EPPO Global Database

Ips typographus(IPSXTY)

EPPO Datasheet: Ips typographus

Last updated: 2020-09-01


Preferred name: Ips typographus
Authority: (Linnaeus)
Taxonomic position: Animalia: Arthropoda: Hexapoda: Insecta: Coleoptera: Curculionidae: Scolytinae
Other scientific names: Bostrichus octodentatus Paykull, Dermestes typographus Linnaeus, Ips japonicus Niijima
Common names in English: eight-dentate bark beetle, eight-spined engraver, eight-toothed spruce bark beetle, spruce bark beetle
view more common names online...
EU Categorization: PZ Quarantine pest (Annex III)
view more categorizations online...

HOSTS 2020-09-01

The main host of I. typographus in Europe is Picea abies (Norway spruce) and other species of Picea (e.g. P. orientalis, P. jezoensis) serve as hosts in Asia. It also attacks other conifers such as Pinus (P. sylvestris, P. cembra, P. sibirica, P. koraiensis), Abies (A. alba, A sibirica, A. holophylla, A. nephrolepis, A. nordmanniana, A. sachalinensis), Larix (L. decidua, L. sibirica) and Pseudotsuga (P. menziesii).

Host list: Abies alba, Abies holophylla, Abies nephrolepis, Abies nordmanniana, Abies sachalinensis, Abies sibirica, Larix decidua, Larix sibirica, Picea abies, Picea jezoensis, Picea orientalis, Pinus cembra, Pinus koraiensis, Pinus sibirica, Pinus sylvestris, Pseudotsuga menziesii


I. typographus is widespread in two continents, Europe, including the European part of Russia, and Asia. It is widely distributed in the distribution range of its main host, Picea abies. The distribution in Asia is trans-Palearctic, covering Russia (Siberia and the Far East), China, Mongolia, Korean peninsula and Japan. It is also found in Africa in Algeria (Douglas et al., 2019). I. typographus is present both in the lowlands and mountains.

EPPO Region: Algeria, Austria, Belarus, Belgium, Bosnia and Herzegovina, Bulgaria, Croatia, Czech Republic, Denmark, Estonia, Finland, France (mainland), Georgia, Germany, Greece (mainland), Hungary, Italy (mainland), Kazakhstan, Latvia, Lithuania, Luxembourg, Moldova, Montenegro, Netherlands, Norway, Poland, Romania, Russia (Central Russia, Eastern Siberia, Far East, Northern Russia, Western Siberia), Serbia, Slovakia, Slovenia, Sweden, Switzerland, Türkiye, Ukraine, United Kingdom (England)
Africa: Algeria
Asia: China (Heilongjiang, Henan, Jilin, Neimenggu, Qinghai, Shaanxi, Sichuan, Xinjiang), Iran, Japan (Hokkaido, Honshu), Kazakhstan, Korea Dem. People's Republic, Korea, Republic, Tajikistan

BIOLOGY 2020-09-01

A comprehensive description of the biology and ecology of I. typographus is given by Chararas (1962), Christiansen & Bakke (1988), Wermelinger (2004), Maslov (2010) and Kausrud et al. (2011), EFSA (2017). The insect can overwinter in all development stages (eggs, larvae, pupae and adults). The eggs, larvae, pupae and adults overwinter in the galleries under the bark of the host tree and the adults can also overwinter in stumps, litter or mineral soil at a depth of 6-8 cm close to the tree where they developed. In the cold winter regions (e.g. in Russia), a 20-cm layer of snow is a reliable protection from frost for adults, but eggs, larvae and pupae die under the snow. According to Annila (1969), the mortality of beetles under the snow was 2-7% and above the snow was 65 -100%. Frosts below -24°C can cause 100% mortality beetle stages on standing trees. Larvae and pupae have supercooling points of -13 and -17°C, respectively, while adults can tolerate winter temperatures close to -30°C. Spring flights occur when the air temperature rises to about 18-20°C and temperature of forest litter reaches 8°C (Annila, 1969; Bakke et al., 1977a; Maslov, 2010).

