alleon, Bernard et al. Molecular preservation of 1.88 Ga... organic..., Nature | link | ncomms11977 |
90 | 2016 | Early Triassic reptile blood vessels, etc. | 247MY | Surmik et al. Organic Matter from Triassic Reptile, PLoS ONE | link | pone.0151143 |
89 | 2016 | Psittacosaurus dinosaur skin now also has keratin | 130MY | Vinther et al. Camouflage in an Ornithischian dinosaur, Current Biology | link | 26:2456–2462 |
88 | 2016 | Beta-keratin in oviraptor dinosaur claw | 75MY | Moyer, Schweitzer et al. The claw of nesting dinosaur, Proc Royal Society B | link | 283(1842):1-7 |
87 | 2015 | Hadrosaur "blood vessels from Brachylophosaurus" | 80MY | Cleland, Schweitzer et al. Blood vessels characterization, J Proteome Res | link | 14(12):5252-5262 |
86 | 2015 | Dinosaur collagen and red blood cells | 75MY | Bertazzo, et al. Fibres and cellular structures..., Nature Communications | link | ncomms8352 |
85 | 2015 | Dinosaur melanosomes and pigment | 150MY | Lindgren et al. Molecular composition of Jurassic feathers, Scientific Reports | link | srep13520 |
84 | 2015 | A pterosaur's orange claw material | 150MY | Hone et al. A specimen of Rhamphorhynchus with soft tissue, PeerJ | link | PeerJ 3:e1191 |
83 | 2014 | Precambrian multicellular animals (metazoans) | 530MY | Moczydłowska et al. Biogeochemisty of Ediacaran Metozoa, J of Paleontology | link | 88(2):224-239 |
82 | 2014 | Turtle blood vessels and osteocytes | 55MY | Cadena and Schweitzer. A Pelomedusoid Turtle..., J of Herpetology | link | nan |
81 | 2014 | Bird, marine reptile, mosasaur, icthyosaur pigments | 55-190MY | Edwards et al. Pigments through time [survey], Pigment Cell Melanoma Res. | link | 27(5):684-685 |
80 | 2014 | Turtle, mosasaur, and icthyosaur eumelanin | 55-190MY | Lindren et al. Pigmentation... melanism in extinct marine reptiles, Nature | link | 506(7489):484-488 |
79 | 2014 | Gastropod egg capsule chitin | 200MY | Wysokowski et al. Chitin in 200-million-year-old egg capsules, Paleobiology | link | 40(4):529-540 |
78 | 2014 | Extinct aquatic bird Gansus feather melanosomes | ~125MY | Moyer, Schweitzer et al. Melanosomes or Microbes, Scientific Reports | link | srep04233 |
77 | 2013 | Triceratops osteocytes; soft sheets of fibrillar bone | 65MY | Armitage, Anderson, Soft sheets of horn fibrillar bone, Acta Histochemica | link | 115(6):603-608 |
76 | 2013 | Vauxia sea sponge chitin | 505MY | Ehrlich et al. 505-million-year old chitin in Vauxia gracilenta, Scientific Reports | link | srep03497 |
75 | 2013 | Lufengosaurus embryo bone protein | 190MY | Reisz, Embryology of early Jurassic dino with evidence of organic... Nature | link | 496(7444):210-214 |
74 | 2013 | Signature of blood in mosquito gut | 46MY | Greenwalt et al. Hemoglobin-derived porphyrins. Proc. Nat'l Acad of Sci | link | 2013-10-14 00:00:00 |
73 | 2013 | Dino DNA & proteins actin, tubulin, PHEX, histone | 66-80MY | Schweitzer et al. Analyses of dino osteocytes support endogenous... Bone | link | 52(1):414-23 |
72 | 2013 | Biological material in crinoids | 350MY | O'Malley et al. Taxon-specific organic molecules, Geology | link | 41(3):347-350 |
71 | 2012 | Cuttlefish ink sac | 160MY | Glass et al. Jurassic period eumelanin pigment, Proc. Nat'l Acad. of Sciences | link | 109(26):10218-10223 |
