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Norway Spruce (Picea abies (L.) H.Karst.)

  • Gunnar JanssonEmail author
  • Darius Danusevičius
  • Helmut Grotehusman
  • Jan Kowalczyk
  • Diana Krajmerova
  • Tore Skrøppa
  • Heino Wolf
Chapter
Part of the Managing Forest Ecosystems book series (MAFE, volume 25)

Abstract

Norway spruce (Picea abies (L.) Karst.) is one of the most important coniferous species in Europe both from an economic and ecological point of view. Solid wood products and pulp and paper products have the largest economic value. The patterns of variation observed in Norway spruce provenance trials show geographic variability on a large scale. Genetic variation is also present among offspring from natural populations within the same provenance region and among progenies from trees in the same population. This variation can often be larger than the variability among provenances. Tree improvement of Norway spruce started in Europe in the late 1940s. Breeding programmes were initiated in nearly all European countries but with different intensities. A common objective has been to create base material for seed procurement. Breeding objectives differ between countries, but most of them include adaptation and health, volume production and wood quality in some way. Genetic gains in volume per area unit from first round of seed orchards is around 10 % and from new seed orchards established with tested material expected to be between 20 and 25 %.

Keywords

Picea abies Norway spruce Breeding programmes Genetic variation Genetic gain Deployment 

Notes

Acknowledgments

Elodie Bay, Wladyslaw Chalupka, Josef Frydl, Ducci Fulvio, Matti Haapanen, Jon Kehlet Hansen, Berthold Heinze, Bo Karlsson, Dierk Kownatzki, Doris Krabel, Roman Longauer, Georgeta Mihai, Gheorghe Parnuta, Luc Pâques, Volker Schneck, Arne Steffenrem, Rob Sykes, David Thompson, Marin Tudoroiu and Sven de Vries are acknowledged for contributing data for the manuscript and valuable comments.

