Access the full text.
Sign up today, get DeepDyve free for 14 days.
G. Lohaus, Kerstin Pennewiss, B. Sattelmacher, M. Hussmann, Karl Muehling (2001)
Is the infiltration-centrifugation technique appropriate for the isolation of apoplastic fluid? A critical evaluation with different plant species.Physiologia plantarum, 111 4
A. Trewavas, R. Malhó (1998)
Ca2+ signalling in plant cells: the big network!Current opinion in plant biology, 1 5
A. Wissemeier, W. Horst (1987)
Callose deposition in leaves of cowpea (Vigna unguiculata [L.] Walp.) as a sensitive response to high Mn supplyPlant and Soil, 102
J. Gogarten (1988)
Physical properties of the cell wall of photoautotrophic suspension cells fromChenopodium rubrum L.Planta, 174
Karl Mühling, M. Wimmer, H. Goldbach (1998)
Apoplastic and membrane-associated Ca2+ in leaves and roots as affected by boron deficiencyPhysiologia Plantarum, 102
Walter Horst, Walter Horst, H. Marschner, H. Marschner (1978)
Effect of silicon on manganese tolerance of bean plants (Phaseolus vulgaris L.)Plant and Soil, 50
L. Bernstein (1971)
Method for determining solutes in the cell walls of leaves.Plant physiology, 47 3
M. Canny (1990)
Rates of apoplastic diffusion in wheat leavesNew Phytologist, 116
Jean-Luc Jung, S. Maurel, B. Fritig, G. Hahne (1995)
Different Pathogenesis-Related-Proteins are Expressed inSunflower (Helianthus annuus L.) in Response to Physical, Chemical and Stress factorsJournal of Plant Physiology, 145
R. Graham, R. Hannam, N. Uren (1988)
Manganese in Soils and Plants
B. Hoffmann, H. Kosegarten (1995)
FITC‐dextran for measuring apoplast pH and apoplastic pH gradients between various cell types in sunflower leavesPhysiologia Plantarum, 95
(1968)
Extracellular salt accumulation, a possible mechanism of salt injury
L. Loon (1997)
Induced resistance in plants and the role of pathogenesis-related proteinsEuropean Journal of Plant Pathology, 103
M. Pitman, U. Lüttge, D. Kramer, E. Ball (1974)
Free Space Characteristics of Barley Leaf SlicesFunctional Plant Biology, 1
J. Hallmann, A. Quadt-Hallmann, W. Mahaffee, J. Kloepper (1997)
Bacterial endophytes in agricultural cropsCanadian Journal of Microbiology, 43
K. Dietz (1997)
Functions and Responses of the Leaf Apoplast Under Stress, 58
H. Felle, S. Hanstein, R. Steinmeyer, R. Hedrich (2000)
Dynamics of ionic activities in the apoplast of the sub-stomatal cavity of intact Vicia faba leaves during stomatal closure evoked by ABA and darkness.The Plant journal : for cell and molecular biology, 24 3
S. Wees, Erik Swart, J. Pelt, L. Loon, C. Pieterse (2000)
Enhancement of induced disease resistance by simultaneous activation of salicylate- and jasmonate-dependent defense pathways in Arabidopsis thaliana.Proceedings of the National Academy of Sciences of the United States of America, 97 15
D. Clarkson (1988)
The Uptake and Translocation of Manganese by Plant Roots, 33
Eleonore Hose, D. Clarkson, E. Steudle, L. Schreiber, W. Hartung (2001)
The exodermis: a variable apoplastic barrier.Journal of experimental botany, 52 365
D. Clarkson (1993)
Roots and the Delivery of Solutes to the XylemPhilosophical Transactions of the Royal Society B, 341
H. Rogalla, V. Römheld (2002)
Role of leaf apoplast in silicon‐mediated manganese tolerance of Cucumis sativus L.Plant Cell and Environment, 25
Frank Dannel, H. Pfeffer, H. Marschner (1995)
Isolation of apoplasmic fluid from sunflower leaves and its use for studies on influence of nitrogen supply on apoplasmic pHJournal of Plant Physiology, 146
(1997)
Bacterial endophytes in agricultural crops. Can
T. Flowers, M. Hajibagherp, A. Yeo (1991)
Ion accumulation in the cell walls of rice plants growing under saline conditions: evidence for the Oertli hypothesisPlant Cell and Environment, 14
(1968)
Extracellular salt accumulation , a possible mechanism of salt injury in plants
H. Marschner (1988)
Mineral Nutrition of Higher Plants
Karl Mühling, A. Läuchli (2002)
Determination of apoplastic Na+ in intact leaves of cotton by in vivo fluorescence ratio-imaging.Functional plant biology : FPB, 29 12
(1995)
