Do immune system changes at metamorphosis predict vulnerability to chytridiomycosis? An update.
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[1] Christopher A. Voigt,et al. Genetically modifying skin microbe to produce violacein and augmenting microbiome did not defend Panamanian golden frogs from disease , 2021, ISME Communications.
[2] T. Waltzek,et al. Molecular Confirmation of Ranavirus Infection in Amphibians From Chad, Africa , 2021, Frontiers in Veterinary Science.
[3] M. Flajnik,et al. A Highly Complex, MHC-Linked, 350 Million-Year-Old Shark Nonclassical Class I Lineage , 2021, The Journal of Immunology.
[4] J. Robert,et al. TLR5-Mediated Reactivation of Quiescent Ranavirus FV3 in Xenopus Peritoneal Macrophages , 2021, Journal of Virology.
[5] J. Robert,et al. Thyroid Disrupting Chemicals in mixture Perturb Thymocyte Differentiation in Xenopus laevis tadpoles. , 2021, Toxicological sciences : an official journal of the Society of Toxicology.
[6] Alejandro Grajal-Puche,et al. First detection of ranavirus in a wild population of Dybowski’s brown frog (Rana dybowskii) in South Korea , 2021 .
[7] Thomas J. Burns,et al. Indirect terrestrial transmission of amphibian chytrid fungus from reservoir to susceptible host species leads to fatal chytridiomycosis , 2020, Animal Conservation.
[8] H. McCallum,et al. Immunological Aspects of Chytridiomycosis , 2020, Journal of Fungi.
[9] E. Mayo-Wilson,et al. The PRISMA 2020 statement: an updated guideline for reporting systematic reviews , 2020, BMJ.
[10] Jianping Jiang,et al. Remarkable metabolic reorganization and altered metabolic requirements in frog metamorphic climax , 2020, Frontiers in zoology.
[11] J. Robert. Experimental Platform Using the Amphibian Xenopus laevis for Research in Fundamental and Medical Immunology. , 2020, Cold Spring Harbor protocols.
[12] J. H. Craddock,et al. An overview of research regarding reservoirs, vectors and predators of the chytrid fungus Batrachochytrium dendrobatidis , 2020 .
[13] L. Alibardi. Presence of immune cells in the regenerating caudal spinal cord of frog tadpoles indicates active immune-surveillance before metamorphosis. , 2020, Zoology.
[14] Y. Satta,et al. Expression Changes of MHC and Other Immune Genes in Frog Skin during Ontogeny , 2020, Animals : an open access journal from MDPI.
[15] L. Grayfer,et al. Colony‐stimulating factor‐1‐ and interleukin‐34‐derived macrophages differ in their susceptibility to Mycobacterium marinum , 2019, Journal of leukocyte biology.
[16] F. van Breukelen,et al. Population-Level Resistance to Chytridiomycosis is Life-Stage Dependent in an Imperiled Anuran , 2019, EcoHealth.
[17] Jeremy M. Cohen,et al. A meta-analysis reveals temperature, dose, life stage, and taxonomy influence host susceptibility to a fungal parasite , 2019, bioRxiv.
[18] V. Saenz,et al. Effects of hydroperiod on growth, development, survival and immune defences in a temperate amphibian , 2019, Functional Ecology.
[19] G. Alvarado,et al. Moving Beyond the Host: Unraveling the Skin Microbiome of Endangered Costa Rican Amphibians , 2019, Front. Microbiol..
[20] P. Snyder,et al. Host age alters amphibian susceptibility to Batrachochytrium dendrobatidis, an emerging infectious fungal pathogen , 2019, PloS one.
[21] R. Griffiths,et al. Reservoir frogs: seasonality of Batrachochytrium dendrobatidis infection in robber frogs in Dominica and Montserrat , 2019, PeerJ.
[22] Mark Wilkinson,et al. Amphibian fungal panzootic causes catastrophic and ongoing loss of biodiversity , 2019, Science.
