1970, INTERNATIONAL BIOLOGICAL PROGRAMME. I B P HANDBOOK; 15., ISBN 0632064102, Volume no. 15., xi, 164 p., 9 plates.
Book
Soil Biology and Biochemistry, ISSN 0038-0717, 05/2013, Volume 60, pp. 55 - 64
We investigated symbiotic and physiological properties, and taxonomic position, of 23 bacterial strains isolated from root nodules collected from the South...
Symbiosis | Fynbos | Nodulation | Nitrogen fixation | South Africa | Betaproteobacteria | Burkholderia | Lebeckia | STRAINS | ROOT-NODULE BACTERIA | RHIZOBIUM-LEGUMINOSARUM | BISERRULA-PELECINUS L | GENETIC DIVERSITY | NITROGEN-FIXATION | SOIL SCIENCE | ACID TOLERANCE | MIMOSA SPP | SP-NOV | Legumes | Beans | RNA | Physiological aspects | Bacteria | Mimosaceae | Peat
Symbiosis | Fynbos | Nodulation | Nitrogen fixation | South Africa | Betaproteobacteria | Burkholderia | Lebeckia | STRAINS | ROOT-NODULE BACTERIA | RHIZOBIUM-LEGUMINOSARUM | BISERRULA-PELECINUS L | GENETIC DIVERSITY | NITROGEN-FIXATION | SOIL SCIENCE | ACID TOLERANCE | MIMOSA SPP | SP-NOV | Legumes | Beans | RNA | Physiological aspects | Bacteria | Mimosaceae | Peat
Journal Article
Plant and Soil, ISSN 0032-079X, 7/2018, Volume 428, Issue 1, pp. 1 - 34
The erratic alterations in climate being experienced in agriculture, such as extended periods of drought or heavy rainfalls, are bringing increasing concerns...
Life Sciences | Growth-promoting bacteria | Allantoin | ACC deaminase | N 2 -fixers | Hypoxanthine | Plant Physiology | Ecology | Indole acetic acid | Xanthine | Plant Sciences | Soil Science & Conservation | fixers | URATE OXIDASE | N-2-fixers | AGRONOMY | ROOT-NODULE BACTERIA | ESCHERICHIA-COLI | STRUCTURAL-CHARACTERIZATION | GROWTH-PROMOTING RHIZOBACTERIA | EMENDED DESCRIPTION | LUPINI SP NOV | URIC-ACID DEGRADATION | PLANT SCIENCES | XANTHINE DEHYDROGENASE | SOIL SCIENCE | ENDOPHYTIC BACTERIA | Growthpromoting bacteria | Botanical research | Bacteria | Research | Plants | Food and nutrition | Indole | Biodiversity | Guanine | Purines | Synthesis | Groundwater | Weather patterns | Drought | Farm management | Crop yield | 1-Aminocyclopropane-1-carboxylate deaminase | Legumes | Agricultural management | Oceans | Colonies | Crops | Agricultural practices | Nitrogen | Metabolism | Intermediates | Climate change | Groundwater pollution | Ammonia | Nutrient loss | Deamination | Lakes | Catabolism | Acetic acid | Fitness
Life Sciences | Growth-promoting bacteria | Allantoin | ACC deaminase | N 2 -fixers | Hypoxanthine | Plant Physiology | Ecology | Indole acetic acid | Xanthine | Plant Sciences | Soil Science & Conservation | fixers | URATE OXIDASE | N-2-fixers | AGRONOMY | ROOT-NODULE BACTERIA | ESCHERICHIA-COLI | STRUCTURAL-CHARACTERIZATION | GROWTH-PROMOTING RHIZOBACTERIA | EMENDED DESCRIPTION | LUPINI SP NOV | URIC-ACID DEGRADATION | PLANT SCIENCES | XANTHINE DEHYDROGENASE | SOIL SCIENCE | ENDOPHYTIC BACTERIA | Growthpromoting bacteria | Botanical research | Bacteria | Research | Plants | Food and nutrition | Indole | Biodiversity | Guanine | Purines | Synthesis | Groundwater | Weather patterns | Drought | Farm management | Crop yield | 1-Aminocyclopropane-1-carboxylate deaminase | Legumes | Agricultural management | Oceans | Colonies | Crops | Agricultural practices | Nitrogen | Metabolism | Intermediates | Climate change | Groundwater pollution | Ammonia | Nutrient loss | Deamination | Lakes | Catabolism | Acetic acid | Fitness
Journal Article
2006, ISBN 9781845930622, ix, 297
Book
Trends in Biotechnology, ISSN 0167-7799, 2009, Volume 28, Issue 3, pp. 142 - 149
Phytoremediation holds promise for in situ treatment of heavy metal contaminated soils. Recently, the benefits of combining siderophore-producing bacteria...