FITC-dextran for measuring apoplast pH and apparent pH gradients between various cell types in sunflower
B. Sattelmacher (2001)
The apoplast and its significance for plant mineral nutrition.The New phytologist, 149 2
Z. Dong, M. Canny, M. Mccully, Maria Roboredo, Clemente Cabadilla, E. Ortega, R. Rodés (1994)
A Nitrogen-Fixing Endophyte of Sugarcane Stems (A New Role for the Apoplast), 105
Karl Mühling, B. Sattelmacher (1997)
Determination of apoplastic K+ in intact leaves by ratio imaging of PBFI fluorescenceJournal of Experimental Botany, 48
Heather Knight (2000)
Calcium signaling during abiotic stress in plants.International review of cytology, 195
This book summarizes the experimental work conducted during a trans-disciplinary research program conducted for six years by the German Research Foundation. Each chapter includes introductory remarks written by internationally recognized scientists in their research areas. Contributiing authors representing outstanding German scientists from such different disciplines as Physics, Biochemistry, Plant Nutrition, Botany, and Molecular Biology not only report original research but also review the state of knowledge in their fields of research. ; It was the botanist Ernst Münch, who separated the plant into two principal compartments, the "dead" apoplast and the living symplast. Only during the last 20 years cell walls attracted the interest of a broader group of plant scientists. We know today that apoplastic functions are much more diverse. The apoplast may be considered as "the internal physiological environment of plant bodies", that essentially maintains homeostasis. The term ‘cell wall’ may be misleading, since the chemical and physical properties of cell walls are not fixed but rapidly respond to environmental stimuli. This is why the term "extracellular matrix" may be more appropriate. The book summarizes the experimental work conducted during a trans-disciplinary research programme funded for six years by the German Research Foundation. In their contributions, the authors representing outstanding German scientists from such different disciplines as Physics, Biochemistry, Plant Nutrition, Botany, and Molecular Biology not only report original research but also review the state of knowledge in their particular research fields: nutrient acquisition, short and long distance (xylem) transport, tolerance of nutrient deficiencies and mineral toxicities, and the role of micro-organisms colonizing the apoplast. Introductory remarks are written to each of the chapters by internationally highly recognized scientists in their research areas. ; DEDICATION;IN MEMORY OF BURKHARD SATTELMACHER: Walter Horst; Preface: Burkhard Sattelmacher and Walter Horst; FOREWORD:THE PLANT–LEAF APOPLAST: D.T. Clarkson; Section 1: CELL WALL – ION INTERACTIONS - SIGNIFICANCE FOR NUTRITION OF PLANTS AND THEIR STRESS TOLERANCE CELL WALL - ION INTERACTIONS: N. Carpita; BORON IN THE APOPLAST OF HIGHER PLANTS: M.A. Wimmer and H.E. Goldbach; SILICON IN PLANT NUTRITION: H. Wiese, M. Nikolic and V. Römheld; SIGNIFICANCE OF THE ROOT APOPLAST FOR ALUMINIUM TOXICITY AND RESISTANCE OF MAIZE: W.J. Horst, M. Kollmeier, N. Schmohl, M. Sivaguru, Y. Wang, H.H. Felle, R. Hedrich, W. Schröder and A. Staß; SIGNIFICANCE OF POLYAMINES FOR PECTIN-METHYLESTERASE ACTIVITY AND THE ION DYNAMICS IN THE APOPLAST: J. Gerendas; Section 2: THE ROOT APOPLAST – IMPLICATION FOR ION ACQUISITION AND SHORT-DISTANCE TRANSPORT THE APOPLAST: A KINETIC PERSPECTIVE: A. Glass, THE APOPLAST OF ECTOMYCORRHIZAL ROOTS - SITE OF NUTRIENT UPTAKE AND NUTRIENT EXCHANGE BETWEEN THE SYMBIOTIC PARTNERS: H. Bücking, R. Hans and W. Heyser; CHEMICAL COMPOSITON OF APOPLASTIC TRANSPORT BARRIERS IN ROOTS:L. Schreiber, R. Franke and K. Hartmann; APOPLASTIC WATER TRANSPORT IN ROOTS: E. Steudle and K. Ranathunge; Section 3: ION UPTAKE FROM AND LOADING INTO THE APOPLAST: CHARACTERISATION OF CHANNEL PROPERTIES AND RELEVANCE FOR THE NUTRITION OF PLANTS LONG DISTANCE TRANSPORT IN PLANTS: TOWARDS ANALYSES OF REGULATORY INTERACTIONS BETWEEN MEMBRANE TRANSPORT SYSTEMS AND CELL WALL IONIC ATMOSPHERE IN VASCULAR TISSUES: H. Sentenac; THE ROLE OF POTASSIUM IN WOOD FORMATION OF POPLAR: J. Fromm and R. Hedrich; TRANSPORT CHARACTERISTICS OF ION CHANNELS AS INFLUENCED BY APOPLASTIC PROPERTIES: P. Ache and R. Deeken; ION UPTAKE FROM THE XYLEM INTO THE SYMPLASM OF THE MAIZE LEAF: M. Abshagen-Keunecke and U.