References

  1. Acheré V, Favre M, Besnard G, Jeandoz S (2005) Genomic organisation of molecular differentiation in Norway spruce (Picea abies). Mol Ecol 14:3191–3201PubMedGoogle Scholar
  2. Almqvist C (2008) Practical use of GA4/7 to stimulate flower production in Picea abies seed orchards in Sweden. In: Lindgren D (ed) Proceedings of a seed orchard conference, Umeå, 26–28 Sept 2007, pp 16–24Google Scholar
  3. Almqvist C, Wennström U, Karlsson B (2010) Improved forest regeneration material 2010–2050. Supply and needs, and measures to minimize shortage and maximize genetic gain. Skogforsk, Redogörelse Nr 3, 59p (in Swedish with English summary)Google Scholar
  4. Arnerup J, Swedjemark G, Elfstrand M, Karlsson B, Stenlid J (2010) Variation in growth of Heterobaision parviporum in a full-sib family of Picea abies. Scand J For Res 25:106–110Google Scholar
  5. Barzdajn W (2007) Vegetative propagation. In: Mark GT, Adam B, Wladyslaw B (eds) Biology and ecology of Norway spruce, vol 78, Forestry sciences. Springer, Dordrecht, pp 107–114Google Scholar
  6. Baudin A (1989) The Swedish sawnwood market. Part 1: End-use of sawn wood within sectors 1970/1988. Report no. 6. SIMS, SLU, Uppsala (in Swedish with English summary)Google Scholar
  7. Bentzer BG (1988) Rooting and early shoot characteristics of Picea abies (L.) Karst. cuttings originating from shoots with enforced vertical growth. Scand J For Res 3:481–491Google Scholar
  8. Bentzer BG (1993) Strategies for clonal forestry with Norway spruce. In: Ahuja MR, Libby WJ (eds) Clonal forestry II. Springer, Berlin/Heidelberg/Germany, pp 120–138Google Scholar
  9. Bergmann F (1974) Genetischer Abstand zwischen Populationen. II. Die Bestimmung des genetischen Abstands zwischen europäischen Fichtenpopulationen (Picea abies) auf der Basis von Isoenzym-Genhäufigkeiten. Silvae Genet 23(1–3):28–32Google Scholar
  10. Bergmann F, Gregorius HR (1979) Comparison of the genetic diversities of various populations of Norway spruce (Picea abies). In: Proceedings of the conference on biochemical genetics of forest trees, Umeå, 1979, pp 99–107Google Scholar
  11. Bergmann F, Hosius B (1996) Effect of heavy-metal polluted soils on the genetic structure of Norway spruce seedling populations. Water Air Soil Pollut 89:363–373Google Scholar
  12. Bergmann F, Scholz F (1987) The impact of air pollution on the genetic structure of Norway spruce. Silvae Genet 36(2):80–83Google Scholar
  13. Bjørnstad Å (1981) Photoperiodical after-effect of parent plant environment in Norway spruce (Picea abies (L.) Karst) seedlings. Medd Nor Inst Skogforsk 36:30Google Scholar
  14. Bleymüller H (1976) Investigations on the dependence of flowering in spruce (Picea abies (L.) Karst.) upon age and hormone treatment. Silvae Genet 25(2):83–85Google Scholar
  15. Bonnet-Masimbert M (1987) Preliminary results on gibberellin induction of flowering of seedlings and cuttings of Norway spruce indicate some carry-over effect. For Ecol Manage 19:163–171Google Scholar
  16. Breitenbach-Dorfer M (1996) Genetic analysis of spruce stands in the Limestone Alps – a pilot study. Phyton (Horn, Austria) 36:23–32Google Scholar
  17. Bucci G, Vendramin GG (2000) Delineation of genetic zones in the European Norway spruce natural range: preliminary evidence. Mol Ecol 9:923–934PubMedGoogle Scholar
  18. Burczyk J, Lewandowski A, Chalupka W (2004) Local pollen dispersal and distant gene flow in Norway spruce (Picea abies [l.] Karst.). For Ecol Manage 197(1–3):39–48Google Scholar
  19. Campbell RK, Sugano AI (1979) Genecology of bud-burst phenology in Douglas-fir. Response to flushing temperature and chilling. Bot Gaz 140:223–231Google Scholar
  20. Chalupka W (1979) Effect of growth regulators on flowering of Norway spruce (Picea abies (L.) Karst.) grafts. Silvae Genet 28(4):125–127Google Scholar
  21. Chalupka W (1981) Influence of growth regulators and polythene covers on flowering of Scots pine and Norway spruce grafts. Silvae Genet 30(4–5):142–146Google Scholar
  22. Chalupka W (1997) Carry-over effect of GA4/7 and ringing on female flowering in Norway spruce (Picea abies (L.) Karst.) seedlings. Ann For Sci 54(3):237–241Google Scholar
  23. St. Clair JB, Kleinschmit J, Svolba J (1985) Juvenility and serial vegetative propagation of Norway spruce clones (Picea abies Karst.). Silvae Genet 34(1):42–48Google Scholar
  24. Collignon AM, Van de Sype H, Favre JM (2002) Geographical variation in random amplified polymorphic DNA and quantitative traits in Norway spruce. Can J For Res 32:266–282Google Scholar
  25. Costa e Silva J, Borralho NMG, Wellendorf H (2000a) Genetic parameter estimates for diameter growth, pilodyn penetration and spiral grain in Picea abies (L.) Karst. Silvae Genet 49:29–36Google Scholar
  26. Costa e Silva J, Wellendorf H, Borralho NMG (2000b) Prediction of breeding values and expected gains in diameter growth, wood density and spiral grain from parental selections in Picea abies (L.) Karst. Silvae Genet 49:102–109Google Scholar
  27. Danell Ö (1991) Survey of past, current and future Swedish forest tree breeding. Silva Fennica 25:241–247Google Scholar
  28. Danell Ö (1993) Breeding programmes in Sweden. 1. General approach. In: Lee SJ (ed) Progeny testing and breeding strategies. Proceedings from a meeting with the Nordic group of tree breeding, Forestry Commission, Edinburgh, Oct 1993Google Scholar
  29. Danusevičius D (1999) Early genetic evaluation of tolerance to frost-related stresses in Picea abies. Doctoral thesis, Silvestria 103, Swedish University of Agricultural Sciences, Uppsala, 38p (appendix with 4 scientific papers)Google Scholar
