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Trees III pp 408-422 | Cite as

Engelmann Spruce

(Picea engelmannii Parry ex. Engelm.)
  • I. S. Harry
  • T. A. Thorpe
Part of the Biotechnology in Agriculture and Forestry book series (AGRICULTURE, volume 16)

Abstract

Engelmann spruce (Picea engelmannii Parry ex. Engelm.) is also known as Columbian spruce, mountain spruce, silver spruce, and white spruce (Fowells 1965). This species is named after George Engelmann, a German-American physician (1809–84), and it is one of about 50 species of spruces found in the northern hemisphere, seven of which are indigenous to North America. They are valued for their strong, light-weight, light-colored, fine-grained, even-textured, and longfibered wood (Alexander 1974). Engelmann spruce is an extremely important timber-producing species in western Canada and the United States of America. In some states like Colorado and Wyoming, Engelmann spruce-subalpine fir forests are the largest and most valuable timber resource (Alexander 1974), but in areas of the high Rockies, these forests are valued as watershed protectors and as wildlife habitats, since they occupy one of the highest and coldest forest environments in the western United States and Canada (Alexander 1986a).

Keywords

Somatic Embryo Bark Beetle Indole Butyric Acid Organogenic Callus Nursery Seedling 
These keywords were added by machine and not by the authors. This process is experimental and the keywords may be updated as the learning algorithm improves.

