Abstract
Higher degree of soil penetrometer resistance can reduce forage yields and can lead to water and soil quality degradation due to increased runoff and soil structure destruction. The inability of roots to penetrate in soils with high penetrometer resistance will result in decreased yield. With less root penetration into the soil, root mass is reduced and plant’s ability to take up nutrients is reduced. To test whether cattle congregation sites typical on most forage-based cow-calf ranches, such as mineral feeders, water troughs, and shaded areas are more compacted and have greater soil penetrometer resistance than in other pasture locations under Florida conditions, soil penetrometer resistance data around and beneath three cattle congregation sites in established (>10 yr) grazed beef cattle pastures were collected in 2004, 2005 and 2006. Penetrometer readings were collected from two soil depths (0–20 and 20–40 cm) at different locations around the cattle congregation sites following radial (every 90 degrees: north, south, east, and west direction) sampling patterns at 0.9, 1.7, 3.3, 6.7, 13.3, 26.7 and 53.3 m away from the approximate center of cattle congregation sites. Results showed that area around or near cattle congregation sites tended to have higher soil penetrometer resistance values than in other locations within pasture field because of the frequent concentration of cattle around the different cattle congregation sites. Soil penetrometer resistance decreases linearly with distance away from the center of mineral feeders and water troughs; however, soil penetrometer resistance at the shaded areas was showing slight increase with distance away from the center. The least soil penetrometer resistance in all years were observed from shaded areas (1 200 × 103 Pa) while soil penetrometer resistance at water troughs was about 1 600 × 103 Pa and at mineral feeders of 1 800 × 103 Pa. These values were in the “fair” range of root penetration. Penetrometer resistance of soils can be a good predictor of root system performance and especially useful in predicting root extension into the deeper regions of the root zone at the congregation zone and grazing zone in pasture.
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References
Andrew M.H., Lange R.T. (1986) Development of a new piosphere in arid chenopod shrubland grazed by sheep. (1) Changes to the soil surface, Aust. J. Ecol. 3, 336–339.
Bowers E.J., Hammond A.C., Chase C.C. Jr., Olson T.A. (1995) Effect of breed on indicators of heat tolerance and grazing activity in lactating Angus and Brahman cows in Florida, J. Anim. Sci. 73, 131.
Chambliss C.G. (1999) Florida Forage Handbook, Univ. Florida Coop. Ext. Serv. SP253.
Elliott ET. (1986) Aggregate structure and carbon, nitrogen and phosphorus in native and cultivated soils, Soil Sci. Soc. Am. J. 50, 627–633.
Franzluebbers A.J., Stuedemann J.A., Schomberg H.H. (2000) Spatial distribution of soil carbon and nitrogen pools under grazed tall fescue, Soil Sci. Soc. Am. J. 64, 635–639.
Ganskopp D. (2001) Manipulating cattle distribution with salt and water in large arid-land pastures: a GPS/GIS assessment, Appl. Anim. Behav. Sci. 73, 251–262.
Hammond A.C., Olson T.A. (1994) Rectal temperature and grazing time in selected beef cattle breeds under tropical summer conditions in subtropical Florida, Trop. Agr. (Trinidad) 71, 128–134.
Haynes R.J. (1981) Competitive aspects of the grass-legume association, Adv. Agron. 33, 227–261.
Haynes R.J., Williams P.H. (1993) Nutrient cycling and soil fertility in grazed pasture ecosystem, Adv. Agron. 49, 119–199.
Heathwaite A.L., Burt J.P., Troudgill S.T. (1990) Land use controls on sediment production in a lowland catchment, southwest England, in: Boardman J., Foster I.D.L., Dearing J.A. (Eds.), Soil Erosion on Agricultural Lands, J. Wiley, Chichester, pp. 69–86.
Hillel D. (1982) Fundamentals of soil physics, Academic Press, New York.
Hofmann L., Ries R.E. (1988) Vegetation and animal production from reclaimed mined land pastures, Agron. J. 80, 40–44.
