Identification of native endophytic Trichoderma spp. for investigation of in vitro antagonism towards Armillaria mellea using synthetic‐ and plant‐based substrates
Aims To isolate endophytic Trichoderma species and investigate the potential for biological control of the root rot pathogen Armillaria mellea. Methods and Results In all, 40 Trichoderma isolates were obtained from a range of host plants and identities were confirmed by ITS, rpb2 and tef1 sequence....
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Published in | Journal of applied microbiology Vol. 131; no. 1; pp. 392 - 403 |
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Main Authors | , , , , , |
Format | Journal Article |
Language | English |
Published |
England
Oxford University Press
01.07.2021
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Subjects | |
Online Access | Get full text |
ISSN | 1364-5072 1365-2672 1365-2672 |
DOI | 10.1111/jam.14938 |
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Abstract | Aims
To isolate endophytic Trichoderma species and investigate the potential for biological control of the root rot pathogen Armillaria mellea.
Methods and Results
In all, 40 Trichoderma isolates were obtained from a range of host plants and identities were confirmed by ITS, rpb2 and tef1 sequence. When tested in dual culture assays for antagonism against A. mellea, Trichoderma isolates overgrew the A. mellea colonies within four days and by eight days 38 Trichoderma isolates significantly reduced A. mellea colony size. Armillaria mellea was unable to be recovered from five of eight co‐cultivations tested, suggesting Trichoderma had killed the A. mellea in these cases. Pre‐colonized hazel disks were used to determine what happens in a more heterogeneous situation with A. mellea and a refined set of eight Trichoderma isolates. Similar to plate‐based assays, Trichoderma quickly covered A. mellea stopping any further growth and two Trichoderma isolates were able to eradicate A. mellea.
Conclusions
Of the Trichoderma spp. tested, endophytic isolates of Trichoderma virens and T. hamatum offered the greatest antagonism towards A. mellea. Using pre‐colonized hazel disks was of great importance for this work to demonstrate the fungal interactions in plant material.
Significance and Impact of the Study
Controlling Armillaria root rot is difficult with chemical treatments, thus an environmentally benign and cost‐effective alternative is required. This study highlights the prospect of biological control as an effective, environmentally friendly alternative to chemicals. |
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AbstractList | To isolate endophytic Trichoderma species and investigate the potential for biological control of the root rot pathogen Armillaria mellea.AIMSTo isolate endophytic Trichoderma species and investigate the potential for biological control of the root rot pathogen Armillaria mellea.In all, 40 Trichoderma isolates were obtained from a range of host plants and identities were confirmed by ITS, rpb2 and tef1 sequence. When tested in dual culture assays for antagonism against A. mellea, Trichoderma isolates overgrew the A. mellea colonies within four days and by eight days 38 Trichoderma isolates significantly reduced A. mellea colony size. Armillaria mellea was unable to be recovered from five of eight co-cultivations tested, suggesting Trichoderma had killed the A. mellea in these cases. Pre-colonized hazel disks were used to determine what happens in a more heterogeneous situation with A. mellea and a refined set of eight Trichoderma isolates. Similar to plate-based assays, Trichoderma quickly covered A. mellea stopping any further growth and two Trichoderma isolates were able to eradicate A. mellea.METHODS AND RESULTSIn all, 40 Trichoderma isolates were obtained from a range of host plants and identities were confirmed by ITS, rpb2 and tef1 sequence. When tested in dual culture assays for antagonism against A. mellea, Trichoderma isolates overgrew the A. mellea colonies within four days and by eight days 38 Trichoderma isolates significantly reduced A. mellea colony size. Armillaria mellea was unable to be recovered from five of eight co-cultivations tested, suggesting Trichoderma had killed the A. mellea in these cases. Pre-colonized hazel disks were used to determine what happens in a more heterogeneous situation with A. mellea and a refined set of eight Trichoderma isolates. Similar to plate-based assays, Trichoderma quickly covered A. mellea stopping any further growth and two Trichoderma isolates were able to eradicate A. mellea.Of the Trichoderma spp. tested, endophytic isolates of Trichoderma virens and T. hamatum offered the greatest antagonism towards A. mellea. Using pre-colonized hazel disks was of great importance for this work to demonstrate the fungal interactions in plant material.CONCLUSIONSOf the Trichoderma spp. tested, endophytic isolates of Trichoderma virens