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References

  1. Alexander RR (1974) Silviculture of central and southern Rocky Mountain forests: a summary of the status of our knowledge by timber types. USDA For Serv, Rocky Mtn For and Range Exp Stn, Fort Collins, Res Pap RM 120Google Scholar
  2. Alexander RR (1984) Natural regeneration of Engelmann spruce after clearcutting in the central Rocky Mountains in relation to environmental factors. USDA For Serv, Rocky Mtn For and Range Exp Stn, Fort Collins, Col RM-254Google Scholar
  3. Alexander RR (1986a) Silvicultural systems and cutting methods for old-growth spruce-fir forests in the central and southern Rocky Mountains. USDA For Serv, Gen Tech Rep RM-126Google Scholar
  4. Alexander RR (1986b) Engelmann spruce seed production and dispersal and seedling establishment in the Central Rocky Mountains. USDA For Serv, Rocky Mtn For and Range Exp Stn, Fort Collins, Pap RM-134Google Scholar
  5. Alexander RR (1986c) Natural regeneration of Engelmann spruce after clearcutting in the central Rocky Mountains in relation to environmental factors. USDA For Sery Res, Rocky Mtn For and Range Exp Stn, Fort Collins, Res Pap RM-254Google Scholar
  6. Alexander RR, Noble DL (1976) Production of Engelmann spruce seed, Fraser Experimental Forest, Colorado: a 5-year progress report. USDA For Serv, Rocky Mtn For and Range Exp Stn, Fort Collins, Note RM-324Google Scholar
  7. Alexander RR, Shepperd WD (1984) Silvical characteristics of Engelmann spruce. USDA For Serv, Rocky Mtn For and Range Exp Stn Fort Collins, Tech Rep RM-114Google Scholar
  8. Arnold S von, Eriksson T (1981) In vitro studies of adventitious shoot formation in Pinus contorta. Can J Bot 59: 970–874Google Scholar
  9. Arnott JT (1974) Growth response of white-Engelmann spruce provenances to extended photoperiod using continuous and intermittent light. Can J For Res 4: 69–75CrossRefGoogle Scholar
  10. Arnott JT, Macey DE (1985) Effect of supplemental light intensity on white spruce, Engelmann spruce, and mountain hemlock seedlings grown under an extended photoperiod. Can J For Res 15: 295–300Google Scholar
  11. Bornman CH (1983) Possibilities and constraints in the regeneration of trees from cotyledonary needles of Picea ables in vitro. Physiol Plant 57: 5–16CrossRefGoogle Scholar
  12. Buongiorno J, Chavas J, Uusivuori J (1988) Exchange rates, Canadian lumber imports, and the United States prices: a time-series analysis. Can J For Res 18: 1587–1594CrossRefGoogle Scholar
  13. Duryea ML, Landis TD (eds) (1984) Forest nursery manual: production of bareroot seedlings. Nijhoff, The HagueGoogle Scholar
  14. Ernst SG, Keathley DE, Hanover JW (1987) Inheritance of isozymes in seed and bud tissues of blue and Engelmann spruce. Genome 29: 239–246CrossRefGoogle Scholar
  15. Fowells WA (1965) Silvics of forest trees of the United States. USDA, Agric Handbook 271Google Scholar
  16. Fowler DP, Roche L (1977) Genetics of Engelmann spruce. USDA For Sery Res Pap WO-30Google Scholar
  17. Gladfelter HJ, Phillips GC (1987) De novo shoot organogenesis of Pinus elderica Medw. in vitro. I. Reproducible regeneration from long-term callus cultures. Plant Cell Rep 6: 163–166Google Scholar
  18. Habeck JR, Weaver TW (1969) A chemosystematic analysis of some hybrid spruce (Picea) populations in Montana. Can J Bot 47: 1565–1570CrossRefGoogle Scholar
  19. Harvey AE, Grasham JL (1969) Procedures and media for obtaining tissue cultures of 12 conifer species. Can J Bot 47: 547–549CrossRefGoogle Scholar
  20. Hines FD, Long JN (1986) First and second-year survival of containerized Engelmann spruce in relation to initial seedling size. Can J For Res 16: 668–670Google Scholar
  21. Kiss G (1971) Improvement of white and Engelmann spruce complexes of British Columbia. In: Proc 13th Meet Comm For Tree Breed Can, Prince George, British Columbia, August 1971, pp 113–114Google Scholar
  22. Kiss G, Yeh FC (1988) Heritability estimates for height for young interior spruce in British Columbia. Can J For Res 18: 158–162CrossRefGoogle Scholar
  23. Krüssmann G (1985) Manual of cultivated conifers. Timber Press, Portland, ORGoogle Scholar
  24. Little EL (1971) Atlas of United States trees, vol 1. Conifers and important hardwoods. USDA Misc Publ 1146Google Scholar
  25. Little EL (1979) Checklist of the United States trees (native and naturalized). USDA Handbook 541Google Scholar
  26. Litvay JD, Johnson MA, Verma D, Einspahr D, Weyrauch K (1981) Conifer suspension culture medium development using analytical data from developing seeds. Inst Pap Chem Tech Pap Ser 15, pp 1–17Google Scholar
  27. Lu CY, Thorpe TA (1988) Shoot-bud regeneration in subcultured callus of Engelmann spruce. In Vitro Cell Dev Biol 24: 239–242Google Scholar
  28. Markstrom DC, Alexander RR (1984) Engelmann spruce: an American wood. USDA For Sery FS-264Google Scholar
  29. Milton JB, Andalora R (1981) Genetic and morphological relationships between blue spruce, Picea pungens, and Engelmann spruce, Picea engelmannii, in the Colorado Front Range. Can J Bot 59: 2088–2094CrossRefGoogle Scholar
  30. Owens JN, Simpson SJ (1988) Bud and shoot development in Picea engelmannii in response to cone induction treatments. Can J For Res 18: 231–241CrossRefGoogle Scholar
  31. Owens JN, Simpson SJ, Caron GE (1987) The pollination mechanism of Engelmann spruce, Picea engelmannii. Can J Bot 65: 1439–1450CrossRefGoogle Scholar
  32. Patel KR, Thorpe TA (1986) In vitro regeneration of plantlets from embryonic and seedling expiants of Engelmann spruce (Picea engelmannii) Parry. Tree Physiol 1: 289–301PubMedCrossRefGoogle Scholar
  33. Ross SD (1985) Promotion of flowering in potted Picea engelmannii (Parry) grafts: effects of heat, drought, gibberellin A41, and their timing. Can J For Res 15: 618–624CrossRefGoogle Scholar
  34. Ross SD (1988) Pre-and post-pollination polyhouse environment effects on pollen and seed development in potted Picea engelmannii grafts. Can J For Res 18: 623–627CrossRefGoogle Scholar
  35. Rumary C, Thorpe TA (1984) Plantlet formation in black and white spruce. I. In vitro techniques. Can J For Res 14: 10–16Google Scholar
  36. Ruth DS, Miller GE, Sutherland JR (1982) A guide to the common insect pests and diseases in spruce seed orchards in British Columbia. Can For Sery Publ BC-X-231Google Scholar
  37. Schaefer PR, Hanover JW (1986) Taxonomic implications of monoterpene compounds of blue and Engelmann spruces. For Sci 32: 725–734Google Scholar
  38. Schenk RU, Hildebrandt AC (1972) Medium for induction and growth of monocotyledonous and dicotyledonous plant cell cultures. Can J Bot 50: 199–204CrossRefGoogle Scholar
  39. Takahashi O, Saho H (1985) Notes on the Japanese rust fungi IX. Dissemination of Chrysomyxa abietis ( Wallroth) Unger. Trans Mycol Soc Jpn 26: 433–439Google Scholar
  40. Tanaka Y, Kleyn NJ, Harper LM (1986) Seed stratification of Engelmann spruce and lodgepole pine:Google Scholar
  41. The effect of stratification duration and timing of surface-drying. For Chron 62:147–151Google Scholar
  42. Thorpe TA, Hasnain S (1988) Micropropagation of conifers: methods, opportunities and costs. In: Morgenstern EK, Boyle JB (eds) Tree improvement — progressing together. Proc 21st Meet Can Tree Improv Assoc, Truro NS 1987, Can For Serv, Chalk River, pp 68–84Google Scholar
  43. Wenger KF (1984) Forestry handbook. John Wiley & Sons, New YorkGoogle Scholar

Copyright information

© Springer-Verlag Berlin Heidelberg 1991

Authors and Affiliations

  • I. S. Harry
  • T. A. Thorpe
    • 1
  1. 1.Plant Physiology Research Group, Department of Biological SciencesUniversity of CalgaryCalgaryCanada

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