Internal Medicine | RESISTANT | DESFERRIOXAMINE-B | ENDOPHYTIC BACTERIA | BIOTECHNOLOGY & APPLIED MICROBIOLOGY | PSEUDOMONAS-AERUGINOSA | GROWTH-PROMOTING BACTERIA | CONTAMINATED SOILS | IRON ACQUISITION | INDIAN MUSTARD | PLANT-GROWTH | Biodegradation, Environmental | Soil Pollutants - metabolism | Bacteria - metabolism | Metals, Heavy - metabolism | Models, Biological | Root Nodules, Plant | Siderophores - metabolism | Plants - microbiology | Soil Pollutants - isolation & purification | Metals, Heavy - isolation & purification | Heavy metals | Bioremediation | Microorganisms | Polypeptides | Plant growth | Metals | Gram-positive bacteria | Bacteria | Environmental impact | Binding sites | Soil contamination | Index Medicus
Internal Medicine | RESISTANT | DESFERRIOXAMINE-B | ENDOPHYTIC BACTERIA | BIOTECHNOLOGY & APPLIED MICROBIOLOGY | PSEUDOMONAS-AERUGINOSA | GROWTH-PROMOTING BACTERIA | CONTAMINATED SOILS | IRON ACQUISITION | INDIAN MUSTARD | PLANT-GROWTH | Biodegradation, Environmental | Soil Pollutants - metabolism | Bacteria - metabolism | Metals, Heavy - metabolism | Models, Biological | Root Nodules, Plant | Siderophores - metabolism | Plants - microbiology | Soil Pollutants - isolation & purification | Metals, Heavy - isolation & purification | Heavy metals | Bioremediation | Microorganisms | Polypeptides | Plant growth | Metals | Gram-positive bacteria | Bacteria | Environmental impact | Binding sites | Soil contamination | Index Medicus
Journal Article
Science, ISSN 0036-8075, 2/2010, Volume 327, Issue 5969, pp. 1122 - 1126
Legume plants host nitrogen-fixing endosymbiotic Rhizobium bacteria in root nodules. In Medicago truncatula, the bacteria undergo an irreversible (terminal)...
Symbiosis | Legumes | Polyploidy | B lymphocytes | Antimicrobials | Cell cycle | Bacteria | Reports | Cellular immunity | Bacteroids | Nodules | ORGANIZATION | NODULES | LEGUME SYMBIOSIS | MEDICAGO-TRUNCATULA | MULTIDISCIPLINARY SCIENCES | GENES | CELL-CYCLE | ANTIMICROBIAL PEPTIDES | MODEL | RHIZOBIUM-MELILOTI | Medicago truncatula - genetics | Root Nodules, Plant - metabolism | Sinorhizobium meliloti - drug effects | Genes, Plant | Sinorhizobium meliloti - physiology | Peptides - genetics | Root Nodules, Plant - microbiology | Molecular Sequence Data | Medicago truncatula - microbiology | Peptides - metabolism | Plant Proteins - chemistry | Cell Division | Plants, Genetically Modified | Cell Membrane - metabolism | Plant Proteins - metabolism | Nitrogen Fixation | Amino Acid Sequence | Peptides - chemistry | Loteae - metabolism | Loteae - microbiology | Medicago truncatula - metabolism | Peptides - pharmacology | Protein Transport | Plant Proteins - genetics | Sinorhizobium meliloti - cytology | Cytosol - metabolism | Anti-Bacterial Agents - pharmacology | Loteae - genetics | Host-bacteria relationships | Physiological aspects | Research | Peptides | Plant physiology | Endosymbiosis | Mutation | Botany | Cell Membrane | Medicago truncatula | Lotus | Cytosol | Life Sciences | Anti-Bacterial Agents | Root Nodules, Plant | Plant Proteins | Vegetal Biology | Sinorhizobium meliloti