and T. hamatum offered the greatest antagonism towards A. mellea. Using pre-colonized hazel disks was of great importance for this work to demonstrate the fungal interactions in plant material.Controlling Armillaria root rot is difficult with chemical treatments, thus an environmentally benign and cost-effective alternative is required. This study highlights the prospect of biological control as an effective, environmentally friendly alternative to chemicals.SIGNIFICANCE AND IMPACT OF THE STUDYControlling Armillaria root rot is difficult with chemical treatments, thus an environmentally benign and cost-effective alternative is required. This study highlights the prospect of biological control as an effective, environmentally friendly alternative to chemicals. AIMS: To isolate endophytic Trichoderma species and investigate the potential for biological control of the root rot pathogen Armillaria mellea. METHODS AND RESULTS: In all, 40 Trichoderma isolates were obtained from a range of host plants and identities were confirmed by ITS, rpb2 and tef1 sequence. When tested in dual culture assays for antagonism against A. mellea, Trichoderma isolates overgrew the A. mellea colonies within four days and by eight days 38 Trichoderma isolates significantly reduced A. mellea colony size. Armillaria mellea was unable to be recovered from five of eight co‐cultivations tested, suggesting Trichoderma had killed the A. mellea in these cases. Pre‐colonized hazel disks were used to determine what happens in a more heterogeneous situation with A. mellea and a refined set of eight Trichoderma isolates. Similar to plate‐based assays, Trichoderma quickly covered A. mellea stopping any further growth and two Trichoderma isolates were able to eradicate A. mellea. CONCLUSIONS: Of the Trichoderma spp. tested, endophytic isolates of Trichoderma virens and T. hamatum offered the greatest antagonism towards A. mellea. Using pre‐colonized hazel disks was of great importance for this work to demonstrate the fungal interactions in plant material. SIGNIFICANCE AND IMPACT OF THE STUDY: Controlling Armillaria root rot is difficult with chemical treatments, thus an environmentally benign and cost‐effective alternative is required. This study highlights the prospect of biological control as an effective, environmentally friendly alternative to chemicals. Aims To isolate endophytic Trichoderma species and investigate the potential for biological control of the root rot pathogen Armillaria mellea. Methods and Results In all, 40 Trichoderma isolates were obtained from a range of host plants and identities were confirmed by ITS, rpb2 and tef1 sequence. When tested in dual culture assays for antagonism against A. mellea, Trichoderma isolates overgrew the A. mellea colonies within four days and by eight days 38 Trichoderma isolates significantly reduced A. mellea colony size. Armillaria mellea was unable to be recovered from five of eight co‐cultivations tested, suggesting Trichoderma had killed the A. mellea in these cases. Pre‐colonized hazel disks were used to determine what happens in a more heterogeneous situation with A. mellea and a refined set of eight Trichoderma isolates. Similar to plate‐based assays, Trichoderma quickly covered A. mellea stopping any further growth and two Trichoderma isolates were able to eradicate A. mellea. Conclusions Of the Trichoderma spp. tested, endophytic isolates of Trichoderma virens and T. hamatum offered the greatest antagonism towards A. mellea. Using pre‐colonized hazel disks was of great importance for this work to demonstrate the fungal interactions in plant material. Significance and Impact of the Study Controlling Armillaria root rot is difficult with chemical treatments, thus an environmentally benign and cost‐effective alternative is required. This study highlights the prospect of biological control as an effective, environmentally friendly alternative to chemicals. To isolate endophytic Trichoderma species and investigate the potential for biological control of the root rot pathogen Armillaria mellea. In all, 40 Trichoderma isolates were obtained from a range of host plants and identities were confirmed by ITS, rpb2 and tef1 sequence. When tested in dual culture assays for antagonism against A. mellea, Trichoderma isolates overgrew the A. mellea colonies within four days and by eight days 38 Trichoderma isolates significantly reduced A. mellea colony size. Armillaria mellea was unable to be recovered from five of eight co-cultivations tested, suggesting Trichoderma had killed the A. mellea in these cases. Pre-colonized hazel disks were used to determine what happens in a more heterogeneous situation with A. mellea and a refined set of eight Trichoderma isolates. Similar to plate-based assays, Trichoderma quickly covered A. mellea stopping any further growth and two Trichoderma isolates were able to eradicate A. mellea. Of the Trichoderma spp. tested, endophytic isolates of Trichoderma