This list of references relates to the consultation on importing requirements for hop plants for planting
Apple fruit crinkle viroid
Biosecurity Australia (2010) Final review of policy: importation of Hop (Humulus species) propagative material into Australia. Biosecurity Australia, Australian Government, Canberra.
Biota NZ (2022) Biota of New Zealand: names and classification of bacteria, fungi, land invertebrates and plants. https://biotanz.landcareresearch.co.nz/ Accessed February 2022
Bragard, C; Dehnen‐Schmutz, K; Gonthier, P; Jacques, M A; Jaques Miret, J A; Justesen, A F; Macleod, A; Magnusson, C S; Milonas, P; Navas‐Cortes, J A; Parnell, S; Potting, R; Reignault, P L; Thulke, H H; Van Der Werf, W; Vicent Civera, A; Yuen, J; Zappalà, L; Candresse, T; Chatzivassiliou, E; Finelli, F; Winter, S; Chiumenti, M; Di Serio, F; Kaluski, T; Minafra, A; Rubino, L (2019) Pest categorisation of non‐EU viruses and viroids of Cydonia Mill., Malus Mill. and Pyrus L. EFSA Journal 17(9).
Breitwieser, I; Brownsey, P J; Nelson, W A; Wilton, A D (2010) Flora of New Zealand Online. www.nzflora.info Accessed 2022-11
Di Serio, F; Ambrós, S; Sano, T; Flores, R; Navarro, B (2018) Viroid Diseases in Pome and Stone Fruit Trees and Koch’s Postulates: A Critical Assessment. Viruses 10(11): 612.
EPPO (2022) EPPO Datasheet: Apple fruit crinkle viroid. http://gd.eppo.int
Flores, R; Gas, M-E; Molina-Serrano, D; Nohales, M-Á; Carbonell, A; Gago, S; De La Peña, M; Daròs, J-A (2009) Viroid Replication: Rolling-Circles, Enzymes and Ribozymes. Viruses 1(2): 317-334.
Gregory, A; Scott, S W; Brannen, P M; Royal, D C (2018) Graft-transmissible agents in oriental persimmons (Diospyros kaki L) in the southeastern USA. Australasian Plant Disease Notes 13(1).
Guček, T; Jakše, J; Matoušek, J; Radišek, S (2019) One-step multiplex RT-PCR for simultaneous detection of four viroids from hop (Humulus lupulus L.). European Journal of Plant Pathology 154(2): 273-286.
ICTV (2022) International Committee on Taxonomy of Viruses. https://ictv.global/taxonomy/ Accessed 2022
Ito, T; Kanematsu, S; Koganezawa, H; Tsuchizaki, T; Yoshida, K (1993) Detection of a Viroid Associated with Apple Fruit Crinkle Disease. Japanese Journal of Phytopathology 59(5): 520-527.
Mahaffee, W; Pethybridge, S; Gent, D (2007) The compendium of hop diseases, arthropod pests and other disorders. The American Phytopathological Society; St. Paul, Minnesota.
Nakaune, R; Nakano, M (2008) Identification of a new Apscaviroid from Japanese persimmon. Archives of Virology 153(5): 969-972.
NZOR (2022) The New Zealand Organisms Register. http://nzor.org.nz Accessed 03/03/2021
NZPCN (2022) New Zealand Plant Conservation Network. https://www.nzpcn.org.nz/ Accessed June 2021
ONZPR (2022) Official New Zealand Pest Register. MPI public database. https://pierpestregister.mpi.govt.nz/ Accessed 17 March 2021
Pethybridge, S J; Hay, F S; Barbara, D J; Eastwell, K C; Wilson, C R (2008) Viruses and viroids infecting hop: Significance, epidemiology, and management. Plant Disease 92(3): 324-338.
Phillips, C B; Kean, J M; Vink, C J; Berry, J A (2018) Utility of the CLIMEX match climates regional algorithm for pest risk analysis: an evaluation with non-native ants in New Zealand. Biological invasions 20(3): 777-791.
PPIN (2022) Plant Pest Information Network, Version 5.03.01. Ministry for Primary Industries Internal Database. Accessed 2022
Sano, T; Isono, S; Matsuki, K; Kawaguchi-Ito, Y; Tanaka, K; Kondo, K-I; Iijima, A; Bar-Joseph, M (2008) Vegetative propagation and its possible role as a genetic bottleneck in the shaping of the apple fruit crinkle viroid populations in apple and hop plants. Virus Genes 37(3): 298-303.
