Mycorrhizal Symbiosis, Third Edition

“arbuscular mycorrhizal interaction between Allium cepa and Glomus intraradices”

p. 124 #6493961

“Fluxes of C (as glucose equivalents) from Cucumis sativus to Glomus fasciculatum”

p. 127 #6493962

“C allocation in Cucumis sativus, colonized by Glomus fasciculatus”

p. 129 #6493963

“mycorrhizal development (G. mosseae) in the same host”

p. 127 #6493964

“C demand of the extraradical mycelium of Glomus, associated with Plantago lanceolata was less than 1%”

p. 131 #6493965

“interactions of arbuscular mycorrhizal fungi with cultivars of Hordeum vulgare, differing in P efficiency”

p. 138 #6493966

“Glomus caledonium”

p. 130 #6493967

“first demonstration of increased inflow of P in AM roots was in Allium cepa”

#6493968

“Trifolium subterraneum in association with Acaulospora laevis”

#6493969

“Trifolium subterraneum in association with Scutellospora calospora”

#6493970

“P flux via arbuscules of G. mosseae to A. cepa was 13”

#6493971

“Glomus coronatum and G. mosseae colonizing A. porrum (leek)”

#6493972

“Glomus coronatum and G. mosseae colonizing A. porrum”

#6493973

“low contribution of Gi. rosea was probably related to poor external hyphae”

#6493974

“G. intraradices delivered close to 100% of the P to all three plant species”

#6493975

“G. intraradices delivered close to 100% of the P to all three plant species”

#6493976

“Medicago to Glomus caledonium”

#6493977

“AM colonization can result in complete inactivation of the direct P uptake pathway”

#6493978

“Trifolium repens / R 3.3-4.3 10^-13 Li et al., 1991”

#6493979

“Allium porrum/Glomus mosseae 2.0–3.2 × 10^9 Smith et al., 1994”

p. 168 #6493980

“immunolocalization of MtPT4 in roots of Medicago truncatula colonized by Glomus versiforme”

p. 171 #6493981

“hairy root of Solanum tuberosum, transformed with an StPT3 promoter”

p. 170 #6493982

“leaching with water was retarded when plants of Liquidambar styraciflua were AM with Glomus mosseae”

p. 172 #6493983

“mycorrhizal hyphae of Glomus intraradices on depletion of KCl-extractable NH4 and NO3”

p. 174 #6493984

“in dry soil, the enrichment of the AM plants was four times higher”

p. 174 #6493985

“Acaulospora lae-vis was shown to obtain 65Zn from distances up to 40 cm”

p. 177 #6493986

“Avena sativa (Gnekow and Marschner, 1989)”

p. 177 #6493987

“lack a Hartig net, as in the roots of Pisonia grandis (Ashford and Allaway, 1982)”

p. 192 #6493988

“fungi that produce typical ectomycorrhizas on members of the Pinaceae and Fagaceae”

p. 192 #6493989

“typical ectomycorrhizas on members of the Pinaceae and Fagaceae”

p. 192 #6493990

“Fagaceae, dominants or co-dominants... are predominantly ECM species”

p. 192 #6493997

“over 500 species, all of which are frequently ECM”

p. 192 #6493998

“ECM colonization was always more prolific than that by AM fungi”

p. 195 #6493999

“mycorrhizal benefits expressed in terms of shoot yield were generally larger”

p. 195 #6494000

“associates almost exclusively with members of the Pinaceae”

p. 203 #6494001

“associated with the Australasian hosts Eucalyptus and Acacia spp.”

p. 205 #6494002

“associated with the Australasian hosts Eucalyptus and Acacia spp.”

p. 205 #6494003

“Tuber spp.... have broad host ranges”

p. 209 #6494004

“Betula alleghanensis and P. tinctorius (Massicotte et al., 1990)”

p. 216 #6494006

“Betula pendula and Paxillus involutus (Simoneau et al., 1993)”

p. 218 #6494007

“between Pinus resinosa and P. involutus (Duchesne et al., 1989b)”

p. 218 #6494008

“mycorrhiza of Picea abies formed by Amanita muscaria”

p. 232 #6494009

“compatible and incompatible isolates of Pisolithus tinctorius”

p. 217 #6494010

“tuberculate roots formed by Suillus tomentosus on Pinus contorta”

p. 220 #6494011

“L. deliciosus in symbiosis with Pinus”

p. 226 #6494012

“Pinus pinaster and isolated several auxin-inducible cDNA clones”

p. 217 #6494013

“32kD-CWP Mycorrhiza P. tinctorius”

p. 218 #6494014

“rhizomorphs retained their structure and thus provided a skeletal framework”

p. 248 #6494015

“mycelium of L. laccata was not evident after October”

p. 249 #6494016

“Tomentella sublilicina, capable of forming mycorrhizas”

p. 262 #6494017

“Pinus banksiana–Wilcoxina mikolae var mikolae mycorrhizas”

p. 274 #6494018

“later replaced by ectomycorrhizas formed by slender hyphae”

p. 274 #6494019

“biomass of L. laccata seedlings was 21 times non-mycorrhizal plants”

p. 296 #6494192

“biochemical valve ensuring movement in the direction of the fungus”

p. 307 #6494193

“C allocated below ground was consistently greater in ECM than non-mycorrhizal plants”

p. 311 #6494195

“amount of C allocated below ground was consistently greater in ECM”

p. 311 #6494196

“high-affinity, general amino acid permease with a Km of 22 μm for histidine”

p. 329 #6494197

“broad substrate recognition consistent with role of general amino acid permease”

p. 329 #6494198

“Hebeloma crustuliniforme (HC) grown with different amino acids and peptides as sole N sources for 75 days”

p. 342 #6494199

“ECM plants were still significantly larger than their non-colonized counterparts”

p. 343 #6494200

“range of inorganic and organic N sources, either non-mycorrhizal (open bars) or ectomycorrhizal”