Symbiosis | Legumes | Polyploidy | B lymphocytes | Antimicrobials | Cell cycle | Bacteria | Reports | Cellular immunity | Bacteroids | Nodules | ORGANIZATION | NODULES | LEGUME SYMBIOSIS | MEDICAGO-TRUNCATULA | MULTIDISCIPLINARY SCIENCES | GENES | CELL-CYCLE | ANTIMICROBIAL PEPTIDES | MODEL | RHIZOBIUM-MELILOTI | Medicago truncatula - genetics | Root Nodules, Plant - metabolism | Sinorhizobium meliloti - drug effects | Genes, Plant | Sinorhizobium meliloti - physiology | Peptides - genetics | Root Nodules, Plant - microbiology | Molecular Sequence Data | Medicago truncatula - microbiology | Peptides - metabolism | Plant Proteins - chemistry | Cell Division | Plants, Genetically Modified | Cell Membrane - metabolism | Plant Proteins - metabolism | Nitrogen Fixation | Amino Acid Sequence | Peptides - chemistry | Loteae - metabolism | Loteae - microbiology | Medicago truncatula - metabolism | Peptides - pharmacology | Protein Transport | Plant Proteins - genetics | Sinorhizobium meliloti - cytology | Cytosol - metabolism | Anti-Bacterial Agents - pharmacology | Loteae - genetics | Host-bacteria relationships | Physiological aspects | Research | Peptides | Plant physiology | Endosymbiosis | Mutation | Botany | Cell Membrane | Medicago truncatula | Lotus | Cytosol | Life Sciences | Anti-Bacterial Agents | Root Nodules, Plant | Plant Proteins | Vegetal Biology | Sinorhizobium meliloti
Journal Article
International Review of Cell and Molecular Biology, ISSN 1937-6448, 2015, Volume 316, pp. 111 - 158
Legumes and a few other plant species can establish a symbiotic relationship with nitrogen-fixing rhizobia, which enables them to survive in a...
Medicago truncatula | Nod factor | Root hair | Nodule development | Lotus japonicus | Autoregulation of nodulation | Infection thread | Root nodule symbiosis | DNA TOPOISOMERASE-VI | FACTOR SIGNAL-TRANSDUCTION | ANAPHASE-PROMOTING COMPLEX | MEDIATES SYSTEMIC REGULATION | BIOCHEMISTRY & MOLECULAR BIOLOGY | DEPENDENT PROTEIN-KINASE | LEGUME LOTUS-JAPONICUS | RECEPTOR-LIKE KINASE | ERF TRANSCRIPTION FACTOR | INFECTION THREAD GROWTH | MEDICAGO-TRUNCATULA CONTROLS | CELL BIOLOGY | Archaeal Proteins - metabolism | DNA Topoisomerases, Type II - metabolism | Signal Transduction | Symbiosis - physiology | Immunity, Innate | Medicago truncatula - physiology | Plant Root Nodulation | Gene Expression Regulation, Plant | Bacteria | Cytokinins - metabolism | Fabaceae - physiology | Loteae - physiology | Plant Roots - growth & development
Medicago truncatula | Nod factor | Root hair | Nodule development | Lotus japonicus | Autoregulation of nodulation | Infection thread | Root nodule symbiosis | DNA TOPOISOMERASE-VI | FACTOR SIGNAL-TRANSDUCTION | ANAPHASE-PROMOTING COMPLEX | MEDIATES SYSTEMIC REGULATION | BIOCHEMISTRY & MOLECULAR BIOLOGY | DEPENDENT PROTEIN-KINASE | LEGUME LOTUS-JAPONICUS | RECEPTOR-LIKE KINASE | ERF TRANSCRIPTION FACTOR | INFECTION THREAD GROWTH | MEDICAGO-TRUNCATULA CONTROLS | CELL BIOLOGY | Archaeal Proteins - metabolism | DNA Topoisomerases, Type II - metabolism | Signal Transduction | Symbiosis - physiology | Immunity, Innate | Medicago truncatula - physiology | Plant Root Nodulation | Gene Expression Regulation, Plant | Bacteria | Cytokinins - metabolism | Fabaceae - physiology | Loteae - physiology | Plant Roots - growth & development
Journal Article
Proceedings of the National Academy of Sciences of the United States of America, ISSN 0027-8424, 1/2010, Volume 107, Issue 1, pp. 478 - 483
To establish compatible rhizobial-legume symbioses, plant roots support bacterial infection via host-derived infection threads (ITs). Here, we report the...