Sano, T; Yoshida, H; Goshono, M; Monma, T; Kawasaki, H; Ishizaki, K (2004) Characterization of a new viroid strain from hops: evidence for viroid speciation by isolation in different host species. Journal of General Plant Pathology 70(3): 181-187.
Sastry, K S; Mandal, B; Hammond, J; Scott, S W; Briddon, R W (2019) Humulus lupulus (Hop). Encyclopedia of Plant Viruses and Viroids. Springer India: New Delhi.
Veerakone, S; Tang, J; Ward, L; Liefting, L; Perez-Egusquiza, Z; Lebas, B; Delmiglio, C; Fletcher, J; Guy, P (2015) A review of the plant virus, viroid, liberibacter and phytoplasma records for New Zealand. Australasian Plant Pathology 44: 463-514.
Arabis mosaic virus small satellite RNA
Biota NZ (2022) Biota of New Zealand: names and classification of bacteria, fungi, land invertebrates and plants. https://biotanz.landcareresearch.co.nz/ Accessed February 2022
Coley-Smith, J R (1961) Hop diseases and the brewer. Journal of the Institute of Brewing 67(3): 231-235.
Davies, D; Clark, M (1983) A satellite‐like nucleic acid of arabis mosaic virus associated with hop nettlehead disease. J Annals of applied biology 103(3): 439-448.
EPPO (2022) EPPO global database. https://gd.eppo.int Accessed 2022
Etscheid, M; Tousignant, M E; Kaper, J M (1995) Small satellite of arabis mosaic virus: autolytic processing of in vitro transcripts of (+) and (-) polarity and infectivity of (+) strand transcripts. Journal of General Virology 76(2): 271-282.
Hay, F; Close, R (1992) Distribution of Xiphinema diversicaudatum (Micoletzky, 1927) Thome, 1939 in commercial hop (Humulus lupulus L.) gardens in New Zealand and implications for the spread of Arabis mosaic virus. J New Zealand journal of crop horticultural science 20(3): 367-370.
Hu, C-C; Hsu, Y-H; Lin, N-S (2009) Satellite RNAs and satellite viruses of plants. J Viruses 1(3): 1325-1350.
ICTV (2022) International Committee on Taxonomy of Viruses. https://ictv.global/taxonomy/ Accessed 2022
Liu, Y Y; Hellen, C U T; Cooper, J I; Bertioli, D J; Coates, D; Bauer, G (1990) The nucleotide sequence of a satellite RNA associated with Arabis mosaic nepovirus. Journal of General Virology 71(6): 1259-1263.
Mahaffee, W; Pethybridge, S; Gent, D (2007) The compendium of hop diseases, arthropod pests and other disorders. The American Phytopathological Society; St. Paul, Minnesota.
MPI (2021) Facility Standard: Post Entry Quarantine for Plants. Ministry for Primary Industries, https://www.mpi.govt.nz/dmsdocument/11368-Post-Entry-Quarantine-forPlants-Facilities-Standard
NZOR (2022) The New Zealand Organisms Register. http://nzor.org.nz Accessed 03/03/2021
ONZPR (2022) Official New Zealand Pest Register. MPI public database. https://pierpestregister.mpi.govt.nz/ Accessed 17 March 2021
Phillips, C B; Kean, J M; Vink, C J; Berry, J A (2018) Utility of the CLIMEX match climates regional algorithm for pest risk analysis: an evaluation with non-native ants in New Zealand. Biological invasions 20(3): 777-791.
PPIN (2022) Plant Pest Information Network, Version 5.03.01. Ministry for Primary Industries Internal Database. Accessed 2022
Veerakone, S; Tang, J; Ward, L; Liefting, L; Perez-Egusquiza, Z; Lebas, B; Delmiglio, C; Fletcher, J; Guy, P (2015) A review of the plant virus, viroid, liberibacter and phytoplasma records for New Zealand. Australasian Plant Pathology 44: 463-514.
Ascochyta humuliphila
Bedlan, G (2015) First report of Ascochyta humuliphila on Humulus lupulus in Austria. Journal Für Kulturpflanzen 67(3): 105-108.
