EPPO Global Database

Andropogon virginicus(ANOVI)

EPPO Datasheet: Andropogon virginicus

Last updated: 2020-04-23


Preferred name: Andropogon virginicus
Authority: Linnaeus
Taxonomic position: Plantae: Magnoliophyta: Angiospermae: Commelinids: Poales: Poaceae: Panicoideae
Other scientific names: Andropogon dissitiflorus Michaux, Holcus virginicus (Linnaeus) Steudel, Sorghum virginicum (Linnaeus) Kuntze
Common names in English: beardgrass, broomsedge, broomsedge bluestem (US), broomstraw, deceptive bluestem, old-field broomstraw, sage grass, sedge grass, smooth bluestem, whisky grass, yellow bluestem, yellowsedge bluestem
view more common names online...
EPPO Categorization: A2 list
EU Categorization: IAS of Union concern
view more categorizations online...


History of introduction and spread

A. virginicus (Poaceae) is native to North and Central America. In the USA, A. virginicus mainly has an eastern and central native range. The species is also present in California where it is regarded as non-native. It is reported as invasive in Hawaii, where it was first reported in 1924. This species has been introduced and naturalized in Australia, New Zealand, Japan and South Korea. Prior to 2006, the only report from the EPPO region was in Georgia and the Russian Federation. In 2006, A. virginicus was found in France in a military camp.

In Japan, A. virginicus was first recorded around 1940 at Aichi Prefecture in the region of Chūbu, Honshu (NIES, 2017), where it is reported to be an aggressive invader (Enomoto et al., 2007). A. virginicus is recorded from South Korea (Lee et al., 2008); the authors describe the habitat as ‘vacant lots near the inhabited areas, forest side’. A. virginicus was first recorded in 1947 in Georgia in the Autonomous Republic of Abkhazia near Lake Bebsyr [Ochamchira (Oчaмчыpa) region]. In this area, A. virginicus is widespread in the natural environment, as well as in ruderal and disturbed land across the low-lying (up to 250 m) maritime part of the country (Кoлaкoвcкий, 1986), and is expanding its range in the Caucasus region. The most northerly point of its spread is the region of Tuapse town (Tyaпce), where in 1996 the population of this species was dominant in the area of a former vineyard on the marine terrace of the bank of the estuary (Зepнoв et al., 2000).

A. virginicus has been introduced and is established in Australia and in New Zealand (Gardner et al., 1996). In Australia, the first report of the species was in 1942 in New South Wales (Gardner et al., 1996). It is also recorded from Queensland and Victoria (AVH, 2017). In New Zealand, the species is recorded as having a scattered distribution in the North Island near Albany Hill (despite 7 years of eradication measures) and Warkworth.

A. virginicus is established in the EPPO region in France, Georgia and the Russian Federation. In France, A. virginicus was found in 2006 in the military camp ‘Camp du Poteau’ (Granereau & Verloove, 2010). It is suspected that A. virginicus was introduced into a military camp with NATO munitions between the years 1950 and 1967 (Granereau & Verloove, 2010; EPPO, 2011). It has also been recorded in Arjuzanx (Landes) in 2008, where its population has been observed to have increased (Royaud, 2010). In the Russian Federation, A. virginicus is established on the Black Sea coast of the Caucasus (Mironova, 2013).


EPPO Region: France (mainland), Georgia, Russia
Asia: Japan, Korea, Republic
North America: Canada (Ontario), Mexico, United States of America (Alabama, Arkansas, California, Connecticut, Delaware, District of Columbia, Florida, Georgia, Hawaii, Illinois, Indiana, Iowa, Kansas, Kentucky, Louisiana, Maryland, Massachusetts, Michigan, Mississippi, Missouri, New Jersey, New York, North Carolina, Ohio, Oklahoma, Pennsylvania, Rhode Island, South Carolina, Tennessee, Texas, Virginia, West Virginia)
Central America and Caribbean: Bahamas, Belize, Bermuda, Costa Rica, Cuba, Dominican Republic, Guatemala, Honduras, Jamaica, Nicaragua, Panama, Puerto Rico, Trinidad and Tobago
South America: Colombia
Oceania: Australia (New South Wales, Queensland, Victoria), New Zealand

MORPHOLOGY 2020-06-09

Plant type

Perennial grass.