Inoculation | Hair cells | Plant roots | Nodulation | Bacteria | Infections | Root hairs | Cell membranes | Plants | Nodules | Sinorhizobium | Symbiosis | Medicago | Plant membrane | plant membrane | PLASMA-MEMBRANES | FACTOR SIGNAL-TRANSDUCTION | MULTIDISCIPLINARY SCIENCES | ARTIFICIAL MICRORNAS | MEDICAGO-TRUNCATULA | ROOT-NODULES | symbiosis | RHIZOBIUM-LEGUME SYMBIOSIS | LIPID RAFTS | GENE-EXPRESSION | PERIBACTEROID MEMBRANE | PROTEINS | Sinorhizobium meliloti - genetics | Medicago truncatula - genetics | Root Nodules, Plant - metabolism | Membrane Proteins - genetics | Sinorhizobium meliloti - physiology | Root Nodules, Plant - microbiology | Molecular Sequence Data | Medicago truncatula - microbiology | Medicago truncatula - metabolism | Recombinant Fusion Proteins - metabolism | Nitrogen Fixation - physiology | Plant Proteins - genetics | Protein Isoforms - metabolism | Sinorhizobium meliloti - pathogenicity | RNA Interference | Root Nodules, Plant - ultrastructure | Recombinant Fusion Proteins - genetics | Membrane Proteins - metabolism | Plant Proteins - metabolism | Protein Isoforms - genetics | Bacterial infections | Physiological aspects | Nitrogen-fixing microorganisms | Genetic aspects | Research | Health aspects | Risk factors | Membrane proteins | Biological Sciences
Inoculation | Hair cells | Plant roots | Nodulation | Bacteria | Infections | Root hairs | Cell membranes | Plants | Nodules | Sinorhizobium | Symbiosis | Medicago | Plant membrane | plant membrane | PLASMA-MEMBRANES | FACTOR SIGNAL-TRANSDUCTION | MULTIDISCIPLINARY SCIENCES | ARTIFICIAL MICRORNAS | MEDICAGO-TRUNCATULA | ROOT-NODULES | symbiosis | RHIZOBIUM-LEGUME SYMBIOSIS | LIPID RAFTS | GENE-EXPRESSION | PERIBACTEROID MEMBRANE | PROTEINS | Sinorhizobium meliloti - genetics | Medicago truncatula - genetics | Root Nodules, Plant - metabolism | Membrane Proteins - genetics | Sinorhizobium meliloti - physiology | Root Nodules, Plant - microbiology | Molecular Sequence Data | Medicago truncatula - microbiology | Medicago truncatula - metabolism | Recombinant Fusion Proteins - metabolism | Nitrogen Fixation - physiology | Plant Proteins - genetics | Protein Isoforms - metabolism | Sinorhizobium meliloti - pathogenicity | RNA Interference | Root Nodules, Plant - ultrastructure | Recombinant Fusion Proteins - genetics | Membrane Proteins - metabolism | Plant Proteins - metabolism | Protein Isoforms - genetics | Bacterial infections | Physiological aspects | Nitrogen-fixing microorganisms | Genetic aspects | Research | Health aspects | Risk factors | Membrane proteins | Biological Sciences
Journal Article
Ecotoxicology and Environmental Safety, ISSN 0147-6513, 10/2018, Volume 162, pp. 129 - 138
There are fewer reports on plant growth promoting (PGP) bacteria living in nodules as helper to tolerance to abiotic stress such as salinity and drought. The...