Biota NZ (2022) Biota of New Zealand: names and classification of bacteria, fungi, land invertebrates and plants. https://biotanz.landcareresearch.co.nz/ Accessed February 2022
Bretag, T W; Keane, P J; Price, T V (2006) The epidemiology and control of ascochyta blight in field peas: a review. Australian Journal of Agricultural Research 57(8): 883-902.
Buchanan, P K (1984) Systemic growth of Ascochyta paspali in paspalum. New Zealand Journal of Agricultural Research 27(3): 451-457.
Korpelainen, H; Pietiläinen, M (2021) Hop (Humulus lupulus L.): Traditional and Present Use, and Future Potential. Economic Botany 75(3-4): 302-322.
Melʹnik, V A (2000) A key to the fungi of the genus Ascochyta Lib.
NZOR (2022) The New Zealand Organisms Register. http://nzor.org.nz Accessed 03/03/2021
ONZPR (2022) Official New Zealand Pest Register. MPI public database. https://pierpestregister.mpi.govt.nz/ Accessed 17 March 2021
Pande, S; Siddique, K H M; Kishore, G K; Bayaa, B; Gaur, P M; Gowda, C L L; Bretag, T W; Crouch, J H (2005) Ascochyta blight of chickpea (Cicer arietinum L.): a review of biology, pathogenicity, and disease management. Australian Journal of Agricultural Research 56(4): 317.
Phillips, C B; Kean, J M; Vink, C J; Berry, J A (2018) Utility of the CLIMEX match climates regional algorithm for pest risk analysis: an evaluation with non-native ants in New Zealand. Biological invasions 20(3): 777-791.
PPIN (2022) Plant Pest Information Network, Version 5.03.01. Ministry for Primary Industries Internal Database. Accessed 2022
Skoglund, L G; Harveson, R M; Chen, W; Dugan, F; Schwartz, H F; Markell, S G; Porter, L; Burrows, M L; Goswami, R (2011) Ascochyta Blight of Peas. Plant Health Progress 12(1): 29.
Suryanarayanan, T S; Wittlinger, S K; Faeth, S H (2005) Endophytic fungi associated with cacti in Arizona1 1Dedicated to John Webster on the occasion of his 80th birthday. Mycological Research 109(5): 635-639.
Tateno, O; Hirose, D; Osono, T; Takeda, H (2015) Beech cupules share endophytic fungi with leaves and twigs. Mycoscience 56(3): 252-256.
Tivoli, B; Banniza, S (2007) Comparison of the epidemiology of ascochyta blights on grain legumes. Springer Netherlands.
'Candidatus Phytoplasma asteris'
Bertaccini, A; Duduk, B; Paltrinieri, S; Contaldo, N (2014) Phytoplasmas and phytoplasma diseases: a severe threat to agriculture. American Journal of Plant Sciences 5: 1763-1788.
Biota NZ (2022) Biota of New Zealand: names and classification of bacteria, fungi, land invertebrates and plants. https://biotanz.landcareresearch.co.nz/ Accessed February 2022
CABI (2022) Datasheet: Candidatus Phytoplasma asteris (yellow disease phytoplasmas). https://www.cabi.org/cpc/datasheet/7642 Accessed October 2022
Chen, J; Pu, X; Deng, X; Liu, S; Li, H; Civerolo, E (2009) A phytoplasma related to ‘Candidatus Phytoplasma asteris’ detected in citrus showing huanglongbing (yellow shoot disease) symptoms in Guangdong, PR China. Phytopathology 99(3): 236-242.
Davis, R E; Dally, E L; Zhao, Y; Wolf, T K (2018) Genotyping points to divergent evolution of ‘Candidatus Phytoplasma asteris’ strains causing North American grapevine yellows and strains causing aster yellows. Plant Disease 102(9): 1696-1702.
EPPO (2021) 'Candidatus Phytoplasma asteris'(PHYPAS). https://gd.eppo.int/taxon/PHYPAS/distribution Accessed 8/12/2022
Ivanauskas, A; Valiunas, D; Jomantiene, R; Picciau, L; Davis, R E (2014) Possible insect vectors of 'Candidatus Phytoplasma asteris' and 'Ca. Phytoplasma pruni'-related strains in Lithuania. Zemdirbyste-Agriculture 101(3).