A. virginicus is a herbaceous, perennial, warm season (C4) grass (Fig. 1). It has a cespitose (i.e. densely tufted) growth form and a height range of 40–210 cm (Campbell, 2003). Under the Raunkiaer life-form system it is a hemicryptophyte (Uchytil, 1992). The culms are typically branched distally, with light-green to reddish brown coloration (Weber, 2003). The leaf sheaths are long-ciliate, with a tuberculate (scabrous) surface. The ligules are yellow to brownish and membranous, 0.2–1 mm, with cilia 0.2–1.3 mm (Campbell, 2003; Weber, 2003). Leaf blades reach up to 52 cm and are 1.7–6.5 mm wide. These blades are variably hairy, with Campbell (2003) reporting them ‘smooth and glabrous or sparsely to densely pubescent with spreading hairs’. Weber (2003) reports that the inflorescences are racemes of length 2–4 cm containing spikelets of length 3–4 mm.



Reproduction in A. virginicus is sexual, although inbreeding is not unusual due to cleistogamous florets (i.e. flowers that do not open to allow cross-pollination). Chasmogamy (i.e. flowers that open to allow cross-pollination) is reported to vary from around 40% to 100% across described varieties and forms within the species; Campbell (1982, 1983) gives a figure of around 50% chasmogamy for the reportedly weedier subtaxa within A. virginicus, a trait which he links to their success as weeds. Note that some sources (e.g. CABI, 2016) do not make this distinction between subtaxa, thus giving the unwarranted impression that the species is always predominantly chasmogamous. Chasmogamous florets are wind-pollinated, as is true for most grasses.


Andropogon virginicus invades a wide variety of habitats from disturbed to relatively intact habitats including ruderal areas, wetlands, open pastures, grasslands and open woodlands. Campbell (2003) describes the habitats of the three named varieties of A. virginicus. For A. virginicus var. decipiens, these include flatwoods (open pine forest or savannah), scrublands and disturbed sites such as roadsides and cleared timberlands, of the south-eastern coastal plain of the USA. For A. virginicus var. glaucus, habitats include moist or dry soils of the coastal plain, from Southern New Jersey to Eastern Texas. For A. virginicus var. virginicus, the listed habitats include openings in mature vegetation created by disturbance and poorly drained soils of pond margins, swales and cutover flatwoods. Weber (2003) highlights that the species is an indicator of acid soil and lists prairies as the main habitat. The species also tolerates extremely nutrient-poor soils in Australia, burnt areas and grassland and has a low requirement for phosphorus  (Weber, 2003). Although it is also found on more fertile soils, its abundance decreases as competition increases; indeed, the species has often been used as an exemplar of a mid-successional species (Bazzaz, 1968, 1975, 1990).

Environmental requirements

Fire is an important part of the species’ ecology, both within its native (Irving, 1983; Uchytil, 1992) and invaded ranges (e.g. Hughes et al., 1991) where the species depends on frequent disturbance to maintain its population (Lemon, 1949; Lewis & Harshbarger, 1976; White David et al., 1991; Uchytil, 1992). Hughes et al. (1991) state that A. virginicus is one of the several non-native grasses in Hawaii that are excellent fire promoters, given their high dead: live biomass ratio, ability to burn at high relative humidity and high fuel moisture. Overall, then, it is worth noting that this species is fire-promoting, with the potential for positive feedbacks, but that controlled burning at a particular time of year and frequency may also reduce the species’ abundance (e.g. Butler et al., 2002).

Natural enemies

There are no known natural enemies in the EPPO region.

Uses and benefits

This species is generally considered to be of low economic value. A. virginicus is sold by nurseries promoting native species gardening in the USA. A named cultivar (‘Silver Beauty’) exists for horticulture (USDA, 2009). There is evidence that the species is sold within the EPPO region, in particular in the European Union (EU); however, again, it is considered to be of low economic value to the horticulture industry. It is frequently mentioned as a low-value forage species in North America and is therefore undesirable when it invades pastures, outcompeting other vegetation that has greater value as fodder (Griffin et al., 1988; Butler et al., 2002). Nutritional quality can be increased by prescribed burning, presumably due to the higher nutritional value of young shoots (Uchytil, 1992). There is no evidence that the species is used as a forage species within the EPPO region.


There is evidence that A. virginicus has entered the EPPO region as a contaminant of machinery and equipment (Granereau & Verloove, 2010). In France, it is suspected that A. virginicus was introduced into a military camp with NATO munitions between the years 1950 and 1967 (Granereau & Verloove, 2010; EPPO, 2011).