#6494201

“extraradical mycelium of Suillus bovinus transport to seedlings of Pinus”

p. 360 #6494202

“P inflows to ECM plants were increased by 3.8 times”

p. 363 #6494203

“increase of approximately 40-fold in the case of P. tinctorius”

p. 362 #6494204

“Severance of the connections led to an almost instantaneous decline in plant transpiration”

p. 381 #6494205

“P. radiata and Rhizopogon luteolus confirmed the transport of P in ECM rhizomorphs”

p. 359 #6494206

“S. variegatus positive influence on dissolution of apatite; seedlings produced significantly more biomass”

p. 365 #6494207

“Rhizopogon roseolus highest rates of oxalate release most effective at freeing P from insoluble inorganic sources”

p. 365 #6494208

“colonization of Tilia cordata by this fungus enabled roots to survive to -5.5 MPa”

p. 384 #6494209

“Pisolithus tinctorius upon the xylem water potential of Pinus pinaster”

p. 385 #6494210

“ascomycetous fungi to form ericoid mycorrhiza (ERM)”

p. 390 #6494211

“hair root of Rhododendron colonized by ericoid mycorrhizal fungi”

p. 392 #6494212

“Use of hyphal material as sole N source by Vaccinium macrocarpon mycorrhizal with Rhyzoscyphus ericae”

#6494505

“Symbiotic infection with Tulasnella calospora”

#6494506

“only the C. goodyerae-repentis was recovered from protocorms”

#6494507

“single Rhizoctonia isolate was capable of germinating seeds and promoting the growth of protocorms”

#6494508

“presence of only two fungi, both Epulorhiza spp., was detected in protocorms and plants”

#6494509

“protocorm of Dactylorhiza sambucina inoculated with Ceratobasidium cereale”

#6494510

“normal mycorrhizal interaction between Goodyera repens and Ceratobasidium cereale”

#6494511

“Resistant response of Orchis morio to penetration by Rhizoctonia”

#6494512

“ERM isolates from roots of the epacrid Woolsia pungens... readily able to use DNA and inositol hexaphosphate as P sources”

#6494513

“endophyte isolated from the calcicolous shrub Rhodothamnus chamaecistus it was fusigen”

#6494514

“plantlets of Goodyera repens, colonized by Ceratobasidium cornigerum, reached a height of 5-10 cm”

#6494515

“Rhizopogon species alone were capable of initiating germination of these plants”

#6494516

“translocating ability of orchid mycorrhizal fungi and delivery of sugars to symbiotic protocorms”

#6494517

“Rhizoctonia repens was the most common endophyte of B. striata”

#6494518

“presence of intact (fp) and degenerate (d) pelotons in the same areas of cortical tissue”

#6494519

“associated with a closely related set of Glomus species of Group A”

#6494520

“Rhizoctonia repens Unknown morphology (32), Rhizoctonia solani (16)”

#6494521

“Gastrodia elata were mycorrhizal with the wood-rotting pathogen Armillaria mellea”

#6494522

“primary colonization by Mycena (b, c, d) and subsequent development”

#6494523

“achlorophyllous liane in which the mycorrhizal associate is another wood-destroying fungus, Erythromyces crocicreas”

#6494524

“wood-rotting Ganoderma australe and the edible shiitake mushroom Lentinus edodes”

#6494525

“Hexalectris spicata Adults Field In planta: molecular (ITS RFLP's Taylor et al., 2003 Sebacinaceae - Sebacina spp.”

#6494526

“fungi in the Thelephoraceae”

#6494527

“belong exclusively to the Thelephora-Tomentella complex of the ECM family Thelephoraceae”

#6494528

“germination of Neottia seeds fails to occur in the absence of ECM co-associates”

#6494529

“forming mycorrhizas simultaneously with the achlorophyllous gametophyte and the leafy sporophyte generations”

#6494530

“associations with basidiomycetes of the order Tulasnellales are the norm”

#6494531

“up to 85% of the C acquired by these green orchids was derived from their fungal partners”

#6494532

“a small N gain from the fungal partner, similar to that seen in the autotrophic orchid”

#6494533

“these plants are strongly mycoheterotrophic”

#6494534

“the ECM Betula nana assimilated these N sources readily”

#6494535

“preliminary analysis of different Pulsatilla spp. indicated that the associations lacked specificity”

#6494536

“δ15N and δ13C in leaves of four green pyroloid species”

#6494194

“antagonistic impacts of Tuber mycelium on herbaceous vegetation... scorched rings”

p. 209 #6494005