Results 161 to 170 of about 6,089 (202)
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Nutritional studies on nematode-trapping fungi

Folia Microbiologica, 1989
Utilization of 18 carbon and nitrogen sources and 9 vitamins by three network forming fungiArthrobotrys oligospora, A. conoides andMonacrosporium cystosporum was studied. They were able to utilize almost all the carbon and nitrogen sources except few and showed variation in their efficiency of utilization.
G. Saxena, R. Dayal, K. G. Mukerji
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Nitrogen nutrition of some nematode-trapping fungi

Transactions of the British Mycological Society, 1967
Arthrobotrys oligospora, Dactylaria clavispora and D. thaumasia which form adhesive networks have been shown to be able to utilize nitrite, nitrate, ammonium and organic nitrogen during growth. A. anchonia, A. dactyloides, Monacrosporium bembicodes and M. doedycoides which form constricting rings cannot utilize nitrite and have a reduced ability
V. Satchuthananthavale, R.C. Cooke
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Nematode-Trapping Fungi

Carnivorous Plant Newsletter, 1985
reprinted from Carolina Tips, Carolina Biological Supply ...
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Two new nematode-trapping fungi (Arthrobotrys, Orbiliaceae) from Yunnan, China

Phytotaxa, 2022
Arthrobotrys jindingensis and A. tongdianensis, two new species isolated from the freshwater sediment and terrestrial soil in Lanping county, Yunnan, China, are introduced based on morphology and multi-locus phylogenetic analysis (ITS, TEF and RPB2). A.
XIN ZHANG   +5 more
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Endoparasitic nematode-trapping fungi of Mason State Forest

Mycopathologia, 1973
An initial survey involving the endoparasitic namatode-trapping fungi of Mason State Forest in Illinois was conducted from 15 May to 26 July 1971. Three endoparasitic forms were isolated from the soil samples collected; one non-endoparasitic form was also isolated. Soil pH's and soil nutrient levels were determined for the investigation period.
Herbert L. Monoson, Shirley A. Williams
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A Staining Technique for the Examination of Nematode-trapping Fungi

Nature, 1964
JANUS green, a bluish green basic dye of the morio-azo group, was observed to react in an interesting and useful manner with both nematode-trapping fungi and their prey. The dye is used at a concentration of 0.01 per cent in 0.2 M sodium acetate–acetic acid buffer at pH 4.6, and added drop by drop to the test material.
M A, FAUST, D, PARMER
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Occurrence of Nematode-trapping Fungi in the Rhizosphere

Nature, 1964
ALTHOUGH there are many species of predaceous fungi that capture and kill nematodes in soil, there are little if any data in the literature to indicate if they are preferentially stimulated by roots. Since nematodes tend to accumulate in the root zone or rhizosphere1 we determined the incidence of nematode-trapping fungi in this region as compared with
E. A. PETERSON, H. KATZNELSON
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PCR Primers with Enhanced Specificity for Nematode-Trapping Fungi (Orbiliales)

Microbial Ecology, 2008
Nematode-trapping fungi, a monophyletic lineage within the Orbiliales (Ascomycota), use specialized structures to capture and consume nematodes in soil, leaf litter, and other substrates. These fungi have been studied both because of their unique predatory life history and because they are potential control agents of important plant- and animal ...
Matthew E, Smith, Bruce A, Jaffee
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Taxonomy of Nematode-Trapping Fungi from Orbiliaceae, Ascomycota

2014
Nematode-trapping fungi of Orbiliaceae include those filamentous species forming trapping devices to prey on juveniles of nematodes. In this chapter, the taxonomic history of predatory orbiliaceous fungi is reviewed and the system of using trapping devices as the primary morphological criterion for generic delimitation is advocated.
ZeFen Yu   +3 more
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The ecology of nematode‐trapping fungi in the soil

Annals of Applied Biology, 1962
SUMMARYThe decomposition of sucrose in non‐sterile soil stimulates an increase in both the population of free‐living nematodes and the activity of indigenous nematode‐trapping fungi. After sucrose decomposition reaches a certain stage the fungi cease to trap the nematodes still present in the soil.
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