A. virginicus is available for commercial purposes (through the horticultural trade) in the USA and within the EPPO region (EPPO, 2018). However, there is no evidence that the species is commonly imported as seed into the EPPO region for horticultural purposes. In the pest risk analysis (PRA) conducted for the species (EPPO, 2018), the pathway contaminant of hay imports was considered. Although there is no published evidence of A. virginicus being transported as part of hay material from the USA, there is evidence that hay is imported into the EU and seed material of A. virginicus can potentially be included. Grass species have been intercepted via this pathway into other regions with seeds remaining viable (e.g. into Alaska from other US States; see Conn et al., 2010). In Australia, seeds of A. virginicus are also reported to be spread through the movement of hay and livestock (EPPO, 2011).

IMPACTS 2020-06-09

Effects on plants

A. virginicus stands can be dense, widespread and highly competitive, suggesting that the species reduces biodiversity (Uchytil, 1992; CABI, 2017). The species is reported to be able to dominate within the grass layer (Sorenson, 1991) (Fig. 2).

A. virginicus has been documented in Hawaii as having a negative impact on biodiversity by outcompeting native species through the promotion of fire and transformation of vegetation from native woodlands to fireadapted non-native grassland. In dry habitats, it competes with the endangered shrub Tetramolopium remyi and the endangered tree Santalum freycinetianum var. lanaiense (USFWS, 1995). On Oahu, it threatens the endangered subshrub Schiedea nuttallii (US Fish and Wildlife Service, 2009). It is a major threat to the small herb Portulaca sclerocarpa on the island of Hawaii and an islet off of Lanai. A. virginicus is also sympatric with Pritchardia napaliensis and Schiedea apokremnos in Hawaii and is a potential threat to those species. In conjunction with other non-native grasses in Hawaii, the species has altered fire regimes in seasonal submontane woodland, reducing the abundance of native species (D’Antonio et al., 2000).

In Australia, A. virginicus degrades habitat occupied by the Charmhaven apple (Angophora inopina, Myrtaceae) and may be having a direct impact on the regeneration of the species (Queensland Government, 2016). It is also recorded as a weed threat to the downy wattle (Acacia pubescens, Fabaceae) (Queensland Government, 2016).

Although present in the EPPO region, there are no reported studies that have evaluated the ecological or economic impact of A. virginicus in the region. Due to the aggressive spread of the species in natural areas in Georgia and around the Black Sea, and due to the rapid expansion of the area covered by the plant in France, the Expert Working Group (EWG) that assessed the risk of the species to the EPPO region considered that the potential impacts in the EPPO region will be in part similar to those seen in the current area of distribution. This is further compounded by the fact that when A. virginicus invades an area it forms dense monospecific stands, and this has been observed in the EPPO region (Granereau & Verloove, 2010).

Environmental and social impact

Due to its competitive nature, the species may have negative economic impacts on forage and timber production in the South-Eastern USA.

Primary production and habitat stability are likely to be altered by A. virginicus invasion due to a reduction in infiltration rates. Along with other non-native grasses, the species has an impact on nitrogen cycling by reducing the abundance of native species.

A. virginicus has been found to affect plantation forestry by decreasing the soil water content (Balandier et al., 2006). In forestry, control or suppression of this species may be necessary to enable the establishment of the plantation species (Groninger et al., 2004).

A. virginicus is frequently mentioned as a low-value forage species in North America and is therefore undesirable when it invades pastures, outcompeting other vegetation that has greater value as fodder (Griffin et al., 1988; Butler et al., 2002). Uchytil (1992) states that ‘nearly pure stands can persist on soils low in nitrogen or phosphorus as a result of competition and allelopathy’. Parsons & Cuthbertson (2001) also note impacts on pasture productivity in Australia.

CONTROL 2019-07-02

Since this plant thrives on low-pH and low-fertility soils, soil testing is the first step in managing A. virginicus in infested fields. Fertilization with nitrogen and phosphate and potassium supplementation can achieve control of A. virginicus in pastures (Peters & Lowance, 1974). Both mowing and burning may be ineffective at managing the species in isolation. Regular close cutting in February, March and April (USA) will help reduce abundance of the plant. Physical removal of the plant is possible in discrete areas, but this is both costly and time-consuming.