  30. Danusevičius D, Garbrilavičius R (2002) Genetic variation in juvenile wood basic density at different stages of development in Norway spruce. Baltic Forest 8(2):23–32Google Scholar
  31. Danusevičius D, Lindgren D (2002a) Comparison of phenotypic, clonal and progeny supported selection in long-term tree breeding. Silvae Genet 51(1):19–26Google Scholar
  32. Danusevičius D, Lindgren D (2002b) Two stage selection strategies in tree breeding considering gain, diversity, time and cost. For Genet 9(2):145–157Google Scholar
  33. Dekker-Robertson DL, Kleinschmit J (1991) Serial propagation in Norway spruce (Picea abies (L.) Karst.): results from later propagation cycles. Silvae Genet 40:202–214Google Scholar
  34. Dering M, Lewandowski A (2009) Finding the meeting zone: where have the northern and southern ranges of Norway spruce overlapped? For Ecol Manage 259:229–235Google Scholar
  35. Dietrichson J (1969) The geographic variation in spring-frost resistance and growth cessation in Norway spruce (Picea abies (L.) Karst.). Medd Nor SkogforsVes 27:91–104Google Scholar
  36. Dietrichson J (1971) A summary of studies on genetic variation in forest trees grown in Scandinavia with special reference to the adaptation problem. Medd Nor SkogforsVes 29:25–99Google Scholar
  37. Dietrichson J (1973) Genetic variation among trees, stands and provenances of Norway spruce in alpine southern Norway. IUFRO meeting “Norway spruce provenances”, Biri (unpublished), 12ppGoogle Scholar
  38. Dormling I (1973) Photoperiodic control of growth and growth cessation in Norway spruce seedlings. In: Proceedings of IUFRO meeting dormancy in trees, Kórnik, 1973, pp 1–16Google Scholar
  39. Dormling I (1979) Influence of light intensity and temperature on photoperiodic response of Norway spruce provenances. In: Proceedings of IUFRO meeting of WP Norway spruce provenances (S 2.03.11) and Norway spruce breeding (S 2.02.11), Bucharest, 1979, pp 398–407Google Scholar
  40. Dormling I (1993) Bud dormancy, frost hardiness and frost drought in seedlings of Pinus sylvestris and Picea abies. In: Li PH, Christersson L (eds) Advances in cold hardiness. CRC Press, Boca Raton, pp 285–298Google Scholar
  41. Dunberg A (1980) Stimulation of flowering in Picea abies by gibberellins. Silvae Genet 29(2):51–53Google Scholar
  42. Edvardsen ØM (2010) Strategi for skogsplanteforedling 2010–2040. Skogfrøverket, HamarGoogle Scholar
  43. Ekberg I, Eriksson G, Weng X (1985) Between- and within-population variation in growth rhythm and plant height in four Picea abies populations. Stud For Suec 167:14Google Scholar
  44. Ekberg I, Eriksson G, Nilsson C (1991) Consistancy of phenology and growth of intra- and interprovenance families of Picea abies. Scand J For Res 6:323–333Google Scholar
  45. El-Kassaby YA, Askew GR (1998) Chapter 6: Seed orchards and their genetics. In: Mandal AK, Gibson GL (eds) Forest genetics and tree breeding. CBS Publishers and Distributors, Daryaganj, pp 103–111Google Scholar
  46. El-Kassaby YA, Lstiburek M (2009) Breeding without breeding. Genet Res 91(2):111–120Google Scholar
  47. Eriksson G (1982) Ecological genetics of conifers in Sweden. Silva Fennica 16:149–156Google Scholar
  48. Eriksson G (2010) Picea abies. Recent genetic research. Department of Plant Biology and Forest Genetics, Swedish University of Agricultural Sciences, Uppsala, 192p. Also available on: http://vaxt2.vbsg.slu.se/vbsg-pics/Picea-recent.pdf
  49. Giannini R, Morgante M, Vendramin GG (1991) Allozyme variation in Italian populations of Picea abies (L.) Karst. Silvae Genet 40(3–4):160–166Google Scholar
  50. Giertych M (1976) Summary results from the IUFRO 1938 Norway spruce (Picea abies (L.) Karst.) provenance experiment. Silvae Genet 5:154–164Google Scholar
  51. Giertych M (1979) Summary results of the IUFRO 1938 Norway spruce (Picea abies L. Karst.) provenance experiment. Height growth. Silvae Genet 28(4):136Google Scholar
  52. Giertych M (1984) Report on the IUFRO 1938 and 1939 provenance experiments on Norway spruce (Picea abies (L.) Karst.). Instytut Dendrologii PAN, Kórnik, 179pGoogle Scholar
  53. Giertych M (2001) The 1964/68 IUFRO inventory provenance test of Norway spruce. In: Bałut S, Sabor J (eds) Inventory provenance test of Norway spruce (Picea abies (L.) Karst.) IPTNS-IUFRO 1964/68 in Krynica. AR, Kraków, pp 7–10Google Scholar
  54. Giertych M (2007) Provenance variation and inheritance. In: Mark GT, Adam B, Wladyslaw B (eds) Biology and ecology of Norway spruce, vol 78, Forestry sciences. Springer, Dordrecht, pp 116–146Google Scholar
  55. Gömöry D (1992) Effect of stand origin on the genetic diversity of Norway spruce (Picea abies Karst.) populations. For Ecol Manage 54:215–223Google Scholar
  56. Goncharenko GG, Potenko VV (1990) Izmenchivost i diferentsiyatsiya u jeli evropejskoj Picea abies (L.) Karst. v populyatsiyach Ukrajiny, Belorusii i Latvii. [Variation and differentiation in Norway spruce (Picea abies (L.) Karst.) in Ukrainian, Byelorussian and Latvian populations]. Dokl Akad Nauk SSSR 314(2):492–497Google Scholar
  57. Goncharenko GG, Zadeika IV, Birgelis JJ (1995) Genetic structure, diversity and differentiation of Norway spruce (Picea abies (L.) Karst.) in natural populations of Latvia. For Ecol Manage 72:31–38Google Scholar
  58. Gräns D, Hannrup B, Isik F, Lundqvist S-O, McKeand S (2009) Genetic variation and relationships to growth traits for microfibril angle, wood density and modulus of elasticity in a Picea abies clonal trial in southern Sweden. Scand J For Res 24:494–503Google Scholar
