Root morphology and exudate availability are shaped by particle size and chemistry in Brachypodium distachyon
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T. Northen | M. de Raad | Kateryna Zhalnina | Joelle Sasse | S. Kosina | J. Jordan | Katherine Whiting
[1] J. Jadaun,et al. WRKY1-mediated regulation of tryptophan decarboxylase in tryptamine generation for withanamide production in Withania somnifera (Ashwagandha) , 2020, Plant Cell Reports.
[2] A. Gómez-Cadenas,et al. Root exudates: from plant to rhizosphere and beyond , 2019, Plant Cell Reports.
[3] Wolfgang Wanek,et al. Root Exudation of Primary Metabolites: Mechanisms and Their Roles in Plant Responses to Environmental Stimuli , 2019, Front. Plant Sci..
[4] C. Broeckling,et al. Non-Targeted Metabolomics Reveals Sorghum Rhizosphere-Associated Exudates are Influenced by the Belowground Interaction of Substrate and Sorghum Genotype , 2019, International journal of molecular sciences.
[5] N. Sokol,et al. Pathways of mineral‐associated soil organic matter formation: Integrating the role of plant carbon source, chemistry, and point of entry , 2018, Global change biology.
[6] P. Ortet,et al. Plant Nutrient Resource Use Strategies Shape Active Rhizosphere Microbiota Through Root Exudation , 2018, Front. Plant Sci..
[7] A. Visel,et al. Multilab EcoFAB study shows highly reproducible physiology and depletion of soil metabolites by a model grass , 2018, bioRxiv.
[8] D. Etalo,et al. Modulation of plant chemistry by beneficial root microbiota. , 2018, Natural product reports.
[9] M. Firestone,et al. Ecosystem Fabrication (EcoFAB) Protocols for The Construction of Laboratory Ecosystems Designed to Study Plant-microbe Interactions , 2018, Journal of visualized experiments : JoVE.
[10] Eoin L. Brodie,et al. Dynamic root exudate chemistry and microbial substrate preferences drive patterns in rhizosphere microbial community assembly , 2018, Nature Microbiology.
[11] Y. Kuzyakov,et al. Rhizodeposition under drought is controlled by root growth rate and rhizosphere water content , 2018, Plant and Soil.
[12] R. Chakraborty,et al. Construction of Viable Soil Defined Media Using Quantitative Metabolomics Analysis of Soil Metabolites , 2017, Front. Microbiol..
[13] P. Hallett,et al. Plant exudates improve the mechanical conditions for root penetration through compacted soils , 2017, Plant and Soil.
[14] A. Aharoni,et al. Live imaging of root–bacteria interactions in a microfluidics setup , 2017, Proceedings of the National Academy of Sciences.
[15] Evan Bolton,et al. ClassyFire: automated chemical classification with a comprehensive, computable taxonomy , 2016, Journal of Cheminformatics.
[16] M. Watt,et al. Microbiome and Exudates of the Root and Rhizosphere of Brachypodium distachyon, a Model for Wheat , 2016, PloS one.
[17] J. Dinneny,et al. Environmental Control of Root System Biology. , 2016, Annual review of plant biology.
[18] S. Brink. Unlocking the Secrets of the Rhizosphere. , 2016, Trends in plant science.
[19] P. Frey-Klett,et al. The Mineralosphere Concept: Mineralogical Control of the Distribution and Function of Mineral-associated Bacterial Communities. , 2015, Trends in microbiology.
[20] P. Nico,et al. Competitive sorption of microbial metabolites on an iron oxide mineral , 2015 .
[21] Guillaume Lobet,et al. GLO-Roots: an imaging platform enabling multidimensional characterization of soil-grown root systems , 2015, bioRxiv.
[22] Oliver Ruebel,et al. Analysis of Metabolomics Datasets with High-Performance Computing and Metabolite Atlases , 2015, Metabolites.
[23] Jennifer Pett-Ridge,et al. Mineral protection of soil carbon counteracted by root exudates , 2015 .
[24] T. Northen,et al. Untargeted soil metabolomics methods for analysis of extractable organic matter , 2015 .
[25] K. Smalla,et al. Root exudation and root development of lettuce (Lactuca sativa L. cv. Tizian) as affected by different soils , 2014, Front. Microbiol..