Holechek J.L. (1988) An approach for setting stocking rate, Rangeland 10, 10–14.
Klemmendson J.O., Tiedemann A.R. (1995) Effects of nutrient stress, in: Bedunah D.J., Sosebee R. (Eds.), Wildland Plants: Physiological Ecology and Developmental Morphology, Society of Range Management, Denver, CO, pp. 414–439.
Martin S.C., Ward D.E. (1973) Salt and meal-salt help distribute cattle use on semi-desert range, J. Range Manage. 26, 94–97.
Mathews B.W., Tritschler J.P., Carpenter J.R., Sollenberger L.E. (1999) Soil macronutrients distribution in rotationally stocked kikuyugrass paddocks with short and long grazing periods, Commun. Soil Sci. Plant Anal. 30, 557–571.
Mathews B.W., Sollenberger L.E., Nair V.D., Staples C.R. (1994) Impact of grazing management on soil nitrogen, phosphorus, potassium, and sulfur distribution, J. Environ. Qual. 23, 1006–1013.
Nielsen G.A., Hole F.D. (1964) Earthworms and the development of coprogenous A1 horizons in forest soils of Wisconsin, Proc. Soil Sci. Soc. Am. 28, 426–430.
Orodho A.B., Trilica M.J., Bonham C.D. (1990) Long-term heavy-grazing effects on soil and vegetation in the four corners region, Southwest Nat. 35, 9–14.
Powlson D.S. (1980) The effects of grinding on microbial and non-microbial organic matter in soil, J. Soil Sci. 31, 77–85.
Reed M.J., Peterson R.A. (1961) Vegetation, soil and cattle responses to grazing on northern Great Plains range, USDA Technical Bulletin 1252, U.S. Government Printing Office, Washington DC, 79 p.
SAS Institute. (2000) SAS/STAT User’s Guide, Release 6.03, SAS Institute, Cary, North Carolina, 494 p.
Scholefield D., Hall D.M. (1985) Constricted growth of grass roots through rigid pores, Plant Soil 85, 153–162.
Scholefield D., Hall D.M. (1986) A recording penetrometer to measure the strength of soil in relation to the stresses exerted by a walking cow, J. Soil Sci. 37, 165–176.
Senft R.L., Rittenhouse L.R., Woodmanse R.G. (1985) Factors influencing patterns of cattle grazing behavior on shortgrass steppe, J. Range Manage. 38, 82–87.
Sigua G.C., Coleman S.W. (2007) Sustainable management of nutrients in forage-based pasture soils: effect of animal congregation sites, J. Soils Sediments 6, 249–253.
Thrash I. (1997) Infiltration rate of soil around drinking troughs in the Kruger National Park, South Africa, J. Arid Environ. 35, 617–625.
Thrash I., Nel P.J., Theron G.K., du Bothma J.P. (1991) The impact of water provision for game on the herbaceous vegetation basal cover around a dam in Kruger National Park, Koedoe 34, 121–130.
Warren S.D., Thurow T.L., Blackburn W.H., Garza N.E. (1986) The influence of livestock trampling under intensive rotation grazing on soil hydrologic characteristics, J. Range Manage. 39, 491–495.
White S.L., Sheffield R.E., Washburn S.P., King L.D., Green G.T. Jr. (2001) Spatial and time distribution of dairy cattle excreta in an intensive pasture system, J. Environ. Qual. 30, 2180–2187.
Williams M.J., Hammond A.C. (1999) Rotational vs. continuous intensive stocking management of bahiagrass pastures for cows and calves, Agron. J. 91, 11–16.
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Sigua, G.C., Coleman, S.W. Long-term effect of cow congregation zone on soil penetrometer resistance: implications for soils and forage quality. Agron. Sustain. Dev. 29, 517–523 (2009). https://doi.org/10.1051/agro/2009021
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DOI: https://doi.org/10.1051/agro/2009021