Nodule salinity and drought tolerant bacteria | Klebsiella sp | Rhizobia | Kosakonia cowanii | Co-inoculation | Legume | PLANT | INOCULATION | MECHANISMS | NODULATION | NITROGEN-FIXATION | SALT STRESS | ENVIRONMENTAL SCIENCES | PROMOTING RHIZOBACTERIA | TOXICOLOGY | LEGUMES | ACC-DEAMINASE | PHASEOLUS-VULGARIS | Symbiosis | Soil Microbiology | Root Nodules, Plant - microbiology | Salt Tolerance | Soil - chemistry | Stress, Physiological | Rhizobium - isolation & purification | Medicago sativa - growth & development | Medicago sativa - microbiology | Sinorhizobium meliloti - isolation & purification | Klebsiella - isolation & purification | Salinity | Agricultural biotechnology | RNA | Growth | Soils, Salts in | Mineral industry | Bacteria | Mining industry | Index Medicus
Nodule salinity and drought tolerant bacteria | Klebsiella sp | Rhizobia | Kosakonia cowanii | Co-inoculation | Legume | PLANT | INOCULATION | MECHANISMS | NODULATION | NITROGEN-FIXATION | SALT STRESS | ENVIRONMENTAL SCIENCES | PROMOTING RHIZOBACTERIA | TOXICOLOGY | LEGUMES | ACC-DEAMINASE | PHASEOLUS-VULGARIS | Symbiosis | Soil Microbiology | Root Nodules, Plant - microbiology | Salt Tolerance | Soil - chemistry | Stress, Physiological | Rhizobium - isolation & purification | Medicago sativa - growth & development | Medicago sativa - microbiology | Sinorhizobium meliloti - isolation & purification | Klebsiella - isolation & purification | Salinity | Agricultural biotechnology | RNA | Growth | Soils, Salts in | Mineral industry | Bacteria | Mining industry | Index Medicus
Journal Article
Systematic and Applied Microbiology, ISSN 0723-2020, 05/2019, Volume 42, Issue 3, pp. 373 - 382
is an endemic species from mountain tops in Mexico that was found in traditional agriculture areas in Veracruz, Mexico. plants were identified by ITS sequences...
Symbiosis | Nitrogen fixation | Chromid | Rhizobium evolution | Phaseolus | Legume nodules | N-2-FIXING SYMBIONT | NODULATION COMPETITIVENESS | NITROGEN-FIXING NODULES | MICROBIOLOGY | LOS TUXTLAS | GENETIC DIVERSITY | GENOME SEQUENCE | ROOT-NODULES | BIOTECHNOLOGY & APPLIED MICROBIOLOGY | NATIVE BRADYRHIZOBIA | SP-NOV | RHIZOBIUM-TROPICI | Legumes | Beans | Fixation | RNA | Analysis | Genomics | Bacteria | Nitrogen | Mimosaceae
Symbiosis | Nitrogen fixation | Chromid | Rhizobium evolution | Phaseolus | Legume nodules | N-2-FIXING SYMBIONT | NODULATION COMPETITIVENESS | NITROGEN-FIXING NODULES | MICROBIOLOGY | LOS TUXTLAS | GENETIC DIVERSITY | GENOME SEQUENCE | ROOT-NODULES | BIOTECHNOLOGY & APPLIED MICROBIOLOGY | NATIVE BRADYRHIZOBIA | SP-NOV | RHIZOBIUM-TROPICI | Legumes | Beans | Fixation | RNA | Analysis | Genomics | Bacteria | Nitrogen | Mimosaceae
Journal Article
11.
Full Text
Identification of nodule‐specific cysteine‐rich plant peptides in endosymbiotic bacteria
PROTEOMICS, ISSN 1615-9853, 07/2015, Volume 15, Issue 13, pp. 2291 - 2295
The symbiosis of Medicago truncatula with Sinorhizobium meliloti or Sinorhizobium medicae soil bacteria results in the formation of root nodules where bacteria...