[23] Y. Yaoita. Tail Resorption During Metamorphosis in Xenopus Tadpoles , 2019, Front. Endocrinol..
[24] Maxwell P. Bui-Marinos,et al. Frog Skin Innate Immune Defences: Sensing and Surviving Pathogens , 2019, Front. Immunol..
[25] L. Rollins-Smith,et al. Out in the cold and sick: low temperatures and fungal infections impair a frog's skin defenses , 2019, Journal of Experimental Biology.
[26] H. McCallum,et al. Review of the Amphibian Immune Response to Chytridiomycosis, and Future Directions , 2018, Front. Immunol..
[27] S. V. Flechas,et al. Microbiota and skin defense peptides may facilitate coexistence of two sympatric Andean frog species with a lethal pathogen , 2018, The ISME Journal.
[28] L. Grayfer,et al. Amphibian (Xenopus laevis) Interleukin-8 (CXCL8): A Perspective on the Evolutionary Divergence of Granulocyte Chemotaxis , 2018, Front. Immunol..
[29] Barbara A. Han,et al. Effects of Emerging Infectious Diseases on Amphibians: A Review of Experimental Studies , 2018, Diversity.
[30] Li Nie,et al. Toll-Like Receptors, Associated Biological Roles, and Signaling Networks in Non-Mammals , 2018, Front. Immunol..
[31] L. Grayfer,et al. Amphibian (Xenopus laevis) Tadpoles and Adult Frogs Differ in Their Use of Expanded Repertoires of Type I and Type III Interferon Cytokines , 2018, Viruses.
[32] Y. Satta,et al. Selective constraint acting on TLR2 and TLR4 genes of Japanese Rana frogs , 2018, PeerJ.
[33] V. McKenzie,et al. Host‐associated bacterial community succession during amphibian development , 2018, Molecular ecology.
[34] B. Scheele,et al. Non‐declining amphibians can be important reservoir hosts for amphibian chytrid fungus , 2018 .
[35] M. Flajnik,et al. “Double‐duty” conventional dendritic cells in the amphibian Xenopus as the prototype for antigen presentation to B cells , 2018, European journal of immunology.
[36] S. O'Hanlon,et al. Amphibian chytridiomycosis outbreak dynamics are linked with host skin bacterial community structure , 2018, Nature Communications.
[37] B. Scheele,et al. Evolution of resistance to chytridiomycosis is associated with a robust early immune response , 2018, Molecular ecology.
[38] M. Fisher,et al. Early exposure to Batrachochytrium dendrobatidis causes profound immunosuppression in amphibians , 2017, European Journal of Wildlife Research.
[39] Yunbo Shi,et al. Genome-wide identification of thyroid hormone receptor targets in the remodeling intestine during Xenopus tropicalis metamorphosis , 2017, Scientific Reports.
[40] D. Driscoll,et al. Reservoir‐host amplification of disease impact in an endangered amphibian , 2017, Conservation biology : the journal of the Society for Conservation Biology.
[41] A. Hettyey,et al. Age-dependent changes in sensitivity to a pesticide in tadpoles of the common toad (Bufo bufo). , 2017, Aquatic toxicology.
[42] D. Woodhams,et al. Developmental trajectories of amphibian microbiota: response to bacterial therapy depends on initial community structure , 2017, Environmental microbiology.
[43] J. Robert,et al. Long term effects of carbaryl exposure on antiviral immune responses in Xenopus laevis. , 2017, Chemosphere.
[44] P. Chaurand,et al. Life history linked to immune investment in developing amphibians , 2016, Conservation physiology.
[45] Anna E. Savage,et al. Reduced immune function predicts disease susceptibility in frogs infected with a deadly fungal pathogen , 2016, Conservation physiology.
[46] I. Manzini,et al. Metamorphic remodeling of the olfactory organ of the African clawed frog, Xenopus laevis , 2016, The Journal of comparative neurology.