  59. Gugerli F, Sperisen C, Buchler U, Magni F, Geburek T, Jeandoz S, Senn J (2001) Haplotype variation in a mitochondrial tandem repeat of Norway spruce (Picea abies) populations suggests a serious founder effect during postglacial recolonization of the western Alps. Mol Ecol 10:1255–1263PubMedGoogle Scholar
  60. Haapanen M (2009) Clones in Finnish tree breeding. In: Working papers of the Finnish Forest Research Institute 114, pp 16–19. Vegetative propagation of conifers for enhancing landscaping and tree breeding. Proceedings of the Nordic meeting held in 10th–11th Sept 2008 at Punkaharju. http://www.metla.fi/julkaisut/workingpapers/2009/mwp114.htm
  61. Hallingbäck H, Jansson G, Hannrup B (2008) Genetic parameters for grain angle in 28-year-old Norway spruce progeny trials and their parent seed orchard. Ann For Sci 65:301p1–301p8Google Scholar
  62. Hallingbäck HR, Jansson G, Hannrup B (2010) Genetic correlations between spiral grain and growth and quality traits in Picea abies. Can J For Res 40:173–183Google Scholar
  63. Hamrick JL (2004) Dynamics and conservation of genetic diversity in forest ecology. For Ecol Manage 197:323–335Google Scholar
  64. Hannerz M (1998) Genetic and seasonal variation in hardiness and growth rhythm in boreal and temperate conifers – a review and annotated bibliography. Report no. 2, Skogforsk, 140 pGoogle Scholar
  65. Hannerz M (1999) Early testing of growth rhythm in Picea abies for prediction of frost damage and growth in the field. PhD thesis, Silvestria 85, Swedish University of Agricultural Sciences, Uppsala, 45pGoogle Scholar
  66. Hannerz M, Sonesson J, Ekberg I (1999) Genetic correlations between growth and growth rhythm observed in a short-term test and performance in long-term field trials of Norway spruce. Can J For Res 29:768–778Google Scholar
  67. Hannrup B, Säll H, Jansson G (2003) Genetic parameters for spiral grain in Scots pine and Norway spruce. Silvae Genet 52(5–6):215–220Google Scholar
  68. Hannrup B, Cahalan C, Chantre G, Grabner M, Karlsson B, Le Bayon I, Jones GL, Müller U, Pereira H, Rodrigues JC, Rosner S, Rozenberg P, Wilhelmsson L, Wimmer R (2004) Genetic parameters of growth and wood quality traits in Picea abies. Scand J For Res 19:14–29Google Scholar
  69. Hansen JK, Saxe H, Ræbild A, Nielsen CN, Simonsen JP, Larsen JB, Wellendorf H (1998) Decline and physiological response to foliar-deposited salt in Norway spruce genotypes: a comparative analysis. Can J For Res 28:1879–1889Google Scholar
  70. Heuertz M, Paoli E, Källman T, Larsson H, Jurman I, Morgante M, Lascoux M, Gyllenstrand N (2006) Multilocus patterns of nucleotide diversity, linkage disequilibrium and demographic history of Norway Spruce [Picea abies (L) Karst]. Genetics 174:2095–2105PubMedGoogle Scholar
  71. Hosius B, Bergmann F (1993) Adaptation of Norway spruce to heavy metal contaminated soils. In: Rone V (ed) Norway spruce provenances and breeding: Proceedings of the IUFRO S 2.2.11 symposium Latvia 1993, Riga, pp 200–207Google Scholar
  72. Huntley B, Birks HJB (1983) An atlas to past and present pollen maps of Europe 0–13000 years ago. Cambridge University Press, CambridgeGoogle Scholar
  73. Hylen G (1997) Genetic variation of wood density and its relationship with growth traits in young Norway spruce. Silvae Genet 46(1):55–60Google Scholar
  74. Johnsen Ø, Skrøppa T, Haug G, Apeland I, Østreng G (1995) Sexual reproduction in a greenhouse and reduced autumn frost hardiness of Picea abies progenies. Tree Physiol 15:551–555PubMedGoogle Scholar
  75. Johnsen Ø, Kvaalen H, Yakovlev I, Dæhlen OG, Fossdal CG, Skrøppa T (2009) An epigenetic memory from time of embryo development affect climatic adaptation in Norway spruce. In: Gusta LV, Wisniewski ME, Tanio KK (eds) Plant cold hardiness: from laboratory to the field. CABI, Wallingford, pp 97–107Google Scholar
  76. Kang K-S (2001) Genetic gain and gene diversity of seed orchard crops. Doctoral thesis, Silvestria 187, Swedish University of Agricultural Sciences, Sweden, 75pGoogle Scholar
  77. Kannenberg N, Gross K (1999) Allozymic variation in some Norway spruce populations of the international IUFRO provenance-testing programme of 1964/1968. Silvae Genet 48(5):209–217Google Scholar
  78. Karlsson B, Högberg K-A (1998) Genotypic parameter and clone x site interaction in clone tests of Norway Spruce (Picea abies (L.) Karst.). For Genet 5(1):21–30Google Scholar
  79. Karlsson B, Rosvall O (1993) Breeding programmes in Sweden. 3. Norway spruce. In: Lee SJ (ed) Progeny testing and breeding strategies. Proceedings from a meeting with the Nordic group of tree breeding, Forestry Commission, Edinburgh, Oct 1993, pp 128–134Google Scholar
  80. Karlsson B, Rosvall O (2010) Ökad tillgång och användning av förädlade plantor. Uppdrag om förbättrat växtodlingsmaterial, Jo2008/1883 (in Swedish)Google Scholar
  81. Karlsson B, Swedjemark G (2006) Genotypic variation in natural infection frequency of Heterobsidion spp in a Picea abies clone trial in southern Sweden. Scand J For Res 21:108–114Google Scholar
  82. Karlsson B, Wellendorf H, Roulund H, Werner M (2001) Genotype  ×  trial interaction and stability across sites in 11 combined provenance and clone experiments with Picea abies in Denmark and Sweden. Can J For Res 31:1826–1836Google Scholar
  83. Kempf M, Faber A, Sabor J (2007) Isoenzymatic and DNA polymorphism in progenies of spruce stands from some Krutzsch regions of IUFRO 1964/68 provenance test in Krynica. In: Proceedings of the IUFRO conference Norway spruce in the conservation of forest ecosystems in Europe, Warszawa, 3–5 Sept 2007Google Scholar