Dispersal by adult flight can be very wide, sometimes over tens of kilometers (Forsse & Solbreck, 1985). Upon emergence, the males constitute 30–50% of the population (Lobinger, 1996).  They start colonising either weakened (e.g. fallen trees) or healthy trees and attract conspecifics of both sexes with aggregation pheromones (Annila, 1969; Bakke, 1970, 1976; Bakke et al.,1977b; Birgersson et al., 1984). 

Each male that has excavated a nuptial chamber in the phloem is joined by one to four females, which each bore a maternal gallery in the phloem, parallel to the phloem fibres and lay one by one eggs at regular intervals (Anderbrant, 1990), each in a small niche created in the lateral wall of the maternal gallery. If there is one female per male, the maternal gallery is directed towards the top of the tree. However, if there are two females per male, the galleries extend upwards and downwards. When there are three females, one gallery extends upwards and two galleries extend downwards. The egg niches are located on both sides of the maternal galleries. Each female lays up to 80 eggs. Oviposition and fecundity are dependent on the population/infestation density and temperature, where lower temperatures inhibit fecundity (Wermelinger & Seifert, 1999; CABI, online).

After egg-laying, the parent adults often re-emerge, fly away and establish sister broods on new host trees. Each larva excavates an individual gallery perpendicular to the maternal gallery. Pupation occurs in a small niche in the phloem, at the end of each larval gallery. After metamorphosis, the young adults remain under the bark for maturation feeding before they disperse. 

The number of generations per year depends on the climatic conditions. In favourable climatic conditions, the full development of one generation takes from 2 to 3 months. In the lowlands of Europe, the insect usually has two generations (excluding sister generations), but during extremely hot and long summers the number of generations can reach three. In the mountains, especially at higher altitudes, as well as in the north of Eurasia, only one generation develops per year.

At low, endemic population levels, the beetles mostly establish on weakened trees. When populations increase, for example after a storm has provided a large amount of suitable material, the beetles start attacking healthy trees. Host trees have defense mechanisms against attacking beetles (e.g. resin exudates and changes in the chemical composition of the phloem) (Christiansen et al., 1987). During the infestation process by the beetles, pathogenic ophiostomatoid fungi which are transmitted by the beetles inoculated to the host (Solheim, 1986; Kirisits, 2004; Linnakoski et al., 2016) and thus both pests contribute to tree death.

The impact of fungi associated with I. typographus has been analysed by many authors (e.g. Solheim, 1986; Yamaoka et al., 1997; Viiri & Lieutier, 2004; Salle et al., 2005; Linnakoski et al., 2016). Kirisits (2004) indicated 23 species of ophiostomatoid fungi associated to I. typographus that are isolated from the galleries of the beetles. Some of these species (e.g. Endoconidiophora polonica [= Ceratocystis polonica = Ophiostoma polonicum]) are virulent tree pathogens (Christiansen, 1985). The major triggers for I. typographus outbreaks are the availability of weakened trees or storm-felled timber, summer rainfall deficits and warm temperatures.



Trees that are infested by I. typographus have discoloured crowns. Frass (light-brown sawdust) can be found on the bark in the basal part of the stems of standing trees. The entrance holes of the beetles are visible on the surface of the bark. Initially these are found in the stem below the crown base. Subsequent attacks occur in the lower parts of the stem, including attacks at human eye-level. Usually three but sometimes two or four female galleries run from a nuptial chamber under the bark of plant host. Length may vary with gallery density, but 10-12 cm is an average length. Woodpeckers, in search of developing larvae, often break off the bark of attacked stems (Chararas, 1962; CABI, online). Blue-stain fungi are normally transferred with the beetle and grow into the wood around the gallery. 


Adult. The adults are 4.0-5.5 mm long, 2.3-2.5 times longer than wide, cylindrical, brown to dark brown, shiny and hairy.  The antennae are clavate. Both sexes have four spines at each side of the elytral declivity. The third is the largest and is capitate. The declivity surface is dull and finely punctate (Balachowsky, 1949; Grüne, 1979; Douglas et al., 2019).