Jakovljević, M; Jović, J; Krstić, O; Mitrović, M; Marinković, S; Toševski, I; Cvrković, T (2020) Diversity of phytoplasmas identified in the polyphagous leafhopper Euscelis incisus (Cicadellidae, Deltocephalinae) in Serbia: pathogen inventory, epidemiological significance and vectoring potential. European Journal of Plant Pathology 156(1): 201-221.
Jomantiene, R; Davis, R (2005) Apple sessile leaf: a new disease associated with a 'Candidatus Phytoplasma asteris' subgroup 16SrI-B phytoplasma in Lithuania. Plant Pathology 54(2): 237-237.
Kamińska, M; Śliwa, H (2006) First report of a decline of ashleaf maple (Acer negundo) in Poland, associated with 'Candidatus Phytoplasma asteris'. Plant Pathology 55(2): 293.
Kumari, S; Nagendran, K; Rai, A B; Singh, B; Rao, G P; Bertaccini, A (2019) Global status of phytoplasma diseases in vegetable crops. Frontiers in Microbiology 10: 1349.
Lee, I M; Gundersen-Rindal, D E; Davis, R E; Bottner, K D; Marcone, C; Seemüller, E (2004) ‘Candidatus Phytoplasma asteris’, a novel phytoplasma taxon associated with aster yellows and related diseases. International Journal of Systematic and Evolutionary Microbiology 54(4): 1037-1048.
Mahaffee, W; Pethybridge, S; Gent, D (2007) The compendium of hop diseases, arthropod pests and other disorders. The American Phytopathological Society; St. Paul, Minnesota.
Marcone, C; Bellardi, M; Bertaccini, A (2016) Phytoplasma diseases of medicinal and aromatic plants. Journal of Plant Pathology: 379-404.
Mitra, S; Debnath, P; Bahadur, A; Chandra Das, S; Yadav, A; Rao, G (2019) First report on ‘Candidatus Phytoplasma asteris’(16SrI-B subgroup) strain associated with pineapple shoot proliferation and witches’ broom symptoms in Tripura, India. Plant Disease 103(11): 2941-2941.
MPI (2021) Facility Standard: Post Entry Quarantine for Plants. Ministry for Primary Industries, https://www.mpi.govt.nz/dmsdocument/11368-Post-Entry-Quarantine-forPlants-Facilities-Standard
Novotný, V (1994) Association of Polyphagy in Leafhoppers (Auchenorrhyncha, Hemiptera) with Unpredictable Environments. Oikos 70(2): 223-232.
NZIER (2016) How valuable is that plant species? Application of a method for enumerating the contribution of selected plant species to New Zealand’s GDP. Ministry for Primary Industries, Wellington.
NZOR (2022) The New Zealand Organisms Register. http://nzor.org.nz Accessed 03/03/2021
NZPCN (2022) New Zealand Plant Conservation Network. https://www.nzpcn.org.nz/ Accessed June 2021
ONZPR (2022) Official New Zealand Pest Register. MPI public database. https://pierpestregister.mpi.govt.nz/ Accessed 17 March 2021
Phillips, C B; Kean, J M; Vink, C J; Berry, J A (2018) Utility of the CLIMEX match climates regional algorithm for pest risk analysis: an evaluation with non-native ants in New Zealand. Biological invasions 20(3): 777-791.
PPIN (2022) Plant Pest Information Network, Version 5.03.01. Ministry for Primary Industries Internal Database. Accessed 2022
Solarska, E; Kamińska, M; Śliwa, H (2004) First Report of Phytoplasma Infection in Hop Plants. Plant Disease 88(8): 908-908.
Trivellone, V (2019) An online global database of Hemiptera-Phytoplasma-Plant biological interactions. Biodiversity Data Journal (7).
Veerakone, S; Tang, J; Ward, L; Liefting, L; Perez-Egusquiza, Z; Lebas, B; Delmiglio, C; Fletcher, J; Guy, P (2015) A review of the plant virus, viroid, liberibacter and phytoplasma records for New Zealand. Australasian Plant Pathology 44: 463-514.
Villa, M; Reis, C; Rodrigues, I; Baptista, P; Pereira, J A (2018) Aphrophoridae dynamic and feeding preference for plants in natural ground cover in olive groves from Trás-os-Montes. In 2nd Joint Annual Meeting European Research on Emerging Plant Diseases. Valencia.
