Braus Gerhard H GH

Show results for

Proteomics (2)
Transcriptomics (1)
Metabolomics (1)

Organisms

Alphavirus (2)
Anemia (2)
Archaea (2)
Bacteria (2)
Betaherpesvirinae (2)
Borrelia (2)
Chlamydomonas reinhardtii (2)
Chlorella vulgaris (2)
Clostridium perfringens (2)
Dengue virus (2)
Eukaryota (2)
Hepatitis B virus (2)
Human alphaherpesvirus 1 (2)
Human betaherpesvirus 5 (2)
Influenza A virus (2)
Influenza C virus (2)
Japanese encephalitis virus group (2)
Kamptonema sp. (2)
Listeria monocytogenes (2)
Mammarenavirus (2)
Miscanthus x giganteus (2)
Mycobacterium tuberculosis (2)
Orthoflavivirus (2)
Pseudomonas aeruginosa (2)
Rattus (2)
Sarbecovirus (2)
Severe acute respiratory syndrome coronavirus 2 (2)
Staphylococcus aureus (2)
Streptococcus pneumoniae (2)
Aspergillus fumigatus (1)

Repository

pride (2)
biostudies-arrayexpress (1)
MetaboLights (1)

Technology Type

Mass Spectrometry (2)
Mass spectrometry (1)
Affinity purification coupled with mass spectrometry proteomics (1)
Gel-based experiment (1)
Shotgun proteomics (1)

Instrument Platform

Liquid Chromatography MS - negative - reverse phase (1)
Liquid Chromatography MS - positive - reverse phase (1)

Publication Date

2015 (1)
2022 (1)
2021 (1)
2020 (1)

CHEBI ID

CHEBI:183642 (1)
CHEBI:86637 (1)
CHEBI:139294 (1)
CHEBI:183515 (1)
CHEBI:86622 (1)
CHEBI:86592 (1)
CHEBI:137515 (1)
CHEBI:167531 (1)
CHEBI:91172 (1)
CHEBI:183516 (1)
CHEBI:137481 (1)
CHEBI:167540 (1)
CHEBI:139241 (1)
CHEBI:91209 (1)
CHEBI:91204 (1)
CHEBI:167538 (1)
CHEBI:16323 (1)
CHEBI:3293 (1)
CHEBI:176098 (1)
CHEBI:16741 (1)
CHEBI:16065 (1)
CHEBI:74075 (1)
CHEBI:16673 (1)
CHEBI:74327 (1)
CHEBI:74067 (1)
CHEBI:9657 (1)
CHEBI:153572 (1)
CHEBI:136772 (1)
CHEBI:16464 (1)
CHEBI:137501 (1)

Metabolite Name

3-dihydroxybenzoic acid (1)
G(8-O-4)G(8-O-4)S(8-8)S (1)
G(8-O-4)S(8-8)S(8-O-4)G (1)
G(8-O-4)S(8-O-4)S(8-8)S (1)
G(8-O-4)G(8-O-4)S(8-5)G (1)
G(8-O-4)S (1)
G(8-O-4)S(8-5)G (1)
Salicyloylsalicin-C7H12O7 (1)
7-O-Methylnaringenin-7-furanosyl-(1-6)-glucopyranoside (1)
HCH-salicortin (1)
Isograndidentatin A (1)
Grandidentatin like (1)
Aromadendrin 7-O-glucoside (1)
5-hydroxyconiferyl alcohol derivative (1)
G(t8-O-4)G (1)
Salicyloylsalicin (1)
G(8-O-4)G (1)
Coniferyl aldehyde-5-hydroxyconiferyl aldehyde (1)
Scopoletin glucoside (1)
2-O-acetylsalicin (1)
Syringic acid glucoside (1)
1-O-(4-Coumaroyl)-beta-D-glucose (1)
Scopoletin-C5H9O5 (1)
HCH(like) glucoside (1)
Salirepin (1)
IsoSalicin (1)
2,5-dihydroxybenzoic acid 5-O-beta-D-glucoside (1)
Salicylic acid glucoside (1)
Galloylglucoside (1)
Hydroquinone O-beta-D-glucopyranoside (1)

Study type

RNA-seq of coding RNA (1)

Release Date

2015 (1)

Lab affiliation

Georg-August-University Göttingen, Department of Molecular Microbiology and Genetics, Institute of Microbiology and Genetics (1)
University of Göttingen, Institute of Microbiology and Genetics, Department of Molecular Microbiology and Genetics (1)

Previous page
1 / 1
You're on page 1
Next page

Sort by:

Relevance

Page size

The velvet protein Vel1 controls initial plant root colonization and conidia formation for xylem distribution in Verticillium wilt

Velvet domain proteins coordinate developmental processes and secondary metabolism in fungi. In this study, we characterized the role of all four velvet proteins in the life cycle of the plant pathogenic fungus Verticillium dahliae. From other fungi, the formation of different homo-and heterodimers ...

ORGANISM(S): Verticillium dahliae JR2

2021-02-23 | PXD021861 | Pride

V. longisporum elicits media-dependent secretome responses with a further capacity to distinguish between plant-related environments

Plant pathogens secrete distinct effector molecules in their host plants to establish successful infections. Verticillium longisporum colonizes the vascular system of the plant. We analyzed the exoproteome of the fungus dependent on different environmental conditions including non plant-related and ...

ORGANISM(S): Verticillium longisporum

2020-07-27 | PXD018533 | Pride

Verticillium longisporum Brassica napus Exoproteome Plant pathogen Secretome Xylem sap

Aspergillus fumigatus in blood reveals a "just wait and see" resting stage behavior

Objective: We analyzed changes in A. fumigatus gene expression profile at various stages of an in vitro model of aspergillosis to study the adaptation of A. fumigatus to the blood environment. Results: Most of virulence factors described to be involved in aspergillosis were not activated during the ...

ORGANISM(S): Aspergillus fumigatus

2015-11-24 | E-GEOD-70227 | biostudies-arrayexpress

Multi-omics analysis of xylem sap uncovers dynamic modulation of poplar defenses by ammonium and nitrate

Xylem sap is the major transport route for nutrients from roots to shoots. In the present study, we investigated how variations in nitrogen (N) nutrition affected the metabolome and proteome of xylem sap and the growth of the xylem endophyte Brennaria salicis, and we also report transcriptional re-w...

2022-07-04 | MTBLS2305 | MetaboLights

Previous page
1 / 1
You're on page 1
Next page