Using the SMART-Farm Tool to identify linchpin farming practices for the improvement of the atmosphere-related sustainability performance of the Luxembourgish agriculture sector

  • 0Institute for Organic Agriculture and Agroecology Luxembourg a.s.b.l. (IBLA), 1, Wantergaass, Medernach, L-7664, Luxembourg; Institute of Business Administration for the Agricultural and Food Sector, Justus-Liebig University Gießen (JLU), Senckenbergstraße 3, Gießen, D-35390, Germany.

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Summary

This summary is machine-generated.

Organic farms show superior atmospheric sustainability compared to conventional farms. Key improvements include feed self-sufficiency and nutrient cycling, crucial for reducing agricultural emissions in Luxembourg.

Area Of Science

  • Agricultural Science
  • Environmental Science
  • Sustainability Studies

Background

  • Agriculture significantly contributes to environmental emissions, including greenhouse gases (GHG) and air pollutants.
  • Livestock-intensive nations like Luxembourg face particular challenges with agricultural emissions.
  • Organic agriculture is recognized as a potentially more sustainable farming system.

Purpose Of The Study

  • To assess and compare the atmosphere-related sustainability performance of organic and conventional farms in Luxembourg.
  • To identify key practices influencing atmospheric sustainability in agriculture.
  • To inform policy for enhancing the agricultural sector's environmental performance.

Main Methods

  • Utilized the Sustainability Monitoring and Assessment RouTine (SMART)-Farm Tool, based on FAO's SAFA Guidelines.
  • Assessed 87 farms in Luxembourg, comprising 58 conventional and 29 organic farms.
  • Analyzed performance across the Atmosphere theme and its sub-themes: Air Quality and Greenhouse Gases.

Main Results

  • Organic farms achieved significantly higher sustainability scores in the Atmosphere theme (63.8%) compared to conventional farms (56.6%).
  • Organic farms also outperformed conventional farms in Air Quality (69.3% vs. 59.1%) and Greenhouse Gases (57.7% vs. 53.5%) sub-themes.
  • Key drivers for improved performance included increased concentrated feed autarky and enhanced nutrient cycle closure (e.g., legumes, green cover, lower nitrogen input).

Conclusions

  • Organic management practices lead to better atmospheric sustainability outcomes in agriculture.
  • Practices like feed self-sufficiency and nutrient cycling are critical for reducing agricultural environmental impact.
  • System-independent practices such as reduced tillage and cover cropping offer broader optimization potential for all farms.

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