70 | 2012 | Archaeopteryx black melanin organosulpher residue | 150MY | Carney et al. Color and nature of Archaeopteryx feather, Nature | link | ncomms1642 |
69 | 2012 | Jurassic turtle osteocytes | 145MY | Cadena, Schweitzer, Osteocytes preservation from the Jurassic, Bone | link | 51(3):614-620 |
68 | 2011 | Chitin arthropod (scorpion) and eurypterid proteins | 417MY | Cody et al. Molecular signature of Paleozoic chitin-protein complex, Geology | link | 39(3):255-258 |
67 | 2011 | Type 1 collagen in Cretaceous mosasaur humerus | ~70MY | Lindgren et al. Microspectroscopic evidence of bone proteins, PLoS ONE | link | 6(4): e19445 |
66 | 2011 | Endogenous Mississaepia cuttlebone chitin sheets | 34MY | Weaver et al. Late Eocene cuttlefish B-chitin consistent organics, PLoS ONE | link | pone.0028195 |
65 | 2011 | Lizard tail skin breakdown products | 50MY | Edwards et al. Tissue preservation in 50MY-old reptile skin, Proc Royal Soc B | link | rspb.2011.0135 |
64 | 2011 | Type l collagen in T. rex and hadrosaur dinosaurs | 68MY | San Antonio, et al, Dinosaur peptides... mech of protein survival, PLoS ONE | link | pone.0020381 |
63 | 2011 | Bird feather pigment from Confuciusornis sanctus | 120MY | Wogelius et al. Biomarkers for eumelanin pigment in fossil record, Science | link | 333(6049):1622-1626 |
62 | 2010 | Stegosaurus plate keratin | ~150MY | Christiansen et al. Stegosaur impressions, Swiss Journal of Geosciences | link | 103(2):163-171 |
61 | 2010 | Messel feather highly reflective nanostructure | 40MY | Vinther et al. Structural coloration in a fossil feather, Roy Soc Biology Letters | link | 6(1):128-131 |
60 | 2010 | Archaeopteryx feather shaft original chem remains | 150MY | Bergmann et al. Archaeopteryx feathers & bone chemistry, Proc Nat Acad Sci | link | 107(20):9060-9065 |
59 | 2010 | Sinosauropteryx compsognathid dino melanosomes | 125MY | Zhang et al. Fossilized melanosomes and the colour of dinos & birds, Nature | link | 463:1075-1078 |
58 | 2010 | Hadrosaur biomolecules, collagen & other proteins | 80MY | Peterson et al. Microbial biofilms [&] soft tissue in archosaurs, PLoS One | link | pone.0013334 |
57 | 2010 | Psittacosaurus dinosaur skin color | 125MY | Lingham-Soliar et al. Integument & color of a ceratopsian, Science of Nature | link | 97:479-486 |
56 | 2010 | Mammal hair in amber | 100MY | Vullo et al. Mammalian hairs in early Cretaceous amber, Science of Nature | link | 97(7):683-687 |
55 | 2009 | Hadrosaur vessel proteins, sequenced collagen | 80MY | Schweitzer et al. Biomolecular... protein sequences of hadrosaur, Science | link | 324(5927):626-631 |
54 | 2009 | Hadrosaur skin cell structures/macromolecules | 66MY | Manning et al. Chemistry in a mummified hadrosaur, Proc. Royal Society B | link | 276:3429-3437 |
53 | 2009 | Salamander muscle, whole | 18MY | McNamara et al. Organic... fossil musculature with ultracellular detail, P RS B | link | 277(1680):423-427 |
52 | 2008 | Feather melanocytes | 100MY | Vinther et al. The color of fossil feathers, Royal Society Biology Letters | link | 4(5):522-525 |
51 | 2008 | Psittacosaurus skin fibers | ~125MY | Lingham-Soliar, Psittacosaurus complex fibre architecture, Proc Royal Soc B | link | 275(1636):775-780 |