Egg. The eggs are whitish-grey, ovate, less than 1 mm long. They are laid individually in niches along both sides of the maternal gallery.

Larva. The larvae and adults are similar in size. They are white, cylindrical and legless, with small, brown, chitinous heads and brown mandibles.

Pupa. The pupa has many free segments. It is white and similar in size to the adult (up to 5 mm).

Detection and inspection methods

The discoloration of attacked trees, due to the abnormal colour of the needles, is clearly visible. The bark that is broken off by woodpeckers is also a clear symptom of infestation. The frass on the bark surface and at the tree base is easy to find. When looking under the bark, the nuptial chambers, maternal galleries, larvae and pupae are easy to locate. In the advanced phase of attack, the entrance holes and galleries under the bark can be found on standing trees. Similar symptoms can also be observed on fallen trees or logs gallery (Chararas, 1962; Christiansen & Bakke, 1988; Maslov, 2010; CABI, online).  


Laboratory experiments have shown that adult Ips spp. can fly continuously for several hours. In the field, however, flight has only been observed to take place over limited distances and then usually downwind. The major part of the population, however, seems to fly within the forest (below tree tops), but nevertheless seems able to cover large areas during extended and repeated flights over several days. Roughly 10% of the population flies above the forest canopy and have the possibility of travelling considerable distances with winds sometimes over tens of kilometers (Forsse & Solbreck, 1985). Betles have been found in the stomach of trout in lakes 35 km from the nearest spruce forest, probably carried by the wind (Nilssen, 1978). Dispersal over long distances is also possible when transporting infested logs, firewood, wood chips, wood residues or bark.


Economic impact

Though I. typographus is the most damaging of all the European Ips spp. and the one which is sometimes reported to behave as a primary pest, it is nevertheless most often a secondary pest, attacking and killing trees which are already stressed for other reasons (Schwenke, 1996), or damaged by storms (Forster, 1993). It reproduces in the wood of spruce trees that have recently died, but when abundant it can colonize and kill living trees.

There are records of outbreaks dating from the fifteenth century (Germany). The losses in million cubic metres of wood that occurred during some of these outbreaks were as follows (Wellenstein, 1954; Schwerdtfeger, 1955; Worrell, 1983; Christiansen & Bakke, 1988; EFSA, 2017; CABI, online):

The losses of wood during Ips typographus outbreaks in some European countries.



Wood losses (in million cubic metres)

























Czech Republic









Outbreaks can develop very quickly in spruce stands that are damaged by wind or snow, or stressed by drought or air pollution (Grodzki et al., 2004). During such outbreaks, the population may increase sufficiently to start an epidemic. In an epidemic situation, I. typographus can overcome the resistance of healthy trees (Hedgren & Schroeder, 2004).

Since the turn of the 21st century, new outbreaks have developed in Germany, Switzerland, Austria, Slovakia, Poland, the Czech Republic, Ukraine, Lithuania (Grodzki, 2005), Georgia and Asia, including China. A recent outbreak in Central Europe has been ongoing since 2003 (Krehan & Steyrer, 2004; Lindelow & Schroeder, 2008; Lubojacký & Knízek, 2013). A significant increase in numbers of bark beetles occurred in the large area of the European Russia due to the hot and drought summer in 2010. As a result of this outbreak, the loss of spruce wood in just one Moscow region for 2010-2014 amounted to 22.2 million cubic meters.


I. typographus is the only European Ips species important enough to be subject to control in Europe. The main aim of managing I. typographus is to minimize attacks on living trees. The most effective measure is to remove infested trees from the forest before the new generation of adult beetles emerges. Sanitation felling of infested trees involves the harvesting of windthrown timber (to remove breeding substrates), as well as the sanitation felling of infested standing trees (Wermelinger, 2004). In order to prevent the further development of bark beetles (pupae or young adults inside the bark) the debarking of logs is recommended, followed by the destruction, processing or composting of the bark.