Weintraub, P G; Jones, P (2009) Phytoplasmas: Genomes, Plant Hosts And. Cabi.
Zwolińska, A; Borodynko-Filas, N (2021) Intra and extragenomic variation between 16S rRNA genes found in 16SrI‐B‐related phytopathogenic phytoplasma strains. Annals of Applied Biology 179(3): 368-381.
Zwolińska, A; Krawczyk, K; Borodynko-Filas, N; Pospieszny, H (2019) Non-crop sources of Rapeseed Phyllody phytoplasma (‘Candidatus Phytoplasma asteris’: 16SrI-B and 16SrI-(B/L) L), and closely related strains. Crop Protection 119: 59-68.
Cercospora 'sp. Q'
Biota NZ (2022) Biota of New Zealand: names and classification of bacteria, fungi, land invertebrates and plants. https://biotanz.landcareresearch.co.nz/ Accessed February 2022
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Degu, T; Yaregal, W; Gudisa, T (2020) Status of common bean (Phaseolus vulgaris L.) diseases in metekel zone, north west Ethiopia. Journal Plant Pathology Microbiology 11: 494.
Duthie, J A; Campbell, C L (1991) Effects of plant debris on intensity of leaf spot diseases, incidence of pathogens, and growth of alfalfa. Phytopathology 81(5): 511-517.
Groenewald, J; Nakashima, C; Nishikawa, J; Shin, H-D; Park, J-H; Jama, A; Groenewald, M; Braun, U; Crous, P (2013) Species concepts in Cercospora: spotting the weeds among the roses. Studies in Mycology 75(1): 115-170.
Groenewald, M; Groenewald, J Z; Braun, U; Crous, P W (2006) Host range of Cercospora apii and C. beticola and description of C. apiicola, a novel species from celery. Mycologia 98(2): 275-285.
Imbusch, F; Liebe, S; Erven, T; Varrelmann, M (2021) Dynamics of cercospora leaf spot disease determined by aerial spore dispersal in artificially inoculated sugar beet fields. Plant Pathology 70(4): 853-861.
Khan, A; Ijaz, M; Haq, I; Farzand, A; Tariqjaved, M (2014) Management of Cercospora leaf spot of groundnut (Cercospora arachidicola & Cercosporidium personatum) through the use of systemic fungicides. Cercetari Agronomice in Moldova 47(2): 97-102.
Lewis, R (1940) A method of inducing spore production by Cercospora apii Fries in pure culture. Phytopathology 30(7).
MPI (2021) Facility Standard: Post Entry Quarantine for Plants. Ministry for Primary Industries, https://www.mpi.govt.nz/dmsdocument/11368-Post-Entry-Quarantine-forPlants-Facilities-Standard
Murthy, N; Lokesh, S (2013) Impact of Cercospora apii on teak nursery and its management in vivo. International Journal of Agricultural Science and Research, Chennai 3(3): 47-53.
NZIER (2016) How valuable is that plant species? Application of a method for enumerating the contribution of selected plant species to New Zealand’s GDP. Ministry for Primary Industries, Wellington.
NZOR (2022) The New Zealand Organisms Register. http://nzor.org.nz Accessed 03/03/2021
ONZPR (2022) Official New Zealand Pest Register. MPI public database. https://pierpestregister.mpi.govt.nz/ Accessed 17 March 2021
Pereira, C M; Ferreira, B W; Barreto, R (2022) First Report of Cercospora apii sensu lato ‘sp. Q’ Leaf Spot on Hop in Brazil. Plant Disease.
Phillips, C B; Kean, J M; Vink, C J; Berry, J A (2018) Utility of the CLIMEX match climates regional algorithm for pest risk analysis: an evaluation with non-native ants in New Zealand. Biological invasions 20(3): 777-791.
Plant & Food Research (2021) Fresh Facts: New Zealand Horticulture. Auckland, New Zealand. https://unitedfresh.co.nz/technical-advisory-group/fresh-facts
Raid, R (1989) Evaluation of fungicides for control of early blight in Florida cerely production. In Proc. Fla. State Hort. Soc (Vol. 102, pp. 360-362).
Skaracis, G N; Pavli, O I; Biancardi, E (2010) Cercospora Leaf Spot Disease of Sugar Beet. Sugar Tech 12(3-4): 220-228.