  84. Kleinschmit J (1977) Probleme bei der vegetativen Vermehrung. Allg Forst-u J-Ztg Jg 5:81–86Google Scholar
  85. Kleinschmit J, Müller W, Schmidt J, Racz J (1973) Entwicklung der Stecklingsvermehrung von Fichte (Picea abies (L.) Karst.) zur Praxisreife. Silvae Genet 26:197–203Google Scholar
  86. Kowalczyk J (2008) Combining production of improved seeds with genetic testing in seedling seed orchards. In: Lindgren D (ed) Proceedings of a seed orchard conference, Umeå, 26–28 Sept 2007, pp 118–126Google Scholar
  87. Kowalczyk J, Markiewicz P, Matras J (2009) Intra-population variability of Picea abies from Zwierzyniec Lubelski and Blizyn (Poland). Dendrobiology 61:69–77Google Scholar
  88. Krutzsch P (1973) Norway spruce development of buds. Internal report IUFRO S2.02.11.4, IUFRO, ViennaGoogle Scholar
  89. Krutzsch P (1974) The IUFRO 1964/68 provenance test with Norway spruce (Picea abies (L.) Karst.). Silvae Genet 23:1–3Google Scholar
  90. Krutzsch P (1986) An investigation on bud set in Norway spruce (Picea abies). Report no. 6, Department of Forest Genetics and Plant Physiology, Swedish University of Agriculture Sciences, pp 21–32Google Scholar
  91. Krutzsch P (1992) IUFRO’s role in coniferous tree improvement. Norway spruce (Picea abies (L.) Karst.). Silvae Genet 41(3):143Google Scholar
  92. Kvaalen H, Johnsen Ø (2008) Timing of bud set in Norway spruce is regulated by a memory of temperature during zygotic and somatic embryogenesis. New Phytol 177:49–59PubMedGoogle Scholar
  93. Lagercrantz U, Ryman N (1990) Genetic structure of Norway spruce (Picea abies): concordance of morphological and allozymic variation. Evolution 44(1):38–53Google Scholar
  94. Larsen AB, Wellendorf H, Roulund H (1997) Realized correlated response at late stage from upward, downward, and stabilizing selection at nursery stage in Picea abies. For Genet 4:189–199Google Scholar
  95. Leinonen I (1996) Dependence of dormancy release on temperature in different origins of Pinus sylvestris and Betula pendula seedlings. Scand J For Res 11:122–128Google Scholar
  96. Lewandowski A, Burczyk J (2002) Allozyme variation of Picea abies in Poland. Scand J For Res 17:487–494Google Scholar
  97. Lindgren D (2009) A way to utilise the advantages of clonal forestry for Norway spruce? In: Working papers of the Finnish Forest Research Institute 114, pp 8–15. Vegetative propagation of conifers for enhancing landscaping and tree breeding. Proceedings of the Nordic meeting held in 10th–11th Sept 2008 at Punkaharju. http://www.metla.fi/julkaisut/workingpapers/2009/mwp114.htm
  98. Lindgren D, Matheson AC (1986) An algorithm for increasing the genetic quality of seed from seed orchards by using the better clones in higher proportions. Silvae Genet 35(5–6):173–177Google Scholar
  99. Lindgren D, Karlsson B, Andersson B, Prescher F (2008) Swedish seed orchards for Scots pine and Norway spruce. In: Lindgren D (ed) Proceedings of a seed orchard conference, Umeå, 26–28 Sept 2007, pp 134–147Google Scholar
  100. Litkowiec M, Dering M, Lewandowski A (2009) Utility of two mitochondrial markers for identification of Picea abies refugial origin. Dendrobiology 61:65–71Google Scholar
  101. Lundkvist K (1979) Allozyme frequency distributions in four Swedish populations of Norway Spruce (Picea abies K.). Hereditas 90:127–143Google Scholar
  102. Lundkvist K, Rudin D (1977) Genetic variation in eleven populations of Picea abies as determined by isozyme analysis. Hereditas 85:67–74Google Scholar
  103. Luukkanen O (1980) Flower induction by exogenous plant hormones in Scots pine and Norway spruce grafts. Silva Fennica 14(2):95–105Google Scholar
  104. Maghuly F, Pinsker W, Praznik W, Fluch S (2007) Differentiation among Austrian populations of Norway spruce (Picea abies (L.) Karst.) assayed by mitochondrial DNA markers. Tree Genet Genomes 3:199–206Google Scholar
  105. Matras J (2009) Growth and development of Polish provenances of Picea abies in the IUFRO 1972 experiment. Dendrobiology 61:145–158Google Scholar
  106. Mejnartowicz L, Lewandowski A (2007) Biochemical genetics. In: Mark GT, Adam B, Wladyslaw B (eds) Biology and ecology of Norway spruce, vol 78, Forestry sciences. Springer, Dordrecht, pp 147–155Google Scholar
  107. Mihai G (ed) (2009) Tested seed sources for the main forest species in Romania. Editura Silvică, Bucureşti, 281 pGoogle Scholar
  108. Modrzyński J, Prus-Glowacki W (1998) Isoenzymatic variability in some of the Polish populations of Norway spruce (Picea abies) in the IUFRO-1972 provenance trial. Acta Soc Bot Polon 67:75–82Google Scholar
  109. Moren AS, Perttu KL (1994) Regional temperature and radiation indices and their adjustment to horizontal and inlined forest land. Stud For Suec 194:1–19Google Scholar
  110. Müller-Starck G (1995) Genetic variation under extreme environmental conditions. In: Baradat P, Adams WT, Müller-Starck G (eds) Population genetics and genetic conservation of forest trees. SPB Academic Publishing, Amsterdam, pp 201–210Google Scholar
  111. Nieman TC, Boyle TJB (1989) Estimate of genetic parameters for Norway spruce population after intensive mass selection. In: Stener L-G, Werner M (eds) Norway spruce; provenances, breeding and genetic conservation. Proceedings from IUFRO working party meeting S2.02.11 in Sweden 1988. The Institute for forest tree improvement, Report no. 11, pp 124–141Google Scholar
  112. Nikkanen T (2002) Functioning of a Norway spruce (Picea abies (L.) Karst.) seed orchard. Research papers 850, Finnish Forest Research Institute, Vantaa, 58p  +  6 appendicesGoogle Scholar