[47] J. Clulow,et al. Susceptibility to disease varies with ontogeny and immunocompetence in a threatened amphibian , 2016, Oecologia.
[48] R. Harris,et al. Direct and Indirect Horizontal Transmission of the Antifungal Probiotic Bacterium Janthinobacterium lividum on Green Frog (Lithobates clamitans) Tadpoles , 2016, Applied and Environmental Microbiology.
[49] William W. Van Treuren,et al. Inhibitory bacteria reduce fungi on early life stages of endangered Colorado boreal toads (Anaxyrus boreas) , 2015, The ISME Journal.
[50] R. Knight,et al. Skin bacteria provide early protection for newly metamorphosed southern leopard frogs (Rana sphenocephala) against the frog-killing fungus, Batrachochytrium dendrobatidis , 2015 .
[51] Michael F. Benard,et al. Larval Environment Alters Amphibian Immune Defenses Differentially across Life Stages and Populations , 2015, PloS one.
[52] S. Rundle,et al. Challenges and opportunities in developmental integrative physiology. , 2015, Comparative biochemistry and physiology. Part A, Molecular & integrative physiology.
[53] T. McMahon,et al. Transition of Chytrid Fungus Infection from Mouthparts to Hind Limbs During Amphibian Metamorphosis , 2015, EcoHealth.
[54] J. Robert,et al. Prominent Amphibian (Xenopus laevis) Tadpole Type III Interferon Response to the Frog Virus 3 Ranavirus , 2015, Journal of Virology.
[55] Max Ringler,et al. Where have all the tadpoles gone? Individual genetic tracking of amphibian larvae until adulthood , 2014, Molecular ecology resources.
[56] J. Robert,et al. Negative effects of low dose atrazine exposure on the development of effective immunity to FV3 in Xenopus laevis. , 2014, Developmental and comparative immunology.
[57] R. Harris,et al. Interactions between amphibians' symbiotic bacteria cause the production of emergent anti-fungal metabolites , 2014, Front. Microbiol..
[58] R. Relyea,et al. Effects of Pesticide Mixtures on Host-Pathogen Dynamics of the Amphibian Chytrid Fungus , 2014, PloS one.
[59] J. Robert,et al. A prominent role for invariant T cells in the amphibian Xenopus laevis tadpoles , 2014, Immunogenetics.
[60] J. Byrne,et al. The benefits of publishing systematic quantitative literature reviews for PhD candidates and other early-career researchers , 2014 .
[61] R. Knight,et al. The amphibian skin‐associated microbiome across species, space and life history stages , 2014, Molecular ecology.
[62] R. Relyea,et al. Interactive effects of competition and predator cues on immune responses of leopard frogs at metamorphosis , 2014, Journal of Experimental Biology.
[63] M. Parris,et al. The interactive effects of chytrid fungus, pesticides, and exposure timing on gray treefrog (Hyla versicolor) larvae , 2014, Environmental toxicology and chemistry.
[64] J. Hota,et al. Blood Cell Profile of the Developing Tadpoles and Adults of the Ornate Frog, Microhyla ornata (Anura: Microhylidae) , 2013 .
[65] M. Fisher,et al. Batrachochytrium salamandrivorans sp. nov. causes lethal chytridiomycosis in amphibians , 2013, Proceedings of the National Academy of Sciences.
[66] S. Gervasi,et al. Larval exposure to predator cues alters immune function and response to a fungal pathogen in post-metamorphic wood frogs. , 2013, Ecological applications : a publication of the Ecological Society of America.
[67] Jason R. Myers,et al. Nonclassical MHC class I-dependent invariant T cells are evolutionarily conserved and prominent from early development in amphibians , 2013, Proceedings of the National Academy of Sciences.
[68] Tawnya L Cary,et al. Skin peptides protect juvenile leopard frogs (Rana pipiens) against chytridiomycosis , 2013, Journal of Experimental Biology.