Herbicides have been shown to be effective at controlling A. virginicus under certain circumstances. However, Butler et al. (2002) found that A. virginicus seedlings were highly likely to germinate in the following season after herbicide application and suggest that soil fertility and grazing management are necessary to control the density of A. virginicus. Indeed, Butler et al. (2006), reporting on the same experimental system, found that A. virginicus could be effectively managed with proper fertility and tillage regimes.


A. virginicus was added to the EPPO Observation List of invasive alien plants in 2014 following a prioritization assessment (EPPO, 2014). In 2016, A. virginicus was identified as a priority for risk assessment within the requirements of Regulation 1143/2014 (Branquart et al., 2016; Tanner et al., 2017). A subsequent PRA concluded that A. virginicus carried a high phytosanitary risk to the endangered area (EPPO, 2018), and the species was added to the EPPO A2 List of pests recommended for regulation in 2018. In 2019, A. virginicus was included on the (EU) list of species of Union concern (EU Regulation 1143/2014).

Although in some areas in Australia the aim is to reduce population sizes of A. virginicus (e.g. in Brisbane, where it is a low priority environmental weed; weeds.brisbane.qld.gov.au/weeds/whisky-grass), it is not currently controlled at the national level in Australia (Queensland Government, 2016). It is also considered to be an ‘environmental weed’ in New South Wales and Queensland (Queensland Government, 2016).

The species is on the quarantine pest list for FrenchPolynesia (e.g. see www.biosecurity.govt.nz).

The species has been included on many weed lists in New Zealand, and was included in a summary ‘consolidated list’ by Howell (2008). However, it is not currently listed on the country’s National Plant Pest Accord (which would prohibit it from sale and commercial propagation and distribution).

In the USA, A. virginicus is on the composite list of weeds of the Weed Science Society of America wssa.net/wssa/weed/composite-list-of-weeds); however, this does not imply by itself the existence of any regulatory instruments. In Hawaii, A. virginicus is on the List of Plant Species Designated as Noxious Weeds for Eradication or Control Purposes by the Hawaii Department of Agriculture (hdoa.Hawaii.gov).

In South Africa, control of the species is enabled by the Conservation of Agricultural Resources (CARA) Act 43 of 1983, as amended, in conjunction with the National Environmental Management: Biodiversity (NEMBA) Act 10 of 2004. Currently, A. virginicus is listed as a ‘Prohibited Alien Species’ on the NEMBA mandated list of 2014. ‘[Prohibited alien species are] defined as alien species that are not yet in South Africa, that are known to be invasive and should not be imported into South Africa. If a Prohibited Alien species does occur in South Africa, it is automatically listed as a ‘Species that requires compulsory control’ unless listed otherwise’ (NEMBA Act 10 of 2014, www.environment.gov.za).

REFERENCES 2019-04-19

AVH (2017) Australia’s Virtual Herbarium. http://avh.ala.org.au/ [Accessed on 24 April 2017].

Balandier P, Collet C, Miller JH, Reynolds PE & Zedaker SM (2006) Designing forest vegetation management strategies based on the mechanisms and dynamics of crop tree competition by neighbouring vegetation. Forestry 79, 3–27.

Bazzaz FA (1968) Succession on abandoned fields in the Shawnee Hills, southern Illinois. Ecology 49, 924–936.

Bazzaz FA (1975) Plant species diversity in old-field successional ecosystems in Southern Illinois. Ecology 56, 485–488.

Bazzaz FA (1990) The response of natural ecosystems to the rising global COz levels. Annual Review of Ecology and Systematics 21, 167–196.

Branquart E, Brundu G, Buholzer S, Chapman D, Ehret P, Fried G et al. (2016) A prioritization process for invasive alien plant species incorporating the requirements of the EU Regulation 1143/2014. EPPO Bulletin 47, 603–617.

Butler TJ, Redmon LA, Stritzke JF & Goad CL (2006) Using prescribed fire, tillage, and fertilizer to manage broomsedge-infested pastures. Forage and Grazinglands https://doi.org/10.1094/FG-2006-0424-01-RS.

Butler TJ, Stritzke JF, Redmon LA & Goad CL (2002) Broomsedge (Andropogon virginicus) response to herbicides and burning. Weed Technology 16, 18–22.

CABI (2016) Invasive Species Compendium: Andropogon virginicus (broomsedge). https://www.cabi.org/isc/datasheet/5286. [Accessed on 9 March 2017].

CABI (2017) Invasive Species Compendium. CABI, Wallingford (UK). http://www.cabi.org/isc/datasheet/5286 [accessed on 22 May 2017].

