Page 322 - Advances In Productive, Safe, and Responsible Coal Mining
P. 322
298 Advances in Productive, Safe, and Responsible Coal Mining
Initiative (ADTI) of the U.S. Office of Surface Mining. Morgantown: National Mine
Land Reclamation Center, MVU; 1999.
[35] Sencindiver JC, Ammons JT. Minesoil genesis and classification. In: Reclamation of
Drastically Disturbed Lands. R.I. Barnhisel, W.L. Daniels, and R.G. Darmody.
Madison, Wisconsin: American Society of Agronomy; 2000. p. 595–613. Agronomy
Series No. 41.
[36] Ferraz JBS. Soil factors influencing the reforestation on mining sites in Amazonia.
In: Lieth H, Lohmann M, editors. Restoration of tropical forest ecosystems.
Dordrecht, The Netherlands: Kluwer Academic; 1993. p. 47–52.
[37] Ghose MK. Management of topsoil for geo-environmental reclamation of coal mining
areas. Environ Geol 2001;40:1405–10.
[38] Grant CD, Ward SC, Morley SC. Return of ecosystem function to restored bauxite mines
in western Australia. Restoration Ecol 2007;15:S94–S103.
[39] Koch JM. Alcoa’s mining and restoration process in south western Australia. Restoration
Ecol 2007;15:S11–6.
[40] Parrotta JA. Restoring tropical forests on lands mined for bauxite: examples from the
Brazilian Amazon. Ecol Eng 2001;17:219–39.
[41] Parrotta JA, Knowles OH. Restoration of tropical moist forests on bauxite mined lands in
the Brazilian Amazon. Restoration Ecol 1999;7:103–16.
[42] Tacey WH, Glossop BL. Assessment of topsoil handling techniques for the rehabilitation
of sites mined for bauxite within the jarrah forest of western Australia. J Appl Ecol
1980;17:195–201.
[43] Roberts JA, Daniels WL, Bell JC, Burger JA. Early stages of mine soil genesis in South-
west Virginia spoil lithosequence. Soil Sci Soc Am J 1988;52:716–23.
[44] Emerson P, Skousen J, Ziemkiewicz P. Survival and growth of hardwoods in brown ver-
sus gray sandstone on a surface mine in West Virginia. J Environ Qual 2009;38:1821–9.
[45] Daniels WL, Zipper CE. Creation and management of productive mine soils. Virginia
cooperative extension publication 460-121, Blacksburg: Virginia Tech; 1997. https://
pubs.ext.vt.edu/category/mined-land-reclamation.html.
[46] Bell LC. Establishment of native ecosystems after mining—Australian experience across
diverse biogeographic zones. Ecol Eng 2001;17:179–86.
[47] Gilland KE, McCarthy BC. Microtopography influences early successional plant com-
munities on experimental coal surface mine land reclamation. Restoration Ecol
2014;22:232–9.
[48] Dunker R, Barnhisel R. Cropland reclamation. In: Barnhisel R, Darmody R, Daniels W,
editors. Reclamation of Drastically Disturbed Lands. Madison, WI: American Society of
Agronomy; 2000. p. 323–69. Agronomy Monograph No. 41.
[49] Ditsch DC, Collins M. Reclamation considerations for pasture and hay lands receiving
66 cm or more precipitation annually, In: Reclamation of Drastically Disturbed Lands.
R. Barnhisel, R. Darmody, and W. Daniels. Madison, WI: American Society of Agron-
omy; 2000. p. 241–71. Agronomy Monograph No. 41.
[50] Reeder J, McGinnies W. Response of established forages on reclaimed mined land to
fertilizer N and P. J Range Manage 1989;42:327–32.
[51] Ries R, Nilson D. Reclamation considerations for range, pasture, and hay lands receiving
25 to 66 cm annual precipitation. In: Barnhisel R, Darmody R, Daniels W, editors. Rec-
lamation of Drastically Disturbed Lands. Madison, WI: American Society of Agronomy;
2000. p. 273–301. Agronomy Monograph No. 41.
[52] Schuman G, Taylor E, Rauzi F, Pinchak B. Revegetation of mined land: influence of top-
soil depth and mulching method. J Soil Water Conserv 1985;40:249–52.