[69] W. Karasov,et al. Interspecific and Postmetamorphic Variation in Susceptibility of Three North American Anurans to Batrachochytrium dendrobatidis , 2013 .
[70] J. Robert,et al. Susceptibility of Xenopus laevis tadpoles to infection by the ranavirus Frog-Virus 3 correlates with a reduced and delayed innate immune response in comparison with adult frogs. , 2012, Virology.
[71] J. Brownstein,et al. Emerging fungal threats to animal, plant and ecosystem health , 2012, Nature.
[72] L. Reinert,et al. Amphibian immune defenses against chytridiomycosis: impacts of changing environments. , 2011, Integrative and comparative biology.
[73] J. Houlahan,et al. Effects of chytrid fungus and a glyphosate-based herbicide on survival and growth of wood frogs (Lithobates sylvaticus). , 2011, Ecological applications : a publication of the Ecological Society of America.
[74] K. Ohsumi,et al. Thyroid hormone-regulated expression of nuclear lamins correlates with dedifferentiation of intestinal epithelial cells during Xenopus laevis metamorphosis , 2011, Development Genes and Evolution.
[75] J. Hoverman,et al. Development and Disease: How Susceptibility to an Emerging Pathogen Changes through Anuran Development , 2011, PloS one.
[76] J. Brunner,et al. Escape from the pond: stress and developmental responses to ranavirus infection in wood frog tadpoles , 2011 .
[77] Y. Ohta,et al. Remarkable Conservation of Distinct Nonclassical MHC Class I Lineages in Divergent Amphibian Species , 2011, The Journal of Immunology.
[78] L. Waits,et al. Batrachochytrium dendrobatidis infection dynamics in the Columbia spotted frog Rana luteiventris in north Idaho, USA. , 2010, Diseases of aquatic organisms.
[79] B. R. Schmidt,et al. Correction: Within- and Among-Population Variation in Chytridiomycosis-Induced Mortality in the Toad Alytes obstetricans , 2010, PLoS ONE.
[80] S. Akira,et al. Pattern Recognition Receptors and Inflammation , 2010, Cell.
[81] Cedric E. Ginestet,et al. Factors driving pathogenicity vs. prevalence of amphibian panzootic chytridiomycosis in Iberia. , 2010, Ecology letters.
[82] Yunbo Shi,et al. Apoptosis in amphibian organs during metamorphosis , 2010, Apoptosis.
[83] A. Cole,et al. Skin peptides of different life stages of Ewing's tree frog. , 2009, Journal of experimental zoology. Part A, Ecological genetics and physiology.
[84] A. Storfer,et al. Impacts of Batrachochytrium dendrobatidis Infection on Tadpole Foraging Performance , 2009, EcoHealth.
[85] A. Casadevall,et al. Vertebrate endothermy restricts most fungi as potential pathogens. , 2009, The Journal of infectious diseases.
[86] J. Wingfield,et al. Comparative endocrinology in the 21st century. , 2009, Integrative and comparative biology.
[87] M. Eisen,et al. Genome-Wide Transcriptional Response of Silurana (Xenopus) tropicalis to Infection with the Deadly Chytrid Fungus , 2009, PloS one.
[88] E. Amaya,et al. C/EBPalpha initiates primitive myelopoiesis in pluripotent embryonic cells. , 2009, Blood.
[89] Y. Une,et al. Ranavirus Outbreak in North American Bullfrogs (Rana catesbeiana), Japan, 2008 , 2009, Emerging infectious diseases.
[90] Y. Ohta,et al. Comparative and developmental study of the immune system in Xenopus , 2009, Developmental dynamics : an official publication of the American Association of Anatomists.
[91] Ellen Ariel,et al. Ranavirus in wild edible frogs Pelophylax kl. esculentus in Denmark. , 2009, Diseases of aquatic organisms.
[92] Y. Ohta,et al. Novel nonclassical MHC class Ib genes associated with CD8 T cell development and thymic tumors. , 2009, Molecular immunology.