50 | 2008 | T. rex amino acid sequences | 68MY | Schweitzer et al. Molecular methods examining..., Comptes Rendus Palevol | link | 7(2-3):159-184 |
49 | 2008 | Osteocyte (bone cells) | 5MY | Bell et al, Mineralized osteocyte: a living fossil, American Journal of Physics | link | 137:449-456 |
48 | 2007 | Tyrannosaurus rex collagen | 68MY | Schweitzer et al. T. rex soft tissue suggests the presence of protein, Science | link | 316(5822):277-280 |
47 | 2007 | Triceratops blood vessels, osteocytes | 66MY | Schweitzer, Horner et al. Cellular preservation from Cretaceous, Proc RS B | link | 274(1607):183-197 |
46 | 2007 | T. rex proteins sequenced | 68MY | Asara, Schweitzer et al. Mastodon & T. rex protein sequences, Science | link | 316(5822):280-285 |
45 | 2007 | T. rex proteinaceous materials, sequenced collagen | 40-150MY | Smejkal, Schweitzer, Will tech. enable dino proteomics, Exp Rev Proteomics | link | 4(6):695-699 |
44 | 2006 | Frog bone marrow | 10MY | McNamara et al. Organic preservation of amphibian bone marrow, Geology | link | 34(8):641-644 |
43 | 2005 | Sauropod egg shell ovalbumin protein | ~75MY | Schweitzer et al. Molecular preservation in dinosaur eggshells, P Roy Soc B | link | 272(1565):775-784 |
42 | 2005 | Avian bone collagen implying "molecular integrity" | ~75MY | Avci, Schweitzer et al. Bone collagen from late Cretaceous, Langmuir | link | 21(8):3584-3590 |
41 | 2005 | Dinosaurian cellular and sub-cellular preservation | ~68MY | Wittmeyer, Schweitzer, Dino vessels and cells in fossils, J Vert. Paleontology | link | 25(3) 65th Ann. Mtg |
40 | 2005 | T. rex vessels, cells, soft flexible connective tissue | 68MY | Schweitzer, Horner et al. T. rex soft-tissue vessels, cellular preserv., Science | link | 307(5717):1952-1955 |
39 | 2004 | Isolated non-spore-forming bacteria living in amber | 120MY | Greenblatt et al. Micrococcus luteus - Survival in Amber, Microbial Ecology | link | 48(1):120-127 |
38 | 2003 | Skin fibers | 130MY | E. Frey et al., Palaeobiology of Pterosaurs, Geological Society Publication | link | No. 217 |
37 | 2003 | Algal and bacterial organic molecules | 2.5GY | Brocks et al. Biological diversity in molecular fossils, Geoch Cosmochem Acta | link | 67(22):4321-4335 |
36 | 2003 | Iguanodon dinosaur osteocalcin protein | 120MY | Embery et al. Iguanodon bone proteinaceous material, Connective Tissue R | link | 44(1):41-46 |
35 | 2002 | Metasequoia cellulose (with no O18) | 34-56MY | Jahren, Sternberg, Oxygen isootopes in Arctic fossil wood, GSA Today | link | 1/2002:4-9 |
34 | 2001 | Tyrannosaur rex collagen SEM scans | 65MY | Armitage, Mummified collagen fibers in fossil T. rex bone, CRS Quarterly | link | 38(2):61-66 |
33 | 2000 | Live bacteria from halite [salt] deposit | 250MY | Vreeland et al. Isolation of halotolerant bacterium from salt crystal, Nature | link | 407:897-900 |
32 | 2000 | Non-collagen dinosaur proteinaceous extracts | 125MY | Embery et al. Non-collagenous proteins from dinosaur Iguanodon, Conn Tis R | link | 41(3):249-259 |
31 | 1999 | Alvarezsaurid (probable dinosaur) β-keratin protein | ~100MY | Schweitzer et al. Beta-keratin immunological reactivity, J Exper. Zoology | link | 285(2):146-157 |
