Fungal adaptation to the mammalian host: it is a new world, after all.
about
Evolution of Bacterial Pathogens Within the Human HostIn vivo hypoxia and a fungal alcohol dehydrogenase influence the pathogenesis of invasive pulmonary aspergillosisInhibition of Paracoccidioides lutzii Pb01 isocitrate lyase by the natural compound argentilactone and its semi-synthetic derivativesCharacterization of the Paracoccidioides Hypoxia Response Reveals New Insights into Pathogenesis Mechanisms of This Important Human Pathogenic FungusAdaptation to thermotolerance in Rhizopus coincides with virulence as revealed by avian and invertebrate infection models, phylogeny, physiological and metabolic flexibilityEnhanced Antifungal Activity by Ab-Modified Amphotericin B-Loaded Nanoparticles Using a pH-Responsive Block CopolymerTranscriptional and proteomic responses to carbon starvation in Paracoccidioides.A fungal pH-responsive signaling pathway regulating Aspergillus adaptation and invasion into the cornea.Lichtheimia species exhibit differences in virulence potential.Synergistic activity of chloroquine with fluconazole against fluconazole-resistant isolates of Candida species.Signature gene expression reveals novel clues to the molecular mechanisms of dimorphic transition in Penicillium marneffei.Aspergillus and aspergilloses in wild and domestic animals: a global health concern with parallels to human disease.DAMP signaling in fungal infections and diseases.Coordination of hypoxia adaptation and iron homeostasis in human pathogenic fungi.Proangiogenic growth factors potentiate in situ angiogenesis and enhance antifungal drug activity in murine invasive aspergillosisHypoxia enhances innate immune activation to Aspergillus fumigatus through cell wall modulation.Heterogeneity among Isolates Reveals that Fitness in Low Oxygen Correlates with Aspergillus fumigatus Virulence.The cellular roles of Ccr4-NOT in model and pathogenic fungi-implications for fungal virulenceSpecificity of genome evolution in experimental populations of Escherichia coli evolved at different temperatures.Cracking the Toll-like receptor code in fungal infections.Angiogenesis at the mold-host interface: a potential key to understanding and treating invasive aspergillosis.The protective role of immunoglobulins in fungal infections and inflammation.The Hsp90 Chaperone Network Modulates Candida Virulence Traits.Proteomic profile response of Paracoccidioides lutzii to the antifungal argentilactoneCommentary on De Gannes et al. (2013): "Insights into fungal communities in composts revealed by 454-pyrosequencing: implications for human health and safety".Inflammation in aspergillosis: the good, the bad, and the therapeutic.Stress response in medically important Mucorales.Two‑component histidine kinase DRK1 is required for pathogenesis in Sporothrix schenckii.Metabolic Interactions between Bacteria and Fungi in Commensal Oral Biofilms.Evasion of Immune Surveillance in Low Oxygen Environments Enhances Candida albicans VirulenceLife in the cystic fibrosis upper respiratory tract influences competitive ability of the opportunistic pathogen Pseudomonas aeruginosa
P2860
Q28076624-7B040F55-4E09-4D01-91D3-28F8E53B5DAFQ28479237-94BA9B22-C484-4EBC-A33D-25CF579484EFQ28538085-293B29F3-6AA7-4880-91FA-7E675DBF408CQ28551656-CAA3B400-D0A9-40B3-8B55-F381899997B6Q28606369-F52A1899-7091-433E-A55F-35016346CF57Q28647760-9E6D3E7C-EC8C-4DCD-9295-156B022694ACQ33583759-49CCF803-234B-4F9C-841E-D8A348F2E19EQ33845214-92AD6B93-3F67-4FC5-944B-EECD196F4A05Q34387525-33913281-544F-4994-AE5D-F7991C584C7CQ35105804-6123228D-0DBE-454C-9A5F-755345890F98Q35350696-DD9BE234-3D1A-4E4F-A002-8A7F5B632C79Q35758334-8B4030E5-2B0E-4F69-B574-D10491FFD2BCQ36220396-D9F04868-5F26-44D6-A94C-76C3F25CD6EFQ36374709-53F410CF-55FB-4F4C-B7ED-C3B2A3FE6354Q36641630-1EB368FD-2B72-4114-8054-E424F547FB9FQ37045301-1CB4E394-DEFC-4470-81F8-87A21162BEC4Q37292266-F45D6DEB-D9FC-4A19-88E1-ABA432CFAC1DQ37405368-65DF0F65-F894-4441-8B32-FEC1C2F531BBQ37695988-B6DD543B-E95D-444D-937B-6DBD557D4B2FQ37800920-915D1F25-F1F1-4A60-8852-6BFF4F08A0FBQ38160536-4D5FFC12-F71F-440D-A16C-D7E5881C542AQ38268922-9B5BC45C-C382-43D3-A989-B8DC984BDBBAQ39333296-4616ABE2-0689-4248-A16A-0C275A7F53D3Q42008600-8A15C416-6527-4F22-A444-BF7177AEA304Q42063183-AFC3B77A-4005-48D1-AB60-CA2F68C2FF10Q44902285-B9E00E9E-8BD9-434F-9252-5FB3194FF078Q46533755-6EF3EF62-0415-48F9-A543-76848DAD2C89Q47426789-CAFF34E5-B4E0-4190-99EB-9136EAB61E39Q49679738-C4700462-5F91-4281-9B0E-0EDA140AE6F7Q58607974-1B389666-8DE7-4B21-934E-98FB1CB6C0E9Q58715300-4A419BC4-1110-4817-8692-7CB00C9424F5
P2860
Fungal adaptation to the mammalian host: it is a new world, after all.
description
2008 nî lūn-bûn
@nan
2008年の論文
@ja
2008年学术文章
@wuu
2008年学术文章
@zh-cn
2008年学术文章
@zh-hans
2008年学术文章
@zh-my
2008年学术文章
@zh-sg
2008年學術文章
@yue
2008年學術文章
@zh
2008年學術文章
@zh-hant
name
Fungal adaptation to the mammalian host: it is a new world, after all.
@en
Fungal adaptation to the mammalian host: it is a new world, after all.
@nl
type
label
Fungal adaptation to the mammalian host: it is a new world, after all.
@en
Fungal adaptation to the mammalian host: it is a new world, after all.
@nl
prefLabel
Fungal adaptation to the mammalian host: it is a new world, after all.
@en
Fungal adaptation to the mammalian host: it is a new world, after all.
@nl
P2860
P1476
Fungal adaptation to the mammalian host: it is a new world, after all.
@en
P2093
Bruce S Klein
Nicole M Cooney
P2860
P304
P356
10.1016/J.MIB.2008.09.018
P577
2008-11-03T00:00:00Z