Alternatively, the infested logs may be sprayed with or immersed in water, which stops insect development and causes considerable mortality. Spraying infested logs with insecticides, such as pyrethroids.

The approach used to control I. typographus changed in the end of the 20th century with the discovery and production of an aggregation pheromone for the species. Since the 1970s, traps baited with pheromone lures have been commonly used for monitoring of I. typographus (Bakke, 1970; 1989; Bakke et al., 1977a,b; Furuta et al., 1985; Hrasovec et al., 1995; Jakuš, 1998; Maslov, 2010).

Trap trees, pheromone traps, treated trap trees, standing trap trees and lure-baited fallen wood have been frequently used to capture and reduce numbers of I. typographus (Grégoire & Evans, 2004; Zahradník & Knízek, 2007). Trap-trees (freshly-felled spruce trees) are exposed to infestation and then removed or debarked.

Phytosanitary risk

I. typographus is not included to the EPPO Lists of pests recommended for regulation as a quarantine pests but is listed by OIRSA, the EU and some non-European counties. It has been repeatedly intercepted at ports in the United States (286 interceptions out of 6,825 inspection records for 1985–2000) and in New Zealand (43 interceptions out of 722 inspection records for 1952–2000) and this is a cause for concern in these countries (Haack, 2001; Brockerhoff et al., 2003; EFSA, 2017).

In the EPPO region, I. typographus is already common throughout the natural range of its hosts and has probably reached the natural limits of its distribution. Though it can be a serious pest, in epidemic form, from time to time, especially on trees which are stressed for other reasons, this does not qualify it as a quarantine pest. It does, however, present a certain risk to the islands of Great Britain and Ireland where P. abies does not naturally occur and where other Picea species and Pinus sylvestris have been widely planted. Between 1994 and 2015, there have been 34 interceptions of I. typographus and 26 interceptions of Ips spp. in the UK and Ireland (EFSA, 2017). The main pathways of entry are wood of Abies, Larix, Pinus, Picea and Pseudotsuga from countries where the pest is present. The probability of natural spread to these islands remains low, so phytosanitary measures could be justified.


Countries in which I. typographus is absent may require phytosanitary measures to be applied to the coniferous commodities imported from the areas where this pest is present. The following phytosanitary measures recommended by the EPPO Standard PM 8/2 (3) ‘Coniferae’ are considered to be effective against bark beetles including I. typographus. Plants for planting, cut branches (including cut Christmas trees), round wood or other parts of the host plants of I. typographus originating from the countries in which I. typographus is present should originate from a pest-free area. If not, the following phytosanitary measures are required to import round wood from the area where the pest is present: wood should be bark-free or heat-treated (EPPO, 2008a), or fumigated with appropriate fumigant, or treated with ionizing radiation (EPPO 2008b). Harvesting wood residues, processing wood residues, hogwood and wood chips of the host should be produced from debarked wood or heat-treated. The heat treatment is also required for import of isolated bark. Wood packaging materials should meet requirements of ISPM no. 15 (ISPM, 2018).

REFERENCES 2020-09-01

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Annila E (1969) Influence of temperature upon the development and voltinism of Ips typographus L. (Coleoptera: Scolytidae). Annales Zoologica Fennica 6, 161-207.

Bakke A. (1970) Evidence of a population aggregating pheromone in Ips typographus (Coleoptera: Scolytidae). Contributions from Boyce Thompson Institute 24, 309–310.

Bakke A (1976) Spruce bark beetle, Ips typographus: pheromone production and field response to synthetic pheromones. Naturwissenschaften 63, 92–92.

Bakke A (1989) The recent Ips typographus outbreak in Norway - experiences from a control program. Holarctic Ecology 12, 515–519.

Bakke A, Austarå Ö & Pettersen H (1977a) Seasonal flight activity and attack pattern of Ips typographus in Norway under epidemic conditions. Meddelelser fra Det Norske Skogforsöksvesen 33, 253-268.