Torres, A; Lisboa, W; Colmán, A; Barreto, R (2016) First Record of Cercospora apii sensu lato Causing Leaf Spots on Yellow Guinea Yam in Brazil. Plant Disease 100(9): 1953.
Vereijssen, J; Schneider, J H; Termorshuizen, A J (2005) Root infection of sugar beet by Cercospora beticola in a climate chamber and in the field. European Journal of Plant Pathology 112(3): 201-210.
Citrus bark cracking viroid
Bernad, L; Duran-Vila, N (2006) A novel RT-PCR approach for detection and characterization of citrus viroids. Mol Cell Probes 20(2): 105-113.
Biota NZ (2022) Biota of New Zealand: names and classification of bacteria, fungi, land invertebrates and plants. https://biotanz.landcareresearch.co.nz/ Accessed February 2022
Duran-Vila, N; Roistacher, C N; Rivera-Bustamante, R; Semancik, J S (1988) A Definition of Citrus Viroid Groups and Their Relationship to the Exocortis Disease. Journal of General Virology 69(12): 3069-3080.
EPPO (2015) Citrus bark cracking viroid is causing ‘severe hop stunt disease’ in Slovenia: addition to the EPPO Alert List. https://gd.eppo.int/reporting/article-4777
Flores, R; Gas, M-E; Molina-Serrano, D; Nohales, M-Á; Carbonell, A; Gago, S; De La Peña, M; Daròs, J-A (2009) Viroid Replication: Rolling-Circles, Enzymes and Ribozymes. Viruses 1(2): 317-334.
Incorporated, H a N Z C G (2001) Growing Citrus in New Zealand: A practical guide. New Zealand Citrus Growers Incorporated; New Zealand.
Jakse, J; Radisek, S; Pokorn, T; Matousek, J; Javornik, B (2015) Deep-sequencing revealedCitrus bark cracking viroid(CBCVd) as a highly aggressive pathogen on hop. Plant Pathology 64(4): 831-842.
MPI (2021a) Facility Standard: Post Entry Quarantine for Plants. Ministry for Primary Industries, https://www.mpi.govt.nz/dmsdocument/11368-Post-Entry-Quarantine-forPlants-Facilities-Standard
MPI (2021b) Import Health Standard; Citrus Plants for Planting. In B N Zealand (Ed.), (pp. 17). Wellington, New Zealand: Ministry for Primary Industries.
Murcia, N; Bani Hashemian, S M; Serra, P; Pina, J A; Duran-Vila, N (2015) Citrus viroids: Symptom expression and performance of Washington navel sweet orange trees grafted on Carrizo citrange. Plant Disease 99: 125-136.
NZOR (2022) The New Zealand Organisms Register. http://nzor.org.nz Accessed 03/03/2021
ONZPR (2022) Official New Zealand Pest Register. MPI public database. https://pierpestregister.mpi.govt.nz/ Accessed 17 March 2021
Phillips, C B; Kean, J M; Vink, C J; Berry, J A (2018) Utility of the CLIMEX match climates regional algorithm for pest risk analysis: an evaluation with non-native ants in New Zealand. Biological invasions 20(3): 777-791.
Plant & Food Research (2021) Fresh Facts: New Zealand Horticulture. Auckland, New Zealand. https://unitedfresh.co.nz/technical-advisory-group/fresh-facts
PPIN (2022) Plant Pest Information Network, Version 5.03.01. Ministry for Primary Industries Internal Database. Accessed 2022
Radišek, S (2015) PEST RISK ANALYSIS REPORT for Citrus bark cracking viroid (CBCVd) on hop (Humulus lupulus). Slovenian Institute of Hop Research and Brewing, Cesta Žalskega tabora 2, SI-3310 Žalec, Slovenia. https://www.gov.si/assets/organi-v-sestavi/UVHVVR/Zdravje-rastlin/Organiziranost-zdravstvenega-varstva-rastlin/Ocena-tveganja/Sprejete-ocene-tveganja/Ocena_tveganja_CBCVd.pdf
Radisek, S; Majer, A; Jakse, J; Javornik, B; Matoušek, J (2012) First report of Hop stunt viroid infecting hop in Slovenia. Plant Disease 96(4): 592-592.
Seigner, L; Liebrecht, M; Keckel, L; Einberger, K; Absmeier, C (2020) Real-time RT-PCR detection of Citrus bark cracking viroid (CBCVd) in hops including an mRNA-based internal positive control. Journal of Plant Diseases and Protection 127(6): 763-767.