  113. Nikkanen T (2008) A review of Scots pine and Norway spruce seed orchards in Finland. In: Lindgren D (ed) Proceedings of a seed orchard conference, Umeå, 26–28 Sept 2007, pp 164–167Google Scholar
  114. Oleksyn J, Modrzyński J, Tjoelker M, Żytkowiak R, Reich PB, Karolewski P (1998) Growth and physiology of Picea abies populations from a broad elevational transect: common garden evidence for altitudinal ecotypes and cold adaptation. Funct Ecol 12:573–590Google Scholar
  115. Owens JN, Johnsen Ø, Dæhlen OG, Skrøppa T (2001) Potential effects of temperature on early reproductive development and progeny performance in Picea abies (L.) Karst. Scand J For Res 16:221–237Google Scholar
  116. Pakkanen A, Nikkanen T, Pulkkinen P (2000) Annual variation in pollen contamination and outcrossing in a Picea abies seed orchard. Scand J For Res 15(4):399–404Google Scholar
  117. Pârnuţă G (1991) Selecţia ideotipurilor de molid cu coroană îngustă şi rezistente la rupturi de zăpadă. Revista pădurilor 3:123–128 (Selection of narrow-crowned spruce ideotypes resistant to snow throws. Romanian For J)Google Scholar
  118. Pârnuţă G (2008) Variabilitatea genetica şi ameliorarea arborilor de molid cu coroană îngustă in România (Genetic variability and improvement of narrow-crowned Norway spruce trees in Romania). Seria a II-a Lucrări de Cercetare. Editura Silvică, Bucureşti, 181pGoogle Scholar
  119. Pârnuţă G, Lorenţ A (2007) Stabilirea şi delimitarea noilor regiuni de provenienţă pentru materialele forestiere de reproducere din România (Establishment and delineation of the new regions of provenances for forest reproductive materials in Romania). In: Proceedings of the biennial international symposium: forest and sustainable development, Braşov, 27–28 Oct 2006. Editura Universităţii Transilvania, Braşov, pp 85–100Google Scholar
  120. Paule L, Gömöry D (1993) Genetic structure of Norway spruce (Picea abies Karst.) populations from mountaineous areas in Slovakia. Lesnictví – Forestry 39(1):10–13Google Scholar
  121. Paule L, Szmidt AE, Yazdani R (1990) Isozyme polymorphism of Norway spruce (Picea abies Karst.) in Slovakia. I. Genetic structure of adjacent populations. Acta Facultatis Forestalis Zvolen 32:57–70Google Scholar
  122. Paule L, Lindgren D, Yazdani R (1993) Allozyme frequencies, outcrossing rate and pollen contamination in Picea abies seed orchards. Scand J For Res 8:8–17Google Scholar
  123. Persson A, Persson B (1992) Survival, growth and quality of Norway spruce (Picea abies (L.) Karst.) provenances at the three Swedish sites of the IUFRO 1964/68 provenance experiment. Report no. 29, Department of Forest Yield Research, Swedish University of Agriculture Sciences, Uppsala, 67pGoogle Scholar
  124. Pollard DFW, Logan KT (1974) The role of free growth in the differentiation of provenances of black spruce Picea mariana (Mill.) B.S.P. Can J For Res 4:308–311Google Scholar
  125. Prescher F (2007) Seed orchards – genetic considerations on function, management and seed procurement. Doctoral thesis, No. 207:75, Swedish University of Agricultural Sciences, Umeå, 2007, 49pGoogle Scholar
  126. Prescher F, Lindgren D, Karlsson B (2008) Genetic thinning of clonal seed orchards using linear deployment may improve both gain and diversity. For Ecol Manage 254:188–192Google Scholar
  127. Prus-Glowacki W, Godzik S (1995) Genetic structure of Picea abies trees tolerant and sensitive to industrial pollution. Silvae Genet 44:2–3Google Scholar
  128. Qamaruddin M, Dormling I, Ekberg I, Eriksson G, Tillberg E (1993) Abscisic acid at defined levels of bud dormancy and frost tolerance in two contrasting populations of Picea abies grown in a phytotron. Physiol Plant 87:203–210Google Scholar
  129. Ravensbeck L (1991) Aktuelle nåletab i proviniensforsøg med rødgran (in Danish). Skoven 8:279–282Google Scholar
  130. Rosvall O (ed) (2011) Review of the Swedish tree breeding program. Skogforsk, Uppsala, 84p. ISBN 978-91-977649-6-4Google Scholar
  131. Rosvall O, Ståhl P (2008) New Swedish seed orchard program. In: Lindgren D (ed) Proceedings of a seed orchard conference, Umeå, 26–28 Sept 2007, pp 185–186Google Scholar
  132. Rosvall O, Lindgren D, Mullin TJ (1998) Sustainability, robustness and efficiency of a multi-generation breeding strategy based on within-family clonal selection. Silvae Genet 47(4–5):307–320Google Scholar
  133. Rosvall O, Jansson G, Andersson B, Ericsson T, Karlsson B, Sonesson J, Stener L-G (2001) Genetiska vinster i nuvarande och framtida fröplantager och klonblandningar. Redogörelse nr 1, SkogforskGoogle Scholar
  134. Roulund H (1975) The effect of the cyclophysis and the topophysis on the rooting ability and behaviour of Norway spruce cuttings. Acta Horticulturae 54:39–50Google Scholar
  135. Rozenberg P, Cahalan C (1997) Spruce and wood quality: genetic aspects (a review). Silvae Genet 46:270–279Google Scholar
  136. Ruden T (1963) Results from an 11-year old progeny test with Picea abies (L.) Karst. in south eastern Norway. In: Proceedings of FAO/FORGEN World Consultation on Forest Genetics and Tree Improvement, Sweden, 1963, pp 1–7Google Scholar
  137. Scheepers D, Eloy MC, Briquet M (1997) Use of RAPD patterns for clone verification and in studying provenance relationships in Norway spruce (Picea abies). Theor Appl Genet 94:480–485Google Scholar
  138. Scholz F, Bergmann F (1984) Selection pressure by air pollution as studied by isozyme - gene - systems in Norway spruce exposed to sulphur dioxide. Silvae Genet 33(6):238–240Google Scholar
  139. Scotti I, Vendramin GG, Matteotti LS, Scarponi C, Sari-Gorla M, Binelli G (2000) Postglacial recolonization routes for Picea abies K. in Italy as suggested by the analysis of sequence-characterized amplified region (SCAR) markers. Mol Ecol 6:699–708Google Scholar