Bakke A, Fröyen P & Skatteböl L (1977b) Field response to a new pheromonal compound isolated from Ips typographus. Naturwissenschaften 64, 98.

Balachowsky A (1949) Coleoptera, Scolytides. Faune de France 50. P. Lechevalier, Paris, France.

Birgersson G, Schlyter F, Löfqvist J & Bergström G (1984) Quantitative variation of pheromone components in the spruce bark beetle Ips typographus from different attack phases. Journal of Chemical Ecology 10, 1029-1055.

Brockerhoff EG, Knizek M, Bain J (2003) Checklist of indigenous and adventive bark and ambrosia beetles (Curculionidae: Scolytinae and Platypodinae) of New Zealand and interceptions of exotic species (1952–2000). New Zealand Entomologist 26, 29–44.

CABI Invasive Species Compendium, online. Datasheet report for Ips typographus (eight-toothed bark beetle). Available online: https://www.cabi.org/isc/datasheet/28843 [Accessed: 17 July 2020] 

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Christiansen E (1985). Ips/Ceratocystis-infection of Norway spruce: what is a deadly dosage? 1. Zeitschrift für angewandte Entomologie 99, 6–11.

Christiansen E, Bakke A (1988) The spruce bark beetle of Eurasia. In: Dynamics of forest insect populations (Ed. by Berryman, A.),  480-503. Plenum Publishing Corporation, New York, USA.

Christiansen E, Waring, RH, Berryman AA (1987) Resistance of conifers to bark beetle attack: searching for general relationships. Forest Ecology and Management 22(1-2), 89-106.

Douglas HB, Cognato A I, Grebennikov V, Savard K (2019) Dichotomous and matrix-based keys to the Ips bark beetles of the World (Coleoptera: Curculionidae: Scolytinae). Canadian Journal of Arthropod Identification 38, 234 pp. doi: 10.3752/cjai.2019.38 http://cjai.biologicalsurvey.ca/dcgs_38/dcgs_38.html

EFSA PLH Panel (EFSA Panel on Plant Health), (2017) Jeger M, Bragard C, Caffier D, Candresse T, Chatzivassiliou E, Dehnen-Schmutz K, Gilioli G, Jaques Miret JA, MacLeod A, Navajas Navarro M, Niere B, Parnell , Potting R, Rafoss T, Rossi V, Urek G, Van Bruggen A, Van der Werf W, West J, Winter S, Kertesz V, Aukhojee M & Gregoire J-C. Scientific Opinion on the pest categorisation of Ips typographus. EFSA Journal, 15(7), 4881, 23 pp. https://efsa.onlinelibrary.wiley.com/doi/full/10.2903/j.efsa.2017.4881

EPPO (2008a) Standard PM 10/6 Heat treatment of wood to control insects and wood-borne nematodes.

EPPO (2008a) Standard PM 10/6 Heat treatment of wood to control insects and wood-borne nematodes.

EPPO (2008b) Standard PM 10/8 Disinfestation of wood with ionizing radiation.

Forster B, 1993. Development of the bark beetle situation in the Swiss storm-damage areas. (Entwicklung der Borkenkäfersituation in den Schweizer Sturmschadengebieten.) Schweizerische Zeitschrift für Forstwesen 144(10), 767-776.

Forsse E, Solbreck C (1985) Migration in the bark beetle Ips typographus L.: duration, timing and height of flight. Zeitschrift für Angewandte Entomologie 100(1), 47-57.

Furuta K, Takahashi I, Ando S, Inoue M (1985) [Reproduction and mass trapping of Ips typographus-japonicus Niijima (Coleoptera, Scolytidae) in wind damaged forest in Hokkaido]. Bulletin of the Tokyo University Forests 74, 39-65.

Grégoire JC, Evans HF (2004) Damage and control of BAWBILT organisms - an overview. Bark and wood boring insects in living trees in Europe, a synthesis [ed. by Lieutier, F. \Day, K. R. \Battisti, A. \Grégoire, J. C. \Evans, H. F.]. Dordrecht, Netherlands: Kluwer Academic Publishers, 19-37.