[93] J. Rowcliffe,et al. Life history tradeoffs influence mortality associated with the amphibian pathogen Batrachochytrium dendrobatidis , 2009 .
[94] A. K. Davis. Metamorphosis-related changes in leukocyte profiles of larval bullfrogs (Rana catesbeiana) , 2009, Comparative Clinical Pathology.
[95] E. Grant. Visual Implant Elastomer Mark Retention Through Metamorphosis in Amphibian Larvae , 2008 .
[96] C. Briggs,et al. Effect of Temperature on Host Response to Batrachochytrium dendrobatidis Infection in the Mountain Yellow-legged Frog (Rana muscosa) , 2008, Journal of wildlife diseases.
[97] S. Gervasi,et al. Costs of plasticity: responses to desiccation decrease post-metamorphic immune function in a pond-breeding amphibian , 2007 .
[98] A. Ishii,et al. Phylogenetic and expression analysis of amphibian Xenopus Toll-like receptors , 2007, Immunogenetics.
[99] H. Shaffer,et al. Effects of chytrid and carbaryl exposure on survival, growth and skin peptide defenses in foothill yellow-legged frogs. , 2007, Environmental science & technology.
[100] J. Robert,et al. Characterization of Primary and Memory CD8 T-Cell Responses against Ranavirus (FV3) in Xenopus laevis , 2006, Journal of Virology.
[101] C. Briggs,et al. Emerging infectious disease as a proximate cause of amphibian mass mortality. , 2006, Ecology.
[102] R. Knapp,et al. Tadpole Mouthpart Depigmentation as an Accurate Indicator of Chytridiomycosis, an Emerging Disease of Amphibians , 2006, Copeia.
[103] R. Alford,et al. Emerging infectious disease and the loss of biodiversity in a Neotropical amphibian community. , 2006, Proceedings of the National Academy of Sciences of the United States of America.
[104] A. Kaur,et al. The evolution of vertebrate Toll-like receptors. , 2005, Proceedings of the National Academy of Sciences of the United States of America.
[105] E. Romanowski,et al. A Review of Antimicrobial Peptides and Their Therapeutic Potential as Anti-Infective Drugs , 2005, Current eye research.
[106] B. Young,et al. Status and Trends of Amphibian Declines and Extinctions Worldwide , 2004, Science.
[107] V. Vredenburg,et al. Transmission of Batrachochytrium dendrobatidis within and between amphibian life stages. , 2004, Diseases of aquatic organisms.
[108] C. Beck,et al. Energetics of metamorphic climax in the southern toad (Bufo terrestris) , 2003, Oecologia.
[109] M. García‐París,et al. Evidence of a chytrid fungus infection involved in the decline of the common midwife toad (Alytes obstetricans) in protected areas of central Spain , 2001 .
[110] Reinhard F. Stocker,et al. Metamorphosis in Drosophila and other insects: the fate of neurons throughout the stages , 2000, Progress in Neurobiology.
[111] J. Robert,et al. B‐cell development in the amphibian Xenopus , 2000, Immunological reviews.
[112] L. Zettergren. Ontogeny of B cells expressing IgM in embryonic and larval tissues of the American grass frog, Rana pipiens. , 2000, The Journal of experimental zoology.
[113] C. Scott Findlay,et al. Quantitative evidence for global amphibian population declines , 2000, Nature.
[114] B. Sammut,et al. Axolotl MHC architecture and polymorphism , 1999, European journal of immunology.
[115] S. Álvarez‐Pérez,et al. ATPase and MHC class II molecules co-expression in Rana pipiens dendritic cells. , 1999, Developmental and comparative immunology.
[116] J. Longcore,et al. BATRACHOCHYTRIUM DENDROBATIDIS GEN. ET SP. NOV., A CHYTRID PATHOGENIC TO AMPHIBIANS , 1999 .