  140. Scotti I, Gugerli F, Pastorelli R, Sebastiani F, Vendramin GG (2008) Maternally and paternally inherited molecular markers elucidate population patterns and inferred dispersal processes on a small scale within a subalpine stand of Norway spruce (Picea abies (L.) Karst.). For Ecol Manage 255:3806–3812Google Scholar
  141. Skrøppa T (1982) Genetic variation in growth rhythm characteristic within and between natural populations of Norway spruce. A preliminary report. Silva Fennica 16:160–167Google Scholar
  142. Skrøppa T (1991) Within-population variation in autumn frost hardiness and its relationships to bud-set and height growth in Picea abies. Scand J For Res 6:353–363Google Scholar
  143. Skrøppa T (1993) Variation and inheritance in diallel crosses within natural populations of Norway spruce. In: Rhone V (ed) Norway spruce provenances and breeding. Proceedings of the IUFRO S2.2-11 symposium, Latvia, 1993, 240pGoogle Scholar
  144. Skrøppa T (1994) Impact of tree improvement on genetic structure and diversity of planted forests. Silvae Fennica 28(4):265–274Google Scholar
  145. Skrøppa T, Kohmann K, Johnsen Ø, Steffenrem A, Edvardsen ØM (2007) Field performance and early test results of offspring from two Norway spruce seed orchards containing clones transferred to warmer climates. Can J For Res 37:515–522Google Scholar
  146. Skrøppa T, Tollefsrud MM, Sperisen C, Johnsen Ø (2009) Rapid change in adaptive performance from one generation to the next in Picea abies – Central European trees in a Nordic environment. Tree Genet Genomes 6:93–99Google Scholar
  147. Şofletea N, Curtu N, Teodosiu M (2010) Evaluarea diversităţii genetice interpopulaţionale cu ajutorul markerilor genetici (Evaluation of interpopulation genetic diversity by the means of genetic markers). In: Mihai G (ed) Surse de seminţe testate pentru principalele specii de arbori forestieri din România (Tested seed sources for the main forest species in Romania), Editura Silvică, Bucureşti, pp 107–201Google Scholar
  148. Sperisen C, Büchler U, Gugerli F, Mátyás G, Geburek T, Vendramin GG (2001) Tandem repeats in plant mitochondrial genomes: application to the analysis of population differentiation in the conifer Norway spruce. Mol Ecol 10:257–263PubMedGoogle Scholar
  149. Steffenrem A (2008) Genetic variation in structural wood quality traits in Norway spruce and implications for tree breeding. Norwegian University of Life Sciences, Ås, pp 50Google Scholar
  150. Steffenrem A, Kvaalen H, Høibø OA, Edvardsen ØM, Skrøppa T (2009) Genetic variation of wood quality traits and relationships with growth in Picea abies. Scand J For Res 24(1):15–27Google Scholar
  151. Swedjemark G, Karlsson B (2004) Genotypic variation in susceptibility following artificial Heterobasidion annosum inoculation of Picea abies clones in a 17-year-old field test. Scand J For Res 19:103–111Google Scholar
  152. Swedjemark G, Stenlid J, Karlsson B (1997) Genetic variation among clones of Picea abies in resistance to growth of Heterobasidion annosum. Silvae Genet 46:369–374Google Scholar
  153. Thomas BR, Lester DT (1992) An examination of regional, provenance and family variation in frost hardiness of Pinus monticola. Can J For Res 22:1917–1921Google Scholar
  154. Tollefsrud MM, Kissling R, Gugerli F, Johnsen Ø, Skrøppa T, Cheddedi R, Van der Knaap WO, Latałowa M, Terhürne-Berson R, Litt T, Geburek T, Brochman C, Sperisen C (2008) Genetic consequences of glacial survival and postglacial colonization in Norway spruce: combined analysis of mitochondrial DNA and fossil pollen. Mol Ecol 17:4134–4150PubMedGoogle Scholar
  155. Tollefsrud MM, Sønstebø JH, Brochmann C, Johnsen Ø, Skrøppa T, Vendramin GG (2009) Combined analysis of nuclear and mitochondrial markers provide new insight into the genetic structure of North European Picea abies. Heredity 102:549–562PubMedGoogle Scholar
  156. Tzschacksch O (1983) Immissionsresistente Fichten-Herkunftssorte – Immissionsresistente Fichten-Mehrklonsorte. Report of the Institute for Forestry, Eberswalde (not published)Google Scholar
  157. Ununger J, Ekberg I, Kang H (1988) Genetic control and age related changes of juvenile growth characteristics in Picea abies. Scand J For Res 3:55–56Google Scholar
  158. Vendramin GG, Anzidei M, Madaghiele A, Sperisen C, Bucci G (2000) Chloroplast microsatellite analysis reveals the presence of population subdivision in Norway spruce (Picea abies (K.)). Genome 43(1):68–78PubMedGoogle Scholar
  159. Wang X-R, Chhatre VE, Nilsson M-C, Song W, Zackrisson O, Szmidt A (2003) Island population structure of Norway spruce (Picea abies) in Northern Sweden. Int J Plant Sci 164(5):711–717Google Scholar
  160. Wellendorf H (1988) A Danish Norway spruce breeding plan from 1972 – a retrospective review 15 years later. IUFRO conference. Meeting of the Working Party S.2.02-11 Norway spruce provenances, breeding and genetic conservation, Tjörnarp, 1988, pp 279–316Google Scholar
  161. Wellendorf H, Skov E, Kjaer ED (1994) Suggested updating of improvement strategy for Danish-grown Norway spruce. Forest Tree Improvement, Arboretet, Hørsholm 25:1–12Google Scholar
  162. Wolf H (2001) Effects of extreme SO2-air pollution in winter 1995/96 on vitality and growth of SO2-tolerant Norway spruce (Picea abies [L.] KARST.) clones in the Ore mountains. In: Müller-Starck G, Schubert R (eds) Genetic response of forest systems to changing environmental conditions, vol 70, Forestry sciences, pp 35–49Google Scholar