-P. Hansen; LOADING OF IONS INTO THE XYLEM OF THE ROOT: B. Köhler and K. Raschke; Section 4: THESIGNIFICANCE OF THE APOPLAST AS A COMPARTMENT FOR LONG-DISTANCE TRANSPORT NEW TOOLS TO EXPLORE THE APOPLAST: F.W. Bentrup; ON-LINE MEASUREMENTS OF ION RELATIONS IN THE XYLEM SAP OF INTACT PLANTS: L.H. Wegner, H. Schneider and U. Zimmermann; DYNAMIC AND NUTRIENT FLUXES IN THE XYLEM: F. GILMER and U. Schurr; RELATIONSHIP BETWEEN APOPLASTIC NUTRIENT CONCENTRATIONS AND THE LONG-DISTANCE TRANSPORT OF NUTRIENTS IN THE RICINUS COMMUNIS L. SEEDLING: E. Komor, G. Orlich and H. Bauer-Ruckdeschel; LONG-DISTANCE WATER TRANSPORT UNDER CONTROLLED TRANSPIRATIONAL CONDITIONS: MINIMAL-INVASIVE INVESTIGATIONS BY MEANS OF PRESSURE PROBES AND NMR IMAGING: H. Schneider, L.H. Wegner, A. Haase and U. Zimmermann; CHANGES IN COMPOSITION OF THE XYLEM SAP AS WELL AS IN ION FLUXES IN POPULUS TREMULA X ALBA L. XYLEM IN DEPENDENCE ON EXOGENOUS FACTORS: S. Siebrecht, G. Fiebelkorn and R. Tischner; Section 5: ION RELATIONS IN THE APOPLAST OF LEAVES ION DYNAMICS IN THE APOPLAST OF LEAF CELLS: Z. Rengel; PROBING APOPLASTIC ION RELATIONS IN VICIA FABA AS INFLUENCED BY NUTRITION AND GAS EXCHANGE: H.H. Felle and S. Hanstein; THE ROLE OF THE LEAF APOPLAST IN MANGANESE TOXICITY AND TOLERANCE IN COWPEA (VIGNA UNGUICULATA L. WALP): M.M. Fecht-Christoffers, P. Maier, K. Iwasaki, H.P. Braun and W.J. Horst; INTERACTION BETWEEN PHLOEM TRANSPORT AND APOPLASTIC SOLUTE CONCENTRATIONS: G. Lohaus; INVESTIGATIONS OF THE MECHANISMS OF LONGDISTANCE TRANSPORT AND ION DISTRIBUTION IN THE LEAF APOPLAST OF VICIA FABA L.: W. Merbach, D. Lüttschwager and K. Hüve; THE DYNAMICS OF IRON IN THE LEAF APOPLAST: M. Nikolic and V. Römheld; SELF-REPORTING ARABIDOPSIS THALIANA EXPRESSING pH- AND (CA2+)- INDICATORS UNVEIL APOPLASTIC ION DYNAMICS: C. Plieth, D. Gao, M.R. Knight, A.J. Trewavas and B. Sattelmacher; Section 6: THE APOPLAST COMPARTMENT FOR PLANT-MICROBE INTERACTIONS CONSTRAINTS FOR ENDOPHYTIC BACTERIA: T. Hurek; THE APOPLAST OF NORWAY SPRUCE (PICEA; Burkhard Sattelmacher was an internationally highly estimated scientist in the area of plant mineral nutrition. He contributed substantially to the scientific excellence of Plant Nutrition especially through his engagement within the German Research foundation particularly through the initiation and contribution to coordinated research programmes and as a member of the International Council for Plant Nutrition. He was a stimulating teacher, mentor, and colleague. He found research in plant nutrition fascinating, and was able to transmit that fascination to those around him. He died in November 2005 at the age of 58 after many months of courageous fighting against his disease. Born in Kiel he studied Botany at the Technical University of Berlin. He got his PhD in Plant Nutrition at the same University under the guidance of Horst Marschner. Deeply concerned about poverty alleviation through plant-production research he continued his work on the physiology of potato for 4 years as a post doc at the International Potato Center (CIP), Lima, Peru. This and follow-up research in Hohenheim represented the basis for his habilitation at the University of Hohenheim in 1986. In 1985 he accepted the call as professor for Plant Nutrition in Kiel. Since 1992 he was head and chairholder of Plant Nutrition at the Institute of Plant Nutrition and Soil Science, Faculty of Agricultural and Nutritional Sciences, University of Kiel. In the centre of the scientific interest of Burkhard Sattelmacher was the physiology of crops. He was convinced that its basic understanding is a prerequisite for solving practical problems related to crop management. In the early nineties Burkhard Sattelmacher developed a research