Štajner, N; Radišek, S; Mishra, A K; Nath, V S; Matoušek, J; Jakše, J (2019) Evaluation of Disease Severity and Global Transcriptome Response Induced by Citrus bark cracking viroid, Hop latent viroid, and Their Co-Infection in Hop (Humulus lupulus L.). International Journal of Molecular Sciences 20(13): 3154.
The University of Auckland (2022) NZ Plants, Rutaceae. https://www.nzplants.auckland.ac.nz/en/about/seed-plants-flowering/rutaceae.html Accessed 7/06/2022
Treiber, C; Majer, A; Born, U; Kamp, J; Schrader, G; Stampfl, J; Hagemann, M (2022) Possible import routes and sequence variations of the citrus bark cracking viroid in German hops.
Veerakone, S; Tang, J; Ward, L; Liefting, L; Perez-Egusquiza, Z; Lebas, B; Delmiglio, C; Fletcher, J; Guy, P (2015) A review of the plant virus, viroid, liberibacter and phytoplasma records for New Zealand. Australasian Plant Pathology 44: 463-514.
Wang, Y; Atta, S; Wang, X; Yang, F; Zhou, C; Cao, M (2018) Transcriptome sequencing reveals novel Citrus bark cracking viroid (CBCVd) variants from citrus and their molecular characterization. PLOS ONE 13(6): e0198022.
Diaporthe humulicola
Allan-Perkins, E; Li, D-W; Schultes, N; Yavuz, S; LaMondia, J (2020) The Identification of a New Species, Diaporthe humulicola, a Pathogen Causing Diaporthe Leaf Spot on Common Hop. Plant Disease 104(9): 2377-2390.
Biota NZ (2022) Biota of New Zealand: names and classification of bacteria, fungi, land invertebrates and plants. https://biotanz.landcareresearch.co.nz/ Accessed February 2022
EPA (2022) Environmental Protection Authority Te Mana Rauhī Taiao. https://www.epa.govt.nz/database-search/approved-hazardous-substances-with-controls Accessed 2022
Gomes, R R; Glienke, C; Videira, S I; Lombard, L; Groenewald, J Z; Crous, P W (2013) Diaporthe: a genus of endophytic, saprobic and plant pathogenic fungi. Persoonia 31: 1-41.
Hatlen, R J; Higgins, D S; Venne, J; Rojas, J A; Hausbeck, M K; Miles, T D (2022) First Report of Halo Blight of Hop (Humulus lupulus) Caused by Diaporthe humulicola in Quebec, Canada. Plant Disease 106(6): 1750.
Higgins, D S; Hatlen, R J; Byrne, J M; Sakalidis, M L; Miles, T D; Hausbeck, M K (2021) Etiology of halo blight in Michigan hopyards. Plant Disease 105(4): 859-872.
Mondal, S N; Vicent, A; Reis, R F; Timmer, L W (2007) Saprophytic Colonization of Citrus Twigs by Diaporthe citriand Factors Affecting Pycnidial Production and Conidial Survival. Plant Disease 91(4): 387-392.
MPI (2021) Facility Standard: Post Entry Quarantine for Plants. Ministry for Primary Industries, https://www.mpi.govt.nz/dmsdocument/11368-Post-Entry-Quarantine-forPlants-Facilities-Standard
NZOR (2022) The New Zealand Organisms Register. http://nzor.org.nz Accessed 03/03/2021
NZPCN (2022) New Zealand Plant Conservation Network. https://www.nzpcn.org.nz/ Accessed June 2021
ONZPR (2022) Official New Zealand Pest Register. MPI public database. https://pierpestregister.mpi.govt.nz/ Accessed 17 March 2021
Phillips, C B; Kean, J M; Vink, C J; Berry, J A (2018) Utility of the CLIMEX match climates regional algorithm for pest risk analysis: an evaluation with non-native ants in New Zealand. Biological invasions 20(3): 777-791.
PPIN (2022) Plant Pest Information Network, Version 5.03.01. Ministry for Primary Industries Internal Database. Accessed 2022
Fusarium spp.
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Hop stunt viroid
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Petunia asteroid mosaic virus
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Phaeomycocentrospora cantuariensis
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Podosphaera macularis
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Xylella fastidiosa
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