30 | 1999 | Similar live bacteria strains from separate rock salts | 250MY | Stan-Lotter et al. Halococcus in Permo-Triassic salt deposits, Microbiology | link | 145:3565-3574 |
29 | 1999 | Keratin in Madagascar bird | 65MY | Schweitzer et al. Immunoreactivity in Cretaceous bird, J. of Vert. Paleontology | link | 19(4):712-722 |
28 | 1998 | Tarbosaurus (T. rex) blood vessels | 80MY | Pawlicki et al. Blood vessels and red blood cells in dinosaur, Annals Anatomy | link | 180(1):73-77 |
27 | 1997 | T. rex peptides and proteins; likely type 1 collagen | ~68MY | Schweitzer et al. Biomolecules in Cancellous Bone, J. of Vert. Paleontology | link | 17(2):349-359 |
26 | 1997 | Fossil diatom chitin | 24MY | Stankiewicz et al. Preservation of chitin in 25-million-year-old fossils, Science | link | 276(5318):1541-1543 |
25 | 1997 | Heme in Tyrannosaurus rex bone | 67MY | Schweitzer et al. Heme compounds in dinosaur trabecular bone, PNAS | link | 94(12):6291-6296 |
24 | 1995 | Live bacteria spores from a bee encased in amber | 25-40MY | Cano and Borucki, Revival of bacterial spores in Dominican amber, Science | link | 268(5213):1060-1064 |
23 | 1994 | Unaltered amino acids in amber insects | 130MY | Bada et al. Insect in amber racemization, Geochemica Cosmochemica Acta | link | 58(14):3131-3135 |
22 | 1994 | Cretaceous DNA for mitochondrial cytochrome b | 80MY | Woodward et al. DNA sequence from Cretaceous bone fragments, Science | link | 266(5188):1229-1232 |
21 | 1993 | Chloroplast tree gene partly sequenced (346 pairs) | 35-40MY | Poinar et al. DNA from an extinct plant, Scientific Correspondence | link | 363(6431):677 |
20 | 1993 | Organic material in T. rex and theropod dinosaurs | 65MY+ | Ostrom et al. Trophic structure of Creataceous communities, Geology | link | 21(6):491-494 |
19 | 1992 | Termite nuclear and mitochondrial DNA sequences | 25-30MY | DeSalle et al. Oligo-miocene amber termite DNA sequences, Science | link | 257(5078):1933-1936 |
18 | 1992 | Osteocalcin in a seismosaur dinosaur bone | 150MY | Muyzer et al. Preservation of bone protein osteocalcin in dinosaurs, Geology | link | 20:871-874 |
17 | 1991 | Seismosaurus [now, Diplodocus] vertebra proteins | 150MY | Gurley et al. Proteins in bone of Seismosaurus, Journal of Protein Chemistry | link | 10(1):75-90 |
16 | 1990 | Magnolia leaf chloroplast 820-base DNA sequence | 17-20MY | Golenberg et al. Chloroplast DNA sequence from Miocene Magnolia, Nature | link | 344(6267):656-658 |
15 | 1990 | Tyrannosaurus tooth hydroxyproline | ~80MY | Ostrom et al. High molecular weight material, Adv. in Organic Geochemistry | link | 16(4-6):1139-1144 |
14 | 1987 | Seven hadrosaurs unfossilized bones | 80MY | Davies, Duck-billed dinosaurs from the north slope of Alaska, J of Paleont. | link | 61(1):198-200 |
13 | 1985 | Metabolic pathways of dinosaur bones | 80MY | Pawlicki, Metabolic pathways of dino bones Pt. 5, Folia Histochem Cytochem | link | 23(3):165-174 |
12 | 1976 | Dinosaur gelatins made from fossil proteins | ~100MY | Wyckoff et al. Pleistocene and dinosaur gelatins, Comp Biochem Physiology B | link | 55(1):95-97 |
11 | 1976 | Repeating sequence of mollusk shell glycoproteins | 80MY | Weiner et al. Characterization of 80M-year-old mollusk shell proteins, PNAS | link | 73(8):2541-2545 |