area on nutrient fluxes in agricultural land-use systems comparing conventional and "biological" plant-production systems. Over 9 years he participated in a German Research Foundation (DFG)-funded Special Research Project with research projects on root turn-over, N uptake particularly from manure, ammonia and dinitrogen-oxide emission in a winter rape-seed winter-barley rotation. He extended his interest to the nutrient budgets of natural ecosystems in the ecosystem research programme Bornhöveder Seenkette. Among the research projects he initiated during the last years were particularly two to which he devoted his full force until the last days of his life: the DFG Special Research Programme ‘The apoplast of higher plants: compartment of storage, transport, and reactions’ and the DFG Research Group ‘Matter fluxes in grasslands of Inner Mongolia as influenced by stocking rate’. Burkhard Sattelmacher always maintained an interest in new developments in agronomy, botany, and soil science. He especially enjoyed discussing ideas with colleagues and students. He was highly estimated as a referee for scientific journals, as well as for funding agencies not only because of his wide knowledge and experience, but because his interest was in the progress of science, without personal bias. We have lost in Burkhard Sattelmacher an extraordinary person, teacher, scientist, and colleague. We will miss his stimulating contributions to scientific progress. The co-editor and the authors dedicate this book summarising the main achievement of the special research programme ‘Apoplast’ which he initiated and of which he was the speaker. Unfortunately, he did not have the pleasure to finish this book himself. Walter Horst ; It was the botanist Ernst Münch, who separated the plant into two principal compartments, the "dead" apoplast and the living symplast. Only during the last 20 years cell walls attracted the interest of a broader group of plant scientists. We know today that apoplastic functions are much more diverse. The apoplast may be considered as "the internal physiological environment of plant bodies", that essentially maintains homeostasis. The term ‘cell wall’ may be misleading, since the chemical and physical properties of cell walls are not fixed but rapidly respond to environmental stimuli. This is why the term "extracellular matrix" may be more appropriate. The book summarizes the experimental work conducted during a trans-disciplinary research programme funded for six years by the German Research Foundation. In their contributions, the authors representing outstanding German scientists from such different disciplines as Physics, Biochemistry, Plant Nutrition, Botany, and Molecular Biology not only report original research but also review the state of knowledge in their particular research fields: nutrient acquisition, short and long distance (xylem) transport, tolerance of nutrient deficiencies and mineral toxicities, and the role of micro-organisms colonizing the apoplast. Introductory remarks are written to each of the chapters by internationally highly recognized scientists in their research areas. ; Most comprehensive treatise of the role of the plant apoplast for the mineral nutrition of plants Combination of original research and reviews by internationally outstanding researchers Transdisciplinary research effort Development and application of new methodologies ; NL
Published: Jun 17, 2007
Read and print from thousands of top scholarly journals.
Already have an account? Log in
Bookmark this article. You can see your Bookmarks on your DeepDyve Library.
To save an article, log in first, or sign up for a DeepDyve account if you don’t already have one.
Copy and paste the desired citation format or use the link below to download a file formatted for EndNote
Access the full text.
Sign up today, get DeepDyve free for 14 days.
All DeepDyve websites use cookies to improve your online experience. They were placed on your computer when you launched this website. You can change your cookie settings through your browser.