<?xml version="1.0" encoding="UTF-8"?><article>
  <title>Factors affecting the performance of cutting mechanism for agricultural crops-A review</title>

      <doi>https://doi.org/10.21276/AATCCReview.2025.13.02.85</doi>
  
  <authors>
      </authors>

      <abstract><![CDATA[<p>The process of cutting agricultural materials stands as one of the pivotal operations,<br />
primarily employed in harvesting and threshing to achieve the necessary separation and<br />
subsequent fragmentation of plant components. Essential fodder preparation tasks such as<br />
straw chopping, baling, and mulching also heavily rely on cutting processes, demanding a<br />
substantial amount of energy. This article provides a comprehensive overview of research<br />
factors, operational parameters and crop properties that influence the performance of<br />
cutting mechanisms for agricultural crops, offering valuable insights to design engineers<br />
for crafting suitable incentives to adapt to crop variations.The velocity of cutting and the<br />
configuration of blades emerge as critical factors in crop harvesting. The proportion of<br />
energy consumption during crop harvesting and threshing ranges from 7.9 to 35.9 percent<br />
of the total operational energy expended. Cutting velocity and blade angles directly<br />
impact the power demands and efficiency of harvesting machinery. Optimizing these<br />
parameters can lead to energy savings during cutting while simultaneously enhancing<br />
cutting quality.Furthermore, energy consumption during cutting is closely linked to<br />
bending forces. Sharpness and blade material composition significantly influence wear<br />
resistance and durability, making it imperative to select appropriate materials that can<br />
sustain prolonged use in varying crop conditions. High power requirements are observed<br />
with blunt blades, resulting in inefficient cutting. Hence, this paper is expected to<br />
significantly aid design engineers, researchers, and other stakeholders in developing<br />
efficient cutting mechanisms for new machinery and tailoring cutting mechanisms to suit<br />
new species and varieties. It is anticipated that the findings of this study will contribute to<br />
the modification of existing harvesters as well.</p>
]]></abstract>
  
  <body><![CDATA[<div class="aatcc-article-container"><div class="aatcc-category-label">Current Issue</div><div class="aatcc-meta-box"><div class="aatcc-doi-wrap">
            <a class="aatcc-doi-btn" href="https://doi.org/10.21276/AATCCReview.2025.13.02.85" target="_blank">https://doi.org/10.21276/AATCCReview.2025.13.02.85</a>
        </div><div class="aatcc-abstract-section">
                <h3>Abstract</h3>
                <div class="aatcc-abstract-text"><p>The process of cutting agricultural materials stands as one of the pivotal operations,<br />
primarily employed in harvesting and threshing to achieve the necessary separation and<br />
subsequent fragmentation of plant components. Essential fodder preparation tasks such as<br />
straw chopping, baling, and mulching also heavily rely on cutting processes, demanding a<br />
substantial amount of energy. This article provides a comprehensive overview of research<br />
factors, operational parameters and crop properties that influence the performance of<br />
cutting mechanisms for agricultural crops, offering valuable insights to design engineers<br />
for crafting suitable incentives to adapt to crop variations.The velocity of cutting and the<br />
configuration of blades emerge as critical factors in crop harvesting. The proportion of<br />
energy consumption during crop harvesting and threshing ranges from 7.9 to 35.9 percent<br />
of the total operational energy expended. Cutting velocity and blade angles directly<br />
impact the power demands and efficiency of harvesting machinery. Optimizing these<br />
parameters can lead to energy savings during cutting while simultaneously enhancing<br />
cutting quality.Furthermore, energy consumption during cutting is closely linked to<br />
bending forces. Sharpness and blade material composition significantly influence wear<br />
resistance and durability, making it imperative to select appropriate materials that can<br />
sustain prolonged use in varying crop conditions. High power requirements are observed<br />
with blunt blades, resulting in inefficient cutting. Hence, this paper is expected to<br />
significantly aid design engineers, researchers, and other stakeholders in developing<br />
efficient cutting mechanisms for new machinery and tailoring cutting mechanisms to suit<br />
new species and varieties. It is anticipated that the findings of this study will contribute to<br />
the modification of existing harvesters as well.</p>
</div>
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