[26] Johan Six,et al. Aggregate-associated soil organic matter as an ecosystem property and a measurement tool ☆ , 2014 .
[27] Oliver Rübel,et al. OpenMSI: a high-performance web-based platform for mass spectrometry imaging. , 2013, Analytical chemistry.
[28] H. Bouwmeester,et al. A petunia ABC protein controls strigolactone-dependent symbiotic signalling and branching , 2012, Nature.
[29] S. Quake,et al. The RootChip: An Integrated Microfluidic Chip for Plant Science[W][OA] , 2011, Plant Cell.
[30] Loïc Pagès,et al. A Novel Image-Analysis Toolbox Enabling Quantitative Analysis of Root System Architecture1[W][OA] , 2011, Plant Physiology.
[31] A. Parashar,et al. Plant-in-chip: Microfluidic system for studying root growth and pathogenic interactions in Arabidopsis , 2011 .
[32] J. Vivanco,et al. The effect of root exudates on root architecture in Arabidopsis thaliana , 2011, Plant Growth Regulation.
[33] Benjamin P Bowen,et al. Dealing with the unknown: Metabolomics and Metabolite Atlases , 2010, Journal of the American Society for Mass Spectrometry.
[34] Eoin L. Brodie,et al. Selective progressive response of soil microbial community to wild oat roots , 2009, The ISME Journal.
[35] Davey L. Jones,et al. Carbon flow in the rhizosphere: carbon trading at the soil–root interface , 2009, Plant and Soil.
[36] V. Germain,et al. Monosaccharide/proton symporter AtSTP1 plays a major role in uptake and response of Arabidopsis seeds and seedlings to sugars: Monosaccharide/proton symporter function in Arabidopsis , 2008 .
[37] L. Kochian,et al. Characterization of AtALMT1 Expression in Aluminum-Inducible Malate Release and Its Role for Rhizotoxic Stress Tolerance in Arabidopsis1[W][OA] , 2007, Plant Physiology.
[38] D. Gleeson,et al. Altering the mineral composition of soil causes a shift in microbial community structure. , 2007, FEMS microbiology ecology.
[39] Nigel W. Hardy,et al. Proposed minimum reporting standards for chemical analysis , 2007, Metabolomics.
[40] L. V. Kravchenko,et al. Organic acids, sugars, and L-tryptophane in exudates of vegetables growing on stonewool and their effects on activities of rhizosphere bacteria. , 2006, Molecular plant-microbe interactions : MPMI.
[41] B. W. Veen. The influence of mechanical impedance on the growth of maize roots , 1982, Plant and Soil.
[42] A. Kabata-Pendias,et al. Soil-plant transfer of trace elements—an environmental issue , 2004 .
[43] J. Six,et al. A history of research on the link between (micro)aggregates, soil biota, and soil organic matter dynamics , 2004 .
[44] A. Edwards,et al. Rock fragments in soil support a different microbial community from the fine earth , 2004 .
[45] S. Plantureux,et al. Influence of plant morphology on root exudation of maize subjected to mechanical impedance in hydroponic conditions , 1998, Plant and Soil.
[46] S. Plantureux,et al. Influence of mechanical impedance on root exudation of maize seedlings at two development stages , 1995, Plant and Soil.
[47] G. Neumann,et al. Cluster roots--an underground adaptation for survival in extreme environments. , 2002, Trends in plant science.
[48] V. Germain,et al. Monosaccharide/proton symporter AtSTP1 plays a major role in uptake and response of Arabidopsis seeds and seedlings to sugars. , 2000, The Plant journal : for cell and molecular biology.
[49] J. Baldock,et al. Role of the soil matrix and minerals in protecting natural organic materials against biological attack , 2000 .
[50] K. Paustian,et al. Soil structure and organic matter: I. Distribution of aggregate-size classes and aggregate-associated carbon. , 2000 .
[51] W. Silk,et al. A mathematical model for pH patterns in the rhizospheres of growth zones , 1999 .
[52] N. Peters,et al. Alfalfa Root Exudates and Compounds which Promote or Inhibit Induction of Rhizobium meliloti Nodulation Genes. , 1988, Plant physiology.
[53] A. Thomas,et al. The nucleic acid fractions of a strain of Streptococcus faecalis. , 1953, Journal of general microbiology.