Symbiosis | Plant proteomics | Medicago truncatula | NCR‐peptides | Bacteroid | NCR-peptides | TRANSCRIPTOME | MEDICAGO-TRUNCATULA | BIOCHEMISTRY & MOLECULAR BIOLOGY | BIOCHEMICAL RESEARCH METHODS | GENE-EXPRESSION | DIFFERENTIATION | SIGNAL PEPTIDES | Root Nodules, Plant - metabolism | Sinorhizobium meliloti - physiology | Root Nodules, Plant - microbiology | Gene Expression Regulation, Plant - genetics | Medicago truncatula - microbiology | Medicago truncatula - metabolism | Cysteine | Peptides | Surface active agents | Analysis | Genomics | Bacteria | Soil microbiology | Cystine | Bacteriology
Symbiosis | Plant proteomics | Medicago truncatula | NCR‐peptides | Bacteroid | NCR-peptides | TRANSCRIPTOME | MEDICAGO-TRUNCATULA | BIOCHEMISTRY & MOLECULAR BIOLOGY | BIOCHEMICAL RESEARCH METHODS | GENE-EXPRESSION | DIFFERENTIATION | SIGNAL PEPTIDES | Root Nodules, Plant - metabolism | Sinorhizobium meliloti - physiology | Root Nodules, Plant - microbiology | Gene Expression Regulation, Plant - genetics | Medicago truncatula - microbiology | Medicago truncatula - metabolism | Cysteine | Peptides | Surface active agents | Analysis | Genomics | Bacteria | Soil microbiology | Cystine | Bacteriology
Journal Article
Microbiological Research, ISSN 0944-5013, 2008, Volume 163, Issue 2, pp. 173 - 181
Plant growth promoting rhizobacteria (PGPR) are known to influence plant growth by various direct or indirect mechanisms. In search of efficient PGPR strains...
PGPR | Indoleacetic acid | Siderophores and antifungal activity | STRAINS | siderophores and antifungal activity | INDOLEACETIC-ACID | YIELD | PSEUDOMONAS-PUTIDA | MICROBIOLOGY | SUPPRESSION | RHIZOBACTERIA | NODULATION | indoleacetic acid | CYANIDE PRODUCTION | CYTOKININS | BRADYRHIZOBIUM | Antifungal Agents - pharmacology | Symbiosis | Bacteria - metabolism | Azotobacter - drug effects | Indoleacetic Acids - metabolism | Ammonia - metabolism | Bacillus - metabolism | Siderophores - metabolism | Soil Microbiology | Bacteria - drug effects | Root Nodules, Plant - microbiology | Azotobacter - metabolism | Pseudomonas - isolation & purification | Hydrogen Cyanide - metabolism | Bacteria - isolation & purification | Phosphates - metabolism | Pseudomonas - drug effects | Bacillus - isolation & purification | Azotobacter - isolation & purification | Bacillus - drug effects | Plant Growth Regulators - metabolism | Pseudomonas - metabolism | Cicer - microbiology
PGPR | Indoleacetic acid | Siderophores and antifungal activity | STRAINS | siderophores and antifungal activity | INDOLEACETIC-ACID | YIELD | PSEUDOMONAS-PUTIDA | MICROBIOLOGY | SUPPRESSION | RHIZOBACTERIA | NODULATION | indoleacetic acid | CYANIDE PRODUCTION | CYTOKININS | BRADYRHIZOBIUM | Antifungal Agents - pharmacology | Symbiosis | Bacteria - metabolism | Azotobacter - drug effects | Indoleacetic Acids - metabolism | Ammonia - metabolism | Bacillus - metabolism | Siderophores - metabolism | Soil Microbiology | Bacteria - drug effects | Root Nodules, Plant - microbiology | Azotobacter - metabolism | Pseudomonas - isolation & purification | Hydrogen Cyanide - metabolism | Bacteria - isolation & purification | Phosphates - metabolism | Pseudomonas - drug effects | Bacillus - isolation & purification | Azotobacter - isolation & purification | Bacillus - drug effects | Plant Growth Regulators - metabolism | Pseudomonas - metabolism | Cicer - microbiology
Journal Article