10 | 1974 | Dinosaur proteins and polysaccharides | 70MY | DeJong et al. Antigenic properties of macromolecules over 70 Myr, Nature | link | 252(5478):63–64 |
9 | 1972 | Modern (advanced) proteins in many ancient fossils | ~145MY | Schopf, Fossil Proteins "Biochemistry of animal fossils" book review, Science | link | 178(4065):1086 |
8 | 1972 | Jurassic collagen, evidence of various proteins | ~145MY | Wyckoff, The Biochemistry of Animal Fossils, Scientechnica | link | 152 pages |
7 | 1972 | Biological material in saltwater clam shell | ? | Crenshaw, M. A., Biomineralization Research Reports | link | 6:6–11 |
6 | 1968 | Collagen from Megalosaurus dinosaur egg shell | 166MY | Voss-Foucart, Paleoproteins, Comparative Biochemistry and Physiology | link | 24(1):31-32 |
5 | 1968 | Intact proteins from half of many bones | 150MY | Miller, Wyckoff, Proteins in Dinosaur Bones, Proc. Nat'l Acad. of Sciences | link | 60(1):176-178 |
4 | 1966 | Collagen & vessels in dinosaur bone | 200MY | Pawlicki et al. Cells, collagen fibrils and vessels in dinosaur bone, Nature | link | 211(5049):655-657 |
3 | 1963 | Collagen in Devonian fish | 393MA | Isaacs, W.A.,, and K. Little. Collagen and a Cellulose-like Substance in Fossil Dentine and Bone | link | 197:192. DOI: 10.1038/197192a0 |
2 | 1962 | Collagen fibers in Dremotherium | 30MA | Little, K., M. Kelly, and A. Courts. Studies on bone matrix in normal and osteoporetic bone. J. Bone and Joint Surg. 44-B(3): 503 | link | 44-B(3):503 |
1 | 1954 | Devonian alanine, glutamic, & glycine amino acids | 360MY | Abelson, Paleobiochemistry: Organic constituents of fossils, Carnegie Inst. | link | 1954:97-101 |
List of Fossils
Reference(s) | Types of Tissue(s) | Name | Date of Discovery |
---|---|---|---|
[1] | bone blood cells | ? | 1993 |
[2] [3] [4] [5] [6] | hemoglobin, recognizable red blood cells, and unmineralized bone | T-Rex | 1997 |
[7] | blood vessels | ? | 1998 |
[8] | pectoral muscles, acicular fibres clearly visible under ×50 magnification | juvenile Scipionyx samniticus | 1998 |
[9] | evidence of the protein osteocalcin | Iguanodon | 2003 |
[10] [11] | flexible ligaments and blood vessels | T-Rex | 2005 |
[12] [13] [14] | Collagen and tryptic peptide sequences of collagen | T-Rex | 2005 or 2007 |
[13] [14] | tryptic peptide sequences of collagen | Mammoth skull | 2007 |
[14] | "soft tissues rare, sheet-like matrix, flexible vessels, osteocytes present" | juvenile Triceratops horridus rib | 2007 |
[14] | varied | numerous | 2007 |
[15] [16] | The fragile proteins elastin and laminin and further confirmation of collagen | duck-billed dinosaur / Campanian hadrosaur B. canadensis | 2009 |
[17] | organic molecules | Mosasaur | 2011 |
[18] [19] | bone cells (osteocytes), proteins actin and tubulin, and DNA | ? | 2012 |
[20] [21] [22] | soft flexible tissues and other organic molecules | Triceratops horridus horn | 2013, 2015 |
[23] [24] | various | plants, bony fish, crabs, lobsters, shrimp, ammonoids, and bivalves | 2023 |
Ex | Ex | Ex | Ex |
Possible Candidates
These fossils have ambiguous wording in their reporting that makes it seem as if there were undecomposed soft tissues but cannot be determined decisively.