Campbell CS (1982) Cleistogamy in Andropogon L. (Gramineae). American Journal of Botany 69, 1625–1635.

Campbell CS (1983) Systematics of the Andropogon virginicus complex (Gramineae). Journal of Arnold Arboretum 64, 171–254.

Campbell C (2003) Andropogon. In: Flora of North America North of Mexico, Volume 25, Magnoliophyta, Commelinidae, Poaceae, Part 2, 25(2). pp. 814. Oxford University Press, New York (US).

Conn J, Stockdale C, Werdin-Pfisterer N & Morgan J (2010) Characterizing pathways of invasive plant spread to Alaska: II. Propagules from imported hay and straw. Invasive Plant Science and Management 3, 276–285.

D’Antonio CM, Tunison JT & Loh RK (2000) Variation in the impact of exotic grasses on native plant composition in relation to fire across an elevation gradient in Hawaii. Austral Ecology 25, 507–522.

Enomoto T, Ozawa Y, Kataoka H, Kariyama S & Yamashita J (2007) An aggressive invader plant Andropogon virginicus L. in Japan and Hawaii Island. In: Marambe B, Sangakkara UR, De Costa WAJM & Abeysekara ASK (Eds.). Proceedings of the 21st Asian Pacific Weed Science Society (APWSS) Conference, pp. 568–570.

EPPO (2011) Andropogon virginicus. https://www.eppo.int/INVASIVE_PLANTS/observation_list/Andropogon_virginicus.html [accessed on 20 December 2016]

EPPO (2014) EPPO prioritization process for invasive alien plants: Andropogon virginicus. https://gd.eppo.int/download/doc/416_pra_pri_ANOVI.pdf [accessed on 20 December 2016]

EPPO (2018) Pest Risk Analysis for Andropogon virginicus. EPPO, Paris (FR). https://pra.eppo.int/ [Accessed on 23 May 2017].

Gardner RO, Champion PD & de Lange PJ (1996) Andropogon virginicus and Stipa tenuissima. Auckland Botanical Society Journal 51, 31–33.

Granereau G & Verloove F (2010) Une poacée invasive nouvelle pour la France: Andropogon virginicus (Andropogoneae, Poaceae). Bulletin de la Société Linnéenne de Bordeaux 145, 417–421.

Griffin JL, Watson VH & Strachan WF (1988) Selective broomsedge (Andropogon virginicus L.) control in permanent pastures. Crop Protection 7, 80–83.

Groninger JW, Baer SG, Babassana DA & Allen DH (2004) Planted green ash (Fraxinus pennsylvanica Marsh.) and herbaceous vegetation responses to initial competition control during the first 3 years of afforestation. Forest Ecology and management 189, 161–170.

Howell CJ (2008) Consolidated List of Environmental Weeds in New Zealand. Science & Technical Pub., Department of Conservation, Science and Technical Publishing, Wellington (NZL).

Hughes F, Vitousek PM & Tunison T (1991) Alien grass invasion and fire in the seasonal submontane zone of Hawaii. Ecology 72, 743–746.

Irving RS (1983) Composition, production and management of eastern Arkansas prairies. In: Kucera CL (Ed.) Proceedings, 7th North American prairie conference; 1980 August 4-6, pp. 281–286. University of Missouri, Springfield (US), Columbia (US).

Lee Y-M, Jong-Cheol Y, Park S-H, Lee J-H & Lee C (2008) Two new naturalized species from Korea, Andropogon virginicus L. and Euphorbia prostrata Aiton. Korean Journal of Plant Research 21, 427–430.

Lemon PC (1949) Successional responses of herbs in the longleaf-slash pine forest after fire. Ecology 30, 135–145.

Lewis CE & Harshbarger TJ (1976) Shrub and herbaceous vegetation after 20 years of prescribed burning in the South Carolina coastal plain. Journal of Range Management 29, 13–18.

Mironova M (2013) EPPO Prioritization Process for Invasive Alien Plants: Andropogon virginicus L. All-Russian Plant Quarantine Centre, Moscow (RUS).

NIES (2017) Andropogon virginicus. https://www.nies.go.jp/biodiversity/invasive/DB/detail/81450e.html [accessed on 20 December 2016]

Parsons WT & Cuthbertson EG (2001) Noxious Weeds of Australia, 2nd edn. CSIRO Publishing, Collingwood (AU).

