Whole-System Approach Managing Grazing to Restore Soil Health and Farm Livelihoods

This paper is a literature review on the ecological impacts of grazing, and finds that where managed properly (employing a “whole-systems approach” and “adaptive, goal-directed grazing methods”) livestock are essential to ecosystem service sustainability and improvement. Soil organic matter increases were sufficient to yield a net sink of 2 tons of carbon per hectare per year.

Soil Carbon Sequestration in Grazing Lands: Societal Benefits and Policy Implications

This paper from 2010 is a compilation of previous studies on grazing lands and carbon drawdown which themselves date from the 1990s. It shows that grazing lands/rangelands are major stores of terrestrial carbon, occupying approximately 3.6 billion hectares and accounting for about one-fourth of potential carbon (C) sequestration in world soils. Drawdown rates via grazing and on restored semi-arid savanna are reported to be as high as 2.75 tons per hectare per year.

GHG Mitigation Potential of Different Grazing Strategies in the United States Southern Great Plains

This paper demonstrates that enteric emissions (methane) from cows are not a climate impediment when the animals are managed in a way that builds soil, thus, capturing carbon. Specifically, using a life cycle assessment that weighs emissions against sequestration, it calculates a net drawdown of approximately 2 tons of carbon per hectare per year (0.8 tons per acre per year) after a conversion from heavy continuous to multi-paddock grazing.

Potential mitigation of midwest grass-finished beef production emissions with soil carbon sequestration in the United States of America

This partial life cycle assessment (LCA) compared two grazing management strategies: 1) a non-irrigated, lightly-stocked, high-density system (MOB) and 2) an irrigated, heavily-stocked, low-density system (IRG). Results indicated that when soil carbon sequestration (SCS) potential was included, each grazing strategy could be an overall sink, with the MOB system found to have greater SCS than the IRG system.

Impacts of soil carbon sequestration on life cycle greenhouse gas emissions in Midwestern USA beef finishing systems

This paper does a greenhouse gas life cycle analysis (LCA) comparison of two grazing finishing systems in the Upper Midwest, USA: feedlot finishing and Holistic Planned Grazing, which the authors refer to as adaptive multipaddock (AMP). It finds that AMP finishing improved soil organic carbon by 3.5 tons per hectare per year. This resulted in a net negative footprint of 6.6 kg of carbon dioxide equivalence per kg of carcass-weight.

The Potential of Restorative Grazing to Mitigate Global Warming by Increasing Carbon Capture on Grasslands

This white paper reviews the literature on soil organic carbon losses and potential gains through regenerative management. It finds that most literature is limited to areas considered in “agriculture” and that rangelands may be largely under represented both in terms of of losses and drawdown potential. It argues that with regenerative rangeland practices, such as Holistic Planned Grazing, the total capture of atmospheric carbon may be much higher than previously considered. An upward estimate of 88 to 210 gigatons (billions of tons) of carbon (88-210 GtC) representing a total drawdown of 25 to 60 tons per hectare on 3500 million hectares of grasslands worldwide is postulated as achievable through proper rangeland/grassland management.

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