virens and T. hamatum offered the greatest antagonism towards A. mellea. Using pre-colonized hazel disks was of great importance for this work to demonstrate the fungal interactions in plant material. Controlling Armillaria root rot is difficult with chemical treatments, thus an environmentally benign and cost-effective alternative is required. This study highlights the prospect of biological control as an effective, environmentally friendly alternative to chemicals. AimsTo isolate endophytic Trichoderma species and investigate the potential for biological control of the root rot pathogen Armillaria mellea.Methods and ResultsIn all, 40 Trichoderma isolates were obtained from a range of host plants and identities were confirmed by ITS, rpb2 and tef1 sequence. When tested in dual culture assays for antagonism against A. mellea, Trichoderma isolates overgrew the A. mellea colonies within four days and by eight days 38 Trichoderma isolates significantly reduced A. mellea colony size. Armillaria mellea was unable to be recovered from five of eight co‐cultivations tested, suggesting Trichoderma had killed the A. mellea in these cases. Pre‐colonized hazel disks were used to determine what happens in a more heterogeneous situation with A. mellea and a refined set of eight Trichoderma isolates. Similar to plate‐based assays, Trichoderma quickly covered A. mellea stopping any further growth and two Trichoderma isolates were able to eradicate A. mellea.ConclusionsOf the Trichoderma spp. tested, endophytic isolates of Trichoderma virens and T. hamatum offered the greatest antagonism towards A. mellea. Using pre‐colonized hazel disks was of great importance for this work to demonstrate the fungal interactions in plant material.Significance and Impact of the StudyControlling Armillaria root rot is difficult with chemical treatments, thus an environmentally benign and cost‐effective alternative is required. This study highlights the prospect of biological control as an effective, environmentally friendly alternative to chemicals. |
Author | Cromey, M.G. Bailey, A.M. Bashir, N. Drakulic, J. Rees, H.J. Foster, G.D. |
Author_xml | – sequence: 1 givenname: H.J. orcidid: 0000-0002-8578-1955 surname: Rees fullname: Rees, H.J. organization: RHS Wisley – sequence: 2 givenname: N. surname: Bashir fullname: Bashir, N. organization: RHS Wisley – sequence: 3 givenname: J. surname: Drakulic fullname: Drakulic, J. organization: RHS Wisley – sequence: 4 givenname: M.G. surname: Cromey fullname: Cromey, M.G. organization: RHS Wisley – sequence: 5 givenname: A.M. surname: Bailey fullname: Bailey, A.M. organization: University of Bristol – sequence: 6 givenname: G.D. surname: Foster fullname: Foster, G.D. email: gary.foster@bristol.ac.uk organization: University of Bristol |
BackLink | https://www.ncbi.nlm.nih.gov/pubmed/33219581$$D View this record in MEDLINE/PubMed |
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CitedBy_id | crossref_primary_10_1016_j_biocontrol_2023_105424 crossref_primary_10_1371_journal_pone_0271622 crossref_primary_10_1093_jambio_lxad115 crossref_primary_10_3390_applmicrobiol4020060 crossref_primary_10_3390_jof8070704 crossref_primary_10_1186_s12870_022_04007_8 crossref_primary_10_3390_f13071065 crossref_primary_10_3390_jof7121034 crossref_primary_10_3390_pathogens13070548 crossref_primary_10_1016_j_scitotenv_2023_164506 crossref_primary_10_3389_fpls_2024_1388841 crossref_primary_10_3390_crops2030015 |
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Keywords | Trichoderma endophyte antagonism Armillaria mellea fungi biocontrol |
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Snippet | Aims
To isolate endophytic Trichoderma species and investigate the potential for biological control of the root rot pathogen Armillaria mellea.
Methods and... To isolate endophytic Trichoderma species and investigate the potential for biological control of the root rot pathogen Armillaria mellea. In all, 40... AimsTo isolate endophytic Trichoderma species and investigate the potential for biological control of the root rot pathogen Armillaria mellea.Methods and... To isolate endophytic Trichoderma species and investigate the potential for biological control of the root rot pathogen Armillaria mellea.AIMSTo isolate... AIMS: To isolate endophytic Trichoderma species and investigate the potential for biological control of the root rot pathogen Armillaria mellea. METHODS AND... |
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SubjectTerms | Antagonism Armillaria mellea Armillaria root rot biocontrol Biological control Chemical treatment Colonies cost effectiveness Disks endophyte Endophytes Fungi Host plants pathogens Root rot Substrates Trichoderma Trichoderma virens |
Title | Identification of native endophytic Trichoderma spp. for investigation of in vitro antagonism towards Armillaria mellea using synthetic‐ and plant‐based substrates |
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