Copyright information

© Springer Science+Business Media Dordrecht 2013

Authors and Affiliations

  • Gunnar Jansson
    • 1
    Email author
  • Darius Danusevičius
    • 2
  • Helmut Grotehusman
    • 3
  • Jan Kowalczyk
    • 4
  • Diana Krajmerova
    • 5
  • Tore Skrøppa
    • 6
  • Heino Wolf
    • 7
  1. 1.Skogforsk (The Forestry Research Institute of Sweden)UppsalaSweden
  2. 2.Faculty of ForestryLithuanian University of AgricultureAkademija, Kaunas reg.Lithuania
  3. 3.Abteilung WaldgenressourcenNordwestdeutsche Forstliche VersuchsanstaltHann. MündenGermany
  4. 4.Department of Silviculture and Forest Tree GeneticsForest Research InstituteSekocin Stary, RaszynPoland
  5. 5.Katedra fytológie, Lesnícka fakultaTechnická univerzita vo ZvoleneZvolenSlovakia
  6. 6.Department of Forest Biology and EnvironmentNorwegian Forest and Landscape InstituteÅsNorway
  7. 7.Referat Forstgenetik/Forstpflanzenzüchtung, Kompetenzzentrum Wald und Forstwirtschaft, Staatsbetrieb SachsenforstPirnaGermany

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