Peters EJ & Lowance SA (1974) Fertility and management treatments to control broomsedge in pastures. Weed Science 22, 201–205.

Queensland Government (2016) Andropogon virginicus. Weeds of Australia, Biosecurity Queensland Edition. http://keyserver.lucidcentral.org/weeds/data/media/Html/andropogon_virginicus.htm

[accessed on 20 December 2016].

Royaud A (2010) Note complémentaire sur l’Andropogon virginicus s.l.: découverte à Arjuzanx (Landes). Bulletin de la Société Linnéenne de Bordeaux 145, 422.

Sorenson JC (1991) On the relationship of phenological strategy to ecological success: the case of broomsedge in Hawaii. Vegetatio 95, 137–147.

Tanner R, Branquart E, Brundu G, Buholzer S, Chapman D, Ehret P et al. (2017) The prioritisation of a short list of alien plants for risk analysis within the framework of the Regulation (EU) No. 1143/2014. NeoBiota 35, 87.

Uchytil RJ (1992) Andropogon virginicus. In: Fire Effects Information System, [Online]. U.S. Department of Agriculture, Forest Service, Rocky Mountain Research Station, Fire Sciences Laboratory (Producer). http://www.fs.fed.us/database/feis/ [Accessed on 13 January 2017]

US Fish and Wildlife Service (2009) Schiedea nuttallii 5-Year Review Summary and Evaluation., Oregon (USA)US Fish and Wildlife Service.

US Fish and Wildlife Service (USFWS) (1995) Lanai plant cluster recovery plan. U.S. Fish and Wildlife Service, Portland, Oregon. 238 pp. http://www.fws.gov/pacificislands/recoveryplans.html [Accessed on 26 May 2017].

USDA (2009) Broomsedge bluestem. Plant Fact Sheet. https://plants.usda.gov/factsheet/pdf/fs_anvi2.pdf [accessed on 20 December 2016]

Weber E (2003) Invasive Plant Species of the World: A Reference Guide to Environmental Weeds. CABI Publishing, Wallingford (UK).

White David L, Waldrop TA & Jones SM (1991) Forty years of prescribed burning on the Santee fire plots: effects on understory vegetation. In Fire and the Environment: Ecological and Cultural Perspectives: Proceedings of an International Symposium; 1990 March 20–24; Knoxville, TN. Gen. Tech. Rep. SE-69 (eds. Nodvin SC & Waldrop TA), pp. 51–59. U.S. Department of Agriculture, Forest Service, Southeastern Forest Experiment Station, Asheville (US).

Зepнoв AC, Кocтылeвa HB, Maвpoдиeв EB & Cyxopoкoв AП (2000) Флopиcтичecкиe иccлeдoвaния в Pocтoвcкoй oбл., Кpacнoдapcкoм Cтaвpoпoльcкoм кpaяx. Бюллeтeнь MOИП, oтд. биoл. 105, 53–54.

Кoлaкoвcкий AA, Флopa Aбxaзии. 2-oe изд., Tбилиcи (1986) т. 4, cтp. 364.


This datasheet is an output of a DG Environment, LIFE funding, under the project LIFE15 PRE-FR 001: Mitigating the threat of invasive alien plants in the EU through pest risk analysis to support the EU Regulation 1143/2014. The datasheet was produced following an EWG that risk analysed A. virginicus for the EPPO region in January 2017. The composition of the EWG was as follows: C. Alba (University of Florida, US), S. Follak (Austrian Agency for Health and Food Safety (AGES), AT), D. Chapman (Centre for Ecology and Hydrology, GB), D. Frohlich (SWCA Environmental Consultants, US), O. Pescott (Centre for Ecology and Hydrology, GB), J. van Valkenburg (National Plant Protection Organization, NL), V. Visser (University of Cape Town, ZA) and R. Tanner (EPPO).

How to cite this datasheet?

EPPO (2024) Andropogon virginicus. EPPO datasheets on pests recommended for regulation. https://gd.eppo.int (accessed 2024-04-19)

Datasheet history 2019-07-02

This datasheet was first published in the EPPO Bulletin in 2019 and is now maintained in an electronic format in the EPPO Global Database. The sections on 'Identity' and 'Geographical distribution' are automatically updated from the database. For other sections, the date of last revision is indicated on the right.

EPPO (2019) Andropogon virginicus L. Datasheets on pests recommended for regulation. EPPO Bulletin 49(1), 61-66. https://doi.org/10.1111/epp.12526