Grüne S (1979) Brief Illustrated Key to European Bark Beetles. M. & H Schaper, Hannover, 182 pp.

Grodzki W (2005) GIS, spatial ecology and research on forest protection. In: GIS and databases in the forest protection in Central Europe, Krakow, Poland, 35-27 November 2004 [ed. by Grodzki, W.]. Warszawa, Poland: Instytut Badawczy Lesnictwa (Forest Research Institute), 7-14.

Grodzki W, McManus M, Knízek M, Meshkova V Mihalciuc V, Novotny J, Turcani M, Slobodyan Y (2004) Occurrence of spruce bark beetles in forest stands at different levels of air pollution stress. Environmental Pollution [Effects of Air Pollution on Forest Health and Biodiversity in Forests of the Carpathian Mountains. NATO Advanced Research Workshop, Stara Lesna, Slovakia, 22-26 May 2001.] 130 (1), 73-83.

Haack RA (2001) Intercepted Scolytidae (Coleoptera) at US ports of entry: 1985-200. Integrated Pest Management Reviews 6, 253-282.

Hedgren PO, Schroeder LM (2004) Reproductive success of the spruce bark beetle Ips typographus (L.) and occurrence of associated species: a comparison between standing beetle-killed trees and cut trees. Forest Ecology and Management, 203 (1/3), 241-250. http://www.sciencedirect.com/science/journal/03781127

Hrašovec B (1995) Pheromone traps - modern biotechnical method in integrated bark beetle management. (Feromonske klopke - suvremena biotehnička metoda u integralnoj zaštiti šuma od potkornjaka.). Šumarski List 119 (1/2), 27-31.

ISPM (2018) International Standards for Phytosanitary Measures no. 15. Guidelines for Regulating Wood Packaging in International Trade. FAO, Rome (IT).

Jakuš R (1998) A method for the protection of spruce stands against Ips typographus by the use of barriers of pheromone traps in north-eastern Slovakia. Anzeiger für Schädlingskunde, Pflanzenschutz, Umweltschutz 71(8), 152-158.

Kausrud K Økland B, Skarpaas O, Gregoire JC, Erbilgin N & Stenseth NC (2011) Population dynamics in changing environments: the case of an eruptive forest pest species. Biological Reviews 87, 34–51.

Krehan H & Steyrer G (2004) Bark-beetle gradation (2003). Forstschutz Aktuell 31, 6-12.

Kirisits T (2004) Fungal associates of European bark beetles with special emphasis on the Ophiostomatoid fungi. In: Lieutier F, Day K, Battisti A, Gregoire JC, Evans H (eds.). Bark and Wood Boring Insects in Living Trees in Europe, a Synthesis. Kluwer, Dordrecht. pp. 181–235. 

Lindelow A, Schroeder ML (2008) The storm “Gudrun” and the spruce bark beetle in Sweden. Forstschutz Aktuell 44, 5–7.

Linnakoski R, Mahilainen S, Harrington A, Vanhanen H, Eriksson M, Mehtatalo L, Pappinen A &, Wingfield MJ (2016) Seasonal succession of fungi associated with Ips typographus beetles and their phoretic mites in an outbreak region of Finland. PLoS ONE 11, e0155622.

Lobinger G 1996. Variations in sex ratio during an outbreak of Ips typographus (Col., Scolytidae) in Southern Bavaria. Anzeiger für Schadlingskunde, Pflanzenschutz, Umweltschutz, Pflanzenschutz, Umweltschutz 69, 51–53. 

Lubojacký J & Knízek M (2013) Occurrence of forest pests in 2012 and forecast for 2013. [Vyskyt lesnich skodlivych cinitelu v roce 2012 a jejich ocekavany stav v roce 2013] Zpravodaj Ochrany Lesa [Forest Protection Newsletter], 19-21.