Reference(s) | Types of Tissue(s) | Name | Date of Discovery |
---|---|---|---|
[25] [26] | the skin, the armor that coats its skin, the spikes along its side, most of its body and feet, its face, & stomach contents | Borealopelta markmitchelli | 2011 |
[27] | ? | ankylosaur | 2023? |
Ex | Ex | Ex | Ex |
Known but unlisted
- "The researchers also analyzed other fossils for the presence of soft tissue, and found it was present in about half of their samples..." [28]
- Although not a soft tissue, in 2012 radiocarbon (Carbon-14) was detected in dinosaur bones. We know radioisotope decay cannot be used for accurate dating but if we follow the assumptions within the method, we arrive at an age of less than 40,000 years old. Something to note is Carbon-14 decays so quickly, given the level of precision of modern machines if the substance were even 100,000 years old then we should be unable to detect any radiocarbon at all. [29] [30]
See Also
References
- ↑ Morell, V., Dino DNA: The hunt and the hype, Science, Science 261(5118):160-162, 1993.
- ↑ Schweitzer, M., and 8 others, Heme compounds in dinosaur trabecular bone, PNAS USA 94:6291-6296, 1997.
- ↑ Schweitzer, M. and Staedter, I., The real Jurassic Park, Earth, pp. 55-57, June 1997.
- ↑ Hecht, J., Dinosaur bones yield blood protein, New Scientist 154(2087):16, 1997.
- ↑ Schweitzer, M.H., Johnson, ., Zocco, T.G., Horner, J.R., and Starkey, J.R., Preservation of biomolecules in cancellous bone of Tyrannosaurus rex, Journal of Vertebrate Paleontology 17(2):349-359, 1997.
- ↑ Schweitzer, M.H. et al., Heme compounds in dinosaur trabecular bone, PNAS 94:6291-6296, 1997.
- ↑ R. Pawlicki and M. Wowogrodzka-Zagorska. “Blood vessels and red blood cells preserved in dinosaur bones.” Annals of Anatomy 180 (1998): 73–77;
- ↑ Sasso, Cristiano Dal and Marco Signore. “Exceptional soft-tissue preservation in a theropod dinosaur from Italy.” Nature 392 (1998): 383-387.
- ↑ bones of an Iguanodon contained enough of the protein osteocalcin to produce an immune reaction. Embrey, G., and 5 others, Identification of proteinaceous material in the bone of the dinosaur Iguanodon, Connective Tissue Research 44 Suppl 1:41-46, 2003.
- ↑ Schweitzer, M. and 3 others, Soft-tissue vessels and cellular preservation in Tyrannosaurus rex, Science 307 (5717):1952-1955,2005
- ↑ Stokstad, E., Tyrannosaurus rex soft tissue raises tantalizing prospects, Science 307(5717):1852, 2005.
- ↑ Schweitzer, M. and 6 others, Analysis of soft tissue from Tyrannosaurus rex suggest the presence of protein, Science 316(5822):277-280, 2007.
- ↑ 13.0 13.1 Asara, J. M., Schweitzer, M. H., Freimark, L. M., Phillips, M., & Cantley, L. C. (2007). Protein sequences from mastodon and Tyrannosaurus rex revealed by mass spectrometry. Science (New York, N.Y.), 316(5822), 280–285. https://doi.org/10.1126/science.1137614
- ↑ 14.0 14.1 14.2 14.3 Schweitzer Mary Higby, Wittmeyer Jennifer L and Horner John R 2007Soft tissue and cellular preservation in vertebrate skeletal elements from the Cretaceous to the presentProc. R. Soc. B.274183–197 http://doi.org/10.1098/rspb.2006.3705
- ↑ Schweitzer, M. and 15 others, Biomolecular characterization and protein sequences of the Campanian hadrosaur B. canadensis, Science 324(5927):626-631, 2009.