[117] L. Rollins‐Smith. Metamorphosis and the amphibian immune system , 1998, Immunological reviews.
[118] L. Du Pasquier,et al. Development of the early B cell population in Xenopus , 1998, European journal of immunology.
[119] D E Green,et al. Chytridiomycosis causes amphibian mortality associated with population declines in the rain forests of Australia and Central America. , 1998, Proceedings of the National Academy of Sciences of the United States of America.
[120] M. Flajnik,et al. Expression of MHC class Ia and class Ib during ontogeny: high expression in epithelia and coregulation of class Ia and lmp7 genes. , 1998, Journal of immunology.
[121] Bo Li,et al. In VitroStudies of Spontaneous and Corticosteroid-Induced Apoptosis of Lymphocyte Populations from Metamorphosing Frogs/RU486 Inhibition , 1997, Brain, Behavior, and Immunity.
[122] R. Denver,et al. Environmental Stress as a Developmental Cue: Corticotropin-Releasing Hormone Is a Proximate Mediator of Adaptive Phenotypic Plasticity in Amphibian Metamorphosis , 1997, Hormones and Behavior.
[123] J. Robert,et al. Effects of thymectomy and tolerance induction on tumor immunity in adult Xenopus laevis , 1997, International journal of cancer.
[124] R. E. Gough,et al. Pathological and microbiological findings from incidents of unusual mortality of the common frog (Rana temporaria). , 1996, Philosophical transactions of the Royal Society of London. Series B, Biological sciences.
[125] S. Ueda,et al. Apoptosis and cell proliferation in the Xenopus small intestine during metamorphosis , 1996, Cell and Tissue Research.
[126] M. Zasloff,et al. Expression of magainin antimicrobial peptide genes in the developing granular glands of Xenopus skin and induction by thyroid hormone. , 1994, Developmental biology.
[127] M. Flajnik,et al. A novel type of class I gene organization in vertebrates: a large family of non‐MHC‐linked class I genes is expressed at the RNA level in the amphibian Xenopus. , 1993, The EMBO journal.
[128] R. E. Gough,et al. Unusual mortality associated with poxvirus-like particles in frogs (Rana temporaria) , 1993, Veterinary Record.
[129] P. Smith,et al. Location of hemopoietic stem cells influences frequency of lymphoid engraftment in Xenopus embryos. , 1989, Journal of immunology.
[130] M. Balls,et al. Amphibian metamorphosis: An immunologic opportunity! , 1989, BioEssays : news and reviews in molecular, cellular and developmental biology.
[131] M. Flajnik,et al. MHC class I antigens as surface markers of adult erythrocytes during the metamorphosis of Xenopus. , 1988, Developmental biology.
[132] N. Cohen,et al. Effects of thyroxine-driven precocious metamorphosis on maturation of adult-type allograft rejection responses in early thyroidectomized frogs. , 1988, Differentiation; research in biological diversity.
[133] J. Kaufman,et al. Major histocompatibility complex-encoded class I molecules are absent in immunologically competent Xenopus before metamorphosis. , 1986, Journal of immunology.
[134] L. Pasquier,et al. Ontogeny of the immune system in Xenopus , 1984 .
[135] N. Cohen,et al. During frog ontogeny, PHA and Con A responsiveness of splenocytes precedes that of thymocytes. , 1984, Immunology.
[136] J. Horton,et al. Ontogeny and characterization of mitogen-reactive lymphocytes in the thymus and spleen of the amphibian, Xenopus laevis. , 1983, Immunology.
[137] C. Bernard,et al. Active suppression of the allogeneic histocompatibility reactions during the metamorphosis of the clawed toad Xenopus. , 1980, Differentiation; research in biological diversity.
[138] B. Blomberg,et al. Ontogeny of immunity in amphibians: Changes in antibody repertoires and appearance of adult major histocompatibility antigens in Xenopus , 1979, European journal of immunology.