Maslov AD (2010) Koroyed-tipograf i usykhaniye yelovykh lesov  [Spruce bark beetle and the death of spruce forests] M., VNIILM, 138 PP.

Nilssen AC (1978) Development of a bark fauna in plantation of spruce (Picea abies (L.) Karst.) in North Norway. Astarte 11, 151-169.

Salle A, Monclus R, Yart A, Garcia J, Romary P & Lieutier F (2005) Fungal flora associated with Ips typographus: frequency, virulence, and ability to stimulate the host defence reaction in relation to insect population levels. Canadian Journal of Forest Research 35, 365–373.

Schwerdtfeger F (1955) [Pathogenicity of the bark beetle epidemic 1946-1950 in north-west Germany]. Schriftenreihe der Forstlichen Fakultät der Universität Göttingen 13/14, 1-135.

Solheim H (1986) Species of Ophiostomataceae isolated from Picea abies infested by the bark beetle Ips typographus. Nordic Journal of Botany 6, 199–207. 

Viiri H &, Lieutier F (2004) Ophiostomatoid fungi associated with the spruce bark beetle, Ips typographus, in three areas in France. Annals of forest science 61, 215–219.

Wellenstein G (Editor) (1954) Die grosse Borkenkäferkalamität in Südwestdeutschland 1944-1951. Forstschutzstelle Südwest, Ringingen, Germany.

Wermelinger B (2004) Ecology and management of the spruce bark beetle Ips typographus - a review of recent research. Forest Ecology and Management 202, 67–82. 

Wermelinger B & Seifert M (1999) Temperature-dependent reproduction of the spruce bark beetle Ips typographus, and analysis of the potential population growth. Ecological Entomology 24(1), 103-110.

Worrell R (1983) Damage by the spruce bark beetle in south Norway 1970-80: a survey and factors causing its occurrence. Meddelelser fra Det Norske Skogforsöksvesen 38, 1-34.

Yamaoka Y., Wingfield MJ, Takahashi I & Solheim H (1997) Ophiostomatoid fungi associated with the spruce bark beetle Ips typographus f. japonicus [sic] in Japan. Mycological Research 101, 1215–1227.

Zahradník P & Knízek M (2007) The spruce bark beetle, Ips typographus. 2nd ed. Lesnická Práce [Forestry Work] 86(4).

CABI and EFSA resources used when preparing this datasheet

CABI Datasheet on Ips typographus. https://www.cabi.org/isc/datasheet/28843

EFSA Pest survey card on Ips typographus. https://doi.org/10.2903/j.efsa.2017.488

EFSA PLH Panel (EFSA Panel on Plant Health), Jeger M, Bragard C, Caffier D, Candresse T, Chatzivassiliou E, Dehnen-Schmutz K, Gilioli G, Jaques Miret JA, MacLeod A, Navajas Navarro M, Niere B, Parnell S, Potting R, Rafoss T, Rossi V, Urek G, Van Bruggen A, Van der Werf W, West J, Winter S, Kertesz V, Aukhojee M and Gregoire J-C, 2017. Scientific Opinion on the pest categorisation of Ips typographus. EFSA Journal 2017 15(7), 4881, 23 pp. https://efsa.onlinelibrary.wiley.com/doi/full/10.2903/j.efsa.2017.4881


This datasheet was extensively revised in 2020 by Dr. O.A. Kulinich. His valuable contribution is gratefully acknowledged.

How to cite this datasheet?

EPPO (2023) Ips typographus. EPPO datasheets on pests recommended for regulation. https://gd.eppo.int (accessed 2023-05-30)

Datasheet history 2020-09-01

This datasheet was first published in 1992 in 'Quarantine Pests for Europe' and revised in 1997. It is now maintained in an electronic format in the EPPO Global Database. The sections on 'Identity', ‘Hosts’, and 'Geographical distribution' are automatically updated from the database. For other sections, the date of last revision is indicated on the right.

CABI/EPPO (1992/1997) Quarantine Pests for Europe (1st and 2nd edition). CABI, Wallingford (GB).