- ↑ Service, R.F., 'Protein' in 80-million-year-old fossil bolsters controversial T. rex claim, Science 324:578, 2009
- ↑ Lingren, J., et al., Mirospectroscopic evidence of Cretaceous bone proteins, PloS ONE 6(4):1-11, 2011.
- ↑ Schweitzer, M. and 3 others, Molecular analyses of dinosaur osteocytes support the presence of endogenous molecules, Bone 52(1):414-423, 2013.
- ↑ Sarfati, J., DNA and bone cells found in dinosaur bone, J. Creation 27(1):10-12, 2013; creation.com/dino-dna, 11 December 2012
- ↑ Armitage, M.H. and Anderson, K.L., Soft sheets of fibrillary bone from a fossil of the supraorbital horn of the dinosaur Triceratops horridus, Acta Histochemica 115(6):603-608, 2013.
- ↑ Armitage, M., Soft bone material from a brow horn of a Triceratops horridus from Hell Creek Formation, Montana, Creation Research Society Quarterly 51(4):248-258, 2015.
- ↑ Anderson, Echoes of the Jurassic.
- ↑ Xu Dai et al. ,A Mesozoic fossil lagerstätte from 250.8 million years ago shows a modern-type marine ecosystem.Science379,567-572(2023).DOI:10.1126/science.adf1622
- ↑ Remarkable Fossil Deposit From China. Page 7 Creation 45(3) 2023
- ↑ Jeanne Timmons - Jan 25, 2023 12:30 pm U. T. C. (2023, January 25). Researchers look a dinosaur in its remarkably preserved face. Ars Technica. Retrieved January 27, 2023, from https://arstechnica.com/science/2023/01/researchers-look-a-dinosaur-in-its-remarkably-preserved-face/?utm_medium=social&utm_social-type=owned&utm_source=twitter&utm_brand=ars
- ↑ M., B. C., Caleb M. Brown Caleb M. Brown http://orcid.org/0000-0001-6463-8677 Royal Tyrrell Museum of Palaeontology, Brown, C. M., Caleb M. Brown http://orcid.org/0000-0001-6463-8677 Royal Tyrrell Museum of Palaeontology, Greenwood, D. R., David R. Greenwood http://orcid.org/0000-0002-8569-9695 Department of Biology, Kalyniuk, J. E., Jessica E. Kalyniuk Department of Biology, Braman, D. R., Dennis R. Braman Royal Tyrrell Museum of Paleontology, Henderson, D. M., Donald M. Henderson Royal Tyrrell Museum of Paleontology, Greenwood, C. L., Cathy L. Greenwood Department of Biology, Basinger, J. F., James F. Basinger Department of Geological Sciences, Electronic supplementary material is available online at https://doi.org/10.6084/m9.figshare.c.5001044., & Al., E. (2020, June 3). Dietary paleoecology of an early cretaceous armoured dinosaur (Ornithischia; Nodosauridae) based on floral analysis of stomach contents. Royal Society Open Science. Retrieved January 27, 2023, from https://royalsocietypublishing.org/doi/10.1098/rsos.200305
- ↑ Yoshida, J., Kobayashi, Y. & Norell, M.A. An ankylosaur larynx provides insights for bird-like vocalization in non-avian dinosaurs. Commun Biol 6, 152 (2023). https://doi.org/10.1038/s42003-023-04513-x
- ↑ Pappas, S. (2013, November 27). Controversial T. rex soft tissue find finally explained. LiveScience. Retrieved January 27, 2023, from https://www.livescience.com/41537-t-rex-soft-tissue.html
- ↑ Evolutionists Say the Oddest Things: Surprising Admissions From Leading Scientists. Page 96. 2015.
- ↑ Press Release "Dinosaur bones' Carbon-14 dated to less than 40,000 years - Censored international conference report" and additional information, newgeology.us/presentation48.html, accessed 27 December 2012.
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