[139] R. Wassersug,et al. The Relationships of Locomotion to Differential Predation on Pseudacris Triseriata (Anura: Hylidae) , 1977 .
[140] L. Pasquier,et al. A major histocompatibility complex in the toadxenopus laevis (Daudin) , 1974, Immunogenetics.
[141] L. Du Pasquier,et al. The thymus during the ontogeny of the toad Xenopus laevis: Growth, membrane‐bound immunoglobulins and mixed lymphocyte reaction , 1973, European journal of immunology.
[142] K. Gosner,et al. A simplified table for staging anuran embryos and larvae with notes on identification , 1960 .
[143] E. Crespi,et al. Critical disease windows shaped by stress exposure alter allocation trade‐offs between development and immunity , 2018, The Journal of animal ecology.
[144] J. Robert. Humoral Immune Response of Amphibians , 2016 .
[145] L. Reinert,et al. Development of antimicrobial peptide defenses of southern leopard frogs, Rana sphenocephala, against the pathogenic chytrid fungus, Batrachochytrium dendrobatidis. , 2015, Developmental and comparative immunology.
[146] R. Denver. Neuroendocrinology of amphibian metamorphosis. , 2013, Current topics in developmental biology.
[147] E. Rosenblum,et al. Interactions between Batrachochytrium dendrobatidis and its amphibian hosts: a review of pathogenesis and immunity. , 2011, Microbes and infection.
[148] A.,et al. ANURAN TADPOLES USING CODED WIRE TAGS , 2011 .
[149] Y. Izutsu. The immune system is involved in Xenopus metamorphosis. , 2009, Frontiers in bioscience.
[150] L. Alibardi. Embryonic keratinization in vertebrates in relation to land colonization , 2009 .
[151] A. Hyatt,et al. The Northern Leopard Frog Rana pipiens is a Widespread Reservoir Species Harboring Batrachochytrium dendrobatidis in North America , 2008 .
[152] A. Mescher,et al. Cells of cutaneous immunity in Xenopus: studies during larval development and limb regeneration. , 2007, Developmental and comparative immunology.
[153] Andrea Megela Simmons,et al. Plasticity in the Auditory System across Metamorphosis , 2007 .
[154] Donald D. Brown,et al. Amphibian metamorphosis. , 2007, Developmental biology.
[155] N. Cohen,et al. Immunogenetic aspects of in vivo allotolerance induction during the ontogeny of Xenopus laevis , 2004, Immunogenetics.
[156] R. Speare,et al. Distribution of the amphibian chytrid Batrachochytrium dendrobatidis and keratin during tadpole development , 2004 .
[157] T. Gardner. Declining amphibian populations: a global phenomenon in conservation biology , 2001 .
[158] J. Gurdon,et al. The introduction of Xenopus laevis into developmental biology: of empire, pregnancy testing and ribosomal genes. , 2000, The International journal of developmental biology.
[159] P. Blair,et al. Thymus Ontogeny in Frogs: T-Cell Renewal at Metamorphosis , 1992, Developmental immunology.
[160] M. Flajnik,et al. The immune system of Xenopus. , 1989, Annual review of immunology.
[161] J. Kaufman,et al. Changes in the immune system during metamorphosis of Xenopus. , 1987, Immunology today.
[162] E. Hsu,et al. Reprints Available Directly from the Publisher Photocopying Permitted by License Only Changes in the Amphibian Antibody Repertoire Are Correlated with Metamorphosis and Not with Age or Size , 2022 .
[163] P. Blair,et al. Reprints Available Directly from the Publisher Photocopying Permitted by License Only Expression of Class Ii Major Histocompatibility Complex Antigens on Adult T Cells in Xenopus Is Metamorphosis- Dependent , 2022 .
[164] M. Flajnik,et al. Reprints Available Directly from the Publisher Photocopying Permitted by License Only Expression of Mhc Class Ii Antigens during Xenopus Development , 2022 .